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Author SHA1 Message Date
ZacharyZhang-NY e22a13dfeb Ask for the language first, and install in Chinese in a CJK console
The first screen offers English or Simplified Chinese. Chinese reruns
the configurator in cage + foot, which draw Chinese, with Noto Sans
Mono CJK unpacked from the offline mirror's noto-fonts-cjk; no font
joins the live image. There the keyboard list keeps US-keymap layouts
and preselects Chinese (Simplified, Pinyin), every later screen and
the install dashboard read in Chinese, and the target gets
LANG=zh_CN.UTF-8 through locale_config. Without a display or the
font, Chinese continues in English on the VT. The summary shows the
keyboard by its label instead of its keymap.

Needs omarchy's omarchy_prompt_language and omarchy_text in
install/provisioning/setup-form.sh.
2026-10-12 01:21:41 -04:00
Kros DaiandClaude Opus 5.5 31cca48c14 🐛 fix(build): refuse profiles the runtime cannot apply
- 🐛 profiles and the finalizer ship in separate packages, so a skewed pair would give regional targets a keyring without the repositories

Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01QuATgjU4mnqpqSLAKMQ14g
2026-10-08 16:08:59 -04:00
Kros DaiandClaude Opus 5.5 abc1a7716d 🐛 fix(install): reject non-string region overrides
- 🐛 a boolean or number in user_configuration.json crashed with a traceback instead of a configuration error
- ✅ pin regional packages inside the offline mirror mount window

Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01QuATgjU4mnqpqSLAKMQ14g
2026-10-08 15:32:46 -04:00
Kros DaiandClaude Opus 5.5 27b7e76c5a 🐛 fix(build): read region profiles from settings package
- 🐛 default/ ships in omarchy-settings, so published builds silently bundled no regions
- ✅ cover the published package path, a package without profiles, and an unreadable one

Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01QuATgjU4mnqpqSLAKMQ14g
2026-10-08 15:32:46 -04:00
Kros DaiandClaude Opus 5.5 9dcfdb035a 📝 docs(autoinstall): explain region selection
- 📝 unattended installs need to know how to pick a region without a timezone

Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01QuATgjU4mnqpqSLAKMQ14g
2026-10-08 15:03:31 -04:00
Kros DaiandClaude Opus 5.5 e121561851 ✨ feat(install): pick the region from the timezone
- ✨ the timezone the user already chose selects the region, so no new prompt is needed
- 🔒 populate only the selected region's keys so global installs never trust them
- ✅ cover the mapping, autoinstall override, marker, keyring setup, and builder staging

Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01QuATgjU4mnqpqSLAKMQ14g
2026-10-08 15:03:31 -04:00
Kros DaiandClaude Opus 5.5 1c912658aa ✨ feat(build): bundle every region profile offline
- ✨ one iso serves every region, so regional packages ride in the offline repo without being installed by default
- 🔒 verify each regional keyring through arch's trust chain before downloading its packages

Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01QuATgjU4mnqpqSLAKMQ14g
2026-10-08 15:03:31 -04:00
David Heinemeier Hansson 8b17699997 Prioritize OPR in online installer repositories (#240) 2026-10-08 16:57:28 +02:00
David Heinemeier Hansson 595d38cb04 Carry installer input-method selection into the target (#237)
Install test / install (push) Failing after 13s
Unit tests / unit (push) Failing after 17s
* Carry the installer input-method choice into the target

* Support Archinstall 4.5 sanity checks

* Constrain VM keyboard choices to supported credential layouts

* Cover VM keyboard offsets and reject absent choices
2026-10-07 21:21:55 +02:00
Emir Beganović 073f7b2fc0 Merge pull request #214 from omacom/ci/unit-tests
ci: run the VM-free unit tests on every pull request
2026-10-05 09:24:35 +02:00
Emir Beganovic d02dee7e73 ci: run the VM-free unit tests on every pull request
./test/all runs the cidata and orchestrator tests under test/unit/ in a couple of seconds, with no ISO. It runs in an Arch container, where the code it covers runs: the container boots systemd for the tests that ask localectl for its keymaps, and the tests run as an ordinary user. The install test keeps covering everything that needs a VM.
2026-10-05 03:17:37 +02:00
Emir Beganović 36b072ce76 Merge pull request #213 from omacom/ci/install-test
CI: install test on every pull request
2026-10-05 02:58:17 +02:00
Emir Beganovic fe133bd419 ci: hand root-owned test results to the runner; install progress every 30 s
The harness runs as root in its container, so test-runs and the serial
logs QEMU writes there belong to root. The runner's user could then
neither record the pull request number beside them nor read
install-serial.log into the artifact (EACCES at zip time), which failed
the job after a passing install and boot. A chown -R step after the
container step, run even on failure, fixes both. The install loop now
prints a line every 30 s and still screenshots every 2 min.
2026-10-05 01:45:19 +02:00
Emir Beganovic 89a34f7885 ci: comment survives a missing baseline, picks the right attempt
Review fixes for the comment workflow. Artifacts are downloaded by name
for the exact attempt that finished, and for the baseline run's latest
attempt, since a rerun keeps earlier attempts' artifacts under the same
run. Every lookup prints nothing instead of failing, so no quattro
baseline yet, an expired one, or a missing boot file shows as "–"
rather than ending the script under set -e before any comment. The
install test's own marker step takes ownership of test-runs first,
which the harness created as root inside its container.
2026-10-05 01:42:36 +02:00
Emir Beganovic 37f71a0efb ci: run the install test with QEMU 11 in an Arch container
The harness now runs in archlinux:latest with /dev/kvm passed through,
so CI uses Arch's current QEMU and OVMF (QEMU 11.1, edk2 202608) at the
paths the harness expects, the same as an Omarchy workstation, instead
of Ubuntu 24.04's QEMU 8.2 with symlinks and shims. Arch splits QEMU's
devices into modules: virtio-vga needs both qemu-hw-display-virtio-gpu
and qemu-hw-display-virtio-vga, and QEMU 11.1 segfaults on
-device virtio-vga when only the latter is installed.
2026-10-05 01:30:01 +02:00
Emir Beganovic 84149ef33b test/integration: wall-clock SSH wait with progress
wait_for_ssh counted only its sleeps toward the timeout. Under QEMU user
networking each attempt can also spend its whole ConnectTimeout waiting
for a banner, so a "300 s" wait ran for ten minutes or more without a
line of output. It now uses a wall-clock deadline, polls every 2 s, and
prints a progress line with a console screenshot every 30 s. When the
boot scenario times out it prints the serial console's last lines too.
2026-10-05 01:20:00 +02:00
Emir Beganovic 57df34ddfc test/integration: wait for startup before timing, keep failures visible
Review fixes. The first-boot systemd-analyze now waits (bounded) for
startup to finish, since SSH can answer first and systemd-analyze
refuses until it has. In the boot scenario, a non-zero exit from
is-system-running (as for "degraded") no longer ends the script under
set -e before the diagnostics are saved, and a failed query for failed
units writes a marker instead of an empty file that read as "none".
2026-10-05 01:10:30 +02:00
Emir Beganovic 6aef3008c1 ci: post install-test numbers on the pull request
A second workflow, triggered when the install test completes, posts one
comment on the pull request and updates it on every run: install, first
boot and everyday boot next to quattro's latest numbers, with the change,
and the install phases in a collapsed table. Pushes to quattro now run
the install test too, so there is always a baseline.

It runs from quattro's copy with write access, which works for pull
requests from forks, so it never checks out or runs pull request code.
It reads only the finished run's artifact, trusts the pull request
number in it only when that pull request's head is the commit the run
tested, and keeps phase names to plain text.
2026-10-05 00:59:00 +02:00
Emir Beganovic 1ad8872146 ci: install test on every pull request
Builds the ISO a pull request produces, installs it unattended in a KVM
guest on a GitHub-hosted runner, boots the installed system again, and
writes the install time per phase plus first-boot and everyday-boot
systemd-analyze to the job summary. Every later installer change is
measured against these numbers in its own PR.

Locally against the 2026-10-04 quattro ISO: install 51.3 s (42.9 s of
it pacstrap), first boot 12.1 s, everyday boot 11.7 s with ~6 s in the
loader, systemd running, no failed units.

A disk check replaces a cleanup step: the runner has ~86 GB free, so
the 2-minute "Free Disk Space" action the nightly uses is not needed.
2026-10-05 00:54:55 +02:00
Emir Beganovic e7774eeeaf test/integration: boot scenario for the everyday boot
Boots the installed system a second time, records the time to SSH and
systemd-analyze, and asserts systemd reaches running with no failed
units. It gives CI a scenario that passes on today's installer and a
number for every change that touches boot.
2026-10-05 00:54:55 +02:00
Emir Beganovic 82d5693395 test/integration: keep the install timing and first-boot numbers
After an unattended install the harness now copies the installer's
timing file and log off the installed system, with systemd-analyze from
its first boot, next to the base image, so CI can report them without
attaching the disk. OMARCHY_INTEGRATION_DISK_CACHE sets the target
disk's QEMU cache mode; cache=none keeps the host page cache out of the
guest's writes, so install times measure the installer rather than the
host.
2026-10-05 00:54:55 +02:00
Emir Beganović 1ca5e5a7a3 Merge pull request #196 from narze/quattro-nightly-build-fix
Fix failing Nightly ISO build since ~Sep 17 due to missing apple-bcm-firmware package
2026-10-05 00:23:24 +02:00
Ryan Hughes 86c07785cb Merge pull request #198 from omacom/feat/install-icon-progress
Draw the Omarchy icon as installation progresses
2026-09-23 23:21:56 -05:00
Ryan Hughes 9373d0e139 Draw the Omarchy icon as installation progresses 2026-09-23 23:18:10 -04:00
Manassarn ManoonchaiandClaude Opus 5 555c364221 Follow the T2 firmware package through its rename
arch-mact2 dropped apple-bcm-firmware on 2026-09-16 and published
apple-bcm-firmware-fetcher in its place. The new package only conflicts
with the old name instead of replacing it, so pacman cannot follow the
rename and every nightly build has aborted with "target not found"
since 2026-09-17.

Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01CRnZrQDE6jowz4KxmzusL8
2026-09-21 18:27:34 +07:00
Ryan Hughes 7cfb7111a0 Merge pull request #184 from omacom/fix/iso-kernel-headers
Install and validate matching kernel headers in the ISO
2026-09-14 22:35:33 -07:00
Ryan Hughes 1daf1202d4 Install and validate matching kernel headers in the ISO 2026-09-15 00:06:40 -04:00
Ryan Hughes 47426693de Merge pull request #182 from omacom/fix/iso-linux-omarchy-default
Install linux-omarchy by default except on T2 Macs
2026-09-14 18:39:34 -07:00
Ryan Hughes b507a20b7e Install linux-omarchy by default except on T2 Macs 2026-09-14 18:45:34 -04:00
Ryan Hughes 447f6d2e58 Merge pull request #168 from drmikecrowe/greeter-matcher
Match the greeter on the part of the tagline that is not the pitch
2026-09-14 13:14:37 -07:00
Ryan Hughes a23f8d464d Merge pull request #163 from omacom/fix/broadcom-wl-dkms
Map broadcom-wl to broadcom-wl-dkms in the offline mirror list
2026-09-07 23:03:57 -04:00
Ryan Hughes 6f5ab0bcd1 Map broadcom-wl to broadcom-wl-dkms in the offline mirror list
Arch dropped the prebuilt broadcom-wl on 2026-09-02 and rebuilt broadcom-wl-dkms with replaces=(broadcom-wl). That only helps upgrades of an installed package; as an explicit pacman -Syw target the old name fails with "target not found", which broke the offline mirror download. Published runtime packages that predate the rename still list it in omarchy-other.packages, so rewrite it at build time until every channel ships a runtime naming broadcom-wl-dkms itself.
2026-09-07 23:03:16 -04:00
Mike Crowe 2f5af06895 Match the greeter on the part of the tagline that is not the pitch
The acceptance harness waits for the installer greeter by looking for
"Opinionated", which the tagline no longer contains: it now reads "Beautiful,
Fun & Agentic Linux by DHH". Every scenario the harness drives fails at the
first screen with

  Timed out after 300s waiting for screen: Opinionated

five minutes into a run that never gets further.

Matching "Linux by DHH" instead. That is the half of the tagline naming the
product rather than describing it, it is common to the old wording and the new,
and OCR reads it cleanly off the greeter. A tagline is marketing copy and will
be rewritten again; the product name is what the test actually means.
2026-09-03 07:49:55 -04:00
David Heinemeier Hansson 2673c613d9 Update the tagline to Beautiful, Fun & Agentic (#144)
Matches omarchy.org and the omarchy repo. The centring math keys off the string length, so the shorter line stays centred.
2026-09-01 11:54:27 +02:00
Ryan Hughes d6e4060d56 Add omarchy-iso-test-stop to shut down the kept-running VM
Graceful guest poweroff over SSH first, escalating to TERM then KILL;
--kill skips straight to force. Finds the newest live run by its pidfile
and confirms before acting when run from a terminal, since a harness
still driving the VM dies with it.
2026-08-30 18:33:17 -04:00
Ryan Hughes 100a41f7fd Type the console bootstrap blind and gate it on SSH
A VNC viewer that resizes the guest framebuffer makes the console font
unreadable to OCR, which stranded the bootstrap at its login-prompt gate.
Getty is reliably on the spare TTY and SSH coming up is the real success
signal, so type the login blind and retry the whole sequence up to three
times; a failed pass just leaves getty re-prompting.

Also print the resize-safe viewer invocation whenever a VM starts: a
resize during early boot can wedge virtio-gpu before the system is up.
2026-08-30 18:33:17 -04:00
Ryan Hughes f9be60b24b Name the released ISO after its full candidate version
--rc appended a bare -rc suffix regardless of the version passed, so
every candidate of a train uploaded over the same omarchy-X.Y.Z-rc.iso
and nobody could tell rc1 from rc2 by name or URL. A version that
already numbers its candidate (4.0.2rc2) is the complete artifact name;
the suffix remains for unnumbered candidate builds.
2026-08-30 17:15:42 -04:00
Ryan Hughes 222a742daf Merge pull request #136 from omacom/tagline-beautiful-fun
Change the greeter tagline to "Beautiful, Fun & Opinionated"
2026-08-30 17:03:17 -04:00
Ryan Hughes 9900e63bd4 Merge pull request #139 from omacom/fix/iso-test-ocr-bindings-vnc
Fix omarchy-iso-test staleness against 4.0.2-rc and add VNC visibility
2026-08-30 16:57:08 -04:00
Ryan Hughes 37fd3c4305 Sync the whole test suite and run it in the guest
--sync-omarchy now pushes all of test/ (the security coverage lives in
shell.d as well as acceptance.d), and the acceptance run gets
OMARCHY_ACCEPTANCE_SUDO_PASSWORD so the suite's opt-in sshd hardening
exercise can run against the throwaway VM.

--sync-all additionally runs the CLI and shell suites inside the guest
from the synced tree. The acceptance suite always runs against
/usr/share/omarchy either way: VM runs verify the finished product, and
qs matches shell instances by config path, so pointing the suite at the
synced tree just reads the session shell as "not running".
2026-08-30 16:45:35 -04:00
Ryan Hughes e89c0796f7 Serve a localhost VNC display from test VMs
Runs stay headless, but a viewer on 127.0.0.1:5905 can watch the driven
install live or inspect the acceptance VM left up by --keep-running.
2026-08-30 15:30:37 -04:00
Ryan Hughes 0b2739a55d Match the shortcut smoke to the menu-first bindings
Omarchy now binds Super+Space to the Omarchy menu and Super+Alt+Space to
the apps menu, and the omarchy.launcher plugin is gone (the apps menu
replaced it). The smoke table still expected the old launcher binding, so
both chords failed against current builds. Both surfaces open under the
omarchy-menu layer namespace.
2026-08-30 15:30:31 -04:00
Ryan Hughes 9a7325e3a6 Stop OCR-waiting on the unencrypted install confirm
Tesseract cannot read the highlighted "Yes, install without encryption"
button under any preprocessing, so waiting for that text always timed out
and killed unencrypted installs at the disk warning. Capture the screen and
continue instead; a Ctrl+C toggle that failed to apply still surfaces when
the unexpectedly encrypted install stalls at the LUKS prompt on first boot.
2026-08-30 15:30:21 -04:00
Ryan Hughes bba81a6ec5 End the release by printing the URL, checksum, and local path
The artifacts a release exists to hand out — the download URL and the
checksum to verify it with — were buried in rclone transfer noise or
absent entirely. Print them together as the final output, after the
upload has actually succeeded (set -e means reaching this line is the
success path).
2026-08-30 14:20:08 -04:00
Ryan Hughes 6b5ce68f25 Run docker through sudo when the socket refuses the user
The docker group is root-equivalent, so Omarchy operators stay out of
it on purpose — which left omarchy-iso-make unable to reach the daemon
at all. Fall back to sudo docker when a plain client call cannot reach
the socket; the script already prompts for interactive sudo elsewhere.
DOCKER_ARGS (including HOST_UID/HOST_GID) are assembled before the
escalation, so output ownership is unchanged.
2026-08-30 14:19:21 -04:00
Ryan Hughes 02f8d1cf50 Stop the ISO release when a step fails
omarchy-iso-release ran every step unconditionally: when docker denied
the build, it fell through to signing and uploading the newest stale
*-rc.iso from release/ under the new release's name — a six-month-old
ISO shipped as omarchy-4.0.2-rc.iso. set -e ends the release at the
first failed step, and also aborts when release/ holds no ISO for the
ref at all.
2026-08-30 14:15:01 -04:00
David Heinemeier Hansson 3559b2bc9d Change the greeter tagline to "Beautiful, Fun & Opinionated"
The same frame opens omarchy's first boot from its own copy of the string, so both repositories change together or an install and the deferred first boot after it bookend the setup with different words. Nothing generates one copy from the other: the vendoring between the repositories covers the setup form, not the greeter.

The line is centred from its own length, so the three characters it loses move it one column and nothing else.
2026-08-30 14:33:48 +02:00
Ryan Hughes d2e764d317 RC ISO installs from the rc package channel
pacman-online-rc.conf's [omarchy] repo moves from pkgs.omarchy.org/edge to
pkgs.omarchy.org/rc: an RC ISO now bundles and installs the release-candidate
packages against the package set stable users will get, instead of edge
churn.
2026-08-26 01:37:17 -04:00
OmarchybotandCodex XHigh 268bac16d3 Name the install medium when pacstrap rejects a package off it (#120)
* Name the install medium when pacstrap rejects a package off it

A failed install showed "Omarchy installation stopped", the pacstrap error, a log tail, and a link to Discord. Somewhere in that tail was the whole answer -- pacman rejecting a package as corrupt -- and nothing on the screen connected it to the USB stick it came off.

Nothing else can put it there. The offline mirror is bind-mounted onto the target's package cache for the duration of pacstrap, so a package rejected under that path was read straight off the medium; nothing else ever writes there. That is worth saying in the words that name the fix rather than leaving it as a package name nobody recognises.

Which way the medium failed is a separate question, and usually unanswerable after the fact: pacstrap runs with --noconfirm, which answers yes to pacman's "delete it?", so the evidence is unlinked through the bind mount before anything can weigh it. The usual verdict therefore names the medium and gives both remedies in the order worth trying -- verify the download first, because it is cheap and rules out the common case. When the package does survive, the sha256 repo-add recorded at build time separates a bad write from a bad read, and the wording follows.

Co-Authored-By: Codex XHigh <codex@openai.com>

* Keep the media diagnosis whole and print it once

Two things only visible by looking at the rendered screen.

The diagnosis was recorded in the support log before the failure screen was drawn, and the log tail on that screen reads the same file -- so the verdict appeared twice, once as the banner and again eight lines below it. The same finding printed twice reads as two findings. It is recorded after the render now, and the tail carries the installer's own output the way it did before.

The package name shared a line with the sentence explaining it, and the screen is only as wide as the logo. npth's name already pushed the mismatch wording past the edge, and a firmware package would have taken the whole sentence with it. Every verdict puts the name on a line of its own, and the test walks all three with a sixty-three character package name to keep them there.

Co-Authored-By: Codex XHigh <codex@openai.com>

* Break the media diagnosis between what happened and what to do

The package name and the remedy beneath it ran together as one block, so the line telling someone to verify their download read as another clause about the package rather than the first thing to go and do. A blank line separates them in all three verdicts.

The renderer dropped blank lines, on the assumption that any it saw were slack rather than shape, so the break is drawn now instead of skipped.

* Give the log tail back the rows the diagnosis spends

The tail sizes itself from the terminal height less a constant for everything drawn above it, and the diagnosis is seven rows that constant never knew about. On a forty-row console the failure screen came to forty-one and scrolled its own logo off the top. The tail is the part that should give way, so it is told what was spent above it.

The test that came with this first asserted the logo was still on screen, which it cannot: it reads the output stream, and the stream keeps every row ever emitted whether or not it stayed visible. It passed with the fix reverted. It checks the mechanism instead -- a tail that reaches fewer lines of the log when a diagnosis is present -- against two logs identical line for line but for the one path that decides whether there is a diagnosis at all.

---------

Co-authored-by: Codex XHigh <codex@openai.com>
2026-08-23 21:20:13 +02:00
OmarchybotandCodex XHigh 6d02625f7f Publish a checksum beside every released ISO (#119)
The release script computed the ISO's sha256 and echoed it to the releaser's terminal, where nobody downloading the ISO could ever see it, and the uploader shipped the ISO and its signature but nothing to check the download against. So "verify your download" was not advice anyone could act on.

That matters more for this ISO than for most. The offline pacman mirror lives inside the airootfs and is stored uncompressed, and the installer bind-mounts it onto the target's package cache, so pacstrap reads packages straight off the medium. A flipped block there meets no decompressor and no squashfs block checksum on the way; pacman's integrity check is the first thing in the chain to notice, minutes into the install, as "invalid or corrupted package" against a package name that says nothing about the download.

The sidecar names the ISO alone rather than the build path, so it verifies from whatever directory it was downloaded into. A release that cannot write it stops, because the sidecar left over from the previous release reads as a checksum for this one. The uploader now tallies every copy instead of letting the last one decide the exit status, and warns when there is no checksum to publish.

Co-authored-by: Codex XHigh <codex@openai.com>
2026-08-23 12:59:32 +02:00
OmarchybotandCodex XHigh df80b320cb Stop the install dying on non-UTF-8 command output (#118)
* Stop the install dying on non-UTF-8 command output

efibootmgr prints what firmware gave it, and an HP ProBook's NVRAM held a legacy BBS entry whose device path was raw binary. `_read_efibootmgr` captured that with `text=True`, so Python decoded it strictly and a byte in a boot entry nothing here reads killed the whole "Installing Arch + Omarchy" phase. Two machines have hit it now, on 0x80 and 0xe0.

Every text capture in the orchestrator had the same exposure — partition labels reach lsblk and blkid the same way firmware strings reach efibootmgr — so they all go through one `capture()` that replaces what it cannot decode. The file reads here already did this; the command reads were the gap.

Replacing bytes has its own failure mode, and it is worse than the crash: a mangled UUID would be written into fstab and the kernel cmdline, and `_validate_pre_mounted_filesystems` reads it back from the same command, agrees with itself, and ships a machine that cannot find its root. So `require_text()` refuses a value the installed system depends on — UUIDs, device names, the btrfs device handed to mount — while the boot-entry labels stay tolerant on purpose: the decisions taken from those are advisory, and refusing a junk one would abort the install this change exists to let finish.

The regression test runs a stand-in efibootmgr emitting the reported byte sequence, so it exercises the decode rather than a mock. test_keyboard.py loads the module through the package now that keyboard.py imports a sibling.

Closes #116

🤖 Generated by Opus 5 in Claude Code. Reviewed by Codex XHigh.

Co-Authored-By: Codex XHigh <noreply@openai.com>

* Say accurately why the boot-entry parsing stays tolerant

The previous commit called the decisions taken from a firmware label "advisory". They are not: a label match selects entries for deletion and rewrites the boot order, and a missing one aborts validation. Staying tolerant is still right, for a reason the comment did not give — an entry's text is its label and its device path together, the junk lives in the path, and nothing mangled reaches efibootmgr from there anyway, since only four-digit ASCII boot numbers become arguments and a boot order is filtered through the entries that parsed. A label that loses a byte costs a stale entry left behind, not a broken system.

The test docstring credited one machine with a fixture that carries the bytes from two.

Co-Authored-By: Codex XHigh <noreply@openai.com>

---------

Co-authored-by: Codex XHigh <noreply@openai.com>
2026-08-23 12:57:03 +02:00
David Heinemeier HanssonandClaude Fable 5 0c1333837f Add an integration test suite that boots ISO scenarios in QEMU (#109)
* Move the unit tests under test/unit

test/ is growing an integration suite; the fast, VM-free tests get their
own directory so the two kinds cannot be confused. test/all keeps its
role as the aggregate runner for everything that needs no built ISO.

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>

* Add an integration suite that boots ISO scenarios in QEMU

test/integration installs an ISO once — unattended, from a generated
cidata drive — and saves a reusable base image; each scenario in
test/integration.d/ then boots a throwaway overlay with its own copy of
the firmware vars. Shared machinery (VM lifecycle, QMP screendump + OCR
console driving, virtual keystrokes, guest SSH, the cidata build) lives
in base-test.sh, so a new scenario is one file.

The first scenario proves omarchy-system-factory-reset hands a machine
on without destroying a shared ESP: a Windows entry and a foreign Linux
with its own machine-id, boot directory, and UKIs must survive both the
staged reset and the first-boot provisioning that follows.

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>

* Let omarchy-iso-make keep the host package cache

Purging /var/cache/pacman/pkg needs interactive sudo, which blocks
unattended builds. --keep-pkg-cache skips the purge so test rigs and
agents can build an ISO without a prompt.

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>

---------

Co-authored-by: Claude Fable 5 <noreply@anthropic.com>
2026-08-15 18:35:24 +02:00
David Heinemeier HanssonandClaude Fable 5 10bd6632d3 True up the secure boot plan and drop implemented plans
The consumer-secure-boot plan now reflects the current repo: installs
already boot mkinitcpio-built UKIs via Limine with pacman hooks
regenerating them, so the remaining work is signing, not UKI plumbing.
The Microsoft shim submission is called out as the calendar-bound
critical path, and DKMS/NVIDIA module signing is promoted to a v1
blocker. BitLocker guidance matches the shipped decrypt-not-suspend
policy from #105.

Removed plans that have shipped: tailscale (#97), autoinstall,
oem-install (#98/#107), dual-boot, and protected-partition-install
(dual-boot half shipped, restore half superseded by factory snapshots).

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01N1HofkzWQwCMZSYAxm1tGe
2026-08-15 16:47:31 +02:00
David Heinemeier HanssonandClaude Opus 5 174dd82b15 Install the published Omarchy packages in the default build
The quattro ref is what a bare omarchy-iso-make builds, so pinning it to
omarchy-dev meant every default ISO shipped the dev runtime. Only the edge,
dev, and local-source refs need those recipes now.

Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
2026-08-14 08:59:53 -07:00
Ryan Hughes 7d3b01eae9 Fix partition issue 2026-08-13 23:57:22 -04:00
David Heinemeier HanssonandClaude Opus 5 7c50d72f40 Keep offering the deferred install after backing out (#107)
* Keep offering the deferred install after backing out

The keyboard screen only advertised Ctrl+C on its first showing. Backing out
of the user step — Esc from the account form, or "No, change it" on the review
table — returned to the same screen with the hint gone and Ctrl+C back to
aborting the install, so an operator who started a direct install could no
longer switch to preparing the machine for another owner.

Offer it on every visit instead. Nothing has touched the disk at that point in
either path, and the confirmation screen still catches a stray Ctrl+C. The user
step now returns as soon as the keyboard screen arms deferral, and the main
flow re-checks the flag before choosing a branch, so a late deferral clears the
half-entered credentials and goes straight to disk selection.

Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>

* Trim the comments around the deferral check

Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>

---------

Co-authored-by: Claude Opus 5 (1M context) <noreply@anthropic.com>
2026-08-13 20:55:07 +02:00
55 changed files with 4813 additions and 1730 deletions

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+118
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@@ -0,0 +1,118 @@
name: Install test comment
# Posts the install test's numbers on the pull request as one comment, kept
# up to date on every run, next to quattro's latest numbers. GitHub runs
# workflow_run workflows from the default branch, with write access even for
# pull requests from forks, so this job never checks out or runs pull request
# code: it only reads the finished run's artifact, as data.
on:
workflow_run:
workflows: ["Install test"]
types: [completed]
permissions:
actions: read
pull-requests: write
jobs:
comment:
if: github.event.workflow_run.event == 'pull_request'
runs-on: ubuntu-latest
env:
GH_TOKEN: ${{ github.token }}
REPO: ${{ github.repository }}
RUN_ID: ${{ github.event.workflow_run.id }}
RUN_URL: ${{ github.event.workflow_run.html_url }}
HEAD_SHA: ${{ github.event.workflow_run.head_sha }}
CONCLUSION: ${{ github.event.workflow_run.conclusion }}
steps:
# A rerun keeps earlier attempts' artifacts under the same run, so take
# exactly the attempt that finished (and the baseline's latest attempt).
- name: Fetch this run's numbers and quattro's latest
env:
ATTEMPT: ${{ github.event.workflow_run.run_attempt }}
run: |
gh run download "$RUN_ID" -R "$REPO" -n "install-test-$RUN_ID-$ATTEMPT" -D pr || true
base=$(gh run list -R "$REPO" --workflow install-test.yml --branch quattro --event push \
--status success -L 1 --json databaseId -q '.[0].databaseId')
if [ -n "$base" ]; then
base_attempt=$(gh api "repos/$REPO/actions/runs/$base" -q .run_attempt)
gh run download "$base" -R "$REPO" -n "install-test-$base-$base_attempt" -D base || true
fi
- name: Comment on the pull request
run: |
set -euo pipefail
marker='<!-- omarchy-install-test -->'
# The number comes from the pull request's own run, so trust it only
# when that pull request's head is the commit this run tested.
pr=$({ find pr -name pr-number -exec cat {} + 2>/dev/null || true; } | head -1 | tr -dc 0-9)
[ -n "$pr" ] || { echo "No pull request number in the artifact"; exit 0; }
[ "$(gh api "repos/$REPO/pulls/$pr" -q .head.sha)" = "$HEAD_SHA" ] ||
{ echo "PR #$pr has moved past $HEAD_SHA; not commenting"; exit 0; }
# Every lookup prints nothing rather than failing, so a missing baseline (none
# yet, or expired) shows as "–" instead of ending the script under set -e.
timing() { { find "$1" -name omarchy-install-timing.json 2>/dev/null || true; } | head -1; }
install_s() { [ -n "$1" ] || return 0; jq -r '.finished_at - .started_at' "$1" 2>/dev/null || true; }
# "Startup finished in … = 1min 2.3s" or "= 12.104s" -> seconds
boot_s() {
local f
f=$({ find "$1" -path "$2" 2>/dev/null || true; } | head -1)
[ -n "$f" ] || return 0
head -1 "$f" | sed -n 's/.*= *//p' |
awk '{t=0; for (i=1;i<=NF;i++) { if ($i ~ /min$/) t+=60*$i; else if ($i ~ /ms$/) t+=$i/1000; else t+=$i } printf "%.3f", t}'
}
cell() { [ -n "$1" ] && awk -v x="$1" 'BEGIN{printf "%.1f s", x}' || echo "–"; }
change() {
[ -n "$1" ] && [ -n "$2" ] || { echo "–"; return; }
awk -v a="$1" -v b="$2" 'BEGIN{d=a-b; printf "%s%.1f s", (d>=0?"+":"−"), (d<0?-d:d)}'
}
pt=$(timing pr); bt=$(timing base)
rows=(
"Install|$(install_s "$pt")|$(install_s "$bt")"
"First boot|$(boot_s pr '*/first-boot-systemd-analyze.txt')|$(boot_s base '*/first-boot-systemd-analyze.txt')"
"Everyday boot|$(boot_s pr '*-boot/systemd-analyze.txt')|$(boot_s base '*-boot/systemd-analyze.txt')"
)
status="passed"; [ "$CONCLUSION" = success ] || status="**${CONCLUSION}**"
{
echo "$marker"
echo "### Install test $status"
echo
echo "| | This PR | quattro | Change |"
echo "| --- | ---: | ---: | ---: |"
for row in "${rows[@]}"; do
IFS='|' read -r name this base_v <<<"$row"
echo "| $name | $(cell "$this") | $(cell "$base_v") | $(change "$this" "$base_v") |"
done
if [ -n "$pt" ]; then
echo
echo "<details><summary>Install phases</summary>"
echo
echo "| Phase | This PR | quattro |"
echo "| --- | ---: | ---: |"
# Phase names come from the pull request's installer: keep them to plain text.
jq -r --slurpfile b <( [ -n "$bt" ] && cat "$bt" || echo '{"phases":[]}' ) '
($b[0].phases | map({key: .name, value: .elapsed}) | from_entries) as $base
| .phases[]
| "| \(.name | gsub("[^A-Za-z0-9 +&/().-]"; "") | .[0:60]) | \(.elapsed * 10 | round / 10) s | \(($base[.name] // null) | if . == null then "–" else "\(. * 10 | round / 10) s" end) |"
' "$pt"
echo
echo "</details>"
fi
echo
echo "[Run]($RUN_URL) · ${HEAD_SHA:0:8}"
} > comment.md
existing=$(gh api "repos/$REPO/issues/$pr/comments" --paginate \
-q ".[] | select(.user.login == \"github-actions[bot]\" and (.body | startswith(\"$marker\"))) | .id" | head -1)
if [ -n "$existing" ]; then
gh api -X PATCH "repos/$REPO/issues/comments/$existing" -F body=@comment.md >/dev/null
else
gh api "repos/$REPO/issues/$pr/comments" -F body=@comment.md >/dev/null
fi
cat comment.md
+117
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@@ -0,0 +1,117 @@
name: Install test
# Builds the ISO a pull request produces, installs it unattended in a KVM
# guest, boots the installed system again, and reports how long the install
# and both boots took. Every later change to the installer is measured
# against these numbers in its own PR.
on:
pull_request:
# Each merge records quattro's numbers, which PR comments compare against.
push:
branches: [quattro]
workflow_dispatch:
permissions:
contents: read
concurrency:
group: install-test-${{ github.event.pull_request.number || github.ref }}
cancel-in-progress: true
jobs:
install:
runs-on: ubuntu-24.04
timeout-minutes: 75
steps:
- uses: actions/checkout@08c6903cd8c0fde910a37f88322edcfb5dd907a8 # v5
# The hosted runner has far more disk than the build needs (145 GB,
# ~86 GB free); fail early and loudly if that ever changes.
- name: Check disk space
run: |
df -h /
avail_gb=$(df -BG --output=avail / | tail -1 | tr -dc 0-9)
[ "$avail_gb" -ge 40 ] || { echo "::error::only ${avail_gb} GB free, the ISO build and install test need ~40 GB"; exit 1; }
- uses: docker/setup-buildx-action@37fe631027851001ddb9b187196cc803df7f5f0e # v4
- name: Build the ISO
run: NO_BOOT_OFFER=1 ./bin/omarchy-iso-make
# The harness runs in an Arch container: Arch's current QEMU and OVMF
# (QEMU 11) instead of Ubuntu 24.04's QEMU 8.2, at the paths the
# harness expects, the same as on an Omarchy workstation.
- name: Install unattended, then boot the installed system
run: |
sudo chmod 0666 /dev/kvm
docker run --rm --device /dev/kvm -v "$PWD:/w" -w /w \
-e OMARCHY_INTEGRATION_DISK_CACHE=none \
archlinux:latest bash -euo pipefail -c '
pacman -Syu --noconfirm --needed qemu-system-x86 qemu-hw-display-virtio-gpu qemu-hw-display-virtio-vga qemu-img edk2-ovmf socat \
imagemagick tesseract tesseract-data-eng mtools dosfstools jq openssh openssl python curl >/dev/null
# test/integration installs its tools through Omarchy'"'"'s helper; they are installed above.
printf "#!/bin/sh\nexit 0\n" >/usr/local/bin/omarchy-pkg-add
chmod 0755 /usr/local/bin/omarchy-pkg-add
qemu-system-x86_64 --version | head -1
./test/integration release/*.iso boot --no-preview --memory 8192 --timeout 1800
'
# The harness ran as root in its container: test-runs and what QEMU
# wrote there (the serial logs) belong to root until this step.
- name: Hand the results to the runner's user
if: always()
run: |
mkdir -p test-runs
sudo chown -R "$(id -u):$(id -g)" test-runs
- name: Report times
if: always()
run: |
base=$(ls -d test-runs/*-integration 2>/dev/null | head -1)
[ -n "$base" ] || { echo "No test run to report" >> "$GITHUB_STEP_SUMMARY"; exit 0; }
{
echo "## Install test"
echo
if [ -f "$base/omarchy-install-timing.json" ]; then
jq -r '"**Install:** \((.finished_at - .started_at) * 10 | round / 10) s across \(.phases | length) phases"' "$base/omarchy-install-timing.json"
echo
echo "| Phase | Seconds |"
echo "| --- | ---: |"
jq -r '.phases[] | "| \(.name) | \(.elapsed * 10 | round / 10) |"' "$base/omarchy-install-timing.json"
echo
fi
if [ -f "$base/first-boot-systemd-analyze.txt" ]; then
echo "**First boot:** $(head -1 "$base/first-boot-systemd-analyze.txt")"
echo
fi
boot_dir=$(ls -d "$base"/runs/*-boot 2>/dev/null | tail -1)
if [ -n "$boot_dir" ] && [ -f "$boot_dir/systemd-analyze.txt" ]; then
echo "**Everyday boot:** $(head -1 "$boot_dir/systemd-analyze.txt")"
echo
echo "System state: $(jq -r .system_state "$boot_dir/boot-timing.json" 2>/dev/null)"
fi
} >> "$GITHUB_STEP_SUMMARY"
# The comment workflow runs from quattro and reads only this artifact;
# it needs the PR number, which a workflow_run event omits for forks.
- name: Record the pull request
if: always() && github.event_name == 'pull_request'
run: echo "${{ github.event.pull_request.number }}" > test-runs/pr-number
- name: Upload test artifacts
if: always()
uses: actions/upload-artifact@b7c566a772e6b6bfb58ed0dc250532a479d7789f # v6
with:
name: install-test-${{ github.run_id }}-${{ github.run_attempt }}
path: |
test-runs/pr-number
test-runs/*/omarchy-install-timing.json
test-runs/*/omarchy-install.log
test-runs/*/first-boot-systemd-analyze.txt
test-runs/*/runs/**/*.png
test-runs/*/runs/**/*.txt
test-runs/*/runs/**/*.json
test-runs/*/runs/**/*.log
if-no-files-found: ignore
retention-days: 14
+55
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@@ -0,0 +1,55 @@
name: Unit tests
# The fast, VM-free tests under test/unit/: cidata autoinstall loading and the
# orchestrator's phases. Seconds per run, no ISO build; the install test
# covers the rest.
on:
pull_request:
push:
branches: [quattro]
workflow_dispatch:
permissions:
contents: read
jobs:
unit:
runs-on: ubuntu-24.04
timeout-minutes: 10
steps:
- uses: actions/checkout@08c6903cd8c0fde910a37f88322edcfb5dd907a8 # v5
# The tests run where the code they cover runs: on Arch, the same as
# the live ISO and an Omarchy workstation. The container boots systemd
# because the keyboard tests ask the real localectl for its keymaps, and
# the tests run as an ordinary user because some of them check what
# happens when a file cannot be written.
#
# A privileged container shares the host's consoles and devices, so the
# units that would claim them are masked before systemd starts: without
# that, its getty, udev and vconsole setup take over the host's.
- name: Run ./test/all in an Arch container
run: |
docker run -d --name unit --privileged --cgroupns=host \
-v /sys/fs/cgroup:/sys/fs/cgroup:rw --tmpfs /run --tmpfs /tmp:exec \
-v "$PWD:/src:ro" archlinux:latest bash -c '
systemctl mask getty.target console-getty.service \
systemd-udev-trigger.service systemd-udevd.service \
systemd-vconsole-setup.service
exec /usr/lib/systemd/systemd
'
docker exec unit bash -euo pipefail -c '
for i in $(seq 1 60); do
state=$(systemctl is-system-running 2>/dev/null || true)
case $state in running | degraded) break ;; esac
sleep 1
done
echo "systemd: $state"
pacman -Syu --noconfirm --needed python parted >/dev/null
useradd -m tester
cp -r /src /home/tester/omarchy-iso
chown -R tester /home/tester/omarchy-iso
cd /home/tester/omarchy-iso
setpriv --reuid=tester --regid=tester --init-groups ./test/all
'
+28 -2
View File
@@ -6,6 +6,14 @@ The Omarchy ISO is the only supported way to install Omarchy. It ships the Omarc
See the ISO link on [omarchy.org](https://omarchy.org).
Every published ISO has a `.sha256` beside it at the same URL. Download both into the same directory and check the ISO before writing it to a USB stick:
```bash
sha256sum -c omarchy-3.0.iso.sha256
```
Corruption anywhere in the ISO is worth catching before the write, and corruption in the bundled package mirror is worth catching most: the mirror lives inside the ISO and the installer reads it straight off the medium, so those bytes surface minutes into the install as a pacman "invalid or corrupted package" error rather than as anything that names the download. Corruption elsewhere is louder and earlier — it stops the medium booting or mounting. There is a `.sig` beside the ISO too for anyone who wants to verify it against the Omarchy signing key.
## Creating the ISO
Run `./bin/omarchy-iso-make`; output goes into `./release`. By default the ISO uses the Omarchy packages and tracks the `quattro` branch, from the stable mirror. Pass `--edge` to use `omarchy-dev` and `omarchy-settings-dev` from the edge mirror.
@@ -18,6 +26,8 @@ For local development, build the ISO from sibling checkouts:
Despite the local folder name, the first argument is the Omarchy source checkout (runtime commands, configs, setup scripts, themes, shell, migrations). The installer itself lives in this ISO repo.
The configurator asks for the language on its first screen: English or Simplified Chinese. Chinese reruns the installer in cage + foot, a console that draws Chinese, with Noto Sans Mono CJK unpacked from the offline mirror's `noto-fonts-cjk`. It opens on the keyboard screen, offers only keyboards with a US keymap (cage keeps a US layout) and preselects Chinese (Simplified, Pinyin); every later screen and the install progress read in Chinese. Esc there goes back to a bilingual language screen, where English returns to the VT, which applies the chosen keymap. Without a working display or the font, Chinese continues in English on the VT. Either way a Chinese install sets the target's `LANG` to `zh_CN.UTF-8` through archinstall's `locale_config`. The language never decides the region: that follows the timezone. The Chinese text lives in `OMARCHY_ZH` tables beside the English it replaces.
Use `--dev` or `--rc` to build against those package channels. Both `--dev` and `--edge` select the dev packages from the edge mirror.
## Autoinstall
@@ -54,6 +64,8 @@ When `authorized_keys` is present, autoinstall installs it as the user's `~/.ssh
When `tailscale_authkey` is present (one key, blank lines and `#` comments ignored), the install adds the `tailscale` package from the ISO's bundled mirror — nothing is fetched from the network at install or boot — and stages the join for first boot: the key lands at `/etc/tailscale/authkey` (root-only), `tailscaled` is enabled, ufw allows traffic in on `tailscale0`, and a background unit runs `tailscale up` once the network is actually up, retrying until it succeeds without holding up the boot. After a successful join the key is deleted and the unit disables itself; until then both survive reboots, so a machine installed offline joins whenever it first gets connectivity. The node appears on the tailnet under the configured hostname. Use a reusable, pre-authorized (tagged) key so one drive image serves many machines — or an ephemeral key for disposable VMs.
The region follows `timezone`, exactly as in an interactive install: a timezone listed in one of the runtime's region profiles (`default/regions/*/timezones`, such as `Asia/Shanghai` for `cn`) selects that profile's mirrors and repositories, and anything else is global. Set `omarchy_install.region` in `user_configuration.json` to pick one explicitly, for example `"cn"` on a deferred-provisioning install, which carries `UTC` until first boot. Every ISO bundles every profile's packages, so a regional install still needs no network.
### Building the drive
```bash
@@ -86,7 +98,7 @@ Encrypted autoinstalls are not fully unattended — the LUKS passphrase prompt s
Run `./bin/omarchy-iso-boot [release/omarchy.iso]`.
Run `./test/all` for the unit tests, which cover cidata autoinstall loading and the orchestrator's SSH access phase without needing a built ISO.
Run `./test/all` for the fast, VM-free tests under `test/unit/`, which cover cidata autoinstall loading and the orchestrator's phases without needing a built ISO.
To exercise installation alongside existing Windows-style partitions, run
`./bin/omarchy-iso-test-windows-disk [release/omarchy.iso]`. It creates a
@@ -110,13 +122,27 @@ The harness syncs the acceptance suite from `$OMARCHY_PATH` when it is available
Pass `--encrypt` to drive the encrypted install flow (including typing the LUKS passphrase at boot) instead of the unencrypted one. Pass `--no-preview` to collect the same visual artifacts without opening them in `imv` when the run finishes.
## Integration testing the ISO
Scenarios under `test/integration.d/` boot a real ISO install in QEMU and assert on what the running system actually does. The runner installs the ISO once — unattended, from a generated cidata drive — and saves the result as a reusable base image; every scenario then boots a throwaway overlay of that base with its own copy of the firmware vars, so neither disk nor NVRAM state leaks between runs. Shared machinery (VM lifecycle, QMP screendump + OCR console driving, virtual keystrokes, guest SSH, the cidata build) lives in `test/integration.d/base-test.sh`, so a new scenario is one file.
```bash
./test/integration release/omarchy.iso # install once, run all scenarios
./test/integration release/omarchy.iso --reuse-base # fast loop against the saved base
./test/integration release/omarchy.iso factory-reset # a single named scenario
```
The first scenario is `factory-reset`: it proves `omarchy-system-factory-reset` hands a machine on without destroying a shared ESP. The installed ESP gets a Windows entry with payload plus a second Linux cloned under a foreign machine-id with its own boot directory and UKIs; a real factory reset is then driven through a guest pty, and the harness asserts the foreign entries survive both the staged reset and first-boot provisioning, that the old Omarchy identity is fully retired, and that the machine reaches first-boot setup unattended.
Artifacts — screenshots, the fixtured/staged/final `limine.conf`, the reset typescript, and the factory-reset log — land under `test-runs/<iso>-integration/runs/<timestamp>-<scenario>/`, and `--no-preview` skips the `imv` review just like the acceptance harness.
## Signing the ISO
Run `./bin/omarchy-iso-sign [release/omarchy.iso]`. The signing key is retrieved from the shared Omarchy vault with the 1Password CLI.
## Uploading the ISO
Run `./bin/omarchy-iso-upload [release/omarchy.iso]`. This requires rclone configuration (`rclone config`).
Run `./bin/omarchy-iso-upload [release/omarchy.iso]`. This requires rclone configuration (`rclone config`). The `.sig` and `.sha256` sidecars go up with the ISO when they exist beside it.
## Full release of the ISO
+20 -3
View File
@@ -3,6 +3,7 @@
set -e
NO_CACHE=""
KEEP_PKG_CACHE=""
LOCAL_OMARCHY_PATH=""
LOCAL_PKGS_PATH=""
while [[ $# -gt 0 ]]; do
@@ -11,6 +12,10 @@ while [[ $# -gt 0 ]]; do
NO_CACHE=1
shift
;;
--keep-pkg-cache)
KEEP_PKG_CACHE=1
shift
;;
--no-boot-offer)
NO_BOOT_OFFER=1
shift
@@ -52,7 +57,7 @@ while [[ $# -gt 0 ]]; do
;;
*)
echo "Unknown option: $1"
echo "Usage: $0 [--no-cache] [--no-boot-offer] [--debug] [--edge] [--dev|--rc] [--local-source <omarchy-checkout> <pkgs-checkout>]"
echo "Usage: $0 [--no-cache] [--keep-pkg-cache] [--no-boot-offer] [--debug] [--edge] [--dev|--rc] [--local-source <omarchy-checkout> <pkgs-checkout>]"
exit 1
;;
esac
@@ -100,7 +105,11 @@ lint_file_permissions() {
lint_file_permissions
sudo rm -rf /var/cache/pacman/pkg/*
# Purging the host package cache needs interactive sudo; --keep-pkg-cache
# skips it so unattended builds (test rigs, agents) can run without a prompt.
if [[ -z $KEEP_PKG_CACHE ]]; then
sudo rm -rf /var/cache/pacman/pkg/*
fi
git submodule update --init --recursive --jobs=8
BUILD_SCRIPT="builder/build-iso.sh"
@@ -149,7 +158,15 @@ else
DOCKER_ARGS+=(--pull=always)
fi
docker run "${DOCKER_ARGS[@]}" archlinux/archlinux:latest /$BUILD_SCRIPT
# The docker group is root-equivalent, so Omarchy operators stay out of it on
# purpose. When the socket refuses the calling user, run the client through
# sudo instead of requiring group membership.
DOCKER=(docker)
if ! docker version &>/dev/null; then
DOCKER=(sudo docker)
fi
"${DOCKER[@]}" run "${DOCKER_ARGS[@]}" archlinux/archlinux:latest /$BUILD_SCRIPT
latest_iso=$(\ls -t "$BUILD_RELEASE_PATH"/*.iso | head -n1)
iso_ref="${latest_iso%.*}-$OMARCHY_ISO_REF.iso"
+29
View File
@@ -1,5 +1,10 @@
#!/bin/bash
# A failed step must stop the release: without this, a make that dies (say,
# docker permission denied) falls through to signing and uploading whatever
# stale ISO release/ already holds, under the new release's name.
set -e
MAKE_ARGS=()
ISO_REF=quattro
RELEASE_SUFFIX=""
@@ -37,6 +42,14 @@ if [[ -z "${BUILD_VERSION-}" ]]; then
exit 1
fi
# A version that already numbers its candidate (4.0.2rc2) is the complete
# artifact name; the bare -rc suffix exists only for an unnumbered candidate.
# Without this, every candidate of a train uploads over the same
# omarchy-X.Y.Z-rc.iso and testers cannot tell which rc they are holding.
if [[ $BUILD_VERSION == *rc* ]]; then
RELEASE_SUFFIX=""
fi
BUILD_ROOT=$(realpath "${BASH_SOURCE[0]%/*}/..")
BUILD_RELEASE_PATH="$BUILD_ROOT/release"
@@ -56,7 +69,23 @@ cp "$latest_iso" "$release_iso"
echo -e "\e[32mSigning $ISO_REF ISO\e[0m"
omarchy-iso-sign "$release_iso"
# The checksum sidecar names the ISO alone, never the build path: it is
# downloaded next to the ISO and has to verify with `sha256sum -c` from
# whatever directory the person who downloaded it happens to be in. A release
# that cannot write it stops here, because the sidecar left over from the last
# release reads as a checksum for this one.
iso_sha=$(sha256sum "$release_iso")
iso_sha=${iso_sha%% *}
if [[ -z $iso_sha ]] || ! printf '%s %s\n' "$iso_sha" "${release_iso##*/}" >"$release_iso.sha256"; then
echo -e "\e[31mCould not write the checksum for $release_iso\e[0m" >&2
exit 1
fi
echo -e "\e[32mSHA256 for $ISO_REF ISO: $iso_sha\e[0m"
omarchy-iso-upload "$release_iso"
# The whole point of a release is handing someone this pair.
echo -e "\e[32mReleased $ISO_REF ISO $BUILD_VERSION\e[0m"
echo " URL: https://iso.omarchy.org/${release_iso##*/}"
echo " SHA256: $iso_sha"
echo " Local: $release_iso"
+192 -70
View File
@@ -13,14 +13,19 @@
#
# Usage: omarchy-iso-test [release/omarchy.iso] [options]
#
# --keyboard LABEL English (US/UK), Japanese, Japanese (US keyboard), Korean,
# or Chinese (Simplified, Pinyin)/(Traditional, Zhuyin).
# OMARCHY_PATH must be the source tree used to build the ISO.
# --encrypt Drive the encrypted install flow (default: unencrypted)
# --language LANG Pick en (default) or zh; zh keeps the preselected Pinyin keyboard
# --provision Drive the deferred-provisioning install flow: no user during install, the
# first boot runs omarchy-provision-owner and creates it there
# --reuse-base Skip the install phase if a base image already exists
# --install-only Stop after producing the installed base image
# --sync-omarchy DIR Push DIR's test/acceptance into the guest before running
# --sync-omarchy DIR Push DIR's test suite into the guest before running
# (defaults to OMARCHY_PATH when the suite is present)
# --sync-all DIR Push all of DIR (bin/config/shell/test) into the guest
# and also run the CLI and shell suites there
# --port PORT Host port forwarded to guest SSH (default 2222)
# --memory MB VM memory (default 8192)
# --timeout SECS Install timeout (default 2400)
@@ -38,6 +43,7 @@ MEMORY=8192
INSTALL_TIMEOUT=2400
BOOT_TIMEOUT=600
ENCRYPT=false
INSTALL_LANGUAGE=en
PROVISION=false
REUSE_BASE=false
INSTALL_ONLY=false
@@ -46,13 +52,16 @@ NO_PREVIEW=false
SYNC_DIR=""
SYNC_ALL=false
KEYBOARD_LABEL="English (US)"
GUEST_USER="omarchy"
GUEST_PASSWORD="omarchy"
GUEST_HOSTNAME="omarchy-test"
while (($#)); do
case "$1" in
--keyboard) KEYBOARD_LABEL="$2"; shift ;;
--encrypt) ENCRYPT=true ;;
--language) INSTALL_LANGUAGE="$2"; shift ;;
--provision) PROVISION=true ;;
--reuse-base) REUSE_BASE=true ;;
--install-only) INSTALL_ONLY=true ;;
@@ -83,13 +92,42 @@ if [[ ! -f ${ISO:-} ]]; then
exit 1
fi
omarchy-pkg-add qemu-full edk2-ovmf socat imagemagick tesseract tesseract-data-eng
if [[ $INSTALL_LANGUAGE != "en" && $INSTALL_LANGUAGE != "zh" ]]; then
echo "--language must be en or zh, not $INSTALL_LANGUAGE" >&2
exit 1
fi
if [[ $INSTALL_LANGUAGE == "zh" && $KEYBOARD_LABEL != "English (US)" ]]; then
echo "--language zh takes the preselected Pinyin keyboard; drop --keyboard" >&2
exit 1
fi
case "$KEYBOARD_LABEL" in
"English (US)" | "English (UK)" | "Japanese" | "Japanese (US keyboard)" | "Korean" | "Chinese (Simplified, Pinyin)" | "Chinese (Traditional, Zhuyin)") ;;
*) echo "The VM harness cannot type credentials with keyboard: $KEYBOARD_LABEL" >&2; exit 1 ;;
esac
omarchy-pkg-add qemu-full edk2-ovmf socat imagemagick tesseract tesseract-data-eng tesseract-data-chi_sim
# After the language screen a Chinese install reads in Chinese.
OCR_LANGS=eng
[[ $INSTALL_LANGUAGE == "zh" ]] && OCR_LANGS=eng+chi_sim
# lang_text <english> <chinese> picks the text a screen shows in this run.
lang_text() {
if [[ $INSTALL_LANGUAGE == "zh" ]]; then
printf '%s' "$2"
else
printf '%s' "$1"
fi
}
OVMF_CODE="/usr/share/edk2/x64/OVMF_CODE.4m.fd"
OVMF_VARS_TEMPLATE="/usr/share/edk2/x64/OVMF_VARS.4m.fd"
BASE_NAME="$(basename "$ISO" .iso)"
if [[ $KEYBOARD_LABEL != "English (US)" ]]; then
BASE_NAME+="-$(printf '%s' "$KEYBOARD_LABEL" | tr '[:upper:]' '[:lower:]' | sed 's/[^a-z0-9]/-/g')"
fi
$ENCRYPT && BASE_NAME+="-encrypted"
[[ $INSTALL_LANGUAGE == "zh" ]] && BASE_NAME+="-zh"
$PROVISION && BASE_NAME+="-provision"
BASE_DIR="$REPO_DIR/test-runs/$BASE_NAME"
RUN_DIR="$BASE_DIR/runs/$(date +%Y%m%d-%H%M%S)"
@@ -201,6 +239,11 @@ start_vm() {
local disk="$1" serial="$2"
shift 2
# A viewer that resizes the guest display breaks the console driving: OCR
# cannot read the shrunken font, and a resize during early boot can wedge
# virtio-gpu before the system comes up.
log "Watch (do not resize): vncviewer -RemoteResize=0 127.0.0.1:5905"
qemu-system-x86_64 \
-cpu host -enable-kvm -machine q35,accel=kvm \
-smp "$(nproc)" \
@@ -211,6 +254,7 @@ start_vm() {
-device virtio-blk-pci,drive=drive0,bootindex=1 \
-device virtio-vga \
-display none \
-vnc 127.0.0.1:5 \
-usb -device usb-tablet \
-netdev user,id=net0,hostfwd=tcp:127.0.0.1:$SSH_PORT-:22 \
-device virtio-net-pci,netdev=net0 \
@@ -233,7 +277,13 @@ ocr_screen() {
screendump "$shot"
[[ -s $shot ]] || return 0
magick "$shot" -colorspace gray -negate -resize 150% "$prepped" 2>/dev/null || return 0
tesseract "$prepped" - --psm 6 2>/dev/null || true
# The logo throws tesseract off CJK, so Chinese runs also read below it, without spaces.
if [[ $INSTALL_LANGUAGE == "zh" ]]; then
magick "$shot" -gravity north -chop 0x35% -colorspace gray -negate -resize 150% "$prepped.text.png" 2>/dev/null || return 0
{ tesseract "$prepped" - --psm 6 -l "$OCR_LANGS"; tesseract "$prepped.text.png" - --psm 6 -l "$OCR_LANGS"; } 2>/dev/null | sed 'p; s/ //g' || true
else
tesseract "$prepped" - --psm 6 -l "$OCR_LANGS" 2>/dev/null || true
fi
}
# Wait until the console shows the given text. Saves the offending screen as
@@ -400,7 +450,7 @@ guest_layer_absent() {
}
cleanup_shortcut_state() {
ssh_session 'for plugin in omarchy.launcher omarchy.menu omarchy.emojis omarchy.clipboard omarchy.audio; do
ssh_session 'for plugin in omarchy.menu omarchy.emojis omarchy.clipboard omarchy.audio; do
omarchy-shell shell hide "$plugin" >/dev/null 2>&1 || true
done
while read -r address; do
@@ -577,8 +627,8 @@ shortcut_smoke_phase() {
local status=0
local name chord namespace plugin
local shortcuts='launcher|meta_l-spc|omarchy-launcher|omarchy.launcher
menu|meta_l-alt-spc|omarchy-menu|omarchy.menu
local shortcuts='menu|meta_l-spc|omarchy-menu|omarchy.menu
apps-menu|meta_l-alt-spc|omarchy-menu|omarchy.menu
emojis|meta_l-ctrl-e|omarchy-emojis|omarchy.emojis
clipboard|meta_l-ctrl-v|omarchy-clipboard|omarchy.clipboard
audio-panel|meta_l-ctrl-a|omarchy-keyboard-panel|omarchy.audio'
@@ -603,35 +653,73 @@ audio-panel|meta_l-ctrl-a|omarchy-keyboard-panel|omarchy.audio'
# ----------------------------------------------------- driving the installer
select_keyboard() {
local label="$1" index direction="down"
# gum choose uses arrows, not a searchable text field. Read the same ordered
# choices the ISO vendors from the runtime rather than hard-code row numbers.
index=$(OMARCHY_TEST_KEYBOARD="$label" python - <<'PYTHON'
import os, re
from pathlib import Path
source = Path(os.environ.get("OMARCHY_PATH", "")) / "install/provisioning/setup-form.sh"
if not source.is_file():
raise SystemExit("Set OMARCHY_PATH to the source tree used to build this ISO")
text = source.read_text()
rows = re.search(r"OMARCHY_KEYBOARD_LAYOUTS=\$'(.*?)'\n", text, re.S).group(1).splitlines()
labels = [row.split("|")[0] for row in rows]
label = os.environ["OMARCHY_TEST_KEYBOARD"]
if label not in labels:
raise SystemExit(f"Keyboard choice is absent from the ISO source: {label}")
print(labels.index(label) - labels.index("English (US)"))
PYTHON
) || return 1
if (( index < 0 )); then
direction="up"
index=$((-index))
fi
for (( i = 0; i < index; i++ )); do
press "$direction"
sleep 0.1
done
}
drive_configurator() {
log "Driving the installer wizard"
# A greeter (animated logo + tagline) opens the installer; Return begins.
wait_for_screen "Opinionated" 300
wait_for_screen "Linux by DHH" 300
capture_console "success-installer-00-greeter"
press ret
# Keyboard is the first screen. Ctrl+C there is the hidden entry into deferred provisioning
# mode; a normal install just selects the layout.
wait_for_screen "keyboard layout" 300
# Language comes first: English on top, Chinese below.
wait_for_screen "Select language" 300
capture_console "success-installer-01-language"
if [[ $INSTALL_LANGUAGE == "zh" ]]; then press end; else press home; fi
press ret
# The keyboard follows, for Chinese in cage + foot; Ctrl+C there defers provisioning.
wait_for_screen "$(lang_text "keyboard layout" "键盘布局")" 300
capture_console "success-installer-01-keyboard-layout"
if $PROVISION; then
press ctrl-c # arm "prepare for another owner"
wait_for_screen "another owner" 30
wait_for_screen "$(lang_text "another owner" "另一位")" 30
capture_console "success-installer-02-prepare-confirm"
press ret # "Yes, prepare for another owner" is the affirmative default
# Jumps straight to disk selection, then the overwrite confirm.
wait_for_screen "install disk" 60
wait_for_screen "$(lang_text "install disk" "安装磁盘")" 60
capture_console "success-installer-03-prepare-install-disk"
press ret
wait_for_screen "recovery possible" 60
wait_for_screen "$(lang_text "recovery possible" "无法恢复")" 60
capture_console "success-installer-04-prepare-disk-warning-encrypted"
if ! $ENCRYPT; then
press ctrl-c
wait_for_screen "without encryption" 30
# The toggled confirm ("Yes, install without encryption") is a highlighted
# button OCR cannot read, so don't wait for it. A failed toggle still
# surfaces: the encrypted install stalls at the LUKS prompt on first boot
# and SSH never comes up.
sleep 2
capture_console "success-installer-05-prepare-disk-warning-unencrypted"
fi
press ret
@@ -640,62 +728,78 @@ drive_configurator() {
return 0
fi
press ret # English (US) is preselected
if [[ $KEYBOARD_LABEL != "English (US)" ]]; then
select_keyboard "$KEYBOARD_LABEL"
capture_console "success-installer-01-selected-keyboard"
fi
press ret
# Normal flow: user step comes before disk selection.
wait_for_screen "Username" 120
wait_for_screen "$(lang_text "Username" "用户名")" 120
type_text "$GUEST_USER"
capture_console "success-installer-02-username"
press ret
wait_for_screen "Password" 60
wait_for_screen "$(lang_text "Password" "密码")" 60
type_text "$GUEST_PASSWORD"
capture_console "success-installer-03-password"
press ret
wait_for_screen "Must match" 60
wait_for_screen "$(lang_text "Must match" "确认")" 60
type_text "$GUEST_PASSWORD"
capture_console "success-installer-04-password-confirmation"
press ret
wait_for_screen "Full name" 60
wait_for_screen "$(lang_text "Full name" "姓名")" 60
type_text "Omarchy Test"
capture_console "success-installer-05-full-name"
press ret
wait_for_screen "Email address" 60
type_text "test@omarchy.org"
wait_for_screen "$(lang_text "Email address" "邮箱")" 60
type_text "test"
if [[ $KEYBOARD_LABEL == "Japanese" ]]; then
press bracket_left
elif [[ $KEYBOARD_LABEL == "English (UK)" ]]; then
press shift-apostrophe
else
press shift-2
fi
type_text "omarchy.org"
capture_console "success-installer-06-email"
press ret
wait_for_screen "Hostname" 60
wait_for_screen "$(lang_text "Hostname" "主机名")" 60
type_text "$GUEST_HOSTNAME"
capture_console "success-installer-07-hostname"
press ret
wait_for_screen "Timezone" 180 # tzupdate geo-guess can take a moment
wait_for_screen "$(lang_text "Timezone" "时区")" 180 # tzupdate geo-guess can take a moment
capture_console "success-installer-08-timezone"
press ret
wait_for_screen "look right" 60
wait_for_screen "$(lang_text "look right" "正确")" 60
capture_console "success-installer-09-review"
press ret
wait_for_screen "install disk" 60
wait_for_screen "$(lang_text "install disk" "安装磁盘")" 60
capture_console "success-installer-10-install-disk"
press ret # the single virtio disk
wait_for_screen "installation mode\|recovery possible" 60
if ocr_screen | grep -qi "installation mode"; then
wait_for_screen "$(lang_text "installation mode\|recovery possible" "安装方式\|无法恢复")" 60
if ocr_screen | grep -qi "$(lang_text "installation mode" "安装方式")"; then
capture_console "success-installer-11-install-mode"
press ret # "Full disk install" is preselected
fi
wait_for_screen "recovery possible" 60
wait_for_screen "$(lang_text "recovery possible" "无法恢复")" 60
capture_console "success-installer-12-disk-warning-encrypted"
if ! $ENCRYPT; then
press ctrl-c # toggles the confirm to the unencrypted flow
wait_for_screen "without encryption" 30
# The toggled confirm ("Yes, install without encryption") is a highlighted
# button OCR cannot read, so don't wait for it. A failed toggle still
# surfaces: the encrypted install stalls at the LUKS prompt on first boot
# and SSH never comes up.
sleep 2
capture_console "success-installer-13-disk-warning-unencrypted"
fi
press ret
@@ -716,13 +820,17 @@ drive_provision_owner() {
# layout — UK leaves every letter identical to US, so the typed password (sent
# as raw keycodes) still matches the literal one the harness pipes to sudo.
# A greeter (animated logo + tagline) opens first boot; Return begins.
wait_for_screen "Opinionated" 600
wait_for_screen "Linux by DHH" 600
capture_console "success-provision-00-greeter"
press ret
wait_for_screen "keyboard layout" 120
press down
capture_console "success-provision-01-keyboard-layout-uk"
if [[ $KEYBOARD_LABEL == "English (US)" ]]; then
press down # preserve the harness's default UK provisioning coverage
else
select_keyboard "$KEYBOARD_LABEL"
fi
capture_console "success-provision-01-keyboard-layout"
press ret
wait_for_screen "Username" 120
@@ -748,7 +856,13 @@ drive_provision_owner() {
# Shift+2 as on US); send that keycode so the typed email is correct under
# the new layout — itself further proof the deferred keymap took effect.
type_text "test"
press shift-apostrophe
if [[ $KEYBOARD_LABEL == "English (US)" || $KEYBOARD_LABEL == "English (UK)" ]]; then
press shift-apostrophe
elif [[ $KEYBOARD_LABEL == "Japanese" ]]; then
press bracket_left
else
press shift-2
fi
type_text "omarchy.org"
capture_console "success-provision-04-email"
press ret
@@ -781,7 +895,8 @@ wait_for_install() {
while true; do
text=$(ocr_screen)
if grep -qi "Reboot Now" <<<"$text"; then
# OCR cannot read the Chinese reboot button, so Chinese runs match the title above it.
if grep -qi "$(lang_text "Reboot Now" "安装完成")" <<<"$text"; then
log "Install finished. Confirming the reboot prompt."
capture_console "success-installer-15-reboot"
press ret
@@ -791,13 +906,13 @@ wait_for_install() {
# Deferred-provisioning installs skip the celebration and reboot on their own
# (no Reboot Now prompt); the first-boot greeter tagline appearing means the
# install finished and rebooted into setup.
if $PROVISION && grep -qi "Opinionated" <<<"$text"; then
if $PROVISION && grep -qi "Linux by DHH" <<<"$text"; then
log "Install finished and auto-rebooted into first-boot setup."
capture_console "success-installer-15-autoreboot"
return 0
fi
if grep -qi "installation stopped" <<<"$text"; then
if grep -qi "$(lang_text "installation stopped" "安装已停止")" <<<"$text"; then
capture_console "failure-installer-installation-stopped"
echo "Install failed — screenshot saved to $RUN_DIR" >&2
return 1
@@ -875,40 +990,39 @@ EOF
(cd "$BASE_DIR/www" && exec python3 -m http.server "$HTTP_PORT" --bind 127.0.0.1 >/dev/null 2>&1) &
HTTP_PID=$!
local waited=0
while true; do
# Type the login blind: a VNC viewer that resizes the framebuffer makes the
# console font unreadable to OCR, and the real gate is SSH coming up anyway.
# Getty re-prompts after a failed login, so a whole-sequence retry recovers
# from typing before the prompt was ready.
sleep 15 # give first boot time to reach getty
local attempt
for attempt in 1 2 3; do
press ctrl-alt-f3
sleep 8
press ret # settle a half-typed prompt from a previous attempt
sleep 2
type_text "$GUEST_USER"
capture_console "success-first-boot-03-console-username"
press ret
sleep 3
type_text "$GUEST_PASSWORD"
press ret
sleep 4
ocr_screen | grep -qi "login:" && break
((waited += 8))
type_text "curl -fsS http://10.0.2.2:$HTTP_PORT/bootstrap -o /tmp/bs && bash /tmp/bs"
capture_console "success-first-boot-05-bootstrap-command"
press ret
if ((waited >= 300)); then
capture_console "failure-first-boot-console-timeout"
echo "Timed out waiting for a console login prompt" >&2
return 1
if wait_for_ssh 120 "failure-first-boot-ssh-timeout-$attempt"; then
capture_console "success-first-boot-06-bootstrap-complete"
kill "$HTTP_PID" 2>/dev/null || true
HTTP_PID=""
press ctrl-alt-f1
return 0
fi
sleep 4
done
type_text "$GUEST_USER"
capture_console "success-first-boot-03-console-username"
press ret
wait_for_screen "Password" 60
type_text "$GUEST_PASSWORD"
capture_console "success-first-boot-04-console-password"
press ret
sleep 3
type_text "curl -fsS http://10.0.2.2:$HTTP_PORT/bootstrap -o /tmp/bs && bash /tmp/bs"
capture_console "success-first-boot-05-bootstrap-command"
press ret
wait_for_ssh 360 "failure-first-boot-ssh-timeout"
capture_console "success-first-boot-06-bootstrap-complete"
kill "$HTTP_PID" 2>/dev/null || true
HTTP_PID=""
press ctrl-alt-f1
echo "Console bootstrap did not produce SSH access after 3 attempts" >&2
return 1
}
# Get a freshly booted system to a running Hyprland session, typing at the
@@ -1058,17 +1172,14 @@ sync_omarchy() {
log "Syncing $SYNC_DIR into the guest"
tar -C "$SYNC_DIR" --exclude .git -cf - . | ssh_guest "mkdir -p $target && tar -C $target -xf -"
else
log "Syncing $SYNC_DIR/test/acceptance into the guest"
tar -C "$SYNC_DIR/test" -cf - acceptance acceptance.d | ssh_guest "mkdir -p $target/test && tar -C $target/test -xf -"
log "Syncing $SYNC_DIR/test into the guest"
tar -C "$SYNC_DIR" -cf - test | ssh_guest "mkdir -p $target && tar -C $target -xf -"
fi
}
acceptance_phase() {
log "Booting acceptance VM from base image overlay"
local guest_omarchy_path="/usr/share/omarchy"
$SYNC_ALL && guest_omarchy_path=".local/share/omarchy"
qemu-img create -f qcow2 -b "$BASE_DISK" -F qcow2 "$RUN_DIR/run.qcow2" >/dev/null
start_vm "$RUN_DIR/run.qcow2" "$RUN_DIR/serial.log"
@@ -1078,8 +1189,19 @@ acceptance_phase() {
local status=0
shortcut_smoke_phase || status=1
# The synced tree is a full checkout under --sync-all; run the host-style
# CLI and shell suites in the guest too before the graphical acceptance
# run. They derive their root from their own location in the synced tree.
if $SYNC_ALL; then
log "Running CLI and shell suites in the guest"
ssh_guest "bash .local/share/omarchy/test/all" || status=$?
fi
# The product under test is always the installed tree — VM runs verify the
# finished product, never a dev-linked checkout.
log "Running acceptance suite"
ssh_guest "OMARCHY_PATH=$guest_omarchy_path OMARCHY_ACCEPTANCE_DIR=/tmp/omarchy-acceptance bash .local/share/omarchy/test/acceptance" || status=$?
ssh_guest "OMARCHY_PATH=/usr/share/omarchy OMARCHY_ACCEPTANCE_DIR=/tmp/omarchy-acceptance \
OMARCHY_ACCEPTANCE_SUDO_PASSWORD=$GUEST_PASSWORD bash .local/share/omarchy/test/acceptance" || status=$?
log "Collecting artifacts into $RUN_DIR"
ssh_guest "tar -C /tmp -cf - omarchy-acceptance 2>/dev/null" | tar -C "$RUN_DIR" -xf - || true
+101
View File
@@ -0,0 +1,101 @@
#!/bin/bash
#
# Stop the VM a `omarchy-iso-test --keep-running` run left behind: graceful
# guest poweroff over SSH first, escalating to TERM then KILL. The base image
# is untouched either way; only the throwaway run overlay is affected.
#
# Usage: omarchy-iso-test-stop [--kill] [--port PORT]
#
# --kill Skip the graceful poweroff and kill the VM immediately
# --port PORT Host port forwarded to guest SSH (default 2222)
set -euo pipefail
SCRIPT_DIR="$(cd "$(dirname "${BASH_SOURCE[0]}")" && pwd)"
REPO_DIR="$(dirname "$SCRIPT_DIR")"
GUEST_USER="omarchy"
GUEST_PASSWORD="omarchy"
SSH_PORT=2222
GRACEFUL=true
while (($#)); do
case "$1" in
--kill) GRACEFUL=false ;;
--port) SSH_PORT="$2"; shift ;;
-h | --help)
sed -n '3,10p' "${BASH_SOURCE[0]}" | sed 's/^# \{0,1\}//'
exit 0
;;
*) echo "Unknown option: $1" >&2; exit 1 ;;
esac
shift
done
# The newest run dir whose qemu is still alive is the VM to stop.
PID=""
PIDFILE=""
while IFS= read -r candidate; do
pid=$(<"$candidate")
if kill -0 "$pid" 2>/dev/null; then
PID="$pid"
PIDFILE="$candidate"
break
fi
done < <(ls -t "$REPO_DIR"/test-runs/*/runs/*/qemu.pid 2>/dev/null)
if [[ -z $PID ]]; then
echo "No running omarchy-iso-test VM found." >&2
exit 1
fi
BASE_DIR="$(dirname "$(dirname "$(dirname "$PIDFILE")")")"
SSH_KEY="$BASE_DIR/id_ed25519"
# A harness that is still driving this VM dies with it; make sure that is
# what the caller wants before pulling anything down.
if [[ -t 0 ]]; then
if pgrep -f "bin/omarchy-iso-test .*\.iso" >/dev/null; then
echo "Warning: an omarchy-iso-test run appears to be in progress."
fi
if ! gum confirm "Stop test VM (pid $PID, ${PIDFILE#$REPO_DIR/})?"; then
exit 0
fi
fi
echo "Stopping test VM (pid $PID, ${PIDFILE#$REPO_DIR/})"
if $GRACEFUL && [[ -f $SSH_KEY ]]; then
ssh -i "$SSH_KEY" -p "$SSH_PORT" \
-o BatchMode=yes \
-o IdentitiesOnly=yes \
-o StrictHostKeyChecking=no \
-o UserKnownHostsFile=/dev/null \
-o ConnectTimeout=5 \
-o LogLevel=ERROR \
"$GUEST_USER@127.0.0.1" \
"echo $GUEST_PASSWORD | sudo -S systemctl poweroff" >/dev/null 2>&1 || true
waited=0
while kill -0 "$PID" 2>/dev/null && ((waited < 15)); do
sleep 1
((waited += 1))
done
fi
if kill -0 "$PID" 2>/dev/null; then
kill "$PID" 2>/dev/null || true
sleep 1
fi
if kill -0 "$PID" 2>/dev/null; then
kill -9 "$PID" 2>/dev/null || true
sleep 1
fi
if kill -0 "$PID" 2>/dev/null; then
echo "VM (pid $PID) refused to die." >&2
exit 1
fi
echo "VM stopped; port $SSH_PORT is free."
+49 -6
View File
@@ -5,11 +5,10 @@ set -euo pipefail
SCRIPT_DIR="$(cd "$(dirname "${BASH_SOURCE[0]}")" && pwd)"
REPO_ROOT="$(dirname "$SCRIPT_DIR")"
TEST_DISK="${OMARCHY_ISO_TEST_WINDOWS_DISK:-/tmp/omarchy-iso-test-windows.qcow2}"
TEST_OVMF_VARS="${OMARCHY_ISO_TEST_WINDOWS_OVMF_VARS:-/tmp/OVMF_VARS.omarchy-iso-test-windows.fd}"
DISK_SIZE_GIB=96
MIN_FREE_GIB=64
RECREATE=0
GAP=0
ISO=""
ACTIVE_NBD=""
@@ -19,7 +18,7 @@ TEMPORARY_DISK=""
usage() {
cat <<USAGE
Usage: omarchy-iso-test-windows-disk [--recreate] [release/omarchy.iso]
Usage: omarchy-iso-test-windows-disk [--recreate] [--gap] [release/omarchy.iso]
Creates or validates a synthetic Windows-style test disk with:
- a 512MiB EFI partition containing EFI/Microsoft
@@ -29,8 +28,16 @@ Creates or validates a synthetic Windows-style test disk with:
This exercises Windows partition detection and preservation; it is not a
bootable Windows installation.
--gap builds the same fixture with a hole in the partition numbering: a third
partition is created and then deleted, leaving slot 3 free while slot 4 stays
in use. parted fills the lowest free slot, so the installer must create its
partitions as 3 and 5 and read those numbers back. The contiguous fixture
cannot catch that class of bug, because there "lowest free" and "highest + 1"
are the same number.
Options:
--recreate Replace the existing test fixture
--gap Build the numbering-hole variant (separate disk image)
-h, --help Show this help
Paths can be overridden with:
@@ -45,6 +52,10 @@ while (( $# > 0 )); do
RECREATE=1
shift
;;
--gap)
GAP=1
shift
;;
-h|--help)
usage
exit 0
@@ -66,6 +77,18 @@ while (( $# > 0 )); do
esac
done
# Separate images per layout so the two fixtures can coexist and neither has
# to be rebuilt to run the other.
if (( GAP )); then
TEST_DISK="${OMARCHY_ISO_TEST_WINDOWS_DISK:-/tmp/omarchy-iso-test-windows-gap.qcow2}"
TEST_OVMF_VARS="${OMARCHY_ISO_TEST_WINDOWS_OVMF_VARS:-/tmp/OVMF_VARS.omarchy-iso-test-windows-gap.fd}"
LAYOUT_LABEL="512MiB Windows ESP + data + deleted slot 3 + data + 64GiB+ free"
else
TEST_DISK="${OMARCHY_ISO_TEST_WINDOWS_DISK:-/tmp/omarchy-iso-test-windows.qcow2}"
TEST_OVMF_VARS="${OMARCHY_ISO_TEST_WINDOWS_OVMF_VARS:-/tmp/OVMF_VARS.omarchy-iso-test-windows.fd}"
LAYOUT_LABEL="512MiB Windows ESP + existing data + 64GiB+ free"
fi
cleanup_mount() {
if (( MOUNTED )); then
sudo umount "$MOUNT_DIR" >/dev/null 2>&1 || true
@@ -149,7 +172,7 @@ largest_free_region() {
}
validate_test_disk() {
local part_count pttype free_space_b min_free_b
local part_count pttype free_space_b min_free_b want_parts numbers
local esp data valid=1
[[ -f $TEST_DISK ]] || return 1
@@ -162,9 +185,17 @@ validate_test_disk() {
pttype=$(lsblk -dnro PTTYPE "$ACTIVE_NBD" 2>/dev/null || true)
free_space_b=$(largest_free_region "$ACTIVE_NBD")
min_free_b=$((MIN_FREE_GIB * 1024 * 1024 * 1024))
want_parts=2
(( GAP )) && want_parts=3
[[ $pttype == gpt ]] || valid=0
(( part_count == 2 )) || valid=0
(( part_count == want_parts )) || valid=0
# The whole point of the gap fixture: slot 3 free, slot 4 in use.
if (( GAP )); then
numbers=$(sudo parted -ms "$ACTIVE_NBD" unit B print 2>/dev/null | tail -n +3 | cut -d: -f1 | sort | tr '\n' ' ')
[[ $numbers == "1 2 4 " ]] || valid=0
fi
(( free_space_b >= min_free_b )) || valid=0
[[ $(sudo blkid -s TYPE -o value "$esp" 2>/dev/null || true) == vfat ]] || valid=0
[[ $(sudo blkid -s LABEL -o value "$esp" 2>/dev/null || true) == WINDOWS_ESP ]] || valid=0
@@ -206,6 +237,18 @@ create_test_disk() {
sudo parted --script "$ACTIVE_NBD" mkpart WINDOWS_ESP fat32 1MiB 513MiB
sudo parted --script "$ACTIVE_NBD" set 1 esp on
sudo parted --script "$ACTIVE_NBD" mkpart WINDOWS_DATA ext4 513MiB 20GiB
if (( GAP )); then
# Slot 3 is created and deleted, slot 4 stays. parted then fills 3 before
# 5, so an installer that assumes "highest + 1" (which would be 5 and 6)
# writes to device nodes that do not exist. The deleted region is
# deliberately smaller than the trailing free space so the installer still
# picks the tail as its largest free region.
sudo parted --script "$ACTIVE_NBD" mkpart SCRATCH ext4 20GiB 28GiB
sudo parted --script "$ACTIVE_NBD" mkpart WINDOWS_MORE ext4 28GiB 30GiB
sudo parted --script "$ACTIVE_NBD" rm 3
fi
sudo partprobe "$ACTIVE_NBD"
sudo udevadm settle
@@ -281,7 +324,7 @@ cp /usr/share/edk2/x64/OVMF_VARS.4m.fd "$TEST_OVMF_VARS"
gum style --border rounded --padding "0 1" --border-foreground 6 \
"Synthetic Windows disk ready" \
"Disk: $TEST_DISK" \
"Layout: 512MiB Windows ESP + existing data + 64GiB+ free"
"Layout: $LAYOUT_LABEL"
if gum confirm "Start installation on this disk?"; then
ISO="$(select_iso)"
+19 -3
View File
@@ -10,8 +10,24 @@ if [[ ! -f ~/.config/rclone/rclone.conf ]]; then
exit 1
fi
rclone copy $1 Omarchy:omarchy/ -P
# Every copy reports, and one failure fails the upload. Without the tally the
# last copy decides the exit status, so a signature that never made it is
# hidden by a checksum that did.
status=0
if [[ -f $1.sig ]]; then
rclone copy $1.sig Omarchy:omarchy/ -P
rclone copy "$1" Omarchy:omarchy/ -P || status=1
# The signature and the checksum are only worth anything to someone who can
# reach them beside the ISO, so they go up in the same run rather than a step
# a release can finish without.
for sidecar in "$1.sig" "$1.sha256"; do
if [[ -f $sidecar ]]; then
rclone copy "$sidecar" Omarchy:omarchy/ -P || status=1
fi
done
if [[ ! -f $1.sha256 ]]; then
echo "Warning: no $1.sha256 to publish, so nobody can verify this download" >&2
fi
exit $status
+67 -12
View File
@@ -5,12 +5,13 @@ set -e
OMARCHY_ISO_REF="${OMARCHY_ISO_REF:-quattro}"
OMARCHY_MIRROR="${OMARCHY_MIRROR:-stable}"
# Quattro, edge, dev, and local-source ISOs install the dev packages explicitly.
# Those package recipes track the quattro branch. This avoids relying on
# pacman's provides=omarchy resolution and shows the real package names being
# tested in the offline mirror and target install.
# Edge, dev, and local-source ISOs install the dev packages explicitly. Those
# package recipes track the quattro branch. This avoids relying on pacman's
# provides=omarchy resolution and shows the real package names being tested in
# the offline mirror and target install. Every other ref, the default quattro
# build included, installs the published omarchy packages.
case "$OMARCHY_ISO_REF" in
quattro|edge|dev|local)
edge|dev|local)
: "${OMARCHY_RUNTIME_PACKAGE:=omarchy-dev}"
: "${OMARCHY_SETTINGS_PACKAGE:=omarchy-settings-dev}"
;;
@@ -40,11 +41,14 @@ pacman-key --lsign-key 40DFB630FF42BCFFB047046CF0134EE680CAC571
pacman --config /configs/pacman-online-${OMARCHY_MIRROR}.conf --noconfirm -Sy omarchy-keyring
pacman-key --populate omarchy
# Append the [omarchy] repo to the container's /etc/pacman.conf so subsequent
# tools (notably makepkg in build-omarchy-packages.sh) can resolve omarchy-
# only build deps like limine-snapper-sync and limine-mkinitcpio-hook.
# Put OPR first in the container too so makepkg resolves the same overrides
# as the online installer configuration.
if ! grep -q '^\[omarchy\]' /etc/pacman.conf; then
awk '/^\[omarchy\]/,/^$/' /configs/pacman-online-${OMARCHY_MIRROR}.conf >> /etc/pacman.conf
opr_section=$(awk '/^\[omarchy\]/,/^$/' /configs/pacman-online-${OMARCHY_MIRROR}.conf)
awk -v opr="$opr_section" '/^\[core\]/ { print opr; print "" } { print }' \
/etc/pacman.conf >/tmp/pacman-opr-first.conf
install -m 644 /tmp/pacman-opr-first.conf /etc/pacman.conf
rm -f /tmp/pacman-opr-first.conf
fi
# Build locations
@@ -117,7 +121,8 @@ cp "/tmp/$NODE_FILENAME" "$build_cache_dir/airootfs/opt/packages/"
# The selected omarchy-settings package is needed here so its post_install hook
# drops Omarchy's plymouthd.conf into /etc/plymouth before mkarchiso builds the
# live initramfs.
arch_packages=(linux-t2 git gum jq openssl plymouth ttfx tzupdate omarchy-keyring "$OMARCHY_SETTINGS_PACKAGE" lvm2 cryptsetup parted)
# cage and foot give Chinese installs a console that draws Chinese.
arch_packages=(linux-t2 git gum jq openssl plymouth ttfx tzupdate omarchy-keyring "$OMARCHY_SETTINGS_PACKAGE" lvm2 cryptsetup parted cage foot)
printf '%s\n' "${arch_packages[@]}" >> "$build_cache_dir/packages.x86_64"
# The live ISO boots linux-t2 (see airootfs/etc/mkinitcpio.d/linux-t2.preset), so
@@ -138,6 +143,7 @@ sed -i -E '/^(linux|broadcom-wl)$/d' "$build_cache_dir/packages.x86_64"
# already in the mirror and we filter them out below. Without it, pacman -Syw
# pulls the published omarchy* from the network mirror like any other package.
if [[ -d /omarchy-source ]]; then
regions_source=/omarchy-source/default/regions
base_pkg_lists=(/omarchy-source/install/omarchy-base.packages /omarchy-source/install/omarchy-other.packages)
setup_form=/omarchy-source/install/provisioning/setup-form.sh
else
@@ -160,6 +166,17 @@ else
# build here (set -e) with a bare "Not found in archive" instead of the
# actionable error below.
bsdtar -xf "$omarchy_pkg" -C /tmp/omarchy-pkglists usr/share/omarchy/install/provisioning/setup-form.sh 2>/dev/null || true
# Region profiles live under default/, which the settings package ships,
# not the runtime. Its own cache dir keeps the runtime lookup above from
# ever matching it.
settings_cache_dir="$bootstrap_cache_dir/settings"
mkdir -p "$settings_cache_dir"
pacman --config /configs/pacman-online-${OMARCHY_MIRROR}.conf --noconfirm -Syw "$OMARCHY_SETTINGS_PACKAGE" --cachedir "$settings_cache_dir" --dbpath /tmp/offlinedb-bootstrap >/dev/null
regions_source=$(find "$settings_cache_dir" -maxdepth 1 -type f -name "$OMARCHY_SETTINGS_PACKAGE-*.pkg.tar.zst" | sort | head -1)
if [[ -z $regions_source ]]; then
echo "ERROR: downloaded package for $OMARCHY_SETTINGS_PACKAGE not found in $settings_cache_dir" >&2
exit 1
fi
setup_form=/tmp/omarchy-pkglists/usr/share/omarchy/install/provisioning/setup-form.sh
fi
@@ -186,6 +203,24 @@ if [[ ! -f $setup_form ]]; then
fi
cp "$setup_form" "$build_cache_dir/airootfs/usr/share/omarchy-iso/setup-form.sh"
# Every region's packages ride in the offline mirror, and its community
# repositories join a writable copy of the online config to download them.
online_config=/tmp/omarchy-pacman-online.conf
cp "/configs/pacman-online-${OMARCHY_MIRROR}.conf" "$online_config"
bash /builder/prepare-regions.sh "$regions_source" \
"$build_cache_dir/airootfs/usr/share/omarchy-iso" "$online_config"
# Profiles ship in the settings package, but the finalizer that applies them
# ships in the runtime. A runtime without it would ignore the region marker,
# leaving regional targets with the keyring but none of the repositories.
if [[ -n ${omarchy_pkg:-} && -d $build_cache_dir/airootfs/usr/share/omarchy-iso/regions ]]; then
runtime_listing=$(bsdtar -tf "$omarchy_pkg")
if ! grep -qx 'usr/bin/omarchy-apply-pacman' <<<"$runtime_listing"; then
echo "ERROR: $OMARCHY_SETTINGS_PACKAGE ships region profiles, but $OMARCHY_RUNTIME_PACKAGE lacks omarchy-apply-pacman to apply them." >&2
exit 1
fi
fi
# Collect every package we want available in the offline mirror.
declare -a all_packages
mapfile -t all_packages < <(
@@ -193,12 +228,32 @@ mapfile -t all_packages < <(
cat "$build_cache_dir/packages.x86_64"
grep -hv '^#\|^$' "${base_pkg_lists[@]}"
grep -hv '^#\|^$' /builder/archinstall.packages
# Downloaded but not installed: the installer adds a region's packages
# only to targets in that region.
grep -hsv '^#\|^$' "$build_cache_dir"/airootfs/usr/share/omarchy-iso/regions/*/packages || true
# Always include the selected Omarchy packages so the target install can
# find the runtime and companion packages in the offline mirror.
printf '%s\n' "$OMARCHY_RUNTIME_PACKAGE" "$OMARCHY_SETTINGS_PACKAGE" "$OMARCHY_NVIM_PACKAGE"
} | sort -u
)
# Arch dropped the prebuilt broadcom-wl on 2026-09-02 and rebuilt broadcom-wl-dkms
# with replaces=(broadcom-wl). A replaces entry only helps upgrades of an already
# installed package; as an explicit pacman target the old name now fails with
# "target not found". Published Omarchy runtime packages that predate the rename
# still list it in omarchy-other.packages, so map it here until every channel
# ships a runtime that names broadcom-wl-dkms itself.
# arch-mact2 dropped apple-bcm-firmware on 2026-09-16 in favour of
# apple-bcm-firmware-fetcher, which does the same job (pull the T2 Wi-Fi and
# Bluetooth firmware off the macOS volume) but only conflicts with the old name
# rather than replacing it, so pacman cannot follow the rename on its own.
mapfile -t all_packages < <(
printf '%s\n' "${all_packages[@]}" |
sed -e 's/^broadcom-wl$/broadcom-wl-dkms/' \
-e 's/^apple-bcm-firmware$/apple-bcm-firmware-fetcher/' |
sort -u
)
# With --local-source we already built these omarchy* packages directly into
# the mirror; strip them from the pacman -Syw list so it doesn't try to fetch
# the published versions on top.
@@ -214,7 +269,7 @@ fi
mkdir -p /tmp/offlinedb
download_offline_packages() {
pacman --config /configs/pacman-online-${OMARCHY_MIRROR}.conf --noconfirm -Syw \
pacman --config "$online_config" --noconfirm -Syw \
"${all_packages[@]}" --cachedir "$offline_mirror_dir/" --dbpath /tmp/offlinedb --needed
}
@@ -232,7 +287,7 @@ fi
# newest version of every cached package name) removes packages that have left
# the lists or dependency closure, such as an old Electron major version.
if ! resolved_package_files="$(
pacman --config "/configs/pacman-online-${OMARCHY_MIRROR}.conf" --noconfirm \
pacman --config "$online_config" --noconfirm \
--dbpath /tmp/offlinedb -S --print --print-format '%f' "${all_packages[@]}"
)"; then
echo "ERROR: could not resolve the package files required by the offline mirror" >&2
+50
View File
@@ -0,0 +1,50 @@
#!/bin/bash
# Ship every region profile from the bundled runtime, so one ISO serves every
# region. The installer picks a profile from the target's timezone; this only
# stages the profiles and makes their packages downloadable. Repository
# defaults stay in the runtime, not in a second set of ISO-specific templates.
set -euo pipefail
regions_source="$1"
iso_payload="$2"
online_config="$3"
# The source is a checkout's default/regions, or the published settings
# package that ships default/. One predating region profiles ships none; the
# ISO then installs global targets only, exactly as before. Anything else that
# fails here, such as an unreadable package, aborts the build.
regions="$regions_source"
if [[ -f $regions_source ]]; then
member=usr/share/omarchy/default/regions
listing=$(bsdtar -tf "$regions_source")
if grep -q "^$member/" <<<"$listing"; then
extracted=$(mktemp -d)
trap 'rm -rf "$extracted"' EXIT
bsdtar -xf "$regions_source" -C "$extracted" "$member"
regions="$extracted/$member"
fi
fi
if [[ ! -d $regions ]]; then
echo "Runtime ships no region profiles; every install will be global."
exit 0
fi
cp -a "$regions" "$iso_payload/regions"
for profile in "$regions"/*/; do
# Only the community repositories are needed to download regional packages.
# Keep the channel's build mirrors intact; target mirrors are set later by
# the runtime's own pacman finalizer.
printf '\n' >> "$online_config"
cat "$profile/pacman/pacman.conf.append" >> "$online_config"
# Each keyring package must be signed by a key Arch already trusts. Do not
# bootstrap trust from an unchecked keyserver response or disable signatures.
# https://github.com/archlinuxcn/repo#usage
mapfile -t keyring_packages < <(grep -hv '^#\|^$' "$profile/packages" | grep -- '-keyring$' || true)
if (( ${#keyring_packages[@]} > 0 )); then
pacman --config "$online_config" --noconfirm -Sy --needed "${keyring_packages[@]}"
pacman-key --populate "${keyring_packages[@]%-keyring}"
fi
done
+58 -3
View File
@@ -10,7 +10,10 @@
# - COLUMNS/LINES so gum picks up real terminal size
set -euo pipefail
[[ $(tty) == /dev/tty1 ]] || exit 0
[[ $(tty) == /dev/tty1 || -n ${OMARCHY_CJK_CONSOLE:-} ]] || exit 0
if [[ -n ${OMARCHY_CJK_CONSOLE:-} ]]; then
touch "$XDG_RUNTIME_DIR/cjk-console-started"
fi
export OMARCHY_MIRROR="$(cat /root/omarchy_mirror)"
if [[ -f /root/omarchy_iso_ref ]]; then
@@ -39,7 +42,8 @@ set_tokyo_night_colors() {
echo -en "\033[0m"
clear
}
set_tokyo_night_colors
# foot sets the same palette from foot.ini; these escapes are VT-only.
[[ -n ${OMARCHY_CJK_CONSOLE:-} ]] || set_tokyo_night_colors
mkdir -p /var/log
touch "$OMARCHY_INSTALL_LOG_FILE"
@@ -90,6 +94,16 @@ warm_offline_mirror &
warm_pid=$!
trap 'kill "$warm_pid" 2>/dev/null' EXIT
# The CJK console's font comes from the offline mirror's noto-fonts-cjk, not the live image.
unpack_cjk_font() {
local packages=(/var/cache/omarchy/mirror/offline/noto-fonts-cjk-*.pkg.tar.zst)
if ((${#packages[@]} != 1)) || [[ ! -f ${packages[0]} ]]; then
echo "Expected one noto-fonts-cjk package in the offline mirror, found: ${packages[*]}" >&2
return 1
fi
bsdtar -xf "${packages[0]}" -C / usr/share/fonts/noto-cjk/NotoSansCJK-Regular.ttc
}
cd /root
# Autoinstall: a cidata drive carrying the configurator's own output files
# stands in for the wizard. omarchy-cidata-load copies them into /root and
@@ -98,7 +112,43 @@ if /usr/local/bin/omarchy-cidata-load; then
echo "Autoinstall configuration found on cidata drive; skipping the configurator."
export OMARCHY_UI_INTERACTIVE=no
else
./configurator
# Chinese moves to cage + foot, which draw Chinese; English moves back to the VT, which applies keymaps.
cjk_relaunch=10
vt_return=11
if [[ -n ${OMARCHY_CJK_CONSOLE:-} ]]; then
export OMARCHY_VT_RETURN=$vt_return
elif command -v cage >/dev/null; then
export OMARCHY_CJK_RELAUNCH=$cjk_relaunch
fi
./configurator && status=0 || status=$?
while ((status == cjk_relaunch)); do
cjk_runtime=/run/omarchy-cjk-console
mkdir -p -m 700 "$cjk_runtime"
rm -f "$cjk_runtime/cjk-console-started" "$cjk_runtime/return-to-vt"
if ! unpack_cjk_font; then
echo "The Chinese font could not be unpacked from the offline mirror; continuing in English."
unset OMARCHY_CJK_RELAUNCH
OMARCHY_INSTALL_LANGUAGE=zh ./configurator && status=0 || status=$?
continue
fi
cage_status=0
env -u OMARCHY_CJK_RELAUNCH XDG_RUNTIME_DIR=$cjk_runtime OMARCHY_CJK_CONSOLE=1 OMARCHY_INSTALL_LANGUAGE=zh \
LANG=C.UTF-8 WLR_RENDERER=pixman cage -- foot -c /usr/share/omarchy-iso/foot.ini "$0" || cage_status=$?
if [[ -f $cjk_runtime/return-to-vt ]]; then
OMARCHY_INSTALL_LANGUAGE=en ./configurator && status=0 || status=$?
elif [[ -f $cjk_runtime/cjk-console-started ]]; then
exit "$cage_status"
else
echo "The Chinese console could not start (cage exit $cage_status); continuing in English."
unset OMARCHY_CJK_RELAUNCH
OMARCHY_INSTALL_LANGUAGE=zh ./configurator && status=0 || status=$?
fi
done
if [[ -n ${OMARCHY_CJK_CONSOLE:-} ]] && ((status == vt_return)); then
touch "$XDG_RUNTIME_DIR/return-to-vt"
exit 0
fi
((status == 0)) || exit "$status"
fi
# Deferred-provisioning installs skip the celebration/reboot prompt and reboot on
@@ -111,6 +161,11 @@ if [[ -f /root/defer-provisioning ]] ||
export OMARCHY_UI_DEFER_PROVISIONING=yes
fi
# Only Chinese reaches the install from the CJK console; English returns to the VT.
if [[ -n ${OMARCHY_CJK_CONSOLE:-} ]]; then
export OMARCHY_INSTALL_LANG=zh
fi
# The foreground dashboard is now the sole visible install UI owner. It starts
# the actual installer as a non-interactive child, logs child output, waits for
# completion, then renders the final installed-time/reboot prompt itself.
+296 -120
View File
@@ -24,6 +24,83 @@ if [[ ! -r $SETUP_FORM ]]; then
fi
source "$SETUP_FORM"
# Chinese text for OMARCHY_INSTALL_LANG=zh; disk-step failures stay English for support logs.
OMARCHY_ZH+=(
["Aborted installation"]="安装已中止"
["You can retry later by running: ./.automated_script.sh"]="稍后可运行 ./.automated_script.sh 重试"
["Let's setup your machine..."]="开始设置这台机器……"
["Press Ctrl+C to prepare this machine for another owner."]="按 Ctrl+C 为另一位使用者准备这台机器。"
["This prepares the machine for another owner."]="这会为另一位使用者准备这台机器。"
["The system installs now, but setup is delayed until first boot."]="系统现在安装,设置留到首次开机。"
["Yes, prepare for another owner"]="是,为他人准备"
["No, keep setting up"]="否,继续设置"
["Prepare this machine for another owner?"]="为另一位使用者准备这台机器?"
["Let's setup your user account..."]="开始设置用户账户……"
["Field"]="项目"
["Value"]="值"
["Username"]="用户名"
["Password"]="密码"
["Full name"]="姓名"
["Email address"]="邮箱"
["Hostname"]="主机名"
["Keyboard"]="键盘"
["Region"]="区域"
["[Skipped]"]="[已跳过]"
["Yes"]="是"
["No, change it"]="否,去修改"
["Does this look right?"]="以上信息正确吗?"
["Not enough free space on %s"]="%s 的空闲空间不足"
["%s has %s of usable free space; Omarchy needs at least 32GB."]="%s 有 %s 可用空闲空间;Omarchy 至少需要 32GB。"
["Open the partition tool to free at least 32GB on %s, then try again."]="打开分区工具,在 %s 上腾出至少 32GB,然后重试。"
["Back"]="返回"
["Open partition tool"]="打开分区工具"
["Return to installation mode?"]="返回安装方式选择?"
["Checking for BitLocker on %s"]="检查 %s 上的 BitLocker"
["BitLocker signature detected on %s."]="在 %s 上发现 BitLocker 签名。"
["Turn BitLocker off in Windows and wait for the drive to finish decrypting, then try again."]="在 Windows 中关闭 BitLocker,等磁盘解密完成后重试。"
["Suspending BitLocker is not enough — the drive stays encrypted."]="只暂停 BitLocker 不够,磁盘仍是加密的。"
["Aborted: BitLocker is enabled on this disk."]="已中止:这块磁盘开启了 BitLocker。"
["Checking existing EFI partitions on %s"]="检查 %s 上已有的 EFI 分区"
["Found a Windows ESP at %s — leaving it untouched."]="在 %s 发现 Windows ESP,保持不动。"
["Omarchy will create its own dedicated EFI partition in free space."]="Omarchy 会在空闲空间中创建自己的 EFI 分区。"
["A new EFI partition will be created in free space."]="会在空闲空间中新建 EFI 分区。"
["Analyzing free space on %s"]="分析 %s 的空闲空间"
["Install Omarchy in the %s of free space."]="在 %s 空闲空间中安装 Omarchy。"
["Press Ctrl+C for unencrypted install."]="按 Ctrl+C 改为不加密安装。"
["Yes, install"]="是,开始安装"
["Yes, install without encryption"]="是,不加密安装"
["Confirm installing on %s"]="确认安装到 %s"
["Creating partitions on %s"]="在 %s 上创建分区"
["Setting up LUKS2 on %s"]="在 %s 上设置 LUKS2 加密"
["Creating Btrfs filesystem and subvolumes"]="创建 Btrfs 文件系统和子卷"
["Let's select where to install Omarchy..."]="选择 Omarchy 的安装位置……"
["Select install disk"]="选择安装磁盘"
["Partition tool for %s"]="%s 的分区工具"
["Create unallocated free space for Omarchy, then write changes and quit."]="为 Omarchy 腾出未分配空间,然后写入更改并退出。"
["Do not create an Omarchy partition here — leave the target area as Free space."]="不要在这里创建 Omarchy 分区,目标区域保持为 Free space。"
["Tip: free-space install needs at least 32GB unallocated, plus 2GB more if no ESP already exists."]="提示:空闲空间安装至少需要 32GB 未分配空间;没有 ESP 时再加 2GB。"
["Open cfdisk"]="打开 cfdisk"
["Open partition tool for %s?"]="打开 %s 的分区工具?"
["Full disk install"]="整盘安装"
["Free space install (alongside existing data)"]="空闲空间安装(保留现有数据)"
["Choose a different disk"]="换一块磁盘"
["Let's select how to install Omarchy..."]="选择 Omarchy 的安装方式……"
["Select installation mode on %s"]="选择 %s 上的安装方式"
["Everything will be overwritten. There is no recovery possible."]="磁盘上的一切都会被覆盖,无法恢复。"
["Confirm overwriting %s"]="确认覆盖 %s"
)
# Partition creation helpers, shared with test/partition-numbering-test.sh so
# the numbering logic can be exercised without a real disk.
DISK_PARTITIONING="${DISK_PARTITIONING:-/usr/share/omarchy-iso/disk-partitioning.sh}"
[[ -r $DISK_PARTITIONING ]] ||
DISK_PARTITIONING="$(cd "$(dirname "${BASH_SOURCE[0]}")" && pwd)/../usr/share/omarchy-iso/disk-partitioning.sh"
if [[ ! -r $DISK_PARTITIONING ]]; then
echo "ERROR: disk partitioning helpers not found at $DISK_PARTITIONING" >&2
exit 1
fi
source "$DISK_PARTITIONING"
LOGO_WIDTH=$(awk '{ if (length > max) max = length } END { print max+0 }' "$LOGO_PATH")
export GUM_CONFIRM_PROMPT_FOREGROUND="6"
@@ -111,7 +188,7 @@ greeter() {
printf '\033[%d;1H' "$logo_row"
gum style --foreground 2 --padding "0 0 0 $PADDING_LEFT" "$(<"$LOGO_PATH")"
tagline="Beautiful, Modern & Opinionated Linux by DHH"
tagline="Beautiful, Fun & Agentic Linux by DHH"
tpad=$(((cols - ${#tagline}) / 2)); (( tpad < 0 )) && tpad=0
printf '\033[%d;%dH%s' "$tagline_row" "$((tpad + 1))" "$tagline"
@@ -165,9 +242,9 @@ greeter() {
}
abort() {
gum style "${1:-Aborted installation}"
gum style "${1:-$(omarchy_text "Aborted installation")}"
echo
gum style "You can retry later by running: ./.automated_script.sh"
gum style "$(omarchy_text "You can retry later by running: ./.automated_script.sh")"
exit 1
}
@@ -192,6 +269,30 @@ notice() {
# STEP 1: KEYBOARD LAYOUT
# The target's LANG follows the language picked on the first screen.
target_lang() {
if [[ $language == "zh" ]]; then
echo zh_CN.UTF-8
else
echo en_US.UTF-8
fi
}
# .automated_script.sh moves Chinese into the CJK console and English back to the VT, which applies keymaps.
apply_language() {
if [[ $language == "zh" && -n ${OMARCHY_CJK_RELAUNCH:-} ]]; then
exit "$OMARCHY_CJK_RELAUNCH"
fi
if [[ $language == "en" && -n ${OMARCHY_VT_RETURN:-} ]]; then
exit "$OMARCHY_VT_RETURN"
fi
if [[ $language == "zh" && -n ${OMARCHY_CJK_CONSOLE:-} ]]; then
export OMARCHY_INSTALL_LANG=zh
else
unset OMARCHY_INSTALL_LANG
fi
}
keyboard_form() {
# Ctrl+C is the hidden entry into deferred provisioning, offered on every
# visit: the user step unwinds back here and nothing is on disk yet. Callers
@@ -201,11 +302,24 @@ keyboard_form() {
while true; do
clear_logo
echo
say "Let's setup your machine..."
say --foreground 8 "Press Ctrl+C to prepare this machine for another owner."
say "$(omarchy_text "Let's setup your machine...")"
say --foreground 8 "$(omarchy_text "Press Ctrl+C to prepare this machine for another owner.")"
echo
omarchy_prompt_keyboard && status=0 || status=$?
status=0
if ! $language_chosen; then
omarchy_prompt_language && status=0 || status=$?
((status == 0)) && apply_language
fi
# Esc, Ctrl+C or a later "No, change it" asks the language again.
language_chosen=false
if ((status == 0)); then
local layouts=$OMARCHY_KEYBOARD_LAYOUTS selected="English (US)"
[[ $language == "zh" ]] && selected="Chinese (Simplified, Pinyin)"
# cage keeps its US layout, so the CJK console offers only US-keymap keyboards.
[[ -n ${OMARCHY_CJK_CONSOLE:-} ]] && layouts=$(awk -F'|' '$2 == "us"' <<<"$layouts")
OMARCHY_KEYBOARD_LAYOUTS=$layouts omarchy_prompt_keyboard "$selected" && status=0 || status=$?
fi
((status == 0)) && break
# Esc means "back", and nothing precedes the first screen, so re-ask.
@@ -234,11 +348,11 @@ keyboard_form() {
confirm_prepare_for_another_owner() {
clear_logo
echo
say "This prepares the machine for another owner."
say --foreground 8 "The system installs now, but setup is delayed until first boot."
say "$(omarchy_text "This prepares the machine for another owner.")"
say --foreground 8 "$(omarchy_text "The system installs now, but setup is delayed until first boot.")"
echo
gum confirm --affirmative "Yes, prepare for another owner" --negative "No, keep setting up" \
"Prepare this machine for another owner?"
gum confirm --affirmative "$(omarchy_text "Yes, prepare for another owner")" --negative "$(omarchy_text "No, keep setting up")" \
"$(omarchy_text "Prepare this machine for another owner?")"
}
# The user step. Deferred-provisioning installs skip it entirely — the machine's first owner
@@ -246,7 +360,7 @@ confirm_prepare_for_another_owner() {
# operator sets nothing user-specific.
user_form() {
step "Let's setup your user account..."
step "$(omarchy_text "Let's setup your user account...")"
# Each prompt reports 0 (set), OMARCHY_FORM_BACK (Esc), or OMARCHY_FORM_SIGNAL
# (Ctrl+C). Both non-zero cases unwind to user_step, which decides what they
@@ -279,19 +393,29 @@ user_step() {
continue
fi
# The timezone selects the region (mirrors and repositories), using the
# same lookup as the orchestrator. Global installs get no extra row.
region=$(cd /usr/share/omarchy-iso 2>/dev/null && python -m orchestrator.region "$timezone") || region="global"
region_row=""
if [[ $region != "global" ]]; then
region_row="\n$(omarchy_text Region),$region"
fi
# Add manual padding since gum table -p doesn't respect padding
echo -e "Field,Value
Username,$username
Password,$(printf "%${#password}s" | tr ' ' '*')
Full name,${full_name:-[Skipped]}
Email address,${email_address:-[Skipped]}
Hostname,$hostname
Timezone,$timezone
Keyboard,$keyboard" |
local skipped
skipped=$(omarchy_text "[Skipped]")
echo -e "$(omarchy_text Field),$(omarchy_text Value)
$(omarchy_text Username),$username
$(omarchy_text Password),$(printf "%${#password}s" | tr ' ' '*')
$(omarchy_text "Full name"),${full_name:-$skipped}
$(omarchy_text "Email address"),${email_address:-$skipped}
$(omarchy_text Hostname),$hostname
$(omarchy_text Timezone),$timezone$region_row
$(omarchy_text Keyboard),\"$keyboard_label\"" |
gum table -s "," -p | sed "s/^/${PADDING_LEFT_SPACES}/"
echo
if gum confirm --negative "No, change it" "Does this look right?"; then
if gum confirm --affirmative "$(omarchy_text "Yes")" --negative "$(omarchy_text "No, change it")" "$(omarchy_text "Does this look right?")"; then
break
else
keyboard_form
@@ -361,15 +485,7 @@ get_root_disk() {
fi
}
# Compute partition device path, handling NVMe/mmcblk's pN naming.
partition_path() {
local _disk="$1" _num="$2"
if [[ "$_disk" == *nvme* || "$_disk" == *mmcblk* ]]; then
echo "${_disk}p${_num}"
else
echo "${_disk}${_num}"
fi
}
# partition_path lives in disk-partitioning.sh alongside the creation helpers.
# BitLocker writes the "-FVE-FS-" signature at offset 3 of the partition.
detect_bitlocker() {
@@ -412,17 +528,24 @@ detect_kernel() {
if lspci -nn 2>/dev/null | grep -q "106b:180[12]"; then
echo "linux-t2"
else
echo "linux"
echo "linux-omarchy"
fi
}
# Give udev a moment to create a device node after partitioning.
wait_for_device() {
local i
for i in 1 2 3 4 5; do
[[ -b "$1" ]] && return 0
sleep 1
done
# wait_for_device lives in disk-partitioning.sh: it now reports failure, and
# every caller here aborts on it.
# disk_step and create_partition fail through this rather than abort() so a
# half-built layout is undone before the user is handed back their disk.
disk_abort_hook() {
# Release the target before reclaiming its partitions: a mounted filesystem
# or an open LUKS mapping would keep parted from removing them.
umount -R /mnt 2>/dev/null || true
umount /mnt/btrfs-root 2>/dev/null || true
rmdir /mnt/btrfs-root 2>/dev/null || true
cryptsetup close omarchy_root 2>/dev/null || true
rollback_created_parts "$disk"
abort "$1"
}
# Save the configurator answers the installer consumes: git identity and
@@ -494,11 +617,11 @@ print_dry_run_files() {
# action so users have a way to actually fix the situation.
not_enough_space() {
local available="${1:-0}"
step "Not enough free space on $disk"
say --foreground 1 "$disk has $(to_gb $available) of usable free space; Omarchy needs at least 32GB."
say "Open the partition tool to free at least 32GB on $disk, then try again."
step "$(omarchy_text "Not enough free space on %s" "$disk")"
say --foreground 1 "$(omarchy_text "%s has %s of usable free space; Omarchy needs at least 32GB." "$disk" "$(to_gb $available)")"
say "$(omarchy_text "Open the partition tool to free at least 32GB on %s, then try again." "$disk")"
echo
if ! gum confirm --affirmative "Back" --negative "Open partition tool" "Return to installation mode?"; then
if ! gum confirm --affirmative "$(omarchy_text "Back")" --negative "$(omarchy_text "Open partition tool")" "$(omarchy_text "Return to installation mode?")"; then
open_partition_tool
fi
return 1
@@ -508,14 +631,14 @@ not_enough_space() {
# encryption confirm. Sets the globals run_partition_execute needs. Returns 1
# to fall back to the install-mode picker.
run_partition_decide() {
step "Checking for BitLocker on $disk"
step "$(omarchy_text "Checking for BitLocker on %s" "$disk")"
local bl_part
bl_part=$(detect_bitlocker || true)
if [[ -n "$bl_part" ]]; then
say --foreground 1 "BitLocker signature detected on $bl_part."
say "Turn BitLocker off in Windows and wait for the drive to finish decrypting, then try again."
say "Suspending BitLocker is not enough — the drive stays encrypted."
abort "Aborted: BitLocker is enabled on this disk."
say --foreground 1 "$(omarchy_text "BitLocker signature detected on %s." "$bl_part")"
say "$(omarchy_text "Turn BitLocker off in Windows and wait for the drive to finish decrypting, then try again.")"
say "$(omarchy_text "Suspending BitLocker is not enough — the drive stays encrypted.")"
abort "$(omarchy_text "Aborted: BitLocker is enabled on this disk.")"
fi
# Omarchy always creates its own dedicated ESP in free space and never
@@ -524,17 +647,17 @@ run_partition_decide() {
# Windows ESP is far too small for our Unified Kernel Images, and a shared
# ESP forces the install unencrypted. A separate Linux ESP keeps Windows
# and Omarchy fully isolated and keeps LUKS on the table.
step "Checking existing EFI partitions on $disk"
step "$(omarchy_text "Checking existing EFI partitions on %s" "$disk")"
local detected_win_esp
detected_win_esp=$(detect_windows_esp || true)
if [[ -n "$detected_win_esp" ]]; then
say "Found a Windows ESP at $detected_win_esp — leaving it untouched."
say "Omarchy will create its own dedicated EFI partition in free space."
say "$(omarchy_text "Found a Windows ESP at %s — leaving it untouched." "$detected_win_esp")"
say "$(omarchy_text "Omarchy will create its own dedicated EFI partition in free space.")"
else
say "A new EFI partition will be created in free space."
say "$(omarchy_text "A new EFI partition will be created in free space.")"
fi
step "Analyzing free space on $disk"
step "$(omarchy_text "Analyzing free space on %s" "$disk")"
partprobe "$disk" 2>/dev/null || true
sleep 1
@@ -609,21 +732,21 @@ run_partition_decide() {
while true; do
clear_logo
echo
say "Install Omarchy in the $(to_gb $INSTALL_MAX_B) of free space."
say "$(omarchy_text "Install Omarchy in the %s of free space." "$(to_gb $INSTALL_MAX_B)")"
case $mode in
encrypted)
say --foreground 8 "Press Ctrl+C for unencrypted install."
affirmative="Yes, install"
say --foreground 8 "$(omarchy_text "Press Ctrl+C for unencrypted install.")"
affirmative="$(omarchy_text "Yes, install")"
;;
unencrypted)
affirmative="Yes, install without encryption"
affirmative="$(omarchy_text "Yes, install without encryption")"
;;
esac
echo
gum confirm --affirmative "$affirmative" --negative "No, change it" \
"Confirm installing on $disk"
gum confirm --affirmative "$affirmative" --negative "$(omarchy_text "No, change it")" \
"$(omarchy_text "Confirm installing on %s" "$disk")"
confirm_status=$?
case $confirm_status in
@@ -654,17 +777,17 @@ run_partition_decide() {
kernel_choice=$(detect_kernel)
local last_part
last_part=$(lsblk -n -o PARTN "$disk" 2>/dev/null | grep -E '^[0-9]+$' | sort -n | tail -1)
efi_part_num=$(( ${last_part:-0} + 1 ))
root_part_num=$(( efi_part_num + 1 ))
efi_dev=$(partition_path "$disk" "$efi_part_num")
root_partition_device=$(partition_path "$disk" "$root_part_num")
# Partition numbers are not knowable until parted assigns them (it fills the
# lowest free GPT slot, and freeing space by deleting a partition leaves one
# below the highest). run_partition_execute reads them back after creation;
# a dry run has nothing to read.
efi_part_num=""
root_part_num=""
efi_dev="<assigned at creation>"
root_partition_device="<assigned at creation>"
root_mapper="<assigned at creation>"
if [[ "$encrypt_installation" == "true" ]]; then
root_mapper="/dev/mapper/omarchy_root"
else
root_mapper="$root_partition_device"
fi
}
@@ -672,64 +795,103 @@ run_partition_decide() {
# the pre-mounted (protected) install configuration. Runs after the user step
# so LUKS can be formatted with the user's password.
run_partition_execute() {
local dry=false
local dry=false subvol
[[ "${1:-}" == "dry" ]] && dry=true
if $dry; then
$needs_mklabel && say "[dry] would initialize GPT on $disk"
say "[dry] would create root partition at $root_partition_device"
say "[dry] would create EFI partition at $efi_dev"
say "[dry] would create an EFI partition and a root partition in the free region"
say "[dry] partition numbers are assigned by parted at creation, then read back"
say "[dry] encrypted=$encrypt_installation kernel=$kernel_choice"
else
step "Creating partitions on $disk"
step "$(omarchy_text "Creating partitions on %s" "$disk")"
if $needs_mklabel; then
parted --script "$disk" mklabel gpt
disk_step "initializing GPT on $disk" parted --script "$disk" mklabel gpt
partprobe "$disk" 2>/dev/null || true
sleep 1
fi
parted --script "$disk" mkpart primary fat32 "${EFI_START_B}B" "${EFI_END_B}B"
parted --script "$disk" set "$efi_part_num" esp on
parted --script "$disk" name "$efi_part_num" "OMARCHY_EFI"
parted --script "$disk" mkpart primary btrfs "${ROOT_START_B}B" "${ROOT_END_B}B"
parted --script "$disk" name "$root_part_num" "OMARCHY_ROOT"
# create_partition reports the number parted actually used; nothing here
# may assume it. It sets created_partition_number rather than printing so
# the rollback bookkeeping survives (a $(...) would subshell it away).
create_partition "$disk" "$EFI_START_B" "$EFI_END_B" fat32 OMARCHY_EFI ||
disk_abort_hook "Could not create the EFI partition on $disk"
efi_part_num="$created_partition_number"
create_partition "$disk" "$ROOT_START_B" "$ROOT_END_B" btrfs OMARCHY_ROOT ||
disk_abort_hook "Could not create the root partition on $disk"
root_part_num="$created_partition_number"
disk_step "flagging partition $efi_part_num as ESP" \
parted --script "$disk" set "$efi_part_num" esp on
efi_dev=$(partition_path "$disk" "$efi_part_num")
root_partition_device=$(partition_path "$disk" "$root_part_num")
partprobe "$disk"
sync
sleep 2
wait_for_device "$efi_dev"
wait_for_device "$root_partition_device"
wait_for_device "$efi_dev" || disk_abort_hook "EFI partition $efi_dev never appeared"
wait_for_device "$root_partition_device" ||
disk_abort_hook "Root partition $root_partition_device never appeared"
# Both partitions are ours and brand new, but the space they occupy may
# carry signatures from whatever was deleted to free it.
disk_step "clearing stale signatures on $efi_dev" wipefs -af "$efi_dev"
disk_step "clearing stale signatures on $root_partition_device" wipefs -af "$root_partition_device"
if [[ "$encrypt_installation" == "true" ]]; then
step "Setting up LUKS2 on $root_partition_device"
printf "%s" "$password" | cryptsetup luksFormat --type luks2 --batch-mode "$root_partition_device" -
printf "%s" "$password" | cryptsetup open "$root_partition_device" omarchy_root -
step "$(omarchy_text "Setting up LUKS2 on %s" "$root_partition_device")"
# Kept as pipes rather than routed through disk_step: the passphrase must
# not become an argv the process table can show. Folding stderr into
# stdout still lands any error in the install log.
if ! printf "%s" "$password" |
cryptsetup luksFormat --type luks2 --batch-mode "$root_partition_device" - 2>&1; then
disk_abort_hook "Formatting LUKS2 on $root_partition_device failed"
fi
if ! printf "%s" "$password" |
cryptsetup open "$root_partition_device" omarchy_root - 2>&1; then
disk_abort_hook "Opening the encrypted root on $root_partition_device failed"
fi
root_mapper="/dev/mapper/omarchy_root"
else
wipefs -af "$root_partition_device"
root_mapper="$root_partition_device"
fi
step "Creating Btrfs filesystem and subvolumes"
mkfs.btrfs -f -L OMARCHY "$root_mapper"
wait_for_device "$root_mapper"
step "$(omarchy_text "Creating Btrfs filesystem and subvolumes")"
disk_step "creating the Btrfs filesystem on $root_mapper" \
mkfs.btrfs -f -L OMARCHY "$root_mapper"
wait_for_device "$root_mapper" || disk_abort_hook "Root device $root_mapper never appeared"
mkdir -p /mnt/btrfs-root
mount "$root_mapper" /mnt/btrfs-root
btrfs subvolume create /mnt/btrfs-root/@
btrfs subvolume create /mnt/btrfs-root/@home
btrfs subvolume create /mnt/btrfs-root/@log
btrfs subvolume create /mnt/btrfs-root/@pkg
disk_step "mounting $root_mapper" mount "$root_mapper" /mnt/btrfs-root
for subvol in @ @home @log @pkg; do
disk_step "creating subvolume $subvol" btrfs subvolume create "/mnt/btrfs-root/$subvol"
done
umount /mnt/btrfs-root
rmdir /mnt/btrfs-root
mount -o noatime,compress=zstd,subvol=@ "$root_mapper" /mnt
disk_step "mounting the target root" \
mount -o noatime,compress=zstd,subvol=@ "$root_mapper" /mnt
mkdir -p /mnt/home /mnt/var/log /mnt/var/cache/pacman/pkg /mnt"$esp_mount_in_target"
mount -o noatime,compress=zstd,subvol=@home "$root_mapper" /mnt/home
mount -o noatime,compress=zstd,subvol=@log "$root_mapper" /mnt/var/log
mount -o noatime,compress=zstd,subvol=@pkg "$root_mapper" /mnt/var/cache/pacman/pkg
disk_step "mounting /home" \
mount -o noatime,compress=zstd,subvol=@home "$root_mapper" /mnt/home
disk_step "mounting /var/log" \
mount -o noatime,compress=zstd,subvol=@log "$root_mapper" /mnt/var/log
disk_step "mounting the package cache" \
mount -o noatime,compress=zstd,subvol=@pkg "$root_mapper" /mnt/var/cache/pacman/pkg
mkfs.fat -F32 -n OMARCHY_EFI "$efi_dev"
mount "$efi_dev" /mnt"$esp_mount_in_target"
disk_step "creating the ESP filesystem on $efi_dev" mkfs.fat -F32 -n OMARCHY_EFI "$efi_dev"
disk_step "mounting the ESP" mount "$efi_dev" /mnt"$esp_mount_in_target"
# The orchestrator's first act is to verify this handoff. Check it here so
# a failure names the step that broke rather than surfacing later as
# "protected mode: /mnt is not a mountpoint".
mountpoint -q /mnt ||
disk_abort_hook "Target /mnt is not mounted; not starting the installer"
mountpoint -q "/mnt$esp_mount_in_target" ||
disk_abort_hook "ESP is not mounted at /mnt$esp_mount_in_target"
fi
local luks_uuid_json="null" luks_uuid
@@ -751,6 +913,8 @@ run_partition_execute() {
"bootloader_config": { "bootloader": "Limine", "uki": false, "removable": false },
"custom_commands": [],
"omarchy_install": {
"input_method": "${keyboard_input_method:-none}",
"input_xkb_layout": "${keyboard_xkb_layout:-}",
"mode": "protected",
"target_mount": "/mnt",
"boot": {
@@ -783,7 +947,7 @@ run_partition_execute() {
"locale_config": {
"kb_layout": "$keyboard",
"sys_enc": "UTF-8",
"sys_lang": "en_US.UTF-8"
"sys_lang": "$(target_lang)"
},
"mirror_config": {
"custom_repositories": [],
@@ -813,7 +977,7 @@ _EOF_
}
disk_form() {
step "Let's select where to install Omarchy..."
step "$(omarchy_text "Let's select where to install Omarchy...")"
# Don't offer the install media as an option (Arch ISO mounts it here)
local boot_source
@@ -839,19 +1003,19 @@ disk_form() {
fi
done <<<"$available_disks"
selected_display=$(echo "$disk_options" | gum choose --header "Select install disk") || abort
selected_display=$(echo "$disk_options" | gum choose --header "$(omarchy_text "Select install disk")") || abort
disk=$(echo "$selected_display" | awk '{print $1}')
}
# STEP 4: INSTALL MODE
open_partition_tool() {
step "Partition tool for $disk"
gum style "Create unallocated free space for Omarchy, then write changes and quit."
gum style --foreground 8 "Do not create an Omarchy partition here — leave the target area as Free space."
gum style --foreground 8 "Tip: free-space install needs at least 32GB unallocated, plus 2GB more if no ESP already exists."
step "$(omarchy_text "Partition tool for %s" "$disk")"
gum style "$(omarchy_text "Create unallocated free space for Omarchy, then write changes and quit.")"
gum style --foreground 8 "$(omarchy_text "Do not create an Omarchy partition here — leave the target area as Free space.")"
gum style --foreground 8 "$(omarchy_text "Tip: free-space install needs at least 32GB unallocated, plus 2GB more if no ESP already exists.")"
echo
gum confirm --affirmative "Open cfdisk" --negative "Back" "Open partition tool for $disk?" || return 0
gum confirm --affirmative "$(omarchy_text "Open cfdisk")" --negative "$(omarchy_text "Back")" "$(omarchy_text "Open partition tool for %s?" "$disk")" || return 0
clear
cfdisk "$disk" || true
@@ -884,17 +1048,17 @@ requires_full_disk_install() {
}
install_mode_form() {
local choices=("Full disk install")
local choices=("$(omarchy_text "Full disk install")")
# The free-space/protected path registers an EFI boot entry and is UEFI-only.
# Full-disk installs still support BIOS through the orchestrator's BIOS branch.
if [[ -d /sys/firmware/efi ]] && ! $full_disk_only; then
choices+=("Free space install (alongside existing data)")
choices+=("$(omarchy_text "Free space install (alongside existing data)")")
fi
choices+=("Choose a different disk")
choices+=("$(omarchy_text "Choose a different disk")")
step "Let's select how to install Omarchy..."
install_mode=$(gum choose --header "Select installation mode on $disk" "${choices[@]}") || abort
step "$(omarchy_text "Let's select how to install Omarchy...")"
install_mode=$(gum choose --header "$(omarchy_text "Select installation mode on %s" "$disk")" "${choices[@]}") || abort
}
confirm_disk_overwrite() {
@@ -904,17 +1068,17 @@ confirm_disk_overwrite() {
while true; do
clear_logo
echo
say "Everything will be overwritten. There is no recovery possible."
say "$(omarchy_text "Everything will be overwritten. There is no recovery possible.")"
if [[ $mode == "encrypted" ]]; then
say --foreground 8 "Press Ctrl+C for unencrypted install."
affirmative="Yes, install"
say --foreground 8 "$(omarchy_text "Press Ctrl+C for unencrypted install.")"
affirmative="$(omarchy_text "Yes, install")"
else
affirmative="Yes, install without encryption"
affirmative="$(omarchy_text "Yes, install without encryption")"
fi
echo
gum confirm --affirmative "$affirmative" --negative "No, change it" "Confirm overwriting ${disk}"
gum confirm --affirmative "$affirmative" --negative "$(omarchy_text "No, change it")" "$(omarchy_text "Confirm overwriting %s" "$disk")"
confirm_status=$?
case $confirm_status in
@@ -953,13 +1117,13 @@ select_installation() {
# With no free-space option to offer, a full-disk install is the only
# mode, so skip the picker and go straight to the overwrite confirm.
if $full_disk_only; then
install_mode="Full disk install"
install_mode=$(omarchy_text "Full disk install")
else
install_mode_form
fi
case "$install_mode" in
"Full disk install")
"$(omarchy_text "Full disk install")")
if confirm_disk_overwrite; then
install_target="full_disk"
return 0
@@ -968,13 +1132,13 @@ select_installation() {
# wants a different disk.
$full_disk_only && disk_form
;;
"Free space install"*)
"$(omarchy_text "Free space install (alongside existing data)")")
if run_partition_decide; then
install_target="free_space"
return 0
fi
;;
"Choose a different disk")
"$(omarchy_text "Choose a different disk")")
disk_form
;;
esac
@@ -985,12 +1149,20 @@ select_installation() {
defer_provisioning=false
install_target="full_disk"
# A rerun arrives with the language chosen; otherwise English.
language="${OMARCHY_INSTALL_LANGUAGE:-en}"
language_chosen=false
# Let the live VT reach its settled width before the first screen so the logo
# isn't measured against the transient 80-column boot console.
wait_for_stable_terminal
greeter
if [[ -n ${OMARCHY_INSTALL_LANGUAGE:-} ]]; then
apply_language
language_chosen=true
else
greeter
fi
keyboard_form
@@ -1007,6 +1179,8 @@ if $defer_provisioning; then
# their real layout in the OOBE, which re-keys the console and, on encrypted
# installs, rebuilds the initramfs so the LUKS prompt matches.
keyboard="us"
keyboard_input_method="none"
keyboard_xkb_layout=""
username=""
password=""
password_hash=""
@@ -1089,6 +1263,8 @@ cat <<-_EOF_ >user_configuration.json
"bootloader_config": { "bootloader": "Limine", "uki": false, "removable": false },
"custom_commands": [],
"omarchy_install": {
"input_method": "${keyboard_input_method:-none}",
"input_xkb_layout": "${keyboard_xkb_layout:-}",
"mode": "full_disk",
"defer_provisioning": $defer_provisioning,
"target_mount": "/mnt",
@@ -1172,7 +1348,7 @@ cat <<-_EOF_ >user_configuration.json
"locale_config": {
"kb_layout": "$keyboard",
"sys_enc": "UTF-8",
"sys_lang": "en_US.UTF-8"
"sys_lang": "$(target_lang)"
},
"mirror_config": {
"custom_repositories": [],
@@ -38,9 +38,7 @@ CLEAR="${CSI}2J${CSI}H"
CLEAR_LINE="${CSI}2K"
CLEAR_TO_END="${CSI}J"
GREEN="${CSI}32m"
WHITE="${CSI}37m"
RED="${CSI}31m"
DARK="${CSI}90m"
# The dashboard owns the final reboot prompt now, so keep the gum confirm
# styling that used to come from install/helpers/presentation.sh.
@@ -53,6 +51,22 @@ export GUM_CONFIRM_UNSELECTED_BACKGROUND="${GUM_CONFIRM_UNSELECTED_BACKGROUND:-0
child_pid=""
child_pgid=""
whimsy=(
"delivering delightful defaults"
"saving setup struggles"
"picking polished packages"
"curating cohesive colors"
"preparing pleasant pixels"
"hyping happy hyprland"
"integrating intuitive interfaces"
"bootstrapping beautiful boxes"
"crafting cozy commands"
"making machines marvelous"
"polishing pretty pixels"
"tuning tasteful terminals"
"weaving wonderful workflows"
)
tips=(
"Super + Space opens the Omarchy menu for apps, settings, and more"
"Super + K shows all the key bindings"
@@ -74,6 +88,81 @@ tips=(
"Keep the system fresh with Update in the Omarchy menu"
)
# omarchy_text and its Chinese table come from the setup form the configurator uses.
SETUP_FORM="${SETUP_FORM:-/usr/share/omarchy-iso/setup-form.sh}"
[[ -r $SETUP_FORM ]] || SETUP_FORM="${OMARCHY_PATH:-/usr/share/omarchy}/install/provisioning/setup-form.sh"
source "$SETUP_FORM"
OMARCHY_ZH+=(
["Tip: %s"]="提示:%s"
["Installed Omarchy"]="Omarchy 安装完成"
["Installed Omarchy in %s"]="Omarchy 安装完成,用时 %s"
["Reboot Now"]="立即重启"
["Last log lines:"]="日志末尾:"
["Last target log lines:"]="目标系统日志末尾:"
["Press Enter to continue…"]="按回车继续……"
["No log uploader is available in this environment."]="这个环境没有日志上传工具。"
["Install log: %s"]="安装日志:%s"
["Target log: %s"]="目标系统日志:%s"
["Omarchy installation stopped"]="Omarchy 安装已停止"
["Installer exited with status %s"]="安装程序退出,状态码 %s"
["Get help at https://omarchy.org/discord"]="求助:https://omarchy.org/discord"
["What would you like to do?"]="接下来做什么?"
["Upload log for support"]="上传日志求助"
["View full log"]="查看完整日志"
["Drop to shell"]="进入 shell"
["Reboot"]="重启"
["Power off"]="关机"
["The install medium was misread"]="安装介质读取出错"
["This package is intact on this ISO, so the download and the write were fine:"]="这个软件包在 ISO 中完好,下载和写入都没有问题:"
["Try another USB port or another stick, and test this machine's memory"]="换一个 USB 口或换一个 U 盘,并检测这台机器的内存"
["The install medium is damaged"]="安装介质已损坏"
["This package no longer matches the checksum it was built with:"]="这个软件包和构建时的校验和不再一致:"
["Re-download the ISO, verify it with sha256sum, and write the USB again"]="重新下载 ISO,用 sha256sum 校验,再重新写入 U 盘"
["If a verified ISO fails here too, the USB stick itself is the problem"]="如果校验过的 ISO 在这里也失败,问题出在 U 盘本身"
["The install medium is damaged or misread"]="安装介质已损坏或读取出错"
["pacman rejected this package, read straight off this ISO:"]="pacman 拒绝了这个直接从 ISO 读出的软件包:"
["Verify your download with sha256sum, then write the USB again"]="用 sha256sum 校验下载的文件,再重新写入 U 盘"
["If the download verifies, the stick or this machine's memory is at fault"]="如果下载校验无误,问题出在 U 盘或这台机器的内存"
)
if [[ ${OMARCHY_INSTALL_LANG:-} == "zh" ]]; then
whimsy=(
"备好贴心的默认设置"
"省掉装机的折腾"
"挑选打磨过的软件包"
"调配协调的配色"
"准备悦目的像素"
"唤醒 Hyprland"
"接好顺手的界面"
"搭起漂亮的系统"
"写好趁手的命令"
"让机器焕然一新"
"擦亮每一个像素"
"调好终端的品味"
"织出流畅的工作流"
)
tips=(
"Super + Space 打开 Omarchy 菜单:应用、设置等"
"Super + K 查看全部快捷键"
"Super 是键盘上的 Windows 或 Command 键"
"用 Xournal++ 给 PDF 签名"
"用 LocalSend 和手机、电脑互传文件"
"菜单 安装 > 网页应用 把任意网站变成应用"
"Super + Return 打开终端,Super + Shift + Return 打开浏览器"
"图片用 Pinta,视频用 Kdenlive,文档用 LibreOffice"
"Super + Ctrl + Print 用 OCR 抓取屏幕文字"
"Print 截屏,Alt + Print 录屏"
"Super + Ctrl + R 设置提醒"
"菜单 风格 > 主题 切换主题"
"双击菜单栏让它透明"
"菜单 安装 > Windows 运行完整的 Windows 虚拟机"
"Super + Ctrl + V 打开剪贴板管理器"
"Super + 1 到 0 切换工作区,加 Shift 带上窗口"
"Super + Print 拾取屏幕上任意位置的颜色"
"用菜单里的 更新 让系统保持最新"
)
fi
cleanup() {
printf '%s%s' "$RESET" "$SHOW_CURSOR" >"$TTY_PATH" 2>/dev/null || true
}
@@ -115,10 +204,58 @@ trap 'interrupt 143' TERM
term_size() { stty size 2>/dev/null <"$TTY_PATH" || printf '24 80\n'; }
term_cols() { local size; size="$(term_size)"; printf '%s\n' "${size#* }"; }
repeat() {
local char="$1" count="$2" out="" i
for ((i=0; i<count; i++)); do out+="$char"; done
printf '%s' "$out"
# Read the actual character dimensions instead of assuming an 8 x 16 font.
# Linux VTs expose the font through KDFONTOP; desktop terminals may expose
# pixels in their window size or answer the standard cell-size query.
term_cell_size() {
python3 - "$TTY_PATH" <<'PY'
import fcntl
import os
import re
import select
import struct
import sys
import termios
import time
import tty
with open(sys.argv[1], "r+b", buffering=0) as terminal:
fd = terminal.fileno()
rows, cols, width, height = struct.unpack(
"HHHH", fcntl.ioctl(fd, termios.TIOCGWINSZ, bytes(8)))
if rows and cols and width and height:
print(round(width / cols), round(height / rows))
sys.exit()
try:
font = bytearray(struct.pack("@5IP", 1, 0, 0, 0, 0, 0))
fcntl.ioctl(fd, 0x4B72, font) # KDFONTOP / KD_FONT_OP_GET, no glyph data
_, _, width, height, _ = struct.unpack_from("@5I", font)
if width and height:
print(width, height)
sys.exit()
except OSError:
pass
settings = termios.tcgetattr(fd)
try:
tty.setcbreak(fd, termios.TCSANOW)
os.write(fd, b"\x1b[16t")
response = b""
deadline = time.monotonic() + 0.15
while select.select([fd], [], [], max(0, deadline - time.monotonic()))[0]:
response += os.read(fd, 64)
match = re.search(rb"\x1b\[6;(\d+);(\d+)t", response)
if match:
height, width = map(int, match.groups())
if width and height:
print(width, height)
sys.exit()
if time.monotonic() >= deadline:
break
finally:
termios.tcsetattr(fd, termios.TCSANOW, settings)
print(8, 16) # Conventional console font when dimensions aren't available.
PY
}
logo_width() {
@@ -151,22 +288,16 @@ LOGO_HEIGHT="$(logo_height)"
(( LOGO_WIDTH > 0 )) || LOGO_WIDTH=81
(( LOGO_HEIGHT > 0 )) || LOGO_HEIGHT=1
CONTENT_WIDTH="$LOGO_WIDTH"
# Rows the progress screen occupies: logo, blank, title, blank, bar, blank, tip.
PROGRESS_HEIGHT=$((LOGO_HEIGHT + 6))
TOP_ROW=1
DYNAMIC_ROW=$((LOGO_HEIGHT + 3))
LAST_SIZE=""
LAST_PM=10
# The finish screen mirrors the greeter's frame — logo, blank, one line, gap,
# one button — so the last thing the installer shows matches the first. It runs
# one row taller: `gum confirm` always paints prompt/blank/button and clears all
# three, so the button cannot sit closer than two rows under a title we drew.
# Wordmark, blank, title, and the three rows gum confirm uses.
FINISH_HEIGHT=$((LOGO_HEIGHT + 5))
FINISH_TOP_ROW=2
# ── Install progress ─────────────────────────────────────────────────────────
#
# Position = max(floor, work), both non-decreasing, in per-mille of the bar.
# Position = max(floor, work), both non-decreasing, in per-mille of the drawing.
#
# floor lo + (span-1) * t / (t+tau), on time since this process saw the
# phase. Asymptotic, so it approaches the band end without reaching it.
@@ -189,8 +320,8 @@ fi
# A wrong denominator is worse than none: it never triggers the fallback.
(( PKG_TOTAL < 300 || PKG_TOTAL > 5000 )) && PKG_TOTAL=0
PKG_BONUS_MAX_PM=100 # cap on how far the bar may run ahead of the count
PKG_TAIL_PM=40 # band held back so a stalled bar has somewhere to go
PKG_BONUS_MAX_PM=100 # cap on how far progress may run ahead of the count
PKG_TAIL_PM=40 # band held back so stalled progress has somewhere to go
PKG_FLOOR_TAU=900 # with a work signal, time is only a backstop until the
# first package, so slow it until it cannot outrun data
@@ -230,8 +361,8 @@ left_padding() {
visible_len() {
local text="$1"
text="$(printf '%b' "$text" | sed -E $'s/\x1b\\[[0-9;?]*[A-Za-z]//g')"
printf '%s' "${#text}"
# wc -L counts display columns, so double-width CJK centers too.
printf '%b' "$text" | sed -E $'s/\x1b\\[[0-9;?]*[A-Za-z]//g' | wc -L
}
blank_line() { printf '\r%s\n' "$CLEAR_LINE"; }
@@ -263,13 +394,161 @@ render_logo() {
fi
}
progress_bar() {
local pm="$1" width="${2:-34}" filled empty
(( pm < 0 )) && pm=0
(( pm > 1000 )) && pm=1000
filled=$(( pm * width / 1000 ))
empty=$(( width - filled ))
printf '%s%s%s%s%s' "$WHITE" "$(repeat █ "$filled")" "$DARK" "$(repeat ░ "$empty")" "$RESET"
# The icon uses half-block glyphs, scaled to the terminal's actual cell aspect
# ratio so its square silhouette stays square. No graphics protocol is needed.
# Coordinates follow the 15 x 15 grid of Omarchy's icon.svg. Each segment
# paints the full stroke width, starting at the bottom middle of the outer ring.
ICON_WIDTH=30
ICON_HEIGHT=15
CELL_WIDTH=8
CELL_HEIGHT=16
ICON_LEFT=1
ICON_STEPS=0
ICON_DRAWN=0
DISPLAY_PM=0
ICON_FRAME=""
declare -a ICON_ORDER=() ICON_TRACE=() ICON_FILL=()
icon_segment() {
local scale="$1" x1="$2" y1="$3" x2="$4" y2="$5"
local x y from to
if (( y1 == y2 )); then
from=$(( (x1 * ICON_WIDTH + 14) / 15 ))
to=$(( ((x2 + 1) * ICON_WIDTH + 14) / 15 ))
if (( x2 < x1 )); then
from=$(( ((x1 + 1) * ICON_WIDTH + 14) / 15 - 1 ))
to=$(( (x2 * ICON_WIDTH + 14) / 15 - 1 ))
fi
for ((x=from; x!=to; x+=(x2 >= x1 ? 1 : -1))); do
for ((y=y1 * scale; y<(y1 + 1) * scale; y++)); do
icon_pixel "$((y * ICON_WIDTH + x))"
done
done
else
from=$(( y1 * scale ))
to=$(( (y2 + 1) * scale ))
if (( y2 < y1 )); then
from=$(( (y1 + 1) * scale - 1 ))
to=$(( y2 * scale - 1 ))
fi
for ((y=from; y!=to; y+=(y2 >= y1 ? 1 : -1))); do
for ((x=(x1 * ICON_WIDTH + 14) / 15; x<((x1 + 1) * ICON_WIDTH + 14) / 15; x++)); do
icon_pixel "$((y * ICON_WIDTH + x))"
done
done
fi
}
icon_pixel() {
local pixel="$1"
if [[ ! -v ICON_TRACE[pixel] ]]; then
ICON_ORDER+=("$pixel")
ICON_TRACE[pixel]=${#ICON_ORDER[@]}
fi
}
build_icon() {
local scale="$1" x y row
local -a mask=(
111111111111111
100000010000001
101111110001101
101000000000101
101000000000101
101000000000101
101000000000101
111000000000101
101000000000101
101000000000101
101000000000101
101000000000101
101111111111101
100000010000001
111111110111111
)
ICON_WIDTH=$(( (15 * scale * CELL_HEIGHT + CELL_WIDTH) / (2 * CELL_WIDTH) ))
ICON_HEIGHT=$(((15 * scale + 1) / 2))
ICON_ORDER=() ICON_TRACE=() ICON_FILL=()
ICON_DRAWN=0
# Start at the bottom middle, follow the outer left edge to the top cross,
# then descend into the inner shape. Fill its two bridges as we reach them.
icon_segment "$scale" 7 14 0 14
icon_segment "$scale" 0 14 0 0
icon_segment "$scale" 0 0 7 0
icon_segment "$scale" 7 0 7 2
icon_segment "$scale" 7 2 2 2
icon_segment "$scale" 2 2 2 7
icon_segment "$scale" 2 7 0 7
icon_segment "$scale" 2 7 2 12
icon_segment "$scale" 2 12 7 12
icon_segment "$scale" 7 12 7 14
icon_segment "$scale" 7 12 12 12
icon_segment "$scale" 12 12 12 2
icon_segment "$scale" 12 2 11 2
# Finish from the top cross: right along the outside, down, then left.
icon_segment "$scale" 7 0 14 0
icon_segment "$scale" 14 0 14 14
icon_segment "$scale" 14 14 9 14
ICON_STEPS=${#ICON_ORDER[@]}
for ((y=0; y<15 * scale; y++)); do
row=${mask[y / scale]}
for ((x=0; x<ICON_WIDTH; x++)); do
ICON_FILL[y * ICON_WIDTH + x]=${row:x * 15 / ICON_WIDTH:1}
done
done
}
# Append one cell with independently colored upper/lower pixels. This also
# handles a green tracing tip sharing a cell with the still-dark outline.
icon_cell() {
local pixel="$1" drawn="$2" solid="$3" upper=0 lower=0 step
if (( solid )); then
(( ICON_FILL[pixel] )) && upper=32
(( ${ICON_FILL[pixel + ICON_WIDTH]:-0} )) && lower=32
else
step=${ICON_TRACE[pixel]:-0}
(( step > 0 )) && upper=90
(( step > 0 && step <= drawn )) && upper=32
step=${ICON_TRACE[pixel + ICON_WIDTH]:-0}
(( step > 0 )) && lower=90
(( step > 0 && step <= drawn )) && lower=32
fi
if (( upper == 0 && lower == 0 )); then
ICON_FRAME+="${RESET} "
elif (( upper == lower )); then
ICON_FRAME+="${CSI}${upper};49m█"
elif (( lower == 0 )); then
ICON_FRAME+="${CSI}${upper};49m▀"
elif (( upper == 0 )); then
ICON_FRAME+="${CSI}${lower};49m▄"
else
ICON_FRAME+="${CSI}${upper};$((lower + 10))m▀"
fi
}
render_icon() {
local pm="$1" full="${2:-0}" drawn i pixel row col
drawn=$((pm * ICON_STEPS / 1000))
ICON_FRAME=""
if (( full || pm == 1000 )); then
for ((row=0; row<ICON_HEIGHT; row++)); do
ICON_FRAME+="${CSI}$((TOP_ROW + row));${ICON_LEFT}H"
for ((col=0; col<ICON_WIDTH; col++)); do
icon_cell "$((row * 2 * ICON_WIDTH + col))" "$drawn" "$((pm == 1000))"
done
done
else
# Between layout changes, repaint only newly traced pixels. This keeps the
# animation cheap even while pacstrap saturates the disk.
for ((i=ICON_DRAWN; i<drawn; i++)); do
pixel=${ICON_ORDER[i]}
row=$((pixel / ICON_WIDTH / 2)) col=$((pixel % ICON_WIDTH))
ICON_FRAME+="${CSI}$((TOP_ROW + row));$((ICON_LEFT + col))H"
icon_cell "$((row * 2 * ICON_WIDTH + col))" "$drawn" 0
done
fi
printf '%s%s' "$ICON_FRAME" "$RESET"
ICON_DRAWN=$drawn
}
# Packages libalpm has finished installing. local/ holds one directory per
@@ -290,7 +569,7 @@ count_packages() {
# Sets PROGRESS_PM. Never call in a command substitution: POS, the phase timer
# and the package counters must survive between frames. Print nothing — output
# here would land on the TTY between the cursor escape and the bar.
# here would land on the TTY between the cursor escape and the drawing.
install_progress() {
local phase finished index total target
local lo hi tau span t pos work gap n pkg_signal=0
@@ -377,7 +656,7 @@ install_progress() {
PKG_DB_DIR="$target/var/lib/pacman/local"
count_packages
# Baseline on first sight: a target that already holds packages would
# otherwise pin the bar at the band ceiling for the whole phase.
# otherwise pin progress at the band ceiling for the whole phase.
(( PKG_BASE < 0 )) && PKG_BASE=$PKG_COUNT
n=$(( PKG_COUNT - PKG_BASE ))
(( n < 0 )) && n=0
@@ -401,17 +680,20 @@ install_progress() {
return 0
}
# One tip per 8 seconds, in order. On elapsed time, not a frame counter: a frame
# is 0.5s of sleep plus a render, which stretches under pacstrap I/O — on the
# machine where the tips, not the bar, are carrying liveness.
# Keep the original loading messages on their own clock, so progress jumps
# cannot skip phrases and animation frame rate does not change their cadence.
current_whimsy() {
printf '%s' "${whimsy[$(( (NOW - DASH_T0) / 4 % ${#whimsy[@]} ))]}"
}
# One tip per 8 seconds, in order. Use elapsed time, since rendering can stretch
# under pacstrap I/O, when the tips may be the most visible sign of activity.
current_tip() {
printf '%s' "${tips[$(( (NOW - DASH_T0) / 8 % ${#tips[@]} ))]}"
}
# Vertically center a block of the given height, echoing the row it starts on.
# Both screens here center the way the configurator's greeter centers its
# welcome, so the install opens, runs, and closes on the same composition
# rather than stacking each frame from row one.
# Center both the progress icon and the final wordmark on the console.
centered_top_row() {
local height="$1" rows top
rows="$(term_size)"
@@ -423,42 +705,60 @@ centered_top_row() {
}
measure_progress_layout() {
local rows cols scale=1
LAST_SIZE="$(term_size)"
TOP_ROW="$(centered_top_row "$PROGRESS_HEIGHT")"
DYNAMIC_ROW=$(( TOP_ROW + LOGO_HEIGHT + 1 ))
read -r rows cols <<<"$LAST_SIZE"
read -r CELL_WIDTH CELL_HEIGHT < <(term_cell_size 2>/dev/null || printf '8 16\n')
(( rows >= 34 && cols >= 49 )) && scale=2
(( rows >= 50 && cols >= 64 )) && scale=3
while (( scale > 1 && (15 * scale * CELL_HEIGHT + CELL_WIDTH) / (2 * CELL_WIDTH) > cols - 4 )); do
scale=$((scale - 1))
done
build_icon "$scale"
TOP_ROW="$(centered_top_row "$((ICON_HEIGHT + 6))")"
ICON_LEFT=$(( (cols - ICON_WIDTH) / 2 + 1 ))
(( ICON_LEFT < 1 )) && ICON_LEFT=1
PROGRESS_TEXT_WIDTH=$((cols - 2))
(( PROGRESS_TEXT_WIDTH > CONTENT_WIDTH )) && PROGRESS_TEXT_WIDTH=$CONTENT_WIDTH
return 0
}
render_static() {
measure_progress_layout
printf '%s%s%d;1H' "$CLEAR" "$CSI" "$TOP_ROW"
render_logo
blank_line
printf '%s' "$CLEAR"
render_icon "$DISPLAY_PM" 1
}
render_dynamic() {
local pm
# The console can still resize under us (the framebuffer settles late in VMs).
# Horizontal padding is recomputed every frame anyway, but the logo is drawn
# once, so redraw the static half at the new center rather than leave the
# centered layout stranded against a stale geometry.
[[ "$(term_size)" == "$LAST_SIZE" ]] || render_static
update_progress() {
set_now
install_progress
pm=$PROGRESS_PM
local pm=$PROGRESS_PM
[[ $pm =~ ^[0-9]+$ ]] || pm=$LAST_PM
(( pm > 1000 )) && pm=1000
# Only the child's successful exit can complete the drawing.
(( pm > 999 )) && pm=999
# POS is monotone by construction; this is a guard, not the mechanism.
(( pm < LAST_PM )) && pm=$LAST_PM
LAST_PM=$pm
}
printf '%s%d;1H' "$CSI" "$DYNAMIC_ROW"
center "Installing Omarchy" "$CONTENT_WIDTH"
render_dynamic() {
local step message tip
# The framebuffer can settle late in VMs. Rebuild at the new size, preserving
# progress, instead of leaving the drawing at the old screen coordinates.
[[ "$(term_size)" == "$LAST_SIZE" ]] || render_static
# Ease phase jumps over several frames, with the percentage following the
# same position as the trace. The measured progress still never goes back.
step=$(( (LAST_PM - DISPLAY_PM + 3) / 4 ))
DISPLAY_PM=$((DISPLAY_PM + step))
render_icon "$DISPLAY_PM"
message="$(truncate_for_width "$(current_whimsy)" "$PROGRESS_TEXT_WIDTH")"
tip="$(truncate_for_width "$(omarchy_text "Tip: %s" "$(current_tip)")" "$PROGRESS_TEXT_WIDTH")"
printf '%s%d;1H' "$CSI" "$((TOP_ROW + ICON_HEIGHT + 1))"
center "${GREEN}$((DISPLAY_PM / 10))%${RESET}" "$PROGRESS_TEXT_WIDTH"
center "${GREEN}${message}${RESET}" "$PROGRESS_TEXT_WIDTH"
blank_line
line_at "$CONTENT_WIDTH" $(( (CONTENT_WIDTH - 34) / 2 )) ""
progress_bar "$pm" 34
printf '\n'
blank_line
center "${DIM}Tip:${RESET} ${GREEN}$(current_tip)${RESET}" "$CONTENT_WIDTH"
center "${DIM}${tip}${RESET}" "$PROGRESS_TEXT_WIDTH"
printf '%s' "$CLEAR_TO_END"
}
@@ -493,13 +793,15 @@ install_duration() {
}
render_finish() {
local duration effect_canvas_width
local duration effect_canvas_width title
duration="$(install_duration || true)"
duration="${duration:-Complete}"
# ttfx centers its text two columns right of plain centering, so hand it a
# canvas two columns narrower and the animated logo lands exactly on the
# static one left_padding already drew. Otherwise the logo jumps a column
# sideways when the effect starts and again when it ends.
if [[ -n $duration ]]; then
title=$(omarchy_text "Installed Omarchy in %s" "$duration")
else
title=$(omarchy_text "Installed Omarchy")
fi
# ttfx centers its text two columns right of plain centering. A canvas two
# columns narrower aligns the animation with the title and fallback logo.
effect_canvas_width="$(term_cols)"
(( effect_canvas_width > 2 )) && effect_canvas_width=$((effect_canvas_width - 2))
@@ -508,23 +810,21 @@ render_finish() {
FINISH_TOP_ROW="$(centered_top_row "$FINISH_HEIGHT")"
{
printf '%s%s%s%d;1H' "$SHOW_CURSOR" "$CLEAR" "$CSI" "$FINISH_TOP_ROW"
render_logo
blank_line
center "Installed Omarchy in ${duration}" "$CONTENT_WIDTH"
# Leave the wordmark area blank: laseretch reveals it for the first time.
printf '%s%s%s%d;1H' "$HIDE_CURSOR" "$CLEAR" "$CSI" "$((FINISH_TOP_ROW + LOGO_HEIGHT + 1))"
center "$title" "$CONTENT_WIDTH"
blank_line
} >"$TTY_PATH"
if [[ -f $LOGO_PATH ]]; then
# Reuse mode restores a saved cursor before moving up over its input. Save
# this anchor so the effect redraws the same logo rows shown above.
# this anchor so the effect occupies the reserved wordmark rows.
printf '%s%d;1H\0337' "$CSI" "$((FINISH_TOP_ROW + LOGO_HEIGHT))" >"$TTY_PATH"
# Laseretch runs ~4s at 260fps, so the 8s cap is a stuck-process guard rather
# than a trim. --xterm-colors keeps the whole effect in the 256-index palette
# the way the greeter does, since the console reduces indexed codes well and
# truecolor ones badly, and it settles on indexed 2 — the green gum already
# drew the logo in above, so the send-off ends on the frame it started from
# instead of recoloring it. The laser and sparks keep their own hot palette.
# truecolor ones badly. It settles on indexed 2, the Tokyo Night green used
# throughout the installer. The laser and sparks keep their own hot palette.
timeout 8s ttfx -i "$LOGO_PATH" \
--canvas-width "$effect_canvas_width" \
--anchor-text c \
@@ -533,13 +833,18 @@ render_finish() {
--xterm-colors \
laseretch \
--final-gradient-stops 2 \
>"$TTY_PATH" 2>/dev/null || dashboard_log "logo effect skipped (ttfx exited $?)"
printf '%s%d;1H' "$CSI" "$((FINISH_TOP_ROW + LOGO_HEIGHT + 5))" >"$TTY_PATH"
>"$TTY_PATH" 2>/dev/null || {
dashboard_log "logo effect skipped (ttfx exited $?)"
{ printf '%s%d;1H' "$CSI" "$FINISH_TOP_ROW"; render_logo; } >"$TTY_PATH"
}
else
{ printf '%s%d;1H' "$CSI" "$FINISH_TOP_ROW"; render_logo; } >"$TTY_PATH"
fi
printf '%s%s%d;1H' "$SHOW_CURSOR" "$CSI" "$((FINISH_TOP_ROW + LOGO_HEIGHT + 5))" >"$TTY_PATH"
}
reboot_prompt() {
local prompt_pad
local prompt_pad label
# Nobody to confirm; the OMARCHY_UI_AUTO_REBOOT check at the call site still
# applies, so setting both stops on the finish screen without a keyboard.
@@ -550,31 +855,41 @@ reboot_prompt() {
# gum allows. FINISH_HEIGHT budgets for the same three rows.
printf '%s%d;1H%s' "$CSI" "$((FINISH_TOP_ROW + LOGO_HEIGHT + 2))" "$CLEAR_LINE" >"$TTY_PATH"
prompt_pad=$(( ( $(term_cols) - 18 ) / 2 ))
# gum pads the button label by four columns on each side.
label=$(omarchy_text "Reboot Now")
prompt_pad=$(( ( $(term_cols) - $(visible_len "$label") - 8 ) / 2 ))
(( prompt_pad < 0 )) && prompt_pad=0
gum confirm \
--padding "0 0 0 $prompt_pad" \
--show-help=false \
--default \
--affirmative "Reboot Now" \
--affirmative "$label" \
--negative "" \
"" <"$TTY_PATH" >"$TTY_PATH" 2>&1
}
# Columns, not characters: each CJK character takes two.
truncate_for_width() {
local text="$1" width="$2"
if (( ${#text} > width )); then
printf '%s…' "${text:0:$((width - 1))}"
else
if (( $(printf '%s' "$text" | wc -L) <= width )); then
printf '%s' "$text"
return
fi
text=${text:0:$((width - 1))}
while (( $(printf '%s' "$text" | wc -L) > width - 1 )); do
text=${text%?}
done
printf '%s…' "$text"
}
render_failure_log_tail() {
local rows lines width line tail_log label
# The caller passes the rows it spent above this point that the constant below
# does not know about, so the tail gives way rather than pushing the top of
# the screen off a short console.
local reserved="${1:-0}" rows lines width line tail_log label
rows=$(term_size)
rows=${rows%% *}
lines=$((rows - LOGO_HEIGHT - 18))
lines=$((rows - LOGO_HEIGHT - 18 - reserved))
(( lines < 6 )) && lines=6
(( lines > 14 )) && lines=14
width=$((CONTENT_WIDTH - 4))
@@ -590,8 +905,8 @@ render_failure_log_tail() {
fi
[[ -f $tail_log ]] || return 0
label="Last log lines:"
[[ $tail_log == /mnt/* ]] && label="Last target log lines:"
label=$(omarchy_text "Last log lines:")
[[ $tail_log == /mnt/* ]] && label=$(omarchy_text "Last target log lines:")
line_at "$CONTENT_WIDTH" 2 "${DIM}${label}${RESET}"
printf '\n'
tail -n "$lines" "$tail_log" 2>/dev/null | while IFS= read -r line; do
@@ -614,7 +929,7 @@ find_log_uploader() {
}
prompt_enter() {
printf '\nPress Enter to continue…' >"$TTY_PATH"
printf '\n%s' "$(omarchy_text "Press Enter to continue…")" >"$TTY_PATH"
IFS= read -r _ <"$TTY_PATH" || true
}
@@ -625,9 +940,9 @@ upload_failure_log() {
"$uploader" install >"$TTY_PATH" 2>&1 || true
else
{
echo "No log uploader is available in this environment."
echo "Install log: $LOG_FILE"
[[ -f /mnt/var/log/omarchy-install.log ]] && echo "Target log: /mnt/var/log/omarchy-install.log"
printf '%s\n' "$(omarchy_text "No log uploader is available in this environment.")"
printf '%s\n' "$(omarchy_text "Install log: %s" "$LOG_FILE")"
[[ -f /mnt/var/log/omarchy-install.log ]] && printf '%s\n' "$(omarchy_text "Target log: %s" /mnt/var/log/omarchy-install.log)"
} >"$TTY_PATH"
fi
prompt_enter
@@ -643,14 +958,62 @@ view_failure_log() {
fi
}
# A failure the medium explains is worth saying before the log tail, because
# the tail is where "invalid or corrupted package" already scrolled past
# without ever naming the USB stick it came off.
diagnose_media() {
local logs=("$LOG_FILE")
[[ -f /mnt/var/log/omarchy-install.log ]] && logs+=(/mnt/var/log/omarchy-install.log)
[[ -n ${OMARCHY_FAILURE_TAIL_LOG:-} ]] && logs+=("$OMARCHY_FAILURE_TAIL_LOG")
omarchy-install-diagnose-media "${logs[@]}" 2>/dev/null
}
# Rows the diagnosis occupies, its leading blank included.
media_diagnosis_rows() {
local diagnosis="$1"
if [[ -z $diagnosis ]]; then
printf '0\n'
else
printf '%s\n' "$(( $(grep -c '' <<<"$diagnosis") + 1 ))"
fi
}
render_media_diagnosis() {
local diagnosis="$1" line first=1
[[ -n $diagnosis ]] || return 0
blank_line
while IFS= read -r line; do
# A blank line inside the diagnosis is deliberate: it separates what
# happened from what to do about it, so it is drawn rather than skipped.
if [[ -z $line ]]; then
blank_line
continue
fi
# The support log keeps English; the screen shows the translation, and package names pass through.
[[ ${OMARCHY_INSTALL_LANG:-} == "zh" ]] && line=${OMARCHY_ZH[$line]:-$line}
if (( first )); then
center "${RED}$(truncate_for_width "$line" "$CONTENT_WIDTH")${RESET}" "$CONTENT_WIDTH"
first=0
else
center "$(truncate_for_width "$line" "$CONTENT_WIDTH")" "$CONTENT_WIDTH"
fi
done <<<"$diagnosis"
}
render_failure() {
local status="$1" state_summary="${2:-}" line
local status="$1" state_summary="${2:-}" media_diagnosis="${3:-}" line
printf '%s%s' "$SHOW_CURSOR" "$CLEAR"
blank_line
render_logo
blank_line
center "${RED}Omarchy installation stopped${RESET}" "$CONTENT_WIDTH"
center "Installer exited with status $status" "$CONTENT_WIDTH"
center "${RED}$(omarchy_text "Omarchy installation stopped")${RESET}" "$CONTENT_WIDTH"
center "$(omarchy_text "Installer exited with status %s" "$status")" "$CONTENT_WIDTH"
render_media_diagnosis "$media_diagnosis"
if [[ -n $state_summary ]]; then
blank_line
@@ -661,14 +1024,14 @@ render_failure() {
fi
blank_line
render_failure_log_tail
render_failure_log_tail "$(media_diagnosis_rows "$media_diagnosis")"
blank_line
center "${DIM}Get help at https://omarchy.org/discord${RESET}" "$CONTENT_WIDTH"
center "${DIM}$(omarchy_text "Get help at https://omarchy.org/discord")${RESET}" "$CONTENT_WIDTH"
blank_line
}
failure_menu() {
local choice uploader
local choice uploader actions shown i
[[ ${OMARCHY_UI_FAILURE_ACTION:-} == "exit" ]] && return 0
# The failure screen and log tail have already rendered; exit with the
@@ -678,35 +1041,29 @@ failure_menu() {
while true; do
uploader=""
uploader=$(find_log_uploader || true)
if [[ -n $uploader ]]; then
choice=$(gum choose \
--height 6 \
--header "What would you like to do?" \
"Upload log for support" \
"View full log" \
"Drop to shell" \
"Reboot" \
"Power off" \
<"$TTY_PATH" 2>"$TTY_PATH") || choice="Drop to shell"
else
choice=$(gum choose \
--height 5 \
--header "What would you like to do?" \
"View full log" \
"Drop to shell" \
"Reboot" \
"Power off" \
<"$TTY_PATH" 2>"$TTY_PATH") || choice="Drop to shell"
fi
actions=("View full log" "Drop to shell" "Reboot" "Power off")
[[ -n $uploader ]] && actions=("Upload log for support" "${actions[@]}")
shown=()
for i in "${!actions[@]}"; do
shown+=("$(omarchy_text "${actions[i]}")")
done
choice=$(gum choose \
--height "$((${#actions[@]} + 1))" \
--header "$(omarchy_text "What would you like to do?")" \
"${shown[@]}" \
<"$TTY_PATH" 2>"$TTY_PATH") || choice=""
for i in "${!shown[@]}"; do
[[ ${shown[i]} == "$choice" ]] && choice=${actions[i]}
done
case "$choice" in
"Upload log for support")
upload_failure_log
render_failure "${failure_status:-1}" "${failure_summary:-}" >"$TTY_PATH" 2>/dev/null || true
render_failure "${failure_status:-1}" "${failure_summary:-}" "${failure_media_diagnosis:-}" >"$TTY_PATH" 2>/dev/null || true
;;
"View full log")
view_failure_log
render_failure "${failure_status:-1}" "${failure_summary:-}" >"$TTY_PATH" 2>/dev/null || true
render_failure "${failure_status:-1}" "${failure_summary:-}" "${failure_media_diagnosis:-}" >"$TTY_PATH" 2>/dev/null || true
;;
"Reboot")
reboot 2>/dev/null || systemctl reboot 2>/dev/null || true
@@ -756,9 +1113,13 @@ PHASE_T0=$NOW
PKG_LAST_CHANGE=$NOW
launch_child
frame=0
while jobs -pr | grep -qx "$child_pid"; do
# Keep package counting/state reads at 2 Hz; animate the trace at 10 Hz.
(( frame % 5 == 0 )) && update_progress
render_dynamic >"$TTY_PATH" 2>/dev/null || true
sleep 0.5
frame=$((frame + 1))
sleep 0.1
done
set +e
@@ -771,8 +1132,14 @@ child_pgid=""
dashboard_log "installer child exited with status $status"
if (( status == 0 )); then
# finished_at lands microseconds before the child exits, so the 0.5s poll
# rarely renders a full bar before the finish screen replaces it.
# Finish the trace even when a short-lived child exits between state polls.
LAST_PM=1000
PHASE_NAME="Installation complete"
while (( DISPLAY_PM < 999 )); do
render_dynamic >"$TTY_PATH" 2>/dev/null || true
sleep 0.05
done
DISPLAY_PM=1000
render_dynamic >"$TTY_PATH" 2>/dev/null || true
sleep 0.4
fi
@@ -792,7 +1159,15 @@ if (( status != 0 )); then
done <<<"$failure_summary"
fi
fi
render_failure "$failure_status" "$failure_summary" >"$TTY_PATH" 2>/dev/null || true
failure_media_diagnosis="$(diagnose_media || true)"
render_failure "$failure_status" "$failure_summary" "$failure_media_diagnosis" >"$TTY_PATH" 2>/dev/null || true
# Recorded after the screen is drawn, not before: the log tail on that screen
# reads this same file, and the diagnosis printed twice reads as two findings.
if [[ -n $failure_media_diagnosis ]]; then
while IFS= read -r line; do
[[ -n $line ]] && dashboard_log "$line"
done <<<"$failure_media_diagnosis"
fi
failure_menu
exit "$failure_status"
fi
@@ -0,0 +1,124 @@
#!/bin/bash
#
# Say whether an install failure was the install medium, and say it in words
# that name the fix.
#
# The ISO's offline mirror is bind-mounted onto the target's package cache for
# the duration of pacstrap (see _mount_offline_package_cache), so a package
# pacman calls corrupt under that path is a byte that came off the medium --
# nothing else ever writes there. That much is certain, and it is the part
# worth saying out loud, because the failure screen otherwise ends at "get help
# at discord" with the word USB nowhere on it.
#
# What is not certain is which way the medium failed. Bytes written wrong and
# bytes read wrong produce the same checksum mismatch, and pacstrap runs with
# --noconfirm, which answers yes to pacman's "delete it?" and unlinks the
# package through the bind mount before anything here can weigh it. So the
# usual verdict names the medium and gives both remedies in the order worth
# trying. When the package does survive, its checksum in the mirror's database
# tells the two apart, and then this says which.
#
# Prints the diagnosis on stdout, one line per line, headline first. Exits 1
# with no output when there is nothing here to diagnose, so the caller can ask
# unconditionally.
set -uo pipefail
TARGET_PACKAGE_CACHE="${OMARCHY_TARGET_PACKAGE_CACHE:-/mnt/var/cache/pacman/pkg}"
OFFLINE_MIRROR="${OMARCHY_OFFLINE_MIRROR:-/var/cache/omarchy/mirror/offline}"
if (( $# == 0 )); then
echo "Usage: omarchy-install-diagnose-media <log-file>..." >&2
exit 2
fi
# Only packages under the target cache count. A corrupt package anywhere else
# was not read off this ISO, and guessing wrong here sends someone to buy a USB
# stick they did not need.
corrupt_package() {
local log match package=""
for log in "$@"; do
[[ -f $log ]] || continue
match=$(sed -n "s|.*${TARGET_PACKAGE_CACHE}/\([^ ]*\) is corrupted.*|\1|p" "$log" | tail -n 1)
[[ -n $match ]] && package="$match"
done
printf '%s' "$package"
}
expected_checksum() {
local package="$1" reader
[[ -f $OFFLINE_MIRROR/offline.db ]] || return 1
if command -v bsdtar >/dev/null 2>&1; then
reader=(bsdtar -xOf "$OFFLINE_MIRROR/offline.db")
else
reader=(tar -xOzf "$OFFLINE_MIRROR/offline.db")
fi
# repo-add writes %FILENAME% before %SHA256SUM% in every desc record, so the
# name in hand when a checksum arrives is the name it belongs to. The wanted
# name comes through the environment rather than -v, which would read a
# backslash in a package version as an escape sequence.
"${reader[@]}" 2>/dev/null | want="$package" awk '
BEGIN { want = ENVIRON["want"] }
$0 == "%FILENAME%" { getline name; next }
$0 == "%SHA256SUM%" { getline sha; if (name == want) { print sha; exit } }
'
}
actual_checksum() {
local package="$1" sum
[[ -f $OFFLINE_MIRROR/$package ]] || return 1
sum=$(sha256sum "$OFFLINE_MIRROR/$package" 2>/dev/null) || return 1
printf '%s' "${sum%% *}"
}
package=$(corrupt_package "$@")
if [[ -z $package ]]; then
exit 1
fi
# The name reaches a terminal, and a package version may legally hold a
# backslash that the renderer would read as an escape. Strip anything a package
# filename has no business containing before printing it.
display_package="${package//[^A-Za-z0-9._+:@%-]/}"
expected=$(expected_checksum "$package")
actual=$(actual_checksum "$package")
# The package name goes on a line of its own throughout. Names run past fifty
# characters and the screen is only as wide as the logo, so a name sharing a
# line with the sentence that explains it truncates the explanation away. The
# blank line after it separates what happened from what to do about it.
if [[ -n $expected && -n $actual ]]; then
if [[ $expected == "$actual" ]]; then
# Intact now, so the bytes were misread rather than written wrong, and
# re-downloading fixes neither of the things that could have done it.
echo "The install medium was misread"
echo "This package is intact on this ISO, so the download and the write were fine:"
echo "$display_package"
echo
echo "Try another USB port or another stick, and test this machine's memory"
else
echo "The install medium is damaged"
echo "This package no longer matches the checksum it was built with:"
echo "$display_package"
echo
echo "Re-download the ISO, verify it with sha256sum, and write the USB again"
echo "If a verified ISO fails here too, the USB stick itself is the problem"
fi
exit 0
fi
# The usual case: pacman deleted the package it rejected, so the medium is the
# answer but the manner of its failure is not recoverable from here.
echo "The install medium is damaged or misread"
echo "pacman rejected this package, read straight off this ISO:"
echo "$display_package"
echo
echo "Verify your download with sha256sum, then write the USB again"
echo "If the download verifies, the stick or this machine's memory is at fault"
@@ -0,0 +1,131 @@
# Disk partitioning helpers, shared by the ISO configurator and its tests.
#
# The rule here is: never predict a partition number. parted fills the lowest
# free GPT slot, not "highest existing + 1", so any disk whose numbering has a
# hole — exactly what deleting a partition to free space leaves behind, which
# is what our own partition tool tells the user to do — hands back a number we
# did not choose. Everything below reads back what was actually created.
#
# Sourced, not executed. The configurator defines abort() and
# disk_abort_hook(); tests get the plain fallbacks.
# Partitions this run created, in creation order. rollback_created_parts()
# undoes exactly these and nothing else.
created_parts=()
# Set by create_partition() instead of being printed: a command substitution
# would run it in a subshell and lose the created_parts bookkeeping.
created_partition_number=""
# Compute partition device path, handling NVMe/mmcblk's pN naming.
partition_path() {
local _disk="$1" _num="$2"
if [[ "$_disk" == *nvme* || "$_disk" == *mmcblk* ]]; then
echo "${_disk}p${_num}"
else
echo "${_disk}${_num}"
fi
}
# Partition numbers as the on-disk GPT reports them. parted rather than lsblk
# on purpose: this is the table parted itself is about to modify, so discovery
# never depends on the kernel having re-read the partition table yet — and the
# same code works against an image file in tests, where lsblk sees nothing.
partition_numbers() {
parted -ms "$1" unit B print 2>/dev/null | tail -n +3 | cut -d: -f1
}
partition_size_bytes() {
parted -ms "$1" unit B print 2>/dev/null |
awk -F: -v n="$2" '$1 == n { gsub(/B/, "", $4); print $4; exit }'
}
# Fail loudly. The former version looped over sleep and returned its status,
# so a device that never appeared was indistinguishable from one that did.
wait_for_device() {
local i
for i in $(seq 1 10); do
[[ -b "$1" ]] && return 0
udevadm settle 2>/dev/null || true
sleep 1
done
return 1
}
_disk_abort() {
if declare -F disk_abort_hook >/dev/null; then
disk_abort_hook "$1"
elif declare -F abort >/dev/null; then
abort "$1"
fi
echo "Error: $1" >&2
exit 1
}
# Run a disk-writing command, fold its stderr into stdout, and abort on a
# non-zero exit. The fold matters: .automated_script.sh tees stdout into
# /var/log/omarchy-install.log but sends stderr straight to the tty (gum draws
# its TUI there), so an unwrapped failure leaves no trace in the log the user
# uploads — and the configurator's next screen clears it off the display too.
disk_step() {
local desc="$1"
shift
local output status=0
output=$("$@" 2>&1) || status=$?
[[ -n $output ]] && printf '%s\n' "$output"
(( status == 0 )) && return 0
_disk_abort "$desc failed (exit $status)"
}
# Create one partition and report the number parted actually assigned.
# Returns non-zero without touching created_parts if anything looks wrong;
# the caller decides how loudly to fail.
create_partition() {
local disk="$1" start="$2" end="$3" fstype="$4" name="$5"
local before after num actual want tolerance
created_partition_number=""
# Lexicographic sort on both sides: comm needs its inputs ordered the same
# way it compares them, and `sort -n` (1, 2, 10) is not that order.
before=$(partition_numbers "$disk" | sort)
parted --script "$disk" mkpart primary "$fstype" "${start}B" "${end}B" || return 1
partprobe "$disk" 2>/dev/null || true
udevadm settle 2>/dev/null || true
after=$(partition_numbers "$disk" | sort)
num=$(comm -13 <(printf '%s\n' "$before") <(printf '%s\n' "$after") | head -1)
[[ -n $num ]] || return 1
# The number must be genuinely new. This is the safety property that keeps a
# numbering mistake from ever formatting a partition somebody else is using;
# it is cheaper and more reliable than sniffing the target for signatures,
# which would false-positive on remnants left in freed space.
grep -qx "$num" <<<"$before" && return 1
actual=$(partition_size_bytes "$disk" "$num")
[[ -n $actual ]] || return 1
want=$((end - start))
tolerance=$((1024 * 1024))
(( actual >= want - tolerance && actual <= want + tolerance )) || return 1
parted --script "$disk" name "$num" "$name" || true
created_parts+=("$num")
created_partition_number="$num"
}
# Undo the partitions this run created, highest number first. Scoped strictly
# to created_parts: without this, a failed install leaves the user's freed
# space occupied by orphans, and the retry reports "not enough free space"
# with no way to connect that to what just happened.
rollback_created_parts() {
local disk="$1" n
(( ${#created_parts[@]} > 0 )) || return 0
for n in $(printf '%s\n' "${created_parts[@]}" | sort -rn); do
parted --script "$disk" rm "$n" >/dev/null 2>&1 || true
done
partprobe "$disk" 2>/dev/null || true
created_parts=()
}
@@ -0,0 +1,29 @@
# The Chinese installer's console: the VT's Tokyo Night palette, with Noto Sans Mono CJK from the offline mirror.
[main]
font=Noto Sans Mono CJK SC:size=13
# Noto's tall default rows leave the summary too few lines for the logo.
line-height=22px
[colors-dark]
background=1a1b26
foreground=a9b1d6
regular0=1a1b26
regular1=f7768e
regular2=9ece6a
regular3=e0af68
regular4=7aa2f7
regular5=bb9af7
regular6=7dcfff
regular7=a9b1d6
bright0=414868
bright1=f7768e
bright2=9ece6a
bright3=e0af68
bright4=7aa2f7
bright5=bb9af7
bright6=7dcfff
bright7=c0caf5
# cage draws no title bar, and a reserved one leaves a black strip.
[csd]
preferred=none
@@ -13,7 +13,7 @@ The canonical call sequence (mirrored from archinstall.scripts.guided.py) is:
# configs do their own mounting before the Installer context opens.
if disk_config.config_type != DiskLayoutType.Pre_mount:
inst.mount_ordered_layout()
inst.sanity_check(offline=, skip_ntp=, skip_wkd=)
sanity_check(inst)
inst.generate_key_files() # encrypted only
inst.set_mirrors(handler, mirror_config, on_target=False)
inst.minimal_installation(...) # base + linux pacstrap
@@ -214,6 +214,14 @@ def _method_accepts(method, name: str) -> bool:
return name in (*positional, *kwonly)
def sanity_check(installer) -> None:
"""Archinstall 4.5 removed offline; retain it for older releases."""
options = {"skip_ntp": True, "skip_wkd": True}
if _method_accepts(installer.sanity_check, "offline"):
options["offline"] = True
installer.sanity_check(**options)
def _method_accepts_users(method) -> bool:
return _method_accepts(method, "users")
@@ -0,0 +1,54 @@
r"""Reading text out of the commands the installer shells out to.
Firmware and filesystem metadata reach the orchestrator as command output, and
neither is obliged to be UTF-8: an HP ProBook's NVRAM held a legacy BBS entry
whose device path began `BBS(HD,\x80\x7f\xff\x04`, efibootmgr printed those
bytes verbatim, and subprocess's strict text decoding turned a boot entry
nothing here reads into a failed install.
So capture() replaces what it cannot decode, and the boot-entry parsing that
reads its output stays tolerant on purpose: an entry's text is its label and its
device path together, and the junk lives in the path, so refusing one would abort
the install this exists to let finish. Nothing mangled reaches efibootmgr from
there either way — only four-digit ASCII boot numbers become arguments, and a
boot order is filtered through the entries that parsed — so a label that loses a
byte costs a stale entry left behind rather than a broken system.
An identifier is the other case entirely: require_text() refuses a UUID or a
device name that came through mangled, because that one is written into fstab and
the kernel cmdline, or handed to mount.
"""
from __future__ import annotations
import subprocess
REPLACEMENT = "\ufffd"
def capture(cmd: list[str], *, check: bool = False) -> subprocess.CompletedProcess:
"""Run cmd and return it with stdout/stderr decoded, bad bytes replaced."""
return subprocess.run(
cmd,
check=check,
capture_output=True,
text=True,
errors="replace",
)
def require_text(value: str, what: str) -> str:
"""Refuse a value the installed system depends on if bytes were replaced in it.
Validation reads these back from the same command that wrote them, so a
mangled UUID agrees with itself and ships a machine that cannot find its
root at boot. Stopping here says why while someone is still watching.
"""
if REPLACEMENT in value:
raise RuntimeError(f"{what} is not valid text: {value!r}")
return value
def capture_identifier(cmd: list[str], what: str) -> str:
"""Capture a single value the installed system will depend on."""
return require_text(capture(cmd, check=True).stdout.strip(), what)
@@ -11,6 +11,9 @@ from dataclasses import dataclass, field
from pathlib import Path
from typing import Any
from .keyboard import validate_input_selection
from .region import GLOBAL, resolve_region
@dataclass
class InstallContext:
@@ -27,6 +30,7 @@ class InstallContext:
arch_config_path: Path
omarchy_install: dict[str, Any]
defer_provisioning: bool = False
region: str = GLOBAL
target: Path = Path("/mnt")
omarchy_path: Path = Path("/usr/share/omarchy")
@@ -50,6 +54,20 @@ class InstallContext:
user_configuration = json.loads(config_path.read_text())
omarchy_install = user_configuration.get("omarchy_install") or _default_omarchy_install(user_configuration)
# Autoinstall configs may omit kernels, which makes archinstall default
# to stock linux. Apply the same hardware default as the configurator,
# while honoring an explicit selection (including storage-only configs).
if not user_configuration.get("kernels"):
kernel = (omarchy_install.get("storage") or {}).get("kernel") or _default_kernel()
user_configuration["kernels"] = [kernel]
validate_input_selection(omarchy_install.get("input_method"), omarchy_install.get("input_xkb_layout", ""))
# Resolved before any disk is touched, so an autoinstall naming a
# region this ISO lacks fails without wiping anything.
region = resolve_region(omarchy_install, user_configuration.get("timezone"))
omarchy_install["region"] = region
# Deferred provisioning: the whole system installs but user creation is deferred to
# first boot. Selected by the configurator (omarchy_install.defer_provisioning) or by
# an `defer-provisioning` marker file on an autoinstall drive, which also replaces the
@@ -114,6 +132,7 @@ class InstallContext:
arch_config_path=arch_config_path,
omarchy_install=omarchy_install,
defer_provisioning=defer_provisioning,
region=region,
state_dir=state_dir,
)
disk_config = user_configuration.get("disk_config", {})
@@ -175,6 +194,18 @@ def _inject_provisioning_encryption_password(arch_configuration: dict, user_cred
user_credentials["encryption_password"] = password
def _default_kernel(pci_devices: Path = Path("/sys/bus/pci/devices")) -> str:
for device in pci_devices.glob("*"):
try:
vendor = (device / "vendor").read_text().strip().lower()
device_id = (device / "device").read_text().strip().lower()
except OSError:
continue
if vendor == "0x106b" and device_id in {"0x1801", "0x1802"}:
return "linux-t2"
return "linux-omarchy"
def _default_omarchy_install(user_configuration: dict) -> dict[str, Any]:
disk_config = user_configuration.get("disk_config", {})
mode = "protected" if disk_config.get("config_type") == "pre_mounted_config" else "full_disk"
@@ -11,30 +11,36 @@ generated: nothing on an Omarchy system reads it.
from __future__ import annotations
import subprocess
from pathlib import Path
from .command import capture
def configure_keyboard(target: Path, language: str) -> bool:
def configure_keyboard(target: Path, language: str, input_method: str | None = None, xkb_layout: str = "") -> bool:
"""Write the console keymap into a mounted target without booting it.
Returns False for layouts localectl doesn't know, matching archinstall:
warn and keep the default. Every layout the configurator offers is known;
the guard is for the kb_layout an autoinstall drive can name freely.
"""
validate_input_selection(input_method, xkb_layout)
if not language.strip():
return True
if input_method is None:
return True
language = "us"
result = subprocess.run(
["localectl", "--no-pager", "list-keymaps"],
check=False,
text=True,
capture_output=True,
)
# Input engines are separate from real console keymaps. The shared picker
# uses US for Chinese/Korean and carries its preference in omarchy_install.
if input_method is None:
input_method = "mozc" if language == "jp106" else "none"
result = capture(["localectl", "--no-pager", "list-keymaps"])
if result.returncode != 0:
detail = result.stderr.strip() or "localectl returned an error"
raise RuntimeError(f"Unable to list keyboard layouts: {detail}")
if language.lower() not in {layout.lower() for layout in result.stdout.splitlines()}:
if input_method != "none":
raise ValueError(f"Unknown keyboard language: {language}")
return False
# systemd-firstboot --force rewrites vconsole.conf wholesale, dropping the
@@ -47,12 +53,7 @@ def configure_keyboard(target: Path, language: str) -> bool:
None,
)
result = subprocess.run(
["systemd-firstboot", f"--root={target}", f"--keymap={language}", "--force"],
check=False,
text=True,
capture_output=True,
)
result = capture(["systemd-firstboot", f"--root={target}", f"--keymap={language}", "--force"])
if result.returncode != 0:
detail = result.stderr.strip() or "systemd-firstboot returned an error"
raise RuntimeError(f"Unable to configure keyboard layout {language}: {detail}")
@@ -60,4 +61,15 @@ def configure_keyboard(target: Path, language: str) -> bool:
if font:
vconsole_path.write_text(vconsole_path.read_text() + font + "\n")
preference = target / "etc/omarchy/input-method"
preference.parent.mkdir(parents=True, exist_ok=True)
preference.write_text(f"INPUT_METHOD={input_method}\nXKB_LAYOUT={xkb_layout}\n")
return True
def validate_input_selection(input_method: str | None, xkb_layout: str) -> None:
if input_method is not None and input_method not in {"none", "mozc", "hangul", "pinyin", "chewing"}:
raise ValueError(f"Unknown input method: {input_method}")
if xkb_layout not in {"", "kr"}:
raise ValueError(f"Unknown input keyboard layout: {xkb_layout}")
@@ -33,8 +33,10 @@ from dataclasses import replace
from pathlib import Path
from . import archinstall_adapter as arch
from .command import capture, capture_identifier, require_text
from .context import InstallContext
from .keyboard import configure_keyboard
from .region import GLOBAL, region_keyrings, region_packages
from .ui import error, info
@@ -234,11 +236,7 @@ def arch_install_system(ctx: InstallContext) -> None:
if not pre_mounted:
installer.mount_ordered_layout()
installer.sanity_check(
offline=True,
skip_ntp=True,
skip_wkd=True,
)
arch.sanity_check(installer)
if not pre_mounted and arch.is_encrypted(config):
installer.generate_key_files()
@@ -268,7 +266,16 @@ def arch_install_system(ctx: InstallContext) -> None:
pacman_config=config.pacman_config,
)
if not configure_keyboard(installer.target, kb_layout):
# Headers are optional kernel dependencies. Install them before any
# DKMS package so generic installs have them too, and module builds
# use the target kernel instead of the live ISO's kernel.
installer.add_additional_packages([f"{kernel}-headers" for kernel in config.kernels])
if not configure_keyboard(
installer.target, kb_layout,
ctx.omarchy_install.get("input_method"),
ctx.omarchy_install.get("input_xkb_layout", ""),
):
error(f"Invalid keyboard language specified: {kb_layout}")
if config.mirror_config:
@@ -292,6 +299,11 @@ def arch_install_system(ctx: InstallContext) -> None:
info("› installing Omarchy runtime + omarchy-base.packages")
installer.add_additional_packages(_runtime_package_list(ctx))
if region_pkgs := region_packages(ctx.region):
info(f"› installing {ctx.region} region packages: {', '.join(region_pkgs)}")
installer.add_additional_packages(region_pkgs)
_write_region_marker(ctx)
# Tailscale is bundled in the offline mirror but only installed
# when an autoinstall drive staged an auth key; must happen here,
# while the mirror is still bind-mounted, not in the phase that
@@ -722,6 +734,17 @@ def _unmask_mkinitcpio_pacman_hooks(
info(f"warning: failed to restore pacman hook mask for {name}: {exc}")
def _write_region_marker(ctx: InstallContext) -> None:
"""Tell the runtime's pacman finalizer which profile to apply. Global
installs write nothing, so they stay identical to a region-less install."""
if ctx.region == GLOBAL:
return
marker = ctx.target / "etc/omarchy/region"
marker.parent.mkdir(parents=True, exist_ok=True)
marker.write_text(ctx.region + "\n")
marker.chmod(0o644)
def _runtime_package_list(ctx: InstallContext) -> list[str]:
"""Selected Omarchy runtime package + every package in the ISO-bundled
base package list that isn't already installed early."""
@@ -765,33 +788,35 @@ def _storage_intent(ctx: InstallContext) -> dict:
def verify_protected_mounts(ctx: InstallContext) -> None:
target = ctx.target
if not _is_mountpoint(target):
raise RuntimeError(f"protected mode: {target} is not a mountpoint")
boot = _boot_intent(ctx)
storage = _storage_intent(ctx)
# Devices before the mountpoint: when the configurator hands over paths for
# partitions that do not exist, "root_device /dev/nvme0n1p12 does not
# exist" is diagnosable from the log alone, where "/mnt is not a
# mountpoint" sends everyone looking at the mount instead of the paths.
for key in ("esp_device", "root_device"):
if not storage.get(key):
device = storage.get(key)
if not device:
raise RuntimeError(f"protected mode: omarchy_install.storage.{key} missing")
if not Path(device).exists():
raise RuntimeError(f"protected mode: {key} {device} does not exist")
if not _is_mountpoint(target):
raise RuntimeError(f"protected mode: {target} is not a mountpoint")
esp_mp = target / boot["esp_mount"].lstrip("/")
if not _is_mountpoint(esp_mp):
esp_dev = storage["esp_device"]
if not Path(esp_dev).exists():
raise RuntimeError(f"protected mode: ESP device {esp_dev} does not exist")
info(f"› remounting protected ESP {esp_dev} at {esp_mp}")
esp_mp.mkdir(parents=True, exist_ok=True)
subprocess.run(["mount", esp_dev, str(esp_mp)], check=True)
info(f"› protected target verified: kernel={storage.get('kernel', 'linux')} esp={boot['esp_mount']}")
info(f"› protected target verified: kernel={storage.get('kernel', 'linux-omarchy')} esp={boot['esp_mount']}")
def _is_mountpoint(path: Path) -> bool:
res = subprocess.run(
["findmnt", "-rn", str(path)],
capture_output=True,
text=True,
)
res = capture(["findmnt", "-rn", str(path)])
return res.returncode == 0 and bool(res.stdout.strip())
@@ -805,11 +830,9 @@ def _btrfs_root_device(ctx: InstallContext) -> str:
def _blkid_uuid(device: str) -> str:
res = subprocess.run(
["blkid", "-s", "UUID", "-o", "value", device],
capture_output=True, text=True, check=True,
uuid = capture_identifier(
["blkid", "-s", "UUID", "-o", "value", device], f"the UUID of {device}"
)
uuid = res.stdout.strip()
if not uuid:
raise RuntimeError(f"blkid returned no UUID for {device}")
return uuid
@@ -822,11 +845,9 @@ def _esp_device(ctx: InstallContext) -> str:
boot = _boot_intent(ctx)
esp_mp = ctx.target / boot["esp_mount"].lstrip("/")
res = subprocess.run(
["findmnt", "-n", "-o", "SOURCE", str(esp_mp)],
capture_output=True, text=True, check=True,
dev = capture_identifier(
["findmnt", "-n", "-o", "SOURCE", str(esp_mp)], f"the ESP device at {esp_mp}"
)
dev = res.stdout.strip()
if not dev:
raise RuntimeError(f"could not resolve ESP device at {esp_mp}")
return dev
@@ -898,10 +919,7 @@ _BOOT_ORDER_RE = re.compile(r"^BootOrder:\s*(.*)$")
def _read_efibootmgr() -> dict:
res = subprocess.run(
["efibootmgr"],
capture_output=True, text=True, check=True,
)
res = capture(["efibootmgr"], check=True)
entries: dict[str, str] = {}
order: list[str] = []
for line in res.stdout.splitlines():
@@ -920,16 +938,14 @@ def _find_label_entries(entries: dict[str, str], needle: str) -> list[str]:
def _split_partition_device(part_dev: str) -> tuple[str, int]:
parent = subprocess.run(
["lsblk", "-ndo", "PKNAME", part_dev],
capture_output=True, text=True, check=True,
).stdout.strip()
parent = capture_identifier(
["lsblk", "-ndo", "PKNAME", part_dev], f"the parent disk of {part_dev}"
)
if not parent:
raise RuntimeError(f"could not find parent disk for {part_dev}")
part_num = subprocess.run(
["lsblk", "-ndo", "PARTN", part_dev],
capture_output=True, text=True, check=True,
).stdout.strip()
part_num = capture_identifier(
["lsblk", "-ndo", "PARTN", part_dev], f"the partition number of {part_dev}"
)
if not part_num:
raise RuntimeError(f"could not find partition number for {part_dev}")
return f"/dev/{parent}", int(part_num)
@@ -988,7 +1004,7 @@ def _debug_run(ctx: InstallContext, cmd: list[str]) -> None:
if not _install_debug_enabled():
return
_debug_log(ctx, "+ " + " ".join(cmd))
proc = subprocess.run(cmd, check=False, text=True, capture_output=True)
proc = capture(cmd)
if proc.stdout:
with ctx.log_path.open("a", encoding="utf-8") as log:
for line in proc.stdout.splitlines():
@@ -1136,6 +1152,14 @@ def _run_target_setup_command(ctx: InstallContext, cmd: list[str], *, user: str
def run_system_finalizer(ctx: InstallContext) -> None:
# The region's keyring packages are installed by now, but the build
# container's GPG state is not inherited. Initialize the target's trust
# database with only this region's keys before the finalizer enables its
# online repositories; global installs never trust them.
if keyrings := region_keyrings(ctx.region):
_run_target_setup_command(ctx, ["pacman-key", "--init"])
_run_target_setup_command(ctx, ["pacman-key", "--populate", "archlinux", *keyrings])
if ctx.defer_provisioning:
cmd = ["/usr/bin/omarchy-apply-system", "--defer-provisioning", "--first-install"]
else:
@@ -1650,6 +1674,7 @@ def _tailscale_authkey(path: Path) -> str:
def validate_boot(ctx: InstallContext) -> None:
_assert_boot_hooks_restored(ctx)
_validate_kernel_headers(ctx)
boot = _boot_intent(ctx)
storage = _storage_intent(ctx)
@@ -1672,7 +1697,7 @@ def validate_boot(ctx: InstallContext) -> None:
default_limine = ctx.target / "etc" / "default" / "limine"
config_text = _limine_combined_config_text(ctx, default_limine.read_text())
uki_prefix = _limine_setting(config_text, "CUSTOM_UKI_NAME", "omarchy") or "omarchy"
kernel = storage.get("kernel") or (ctx.user_configuration.get("kernels") or ["linux"])[0]
kernel = storage.get("kernel") or (ctx.user_configuration.get("kernels") or ["linux-omarchy"])[0]
if arch.has_uefi():
limine_binary = esp_mount / boot.get("esp_path", "/EFI/limine").lstrip("/") / boot.get("efi_binary", "limine_x64.efi")
@@ -1748,6 +1773,19 @@ def _assert_boot_hooks_restored(ctx: InstallContext) -> None:
raise RuntimeError(f"{path} is missing — future kernel updates would ship no UKI")
def _validate_kernel_headers(ctx: InstallContext) -> None:
kernels = sorted((ctx.target / "usr/lib/modules").glob("*/pkgbase"))
if not kernels:
raise RuntimeError("no installed kernel found in target")
for pkgbase in kernels:
release = pkgbase.parent.name
header_release = pkgbase.parent / "build/include/config/kernel.release"
if not header_release.is_file():
raise RuntimeError(f"{pkgbase.read_text().strip()} ({release}) has no kernel headers")
if header_release.read_text().strip() != release:
raise RuntimeError(f"{pkgbase.read_text().strip()} headers do not match kernel {release}")
# Every kernel package leaves its pkgbase next to its modules, which is also
# the name limine-mkinitcpio-hook builds the UKI under.
def _installed_kernels(ctx: InstallContext) -> list[str]:
@@ -1799,7 +1837,10 @@ def create_factory_snapshot(ctx: InstallContext) -> None:
info("› target root is not the @ subvolume; skipping factory snapshot")
return
device = (_findmnt_value(ctx.target, "SOURCE") or "").split("[")[0]
device = require_text(
(_findmnt_value(ctx.target, "SOURCE") or "").split("[")[0],
f"the btrfs device backing {ctx.target}",
)
if not device:
raise RuntimeError(f"could not determine the btrfs device backing {ctx.target}")
@@ -1856,10 +1897,7 @@ def _scrub_factory_snapshot(factory: Path) -> None:
def _findmnt_value(path: Path, column: str) -> str | None:
res = subprocess.run(
["findmnt", "-no", column, str(path)],
capture_output=True, text=True,
)
res = capture(["findmnt", "-no", column, str(path)])
value = res.stdout.strip()
return value if res.returncode == 0 and value else None
@@ -0,0 +1,68 @@
"""Region selection: which of the runtime's region profiles a target gets.
The builder copies every profile from the bundled runtime's default/regions/
into REGIONS_DIR, and their packages into the offline mirror. Nobody picks a
region by hand: the timezone the user already chose selects it, and an
autoinstall config may name one explicitly in omarchy_install.region. Run as
`python -m orchestrator.region <timezone>` to print the region the installer
would use, which is how the configurator fills its summary.
"""
from __future__ import annotations
import re
import sys
from pathlib import Path
REGIONS_DIR = Path("/usr/share/omarchy-iso/regions")
GLOBAL = "global"
def _entries(path: Path) -> list[str]:
if not path.is_file():
return []
lines = (line.strip() for line in path.read_text().splitlines())
return [line for line in lines if line and not line.startswith("#")]
def region_for_timezone(timezone: str | None, regions_dir: Path | None = None) -> str:
regions_dir = regions_dir or REGIONS_DIR
if timezone and regions_dir.is_dir():
for profile in sorted(regions_dir.iterdir()):
if timezone in _entries(profile / "timezones"):
return profile.name
return GLOBAL
def resolve_region(omarchy_install: dict, timezone: str | None, regions_dir: Path | None = None) -> str:
regions_dir = regions_dir or REGIONS_DIR
region = omarchy_install.get("region")
if region is None or region == "":
return region_for_timezone(timezone, regions_dir)
# Profiles are named by ISO 3166-1 alpha-2 code; checking the shape first
# keeps a path like ".." from passing the directory test.
if not isinstance(region, str) or (
region != GLOBAL and not (re.fullmatch(r"[a-z]{2}", region) and (regions_dir / region).is_dir())
):
raise RuntimeError(f"Unsupported region: {region!r}")
return region
def region_packages(region: str, regions_dir: Path | None = None) -> list[str]:
if region == GLOBAL:
return []
return _entries((regions_dir or REGIONS_DIR) / region / "packages")
def region_keyrings(region: str, regions_dir: Path | None = None) -> list[str]:
"""Pacman keyrings the profile ships, named the Arch way: <name>-keyring
installs /usr/share/pacman/keyrings/<name>.gpg."""
return [
package.removesuffix("-keyring")
for package in region_packages(region, regions_dir)
if package.endswith("-keyring")
]
if __name__ == "__main__":
print(region_for_timezone(sys.argv[1] if len(sys.argv) > 1 else None))
+4 -4
View File
@@ -13,6 +13,10 @@ ParallelDownloads = 5
SigLevel = Required DatabaseOptional
LocalFileSigLevel = Optional
[omarchy]
SigLevel = Optional TrustAll
Server = https://pkgs.omarchy.org/edge/$arch
[core]
Server = https://mirror.omarchy.org/$repo/os/$arch
Include = /etc/pacman.d/mirrorlist
@@ -25,10 +29,6 @@ Include = /etc/pacman.d/mirrorlist
Server = https://mirror.omarchy.org/$repo/os/$arch
Include = /etc/pacman.d/mirrorlist
[omarchy]
SigLevel = Optional TrustAll
Server = https://pkgs.omarchy.org/edge/$arch
[arch-mact2]
Server = https://mirror.funami.tech/arch-mact2/os/x86_64
Server = https://github.com/NoaHimesaka1873/arch-mact2-mirror/releases/download/release
+4 -4
View File
@@ -13,6 +13,10 @@ ParallelDownloads = 5
SigLevel = Required DatabaseOptional
LocalFileSigLevel = Optional
[omarchy]
SigLevel = Optional TrustAll
Server = https://pkgs.omarchy.org/rc/$arch
[core]
Server = https://rc-mirror.omarchy.org/$repo/os/$arch
Include = /etc/pacman.d/mirrorlist
@@ -25,10 +29,6 @@ Include = /etc/pacman.d/mirrorlist
Server = https://rc-mirror.omarchy.org/$repo/os/$arch
Include = /etc/pacman.d/mirrorlist
[omarchy]
SigLevel = Optional TrustAll
Server = https://pkgs.omarchy.org/edge/$arch
[arch-mact2]
Server = https://mirror.funami.tech/arch-mact2/os/x86_64
Server = https://github.com/NoaHimesaka1873/arch-mact2-mirror/releases/download/release
+4 -4
View File
@@ -13,6 +13,10 @@ ParallelDownloads = 5
SigLevel = Required DatabaseOptional
LocalFileSigLevel = Optional
[omarchy]
SigLevel = Optional TrustAll
Server = https://pkgs.omarchy.org/stable/$arch
[core]
Server = https://stable-mirror.omarchy.org/$repo/os/$arch
Include = /etc/pacman.d/mirrorlist
@@ -25,10 +29,6 @@ Include = /etc/pacman.d/mirrorlist
Server = https://stable-mirror.omarchy.org/$repo/os/$arch
Include = /etc/pacman.d/mirrorlist
[omarchy]
SigLevel = Optional TrustAll
Server = https://pkgs.omarchy.org/stable/$arch
[arch-mact2]
Server = https://mirror.funami.tech/arch-mact2/os/x86_64
Server = https://github.com/NoaHimesaka1873/arch-mact2-mirror/releases/download/release
+1
View File
@@ -39,6 +39,7 @@ file_permissions=(
["/usr/local/bin/omarchy-cidata-load"]="0:0:755"
["/usr/local/bin/omarchy-iso-cleanup-disk"]="0:0:755"
["/usr/local/bin/omarchy-install-dashboard"]="0:0:755"
["/usr/local/bin/omarchy-install-diagnose-media"]="0:0:755"
["/usr/local/bin/omarchy-iso-install"]="0:0:755"
["/usr/local/bin/omarchy-upload-log"]="0:0:755"
["/var/cache/omarchy/mirror/offline/"]="0:0:775"
-187
View File
@@ -1,187 +0,0 @@
# Autoinstall Plan
## Goal
Let the standard Omarchy ISO install itself with no keyboard present, driven by config files handed to the VM on a second drive. This makes Omarchy usable as a Packer/Proxmox base image for disposable dev environments: create VM, boot, walk away, SSH in.
## Product Requirements
- No ISO rebuild. The shipped ISO autoinstalls when config is present and runs the configurator when it is not.
- No new menu entry, no new boot parameter, no separate ISO flavor.
- Config format is exactly what the configurator already writes — no second schema to maintain.
- The installed machine is reachable over SSH with a key supplied at install time.
- Interactive installs behave identically to today.
---
## Chosen Architecture
### Trigger: config presence, not a mode flag
The installer looks for a drive labeled `cidata` at startup. If it is there and carries the configurator's output files, those files are copied into `/root` and `./configurator` is skipped — the rest of the install runs the ordinary path against ordinary inputs. If it is not there, nothing changes.
This is Ryan Hughes' suggestion from PR #72 and it is what keeps the diff small: the install pipeline can be rewritten freely as long as it keeps reading its five files out of `/root`, and autoinstall follows along for free.
`cidata` is the cloud-init `NoCloud` label, so Proxmox, libvirt, and Packer all already know how to attach one.
### What the ISO already does for us
One thing that would otherwise need building is already true on a stock install: `NetworkManager.service` is enabled and active with DHCP by default, so autoinstall needs no `systemd-networkd` unit — one would contend with NetworkManager.
Remote access needs three things, all verified against a real install rather than inferred:
- `authorized_keys` for the user.
- `systemctl enable sshd.service`. Omarchy ships `openssh` but leaves the service disabled.
- `ufw allow ssh`. `install/config/firewall.sh` opens LocalSend (53317) and docker DNS and nothing else, and ufw runs default-deny incoming.
Still no loosening of `PasswordAuthentication` — key auth only.
Do not take `manifests/fresh-4-semantic.json` as the authority on any of this. It claims `sshd.service: enabled` and carries an `allow tcp 22` ufw rule; a real install of this ISO has neither. It is a snapshot of one machine's state, not a contract about stock behavior, and trusting it cost two test cycles.
### Non-interactivity belongs to the dashboard
`omarchy-install-dashboard` owns every prompt that survives to the end of an install: the reboot confirm and, on failure, the action menu. Both are `gum` calls reading from the TTY, and both hang forever on a headless VM. Autoinstall therefore sets one env var that the dashboard reads, rather than patching prompts out of scripts after the fact — which is what PR #72 did to `finished.sh`, and what everyone correctly disliked.
---
## Non-Goals
- No config generator, validator, or schema doc. The configurator is the source of truth for the format; users copy its output.
- No secret management. Whoever builds the `cidata` drive owns the password hash and the public key on it.
- No PXE, no network-fetched config, no cloud-init compatibility beyond reusing the drive label.
- No changes to disk selection, encryption, or any install phase behavior.
---
## Repo Implementation Plan
## 1) Detect the cidata drive and skip the configurator
### Files
- `configs/airootfs/usr/local/bin/omarchy-cidata-load`
- `configs/airootfs/root/.automated_script.sh`
- `configs/profiledef.sh`
### Changes
- Add `omarchy-cidata-load` alongside the other install commands in `/usr/local/bin` (with the matching `file_permissions` entry in `profiledef.sh`). It exits 0 when an autoinstall drive was loaded:
- `udevadm settle` first: the by-label symlinks come from udev, and probing before enumeration finishes would silently drop a headless install into the wizard.
- Look for `/dev/disk/by-label/cidata` then `/dev/disk/by-label/CIDATA`; exit non-zero if neither exists.
- Mount read-only on a temp mountpoint; exit non-zero if the mount fails.
- Require both `user_configuration.json` and `user_credentials.json` on the drive — this is the same pair `InstallContext.from_env` treats as mandatory. Missing either means the drive is not an autoinstall drive; unmount and exit non-zero.
- Copy the required pair plus, when present, `user_full_name.txt`, `user_email_address.txt`, `user_encrypt_installation.txt`, and `authorized_keys` into `/root` with a single `cp`, and exit non-zero if the copy fails — a "loaded" drive with missing inputs would fail the install later with a worse error.
- Unmount before exiting. Leave nothing mounted for the install to trip over.
- The script takes an optional path prefix so the unit tests can point it at a sandbox; production callers pass nothing.
- Replace the bare `./configurator` call in `.automated_script.sh` with: run `omarchy-cidata-load`; on success export `OMARCHY_UI_INTERACTIVE=no`, on failure run `./configurator`.
- Pass `--authorized-keys-file /root/authorized_keys` to `omarchy-iso-install` in the dashboard invocation, alongside the existing five flags. Always pass it; the orchestrator no-ops when the file is absent, which keeps the interactive path on the identical command line.
### Notes
- The three text files are optional by construction: `_read_text` in `context.py` returns `""` for a missing path and `encrypt` falls back to false. Do not add stricter checks here than the orchestrator itself applies.
- `omarchy-cidata-load` must not run before `warm_offline_mirror` is backgrounded — the mirror warm should keep its head start.
### Acceptance criteria
- ISO with no `cidata` drive attached: configurator runs, byte-identical UX to today.
- ISO with a `cidata` drive carrying the five files: configurator never appears; install starts within seconds of boot.
- ISO with a drive labeled `cidata` that is empty or carries only one of the two required files: falls back to the configurator rather than failing the boot.
- Nothing remains mounted from `/dev/disk/by-label/cidata` once the install begins.
---
## 2) Non-interactive dashboard
### File
- `configs/airootfs/usr/local/bin/omarchy-install-dashboard`
### Changes
- Read `OMARCHY_UI_INTERACTIVE` once near the other env reads at the top.
- In `reboot_prompt()` (`:474`): when non-interactive, return 0 immediately instead of calling `gum confirm`. The existing `OMARCHY_UI_AUTO_REBOOT=no` check at `:737` stays in front of the actual `reboot`, so a debug run can set both and stop on the finish screen without a keyboard.
- In `failure_menu()` (`:597`): treat non-interactive as equivalent to the existing `OMARCHY_UI_FAILURE_ACTION=exit` early return (`:600`), so a failed autoinstall exits with the installer's status instead of blocking on `gum choose` forever. The failure screen and log tail still render, and the serial console still captures them.
### Why here and not in the caller
The dashboard is the only process that owns the visible UI. Suppressing its prompts anywhere else means editing scripts it invokes — the `finished.sh` `sed` from PR #72 — which breaks the moment those scripts move.
### Acceptance criteria
- Autoinstall run reaches the finish screen and reboots with no input.
- Autoinstall run whose install fails renders the failure screen, exits non-zero, and does not hang.
- Interactive run still prompts for reboot and still offers the failure menu.
- `OMARCHY_UI_INTERACTIVE=no` plus `OMARCHY_UI_AUTO_REBOOT=no` stops at the finish screen without prompting.
---
## 3) SSH keys as an orchestrator phase
### Files
- `configs/airootfs/usr/local/bin/omarchy-iso-install`
- `configs/airootfs/usr/share/omarchy-iso/orchestrator/context.py`
- `configs/airootfs/usr/share/omarchy-iso/orchestrator/main.py`
- `configs/airootfs/usr/share/omarchy-iso/orchestrator/phases_impl.py`
### Changes
- `omarchy-iso-install`: add `--authorized-keys-file` to the arg loop, exporting `OMARCHY_INSTALL_AUTHORIZED_KEYS_FILE`. Same shape as the five existing flags, ahead of the `unknown arg` catch-all (`:19`).
- `context.py`: add an `authorized_keys_path: Path | None` field populated from that variable in `from_env`, `None` when unset or when the file does not exist.
- `phases_impl.py`: add `configure_ssh_access(ctx)`:
- Return immediately when `ctx.authorized_keys_path` is `None`.
- Read the file as sshd's own authorized_keys format, dropping blank lines and # comments; write the keys one per line to `<target>/home/<user>/.ssh/authorized_keys`.
- `.ssh` at `0700`, `authorized_keys` at `0600`, both owned by the user via `arch-chroot <target> chown -R <user>:<user>`. Do not hardcode uid 1000 as PR #72 did — ask the target for it.
- `arch-chroot <target> systemctl enable sshd.service`. Works cleanly in the chroot.
- `arch-chroot <target> ufw allow ssh`. This one exits **non-zero** in a chroot (`ERROR: problem running`) because ufw cannot reach netfilter, but it writes the rule to `/etc/ufw/user.rules` before failing, and that file is what `ufw.service` loads on first boot. So ignore the exit status and assert the rule landed in the file instead. No ufw-presence check: ufw is part of Omarchy's default package set, and the rule assertion already fails loudly if it is somehow missing.
- An `authorized_keys` with no usable keys must fail the phase loudly. A machine that installs "successfully" and is then unreachable is worse than one that stops with an error on screen.
- `main.py`: register `("Configuring SSH access", configure_ssh_access)` in `build_phases` after `configure_login` (`:52`) and before `validate_boot`.
### Model to follow
`configure_login` (`phases_impl.py:1251`) — direct writes against `ctx.target`, `arch-chroot` reserved for ownership and `systemctl`. Match its structure.
### Acceptance criteria
- Install with `authorized_keys`: `ssh <user>@<vm>` works with the corresponding private key on first boot, no password.
- Install without `authorized_keys`: phase runs, does nothing, install unaffected; `~/.ssh` is not created.
- `authorized_keys` is `0600` and owned by the install user, not root.
- Port 22 is open in ufw on the installed system. Test this by connecting, not by reading the phase log — the rule is written from a chroot that cannot verify it.
- Password SSH auth is left at the distro default — autoinstall does not enable it.
- Interactive installs are unaffected: the flag is passed but the file never exists.
---
## 4) Documentation
### File
- `README.md`
### Changes
- New "Autoinstall" section covering: what the `cidata` drive is, the file table, how to produce the drive, and a Proxmox `qm create` example with disk-first boot order so the empty disk falls through to the ISO on the first boot and boots the installed system afterward.
- Show `openssl passwd -6` for the credential hash and the `authorized_keys` format.
- State plainly that the config files are the configurator's own output — the documented way to get a starting `user_configuration.json` is to run one interactive install and copy what it wrote.
- Do not repeat PR #72's networking claims. NetworkManager comes enabled with DHCP on a stock install; sshd ships disabled, which is why the SSH phase exists.
---
## 5) Validation
### Unit tests
`./test/all` runs everything under `test/`: `cidata-load-test.sh` exercises `omarchy-cidata-load` against a sandbox with `mount`/`umount`/`udevadm` stubbed, and `test_configure_ssh_access.py` runs the orchestrator phase against a temp target with `subprocess.run` recorded and ufw's write-the-rule-then-fail chroot behavior simulated. The Python tests run through `unittest` discovery alongside the repo's existing `test_*.py` suites.
### Manual matrix
1. Build the ISO from this branch.
2. Interactive control run: boot with no `cidata` drive, install normally, confirm nothing changed.
3. Autoinstall run on Proxmox: attach ISO + `cidata` drive, boot, no input; confirm the configurator never renders, the install completes, the machine reboots on its own, and SSH with the key works against the booted system.
4. Encrypted autoinstall: `user_encrypt_installation.txt` set true; confirm the LUKS prompt appears on boot (this is the one autoinstall case that still needs a human at first boot — document it).
5. Full Packer cycle: build, destroy, rebuild from the same `cidata` drive; confirm reproducibility.
### Negative tests
- Drive labeled `cidata` with no files → configurator runs.
- Drive with `user_configuration.json` only → configurator runs.
- An `authorized_keys` with no usable keys → install stops in the remote-access phase with a visible error, does not reboot into an unreachable machine.
- Install failure under autoinstall (e.g. a disk target that does not exist) → failure screen renders, process exits non-zero, no hang.
### Regression surface
The interactive path shares every line of this change except the `omarchy-cidata-load` branch, so run the standard acceptance harness (`./bin/omarchy-iso-test`) on the built ISO before proposing the PR.
---
## Relationship to PR #72
PR #72 targeted the pre-`quattro` tree and cannot be rebased: `use_omarchy_helpers`, `run_configurator`, `install_arch`, `install_omarchy`, and `chroot_bash` no longer exist. This plan reimplements the same feature against the current tree and drops three things that PR deliberately flagged as questionable:
- The `finished.sh` `sed` — replaced by section 2. The dashboard renders the reboot prompt now.
- The `systemd-networkd` DHCP unit — unnecessary; NetworkManager is already enabled and would contend with it.
- The `PasswordAuthentication yes` rewrite — unnecessary and a security downgrade.
`load_cidata` is the one piece that carries over close to intact. PR #72's `ufw allow ssh` also carries over: it was dropped from the first draft of this plan on the reasoning that an enabled sshd is a reachable sshd, and a test install proved otherwise. That PR was right to include it.
+43 -31
View File
@@ -6,6 +6,17 @@ Support Omarchy installs on consumer laptops that ship with UEFI Secure Boot ena
This plan targets normal consumer hardware, especially Windows dual-boot machines. OEM-controlled hardware with Omarchy-owned firmware keys is a separate path.
## Current State (August 2026)
Where the repo stands today, and what that changes about this plan:
- The ISO builds with `bootmodes=('bios.syslinux' 'uefi.grub')` (`configs/profiledef.sh`): an unsigned GRUB as `BOOTX64.EFI` loading an unsigned kernel and initramfs. Firmware that trusts only the Microsoft UEFI CA rejects the ISO at the first stage, so Secure Boot must be disabled today.
- The vendored mkarchiso already supports a `uefi.systemd-boot` bootmode (mutually exclusive with `uefi.grub`), so the live-ISO half of `shim -> systemd-boot -> UKI` needs no archiso surgery — a bootmode switch plus signing.
- The installed system already boots a UKI: the orchestrator's `finalize_limine_boot` phase has mkinitcpio build the UKI onto the ESP, and `validate_boot` asserts it exists. "Build an installed UKI" is no longer new work; the new work is signing that UKI and choosing a second stage that enforces signatures.
- Kernel updates already regenerate the UKI through the target's mkinitcpio pacman hooks. The update flow below reduces to adding a signing step and fallback retention to machinery that exists.
The critical path is external: the Microsoft-signed shim. That requires an EV code-signing certificate for the Omarchy org, a shim built from a reviewed upstream release with Omarchy SBAT identity and NX compatibility, and a `shim-review` submission — historically weeks to months of calendar time, with standing obligations afterward (SBAT revocation response, resubmission when the embedded cert or shim version changes). Start it first; every phase below except release signing can proceed in parallel on dev test keys in QEMU.
## Core Architecture
Use a Microsoft-signed first-stage shim, then boot only signed Omarchy-controlled artifacts.
@@ -51,7 +62,7 @@ This preserves offline tamper resistance for `/boot` while avoiding any central
## Bootloader Decision
Signing Limine as an EFI binary is not sufficient if Limine can then boot unsigned kernels, initrds, or configs. For v1 Secure Boot support, use a boot path with a small, enforceable verification surface:
Installed systems already boot a UKI through Limine, so the boot *artifact* needs no change. But signing Limine as an EFI binary is not sufficient if Limine will then load unsigned payloads or take direction from an unsigned `limine.conf`. For v1 Secure Boot support, use a boot path with a small, enforceable verification surface:
```text
shim -> systemd-boot -> signed UKI
@@ -104,12 +115,13 @@ bin/omarchy-iso-make --secure-boot
Build behavior:
1. Add Microsoft-signed Omarchy shim artifacts to the ISO UEFI boot path.
2. Build the live environment boot payload as a UKI.
3. Sign the live UKI with the Omarchy release key in official builds.
4. Sign any second-stage EFI binary with the Omarchy release key.
5. Assert that every Secure Boot UEFI entry uses the signed shim path.
6. Assert that no unsigned kernel/initramfs path is offered in Secure Boot UEFI mode.
1. Switch the UEFI bootmode from `uefi.grub` to `uefi.systemd-boot` in `configs/profiledef.sh` (mkarchiso forbids running both). BIOS syslinux stays as-is; Secure Boot is UEFI-only.
2. Add Microsoft-signed Omarchy shim artifacts to the ISO UEFI boot path.
3. Build the live environment boot payload as a UKI.
4. Sign the live UKI with the Omarchy release key in official builds.
5. Sign any second-stage EFI binary with the Omarchy release key.
6. Assert that every Secure Boot UEFI entry uses the signed shim path.
7. Assert that no unsigned kernel/initramfs path is offered in Secure Boot UEFI mode.
Local developer builds should support a dev-signing mode for QEMU validation:
@@ -124,7 +136,7 @@ Dev mode creates local test keys and is only expected to boot in QEMU firmware e
When the live installer detects Secure Boot enabled:
1. Show a Secure Boot explanation before disk mutation.
2. If Windows is detected, warn the user to suspend BitLocker and have the recovery key available.
2. If Windows is detected, follow the shipped dual-boot BitLocker policy (decrypt, not suspend — see the configurator's existing checks) and warn the user to have the recovery key available.
3. Install Omarchy's shim to its own ESP directory, for example `EFI/Omarchy`.
4. Do not modify `EFI/Microsoft`.
5. Generate a machine-local MOK keypair under the installed encrypted root.
@@ -145,13 +157,11 @@ Firmware -> Omarchy shim -> MokManager -> user enrolls Omarchy machine key -> re
Secure Boot installs need deterministic UKI regeneration and signing after kernel or initramfs changes.
Add a target-system hook that:
The regeneration half already exists: the target's mkinitcpio pacman hooks rebuild the UKI on kernel or initramfs changes. Add the signing half — a hook ordered after the UKI build that:
1. Regenerates the initramfs.
2. Rebuilds the UKI.
3. Signs the UKI with the machine-local MOK private key.
4. Writes it atomically to the ESP.
5. Keeps at least one previously booted signed UKI as fallback.
1. Signs the freshly built UKI with the machine-local MOK private key.
2. Writes it atomically to the ESP.
3. Keeps at least one previously booted signed UKI as fallback.
Failure policy:
@@ -199,10 +209,9 @@ Do not store private keys in this directory.
Add Secure Boot detection and UX:
- Detect UEFI Secure Boot state through efivars and/or `mokutil --sb-state`.
- Detect Windows through ESP vendor paths and partition metadata.
- Warn about BitLocker recovery risk when Windows is present.
- Detect Windows through ESP vendor paths and partition metadata (the dual-boot path's `detect_windows_esp` and BitLocker checks already exist — extend, don't duplicate).
- Explain one-time MokManager enrollment.
- Write `secure_boot.sh` with simple shell state for `.automated_script.sh`.
- Write `secure_boot.sh` with simple shell state for the install orchestrator.
Example state:
@@ -214,17 +223,18 @@ SECURE_BOOT_UKI=true
SECURE_BOOT_MOK_COMMON_NAME="Omarchy Machine Owner Key"
```
### `configs/airootfs/root/.automated_script.sh`
### `configs/airootfs/usr/share/omarchy-iso/orchestrator/`
Add Secure Boot install support:
Add Secure Boot install support to the install phases:
- Source `secure_boot.sh` after configurator runs.
- Install the Secure Boot boot path when `SECURE_BOOT_INSTALL=true`.
- Generate machine-local MOK keypair in the installed encrypted root.
- Build and sign UKI.
- Read the `secure_boot.sh` state the configurator wrote.
- When `SECURE_BOOT_INSTALL=true`, install the shim boot path and the enforcing second stage instead of (or in front of) the plain Limine setup in `_configure_limine_boot`.
- Generate the machine-local MOK keypair on the installed encrypted root.
- Sign the UKI that `finalize_limine_boot` already builds.
- Schedule MOK enrollment with `mokutil --import`.
- Install kernel-update hooks for UKI rebuild/signing.
- Install the UKI signing hook alongside the existing mkinitcpio hooks.
- Preserve dual-boot firmware boot order unless explicitly promoted.
- Extend `validate_boot` to assert the UKI on the ESP carries a valid signature.
### Target System Files
@@ -275,7 +285,7 @@ On Windows dual-boot machines:
- Never change BitLocker protectors.
- Preserve existing firmware default boot order by default.
- Warn that adding a boot entry or changing ESP contents can trigger BitLocker recovery.
- Recommend suspending BitLocker from Windows before install and resuming it after both OSes boot.
- Follow the shipped dual-boot policy: tell users to turn BitLocker off in Windows and let the drive finish decrypting before installing (the configurator already enforces this; suspending alone proved insufficient — see #105).
If the user chooses to make Omarchy first in boot order, capture the old `BootOrder` and provide rollback guidance.
@@ -326,7 +336,7 @@ Minimum hardware tests:
1. Microsoft Secure Boot enabled laptop boots official Secure Boot ISO.
2. Windows dual-boot install preserves Windows boot.
3. BitLocker-suspended install avoids recovery prompt after resuming BitLocker.
3. BitLocker-decrypted install boots both OSes cleanly afterward.
4. BitLocker-active install warning is visible before any disk mutation.
5. Installed Omarchy boots only after MOK enrollment.
6. Secure Boot remains enabled after install.
@@ -338,11 +348,13 @@ Minimum hardware tests:
### Phase 1: Research And Decisions
- Kick off the EV certificate purchase and `shim-review` submission prep immediately — this is the calendar-bound item that gates Phase 4, and nothing else depends on it being done first.
- Confirm shim submission requirements and timeline.
- Confirm selected second-stage boot manager.
- Confirm UKI generation mechanism on Arch.
- Confirm selected second-stage boot manager (systemd-boot unless Limine's signature enforcement is proven).
- ~~Confirm UKI generation mechanism on Arch~~ — resolved: mkinitcpio already builds the installed UKI today.
- Confirm package availability for signing and MOK workflows.
- Decide local MOK key storage and update-hook policy.
- Decide the DKMS/out-of-tree module signing story (see Open Questions — this is a v1 blocker, not a nice-to-have).
### Phase 2: Dev Secure Boot In QEMU
@@ -387,9 +399,9 @@ Minimum hardware tests:
## Open Questions
- Whether v1 should use systemd-boot, GRUB, or a verified Limine configuration as the second stage.
- Whether Limine can enforce signature verification on the UKIs and config it loads; if not proven, Secure Boot installs use systemd-boot as the second stage while non-Secure-Boot installs keep Limine.
- Whether the local MOK private key should be encrypted with a user-supplied passphrase or stored root-only on encrypted root.
- How to support signed out-of-tree kernel modules, especially proprietary GPU drivers or DKMS packages.
- How snapshot booting should work when each bootable kernel must be a signed UKI.
- How to support signed out-of-tree kernel modules, especially proprietary GPU drivers or DKMS packages. **This must be answered for v1:** once Secure Boot is enforcing, unsigned modules will not load, and NVIDIA laptops are exactly the consumer hardware this plan targets. The module signing hook must sign with the machine-local MOK alongside the UKI.
- How snapshot booting (factory reset restores from Btrfs snapshots) should work when each bootable kernel must be a signed UKI.
- Whether official builds should always be Secure Boot-capable or ship a separate Secure Boot ISO flavor.
- What user-facing recovery path should exist if MOK enrollment is skipped or fails.
-158
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@@ -1,158 +0,0 @@
# Dual-Boot Installation Support for Omarchy ISO
## Context
Currently, the Omarchy installer wipes the entire selected disk (`"wipe": true`) and creates two partitions: a 2GB FAT32 ESP and a LUKS-encrypted Btrfs root. This means users must dedicate an entire disk to Omarchy. Adding dual-boot support lets users install alongside an existing OS (typically Windows) while keeping the Omarchy partition encrypted.
## Core Approach: `pre_mounted_config`
**Do our own partitioning, then hand off to archinstall for package installation only.**
archinstall's `manual_partitioning` mode has a long history of bugs with existing partitions and LUKS (archinstall issues #998, #2072, #2444). Instead, we:
1. Detect existing partitions and free space ourselves (with `sgdisk`/`parted`)
2. Create the LUKS partition and Btrfs subvolumes ourselves (with `cryptsetup`/`mkfs.btrfs`)
3. Mount everything at `/mnt/archinstall`
4. Tell archinstall to use `"config_type": "pre_mounted_config"` — it installs packages into our pre-mounted tree and does zero disk operations
5. Handle encryption config (crypttab, mkinitcpio hooks, bootloader cmdline) in post-install
The existing full-disk path stays completely unchanged. Dual-boot is a parallel code path.
## Implementation Guardrails
- **Run target changes in chroot** — all target-system commands (`mkinitcpio -P`, `limine-scan`, bootloader config updates) must run via `arch-chroot "$INSTALL_ROOT" ...`
- **Edit target files under `$INSTALL_ROOT` only** — write `mkinitcpio` hook config, `limine.conf`, `crypttab`, and related files in `$INSTALL_ROOT/etc` and `$INSTALL_ROOT/boot` (never in the live environment root)
- **Settle kernel partition state** — after creating the new partition, run `partprobe "$DISK"` and `udevadm settle` before `cryptsetup` to avoid device-node races
- **Deterministic fstab** — always generate `/etc/fstab` for dual-boot with overwrite semantics (e.g., `genfstab -U "$INSTALL_ROOT" > "$INSTALL_ROOT/etc/fstab"`) to avoid duplicate entries on retries
- **Hook compatibility** — when updating mkinitcpio hooks, add `encrypt` for busybox initramfs or `sd-encrypt` for systemd initramfs; never assume one universally
- **Safe rollback on failure** — on any dual-boot setup failure: unmount mounts, close LUKS mapping, and surface recovery guidance; optionally delete the just-created partition only if it was created in this run
## Scope Constraints
- **UEFI/GPT only** — dual-boot on MBR/BIOS is too fragile; those users get full-disk only
- **No auto-shrinking** — users must free up space from their existing OS first (e.g., Windows Disk Management). Too risky to shrink partitions automatically
- **Minimum 20GB free space** required for Omarchy
## User Flow
```
Select disk → Detect layout →
If disk has existing OS + ESP + ≥20GB free space:
"How would you like to install?"
→ "Install alongside Windows (use 85GB free space)"
→ "Erase entire disk"
If disk is empty or no free space:
Existing "Confirm overwriting" flow (unchanged)
```
## File Changes
### 1. `configs/airootfs/root/configurator`
**Add after disk selection (line 233), before config generation:**
- `detect_disk_layout()` — examines selected disk for:
- GPT partition table (required for dual-boot)
- Existing ESP partition (via `lsblk` PARTTYPE matching EFI GUID)
- Free unallocated space (via `sgdisk -F`/`-E` or `parted print free`)
- OS detection for installer UX warnings/prompts (not boot correctness): mount ESP read-only, check common vendor paths like `EFI/Microsoft`, `EFI/systemd`, `EFI/ubuntu`, `EFI/fedora`, `EFI/GRUB`
- `install_mode_form()` — shows gum choose with dual-boot vs erase options when conditions are met. Sets `DUAL_BOOT=true/false`.
**Generate different JSON when `DUAL_BOOT=true`:**
```json
{
"disk_config": {
"config_type": "pre_mounted_config",
"mountpoint": "/mnt/archinstall"
}
}
```
No `device_modifications`, no `disk_encryption`, no `btrfs_options` — we handle all of that ourselves. Everything else (hostname, kernels, packages, etc.) stays the same.
**Write `install_mode.sh`** alongside the other config files:
```bash
DUAL_BOOT=true
DISK=/dev/nvme0n1
ESP_PARTITION=/dev/nvme0n1p1
```
### 2. `configs/airootfs/root/.automated_script.sh`
**Source `install_mode.sh`** in `run_configurator()` if it exists.
**Add `setup_dual_boot_partitions()`** — runs before archinstall when `DUAL_BOOT=true`:
1. Select the largest contiguous free region and run `sgdisk` to create new partition there (type 8309 = Linux LUKS)
2. `partprobe "$DISK"` + `udevadm settle` so new partition node is present
3. `cryptsetup luksFormat` + `luksOpen` with user's password
4. `mkfs.btrfs` on `/dev/mapper/omarchy_root`
5. Create Btrfs subvolumes: `@`, `@home`, `@log`, `@pkg`
6. Mount subvolumes at `/mnt/archinstall` with `compress=zstd`
7. Mount existing ESP (untouched) at `/mnt/archinstall/boot`
8. Generate target `/etc/fstab` from mounted filesystems before post-install steps
**Add `configure_dual_boot_post_install()`** — runs after archinstall:
1. Write `/etc/crypttab` entry using LUKS UUID/PARTUUID (stable identifier), e.g. `omarchy_root UUID=<luks-uuid> none luks,discard`
2. Update mkinitcpio hooks before `filesystems`: `encrypt` (busybox) or `sd-encrypt` (systemd)
3. Regenerate initramfs with `arch-chroot "$INSTALL_ROOT" mkinitcpio -P`
4. Configure Limine kernel cmdline to match initramfs mode:
- busybox `encrypt`: `cryptdevice=UUID=<uuid>:omarchy_root root=/dev/mapper/omarchy_root`
- systemd `sd-encrypt`: `rd.luks.name=<uuid>=omarchy_root root=/dev/mapper/omarchy_root` (or equivalent `rd.luks.uuid=` form)
5. Run `arch-chroot "$INSTALL_ROOT" limine-scan` to detect other OS boot entries (Windows, etc.)
6. Preserve current firmware default boot order unless user explicitly chooses to make Limine first (capture and restore `BootOrder` if `efibootmgr` side effects reorder entries)
**Use `$INSTALL_ROOT` variable** — defaults to `/mnt` for full-disk, `/mnt/archinstall` for dual-boot. Post-install steps (offline mirror bind-mount, sudoers, omarchy copy) reference this instead of hardcoded `/mnt`.
### 3. `builder/build-iso.sh` + `builder/archinstall.packages`
Add `parted` to packages available in the live ISO (needed for free space detection).
## Bootloader Coexistence
Limine installs to `ESP/EFI/arch-limine/` and registers via `efibootmgr`. This sits alongside:
- Windows Boot Manager at `ESP/EFI/Microsoft/Boot/bootmgfw.efi`
- Any other bootloader in its own ESP subdirectory
`limine-scan` auto-detects other UEFI boot entries and adds them to `limine.conf`. Users can choose OS at boot.
**Boot order policy**: creating a new EFI entry must not silently change the current default boot target. Keep existing firmware boot order by default and only promote Limine when user opts in.
Implementation note: when registering Limine with `efibootmgr`, do not pass reorder flags by default; if firmware still changes order, explicitly restore prior `BootOrder` unless the user opted to promote Limine.
**ESP size note**: Windows typically creates a 100-260MB ESP. This is enough for Limine + kernel + initramfs, but Snapper boot snapshots (which copy kernels to ESP) will be limited or disabled.
**ESP free-space threshold**:
- If ESP has `<100MB` free at install time: show a strong warning (do not block install)
- If ESP has `<64MB` free: hide dual-boot option and require full-disk install (or user frees space first)
**BitLocker warning**: If Windows is detected, show a warning about having the BitLocker recovery key ready, since modifying ESP/UEFI entries can trigger recovery.
## Edge Cases
| Scenario | Behavior |
|----------|----------|
| Disk is empty | Full-disk install only (current behavior) |
| Existing OS but no free space | Full-disk install only, with note to free space first |
| Free space < 20GB | Dual-boot option not shown |
| MBR/BIOS disk | Dual-boot option not shown |
| ESP < 100MB free after mount | Warn user; continue allowed |
| ESP < 64MB free after mount | Dual-boot option not shown |
| Multiple free regions | Use largest contiguous region |
| Partitioning/setup failure mid-run | Cleanup mounts/LUKS and abort safely |
## Verification
1. **Regression**: Full-disk install in VM with empty disk — must work identically to today
2. **Dual-boot with Windows**: VM with Windows installed + 40GB free space — detect Windows, install alongside, both OSes boot
3. **Dual-boot with Linux**: VM with another Linux + free space — similar test
4. **No free space**: VM with fully partitioned disk — dual-boot option should not appear
5. **Encryption**: After dual-boot install, verify LUKS unlock prompt at boot and encrypted root
6. **Initramfs mode**: Validate both busybox and systemd hook paths boot correctly (`encrypt` vs `sd-encrypt`)
7. **Boot order**: Verify existing default UEFI entry remains unchanged unless user opted to promote Limine
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# OEM Install + Factory Reset Plan
## Goal
An install mode that installs the entire system but defers user account setup to
first boot. On first power-on the machine asks for the user, creates it, and
lands in the already-installed system — the classic OEM out-of-box experience.
The same machinery doubles as a "reset computer" option for wiping a machine
before selling it.
## Core idea: "OEM state" as a first-class system state
Define one canonical state — *fully installed, no user, setup pending* — and
make both paths produce it:
- **ISO OEM mode** ends the install in OEM state instead of creating the user.
- **Reset** returns a running machine to OEM state.
OEM state is: a fully installed system plus `/var/lib/omarchy/oem/` containing:
| File | Purpose |
|------|---------|
| `pending` | Flag that arms the first-boot setup service |
| `packages/node-v*.tar.gz` | Node tarball copied off the ISO's `/opt/packages` (~30MB) so `omarchy-finalize-user` works offline at first boot |
| `groups` | Deferred `usermod -aG` groups written by system setup (see below) |
| `luks-key` | Throwaway LUKS passphrase for encrypted installs, staged for auto-unlock until first-boot re-key |
## Why the seam is nearly clean already
Everything in the orchestrator through `finalize_limine_boot` is
user-independent except five touch points:
1. `installer.create_users` — useradd + password (root gets the same password).
2. Three `usermod -aG` calls inside `omarchy-setup-system`'s scripts
(`config/docker.sh`, `hardware/input-group.sh`, `hardware/apple/fix-t2.sh` —
docker/input/video). This is the *only* reason `omarchy-setup-system`
requires the user to exist (its getent check).
3. `run_chroot_finalizer` → `omarchy-finalize-user` as the user. Already
offline-safe: `/etc/skel` does the heavy seeding at useradd time,
`omarchy-mise-install` writes lazy wrappers, and the only external artifact
is the bundled Node tarball from `/opt/packages` (`install/user/mise.sh`).
4. `configure_login` — SDDM `state.conf` and the encrypted-install autologin.
5. Encryption — the user's password *is* the LUKS passphrase.
Nothing in hardware setup, Limine, hibernation, snapper, or package
installation cares who the user is.
## First boot: `omarchy-oem-setup.service`
Ships in the omarchy runtime package (so reset can arm it without the ISO):
- `ConditionPathExists=/var/lib/omarchy/oem/pending`
- `Before=display-manager.service`, conflicts `getty@tty1`, TUI on tty1.
- Runs the user form extracted from the configurator (Step 2: username,
password, full name, email). The configurator is bash+gum, so the form moves
into a runtime-shipped `omarchy-oem-setup` script that reuses the exact ISO
look (logo, Tokyo Night VT palette).
Then it does what the ISO would have done:
1. `useradd` with wheel + the groups from `/var/lib/omarchy/oem/groups`,
set user + root password.
2. `omarchy-finalize-user` as the user, with a setup context that points at the
stashed Node tarball (a sibling of the existing `iso-chroot` context).
3. The `configure_login` writes: SDDM `state.conf`, autologin for encrypted
installs.
4. If `luks-key` exists: `cryptsetup luksChangeKey` to the user's password,
delete the stash, remove the auto-unlock keyfile, rebuild initramfs.
5. Git identity from the form (the `OMARCHY_USER_NAME`/`OMARCHY_USER_EMAIL`
path in `install/user/git.sh`).
6. Remove `/var/lib/omarchy/oem/`, hand off to SDDM.
The user lands in their session exactly like a normal install.
## Encryption: keep it, Pop!_OS-style
Do not force OEM installs unencrypted. Install encrypted with a generated
throwaway passphrase, stage a keyfile so boot auto-unlocks during the OEM
window, and have first-boot setup re-key to the user's chosen password
(step 4 above). Limine and mkinitcpio don't care what the passphrase is. This
preserves encrypted-by-default without the machine builder ever knowing the end
user's password.
## ISO-side changes (this repo)
- **Configurator**: an OEM choice in the install-mode step that skips Step 2
(user), plus a cidata `oem` marker file that replaces the
`user_credentials.json` requirement — that's what actual OEM imaging rigs
will use via autoinstall.
- **Orchestrator**: `oem: true` in the `omarchy_install` JSON. Swaps the three
user phases (`create_users` inside `arch_install_system`,
`run_chroot_finalizer`, the user parts of `configure_login`) for a
"stage OEM state" phase that writes `/var/lib/omarchy/oem/` and enables
`omarchy-oem-setup.service` in the target. `InstallContext.username` needs an
OEM-safe fallback (creds are absent).
- **Factory snapshot**: at the end of *every* install (not just OEM), take a
read-only snapshot of `@` kept at the top level as `@factory` — outside
snapper's `.snapshots`, so cleanup timers and the Limine snapshot menu never
touch it. Zero bytes at creation; grows only with drift. This is what makes
reset a true factory reset.
## Runtime-side changes (omarchy repo)
- `omarchy-oem-setup` + `omarchy-oem-setup.service` (the OOBE above).
- `omarchy-system-factory-reset` (below).
- Relax `omarchy-setup-system`: when the install user doesn't exist yet, the
three `usermod -aG` scripts append to `/var/lib/omarchy/oem/groups` instead
of failing the getent check.
## Reset: `omarchy-system-factory-reset`
Behind a very explicit confirmation (typed, not y/n):
1. Point the default subvolume at a writable snapshot of `@factory`; stage a
next-boot wipe unit.
2. On reboot: recreate `@home` (subvolume delete/create — instant, no rm -rf),
clear `@log`, delete snapper snapshots, reset machine-id, SSH host keys,
NetworkManager connections, Tailscale state, SDDM state; run `fstrim`.
3. Re-arm OEM state: `pending` flag, `groups`, Node tarball (kept from install
or re-fetched into `@factory` at install time), and on encrypted machines a
throwaway LUKS re-key — the buyer never needs the seller's passphrase.
Next boot is the same OOBE as a fresh OEM install. User-installed packages and
/etc drift are gone, which is what "wipe and sell" actually promises.
Machines installed before `@factory` existed get a degraded reset — keep the
current system, wipe users/state only — with that caveat surfaced in the
confirmation.
### Honest limitations (document these)
- On unencrypted disks this is deletion, not forensic erasure. `fstrim` helps
on SSDs; offer `cryptsetup reencrypt` or `blkdiscard` + reinstall for the
paranoid.
- `luksChangeKey` changes the passphrase but not the volume key; freed extents
remain readable to someone with raw-device access and the new passphrase.
Same remedy as above.
- A reset machine boots with day-one packages until it updates — same as a
fresh install.
## Sequencing
The OOBE lives in the omarchy runtime package, but the ISO's OEM phase depends
on it existing. So:
1. Ship the runtime side first (`omarchy-oem-setup`, service, reset command,
`omarchy-setup-system` relaxation).
2. ISO OEM mode then asserts the service file exists in the target before
offering the mode.
3. Factory snapshot can land with either half; reset requires both.
## Validation
- VM: OEM install (encrypted + unencrypted) → reboot → OOBE → session; verify
LUKS passphrase is the user's, throwaway key gone, groups applied,
`omarchy-finalize-user` state marker present.
- VM: normal install → use system → `omarchy-system-factory-reset` → OOBE as new
user; verify no trace of prior user (home, NM connections, tailscale,
machine-id, host keys, snapper snapshots).
- Autoinstall: cidata drive with `oem` marker and no credentials → unattended
OEM install.
- Negative: OEM ISO built against a runtime package lacking the service fails
the install with a clear error, not a user-less boot loop.
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# Protected Partition Install Plan: Dual-Boot + Restore
## Goal
Implement one shared non-destructive install path that supports both:
- Dual-boot installs alongside an existing OS.
- OEM/restore installs from a permanent internal restore partition set.
Beyond install: every standalone Omarchy machine — whether OEM-provisioned or installed from the consumer ISO onto an empty disk — exposes a "factory reset" command that durably stages the next boot into the on-disk restore partition set. The installed-OS command leaves the machine as though it had just been prepared to boot from restore; the restore environment owns the destructive wipe/reinstall flow. Dual-boot installs do not get factory reset (no room for a restore partition set).
The current full-disk install path remains unchanged until the protected-partition path is proven. The protected path does its own partitioning, encryption, filesystems, mounts, and boot configuration, then hands a prepared mount tree to archinstall with `pre_mounted_config`.
## Core Architecture
Use a single installer engine with multiple partition policies.
```text
full_disk existing archinstall default_layout + wipe:true path
dual_boot protect existing OS partitions, reuse existing ESP, add Omarchy LUKS root
restore_install protect restore partition set, create/recreate installed ESP + Omarchy LUKS root
```
The key rule: protected modes must never pass the whole disk to archinstall with `wipe: true`.
## Why This Combines Both Features
Dual-boot and restore installs are the same technical problem:
1. Detect disk layout.
2. Identify protected partitions.
3. Create or format only explicitly writable Omarchy partitions.
4. Set up encrypted root manually.
5. Mount a complete install tree manually.
6. Run archinstall only as a package/base-system installer.
7. Configure encryption, fstab, initramfs, and bootloader after archinstall.
Only the partition policy differs.
## Scope Constraints
- UEFI/GPT only for `dual_boot` and `restore_install` v1.
- Existing BIOS/syslinux ISO behavior stays available for normal full-disk installs.
- No automatic shrinking of existing partitions.
- Dual-boot requires pre-existing free space.
- Restore install requires a detected Omarchy restore partition set.
- Installed Omarchy root is encrypted with LUKS.
- Restore partitions are not encrypted unless a later product requirement demands it.
- Restore payload partitions are normally left unmounted in the installed OS and mounted read-only by the restore environment. A separate restore state partition is the only restore-owned partition mounted read-write for reset triggers and recovery logs.
- Swap matches the current full-disk install: zram for memory pressure, plus a Btrfs swapfile in a dedicated `NODATACOW` `/swap` subvolume sized to RAM for hibernation. The subvolume, swapfile, `resume` mkinitcpio hook, and `resume=<dev> resume_offset=<offset>` Limine cmdline drop-in are created post-install by Omarchy's existing `omarchy-hibernation-setup`. Protected modes must not break this: the `encrypt`/`sd-encrypt` hook must precede `resume` in mkinitcpio so the swapfile is reachable after LUKS unlock, and Limine must honor `/etc/limine-entry-tool.d/*.conf` drop-ins so the post-install hook can append resume parameters. No swap partition.
## Partition Policies
### Full Disk
Current behavior:
```text
p1 installed ESP FAT32 2G
p2 installed root LUKS rest of disk
```
Implementation stays on archinstall `default_layout` with `wipe: true` for now.
Phase 7 replaces this with a layout that mirrors `restore_install`:
```text
p1 restore ESP FAT32 protected after install
p2 restore payload ext4 protected after install, read-only payload
p3 restore state ext4 protected after install, writable trigger/log state
p4 installed ESP FAT32 writable
p5 installed root LUKS writable
```
Rationale: factory reset requires an on-disk restore partition set. Making this the default for standalone installs gives every consumer machine the same self-recovery capability OEM-provisioned machines get. The legacy two-partition layout becomes opt-in (e.g. `--no-restore`) for users who explicitly want the disk space back.
### Dual Boot
Example target disk before install:
```text
p1 existing ESP FAT32 protected, reused as /efi
p2 Windows MSR MSR protected
p3 Windows NTFS protected
free space writable region
```
After install:
```text
p1 existing ESP FAT32 protected, mounted as /efi during install
p2 Windows MSR MSR protected
p3 Windows NTFS protected
p4 Omarchy root LUKS new encrypted Btrfs root
```
Policy:
- Protect all existing partitions.
- Reuse the existing ESP only for Omarchy boot files under `EFI/Omarchy`. Do not write top-level `vmlinuz-*`, `initramfs-*`, or vendor-looking paths on a shared ESP.
- Mount the shared ESP at `/efi`, keep `/boot` on the encrypted root, and install an Omarchy-owned kernel/initramfs sync hook that copies boot artifacts into `/efi/EFI/Omarchy` after kernel or initramfs updates.
- Refuse to install if the existing ESP is below 200 MB total or has less than 150 MB free. Warn below 300 MB total or below 200 MB free. These thresholds size for one Omarchy kernel + initramfs + Limine alongside a typical vendor loader; revisit if the Omarchy initramfs grows materially. Free space must be measured from the mounted ESP, not inferred from partition size.
- Create one new LUKS partition in the largest single contiguous free region of at least 40 GB. Refuse otherwise. Do not stitch across multiple non-contiguous regions.
- Preserve current firmware boot order unless the user explicitly opts to make Omarchy first.
- Abort with a clear error if any Windows partition is detected as BitLocker/FVE, including suspended BitLocker. Do not proceed past detection. Adding a new partition to a disk with a BitLocker-protected volume changes the firmware/boot environment enough that Windows can demand the recovery key on next boot — and many users do not have it. The error message must instruct the user to turn off BitLocker from inside Windows and wait for decryption to complete, then reboot into the Omarchy installer and retry. Do not offer an "I have my recovery key, continue anyway" override in v1; users who really want it can fully disable BitLocker themselves.
- Warn if non-BitLocker Windows is detected, since boot order changes can still surprise users.
### Restore Install
Recommended factory disk image layout:
```text
p1 restore ESP FAT32 protected, boots restore environment
p2 restore payload ext4 protected, contains live installer/offline payload
p3 restore state ext4 protected from formatting, writable reset trigger/log state
p4 installed ESP FAT32 writable, created/recreated by installer
p5 installed root LUKS writable, created/recreated by installer
```
Policy:
- Protect restore ESP, restore payload, and restore state partitions from delete/format operations. Only the restore state partition is mounted read-write, and only for trigger files and logs.
- On first boot, create installed ESP and installed root in remaining disk space.
- On reinstall, format the installed Omarchy partitions in place by default. Only delete and recreate them when their geometry no longer matches policy (e.g. the disk was resized). Format-in-place preserves PARTUUIDs, keeps NVRAM entries valid, and avoids touching the partition table.
- Set installed Omarchy first in boot order after successful install.
- Keep restore boot available as firmware fallback and as a boot menu entry.
- Require `copytoram=y` before mutating the internal disk from restore mode.
Use separate restore and installed ESPs for v1. A shared ESP saves space but makes restore easier to break during normal bootloader maintenance or reinstall.
## Restore Image Provisioning
Create a factory artifact separate from the normal consumer ISO:
```text
omarchy-restore.img.zst
```
Factory provisioning writes this image to the internal disk once:
```bash
zstd -dc omarchy-restore.img.zst | dd of=/dev/nvme0n1 bs=16M status=progress conv=fsync
```
The restore image should contain:
- A restore ESP with `EFI/BOOT/BOOTX64.EFI` fallback boot path.
- A restore payload partition labeled `OMARCHY_RESTORE`.
- A small restore state partition labeled `OMARCHY_STATE` for reset triggers and recovery logs.
- The archiso live environment payload, offline package mirror, configurator, and installer scripts.
- A boot entry that passes `omarchy.mode=restore copytoram=y`.
- Boot configuration that locates the restore payload by stable label/UUID, not by transient disk name.
- A signed manifest covering the archiso payload and offline mirror. The verification public key must be shipped outside the mutable restore payload, such as in the restore boot environment and installed reset tool package.
The factory flasher must verify the integrity of `omarchy-restore.img.zst` before writing. The on-disk restore environment must verify its signed payload manifest at boot before mutating the internal disk. A plain checksum stored on the same writable disk is not sufficient. Without a signed manifest, a tampered or corrupted restore image silently destroys the user's data the next time they invoke "factory reset."
On first restore boot:
1. Bind the candidate restore disk to the actual boot source (`/run/archiso/bootmnt`, kernel command line, or equivalent). Do not select an arbitrary disk just because it has matching labels; cloned restore images can have duplicate labels and UUIDs.
2. Move the backup GPT header to the real end of disk with `sgdisk -e` if the factory image was written to a larger disk. This relocates the header only — existing partitions are not grown. The newly-available space at the end of the disk is what installed ESP and installed root consume.
3. On first boot only, randomize the GPT disk GUID, partition GUIDs/PARTUUIDs, and filesystem UUIDs for restore-owned partitions before generating any NVRAM entries, fstab entries, or installer state. Labels may remain stable; UUIDs must not stay cloned across machines.
4. Detect and protect restore partitions by the newly-randomized PARTUUIDs.
5. Create installed ESP and installed root in remaining space.
6. Continue through the shared protected install path.
## Factory Reset
Goal: an installed Omarchy machine that has a restore partition set (any standalone install — `restore_install` today, `full_disk` after Phase 7) exposes a user-facing factory reset command that prepares the device to boot from internal restore without external media. After the next restore boot, the restore environment returns the device to a fresh-install state.
### User Flow
1. User runs `omarchy-factory-reset` from a terminal with sudo. (A GUI entry under Settings is deferred to a follow-up.)
2. The command prints which partitions will be destroyed (installed ESP, installed root) and which will be preserved (restore ESP, restore payload, restore state), by stable identifier, and asks the user to type a confirmation phrase. The typed-phrase gate is intentional friction; no `--yes` shortcut in v1.
3. On confirmation, the command writes a trigger file to the restore state partition, verifies or recreates the restore boot entry, and sets `BootNext` via `efibootmgr` to that restore entry.
4. The command exits only after the trigger file is fsynced, the restore state partition is unmounted, and `BootNext` is confirmed. At that point the installed-OS side is complete: the machine has been left as though it had just been prepared to boot from the restore partition.
5. The user reboots when ready. A later GUI may offer a "reboot now" action, but rebooting is a convenience after the staged state is durable, not part of the safety-critical mutation.
6. The restore environment detects the trigger on boot, verifies the signed restore payload manifest, writes a reset-in-progress marker to restore state, and temporarily sets persistent `BootOrder` to restore first before mutating installed partitions.
7. The restore environment runs the existing `restore_install` reinstall path — format installed ESP, LUKS-format installed root, run the standard install flow — non-interactively, then deletes the trigger and reset-in-progress marker.
8. On install completion, the restore environment restores persistent `BootOrder` to installed Omarchy first, restore second, sets `BootNext` to the installed Omarchy entry, and reboots.
9. The user lands in a fresh installed Omarchy. Normal persistent `BootOrder` (Omarchy first, restore second) has been restored.
User data on installed ESP and installed root is destroyed. Restore ESP, restore payload, and restore state are protected from destructive operations throughout. The restore payload is the source of truth for the rebuild; restore state contains only trigger and recovery state.
### Trigger Mechanism
Use a flag file on the restore state partition rather than NVRAM variables or the restore payload. NVRAM is fragile across firmware updates, and the restore payload should stay immutable/read-only so signed manifest verification remains meaningful.
- Path: `<restore-state-mount>/.omarchy-factory-reset`
- Contents: timestamp, hostname at trigger time, optional reason. Plain text, one `key=value` per line.
- The installed-OS command mounts the restore state partition by `OMARCHY_STATE` label, writes the flag, fsync, and unmounts. It may mount the restore payload read-only only long enough to verify the signed manifest before triggering.
- The restore environment checks for the flag at boot. If present, it runs the reset flow non-interactively and deletes the flag on success. If absent, restore boot behaves normally (manual install/repair menu).
- The flag must be deleted before reboot. Otherwise the machine resets itself in a loop.
### Boot Order
`efibootmgr --bootnext <restore-entry>` is one-shot — it takes effect on the next boot only, then NVRAM reverts to the existing `BootOrder`. This is what we want before the destructive phase: if the reset is interrupted before restore boot, the next normal boot still tries the installed Omarchy first.
After the restore environment accepts the trigger and before it wipes installed partitions, it must temporarily set persistent `BootOrder` to restore first, installed Omarchy second. This prevents a power loss during reinstall from leaving firmware stuck on a half-written installed ESP. On successful reinstall, the restore environment deletes the reset-in-progress marker, restores persistent `BootOrder` to installed Omarchy first and restore second, then sets `BootNext` to the installed Omarchy entry to land the user in their fresh OS.
If the installed OS cannot write and confirm `BootNext`, the staging command must remove any trigger it wrote and abort; a manual reinstall can still proceed through the firmware boot menu, but `omarchy-factory-reset` has not successfully prepared the machine. If the restore environment cannot set temporary restore-first `BootOrder` for an unattended reset, abort before destructive operations; manual reinstall can still proceed with an explicit warning.
### Safety
The factory reset command is a staging tool, not the destructive installer. It must:
- Require root and refuse to run otherwise.
- Refuse to run if no complete restore partition set is detected (restore ESP, restore payload, restore state), e.g. on a dual-boot machine or a `--no-restore` full-disk install.
- Refuse to run if the signed restore payload manifest check fails — a corrupt restore is not recoverable from inside the running OS, and triggering a reset would brick the machine.
- Verify the restore boot entry exists in NVRAM before triggering; if not, repopulate it from `EFI/BOOT/BOOTX64.EFI` fallback or abort with a message.
- Confirm `BootNext` points to the restore boot entry before exiting, so the system is actually prepared to boot restore.
- Print a final pre-confirmation list of partitions that will be destroyed, by stable identifier, so the user sees exactly what they are committing to.
The restore environment, when running due to the trigger flag, must still apply every guard from the Safety Model. The trigger is permission to run the reinstall flow, not permission to skip safety checks.
### File Changes for Factory Reset
- Ship `omarchy-factory-reset` on the installed system. Source location depends on Omarchy's package boundary — either as part of the Omarchy package on the offline mirror, or copied from the live ISO into the installed system during install. Pick one consistent approach during implementation.
- Restore state must be mountable read-write from the installed OS by an admin via `OMARCHY_STATE`. Restore payload should only be mounted read-only for manifest verification via `OMARCHY_RESTORE`.
## Safety Model
Protected installs must use stable identifiers, not only `/dev/nvme0n1pX` names.
Track:
```text
protected partition PARTUUIDs
restore state PARTUUID
writable partition PARTUUIDs
selected disk ID
install mode
install root
```
Every destructive operation must call a guard first:
```text
assert_writable_partition <partition>
assert_not_protected <partition>
```
Guarded operations include:
- `sgdisk --delete`
- `sgdisk --new`
- `wipefs`
- `mkfs.fat`
- `mkfs.btrfs`
- `cryptsetup luksFormat`
- partition table rewrites
In restore mode, also assert:
- `/proc/cmdline` contains `copytoram=y`.
- The restore payload is not mounted read-write from the target disk at mutation time.
- Restore ESP, restore payload, and restore state partitions are detected and marked protected from delete/format operations.
- The installed target partitions do not overlap protected partition ranges.
### Power Loss Recovery
A torn install must be recoverable on next boot rather than leaving the disk in a state that needs manual intervention.
- After partition table changes but before LUKS format: the new partition exists but holds no recognizable filesystem or LUKS header. On the next install boot, treat any writable partition without a valid header as discardable and re-run the format step.
- After LUKS format but before archinstall completes: the LUKS header exists but no working OS is installed. On the next boot from restore or ISO, offer to wipe and retry rather than attempting to resume.
- During archinstall: same as above. Resuming partway through a torn pacstrap is more brittle than restarting it.
In dual-boot mode, "wipe and retry" applies only to the writable Omarchy partition. Protected partitions must be re-verified by PARTUUID before any retry runs — power loss does not unlock protected ranges.
## Installer State Contract
The configurator writes `install_mode.sh` for `.automated_script.sh` to source.
Example dual-boot state:
```bash
INSTALL_MODE=dual_boot
INSTALL_ROOT=/mnt/archinstall
DISK=/dev/nvme0n1
BOOT_PARTITION=/dev/nvme0n1p1
ROOT_PARTITION=/dev/nvme0n1p4
PROTECTED_PARTUUIDS="1111-2222 3333-4444 5555-6666"
WRITABLE_PARTUUIDS="7777-8888"
PROMOTE_OMARCHY_BOOT=false
```
Example restore state:
```bash
INSTALL_MODE=restore_install
INSTALL_ROOT=/mnt/archinstall
DISK=/dev/nvme0n1
RESTORE_ESP_PARTITION=/dev/nvme0n1p1
RESTORE_PAYLOAD_PARTITION=/dev/nvme0n1p2
RESTORE_STATE_PARTITION=/dev/nvme0n1p3
INSTALLED_ESP_PARTITION=/dev/nvme0n1p4
ROOT_PARTITION=/dev/nvme0n1p5
PROTECTED_PARTUUIDS="1111-2222 3333-4444 5555-6666"
WRITABLE_PARTUUIDS="7777-8888 9999-aaaa"
PROMOTE_OMARCHY_BOOT=true
```
Keep this file simple shell, generated only by our configurator, and quote values safely.
Restore mode uses `INSTALLED_ESP_PARTITION` (distinct from `RESTORE_ESP_PARTITION`) because two ESPs are present. It also tracks `RESTORE_STATE_PARTITION` separately because that partition is writable state but protected from delete/format operations. Dual-boot mode keeps `BOOT_PARTITION` since only one ESP exists and is unambiguous.
## Archinstall Config
Protected modes generate this disk config and explicitly disable archinstall bootloader writes:
```json
{
"bootloader": null,
"disk_config": {
"config_type": "pre_mounted_config",
"mountpoint": "/mnt/archinstall"
}
}
```
Do not include `device_modifications`, `disk_encryption`, or `btrfs_options` in protected modes. The installer handles those before and after archinstall. If archinstall does not accept `"bootloader": null`, Phase 2a must identify the supported equivalent; protected mode must not proceed while archinstall can write boot files or NVRAM entries independently.
Full-disk mode keeps the existing generated `default_layout` config.
**Verify before Phase 2b.** Under `pre_mounted_config`, archinstall still tends to run `genfstab`, write a bootloader, and may write `/etc/crypttab`. The plan currently assumes archinstall acts only as a base-system installer in protected mode; this needs to be confirmed on a throwaway VM. Once confirmed, decide for each step (fstab, crypttab, bootloader, initramfs, kernel cmdline) whether the manual steps below run *instead of* archinstall's behavior, *after* archinstall has had its turn, or with archinstall's step disabled in config. The bootloader outcome is a hard gate: protected mode must have a confirmed way to prevent archinstall from writing Limine files or NVRAM entries. Do not start writing the manual pre/post steps until this is resolved — the unknown sits underneath every downstream step.
## File Changes
### `configs/airootfs/root/configurator`
Add shared detection and policy selection:
- `detect_disk_layout` finds GPT state, partitions, partition ranges, filesystem labels, ESPs, ESP free space, and free regions.
- `detect_existing_os` mounts ESP read-only and checks known vendor paths like `EFI/Microsoft`, `EFI/ubuntu`, `EFI/fedora`, `EFI/GRUB`, and `EFI/systemd`.
- `detect_bitlocker` checks every Windows/basic-data candidate partition on the selected disk for BitLocker. Use `blkid -o value -s TYPE`; BitLocker volumes report `BitLocker` rather than `ntfs`. As a backup, read 8 bytes at offset 3 of the partition — BitLocker volumes contain `-FVE-FS-` instead of `NTFS `. If any partition reports BitLocker, the dual-boot path aborts before any disk mutation with the message described in the dual-boot policy.
- `detect_restore_layout` finds `OMARCHY_RESTORE` and `OMARCHY_STATE` partitions and validates the restore ESP/payload/state set.
- `find_free_regions` finds unallocated GPT space using `sgdisk` or `parted`. Selection rule: pick the largest single contiguous region of at least 40 GB. Do not concatenate non-contiguous regions.
- `install_mode_form` chooses between full disk, dual boot, and restore install based on context.
User flow:
```text
Normal ISO boot:
select disk
detect layout
if existing OS/install is detected:
show detected installs and disk layout summary
always offer "Exclusive install (erase disk)" using the existing full-disk `wipe: true` path
if existing ESP + enough free space + guardrails pass:
also offer "Install alongside"
else:
show why "Install alongside" is unavailable (for example: no ESP, no suitable free space, BitLocker/FVE, ESP too small)
else:
keep current erase-disk flow
Restore boot:
detect restore disk automatically
show first-install or reinstall warning
protect restore ESP/payload/state partitions
create/recreate installed partitions only
```
Generated files:
- `user_credentials.json`
- `user_configuration.json`
- `user_full_name.txt`
- `user_email_address.txt`
- `install_mode.sh`
### `configs/airootfs/root/.automated_script.sh`
Add shared protected install functions:
- Source `install_mode.sh` after configurator runs.
- Set `INSTALL_ROOT=/mnt/archinstall` for all modes, including full-disk. A single mount root avoids subtle bugs in code touched by both paths and removes one branch from every post-install step.
- Before changing the mount root, grep the live ISO and post-install scripts for hardcoded `/mnt` references and produce an explicit list of call sites. Update each one consciously rather than via a global rename.
- Add `setup_protected_partitions` before archinstall.
- Add `configure_protected_post_install` after archinstall.
- Add cleanup trap for mounts, LUKS mappings, and temporary directories.
Protected pre-install steps:
1. Verify mode-specific guardrails.
2. Create writable partitions if needed.
3. Run `partprobe "$DISK"` and `udevadm settle`.
4. Format installed ESP when policy requires it.
5. `cryptsetup luksFormat` the root partition.
6. `cryptsetup open` root as `omarchy_root`.
7. `mkfs.btrfs /dev/mapper/omarchy_root`.
8. Create Btrfs subvolumes `@`, `@home`, `@log`, and `@pkg`.
9. Mount subvolumes at `$INSTALL_ROOT` with `compress=zstd`.
10. Mount ESP at `$INSTALL_ROOT/efi`; keep `$INSTALL_ROOT/boot` as a normal directory on encrypted root.
11. Generate deterministic fstab with overwrite semantics.
Protected post-install steps:
1. Configure root unlock for the initramfs hook actually in use. Root unlock is driven by initramfs + kernel cmdline, not by `/etc/crypttab`:
- `encrypt` hook: kernel cmdline `cryptdevice=UUID=<luks-uuid>:omarchy_root root=/dev/mapper/omarchy_root`. No crypttab entry needed for root.
- `sd-encrypt` hook: write `/etc/crypttab.initramfs` (not `/etc/crypttab`) with the LUKS UUID, and pass `rd.luks.name=<luks-uuid>=omarchy_root root=/dev/mapper/omarchy_root` on the kernel cmdline.
2. Update mkinitcpio hooks for the initramfs mode actually present.
3. Regenerate initramfs in chroot with `mkinitcpio -P`.
4. Install an Omarchy-owned kernel/initramfs sync hook that copies boot artifacts from `/boot` to `/efi/EFI/Omarchy` after kernel or initramfs updates.
5. Run the initial boot artifact sync before writing Limine config.
6. Configure Limine kernel cmdline for encrypted root per the hook chosen above, pointing at namespaced artifacts under `EFI/Omarchy`.
7. Install or update Limine on the selected installed ESP.
8. Run `limine-scan` in chroot when appropriate.
9. Apply mode-specific boot order policy.
10. Leave swapfile creation, `resume` hook, and `resume=` cmdline injection to Omarchy's existing `omarchy-hibernation-setup` post-install hook. Verify `/etc/limine-entry-tool.d/` drop-ins are honored by the Limine config layout written here so that hook works unchanged.
### `builder/archinstall.packages`
Ensure the live environment has the tools needed for protected installs:
- `parted`
- `gptfdisk`
- `btrfs-progs`
- `cryptsetup`
- `dosfstools`
- `efibootmgr`
- `mtools`
`efibootmgr` already exists in this file, but keep it explicit in the protected-install dependency checklist.
### `builder/build-iso.sh`
Add build-time mode support:
- Persist `/root/omarchy_mode` as `normal`, `dual_boot_capable`, or `restore`.
- For restore builds, inject `copytoram=y omarchy.mode=restore` into restore boot entries.
- For restore builds, assert boot entries contain `copytoram=y`.
- For normal ISO builds, keep existing behavior except adding dual-boot capability.
### `bin/omarchy-iso-make`
Add optional build flags:
```text
--restore-image build omarchy-restore.img.zst factory artifact
```
Keep the existing ISO output path unchanged unless a restore image is explicitly requested.
## Bootloader Policy
### Default Boot Target
For any standalone install (full-disk or restore_install, with or without a restore partition set), installed Omarchy is the default boot target. The persistent `BootOrder` after every successful install or factory reset is:
1. Installed Omarchy
2. Restore (when a restore partition set exists)
3. Firmware fallback
The user should never have to pick Omarchy from a boot menu under normal operation. Restore is reachable but never default. Boot-menu entries inside Limine for restore/reinstall are convenience; they do not replace this NVRAM ordering.
`BootNext` is used only for one-shot transitions (factory reset trigger, post-reset return to installed Omarchy) and must not be used to make Omarchy "stickily" default — that's the job of `BootOrder`. The only temporary exception is an in-progress factory reset: after the restore environment accepts the trigger and before it mutates installed partitions, restore becomes the persistent first boot target until reinstall succeeds.
For dual-boot, the previous OS's firmware order is preserved unless the user explicitly opts to make Omarchy first. Dual-boot is the only mode where Omarchy may not be the firmware default.
### Dual Boot
- Install Omarchy boot files under `EFI/Omarchy` on the shared ESP.
- Do not overwrite existing vendor directories.
- Preserve firmware default boot order unless user opts in.
- Run `limine-scan` so Windows/Linux entries are discoverable from Omarchy's menu. Verify on a real Windows + Linux dual-boot before depending on this — Limine's auto-detection is less battle-tested than GRUB's. If it does not pick them up cleanly, fall back to the firmware boot menu and document the limitation rather than hand-writing entries.
- BitLocker is handled at detection time by aborting the install (see Dual Boot policy). The bootloader path therefore only ever sees Windows volumes with BitLocker fully off/decrypted.
### Restore Install
- Installed Omarchy gets its own ESP and boot entry.
- Restore ESP keeps `EFI/BOOT/BOOTX64.EFI` fallback path.
- After successful install, write `BootOrder` as installed Omarchy first, restore second. Do not reorder on every boot — only after install or factory reset.
- Add a restore/reinstall entry to the installed Limine menu if it can be done cleanly.
- If NVRAM writes fail, rely on fallback boot paths and show a warning. The user can still recover via firmware boot menu.
## Rollout Plan
### Phase 1: Refactor Without Behavior Change
- Introduce `INSTALL_MODE=full_disk`.
- Introduce `$INSTALL_ROOT` and update post-install paths.
- Keep existing full-disk JSON and archinstall behavior.
- Add tests or dry-run checks for config generation.
### Phase 2a: Archinstall pre_mounted_config Spike
Single-purpose spike on a throwaway VM. No production code changes.
- Drive archinstall with a hand-crafted mount tree and `pre_mounted_config`.
- Record exactly what archinstall does: fstab generation, crypttab writes, bootloader install, initramfs regeneration, kernel cmdline writes.
- Prove the protected-mode config disables archinstall bootloader and NVRAM writes, or document the supported replacement setting. This is a release blocker for Phase 2b.
- Decide whether the manual fstab/Limine/initramfs steps in this plan run before, after, or instead of archinstall's own steps.
- Update this plan with the answers before Phase 2b begins. The downstream design depends on this; do not skip.
### Phase 2b: Shared Protected Install Engine
- Add `pre_mounted_config` generation.
- Add manual LUKS, Btrfs, subvolume, mount, fstab, and cleanup logic.
- Add encrypted boot post-install configuration.
- Add namespaced ESP boot artifact sync under `EFI/Omarchy`.
- Keep it behind internal mode switches until validated.
### Phase 3: Dual-Boot UI and Policy
- Add disk layout detection.
- When another install is detected, show an install-mode choice instead of assuming dual boot: "Install alongside" when eligible, and "Exclusive install (erase disk)" using the existing full-disk `wipe: true` path.
- If another install is detected but dual boot is not eligible, explain why and still offer the exclusive install path.
- Add Windows/BitLocker warnings.
- Validate alongside Windows and Linux.
### Phase 4: Restore Install Policy
- Add restore layout detection.
- Add restore partition set protection.
- Add first-install and reinstall flows.
- Validate that restore ESP, payload, and state survive installation and later reinstall.
### Phase 5: Restore Factory Image
- Build `omarchy-restore.img.zst`.
- Add factory flashing instructions or a dedicated factory flasher ISO/PXE workflow.
- Validate first boot from internal disk with no external media.
- Sign `omarchy-restore.img.zst` and the restore payload manifest. Verify in the factory flasher and at restore boot before any disk mutation.
- Add first-boot UUID randomization for cloned restore images before generating installed boot entries or state.
- Decide on Secure Boot before this phase ships. Shipping with SB disabled is a non-starter for some buyers, and BitLocker (when present on a dual-boot machine restored later) reseals against firmware state. Either implement a signed shim/Limine path, or commit to "SB off" with a documented rationale and a way for the user to flip it on later if they have keys.
### Phase 6: Factory Reset
- Implement `omarchy-factory-reset` as the installed-OS staging command: write and fsync the trigger flag, verify/recreate the restore boot entry, set and confirm `BootNext`, then leave the machine ready to boot restore.
- Wire the restore environment to detect the trigger flag and run the reinstall flow non-interactively.
- Set `BootNext` for one-shot transitions and temporary restore-first persistent `BootOrder` during the destructive reset window.
- Validate on `restore_install` machines first (the flow already has a restore partition set).
### Phase 7: Restore Partition for Standalone Installs
- Extend the standalone full-disk install path to create restore ESP + restore payload + restore state + installed ESP + installed root, mirroring the `restore_install` layout.
- Populate restore payload at install time from the live ISO offline mirror.
- Add `--no-restore` opt-out for users who explicitly want the legacy two-partition layout.
- After this phase, every consumer install gets factory reset by default.
## Acceptance Criteria
- Full-disk install behavior remains unchanged through Phase 6. Phase 7 changes the default layout to include a restore partition set; legacy layout remains available via `--no-restore`.
- Dual-boot install preserves existing OS partitions.
- Dual-boot install creates encrypted Omarchy root in free space.
- When another install is detected, the installer offers the current exclusive full-disk wipe path and only offers dual boot when guardrails pass.
- Dual-boot install writes Omarchy boot artifacts only under `EFI/Omarchy` on a shared ESP and leaves existing vendor paths untouched.
- Dual-boot install aborts cleanly when BitLocker/FVE is detected, including suspended BitLocker, before any disk mutation, with an actionable message.
- Restore install preserves restore ESP, restore payload, and restore state partitions.
- Restore install creates or recreates only installed Omarchy partitions.
- Protected modes never generate archinstall config with `wipe: true`.
- Protected modes prevent archinstall from independently writing boot files or NVRAM entries.
- Protected modes abort before destructive operations if a target partition is protected.
- Restore payload integrity is verified with a signed manifest before any restore-triggered disk mutation.
- Installed Omarchy boots and requires LUKS unlock.
- Installed Omarchy is the default firmware boot target for any standalone install (full-disk or restore_install).
- Restore boot remains available after first install but is never the default.
- Reinstall from restore works without external media.
- `omarchy-factory-reset` from the installed OS leaves the machine staged exactly like a freshly prepared restore-boot device: trigger flag durable on restore state, restore boot entry present, and `BootNext` pointing at restore. No installed partitions are destroyed before the next restore boot.
- A subsequent restore boot from that staged state wipes installed partitions, reinstalls a fresh Omarchy, and lands the user back in the installed OS without external media. Restore ESP, payload, and state partitions survive intact.
- Factory reset refuses to run when no complete restore partition set is present (e.g. dual-boot, `--no-restore` install).
## Validation Matrix
### Regression
1. Full-disk UEFI install on empty disk.
2. Current normal ISO boot menu and default install behavior.
3. Existing offline package installation flow.
### Dual Boot
1. Windows + free space + existing ESP (BitLocker off).
2. Windows + BitLocker enabled — installer must abort before any disk mutation with a clear "turn off BitLocker and wait for decryption" message.
3. Windows + BitLocker suspended — installer must still abort, because v1 treats any BitLocker/FVE signature as unsafe.
4. Linux distro + free space + existing ESP.
5. GPT disk with no free space.
6. ESP below total-size warning threshold.
7. ESP below total-size minimum threshold.
8. ESP large enough by total size but below free-space minimum.
9. Multiple free regions; choose largest suitable region.
10. Firmware boot order preservation.
### Restore
1. Factory image written to larger virtual disk.
2. First boot from internal restore ESP.
3. First install randomizes cloned disk/partition/filesystem UUIDs before creating installed boot entries.
4. First install creates installed ESP/root and preserves restore ESP, payload, and state.
5. Installed OS boots with encrypted root.
6. Installed Omarchy is the firmware default; restore is reachable but not default.
7. Restore boot still works after installed OS exists.
8. Reinstall formats only the installed Omarchy partitions in place; PARTUUIDs unchanged.
9. Restore mode without `copytoram=y` aborts before disk mutation.
10. Missing restore payload or restore state aborts before disk mutation.
11. NVRAM boot entry write failure still leaves fallback boot path usable.
### Factory Reset
1. `omarchy-factory-reset` from installed OS leaves the system staged for restore boot: trigger flag durable on restore state, restore boot entry present, and `BootNext` confirmed.
2. No installed partitions are destroyed before the staged system actually boots into restore.
3. Booting into restore from the staged state reinstalls and returns to a fresh installed Omarchy as the default-booted OS.
4. Trigger flag is deleted before the post-reset reboot. Machine does not loop.
5. Reset interrupted between trigger and restore boot: next normal boot still goes to installed Omarchy (because `BootNext` is one-shot).
6. Reset interrupted during reinstall (power loss): persistent temporary restore-first `BootOrder` boots restore again and re-runs the flow from the trigger flag/reset-in-progress state.
7. Reset refused when no complete restore partition set is detected.
8. Reset refused when signed restore payload verification fails.
9. Reset refused when running without root.
10. Reset refused when restore boot entry is missing from NVRAM and cannot be repopulated from fallback.
### Negative Safety Tests
1. Attempt to format protected restore ESP.
2. Attempt to format protected restore payload.
3. Attempt to format protected restore state.
4. Attempt to format existing Windows partition in dual-boot mode.
5. Partition overlap with protected range.
6. Power loss before partition creation.
7. Power loss after partition creation but before archinstall.
8. Power loss during archinstall.
## Open Questions
- Restore payload size: full offline mirror versus smaller network-capable restore image. Affects whether the consumer ISO's restore-partition default in Phase 7 is feasible at typical disk sizes.
- Restore update strategy after devices ship.
- Whether restore should also expose diagnostics / log upload alongside factory reset.
- Whether factory reset should preserve `/home` user data optionally, or always wipe. v1 always wipes (simpler, matches user expectation of "factory reset"); a "keep my files" variant could land later.
Resolved:
- User-facing reset staging command: yes, `omarchy-factory-reset` (Phase 6).
- Secure Boot: promoted to Phase 5 decision gate.
- Btrfs subvolume layout: protected modes use the current full-disk layout, `@`, `@home`, `@log`, and `@pkg`. The `/swap` subvolume for hibernation is created post-install by `omarchy-hibernation-setup` and is not predeclared at install time.
## Definition of Done
- One shared protected-partition implementation supports both dual-boot and restore install policies.
- Full-disk installs remain stable through Phase 6 and gain a default restore partition set in Phase 7.
- Dual-boot users can install alongside existing OSes without data loss.
- OEM devices can boot internal restore on first power-on, install Omarchy, and retain restore for future reinstall.
- All destructive operations are guarded by protected partition checks.
- Installed Omarchy is the firmware default boot target on every standalone install.
- `omarchy-factory-reset` stages any standalone install to boot internal restore without external media; the restore-triggered reinstall returns the user to a fresh installed Omarchy.
- VM and hardware validation matrices pass.
-124
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@@ -1,124 +0,0 @@
# Tailscale Autoinstall Plan
## Goal
Let an autoinstall drive carry a Tailscale auth key so the installed machine
joins the tailnet on its own. Combined with `authorized_keys`, this completes
the disposable-VM story: create VM, boot, walk away, `ssh user@machine` over
the tailnet from anywhere — no LAN discovery, no port forwarding.
## Product Requirements
- Same trigger philosophy as the rest of autoinstall: presence of a
`tailscale_authkey` file on the `cidata` drive, no new mode flag. No file,
no change — byte-identical behavior to today.
- The join happens when the network is available, not when the installer runs.
- No package installs from the network on first boot.
- The auth key does not persist on the installed system after a successful join.
---
## Chosen Architecture
### The package is bundled, not fetched
The `tailscale` package rides in the offline mirror (~10MB on the ISO) and is
installed during the ordinary package phase — but only when the auth key file
is present, so a stock install stays stock.
The alternative — installing from the network on first boot — was rejected
outright. A bare `pacman -Sy tailscale` on a fresh machine is a partial
upgrade waiting to corrupt something, and the "correct" version, `pacman -Syu
tailscale`, means an unattended full system upgrade racing the user's first
login (potentially swapping the kernel out on a machine that has booted once).
It would also fight Omarchy's own update flow and make the join depend on
mirror availability. The offline mirror is a coherent snapshot; installing
from it keeps the target consistent and the install deterministic and
offline-capable.
### The join is a first-boot unit, not an install step
`tailscale up` needs a running tailscaled, and there is no systemd in the
chroot. So the installer only stages: the key at `/etc/tailscale/authkey`
(root, `0600`), `tailscaled.service` enabled, and an
`omarchy-tailscale-join.service` that runs `tailscale up --auth-key
file:/etc/tailscale/authkey` on first boot.
"When the network is available" lives in the unit, not the installer:
`After=network-online.target` for ordering, plus an in-unit retry loop
(`until tailscale up …; do sleep 15; done`), because network-online can be
reached before there is real connectivity.
The unit is `Type=simple`, not oneshot, and that is load-bearing: target
units implicitly gain `After=` for their `Wants=`, so a oneshot wanted by
`multi-user.target` holds the whole boot — SDDM included — hostage until the
join finishes or times out, and once timed out it never retries within that
boot. (Caught by review.) Type=simple counts as started the moment it forks:
boot proceeds normally while the join retries in the background for as long
as the boot lasts.
Cleanup is sequenced inside the script, after `tailscale up` succeeds — the
key is removed and the unit disables itself, so the key never outlives the
join and the unit never runs again. On a boot that never gets connectivity
both survive (`ConditionPathExists` gates re-runs on the key), so a machine
installed offline joins on the first boot that can.
The machine appears on the tailnet under the hostname from
`user_configuration.json` — nothing extra to configure.
### Firewall
`ufw allow in on tailscale0`, the same write-the-rule-then-ignore-the-chroot-
exit-code dance as `configure_ssh_access` (ufw cannot reach netfilter in a
chroot but records the rule in `user.rules`, which is what first boot loads).
Without it the node joins and is then unreachable over the tailnet — worse
than not joining.
### Secrets
Same stance the autoinstall plan takes for the LUKS passphrase: whoever
builds the `cidata` drive owns the key on it. Docs recommend a reusable,
pre-authorized (tagged) key so one drive image serves N machines, and note
that ephemeral keys fit disposable VMs. No validation of the key beyond
"exactly one non-comment line" — Tailscale key formats are theirs to change.
---
## Implementation
- `builder/archinstall.packages`: add `tailscale` so it lands in the offline
mirror on every build.
- `omarchy-cidata-load`: add `tailscale_authkey` to the optional copy list.
- `.automated_script.sh`: pass `--tailscale-authkey-file /root/tailscale_authkey`
(always; the orchestrator no-ops when the file is absent, like
`--authorized-keys-file`).
- `omarchy-iso-install`: parse the flag into
`OMARCHY_INSTALL_TAILSCALE_AUTHKEY_FILE`.
- `context.py`: `tailscale_authkey_path: Path | None` via `_optional_path`.
- `phases_impl.py`:
- `arch_install_system`: when the key is present, add `tailscale` to the
additional packages while the offline mirror is still bind-mounted.
- `configure_tailscale(ctx)`: no-op when the path is `None`; otherwise
stage key + unit, enable services, open ufw. Fails loudly on an empty or
ambiguous key file and when the tailscale binary is missing from the
target (an ISO built before the package was bundled).
- `main.py`: register `("Configuring Tailscale", configure_tailscale)` after
`configure_ssh_access`.
- `README.md`: file-table row + a Tailscale paragraph in the Autoinstall
section.
- Tests: `tailscale_authkey` cases in `cidata-load-test.sh`;
`test_configure_tailscale.py` mirroring the SSH phase tests.
## Acceptance criteria
- Drive with `tailscale_authkey`: machine appears on the tailnet under its
configured hostname after first boot with network; `/etc/tailscale/authkey`
is gone; `omarchy-tailscale-join.service` is disabled.
- First boot without network: no failure surfaced to the user; the join
happens on the first boot that has connectivity.
- Drive without the file: no tailscale package on the target, no unit, no
ufw rule — indistinguishable from today.
- Empty or multi-line key file: install stops in the Tailscale phase with a
visible error.
- Interactive installs: unaffected; the flag is passed but the file never
exists.
+6 -3
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@@ -1,13 +1,16 @@
#!/bin/bash
#
# Fast, VM-free tests only. The integration scenarios that boot the ISO in
# QEMU live in test/integration.d/ and run via ./test/integration.
set -euo pipefail
ROOT=$(cd -- "$(dirname -- "${BASH_SOURCE[0]}")/.." && pwd)
for test in "$ROOT"/test/*-test.sh; do
for test in "$ROOT"/test/unit/*-test.sh; do
printf '==> %s\n' "${test#$ROOT/}"
bash "$test"
done
printf '==> test/test_*.py\n'
python3 -m unittest discover -t "$ROOT" -s "$ROOT/test"
printf '==> test/unit/test_*.py\n'
python3 -m unittest discover -t "$ROOT" -s "$ROOT/test/unit"
+95
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@@ -0,0 +1,95 @@
#!/bin/bash
#
# Integration runner: boots an ISO's installed system in QEMU and runs the
# scenarios in test/integration.d/ against it. The unattended cidata install
# happens once per ISO and is saved as a reusable base image; every scenario
# then boots a throwaway overlay of that base.
#
# Usage: test/integration [release/omarchy.iso] [scenario ...] [options]
#
# scenario Basename of a test/integration.d/<scenario>-test.sh file;
# all scenarios run when none are named
# --reuse-base Skip the install if a saved base image exists
# --port PORT Host port forwarded to guest SSH (default 2322)
# --memory MB VM memory (default 8192)
# --timeout SECS Install timeout (default 2400)
# --no-preview Do not open the collected screenshots in imv
set -euo pipefail
ROOT=$(cd -- "$(dirname -- "${BASH_SOURCE[0]}")/.." && pwd)
ISO=""
REUSE_BASE=false
SCENARIOS=()
export OMARCHY_INTEGRATION_SSH_PORT=2322
export OMARCHY_INTEGRATION_MEMORY=8192
export OMARCHY_INTEGRATION_INSTALL_TIMEOUT=2400
export OMARCHY_INTEGRATION_NO_PREVIEW=false
while (($#)); do
case "$1" in
--reuse-base) REUSE_BASE=true ;;
--no-preview) OMARCHY_INTEGRATION_NO_PREVIEW=true ;;
--port) OMARCHY_INTEGRATION_SSH_PORT="$2"; shift ;;
--memory) OMARCHY_INTEGRATION_MEMORY="$2"; shift ;;
--timeout) OMARCHY_INTEGRATION_INSTALL_TIMEOUT="$2"; shift ;;
-*) echo "Unknown option: $1" >&2; exit 1 ;;
*)
if [[ $1 == *.iso ]]; then
ISO="$1"
else
SCENARIOS+=("$ROOT/test/integration.d/$1-test.sh")
fi
;;
esac
shift
done
if [[ -z $ISO && -t 0 ]]; then
ISO=$(ls -t "$ROOT"/release/*.iso 2>/dev/null | gum choose --header "Select ISO to test")
fi
if [[ ! -f ${ISO:-} ]]; then
echo "No ISO to test. Pass one explicitly or put it in release/." >&2
exit 1
fi
if (( ${#SCENARIOS[@]} == 0 )); then
SCENARIOS=("$ROOT"/test/integration.d/*-test.sh)
else
for scenario in "${SCENARIOS[@]}"; do
if [[ $(basename "$scenario") == "base-test.sh" || ! -f $scenario ]]; then
echo "No such scenario: $scenario" >&2
exit 1
fi
done
fi
omarchy-pkg-add qemu-full edk2-ovmf socat imagemagick tesseract tesseract-data-eng mtools
export OMARCHY_INTEGRATION_ISO
OMARCHY_INTEGRATION_ISO=$(realpath "$ISO")
# The install phase runs in this process; scenarios run in their own so each
# gets its own VM lifecycle, cleanup trap, and run directory.
SCENARIO=install
source "$ROOT/test/integration.d/base-test.sh"
if $REUSE_BASE && base_image_ready; then
log "Reusing existing base image: $BASE_DISK"
else
install_phase
fi
status=0
for scenario in "${SCENARIOS[@]}"; do
[[ $(basename "$scenario") == "base-test.sh" ]] && continue
printf '\033[1;35m==> %s\033[0m\n' "${scenario#$ROOT/}"
# env -u: a SCENARIO exported by the caller (or leaked from this process)
# must not override the name each scenario derives from its own $0.
env -u SCENARIO bash "$scenario" || status=1
done
exit $status
+597
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@@ -0,0 +1,597 @@
#!/bin/bash
#
# Shared harness for the integration scenarios in test/integration.d/: QEMU
# lifecycle, QMP screendump + OCR console driving, virtual keystrokes, guest
# SSH, cidata autoinstall, and the reusable base-image contract. Source this
# from a scenario; ./test/integration exports the configuration and ensures
# the base image exists before any scenario runs.
set -euo pipefail
ROOT=$(cd -- "$(dirname -- "${BASH_SOURCE[0]}")/../.." && pwd)
ISO="$OMARCHY_INTEGRATION_ISO"
SSH_PORT="${OMARCHY_INTEGRATION_SSH_PORT:-2322}"
MEMORY="${OMARCHY_INTEGRATION_MEMORY:-8192}"
INSTALL_TIMEOUT="${OMARCHY_INTEGRATION_INSTALL_TIMEOUT:-2400}"
# cache=none keeps the host page cache out of the guest's disk writes, so
# install times measure the installer rather than the host (CI sets it).
DISK_CACHE="${OMARCHY_INTEGRATION_DISK_CACHE:-}"
NO_PREVIEW="${OMARCHY_INTEGRATION_NO_PREVIEW:-false}"
BOOT_TIMEOUT=600
GUEST_USER="omarchy"
GUEST_PASSWORD="omarchy"
GUEST_HOSTNAME="omarchy-test"
SCENARIO="${SCENARIO:-$(basename "${0%-test.sh}")}"
OVMF_CODE="/usr/share/edk2/x64/OVMF_CODE.4m.fd"
OVMF_VARS_TEMPLATE="/usr/share/edk2/x64/OVMF_VARS.4m.fd"
BASE_DIR="$ROOT/test-runs/$(basename "$ISO" .iso)-integration"
RUN_DIR="$BASE_DIR/runs/$(date +%Y%m%d-%H%M%S)-$SCENARIO"
BASE_DISK="$BASE_DIR/base.qcow2"
BASE_OVMF="$BASE_DIR/OVMF_VARS.4m.fd"
ACTIVE_OVMF="$BASE_OVMF"
SSH_KEY="$BASE_DIR/id_ed25519"
CIDATA_IMG="$BASE_DIR/cidata.img"
HTTP_PORT=$((SSH_PORT + 1))
HTTP_PID=""
mkdir -p "$BASE_DIR" "$RUN_DIR"
QMP_SOCK=$(mktemp -u "${TMPDIR:-/tmp}/omarchy-integration-qmp.XXXXXX.sock")
PIDFILE="$RUN_DIR/qemu.pid"
FAILURES=0
log() {
printf '\033[1;35m==> %s\033[0m\n' "$1"
}
check() {
local description="$1"
shift
if "$@" >/dev/null 2>&1; then
printf 'ok - %s\n' "$description"
else
printf 'not ok - %s\n' "$description"
((FAILURES += 1))
fi
}
finish() {
if ((FAILURES == 0)); then
log "$SCENARIO passed. Artifacts: $RUN_DIR"
else
log "$SCENARIO FAILED: $FAILURES assertion(s). Artifacts: $RUN_DIR"
exit 1
fi
}
base_image_ready() {
[[ -f $BASE_DISK && -f $BASE_OVMF && -f $SSH_KEY ]]
}
# ---------------------------------------------------------------- vm control
vm_running() {
[[ -f $PIDFILE ]] && kill -0 "$(cat "$PIDFILE")" 2>/dev/null
}
qmp() {
printf '{"execute":"qmp_capabilities"}\n{"execute":%s}\n' "$1" |
timeout 5 socat -t 2 - "UNIX-CONNECT:$QMP_SOCK" 2>/dev/null || true
}
screendump() {
qmp "\"screendump\", \"arguments\": {\"filename\": \"$1\"}" >/dev/null
}
capture_console() {
local name="$1" shot="$RUN_DIR/.capture.ppm"
sleep 1
screendump "$shot"
[[ -s $shot ]] || return 0
magick "$shot" "$RUN_DIR/$name.png" 2>/dev/null || true
rm -f "$shot"
}
stop_vm() {
vm_running || return 0
if ! ssh_guest "echo $GUEST_PASSWORD | sudo -S systemctl poweroff" >/dev/null 2>&1; then
qmp '"system_powerdown"' >/dev/null
fi
local waited=0
while vm_running && ((waited < 15)); do
sleep 1
((waited += 1))
done
if vm_running; then
qmp '"quit"' >/dev/null
sleep 1
fi
if vm_running; then
kill "$(cat "$PIDFILE")" 2>/dev/null || true
sleep 1
fi
}
open_screenshots() {
local entry
local -a screenshots=()
while IFS= read -r -d '' entry; do
screenshots+=("${entry#* }")
done < <(
find "$RUN_DIR" -type f \( -name "success-*.png" -o -name "failure-*.png" \) -printf '%T@ %p\0' |
sort -zn
)
(( ${#screenshots[@]} > 0 )) || return 0
log "Visual review: ${#screenshots[@]} screenshots in $RUN_DIR"
[[ $NO_PREVIEW == "true" ]] && return 0
if command -v imv >/dev/null && [[ -n ${WAYLAND_DISPLAY:-}${DISPLAY:-} ]]; then
setsid -f imv "${screenshots[@]}" >/dev/null 2>&1
fi
}
cleanup() {
local status=$?
[[ -n $HTTP_PID ]] && kill "$HTTP_PID" 2>/dev/null || true
vm_running && log "Stopping test VM"
stop_vm
rm -f "$RUN_DIR/.screen.ppm" "$RUN_DIR/.screen.png"
open_screenshots
rmdir "$RUN_DIR" 2>/dev/null || true
return $status
}
trap cleanup EXIT
start_vm() {
local disk="$1" serial="$2"
shift 2
qemu-system-x86_64 \
-cpu host -enable-kvm -machine q35,accel=kvm \
-smp "$(nproc)" \
-m "$MEMORY" \
-drive if=pflash,format=raw,readonly=on,file="$OVMF_CODE" \
-drive if=pflash,format=raw,file="$ACTIVE_OVMF" \
-drive file="$disk",format=qcow2,if=none,id=drive0${DISK_CACHE:+,cache=$DISK_CACHE} \
-device virtio-blk-pci,drive=drive0,bootindex=1 \
-device virtio-vga \
-display none \
-usb -device usb-tablet \
-netdev user,id=net0,hostfwd=tcp:127.0.0.1:$SSH_PORT-:22 \
-device virtio-net-pci,netdev=net0 \
-qmp "unix:$QMP_SOCK,server,nowait" \
-serial "file:$serial" \
-pidfile "$PIDFILE" \
-daemonize \
"$@"
}
# Boot a throwaway overlay of the installed base. The disk gets a per-run
# overlay; the firmware vars need the same isolation or NVRAM state would
# leak between runs.
start_vm_from_base() {
qemu-img create -f qcow2 -b "$BASE_DISK" -F qcow2 "$RUN_DIR/run.qcow2" >/dev/null
cp "$BASE_OVMF" "$RUN_DIR/OVMF_VARS.4m.fd"
ACTIVE_OVMF="$RUN_DIR/OVMF_VARS.4m.fd"
start_vm "$RUN_DIR/run.qcow2" "$RUN_DIR/serial.log"
}
# ------------------------------------------------------------ console driver
ocr_screen() {
local shot="$RUN_DIR/.screen.ppm" prepped="$RUN_DIR/.screen.png"
screendump "$shot"
[[ -s $shot ]] || return 0
magick "$shot" -colorspace gray -negate -resize 150% "$prepped" 2>/dev/null || return 0
tesseract "$prepped" - --psm 6 2>/dev/null || true
}
wait_for_screen() {
local text="$1" timeout="$2" waited=0 slug
until ocr_screen | grep -qi "$text"; do
if ! vm_running; then
echo "VM exited while waiting for screen: $text" >&2
return 1
fi
if ((waited >= timeout)); then
slug=${text,,}
slug=${slug// /-}
slug=${slug//[^a-z0-9-]/}
capture_console "failure-waiting-for-$slug"
echo "Timed out after ${timeout}s waiting for screen: $text" >&2
return 1
fi
sleep 3
((waited += 3))
done
sleep 1
}
press() {
local part json=""
local -a parts
IFS='-' read -ra parts <<<"$1"
for part in "${parts[@]}"; do
json+="{\"type\":\"qcode\",\"data\":\"$part\"},"
done
qmp "\"send-key\", \"arguments\": {\"keys\": [${json%,}]}" >/dev/null
}
type_text() {
local text="$1" ch i
for ((i = 0; i < ${#text}; i++)); do
ch=${text:i:1}
case "$ch" in
[a-z0-9]) press "$ch" ;;
[A-Z]) press "shift-${ch,,}" ;;
" ") press spc ;;
.) press dot ;;
,) press comma ;;
-) press minus ;;
_) press shift-minus ;;
/) press slash ;;
:) press shift-semicolon ;;
"&") press shift-7 ;;
"=") press equal ;;
"?") press shift-slash ;;
"!") press shift-1 ;;
"~") press shift-grave_accent ;;
@) press shift-2 ;;
*) echo "type_text: unsupported character: $ch" >&2; return 1 ;;
esac
sleep 0.05
done
}
# --------------------------------------------------------------------- guest
ssh_guest() {
ssh -i "$SSH_KEY" -p "$SSH_PORT" \
-o BatchMode=yes \
-o IdentitiesOnly=yes \
-o StrictHostKeyChecking=no \
-o UserKnownHostsFile=/dev/null \
-o ConnectTimeout=5 \
-o LogLevel=ERROR \
"$GUEST_USER@127.0.0.1" "$@"
}
ssh_sudo() {
ssh_guest "echo $GUEST_PASSWORD | sudo -S -p '' bash -c $(printf %q "$1")"
}
# The deadline is wall-clock: under QEMU user networking every attempt can
# spend its whole ConnectTimeout waiting for a banner, so counting only the
# sleeps let a "300 s" wait run for ten minutes or more, silently.
wait_for_ssh() {
local timeout="$1" failure_name="${2:-failure-ssh-timeout}"
local started=$SECONDS next_note=30 progress_name
while ! ssh_guest true 2>/dev/null; do
if ! vm_running; then
echo "VM exited while waiting for SSH" >&2
return 1
fi
if ((SECONDS - started >= timeout)); then
capture_console "$failure_name"
echo "Timed out after ${timeout}s waiting for SSH" >&2
return 1
fi
if ((SECONDS - started >= next_note)); then
printf -v progress_name 'waiting-ssh-%04ds' "$((SECONDS - started))"
capture_console "$progress_name"
echo " ... waiting for SSH ($((SECONDS - started))s)"
((next_note += 30))
fi
sleep 2
done
}
# Authorize SSH the way a person would when the guest has no key yet (or a
# reset just scrubbed it): console login on a spare TTY, then a bootstrap
# script fetched from a throwaway host HTTP server.
bootstrap_ssh() {
log "Authorizing SSH access via console login"
mkdir -p "$BASE_DIR/www"
cat >"$BASE_DIR/www/bootstrap" <<EOF
mkdir -p ~/.ssh && chmod 700 ~/.ssh
echo "$(cat "$SSH_KEY.pub")" >>~/.ssh/authorized_keys
chmod 600 ~/.ssh/authorized_keys
echo "$GUEST_PASSWORD" | sudo -S ufw allow from 10.0.2.2 to any port 22 proto tcp
echo "$GUEST_PASSWORD" | sudo -S systemctl enable --now sshd.service
EOF
(cd "$BASE_DIR/www" && exec python3 -m http.server "$HTTP_PORT" --bind 127.0.0.1 >/dev/null 2>&1) &
HTTP_PID=$!
local waited=0
while true; do
press ctrl-alt-f3
sleep 4
ocr_screen | grep -qi "login:" && break
((waited += 8))
if ((waited >= 300)); then
capture_console "failure-console-timeout"
echo "Timed out waiting for a console login prompt" >&2
return 1
fi
sleep 4
done
type_text "$GUEST_USER"
press ret
wait_for_screen "Password" 60
type_text "$GUEST_PASSWORD"
press ret
sleep 3
type_text "curl -fsS http://10.0.2.2:$HTTP_PORT/bootstrap -o /tmp/bs && bash /tmp/bs"
press ret
wait_for_ssh 360 "failure-bootstrap-ssh-timeout"
capture_console "success-bootstrap-ssh"
kill "$HTTP_PID" 2>/dev/null || true
HTTP_PID=""
press ctrl-alt-f1
}
# ---------------------------------------------------------- cidata autoinstall
# The configurator's own output files, synthesized for the 40G virtio disk the
# VM boots from. Sizing mirrors the configurator: 1MiB gap, 2GiB ESP, the rest
# btrfs minus the GPT backup reserve.
build_cidata() {
local dir="$BASE_DIR/cidata" hash
local disk_bytes=$((40 * 1024 * 1024 * 1024))
local mib=$((1024 * 1024)) gib=$((1024 * 1024 * 1024))
local boot_start=$mib boot_size=$((2 * gib))
local main_start=$((boot_size + boot_start))
local main_size=$((disk_bytes - main_start - mib))
rm -rf "$dir"
mkdir -p "$dir"
hash=$(openssl passwd -6 "$GUEST_PASSWORD")
cat >"$dir/user_credentials.json" <<EOF
{
"root_enc_password": $(jq -Rn --arg v "$hash" '$v'),
"users": [
{
"enc_password": $(jq -Rn --arg v "$hash" '$v'),
"groups": [],
"sudo": true,
"username": "$GUEST_USER"
}
]
}
EOF
cat >"$dir/user_configuration.json" <<EOF
{
"app_config": null,
"archinstall-language": "English",
"auth_config": {},
"audio_config": { "audio": "pipewire" },
"bootloader_config": { "bootloader": "Limine", "uki": false, "removable": false },
"custom_commands": [],
"omarchy_install": {
"mode": "full_disk",
"defer_provisioning": false,
"target_mount": "/mnt",
"boot": {
"esp_mount": "/boot",
"esp_path": "/EFI/limine",
"efi_binary": "limine_x64.efi",
"enable_fallback": true
},
"storage": { "kernel": "linux-omarchy" }
},
"disk_config": {
"config_type": "default_layout",
"device_modifications": [
{
"device": "/dev/vda",
"partitions": [
{
"btrfs": [],
"dev_path": null,
"flags": [ "boot", "esp" ],
"fs_type": "fat32",
"mount_options": [],
"mountpoint": "/boot",
"obj_id": "ea21d3f2-82bb-49cc-ab5d-6f81ae94e18d",
"size": { "sector_size": { "unit": "B", "value": 512 }, "unit": "B", "value": $boot_size },
"start": { "sector_size": { "unit": "B", "value": 512 }, "unit": "B", "value": $boot_start },
"status": "create",
"type": "primary"
},
{
"btrfs": [
{ "mountpoint": "/", "name": "@" },
{ "mountpoint": "/home", "name": "@home" },
{ "mountpoint": "/var/log", "name": "@log" },
{ "mountpoint": "/var/cache/pacman/pkg", "name": "@pkg" }
],
"dev_path": null,
"flags": [],
"fs_type": "btrfs",
"mount_options": [ "compress=zstd" ],
"mountpoint": null,
"obj_id": "8c2c2b92-1070-455d-b76a-56263bab24aa",
"size": { "sector_size": { "unit": "B", "value": 512 }, "unit": "B", "value": $main_size },
"start": { "sector_size": { "unit": "B", "value": 512 }, "unit": "B", "value": $main_start },
"status": "create",
"type": "primary"
}
],
"wipe": true
}
]
},
"hostname": "$GUEST_HOSTNAME",
"kernels": [ "linux-omarchy" ],
"network_config": { "type": "iso" },
"ntp": true,
"parallel_downloads": 8,
"script": null,
"services": [],
"swap": true,
"timezone": "UTC",
"locale_config": { "kb_layout": "us", "sys_enc": "UTF-8", "sys_lang": "en_US.UTF-8" },
"mirror_config": {
"custom_repositories": [],
"custom_servers": [
{"url": "https://mirror.omarchy.org/\$repo/os/\$arch"},
{"url": "https://mirror.rackspace.com/archlinux/\$repo/os/\$arch"},
{"url": "https://geo.mirror.pkgbuild.com/\$repo/os/\$arch"}
],
"mirror_regions": {},
"optional_repositories": []
},
"packages": [
"base-devel",
"git",
"omarchy-keyring",
"$SETTINGS_PACKAGE",
"$RUNTIME_PACKAGE"
],
"profile_config": { "gfx_driver": null, "greeter": null, "profile": {} },
"version": "3.0.9"
}
EOF
echo "Omarchy Test" >"$dir/user_full_name.txt"
echo "test@omarchy.org" >"$dir/user_email_address.txt"
echo "false" >"$dir/user_encrypt_installation.txt"
cp "$SSH_KEY.pub" "$dir/authorized_keys"
rm -f "$CIDATA_IMG"
truncate -s 4M "$CIDATA_IMG"
mkfs.vfat -n CIDATA "$CIDATA_IMG" >/dev/null
mcopy -i "$CIDATA_IMG" "$dir"/* ::/
}
# The dev/local ISO installs the -dev packages; a stable ISO the plain ones.
detect_packages() {
RUNTIME_PACKAGE=omarchy-dev
SETTINGS_PACKAGE=omarchy-settings-dev
if [[ $(basename "$ISO") != *dev* && $(basename "$ISO") != *local* && $(basename "$ISO") != *pr* ]]; then
RUNTIME_PACKAGE=omarchy
SETTINGS_PACKAGE=omarchy-settings
fi
}
install_phase() {
log "Installing $(basename "$ISO") unattended via cidata (headless)"
[[ -f $SSH_KEY ]] || ssh-keygen -t ed25519 -N "" -q -C "omarchy-integration" -f "$SSH_KEY"
detect_packages
build_cidata
# Build under a staging name: the finished base is promoted only after a
# clean shutdown, so a failed install can never pass for a reusable base.
rm -f "$BASE_DISK" "$BASE_DISK.building"
qemu-img create -f qcow2 "$BASE_DISK.building" 40G >/dev/null
cp "$OVMF_VARS_TEMPLATE" "$BASE_OVMF"
ACTIVE_OVMF="$BASE_OVMF"
start_vm "$BASE_DISK.building" "$RUN_DIR/install-serial.log" \
-drive "file=$ISO,media=cdrom,if=none,format=raw,id=cdrom0" \
-device ide-cd,drive=cdrom0,bootindex=2 \
-drive "file=$CIDATA_IMG,format=raw,if=none,id=cidata" \
-device usb-storage,drive=cidata
log "Waiting for the unattended install to finish (timeout ${INSTALL_TIMEOUT}s)"
local waited=0 text progress_name
while true; do
# An unattended install reboots on its own; SSH answering means the
# installed system is up (cidata's authorized_keys enables sshd).
if ssh_guest true 2>/dev/null; then
log "Install finished and rebooted into the installed system."
capture_console "success-install-first-boot"
break
fi
text=$(ocr_screen)
if grep -qi "Reboot Now" <<<"$text"; then
log "Install finished. Confirming the reboot prompt."
capture_console "success-install-reboot"
press ret
fi
if grep -qi "installation stopped" <<<"$text"; then
capture_console "failure-install-stopped"
echo "Install failed — screenshot saved to $RUN_DIR" >&2
return 1
fi
if ! vm_running; then
echo "VM exited during install" >&2
return 1
fi
if ((waited >= INSTALL_TIMEOUT)); then
capture_console "failure-install-timeout"
echo "Timed out after ${INSTALL_TIMEOUT}s waiting for install" >&2
return 1
fi
# A line every 30 s so a slow runner never looks hung; a screenshot of
# the installer's dashboard every 2 min, which is enough to see progress.
if ((waited % 120 == 0)); then
printf -v progress_name 'success-install-progress-%04ds' "$waited"
capture_console "$progress_name"
fi
((waited % 30 == 0)) && echo " ... installing (${waited}s)"
sleep 10
((waited += 10))
done
# Keep the installer's own clock, its log and the first boot's numbers next
# to the base image while the system is reachable, so CI can report them
# without attaching the disk.
ssh_sudo "cat /var/log/omarchy-install-timing.json" >"$BASE_DIR/omarchy-install-timing.json" 2>/dev/null || true
ssh_sudo "cat /var/log/omarchy-install.log" >"$BASE_DIR/omarchy-install.log" 2>/dev/null || true
# SSH can answer before startup finishes, and systemd-analyze refuses until
# it has; wait (bounded) so the first-boot numbers are final.
ssh_guest "timeout 120 systemctl is-system-running --wait >/dev/null; systemd-analyze" \
>"$BASE_DIR/first-boot-systemd-analyze.txt" 2>/dev/null || true
log "Installed system is up. Saving base image."
stop_vm
mv "$BASE_DISK.building" "$BASE_DISK"
}
+44
View File
@@ -0,0 +1,44 @@
#!/bin/bash
#
# Everyday boot: boots the installed system a second time and records how
# long it takes to answer SSH and what systemd-analyze reports, then asserts
# that systemd finished starting with no failed units. CI reports these next
# to the install time, so a change that slows booting shows up in its PR.
source "$(cd -- "$(dirname -- "${BASH_SOURCE[0]}")" && pwd)/base-test.sh"
base_image_ready || { echo "No base image; run this through ./test/integration" >&2; exit 1; }
log "Booting the installed system"
boot_started=$(date +%s%N)
start_vm_from_base
if ! wait_for_ssh 300 failure-boot-ssh-timeout; then
# The console screenshot is saved; the serial log shows what the firmware,
# loader and kernel printed, which a screenshot of a hung boot often lacks.
echo "--- last lines of the serial console ---" >&2
tail -n 40 "$RUN_DIR/serial.log" >&2 2>/dev/null || true
exit 1
fi
boot_ms=$((($(date +%s%N) - boot_started) / 1000000))
# Coarse: wait_for_ssh polls every 2 s. systemd-analyze below has the exact
# firmware, loader, kernel and userspace split.
log "SSH answered within ${boot_ms} ms of power-on"
# --wait returns once startup has finished, so systemd-analyze has final
# numbers and a unit that fails late in boot is still counted. It exits
# non-zero for "degraded"; keep the answer so the diagnostics below are still
# collected and the assertion reports it.
state=$(ssh_guest "timeout 120 systemctl is-system-running --wait" 2>/dev/null | tr -d '\r' || true)
ssh_guest "systemd-analyze" >"$RUN_DIR/systemd-analyze.txt" 2>/dev/null || true
ssh_guest "systemd-analyze blame --no-pager | head -n 20" >"$RUN_DIR/systemd-analyze-blame.txt" 2>/dev/null || true
# A query that fails must not read as "no failed units".
ssh_guest "systemctl --failed --no-legend --plain" >"$RUN_DIR/failed-units.txt" 2>/dev/null ||
echo "could not query failed units over SSH" >"$RUN_DIR/failed-units.txt"
printf '{"boot_to_ssh_ms": %d, "system_state": "%s"}\n' "$boot_ms" "$state" >"$RUN_DIR/boot-timing.json"
check "systemd reports the system running (got: ${state:-nothing})" test "$state" = running
check "no failed units" test ! -s "$RUN_DIR/failed-units.txt"
capture_console "success-boot"
stop_vm
finish
+287
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@@ -0,0 +1,287 @@
#!/bin/bash
#
# Factory reset on a shared ESP: proves omarchy-system-factory-reset hands a
# machine on without destroying a dual-boot setup (basecamp/omarchy#6847).
# Dresses the installed ESP up as a dual-boot machine (Windows + a foreign
# Linux, exactly what the reset must not destroy), runs a real factory reset,
# and walks the first-boot setup that follows.
#
# Staging asserts the Windows and foreign Linux entries and their ESP payload
# survive, the old Omarchy identity (entry + directory) is gone, and a fresh
# Omarchy entry exists. First boot asserts provisioning completes, the machine
# identity changed, and the foreign entries are still intact afterwards.
source "$(cd -- "$(dirname -- "${BASH_SOURCE[0]}")" && pwd)/base-test.sh"
FOREIGN_ID="fedcfedcfedcfedcfedcfedcfedcfedc"
base_image_ready || { echo "No base image; run this through ./test/integration" >&2; exit 1; }
# --------------------------------------------------------------- esp fixture
# Dress the ESP up as a shared dual-boot ESP: a Windows entry, and a second
# Linux installation cloned from the real Omarchy entry so its shape is
# exactly what limine-entry-tool writes, under a foreign machine-id with its
# own boot directory and byte-identical UKIs (so the cloned entry hashes
# stay valid).
fixture_shared_esp() {
OLD_ID=$(ssh_guest "cat /etc/machine-id" | tr -d '\r\n')
[[ $OLD_ID =~ ^[0-9a-f]{32}$ ]] || { echo "unexpected machine-id: $OLD_ID" >&2; return 1; }
ssh_sudo "cp /boot/limine.conf /boot/limine.conf.pretest" >/dev/null
ssh_sudo "
set -euo pipefail
awk '/^\//{block=1} block' /boot/limine.conf |
sed -e 's/$OLD_ID/$FOREIGN_ID/g' \
-e 's|/EFI/Linux/omarchy_|/EFI/Linux/foreign_|g' \
-e 's|^/\(+\{0,1\}\)\([^/+]\)|/\1Foreign \2|' >/tmp/foreign-entries
grep -q 'machine-id=$FOREIGN_ID' /tmp/foreign-entries
for uki in /boot/EFI/Linux/omarchy_*.efi; do
cp \"\$uki\" \"\${uki/omarchy_/foreign_}\"
done
cat >>/boot/limine.conf <<'CONF'
/Windows
protocol: efi
path: boot():/EFI/Microsoft/Boot/bootmgfw.efi
CONF
cat /tmp/foreign-entries >>/boot/limine.conf
mkdir -p /boot/$FOREIGN_ID /boot/EFI/Microsoft/Boot
echo foreign-payload >/boot/$FOREIGN_ID/marker
echo windows-payload >/boot/EFI/Microsoft/Boot/bootmgfw.efi
" >/dev/null
ssh_sudo "cat /boot/limine.conf" >"$RUN_DIR/limine.conf.fixtured"
log "ESP fixtured as a shared dual-boot ESP (old machine-id $OLD_ID)"
}
# ------------------------------------------------------------- reset driver
# Drive the interactive reset through a pty on the guest: `script` supplies
# the terminal gum needs, a fifo feeds it answers on our schedule, and the
# typescript lands in /tmp/reset.out for the polling below.
start_reset() {
# script hands the pty over at 0x0 when its own stdin is not a terminal,
# which crashes gum's text input; give it a real size first. setsid keeps
# both processes alive after this ssh session hangs up.
ssh_guest "
rm -f /tmp/reset.in /tmp/reset.out
mkfifo /tmp/reset.in
setsid bash -c 'exec 3<>/tmp/reset.in && sleep 3600' >/dev/null 2>&1 &
setsid script -qefc 'stty rows 35 cols 130; sudo -S -p \"\" omarchy-system-factory-reset' /tmp/reset.out \
</tmp/reset.in >/dev/null 2>&1 &
"
sleep 2
ssh_guest "printf '%s\n' '$GUEST_PASSWORD' >/tmp/reset.in"
}
reset_output() {
ssh_guest "sed 's/\x1b\[[0-9;?]*[A-Za-z]//g; s/\x1b\][^\x07]*\x07//g' /tmp/reset.out 2>/dev/null" || true
}
wait_for_reset_output() {
local text="$1" timeout="$2" waited=0
until reset_output | grep -qi "$text"; do
if reset_output | grep -qE "^Error:|COMMAND_EXIT_CODE"; then
reset_output >"$RUN_DIR/reset.out"
echo "The factory reset failed before reaching: $text" >&2
reset_output | grep -E "^Error:" >&2 || true
return 1
fi
if ((waited >= timeout)); then
reset_output >"$RUN_DIR/reset.out"
echo "Timed out after ${timeout}s waiting for reset output: $text" >&2
return 1
fi
sleep 3
((waited += 3))
done
}
reset_phase() {
log "Booting reset VM from base image overlay"
start_vm_from_base
wait_for_ssh "$BOOT_TIMEOUT"
fixture_shared_esp
log "Running omarchy-system-factory-reset"
start_reset
wait_for_reset_output "Type 'reset' to continue" 60
capture_console "success-reset-confirm"
ssh_guest "printf 'reset\r' >/tmp/reset.in"
# Staging clones @factory, rebuilds the UKI in a chroot, and reworks the
# ESP; only then does the reboot prompt appear.
wait_for_reset_output "Reboot to complete the reset" 900
reset_output >"$RUN_DIR/reset.out"
log "Reset staged. Asserting on the shared ESP before rebooting."
check "windows entry survives staging" \
ssh_sudo "grep -q '^/Windows' /boot/limine.conf"
check "windows boot payload survives staging" \
ssh_sudo "grep -q windows-payload /boot/EFI/Microsoft/Boot/bootmgfw.efi"
check "foreign linux entry survives staging" \
ssh_sudo "grep -q 'machine-id=$FOREIGN_ID' /boot/limine.conf"
check "foreign boot directory survives staging" \
ssh_sudo "grep -q foreign-payload /boot/$FOREIGN_ID/marker"
check "foreign UKI survives staging" \
ssh_sudo "test -f /boot/EFI/Linux/foreign_linux.efi"
check "old omarchy entry is removed by staging" \
ssh_sudo "! grep -q 'machine-id=$OLD_ID' /boot/limine.conf"
check "old omarchy boot directory is removed by staging" \
ssh_sudo "! test -e /boot/$OLD_ID"
check "a fresh omarchy entry exists after staging" \
ssh_sudo "grep -o 'machine-id=[0-9a-f]\{32\}' /boot/limine.conf | grep -qv 'machine-id=$FOREIGN_ID'"
ssh_sudo "cat /boot/limine.conf" >"$RUN_DIR/limine.conf.staged" || true
ssh_sudo "cat /var/log/omarchy-system-factory-reset.log" >"$RUN_DIR/factory-reset.log" || true
capture_console "success-reset-staged"
if ((FAILURES > 0)); then
log "Staging assertions failed; keeping the VM off the reboot path."
return 1
fi
# Decline the prompt's reboot; reboot deliberately so the ssh session
# closing cannot race the answer.
ssh_guest "printf 'n' >/tmp/reset.in"
sleep 2
log "Rebooting into the factory first boot"
ssh_sudo "systemctl reboot" || true
}
# --------------------------------------------------------------- first boot
# Answer whichever setup screens the factory first boot presents. The form's
# exact steps depend on what the reset deferred, so dispatch on the screen
# actually showing instead of scripting a fixed sequence.
drive_first_boot() {
log "Driving the factory first-boot setup"
# The reset must leave a bootable default: the machine has to reach the
# first-boot greeter on its own. A numeric default_entry pointing at a
# moved entry parks Limine at the menu instead — catch that explicitly,
# then boot the Omarchy entry by hand so the rest of the flow still runs.
if wait_for_screen "Linux by DHH" 120 2>/dev/null; then
printf 'ok - %s\n' "the machine boots into first-boot setup unattended"
else
if ocr_screen | grep -qi "Omarchy Bootloader"; then
printf 'not ok - %s\n' "the machine boots into first-boot setup unattended (parked at the Limine menu)"
((FAILURES += 1))
capture_console "failure-firstboot-parked-at-menu"
log "Selecting the Omarchy entry manually to continue the run"
press down; sleep 1; press down; sleep 1; press down; sleep 1
press ret
wait_for_screen "Linux by DHH" 600
else
echo "Neither the greeter nor the Limine menu appeared" >&2
return 1
fi
fi
capture_console "success-firstboot-00-greeter"
press ret
local waited=0 text step
local -A answered=()
while true; do
text=$(ocr_screen)
step=""
if grep -qi "look right" <<<"$text"; then
capture_console "success-firstboot-03-review"
press ret
break
elif grep -qi "keyboard layout" <<<"$text"; then
step="keyboard"; [[ -v answered[$step] ]] || { capture_console "success-firstboot-01-keyboard"; press ret; }
elif grep -qi "Username" <<<"$text"; then
step="username"; [[ -v answered[$step] ]] || { type_text "$GUEST_USER"; press ret; }
elif grep -qi "Conf *irm" <<<"$text"; then
step="confirm"; [[ -v answered[$step] ]] || { type_text "$GUEST_PASSWORD"; press ret; }
elif grep -qi "Password" <<<"$text"; then
step="password"; [[ -v answered[$step] ]] || { type_text "$GUEST_PASSWORD"; press ret; }
elif grep -qi "Full name" <<<"$text"; then
step="fullname"; [[ -v answered[$step] ]] || { type_text "Omarchy Test"; press ret; }
elif grep -qi "Email address" <<<"$text"; then
step="email"; [[ -v answered[$step] ]] || { type_text "test@omarchy.org"; capture_console "success-firstboot-02-form"; press ret; }
elif grep -qi "Hostname" <<<"$text"; then
step="hostname"; [[ -v answered[$step] ]] || { type_text "$GUEST_HOSTNAME"; press ret; }
elif grep -qi "Timezone" <<<"$text"; then
step="timezone"; [[ -v answered[$step] ]] || press ret
fi
[[ -n $step ]] && answered[$step]=1
if ! vm_running; then
echo "VM exited during first-boot setup" >&2
return 1
fi
if ((waited >= 600)); then
capture_console "failure-firstboot-form-timeout"
echo "Timed out driving the first-boot form" >&2
return 1
fi
sleep 3
((waited += 3))
done
capture_console "success-firstboot-04-finalizing"
}
first_boot_phase() {
drive_first_boot
# Finalization can still be running when the console appears; the pending
# flag clearing is the definitive end of provisioning. The reset scrubbed
# users, host keys, and sshd state, so SSH has to be re-authorized first.
bootstrap_ssh
log "Waiting for provisioning to finish"
local waited=0 rc
while true; do
rc=0
ssh_guest "test -f /var/lib/omarchy/provisioning/pending" 2>/dev/null || rc=$?
(( rc == 0 || rc == 255 )) || break
if ((waited >= 900)); then
capture_console "failure-provisioning-timeout"
echo "Timed out waiting for first-boot provisioning to complete" >&2
return 1
fi
sleep 10
((waited += 10))
done
local new_id
new_id=$(ssh_guest "cat /etc/machine-id" | tr -d '\r\n')
check "provisioning completed on first boot" \
ssh_guest "! test -f /var/lib/omarchy/provisioning/pending"
# A well-formed identity, and not one we already know: an empty or echoed
# ID would make the boot-entry grep below match the wrong entry.
check "the reset minted a fresh machine identity" \
bash -c "[[ '$new_id' =~ ^[0-9a-f]{32}\$ && '$new_id' != '$OLD_ID' && '$new_id' != '$FOREIGN_ID' ]]"
check "windows entry survives the first boot" \
ssh_sudo "grep -q '^/Windows' /boot/limine.conf"
check "windows boot payload survives the first boot" \
ssh_sudo "grep -q windows-payload /boot/EFI/Microsoft/Boot/bootmgfw.efi"
check "foreign linux entry survives the first boot" \
ssh_sudo "grep -q 'machine-id=$FOREIGN_ID' /boot/limine.conf"
check "foreign boot directory survives the first boot" \
ssh_sudo "grep -q foreign-payload /boot/$FOREIGN_ID/marker"
check "foreign UKI survives the first boot" \
ssh_sudo "test -f /boot/EFI/Linux/foreign_linux.efi"
check "old omarchy identity never returns" \
ssh_sudo "! grep -q 'machine-id=$OLD_ID' /boot/limine.conf"
check "the new identity owns a boot entry" \
ssh_sudo "grep -q 'machine-id=$new_id' /boot/limine.conf"
ssh_sudo "cat /boot/limine.conf" >"$RUN_DIR/limine.conf.final" || true
capture_console "success-final"
}
# ---------------------------------------------------------------------- main
reset_phase
first_boot_phase
finish
File renamed without changes.
@@ -7,7 +7,7 @@
set -euo pipefail
ROOT=$(cd -- "$(dirname -- "${BASH_SOURCE[0]}")/.." && pwd)
ROOT=$(cd -- "$(dirname -- "${BASH_SOURCE[0]}")/../.." && pwd)
CIDATA_LOAD="$ROOT/configs/airootfs/usr/local/bin/omarchy-cidata-load"
pass() {
+458
View File
@@ -0,0 +1,458 @@
#!/bin/bash
#
# Unit tests for omarchy-install-diagnose-media and the failure screen that
# renders it. Every case builds a throwaway offline mirror -- a package file
# and a real repo-add-shaped offline.db naming its sha256 -- so the three
# verdicts are told apart by the same evidence the live ISO has.
set -euo pipefail
ROOT=$(cd -- "$(dirname -- "${BASH_SOURCE[0]}")/../.." && pwd)
DIAGNOSE="$ROOT/configs/airootfs/usr/local/bin/omarchy-install-diagnose-media"
DASHBOARD="$ROOT/configs/airootfs/usr/local/bin/omarchy-install-dashboard"
PACKAGE="npth-1.8-1-x86_64.pkg.tar.zst"
TARGET_CACHE="/mnt/var/cache/pacman/pkg"
pass() {
printf 'ok - %s\n' "$1"
}
fail() {
local description="$1"
local detail="${2:-}"
[[ -n $detail ]] && printf '%s\n' "$detail" >&2
printf 'not ok - %s\n' "$description" >&2
exit 1
}
work=$(mktemp -d)
trap 'rm -rf "$work"' EXIT
mirror="$work/mirror"
mkdir -p "$mirror"
# repo-add writes one desc record per package, %FILENAME% before %SHA256SUM%.
# Building a real gzipped tar of that shape keeps the parser honest.
write_mirror_db() {
local checksum="$1" filename="${2:-$PACKAGE}" staging="$work/db"
rm -rf "$staging"
mkdir -p "$staging/npth-1.8-1"
{
printf '%%FILENAME%%\n%s\n\n' "$filename"
printf '%%NAME%%\nnpth\n\n'
printf '%%VERSION%%\n1.8-1\n\n'
printf '%%SHA256SUM%%\n%s\n\n' "$checksum"
} >"$staging/npth-1.8-1/desc"
# A second package proves the lookup matches on name rather than on order.
mkdir -p "$staging/zlib-1.3-1"
{
printf '%%FILENAME%%\nzlib-1.3-1-x86_64.pkg.tar.zst\n\n'
printf '%%NAME%%\nzlib\n\n'
printf '%%SHA256SUM%%\n%s\n\n' "$(printf 'f%.0s' {1..64})"
} >"$staging/zlib-1.3-1/desc"
tar -czf "$mirror/offline.db" -C "$staging" npth-1.8-1 zlib-1.3-1
}
write_log() {
local log="$1" path="${2:-$TARGET_CACHE/$PACKAGE}"
{
echo "[dashboard] checking package integrity..."
echo "[dashboard] :: File $path is corrupted (invalid or corrupted package)."
echo "[dashboard] error: failed to commit transaction (invalid or corrupted package)"
echo "[dashboard] ==> ERROR: Failed to install packages to new root"
} >"$log"
}
diagnose() {
OMARCHY_OFFLINE_MIRROR="$mirror" OMARCHY_TARGET_PACKAGE_CACHE="$TARGET_CACHE" \
"$DIAGNOSE" "$@"
}
log="$work/install.log"
write_log "$log"
# The medium was written wrong: the package on the ISO no longer hashes to what
# the build recorded for it.
printf 'a package, but damaged\n' >"$mirror/$PACKAGE"
write_mirror_db "$(printf '0%.0s' {1..64})"
set +e
output=$(diagnose "$log")
status=$?
set -e
(( status == 0 )) || fail "a checksum mismatch is diagnosed" "exit status $status"
[[ $(head -n 1 <<<"$output") == "The install medium is damaged" ]] ||
fail "a checksum mismatch is diagnosed" "$output"
grep -qF "$PACKAGE" <<<"$output" ||
fail "the diagnosis names the package" "$output"
grep -qF "no longer matches the checksum" <<<"$output" ||
fail "the diagnosis says the checksum disagrees" "$output"
grep -qF "sha256sum" <<<"$output" ||
fail "the diagnosis says how to verify a fresh download" "$output"
pass "a checksum mismatch says the medium is damaged and names the package"
# The medium reads clean now, so the bytes were misread rather than written
# wrong. Re-downloading fixes nothing, and the advice has to say so.
write_mirror_db "$(sha256sum "$mirror/$PACKAGE" | cut -d " " -f 1)"
set +e
output=$(diagnose "$log")
status=$?
set -e
(( status == 0 )) || fail "an intact package is still diagnosed" "exit status $status"
[[ $(head -n 1 <<<"$output") == "The install medium was misread" ]] ||
fail "an intact package is diagnosed as a misread" "$output"
grep -qF "another USB port" <<<"$output" ||
fail "a misread points at the hardware" "$output"
if grep -qF "Re-download" <<<"$output"; then
fail "a misread does not send anyone to re-download" "$output"
fi
pass "an intact package on the medium is diagnosed as a misread, not a bad download"
# The usual case. pacstrap runs with --noconfirm, which answers yes to pacman's
# "delete it?" and unlinks the package through the bind mount, so by the time
# anything here looks there is nothing left to weigh. The verdict must name the
# medium without claiming a comparison it never made, and must offer both
# remedies: a bad write and a bad read leave identical evidence.
rm "$mirror/$PACKAGE"
set +e
output=$(diagnose "$log")
status=$?
set -e
(( status == 0 )) || fail "a deleted package is still diagnosed" "exit status $status"
[[ $(head -n 1 <<<"$output") == "The install medium is damaged or misread" ]] ||
fail "a deleted package is diagnosed without over-claiming" "$output"
grep -qF "read straight off this ISO" <<<"$output" ||
fail "a deleted package still names the medium" "$output"
grep -qF "sha256sum" <<<"$output" ||
fail "a deleted package offers the download remedy" "$output"
grep -qF "memory is at fault" <<<"$output" ||
fail "a deleted package offers the hardware remedy too" "$output"
if grep -qF "no longer matches the checksum" <<<"$output"; then
fail "a deleted package claims no comparison" "$output"
fi
pass "a deleted package names the medium without claiming which way it failed"
# A record with no %SHA256SUM% must not borrow the next record's, which would
# compare a real file against another package's checksum.
printf 'a package, but damaged\n' >"$mirror/$PACKAGE"
staging="$work/db"
rm -rf "$staging"
mkdir -p "$staging/npth-1.8-1" "$staging/zlib-1.3-1"
printf '%%FILENAME%%\n%s\n\n%%NAME%%\nnpth\n\n' "$PACKAGE" >"$staging/npth-1.8-1/desc"
{
printf '%%FILENAME%%\nzlib-1.3-1-x86_64.pkg.tar.zst\n\n'
printf '%%SHA256SUM%%\n%s\n\n' "$(sha256sum "$mirror/$PACKAGE" | cut -d " " -f 1)"
} >"$staging/zlib-1.3-1/desc"
tar -czf "$mirror/offline.db" -C "$staging" npth-1.8-1 zlib-1.3-1
set +e
output=$(diagnose "$log")
set -e
[[ $(head -n 1 <<<"$output") == "The install medium is damaged or misread" ]] ||
fail "a record without a checksum borrows nobody else's" "$output"
pass "a record without a checksum borrows nobody else's"
# A package version may legally hold a backslash. It must not reach a terminal
# as an escape sequence, and awk must look it up literally rather than as one.
escaped='demo-1\033[2J-1-x86_64.pkg.tar.zst'
write_log "$work/escaped.log" "$TARGET_CACHE/$escaped"
printf 'a package, but damaged\n' >"$mirror/$escaped"
write_mirror_db "$(printf '0%.0s' {1..64})" "$escaped"
set +e
output=$(diagnose "$work/escaped.log")
set -e
# The dashboard renders these lines through printf %b, which turns a surviving
# backslash into whatever escape it spells. None may reach it.
if grep -qF '\' <<<"$output"; then
fail "a backslash in a package name never reaches the renderer" "$(cat -v <<<"$output")"
fi
grep -qF "demo-1033" <<<"$output" ||
fail "the sanitized name still identifies the package" "$output"
# The database record is found despite the backslash, so the verdict is the
# mismatch rather than the one that means no comparison could be made.
[[ $(head -n 1 <<<"$output") == "The install medium is damaged" ]] ||
fail "a backslash in a package name is looked up literally" "$output"
pass "a backslash in a package name is looked up literally and never rendered as an escape"
rm "$mirror/$escaped"
# The live ISO has bsdtar through pacman's libarchive, but the tar fallback is
# the one that runs if that ever stops being true.
printf 'a package, but damaged\n' >"$mirror/$PACKAGE"
write_mirror_db "$(sha256sum "$mirror/$PACKAGE" | cut -d " " -f 1)"
no_bsdtar="$work/no-bsdtar"
mkdir -p "$no_bsdtar"
for tool in sed awk tar gzip sha256sum cat grep head tail cut printf; do
command -v "$tool" >/dev/null && ln -sf "$(command -v "$tool")" "$no_bsdtar/$tool"
done
set +e
output=$(PATH="$no_bsdtar" diagnose "$log")
set -e
[[ $(head -n 1 <<<"$output") == "The install medium was misread" ]] ||
fail "the tar fallback reads the database when bsdtar is absent" "$output"
pass "the tar fallback reads the database when bsdtar is absent"
printf 'a package, but damaged\n' >"$mirror/$PACKAGE"
write_mirror_db "$(printf '0%.0s' {1..64})"
# A corrupt package that was never read off this ISO is somebody else's
# problem. Guessing here sends people to buy a USB stick they did not need.
write_log "$work/elsewhere.log" "/var/tmp/build/$PACKAGE"
set +e
output=$(diagnose "$work/elsewhere.log")
status=$?
set -e
(( status == 1 )) || fail "corruption outside the target cache is not diagnosed" "exit $status: $output"
[[ -z $output ]] || fail "corruption outside the target cache prints nothing" "$output"
pass "corruption outside the target cache is not blamed on the medium"
# An ordinary failure has no media diagnosis, and the caller asks
# unconditionally, so silence has to be the answer.
printf 'error: something else went wrong entirely\n' >"$work/other.log"
set +e
output=$(diagnose "$work/other.log")
status=$?
set -e
(( status == 1 )) || fail "an unrelated failure is not diagnosed" "exit $status: $output"
[[ -z $output ]] || fail "an unrelated failure prints nothing" "$output"
pass "an unrelated failure produces no diagnosis"
set +e
output=$(diagnose "$work/does-not-exist.log")
status=$?
set -e
(( status == 1 )) || fail "a missing log is not diagnosed" "exit $status: $output"
pass "a missing log produces no diagnosis"
# End to end: the dashboard runs a failing installer and the diagnosis has to
# reach both the screen and the support log, above the tail it explains.
#
# The screen goes through a real pty rather than a file. The dashboard's exit
# handler reopens its TTY with a truncating redirect, which does nothing to a
# character device and empties a regular file, so a file would capture nothing.
stubs="$work/stubs"
mkdir -p "$stubs"
{
echo '#!/bin/bash'
echo "OMARCHY_OFFLINE_MIRROR='$mirror' OMARCHY_TARGET_PACKAGE_CACHE='$TARGET_CACHE' exec '$DIAGNOSE' \"\$@\""
} >"$stubs/omarchy-install-diagnose-media"
chmod +x "$stubs/omarchy-install-diagnose-media"
state_file="$work/state.json"
screen="$work/screen"
# A ten-line logo, the height of the real one. Without it the dashboard falls
# back to a single centred word and the screen can never be tall enough to
# overflow, which is exactly the case worth testing.
omarchy_share="$work/share"
mkdir -p "$omarchy_share"
# 81 columns wide, like the real logo: the dashboard takes its content width
# from the logo, and a narrow one would truncate every line under test.
{
printf 'LOGO TOP ROW%*s\n' 69 ''
for n in 2 3 4 5 6 7 8 9; do printf 'logo row %s%*s\n' "$n" 71 ''; done
printf 'logo bottom row%*s\n' 66 ''
} >"$omarchy_share/logo.txt"
# The ISO vendors the runtime's setup form; the dashboard only needs its text lookup.
cat >"$work/setup-form.sh" <<'FORM'
declare -gA OMARCHY_ZH=()
omarchy_text() { local text=$1; shift; printf -- "$text" "$@"; }
FORM
run_dashboard() {
local install_log="$1"
# A real failure carries the failed phase as well as the current one, and
# that second summary line is another row the screen has to find space for.
cat >"$state_file" <<'STATE'
{"current_phase": "Installing Arch + Omarchy",
"phases": [{"name": "Installing Arch + Omarchy", "status": "failed",
"error": "Pacstrap failed. See /var/log/archinstall.log"}]}
STATE
: >"$screen"
script -qefc "stty rows 40 cols 120; PATH='$stubs:$PATH' OMARCHY_PATH='$omarchy_share' SETUP_FORM='$work/setup-form.sh' OMARCHY_UI_INTERACTIVE=no OMARCHY_UI_FAILURE_ACTION=exit OMARCHY_FAILURE_TAIL_LOG='$install_log' '$DASHBOARD' '$install_log' '$state_file' -- bash -c 'exit 1'" \
"$screen" >/dev/null 2>&1
}
visible_screen() {
# Carriage returns as well as escapes: the pty ends every line with one, and
# a row that looks blank still carries it.
sed -E $'s/\x1b\\[[0-9;?]*[A-Za-z]//g; s/\r//g' "$screen"
}
dashboard_log="$work/dashboard.log"
write_log "$dashboard_log"
# A real install log is longer than the tail can show, so the tail actually
# spends its whole budget. A short one hides an over-tall screen.
{
for n in $(seq 1 20); do printf '[dashboard] installing package %s\n' "$n"; done
cat "$dashboard_log"
} >"$dashboard_log.padded"
mv "$dashboard_log.padded" "$dashboard_log"
# State the case rather than inheriting whichever verdict the previous one left
# behind: this is the shape a real install fails in, with pacman having deleted
# the package it rejected.
rm -f "$mirror/$PACKAGE"
write_mirror_db "$(printf '0%.0s' {1..64})"
set +e
run_dashboard "$dashboard_log"
dashboard_status=$?
set -e
(( dashboard_status == 1 )) ||
fail "the dashboard still exits with the installer's status" "exit $dashboard_status"
visible_screen | grep -qF "The install medium is damaged" ||
fail "the failure screen shows the diagnosis" "$(visible_screen | tail -n 25)"
visible_screen | grep -qF "$PACKAGE" ||
fail "the failure screen names the package" "$(visible_screen | tail -n 25)"
grep -qF "[dashboard] The install medium is damaged" "$dashboard_log" ||
fail "the diagnosis is written to the support log" "$(tail -n 20 "$dashboard_log")"
# Once on the screen. The log tail rendered underneath reads the same file the
# diagnosis is recorded in, and the same finding printed twice reads as two.
headline_count=$(visible_screen | grep -cF "The install medium is damaged or misread" || true)
(( headline_count == 1 )) ||
fail "the diagnosis appears once on the screen" "found $headline_count times"
# The renderer used to drop blank lines, so the break has to be checked where
# it matters: on the screen, not only in the text the helper produced.
package_row=$(visible_screen | grep -nF "$PACKAGE" | grep -v "dashboard" | head -n 1 | cut -d: -f1)
[[ -n $package_row ]] ||
fail "the screen names the package on its own row" "$(visible_screen | tail -n 25)"
next_row=$(visible_screen | sed -n "$((package_row + 1))p")
[[ -z ${next_row// /} ]] ||
fail "the screen breaks after the package" "next row was: $next_row"
pass "the dashboard renders the diagnosis once, with the break, and logs it"
# The diagnosis costs rows the log tail's budget knew nothing about, so a
# screen carrying one scrolled its own logo off the top of the console. The
# tail gives those rows back now, which is visible as a shorter tail: count the
# filler lines it reaches, with a diagnosis and without one.
#
# Asserting the logo is still on screen would be the direct test, and it cannot
# be written here: this reads the output stream, which keeps every row ever
# emitted whether or not it stayed visible. Only a terminal emulator could tell
# the difference, so the mechanism is what gets checked.
tail_filler_rows() {
visible_screen | grep -c "installing package" || true
}
with_diagnosis=$(tail_filler_rows)
# The same log line for line, differing only in the one path that decides
# whether there is a diagnosis at all. Two differently shaped logs would show
# different amounts of filler for reasons that have nothing to do with the
# budget, and the comparison would prove nothing.
elsewhere_log="$work/elsewhere-padded.log"
write_log "$elsewhere_log" "/var/tmp/build/$PACKAGE"
{
for n in $(seq 1 20); do printf '[dashboard] installing package %s\n' "$n"; done
cat "$elsewhere_log"
} >"$elsewhere_log.padded"
mv "$elsewhere_log.padded" "$elsewhere_log"
set +e
run_dashboard "$elsewhere_log"
set -e
without_diagnosis=$(tail_filler_rows)
(( with_diagnosis < without_diagnosis )) ||
fail "the tail gives up rows to the diagnosis" \
"with: $with_diagnosis, without: $without_diagnosis"
pass "the log tail gives up rows to the diagnosis so the screen still fits"
# The screen is only as wide as the logo and the dashboard truncates to it with
# an ellipsis. Every sentence has to survive that, whatever the package is
# called, or the advice arrives with its second half cut off.
long_package="linux-firmware-nvidia-tegra-20250917.0e800e46-1-any.pkg.tar.zst"
long_log="$work/long.log"
write_log "$long_log" "$TARGET_CACHE/$long_package"
check_widths() {
local label="$1" line
while IFS= read -r line; do
(( ${#line} <= 81 )) ||
fail "no diagnosis line outruns the screen ($label)" "${#line} chars: $line"
done < <(diagnose "$long_log")
}
# The package line and the remedy that follows it are two different thoughts,
# so a blank line separates them in every verdict.
check_break() {
local label="$1" package="$2" out
out=$(diagnose "$long_log")
local -a lines
mapfile -t lines <<<"$out"
local i
for i in "${!lines[@]}"; do
[[ ${lines[i]} == "$package" ]] || continue
[[ -z ${lines[i + 1]-x} ]] ||
fail "a break follows the package ($label)" "$out"
[[ -n ${lines[i + 2]-} ]] ||
fail "the remedy follows the break ($label)" "$out"
return 0
done
fail "the package is on a line of its own ($label)" "$out"
}
# All three verdicts, since each writes its own sentences.
rm -f "$mirror/$long_package"
check_widths "deleted"
check_break "deleted" "$long_package"
printf 'these are not the bytes that were built\n' >"$mirror/$long_package"
write_mirror_db "$(printf '0%.0s' {1..64})" "$long_package"
check_widths "damaged"
check_break "damaged" "$long_package"
write_mirror_db "$(sha256sum "$mirror/$long_package" | cut -d " " -f 1)" "$long_package"
check_widths "misread"
check_break "misread" "$long_package"
rm -f "$mirror/$long_package"
pass "no diagnosis line outruns the screen, even with a long package name"
pass "a break separates the package from the remedy in every verdict"
# A failure with no media explanation must leave the screen as it was, rather
# than gaining a banner or an empty gap where the diagnosis would go.
printf 'error: something else went wrong entirely\n' >"$work/plain.log"
set +e
run_dashboard "$work/plain.log"
set -e
if visible_screen | grep -qF "install medium"; then
fail "an unrelated failure gets no media banner" "$(visible_screen | tail -n 25)"
fi
visible_screen | grep -qF "Omarchy installation stopped" ||
fail "an unrelated failure still renders the normal failure screen" "$(visible_screen | tail -n 25)"
pass "an unrelated failure renders the failure screen unchanged"
# The failure menu redraws the screen after uploading or viewing the log, and a
# redraw that drops the diagnosis loses it exactly when someone went looking.
# Those paths need gum and a person at the keyboard, so they are checked here.
missing_redraw=$(grep -n 'render_failure "' "$DASHBOARD" | grep -v 'failure_media_diagnosis' || true)
[[ -z $missing_redraw ]] ||
fail "every failure-screen redraw carries the diagnosis" "$missing_redraw"
pass "every failure-screen redraw carries the diagnosis"
+52
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#!/bin/bash
#
# Every installer text needs an OMARCHY_ZH entry, or a Chinese install shows it in English.
set -euo pipefail
ROOT=$(cd -- "$(dirname -- "${BASH_SOURCE[0]}")/../.." && pwd)
SETUP_FORM="${OMARCHY_SOURCE:-$ROOT/../omarchy}/install/provisioning/setup-form.sh"
fail() {
printf 'not ok - %s\n' "$1"
[[ -z ${2:-} ]] || printf '%s\n' "$2" | sed 's/^/# /'
exit 1
}
if [[ ! -r $SETUP_FORM ]]; then
printf 'ok - # skip the setup form is not checked out next to this repo (set OMARCHY_SOURCE)\n'
exit 0
fi
source "$SETUP_FORM"
for file in configs/airootfs/root/configurator configs/airootfs/usr/local/bin/omarchy-install-dashboard; do
eval "$(sed -n '/^OMARCHY_ZH+=(/,/^)/p' "$ROOT/$file")"
done
mapfile -t texts < <(
grep -ho 'omarchy_text "[^"$]*"' "$ROOT/configs/airootfs/root/configurator" "$ROOT/configs/airootfs/usr/local/bin/omarchy-install-dashboard" |
sed 's/^omarchy_text "//; s/"$//' | sort -u
)
((${#texts[@]} > 50)) || fail "the installer routes its text through omarchy_text" "found ${#texts[@]}"
for text in "${texts[@]}"; do
[[ -n ${OMARCHY_ZH[$text]:-} ]] || fail "every installer text has a Chinese entry" "missing: $text"
done
printf 'ok - every installer and dashboard text has a Chinese entry\n'
for action in "View full log" "Drop to shell" "Reboot" "Power off" "Upload log for support"; do
[[ -n ${OMARCHY_ZH[$action]:-} ]] || fail "labels passed through variables have Chinese entries" "missing: $action"
done
printf 'ok - labels passed through variables have Chinese entries\n'
mapfile -t diagnosis < <(grep -x ' *echo "[^"$]*"' "$ROOT/configs/airootfs/usr/local/bin/omarchy-install-diagnose-media" | sed 's/^ *echo "//; s/"$//')
((${#diagnosis[@]} >= 10)) || fail "the media diagnosis sentences are found" "found ${#diagnosis[@]}"
for line in "${diagnosis[@]}"; do
[[ -n ${OMARCHY_ZH[$line]:-} ]] || fail "every media diagnosis sentence has a Chinese entry" "missing: $line"
done
printf 'ok - every media diagnosis sentence has a Chinese entry\n'
[[ $(OMARCHY_INSTALL_LANG=zh omarchy_text "Confirm overwriting %s" /dev/vda) == "确认覆盖 /dev/vda" ]] ||
fail "Chinese text keeps its printf arguments"
[[ $(omarchy_text "Confirm overwriting %s" /dev/vda) == "Confirm overwriting /dev/vda" ]] ||
fail "English stays the default"
printf 'ok - omarchy_text formats Chinese and English alike\n'
+175
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#!/bin/bash
#
# Unit tests for the checksum sidecar omarchy-iso-release writes and
# omarchy-iso-upload ships. Both scripts derive everything from their own
# location and their argument, so each case runs against a throwaway sandbox
# with the real script copied in and rclone/sign/upload stubbed out.
set -euo pipefail
ROOT=$(cd -- "$(dirname -- "${BASH_SOURCE[0]}")/../.." && pwd)
pass() {
printf 'ok - %s\n' "$1"
}
fail() {
local description="$1"
local detail="${2:-}"
[[ -n $detail ]] && printf '%s\n' "$detail" >&2
printf 'not ok - %s\n' "$description" >&2
exit 1
}
work=$(mktemp -d)
trap 'rm -rf "$work"' EXIT
# omarchy-iso-release resolves its release directory from the script's own
# path, so relocating the script is what points it at the sandbox.
sandbox="$work/repo"
mkdir -p "$sandbox/bin" "$sandbox/release" "$work/stubs"
cp "$ROOT/bin/omarchy-iso-release" "$sandbox/bin/"
printf 'not really an iso\n' >"$sandbox/release/omarchy-2099.01.01-x86_64-quattro.iso"
cat >"$work/stubs/omarchy-iso-sign" <<'STUB'
#!/bin/bash
printf 'signature\n' >"$1.sig"
STUB
cat >"$work/stubs/omarchy-iso-upload" <<'STUB'
#!/bin/bash
printf 'upload %s\n' "$*" >>"$TEST_LOG"
STUB
# Log one argument per field rather than "$*": the point of several cases below
# is that a path survives as a single argument, which "$*" cannot show.
cat >"$work/stubs/rclone" <<'STUB'
#!/bin/bash
printf 'rclone'
printf '|%s' "$@"
printf '\n'
[[ -n ${RCLONE_FAIL_ON:-} && $* == *"$RCLONE_FAIL_ON"* ]] && exit 1
exit 0
STUB
chmod +x "$work/stubs"/*
export TEST_LOG="$work/log"
: >"$TEST_LOG"
run_upload() {
PATH="$work/stubs:$PATH" "$ROOT/bin/omarchy-iso-upload" "$@" >"$work/rclone-log" 2>"$work/upload-err"
}
PATH="$work/stubs:$PATH" "$sandbox/bin/omarchy-iso-release" --no-make 9.9.9 >/dev/null
release_iso="$sandbox/release/omarchy-9.9.9.iso"
checksum_file="$release_iso.sha256"
[[ -f $checksum_file ]] ||
fail "release writes a checksum beside the ISO" "missing: $checksum_file"
pass "release writes a checksum beside the ISO"
# The name in the file has to be the ISO alone. A build path in there verifies
# only on the release machine, which is the one machine that never needs it.
expected="$(sha256sum "$release_iso" | cut -d " " -f 1) omarchy-9.9.9.iso"
actual="$(cat "$checksum_file")"
[[ $actual == "$expected" ]] ||
fail "the checksum names the ISO alone" "expected: $expected"$'\n'"actual: $actual"
pass "the checksum names the ISO alone"
(cd "$sandbox/release" && sha256sum -c --status omarchy-9.9.9.iso.sha256) ||
fail "sha256sum -c verifies the ISO from its own directory"
pass "sha256sum -c verifies the ISO from its own directory"
# The whole point of the sidecar is catching bytes that changed after release,
# so prove it fails on bytes that changed after release.
printf 'corrupted\n' >>"$release_iso"
if (cd "$sandbox/release" && sha256sum -c --status omarchy-9.9.9.iso.sha256 2>/dev/null); then
fail "sha256sum -c rejects a corrupted ISO"
fi
pass "sha256sum -c rejects a corrupted ISO"
# An unreadable ISO must stop the release rather than publish an empty digest
# beside a stale sidecar from the previous one.
stale="$sandbox/release/omarchy-8.8.8.iso.sha256"
printf 'deadbeef omarchy-8.8.8.iso\n' >"$stale"
rm "$sandbox/release/omarchy-2099.01.01-x86_64-quattro.iso"
printf 'not really an iso\n' >"$sandbox/release/omarchy-2099.01.02-x86_64-quattro.iso"
cp "$sandbox/release/omarchy-2099.01.02-x86_64-quattro.iso" "$sandbox/release/omarchy-8.8.8.iso"
chmod 000 "$sandbox/release/omarchy-8.8.8.iso"
set +e
PATH="$work/stubs:$PATH" "$sandbox/bin/omarchy-iso-release" --no-make 8.8.8 >/dev/null 2>&1
release_status=$?
set -e
chmod 644 "$sandbox/release/omarchy-8.8.8.iso"
(( release_status != 0 )) ||
fail "release stops when the ISO cannot be checksummed" "exit status was 0"
[[ "$(cat "$stale")" == "deadbeef omarchy-8.8.8.iso" ]] ||
fail "a failed checksum leaves no half-written sidecar" "$(cat "$stale")"
pass "release stops when the ISO cannot be checksummed"
# Uploading: both sidecars go up with the ISO, and a missing one is skipped
# rather than handed to rclone as a path that does not exist.
export HOME="$work/home"
mkdir -p "$HOME/.config/rclone"
: >"$HOME/.config/rclone/rclone.conf"
# A space in the path is the case that tells a quoted argument from an unquoted
# one, so every upload case runs from a directory that has one.
mkdir -p "$work/release builds"
upload_iso="$work/release builds/omarchy-9.9.9.iso"
printf 'not really an iso\n' >"$upload_iso"
printf 'signature\n' >"$upload_iso.sig"
printf 'checksum\n' >"$upload_iso.sha256"
run_upload "$upload_iso"
for suffix in "" ".sig" ".sha256"; do
grep -qxF "rclone|copy|$upload_iso$suffix|Omarchy:omarchy/|-P" "$work/rclone-log" ||
fail "upload ships the ISO, its signature and its checksum, path spaces intact" \
"$(cat "$work/rclone-log")"
done
pass "upload ships the ISO, its signature and its checksum, path spaces intact"
rm "$upload_iso.sig"
run_upload "$upload_iso"
if grep -qF ".sig" "$work/rclone-log"; then
fail "upload skips a sidecar that is not there" "$(cat "$work/rclone-log")"
fi
grep -qF "$upload_iso.sha256" "$work/rclone-log" ||
fail "upload still ships the checksum without a signature" "$(cat "$work/rclone-log")"
pass "upload skips a sidecar that is not there"
# A failed copy has to fail the upload even when a later copy succeeds, or a
# release reports success having published an ISO nobody can download.
printf 'signature\n' >"$upload_iso.sig"
set +e
RCLONE_FAIL_ON=".sig" run_upload "$upload_iso"
upload_status=$?
set -e
(( upload_status != 0 )) ||
fail "a failed sidecar copy fails the upload" "$(cat "$work/rclone-log")"
grep -qF "$upload_iso.sha256" "$work/rclone-log" ||
fail "a failed sidecar copy still attempts the rest" "$(cat "$work/rclone-log")"
pass "a failed sidecar copy fails the upload without skipping the rest"
set +e
RCLONE_FAIL_ON="omarchy-9.9.9.iso" run_upload "$upload_iso"
upload_status=$?
set -e
(( upload_status != 0 )) ||
fail "a failed ISO copy fails the upload" "$(cat "$work/rclone-log")"
pass "a failed ISO copy fails the upload"
# Publishing an ISO nobody can verify is the thing this change exists to stop,
# so the uploader says so out loud rather than exiting quietly.
rm "$upload_iso.sha256"
run_upload "$upload_iso"
grep -qF "nobody can verify" "$work/upload-err" ||
fail "upload warns when there is no checksum to publish" "$(cat "$work/upload-err")"
pass "upload warns when there is no checksum to publish"
+32
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#!/bin/bash
set -euo pipefail
ROOT=$(cd -- "$(dirname -- "${BASH_SOURCE[0]}")/../.." && pwd)
work=$(mktemp -d)
trap 'rm -rf "$work"' EXIT
mkdir -p "$work/install/provisioning"
cat > "$work/install/provisioning/setup-form.sh" <<'FORM'
OMARCHY_KEYBOARD_LAYOUTS=$'Chinese (Simplified, Pinyin)|us|pinyin
English (US)|us
Japanese|jp106|mozc'
FORM
export OMARCHY_PATH="$work"
eval "$(sed -n '/^select_keyboard() {$/,/^}$/p' "$ROOT/bin/omarchy-iso-test")"
press() { pressed+=("$1"); }
sleep() { :; }
pressed=()
select_keyboard "Japanese"
[[ ${pressed[*]} == "down" ]]
pressed=()
select_keyboard "Chinese (Simplified, Pinyin)"
[[ ${pressed[*]} == "up" ]]
pressed=()
select_keyboard "English (US)"
(( ${#pressed[@]} == 0 ))
if (set -e; select_keyboard "Missing") 2>"$work/error"; then
echo "Unknown keyboard unexpectedly succeeded" >&2
exit 1
fi
grep -q 'Keyboard choice is absent' "$work/error"
echo "ok - VM keyboard choices are relative to the default and reject absent rows"
+131
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#!/bin/bash
#
# create_partition() must report the number parted actually assigned, never a
# predicted one. The regression this pins: the configurator used to compute
# "highest existing partition + 1", while parted fills the lowest free GPT
# slot. Any disk whose numbering has a hole — what deleting a partition to
# free space leaves behind — then had every later command (cryptsetup, mkfs,
# mount) pointed at device nodes that did not exist, surfacing much later as
# "protected mode: /mnt is not a mountpoint".
#
# parted operates on image files directly, so this needs no root, no loop
# devices, and no real disk.
set -uo pipefail
ROOT=$(cd -- "$(dirname -- "${BASH_SOURCE[0]}")/../.." && pwd)
LIB="$ROOT/configs/airootfs/usr/share/omarchy-iso/disk-partitioning.sh"
if ! command -v parted >/dev/null 2>&1; then
echo "SKIP: parted is not installed"
exit 0
fi
# shellcheck source=../configs/airootfs/usr/share/omarchy-iso/disk-partitioning.sh
source "$LIB"
WORK=$(mktemp -d)
trap 'rm -rf "$WORK"' EXIT
IMG="$WORK/disk.img"
MIB=$((1024 * 1024))
failures=0
check() {
local label="$1" expected="$2" actual="$3"
if [[ $expected == "$actual" ]]; then
printf ' ok %s\n' "$label"
else
printf ' FAIL %s: expected %s, got %s\n' "$label" "$expected" "$actual"
failures=$((failures + 1))
fi
}
# parted reports a partition's size inclusive of both endpoints, so it lands
# one sector above (end - start). Same slack create_partition allows.
check_size() {
local label="$1" want="$2" actual="${3:-0}" delta
delta=$((actual - want))
(( delta < 0 )) && delta=$((-delta))
if (( delta <= MIB )); then
printf ' ok %s\n' "$label"
else
printf ' FAIL %s: expected ~%s, got %s\n' "$label" "$want" "$actual"
failures=$((failures + 1))
fi
}
# parted's end position is inclusive, so partitions laid back to back overlap
# by a sector and are refused. Leave a MiB between them.
mkpart_mib() {
parted --script "$IMG" mkpart "$1" "$2" "$(($3 * MIB))B" "$(($4 * MIB))B"
}
# A disk with holes: four partitions, then delete the middle two. Slots 2 and
# 3 are free while the highest number in use is 4 — the shape of the reported
# failure, where the user deleted a partition to make room.
build_holey_disk() {
rm -f "$IMG"
truncate -s 4G "$IMG"
parted --script "$IMG" mklabel gpt
mkpart_mib one ext4 1 200
mkpart_mib two ext4 201 400
mkpart_mib three ext4 401 600
mkpart_mib four ext4 601 800
parted --script "$IMG" rm 2
parted --script "$IMG" rm 3
created_parts=()
}
echo "==> numbering on a disk with holes"
build_holey_disk
check "existing numbers" "1 4" "$(partition_numbers "$IMG" | sort | tr '\n' ' ' | sed 's/ $//')"
create_partition "$IMG" "$((1000 * MIB))" "$((1200 * MIB))" fat32 OMARCHY_EFI
check "create_partition succeeded (esp)" "0" "$?"
esp_num="$created_partition_number"
check "esp took the lowest free slot" "2" "$esp_num"
# Starts a MiB past the ESP, the way run_partition_decide aligns ROOT_START_B
# up from EFI_END_B + 1.
create_partition "$IMG" "$((1201 * MIB))" "$((2000 * MIB))" btrfs OMARCHY_ROOT
check "create_partition succeeded (root)" "0" "$?"
root_num="$created_partition_number"
check "root took the next free slot" "3" "$root_num"
# The old prediction. If either of these ever matches again, the regression is
# back: the highest number in use was 4, so the guess would have been 5 and 6.
check "esp is not the predicted number" "not-5" "$([[ $esp_num == 5 ]] && echo 5 || echo not-5)"
check "root is not the predicted number" "not-6" "$([[ $root_num == 6 ]] && echo 6 || echo not-6)"
check "both creations tracked for rollback" "2 3" "${created_parts[*]}"
check_size "esp size" "$((200 * MIB))" "$(partition_size_bytes "$IMG" "$esp_num")"
check_size "root size" "$((799 * MIB))" "$(partition_size_bytes "$IMG" "$root_num")"
echo "==> rollback reclaims only what this run created"
rollback_created_parts "$IMG"
check "created partitions removed" "1 4" "$(partition_numbers "$IMG" | sort | tr '\n' ' ' | sed 's/ $//')"
check "rollback list cleared" "0" "${#created_parts[@]}"
echo "==> numbering on a disk without holes"
rm -f "$IMG"
truncate -s 4G "$IMG"
parted --script "$IMG" mklabel gpt
mkpart_mib one ext4 1 200
mkpart_mib two ext4 201 400
created_parts=()
create_partition "$IMG" "$((1000 * MIB))" "$((1200 * MIB))" fat32 OMARCHY_EFI
check "appends when there is no hole" "3" "$created_partition_number"
echo "==> a refused creation stays out of the rollback list"
created_parts=()
create_partition "$IMG" "$((100 * MIB))" "$((300 * MIB))" ext4 OVERLAP
check "overlapping creation failed" "1" "$?"
check "nothing tracked" "0" "${#created_parts[@]}"
if (( failures > 0 )); then
printf '\n%d check(s) failed\n' "$failures"
exit 1
fi
printf '\nall checks passed\n'
+29
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"""Exercise the compatibility boundary without importing host archinstall."""
import ast
from pathlib import Path
import types
import unittest
ROOT = Path(__file__).resolve().parents[2]
source = ROOT / "configs/airootfs/usr/share/omarchy-iso/orchestrator/archinstall_adapter.py"
tree = ast.parse(source.read_text())
namespace = {}
functions = [node for node in tree.body if isinstance(node, ast.FunctionDef) and node.name in {"_method_accepts", "sanity_check"}]
exec(compile(ast.Module(body=functions, type_ignores=[]), str(source), "exec"), namespace)
class SanityCheckTest(unittest.TestCase):
def test_legacy_archinstall_stays_offline(self):
calls = []
def check(offline=False, skip_ntp=False, skip_wkd=False):
calls.append((offline, skip_ntp, skip_wkd))
namespace["sanity_check"](types.SimpleNamespace(sanity_check=check))
self.assertEqual(calls, [(True, True, True)])
def test_archinstall_45_does_not_receive_removed_argument(self):
calls = []
class Installer:
def sanity_check(self, skip_ntp=False, skip_wkd=False):
calls.append((skip_ntp, skip_wkd))
namespace["sanity_check"](Installer())
self.assertEqual(calls, [(True, True)])
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#!/usr/bin/python
"""Undecodable bytes in command output, and where tolerating them stops.
The orchestrator reads firmware and filesystem metadata out of commands whose
output is not required to be UTF-8: noise in a boot entry must not stop an
install, while a mangled identifier must stop one. These tests run stand-in
commands emitting the bytes two HP firmwares actually put in a legacy BBS entry,
so they exercise the decode itself rather than a mocked result.
"""
import os
import sys
import tempfile
import types
import unittest
from pathlib import Path
from unittest import mock
ROOT = Path(__file__).resolve().parents[2]
sys.path.insert(0, str(ROOT / "configs/airootfs/usr/share/omarchy-iso"))
# phases_impl imports the archinstall adapter at module scope, which pulls in
# the archinstall library that only exists on the live ISO.
sys.modules.setdefault(
"orchestrator.archinstall_adapter",
types.ModuleType("orchestrator.archinstall_adapter"),
)
from orchestrator import phases_impl # noqa: E402
from orchestrator.command import capture, capture_identifier # noqa: E402
# Boot0000 is the entry that aborted the install: raw bytes inside a BBS device
# path, in a legacy entry nothing in the installer reads. 0x80 and 0xe0 are the
# bytes two different HP firmwares emitted.
EFIBOOTMGR_OUTPUT = (
b"BootCurrent: 0003\n"
b"Timeout: 0 seconds\n"
b"BootOrder: 2001,0003,0000\n"
b"Boot0000* Notebook Hard Drive\tBBS(HD,\x80\x7f\xff\x04\xe0\x7f,)\n"
b"Boot0003* Omarchy\tHD(1,GPT,0d9c9d4f)/File(\\EFI\\limine\\BOOTX64.EFI)\n"
b"Boot2001* USB Drive (UEFI)\tRC\n"
)
class CommandCaptureTest(unittest.TestCase):
def setUp(self):
self.bin_dir = None
def fake_bin(self) -> Path:
"""A directory at the front of PATH, made once per test."""
if self.bin_dir is None:
tmp = tempfile.TemporaryDirectory()
self.addCleanup(tmp.cleanup)
self.bin_dir = Path(tmp.name)
path = os.environ["PATH"]
self.addCleanup(os.environ.__setitem__, "PATH", path)
os.environ["PATH"] = f"{self.bin_dir}:{path}"
return self.bin_dir
def fake_script(self, name: str, body: str) -> None:
script = self.fake_bin() / name
script.write_text(f"#!/bin/sh\n{body}\n")
script.chmod(0o755)
def fake_command(self, name: str, output: bytes) -> None:
"""A command printing exactly these bytes, undecodable ones included."""
payload = self.fake_bin() / f"{name}.out"
payload.write_bytes(output)
self.fake_script(name, f'cat "{payload}"')
def fake_findmnt(self, source: bytes) -> None:
"""A findmnt answering per column, so the phase gets as far as SOURCE."""
payload = self.fake_bin() / "findmnt.source"
payload.write_bytes(source)
self.fake_script(
"findmnt",
'case "$2" in\n'
" FSTYPE) echo btrfs ;;\n"
" OPTIONS) echo rw,subvol=/@ ;;\n"
f' SOURCE) cat "{payload}" ;;\n'
"esac",
)
def test_undecodable_bytes_are_replaced_rather_than_raised(self):
self.fake_command("omarchy-not-utf8", b"before\x80after\n")
self.assertEqual(capture(["omarchy-not-utf8"]).stdout, "before�after\n")
def test_efibootmgr_entries_parse_around_a_legacy_bbs_entry(self):
self.fake_command("efibootmgr", EFIBOOTMGR_OUTPUT)
state = phases_impl._read_efibootmgr()
self.assertEqual(state["order"], ["2001", "0003", "0000"])
self.assertEqual(phases_impl._find_label_entries(state["entries"], "Omarchy"), ["0003"])
self.assertTrue(state["entries"]["0000"].startswith("Notebook Hard Drive"))
def test_a_mangled_identifier_stops_the_install_rather_than_reaching_fstab(self):
# _validate_pre_mounted_filesystems reads the UUID back from this same
# command, so a replaced byte would agree with itself all the way to a
# machine that cannot find its root.
self.fake_command("blkid", b"1a2b3c4d-\x80-dead-beef\n")
with self.assertRaises(RuntimeError) as raised:
phases_impl._blkid_uuid("/dev/sda2")
self.assertIn("the UUID of /dev/sda2 is not valid text", str(raised.exception))
def test_a_mangled_btrfs_device_is_never_handed_to_mount(self):
# create_factory_snapshot mounts this device and deletes subvolumes
# under it; a replaced byte must stop the phase before that, not turn
# into an opaque mount failure.
self.fake_findmnt(source=b"/dev/sda\xe02[/@]")
ctx = types.SimpleNamespace(target=Path("/mnt"), state_dir=Path("/run/omarchy"))
with mock.patch.object(phases_impl, "info"), self.assertRaises(RuntimeError) as raised:
phases_impl.create_factory_snapshot(ctx)
self.assertIn("is not valid text", str(raised.exception))
def test_a_clean_identifier_is_returned_unchanged(self):
self.fake_command("blkid", b"1a2b3c4d-0e5f-dead-beef\n")
self.assertEqual(
capture_identifier(["blkid"], "the UUID"), "1a2b3c4d-0e5f-dead-beef"
)
if __name__ == "__main__":
unittest.main()
@@ -14,7 +14,7 @@ from pathlib import Path
from subprocess import CompletedProcess
from unittest import mock
sys.path.insert(0, str(Path(__file__).resolve().parent.parent / "configs/airootfs/usr/share/omarchy-iso"))
sys.path.insert(0, str(Path(__file__).resolve().parents[2] / "configs/airootfs/usr/share/omarchy-iso"))
# phases_impl imports the archinstall adapter at module scope, which pulls in
# the archinstall library that only exists on the live ISO. configure_ssh_access
@@ -15,7 +15,7 @@ from pathlib import Path
from subprocess import CompletedProcess
from unittest import mock
sys.path.insert(0, str(Path(__file__).resolve().parent.parent / "configs/airootfs/usr/share/omarchy-iso"))
sys.path.insert(0, str(Path(__file__).resolve().parents[2] / "configs/airootfs/usr/share/omarchy-iso"))
# phases_impl imports the archinstall adapter at module scope, which pulls in
# the archinstall library that only exists on the live ISO. configure_tailscale
+197
View File
@@ -0,0 +1,197 @@
"""Fresh installs use the Omarchy kernel, except for T2 Macs."""
import json
import os
import re
import subprocess
import sys
import tempfile
import types
import unittest
from contextlib import ExitStack
from pathlib import Path
from unittest import mock
ROOT = Path(__file__).resolve().parents[2]
sys.path.insert(0, str(ROOT / "configs/airootfs/usr/share/omarchy-iso"))
sys.modules.setdefault(
"orchestrator.archinstall_adapter",
types.ModuleType("orchestrator.archinstall_adapter"),
)
from orchestrator import context, phases_impl # noqa: E402
class KernelSelectionTest(unittest.TestCase):
def test_hardware_detection(self):
# Run the configurator's actual probe without starting its disk wizard.
configurator = (ROOT / "configs/airootfs/root/configurator").read_text()
probe = re.search(r"^detect_kernel\(\) \{\n.*?^\}", configurator, re.M | re.S)
self.assertIsNotNone(probe)
cases = [
("00:02.0 VGA compatible controller [0300]: Intel [8086:b080]", "linux-omarchy"),
("00:01.0 Ethernet controller [0200]: Apple [106b:2001]", "linux-omarchy"),
("04:00.0 Mass storage controller [0180]: Apple [106b:1801]", "linux-t2"),
("04:00.0 Mass storage controller [0180]: Apple [106b:1802]", "linux-t2"),
("", "linux-omarchy"),
]
for devices, expected in cases:
with self.subTest(devices=devices):
result = subprocess.run(
["bash", "-c", 'lspci() { printf "%s\\n" "$TEST_PCI"; }\n'
+ probe.group() + "\ndetect_kernel"],
env={**os.environ, "TEST_PCI": devices},
check=True, capture_output=True, text=True,
)
self.assertEqual(result.stdout.strip(), expected)
def test_unattended_kernel_default_uses_pci_hardware(self):
for vendor, device, expected in [
("0x8086", "0xb080", "linux-omarchy"),
("0x106b", "0x2001", "linux-omarchy"),
("0x106b", "0x1801", "linux-t2"),
("0x106b", "0x1802", "linux-t2"),
]:
with self.subTest(device=device), tempfile.TemporaryDirectory() as tmp:
pci = Path(tmp)
slot = pci / "0000:00:00.0"
slot.mkdir()
(slot / "vendor").write_text(vendor + "\n")
(slot / "device").write_text(device + "\n")
self.assertEqual(context._default_kernel(pci), expected)
with tempfile.TemporaryDirectory() as tmp:
self.assertEqual(context._default_kernel(Path(tmp)), "linux-omarchy")
def test_context_passes_effective_kernels_to_archinstall(self):
for config, default, expected in [
({}, "linux-omarchy", ["linux-omarchy"]),
({"kernels": []}, "linux-omarchy", ["linux-omarchy"]),
({"kernels": None}, "linux-t2", ["linux-t2"]),
({}, "linux-t2", ["linux-t2"]),
({"kernels": ["linux-lts"]}, "linux-omarchy", ["linux-lts"]),
({"kernels": ["linux-omarchy", "linux-lts"]}, "linux-t2", ["linux-omarchy", "linux-lts"]),
({"omarchy_install": {"storage": {"kernel": "linux-t2"}}}, "linux-omarchy", ["linux-t2"]),
]:
with self.subTest(config=config, default=default), tempfile.TemporaryDirectory() as tmp:
root = Path(tmp)
config_path = root / "config.json"
creds_path = root / "creds.json"
config_path.write_text(json.dumps(config))
creds_path.write_text(json.dumps({"users": [{"username": "test"}]}))
with mock.patch.dict(os.environ, {
"OMARCHY_INSTALL_CONFIG": str(config_path),
"OMARCHY_INSTALL_CREDS": str(creds_path),
"OMARCHY_INSTALL_STATE_DIR": str(root / "state"),
}, clear=True), mock.patch.object(context, "_default_kernel", return_value=default):
ctx = context.InstallContext.from_env()
self.assertEqual(ctx.user_configuration["kernels"], expected)
self.assertEqual(json.loads(ctx.arch_config_path.read_text())["kernels"], expected)
def test_headers_install_before_dkms_packages(self):
for kernels in (["linux-omarchy"], ["linux-t2"], ["linux-omarchy", "linux-lts"]):
for fail_headers in (False, True):
with self.subTest(kernels=kernels, fail_headers=fail_headers), ExitStack() as stack:
events = []
installer = mock.MagicMock()
installer.minimal_installation.side_effect = lambda **kwargs: events.append("base")
def install_packages(packages):
events.append(packages)
if fail_headers:
raise RuntimeError("header install failed")
installer.add_additional_packages.side_effect = install_packages
config = types.SimpleNamespace(
kernels=kernels, locale_config=None, mirror_config=None,
swap=None, auth_config=None, app_config=None, timezone=None,
ntp=False, hostname="test", pacman_config="/etc/pacman.conf",
)
ctx = types.SimpleNamespace(
state={"arch_config_handler": types.SimpleNamespace(config=config), "mirror_handler": None},
target=Path("/unused"), tailscale_authkey_path=None, omarchy_install={},
region="global",
)
for name in ("_mount_offline_package_cache", "_mask_mkinitcpio_pacman_hooks",
"_configure_limine_boot", "_write_pre_mounted_fstab"):
stack.enter_context(mock.patch.object(phases_impl, name))
unmask = stack.enter_context(mock.patch.object(phases_impl, "_unmask_mkinitcpio_pacman_hooks"))
unmount = stack.enter_context(mock.patch.object(phases_impl, "_unmount_offline_package_cache"))
stack.enter_context(mock.patch.object(phases_impl, "configure_keyboard", return_value=True))
stack.enter_context(mock.patch.object(phases_impl, "_install_early_packages", side_effect=lambda inst: events.append("early")))
stack.enter_context(mock.patch.object(phases_impl, "_runtime_package_list", return_value=["omarchy"]))
stack.enter_context(mock.patch.object(phases_impl.arch, "is_pre_mount", return_value=True, create=True))
stack.enter_context(mock.patch.object(phases_impl.arch, "root_user", return_value=None, create=True))
stack.enter_context(mock.patch.object(phases_impl.arch, "sanity_check", create=True))
opened = stack.enter_context(mock.patch.object(phases_impl.arch, "open_installer", create=True))
opened.return_value.__enter__.return_value = installer
if fail_headers:
with self.assertRaisesRegex(RuntimeError, "header install failed"):
phases_impl.arch_install_system(ctx)
else:
phases_impl.arch_install_system(ctx)
expected = ["base", [f"{kernel}-headers" for kernel in kernels]]
if not fail_headers:
expected += ["early", ["omarchy"]]
self.assertEqual(events, expected)
unmask.assert_called_once_with(ctx)
unmount.assert_called_once_with(ctx)
def test_validation_rejects_missing_or_mismatched_headers(self):
for kernel in ("linux-omarchy", "linux-t2"):
with self.subTest(kernel=kernel), tempfile.TemporaryDirectory() as tmp:
target = Path(tmp)
ctx = types.SimpleNamespace(target=target)
with self.assertRaisesRegex(RuntimeError, "no installed kernel"):
phases_impl._validate_kernel_headers(ctx)
modules = target / "usr/lib/modules/7.2-test"
modules.mkdir(parents=True)
(modules / "pkgbase").write_text(kernel + "\n")
with self.assertRaisesRegex(RuntimeError, "no kernel headers"):
phases_impl._validate_kernel_headers(ctx)
header_release = modules / "build/include/config/kernel.release"
header_release.parent.mkdir(parents=True)
header_release.write_text("7.2-stock\n")
with self.assertRaisesRegex(RuntimeError, "headers do not match"):
phases_impl._validate_kernel_headers(ctx)
header_release.write_text("7.2-test\n")
phases_impl._validate_kernel_headers(ctx)
def test_boot_validation_uses_default_or_explicit_kernel(self):
for storage, configuration, expected in [
({}, {}, "linux-omarchy"),
({}, {"kernels": ["linux-t2"]}, "linux-t2"),
({"kernel": "linux-t2"}, {"kernels": ["linux-omarchy"]}, "linux-t2"),
({}, {"kernels": ["linux-lts"]}, "linux-lts"),
]:
with self.subTest(kernel=expected, storage=storage), tempfile.TemporaryDirectory() as tmp:
target = Path(tmp)
files = {
f"usr/lib/modules/7.2-test/pkgbase": expected + "\n",
"usr/lib/modules/7.2-test/build/include/config/kernel.release": "7.2-test\n",
"boot/limine.conf": "/Omarchy\n",
"etc/kernel/cmdline": "root=UUID=test\n",
"etc/default/limine": "CUSTOM_UKI_NAME=omarchy\n",
"boot/EFI/limine/limine_x64.efi": "bootloader",
f"boot/EFI/Linux/omarchy_{expected}.efi": "UKI",
}
for name, content in files.items():
path = target / name
path.parent.mkdir(parents=True, exist_ok=True)
path.write_text(content)
ctx = types.SimpleNamespace(
target=target, omarchy_install={"storage": storage},
user_configuration=configuration, encrypt=False,
is_protected=False, defer_provisioning=False,
)
with mock.patch.object(phases_impl, "_assert_boot_hooks_restored"), \
mock.patch.object(phases_impl.arch, "has_uefi", return_value=True, create=True), \
mock.patch.object(phases_impl, "_read_efibootmgr", return_value={
"entries": {"0001": "Limine\tHD(1,GPT,test)"},
}):
phases_impl.validate_boot(ctx)
(target / f"boot/EFI/Linux/omarchy_{expected}.efi").unlink()
with self.assertRaisesRegex(RuntimeError, "missing or empty"):
phases_impl.validate_boot(ctx)
if __name__ == "__main__":
unittest.main()
@@ -1,24 +1,24 @@
#!/usr/bin/python
import importlib.util
import re
import os
import sys
import tempfile
import unittest
from pathlib import Path
ROOT = Path(__file__).resolve().parents[1]
MODULE_PATH = ROOT / "configs/airootfs/usr/share/omarchy-iso/orchestrator/keyboard.py"
SPEC = importlib.util.spec_from_file_location("installer_keyboard", MODULE_PATH)
KEYBOARD = importlib.util.module_from_spec(SPEC)
assert SPEC.loader
SPEC.loader.exec_module(KEYBOARD)
ROOT = Path(__file__).resolve().parents[2]
sys.path.insert(0, str(ROOT / "configs/airootfs/usr/share/omarchy-iso"))
from orchestrator import keyboard as KEYBOARD # noqa: E402
# The layout list lives in the Omarchy runtime now, shared verbatim with the
# first-boot owner setup; build-iso.sh vendors it onto the ISO. Read it from
# wherever this checkout can see a runtime, and skip the coverage test rather
# than fail when none is around (a bare CI checkout of just this repo).
SETUP_FORM_CANDIDATES = (
Path(os.environ.get("OMARCHY_PATH", "/nonexistent")) / "install/provisioning/setup-form.sh",
Path("/omarchy-source/install/provisioning/setup-form.sh"),
ROOT.parent / "omarchy/install/provisioning/setup-form.sh",
Path("/usr/share/omarchy/install/provisioning/setup-form.sh"),
@@ -33,7 +33,7 @@ def supported_keymaps():
r"OMARCHY_KEYBOARD_LAYOUTS=\$'(.*?)'\n", candidate.read_text(), re.DOTALL
)
assert block, f"no layout list in {candidate}"
return [line.split("|", 1)[1] for line in block.group(1).splitlines()]
return [line.split("|")[1] for line in block.group(1).splitlines()]
return None
@@ -81,6 +81,36 @@ class KeyboardConfigurationTest(unittest.TestCase):
"KEYMAP=us\nFONT=default8x16\n",
)
def test_input_choice_survives_while_console_keymap_stays_real(self):
for method, keymap, layout in (("mozc", "jp106", ""), ("mozc", "us", ""), ("hangul", "us", "kr"), ("pinyin", "us", ""), ("chewing", "us", "")):
with self.subTest(method=method), tempfile.TemporaryDirectory() as directory:
target = self.target(directory)
self.assertTrue(KEYBOARD.configure_keyboard(target, keymap, method, layout))
self.assertIn(f"KEYMAP={keymap}", (target / "etc/vconsole.conf").read_text())
if keymap == "jp106":
self.assertIn("XKBLAYOUT=jp", (target / "etc/vconsole.conf").read_text())
self.assertEqual((target / "etc/omarchy/input-method").read_text(), f"INPUT_METHOD={method}\nXKB_LAYOUT={layout}\n")
def test_input_choice_with_no_console_map_defaults_to_us(self):
with tempfile.TemporaryDirectory() as directory:
target = self.target(directory)
self.assertTrue(KEYBOARD.configure_keyboard(target, "", "pinyin"))
self.assertIn("INPUT_METHOD=pinyin", (target / "etc/omarchy/input-method").read_text())
def test_unknown_keyboard_does_not_silently_drop_an_input_choice(self):
with tempfile.TemporaryDirectory() as directory:
target = self.target(directory)
with self.assertRaises(ValueError):
KEYBOARD.configure_keyboard(target, "unknown", "pinyin")
def test_invalid_input_preferences_are_rejected_without_writes(self):
for method, layout in (("unknown", ""), ("hangul", "kr\nKEYMAP=ru")):
with tempfile.TemporaryDirectory() as directory:
target = self.target(directory)
with self.assertRaises(ValueError):
KEYBOARD.configure_keyboard(target, "us", method, layout)
self.assertFalse((target / "etc/omarchy/input-method").exists())
if __name__ == "__main__":
unittest.main()
@@ -6,7 +6,7 @@ import unittest
from pathlib import Path
ROOT = Path(__file__).resolve().parents[1]
ROOT = Path(__file__).resolve().parents[2]
PRUNER = ROOT / "builder/prune-offline-mirror.sh"
@@ -16,7 +16,7 @@ from pathlib import Path
from subprocess import CompletedProcess
from unittest import mock
sys.path.insert(0, str(Path(__file__).resolve().parent.parent / "configs/airootfs/usr/share/omarchy-iso"))
sys.path.insert(0, str(Path(__file__).resolve().parents[2] / "configs/airootfs/usr/share/omarchy-iso"))
sys.modules.setdefault(
"orchestrator.archinstall_adapter", types.ModuleType("orchestrator.archinstall_adapter")
+236
View File
@@ -0,0 +1,236 @@
"""The target's region comes from its timezone, using the runtime's profiles."""
import json
import os
import subprocess
import sys
import tempfile
import types
import unittest
from contextlib import ExitStack
from pathlib import Path
from unittest import mock
ROOT = Path(__file__).resolve().parents[2]
sys.path.insert(0, str(ROOT / "configs/airootfs/usr/share/omarchy-iso"))
sys.modules.setdefault(
"orchestrator.archinstall_adapter",
types.ModuleType("orchestrator.archinstall_adapter"),
)
from orchestrator import context, phases_impl, region # noqa: E402
def write_profiles(root: Path) -> Path:
regions = root / "regions"
cn = regions / "cn"
(cn / "pacman").mkdir(parents=True)
(cn / "timezones").write_text("# China\nAsia/Shanghai\n\n Asia/Urumqi \n")
(cn / "packages").write_text("# keyring first\narchlinuxcn-keyring\nextra-tool\n")
(cn / "pacman/pacman.conf.append").write_text("[archlinuxcn]\nServer = https://example.invalid/$arch\n")
for channel in ("stable", "rc", "edge"):
(cn / f"pacman/mirrorlist-{channel}.prepend").write_text(f"Server = https://{channel}.example.invalid/$repo/os/$arch\n")
return regions
class RegionSelectionTest(unittest.TestCase):
def setUp(self):
tmp = tempfile.TemporaryDirectory()
self.addCleanup(tmp.cleanup)
self.root = Path(tmp.name)
self.regions = write_profiles(self.root)
patcher = mock.patch.object(region, "REGIONS_DIR", self.regions)
patcher.start()
self.addCleanup(patcher.stop)
def test_timezone_selects_region(self):
for timezone, expected in [
("Asia/Shanghai", "cn"),
("Asia/Urumqi", "cn"),
("Asia/Hong_Kong", "global"),
("America/New_York", "global"),
("UTC", "global"),
("# China", "global"),
("", "global"),
(None, "global"),
]:
with self.subTest(timezone=timezone):
self.assertEqual(region.region_for_timezone(timezone), expected)
def test_iso_without_profiles_is_global(self):
self.assertEqual(region.region_for_timezone("Asia/Shanghai", self.root / "missing"), "global")
self.assertEqual(region.resolve_region({}, "Asia/Shanghai", self.root / "missing"), "global")
def test_autoinstall_region_overrides_timezone(self):
self.assertEqual(region.resolve_region({"region": "cn"}, "UTC"), "cn")
self.assertEqual(region.resolve_region({"region": "global"}, "Asia/Shanghai"), "global")
self.assertEqual(region.resolve_region({}, "Asia/Shanghai"), "cn")
for bad in ("us", "CN", "..", "cn/../cn", True, 1, ["cn"]):
with self.subTest(region=bad), self.assertRaises(RuntimeError):
region.resolve_region({"region": bad}, "UTC")
def test_profile_packages_and_keyrings(self):
self.assertEqual(region.region_packages("cn"), ["archlinuxcn-keyring", "extra-tool"])
self.assertEqual(region.region_keyrings("cn"), ["archlinuxcn"])
self.assertEqual(region.region_packages("global"), [])
self.assertEqual(region.region_keyrings("global"), [])
def from_env(self, config: dict) -> context.InstallContext:
config_path = self.root / "config.json"
creds_path = self.root / "creds.json"
config_path.write_text(json.dumps(config))
creds_path.write_text(json.dumps({"users": [{"username": "test"}]}))
with mock.patch.dict(os.environ, {
"OMARCHY_INSTALL_CONFIG": str(config_path),
"OMARCHY_INSTALL_CREDS": str(creds_path),
"OMARCHY_INSTALL_STATE_DIR": str(self.root / "state"),
}, clear=True), mock.patch.object(context, "_default_kernel", return_value="linux-omarchy"):
return context.InstallContext.from_env()
def test_context_resolves_region_before_install(self):
self.assertEqual(self.from_env({"timezone": "Asia/Shanghai"}).region, "cn")
self.assertEqual(self.from_env({"timezone": "Europe/Berlin"}).region, "global")
# Deferred installs carry UTC until first boot, so they are global
# unless the autoinstall config names a region.
self.assertEqual(self.from_env({"timezone": "UTC"}).region, "global")
self.assertEqual(self.from_env({"timezone": "UTC", "omarchy_install": {"region": "cn"}}).region, "cn")
with self.assertRaises(RuntimeError):
self.from_env({"omarchy_install": {"region": "zz"}})
def test_marker_is_written_only_for_regional_targets(self):
target = self.root / "target"
phases_impl._write_region_marker(types.SimpleNamespace(target=target, region="global"))
self.assertFalse((target / "etc/omarchy/region").exists())
phases_impl._write_region_marker(types.SimpleNamespace(target=target, region="cn"))
marker = target / "etc/omarchy/region"
self.assertEqual(marker.read_text(), "cn\n")
self.assertEqual(marker.stat().st_mode & 0o777, 0o644)
def test_region_packages_install_while_the_offline_mirror_is_mounted(self):
for selected, expected_packages in [("global", []), ("cn", [["archlinuxcn-keyring", "extra-tool"]])]:
with self.subTest(region=selected), ExitStack() as stack:
events = []
installer = mock.MagicMock()
installer.add_additional_packages.side_effect = lambda packages: events.append(packages)
config = types.SimpleNamespace(
kernels=["linux-omarchy"], locale_config=None, mirror_config=None,
swap=None, auth_config=None, app_config=None, timezone=None,
ntp=False, hostname="test", pacman_config="/etc/pacman.conf",
)
ctx = types.SimpleNamespace(
state={"arch_config_handler": types.SimpleNamespace(config=config), "mirror_handler": None},
target=self.root / "target", tailscale_authkey_path=None, omarchy_install={},
region=selected,
)
for name in ("_mount_offline_package_cache", "_mask_mkinitcpio_pacman_hooks",
"_unmask_mkinitcpio_pacman_hooks", "_configure_limine_boot",
"_write_pre_mounted_fstab", "_install_early_packages"):
stack.enter_context(mock.patch.object(phases_impl, name))
stack.enter_context(mock.patch.object(
phases_impl, "_unmount_offline_package_cache", side_effect=lambda _: events.append("unmount")))
stack.enter_context(mock.patch.object(phases_impl, "configure_keyboard", return_value=True))
stack.enter_context(mock.patch.object(phases_impl, "_runtime_package_list", return_value=["omarchy"]))
for name, value in (("is_pre_mount", True), ("root_user", None)):
stack.enter_context(mock.patch.object(phases_impl.arch, name, return_value=value, create=True))
stack.enter_context(mock.patch.object(phases_impl.arch, "sanity_check", create=True))
opened = stack.enter_context(mock.patch.object(phases_impl.arch, "open_installer", create=True))
opened.return_value.__enter__.return_value = installer
phases_impl.arch_install_system(ctx)
self.assertEqual(events, [["linux-omarchy-headers"], ["omarchy"], *expected_packages, "unmount"])
self.assertEqual((ctx.target / "etc/omarchy/region").exists(), selected != "global")
def test_finalizer_trusts_only_the_selected_region(self):
for selected, expected in [
("global", []),
("cn", [["pacman-key", "--init"], ["pacman-key", "--populate", "archlinux", "archlinuxcn"]]),
]:
with self.subTest(region=selected), \
mock.patch.object(phases_impl, "_run_target_setup_command") as run, \
mock.patch.object(phases_impl, "_mask_mkinitcpio_pacman_hooks"), \
mock.patch.object(phases_impl, "_unmask_mkinitcpio_pacman_hooks"):
ctx = types.SimpleNamespace(region=selected, defer_provisioning=True, target=Path("/unused"))
phases_impl.run_system_finalizer(ctx)
commands = [call.args[1] for call in run.call_args_list]
self.assertEqual(commands[:-1], expected)
self.assertEqual(commands[-1][0], "/usr/bin/omarchy-apply-system")
class PrepareRegionsTest(unittest.TestCase):
def run_prepare(self, regions: Path, root: Path) -> tuple[Path, Path, str]:
payload = root / "payload"
payload.mkdir()
online = root / "online.conf"
online.write_text("[core]\nInclude = /etc/pacman.d/mirrorlist\n")
stubs = root / "bin"
stubs.mkdir()
log = root / "calls.log"
for name in ("pacman", "pacman-key"):
stub = stubs / name
stub.write_text(f'#!/bin/bash\necho "{name} $*" >> "{log}"\n')
stub.chmod(0o755)
subprocess.run(
["bash", str(ROOT / "builder/prepare-regions.sh"), str(regions), str(payload), str(online)],
env={**os.environ, "PATH": f"{stubs}:{os.environ['PATH']}"},
check=True, capture_output=True, text=True,
)
return payload, online, log.read_text() if log.exists() else ""
def test_ships_every_profile_and_bootstraps_its_keyring(self):
with tempfile.TemporaryDirectory() as tmp:
root = Path(tmp)
regions = write_profiles(root)
payload, online, calls = self.run_prepare(regions, root)
self.assertEqual((payload / "regions/cn/timezones").read_text(), (regions / "cn/timezones").read_text())
self.assertIn("[archlinuxcn]", online.read_text())
self.assertTrue(online.read_text().startswith("[core]\n"))
self.assertEqual(calls.splitlines(), [
f"pacman --config {online} --noconfirm -Sy --needed archlinuxcn-keyring",
"pacman-key --populate archlinuxcn",
])
def settings_package(self, root: Path, with_regions: bool) -> Path:
tree = root / "pkgroot"
(tree / "usr/share/omarchy/default/pacman").mkdir(parents=True)
if with_regions:
write_profiles(root / "src")
(root / "src/regions").rename(tree / "usr/share/omarchy/default/regions")
package = root / "omarchy-settings-1-1-any.pkg.tar.zst"
subprocess.run(["bsdtar", "--zstd", "-cf", str(package), "-C", str(tree), "usr"], check=True)
return package
def test_published_build_reads_profiles_from_the_settings_package(self):
with tempfile.TemporaryDirectory() as tmp:
root = Path(tmp)
payload, online, calls = self.run_prepare(self.settings_package(root, with_regions=True), root)
self.assertEqual((payload / "regions/cn/packages").read_text(), "# keyring first\narchlinuxcn-keyring\nextra-tool\n")
self.assertIn("[archlinuxcn]", online.read_text())
self.assertIn("pacman-key --populate archlinuxcn", calls)
def test_settings_package_without_profiles_builds_a_global_iso(self):
with tempfile.TemporaryDirectory() as tmp:
root = Path(tmp)
payload, online, calls = self.run_prepare(self.settings_package(root, with_regions=False), root)
self.assertFalse((payload / "regions").exists())
self.assertEqual(calls, "")
def test_unreadable_settings_package_fails_the_build(self):
with tempfile.TemporaryDirectory() as tmp:
root = Path(tmp)
package = root / "omarchy-settings-1-1-any.pkg.tar.zst"
package.write_text("not an archive")
with self.assertRaises(subprocess.CalledProcessError):
self.run_prepare(package, root)
def test_runtime_without_profiles_builds_a_global_iso(self):
with tempfile.TemporaryDirectory() as tmp:
root = Path(tmp)
payload, online, calls = self.run_prepare(root / "missing", root)
self.assertFalse((payload / "regions").exists())
self.assertNotIn("archlinuxcn", online.read_text())
self.assertEqual(calls, "")
if __name__ == "__main__":
unittest.main()