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Author SHA1 Message Date
David Heinemeier Hansson efd01e815a Revert "Exclude install media from disk picker (#73)"
This reverts commit eadb1c05d4.
2026-04-28 11:57:07 +02:00
79 changed files with 930 additions and 26017 deletions

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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
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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
+32 -26
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@@ -2,34 +2,40 @@ name: Nightly ISO Build
on:
schedule:
- cron: "1 0 * * *" # Daily at 00:01 UTC
workflow_dispatch: # Allow manual triggering
- cron: '1 0 * * *' # Daily at 00:01 UTC
workflow_dispatch: # Allow manual triggering
jobs:
build-iso:
runs-on: ubuntu-latest
container:
image: archlinux/archlinux:latest
options: --privileged
steps:
- name: Checkout repository
uses: actions/checkout@v4
- name: Set up Docker Buildx
uses: docker/setup-buildx-action@v3
- name: Free Disk Space
uses: jlumbroso/free-disk-space@v1.3.1
- name: Build ISO
run: NO_BOOT_OFFER=1 ./bin/omarchy-iso-make
- name: Delete previously uploaded ISO artifact
uses: philips-labs/action-delete-artifacts@v1.0.0
with:
workflow: nightly-build.yml
continue-on-error: true
- name: Upload newly built ISO artifact
uses: actions/upload-artifact@v4
with:
name: omarchy-iso-${{ github.run_number }}
path: ./release/*.iso
retention-days: 1
- name: Checkout repository
uses: actions/checkout@v4
- name: Set up Docker Buildx
uses: docker/setup-buildx-action@v3
- name: Build ISO in Arch Linux container
run: |
docker run --rm \
--privileged \
-v "${{ github.workspace }}:/workspace" \
-w /workspace \
archlinux:latest \
bash -c "
pacman -Syu --noconfirm && \
chmod +x build_iso.sh && \
./build_iso.sh
"
- name: Upload ISO artifact
uses: actions/upload-artifact@v4
with:
name: omarchy-iso-${{ github.run_number }}
path: out/*.iso
retention-days: 30
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@@ -1,55 +0,0 @@
name: Unit tests
# The fast, VM-free tests under test/unit/: cidata autoinstall loading and the
# orchestrator's phases. Seconds per run, no ISO build; the install test
# covers the rest.
on:
pull_request:
push:
branches: [quattro]
workflow_dispatch:
permissions:
contents: read
jobs:
unit:
runs-on: ubuntu-24.04
timeout-minutes: 10
steps:
- uses: actions/checkout@08c6903cd8c0fde910a37f88322edcfb5dd907a8 # v5
# The tests run where the code they cover runs: on Arch, the same as
# the live ISO and an Omarchy workstation. The container boots systemd
# because the keyboard tests ask the real localectl for its keymaps, and
# the tests run as an ordinary user because some of them check what
# happens when a file cannot be written.
#
# A privileged container shares the host's consoles and devices, so the
# units that would claim them are masked before systemd starts: without
# that, its getty, udev and vconsole setup take over the host's.
- name: Run ./test/all in an Arch container
run: |
docker run -d --name unit --privileged --cgroupns=host \
-v /sys/fs/cgroup:/sys/fs/cgroup:rw --tmpfs /run --tmpfs /tmp:exec \
-v "$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
'
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@@ -1,9 +1,2 @@
release/**
vm-saves/**
# Python bytecode (orchestrator)
__pycache__/
*.pyc
# Acceptance test harness artifacts
test-runs/**
+1 -1
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@@ -1,6 +1,6 @@
MIT License
Copyright (c) 2026 Anton Hvornum
Copyright (c) 2025 Anton Hvornum
Permission is hereby granted, free of charge, to any person obtaining a copy
of this software and associated documentation files (the "Software"), to deal
+12 -132
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@@ -1,158 +1,38 @@
# Omarchy ISO
The Omarchy ISO is the only supported way to install Omarchy. It ships the Omarchy Configurator, installs Arch Linux, installs the Omarchy packages from the bundled mirror, runs target system setup in the chroot, creates the user, and runs `omarchy-setup-user` for that user.
The Omarchy ISO streamlines [the installation of Omarchy](https://learn.omacom.io/2/the-omarchy-manual/50/getting-started). It includes the Omarchy Configurator as a front-end to archinstall and automatically launches the [Omarchy Installer](https://github.com/basecamp/omarchy) after base arch has been setup.
## Downloading the latest ISO
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.
Run `./bin/omarchy-iso-make` and the output goes into `./release`. You can build from your local $OMARCHY_PATH for testing by using `--local-source` or from a checkout of the dev branch (instead of master) by using `--dev`.
For local development, build the ISO from sibling checkouts:
### Environment Variables
You can customize the repositories used during the build process by passing in variables:
- `OMARCHY_INSTALLER_REPO` - GitHub repository for the installer (default: `basecamp/omarchy`)
- `OMARCHY_INSTALLER_REF` - Git ref (branch/tag) for the installer (default: `master`)
Example usage:
```bash
./bin/omarchy-iso-make --local-source ../omarchy-installer ../omarchy-pkgs
OMARCHY_INSTALLER_REPO="myuser/omarchy-fork" OMARCHY_INSTALLER_REF="some-feature" ./bin/omarchy-iso-make
```
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.
Use `--dev` or `--rc` to build against those package channels. Both `--dev` and `--edge` select the dev packages from the edge mirror.
### Regional builds
`--region cn` adds China bootstrap defaults independently of the channel. The default, `--region global`, preserves the existing package set, mirrors, cache paths, and artifact names. Supported country profiles use lowercase ISO 3166-1 alpha-2 codes; currently only `cn` is implemented.
For an unpublished regional runtime, use matching local source and package-recipe checkouts:
```bash
./bin/omarchy-iso-make --region cn --no-boot-offer --local-source /path/to/omarchy /path/to/omarchy-pkgs
```
China builds keep the channel mirror first, append the USTC Arch mirror, and add ArchLinuxCN with its verified keyring. These are a practical bridge until Omarchy runs its own mirror in China; USTC is rolling, not a matching stable/RC snapshot, so fallback version compatibility is not guaranteed. The region architecture also stages optional new-user defaults before user creation, including deferred setup, without touching existing homes. The China profile ships repository defaults and preselects `Asia/Shanghai` as the timezone; language and input-method defaults come as separate changes. See `docs/regions.md` in the companion runtime checkout.
Non-global cache and ISO names gain a `-cn` suffix. A runtime without the selected profile fails the build. These builds require an x86_64 Arch container environment; packaging checks on another architecture do not substitute for a fresh build, offline installation, and graphical acceptance run.
## Autoinstall
The shipped ISO installs itself with no keyboard when it finds its configuration on a second drive. Attach a drive labeled `cidata` alongside the ISO and the installer copies the config off it and skips the configurator; with no such drive, nothing changes and the wizard runs as usual. No rebuild, no extra boot entry.
`cidata` is the cloud-init `NoCloud` label, so Proxmox, libvirt, and Packer already know how to attach one.
### Configuration files
These are the configurator's own output files, so the way to get a starting set is to run one interactive install and copy what it wrote into `/root`.
| File | Required | Purpose |
|------|----------|---------|
| `user_configuration.json` | Yes | archinstall config: disk, hostname, timezone, keyboard |
| `user_credentials.json` | Yes | Username and password hash |
| `user_full_name.txt` | No | Git full name |
| `user_email_address.txt` | No | Git email |
| `user_encrypt_installation.txt` | No | `true` when `user_configuration.json` carries a `disk_encryption` block; defaults to false |
| `authorized_keys` | No | SSH public keys in sshd's own format, one per line |
| `tailscale_authkey` | No | Tailscale auth key; the machine joins your tailnet on first boot |
Both required files must be present or the installer falls back to the configurator. Generate the password hash for `user_credentials.json` with `openssl passwd -6 "yourpassword"`.
Encryption itself is configured by the `disk_encryption` block inside `user_configuration.json` — which carries the passphrase in plaintext, so treat a drive built from an encrypted install accordingly. The flag file must match it: it drives the encrypted install's SDDM autologin and the final boot validation, not the encryption.
`authorized_keys` is the same file sshd reads — copy your own or write one key per line:
```
ssh-ed25519 AAAA... you@host
```
When `authorized_keys` is present, autoinstall installs it as the user's `~/.ssh/authorized_keys`, enables `sshd`, and adds a `ufw allow ssh` rule — a stock Omarchy install ships openssh with the service disabled and its firewall opens neither port 22 nor anything else beyond LocalSend. Networking needs nothing extra; NetworkManager is already enabled with DHCP. Password SSH authentication is left at the distro default. An `authorized_keys` with no usable keys fails the install rather than producing a machine nobody can reach.
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.
### Building the drive
```bash
mkdir cidata
cp user_configuration.json user_credentials.json authorized_keys cidata/
genisoimage -output cidata.iso -volid cidata -joliet -rock cidata/
```
### Proxmox example
```bash
qm create 101 --name my-omarchy \
--bios ovmf --machine q35 --cpu host --cores 4 --memory 8192 \
--ostype l26 --scsihw virtio-scsi-single \
--efidisk0 local-lvm:0,efitype=4m,pre-enrolled-keys=0 \
--scsi0 local-lvm:40,discard=on,iothread=1 \
--net0 virtio,bridge=vmbr0 --vga virtio --serial0 socket \
--ide2 local:iso/omarchy.iso,media=cdrom \
--ide3 local:iso/cidata.iso,media=cdrom \
--boot order='scsi0;ide2'
qm start 101
```
Boot order is disk first: the empty disk falls through to the ISO on the first boot, and the installed system boots from disk afterwards. The machine reboots into Omarchy on its own when the install finishes.
Encrypted autoinstalls are not fully unattended — the LUKS passphrase prompt still needs someone at the first boot.
## Testing the ISO
Run `./bin/omarchy-iso-boot [release/omarchy.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
synthetic disk in `/tmp` with an existing ESP and data partition plus ample
unallocated space, then offers to start an interactive installation on it. The
fixture exercises Windows partition preservation but does not contain Windows.
## Acceptance testing the ISO
Run `./bin/omarchy-iso-test [release/omarchy.iso]` to install the ISO into a headless VM by driving the real interactive install flow — the harness reads each screen via QMP screendumps + OCR and answers with virtual keystrokes, so the configurator wizard, install dashboard, reboot prompt, and SDDM login are all exercised exactly as a user would. It then boots the installed system, sends real VM keyboard shortcuts for the primary shell and window-management actions, and runs the in-guest acceptance suite (`test/acceptance` in the omarchy repo). The suite checks session and service health, the complete core-package manifest, user defaults, representative applications, menus, panels, live weather, launchers, visual selectors, notifications, clipboard, and other interactive shell behavior.
Visual checkpoints are saved as `success-<step>.png` or `failure-<step>.png` alongside the serial and install logs in `test-runs/<iso>/runs/<timestamp>/`. Independent test files and applications continue after a failure so one broken surface does not hide the rest of the report. The harness then stops the VM and opens the ordered screenshots in `imv` for quick visual review.
The harness syncs the acceptance suite from `$OMARCHY_PATH` when it is available. The install phase produces a reusable base image, so iterating against another checkout is fast:
```bash
./bin/omarchy-iso-test release/omarchy.iso --install-only # once per ISO
./bin/omarchy-iso-test release/omarchy.iso --reuse-base \
--sync-omarchy ../omarchy # fast loop against local tests
```
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.
Run `./bin/omarchy-iso-sign [gpg-user] [release/omarchy.iso]`.
## Uploading the ISO
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.
Run `./bin/omarchy-iso-upload [release/omarchy.iso]`. This requires you've configured rclone (use `rclone config`).
## Full release of the ISO
+14 -138
View File
@@ -2,168 +2,44 @@
set -e
ISO=""
REUSE=""
SSH_HOST="${OMARCHY_VM_SSH_HOST:-127.0.0.1}"
SSH_PORT="${OMARCHY_VM_SSH_PORT:-2222}"
NETWORK="${OMARCHY_VM_NETWORK:-1}"
DISK="${OMARCHY_VM_DISK:-/tmp/omarchy-iso-boot.qcow2}"
OVMF_VARS="${OMARCHY_VM_OVMF_VARS:-/tmp/OVMF_VARS.4m.fd}"
EXTRA_QEMU_ARGS=()
ISO="$1"
REUSE="$2"
usage() {
cat <<USAGE
Usage: omarchy-iso-boot [options] [release/omarchy.iso] [reuse]
Options:
--reuse Reuse the existing VM disk
--ssh-port PORT Forward host PORT to guest port 22 (default: $SSH_PORT)
--ssh-host HOST Host address for SSH forwarding (default: $SSH_HOST)
--no-network Boot without a virtual NIC
--disk PATH VM disk path (default: $DISK)
--ovmf-vars PATH OVMF vars path (default: $OVMF_VARS)
-h, --help Show this help
-- Pass the remaining arguments directly to QEMU
SSH access after starting sshd in the guest:
ssh -p $SSH_PORT root@localhost
scp -P $SSH_PORT /path/to/system-manifest root@localhost:/tmp/
USAGE
}
while (( $# > 0 )); do
case "$1" in
--reuse|reuse)
REUSE="reuse"
shift
;;
--ssh-port)
SSH_PORT="${2:-}"
shift 2
;;
--ssh-port=*)
SSH_PORT="${1#*=}"
shift
;;
--ssh-host)
SSH_HOST="${2:-}"
shift 2
;;
--ssh-host=*)
SSH_HOST="${1#*=}"
shift
;;
--no-network|--no-net)
NETWORK=0
shift
;;
--disk)
DISK="${2:-}"
shift 2
;;
--disk=*)
DISK="${1#*=}"
shift
;;
--ovmf-vars)
OVMF_VARS="${2:-}"
shift 2
;;
--ovmf-vars=*)
OVMF_VARS="${1#*=}"
shift
;;
-h|--help)
usage
exit 0
;;
--)
shift
EXTRA_QEMU_ARGS+=("$@")
break
;;
*)
if [[ -z $ISO ]]; then
ISO="$1"
else
echo "Unexpected argument: $1" >&2
usage >&2
exit 1
fi
shift
;;
esac
done
if [[ -z $ISO && -t 0 ]]; then
if [ $# -eq 0 ]; then
ISO=$(ls -t release/*.iso 2>/dev/null | gum choose --header "Select ISO to boot")
if gum confirm --default=false "Reuse existing disk?"; then
REUSE="reuse"
fi
fi
if [[ -z $ISO ]]; then
usage
exit 1
fi
if [[ -z $DISK || -z $OVMF_VARS ]]; then
echo "Disk and OVMF vars paths must not be empty" >&2
if [ -z "$ISO" ]; then
echo "Usage: omarchy-iso-boot [release/omarchy.iso] [reuse]"
echo " SSH available at: ssh -p 2222 root@localhost (after installing openssh)"
exit 1
fi
omarchy-pkg-add qemu-full edk2-ovmf
if [[ -z ${WAYLAND_DISPLAY:-} && -z ${DISPLAY:-} ]]; then
while IFS='=' read -r name value; do
case "$name" in
WAYLAND_DISPLAY|DISPLAY|XAUTHORITY|XDG_SESSION_TYPE)
export "$name=$value"
;;
esac
done < <(systemctl --user show-environment 2>/dev/null || true)
fi
if [[ -z ${WAYLAND_DISPLAY:-} && -z ${DISPLAY:-} ]]; then
echo "Unable to find a graphical session for QEMU." >&2
echo "Run omarchy-iso-boot from the Omarchy desktop session." >&2
exit 1
fi
DISK="/tmp/omarchy-iso-boot.qcow2"
if [[ ! -f $DISK || $REUSE != "reuse" ]]; then
qemu-img create -f qcow2 "$DISK" 40G
cp /usr/share/edk2/x64/OVMF_VARS.4m.fd "$OVMF_VARS"
fi
NET_ARGS=()
if [[ $NETWORK != "0" && $NETWORK != "false" && $NETWORK != "no" ]]; then
if [[ -n $SSH_PORT && $SSH_PORT != "0" ]]; then
NET_ARGS=(-netdev "user,id=net0,hostfwd=tcp:${SSH_HOST}:${SSH_PORT}-:22" -device virtio-net-pci,netdev=net0)
echo "SSH forwarding enabled: ssh -p $SSH_PORT root@localhost"
echo "SCP example: scp -P $SSH_PORT /path/to/system-manifest root@localhost:/tmp/"
else
NET_ARGS=(-netdev user,id=net0 -device virtio-net-pci,netdev=net0)
echo "Networking enabled without SSH port forwarding."
fi
else
echo "Networking disabled."
cp /usr/share/edk2/x64/OVMF_VARS.4m.fd /tmp/OVMF_VARS.4m.fd
fi
# Boot from ISO before we've installed, then boot from drive after
qemu-system-x86_64 \
-cpu host -enable-kvm -machine q35,accel=kvm \
-smp "$(($(nproc) < 8 ? $(nproc) : 8))" \
-smp "$(nproc)" \
-m 8192 \
-drive if=pflash,format=raw,readonly=on,file=/usr/share/edk2/x64/OVMF_CODE.4m.fd \
-drive if=pflash,format=raw,file="$OVMF_VARS" \
-drive if=pflash,format=raw,file=/tmp/OVMF_VARS.4m.fd \
-drive file="$DISK",format=qcow2,if=none,id=drive0 \
-device virtio-blk-pci,drive=drive0,bootindex=1 \
-drive file="$ISO",media=cdrom,if=none,format=raw,id=cdrom0 \
-device ide-cd,drive=cdrom0,bootindex=2 \
-device virtio-vga-gl \
-display sdl,gl=on \
-display gtk,gl=on \
-usb -device usb-tablet \
-serial none \
"${NET_ARGS[@]}" \
-boot menu=on \
"${EXTRA_QEMU_ARGS[@]}"
-netdev user,id=net0,hostfwd=tcp::2222-:22 \
-device virtio-net-pci,netdev=net0 \
-boot menu=on
-16
View File
@@ -1,16 +0,0 @@
#!/usr/bin/env bash
set -euo pipefail
repo_root="$(cd "$(dirname "${BASH_SOURCE[0]}")/.." && pwd)"
if [[ -z "${OMARCHY_PATH:-}" ]]; then
for candidate in "$repo_root/../omarchy-installer" "$repo_root/../omarchy" /usr/share/omarchy; do
if [[ -f "$candidate/logo.txt" ]]; then
export OMARCHY_PATH="$candidate"
break
fi
done
fi
# Do a dry-run of the configurator to show the flow without having to do a real installation
exec bash "$repo_root/configs/airootfs/root/configurator" dry "$@"
-142
View File
@@ -1,142 +0,0 @@
#!/usr/bin/env bash
# Preview the shipped Omarchy installer dashboard without building an ISO.
set -euo pipefail
# The dashboard drives the package phase from the target's pacman database, so
# fake one here; without it the preview falls back to its time curve and the bar
# barely moves, which reads as a bug.
PREVIEW_PACKAGES="${PREVIEW_PACKAGES:-925}"
write_simulation_state() {
local state_file="$1" started_at="$2" phase_started_at="$3" current_phase="$4"
local target="$5" index="$6" total="$7"
local finished_at="${8:-null}" temporary="${state_file}.tmp"
jq -n \
--argjson started_at "$started_at" \
--argjson phase_started_at "$phase_started_at" \
--arg current_phase "$current_phase" \
--arg target "$target" \
--argjson current_index "$index" \
--argjson total_phases "$total" \
--argjson finished_at "$finished_at" \
'{
started_at: $started_at,
phase_started_at: $phase_started_at,
current_phase: $current_phase,
target: $target,
current_index: $current_index,
total_phases: $total_phases
} + if $finished_at == null then {} else {finished_at: $finished_at} end' \
>"$temporary"
mv -f -- "$temporary" "$state_file"
}
# Fill the fake database over the phase's duration, so the bar is driven by the
# same count it uses on a real install.
simulate_packages() {
local db="$1" duration="$2" total="$3" steps=25 i n
for ((i = 1; i <= steps; i++)); do
n=$(( total * i / steps ))
while (( $(ls -1 "$db" 2>/dev/null | wc -l) < n )); do
mkdir -p "$db/preview-$(( $(ls -1 "$db" 2>/dev/null | wc -l) ))-1.0-1"
done
sleep "$(awk -v d="$duration" -v s="$steps" 'BEGIN { printf "%.3f", d / s }')"
done
}
simulate_install() {
local state_file="$1"
local started_at="$EPOCHREALTIME"
local phase phase_started_at finished_at duration i index total
local target db
target="$(dirname -- "$state_file")/target"
db="$target/var/lib/pacman/local"
mkdir -p "$db"
local -a phases=(
"Starting installation" 0.5
"Preparing live environment" 0.8
"Preparing install target" 0.3
"Installing Arch + Omarchy" 5.0
"Configuring hibernation" 0.4
"Configuring system" 1.2
"Finalizing Limine boot" 1.0
"Finalizing user" 1.0
"Configuring login" 0.6
"Configuring DNS resolver" 0.3
"Validating boot setup" 0.8
)
total=$(( ${#phases[@]} / 2 ))
for ((i = 0; i < ${#phases[@]}; i += 2)); do
phase="${phases[i]}"
duration="${phases[i + 1]}"
index=$(( i / 2 ))
phase_started_at="$EPOCHREALTIME"
write_simulation_state "$state_file" "$started_at" "$phase_started_at" \
"$phase" "$target" "$index" "$total"
if [[ $phase == "Installing Arch + Omarchy" ]]; then
simulate_packages "$db" "$duration" "$PREVIEW_PACKAGES"
else
sleep "$duration"
fi
done
finished_at="$EPOCHREALTIME"
write_simulation_state "$state_file" "$started_at" "$finished_at" \
"Installation complete" "$target" "$(( total - 1 ))" "$total" "$finished_at"
sleep 0.3
}
if [[ ${1:-} == "--simulate-install" ]]; then
(( $# == 2 )) || exit 2
simulate_install "$2"
exit 0
fi
if (( $# > 0 )); then
echo "Usage: $0" >&2
exit 2
fi
repo_root="$(cd -- "$(dirname -- "${BASH_SOURCE[0]}")/.." && pwd)"
dashboard="$repo_root/configs/airootfs/usr/local/bin/omarchy-install-dashboard"
if [[ ! -x $dashboard ]]; then
echo "Installer dashboard is not executable: $dashboard" >&2
exit 1
fi
if [[ -z ${OMARCHY_PATH:-} ]]; then
for candidate in "$repo_root/../omarchy" /usr/share/omarchy; do
if [[ -f $candidate/logo.txt ]]; then
export OMARCHY_PATH="$candidate"
break
fi
done
fi
if [[ -z ${OMARCHY_PATH:-} || ! -f $OMARCHY_PATH/logo.txt ]]; then
echo "Unable to find Omarchy logo.txt; set OMARCHY_PATH to an Omarchy checkout." >&2
exit 1
fi
preview_dir="$(mktemp -d)"
cleanup() {
rm -rf "$preview_dir"
}
trap cleanup EXIT
log_file="$preview_dir/install.log"
state_file="$preview_dir/state.json"
touch "$log_file"
# Match what the simulated database will reach, so the preview shows the
# package-driven bar rather than the missing-signal fallback.
printf '%s\n' "$PREVIEW_PACKAGES" >"$preview_dir/expected-packages"
OMARCHY_UI_AUTO_REBOOT=no \
OMARCHY_EXPECTED_PACKAGES_FILE="$preview_dir/expected-packages" \
PREVIEW_PACKAGES="$PREVIEW_PACKAGES" \
"$dashboard" "$log_file" "$state_file" -- \
"$0" --simulate-install "$state_file"
+35 -137
View File
@@ -1,206 +1,104 @@
#!/bin/bash
# Abort if anything fails
set -e
# Parse command line arguments
NO_CACHE=""
KEEP_PKG_CACHE=""
LOCAL_OMARCHY_PATH=""
LOCAL_PKGS_PATH=""
OMARCHY_REGION="${OMARCHY_REGION:-global}"
while [[ $# -gt 0 ]]; do
case $1 in
--region)
OMARCHY_REGION="${2:-}"
if [[ $OMARCHY_REGION != "global" && $OMARCHY_REGION != "cn" ]]; then
echo "Error: --region requires global or cn (ISO 3166-1 alpha-2)." >&2
exit 1
fi
shift 2
;;
--no-cache)
NO_CACHE=1
shift
;;
--keep-pkg-cache)
KEEP_PKG_CACHE=1
shift
;;
--no-boot-offer)
NO_BOOT_OFFER=1
shift
;;
--debug)
OMARCHY_INSTALL_DEBUG=1
shift
;;
--edge)
OMARCHY_ISO_REF=edge
OMARCHY_MIRROR=edge
shift
;;
--local-source)
LOCAL_OMARCHY_PATH="${2:-}"
LOCAL_PKGS_PATH="${3:-}"
if [[ -z $LOCAL_OMARCHY_PATH || -z $LOCAL_PKGS_PATH ]]; then
echo "Error: --local-source requires two args: <omarchy-checkout> <pkgs-checkout>" >&2
exit 1
fi
LOCAL_SOURCE=1
OMARCHY_MIRROR=edge
OMARCHY_ISO_REF=local
shift 3
shift
;;
--dev)
OMARCHY_ISO_REF=dev
OMARCHY_MIRROR=edge
shift
;;
--quattro)
OMARCHY_INSTALLER_REF=quattro
OMARCHY_INSTALLER_REF=dev
OMARCHY_MIRROR=edge
shift
;;
--rc)
OMARCHY_ISO_REF=rc
OMARCHY_MIRROR=rc
OMARCHY_INSTALLER_REF=rc
shift
;;
*)
echo "Unknown option: $1"
echo "Usage: $0 [--no-cache] [--keep-pkg-cache] [--no-boot-offer] [--debug] [--edge] [--dev|--rc] [--region global|cn] [--local-source <omarchy-checkout> <pkgs-checkout>]"
echo "Usage: $0 [--no-cache] [--no-boot-offer] [--local-source] [--dev] [--rc]"
exit 1
;;
esac
done
if [[ $OMARCHY_REGION != "global" && $OMARCHY_REGION != "cn" ]]; then
echo "Error: unsupported region '$OMARCHY_REGION'. Expected global or cn." >&2
exit 1
fi
# Clear out old packages
sudo rm -rf /var/cache/pacman/pkg/*
if [[ -n $LOCAL_OMARCHY_PATH ]]; then
[[ -d $LOCAL_OMARCHY_PATH ]] || { echo "Error: Omarchy checkout not found at $LOCAL_OMARCHY_PATH" >&2; exit 1; }
[[ -d $LOCAL_PKGS_PATH ]] || { echo "Error: pkgs checkout not found at $LOCAL_PKGS_PATH" >&2; exit 1; }
LOCAL_OMARCHY_PATH=$(realpath "$LOCAL_OMARCHY_PATH")
LOCAL_PKGS_PATH=$(realpath "$LOCAL_PKGS_PATH")
fi
lint_file_permissions() {
local profiledef="configs/profiledef.sh"
local -A declared=()
local missing=()
while IFS= read -r path; do
[[ -n $path ]] && declared["$path"]=1
done < <(grep -oP '^\s*\["\K[^"]+(?="\])' "$profiledef" || true)
while IFS= read -r f; do
[[ -f $f ]] || continue
local rel="${f#configs/airootfs}"
local mode
mode=$(git ls-files --stage -- "$f" | awk '{print $1}')
if [[ $mode != 100755 && $(head -c 2 "$f") != "#!" ]]; then
continue
fi
if [[ -z ${declared[$rel]+x} ]]; then
missing+=("$rel")
fi
done < <(find configs/airootfs/usr/local/bin configs/airootfs/root -type f 2>/dev/null)
if (( ${#missing[@]} > 0 )); then
echo "ERROR: the following executable files are missing from $profiledef file_permissions:" >&2
printf ' %s\n' "${missing[@]}" >&2
echo "Add entries like [\"<path>\"]=\"0:0:755\" to profiledef.sh and retry." >&2
exit 1
fi
}
lint_file_permissions
# 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 $KEEP_PKG_CACHE ]]; then
sudo rm -rf /var/cache/pacman/pkg/*
fi
# Ensure we have the submodule checked out
git submodule update --init --recursive --jobs=8
# Prepare build repo
BUILD_SCRIPT="builder/build-iso.sh"
BUILD_ROOT=$(realpath "${BASH_SOURCE[0]%/*}/..")
BUILD_RELEASE_PATH="$BUILD_ROOT/release"
mkdir -p "$BUILD_RELEASE_PATH"
# Each build writes into its own directory, so concurrent builds (such as a
# global and a regional one) never pick up and rename each other's ISO.
BUILD_OUT=$(mktemp -d "$BUILD_RELEASE_PATH/.build-XXXXXX")
trap 'rm -rf "$BUILD_OUT"' EXIT
OMARCHY_ISO_REF="${OMARCHY_ISO_REF:-quattro}"
OMARCHY_INSTALLER_REPO="${OMARCHY_INSTALLER_REPO:-basecamp/omarchy}"
OMARCHY_INSTALLER_REF="${OMARCHY_INSTALLER_REF:-master}"
OMARCHY_MIRROR="${OMARCHY_MIRROR:-stable}"
DOCKER_ARGS=(
--rm
--privileged
-e "OMARCHY_ISO_REF=$OMARCHY_ISO_REF"
-e "OMARCHY_INSTALLER_REPO=$OMARCHY_INSTALLER_REPO"
-e "OMARCHY_INSTALLER_REF=$OMARCHY_INSTALLER_REF"
-e "OMARCHY_MIRROR=$OMARCHY_MIRROR"
-e "OMARCHY_REGION=$OMARCHY_REGION"
-e "OMARCHY_INSTALL_DEBUG=${OMARCHY_INSTALL_DEBUG:-}"
-e "HOST_UID=$(id -u)"
-e "HOST_GID=$(id -g)"
-v "$BUILD_OUT/:/out/"
-v "$BUILD_RELEASE_PATH/:/out/"
-v "$BUILD_ROOT/$BUILD_SCRIPT:/$BUILD_SCRIPT:ro"
-v "$BUILD_ROOT/archiso:/archiso:ro"
-v "$BUILD_ROOT/builder:/builder:ro"
-v "$BUILD_ROOT/configs:/configs:ro"
)
if [[ -n $LOCAL_OMARCHY_PATH ]]; then
DOCKER_ARGS+=(
-v "$LOCAL_OMARCHY_PATH:/omarchy-source:ro"
-v "$LOCAL_PKGS_PATH:/omarchy-pkgs:ro"
)
# Use local source of Omarchy from $OMARCHY_PATH instead of git checkout
if [[ -n "${LOCAL_SOURCE-}" ]]; then
DOCKER_ARGS+=(-v "$OMARCHY_PATH:/omarchy:ro")
fi
if [[ -d /var/cache/pacman/pkg ]]; then
# Use local pacman cache if you already have one on host to speed up repeat runs
if [ -d "/var/cache/pacman/pkg" ]; then
DOCKER_ARGS+=(-v "/var/cache/pacman/pkg:/var/cache/pacman/pkg")
fi
# Channels and regions must not share an offline mirror cache. Keep the
# existing global cache path and artifact suffix unchanged.
region_suffix=""
if [[ $OMARCHY_REGION != "global" ]]; then
region_suffix="-$OMARCHY_REGION"
fi
# Mount the build cache directory where packages are downloaded
if [[ -z "$NO_CACHE" ]]; then
OFFLINE_REPO_BUILD_CACHE_DIR="$HOME/.cache/omarchy/iso_${OMARCHY_MIRROR}${region_suffix}/airootfs/var/cache/omarchy"
# using a dated dir on the host to refresh daily if building multiple times
BUILD_DATE=$(date +%Y-%m-%d)
OFFLINE_REPO_BUILD_CACHE_DIR="$HOME/.cache/omarchy/iso_${BUILD_DATE}/airootfs/var/cache/omarchy"
mkdir -p "$OFFLINE_REPO_BUILD_CACHE_DIR"
# Mount to /var/cache/airootfs/var/cache/omarchy since that's where repo packages go in the ISO
DOCKER_ARGS+=(-v "$OFFLINE_REPO_BUILD_CACHE_DIR:/var/cache/airootfs/var/cache/omarchy")
else
# The locally cached :latest image is a cache too — docker run never
# re-checks the registry for it, so refresh it when building cold.
DOCKER_ARGS+=(--pull=always)
fi
# The docker group is root-equivalent, so Omarchy operators stay out of it on
# purpose. When the socket refuses the calling user, run the client through
# sudo instead of requiring group membership.
DOCKER=(docker)
if ! docker version &>/dev/null; then
DOCKER=(sudo docker)
fi
# Run the builder with assembled args
docker run "${DOCKER_ARGS[@]}" archlinux/archlinux:latest /$BUILD_SCRIPT
"${DOCKER[@]}" run "${DOCKER_ARGS[@]}" archlinux/archlinux:latest /$BUILD_SCRIPT
# Move as install ref
latest_iso=$(\ls -t "$BUILD_RELEASE_PATH"/*.iso | head -n1)
iso_ref="${latest_iso%.*}-$OMARCHY_INSTALLER_REF.iso"
mv -f "$latest_iso" "$iso_ref"
built_isos=("$BUILD_OUT"/*.iso)
if (( ${#built_isos[@]} != 1 )) || [[ ! -f ${built_isos[0]} ]]; then
echo "Error: expected exactly one ISO in $BUILD_OUT" >&2
exit 1
fi
built_iso_name=$(basename "${built_isos[0]}" .iso)
iso_ref="$BUILD_RELEASE_PATH/$built_iso_name-${OMARCHY_ISO_REF}${region_suffix}.iso"
mv -f "${built_isos[0]}" "$iso_ref"
if [[ -z "${NO_BOOT_OFFER:-}" ]]; then
# Offer to boot the new build
if [[ -z "$NO_BOOT_OFFER" ]]; then
echo
gum confirm "Boot $iso_ref?" && "$BUILD_ROOT/bin/omarchy-iso-boot" "$iso_ref"
gum confirm "Boot $iso_ref?" && omarchy-iso-boot "$iso_ref"
fi
+6 -35
View File
@@ -1,12 +1,7 @@
#!/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
INSTALLER_REF=master
RELEASE_SUFFIX=""
while [[ $# -gt 0 ]]; do
@@ -17,7 +12,7 @@ while [[ $# -gt 0 ]]; do
;;
--rc)
MAKE_ARGS+=("$1")
ISO_REF=rc
INSTALLER_REF=rc
RELEASE_SUFFIX="-rc"
shift
;;
@@ -42,50 +37,26 @@ if [[ -z "${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"
# Make ISOs
if [[ ! " ${MAKE_ARGS[*]} " =~ " --no-make " ]]; then
echo -e "\e[32mMaking $ISO_REF ISO\e[0m"
echo -e "\e[32mMaking $INSTALLER_REF ISO\e[0m"
omarchy-iso-make --no-cache --no-boot-offer "${MAKE_ARGS[@]}"
else
echo -e "\e[31mSkipping remaking ISOs\e[0m"
fi
# Sign and upload ISO
latest_iso=$(\ls -t "$BUILD_RELEASE_PATH"/*x86_64-"$ISO_REF".iso | head -n1)
latest_iso=$(\ls -t "$BUILD_RELEASE_PATH"/*x86_64-"$INSTALLER_REF".iso | head -n1)
release_iso="$BUILD_RELEASE_PATH/omarchy-$BUILD_VERSION$RELEASE_SUFFIX.iso"
cp "$latest_iso" "$release_iso"
echo -e "\e[32mSigning $ISO_REF ISO\e[0m"
echo -e "\e[32mSigning $INSTALLER_REF ISO\e[0m"
omarchy-iso-sign "$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"
echo -e "\e[32mSHA256 for $INSTALLER_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"
+5 -39
View File
@@ -1,48 +1,14 @@
#!/bin/bash
set -euo pipefail
if [[ $# -ne 1 ]]; then
if [ $# -eq 0 ]; then
echo "usage: omarchy-iso-sign [release/omarchy.iso]"
exit 1
fi
iso="$1"
key_ref="op://Shared/Omarchy GPG Private Key/omarchy-private.asc"
if [[ ! -f $iso ]]; then
echo "ISO not found: $iso" >&2
exit 1
fi
if ! command -v op >/dev/null; then
echo "1Password CLI is required to retrieve the signing key." >&2
exit 1
fi
if ! pacman -Q gnupg >/dev/null 2>&1; then
if ! pacman -Q gnupg >/dev/null; then
sudo pacman -S --noconfirm --needed --quiet gnupg
echo "You'll need to import key with: gpg --import path/to/signing-key.asc"
fi
gnupg_home="$(mktemp -d)"
chmod 700 "$gnupg_home"
trap 'rm -rf "$gnupg_home"' EXIT
op read "$key_ref" --account Omarchy |
gpg --batch --homedir "$gnupg_home" --import >/dev/null
signing_key="$(
gpg --batch --homedir "$gnupg_home" --with-colons --list-secret-keys |
awk -F: '$1 == "fpr" { print $10; exit }'
)"
if [[ -z $signing_key ]]; then
echo "No private signing key found in $key_ref" >&2
exit 1
fi
gpg --batch --yes \
--homedir "$gnupg_home" \
--local-user "$signing_key" \
--output "$iso.sig" \
--detach-sig "$iso"
gnupg_user_key=$(gpg --list-secret-keys --keyid-format=long | awk '/^[[:space:]]/{print $1; exit}')
gpg --local-user "$gnupg_user_key" --output $1.sig --detach-sig $1
-1136
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File diff suppressed because it is too large. Load diff
-101
View File
@@ -1,101 +0,0 @@
#!/bin/bash
#
# Stop the VM a `omarchy-iso-test --keep-running` run left behind: graceful
# guest poweroff over SSH first, escalating to TERM then KILL. The base image
# is untouched either way; only the throwaway run overlay is affected.
#
# Usage: omarchy-iso-test-stop [--kill] [--port PORT]
#
# --kill Skip the graceful poweroff and kill the VM immediately
# --port PORT Host port forwarded to guest SSH (default 2222)
set -euo pipefail
SCRIPT_DIR="$(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 $SSH_PORT is free."
-338
View File
@@ -1,338 +0,0 @@
#!/bin/bash
set -euo pipefail
SCRIPT_DIR="$(cd "$(dirname "${BASH_SOURCE[0]}")" && pwd)"
REPO_ROOT="$(dirname "$SCRIPT_DIR")"
DISK_SIZE_GIB=96
MIN_FREE_GIB=64
RECREATE=0
GAP=0
ISO=""
ACTIVE_NBD=""
MOUNT_DIR=""
MOUNTED=0
TEMPORARY_DISK=""
usage() {
cat <<USAGE
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
- an existing ext4 data partition with a preservation marker
- more than 64GiB of contiguous unallocated space for Omarchy
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:
OMARCHY_ISO_TEST_WINDOWS_DISK
OMARCHY_ISO_TEST_WINDOWS_OVMF_VARS
USAGE
}
while (( $# > 0 )); do
case "$1" in
--recreate)
RECREATE=1
shift
;;
--gap)
GAP=1
shift
;;
-h|--help)
usage
exit 0
;;
-*)
echo "Unknown option: $1" >&2
usage >&2
exit 2
;;
*)
if [[ -n $ISO ]]; then
echo "Only one ISO may be specified." >&2
usage >&2
exit 2
fi
ISO="$1"
shift
;;
esac
done
# Separate images per layout so the two fixtures can coexist and neither has
# to be rebuilt to run the other.
if (( GAP )); then
TEST_DISK="${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
MOUNTED=0
fi
if [[ -n $MOUNT_DIR ]]; then
rmdir "$MOUNT_DIR" >/dev/null 2>&1 || true
MOUNT_DIR=""
fi
}
disconnect_disk() {
cleanup_mount
if [[ -n $ACTIVE_NBD ]]; then
sudo qemu-nbd --disconnect "$ACTIVE_NBD" >/dev/null 2>&1 || true
ACTIVE_NBD=""
fi
}
cleanup() {
disconnect_disk
[[ -z $TEMPORARY_DISK ]] || rm -f "$TEMPORARY_DISK"
}
trap cleanup EXIT
trap 'exit 130' INT
trap 'exit 143' TERM
find_free_nbd() {
local device
for device in /sys/class/block/nbd*; do
[[ -e $device ]] || continue
[[ ! -e $device/pid ]] || continue
printf '/dev/%s\n' "${device##*/}"
return 0
done
return 1
}
connect_disk() {
local disk="$1" mode="${2:-read-write}"
local -a options=(--format=qcow2)
ACTIVE_NBD="$(find_free_nbd)" || {
echo "No unused NBD device is available." >&2
return 1
}
[[ $mode == read-only ]] && options+=(--read-only)
if ! sudo qemu-nbd "${options[@]}" --connect="$ACTIVE_NBD" "$disk"; then
ACTIVE_NBD=""
return 1
fi
if ! sudo udevadm settle; then
disconnect_disk
return 1
fi
}
mount_partition() {
local partition="$1"
MOUNT_DIR="$(mktemp -d)" || return 1
if ! sudo mount -o "${2:-defaults}" "$partition" "$MOUNT_DIR"; then
rmdir "$MOUNT_DIR" >/dev/null 2>&1 || true
MOUNT_DIR=""
return 1
fi
MOUNTED=1
}
largest_free_region() {
sudo parted -ms "$1" unit B print free </dev/null 2>/dev/null |
awk -F: '
$NF ~ /free/ {
size=$4
gsub(/B/, "", size)
if (size+0 > max+0) max=size
}
END { print max+0 }
'
}
validate_test_disk() {
local part_count pttype free_space_b min_free_b want_parts numbers
local esp data valid=1
[[ -f $TEST_DISK ]] || return 1
qemu-img check -q "$TEST_DISK" >/dev/null 2>&1 || return 1
connect_disk "$TEST_DISK" read-only || return 1
esp="${ACTIVE_NBD}p1"
data="${ACTIVE_NBD}p2"
part_count=$(lsblk -nro TYPE "$ACTIVE_NBD" | awk '$1 == "part" { count++ } END { print count+0 }')
pttype=$(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
[[ $pttype == gpt ]] || valid=0
(( part_count == want_parts )) || valid=0
# The whole point of the gap fixture: slot 3 free, slot 4 in use.
if (( GAP )); then
numbers=$(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
[[ $(sudo blkid -s TYPE -o value "$data" 2>/dev/null || true) == ext4 ]] || valid=0
[[ $(sudo blkid -s LABEL -o value "$data" 2>/dev/null || true) == WINDOWS_DATA ]] || valid=0
if (( valid )); then
mount_partition "$esp" ro || valid=0
if (( valid )); then
sudo test -d "$MOUNT_DIR/EFI/Microsoft" || valid=0
fi
cleanup_mount
fi
if (( valid )); then
mount_partition "$data" ro || valid=0
if (( valid )); then
sudo test -f "$MOUNT_DIR/OMARCHY-MUST-NOT-TOUCH.txt" || valid=0
fi
cleanup_mount
fi
disconnect_disk
(( valid ))
}
create_test_disk() {
local esp data
mkdir -p "$(dirname "$TEST_DISK")"
TEMPORARY_DISK="${TEST_DISK}.creating.$$"
rm -f "$TEMPORARY_DISK"
gum style --foreground 6 "Creating synthetic Windows test disk at $TEST_DISK"
qemu-img create -f qcow2 "$TEMPORARY_DISK" "${DISK_SIZE_GIB}G"
connect_disk "$TEMPORARY_DISK"
sudo parted --script "$ACTIVE_NBD" mklabel gpt
sudo parted --script "$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
esp="${ACTIVE_NBD}p1"
data="${ACTIVE_NBD}p2"
sudo mkfs.fat -F32 -n WINDOWS_ESP "$esp" >/dev/null
sudo mkfs.ext4 -F -L WINDOWS_DATA "$data" >/dev/null 2>&1
mount_partition "$esp"
sudo mkdir -p "$MOUNT_DIR/EFI/Microsoft/Boot"
printf '%s\n' 'Synthetic Windows ESP for Omarchy ISO testing.' |
sudo tee "$MOUNT_DIR/EFI/Microsoft/README.txt" >/dev/null
cleanup_mount
mount_partition "$data"
printf '%s\n' 'This existing partition must survive the Omarchy installation.' |
sudo tee "$MOUNT_DIR/OMARCHY-MUST-NOT-TOUCH.txt" >/dev/null
cleanup_mount
sync
disconnect_disk
mv -f "$TEMPORARY_DISK" "$TEST_DISK"
TEMPORARY_DISK=""
}
select_iso() {
local -a isos=()
if [[ -n $ISO ]]; then
[[ -f $ISO ]] || {
echo "ISO not found: $ISO" >&2
return 1
}
realpath "$ISO"
return 0
fi
mapfile -t isos < <(
find "$REPO_ROOT/release" -maxdepth 1 -type f -name '*.iso' -printf '%T@ %p\n' 2>/dev/null |
sort -nr |
cut -d' ' -f2-
)
(( ${#isos[@]} > 0 )) || {
echo "No ISO found under $REPO_ROOT/release." >&2
return 1
}
printf '%s\n' "${isos[@]}" | gum choose --header "Select ISO to install"
}
omarchy-pkg-add qemu-full edk2-ovmf parted dosfstools e2fsprogs
sudo modprobe nbd max_part=16
if [[ -f $TEST_DISK ]] && (( ! RECREATE )); then
gum style --foreground 6 "Verifying existing test disk at $TEST_DISK"
if validate_test_disk; then
gum style --foreground 2 "✓ Synthetic Windows test disk is ready"
elif gum confirm --default=false "The existing test disk is not a pristine fixture. Recreate it?"; then
create_test_disk
else
gum style "Left the existing disk untouched."
exit 0
fi
else
create_test_disk
fi
# The synthetic fixture has no real Windows bootloader, so reset OVMF state for
# every run. The ISO still sees EFI/Microsoft and must leave that ESP untouched.
mkdir -p "$(dirname "$TEST_OVMF_VARS")"
cp /usr/share/edk2/x64/OVMF_VARS.4m.fd "$TEST_OVMF_VARS"
gum style --border rounded --padding "0 1" --border-foreground 6 \
"Synthetic Windows disk ready" \
"Disk: $TEST_DISK" \
"Layout: $LAYOUT_LABEL"
if gum confirm "Start installation on this disk?"; then
ISO="$(select_iso)"
trap - EXIT INT TERM
exec "$SCRIPT_DIR/omarchy-iso-boot" \
--reuse \
--disk "$TEST_DISK" \
--ovmf-vars "$TEST_OVMF_VARS" \
"$ISO" \
-- -boot once=d,menu=on
fi
+3 -19
View File
@@ -10,24 +10,8 @@ if [[ ! -f ~/.config/rclone/rclone.conf ]]; then
exit 1
fi
# 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
rclone copy $1 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
if [[ -f $1.sig ]]; then
rclone copy $1.sig Omarchy:omarchy/ -P
fi
exit $status
+15 -68
View File
@@ -4,8 +4,8 @@ set -e
SCRIPT_DIR="$(cd "$(dirname "${BASH_SOURCE[0]}")" && pwd)"
VM_DIR="$(dirname "$SCRIPT_DIR")/vm-saves"
TMP_DISK="${OMARCHY_VM_DISK:-/tmp/omarchy-iso-boot.qcow2}"
TMP_OVMF="${OMARCHY_VM_OVMF_VARS:-/tmp/OVMF_VARS.4m.fd}"
TMP_DISK="/tmp/omarchy-iso-boot.qcow2"
TMP_OVMF="/tmp/OVMF_VARS.4m.fd"
mkdir -p "$VM_DIR"
@@ -18,7 +18,7 @@ save_vm() {
fi
if [[ ! -f "$TMP_DISK" || ! -f "$TMP_OVMF" ]]; then
echo "Error: No active VM found at $TMP_DISK / $TMP_OVMF"
echo "Error: No active VM found in /tmp"
echo "Boot a VM first with: omarchy-iso-boot [iso]"
exit 1
fi
@@ -53,44 +53,7 @@ list_vms() {
}
boot_vm() {
local name=""
local boot_args=()
local active_disk="$TMP_DISK"
local active_ovmf="$TMP_OVMF"
if [[ $# -gt 0 && ${1:-} != --* ]]; then
name="$1"
shift
fi
while (( $# > 0 )); do
case "$1" in
--disk)
active_disk="${2:-}"
boot_args+=("$1" "${2:-}")
shift 2
;;
--disk=*)
active_disk="${1#*=}"
boot_args+=("$1")
shift
;;
--ovmf-vars)
active_ovmf="${2:-}"
boot_args+=("$1" "${2:-}")
shift 2
;;
--ovmf-vars=*)
active_ovmf="${1#*=}"
boot_args+=("$1")
shift
;;
*)
boot_args+=("$1")
shift
;;
esac
done
local name="$1"
if [[ -z "$(ls -A "$VM_DIR" 2>/dev/null)" ]]; then
echo "No VM snapshots available"
@@ -110,34 +73,25 @@ boot_vm() {
exit 1
fi
if [[ -z $active_disk || -z $active_ovmf ]]; then
echo "Error: active disk and OVMF vars paths must not be empty"
exit 1
fi
if [[ -f $active_disk ]] && ! gum confirm "Override existing active VM disk at $active_disk?"; then
if [[ -f "$TMP_DISK" ]] && ! gum confirm "Override existing /tmp VM?"; then
exit 0
fi
echo "Copying VM '$name' to $active_disk..."
mkdir -p "$(dirname "$active_disk")" "$(dirname "$active_ovmf")"
cp "$vm_path/omarchy-iso-boot.qcow2" "$active_disk"
cp "$vm_path/OVMF_VARS.4m.fd" "$active_ovmf"
echo "Copying VM '$name' to /tmp..."
cp "$vm_path/omarchy-iso-boot.qcow2" "$TMP_DISK"
cp "$vm_path/OVMF_VARS.4m.fd" "$TMP_OVMF"
gum style --foreground 212 "✓ VM ready. Booting..."
exec omarchy-iso-boot "${boot_args[@]}" /dev/null reuse
exec omarchy-iso-boot /dev/null reuse
}
command="${1:-}"
[[ $# -gt 0 ]] && shift
case "$command" in
case "${1:-}" in
save)
save_vm "${1:-}"
save_vm "$2"
;;
boot)
boot_vm "$@"
boot_vm "$2"
;;
list)
list_vms
@@ -147,16 +101,9 @@ case "$command" in
"$(gum style --bold 'omarchy-vm') - VM snapshot manager" \
"" \
"$(gum style --foreground 245 'Commands:')" \
" save [name] Save current active VM" \
" boot [name] [boot-options] Boot saved VM (interactive if no name)" \
" list List available VMs" \
"" \
"$(gum style --foreground 245 'Boot options:')" \
" --ssh-port PORT Forward host PORT to guest SSH (default: 2222)" \
" --ssh-host HOST Host address for SSH forwarding (default: 127.0.0.1)" \
" --disk PATH Active disk path, useful for parallel VMs" \
" --ovmf-vars PATH Active OVMF vars path, useful for parallel VMs" \
" --no-network Boot without a virtual NIC" \
" save [name] Save current VM from /tmp" \
" boot [name] Boot saved VM (interactive if no name)" \
" list List available VMs" \
"" \
"$(gum style --foreground 245 'Current VMs:')"
list_vms 2>/dev/null || echo " None"
-1
View File
@@ -12,4 +12,3 @@ openssh
pipewire
snapper
sof-firmware
tailscale
+63 -357
View File
@@ -2,396 +2,102 @@
set -e
OMARCHY_ISO_REF="${OMARCHY_ISO_REF:-quattro}"
OMARCHY_MIRROR="${OMARCHY_MIRROR:-stable}"
OMARCHY_REGION="${OMARCHY_REGION:-global}"
case "$OMARCHY_REGION" in
global|cn) ;;
*) echo "Unsupported region: $OMARCHY_REGION" >&2; exit 1 ;;
esac
# Edge, dev, and local-source ISOs install the dev packages explicitly. Those
# package recipes track the quattro branch. This avoids relying on pacman's
# provides=omarchy resolution and shows the real package names being tested in
# the offline mirror and target install. Every other ref, the default quattro
# build included, installs the published omarchy packages.
case "$OMARCHY_ISO_REF" in
edge|dev|local)
: "${OMARCHY_RUNTIME_PACKAGE:=omarchy-dev}"
: "${OMARCHY_SETTINGS_PACKAGE:=omarchy-settings-dev}"
;;
*)
: "${OMARCHY_RUNTIME_PACKAGE:=omarchy}"
: "${OMARCHY_SETTINGS_PACKAGE:=omarchy-settings}"
;;
esac
: "${OMARCHY_NVIM_PACKAGE:=omarchy-nvim}"
export OMARCHY_RUNTIME_PACKAGE OMARCHY_SETTINGS_PACKAGE OMARCHY_NVIM_PACKAGE
# Packages installed into the Arch container used to build the ISO.
# Note that these are packages installed to the Arch container used to build the ISO.
pacman-key --init
pacman --noconfirm -Sy archlinux-keyring
# Full upgrade, not just -Sy: docker never re-pulls :latest once it's cached,
# so this container can be months behind the mirror it installs from. A plain
# -Sy install is then a partial upgrade — new packages linked against a glibc
# the container doesn't have yet.
pacman --noconfirm -Syu archiso git sudo base-devel jq grub imagemagick neovim nodejs npm tree-sitter-cli
pacman --noconfirm -Sy archiso git sudo base-devel jq grub
# Pre-import the omarchy signing key (so pacman trusts our [omarchy] repo
# during the build without keyserver lookups).
pacman-key --add /builder/omarchy.gpg
pacman-key --lsign-key 40DFB630FF42BCFFB047046CF0134EE680CAC571
# omarchy-keyring is needed inside the offline mirror too.
# Install omarchy-keyring for package verification during build
# The [omarchy] repo is defined in /configs/pacman-online.conf with SigLevel = Optional TrustAll
pacman --config /configs/pacman-online-${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.
if ! grep -q '^\[omarchy\]' /etc/pacman.conf; then
awk '/^\[omarchy\]/,/^$/' /configs/pacman-online-${OMARCHY_MIRROR}.conf >> /etc/pacman.conf
fi
# Build locations
build_cache_dir=/var/cache
# Setup build locations
build_cache_dir="/var/cache"
offline_mirror_dir="$build_cache_dir/airootfs/var/cache/omarchy/mirror/offline"
mkdir -p "$build_cache_dir" "$offline_mirror_dir"
mkdir -p $build_cache_dir/
mkdir -p $offline_mirror_dir/
# Seed from the official Arch releng profile.
cp -r /archiso/configs/releng/* "$build_cache_dir/"
# We base our ISO on the official arch ISO (releng) config
cp -r /archiso/configs/releng/* $build_cache_dir/
rm "$build_cache_dir/airootfs/etc/motd"
# We rely on the global CDN; drop reflector.
# Avoid using reflector for mirror identification as we are relying on the global CDN
rm -rf "$build_cache_dir/airootfs/etc/systemd/system/multi-user.target.wants/reflector.service"
rm -rf "$build_cache_dir/airootfs/etc/systemd/system/reflector.service.d"
rm -rf "$build_cache_dir/airootfs/etc/xdg/reflector"
# Bring in our archiso profile additions.
cp -r /configs/* "$build_cache_dir/"
mkdir -p "$build_cache_dir/airootfs/usr/share/omarchy-iso"
# Bring in our configs
cp -r /configs/* $build_cache_dir/
# Persist OMARCHY_MIRROR so it's available at install time
echo "$OMARCHY_MIRROR" > "$build_cache_dir/airootfs/root/omarchy_mirror"
echo "$OMARCHY_ISO_REF" > "$build_cache_dir/airootfs/root/omarchy_iso_ref"
echo "$OMARCHY_REGION" > "$build_cache_dir/airootfs/root/omarchy_region"
cat > "$build_cache_dir/airootfs/usr/share/omarchy-iso/package-targets" <<EOF
OMARCHY_RUNTIME_PACKAGE=$OMARCHY_RUNTIME_PACKAGE
OMARCHY_SETTINGS_PACKAGE=$OMARCHY_SETTINGS_PACKAGE
OMARCHY_NVIM_PACKAGE=$OMARCHY_NVIM_PACKAGE
EOF
if [[ ${OMARCHY_INSTALL_DEBUG:-} == "1" ]]; then
touch "$build_cache_dir/airootfs/usr/share/omarchy-iso/install-debug"
{
echo "debug=1"
echo "built_at=$(date -Is)"
echo "ref=$OMARCHY_ISO_REF"
echo "mirror=$OMARCHY_MIRROR"
echo "region=$OMARCHY_REGION"
echo "runtime_package=$OMARCHY_RUNTIME_PACKAGE"
echo "settings_package=$OMARCHY_SETTINGS_PACKAGE"
echo "nvim_package=$OMARCHY_NVIM_PACKAGE"
if [[ -d /omarchy-source ]]; then
echo "omarchy_source=/omarchy-source"
git -c safe.directory=/omarchy-source -C /omarchy-source rev-parse HEAD 2>/dev/null | sed 's/^/omarchy_commit=/' || true
git -c safe.directory=/omarchy-source -C /omarchy-source status --short 2>/dev/null | sed 's/^/omarchy_status=/' || true
fi
if [[ -d /omarchy-pkgs ]]; then
echo "omarchy_pkgs_source=/omarchy-pkgs"
git -c safe.directory=/omarchy-pkgs -C /omarchy-pkgs rev-parse HEAD 2>/dev/null | sed 's/^/omarchy_pkgs_commit=/' || true
git -c safe.directory=/omarchy-pkgs -C /omarchy-pkgs status --short 2>/dev/null | sed 's/^/omarchy_pkgs_status=/' || true
fi
} > "$build_cache_dir/airootfs/usr/share/omarchy-iso/build-info"
# Setup Omarchy itself
if [[ -d /omarchy ]]; then
cp -rp /omarchy "$build_cache_dir/airootfs/root/omarchy"
else
git clone -b $OMARCHY_INSTALLER_REF https://github.com/$OMARCHY_INSTALLER_REPO.git "$build_cache_dir/airootfs/root/omarchy"
fi
# When --local-source is in effect, build omarchy* from the mounted source
# trees and drop them in the offline mirror. Otherwise pacman -Syw below
# downloads the published versions from the omarchy network mirror.
if [[ -d /omarchy-source && -d /omarchy-pkgs ]]; then
bash /builder/build-omarchy-packages.sh "$offline_mirror_dir"
LOCAL_OMARCHY_BUILD=1
fi
# Make log uploader available in the ISO too
mkdir -p "$build_cache_dir/airootfs/usr/local/bin/"
cp "$build_cache_dir/airootfs/root/omarchy/bin/omarchy-upload-log" "$build_cache_dir/airootfs/usr/local/bin/omarchy-upload-log"
# Node.js binary for offline mise install.
# Copy the Omarchy Plymouth theme to the ISO
mkdir -p "$build_cache_dir/airootfs/usr/share/plymouth/themes/omarchy"
cp -r "$build_cache_dir/airootfs/root/omarchy/default/plymouth/"* "$build_cache_dir/airootfs/usr/share/plymouth/themes/omarchy/"
# Download and verify Node.js binary for offline installation
NODE_DIST_URL="https://nodejs.org/dist/latest"
# Get checksums and parse filename and SHA
NODE_SHASUMS=$(curl -fsSL "$NODE_DIST_URL/SHASUMS256.txt")
NODE_FILENAME=$(echo "$NODE_SHASUMS" | grep "linux-x64.tar.gz" | awk '{print $2}')
NODE_SHA=$(echo "$NODE_SHASUMS" | grep "linux-x64.tar.gz" | awk '{print $1}')
# Download the tarball
curl -fsSL "$NODE_DIST_URL/$NODE_FILENAME" -o "/tmp/$NODE_FILENAME"
echo "$NODE_SHA /tmp/$NODE_FILENAME" | sha256sum -c -
# Verify SHA256 checksum
echo "$NODE_SHA /tmp/$NODE_FILENAME" | sha256sum -c - || {
echo "ERROR: Node.js checksum verification failed!"
exit 1
}
# Copy to ISO
mkdir -p "$build_cache_dir/airootfs/opt/packages/"
cp "/tmp/$NODE_FILENAME" "$build_cache_dir/airootfs/opt/packages/"
# Packages installed into the live ISO environment itself (NOT the target system).
# The selected omarchy-settings package is needed here so its post_install hook
# drops Omarchy's plymouthd.conf into /etc/plymouth before mkarchiso builds the
# live initramfs.
arch_packages=(linux-t2 git gum jq openssl plymouth ttfx tzupdate omarchy-keyring "$OMARCHY_SETTINGS_PACKAGE" lvm2 cryptsetup parted)
printf '%s\n' "${arch_packages[@]}" >> "$build_cache_dir/packages.x86_64"
# Add our additional packages to packages.x86_64
arch_packages=(linux-t2 git gum jq openssl plymouth tzupdate omarchy-keyring)
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
# stock linux is a second kernel nobody boots: ~147MB of ISO, plus its own archiso
# initramfs, copied into both the ISO tree and the size-constrained FAT EFI image.
#
# It cannot just be deleted — releng's broadcom-wl hard-depends on it, and it is
# the only releng package that does, so pacman would drag the kernel straight back
# in. broadcom-wl is a prebuilt module for stock linux and cannot load on the
# kernel we boot, so it has done nothing since we started booting T2 anyway. The
# install is entirely offline and the live environment needs no Wi-Fi driver.
#
# Anchored so linux-t2 and linux-firmware are untouched.
sed -i -E '/^(linux|broadcom-wl)$/d' "$build_cache_dir/packages.x86_64"
# Build the offline mirror: everything pacstrap might want during the target
# install. With --local-source, the omarchy* packages we just built are
# 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
runtime_root=/omarchy-source
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
# Pull the same package lists out of the freshly-downloaded Omarchy runtime
# package so we don't need a local checkout in the non-local-source path.
bootstrap_cache_dir=/tmp/omarchy-pkg-bootstrap
rm -rf "$bootstrap_cache_dir" /tmp/offlinedb-bootstrap /tmp/omarchy-pkglists
mkdir -p "$bootstrap_cache_dir" /tmp/offlinedb-bootstrap
pacman --config /configs/pacman-online-${OMARCHY_MIRROR}.conf --noconfirm -Syw "$OMARCHY_RUNTIME_PACKAGE" --cachedir "$bootstrap_cache_dir" --dbpath /tmp/offlinedb-bootstrap >/dev/null
omarchy_pkg=$(find "$bootstrap_cache_dir" -maxdepth 1 -type f -name "$OMARCHY_RUNTIME_PACKAGE-*.pkg.tar.zst" | sort | head -1)
if [[ -z $omarchy_pkg ]]; then
echo "ERROR: downloaded package for $OMARCHY_RUNTIME_PACKAGE not found in $bootstrap_cache_dir" >&2
exit 1
fi
mkdir -p /tmp/omarchy-pkglists
bsdtar -xf "$omarchy_pkg" -C /tmp/omarchy-pkglists usr/share/omarchy/install/omarchy-base.packages usr/share/omarchy/install/omarchy-other.packages
runtime_root=/tmp/omarchy-pkglists/usr/share/omarchy
if [[ $OMARCHY_REGION != "global" ]]; then
if ! bsdtar -xf "$omarchy_pkg" -C /tmp/omarchy-pkglists \
"usr/share/omarchy/default/regions/$OMARCHY_REGION" usr/share/omarchy/bin/omarchy-apply-pacman; then
echo "ERROR: runtime lacks region support; publish a matching runtime or use --local-source." >&2
exit 1
fi
fi
base_pkg_lists=(/tmp/omarchy-pkglists/usr/share/omarchy/install/omarchy-base.packages /tmp/omarchy-pkglists/usr/share/omarchy/install/omarchy-other.packages)
# Extracted on its own, tolerating a miss: bsdtar exits non-zero for a member
# it can't find, so asking for this alongside the package lists would abort the
# build here (set -e) with a bare "Not found in archive" instead of the
# actionable error below.
bsdtar -xf "$omarchy_pkg" -C /tmp/omarchy-pkglists usr/share/omarchy/install/provisioning/setup-form.sh 2>/dev/null || true
setup_form=/tmp/omarchy-pkglists/usr/share/omarchy/install/provisioning/setup-form.sh
fi
mkdir -p "$build_cache_dir/airootfs/usr/share/omarchy-iso"
cp "${base_pkg_lists[0]}" "$build_cache_dir/airootfs/usr/share/omarchy-iso/omarchy-base.packages"
cp "${base_pkg_lists[1]}" "$build_cache_dir/airootfs/usr/share/omarchy-iso/omarchy-other.packages"
# Work on writable copies, leaving the mounted runtime and ISO configs intact.
online_config=/tmp/omarchy-pacman-online.conf
cp "/configs/pacman-online-${OMARCHY_MIRROR}.conf" "$online_config"
bash /builder/prepare-region.sh "$OMARCHY_REGION" "$runtime_root" "$build_cache_dir/airootfs" "$online_config"
base_pkg_lists=(
"$build_cache_dir/airootfs/usr/share/omarchy-iso/omarchy-base.packages"
"$build_cache_dir/airootfs/usr/share/omarchy-iso/omarchy-other.packages"
)
# The configurator's setup form comes from the runtime this ISO bundles, so the
# installer and the first-boot setup that finishes a deferred install can never
# disagree. A runtime predating the split ships no such file, which would leave
# the configurator with no prompts at all.
if [[ ! -f $setup_form ]]; then
if [[ -d /omarchy-source ]]; then
echo "ERROR: the --local-source checkout ships no install/provisioning/setup-form.sh" >&2
remedy="Update the checkout to a revision carrying the shared setup form."
else
echo "ERROR: $OMARCHY_RUNTIME_PACKAGE does not ship install/provisioning/setup-form.sh" >&2
remedy="Publish a runtime carrying the shared setup form, or build with --local-source against a checkout that has it."
fi
echo " The configurator sources its prompts from that file, so this ISO" >&2
echo " would boot into an installer with no questions to ask." >&2
echo " $remedy" >&2
exit 1
fi
cp "$setup_form" "$build_cache_dir/airootfs/usr/share/omarchy-iso/setup-form.sh"
# Collect every package we want available in the offline mirror.
declare -a all_packages
mapfile -t all_packages < <(
{
cat "$build_cache_dir/packages.x86_64"
grep -hv '^#\|^$' "${base_pkg_lists[@]}"
grep -hv '^#\|^$' /builder/archinstall.packages
# Always include the selected Omarchy packages so the target install can
# find the runtime and companion packages in the offline mirror.
printf '%s\n' "$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.
if [[ -n ${LOCAL_OMARCHY_BUILD:-} ]]; then
mapfile -t all_packages < <(
printf '%s\n' "${all_packages[@]}" |
grep -Fxv \
-e "$OMARCHY_RUNTIME_PACKAGE" \
-e "$OMARCHY_SETTINGS_PACKAGE" \
-e "$OMARCHY_NVIM_PACKAGE" || true
)
fi
# Build list of all the packages needed for the offline mirror
all_packages=($(cat "$build_cache_dir/packages.x86_64"))
all_packages+=($(grep -v '^#' "$build_cache_dir/airootfs/root/omarchy/install/omarchy-base.packages" | grep -v '^$'))
all_packages+=($(grep -v '^#' "$build_cache_dir/airootfs/root/omarchy/install/omarchy-other.packages" | grep -v '^$'))
all_packages+=($(grep -v '^#' /builder/archinstall.packages | grep -v '^$'))
# Download all the packages to the offline mirror inside the ISO
mkdir -p /tmp/offlinedb
download_offline_packages() {
pacman --config "$online_config" --noconfirm -Syw \
"${all_packages[@]}" --cachedir "$offline_mirror_dir/" --dbpath /tmp/offlinedb --needed
}
pacman --config /configs/pacman-online-${OMARCHY_MIRROR}.conf --noconfirm -Syw "${all_packages[@]}" --cachedir $offline_mirror_dir/ --dbpath /tmp/offlinedb
repo-add --new "$offline_mirror_dir/offline.db.tar.gz" "$offline_mirror_dir/"*.pkg.tar.zst
# A repository may occasionally republish a package without changing its
# filename. Pacman detects that the persistent cached copy no longer matches
# the refreshed repository checksum and deletes it, but still fails the
# transaction. Retry once so the now-missing package is downloaded.
if ! download_offline_packages; then
echo "Offline package download failed; retrying after pacman cleaned invalid cached files..." >&2
download_offline_packages
fi
# Resolve the exact filenames chosen by the same synced package databases used
# for the download. Pruning by this transaction (rather than merely keeping the
# newest version of every cached package name) removes packages that have left
# the lists or dependency closure, such as an old Electron major version.
if ! resolved_package_files="$(
pacman --config "$online_config" --noconfirm \
--dbpath /tmp/offlinedb -S --print --print-format '%f' "${all_packages[@]}"
)"; then
echo "ERROR: could not resolve the package files required by the offline mirror" >&2
exit 1
fi
mapfile -t required_package_files <<< "$resolved_package_files"
# The online transaction intentionally excludes packages built from the local
# checkouts. Add those exact artifacts back to the keep-set after verifying
# that the local build left exactly one file for each selected package name.
if [[ -n ${LOCAL_OMARCHY_BUILD:-} ]]; then
for local_package_name in \
"$OMARCHY_RUNTIME_PACKAGE" "$OMARCHY_SETTINGS_PACKAGE" "$OMARCHY_NVIM_PACKAGE"; do
local_package_file=""
for candidate in "$offline_mirror_dir/$local_package_name-"*.pkg.tar.*; do
[[ -f $candidate && $candidate != *.sig ]] || continue
read -r candidate_name _ < <(pacman -Qp "$candidate" 2>/dev/null) || continue
[[ $candidate_name == "$local_package_name" ]] || continue
if [[ -n $local_package_file ]]; then
echo "ERROR: multiple local builds found for $local_package_name" >&2
exit 1
fi
local_package_file="${candidate##*/}"
done
if [[ -z $local_package_file ]]; then
echo "ERROR: local build not found for $local_package_name" >&2
exit 1
fi
required_package_files+=("$local_package_file")
done
fi
printf '%s\n' "${required_package_files[@]}" |
bash /builder/prune-offline-mirror.sh "$offline_mirror_dir"
# Rebuild the offline repo db from scratch so size/checksum/depends entries
# always reflect only the package files selected for this build.
rm -f "$offline_mirror_dir"/offline.db* "$offline_mirror_dir"/offline.files*
repo-add "$offline_mirror_dir/offline.db.tar.gz" "$offline_mirror_dir/"*.pkg.tar.zst
# mkarchiso expects the mirror at /var/cache/omarchy/mirror/offline inside the
# container (the airootfs path); symlink rather than duplicate.
# Create a symlink to the offline mirror instead of duplicating it.
# mkarchiso needs packages at /var/cache/omarchy/mirror/offline in the container,
# but they're actually in $build_cache_dir/airootfs/var/cache/omarchy/mirror/offline
mkdir -p /var/cache/omarchy/mirror
ln -sf "$offline_mirror_dir" /var/cache/omarchy/mirror/offline
ln -s "$offline_mirror_dir" "/var/cache/omarchy/mirror/offline"
# Denominator for the install dashboard's progress bar. Resolving the mirror's
# own package lists against the mirror we just indexed, with an empty local db,
# is the question pacstrap asks at install time — same resolver, same repo, same
# lists — so no hand-kept constant can drift.
#
# It over-counts by ~1 in 925: archinstall.packages lists both amd-ucode and
# intel-ucode because the mirror must contain either. phases.py records expected
# and actual in the timing JSON, so growing drift shows up in acceptance runs.
# The early-bootstrap set is already inside this closure, so restating it would
# only add a second list to drift.
resolve_expected_packages() {
local resolve_root=/tmp/omarchy-expected-packages
local resolved
local -a targets
# Copy the offline pacman.conf to the ISO's /etc directory so the live environment uses our
# same config when booted.
cp $build_cache_dir/pacman-offline.conf "$build_cache_dir/airootfs/etc/pacman.conf"
rm -rf "$resolve_root"
mkdir -p "$resolve_root/var/lib/pacman"
# Finally, we assemble the entire ISO
mkarchiso -v -w "$build_cache_dir/work/" -o "/out/" "$build_cache_dir/"
mapfile -t targets < <(
{
grep -hv '^#\|^$' /builder/archinstall.packages
# Read the shipped copy, which is what _runtime_package_list reads at
# install time, not the build-time source it came from.
grep -hv '^#\|^$' \
"$build_cache_dir/airootfs/usr/share/omarchy-iso/omarchy-base.packages"
printf '%s\n' "$OMARCHY_RUNTIME_PACKAGE" "$OMARCHY_SETTINGS_PACKAGE" \
"$OMARCHY_NVIM_PACKAGE"
} | sort -u
)
pacman --config "$build_cache_dir/pacman-offline.conf" \
--root "$resolve_root" --dbpath "$resolve_root/var/lib/pacman" \
--noconfirm -Sy >/dev/null || return 1
# Capture before counting: no pipefail here, so a pacman failure inside a
# pipeline would become a plausible partial count, which never trips the
# dashboard's fallback.
resolved="$(pacman --config "$build_cache_dir/pacman-offline.conf" \
--root "$resolve_root" --dbpath "$resolve_root/var/lib/pacman" \
--noconfirm -S --print --print-format '%n' "${targets[@]}")" || return 1
printf '%s\n' "$resolved" | sort -u | grep -c .
}
# Worth failing the build over: -S --print only aborts when a target is missing
# from the offline repo, which would fail pacstrap the same way. A count that
# merely looks wrong is not — the dashboard falls back without the file.
if ! expected_packages="$(resolve_expected_packages)"; then
echo "ERROR: could not resolve the target package count from the offline mirror." >&2
echo " pacman -S --print aborts the whole transaction if any single target" >&2
echo " is missing, so this almost certainly means pacstrap would fail the" >&2
echo " same way at install time." >&2
exit 1
fi
if (( expected_packages < 600 || expected_packages > 2000 )); then
echo "WARNING: resolved target package count $expected_packages is outside the" >&2
echo " expected 600-2000 range; shipping no denominator so the install" >&2
echo " dashboard falls back to its time-based curve." >&2
else
printf '%s\n' "$expected_packages" \
>"$build_cache_dir/airootfs/usr/share/omarchy-iso/expected-packages"
echo "Target install resolves to $expected_packages packages."
fi
# Live ISO uses the same offline pacman.conf.
cp "$build_cache_dir/pacman-offline.conf" "$build_cache_dir/airootfs/etc/pacman.conf"
# Build the ISO.
mkarchiso -v -w "$build_cache_dir/work/" -o /out/ "$build_cache_dir/"
# Match host UID/GID on output.
if [[ -n $HOST_UID && -n $HOST_GID ]]; then
chown -R "$HOST_UID:$HOST_GID" /out/
# Fix ownership of output files to match host user
if [ -n "$HOST_UID" ] && [ -n "$HOST_GID" ]; then
chown -R "$HOST_UID:$HOST_GID" /out/
fi
-85
View File
@@ -1,85 +0,0 @@
#!/bin/bash
# Build Omarchy packages from mounted source (/omarchy-source + /omarchy-pkgs)
# and place the resulting .pkg.tar.zst files in the offline mirror.
set -e
offline_mirror_dir="$1"
if [[ -z $offline_mirror_dir ]]; then
echo "Usage: build-omarchy-packages.sh <offline-mirror-dir>" >&2
exit 1
fi
if [[ ! -d /omarchy-source ]]; then
echo "ERROR: /omarchy-source not mounted (pass --local-source or set OMARCHY_SOURCE_PATH)" >&2
exit 1
fi
if [[ ! -d /omarchy-pkgs ]]; then
echo "ERROR: /omarchy-pkgs not mounted (set OMARCHY_PKGS_PATH or place ../omarchy-pkgs)" >&2
exit 1
fi
work_dir=/tmp/omarchy-pkg-build
rm -rf "$work_dir"
mkdir -p "$work_dir"
if ! id builder &>/dev/null; then
useradd -m -s /bin/bash builder
fi
echo 'builder ALL=(ALL) NOPASSWD: /usr/bin/pacman' > /etc/sudoers.d/99-omarchy-pkg-builder
chmod 440 /etc/sudoers.d/99-omarchy-pkg-builder
chown builder:builder "$work_dir"
pacman -Sy --noconfirm
: "${OMARCHY_RUNTIME_PACKAGE:=omarchy-dev}"
: "${OMARCHY_SETTINGS_PACKAGE:=omarchy-settings-dev}"
: "${OMARCHY_NVIM_PACKAGE:=omarchy-nvim}"
packages=(
"$OMARCHY_SETTINGS_PACKAGE"
"$OMARCHY_RUNTIME_PACKAGE"
"$OMARCHY_NVIM_PACKAGE"
)
# Local-source packages must replace every cached build of the same package,
# even when the checkout's generated pkgver sorts below a published build.
# Otherwise the later generic cache pruning can silently keep edge instead.
for pkg in "${packages[@]}"; do
rm -f "$offline_mirror_dir/$pkg-"*.pkg.tar.*
done
for pkg in "${packages[@]}"; do
echo "----------------------------------------"
echo "Building $pkg"
echo "----------------------------------------"
pkg_work="$work_dir/$pkg"
if [[ ! -d "/omarchy-pkgs/pkgbuilds/$pkg" ]]; then
echo "ERROR: package source not found: /omarchy-pkgs/pkgbuilds/$pkg" >&2
exit 1
fi
cp -a "/omarchy-pkgs/pkgbuilds/$pkg" "$pkg_work"
chown -R builder:builder "$pkg_work"
su builder -c "
cd '$pkg_work' &&
PKGDEST='$work_dir' \
OMARCHY_SRC=/omarchy-source \
makepkg --noconfirm --skippgpcheck --skipchecksums --nodeps -f
"
done
mkdir -p "$offline_mirror_dir"
for package_file in "$work_dir"/*.pkg.tar.zst; do
destination="$offline_mirror_dir/$(basename "$package_file")"
# A cached signature belongs to the previously downloaded or locally built
# package. Keeping it beside a newly built package makes pacman reject the
# otherwise valid local-source build.
rm -f "$destination" "$destination.sig"
mv "$package_file" "$destination"
done
echo
echo "Built Omarchy packages, placed in $offline_mirror_dir:"
ls "$offline_mirror_dir"/omarchy*.pkg.tar.zst | sed 's|^| |'
-13
View File
@@ -1,13 +0,0 @@
-----BEGIN PGP PUBLIC KEY BLOCK-----
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mCavKji0Gk9tYXJjaHkgPHBrZ3NAb21hcmNoeS5vcmc+iJAEExYKADgWIQRA37Yw
/0K8/7BHBGzwE07mgMrFcQUCaLAsIgIbAwULCQgHAgYVCgkICwIEFgIDAQIeAQIX
gAAKCRDwE07mgMrFcRF2AQCjjvjgju/kowkN69nenqqRnE+v2MrHmWh2wU0ugIt9
3gD/bXGugWc5J1vqoT+5aCnJAtfRRmHEfsrAiFgjduB+VA24OARosCwiEgorBgEE
AZdVAQUBAQdAJoU73WdgxE/pEYK5ofyRvQDs1IFRdfJHV9j4Jm+tuDUDAQgHiHgE
GBYKACAWIQRA37Yw/0K8/7BHBGzwE07mgMrFcQUCaLAsIgIbDAAKCRDwE07mgMrF
cYXsAQC5eBEGK0xKsGwtnDDVeNAapx32dpvLgJ94W4DtIpdLlwEA85cSsTiBMuGy
6kwYmHzqw7oFx3VYGXdMNl0SMKzvJA4=
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-----END PGP PUBLIC KEY BLOCK-----
-41
View File
@@ -1,41 +0,0 @@
#!/bin/bash
# Add the selected runtime's regional payload to the ISO. Repository defaults
# stay in the runtime package, not in a second set of ISO-specific templates.
set -euo pipefail
region="$1"
runtime="$2"
iso_root="$3"
online_config="$4"
case "$region" in
global) exit 0 ;;
cn) ;;
*) echo "Unsupported region: $region" >&2; exit 1 ;;
esac
profile="$runtime/default/regions/$region"
if [[ ! -f $runtime/bin/omarchy-apply-pacman || ! -f $profile/packages ||
! -f $profile/pacman/pacman.conf.append || ! -f $profile/pacman/mirrorlist.append ]]; then
echo "Runtime does not support region '$region'; publish a matching runtime or use --local-source." >&2
exit 1
fi
# This is the target package list used both for download resolution and by the
# installer. Merely putting extra packages in the cache would not install them.
payload="$iso_root/usr/share/omarchy-iso"
cp -a "$profile" "$payload/region"
printf '\n' >> "$payload/omarchy-base.packages"
cat "$profile/packages" >> "$payload/omarchy-base.packages"
# Only the community repository is needed for regional package downloads.
# Keep the channel's build mirrors intact; target mirrors are restored later.
printf '\n' >> "$online_config"
cat "$profile/pacman/pacman.conf.append" >> "$online_config"
# The keyring package must be signed by a key already trusted by Arch. Do not
# bootstrap trust from an unchecked keyserver response or disable signatures.
# https://github.com/archlinuxcn/repo#usage
pacman --config "$online_config" --noconfirm -Sy --needed archlinuxcn-keyring
pacman-key --populate archlinuxcn
-67
View File
@@ -1,67 +0,0 @@
#!/bin/bash
set -euo pipefail
offline_mirror_dir="${1:-}"
if [[ -z $offline_mirror_dir ]]; then
echo "Usage: prune-offline-mirror.sh <offline-mirror-dir>" >&2
exit 1
fi
if [[ ! -d $offline_mirror_dir ]]; then
echo "ERROR: offline mirror directory not found: $offline_mirror_dir" >&2
exit 1
fi
# Read the exact package filenames selected by pacman on stdin. Validate the
# complete selection before deleting anything: an empty/partial resolution must
# never turn a warm-cache build into a broken mirror.
declare -A required=()
while IFS= read -r filename; do
[[ -n $filename ]] || continue
if [[ $filename == */* || $filename != *.pkg.tar.* || $filename == *.sig ]]; then
echo "ERROR: invalid required package filename: $filename" >&2
exit 1
fi
required["$filename"]=1
done
if (( ${#required[@]} == 0 )); then
echo "ERROR: refusing to prune the offline mirror with an empty package selection" >&2
exit 1
fi
missing=()
for filename in "${!required[@]}"; do
[[ -f "$offline_mirror_dir/$filename" ]] || missing+=("$filename")
done
if (( ${#missing[@]} > 0 )); then
echo "ERROR: refusing to prune; selected packages are missing from the mirror:" >&2
printf ' %s\n' "${missing[@]}" >&2
exit 1
fi
stale=()
while IFS= read -r -d '' package_file; do
filename="${package_file##*/}"
[[ -n ${required[$filename]+x} ]] || stale+=("$package_file")
done < <(
find "$offline_mirror_dir" -maxdepth 1 -type f \
-name '*.pkg.tar.*' ! -name '*.sig' -print0
)
if (( ${#stale[@]} > 0 )); then
echo "Pruning package archives not selected for the offline mirror:"
for package_file in "${stale[@]}"; do
echo " $(basename "$package_file")"
rm -f -- "$package_file" "$package_file.sig"
done
fi
# A failed or interrupted download can leave a signature without its archive.
# It cannot be indexed and only wastes space in the ISO.
while IFS= read -r -d '' signature_file; do
[[ -f ${signature_file%.sig} ]] || rm -f -- "$signature_file"
done < <(
find "$offline_mirror_dir" -maxdepth 1 -type f \
-name '*.pkg.tar.*.sig' -print0
)
@@ -1,18 +0,0 @@
# mkinitcpio preset file for the 'linux-t2' package on archiso
#
# The filename is the pkgbase, and that is load-bearing. Kernel packages ship
# nothing in /boot — they only install usr/lib/modules/<kver>/vmlinuz — so
# mkinitcpio's alpm hook sources /etc/mkinitcpio.d/<pkgbase>.preset and copies
# THAT package's kernel to whatever ALL_kver names (is_kernelcopy in
# /usr/share/libalpm/scripts/mkinitcpio). Named linux.preset, this pointed the
# stock kernel at the T2 filenames, so the ISO booted stock Arch while every
# boot entry said linux-t2 and T2 Macs got no keyboard or trackpad.
#
# releng ships its own linux.preset for the stock kernel; leave it alone.
PRESETS=('archiso')
ALL_kver='/boot/vmlinuz-linux-t2'
archiso_config='/etc/mkinitcpio.conf.d/archiso.conf'
archiso_image="/boot/initramfs-linux-t2.img"
@@ -0,0 +1,9 @@
# mkinitcpio preset file for the 'linux' package on archiso
PRESETS=('archiso')
ALL_kver='/boot/vmlinuz-linux-t2'
archiso_config='/etc/mkinitcpio.conf.d/archiso.conf'
archiso_image="/boot/initramfs-linux-t2.img"
@@ -1,3 +0,0 @@
# linux-t2 ships for every machine, and on a pre-T2 Mac its applesmc oopses
# registering the keyboard-backlight LED, wedging udev. Nothing here needs the SMC.
blacklist applesmc
@@ -1,21 +0,0 @@
# remove from airootfs!
#
# Mirror omarchy-settings' /etc/skel shell defaults into /root so the live ISO
# console has the same bashrc, starship prompt, and aliases as an installed
# Omarchy system. Fires during airootfs pacstrap (when omarchy-settings is
# installed); the "remove from airootfs" magic string causes
# zzzz99-remove-custom-hooks-from-airootfs.hook to delete this file before
# the squashfs is built, so no runtime hook remains.
[Trigger]
Operation = Install
Operation = Upgrade
Type = Package
Target = omarchy-settings
[Action]
Description = Mirroring /etc/skel shell defaults into /root for the live ISO...
When = PostTransaction
Depends = coreutils
Depends = omarchy-settings
Exec = /bin/sh -c 'install -d -m 0700 /root/.config && for f in .bashrc .bash_profile; do [ -f "/etc/skel/$f" ] && install -m 0644 "/etc/skel/$f" "/root/$f"; done; [ -f /etc/skel/.config/starship.toml ] && install -m 0644 /etc/skel/.config/starship.toml /root/.config/starship.toml; true'
+150 -123
View File
@@ -1,131 +1,158 @@
#!/usr/bin/env bash
#
# Live ISO entry point on tty1: set up the live VT, run the configurator
# wizard, then hand off to the Python install orchestrator. Mirrors the
# stream/env contract from the previously-working installer:
# - stdout teed to /var/log/omarchy-install.log (CSI-stripped) AND to tty
# - stderr direct to /dev/tty so gum (which draws its TUI on stderr)
# renders correctly
# - CLICOLOR_FORCE/FORCE_COLOR so gum emits ANSI even with stdout piped
# - COLUMNS/LINES so gum picks up real terminal size
set -euo pipefail
[[ $(tty) == /dev/tty1 ]] || exit 0
export OMARCHY_MIRROR="$(cat /root/omarchy_mirror)"
if [[ -f /root/omarchy_iso_ref ]]; then
export OMARCHY_ISO_REF="$(cat /root/omarchy_iso_ref)"
fi
if [[ -f /usr/share/omarchy-iso/package-targets ]]; then
# shellcheck disable=SC1091
source /usr/share/omarchy-iso/package-targets
export OMARCHY_RUNTIME_PACKAGE OMARCHY_SETTINGS_PACKAGE OMARCHY_NVIM_PACKAGE
fi
export OMARCHY_PATH=/usr/share/omarchy
export OMARCHY_INSTALL=$OMARCHY_PATH/install
export OMARCHY_INSTALL_LOG_FILE=/var/log/omarchy-install.log
if [[ -f /usr/share/omarchy-iso/install-debug ]]; then
export OMARCHY_INSTALL_DEBUG=1
fi
# Tokyo Night palette so the live VT matches the installed look.
set_tokyo_night_colors() {
echo -en "\e]P01a1b26"; echo -en "\e]P1f7768e"; echo -en "\e]P29ece6a"
echo -en "\e]P3e0af68"; echo -en "\e]P47aa2f7"; echo -en "\e]P5bb9af7"
echo -en "\e]P67dcfff"; echo -en "\e]P7a9b1d6"; echo -en "\e]P8414868"
echo -en "\e]P9f7768e"; echo -en "\e]PA9ece6a"; echo -en "\e]PBe0af68"
echo -en "\e]PC7aa2f7"; echo -en "\e]PDbb9af7"; echo -en "\e]PE7dcfff"
echo -en "\e]PFc0caf5"
echo -en "\033[0m"
clear
}
set_tokyo_night_colors
mkdir -p /var/log
touch "$OMARCHY_INSTALL_LOG_FILE"
export COLUMNS=$(tput cols)
export LINES=$(tput lines)
exec > >(tee >(sed -u 's/\x1b\[[0-9;?]*[A-Za-z]//g' >>"$OMARCHY_INSTALL_LOG_FILE") 2>/dev/null) 2>/dev/tty
export CLICOLOR_FORCE=1
export FORCE_COLOR=1
if [[ ${OMARCHY_INSTALL_DEBUG:-} == "1" ]]; then
echo "=== Omarchy ISO debug build ==="
[[ -f /usr/share/omarchy-iso/build-info ]] && cat /usr/share/omarchy-iso/build-info
pacman -Q omarchy-settings omarchy-keyring 2>/dev/null || true
echo "================================"
fi
# Warm the page cache for the bundled packages while the user works through the
# wizard. The install reads ~3GB out of the offline mirror, and pacman consumes
# it at only ~33MB/s, so on media slower than that the install is read-bound and
# every byte cached here is a byte it never waits for. On faster media this costs
# nothing but otherwise-idle bandwidth: the medium is untouched while the user
# types, and the target disk it writes to later is a different device.
#
# Clean page cache only, so the kernel reclaims it under pressure instead of
# OOMing, and a budget so small machines never evict what was just warmed.
# Set OMARCHY_NO_PREFETCH=1 to A/B the same ISO with this disabled.
warm_offline_mirror() {
local mirror=/var/cache/omarchy/mirror/offline
local budget_kb spent_kb=0 size_kb path
[[ ${OMARCHY_NO_PREFETCH:-} == 1 ]] && return 0
[[ -d $mirror ]] || return 0
budget_kb=$(($(awk '/^MemAvailable:/ { print $2 }' /proc/meminfo) / 2))
((budget_kb > 262144)) || return 0
# Largest first: the install reads most of the mirror, so when the budget
# cannot cover all of it this still front-loads the bytes that dominate.
while read -r size_kb path; do
((spent_kb + size_kb > budget_kb)) && continue
cat -- "$path" >/dev/null 2>&1 || true
spent_kb=$((spent_kb + size_kb))
done < <(du -k "$mirror"/*.pkg.tar.zst 2>/dev/null | sort -rn)
use_omarchy_helpers() {
export OMARCHY_PATH="/root/omarchy"
export OMARCHY_INSTALL="/root/omarchy/install"
export OMARCHY_INSTALL_LOG_FILE="/var/log/omarchy-install.log"
export OMARCHY_MIRROR="$(cat /root/omarchy_mirror)"
source /root/omarchy/install/helpers/all.sh
}
warm_offline_mirror &
warm_pid=$!
trap 'kill "$warm_pid" 2>/dev/null' EXIT
cd /root
# Autoinstall: a cidata drive carrying the configurator's own output files
# stands in for the wizard. omarchy-cidata-load copies them into /root and
# everything downstream runs the ordinary path against ordinary inputs.
if /usr/local/bin/omarchy-cidata-load; then
echo "Autoinstall configuration found on cidata drive; skipping the configurator."
export OMARCHY_UI_INTERACTIVE=no
else
run_configurator() {
set_tokyo_night_colors
./configurator
fi
export OMARCHY_USER="$(jq -r '.users[0].username' user_credentials.json)"
}
# Deferred-provisioning installs skip the celebration/reboot prompt and reboot on
# their own — the owner completes setup at first boot. Signalled by the config's
# defer_provisioning flag (interactive) or the defer-provisioning marker (cidata).
# Parse the flag with jq (the same JSON semantics the orchestrator uses) rather
# than a line regex, so a reformatted config can't read as a direct install.
if [[ -f /root/defer-provisioning ]] ||
[[ "$(jq -r '.omarchy_install.defer_provisioning // false' /root/user_configuration.json 2>/dev/null)" == "true" ]]; then
export OMARCHY_UI_DEFER_PROVISIONING=yes
fi
install_arch() {
clear_logo
gum style --foreground 3 --padding "1 0 0 $PADDING_LEFT" "Installing..."
echo
# The foreground dashboard is now the sole visible install UI owner. It starts
# the actual installer as a non-interactive child, logs child output, waits for
# completion, then renders the final installed-time/reboot prompt itself.
export OMARCHY_DASHBOARD_TTY="$(tty)"
rm -f /run/omarchy-install/state.json
/usr/local/bin/omarchy-install-dashboard \
"$OMARCHY_INSTALL_LOG_FILE" \
/run/omarchy-install/state.json \
-- \
/usr/local/bin/omarchy-iso-install \
--config /root/user_configuration.json \
--creds /root/user_credentials.json \
--full-name-file /root/user_full_name.txt \
--email-file /root/user_email_address.txt \
--encrypt-file /root/user_encrypt_installation.txt \
--authorized-keys-file /root/authorized_keys \
--tailscale-authkey-file /root/tailscale_authkey \
--defer-provisioning-file /root/defer-provisioning
touch /var/log/omarchy-install.log
start_log_output
# Set CURRENT_SCRIPT for the trap to display better when nothing is returned for some reason
CURRENT_SCRIPT="install_base_system"
install_base_system > >(sed -u 's/\x1b\[[0-9;]*[a-zA-Z]//g' >>/var/log/omarchy-install.log) 2>&1
unset CURRENT_SCRIPT
stop_log_output
}
install_omarchy() {
chroot_bash -lc "sudo pacman -S --noconfirm --needed gum" >/dev/null
chroot_bash -lc "source /home/$OMARCHY_USER/.local/share/omarchy/install.sh || bash"
# Reboot if requested by installer
if [[ -f /mnt/var/tmp/omarchy-install-completed ]]; then
reboot
fi
}
# Set Tokyo Night color scheme for the terminal
set_tokyo_night_colors() {
if [[ $(tty) == "/dev/tty"* ]]; then
# Tokyo Night color palette
echo -en "\e]P01a1b26" # black (background)
echo -en "\e]P1f7768e" # red
echo -en "\e]P29ece6a" # green
echo -en "\e]P3e0af68" # yellow
echo -en "\e]P47aa2f7" # blue
echo -en "\e]P5bb9af7" # magenta
echo -en "\e]P67dcfff" # cyan
echo -en "\e]P7a9b1d6" # white
echo -en "\e]P8414868" # bright black
echo -en "\e]P9f7768e" # bright red
echo -en "\e]PA9ece6a" # bright green
echo -en "\e]PBe0af68" # bright yellow
echo -en "\e]PC7aa2f7" # bright blue
echo -en "\e]PDbb9af7" # bright magenta
echo -en "\e]PE7dcfff" # bright cyan
echo -en "\e]PFc0caf5" # bright white (foreground)
# Set default foreground and background
echo -en "\033[0m"
clear
fi
}
install_base_system() {
# Initialize and populate the keyring
pacman-key --init
pacman-key --populate archlinux
pacman-key --populate omarchy
# Sync the offline database so pacman can find packages
pacman -Sy --noconfirm
# Ensure that no mounts exist from past install attempts
findmnt -R /mnt >/dev/null && umount -R /mnt
# Workarounds for archinstall 4.2 regressions under Python 3.14:
# 1. sync_log_to_install_medium: `self.target / absolute_logfile` drops
# self.target because the RHS is absolute, so Path.copy() raises EINVAL
# (source == target).
# 2. _add_limine_bootloader: `Path.copy(efi_dir_path)` raises IsADirectoryError
# because 3.14's Path.copy treats target as a literal path, not a directory
# (shutil.copy used to auto-append the source filename).
sed -i \
-e 's|logfile_target = self\.target / absolute_logfile$|logfile_target = self.target / absolute_logfile.relative_to("/")|' \
-e 's|(limine_path / file)\.copy(efi_dir_path)|(limine_path / file).copy(efi_dir_path / file)|' \
-e "s|(limine_path / 'limine-bios.sys')\.copy(boot_limine_path)|(limine_path / 'limine-bios.sys').copy(boot_limine_path / 'limine-bios.sys')|" \
/usr/lib/python3.14/site-packages/archinstall/lib/installer.py
# Install using files generated by the ./configurator
# Skip NTP and WKD sync since we're offline (keyring is pre-populated in ISO)
archinstall \
--config user_configuration.json \
--creds user_credentials.json \
--silent \
--skip-ntp \
--skip-wkd \
--skip-wifi-check
# After archinstall sets up the base system but before our installer runs,
# we need to ensure the offline pacman.conf is in place
cp /etc/pacman.conf /mnt/etc/pacman.conf
# Mount the offline mirror so it's accessible in the chroot
mkdir -p /mnt/var/cache/omarchy/mirror/offline
mount --bind /var/cache/omarchy/mirror/offline /mnt/var/cache/omarchy/mirror/offline
# Mount the packages dir so it's accessible in the chroot
mkdir -p /mnt/opt/packages
mount --bind /opt/packages /mnt/opt/packages
# No need to ask for sudo during the installation (omarchy itself responsible for removing after install)
mkdir -p /mnt/etc/sudoers.d
cat >/mnt/etc/sudoers.d/99-omarchy-installer <<EOF
root ALL=(ALL:ALL) NOPASSWD: ALL
%wheel ALL=(ALL:ALL) NOPASSWD: ALL
$OMARCHY_USER ALL=(ALL:ALL) NOPASSWD: ALL
EOF
chmod 440 /mnt/etc/sudoers.d/99-omarchy-installer
# Copy the local omarchy repo to the user's home directory
mkdir -p /mnt/home/$OMARCHY_USER/.local/share/
cp -r /root/omarchy /mnt/home/$OMARCHY_USER/.local/share/
chown -R 1000:1000 /mnt/home/$OMARCHY_USER/.local/
# Ensure all necessary scripts are executable
find /mnt/home/$OMARCHY_USER/.local/share/omarchy -type f -path "*/bin/*" -exec chmod +x {} \;
chmod +x /mnt/home/$OMARCHY_USER/.local/share/omarchy/boot.sh 2>/dev/null || true
chmod +x /mnt/home/$OMARCHY_USER/.local/share/omarchy/default/waybar/indicators/screen-recording.sh 2>/dev/null || true
chmod +x /mnt/home/$OMARCHY_USER/.local/share/omarchy/default/waybar/indicators/idle.sh 2>/dev/null || true
chmod +x /mnt/home/$OMARCHY_USER/.local/share/omarchy/default/waybar/indicators/notification-silencing.sh 2>/dev/null || true
}
chroot_bash() {
HOME=/home/$OMARCHY_USER \
arch-chroot -u $OMARCHY_USER /mnt/ \
env OMARCHY_CHROOT_INSTALL=1 \
OMARCHY_USER_NAME="$(<user_full_name.txt)" \
OMARCHY_USER_EMAIL="$(<user_email_address.txt)" \
OMARCHY_MIRROR="$OMARCHY_MIRROR" \
USER="$OMARCHY_USER" \
HOME="/home/$OMARCHY_USER" \
/bin/bash "$@"
}
if [[ $(tty) == "/dev/tty1" ]]; then
use_omarchy_helpers
run_configurator
install_arch
install_omarchy
fi
File diff suppressed because it is too large. Load diff
@@ -1,70 +0,0 @@
#!/bin/bash
#
# Autoinstall: a drive labeled cidata (the cloud-init NoCloud label, so Proxmox,
# libvirt and Packer all know how to attach one) carrying the configurator's own
# output files stands in for the wizard. Copy those files into /root and
# everything downstream runs the ordinary path against ordinary inputs.
#
# Exits 0 when an autoinstall drive was loaded and the configurator can be
# skipped. The required pair is the same one the orchestrator treats as
# mandatory; the rest are optional there too, so don't be stricter here.
# Anything less than the pair means this isn't an autoinstall drive, and the
# caller falls back to the wizard.
#
# A `defer-provisioning` marker file stands in for user_credentials.json: deferred-provisioning
# installs defer user creation to first boot, so imaging rigs ship no credentials.
#
# The optional argument prefixes every path the script touches; tests use it to
# run against a sandbox instead of the live system.
set -uo pipefail
root=${1:-}
by_label=$root/dev/disk/by-label
dest=$root/root
mnt=$root/run/cidata
# The by-label symlinks come from udev, and on a fast boot this can run before
# device enumeration has finished. Wait for the queue to drain instead of
# racing it and silently dropping a headless install into the wizard.
udevadm settle 2>/dev/null || true
device=""
for label in cidata CIDATA; do
[[ -e $by_label/$label ]] && { device=$by_label/$label; break; }
done
[[ -n $device ]] || exit 1
mkdir -p "$mnt"
mount -o ro "$device" "$mnt" || exit 1
# Clear any inputs a previous load in this live session left in /root before
# copying the current drive: a stale `defer-provisioning` marker or credentials file would
# otherwise force a fresh drive back into deferred provisioning or hand it an old
# LUKS passphrase. The interactive wizard writes these same names, but a
# cidata load always precedes it, so nothing of the user's is discarded here.
optional_inputs=(user_credentials.json defer-provisioning user_full_name.txt user_email_address.txt user_encrypt_installation.txt authorized_keys tailscale_authkey)
for file in user_configuration.json "${optional_inputs[@]}"; do
rm -f "$dest/$file"
done
loaded=1
if [[ -f $mnt/user_configuration.json ]] && [[ -f $mnt/user_credentials.json || -f $mnt/defer-provisioning ]]; then
files=("$mnt"/user_configuration.json)
for file in "${optional_inputs[@]}"; do
[[ -f $mnt/$file ]] && files+=("$mnt/$file")
done
if cp "${files[@]}" "$dest"/; then
loaded=0
else
# A partial copy must not leave files behind: the wizard cleans up only
# what it writes itself, so a half-copied authorized_keys would leak into
# the interactive install that follows.
for file in "${files[@]}"; do
rm -f "$dest/${file##*/}"
done
fi
fi
umount "$mnt"
exit $loaded
File diff suppressed because it is too large. Load diff
@@ -1,124 +0,0 @@
#!/bin/bash
#
# Say whether an install failure was the install medium, and say it in words
# that name the fix.
#
# The ISO's offline mirror is bind-mounted onto the target's package cache for
# the duration of pacstrap (see _mount_offline_package_cache), so a package
# pacman calls corrupt under that path is a byte that came off the medium --
# nothing else ever writes there. That much is certain, and it is the part
# worth saying out loud, because the failure screen otherwise ends at "get help
# at discord" with the word USB nowhere on it.
#
# What is not certain is which way the medium failed. Bytes written wrong and
# bytes read wrong produce the same checksum mismatch, and pacstrap runs with
# --noconfirm, which answers yes to pacman's "delete it?" and unlinks the
# package through the bind mount before anything here can weigh it. So the
# usual verdict names the medium and gives both remedies in the order worth
# trying. When the package does survive, its checksum in the mirror's database
# tells the two apart, and then this says which.
#
# Prints the diagnosis on stdout, one line per line, headline first. Exits 1
# with no output when there is nothing here to diagnose, so the caller can ask
# unconditionally.
set -uo pipefail
TARGET_PACKAGE_CACHE="${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"
@@ -1,47 +0,0 @@
#!/bin/bash
#
# Clean up any holders / mounts / LVM / crypt devices on the install disk
# before archinstall starts wiping. Idempotent — called once per install attempt
# from the orchestrator's cleanup_disk phase.
#
# Ported verbatim from .automated_script.sh's cleanup_install_disk(). Kept in
# bash because lsblk / findmnt / lvm / cryptsetup are all easier to drive
# here than from Python.
set -uo pipefail
if [[ ${1:-} == --protected ]]; then
target="${2:-}"
[[ -n $target ]] || { echo "Usage: $0 --protected <target>" >&2; exit 1; }
findmnt -R "$target" >/dev/null 2>&1 && umount -R "$target" || true
exit 0
fi
disk="${1:-}"
[[ -n $disk && -b $disk ]] || { echo "Need a block device argument; got '$disk'" >&2; exit 1; }
echo "Cleaning up existing holders on install disk: $disk"
findmnt -R /mnt >/dev/null && umount -R /mnt || true
while read -r dev; do
[[ -b $dev ]] || continue
swapoff "$dev" 2>/dev/null || true
while read -r target; do
[[ -n $target ]] && umount "$target" 2>/dev/null || true
done < <(findmnt -rn -S "$dev" -o TARGET 2>/dev/null || true)
done < <(lsblk -rnpo PATH "$disk")
while read -r dev type; do
[[ $type == disk || $type == part || $type == crypt ]] || continue
while read -r vg; do
[[ -n $vg ]] && vgchange -an "$vg" 2>/dev/null || true
done < <(pvs --noheadings -o vg_name "$dev" 2>/dev/null | awk '{$1=$1; print}' | sort -u)
done < <(lsblk -rnpo PATH,TYPE "$disk")
while read -r dev type; do
[[ $type == crypt ]] && cryptsetup close "$dev" 2>/dev/null || true
done < <(lsblk -rnpo PATH,TYPE "$disk")
blockdev --flushbufs "$disk" 2>/dev/null || true
partprobe "$disk" 2>/dev/null || true
udevadm settle || true
@@ -1,27 +0,0 @@
#!/bin/bash
#
# Live-ISO entry point for the Omarchy install orchestrator. Invoked from
# /root/.automated_script.sh after the configurator wizard has produced its
# user_*.json / user_*.txt files. The outer shim owns install logging.
set -eEo pipefail
# Parse our args; convert to env vars before exec'ing Python so archinstall's
# own argparse (which runs at module import time inside the orchestrator)
# doesn't choke on flags it doesn't recognize.
while [[ $# -gt 0 ]]; do
case $1 in
--config) export OMARCHY_INSTALL_CONFIG="$2"; shift 2 ;;
--creds) export OMARCHY_INSTALL_CREDS="$2"; shift 2 ;;
--full-name-file) export OMARCHY_INSTALL_FULL_NAME_FILE="$2"; shift 2 ;;
--email-file) export OMARCHY_INSTALL_EMAIL_FILE="$2"; shift 2 ;;
--encrypt-file) export OMARCHY_INSTALL_ENCRYPT_FILE="$2"; shift 2 ;;
--authorized-keys-file) export OMARCHY_INSTALL_AUTHORIZED_KEYS_FILE="$2"; shift 2 ;;
--tailscale-authkey-file) export OMARCHY_INSTALL_TAILSCALE_AUTHKEY_FILE="$2"; shift 2 ;;
--defer-provisioning-file) export OMARCHY_INSTALL_DEFER_PROVISIONING_FILE="$2"; shift 2 ;;
*) echo "omarchy-iso-install: unknown arg $1" >&2; exit 2 ;;
esac
done
cd /usr/share/omarchy-iso
exec python -m orchestrator.main
@@ -1,131 +0,0 @@
# 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=()
}
Whitespace-only changes.
@@ -1,246 +0,0 @@
"""Thin compatibility wall around the archinstall Python library.
ONLY this module imports from archinstall. Everything else uses these helpers.
If archinstall's API churns, the blast radius is contained here.
Tested against archinstall 4.4 (Python 3.14).
The canonical call sequence (mirrored from archinstall.scripts.guided.py) is:
FilesystemHandler(disk_config).perform_filesystem_operations()
with Installer(mountpoint, disk_config, kernels=, silent=) as inst:
# guided.py:84-85 SKIPS this for DiskLayoutType.Pre_mount — pre-mounted
# 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=)
inst.generate_key_files() # encrypted only
inst.set_mirrors(handler, mirror_config, on_target=False)
inst.minimal_installation(...) # base + linux pacstrap
inst.set_mirrors(handler, mirror_config, on_target=True)
inst.setup_swap(algo=...)
inst.create_users(users)
inst.add_additional_packages(packages)
inst.set_timezone(tz)
inst.activate_time_synchronization()
inst.set_user_password(root_user)
inst.enable_service(services)
inst.genfstab()
Our orchestrator installs Omarchy's Limine files directly instead of invoking
archinstall's bootloader helper, so EFI paths and efibootmgr labels are ours
from the start.
"""
from __future__ import annotations
import importlib
from contextlib import contextmanager
from pathlib import Path
from typing import Iterator
# Imports are top-level so a missing/incompatible archinstall surfaces at
# orchestrator startup, not deep inside a phase.
from archinstall.lib.args import ArchConfig, ArchConfigHandler
from archinstall.lib.authentication.authentication_handler import AuthenticationHandler
from archinstall.lib.disk.filesystem import FilesystemHandler
from archinstall.lib.disk.utils import get_parent_device_path, get_unique_path_for_device, udev_sync
from archinstall.lib.hardware import SysInfo
from archinstall.lib.installer import Installer
from archinstall.lib.mirror.mirror_handler import MirrorListHandler
from archinstall.lib.models import Bootloader
from archinstall.lib.models.device import DiskLayoutType, EncryptionType
from archinstall.lib.models.users import User
from .ui import info
def load_arch_config(config_path: Path, creds_path: Path) -> ArchConfigHandler:
"""Build an ArchConfigHandler from on-disk JSON.
archinstall's ArchConfigHandler reads --config / --creds from sys.argv
via argparse at construction time (lib/args.py:_parse_args). It does
NOT consult env vars for these paths. We can't pass them on our real
argv because the wrapper strips them before exec'ing Python (so other
archinstall arg-parsing code doesn't choke on our flags), so we hand
archinstall a synthetic argv just for this call.
"""
import sys
saved_argv = sys.argv
sys.argv = [
saved_argv[0] if saved_argv else "omarchy-iso-install",
"--config", str(config_path),
"--creds", str(creds_path),
]
try:
return ArchConfigHandler()
finally:
sys.argv = saved_argv
def make_mirror_handler(offline: bool = True) -> MirrorListHandler:
return MirrorListHandler(offline=offline, verbose=False)
def perform_filesystem_operations(arch_config: ArchConfig) -> None:
"""Partition, format, encrypt. archinstall's FilesystemHandler is its own
object (separate from Installer) so we run it before opening the
Installer context manager.
parted's partition-table commit races udev: the disk wipe and the first
BLKPG partition registration trigger probes that briefly hold the disk
open, and the kernel then refuses to register the remaining partitions
(_ped.IOException: "Partition(s) ... have been written, but we have been
unable to inform the kernel"). The table is written correctly when that
happens — only the kernel's view is stale — so settle udev and redo the
operations. The wipe/partition/format sequence is idempotent."""
if not arch_config.disk_config:
raise RuntimeError("disk_config missing from arch config")
handler = FilesystemHandler(arch_config.disk_config)
# archinstall's perform_filesystem_operations defaults to a ~4.5s
# "5...4...3...2...1" countdown (FilesystemHandler._final_warning) before it
# wipes the disk. That warning is meant for its interactive TUI; in our
# orchestrated install it renders nowhere and just sleeps. Suppress it when
# the running archinstall still takes the flag — newer releases dropped both
# the countdown and the parameter, so only pass it when it's accepted.
fs_kwargs = (
{"show_countdown": False}
if _method_accepts(handler.perform_filesystem_operations, "show_countdown")
else {}
)
attempts = 3
for attempt in range(1, attempts + 1):
udev_sync()
try:
handler.perform_filesystem_operations(**fs_kwargs)
return
except Exception as exc:
if attempt == attempts or "unable to inform the kernel" not in str(exc):
raise
info(f"› partition commit lost a udev race (attempt {attempt}/{attempts}); retrying")
@contextmanager
def open_installer(
arch_config: ArchConfig,
mountpoint: Path,
silent: bool = True,
) -> Iterator[Installer]:
"""Yield an open Installer; ensures __exit__ runs even on exception so
/mnt is left clean for a retry."""
if not arch_config.disk_config:
raise RuntimeError("disk_config missing from arch config")
with Installer(
mountpoint,
arch_config.disk_config,
kernels=arch_config.kernels,
silent=silent,
) as installer:
yield installer
def is_encrypted(arch_config: ArchConfig) -> bool:
disk = arch_config.disk_config
if not disk or not disk.disk_encryption:
return False
return disk.disk_encryption.encryption_type != EncryptionType.NO_ENCRYPTION
def is_pre_mount(arch_config: ArchConfig) -> bool:
return bool(
arch_config.disk_config
and arch_config.disk_config.config_type == DiskLayoutType.Pre_mount
)
def bootloader_enabled(arch_config: ArchConfig) -> bool:
bl = arch_config.bootloader_config
return bool(bl and bl.bootloader != Bootloader.NO_BOOTLOADER)
def is_limine(arch_config: ArchConfig) -> bool:
bl = arch_config.bootloader_config
return bool(bl and bl.bootloader == Bootloader.Limine)
def has_uefi() -> bool:
return SysInfo.has_uefi()
def parent_device_path(dev_path: Path) -> Path:
return get_parent_device_path(dev_path)
def unique_device_path(dev_path: Path) -> Path | None:
return get_unique_path_for_device(dev_path)
def _application_handler():
"""Return archinstall's application handler across archinstall versions."""
module = importlib.import_module("archinstall.lib.applications.application_handler")
handler = getattr(module, "application_handler", None)
if handler is not None and callable(getattr(handler, "install_applications", None)):
return handler
handler_class = getattr(module, "ApplicationHandler", None)
if handler_class is None:
raise RuntimeError("archinstall application handler is unavailable")
try:
handler = handler_class()
except TypeError as exc:
raise RuntimeError("archinstall ApplicationHandler cannot be constructed") from exc
if not callable(getattr(handler, "install_applications", None)):
raise RuntimeError("archinstall ApplicationHandler has no install_applications method")
return handler
def _method_accepts(method, name: str) -> bool:
"""Return whether a bound archinstall method accepts a named argument.
Do not use inspect.signature here: Python 3.14 may evaluate archinstall's
lazy annotations, and some archinstall releases annotate with names that are
only imported under TYPE_CHECKING.
"""
fn = getattr(method, "__func__", method)
code = getattr(fn, "__code__", None)
if code is None:
return True
positional = code.co_varnames[:code.co_argcount]
kwonly = code.co_varnames[code.co_argcount:code.co_argcount + code.co_kwonlyargcount]
return name in (*positional, *kwonly)
def _method_accepts_users(method) -> bool:
return _method_accepts(method, "users")
def install_applications(installer: Installer, arch_config: ArchConfig) -> None:
"""Install archinstall application selections such as PipeWire audio.
The configurator still writes archinstall's audio_config. We own phase
ordering now, but should not silently drop archinstall's hardware-aware
application installers (SOF/ALSA firmware detection, PipeWire packages,
Bluetooth selections, etc.).
"""
app_config = arch_config.app_config
if not app_config:
return
users = arch_config.auth_config.users if arch_config.auth_config else None
handler = _application_handler()
install_applications_method = handler.install_applications
if _method_accepts_users(install_applications_method):
install_applications_method(installer, app_config, users)
else:
install_applications_method(installer, app_config)
def root_user(arch_config: ArchConfig) -> User | None:
auth = arch_config.auth_config
if not auth or not auth.root_enc_password:
return None
return User("root", auth.root_enc_password, False)
@@ -1,54 +0,0 @@
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)
@@ -1,229 +0,0 @@
"""Install context: parsed configurator output, invocation paths, and a
mutable `state` dict for objects that live across phases (e.g., the
archinstall config handler and mirror list handler)."""
from __future__ import annotations
import json
import os
import secrets
from dataclasses import dataclass, field
from pathlib import Path
from typing import Any
@dataclass
class InstallContext:
config_path: Path
creds_path: Path
full_name: str
email: str
encrypt: bool
authorized_keys_path: Path | None
tailscale_authkey_path: Path | None
user_configuration: dict
user_credentials: dict
arch_config_path: Path
omarchy_install: dict[str, Any]
defer_provisioning: bool = False
target: Path = Path("/mnt")
omarchy_path: Path = Path("/usr/share/omarchy")
state_dir: Path = Path("/run/omarchy-install")
log_path: Path = Path("/var/log/omarchy-install.log")
target_log_path: Path = Path("/mnt/var/log/omarchy-install.log")
# Mutable per-run state shared across phases (e.g., 'arch_config_handler',
# 'mirror_handler'). Phases populate as needed; later phases read.
state: dict[str, Any] = field(default_factory=dict)
@classmethod
def from_env(cls) -> "InstallContext":
config_str = os.environ.get("OMARCHY_INSTALL_CONFIG")
creds_str = os.environ.get("OMARCHY_INSTALL_CREDS")
if not config_str or not creds_str:
raise RuntimeError("OMARCHY_INSTALL_CONFIG and OMARCHY_INSTALL_CREDS must be set")
config_path = Path(config_str)
creds_path = Path(creds_str)
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]
# 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
# user_credentials.json requirement.
defer_provisioning_marker = _optional_path(os.environ.get("OMARCHY_INSTALL_DEFER_PROVISIONING_FILE"))
defer_provisioning = bool(omarchy_install.get("defer_provisioning")) or defer_provisioning_marker is not None
omarchy_install["defer_provisioning"] = defer_provisioning
if creds_path.exists():
user_credentials = json.loads(creds_path.read_text())
elif defer_provisioning:
user_credentials = {"users": []}
else:
raise RuntimeError(f"credentials file missing: {creds_path}")
if defer_provisioning:
# Deferred provisioning promises no account until first boot. A supplied
# credentials file (a rig handing over its LUKS passphrase) must
# not smuggle in users or a root password.
encryption_password = user_credentials.get("encryption_password")
user_credentials = {"users": []}
if encryption_password:
user_credentials["encryption_password"] = encryption_password
arch_configuration = dict(user_configuration)
arch_configuration.pop("omarchy_install", None)
if defer_provisioning:
# The userless invariant covers the archinstall config too: a
# combined/legacy config could carry account authentication that
# archinstall would still act on (users, a root password). Strip
# every such field so no account is created before first boot.
_strip_account_fields(arch_configuration)
state_dir = Path(os.environ.get("OMARCHY_INSTALL_STATE_DIR", "/run/omarchy-install"))
state_dir.mkdir(parents=True, exist_ok=True)
if defer_provisioning:
# Encrypted deferred-provisioning installs have no user password to protect LUKS
# with. Generate a throwaway passphrase (staged for first-boot
# re-key by the stage_provisioning_state phase) and hand it to archinstall
# through both places it may look: the disk_encryption block and
# the credentials file.
_inject_provisioning_encryption_password(arch_configuration, user_credentials)
creds_path = state_dir / "provisioning-user_credentials.json"
creds_path.write_text(json.dumps(user_credentials, indent=2) + "\n")
creds_path.chmod(0o600)
arch_config_path = state_dir / "archinstall-user_configuration.json"
arch_config_path.write_text(json.dumps(arch_configuration, indent=2) + "\n")
ctx = cls(
config_path=config_path,
creds_path=creds_path,
full_name=_read_text(os.environ.get("OMARCHY_INSTALL_FULL_NAME_FILE")),
email=_read_text(os.environ.get("OMARCHY_INSTALL_EMAIL_FILE")),
encrypt=_read_text(os.environ.get("OMARCHY_INSTALL_ENCRYPT_FILE")).lower() in ("true", "yes", "1"),
authorized_keys_path=_optional_path(os.environ.get("OMARCHY_INSTALL_AUTHORIZED_KEYS_FILE")),
tailscale_authkey_path=_optional_path(os.environ.get("OMARCHY_INSTALL_TAILSCALE_AUTHKEY_FILE")),
user_configuration=user_configuration,
user_credentials=user_credentials,
arch_config_path=arch_config_path,
omarchy_install=omarchy_install,
defer_provisioning=defer_provisioning,
state_dir=state_dir,
)
disk_config = user_configuration.get("disk_config", {})
target_mount = omarchy_install.get("target_mount") or disk_config.get("mountpoint")
if target_mount:
ctx.target = Path(target_mount)
return ctx
@property
def username(self) -> str:
users = self.user_credentials.get("users") or []
if users:
return users[0]["username"]
if self.defer_provisioning:
return ""
raise RuntimeError("user_credentials.json contains no users")
@property
def mode(self) -> str:
if mode := self.omarchy_install.get("mode"):
return mode
cfg_type = self.user_configuration.get("disk_config", {}).get("config_type")
return "protected" if cfg_type == "pre_mounted_config" else "full_disk"
@property
def is_protected(self) -> bool:
return self.mode == "protected"
def _strip_account_fields(arch_configuration: dict) -> None:
"""Remove every field archinstall reads to create users or set a root
password, so it cannot ship a hidden provisioning account.
Encryption material lives elsewhere (disk_config.disk_encryption) and is
untouched."""
for key in ("!users", "!root-password", "root_enc_password", "users"):
arch_configuration.pop(key, None)
auth = arch_configuration.get("auth_config")
if isinstance(auth, dict):
for key in ("users", "root_enc_password"):
auth.pop(key, None)
def _inject_provisioning_encryption_password(arch_configuration: dict, user_credentials: dict) -> None:
"""Ensure an encrypted deferred-provisioning install has a LUKS passphrase archinstall can
use. Reuse one the input already carries (an autoinstall rig may supply
its own); otherwise generate a throwaway. Mutates the disk_encryption
block in place — arch_configuration shares it with user_configuration, so
the stage_provisioning_state phase can read the effective passphrase back."""
disk_encryption = (arch_configuration.get("disk_config") or {}).get("disk_encryption")
if disk_encryption is None:
return
password = disk_encryption.get("encryption_password") or user_credentials.get("encryption_password")
if not password:
password = secrets.token_urlsafe(24)
disk_encryption["encryption_password"] = password
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"
return {
"mode": mode,
"target_mount": disk_config.get("mountpoint") or "/mnt",
"boot": {
"esp_mount": "/boot",
"esp_path": "/EFI/limine",
"efi_binary": "limine_x64.efi",
"enable_fallback": mode == "full_disk",
},
"storage": {},
}
def _optional_path(path: str | None) -> Path | None:
"""A path the caller always passes but that need not exist. The live ISO
passes --authorized-keys-file on every install; only autoinstall drives put
a file there."""
if not path:
return None
p = Path(path)
return p if p.exists() else None
def _read_text(path: str | None) -> str:
if not path:
return ""
p = Path(path)
if not p.exists():
return ""
return p.read_text().strip()
@@ -1,54 +0,0 @@
"""Offline target keyboard configuration.
archinstall's set_keyboard_language boots the installed system in a
systemd-nspawn container just to run localectl. systemd-firstboot --root
produces the part of that output Omarchy actually consumes — KEYMAP for the
console plus the XKB* settings in vconsole.conf that omarchy's
detect-keyboard-layout.sh copies into Hyprland's kb_layout — without booting
anything. The Xorg 00-keyboard.conf that localectl also writes is not
generated: nothing on an Omarchy system reads it.
"""
from __future__ import annotations
from pathlib import Path
from .command import capture
def configure_keyboard(target: Path, language: 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.
"""
if not language.strip():
return True
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()}:
return False
# systemd-firstboot --force rewrites vconsole.conf wholesale, dropping the
# FONT= line archinstall's set_vconsole wrote earlier.
vconsole_path = target / "etc" / "vconsole.conf"
font = None
if vconsole_path.exists():
font = next(
(line for line in vconsole_path.read_text().splitlines() if line.startswith("FONT=")),
None,
)
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}")
if font:
vconsole_path.write_text(vconsole_path.read_text() + font + "\n")
return True
@@ -1,111 +0,0 @@
"""Omarchy install orchestrator.
Single tool that owns the full install phase ordering, with archinstall used as
a library subsystem (not as the top-level installer).
The live-ISO wrapper consumes CLI args and passes configuration paths via
OMARCHY_INSTALL_* environment variables before Python starts. This keeps
archinstall's import-time CLI parsing from seeing Omarchy-specific flags.
"""
from __future__ import annotations
import sys
from .context import InstallContext
from .phases import PhaseError, run
from .ui import error, info
def build_phases(ctx: InstallContext):
"""Phase order. Each entry is (display name, callable taking InstallContext).
The ordering is the whole point of this orchestrator: package-install
hooks (limine-mkinitcpio-hook, in particular) and useradd happen at
points where their prerequisites are guaranteed to be in place.
Full-disk and protected installs use the same phase sequence. The
configurator only changes the JSON input: full-disk asks archinstall to
create/mount the layout, while protected provides an already-mounted target
and the partition details Omarchy needs for boot/fstab generation.
"""
from .phases_impl import (
prepare_live,
prepare_install_target,
arch_install_system,
configure_hibernation,
run_system_finalizer,
stage_provisioning_state,
finalize_limine_boot,
run_chroot_finalizer,
configure_dns_resolver,
configure_login,
configure_ssh_access,
configure_tailscale,
validate_boot,
create_factory_snapshot,
)
return [
("Preparing live environment", prepare_live),
("Preparing install target", prepare_install_target),
("Installing Arch + Omarchy", arch_install_system),
("Configuring hibernation", configure_hibernation),
("Configuring system", run_system_finalizer),
# Before finalize_limine_boot: the deferred-provisioning cryptkey drop-in and keyfile
# must be in place for the final UKI build.
("Staging provisioning", stage_provisioning_state),
("Finalizing Limine boot", finalize_limine_boot),
("Finalizing user", run_chroot_finalizer),
("Configuring login", configure_login),
("Configuring SSH access", configure_ssh_access),
("Configuring Tailscale", configure_tailscale),
("Configuring DNS resolver", configure_dns_resolver),
("Validating boot setup", validate_boot),
("Creating factory snapshot", create_factory_snapshot),
]
def main() -> int:
try:
ctx = InstallContext.from_env()
except RuntimeError as e:
error(f"Configuration error: {e}")
return 2
who = ctx.username or "deferred provisioning (user created at first boot)"
info(f"Installing Omarchy for {who} → {ctx.target}")
from .phases_impl import (
boost_cpu_governor,
cleanup_bind_mounts,
cleanup_protected_state,
cleanup_target_hook_masks,
restore_cpu_governors,
)
governors = boost_cpu_governor()
success = False
try:
try:
run(ctx, build_phases(ctx))
success = True
except PhaseError:
error("Installation halted.")
return 1
except KeyboardInterrupt:
error("Installation interrupted.")
return 130
info("Installation complete.")
return 0
finally:
restore_cpu_governors(governors)
cleanup_bind_mounts(ctx)
cleanup_target_hook_masks(ctx)
if not success:
cleanup_protected_state(ctx)
if __name__ == "__main__":
sys.exit(main())
@@ -1,105 +0,0 @@
"""Phase state machine. Each phase is a (name, callable) pair; callables take
the InstallContext and either return cleanly or raise to abort the install."""
from __future__ import annotations
import json
import os
import time
import traceback
from collections.abc import Callable
from pathlib import Path
from .context import InstallContext
from .ui import error, info
PhaseFn = Callable[[InstallContext], None]
class PhaseError(Exception):
"""Raised when a phase fails. Wrapped with the phase name."""
def run(ctx: InstallContext, phases: list[tuple[str, PhaseFn]]) -> None:
ctx.state_dir.mkdir(parents=True, exist_ok=True)
state_path = ctx.state_dir / "state.json"
state = {
"started_at": time.time(),
# The dashboard counts packages under <target>/var/lib/pacman/local;
# publish the path rather than have the UI assume /mnt.
"target": str(ctx.target),
"total_phases": len(phases),
"current_index": 0,
"current_phase": "Starting installation",
"phases": [],
}
_write_state(state_path, state)
for index, (name, fn) in enumerate(phases):
state["current_index"] = index
state["current_phase"] = name
state["phase_started_at"] = time.time()
_write_state(state_path, state)
info(f"› {name}")
started = time.time()
try:
fn(ctx)
except Exception as exc: # noqa: BLE001
elapsed = time.time() - started
state["phases"].append({
"name": name,
"status": "failed",
"elapsed": elapsed,
"error": str(exc),
})
_write_state(state_path, state)
error(f"Phase '{name}' failed after {elapsed:.1f}s: {exc}")
traceback.print_exc()
raise PhaseError(f"phase {name} failed: {exc}") from exc
elapsed = time.time() - started
state["phases"].append({"name": name, "status": "ok", "elapsed": elapsed})
_write_state(state_path, state)
state["current_index"] = max(len(phases) - 1, 0)
state["current_phase"] = "Installation complete"
state["finished_at"] = time.time()
# Expected vs actual for the bar's denominator, so drift is visible in
# acceptance runs rather than only by watching a bar creep.
state["installed_packages"] = _installed_package_count(ctx.target)
state["expected_packages"] = _expected_package_count()
_write_state(state_path, state)
timing_path = ctx.target / "var" / "log" / "omarchy-install-timing.json"
timing_path.parent.mkdir(parents=True, exist_ok=True)
_write_state(timing_path, state)
def _installed_package_count(target: Path) -> int:
"""Packages libalpm installed into the target — one directory each under
local/, which is what the dashboard counts live."""
local_db = target / "var" / "lib" / "pacman" / "local"
try:
with os.scandir(local_db) as entries:
return sum(1 for entry in entries if entry.is_dir())
except OSError:
return 0
def _expected_package_count() -> int:
path = Path("/usr/share/omarchy-iso/expected-packages")
try:
return int(path.read_text().split()[0])
except (OSError, ValueError, IndexError):
return 0
def _write_state(path: Path, state: dict) -> None:
# Dashboard polls this file while phases update it. Write atomically so the
# reader never observes a truncated/partial JSON document and resets UI.
tmp = path.with_name(f".{path.name}.tmp")
tmp.write_text(json.dumps(state, indent=2, default=str))
tmp.replace(path)
File diff suppressed because it is too large. Load diff
@@ -1,28 +0,0 @@
"""Orchestrator progress lines.
These land in the install log, not on a screen: omarchy-install-dashboard owns
the visible UI, captures the orchestrator's stdout into the support log, and
strips CSI sequences on the way in. The colouring was therefore never seen by
anyone, while gum charged a Go process start per line for it. Plain writes keep
the same indented shape at no cost.
Flush every line: pacstrap and arch-chroot inherit this fd, so buffering here
would reorder our lines against theirs in the log.
"""
from __future__ import annotations
import sys
def _emit(text: str) -> None:
sys.stdout.write(f"\n {text}\n")
sys.stdout.flush()
def info(text: str) -> None:
_emit(text)
def error(text: str) -> None:
_emit(text)
@@ -2,4 +2,4 @@ title Omarchy (x86_64, UEFI)
sort-key 01
linux /%INSTALL_DIR%/boot/x86_64/vmlinuz-linux-t2
initrd /%INSTALL_DIR%/boot/x86_64/initramfs-linux-t2.img
options archisobasedir=%INSTALL_DIR% archisosearchuuid=%ARCHISO_UUID% quiet splash xe.enable_panel_replay=0 initramfs_async=0
options archisobasedir=%INSTALL_DIR% archisosearchuuid=%ARCHISO_UUID% quiet splash xe.enable_panel_replay=0
+5 -2
View File
@@ -54,13 +54,13 @@ timeout_style=hidden
menuentry "Omarchy (%ARCH%, ${archiso_platform})" --class arch --class gnu-linux --class gnu --class os --id 'archlinux' {
set gfxpayload=keep
linux /%INSTALL_DIR%/boot/%ARCH%/vmlinuz-linux-t2 archisobasedir=%INSTALL_DIR% archisosearchuuid=%ARCHISO_UUID% quiet splash xe.enable_panel_replay=0 initramfs_async=0
linux /%INSTALL_DIR%/boot/%ARCH%/vmlinuz-linux-t2 archisobasedir=%INSTALL_DIR% archisosearchuuid=%ARCHISO_UUID% quiet splash xe.enable_panel_replay=0
initrd /%INSTALL_DIR%/boot/%ARCH%/initramfs-linux-t2.img
}
menuentry "Omarchy with speakup screen reader (%ARCH%, ${archiso_platform})" --hotkey s --class arch --class gnu-linux --class gnu --class os --id 'archlinux-accessibility' {
set gfxpayload=keep
linux /%INSTALL_DIR%/boot/%ARCH%/vmlinuz-linux-t2 archisobasedir=%INSTALL_DIR% archisosearchuuid=%ARCHISO_UUID% accessibility=on xe.enable_panel_replay=0 initramfs_async=0
linux /%INSTALL_DIR%/boot/%ARCH%/vmlinuz-linux-t2 archisobasedir=%INSTALL_DIR% archisosearchuuid=%ARCHISO_UUID% accessibility=on xe.enable_panel_replay=0
initrd /%INSTALL_DIR%/boot/%ARCH%/initramfs-linux-t2.img
}
@@ -104,3 +104,6 @@ menuentry 'System restart' --class reboot --class restart {
}
# GRUB init tune for accessibility
play 600 988 1 1319 4
+2 -2
View File
@@ -30,13 +30,13 @@ timeout_style=hidden
menuentry "Omarchy (%ARCH%, ${archiso_platform})" --class arch --class gnu-linux --class gnu --class os --id 'archlinux' {
set gfxpayload=keep
linux /%INSTALL_DIR%/boot/%ARCH%/vmlinuz-linux-t2 archisobasedir=%INSTALL_DIR% img_dev=UUID=${archiso_img_dev_uuid} img_loop="${iso_path}" quiet splash xe.enable_panel_replay=0 initramfs_async=0
linux /%INSTALL_DIR%/boot/%ARCH%/vmlinuz-linux-t2 archisobasedir=%INSTALL_DIR% img_dev=UUID=${archiso_img_dev_uuid} img_loop="${iso_path}" quiet splash xe.enable_panel_replay=0
initrd /%INSTALL_DIR%/boot/%ARCH%/initramfs-linux-t2.img
}
menuentry "Omarchy with speakup screen reader (%ARCH%, ${archiso_platform})" --hotkey s --class arch --class gnu-linux --class gnu --class os --id 'archlinux-accessibility' {
set gfxpayload=keep
linux /%INSTALL_DIR%/boot/%ARCH%/vmlinuz-linux-t2 archisobasedir=%INSTALL_DIR% img_dev=UUID=${archiso_img_dev_uuid} img_loop="${iso_path}" accessibility=on xe.enable_panel_replay=0 initramfs_async=0
linux /%INSTALL_DIR%/boot/%ARCH%/vmlinuz-linux-t2 archisobasedir=%INSTALL_DIR% img_dev=UUID=${archiso_img_dev_uuid} img_loop="${iso_path}" accessibility=on xe.enable_panel_replay=0
initrd /%INSTALL_DIR%/boot/%ARCH%/initramfs-linux-t2.img
}
+1 -8
View File
@@ -13,13 +13,6 @@ ParallelDownloads = 5
SigLevel = Required DatabaseOptional
LocalFileSigLevel = Optional
# No signature checks for the offline mirror: it ships inside the ISO, whose
# integrity is already covered by the airootfs sha512 and the ISO signature.
# "Optional TrustAll" is NOT a bypass — Optional verifies whenever a .sig file
# exists (they all do), and pacstrap verifies against the LIVE keyring (pacman
# -r relocates the root but not GpgDir). That made installs depend on archiso's
# slow boot-time pacman-init.service having finished, which stalled or failed
# pacstrap on real hardware with "required key missing from keyring".
[offline]
SigLevel = Never
SigLevel = Optional TrustAll
Server = file:///var/cache/omarchy/mirror/offline/
-1
View File
@@ -30,6 +30,5 @@ SigLevel = Optional TrustAll
Server = https://pkgs.omarchy.org/edge/$arch
[arch-mact2]
Server = https://mirror.funami.tech/arch-mact2/os/x86_64
Server = https://github.com/NoaHimesaka1873/arch-mact2-mirror/releases/download/release
SigLevel = Never
+1 -2
View File
@@ -27,9 +27,8 @@ Include = /etc/pacman.d/mirrorlist
[omarchy]
SigLevel = Optional TrustAll
Server = https://pkgs.omarchy.org/rc/$arch
Server = https://pkgs.omarchy.org/edge/$arch
[arch-mact2]
Server = https://mirror.funami.tech/arch-mact2/os/x86_64
Server = https://github.com/NoaHimesaka1873/arch-mact2-mirror/releases/download/release
SigLevel = Never
-1
View File
@@ -30,6 +30,5 @@ 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
SigLevel = Never
+3 -23
View File
@@ -12,35 +12,15 @@ bootmodes=('bios.syslinux' 'uefi.grub')
arch="x86_64"
pacman_conf="pacman-offline.conf"
airootfs_image_type="squashfs"
# Package archives in the offline mirror are already zstd-compressed. Storing
# them in an outer stream saves little space but makes pacman decompress the
# outer layer while hashing and extracting every package during installation.
#
# Everything else in the live root is zstd rather than xz. Squashfs decompresses
# on the page-fault path through a single stream (CONFIG_SQUASHFS_DECOMP_SINGLE),
# where xz manages ~100MB/s against zstd's ~900MB/s, and the live root is read
# cold on every boot: kernel, plymouth, systemd, python, archinstall, gum. The
# whole ISO grows well under a percent for it, and dropping the x86 BCJ filter
# also removes one of the blockers listed in plans/aarch64-support.md.
airootfs_image_tool_options=(
'-comp' 'zstd'
'-Xcompression-level' '19'
'-b' '1M'
'-action' 'uncompressed@subpathname(var/cache/omarchy/mirror/offline)'
)
airootfs_image_tool_options=('-comp' 'xz' '-Xbcj' 'x86' '-b' '1M' '-Xdict-size' '1M')
bootstrap_tarball_compression=('zstd' '-c' '-T0' '--auto-threads=logical' '--long' '-19')
file_permissions=(
["/etc/shadow"]="0:0:400"
["/root"]="0:0:750"
["/root/.automated_script.sh"]="0:0:755"
["/root/.gnupg"]="0:0:700"
["/root/configurator"]="0:0:755"
["/usr/local/bin/choose-mirror"]="0:0:755"
["/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"
["/root/configurator"]="0:0:755"
["/var/cache/omarchy/mirror/offline/"]="0:0:775"
["/usr/local/bin/omarchy-upload-log"]="0:0:755"
)
+3 -3
View File
@@ -6,7 +6,7 @@ ENDTEXT
MENU LABEL Omarchy install medium (x86_64, NBD)
LINUX ::/%INSTALL_DIR%/boot/x86_64/vmlinuz-linux-t2
INITRD ::/%INSTALL_DIR%/boot/x86_64/initramfs-linux-t2.img
APPEND archisobasedir=%INSTALL_DIR% archisosearchuuid=%ARCHISO_UUID% archiso_nbd_srv=${pxeserver} cms_verify=y initramfs_async=0
APPEND archisobasedir=%INSTALL_DIR% archisosearchuuid=%ARCHISO_UUID% archiso_nbd_srv=${pxeserver} cms_verify=y
SYSAPPEND 3
LABEL arch64_nfs
@@ -17,7 +17,7 @@ ENDTEXT
MENU LABEL Omarchy install medium (x86_64, NFS)
LINUX ::/%INSTALL_DIR%/boot/x86_64/vmlinuz-linux-t2
INITRD ::/%INSTALL_DIR%/boot/x86_64/initramfs-linux-t2.img
APPEND archisobasedir=%INSTALL_DIR% archiso_nfs_srv=${pxeserver}:/run/archiso/bootmnt cms_verify=y initramfs_async=0
APPEND archisobasedir=%INSTALL_DIR% archiso_nfs_srv=${pxeserver}:/run/archiso/bootmnt cms_verify=y
SYSAPPEND 3
LABEL arch64_http
@@ -28,5 +28,5 @@ ENDTEXT
MENU LABEL Omarchy install medium (x86_64, HTTP)
LINUX ::/%INSTALL_DIR%/boot/x86_64/vmlinuz-linux-t2
INITRD ::/%INSTALL_DIR%/boot/x86_64/initramfs-linux-t2.img
APPEND archisobasedir=%INSTALL_DIR% archiso_http_srv=http://${pxeserver}/ cms_verify=y initramfs_async=0
APPEND archisobasedir=%INSTALL_DIR% archiso_http_srv=http://${pxeserver}/ cms_verify=y
SYSAPPEND 3
+2 -2
View File
@@ -6,7 +6,7 @@ ENDTEXT
MENU LABEL Omarchy install medium (x86_64, BIOS)
LINUX /%INSTALL_DIR%/boot/x86_64/vmlinuz-linux-t2
INITRD /%INSTALL_DIR%/boot/x86_64/initramfs-linux-t2.img
APPEND archisobasedir=%INSTALL_DIR% archisosearchuuid=%ARCHISO_UUID% quiet splash xe.enable_panel_replay=0 initramfs_async=0
APPEND archisobasedir=%INSTALL_DIR% archisosearchuuid=%ARCHISO_UUID% quiet splash xe.enable_panel_replay=0
# Accessibility boot option
LABEL arch64speech
@@ -17,4 +17,4 @@ ENDTEXT
MENU LABEL Omarchy install medium (x86_64, BIOS) with ^speech
LINUX /%INSTALL_DIR%/boot/x86_64/vmlinuz-linux-t2
INITRD /%INSTALL_DIR%/boot/x86_64/initramfs-linux-t2.img
APPEND archisobasedir=%INSTALL_DIR% archisosearchuuid=%ARCHISO_UUID% accessibility=on xe.enable_panel_replay=0 initramfs_async=0
APPEND archisobasedir=%INSTALL_DIR% archisosearchuuid=%ARCHISO_UUID% accessibility=on xe.enable_panel_replay=0
File diff suppressed because it is too large. Load diff
File diff suppressed because it is too large. Load diff
-178
View File
@@ -1,178 +0,0 @@
# Plan: aarch64 (Generic UEFI ARM64) build for omarchy-iso
## Context
omarchy-iso currently produces a single x86_64 Arch Linux live ISO. The build is x86-baked from top to bottom — profile arch, package list filename, microcode, kernel choice (`linux-t2`), bootloader configs (BIOS syslinux + UEFI GRUB), squashfs BCJ filter, Node.js download URL, QEMU smoke-test, release filename, and CI runner.
Target: a parallel **generic UEFI aarch64** ISO — boots on Ampere servers, AWS Graviton VMs, Snapdragon X laptops, ARM dev kits. Anything that exposes vanilla UEFI + ACPI. Apple Silicon (Asahi) and SBCs (U-Boot/rpi-firmware) are out of scope.
**Assumption:** cross-repo dependencies are someone else's problem to land first. This plan only covers omarchy-iso. The hard prerequisites are listed up front so it's clear what blocks the first green build.
---
## Hard prerequisites (NOT in this plan, but block any green build)
These exist outside omarchy-iso. Flagged for visibility — without them, nothing here boots:
1. **aarch64 base packages must exist somewhere we can pacman from.** Vanilla Arch (`geo.mirror.pkgbuild.com`) is x86_64-only — there is no `core/os/aarch64`. The realistic source is **Arch Linux ARM** (`mirror.archlinuxarm.org`) for `core`/`extra`/`alarm`/`aur`. Decision required: target Arch Linux ARM as the aarch64 base distribution.
2. **`pkgs.omarchy.org/{stable,edge}/aarch64/`** must serve a real repo. Probed today, both return 404. omarchy-pkgs already has multi-arch build support per its README, so this is a publish step, not a port.
3. **Omarchy ISO architecture guard** must allow supported architectures or scope any x86_64-only checks behind an explicit guard.
4. **archinstall + Limine** must work end-to-end on aarch64. archinstall supports it; Limine supports aarch64 UEFI. Worth a manual verification before committing to this bootloader path on ARM.
---
## Approach
Add an `--arch aarch64` flag to `bin/omarchy-iso-make`. Branch on it everywhere x86_64 is currently assumed. Don't fork the profile directory — overlay arch-specific files at build time so the two architectures share one source of truth.
Output artifact naming already uses no arch suffix until release-time renaming, so two parallel builds coexist cleanly.
---
## Concrete changes
### 1. Build entrypoint — `bin/omarchy-iso-make`
- Add `--arch x86_64|aarch64` flag (default `x86_64` for backward compat).
- Pass `OMARCHY_ARCH` env var into the container.
- Switch the docker image / platform per arch:
- x86_64: `archlinux/archlinux:latest` (unchanged)
- aarch64: `archlinuxarm/archlinuxarm:latest` (or `menci/archlinuxarm` — pick whichever publishes a recent multi-arch image), with `--platform linux/arm64`. Native arm64 host preferred; QEMU emulation works but is slow.
- Don't change pacman cache mount on the host: pacman keeps per-arch subdirs, so the cache is safe to share.
### 2. Profile — `configs/profiledef.sh`
Change `arch` and the squashfs BCJ filter at runtime. Either:
- Keep one `profiledef.sh` and have `builder/build-iso.sh` `sed` the arch line + BCJ filter (`x86` → `arm`) before `mkarchiso` runs, **or**
- Source `OMARCHY_ARCH` directly inside `profiledef.sh` (mkarchiso sources this file with bash, so env access is fine).
`bootmodes` also needs to drop `bios.syslinux` for aarch64 (BIOS boot is x86-only) — `bootmodes=('uefi.grub')` on ARM.
### 3. Build script — `builder/build-iso.sh`
- **Line 56–57**: Node.js URL grep. Branch on `OMARCHY_ARCH`:
- `x86_64` → `linux-x64.tar.gz`
- `aarch64` → `linux-arm64.tar.gz`
- **Line 73**: package additions. Drop `linux-t2` for aarch64 (T2-only x86 kernel) — use plain `linux`. Write to `packages.${OMARCHY_ARCH}` instead of hardcoded `packages.x86_64`.
- **Line 77**: read same `packages.${OMARCHY_ARCH}` for offline mirror enumeration.
- **archiso releng overlay** (`cp -r /archiso/configs/releng/*`): the upstream `releng` profile ships only `packages.x86_64`. For aarch64, copy `packages.x86_64` to `packages.aarch64` and prune obviously x86-only entries (`memtest86+`, `intel-ucode`, `amd-ucode`, `edk2-shell` x64 binary, `syslinux`). Land this as a small fixup step in `build-iso.sh` rather than a full fork of `releng`.
### 4. archinstall package list — `builder/archinstall.packages`
Drop microcode for aarch64 — `intel-ucode` and `amd-ucode` don't exist for ARM. Either:
- Two lists (`archinstall.packages.x86_64`, `archinstall.packages.aarch64`), or
- One list with sentinel comments and a filter step in `build-iso.sh:80` that drops microcode lines when `OMARCHY_ARCH=aarch64`.
The second is less duplication for one-line drift.
### 5. Bootloader configs
aarch64 has no BIOS — only UEFI. Drop the syslinux path entirely on ARM.
- **Skip on aarch64**: `configs/syslinux/*` (BIOS syslinux), `configs/grub/*` references to `shellx64.efi`/`shellia32.efi` (lines 81–85 of `grub.cfg`).
- **`configs/efiboot/loader/loader.conf`**: change `default 01-archiso-x86_64-linux.conf` to a per-arch entry. Either two loader.conf files (selected by build-iso.sh) or rename the entry generically (`01-archiso-linux.conf`) and keep one file.
- **`configs/efiboot/loader/entries/01-archiso-x86_64-linux.conf`**: produce an aarch64 sibling (`01-archiso-aarch64-linux.conf`) at build time — same template, drop microcode initrd lines, swap title. The kernel/initrd paths use `%ARCH%` already in `grub.cfg` but are hardcoded `x86_64` in this file (line 3–4).
- **`configs/grub/grub.cfg` and `loopback.cfg`**: remove or guard the x86_64 conditionals. The `%ARCH%` placeholder gets substituted by mkarchiso from `profiledef.sh:arch`, so the kernel/initrd paths flip automatically. Manually-written `grub_cpu == 'x86_64'` blocks (lines 34–39, 68, 81–85) should drop on aarch64 builds — easiest done with a build-time sed for the aarch64 path, or by extracting them into a separate `grub-x86_64.cfg.fragment` only included on x86 builds.
The cleanest cut: keep one `grub.cfg` shared, strip the x86 shell/memtest fragments at build time when `OMARCHY_ARCH=aarch64`. Don't fork the file.
### 6. mkinitcpio preset — `configs/airootfs/etc/mkinitcpio.d/linux-t2.preset`
Names `vmlinuz-linux-t2` and `initramfs-linux-t2.img`. The filename is the pkgbase and the alpm hook keys off it, so aarch64 does not rename this file — it simply does not ship it, and releng's own `linux.preset` covers the stock kernel. Drop `linux-t2` from `arch_packages` on aarch64 and the boot entries point at `vmlinuz-linux` / `initramfs-linux.img`.
### 7. Configurator — `configs/airootfs/root/configurator`
Lines 320–325:
```bash
if lspci -nn 2>/dev/null | grep -q "106b:180[12]"; then
kernel_choice="linux-t2"
else
kernel_choice="linux"
fi
```
T2 detection is harmless on aarch64 (`lspci` returns no match), so `kernel_choice` falls through to `linux`. **No change strictly required**, but clearer to wrap the lspci probe in `[[ $(uname -m) == "x86_64" ]]` so the intent reads correctly. Cheap.
The archinstall JSON's `mirror_config.custom_servers` (lines 422–424) points at `mirror.omarchy.org`, `mirror.rackspace.com/archlinux`, `geo.mirror.pkgbuild.com` — none of these serve aarch64. For aarch64 the list must be `mirror.archlinuxarm.org` and friends. Branch the JSON template on `OMARCHY_ARCH` (or `uname -m` at runtime, since this file runs on the live ISO).
### 8. pacman configs — `configs/pacman-online-{stable,rc,edge,offline}.conf`
The `$arch` placeholder is pacman-resolved (matches `Architecture = auto`), so `https://stable-mirror.omarchy.org/$repo/os/$arch` adapts automatically — **as long as the mirror serves aarch64**. The omarchy mirror is the bottleneck (prerequisite #2). The `arch-mact2` repo is x86-only by definition; gate it behind arch on aarch64 builds (drop the section).
### 9. Smoke-test scripts — `bin/omarchy-iso-boot`, `bin/omarchy-vm`
Detect arch from the ISO filename (or accept a flag) and switch:
- x86_64: `qemu-system-x86_64`, `/usr/share/edk2/x64/OVMF_CODE.4m.fd` + `OVMF_VARS.4m.fd` (unchanged).
- aarch64: `qemu-system-aarch64`, `-machine virt -cpu max`, `/usr/share/edk2/aarch64/QEMU_CODE.fd` + `QEMU_VARS.fd` (Arch package: `edk2-armvirt`).
Both scripts hardcode the OVMF path; small, mechanical fix.
### 10. Release script — `bin/omarchy-iso-release:52`
```bash
latest_iso=$(\ls -t "$BUILD_RELEASE_PATH"/*${OMARCHY_ARCH}-"$ISO_REF".iso | head -n1)
```
Hardcoded `x86_64` glob. Take an arch arg, or do `*${OMARCHY_ARCH}-${ISO_REF}.iso`. The ISO filename already contains arch (set by archiso from `profiledef.sh`), so this just needs the glob parameterized.
### 11. CI — `.github/workflows/nightly-build.yml`
Add a matrix:
```yaml
strategy:
matrix:
arch: [x86_64, aarch64]
include:
- arch: x86_64
runner: ubuntu-latest
- arch: aarch64
runner: ubuntu-24.04-arm # GitHub-hosted ARM runner, GA
```
Pass `--arch ${{ matrix.arch }}` to the build. Upload artifacts named per-arch.
If GitHub-hosted ARM runners aren't available on this org's plan, fall back to QEMU emulation on `ubuntu-latest` (slow, ~3-4× build time) or self-hosted.
---
## Files to modify (summary)
Code:
- `bin/omarchy-iso-make` — add `--arch` flag, branch docker image/platform
- `bin/omarchy-iso-boot` — branch QEMU binary + OVMF path
- `bin/omarchy-vm` — same as iso-boot
- `bin/omarchy-iso-release` — parameterize ISO glob
- `builder/build-iso.sh` — main branching: Node.js URL, package list filename, releng overlay fixups, kernel package
- `builder/archinstall.packages` — filter microcode on aarch64 (sentinel comments + filter step)
- `configs/profiledef.sh` — env-driven `arch` + BCJ filter + bootmodes
- `configs/efiboot/loader/loader.conf` — per-arch default entry
- `configs/efiboot/loader/entries/01-archiso-x86_64-linux.conf` — generate aarch64 sibling at build time
- `configs/grub/grub.cfg`, `loopback.cfg` — strip x86-only fragments on aarch64
- `configs/airootfs/etc/mkinitcpio.d/linux-t2.preset` — omit on aarch64 (drop linux-t2 there; releng's linux.preset covers the stock kernel)
- `configs/airootfs/root/configurator` — branch archinstall JSON mirror list on `uname -m`; optionally guard lspci T2 probe
- `.github/workflows/nightly-build.yml` — matrix x86_64/aarch64
No new files unless we go the dual-list route on archinstall.packages or efiboot loader entries; preferred path is build-time templating to keep one source of truth.
---
## Verification
**Local (host is x86_64):**
1. `bin/omarchy-iso-make --arch x86_64` — must produce a byte-similar ISO to today's nightly (smoke test for regressions in the refactor).
2. `bin/omarchy-iso-make --arch aarch64` — succeeds (slow under QEMU binfmt; expect 30-60 min).
3. `bin/omarchy-iso-boot release/omarchy-*-aarch64-*.iso` — boots to the configurator under `qemu-system-aarch64 -machine virt`. Walk through the picker, confirm archinstall lays down a working system, reboot into the installed system.
4. Live-iso shell: `pacman -Sy && pacman -Si linux` returns an aarch64 package from `mirror.archlinuxarm.org`.
**On real hardware (post green QEMU run):**
- AWS Graviton VM (`c7g.medium`, dd ISO to a volume, attach as boot) — fastest cloud check, no hardware needed.
- One physical ARM64 UEFI box if available (Ampere dev kit, Snapdragon X laptop, etc.) — the long pole.
**CI:**
- Both matrix legs go green on a manual `workflow_dispatch` before merging.
- Nightly produces both ISOs as artifacts.
---
## Open risks (call out before implementation)
1. **mkarchiso on aarch64 is less-trodden ground.** It accepts `arch="aarch64"`, but the upstream Arch project doesn't dogfood it. Expect to file/patch around small bugs in archiso's helper scripts. Keep the archiso submodule pin tight so a regression doesn't surprise nightly.
2. **Limine + LUKS + Btrfs + Snapper on aarch64** — every one of these works individually on ARM, but the combination is what omarchy ships. Worth one manual end-to-end pass before declaring done.
3. **Apple T2 / linux-t2 / `arch-mact2` repo** are silently dropped on aarch64; users mistakenly trying to install the aarch64 ISO on a T2 Mac will get an obviously-wrong result. The configurator could refuse to install when arch mismatch is detected, but that's outside this plan.
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# Consumer Secure Boot Plan: Microsoft Shim + MOK + UKI
## Goal
Support Omarchy installs on consumer laptops that ship with UEFI Secure Boot enabled and trust the Microsoft UEFI CA, without requiring users to disable Secure Boot.
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.
```text
Firmware Secure Boot
-> Microsoft-signed Omarchy shim
-> MokManager when key enrollment is pending
-> signed second-stage boot manager
-> signed Unified Kernel Image (UKI)
-> encrypted Omarchy root
```
For the installed OS, use machine-local Machine Owner Key (MOK) signing for UKIs generated during install and later kernel updates.
## Why MOK For Installed Systems
Omarchy's installed UKI is machine-specific because it includes or depends on install-time data such as:
- Kernel command line for encrypted root.
- Initramfs generated for the installed system.
- Kernel package version selected at install or update time.
We must not ship Omarchy's private release signing key on the ISO or installed system. Therefore:
1. The official ISO is signed by Omarchy release infrastructure.
2. During install, generate a machine-local Secure Boot keypair.
3. Enroll the public certificate through MokManager.
4. Sign installed UKIs and update-generated UKIs with the local private key.
5. Store the local private key only on the encrypted installed root, never on the ESP.
This preserves offline tamper resistance for `/boot` while avoiding any central private key on user machines.
## Scope Constraints
- UEFI only.
- Microsoft UEFI CA trust path only for consumer machines.
- No custom firmware key enrollment for v1 consumer installs.
- No TPM auto-unlock for Omarchy root in v1.
- No attempt to modify Windows BitLocker protectors or TPM ownership.
- Secure Boot mode uses signed UKIs only; no unsigned external kernel, initramfs, or command line files.
- Secure Boot mode may use a different boot manager than the current Limine path until Limine has a proven verified-boot story.
## Bootloader Decision
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
```
Policy:
- Keep Limine as the normal non-Secure-Boot bootloader unless we later prove Limine enforces signed payloads correctly.
- Use systemd-boot only for Secure Boot installs if that is the fastest reliable path.
- Boot only UKIs with embedded command line and initramfs.
- Disable or avoid unsigned boot entry editing in Secure Boot mode.
If later validation proves Limine can enforce signed payloads behind shim, this plan can swap the second stage while keeping the shim, MOK, UKI, and signing architecture.
## Required Artifacts
### Omarchy Shim Artifacts
These are release artifacts, not generated on normal developer machines:
- `shimx64.efi`, signed by Microsoft UEFI CA.
- `mmx64.efi` / MokManager artifact compatible with the shim.
- Optional `fbx64.efi` fallback artifact if needed by the selected shim packaging.
- Shim SBAT metadata owned by Omarchy.
- Omarchy public release certificate embedded in shim.
Do not depend on another distribution's shim as a permanent product strategy. Omarchy needs its own shim submission, SBAT identity, revocation path, and release process.
### Omarchy Signing Material
Release infrastructure owns:
- Omarchy Secure Boot release private key, stored offline or in an HSM-backed CI secret store.
- Omarchy Secure Boot release public certificate, embedded in shim and shipped for verification.
Installed systems own:
- Machine-local MOK private key, stored on encrypted root with `0600` permissions.
- Machine-local MOK public certificate, enrolled through MokManager.
Private keys must never be committed to this repo.
## Build-Time Flow
Add a Secure Boot-capable ISO build mode.
```text
bin/omarchy-iso-make --secure-boot
```
Build behavior:
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:
```text
OMARCHY_SECURE_BOOT_SIGNING_MODE=dev
```
Dev mode creates local test keys and is only expected to boot in QEMU firmware enrolled with those test keys. It must not be presented as Microsoft Secure Boot compatible.
## Installed-System Flow
When the live installer detects Secure Boot enabled:
1. Show a Secure Boot explanation before disk mutation.
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.
6. Build an installed UKI with embedded kernel, initramfs, command line, and OS release data.
7. Sign the installed UKI with the machine-local MOK private key.
8. Sign the selected second-stage boot manager with the machine-local MOK private key, unless it is release-signed and expected to remain static.
9. Schedule public certificate enrollment with `mokutil --import`.
10. Tell the user they must complete MokManager enrollment on the next reboot.
11. Preserve current firmware boot order by default on dual-boot machines.
Expected first reboot sequence after install:
```text
Firmware -> Omarchy shim -> MokManager -> user enrolls Omarchy machine key -> reboot -> Omarchy shim -> signed boot manager -> signed UKI -> LUKS unlock
```
## Kernel Update Flow
Secure Boot installs need deterministic UKI regeneration and signing after kernel or initramfs changes.
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. 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:
- If signing fails, do not replace the currently bootable UKI.
- If ESP space is low, keep the current UKI and fail loudly.
- If the local signing key is missing, block the update from producing an unsigned boot artifact.
## File Changes
### `bin/omarchy-iso-make`
Add flags:
```text
--secure-boot build Secure Boot-capable ISO flavor
--secure-boot-dev build with local test keys for QEMU only
```
Pass mode and signing configuration into the Docker build environment.
### `builder/build-iso.sh`
Add Secure Boot build support:
- Copy shim artifacts into the UEFI boot path.
- Build live UKI.
- Sign live UKI and second-stage EFI artifact.
- Fail official Secure Boot builds if release signing material is unavailable.
- Write `/root/omarchy_secure_boot_mode` into the live environment.
- Assert that Secure Boot boot entries do not point at unsigned payloads.
### `builder/secure-boot/`
Add non-secret Secure Boot build inputs:
- Public release certificate.
- SBAT template.
- Artifact manifest with expected shim/MokManager checksums.
- Developer test-key generation script for QEMU only.
Do not store private keys in this directory.
### `configs/airootfs/root/configurator`
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 (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 the install orchestrator.
Example state:
```bash
SECURE_BOOT_ENABLED=true
SECURE_BOOT_INSTALL=true
SECURE_BOOT_BOOTLOADER=systemd-boot
SECURE_BOOT_UKI=true
SECURE_BOOT_MOK_COMMON_NAME="Omarchy Machine Owner Key"
```
### `configs/airootfs/usr/share/omarchy-iso/orchestrator/`
Add Secure Boot install support to the install phases:
- 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 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
Add installed files similar to:
```text
/etc/omarchy/secure-boot.conf
/etc/kernel/cmdline
/etc/pacman.d/hooks/90-omarchy-uki.hook
/usr/local/sbin/omarchy-build-uki
/usr/local/sbin/omarchy-sign-uki
/boot/EFI/Omarchy/shimx64.efi
/boot/EFI/Omarchy/mmx64.efi
/boot/EFI/Omarchy/systemd-bootx64.efi
/boot/EFI/Linux/omarchy-linux.efi
/boot/EFI/Linux/omarchy-linux-fallback.efi
```
Exact paths can change during implementation, but signed boot artifacts must stay under Omarchy-owned ESP directories.
## Package Requirements
Live ISO and installed Secure Boot path need tools for:
- Building UKIs.
- Signing PE/COFF EFI binaries.
- Importing MOK certificates.
- Inspecting Secure Boot state.
Candidate packages:
```text
sbsigntools
efitools
mokutil
openssl
systemd
```
Validate Arch package availability before implementation. Do not assume an official Arch `shim-signed` package exists.
## Dual-Boot Policy
On Windows dual-boot machines:
- Never modify Windows boot files.
- Never clear or change TPM state.
- 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.
- 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.
## Security Model
Protected against:
- Offline replacement of unsigned kernels on the ESP.
- Offline modification of initramfs or kernel command line when UKI signature verification is enforced.
- Accidental boot of unsigned Omarchy boot payloads in Secure Boot mode.
Not protected against in v1:
- A compromised running root user signing malicious future UKIs with the local MOK key.
- Evil-maid attacks that trick the user into enrolling a malicious MOK.
- Attacks requiring TPM-measured boot or remote attestation.
Mitigations:
- Store local private key only on encrypted root.
- Make MokManager enrollment instructions explicit and brand-specific.
- Display expected certificate fingerprint before reboot.
- Keep release signing key outside shipped media.
- Keep SBAT metadata current for revocation response.
## QEMU Validation
Use QEMU with OVMF Secure Boot enabled and test keys enrolled.
Test matrix:
1. Secure Boot ISO boots with test shim/test db in OVMF.
2. Unsigned live UKI fails to boot.
3. Tampered live UKI fails to boot.
4. Secure Boot install completes to empty disk.
5. First installed boot enters MokManager enrollment flow.
6. After MOK enrollment, installed Omarchy boots and prompts for LUKS unlock.
7. Tampered installed UKI fails to boot.
8. Kernel update regenerates and signs a new UKI.
9. Failed signing leaves previous UKI bootable.
10. Dual-boot disk with Windows-style ESP preserves `EFI/Microsoft` and boot order.
QEMU cannot fully prove Microsoft production trust. Hardware validation is required with firmware that trusts Microsoft UEFI CA and has Secure Boot enabled.
## Hardware Validation
Minimum hardware tests:
1. Microsoft Secure Boot enabled laptop boots official Secure Boot ISO.
2. Windows dual-boot install preserves Windows boot.
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.
7. Kernel update boots with newly signed UKI.
8. Manually tampered UKI is rejected.
9. Firmware boot order is preserved unless user opted to promote Omarchy.
## Rollout Plan
### 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 (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
- Add dev keys and QEMU OVMF Secure Boot harness.
- Build a dev-signed live UKI.
- Boot ISO in QEMU with test keys.
- Prove unsigned and tampered payload rejection.
### Phase 3: Installed UKI + MOK Flow
- Generate local MOK key during install.
- Build and sign installed UKI.
- Schedule MokManager enrollment.
- Boot installed system in QEMU after enrollment.
- Add kernel update hook and fallback UKI handling.
### Phase 4: Official Shim And Release Signing
- Build Omarchy shim with SBAT metadata and embedded release cert.
- Submit shim artifacts for Microsoft signing.
- Integrate signed shim artifacts into official build pipeline.
- Add release signing with HSM/offline key handling.
### Phase 5: Consumer Dual-Boot UX
- Add Secure Boot and BitLocker warnings to configurator.
- Preserve Windows boot order by default.
- Add MOK enrollment instructions and certificate fingerprint display.
- Validate on real Windows hardware.
## Acceptance Criteria
- Official Secure Boot ISO boots on Microsoft Secure Boot hardware without disabling Secure Boot.
- Secure Boot install does not ship or expose Omarchy release private keys.
- Installed Omarchy boots through shim after MOK enrollment.
- Installed Omarchy root remains LUKS-encrypted and passphrase-unlocked.
- Kernel updates produce signed UKIs automatically.
- Tampered UKIs fail to boot.
- Windows ESP contents are preserved.
- Windows boot order is preserved by default.
- Secure Boot mode never offers an unsigned kernel/initramfs boot entry.
## Open Questions
- 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. **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.
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# 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 + First-Boot Setup Plan
## Goal
Create a second ISO flavor for OEM preloading that is installed to internal storage at factory time, then boots into customer setup on first power-on (no external media required), and ends in a fully encrypted Omarchy install.
## Product Requirements
- Factory can preload one image to internal disk.
- Customer first boot launches setup flow automatically (already works: `.automated_script.sh` runs configurator on tty1).
- Customer chooses credentials/settings.
- Final installed OS uses full-disk encryption (LUKS) with customer password (already works: configurator collects password and passes it to archinstall as `encryption_password`).
- Existing consumer ISO behavior remains unchanged.
---
## Chosen Architecture
### Bootstrapping model
- OEM devices ship with an OEM bootstrap ISO image written to internal disk.
- On first boot, `copytoram=y` kernel arg loads the live environment into RAM, freeing the internal disk.
- Bootstrap environment launches existing configurator + installer.
- Installer performs a fresh install to internal disk with LUKS encryption enabled.
- Bootstrap environment is overwritten during install.
### Recovery model: zero-recovery
- No permanent recovery partition.
- Simplest and strongest security story.
- Recovery requires external reinstall media.
---
## Non-Goals
- No on-device recovery workflow.
- No changes to normal installer UX outside explicit OEM mode checks and warnings.
- No factory credential provisioning.
---
## Repo Implementation Plan
## 1) Add OEM build mode
### Files
- `bin/omarchy-iso-make`
- `builder/build-iso.sh`
### Changes
- Add CLI flag `--oem` to `bin/omarchy-iso-make`.
- Pass `OMARCHY_MODE=oem` into Docker build env (default `normal`).
- In `builder/build-iso.sh`, write mode marker `/root/omarchy_mode` containing `oem` or `normal` (same pattern as `omarchy_mirror`).
- Keep OEM on current boot stack (`uefi.grub` + `bios.syslinux`); do not add or depend on systemd-boot paths.
- When `OMARCHY_MODE=oem`, inject `copytoram=y` into all shipped OEM boot entry points before `mkarchiso` runs:
- `grub/grub.cfg`: append to `linux` cmdline entries.
- `grub/loopback.cfg`: append to `linux` cmdline entries.
- `syslinux/archiso_sys-linux.cfg`: append to `APPEND` lines.
- When `OMARCHY_MODE=oem`, remove accessibility/speakup boot entries:
- `grub/grub.cfg`: remove `archlinux-accessibility` menuentry.
- `grub/loopback.cfg`: remove `archlinux-accessibility` menuentry.
- `syslinux/archiso_sys-linux.cfg`: remove `arch64speech` label block.
- When `OMARCHY_MODE=oem`, override `iso_application` in `profiledef.sh` to `"Omarchy OEM Installer"`.
- Rename output ISO with `-oem` suffix (in addition to existing `-$OMARCHY_INSTALLER_REF` suffix).
### Hardening
- Add post-injection build assertion that fails build if any expected boot config does not contain `copytoram=y`.
- Add post-injection build assertion that fails build if any OEM boot config still contains accessibility/speakup entries.
- Make injection idempotent (do not duplicate `copytoram=y` if already present).
### Acceptance criteria
- `./bin/omarchy-iso-make --oem` builds successfully.
- OEM ISO boot entries contain `copytoram=y` in all supported boot paths.
- OEM ISO does not expose accessibility/speakup boot entries.
- Normal build output and behavior remain unchanged.
### Suggested verification commands
- `bsdtar -xOf out/<iso>.iso boot/grub/grub.cfg | rg copytoram=y`
- `bsdtar -xOf out/<iso>.iso boot/grub/loopback.cfg | rg copytoram=y`
- `bsdtar -xOf out/<iso>.iso boot/syslinux/archiso_sys-linux.cfg | rg copytoram=y`
- `bsdtar -xOf out/<iso>.iso boot/grub/grub.cfg | rg 'accessibility|speakup'` (should return no matches)
- `bsdtar -xOf out/<iso>.iso boot/syslinux/archiso_sys-linux.cfg | rg 'speech|accessibility'` (should return no matches)
---
## 2) Add OEM safety guardrails
### Why
OEM image boots from internal disk and later wipes that same disk. Live environment must be fully in RAM before install begins.
### File
- `configs/airootfs/root/.automated_script.sh`
### Changes
- Before `run_configurator`, if `/root/omarchy_mode` is `oem`:
- Verify `/proc/cmdline` contains `copytoram=y`; abort with clear actionable error if missing.
- Verify factory hardware minimum using `MemTotal`:
- Require `MemTotal >= 8 GiB`.
- Abort with clear error if below minimum.
- Verify runtime memory safety using `MemAvailable`:
- Minimum threshold: `1.5 x ISO size + 1 GiB`.
- Abort with clear error if below threshold.
- Verify runtime state indicates live root is in RAM (for example, expected archiso runtime mounts present and boot media not actively mounted as install target path).
### Acceptance criteria
- OEM mode aborts safely if `copytoram=y` missing from cmdline.
- OEM mode aborts safely if `MemTotal < 8 GiB`.
- OEM mode aborts safely if `MemAvailable` below threshold.
- OEM mode aborts safely if runtime state does not confirm RAM-backed live environment.
### Error message requirements
- State exactly what failed.
- State why install is blocked.
- Provide next step (reboot using proper OEM media or use external recovery media).
---
## 3) OEM disk warning
### Why
With `copytoram=y`, archiso copies squashfs to RAM and releases boot device. Existing configurator call `findmnt -no SOURCE /run/archiso/bootmnt` may return empty, so exclusion filter is skipped and all physical disks are shown, including former boot disk. No disk selection logic change is required.
OEM mode still needs an unmistakable warning before destructive install proceeds.
### File
- `configs/airootfs/root/configurator`
### Changes
- Read mode from `/root/omarchy_mode`.
- If mode is `oem`, add OEM-specific warning text before existing destructive confirmation.
- Upgrade confirmation in OEM mode to explicit typed confirmation (for example: `YES, WIPE DISK`) while preserving existing normal-mode flow.
### Acceptance criteria
- Normal ISO behavior is unchanged.
- OEM ISO shows OEM-specific warning before disk wipe confirmation.
- OEM typed confirmation is required before destructive action.
- In VM with `copytoram=y`, former boot disk appears in disk list without exclusion-logic changes.
---
## 4) Documentation
### File
- `README.md`
### Changes
- Document `--oem` build flag and resulting artifact naming.
- Document factory workflow: writing OEM ISO to internal disk and expected first-boot UX.
- Document failure and recovery behavior:
- Missing `copytoram=y`, `MemTotal < 8 GiB`, or low `MemAvailable` causes safe abort.
- Interrupted/failed install requires external reinstall media.
- Add short operator checklist for manufacturing line validation.
---
## 5) Validation
### VM test matrix
1. Build OEM ISO.
2. Write OEM ISO to virtual disk (not external media emulation).
3. Boot from virtual disk and verify:
- `/proc/cmdline` contains `copytoram=y`.
- Guardrail checks pass in healthy case.
- OEM boot menu does not include accessibility/speech entries.
4. Complete setup flow on first boot.
5. Install to same disk.
6. Reboot into installed OS.
7. Verify encryption:
- `lsblk` shows crypt mapping.
- `cryptsetup status` reports active LUKS device.
- Boot requires unlock passphrase.
8. Validate OEM warning + typed confirmation appears and gates destructive action.
### Boot path coverage
- UEFI + GRUB path.
- BIOS/syslinux path (if still shipped).
### Hardware test matrix
- UEFI test on at least two hardware families (Intel + AMD).
- Confirm no external media required.
- Confirm first boot starts setup automatically.
### Negative tests
- OEM boot without `copytoram=y` -> safe abort with clear error.
- `MemTotal < 8 GiB` -> safe abort with clear error.
- Low `MemAvailable` -> safe abort with clear error.
- Runtime state not RAM-backed -> safe abort with clear error.
- Power interruption before installer starts -> deterministic reboot behavior.
- Power interruption during install -> recovery requires external media (documented).
---
## 6) Security hardening checklist
- No factory credentials exist; customer sets all passwords at first boot.
- Clear shell history and transient setup artifacts at end of install.
- Verify no secrets in logs shipped to customer.
- Regenerate host identity on first installed boot as needed:
- `machine-id`
- SSH host keys (if installed/enabled)
- Keep package signature verification and keyring handling intact.
---
## Rollout Plan
1. Implement OEM build flag, mode marker, boot config injection, and build assertions.
2. Implement copytoram, memory, and runtime-state guardrails in `.automated_script.sh`.
3. Add OEM warning text and typed destructive confirmation in configurator.
4. Add docs and operator checklist.
5. Run VM matrix, including negative tests.
6. Run hardware matrix.
7. Cut first OEM preproduction release for manufacturing pilot.
---
## Definition of Done
- `--oem` build exists and is documented.
- Device preloaded with OEM image boots directly to setup.
- Setup installs to internal disk without external media.
- Final installed system is LUKS-encrypted with customer-owned passphrase.
- OEM safety guardrails fail closed with actionable errors.
- Existing non-OEM ISO behavior remains unchanged.
- VM and hardware QA matrix pass.
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#!/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 "$ROOT"/test/unit/*-test.sh; do
printf '==> %s\n' "${test#$ROOT/}"
bash "$test"
done
printf '==> test/unit/test_*.py\n'
python3 -m unittest discover -t "$ROOT" -s "$ROOT/test/unit"
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#!/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 $status
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#!/bin/bash
#
# Shared harness for the integration scenarios in test/integration.d/: QEMU
# lifecycle, QMP screendump + OCR console driving, virtual keystrokes, guest
# SSH, cidata autoinstall, and the reusable base-image contract. Source this
# from a scenario; ./test/integration exports the configuration and ensures
# the base image exists before any scenario runs.
set -euo pipefail
ROOT=$(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" "$BASE_DISK"
}
-44
View File
@@ -1,44 +0,0 @@
#!/bin/bash
#
# Everyday boot: boots the installed system a second time and records how
# long it takes to answer SSH and what systemd-analyze reports, then asserts
# that systemd finished starting with no failed units. CI reports these next
# to the install time, so a change that slows booting shows up in its PR.
source "$(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 "$RUN_DIR/failed-units.txt"
capture_console "success-boot"
stop_vm
finish
-287
View File
@@ -1,287 +0,0 @@
#!/bin/bash
#
# Factory reset on a shared ESP: proves omarchy-system-factory-reset hands a
# machine on without destroying a dual-boot setup (basecamp/omarchy#6847).
# Dresses the installed ESP up as a dual-boot machine (Windows + a foreign
# Linux, exactly what the reset must not destroy), runs a real factory reset,
# and walks the first-boot setup that follows.
#
# Staging asserts the Windows and foreign Linux entries and their ESP payload
# survive, the old Omarchy identity (entry + directory) is gone, and a fresh
# Omarchy entry exists. First boot asserts provisioning completes, the machine
# identity changed, and the foreign entries are still intact afterwards.
source "$(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
View File
Whitespace-only changes.
-224
View File
@@ -1,224 +0,0 @@
#!/bin/bash
#
# Unit tests for omarchy-cidata-load. The script takes a path prefix, so every
# case runs against a throwaway sandbox with mount/umount/udevadm stubbed out:
# "mounting" copies the fake drive's contents into the mountpoint, and every
# stub logs its invocation so the cases can assert what was (not) called.
set -euo pipefail
ROOT=$(cd -- "$(dirname -- "${BASH_SOURCE[0]}")/../.." && pwd)
CIDATA_LOAD="$ROOT/configs/airootfs/usr/local/bin/omarchy-cidata-load"
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 'chmod -R u+w "$work"; rm -rf "$work"' EXIT
stub_dir="$work/stubs"
mkdir -p "$stub_dir"
cat >"$stub_dir/udevadm" <<'STUB'
#!/bin/bash
printf 'udevadm %s\n' "$*" >>"$TEST_LOG"
STUB
cat >"$stub_dir/mount" <<'STUB'
#!/bin/bash
printf 'mount %s\n' "$*" >>"$TEST_LOG"
[[ ${MOUNT_FAIL:-} == 1 ]] && exit 32
device=$3 mountpoint=$4
cp -a "$(readlink -f "$device")"/. "$mountpoint"/
STUB
cat >"$stub_dir/umount" <<'STUB'
#!/bin/bash
printf 'umount %s\n' "$*" >>"$TEST_LOG"
STUB
chmod +x "$stub_dir"/*
new_sandbox() {
sandbox=$(mktemp -d "$work/sandbox.XXXXXX")
mkdir -p "$sandbox/dev/disk/by-label" "$sandbox/root" "$sandbox/media"
export TEST_LOG="$sandbox/calls.log"
: >"$TEST_LOG"
}
attach_drive() {
ln -s "$sandbox/media" "$sandbox/dev/disk/by-label/$1"
}
run_load() {
PATH="$stub_dir:$PATH" "$CIDATA_LOAD" "$sandbox"
}
write_required_pair() {
echo '{"disk_config": {}}' >"$sandbox/media/user_configuration.json"
echo '{"users": []}' >"$sandbox/media/user_credentials.json"
}
# No cidata drive attached: fall back to the wizard without mounting anything.
new_sandbox
! run_load || fail "no drive exits non-zero"
! grep -q '^mount ' "$TEST_LOG" || fail "no drive mounts nothing"
pass "no drive falls back to the wizard"
# The probe must wait for udev to finish enumerating before concluding there
# is no drive.
grep -q '^udevadm settle$' "$TEST_LOG" || fail "probe settles udev first"
pass "probe settles udev first"
# A drive with the full file set: everything lands in /root and the drive is
# unmounted afterwards.
new_sandbox
attach_drive cidata
write_required_pair
echo "Jeff" >"$sandbox/media/user_full_name.txt"
echo "jeff@example.com" >"$sandbox/media/user_email_address.txt"
echo "false" >"$sandbox/media/user_encrypt_installation.txt"
echo 'ssh-ed25519 AAAA jeff@host' >"$sandbox/media/authorized_keys"
echo 'tskey-auth-kFAKEKEY' >"$sandbox/media/tailscale_authkey"
run_load || fail "full file set loads"
for file in user_configuration.json user_credentials.json user_full_name.txt user_email_address.txt user_encrypt_installation.txt authorized_keys tailscale_authkey; do
[[ -f $sandbox/root/$file ]] || fail "full file set copies $file"
done
grep -q '^umount ' "$TEST_LOG" || fail "full file set unmounts the drive"
pass "full file set loads, copies everything, and unmounts"
# The uppercase label variant some tools produce works too.
new_sandbox
attach_drive CIDATA
write_required_pair
run_load || fail "uppercase CIDATA label loads"
pass "uppercase CIDATA label loads"
# The required pair alone is a valid autoinstall drive; the optional files
# stay optional.
new_sandbox
attach_drive cidata
write_required_pair
run_load || fail "required pair alone loads"
[[ ! -e $sandbox/root/authorized_keys ]] || fail "required pair alone copies no optional files"
pass "required pair alone loads without optional files"
# Optional files are copied individually when present.
new_sandbox
attach_drive cidata
write_required_pair
echo 'ssh-ed25519 AAAA jeff@host' >"$sandbox/media/authorized_keys"
run_load || fail "required pair plus authorized_keys loads"
[[ -f $sandbox/root/authorized_keys ]] || fail "authorized_keys is copied when present"
[[ ! -e $sandbox/root/user_full_name.txt ]] || fail "absent optional files are not copied"
[[ ! -e $sandbox/root/tailscale_authkey ]] || fail "absent tailscale_authkey is not copied"
pass "present optional files are copied, absent ones skipped"
# A defer-provisioning marker replaces user_credentials.json: deferred-provisioning installs
# creation to first boot, so imaging rigs ship no credentials at all.
new_sandbox
attach_drive cidata
echo '{"disk_config": {}}' >"$sandbox/media/user_configuration.json"
: >"$sandbox/media/defer-provisioning"
run_load || fail "config plus defer-provisioning marker loads"
[[ -f $sandbox/root/defer-provisioning ]] || fail "defer-provisioning marker is copied"
[[ ! -e $sandbox/root/user_credentials.json ]] || fail "defer-provisioning drive copies no credentials"
pass "defer-provisioning marker stands in for credentials"
# The defer-provisioning marker and credentials can coexist (rig supplies its own LUKS
# passphrase in the credentials file); both are copied.
new_sandbox
attach_drive cidata
write_required_pair
: >"$sandbox/media/defer-provisioning"
run_load || fail "defer-provisioning marker plus credentials loads"
[[ -f $sandbox/root/defer-provisioning && -f $sandbox/root/user_credentials.json ]] || fail "both defer-provisioning marker and credentials are copied"
pass "defer-provisioning marker plus credentials copies both"
# An defer-provisioning marker without the configuration is still not an autoinstall drive.
new_sandbox
attach_drive cidata
: >"$sandbox/media/defer-provisioning"
! run_load || fail "defer-provisioning marker alone is not an autoinstall drive"
[[ ! -e $sandbox/root/defer-provisioning ]] || fail "defer-provisioning marker alone copies nothing"
pass "defer-provisioning marker alone falls back to the wizard"
# Stale deferred-provisioning inputs from a previous load in the same session are cleared before
# the current drive is copied: a normal drive must not inherit an old defer-provisioning
# marker or credentials.
new_sandbox
attach_drive cidata
write_required_pair
: >"$sandbox/root/defer-provisioning" # leftover from a prior deferred-provisioning load
echo 'old-keys' >"$sandbox/root/authorized_keys"
run_load || fail "normal drive after a stale defer-provisioning load loads"
[[ ! -e $sandbox/root/defer-provisioning ]] || fail "stale defer-provisioning marker is cleared"
[[ ! -e $sandbox/root/authorized_keys ]] || fail "stale optional inputs are cleared"
pass "stale deferred-provisioning inputs are cleared before loading a normal drive"
# A drive that isn't an autoinstall drive at all still clears stale inputs so
# the wizard that follows doesn't inherit them.
new_sandbox
attach_drive cidata
echo '{"disk_config": {}}' >"$sandbox/media/user_configuration.json" # half a pair
: >"$sandbox/root/defer-provisioning"
! run_load || fail "half-pair drive still falls back"
[[ ! -e $sandbox/root/defer-provisioning ]] || fail "stale defer-provisioning marker cleared even on fallback"
pass "stale inputs are cleared even when falling back to the wizard"
# Half the required pair is not an autoinstall drive: unmount and fall back.
new_sandbox
attach_drive cidata
echo '{"disk_config": {}}' >"$sandbox/media/user_configuration.json"
! run_load || fail "half the required pair exits non-zero"
[[ ! -e $sandbox/root/user_configuration.json ]] || fail "half the required pair copies nothing"
grep -q '^umount ' "$TEST_LOG" || fail "half the required pair still unmounts"
pass "half the required pair falls back and unmounts"
# An empty drive labeled cidata is not an autoinstall drive either.
new_sandbox
attach_drive cidata
! run_load || fail "empty drive exits non-zero"
grep -q '^umount ' "$TEST_LOG" || fail "empty drive still unmounts"
pass "empty drive falls back and unmounts"
# A drive that will not mount falls back rather than failing the boot.
new_sandbox
attach_drive cidata
write_required_pair
! MOUNT_FAIL=1 run_load || fail "mount failure exits non-zero"
! grep -q '^umount ' "$TEST_LOG" || fail "mount failure has nothing to unmount"
pass "mount failure falls back to the wizard"
# A copy failure must not report a loaded drive: the install would start with
# missing inputs. Fall back and let the wizard produce them instead.
new_sandbox
attach_drive cidata
write_required_pair
chmod 555 "$sandbox/root"
! run_load 2>/dev/null || fail "copy failure exits non-zero"
grep -q '^umount ' "$TEST_LOG" || fail "copy failure still unmounts"
pass "copy failure falls back and unmounts"
# A partial copy must clean up after itself: the wizard removes only what it
# writes, so anything the loader left behind would leak into the interactive
# install that follows.
new_sandbox
attach_drive cidata
write_required_pair
echo 'ssh-ed25519 AAAA jeff@host' >"$sandbox/media/authorized_keys"
mkdir "$sandbox/root/user_credentials.json"
! run_load 2>/dev/null || fail "partial copy exits non-zero"
[[ ! -e $sandbox/root/user_configuration.json ]] || fail "partial copy removes what it copied"
[[ ! -e $sandbox/root/authorized_keys ]] || fail "partial copy leaves no authorized_keys behind"
pass "partial copy cleans up what it copied"
-452
View File
@@ -1,452 +0,0 @@
#!/bin/bash
#
# Unit tests for omarchy-install-diagnose-media and the failure screen that
# renders it. Every case builds a throwaway offline mirror -- a package file
# and a real repo-add-shaped offline.db naming its sha256 -- so the three
# verdicts are told apart by the same evidence the live ISO has.
set -euo pipefail
ROOT=$(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"
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' 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"
-175
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@@ -1,175 +0,0 @@
#!/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 "$work/upload-err")"
pass "upload warns when there is no checksum to publish"
-131
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@@ -1,131 +0,0 @@
#!/bin/bash
#
# create_partition() must report the number parted actually assigned, never a
# predicted one. The regression this pins: the configurator used to compute
# "highest existing partition + 1", while parted fills the lowest free GPT
# slot. Any disk whose numbering has a hole — what deleting a partition to
# free space leaves behind — then had every later command (cryptsetup, mkfs,
# mount) pointed at device nodes that did not exist, surfacing much later as
# "protected mode: /mnt is not a mountpoint".
#
# parted operates on image files directly, so this needs no root, no loop
# devices, and no real disk.
set -uo pipefail
ROOT=$(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'
-129
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@@ -1,129 +0,0 @@
#!/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()
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"""Unit tests for the orchestrator's configure_ssh_access phase.
The phase touches the target only through the filesystem and arch-chroot, so
the tests run it against a temp directory with subprocess.run recorded and the
ufw side effect (writing user.rules) simulated by the fake.
"""
import stat
import sys
import tempfile
import types
import unittest
from pathlib import Path
from subprocess import CompletedProcess
from unittest import mock
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
# never touches it, so stub the adapter out before the import.
sys.modules["orchestrator.archinstall_adapter"] = types.ModuleType("orchestrator.archinstall_adapter")
from orchestrator import phases_impl # noqa: E402
UFW_RULE = "-A ufw-user-input -p tcp --dport 22 -j ACCEPT\n"
class ConfigureSshAccessTest(unittest.TestCase):
def setUp(self):
self.tmp = tempfile.TemporaryDirectory()
self.addCleanup(self.tmp.cleanup)
self.target = Path(self.tmp.name)
self.calls = []
info_patch = mock.patch.object(phases_impl, "info")
info_patch.start()
self.addCleanup(info_patch.stop)
run_patch = mock.patch.object(phases_impl.subprocess, "run", side_effect=self.fake_run)
run_patch.start()
self.addCleanup(run_patch.stop)
self.ufw_writes_rule = True
def fake_run(self, cmd, **kwargs):
self.calls.append(cmd)
if cmd[2] == "ufw":
if self.ufw_writes_rule:
rules = self.target / "etc" / "ufw" / "user.rules"
rules.parent.mkdir(parents=True, exist_ok=True)
rules.write_text(UFW_RULE)
# ufw cannot reach netfilter inside a chroot and exits non-zero
# even when it recorded the rule; the phase must not trust this.
return CompletedProcess(cmd, 1)
return CompletedProcess(cmd, 0)
def ctx(self, authorized_keys=None):
authorized_keys_path = None
if authorized_keys is not None:
authorized_keys_path = self.target / "authorized_keys"
authorized_keys_path.write_text(authorized_keys)
return types.SimpleNamespace(target=self.target, username="jeff", authorized_keys_path=authorized_keys_path, defer_provisioning=False)
def configure(self, **kwargs):
phases_impl.configure_ssh_access(self.ctx(**kwargs))
def authorized_keys(self):
return self.target / "home" / "jeff" / ".ssh" / "authorized_keys"
def chrooted(self, program):
return [cmd for cmd in self.calls if cmd[:2] == ["arch-chroot", str(self.target)] and cmd[2] == program]
def test_no_authorized_keys_is_a_no_op(self):
self.configure()
self.assertEqual(self.calls, [])
self.assertFalse((self.target / "home" / "jeff" / ".ssh").exists())
def test_installs_keys_one_per_line(self):
self.configure(authorized_keys="ssh-ed25519 AAAA jeff@host\nssh-rsa BBBB jeff@work\n")
self.assertEqual(self.authorized_keys().read_text(), "ssh-ed25519 AAAA jeff@host\nssh-rsa BBBB jeff@work\n")
def test_drops_blank_lines_and_comments(self):
self.configure(authorized_keys="# work laptop\n\n ssh-ed25519 AAAA jeff@host \n")
self.assertEqual(self.authorized_keys().read_text(), "ssh-ed25519 AAAA jeff@host\n")
def test_keys_with_options_pass_through(self):
key = 'command="/usr/bin/true",no-pty ssh-ed25519 AAAA jeff@host'
self.configure(authorized_keys=f"{key}\n")
self.assertEqual(self.authorized_keys().read_text(), f"{key}\n")
def test_ssh_dir_is_private(self):
self.configure(authorized_keys="ssh-ed25519 AAAA jeff@host\n")
mode = stat.S_IMODE((self.target / "home" / "jeff" / ".ssh").stat().st_mode)
self.assertEqual(mode, 0o700)
def test_authorized_keys_is_private(self):
self.configure(authorized_keys="ssh-ed25519 AAAA jeff@host\n")
self.assertEqual(stat.S_IMODE(self.authorized_keys().stat().st_mode), 0o600)
def test_chowns_ssh_dir_to_the_user(self):
self.configure(authorized_keys="ssh-ed25519 AAAA jeff@host\n")
self.assertEqual(self.chrooted("chown"), [
["arch-chroot", str(self.target), "chown", "-R", "jeff:jeff", "/home/jeff/.ssh"],
])
def test_enables_sshd(self):
self.configure(authorized_keys="ssh-ed25519 AAAA jeff@host\n")
self.assertEqual(self.chrooted("systemctl"), [
["arch-chroot", str(self.target), "systemctl", "enable", "sshd.service"],
])
def test_allows_ssh_through_ufw_despite_chroot_exit_status(self):
self.configure(authorized_keys="ssh-ed25519 AAAA jeff@host\n")
self.assertEqual(self.chrooted("ufw"), [
["arch-chroot", str(self.target), "ufw", "allow", "ssh"],
])
def test_fails_when_ufw_does_not_record_the_rule(self):
self.ufw_writes_rule = False
with self.assertRaisesRegex(RuntimeError, "allow rule for port 22"):
self.configure(authorized_keys="ssh-ed25519 AAAA jeff@host\n")
def test_empty_file_fails_the_phase(self):
with self.assertRaisesRegex(RuntimeError, "contains no SSH keys"):
self.configure(authorized_keys="")
def test_blank_only_file_fails_the_phase(self):
with self.assertRaisesRegex(RuntimeError, "contains no SSH keys"):
self.configure(authorized_keys="\n \n")
def test_comment_only_file_fails_the_phase(self):
with self.assertRaisesRegex(RuntimeError, "contains no SSH keys"):
self.configure(authorized_keys="# no keys here\n")
class OptionalPathTest(unittest.TestCase):
def test_unset_and_missing_paths_are_none(self):
from orchestrator.context import _optional_path
self.assertIsNone(_optional_path(None))
self.assertIsNone(_optional_path(""))
self.assertIsNone(_optional_path("/does/not/exist/authorized_keys"))
def test_existing_path_is_returned(self):
from orchestrator.context import _optional_path
with tempfile.NamedTemporaryFile() as f:
self.assertEqual(_optional_path(f.name), Path(f.name))
if __name__ == "__main__":
unittest.main()
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"""Unit tests for the orchestrator's configure_tailscale phase.
Same harness as the SSH access tests: the phase touches the target only
through the filesystem and arch-chroot, so it runs against a temp directory
with subprocess.run recorded and the ufw side effect (writing user.rules)
simulated by the fake.
"""
import stat
import sys
import tempfile
import types
import unittest
from pathlib import Path
from subprocess import CompletedProcess
from unittest import mock
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
# never touches it, so stub the adapter out before the import.
sys.modules["orchestrator.archinstall_adapter"] = types.ModuleType("orchestrator.archinstall_adapter")
from orchestrator import phases_impl # noqa: E402
UFW_RULE = "-A ufw-user-input -i tailscale0 -j ACCEPT\n"
class ConfigureTailscaleTest(unittest.TestCase):
def setUp(self):
self.tmp = tempfile.TemporaryDirectory()
self.addCleanup(self.tmp.cleanup)
self.target = Path(self.tmp.name)
self.calls = []
info_patch = mock.patch.object(phases_impl, "info")
info_patch.start()
self.addCleanup(info_patch.stop)
run_patch = mock.patch.object(phases_impl.subprocess, "run", side_effect=self.fake_run)
run_patch.start()
self.addCleanup(run_patch.stop)
self.ufw_writes_rule = True
def fake_run(self, cmd, **kwargs):
self.calls.append(cmd)
if cmd[2] == "ufw":
if self.ufw_writes_rule:
rules = self.target / "etc" / "ufw" / "user.rules"
rules.parent.mkdir(parents=True, exist_ok=True)
rules.write_text(UFW_RULE)
# ufw cannot reach netfilter inside a chroot and exits non-zero
# even when it recorded the rule; the phase must not trust this.
return CompletedProcess(cmd, 1)
return CompletedProcess(cmd, 0)
def ctx(self, authkey=None, tailscale_installed=True):
authkey_path = None
if authkey is not None:
authkey_path = self.target / "tailscale_authkey"
authkey_path.write_text(authkey)
if tailscale_installed:
binary = self.target / "usr" / "bin" / "tailscale"
binary.parent.mkdir(parents=True, exist_ok=True)
binary.touch()
return types.SimpleNamespace(target=self.target, tailscale_authkey_path=authkey_path)
def configure(self, **kwargs):
phases_impl.configure_tailscale(self.ctx(**kwargs))
def staged_key(self):
return self.target / "etc" / "tailscale" / "authkey"
def unit(self):
return self.target / "etc" / "systemd" / "system" / "omarchy-tailscale-join.service"
def chrooted(self, program):
return [cmd for cmd in self.calls if cmd[:2] == ["arch-chroot", str(self.target)] and cmd[2] == program]
def test_no_authkey_is_a_no_op(self):
self.configure()
self.assertEqual(self.calls, [])
self.assertFalse((self.target / "etc" / "tailscale").exists())
def test_stages_the_key(self):
self.configure(authkey="tskey-auth-kFAKEKEY\n")
self.assertEqual(self.staged_key().read_text(), "tskey-auth-kFAKEKEY\n")
def test_drops_blank_lines_and_comments(self):
self.configure(authkey="# reusable, tagged\n\n tskey-auth-kFAKEKEY \n")
self.assertEqual(self.staged_key().read_text(), "tskey-auth-kFAKEKEY\n")
def test_key_dir_and_file_are_root_private(self):
self.configure(authkey="tskey-auth-kFAKEKEY\n")
self.assertEqual(stat.S_IMODE((self.target / "etc" / "tailscale").stat().st_mode), 0o700)
self.assertEqual(stat.S_IMODE(self.staged_key().stat().st_mode), 0o600)
def test_installs_the_join_unit(self):
self.configure(authkey="tskey-auth-kFAKEKEY\n")
text = self.unit().read_text()
self.assertIn("ConditionPathExists=/etc/tailscale/authkey", text)
# The key must not outlive a successful join, the unit must not run
# again after one, and cleanup must be sequenced after the join
# succeeds -- inside the script, not in ExecStartPost.
self.assertIn(
"ExecStart=/usr/bin/sh -c 'until tailscale up --auth-key file:/etc/tailscale/authkey;"
" do sleep 15; done; rm -f /etc/tailscale/authkey;"
" systemctl disable omarchy-tailscale-join.service'",
text,
)
def test_join_unit_does_not_hold_up_boot(self):
# A Type=oneshot wanted by multi-user.target holds the whole boot
# (SDDM included) hostage until the join finishes or times out --
# target units implicitly gain After= for their Wants=.
self.configure(authkey="tskey-auth-kFAKEKEY\n")
text = self.unit().read_text()
self.assertIn("Type=simple", text)
self.assertNotIn("Type=oneshot", text)
self.assertNotIn("TimeoutStartSec", text)
def test_unit_avoids_systemd_variable_expansion(self):
self.configure(authkey="tskey-auth-kFAKEKEY\n")
self.assertNotIn("$", self.unit().read_text())
def test_enables_tailscaled_and_the_join(self):
self.configure(authkey="tskey-auth-kFAKEKEY\n")
self.assertEqual(self.chrooted("systemctl"), [
["arch-chroot", str(self.target), "systemctl", "enable",
"tailscaled.service", "omarchy-tailscale-join.service"],
])
def test_allows_tailnet_traffic_through_ufw_despite_chroot_exit_status(self):
self.configure(authkey="tskey-auth-kFAKEKEY\n")
self.assertEqual(self.chrooted("ufw"), [
["arch-chroot", str(self.target), "ufw", "allow", "in", "on", "tailscale0"],
])
def test_fails_when_ufw_does_not_record_the_rule(self):
self.ufw_writes_rule = False
with self.assertRaisesRegex(RuntimeError, "allow rule for tailscale0"):
self.configure(authkey="tskey-auth-kFAKEKEY\n")
def test_fails_when_tailscale_is_not_on_the_target(self):
with self.assertRaisesRegex(RuntimeError, "not installed on the target"):
self.configure(authkey="tskey-auth-kFAKEKEY\n", tailscale_installed=False)
def test_empty_file_fails_the_phase(self):
with self.assertRaisesRegex(RuntimeError, "contains no auth key"):
self.configure(authkey="")
def test_comment_only_file_fails_the_phase(self):
with self.assertRaisesRegex(RuntimeError, "contains no auth key"):
self.configure(authkey="# no key here\n")
def test_multiple_keys_fail_the_phase(self):
with self.assertRaisesRegex(RuntimeError, "expected exactly one"):
self.configure(authkey="tskey-auth-kONE\ntskey-auth-kTWO\n")
if __name__ == "__main__":
unittest.main()
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"""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")
installer.create_users.side_effect = lambda users: events.append("user")
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=types.SimpleNamespace(users=["alice"]), 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,
)
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, "_stage_region_defaults", side_effect=lambda target: events.append("region")))
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))
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", "region", "user", ["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()
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@@ -1,84 +0,0 @@
#!/usr/bin/python
import re
import sys
import tempfile
import unittest
from pathlib import Path
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("/omarchy-source/install/provisioning/setup-form.sh"),
ROOT.parent / "omarchy/install/provisioning/setup-form.sh",
Path("/usr/share/omarchy/install/provisioning/setup-form.sh"),
)
def supported_keymaps():
for candidate in SETUP_FORM_CANDIDATES:
if not candidate.is_file():
continue
block = re.search(
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 None
SUPPORTED_KEYMAPS = supported_keymaps()
class KeyboardConfigurationTest(unittest.TestCase):
def target(self, directory: str) -> Path:
target = Path(directory)
(target / "etc").mkdir()
(target / "etc/vconsole.conf").write_text(
"KEYMAP=us\nFONT=default8x16\n"
)
return target
def test_writes_keymap_and_xkb_settings_and_preserves_font(self):
# XKBLAYOUT is load-bearing: omarchy's detect-keyboard-layout.sh copies
# it into Hyprland's kb_layout on the installed system.
with tempfile.TemporaryDirectory() as directory:
target = self.target(directory)
self.assertTrue(KEYBOARD.configure_keyboard(target, "us"))
lines = (target / "etc/vconsole.conf").read_text().splitlines()
self.assertIn("KEYMAP=us", lines)
self.assertIn("XKBLAYOUT=us", lines)
self.assertEqual(lines.count("FONT=default8x16"), 1)
def test_all_configurator_keymaps_are_known_to_localectl(self):
if SUPPORTED_KEYMAPS is None:
self.skipTest("no Omarchy runtime checkout to read the layout list from")
for keymap in SUPPORTED_KEYMAPS:
with self.subTest(keymap=keymap), tempfile.TemporaryDirectory() as directory:
target = self.target(directory)
self.assertTrue(KEYBOARD.configure_keyboard(target, keymap))
lines = (target / "etc/vconsole.conf").read_text().splitlines()
self.assertIn(f"KEYMAP={keymap}", lines)
self.assertEqual(lines.count("FONT=default8x16"), 1)
def test_unknown_and_empty_keymaps_match_archinstall_behavior(self):
for keymap, expected in (("definitely-not-a-keymap", False), ("", True)):
with self.subTest(keymap=keymap), tempfile.TemporaryDirectory() as directory:
target = self.target(directory)
self.assertEqual(KEYBOARD.configure_keyboard(target, keymap), expected)
self.assertEqual(
(target / "etc/vconsole.conf").read_text(),
"KEYMAP=us\nFONT=default8x16\n",
)
if __name__ == "__main__":
unittest.main()
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@@ -1,79 +0,0 @@
#!/usr/bin/python
import subprocess
import tempfile
import unittest
from pathlib import Path
ROOT = Path(__file__).resolve().parents[2]
PRUNER = ROOT / "builder/prune-offline-mirror.sh"
class OfflineMirrorPruningTest(unittest.TestCase):
def run_pruner(self, mirror: Path, required: list[str]):
return subprocess.run(
["bash", str(PRUNER), str(mirror)],
input="".join(f"{filename}\n" for filename in required),
capture_output=True,
text=True,
)
def add_file(self, mirror: Path, filename: str):
(mirror / filename).write_bytes(b"package")
def test_keeps_only_exactly_selected_package_archives(self):
with tempfile.TemporaryDirectory() as directory:
mirror = Path(directory)
keep = "keep-2.0-1-x86_64.pkg.tar.zst"
other = "other-1.0-1-any.pkg.tar.zst"
stale_version = "keep-1.0-1-x86_64.pkg.tar.zst"
removed_package = "removed-1.0-1-x86_64.pkg.tar.zst"
orphan_signature = "interrupted-1.0-1-x86_64.pkg.tar.zst.sig"
for filename in (keep, other, stale_version, removed_package):
self.add_file(mirror, filename)
for filename in (keep, stale_version, removed_package):
self.add_file(mirror, f"{filename}.sig")
self.add_file(mirror, orphan_signature)
self.add_file(mirror, "offline.db.tar.gz")
result = self.run_pruner(mirror, [keep, other])
self.assertEqual(result.returncode, 0, result.stderr)
self.assertEqual(
{path.name for path in mirror.iterdir()},
{keep, f"{keep}.sig", other, "offline.db.tar.gz"},
)
self.assertIn(stale_version, result.stdout)
self.assertIn(removed_package, result.stdout)
def test_missing_selection_aborts_before_deleting_anything(self):
with tempfile.TemporaryDirectory() as directory:
mirror = Path(directory)
cached = "cached-1.0-1-x86_64.pkg.tar.zst"
self.add_file(mirror, cached)
result = self.run_pruner(
mirror, ["missing-1.0-1-x86_64.pkg.tar.zst"]
)
self.assertNotEqual(result.returncode, 0)
self.assertTrue((mirror / cached).exists())
self.assertIn("selected packages are missing", result.stderr)
def test_empty_selection_aborts_before_deleting_anything(self):
with tempfile.TemporaryDirectory() as directory:
mirror = Path(directory)
cached = "cached-1.0-1-x86_64.pkg.tar.zst"
self.add_file(mirror, cached)
result = self.run_pruner(mirror, [])
self.assertNotEqual(result.returncode, 0)
self.assertTrue((mirror / cached).exists())
self.assertIn("empty package selection", result.stderr)
if __name__ == "__main__":
unittest.main()
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"""Unit tests for deferred-provisioning install support in the orchestrator.
Covers the InstallContext deferred-provisioning plumbing (marker file, credential-less input,
throwaway LUKS passphrase injection) and the stage_provisioning_state /
create_factory_snapshot / configure_login phases against a temp target with
subprocess mocked out.
"""
import json
import os
import sys
import tempfile
import types
import unittest
from pathlib import Path
from subprocess import CompletedProcess
from unittest import mock
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")
)
from orchestrator import phases_impl # noqa: E402
from orchestrator.context import InstallContext # noqa: E402
class ContextDeferProvisioningTest(unittest.TestCase):
def setUp(self):
self.tmp = tempfile.TemporaryDirectory()
self.addCleanup(self.tmp.cleanup)
self.dir = Path(self.tmp.name)
self.state_dir = self.dir / "state"
self.env = {
"OMARCHY_INSTALL_CONFIG": str(self.dir / "user_configuration.json"),
"OMARCHY_INSTALL_CREDS": str(self.dir / "user_credentials.json"),
"OMARCHY_INSTALL_STATE_DIR": str(self.state_dir),
}
def write_config(self, config):
(self.dir / "user_configuration.json").write_text(json.dumps(config))
def write_creds(self, creds):
(self.dir / "user_credentials.json").write_text(json.dumps(creds))
def from_env(self, **extra_env):
env = {**self.env, **extra_env}
with mock.patch.dict(os.environ, env, clear=False):
for key in ("OMARCHY_INSTALL_DEFER_PROVISIONING_FILE",):
if key not in env:
os.environ.pop(key, None)
return InstallContext.from_env()
def base_config(self, defer_provisioning=None, disk_encryption=None):
config = {
"disk_config": {"config_type": "default_layout"},
"omarchy_install": {"mode": "full_disk", "target_mount": "/mnt"},
}
if defer_provisioning is not None:
config["omarchy_install"]["defer_provisioning"] = defer_provisioning
if disk_encryption is not None:
config["disk_config"]["disk_encryption"] = disk_encryption
return config
def test_defer_provisioning_flag_from_config(self):
self.write_config(self.base_config(defer_provisioning=True))
ctx = self.from_env()
self.assertTrue(ctx.defer_provisioning)
self.assertEqual(ctx.user_credentials, {"users": []})
self.assertEqual(ctx.username, "")
def test_marker_file_arms_deferred_provisioning_without_credentials(self):
self.write_config(self.base_config())
marker = self.dir / "defer_provisioning"
marker.touch()
ctx = self.from_env(OMARCHY_INSTALL_DEFER_PROVISIONING_FILE=str(marker))
self.assertTrue(ctx.defer_provisioning)
self.assertTrue(ctx.omarchy_install["defer_provisioning"])
def test_absent_marker_file_is_not_deferred_provisioning(self):
self.write_config(self.base_config())
self.write_creds({"users": [{"username": "jeff"}]})
ctx = self.from_env(OMARCHY_INSTALL_DEFER_PROVISIONING_FILE=str(self.dir / "missing-defer_provisioning"))
self.assertFalse(ctx.defer_provisioning)
self.assertEqual(ctx.username, "jeff")
def test_missing_credentials_without_defer_provisioning_raises(self):
self.write_config(self.base_config())
with self.assertRaisesRegex(RuntimeError, "credentials file missing"):
self.from_env()
def test_deferred_provisioning_generates_throwaway_luks_passphrase(self):
self.write_config(self.base_config(defer_provisioning=True, disk_encryption={
"encryption_type": "luks", "partitions": ["x"],
}))
ctx = self.from_env()
password = ctx.user_configuration["disk_config"]["disk_encryption"]["encryption_password"]
self.assertTrue(password)
self.assertEqual(ctx.user_credentials["encryption_password"], password)
# archinstall reads both files from disk; the injected passphrase must
# be present in each.
arch_config = json.loads(ctx.arch_config_path.read_text())
self.assertEqual(
arch_config["disk_config"]["disk_encryption"]["encryption_password"], password
)
synthesized = json.loads(ctx.creds_path.read_text())
self.assertEqual(synthesized["encryption_password"], password)
def test_deferred_provisioning_reuses_rig_supplied_passphrase(self):
self.write_config(self.base_config(defer_provisioning=True, disk_encryption={
"encryption_type": "luks", "partitions": ["x"],
}))
self.write_creds({"users": [], "encryption_password": "rig-secret"})
ctx = self.from_env()
self.assertEqual(
ctx.user_configuration["disk_config"]["disk_encryption"]["encryption_password"],
"rig-secret",
)
def test_deferred_provisioning_discards_account_material(self):
# A rig credentials file must not smuggle in users or a root password.
self.write_config(self.base_config(defer_provisioning=True))
self.write_creds({
"users": [{"username": "backdoor", "enc_password": "x", "sudo": True}],
"root_enc_password": "x",
"encryption_password": "rig-secret",
})
ctx = self.from_env()
self.assertEqual(ctx.user_credentials["users"], [])
self.assertNotIn("root_enc_password", ctx.user_credentials)
self.assertEqual(ctx.user_credentials["encryption_password"], "rig-secret")
synthesized = json.loads(ctx.creds_path.read_text())
self.assertEqual(synthesized["users"], [])
self.assertNotIn("root_enc_password", synthesized)
def test_defer_provisioning_strips_account_fields(self):
config = self.base_config(defer_provisioning=True)
config["!users"] = [{"username": "rig"}]
config["!root-password"] = "hunter2"
config["root_enc_password"] = "x"
config["auth_config"] = {"users": [{"username": "rig"}], "root_enc_password": "x"}
self.write_config(config)
ctx = self.from_env()
arch_config = json.loads(ctx.arch_config_path.read_text())
for key in ("!users", "!root-password", "root_enc_password", "users"):
self.assertNotIn(key, arch_config)
self.assertEqual(arch_config["auth_config"], {})
def test_deferred_provisioning_unencrypted_touches_nothing(self):
self.write_config(self.base_config(defer_provisioning=True))
ctx = self.from_env()
self.assertNotIn("encryption_password", ctx.user_credentials)
def make_ctx(target, **overrides):
defaults = dict(
target=target,
defer_provisioning=True,
encrypt=False,
username="",
omarchy_install={"mode": "full_disk", "defer_provisioning": True, "storage": {}},
user_configuration={"disk_config": {}},
user_credentials={"users": []},
state_dir=target / "state",
authorized_keys_path=None,
)
defaults.update(overrides)
return types.SimpleNamespace(**defaults)
class StageProvisioningStateTest(unittest.TestCase):
def setUp(self):
self.tmp = tempfile.TemporaryDirectory()
self.addCleanup(self.tmp.cleanup)
self.target = Path(self.tmp.name) / "mnt"
self.target.mkdir()
info_patch = mock.patch.object(phases_impl, "info")
info_patch.start()
self.addCleanup(info_patch.stop)
# A fake bundled Node tarball on the "live ISO".
self.packages = Path(self.tmp.name) / "opt-packages"
self.packages.mkdir()
(self.packages / "node-v24.0.0-linux-x64.tar.gz").write_bytes(b"node")
node_patch = mock.patch.object(phases_impl, "NODE_PACKAGES_DIR", self.packages)
node_patch.start()
self.addCleanup(node_patch.stop)
def install_runtime_provisioning_support(self):
service = self.target / "usr/share/omarchy/install/provisioning/omarchy-provision-owner.service"
service.parent.mkdir(parents=True, exist_ok=True)
service.write_text("[Unit]\n")
setup_bin = self.target / "usr/bin/omarchy-provision-owner"
setup_bin.parent.mkdir(parents=True, exist_ok=True)
setup_bin.write_text("#!/bin/bash\n")
def provisioning_dir(self):
return self.target / "var/lib/omarchy/provisioning"
def test_normal_install_stages_only_the_node_tarball(self):
ctx = make_ctx(self.target, defer_provisioning=False)
phases_impl.stage_provisioning_state(ctx)
self.assertTrue((self.provisioning_dir() / "packages/node-v24.0.0-linux-x64.tar.gz").exists())
self.assertFalse((self.provisioning_dir() / "pending").exists())
self.assertFalse((self.target / "etc/systemd/system/omarchy-provision-owner.service").exists())
def test_deferred_provisioning_against_runtime_without_support_fails_clearly(self):
ctx = make_ctx(self.target)
with self.assertRaisesRegex(RuntimeError, "does not ship"):
phases_impl.stage_provisioning_state(ctx)
def test_deferred_provisioning_without_node_tarball_fails(self):
for tarball in self.packages.glob("*.tar.gz"):
tarball.unlink()
self.install_runtime_provisioning_support()
ctx = make_ctx(self.target)
with self.assertRaisesRegex(RuntimeError, "Node tarball"):
phases_impl.stage_provisioning_state(ctx)
def test_missing_node_tarball_fails_normal_installs_too(self):
# The stash is what makes a later factory reset work offline.
for tarball in self.packages.glob("*.tar.gz"):
tarball.unlink()
ctx = make_ctx(self.target, defer_provisioning=False)
with self.assertRaisesRegex(RuntimeError, "Node tarball"):
phases_impl.stage_provisioning_state(ctx)
def test_deferred_provisioning_arms_first_boot_setup(self):
self.install_runtime_provisioning_support()
ctx = make_ctx(self.target)
phases_impl.stage_provisioning_state(ctx)
self.assertTrue((self.provisioning_dir() / "pending").exists())
self.assertTrue((self.target / "etc/systemd/system/omarchy-provision-owner.service").exists())
link = self.target / "etc/systemd/system/multi-user.target.wants/omarchy-provision-owner.service"
self.assertTrue(link.is_symlink())
self.assertEqual(
os.readlink(link), "/etc/systemd/system/omarchy-provision-owner.service"
)
# Unencrypted: no LUKS staging.
self.assertFalse((self.provisioning_dir() / "luks-key").exists())
def test_deferred_provisioning_encrypted_stages_luks_auto_unlock(self):
self.install_runtime_provisioning_support()
ctx = make_ctx(
self.target,
user_configuration={"disk_config": {"disk_encryption": {
"encryption_type": "luks",
"encryption_password": "throwaway-secret",
}}},
)
phases_impl.stage_provisioning_state(ctx)
# Byte-for-byte the slot passphrase — no trailing newline.
self.assertEqual((self.provisioning_dir() / "luks-key").read_text(), "throwaway-secret")
keyfile = self.target / "etc/omarchy/provisioning.key"
self.assertEqual(keyfile.read_text(), "throwaway-secret")
self.assertEqual(keyfile.stat().st_mode & 0o777, 0o600)
cmdline = (self.target / "etc/limine-entry-tool.d/99-omarchy-provisioning-unlock.conf").read_text()
self.assertIn("cryptkey=rootfs:/etc/omarchy/provisioning.key", cmdline)
files = (self.target / "etc/mkinitcpio.conf.d/99-omarchy-provisioning-key.conf").read_text()
self.assertIn("FILES+=(/etc/omarchy/provisioning.key)", files)
def test_deferred_provisioning_pre_encrypted_without_passphrase_fails(self):
self.install_runtime_provisioning_support()
ctx = make_ctx(
self.target,
omarchy_install={"mode": "protected", "defer_provisioning": True, "storage": {"luks_uuid": "abc"}},
)
with self.assertRaisesRegex(RuntimeError, "passphrase"):
phases_impl.stage_provisioning_state(ctx)
class ConfigureLoginDeferProvisioningTest(unittest.TestCase):
def setUp(self):
self.tmp = tempfile.TemporaryDirectory()
self.addCleanup(self.tmp.cleanup)
self.target = Path(self.tmp.name)
self.calls = []
run_patch = mock.patch.object(
phases_impl.subprocess, "run",
side_effect=lambda cmd, **kw: (self.calls.append(cmd), CompletedProcess(cmd, 0))[1],
)
run_patch.start()
self.addCleanup(run_patch.stop)
def test_deferred_provisioning_login_leaves_user_state_to_first_boot(self):
ctx = make_ctx(self.target, encrypt=True)
phases_impl.configure_login(ctx)
self.assertTrue((self.target / "etc/sddm.conf.d/99-omarchy-login.conf").exists())
self.assertFalse((self.target / "etc/sddm.conf.d/autologin.conf").exists())
self.assertFalse((self.target / "var/lib/sddm/state.conf").exists())
self.assertTrue(any("sddm.service" in cmd for cmd in self.calls))
def test_normal_encrypted_login_still_autologs_in(self):
ctx = make_ctx(self.target, defer_provisioning=False, encrypt=True, username="jeff")
phases_impl.configure_login(ctx)
autologin = (self.target / "etc/sddm.conf.d/autologin.conf").read_text()
self.assertIn("User=jeff", autologin)
state = (self.target / "var/lib/sddm/state.conf").read_text()
self.assertIn("User=jeff", state)
class ConfigureSshAccessDeferProvisioningTest(unittest.TestCase):
def setUp(self):
self.tmp = tempfile.TemporaryDirectory()
self.addCleanup(self.tmp.cleanup)
self.target = Path(self.tmp.name) / "mnt"
self.target.mkdir()
info_patch = mock.patch.object(phases_impl, "info")
info_patch.start()
self.addCleanup(info_patch.stop)
def fake_run(cmd, **kwargs):
self.calls.append(cmd)
if "ufw" in cmd:
rules = self.target / "etc/ufw/user.rules"
rules.parent.mkdir(parents=True, exist_ok=True)
rules.write_text("-A ufw-user-input -p tcp --dport 22 -j ACCEPT\n")
return CompletedProcess(cmd, 0)
self.calls = []
run_patch = mock.patch.object(phases_impl.subprocess, "run", side_effect=fake_run)
run_patch.start()
self.addCleanup(run_patch.stop)
def test_deferred_provisioning_stages_keys_for_first_boot(self):
keys = Path(self.tmp.name) / "authorized_keys"
keys.write_text("ssh-ed25519 AAAA rig@host\n")
ctx = make_ctx(self.target, authorized_keys_path=keys)
phases_impl.configure_ssh_access(ctx)
staged = self.target / "var/lib/omarchy/provisioning/authorized_keys"
self.assertEqual(staged.read_text(), "ssh-ed25519 AAAA rig@host\n")
self.assertEqual(staged.stat().st_mode & 0o777, 0o600)
# No user yet — nothing under /home, no chown.
self.assertFalse((self.target / "home").exists())
self.assertFalse(any("chown" in cmd for cmd in self.calls))
# The door is still opened for first boot.
self.assertTrue(any("sshd.service" in cmd for cmd in self.calls))
class CreateFactorySnapshotTest(unittest.TestCase):
def setUp(self):
self.tmp = tempfile.TemporaryDirectory()
self.addCleanup(self.tmp.cleanup)
self.target = Path(self.tmp.name) / "mnt"
self.target.mkdir()
self.state_dir = Path(self.tmp.name) / "state"
self.state_dir.mkdir()
info_patch = mock.patch.object(phases_impl, "info")
info_patch.start()
self.addCleanup(info_patch.stop)
self.findmnt = {
"FSTYPE": "btrfs",
"OPTIONS": "rw,noatime,compress=zstd:3,subvol=/@",
"SOURCE": "/dev/mapper/omarchy_root[/@]",
}
self.calls = []
def fake_run(cmd, **kwargs):
self.calls.append(cmd)
if cmd[0] == "findmnt":
return CompletedProcess(cmd, 0, stdout=self.findmnt[cmd[2]] + "\n", stderr="")
if cmd[0] == "mount":
# Simulate the top level containing @.
(Path(cmd[-1]) / "@").mkdir(parents=True, exist_ok=True)
return CompletedProcess(cmd, 0, stdout="", stderr="")
run_patch = mock.patch.object(phases_impl.subprocess, "run", side_effect=fake_run)
run_patch.start()
self.addCleanup(run_patch.stop)
def ctx(self):
return make_ctx(self.target, defer_provisioning=False, state_dir=self.state_dir)
def test_snapshots_root_as_factory(self):
phases_impl.create_factory_snapshot(self.ctx())
top = str(self.state_dir / "factory-top")
self.assertIn(["mount", "-o", "subvolid=5", "/dev/mapper/omarchy_root", top], self.calls)
self.assertIn(
["btrfs", "subvolume", "snapshot", f"{top}/@", f"{top}/@factory"],
self.calls,
)
self.assertIn(
["btrfs", "property", "set", "-ts", f"{top}/@factory", "ro", "true"],
self.calls,
)
self.assertIn(["umount", top], self.calls)
def test_factory_snapshot_scrubs_provisioning_credentials(self):
# Simulate the snapshot carrying deployment credentials; the scrub
# must drop them before the snapshot goes read-only.
top = self.state_dir / "factory-top"
factory = top / "@factory"
secrets = [
factory / "var/lib/omarchy/provisioning/authorized_keys",
factory / "etc/tailscale/authkey",
factory / "etc/omarchy/provisioning.key",
]
keep = factory / "var/lib/omarchy/provisioning/groups"
for path in [*secrets, keep]:
path.parent.mkdir(parents=True, exist_ok=True)
path.write_text("secret")
phases_impl.create_factory_snapshot(self.ctx())
for path in secrets:
self.assertFalse(path.exists(), path)
self.assertTrue(keep.exists())
def test_non_btrfs_target_skips(self):
self.findmnt["FSTYPE"] = "ext4"
phases_impl.create_factory_snapshot(self.ctx())
self.assertFalse(any(cmd[0] == "mount" for cmd in self.calls))
def test_non_subvol_root_skips(self):
self.findmnt["OPTIONS"] = "rw,noatime"
phases_impl.create_factory_snapshot(self.ctx())
self.assertFalse(any(cmd[0] == "mount" for cmd in self.calls))
if __name__ == "__main__":
unittest.main()
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@@ -1,287 +0,0 @@
"""Region bootstrap contracts without Docker, pacman, or a running guest."""
import os
import re
import shutil
import subprocess
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"))
sys.modules.setdefault("orchestrator.archinstall_adapter", types.ModuleType("orchestrator.archinstall_adapter"))
from orchestrator import phases_impl
class RegionTargetTest(unittest.TestCase):
def setUp(self):
tmp = tempfile.TemporaryDirectory()
self.addCleanup(tmp.cleanup)
self.root = Path(tmp.name)
self.target = self.root / "target"
self.marker = self.root / "omarchy_region"
self.payload = self.root / "payload"
for name, value in (("ISO_REGION_FILE", self.marker), ("ISO_REGION_PAYLOAD", self.payload)):
patch = mock.patch.object(phases_impl, name, value)
patch.start()
self.addCleanup(patch.stop)
def test_global_does_not_need_a_profile_or_change_user_defaults(self):
phases_impl._stage_region_defaults(self.target)
self.assertEqual((self.target / "etc/omarchy/region").read_text(), "global\n")
self.assertFalse((self.target / "etc/skel").exists())
def test_cn_seeds_skel_without_touching_existing_users_or_locale(self):
self.marker.write_text("cn\n")
profile = self.payload / "skel/.config/example/defaults"
profile.parent.mkdir(parents=True)
profile.write_text("regional defaults\n")
existing = self.target / "home/alice/.config/example/defaults"
existing.parent.mkdir(parents=True)
existing.write_text("personal settings\n")
skel = self.target / "etc/skel"
skel.mkdir(parents=True)
(skel / ".bashrc").write_text("original\n")
(self.target / "etc/locale.conf").write_text("LANG=en_US.UTF-8\n")
phases_impl._stage_region_defaults(self.target)
self.assertEqual((skel / ".config/example/defaults").read_text(), "regional defaults\n")
self.assertEqual((skel / ".bashrc").read_text(), "original\n")
self.assertEqual(existing.read_text(), "personal settings\n")
self.assertEqual((self.target / "etc/locale.conf").read_text(), "LANG=en_US.UTF-8\n")
self.assertEqual((self.target / "etc/omarchy/region").read_text(), "cn\n")
def test_bad_region_and_missing_payload_fail_before_target_changes(self):
for region in ("CN", "chn", "zz", "../cn", "", "cn"):
with self.subTest(region=region):
self.marker.write_text(region)
with self.assertRaises(RuntimeError):
phases_impl._stage_region_defaults(self.target)
self.assertFalse(self.target.exists())
def test_cn_keyring_is_initialized_before_finalization_for_both_install_modes(self):
self.marker.write_text("cn\n")
for deferred in (False, True):
ctx = types.SimpleNamespace(target=self.target, username="alice", defer_provisioning=deferred)
with 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"):
phases_impl.run_system_finalizer(ctx)
commands = [call.args[1] for call in run.call_args_list]
self.assertEqual(commands[:2], [["pacman-key", "--init"], ["pacman-key", "--populate", "archlinux", "archlinuxcn"]])
expected = ["--defer-provisioning"] if deferred else ["--install-user", "alice"]
self.assertEqual(commands[2], ["/usr/bin/omarchy-apply-system", *expected, "--first-install"])
def test_keyring_failure_prevents_enabling_online_repositories(self):
self.marker.write_text("cn\n")
ctx = types.SimpleNamespace(target=self.target, username="alice", defer_provisioning=False)
with mock.patch.object(phases_impl, "_run_target_setup_command", side_effect=RuntimeError("keyring failed")) as run:
with self.assertRaisesRegex(RuntimeError, "keyring failed"):
phases_impl.run_system_finalizer(ctx)
self.assertEqual(run.call_count, 1)
class RegionBuildTest(unittest.TestCase):
def setUp(self):
tmp = tempfile.TemporaryDirectory()
self.addCleanup(tmp.cleanup)
self.root = Path(tmp.name)
self.runtime = self.root / "runtime"
self.profile = self.runtime / "default/regions/cn"
(self.profile / "pacman").mkdir(parents=True)
(self.runtime / "bin").mkdir()
(self.runtime / "bin/omarchy-apply-pacman").touch()
(self.profile / "packages").write_text("archlinuxcn-keyring\nexample-regional-package\n")
(self.profile / "pacman/pacman.conf.append").write_text("[archlinuxcn]\nServer = https://mirrors.ustc.edu.cn/archlinuxcn/$arch\n")
(self.profile / "pacman/mirrorlist.append").write_text("Server = https://mirrors.ustc.edu.cn/archlinux/$repo/os/$arch\n")
(self.profile / "timezone").write_text("Asia/Shanghai\n")
self.iso = self.root / "iso"
self.payload = self.iso / "usr/share/omarchy-iso"
self.payload.mkdir(parents=True)
self.packages = self.payload / "omarchy-base.packages"
self.packages.write_text("base\n")
self.config = self.root / "pacman.conf"
shutil.copyfile(ROOT / "configs/pacman-online-stable.conf", self.config)
self.original_config = self.config.read_bytes()
self.bin = self.root / "bin"
self.bin.mkdir()
self.log = self.root / "commands"
for command in ("pacman", "pacman-key"):
stub = self.bin / command
stub.write_text('#!/bin/bash\nprintf "%s %s\\n" "${0##*/}" "$*" >> "$TEST_LOG"\nif [[ ${0##*/} == pacman ]]; then exit "${TEST_PACMAN_STATUS:-0}"; fi\n')
stub.chmod(0o755)
def prepare(self, region, **env):
return subprocess.run(
["bash", str(ROOT / "builder/prepare-region.sh"), region, str(self.runtime), str(self.iso), str(self.config)],
env={**os.environ, "PATH": f"{self.bin}:{os.environ['PATH']}", "TEST_LOG": str(self.log), **env},
capture_output=True, text=True,
)
def test_cn_adds_real_install_targets_and_verifies_keyring_first(self):
result = self.prepare("cn")
self.assertEqual(result.returncode, 0, result.stderr)
self.assertEqual(self.packages.read_text(), "base\n\narchlinuxcn-keyring\nexample-regional-package\n")
self.assertEqual(self.config.read_bytes(), self.original_config + b"\n[archlinuxcn]\nServer = https://mirrors.ustc.edu.cn/archlinuxcn/$arch\n")
self.assertEqual((self.payload / "region/packages").read_text(), "archlinuxcn-keyring\nexample-regional-package\n")
self.assertEqual((self.payload / "region/timezone").read_text(), "Asia/Shanghai\n")
self.assertEqual(self.log.read_text().splitlines(), [f"pacman --config {self.config} --noconfirm -Sy --needed archlinuxcn-keyring", "pacman-key --populate archlinuxcn"])
with mock.patch.object(phases_impl, "Path", return_value=self.packages), \
mock.patch.object(phases_impl, "_package_targets", return_value={"runtime": "omarchy-dev", "settings": "omarchy-settings-dev", "nvim": "omarchy-nvim"}):
self.assertEqual(phases_impl._runtime_package_list(None), ["omarchy-dev", "base", "archlinuxcn-keyring", "example-regional-package"])
def test_global_is_unchanged_without_region_support_in_runtime(self):
shutil.rmtree(self.runtime)
result = self.prepare("global")
self.assertEqual(result.returncode, 0, result.stderr)
self.assertEqual(self.packages.read_text(), "base\n")
self.assertEqual(self.config.read_bytes(), self.original_config)
self.assertFalse(self.log.exists())
self.assertFalse((self.payload / "region").exists())
def test_missing_runtime_support_fails_before_package_operations(self):
(self.runtime / "bin/omarchy-apply-pacman").unlink()
result = self.prepare("cn")
self.assertNotEqual(result.returncode, 0)
self.assertIn("--local-source", result.stderr)
self.assertFalse(self.log.exists())
self.assertEqual(self.config.read_bytes(), self.original_config)
def test_profile_without_user_defaults_is_supported(self):
result = self.prepare("cn")
self.assertEqual(result.returncode, 0, result.stderr)
self.assertFalse((self.payload / "region/skel").exists())
def test_untrusted_keyring_aborts_without_importing_keys(self):
result = self.prepare("cn", TEST_PACMAN_STATUS="1")
self.assertNotEqual(result.returncode, 0)
self.assertNotIn("pacman-key", self.log.read_text())
class RegionMakeTest(unittest.TestCase):
def setUp(self):
tmp = tempfile.TemporaryDirectory()
self.addCleanup(tmp.cleanup)
self.root = Path(tmp.name)
(self.root / "bin").mkdir()
shutil.copyfile(ROOT / "bin/omarchy-iso-make", self.root / "bin/omarchy-iso-make")
for directory in ("configs/airootfs/root", "configs/airootfs/usr/local/bin", "stubs"):
(self.root / directory).mkdir(parents=True)
(self.root / "configs/profiledef.sh").touch()
self.log = self.root / "docker-args"
stubs = {
"git": '#!/bin/bash\nexit 0\n',
"sudo": '#!/bin/bash\necho "unexpected sudo" >&2\nexit 99\n',
"docker": '''#!/bin/bash
if [[ $1 == version ]]; then exit 0; fi
printf '%s\\n' "$@" > "$TEST_LOG"
for arg in "$@"; do
if [[ $arg == *:/out/ ]]; then touch "${arg%:/out/}/omarchy-test-x86_64.iso"; fi
done
''',
}
for name, content in stubs.items():
stub = self.root / "stubs" / name
stub.write_text(content)
stub.chmod(0o755)
def make(self, *args):
env = {key: value for key, value in os.environ.items() if not key.startswith("OMARCHY_")}
return subprocess.run(
["bash", "bin/omarchy-iso-make", "--keep-pkg-cache", "--no-boot-offer", *args],
cwd=self.root, env={**env, "HOME": str(self.root), "PATH": f"{self.root / 'stubs'}:{env['PATH']}", "TEST_LOG": str(self.log), "TEST_ROOT": str(self.root)},
capture_output=True, text=True,
)
def test_region_is_independent_of_channel_and_names_cache_and_artifact(self):
for flags, channel, ref in (([], "stable", "quattro"), (["--rc"], "rc", "rc"), (["--edge"], "edge", "edge"), (["--dev"], "edge", "dev")):
with self.subTest(channel=ref):
release = self.root / "release"
if release.exists():
shutil.rmtree(release)
result = self.make(*flags, "--region", "cn")
self.assertEqual(result.returncode, 0, result.stderr)
args = self.log.read_text().splitlines()
self.assertIn("OMARCHY_REGION=cn", args)
self.assertIn(f"OMARCHY_MIRROR={channel}", args)
self.assertIn(f"OMARCHY_ISO_REF={ref}", args)
self.assertIn(f"{self.root}/.cache/omarchy/iso_{channel}-cn/airootfs/var/cache/omarchy:/var/cache/airootfs/var/cache/omarchy", args)
self.assertTrue((release / f"omarchy-test-x86_64-{ref}-cn.iso").exists())
def test_default_preserves_existing_global_cache_and_name(self):
result = self.make()
self.assertEqual(result.returncode, 0, result.stderr)
self.assertIn("OMARCHY_REGION=global", self.log.read_text().splitlines())
self.assertIn("/iso_stable/", self.log.read_text())
self.assertTrue((self.root / "release/omarchy-test-x86_64-quattro.iso").exists())
def test_build_renames_only_its_own_iso(self):
release = self.root / "release"
release.mkdir()
other = release / "omarchy-other-x86_64.iso"
other.touch()
result = self.make("--region", "cn")
self.assertEqual(result.returncode, 0, result.stderr)
self.assertTrue(other.exists())
self.assertTrue((release / "omarchy-test-x86_64-quattro-cn.iso").exists())
self.assertEqual(list(release.glob(".build-*")), [])
def test_local_source_keeps_region_and_mounts_both_checkouts(self):
for name in ("runtime", "packages"):
(self.root / name).mkdir()
result = self.make("--region", "cn", "--local-source", str(self.root / "runtime"), str(self.root / "packages"))
self.assertEqual(result.returncode, 0, result.stderr)
args = self.log.read_text().splitlines()
self.assertIn("OMARCHY_REGION=cn", args)
self.assertIn("OMARCHY_ISO_REF=local", args)
self.assertIn(f"{self.root}/runtime:/omarchy-source:ro", args)
self.assertIn(f"{self.root}/packages:/omarchy-pkgs:ro", args)
self.assertTrue((self.root / "release/omarchy-test-x86_64-local-cn.iso").exists())
def test_invalid_regions_fail_without_starting_build(self):
for flags in (("--region",), ("--region", "chn"), ("--region", "CN"), ("--region", "zz"), ("--region", "../cn")):
with self.subTest(flags=flags):
result = self.make(*flags)
self.assertNotEqual(result.returncode, 0)
self.assertFalse(self.log.exists())
self.assertFalse((self.root / "release").exists())
class ConfiguratorRegionTimezoneTest(unittest.TestCase):
"""The configurator hands the ISO's regional timezone to the setup form."""
def setUp(self):
configurator = (ROOT / "configs/airootfs/root/configurator").read_text()
helper = re.search(r"^region_timezone\(\) \{\n.*?^\}", configurator, re.M | re.S)
self.assertIsNotNone(helper)
self.helper = helper.group(0)
self.configurator = configurator
tmp = tempfile.TemporaryDirectory()
self.addCleanup(tmp.cleanup)
self.file = Path(tmp.name) / "timezone"
def region_timezone(self):
return subprocess.run(
["bash", "-c", f"set -euo pipefail\n{self.helper}\nregion_timezone"],
env={**os.environ, "REGION_TIMEZONE": str(self.file)},
capture_output=True, text=True, check=True,
).stdout
def test_global_iso_offers_no_timezone(self):
self.assertEqual(self.region_timezone(), "")
def test_regional_iso_offers_its_profile_timezone(self):
self.file.write_text("Asia/Shanghai\n")
self.assertEqual(self.region_timezone(), "Asia/Shanghai\n")
def test_user_form_passes_it_to_the_timezone_prompt(self):
self.assertIn('omarchy_prompt_timezone "$(region_timezone)"', self.configurator)
if __name__ == "__main__":
unittest.main()