* Add OEM first-boot setup and factory reset
An OEM-mode ISO install (or omarchy-reset-computer) leaves the machine in OEM
state: fully installed, no user, /var/lib/omarchy/oem/pending armed. On the
next boot omarchy-oem-setup.service runs the configurator's user form on tty1,
creates the user with the groups system setup recorded, finalizes it offline
from the stashed Node tarball, re-keys LUKS from the throwaway install
passphrase to the user's password, and hands off to SDDM.
omarchy-reset-computer returns a machine to that state: it swaps the running
root for a fresh clone of the @factory snapshot the ISO takes at install time,
scrubs machine identity and prior users, and stages omarchy-factory-wipe to
drop the old root and recreate @home/@log on the next boot. Machines installed
before @factory existed get a degraded reset (current system kept, users and
state wiped) with that caveat surfaced in the confirmation.
omarchy-setup-system/-hardware gain --oem to run without an install user; the
group-granting install scripts now record their groups in
/var/lib/omarchy/oem/groups and only call usermod when the user exists.
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
* Harden OEM setup: correct cryptsetup key-file usage, retry on failure
cryptsetup reads --test-passphrase/--key-file inputs byte-for-byte, so feed
passphrases through process substitution consistently instead of positional
args or stdin (which has different newline semantics). Run each first-boot
setup attempt as its own process so a failure offers a retry instead of
stranding the machine at a user-less login screen — bash ignores errexit
inside `while !` conditions, a child process does not.
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
* Always grant wheel sudo in OEM first-boot setup
Detecting an existing %wheel grant by grepping sudoers is error-prone:
omarchy ships narrow '%wheel ALL=(ALL) NOPASSWD: <command>' rules (e.g.
asdcontrol) that match the naive pattern, which left the OEM-created user
matching sudoers entries but unable to run anything. Write the drop-in
unconditionally — a duplicate of an existing full grant is harmless.
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
* Fix LUKS re-key device resolution and OEM state readability
archinstall's encrypted installs put cryptdevice=PARTUUID=... on the kernel
cmdline, not UUID=, so the first-boot re-key never found its device and
silently skipped — leaving the throwaway auto-unlock keyfile in place, i.e.
the disk effectively unencrypted. Parse every cryptdevice= source spec form
and make any re-key failure abort the attempt loudly: a retry prompt beats a
machine that quietly boots without a passphrase forever.
The OEM state directory also has to be world-readable (its one secret,
luks-key, stays 0600): user finalization reads the stashed Node tarball as
the new user, and the 0700 directory forced it onto the network fallback.
Step markers now land in /var/log/omarchy-oem-setup.log for debuggability.
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
* Purge stale machine-id boot entries when resetting or re-keying
limine-entry-tool keys its limine.conf OS entries by machine-id. A factory
reset gives the machine a fresh identity, so the previous system's entry
survived every rebuild, sorted first, and made Limine stop at a Blake2b
hash-mismatch warning once the UKI was rebuilt. Start limine.conf over from
the shipped template (and drop foreign machine-id history directories on the
ESP) before any post-reset rebuild: in the staged chroot rebuild, in the
first-boot LUKS re-key, and — for unencrypted resets, where nothing else
rebuilds — in a dedicated first-boot refresh when foreign entries are found.
The staged rebuild also verifies every UKI hash referenced by limine.conf
against the file on the ESP before the subvolume swap, and the running
system's limine-snapper-sync is runtime-masked during staging so it cannot
rewrite the config behind the rebuild.
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
* Harden reset and first-boot setup failure paths
Review findings from codex and Copilot:
- Generate throwaway passphrases without a trailing head stage: under
pipefail, SIGPIPE from the infinite tr failed the substitution and errexit
aborted every encrypted reset before it could stage anything.
- Stage the fallible parts of a degraded reset (LUKS re-key, boot rebuild)
before arming the wipe, so a staging failure leaves the machine untouched
instead of scheduling a wipe for a reset that never finished.
- Gate first-boot setup on the factory wipe having succeeded
(ConditionPathExists=!wipe-pending plus an in-script guard): creating the
new user on a half-wiped system would hand their data to the wipe retry.
- Abort the wipe (keeping its retry marker) when deleting the old root or
recreating @home/@log fails, and abort resets that cannot remove a prior
account — a surviving account keeps its password and wheel membership.
- Resume a partially-created account on setup retry instead of rejecting the
username the failed attempt just created.
- Only purge machine-id directories the old limine.conf actually referenced;
a shared ESP may hold other installations' boot artifacts.
- Recreate the hibernation swapfile (nested subvolume, so never captured by
the factory snapshot) inside the factory root before its UKI rebuild, so a
reset machine keeps disk-backed swap and a valid resume offset.
- Source base-test.sh in the OEM groups test per test conventions.
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
* Recreate the hibernation swapfile even when resume drop-ins survive
omarchy-hibernation-setup short-circuits as 'already set up' when the resume
mkinitcpio drop-in exists — which it always does in a factory root, while the
swapfile itself never survives the snapshot (nested subvolume). Drop the
marker when the swapfile is gone so setup reconfigures from scratch, and
verify the swapfile actually exists before proceeding with the reset.
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
* Second review pass: encrypted-config coverage, factory-baseline sanitization, recoverable rekey
Codex xhigh round 2:
- Detect the LUKS backing device by walking the root's device tree, not only
the cmdline cryptdevice=; reset/first-boot now re-key roots reached via
rd.luks/crypttab too, instead of silently leaving the seller's slots valid.
- Sanitize the retained @factory baseline (accounts, /etc/shadow, machine
identity) during a full reset: the new wheel user could otherwise mount it
to recover the seller's data, and a second reset would restore the account.
- Re-key the disk recoverably: rebuild the no-auto-unlock UKI before killing
the throwaway slot or destroying the staged key, and restore the keyfile if
that rebuild fails, so a retry with a different password can never leave the
disk locked to the first attempt's password.
- Roll back a degraded reset's live-root auto-unlock material if its boot
rebuild fails, instead of leaving it for a later rebuild to embed.
- Treat a missing current-machine limine entry as stale so a retry after a
failed rebuild repairs the config instead of clearing OEM state over it.
- Erase fingerprint enrollments (/var/lib/fprint) in degraded wipes.
- Remove the resume-offset drop-in too when recreating the factory swapfile,
so the rebuilt UKI gets a correct offset.
- Pin first-boot retries to the account the first attempt created.
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
* Expose factory reset in the Setup menu
Add a 'Reset Computer' entry under Setup (Omarchy's Settings menu, where OS
factory resets conventionally live), guarded to btrfs roots and launched in a
floating terminal. omarchy-reset-computer now self-elevates via sudo so the
menu entry needs no sudo prefix, forwarding the caller's gum theme env as
env arguments so styling survives an env_reset sudoers. The typed 'reset'
confirmation and the sudo password prompt remain as the guards against
accidental triggering.
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
* Defer keyboard selection to first boot for OEM installs
The OEM first-boot setup now runs a keyboard step before the user form,
mirroring the ISO configurator: it loads the chosen layout on the live VT so
the password (and the LUKS re-key that follows) are typed under it, and
persists it with systemd-firstboot so the installed system gets both the
console KEYMAP and the XKB layout Hyprland reads — exactly what a normal
install writes. Layouts localectl doesn't know keep the default, same as the
installer.
This lets the OEM operator set nothing user-specific: the machine's owner
picks their keyboard alongside their account at first boot.
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
* Rename factory-reset commands to omarchy-system-factory-reset[-finish]
omarchy-reset-computer -> omarchy-system-factory-reset
omarchy-factory-wipe -> omarchy-system-factory-reset-finish
(and its systemd unit, log path, and temp mount to match)
Pure rename: every reference — the Setup menu action, the first-boot finish
service the reset stages and enables, the oem-setup ordering/gating, comments,
and the menu test — moves together, with no behavior change.
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
* Rename OEM vocabulary to provisioning (runtime)
Commands unify under the provisioning family:
omarchy-oem-setup → omarchy-provision-owner
omarchy-finalize-user → omarchy-provision-user
omarchy-first-run → omarchy-provision-first-run
And the deferred-provisioning state/vocabulary replaces 'OEM':
/var/lib/omarchy/oem/ → /var/lib/omarchy/provisioning/
/etc/omarchy/oem.key → /etc/omarchy/provisioning.key
install/oem/ → install/provisioning/
OMARCHY_SETUP_CONTEXT=oem-firstboot → provision-owner
omarchy-setup-system/-hardware --oem → --defer-provisioning
All callers (provision-first-run→provision-user, autostart, factory-reset
staging the provisioning units, the group-recording scripts) and comments
move together.
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
* Drop remaining OEM mentions from the provisioning groups test
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
* Finish the omarchy-first-run rename in the docs
Two doc references to omarchy-first-run were missed when the script was renamed
to omarchy-provision-first-run; update them to match.
Co-Authored-By: Claude <noreply@anthropic.com>
---------
Co-authored-by: Claude Fable 5 <noreply@anthropic.com>
* Split the end-user omarchy skill into topic guides
Move default/omarchy-skill to default/agents/skills/omarchy and break the
monolithic SKILL.md into on-demand topic files for Hyprland config, shell
plugins, theming, and hooks. Update the skill symlink wiring, relink
existing installs through a migration, and correct claims that had drifted
from the implementation: plugin hot-reload, terminal reload, menu
customization, refresh scopes, theme overlays, background locations, hook
timing, and the packaged (not git-managed) system directory.
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
* Add capture and contributing guides to the omarchy skill
Cover screenshots, screen recording, OCR text capture, and LocalSend or
Taildrop sharing, plus how to route bug reports, suggestions, and support
questions upstream with diagnostics and captures of the problem attached.
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
* Scope Hyprland reload guidance to the Lua config files
hyprsunset.conf and xdph.conf are read by separate processes, so hyprctl
neither applies nor validates them. Document restarting hyprsunset after
editing its config, including in the night light example.
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
---------
Co-authored-by: Claude Fable 5 <noreply@anthropic.com>
Nothing stood between "memory is tight" and "processes die at random":
the kernel OOM killer only fires after an allocation has already failed,
so a machine under pressure thrashes in reclaim until something breaks
somewhere fatal — seen in practice as Hyprland taking SIGBUS mid-memcpy
from a client shm pool that memory pressure was tearing down.
Enable systemd-oomd, which keys on PSI stall time rather than free
pages, and mark app.slice — and only app.slice — as its kill candidate.
Hyprland runs in session.slice, so the compositor is structurally
ineligible as a victim: oomd takes the app that caused the pressure and
the session survives. Thresholds (50% stall over 20s, Fedora's desktop
defaults) live in an oomd.conf.d drop-in; candidacy ships as a vendor
drop-in under /usr/lib/systemd/user so existing users get it on package
upgrade with no per-user seeding.
New installs enable the daemon from enable-services.sh; a migration
covers existing ones, restarting an already-running oomd so it doesn't
keep stale thresholds until reboot.
Deliberately not earlyoom: it triggers only when free RAM and free swap
are both under threshold, so Omarchy's large, mostly-idle swapfiles
keep it asleep through exactly this failure.
Co-authored-by: Claude Fable 5 <noreply@anthropic.com>
fcitx5 is what turns the CapsLock compose sequences in ~/.XCompose into
text for Wayland clients -- CapsLock m s for an emoji, CapsLock space n
for your name. It was launched fire-and-forget from Hyprland's autostart
via uwsm-app, so nothing supervised it, nothing restarted it, and it
logged nowhere. When it went away, every compose sequence stopped
working for the rest of the session with no visible symptom beyond
"emoji input is busted", and no record of why.
That is not hypothetical: it was found dead on a running machine with no
coredump, no OOM kill, and nothing in the journal to explain it.
Move it to a systemd user service:
- Restart=always, not on-failure. fcitx5 exits 0 when it finds another
instance already owning org.fcitx.Fcitx5, and a clean exit still
leaves the user with no input method.
- After=/PartOf=graphical-session.target. It needs WAYLAND_DISPLAY and
DISPLAY, which uwsm imports into the user manager before reaching the
target, and its wayland connection dies with the compositor.
- ConditionEnvironment=WAYLAND_DISPLAY. After= is ordering only and does
not stop the unit from being started while the target is inactive. An
update over SSH has a live user manager (pam_systemd) and no graphical
session, and a fcitx5 started there comes up blind -- then stays
active, so the later target activation won't pull in a working one,
because Wants= does not restart what is already running. Skipping the
start leaves the unit enabled and healthy for the next graphical login.
The migration hands over inside a live session only: it enables without
--now, and only when graphical-session.target is active does it drop the
autostart-launched process and start the unit. Because that kills a
fcitx5 that was working a moment ago, a failed start is reported instead
of leaving the session mute with the migration marked complete.
omarchy-restart-xcompose now drives the unit. It still clears any fcitx5
running outside it first: that process owns the bus name, so the unit's
instance would exit on arrival and the stale one would keep serving the
old table -- a restart that reports success and changes nothing.
Side benefit: fcitx5 now logs to the journal under its own unit, so the
next disappearance leaves a record.
Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
omarchy-migrate-notify.service is a Type=oneshot wanted by
graphical-session.target, and systemd complements a target's Wants= with an
implicit After=, so the target waited for the notifier to exit. The notifier
does not exit quickly: it sends the notification through systemd-run --scope,
which is synchronous, and omarchy-notification-send -a blocks until the user
clicks. The target stayed in activating for as long as the toast was up.
wayland-wm-app-daemon.service is After=graphical-session.target and nothing
wants it, so uwsm-app starts it on demand. Clicking the notification runs
omarchy-launch-floating-terminal-with-presentation, which execs uwsm-app,
which blocks on a systemctl --user restart of that daemon -- a job queued
behind the very target the clicked notifier was holding open. The terminal
never opened; uwsm-app gave up on its own pipe timeout instead.
Declaring After= on the wanted unit suppresses the implicit dependency rather
than forming a cycle, so the target is reached without waiting and the
notifier runs behind it.
Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
The machines this targets are the ones with an updatedb already grinding
through every snapshot, and `systemctl start` on an active unit is a
no-op. updatedb reads /etc/updatedb.conf once at startup, so a run that
began before the rewrite keeps burning CPU on the old config until it
finishes. Restart the service instead: it's Type=oneshot and plocate
builds into a temp db, so nothing is lost by replacing the run.
Quotes are optional in updatedb.conf, so parse the existing paths out of
whatever quoting the file uses and write the setting back in one
canonical form. `PRUNEPATHS=/tmp` previously fell through to the append
branch and got a second PRUNEPATHS line, which drops /tmp from the
pruned set. Comparing whole paths rather than substrings also keeps a
config that already prunes something like /var/lib/machines/.snapshots
from being mistaken for one that prunes /.snapshots.
Prefer $OMARCHY_PATH over the packaged copy when locating the config
script, per docs/migrations.md, so the migration test exercises the
checked-out script rather than whatever release is installed. Skip when
neither exists: omarchy-migrate runs under set -e, so a missing script
would take down every migration queued behind it.
Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
omarchy-update-user-notify.path watched /usr/share/omarchy/migrations, but
pacman writes that directory during every update, including the blessed
omarchy update, which runs omarchy-migrate a step later. The watcher fired a
critical notification for the migrations the update was already applying in
the visible terminal. A watcher cannot tell that apart from a bypassed
pacman -Syu, so the only trigger that never collides with a running update is
a once-per-login check.
The service that already ran at graphical-session.target is now the whole
mechanism, renamed after the command it runs. That is also all the second-user
case needs: markers are per-user, so anyone who did not run the update finds
them missing at their next login.
Login timing means the toast can be sent before the shell has claimed
org.freedesktop.Notifications, so the notifier waits for a live server first.
The wait is omarchy-first-run's, lifted into omarchy-notification-wait rather
than duplicated.
The package keeps omarchy-update-user-notify.service as a symlink onto the new
unit. Existing users hold an absolute wants symlink to the old path, and the
migration that repoints it only runs for users who run an update, which is the
opposite of who the notifier is for.
Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
pacman checks file conflicts during transaction prepare, so the --overwrite
entry added alongside /etc/systemd/zram-generator.conf never got to run: the
copy of omarchy-update-system-pkgs driving the upgrade is the one already on
disk. Every machine carrying archinstall's copy aborted the transaction.
zram-generator.conf(5) reserves /etc for the local admin and has vendors ship
snippets under /usr/lib/systemd/zram-generator.conf.d/, where drop-ins outrank
the main config file. Nothing collides, and the tuning wins whether or not
archinstall's file is still around.
Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01LjeyQZsNBxqyYy9z8KaKm7
Tensaku shows a "Pick a default annotation size factor" dialog until
its persisted state names one. Neither config.toml nor the CLI flag
suppresses it, so ship the state file itself.
Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
omarchy-update-user-notify.path used PathExistsGlob= on the packaged
migrations directory. That directive is level-triggered: systemd re-checks
it every time the triggered unit deactivates and fires again while the glob
still matches. Since applied migrations stay on disk forever (state lives in
~/.local/state/omarchy/migrations), the glob always matches, so the oneshot
notifier re-triggered itself in a tight loop (~26-66 starts/sec) — burning
about a core and flooding the journal for the whole session.
The loop existed since the unit was introduced, but the default start-rate
limit killed it after 5 iterations, taking the .path unit down with
'unit-start-limit-hit'. That symptom was reported as #6174 and fixed
yesterday by setting StartLimitIntervalSec=0 — which removed the only brake
and turned the capped hiccup into an unbounded busy-loop.
Fix the actual cause instead:
* Drop PathExistsGlob= from the .path unit, keeping the edge-triggered
PathModified= watch for updates that land mid-session.
* Revert the StartLimitIntervalSec=0 override; with the level trigger gone
there is no self-re-fire to trip the limit, and the default limit is a
useful backstop again.
* Preserve the once-per-login pending check the glob used to provide by
giving the service its own WantedBy=graphical-session.target, enabled at
first-run alongside the other user units.
* Add a migration that daemon-reloads, revives a rate-limit-killed .path,
restarts the watcher, and enables the login-time notifier on existing
installs.
Verified with transient path/service units: the old config runs the service
200 times in 3 seconds; the new config runs it zero times while idle and
exactly once when a new migration file lands.
Thanks to @HANCORE-Linux for finding and diagnosing the problem.
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
A plugin is now just a git repo cloned into ~/.config/omarchy/plugins/<id>/.
That one idea replaces the entire homegrown package-manager half of the
plugin suite: trusted-source registry, clone cache, catalog scanning,
semver comparison, staging dirs, and timestamped backups — 1,025 lines
across five binaries whose jobs git already does.
Gone:
- omarchy-plugin-source: the trusted-repo registry (sources.json) and its
clone cache under ~/.cache/omarchy/plugin-sources/. The trust decision
now happens once, at add time, with the same unsandboxed-code warning.
- omarchy-plugin-scan + omarchy-plugin-available: the catalog machinery
over cached clones. Discovery belongs on a web page, not in the CLI.
- omarchy-plugin-add: copying folders out of cached source clones with
hand-rolled staging and .bak backups. Replaced by a git clone.
- omarchy-plugin-update: manifest version comparison via sort -V and
re-installs. Replaced by fetch + diff + fast-forward; git is the version
and git is the backup.
- omarchy-plugin-remove and omarchy-plugin-edit as separate binaries:
folded into omarchy-plugin, much slimmer.
The consolidated omarchy-plugin now handles the full lifecycle:
- add <git-url>: warn, clone into a dot-prefixed staging dir (invisible
to the plugin scanner), validate, then move into place named by the
manifest id. Plugins land disabled — enabling is the single consent
moment, replacing the old review-before-copy flow.
- update [id | --all]: fetch origin HEAD, show the diff (delta when
available), confirm, fast-forward. Updates are code the shell will run,
so the result is re-validated and rolled back to ORIG_HEAD if upstream
turned invalid (e.g. smuggled a symlink).
- remove [id]: git checkouts are deleted outright since upstream keeps
the history; hand-made plugin folders still get a backup, and dev
symlinks are just unlinked.
- edit [id]: opens the user plugin directory in a shell.
All commands keep the interactive/unattended split: gum prompts in a
terminal, hard refusal without --yes otherwise, so scripts and agents
never hang on a hidden prompt.
Kept as siblings: omarchy-plugin-catalog (omarchy-bar reads it),
omarchy-plugin-validate (the security boundary, now pruning .git from its
symlink scan since installs are git checkouts), and omarchy-plugin-clone
(local development of built-in widgets, a separate concern).
Trade-offs accepted: one repo = one plugin (no more multi-plugin source
repos), and ref pinning or branch switching is no longer a CLI feature —
an installed plugin is a plain checkout, so that is ordinary git in the
plugin directory.
None of the removed machinery ever shipped: it existed only on this
branch, so there is no migration. The net effect is 11 scripts / 2,040
lines down to 4 scripts / 1,080 lines, and one less concept for users to
learn — everyone already knows what a git repo is.
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
Reflects the two upstream changes in this work:
- omarchy-dev-tools folds into omarchy (bin/omarchy-dev-* ship with the
main package).
- omarchy-limine folds into omarchy-settings (limine + snapper configs,
mkinitcpio hooks, and the default/{limine,snapper}/ trees ship from
omarchy-settings; the package was always installed in lockstep with
it in the early bootstrap anyway).
Mental-model section: from four packages to two (omarchy +
omarchy-settings), plus the two unchanged independents (omarchy-keyring,
omarchy-nvim).
Build-time map: drop the omarchy-dev-tools and omarchy-limine columns;
add the new limine source files (omarchy_hooks.conf,
thunderbolt_module.conf, omarchy-defaults.conf, omarchy-uki.conf) under
omarchy-settings.
- Add default/bash/env-bootstrap to the build-time map and a dedicated
section describing what it sets, who sources it, and the dev-link gate
on the PATH prepend.
- Drop 'bluetooth' from the install/user/all.sh hardware-quirks list
(the per-hardware install script is gone now that the wireplumber
config ships through /etc/skel and bt-agent enables at first-run).
- Add a first-run section listing the post-login steps, including the
new enable-user-units.sh that defers user systemctl enables.
Reorganizes Omarchy 4 around three layers for populating $HOME:
Seed: omarchy-settings ships defaults to /etc/skel; useradd -m
copies them on user creation
Finalize: omarchy-finalize-user (renamed from omarchy-setup-user)
handles only the runtime tweaks /etc/skel can't do — skill
symlinks, xdg-user-dirs, default browser/mailto, vconsole→hypr
keyboard sync, and install/user/all.sh
Resync: omarchy-reinstall-configs is the explicit, destructive
resync of /etc/skel into an existing user's $HOME
Package-owned files move out of config/ into default/, where the
omarchy-settings PKGBUILD installs them to real system paths:
config/environment.d/fcitx.conf -> /usr/lib/environment.d/
config/fontconfig/fonts.conf -> /usr/share/fontconfig/conf.avail/
config/mimeapps.list -> /usr/share/applications/
config/omarchy.ttf -> /usr/share/fonts/omarchy/
config/systemd/user/*.service -> /usr/lib/systemd/user/
config/uwsm/default -> /usr/share/omarchy/default/uwsm/
config/uwsm/env -> /usr/share/uwsm/env.d/10-omarchy
config/xdg-terminals.list -> /usr/share/xdg-terminal-exec/
omarchy-upgrade-to-4 grows a 'retire' action (renamed from 'move' to
clarify nothing is copied — the system path is owned by the new package
once the user's hash-matched ~/.config copy is removed). Mismatched
copies are kept as backups so user overrides survive the upgrade.
Other simplifications:
- Single env bootstrap at default/bash/env-bootstrap sourced by
/etc/profile.d/omarchy.sh, /etc/skel/.bashrc,
/usr/share/uwsm/env.d/10-omarchy, and default/bash/envs. PATH
prepend only in dev-link mode (production uses /usr/bin/omarchy-*).
- omarchy-refresh-config reads from /etc/skel/.config so refresh
means 'snap to skel'.
- omarchy-reinstall-configs collapses to 'cp -af /etc/skel/. ~/'
plus limine/plymouth/nvim refresh.
- omarchy-font-set uses awk against our own 30-omarchy.conf instead
of xmlstarlet; xmlstarlet dropped from omarchy-base.packages.
- Defer user systemd enables (bt-agent, sleep-lock,
recover-internal-monitor) to first-run via
install/user/first-run/enable-user-units.sh; delete
omarchy-user-systemctl-enable and the per-hardware install
scripts that called it.
- Wireplumber bluetooth-a2dp-autoconnect.conf moves to config/ so
/etc/skel ships it; install/user/hardware/bluetooth.sh deleted.
- Default terminal switched to foot.desktop.
- docs/file-layout.md documents the three-layer model and the
build-time repo→path map.
