The macOS ladder was the CPU provider alone, with CoreML listed as a gap.
It is now CoreML, then the CPU, then tract — unmeasured, since nobody here
has a Mac, and safe to ship unmeasured because the probe's clock rejects a
CoreML slower than the CPU and `attempt` refuses one that crashes.
- `Rung::CoreMl`, a compiling rung like TensorRT: an ML Program with every
compute unit allowed, falling back to the CPU until each model's program
is built. The embedder stays on the CPU, as on the Hexagon (§7).
- The cache is one directory per model and runtime version. CoreML keys a
model committed from memory on its input and node names, not its
weights (ONNX Runtime 1.29, coreml_execution_provider.cc), so two
exports of one architecture would otherwise share a program.
- The fingerprint on macOS is the chip and the OS release, which ships
CoreML.
- The desktop looks for the runtime in the bundle's Contents/Frameworks
and Homebrew's prefixes; fetch-desktop-runtime.sh on a Mac downloads
ONNX Runtime 1.29.0 for Apple silicon, which carries CoreML.
docs/dev/macos.md says what exists, how to build it, and which log lines
to ask a Mac user for.
The panorama scene now ends in the grid, on the composite in its wide
cell beside the twelve frames it was made from, with the thumbnail the
merge made: the picture is taken straight after the merge, before any
rescan could have found the file. The manual's library section says how
a panorama's cell is sized and packed, and its panorama section that the
composite is in the grid the moment it is written. panorama.md §9 records
the race that kept it out, the catalogue-then-register path that
replaced it, how the thumbnail is developed, and the layout's classes.
A 22 927 × 8966 Lightroom panorama of a glacier, opened in develop:
the wheel in from fit to the peaks, a slow pan along the ridge at that
zoom, back out, then 1:1 with a double-click and fit with another. The
scene borrows the file from outside the demo library, copies it into a
panorama folder, restarts so the scan finds it, and deletes it and the
sidecar the app writes beside it before restarting again; it is
registered last so no other scene sees it.
The film is fine ice and rock in every frame and was 22 MB at the
usual 960 px and ten frames a second, so a scene can now name its own
GIF size (GIF_SIZE, read by record.sh through `scenes.py gif`); this
one is 640 px at eight, 8.7 MB.
D19 changed how every raw photograph renders, so every picture was
stale; all forty are recorded again from this tree. Beside the ones
already in the page there is now one for Tone Mapping: an alpine frame
whose clouds sit near white, its White Point raised to bring them back
and lowered for a brighter picture, its Contrast raised, then Before.
The panorama film unticks the first frame and ticks it back, so the
Frames list and the re-solve show; it no longer films minutes of
"Reading the frames", cutting from the first seconds of the job to the
alignment. The manual's presets menu opens beside the rail, not beside
the photograph.
The presets menu and sheet listed every preset under flat section
headings, seventy rows to scroll past. They now list folders, closed
until opened, with how many presets each holds; opening one shows what
is inside it, folders and presets indented beneath.
A category is spelled in the name: "Portraits/Warm skin" is Warm skin
in a Portraits folder under Yours. The file format does not change, so
an older build lists the whole path as the name; renaming a preset is
how it moves, and saving or renaming into a folder opens the way to it.
A Lightroom import names what it reads after the folders below the one
chosen, and a "/" in a displayed name becomes "∕" so it files nothing.
The shipped film sections become Film › Colour, Cinema and Black and
white.
The tree is built and flattened in Rust (PresetTree), each row carrying
its depth, and which folders are open is remembered for the session.
A PopupWindow keeps the size it was shown at, so a folder opened in the
menu pushed its contents under "Save or manage…"; the menu is shown
again after each toggle to take its new height. That is a function on
the rail because Slint 1.17 generates Rust that does not compile for a
popup's close() reached from inside the popup. The sheet's list takes a
preferred height of up to 400px, since a Flickable reports next to
nothing and an opened folder showed three rows.
The manual describes the folders and naming. Its pictures show the menu
with Film › Colour open, and a black-and-white stock applied from Film
› Black and white; the scenes aim popup rows from the rail's entry, and
pick the menu's "Film" over the develop column's film chooser.
Presets were a "Presets…" button in develop's top bar that opened a
sheet over the photograph, so applying one was two clicks with the
picture covered. They are now an entry pinned to the bottom of the tool
rail, apart from the tools because a preset arms nothing, and it opens a
menu beside the rail: the same sectioned rows the sheet lists, one click
to apply to the open photograph. The menu's last row, "Save or manage…",
opens the sheet, which keeps saving, renaming, reverting and importing,
since those take a name or a path.
The menu is a PopupWindow for the film list's reasons, with the list in
a clipped box of its own; the Flickable alone let its last row draw over
the manage row. Choosing from it zeroes preset-apply-count before
applying, since the grid may have left its selection count there.
The manual says where presets are now and gains a picture of the open
menu. The scenes reach the sheet through the menu and aim the manage
row from the rail's entry, as the film list's rows are aimed, because
the automation reports a popup's elements in the popup's coordinates.
The manual described film in a mask layer (6b99f67) with no picture of
it, and the paragraph named the control `Print exposure` where the
panel says `Print Exposure`.
A new scene, film_local, sets Kodak Ektar 100 on an upright alpine
frame — a negative, so it is printed and has a print exposure — then
adds a linear gradient, turns it by its rotate handle to fall from the
top, moves it onto the sky, shows the mask as its edge so the print
stays visible, and raises the layer's Print Exposure to burn the sky
in. Done Masking, then Before held. It puts the masks back to Tint
before undoing, as the other scenes expect.
The picture follows the film list's, under the paragraph it
illustrates. The bundled manual is regenerated to match.
FR-CULL-13 says evidence never writes a rating, flag, label or trash
membership, and nothing enforced it. tools/traceability/src/verdicts.rs
parses the shipped code with syn and enumerates every write: calls to
the catalog setters and trash recorders, SQL that assigns those columns,
sidecar Amendment::Judgement, and fields named rating/flag/label. Each
site must be in ALLOWED with a reason, as Input (inside a Slint on_*
closure, checked structurally), Relay (its callers are checked in
turn), Carried (a verdict made elsewhere: sidecar and XMP pulls, sync
merge, catalog mirrored to file, duplicates consolidation) or
NotAVerdict. Unlisted sites and stale entries both fail
`cargo test -p traceability`; `traces verdicts` prints the list.
syn and proc-macro2 were already in the lockfile as proc-macro
dependencies; this adds the edges, no new crate and no version change.
Every scene is recorded again on the 0.17.0 build, because the header
(Export to Exports), the sidebar (Albums) and the develop column had
all moved. The launch pictures showed the typed folder field, and the
export settings "Export to"; the presets picture predated the sections.
New scenes: presets_film scrolls the sheet down through the shipped
sections and applies Ilford HP5 Plus, a look that changes the film and
nothing else; albums exports four New York frames to an album, selects
it to show the originals behind its files, and opens a new album's
sheet before deleting what it made. record.sh now points the profile's
old export folder at DR_HOME/Exports, which the app turns into the
album "Exports" on first open - the one way to have an album without
the portal's dialogue, which Xvfb cannot show. The launch scene signs
out of a remembered folder instead of typing one, so it shows
"Open folder" beside the folder used last.
Not recorded: the server browser's New folder, which needs a Nextcloud
server, and the download screen, which a folder library never reaches
(the original is a local read, over before the first poll). The manual
says so where it describes each. film_reach and duplicates passed;
inference was pinned to the CPU.
benchmarks.md and catalog_open.rs both said schema::backfill runs on
every Catalog::open. Since ffdd640 it runs on the first open of a path
in a process and is skipped while the stamp matches, so in dr-bench
catalog_open_ms still includes it and catalog_open_warm_ms, the second
open in the same process, no longer does. That is what a library
reopened in one session costs, and both now say which figure is which.
The comment keeps its line count, so no tag below it moves.
The manual described the review (7c9a4ee) without a picture, because the
demo library holds no duplicates. The new duplicates scene makes two:
it copies two New York frames into a bck folder beside their own,
restarts the app so the scan finds them, waits for the sidebar row the
sweep's dating brings (54aee50), opens the review from it, presses
Check and takes the page. It deletes the copies and restarts on the
library as it was; record.sh's snapshot restore would remove them too.
It is registered last, so no other scene sees the copies.
The picture shows both groups proved the same file, the camera-named
copy outside bck marked Stays, and "Move 2 copies to trash" ready.
Every scene was recorded again on a release build of this commit with
the automation feature. Master changed what nearly every picture shows
after they were taken: scrollbars on the develop column, the grid, the
sidebar and Settings; a "?" beside Settings in develop's top bar, with
its controls regrouped; the Film row opening its list as a popup.
The film scene pressed the list's rows through the develop column, which
no longer holds them: the list is a popup, and the automation hook
reports its contents relative to it. The scene now opens it with
film_list_open, turns the wheel down it and back so the popup and its
scrollbar are seen scrolling, and clicks Velvia at its popup position
plus the popup's origin. The caption says so. film_reach passed in the
same run: the last stock was reached by the wheel, a drag, the scrollbar
and the keys.
Looked at as contact sheets of each GIF's middle and last frames and
each PNG. launch, launch-folder, library-nesting.png and
library-collection-menu came out byte-identical after optipng and are
unchanged. develop-zoom's deepest frames are smooth on Xvfb as before;
its caption does not claim blocks. Settings shows version 0.15.0,
the build's own, until the release commit bumps it.
The film list bug gave no failure anywhere: the data was right, the
markup compiled, and the list rendered. Two guards now check that the
list can be walked to its end, both by driving input rather than by
reading markup.
tests/film_list_reaches_every_stock.rs runs in CI and needs no display.
It builds the real AppWindow on Slint's testing backend and gives it 28
stocks. It dispatches window events through the same routing a window
uses: popup, Flickables, arbitration. It then checks that the last stock
is on screen, that is, not clipped away:
- after Down past the end, and that Enter chooses it;
- after drags on the list;
- after a run of wheel events with a still pointer;
- after dragging the scrollbar thumb.
Element queries need the Slint compiler's debug tables, which build.rs
emitted only for the `automation` feature. It now emits them for every
debug build too. Release builds, the ones that ship, are unchanged. The
testing backend is a dev-dependency at the same pinned version the
automation feature already uses, so no new crate enters the lockfile.
The test is compiled out of release test runs.
film_reach in tools/manual/scenes.py is the same check on the recording
rig: a real X pointer from xdotool, the release build, and the demo
library. It makes no picture, so it adds nothing to the manual. It runs
with every recording, or alone with `record.sh LIBRARY film_reach`, and
fails the run if the last stock (Ilford HP5 Plus) is out of reach by
the wheel, a drag, the scrollbar or the keys.
Both have to add the popup's position back. The testing backend reports
anything inside a popup relative to the popup, and so does the
automation hook built on it. They take the popup's position from the
Film row and Slint's clamp into the window.
Every scene was recorded again on a build of this branch rebased onto the
keyboard work and TD-1, since nearly every scene depends on files those
changed: the develop top bar now carries a star strip and Pick/Reject, the
roll shows flags and stars, and the grid's selection bar gains Label and
Flag. `--changed` could not be trusted to find them, because the rebase
made each picture's commit newer than the sources it was recorded from.
The develop-zoom caption said the wheel goes on "until the pixels are
blocks". On Xvfb the deepest frames come out smooth even though the app
draws past 1:1 nearest-neighbour on a real display (confirmed by eye on
the desktop), and a GIF shrunk to 960 wide could not show 3-pixel blocks
anyway. The caption now says what the clip shows; the prose above it,
which describes what the app does, stays.
The traceability job now runs `tools/manual/record.sh --check`: every
picture docs/manual/README.md shows must be made by a scene in
tools/manual/scenes.py, and every picture a scene makes must be shown.
It reads the two files and nothing else, so it needs no app, display or
LFS pull.
--changed now dates a scene by the newest commit among its pictures
rather than each picture alone. A scene that also makes a picture which
re-records byte for byte (panorama-aligned beside panorama.gif) no
longer stays listed for ever. A scene all of whose pictures come out
identical (launch) stays listed until one differs, which costs one
harmless re-run.
scenes.py aimed every press at window pixels, and the develop column had
already moved under it: Compose now sits above Adjust, so the old
exposure coordinate lands on a straighten slider. Every scene now names
what it presses by its accessible label through the automation hook,
places points on the photograph relative to the canvas, and opens its
photographs by file name. Each starts from a known place and undoes what
it did, so one can be recorded alone; the few that continue another's
state name it, and running one runs that first into a scratch folder.
Each scene also declares the pictures it makes and the sources they
depend on. `record.sh --check` fails when the manual shows a picture no
scene makes, or a scene makes one it does not show; it reads two files.
`record.sh --changed` re-records the scenes whose sources, or own code,
changed since the commit that last touched their pictures. record.sh
builds with the automation feature, restores the library from
DR_LIBRARY_SNAPSHOT, starts from a fresh profile and pins inference to
the CPU; the launch screen is recorded from an empty profile of its own.
Re-recorded with the ported scenes, and looked at frame by frame. What
differs from the pictures they replace:
- develop, presets, settings, local, compose, film, wb, light: the
current develop column (Compose with Vertical and Horizontal above
Adjust, the Label button), otherwise the same moments.
- library pictures: the filter bar's colour-label chips; no collection
left over from an earlier run in the sidebar; library-selection is the
twelve alpine frames rather than eight of them and four New York ones.
- library-rating rates two frames nobody had rated, so the stars are set
and not cleared.
- develop-zoom goes on past 1:1 with the wheel and ends on the file's
pixels as hard-edged blocks.
- repair covers a real mark on the road, with a size that fits it; film
is shown on the Chinatown frame instead of the road.
- panorama tries Perspective, Spherical and Cylindrical before filling.
- launch, launch-folder and panorama-aligned came out byte-identical.
Every scene in tools/manual aimed at window pixels written in by hand, so
a panel that gained a row moved every slider under it and the recording
went on dragging where the slider used to be. The develop column has
already moved that way (Compose now sits above Adjust), and nothing said.
A build with the `automation` feature listens on the Unix socket named
by DR_AUTOMATION and answers where an element is: by its accessible
label, the name a screen reader reads, or by its markup id for the few
things that are not controls (the canvas, the crop rectangle). It uses
Slint's element queries, which need the compiler's debug tables, so the
feature also turns those on in build.rs. It only answers questions; the
input is still xdotool's real pointer. No default build has the feature,
and one that has it listens only when the variable is set.
drive.py gains click-on, drag-on, hold-on, wait-for, wait-gone, labels
and ids. The grid's cells are now named by their file, each rating star
by its value, the sidebar's + as "New collection", and the Adjust
heading's reset as "Reset all adjustments" - controls a screen reader
could not reach before either.
The gesture book is generated from GESTURE tags, so it could not describe a
gesture nobody tagged, but nothing made anyone tag one. The arrow keys, Enter,
P, X, U, Delete, F1 and F2 all worked in the grid with no line in the help
sheet, and a tag could name a key whose handler had gone.
Key handlers now compare one canonical string, Keys.chord(event) == "Ctrl+Z",
instead of reading event.text and the modifiers themselves. keys.slint folds
the key and its modifiers into that spelling, so the literal in the handler is
the whole binding and the checker reads exactly what the handler dispatches
on. Each handler carries a KEYMAP comment naming the gesture-book section its
keys belong to, and a tag's keys field names its keys between backticks.
gestures-check now fails when a handler binds a key no tag in that section
names, when a tag names a key no handler there binds, when any .slint file
other than keys.slint reads event.text, when a compared literal is not
canonical, and when keys.slint's named keys drift from the Rust list.
Spellings are normalised in one place, chord.rs: Ctrl+z, Control+Z and
LeftArrow all mean what the handler's "Ctrl+Z" and "Left" mean. Shift and Alt
count only for letters and named keys, because on the French layout every
digit needs shift and a 6 has to be a 6 however it was typed.
A Rust keymap that both dispatched and was read by the generator was the
alternative. It would have moved the handlers' decisions away from the Slint
state they depend on, and a window that forgot to install it would have had
no working keys at all.
The keys that were already bound and undocumented are now tagged.
The help sheet says which move does a thing, and the manual has a
picture of the thing being done, but nothing joined the two: a user
reading "Pinch it with two fingers" had no way from there to the GIF of
it.
A GESTURE tag takes an optional `manual:` field naming a heading of
docs/manual/README.md by its anchor. The scan checks every one against
the anchors the bundled page is rendered with and fails when the manual
has no such heading, so renaming a section cannot leave the sheet
linking to the top of the page; gestures-check carries the same failure
into CI. The anchor goes into gesture_book.rs as a new field, and into
docs/gestures.md as a "See it" link to manual/README.md#anchor. The help
sheet draws a "See it" button beside the title of each gesture that has
one, which opens the bundled manual at that section.
The field is additive: a tag without it is unchanged, and no gesture
carries one yet.
The manual existed only as docs/manual/README.md, which the forge renders
and nothing else does. An installed copy of the application, on a laptop
with no network or on a tablet, had no manual it could open.
`traces manual` renders the README to docs/manual/index.html with
pulldown-cmark (already in the tree as Slint's Markdown parser, so this
adds a dependency edge and no crate). The page is one file with an inline
stylesheet that follows the system's light or dark preference, a
contents list of every section and subsection, and the pictures by their
relative media/ paths. Each heading carries the id the forge gives it, so
README.md#rating-and-flagging and index.html#rating-and-flagging are the
same link. A picture alone in its paragraph becomes a figure whose alt
text is shown as the caption, and every picture reserves its 16:11 box
before it loads, so a jump into the middle of the page lands where it
aimed rather than a screenful above. Links to design documents, which the
installed page has no copy of, point at the forge.
The page is committed rather than rendered at build time, as the gesture
book is: it is user-facing text reviewed in the diff, and the three
packagers then only copy it. `traces manual-check` fails in CI when the
committed page is not the render of the README, and the pre-commit hook
regenerates it when the README is staged.
Nothing made a release. CI built the APK and the installer on the master
push and kept them as workflow artefacts, the Linux binary was not kept
at all, and most tags went out with no downloads until they were
attached by hand.
build-and-test now also runs on v* tags. On a tag the desktop job keeps
its release binary, and a release job that needs desktop, Android and
Windows collects the three, names them with the version and runs
tools/publish-release.sh. The script titles and describes the release
from the annotated tag's message as the server holds it, writes
SHA256SUMS, and attaches what is not already there, so a re-run after
an interrupted upload finishes the job instead of duplicating it. The
same script is how a release is made or finished by hand.
Tried on v0.14.1, whose release was made by hand with the same files:
it found the release, reported all four files attached, and changed
nothing.
docs/ had 26 developer documents flat beside the manual, and the two
audiences are very differently sized: most readers want the manual and
the gesture reference, a few want the register, the designs and the
measurements. The manual and gestures.md stay at the top; everything for
someone changing the code moves to docs/dev/, and the two documents that
name their own successors — the v0.1 milestone and the UI-refinement plan
— go to docs/dev/archive/ rather than being deleted, since both are still
cited. docs/README.md is the index, users first.
Every reference follows: code comments, Cargo manifests, the workflows,
the pre-commit hook, the bench and traceability tools (which locate the
repo root by docs/dev/requirements.md now), packaging, the Docker READMEs,
CLAUDE.md, CONTRIBUTING.md and the README. The matrix links one level
deeper and is regenerated. Links out of the moved documents into the tree
gain a level; a link checker over every Markdown file finds none broken.
Measured on a Radeon RX 7900 XT against Arch's onnxruntime-rocm 1.29
(docs/inference.md §1.3): MIGraphX fp16 runs the detectors at 2.4–3.4 ms
against 10–58 ms on the CPU provider, the inpainter at 8 ms against 514,
with a 15–135 s compile per graph the first time and under a second from
its cache after. A compiling rung on TensorRT's terms, wired the same way.
The ROCm execution provider is gone (removed in ONNX Runtime 1.23), so the
AMD ladder is MIGraphX then the CPU, with no non-compiling rung between.
MIGraphX is registered through the runtime's generic key/value entry
point rather than ort's builder: 1.29 reads the legacy options struct for
its precision flags only, and the compiled-program cache directory
(`migraphx_model_cache_dir`) only travels the generic way. The provider's
cache key omits the precision, so f32 and fp16 programs get their own
directories. The probe fingerprint now includes the provider libraries
beside the runtime and the ROCm version, since a distribution's CPU and
ROCm builds are the same file at the same path.
`status().failed` reports only the rungs above the selection, so an AMD
desktop's About line says why MIGraphX won rather than that the NVIDIA
providers are not in the build.
Two examples: `ep_probe` times each provider cold and from cache, and
`ladder` drives `init` as the app does to watch the first-run sequence.
Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
A scene that makes a parent, nests two collections in it by drag and by
the menu, files frames into a child and opens the parent to see it count
both; stills of the tree and of the menu. The collections recording is
re-made now that the bitmap under the cursor is the photograph.
drive.py grows a multi-leg drag: a diagonal with much vertical in it is
taken by the grid's Flickable as a scroll before the DragArea can claim
it, so a drag to the sidebar goes sideways first.
The recording sampled a red brick wall and moved the sliders by three
units, which at GIF size is a click that does nothing. The scene now
drags the frame cold first and picks a white air conditioner, so the
correction is visible and the picker's being absolute - set from the
photograph, not from where the sliders were - is what the picture
shows. The text says so, and says a blown highlight is refused.
The scene clicked 40px to the right of "pick", on "reset", so the
recording showed a neutral group being reset and a click on the wall
that panned. Re-recorded with the picker fixed: the word lights, the
sample moves temperature and tint, and Before shows what it corrected.
docs/manual/README.md is a tour for a photographer opening DarkRoom for
the first time — one picture per thing, moving where movement is the
point. tools/manual/ is how the pictures are made: drive.py puppeteers the
desktop build on a private Xvfb (launch, click, drag, type, screenshot,
record), scenes.py is each picture as a script, and record.sh runs them
all over a folder and writes the results into docs/manual/media/.
The media is in LFS, with the CI pulls excluding it as they exclude the
fixtures; a screenshot changes wholesale when the interface does.
Nothing in the pictures shows a person, by design: the demo library is
seventy urban and alpine frames, chosen from the catalog's rows that face
detection found nobody in.
The traceability matrix is regenerated here after the rebase that
brought this branch up to master.
The reference desktop's only system ONNX Runtime is Arch's
onnxruntime-opt-cuda: 1.29, built without TensorRT and against cuDNN 8
on a cuDNN 9 machine. The probe rejects both providers correctly and
the app runs on the CPU provider, which is right and not what anyone
wants. runtime/ beside the models is now searched ahead of /usr/lib,
tools/fetch-desktop-runtime.sh fills it with the four libraries from
the current onnxruntime-gpu wheel (cuDNN 9, TensorRT 10), and the
About caption lists every rung that lost and why, not only the first.
Verified: the app selects TensorRT from that directory with no
environment variable set.
Sargsyan et al., ICCV 2023; MIT code and weights (models/LICENCE.md),
exported by tools/export-migan.sh at a fixed 1×4×512×512 from the
authors' checkpoint — six operator types, 28 MB, in LFS like the rest.
The package installs it beside the scene model and the APK unpacks it
with the others.
The first int8 files found no faces at all, and for two reasons the
tool now guards against. The calibration set was landscape photographs
with no faces in them, so the score head's ranges had never seen the
face regime; the set is now proxies from the library itself. And ONNX
Runtime's strided and moving-average calibration modes both degrade
these graphs measurably (a quarter of the faces at eight images, none
at ninety-six), while driving the calibrator in chunks by hand gives
ranges identical to a single pass — so the tool does that, four images
at a time, and feeds quantize_static through its range cache.
Measured against f32 over 400 proxies (docs/inference.md §10.1): the
10g form finds every face above 32 px the f32 form finds; 500m and
2.5g find 96%, and what they lose sits at a median confidence of 0.52
against the 0.50 threshold. Shipped with the number on record.
The Android unpack list gains the three int8 files; without that the
tablet never saw them. D13's runtime half records the reopening.
tools/quantise-models.sh writes the QDQ form QNN's HTP backend takes
whole: opset 17, per-channel int8 weights, uint8 activations, ranges
from running the f32 graph over photographs fed exactly as the app
feeds them. The calibration is strided, four images at a time, because
every ONNX Runtime calibrator holds each image's whole set of
activations until it folds them — a gigabyte an image on the 10g
detector, and an OOM kill with no message when folded once at the end.
Release-time, never on the device (docs/inference.md §5): it needs
real photographs and a person reading the recall measurement that
gates whether each file is offered.
The desktop names where a package may have put libonnxruntime — an
override variable, beside the executable, the package's own library
directory, the Flatpak prefix, the system library directory — and
Android points at the APK's native library directory, which is also
what Qualcomm's DSP loader must be told for the Hexagon skel. Android
starts the engine at the end of the model unpack rather than at launch,
because the probe fingerprints the model files and a first launch has
none until then.
The About panel gains an Inference row beside Graphics, re-read every
two seconds while the probe runs and engines land, and faces.model_id
carries the detector's form: an int8 detector finds a different set of
faces and is a different population (docs/inference.md §7). A
low-memory signal drops every idle session with the GPU caches.
The APK assembly bundles ONNX Runtime and the Qualcomm HTP libraries
from Maven, fetched by tools/fetch-android-runtime.sh with their
published checksums; RUNTIME_DIR=none builds the tract-only APK, which
is a slower app and not a broken one. The desktop packages carry no
runtime yet.
Two probe fixes from the first desktop run: the floor must not be
built with CPU fallback disabled, and a versioned libonnxruntime.so is
a runtime too. On the reference desktop the probe now loads ONNX
Runtime 1.30, measures 30 ms on the CPU provider, and selects TensorRT
at 1.5 ms.
Twelve real frames from the fixture set now align in 4.5 s — 4.4 s of
matching, 118 ms of bundle adjustment — where the first run took 51 s and
left the first two frames out.
The matcher computes each pair's similarity matrix once, across the
cores, with a dot product written to vectorise; both nearest-neighbour
directions read it. The frames that failed were portrait: fitted into the
landscape input they used 512 of 1024 px, and their thin overlap did not
survive at half resolution. The same weights are now exported at 768×1024
as well and the detector picks the shape by aspect. The example aligns
from embedded previews and draws the set on a cylinder; on the fixture the
sweep is 152° at a fitted 47.9 mm against the EXIF's 50, RMS 1.5 px, and
the overlaps show no ghosting.
tools/onnx-probe-on-device.sh cross-builds dr-segment's onnx_probe
without the embedded segmentation model, pushes it with a model to the
attached device and times two runs. The 768×1024 XFeat export takes
~400 ms on the reference tablet's NEON cores against ~300 ms on the
desktop, with identical output ranges — inside NFR-MRG-1's 1 s per frame.
The blend half of S15.4 waits for a chunked blend to exist.
tools/export-xfeat.sh exports the convolutional network alone at 768×1024
grayscale, on the pattern of export-seg-model.sh: thirteen standard
operator types, no dynamic axes, the keypoint decoding left to Rust.
examples/onnx_probe loads it through the ort-over-tract backend the app
ships with nothing unsupported and runs it in ~300 ms on the desktop CPU.
The weights are Apache-2.0, read from the repository's LICENSE, with no
grant on the checkpoint — recorded in models/LICENCE.md before they land,
as FR-MRG-8 asks. The probe stays: the next model will need the same
check.
2d106det for the eye contours, OCEC for open or closed, SGC for
sunglasses — all three pinned to a batch of one by the same script as
the pair, and installed by every packager so the eyes-open filter works
out of the box. The two classifiers are MIT, code and weights; the
README records their provenance, SGC's undocumented training set, and
the hashes as fetched and as shipped.
The register said two things about plugins. §7 had listed "Plugin API"
as deferred since the first draft, in a bare row; §3.10 then specified
it in 23 clauses that counted against coverage. Twenty-one of them had
no implementation of any kind, and could not have: no crate loads
anything at runtime. The coverage figure was measuring the contradiction.
Decided 2026-09-19: §7 is right. §3.10 stays as the design of record,
each of its clauses is marked "(post-v1)" on its defining line, and
NFR-SEC-6 — which exists only for plugins — goes with them, as does D16.
The traceability tool learns the marker. A deferred requirement is still
defined, so a tag naming it is not an orphan, but it leaves the
denominator and is listed in its own table rather than under "not yet
tagged". The marker must sit on the definition line; a mention of
"post-v1" in prose changes nothing, and where an ID is defined twice the
deferral on either line wins. Both are tested. Coverage moves from 72.2%
of 194 to 80.6% of 170 without a line of application code changing,
which is the honest figure: it now measures what v1 owes.
faces.md §12.3 measured what the cheapest detector costs: the small
faces in every group shot, and a dog embedded a dozen times. Which
trade is right depends on the machine doing the sweep — a desktop left
overnight and a tablet on a battery want different answers — so the
detector is now a per-device setting, Fast / Balanced / Thorough on
the settings page beside the indexing button, persisted with the rest
of the settings file.
A detector is half of a model id. Every face, marker, shard and
calibration is keyed on faces.model_id precisely so that a model change
is a new id and a re-index rather than a silent change under existing
data, and a detector change is a model change: it decides which faces
exist and where the landmarks that align them land. So each choice
names its own pipeline. 500M keeps the bare "w600k_mbf" every existing
library was written under, so an upgrade disturbs nothing; the others
are qualified. Choosing one restarts coverage from zero under the new
id, the sweep re-detects, confirmed names carry across by box overlap,
and the sync shards are keyed by the same id so a peer on another
setting neither adopts nor pollutes them. The library controller
carries the id into the sync the same way it carries the cache budget,
because the sync starts from places that have no settings in reach.
All three shape-fixed exports ship — APK, Arch, Flatpak — since a
tablet has no other way to obtain the one it was not installed with;
the APK grows by twenty megabytes for the choice.
Every release commit in the history reads `Release X.Y.Z` and none of them
carries the message this script would have written, so nobody has ever
passed it `--commit` — and the reason is in the message it wrote: a
Co-Authored-By trailer naming an assistant, which no commit in this repository
carries and none should.
The trailer goes, and so does the paragraph above it: the script's own header
already says why it exists, and a release commit is the one place a one-line
subject is the whole convention.
There was no benchmark harness of any kind -- no benches/, no criterion,
no synthetic fixture -- while §8 promised a suite run per commit that
fails the build on regression. Ten performance requirements could be
neither passed nor failed.
tools/bench builds a deterministic 50,000-row catalog over a pool of
twelve generated JPEGs, about 14 MB, reproducible from a seed, with a
stamp so it rebuilds rather than silently comparing against a different
workload. It depends on nothing GPU or UI, which is what makes the CI job
affordable.
NFR-P1 and NFR-P3 are gated and tagged. NFR-P7, NFR-P8 and R2 are
measured but deliberately untagged: the export gate is one-sided, the
memory figure is the catalog layer's share rather than the whole, and
R2's first sentence is a 60 fps scroll a catalog benchmark cannot claim.
Every recorded value in the baseline is null. Nobody has run this on the
reference desktop, and a fabricated figure would make every later
comparison a comparison against a guess.
First run on this machine: catalog opens in 70 ms against a 2 s budget,
and thumbnail throughput measures 37 img/s against a target of 100 --
reported rather than asserted here, and the first evidence that the
target may not hold.
Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
clippy::print_literal on the results table header, and rustfmt's first
look at code whose author could not run cargo. The four constructs the
author flagged as risky -- scoped-thread lanes, a seventeen-argument
params!, is_some_and over a closure, a refutable let-else -- all compiled
untouched.
Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
docs/requirements.md §8 has said since it was written that performance is
verified by "an automated benchmark suite against a synthetic 50k catalog, run
per-commit … A regression beyond stated tolerance fails the build." There was
none. No benches/, no [[bench]], no criterion, no synthetic catalog, and three
CI workflows that between them measured nothing. Ten performance requirements
could therefore be neither passed nor failed, and five of them carried a
TRACES: tag regardless.
tools/bench is the half of that promise that can be kept honestly on a runner
with no GPU and no display.
# The fixture
Rows are cheap and pixels are not, so it builds fifty thousand catalog rows
over a pool of a dozen real files, each referenced by several thousand of them.
Everything the catalog half touches is rows and is exact at full scale;
everything the pixel half touches is one file at a time and does not care how
many rows point at it. Fourteen megabytes on disk instead of two terabytes, and
neither half is flattered by the trade. It is reproducible from a seed, and a
stamp beside it — seed, row count, source size, dr-catalog's schema version —
rebuilds it rather than letting a run be compared against a baseline that
describes a different library.
# What it can now pass or fail
NFR-P1, and R2's second sentence with it: Catalog::open plus the count, first
window and timeline the grid cannot paint without. The interesting part turned
out to be the open itself — schema::backfill runs three passes over the images
table on every open, which is O(library) work on a path whose budget is stated
in absolute seconds. Tagged TRACES: NFR-P1, on a gate that fails if it breaks.
NFR-P3: thumbnail throughput on the embedded preview path, through the same
per-image work spawn_thumbnail_sweep does and in the same shape — chunks of 96,
lanes owning disjoint slices, the single thread that owns the store writing the
finished chunk. Mirrored rather than called, because that function takes a
RemoteBackend and would measure somebody's network. Tagged TRACES: NFR-P3.
# What it deliberately does not claim
NFR-P7 is the whole chain, and only the encode half of it runs without an
adapter. So the export row is a one-sided gate — over two seconds in the encode
alone violates the requirement; under it proves nothing — and there is no
TRACES: NFR-P7 anywhere. NFR-P8 is about the application at idle, and the probe
is a process holding the catalog and nothing else, so it records the catalog
layer's share and carries no budget until somebody decides what that share
should be. No tag there either. CONTRIBUTING.md asks that a requirement be
closed by a test that would fail if the behaviour were removed, and two more
plumbing tags is what this repository already has too many of.
NFR-P8 also gets the answer §4.1 demands: RSS is exclusive of device-local GPU
allocations and cannot be made otherwise, because such an allocation never
enters the process's address space. The requirement should be restated as two
figures, and docs/benchmarks.md says so.
# Two gates, and why one of them steps aside off the reference desktop
The budget is the requirement's own number and never moves. The baseline is
what the reference desktop last measured, and drifting 15% past it fails the
build even while still inside the budget — which is how performance rot
actually arrives, never over the line, always a little worse.
A budget written for twenty-four threads cannot be asserted on a two-core
container. §8 names the reference desktop, not CI, so each metric declares
whether its budget is machine-sensitive; those are asserted under --reference
and reported everywhere else. Catalog open is not one of them: two seconds
against an expected figure two orders of magnitude smaller is a threshold any
machine can be held to. This is the trap core/dr-gpu/tests/frame_budget.rs
already refuses — a red gate everybody learns to ignore.
# The baseline ships with no numbers in it
Every recorded field is null, because nobody has run it yet. Writing
plausible-looking figures would make every later comparison a comparison
against a guess, and the first real regression would be invisible. Run
`dr-bench record --reference` on the reference desktop and commit the diff;
until then the budget gate works and the report says the other one cannot.
# CI
.gitea/workflows/benchmark.yml, and its own workflow rather than a step in
build-and-test.yml: a red "Build and test" says the code is wrong, a red
"Benchmarks" says it got slower, and the second must not be reachable by
retrying a flaky compile. The cpu job runs on every push and builds -p dr-bench
alone — which is why that crate depends on no GPU and no UI crate. The gpu job
is the frame budget that already exists and already skips without an adapter,
on workflow_dispatch, because building wgpu on every commit to rediscover that
the runner has no device is not a use of anybody's minutes.
The module doc said an extractor keyed on string literals would "lose six
genuine tags to save two false ones". The six is right — `schema.rs` carries
that many `-- TRACES:` lines inside Rust literals — but the two undercounted
the false ones, which were R1 twice, FR-CAT-1 twice, FR-CAT-2, NFR-P1, one in
`gestures.rs` and two emitted by `dr-pipeline/build.rs`. The comparison it was
drawing does not need a number on that side to hold.
Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
NFR-OPS-1 asks for structured levelled logging to a rotating, size-capped
on-disk log in the XDG state or Android app directory, automatic redaction of
credentials and tokens, and a one-click diagnostics bundle with an explicit
preview-and-consent step. Its two tags were on `compute_coverage` and on the
traceability tool's gesture extractor.
Neither is diagnostics under any reading. One computes a ratio and the other
generates a markdown document; neither writes a log, and no rotating on-disk
log exists anywhere in the tree — logging goes to stderr and to logcat.
These were real tags, not the fixtures the extractor was just taught to
ignore, which makes them the more instructive case: the tool was correct and
the tags were wrong. NFR-OPS-1 is untagged again, and outstanding.md §9 now
says what is actually missing rather than that the requirement is covered.
`gestures.rs` keeps its FR-UI-4 tag, which is a separate claim and unaffected.
Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
The traceability tool scans `tools/`, which is its own source, and a line was
taken for a tag whenever `TRACES:` appeared anywhere on it. Its unit-test
fixtures are therefore tags. R1 — cross-platform output within a bounded
tolerance, the requirement with no acceptance criterion at all — was reported
implemented on the strength of two string literals in
`context_looks_forward_then_backward`.
R1 was only the visible case because it had no other coverage. The same
fixtures also contributed sites to FR-CAT-1, FR-CAT-2 and NFR-P1, `gestures.rs`
contributed one to FR-UI-4 from a `push_str`, and `dr-pipeline/build.rs`
contributed FR-DEV-3a and FR-DEV-3c from the tag it *emits* into generated
code. Those four requirements keep real tags elsewhere, so nothing but noise is
lost by dropping them.
The rule is about position, not about string literals. It cannot be about
string literals: `schema.rs` writes six genuine tags inside Rust string
literals, because the SQL it embeds is commented with `--`, and an extractor
that refused those would lose more than it saved. What separates the two is
where on the line the tag is. A tag written to be read is the first word of its
comment; a tag quoted inside an expression never is. So `tag_body` asks for a
comment opener at the start of the line and `TRACES:` immediately after it.
That closes every shape but one: a multi-line literal whose lines really do
begin with `///`, which no line-oriented reader can tell from source. There is
one such fixture and its ids are now UT and IT, which `is_requirement` already
excludes from coverage — the mechanism existed and was simply never used on
the tool itself. `this_crates_own_fixtures_cannot_reach_the_register` enforces
that: any requirement id below `mod tests` in this crate fails the test and
says to use a UT- or IT- id instead. Tagging the tool's real code is still
allowed.
On `SOURCE_SUFFIXES`, which cannot reach `AndroidManifest.xml`, the Flatpak
manifest, the Dockerfile or the CI workflows: it is deliberately left alone,
and the reasoning is recorded beside it. A tag on a manifest asserts that a
comment exists next to a line nothing checks, which is the weak form
CONTRIBUTING.md warns about. The convention already in the tree — a Rust test
that `include_str!`s the file and asserts what must be in it, with the tag on
the test — is what a tag is supposed to mean.
Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
`models/LICENCE.md` recorded, on 2026-08-21, that no YOLO model trained on
ADE20K existed in usable form — the stuff classes photography cares about,
sky and vegetation and water, had no model to come from. Re-checked
2026-08-30: Ultralytics now ships a `semantic` task with ADE20K
checkpoints, so `models/scene/` holds `yolo26s-sem-ade20k`.
This is an addition, not a replacement. A semantic model labels every
pixel but merges same-class pixels into one region, so it cannot tell
three people apart — which is exactly what clicking a subject needs, and
exactly what `segment/`'s COCO instance model already does. The scene tab
grades per category and does not care that instances are merged. Keeping
both is the point.
## The export is truncated, deliberately
Ultralytics ends the graph with `Resize -> ArgMax -> Cast` and hands back
a `[1, 640, 640]` u8 label map. The script cuts that tail and exposes the
classifier's `[1, 150, 80, 80]` f32 logits instead, for two reasons.
Cost: the Resize materialises 150 x 640 x 640 x f32, 246 MB, and ArgMax
then reduces across the channel axis, striding 409,600 elements per
comparison. On one loaded machine the full graph ran ~1160 ms against
~500 ms truncated — roughly four fifths of the time spent on work the
application discards. Those numbers were measured under contention and
are upper bounds, but the ratio is structural.
Softness: ArgMax destroys the per-class scores, and the scene tab needs
them. Softmax over the 150 channels, summed within each photographic
category, yields per-category weights summing to 1 at every pixel.
Feathering a partition of unity cannot double-grade a boundary, whereas
feathering hard labels outward from two adjacent categories paints both
grades into the overlap and haloes every horizon.
The discarded upsample was never information: the graph's true spatial
resolution is the 80x80 logit grid, and the application can resample from
that itself.
The tail is matched by op type and asserted before cutting, so an
upstream graph change fails loudly in the exporter rather than quietly
shipping a differently-shaped model.
Nothing reads these weights yet — the decode path, the category
descriptor grouping 150 classes into ~8 photographic ones, and the scene
tab are still to come. At 24 MB this model also wants the runtime-asset
treatment `models/face/` already gets on Android rather than
`include_bytes!`; embedding it would put ~35 MB of weights in the binary.
Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>