worktree-library-settings-origin-split
28
Commits
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cabd011f1d |
Merge pull request 'The 272 ms audio buffer was legal: the PipeWire callback filled the buffer ceiling, not the graph's request' (#106) from fix/pw-playback-requested into main
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Reviewed-on: #106 |
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be86cfcdc0 |
fix(client/audio): the PipeWire callback stops filling the buffer ceiling every cycle
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The playback process callback sized its writes from the mapped buffer's capacity — PipeWire's quantum-limit, 8192 frames ≈ 170 ms — instead of the graph's per-cycle ask (pw_buffer.requested). Every cycle therefore queued up to 170 ms of PCM downstream of the ring, and, worse, taught JitterPolicy that the device drains 170 ms per callback: the underrun floor (want + one frame) rose above any depth the A/V sync loop may request, so sync measured audio ~280 ms late and was forbidden — by its own continuity rule — from draining it. The first on-glass run of the latency overhaul showed exactly that: audio buffer 272 ms, a/v +284 ms, stable. Honor requested (capacity remains both the ceiling and the fallback for requested == 0), and log requested-vs-capacity once per stream in the shape of the host's per-capture-open quantum line, so the next on-glass report can say which one is sizing the writes. Needs libpipewire >= 0.3.49 (2022-03) for the requested field; every ship target clears that. Verified on .21: cargo clippy -p pf-client-core --all-targets -D warnings clean, 167 tests pass, fmt clean. |
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a9e7c033c3 |
test(client/vaapi): the last rung of the ladder, finally checked in pixels — 7 legs, all bit-identical
Every other decode rung earns `verified` with frame-hash parity against
libavcodec. VAAPI could not: it hands out a DRM-PRIME dmabuf whose memory the
driver tiles, so nothing could read its decoded pixels back, and all four of its
legs sat at "never frame-hash parity-checked".
That was never bookkeeping. The D3D11VA AV1 rung decoded 250 frames, streamed
4K60 through a clean five-minute soak, and produced WRONG PIXELS for 186 of 250
frames on NVIDIA and 245 of 250 on Intel. It looked perfect on glass; only the
goldens caught it, and the same defect turned out to be in H.264 on two other
rungs. VAAPI was the one rung where that class of bug could still be sitting
with nothing able to see it.
It is not. Measured on .25 (Radeon 780M, RDNA3, radeonsi, Mesa 26.0.3, VA-API
1.23) on 2026-08-08, against the SAME golden files the Vulkan and D3D11VA rungs
are held to, read across the crate boundary rather than copied:
H.264 vendored vector 250/250 bit-identical (7 from the flush)
H.264 our host, low-delay 640x480 120/120 bit-identical (3 from the flush)
H.265 vendored vector 250/250 bit-identical (2 from the flush)
H.265 our host, low-delay 640x480 120/120 bit-identical (0 from the flush)
HEVC Main 10, P010 50/50 bit-identical (2 from the flush)
AV1 vendored vector 250/250 delivered of 274 decoded, and
display frame 0 byte-identical to
libavcodec's own PIXELS
AV1 our host, 4K two-tile 60/60 bit-identical
⚠ ONE vendor. AMD/radeonsi only; no Intel iHD box has run these legs.
The readback that made it possible:
* `pf-vaadec`'s `va` module gains `VAImage` and `VAImageFormat`, hand-declared
with every size and offset measured off libva 2.23.0's real headers by
`layout-probe.c` and pinned as compile-time assertions — the same discipline
the decode buffers already keep. The trap: `VAImage::width`/`height` are
16-bit, so `data_size` sits at 60 and not at the 64 counting 32-bit fields
gives, and every field after them is two bytes earlier than it looks.
* `pack_two_plane` is the pure geometry — the crop to the picture, the padding
columns dropped per row, and the chroma plane taken from the driver's OWN
`offsets[1]` rather than from `pitch * display_height`, which is the 1088-row
smear this program has already paid for once. It needs no device, so ten CPU
tests cover it on macOS and in the container.
* `video_vaapi_native::parity` drives the seven streams above through the
production entry point and hashes what the rung DELIVERS, in delivery order,
tail included — so the delivery path is under test as well as the decode, and
a frame's surface comes from its own release token rather than from an
inference about which pool entry holds which picture.
THE READBACK CANNOT REACH THE PRODUCTION PATH, and that is structural rather
than a promise. `vaDeriveImage`, `vaCreateImage`, `vaGetImage`, `vaMapBuffer`
and the rest are resolved by a `#[cfg(test)]` type that dlopens libva itself;
the production `Libva` gains no field; `sha2` is a dev dependency. A CPU test
scans this file's own source and fails if any of those symbols is dlsym'd
outside the harness, so a refactor cannot quietly undo it.
Derive is not guaranteed, so both routes are implemented and neither is
optional: `vaDeriveImage` first, `vaCreateImage` + `vaGetImage` as the fallback
(which also detiles), and if neither yields the pool's own fourcc the leg FAILS
naming what the driver gave it. There is no skip path — a parity test that
passes because it could not read anything is the failure mode this program has
been bitten by three times. Both answer on radeonsi, the first frame of every
leg is read through BOTH and they must agree, and `PF_VAAPI_READBACK=getimage`
reproduces the H.264 leg's 250/250 through the copying route alone, so the
fallback is exercised rather than merely written.
And it can fail — proven, not asserted. Planting the real geometry defect this
driver's layout makes visible (rows read contiguously, ignoring the 512-byte
pitch behind a 320-wide picture) fails at display frame 0 with the full
localisation: 68312 luma and 14998 chroma samples differing, max |delta| 255,
luma bounding box (0,1)..(319,239) — and with the goldens forced through one
route, 250/250 diverging with "suspect the readback geometry". `compare` and
`localise` also have CPU counterfactuals, and a hardware leg proves the readback
reads real and DISTINCT pixels and localises a one-byte flip to the exact pixel.
⚠ One thing the hardware legs do NOT cover, found by planting the other defect
and watching it do nothing: radeonsi's decode surfaces for every fixture here
have no VERTICAL padding — `offsets[1]` is exactly `pitch * height` — so the
chroma-plane trap is untested on this driver, and `pf-vaadec`'s
`reading_chroma_at_the_display_height_would_have_been_caught` is the only place
it is checked at all. `probe_this_machines_readback_routes` now prints the
derived layout and says which of the two it is, so the next driver answers for
itself instead of being assumed.
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5c05246098 |
feat: M10 — FFmpeg is gone from the client
cargo tree -p punktfunk-client-session finds no ffmpeg. The host still does, which is the whole point: pf-encode keeps libavcodec unconditionally and no host workflow, packaging script or licence file was touched. Deleted: crates/pf-ffvk, video_vulkan.rs, video_vaapi.rs, video_libav.rs, the libavcodec half of video_d3d11.rs, the av_log machinery, ffmpeg::codec::Id as the decoder's vocabulary (the quic CODEC_* wire constants now serve, which is why the evidence table was keyed on them), DecodedImage::VkFrame and ::Dmabuf, the presenter's AVVkFrame lane, and the ffmpeg-fallback feature with everything behind it. DrmFrameGuard collapses from an enum to a newtype, which removes an unsafe impl Send. Roughly 25,000 lines. Then the CI, packaging, licensing and docs work the plan's §6 lists: the Windows workflows lose FFMPEG_DIR, PF_FFVK_VULKAN_INCLUDE and their PATH prepend; the MSIX loses its DLL wildcard; the client .deb stops emitting libav sonames on its own because depends come from dpkg-shlibdeps; arch, flatpak and nix drop the dependency; and the README's "FFmpeg 7 or 8" contract narrows to the host. Three defects reached users' machines in the first cut, and none was in the deletion itself. All three desktop Settings UIs offer vulkan, vaapi and d3d11va as stored decoder values, so those strings sit in shipped settings files today. Refusing them by name — which is the correct rule for a stale pin — would have bricked every upgraded client whose owner ever touched that dropdown. They now migrate onto the native rung for the same hardware family, at decoder construction AND at each dialog's lookup, because a legacy value that matches no preset displays as "Automatic" and silently rewrites the user's preference on the next save. M9's evidence filter was deleted on the argument that with no libavcodec twin below, barring an unproven rung removes hardware decode rather than moving down one rung. That is true on Windows and false on Linux for Intel and every unknown vendor id, where prefer_vulkan_first is false and the order is native-vaapi → native-vk: a rung that has decoded nothing anywhere sitting above one that is 250/250 on three drivers. Every Intel Linux desktop would have moved from libavcodec VAAPI, shipping for years, onto pf-vaadec by default — and a rung that constructs and then produces wrong pixels leaves only by the error-streak demotion, which this codebase already documents as not tripping on the B580's strobing. The filter is restored as a narrow, pure, testable rule: an unproven rung yields to a proven one, and to nothing else. Windows deliberately passes no rung below, because that vendor family is the one with a measured wrong-pixel report against Vulkan decode, and trading no evidence for evidence of corruption is the wrong direction. And the notices still said FFmpeg was bundled. The root file is what both desktop clients include_str! and what the MSIX ships, three lines under the new card saying no FFmpeg is bundled; Apple's Acknowledgements said it too, on iOS, tvOS and macOS. The generator now emits four per-client files scoped by transitive closure — 0 FFmpeg mentions in each, verified — while the root file keeps it for the host. That also ends the standing false attribution of ffmpeg-next, GTK4, windows-rs and the NVENC SDK to an iPhone. Windows has no reachable box, so it was compiled instead: a cross clippy at -D warnings on x86_64 and aarch64-pc-windows-msvc with the C toolchain stubbed so build scripts run without linking. That gate immediately caught an include_str! path one directory too deep, which nothing else could have. Gates: container clippy -D warnings, 160 tests, workspace check, both Windows targets clean, client ffmpeg count 0 and host 2. The four decode crates are untouched, so the hardware rungs' 250/250 stands. ⚠ Owed and unrun: no GPU has executed any of this milestone. M8's on-glass software check, M7's D3D11 and VAAPI AV1 hardware legs, and M9's field bake all still want hardware, and the bake window and criteria remain the user's. |
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38554c1c6e |
feat(client): M9's code half — native first, FFmpeg behind an off-by-default feature
`ffmpeg-fallback` on pf-client-core, default off on the crate. With it off the libavcodec rungs are not compiled, pf-ffvk leaves the dependency graph, and no ladder or demotion arm names them; with it on each sits exactly where it sits today, directly below its native twin. That is the switch which makes M10 a deletion rather than a redesign. The bake window and the regression criteria are the user's, per the plan, and nothing here claims the M9 gate is met. The hard part was not the feature, it was honesty. Two of the four native rungs have never decoded a frame on any hardware — native VAAPI at all, and native D3D11VA's AV1 leg — and making those the default would assert evidence that does not exist. So admission is per rung and per codec: a pair with hardware evidence joins `auto` always; a pair without it joins only when nothing proven is left below it (a build with no FFmpeg twin, where the alternative is not a proven rung but the CPU) or when the user asks with PUNKTFUNK_NATIVE_FIRST=1. Pins bypass it, so a lab run can still reach any rung. The shipping default therefore changes in exactly three ways, all evidence-backed: AV1 `auto` takes native Vulkan (250/250 bit-identical on an RTX 5070 Ti), Windows H.264/H.265 `auto` takes native D3D11VA above its FFmpeg twin (parity on two GPUs plus a 30-minute soak), and a failing Vulkan rung on Windows demotes to native D3D11VA first. Everything unproven is byte-for-byte as it was. The evidence state is written where it cannot rot: a table in video.rs's module docs, the same facts in code as `native_evidence()`, a test asserting them in both feature states, and a per-session log line carrying the rung, the codec, whether hardware has verified that pair and the evidence string — at WARN when it has not. A support engineer reading a log can now tell proven from assumed without asking anyone. Termination needed a new guarantee. With the FFmpeg twins gone, two native rungs in opposite per-vendor orders could hand a session back and forth forever, so a rung once entered is never re-entered and the walk is monotone to software. The never-delivered fall-through still works: with the feature on it is unchanged, and with it off it is redundant, because the next candidate already IS the rung below. ⚠ ffmpeg-next remains a hard dependency of pf-client-core, deliberately. What is left off-feature is three type-level residues — the codec-id vocabulary, the AVVkFrame guard that is pf-presenter's public import, and a pixel-format in one signature — every one of them an M10 §6 line item. Deleting them here would mean deleting the presenter's FFmpeg lane, 55 call sites, in a milestone whose gates cannot run a GPU. No libavcodec decoder is opened in a default build. ⚠ video_d3d11.rs was gated item by item rather than wholesale, and nothing in this tree compiles it — it needs a Windows check before anyone trusts it. Gates: both feature states, container clippy -D warnings and 158/159 tests, workspace check. The four decode crates are untouched, so the hardware rungs' 250/250 stands. |
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d5e23146c0 |
feat(client): M8 — the software rung is openh264 and rav1d, and swscale is gone
The ladder's last rung no longer runs FFmpeg. H.264 decodes through openh264, AV1 through rav1d, and HEVC is refused outright: no permissively licensed software HEVC decoder exists, so an HEVC session that exhausts its hardware rungs now tears down and re-dials advertising HEVC-less caps, and the host picks H.264. The plan calls that a first-class path; it is one. swscale is deleted, and with it the BT.601 default that its correction code existed to undo. Colour on the H.264 lane now comes from the same pf-bitstream planner every hardware rung submits from — openh264 reports no VUI at all — and AV1's comes per-picture from the sequence header. One colour source, one CSC: the old default is unrepresentable rather than merely fixed. Frames reach the presenter as three tightly-packed planes through the planar CSC pass, which had to be un-gated from the pyrowave feature and its device probe, since the last rung must exist on devices that failed that probe. rav1d rather than the dav1d crate, deliberately and against the plan's literal wording: dav1d-sys is system-deps-only, so it would add a system library and a .pc file to every client package — in the milestone family whose excision checklist exists to delete exactly that. rav1d is the same decoder, same licence, statically linked. The cost is honest: no-asm builds on both decoders, and software throughput is still unmeasured. The colour test is the milestone's exit criterion, so it is built to fail. Three fixtures, and a mutation check: hardcoding the swscale default turns the red bar to [255,24,0], and swapping Cb/Cr turns red to blue — a silent error no metadata assertion could catch. Review then disproved the range half of it numerically: with eight saturated bars, decoding the full-range fixture with the wrong range gives max error ZERO, because a mismatch only pushes values outside [0,1] where the shader clamps. A mid-tone was added; the wrong range now costs 11, well past the tolerance. The exit criterion I set was satisfiable by a test that proved nothing. Two blocking defects, both emergent rather than local. Software AV1 on a 10-bit stream never reached its typed refusal: rav1d is built 8-bit-only and returns ENOPROTOOPT, which the send loop turned into a generic error, so the pump's typed downcast missed and every AU failed identically — a permanent freeze on precisely the shipping case, since AV1 is advertised only where hardware AV1 exists and hardware AV1 plus HDR is Main 10. The shape is now read from the sequence header before any byte reaches the decoder, exactly as the H.264 leg reads the active SPS. And the new Reconnecting phase was the first state that is not streaming, not connecting, and still holding a live stream — which opened all three guards that had made a second launch impossible. Pressing A assigned over `stream` where every other site shuts down first, and StreamState has no Drop, so the old pump was detached: a second live session still submitting to a Vulkan device that gets destroyed underneath it. Nothing about the reconnect was wrong in isolation; the defect lived between a new state and three guards nobody re-examined. Start is now defensive and the retry raises the connecting modal, so the UI matches the state and B can cancel. Also closed: retry_caps was computed, tested and never applied, so a shape refusal could end a session reporting no codec available while a working retry existed; the retry inherited force_software sticky-true, landing an HEVC→H.264 fallback on software H.264 with working hardware H.264; it re-dialled with a stale mode; the CPU present arm had no survivable-failure handling where the pyrowave arm — same pass — has it; HEVC is no longer advertised when the decoder is pinned to software; and the software rung now feeds the recovery-point SEI it already had in hand to the re-anchor gate. ⚠ Two host-side gaps found while tracing, neither in scope here: Hello::launch is NOT idempotent (gog:/custom: targets spawn a second copy on a retry; the field is kept verbatim because dropping it orphans the gamescope display whose reuse key includes the command), and a reconnected session can never adopt a game predating its own launch stamp, so it has no game-exit detection. ⚠ OWED: the on-glass software run. ~200 lines of new Vulkan on a path that only runs because the GPU already failed, and no driver has seen it. The review's minimum check is sync validation enabled, a non-multiple-of-16 mode, a mid-session resize and demotion, and both colour matrices. Gates: container clippy -D warnings over four crates, 236 tests, workspace check. pf-vkdecode and pf-bitstream are byte-for-byte untouched, so the hardware rungs' 250/250 stands. |
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a404830456 |
feat(client): wire AV1 into the native Vulkan rung, pin-only
The third codec arm in video_vk_native, AV1 admitted to native_codec and to native_vulkan_gate by pin only. It stays out of `auto` on the same rule M5's D3D11VA rung follows: `auto` admission is earned with hardware evidence, and this has decoded nothing on a device. is_integrity_warning_av1 did not exist, so the client could not have concealed AV1 damage at all. Added, exhaustive, no wildcard: all three AV1 warnings really are damage, because AV1 has no spec-legal-but-noisy signal to mis-classify — no reorder envelope to announce, no MMCO to rebase — and the exhaustive match is what stops a future variant defaulting to clean. The blocking defect review found was two safety mechanisms cancelling each other. After a failure the decoder skipped to the next key frame answering Ok(None), and because AV1's planner has no flush its store kept planning cleanly, so those AUs carried no warnings and the client read them as proof the rung works — clearing the demotion streak and resetting its clock on every one. The streak could then never reach the threshold, which made the never-delivered fall-through to FFmpeg-Vulkan unreachable, which is the documented backstop for exactly three things: a level above maxLevelIdc, a sequence header disagreeing with the Welcome, and film grain. Film grain is the probe's own admitted assumption, so a grain stream would have frozen the screen for the session while DecodeHealth reported run 0 — recovered. AV1 now answers the wait with an error, as H.264 and H.265 already do through AwaitingIdr, so all three codecs are indistinguishable to the demotion machinery. That matters more than the extra precision of a third state: only the H.26x paths have hardware evidence, and they are proven WITH that behaviour. The obvious form of that fix would have wedged the decoder. A key frame can sit behind a skipped frame inside the same temporal unit — the vendored vector has 24 two-frame units — so erroring out of the per-plan loop would never reach it and the wait would never end. Skips are therefore counted per frame and the error raised only when the whole unit was skipped, with the metadata-only unit staying a clean Ok(None). Also closed: a refused temporal unit left an already-decoded frame in the ready queue, which shipped on the next AU as a clean success — putting a picture from a refused AU on screen, clearing the streak again, and latching delivered so the fall-through was disabled for good. The error arm now drains and releases unshown. MAX_DELIVERABLE is derived rather than picked: HOLD_HEADROOM minus the pipeline's own hold, pinned to pf-vkdecode's constant so a hardcoded depth fails the build. At the previous 8 the queue plus the presenter's 4-7 stood against a headroom of 8, so it capped memory without preventing the exhaustion it named, and a frame waiting 8 AUs burned 16 of the 17 query slots — where a re-armed slot reads as Failed and becomes a fabricated driver-corruption verdict in the very counter the Ally X signal lives in. The trim now runs after this AU's frame is taken, or at the derived depth it would drop a two-output unit's first frame and invert display order inside one AU. Its justification was also wrong: the claim that a temporal unit may carry a show_existing_frame alongside a shown frame is disproved by this repo's own golden — 250 units, 250 shown, zero show_existing. The bound is kept as defence in depth against a non-conformant or multi-operating-point stream, and now says so. Gates: macOS fmt/clippy/392 tests, container clippy -D warnings over six crates, 851 tests, workspace check. No hardware: the rung is pin-only and has still never decoded a frame on a device. |
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a6e51215fd |
feat(client): M6's rung is wired — libva, dlopen'd, no libavcodec
The native VAAPI decoder now runs end to end: pf-vaadec's plans go into libva's buffers, the surface comes back as DRM-PRIME dmabufs, and the presenter imports them exactly as it does the FFmpeg rung's. Pin-only — `PUNKTFUNK_DECODER=native-vaapi` — for the reason M5's D3D11VA rung was: `auto` admission is earned with hardware parity and a soak, and this rung has decoded nothing yet. libva is dlopen'd rather than linked, so the pf-lxcheck2 container compiles and clippies the whole thing without libva-dev, and a machine without a VAAPI runtime gets a clean refusal instead of a packaging dependency. The surface pool is not the slot map. `SlotMap::assign` hands out the lowest free slot, and a slot freed by an access unit's own removals is free by the time that unit's picture takes it — measured at 225 of the vendored vector's 250 access units. A surface bound by slot index would therefore decode, on nine frames in ten, into the surface still holding the picture on screen. So `plan_to_va` now takes the decode target as a parameter, bound by the caller at activation time the way pf-vkdecode binds a pool image, and a surface is free only when no live picture is bound to it, no output is owed for it, and no consumer holds it. Measured rather than transcribed, as everywhere else here: layout-probe.c grew the export descriptor (312 bytes, objects[4]/layers[4]), the buffer-type enumerators — VASliceParameterBufferType is 4 and VASliceDataBufferType is 5, not the 3 and 4 that counting off the header suggests — and the config, attribute and generic-value layouts. All pinned as compile-time assertions, which is how the 12-byte VAGenericValue in the first draft was caught: the C union holds a pointer, so it is 8-aligned and 16 bytes. The plane walk lives in pf-vaadec, pure and unit-tested on macOS, because it is the one structure the DRIVER writes and we read: SEPARATE_LAYERS returns NV12 as two layers, and taking layers[0] is the green screen this project has already paid for. It also refuses what it cannot express rather than guessing — a bogus object count, a plane naming an object that is not there, objects disagreeing on tiling. Own DecodedImage variant, same payload type. The physical hand-off is identical to the FFmpeg rung's, so the presenter keeps ONE arm and one demotion streak; the variant exists so the compiler asks which rung decoded wherever that matters. Both D3D11VA rungs share a variant and `1573a987` had to fix the consequence afterwards — a "native" soak that could silently have been an FFmpeg soak. Here the four uncovered matches were compile errors. Buffers are destroyed by us, not by vaEndPicture: va.h is explicit that the user must call vaDestroyBuffer, and the libva 0.x behaviour is long gone. Leaking two per picture at 60 fps exhausts the driver's store in minutes. pf-vaadec's presenter headroom was 4, written against no consumer. The Vulkan rung had already measured the client pipeline at four to seven held frames; it is 8 now, pinned to that crate's constant so a re-measurement moves both. Gates: macOS fmt/clippy/341 tests/cargo doc, and in the container clippy -D warnings over six crates, 795 tests, workspace check. Hardware legs are still owed — no AMD/Mesa or Intel box was reachable. |
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3041d9bb43 |
test(client): M5's decoded pixels now answer to libavcodec's
The native D3D11VA rung had no pixel evidence at all. Its DXVA bytes were checked against libavcodec's own captured bytes, and its Intel bring-up proved the driver accepts the submission — but nothing had ever compared what came out. This is that comparison, against the same goldens and the same reference the Vulkan rung was held to: libavcodec's SOFTWARE decode, which is ground truth rather than a peer implementation, so the two rungs' verdicts are now directly comparable numbers. It reads back the DECODE surface, before the VideoProcessorBlt, so what is hashed is the half this rung is responsible for; the hand-off is the shared, field-proven half and is deliberately not in the measurement. Finding, recorded rather than papered over: this rung presents in DECODE order. It never consults AuPlan::dpb.outputs — submit blits setup_slot and returns. The native Vulkan rung keeps a display-order queue for exactly that reason, and libavcodec's D3D11VA rung reorders internally, so this rung differs from both. It cannot bite on punktfunk streams, which are zero-reorder and carry no B pictures, but that is a convention of our hosts rather than a structural guarantee, and a stream that did reorder would present out of order with nothing to say so. Both vendored vectors DO reorder — the H.265 one's first B picture at AU 3 is what localised the RPS slot defect — so a harness hashing in decode order would report a permutation against display-order goldens and read like a decoder fault. Instead each decoded surface is hashed against the PicId the planner gave it and the hashes are emitted in the planner's own output order. The reordering is the test's, done by the planner the rung already trusts, and `both_vendored_vectors_really_do_reorder` asserts the reason so the docs cannot go stale silently. The crop reads the chroma plane at RowPitch * texture height, not display height: the decode pool is aligned to the codec's granule and is taller than the picture. That is the 1088-row smear this project has already paid for. Two CPU guards run in ordinary CI. This file needs its own Annex-B splitter (pf-client-core does not depend on the vendored parser), and a splitter that disagreed with pf-bitstream's would fail on hardware as a frame-count mismatch that reads like a decoder defect; instead it fails on CPU, saying so. PF_DXVA_ADAPTER pins a GPU by description substring and every run prints the adapters it saw — .173 enumerates its AMD iGPU alongside the 4090, and which one answered is a fact worth printing rather than inferring. Hardware: H.264 and H.265 both 250/250 bit-identical on NVIDIA GeForce RTX 4090 and on the AMD Radeon iGPU, Windows. Gates: clippy -D warnings and the lib tests on Windows, the Linux container's clippy/tests/workspace check, and rustfmt. |
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31087697a9 |
feat(client): M5 — native D3D11VA decode, pin-only pending hardware
The Windows fallback rung, and auto's first choice on Intel, now has a native implementation driven by pf-bitstream's plans instead of libavcodec. New crate pf-dxvadec holds everything that can be a pure function — the DXVA structure layouts, both codec conversions, bitstream packing, config selection — deliberately CROSS-PLATFORM, because a cfg(windows) module is verified by a remote cargo check and nothing else, and this milestone's riskiest code is exactly the part no local test can see. Only the FFI lives in video_d3d11_native.rs. windows-rs does not generate dxva.h at the pinned rev, so the DXVA structures are hand-declared: compile-time assertions on every struct size AND every field offset, packed bitfield words as plain integers with named builders and the bit positions written beside the C declaration, and a const zeroed() per struct so construction needs no unsafe at all. The crate's only unsafe is a sealed byte view over those PODs. Review round 13 checked all seven layouts field by field in declaration order — sizes, widths, array lengths, the PicEntry index/flag packing, and every named bit's position and width. The decode pool reproduces libavcodec's rather than inventing one: ONE texture with ArraySize = pool size, BIND_DECODER and nothing else, MiscFlags 0, aligned 16 for H.264 and 128 for HEVC. That is deliberate. This rung's predecessor records that a hand-built pool which validated on NVIDIA was rejected by Intel at the first SubmitDecoderBuffers — and Intel is the vendor this rung exists for. The VideoProcessorBlt into shareable RGBA is untouched: importing a multiplanar NV12 D3D11 texture into Vulkan device-losts on NVIDIA, so that hand-off is load-bearing field-proven code. It was extracted into a shared HandoffRing so both rungs fill one implementation; the review diffed the blit statement by statement, including the keyed-mutex pairing. Review round 13's four defects are fixed. The blocking one: the HEVC quantisation matrix was submitted unconditionally, and the vendored parser leaves it ALL ZEROS unless the stream codes one — unlike FFmpeg, which seeds the spec defaults. On a stream saying 'use the default matrices' the driver is obliged to apply what it is handed, so every residual would dequantise to zero and the picture would drift to flat prediction. It is now gated on scaling_list_enabled_flag exactly as libav gates it, with the Table 7-5/7-6 defaults supplied when enabled but uncoded. Second: NumMBsInBuffer was 0 where libav's H.264 path sets mb_width * mb_height. This module's whole method is verbatim reproduction on precisely the call that once failed for Intel, so an omitted descriptor field is the same class of bug as the pool. Third, and the one to watch on hardware: RefFrameList carried the frame's reference set rather than the pictures marked used for reference. Vulkan defines pReferenceSlots as the slots this operation uses, so a subset is correct there; DXVA defines RefFrameList as a statement about the DPB. The list DERIVATION survives a subset — which is exactly why a smoke test would have passed — but a long-term reference held across frames that none of them name would vanish and reappear, and a driver keeping per-reference state is entitled to discard it in between. That is the Ally X symptom shape. pf-bitstream now exposes a per-AU DPB snapshot for both codecs and the converters build the array from it, frame references first, marked tail appended. 121 of the 250 vendored AUs carry a marked picture the frame never names, so this is exercised, not theoretical. Fourth: the session identity omitted bit depth and chroma, while the Windows host flips an HDR desktop to PQ in-band with a new SPS — a depth change at unchanged size would have decoded 10-bit samples into an NV12 pool. Identity now derives from the SPS per AU and rebuilds. Wired PIN-ONLY (PUNKTFUNK_DECODER=native-d3d11va), absent from every auto arm. Nothing has decoded a frame yet, and M2's discipline was that auto admission comes only after hardware parity. A runtime streak demotes to the FFmpeg D3D11VA rung first, then software. Also scaffolded: a byte-diff harness against libavcodec's own DXVA picture parameters, with the FFmpeg patch and capture recipe in its docs. Nothing here is checked against libav's actual bytes the way M3 was checked against its pixels, and that is the cheap way to buy the confidence before hardware. Gates: fmt clean; container clippy -D warnings zero across pf-client-core + pf-presenter + pf-vkdecode + pf-dxvadec + punktfunk-core; tests 73/131/63/129/354 green; cargo check --workspace clean; Windows cargo check and clippy -D warnings clean on .173. |
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e4d8573475 |
feat(client): the native rung now decodes HEVC as well as H.264
The last piece of M3 WP-2 — VkH265Decoder was built and hardware-gated but nothing drove it. video_vk_native.rs holds a two-arm codec enum and forwards to it; the ledger, release tokens, status-query settling and timeline waits are byte-for-byte what they were, since they were always codec-agnostic over one DecodedVkFrame contract. The forwarders are written out per arm rather than macro'd so the unchanged H.264 arm is visible to a reviewer. The picture's own format now reaches the presenter, which picks bit depth and MSB packing from it instead of assuming the H.264 envelope. That incidentally fixes a live bug on the SHIPPING FFmpeg-Vulkan path: it derived ten-bit-ness by comparing against the 10-bit 4:2:0 format alone, so a 10-bit two-plane 4:4:4 surface — which its own format table accepts, and which NVIDIA reports for HEVC RExt — got 8-bit range and transfer maths. Reachable today with Full chroma plus 10-bit: decoded correctly, displayed wrong. Review round 11 caught a regression this WP would otherwise have shipped. pf-vkdecode refuses a stream whose (chroma, depth) pair has no picture format on the device, but the session is built lazily from the first SPS, so the refusal arrived AFTER construction — past the point where a native init failure falls through to FFmpeg-Vulkan. It burned the error streak instead and demoted to VAAPI/D3D11VA, which on NVIDIA/Linux means software. Turning on Full chroma on any non-NVIDIA GPU was enough: a 4K HEVC session that ran on FFmpeg-Vulkan before this branch would have landed on software decode. Both halves are fixed. The negotiated chroma and bit depth — already at the call site, the PyroWave arm four lines up uses them — are threaded into the backend, which probes the same caps path ensure_state would run, so the whole class refuses at CONSTRUCTION where the fall-through already exists. For the legs no negotiation can carry (a level above maxLevelIdc, an SPS that disagrees with the Welcome) the decoder latches 'never delivered a frame' and routes that first streak to FFmpeg-Vulkan rather than down the hardware ladder. H.264 is deliberately not probed: its envelope is fixed, so a probe would only add a profile guess on the bit-exact path; it gets the latch as its backstop. Two more from the round. Planner warnings are typed again rather than Debug strings — pf-vkdecode simply lacked the h265 re-export its h264 twin already had — which restores the H.264 log rendering exactly and unblocks M4, whose job is counting concealment by kind. And concealment is now the integrity set only: NonZeroReorder is documented spec-legal and fully planned, but the client treated every warning as damage, so the opening IDR and every ABR renegotiation's IDR were released unshown and re-anchored — a visible hitch on a healthy stream. Also: a raw-format newtype so a neighbouring i32 field cannot be passed to the colour maths, the presenter's depth table now pinned against pf-vkdecode's actual output vocabulary rather than the FFmpeg lane's, a per-format warn latch, and four stale docs. Gates: fmt clean; container clippy -D warnings zero across pf-client-core + pf-presenter + pf-vkdecode; tests 69/125/108/40 green; cargo check --workspace clean. |
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370b0ab494 |
feat(client): native Vulkan decode joins the automatic ladder, above FFmpeg-Vulkan
Closes M2. The 2026-08-05 ladder decision: WP-D shut with bit-exact
parity vs libavcodec (250/250 AUs on RADV, AMD-proprietary and NVIDIA)
and a 92-minute clean soak, and the program's goal is dropping FFmpeg
from the client — so on H.264 sessions where caps pass, auto now tries
pf-vkdecode FIRST, exactly where the ladder would reach FFmpeg-Vulkan.
No bake period.
native_vulkan_gate widens from by-name-only to the auto family
(auto/""/hardware); the vendor-first rungs are untouched (Linux
Intel/unknown still VAAPI-first, Windows Intel/unknown still
D3D11VA-first — NVIDIA and ALL AMD go native first). A native INIT
failure or caps refusal logs and falls through to FFmpeg-Vulkan, so
admission can't cost a session its decoder at start; runtime error
streaks ride the existing demotion machinery unchanged (past
FFmpeg-Vulkan to VAAPI/D3D11VA/software — a native→FFmpeg-Vulkan
runtime rung is deliberately absent, FFmpeg is on its way out).
PUNKTFUNK_DECODER=native-vulkan stays as the explicit pin; vulkan
keeps naming the FFmpeg backend specifically. A native_tried guard
keeps a failed pin init from re-attempting construction in auto.
Review round 8 (adversarial): no blocking code defect — no demote
bounce-back (Decoder::new is session-start-only; demotion mutates in
place), no double attempt, no cfg imbalance. 5 findings fixed: two doc
overclaims ("nothing regresses" now scoped to init; the ladder
enumerations no longer claim desktop-AMD Linux is VAAPI-first —
prefer_vulkan_first is vendor-wide), stale opt-in claims in Cargo.toml,
stale user-facing ladder text (console-ui row, trust.rs decoder field,
session README incl. the env-knob list), and the gate test now pins the
H264 codec-op bit to the literal 0x1 so a typo'd constant can't make
native silently never engage.
Gates: fmt clean; container clippy -D warnings zero for pf-client-core +
pf-presenter + pf-vkdecode; container tests green (pf-client-core lib +
pf-vkdecode + pf-bitstream); pf-console-ui check clean; mac
pf-vkdecode/pf-bitstream/cros-codecs 167 tests green.
On-glass sanity CLOSED 2026-08-05 ~22:10 UTC on .173 (4090, coincide
mode), decoder=auto and NO env var: the ladder picked native on its
own ("pf-vkdecode auto rung" log line), 525/526 stats windows on
native-vulkan over ~8m46s / 31550 frames, fps 0/59.4/61 with 6
windows <55 incl. startup zeros, bad-signature grep over the whole
log EMPTY, zero TDR events, host service Running after teardown.
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d0659d2b61 |
feat(client): wire the native Vulkan decoder in behind PUNKTFUNK_DECODER=native-vulkan
M2 WP-C. video_vk_native.rs adapts the presenter's VulkanDecodeDevice to pf-vkdecode (queue lock shared only when the families actually collide — the one case the 2026-07-09 DEVICE_LOST race proved matters), and the presenter consumes DecodedImage::NativeVk on its own device: no handle import, no AVVkFrame co-authoring — wait the timeline, barrier to sampled, existing crop-aware CSC, barrier back, release after the fence. Frame lifetime is a token: presented, retired, displaced or dropped mid-demotion, the guard's drop sends it exactly once; the backend releases the decoder slot only after the status query resolves, so a recycled slot can never report a false Failed. Driver-reported decode failures and plan warnings ride the existing streak/reanchor machinery — the Ally X corruption class is now a visible error, not a silent frame. Opt-in only until WP-D's on-glass parity verdict; H.264 sessions only; failures demote to the existing ladder. Known WP-D items recorded in code: coincide-mode cross-queue reference overlap, renegotiation teardown window, VUI colour plumbing. Gates: fmt clean; container clippy -D warnings zero for pf-client-core + pf-presenter + pf-vkdecode; 121+53+27 tests green. |
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ed3d236ab8 |
feat(pad-audio): DualSense audio haptics + speaker, host->client end to end
The 0xD1 pad-audio plane streams a DualSense's voice-coil haptics (back channel pair, 5 ms Opus frames) and speaker (front pair, 10 ms) per pad from a Windows host to the SDL clients, which render them into a USB DualSense's own 4-channel audio device. Wire (punktfunk-core, ABI v15): PAD_AUDIO_MAGIC 0xD1 [pad][kind][seq][pts] [opus]; CLIENT_CAP_PAD_AUDIO 0x04 / HOST_CAP_PAD_AUDIO 0x20; per-pad render capability rides GamepadArrival flags bits 8/9, sent only toward a host that advertised its cap so old hosts see byte-identical arrivals; silence is a frozen seq (mic-mute discipline), loss is a seq gap concealed via AudioGapTracker. HidOutput::AudioCtl (0xCD kind 0x06) forwards the 0x02 report's audio-control bytes 5..=10 change-only, value-deduped, with a once-per-pad "title asserted haptics-select" diagnosis log. Windows host endpoint provider (audio/windows/pad_endpoint.rs): per-pad render endpoints are additional devnode instances of Valve's Steam Streaming Speakers driver (SetupDiRegisterDeviceInfo, NOT the class installer - it needs an interactive window station), stamped with DualSense identity: desc "Wireless Controller", device name "DualSense Wireless Controller", ContainerId = the virtual pad's PFDS GUID, 4ch/48k format triplet. IPropertyStore route first, ACL-repaired registry fallback (the MMDevices keys deny writes even to SYSTEM; the owner's implicit WRITE_DAC + an ACE for S-1-5-18 resolved by SID is the way in). Provisioned at host startup (PUNKTFUNK_PAD_AUDIO, PUNKTFUNK_PAD_AUDIO_SLOTS, default 1), idempotent via a persisted PunktfunkPadIndex marker; pad endpoints are structurally ineligible for the mic/loopback wiring plan and guarded against default- device theft; capture is WASAPI loopback on the stamped endpoint. Devtest: punktfunk-host pad-endpoint ensure|remove|status. Host service (native/pad_audio.rs): per-(session,pad) thread, loopback 4ch -> pair splitter -> per-kind stereo Opus (48k LowDelay CBR 64k) -> per-kind silence gate (opens at peak>=1e-3, 250 ms hangover, gated = no send + frozen seq) -> datagrams. Spawned from the native input pump when a DualSense/Edge arrival carries audio bits and both caps negotiated; idempotent re-arrivals; reaped on remove and teardown. Client tier A (pf-client-core/pad_audio.rs): settings pad_haptics (default on) and pad_speaker (default "pad"); tier A = wired USB DS5/Edge via SDL connection state with an audio-sibling fallback; correlation maps the SDL HID path to the pad's own render endpoint (Windows: ContainerId match + 4ch gate via registry; Linux: Sony sink signature); renderer decodes both kinds into a quad interleave and plays it on the pad's endpoint (WASAPI autoconvert / PipeWire target.object, 240-2400 frame ring floor, dont-reconnect so an unplug never re-routes haptics to the desktop speakers). SDL's DualSense driver sets "disable audio haptics" whenever it drives rumble emulation, so tier-A pads suppress wire rumble and send one cleared-enable-bits effects packet to keep the actuators live; AudioCtl bytes fold back into the effects packet at report-minus-one offsets. Verification: punktfunk-core 265 tests (macOS) + clippy -D warnings (mac + Linux docker); pf-inject 85 tests (Linux docker); punktfunk-host cargo check + clippy + 19 pad tests + 46 audio-module tests (Windows box); pf-client-core 30 tests + clippy (Linux docker CI image) + cargo check (Windows box); punktfunk-client-session clippy (Linux) + check (Windows); cargo fmt --all --check clean on the final tree. NOT yet verified: any on-glass run (host deploy + real title + physical pad), the stamp-route split at runtime, exclusive-mode Initialize isolation, Linux-host emission (the per-pad PipeWire sink is not in this change - Windows hosts only). Scope excluded deliberately: tier B (Apple CoreHaptics) and tier C (haptics->rumble derivation), pad_speaker="mix", Android leg, settings UI surfaces (keys are serde-defaulted), GameStream-plane arrivals (audio_caps always 0 there). Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
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2ce0bea830 |
feat(client): desktop phase-locked capture, a real display volume on Windows, and the console's missing rows
The cross-platform half of the gap sweep: * Phase-locked capture reaches the DESKTOP clients (it shipped on Apple/Android only, though the desktop presenter has the best latch signal of all — true on-glass stamps via VK_KHR_present_wait). The presenter's 1 Hz fold publishes a latch grid (anchor = last on-glass instant; period = min positive present spacing, capped by the display mode's refresh so an arrival-paced sub-panel-rate stream can't claim a slower grid); the session pump folds every AU's arrival stamp against it with the SHARED `phase::circular_latch` statistic and sends the ~1 Hz PhaseReport (1 ms uncertainty — reference-client parity). The cap is advertised only when present timing is real (`VulkanDecodeDevice::present_timing` gates `SessionParams::phase_lock`), and the host's applied grid offset from the 0xCF tail is logged so an on-glass run can watch the controller engage. * `Hello::display_hdr` stops being hardcoded `None`: Windows reads the panel's colour volume from DXGI (`IDXGIOutput6::GetDesc1`, the `--window-pos` output else the primary, advanced-color outputs only, gated on the HDR setting) so the host's virtual-display EDID matches the real glass. Linux keeps the EDID defaults — no portable Wayland/X11 query exists — and the comment now says exactly that. * The console settings screen (the ONLY editor in Gaming Mode) learns the rows it was missing: render scale, full chroma 4:4:4, invert scroll, capture system shortcuts, fullscreen-on-stream, auto-wake and the game-library toggle. * A spec-run session's device picks (GPU adapter, speaker, microphone) now come from the `--resolved-spec` instead of a raw Settings load — the last store read the spec path still owed (§5), and what would make those fields profileable. * `session_args()` documents why the GTK/CLI spawners pass no `--window-pos` (Wayland exposes no global coordinates to read and SDL can't apply them). Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
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a87fbebc0a |
feat(client/linux): the client says whether it is current, and can update itself
`punktfunk-client --check-update` fetches the same Ed25519-signed per-channel manifest the host trusts, works out how this client was installed, and reports what — if anything — can be done about a newer build. `--apply-update` does the part it owns. `--version` prints the CI-stamped build string, which is both what the comparison needs and what a packaging gate can run the binary for. The engine lives here rather than in the Decky plugin for two reasons: verifying a signature needs crypto that Decky's embedded Python does not have, and the plugin is not the only surface that wants the answer. Every UI becomes a caller, exactly as it already is for --pair, --library and --list-hosts. What is possible depends on the install, and the module refuses to pretend otherwise. A flatpak is a per-user install its launcher can update. A .deb/.rpm/ pacman client goes through the packaged root helper — a fixed, parameterless systemd oneshot polkit authorises for members of the punktfunk-update group, so the request carries nothing an attacker could influence and the payload comes from the distro's own signed repositories. A sysext, a nix profile or a source build gets the command and nothing else: the signed sysext feed carries the HOST image, so a client sysext has no feed to update from, and a button that can only fail is worse than one honest line. A failed check reports the failure. "Could not tell" rendering as "up to date" is the one answer that must never happen. The box's capabilities are probed once into a `Caps` struct so the routing rules are a pure function of (install kind, caps) — all seven of them are tested without a box, including that the kill switch beats every kind and that pacman needs its own root-owned full-sysupgrade opt-in on top of the group. Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com> |
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35c61fee64 |
chore(client): the windows-rs pin moves a month forward, onto the SDK-metadata bindings
The July 2026 windows-rs brings a reconciler keyed-child-order fix (#4728), widget validation (#4727), a DPI collision fix (#4751), icon elements (#4736), multi-window support (#4730) and scroll virtualization (#4710) — the re-render fixes the Windows client has been working around at the architecture level. All three pinned deps (windows-reactor, windows, windows-reactor-setup) move together so windows-core stays unified across the swap-chain hand-off, and pf-client-core moves with them. The bulk of the diff is #4689: windows/windows-sys now generate straight from the Windows SDK, so the `Win32_*` namespace features became one feature per SDK header (winuser, dxgi, d3d11, …), the PascalCase namespace modules became header-named modules, struct-returning COM methods take explicit out-params and return HRESULT, Win32 functions return their raw BOOL/HANDLE instead of Result, and flag constants are plain integers. Both crates' Win32 code is rewritten to that shape; behaviour is unchanged on every path. Riding along, all already stale before the bump: the README and the three Windows workflows stop claiming windows-reactor's build.rs needs CARGO_WORKSPACE_DIR (that build.rs no longer exists — staging moved to windows-reactor-setup via OUT_DIR); the README layout section stops describing modules that moved into the session binary long ago and gains the manual smoke checklist; the notices generator learns the SPDX for crates that ship license files without a `license` field, which turns windows-reactor-setup's UNKNOWN into MIT OR Apache-2.0; and the crate records its real rust-version (1.96) instead of inheriting the workspace's 1.82. Verified: cargo check/clippy/fmt clean on punktfunk-client-windows, pf-client-core and punktfunk-client-session; both bins build; --discover finds the LAN hosts; the GUI shell comes up (WinAppSDK bootstrap intact under the new reactor-setup). Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
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5219107177 |
chore(unsafe): the workspace adopts the drivers' unsafe discipline
`packaging/windows/drivers/*` has run `deny(unsafe_op_in_unsafe_fn)` +
`deny(clippy::undocumented_unsafe_blocks)` for a while, with `forbid(unsafe_code)`
on the modules that need no unsafe at all. The main workspace had no lint config
whatsoever, so nothing stopped a clean crate from quietly growing an `unsafe`, and
nothing distinguished the handful of genuinely-unsafe lines inside a 600-line
`unsafe fn` from the safe ones surrounding them.
Three things, all mechanical:
* `#![forbid(unsafe_code)]` on the eight crates that already contain zero unsafe
(`pf-driver-proto`, `pf-host-config`, `pf-paths`, the three clean clients, both
tools). These were clean by accident, not by contract; now they are clean by
contract.
* `unsafe_op_in_unsafe_fn = "warn"` workspace-wide. `unsafe fn` states a contract
the CALLER must uphold — it was never meant to switch off checking for the whole
body. Measured fallout is 300 sites on Linux, and they are concentrated: six
files carry all of them, while `punktfunk-core`, `pf-frame`, `pf-clipboard` and
`pf-vdisplay` are already at zero. `warn` (not `deny`) so the build stays green
while those six are worked down; it flips to `deny` once they are. This is also
the Rust 2024 default, so it pays off the edition migration early.
* `proc::current_uid()` replaces eight `unsafe { libc::getuid() }` blocks. Each
site had copied out the same SAFETY note verbatim, which is the tell: `getuid()`
is parameterless, always succeeds and touches no memory, so there is no contract
for a caller to uphold and no reason for the unsafe to be visible eight times.
One `unsafe` behind a safe wrapper, none at the call sites.
Verified: `pf-vdisplay` builds clean on Linux (Nobara) at zero E0133; the
macOS-buildable crates build clean locally. No behaviour change.
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a2be3f4de9 |
feat(client): settings profiles — the override catalog, the one resolver, and the session flag
A client setting is global today: pick 4K@120 HDR and the retro box gets it too.
The one escape hatch (per-host `clipboard_sync`) proves the shape works but covers a
single field. This is P0 of design/client-settings-profiles.md — the headless core the
shells, Apple, Android and the deep-link grammar all build against. No UI yet.
A profile is a NAMED BUNDLE OF OVERRIDES, not a snapshot: `SettingsOverlay` is sparse
`Option`s, so a field the user never touched keeps following the global value live, and
fixing a global once fixes it everywhere. `Some(x)` equal to today's global is still
meaningful — it pins x against a later global change — which is why the UI will write
`Some` on touch and `None` on an explicit reset, never by diffing.
The catalog is its own `client-profiles.json`, deliberately not part of the settings
file: that file has five whole-file load-modify-save writers with no merge, so a profile
written by one would be dropped by the next. Which host uses which profile is a field on
the host record instead of a map keyed by host — that is what dissolves the client's
long-standing "what identifies a host record" question for this feature.
Resolution has exactly one implementation, `trust::effective_settings()`:
effective = overlay(profile).apply(global)
profile = one-off pick ?? host binding ?? none
Both session construction sites go through it (`main.rs` AND `console.rs` — touching one
and not the other is a Windows-only build break), so the console, and therefore Decky,
honor host bindings with no work of their own. Nothing here can fail a connect: a
deleted binding resolves as "no profile", and a one-off that can't be honored falls back
to the DEFAULTS rather than to the host's own profile — "connect with Work" must never
quietly stream "Game". `--profile <id|name>` is the one-off door for the shells' coming
"Connect with ▸" and for `punktfunk://…&profile=`; `--profile ""` forces the defaults on
a bound host. The active profile's name closes the stats overlay's first line, so
"which profile am I on?" is answerable without leaving the stream.
Also here, because this effort touches every one of these anyway:
- `KnownHost` gains `profile_id`, `pinned_profiles` and a lazily minted stable `id`. The
id is groundwork (design §4.5) — no lookup is re-keyed, `fp_hex`/`addr:port` stay.
- `upsert` now preserves the state the USER set on a record — the profile binding, its
pins, the clipboard decision, the id — against refreshes that carry none of it.
`clipboard_sync` survived that only because the function happened not to mention it.
- `KnownHost::default()` exists so construction sites read `..Default::default()`; five
hand-written literals were exactly how a new field gets silently dropped on re-pair.
- All three client stores now write temp+rename. A torn settings file loads as `Default`
— i.e. silently resets every setting the user has.
Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
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cab6350723 |
feat(client): shared clipboard on Windows
The protocol half has been in punktfunk-core since the clipboard work landed -- the per-session fetch task, plus clip_control/clip_offer/ clip_fetch/clip_serve/next_clip on NativeClient -- but only the Apple client ever drove it, through the C ABI. The Windows and Linux clients link the core directly and simply never wired it, so copy-paste between host and client worked on a Mac and nowhere else. This adds the missing half: the OS-clipboard bridge, on its own session thread beside the audio one. Local -> remote stays lazy by construction, as the design asks: a GetClipboardSequenceNumber poll spots a local copy and we announce only the FORMAT LIST; bytes are read when (and only when) the host actually pastes and sends a FetchRequest. Remote -> local is EAGER in this first cut, which is a deliberate deviation worth naming. macOS gets laziness free from NSPasteboardItemDataProvider; the Windows equivalent is delayed rendering, which needs a clipboard-owning window running its own message pump. So we fetch on the offer and place real bytes under a 4 MB cap -- text always crosses, a large image is skipped rather than pulled for a paste that may never come. Delayed rendering lifts the cap later. Echo suppression is the design's Windows rule verbatim (capture the sequence number right after our own SetClipboardData); without it every copy ping-pongs between the machines forever. Content marked ExcludeClipboardContentFromMonitorProcessing -- what password managers set -- is never announced and never served. Text and PNG for now. Apps that publish only CF_DIB need the conversion the host already has. Linux keeps a stub: the bridge itself is platform-neutral and will drive a data-control seam unchanged. Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
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1ef0229bd9 |
feat(client/windows): PyroWave decode + surface it in the GUI codec picker
The decoder was gated to Linux because, when it landed, the Windows client still had its own in-process WinUI/D3D11 presenter and the PyroWave present path there was an open question. That client has since been retired: Windows now spawns the SAME Vulkan session presenter as Linux, and the decoder is plain Vulkan compute on the presenter's device (no fds, no dmabuf, no D3D11 interop), so the question that gated it answered itself. pyrowave-sys already builds on Windows too -- the Windows HOST encoder ships on it. So this is a port by un-gating: every cfg(all(target_os = "linux", feature = "pyrowave")) becomes any(linux, windows) -- decoder module, backend variant, Decoder::new_pyrowave, the CODEC_PYROWAVE advertisement, the session pump's opt-in/build/label arms, and the presenter's planar CSC pass. No new code. Then offer it in the Windows GUI, which is what prompted this. It stays preference-only (resolve_codec never auto-picks it) and a host or device that can't do PyroWave just falls back down the ladder to HEVC. Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
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4d2632a845 |
fix(client/deps): ring-only rustls in pf-client-core — finish dropping aws-lc-sys
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Companion to the host ring fix: pf-client-core declared rustls with features=["ring"] but WITHOUT default-features=false, so rustls's default aws-lc-rs backend came along too (feature tree: aws-lc-rs <- rustls default <- pf-client-core default) — pulling aws-lc-sys 0.41.0 into the Windows client + session + presenter builds, the same C dep that fails on the CI runner. Pin default-features=false + [ring, logging, std, tls12] (matching the tray/host/core pattern). aws-lc-sys now gone from EVERY windows-built crate (host, client-windows, client-session, tray — all 'cargo tree -i aws-lc-sys' => no match). Code already used rustls::crypto::ring::default_provider (library.rs); no behaviour change. Validated: cargo tree (all 4 windows crates aws-lc-free) + .21 clippy -D warnings (pf-client-core, pf-presenter, punktfunk-client-session) clean. |
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f24379c2f8 |
feat(host,clients): PyroWave ships in default builds; NVIDIA hosts advertise it
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Flip the `pyrowave` cargo feature into the default set across punktfunk-host, pf-client-core, pf-presenter and the session client — every packaged build (flatpak, arch/rpm/copr, windows x64 client) now carries the codec. Selection stays strictly per-session opt-in: a client must pick "PyroWave (wired LAN)" in Settings (or PUNKTFUNK_PREFER_PYROWAVE=1); nothing changes for normal HEVC/AV1 sessions. The Windows ARM64 client leg builds --no-default-features and keeps skipping it (decode is Linux-native + Apple Metal today). Advertisement no longer waits for the PUNKTFUNK_ENCODER=pyrowave lab override on NVIDIA: host_wire_caps sets the bit whenever the feature is present and the host isn't the GPU-less software pref, and SessionPlan::output_format flips a PyroWave session on the NVIDIA-auto capture path to CPU RGB frames (the EGL→CUDA import only NVENC consumes; the wavelet backend ingests raw dmabufs or CPU RGB). AMD/Intel keep their raw-dmabuf zero-copy unchanged; per-session raw-dmabuf passthrough on NVIDIA (true zero-copy without the env's global capture policy) stays a follow-up. On-glass on .21 (RTX 5070 Ti, default-features binaries, NO env overrides): host advertises + negotiates PyroWave, the CPU-capture fallback engages, 60 fps at e2e 3.2-5.7 ms p50, and a mid-stream 1080p→720p resize rides on top cleanly. Workspace clippy --locked clean; 33 client + 314 host tests. Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
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575975687c |
feat(client): PyroWave decode backend on the presenter's device (Phase 2b, part 1)
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The presenter's device creation now probes + enables the PyroWave compute feature set alongside the Vulkan Video probe (shaderInt16, storageBuffer8BitAccess, subgroup size control — gated on support, harmless when unused) and exports the facts through VulkanDecodeDevice (pyrowave_decode capability + feature bools + apiVersion + the queue- family shape). pf-client-core (feature `pyrowave`, Linux): video_pyrowave.rs — the decoder runs pyrowave compute on the PRESENTER's own VkDevice, zero interop (plan §4.5): pinned content-equivalent create-info reconstruction satisfies pyrowave 0.4.0's lifetime rule without refactoring the presenter's creation; queue access rides the existing device-wide QueueLock (the FFmpeg/Skia contract); decode records into our command buffer, fence-synchronous (sub-ms), into a 4-deep ring of 3xR8 plane sets (decode REQUIRES storage usage + identity swizzles, so the encoder's RG8 trick doesn't apply). Backend::PyroWave + DecodedImage::PyroWave + Decoder::new_pyrowave + decodable_codecs_for (advertisement gated on the device probe) wired through the decode dispatch; no demote ladder (nothing else decodes it — fallback is session renegotiation, plan §4.6). Still to come for a live session: the presenter's planar-CSC render path for the new variant, pump/shell opt-in (preferred_codec) wiring, and the on-glass .21 run. Validated on .21: pf-client-core + pf-presenter compile with and without the feature, clippy clean, 26 client-core tests green. Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
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a69a83b545 |
feat(clients/windows): D3D11VA hardware decode in the session client — Vulkan chain becomes vulkan → d3d11va → software
The vendor-agnostic DXVA path for GPUs without Vulkan Video (Intel's Windows driver foremost, which previously landed on CPU decode). Ported from the retired WinUI presenter's decoder with its Intel-safe discipline intact (decode pool stays libavcodec-derived — a hand-built pool broke Intel at the first SubmitDecoderBuffers), on a decode device LUID-matched to the presenter's adapter. Hand-off is a ring of shareable BGRA8 textures (SHARED_NTHANDLE | SHARED_KEYEDMUTEX) filled by the fixed-function ID3D11VideoProcessor (NV12/P010 → BGRA8, colour spaces from the per-frame CICP; PQ is tone-mapped to SDR by the processor — HDR-first boxes take Vulkan Video). BGRA is deliberate: importing a multiplanar NV12 D3D11 texture device-losts on NVIDIA however it is consumed (plane-view sampling and DMA copy both validation-clean, both TDR — bisected), while single-plane RGBA D3D11↔Vulkan interop is the path Chromium/ANGLE exercise on every driver. The presenter imports a slot's NT handle per frame (VK_KHR_external_memory_win32, gated on the spec-required external-format probe) and blits it into the video image — no CSC pass; the DXGI keyed mutex (key 0 both sides, drop-tolerant) is the cross-API lock and visibility barrier. Verified live vs a real host at 5120x1440@240 HEVC on an RTX 4090: 240 fps, e2e 2.7/3.0 ms p50/p95 under the Khronos validation layer — parity with Vulkan Video (2.6 ms); auto still resolves vulkan on NVIDIA. PUNKTFUNK_DECODER=d3d11va forces it; import/present failures demote to software on the existing streak contract. Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
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d6647b9183 |
feat(clients/windows): port the Vulkan session client to Windows — session-always
The punktfunk-session Vulkan client (clients/linux-session, now clients/session) builds and runs on Windows; the WinUI shell spawns it for every stream. Verified live: 10-bit HEVC via Vulkan Video on both AMD (iGPU) and NVIDIA, 5120x1440 at 130 fps / 8 ms end-to-end on the RTX 4090. - pf-ffvk: Windows bindgen branch (FFMPEG_DIR + PF_FFVK_VULKAN_INCLUDE, no pkg-config); provisioning fetches Vulkan-Headers (pinned v1.4.309). - pf-client-core: builds on Windows — WASAPI audio (audio_wasapi.rs, cfg-swapped via #[path], same surface as the PipeWire twin), VAAPI/dmabuf gated inline (chain = vulkan -> software), trust reads the WinUI shell's %APPDATA% stores (parity tests pin both serialized shapes), Settings gains adapter/hdr_enabled (serde-defaulted; Linux stores unaffected). - pf-presenter: builds on Windows — dmabuf module Linux-gated; SDL keyboard grab while captured (Alt+Tab/Win reach the host); pick_device ranks discrete over integrated (device 0 was the iGPU on hybrid boxes — the silent footgun) and honors PUNKTFUNK_VK_ADAPTER (the Settings GPU pick, exported by the session). - run loop: block in one SDL wait woken by input AND decoded frames (a per- session forwarder pushes a FrameWake user event) instead of a 1 ms poll — measured 111%% -> 5%% of a core (NVIDIA), 86%% -> 3.5%% (AMD), stats unchanged. The pump's decode-fence wait became once-per-window sampling (no per-frame pipeline stall; the stat now shows true backlog). - pf-console-ui: builds on Windows (skia-safe msvc prebuilts); font lookup falls through fontconfig aliases to concrete DirectWrite families (Consolas/Segoe UI) — browse/coverflow works, verified against a live host. - WinUI shell: session-always via new src/spawn.rs (GTK spawn.rs port — CREATE_NO_WINDOW, stdout contract, kill handle); the Stream screen is a status card (chips + stage lines from the child's stats). The legacy in-process D3D11VA path stays behind Settings "Streaming engine" / PUNKTFUNK_BUILTIN_ STREAM=1 as the A/B baseline until Phase 8 deletes it. SessionParams.video_caps makes the HDR toggle real. - clients/linux-session renamed to clients/session (builds for both OSes). - CI/MSIX: both workflows build/test both bins with widened path filters; the MSIX ships punktfunk-session.exe. ARM64 session builds --no-default-features (rust-skia has no aarch64-pc-windows-msvc prebuilts; flip when it does). A/B on this box (5120x1440 HEVC vs home-worker-5): NVIDIA Vulkan 130 fps / 8 ms e2e / 1.6 ms decode — clearly better than the built-in path. The AMD iGPU VCN saturates at ~52 fps where its own D3D11VA does ~70 — Adrenalin Vulkan decode is slower on APU silicon; discrete RDNA validation gates Phase 8. Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
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c78ddc40cb |
feat(video): Vulkan Video decode on the presenter's device (NVIDIA hw decode)
FFmpeg's Vulkan Video decoder now runs on the PRESENTER's own VkDevice — the decoded VkImage feeds the existing CICP CSC pass directly: zero copy, no interop, and NVIDIA gets hardware decode for the first time (its VAAPI is unusable by design). One decode architecture for every vendor going forward; VAAPI-dmabuf and software remain the fallbacks (auto: vulkan → vaapi → software; PUNKTFUNK_DECODER=vulkan pins it). Presenter: instance 1.3; probes VK_KHR_video_queue/decode_queue + codec extensions, a VIDEO_DECODE queue family (+ its codec caps via QueueFamilyVideoPropertiesKHR), and the samplerYcbcrConversion/ timelineSemaphore/synchronization2 features — all enabled at device creation when present, exported as a VulkanDecodeDevice handle bundle. Decoder: AVVulkanDeviceContext built over those handles via pf-ffvk (features chain, extension lists, deprecated queue indices + the qf[] map); get_format supplies OUR frames context with MUTABLE_FORMAT so the presenter's per-plane views are legal; output is DecodedImage::VkFrame carrying AVVkFrame/frames-ctx pointers plus the lock fns. Present: R8+R8G8 plane views over the multiplanar image, the live sync state read under the AVVulkanFramesContext lock, a timeline-semaphore wait(sem_value)/signal(sem_value+1) folded into the submit, layout/ queue-family/sem_value written back per FFmpeg's contract, and the frame guard parked in the retire queue until the fence. CSC pass + video framebuffer are now unconditional (NVIDIA has no dmabuf-import path). Verified on the RTX 5070 Ti: device creates with decode_qf=3, caps=DECODE_H264|H265|AV1|VP9; swapchain unaffected. Live stream validation next. Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
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0ab97b597c |
refactor(client): extract UI-agnostic plumbing into pf-client-core (phase 0)
Session pump, FFmpeg decode, PipeWire audio, SDL3 gamepads, keymap, trust store, mDNS discovery, library client and Wake-on-LAN move verbatim from clients/linux into crates/pf-client-core, shared with the upcoming Vulkan session binary (punktfunk-planning: linux-client-rearchitecture.md). The GTK client re-exports them at the crate root so every existing crate::-path keeps resolving; its manifest drops the moved-only deps. Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |