Confirmed the brightness command applies globally, not per-LED
(serverinfo showed exactly one adjustment object, "id": "default",
covering the whole string), so no LED-count configuration is needed
for this at all -- that question resolved itself once the mechanism
was actually inspected instead of assumed.
For "only react while Spotify is running": only one app can be in the
foreground on webOS at a time, so a "capture the current app" button
in this app's own UI can never work -- pressing it means this app is
foreground, not Spotify. The only workable UI is picking a target from
every *installed* app by name, regardless of what's currently running.
That needed a new native capability this service never had: calling
OUT to another Luna service, not just being called. Two additions:
foreground_app.c subscribes once, at startup, to
com.webos.applicationManager/getForegroundAppInfo
and keeps a thread-safe cache the audio thread can
read without a blocking Luna call
service.c new listApps method, bridging to
com.webos.applicationManager/listApps so the
frontend never has to call another service
directly -- same rule as everywhere else here
Until the subscription has delivered at least one reply, a restricted
sink treats the target app as inactive, not active -- reacting to
audio when the user explicitly restricted it to one app would be the
wrong failure mode. Verified end to end on the host: engine_smoke.c
opens the sink with a restriction set, confirms it reports itself
correctly inactive against the stub Luna bus (which always "fails" to
call out, exactly like a real host with no bus).
Needed real, linkable stub bodies for LSCall/LSCallOneReply/
LSCallCancel/LSMessageGetPayload/LSErrorInit/LSErrorFree
(test/stubs/luna-service2/lunaservice_stub.c) since foreground_app.c
is the first source file here that's actually linked into a host test
binary rather than only syntax-checked -- service.c/main.c's existing
stub declarations were never called, only compiled against. Confirmed
those really are the correct symbol names by cross-compiling clean
against the real webOS SDK's actual libluna-service2, not just the
stub.
Bumped to 1.0.5.
Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>
Tested against a real HyperHDR instance rather than trusting the
schema further. scaleOutput (from the current schema-adjustment.json)
produced no visible change and no trace in serverinfo's echoed-back
adjustment state. brightness (0-100, absent from that same schema)
round-tripped correctly through serverinfo and visibly dimmed real
LEDs -- confirmed live, with piccap as the sole colour source and
only this sink's JSON-RPC calls changing anything.
A schema documents what a command accepts; it does not guarantee
what a given build actually does with each field, and this is a
mismatch between HyperHDR's current dev-branch schema and whatever
build the target instance is actually running. Switched the sink to
brightness (int 0-100) throughout: wire format, config defaults
(minBrightness/maxBrightness, 20-100), status fields, and the reset
sent on close. Renamed the frontend fields and mock to match.
Cross-compiles clean. Bumped to 1.0.4.
Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>
Every existing HyperHDR route replaces whatever else is on the LEDs:
routes 1/2 hand HyperHDR's own audio effect a device to read, route 3
sends a synthetic spectrum image, and both take over via HyperHDR's
priority system. For a setup that already has a real colour source
(a screen grabber, a USB capture card) feeding an ambilight-style LED
run, none of that is what's wanted -- the colour should stay put and
only brightness should react.
Read HyperHDR's own source (sources/api/JSONRPC_schema/schema-adjustment.json)
rather than guess: "adjustment" is a post-processing command with a
scaleOutput parameter (0-2.0) that applies regardless of which
priority is currently active. Confirmed the wire format too --
sources/jsonserver/JsonClientConnection.cpp frames it as plain
newline-delimited JSON over TCP (default port 19444), nothing like the
length-prefixed Flatbuffers protocol the visualiser sink speaks, and
with no handshake or registration needed before the first write.
sink_hyperhdr_adjust.c sends only that: no image, no priority, so it
never competes with an existing grabber. Non-blocking connect with the
same poll()+SO_ERROR pattern net/hyperion.c already uses, reconnects
every 5s, rate-limited to 20 Hz (a HyperHDR command every audio block
would be pointless flooding), and resets scaleOutput to 1.0 on close
rather than leaving the LEDs stuck at whatever it last sent. Cross-
compiles clean under -Wall -Wextra on the real webOS toolchain.
Wired through the same path every other sink follows: registered in
sink.c/sink.h, defaults in config.c, fields in frontend/js/app.js
(SINK_FIELDS/SINK_HELP), mock.js and ui_smoke.js updated for the new
sink card. Bumped to 1.0.3.
Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>
The device-source parser assumed pactl list short sources is strictly
tab-separated, true for stock PulseAudio but not guaranteed for a
TV's own heavily customized audio stack (this one names sources
tpcm_output/tpmedia/tptts/... — clearly not vanilla). A different
separator would have silently produced zero parsed sources with no
error, and the picker's own `when` guard would then just hide the row
entirely rather than show anything broken. Split on any whitespace
run instead of a literal tab; source names never contain embedded
whitespace, so this is strictly more permissive with no new failure
mode. Confirmed end to end on real hardware: tptts.monitor lit up
during the accessibility voice guide and reached HyperHDR.
Also: the System panel now shows the app's actual running version,
read from a <meta> tag substituted at package time (tools/build.sh
stage()) from frontend/appinfo.json — not hand-maintained, so it can't
drift from what was actually built. Requested after a version bump
alone wasn't enough to tell whether a reinstall had truly picked up
new files versus served something cached along the way; this settles
that question by inspection instead of by inference. Bumped to 1.0.2.
Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>
Diagnosing capture on a real TV meant reading pactlSources off the
screen and typing an exact PulseAudio source name back in through the
same remote-driven text field — no way to copy-paste, easy to
mistype, and the one piece of information (which source, if any, is
actually RUNNING) was buried in a JSON dump.
Added two choice() pickers bound to the same capture.device setting:
one built from pactlSources (pulse/auto backends), one built from
alsaCapturePcms (alsa backend), both parsed from diagnostics the
service already collects — no new Luna method needed. Diagnostics
already run once at boot, so the picker is populated immediately,
before the user ever presses "Run diagnostics" by hand.
Picking a value writes straight into capture.device, and the plain
text field stays as the fallback for anything the parser misses.
Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>
Captures the TV's audio and sends it out over several transports. The
primary one is HyperHDR: RTP/L16 to a host-side loopback device, since
HyperHDR has no network audio input of its own. A second route renders
the spectrum on the TV and sends FlatBuffers images to port 19400
instead, for setups where touching the host's sound config is not an
option.
native/ the service: capture backends (PulseAudio, ALSA, exec,
test tone, all dlopen-based), DSP, and one file per sink
frontend/ D-pad driven UI at a fixed 1920x1080
servicefiles/ native service manifest plus the boot script
host/ RTP receiver and the loopback installer for the HyperHDR
machine
tools/ build/package, asset generation, Homebrew Channel
manifest, on-TV probe
test/ host-side suites: FlatBuffers and RTP verified against
real decoders, the engine end to end, the page in jsdom
Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>
