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Rounds out codec negotiation across the last three clients — each advertises what it can decode, builds its decoder from the resolved Welcome.codec, and exposes a "Video codec" preference picker. **Windows** (Rust, mirrors Linux): `decodable_codecs()` + `ffmpeg_codec_id()`; the D3D11VA and software FFmpeg decoders (and the mid-session D3D11VA→software demotion) open the negotiated codec instead of hardcoding HEVC; settings gain a `codec` field + reactor ComboBox; `--codec` CLI flag. **Apple** (Swift/C-ABI): AnnexB is now codec-aware — a `VideoCodec` enum drives H.264 vs HEVC NAL parsing / parameter-set extraction (`CMVideoFormatDescriptionCreateFromH264ParameterSets` for H.264, no VPS) and AVCC repacking; `PunktfunkConnection` advertises H264|HEVC via `punktfunk_connect_ex7`, reads `resolvedCodec` (`punktfunk_connection_codec`), and threads `videoCodec` into the stage-1/2 pipelines + `VideoDecoder`; SettingsView "Video codec" Picker (auto/HEVC/H.264). AV1 is left out (hosts don't emit it on the native path, and it's not an AnnexB codec). Test call sites updated. **Android** (Kotlin + Rust JNI): the JNI `nativeConnect` gains `preferredCodec`; the native decode loop picks the AMediaCodec MIME (`video/hevc`|`video/avc`) from `connector.codec` and advertises H264|HEVC; Settings `codec` field + Compose dropdown. Core/host/probe/Linux clippy + tests green (unchanged from 2a). Windows/Apple/Android compile on their platform CI (this Linux box can't build them — Windows toolchain / Xcode / the Android NDK's opus-cmake toolchain). All follow the Linux client's validated pattern. Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
80 lines
2.8 KiB
Swift
80 lines
2.8 KiB
Swift
// Unit tests for the Annex-B ⇄ AVCC plumbing (pure byte-level; no codec involved —
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// VideoToolboxRoundTripTests covers the real-bitstream path).
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import XCTest
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@testable import PunktfunkKit
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final class AnnexBTests: XCTestCase {
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/// NAL with the given HEVC type in bits 1..6 of the first header byte.
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private func nal(type: UInt8, payload: [UInt8]) -> Data {
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Data([type << 1, 0x01] + payload)
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}
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private let start4: [UInt8] = [0, 0, 0, 1]
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private let start3: [UInt8] = [0, 0, 1]
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func testSplitMixedStartCodes() {
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let a = nal(type: 32, payload: [0xAA])
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let b = nal(type: 33, payload: [0xBB, 0xBC])
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let c = nal(type: 19, payload: [0xCC, 0xCD, 0xCE])
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var au = Data(start4)
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au.append(a)
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au.append(contentsOf: start3)
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au.append(b)
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au.append(contentsOf: start4)
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au.append(c)
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let nals = AnnexB.nalUnits(in: au)
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XCTAssertEqual(nals, [a, b, c])
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XCTAssertEqual(nals.map(AnnexB.hevcNalType), [32, 33, 19])
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}
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func testSplitSingleNalNoTrailingCode() {
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let v = nal(type: 34, payload: [1, 2, 3])
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let au = Data(start3) + v
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XCTAssertEqual(AnnexB.nalUnits(in: au), [v])
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}
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func testSplitEmptyAndGarbage() {
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XCTAssertEqual(AnnexB.nalUnits(in: Data()), [])
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// No start code at all → no NALs.
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XCTAssertEqual(AnnexB.nalUnits(in: Data([9, 8, 7, 6])), [])
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}
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func testSplitDropsTrailingZeroPadding() {
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// trailing_zero_8bits between NALs (and >2 zeros forming a long separator) must
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// not leak into the preceding NAL.
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let a = nal(type: 33, payload: [0xAA])
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let b = nal(type: 19, payload: [0xBB])
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var au = Data(start4)
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au.append(a)
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au.append(contentsOf: [0, 0, 0, 0, 0, 1]) // padding + start code
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au.append(b)
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XCTAssertEqual(AnnexB.nalUnits(in: au), [a, b])
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}
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func testAvccDropsParameterSetsAndPrefixesLengths() {
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let vps = nal(type: 32, payload: [0xAA])
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let sps = nal(type: 33, payload: [0xBB])
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let pps = nal(type: 34, payload: [0xCC])
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let idr = nal(type: 19, payload: [0xDD, 0xDE, 0xDF, 0xE0])
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var au = Data()
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for n in [vps, sps, pps, idr] {
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au.append(contentsOf: start4)
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au.append(n)
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}
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let avcc = AnnexB.avcc(from: au, codec: .hevc)
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// Only the IDR survives: 4-byte BE length, then the NAL bytes.
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var expected = Data([0, 0, 0, UInt8(idr.count)])
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expected.append(idr)
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XCTAssertEqual(avcc, expected)
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}
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func testFormatDescriptionNilWithoutParameterSets() {
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let idr = nal(type: 19, payload: [0xDD])
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let au = Data(start4) + idr
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XCTAssertNil(AnnexB.formatDescription(fromIDR: au, codec: .hevc))
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}
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}
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