Compare commits
9
Commits
| Author | SHA1 | Date | |
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a1d79c212a | ||
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bc66906dc3 | ||
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3fb25235c0 | ||
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c0d99f7f86 | ||
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1535b61a96 | ||
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2efd1f9a0d | ||
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3f140fc2b1 | ||
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b3208ef8c7 | ||
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5a8aedf53d |
@@ -81,7 +81,11 @@ jobs:
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- name: Verify the released artifacts
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run: |
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APK=$(ls app/build/outputs/apk/release/*.apk | head -1)
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# A glob, not `ls | head`: the glob is already here, and parsing ls is what
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# SC2012 is about. Gradle's names have no spaces today, which is exactly the
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# kind of assumption that holds until it does not.
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apks=(app/build/outputs/apk/release/*.apk)
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APK="${apks[0]}"
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# A release that shipped one ABI, or lost 16 KB alignment, would install
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# fine on a test device and fail for users or at Play submission. Both are
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# cheap to check and expensive to discover later.
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@@ -182,6 +182,23 @@ jobs:
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docker run --rm "$SHELLCHECK" --version
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git ls-files -z '*.sh' | xargs -0 -r docker run --rm -v "$PWD:/mnt" "$SHELLCHECK"
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# actionlint closes the half shellcheck cannot see. The step above reads .sh files;
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# a good deal of this repo's bash lives in inline `run:` blocks instead -- the release
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# verification here, the emulator setup and teardown in this file and in
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# api37-debug.yml. actionlint parses each workflow and runs shellcheck over every
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# `run:`, on top of its own checks for expression syntax, `needs:` references, matrix
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# keys and action input names.
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#
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# Pinned by digest for the same reason shellcheck is, and with a second reason of its
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# own: actionlint's documented install is `bash <(curl -s .../download-actionlint.bash)`
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# off a moving branch, which would sit badly in a repo that pins every action by SHA.
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- name: actionlint
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env:
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ACTIONLINT: rhysd/actionlint@sha256:9d36088643581e728c969f35141f88139fec77280b2be23c1f66f8e40e1025e7
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run: |
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docker run --rm "$ACTIONLINT" -version
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docker run --rm -v "$PWD:/repo" -w /repo "$ACTIONLINT" -color
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# `!cancelled()` rather than a plain sequence: a shellcheck failure above must not
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# cost the ktlint/detekt/lint lists. Same reason this step passes --continue -- one
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# round trip should produce every list, not stop at the first.
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@@ -185,11 +185,12 @@ install for code that can never run — and on API 37 the full APK does not fit
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`podman run --rm -v "$PWD:/mnt:z" docker.io/koalaman/shellcheck@sha256:61862eba... <files>`
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(the digest is in `status_check.yml`; there is no shellcheck system package on this host).
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**It does not cover inline `run:` blocks in the workflows**, and a good deal of this repo's bash
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lives there. `actionlint` does cover them — it runs shellcheck over each `run:` — and reports one
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pre-existing `info` finding in `build.yml`. It is not wired in because every action here is
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pinned by SHA, and actionlint's usual installer is a `curl | bash` off a moving branch; doing it
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properly means pinning a container digest. Tracked separately rather than bolted on.
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**`actionlint` covers the half shellcheck cannot see** — the inline `run:` blocks, where a good
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deal of this repo's bash lives. It runs shellcheck over each `run:` plus its own checks on
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expression syntax, `needs:` references, matrix keys and action inputs. It sits in the same job,
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**pinned by digest** for the reason above and one of its own: its documented installer is a
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`curl | bash` off a moving branch, which does not belong in a repo that pins every action by SHA.
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Locally: `podman run --rm -v "$PWD:/repo:z" -w /repo docker.io/rhysd/actionlint@sha256:9d360886... -color`.
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## Dependency versions
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@@ -140,4 +140,34 @@ class CodecVocabularyTest {
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assertFalse("this device has no AVC decoder, and x264 is AVC", hevcOnly.canDecode("x264"))
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assertTrue("a name nobody knows keeps the permissive answer", hevcOnly.canDecode("cinepak"))
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}
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/**
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* The other half of the null policy, at the seam it exists for — #86.
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*
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* `mimeFor`'s `COPY, NONE -> null` arm carries its consequence in a comment: "Returning null
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* makes canEncode answer true, which is the right answer: a copied or absent track places no
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* demand on the hardware." That is a product decision, and until this test nothing held it. A
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* MIME appearing in that arm would make a device with no matching encoder refuse a stream copy
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* — a job that never encodes anything — and the router would send it to FFmpeg to re-mux what
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* Media3 could have re-muxed.
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*
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* The `H264` line is what makes the other two mean something: without it, a `canEncode` that
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* simply returned `true` would satisfy this test. `NONE` is asserted separately from `COPY`
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* because they are one arm today and two answers, and splitting the arm must not silently
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* halve the coverage.
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*/
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@Test
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fun `a device with no video encoder at all still permits a copied or absent track`() {
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val noEncoders = AndroidDeviceCodecs.forTesting(encoders = emptySet(), decoders = setOf("video/avc"))
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assertTrue(
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"a copied track is re-muxed, not encoded, so no encoder is required",
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noEncoders.canEncode(VideoCodec.COPY),
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)
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assertTrue("an absent track places no demand on the hardware", noEncoders.canEncode(VideoCodec.NONE))
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assertFalse(
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"this device has no AVC encoder, so an H.264 target has to be refused — without this, " +
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"a canEncode that always answered true would satisfy the two assertions above",
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noEncoders.canEncode(VideoCodec.H264),
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)
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}
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}
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@@ -0,0 +1,162 @@
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package org.libremediaconverter.codec
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import androidx.media3.common.util.UnstableApi
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import org.junit.Assert.assertEquals
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import org.junit.Assert.assertNotNull
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import org.junit.Assert.assertNull
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import org.junit.Test
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import org.libremediaconverter.convert.Media3Engine
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import org.libremediaconverter.model.VideoCodec
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/**
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* Bites on #86: a fifth `VideoCodec -> MIME` table, and nothing checking it agrees with the fourth.
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*
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* [AndroidDeviceCodecs.mimeFor] and [Media3Engine.videoMimeTypeFor] take the same enum and return a
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* MIME string, from opposite ends of one export. The first asks the device *"have you an encoder
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* for this?"*; the second tells Transformer *"produce this."* If they name different MIME types for
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* the same codec, the app checks for one encoder and then requests another — the check passes, the
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* export succeeds, and the user's H.265 file contains H.264. Both were `private` until #85 and #87
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* widened them, so this assertion could not be written before; each table had per-arm tests that
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* pinned its own answers and could not see the other side.
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*
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* **They do not agree everywhere, and must not be forced to.** Three buckets, all pinned below:
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*
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* - **H.264 and H.265** — both tables name a MIME, and it has to be the same one. This is the
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* bucket the defect lives in.
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* - **VP8, VP9 and AV1** — the device table names a real MIME, Transformer's returns null. That is
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* correct, not drift: `Transformer.setVideoMimeType` will not accept them, so the router sends
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* them to FFmpeg before Media3 is asked anything, while a device may still genuinely own a VP9
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* encoder and `canEncode` has to give a truthful answer about it. Flattening `mimeFor` to null
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* here to "make the tables agree" would make `canEncode(VP9)` answer true on hardware that has
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* no VP9 encoder. The routing half of that claim is proved in
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* `Media3EngineMimeTypesTest.the router sends exactly H264 and H265 video encodes to Media3`,
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* which drives the real router; it is not repeated here.
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* - **COPY and NONE** — neither names a MIME, because neither is encoded at all.
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*
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* The fourth bucket is asserted empty: a codec Transformer names and the device check cannot ask
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* about would mean `canEncode` waving through a target the app then really does encode.
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*
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* **Audio has no partner, and that is a gap rather than a decision.** [Media3Engine.audioMimeTypeFor]
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* is the same shape one enum over — `AudioCodec -> MIME` — but [AndroidDeviceCodecs] enumerates
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* `video/` MIME types only, so there is no device-side audio table to cross-check it against. An
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* audio encoder this device lacks is therefore not caught up front the way a video one is; the job
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* reaches Media3 and falls back after failing. Named here so the asymmetry reads as unfinished
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* rather than intended.
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*/
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@UnstableApi
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class VideoCodecMimeAgreementTest {
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/** Both tables name a MIME. The pair has to match; this is the whole point of the file. */
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private val bothNameAMime = setOf(VideoCodec.H264, VideoCodec.H265)
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/** Only the device table names one, because Transformer is never asked for these. */
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private val deviceOnly = setOf(VideoCodec.VP8, VideoCodec.VP9, VideoCodec.AV1)
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/** Neither names one: nothing is encoded, so there is no encoder to name. */
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private val neitherNamesOne = setOf(VideoCodec.COPY, VideoCodec.NONE)
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/**
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* Sorts every [VideoCodec] by what the two tables actually answer, then compares the sorting
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* with the buckets documented above.
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*
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* This is what makes the agreement test below non-vacuous, and it is deliberately an exact
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* comparison in all four directions. A codec added to the enum lands in some bucket and fails
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* here rather than arriving unclassified. A table that starts returning null for everything —
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* the shape a filtered loop would pass on — empties two buckets and fails here. And a
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* *convergence* fails too: giving `videoMimeTypeFor(VP9)` a real MIME moves VP9 out of
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* `deviceOnly`, which is the point. The divergence should be deliberate and visible, so
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* changing it should require saying so in this file.
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*/
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@Test
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fun `each video codec is in the bucket the two tables actually put it in`() {
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assertEquals(
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"codecs both tables name a MIME for",
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bothNameAMime,
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VideoCodec.entries.filter { device(it) != null && transformer(it) != null }.toSet(),
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)
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assertEquals(
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"codecs only the device check names a MIME for, because Transformer will not encode them",
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deviceOnly,
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VideoCodec.entries.filter { device(it) != null && transformer(it) == null }.toSet(),
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)
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assertEquals(
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"codecs neither table names a MIME for, because nothing is encoded",
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neitherNamesOne,
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VideoCodec.entries.filter { device(it) == null && transformer(it) == null }.toSet(),
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)
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assertEquals(
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"codecs Transformer names a MIME for that the device check cannot ask about — canEncode " +
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"would answer true without looking, for a codec Media3 really is told to produce",
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emptySet<VideoCodec>(),
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VideoCodec.entries.filter { device(it) == null && transformer(it) != null }.toSet(),
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)
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}
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/**
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* The cross-check itself.
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*
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* Per-arm tests in either file cannot catch this: each pins its own table's answers, so a pair
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* changed in lockstep with its own expectations stays green on both sides while the two tables
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* describe different codecs.
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*/
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@Test
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fun `where both tables name a MIME they name the same one`() {
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bothNameAMime.forEach { codec ->
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val asked = device(codec)
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val requested = transformer(codec)
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assertNotNull("AndroidDeviceCodecs has no MIME to ask the device about for ${codec.label}", asked)
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assertNotNull("Media3Engine has no MIME to give Transformer for ${codec.label}", requested)
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assertEquals(
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"${codec.label}: the device is asked about $asked and Transformer is then told to " +
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"produce $requested, so the capability check answers about a codec that is not the output",
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asked,
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requested,
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)
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}
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}
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/**
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* The documented divergence, asserted rather than described.
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*
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* Both halves matter. The null side is Media3's refusal; the non-null side is the device
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* check's genuine question, and it is the half a reader "tidying up" the disagreement would
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* delete.
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*/
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@Test
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fun `the codecs Transformer will not encode are still codecs this device may or may not have`() {
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deviceOnly.forEach { codec ->
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assertNotNull(
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"${codec.label} goes to FFmpeg, but canEncode still has to answer truthfully about " +
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"this device's encoder — a null here makes it answer true without looking",
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device(codec),
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)
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assertNull(
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"Transformer rejects ${codec.label}, so naming a MIME for it would request an export " +
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"Media3 cannot perform",
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transformer(codec),
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)
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}
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}
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/**
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* Guards every comparison above against passing as `null == null`.
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*
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* `MediaFormat`'s MIME types are Java compile-time constants and are inlined, so the unit-test
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* classpath's stubbed `android.jar` never supplies them; `MimeTypes`' come from a real
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* `media3-common` jar. If either stopped holding, the buckets would collapse and this fails
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* first, with the reason. Same guard, and the same reason, as
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* `CodecVocabularyTest.the MIME constants are real strings rather than stubs`.
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*/
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@Test
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fun `both tables return real MIME strings rather than stubs`() {
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assertEquals("video/avc", AndroidDeviceCodecs.mimeFor(VideoCodec.H264))
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assertEquals("video/hevc", AndroidDeviceCodecs.mimeFor(VideoCodec.H265))
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assertEquals("video/x-vnd.on2.vp9", AndroidDeviceCodecs.mimeFor(VideoCodec.VP9))
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assertEquals("video/avc", Media3Engine.videoMimeTypeFor(VideoCodec.H264))
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assertEquals("video/hevc", Media3Engine.videoMimeTypeFor(VideoCodec.H265))
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}
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private fun device(codec: VideoCodec): String? = AndroidDeviceCodecs.mimeFor(codec)
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private fun transformer(codec: VideoCodec): String? = Media3Engine.videoMimeTypeFor(codec)
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}
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@@ -236,10 +236,24 @@ ensure_avd() {
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else
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if [ ! -d "$img_dir" ]; then
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echo " installing $pkg"
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yes | sdkmanager --install "$pkg" > /dev/null 2>&1 || {
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# Read sdkmanager's own status, not the pipeline's. `yes` never ends, so the moment
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# sdkmanager exits and closes the pipe, `yes` dies of SIGPIPE with 141 -- and this
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# script runs under `pipefail`, which takes the rightmost NON-ZERO status. A package
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# that installed perfectly therefore reported "FAILED to install".
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#
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# Measured rather than reasoned: under `set -o pipefail`, `yes | true` exits 141 on
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# every run, and `yes | sh -c 'exit 3'` exits 3 -- so the pipeline status cannot tell
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# a clean install from a broken one, while ${PIPESTATUS[1]} reports 0 and 3.
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#
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# The `echo no | avdmanager` below is deliberately NOT changed. One line fits the pipe
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# buffer, so echo has already exited before the close and there is no signal to
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# receive; `echo no | true` measured 0 on every run. Only an unbounded producer is
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# exposed to this.
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yes | sdkmanager --install "$pkg" > /dev/null 2>&1
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if [ "${PIPESTATUS[1]}" -ne 0 ]; then
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echo " FAILED to install $pkg"
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return 1
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}
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fi
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fi
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echo " creating AVD $avd from $pkg"
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echo no | avdmanager create avd -n "$avd" -k "$pkg" -d pixel_6 --force > /dev/null 2>&1 || {
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Reference in New Issue
Block a user