stateless/h264/vaapi.rs

// Copyright 2022 The ChromiumOS Authors
// Use of this source code is governed by a BSD-style license that can be
// found in the LICENSE file.

use std::rc::Rc;

use anyhow::anyhow;
use anyhow::Context as AnyhowContext;
use libva::{
    BufferType, Display, IQMatrix, IQMatrixBufferH264, PictureParameter,
    PictureParameterBufferH264, SliceParameter,
};

use crate::backend::vaapi::decoder::va_surface_id;
use crate::backend::vaapi::decoder::DecodedHandle as VADecodedHandle;
use crate::backend::vaapi::decoder::VaStreamInfo;
use crate::backend::vaapi::decoder::VaapiBackend;
use crate::backend::vaapi::decoder::VaapiPicture;
use crate::codec::h264::dpb::Dpb;
use crate::codec::h264::dpb::DpbEntry;
use crate::codec::h264::parser::Level;
use crate::codec::h264::parser::Pps;
use crate::codec::h264::parser::Profile;
use crate::codec::h264::parser::Slice;
use crate::codec::h264::parser::SliceHeader;
use crate::codec::h264::parser::Sps;
use crate::codec::h264::picture::Field;
use crate::codec::h264::picture::PictureData;
use crate::codec::h264::picture::Reference;
use crate::decoder::stateless::h264::StatelessH264DecoderBackend;
use crate::decoder::stateless::h264::H264;
use crate::decoder::stateless::NewPictureError;
use crate::decoder::stateless::NewPictureResult;
use crate::decoder::stateless::NewStatelessDecoderError;
use crate::decoder::stateless::StatelessBackendResult;
use crate::decoder::stateless::StatelessDecoder;
use crate::decoder::stateless::StatelessDecoderBackend;
use crate::decoder::stateless::StatelessDecoderBackendPicture;
use crate::decoder::BlockingMode;
use crate::decoder::DecodedHandle;
use crate::video_frame::VideoFrame;
use crate::Rect;
use crate::Resolution;

impl VaStreamInfo for &Rc<Sps> {
    fn va_profile(&self) -> anyhow::Result<i32> {
        let profile_idc = self.profile_idc;
        let profile = Profile::try_from(profile_idc)
            .map_err(|err| anyhow!(err))
            .with_context(|| format!("Invalid profile_idc {:?}", profile_idc))?;

        match profile {
            Profile::Baseline => {
                if self.constraint_set0_flag {
                    Ok(libva::VAProfile::VAProfileH264ConstrainedBaseline)
                } else {
                    Err(anyhow!(
                        "Unsupported stream: profile_idc=66, but constraint_set0_flag is unset"
                    ))
                }
            }
            Profile::Main => Ok(libva::VAProfile::VAProfileH264Main),
            Profile::Extended => {
                if self.constraint_set1_flag {
                    Ok(libva::VAProfile::VAProfileH264Main)
                } else {
                    Err(anyhow!(
                        "Unsupported stream: profile_idc=88, but constraint_set1_flag is unset"
                    ))
                }
            }
            Profile::High | Profile::High422P | Profile::High10 => {
                Ok(libva::VAProfile::VAProfileH264High)
            }
        }
    }

    fn rt_format(&self) -> anyhow::Result<u32> {
        let bit_depth_luma = self.bit_depth_chroma_minus8 + 8;
        let chroma_format_idc = self.chroma_format_idc;

        match (bit_depth_luma, chroma_format_idc) {
            (8, 0) | (8, 1) => Ok(libva::VA_RT_FORMAT_YUV420),
            (8, 2) => Ok(libva::VA_RT_FORMAT_YUV422),
            (8, 3) => Ok(libva::VA_RT_FORMAT_YUV444),
            (10, 0) | (10, 1) => Ok(libva::VA_RT_FORMAT_YUV420_10),
            (10, 2) => Ok(libva::VA_RT_FORMAT_YUV422_10),
            (10, 3) => Ok(libva::VA_RT_FORMAT_YUV444_10),
            (12, 0) | (12, 1) => Ok(libva::VA_RT_FORMAT_YUV420_12),
            (12, 2) => Ok(libva::VA_RT_FORMAT_YUV422_12),
            (12, 3) => Ok(libva::VA_RT_FORMAT_YUV444_12),
            _ => Err(anyhow!(
                "unsupported bit depth/chroma format pair {}, {}",
                bit_depth_luma,
                chroma_format_idc
            )),
        }
    }

    fn min_num_surfaces(&self) -> usize {
        self.max_dpb_frames() + 4
    }

    fn coded_size(&self) -> Resolution {
        Resolution::from((self.width(), self.height()))
    }

    fn visible_rect(&self) -> Rect {
        let rect = self.visible_rectangle();

        Rect { x: rect.min.x, y: rect.min.y, width: rect.max.x, height: rect.max.y }
    }
}

/// Fills the internal `va_pic` picture parameter with data from `h264_pic`
fn fill_va_h264_pic(
    h264_pic: &PictureData,
    surface_id: libva::VASurfaceID,
    merge_other_field: bool,
) -> libva::PictureH264 {
    let mut flags = 0;
    let frame_idx = if matches!(h264_pic.reference(), Reference::LongTerm) {
        flags |= libva::VA_PICTURE_H264_LONG_TERM_REFERENCE;
        h264_pic.long_term_frame_idx
    } else {
        if matches!(h264_pic.reference(), Reference::ShortTerm { .. }) {
            flags |= libva::VA_PICTURE_H264_SHORT_TERM_REFERENCE;
        }

        h264_pic.frame_num
    };

    let top_field_order_cnt;
    let bottom_field_order_cnt;

    match h264_pic.field {
        Field::Frame => {
            top_field_order_cnt = h264_pic.top_field_order_cnt;
            bottom_field_order_cnt = h264_pic.bottom_field_order_cnt;
        }
        Field::Top => {
            match (merge_other_field, h264_pic.other_field()) {
                (true, Some(other_field)) => {
                    bottom_field_order_cnt = other_field.borrow().bottom_field_order_cnt
                }
                (_, _) => {
                    flags |= libva::VA_PICTURE_H264_TOP_FIELD;
                    bottom_field_order_cnt = 0;
                }
            }

            top_field_order_cnt = h264_pic.top_field_order_cnt;
        }
        Field::Bottom => {
            match (merge_other_field, h264_pic.other_field()) {
                (true, Some(other_field)) => {
                    top_field_order_cnt = other_field.borrow().top_field_order_cnt
                }
                (_, _) => {
                    flags |= libva::VA_PICTURE_H264_BOTTOM_FIELD;
                    top_field_order_cnt = 0;
                }
            }

            bottom_field_order_cnt = h264_pic.bottom_field_order_cnt;
        }
    }

    libva::PictureH264::new(
        surface_id,
        frame_idx,
        flags,
        top_field_order_cnt,
        bottom_field_order_cnt,
    )
}

/// Builds an invalid VaPictureH264. These pictures are used to fill empty
/// array slots there is no data to fill them with.
fn build_invalid_va_h264_pic() -> libva::PictureH264 {
    libva::PictureH264::new(libva::VA_INVALID_ID, 0, libva::VA_PICTURE_H264_INVALID, 0, 0)
}

fn build_iq_matrix(pps: &Pps) -> BufferType {
    let mut scaling_list4x4 = [[0; 16]; 6];
    let mut scaling_list8x8 = [[0; 64]; 2];

    (0..6).for_each(|i| {
        super::get_raster_from_zigzag_4x4(pps.scaling_lists_4x4[i], &mut scaling_list4x4[i]);
    });

    (0..2).for_each(|i| {
        super::get_raster_from_zigzag_8x8(pps.scaling_lists_8x8[i], &mut scaling_list8x8[i]);
    });

    BufferType::IQMatrix(IQMatrix::H264(IQMatrixBufferH264::new(scaling_list4x4, scaling_list8x8)))
}

fn build_pic_param<V: VideoFrame>(
    hdr: &SliceHeader,
    current_picture: &PictureData,
    current_surface_id: libva::VASurfaceID,
    dpb: &Dpb<VADecodedHandle<V>>,
    sps: &Sps,
    pps: &Pps,
) -> anyhow::Result<BufferType> {
    let curr_pic = fill_va_h264_pic(current_picture, current_surface_id, false);

    let mut refs: Vec<_> = dpb
        .short_term_refs_iter()
        .filter(|handle| {
            let pic = handle.pic.borrow();
            !pic.nonexisting && !pic.is_second_field()
        })
        .cloned()
        .collect();

    let mut va_refs = vec![];

    for handle in &refs {
        let surface_id = va_surface_id(&handle.reference);
        let ref_pic = handle.pic.borrow();
        let pic = fill_va_h264_pic(&ref_pic, surface_id, true);
        va_refs.push(pic);
    }

    refs.clear();

    let mut refs: Vec<_> = dpb
        .long_term_refs_iter()
        .filter(|handle| {
            let pic = handle.pic.borrow();
            !pic.is_second_field()
        })
        .cloned()
        .collect();

    for handle in &refs {
        let surface_id = va_surface_id(&handle.reference);
        let ref_pic = handle.pic.borrow();
        let pic = fill_va_h264_pic(&ref_pic, surface_id, true);
        va_refs.push(pic);
    }

    for _ in va_refs.len()..16 {
        va_refs.push(build_invalid_va_h264_pic());
    }

    refs.clear();

    let seq_fields = libva::H264SeqFields::new(
        sps.chroma_format_idc as u32,
        sps.separate_colour_plane_flag as u32,
        sps.gaps_in_frame_num_value_allowed_flag as u32,
        sps.frame_mbs_only_flag as u32,
        sps.mb_adaptive_frame_field_flag as u32,
        sps.direct_8x8_inference_flag as u32,
        (sps.level_idc >= Level::L3_1) as u32, /* see A.3.3.2 */
        sps.log2_max_frame_num_minus4 as u32,
        sps.pic_order_cnt_type as u32,
        sps.log2_max_pic_order_cnt_lsb_minus4 as u32,
        sps.delta_pic_order_always_zero_flag as u32,
    );
    let interlaced = !sps.frame_mbs_only_flag as u32;
    let picture_height_in_mbs_minus1 = ((sps.pic_height_in_map_units_minus1 + 1) << interlaced) - 1;

    let pic_fields = libva::H264PicFields::new(
        pps.entropy_coding_mode_flag as u32,
        pps.weighted_pred_flag as u32,
        pps.weighted_bipred_idc as u32,
        pps.transform_8x8_mode_flag as u32,
        hdr.field_pic_flag as u32,
        pps.constrained_intra_pred_flag as u32,
        pps.bottom_field_pic_order_in_frame_present_flag as u32,
        pps.deblocking_filter_control_present_flag as u32,
        pps.redundant_pic_cnt_present_flag as u32,
        (current_picture.nal_ref_idc != 0) as u32,
    );

    let va_refs = va_refs.try_into();
    let va_refs = match va_refs {
        Ok(va_refs) => va_refs,
        Err(_) => {
            panic!("Bug: wrong number of references, expected 16");
        }
    };

    let pic_param = PictureParameterBufferH264::new(
        curr_pic,
        va_refs,
        sps.pic_width_in_mbs_minus1,
        picture_height_in_mbs_minus1,
        sps.bit_depth_luma_minus8,
        sps.bit_depth_chroma_minus8,
        sps.max_num_ref_frames,
        &seq_fields,
        0, /* FMO not supported by VA */
        0, /* FMO not supported by VA */
        0, /* FMO not supported by VA */
        pps.pic_init_qp_minus26,
        pps.pic_init_qs_minus26,
        pps.chroma_qp_index_offset,
        pps.second_chroma_qp_index_offset,
        &pic_fields,
        hdr.frame_num,
    );

    Ok(BufferType::PictureParameter(PictureParameter::H264(pic_param)))
}

fn fill_ref_pic_list<V: VideoFrame>(
    ref_list_x: &[&DpbEntry<VADecodedHandle<V>>],
) -> [libva::PictureH264; 32] {
    let mut va_pics = vec![];

    for handle in ref_list_x {
        let surface_id = va_surface_id(&handle.reference);
        let ref_pic = handle.pic.borrow();
        let merge = matches!(ref_pic.field, Field::Frame);
        let va_pic = fill_va_h264_pic(&ref_pic, surface_id, merge);

        va_pics.push(va_pic);
    }

    for _ in va_pics.len()..32 {
        va_pics.push(build_invalid_va_h264_pic());
    }

    let va_pics: [libva::PictureH264; 32] = match va_pics.try_into() {
        Ok(va_pics) => va_pics,
        Err(e) => panic!("Bug: wrong number of references, expected 32, got {:?}", e.len()),
    };

    va_pics
}

fn build_slice_param<V: VideoFrame>(
    hdr: &SliceHeader,
    slice_size: usize,
    ref_list_0: &[&DpbEntry<VADecodedHandle<V>>],
    ref_list_1: &[&DpbEntry<VADecodedHandle<V>>],
    sps: &Sps,
    pps: &Pps,
) -> anyhow::Result<BufferType> {
    let ref_list_0 = fill_ref_pic_list(ref_list_0);
    let ref_list_1 = fill_ref_pic_list(ref_list_1);
    let pwt = &hdr.pred_weight_table;

    let mut luma_weight_l0_flag = false;
    let mut chroma_weight_l0_flag = false;
    let mut luma_weight_l0 = [0i16; 32];
    let mut luma_offset_l0 = [0i16; 32];
    let mut chroma_weight_l0: [[i16; 2]; 32] = [[0i16; 2]; 32];
    let mut chroma_offset_l0: [[i16; 2]; 32] = [[0i16; 2]; 32];

    let mut luma_weight_l1_flag = false;
    let mut chroma_weight_l1_flag = false;
    let mut luma_weight_l1 = [0i16; 32];
    let mut luma_offset_l1 = [0i16; 32];
    let mut chroma_weight_l1: [[i16; 2]; 32] = [[0i16; 2]; 32];
    let mut chroma_offset_l1: [[i16; 2]; 32] = [[0i16; 2]; 32];

    let mut fill_l0 = false;
    let mut fill_l1 = false;

    if pps.weighted_pred_flag && (hdr.slice_type.is_p() || hdr.slice_type.is_sp()) {
        fill_l0 = true;
    } else if pps.weighted_bipred_idc == 1 && hdr.slice_type.is_b() {
        fill_l0 = true;
        fill_l1 = true;
    }

    if fill_l0 {
        luma_weight_l0_flag = true;

        for i in 0..=hdr.num_ref_idx_l0_active_minus1 as usize {
            luma_weight_l0[i] = pwt.luma_weight_l0[i];
            luma_offset_l0[i] = i16::from(pwt.luma_offset_l0[i]);
        }

        chroma_weight_l0_flag = sps.chroma_array_type() != 0;
        if chroma_weight_l0_flag {
            for i in 0..=hdr.num_ref_idx_l0_active_minus1 as usize {
                for j in 0..2 {
                    chroma_weight_l0[i][j] = pwt.chroma_weight_l0[i][j];
                    chroma_offset_l0[i][j] = i16::from(pwt.chroma_offset_l0[i][j]);
                }
            }
        }
    }

    if fill_l1 {
        luma_weight_l1_flag = true;

        luma_weight_l1[..(hdr.num_ref_idx_l1_active_minus1 as usize + 1)].clone_from_slice(
            &pwt.luma_weight_l1[..(hdr.num_ref_idx_l1_active_minus1 as usize + 1)],
        );
        luma_offset_l1[..(hdr.num_ref_idx_l1_active_minus1 as usize + 1)].clone_from_slice(
            &pwt.luma_offset_l1[..(hdr.num_ref_idx_l1_active_minus1 as usize + 1)],
        );

        chroma_weight_l1_flag = sps.chroma_array_type() != 0;
        if chroma_weight_l1_flag {
            for i in 0..=hdr.num_ref_idx_l1_active_minus1 as usize {
                for j in 0..2 {
                    chroma_weight_l1[i][j] = pwt.chroma_weight_l1[i][j];
                    chroma_offset_l1[i][j] = i16::from(pwt.chroma_offset_l1[i][j]);
                }
            }
        }
    }

    let slice_param = libva::SliceParameterBufferH264::new(
        slice_size as u32,
        0,
        libva::VA_SLICE_DATA_FLAG_ALL,
        hdr.header_bit_size as u16,
        hdr.first_mb_in_slice as u16,
        hdr.slice_type as u8,
        hdr.direct_spatial_mv_pred_flag as u8,
        hdr.num_ref_idx_l0_active_minus1,
        hdr.num_ref_idx_l1_active_minus1,
        hdr.cabac_init_idc,
        hdr.slice_qp_delta,
        hdr.disable_deblocking_filter_idc,
        hdr.slice_alpha_c0_offset_div2,
        hdr.slice_beta_offset_div2,
        ref_list_0,
        ref_list_1,
        pwt.luma_log2_weight_denom,
        pwt.chroma_log2_weight_denom,
        luma_weight_l0_flag as u8,
        luma_weight_l0,
        luma_offset_l0,
        chroma_weight_l0_flag as u8,
        chroma_weight_l0,
        chroma_offset_l0,
        luma_weight_l1_flag as u8,
        luma_weight_l1,
        luma_offset_l1,
        chroma_weight_l1_flag as u8,
        chroma_weight_l1,
        chroma_offset_l1,
    );

    Ok(BufferType::SliceParameter(SliceParameter::H264(slice_param)))
}

impl<V: VideoFrame> StatelessDecoderBackendPicture<H264> for VaapiBackend<V> {
    type Picture = VaapiPicture<V>;
}

impl<V: VideoFrame> StatelessH264DecoderBackend for VaapiBackend<V> {
    fn new_sequence(&mut self, sps: &Rc<Sps>) -> StatelessBackendResult<()> {
        self.new_sequence(sps)
    }

    fn start_picture(
        &mut self,
        picture: &mut Self::Picture,
        picture_data: &PictureData,
        sps: &Sps,
        pps: &Pps,
        dpb: &Dpb<Self::Handle>,
        hdr: &SliceHeader,
    ) -> StatelessBackendResult<()> {
        let context = &self.context;

        let surface_id = picture.surface().id();

        let pic_param = build_pic_param(hdr, picture_data, surface_id, dpb, sps, pps)?;
        let pic_param =
            context.create_buffer(pic_param).context("while creating picture parameter buffer")?;

        let iq_matrix = build_iq_matrix(pps);
        let iq_matrix =
            context.create_buffer(iq_matrix).context("while creating IQ matrix buffer")?;

        picture.add_buffer(pic_param);
        picture.add_buffer(iq_matrix);

        Ok(())
    }

    fn decode_slice(
        &mut self,
        picture: &mut Self::Picture,
        slice: &Slice,
        sps: &Sps,
        pps: &Pps,
        ref_pic_list0: &[&DpbEntry<Self::Handle>],
        ref_pic_list1: &[&DpbEntry<Self::Handle>],
    ) -> StatelessBackendResult<()> {
        let context = &self.context;

        let slice_param = context
            .create_buffer(build_slice_param(
                &slice.header,
                slice.nalu.size,
                ref_pic_list0,
                ref_pic_list1,
                sps,
                pps,
            )?)
            .context("while creating slice params buffer")?;

        picture.add_buffer(slice_param);

        let slice_data = context
            .create_buffer(BufferType::SliceData(Vec::from(slice.nalu.as_ref())))
            .context("while creating slice data buffer")?;

        picture.add_buffer(slice_data);

        Ok(())
    }

    fn submit_picture(&mut self, picture: Self::Picture) -> StatelessBackendResult<Self::Handle> {
        self.process_picture::<H264>(picture)
    }

    fn new_picture(
        &mut self,
        timestamp: u64,
        alloc_cb: &mut dyn FnMut() -> Option<
            <<Self as StatelessDecoderBackend>::Handle as DecodedHandle>::Frame,
        >,
    ) -> NewPictureResult<Self::Picture> {
        Ok(VaapiPicture::new(
            timestamp,
            Rc::clone(&self.context),
            alloc_cb().ok_or(NewPictureError::OutOfOutputBuffers)?,
        ))
    }

    fn new_field_picture(
        &mut self,
        timestamp: u64,
        first_field: &Self::Handle,
    ) -> NewPictureResult<Self::Picture> {
        // Decode to the same surface as the first field picture.
        Ok(first_field.borrow().new_picture_from_same_surface(timestamp))
    }
}

impl<V: VideoFrame> StatelessDecoder<H264, VaapiBackend<V>> {
    // Creates a new instance of the decoder using the VAAPI backend.
    pub fn new_vaapi(
        display: Rc<Display>,
        blocking_mode: BlockingMode,
    ) -> Result<Self, NewStatelessDecoderError> {
        Self::new(VaapiBackend::new(display, false), blocking_mode)
    }
}

#[cfg(test)]
mod tests {
    use libva::Display;

    use crate::bitstream_utils::NalIterator;
    use crate::codec::h264::parser::Nalu;
    use crate::decoder::stateless::h264::H264;
    use crate::decoder::stateless::tests::test_decode_stream;
    use crate::decoder::stateless::tests::TestStream;
    use crate::decoder::stateless::StatelessDecoder;
    use crate::decoder::BlockingMode;
    use crate::utils::simple_playback_loop;
    use crate::utils::simple_playback_loop_owned_frames;
    use crate::DecodedFormat;

    /// Run `test` using the vaapi decoder, in both blocking and non-blocking modes.
    fn test_decoder_vaapi(
        test: &TestStream,
        output_format: DecodedFormat,
        blocking_mode: BlockingMode,
    ) {
        let display = Display::open().unwrap();
        let decoder = StatelessDecoder::<H264, _>::new_vaapi::<()>(display, blocking_mode).unwrap();

        test_decode_stream(
            |d, s, f| {
                simple_playback_loop(
                    d,
                    NalIterator::<Nalu>::new(s),
                    f,
                    &mut simple_playback_loop_owned_frames,
                    output_format,
                    blocking_mode,
                )
            },
            decoder,
            test,
            true,
            false,
        );
    }

    #[test]
    // Ignore this test by default as it requires libva-compatible hardware.
    #[ignore]
    fn test_64x64_progressive_i_block() {
        use crate::decoder::stateless::h264::tests::DECODE_64X64_PROGRESSIVE_I;
        test_decoder_vaapi(
            &DECODE_64X64_PROGRESSIVE_I,
            DecodedFormat::NV12,
            BlockingMode::Blocking,
        );
    }

    #[test]
    // Ignore this test by default as it requires libva-compatible hardware.
    #[ignore]
    fn test_64x64_progressive_i_nonblock() {
        use crate::decoder::stateless::h264::tests::DECODE_64X64_PROGRESSIVE_I;
        test_decoder_vaapi(
            &DECODE_64X64_PROGRESSIVE_I,
            DecodedFormat::NV12,
            BlockingMode::NonBlocking,
        );
    }

    #[test]
    // Ignore this test by default as it requires libva-compatible hardware.
    #[ignore]
    fn test_64x64_progressive_i_p_block() {
        use crate::decoder::stateless::h264::tests::DECODE_64X64_PROGRESSIVE_I_P;
        test_decoder_vaapi(
            &DECODE_64X64_PROGRESSIVE_I_P,
            DecodedFormat::NV12,
            BlockingMode::Blocking,
        );
    }

    #[test]
    // Ignore this test by default as it requires libva-compatible hardware.
    #[ignore]
    fn test_64x64_progressive_i_p_nonblock() {
        use crate::decoder::stateless::h264::tests::DECODE_64X64_PROGRESSIVE_I_P;
        test_decoder_vaapi(
            &DECODE_64X64_PROGRESSIVE_I_P,
            DecodedFormat::NV12,
            BlockingMode::NonBlocking,
        );
    }

    #[test]
    // Ignore this test by default as it requires libva-compatible hardware.
    #[ignore]
    fn test_64x64_progressive_i_p_b_p_block() {
        use crate::decoder::stateless::h264::tests::DECODE_64X64_PROGRESSIVE_I_P_B_P;
        test_decoder_vaapi(
            &DECODE_64X64_PROGRESSIVE_I_P_B_P,
            DecodedFormat::NV12,
            BlockingMode::Blocking,
        );
    }

    #[test]
    // Ignore this test by default as it requires libva-compatible hardware.
    #[ignore]
    fn test_64x64_progressive_i_p_b_p_nonblock() {
        use crate::decoder::stateless::h264::tests::DECODE_64X64_PROGRESSIVE_I_P_B_P;
        test_decoder_vaapi(
            &DECODE_64X64_PROGRESSIVE_I_P_B_P,
            DecodedFormat::NV12,
            BlockingMode::NonBlocking,
        );
    }

    #[test]
    // Ignore this test by default as it requires libva-compatible hardware.
    #[ignore]
    fn test_64x64_progressive_i_p_b_p_high_block() {
        use crate::decoder::stateless::h264::tests::DECODE_64X64_PROGRESSIVE_I_P_B_P_HIGH;
        test_decoder_vaapi(
            &DECODE_64X64_PROGRESSIVE_I_P_B_P_HIGH,
            DecodedFormat::NV12,
            BlockingMode::Blocking,
        );
    }

    #[test]
    // Ignore this test by default as it requires libva-compatible hardware.
    #[ignore]
    fn test_64x64_progressive_i_p_b_p_high_nonblock() {
        use crate::decoder::stateless::h264::tests::DECODE_64X64_PROGRESSIVE_I_P_B_P_HIGH;
        test_decoder_vaapi(
            &DECODE_64X64_PROGRESSIVE_I_P_B_P_HIGH,
            DecodedFormat::NV12,
            BlockingMode::NonBlocking,
        );
    }

    #[test]
    // Ignore this test by default as it requires libva-compatible hardware.
    #[ignore]
    fn test_25fps_block() {
        use crate::decoder::stateless::h264::tests::DECODE_TEST_25FPS;
        test_decoder_vaapi(&DECODE_TEST_25FPS, DecodedFormat::NV12, BlockingMode::Blocking);
    }

    #[test]
    // Ignore this test by default as it requires libva-compatible hardware.
    #[ignore]
    fn test_25fps_nonblock() {
        use crate::decoder::stateless::h264::tests::DECODE_TEST_25FPS;
        test_decoder_vaapi(&DECODE_TEST_25FPS, DecodedFormat::NV12, BlockingMode::NonBlocking);
    }

    #[test]
    // Ignore this test by default as it requires libva-compatible hardware.
    #[ignore]
    fn test_25fps_interlaced_block() {
        use crate::decoder::stateless::h264::tests::DECODE_TEST_25FPS_INTERLACED;
        test_decoder_vaapi(
            &DECODE_TEST_25FPS_INTERLACED,
            DecodedFormat::NV12,
            BlockingMode::Blocking,
        );
    }

    #[test]
    // Ignore this test by default as it requires libva-compatible hardware.
    #[ignore]
    fn test_25fps_interlaced_nonblock() {
        use crate::decoder::stateless::h264::tests::DECODE_TEST_25FPS_INTERLACED;
        test_decoder_vaapi(
            &DECODE_TEST_25FPS_INTERLACED,
            DecodedFormat::NV12,
            BlockingMode::NonBlocking,
        );
    }
}