use docopt::Docopt; use hbb_common::{ env_logger::{init_from_env, Env, DEFAULT_FILTER_ENV}, log, }; use scrap::{ aom::{AomDecoder, AomEncoder, AomEncoderConfig}, codec::{EncoderApi, EncoderCfg, Quality as Q}, Capturer, Display, TraitCapturer, VpxDecoder, VpxDecoderConfig, VpxEncoder, VpxEncoderConfig, VpxVideoCodecId::{self, *}, STRIDE_ALIGN, }; use std::{ io::Write, time::{Duration, Instant}, }; // cargo run --package scrap --example benchmark --release --features hwcodec const USAGE: &'static str = " Codec benchmark. Usage: benchmark [--count=COUNT] [--quality=QUALITY] [--i444] benchmark (-h | --help) Options: -h --help Show this screen. --count=COUNT Capture frame count [default: 100]. --quality=QUALITY Video quality [default: Balanced]. Valid values: Best, Balanced, Low. --i444 I444. "; #[derive(Debug, serde::Deserialize, Clone, Copy)] struct Args { flag_count: usize, flag_quality: Quality, flag_i444: bool, } #[derive(Debug, serde::Deserialize, Clone, Copy)] enum Quality { Best, Balanced, Low, } fn main() { init_from_env(Env::default().filter_or(DEFAULT_FILTER_ENV, "info")); let args: Args = Docopt::new(USAGE) .and_then(|d| d.deserialize()) .unwrap_or_else(|e| e.exit()); let quality = args.flag_quality; let yuv_count = args.flag_count; let mut index = 0; let mut displays = Display::all().unwrap(); for i in 0..displays.len() { if displays[i].is_primary() { index = i; break; } } let d = displays.remove(index); let mut c = Capturer::new(d).unwrap(); let width = c.width(); let height = c.height(); println!( "benchmark {}x{} quality:{:?}, i444:{:?}", width, height, quality, args.flag_i444 ); let quality = match quality { Quality::Best => Q::Best, Quality::Balanced => Q::Balanced, Quality::Low => Q::Low, }; [VP8, VP9].map(|codec| { test_vpx( &mut c, codec, width, height, quality, yuv_count, if codec == VP8 { false } else { args.flag_i444 }, ) }); test_av1(&mut c, width, height, quality, yuv_count, args.flag_i444); #[cfg(feature = "hwcodec")] { hw::test(&mut c, width, height, quality, yuv_count); } } fn test_vpx( c: &mut Capturer, codec_id: VpxVideoCodecId, width: usize, height: usize, quality: Q, yuv_count: usize, i444: bool, ) { let config = EncoderCfg::VPX(VpxEncoderConfig { width: width as _, height: height as _, quality, codec: codec_id, keyframe_interval: None, }); let mut encoder = VpxEncoder::new(config, i444).unwrap(); let mut vpxs = vec![]; let start = Instant::now(); let mut size = 0; let mut yuv = Vec::new(); let mut mid_data = Vec::new(); let mut counter = 0; let mut time_sum = Duration::ZERO; loop { match c.frame(std::time::Duration::from_millis(30)) { Ok(frame) => { let tmp_timer = Instant::now(); let frame = frame.to(encoder.yuvfmt(), &mut yuv, &mut mid_data).unwrap(); let yuv = frame.yuv().unwrap(); for ref frame in encoder .encode(start.elapsed().as_millis() as _, &yuv, STRIDE_ALIGN) .unwrap() { size += frame.data.len(); vpxs.push(frame.data.to_vec()); counter += 1; print!("\r{codec_id:?} {}/{}", counter, yuv_count); std::io::stdout().flush().ok(); } for ref frame in encoder.flush().unwrap() { size += frame.data.len(); vpxs.push(frame.data.to_vec()); counter += 1; print!("\r{codec_id:?} {}/{}", counter, yuv_count); std::io::stdout().flush().ok(); } time_sum += tmp_timer.elapsed(); } Err(e) => { log::error!("{e:?}"); } } if counter >= yuv_count { println!(); break; } } assert_eq!(vpxs.len(), yuv_count); println!( "{:?} encode: {:?}, {} byte", codec_id, time_sum / yuv_count as _, size / yuv_count ); let mut decoder = VpxDecoder::new(VpxDecoderConfig { codec: codec_id }).unwrap(); let start = Instant::now(); for vpx in vpxs { let _ = decoder.decode(&vpx); let _ = decoder.flush(); } println!( "{:?} decode: {:?}", codec_id, start.elapsed() / yuv_count as _ ); } fn test_av1( c: &mut Capturer, width: usize, height: usize, quality: Q, yuv_count: usize, i444: bool, ) { let config = EncoderCfg::AOM(AomEncoderConfig { width: width as _, height: height as _, quality, keyframe_interval: None, }); let mut encoder = AomEncoder::new(config, i444).unwrap(); let start = Instant::now(); let mut size = 0; let mut av1s: Vec> = vec![]; let mut yuv = Vec::new(); let mut mid_data = Vec::new(); let mut counter = 0; let mut time_sum = Duration::ZERO; loop { match c.frame(std::time::Duration::from_millis(30)) { Ok(frame) => { let tmp_timer = Instant::now(); let frame = frame.to(encoder.yuvfmt(), &mut yuv, &mut mid_data).unwrap(); let yuv = frame.yuv().unwrap(); for ref frame in encoder .encode(start.elapsed().as_millis() as _, &yuv, STRIDE_ALIGN) .unwrap() { size += frame.data.len(); av1s.push(frame.data.to_vec()); counter += 1; print!("\rAV1 {}/{}", counter, yuv_count); std::io::stdout().flush().ok(); } time_sum += tmp_timer.elapsed(); } Err(e) => { log::error!("{e:?}"); } } if counter >= yuv_count { println!(); break; } } assert_eq!(av1s.len(), yuv_count); println!( "AV1 encode: {:?}, {} byte", time_sum / yuv_count as _, size / yuv_count ); let mut decoder = AomDecoder::new().unwrap(); let start = Instant::now(); for av1 in av1s { let _ = decoder.decode(&av1); let _ = decoder.flush(); } println!("AV1 decode: {:?}", start.elapsed() / yuv_count as _); } #[cfg(feature = "hwcodec")] mod hw { use hwcodec::ffmpeg_ram::CodecInfo; use scrap::{ hwcodec::{HwRamDecoder, HwRamEncoder, HwRamEncoderConfig}, CodecFormat, }; use super::*; pub fn test(c: &mut Capturer, width: usize, height: usize, quality: Q, yuv_count: usize) { let mut h264s = Vec::new(); let mut h265s = Vec::new(); if let Some(info) = HwRamEncoder::try_get(CodecFormat::H264) { test_encoder(width, height, quality, info, c, yuv_count, &mut h264s); } if let Some(info) = HwRamEncoder::try_get(CodecFormat::H265) { test_encoder(width, height, quality, info, c, yuv_count, &mut h265s); } test_decoder(CodecFormat::H264, &h264s); test_decoder(CodecFormat::H265, &h265s); } fn test_encoder( width: usize, height: usize, quality: Q, info: CodecInfo, c: &mut Capturer, yuv_count: usize, h26xs: &mut Vec>, ) { let mut encoder = HwRamEncoder::new( EncoderCfg::HWRAM(HwRamEncoderConfig { name: info.name.clone(), mc_name: None, width, height, quality, keyframe_interval: None, }), false, ) .unwrap(); let mut size = 0; let mut yuv = Vec::new(); let mut mid_data = Vec::new(); let mut counter = 0; let mut time_sum = Duration::ZERO; let start = std::time::Instant::now(); loop { match c.frame(std::time::Duration::from_millis(30)) { Ok(frame) => { let tmp_timer = Instant::now(); let frame = frame.to(encoder.yuvfmt(), &mut yuv, &mut mid_data).unwrap(); let yuv = frame.yuv().unwrap(); for ref frame in encoder .encode(&yuv, start.elapsed().as_millis() as _) .unwrap() { size += frame.data.len(); h26xs.push(frame.data.to_vec()); counter += 1; print!("\r{:?} {}/{}", info.name, counter, yuv_count); std::io::stdout().flush().ok(); } time_sum += tmp_timer.elapsed(); } Err(e) => { log::error!("{e:?}"); } } if counter >= yuv_count { println!(); break; } } println!( "{}: {:?}, {} byte", info.name, time_sum / yuv_count as u32, size / yuv_count, ); } fn test_decoder(format: CodecFormat, h26xs: &Vec>) { let mut decoder = HwRamDecoder::new(format).unwrap(); let start = Instant::now(); let mut cnt = 0; for h26x in h26xs { let _ = decoder.decode(h26x).unwrap(); cnt += 1; } let device = format!("{:?}", decoder.info.hwdevice).to_lowercase(); let device = device.split("_").last().unwrap(); println!( "{} {}: {:?}", decoder.info.name, device, start.elapsed() / cnt ); } }