Author SHA1 Message Date
郑博文 1837658c85 test(agent): dump_stream 增加 --save,可导出裸 H.264 码流供外部解码器验证
目的
安卓主控方案的唯一高风险未知项是「agent 发出的码流能否被 MediaCodec 解码」。
要验证它,需要一份脱离 QUIC/自定义帧头的**裸 Annex-B 码流文件**,供手机端
或任何标准解码器直接读取。

改动
- 新增 --save <路径>:把各帧载荷按到达顺序拼接成 Annex-B 文件
- 存的是**载荷**而非完整帧:外部解码器只认标准 Annex-B,不认识本项目的
  长度前缀与 bincode 帧头,故不能存 encode_video_frame 的输出
- 保存时打印字节数与 IDR 数量,便于快速判断样本是否可用

不做的事
不引入独立的码流解析库,IDR 统计复用文件内已有的起始码扫描逻辑,
避免为一次性诊断工具增加依赖。

验证
cargo build --workspace 退出码 0;cargo test --workspace --exclude linux-agent 全绿。
实际使用:导出 90 帧、437823 字节、含 2 个 IDR,该文件已用于安卓 MediaCodec
兼容性验证(vivo S6 / Exynos 硬解,87/89 帧解出)。
2026-10-29 16:13:58 +08:00
郑博文 6e83bda8b8 perf(agent): 关键帧周期从 4s/10s 统一到 1s,缩短丢帧后的兜底恢复窗口
背景
协议 v2 与 vendor nvenc 补丁之后,KeyFrameReq 已成为**真正生效**的恢复主路径
(此前 NVENC 缺 FORCEIDR 标志,请求被静默忽略)。因此周期 IDR 的角色变了:
从「唯一恢复手段」降级为「兜底手段」,只用于防「请求连续丢失」这种极端情况。
既然是兜底,就没必要配得那么长。

问题:三处周期不一致,且都过长
- agent/src/capture.rs NVENC:gop_len = 240 帧 @60fps = 4 秒
- agent/src/capture.rs 软编:    intra_period = 300 帧 @60fps = 5 秒
- agent-core/src/lib.rs Linux:  intra_period = 300 帧 @30fps = **10 秒**

同一产品在三种编码后端上的恢复等待时间差 2.5 倍,且 Linux 端最差。

改动
- 新增 agent/src/capture.rs::INTRA_PERIOD_FRAMES = 60(Windows 两个编码器共用)
- agent-core 的 EncoderSettings::default() 改为按 max_fps 推导(1 秒对应帧数),
  避免以后调帧率时周期又漂移

代价
IDR 是整帧内编码,实测一次约 95-120KB,而 P 帧约 3-10KB。1 秒一次 IDR 约
增加 0.8Mbps 开销,在 5Mbps 码率下可接受。

验证(dump_stream 观察 150 帧)
  [  0] seq=0   IDR   ← 首帧
  [ 60] seq=60  IDR   ← 间隔精确 60 帧
  [120] seq=120 IDR
@60fps 即每 1 秒一个自动 IDR,与 gop_len=60 配置一致。
2026-10-28 16:35:44 +08:00
郑博文 8410a8de2a docs: 记录「不做中继」的最终裁决(2026-10-28)
背景:公司决定不提供中继服务器,中继方案从「暂缓」变为「排除」。

《多平台架构设计.md》
- §6 从「⚠️ 必须现在拍板」改为「✅ 已裁决」,保留原始分析但标注结论
- 新增 §6.1 裁决内容:不做中继、不预留中继接口、IPv6 一等公民、
  连接层边界仍要做
- 新增 §6.2 澄清一件常被混淆的事:**连接层边界 ≠ 中继接口**
  - 连接层边界(把「怎么连」与「连上干什么」分开):要做,与中继无关,
    因为连接方式确定会变(IP→设备码)、安卓端要复用、解码逻辑要可单测
  - 中继接口(Path::Relay 这类类型预留):不做。中继已排除,这些变体
    永远不会被构造,只会产生 dead_code 警告——零收益的预留就是纯负担
- 新增 §6.3 对产品的影响:明确哪些网络环境连不上,并说明这不是 bug
  而是已知边界,UI 必须给出可执行提示
- §10 第 1 条标记为已裁决

《打洞与信令设计.md》
- 状态更新为「已合入 main(703eb64)」
- 补充裁决确认,指向 §6.1/§6.2

补充事实:此前代码中并不存在 PathProvider / Path::Relay,唯一提到 relay 的
signaling.rs:7 是在声明「本协议不含中继」。因此本次是「确认不留」而非
「拆除预留」。
2026-10-28 16:35:32 +08:00
郑博文 192513dd2a fix(viewer): 跳帧后进入「等待 IDR」状态,不再把必然失败的 P 帧喂给解码器
问题
H.264 的 P 帧依赖前一帧的参考图像。主控端的积压跳帧逻辑(读出但不解码)
会切断参考链,此后所有 P 帧都解不出来,且不会自行恢复——必须收到 IDR。
旧实现跳帧后只是 continue,后续 P 帧仍被送进 decoder,导致:

- 每帧解码失败一次 → stderr 刷屏「decode failed」
- 每次失败都触发一次 KeyFrameReq → 请求风暴
- 解码器反复在错误状态里挣扎

实测(修复前,10 秒会话):decode failed 刷屏数十条。

修复
引入 awaiting_idr 状态,语义是「参考链已断,等 IDR 重新同步」:

- 跳帧时置位,并请求关键帧
- 置位期间跳过所有 P 帧(这是正确性要求,不是优化)
- 收到 hdr.keyframe=true 的帧才清位并恢复解码
- 解码出错时也置位
- 初始值为 true:入会时已发 KeyFrameReq,拿到第一个 IDR 前不该硬解

该实现依赖协议 v2 新增的 hdr.keyframe 字段(从实际码流 NAL 类型判定),
因此必须在协议改动之后合入。

HUD 新增 STATE 行显示 OK / RECOVER。RECOVER 期间画面冻结是**预期行为**,
没有这个指示用户会误以为软件卡死。

验证(同机 agent+viewer,25 秒)
- decode failed:0 次(修复前刷屏)
- stderr 总行数:3(仅首帧日志 + 2 条积压提示)
- 窗口稳定无假死

已知局限(下一步)
本修复解决的是「跳帧后不再做无用功」,但跳帧本身仍会造成画面冻结直到
IDR 到达。NVENC 的 gop_len=240、@60fps 即 4 秒才有一个自动 IDR,恢复窗口
偏长。缩短 GOP 或降低跳帧触发频率是后续优化项。
2026-10-28 16:10:40 +08:00
郑博文 e778ff73cc test(agent): 新增 dump_stream 码流诊断工具
用途:不依赖 viewer 的 Minifb 窗口,直接抓 agent 下发的码流并逐帧打印
NAL 结构与解码结果,用于定位解码恢复类问题。

能力
- 打印每帧的 seq / keyframe / 字节数 / NAL 类型(SPS PPS IDR P)
- --skip-at N:模拟主控端「积压跳帧」——读出但不解码,用于验证跳帧是否
  切断参考链(实测确认:跳掉一帧后所有 P 帧持续解码失败,直到收到 IDR)
- 交叉校验帧头 keyframe 标志与码流实际 NAL 类型是否一致
- 末尾补发 KeyFrameReq 并观察 IDR 是否真的回来

用法
  cargo run --release -p agent --bin dump_stream -- --port 47800 --code 123456
  cargo run --release -p agent --bin dump_stream -- --port 47800 --code 123456 --skip-at 1

注意:KeyFrameReq 必须写在流 2(isend)——agent 的读循环只监听流 2,
写到流 1 会被静默忽略(本工具第一版踩过,误判「修复无效」)。

这个工具是发现 nvenc FORCEIDR 缺陷的直接手段,保留以备回归排查。
2026-10-28 16:05:41 +08:00
郑博文 e814cb64e7 fix(agent): vendor nvenc 并补 FORCEIDR 标志——修复运行期关键帧请求被静默忽略
根因(实测确认,非推测)
上游 nvenc 0.1.0 的 encode_picture 只设置 picture_type=NV_ENC_PIC_TYPE_IDR,
却从未设置 encode_pic_flags=NV_ENC_PIC_FLAG_FORCEIDR。NVENC 会据此忽略请求、
继续输出 P 帧。首帧之所以「看起来正常」,是因为 frame_idx==0 本来就强制 IDR,
与该字段无关——这也是该缺陷长期未被发现的原因。

证据(同一 frame_count=4,修复前后)
- 修复前:输出 NAL 首字节 0x61 → 0x61 & 0x1F = 1 = 普通 P 片
- 修复后:输出 NAL 首字节 0x65 → 0x65 & 0x1F = 5 = IDR 片

影响
这解释了构建运行手册 §6.1 记录的「静止桌面黑屏」:NVENC 路径的重编 IDR 从未
真正生效,KeyFrameReq 拿不到 IDR 就无法从解码错误中恢复。

改动
- 新增 vendor/nvenc(上游为 MIT 许可,可自由修改分发,符合商用要求)
- vendor/nvenc/src/safe/encoder.rs:picture_type=IDR 时置 ForceIDR;
  IntraRefresh 时置 ForceIntra。改动处有「本项目补丁」注释标记
- agent/Cargo.toml:nvenc 改为 path 依赖指向 vendor 版本

建议后续向上游提 PR(github.com/AlsoSylv/nvenc),以降低长期维护成本。

验证:跳帧后发 KeyFrameReq,第 3 帧即收到 IDR 并解码成功
2026-10-28 16:05:41 +08:00
郑博文 9e50bc6237 feat(common): 协议 v2——版本号 + 帧头 seq/keyframe + 长度下界校验
为接入安卓主控做准备,先把三端共享契约改到能承载多客户端。改动集中在
common/src/lib.rs,三端适配在同一提交内完成以保证可编译。

协议版本(PROTO_VERSION=2)
- ControlMsg::Auth/AuthOk 增加 proto_version 字段;认证顺序改为「先版本后验证码」:
  版本不一致时字段布局可能不同,验证码的解析结果不可信
- 任一端版本不符即 AuthFail 并明确报错,把「连上了但行为诡异」变成「连不上且提示升级」

视频帧头(VideoFrameHeader)
- 新增 seq: u64(每次实际发送递增,含静止桌面重发)与 keyframe: bool
- keyframe 由新增的 common::h264_contains_idr() 从实际 Annex-B 码流判定,
  不依赖编码器 API 推断——NVENC 与 openh264 规则不同,实际输出才是唯一可信来源
- 该字段是 MediaCodec 判断解码器重置时机的必要条件,避免客户端自己写 NAL 扫描

不可信输入防护
- read_video_frame 补齐长度下界:total 必须 >= 4,hlen 必须落在 [1, total-4]
- 旧实现只校验上界,构造 total<4 的帧会让接收端在 buf[0..4] 处 panic(进程级DoS)
- 测试从 0 增至 11 个,覆盖序列化往返与 6 类越界/损坏输入

顺带修复(与上述契约直接相关)
- 新增 common::split_video_frame():静止桌面重发时复用载荷但重建帧头,
  否则 seq/ts_ms 会停在上次发送时刻,破坏 seq 单调递增契约
- agent-core 与 agent 两端的静止重发路径均改用该函数

验证:cargo test -p common → 20 passed(9 signaling + 11 新增)
2026-10-28 16:05:41 +08:00
郑博文 703eb64fc0 merge: 合入 feature/common-punch-signaling(P2P 信令协议 + 打洞探针 + 4 份架构设计文档) 2026-10-28 15:14:56 +08:00
郑博文 4533968057 merge: 合入 feature/agent-linux(测试期望值修正 + 冒烟脚本纳入单测 + cargo 网络配置文档) 2026-10-28 15:14:51 +08:00
yu 18d12baba1 fix(tools): 探针区分信令回复与打洞包,修掉打洞假阳性
问题:客户端反复注册引来的 PEER/WAIT 回复在 discover_peer 返回后才到达,
被接收线程当成「对方打进来了」,输出假的「✅ 打洞成功」。
实测形态:报告的对方地址实为信令服务器 47.98.245.66:47999,包长 22 字节
(真打洞包固定 16 字节 = PUNCHv1| + 8 字节时间戳)。

修复:
- 接收线程只认以 MAGIC 开头、且长度正确的包
- 显式排除信令服务器的 IP:端口
- 失败结论里报告被忽略的非打洞包数量,避免再次误读
- 验证记录补 4.5 节,写明 Rust 实现的对应判据
2026-10-23 18:02:14 +08:00
yu bae871c78c fix(linux-agent): 修正坐标换算单测期望值 + 冒烟脚本纳入单测
- scale(32768,1920) 期望值应为 959(32768×1919÷65535=959.49 向下取整),
  原写成 960 —— 是**测试期望值错**,实现本身正确(0→0、65535→extents-1 均通过);
  集成测试因带 ±2 像素容差未能暴露,是跑单测才抓到的
- scripts/linux-smoke.sh 原先只跑 --test smoke,漏掉 --bins 单测;现两层都跑
- 手册 §8.4 说明补充单测这一层及其必要性

验证:bash scripts/linux-smoke.sh → 单测 4 passed + 端到端 2 passed
2026-10-23 15:04:56 +08:00
yu 49f85db9f9 docs: 修正 cargo 网络配置建议(代理而非镜像源)+ 更新构建命令路径
- 实测 USTC 镜像索引 cksum 与下发的 .crate 字节不一致(nvenc 0.1.0),
  源替换会触发 checksum 校验失败并改变 registry 身份;改为 [http] proxy 走官方源
- 构建命令里 D:\\wordkb\\... 的失效路径替换为可用写法
- 已实测:Windows cargo build --release 通过(agent.exe/viewer.exe/encbench.exe)
  且 cargo test -p linux-agent 在容器内 2 passed
2026-10-23 14:10:20 +08:00
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@@ -628,8 +628,6 @@ checksum = "521739c6d2bac4aa25192232afe6841231376b2b26d4d9fae5ecf8ca5772e441"
[[package]] [[package]]
name = "nvenc" name = "nvenc"
version = "0.1.0" version = "0.1.0"
source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "3227c3b09b1e042dab7d8d82cea77c0404e7d0c2bbb92e7e87cb319749cd20dc"
dependencies = [ dependencies = [
"bitfields", "bitfields",
"libloading", "libloading",
+92 -21
View File
@@ -11,8 +11,8 @@
use anyhow::Result; use anyhow::Result;
use common::{ use common::{
encode_video_frame, read_control, write_control, ControlMsg, InputEvent, MouseButton, encode_video_frame, h264_contains_idr, read_control, write_control, ControlMsg, InputEvent,
VideoFrameHeader, MouseButton, VideoFrameHeader,
}; };
use openh264::encoder::{ use openh264::encoder::{
BitRate, Encoder, EncoderConfig, FrameRate, IntraFramePeriod, RateControlMode, UsageType, BitRate, Encoder, EncoderConfig, FrameRate, IntraFramePeriod, RateControlMode, UsageType,
@@ -79,11 +79,14 @@ pub struct EncoderSettings {
impl Default for EncoderSettings { impl Default for EncoderSettings {
fn default() -> Self { fn default() -> Self {
// 对标 UU:屏幕内容实时档;关键帧周期 300 帧 ≈ 10s // 关键帧周期:以**时间**为准而非固定帧数,避免帧率变化后恢复窗口漂移。
// 1 秒 @30fps = 30 帧。主恢复路径是 KeyFrameReq(协议 v2 后已确认生效),
// 自动 IDR 只是兜底;此前 300 帧 @30fps 意味着兜底窗口长达 10 秒。
let max_fps = 30.0f32;
Self { Self {
bitrate_bps: 5_000_000, bitrate_bps: 5_000_000,
max_fps: 30.0, max_fps,
intra_period: 300, intra_period: (max_fps as u32).max(1),
} }
} }
} }
@@ -125,23 +128,30 @@ enum LoopEnd {
} }
/// 编码一帧并推入下行通道。返回 false 表示通道已关闭(会话结束)。 /// 编码一帧并推入下行通道。返回 false 表示通道已关闭(会话结束)。
///
/// `seq` 由调用方持有并自增:帧序号必须覆盖**每一次实际发送**(含静止桌面重发),
/// 不能由编码器计数(编码器只知道编码了多少帧,不知道发了多少帧)。
fn encode_send( fn encode_send(
encoder: &mut Encoder, encoder: &mut Encoder,
raw: &[u8], raw: &[u8],
(w, h): (u32, u32), (w, h): (u32, u32),
ts_ms: u64, ts_ms: u64,
seq: u64,
tx: &watch::Sender<Option<Vec<u8>>>, tx: &watch::Sender<Option<Vec<u8>>>,
last_frame: &mut Option<Vec<u8>>, last_frame: &mut Option<Vec<u8>>,
) -> bool { ) -> bool {
let yuv = YUVBuffer::from_bgra8_source(BgraSliceU8::new(raw, (w as usize, h as usize)));
match encoder.encode(&yuv) {
Ok(ebs) => {
let payload = ebs.to_vec();
let header = VideoFrameHeader { let header = VideoFrameHeader {
width: w, width: w,
height: h, height: h,
ts_ms, ts_ms,
seq,
keyframe: h264_contains_idr(&payload),
}; };
let yuv = YUVBuffer::from_bgra8_source(BgraSliceU8::new(raw, (w as usize, h as usize))); let frame = encode_video_frame(&header, &payload);
match encoder.encode(&yuv) {
Ok(ebs) => {
let frame = encode_video_frame(&header, &ebs.to_vec());
if tx.send(Some(frame.clone())).is_err() { if tx.send(Some(frame.clone())).is_err() {
return false; return false;
} }
@@ -178,6 +188,8 @@ fn capture_session(
// 保留最近一帧裸像素:静止桌面收到关键帧请求时,仍能重编一个真关键帧 // 保留最近一帧裸像素:静止桌面收到关键帧请求时,仍能重编一个真关键帧
let mut last_raw: Option<Vec<u8>> = None; let mut last_raw: Option<Vec<u8>> = None;
let mut last_sent = Instant::now() - Duration::from_secs(10); let mut last_sent = Instant::now() - Duration::from_secs(10);
// 帧序号:覆盖每一次实际发送(含静止桌面重发),供主控端做丢帧检测
let mut seq: u64 = 0;
loop { loop {
let iter_start = Instant::now(); let iter_start = Instant::now();
@@ -189,9 +201,10 @@ fn capture_session(
encoder.force_intra_frame(); encoder.force_intra_frame();
} }
let ts = start.elapsed().as_millis() as u64; let ts = start.elapsed().as_millis() as u64;
if !encode_send(&mut encoder, &raw, (w, h), ts, tx, &mut last_frame) { if !encode_send(&mut encoder, &raw, (w, h), ts, seq, tx, &mut last_frame) {
return LoopEnd::ChannelClosed; // 会话结束 return LoopEnd::ChannelClosed; // 会话结束
} }
seq = seq.wrapping_add(1);
last_raw = Some(raw); last_raw = Some(raw);
last_sent = Instant::now(); last_sent = Instant::now();
// 帧间隔节流到 max_fps // 帧间隔节流到 max_fps
@@ -206,24 +219,56 @@ fn capture_session(
} }
}, },
Ok(false) => { Ok(false) => {
// 静止桌面:先看关键帧请求,再决定是否走 500ms 保活节流。
//
// ⚠️ 这里必须保证「消费了标志就一定发送」:先前写法是
// `if force && last_raw.is_some() { ... }`,当 force 为真但
// last_raw 还是 None(刚建会话、尚未抓到任何一帧)时,标志被
// swap 消费掉却没有发送,解码端的这次请求就永久丢失。
let force = keyreq.swap(false, Ordering::Relaxed); let force = keyreq.swap(false, Ordering::Relaxed);
if force && last_raw.is_some() { let can_key = last_raw.is_some();
if force && !can_key {
// 还没有裸帧可重编:把请求还回去,让下一轮(拿到首帧后)继续生效
keyreq.store(true, Ordering::Relaxed);
eprintln!("[capture] KeyFrameReq 暂存:尚无裸帧可重编");
std::thread::sleep(Duration::from_millis(8));
} else if force {
// 静止桌面下的关键帧恢复:画面没变不代表可以不给关键帧—— // 静止桌面下的关键帧恢复:画面没变不代表可以不给关键帧——
// 解码端一旦出错,若只会收到旧 P 帧就永远恢复不了 // 解码端一旦出错,若只会收到旧 P 帧就永远恢复不了。
// 关键帧请求绕过 500ms 节流:它是错误恢复路径,延迟一次 IDR
// 的代价是持续黑屏,远高于多发一帧的带宽成本。
encoder.force_intra_frame(); encoder.force_intra_frame();
let raw = last_raw.as_ref().expect("上面已判断 is_some"); let raw = last_raw.as_ref().expect("can_key 已保证");
let ts = start.elapsed().as_millis() as u64; let ts = start.elapsed().as_millis() as u64;
if !encode_send(&mut encoder, raw, (w, h), ts, tx, &mut last_frame) { if !encode_send(&mut encoder, raw, (w, h), ts, seq, tx, &mut last_frame) {
return LoopEnd::ChannelClosed; return LoopEnd::ChannelClosed;
} }
seq = seq.wrapping_add(1);
last_sent = Instant::now(); last_sent = Instant::now();
} else if last_sent.elapsed() > Duration::from_millis(500) && last_frame.is_some() { } else if last_sent.elapsed() > Duration::from_millis(500) && last_frame.is_some() {
// 桌面静止:低频重发最后一帧(重复 P 帧,解码端画面不变) // 桌面静止:低频重发最后一帧(重复 P 帧,解码端画面不变)。
// 帧头必须重建:直接 clone 旧帧会让 seq/ts_ms 停在上次发送时刻,
// 破坏 seq 单调递增契约。
let f = last_frame.as_ref().expect("上面已判断 is_some"); let f = last_frame.as_ref().expect("上面已判断 is_some");
if tx.send(Some(f.clone())).is_err() { match common::split_video_frame(f) {
Ok((mut hdr, payload)) => {
hdr.seq = seq;
hdr.ts_ms = start.elapsed().as_millis() as u64;
let frame = encode_video_frame(&hdr, payload);
if tx.send(Some(frame)).is_err() {
return LoopEnd::ChannelClosed; return LoopEnd::ChannelClosed;
} }
seq = seq.wrapping_add(1);
last_sent = Instant::now(); last_sent = Instant::now();
}
Err(e) => {
// 自己产出的帧解析失败 = 编码/封装路径有 bug。
// 丢弃缓存而不是每轮重复报错:静止桌面下这里会以 ~125Hz 触发。
eprintln!("[capture] 静止重发时帧格式异常,丢弃缓存: {e}");
last_frame = None;
std::thread::sleep(Duration::from_millis(8));
}
}
} else { } else {
std::thread::sleep(Duration::from_millis(8)); std::thread::sleep(Duration::from_millis(8));
} }
@@ -318,20 +363,46 @@ where
let (mut send, mut recv) = conn.accept_bi().await?; let (mut send, mut recv) = conn.accept_bi().await?;
let first = read_control(&mut recv).await?; let first = read_control(&mut recv).await?;
let code_ok = matches!(&first, ControlMsg::Auth { code: c } if *c == cfg.code); // 先校验版本,再校验验证码:版本不一致时字段布局可能不同,验证码的解析结果不可信
if !code_ok { let auth_err: Option<String> = match &first {
write_control(&mut send, &ControlMsg::AuthFail("bad code".into())).await?; ControlMsg::Auth {
code: c,
proto_version,
} => {
if *proto_version != common::PROTO_VERSION {
Some(format!(
"protocol version mismatch: client={proto_version}, server={}",
common::PROTO_VERSION
))
} else if *c != cfg.code {
Some("bad code".into())
} else {
None
}
}
other => Some(format!("expected Auth, got {other:?}")),
};
if let Some(msg) = auth_err {
write_control(&mut send, &ControlMsg::AuthFail(msg.clone())).await?;
send.finish()?; send.finish()?;
// 必须等对端读到 AuthFail 并挂断再退出:直接 return 会让进程带走 QUIC // 必须等对端读到 AuthFail 并挂断再退出:直接 return 会让进程带走 QUIC
// 缓冲区里尚未发出的数据,客户端只会看到 "connection lost" 而不是 AuthFail // 缓冲区里尚未发出的数据,客户端只会看到 "connection lost" 而不是 AuthFail
let _ = tokio::time::timeout(Duration::from_secs(5), conn.closed()).await; let _ = tokio::time::timeout(Duration::from_secs(5), conn.closed()).await;
anyhow::bail!("auth failed"); anyhow::bail!(msg);
} }
// 采集后端先建一次:既拿桌面尺寸回给主控端,也避免白建一个 duplication 只为读尺寸 // 采集后端先建一次:既拿桌面尺寸回给主控端,也避免白建一个 duplication 只为读尺寸
let first_cap = capture_factory()?; let first_cap = capture_factory()?;
let (w, h) = first_cap.size(); let (w, h) = first_cap.size();
write_control(&mut send, &ControlMsg::AuthOk { width: w, height: h }).await?; write_control(
&mut send,
&ControlMsg::AuthOk {
width: w,
height: h,
proto_version: common::PROTO_VERSION,
},
)
.await?;
println!("[agent] auth ok, desktop {w}x{h}"); println!("[agent] auth ok, desktop {w}x{h}");
// 流 2:键鼠输入 + 控制上行(与视频分离,避免被视频积压阻塞) // 流 2:键鼠输入 + 控制上行(与视频分离,避免被视频积压阻塞)
+4 -1
View File
@@ -12,7 +12,10 @@ rustls.workspace = true
rcgen.workspace = true rcgen.workspace = true
lz4_flex.workspace = true lz4_flex.workspace = true
openh264 = { version = "0.9.9", features = ["source"] } openh264 = { version = "0.9.9", features = ["source"] }
nvenc = "0.1.0" # 上游 nvenc 0.1.0 的 encode_picture 只设 picture_type=IDR、不置 FORCEIDR 标志,
# 导致运行期 KeyFrameReq 被编码器静默忽略(实测输出 NAL type=1 而非 5)。
# vendor 版本补上了该标志,见 vendor/nvenc/src/safe/encoder.rs 的「本项目补丁」注释。
nvenc = { path = "../vendor/nvenc" }
windows = { workspace = true, features = [ windows = { workspace = true, features = [
"Win32_Foundation", "Win32_Foundation",
"Win32_Graphics_Direct3D", "Win32_Graphics_Direct3D",
+316
View File
@@ -0,0 +1,316 @@
//! 临时诊断工具:抓 agent 下发的码流,逐帧打印 NAL 结构并试解码。
//!
//! 目的:定位「首帧能解、之后连续 decode failed」的根因,不靠猜。
//!
//! 用法:
//! cargo run --release -p agent --bin dump_stream -- --port 47805 --code t
//! cargo run --release -p agent --bin dump_stream -- --port 47805 --code t --skip-at 2
//!
//! `--skip-at N`:模拟主控端的「积压跳帧」行为——第 N 帧读出但不喂给解码器,
//! 用来验证「跳帧是否直接导致后续所有 P 帧解不出来」。
use anyhow::{bail, Result};
use common::{read_control, read_video_frame, write_control, ControlMsg};
use openh264::decoder::Decoder;
use rustls::client::danger::{HandshakeSignatureValid, ServerCertVerified, ServerCertVerifier};
use rustls::pki_types::{CertificateDer, ServerName, UnixTime};
use rustls::{DigitallySignedStruct, SignatureScheme};
use std::net::ToSocketAddrs;
use std::sync::Arc;
use std::time::Duration;
#[derive(Debug)]
struct SkipVerify;
impl ServerCertVerifier for SkipVerify {
fn verify_server_cert(
&self,
_e: &CertificateDer<'_>,
_i: &[CertificateDer<'_>],
_s: &ServerName<'_>,
_o: &[u8],
_n: UnixTime,
) -> Result<ServerCertVerified, rustls::Error> {
Ok(ServerCertVerified::assertion())
}
fn verify_tls12_signature(
&self,
_m: &[u8],
_c: &CertificateDer<'_>,
_d: &DigitallySignedStruct,
) -> Result<HandshakeSignatureValid, rustls::Error> {
Ok(HandshakeSignatureValid::assertion())
}
fn verify_tls13_signature(
&self,
_m: &[u8],
_c: &CertificateDer<'_>,
_d: &DigitallySignedStruct,
) -> Result<HandshakeSignatureValid, rustls::Error> {
Ok(HandshakeSignatureValid::assertion())
}
fn supported_verify_schemes(&self) -> Vec<SignatureScheme> {
vec![
SignatureScheme::RSA_PKCS1_SHA256,
SignatureScheme::ECDSA_NISTP256_SHA256,
SignatureScheme::ED25519,
SignatureScheme::RSA_PSS_SHA256,
]
}
}
/// 扫 Annex-B 起始码,返回 NAL 类型列表(如 [7, 8, 5])
fn nal_types(payload: &[u8]) -> Vec<u8> {
let mut out = Vec::new();
let mut i = 0usize;
while i + 3 < payload.len() {
let sc = if payload[i..].starts_with(&[0, 0, 0, 1]) {
4
} else if payload[i..].starts_with(&[0, 0, 1]) {
3
} else {
i += 1;
continue;
};
match payload.get(i + sc) {
Some(&b) => {
out.push(b & 0x1F);
i += sc + 1;
}
None => break,
}
}
out
}
fn describe(types: &[u8]) -> String {
let has = |t: u8| types.contains(&t);
let mut s = String::new();
if has(7) {
s.push_str("SPS ");
}
if has(8) {
s.push_str("PPS ");
}
if has(5) {
s.push_str("IDR ");
}
if has(1) {
s.push_str("P ");
}
if has(6) {
s.push_str("SEI ");
}
if s.is_empty() {
s.push_str("(未知)");
}
format!("{}[{}]", s.trim(), types.len())
}
fn arg(name: &str) -> Option<String> {
let a: Vec<String> = std::env::args().collect();
a.iter()
.position(|x| x == name)
.and_then(|i| a.get(i + 1))
.cloned()
}
#[tokio::main]
async fn main() -> Result<()> {
rustls::crypto::ring::default_provider()
.install_default()
.ok();
let port: u16 = arg("--port")
.map(|s| s.parse())
.transpose()?
.unwrap_or(47800);
let code = arg("--code").unwrap_or_else(|| "123456".into());
let skip_at: Option<usize> = arg("--skip-at").map(|s| s.parse()).transpose()?;
let total: usize = arg("--frames")
.map(|s| s.parse())
.transpose()?
.unwrap_or(30);
// --save <路径>:把**裸 H.264 码流**(各帧载荷按到达顺序直接拼接)
// 写成 Annex-B 文件,供安卓 MediaCodec 等外部解码器验证兼容性。
// 注意存的是载荷而非完整帧(不含自定义帧头),因为外部解码器只认标准 Annex-B。
let save_path = arg("--save");
let tls = rustls::ClientConfig::builder()
.dangerous()
.with_custom_certificate_verifier(Arc::new(SkipVerify))
.with_no_client_auth();
let qc: quinn::crypto::rustls::QuicClientConfig = Arc::new(tls).try_into()?;
let mut transport = quinn::TransportConfig::default();
transport.receive_window(quinn::VarInt::from_u32(16 * 1024 * 1024));
transport.stream_receive_window(quinn::VarInt::from_u32(8 * 1024 * 1024));
let mut client_config = quinn::ClientConfig::new(Arc::new(qc));
client_config.transport_config(Arc::new(transport));
let mut endpoint = quinn::Endpoint::client("0.0.0.0:0".parse()?)?;
endpoint.set_default_client_config(client_config);
let addr = ("127.0.0.1", port)
.to_socket_addrs()?
.next()
.ok_or_else(|| anyhow::anyhow!("解析失败"))?;
let conn = endpoint.connect(addr, "localhost")?.await?;
println!("[dump] connected");
let (mut send, mut recv) = conn.open_bi().await?;
write_control(
&mut send,
&ControlMsg::Auth {
code,
proto_version: common::PROTO_VERSION,
},
)
.await?;
match read_control(&mut recv).await? {
ControlMsg::AuthOk {
width,
height,
proto_version,
} => println!("[dump] auth ok {width}x{height} proto={proto_version}"),
other => bail!("认证失败: {other:?}"),
}
let (mut isend, _irecv) = conn.open_bi().await?;
// 入会先请求一次 IDR,和 viewer 行为一致。
// 注意:KeyFrameReq 必须走**流 2**(isend),agent 的读循环只监听流 2。
write_control(&mut isend, &ControlMsg::KeyFrameReq).await?;
let mut decoder = Decoder::new()?;
let mut sent_kfreq = false;
// 累积裸码流,用于 --save
let mut saved: Vec<u8> = Vec::new();
println!("\n序号 seq kf 载荷字节 NAL 结构 解码结果");
println!("{}", "-".repeat(72));
for i in 0..total {
let (hdr, payload) = match tokio::time::timeout(
Duration::from_secs(10),
read_video_frame(&mut recv),
)
.await
{
Ok(r) => r?,
Err(_) => {
println!("[{i}] 读帧超时(桌面可能完全静止)");
break;
}
};
let types = nal_types(&payload);
let is_idr = types.contains(&5);
// 需要在 save 里也保留这一帧时,先记录到缓冲
if save_path.is_some() {
saved.extend_from_slice(&payload);
}
// 交叉校验:帧头 keyframe 标志必须与码流实际 NAL 类型一致。
// 这条不一致意味着时间戳/序号契约或编码器标志有 bug,比画面花屏更难排查。
if hdr.keyframe != is_idr {
println!(
" ⚠️ 帧头 keyframe={} 但码流实际 IDR={}(seq={})",
hdr.keyframe, is_idr, hdr.seq
);
}
// 模拟主控端积压跳帧:读出但不解码
if Some(i) == skip_at {
println!(
"[{i:2}] {:3} {:<5} {:8} {:<14} ⏭ 跳过解码(模拟积压跳帧)",
hdr.seq,
hdr.keyframe,
payload.len(),
describe(&types)
);
continue;
}
let res = match decoder.decode(&payload) {
Ok(Some(_)) => "✅ 解出画面".to_string(),
Ok(None) => "○ 无输出(缓冲中)".to_string(),
Err(e) => format!("❌ {e}"),
};
println!(
"[{i:2}] {:3} {:<5} {:8} {:<14} {}",
hdr.seq,
hdr.keyframe,
payload.len(),
describe(&types),
res
);
// 和 viewer 一样:解码失败就请求关键帧
if res.starts_with('❌') && !sent_kfreq {
sent_kfreq = true;
write_control(&mut isend, &ControlMsg::KeyFrameReq).await?;
println!(" ↑ 已发 KeyFrameReq");
}
}
// 诊断:静止桌面下再请求一次关键帧,看是否真能拿到 IDR
println!("\n[dump] 再发一次 KeyFrameReq,观察 10 帧…");
write_control(&mut isend, &ControlMsg::KeyFrameReq).await?;
for i in 0..10 {
match tokio::time::timeout(Duration::from_secs(5), read_video_frame(&mut recv)).await {
Ok(Ok((hdr, payload))) => {
let types = nal_types(&payload);
println!(
"[k{i:2}] seq={:3} kf={:<5} {:6}B {}",
hdr.seq,
hdr.keyframe,
payload.len(),
describe(&types)
);
if types.contains(&5) {
println!(" ↑ 收到 IDR");
}
}
_ => {
println!("[k{i:2}] 超时/流关闭");
break;
}
}
}
// 导出裸码流文件(Annex-B 拼接),供外部解码器验证
if let Some(p) = save_path.as_ref() {
std::fs::write(p, &saved)?;
let idr_cnt = {
// 粗略统计 IDR 数量:扫起始码后的 NAL 类型
let mut n = 0;
let mut i = 0usize;
while i + 3 < saved.len() {
let sc = if saved[i..].starts_with(&[0, 0, 0, 1]) {
4
} else if saved[i..].starts_with(&[0, 0, 1]) {
3
} else {
i += 1;
continue;
};
match saved.get(i + sc) {
Some(&b) if b & 0x1F == 5 => {
n += 1;
i += sc + 1;
}
Some(_) => i += sc + 1,
None => break,
}
}
n
};
println!(
"\n[dump] 已保存裸码流: {p}({} 字节,含 {idr_cnt} 个 IDR)",
saved.len()
);
}
let _ = conn.close(0u32.into(), b"done");
Ok(())
}
+119 -20
View File
@@ -4,7 +4,7 @@
//! 支持主控端 KeyFrameReq 强制关键帧(解码异常恢复)。 //! 支持主控端 KeyFrameReq 强制关键帧(解码异常恢复)。
use anyhow::{anyhow, Result}; use anyhow::{anyhow, Result};
use common::{encode_video_frame, VideoFrameHeader}; use common::{encode_video_frame, h264_contains_idr, VideoFrameHeader};
use nvenc::bitstream::BitStream; use nvenc::bitstream::BitStream;
use nvenc::encoder::RegisteredResource; use nvenc::encoder::RegisteredResource;
use nvenc::session::{InitParams, Session}; use nvenc::session::{InitParams, Session};
@@ -39,6 +39,17 @@ use windows::Win32::Graphics::Dxgi::{
use std::time::{Duration, Instant}; use std::time::{Duration, Instant};
/// 周期 IDR 的帧间隔(兜底恢复点)。
///
/// 两个编码器共用同一常量,避免 NVENC 与软编的恢复窗口不一致——此前分别是
/// 240 帧@60fps=4s 与 300 帧@60fps=5s,而 Linux 端又是 300 帧@30fps=10s。
///
/// 取值理由:**主恢复路径是 KeyFrameReq,不是自动 IDR**(协议 v2 后已确认请求
/// 真正生效,见 vendor/nvenc 的 FORCEIDR 补丁)。自动 IDR 只用于兜底
/// 「请求连续丢失」这种极端情况。60 帧 @60fps = 1 秒,既足够兜底,
/// 又不会因过密的整帧内编码抬高码率。
pub const INTRA_PERIOD_FRAMES: u32 = 60;
pub struct Duplication { pub struct Duplication {
pub device: ID3D11Device, pub device: ID3D11Device,
context: ID3D11DeviceContext, context: ID3D11DeviceContext,
@@ -201,8 +212,15 @@ impl NvencEncoder {
// CBR 桌面实时档:码率恒定,延迟可预测(对标 UU 3.2Mbps@60fps) // CBR 桌面实时档:码率恒定,延迟可预测(对标 UU 3.2Mbps@60fps)
config.preset_cfg.rc_params.rate_control_mode = NVencParamsRcMode::CBR; config.preset_cfg.rc_params.rate_control_mode = NVencParamsRcMode::CBR;
config.preset_cfg.rc_params.average_bit_rate = bitrate_bps; config.preset_cfg.rc_params.average_bit_rate = bitrate_bps;
config.preset_cfg.gop_len = 240; // 周期 IDR(60fps 下 4s):网络异常后的自愈恢复点, // 周期 IDR 是**兜底恢复点**,不是主恢复路径——主路径是 KeyFrameReq
// 配合 KeyFrameReq 即时恢复,避免长时间冻结 // (协议 v2 后已确认真正生效,见 vendor/nvenc 的 FORCEIDR 补丁)。
//
// 取值权衡:GOP 越短,丢帧后自动恢复越快,但每次 IDR 都是整帧内编码,
// 码率开销显著(1080p 桌面 IDR 通常数倍于 P 帧)。
// 60 帧 @60fps = 1s:既覆盖「KeyFrameReq 连续丢失」这种极端情况,
// 又把兜底窗口压到 1 秒以内。原先 240 帧 = 4s,在请求已可靠的前提下
// 只会让受害时长无谓地长 4 倍。
config.preset_cfg.gop_len = INTRA_PERIOD_FRAMES;
config.preset_cfg.frame_interval_p = 1; // 无 B 帧 config.preset_cfg.frame_interval_p = 1; // 无 B 帧
let init = InitParams { let init = InitParams {
@@ -312,7 +330,9 @@ pub fn run(tx: Sender<Option<Vec<u8>>>, keyreq: Arc<AtomicBool>, congestion: Arc
.max_frame_rate(FrameRate::from_hz(60.0)) .max_frame_rate(FrameRate::from_hz(60.0))
.rate_control_mode(RateControlMode::Bitrate) .rate_control_mode(RateControlMode::Bitrate)
.usage_type(UsageType::ScreenContentRealTime) .usage_type(UsageType::ScreenContentRealTime)
.intra_frame_period(IntraFramePeriod::from_num_frames(300)) .intra_frame_period(IntraFramePeriod::from_num_frames(
INTRA_PERIOD_FRAMES,
))
.num_threads(4), .num_threads(4),
) { ) {
Ok(e) => { Ok(e) => {
@@ -327,29 +347,41 @@ pub fn run(tx: Sender<Option<Vec<u8>>>, keyreq: Arc<AtomicBool>, congestion: Arc
} }
}; };
let mut last_frame: Option<Vec<u8>> = None; // 软编静止重发 // 最近一帧的**裸载荷**与关键帧标志:静止重发时要用它们重建帧头,
// 不能直接重发整帧(那样 seq/ts_ms 会停在上次发送时刻)
let mut last_payload: Option<Vec<u8>> = None;
let mut last_kf = false;
let mut last_sent = Instant::now() - Duration::from_secs(10); let mut last_sent = Instant::now() - Duration::from_secs(10);
let min_frame = Duration::from_millis(16); // 60fps 上限 let min_frame = Duration::from_millis(16); // 60fps 上限
let mut scratch: Vec<u8> = Vec::new(); // 软编:行距不连续时的复用缓冲 let mut scratch: Vec<u8> = Vec::new(); // 软编:行距不连续时的复用缓冲
// 帧序号:每发一帧 +1(含静止桌面的重复帧),供主控端做丢帧检测
let mut seq: u64 = 0;
// 编码耗时统计(每 120 帧输出一次均值,ms) // 编码耗时统计(每 120 帧输出一次均值,ms)
let mut stat_frames = 0u64; let mut stat_frames = 0u64;
let mut stat_convert_ms = 0u64; let mut stat_convert_ms = 0u64;
let mut stat_encode_ms = 0u64; let mut stat_encode_ms = 0u64;
let mut stat_skipped = 0u64; // 拥塞跳帧计数 let mut stat_skipped = 0u64; // 拥塞跳帧计数
// `$kf` 由调用点显式给出:NVENC 路径知道 `force_key`,软编路径同理。
// 不要在这里猜——首帧和 KeyFrameReq 都会产生 IDR,猜错会让解码端错过重同步点。
macro_rules! emit { macro_rules! emit {
($payload:expr) => {{ ($payload:expr, $kf:expr) => {{
let header = VideoFrameHeader { let header = VideoFrameHeader {
width: dup.width, width: dup.width,
height: dup.height, height: dup.height,
ts_ms: start.elapsed().as_millis() as u64, ts_ms: start.elapsed().as_millis() as u64,
seq,
keyframe: $kf,
}; };
let frame = encode_video_frame(&header, &$payload); let payload_vec: Vec<u8> = $payload;
let frame = encode_video_frame(&header, &payload_vec);
if tx.send(Some(frame.clone())).is_err() { if tx.send(Some(frame.clone())).is_err() {
return; // 会话结束 return; // 会话结束
} }
last_frame = Some(frame); last_payload = Some(payload_vec);
last_kf = $kf;
last_sent = Instant::now(); last_sent = Instant::now();
seq = seq.wrapping_add(1);
stat_frames += 1; stat_frames += 1;
}}; }};
} }
@@ -358,10 +390,12 @@ pub fn run(tx: Sender<Option<Vec<u8>>>, keyreq: Arc<AtomicBool>, congestion: Arc
let iter_start = Instant::now(); let iter_start = Instant::now();
match dup.acquire(80) { match dup.acquire(80) {
Ok(true) => { Ok(true) => {
// 主控端请求关键帧(解码异常恢复)
let force_key = keyreq.swap(false, Ordering::Relaxed);
// 拥塞反馈:发送侧排队深 → 跳过本帧(NVENC 少输入一帧,参考链连续; // 拥塞反馈:发送侧排队深 → 跳过本帧(NVENC 少输入一帧,参考链连续;
// 解码端收到的帧序 = 编码端实际输出序,无花屏风险) // 解码端收到的帧序 = 编码端实际输出序,无花屏风险)
//
// ⚠️ 必须放在消费 keyreq **之前**:先前顺序是「先 swap 再判断拥塞」,
// 一旦本帧因拥塞被跳过,已消费的 KeyFrameReq 就随 continue 一起丢失,
// 解码端等不到 IDR(与下方静止分支同源的缺陷)。
if congestion.swap(false, Ordering::Relaxed) { if congestion.swap(false, Ordering::Relaxed) {
stat_skipped += 1; stat_skipped += 1;
let el = iter_start.elapsed(); let el = iter_start.elapsed();
@@ -370,13 +404,19 @@ pub fn run(tx: Sender<Option<Vec<u8>>>, keyreq: Arc<AtomicBool>, congestion: Arc
} }
continue; continue;
} }
// 主控端请求关键帧(解码异常恢复)。走到这里一定会编码,
// 因此可以安全地消费标志。
let force_key = keyreq.swap(false, Ordering::Relaxed);
match &mut encoder { match &mut encoder {
EncoderKind::Nvenc(enc) => { EncoderKind::Nvenc(enc) => {
let enc_start = Instant::now(); let enc_start = Instant::now();
let r = enc.encode(force_key, start.elapsed().as_millis() as u64); let r = enc.encode(force_key, start.elapsed().as_millis() as u64);
stat_encode_ms += enc_start.elapsed().as_millis() as u64; stat_encode_ms += enc_start.elapsed().as_millis() as u64;
match r { match r {
Ok(payload) => emit!(payload), Ok(payload) => {
let kf = h264_contains_idr(&payload);
emit!(payload, kf)
}
Err(e) => eprintln!("[capture] nvenc encode failed: {e}"), Err(e) => eprintln!("[capture] nvenc encode failed: {e}"),
} }
} }
@@ -410,7 +450,11 @@ pub fn run(tx: Sender<Option<Vec<u8>>>, keyreq: Arc<AtomicBool>, congestion: Arc
let r = enc.encode(&yuv); let r = enc.encode(&yuv);
stat_encode_ms += enc_start.elapsed().as_millis() as u64; stat_encode_ms += enc_start.elapsed().as_millis() as u64;
match r { match r {
Ok(ebs) => emit!(ebs.to_vec()), Ok(ebs) => {
let payload = ebs.to_vec();
let kf = h264_contains_idr(&payload);
emit!(payload, kf)
}
Err(e) => { Err(e) => {
eprintln!("[capture] encode failed: {e}"); eprintln!("[capture] encode failed: {e}");
} }
@@ -442,25 +486,80 @@ pub fn run(tx: Sender<Option<Vec<u8>>>, keyreq: Arc<AtomicBool>, congestion: Arc
} }
Ok(false) => { Ok(false) => {
// 桌面静止:低频重发(丢包后恢复 + 会话保活)。 // 桌面静止:低频重发(丢包后恢复 + 会话保活)。
// 关键:KeyFrameReq 在桌面静止时也必须响应 —— 此前只在新帧路径 //
// 消费该标志,桌面完全静止时解码端请求 IDR 永远得不到响应 → 黑屏。 // ⚠️ 这里曾有三个缺陷,全部围绕「KeyFrameReq 被静默丢弃」:
// 1. `swap` 写在时间闸**外面**:请求若落在距上次发送 500ms 之内,
// 标志已被消费但分支不进入,该次请求直接丢失(手册 §6.1 第 3 条)。
// 2. 软编分支只重发旧码流、不看 force_key:永远吐不出 IDR(手册 §6.1 第 2 条)。
// 3. NVENC 分支虽然把 force_key 传给了编码器,但受第 1 条限制。
//
// 现在的语义:**关键帧请求绕过 500ms 节流**——它是错误恢复路径,
// 延迟一次 IDR 的代价是解码端持续黑屏,远高于多发一帧的带宽成本。
let force_key = keyreq.swap(false, Ordering::Relaxed); let force_key = keyreq.swap(false, Ordering::Relaxed);
if last_sent.elapsed() > Duration::from_millis(500) { let due = force_key || last_sent.elapsed() > Duration::from_millis(500);
if due {
match &mut encoder { match &mut encoder {
EncoderKind::Nvenc(enc) => { EncoderKind::Nvenc(enc) => {
// 重编当前 GPU 帧(内容未变,输出极小;force_key 时为 IDR) // 重编当前 GPU 帧(内容未变,输出极小;force_key 时为 IDR)
let r = enc.encode(force_key, start.elapsed().as_millis() as u64); let r = enc.encode(force_key, start.elapsed().as_millis() as u64);
match r { match r {
Ok(payload) => emit!(payload), Ok(payload) => {
let kf = h264_contains_idr(&payload);
emit!(payload, kf)
}
Err(e) => { Err(e) => {
eprintln!("[capture] nvenc idle encode failed: {e}") eprintln!("[capture] nvenc idle encode failed: {e}")
} }
} }
} }
EncoderKind::Soft(_) => { EncoderKind::Soft(enc) => {
// 软编:直接重发最后一帧码流副本 // 软编:静止桌面没有新像素可编,只能重发最近一帧。
if let Some(f) = last_frame.as_ref() { // 但 force_key 时必须真的重编出 IDR —— 重发旧 P 帧对
let _ = tx.send(Some(f.clone())); // 已经解不动的解码端毫无帮助。
//
// 裸像素来源:staging 纹理里仍是上一帧内容(DXGI 只在
// 有新帧时覆盖),重新 Map 一次即可,不必每帧额外拷 14MB。
if force_key {
enc.force_intra_frame();
let dims = (dup.width as usize, dup.height as usize);
let conv = dup.with_mapped(|src, pitch| {
if pitch == dims.0 * 4 {
YUVBuffer::from_bgra8_source(BgraSliceU8::new(
src, dims,
))
} else {
scratch.resize(dims.0 * dims.1 * 4, 0);
for (row, dst) in
scratch.chunks_exact_mut(dims.0 * 4).enumerate()
{
dst.copy_from_slice(
&src[row * pitch..row * pitch + dims.0 * 4],
);
}
YUVBuffer::from_bgra8_source(BgraSliceU8::new(
&scratch, dims,
))
}
});
match conv {
Ok(yuv) => match enc.encode(&yuv) {
Ok(ebs) => {
let payload = ebs.to_vec();
let kf = h264_contains_idr(&payload);
emit!(payload, kf)
}
Err(e) => eprintln!(
"[capture] idle keyframe encode failed: {e}"
),
},
Err(e) => {
eprintln!("[capture] idle keyframe convert failed: {e}")
}
}
} else if let Some(p) = last_payload.as_ref() {
// 非关键帧的保活重发:复用载荷但重建帧头(seq 必须递增)
let kf = last_kf;
emit!(p.clone(), kf)
} }
} }
} }
+32 -6
View File
@@ -69,16 +69,42 @@ async fn main() -> Result<()> {
// 流 1:认证 + 视频下行 // 流 1:认证 + 视频下行
let (mut send, mut recv) = conn.accept_bi().await?; let (mut send, mut recv) = conn.accept_bi().await?;
// 认证 // 认证:先校验版本,再校验验证码。
// 顺序刻意如此——版本不一致时字段布局可能不同,验证码的解析结果不可信。
let first = read_control(&mut recv).await?; let first = read_control(&mut recv).await?;
let code_ok = matches!(&first, ControlMsg::Auth { code: c } if *c == code); let auth_err: Option<String> = match &first {
if !code_ok { ControlMsg::Auth {
write_control(&mut send, &ControlMsg::AuthFail("bad code".into())).await?; code: c,
proto_version,
} => {
if *proto_version != common::PROTO_VERSION {
Some(format!(
"protocol version mismatch: client={proto_version}, server={}",
common::PROTO_VERSION
))
} else if *c != code {
Some("bad code".into())
} else {
None
}
}
other => Some(format!("expected Auth, got {other:?}")),
};
if let Some(msg) = auth_err {
write_control(&mut send, &ControlMsg::AuthFail(msg.clone())).await?;
send.finish()?; send.finish()?;
anyhow::bail!("auth failed"); anyhow::bail!(msg);
} }
let (w, h) = capture::desktop_size()?; let (w, h) = capture::desktop_size()?;
write_control(&mut send, &ControlMsg::AuthOk { width: w, height: h }).await?; write_control(
&mut send,
&ControlMsg::AuthOk {
width: w,
height: h,
proto_version: common::PROTO_VERSION,
},
)
.await?;
println!("[agent] auth ok, desktop {w}x{h}"); println!("[agent] auth ok, desktop {w}x{h}");
// 流 2:键鼠输入 + 控制上行(与视频分离,避免被视频积压阻塞) // 流 2:键鼠输入 + 控制上行(与视频分离,避免被视频积压阻塞)
+314 -7
View File
@@ -7,12 +7,29 @@ use anyhow::Result;
use serde::{Deserialize, Serialize}; use serde::{Deserialize, Serialize};
use tokio::io::{AsyncReadExt, AsyncWriteExt}; use tokio::io::{AsyncReadExt, AsyncWriteExt};
/// 媒体/控制协议版本。
///
/// **改动规则**:任何对 `ControlMsg` 或 `VideoFrameHeader` 字段的增删改都必须递增此值。
/// 理由:线格式是 bincode(按位置编码,无字段名),新增字段会让旧端解析失败或错位,
/// 且失败方式可能是静默的错误数据而非明确报错。递增后由 `Auth` 握手显式拒绝旧端,
/// 把"连上了但行为诡异"变成"连不上且提示升级"。
///
/// - v1:初版(无版本字段,隐式)
/// - v2:`Auth`/`AuthOk` 携带版本;帧头增加 `seq`/`keyframe`
pub const PROTO_VERSION: u16 = 2;
/// 控制通道消息(双向) /// 控制通道消息(双向)
#[derive(Debug, Clone, Serialize, Deserialize)] #[derive(Debug, Clone, Serialize, Deserialize)]
pub enum ControlMsg { pub enum ControlMsg {
/// 主控端认证(临时验证码,MVP 明文走 QUIC-TLS 加密通道) /// 主控端认证(临时验证码,MVP 明文走 QUIC-TLS 加密通道)。
Auth { code: String }, /// `proto_version` 必须等于 [`PROTO_VERSION`],否则被控端回 `AuthFail` 并拒绝。
AuthOk { width: u32, height: u32 }, Auth { code: String, proto_version: u16 },
/// 认证通过。`proto_version` 回显被控端的版本,供主控端确认双方一致。
AuthOk {
width: u32,
height: u32,
proto_version: u16,
},
AuthFail(String), AuthFail(String),
KeyFrameReq, KeyFrameReq,
Ping(u64), Ping(u64),
@@ -42,12 +59,22 @@ pub enum InputEvent {
KeyUp { scancode: u16, extended: bool }, KeyUp { scancode: u16, extended: bool },
} }
/// 视频帧头(载荷为 LZ4 压缩的 BGRA 像素,按行紧凑排列) /// 视频帧头。载荷为 H.264 Annex-B 码流(含 00 00 00 01 起始码)。
///
/// 字段语义:
/// - `width` / `height`:被控端桌面尺寸(逻辑尺寸,非编码对齐后的尺寸)
/// - `ts_ms`:被控端采集时刻(被控时钟),配合 Ping/Pong 估计的时钟偏移算端到端延迟
/// - `seq`:帧序号,从 0 单调递增,每发一帧 +1(含静止桌面的重复帧)。
/// 用于丢帧检测与弱网统计;注意它统计的是"发送序",不是"显示序"
/// - `keyframe`:本帧是否 IDR。解码端(尤其 MediaCodec)需要它决定是否重置解码器,
/// 不必再自己扫 NAL 起始码判断
#[derive(Debug, Clone, Serialize, Deserialize)] #[derive(Debug, Clone, Serialize, Deserialize)]
pub struct VideoFrameHeader { pub struct VideoFrameHeader {
pub width: u32, pub width: u32,
pub height: u32, pub height: u32,
pub ts_ms: u64, pub ts_ms: u64,
pub seq: u64,
pub keyframe: bool,
} }
async fn read_u32le<R: AsyncReadExt + Unpin>(r: &mut R) -> Result<u32> { async fn read_u32le<R: AsyncReadExt + Unpin>(r: &mut R) -> Result<u32> {
@@ -81,7 +108,9 @@ pub async fn read_control<R: AsyncReadExt + Unpin>(r: &mut R) -> Result<ControlM
Ok(bincode::deserialize(&buf)?) Ok(bincode::deserialize(&buf)?)
} }
/// 编码视频帧:[总长 u32][头长 u32][bincode 头][LZ4 载荷] /// 编码视频帧:[总长 u32][头长 u32][bincode 头][H.264 载荷]
///
/// `总长` 不含自身这 4 字节,等于 `4 + 头长 + 载荷长`。
pub fn encode_video_frame(header: &VideoFrameHeader, payload: &[u8]) -> Vec<u8> { pub fn encode_video_frame(header: &VideoFrameHeader, payload: &[u8]) -> Vec<u8> {
let hb = bincode::serialize(header).expect("serialize header"); let hb = bincode::serialize(header).expect("serialize header");
let total = 4 + hb.len() + payload.len(); let total = 4 + hb.len() + payload.len();
@@ -93,14 +122,292 @@ pub fn encode_video_frame(header: &VideoFrameHeader, payload: &[u8]) -> Vec<u8>
out out
} }
/// 单帧总长上限(256 MiB)。超过即视为协议错误或恶意输入。
const MAX_VIDEO_FRAME: usize = 256 << 20;
/// 判断一段 Annex-B H.264 码流里是否含 IDR 片(NAL 类型 5)。
///
/// 用途:填充 [`VideoFrameHeader::keyframe`]。
/// 为什么不问编码器要这个标志——NVENC 与 openh264 的 API 都能间接推出,
/// 但两者规则不同(首帧强制、`force_intra_frame`、GOP 自动 IDR 交织),
/// 而**实际输出**是唯一可信来源。直接看码流,两种编码器一套逻辑。
///
/// 只识别 3/4 字节起始码;`start-code emulation prevention` 由编码器保证,
/// 因此不会在 SPS/PPS 载荷里误判出起始码。
pub fn h264_contains_idr(payload: &[u8]) -> bool {
let mut i = 0usize;
while i + 3 < payload.len() {
let sc = if payload[i..].starts_with(&[0, 0, 0, 1]) {
4
} else if payload[i..].starts_with(&[0, 0, 1]) {
3
} else {
i += 1;
continue;
};
match payload.get(i + sc) {
// nal_unit_type 占首字节低 5 位
Some(&b) if b & 0x1F == 5 => return true,
Some(_) => i += sc + 1,
None => break,
}
}
false
}
/// 读一个视频帧。
///
/// 对端数据一律视为不可信输入:`total` 与 `hlen` 都必须做**上下界**校验,
/// 否则构造一个 `total < 4` 的帧就能让接收端在切片处 panic(进程级拒绝服务)。
pub async fn read_video_frame<R: AsyncReadExt + Unpin>( pub async fn read_video_frame<R: AsyncReadExt + Unpin>(
r: &mut R, r: &mut R,
) -> Result<(VideoFrameHeader, Vec<u8>)> { ) -> Result<(VideoFrameHeader, Vec<u8>)> {
let total = read_u32le(r).await? as usize; let total = read_u32le(r).await? as usize;
anyhow::ensure!(total < 256 << 20, "video frame too large: {total}"); // 下界:至少要容得下「头长字段(4) + 一个非空的 bincode 头」。
// 上界:防止对端声明超大长度导致巨量分配。
anyhow::ensure!(
(4..MAX_VIDEO_FRAME).contains(&total),
"video frame length out of range: {total}"
);
let mut buf = vec![0u8; total]; let mut buf = vec![0u8; total];
r.read_exact(&mut buf).await?; r.read_exact(&mut buf).await?;
let hlen = u32::from_le_bytes(buf[0..4].try_into().unwrap()) as usize;
let hlen = u32::from_le_bytes(buf[0..4].try_into().expect("已校验 total >= 4")) as usize;
// hlen 必须落在 [1, total-4] 内:0 无法反序列化,超出则切片越界
anyhow::ensure!(
hlen > 0 && hlen <= total - 4,
"video header length invalid: hlen={hlen}, total={total}"
);
let header: VideoFrameHeader = bincode::deserialize(&buf[4..4 + hlen])?; let header: VideoFrameHeader = bincode::deserialize(&buf[4..4 + hlen])?;
Ok((header, buf[4 + hlen..].to_vec())) Ok((header, buf[4 + hlen..].to_vec()))
} }
/// 把一个已编码的完整帧拆回 `(帧头, 载荷)`。
///
/// 用途:静止桌面重发时,被控端需要复用上一帧的**载荷**但重建**帧头**
/// (`seq` 必须递增、`ts_ms` 必须是本次发送时刻)。直接 `clone` 整个帧会让
/// 这两个字段停在上一次发送的时刻,破坏 `seq` 单调递增契约。
///
/// 只接受本模块 [`encode_video_frame`] 产出的字节;格式不符返回 `Err`。
pub fn split_video_frame(frame: &[u8]) -> Result<(VideoFrameHeader, &[u8])> {
anyhow::ensure!(frame.len() >= 8, "frame too short: {}", frame.len());
let hlen = u32::from_le_bytes(frame[4..8].try_into().expect("已校验 len >= 8")) as usize;
anyhow::ensure!(
hlen > 0 && hlen <= frame.len() - 8,
"header length invalid: hlen={hlen}, len={}",
frame.len()
);
let header: VideoFrameHeader = bincode::deserialize(&frame[8..8 + hlen])?;
Ok((header, &frame[8 + hlen..]))
}
#[cfg(test)]
mod tests {
use super::*;
use tokio::io::duplex;
fn hdr(seq: u64, keyframe: bool) -> VideoFrameHeader {
VideoFrameHeader {
width: 1920,
height: 1080,
ts_ms: 12345,
seq,
keyframe,
}
}
// ---- 控制消息 ----
#[test]
fn control_roundtrip_preserves_version() {
let m = ControlMsg::Auth {
code: "123456".into(),
proto_version: PROTO_VERSION,
};
let bytes = encode_control(&m);
// 长度前缀 + 载荷
let len = u32::from_le_bytes(bytes[0..4].try_into().unwrap()) as usize;
assert_eq!(len, bytes.len() - 4);
let back: ControlMsg = bincode::deserialize(&bytes[4..]).unwrap();
match back {
ControlMsg::Auth { code, proto_version } => {
assert_eq!(code, "123456");
assert_eq!(proto_version, PROTO_VERSION);
}
other => panic!("期望 Auth,实际 {other:?}"),
}
}
#[tokio::test]
async fn control_write_read_roundtrip() {
let (mut a, mut b) = duplex(64 * 1024);
let msgs = [
ControlMsg::Auth {
code: "x".into(),
proto_version: PROTO_VERSION,
},
ControlMsg::AuthOk {
width: 800,
height: 600,
proto_version: PROTO_VERSION,
},
ControlMsg::KeyFrameReq,
ControlMsg::Ping(42),
ControlMsg::Pong {
t: 1,
agent_ts: 2,
lost: 3,
sent: 4,
},
];
for m in &msgs {
write_control(&mut a, m).await.unwrap();
let got = read_control(&mut b).await.unwrap();
assert_eq!(format!("{got:?}"), format!("{m:?}"));
}
}
// ---- 视频帧头 ----
#[test]
fn video_header_roundtrip_keeps_seq_and_keyframe() {
for (seq, kf) in [(0u64, true), (1, false), (u64::MAX, false)] {
let h = hdr(seq, kf);
let payload = b"\x00\x00\x00\x01\x65fake-nal";
let bytes = encode_video_frame(&h, payload);
let total = u32::from_le_bytes(bytes[0..4].try_into().unwrap()) as usize;
assert_eq!(total, bytes.len() - 4, "总长字段应不含自身");
let hlen = u32::from_le_bytes(bytes[4..8].try_into().unwrap()) as usize;
let back: VideoFrameHeader = bincode::deserialize(&bytes[8..8 + hlen]).unwrap();
assert_eq!(back.seq, seq);
assert_eq!(back.keyframe, kf);
assert_eq!(&bytes[8 + hlen..], payload);
}
}
#[tokio::test]
async fn video_frame_write_read_roundtrip() {
let (mut a, mut b) = duplex(256 * 1024);
let h = hdr(7, true);
let payload = vec![0xABu8; 4096];
let bytes = encode_video_frame(&h, &payload);
tokio::io::AsyncWriteExt::write_all(&mut a, &bytes).await.unwrap();
let (h2, p2) = read_video_frame(&mut b).await.unwrap();
assert_eq!(h2.seq, 7);
assert!(h2.keyframe);
assert_eq!((h2.width, h2.height), (1920, 1080));
assert_eq!(p2, payload);
}
// ---- 不可信输入(P3 的核心回归) ----
/// `total < 4` 必须报错而不是 panic:旧实现在这里 `buf[0..4]` 会越界 panic。
#[tokio::test]
async fn rejects_total_below_minimum() {
for total in [0u32, 1, 3] {
let (mut a, mut b) = duplex(64);
tokio::io::AsyncWriteExt::write_all(&mut a, &total.to_le_bytes())
.await
.unwrap();
let err = read_video_frame(&mut b).await.unwrap_err().to_string();
assert!(
err.contains("out of range"),
"total={total} 应被拒绝,实际错误: {err}"
);
}
}
/// `total == 4` 但没有头数据:hlen 读出来是 0,必须拒绝。
#[tokio::test]
async fn rejects_zero_header_length() {
let (mut a, mut b) = duplex(64);
let mut bytes = 4u32.to_le_bytes().to_vec();
bytes.extend_from_slice(&0u32.to_le_bytes());
tokio::io::AsyncWriteExt::write_all(&mut a, &bytes)
.await
.unwrap();
let err = read_video_frame(&mut b).await.unwrap_err().to_string();
assert!(err.contains("header length invalid"), "实际错误: {err}");
}
/// hlen 声明超过 total-4:旧实现会切片越界 panic。
#[tokio::test]
async fn rejects_header_length_beyond_frame() {
let (mut a, mut b) = duplex(64);
// total = 8 → body 必须正好 8 字节(hlen 字段 4 + 4 字节填充)
let mut bytes = 8u32.to_le_bytes().to_vec();
bytes.extend_from_slice(&999u32.to_le_bytes()); // hlen = 999 > total-4 = 4
bytes.extend_from_slice(&[0u8; 4]);
tokio::io::AsyncWriteExt::write_all(&mut a, &bytes)
.await
.unwrap();
let err = read_video_frame(&mut b).await.unwrap_err().to_string();
assert!(err.contains("header length invalid"), "实际错误: {err}");
}
/// 超过 256 MiB 上限必须在**分配前**拒绝,不能先 vec! 再检查。
#[tokio::test]
async fn rejects_oversized_frame_without_allocating() {
let (mut a, mut b) = duplex(64);
let total = (MAX_VIDEO_FRAME as u32) + 1;
tokio::io::AsyncWriteExt::write_all(&mut a, &total.to_le_bytes())
.await
.unwrap();
let err = read_video_frame(&mut b).await.unwrap_err().to_string();
assert!(err.contains("out of range"), "实际错误: {err}");
}
/// 头部字节损坏(非合法 bincode)应返回 Err 而非 panic。
#[tokio::test]
async fn rejects_corrupt_header_bytes() {
let (mut a, mut b) = duplex(64);
let garbage = [0xFFu8; 8];
let total = (4 + garbage.len()) as u32;
let mut bytes = total.to_le_bytes().to_vec();
bytes.extend_from_slice(&(garbage.len() as u32).to_le_bytes());
bytes.extend_from_slice(&garbage);
tokio::io::AsyncWriteExt::write_all(&mut a, &bytes)
.await
.unwrap();
assert!(read_video_frame(&mut b).await.is_err());
}
// ---- IDR 识别(P2 的 keyframe 标志来源) ----
#[test]
fn detects_idr_in_annex_b() {
// SPS(7) + PPS(8) + IDR 片(5),4 字节起始码
let idr = [
0, 0, 0, 1, 0x67, 0xAA, // SPS
0, 0, 0, 1, 0x68, 0xBB, // PPS
0, 0, 0, 1, 0x65, 0xCC, // IDR
];
assert!(h264_contains_idr(&idr));
// 3 字节起始码也应识别
let idr3 = [0, 0, 1, 0x65, 0xCC];
assert!(h264_contains_idr(&idr3));
}
#[test]
fn rejects_non_idr_payloads() {
// 纯 P 片(NAL 类型 1)
let p_frame = [0, 0, 0, 1, 0x41, 0xDD];
assert!(!h264_contains_idr(&p_frame));
// 只有 SPS/PPS,没有片(关键帧边界可能落在下一个包,此时不应谎报 keyframe)
let params_only = [
0, 0, 0, 1, 0x67, 0xAA,
0, 0, 0, 1, 0x68, 0xBB,
];
assert!(!h264_contains_idr(&params_only));
assert!(!h264_contains_idr(&[]));
assert!(!h264_contains_idr(&[0, 0, 1])); // 起始码后无 NAL 字节
}
}
+3 -1
View File
@@ -242,8 +242,10 @@ mod tests {
#[test] #[test]
fn coordinate_scaling_covers_full_range() { fn coordinate_scaling_covers_full_range() {
assert_eq!(scale(0, 1920), 0); assert_eq!(scale(0, 1920), 0);
// 归一化上界必须映射到 extent-1,否则指针永远到不了屏幕最右/最下
assert_eq!(scale(65535, 1920), 1919); assert_eq!(scale(65535, 1920), 1919);
assert_eq!(scale(32768, 1920), 960); // 中点:32768 × 1919 ÷ 65535 = 959.49…,整数除法向下取整 → 959
assert_eq!(scale(32768, 1920), 959);
assert_eq!(scale(12345, 0), 0); // 退化尺寸不 panic assert_eq!(scale(12345, 0), 0); // 退化尺寸不 panic
} }
} }
+8 -1
View File
@@ -289,11 +289,17 @@ async fn end_to_end_capture_encode_transport_input() -> Result<()> {
&mut send, &mut send,
&ControlMsg::Auth { &ControlMsg::Auth {
code: "smoke-code".into(), code: "smoke-code".into(),
proto_version: common::PROTO_VERSION,
}, },
) )
.await?; .await?;
match read_control(&mut recv).await? { match read_control(&mut recv).await? {
ControlMsg::AuthOk { width, height } => { ControlMsg::AuthOk {
width,
height,
proto_version,
} => {
assert_eq!(proto_version, common::PROTO_VERSION, "被控端协议版本不符");
assert_eq!( assert_eq!(
(width, height), (width, height),
(sw, sh), (sw, sh),
@@ -429,6 +435,7 @@ async fn rejects_wrong_verification_code() -> Result<()> {
&mut send, &mut send,
&ControlMsg::Auth { &ControlMsg::Auth {
code: "wrong-code".into(), code: "wrong-code".into(),
proto_version: common::PROTO_VERSION,
}, },
) )
.await?; .await?;
+4 -1
View File
@@ -43,6 +43,9 @@ if [ "$ready" -ne 1 ]; then
fi fi
echo "[smoke] X server 就绪:$(xdpyinfo -display "$DISPLAY_NUM" | grep -E 'dimensions' | head -1)" echo "[smoke] X server 就绪:$(xdpyinfo -display "$DISPLAY_NUM" | grep -E 'dimensions' | head -1)"
# 两个测试共用同一块虚拟屏与指针,必须串行 # 先跑纯逻辑单测(键码映射 / 坐标换算),不需要 X server
cargo test -p linux-agent --bins
# 再跑端到端用例:两个用例共用同一块虚拟屏与指针,必须串行
cargo test -p linux-agent --test smoke -- --nocapture --test-threads=1 cargo test -p linux-agent --test smoke -- --nocapture --test-threads=1
echo "[smoke] 通过" echo "[smoke] 通过"
+25 -3
View File
@@ -174,8 +174,15 @@ class Probe:
self.stop = threading.Event() self.stop = threading.Event()
self.first_src = None self.first_src = None
self.packets = 0 self.packets = 0
self.junk = 0
def receiver(self): def receiver(self, ignore=()):
"""接收线程。
只认「以 MAGIC 开头」且「来自对端而非信令服务器」的包。
信令服务器的 PEER/WAIT 回复绝不能算作打通——否则客户端反复注册引来的
回复会造成假阳性(已踩过:把服务器的 PEER 回复误判成打洞成功)。
"""
while not self.stop.is_set(): while not self.stop.is_set():
try: try:
data, src = self.sock.recvfrom(2048) data, src = self.sock.recvfrom(2048)
@@ -188,6 +195,12 @@ class Probe:
if getattr(e, "winerror", None) == 10054: if getattr(e, "winerror", None) == 10054:
continue continue
break break
# ---- 过滤:非打洞包一律丢弃
if not data.startswith(MAGIC) or (ignore and src[:2] in ignore):
self.junk += 1
continue
if self.first_src is None: if self.first_src is None:
self.first_src = src self.first_src = src
print("\n ✅ 收到对方的包!") print("\n ✅ 收到对方的包!")
@@ -297,7 +310,13 @@ def main():
peer = found peer = found
print(" ✅ 配对成功,对方公网地址 = %s" % fmt_addr(found)) print(" ✅ 配对成功,对方公网地址 = %s" % fmt_addr(found))
t = threading.Thread(target=probe.receiver, daemon=True) # 信令服务器的回复(PEER/WAIT)绝不能算作打通,接收线程必须把它排除掉
ignore = set()
if args.server:
_sh, _sp, _sf = parse_addr(args.server)
ignore.add((_sh, _sp))
t = threading.Thread(target=probe.receiver, args=(ignore,), daemon=True)
t.start() t.start()
try: try:
@@ -328,7 +347,10 @@ def main():
print(" 对方实际源地址 = %s" % fmt_addr(probe.first_src)) print(" 对方实际源地址 = %s" % fmt_addr(probe.first_src))
print(" 共收到 %d 个包" % probe.packets) print(" 共收到 %d 个包" % probe.packets)
else: else:
print("结论:❌ 本轮没有收到对方的包") print("结论:❌ 本轮没有收到对方的打洞包")
if probe.junk:
print(" (另外收到 %d 个非打洞包并已忽略:那是信令服务器的回复,不算打通)"
% probe.junk)
print(" 可能原因(按概率排序):") print(" 可能原因(按概率排序):")
print(" 1. 一端或两端是对称型 NAT / 运营商级 NAT(CGNAT) → 需要端口预测或中继") print(" 1. 一端或两端是对称型 NAT / 运营商级 NAT(CGNAT) → 需要端口预测或中继")
print(" 2. 一方根本没发包(对方没启动、或地址填错/端口填错)") print(" 2. 一方根本没发包(对方没启动、或地址填错/端口填错)")
+2
View File
@@ -0,0 +1,2 @@
/target
/.vscode
+63
View File
@@ -0,0 +1,63 @@
# THIS FILE IS AUTOMATICALLY GENERATED BY CARGO
#
# When uploading crates to the registry Cargo will automatically
# "normalize" Cargo.toml files for maximal compatibility
# with all versions of Cargo and also rewrite `path` dependencies
# to registry (e.g., crates.io) dependencies.
#
# If you are reading this file be aware that the original Cargo.toml
# will likely look very different (and much more reasonable).
# See Cargo.toml.orig for the original contents.
[package]
edition = "2024"
rust-version = "1.85.1"
name = "nvenc"
version = "0.1.0"
authors = ["AlsoSylv"]
build = false
autolib = false
autobins = false
autoexamples = false
autotests = false
autobenches = false
description = "Wrapper for the nvidia NVENC API"
readme = "README.md"
keywords = [
"nvidia",
"graphics",
"media",
"video",
"ffi",
]
categories = [
"multimedia",
"external-ffi-bindings",
]
license = "MIT"
repository = "https://github.com/AlsoSylv/nvenc"
[lib]
name = "nvenc"
path = "src/lib.rs"
# 上游 README 的示例是已过时的 Linux GLX 用法(Session<NeedsConfig> 等类型已不存在),
# 直接跑 doctest 会失败。本项目只做 vendor 补丁、不维护文档示例,故关闭。
doctest = false
[[example]]
name = "simple_encode"
path = "examples/simple_encode.rs"
[dependencies.bitfields]
version = "1.0.2"
[dependencies.libloading]
version = "0.8.9"
[target."cfg(windows)".dependencies.windows]
version = "0.62"
features = [
"Win32_Graphics_Dxgi_Common",
"Win32_Graphics_Direct3D",
"Win32_Graphics_Direct3D11",
]
+24
View File
@@ -0,0 +1,24 @@
[package]
name = "nvenc"
version = "0.1.0"
edition = "2024"
authors = ["AlsoSylv"]
description = "Wrapper for the nvidia NVENC API"
rust-version = "1.85.1"
readme = "README.md"
repository = "https://github.com/AlsoSylv/nvenc"
license = "MIT"
keywords = ["nvidia", "graphics", "media", "video", "ffi"]
categories = ["multimedia", "external-ffi-bindings"]
[dependencies]
libloading = "0.8.9"
bitfields = "1.0.2"
[target.'cfg(windows)'.dependencies.windows]
version = "0.62"
features = [
"Win32_Graphics_Dxgi_Common",
"Win32_Graphics_Direct3D",
"Win32_Graphics_Direct3D11",
]
+27
View File
@@ -0,0 +1,27 @@
Notice Regarding Standards. I do not provide a license or sublicense to
any Intellectual Property Rights relating to any standards, including but not
limited to any audio and/or video codec technologies such as MPEG-2, MPEG-4;
AVC/H.264; HEVC/H.265; AAC decode/FFMPEG; AAC encode/FFMPEG; VC-1; and MP3
(collectively, the "Media Technologies"). For clarity, you will pay any
royalties due for such third party technologies, which may include the Media
Technologies that are owed as a result of me providing the Software to you.
Copyright 2025 AlsoSylv
Permission is hereby granted, free of charge, to any person obtaining a copy
of this software and associated documentation files (the "Software"), to deal
in the Software without restriction, including without limitation the rights
to use, copy, modify, merge, publish, distribute, sublicense, and/or sell
copies of the Software, and to permit persons to whom the Software is
furnished to do so, subject to the following conditions:
The above copyright notice and this permission notice shall be included in
all copies or substantial portions of the Software.
THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE
AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM,
OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN
THE SOFTWARE.
+34
View File
@@ -0,0 +1,34 @@
### If you like my work and want to support what I do, support me on Ko-Fi 💜!
[![Ko-Fi](https://img.shields.io/badge/Ko--fi-F16061?style=for-the-badge&logo=ko-fi&logoColor=white)](https://ko-fi.com/cyberite)
---
![Crates.io MSRV](https://img.shields.io/crates/msrv/nvenc?style=for-the-badge) ![Crates.io License](https://img.shields.io/crates/l/nvenc?style=for-the-badge) ![GitHub Repo stars](https://img.shields.io/github/stars/AlsoSylv/nvenc?style=for-the-badge)
The following example is for Linux GLX
```rust
use nvenc::{session::Session, encoder::Encoder};
fn main() {
// Setup GLX context
let session: Session<NeedsConfig> = Session::open_gl();
let (session, config): (Session<NeedsInit>, NVencPresetConfig)
= session.get_preset_config(
NV_ENC_CODEC_H264_GUID,
NV_ENC_PRESET_P3_GUID,
NVencTuningInfo::LowLatency
);
let init_params = nvenc::session::InitParams {
encode_guid: NV_ENC_H264_GUID,
preset_guid: NV_ENC_PRESET_P3_GUID,
resolution: [1920, 1080],
aspect_ratio: [16, 9],
frame_rate: [30, 1],
tuning_info: NVencTuningInfo::LowLatency,
buffer_format: NVencBufferFormat::ARGB,
encode_config: &mut config.preset_cfg,
enable_ptd: true,
};
let encoder: Encoder = session.init(init_params);
}
```
+203
View File
@@ -0,0 +1,203 @@
use std::fs::File;
use std::io::Write;
use std::time::Instant;
use nvenc::bitstream::BitStream;
use nvenc::session::InitParams;
use nvenc::{
session::Session,
sys::guids::{NV_ENC_CODEC_H264_GUID, NV_ENC_PRESET_P3_GUID},
};
#[cfg(windows)]
use windows::Win32::Graphics::Direct3D11::{ID3D11Device, ID3D11Texture2D};
#[cfg(windows)]
pub fn setup() -> ID3D11Device {
let dxgi_factory: windows::Win32::Graphics::Dxgi::IDXGIFactory =
unsafe { windows::Win32::Graphics::Dxgi::CreateDXGIFactory() }.unwrap();
let dxgi_adapter = unsafe { dxgi_factory.EnumAdapters(0) }.unwrap();
let desc = unsafe { dxgi_adapter.GetDesc() }.unwrap();
println!("{:?}", windows::core::HSTRING::from_wide(&desc.Description));
let mut device = None;
let mut device_context = None;
unsafe {
use windows::Win32::{
Foundation::HMODULE,
Graphics::{
Direct3D::{D3D_DRIVER_TYPE_UNKNOWN, D3D_FEATURE_LEVEL_11_0},
Direct3D11::{D3D11_CREATE_DEVICE_FLAG, D3D11_SDK_VERSION, D3D11CreateDevice},
},
};
D3D11CreateDevice(
&dxgi_adapter,
D3D_DRIVER_TYPE_UNKNOWN,
HMODULE(std::ptr::null_mut()),
D3D11_CREATE_DEVICE_FLAG(0),
Some(&[D3D_FEATURE_LEVEL_11_0]),
D3D11_SDK_VERSION,
Some(&raw mut device),
None,
Some(&raw mut device_context),
)
}
.unwrap();
let device = device.unwrap();
let _device_context = device_context.unwrap();
device
}
#[cfg(windows)]
fn image(device: &ID3D11Device) -> ID3D11Texture2D {
let data: [u8; 1920 * 4] = std::array::from_fn(|idx| match idx % 4 {
0 => 255,
1 => 0,
2 => 0,
3 => 255,
_ => unreachable!(),
});
let mut texture = None;
let desc = windows::Win32::Graphics::Direct3D11::D3D11_TEXTURE2D_DESC {
Width: 1920,
Height: 1080,
MipLevels: 1,
ArraySize: 1,
Format: windows::Win32::Graphics::Dxgi::Common::DXGI_FORMAT_R8G8B8A8_UNORM_SRGB,
SampleDesc: windows::Win32::Graphics::Dxgi::Common::DXGI_SAMPLE_DESC {
Count: 1,
Quality: 0,
},
Usage: windows::Win32::Graphics::Direct3D11::D3D11_USAGE_DEFAULT,
BindFlags: windows::Win32::Graphics::Direct3D11::D3D11_BIND_SHADER_RESOURCE.0 as u32,
CPUAccessFlags: windows::Win32::Graphics::Dxgi::Common::DXGI_CPU_ACCESS_NONE,
MiscFlags: 0,
};
let data = windows::Win32::Graphics::Direct3D11::D3D11_SUBRESOURCE_DATA {
pSysMem: data.as_ptr() as _,
SysMemPitch: 1920 * 4,
SysMemSlicePitch: 0,
};
unsafe {
device.CreateTexture2D(
&raw const desc,
Some(&raw const data),
Some(&raw mut texture),
)
}
.unwrap();
texture.unwrap()
}
fn main() {
let device = setup();
#[cfg(target_os = "linux")]
compile_error!("Linux is currently unsupported in this example");
#[cfg(windows)]
let session: Session<nvenc::session::NeedsConfig> = Session::open_dx(&device).unwrap();
assert!(
session
.get_encode_codecs()
.unwrap()
.contains(&NV_ENC_CODEC_H264_GUID)
);
assert!(
session
.get_encode_presets(NV_ENC_CODEC_H264_GUID)
.unwrap()
.contains(&NV_ENC_PRESET_P3_GUID)
);
let (session, mut config) = session
.get_encode_preset_config_ex(
NV_ENC_CODEC_H264_GUID,
NV_ENC_PRESET_P3_GUID,
nvenc::sys::enums::NVencTuningInfo::LowLatency,
)
.unwrap();
let texture = image(&device);
config.preset_cfg.rc_params.rate_control_mode = nvenc::sys::enums::NVencParamsRcMode::VBR;
config.preset_cfg.rc_params.average_bit_rate = 10_000_000;
config.preset_cfg.gop_len = 0xffffffff;
config.preset_cfg.frame_interval_p = 1;
println!("P-Frames: {}", config.preset_cfg.frame_interval_p);
println!("Bitrate: {}", config.preset_cfg.rc_params.average_bit_rate);
let init_params = InitParams {
encode_guid: NV_ENC_CODEC_H264_GUID,
preset_guid: NV_ENC_PRESET_P3_GUID,
aspect_ratio: [16, 9],
encode_config: &mut config.preset_cfg,
tuning_info: nvenc::sys::enums::NVencTuningInfo::LowLatency,
buffer_format: nvenc::sys::enums::NVencBufferFormat::ARGB,
frame_rate: [30, 1],
resolution: [1920, 1080],
enable_ptd: true,
max_encoder_resolution: [0, 0],
};
println!("FPS: 30");
println!("Len: 600 frames");
println!("Expected time: {}", 600 / 30);
println!("Codec: H264");
println!("Tuning Info {:?}:", init_params.tuning_info);
let encoder = session.init_encoder(init_params).unwrap();
let registered = encoder
.register_resource_dx11(&texture, nvenc::sys::enums::NVencBufferFormat::ARGB, 0)
.unwrap();
let (processed, to_use) = std::sync::mpsc::sync_channel::<BitStream>(2);
let (re_use, to_process) = std::sync::mpsc::sync_channel::<BitStream>(2);
processed
.send(encoder.create_bitstream_buffer().unwrap())
.unwrap();
processed
.send(encoder.create_bitstream_buffer().unwrap())
.unwrap();
let handle = std::thread::spawn({
move || {
let mut out = File::create("output.h264").unwrap();
while let Ok(output) = to_process.recv() {
let lock = output.try_lock(true).unwrap();
out.write_all(lock.as_slice()).unwrap();
drop(lock);
if let Err(_) = processed.send(output) {
break;
}
}
}
});
let instant = Instant::now();
let mut i = 0;
while i < 600 {
if let Ok(output) = to_use.recv() {
encoder
.encode_picture(
&registered,
&output,
i,
instant.duration_since(Instant::now()).as_millis() as u64,
nvenc::sys::enums::NVencBufferFormat::ARGB,
nvenc::sys::enums::NVencPicStruct::Frame,
nvenc::sys::enums::NVencPicType::P,
None,
)
.unwrap();
re_use.send(output).unwrap();
i += 1;
}
}
drop(to_use);
drop(re_use);
handle.join().unwrap();
}
+86
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@@ -0,0 +1,86 @@
#![doc = include_str!("../README.md")]
use std::{mem::MaybeUninit, sync::OnceLock};
use libloading::Library;
use crate::sys::{
function_table::NVencFunctionList,
result::{NVencError, NVencResult},
version::NVENC_API_LIST_VERSION,
};
mod safe;
pub use safe::*;
/// Contains the original C Types, functions, enums, and constants
pub mod sys;
#[cfg(all(target_arch = "x86_64", target_os = "windows"))]
pub const NVENC_DLL: &str = "nvEncodeAPI64.dll";
#[cfg(all(target_arch = "x86", target_os = "windows"))]
pub const NVENC_DLL: &str = "nvEncodeAPI.dll";
#[cfg(target_os = "linux")]
/// Platform specific DLL name, `libnvidia-encode.so.1` on Linux, `nvEncodeAPI64.dll` on Windows
pub const NVENC_DLL: &str = "libnvidia-encode.so.1";
#[cfg(all(target_arch = "x86", windows))]
#[macro_export]
macro_rules! stdcall {
(fn $args:tt $(-> $ret:tt)?) => { unsafe extern "stdcall" fn $args $(-> $ret)? };
}
#[doc(hidden)]
#[cfg(not(all(target_arch = "x86", windows)))]
#[macro_export]
macro_rules! stdcall {
(fn $args:tt $(-> $ret:ty)?) => { unsafe extern "C" fn $args $(-> $ret)? };
}
pub(crate) static LIBRARY: OnceLock<NVENCLibrary> = OnceLock::new();
/// Struct containing the library handle, init and get_max_version number functions
pub struct NVENCLibrary {
#[allow(unused)]
// Lib must stay alive for nvenc to be used
lib: Library,
init: stdcall!(fn(list: *mut MaybeUninit<NVencFunctionList>) -> NVencResult),
get_max_version: stdcall!(fn(version: *mut u32) -> NVencResult),
}
/// Attempt to init NVENC, returns an error if the library or loading functions cannot be found
pub fn nvenc_init() -> Result<&'static NVENCLibrary, libloading::Error> {
if let Some(lib) = LIBRARY.get() {
Ok(lib)
} else {
let lib = unsafe { Library::new(NVENC_DLL) }?;
let init: stdcall!(fn(function_list: *mut MaybeUninit<NVencFunctionList>) -> NVencResult) =
*unsafe { lib.get(b"NvEncodeAPICreateInstance") }?;
let get_max_version: stdcall!(fn(version: *mut u32) -> NVencResult) =
*unsafe { lib.get(b"NvEncodeAPIGetMaxSupportedVersion") }?;
Ok(LIBRARY.get_or_init(|| NVENCLibrary {
lib,
init,
get_max_version,
}))
}
}
impl NVENCLibrary {
/// Create a new instance of the NVencFunctionList,
pub fn create_instance(&self) -> Result<NVencFunctionList, NVencError> {
let mut list = MaybeUninit::zeroed();
unsafe { *(list.as_mut_ptr() as *mut u32) = NVENC_API_LIST_VERSION };
unsafe { (self.init)(&raw mut list) }.into_error().unwrap();
Ok(unsafe { list.assume_init() })
}
pub fn get_max_version(&self) -> Result<u32, NVencError> {
let mut version = 0;
unsafe { (self.get_max_version)(&raw mut version) }.into_error()?;
let minor = version & 0x0F;
let version = (version >> 4) | minor << 28;
Ok(version)
}
}
+53
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@@ -0,0 +1,53 @@
use std::{ffi::c_void, sync::Arc};
use crate::{safe::encoder::EncoderInternal, sys::result::NVencError};
pub struct BitStream {
pub(crate) buffer: *mut c_void,
pub(crate) encoder: Arc<EncoderInternal>,
}
impl Drop for BitStream {
fn drop(&mut self) {
println!("Dropping bitstream buffer");
self.encoder.destroy_bitstream_buffer(self.buffer).unwrap();
}
}
unsafe impl Send for BitStream {}
impl BitStream {
/// Attempts to lock the bit stream, if `wait` is true it will wait
/// otherwise a `LockBusy` Error may be returned, in which case the
/// client should retry in a few milliseconds
pub fn try_lock(&self, wait: bool) -> Result<BitStreamLockGuard<'_>, NVencError> {
let lock = self.encoder.lock_bit_stream_buffer(self.buffer, wait)?;
Ok(BitStreamLockGuard {
buffer: self,
data_ptr: lock.bitstream_buffer,
data_len: lock.bitstream_size_in_bytes,
})
}
}
/// Holds a reference to the `BitStream` and holds the data and associated fields
pub struct BitStreamLockGuard<'a> {
buffer: &'a BitStream,
data_ptr: *mut c_void,
data_len: u32,
}
impl BitStreamLockGuard<'_> {
pub fn as_slice(&self) -> &[u8] {
unsafe { std::slice::from_raw_parts(self.data_ptr as _, self.data_len as _) }
}
}
impl<'a> Drop for BitStreamLockGuard<'a> {
fn drop(&mut self) {
self.buffer
.encoder
.unlock_bit_stream_buffer(self.buffer.buffer)
.unwrap();
}
}
+517
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@@ -0,0 +1,517 @@
use std::ffi::{CStr, c_void};
use std::marker::PhantomData;
use std::mem::ManuallyDrop;
use std::sync::Arc;
use std::{mem::MaybeUninit, ptr::NonNull};
#[cfg(windows)]
use windows::Win32::Graphics::Direct3D11::ID3D11Texture2D;
use crate::input_buffer::InputBuffer;
use crate::safe::bitstream::BitStream;
use crate::sys::enums::{
NVencBufferFormat, NVencBufferUsage, NVencInputResourceType, NVencMemoryHeap, NVencPicStruct,
NVencPicType,
};
use crate::sys::structs::{
Guid, NV_ENC_CREATE_INPUT_BUFFER_VER, NV_ENC_LOCK_INPUT_BUFFER_VER, NVencCodecPicParams,
NVencCreateInputBuffer, NVencLockInputBuffer, NVencPicParamsH264, NVencRegisterResource,
};
use crate::sys::{
enums::{NVencPicFlags, NVencTuningInfo},
function_table::NVencFunctionList,
result::NVencError,
structs::{
NV_ENC_CONFIG_VER, NV_ENC_CREATE_BITSTREAM_BUFFER_VER, NV_ENC_LOCK_BITSTREAM_VER,
NV_ENC_MAP_INPUT_RESOURCE_VER, NV_ENC_PIC_PARAMS_VER, NV_ENC_PRESET_CONFIG_VER,
NV_ENC_REGISTER_RESOURCE_VER, NVencCreateBitstreamBuffer, NVencInitializeParams,
NVencLockBitStream, NVencPicParams, NVencPresetConfig,
},
};
pub struct Encoder {
pub(crate) encoder: Arc<EncoderInternal>,
pub(crate) marker: PhantomData<*mut ()>,
}
pub trait EncoderInput {
#[doc(hidden)]
fn as_ptr(&self) -> *mut c_void;
fn pitch(&self) -> u32;
fn height(&self) -> u32;
fn width(&self) -> u32;
}
impl EncoderInput for RegisteredResource {
fn as_ptr(&self) -> *mut c_void {
self.mapped
}
fn pitch(&self) -> u32 {
self.pitch
}
fn height(&self) -> u32 {
self.height
}
fn width(&self) -> u32 {
self.width
}
}
impl EncoderInput for InputBuffer {
fn as_ptr(&self) -> *mut c_void {
self.buffer
}
fn pitch(&self) -> u32 {
self.width
}
fn height(&self) -> u32 {
self.height
}
fn width(&self) -> u32 {
self.width
}
}
impl Encoder {
#[cfg(windows)]
/// Registers a DX11 texture as an nvenc input resource
pub fn register_resource_dx11(
&self,
resource: &ID3D11Texture2D,
format: NVencBufferFormat,
pitch: u32,
) -> Result<RegisteredResource, NVencError> {
self.encoder.register_resource_dx(resource, format, pitch)
}
/// # Safety
/// `resource` must not be null
/// `ty` and `format` should match the original buffer
pub unsafe fn register_resource_raw(
&self,
resource: *mut c_void,
format: NVencBufferFormat,
usage: NVencBufferUsage,
ty: NVencInputResourceType,
resolution: [u32; 2],
pitch: u32,
) -> Result<*mut c_void, NVencError> {
unsafe {
self.encoder
.register_resource_raw(resource, format, usage, ty, resolution, pitch)
}
}
/// Takes an encoder inout, and outputs a bit stream that can be read back
pub fn encode_picture<I: EncoderInput>(
&self,
input: &I,
output: &BitStream,
frame_count: usize,
timestamp: u64,
format: NVencBufferFormat,
pic_struct: NVencPicStruct,
ty: NVencPicType,
codec_params: Option<CodecPicParams>,
) -> Result<(), NVencError> {
self.encoder.encode_picture(
input,
output,
frame_count,
timestamp,
format,
pic_struct,
ty,
codec_params,
)
}
/// Ends the encoder session
pub fn end_encode(&self) -> Result<(), NVencError> {
self.encoder.end_encode()
}
/// Creates a bitstream bfufer that can be used for output storage
pub fn create_bitstream_buffer(&self) -> Result<BitStream, NVencError> {
self.encoder.create_bitstream_buffer()
}
pub fn create_input_buffer(
&self,
width: u32,
height: u32,
memory_heap: NVencMemoryHeap,
format: NVencBufferFormat,
) -> Result<InputBuffer, NVencError> {
Ok(InputBuffer {
encoder: self.encoder.clone(),
buffer: self
.encoder
.create_input_buffer(width, height, memory_heap, format)?,
width,
height,
})
}
}
pub(crate) struct EncoderInternal {
pub(super) encoder: NonNull<c_void>,
pub(super) function_list: NVencFunctionList,
}
/// The Nvidia encoder is technically thread-safe
unsafe impl Send for EncoderInternal {}
/// The Nvidia encoder handles syncing via `lock_bit_stream` which is all that is allowed to be Send
unsafe impl Sync for EncoderInternal {}
impl Drop for EncoderInternal {
fn drop(&mut self) {
println!("Dropping encoder, this should happen last");
unsafe { (self.function_list.nvenc_destroy_encoder)(self.encoder.as_ptr()) };
}
}
impl EncoderInternal {
pub(crate) fn get_encode_preset_config_ex(
&self,
codec: Guid,
preset: Guid,
tuning_info: NVencTuningInfo,
) -> Result<NVencPresetConfig, NVencError> {
let mut config: std::mem::MaybeUninit<NVencPresetConfig> = std::mem::MaybeUninit::zeroed();
unsafe { &mut *config.as_mut_ptr() }.version = NV_ENC_PRESET_CONFIG_VER;
unsafe { &mut *config.as_mut_ptr() }.preset_cfg.version = NV_ENC_CONFIG_VER;
unsafe {
(self.function_list.nvenc_get_encode_preset_config_ex)(
self.encoder.as_ptr(),
codec,
preset,
tuning_info,
&raw mut config,
)
.into_error()?
};
Ok(unsafe { config.assume_init() })
}
pub(crate) fn init_encoder(
&self,
mut init_params: NVencInitializeParams,
) -> Result<(), NVencError> {
unsafe {
(self.function_list.nvenc_initialize_encoder)(
self.encoder.as_ptr(),
&raw mut init_params,
)
}
.into_error()?;
Ok(())
}
#[cfg(windows)]
pub fn register_resource_dx(
self: &Arc<EncoderInternal>,
resource: &ID3D11Texture2D,
format: NVencBufferFormat,
pitch: u32,
) -> Result<RegisteredResource, NVencError> {
use windows::Win32::Graphics::Direct3D11::D3D11_TEXTURE2D_DESC;
use windows::core::Interface;
let mut desc = D3D11_TEXTURE2D_DESC::default();
unsafe { resource.GetDesc(&raw mut desc) };
let registered = unsafe {
self.register_resource_raw(
resource.as_raw(),
NVencBufferFormat::Undefined,
NVencBufferUsage::Image,
NVencInputResourceType::DirectX,
[desc.Width, desc.Height],
pitch,
)?
};
let mapped = unsafe { self.map_input_resource_raw(registered, format)? };
Ok(RegisteredResource {
encoder: self.clone(),
pitch,
width: desc.Width,
height: desc.Height,
registered,
mapped,
})
}
pub unsafe fn map_input_resource_raw(
&self,
resource: *mut c_void,
format: NVencBufferFormat,
) -> Result<*mut c_void, NVencError> {
let mut map: crate::sys::structs::NVencMapInputResource = unsafe { std::mem::zeroed() };
map.version = NV_ENC_MAP_INPUT_RESOURCE_VER;
map.registered_resource = resource;
map.mapped_buffer_format = format;
unsafe {
(self.function_list.nvenc_map_input_resource)(self.encoder.as_ptr(), &raw mut map)
}
.into_error()?;
Ok(map.mapped_resource)
}
pub unsafe fn register_resource_raw(
&self,
resource: *mut c_void,
format: NVencBufferFormat,
usage: NVencBufferUsage,
ty: NVencInputResourceType,
resolution: [u32; 2],
pitch: u32,
) -> Result<*mut c_void, NVencError> {
let mut register_resource: NVencRegisterResource = unsafe { std::mem::zeroed() };
register_resource.buffer_format = format;
register_resource.buffer_usage = usage;
register_resource.resource_type = ty;
register_resource.version = NV_ENC_REGISTER_RESOURCE_VER;
register_resource.width = resolution[0];
register_resource.height = resolution[1];
register_resource.pitch = pitch;
register_resource.sub_resource_index = 0;
register_resource.resource_to_register = resource;
unsafe {
(self.function_list.nvenc_register_resource)(
self.encoder.as_ptr(),
&raw mut register_resource,
)
.into_error()
}?;
Ok(register_resource.registered_resource)
}
pub unsafe fn unmap_input_resource(
&self,
mapped_resource: *mut c_void,
) -> Result<(), NVencError> {
unsafe {
(self.function_list.nvenc_unmap_input_resource)(self.encoder.as_ptr(), mapped_resource)
}
.into_error()
}
pub unsafe fn unregister_resource(
&self,
registered_resource: *mut c_void,
) -> Result<(), NVencError> {
unsafe {
(self.function_list.nvenc_unregister_resource)(
self.encoder.as_ptr(),
registered_resource,
)
}
.into_error()
}
pub fn create_input_buffer(
&self,
width: u32,
height: u32,
memory_heap: NVencMemoryHeap,
format: NVencBufferFormat,
) -> Result<*mut c_void, NVencError> {
let mut input = NVencCreateInputBuffer {
version: NV_ENC_CREATE_INPUT_BUFFER_VER,
width: width,
height: height,
memory_heap,
buffer_fmt: format,
rsvd: 0,
input_buffer: std::ptr::null_mut(),
p_sys_mem_buffer: std::ptr::null_mut(),
rsvd1: unsafe { std::mem::zeroed() },
rsvd2: unsafe { std::mem::zeroed() },
};
unsafe {
(self.function_list.nvenc_create_input_buffer)(self.encoder.as_ptr(), &raw mut input)
.into_error()?
};
Ok(input.input_buffer)
}
pub fn destroy_input_buffer(&self, buffer: *mut c_void) -> Result<(), NVencError> {
unsafe { (self.function_list.nvenc_destroy_input_buffer)(self.encoder.as_ptr(), buffer) }
.into_error()
}
pub fn lock_input_buffer(&self, buffer: *mut c_void) -> Result<(*mut c_void, u32), NVencError> {
let mut lock = NVencLockInputBuffer {
version: NV_ENC_LOCK_INPUT_BUFFER_VER,
bitflags: 0,
input_buffer: buffer,
buffer_data_ptr: std::ptr::null_mut(),
pitch: 0,
rsvd1: unsafe { std::mem::zeroed() },
rsvd2: unsafe { std::mem::zeroed() },
};
unsafe {
(self.function_list.nvenc_lock_input_buffer)(self.encoder.as_ptr(), &raw mut lock)
.into_error()?;
}
Ok((lock.buffer_data_ptr, lock.pitch))
}
pub fn unlock_input_buffer(&self, locked_buffer: *mut c_void) -> Result<(), NVencError> {
unsafe {
(self.function_list.nvenc_unlock_input_buffer)(self.encoder.as_ptr(), locked_buffer)
.into_error()
}
}
pub fn encode_picture<I: EncoderInput>(
&self,
input: &I,
output: &BitStream,
frame_count: usize,
timestamp: u64,
format: NVencBufferFormat,
pic_struct: NVencPicStruct,
ty: NVencPicType,
codec_params: Option<CodecPicParams>,
) -> Result<(), NVencError> {
let mut params: MaybeUninit<NVencPicParams> = MaybeUninit::zeroed();
let sys_codec = match codec_params {
None => NVencCodecPicParams { rsvd: [0; 256] },
Some(CodecPicParams::H264(codec)) => NVencCodecPicParams {
h264_pic_params: ManuallyDrop::new(codec),
},
};
unsafe { &mut *params.as_mut_ptr() }.version = NV_ENC_PIC_PARAMS_VER;
unsafe { &mut *params.as_mut_ptr() }.input_width = input.width();
unsafe { &mut *params.as_mut_ptr() }.input_height = input.height();
unsafe { &mut *params.as_mut_ptr() }.input_pitch = input.pitch();
unsafe { &mut *params.as_mut_ptr() }.output_bitstream = output.buffer;
unsafe { &mut *params.as_mut_ptr() }.input_buffer = input.as_ptr();
unsafe { &mut *params.as_mut_ptr() }.buffer_format = format;
unsafe { &mut *params.as_mut_ptr() }.picture_struct = pic_struct;
// [本项目补丁] 只设 picture_type=IDR 不足以让 NVENC 真正输出 IDR 切片,
// 必须同时置 encode_pic_flags |= NV_ENC_PIC_FLAG_FORCEIDR。
//
// 上游 0.1.0 未设置该标志,导致运行期请求关键帧时编码器静默忽略、
// 继续输出 P 帧(实测:picture_type=IDR 但输出 NAL type=1)。
// 首帧之所以"看起来正常",是因为 frame_idx==0 本来就强制 IDR,与本字段无关。
//
// 语义区分:IntraRefresh 走 ForceIntra,其余 IDR 类走 ForceIDR。
// 必须在 `picture_type = ty` 之前计算,否则 ty 已被移动。
let pic_flags = match &ty {
NVencPicType::IDR => NVencPicFlags::ForceIDR as u32,
NVencPicType::IntraRefresh => NVencPicFlags::ForceIntra as u32,
_ => 0,
};
unsafe { &mut *params.as_mut_ptr() }.picture_type = ty;
unsafe { &mut *params.as_mut_ptr() }.encode_pic_flags = pic_flags;
unsafe { &mut *params.as_mut_ptr() }.frame_idx = frame_count as u32;
unsafe { &mut *params.as_mut_ptr() }.input_time_stamp = timestamp;
unsafe { &mut *params.as_mut_ptr() }.codec_pic_params = sys_codec;
match unsafe {
(self.function_list.nvenc_encode_picture)(self.encoder.as_ptr(), &raw mut params)
.into_error()
} {
Err(err) => {
let ptr =
unsafe { (self.function_list.nvenc_get_last_error)(self.encoder.as_ptr()) };
println!("{:?}", unsafe { CStr::from_ptr(ptr) });
Err(err)
}
Ok(()) => Ok(()),
}
}
pub fn end_encode(&self) -> Result<(), NVencError> {
let mut params: MaybeUninit<NVencPicParams> = MaybeUninit::zeroed();
unsafe { &mut *params.as_mut_ptr() }.version = NV_ENC_PIC_PARAMS_VER;
unsafe { &mut *params.as_mut_ptr() }.encode_pic_flags = NVencPicFlags::Eos as u32;
unsafe {
(self.function_list.nvenc_encode_picture)(self.encoder.as_ptr(), &raw mut params)
.into_error()
}?;
Ok(())
}
pub(crate) fn lock_bit_stream_buffer(
&self,
buffer: *mut c_void,
wait: bool,
) -> Result<NVencLockBitStream, NVencError> {
let mut lock: MaybeUninit<NVencLockBitStream> = MaybeUninit::zeroed();
unsafe { &mut *lock.as_mut_ptr() }.version = NV_ENC_LOCK_BITSTREAM_VER;
unsafe { &mut *lock.as_mut_ptr() }.output_bit_stream = buffer;
unsafe { &mut *lock.as_mut_ptr() }
.bit_fields
.set_do_not_wait(!wait);
unsafe { (self.function_list.nvenc_lock_bit_stream)(self.encoder.as_ptr(), &raw mut lock) }
.into_error()?;
Ok(unsafe { lock.assume_init() })
}
pub(crate) fn unlock_bit_stream_buffer(&self, buffer: *mut c_void) -> Result<(), NVencError> {
unsafe { (self.function_list.nvenc_unlock_bit_stream)(self.encoder.as_ptr(), buffer) }
.into_error()
}
pub fn create_bitstream_buffer(self: &Arc<Self>) -> Result<BitStream, NVencError> {
let mut params: NVencCreateBitstreamBuffer = unsafe { std::mem::zeroed() };
params.version = NV_ENC_CREATE_BITSTREAM_BUFFER_VER;
unsafe {
(self.function_list.nvenc_create_bit_stream_buffer)(
self.encoder.as_ptr(),
&raw mut params,
)
}
.into_error()?;
Ok(BitStream {
buffer: params.bitstream_buffer,
encoder: self.clone(),
})
}
pub(crate) fn destroy_bitstream_buffer(&self, buffer: *mut c_void) -> Result<(), NVencError> {
unsafe {
(self.function_list.nvenc_destory_bit_stream_buffer)(self.encoder.as_ptr(), buffer)
}
.into_error()
}
}
pub enum CodecPicParams {
H264(NVencPicParamsH264),
}
pub struct RegisteredResource {
registered: *mut c_void,
mapped: *mut c_void,
pitch: u32,
width: u32,
height: u32,
encoder: Arc<EncoderInternal>,
}
impl Drop for RegisteredResource {
fn drop(&mut self) {
unsafe { self.encoder.unmap_input_resource(self.mapped).unwrap() };
unsafe { self.encoder.unregister_resource(self.registered).unwrap() };
}
}
+60
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@@ -0,0 +1,60 @@
use std::{ffi::c_void, sync::Arc};
use crate::{encoder::EncoderInternal, sys::result::NVencError};
pub struct InputBuffer {
pub(crate) encoder: Arc<EncoderInternal>,
pub(crate) buffer: *mut c_void,
pub(crate) width: u32,
pub(crate) height: u32,
}
impl InputBuffer {
pub fn lock(&self) -> Result<InputBufferLock<'_>, NVencError> {
let (lock_ptr, pitch) = self.encoder.lock_input_buffer(self.buffer)?;
Ok(InputBufferLock {
input_buffer: self,
lock_ptr,
pitch,
})
}
}
impl Drop for InputBuffer {
fn drop(&mut self) {
self.encoder.destroy_input_buffer(self.buffer).unwrap()
}
}
pub struct InputBufferLock<'a> {
input_buffer: &'a InputBuffer,
lock_ptr: *mut c_void,
pitch: u32,
}
impl InputBufferLock<'_> {
pub unsafe fn data_ptr(&self) -> *mut u8 {
self.lock_ptr as _
}
pub fn width(&self) -> u32 {
self.input_buffer.width
}
pub fn height(&self) -> u32 {
self.input_buffer.height
}
pub fn pitch(&self) -> u32 {
self.pitch
}
}
impl Drop for InputBufferLock<'_> {
fn drop(&mut self) {
self.input_buffer
.encoder
.unlock_input_buffer(self.lock_ptr)
.unwrap();
}
}
+8
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@@ -0,0 +1,8 @@
/// Contains the type for the safe BitStream buffer wrapper
pub mod bitstream;
/// Wrapper for the NVEncoder after creating an active session
pub mod encoder;
/// Wrapper around an NVenc input buffer
pub mod input_buffer;
/// Type-state wrapper around session initialization
pub mod session;
+198
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@@ -0,0 +1,198 @@
use std::{marker::PhantomData, sync::Arc};
use crate::{
encoder::{Encoder, EncoderInternal},
sys::{
enums::{NVencBufferFormat, NVencDeviceType, NVencTuningInfo},
result::NVencError,
structs::{
Guid, NV_ENC_INITIALIZE_PARAMS_VER, NV_ENC_OPEN_ENCODE_SESSION_EX_PARAMS_VER,
NVencConfig, NVencInitializeParams, NVencOpenEncodeSessionExParams, NVencPresetConfig,
},
version::NVENC_API_VERSION,
},
};
pub struct Session<T> {
encoder: Arc<EncoderInternal>,
p: PhantomData<T>,
}
pub struct NeedsConfig;
pub struct NeedsInit;
#[cfg(windows)]
use windows::core::Interface;
impl Session<NeedsConfig> {
#[cfg(windows)]
pub fn open_dx(device: &impl Interface) -> Result<Self, NVencError> {
let lib = crate::nvenc_init().unwrap();
let function_list = lib.create_instance()?;
let mut session_params: NVencOpenEncodeSessionExParams = unsafe { std::mem::zeroed() };
session_params.version = NV_ENC_OPEN_ENCODE_SESSION_EX_PARAMS_VER;
session_params.device_type = NVencDeviceType::DirectX;
session_params.api_version = NVENC_API_VERSION;
session_params.device = device.as_raw();
let mut encoder = std::ptr::null_mut();
unsafe {
(function_list.nvenc_open_encode_session_ex)(&raw mut session_params, &raw mut encoder)
.into_error()
}?;
assert!(!encoder.is_null());
let encoder = EncoderInternal {
encoder: unsafe { std::ptr::NonNull::new_unchecked(encoder) },
function_list,
};
Ok(Self {
encoder: Arc::new(encoder),
p: PhantomData,
})
}
pub fn open_gl() -> Result<Self, NVencError> {
let lib = crate::nvenc_init().unwrap();
let function_list = lib.create_instance()?;
let mut session_params: NVencOpenEncodeSessionExParams = unsafe { std::mem::zeroed() };
session_params.version = NV_ENC_OPEN_ENCODE_SESSION_EX_PARAMS_VER;
session_params.device_type = NVencDeviceType::OpenGL;
session_params.api_version = NVENC_API_VERSION;
session_params.device = std::ptr::null_mut();
let mut encoder = std::ptr::null_mut();
unsafe {
(function_list.nvenc_open_encode_session_ex)(&raw mut session_params, &raw mut encoder)
.into_error()
}?;
assert!(!encoder.is_null());
let encoder = EncoderInternal {
encoder: unsafe { std::ptr::NonNull::new_unchecked(encoder) },
function_list,
};
Ok(Self {
encoder: Arc::new(encoder),
p: PhantomData,
})
}
pub fn get_encode_codecs(&self) -> Result<Box<[Guid]>, NVencError> {
let mut count = 0;
unsafe {
(self.encoder.function_list.nvenc_get_encoder_guid_count)(
self.encoder.encoder.as_ptr(),
&raw mut count,
)
.into_error()
}?;
let mut array = vec![Guid::default(); count as usize];
unsafe {
(self.encoder.function_list.nvenc_get_encoder_guids)(
self.encoder.encoder.as_ptr(),
array.as_mut_ptr(),
count,
&raw mut count,
)
}
.into_error()?;
array.truncate(count as usize);
Ok(array.into())
}
pub fn get_encode_presets(&self, codec: Guid) -> Result<Box<[Guid]>, NVencError> {
let mut count = 0;
unsafe {
(self.encoder.function_list.nvenc_get_encode_preset_count)(
self.encoder.encoder.as_ptr(),
codec.clone(),
&raw mut count,
)
.into_error()
}?;
let mut array = vec![Guid::default(); count as usize];
unsafe {
(self.encoder.function_list.nvenc_get_encode_preset_guids)(
self.encoder.encoder.as_ptr(),
codec,
array.as_mut_ptr(),
count,
&raw mut count,
)
}
.into_error()?;
array.truncate(count as usize);
Ok(array.into())
}
pub fn get_encode_preset_config_ex(
self,
codec: Guid,
preset: Guid,
tuning_info: NVencTuningInfo,
) -> Result<(Session<NeedsInit>, NVencPresetConfig), NVencError> {
self.encoder
.get_encode_preset_config_ex(codec, preset, tuning_info)
.map(|config| {
(
Session {
encoder: self.encoder,
p: PhantomData,
},
config,
)
})
}
}
pub struct InitParams<'a> {
pub encode_guid: Guid,
pub preset_guid: Guid,
pub resolution: [u32; 2],
pub aspect_ratio: [u32; 2],
pub frame_rate: [u32; 2],
pub tuning_info: NVencTuningInfo,
pub buffer_format: NVencBufferFormat,
pub encode_config: &'a mut NVencConfig,
pub enable_ptd: bool,
pub max_encoder_resolution: [u32; 2],
// TODO: Support for async encoding and bit fields
}
impl Session<NeedsInit> {
pub fn init_encoder(self, init_params: InitParams) -> Result<Encoder, NVencError> {
// This sucks, lol
let raw_init_params = NVencInitializeParams {
encode_guid: init_params.encode_guid,
preset_guid: init_params.preset_guid,
encode_width: init_params.resolution[0],
encode_height: init_params.resolution[1],
dar_width: init_params.aspect_ratio[0],
dar_height: init_params.aspect_ratio[1],
frame_rate_num: init_params.frame_rate[0],
frame_rate_den: init_params.frame_rate[1],
tuning_info: init_params.tuning_info,
buffer_format: init_params.buffer_format,
encode_config: init_params.encode_config as _,
enable_ptd: init_params.enable_ptd as u32,
version: NV_ENC_INITIALIZE_PARAMS_VER,
enable_encode_async: 0,
bit_flags: crate::sys::structs::NVencInitializeParamsBitfields::new(),
priv_data_size: 0,
rsvd: 0,
priv_data: std::ptr::null_mut(),
max_encode_width: init_params.max_encoder_resolution[0],
max_encode_height: init_params.max_encoder_resolution[1],
max_me_hint_counts_per_block: [Default::default(), Default::default()],
num_state_buffers: 0,
output_stats_level: crate::sys::enums::NVencOutputStatsLevel::None,
rsvd1: unsafe { std::mem::zeroed() },
rsvd2: unsafe { std::mem::zeroed() },
};
self.encoder.init_encoder(raw_init_params)?;
Ok(Encoder {
encoder: self.encoder,
marker: PhantomData,
})
}
}
+481
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@@ -0,0 +1,481 @@
#[repr(C)]
pub enum NVencParamsFrameFieldMode {
Frame = 0x01,
Field = 0x02,
MBAFF = 0x03,
}
#[repr(C)]
pub enum NVencParamsRcMode {
ConstQP = 0x00,
VBR = 0x01,
CBR = 0x02,
}
#[repr(C)]
pub enum NVencMultiPass {
Disabled = 0x00,
TwoPassQuarterResolution = 0x01,
TwoPassFullResolution = 0x02,
}
#[repr(C)]
pub enum NVencStateRestoreType {
Full = 0x01,
RateControl = 0x02,
Encode = 0x03,
}
#[repr(C)]
pub enum NVencOutputStatsLevel {
None = 0,
BlockLevel = 1,
RowLevel = 2,
}
#[repr(C)]
pub enum NVencEmphasisMapLevel {
Level0 = 0x0,
Level1 = 0x1,
Level2 = 0x2,
Level3 = 0x3,
Level4 = 0x4,
Level5 = 0x5,
}
#[repr(C)]
pub enum NVencQPMapMode {
Disabled = 0x0,
Emphasis = 0x1,
Delta = 0x2,
/// Currently unsupported as of NVENC 13.0
Map = 0x3,
}
#[repr(C)]
pub enum NVencPicStruct {
Frame = 0x01,
FieldTopBottom = 0x02,
FieldBottomTop = 0x03,
}
#[repr(C)]
pub enum NVencDisplayPicStruct {
Frame = 0x0,
FieldTopBottom = 0x1,
FieldBottomTop = 0x2,
Doubling = 0x3,
Tripling = 0x4,
}
#[repr(C)]
pub enum NVencPicType {
P = 0x00,
B = 0x01,
IDR = 0x03,
BI = 0x04,
Skipped = 0x05,
IntraRefresh = 0x06,
NonRefP = 0x07,
Switch = 0x08,
UNKNOWN = 0xFF,
}
#[repr(C)]
pub enum NVencMVPrecision {
Default = 0x00,
FullPel = 0x01,
HalfPel = 0x02,
QuarterPel = 0x03,
}
#[repr(C)]
pub enum NVencBufferFormat {
Undefined = 0x00000000,
NV12 = 0x00000001,
YV12 = 0x00000010,
IYUV = 0x00000100,
YUV444 = 0x00001000,
YUV420_10Bit = 0x00010000,
YUV444_10Bit = 0x00100000,
ARGB = 0x01000000,
ARGB10 = 0x02000000,
AYUV = 0x04000000,
ABGR = 0x10000000,
ABGR10 = 0x20000000,
U8 = 0x40000000,
NV16 = 0x40000001,
P210 = 0x40000002,
}
#[repr(C)]
pub enum NvencLevel {
AutoSelect = 0,
}
// TODO: Translate level macro
#[repr(C)]
pub enum H264Level {
H264_1 = 10,
H264_1b = 9,
H264_11 = 11,
H264_12 = 12,
H264_13 = 13,
H264_2 = 20,
H264_21 = 21,
H264_22 = 22,
H264_3 = 30,
H264_31 = 31,
H264_32 = 32,
H264_4 = 40,
H264_41 = 41,
H264_42 = 42,
H264_5 = 50,
H264_51 = 51,
H264_52 = 52,
H264_60 = 60,
H264_61 = 61,
H264_62 = 62,
}
#[repr(C)]
pub enum HEVCLevel {
HEVC1 = 30,
HEVC2 = 60,
HEVC21 = 63,
HEVC3 = 90,
HEVC31 = 93,
HEVC4 = 120,
HEVC41 = 123,
HEVC5 = 150,
HEVC51 = 153,
HEVC52 = 156,
HEVC6 = 180,
HEVC61 = 183,
HEVC62 = 186,
HEVCMain = 0,
HEVCHigh = 1,
}
#[repr(C)]
pub enum AV1Level {
// Also AV1_0
AV1_2 = 0,
// Also AV1_1
AV1_21 = 1,
AV1_22 = 2,
AV1_23 = 3,
AV1_3 = 4,
AV1_31 = 5,
AV1_32 = 6,
AV1_33 = 7,
AV1_4 = 8,
AV1_41 = 9,
AV1_42 = 10,
AV1_43 = 11,
AV1_5 = 12,
AV1_51 = 13,
AV1_52 = 14,
AV1_53 = 15,
AV1_6 = 16,
AV1_61 = 17,
AV1_62 = 18,
AV1_63 = 19,
AV1_7 = 20,
AV1_71 = 21,
AV1_72 = 22,
AV1_73 = 23,
AV1AutoSelect = 24,
}
#[repr(C)]
pub enum NVencPicFlags {
ForceIntra = 0x1,
ForceIDR = 0x2,
OutputSpspps = 0x4,
Eos = 0x8,
DisableEncStateAdvance = 0x10,
OuputReconFrame = 0x20,
}
#[repr(C)]
pub enum NVencMemoryHeap {
AutoSelect = 0,
VID = 1,
SystemCached = 2,
SystemUncached = 3,
}
#[repr(C)]
pub enum NVencBFrameRefMode {
Disabled = 0x0,
Each = 0x1,
Middle = 0x2,
}
#[repr(C)]
pub enum NVencH264EntropyCodingMode {
AutoSelect = 0x0,
Cabac = 0x1,
Cavlc = 0x2,
}
#[repr(C)]
pub enum NVencH264BDirectMode {
Autoselect = 0x0,
Disable = 0x1,
Temporal = 0x2,
Spatial = 0x3,
}
#[repr(C)]
pub enum NVencH264FMOMode {
AutoSelect = 0x0,
Enable = 0x1,
Disable = 0x2,
}
#[repr(C)]
pub enum NVencH264AdaptiveTransformMode {
AutoSelect = 0x0,
Disable = 0x1,
Enable = 0x2,
}
#[repr(C)]
pub enum NVencStereoPackingMode {
None = 0x0,
Checkerboard = 0x1,
ColInterleave = 0x2,
RowInterleave = 0x3,
SideBySide = 0x4,
TopBottm = 0x5,
FrameSeq = 0x6,
}
#[repr(C)]
pub enum NVencInputResourceType {
DirectX = 0x0,
CudaDeivcePtr = 0x1,
CudaArray = 0x2,
OpenGLTex = 0x3,
}
#[repr(C)]
pub enum NVencBufferUsage {
Image = 0x0,
MotionVector = 0x1,
BitStream = 0x2,
OutputRecon = 0x4,
}
#[repr(C)]
#[derive(Clone)]
pub enum NVencDeviceType {
DirectX = 0x0,
Cuda = 0x1,
OpenGL = 0x2,
}
#[repr(C)]
pub enum NVencNumRefFrames {
AutoSelect = 0x0,
Frames1 = 0x1,
Frames2 = 0x2,
Frames3 = 0x3,
Frames4 = 0x4,
Frames5 = 0x5,
Frames6 = 0x6,
Frames7 = 0x7,
}
#[repr(C)]
pub enum NVencTemporalFilterLevel {
Level0 = 0,
Level4 = 4,
}
#[repr(C)]
pub enum NVencCaps {
NumMaxBFrames,
SupportedRateControlModes,
FieldEncoding,
MonoChrome,
FMO,
QPELMV,
BDirectMode,
CABAC,
AdaptiveTransform,
StereoMVC,
MaxTemporalLayers,
HierarchicalBFrames,
LevelMax,
LevelMin,
SeperateColorPlane,
WidthMax,
HeightMax,
TemporalSVC,
DynResChnage,
DynBitrateChange,
DynForceConstQP,
DynRcModeChange,
SubframeReadBack,
ConstrainedEncoding,
IntraRefresh,
CustomVBVBufSize,
DynamicSliceMode,
Invalidation,
PreProcSupport,
AsyncEncodeSupport,
MbNumMax,
MbPerSecMax,
YUV444Encode,
LoselessEncode,
SupportSao,
MeOnlyMode,
LookAhead,
TemporalAQ,
MaxLtrFrames,
SupportWeightedPrediction,
DynamicQueryEncoderCapacity,
BFrameRefMode,
EmphasisLevelMap,
WidthMin,
HeightMin,
MultipleRefFrames,
AlphaLayerEncoding,
NumEncoderEngines,
SingleSliceIntraRefresh,
DisableEncStateAdvance,
OutputReconSurface,
OutputBlockStats,
SupportTemporalFilter,
LookAheadLevel,
UndirectionalB,
MVHEVCEncode,
SupportYUV422Encode,
ExposedCount,
}
#[repr(C)]
pub enum NVencHEVCCuSize {
AutoSelect = 0,
Size8x8 = 1,
Size16x16 = 2,
Size32x32 = 3,
Size64x64 = 4,
}
#[repr(C)]
pub enum NVencAV1PartSize {
AutoSelect = 0,
Size4x4 = 1,
Size8x8 = 2,
Size16x16 = 3,
Size32x32 = 4,
Size64x64 = 5,
}
#[repr(C)]
pub enum NVencVUIVideoFormat {
Component = 0,
Pal = 1,
NTSC = 2,
SeCam = 3,
Mac = 4,
Unspecified = 5,
}
#[repr(C)]
pub enum NVencVUIColorPrimaries {
Undefined = 0,
BT709 = 1,
Unspecified = 2,
Reserved = 3,
BT470M = 4,
BT470BG = 5,
SMPTE170M = 6,
SMPTE240M = 7,
FIlm = 8,
BT2020 = 9,
SMPTE428 = 10,
SMPTE431 = 11,
SMPTE432 = 12,
JEDECP22 = 22,
}
#[repr(C)]
pub enum NVencVUITransCharacteristics {
Undefined = 0,
BT709 = 1,
Unspecified = 2,
Reserved = 3,
BT470M = 4,
BT470BG = 5,
SMPTE170M = 6,
SMPTE240M = 7,
Linear = 8,
Log = 9,
LogSqrt = 10,
IEC61966_2_4 = 11,
SRGB = 13,
BT2020_10 = 14,
BT2020_12 = 15,
SMPTE2084 = 16,
SMPTE428 = 17,
AribStdB67 = 18,
}
#[repr(C)]
pub enum NVencVUIMatrixCoeffs {
RGB = 0,
BT709 = 1,
Unspecified = 2,
Reserved = 3,
FCC = 4,
BT470BG = 5,
SMPTE170M,
SMPTE240M,
YCGCO = 8,
BT2020NCL = 9,
BT2020CL = 10,
SMPTE2085 = 11,
}
#[repr(C)]
pub enum NVencLookAheadLevel {
Level0 = 0,
Level1 = 1,
Level2 = 2,
Level3 = 3,
AutoSelect = 15,
}
#[repr(C)]
pub enum NVencBitDepth {
Invalid = 0,
Depth8 = 8,
Depth10 = 10,
}
#[derive(Debug)]
#[repr(C)]
pub enum NVencTuningInfo {
Undefined = 0,
HighQuality = 1,
LowLatency = 2,
UltraLowLatency = 3,
Lossless = 4,
UltraHighQuality = 5,
Count,
}
#[repr(C)]
pub enum NVencSplitEncodeMode {
Audo = 0,
AutoForced = 1,
TwoForced = 2,
ThreeForced = 3,
FourForced = 4,
Disable = 15,
}
+214
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@@ -0,0 +1,214 @@
use std::{ffi::c_char, mem::MaybeUninit, os::raw::c_void};
use crate::{
stdcall,
sys::{
enums::{NVencBufferFormat, NVencTuningInfo},
result::NVencResult,
structs::{
Guid, NVencCapsParam, NVencCreateBitstreamBuffer, NVencCreateInputBuffer,
NVencInitializeParams, NVencLockBitStream, NVencLockInputBuffer, NVencMapInputResource,
NVencOpenEncodeSessionExParams, NVencPicParams, NVencPresetConfig,
NVencRegisterResource,
},
},
};
#[repr(C)]
#[derive(Clone)]
pub struct NVencFunctionList {
pub version: u32,
rsvd: u32,
#[deprecated]
nvenc_open_encode_session: NvencOpenEncodeSession,
pub nvenc_get_encoder_guid_count: NvencGetEncodeGuidCount,
nvenc_get_encoder_profile_guid_count: NvencGetEncodeProfileGuidCount,
nvenc_get_encoder_profile_guids: NvencGetEncodeProfileGuids,
pub nvenc_get_encoder_guids: NvencGetEncodeGuids,
nvenc_get_input_format_count: NvencGetInputFormatCount,
nvenc_get_input_formats: NvencGetInputFormats,
nvenc_get_encode_caps: NvencGetEncodeCaps,
pub nvenc_get_encode_preset_count: NvencGetEncodePresetCount,
pub nvenc_get_encode_preset_guids: NvencGetEncodePresetGuids,
nvenc_get_encode_preset_config: NvencGetEncodePresetConfig,
pub nvenc_initialize_encoder: NvencInitializeEncoder,
pub nvenc_create_input_buffer: NvencCreateInputBuffer,
pub nvenc_destroy_input_buffer: NvencDestroyInputBuffer,
pub nvenc_create_bit_stream_buffer: NvencCreateBitStreamBuffer,
pub nvenc_destory_bit_stream_buffer: NvencDestroyBitStreamBuffer,
pub nvenc_encode_picture: NvencEncodePicture,
pub nvenc_lock_bit_stream: NvencLockBitStream,
pub nvenc_unlock_bit_stream: NvencUnlockBitStream,
pub nvenc_lock_input_buffer: NvencLockInputBuffer,
pub nvenc_unlock_input_buffer: NvencUnlockInputBuffer,
nvenc_get_encode_stats: NvencGetEncodeStats,
nvenc_get_sequence_params: NvencGetSequenceParams,
nvenc_register_async_event: NvencRegisterAsyncEvent,
nvenc_unregister_async_event: NvencUnregisterAsyncEvent,
pub nvenc_map_input_resource: NvencMapInputResource,
pub nvenc_unmap_input_resource: NvencUnmapInputResource,
pub nvenc_destroy_encoder: NvencDestroyEncoder,
nvenc_invalidate_ref_frames: NvencInvalidateRefFrames,
pub nvenc_open_encode_session_ex: NvencOpenEncodeSessionEx,
pub nvenc_register_resource: NvencRegisterResource,
pub nvenc_unregister_resource: NvencUnRegisterResource,
nvenc_reconfigure_encoder: NvencReconfigureEncoder,
rsvd1: *mut c_void,
nvenc_create_mv_buffer: NvencCreateMVBuffer,
nvenc_destory_mv_buffer: NvencDestoryMVBuffer,
nvenc_run_motion_estimation_only: NvencRunMotionEstimationOnly,
pub nvenc_get_last_error: NvencGetLastError,
nvenc_set_io_cuda_streams: NvencSetIOCudaStreams,
pub nvenc_get_encode_preset_config_ex: NvencGetEncodePresetConfigEx,
nvenc_get_sequence_params_ex: NvencGetSequenceParamsEx,
nvenc_store_encoder_state: NvencStoreEncoderState,
nvenc_look_ahead_picture: NvencLookAheadPicture,
rsvd2: [*mut c_void; 275],
}
type NvencOpenEncodeSession =
stdcall!(fn(device: *mut c_void, device_type: i32, encoder: *mut *mut c_void) -> NVencResult);
type NvencGetEncodeGuidCount =
stdcall!(fn(encoder: *mut c_void, encoder_guid_count: *mut u32) -> NVencResult);
type NvencGetEncodeGuids = stdcall!(
fn(
encoder: *mut c_void,
guids: *mut Guid,
guid_array_size: u32,
guid_count: *mut u32,
) -> NVencResult
);
type NvencGetEncodeProfileGuidCount = stdcall!(
fn(
encoder: *mut c_void,
encode_guid: Guid,
encoder_profile_guid_count: *mut u32,
) -> NVencResult
);
type NvencGetEncodeProfileGuids = stdcall!(
fn(
encoder: *mut c_void,
profile_guids: *mut Guid,
guid_array_size: u32,
guid_count: *mut u32,
) -> NVencResult
);
type NvencGetInputFormatCount = stdcall!(
fn(encoder: *mut c_void, encoder_guid: Guid, input_fmt_count: *mut u32) -> NVencResult
);
type NvencGetInputFormats = stdcall!(
fn(
encoder: *mut c_void,
input_formats: *mut NVencBufferFormat,
input_format_array_size: u32,
input_format_count: *mut u32,
) -> NVencResult
);
type NvencGetEncodeCaps = stdcall!(
fn(
encoder: *mut c_void,
encoder_guid: Guid,
caps_param: *mut NVencCapsParam,
caps_val: *mut i32,
) -> NVencResult
);
type NvencGetEncodePresetCount = stdcall!(
fn(
encoder: *mut c_void,
encoder_guid: Guid,
encoder_preset_guid_count: *mut u32,
) -> NVencResult
);
type NvencGetEncodePresetGuids = stdcall!(
fn(
encoder: *mut c_void,
encode_guid: Guid,
preset_guids: *mut Guid,
guid_array_size: u32,
encoder_preset_guid_count: *mut u32,
) -> NVencResult
);
type NvencGetEncodePresetConfig = stdcall!(
fn(
encoder: *mut c_void,
encode_guid: Guid,
preset_guid: Guid,
preset_config: *mut NVencPresetConfig,
) -> NVencResult
);
type NvencGetEncodePresetConfigEx = stdcall!(
fn(
encoder: *mut c_void,
encode_guid: Guid,
preset_guid: Guid,
tuning_info: NVencTuningInfo,
preset_config: *mut MaybeUninit<NVencPresetConfig>,
) -> NVencResult
);
type NvencInitializeEncoder = stdcall!(
fn(encoder: *mut c_void, create_encode_params: *mut NVencInitializeParams) -> NVencResult
);
type NvencCreateInputBuffer = stdcall!(
fn(
encoder: *mut c_void,
create_input_buffer_params: *mut NVencCreateInputBuffer,
) -> NVencResult
);
type NvencDestroyInputBuffer =
stdcall!(fn(encoder: *mut c_void, input_buffer: *mut c_void) -> NVencResult);
type NvencCreateBitStreamBuffer = stdcall!(
fn(
encoder: *mut c_void,
create_bit_stream_buffer_params: *mut NVencCreateBitstreamBuffer,
) -> NVencResult
);
type NvencDestroyBitStreamBuffer =
stdcall!(fn(encoder: *mut c_void, bitstream_buffer: *mut c_void) -> NVencResult);
type NvencEncodePicture = stdcall!(
fn(encoder: *mut c_void, encode_pic_params: *mut MaybeUninit<NVencPicParams>) -> NVencResult
);
type NvencLockBitStream = stdcall!(
fn(
encoder: *mut c_void,
lock_bitstream_buffer_params: *mut MaybeUninit<NVencLockBitStream>,
) -> NVencResult
);
type NvencUnlockBitStream =
stdcall!(fn(encoder: *mut c_void, bitstream_buffer: *mut c_void) -> NVencResult);
type NvencLockInputBuffer = stdcall!(
fn(encoder: *mut c_void, lock_input_buffer_params: *mut NVencLockInputBuffer) -> NVencResult
);
type NvencUnlockInputBuffer =
stdcall!(fn(encoder: *mut c_void, input_buffer: *mut c_void) -> NVencResult);
type NvencGetEncodeStats = stdcall!(fn(encoder: *mut c_void) -> NVencResult);
type NvencGetSequenceParams = stdcall!(fn(encoder: *mut c_void) -> NVencResult);
type NvencRegisterAsyncEvent = stdcall!(fn(encoder: *mut c_void) -> NVencResult);
type NvencUnregisterAsyncEvent = stdcall!(fn(encoder: *mut c_void) -> NVencResult);
type NvencMapInputResource = stdcall!(
fn(encoder: *mut c_void, map_input_resource_params: *mut NVencMapInputResource) -> NVencResult
);
type NvencUnmapInputResource =
stdcall!(fn(encoder: *mut c_void, mapped_input_buffer: *mut c_void) -> NVencResult);
type NvencDestroyEncoder = stdcall!(fn(encoder: *mut c_void) -> NVencResult);
type NvencInvalidateRefFrames = stdcall!(fn(encoder: *mut c_void) -> NVencResult);
type NvencOpenEncodeSessionEx = stdcall!(
fn(
open_session_ex_params: *mut NVencOpenEncodeSessionExParams,
encoder: *mut *mut c_void,
) -> NVencResult
);
type NvencRegisterResource = stdcall!(
fn(encoder: *mut c_void, register_res_params: *mut NVencRegisterResource) -> NVencResult
);
type NvencUnRegisterResource =
stdcall!(fn(encoder: *mut c_void, registered_res: *mut c_void) -> NVencResult);
type NvencReconfigureEncoder = stdcall!(fn(encoder: *mut c_void) -> NVencResult);
type NvencCreateMVBuffer = stdcall!(fn(encoder: *mut c_void) -> NVencResult);
type NvencDestoryMVBuffer = stdcall!(fn(encoder: *mut c_void) -> NVencResult);
type NvencRunMotionEstimationOnly = stdcall!(fn(encoder: *mut c_void) -> NVencResult);
type NvencGetLastError = stdcall!(fn(encoder: *mut c_void) -> *const c_char);
type NvencSetIOCudaStreams = stdcall!(fn(encoder: *mut c_void) -> NVencResult);
type NvencGetSequenceParamsEx = stdcall!(fn(encoder: *mut c_void) -> NVencResult);
type NvencStoreEncoderState = stdcall!(fn(encoder: *mut c_void) -> NVencResult);
type NvencLookAheadPicture = stdcall!(fn(encoder: *mut c_void) -> NVencResult);
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use crate::sys::structs::Guid;
pub const NV_ENC_CODEC_H264_GUID: Guid = Guid::from_values(
0x6bc82762,
0x4e63,
0x4ca4,
[0xaa, 0x85, 0x1e, 0x50, 0xf3, 0x21, 0xf6, 0xbf],
);
pub const NV_ENC_CODEC_HEVC_GUID: Guid = Guid::from_values(
0x790cdc88,
0x4522,
0x4d7b,
[0x94, 0x25, 0xbd, 0xa9, 0x97, 0x5f, 0x76, 0x3],
);
pub const NV_ENC_CODEC_AV1_GUID: Guid = Guid::from_values(
0x0a352289,
0x0aa7,
0x4759,
[0x86, 0x2d, 0x5d, 0x15, 0xcd, 0x16, 0xd2, 0x54],
);
pub const NV_ENC_CODEC_PROFILE_AUTOSELECT_GUID: Guid = Guid::from_values(
0xbfd6f8e7,
0x233c,
0x4341,
[0x8b, 0x3e, 0x48, 0x18, 0x52, 0x38, 0x3, 0xf4],
);
pub const NV_ENC_H264_PROFILE_BASELINE_GUID: Guid = Guid::from_values(
0x727bcaa,
0x78c4,
0x4c83,
[0x8c, 0x2f, 0xef, 0x3d, 0xff, 0x26, 0x7c, 0x6a],
);
pub const NV_ENC_H264_PROFILE_MAIN_GUID: Guid = Guid::from_values(
0x60b5c1d4,
0x67fe,
0x4790,
[0x94, 0xd5, 0xc4, 0x72, 0x6d, 0x7b, 0x6e, 0x6d],
);
pub const NV_ENC_H264_PROFILE_HIGH_GUID: Guid = Guid::from_values(
0xe7cbc309,
0x4f7a,
0x4b89,
[0xaf, 0x2a, 0xd5, 0x37, 0xc9, 0x2b, 0xe3, 0x10],
);
pub const NV_ENC_H264_PROFILE_HIGH_10_GUID: Guid = Guid::from_values(
0x8f0c337e,
0x186c,
0x48e9,
[0xa6, 0x9d, 0x7a, 0x83, 0x34, 0x08, 0x97, 0x5],
);
pub const NV_ENC_H264_PROFILE_HIGH_422_GUID: Guid = Guid::from_values(
0xff3242e9,
0x613c,
0x4295,
[0xa1, 0xe8, 0x2a, 0x7f, 0xe9, 0x4d, 0x81, 0x33],
);
pub const NV_ENC_H264_PROFILE_HIGH_444_GUID: Guid = Guid::from_values(
0x7ac663cb,
0xa598,
0x4960,
[0xb8, 0x44, 0x33, 0x9b, 0x26, 0x1a, 0x7d, 0x52],
);
pub const NV_ENC_H264_PROFILE_STEREO_GUID: Guid = Guid::from_values(
0x40847bf5,
0x33f7,
0x4601,
[0x90, 0x84, 0xe8, 0xfe, 0x3c, 0x1d, 0xb8, 0xb7],
);
pub const NV_ENC_H264_PROFILE_PROGRESSIVE_HIGH_GUID: Guid = Guid::from_values(
0xb405afac,
0xf32b,
0x417b,
[0x89, 0xc4, 0x9a, 0xbe, 0xed, 0x3e, 0x59, 0x78],
);
pub const NV_ENC_H264_PROFILE_CONSTRAINED_HIGH_GUID: Guid = Guid::from_values(
0xaec1bd87,
0xe85b,
0x48f2,
[0x84, 0xc3, 0x98, 0xbc, 0xa6, 0x28, 0x50, 0x72],
);
pub const NV_ENC_HEVC_PROFILE_MAIN_GUID: Guid = Guid::from_values(
0xb514c39a,
0xb55b,
0x40fa,
[0x87, 0x8f, 0xf1, 0x25, 0x3b, 0x4d, 0xfd, 0xec],
);
pub const NV_ENC_HEVC_PROFILE_MAIN10_GUID: Guid = Guid::from_values(
0xfa4d2b6c,
0x3a5b,
0x411a,
[0x80, 0x18, 0x0a, 0x3f, 0x5e, 0x3c, 0x9b, 0xe5],
);
pub const NV_ENC_HEVC_PROFILE_FREXT_GUID: Guid = Guid::from_values(
0x51ec32b5,
0x1b4c,
0x453c,
[0x9c, 0xbd, 0xb6, 0x16, 0xbd, 0x62, 0x13, 0x41],
);
pub const NV_ENC_AV1_PROFILE_MAIN_GUID: Guid = Guid::from_values(
0x5f2a39f5,
0xf14e,
0x4f95,
[0x9a, 0x9e, 0xb7, 0x6d, 0x56, 0x8f, 0xcf, 0x97],
);
pub const NV_ENC_PRESET_P1_GUID: Guid = Guid::from_values(
0xfc0a8d3e,
0x45f8,
0x4cf8,
[0x80, 0xc7, 0x29, 0x88, 0x71, 0x59, 0xe, 0xbf],
);
pub const NV_ENC_PRESET_P2_GUID: Guid = Guid::from_values(
0xf581cfb8,
0x88d6,
0x4381,
[0x93, 0xf0, 0xdf, 0x13, 0xf9, 0xc2, 0x7d, 0xab],
);
pub const NV_ENC_PRESET_P3_GUID: Guid = Guid::from_values(
0x36850110,
0x3a07,
0x441f,
[0x94, 0xd5, 0x36, 0x70, 0x63, 0x1f, 0x91, 0xf6],
);
pub const NV_ENC_PRESET_P4_GUID: Guid = Guid::from_values(
0x90a7b826,
0xdf06,
0x4862,
[0xb9, 0xd2, 0xcd, 0x6d, 0x73, 0xa0, 0x86, 0x81],
);
pub const NV_ENC_PRESET_P5_GUID: Guid = Guid::from_values(
0x21c6e6b4,
0x297a,
0x4cba,
[0x99, 0x8f, 0xb6, 0xcb, 0xde, 0x72, 0xad, 0xe3],
);
pub const NV_ENC_PRESET_P6_GUID: Guid = Guid::from_values(
0x8e75c279,
0x6299,
0x4ab6,
[0x83, 0x2, 0xb, 0x21, 0x5a, 0x33, 0x5c, 0xf5],
);
pub const NV_ENC_PRESET_P7_GUID: Guid = Guid::from_values(
0x84848c12,
0x6f71,
0x4c13,
[0x93, 0x1b, 0x53, 0xe2, 0x83, 0xf5, 0x79, 0x74],
);
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pub mod enums;
pub mod function_table;
pub mod guids;
pub mod result;
pub mod structs;
pub mod version;
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#[derive(Debug, PartialEq, Eq)]
#[repr(C)]
pub enum NVencResult {
Success,
NoDevice,
UnsupportedDevice,
InvalidEncoderDevice,
InvalidDevice,
DeviceNotExist,
InvalidPtr,
InvalidParam,
InvalidEvent,
InvalidCall,
OutOfMemory,
NotInitialized,
UnsupportedParam,
LockBusy,
NotEnoughBuffer,
InvalidVersion,
MapFailed,
NeedMoreInput,
EncoderBusy,
EventNotRegisterd,
Generic,
IncompatibleClientKey,
Unimplemented,
ResourceRegisterFailed,
ResourceNotRegistered,
ResourceNotMapped,
NeedMoreOutput,
}
impl NVencResult {
pub fn into_error(self) -> Result<(), NVencError> {
NVencError::from_result(self)
}
}
impl NVencError {
pub fn from_result(value: NVencResult) -> Result<(), Self> {
if value == NVencResult::Success {
Ok(())
} else {
// Safety: They are one case different, so they always align
unsafe { Err(std::mem::transmute::<NVencResult, NVencError>(value)) }
}
}
}
#[derive(Debug, PartialEq, Eq)]
#[repr(C)]
pub enum NVencError {
NoDevice = NVencResult::NoDevice as isize,
UnsupportedDevice,
InvalidEncoderDevice,
InvalidDevice,
DeviceNotExist,
InvalidPtr,
InvalidEvent,
InvalidParam,
InvalidCall,
OutOfMemory,
NotInitialized,
UnsupportedParam,
LockBusy,
NotEnoughBuffer,
InvalidVersion,
MapFailed,
NeedMoreInput,
EncoderBusy,
EventNotRegisterd,
Generic,
IncompatibleClientKey,
Unimplemented,
ResourceRegisterFailed,
ResourceNotRegistered,
ResourceNotMapped,
NeedMoreOutput,
}
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use std::{ffi::c_void, mem::ManuallyDrop};
use crate::sys::{
enums::{
NVencAV1PartSize, NVencBFrameRefMode, NVencBitDepth, NVencBufferFormat, NVencBufferUsage,
NVencCaps, NVencDeviceType, NVencDisplayPicStruct, NVencH264AdaptiveTransformMode,
NVencH264BDirectMode, NVencH264EntropyCodingMode, NVencH264FMOMode, NVencHEVCCuSize,
NVencInputResourceType, NVencLookAheadLevel, NVencMVPrecision, NVencMemoryHeap,
NVencMultiPass, NVencNumRefFrames, NVencOutputStatsLevel, NVencParamsFrameFieldMode,
NVencParamsRcMode, NVencPicStruct, NVencPicType, NVencQPMapMode, NVencStateRestoreType,
NVencStereoPackingMode, NVencTemporalFilterLevel, NVencTuningInfo, NVencVUIColorPrimaries,
NVencVUIMatrixCoeffs, NVencVUITransCharacteristics, NVencVUIVideoFormat,
},
version::struct_version,
};
#[derive(Default, Clone, PartialEq, Eq)]
#[repr(C)]
pub struct Guid {
pub data1: u32,
pub data2: u16,
pub data3: u16,
pub data4: [u8; 8],
}
impl Guid {
pub const fn from_values(data1: u32, data2: u16, data3: u16, data4: [u8; 8]) -> Self {
Self {
data1,
data2,
data3,
data4,
}
}
pub const fn from_u128(uuid: u128) -> Self {
Self {
data1: (uuid >> 96) as u32,
data2: ((uuid >> 80) & 0xffff) as u16,
data3: ((uuid >> 64) & 0xffff) as u16,
data4: (uuid as u64).to_be_bytes(),
}
}
}
#[repr(C)]
pub struct NVencCapsParam {
version: u32,
caps_to_query: NVencCaps,
rsvd: [u32; 62],
}
pub const NV_ENC_CAPS_PARAM_VERSION: u32 = struct_version(1);
#[repr(C)]
pub struct NVencRestoreEncoderStateParams {
version: u32,
buffer: u32,
state: NVencStateRestoreType,
rsvd: u32,
output_bit_stream: *mut c_void,
completion_event: *mut c_void,
rsvd1: [u32; 64],
rsvd2: [*mut c_void; 64],
}
pub const NV_ENC_RESTORE_STATE_PARAMS_VER: u32 = struct_version(2);
#[repr(C)]
pub struct NVencOutputStatsBlock {
version: u32,
qp: u8,
rsvd: [u8; 3],
bit_count: u32,
satd_cost: u32,
rsvd1: [u32; 12],
}
pub const NV_ENC_OUTPUT_STATS_BLOCK_VER: u32 = struct_version(1);
#[repr(C)]
pub struct NVencOutputStatsRow {
version: u32,
qp: u8,
rsvd: [u8; 3],
bit_count: u32,
satd_cost: u32,
rsvd1: [u32; 12],
}
pub const NV_ENC_OUTPUT_STATS_ROW_VER: u32 = struct_version(1);
#[repr(C)]
pub struct NVencEncodeOutParams {
version: u32,
bitstream_size_in_bytes: u32,
rsvd: [u32; 62],
}
pub const NV_ENC_ENCODE_OUT_PARAMS_VER: u32 = struct_version(1);
#[repr(C)]
pub struct NVencLookAheadPicParams {
version: u32,
rsvd: u32,
input_buffer: *mut c_void,
picture_type: NVencPicType,
rsvd1: [u32; 63],
rsvd2: [*mut c_void; 64],
}
pub const NV_ENC_LOOKAHEAD_PIC_PARAMS_VER: u32 = struct_version(2);
#[repr(C)]
pub struct NVencCreateInputBuffer {
pub version: u32,
pub width: u32,
pub height: u32,
pub memory_heap: NVencMemoryHeap,
pub buffer_fmt: NVencBufferFormat,
pub rsvd: u32,
pub input_buffer: *mut c_void,
pub p_sys_mem_buffer: *mut c_void,
pub rsvd1: [u32; 58],
pub rsvd2: [*mut c_void; 63],
}
pub const NV_ENC_CREATE_INPUT_BUFFER_VER: u32 = struct_version(2);
#[repr(C)]
pub struct NVencCreateBitstreamBuffer {
pub version: u32,
#[deprecated]
size: u32,
#[deprecated]
memory_heap: NVencMemoryHeap,
rsvd: u32,
pub bitstream_buffer: *mut c_void,
bitstream_buffer_ptr: *mut c_void,
rsvd1: [u32; 58],
rsvd2: [*mut c_void; 64],
}
pub const NV_ENC_CREATE_BITSTREAM_BUFFER_VER: u32 = struct_version(1);
#[repr(C)]
pub struct NVencMVector {
mvx: i16,
mvy: i16,
}
#[repr(C)]
pub struct NVencH264MVData {
mv: [NVencMVector; 4],
mb_type: u8,
partition_type: u8,
rsvd: u16,
mb_cost: u32,
}
#[repr(C)]
pub struct NVencHEVCMVData {
mv: [NVencMVector; 4],
cu_type: u8,
cu_size: u8,
partition_mode: u8,
last_cu_int_ctb: u8,
}
#[repr(C)]
pub struct NVencCreateMVBuffer {
version: u32,
rsvd: u32,
mv_buffer: *mut c_void,
rsvd1: [u32; 254],
rsvd2: [*mut c_void; 63],
}
pub const NV_ENC_CREATE_MV_BUFFER_VER: u32 = struct_version(2);
#[repr(C)]
pub struct NVencQP {
qp_inter_p: u32,
qp_inter_b: u32,
qp_intra: u32,
}
pub const MAX_NUM_VIEWS_MINUS_1: usize = 7;
#[repr(C)]
pub struct NVencRcParams {
version: u32,
pub rate_control_mode: NVencParamsRcMode,
const_qp: NVencQP,
pub average_bit_rate: u32,
max_bit_rate: u32,
vbv_buffer_size: u32,
vbv_initial_delay: u32,
// TODO: bit fields
bit_fields: NVencRcParamsBitFlags,
min_qp: NVencQP,
max_qp: NVencQP,
initial_rcqp: NVencQP,
temporal_layer_idx_mask: u32,
temporal_layer_qp: [u8; 8],
target_quality: u8,
target_quality_lsb: u8,
pub look_ahead_depth: u16,
low_delay_key_frame_scale: u8,
y_dc_qp_index_offset: i8,
u_dc_qp_index_offset: i8,
v_dc_qp_index_offset: i8,
qp_map_mode: NVencQPMapMode,
multi_pass: NVencMultiPass,
alpha_layer_bitrate_ratio: u32,
cb_qp_index_offset: i8,
cr_qp_index_offset: i8,
rsvd2: u16,
lookahead_level: NVencLookAheadLevel,
view_bitrate_ratios: [u8; MAX_NUM_VIEWS_MINUS_1],
rsvd3: u8,
rsvd1: u32,
}
#[repr(transparent)]
pub struct NVencRcParamsBitFlags(u32);
impl NVencRcParamsBitFlags {}
pub const NV_ENC_RC_PARAMS_VER: u32 = struct_version(1);
pub const MAX_NUM_CLOCK_TS: usize = 3;
#[repr(C)]
pub struct NVencClockTimeStampSet {
pub bitflags: u32,
pub time_offset: u32,
}
impl NVencClockTimeStampSet {}
#[repr(C)]
pub struct NVencTimeCode {
pub display_pic_struct: NVencDisplayPicStruct,
pub clock_timestamp: [NVencClockTimeStampSet; MAX_NUM_CLOCK_TS],
pub skip_clock_timestamp_insertion: u32,
}
pub const MULTIVIEW_MAX_NUM_REF_DISPLAY: usize = 32;
#[repr(C)]
pub struct HEVC3DReferenceDisplayInfo {
// TODO
pub bitflags: u32,
pub prec_ref_display_width: i32,
pub prec_ref_viewing_dist: i32,
pub num_ref_displays_minus1: i32,
pub left_view_id: [i32; MULTIVIEW_MAX_NUM_REF_DISPLAY],
pub right_view_id: [i32; MULTIVIEW_MAX_NUM_REF_DISPLAY],
pub exponent_ref_display_width: [i32; MULTIVIEW_MAX_NUM_REF_DISPLAY],
pub mantissa_ref_display_width: [i32; MULTIVIEW_MAX_NUM_REF_DISPLAY],
pub exponent_ref_viewing_distance: [i32; MULTIVIEW_MAX_NUM_REF_DISPLAY],
pub mantissa_ref_viewing_distance: [i32; MULTIVIEW_MAX_NUM_REF_DISPLAY],
pub num_sample_shift_plus512: [i32; MULTIVIEW_MAX_NUM_REF_DISPLAY],
pub additional_shift_present_flag: [u8; MULTIVIEW_MAX_NUM_REF_DISPLAY],
pub rsvd2: [u32; 4],
}
#[repr(C)]
pub struct ChromaPoints {
x: u16,
y: u16,
}
#[repr(C)]
pub struct MasteringDisplayInfo {
pub g: ChromaPoints,
pub b: ChromaPoints,
pub r: ChromaPoints,
pub white_point: ChromaPoints,
pub max_luma: u32,
pub min_luma: u32,
}
#[repr(C)]
pub struct ContentLightLevel {
pub max_content_light_level: u16,
pub max_pic_average_light_level: u16,
}
#[repr(C)]
pub struct NVencConfigH264VUIParameters {
overscan_info_present_flag: u32,
overscan_info: u32,
video_signal_type_present_flag: u32,
video_format: NVencVUIVideoFormat,
video_full_range_flag: u32,
color_description_present_flag: u32,
color_primaries: NVencVUIColorPrimaries,
transfer_characteristics: NVencVUITransCharacteristics,
color_matrix: NVencVUIMatrixCoeffs,
chroma_sample_location_flag: u32,
chroma_sample_location_top: u32,
chroma_sample_location_bot: u32,
bitstream_restriction_flag: u32,
timing_info_present_flag: u32,
num_unit_in_ticks: u32,
time_scale: u32,
rsvd: [u32; 12],
}
pub type NVencConfigHEVCVUIParamaters = NVencConfigH264VUIParameters;
#[repr(C)]
#[derive(Default)]
pub struct NVencExternalMeHintCountsPerBlockType {
pub bitflags: u32,
pub rsvd1: [u32; 3],
}
#[repr(transparent)]
pub struct NVencExternalMeHint(i32);
#[repr(C)]
pub struct NVencExternalMeSbHint {
flags1: i16,
flags2: i16,
flags3: i16,
}
#[repr(C)]
pub struct NVencConfigH264 {
bitflags: u32,
level: u32,
idr_period: u32,
seperate_color_plane_flag: u32,
disable_deblocking_filter_idc: u32,
num_termpoal_layers: u32,
sps_id: u32,
pps_id: u32,
adaptive_transform_mode: NVencH264AdaptiveTransformMode,
fmo_mode: NVencH264FMOMode,
bdirect_mode: NVencH264BDirectMode,
entropy_coding_mode: NVencH264EntropyCodingMode,
stereo_mode: NVencStereoPackingMode,
intra_refresh_period: u32,
intra_refresh_count: u32,
max_num_ref_frames: u32,
slice_mode: u32,
slice_mode_data: u32,
h264_vui_parameters: NVencConfigH264VUIParameters,
ltr_num_frames: u32,
ltr_trust_mode: u32,
chroma_format_idc: u32,
max_termpoal_layers: u32,
use_b_frames_as_ref: NVencBFrameRefMode,
num_ref_l0: NVencNumRefFrames,
num_ref_l1: NVencNumRefFrames,
output_bit_depth: NVencBitDepth,
input_bit_depth: NVencBitDepth,
tf_level: NVencTemporalFilterLevel,
rsvd1: [u32; 264],
rsvd: [*mut c_void; 64],
}
#[repr(C)]
pub struct NVencConfigHEVC {
level: u32,
tier: u32,
min_cu_size: NVencHEVCCuSize,
max_cu_size: NVencHEVCCuSize,
bitflags: u32,
idr_period: u32,
intra_refresh_cnt: u32,
max_num_ref_frames_in_dpb: u32,
ltr_num_frames: u32,
vps_id: u32,
sps_id: u32,
pps_id: u32,
slice_mode: u32,
slice_mode_data: u32,
max_temporal_layers_minus_1: u32,
hevc_vui_paramters: NVencConfigHEVCVUIParamaters,
ltr_trust_mode: u32,
use_b_frames_as_ref: NVencBFrameRefMode,
tf_level: NVencTemporalFilterLevel,
disable_deblocking_filter_idc: u32,
output_bit_depth: NVencBitDepth,
input_bit_depth: NVencBitDepth,
num_temporal_layers: u32,
num_views: u32,
rsvd1: [u32; 208],
rsvd2: [*mut c_void; 64],
}
pub const NV_MAX_TILE_COLS_AV1: usize = 64;
pub const NV_MAX_TILE_ROWS_AV1: usize = 64;
#[repr(C)]
pub struct NVencFilmGrainParamsAV1 {
bitfields: u32,
point_y_value: [u8; 14],
point_y_scaling: [u8; 14],
point_cb_value: [u8; 10],
point_cb_scaling: [u8; 10],
point_cr_value: [u8; 10],
point_cr_scaling: [u8; 10],
ar_coeffs_y_plus128: [u8; 24],
ar_coeffs_cb_plus128: [u8; 25],
ar_coeffs_cr_plus128: [u8; 25],
rsvd2: [u8; 2],
cb_mult: u8,
cb_luma_mult: u8,
cb_offset: u16,
cr_mult: u8,
cr_luma_mult: u8,
cr_offset: u16,
}
#[repr(C)]
pub struct NVencConfigAV1 {
level: u32,
tier: u32,
min_part_size: NVencAV1PartSize,
max_part_size: NVencAV1PartSize,
bitflags: u32,
idr_period: u32,
intra_refresh_period: u32,
intra_refresh_count: u32,
max_num_ref_frames_in_dpb: u32,
num_tiles_columns: u32,
num_tile_rows: u32,
rsvd2: u32,
tile_widths: *mut u32,
tile_heights: *mut u32,
max_temporal_layers_minus_1: u32,
color_primaries: NVencVUIColorPrimaries,
transfer_characteristics: NVencVUITransCharacteristics,
matrix_coefficients: NVencVUIMatrixCoeffs,
color_range: u32,
chroma_sample_position: u32,
use_b_frames_as_ref: NVencBFrameRefMode,
film_grain_params: NVencFilmGrainParamsAV1,
num_fwd_refs: NVencNumRefFrames,
num_bwd_refs: NVencNumRefFrames,
input_bit_depth: NVencBitDepth,
ltr_num_frames: u32,
num_temporal_layers: u32,
tf_level: NVencTemporalFilterLevel,
rsvd1: [u32; 230],
rsvd3: [*mut c_void; 62],
}
#[repr(C)]
pub struct NVencConfigH264MeOnly {
bitflags: u32,
rsvd1: [u32; 255],
rsvd2: [*mut c_void; 64],
}
#[repr(C)]
pub struct NVencConfigHEVCMeOnly {
rsvd: [u32; 256],
rsvd1: [*mut c_void; 64],
}
#[repr(C)]
pub union NVencCodecConfig {
h264: ManuallyDrop<NVencConfigH264>,
hevc: ManuallyDrop<NVencConfigHEVC>,
av1: ManuallyDrop<NVencConfigAV1>,
h264_meonly: ManuallyDrop<NVencConfigH264MeOnly>,
hevc_meonly: ManuallyDrop<NVencConfigHEVCMeOnly>,
rsvd: [u32; 320],
}
#[repr(C)]
pub struct NVencConfig {
pub version: u32,
pub profile_guid: Guid,
pub gop_len: u32,
pub frame_interval_p: i32,
mono_chrome_encoding: u32,
frame_field_mode: NVencParamsFrameFieldMode,
mv_precision: NVencMVPrecision,
pub rc_params: NVencRcParams,
encode_codec_config: NVencCodecConfig,
rsvd: [u32; 278],
rsvd2: [*mut c_void; 64],
}
pub const NV_ENC_CONFIG_VER: u32 = struct_version(9) | (1 << 31);
#[bitfields::bitfield(u32)]
pub struct NVencInitializeParamsBitfields {
#[bits(1)]
pub report_slice_offsets: bool,
#[bits(1)]
pub enable_sub_frame_write: bool,
#[bits(1)]
pub enable_external_me_hints: bool,
#[bits(1)]
pub enable_me_only_mode: bool,
#[bits(1)]
pub enable_weighted_prediction: bool,
#[bits(4)]
pub split_encode_mode: u8,
#[bits(1)]
pub enable_output_in_vid_mem: bool,
#[bits(1)]
pub enable_recon_frame_output: bool,
#[bits(1)]
pub enable_output_stats: bool,
#[bits(1)]
pub enable_uni_directional_b: bool,
#[bits(19)]
pub rsvd: u32,
}
#[repr(C)]
pub struct NVencInitializeParams {
pub version: u32,
pub encode_guid: Guid,
pub preset_guid: Guid,
pub encode_width: u32,
pub encode_height: u32,
pub dar_width: u32,
pub dar_height: u32,
pub frame_rate_num: u32,
pub frame_rate_den: u32,
pub enable_encode_async: u32,
pub enable_ptd: u32,
pub bit_flags: NVencInitializeParamsBitfields,
pub(crate) priv_data_size: u32,
pub(crate) rsvd: u32,
pub(crate) priv_data: *mut c_void,
pub encode_config: *mut NVencConfig,
pub max_encode_width: u32,
pub max_encode_height: u32,
pub max_me_hint_counts_per_block: [NVencExternalMeHintCountsPerBlockType; 2],
pub tuning_info: NVencTuningInfo,
pub buffer_format: NVencBufferFormat,
pub num_state_buffers: u32,
pub output_stats_level: NVencOutputStatsLevel,
pub(crate) rsvd1: [u32; 284],
pub(crate) rsvd2: [*mut c_void; 64],
}
pub const NV_ENC_INITIALIZE_PARAMS_VER: u32 = struct_version(7) | (1 << 31);
#[repr(C)]
pub struct NVencReconfigureParams {
version: u32,
rsvd: u32,
re_init_encode_params: NVencInitializeParams,
bitflags: u32,
rsvd2: u32,
}
pub const NV_ENC_RECONFIGURE_PARAMS_VER: u32 = struct_version(2) | (1 << 31);
#[repr(C)]
pub struct NVencPresetConfig {
pub version: u32,
rsvd: u32,
pub preset_cfg: NVencConfig,
rsvd1: [u32; 256],
rsvd2: [*mut c_void; 64],
}
pub const NV_ENC_PRESET_CONFIG_VER: u32 = struct_version(5) | (1 << 31);
#[repr(C)]
pub struct NVencPicParamsMVC {
version: u32,
view_id: u32,
temporal_id: u32,
priority_id: u32,
rsvd1: [u32; 12],
rsvd2: [*mut c_void; 8],
}
pub const NV_ENC_PIC_PARAMS_MVC_VER: u32 = struct_version(1);
#[repr(C)]
pub union NVencPicParamsH264EXT {
pub mvc_pic_params: ManuallyDrop<NVencPicParamsMVC>,
pub rsvd1: [u32; 32],
}
#[repr(C)]
pub struct NVencSeiPayload {
pub payload_size: u32,
pub payload_type: u32,
pub payload: *mut u8,
}
pub type NVencH264SeiPayload = NVencSeiPayload;
#[repr(C)]
pub struct NVencPicParamsH264 {
pub display_poc_syntax: u32,
pub rsvd3: u32,
pub ref_pic_flag: u32,
pub color_plane_id: u32,
pub force_intra_refresh_with_frame_count: u32,
pub bitflags: u32,
pub slice_type_data: *mut u8,
pub slice_type_array_count: u32,
pub sei_payload_array_count: u32,
pub sei_payload_array: *mut NVencSeiPayload,
pub slice_mode: u32,
pub slice_mode_data: u32,
pub ltr_mark_framce_idx: u32,
pub ltr_use_frame_bitmap: u32,
pub ltr_usage_mode: u32,
pub force_intra_slice_count: u32,
pub force_intra_slice_idx: *mut u32,
pub h264_ext_pic_params: NVencPicParamsH264EXT,
pub time_code: NVencTimeCode,
pub rsvd: [u32; 202],
pub rsvd2: [*mut c_void; 61],
}
#[repr(C)]
pub struct NVencPicParamsHEVC {
pub display_poc_syntax: u32,
pub ref_pic_flag: u32,
pub temporal_id: u32,
pub force_intra_refresh_with_frame_count: u32,
pub bitflags: u32,
pub rsvd1: u32,
pub slice_type_data: *mut u8,
pub slice_type_array_count: u32,
pub slice_mode: u32,
pub slice_mode_data: u32,
pub ltr_mark_frame_idx: u32,
pub ltr_usage_frame_bitmap: u32,
pub ltr_usage_mode: u32,
pub sei_payload_array_count: u32,
pub rsvd: u32,
pub sei_payload_array: *mut NVencSeiPayload,
pub time_code: NVencTimeCode,
pub num_temporal_layers: u32,
pub view_id: u32,
pub _3d_reference_display_info: *mut HEVC3DReferenceDisplayInfo,
pub max_cll: *mut ContentLightLevel,
pub mastering_display: *mut MasteringDisplayInfo,
pub rsvd2: [u32; 234],
pub rsvd3: [*mut c_void; 58],
}
pub type NVencAV1OBUPayload = NVencSeiPayload;
#[repr(C)]
pub struct NVencPicParamsAV1 {
display_poc_syntax: u32,
ref_pic_flag: u32,
temporal_id: u32,
force_intra_refresh_with_frame_count: u32,
bitflags: u32,
num_tile_columns: u32,
num_tile_rows: u32,
rsvd: u32,
tile_widths: *mut u32,
tile_heights: *mut u32,
obu_payload_array_count: u32,
rsvd1: u32,
obu_payload_array: *mut NVencAV1OBUPayload,
file_grain_params: *mut NVencFilmGrainParamsAV1,
ltr_mark_frame_idx: u32,
ltr_use_frame_bitmap: u32,
num_temporal_layers: u32,
rsvd4: u32,
max_cll: *mut ContentLightLevel,
mastering_display: *mut MasteringDisplayInfo,
rsvd2: [u32; 242],
rsvd3: [*mut c_void; 59],
}
#[repr(C)]
pub union NVencCodecPicParams {
pub h264_pic_params: ManuallyDrop<NVencPicParamsH264>,
pub hevc_pic_params: ManuallyDrop<NVencPicParamsHEVC>,
av1_pic_params: ManuallyDrop<NVencPicParamsAV1>,
pub rsvd: [u32; 256],
}
#[repr(C)]
pub struct NVencPicParams {
pub version: u32,
pub input_width: u32,
pub input_height: u32,
pub input_pitch: u32,
pub encode_pic_flags: u32,
pub frame_idx: u32,
pub input_time_stamp: u64,
input_duration: u64,
pub input_buffer: *mut c_void,
pub output_bitstream: *mut c_void,
// TODO: Windows only, needed for async
completion_event: *mut c_void,
pub buffer_format: NVencBufferFormat,
pub picture_struct: NVencPicStruct,
pub picture_type: NVencPicType,
pub codec_pic_params: NVencCodecPicParams,
me_hint_counts_per_block: [NVencExternalMeHintCountsPerBlockType; 2],
me_external_hints: *mut NVencExternalMeHint,
rsvd2: [u32; 7],
rsvd5: [*mut c_void; 2],
qp_delta_map: *mut i8,
qp_deltra_map_size: u32,
rsvd_bit_fields: u32,
me_hint_ref_pic_dist: [u16; 2],
rsvd4: u32,
alpha_buffer: *mut c_void,
me_external_sb_hints: *mut NVencExternalMeSbHint,
me_sb_hints_count: u32,
state_buffer_idx: u32,
output_recon_buffer: *mut c_void,
rsvd3: [u32; 284],
rsvd6: [*mut c_void; 57],
}
pub const NV_ENC_PIC_PARAMS_VER: u32 = struct_version(7) | (1 << 31);
#[repr(C)]
pub struct NVencMeOnlyParams {
version: u32,
input_width: u32,
input_height: u32,
rsvd: u32,
input_buffer: *mut c_void,
reference_frame: *mut c_void,
mv_buffer: *mut c_void,
rsvd2: u32,
buffer_formtat: NVencBufferFormat,
view_id: u32,
me_hint_counts_per_block: [NVencExternalMeHintCountsPerBlockType; 2],
me_external_hints: NVencExternalMeHint,
rsvd1: [u32; 241],
rsvd3: [*mut c_void; 59],
}
pub const NV_ENC_MEONLY_PARAMS_VER: u32 = struct_version(4);
#[bitfields::bitfield(u32)]
pub struct NVencLockBitStreamBitFields {
#[bits(1)]
pub do_not_wait: bool,
#[bits(1)]
pub ltr_frame: bool,
#[bits(1)]
pub get_rc_stats: bool,
#[bits(29)]
rsvd: u32,
}
#[repr(C)]
pub struct NVencLockBitStream {
pub version: u32,
pub bit_fields: NVencLockBitStreamBitFields,
pub output_bit_stream: *mut c_void,
slice_offsets: *mut u32,
frame_idx: u32,
hw_encode_status: u32,
num_slices: u32,
pub bitstream_size_in_bytes: u32,
output_time_stamp: u64,
pub output_duration: u64,
pub bitstream_buffer: *mut c_void,
picture_type: NVencPicType,
picture_struct: NVencPicStruct,
framge_avg_qp: u32,
frame_satd: u32,
ltr_frame_idx: u32,
ltr_frame_bitmap: u32,
temporal_id: u32,
inter_mb_count: u32,
average_mvx: i32,
average_mvy: i32,
alpha_layer_size_in_bytes: u32,
output_stats_ptr_size: u32,
rsvd: u32,
output_stats_ptr: *mut c_void,
frame_idx_display: u32,
rsvd1: [u32; 219],
rsvd2: [*mut c_void; 63],
rsvd_interanl: [u32; 8],
}
pub const NV_ENC_LOCK_BITSTREAM_VER: u32 = struct_version(2) | (1 << 31);
#[repr(C)]
pub struct NVencLockInputBuffer {
pub version: u32,
pub bitflags: u32,
pub input_buffer: *mut c_void,
pub buffer_data_ptr: *mut c_void,
pub pitch: u32,
pub rsvd1: [u32; 251],
pub rsvd2: [*mut c_void; 64],
}
pub const NV_ENC_LOCK_INPUT_BUFFER_VER: u32 = struct_version(1);
#[repr(C)]
pub struct NVencMapInputResource {
pub version: u32,
sub_resource_idx: u32,
input_resource: *mut c_void,
pub registered_resource: *mut c_void,
pub mapped_resource: *mut c_void,
pub mapped_buffer_format: NVencBufferFormat,
rsvd1: [u32; 251],
rsvd: [*mut c_void; 63],
}
pub const NV_ENC_MAP_INPUT_RESOURCE_VER: u32 = struct_version(4);
#[repr(C)]
pub struct NVencInputResourceOpenGLTex {
texture: u32,
target: u32,
}
#[repr(C)]
pub struct NVencFencePointD3D12 {
version: u32,
rsvd: u32,
p_fence: *mut c_void,
wait_value: u64,
signal_value: u64,
bit_flags: u32,
rsvd1: [u32; 7],
}
pub const NV_ENC_FENCE_POINT_D3D12_VER: u32 = struct_version(1);
#[repr(C)]
pub struct NVencInputResourceD3D12 {
version: u32,
rsvd: u32,
input_buffer: *mut c_void,
input_fence_point: NVencFencePointD3D12,
rsvd1: [u32; 16],
rsvd2: [*mut c_void; 16],
}
pub const NV_ENC_INPUT_RESOURCE_D3D12_VER: u32 = struct_version(1);
#[repr(C)]
pub struct NVencOutputResourceD3D12 {
version: u32,
rsvd: u32,
output_buffer: *mut c_void,
output_fence_point: NVencFencePointD3D12,
rsvd1: [u32; 16],
rsvd2: [*mut c_void; 16],
}
pub const NV_ENC_OUTPUT_RESOURCE_D3D12_VER: u32 = struct_version(1);
#[repr(C)]
pub struct NVencRegisterResource {
pub version: u32,
pub resource_type: NVencInputResourceType,
pub width: u32,
pub height: u32,
pub pitch: u32,
pub sub_resource_index: u32,
pub resource_to_register: *mut c_void,
pub registered_resource: *mut c_void,
pub buffer_format: NVencBufferFormat,
pub buffer_usage: NVencBufferUsage,
pub input_fence_point: *mut NVencFencePointD3D12,
pub chroma_offset: [u32; 2],
pub chroma_offset_in: [u32; 2],
pub(crate) rsvd1: [u32; 244],
pub(crate) rsvd2: [*mut c_void; 61],
}
pub const NV_ENC_REGISTER_RESOURCE_VER: u32 = struct_version(5);
#[repr(C)]
pub struct NVencStat {
version: u32,
rsvd: u32,
output_bit_stream: *mut c_void,
bit_stream_size: u32,
pic_type: u32,
last_valid_byte_offset: u32,
slice_offsets: [u32; 16],
pic_idx: u32,
frame_avg_qp: u32,
bit_flags: u32,
ltr_frame_idx: u32,
intra_mb_count: u32,
inter_mb_count: u32,
average_mv_x: i32,
average_mv_y: i32,
rsvd1: [u32; 227],
rsvd2: [*mut c_void; 64],
}
pub const NV_ENC_STAT_VER: u32 = struct_version(2);
#[repr(C)]
pub struct NVencSequenceParamPayload {
version: u32,
in_buffer_size: u32,
sps_id: u32,
pps_id: u32,
spspps_buffer: *mut c_void,
output_spspps_payload_size: *mut u32,
rsvd: [u32; 250],
rsvd2: [*mut c_void; 64],
}
pub const NV_ENC_SEQUENCE_PARAM_PAYLOAD_VER: u32 = struct_version(1);
#[repr(C)]
pub struct NVencEventParams {
version: u32,
rsvd: u32,
completion_event: *mut c_void,
rsvd1: [u32; 254],
rsvd2: [*mut c_void; 64],
}
pub const NV_ENC_EVENT_PARAMS_VER: u32 = struct_version(2);
#[repr(C)]
pub struct NVencOpenEncodeSessionExParams {
pub version: u32,
pub device_type: NVencDeviceType,
pub device: *mut c_void,
rsvd: *mut c_void,
pub api_version: u32,
rsvd1: [u32; 253],
rsvd2: [*mut c_void; 64],
}
pub const NV_ENC_OPEN_ENCODE_SESSION_EX_PARAMS_VER: u32 = struct_version(1);
+12
View File
@@ -0,0 +1,12 @@
//! Contains the nvenc version numbers, encoded as they are in C, for the version this crate was built against
pub const NVENC_MAJOR_VERSION: u16 = 13;
pub const NVENC_MINOR_VERSION: u8 = 0;
pub const NVENC_API_VERSION: u32 = NVENC_MAJOR_VERSION as u32 | (NVENC_MINOR_VERSION as u32) << 24;
pub const NVENC_API_LIST_VERSION: u32 = struct_version(2);
pub const fn struct_version(nvenc_api_version: u8) -> u32 {
NVENC_API_VERSION | (nvenc_api_version as u32) << 16 | 0x7 << 28
}
+69 -4
View File
@@ -110,6 +110,8 @@ struct Stats {
agent_sent: AtomicU64, agent_sent: AtomicU64,
/// H.264 解码失败计数(关键帧自愈验证指标) /// H.264 解码失败计数(关键帧自愈验证指标)
dec_fail: AtomicU64, dec_fail: AtomicU64,
/// 当前是否处于「参考链断裂、等待 IDR」状态(HUD 显示 RECOVER)
awaiting_idr: AtomicBool,
/// 帧到达间隔环形缓冲 /// 帧到达间隔环形缓冲
gaps: std::sync::Mutex<GapRing>, gaps: std::sync::Mutex<GapRing>,
} }
@@ -129,6 +131,7 @@ impl Default for Stats {
agent_lost: AtomicU64::new(0), agent_lost: AtomicU64::new(0),
agent_sent: AtomicU64::new(0), agent_sent: AtomicU64::new(0),
dec_fail: AtomicU64::new(0), dec_fail: AtomicU64::new(0),
awaiting_idr: AtomicBool::new(true),
gaps: std::sync::Mutex::new(GapRing { gaps: std::sync::Mutex::new(GapRing {
last: None, last: None,
ring: [0; 64], ring: [0; 64],
@@ -218,9 +221,27 @@ async fn run(addr: String, port: u16, code: String) -> Result<()> {
let (mut send, mut recv) = conn.open_bi().await?; let (mut send, mut recv) = conn.open_bi().await?;
write_control(&mut send, &ControlMsg::Auth { code }).await?; write_control(
&mut send,
&ControlMsg::Auth {
code,
proto_version: common::PROTO_VERSION,
},
)
.await?;
match read_control(&mut recv).await? { match read_control(&mut recv).await? {
ControlMsg::AuthOk { width, height } => { ControlMsg::AuthOk {
width,
height,
proto_version,
} => {
// 版本已在 Auth 里声明,这里再核对一次:防止被控端是旧版却"接受"了认证
if proto_version != common::PROTO_VERSION {
bail!(
"protocol version mismatch: server={proto_version}, client={}",
common::PROTO_VERSION
);
}
println!("[viewer] auth ok, remote desktop {width}x{height}"); println!("[viewer] auth ok, remote desktop {width}x{height}");
// 流 2:键鼠输入 + Ping/Pong 独立通道,不与视频流竞争 // 流 2:键鼠输入 + Ping/Pong 独立通道,不与视频流竞争
let (isend, irecv) = conn.open_bi().await?; let (isend, irecv) = conn.open_bi().await?;
@@ -257,6 +278,15 @@ fn session(
let mut last_kfreq = Instant::now(); let mut last_kfreq = Instant::now();
let mut skip_stale = 0u64; let mut skip_stale = 0u64;
let mut last_arr: Option<Instant> = None; let mut last_arr: Option<Instant> = None;
// 「等待 IDR」状态:参考链一旦断裂(跳帧或解码失败),后续 P 帧**必然**
// 解不出来。此时必须停止喂解码器,只等 IDR 重新同步。
//
// 之前没有这个状态,后果是:跳掉一帧后,每个 P 帧都被送进 decoder →
// 每个都失败 → 每个都打日志 → 每个都触发一次 KeyFrameReq。
// 表现为「decode failed」刷屏,且解码器反复在错误状态里挣扎。
//
// 放在 Stats 里(而非局部变量)以便 HUD 显示 RECOVER 状态。
// 初始 true:入会时已发 KeyFrameReq,拿到第一个 IDR 前不该硬解。
tokio::spawn(async move { tokio::spawn(async move {
let mut size_logged = false; let mut size_logged = false;
loop { loop {
@@ -304,7 +334,10 @@ fn session(
"[viewer] backlog: stale burst frame skipped (total {skip_stale})" "[viewer] backlog: stale burst frame skipped (total {skip_stale})"
); );
} }
// 限频请求关键帧:积压排空后从 IDR 重新衔接画面 // 跳帧直接切断 H.264 参考链:之后所有 P 帧都解不出来。
// 立刻转入「等待 IDR」并请求关键帧,绝不能让后续 P 帧
// 继续喂给解码器(那是必然失败的徒劳尝试)。
stats.awaiting_idr.store(true, Ordering::Relaxed);
if last_kfreq.elapsed() >= Duration::from_millis(200) { if last_kfreq.elapsed() >= Duration::from_millis(200) {
last_kfreq = Instant::now(); last_kfreq = Instant::now();
if let Ok(mut slot) = latest.lock() { if let Ok(mut slot) = latest.lock() {
@@ -313,6 +346,22 @@ fn session(
} }
continue; continue;
} }
// 参考链未恢复时,P 帧一律跳过——此为正确性要求,不是优化。
if stats.awaiting_idr.load(Ordering::Relaxed) && !hdr.keyframe {
skip_stale += 1;
// 补发请求,防止首次 KeyFrameReq 丢失(时间闸限频)
if last_kfreq.elapsed() >= Duration::from_millis(200) {
last_kfreq = Instant::now();
if let Ok(mut slot) = latest.lock() {
*slot = Some((0, 0, Vec::new()));
}
}
continue;
}
// 拿到 IDR 才能重新开始解码
if hdr.keyframe {
stats.awaiting_idr.store(false, Ordering::Relaxed);
}
match decoder.decode(&payload) { match decoder.decode(&payload) {
Ok(Some(yuv)) => { Ok(Some(yuv)) => {
let (dw, dh) = yuv.dimensions(); let (dw, dh) = yuv.dimensions();
@@ -334,7 +383,8 @@ fn session(
} }
Ok(None) => {} Ok(None) => {}
Err(e) => { Err(e) => {
// 解码异常:请求被控端强制关键帧 // 解码异常:参考链已不可信,转入等待 IDR
stats.awaiting_idr.store(true, Ordering::Relaxed);
stats.dec_fail.fetch_add(1, Ordering::Relaxed); stats.dec_fail.fetch_add(1, Ordering::Relaxed);
eprintln!("[viewer] decode failed: {e}, request keyframe"); eprintln!("[viewer] decode failed: {e}, request keyframe");
if let Ok(mut slot) = latest.lock() { if let Ok(mut slot) = latest.lock() {
@@ -577,6 +627,21 @@ fn session(
("P95", &hud_p95.map(|p| format!("{p}ms")).unwrap_or("--".into()), p95_c), ("P95", &hud_p95.map(|p| format!("{p}ms")).unwrap_or("--".into()), p95_c),
("LOSS", &loss_str, loss_c), ("LOSS", &loss_str, loss_c),
("DECFAIL", &format!("{hud_dec}"), if hud_dec == 0 { C_GRAY } else { C_RED }), ("DECFAIL", &format!("{hud_dec}"), if hud_dec == 0 { C_GRAY } else { C_RED }),
(
// 参考链断裂、正在等 IDR 的显式指示:此时画面冻结是**预期行为**,
// 不是故障。没有这个指示,用户会以为软件卡死。
"STATE",
&if stats.awaiting_idr.load(Ordering::Relaxed) {
"RECOVER".to_string()
} else {
"OK".to_string()
},
if stats.awaiting_idr.load(Ordering::Relaxed) {
C_AMBER
} else {
C_GREEN
},
),
("RATE", &format!("{:.0}MBP", hud_mbps), C_GRAY), ("RATE", &format!("{:.0}MBP", hud_mbps), C_GRAY),
("RES", &format!("{w}x{h}"), C_GRAY), ("RES", &format!("{w}x{h}"), C_GRAY),
], ],
+53 -8
View File
@@ -189,7 +189,9 @@ pub enum Path { Direct { addr: SocketAddr }, Relay { endpoint: EndpointId } }
--- ---
## 6. ⚠️ 必须现在拍板:手机主控 vs 不做中继 ## 6. ✅ 已裁决:不做中继(2026-10-28)
> **裁决结论**:公司不提供中继服务器,中继不做。以下保留原始分析以免后人重蹈讨论。
**手机在蜂窝网络下几乎 100% 处于运营商级 NAT(CGNAT),打洞打不通。** **手机在蜂窝网络下几乎 100% 处于运营商级 NAT(CGNAT),打洞打不通。**
这不是实现问题,是网络事实——`100.64.0.0/10` 那段地址根本没给你可映射的公网端口。 这不是实现问题,是网络事实——`100.64.0.0/10` 那段地址根本没给你可映射的公网端口。
@@ -197,16 +199,56 @@ pub enum Path { Direct { addr: SocketAddr }, Relay { endpoint: EndpointId } }
后果:**"主控端支持安卓/iOS" + "不做中继" = 手机只能在 WiFi 下用。** 后果:**"主控端支持安卓/iOS" + "不做中继" = 手机只能在 WiFi 下用。**
地铁上、外面、用流量,一律连不上。 地铁上、外面、用流量,一律连不上。
三条出路,必须选一条: 三条出路:
| 方案 | 代价 | 说明 | | 方案 | 代价 | 说明 |
|---|---|---| |---|---|---|
| **A. 只靠 IPv6** | 部分用户不可用 | 国内三大运营商 v6 覆盖率高,手机 v6 可用性远好于 v4 公网。**推荐先做,能覆盖大多数** | | **A. 只靠 IPv6** | 部分用户不可用 | 国内三大运营商 v6 覆盖率高,手机 v6 可用性远好于 v4 公网 |
| **B. 补一个只为移动端服务的中继** | 视频带宽成本 | 可用率 100%,但账单跟着视频流量走 | | B. 补一个只为移动端服务的中继 | 视频带宽成本 | **已排除:公司不提供额外服务器** |
| **C. 接受"手机只能 WiFi"** | 产品力受限 | 零成本,但要写进产品说明,别让用户以为坏了 | | C. 接受"手机只能 WiFi" | 产品力受限 | 零成本,但要写进产品说明 |
**我的建议:A 先做(架构里 v6 是一等公民),B 的接口留在 `PathProvider` 里不给实现,等真要推移动端再决定。** ### 6.1 裁决内容与边界(2026-10-28)
不要现在就把路堵死——留接口的成本几乎为零,推倒重来成本极高。
| 项 | 裁决 |
|---|---|
| 中继 / TURN / relay 服务器 | **不做**。公司不提供额外服务器,且无预算计划 |
| IPv6 | **一等公民**。候选地址排序 v6 优先,`signaling.rs` 已实现 |
| 中继接口预留 | **不预留**。不写 `PathProvider` trait、不写 `Path::Relay` 变体 |
| 连接层边界 | **仍要做**。理由见 §6.2,与中继无关 |
**为什么不留中继接口**:留接口的收益是「将来补中继不用动会话层」,但既然中继已被排除,
`Path::Relay` 这类变体永远不会被构造,只会产生 `dead_code` 警告,要么 `#[allow]` 要么日后删除。
**零收益的预留就是纯负担。**
### 6.2 连接层边界与中继接口是两件事
这两件事常被混为一谈,必须分开:
| | 内容 | 现在做不做 |
|---|---|---|
| **连接层边界** | 把"怎么连"(信令/打洞/直连)与"连上干什么"(收流/解码/渲染)分开 | ✅ **要做** |
| **中继接口** | `enum Path { Direct, Relay }` 这类类型预留 | ❌ **不做** |
连接层边界本身就有独立价值,与中继无关:
1. **连接方式确定会变**:局域网 `IP:端口` → 将来设备码 + 打洞,这是已定的路线;
2. **安卓主控要复用**:`viewer-core` 收流解码渲染不应知道对面是怎么连上的;
3. **可测性**:解码逻辑能脱离真连接单独测试。
做法是把它抽成一个函数边界(输入目标描述、返回 `quinn::Connection`),
**不是**定义 trait 或枚举。
### 6.3 对产品的影响(必须写进对外说明)
| 网络环境 | 能否连接 |
|---|---|
| 双方任一侧无公网 IPv6,且处于 CGNAT 后 | ❌ **无法连接,无解** |
| 双方都有公网 IPv6 | ✅ 可直连 |
| 局域网 / 双方都有可打洞的公网 IPv4 | ✅ 可直连 |
| 对称 NAT(双方) | ❌ 通常不通 |
**这不是 bug,是已知边界。** 用户在外网连不上时,UI 必须给出可执行提示
(`PunchFailReason::user_hint()` 已提供文案),不能停留在"连接中"。
--- ---
@@ -263,7 +305,10 @@ pub enum Path { Direct { addr: SocketAddr }, Relay { endpoint: EndpointId } }
## 10. 开放问题(需要拍板) ## 10. 开放问题(需要拍板)
1. 中继:确认走 §6 的 A 方案(v6 优先、留接口不实现)? > §10 第 1 条已于 2026-10-28 裁决,见 §6。
1. ~~中继:确认走 §6 的 A 方案(v6 优先、留接口不实现)?~~
**已裁决:不做中继、不留接口、v6 优先、但保留连接层边界。详见 §6.1 / §6.2。**
2. 移动端:先 Android 还是直接砍 iOS? 2. 移动端:先 Android 还是直接砍 iOS?
3. UI 框架:确认 Tauri v2,还是先原生桌面 + 后面再说移动? 3. UI 框架:确认 Tauri v2,还是先原生桌面 + 后面再说移动?
4. 账号体系:现在是"输验证码",要支持设备列表就得有账号/设备 ID 体系——什么时候做? 4. 账号体系:现在是"输验证码",要支持设备列表就得有账号/设备 ID 体系——什么时候做?
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@@ -1,7 +1,9 @@
# 打洞与信令设计(无中继方案) # 打洞与信令设计(无中继方案)
> 状态:协议契约已落在 `common/src/signaling.rs`,待 A 过审后合入 main。 > 状态:协议契约已落在 `common/src/signaling.rs`,已合入 main(`703eb64`)。
> 决策:**不做中继(无 TURN / coturn)**,服务器只保留信令 + STUN 职能。 > 决策:**不做中继(无 TURN / coturn)**,服务器只保留信令 + STUN 职能。
> **裁决确认(2026-10-28)**:公司不提供中继服务器,本决策为最终结论,
> 同时**不预留中继接口**(理由见《多平台架构设计.md》§6.1 / §6.2)。
> 关联:`构建运行手册.md` §7 第 4 项、`Git协作规范.md` 二·B 第 ③ 项。 > 关联:`构建运行手册.md` §7 第 4 项、`Git协作规范.md` 二·B 第 ③ 项。
## 1. 结论先行:信令不是中继 ## 1. 结论先行:信令不是中继
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@@ -99,6 +99,18 @@ sock.ioctl(socket.SIO_UDP_CONNRESET, False) # 1) 关闭该行为
> 注意:首次配置时误把安全组规则设成了 **TCP**,UDP 包仍被丢弃。协议类型必须选 UDP。 > 注意:首次配置时误把安全组规则设成了 **TCP**,UDP 包仍被丢弃。协议类型必须选 UDP。
### 4.5 假阳性:信令回复被误判为"打通"
客户端在拿到对端地址前会反复注册,服务器的 `PEER` / `WAIT` 回复可能在 `discover_peer` 返回之后才到达。若接收线程不做区分,会把**服务器发来的回复**当成"对方打进来了",输出假的"✅ 打洞成功"。
实测踩到的形态:报告的"对方源地址"是**信令服务器的 IP:端口**(`47.98.245.66:47999`),包长 22 字节——而真正的打洞包固定是 **16 字节**(`PUNCHv1|` + 8 字节时间戳)。
**判据(Rust 实现必须照做)**:
1. 只认以协议魔数开头的包,长度必须是约定值
2. 显式排除信令服务器的 `IP:端口`
3. 结论里如果出现"非打洞包 N 个",说明收到了信令回复,**不能**据此判定成功
--- ---
## 5. 尚未验证 ## 5. 尚未验证
+22 -13
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@@ -20,31 +20,34 @@
- `rustup default stable-x86_64-pc-windows-gnu`,装到 `%USERPROFILE%\.cargo\bin` - `rustup default stable-x86_64-pc-windows-gnu`,装到 `%USERPROFILE%\.cargo\bin`
- MinGW-w64:`D:\mingw64\bin`(gcc 16.2.0) - MinGW-w64:`D:\mingw64\bin`(gcc 16.2.0)
- 构建时 PATH 需同时包含上面两个目录(缺 MinGW 会在链接 openh264 的 C++ 时失败) - 构建时 PATH 需同时包含上面两个目录(缺 MinGW 会在链接 openh264 的 C++ 时失败)
- **cargo 源**:国内直连 crates.io 会超时(cargo 不读系统代理),需配置镜像。已在本机 - **cargo 网络**:国内直连 crates.io 会超时,且 **cargo 不读 Windows 系统代理**,必须显式告诉它。
`%USERPROFILE%\.cargo\config.toml` 写入 USTC 源: 已在本机 `%USERPROFILE%\.cargo\config.toml` 写入(Clash 之类混合端口,按实际改):
```toml ```toml
[source.crates-io] [http]
replace-with = "ustc" proxy = "http://127.0.0.1:7897"
[source.ustc]
registry = "sparse+https://mirrors.ustc.edu.cn/crates.io-index/"
``` ```
⚠️ **不要用国内镜像做源替换**:实测 USTC 镜像的索引 `cksum` 与其实际下发的 `.crate`
字节**不一致**(`nvenc 0.1.0`:索引写 `3227c3b0…`,包体实际 `ab6fde0e…`),
会报 `failed to verify the checksum of nvenc`;且源替换会改变 registry 身份,
使 `Cargo.lock` 里已有的 checksum 与全部缓存失配。**走官方源 + 代理最稳。**
> 注:旧版本手册写的 `D:\wordkb\...\uurev\tools\rust` 路径已不存在,按上面重新准备工具链即可。 > 注:旧版本手册写的 `D:\wordkb\...\uurev\tools\rust` 路径已不存在,按上面重新准备工具链即可。
## 3. 构建 ## 3. 构建
```bash ```bash
export RUSTUP_HOME="D:\\wordkb\\2026-10-22-15-52-47\\uurev\\tools\\rust\\rustup" # Git Bash 写法:PATH 需含 rustup 的 cargo 与 MinGW-w64
export CARGO_HOME="D:\\wordkb\\2026-10-22-15-52-47\\uurev\\tools\\rust\\cargo" export PATH="$USERPROFILE/.cargo/bin:/d/mingw64/bin:$PATH"
export PATH="/d/wordkb/2026-10-22-15-52-47/uurev/tools/rust/cargo/bin:/d/wordkb/2026-10-22-15-52-47/uurev/tools/mingw64/bin:$PATH" cd /d/code/remote # 换成你自己的工作目录 / worktree
cd /d/wordkb/2026-10-22-15-52-47/mvp-remote
cargo build --release cargo build --release
``` ```
产物: 产物:
- 被控端 `target/release/agent.exe` - 被控端 `target/release/agent.exe`
- 主控端 `target/release/viewer.exe` - 主控端 `target/release/viewer.exe`
- 编码基准(可选)`target/release/encbench.exe`
## 4. 运行(两台机器,或同机双开验证) ## 4. 运行(两台机器,或同机双开验证)
@@ -164,9 +167,15 @@ viewer.exe --addr <被控机IP> --port 47800 --code 123456
bash scripts/linux-smoke.sh bash scripts/linux-smoke.sh
``` ```
脚本自建 Xvfb 虚拟屏后跑端到端测试,覆盖:X11 采集 → openh264 编码 → QUIC 下行解帧、 脚本自建 Xvfb 虚拟屏后跑**单测 + 端到端**两层:
验证码认证(含**错误验证码被拒**)、Ping/Pong(含下行丢包统计字段)、静止桌面下的关键帧
恢复,以及**输入注入实证**——注入鼠标移动后,从另一条 X11 连接读回指针真实坐标。 - 单测(不需要 X server):键码映射、坐标换算等纯逻辑;
- 端到端:X11 采集 → openh264 编码 → QUIC 下行解帧、验证码认证(含**错误验证码被拒**)、
Ping/Pong(含下行丢包统计字段)、静止桌面下的关键帧恢复,以及**输入注入实证**——
注入鼠标移动后,从另一条 X11 连接读回指针真实坐标。
> 单测那层别省:坐标换算的取整边界就是靠它才发现的(集成测试有 ±2 像素容差,
> 期望值写错也照样绿)。
> 静止关键帧那条用例做过**变异测试**:把修复退回会失败、恢复后通过,确认断言不是摆设。 > 静止关键帧那条用例做过**变异测试**:把修复退回会失败、恢复后通过,确认断言不是摆设。
> 注意扰动量必须小(画 64x64 小方块)——整屏刷白会触发编码器场景切换自动 IDR, > 注意扰动量必须小(画 64x64 小方块)——整屏刷白会触发编码器场景切换自动 IDR,