Merge branch 'master' of github.com:ZLMediaKit/ZLMediaKit into feature/transcode

This commit is contained in:
cqm 2023-03-07 17:20:34 +08:00
commit 06ddad0512
64 changed files with 3981 additions and 3917 deletions

@ -1 +1 @@
Subproject commit 57901f9d341478378b1526f7efe99ebc79b2ddb5 Subproject commit 7d52e11ae4e8d6d2c20aa0349dbfea8a1d82a968

View File

@ -65,4 +65,5 @@ WuPeng <wp@zafu.edu.cn>
[PioLing](https://github.com/PioLing) [PioLing](https://github.com/PioLing)
[KevinZang](https://github.com/ZSC714725) [KevinZang](https://github.com/ZSC714725)
[gongluck](https://github.com/gongluck) [gongluck](https://github.com/gongluck)
[a-ucontrol](https://github.com/a-ucontrol) [a-ucontrol](https://github.com/a-ucontrol)
[TalusL](https://github.com/TalusL)

View File

@ -291,6 +291,7 @@ bash build_docker_images.sh
[KevinZang](https://github.com/ZSC714725) [KevinZang](https://github.com/ZSC714725)
[gongluck](https://github.com/gongluck) [gongluck](https://github.com/gongluck)
[a-ucontrol](https://github.com/a-ucontrol) [a-ucontrol](https://github.com/a-ucontrol)
[TalusL](https://github.com/TalusL)
## 使用案例 ## 使用案例

View File

@ -81,4 +81,5 @@ install(FILES ${API_HEADER_LIST}
DESTINATION ${INSTALL_PATH_INCLUDE}) DESTINATION ${INSTALL_PATH_INCLUDE})
install(TARGETS mk_api install(TARGETS mk_api
ARCHIVE DESTINATION ${INSTALL_PATH_LIB} ARCHIVE DESTINATION ${INSTALL_PATH_LIB}
LIBRARY DESTINATION ${INSTALL_PATH_LIB}) LIBRARY DESTINATION ${INSTALL_PATH_LIB}
RUNTIME DESTINATION ${INSTALL_PATH_RUNTIME})

View File

@ -18,7 +18,7 @@ extern "C" {
///////////////////////////////////////////MP4Info///////////////////////////////////////////// ///////////////////////////////////////////MP4Info/////////////////////////////////////////////
//MP4Info对象的C映射 //MP4Info对象的C映射
typedef void* mk_mp4_info; typedef struct mk_mp4_info_t *mk_mp4_info;
// GMT 标准时间,单位秒 // GMT 标准时间,单位秒
API_EXPORT uint64_t API_CALL mk_mp4_info_get_start_time(const mk_mp4_info ctx); API_EXPORT uint64_t API_CALL mk_mp4_info_get_start_time(const mk_mp4_info ctx);
// 录像长度,单位秒 // 录像长度,单位秒
@ -42,7 +42,7 @@ API_EXPORT const char* API_CALL mk_mp4_info_get_stream(const mk_mp4_info ctx);
///////////////////////////////////////////Parser///////////////////////////////////////////// ///////////////////////////////////////////Parser/////////////////////////////////////////////
//Parser对象的C映射 //Parser对象的C映射
typedef void* mk_parser; typedef struct mk_parser_t *mk_parser;
//Parser::Method(),获取命令字譬如GET/POST //Parser::Method(),获取命令字譬如GET/POST
API_EXPORT const char* API_CALL mk_parser_get_method(const mk_parser ctx); API_EXPORT const char* API_CALL mk_parser_get_method(const mk_parser ctx);
//Parser::Url(),获取HTTP的访问url(不包括?后面的参数) //Parser::Url(),获取HTTP的访问url(不包括?后面的参数)
@ -60,7 +60,7 @@ API_EXPORT const char* API_CALL mk_parser_get_content(const mk_parser ctx, size_
///////////////////////////////////////////MediaInfo///////////////////////////////////////////// ///////////////////////////////////////////MediaInfo/////////////////////////////////////////////
//MediaInfo对象的C映射 //MediaInfo对象的C映射
typedef void* mk_media_info; typedef struct mk_media_info_t *mk_media_info;
//MediaInfo::_param_strs //MediaInfo::_param_strs
API_EXPORT const char* API_CALL mk_media_info_get_params(const mk_media_info ctx); API_EXPORT const char* API_CALL mk_media_info_get_params(const mk_media_info ctx);
//MediaInfo::_schema //MediaInfo::_schema
@ -79,7 +79,7 @@ API_EXPORT uint16_t API_CALL mk_media_info_get_port(const mk_media_info ctx);
///////////////////////////////////////////MediaSource///////////////////////////////////////////// ///////////////////////////////////////////MediaSource/////////////////////////////////////////////
//MediaSource对象的C映射 //MediaSource对象的C映射
typedef void* mk_media_source; typedef struct mk_media_source_t *mk_media_source;
//查找MediaSource的回调函数 //查找MediaSource的回调函数
typedef void(API_CALL *on_mk_media_source_find_cb)(void *user_data, const mk_media_source ctx); typedef void(API_CALL *on_mk_media_source_find_cb)(void *user_data, const mk_media_source ctx);
@ -138,7 +138,7 @@ API_EXPORT void API_CALL mk_media_source_for_each(void *user_data, on_mk_media_s
///////////////////////////////////////////HttpBody///////////////////////////////////////////// ///////////////////////////////////////////HttpBody/////////////////////////////////////////////
//HttpBody对象的C映射 //HttpBody对象的C映射
typedef void* mk_http_body; typedef struct mk_http_body_t *mk_http_body;
/** /**
* HttpStringBody * HttpStringBody
* @param str * @param str
@ -173,7 +173,7 @@ API_EXPORT void API_CALL mk_http_body_release(mk_http_body ctx);
///////////////////////////////////////////HttpResponseInvoker///////////////////////////////////////////// ///////////////////////////////////////////HttpResponseInvoker/////////////////////////////////////////////
//HttpSession::HttpResponseInvoker对象的C映射 //HttpSession::HttpResponseInvoker对象的C映射
typedef void* mk_http_response_invoker; typedef struct mk_http_response_invoker_t *mk_http_response_invoker;
/** /**
* HttpSession::HttpResponseInvoker(const string &codeOut, const StrCaseMap &headerOut, const HttpBody::Ptr &body); * HttpSession::HttpResponseInvoker(const string &codeOut, const StrCaseMap &headerOut, const HttpBody::Ptr &body);
@ -219,7 +219,8 @@ API_EXPORT void API_CALL mk_http_response_invoker_clone_release(const mk_http_re
///////////////////////////////////////////HttpAccessPathInvoker///////////////////////////////////////////// ///////////////////////////////////////////HttpAccessPathInvoker/////////////////////////////////////////////
//HttpSession::HttpAccessPathInvoker对象的C映射 //HttpSession::HttpAccessPathInvoker对象的C映射
typedef void* mk_http_access_path_invoker; typedef struct mk_http_access_path_invoker_t *mk_http_access_path_invoker;
/** /**
* HttpSession::HttpAccessPathInvoker(const string &errMsg,const string &accessPath, int cookieLifeSecond); * HttpSession::HttpAccessPathInvoker(const string &errMsg,const string &accessPath, int cookieLifeSecond);
* @param err_msg ,null * @param err_msg ,null
@ -244,7 +245,7 @@ API_EXPORT void API_CALL mk_http_access_path_invoker_clone_release(const mk_http
///////////////////////////////////////////RtspSession::onGetRealm///////////////////////////////////////////// ///////////////////////////////////////////RtspSession::onGetRealm/////////////////////////////////////////////
//RtspSession::onGetRealm对象的C映射 //RtspSession::onGetRealm对象的C映射
typedef void* mk_rtsp_get_realm_invoker; typedef struct mk_rtsp_get_realm_invoker_t *mk_rtsp_get_realm_invoker;
/** /**
* RtspSession::onGetRealm * RtspSession::onGetRealm
* @param realm rtsp流是否需要开启rtsp专属鉴权null或空字符串则不鉴权 * @param realm rtsp流是否需要开启rtsp专属鉴权null或空字符串则不鉴权
@ -265,7 +266,7 @@ API_EXPORT void API_CALL mk_rtsp_get_realm_invoker_clone_release(const mk_rtsp_g
///////////////////////////////////////////RtspSession::onAuth///////////////////////////////////////////// ///////////////////////////////////////////RtspSession::onAuth/////////////////////////////////////////////
//RtspSession::onAuth对象的C映射 //RtspSession::onAuth对象的C映射
typedef void* mk_rtsp_auth_invoker; typedef struct mk_rtsp_auth_invoker_t *mk_rtsp_auth_invoker;
/** /**
* RtspSession::onAuth * RtspSession::onAuth
@ -289,7 +290,7 @@ API_EXPORT void API_CALL mk_rtsp_auth_invoker_clone_release(const mk_rtsp_auth_i
///////////////////////////////////////////Broadcast::PublishAuthInvoker///////////////////////////////////////////// ///////////////////////////////////////////Broadcast::PublishAuthInvoker/////////////////////////////////////////////
//Broadcast::PublishAuthInvoker对象的C映射 //Broadcast::PublishAuthInvoker对象的C映射
typedef void* mk_publish_auth_invoker; typedef struct mk_publish_auth_invoker_t *mk_publish_auth_invoker;
/** /**
* Broadcast::PublishAuthInvoker * Broadcast::PublishAuthInvoker
@ -315,7 +316,7 @@ API_EXPORT void API_CALL mk_publish_auth_invoker_clone_release(const mk_publish_
///////////////////////////////////////////Broadcast::AuthInvoker///////////////////////////////////////////// ///////////////////////////////////////////Broadcast::AuthInvoker/////////////////////////////////////////////
//Broadcast::AuthInvoker对象的C映射 //Broadcast::AuthInvoker对象的C映射
typedef void* mk_auth_invoker; typedef struct mk_auth_invoker_t *mk_auth_invoker;
/** /**
* Broadcast::AuthInvoker * Broadcast::AuthInvoker

View File

@ -39,7 +39,7 @@ API_EXPORT extern const int MKCodecVP9;
API_EXPORT extern const int MKCodecAV1; API_EXPORT extern const int MKCodecAV1;
API_EXPORT extern const int MKCodecJPEG; API_EXPORT extern const int MKCodecJPEG;
typedef void *mk_frame; typedef struct mk_frame_t *mk_frame;
// 用户自定义free回调函数 // 用户自定义free回调函数
typedef void(API_CALL *on_mk_frame_data_release)(void *user_data, char *ptr); typedef void(API_CALL *on_mk_frame_data_release)(void *user_data, char *ptr);

View File

@ -17,7 +17,7 @@
extern "C" { extern "C" {
#endif #endif
typedef void *mk_h264_splitter; typedef struct mk_h264_splitter_t *mk_h264_splitter;
/** /**
* h264 * h264

View File

@ -20,7 +20,7 @@ extern "C" {
///////////////////////////////////////////HttpDownloader///////////////////////////////////////////// ///////////////////////////////////////////HttpDownloader/////////////////////////////////////////////
typedef void *mk_http_downloader; typedef struct mk_http_downloader_t *mk_http_downloader;
/** /**
* @param user_data * @param user_data
@ -54,7 +54,7 @@ API_EXPORT void API_CALL mk_http_downloader_start(mk_http_downloader ctx, const
API_EXPORT void API_CALL mk_http_downloader_start2(mk_http_downloader ctx, const char *url, const char *file, on_mk_download_complete cb, void *user_data, on_user_data_free user_data_free); API_EXPORT void API_CALL mk_http_downloader_start2(mk_http_downloader ctx, const char *url, const char *file, on_mk_download_complete cb, void *user_data, on_user_data_free user_data_free);
///////////////////////////////////////////HttpRequester///////////////////////////////////////////// ///////////////////////////////////////////HttpRequester/////////////////////////////////////////////
typedef void *mk_http_requester; typedef struct mk_http_requester_t *mk_http_requester;
/** /**
* http请求结果回调 * http请求结果回调

View File

@ -22,7 +22,7 @@
extern "C" { extern "C" {
#endif #endif
typedef void *mk_media; typedef struct mk_media_t *mk_media;
/** /**
* *

View File

@ -19,7 +19,7 @@
extern "C" { extern "C" {
#endif #endif
typedef void* mk_player; typedef struct mk_player_t *mk_player;
/** /**
* *

View File

@ -17,7 +17,7 @@
extern "C" { extern "C" {
#endif #endif
typedef void *mk_proxy_player; typedef struct mk_proxy_player_t *mk_proxy_player;
/** /**
* *

View File

@ -18,7 +18,7 @@
extern "C" { extern "C" {
#endif #endif
typedef void* mk_pusher; typedef struct mk_pusher_t *mk_pusher;
/** /**
* *

View File

@ -19,7 +19,7 @@ extern "C" {
///////////////////////////////////////////flv录制///////////////////////////////////////////// ///////////////////////////////////////////flv录制/////////////////////////////////////////////
typedef void* mk_flv_recorder; typedef struct mk_flv_recorder_t *mk_flv_recorder;
/** /**
* flv录制器 * flv录制器

View File

@ -14,7 +14,7 @@
extern "C" { extern "C" {
#endif #endif
typedef void* mk_rtp_server; typedef struct mk_rtp_server_t *mk_rtp_server;
/** /**
* GB28181 RTP * GB28181 RTP

View File

@ -19,7 +19,7 @@ extern "C" {
///////////////////////////////////////////Buffer::Ptr///////////////////////////////////////////// ///////////////////////////////////////////Buffer::Ptr/////////////////////////////////////////////
typedef void *mk_buffer; typedef struct mk_buffer_t *mk_buffer;
typedef void(API_CALL *on_mk_buffer_free)(void *user_data, void *data); typedef void(API_CALL *on_mk_buffer_free)(void *user_data, void *data);
/** /**
@ -39,7 +39,7 @@ API_EXPORT size_t API_CALL mk_buffer_get_size(mk_buffer buffer);
///////////////////////////////////////////SockInfo///////////////////////////////////////////// ///////////////////////////////////////////SockInfo/////////////////////////////////////////////
//SockInfo对象的C映射 //SockInfo对象的C映射
typedef void* mk_sock_info; typedef struct mk_sock_info_t *mk_sock_info;
//SockInfo::get_peer_ip() //SockInfo::get_peer_ip()
API_EXPORT const char* API_CALL mk_sock_info_peer_ip(const mk_sock_info ctx, char *buf); API_EXPORT const char* API_CALL mk_sock_info_peer_ip(const mk_sock_info ctx, char *buf);
@ -66,8 +66,8 @@ API_EXPORT uint16_t API_CALL mk_sock_info_local_port(const mk_sock_info ctx);
#endif #endif
///////////////////////////////////////////TcpSession///////////////////////////////////////////// ///////////////////////////////////////////TcpSession/////////////////////////////////////////////
//TcpSession对象的C映射 //TcpSession对象的C映射
typedef void* mk_tcp_session; typedef struct mk_tcp_session_t *mk_tcp_session;
typedef void* mk_tcp_session_ref; typedef struct mk_tcp_session_ref_t *mk_tcp_session_ref;
//获取基类指针以便获取其网络相关信息 //获取基类指针以便获取其网络相关信息
API_EXPORT mk_sock_info API_CALL mk_tcp_session_get_sock_info(const mk_tcp_session ctx); API_EXPORT mk_sock_info API_CALL mk_tcp_session_get_sock_info(const mk_tcp_session ctx);
@ -168,7 +168,7 @@ API_EXPORT void API_CALL mk_tcp_server_events_listen(const mk_tcp_session_events
///////////////////////////////////////////自定义tcp客户端///////////////////////////////////////////// ///////////////////////////////////////////自定义tcp客户端/////////////////////////////////////////////
typedef void* mk_tcp_client; typedef struct mk_tcp_client_t *mk_tcp_client;
//获取基类指针以便获取其网络相关信息 //获取基类指针以便获取其网络相关信息
API_EXPORT mk_sock_info API_CALL mk_tcp_client_get_sock_info(const mk_tcp_client ctx); API_EXPORT mk_sock_info API_CALL mk_tcp_client_get_sock_info(const mk_tcp_client ctx);

View File

@ -20,7 +20,7 @@ extern "C" {
#endif #endif
///////////////////////////////////////////事件线程///////////////////////////////////////////// ///////////////////////////////////////////事件线程/////////////////////////////////////////////
typedef void* mk_thread; typedef struct mk_thread_t *mk_thread;
/** /**
* tcp会话对象所在事件线程 * tcp会话对象所在事件线程
@ -52,7 +52,7 @@ API_EXPORT mk_thread API_CALL mk_thread_from_pool();
*/ */
API_EXPORT mk_thread API_CALL mk_thread_from_pool_work(); API_EXPORT mk_thread API_CALL mk_thread_from_pool_work();
typedef void* mk_thread_pool; typedef struct mk_thread_pool_t *mk_thread_pool;
/** /**
* 线 * 线
@ -108,7 +108,7 @@ API_EXPORT void API_CALL mk_async_do_delay2(mk_thread ctx, size_t ms, on_mk_asyn
API_EXPORT void API_CALL mk_sync_do(mk_thread ctx, on_mk_async cb, void *user_data); API_EXPORT void API_CALL mk_sync_do(mk_thread ctx, on_mk_async cb, void *user_data);
///////////////////////////////////////////定时器///////////////////////////////////////////// ///////////////////////////////////////////定时器/////////////////////////////////////////////
typedef void* mk_timer; typedef struct mk_timer_t *mk_timer;
/** /**
* *
@ -135,7 +135,7 @@ API_EXPORT void API_CALL mk_timer_release(mk_timer ctx);
///////////////////////////////////////////信号量///////////////////////////////////////////// ///////////////////////////////////////////信号量/////////////////////////////////////////////
typedef void* mk_sem; typedef struct mk_sem_t *mk_sem;
/** /**
* *

View File

@ -19,7 +19,7 @@ extern "C" {
#endif #endif
//音视频轨道 //音视频轨道
typedef void* mk_track; typedef struct mk_track_t *mk_track;
//输出frame回调 //输出frame回调
typedef void(API_CALL *on_mk_frame_out)(void *user_data, mk_frame frame); typedef void(API_CALL *on_mk_frame_out)(void *user_data, mk_frame frame);

View File

@ -20,11 +20,11 @@ extern "C" {
#endif #endif
//解码器对象 //解码器对象
typedef void *mk_decoder; typedef struct mk_decoder_t *mk_decoder;
//解码后的frame //解码后的frame
typedef void *mk_frame_pix; typedef struct mk_frame_pix_t *mk_frame_pix;
//SwsContext的包装 //SwsContext的包装
typedef void *mk_swscale; typedef struct mk_swscale_t *mk_swscale;
//FFmpeg原始解码帧对象 //FFmpeg原始解码帧对象
typedef struct AVFrame AVFrame; typedef struct AVFrame AVFrame;
//FFmpeg编解码器对象 //FFmpeg编解码器对象

View File

@ -58,7 +58,7 @@ API_EXPORT char* API_CALL mk_util_get_current_time_string(const char *fmt);
API_EXPORT char* API_CALL mk_util_hex_dump(const void *buf, int len); API_EXPORT char* API_CALL mk_util_hex_dump(const void *buf, int len);
///////////////////////////////////////////mk ini///////////////////////////////////////////// ///////////////////////////////////////////mk ini/////////////////////////////////////////////
typedef void* mk_ini; typedef struct mk_ini_t *mk_ini;
/** /**
* ini配置对象 * ini配置对象

View File

@ -245,14 +245,14 @@ API_EXPORT void API_CALL mk_media_source_find(const char *schema,
on_mk_media_source_find_cb cb) { on_mk_media_source_find_cb cb) {
assert(schema && vhost && app && stream && cb); assert(schema && vhost && app && stream && cb);
auto src = MediaSource::find(schema, vhost, app, stream, from_mp4); auto src = MediaSource::find(schema, vhost, app, stream, from_mp4);
cb(user_data, src.get()); cb(user_data, (mk_media_source)src.get());
} }
API_EXPORT void API_CALL mk_media_source_for_each(void *user_data, on_mk_media_source_find_cb cb, const char *schema, API_EXPORT void API_CALL mk_media_source_for_each(void *user_data, on_mk_media_source_find_cb cb, const char *schema,
const char *vhost, const char *app, const char *stream) { const char *vhost, const char *app, const char *stream) {
assert(cb); assert(cb);
MediaSource::for_each_media([&](const MediaSource::Ptr &src) { MediaSource::for_each_media([&](const MediaSource::Ptr &src) {
cb(user_data, src.get()); cb(user_data, (mk_media_source)src.get());
}, schema ? schema : "", vhost ? vhost : "", app ? app : "", stream ? stream : ""); }, schema ? schema : "", vhost ? vhost : "", app ? app : "", stream ? stream : "");
} }
@ -263,17 +263,17 @@ API_EXPORT mk_http_body API_CALL mk_http_body_from_string(const char *str, size_
if(!len){ if(!len){
len = strlen(str); len = strlen(str);
} }
return new HttpBody::Ptr(new HttpStringBody(std::string(str, len))); return (mk_http_body)new HttpBody::Ptr(new HttpStringBody(std::string(str, len)));
} }
API_EXPORT mk_http_body API_CALL mk_http_body_from_buffer(mk_buffer buffer) { API_EXPORT mk_http_body API_CALL mk_http_body_from_buffer(mk_buffer buffer) {
assert(buffer); assert(buffer);
return new HttpBody::Ptr(new HttpBufferBody(*((Buffer::Ptr *) buffer))); return (mk_http_body)new HttpBody::Ptr(new HttpBufferBody(*((Buffer::Ptr *) buffer)));
} }
API_EXPORT mk_http_body API_CALL mk_http_body_from_file(const char *file_path){ API_EXPORT mk_http_body API_CALL mk_http_body_from_file(const char *file_path){
assert(file_path); assert(file_path);
return new HttpBody::Ptr(new HttpFileBody(file_path)); return (mk_http_body)new HttpBody::Ptr(new HttpFileBody(file_path));
} }
template <typename C = StrCaseMap> template <typename C = StrCaseMap>
@ -294,7 +294,7 @@ static C get_http_header( const char *response_header[]){
API_EXPORT mk_http_body API_CALL mk_http_body_from_multi_form(const char *key_val[],const char *file_path){ API_EXPORT mk_http_body API_CALL mk_http_body_from_multi_form(const char *key_val[],const char *file_path){
assert(key_val && file_path); assert(key_val && file_path);
return new HttpBody::Ptr(new HttpMultiFormBody(get_http_header<HttpArgs>(key_val),file_path)); return (mk_http_body)new HttpBody::Ptr(new HttpMultiFormBody(get_http_header<HttpArgs>(key_val),file_path));
} }
API_EXPORT void API_CALL mk_http_body_release(mk_http_body ctx){ API_EXPORT void API_CALL mk_http_body_release(mk_http_body ctx){
@ -338,7 +338,7 @@ API_EXPORT void API_CALL mk_http_response_invoker_do(const mk_http_response_invo
API_EXPORT mk_http_response_invoker API_CALL mk_http_response_invoker_clone(const mk_http_response_invoker ctx){ API_EXPORT mk_http_response_invoker API_CALL mk_http_response_invoker_clone(const mk_http_response_invoker ctx){
assert(ctx); assert(ctx);
HttpSession::HttpResponseInvoker *invoker = (HttpSession::HttpResponseInvoker *)ctx; HttpSession::HttpResponseInvoker *invoker = (HttpSession::HttpResponseInvoker *)ctx;
return new HttpSession::HttpResponseInvoker (*invoker); return (mk_http_response_invoker)new HttpSession::HttpResponseInvoker (*invoker);
} }
API_EXPORT void API_CALL mk_http_response_invoker_clone_release(const mk_http_response_invoker ctx){ API_EXPORT void API_CALL mk_http_response_invoker_clone_release(const mk_http_response_invoker ctx){
@ -362,7 +362,7 @@ API_EXPORT void API_CALL mk_http_access_path_invoker_do(const mk_http_access_pat
API_EXPORT mk_http_access_path_invoker API_CALL mk_http_access_path_invoker_clone(const mk_http_access_path_invoker ctx){ API_EXPORT mk_http_access_path_invoker API_CALL mk_http_access_path_invoker_clone(const mk_http_access_path_invoker ctx){
assert(ctx); assert(ctx);
HttpSession::HttpAccessPathInvoker *invoker = (HttpSession::HttpAccessPathInvoker *)ctx; HttpSession::HttpAccessPathInvoker *invoker = (HttpSession::HttpAccessPathInvoker *)ctx;
return new HttpSession::HttpAccessPathInvoker(*invoker); return (mk_http_access_path_invoker)new HttpSession::HttpAccessPathInvoker(*invoker);
} }
API_EXPORT void API_CALL mk_http_access_path_invoker_clone_release(const mk_http_access_path_invoker ctx){ API_EXPORT void API_CALL mk_http_access_path_invoker_clone_release(const mk_http_access_path_invoker ctx){
@ -382,7 +382,7 @@ API_EXPORT void API_CALL mk_rtsp_get_realm_invoker_do(const mk_rtsp_get_realm_in
API_EXPORT mk_rtsp_get_realm_invoker API_CALL mk_rtsp_get_realm_invoker_clone(const mk_rtsp_get_realm_invoker ctx){ API_EXPORT mk_rtsp_get_realm_invoker API_CALL mk_rtsp_get_realm_invoker_clone(const mk_rtsp_get_realm_invoker ctx){
assert(ctx); assert(ctx);
RtspSession::onGetRealm *invoker = (RtspSession::onGetRealm *)ctx; RtspSession::onGetRealm *invoker = (RtspSession::onGetRealm *)ctx;
return new RtspSession::onGetRealm (*invoker); return (mk_rtsp_get_realm_invoker)new RtspSession::onGetRealm (*invoker);
} }
API_EXPORT void API_CALL mk_rtsp_get_realm_invoker_clone_release(const mk_rtsp_get_realm_invoker ctx){ API_EXPORT void API_CALL mk_rtsp_get_realm_invoker_clone_release(const mk_rtsp_get_realm_invoker ctx){
@ -403,7 +403,7 @@ API_EXPORT void API_CALL mk_rtsp_auth_invoker_do(const mk_rtsp_auth_invoker ctx,
API_EXPORT mk_rtsp_auth_invoker API_CALL mk_rtsp_auth_invoker_clone(const mk_rtsp_auth_invoker ctx){ API_EXPORT mk_rtsp_auth_invoker API_CALL mk_rtsp_auth_invoker_clone(const mk_rtsp_auth_invoker ctx){
assert(ctx); assert(ctx);
RtspSession::onAuth *invoker = (RtspSession::onAuth *)ctx; RtspSession::onAuth *invoker = (RtspSession::onAuth *)ctx;
return new RtspSession::onAuth(*invoker); return (mk_rtsp_auth_invoker)new RtspSession::onAuth(*invoker);
} }
API_EXPORT void API_CALL mk_rtsp_auth_invoker_clone_release(const mk_rtsp_auth_invoker ctx){ API_EXPORT void API_CALL mk_rtsp_auth_invoker_clone_release(const mk_rtsp_auth_invoker ctx){
@ -428,7 +428,7 @@ API_EXPORT void API_CALL mk_publish_auth_invoker_do(const mk_publish_auth_invoke
API_EXPORT mk_publish_auth_invoker API_CALL mk_publish_auth_invoker_clone(const mk_publish_auth_invoker ctx){ API_EXPORT mk_publish_auth_invoker API_CALL mk_publish_auth_invoker_clone(const mk_publish_auth_invoker ctx){
assert(ctx); assert(ctx);
Broadcast::PublishAuthInvoker *invoker = (Broadcast::PublishAuthInvoker *)ctx; Broadcast::PublishAuthInvoker *invoker = (Broadcast::PublishAuthInvoker *)ctx;
return new Broadcast::PublishAuthInvoker(*invoker); return (mk_publish_auth_invoker)new Broadcast::PublishAuthInvoker(*invoker);
} }
API_EXPORT void API_CALL mk_publish_auth_invoker_clone_release(const mk_publish_auth_invoker ctx){ API_EXPORT void API_CALL mk_publish_auth_invoker_clone_release(const mk_publish_auth_invoker ctx){
@ -447,7 +447,7 @@ API_EXPORT void API_CALL mk_auth_invoker_do(const mk_auth_invoker ctx, const cha
API_EXPORT mk_auth_invoker API_CALL mk_auth_invoker_clone(const mk_auth_invoker ctx){ API_EXPORT mk_auth_invoker API_CALL mk_auth_invoker_clone(const mk_auth_invoker ctx){
assert(ctx); assert(ctx);
Broadcast::AuthInvoker *invoker = (Broadcast::AuthInvoker *)ctx; Broadcast::AuthInvoker *invoker = (Broadcast::AuthInvoker *)ctx;
return new Broadcast::AuthInvoker(*invoker); return (mk_auth_invoker)new Broadcast::AuthInvoker(*invoker);
} }
API_EXPORT void API_CALL mk_auth_invoker_clone_release(const mk_auth_invoker ctx){ API_EXPORT void API_CALL mk_auth_invoker_clone_release(const mk_auth_invoker ctx){

View File

@ -74,13 +74,13 @@ static mk_frame mk_frame_create_complex(int codec_id, uint64_t dts, uint64_t pts
char *data, size_t size, on_mk_frame_data_release cb, std::shared_ptr<void> user_data) { char *data, size_t size, on_mk_frame_data_release cb, std::shared_ptr<void> user_data) {
switch (codec_id) { switch (codec_id) {
case CodecH264: case CodecH264:
return new Frame::Ptr(new H264FrameHelper<FrameFromPtrForC>( return (mk_frame)new Frame::Ptr(new H264FrameHelper<FrameFromPtrForC>(
cb, frame_flags, cb, std::move(user_data), (CodecId)codec_id, data, size, dts, pts, prefix_size)); cb, frame_flags, cb, std::move(user_data), (CodecId)codec_id, data, size, dts, pts, prefix_size));
case CodecH265: case CodecH265:
return new Frame::Ptr(new H265FrameHelper<FrameFromPtrForC>( return (mk_frame)new Frame::Ptr(new H265FrameHelper<FrameFromPtrForC>(
cb, frame_flags, cb, std::move(user_data), (CodecId)codec_id, data, size, dts, pts, prefix_size)); cb, frame_flags, cb, std::move(user_data), (CodecId)codec_id, data, size, dts, pts, prefix_size));
default: default:
return new Frame::Ptr(new FrameFromPtrForC( return (mk_frame)new Frame::Ptr(new FrameFromPtrForC(
cb, frame_flags, cb, std::move(user_data), (CodecId)codec_id, data, size, dts, pts, prefix_size)); cb, frame_flags, cb, std::move(user_data), (CodecId)codec_id, data, size, dts, pts, prefix_size));
} }
} }
@ -117,7 +117,7 @@ API_EXPORT void API_CALL mk_frame_unref(mk_frame frame) {
API_EXPORT mk_frame API_CALL mk_frame_ref(mk_frame frame) { API_EXPORT mk_frame API_CALL mk_frame_ref(mk_frame frame) {
assert(frame); assert(frame);
return new Frame::Ptr(Frame::getCacheAbleFrame(*((Frame::Ptr *) frame))); return (mk_frame)new Frame::Ptr(Frame::getCacheAbleFrame(*((Frame::Ptr *) frame)));
} }
API_EXPORT int API_CALL mk_frame_codec_id(mk_frame frame) { API_EXPORT int API_CALL mk_frame_codec_id(mk_frame frame) {

View File

@ -48,7 +48,7 @@ API_EXPORT void API_CALL mk_http_downloader_start2(mk_http_downloader ctx, const
///////////////////////////////////////////HttpRequester///////////////////////////////////////////// ///////////////////////////////////////////HttpRequester/////////////////////////////////////////////
API_EXPORT mk_http_requester API_CALL mk_http_requester_create(){ API_EXPORT mk_http_requester API_CALL mk_http_requester_create(){
HttpRequester::Ptr *ret = new HttpRequester::Ptr(new HttpRequester); HttpRequester::Ptr *ret = new HttpRequester::Ptr(new HttpRequester);
return ret; return (mk_http_requester)ret;
} }
API_EXPORT void API_CALL mk_http_requester_clear(mk_http_requester ctx){ API_EXPORT void API_CALL mk_http_requester_clear(mk_http_requester ctx){

View File

@ -99,7 +99,7 @@ protected:
void onRegist(MediaSource &sender, bool regist) override{ void onRegist(MediaSource &sender, bool regist) override{
if (_on_regist) { if (_on_regist) {
_on_regist(_on_regist_data.get(), &sender, regist); _on_regist(_on_regist_data.get(), (mk_media_source)&sender, regist);
} }
} }
@ -270,9 +270,9 @@ API_EXPORT int API_CALL mk_media_input_aac(mk_media ctx, const void *data, int l
} }
API_EXPORT int API_CALL mk_media_input_pcm(mk_media ctx, void *data , int len, uint64_t pts){ API_EXPORT int API_CALL mk_media_input_pcm(mk_media ctx, void *data , int len, uint64_t pts){
assert(ctx && data && len > 0); assert(ctx && data && len > 0);
MediaHelper::Ptr* obj = (MediaHelper::Ptr*) ctx; MediaHelper::Ptr* obj = (MediaHelper::Ptr*) ctx;
return (*obj)->getChannel()->inputPCM((char*)data, len, pts); return (*obj)->getChannel()->inputPCM((char*)data, len, pts);
} }
API_EXPORT int API_CALL mk_media_input_audio(mk_media ctx, const void* data, int len, uint64_t dts){ API_EXPORT int API_CALL mk_media_input_audio(mk_media ctx, const void* data, int len, uint64_t dts){
@ -320,5 +320,5 @@ API_EXPORT void API_CALL mk_media_stop_send_rtp(mk_media ctx, const char *ssrc){
API_EXPORT mk_thread API_CALL mk_media_get_owner_thread(mk_media ctx) { API_EXPORT mk_thread API_CALL mk_media_get_owner_thread(mk_media ctx) {
MediaHelper::Ptr *obj = (MediaHelper::Ptr *)ctx; MediaHelper::Ptr *obj = (MediaHelper::Ptr *)ctx;
return (*obj)->getChannel()->getOwnerPoller(MediaSource::NullMediaSource()).get(); return (mk_thread)(*obj)->getChannel()->getOwnerPoller(MediaSource::NullMediaSource()).get();
} }

View File

@ -105,7 +105,7 @@ private:
API_EXPORT mk_player API_CALL mk_player_create() { API_EXPORT mk_player API_CALL mk_player_create() {
MediaPlayerForC::Ptr *obj = new MediaPlayerForC::Ptr(new MediaPlayerForC()); MediaPlayerForC::Ptr *obj = new MediaPlayerForC::Ptr(new MediaPlayerForC());
(*obj)->setup(); (*obj)->setup();
return obj; return (mk_player)obj;
} }
API_EXPORT void API_CALL mk_player_release(mk_player ctx) { API_EXPORT void API_CALL mk_player_release(mk_player ctx) {
assert(ctx); assert(ctx);

View File

@ -18,14 +18,14 @@ using namespace mediakit;
API_EXPORT mk_pusher API_CALL mk_pusher_create(const char *schema,const char *vhost,const char *app, const char *stream){ API_EXPORT mk_pusher API_CALL mk_pusher_create(const char *schema,const char *vhost,const char *app, const char *stream){
assert(schema && vhost && app && schema); assert(schema && vhost && app && schema);
MediaPusher::Ptr *obj = new MediaPusher::Ptr(new MediaPusher(schema,vhost,app,stream)); MediaPusher::Ptr *obj = new MediaPusher::Ptr(new MediaPusher(schema,vhost,app,stream));
return obj; return (mk_pusher)obj;
} }
API_EXPORT mk_pusher API_CALL mk_pusher_create_src(mk_media_source ctx){ API_EXPORT mk_pusher API_CALL mk_pusher_create_src(mk_media_source ctx){
assert(ctx); assert(ctx);
MediaSource *src = (MediaSource *)ctx; MediaSource *src = (MediaSource *)ctx;
MediaPusher::Ptr *obj = new MediaPusher::Ptr(new MediaPusher(src->shared_from_this())); MediaPusher::Ptr *obj = new MediaPusher::Ptr(new MediaPusher(src->shared_from_this()));
return obj; return (mk_pusher)obj;
} }
API_EXPORT void API_CALL mk_pusher_release(mk_pusher ctx){ API_EXPORT void API_CALL mk_pusher_release(mk_pusher ctx){

View File

@ -18,7 +18,7 @@ using namespace mediakit;
API_EXPORT mk_flv_recorder API_CALL mk_flv_recorder_create(){ API_EXPORT mk_flv_recorder API_CALL mk_flv_recorder_create(){
FlvRecorder::Ptr *ret = new FlvRecorder::Ptr(new FlvRecorder); FlvRecorder::Ptr *ret = new FlvRecorder::Ptr(new FlvRecorder);
return ret; return (mk_flv_recorder)ret;
} }
API_EXPORT void API_CALL mk_flv_recorder_release(mk_flv_recorder ctx){ API_EXPORT void API_CALL mk_flv_recorder_release(mk_flv_recorder ctx){
assert(ctx); assert(ctx);

View File

@ -19,7 +19,7 @@ using namespace mediakit;
API_EXPORT mk_rtp_server API_CALL mk_rtp_server_create(uint16_t port, int tcp_mode, const char *stream_id) { API_EXPORT mk_rtp_server API_CALL mk_rtp_server_create(uint16_t port, int tcp_mode, const char *stream_id) {
RtpServer::Ptr *server = new RtpServer::Ptr(new RtpServer); RtpServer::Ptr *server = new RtpServer::Ptr(new RtpServer);
(*server)->start(port, stream_id, (RtpServer::TcpMode)tcp_mode); (*server)->start(port, stream_id, (RtpServer::TcpMode)tcp_mode);
return server; return (mk_rtp_server)server;
} }
API_EXPORT void API_CALL mk_rtp_server_connect(mk_rtp_server ctx, const char *dst_url, uint16_t dst_port, on_mk_rtp_server_connected cb, void *user_data) { API_EXPORT void API_CALL mk_rtp_server_connect(mk_rtp_server ctx, const char *dst_url, uint16_t dst_port, on_mk_rtp_server_connected cb, void *user_data) {

View File

@ -65,12 +65,12 @@ API_EXPORT mk_buffer API_CALL mk_buffer_from_char(const char *data, size_t len,
API_EXPORT mk_buffer API_CALL mk_buffer_from_char2(const char *data, size_t len, on_mk_buffer_free cb, void *user_data, on_user_data_free user_data_free) { API_EXPORT mk_buffer API_CALL mk_buffer_from_char2(const char *data, size_t len, on_mk_buffer_free cb, void *user_data, on_user_data_free user_data_free) {
assert(data); assert(data);
std::shared_ptr<void> ptr(user_data, user_data_free ? user_data_free : [](void *) {}); std::shared_ptr<void> ptr(user_data, user_data_free ? user_data_free : [](void *) {});
return new Buffer::Ptr(std::make_shared<BufferForC>(data, len, cb, std::move(ptr))); return (mk_buffer)new Buffer::Ptr(std::make_shared<BufferForC>(data, len, cb, std::move(ptr)));
} }
API_EXPORT mk_buffer API_CALL mk_buffer_ref(mk_buffer buffer) { API_EXPORT mk_buffer API_CALL mk_buffer_ref(mk_buffer buffer) {
assert(buffer); assert(buffer);
return new Buffer::Ptr(*((Buffer::Ptr *) buffer)); return (mk_buffer)new Buffer::Ptr(*((Buffer::Ptr *) buffer));
} }
API_EXPORT void API_CALL mk_buffer_unref(mk_buffer buffer) { API_EXPORT void API_CALL mk_buffer_unref(mk_buffer buffer) {
@ -115,7 +115,7 @@ API_EXPORT uint16_t API_CALL mk_sock_info_local_port(const mk_sock_info ctx){
API_EXPORT mk_sock_info API_CALL mk_tcp_session_get_sock_info(const mk_tcp_session ctx){ API_EXPORT mk_sock_info API_CALL mk_tcp_session_get_sock_info(const mk_tcp_session ctx){
assert(ctx); assert(ctx);
SessionForC *session = (SessionForC *)ctx; SessionForC *session = (SessionForC *)ctx;
return (SockInfo *)session; return (mk_sock_info)session;
} }
API_EXPORT void API_CALL mk_tcp_session_shutdown(const mk_tcp_session ctx,int err,const char *err_msg){ API_EXPORT void API_CALL mk_tcp_session_shutdown(const mk_tcp_session ctx,int err,const char *err_msg){
@ -155,7 +155,7 @@ API_EXPORT void API_CALL mk_tcp_session_send_buffer_safe(const mk_tcp_session ct
API_EXPORT mk_tcp_session_ref API_CALL mk_tcp_session_ref_from(const mk_tcp_session ctx) { API_EXPORT mk_tcp_session_ref API_CALL mk_tcp_session_ref_from(const mk_tcp_session ctx) {
auto ref = ((SessionForC *) ctx)->shared_from_this(); auto ref = ((SessionForC *) ctx)->shared_from_this();
return new std::shared_ptr<SessionForC>(std::dynamic_pointer_cast<SessionForC>(ref)); return (mk_tcp_session_ref)new std::shared_ptr<SessionForC>(std::dynamic_pointer_cast<SessionForC>(ref));
} }
API_EXPORT void mk_tcp_session_ref_release(const mk_tcp_session_ref ref) { API_EXPORT void mk_tcp_session_ref_release(const mk_tcp_session_ref ref) {
@ -163,7 +163,7 @@ API_EXPORT void mk_tcp_session_ref_release(const mk_tcp_session_ref ref) {
} }
API_EXPORT mk_tcp_session mk_tcp_session_from_ref(const mk_tcp_session_ref ref) { API_EXPORT mk_tcp_session mk_tcp_session_from_ref(const mk_tcp_session_ref ref) {
return ((std::shared_ptr<SessionForC> *) ref)->get(); return (mk_tcp_session)((std::shared_ptr<SessionForC> *) ref)->get();
} }
API_EXPORT void API_CALL mk_tcp_session_send_safe(const mk_tcp_session ctx, const char *data, size_t len) { API_EXPORT void API_CALL mk_tcp_session_send_safe(const mk_tcp_session ctx, const char *data, size_t len) {
@ -179,25 +179,25 @@ static mk_tcp_session_events s_events_server = {0};
SessionForC::SessionForC(const Socket::Ptr &pSock) : Session(pSock) { SessionForC::SessionForC(const Socket::Ptr &pSock) : Session(pSock) {
_local_port = get_local_port(); _local_port = get_local_port();
if (s_events_server.on_mk_tcp_session_create) { if (s_events_server.on_mk_tcp_session_create) {
s_events_server.on_mk_tcp_session_create(_local_port,this); s_events_server.on_mk_tcp_session_create(_local_port, (mk_tcp_session) this);
} }
} }
void SessionForC::onRecv(const Buffer::Ptr &buffer) { void SessionForC::onRecv(const Buffer::Ptr &buffer) {
if (s_events_server.on_mk_tcp_session_data) { if (s_events_server.on_mk_tcp_session_data) {
s_events_server.on_mk_tcp_session_data(_local_port, this, (mk_buffer)&buffer); s_events_server.on_mk_tcp_session_data(_local_port, (mk_tcp_session)this, (mk_buffer)&buffer);
} }
} }
void SessionForC::onError(const SockException &err) { void SessionForC::onError(const SockException &err) {
if (s_events_server.on_mk_tcp_session_disconnect) { if (s_events_server.on_mk_tcp_session_disconnect) {
s_events_server.on_mk_tcp_session_disconnect(_local_port,this, err.getErrCode(), err.what()); s_events_server.on_mk_tcp_session_disconnect(_local_port, (mk_tcp_session)this, err.getErrCode(), err.what());
} }
} }
void SessionForC::onManager() { void SessionForC::onManager() {
if (s_events_server.on_mk_tcp_session_manager) { if (s_events_server.on_mk_tcp_session_manager) {
s_events_server.on_mk_tcp_session_manager(_local_port,this); s_events_server.on_mk_tcp_session_manager(_local_port, (mk_tcp_session)this);
} }
} }
@ -320,13 +320,13 @@ TcpClientForC::Ptr *mk_tcp_client_create_l(mk_tcp_client_events *events, mk_tcp_
API_EXPORT mk_sock_info API_CALL mk_tcp_client_get_sock_info(const mk_tcp_client ctx){ API_EXPORT mk_sock_info API_CALL mk_tcp_client_get_sock_info(const mk_tcp_client ctx){
assert(ctx); assert(ctx);
TcpClientForC::Ptr *client = (TcpClientForC::Ptr *)ctx; TcpClientForC::Ptr *client = (TcpClientForC::Ptr *)ctx;
return (SockInfo *)client->get(); return (mk_sock_info)(SockInfo *)client->get();
} }
API_EXPORT mk_tcp_client API_CALL mk_tcp_client_create(mk_tcp_client_events *events, mk_tcp_type type){ API_EXPORT mk_tcp_client API_CALL mk_tcp_client_create(mk_tcp_client_events *events, mk_tcp_type type){
auto ret = mk_tcp_client_create_l(events,type); auto ret = mk_tcp_client_create_l(events,type);
(*ret)->setClient(ret); (*ret)->setClient((mk_tcp_client)ret);
return ret; return (mk_tcp_client)ret;
} }
API_EXPORT void API_CALL mk_tcp_client_release(mk_tcp_client ctx){ API_EXPORT void API_CALL mk_tcp_client_release(mk_tcp_client ctx){

View File

@ -19,21 +19,21 @@ using namespace toolkit;
API_EXPORT mk_thread API_CALL mk_thread_from_tcp_session(mk_tcp_session ctx){ API_EXPORT mk_thread API_CALL mk_thread_from_tcp_session(mk_tcp_session ctx){
assert(ctx); assert(ctx);
SessionForC *obj = (SessionForC *)ctx; SessionForC *obj = (SessionForC *)ctx;
return obj->getPoller().get(); return (mk_thread)(obj->getPoller().get());
} }
API_EXPORT mk_thread API_CALL mk_thread_from_tcp_client(mk_tcp_client ctx){ API_EXPORT mk_thread API_CALL mk_thread_from_tcp_client(mk_tcp_client ctx){
assert(ctx); assert(ctx);
TcpClientForC::Ptr *client = (TcpClientForC::Ptr *)ctx; TcpClientForC::Ptr *client = (TcpClientForC::Ptr *)ctx;
return (*client)->getPoller().get(); return (mk_thread)((*client)->getPoller().get());
} }
API_EXPORT mk_thread API_CALL mk_thread_from_pool(){ API_EXPORT mk_thread API_CALL mk_thread_from_pool(){
return EventPollerPool::Instance().getPoller().get(); return (mk_thread)(EventPollerPool::Instance().getPoller().get());
} }
API_EXPORT mk_thread API_CALL mk_thread_from_pool_work(){ API_EXPORT mk_thread API_CALL mk_thread_from_pool_work(){
return WorkThreadPool::Instance().getPoller().get(); return (mk_thread)(WorkThreadPool::Instance().getPoller().get());
} }
API_EXPORT void API_CALL mk_async_do(mk_thread ctx,on_mk_async cb, void *user_data){ API_EXPORT void API_CALL mk_async_do(mk_thread ctx,on_mk_async cb, void *user_data){
@ -123,7 +123,7 @@ API_EXPORT mk_timer API_CALL mk_timer_create2(mk_thread ctx, uint64_t delay_ms,
std::shared_ptr<void> ptr(user_data, user_data_free ? user_data_free : [](void *) {}); std::shared_ptr<void> ptr(user_data, user_data_free ? user_data_free : [](void *) {});
TimerForC::Ptr *ret = new TimerForC::Ptr(new TimerForC(cb, ptr)); TimerForC::Ptr *ret = new TimerForC::Ptr(new TimerForC(cb, ptr));
(*ret)->start(delay_ms,*poller); (*ret)->start(delay_ms,*poller);
return ret; return (mk_timer)ret;
} }
API_EXPORT void API_CALL mk_timer_release(mk_timer ctx){ API_EXPORT void API_CALL mk_timer_release(mk_timer ctx){
@ -148,7 +148,7 @@ public:
}; };
API_EXPORT mk_thread_pool API_CALL mk_thread_pool_create(const char *name, size_t n_thread, int priority) { API_EXPORT mk_thread_pool API_CALL mk_thread_pool_create(const char *name, size_t n_thread, int priority) {
return new WorkThreadPoolForC(name, n_thread, priority); return (mk_thread_pool)new WorkThreadPoolForC(name, n_thread, priority);
} }
API_EXPORT int API_CALL mk_thread_pool_release(mk_thread_pool pool) { API_EXPORT int API_CALL mk_thread_pool_release(mk_thread_pool pool) {
@ -159,11 +159,11 @@ API_EXPORT int API_CALL mk_thread_pool_release(mk_thread_pool pool) {
API_EXPORT mk_thread API_CALL mk_thread_from_thread_pool(mk_thread_pool pool) { API_EXPORT mk_thread API_CALL mk_thread_from_thread_pool(mk_thread_pool pool) {
assert(pool); assert(pool);
return ((WorkThreadPoolForC *) pool)->getPoller().get(); return (mk_thread)(((WorkThreadPoolForC *) pool)->getPoller().get());
} }
API_EXPORT mk_sem API_CALL mk_sem_create() { API_EXPORT mk_sem API_CALL mk_sem_create() {
return new toolkit::semaphore; return (mk_sem)new toolkit::semaphore;
} }
API_EXPORT void API_CALL mk_sem_release(mk_sem sem) { API_EXPORT void API_CALL mk_sem_release(mk_sem sem) {

View File

@ -82,8 +82,8 @@ public:
API_EXPORT mk_track API_CALL mk_track_create(int codec_id, codec_args *args) { API_EXPORT mk_track API_CALL mk_track_create(int codec_id, codec_args *args) {
switch (getTrackType((CodecId) codec_id)) { switch (getTrackType((CodecId) codec_id)) {
case TrackVideo: return new Track::Ptr(std::make_shared<VideoTrackForC>(codec_id, args)); case TrackVideo: return (mk_track)new Track::Ptr(std::make_shared<VideoTrackForC>(codec_id, args));
case TrackAudio: return new Track::Ptr(std::make_shared<AudioTrackForC>(codec_id, args)); case TrackAudio: return (mk_track)new Track::Ptr(std::make_shared<AudioTrackForC>(codec_id, args));
default: WarnL << "unrecognized codec:" << codec_id; return nullptr; default: WarnL << "unrecognized codec:" << codec_id; return nullptr;
} }
} }
@ -95,7 +95,7 @@ API_EXPORT void API_CALL mk_track_unref(mk_track track) {
API_EXPORT mk_track API_CALL mk_track_ref(mk_track track) { API_EXPORT mk_track API_CALL mk_track_ref(mk_track track) {
assert(track); assert(track);
return new Track::Ptr(*( (Track::Ptr *)track)); return (mk_track)new Track::Ptr(*( (Track::Ptr *)track));
} }
API_EXPORT int API_CALL mk_track_codec_id(mk_track track) { API_EXPORT int API_CALL mk_track_codec_id(mk_track track) {

View File

@ -29,12 +29,12 @@ std::vector<std::string> toCodecList(const char *codec_name_list[]) {
API_EXPORT mk_decoder API_CALL mk_decoder_create(mk_track track, int thread_num) { API_EXPORT mk_decoder API_CALL mk_decoder_create(mk_track track, int thread_num) {
assert(track); assert(track);
return new FFmpegDecoder(*((Track::Ptr *) track), thread_num); return (mk_decoder)new FFmpegDecoder(*((Track::Ptr *) track), thread_num);
} }
API_EXPORT mk_decoder API_CALL mk_decoder_create2(mk_track track, int thread_num, const char *codec_name_list[]) { API_EXPORT mk_decoder API_CALL mk_decoder_create2(mk_track track, int thread_num, const char *codec_name_list[]) {
assert(track && codec_name_list); assert(track && codec_name_list);
return new FFmpegDecoder(*((Track::Ptr *) track), thread_num, toCodecList(codec_name_list)); return (mk_decoder)new FFmpegDecoder(*((Track::Ptr *) track), thread_num, toCodecList(codec_name_list));
} }
API_EXPORT void API_CALL mk_decoder_release(mk_decoder ctx, int flush_frame) { API_EXPORT void API_CALL mk_decoder_release(mk_decoder ctx, int flush_frame) {
@ -77,12 +77,12 @@ API_EXPORT const AVCodecContext *API_CALL mk_decoder_get_context(mk_decoder ctx)
API_EXPORT mk_frame_pix API_CALL mk_frame_pix_ref(mk_frame_pix frame) { API_EXPORT mk_frame_pix API_CALL mk_frame_pix_ref(mk_frame_pix frame) {
assert(frame); assert(frame);
return new FFmpegFrame::Ptr(*(FFmpegFrame::Ptr *) frame); return (mk_frame_pix)new FFmpegFrame::Ptr(*(FFmpegFrame::Ptr *) frame);
} }
API_EXPORT mk_frame_pix API_CALL mk_frame_pix_from_av_frame(AVFrame *frame) { API_EXPORT mk_frame_pix API_CALL mk_frame_pix_from_av_frame(AVFrame *frame) {
assert(frame); assert(frame);
return new FFmpegFrame::Ptr(std::make_shared<FFmpegFrame>(std::shared_ptr<AVFrame>(av_frame_clone(frame), [](AVFrame *frame){ return (mk_frame_pix)new FFmpegFrame::Ptr(std::make_shared<FFmpegFrame>(std::shared_ptr<AVFrame>(av_frame_clone(frame), [](AVFrame *frame){
av_frame_free(&frame); av_frame_free(&frame);
}))); })));
} }
@ -99,7 +99,7 @@ API_EXPORT mk_frame_pix API_CALL mk_frame_pix_from_buffer(mk_buffer plane_data[]
frame->linesize[i] = line_size[i]; frame->linesize[i] = line_size[i];
buffer_array.emplace_back(buffer); buffer_array.emplace_back(buffer);
} }
return new FFmpegFrame::Ptr(new FFmpegFrame(std::move(frame)), [buffer_array](FFmpegFrame *frame) { return (mk_frame_pix)new FFmpegFrame::Ptr(new FFmpegFrame(std::move(frame)), [buffer_array](FFmpegFrame *frame) {
for (auto &buffer : buffer_array) { for (auto &buffer : buffer_array) {
mk_buffer_unref(buffer); mk_buffer_unref(buffer);
} }
@ -120,7 +120,7 @@ API_EXPORT AVFrame *API_CALL mk_frame_pix_get_av_frame(mk_frame_pix frame) {
///////////////////////////////////////////////////////////////////////////////////////////// /////////////////////////////////////////////////////////////////////////////////////////////
API_EXPORT mk_swscale mk_swscale_create(int output, int width, int height) { API_EXPORT mk_swscale mk_swscale_create(int output, int width, int height) {
return new FFmpegSws((AVPixelFormat) output, width, height); return (mk_swscale)new FFmpegSws((AVPixelFormat) output, width, height);
} }
API_EXPORT void mk_swscale_release(mk_swscale ctx) { API_EXPORT void mk_swscale_release(mk_swscale ctx) {
@ -132,7 +132,7 @@ API_EXPORT int mk_swscale_input_frame(mk_swscale ctx, mk_frame_pix frame, uint8_
} }
API_EXPORT mk_frame_pix mk_swscale_input_frame2(mk_swscale ctx, mk_frame_pix frame){ API_EXPORT mk_frame_pix mk_swscale_input_frame2(mk_swscale ctx, mk_frame_pix frame){
return new FFmpegFrame::Ptr(((FFmpegSws *) ctx)->inputFrame(*(FFmpegFrame::Ptr *) frame)); return (mk_frame_pix)new FFmpegFrame::Ptr(((FFmpegSws *) ctx)->inputFrame(*(FFmpegFrame::Ptr *) frame));
} }
API_EXPORT uint8_t **API_CALL mk_get_av_frame_data(AVFrame *frame) { API_EXPORT uint8_t **API_CALL mk_get_av_frame_data(AVFrame *frame) {

View File

@ -55,11 +55,11 @@ API_EXPORT char* API_CALL mk_util_hex_dump(const void *buf, int len){
} }
API_EXPORT mk_ini API_CALL mk_ini_create() { API_EXPORT mk_ini API_CALL mk_ini_create() {
return new mINI; return (mk_ini)new mINI;
} }
API_EXPORT mk_ini API_CALL mk_ini_default() { API_EXPORT mk_ini API_CALL mk_ini_default() {
return &(mINI::Instance()); return (mk_ini)&(mINI::Instance());
} }
static void emit_ini_file_reload(mk_ini ini) { static void emit_ini_file_reload(mk_ini ini) {

View File

@ -32,7 +32,7 @@ void release_player(mk_player *ptr) {
} }
} }
void release_pusher(mk_media *ptr) { void release_pusher(mk_pusher *ptr) {
if (ptr && *ptr) { if (ptr && *ptr) {
mk_pusher_release(*ptr); mk_pusher_release(*ptr);
*ptr = NULL; *ptr = NULL;

View File

@ -252,9 +252,9 @@ static inline int getBitsLeft(void *pvHandle)
*functions *functions
********************************************/ ********************************************/
/** /**
* @brief Function getOneBit() Á1¸öbit * @brief Function getOneBit() get next bit
* @param[in] h T_GetBitContext structrue * @param[in] h T_GetBitContext structrue
* @retval 0: success, -1 : failure * @retval other : success, -1 : failure
* @pre * @pre
* @post * @post
*/ */
@ -291,10 +291,10 @@ exit:
/** /**
* @brief Function getBits() Án¸öbits£¬n²»Äܳ¬¹ý32 * @brief Function getBits() get next bits
* @param[in] h T_GetBitContext structrue * @param[in] h T_GetBitContext structrue
* @param[in] n how many bits you want? * @param[in] n how many bits you want?
* @retval 0: success, -1 : failure * @retval other : success, -1 : failure
* @pre * @pre
* @post * @post
*/ */
@ -446,7 +446,7 @@ static inline unsigned int showBitsLong(void *pvHandle, int iN)
/** /**
* @brief Function parseCodenum() Ö¸Êý¸çÂײ¼±àÂë½âÎö£¬²Î¿¼h264±ê×¼µÚ9½Ú * @brief Function parseCodenum()
* @param[in] buf * @param[in] buf
* @retval u32CodeNum * @retval u32CodeNum
* @pre * @pre
@ -469,7 +469,7 @@ static int parseCodenum(void *pvBuf)
} }
/** /**
* @brief Function parseUe() Ö¸Êý¸çÂײ¼±àÂë½âÎö ue(),²Î¿¼h264±ê×¼µÚ9½Ú * @brief Function parseUe()
* @param[in] buf sps_pps parse buf * @param[in] buf sps_pps parse buf
* @retval u32CodeNum * @retval u32CodeNum
* @pre * @pre
@ -482,7 +482,7 @@ static int parseUe(void *pvBuf)
/** /**
* @brief Function parseSe() Ö¸Êý¸çÂײ¼±àÂë½âÎö se(), ²Î¿¼h264±ê×¼µÚ9½Ú * @brief Function parseSe()
* @param[in] buf sps_pps parse buf * @param[in] buf sps_pps parse buf
* @retval u32CodeNum * @retval u32CodeNum
* @pre * @pre
@ -502,7 +502,7 @@ static int parseSe(void *pvBuf)
/** /**
* @brief Function getBitContextFree() ÉêÇëµÄget_bit_context½á¹¹ÄÚ´æÊÍ·Å * @brief Function getBitContextFree()
* @param[in] buf T_GetBitContext buf * @param[in] buf T_GetBitContext buf
* @retval none * @retval none
* @pre * @pre
@ -527,18 +527,13 @@ static void getBitContextFree(void *pvBuf)
/** /**
* @brief Function deEmulationPrevention() ½â¾ºÕù´úÂë * @brief Function deEmulationPrevention()
* @param[in] buf T_GetBitContext buf * @param[in] buf T_GetBitContext buf
* @retval none * @retval none
* @pre * @pre
* @post * @post
* @note: * @note:
* µ÷ÊÔʱ×ÜÊÇ·¢ÏÖvui.time_scaleÖµÌØ±ðÆæ¹Ö£¬×ÜÊÇ16777216£¬ºóÀ´²éѯԭÒòÈçÏÂ:
* http://www.cnblogs.com/eustoma/archive/2012/02/13/2415764.html * http://www.cnblogs.com/eustoma/archive/2012/02/13/2415764.html
* H.264±àÂëʱ£¬ÔÚÿ¸öNALǰÌí¼ÓÆðʼÂë 0x000001£¬½âÂëÆ÷ÔÚÂëÁ÷Öмì²âµ½ÆðʼÂ룬µ±Ç°NAL½áÊø¡£
* ΪÁË·ÀÖ¹NALÄÚ²¿³öÏÖ0x000001µÄÊý¾Ý£¬h.264ÓÖÌá³ö'·ÀÖ¹¾ºÕù emulation prevention"»úÖÆ£¬
* ÔÚ±àÂëÍêÒ»¸öNALʱ£¬Èç¹û¼ì²â³öÓÐÁ¬ÐøÁ½¸ö0x00×Ö½Ú£¬¾ÍÔÚºóÃæ²åÈëÒ»¸ö0x03¡£
* µ±½âÂëÆ÷ÔÚNALÄÚ²¿¼ì²âµ½0x000003µÄÊý¾Ý£¬¾Í°Ñ0x03Åׯú£¬»Ö¸´Ô­Ê¼Êý¾Ý¡£
* 0x000000 >>>>>> 0x00000300 * 0x000000 >>>>>> 0x00000300
* 0x000001 >>>>>> 0x00000301 * 0x000001 >>>>>> 0x00000301
* 0x000002 >>>>>> 0x00000302 * 0x000002 >>>>>> 0x00000302
@ -581,22 +576,20 @@ static void *deEmulationPrevention(void *pvBuf)
tmp_buf_size = ptPtr->iBufSize; tmp_buf_size = ptPtr->iBufSize;
for(i=0; i<(tmp_buf_size-2); i++) for(i=0; i<(tmp_buf_size-2); i++)
{ {
/*¼ì²â0x000003*/
iVal = (pu8TmpPtr[i]^0x00) + (pu8TmpPtr[i+1]^0x00) + (pu8TmpPtr[i+2]^0x03); iVal = (pu8TmpPtr[i]^0x00) + (pu8TmpPtr[i+1]^0x00) + (pu8TmpPtr[i+2]^0x03);
if(iVal == 0) if(iVal == 0)
{ {
/*ÌÞ³ý0x03*/
for(j=i+2; j<tmp_buf_size-1; j++) for(j=i+2; j<tmp_buf_size-1; j++)
{ {
pu8TmpPtr[j] = pu8TmpPtr[j+1]; pu8TmpPtr[j] = pu8TmpPtr[j+1];
} }
/*ÏàÓ¦µÄbufsizeÒª¼õС*/
ptPtr->iBufSize--; ptPtr->iBufSize--;
} }
} }
/*ÖØÐ¼ÆËãtotal_bit*/
ptPtr->iTotalBit = ptPtr->iBufSize << 3; ptPtr->iTotalBit = ptPtr->iBufSize << 3;
return (void *)ptPtr; return (void *)ptPtr;

View File

@ -439,11 +439,11 @@ typedef struct T_HEVCSPS {
typedef struct T_GetBitContext{ typedef struct T_GetBitContext{
uint8_t *pu8Buf; /*Ö¸ÏòSPS start*/ uint8_t *pu8Buf; // buf
int iBufSize; /*SPS ³¤¶È*/ int iBufSize; // buf size
int iBitPos; /*bitÒѶÁȡλÖÃ*/ int iBitPos; // bit position
int iTotalBit; /*bit×ܳ¤¶È*/ int iTotalBit; // bit number
int iCurBitPos; /*µ±Ç°¶ÁȡλÖÃ*/ int iCurBitPos; // current bit position
}T_GetBitContext; }T_GetBitContext;

View File

@ -496,6 +496,10 @@ void HttpFileManager::onAccessPath(Session &sender, Parser &parser, const HttpFi
auto fullUrl = string(HTTP_SCHEMA) + "://" + parser["Host"] + parser.FullUrl(); auto fullUrl = string(HTTP_SCHEMA) + "://" + parser["Host"] + parser.FullUrl();
MediaInfo media_info(fullUrl); MediaInfo media_info(fullUrl);
auto file_path = getFilePath(parser, media_info, sender); auto file_path = getFilePath(parser, media_info, sender);
if (file_path.size() == 0) {
sendNotFound(cb);
return;
}
//访问的是文件夹 //访问的是文件夹
if (File::is_dir(file_path.data())) { if (File::is_dir(file_path.data())) {
auto indexFile = searchIndexFile(file_path); auto indexFile = searchIndexFile(file_path);

View File

@ -71,6 +71,10 @@ RtpProcess::~RtpProcess() {
} }
bool RtpProcess::inputRtp(bool is_udp, const Socket::Ptr &sock, const char *data, size_t len, const struct sockaddr *addr, uint64_t *dts_out) { bool RtpProcess::inputRtp(bool is_udp, const Socket::Ptr &sock, const char *data, size_t len, const struct sockaddr *addr, uint64_t *dts_out) {
if (!isRtp(data, len)) {
WarnP(this) << "Not rtp packet";
return false;
}
if (_sock != sock) { if (_sock != sock) {
// 第一次运行本函数 // 第一次运行本函数
bool first = !_sock; bool first = !_sock;

View File

@ -42,7 +42,7 @@ RtpProcess::Ptr RtpSelector::getProcess(const string &stream_id,bool makeNew) {
} }
if (it != _map_rtp_process.end() && makeNew) { if (it != _map_rtp_process.end() && makeNew) {
//已经被其他线程持有了,不得再被持有,否则会存在线程安全的问题 //已经被其他线程持有了,不得再被持有,否则会存在线程安全的问题
throw std::runtime_error(StrPrinter << "RtpProcess(" << stream_id << ") already existed"); throw ProcessExisted(StrPrinter << "RtpProcess(" << stream_id << ") already existed");
} }
RtpProcessHelper::Ptr &ref = _map_rtp_process[stream_id]; RtpProcessHelper::Ptr &ref = _map_rtp_process[stream_id];
if (!ref) { if (!ref) {

View File

@ -44,6 +44,13 @@ public:
RtpSelector() = default; RtpSelector() = default;
~RtpSelector() = default; ~RtpSelector() = default;
class ProcessExisted : public std::runtime_error {
public:
template<typename ...T>
ProcessExisted(T && ...args) : std::runtime_error(std::forward<T>(args)...) {}
~ProcessExisted() override = default;
};
static bool getSSRC(const char *data,size_t data_len, uint32_t &ssrc); static bool getSSRC(const char *data,size_t data_len, uint32_t &ssrc);
static RtpSelector &Instance(); static RtpSelector &Instance();

View File

@ -12,6 +12,7 @@
#include "RtpSession.h" #include "RtpSession.h"
#include "RtpSelector.h" #include "RtpSelector.h"
#include "Network/TcpServer.h" #include "Network/TcpServer.h"
#include "Rtsp/Rtsp.h"
#include "Rtsp/RtpReceiver.h" #include "Rtsp/RtpReceiver.h"
#include "Common/config.h" #include "Common/config.h"
@ -75,6 +76,15 @@ void RtpSession::onManager() {
} }
void RtpSession::onRtpPacket(const char *data, size_t len) { void RtpSession::onRtpPacket(const char *data, size_t len) {
if (_delay_close) {
// 正在延时关闭中,忽略所有数据
return;
}
if (!isRtp(data, len)) {
// 忽略非rtp数据
WarnP(this) << "Not rtp packet";
return;
}
if (!_is_udp) { if (!_is_udp) {
if (_search_rtp) { if (_search_rtp) {
//搜索上下文期间,数据丢弃 //搜索上下文期间,数据丢弃
@ -101,8 +111,18 @@ void RtpSession::onRtpPacket(const char *data, size_t len) {
//未指定流id就使用ssrc为流id //未指定流id就使用ssrc为流id
_stream_id = printSSRC(_ssrc); _stream_id = printSSRC(_ssrc);
} }
//tcp情况下一个tcp链接只可能是一路流不需要通过多个ssrc来区分所以不需要频繁getProcess try {
_process = RtpSelector::Instance().getProcess(_stream_id, true); _process = RtpSelector::Instance().getProcess(_stream_id, true);
} catch (RtpSelector::ProcessExisted &ex) {
if (!_is_udp) {
// tcp情况下立即断开连接
throw;
}
// udp情况下延时断开连接(等待超时自动关闭)防止频繁创建销毁RtpSession对象
WarnP(this) << ex.what();
_delay_close = true;
return;
}
_process->setOnlyAudio(_only_audio); _process->setOnlyAudio(_only_audio);
_process->setDelegate(dynamic_pointer_cast<RtpSession>(shared_from_this())); _process->setDelegate(dynamic_pointer_cast<RtpSession>(shared_from_this()));
} }

View File

@ -44,6 +44,7 @@ protected:
const char *onSearchPacketTail(const char *data, size_t len) override; const char *onSearchPacketTail(const char *data, size_t len) override;
private: private:
bool _delay_close = false;
bool _is_udp = false; bool _is_udp = false;
bool _search_rtp = false; bool _search_rtp = false;
bool _search_rtp_finished = false; bool _search_rtp_finished = false;

View File

@ -14,7 +14,7 @@
namespace mediakit { namespace mediakit {
RtpTrack::RtpTrack() { RtpTrack::RtpTrack() {
setOnSort([this](uint16_t seq, RtpPacket::Ptr &packet) { setOnSort([this](uint16_t seq, RtpPacket::Ptr packet) {
onRtpSorted(std::move(packet)); onRtpSorted(std::move(packet));
}); });
} }
@ -114,7 +114,7 @@ void RtpTrack::setNtpStamp(uint32_t rtp_stamp, uint64_t ntp_stamp_ms) {
} }
} }
void RtpTrack::setPT(uint8_t pt){ void RtpTrack::setPayloadType(uint8_t pt) {
_pt = pt; _pt = pt;
} }

View File

@ -18,42 +18,37 @@
#include "Extension/Frame.h" #include "Extension/Frame.h"
// for NtpStamp // for NtpStamp
#include "Common/Stamp.h" #include "Common/Stamp.h"
#include "Util/TimeTicker.h"
namespace mediakit { namespace mediakit {
template<typename T, typename SEQ = uint16_t, size_t kMax = 1024, size_t kMin = 32> template<typename T, typename SEQ = uint16_t>
class PacketSortor { class PacketSortor {
public: public:
static constexpr SEQ SEQ_MAX = (std::numeric_limits<SEQ>::max)();
PacketSortor() = default; PacketSortor() = default;
~PacketSortor() = default; ~PacketSortor() = default;
void setOnSort(std::function<void(SEQ seq, T &packet)> cb) { void setOnSort(std::function<void(SEQ seq, T packet)> cb) { _cb = std::move(cb); }
_cb = std::move(cb);
}
/** /**
* *
*/ */
void clear() { void clear() {
_started = false;
_seq_cycle_count = 0; _seq_cycle_count = 0;
_pkt_sort_cache_map.clear(); _pkt_sort_cache_map.clear();
_next_seq_out = 0;
_max_sort_size = kMin;
} }
/** /**
* *
*/ */
size_t getJitterSize() const{ size_t getJitterSize() const { return _pkt_sort_cache_map.size(); }
return _pkt_sort_cache_map.size();
}
/** /**
* seq回环次数 * seq回环次数
*/ */
size_t getCycleCount() const{ size_t getCycleCount() const { return _seq_cycle_count; }
return _seq_cycle_count;
}
/** /**
* *
@ -61,110 +56,106 @@ public:
* @param packet * @param packet
*/ */
void sortPacket(SEQ seq, T packet) { void sortPacket(SEQ seq, T packet) {
if(!_is_inited && _next_seq_out == 0){ if (!_started) {
_next_seq_out = seq; // 记录第一个seq
_is_inited = true; _started = true;
_last_seq_out = seq - 1;
} }
if (seq < _next_seq_out) { if (seq == static_cast<SEQ>(_last_seq_out + 1)) {
if (_next_seq_out < seq + kMax) { // 收到下一个seq
//过滤seq回退包(回环包除外) output(seq, std::move(packet));
return; return;
} }
} else if (_next_seq_out && seq - _next_seq_out > ((std::numeric_limits<SEQ>::max)() >> 1)) {
//过滤seq跳变非常大的包(防止回环时乱序时收到非常大的seq) if (seq < _last_seq_out && _last_seq_out != SEQ_MAX && seq < 1024 && _last_seq_out > SEQ_MAX - 1024) {
// seq回环,清空回环前缓存
flush();
_last_seq_out = SEQ_MAX;
++_seq_cycle_count;
sortPacket(seq, std::move(packet));
return;
}
if (seq <= _last_seq_out && _last_seq_out != SEQ_MAX) {
// 这个回退包已经不再等待
return; return;
} }
//放入排序缓存
_pkt_sort_cache_map.emplace(seq, std::move(packet)); _pkt_sort_cache_map.emplace(seq, std::move(packet));
//尝试输出排序后的包 auto it_min = _pkt_sort_cache_map.begin();
tryPopPacket(); auto it_max = _pkt_sort_cache_map.rbegin();
if (it_max->first - it_min->first > (SEQ_MAX >> 1)) {
// 回环后收到回环前的大值seq, 忽略掉
_pkt_sort_cache_map.erase((++it_max).base());
return;
}
tryFlushFrontPacket();
if (_pkt_sort_cache_map.size() > _max_buffer_size || (_ticker.elapsedTime() > _max_buffer_ms && !_pkt_sort_cache_map.empty())) {
// buffer太长强行减小
WarnL << "packet dropped: " << static_cast<SEQ>(_last_seq_out + 1) << " -> "
<< static_cast<SEQ>(_pkt_sort_cache_map.begin()->first - 1)
<< ", jitter buffer size: " << _pkt_sort_cache_map.size()
<< ", jitter buffer ms: " << _ticker.elapsedTime();
popIterator(_pkt_sort_cache_map.begin());
}
} }
void flush(){ void flush() {
//清空缓存 // 清空缓存
while (!_pkt_sort_cache_map.empty()) { while (!_pkt_sort_cache_map.empty()) {
popIterator(_pkt_sort_cache_map.begin()); popIterator(_pkt_sort_cache_map.begin());
} }
} }
private: private:
void popPacket() { void tryFlushFrontPacket() {
auto it = _pkt_sort_cache_map.begin(); while (!_pkt_sort_cache_map.empty()) {
if (it->first >= _next_seq_out) { auto it = _pkt_sort_cache_map.begin();
//过滤回跳包 auto next_seq = static_cast<SEQ>(_last_seq_out + 1);
popIterator(it); if (it->first < next_seq) {
return; _pkt_sort_cache_map.erase(it);
} continue;
if (_next_seq_out - it->first > (0xFFFF >> 1)) {
//产生回环了
if (_pkt_sort_cache_map.size() < 2 * kMin) {
//等足够多的数据后才处理回环, 因为后面还可能出现大的SEQ
return;
} }
++_seq_cycle_count; if (it->first == next_seq) {
//找到大的SEQ并清空掉然后从小的SEQ重新开始排序 // 连续的seq
auto hit = _pkt_sort_cache_map.upper_bound((SEQ) (_next_seq_out - _pkt_sort_cache_map.size())); popIterator(it);
while (hit != _pkt_sort_cache_map.end()) { continue;
//回环前清空剩余的大的SEQ的数据
_cb(hit->first, hit->second);
hit = _pkt_sort_cache_map.erase(hit);
} }
//下一个回环的数据 break;
popIterator(_pkt_sort_cache_map.begin());
return;
} }
//删除回跳的数据包
_pkt_sort_cache_map.erase(it);
} }
void popIterator(typename std::map<SEQ, T>::iterator it) { void popIterator(typename std::map<SEQ, T>::iterator it) {
auto seq = it->first; auto seq = it->first;
auto data = std::move(it->second); auto data = std::move(it->second);
_pkt_sort_cache_map.erase(it); _pkt_sort_cache_map.erase(it);
_next_seq_out = seq + 1; output(seq, std::move(data));
_cb(seq, data);
} }
void tryPopPacket() { void output(SEQ seq, T packet) {
int count = 0; _last_seq_out = seq;
while ((!_pkt_sort_cache_map.empty() && _pkt_sort_cache_map.begin()->first == _next_seq_out)) { _cb(seq, std::move(packet));
//找到下个包,直接输出 _ticker.resetTime();
popPacket();
++count;
}
if (count) {
setSortSize();
} else if (_pkt_sort_cache_map.size() > _max_sort_size) {
//排序缓存溢出,不再继续排序
popPacket();
setSortSize();
}
}
void setSortSize() {
_max_sort_size = kMin + _pkt_sort_cache_map.size();
if (_max_sort_size > kMax) {
_max_sort_size = kMax;
}
} }
private: private:
//第一个包是已经进入 bool _started = false;
bool _is_inited = false; //排序缓存最大保存数据长度,单位毫秒
size_t _max_buffer_ms = 3000;
//排序缓存最大保存数据个数
size_t _max_buffer_size = 1024;
//记录上次output至今的时间
toolkit::Ticker _ticker;
//下次应该输出的SEQ //下次应该输出的SEQ
SEQ _next_seq_out = 0; SEQ _last_seq_out = 0;
//seq回环次数计数 //seq回环次数计数
size_t _seq_cycle_count = 0; size_t _seq_cycle_count = 0;
//排序缓存长度
size_t _max_sort_size = kMin;
//pkt排序缓存根据seq排序 //pkt排序缓存根据seq排序
std::map<SEQ, T> _pkt_sort_cache_map; std::map<SEQ, T> _pkt_sort_cache_map;
//回调 //回调
std::function<void(SEQ seq, T &packet)> _cb; std::function<void(SEQ seq, T packet)> _cb;
}; };
class RtpTrack : private PacketSortor<RtpPacket::Ptr> { class RtpTrack : private PacketSortor<RtpPacket::Ptr> {
@ -183,7 +174,7 @@ public:
uint32_t getSSRC() const; uint32_t getSSRC() const;
RtpPacket::Ptr inputRtp(TrackType type, int sample_rate, uint8_t *ptr, size_t len); RtpPacket::Ptr inputRtp(TrackType type, int sample_rate, uint8_t *ptr, size_t len);
void setNtpStamp(uint32_t rtp_stamp, uint64_t ntp_stamp_ms); void setNtpStamp(uint32_t rtp_stamp, uint64_t ntp_stamp_ms);
void setPT(uint8_t pt); void setPayloadType(uint8_t pt);
protected: protected:
virtual void onRtpSorted(RtpPacket::Ptr rtp) {} virtual void onRtpSorted(RtpPacket::Ptr rtp) {}
@ -261,9 +252,9 @@ public:
_track[index].setNtpStamp(rtp_stamp, ntp_stamp_ms); _track[index].setNtpStamp(rtp_stamp, ntp_stamp_ms);
} }
void setPT(int index, uint8_t pt){ void setPayloadType(int index, uint8_t pt){
assert(index < kCount && index >= 0); assert(index < kCount && index >= 0);
_track[index].setPT(pt); _track[index].setPayloadType(pt);
} }
void clear() { void clear() {

View File

@ -442,6 +442,22 @@ string printSSRC(uint32_t ui32Ssrc) {
return tmp; return tmp;
} }
bool isRtp(const char *buf, size_t size) {
if (size < 2) {
return false;
}
RtpHeader *header = (RtpHeader *)buf;
return ((header->pt < 64) || (header->pt >= 96));
}
bool isRtcp(const char *buf, size_t size) {
if (size < 2) {
return false;
}
RtpHeader *header = (RtpHeader *)buf;
return ((header->pt >= 64) && (header->pt < 96));
}
Buffer::Ptr makeRtpOverTcpPrefix(uint16_t size, uint8_t interleaved) { Buffer::Ptr makeRtpOverTcpPrefix(uint16_t size, uint8_t interleaved) {
auto rtp_tcp = BufferRaw::create(); auto rtp_tcp = BufferRaw::create();
rtp_tcp->setCapacity(RtpPacket::kRtpTcpHeaderSize); rtp_tcp->setCapacity(RtpPacket::kRtpTcpHeaderSize);

View File

@ -337,5 +337,8 @@ void makeSockPair(std::pair<toolkit::Socket::Ptr, toolkit::Socket::Ptr> &pair, c
//十六进制方式打印ssrc //十六进制方式打印ssrc
std::string printSSRC(uint32_t ui32Ssrc); std::string printSSRC(uint32_t ui32Ssrc);
bool isRtp(const char *buf, size_t size);
bool isRtcp(const char *buf, size_t size);
} //namespace mediakit } //namespace mediakit
#endif //RTSP_RTSP_H_ #endif //RTSP_RTSP_H_

View File

@ -225,7 +225,7 @@ void RtspPlayer::handleResDESCRIBE(const Parser& parser) {
_rtcp_context.clear(); _rtcp_context.clear();
for (auto &track : _sdp_track) { for (auto &track : _sdp_track) {
if(track->_pt != 0xff){ if(track->_pt != 0xff){
setPT(_rtcp_context.size(),track->_pt); setPayloadType(_rtcp_context.size(),track->_pt);
} }
_rtcp_context.emplace_back(std::make_shared<RtcpContextForRecv>()); _rtcp_context.emplace_back(std::make_shared<RtcpContextForRecv>());
} }

View File

@ -15,20 +15,38 @@ using namespace std;
using namespace toolkit; using namespace toolkit;
using namespace mediakit; using namespace mediakit;
extern void testFCI();
int main() { int main() {
Logger::Instance().add(std::make_shared<ConsoleChannel>()); Logger::Instance().add(std::make_shared<ConsoleChannel>());
Logger::Instance().setWriter(std::make_shared<AsyncLogWriter>());
srand((unsigned) time(NULL)); srand((unsigned)time(NULL));
NackContext ctx; NackContext ctx;
for (int i = 1; i < 1000; ++i) { ctx.setOnNack([](const FCI_NACK &nack){
if (i % (1 + (rand() % 30)) == 0) { InfoL << nack.dumpString();
DebugL << "drop:" << i; });
auto drop_start = 0;
auto drop_len = 0;
uint16_t offset = 0xFFFF - 200 - 50;
for (int i = 1; i < 10000; ++i) {
if (i % 100 == 0) {
drop_start = i + rand() % 16;
drop_len = 4 + rand() % 16;
InfoL << "start drop:" << (uint16_t)(drop_start + offset) << " -> "
<< (uint16_t)(drop_start + offset + drop_len);
}
uint16_t seq = i + offset;
if ((i >= drop_start && i <= drop_start + drop_len) || seq == 65535 || seq == 0 || seq == 1) {
TraceL << "drop:" << (uint16_t)(i + offset);
} else { } else {
ctx.received(i); static auto last_seq = seq;
if (seq - last_seq > 16) {
ctx.received(last_seq);
ctx.received(seq);
DebugL << "seq reduce:" << last_seq;
last_seq = seq;
} else {
ctx.received(seq);
}
} }
} }
sleep(1); sleep(1);

View File

@ -102,7 +102,7 @@ void test_real() {
PacketSortor<uint16_t, uint16_t> sortor; PacketSortor<uint16_t, uint16_t> sortor;
list<uint16_t> sorted_list; list<uint16_t> sorted_list;
sortor.setOnSort([&](uint16_t seq, const uint16_t &packet) { sortor.setOnSort([&](uint16_t seq, uint16_t packet) {
sorted_list.push_back(seq); sorted_list.push_back(seq);
}); });

File diff suppressed because it is too large Load Diff

View File

@ -33,50 +33,50 @@ using namespace toolkit;
namespace RTC namespace RTC
{ {
class DtlsTransport : public std::enable_shared_from_this<DtlsTransport> class DtlsTransport : public std::enable_shared_from_this<DtlsTransport>
{ {
public: public:
enum class DtlsState enum class DtlsState
{ {
NEW = 1, NEW = 1,
CONNECTING, CONNECTING,
CONNECTED, CONNECTED,
FAILED, FAILED,
CLOSED CLOSED
}; };
public: public:
enum class Role enum class Role
{ {
NONE = 0, NONE = 0,
AUTO = 1, AUTO = 1,
CLIENT, CLIENT,
SERVER SERVER
}; };
public: public:
enum class FingerprintAlgorithm enum class FingerprintAlgorithm
{ {
NONE = 0, NONE = 0,
SHA1 = 1, SHA1 = 1,
SHA224, SHA224,
SHA256, SHA256,
SHA384, SHA384,
SHA512 SHA512
}; };
public: public:
struct Fingerprint struct Fingerprint
{ {
FingerprintAlgorithm algorithm{ FingerprintAlgorithm::NONE }; FingerprintAlgorithm algorithm{ FingerprintAlgorithm::NONE };
std::string value; std::string value;
}; };
private: private:
struct SrtpCryptoSuiteMapEntry struct SrtpCryptoSuiteMapEntry
{ {
RTC::SrtpSession::CryptoSuite cryptoSuite; RTC::SrtpSession::CryptoSuite cryptoSuite;
const char* name; const char* name;
}; };
class DtlsEnvironment : public std::enable_shared_from_this<DtlsEnvironment> class DtlsEnvironment : public std::enable_shared_from_this<DtlsEnvironment>
{ {
@ -99,154 +99,154 @@ namespace RTC
std::vector<Fingerprint> localFingerprints; std::vector<Fingerprint> localFingerprints;
}; };
public: public:
class Listener class Listener
{ {
public: public:
// DTLS is in the process of negotiating a secure connection. Incoming // DTLS is in the process of negotiating a secure connection. Incoming
// media can flow through. // media can flow through.
// NOTE: The caller MUST NOT call any method during this callback. // NOTE: The caller MUST NOT call any method during this callback.
virtual void OnDtlsTransportConnecting(const RTC::DtlsTransport* dtlsTransport) = 0; virtual void OnDtlsTransportConnecting(const RTC::DtlsTransport* dtlsTransport) = 0;
// DTLS has completed negotiation of a secure connection (including DTLS-SRTP // DTLS has completed negotiation of a secure connection (including DTLS-SRTP
// and remote fingerprint verification). Outgoing media can now flow through. // and remote fingerprint verification). Outgoing media can now flow through.
// NOTE: The caller MUST NOT call any method during this callback. // NOTE: The caller MUST NOT call any method during this callback.
virtual void OnDtlsTransportConnected( virtual void OnDtlsTransportConnected(
const RTC::DtlsTransport* dtlsTransport, const RTC::DtlsTransport* dtlsTransport,
RTC::SrtpSession::CryptoSuite srtpCryptoSuite, RTC::SrtpSession::CryptoSuite srtpCryptoSuite,
uint8_t* srtpLocalKey, uint8_t* srtpLocalKey,
size_t srtpLocalKeyLen, size_t srtpLocalKeyLen,
uint8_t* srtpRemoteKey, uint8_t* srtpRemoteKey,
size_t srtpRemoteKeyLen, size_t srtpRemoteKeyLen,
std::string& remoteCert) = 0; std::string& remoteCert) = 0;
// The DTLS connection has been closed as the result of an error (such as a // The DTLS connection has been closed as the result of an error (such as a
// DTLS alert or a failure to validate the remote fingerprint). // DTLS alert or a failure to validate the remote fingerprint).
virtual void OnDtlsTransportFailed(const RTC::DtlsTransport* dtlsTransport) = 0; virtual void OnDtlsTransportFailed(const RTC::DtlsTransport* dtlsTransport) = 0;
// The DTLS connection has been closed due to receipt of a close_notify alert. // The DTLS connection has been closed due to receipt of a close_notify alert.
virtual void OnDtlsTransportClosed(const RTC::DtlsTransport* dtlsTransport) = 0; virtual void OnDtlsTransportClosed(const RTC::DtlsTransport* dtlsTransport) = 0;
// Need to send DTLS data to the peer. // Need to send DTLS data to the peer.
virtual void OnDtlsTransportSendData( virtual void OnDtlsTransportSendData(
const RTC::DtlsTransport* dtlsTransport, const uint8_t* data, size_t len) = 0; const RTC::DtlsTransport* dtlsTransport, const uint8_t* data, size_t len) = 0;
// DTLS application data received. // DTLS application data received.
virtual void OnDtlsTransportApplicationDataReceived( virtual void OnDtlsTransportApplicationDataReceived(
const RTC::DtlsTransport* dtlsTransport, const uint8_t* data, size_t len) = 0; const RTC::DtlsTransport* dtlsTransport, const uint8_t* data, size_t len) = 0;
}; };
public: public:
static Role StringToRole(const std::string& role) static Role StringToRole(const std::string& role)
{ {
auto it = DtlsTransport::string2Role.find(role); auto it = DtlsTransport::string2Role.find(role);
if (it != DtlsTransport::string2Role.end()) if (it != DtlsTransport::string2Role.end())
return it->second; return it->second;
else else
return DtlsTransport::Role::NONE; return DtlsTransport::Role::NONE;
} }
static FingerprintAlgorithm GetFingerprintAlgorithm(const std::string& fingerprint) static FingerprintAlgorithm GetFingerprintAlgorithm(const std::string& fingerprint)
{ {
auto it = DtlsTransport::string2FingerprintAlgorithm.find(fingerprint); auto it = DtlsTransport::string2FingerprintAlgorithm.find(fingerprint);
if (it != DtlsTransport::string2FingerprintAlgorithm.end()) if (it != DtlsTransport::string2FingerprintAlgorithm.end())
return it->second; return it->second;
else else
return DtlsTransport::FingerprintAlgorithm::NONE; return DtlsTransport::FingerprintAlgorithm::NONE;
} }
static std::string& GetFingerprintAlgorithmString(FingerprintAlgorithm fingerprint) static std::string& GetFingerprintAlgorithmString(FingerprintAlgorithm fingerprint)
{ {
auto it = DtlsTransport::fingerprintAlgorithm2String.find(fingerprint); auto it = DtlsTransport::fingerprintAlgorithm2String.find(fingerprint);
return it->second; return it->second;
} }
static bool IsDtls(const uint8_t* data, size_t len) static bool IsDtls(const uint8_t* data, size_t len)
{ {
// clang-format off // clang-format off
return ( return (
// Minimum DTLS record length is 13 bytes. // Minimum DTLS record length is 13 bytes.
(len >= 13) && (len >= 13) &&
// DOC: https://tools.ietf.org/html/draft-ietf-avtcore-rfc5764-mux-fixes // DOC: https://tools.ietf.org/html/draft-ietf-avtcore-rfc5764-mux-fixes
(data[0] > 19 && data[0] < 64) (data[0] > 19 && data[0] < 64)
); );
// clang-format on // clang-format on
} }
private:
static std::map<std::string, Role> string2Role;
static std::map<std::string, FingerprintAlgorithm> string2FingerprintAlgorithm;
static std::map<FingerprintAlgorithm, std::string> fingerprintAlgorithm2String;
static std::vector<SrtpCryptoSuiteMapEntry> srtpCryptoSuites;
public:
DtlsTransport(EventPoller::Ptr poller, Listener* listener);
~DtlsTransport();
public:
void Dump() const;
void Run(Role localRole);
std::vector<Fingerprint>& GetLocalFingerprints() const
{
return env->localFingerprints;
}
bool SetRemoteFingerprint(Fingerprint fingerprint);
void ProcessDtlsData(const uint8_t* data, size_t len);
DtlsState GetState() const
{
return this->state;
}
Role GetLocalRole() const
{
return this->localRole;
}
void SendApplicationData(const uint8_t* data, size_t len);
private:
bool IsRunning() const
{
switch (this->state)
{
case DtlsState::NEW:
return false;
case DtlsState::CONNECTING:
case DtlsState::CONNECTED:
return true;
case DtlsState::FAILED:
case DtlsState::CLOSED:
return false;
}
// Make GCC 4.9 happy.
return false;
}
void Reset();
bool CheckStatus(int returnCode);
void SendPendingOutgoingDtlsData();
bool SetTimeout();
bool ProcessHandshake();
bool CheckRemoteFingerprint();
void ExtractSrtpKeys(RTC::SrtpSession::CryptoSuite srtpCryptoSuite);
RTC::SrtpSession::CryptoSuite GetNegotiatedSrtpCryptoSuite();
private: private:
void OnSslInfo(int where, int ret); static std::map<std::string, Role> string2Role;
void OnTimer(); static std::map<std::string, FingerprintAlgorithm> string2FingerprintAlgorithm;
static std::map<FingerprintAlgorithm, std::string> fingerprintAlgorithm2String;
static std::vector<SrtpCryptoSuiteMapEntry> srtpCryptoSuites;
private: public:
DtlsTransport(EventPoller::Ptr poller, Listener* listener);
~DtlsTransport();
public:
void Dump() const;
void Run(Role localRole);
std::vector<Fingerprint>& GetLocalFingerprints() const
{
return env->localFingerprints;
}
bool SetRemoteFingerprint(Fingerprint fingerprint);
void ProcessDtlsData(const uint8_t* data, size_t len);
DtlsState GetState() const
{
return this->state;
}
Role GetLocalRole() const
{
return this->localRole;
}
void SendApplicationData(const uint8_t* data, size_t len);
private:
bool IsRunning() const
{
switch (this->state)
{
case DtlsState::NEW:
return false;
case DtlsState::CONNECTING:
case DtlsState::CONNECTED:
return true;
case DtlsState::FAILED:
case DtlsState::CLOSED:
return false;
}
// Make GCC 4.9 happy.
return false;
}
void Reset();
bool CheckStatus(int returnCode);
void SendPendingOutgoingDtlsData();
bool SetTimeout();
bool ProcessHandshake();
bool CheckRemoteFingerprint();
void ExtractSrtpKeys(RTC::SrtpSession::CryptoSuite srtpCryptoSuite);
RTC::SrtpSession::CryptoSuite GetNegotiatedSrtpCryptoSuite();
private:
void OnSslInfo(int where, int ret);
void OnTimer();
private:
DtlsEnvironment::Ptr env; DtlsEnvironment::Ptr env;
EventPoller::Ptr poller; EventPoller::Ptr poller;
// Passed by argument. // Passed by argument.
Listener* listener{ nullptr }; Listener* listener{ nullptr };
// Allocated by this. // Allocated by this.
SSL* ssl{ nullptr }; SSL* ssl{ nullptr };
BIO* sslBioFromNetwork{ nullptr }; // The BIO from which ssl reads. BIO* sslBioFromNetwork{ nullptr }; // The BIO from which ssl reads.
BIO* sslBioToNetwork{ nullptr }; // The BIO in which ssl writes. BIO* sslBioToNetwork{ nullptr }; // The BIO in which ssl writes.
Timer::Ptr timer; Timer::Ptr timer;
// Others. // Others.
DtlsState state{ DtlsState::NEW }; DtlsState state{ DtlsState::NEW };
Role localRole{ Role::NONE }; Role localRole{ Role::NONE };
Fingerprint remoteFingerprint; Fingerprint remoteFingerprint;
bool handshakeDone{ false }; bool handshakeDone{ false };
bool handshakeDoneNow{ false }; bool handshakeDoneNow{ false };
std::string remoteCert; std::string remoteCert;
//最大不超过mtu //最大不超过mtu
static constexpr int SslReadBufferSize{ 2000 }; static constexpr int SslReadBufferSize{ 2000 };
uint8_t sslReadBuffer[SslReadBufferSize]; uint8_t sslReadBuffer[SslReadBufferSize];
}; };
} // namespace RTC } // namespace RTC

View File

@ -24,503 +24,505 @@ OR IN CONNECTION WITH THE USE OR PERFORMANCE OF THIS SOFTWARE.
namespace RTC namespace RTC
{ {
/* Static. */ /* Static. */
/* Instance methods. */ /* Instance methods. */
IceServer::IceServer(Listener* listener, const std::string& usernameFragment, const std::string& password) IceServer::IceServer(Listener* listener, const std::string& usernameFragment, const std::string& password)
: listener(listener), usernameFragment(usernameFragment), password(password) : listener(listener), usernameFragment(usernameFragment), password(password)
{ {
MS_TRACE(); MS_TRACE();
} }
void IceServer::ProcessStunPacket(RTC::StunPacket* packet, RTC::TransportTuple* tuple) void IceServer::ProcessStunPacket(RTC::StunPacket* packet, RTC::TransportTuple* tuple)
{ {
MS_TRACE(); MS_TRACE();
// Must be a Binding method. // Must be a Binding method.
if (packet->GetMethod() != RTC::StunPacket::Method::BINDING) if (packet->GetMethod() != RTC::StunPacket::Method::BINDING)
{ {
if (packet->GetClass() == RTC::StunPacket::Class::REQUEST) if (packet->GetClass() == RTC::StunPacket::Class::REQUEST)
{ {
MS_WARN_TAG( MS_WARN_TAG(
ice, ice,
"unknown method %#.3x in STUN Request => 400", "unknown method %#.3x in STUN Request => 400",
static_cast<unsigned int>(packet->GetMethod())); static_cast<unsigned int>(packet->GetMethod()));
// Reply 400. // Reply 400.
RTC::StunPacket* response = packet->CreateErrorResponse(400); RTC::StunPacket* response = packet->CreateErrorResponse(400);
response->Serialize(StunSerializeBuffer); response->Serialize(StunSerializeBuffer);
this->listener->OnIceServerSendStunPacket(this, response, tuple); this->listener->OnIceServerSendStunPacket(this, response, tuple);
delete response; delete response;
} }
else else
{ {
MS_WARN_TAG( MS_WARN_TAG(
ice, ice,
"ignoring STUN Indication or Response with unknown method %#.3x", "ignoring STUN Indication or Response with unknown method %#.3x",
static_cast<unsigned int>(packet->GetMethod())); static_cast<unsigned int>(packet->GetMethod()));
} }
return; return;
} }
// Must use FINGERPRINT (optional for ICE STUN indications). // Must use FINGERPRINT (optional for ICE STUN indications).
if (!packet->HasFingerprint() && packet->GetClass() != RTC::StunPacket::Class::INDICATION) if (!packet->HasFingerprint() && packet->GetClass() != RTC::StunPacket::Class::INDICATION)
{ {
if (packet->GetClass() == RTC::StunPacket::Class::REQUEST) if (packet->GetClass() == RTC::StunPacket::Class::REQUEST)
{ {
MS_WARN_TAG(ice, "STUN Binding Request without FINGERPRINT => 400"); MS_WARN_TAG(ice, "STUN Binding Request without FINGERPRINT => 400");
// Reply 400. // Reply 400.
RTC::StunPacket* response = packet->CreateErrorResponse(400); RTC::StunPacket* response = packet->CreateErrorResponse(400);
response->Serialize(StunSerializeBuffer); response->Serialize(StunSerializeBuffer);
this->listener->OnIceServerSendStunPacket(this, response, tuple); this->listener->OnIceServerSendStunPacket(this, response, tuple);
delete response; delete response;
} }
else else
{ {
MS_WARN_TAG(ice, "ignoring STUN Binding Response without FINGERPRINT"); MS_WARN_TAG(ice, "ignoring STUN Binding Response without FINGERPRINT");
} }
return; return;
} }
switch (packet->GetClass()) switch (packet->GetClass())
{ {
case RTC::StunPacket::Class::REQUEST: case RTC::StunPacket::Class::REQUEST:
{ {
// USERNAME, MESSAGE-INTEGRITY and PRIORITY are required. // USERNAME, MESSAGE-INTEGRITY and PRIORITY are required.
if (!packet->HasMessageIntegrity() || (packet->GetPriority() == 0u) || packet->GetUsername().empty()) if (!packet->HasMessageIntegrity() || (packet->GetPriority() == 0u) || packet->GetUsername().empty())
{ {
MS_WARN_TAG(ice, "mising required attributes in STUN Binding Request => 400"); MS_WARN_TAG(ice, "mising required attributes in STUN Binding Request => 400");
// Reply 400. // Reply 400.
RTC::StunPacket* response = packet->CreateErrorResponse(400); RTC::StunPacket* response = packet->CreateErrorResponse(400);
response->Serialize(StunSerializeBuffer); response->Serialize(StunSerializeBuffer);
this->listener->OnIceServerSendStunPacket(this, response, tuple); this->listener->OnIceServerSendStunPacket(this, response, tuple);
delete response; delete response;
return; return;
} }
// Check authentication. // Check authentication.
switch (packet->CheckAuthentication(this->usernameFragment, this->password)) switch (packet->CheckAuthentication(this->usernameFragment, this->password))
{ {
case RTC::StunPacket::Authentication::OK: case RTC::StunPacket::Authentication::OK:
{ {
if (!this->oldPassword.empty()) if (!this->oldPassword.empty())
{ {
MS_DEBUG_TAG(ice, "new ICE credentials applied"); MS_DEBUG_TAG(ice, "new ICE credentials applied");
this->oldUsernameFragment.clear(); this->oldUsernameFragment.clear();
this->oldPassword.clear(); this->oldPassword.clear();
} }
break; break;
} }
case RTC::StunPacket::Authentication::UNAUTHORIZED: case RTC::StunPacket::Authentication::UNAUTHORIZED:
{ {
// We may have changed our usernameFragment and password, so check // We may have changed our usernameFragment and password, so check
// the old ones. // the old ones.
// clang-format off // clang-format off
if ( if (
!this->oldUsernameFragment.empty() && !this->oldUsernameFragment.empty() &&
!this->oldPassword.empty() && !this->oldPassword.empty() &&
packet->CheckAuthentication(this->oldUsernameFragment, this->oldPassword) == RTC::StunPacket::Authentication::OK packet->CheckAuthentication(this->oldUsernameFragment, this->oldPassword) == RTC::StunPacket::Authentication::OK
) )
// clang-format on // clang-format on
{ {
MS_DEBUG_TAG(ice, "using old ICE credentials"); MS_DEBUG_TAG(ice, "using old ICE credentials");
break; break;
} }
MS_WARN_TAG(ice, "wrong authentication in STUN Binding Request => 401"); MS_WARN_TAG(ice, "wrong authentication in STUN Binding Request => 401");
// Reply 401. // Reply 401.
RTC::StunPacket* response = packet->CreateErrorResponse(401); RTC::StunPacket* response = packet->CreateErrorResponse(401);
response->Serialize(StunSerializeBuffer); response->Serialize(StunSerializeBuffer);
this->listener->OnIceServerSendStunPacket(this, response, tuple); this->listener->OnIceServerSendStunPacket(this, response, tuple);
delete response; delete response;
return; return;
} }
case RTC::StunPacket::Authentication::BAD_REQUEST: case RTC::StunPacket::Authentication::BAD_REQUEST:
{ {
MS_WARN_TAG(ice, "cannot check authentication in STUN Binding Request => 400"); MS_WARN_TAG(ice, "cannot check authentication in STUN Binding Request => 400");
// Reply 400. // Reply 400.
RTC::StunPacket* response = packet->CreateErrorResponse(400); RTC::StunPacket* response = packet->CreateErrorResponse(400);
response->Serialize(StunSerializeBuffer); response->Serialize(StunSerializeBuffer);
this->listener->OnIceServerSendStunPacket(this, response, tuple); this->listener->OnIceServerSendStunPacket(this, response, tuple);
delete response; delete response;
return; return;
} }
} }
#if 0 #if 0
// The remote peer must be ICE controlling. // The remote peer must be ICE controlling.
if (packet->GetIceControlled()) if (packet->GetIceControlled())
{ {
MS_WARN_TAG(ice, "peer indicates ICE-CONTROLLED in STUN Binding Request => 487"); MS_WARN_TAG(ice, "peer indicates ICE-CONTROLLED in STUN Binding Request => 487");
// Reply 487 (Role Conflict). // Reply 487 (Role Conflict).
RTC::StunPacket* response = packet->CreateErrorResponse(487); RTC::StunPacket* response = packet->CreateErrorResponse(487);
response->Serialize(StunSerializeBuffer); response->Serialize(StunSerializeBuffer);
this->listener->OnIceServerSendStunPacket(this, response, tuple); this->listener->OnIceServerSendStunPacket(this, response, tuple);
delete response; delete response;
return; return;
} }
#endif #endif
//MS_DEBUG_DEV( //MS_DEBUG_DEV(
// "processing STUN Binding Request [Priority:%" PRIu32 ", UseCandidate:%s]", // "processing STUN Binding Request [Priority:%" PRIu32 ", UseCandidate:%s]",
// static_cast<uint32_t>(packet->GetPriority()), // static_cast<uint32_t>(packet->GetPriority()),
// packet->HasUseCandidate() ? "true" : "false"); // packet->HasUseCandidate() ? "true" : "false");
// Create a success response. // Create a success response.
RTC::StunPacket* response = packet->CreateSuccessResponse(); RTC::StunPacket* response = packet->CreateSuccessResponse();
// Add XOR-MAPPED-ADDRESS.
response->SetXorMappedAddress(tuple);
// Authenticate the response. sockaddr_storage peerAddr;
if (this->oldPassword.empty()) socklen_t addr_len = sizeof(peerAddr);
response->Authenticate(this->password); getpeername(tuple->getSock()->rawFD(), (struct sockaddr *)&peerAddr, &addr_len);
else
response->Authenticate(this->oldPassword); // Add XOR-MAPPED-ADDRESS.
response->SetXorMappedAddress((struct sockaddr *)&peerAddr);
// Send back. // Authenticate the response.
response->Serialize(StunSerializeBuffer); if (this->oldPassword.empty())
this->listener->OnIceServerSendStunPacket(this, response, tuple); response->Authenticate(this->password);
else
response->Authenticate(this->oldPassword);
delete response; // Send back.
response->Serialize(StunSerializeBuffer);
this->listener->OnIceServerSendStunPacket(this, response, tuple);
// Handle the tuple. delete response;
HandleTuple(tuple, packet->HasUseCandidate());
break; // Handle the tuple.
} HandleTuple(tuple, packet->HasUseCandidate());
case RTC::StunPacket::Class::INDICATION: break;
{ }
MS_DEBUG_TAG(ice, "STUN Binding Indication processed");
break; case RTC::StunPacket::Class::INDICATION:
} {
MS_DEBUG_TAG(ice, "STUN Binding Indication processed");
case RTC::StunPacket::Class::SUCCESS_RESPONSE:
{
MS_DEBUG_TAG(ice, "STUN Binding Success Response processed");
break;
}
case RTC::StunPacket::Class::ERROR_RESPONSE: break;
{ }
MS_DEBUG_TAG(ice, "STUN Binding Error Response processed");
case RTC::StunPacket::Class::SUCCESS_RESPONSE:
{
MS_DEBUG_TAG(ice, "STUN Binding Success Response processed");
break;
}
break; case RTC::StunPacket::Class::ERROR_RESPONSE:
} {
} MS_DEBUG_TAG(ice, "STUN Binding Error Response processed");
}
break;
bool IceServer::IsValidTuple(const RTC::TransportTuple* tuple) const }
{ }
MS_TRACE(); }
return HasTuple(tuple) != nullptr; bool IceServer::IsValidTuple(const RTC::TransportTuple* tuple) const
} {
MS_TRACE();
void IceServer::RemoveTuple(RTC::TransportTuple* tuple)
{ return HasTuple(tuple) != nullptr;
MS_TRACE(); }
RTC::TransportTuple* removedTuple{ nullptr }; void IceServer::RemoveTuple(RTC::TransportTuple* tuple)
{
// Find the removed tuple. MS_TRACE();
auto it = this->tuples.begin();
RTC::TransportTuple* removedTuple{ nullptr };
for (; it != this->tuples.end(); ++it)
{ // Find the removed tuple.
RTC::TransportTuple* storedTuple = std::addressof(*it); auto it = this->tuples.begin();
if (memcmp(storedTuple, tuple, sizeof (RTC::TransportTuple)) == 0) for (; it != this->tuples.end(); ++it)
{ {
removedTuple = storedTuple; RTC::TransportTuple* storedTuple = *it;
break; if (storedTuple == tuple)
} {
} removedTuple = storedTuple;
// If not found, ignore. break;
if (!removedTuple) }
return; }
// Remove from the list of tuples. // If not found, ignore.
this->tuples.erase(it); if (!removedTuple)
return;
// If this is not the selected tuple, stop here.
if (removedTuple != this->selectedTuple) // Remove from the list of tuples.
return; this->tuples.erase(it);
// Otherwise this was the selected tuple. // If this is not the selected tuple, stop here.
this->selectedTuple = nullptr; if (removedTuple != this->selectedTuple)
return;
// Mark the first tuple as selected tuple (if any).
if (this->tuples.begin() != this->tuples.end()) // Otherwise this was the selected tuple.
{ this->selectedTuple = nullptr;
SetSelectedTuple(std::addressof(*this->tuples.begin()));
} // Mark the first tuple as selected tuple (if any).
// Or just emit 'disconnected'. if (!this->tuples.empty())
else {
{ SetSelectedTuple(this->tuples.front());
// Update state. }
this->state = IceState::DISCONNECTED; // Or just emit 'disconnected'.
// Notify the listener. else
this->listener->OnIceServerDisconnected(this); {
} // Update state.
} this->state = IceState::DISCONNECTED;
// Notify the listener.
void IceServer::ForceSelectedTuple(const RTC::TransportTuple* tuple) this->listener->OnIceServerDisconnected(this);
{ }
MS_TRACE(); }
MS_ASSERT( void IceServer::ForceSelectedTuple(const RTC::TransportTuple* tuple)
this->selectedTuple, "cannot force the selected tuple if there was not a selected tuple"); {
MS_TRACE();
auto* storedTuple = HasTuple(tuple);
MS_ASSERT(
MS_ASSERT( this->selectedTuple, "cannot force the selected tuple if there was not a selected tuple");
storedTuple,
"cannot force the selected tuple if the given tuple was not already a valid tuple"); auto* storedTuple = HasTuple(tuple);
// Mark it as selected tuple. MS_ASSERT(
SetSelectedTuple(storedTuple); storedTuple,
} "cannot force the selected tuple if the given tuple was not already a valid tuple");
void IceServer::HandleTuple(RTC::TransportTuple* tuple, bool hasUseCandidate) // Mark it as selected tuple.
{ SetSelectedTuple(storedTuple);
MS_TRACE(); }
switch (this->state) void IceServer::HandleTuple(RTC::TransportTuple* tuple, bool hasUseCandidate)
{ {
case IceState::NEW: MS_TRACE();
{
// There should be no tuples. switch (this->state)
MS_ASSERT( {
this->tuples.empty(), "state is 'new' but there are %zu tuples", this->tuples.size()); case IceState::NEW:
{
// There shouldn't be a selected tuple. // There should be no tuples.
MS_ASSERT(!this->selectedTuple, "state is 'new' but there is selected tuple"); MS_ASSERT(
this->tuples.empty(), "state is 'new' but there are %zu tuples", this->tuples.size());
if (!hasUseCandidate)
{ // There shouldn't be a selected tuple.
MS_DEBUG_TAG(ice, "transition from state 'new' to 'connected'"); MS_ASSERT(!this->selectedTuple, "state is 'new' but there is selected tuple");
// Store the tuple. if (!hasUseCandidate)
auto* storedTuple = AddTuple(tuple); {
MS_DEBUG_TAG(ice, "transition from state 'new' to 'connected'");
// Mark it as selected tuple.
SetSelectedTuple(storedTuple); // Store the tuple.
// Update state. auto* storedTuple = AddTuple(tuple);
this->state = IceState::CONNECTED;
// Notify the listener. // Mark it as selected tuple.
this->listener->OnIceServerConnected(this); SetSelectedTuple(storedTuple);
} // Update state.
else this->state = IceState::CONNECTED;
{ // Notify the listener.
MS_DEBUG_TAG(ice, "transition from state 'new' to 'completed'"); this->listener->OnIceServerConnected(this);
}
// Store the tuple. else
auto* storedTuple = AddTuple(tuple); {
MS_DEBUG_TAG(ice, "transition from state 'new' to 'completed'");
// Mark it as selected tuple.
SetSelectedTuple(storedTuple); // Store the tuple.
// Update state. auto* storedTuple = AddTuple(tuple);
this->state = IceState::COMPLETED;
// Notify the listener. // Mark it as selected tuple.
this->listener->OnIceServerCompleted(this); SetSelectedTuple(storedTuple);
} // Update state.
this->state = IceState::COMPLETED;
break; // Notify the listener.
} this->listener->OnIceServerCompleted(this);
}
case IceState::DISCONNECTED:
{ break;
// There should be no tuples. }
MS_ASSERT(
this->tuples.empty(), case IceState::DISCONNECTED:
"state is 'disconnected' but there are %zu tuples", {
this->tuples.size()); // There should be no tuples.
MS_ASSERT(
// There shouldn't be a selected tuple. this->tuples.empty(),
MS_ASSERT(!this->selectedTuple, "state is 'disconnected' but there is selected tuple"); "state is 'disconnected' but there are %zu tuples",
this->tuples.size());
if (!hasUseCandidate)
{ // There shouldn't be a selected tuple.
MS_DEBUG_TAG(ice, "transition from state 'disconnected' to 'connected'"); MS_ASSERT(!this->selectedTuple, "state is 'disconnected' but there is selected tuple");
// Store the tuple. if (!hasUseCandidate)
auto* storedTuple = AddTuple(tuple); {
MS_DEBUG_TAG(ice, "transition from state 'disconnected' to 'connected'");
// Mark it as selected tuple.
SetSelectedTuple(storedTuple); // Store the tuple.
// Update state. auto* storedTuple = AddTuple(tuple);
this->state = IceState::CONNECTED;
// Notify the listener. // Mark it as selected tuple.
this->listener->OnIceServerConnected(this); SetSelectedTuple(storedTuple);
} // Update state.
else this->state = IceState::CONNECTED;
{ // Notify the listener.
MS_DEBUG_TAG(ice, "transition from state 'disconnected' to 'completed'"); this->listener->OnIceServerConnected(this);
}
// Store the tuple. else
auto* storedTuple = AddTuple(tuple); {
MS_DEBUG_TAG(ice, "transition from state 'disconnected' to 'completed'");
// Mark it as selected tuple.
SetSelectedTuple(storedTuple); // Store the tuple.
// Update state. auto* storedTuple = AddTuple(tuple);
this->state = IceState::COMPLETED;
// Notify the listener. // Mark it as selected tuple.
this->listener->OnIceServerCompleted(this); SetSelectedTuple(storedTuple);
} // Update state.
this->state = IceState::COMPLETED;
break; // Notify the listener.
} this->listener->OnIceServerCompleted(this);
}
case IceState::CONNECTED:
{ break;
// There should be some tuples. }
MS_ASSERT(!this->tuples.empty(), "state is 'connected' but there are no tuples");
case IceState::CONNECTED:
// There should be a selected tuple. {
MS_ASSERT(this->selectedTuple, "state is 'connected' but there is not selected tuple"); // There should be some tuples.
MS_ASSERT(!this->tuples.empty(), "state is 'connected' but there are no tuples");
if (!hasUseCandidate)
{ // There should be a selected tuple.
// If a new tuple store it. MS_ASSERT(this->selectedTuple, "state is 'connected' but there is not selected tuple");
if (!HasTuple(tuple))
AddTuple(tuple); if (!hasUseCandidate)
} {
else // If a new tuple store it.
{ if (!HasTuple(tuple))
MS_DEBUG_TAG(ice, "transition from state 'connected' to 'completed'"); AddTuple(tuple);
}
auto* storedTuple = HasTuple(tuple); else
{
// If a new tuple store it. MS_DEBUG_TAG(ice, "transition from state 'connected' to 'completed'");
if (!storedTuple)
storedTuple = AddTuple(tuple); auto* storedTuple = HasTuple(tuple);
// Mark it as selected tuple. // If a new tuple store it.
SetSelectedTuple(storedTuple); if (!storedTuple)
// Update state. storedTuple = AddTuple(tuple);
this->state = IceState::COMPLETED;
// Notify the listener. // Mark it as selected tuple.
this->listener->OnIceServerCompleted(this); SetSelectedTuple(storedTuple);
} // Update state.
this->state = IceState::COMPLETED;
break; // Notify the listener.
} this->listener->OnIceServerCompleted(this);
}
case IceState::COMPLETED:
{ break;
// There should be some tuples. }
MS_ASSERT(!this->tuples.empty(), "state is 'completed' but there are no tuples");
case IceState::COMPLETED:
// There should be a selected tuple. {
MS_ASSERT(this->selectedTuple, "state is 'completed' but there is not selected tuple"); // There should be some tuples.
MS_ASSERT(!this->tuples.empty(), "state is 'completed' but there are no tuples");
if (!hasUseCandidate)
{ // There should be a selected tuple.
// If a new tuple store it. MS_ASSERT(this->selectedTuple, "state is 'completed' but there is not selected tuple");
if (!HasTuple(tuple))
AddTuple(tuple); if (!hasUseCandidate)
} {
else // If a new tuple store it.
{ if (!HasTuple(tuple))
auto* storedTuple = HasTuple(tuple); AddTuple(tuple);
}
// If a new tuple store it. else
if (!storedTuple) {
storedTuple = AddTuple(tuple); auto* storedTuple = HasTuple(tuple);
// Mark it as selected tuple. // If a new tuple store it.
SetSelectedTuple(storedTuple); if (!storedTuple)
} storedTuple = AddTuple(tuple);
break; // Mark it as selected tuple.
} SetSelectedTuple(storedTuple);
} }
}
break;
inline RTC::TransportTuple* IceServer::AddTuple(RTC::TransportTuple* tuple) }
{ }
MS_TRACE(); }
// Add the new tuple at the beginning of the list. inline RTC::TransportTuple* IceServer::AddTuple(RTC::TransportTuple* tuple)
this->tuples.push_front(*tuple); {
MS_TRACE();
auto* storedTuple = std::addressof(*this->tuples.begin());
// Add the new tuple at the beginning of the list.
// Return the address of the inserted tuple. this->tuples.push_front(tuple);
return storedTuple;
} // Return the address of the inserted tuple.
return tuple;
inline RTC::TransportTuple* IceServer::HasTuple(const RTC::TransportTuple* tuple) const }
{
MS_TRACE(); inline RTC::TransportTuple* IceServer::HasTuple(const RTC::TransportTuple* tuple) const
{
// If there is no selected tuple yet then we know that the tuples list MS_TRACE();
// is empty.
if (!this->selectedTuple) // If there is no selected tuple yet then we know that the tuples list
return nullptr; // is empty.
if (!this->selectedTuple)
// Check the current selected tuple. return nullptr;
if (memcmp(selectedTuple, tuple, sizeof (RTC::TransportTuple)) == 0)
return this->selectedTuple; // Check the current selected tuple.
if (selectedTuple == tuple)
// Otherwise check other stored tuples. return this->selectedTuple;
for (const auto& it : this->tuples)
{ // Otherwise check other stored tuples.
auto* storedTuple = const_cast<RTC::TransportTuple*>(std::addressof(it)); for (const auto& it : this->tuples)
{
if (memcmp(storedTuple, tuple, sizeof (RTC::TransportTuple)) == 0) auto& storedTuple = it;
return storedTuple; if (storedTuple == tuple)
} return storedTuple;
}
return nullptr;
} return nullptr;
}
inline void IceServer::SetSelectedTuple(RTC::TransportTuple* storedTuple)
{ inline void IceServer::SetSelectedTuple(RTC::TransportTuple* storedTuple)
MS_TRACE(); {
MS_TRACE();
// If already the selected tuple do nothing.
if (storedTuple == this->selectedTuple) // If already the selected tuple do nothing.
return; if (storedTuple == this->selectedTuple)
return;
this->selectedTuple = storedTuple;
this->selectedTuple = storedTuple;
// Notify the listener. this->lastSelectedTuple = storedTuple->shared_from_this();
this->listener->OnIceServerSelectedTuple(this, this->selectedTuple);
} // Notify the listener.
this->listener->OnIceServerSelectedTuple(this, this->selectedTuple);
}
} // namespace RTC } // namespace RTC

View File

@ -20,6 +20,7 @@ OR IN CONNECTION WITH THE USE OR PERFORMANCE OF THIS SOFTWARE.
#define MS_RTC_ICE_SERVER_HPP #define MS_RTC_ICE_SERVER_HPP
#include "StunPacket.hpp" #include "StunPacket.hpp"
#include "Network/Session.h"
#include "logger.h" #include "logger.h"
#include "Utils.hpp" #include "Utils.hpp"
#include <list> #include <list>
@ -27,110 +28,111 @@ OR IN CONNECTION WITH THE USE OR PERFORMANCE OF THIS SOFTWARE.
#include <functional> #include <functional>
#include <memory> #include <memory>
using _TransportTuple = struct sockaddr;
namespace RTC namespace RTC
{ {
using TransportTuple = _TransportTuple; using TransportTuple = toolkit::Session;
class IceServer class IceServer
{ {
public: public:
enum class IceState enum class IceState
{ {
NEW = 1, NEW = 1,
CONNECTED, CONNECTED,
COMPLETED, COMPLETED,
DISCONNECTED DISCONNECTED
}; };
public: public:
class Listener class Listener
{ {
public: public:
virtual ~Listener() = default; virtual ~Listener() = default;
public: public:
/** /**
* These callbacks are guaranteed to be called before ProcessStunPacket() * These callbacks are guaranteed to be called before ProcessStunPacket()
* returns, so the given pointers are still usable. * returns, so the given pointers are still usable.
*/ */
virtual void OnIceServerSendStunPacket( virtual void OnIceServerSendStunPacket(
const RTC::IceServer* iceServer, const RTC::StunPacket* packet, RTC::TransportTuple* tuple) = 0; const RTC::IceServer* iceServer, const RTC::StunPacket* packet, RTC::TransportTuple* tuple) = 0;
virtual void OnIceServerSelectedTuple( virtual void OnIceServerSelectedTuple(
const RTC::IceServer* iceServer, RTC::TransportTuple* tuple) = 0; const RTC::IceServer* iceServer, RTC::TransportTuple* tuple) = 0;
virtual void OnIceServerConnected(const RTC::IceServer* iceServer) = 0; virtual void OnIceServerConnected(const RTC::IceServer* iceServer) = 0;
virtual void OnIceServerCompleted(const RTC::IceServer* iceServer) = 0; virtual void OnIceServerCompleted(const RTC::IceServer* iceServer) = 0;
virtual void OnIceServerDisconnected(const RTC::IceServer* iceServer) = 0; virtual void OnIceServerDisconnected(const RTC::IceServer* iceServer) = 0;
}; };
public: public:
IceServer(Listener* listener, const std::string& usernameFragment, const std::string& password); IceServer(Listener* listener, const std::string& usernameFragment, const std::string& password);
public: public:
void ProcessStunPacket(RTC::StunPacket* packet, RTC::TransportTuple* tuple); void ProcessStunPacket(RTC::StunPacket* packet, RTC::TransportTuple* tuple);
const std::string& GetUsernameFragment() const const std::string& GetUsernameFragment() const
{ {
return this->usernameFragment; return this->usernameFragment;
} }
const std::string& GetPassword() const const std::string& GetPassword() const
{ {
return this->password; return this->password;
} }
IceState GetState() const IceState GetState() const
{ {
return this->state; return this->state;
} }
RTC::TransportTuple* GetSelectedTuple() const RTC::TransportTuple* GetSelectedTuple(bool try_last_tuple = false) const
{ {
return this->selectedTuple; return try_last_tuple ? this->lastSelectedTuple.lock().get() : this->selectedTuple;
} }
void SetUsernameFragment(const std::string& usernameFragment) void SetUsernameFragment(const std::string& usernameFragment)
{ {
this->oldUsernameFragment = this->usernameFragment; this->oldUsernameFragment = this->usernameFragment;
this->usernameFragment = usernameFragment; this->usernameFragment = usernameFragment;
} }
void SetPassword(const std::string& password) void SetPassword(const std::string& password)
{ {
this->oldPassword = this->password; this->oldPassword = this->password;
this->password = password; this->password = password;
} }
bool IsValidTuple(const RTC::TransportTuple* tuple) const; bool IsValidTuple(const RTC::TransportTuple* tuple) const;
void RemoveTuple(RTC::TransportTuple* tuple); void RemoveTuple(RTC::TransportTuple* tuple);
// This should be just called in 'connected' or completed' state // This should be just called in 'connected' or completed' state
// and the given tuple must be an already valid tuple. // and the given tuple must be an already valid tuple.
void ForceSelectedTuple(const RTC::TransportTuple* tuple); void ForceSelectedTuple(const RTC::TransportTuple* tuple);
private: const std::list<RTC::TransportTuple *>& GetTuples() const { return tuples; }
void HandleTuple(RTC::TransportTuple* tuple, bool hasUseCandidate);
/**
* Store the given tuple and return its stored address.
*/
RTC::TransportTuple* AddTuple(RTC::TransportTuple* tuple);
/**
* If the given tuple exists return its stored address, nullptr otherwise.
*/
RTC::TransportTuple* HasTuple(const RTC::TransportTuple* tuple) const;
/**
* Set the given tuple as the selected tuple.
* NOTE: The given tuple MUST be already stored within the list.
*/
void SetSelectedTuple(RTC::TransportTuple* storedTuple);
private: private:
// Passed by argument. void HandleTuple(RTC::TransportTuple* tuple, bool hasUseCandidate);
Listener* listener{ nullptr }; /**
// Others. * Store the given tuple and return its stored address.
std::string usernameFragment; */
std::string password; RTC::TransportTuple* AddTuple(RTC::TransportTuple* tuple);
std::string oldUsernameFragment; /**
std::string oldPassword; * If the given tuple exists return its stored address, nullptr otherwise.
IceState state{ IceState::NEW }; */
std::list<RTC::TransportTuple> tuples; RTC::TransportTuple* HasTuple(const RTC::TransportTuple* tuple) const;
RTC::TransportTuple* selectedTuple{ nullptr }; /**
//最大不超过mtu * Set the given tuple as the selected tuple.
* NOTE: The given tuple MUST be already stored within the list.
*/
void SetSelectedTuple(RTC::TransportTuple* storedTuple);
private:
// Passed by argument.
Listener* listener{ nullptr };
// Others.
std::string usernameFragment;
std::string password;
std::string oldUsernameFragment;
std::string oldPassword;
IceState state{ IceState::NEW };
std::list<RTC::TransportTuple *> tuples;
RTC::TransportTuple *selectedTuple { nullptr };
std::weak_ptr<RTC::TransportTuple> lastSelectedTuple;
//最大不超过mtu
static constexpr size_t StunSerializeBufferSize{ 1600 }; static constexpr size_t StunSerializeBufferSize{ 1600 };
uint8_t StunSerializeBuffer[StunSerializeBufferSize]; uint8_t StunSerializeBuffer[StunSerializeBufferSize];
}; };
} // namespace RTC } // namespace RTC
#endif #endif

View File

@ -9,7 +9,7 @@
*/ */
#include "Nack.h" #include "Nack.h"
#include <algorithm>
using namespace std; using namespace std;
using namespace toolkit; using namespace toolkit;
@ -27,7 +27,7 @@ void NackList::pushBack(RtpPacket::Ptr rtp) {
} }
_cache_ms_check = 0; _cache_ms_check = 0;
while (getCacheMS() >= kMaxNackMS) { while (getCacheMS() >= kMaxNackMS) {
//需要清除部分nack缓存 // 需要清除部分nack缓存
popFront(); popFront();
} }
} }
@ -36,7 +36,7 @@ void NackList::forEach(const FCI_NACK &nack, const function<void(const RtpPacket
auto seq = nack.getPid(); auto seq = nack.getPid();
for (auto bit : nack.getBitArray()) { for (auto bit : nack.getBitArray()) {
if (bit) { if (bit) {
//丢包 // 丢包
RtpPacket::Ptr *ptr = getRtp(seq); RtpPacket::Ptr *ptr = getRtp(seq);
if (ptr) { if (ptr) {
func(*ptr); func(*ptr);
@ -79,7 +79,7 @@ uint32_t NackList::getCacheMS() {
if (back_stamp >= front_stamp) { if (back_stamp >= front_stamp) {
return back_stamp - front_stamp; return back_stamp - front_stamp;
} }
//很有可能回环了 // 很有可能回环了
return back_stamp + (UINT32_MAX - front_stamp); return back_stamp + (UINT32_MAX - front_stamp);
} }
return 0; return 0;
@ -95,101 +95,119 @@ int64_t NackList::getRtpStamp(uint16_t seq) {
//////////////////////////////////////////////////////////////////////////////////////////////// ////////////////////////////////////////////////////////////////////////////////////////////////
NackContext::NackContext() {
setOnNack(nullptr);
}
void NackContext::received(uint16_t seq, bool is_rtx) { void NackContext::received(uint16_t seq, bool is_rtx) {
if (!_last_max_seq && _seq.empty()) { if (!_started) {
_last_max_seq = seq - 1; // 记录第一个seq
_started = true;
_nack_seq = seq - 1;
} }
if (is_rtx || (seq < _last_max_seq && !(seq < 1024 && _last_max_seq > UINT16_MAX - 1024))) {
//重传包或 if (seq < _nack_seq && _nack_seq != UINT16_MAX && seq < 1024 && _nack_seq > UINT16_MAX - 1024) {
// seq回退且非回环那么这个应该是重传包 // seq回环,清空回环前状态
onRtx(seq); makeNack(UINT16_MAX, true);
_seq.emplace(seq);
return;
}
if (is_rtx || (seq < _nack_seq && _nack_seq != UINT16_MAX)) {
// seq非回环回退包猜测其为重传包清空其nack状态
clearNackStatus(seq);
return;
}
auto pr = _seq.emplace(seq);
if (!pr.second) {
// seq重复, 忽略
return; return;
} }
_seq.emplace(seq);
auto max_seq = *_seq.rbegin(); auto max_seq = *_seq.rbegin();
auto min_seq = *_seq.begin(); auto min_seq = *_seq.begin();
auto diff = max_seq - min_seq; auto diff = max_seq - min_seq;
if (!diff) { if (diff > (UINT16_MAX >> 1)) {
// 回环后收到回环前的大值seq, 忽略掉
_seq.erase(max_seq);
return; return;
} }
if (min_seq == (uint16_t)(_nack_seq + 1) && _seq.size() == (size_t)diff + 1) {
if (diff > UINT16_MAX / 2) { // 都是连续的seq未丢包
//回环
_seq.clear(); _seq.clear();
_last_max_seq = min_seq; _nack_seq = max_seq;
_nack_send_status.clear();
return;
}
if (_seq.size() == (size_t)diff + 1 && _last_max_seq + 1 == min_seq) {
//都是连续的seq未丢包
_seq.clear();
_last_max_seq = max_seq;
} else { } else {
// seq不连续有丢包 // seq不连续有丢包
if (min_seq == _last_max_seq + 1) { makeNack(max_seq, false);
//前面部分seq是连续的未丢包移除之 }
eraseFrontSeq(); }
}
//有丢包丢包从_last_max_seq开始 void NackContext::makeNack(uint16_t max_seq, bool flush) {
auto nack_rtp_count = FCI_NACK::kBitSize; // 尝试移除前面部分连续的seq
if (max_seq > nack_rtp_count + _last_max_seq) { eraseFrontSeq();
vector<bool> vec; // 最多生成5个nack包防止seq大幅跳跃导致一直循环
vec.resize(FCI_NACK::kBitSize, false); auto max_nack = 5u;
for (size_t i = 0; i < nack_rtp_count; ++i) { while (_nack_seq != max_seq && max_nack--) {
vec[i] = _seq.find(_last_max_seq + i + 2) == _seq.end(); // 一次不能发送超过16+1个rtp的状态
} uint16_t nack_rtp_count = std::min<uint16_t>(FCI_NACK::kBitSize, max_seq - (uint16_t)(_nack_seq + 1));
doNack(FCI_NACK(_last_max_seq + 1, vec), true); if (!flush && nack_rtp_count < kNackRtpSize) {
_last_max_seq += nack_rtp_count + 1; // 非flush状态下seq个数不足以发送一次nack
if (_last_max_seq >= max_seq) { break;
_seq.clear();
} else {
auto it = _seq.emplace_hint(_seq.begin(), _last_max_seq + 1);
_seq.erase(_seq.begin(), it);
}
} }
vector<bool> vec;
vec.resize(nack_rtp_count, false);
for (size_t i = 0; i < nack_rtp_count; ++i) {
vec[i] = _seq.find((uint16_t)(_nack_seq + i + 2)) == _seq.end();
}
doNack(FCI_NACK(_nack_seq + 1, vec), true);
_nack_seq += nack_rtp_count + 1;
// 返回第一个比_last_max_seq大的元素
auto it = _seq.upper_bound(_nack_seq);
// 移除 <=_last_max_seq 的seq
_seq.erase(_seq.begin(), it);
} }
} }
void NackContext::setOnNack(onNack cb) { void NackContext::setOnNack(onNack cb) {
_cb = std::move(cb); if (cb) {
_cb = std::move(cb);
} else {
_cb = [](const FCI_NACK &nack) {};
}
} }
void NackContext::doNack(const FCI_NACK &nack, bool record_nack) { void NackContext::doNack(const FCI_NACK &nack, bool record_nack) {
if (record_nack) { if (record_nack) {
recordNack(nack); recordNack(nack);
} }
if (_cb) { _cb(nack);
_cb(nack);
}
} }
void NackContext::eraseFrontSeq() { void NackContext::eraseFrontSeq() {
//前面部分seq是连续的未丢包移除之 // 前面部分seq是连续的未丢包移除之
for (auto it = _seq.begin(); it != _seq.end();) { for (auto it = _seq.begin(); it != _seq.end();) {
if (*it != _last_max_seq + 1) { if (*it != (uint16_t)(_nack_seq + 1)) {
// seq不连续丢包了 // seq不连续丢包了
break; break;
} }
_last_max_seq = *it; _nack_seq = *it;
it = _seq.erase(it); it = _seq.erase(it);
} }
} }
void NackContext::onRtx(uint16_t seq) { void NackContext::clearNackStatus(uint16_t seq) {
auto it = _nack_send_status.find(seq); auto it = _nack_send_status.find(seq);
if (it == _nack_send_status.end()) { if (it == _nack_send_status.end()) {
return; return;
} }
auto rtt = getCurrentMillisecond() - it->second.update_stamp; //收到重传包与第一个nack包间的时间约等于rtt时间
auto rtt = getCurrentMillisecond() - it->second.first_stamp;
_nack_send_status.erase(it); _nack_send_status.erase(it);
if (rtt >= 0) { if (rtt >= 0) {
// rtt不小于0 // rtt不小于0
_rtt = rtt; _rtt = rtt;
// InfoL << "rtt:" << rtt;
} }
} }
@ -205,7 +223,7 @@ void NackContext::recordNack(const FCI_NACK &nack) {
} }
++i; ++i;
} }
//记录太多了,移除一部分早期的记录 // 记录太多了,移除一部分早期的记录
while (_nack_send_status.size() > kNackMaxSize) { while (_nack_send_status.size() > kNackMaxSize) {
_nack_send_status.erase(_nack_send_status.begin()); _nack_send_status.erase(_nack_send_status.begin());
} }
@ -216,18 +234,18 @@ uint64_t NackContext::reSendNack() {
auto now = getCurrentMillisecond(); auto now = getCurrentMillisecond();
for (auto it = _nack_send_status.begin(); it != _nack_send_status.end();) { for (auto it = _nack_send_status.begin(); it != _nack_send_status.end();) {
if (now - it->second.first_stamp > kNackMaxMS) { if (now - it->second.first_stamp > kNackMaxMS) {
//该rtp丢失太久了不再要求重传 // 该rtp丢失太久了不再要求重传
it = _nack_send_status.erase(it); it = _nack_send_status.erase(it);
continue; continue;
} }
if (now - it->second.update_stamp < kNackIntervalRatio * _rtt) { if (now - it->second.update_stamp < kNackIntervalRatio * _rtt) {
//距离上次nack不足2倍的rtt不用再发送nack // 距离上次nack不足2倍的rtt不用再发送nack
++it; ++it;
continue; continue;
} }
//此rtp需要请求重传 // 此rtp需要请求重传
nack_rtp.emplace(it->first); nack_rtp.emplace(it->first);
//更新nack发送时间戳 // 更新nack发送时间戳
it->second.update_stamp = now; it->second.update_stamp = now;
if (++(it->second.nack_count) == kNackMaxCount) { if (++(it->second.nack_count) == kNackMaxCount) {
// nack次数太多移除之 // nack次数太多移除之
@ -237,11 +255,6 @@ uint64_t NackContext::reSendNack() {
++it; ++it;
} }
if (_nack_send_status.empty()) {
//不需要再发送nack
return 0;
}
int pid = -1; int pid = -1;
vector<bool> vec; vector<bool> vec;
for (auto it = nack_rtp.begin(); it != nack_rtp.end();) { for (auto it = nack_rtp.begin(); it != nack_rtp.end();) {
@ -253,12 +266,12 @@ uint64_t NackContext::reSendNack() {
} }
auto inc = *it - pid; auto inc = *it - pid;
if (inc > (ssize_t)FCI_NACK::kBitSize) { if (inc > (ssize_t)FCI_NACK::kBitSize) {
//新的nack包 // 新的nack包
doNack(FCI_NACK(pid, vec), false); doNack(FCI_NACK(pid, vec), false);
pid = -1; pid = -1;
continue; continue;
} }
//这个包丢了 // 这个包丢了
vec[inc - 1] = true; vec[inc - 1] = true;
++it; ++it;
} }
@ -266,8 +279,8 @@ uint64_t NackContext::reSendNack() {
doNack(FCI_NACK(pid, vec), false); doNack(FCI_NACK(pid, vec), false);
} }
//重传间隔不得低于5ms // 没有任何包需要重传时返回0否则返回下次重传间隔(不得低于5ms)
return max(_rtt, 5); return _nack_send_status.empty() ? 0 : max(_rtt, 5);
} }
} // namespace mediakit } // namespace mediakit

View File

@ -49,11 +49,15 @@ public:
// rtp丢包状态最长保留时间 // rtp丢包状态最长保留时间
static constexpr auto kNackMaxMS = 3 * 1000; static constexpr auto kNackMaxMS = 3 * 1000;
// nack最多请求重传10次 // nack最多请求重传10次
static constexpr auto kNackMaxCount = 10; static constexpr auto kNackMaxCount = 15;
// nack重传频率rtt的倍数 // nack重传频率rtt的倍数
static constexpr auto kNackIntervalRatio = 1.0f; static constexpr auto kNackIntervalRatio = 1.0f;
// nack包中rtp个数减小此值可以让nack包响应更灵敏
static constexpr auto kNackRtpSize = 8;
NackContext() = default; static_assert(kNackRtpSize >=0 && kNackRtpSize <= FCI_NACK::kBitSize, "NackContext::kNackRtpSize must between 0 and 16");
NackContext();
~NackContext() = default; ~NackContext() = default;
void received(uint16_t seq, bool is_rtx = false); void received(uint16_t seq, bool is_rtx = false);
@ -64,13 +68,16 @@ private:
void eraseFrontSeq(); void eraseFrontSeq();
void doNack(const FCI_NACK &nack, bool record_nack); void doNack(const FCI_NACK &nack, bool record_nack);
void recordNack(const FCI_NACK &nack); void recordNack(const FCI_NACK &nack);
void onRtx(uint16_t seq); void clearNackStatus(uint16_t seq);
void makeNack(uint16_t max, bool flush = false);
private: private:
bool _started = false;
int _rtt = 50; int _rtt = 50;
onNack _cb; onNack _cb;
std::set<uint16_t> _seq; std::set<uint16_t> _seq;
uint16_t _last_max_seq = 0; // 最新nack包中的rtp seq值
uint16_t _nack_seq = 0;
struct NackStatus { struct NackStatus {
uint64_t first_stamp; uint64_t first_stamp;

File diff suppressed because it is too large Load Diff

View File

@ -18,104 +18,104 @@ namespace RTC
uint16_t maxRetransmits{ 0u }; uint16_t maxRetransmits{ 0u };
}; };
class SctpAssociation class SctpAssociation
{ {
public: public:
enum class SctpState enum class SctpState
{ {
NEW = 1, NEW = 1,
CONNECTING, CONNECTING,
CONNECTED, CONNECTED,
FAILED, FAILED,
CLOSED CLOSED
}; };
private: private:
enum class StreamDirection enum class StreamDirection
{ {
INCOMING = 1, INCOMING = 1,
OUTGOING OUTGOING
}; };
public: public:
class Listener class Listener
{ {
public: public:
virtual void OnSctpAssociationConnecting(RTC::SctpAssociation* sctpAssociation) = 0; virtual void OnSctpAssociationConnecting(RTC::SctpAssociation* sctpAssociation) = 0;
virtual void OnSctpAssociationConnected(RTC::SctpAssociation* sctpAssociation) = 0; virtual void OnSctpAssociationConnected(RTC::SctpAssociation* sctpAssociation) = 0;
virtual void OnSctpAssociationFailed(RTC::SctpAssociation* sctpAssociation) = 0; virtual void OnSctpAssociationFailed(RTC::SctpAssociation* sctpAssociation) = 0;
virtual void OnSctpAssociationClosed(RTC::SctpAssociation* sctpAssociation) = 0; virtual void OnSctpAssociationClosed(RTC::SctpAssociation* sctpAssociation) = 0;
virtual void OnSctpAssociationSendData( virtual void OnSctpAssociationSendData(
RTC::SctpAssociation* sctpAssociation, const uint8_t* data, size_t len) = 0; RTC::SctpAssociation* sctpAssociation, const uint8_t* data, size_t len) = 0;
virtual void OnSctpAssociationMessageReceived( virtual void OnSctpAssociationMessageReceived(
RTC::SctpAssociation* sctpAssociation, RTC::SctpAssociation* sctpAssociation,
uint16_t streamId, uint16_t streamId,
uint32_t ppid, uint32_t ppid,
const uint8_t* msg, const uint8_t* msg,
size_t len) = 0; size_t len) = 0;
}; };
public: public:
static bool IsSctp(const uint8_t* data, size_t len) static bool IsSctp(const uint8_t* data, size_t len)
{ {
// clang-format off // clang-format off
return ( return (
(len >= 12) && (len >= 12) &&
// Must have Source Port Number and Destination Port Number set to 5000 (hack). // Must have Source Port Number and Destination Port Number set to 5000 (hack).
(Utils::Byte::Get2Bytes(data, 0) == 5000) && (Utils::Byte::Get2Bytes(data, 0) == 5000) &&
(Utils::Byte::Get2Bytes(data, 2) == 5000) (Utils::Byte::Get2Bytes(data, 2) == 5000)
); );
// clang-format on // clang-format on
} }
public: public:
SctpAssociation( SctpAssociation(
Listener* listener, uint16_t os, uint16_t mis, size_t maxSctpMessageSize, bool isDataChannel); Listener* listener, uint16_t os, uint16_t mis, size_t maxSctpMessageSize, bool isDataChannel);
virtual ~SctpAssociation(); virtual ~SctpAssociation();
public: public:
void TransportConnected(); void TransportConnected();
size_t GetMaxSctpMessageSize() const size_t GetMaxSctpMessageSize() const
{ {
return this->maxSctpMessageSize; return this->maxSctpMessageSize;
} }
SctpState GetState() const SctpState GetState() const
{ {
return this->state; return this->state;
} }
void ProcessSctpData(const uint8_t* data, size_t len); void ProcessSctpData(const uint8_t* data, size_t len);
void SendSctpMessage(const RTC::SctpStreamParameters &params, uint32_t ppid, const uint8_t* msg, size_t len); void SendSctpMessage(const RTC::SctpStreamParameters &params, uint32_t ppid, const uint8_t* msg, size_t len);
void HandleDataConsumer(const RTC::SctpStreamParameters &params); void HandleDataConsumer(const RTC::SctpStreamParameters &params);
void DataProducerClosed(const RTC::SctpStreamParameters &params); void DataProducerClosed(const RTC::SctpStreamParameters &params);
void DataConsumerClosed(const RTC::SctpStreamParameters &params); void DataConsumerClosed(const RTC::SctpStreamParameters &params);
private: private:
void ResetSctpStream(uint16_t streamId, StreamDirection); void ResetSctpStream(uint16_t streamId, StreamDirection);
void AddOutgoingStreams(bool force = false); void AddOutgoingStreams(bool force = false);
public: public:
/* Callbacks fired by usrsctp events. */ /* Callbacks fired by usrsctp events. */
virtual void OnUsrSctpSendSctpData(void* buffer, size_t len); virtual void OnUsrSctpSendSctpData(void* buffer, size_t len);
virtual void OnUsrSctpReceiveSctpData(uint16_t streamId, uint16_t ssn, uint32_t ppid, int flags, const uint8_t* data, size_t len); virtual void OnUsrSctpReceiveSctpData(uint16_t streamId, uint16_t ssn, uint32_t ppid, int flags, const uint8_t* data, size_t len);
virtual void OnUsrSctpReceiveSctpNotification(union sctp_notification* notification, size_t len); virtual void OnUsrSctpReceiveSctpNotification(union sctp_notification* notification, size_t len);
private: private:
// Passed by argument. // Passed by argument.
Listener* listener{ nullptr }; Listener* listener{ nullptr };
uint16_t os{ 1024u }; uint16_t os{ 1024u };
uint16_t mis{ 1024u }; uint16_t mis{ 1024u };
size_t maxSctpMessageSize{ 262144u }; size_t maxSctpMessageSize{ 262144u };
bool isDataChannel{ false }; bool isDataChannel{ false };
// Allocated by this. // Allocated by this.
uint8_t* messageBuffer{ nullptr }; uint8_t* messageBuffer{ nullptr };
// Others. // Others.
SctpState state{ SctpState::NEW }; SctpState state{ SctpState::NEW };
struct socket* socket{ nullptr }; struct socket* socket{ nullptr };
uint16_t desiredOs{ 0u }; uint16_t desiredOs{ 0u };
size_t messageBufferLen{ 0u }; size_t messageBufferLen{ 0u };
uint16_t lastSsnReceived{ 0u }; // Valid for us since no SCTP I-DATA support. uint16_t lastSsnReceived{ 0u }; // Valid for us since no SCTP I-DATA support.
std::shared_ptr<SctpEnv> _env; std::shared_ptr<SctpEnv> _env;
}; };
//保证线程安全 //保证线程安全
class SctpAssociationImp : public SctpAssociation, public std::enable_shared_from_this<SctpAssociationImp>{ class SctpAssociationImp : public SctpAssociation, public std::enable_shared_from_this<SctpAssociationImp>{

File diff suppressed because it is too large Load Diff

View File

@ -26,188 +26,188 @@ OR IN CONNECTION WITH THE USE OR PERFORMANCE OF THIS SOFTWARE.
namespace RTC namespace RTC
{ {
class StunPacket class StunPacket
{ {
public: public:
// STUN message class. // STUN message class.
enum class Class : uint16_t enum class Class : uint16_t
{ {
REQUEST = 0, REQUEST = 0,
INDICATION = 1, INDICATION = 1,
SUCCESS_RESPONSE = 2, SUCCESS_RESPONSE = 2,
ERROR_RESPONSE = 3 ERROR_RESPONSE = 3
}; };
// STUN message method. // STUN message method.
enum class Method : uint16_t enum class Method : uint16_t
{ {
BINDING = 1 BINDING = 1
}; };
// Attribute type. // Attribute type.
enum class Attribute : uint16_t enum class Attribute : uint16_t
{ {
MAPPED_ADDRESS = 0x0001, MAPPED_ADDRESS = 0x0001,
USERNAME = 0x0006, USERNAME = 0x0006,
MESSAGE_INTEGRITY = 0x0008, MESSAGE_INTEGRITY = 0x0008,
ERROR_CODE = 0x0009, ERROR_CODE = 0x0009,
UNKNOWN_ATTRIBUTES = 0x000A, UNKNOWN_ATTRIBUTES = 0x000A,
REALM = 0x0014, REALM = 0x0014,
NONCE = 0x0015, NONCE = 0x0015,
XOR_MAPPED_ADDRESS = 0x0020, XOR_MAPPED_ADDRESS = 0x0020,
PRIORITY = 0x0024, PRIORITY = 0x0024,
USE_CANDIDATE = 0x0025, USE_CANDIDATE = 0x0025,
SOFTWARE = 0x8022, SOFTWARE = 0x8022,
ALTERNATE_SERVER = 0x8023, ALTERNATE_SERVER = 0x8023,
FINGERPRINT = 0x8028, FINGERPRINT = 0x8028,
ICE_CONTROLLED = 0x8029, ICE_CONTROLLED = 0x8029,
ICE_CONTROLLING = 0x802A ICE_CONTROLLING = 0x802A
}; };
// Authentication result. // Authentication result.
enum class Authentication enum class Authentication
{ {
OK = 0, OK = 0,
UNAUTHORIZED = 1, UNAUTHORIZED = 1,
BAD_REQUEST = 2 BAD_REQUEST = 2
}; };
public: public:
static bool IsStun(const uint8_t* data, size_t len) static bool IsStun(const uint8_t* data, size_t len)
{ {
// clang-format off // clang-format off
return ( return (
// STUN headers are 20 bytes. // STUN headers are 20 bytes.
(len >= 20) && (len >= 20) &&
// DOC: https://tools.ietf.org/html/draft-ietf-avtcore-rfc5764-mux-fixes // DOC: https://tools.ietf.org/html/draft-ietf-avtcore-rfc5764-mux-fixes
(data[0] < 3) && (data[0] < 3) &&
// Magic cookie must match. // Magic cookie must match.
(data[4] == StunPacket::magicCookie[0]) && (data[5] == StunPacket::magicCookie[1]) && (data[4] == StunPacket::magicCookie[0]) && (data[5] == StunPacket::magicCookie[1]) &&
(data[6] == StunPacket::magicCookie[2]) && (data[7] == StunPacket::magicCookie[3]) (data[6] == StunPacket::magicCookie[2]) && (data[7] == StunPacket::magicCookie[3])
); );
// clang-format on // clang-format on
} }
static StunPacket* Parse(const uint8_t* data, size_t len); static StunPacket* Parse(const uint8_t* data, size_t len);
private: private:
static const uint8_t magicCookie[]; static const uint8_t magicCookie[];
public: public:
StunPacket( StunPacket(
Class klass, Method method, const uint8_t* transactionId, const uint8_t* data, size_t size); Class klass, Method method, const uint8_t* transactionId, const uint8_t* data, size_t size);
~StunPacket(); ~StunPacket();
void Dump() const; void Dump() const;
Class GetClass() const Class GetClass() const
{ {
return this->klass; return this->klass;
} }
Method GetMethod() const Method GetMethod() const
{ {
return this->method; return this->method;
} }
const uint8_t* GetData() const const uint8_t* GetData() const
{ {
return this->data; return this->data;
} }
size_t GetSize() const size_t GetSize() const
{ {
return this->size; return this->size;
} }
void SetUsername(const char* username, size_t len) void SetUsername(const char* username, size_t len)
{ {
this->username.assign(username, len); this->username.assign(username, len);
} }
void SetPriority(uint32_t priority) void SetPriority(uint32_t priority)
{ {
this->priority = priority; this->priority = priority;
} }
void SetIceControlling(uint64_t iceControlling) void SetIceControlling(uint64_t iceControlling)
{ {
this->iceControlling = iceControlling; this->iceControlling = iceControlling;
} }
void SetIceControlled(uint64_t iceControlled) void SetIceControlled(uint64_t iceControlled)
{ {
this->iceControlled = iceControlled; this->iceControlled = iceControlled;
} }
void SetUseCandidate() void SetUseCandidate()
{ {
this->hasUseCandidate = true; this->hasUseCandidate = true;
} }
void SetXorMappedAddress(const struct sockaddr* xorMappedAddress) void SetXorMappedAddress(const struct sockaddr* xorMappedAddress)
{ {
this->xorMappedAddress = xorMappedAddress; this->xorMappedAddress = xorMappedAddress;
} }
void SetErrorCode(uint16_t errorCode) void SetErrorCode(uint16_t errorCode)
{ {
this->errorCode = errorCode; this->errorCode = errorCode;
} }
void SetMessageIntegrity(const uint8_t* messageIntegrity) void SetMessageIntegrity(const uint8_t* messageIntegrity)
{ {
this->messageIntegrity = messageIntegrity; this->messageIntegrity = messageIntegrity;
} }
void SetFingerprint() void SetFingerprint()
{ {
this->hasFingerprint = true; this->hasFingerprint = true;
} }
const std::string& GetUsername() const const std::string& GetUsername() const
{ {
return this->username; return this->username;
} }
uint32_t GetPriority() const uint32_t GetPriority() const
{ {
return this->priority; return this->priority;
} }
uint64_t GetIceControlling() const uint64_t GetIceControlling() const
{ {
return this->iceControlling; return this->iceControlling;
} }
uint64_t GetIceControlled() const uint64_t GetIceControlled() const
{ {
return this->iceControlled; return this->iceControlled;
} }
bool HasUseCandidate() const bool HasUseCandidate() const
{ {
return this->hasUseCandidate; return this->hasUseCandidate;
} }
uint16_t GetErrorCode() const uint16_t GetErrorCode() const
{ {
return this->errorCode; return this->errorCode;
} }
bool HasMessageIntegrity() const bool HasMessageIntegrity() const
{ {
return (this->messageIntegrity ? true : false); return (this->messageIntegrity ? true : false);
} }
bool HasFingerprint() const bool HasFingerprint() const
{ {
return this->hasFingerprint; return this->hasFingerprint;
} }
Authentication CheckAuthentication( Authentication CheckAuthentication(
const std::string& localUsername, const std::string& localPassword); const std::string& localUsername, const std::string& localPassword);
StunPacket* CreateSuccessResponse(); StunPacket* CreateSuccessResponse();
StunPacket* CreateErrorResponse(uint16_t errorCode); StunPacket* CreateErrorResponse(uint16_t errorCode);
void Authenticate(const std::string& password); void Authenticate(const std::string& password);
void Serialize(uint8_t* buffer); void Serialize(uint8_t* buffer);
private: private:
// Passed by argument. // Passed by argument.
Class klass; // 2 bytes. Class klass; // 2 bytes.
Method method; // 2 bytes. Method method; // 2 bytes.
const uint8_t* transactionId{ nullptr }; // 12 bytes. const uint8_t* transactionId{ nullptr }; // 12 bytes.
uint8_t* data{ nullptr }; // Pointer to binary data. uint8_t* data{ nullptr }; // Pointer to binary data.
size_t size{ 0u }; // The full message size (including header). size_t size{ 0u }; // The full message size (including header).
// STUN attributes. // STUN attributes.
std::string username; // Less than 513 bytes. std::string username; // Less than 513 bytes.
uint32_t priority{ 0u }; // 4 bytes unsigned integer. uint32_t priority{ 0u }; // 4 bytes unsigned integer.
uint64_t iceControlling{ 0u }; // 8 bytes unsigned integer. uint64_t iceControlling{ 0u }; // 8 bytes unsigned integer.
uint64_t iceControlled{ 0u }; // 8 bytes unsigned integer. uint64_t iceControlled{ 0u }; // 8 bytes unsigned integer.
bool hasUseCandidate{ false }; // 0 bytes. bool hasUseCandidate{ false }; // 0 bytes.
const uint8_t* messageIntegrity{ nullptr }; // 20 bytes. const uint8_t* messageIntegrity{ nullptr }; // 20 bytes.
bool hasFingerprint{ false }; // 4 bytes. bool hasFingerprint{ false }; // 4 bytes.
const struct sockaddr* xorMappedAddress{ nullptr }; // 8 or 20 bytes. const struct sockaddr* xorMappedAddress{ nullptr }; // 8 or 20 bytes.
uint16_t errorCode{ 0u }; // 4 bytes (no reason phrase). uint16_t errorCode{ 0u }; // 4 bytes (no reason phrase).
std::string password; std::string password;
}; };
} // namespace RTC } // namespace RTC
#endif #endif

View File

@ -70,21 +70,17 @@ void WebRtcPlayer::onStartWebRTC() {
} }
} }
void WebRtcPlayer::onDestory() { void WebRtcPlayer::onDestory() {
WebRtcTransportImp::onDestory();
auto duration = getDuration(); auto duration = getDuration();
auto bytes_usage = getBytesUsage(); auto bytes_usage = getBytesUsage();
//流量统计事件广播 //流量统计事件广播
GET_CONFIG(uint32_t, iFlowThreshold, General::kFlowThreshold); GET_CONFIG(uint32_t, iFlowThreshold, General::kFlowThreshold);
if (_reader && getSession()) { if (_reader && getSession()) {
WarnL << "RTC播放器(" WarnL << "RTC播放器(" << _media_info.shortUrl() << ")结束播放,耗时(s):" << duration;
<< _media_info.shortUrl()
<< ")结束播放,耗时(s):" << duration;
if (bytes_usage >= iFlowThreshold * 1024) { if (bytes_usage >= iFlowThreshold * 1024) {
NoticeCenter::Instance().emitEvent(Broadcast::kBroadcastFlowReport, _media_info, bytes_usage, duration, NoticeCenter::Instance().emitEvent(Broadcast::kBroadcastFlowReport, _media_info, bytes_usage, duration, true, static_cast<SockInfo &>(*getSession()));
true, static_cast<SockInfo &>(*getSession()));
} }
} }
WebRtcTransportImp::onDestory();
} }
void WebRtcPlayer::onRtcConfigure(RtcConfigure &configure) const { void WebRtcPlayer::onRtcConfigure(RtcConfigure &configure) const {

View File

@ -118,20 +118,15 @@ void WebRtcPusher::onStartWebRTC() {
} }
void WebRtcPusher::onDestory() { void WebRtcPusher::onDestory() {
WebRtcTransportImp::onDestory();
auto duration = getDuration(); auto duration = getDuration();
auto bytes_usage = getBytesUsage(); auto bytes_usage = getBytesUsage();
//流量统计事件广播 //流量统计事件广播
GET_CONFIG(uint32_t, iFlowThreshold, General::kFlowThreshold); GET_CONFIG(uint32_t, iFlowThreshold, General::kFlowThreshold);
if (getSession()) { if (getSession()) {
WarnL << "RTC推流器(" WarnL << "RTC推流器(" << _media_info.shortUrl() << ")结束推流,耗时(s):" << duration;
<< _media_info.shortUrl()
<< ")结束推流,耗时(s):" << duration;
if (bytes_usage >= iFlowThreshold * 1024) { if (bytes_usage >= iFlowThreshold * 1024) {
NoticeCenter::Instance().emitEvent(Broadcast::kBroadcastFlowReport, _media_info, bytes_usage, duration, NoticeCenter::Instance().emitEvent(Broadcast::kBroadcastFlowReport, _media_info, bytes_usage, duration, false, static_cast<SockInfo &>(*getSession()));
false, static_cast<SockInfo &>(*getSession()));
} }
} }
@ -142,6 +137,7 @@ void WebRtcPusher::onDestory() {
auto push_src = std::move(_push_src); auto push_src = std::move(_push_src);
getPoller()->doDelayTask(_continue_push_ms, [push_src]() { return 0; }); getPoller()->doDelayTask(_continue_push_ms, [push_src]() { return 0; });
} }
WebRtcTransportImp::onDestory();
} }
void WebRtcPusher::onRtcConfigure(RtcConfigure &configure) const { void WebRtcPusher::onRtcConfigure(RtcConfigure &configure) const {

View File

@ -48,8 +48,6 @@ EventPoller::Ptr WebRtcSession::queryPoller(const Buffer::Ptr &buffer) {
//////////////////////////////////////////////////////////////////////////////// ////////////////////////////////////////////////////////////////////////////////
WebRtcSession::WebRtcSession(const Socket::Ptr &sock) : Session(sock) { WebRtcSession::WebRtcSession(const Socket::Ptr &sock) : Session(sock) {
socklen_t addr_len = sizeof(_peer_addr);
getpeername(sock->rawFD(), (struct sockaddr *)&_peer_addr, &addr_len);
_over_tcp = sock->sockType() == SockNum::Sock_TCP; _over_tcp = sock->sockType() == SockNum::Sock_TCP;
} }
@ -87,14 +85,12 @@ void WebRtcSession::onRecv_l(const char *data, size_t len) {
//3、销毁原先的socket和WebRtcSession(原先的对象跟WebRtcTransport不在同一条线程) //3、销毁原先的socket和WebRtcSession(原先的对象跟WebRtcTransport不在同一条线程)
throw std::runtime_error("webrtc over tcp change poller: " + getPoller()->getThreadName() + " -> " + sock->getPoller()->getThreadName()); throw std::runtime_error("webrtc over tcp change poller: " + getPoller()->getThreadName() + " -> " + sock->getPoller()->getThreadName());
} }
transport->setSession(shared_from_this());
_transport = std::move(transport); _transport = std::move(transport);
InfoP(this); InfoP(this);
} }
_ticker.resetTime(); _ticker.resetTime();
CHECK(_transport); CHECK(_transport);
_transport->inputSockData((char *)data, len, (struct sockaddr *)&_peer_addr); _transport->inputSockData((char *)data, len, this);
} }
void WebRtcSession::onRecv(const Buffer::Ptr &buffer) { void WebRtcSession::onRecv(const Buffer::Ptr &buffer) {
@ -114,9 +110,13 @@ void WebRtcSession::onError(const SockException &err) {
if (!_transport) { if (!_transport) {
return; return;
} }
auto self = shared_from_this();
auto transport = std::move(_transport); auto transport = std::move(_transport);
getPoller()->async([transport] { getPoller()->async([transport, self]() mutable {
//延时减引用防止使用transport对象时销毁对象 //延时减引用防止使用transport对象时销毁对象
transport->removeTuple(self.get());
//确保transport在Session对象前销毁防止WebRtcTransport::onDestory()时获取不到Session对象
transport = nullptr;
}, false); }, false);
} }

View File

@ -46,7 +46,6 @@ private:
bool _over_tcp = false; bool _over_tcp = false;
bool _find_transport = true; bool _find_transport = true;
Ticker _ticker; Ticker _ticker;
struct sockaddr_storage _peer_addr;
std::weak_ptr<toolkit::TcpServer> _server; std::weak_ptr<toolkit::TcpServer> _server;
WebRtcTransportImp::Ptr _transport; WebRtcTransportImp::Ptr _transport;
}; };

View File

@ -15,6 +15,7 @@
#include "Rtcp/Rtcp.h" #include "Rtcp/Rtcp.h"
#include "Rtcp/RtcpFCI.h" #include "Rtcp/RtcpFCI.h"
#include "Rtcp/RtcpContext.h" #include "Rtcp/RtcpContext.h"
#include "Rtsp/Rtsp.h"
#include "Rtsp/RtpReceiver.h" #include "Rtsp/RtpReceiver.h"
#include "WebRtcTransport.h" #include "WebRtcTransport.h"
@ -74,6 +75,17 @@ static void translateIPFromEnv(std::vector<std::string> &v) {
} }
} }
const char* sockTypeStr(Session* session) {
if (session) {
switch (session->getSock()->sockType()) {
case SockNum::Sock_TCP: return "tcp";
case SockNum::Sock_UDP: return "udp";
default: break;
}
}
return "unknown";
}
WebRtcTransport::WebRtcTransport(const EventPoller::Ptr &poller) { WebRtcTransport::WebRtcTransport(const EventPoller::Ptr &poller) {
_poller = poller; _poller = poller;
_identifier = "zlm_" + to_string(++s_key); _identifier = "zlm_" + to_string(++s_key);
@ -108,16 +120,18 @@ void WebRtcTransport::OnIceServerSendStunPacket(
sendSockData((char *)packet->GetData(), packet->GetSize(), tuple); sendSockData((char *)packet->GetData(), packet->GetSize(), tuple);
} }
void WebRtcTransport::OnIceServerSelectedTuple(const RTC::IceServer *iceServer, RTC::TransportTuple *tuple) { void WebRtcTransportImp::OnIceServerSelectedTuple(const RTC::IceServer *iceServer, RTC::TransportTuple *tuple) {
InfoL; InfoL << getIdentifier() << " select tuple " << sockTypeStr(tuple) << " " << tuple->get_peer_ip() << ":" << tuple->get_peer_port();
tuple->setSendFlushFlag(false);
unrefSelf();
} }
void WebRtcTransport::OnIceServerConnected(const RTC::IceServer *iceServer) { void WebRtcTransport::OnIceServerConnected(const RTC::IceServer *iceServer) {
InfoL; InfoL << getIdentifier();
} }
void WebRtcTransport::OnIceServerCompleted(const RTC::IceServer *iceServer) { void WebRtcTransport::OnIceServerCompleted(const RTC::IceServer *iceServer) {
InfoL; InfoL << getIdentifier();
if (_answer_sdp->media[0].role == DtlsRole::passive) { if (_answer_sdp->media[0].role == DtlsRole::passive) {
_dtls_transport->Run(RTC::DtlsTransport::Role::SERVER); _dtls_transport->Run(RTC::DtlsTransport::Role::SERVER);
} else { } else {
@ -126,7 +140,7 @@ void WebRtcTransport::OnIceServerCompleted(const RTC::IceServer *iceServer) {
} }
void WebRtcTransport::OnIceServerDisconnected(const RTC::IceServer *iceServer) { void WebRtcTransport::OnIceServerDisconnected(const RTC::IceServer *iceServer) {
InfoL; InfoL << getIdentifier();
} }
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////// //////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
@ -134,7 +148,7 @@ void WebRtcTransport::OnIceServerDisconnected(const RTC::IceServer *iceServer) {
void WebRtcTransport::OnDtlsTransportConnected( void WebRtcTransport::OnDtlsTransportConnected(
const RTC::DtlsTransport *dtlsTransport, RTC::SrtpSession::CryptoSuite srtpCryptoSuite, uint8_t *srtpLocalKey, const RTC::DtlsTransport *dtlsTransport, RTC::SrtpSession::CryptoSuite srtpCryptoSuite, uint8_t *srtpLocalKey,
size_t srtpLocalKeyLen, uint8_t *srtpRemoteKey, size_t srtpRemoteKeyLen, std::string &remoteCert) { size_t srtpLocalKeyLen, uint8_t *srtpRemoteKey, size_t srtpRemoteKeyLen, std::string &remoteCert) {
InfoL; InfoL << getIdentifier();
_srtp_session_send = std::make_shared<RTC::SrtpSession>( _srtp_session_send = std::make_shared<RTC::SrtpSession>(
RTC::SrtpSession::Type::OUTBOUND, srtpCryptoSuite, srtpLocalKey, srtpLocalKeyLen); RTC::SrtpSession::Type::OUTBOUND, srtpCryptoSuite, srtpLocalKey, srtpLocalKeyLen);
_srtp_session_recv = std::make_shared<RTC::SrtpSession>( _srtp_session_recv = std::make_shared<RTC::SrtpSession>(
@ -152,16 +166,16 @@ void WebRtcTransport::OnDtlsTransportSendData(
} }
void WebRtcTransport::OnDtlsTransportConnecting(const RTC::DtlsTransport *dtlsTransport) { void WebRtcTransport::OnDtlsTransportConnecting(const RTC::DtlsTransport *dtlsTransport) {
InfoL; InfoL << getIdentifier();
} }
void WebRtcTransport::OnDtlsTransportFailed(const RTC::DtlsTransport *dtlsTransport) { void WebRtcTransport::OnDtlsTransportFailed(const RTC::DtlsTransport *dtlsTransport) {
InfoL; InfoL << getIdentifier();
onShutdown(SockException(Err_shutdown, "dtls transport failed")); onShutdown(SockException(Err_shutdown, "dtls transport failed"));
} }
void WebRtcTransport::OnDtlsTransportClosed(const RTC::DtlsTransport *dtlsTransport) { void WebRtcTransport::OnDtlsTransportClosed(const RTC::DtlsTransport *dtlsTransport) {
InfoL; InfoL << getIdentifier();
onShutdown(SockException(Err_shutdown, "dtls close notify received")); onShutdown(SockException(Err_shutdown, "dtls close notify received"));
} }
@ -177,7 +191,7 @@ void WebRtcTransport::OnDtlsTransportApplicationDataReceived(
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////// //////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
#ifdef ENABLE_SCTP #ifdef ENABLE_SCTP
void WebRtcTransport::OnSctpAssociationConnecting(RTC::SctpAssociation *sctpAssociation) { void WebRtcTransport::OnSctpAssociationConnecting(RTC::SctpAssociation *sctpAssociation) {
TraceL; TraceL << getIdentifier();
} }
void WebRtcTransport::OnSctpAssociationConnected(RTC::SctpAssociation *sctpAssociation) { void WebRtcTransport::OnSctpAssociationConnected(RTC::SctpAssociation *sctpAssociation) {
@ -214,8 +228,9 @@ void WebRtcTransport::sendSockData(const char *buf, size_t len, RTC::TransportTu
onSendSockData(std::move(pkt), true, tuple ? tuple : _ice_server->GetSelectedTuple()); onSendSockData(std::move(pkt), true, tuple ? tuple : _ice_server->GetSelectedTuple());
} }
RTC::TransportTuple *WebRtcTransport::getSelectedTuple() const { Session::Ptr WebRtcTransport::getSession() const {
return _ice_server->GetSelectedTuple(); auto tuple = _ice_server->GetSelectedTuple(true);
return tuple ? tuple->shared_from_this() : nullptr;
} }
void WebRtcTransport::sendRtcpRemb(uint32_t ssrc, size_t bit_rate) { void WebRtcTransport::sendRtcpRemb(uint32_t ssrc, size_t bit_rate) {
@ -287,22 +302,12 @@ std::string WebRtcTransport::getAnswerSdp(const string &offer) {
} }
} }
static bool is_dtls(char *buf) { static bool isDtls(char *buf) {
return ((*buf > 19) && (*buf < 64)); return ((*buf > 19) && (*buf < 64));
} }
static bool is_rtp(char *buf) {
RtpHeader *header = (RtpHeader *)buf;
return ((header->pt < 64) || (header->pt >= 96));
}
static bool is_rtcp(char *buf) {
RtpHeader *header = (RtpHeader *)buf;
return ((header->pt >= 64) && (header->pt < 96));
}
static string getPeerAddress(RTC::TransportTuple *tuple) { static string getPeerAddress(RTC::TransportTuple *tuple) {
return SockUtil::inet_ntoa(tuple); return tuple->get_peer_ip();
} }
void WebRtcTransport::inputSockData(char *buf, int len, RTC::TransportTuple *tuple) { void WebRtcTransport::inputSockData(char *buf, int len, RTC::TransportTuple *tuple) {
@ -315,11 +320,11 @@ void WebRtcTransport::inputSockData(char *buf, int len, RTC::TransportTuple *tup
_ice_server->ProcessStunPacket(packet.get(), tuple); _ice_server->ProcessStunPacket(packet.get(), tuple);
return; return;
} }
if (is_dtls(buf)) { if (isDtls(buf)) {
_dtls_transport->ProcessDtlsData((uint8_t *)buf, len); _dtls_transport->ProcessDtlsData((uint8_t *)buf, len);
return; return;
} }
if (is_rtp(buf)) { if (isRtp(buf, len)) {
if (!_srtp_session_recv) { if (!_srtp_session_recv) {
WarnL << "received rtp packet when dtls not completed from:" << getPeerAddress(tuple); WarnL << "received rtp packet when dtls not completed from:" << getPeerAddress(tuple);
return; return;
@ -329,7 +334,7 @@ void WebRtcTransport::inputSockData(char *buf, int len, RTC::TransportTuple *tup
} }
return; return;
} }
if (is_rtcp(buf)) { if (isRtcp(buf, len)) {
if (!_srtp_session_recv) { if (!_srtp_session_recv) {
WarnL << "received rtcp packet when dtls not completed from:" << getPeerAddress(tuple); WarnL << "received rtcp packet when dtls not completed from:" << getPeerAddress(tuple);
return; return;
@ -418,24 +423,27 @@ void WebRtcTransportImp::onDestory() {
} }
void WebRtcTransportImp::onSendSockData(Buffer::Ptr buf, bool flush, RTC::TransportTuple *tuple) { void WebRtcTransportImp::onSendSockData(Buffer::Ptr buf, bool flush, RTC::TransportTuple *tuple) {
if (!_selected_session) { if (tuple == nullptr) {
WarnL << "send data failed:" << buf->size(); tuple = _ice_server->GetSelectedTuple();
return; if (!tuple) {
WarnL << "send data failed:" << buf->size();
return;
}
} }
// 一次性发送一帧的rtp数据提高网络io性能 // 一次性发送一帧的rtp数据提高网络io性能
if (_selected_session->getSock()->sockType() == SockNum::Sock_TCP) { if (tuple->getSock()->sockType() == SockNum::Sock_TCP) {
// 增加tcp两字节头 // 增加tcp两字节头
auto len = buf->size(); auto len = buf->size();
char tcp_len[2] = { 0 }; char tcp_len[2] = { 0 };
tcp_len[0] = (len >> 8) & 0xff; tcp_len[0] = (len >> 8) & 0xff;
tcp_len[1] = len & 0xff; tcp_len[1] = len & 0xff;
_selected_session->SockSender::send(tcp_len, 2); tuple->SockSender::send(tcp_len, 2);
} }
_selected_session->send(std::move(buf)); tuple->send(std::move(buf));
if (flush) { if (flush) {
_selected_session->flushAll(); tuple->flushAll();
} }
} }
@ -1049,28 +1057,14 @@ void WebRtcTransportImp::onBeforeEncryptRtp(const char *buf, int &len, void *ctx
void WebRtcTransportImp::onShutdown(const SockException &ex) { void WebRtcTransportImp::onShutdown(const SockException &ex) {
WarnL << ex.what(); WarnL << ex.what();
unrefSelf(); unrefSelf();
for (auto &pr : _history_sessions) { for (auto &tuple : _ice_server->GetTuples()) {
auto session = pr.second.lock(); tuple->shutdown(ex);
if (session) {
session->shutdown(ex);
}
} }
} }
void WebRtcTransportImp::setSession(Session::Ptr session) { void WebRtcTransportImp::removeTuple(RTC::TransportTuple *tuple) {
_history_sessions.emplace(session.get(), session); InfoL << getIdentifier() << " remove tuple " << tuple->get_peer_ip() << ":" << tuple->get_peer_port();
if (_selected_session) { this->_ice_server->RemoveTuple(tuple);
InfoL << "rtc network changed: " << _selected_session->get_peer_ip() << ":"
<< _selected_session->get_peer_port() << " -> " << session->get_peer_ip() << ":"
<< session->get_peer_port() << ", id:" << getIdentifier();
}
_selected_session = std::move(session);
_selected_session->setSendFlushFlag(false);
unrefSelf();
}
const Session::Ptr &WebRtcTransportImp::getSession() const {
return _selected_session;
} }
uint64_t WebRtcTransportImp::getBytesUsage() const { uint64_t WebRtcTransportImp::getBytesUsage() const {

View File

@ -110,6 +110,7 @@ public:
void sendRtcpPacket(const char *buf, int len, bool flush, void *ctx = nullptr); void sendRtcpPacket(const char *buf, int len, bool flush, void *ctx = nullptr);
const EventPoller::Ptr& getPoller() const; const EventPoller::Ptr& getPoller() const;
Session::Ptr getSession() const;
protected: protected:
//// dtls相关的回调 //// //// dtls相关的回调 ////
@ -130,7 +131,6 @@ protected:
protected: protected:
//// ice相关的回调 /// //// ice相关的回调 ///
void OnIceServerSendStunPacket(const RTC::IceServer *iceServer, const RTC::StunPacket *packet, RTC::TransportTuple *tuple) override; void OnIceServerSendStunPacket(const RTC::IceServer *iceServer, const RTC::StunPacket *packet, RTC::TransportTuple *tuple) override;
void OnIceServerSelectedTuple(const RTC::IceServer *iceServer, RTC::TransportTuple *tuple) override;
void OnIceServerConnected(const RTC::IceServer *iceServer) override; void OnIceServerConnected(const RTC::IceServer *iceServer) override;
void OnIceServerCompleted(const RTC::IceServer *iceServer) override; void OnIceServerCompleted(const RTC::IceServer *iceServer) override;
void OnIceServerDisconnected(const RTC::IceServer *iceServer) override; void OnIceServerDisconnected(const RTC::IceServer *iceServer) override;
@ -159,7 +159,6 @@ protected:
virtual void onRtcpBye() = 0; virtual void onRtcpBye() = 0;
protected: protected:
RTC::TransportTuple* getSelectedTuple() const;
void sendRtcpRemb(uint32_t ssrc, size_t bit_rate); void sendRtcpRemb(uint32_t ssrc, size_t bit_rate);
void sendRtcpPli(uint32_t ssrc); void sendRtcpPli(uint32_t ssrc);
@ -170,11 +169,11 @@ private:
protected: protected:
RtcSession::Ptr _offer_sdp; RtcSession::Ptr _offer_sdp;
RtcSession::Ptr _answer_sdp; RtcSession::Ptr _answer_sdp;
std::shared_ptr<RTC::IceServer> _ice_server;
private: private:
std::string _identifier; std::string _identifier;
EventPoller::Ptr _poller; EventPoller::Ptr _poller;
std::shared_ptr<RTC::IceServer> _ice_server;
std::shared_ptr<RTC::DtlsTransport> _dtls_transport; std::shared_ptr<RTC::DtlsTransport> _dtls_transport;
std::shared_ptr<RTC::SrtpSession> _srtp_session_send; std::shared_ptr<RTC::SrtpSession> _srtp_session_send;
std::shared_ptr<RTC::SrtpSession> _srtp_session_recv; std::shared_ptr<RTC::SrtpSession> _srtp_session_recv;
@ -239,8 +238,6 @@ public:
using Ptr = std::shared_ptr<WebRtcTransportImp>; using Ptr = std::shared_ptr<WebRtcTransportImp>;
~WebRtcTransportImp() override; ~WebRtcTransportImp() override;
void setSession(Session::Ptr session);
const Session::Ptr& getSession() const;
uint64_t getBytesUsage() const; uint64_t getBytesUsage() const;
uint64_t getDuration() const; uint64_t getDuration() const;
bool canSendRtp() const; bool canSendRtp() const;
@ -248,8 +245,10 @@ public:
void onSendRtp(const RtpPacket::Ptr &rtp, bool flush, bool rtx = false); void onSendRtp(const RtpPacket::Ptr &rtp, bool flush, bool rtx = false);
void createRtpChannel(const std::string &rid, uint32_t ssrc, MediaTrack &track); void createRtpChannel(const std::string &rid, uint32_t ssrc, MediaTrack &track);
void removeTuple(RTC::TransportTuple* tuple);
protected: protected:
void OnIceServerSelectedTuple(const RTC::IceServer *iceServer, RTC::TransportTuple *tuple) override;
WebRtcTransportImp(const EventPoller::Ptr &poller,bool preferred_tcp = false); WebRtcTransportImp(const EventPoller::Ptr &poller,bool preferred_tcp = false);
void OnDtlsTransportApplicationDataReceived(const RTC::DtlsTransport *dtlsTransport, const uint8_t *data, size_t len) override; void OnDtlsTransportApplicationDataReceived(const RTC::DtlsTransport *dtlsTransport, const uint8_t *data, size_t len) override;
void onStartWebRTC() override; void onStartWebRTC() override;
@ -292,10 +291,6 @@ private:
Ticker _alive_ticker; Ticker _alive_ticker;
//pli rtcp计时器 //pli rtcp计时器
Ticker _pli_ticker; Ticker _pli_ticker;
//当前选中的udp链接
Session::Ptr _selected_session;
//链接迁移前后使用过的udp链接
std::unordered_map<Session *, std::weak_ptr<Session> > _history_sessions;
//twcc rtcp发送上下文对象 //twcc rtcp发送上下文对象
TwccContext _twcc_ctx; TwccContext _twcc_ctx;
//根据发送rtp的track类型获取相关信息 //根据发送rtp的track类型获取相关信息