CalculateDBThread.cpp 15 KB

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  1. #include "CalculateDBThread.h"
  2. #include "spdlog.h"
  3. #include "ThreadManager.h"
  4. #include "GlobalInfo.h"
  5. CalculateDBThread::CalculateDBThread(CalculateThreadInfo_t& threadInfo)
  6. : BaseCalculateThread(threadInfo)
  7. {
  8. }
  9. CalculateDBThread::~CalculateDBThread()
  10. {
  11. }
  12. /* 获取结果 */
  13. OneRoadVolume_t CalculateDBThread::getVolumeInfo()
  14. {
  15. std::lock_guard<std::mutex> lock(m_mutexVolumeInfo);
  16. return m_roadVolumeInfo;
  17. }
  18. /* 获取最新的结果
  19. * 结果包括:静音、过载、反相和音量包信息
  20. */
  21. bool CalculateDBThread::getlastVolumeInfo(OneRoadVolume_t& volumeInfo)
  22. {
  23. std::lock_guard<std::mutex> lock(m_mutexVolumeInfo);
  24. if(m_caculateDBData.ringQueue.isEmpty())
  25. {
  26. SPDLOG_LOGGER_ERROR(m_logger, "{} 获取最新的音量数据失败,环形队列为空", m_logBase);
  27. return false; // 环形队列为空,无法获取最新数据
  28. }
  29. /* 根据时间判断是否是最新的 */
  30. if(volumeInfo.dateTime == m_roadVolumeInfo.dateTime)
  31. {
  32. return false;
  33. }
  34. volumeInfo.isSilence = m_roadVolumeInfo.isSilence;
  35. volumeInfo.isOverload = m_roadVolumeInfo.isOverload;
  36. volumeInfo.isReversed = m_roadVolumeInfo.isReversed;
  37. memcpy(volumeInfo.vecleftDB, m_roadVolumeInfo.vecleftDB, VOLUME_INFO_NUM);
  38. memcpy(volumeInfo.vecrightDB, m_roadVolumeInfo.vecrightDB, VOLUME_INFO_NUM);
  39. return true;
  40. }
  41. /* 获取报警数据 */
  42. const AlarmInfo_t& CalculateDBThread::getAlarm(EAlarmType alarmType)
  43. {
  44. std::lock_guard<std::mutex> lock(m_mutexVolumeInfo);
  45. switch(alarmType)
  46. {
  47. case EAlarmType::EAT_Silent:
  48. return m_alarmLastSilence;
  49. case EAlarmType::EAT_Overload:
  50. return m_alarmLastOverload;
  51. case EAlarmType::EAT_Reversed:
  52. return m_alarmLastPhase;
  53. default:
  54. SPDLOG_LOGGER_ERROR(m_logger, "{} 获取报警数据失败,未知报警类型: {}", m_logBase, static_cast<int>(alarmType));
  55. return m_alarmNull; // 返回一个空的报警信息
  56. }
  57. }
  58. /* 线程功能函数 */
  59. void CalculateDBThread::task()
  60. {
  61. SPDLOG_LOGGER_INFO(m_logger, "{} 开启计算静音、过载和反相等报警的线程", m_logBase);
  62. /* 初始化数据 */
  63. if(!initData())
  64. {
  65. return;
  66. }
  67. while(m_isRunning)
  68. {
  69. std::this_thread::sleep_for(std::chrono::milliseconds(10));
  70. /* 判断是否是需要计算的时间段 */
  71. /* --------------------------------------------------------------------------------
  72. * 更新最新数据
  73. * --------------------------------------------------------------------------------*/
  74. /* 获取最新数据 */
  75. if(!m_threadCreateDBPhase->getLatestResult(m_caculateDBData.ringQueue))
  76. {
  77. // SPDLOG_LOGGER_DEBUG(m_logger, "{} 获取最新的音量数据失败", m_logBase);
  78. continue; // 没有获取到最新数据,继续等待
  79. }
  80. // 获取最新的一秒钟数据
  81. m_currSecondData = *m_caculateDBData.ringQueue.back();
  82. /* --------------------------------------------------------------------------------
  83. * 计算数据
  84. * --------------------------------------------------------------------------------*/
  85. calcuDBPhase();
  86. }
  87. /* 清理数据 */
  88. clearData();
  89. SPDLOG_LOGGER_INFO(m_logger, "{} 计算静音、过载和反相等报警的线程结束", m_logBase);
  90. }
  91. /* 初始化数据 */
  92. bool CalculateDBThread::initData()
  93. {
  94. /* 对于单个录音通道的线程来说,直接取map中的第一个通道 */
  95. auto begin = m_threadInfo.compareItemInfo.mapRoad.begin();
  96. m_roadInfo = begin.value(); // 获取第一个通道的信息
  97. m_roadName = m_roadInfo.strCompareRoadName.toStdString();
  98. m_threadCreateDBPhase = ThreadMan.getCreateDBThread(m_roadInfo.scRoadInfo.nSoundCardNum, m_roadInfo.scRoadInfo.roadInfo.nRoadNum);
  99. if (m_threadCreateDBPhase == nullptr)
  100. {
  101. SPDLOG_LOGGER_ERROR(m_logger, "{} 获取创建音量线程失败", m_logBase);
  102. return false;
  103. }
  104. m_avgCalculateDBSeconds = GInfo.avgDBCalculateSeconds();
  105. m_numQueueSeconds = GInfo.queueElementCount();
  106. m_caculateDBData.ringQueue.setQueueCapacity(m_numQueueSeconds);
  107. return true;
  108. }
  109. /* 清理数据 */
  110. void CalculateDBThread::clearData()
  111. {
  112. }
  113. /* 计算静音过载反相 */
  114. void CalculateDBThread::calcuDBPhase()
  115. {
  116. /* 有最新数据,进行计算 */
  117. m_mutexVolumeInfo.lock();
  118. for(int i = 0; i < VOLUME_INFO_NUM; ++i)
  119. {
  120. m_roadVolumeInfo.vecleftDB[i] = m_currSecondData.aryLeftDB[i];
  121. m_roadVolumeInfo.vecrightDB[i] = m_currSecondData.aryRightDB[i];
  122. }
  123. /* 计算静音 */
  124. m_roadVolumeInfo.isSilence = m_caculateDBData.calculateSilent(m_volumeParam, m_avgCalculateDBSeconds,
  125. m_silentStartPos, m_silentEndPos);
  126. /* 计算过载 */
  127. m_roadVolumeInfo.isOverload = m_caculateDBData.calculateOverload(m_volumeParam, m_avgCalculateDBSeconds,
  128. m_overloadStartPos, m_overloadEndPos, m_bLastOverload);
  129. /* 计算反相 */
  130. m_roadVolumeInfo.isReversed = m_caculateDBData.calculatePhase(m_volumeParam, m_avgCalculateDBSeconds,
  131. m_phaseStartPos, m_phaseEndPos, m_bLastReversed);
  132. /* 处理报警信息 */
  133. processAlarm();
  134. m_mutexVolumeInfo.unlock();
  135. }
  136. /**
  137. * @brief 判断是否报警
  138. * 1、这里报警信息不包含对比项的信息,对比项信息在对比项线程里自己添加
  139. * 2、报警信息只包含通道编号、通道名称、报警类型等信息
  140. * 3、静音、过载、反相的判断需要连续多个秒满足才会判断报警,因此报警的开始时间其实
  141. * 比真正静音的开始时间要晚,差距就是判断报警时长的秒数SilentDuration、OverloadDuration和PhaseDuration
  142. * 所以需要真正计算出静音开始的时间
  143. *
  144. */
  145. void CalculateDBThread::processAlarm()
  146. {
  147. /* ----------------------- 处理静音报警 ----------------------- */
  148. processAlarm();
  149. /* ----------------------- 处理过载报警 ----------------------- */
  150. processOverload();
  151. /* ----------------------- 处理反相报警 ----------------------- */
  152. processPhase();
  153. }
  154. /* 处理静音报警 */
  155. void CalculateDBThread::processSilence()
  156. {
  157. if(m_roadVolumeInfo.isSilence)
  158. {
  159. /* 这次是静音,判断静音报警是否已经开启 */
  160. if(!m_alarmSilence.isAlarm)
  161. {
  162. /* 开启静音报警 */
  163. m_alarmSilence.isAlarm = true;
  164. m_alarmSilence.strCompareItemName = m_threadInfo.compareItemInfo.strName.toStdString();
  165. m_alarmSilence.RoadInfo = m_roadInfo; // 设置通道信息
  166. m_alarmSilence.AlarmType = EAlarmType::EAT_Silent; // 静音报警
  167. /* 计算开始时间,往前推判断静音需要的时间 */
  168. QDateTime startTime;
  169. if(m_silentStartPos > 0)
  170. {
  171. /* 上面计算出来的静音开始位置有效,往前推设置的静音时长 */
  172. startTime = m_caculateDBData.ringQueue.at(m_silentStartPos)->startTime;
  173. startTime = startTime.addSecs(- m_volumeParam.GetSilentDuration());
  174. }else
  175. {
  176. startTime = m_currSecondData.endTime.addSecs(- m_volumeParam.GetSilentDuration());
  177. }
  178. m_alarmSilence.StartTime = startTime; // 静音开始时间
  179. m_alarmSilence.EndTime = m_currSecondData.endTime;
  180. }else
  181. {
  182. /* 静音报警已经开启,更新结束时间 */
  183. m_alarmSilence.EndTime = m_currSecondData.endTime;
  184. }
  185. }else
  186. {
  187. /* 这次不是静音,判断静音报警是否已经开启 */
  188. if(m_alarmSilence.isAlarm)
  189. {
  190. /* 静音报警已经开启,结束静音报警 */
  191. if(m_silentEndPos > 0)
  192. {
  193. auto endData = m_caculateDBData.ringQueue.at(m_silentEndPos);
  194. if(endData != nullptr)
  195. {
  196. m_alarmSilence.EndTime = endData->endTime.addSecs(- m_volumeParam.GetSilentDuration());
  197. }
  198. }else
  199. {
  200. m_alarmSilence.EndTime = m_currSecondData.endTime.addSecs(- m_volumeParam.GetSilentDuration());
  201. }
  202. m_alarmSilence.strAlarmFilePath = generateAlarmFilePath(m_alarmSilence); // 生成报警文件路径
  203. /* 保存报警信息 */
  204. m_alarmLastSilence = m_alarmSilence;
  205. m_alarmSilence = AlarmInfo_t(); // 清空报警信息
  206. /* 将报警信息给截取报警文件的线程 */
  207. /* 打印日志 */
  208. SPDLOG_LOGGER_INFO(m_logger, "{} 静音报警结束,开始时间:{},结束时间:{},文件路径:{}",
  209. m_logBase,
  210. m_alarmLastSilence.StartTime.toString("yyyy-MM-dd hh:mm:ss").toStdString(),
  211. m_alarmLastSilence.EndTime.toString("yyyy-MM-dd hh:mm:ss").toStdString(),
  212. m_alarmLastSilence.strAlarmFilePath);
  213. }
  214. }
  215. }
  216. /* 处理过载报警 */
  217. void CalculateDBThread::processOverload()
  218. {
  219. if(m_roadVolumeInfo.isOverload)
  220. {
  221. /* 这次是过载,判断过载报警是否已经开启 */
  222. if(!m_alarmOverload.isAlarm)
  223. {
  224. /* 开启过载报警 */
  225. m_alarmOverload.isAlarm = true;
  226. m_alarmOverload.strCompareItemName = m_threadInfo.compareItemInfo.strName.toStdString();
  227. m_alarmOverload.RoadInfo = m_roadInfo; // 设置通道信息
  228. m_alarmOverload.AlarmType = EAlarmType::EAT_Overload; // 过载报警
  229. /* 计算开始时间,往前推设置的过载时长 */
  230. QDateTime startTime;
  231. if(m_overloadStartPos > 0)
  232. {
  233. /* 上面计算出来的过载开始位置有效,往前推设置的过载时长 */
  234. startTime = m_caculateDBData.ringQueue.at(m_overloadStartPos)->startTime;
  235. startTime = startTime.addSecs(- m_volumeParam.GetOverloadDuration());
  236. }else
  237. {
  238. startTime = m_currSecondData.endTime.addSecs(- m_volumeParam.GetOverloadDuration());
  239. }
  240. m_alarmOverload.StartTime = startTime; // 过载开始时间
  241. m_alarmOverload.EndTime = m_currSecondData.endTime;
  242. }else
  243. {
  244. /* 过载报警已经开启,更新结束时间 */
  245. m_alarmOverload.EndTime = m_currSecondData.endTime;
  246. }
  247. }else
  248. {
  249. /* 这次不是过载,判断过载报警是否已经开启 */
  250. if(m_alarmOverload.isAlarm)
  251. {
  252. /* 过载报警已经开启,结束过载报警 */
  253. if(m_overloadEndPos > 0)
  254. {
  255. auto endData = m_caculateDBData.ringQueue.at(m_overloadEndPos);
  256. if(endData != nullptr)
  257. {
  258. m_alarmOverload.EndTime = endData->endTime.addSecs(- m_volumeParam.GetOverloadDuration());
  259. }
  260. }else
  261. {
  262. m_alarmOverload.EndTime = m_currSecondData.endTime.addSecs(- m_volumeParam.GetOverloadDuration());
  263. }
  264. m_alarmOverload.strAlarmFilePath = generateAlarmFilePath(m_alarmOverload); // 生成报警文件路径
  265. /* 保存报警信息 */
  266. m_alarmLastOverload = m_alarmOverload;
  267. m_alarmOverload = AlarmInfo_t(); // 清空报警信息
  268. /* 将报警信息给截取报警文件的线程 */
  269. /* 打印日志 */
  270. SPDLOG_LOGGER_INFO(m_logger, "{} 过载报警结束,开始时间:{},结束时间:{},文件路径:{}",
  271. m_logBase,
  272. m_alarmLastOverload.StartTime.toString("yyyy-MM-dd hh:mm:ss").toStdString(),
  273. m_alarmLastOverload.EndTime.toString("yyyy-MM-dd hh:mm:ss").toStdString(),
  274. m_alarmLastOverload.strAlarmFilePath);
  275. }
  276. }
  277. }
  278. /* 处理反相报警 */
  279. void CalculateDBThread::processPhase()
  280. {
  281. if(m_roadVolumeInfo.isReversed)
  282. {
  283. /* 这次是反相,判断反相报警是否已经开启 */
  284. if(!m_alarmPhase.isAlarm)
  285. {
  286. /* 开启反相报警 */
  287. m_alarmPhase.isAlarm = true;
  288. m_alarmPhase.strCompareItemName = m_threadInfo.compareItemInfo.strName.toStdString();
  289. m_alarmPhase.RoadInfo = m_roadInfo; // 设置通道信息
  290. m_alarmPhase.AlarmType = EAlarmType::EAT_Reversed; // 反相报警
  291. /* 计算开始时间,往前推设置的反相时长 */
  292. QDateTime startTime;
  293. if(m_phaseStartPos > 0)
  294. {
  295. /* 上面计算出来的反相开始位置有效,往前推设置的反相时长 */
  296. startTime = m_caculateDBData.ringQueue.at(m_phaseStartPos)->startTime;
  297. startTime = startTime.addSecs(- m_volumeParam.GetPhaseDuration());
  298. }else
  299. {
  300. startTime = m_currSecondData.endTime.addSecs(- m_volumeParam.GetPhaseDuration());
  301. }
  302. m_alarmPhase.StartTime = startTime; // 反相开始时间
  303. m_alarmPhase.EndTime = m_currSecondData.endTime;
  304. }else
  305. {
  306. /* 反相报警已经开启,更新结束时间 */
  307. m_alarmPhase.EndTime = m_currSecondData.endTime;
  308. }
  309. }else
  310. {
  311. /* 这次不是反相,判断反相报警是否已经开启 */
  312. if(m_alarmPhase.isAlarm)
  313. {
  314. /* 反相报警已经开启,结束反相报警 */
  315. if(m_phaseEndPos > 0)
  316. {
  317. auto endData = m_caculateDBData.ringQueue.at(m_phaseEndPos);
  318. if(endData != nullptr)
  319. {
  320. m_alarmPhase.EndTime = endData->endTime.addSecs(- m_volumeParam.GetPhaseDuration());
  321. }
  322. }else
  323. {
  324. m_alarmPhase.EndTime = m_currSecondData.endTime.addSecs(- m_volumeParam.GetPhaseDuration());
  325. }
  326. m_alarmPhase.strAlarmFilePath = generateAlarmFilePath(m_alarmPhase); // 生成报警文件路径
  327. /* 保存报警信息 */
  328. m_alarmLastPhase = m_alarmPhase;
  329. m_alarmPhase = AlarmInfo_t(); // 清空报警信息
  330. /* 将报警信息给截取报警文件的线程 */
  331. /* 打印日志 */
  332. SPDLOG_LOGGER_INFO(m_logger, "{} 反相报警结束,开始时间:{},结束时间:{},文件路径:{}",
  333. m_logBase,
  334. m_alarmPhase.StartTime.toString("yyyy-MM-dd hh:mm:ss").toStdString(),
  335. m_alarmPhase.EndTime.toString("yyyy-MM-dd hh:mm:ss").toStdString(),
  336. m_alarmPhase.strAlarmFilePath);
  337. }
  338. }
  339. }
  340. /* 生成报警文件路径 */
  341. std::string CalculateDBThread::generateAlarmFilePath(const AlarmInfo_t& alarmInfo)
  342. {
  343. std::string filePath = fmt::format("Alarm_{}_{}_{}.wav",
  344. alarmInfo.strCompareItemName,
  345. static_cast<int>(alarmInfo.AlarmType),
  346. alarmInfo.StartTime.toString("yyyyMMdd_hhmmss").toStdString());
  347. return filePath;
  348. }