PowerAndFreqStability.cs 25 KB

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  1. using System;
  2. using System.Collections.Generic;
  3. using System.Linq;
  4. using System.Text;
  5. using System.Threading;
  6. using System.Threading.Tasks;
  7. using Tps_LQ_Transmitter.com;
  8. namespace Tps_LQ_Transmitter.models
  9. {
  10. class PowerAndFreqStability: BaseModel
  11. {
  12. double[,] WTempPowerVal;
  13. double[,] dBTempPowerVal;
  14. string serial = "****";
  15. public PowerAndFreqStability()
  16. {
  17. TemplateName = "功率及频率稳定度测试";
  18. }
  19. /// <summary>
  20. /// 功率及频率稳定度测试
  21. /// </summary>
  22. public override bool Run(TestNode parameters)
  23. {
  24. double y_value, x_value, TestFreq;
  25. ShowMessage(MsgType.Info, string.Format("第{0}个频点功率及频率稳定度测试开始", parameters.PointIndex));
  26. Random random = new Random();
  27. //获取仪器
  28. var SA = this.tps.GetDevice("频谱仪");
  29. TransmitterSerialPort SerialClient = new TransmitterSerialPort();
  30. PowerAndFreqStabilityOutData Data = new PowerAndFreqStabilityOutData();
  31. DataType PowerPrint = new DataType();//功率(dBm)
  32. DataType FreqPrint = new DataType();//实测频率
  33. DataType FreqAccuracyPrint = new DataType();//频率稳定度
  34. DataType PowerSumPrint = new DataType();//两路功率总和(w)
  35. DataType PowerFlatnessPrint = new DataType();//两路功率不平度(dB)
  36. if (SA == null)
  37. {
  38. ShowMessage(MsgType.Error, string.Format("仪器不齐全,{0}/{1}无法运行", parameters.Channel, parameters.Name));
  39. return false;
  40. }
  41. // y_value = double.Parse(SA.Query("读通道功率"));
  42. OpenExcel("功率及频率稳定度", out Spire.Xls.Workbook workbook, out Spire.Xls.Worksheet sheet);
  43. if (sheet == null)
  44. {
  45. ShowMessage(MsgType.Error, "找不到" + tps.TestProject + "模板.xlsx");
  46. return false;
  47. }
  48. ConfigParameter PowerPara = new ConfigParameter();
  49. //MatchComPara CfigComParas = new MatchComPara();
  50. //CfigComParas = LoadComWorkBook();
  51. //if (CfigComParas == null)
  52. //{
  53. // return false;
  54. //}
  55. //byte FourthByte = 0x00;
  56. //string ComPort = CfigComParas.GetComPort("1");
  57. //byte ThridByte = Convert.ToByte(CfigComParas.GetThirdByte("1"), 16);
  58. PowerPara.StepFrequency = 0;
  59. PowerPara.OutLoss = parameters.Parameters.GetParameter<double>("输出损耗");
  60. // PowerPara.StartFrequency = parameters.Parameters.GetParameter<double>("起始频率");
  61. // PowerPara.StepFrequency = parameters.Parameters.GetParameter<double>("频率步进");
  62. // parameters.PointTotal = parameters.Parameters.GetParameter<int>("频点数量");
  63. // PowerPara.StopFrequency = parameters.Parameters.GetParameter<double>("终止频率");
  64. PowerPara.SPAN = parameters.Parameters.GetParameter<string>("扫描带宽(SPAN)");
  65. PowerPara.CHSPAN = parameters.Parameters.GetParameter<string>("通道扫描带宽(SPAN)");
  66. PowerPara.ACHBand = parameters.Parameters.GetParameter<string>("通道带宽");
  67. PowerPara.REF = parameters.Parameters.GetParameter<string>("参考电平(REF)");
  68. PowerPara.RBW = parameters.Parameters.GetParameter<string>("分辨率带宽(RBW)");
  69. PowerPara.VBW = parameters.Parameters.GetParameter<string>("视频带宽(VBW)");
  70. //PowerPara.ControlDelay = parameters.Parameters.GetParameter<int>("控制延时");
  71. PowerPara.PowerLower = parameters.Parameters.GetParameter<double>("功率下限");
  72. PowerPara.PowerUpper = parameters.Parameters.GetParameter<double>("功率上限");
  73. PowerPara.FreqAccuracyUpper = parameters.Parameters.GetParameter<double>("频率稳定度上限");
  74. PowerPara.PowerSumLower = parameters.Parameters.GetParameter<double>("两路功率总和下限");
  75. PowerPara.PowerSumUpper = parameters.Parameters.GetParameter<double>("两路功率总和上限");
  76. PowerPara.PowerFlatnessUpper = parameters.Parameters.GetParameter<double>("功率不平度上限");
  77. if ( (PowerPara.SPAN == null) || (PowerPara.REF == null) || (PowerPara.RBW == null) || (PowerPara.VBW == null) || (PowerPara.PowerLower == 0)
  78. || (PowerPara.PowerUpper == 0) || (PowerPara.FreqAccuracyUpper == 0) || (PowerPara.PowerSumLower == 0) || (PowerPara.PowerSumUpper == 0) || (PowerPara.PowerFlatnessUpper == 0))
  79. {
  80. ShowMessage(MsgType.Error, string.Format("配置文件中频率参数为空,{0}/{1}无法运行", parameters.Channel, parameters.Name));
  81. return false;
  82. }
  83. //if (PowerPara.ControlDelay == 0)
  84. //{
  85. // PowerPara.ControlDelay = 10;
  86. //}
  87. //SerialClient.SerialOpen(ComPort);
  88. if (true)//需具备仪器
  89. {
  90. SA.Write("仪器复位"); SA.Query("OPC");
  91. }
  92. //if ((parameters.PointTotal != 0) && (parameters.PointTotal != 1) && (PowerPara.StepFrequency == 0))
  93. //{
  94. // PowerPara.StepFrequency = ((int)(((PowerPara.StopFrequency - PowerPara.StartFrequency) / (parameters.PointTotal - 1)) * 100)) / 100;
  95. //}
  96. //if (PowerPara.StepFrequency != 0)
  97. //{
  98. // parameters.PointTotal = ((int)((PowerPara.StopFrequency - PowerPara.StartFrequency) / PowerPara.StepFrequency)) + 1;
  99. //}
  100. //parameters.PointTotal = CfigComParas.ComParameters.Count;
  101. double CenterFreq;
  102. Data.Power = new double[parameters.PointTotal];
  103. Data.Freq = new double[parameters.PointTotal];
  104. Data.FreqAccuracy = new double[parameters.PointTotal];
  105. if (tps.Serial != serial)
  106. {
  107. WTempPowerVal = new double[2, parameters.PointTotal] ;
  108. dBTempPowerVal = new double[2, parameters.PointTotal];
  109. serial = tps.Serial;
  110. for (int initVal1 = 0; initVal1 < 2; initVal1++)
  111. {
  112. for (int initVal2 = 0; initVal2 < parameters.PointTotal; initVal2++)
  113. {
  114. WTempPowerVal[initVal1, initVal2] = -100;
  115. dBTempPowerVal[initVal1, initVal2] = -100;
  116. }
  117. }
  118. }
  119. //for (int parameters.PointIndex = 0; parameters.PointIndex < parameters.PointTotal; parameters.PointIndex++)
  120. {
  121. //string sa= CfigComParas.GetFourthByte((parameters.PointIndex + 1).ToString());
  122. //FourthByte = Convert.ToByte(CfigComParas.GetFourthByte((parameters.PointIndex + 1).ToString()), 16);
  123. //CenterFreq = double.Parse(CfigComParas.Getfreqpoint((parameters.PointIndex + 1).ToString()));
  124. //CenterFreq = PowerPara.StartFrequency + PowerPara.StepFrequency * FourthByte;
  125. if (true)//需具备仪器
  126. {
  127. //控制
  128. //SerialClient.DUT_Transmitter_Ctrol(ThridByte, FourthByte);
  129. //Thread.Sleep(PowerPara.ControlDelay);//单位ms
  130. SA.Write("设置频谱测试模式"); SA.Query("OPC");
  131. SA.Write("SPAN", PowerPara.SPAN); SA.Query("OPC");
  132. SA.Write("RBW", PowerPara.RBW); SA.Query("OPC");
  133. SA.Write("VBW", PowerPara.VBW); SA.Query("OPC");
  134. SA.Write("REF", PowerPara.REF); SA.Query("OPC");
  135. SA.Write("CENTER", parameters.CenterFreq.ToString()); SA.Query("OPC");
  136. SA.Write("SingleOrCont", "1"); SA.Query("OPC");
  137. Thread.Sleep(500);
  138. SA.Write("MARK打开", "1"); SA.Query("OPC");
  139. Thread.Sleep(500);
  140. SA.Write("打开MARK精度", "1"); SA.Query("OPC");
  141. Thread.Sleep(200);
  142. SA.Write("PEAK", "1"); SA.Query("OPC");
  143. Thread.Sleep(500);
  144. // SA.Write("SingleOrCont", "0"); SA.Query("OPC");
  145. // SA.Write("单次扫描"); SA.Query("OPC");
  146. // Thread.Sleep(100);
  147. // string i=SA.Query("读MARK高精度频率", "1");
  148. string val = SA.Query("读MARK高精度频率", "1");
  149. TestFreq = double.Parse(val);
  150. SA.Write("MARK关闭", "1"); SA.Query("OPC");
  151. SA.Write("设置通道功率模式"); SA.Query("OPC");
  152. SA.Write("SingleOrCont", "0"); SA.Query("OPC");
  153. if (SA.Query("IDN").Contains("N9030"))
  154. {
  155. SA.Write("设置通道REF", PowerPara.REF); SA.Query("OPC");
  156. }
  157. else
  158. {
  159. SA.Write("SPAN", PowerPara.CHSPAN); SA.Query("OPC");
  160. SA.Write("REF", PowerPara.REF); SA.Query("OPC");
  161. }
  162. SA.Write("设置通道带宽", PowerPara.ACHBand); SA.Query("OPC"); ;//设置完设置通道带宽后,设置通道SPAN会变,所以通道SPAN放在通道带宽后
  163. if (SA.Query("IDN").Contains("N9030"))
  164. {
  165. SA.Write("设置通道SPAN", PowerPara.CHSPAN); SA.Query("OPC");
  166. }
  167. SA.Write("单次扫描"); SA.Query("OPC");
  168. if (SA.Query("IDN").Contains("N9030"))
  169. {
  170. // PsaPeakValue_CHTracedata(SA, out y_value, out x_value, true);
  171. y_value = double.Parse(SA.Query("读通道功率"));
  172. }
  173. else
  174. {
  175. // PsaPeakValue_Tracedata(SA, out y_value, out x_value, true);
  176. y_value = double.Parse(SA.Query("读通道功率"));
  177. }
  178. Data.Power[parameters.PointIndex] = y_value + PowerPara.OutLoss;//功率
  179. }
  180. //Data.Power[parameters.PointIndex] = random.Next(3000, 4000) / 100.0;//随机数
  181. PowerPrint.Test_name = parameters.Channel + "-功率测试(W)-" + parameters.CenterFreq.ToString() + "MHz";
  182. PowerPrint.Lower = PowerPara.PowerLower;
  183. PowerPrint.Upper = PowerPara.PowerUpper;
  184. PowerPrint.TestVal = Math.Round(Math.Pow(10, (Data.Power[parameters.PointIndex] / 10)) / 1000, 2);//功率W
  185. if ((PowerPrint.TestVal >= PowerPrint.Lower) && (PowerPrint.TestVal <= PowerPrint.Upper))
  186. {
  187. PowerPrint.Result = "是";
  188. }
  189. else
  190. {
  191. PowerPrint.Result = "否";
  192. }
  193. FreqPrint.Test_name = parameters.Channel + "-频率测试(MHz)-" + parameters.CenterFreq.ToString() + "MHz";
  194. FreqPrint.Lower =Math.Round( parameters.CenterFreq - ((PowerPara.FreqAccuracyUpper * parameters.CenterFreq)),2);
  195. FreqPrint.Upper = Math.Round((PowerPara.FreqAccuracyUpper * parameters.CenterFreq) + parameters.CenterFreq, 2);
  196. FreqPrint.TestVal = Math.Round(TestFreq / 1000000, 3);//实测频率
  197. //FreqPrint.TestVal = random.Next(-600, 6000) / 100.0 + CenterFreq;//随机数
  198. if ((FreqPrint.TestVal >= FreqPrint.Lower) && (FreqPrint.TestVal <= FreqPrint.Upper))
  199. {
  200. FreqPrint.Result = "是";
  201. }
  202. else
  203. {
  204. FreqPrint.Result = "否";
  205. }
  206. FreqAccuracyPrint.Test_name = parameters.Channel + "-频率稳定度测试-" + parameters.CenterFreq.ToString() + "MHz";
  207. FreqAccuracyPrint.Upper = PowerPara.FreqAccuracyUpper;
  208. FreqAccuracyPrint.TestVal = Math.Round(Math.Abs(TestFreq - parameters.CenterFreq * 1000000) / (parameters.CenterFreq * 1000000), 6);//频率稳定度
  209. //FreqAccuracyPrint.TestVal = Math.Round(Math.Abs((random.Next(-600, 6000) / 100.0 + CenterFreq)*1000000 - CenterFreq * 1000000) / (CenterFreq * 1000000), 6);//随机数
  210. if (FreqAccuracyPrint.TestVal <= FreqAccuracyPrint.Upper)
  211. {
  212. FreqAccuracyPrint.Result = "是";
  213. }
  214. else
  215. {
  216. FreqAccuracyPrint.Result = "否";
  217. }
  218. tps.TestTableAddCell(PowerPrint.Test_name, PowerPrint.Lower.ToString(), PowerPrint.Upper.ToString(), PowerPrint.TestVal.ToString(), PowerPrint.Result);
  219. tps.TestTableAddCell(FreqPrint.Test_name, FreqPrint.Lower.ToString(), FreqPrint.Upper.ToString(), FreqPrint.TestVal.ToString(), FreqPrint.Result);
  220. if (parameters.Channel == "通道1")
  221. {
  222. WriteExcelData(sheet, parameters.PointIndex, 1, PowerPrint.Test_name, PowerPrint.Lower.ToString(), PowerPrint.Upper.ToString(), PowerPrint.TestVal.ToString(), PowerPrint.Result);
  223. WriteExcelData(sheet, parameters.PointIndex, 3, FreqPrint.Test_name, FreqPrint.Lower.ToString(), FreqPrint.Upper.ToString(), FreqPrint.TestVal.ToString(), FreqPrint.Result);
  224. //tps.SetTestTableCellValue(parameters.PointIndex, 10, PowerPrint.Result, PowerPrint.TestVal);
  225. //tps.SetTestTableCellValue(parameters.PointIndex, 7, FreqPrint.Result, FreqPrint.TestVal);
  226. }
  227. else if (parameters.Channel == "通道2")
  228. {
  229. WriteExcelData(sheet, parameters.PointIndex, 2, PowerPrint.Test_name, PowerPrint.Lower.ToString(), PowerPrint.Upper.ToString(), PowerPrint.TestVal.ToString(), PowerPrint.Result);
  230. WriteExcelData(sheet, parameters.PointIndex, 4, FreqPrint.Test_name, FreqPrint.Lower.ToString(), FreqPrint.Upper.ToString(), FreqPrint.TestVal.ToString(), FreqPrint.Result);
  231. //tps.SetTestTableCellValue(parameters.PointIndex, 11, PowerPrint.Result, PowerPrint.TestVal);
  232. //tps.SetTestTableCellValue(parameters.PointIndex + 15, 7, FreqPrint.Result, FreqPrint.TestVal);
  233. }
  234. #region 功率不平度及两路功率总和计算
  235. if (parameters.Channel == "通道1")
  236. {
  237. WTempPowerVal[0, parameters.PointIndex] = PowerPrint.TestVal;//W
  238. dBTempPowerVal[0, parameters.PointIndex] = Data.Power[parameters.PointIndex];//dB
  239. }
  240. else
  241. {
  242. WTempPowerVal[1, parameters.PointIndex] = PowerPrint.TestVal;//W
  243. dBTempPowerVal[1, parameters.PointIndex] = Data.Power[parameters.PointIndex];//dB
  244. }
  245. if (WTempPowerVal[0, parameters.PointIndex] > -100 && WTempPowerVal[1, parameters.PointIndex] > -100)
  246. {
  247. PowerSumPrint.Test_name = "两路功率总和(W)-" + parameters.CenterFreq.ToString() + "MHz";
  248. PowerSumPrint.Lower = PowerPara.PowerSumLower;
  249. PowerSumPrint.Upper = PowerPara.PowerSumUpper;
  250. PowerSumPrint.TestVal = Math.Round(WTempPowerVal[0, parameters.PointIndex] + WTempPowerVal[1, parameters.PointIndex],2);//W
  251. if ((PowerSumPrint.TestVal >= PowerSumPrint.Lower) && (PowerSumPrint.TestVal <= PowerSumPrint.Upper))
  252. {
  253. PowerSumPrint.Result = "是";
  254. }
  255. else
  256. {
  257. PowerSumPrint.Result = "否";
  258. }
  259. PowerFlatnessPrint.Test_name = "功率不平度(dB)-" + parameters.CenterFreq.ToString() + "MHz";
  260. PowerFlatnessPrint.Upper = PowerPara.PowerFlatnessUpper;
  261. PowerFlatnessPrint.TestVal = Math.Round(Math.Abs(dBTempPowerVal[0, parameters.PointIndex] - dBTempPowerVal[1, parameters.PointIndex]),2);//dB
  262. if ((PowerFlatnessPrint.TestVal >= 0) && (PowerFlatnessPrint.TestVal <= PowerFlatnessPrint.Upper))
  263. {
  264. PowerFlatnessPrint.Result = "是";
  265. }
  266. else
  267. {
  268. PowerFlatnessPrint.Result = "否";
  269. }
  270. tps.TestTableAddCell(PowerSumPrint.Test_name, PowerSumPrint.Lower.ToString(), PowerSumPrint.Upper.ToString(), PowerSumPrint.TestVal.ToString(), PowerSumPrint.Result);
  271. tps.TestTableAddCell(PowerFlatnessPrint.Test_name, "0", PowerFlatnessPrint.Upper.ToString(), PowerFlatnessPrint.TestVal.ToString(), PowerFlatnessPrint.Result);
  272. // WriteExcelData(sheet, parameters.PointIndex, 3, PowerSumPrint.Test_name, PowerSumPrint.Lower.ToString(), "/", PowerSumPrint.TestVal.ToString(), PowerSumPrint.Result);
  273. // WriteExcelData(sheet, parameters.PointIndex, 4, PowerFlatnessPrint.Test_name, PowerFlatnessPrint.Lower.ToString(), "/", PowerFlatnessPrint.TestVal.ToString(), PowerFlatnessPrint.Result);
  274. //tps.SetTestTableCellValue(parameters.PointIndex, 12, PowerSumPrint.Result, PowerSumPrint.TestVal);
  275. //tps.SetTestTableCellValue(parameters.PointIndex, 13, PowerFlatnessPrint.Result,PowerFlatnessPrint.TestVal);
  276. }
  277. #endregion
  278. }
  279. //SerialClient.DUT_Transmitter_Ctrol( 00, 00);//控制掉电
  280. //SerialClient.SerialClose();
  281. SaveExcel(workbook);
  282. ShowMessage(MsgType.Info, string.Format("第{0}个频点功率及频率稳定度测试结束", parameters.PointIndex));
  283. return true;
  284. }
  285. public void PsaPeakValue_CHTracedata(AppLibs.Devices.IVISA psa, out double Y_Maxvalue, out double X_Maxvalue, bool IsReturnX = false)
  286. {
  287. System.Threading.Thread.Sleep(20);
  288. X_Maxvalue = 0;
  289. Y_Maxvalue = 0;
  290. psa.Write("单次扫描");
  291. psa.Query("OPC");
  292. //string tracedata = psa.Query("读曲线");
  293. string tracedata = psa.Query("读通道曲线");
  294. string[] tracedatas = tracedata.Split(',');
  295. double[] tracedata_double = new double[tracedatas.Length-1];
  296. for (int i = 0; i < tracedatas.Length-1; i++)
  297. {
  298. tracedata_double[i] = double.Parse(tracedatas[i]);
  299. }
  300. Y_Maxvalue = tracedata_double.Max();
  301. if (IsReturnX)
  302. {
  303. int x = Array.IndexOf(tracedata_double, Y_Maxvalue);
  304. double startfreq = double.Parse(psa.Query("读起始频率"));
  305. double stopfreq = double.Parse(psa.Query("读截止频率"));
  306. double counts = double.Parse(psa.Query("测试点数读取"));
  307. X_Maxvalue = startfreq + (stopfreq - startfreq) * x / (counts - 2);
  308. }
  309. Y_Maxvalue = Math.Round(Y_Maxvalue, 3);
  310. }
  311. public void PsaPeakValue_Tracedata(AppLibs.Devices.IVISA psa, out double Y_Maxvalue, out double X_Maxvalue, bool IsReturnX = false)
  312. {
  313. System.Threading.Thread.Sleep(20);
  314. X_Maxvalue = 0;
  315. Y_Maxvalue = 0;
  316. psa.Write("单次扫描");
  317. psa.Query("OPC");
  318. string tracedata = psa.Query("读曲线");
  319. // string tracedata = psa.Query("读通道曲线");
  320. string[] tracedatas = tracedata.Split(',');
  321. double[] tracedata_double = new double[tracedatas.Length - 1];
  322. for (int i = 0; i < tracedatas.Length - 1; i++)
  323. {
  324. tracedata_double[i] = double.Parse(tracedatas[i]);
  325. }
  326. Y_Maxvalue = tracedata_double.Max();
  327. if (IsReturnX)
  328. {
  329. int x = Array.IndexOf(tracedata_double, Y_Maxvalue);
  330. double startfreq = double.Parse(psa.Query("读起始频率"));
  331. double stopfreq = double.Parse(psa.Query("读截止频率"));
  332. double counts = double.Parse(psa.Query("测试点数读取"));
  333. X_Maxvalue = startfreq + (stopfreq - startfreq) * x / (counts - 2);
  334. }
  335. Y_Maxvalue = Math.Round(Y_Maxvalue, 3);
  336. }
  337. public class ConfigParameter
  338. {
  339. /// <summary>
  340. /// 串口
  341. /// </summary>
  342. public string ComPort { set; get; }
  343. /// <summary>
  344. /// 输出损耗
  345. /// </summary>
  346. public double OutLoss { set; get; }
  347. /// <summary>
  348. /// 产品测试的起始频率
  349. /// </summary>
  350. public double StartFrequency { set; get; }
  351. /// <summary>
  352. /// 产品测试的频率步进
  353. /// </summary>
  354. public double StepFrequency { set; get; }
  355. /// <summary>
  356. /// 产品测试的频点数量
  357. /// </summary>
  358. public int FrequencyNumber { set; get; }
  359. /// <summary>
  360. /// 产品的工作频带上限(终止频率)
  361. /// 功能:用于判断从起始频率按一定的步进测试是否超出产品工作频段上限
  362. /// </summary>
  363. public double StopFrequency { set; get; }
  364. /// <summary>
  365. ///设置频谱仪的SPAN
  366. /// </summary>
  367. public string SPAN { set; get; }
  368. /// <summary>
  369. ///设置频谱仪的通道SPAN
  370. /// </summary>
  371. public string CHSPAN { set; get; }
  372. /// <summary>
  373. /// 通道带宽
  374. /// </summary>
  375. public string ACHBand { set; get; }
  376. /// <summary>
  377. /// 设置参考电平
  378. /// </summary>
  379. public string REF { set; get; }
  380. /// <summary>
  381. /// 设置RBW
  382. /// </summary>
  383. public string RBW { set; get; }
  384. /// <summary>
  385. /// 设置VBW
  386. /// </summary>
  387. public string VBW { set; get; }
  388. /// <summary>
  389. /// 控制延时
  390. /// </summary>
  391. public int ControlDelay { set; get; }
  392. /// <summary>
  393. /// 功率下限
  394. /// </summary>
  395. public double PowerLower { set; get; }
  396. /// <summary>
  397. /// 功率上限
  398. /// </summary>
  399. public double PowerUpper { set; get; }
  400. /// <summary>
  401. /// 频率稳定度上限
  402. /// </summary>
  403. public double FreqAccuracyUpper { set; get; }
  404. /// <summary>
  405. /// 两路功率总和下限
  406. /// </summary>
  407. public double PowerSumLower { set; get; }
  408. /// <summary>
  409. /// 两路功率总和上限
  410. /// </summary>
  411. public double PowerSumUpper { set; get; }
  412. /// <summary>
  413. /// 功率不平度上限
  414. /// </summary>
  415. public double PowerFlatnessUpper { set; get; }
  416. }
  417. public class PowerAndFreqStabilityOutData
  418. {
  419. /// <summary>
  420. /// 输出功率(W)
  421. /// </summary>
  422. public double[] Power { set; get; }
  423. /// <summary>
  424. /// 频率稳定度
  425. /// </summary>
  426. public double[] FreqAccuracy { set; get; }
  427. /// <summary>
  428. /// 实测频点
  429. /// </summary>
  430. public double[] Freq { set; get; }
  431. /// <summary>
  432. /// 两路功率总和(W)
  433. /// </summary>
  434. public double[] PowerSum { set; get; }
  435. /// <summary>
  436. /// 两路功率不平度(dB)
  437. /// </summary>
  438. public double[] PowerFlatness { set; get; }
  439. }
  440. //public class DataType
  441. //{
  442. // /// <summary>
  443. // /// 测试名称
  444. // /// </summary>
  445. // public string Test_name { set; get; }
  446. // /// <summary>
  447. // /// 指标下限
  448. // /// </summary>
  449. // public double Lower { set; get; }
  450. // /// <summary>
  451. // /// 指标上限
  452. // /// </summary>
  453. // public double Upper { set; get; }
  454. // /// <summary>
  455. // /// 测试值
  456. // /// </summary>
  457. // public double TestVal { set; get; }
  458. // /// <summary>
  459. // /// 判断结果
  460. // /// </summary>
  461. // public bool Result { set; get; }
  462. //}
  463. }
  464. }