AircraftKTKS.cs 16 KB

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  1. using KYFramework;
  2. using Model;
  3. using Newtonsoft.Json;
  4. using Org.BouncyCastle.Utilities;
  5. using SimulationCommon;
  6. using SimulationServer.Utils;
  7. using Define = SimulationServer.Utils.Define;
  8. namespace SimulationServer;
  9. public class AircraftKTKS : AircraftEntity
  10. {
  11. public string NextMissionId; // 下一个任务ID
  12. public MissionEndPoint missionEndPoint = new MissionEndPoint();
  13. public int LandingPersonnel; //personCount
  14. public MHRescueMission mhRescueMission;
  15. public int landingPoint = 0; // 任务文件获取
  16. public MissionPoint missionpoint = new MissionPoint();
  17. public KTKSTask taskContent; // 创建任务里需要赋值!!!
  18. int Days;
  19. int Hour;
  20. public TaskParameter taskParameter;
  21. public bool IsOver;
  22. public bool Success;
  23. public RescueDemandInfo rescueDemandInfo;
  24. public bool isReadNC;
  25. Text_readNC text_ReadNC;
  26. public override void End()
  27. {
  28. TotalFuelConsumption = TurningPoints[0].RemainingFuel - TurningPoints[^1].RemainingFuel;
  29. }
  30. public override void Reset()
  31. {
  32. base.Reset();
  33. IsOver = false;
  34. Success = false;
  35. TotalTime = 0;
  36. }
  37. public override void Start()
  38. {
  39. // FlightPlanEditor.targetpoint = 空投点
  40. FlightPlanEditor.missionpoint.MissionPointLatitude = rescueDemandInfo.TargetPointLatitude;
  41. FlightPlanEditor.missionpoint.MissionPointLongitude = rescueDemandInfo.TargetPointLongitude;
  42. FlightPlanEditor.missionpoint.MissionPointHeight = rescueDemandInfo.TargetPointHeight;
  43. //Console.WriteLine("MissionPointLatitude:" + FlightPlanEditor.missionpoint.MissionPointLatitude);
  44. FXJHGenerate.FromStartToMission(FlightPlanEditor, ref TurningPoints);//生成从起点到任务段起点的航路点
  45. int TransportNumber = (int)Math.Ceiling(LandingPersonnel / FlightPlanEditor.aircraftparameter.MaxPassengerNumber);
  46. int j = 0;
  47. //FlightPlanEditor.missionpoint.MissionPointLatitude = FlightPlanEditor.targetpoint[0].TargetPointLatitude;
  48. //FlightPlanEditor.missionpoint.MissionPointLongitude = FlightPlanEditor.targetpoint[0].TargetPointLongitude;
  49. //FlightPlanEditor.missionpoint.MissionPointHeight = FlightPlanEditor.targetpoint[0].TargetPointHeight;
  50. FXJHGenerate.KouTouKouSong(FlightPlanEditor, ref TurningPoints);
  51. double alpha = CalculateEastBaseAngle(TurningPoints[0].TurningPointLatitude, TurningPoints[0].TurningPointLongitude, TurningPoints[2].TurningPointLatitude, TurningPoints[2].TurningPointLongitude);
  52. //FXJHGenerate.CalculateTrueHeading(FlightPlanEditor, ref TurningPoints);
  53. // FXJHGenerate.InitializeVelocities(FlightPlanEditor, TurningPoints, ref Velocitys);
  54. // FXJHGenerate.InitializeFuelConsumptions(FlightPlanEditor, TurningPoints,ref FuelConsumptions);
  55. //FXJHGenerate.FromMissionToEnd(FlightPlanEditor, missionEndPoint, ref TurningPoints);
  56. //FXJHGenerate.FXJHTPDiedai(FlightPlanEditor, ref TurningPoints, Velocitys, FuelConsumptions); // 更新了 计算油耗的方法
  57. int Year = Convert.ToInt32(taskContent.missionInformation.StartDate.Split("年")[0]);
  58. int Month = Convert.ToInt32(taskContent.missionInformation.StartDate.Split("年")[1].Split("月")[0]);
  59. int Day = Convert.ToInt32(taskContent.missionInformation.StartDate.Split("年")[1].Split("月")[1].Split("日")[0]);
  60. Hour = Convert.ToInt32(taskContent.missionInformation.StartTime.Split("时")[0]);
  61. Days = GetDaysInYear(Year, Month, Day);
  62. if (!isReadNC)
  63. {
  64. text_ReadNC = new Text_readNC();
  65. text_ReadNC.initlatitudes = rescueDemandInfo.TargetPointLatitude;
  66. text_ReadNC.initlongitudes = rescueDemandInfo.TargetPointLongitude;
  67. bool isSuccess = false;
  68. while (!isSuccess)
  69. {
  70. isSuccess = text_ReadNC.GetNCData();
  71. }
  72. isReadNC = true;
  73. }
  74. var nCread = text_ReadNC.windNCread;
  75. double[] windVelocity = GetWindVelocityFromAPI(nCread, rescueDemandInfo.TargetPointLatitude, rescueDemandInfo.TargetPointLongitude, text_ReadNC.latitudes, text_ReadNC.longitudes, Days, Hour);
  76. var windSpeed = Math.Sqrt(windVelocity[0] * windVelocity[0] + windVelocity[1] * windVelocity[1]);
  77. var theta = Math.Asin(windVelocity[0] / windSpeed);
  78. List<double> KTiniposition = new List<double>();
  79. List<double> KTresultPostion = new List<double>();
  80. double KTheight;
  81. if (taskParameter.isParachute) //空投空送任务文件读取
  82. {
  83. KTheight = 200;
  84. // 空投迎风面积 = 1.5 空投空送任务文件读取 50 = 空投重量 空投空送任务文件读取
  85. KTiniposition = getPositionWithUmbrella(FlightPlanEditor.missionpoint.MissionPointLongitude, FlightPlanEditor.missionpoint.MissionPointLatitude, KTheight, windSpeed, theta, taskParameter.airdropWindArea, taskParameter.airdropWeight);
  86. double inix = Mokatuo_lon(KTiniposition[1]);
  87. double iniy = Mokatuo_lat(KTiniposition[0]);
  88. double resultX = inix + 33 * Math.Cos(alpha) * KTiniposition[2] / 1000;
  89. double resultY = iniy + 33 * Math.Sin(alpha) * KTiniposition[2] / 1000;
  90. KTresultPostion.Add(ReMokatuo_lat(resultY));
  91. KTresultPostion.Add(ReMokatuo_lon(resultX));
  92. }
  93. else
  94. {
  95. KTheight = 20;
  96. KTiniposition = getPositionWithoutUmbrella(FlightPlanEditor.missionpoint.MissionPointLongitude, FlightPlanEditor.missionpoint.MissionPointLatitude, KTheight, windSpeed, 22, alpha, theta);
  97. double inix = Mokatuo_lon(KTiniposition[1]);
  98. double iniy = Mokatuo_lat(KTiniposition[0]);
  99. double resultX = inix + 22 * Math.Cos(alpha) * KTiniposition[2] / 1000;
  100. double resultY = iniy + 22 * Math.Sin(alpha) * KTiniposition[2] / 1000;
  101. KTresultPostion.Add(ReMokatuo_lat(resultY));
  102. KTresultPostion.Add(ReMokatuo_lon(resultX));
  103. }
  104. TurningPoints.RemoveAt(2);
  105. if(taskParameter.airdropWay == "带速空投")
  106. {
  107. FlightPlanEditor.missionpoint.MissionPointLatitude = KTiniposition[0];
  108. FlightPlanEditor.missionpoint.MissionPointLongitude = KTiniposition[1];
  109. FlightPlanEditor.missionpoint.MissionPointHeight = KTheight;
  110. missionpoint.MissionPointLatitude = KTresultPostion[0];
  111. missionpoint.MissionPointLongitude = KTresultPostion[1];
  112. missionpoint.MissionPointHeight = KTheight;
  113. missionEndPoint.MissionEndPointLatitude = KTresultPostion[0];
  114. missionEndPoint.MissionEndPointLongitude = KTresultPostion[1];
  115. missionEndPoint.MissionEndPointHeight = KTheight;
  116. }
  117. else if(taskParameter.airdropWay == "悬停空投")
  118. {
  119. FlightPlanEditor.missionpoint.MissionPointLatitude = KTiniposition[0];
  120. FlightPlanEditor.missionpoint.MissionPointLongitude = KTiniposition[1];
  121. FlightPlanEditor.missionpoint.MissionPointHeight = KTheight;
  122. missionpoint.MissionPointLatitude = KTiniposition[0];
  123. missionpoint.MissionPointLongitude = KTiniposition[1];
  124. missionpoint.MissionPointHeight = KTheight;
  125. missionEndPoint.MissionEndPointLatitude = KTiniposition[0];
  126. missionEndPoint.MissionEndPointLongitude = KTiniposition[1];
  127. missionEndPoint.MissionEndPointHeight = KTheight;
  128. }
  129. FXJHGenerate.KouTouKouSong(FlightPlanEditor, ref TurningPoints);
  130. FXJHGenerate.KouTouKouSong1(missionpoint, ref TurningPoints);
  131. TurningPoints[2].SegmentFlightTime = KTiniposition[2];
  132. FXJHGenerate.FromMissionToEnd(FlightPlanEditor, missionEndPoint, ref TurningPoints);
  133. FXJHGenerate.FXJHTPDiedai(FlightPlanEditor, ref TurningPoints, Velocitys, FuelConsumptions); // 更新了 计算油耗的方法
  134. for (int i = 0; i < TurningPoints.Count; i++) // 总飞行时间
  135. {
  136. TotalTime += TurningPoints[i].SegmentFlightTime; // 总时间 //仿真轮次1 数值1
  137. }
  138. Console.WriteLine("TotalTime:" + TotalTime);
  139. IsOver = true;
  140. //Success = true; //需要判断
  141. End();
  142. }
  143. //private double GetDistance(double lon1, double lon2, double lat1, double lat2)
  144. //{
  145. // double R = 6371; // 地球的半径(公里)
  146. // double dLat = (lat2 - lat1) * Math.PI / 180.0;
  147. // double dLon = (lon2 - lon1) * Math.PI / 180.0;
  148. // double a = Math.Sin(dLat / 2) * Math.Sin(dLat / 2) +
  149. // Math.Cos(lat1 * Math.PI / 180.0) * Math.Cos(lat2 * Math.PI / 180.0) *
  150. // Math.Sin(dLon / 2) * Math.Sin(dLon / 2);
  151. // double c = 2 * Math.Atan2(Math.Sqrt(a), Math.Sqrt(1 - a));
  152. // double distance = R * c;
  153. // return distance;
  154. //}
  155. public override void Update(double time)
  156. {
  157. }
  158. // --接口
  159. // --输入
  160. // --
  161. // 1)遇险人员位置经度(空投拟落点位置经度)
  162. // --longitude(double)
  163. // 2)遇险人员位置维度(空投拟落点位置维度)
  164. //--latitude(double)
  165. // 3)释放空投时飞机的高度(m)
  166. //--altitude(double)
  167. // 4)飞行器空投速度(m/s)
  168. //--windspeed(double)
  169. // 5)飞行速度与维度夹角(度)(应该可以在飞机的运动学参数读出来)__________东向为0
  170. //--alpha(double)__________先定值,后续与子涵对
  171. // 6)风速与维度夹角(度)(环境参数)__________东向为0
  172. //--theta(double)__________改成风向
  173. // 7)风速(m/s)
  174. //--windspeed(double)
  175. // 8)空投重量(kg)
  176. //--m(double)
  177. // 9)空投迎风面积(m2)(空投侧面积即可)
  178. //--s(double)
  179. // 10)空投距离多远算做成功
  180. //--l(m)(double)
  181. // --
  182. // --输出
  183. // --
  184. // 1)可以空投区域的中心点经纬度
  185. //--result(List<double>)
  186. // 2)空投距离多远算做成功(m)
  187. //--l(double)
  188. // -- 三个输出变量构一个圆形区域
  189. // --
  190. //返回高度、速度、空投任务段时间
  191. public static double[] GetWindVelocityFromAPI(NCread windNCread, double latitude, double longitude, int latitudes, int longitudes, int days, int hour)
  192. {
  193. float[] longitudeArray = windNCread.longitudeArray;//经度一维数组来源自文件'Text_readNC.cs'
  194. float[] latitudeArray = windNCread.latitudeArray;//纬度一维数组来源自文件'Text_readNC.cs'
  195. float[][][] u10Array = windNCread.u10Array;//风的10米U(向东)分量三维数组来源自文件'Text_readNC.cs'
  196. float[][][] v10Array = windNCread.v10Array;//风的10米V(向北)分量三维数组来源自文件'Text_readNC.cs'
  197. int longitudeNum = 0;
  198. int latitudeNum = 0;
  199. int temptimeNum = 0;
  200. //定义NC文件中读取不到的坐标点海洋数据信息(后续可采用插值法等)
  201. //经度连续化
  202. for (int i = 0; i < longitudes - 1; i++)
  203. {
  204. if (longitude >= longitudeArray[i] && longitude < longitudeArray[i + 1])
  205. {
  206. longitude = longitudeArray[i];
  207. longitudeNum = i;
  208. }
  209. }
  210. //纬度连续化
  211. for (int i = 0; i < latitudes - 1; i++)
  212. {
  213. if (latitude >= latitudeArray[i] && latitude < latitudeArray[i + 1])
  214. {
  215. latitude = latitudeArray[i];
  216. latitudeNum = i;
  217. }
  218. }
  219. temptimeNum += (days - 1) * 24 + hour - 1;
  220. double windX = (double)u10Array[temptimeNum][latitudeNum][longitudeNum];
  221. double windY = (double)v10Array[temptimeNum][latitudeNum][longitudeNum];
  222. return new double[] { windX, windY };
  223. }
  224. // --主要方法
  225. // --墨卡托投影函
  226. public double Mokatuo_lat(double lat)
  227. {
  228. double R = 6378.137;
  229. double y = R * Math.Log(Math.Tan((lat + 90) * Math.PI / 360));
  230. return y;
  231. }
  232. public double Mokatuo_lon(double lon)
  233. {
  234. double R = 6378.137;
  235. double x = (lon * Math.PI * R) / 180;
  236. return x;
  237. }
  238. // --反墨卡托投影函数
  239. public double ReMokatuo_lat(double y)
  240. {
  241. double R = 6378.137;
  242. double lat = (2 * Math.Atan(Math.Exp(y / R)) - Math.PI / 2) * 180 / Math.PI;
  243. return lat;
  244. }
  245. public double ReMokatuo_lon(double x)
  246. {
  247. double R = 6378.137;
  248. double lon = x * 180 / (Math.PI * R);
  249. return lon;
  250. }
  251. // --不开伞空投计算函数
  252. //速度80km/h;高度20m
  253. public List<double> getPositionWithoutUmbrella(double longitude, double latitude, double altitude, double windspeed, double velocity, double alpha, double theta)
  254. {
  255. double g = 9.8;
  256. double time = Math.Sqrt(2 * altitude / g);
  257. double x = Mokatuo_lon(longitude);
  258. double y = Mokatuo_lat(latitude);
  259. double vx = velocity * Math.Cos(alpha) + windspeed * Math.Cos(theta);
  260. double vy = velocity * Math.Sin(alpha) + windspeed * Math.Sin(theta);
  261. double y_new = y + vy * time / 1000;
  262. double x_new = x + vx * time / 1000;
  263. double lat = ReMokatuo_lat(y_new);
  264. double lon = ReMokatuo_lon(x_new);
  265. List<double> result = new List<double>()
  266. {lat, lon,time};
  267. return result; //投放空投的位置
  268. }
  269. // --开伞空投计算函数
  270. //速度120km/h;高度200m
  271. public List<double> getPositionWithUmbrella(double longitude, double latitude, double altitude, double windspeed, double theta, double s, double m)
  272. {
  273. double g = 9.8;
  274. double k = 3.824 * s;
  275. double vz = Math.Sqrt(m * g / k);
  276. double time = altitude / vz;
  277. double x = Mokatuo_lon(longitude);
  278. double y = Mokatuo_lat(latitude);
  279. double y_new = y + windspeed * Math.Sin(theta) * time / 1000;
  280. double x_new = x + windspeed * Math.Cos(theta) * time / 1000;
  281. double lat = ReMokatuo_lat(y_new);
  282. double lon = ReMokatuo_lon(x_new);
  283. List<double> result = new List<double>()
  284. {lat, lon,time};
  285. Console.WriteLine(y_new);
  286. Console.WriteLine(y);
  287. return result; //投放空投的位置
  288. }
  289. public static int GetDaysInYear(int year, int month, int day)
  290. {
  291. int[] daysInMonths = { 31, 28, 31, 30, 31, 30, 31, 31, 30, 31, 30, 31 };
  292. if (IsLeapYear(year))
  293. {
  294. daysInMonths[1] = 29;
  295. }
  296. int days = day;
  297. for (int i = 0; i < month - 1; i++)
  298. {
  299. days += daysInMonths[i];
  300. }
  301. return days;
  302. }
  303. public static bool IsLeapYear(int year)
  304. {
  305. return (year % 4 == 0 && year % 100 != 0) || (year % 400 == 0);
  306. }
  307. public static double CalculateEastBaseAngle(double lat1, double lon1, double lat2, double lon2)
  308. {
  309. // 转换为弧度
  310. double lat1Rad = lat1 * Math.PI / 180;
  311. double lon1Rad = lon1 * Math.PI / 180;
  312. double lat2Rad = lat2 * Math.PI / 180;
  313. double lon2Rad = lon2 * Math.PI / 180;
  314. double deltaLon = lon2Rad - lon1Rad;
  315. // 计算真航向角
  316. double x = Math.Sin(deltaLon) * Math.Cos(lat2Rad);
  317. double y = Math.Cos(lat1Rad) * Math.Sin(lat2Rad) - Math.Sin(lat1Rad) * Math.Cos(lat2Rad) * Math.Cos(deltaLon);
  318. double headingRad = Math.Atan2(x, y);
  319. double headingDeg = headingRad * 180 / Math.PI;
  320. // 标准化真航向角(以正北为基准)
  321. headingDeg = (headingDeg + 360) % 360;
  322. // 转换为以正东为基准的角度,逆时针方向
  323. double eastBaseAngle = (90 - headingDeg) % 360;
  324. if (eastBaseAngle < 0)
  325. {
  326. eastBaseAngle += 360;
  327. }
  328. return eastBaseAngle;
  329. }
  330. }
  331. [ObjectSystem]
  332. public class AircraftKTKSAwakeSystem : AwakeSystem<AircraftKTKS, FlightPlanEditor>
  333. {
  334. public override void Awake(AircraftKTKS self, FlightPlanEditor flightPlanEditor)
  335. {
  336. self.FlightPlanEditor = flightPlanEditor;
  337. self.Awake();
  338. //self.Reset();
  339. }
  340. }