OTSIncAReportFun.cs 68 KB

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  1. 
  2. using NSOTSController;
  3. using OTSIncAReportApp.DataOperation.DataAccess;
  4. using OTSIncAReportApp.DataOperation.Model;
  5. using OTSIncAReportApp.SysMgrTools;
  6. using OTSIncAReportGraph.Class;
  7. using OTSIncAReportGraph.Controls;
  8. using System;
  9. using System.Collections;
  10. using System.Collections.Generic;
  11. using System.Data;
  12. using System.Diagnostics;
  13. using System.Drawing;
  14. using System.Linq;
  15. namespace OTSIncAReportGraph.OTSIncAReportGraphFuncation
  16. {
  17. class OTSIncAReportFun
  18. {
  19. #region 枚举定义
  20. /// <summary>
  21. /// 样品台X轴方向
  22. /// </summary>
  23. enum OTS_X_AXIS_DIRECTION
  24. {
  25. LEFT_TOWARD = 0,
  26. RIGHT_TOWARD = 1
  27. }
  28. /// <summary>
  29. /// 样品台Y轴方向
  30. /// </summary>
  31. enum OTS_Y_AXIS_DIRECTION
  32. {
  33. UP_TOWARD = 0,
  34. DOWN_TOWARD = 1
  35. }
  36. #endregion
  37. #region 定义变量
  38. private ResultFile resultFile = null;
  39. //新版排序图窗体对象
  40. private Control_DrawDistrbutionSortImage m_Control_DrawdistrbutionsortImage = null;
  41. //新版分布图和BSE图整合对象
  42. private Control_DrawDistrbutionImageAndBSE m_Control_DrawDistrbutionImageAndBSE = null;
  43. //全局对象,为了能够快速的获取到xray数据,而做为一个临时变量进行保存,使用前应该判断是否为空
  44. public List<Field> m_list_COTSFieldMgrClr = null;
  45. NLog.Logger log = NLog.LogManager.GetCurrentClassLogger();
  46. //field的数量
  47. public int m_field_count = 0;
  48. //particle的数量
  49. public int m_particle_count = 0;
  50. //加载使用的时间
  51. public string m_time_str = "";
  52. //加载使用时间计算时间段2
  53. public string m_time_str2 = "";
  54. //防止segment过多的数量限制,先写300吧,过少也不好,过防止过多程序而卡死
  55. public int m_segment_overflownumber = 400;
  56. //电镜设置对象
  57. public ServiceInterface.SemController m_cfun = null;
  58. //是否已经连接到了电镜
  59. public bool m_SEMConnectionState = false;
  60. //连接到电镜的ID号
  61. public int m_SEM_ID = 0;
  62. //国际化
  63. Language lan = new Language();
  64. Hashtable table;
  65. #endregion
  66. #region 构造函数
  67. /// <summary>
  68. /// 构造函数,接收新版分布图和排序图的构造函数
  69. /// </summary>
  70. /// <param name="in_Control_DrawDistrbutionImageAndBSE"></param>
  71. /// <param name="in_Cotsreportprojfilemgrclr"></param>
  72. public OTSIncAReportFun(Control_DrawDistrbutionImageAndBSE in_Control_DrawDistrbutionImageAndBSE, ResultFile result)
  73. {
  74. m_Control_DrawDistrbutionImageAndBSE = in_Control_DrawDistrbutionImageAndBSE;
  75. resultFile = result;
  76. m_cfun =new ServiceInterface.SemController();
  77. table = lan.GetNameTable("OTSIncAReportFun");
  78. }
  79. /// <summary>
  80. /// 构造函数,接收新版颗粒排序图的构造
  81. /// </summary>
  82. /// <param name="in_Control_DrawDistrbutionSortimage"></param>
  83. /// <param name="in_Cotsreportprojfilemgrclr"></param>
  84. public OTSIncAReportFun(Control_DrawDistrbutionSortImage in_Control_DrawDistrbutionSortimage, ResultFile result)
  85. {
  86. m_Control_DrawdistrbutionsortImage = in_Control_DrawDistrbutionSortimage;
  87. resultFile = result;
  88. m_cfun = new ServiceInterface.SemController();
  89. table = lan.GetNameTable("OTSIncAReportFun");
  90. }
  91. #endregion
  92. #region 封装自定义方法
  93. /// <summary>
  94. /// 根据颗粒排序图获取已经选择上的颗粒,返回被选择上的颗粒的列表
  95. /// </summary>
  96. /// <returns></returns>
  97. public List<Particle> GetSelectedParticleList_ForDrawDistrbutionImageAndBSE()
  98. {
  99. List<Particle> ls_list_cotsparticleclr = new List<Particle>();
  100. //防止为空校验判断
  101. if (m_list_COTSFieldMgrClr == null)
  102. return ls_list_cotsparticleclr;
  103. //先取出,所有被选择的dparticle列表的
  104. List<DParticle> ls_list_dp = new List<DParticle>();
  105. foreach (DParticle ls_dp in m_Control_DrawDistrbutionImageAndBSE.m_list_baseobject)
  106. {
  107. if (ls_dp.Operator == ParticleOperator.SELECTED)
  108. {
  109. ls_list_dp.Add(ls_dp);
  110. }
  111. }
  112. //并开始查找包含tagid和fieldid的cotsparticle的对象,保存到list当中
  113. for (int i = 0; i < ls_list_dp.Count(); i++)
  114. {
  115. for (int j = 0; j < m_list_COTSFieldMgrClr.Count(); j++)
  116. {
  117. //先获取该field中的所有particle
  118. List<Particle> list_cotsparticleclr = new List<Particle>();
  119. list_cotsparticleclr = m_list_COTSFieldMgrClr[j].ParticleList;
  120. for (int k = 0; k < list_cotsparticleclr.Count(); k++)
  121. {
  122. if (list_cotsparticleclr[k].ParticleId == ls_list_dp[i].CLRTagID
  123. && list_cotsparticleclr[k].FieldId == ls_list_dp[i].CLRFieldID)
  124. {
  125. ls_list_cotsparticleclr.Add(list_cotsparticleclr[k]);
  126. }
  127. }
  128. }
  129. }
  130. return ls_list_cotsparticleclr;
  131. }
  132. /// <summary>
  133. /// 计算像素总画面Image大小,及进行物理坐标与分辨率坐标的换算操作 传入物理坐标,及宽高,来
  134. /// </summary>
  135. /// <param name="in_list_point">传入的物理坐标数组</param>
  136. /// <param name="width">单个field宽</param>
  137. /// <param name="height">单个field高</param>
  138. /// <returns></returns>
  139. public Rectangle ConvertAndGetMaxRect(List<Point> in_list_point, int in_width, int in_height)
  140. {
  141. //首先要能确定下来,单个物理坐标的宽和高--------------------------------
  142. int i_wl_width = 0;
  143. int i_wl_height = 0;
  144. Rectangle ls_r = GetOneFieldWidthAndHeight(in_list_point);
  145. i_wl_width = ls_r.Width;
  146. i_wl_height = ls_r.Height;
  147. //-----------------------------------------------------------------------------
  148. int point_x_min = 10000000;
  149. int point_x_max = -10000000;
  150. int point_y_min = 10000000;
  151. int point_y_max = -10000000;
  152. for (int i = 0; i < in_list_point.Count(); i++)
  153. {
  154. Point ls_point = in_list_point[i];
  155. //取出正数最大x
  156. if (ls_point.X > point_x_max)
  157. point_x_max = ls_point.X;
  158. if (ls_point.Y > point_y_max)
  159. point_y_max = ls_point.Y;
  160. if (ls_point.X < point_x_min)
  161. point_x_min = ls_point.X;
  162. if (ls_point.Y < point_y_min)
  163. point_y_min = ls_point.Y;
  164. }
  165. //然后分别用最大值+abs(最小值),就是x,和y轴的总长值
  166. point_x_max = point_x_max - point_x_min;
  167. point_y_max = point_y_max - point_y_min;
  168. //该算法有个问题,就是不能直观的得到整个范围的大小,要除以倍数再补1能补充缺少的一个field视域**********
  169. point_x_max = ((point_x_max / i_wl_width) + 1) * i_wl_width;
  170. point_y_max = ((point_y_max / i_wl_height) + 1) * i_wl_height;
  171. //将物理宽高,变换成分辨率宽高
  172. if (i_wl_width != 0) point_x_max = (point_x_max / i_wl_width) * in_width; else point_x_max = 0;
  173. if (i_wl_height != 0) point_y_max = (point_y_max / i_wl_height) * in_height; else point_y_max = 0;
  174. Rectangle ret_rectangle = new Rectangle(0, 0, 0, 0);
  175. //判断一下防止出错,只有在有数据的情况下,进行赋值才行
  176. if (in_list_point.Count > 0)
  177. {
  178. ret_rectangle = new Rectangle(0, 0, point_x_max, point_y_max);
  179. }
  180. //这样返回是物理坐标的总大小,应该返回像素坐标大小才对
  181. return ret_rectangle;
  182. }
  183. /// <summary>
  184. /// 通过传入的各field物理坐标列表,和单个field的屏幕分辨率,及单个的field的物理坐标,来获取当前field在整个image中的屏幕像素坐标偏移,并且是OTS向上为正做了Y轴相反运算
  185. /// </summary>
  186. /// <param name="in_list_point"></param>
  187. /// <param name="in_screen_width"></param>
  188. /// <param name="in_screen_height"></param>
  189. /// <param name="in_physics_width"></param>
  190. /// <param name="in_physics_height"></param>
  191. /// <returns></returns>
  192. public Point GetFieldPhysicsConvertToScreen(List<Point> in_list_point, int in_screen_width, int in_screen_height, Point in_physics_point)
  193. {
  194. //先确定单个物理坐标的宽和高
  195. Rectangle rect_onefield_wl = GetOneFieldWidthAndHeight(in_list_point);
  196. //找出最小的x,y用来做偏移运算
  197. int i_offset_x = 1000000000;
  198. int i_offset_y = 1000000000;
  199. //先取出最小的x,y
  200. for (int i = 0; i < in_list_point.Count; i++)
  201. {
  202. if (i_offset_x > in_list_point[i].X)
  203. {
  204. i_offset_x = in_list_point[i].X;
  205. }
  206. if (i_offset_y > in_list_point[i].Y)
  207. {
  208. i_offset_y = in_list_point[i].Y;
  209. }
  210. }
  211. List<Point> list_point = new List<Point>();
  212. //将各Field的OTS坐标与屏幕左上角的坐标进行相减,取出与屏幕左上角的偏移量,也就是取出了屏幕坐标
  213. int index = 0;
  214. for (int i = 0; i < in_list_point.Count; i++)
  215. {
  216. list_point.Add(new Point(in_list_point[i].X - i_offset_x, in_list_point[i].Y - i_offset_y));
  217. //根据物理坐标的对应关系,找到了在数组中的位置,下面将用该位置对应得出像素坐标的位置,并进行返回
  218. if (in_list_point[i] == in_physics_point)
  219. {
  220. index = i;
  221. }
  222. }
  223. //再将物理像素list_point换算成像素list_point,再用index定位
  224. for (int i = 0; i < list_point.Count; i++)
  225. {
  226. //将单个物理像素变换成屏幕像素分辨率
  227. int i_bs_x = 0;
  228. int i_bs_y = 0;
  229. if (rect_onefield_wl.Width != 0)
  230. i_bs_x = list_point[i].X / rect_onefield_wl.Width;
  231. if (rect_onefield_wl.Height != 0)
  232. i_bs_y = list_point[i].Y / rect_onefield_wl.Height;
  233. //再将屏幕像素分辨率按倍数赋值给list_point
  234. //考虑到OTS坐标整体是Y轴向上为正,所以这里需要根据总高,减y轴就是向上为正
  235. list_point[i] = new Point(in_screen_width * i_bs_x, in_screen_height * i_bs_y);
  236. }
  237. #region Y轴向上为正转换---------------------------------------------------------------------------------------
  238. //但上面由于相减,会出现y轴为负的情况,所以这里要根据Y轴是否出现负值,再次做偏移运算
  239. //找到最小的y轴,也就是 [Y轴偏移量]
  240. int i_offset_y_second = 100000000;
  241. //找到最大的Y轴,用于做相反运算,Y轴向上
  242. int i_screen_y = -100000000;
  243. for (int i = 0; i < list_point.Count; i++)
  244. {
  245. if (i_offset_y_second > list_point[i].Y)
  246. {
  247. i_offset_y_second = list_point[i].Y;//这个偏移Y就是最小的Y,可能是负数,也可能是0
  248. }
  249. if (i_screen_y < list_point[i].Y)
  250. {
  251. i_screen_y = list_point[i].Y;
  252. }
  253. }
  254. //对Y轴进行反转,OTS坐标向屏幕坐标转换
  255. for (int i = 0; i < list_point.Count; i++)
  256. {
  257. list_point[i] = new Point(list_point[i].X, i_screen_y - list_point[i].Y);
  258. }
  259. //再将所有的Field与这个 [Y轴偏移量] 相加,防止OTS向上为正转换屏幕坐标,造成的Y轴为负的情况
  260. for (int i = 0; i < list_point.Count; i++)
  261. {
  262. list_point[i] = new Point(list_point[i].X, list_point[i].Y + Math.Abs(i_offset_y_second));
  263. }
  264. #endregion Y轴向上为正转换结束--------------------------------------------------------------------------
  265. return list_point[index];
  266. }
  267. /// <summary>
  268. /// 计算单个field的物理大小 传入field的list,还有测量结果管理类对象,在无法计算出单file的物理大小的情况下,到这里取再计算得出
  269. /// </summary>
  270. /// <returns></returns>
  271. public Rectangle GetOneFieldWidthAndHeight(List<Point> in_list_point)
  272. {
  273. int i_wl_width_max = -10000000;
  274. int i_wl_height_max = -10000000;
  275. int i_wl_width_max2 = -10000000;
  276. int i_wl_height_max2 = -10000000;
  277. //先找出最大的值,
  278. for (int i = 0; i < in_list_point.Count(); i++)
  279. {
  280. if (i_wl_width_max < in_list_point[i].X)
  281. i_wl_width_max = in_list_point[i].X;
  282. if (i_wl_height_max < in_list_point[i].Y)
  283. i_wl_height_max = in_list_point[i].Y;
  284. }
  285. //再找出第二大的值
  286. for (int i = 0; i < in_list_point.Count(); i++)
  287. {
  288. if (i_wl_width_max2 < in_list_point[i].X && i_wl_width_max != in_list_point[i].X)
  289. i_wl_width_max2 = in_list_point[i].X;
  290. if (i_wl_height_max2 < in_list_point[i].Y && i_wl_height_max != in_list_point[i].Y)
  291. i_wl_height_max2 = in_list_point[i].Y;
  292. }
  293. //需要针对第二大的值,获取时进行判断,感觉这里应该如果并未找到第二大的值的情况下,赋于0值,便于以后进行计算
  294. if (i_wl_width_max2 == -10000000)
  295. i_wl_width_max2 = 0;
  296. if (i_wl_height_max2 == -10000000)
  297. i_wl_height_max2 = 0;
  298. Rectangle ret_rect = new Rectangle(0, 0, i_wl_width_max - i_wl_width_max2, i_wl_height_max - i_wl_height_max2);
  299. //如果最后计算出的宽高有0则重新到测量数据中获取---------------------------------------
  300. if (ret_rect.Width == 0 || ret_rect.Height == 0)
  301. {
  302. //到参数中去取单个宽
  303. double d_onefilesize_width = Convert.ToDouble(((Dictionary<string, object>)resultFile.ResultInfo["SEMStageData"])["scanFieldSize"]);
  304. //然后再用单个宽去计算出高是多少
  305. double d_onefilesize_height = 0;
  306. if (d_onefilesize_width != 0)
  307. d_onefilesize_height = (d_onefilesize_width / 4) * 3;
  308. ret_rect.Width = (int)d_onefilesize_width;
  309. ret_rect.Height = (int)d_onefilesize_height;
  310. }
  311. ///-----------because all the fields 's height/width=0.75 so here we make an enforce. gsp add at 2019/10/31
  312. ///sometimes the gbfields are not conform to this for the cuting and merging operation.
  313. if (ret_rect.Height / ret_rect.Width != 0.75f)
  314. {
  315. ret_rect = new Rectangle(ret_rect.X, ret_rect.Y, ret_rect.Width, (int)(ret_rect.Width * 0.75f));
  316. }
  317. return ret_rect;
  318. }
  319. #endregion
  320. #region 电镜操作相关方法
  321. /// <summary>
  322. /// 连接电镜,分布图使用
  323. /// </summary>
  324. public void ConnectToSEM()
  325. {
  326. log.Trace("(Connection_ForDrawDistrbutionImageAndBSE)" + "Connect to SEM");
  327. if (!m_SEMConnectionState)
  328. {
  329. //和电镜建立通讯连接
  330. m_SEMConnectionState = m_cfun.Connect();
  331. log.Trace("(Connection_ForDrawDistrbutionImageAndBSE)" + "Connect to SEM" + ":--" + m_SEMConnectionState + "---");
  332. ///获取当前电镜的ID号
  333. //m_SEM_ID = m_cfun.get
  334. //log.Trace("(Connection_ForDrawDistrbutionImageAndBSE)" + "ID:" + m_SEM_ID.ToString());
  335. }
  336. else
  337. {
  338. log.Trace("(Connection_ForDrawDistrbutionImageAndBSE)" + ":allready connected, state:" + m_SEMConnectionState);
  339. //断开电镜连接
  340. }
  341. }
  342. /// <summary>
  343. /// 移动电镜到指定的X,Y坐标上,R坐标使用原先的值进行移动
  344. /// </summary>
  345. /// <param name="PositionX"></param>
  346. /// <param name="PositionY"></param>
  347. public void MoveSemToPointXY(double in_PositionX, double in_PositionY)
  348. {
  349. log.Trace("Begin MoveSemToPointXY:(" +in_PositionX.ToString()+","+in_PositionY.ToString()+")");
  350. //首先获取电镜当前的位置,并记录原R值
  351. double ls_PositionX = 0;
  352. double ls_PositionY = 0;
  353. double ls_PositionR = 0;
  354. if (m_SEMConnectionState)
  355. {
  356. m_cfun.GetSemPositionXY(ref ls_PositionX, ref ls_PositionY, ref ls_PositionR);
  357. }
  358. else
  359. {
  360. log.Error("Failed to MoveSemToPointXY" );
  361. }
  362. if (m_SEMConnectionState)
  363. {
  364. m_cfun.MoveSEMToPoint(new Point((int)in_PositionX, (int)in_PositionY), ls_PositionR);
  365. }
  366. }
  367. #endregion
  368. #region //--------------------------------------颗粒分布图相关部份---------------------------------------------------------------------
  369. /// <summary>
  370. /// 传入颗粒的tagid和fieldid,来获取该颗粒下对应的xray数据
  371. /// </summary>
  372. /// <param name="in_clr_tagid"></param>
  373. /// <param name="in_clr_fieldid"></param>
  374. /// <param name="Search_xray"></param>
  375. /// <param name="Analysis_xray"></param>
  376. public void GetXrayByParticleTagIDAndFieldID_ForDrawDistrbutionImageAndBSE(int in_clr_tagid, int in_clr_fieldid, out uint[] Search_xray, out uint[] Analysis_xray, out int xray_id, out List<Element> list_celementchemistryclr)
  377. {
  378. Search_xray = new uint[2000];
  379. Analysis_xray = new uint[2000];
  380. xray_id = 0;
  381. list_celementchemistryclr = new List<Element>();
  382. //防止为空校验判断
  383. if (m_list_COTSFieldMgrClr == null)
  384. return;
  385. Particle particle = m_list_COTSFieldMgrClr.Find(x => x.FieldID == in_clr_fieldid).ParticleList.Find(x => x.ParticleId == in_clr_tagid);
  386. if (particle.XrayId > -1)
  387. {
  388. for (int i = 0; i < 2000; i++)
  389. {
  390. Analysis_xray[i] = BitConverter.ToUInt32(particle.XRayData, i * 4);
  391. }
  392. Search_xray = Analysis_xray;
  393. xray_id = particle.XrayId;
  394. list_celementchemistryclr = particle.ElementList;
  395. }
  396. }
  397. /// <summary>
  398. /// 传入所有的物理field坐标点,和单个物理field的宽高,返回所有field的左上角位置,和整个field组成的rect大小
  399. /// </summary>
  400. /// <param name="in_list_point"></param>
  401. /// <param name="in_width"></param>
  402. /// <param name="in_height"></param>
  403. /// <returns></returns>
  404. public Rectangle GetWlRectTopLeftAndRect(List<Point> in_list_point, int in_width, int in_height)
  405. {
  406. //分别获取整个rect的xy最小值和最大值
  407. int i_rect_x_min = 100000000;
  408. int i_rect_y_min = 100000000;
  409. int i_rect_x_max = -100000000;
  410. int i_rect_y_max = -100000000;
  411. for (int i = 0; i < in_list_point.Count; i++)
  412. {
  413. if (i_rect_x_min > in_list_point[i].X)
  414. i_rect_x_min = in_list_point[i].X;
  415. if (i_rect_y_min > in_list_point[i].Y)
  416. i_rect_y_min = in_list_point[i].Y;
  417. if (i_rect_x_max < in_list_point[i].X)
  418. i_rect_x_max = in_list_point[i].X;
  419. if (i_rect_y_max < in_list_point[i].Y)
  420. i_rect_y_max = in_list_point[i].Y;
  421. }
  422. Rectangle ret_rect = new Rectangle(i_rect_x_min, i_rect_y_min,
  423. i_rect_x_max - i_rect_x_min, i_rect_y_max - i_rect_y_min);
  424. return ret_rect;
  425. }
  426. /// <summary>
  427. /// 根据Field的ID,来获取Field列表中对应FIeld的OTS 坐标
  428. /// </summary>
  429. /// <param name="in_fieldid"></param>
  430. /// <returns></returns>
  431. public Point GetOTSPointByFieldID(List<DField> in_list_dfield, int in_fieldid)
  432. {
  433. Point ret_point = new Point(0, 0);
  434. for (int i = 0; i < in_list_dfield.Count; i++)
  435. {
  436. //这里TagID先代表的是底层返回的ID
  437. if (in_list_dfield[i].FieldID == in_fieldid.ToString())
  438. {
  439. ret_point = new Point(Convert.ToInt32(in_list_dfield[i].OTS_RECT.X), Convert.ToInt32(in_list_dfield[i].OTS_RECT.Y));
  440. }
  441. }
  442. return ret_point;
  443. }
  444. /// <summary>
  445. /// 将OTS坐标转换为Sem 坐标
  446. /// </summary>
  447. /// <param name="POTSCoord"></param>
  448. /// <returns></returns>
  449. public Point ChangeOTSToSemCoord(Point POTSCoord)
  450. {
  451. //first if m_semstagedata is null to get stage inforation
  452. Convert.ToDouble(((Dictionary<string, object>)resultFile.ResultInfo["SEMStageData"])["scanFieldSize"]);
  453. //after obtaining stage info,calc stage point data
  454. Point ret_SEM_point = new Point();
  455. // get center point, um
  456. long xStart = Convert.ToInt64(((Dictionary<string, object>)((Dictionary<string, object>)((Dictionary<string, object>)resultFile.ResultInfo["SEMStageData"])["Members"])["XAxis"])["start"]);
  457. long xEnd = Convert.ToInt64(((Dictionary<string, object>)((Dictionary<string, object>)((Dictionary<string, object>)resultFile.ResultInfo["SEMStageData"])["Members"])["XAxis"])["end"]);
  458. long xCenter = (xStart + xEnd) / 2;
  459. long yStart = Convert.ToInt64(((Dictionary<string, object>)((Dictionary<string, object>)((Dictionary<string, object>)resultFile.ResultInfo["SEMStageData"])["Members"])["YAxis"])["start"]);
  460. long yEnd = Convert.ToInt64(((Dictionary<string, object>)((Dictionary<string, object>)((Dictionary<string, object>)resultFile.ResultInfo["SEMStageData"])["Members"])["YAxis"])["end"]);
  461. long yCenter = (yStart + yEnd) / 2;
  462. // delte = SEM - OTSa
  463. long deltex = xCenter - 0;
  464. long deltey = yCenter - 0;
  465. int xdir = Convert.ToInt32(((Dictionary<string, object>)resultFile.ResultInfo["SEMStageData"])["xAxisDir"]);
  466. int ydir = Convert.ToInt32(((Dictionary<string, object>)resultFile.ResultInfo["SEMStageData"])["yAxisDir"]);
  467. if (xdir == (int)OTS_X_AXIS_DIRECTION.LEFT_TOWARD)
  468. {
  469. ret_SEM_point.X = -1 * (POTSCoord.X - Convert.ToInt32(deltex));
  470. }
  471. else if (xdir == (int)OTS_X_AXIS_DIRECTION.RIGHT_TOWARD)
  472. {
  473. ret_SEM_point.X = POTSCoord.X + Convert.ToInt32(deltex);
  474. }
  475. if (ydir == (int)OTS_Y_AXIS_DIRECTION.UP_TOWARD)
  476. {
  477. ret_SEM_point.Y = POTSCoord.Y + Convert.ToInt32(deltey);
  478. }
  479. else if (ydir == (int)OTS_Y_AXIS_DIRECTION.DOWN_TOWARD)
  480. {
  481. ret_SEM_point.Y = -1 * (POTSCoord.Y - Convert.ToInt32(deltey));
  482. }
  483. return ret_SEM_point;
  484. }
  485. /// <summary>
  486. /// 获取组整个获取分布图和排序图图像数据的底层数据组建方式,的总过程
  487. /// </summary>
  488. public void GetDistrbutionImageAndBSE_Total()
  489. {
  490. string str27 = "开始从底层加载数据....";
  491. str27 = table["str27"].ToString();
  492. m_Control_DrawDistrbutionImageAndBSE.m_frm_userprogress.SetProgressValueAndText(1, str27);
  493. //对底层加载速度进行计时
  494. Stopwatch stopwatch = new Stopwatch();
  495. stopwatch.Start();
  496. string path = resultFile.FilePath;
  497. FieldData fieldData = new FieldData(path);
  498. List<Field> fieldlist = fieldData.GetFieldList();
  499. //防止有时底层返回的Field的List是0,直接返回
  500. if (fieldlist.Count == 0)
  501. {
  502. string str28 = "底层返回视域数据数量为0....";
  503. str28 = table["str28"].ToString();
  504. m_Control_DrawDistrbutionImageAndBSE.m_frm_userprogress.SetProgressValueAndText(100, str28);
  505. return;
  506. }
  507. //底层加载field对象结束
  508. stopwatch.Stop();
  509. TimeSpan timespan = stopwatch.Elapsed;
  510. //重置计数器,对组建和计算图像进行计时
  511. stopwatch.Reset();
  512. stopwatch.Start();
  513. string str29 = "开始组建图像视域....";
  514. str29 = table["str29"].ToString();
  515. m_Control_DrawDistrbutionImageAndBSE.m_frm_userprogress.SetProgressValueAndText(15, str29);
  516. //将field的list对象给全局变量中,供后面获取xray使用,不需要再次重新加载数据,以提升速度
  517. m_list_COTSFieldMgrClr = fieldlist;
  518. //第一次循环,用来计算单个Field的像素分辨率,和将所有的物理位置存放到List当中
  519. List<Point> list_point = new List<Point>();
  520. int i_field_width = 0, i_field_height = 0;
  521. //获取到该field的分辨率大小,循环中都是一样的
  522. if (fieldlist.Count > 0)
  523. {
  524. Bitmap bitmp = DrawFuncation.ReadImageFile(fieldlist[0].FieldImage);
  525. i_field_width = bitmp.Width;
  526. i_field_height = bitmp.Height;
  527. }
  528. for (int i = 0; i < fieldlist.Count(); i++)
  529. {
  530. //然后取出物理坐标,这个一会要与分辨率坐标进行变算一下
  531. Point ls_point = new Point() { X = fieldlist[i].FieldPosX, Y = fieldlist[i].FieldPosY };
  532. list_point.Add(ls_point);
  533. }
  534. //对单个视域的屏幕像素宽高,进行记录
  535. m_Control_DrawDistrbutionImageAndBSE.m_OneField_Screen_BackRectf = new RectangleF(0, 0, i_field_width, i_field_height);
  536. //获取单个OTS视域像素宽高,并进行记录
  537. Rectangle OTS_FieldRect = GetOneFieldWidthAndHeight(list_point);
  538. m_Control_DrawDistrbutionImageAndBSE.m_OneField_OTS_Rectf = OTS_FieldRect;
  539. //计算出整个绘制图像总Rectagnle的大小
  540. m_Control_DrawDistrbutionImageAndBSE.m_backrectf = ConvertAndGetMaxRect(list_point, i_field_width, i_field_height);
  541. string str30 = "计算标尺....";
  542. str30 = table["str30"].ToString();
  543. //更新进度条提示
  544. m_Control_DrawDistrbutionImageAndBSE.m_frm_userprogress.SetProgressValueAndText(18, str30);
  545. #region //标尺相关------------------------------------------------------------------------------
  546. //在此处通过上面的i_field_width,ifield_height和list_point,来计算出个像素与实际物理值的比例
  547. Rectangle ls_jsblrect = GetOneFieldWidthAndHeight(list_point);
  548. //然后用宽度来除以i_field_width 获取单个的像素比例
  549. double d_onepixel_scale = Convert.ToDouble(ls_jsblrect.Width) / Convert.ToDouble(i_field_width);
  550. //再用该比例对标尺进行相应的赋值
  551. m_Control_DrawDistrbutionImageAndBSE.m_f_onepixel_size = (float)d_onepixel_scale;
  552. //对整个物理像素的范围进行获取与设置
  553. Rectangle ls_offsetandtopleftrect = GetWlRectTopLeftAndRect(list_point, ls_jsblrect.Width, ls_jsblrect.Height);
  554. m_Control_DrawDistrbutionImageAndBSE.m_back_wl_rectf = new RectangleF(ls_offsetandtopleftrect.X, ls_offsetandtopleftrect.Y
  555. , ls_offsetandtopleftrect.Width, ls_offsetandtopleftrect.Height);
  556. #endregion //---------------------------------------------------------------------------------------
  557. string str31 = "组建整图数据....";
  558. str31 = table["str31"].ToString();
  559. //更新进度条提示
  560. m_Control_DrawDistrbutionImageAndBSE.m_frm_userprogress.SetProgressValueAndText(20, str31);
  561. //70的进度条给到下面的循环中,计算进度条各分类进度分配
  562. float ls_int_progresscalc = 0;
  563. if (fieldlist.Count > 0)
  564. ls_int_progresscalc = (float)70 / (float)fieldlist.Count;
  565. string str32 = "已完成第";
  566. str32 = table["str32"].ToString();
  567. string str33 = "个视域数据组建,共";
  568. str33 = table["str33"].ToString();
  569. string str34 = "个视域...";
  570. str34 = table["str34"].ToString();
  571. //再通过Field取到对应的Particle,循环一次
  572. for (int i = 0; i < fieldlist.Count(); i++)
  573. {
  574. //更新进度条提示
  575. m_Control_DrawDistrbutionImageAndBSE.m_frm_userprogress.SetProgressValueAndText(20 + (int)(ls_int_progresscalc * (i + 1)), str32 + i.ToString() + str33 + m_list_COTSFieldMgrClr.Count.ToString() + str34);
  576. //先获取该Field中的所有Particle
  577. List<Particle> list_cotsparticleclr = new List<Particle>();
  578. list_cotsparticleclr = fieldlist[i].ParticleList;
  579. //取出该Field的物理坐标,将其转换成对应的屏幕像素坐标,屏幕左上角为原点(0,0)的偏移值,用于后面计算各Segment的位置使用
  580. //应该也就是这里根据OTS坐标转换到屏幕像素坐标,Y轴是反的,所以在这里对从OTS坐标转换成屏幕坐标的地方进行反转!
  581. Point thisfield_point = new Point() { X = fieldlist[i].FieldPosX, Y = fieldlist[i].FieldPosY };
  582. Point offset_point = GetFieldPhysicsConvertToScreen(list_point, i_field_width, i_field_height, thisfield_point);
  583. //保存该Field最终在屏幕上显示的位置及大小
  584. DField df = new DField();
  585. df.FieldID = fieldlist[i].FieldID.ToString();
  586. df.Show_Rect = new Rectangle(offset_point, new Size(i_field_width, i_field_height));
  587. df.Current_Rect = new Rectangle(offset_point, new Size(i_field_width, i_field_height));
  588. df.OTS_RECT = new RectangleF(thisfield_point.X, thisfield_point.Y, OTS_FieldRect.Width, OTS_FieldRect.Height);
  589. m_Control_DrawDistrbutionImageAndBSE.m_list_dfield.Add(df);
  590. //然后将取出的数据,转换成Bitmap对象
  591. Bitmap ls_bt = DrawFuncation.ReadImageFile(fieldlist[i].FieldImage);
  592. //再循环计算所有的Particle对象
  593. foreach (Particle ls_cotsparticleclr in list_cotsparticleclr)
  594. {
  595. //从Clr中获取所有的Segment的List对象
  596. List<Feature> list_cotssegmentclr = new List<Feature>();
  597. list_cotssegmentclr = ls_cotsparticleclr.FeatureList;
  598. //创建颗粒分布图对应的类对象
  599. List<DSegment> list_dsegment = new List<DSegment>();
  600. //创建DParticle颗粒,保存与之对应的颗粒tagid和particleid,为了后面取xray数据及多选时获取多选cotsparticleclr列表
  601. DParticle ls_dp = new DParticle();
  602. ls_dp.CLRTagID = ls_cotsparticleclr.ParticleId;
  603. ls_dp.CLRFieldID = ls_cotsparticleclr.FieldId;
  604. ls_dp.STDTypeID = ls_cotsparticleclr.TypeId;
  605. ls_dp.TypeId = ls_cotsparticleclr.TypeId;
  606. ls_dp.TypeName = ls_cotsparticleclr.TypeName;
  607. ls_dp.XRayId = ls_cotsparticleclr.XrayId;
  608. ls_dp.SEMPosX = ls_cotsparticleclr.SEMPosX;
  609. ls_dp.SEMPosY = ls_cotsparticleclr.SEMPosY;
  610. //获取该颗粒在STD标准库中已分析出化合物对应的颜色
  611. ls_dp.Color = GetColorBySTDTypeIDForBSEAndSorImage(ls_cotsparticleclr.TypeColor, ls_cotsparticleclr.TypeId);
  612. //防止超大颗粒,会让程序死掉
  613. if (list_cotssegmentclr.Count < m_segment_overflownumber)
  614. {
  615. //再循环取出里面所有的segment
  616. foreach (Feature ls_cotssegmentclr in list_cotssegmentclr)
  617. {
  618. #region 创建DSegment对象,并将STD分析出的化合物颜色保存到DSegment对象中
  619. //对Particle里的Segment进行偏移的计算等,创建了DSegment的大小
  620. DSegment ds = new DSegment();
  621. ds.Rect = new Rectangle(ls_cotssegmentclr.Start + offset_point.X,
  622. //i_field_height - ls_cotssegmentclr.GetHeight() + offset_point.Y,//这是让单个Field的图像按Y轴反过来
  623. ls_cotssegmentclr.Height + offset_point.Y,
  624. ls_cotssegmentclr.Length,
  625. 1);
  626. ds.Color = ls_dp.Color;//将线的颜色对应到颗粒的颜色
  627. #endregion
  628. #region //这里是在Field中,抠取出原BSE图像到DSegment中--------------------------------
  629. //ls_bt.RotateFlip(RotateFlipType.Rotate180FlipX);//使用系统带的图像处理方法,进行Y轴的翻转,与上面记录位置对应
  630. //合成图像完成,开始抠取像素-----------------------------------------------------------------
  631. int i_ls_length = ls_cotssegmentclr.Length;
  632. List<Color> ls_list_colors = new List<Color>();
  633. for (int m = 0; m < i_ls_length; m++)
  634. {
  635. //这里实现一下代码保护
  636. int lsjs_x = ls_cotssegmentclr.Start + m;
  637. //int lsjs_y = i_field_height - ls_cotssegmentclr.GetHeight();//这个反转要与上面对应
  638. int lsjs_y = ls_cotssegmentclr.Height;
  639. if (lsjs_x < 0)
  640. lsjs_x = 0;
  641. if (lsjs_x >= i_field_width)
  642. lsjs_x = i_field_width - 1;
  643. if (lsjs_y < 0)
  644. lsjs_y = 0;
  645. if (lsjs_y >= i_field_height)
  646. lsjs_y = i_field_height - 1;
  647. //按理说这里应该加上个横向抠取像素颜色,这里需要再处理一下
  648. ls_list_colors.Add(ls_bt.GetPixel(lsjs_x,
  649. lsjs_y));
  650. }
  651. //保存原BSE图中的颜色列表
  652. ds.List_Colors = ls_list_colors;
  653. #endregion //------------------------------------------------------------------------------
  654. list_dsegment.Add(ds);
  655. //ls_bt.Dispose();
  656. }
  657. }
  658. //设置Particle在0.5F倍数以上时才进行显示
  659. ls_dp.Zoom_DisPlayMultiplier = 0.5f;
  660. ls_dp.Zoom_DisPlay = true;
  661. //将segment对应的设置到particle中
  662. ls_dp.DSegments = list_dsegment;
  663. //并对DParticle相关信息进行计算
  664. ls_dp.Rect = ls_dp.GetRectFromDSegment();
  665. ls_dp.GPath = ls_dp.GetRegionFromDSegments();
  666. ls_dp.SmallRect = ls_dp.GetSmallRectangleFromRect();
  667. //将每个颗粒添加到颗粒分布图中的列表中
  668. m_Control_DrawDistrbutionImageAndBSE.m_list_baseobject.Add(ls_dp);
  669. if (ls_dp.XRayId > -1)
  670. {
  671. m_Control_DrawDistrbutionImageAndBSE.m_list_usebject.Add(ls_dp);
  672. }
  673. }
  674. }
  675. string str35 = "转换分辨率...";
  676. str35 = table["str35"].ToString();
  677. //更新进度条相关显示
  678. m_Control_DrawDistrbutionImageAndBSE.m_frm_userprogress.SetProgressValueAndText(90, str35);
  679. //然后这里还需要计算出,各field的宽和高,帧图边框分别需要显示多少个框
  680. if (i_field_width != 0 && i_field_height != 0)
  681. {
  682. m_Control_DrawDistrbutionImageAndBSE.m_i_grid_showlinesnumber_width = Convert.ToInt32(m_Control_DrawDistrbutionImageAndBSE.BackRectF.Width / i_field_width);
  683. m_Control_DrawDistrbutionImageAndBSE.m_i_grid_showlinesnumber_height = Convert.ToInt32(m_Control_DrawDistrbutionImageAndBSE.BackRectF.Height / i_field_height);
  684. }
  685. string str36 = "完成其它工作...";
  686. str36 = table["str36"].ToString();
  687. //结束组建计算图像计数
  688. stopwatch.Stop();
  689. TimeSpan timespan2 = stopwatch.Elapsed;
  690. m_Control_DrawDistrbutionImageAndBSE.m_frm_userprogress.SetProgressValueAndText(95, str36);
  691. string str37 = "分钟 ";
  692. str37 = table["str37"].ToString();
  693. string str38 = "秒 共(";
  694. str38 = table["str38"].ToString();
  695. string str39 = ")毫秒";
  696. str39 = table["str39"].ToString();
  697. //相关计数
  698. m_field_count = fieldlist.Count;
  699. m_particle_count = m_Control_DrawDistrbutionImageAndBSE.m_list_baseobject.Count;
  700. m_time_str = timespan.TotalMinutes.ToString("0.00") + str37 + timespan.TotalSeconds.ToString("0.00") + str38 + timespan.TotalMilliseconds.ToString() + str39;
  701. m_time_str2 = timespan2.TotalMinutes.ToString("0.00") + str37 + timespan2.TotalSeconds.ToString("0.00") + str38 + timespan2.TotalMilliseconds.ToString() + str39;
  702. }
  703. //读取进度条,虚拟读取,直接通过所有时域
  704. void setPr(float ls_int_progresscalc, string str32, string str33, string str34)
  705. {
  706. for (int i = 0; i < m_list_COTSFieldMgrClr.Count; i++)
  707. {
  708. m_Control_DrawDistrbutionImageAndBSE.m_frm_userprogress.SetProgressValueAndText(20 + (int)(ls_int_progresscalc * (i + 1)), str32 + i.ToString() + str33 + m_list_COTSFieldMgrClr.Count.ToString() + str34);
  709. }
  710. }
  711. /// <summary>
  712. /// 分布图和BSE图中,从底层获取相关结果后,重新组织显示
  713. /// </summary>
  714. /// <param name="ls_cgriddataclr"></param>
  715. public void GetDrawDistrbutionImageAndBSE_ByQuery(OTSIncAReportApp.OTSSampleReportInfo.OTSSampleMeaInfo sourceGridData)
  716. {
  717. var display = sourceGridData.SampleDataList.Find(s => Convert.ToInt32(s.iItemId) == 7);
  718. string display_type = display.itemVal.ToString();
  719. int disinde = display.comboDownList.IndexOf(display_type);
  720. var list = sourceGridData.SampleDataList.Find(s => Convert.ToInt32(s.iItemId) == 10);
  721. string size = list.itemVal.ToString();
  722. int inde = list.comboDownList.IndexOf(size);
  723. string size_cal_method_type = sourceGridData.SampleDataList.Find(s => Convert.ToInt32(s.iItemId) == 13).itemVal.ToString();
  724. string con = "";
  725. switch (size_cal_method_type)
  726. {
  727. case "DMAX":
  728. con = "DMAX";
  729. break;
  730. case "DMIN":
  731. con = "DMIN";
  732. break;
  733. case "Area":
  734. con = "Area";
  735. break;
  736. case "FERET":
  737. con = "DFERET";
  738. break;
  739. }
  740. string min = "0";
  741. string max = "999";
  742. if (inde != 0)
  743. {
  744. max = sourceGridData.SampleDataList.Find(s => Convert.ToInt32(s.iItemId) == 12).itemVal.ToString(); ;
  745. min = sourceGridData.SampleDataList.Find(s => Convert.ToInt32(s.iItemId) == 11).itemVal.ToString(); ;
  746. if (max.ToLower() == "max")
  747. {
  748. max = "999";
  749. }
  750. }
  751. string path = resultFile.FilePath;
  752. ParticleData particleData = new ParticleData(path);
  753. List<Particle> particles = particleData.GetParticleListByCon(con, max, min, disinde);
  754. foreach (DParticle ls_dp in m_Control_DrawDistrbutionImageAndBSE.m_list_baseobject)
  755. {
  756. int dis = 0;
  757. foreach (Particle particle in particles)
  758. {
  759. //找到对应的颗粒,将分类设置进去
  760. if (ls_dp.CLRTagID == particle.ParticleId && ls_dp.CLRFieldID == particle.FieldId)
  761. {
  762. //这里居然添加进来了7个,原来是这里,在底层直接取出了6个相同的颗粒到一起。
  763. ls_dp.ParticleFL = particle.TypeName;
  764. ls_dp.Operator = ParticleOperator.DISPLAY;
  765. dis = 1;
  766. break;
  767. }
  768. }
  769. if (dis == 0)
  770. {
  771. ls_dp.Operator = ParticleOperator.NODISPLAY;
  772. }
  773. }
  774. }
  775. #endregion
  776. #region //--------------------------------------颗粒排序图相关部份---------------------------------------------------------------------
  777. /// <summary>
  778. /// 根据颗粒排序图获取已经选择上的颗粒,返回被选择上的颗粒的列表
  779. /// </summary>
  780. /// <returns></returns>
  781. public List<Particle> GetSelectedParticleList_ForDrawDistrbutionSortImage()
  782. {
  783. List<Particle> ls_list_cotsparticleclr = new List<Particle>();
  784. //防止为空校验判断
  785. if (m_list_COTSFieldMgrClr == null)
  786. {
  787. return ls_list_cotsparticleclr;
  788. }
  789. //先取出,所有被选择的dparticle列表的
  790. List<DParticle> ls_list_dp = new List<DParticle>();
  791. foreach (SortParticleDistribution spd in m_Control_DrawdistrbutionsortImage.m_list_sortparticledistribution)
  792. {
  793. foreach (DParticle ls_dp in spd.List_DParticle)
  794. {
  795. if (ls_dp.Operator == ParticleOperator.SELECTED)
  796. {
  797. ls_list_dp.Add(ls_dp);
  798. }
  799. }
  800. }
  801. //并开始查找包含tagid和fieldid的cotsparticle的对象,保存到list当中
  802. for (int i = 0; i < ls_list_dp.Count(); i++)
  803. {
  804. for (int j = 0; j < m_list_COTSFieldMgrClr.Count(); j++)
  805. {
  806. //先获取该field中的所有particle
  807. List<Particle> list_cotsparticleclr = new List<Particle>();
  808. list_cotsparticleclr = m_list_COTSFieldMgrClr[j].ParticleList;
  809. for (int k = 0; k < list_cotsparticleclr.Count(); k++)
  810. {
  811. if (list_cotsparticleclr[k].ParticleId == ls_list_dp[i].CLRTagID
  812. && list_cotsparticleclr[k].FieldId == ls_list_dp[i].CLRFieldID)
  813. {
  814. //将cotsparticleclr保存到list当中
  815. ls_list_cotsparticleclr.Add(list_cotsparticleclr[k]);
  816. }
  817. }
  818. }
  819. }
  820. return ls_list_cotsparticleclr;
  821. }
  822. /// <summary>
  823. /// 根据传入的fieldid和tagid返回该颗粒的OTS坐标
  824. /// </summary>
  825. /// <param name="in_fieldid"></param>
  826. /// <param name="in_tagid"></param>
  827. /// <returns></returns>
  828. public Point GetOTSPointFromOld_list_sortparticledistribution(int in_fieldid, int in_tagid, Control_DrawDistrbutionSortImage in_control_drawdistrbutionsortimage)
  829. {
  830. Point ret_point = new Point(0, 0);
  831. if (m_list_COTSFieldMgrClr != null)
  832. {
  833. Field field = m_list_COTSFieldMgrClr.Find(x => x.FieldID == in_fieldid);
  834. ret_point = new Point() { X = field.FieldPosX, Y = field.FieldPosY };
  835. }
  836. return ret_point;
  837. }
  838. /// <summary>
  839. /// 排序图获取底层数据,组建整张排序图的总方法过程
  840. /// </summary>
  841. public void GetDistrbutionSortImage_Total()
  842. {
  843. string str48 = "开始从底层加载数据....";
  844. str48 = table["str48"].ToString();
  845. m_Control_DrawdistrbutionsortImage.m_frm_userprogress.SetProgressValueAndText(1, str48);
  846. string path = resultFile.FilePath;
  847. FieldData fieldData = new FieldData(path);
  848. List<Field> fieldlist = fieldData.GetFieldList();
  849. //将field的list对象给全局变量中,供后面获取xray使用
  850. m_list_COTSFieldMgrClr = fieldlist;
  851. string str49 = "开始组建图像资源....";
  852. str49 = table["str49"].ToString();
  853. m_Control_DrawdistrbutionsortImage.m_frm_userprogress.SetProgressValueAndText(15, str49);
  854. //第一次,用来计算,总大小等,获取Field的坐标,id,同时获取对应的ImgClr里的宽高,图像大小
  855. List<Point> list_point = new List<Point>();
  856. int i_field_width = 0, i_field_height = 0;
  857. //获取到该field的分辨率大小,循环中都是一样的
  858. if (fieldlist.Count > 0)
  859. {
  860. Bitmap bitmp = DrawFuncation.ReadImageFile(fieldlist[0].FieldImage);
  861. i_field_width = bitmp.Width;
  862. i_field_height = bitmp.Height;
  863. }
  864. for (int i = 0; i < fieldlist.Count(); i++)
  865. {
  866. //然后取出物理坐标,这个一会要与分辨率坐标进行变算一下
  867. Point ls_point = new Point() { X = fieldlist[i].FieldPosX, Y = fieldlist[i].FieldPosY };
  868. list_point.Add(ls_point);
  869. }
  870. //对单个Field视域的屏幕像素宽高,进行记录
  871. m_Control_DrawdistrbutionsortImage.m_OneField_Screen_BackRectf = new RectangleF(0, 0, i_field_width, i_field_height);
  872. //获取单个OTS视域像素宽高,并进行记录
  873. Rectangle OTS_FieldRect = GetOneFieldWidthAndHeight(list_point);
  874. m_Control_DrawdistrbutionsortImage.m_OneField_OTS_Rectf = OTS_FieldRect;
  875. string str50 = "计算标尺....";
  876. str50 = table["str50"].ToString();
  877. m_Control_DrawdistrbutionsortImage.m_frm_userprogress.SetProgressValueAndText(18, str50);
  878. #region //标尺相关------------------------------------------------------------------------------
  879. //在此处通过上面的i_field_width,ifield_height和list_point,来计算出个像素与实际物理值的比例
  880. Rectangle ls_jsblrect = GetOneFieldWidthAndHeight(list_point);
  881. //然后用宽度来除以i_field_width 获取单个的像素比例
  882. double d_onepixel_scale = Convert.ToDouble(ls_jsblrect.Width) / Convert.ToDouble(i_field_width);
  883. //再用该比例对标尺进行相应的赋值
  884. m_Control_DrawdistrbutionsortImage.m_f_onepixel_size = (float)d_onepixel_scale;
  885. #endregion //---------------------------------------------------------------------------------------
  886. string str51 = "组建整图数据....";
  887. str51 = table["str51"].ToString();
  888. m_Control_DrawdistrbutionsortImage.m_frm_userprogress.SetProgressValueAndText(20, str51);
  889. //70的进度条给到下面的循环中
  890. float ls_int_progresscalc = 0;
  891. if (fieldlist.Count > 0)
  892. ls_int_progresscalc = (float)80 / (float)fieldlist.Count;
  893. string str52 = "已完成第";
  894. str52 = table["str52"].ToString();
  895. string str53 = "个数据,共";
  896. str53 = table["str53"].ToString();
  897. string str54 = "个数据...";
  898. str54 = table["str54"].ToString();
  899. //第二次,再通过Field取到对应的Particle,循环一次
  900. for (int i = 0; i < fieldlist.Count(); i++)
  901. {
  902. m_Control_DrawdistrbutionsortImage.m_frm_userprogress.SetProgressValueAndText(20 + (int)(ls_int_progresscalc * (i + 1)), str52 + i.ToString() + str53 + m_list_COTSFieldMgrClr.Count.ToString() + str54);
  903. //先获取该field中的所有particle
  904. List<Particle> list_cotsparticleclr = new List<Particle>();
  905. list_cotsparticleclr = fieldlist[i].ParticleList;
  906. //取出该Field中,从物理坐标转换到像素坐标后.不知道该算法是否可靠,先进行测试判断
  907. Point offset_point = GetFieldPhysicsConvertToScreen(list_point, i_field_width, i_field_height, new Point() { X = fieldlist[i].FieldPosX, Y = fieldlist[i].FieldPosY });
  908. //然后将取出的数据,转换成Bitmap对象
  909. Bitmap ls_bt = DrawFuncation.ReadImageFile(fieldlist[i].FieldImage);
  910. //再循环取出所有的particle
  911. foreach (Particle ls_cotsparticleclr in list_cotsparticleclr)
  912. {
  913. List<Feature> list_cotssegmentclr = new List<Feature>();
  914. list_cotssegmentclr = ls_cotsparticleclr.FeatureList;
  915. //创建颗粒分布图对应的类对象
  916. List<DSegment> list_dsegment = new List<DSegment>();
  917. //定义particle颗粒,并获取该颗粒与标准库中对应的颜色
  918. DParticle ls_dp = new DParticle();
  919. //ls_dp.Color = DrawFuncation.colorHx16toRGB(GetSTDItemClrByTypeIndex_ForDistrbutionSortImage(ls_cotsparticleclr.GetType()).GetColor());
  920. ls_dp.CLRFieldID = ls_cotsparticleclr.FieldId; //为我封装的颗粒保存上,底层对应的FieldID
  921. ls_dp.CLRTagID = ls_cotsparticleclr.ParticleId; //为我封装的颗粒对象保存上,底层对应的TagID
  922. ls_dp.STDTypeID = ls_cotsparticleclr.TypeId; //为我封装的颗粒对象保存上,类型
  923. ls_dp.TypeId = ls_cotsparticleclr.TypeId;
  924. ls_dp.TypeName = ls_cotsparticleclr.TypeName;
  925. ls_dp.XRayId = ls_cotsparticleclr.XrayId;
  926. ls_dp.SEMPosX = ls_cotsparticleclr.SEMPosX;
  927. ls_dp.SEMPosY = ls_cotsparticleclr.SEMPosY;
  928. ls_dp.Color = GetColorBySTDTypeIDForBSEAndSorImage(ls_cotsparticleclr.TypeColor, ls_cotsparticleclr.TypeId);
  929. //防止segment过多造成程序卡死
  930. if (list_cotssegmentclr.Count < m_segment_overflownumber)
  931. //再循环取出里面所有的segment
  932. foreach (Feature ls_cotssegmentclr in list_cotssegmentclr)
  933. {
  934. //这里的坐标未转换
  935. DSegment ds = new DSegment();
  936. ds.Rect = new Rectangle(ls_cotssegmentclr.Start + offset_point.X,
  937. //i_field_height - ls_cotssegmentclr.GetHeight() + offset_point.Y,
  938. ls_cotssegmentclr.Height + offset_point.Y,
  939. ls_cotssegmentclr.Length,
  940. 1);
  941. //图像上下反了,翻转一下,上下翻转
  942. //ls_bt.RotateFlip(RotateFlipType.Rotate180FlipX);//使用系统带的图像处理方法,进行x轴的翻转
  943. //合成图像完成,开始抠取像素---------------------为显示BSE原图而用--------------------------------------------
  944. int i_ls_length = ls_cotssegmentclr.Length;
  945. List<Color> ls_list_colors = new List<Color>();
  946. for (int m = 0; m < i_ls_length; m++)
  947. {
  948. //这里实现一下代码保护
  949. int lsjs_x = ls_cotssegmentclr.Start + m;
  950. //int lsjs_y = i_field_height - ls_cotssegmentclr.GetHeight();
  951. int lsjs_y = ls_cotssegmentclr.Height;
  952. if (lsjs_x < 0)
  953. lsjs_x = 0;
  954. if (lsjs_x >= i_field_width)
  955. lsjs_x = i_field_width - 1;
  956. if (lsjs_y < 0)
  957. lsjs_y = 0;
  958. if (lsjs_y >= i_field_height)
  959. lsjs_y = i_field_height - 1;
  960. //按理说这里应该加上个横向抠取像素颜色,这里需要再处理一下
  961. ls_list_colors.Add(ls_bt.GetPixel(lsjs_x,
  962. lsjs_y));
  963. }
  964. //---------------------------------------------存入标准库相关的信息------------------------------------------------
  965. ds.Color = ls_dp.Color;//将线的颜色对应到颗粒的颜色
  966. //------------------------------------------------------------------------------------------------------
  967. ds.List_Colors = ls_list_colors;
  968. list_dsegment.Add(ds);
  969. //ls_bt.Dispose();
  970. }
  971. ls_dp.Zoom_DisPlayMultiplier = 0.5f;
  972. ls_dp.Zoom_DisPlay = true;
  973. ls_dp.DSegments = list_dsegment; //将segment对应的设置到particle中
  974. //并对DParticle相关信息进行计算
  975. ls_dp.Rect = ls_dp.GetRectFromDSegment();
  976. ls_dp.GPath = ls_dp.GetRegionFromDSegments();
  977. ls_dp.SmallRect = ls_dp.GetSmallRectangleFromRect();
  978. //将每个颗粒添加到颗粒分布图中的列表中
  979. m_Control_DrawdistrbutionsortImage.m_list_baseobject.Add(ls_dp);
  980. }
  981. }
  982. //--------------然后开始操作分布图定义的结构,接接所有的field,组成一个完整的image的rect大小,定义
  983. }
  984. /// <summary>
  985. /// 根据type,从三种分类的分析库中提取当前分析物的颜色
  986. /// </summary>
  987. /// <param name="in_cotssampleclr"></param>
  988. /// <param name="in_stdtypeid"></param>
  989. /// <returns></returns>
  990. public Color GetColorBySTDTypeIDForBSEAndSorImage(string in_cotssampleclr, int in_stdtypeid)
  991. {
  992. Color ret_c = new Color();
  993. if (in_stdtypeid < 1000)
  994. {
  995. OTSSysSTDMgrClass osc = new OTSSysSTDMgrClass();
  996. //小于1000,使用系统默认分类
  997. ret_c = osc.GetColorByEnum(in_stdtypeid);
  998. }
  999. else if (in_stdtypeid >= 1000)
  1000. {
  1001. //大于等于1000,并且小于10000时,使用用户标准库来分析夹杂物名称
  1002. if (!in_cotssampleclr.Contains("#"))
  1003. {
  1004. ret_c = DrawFuncation.colorHx16toRGB("#" + in_cotssampleclr);//接收必须是#000000的格式
  1005. }
  1006. else
  1007. {
  1008. ret_c = DrawFuncation.colorHx16toRGB(in_cotssampleclr);//接收必须是#000000的格式
  1009. }
  1010. }
  1011. return ret_c;
  1012. }
  1013. /// <summary>
  1014. /// 颗粒排序图中的颗粒,重新组织显示颗粒排序规则
  1015. /// </summary>
  1016. public void GetDistrbutionSortimage_ByQuery(OTSIncAReportApp.OTSSampleReportInfo.OTSSampleMeaInfo sourceGridData)
  1017. {
  1018. List<string> FLNameList = new List<string>();
  1019. //List<int> FLID = new List<int>() { -1,0, 1, 2, 4, 6, 7, 8, 9 };
  1020. List<int> FLID = new List<int>() { 0, 1, 2, 4, 6, 9, 10};
  1021. List<string> NameList = new List<string>();
  1022. int fltype = 0;
  1023. //先清除list
  1024. m_Control_DrawdistrbutionsortImage.m_list_sortparticledistribution.Clear();
  1025. m_Control_DrawdistrbutionsortImage.m_old_list_sortparticledistribution.Clear();
  1026. m_Control_DrawdistrbutionsortImage.m_f_zoom_record = 1;
  1027. //------------------------------------分解结果内容部份------------------------------------
  1028. string display_type = "";
  1029. string con = "";
  1030. var list = sourceGridData.SampleDataList.Find(s => Convert.ToInt32(s.iItemId) == 4);
  1031. string sort_type = list.itemVal.ToString();
  1032. int _type = list.comboDownList.IndexOf(sort_type);
  1033. switch (_type)
  1034. {
  1035. case 0:
  1036. fltype = 0;
  1037. break;
  1038. case 1:
  1039. fltype = 1;
  1040. break;
  1041. case 2:
  1042. fltype = 2;
  1043. display_type = sourceGridData.SampleDataList.Find(s => Convert.ToInt32(s.iItemId) == 13).itemVal.ToString();
  1044. switch (display_type)
  1045. {
  1046. case "DMAX":
  1047. con = "DMAX";
  1048. break;
  1049. case "DMIN":
  1050. con = "DMIN";
  1051. break;
  1052. case "Area":
  1053. con = "Area";
  1054. break;
  1055. case "FERET":
  1056. con = "DFERET";
  1057. break;
  1058. }
  1059. break;
  1060. }
  1061. string path = resultFile.FilePath;
  1062. ParticleData particleData = new ParticleData(path);
  1063. List<Particle> particles = particleData.GetParticleListByCon("", "", "", 0);
  1064. foreach (DParticle ls_dp in m_Control_DrawdistrbutionsortImage.m_list_baseobject)
  1065. {
  1066. int dis = 0;
  1067. foreach (Particle particle in particles)
  1068. {
  1069. //找到对应的颗粒,将分类设置进去
  1070. if (ls_dp.CLRTagID == particle.ParticleId && ls_dp.CLRFieldID == particle.FieldId)
  1071. {
  1072. if (!FLNameList.Contains(particle.TypeName) && particle.TypeName != "")
  1073. {
  1074. FLNameList.Add(particle.TypeName);
  1075. }
  1076. if (fltype == 0)
  1077. {
  1078. ls_dp.ParticleFL = particle.TypeId.ToString();
  1079. }
  1080. if (fltype == 1)
  1081. {
  1082. ls_dp.ParticleFL = particle.TypeName.ToString();
  1083. }
  1084. if (fltype == 2)
  1085. {
  1086. if (con == "DMAX")
  1087. ls_dp.ParticleFL = particle.DMAX.ToString();
  1088. if (con == "DMIN")
  1089. ls_dp.ParticleFL = particle.DMIN.ToString();
  1090. if (con == "Area")
  1091. ls_dp.ParticleFL = particle.Area.ToString();
  1092. if (con == "DFERET")
  1093. ls_dp.ParticleFL = particle.FERET.ToString();
  1094. }
  1095. ls_dp.Operator = ParticleOperator.DISPLAY;
  1096. dis = 1;
  1097. break;
  1098. }
  1099. }
  1100. if (dis == 0)
  1101. {
  1102. ls_dp.Operator = ParticleOperator.NODISPLAY;
  1103. }
  1104. }
  1105. if (fltype == 0)
  1106. {
  1107. //NameList = new List<string>() { table["partcletype0"].ToString(), table["partcletype1"].ToString(), table["partcletype2"].ToString(), table["partcletype4"].ToString(), table["partcletype6"].ToString(), table["partcletype7"].ToString(), table["partcletype8"].ToString(), table["partcletype9"].ToString(), table["partcletype10"].ToString() };
  1108. NameList = new List<string>() {table["partcletype9"].ToString(), table["partcletype10"].ToString() };
  1109. }
  1110. if (fltype == 1)
  1111. {
  1112. NameList = FLNameList;
  1113. }
  1114. if (fltype == 2)
  1115. {
  1116. //获取粒级表
  1117. string flpath = m_Control_DrawdistrbutionsortImage.m_ReportApp.m_RptConfigFile.FileFolderSize + m_Control_DrawdistrbutionsortImage.m_ReportApp.m_RptConfigFile.PartSizeFile;
  1118. DataSet ds = XMLoperate.GetXml(flpath);
  1119. string sizestr = ds.Tables[0].Rows[0]["Sizes"].ToString();
  1120. List<string> sizeList = new List<string>();
  1121. for (int i = 0; i < sizestr.Split(',').Length - 1; i++)
  1122. {
  1123. if (sizestr.Split(',')[i].Length > 0)
  1124. {
  1125. double d1 = Convert.ToDouble(sizestr.Split(',')[i]);
  1126. double d2 = Convert.ToDouble(sizestr.Split(',')[i + 1]);
  1127. sizeList.Add(d1.ToString() + "~" + d2.ToString());
  1128. }
  1129. }
  1130. double d = Convert.ToDouble(sizestr.Split(',')[sizestr.Split(',').Length - 1]);
  1131. sizeList.Add(d.ToString() + "~MAX");
  1132. NameList = sizeList;
  1133. }
  1134. //为颗粒排序图,创建分栏grid
  1135. foreach (string name in NameList)
  1136. {
  1137. SortParticleDistribution sortparticledistribution = new SortParticleDistribution();
  1138. sortparticledistribution.RectF = new RectangleF(m_Control_DrawdistrbutionsortImage.ClientRectangle.X, m_Control_DrawdistrbutionsortImage.ClientRectangle.Y,
  1139. 800, m_Control_DrawdistrbutionsortImage.ClientRectangle.Height);
  1140. sortparticledistribution.ShowStr = name;//设置分类grid
  1141. m_Control_DrawdistrbutionsortImage.m_list_sortparticledistribution.Add(sortparticledistribution);
  1142. }
  1143. //然后再重新将list_baseobject中的颗粒,分别添加到对应的sortgrid中
  1144. foreach (DParticle ls_dp in m_Control_DrawdistrbutionsortImage.m_list_baseobject)
  1145. {
  1146. var sort = m_Control_DrawdistrbutionsortImage.m_list_sortparticledistribution;
  1147. for (int i = 0; i < sort.Count; i++)
  1148. {
  1149. if (fltype == 0)
  1150. {
  1151. if (ls_dp.STDTypeID == FLID[i])
  1152. {
  1153. //将对应的颗粒添加到分栏grid中
  1154. DParticle sort_dp = ls_dp.Clone() as DParticle;
  1155. sort_dp.Rect = sort_dp.GetRectFromDSegment();
  1156. sort[i].List_DParticle.Add(sort_dp);
  1157. break;
  1158. }
  1159. else if (ls_dp.STDTypeID > 10000)
  1160. {
  1161. //将对应的颗粒添加到分栏grid中
  1162. DParticle sort_dp = ls_dp.Clone() as DParticle;
  1163. sort_dp.Rect = sort_dp.GetRectFromDSegment();
  1164. sort[sort.Count - 1].List_DParticle.Add(sort_dp);
  1165. break;
  1166. }
  1167. }
  1168. else if (fltype == 1)
  1169. {
  1170. if (ls_dp.TypeName == NameList[i])
  1171. {
  1172. //将对应的颗粒添加到分栏grid中
  1173. DParticle sort_dp = ls_dp.Clone() as DParticle;
  1174. sort_dp.Rect = sort_dp.GetRectFromDSegment();
  1175. sort[i].List_DParticle.Add(sort_dp);
  1176. break;
  1177. }
  1178. }
  1179. else if (fltype == 2)
  1180. {
  1181. double min = Convert.ToDouble(NameList[i].Split('~')[0]);
  1182. double max = 0;
  1183. if (NameList[i].Split('~')[1].ToLower() != "max")
  1184. { max = Convert.ToDouble(NameList[i].Split('~')[1]); }
  1185. else
  1186. {
  1187. max = 999;
  1188. }
  1189. double size = Convert.ToDouble(ls_dp.ParticleFL);
  1190. if (size <= max && size >= min)
  1191. {
  1192. //将对应的颗粒添加到分栏grid中
  1193. DParticle sort_dp = ls_dp.Clone() as DParticle;
  1194. sort_dp.Rect = sort_dp.GetRectFromDSegment();
  1195. sort[i].List_DParticle.Add(sort_dp);
  1196. break;
  1197. }
  1198. }
  1199. }
  1200. }
  1201. //循环分栏grid,对各分栏grid进行摆放
  1202. for (int i = 0; i < m_Control_DrawdistrbutionsortImage.m_list_sortparticledistribution.Count(); i++)
  1203. {
  1204. //计算y轴,的增量
  1205. float ls_height = 0;
  1206. if (i == 0)
  1207. {
  1208. ls_height = 0;
  1209. }
  1210. else
  1211. {
  1212. ls_height = m_Control_DrawdistrbutionsortImage.m_list_sortparticledistribution[i - 1].RectF.Y +
  1213. m_Control_DrawdistrbutionsortImage.m_list_sortparticledistribution[i - 1].RectF.Height - 10;
  1214. }
  1215. m_Control_DrawdistrbutionsortImage.m_list_sortparticledistribution[i].RectF = new RectangleF(
  1216. m_Control_DrawdistrbutionsortImage.m_list_sortparticledistribution[i].RectF.X,
  1217. m_Control_DrawdistrbutionsortImage.m_list_sortparticledistribution[i].RectF.Y + ls_height,
  1218. m_Control_DrawdistrbutionsortImage.m_list_sortparticledistribution[i].RectF.Width,
  1219. m_Control_DrawdistrbutionsortImage.m_list_sortparticledistribution[i].GetSortGridHeight() + 50);//为每栏的高度增加了50补充,防止图像溢出
  1220. }
  1221. //然后再重新对分栏grid中的颗粒,重新进行摆放
  1222. foreach (SortParticleDistribution ls_spd in m_Control_DrawdistrbutionsortImage.m_list_sortparticledistribution)
  1223. {
  1224. ls_spd.SortDParticle(m_Control_DrawdistrbutionsortImage.FZOOMRecord);
  1225. }
  1226. //最后,将分栏grid,分别存放到old的分栏grid中
  1227. foreach (SortParticleDistribution ls_sortparticledistribution in m_Control_DrawdistrbutionsortImage.m_list_sortparticledistribution)
  1228. {
  1229. SortParticleDistribution old_sortparticledistribution = ls_sortparticledistribution.Clone() as SortParticleDistribution;
  1230. m_Control_DrawdistrbutionsortImage.m_old_list_sortparticledistribution.Add(old_sortparticledistribution);
  1231. foreach (DParticle ls_dp in old_sortparticledistribution.List_DParticle)
  1232. {
  1233. ls_dp.Rect = ls_dp.GetRectFromDSegment();
  1234. }
  1235. }
  1236. }
  1237. #endregion
  1238. }
  1239. }