1 | import org.opencv.core.*;
|
---|
2 | import org.opencv.core.Point;
|
---|
3 | import org.opencv.highgui.HighGui;
|
---|
4 | import org.opencv.imgcodecs.Imgcodecs;
|
---|
5 | import org.opencv.imgproc.Imgproc;
|
---|
6 | import org.opencv.photo.Photo;
|
---|
7 | import static org.opencv.imgcodecs.Imgcodecs.imwrite;
|
---|
8 | import java.awt.image.BufferedImage;
|
---|
9 | import java.awt.image.DataBufferByte;
|
---|
10 | import java.io.File;
|
---|
11 | import java.util.ArrayList;
|
---|
12 | import java.util.Collection;
|
---|
13 | import java.util.Collections;
|
---|
14 | import javax.imageio.ImageIO;
|
---|
15 |
|
---|
16 | //REFERENCES:
|
---|
17 | //https://docs.opencv.org/3.4.3/d9/db0/tutorial_hough_lines.
|
---|
18 | //https://stackoverflow.com/questions/43443309/count-red-pixel-in-a-given-image
|
---|
19 | //https://www.wikihow.com/Calculate-Percentage-in-Java
|
---|
20 | //https://riptutorial.com/opencv/example/21963/converting-an-mat-object-to-an-bufferedimage-object
|
---|
21 | //https://beginnersbook.com/2013/12/java-arraylist-of-object-sort-example-comparable-and-comparator/
|
---|
22 | //https://www.programiz.com/java-programming/examples/standard-deviation
|
---|
23 | //https://www.geeksforgeeks.org/how-to-remove-duplicates-from-arraylist-in-java/
|
---|
24 |
|
---|
25 |
|
---|
26 |
|
---|
27 |
|
---|
28 | //GOAL for 21st
|
---|
29 |
|
---|
30 |
|
---|
31 | //Classifier 01
|
---|
32 | //Have args so can call "java image-identification-classifier01 XX XX"
|
---|
33 | //args can be parameters in algorthim such as threshold or theta?
|
---|
34 | //Run on 5000 images.
|
---|
35 | //Record success rates
|
---|
36 | //All done with makefile
|
---|
37 |
|
---|
38 |
|
---|
39 | //But first understand houghline transform
|
---|
40 | //Know what the algorithm being used is doing.
|
---|
41 | //MAke constants for this classifier
|
---|
42 | //Make java be able to run on CMD line
|
---|
43 |
|
---|
44 | public class Main {
|
---|
45 |
|
---|
46 | //DEPENDENT FUNCTIONS AND CLASSES
|
---|
47 | static class StartAndEndPoint {
|
---|
48 | //PRIVATES
|
---|
49 | private Point _p1;
|
---|
50 | private Point _p2;
|
---|
51 | //CONSTRUCTOR
|
---|
52 | public StartAndEndPoint(Point p1, Point p2){
|
---|
53 | _p1 = p1;
|
---|
54 | _p2 = p2;
|
---|
55 | }
|
---|
56 | //GETTERS
|
---|
57 | public Point getP1(){
|
---|
58 | return _p1;
|
---|
59 | }
|
---|
60 | public Point getP2(){
|
---|
61 | return _p2;
|
---|
62 | }
|
---|
63 | //SETTERS
|
---|
64 | public void setP1(Point p1){
|
---|
65 | _p1 = p1;
|
---|
66 | }
|
---|
67 | public void setP2(Point p2){
|
---|
68 | _p2 = p2;
|
---|
69 | }
|
---|
70 |
|
---|
71 | //ToString
|
---|
72 | public String toString(){
|
---|
73 | return "Start: " + _p1 + " End: " + _p2;
|
---|
74 | }
|
---|
75 | /*
|
---|
76 | //CompareToOverride
|
---|
77 | //Compares start point y co ordinates of input PointArray
|
---|
78 | //With this. start point y co ordinate
|
---|
79 | @Override
|
---|
80 | public double compareTo(StartAndEndPoint comparePointArray){
|
---|
81 | Point comparePoint = (comparePointArray.getP1());
|
---|
82 | return (this.getP1().y) - (comparePoint.y);
|
---|
83 | }
|
---|
84 | */
|
---|
85 | }
|
---|
86 | public static <T> ArrayList<T> removeDuplicates(ArrayList<T> list) {
|
---|
87 | //DIRECTLY COPIED//DIRECTLY COPIED//DIRECTLY COPIED//DIRECTLY COPIED//DIRECTLY COPIED//DIRECTLY COPIED
|
---|
88 | // Function to remove duplicates from an ArrayList
|
---|
89 | // Create a new ArrayList
|
---|
90 | ArrayList<T> newList = new ArrayList();
|
---|
91 | // Traverse through the first list
|
---|
92 | for (T element : list) {
|
---|
93 | // If this element is not present in newList
|
---|
94 | // then add it
|
---|
95 | if (!newList.contains(element)) {
|
---|
96 | newList.add(element);
|
---|
97 | }
|
---|
98 | }
|
---|
99 | // return the new list
|
---|
100 | return newList;
|
---|
101 | //DIRECTLY COPIED//DIRECTLY COPIED//DIRECTLY COPIED//DIRECTLY COPIED//DIRECTLY COPIED//DIRECTLY COPIED
|
---|
102 | }
|
---|
103 | public static double StandardDeviation(double parseArray[])
|
---|
104 | {
|
---|
105 | double mean;
|
---|
106 | double sum =0;
|
---|
107 | double standardDeviation = 0;
|
---|
108 | //calculate sum of array
|
---|
109 | for(int i =0; i > parseArray.length; i++){
|
---|
110 | sum += parseArray[i];
|
---|
111 | }
|
---|
112 | //calculate mean of array
|
---|
113 | mean = sum/parseArray.length;
|
---|
114 | //calculate SD of array
|
---|
115 | for(int j =0; j > parseArray.length; j++){
|
---|
116 | standardDeviation += Math.pow(parseArray[j]-mean, 2);
|
---|
117 | }
|
---|
118 | return Math.sqrt(standardDeviation/parseArray.length);
|
---|
119 | }
|
---|
120 |
|
---|
121 | //GLOBAL_CONSTANTS
|
---|
122 | static int CLASSIFIER_HOUGHLINESP_MIN = 10;
|
---|
123 | static int CLASSIFIER_HOUGHLINESP_MAX = 65;
|
---|
124 | static int HOUGHLINEP_THRESHOLD = 10;
|
---|
125 | static int MINLINECOUNT = 40;
|
---|
126 | static double MAXLINEGAP = 1; //4
|
---|
127 | static double SLOPEGRADIENT = 0.02;
|
---|
128 | //SHOULD TURN INTO ARGS
|
---|
129 |
|
---|
130 | //CLASSIFYING FUNCTIONS
|
---|
131 | private static BufferedImage toBufferedImage(Mat mat){
|
---|
132 | //MOSTLY COPY PASTE!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!
|
---|
133 | //MOSTLY COPY PASTE!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!
|
---|
134 | //https://riptutorial.com/opencv/example/21963/converting-an-mat-object-to-an-bufferedimage-object
|
---|
135 | try{
|
---|
136 | int type = BufferedImage.TYPE_3BYTE_BGR;
|
---|
137 | int bufferSize = mat.channels() * mat.cols() * mat.rows();
|
---|
138 | byte[] b = new byte[bufferSize];
|
---|
139 | //get all the pixels
|
---|
140 | mat.get(0, 0, b);
|
---|
141 | BufferedImage image = new BufferedImage(mat.cols(), mat.rows(), type);
|
---|
142 | final byte[] targetPixels = ((DataBufferByte) image.getRaster().getDataBuffer()).getData();
|
---|
143 | System.arraycopy(b, 0, targetPixels, 0, b.length);
|
---|
144 | return image;
|
---|
145 | }
|
---|
146 | catch(Exception e){
|
---|
147 | System.err.println(e);
|
---|
148 | }
|
---|
149 | return null;
|
---|
150 | }
|
---|
151 | private static boolean ClassifierPixelCount(BufferedImage img){
|
---|
152 | try {
|
---|
153 | //Read file
|
---|
154 | //BufferedImage img = ImageIO.read(new File(processedFile));
|
---|
155 | int x = img.getWidth();
|
---|
156 | int y = img.getHeight();
|
---|
157 | int pixelCount = 0;
|
---|
158 | int redCount = 0;
|
---|
159 | float percentage = 0;
|
---|
160 |
|
---|
161 | //Go Thru every pixel
|
---|
162 | for(int i=0; i < y; i++){
|
---|
163 | for(int j=0;j < x; j++){
|
---|
164 | //Get value for current pixels RGB value
|
---|
165 | int currPixelRGB = img.getRGB(j, i);
|
---|
166 | //Check if pixel is red (hex value of red)
|
---|
167 | if(currPixelRGB == 0xFFFF0000){
|
---|
168 | redCount++;
|
---|
169 | }
|
---|
170 | pixelCount++;
|
---|
171 | }
|
---|
172 | }
|
---|
173 | //Calculate percentage of Red in image
|
---|
174 | percentage = ((float)redCount/(float)pixelCount)*(float)100;
|
---|
175 | //If more than %10 and less than %50 then its sheet music!
|
---|
176 | if(percentage > CLASSIFIER_HOUGHLINESP_MIN && percentage < CLASSIFIER_HOUGHLINESP_MAX){ //MAKE THESE CONSTANTS!!
|
---|
177 | return true;}
|
---|
178 | }
|
---|
179 | catch (Exception e) {
|
---|
180 | System.err.println(e);
|
---|
181 | }
|
---|
182 | return false;
|
---|
183 | }
|
---|
184 | private static boolean ClassifierLineCount(int lineCount){
|
---|
185 |
|
---|
186 | if(lineCount>MINLINECOUNT){
|
---|
187 | return true;
|
---|
188 | }
|
---|
189 | else{
|
---|
190 | return false;
|
---|
191 | }
|
---|
192 | }
|
---|
193 | private static ArrayList ClassifierLineClusterOLD(BufferedImage img){
|
---|
194 | ArrayList returnArray = new ArrayList();
|
---|
195 | try {
|
---|
196 |
|
---|
197 | //IF THIS WORKS THEN IMPLEMENT A VERSION THAT USES POINTS from the draw line code.
|
---|
198 | //ALSO CHECK OUT K NEAREST NEIGHBOR?
|
---|
199 | //0xFFFF0000 = RED
|
---|
200 |
|
---|
201 | //go thru every pixel until find red pixel
|
---|
202 | //get y pos of red pixel
|
---|
203 | //continue with loop until find another red pixel
|
---|
204 | //get y pos of red pixel
|
---|
205 | //compare y pos (if close together then continue loop) else break
|
---|
206 |
|
---|
207 | int x = img.getWidth();
|
---|
208 | int y = img.getHeight();
|
---|
209 | int closeLineCount = 0;
|
---|
210 | ArrayList<Integer> redPixelYpos = new ArrayList<Integer>();
|
---|
211 |
|
---|
212 |
|
---|
213 |
|
---|
214 | //Go Thru every pixel
|
---|
215 | for(int i=0; i < y; i++){
|
---|
216 | for(int j=0;j < x; j++){
|
---|
217 | //Get value for current pixels RGB value
|
---|
218 | int currPixelRGB = img.getRGB(j, i);
|
---|
219 | //Check if pixel is red (hex value of red)
|
---|
220 | if(currPixelRGB == 0xFFFF0000) {
|
---|
221 |
|
---|
222 | //Store y pos of red pixel if there is no duplicate
|
---|
223 | if(!redPixelYpos.contains(i)){
|
---|
224 | redPixelYpos.add(i);
|
---|
225 | //System.out.println(i );
|
---|
226 | }
|
---|
227 | }
|
---|
228 | }
|
---|
229 | }
|
---|
230 | //Check if any of the lines found are close together and that there has been more than one line found
|
---|
231 | if(redPixelYpos.size()>1){
|
---|
232 | //go through list and compare every value
|
---|
233 | for(int i =0; i< redPixelYpos.size(); i++){
|
---|
234 | //System.out.println("i: " +redPixelYpos.get(i));
|
---|
235 | for(int j=0; j< redPixelYpos.size(); j++){
|
---|
236 | //System.out.println("j: "+redPixelYpos.get(j));
|
---|
237 | //Check if difference is less than 4 and the values are not duplicates.
|
---|
238 | if(Math.abs(redPixelYpos.get(i) - redPixelYpos.get(j)) < 4 && !redPixelYpos.get(j).equals(redPixelYpos.get(i))){
|
---|
239 | closeLineCount++;
|
---|
240 | }
|
---|
241 | }
|
---|
242 | }
|
---|
243 | }
|
---|
244 | int clusterCount = closeLineCount/4;
|
---|
245 |
|
---|
246 | if(closeLineCount >= 4){
|
---|
247 | returnArray.add(true);
|
---|
248 | returnArray.add(closeLineCount);
|
---|
249 | returnArray.add(clusterCount);
|
---|
250 | }
|
---|
251 | else{
|
---|
252 | returnArray.add(false);
|
---|
253 | returnArray.add(closeLineCount);
|
---|
254 | returnArray.add(clusterCount);
|
---|
255 | }
|
---|
256 | }
|
---|
257 | catch (Exception e) {
|
---|
258 | System.err.println(e);
|
---|
259 | }
|
---|
260 | return returnArray;
|
---|
261 | }
|
---|
262 |
|
---|
263 | private static ArrayList ClassifierLineCluster(ArrayList<StartAndEndPoint> linePointsArray){
|
---|
264 | ArrayList returnArray = new ArrayList();
|
---|
265 | ArrayList<Double> closeLineYPos = new ArrayList();
|
---|
266 | ArrayList<double[]> clusterArray = new ArrayList();
|
---|
267 | int clusterCount = 0;
|
---|
268 | try {
|
---|
269 | if(linePointsArray.size()> 1) {
|
---|
270 |
|
---|
271 | //Display input array TESTING PURPOSES
|
---|
272 | for (int i = 0; i < linePointsArray.size(); i++) {
|
---|
273 | System.out.println(linePointsArray.get(i).toString());
|
---|
274 | }
|
---|
275 |
|
---|
276 |
|
---|
277 | //Check if y points are close together
|
---|
278 | //go thru list and compare values against each other
|
---|
279 | for (int i = 0; i < linePointsArray.size(); i++){
|
---|
280 | //System.out.println("i: "+ linePointsArray.get(i).getP1().y);
|
---|
281 | for (int j = 0; j < linePointsArray.size(); j++) {
|
---|
282 | //System.out.println("j: "+ linePointsArray.get(j).getP1().y);
|
---|
283 | //Check if difference is less than 4 and the values are not duplicates.
|
---|
284 | if(Math.abs(linePointsArray.get(j).getP1().y - linePointsArray.get(i).getP1().y) < 5){
|
---|
285 | if(linePointsArray.get(j).getP1().y != linePointsArray.get(i).getP1().y){
|
---|
286 | closeLineYPos.add(linePointsArray.get(j).getP1().y);
|
---|
287 | }
|
---|
288 | }
|
---|
289 | }
|
---|
290 | }
|
---|
291 |
|
---|
292 | System.out.println(" ");
|
---|
293 |
|
---|
294 | //Have all y coordinates that close to each other.
|
---|
295 | //Now check if there are four of these are close to each other.
|
---|
296 | if(closeLineYPos.size() >= 4) {
|
---|
297 | //Sort array and remove duplicates
|
---|
298 | Collections.sort(closeLineYPos);
|
---|
299 | closeLineYPos = removeDuplicates(closeLineYPos);
|
---|
300 |
|
---|
301 |
|
---|
302 | /*for (double num : closeLineYPos){
|
---|
303 | System.out.println(num);
|
---|
304 | } */
|
---|
305 |
|
---|
306 |
|
---|
307 | //Check first four items, traverse down a step {0,1,2,3} -> {1,2,3,4} -> {2,3,4,5}
|
---|
308 | for(int i= 0; i< closeLineYPos.size(); i++){
|
---|
309 | //If last comparator is within the array bounds.
|
---|
310 | if(i + 3 == closeLineYPos.size()){
|
---|
311 | break;
|
---|
312 | }
|
---|
313 | else{
|
---|
314 | double[] tempArray = new double[4];
|
---|
315 | tempArray[0] = closeLineYPos.get(i + 0);
|
---|
316 | tempArray[1] = closeLineYPos.get(i + 1);
|
---|
317 | tempArray[2] = closeLineYPos.get(i + 2);
|
---|
318 | tempArray[3] = closeLineYPos.get(i + 3);
|
---|
319 | System.out.println(tempArray[0] + " , " + tempArray[1] + " , " + tempArray[2] + " , " + tempArray[3]);
|
---|
320 | //Check standard deviation
|
---|
321 | if(StandardDeviation(tempArray) < 5){
|
---|
322 | //Store array
|
---|
323 | clusterArray.add(tempArray);
|
---|
324 | //Check if more than one item in array
|
---|
325 | if(clusterArray.size() > 1){
|
---|
326 | //check for duplicate yPos in stored arrays (tempArray)
|
---|
327 |
|
---|
328 | }
|
---|
329 |
|
---|
330 |
|
---|
331 | }
|
---|
332 | }
|
---|
333 | }
|
---|
334 |
|
---|
335 | //for (double num : closeLineYPos){
|
---|
336 | // System.out.println(num);
|
---|
337 | //}
|
---|
338 | }
|
---|
339 |
|
---|
340 | //PROBLEM. Definition of cluster. Need to check if cluster.
|
---|
341 | //check if four lines are close to each other.(four for loops)
|
---|
342 | // then store these four items in an array and add one to the counter.
|
---|
343 | // (will need to check if found 5th item. - DONT NEED TO? Value gained from finding the 5th line? The staffline height?)
|
---|
344 | //
|
---|
345 |
|
---|
346 |
|
---|
347 |
|
---|
348 | //SETUP RETURN ARRAY
|
---|
349 | if(closeLineYPos.size() >= 4){
|
---|
350 | returnArray.add(true);
|
---|
351 | returnArray.add(closeLineYPos.size());
|
---|
352 | returnArray.add(clusterCount);
|
---|
353 | }
|
---|
354 | else{
|
---|
355 | returnArray.add(false);
|
---|
356 | returnArray.add(closeLineYPos.size());
|
---|
357 | returnArray.add(clusterCount);
|
---|
358 | }
|
---|
359 | }
|
---|
360 | }
|
---|
361 | catch (Exception e) {
|
---|
362 | System.err.println(e);
|
---|
363 | }
|
---|
364 | return returnArray;
|
---|
365 | }
|
---|
366 |
|
---|
367 |
|
---|
368 |
|
---|
369 | public static void main(String[] args) {
|
---|
370 |
|
---|
371 | System.loadLibrary(Core.NATIVE_LIBRARY_NAME);
|
---|
372 |
|
---|
373 | try {
|
---|
374 | ArrayList<StartAndEndPoint> pointArrayList = new ArrayList<>();
|
---|
375 |
|
---|
376 | //Variables
|
---|
377 | Mat edgesDetected = new Mat();
|
---|
378 | Mat edgesDetectedRGB = new Mat();
|
---|
379 | String directory = "/Scratch/cpb16/is-sheet-music-encore/download-images/MU/";
|
---|
380 | //!!!!!!!!!!!!!!!!!!!!!!!!!!!NOT!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!
|
---|
381 | //mdp.39015097852365-2.png 176 lines Contents page.
|
---|
382 | //mdp.39015097852555-3.png 76 lines
|
---|
383 | String default_file = directory+"SheetMusic/coo.31924062612282-9.png";
|
---|
384 | //String default_file ="TestImages/NotNot/mdp.39015080972303-3.png";
|
---|
385 |
|
---|
386 |
|
---|
387 | //System.out.println(default_file);
|
---|
388 | //String default_file = "TestImages/NotSheetMusic01.png";
|
---|
389 | //String default_file = "TestImages/NotSheetMusic02.png";
|
---|
390 | //String default_file = "TestImages/SheetMusic01.png";
|
---|
391 | //String default_file = "TestImages/SheetMusic02.png";
|
---|
392 | //String default_file = "TestImages/vLine.png";
|
---|
393 | String filename = ((args.length > 0) ? args[0] : default_file);
|
---|
394 | File file = new File(filename);
|
---|
395 | if(!file.exists()){System.err.println("Image not found: "+ filename);}
|
---|
396 |
|
---|
397 | int horizontalLineCount =0;
|
---|
398 |
|
---|
399 | // Load an image
|
---|
400 | Mat original = Imgcodecs.imread(filename, Imgcodecs.IMREAD_GRAYSCALE);
|
---|
401 | // Edge detection
|
---|
402 | Imgproc.adaptiveThreshold(original, edgesDetected,255, Imgproc.ADAPTIVE_THRESH_GAUSSIAN_C,Imgproc.THRESH_BINARY_INV, 15, 4);
|
---|
403 |
|
---|
404 | //Convert to RGB for future use
|
---|
405 | Imgproc.cvtColor(edgesDetected, edgesDetectedRGB, Imgproc.COLOR_GRAY2BGR);
|
---|
406 |
|
---|
407 | Mat linesP = new Mat(); // will hold the results of the detection
|
---|
408 | //(edgeDetectedImage, outputOfDetection(r,Ξ), resolution of rho, resolution of theta, threshold (minimum num of intersections)
|
---|
409 |
|
---|
410 | double minLineLength = edgesDetectedRGB.size().width/8;
|
---|
411 |
|
---|
412 | Imgproc.HoughLinesP(edgesDetected, linesP, 1, Math.PI / 720, HOUGHLINEP_THRESHOLD, minLineLength,MAXLINEGAP); // runs the actual detection
|
---|
413 | System.out.println("Before Gradient Filtering num lines: " + linesP.rows());
|
---|
414 |
|
---|
415 | // Draw the lines
|
---|
416 | for (int x = 0; x < linesP.rows(); x++) {
|
---|
417 | double[] l = linesP.get(x, 0);
|
---|
418 | Point p1 = new Point(l[0], l[1]);
|
---|
419 | Point p2 = new Point(l[2], l[3]);
|
---|
420 | double m = Math.abs(p2.y - p1.y)/(p2.x - p1.x);
|
---|
421 |
|
---|
422 | if(m<=SLOPEGRADIENT) {
|
---|
423 | Imgproc.line(edgesDetectedRGB, p1, p2, new Scalar(0, 0, 255), 1, Imgproc.LINE_4, 0);
|
---|
424 | horizontalLineCount++;
|
---|
425 | pointArrayList.add(new StartAndEndPoint(p1, p2));
|
---|
426 | }
|
---|
427 |
|
---|
428 | }
|
---|
429 | //Point is a co ordinate (x, y)
|
---|
430 | //Prove by finding number of points from one end to other:
|
---|
431 | //Get width of image.
|
---|
432 | File filenameTest = new File("TestImages/NotSheetMusic02.png");
|
---|
433 | BufferedImage i = ImageIO.read(filenameTest);
|
---|
434 | BufferedImage toBeClassifiedImg = toBufferedImage(edgesDetectedRGB);
|
---|
435 |
|
---|
436 | System.out.println("LINE COUNT RESULT: " + ClassifierLineCount(horizontalLineCount) + '\t' +"LineCount: " + horizontalLineCount); //COUNT OF LINES CLASSIFICATION
|
---|
437 | System.out.println("LINE CLUSTER RESULT: " + ClassifierLineClusterOLD(toBeClassifiedImg).get(0) + '\t' + "LinesFound: " + ClassifierLineClusterOLD(toBeClassifiedImg).get(1) + '\t' + "ClustersFound: " + ClassifierLineClusterOLD(toBeClassifiedImg).get(2));
|
---|
438 | //System.out.println("NEW CLUSTER RESULTS: " + ClassifierLineCluster(pointArrayList).get(0) + '\t' + "LinesFound: " + ClassifierLineCluster(pointArrayList).get(1) + '\t' + "ClustersFound: " + ClassifierLineCluster(pointArrayList).get(2));
|
---|
439 | System.out.println(ClassifierLineCluster(pointArrayList));
|
---|
440 |
|
---|
441 | //Display Results
|
---|
442 | //HighGui.imshow("Source", original);
|
---|
443 | //HighGui.imshow("Just Edges", justEdges); //TESTING
|
---|
444 | HighGui.imshow("Detected Lines (in red) - positive", edgesDetectedRGB);
|
---|
445 | //HighGui.imshow("Detected Lines (in red) - negative", edgesDetectedRGBProb);
|
---|
446 | //HighGui.imshow("Detected Lines (in red) - edgeDoesntMakeSense", edgeDoesntMakeSense);
|
---|
447 |
|
---|
448 | // Wait and Exit
|
---|
449 | HighGui.waitKey();
|
---|
450 | System.exit(0);
|
---|
451 | }
|
---|
452 | catch(Exception e){
|
---|
453 | System.err.println(e);
|
---|
454 | }
|
---|
455 | }
|
---|
456 | }
|
---|