package ui.view; import classes.*; import ui.controller.Control; import ui.controller.SingletonControl; import ui.model.Model; import javax.swing.*; import java.awt.*; import java.awt.event.*; import java.awt.geom.CubicCurve2D; import java.awt.geom.GeneralPath; import java.awt.geom.Line2D; import java.util.ArrayDeque; import java.util.ArrayList; import java.util.LinkedList; /** * This Class represents a Graph where the User can model the behavior of * elements and switches over time. * * @author Gruppe14 */ public class UnitGraph extends JPanel implements MouseListener, MouseMotionListener, ComponentListener { private static final long serialVersionUID = 1L; public static final int STANDARD_GRAPH_ACCURACY = 100; private GeneralPath graphCurve = new GeneralPath(); private float maximum = 0; // Information shown when a Point is Dragged private String dragInformation = ""; // Points private Point recSize = new Point(8, 8); // Point Size private Graphics2D g2; private CubicCurve2D c = new CubicCurve2D.Double(); private CubicCurve2D cr = new CubicCurve2D.Double(); private CubicCurve2D cl = new CubicCurve2D.Double(); private LinkedList pointList; // Scale for the Graph private double scaleX; private double scaleY; //private float[] arrayOfFloats = null; //private boolean[] arrayOfBooleans = null; private double width = -1; private double height = -1; private boolean isElement = false; private boolean isSwitch = false; private ArrayList tempElements = new ArrayList<>(); private Model model; private Control controller; private Line2D.Double line = null; private boolean pointDrag = false; private boolean init = true; private Point tempP = null; private double x = 0, y = 0; private int x1, x2, y1, y2, ctrlx1, ctrly1, ctrlx2, ctrly2; private int border = 4; private int textWidth = 0; private IGraphedElement current; /** * Constructor. * * @param model the Model * @param control the Controller */ public UnitGraph(final Model model, Control control) { setCursor(Cursor.getPredefinedCursor(Cursor.CROSSHAIR_CURSOR)); this.controller = control; this.model = model; this.pointList = new LinkedList<>(); this.setBackground(Color.WHITE); this.addMouseListener(this); this.addMouseMotionListener(this); this.addComponentListener(this); } /** * Paints all Components on the Canvas. * * @param g Graphics */ public void paintComponent(Graphics g) { super.paintComponent(g); g2 = (Graphics2D) g; RenderingHints rh = new RenderingHints(RenderingHints.KEY_ANTIALIASING, RenderingHints.VALUE_ANTIALIAS_ON); g2.setRenderingHints(rh); g2.setStroke(new BasicStroke(0)); graphCurve.reset(); border = (int) recSize.getX() >> 1; // Draw the Vertical Lines g2.setColor(Color.BLACK); for (int i = border; i < this.getWidth() - border; i += border * 2) { g2.drawLine(i, border, i, this.getHeight() - border); } g2.drawLine(this.getWidth() - border, border, this.getWidth() - border, this.getHeight() - border); for (int i = border; i < this.getHeight() - border; i += border * 2) { g2.drawLine(border, i, this.getWidth() - border, i); } g2.drawLine(border, this.getHeight() - border, this.getWidth() - border, this.getHeight() - border); int effectiveX; if(current!=null)effectiveX=getEffectiveIndex(model, current, model.getCurIteration()); else effectiveX=0; if (isElement) { // fill array with values from the pointList in a HolonElement fillArrayofValue(); if (current != null) { // Draw the Lines g2.setStroke(new BasicStroke(2)); g2.setColor(Color.BLACK); for (int i = 0; i < pointList.size() - 1; i++) { c = buildCurve(pointList.get(i), pointList.get(i + 1)); c.setCurve((x1 * scaleX) + border, (y1 * scaleY) + border, (ctrlx1 * scaleX) + border, (ctrly1 * scaleY) + border, (ctrlx2 * scaleX) + border, (ctrly2 * scaleY) + border, (x2 * scaleX) + border, (y2 * scaleY) + border); graphCurve.append(c, true); } g2.draw(graphCurve); // Draw the Points g2.setColor(Color.BLUE); for (Point aPointList : pointList) { g2.fillOval((int) (aPointList.getX() * scaleX - recSize.getX() / 2) + border, (int) (aPointList.getY() * scaleY - recSize.getY() / 2) + border, (int) recSize.getX(), (int) recSize.getY()); } // Iteration Value //TODO: added function getGraphIterations see if it works textWidth = g.getFontMetrics().stringWidth("" + ((HolonElement)current).getAvailableEnergyAt(model.getCurIteration())/*arrayOfFloats[effectiveX]*/) + 2; if (textWidth + (effectiveX) * (this.getWidth() - (border * 2)) / (/*model.getIterations()*/100 - 1) + 2 + border <= this.getWidth()) { g2.drawString("" + ((HolonElement)current).getAvailableEnergyAt(model.getCurIteration()), (effectiveX) * (this.getWidth() - (border * 2)) / (/*model.getIterations()*/100 - 1) + 2 + border, this.getHeight() - 10); } else { g2.drawString("" + ((HolonElement)current).getAvailableEnergyAt(model.getCurIteration()), (effectiveX) * (this.getWidth() - (border * 2)) / (/*model.getIterations()*/100 - 1) + border - textWidth, this.getHeight() - 10); } } // drag Information if (tempP != null && pointDrag) { dragInformation = "" + convertToValueY(getYValueAt((int) tempP.getX())); textWidth = g.getFontMetrics().stringWidth("" + convertToValueY(getYValueAt((int) tempP.getX()))) + 2; if (textWidth + (tempP.getX() * scaleX) + 10 + border <= this.getWidth()) { g2.drawString(dragInformation, (int) (tempP.getX() * scaleX) + 10 + border, (int) (tempP.getY() * scaleY) + 10); } else { g2.drawString(dragInformation, (int) (tempP.getX() * scaleX) - textWidth, (int) (tempP.getY() * scaleY) + 10); } } /* * // Actual Iteration Point Visualization g2.setColor(Color.RED); * if (arrayOfFloats != null) { for (int i = 0; i < * arrayOfFloats.length; i++) { g2.fillOval((int) (i * width / * (model.getIterations() - 1) * scaleX - recSize.getX() / * 2)+border, (int) (convertToCanvasY((int) arrayOfFloats[i]) * * scaleY - recSize.getY() / 2)+border, (int) recSize.getX(), (int) * recSize.getY()); } } */ } else if (isSwitch) { if (/*arrayOfBooleans*/current != null) {//Technically this test should be unnecessary // array fillen fillArrayofBooleans(); // Draw the Lines g2.setStroke(new BasicStroke(2)); g2.setColor(Color.BLACK); for (int i = 0; i < pointList.size() - 1; i++) { // Left out of bounce if ((i == 1 || i == 2) && pointList.get(i).getX() < 0) { line = new Line2D.Double(border, pointList.get(i).getY() * scaleY, border, pointList.get(i + 1).getY() * scaleY); } // Right out of bounce else if (i == pointList.size() - 4 && pointList.get(pointList.size() - 3).getX() > width) { line = new Line2D.Double(pointList.get(i).getX() * scaleX + border, pointList.get(i).getY() * scaleY, this.getWidth() - border, pointList.get(i + 1).getY() * scaleY); } else if (i == pointList.size() - 3 && pointList.get(pointList.size() - 3).getX() > width) { line = new Line2D.Double(this.getWidth() - border, pointList.get(i).getY() * scaleY, this.getWidth() - border, pointList.get(i + 1).getY() * scaleY); } else if (i == pointList.size() - 2 && pointList.get(pointList.size() - 2).getX() > width) { line = new Line2D.Double(this.getWidth() - border, pointList.get(i).getY() * scaleY, pointList.get(i + 1).getX() * scaleX + border, pointList.get(i + 1).getY() * scaleY); } else { line = new Line2D.Double(pointList.get(i).getX() * scaleX + border, pointList.get(i).getY() * scaleY, pointList.get(i + 1).getX() * scaleX + border, pointList.get(i + 1).getY() * scaleY); } graphCurve.append(line, true); } g2.draw(graphCurve); /* * // Draw the Points g2.setColor(Color.BLUE); for (int i = 0; i * < pointList.size() - 0; i++) { g2.fillOval((int) * (pointList.get(i).getX() * scaleX - recSize.getX() / 2) + * border, (int) (pointList.get(i).getY() * scaleY - * recSize.getY() / 2), (int) recSize.getX(), (int) * recSize.getY()); } */ // Iteration Value g2.setColor(Color.BLUE); textWidth = g.getFontMetrics().stringWidth("" + ((HolonSwitch)current).getState(model.getCurIteration())/*arrayOfBooleans[effectiveX]*/) + 2; if (textWidth + (effectiveX) * (this.getWidth() - (border * 2)) / (/*model.getIterations()*/100 - 1) + 2 + border <= this.getWidth()) { g2.drawString("" + ((HolonSwitch)current).getState(model.getCurIteration()), (effectiveX) * (this.getWidth() - (border * 2)) / (/*model.getIterations()*/100 - 1) + 2 + border, this.getHeight() - 10); } else { g2.drawString("" + ((HolonSwitch)current).getState(model.getCurIteration()), (effectiveX) * (this.getWidth() - (border * 2)) / (/*model.getIterations()*/100 - 1) + border - textWidth, this.getHeight() - 10); } } // When the switch graph is dragged if (tempP != null && pointDrag) { try { int i; for (i = 0; (i * (this.getWidth() - (border * 2)) / (/*model.getIterations()*/100 - 1) + border < getMousePosition().getX()); i++) { } dragInformation = "" + i; textWidth = g.getFontMetrics().stringWidth("" + convertToValueY(getYValueAt((int) tempP.getX()))) + 2; if (textWidth + (tempP.getX() * scaleX) + 10 + border <= this.getWidth()) { g2.drawString(dragInformation, (int) (getMousePosition().getX()) + 10 + border, (int) (getMousePosition().getY() * scaleY) + 10); } else { g2.drawString(dragInformation, (int) (getMousePosition().getX()) - textWidth, (int) (getMousePosition().getY() * scaleY) + 10); } } catch (Exception e) { } } } // Iteration Line TODO: repeat g2.setColor(Color.BLUE); g2.setStroke(new BasicStroke(1)); g2.drawLine(border + (effectiveX) * (this.getWidth() - border * 2) / /*(model.getIterations() - 1)*/100-1, 0, border + (effectiveX) * (this.getWidth() - border * 2) / /*(model.getIterations() - 1)*/100-1, this.getHeight()); // algorithmus controller.calculateStateForTimeStep(model.getCurIteration()); } @Override public void mouseDragged(MouseEvent e) { if (isElement) { elementDragged(e); } else if (isSwitch) { switchDragged(e); } } /** * When a Point of a Holon Element is dragged. * * @param e MouseEvent */ public void elementDragged(MouseEvent e) { if (pointDrag && tempP != null) { // Out of Bounds verhindern int i = pointList.indexOf(tempP); x = (e.getX() - border) / scaleX; y = (e.getY() - border) / scaleY; // y if (e.getY() <= border) { y = 0; } else if (this.getHeight() - border <= e.getY()) { y = (this.getHeight() - border * 2) / scaleY; } // x if (tempP == pointList.getFirst() || tempP == pointList.getLast() || pointList.get(i + 1).getX() < x + 2 || pointList.get(i - 1).getX() > x - 2 || pointList.getFirst().getX() > x - 2 || pointList.getLast().getX() < x + 2) { x = tempP.getX(); } tempP.setLocation(x, y); repaint(); } } /** * When a Point of a switch is dragged. * * @param e MouseEvent */ public void switchDragged(MouseEvent e) { if (pointDrag && tempP != null && tempP != pointList.getFirst() && tempP != pointList.getLast()) { int i = pointList.indexOf(tempP); x = (e.getX() - border) / scaleX; if (pointList.get(i + 1).getY() == tempP.getY()) { // x if (pointList.get(i + 1).getX() <= x + 1 || pointList.get(i - 2).getX() >= x - 1) { x = tempP.getX(); } pointList.get(i - 1).setLocation(x, pointList.get(i - 1).getY()); } else { // x if (pointList.get(i + 2).getX() <= x + 1 || pointList.get(i - 1).getX() >= x - 1) { x = tempP.getX(); } pointList.get(i + 1).setLocation(x, pointList.get(i + 1).getY()); } tempP.setLocation(x, tempP.getY()); repaint(); } } @Override public void mouseMoved(MouseEvent e) { } @Override public void mouseClicked(MouseEvent e) { } @Override public void mouseEntered(MouseEvent e) { } @Override public void mouseExited(MouseEvent e) { } @Override public void mousePressed(MouseEvent e) { if (isElement) { elementPressed(e); } else if (isSwitch) { switchPressed(e); } } /** * When a point of a Holon Element is pressed. * * @param e MouseEvent */ public void elementPressed(MouseEvent e) { boolean added = false; boolean deletePoint = false; int x = (int) ((e.getX() - border) / scaleX); double y = (e.getY() - border) / scaleY; // Click on Point tempP = null; if (pointList != null) { // look if a point was clicked for (Point p : pointList) { if (x >= p.getX() - recSize.getX() / 2 && y >= p.getY() - recSize.getY() / 2 && x <= p.getX() + recSize.getX() / 2 && y <= p.getY() * scaleY + recSize.getY() / 2) { if (e.getButton() == MouseEvent.BUTTON3) {//TODO: test tempP = p; deletePoint = true; } else { pointDrag = true; tempP = p; } } } // New Point if (!pointDrag && e.getButton() != MouseEvent.BUTTON3 && e.getX() != 0 && e.getX() != this.getWidth() / scaleX) { for (int i = 0; i < pointList.size(); i++) { // When a point already exist on this x position if (x == pointList.get(i).getX() || x == width || x == 0) { break; } if (x < pointList.get(i).getX() && !added) { if (e.getY() <= border) { pointList.add(i, new Point((int) (x), 0)); } else { pointList.add(i, new Point((int) (x), (int) y)); } added = true; pointDrag = true; tempP = pointList.get(i); } } } // Delete a Point if (deletePoint && tempP.getX() != 0 && /*(*//*tempP.getX() != this.getWidth() / scaleX || */tempP != pointList.getLast())/*)*/ { pointList.remove(tempP); } repaint(); } } /** * When a point of a Switch is pressed. * * @param e MouseEvent */ public void switchPressed(MouseEvent e) { boolean added = false; boolean deletePoint = false; double x = (e.getX() - border) / scaleX; e.getY(); // Halbe Iterations Distanz double dist = (width / (model.getIterations() - 1)) / 2; // Click on Point tempP = null; if (pointList != null) { for (Point p : pointList) { if (x >= p.getX() - dist * 2 && x <= p.getX() + dist * 2) { if (e.getButton() == MouseEvent.BUTTON3) { tempP = p; deletePoint = true; } else { pointDrag = true; tempP = p; } } } // New Point if (!pointDrag && e.getButton() != MouseEvent.BUTTON3 && x != 0 && x != width) { for (int i = 0; i < pointList.size() && !added; i++) { if (x < pointList.get(i).getX() - dist) { // double p1, p2 um location der points zu bestimmen double p1 = pointList.get(i - 1).getX(); double p2 = pointList.get(i).getX(); // Punkte hinzufügen, je nachdem ob true oder false if (pointList.get(i - 1).getY() != (int) (height / 6) && pointList.get(i).getY() != (int) (height / 6)) { pointList.add(i, new Point((int) ((x + p2) / 2 + dist), (int) (height - height / 6))); pointList.add(i, new Point((int) ((x + p2) / 2 + dist), (int) (height / 6))); pointList.add(i, new Point((int) ((x + p1) / 2 - dist), (int) (height / 6))); pointList.add(i, new Point((int) ((x + p1) / 2 - dist), (int) (height - height / 6))); added = true; } else if (pointList.get(i - 1).getY() == (int) (height / 6) && pointList.get(i).getY() == (int) (height / 6)) { pointList.add(i, new Point((int) ((x + p2) / 2 + dist), (int) (height / 6))); pointList.add(i, new Point((int) ((x + p2) / 2 + dist), (int) (height - height / 6))); pointList.add(i, new Point((int) ((x + p1) / 2 - dist), (int) (height - height / 6))); pointList.add(i, new Point((int) ((x + p1) / 2 - dist), (int) (height / 6))); added = true; } } } } // Delete a Point if (deletePoint && tempP != pointList.getFirst() && tempP != pointList.getLast()) { int i = pointList.indexOf(tempP); // If Right, else if Left if (tempP.getY() == (int) (height / 6) && i < pointList.size() - 1 && i > 0) { pointList.remove(i); pointList.remove(i - 1); pointList.remove(i - 2); pointList.remove(i - 3); } else if (tempP.getY() == (int) (height - height / 6)) { pointList.remove(i + 2); pointList.remove(i + 1); pointList.remove(i); pointList.remove(i - 1); } } repaint(); } } @Override public void mouseReleased(MouseEvent e) { if (pointDrag) { pointDrag = false; tempP = null; } /** * reset the dragInformation. */ dragInformation = ""; repaint(); } /** * When the Component is Resized. * * @param e ComponentEvent */ public void componentResized(ComponentEvent e) { // Wenn ein anderes Element genommen wird if (init) { init = false; // for scale on the first initialisation if (width == -1 && height == -1) { width = this.getWidth() - (border * 2); height = this.getHeight() - (border * 2); } // Scale scaleX = (this.getWidth() - (border * 2)) / width; scaleY = (this.getHeight() - (border * 2)) / height; // set the scroll graph invisible this.getParent().getParent().setVisible(false); } // Scale scaleX = (this.getWidth() - (border * 2)) / width; scaleY = (this.getHeight() - (border * 2)) / height; repaint(); } @Override public void componentHidden(ComponentEvent e) { } @Override public void componentMoved(ComponentEvent e) { } @Override public void componentShown(ComponentEvent e) { } /** * Empty the Graph. */ public void empty() { pointList = null; tempElements = null; current = null; isSwitch = false; isElement = false; repaint(); } /** * Resets the Points for the Element. */ public void reset() { pointList.removeAll(pointList); if (isSwitch) { pointList.addFirst(new Point(-border, (int) (height / 6))); pointList.addLast(new Point((int) ((this.getWidth()) / scaleX), (int) (height / 6))); } else { pointList.addFirst(new Point(0, 0)); pointList.addLast(new Point((int) ((this.getWidth() - (border * 2)) / scaleX), 0)); } repaint(); } /** * converts the number to fit the canvas. * * @param d the number to convert * @return the converted number */ public double convertToCanvasY(float d) { return (height - (d * (height / maximum))); } /** * converts the number to fit the value. * * @param d the number to convert * @return the converted number */ public float convertToValueY(double d) { return (float) Math.round(((height - (height * (d / height))) / (height / maximum)) * 10) / 10; } /** * Visualize the HolonElement on the Graph. * * @param selectedElement which should be visualized */ public void repaintWithNewElement(ArrayList selectedElement) { //arrayOfFloats = selectedElement.get(selectedElement.size() - 1).getAvailableEnergyPerElementAt(); current = selectedElement.get(selectedElement.size()-1); tempElements=selectedElement; pointList = selectedElement.get(selectedElement.size() - 1).getGraphPoints(); isSwitch = false; isElement = true; maximum = getMaximum(selectedElement.get(selectedElement.size() - 1)); // First time clicked on the Element if (pointList.isEmpty()) { pointList.addFirst(new Point(0, 0)); pointList.addLast(new Point((int) ((this.getWidth() - (border * 2)) / scaleX), 0)); } repaint(); } /** * Visualize the Switch on the Graph. * * @param s which should be visualized */ public void repaintWithNewSwitch(HolonSwitch s) { //arrayOfBooleans = s.getValueArray(); current=s; pointList = s.getGraphPoints(); isSwitch = true; isElement = false; // First time clicked on the Element if (pointList.isEmpty()) { pointList.addFirst(new Point(-border, (int) (height / 6))); pointList.addLast(new Point((int) ((this.getWidth()) / scaleX), (int) (height / 6))); } repaint(); } /** * Build a Curve for the Graph. * * @param p1 startpoint * @param p2 endpoint * @return the CubicCurve2D for the Graph */ public CubicCurve2D buildCurve(Point p1, Point p2) { x1 = (int) p1.getX(); y1 = (int) p1.getY(); x2 = (int) p2.getX(); y2 = (int) p2.getY(); // calculate the controllpoints ctrlx1 = x1 + (x2 - x1) / 2; ctrlx2 = x2 - (x2 - x1) / 2; if (y1 < y2) { ctrly1 = y1 + (y2 - y1) / 10; ctrly2 = y2 - (y2 - y1) / 10; } else { ctrly1 = y1 - (y1 - y2) / 10; ctrly2 = y2 + (y1 - y2) / 10; } // set the curve c.setCurve(x1 * scaleX, y1 * scaleY, ctrlx1 * scaleX, ctrly1 * scaleY, ctrlx2 * scaleX, ctrly2 * scaleY, x2 * scaleX, y2 * scaleY); return c; } /** * Fills the Arrays with booleans. */ public void fillArrayofBooleans() { for (int i = 0; i < STANDARD_GRAPH_ACCURACY; i++) { int t = (int) getYValueAt((int) (i * width / (STANDARD_GRAPH_ACCURACY - 1))); if (t <= height / 2) { ((HolonSwitch)current).setActiveAt(i, true); } else { ((HolonSwitch)current).setActiveAt(i, false); } } } /** * Fills the Arrays of each HolonElement. */ @SuppressWarnings("unchecked") public void fillArrayofValue() { for (HolonElement he : tempElements) { maximum = getMaximum(he); he.setGraphPoints((LinkedList) pointList.clone()); for (int i = 0; i < STANDARD_GRAPH_ACCURACY; i++) {//!!!!! he.setAvailableEnergyPerElementAt(i, convertToValueY(getYValueAt2((int) (i * width / (100 - 1))))); //he.getAvailableEnergyPerElementAt()[i] = convertToValueY(getYValueAt2((int) (i * width / (100 - 1)))); } //arrayOfFloats = he.getAvailableEnergyPerElementAt(); } } /** * Get the Y Value at the x Coordination. * * @param xVal the x value for the y value * @return y, the value at x */ public float getYValueAt(int xVal) { for (int i = 0; i < pointList.size() - 1; i++) { // get the Points if (xVal <= pointList.get(i + 1).getX()) { // Curve erstellen Line2D l1 = new Line2D.Double(pointList.get(i).getX(), pointList.get(i).getY(), pointList.get(i + 1).getX(), pointList.get(i + 1).getY()); Line2D l2 = new Line2D.Double(xVal, 0, xVal, height); return getIntersectionPoint(l1, l2); } } return 0; } /** * Get y value at the x Coordination via curves. * * @param xVal the x value for the y value * @return y value at x */ public float getYValueAt2(int xVal) { for (int i = 0; i < pointList.size() - 1; i++) { // get the Points if (xVal >= pointList.get(i).getX()) { // Curve erstellen c = buildCurve(pointList.get(i), pointList.get(i + 1)); c.subdivide(cl, cr); // Teil der Kurve aussuchen if (cl.getX1() <= xVal * scaleX && cl.getX2() > xVal * scaleX) { c = cl; // Kurve Links von "unten" if (pointList.get(i).getY() >= pointList.get(i + 1).getY()) { for (float j = (float) (height - 1); j >= 0; j -= 0.1f) { if (c.contains(xVal * scaleX, j * scaleY)) { return (float) (j); } } } else {// Kurve Links von "oben" for (float j = 0; j < height; j += 0.1f) { if (c.contains(xVal * scaleX, j * scaleY)) { return (float) (j); } } } } else { c = cr; // Kurve Links von "unten" if (pointList.get(i).getY() >= pointList.get(i + 1).getY()) { for (float j = 0; j < height; j += 0.1f) { if (c.contains(xVal * scaleX, j * scaleY)) { return (float) (j); } } } else {// Kurve Links von "oben" for (float j = (float) (height - 1); j >= 0; j -= 0.1f) { if (c.contains(xVal * scaleX, j * scaleY)) { return (float) (j); } } } } } } // else return getYValueAt(xVal); } /** * Get the Intersection Point of 2 Lines. * * @param l1 the first Line * @param l2 the second Line * @return The Intersection Point */ public float getIntersectionPoint(Line2D l1, Line2D l2) { if (!l1.intersectsLine(l2)) { return 0;// null; } double px = l1.getX1(), py = l1.getY1(), rx = l1.getX2() - px, ry = l1.getY2() - py; double qx = l2.getX1(), qy = l2.getY1(), sx = l2.getX2() - qx, sy = l2.getY2() - qy; double det = sx * ry - sy * rx; if (det == 0) { return 0;// null; } else { double z = (sx * (qy - py) + sy * (px - qx)) / det; if (z < 0 || z > 1) { return 0;// new Point(0, 0); // intersection at end point! } return (float) (py + z * ry);// new Point((int) (px + z * rx), (int) // (py + z * ry)); } } // end intersection line-line public void update(ArrayList obj) { ArrayDeque queue = new ArrayDeque<>(); AbstractCpsObject u = null; queue.addAll(obj); while (!queue.isEmpty()) { u = queue.pop(); repaintGraph(u); } empty(); if (u instanceof CpsUpperNode) for (AbstractCpsObject adjacent : ((CpsUpperNode) u).getNodes()) { queue.add(adjacent); } } void repaintGraph(AbstractCpsObject u) { ArrayList list = new ArrayList<>(); if (u instanceof HolonObject) { for (HolonElement ele : ((HolonObject) u).getElements()) { list.add(ele); repaintWithNewElement(list); fillArrayofValue(); list.remove(0); } } else if (u instanceof HolonSwitch) { repaintWithNewSwitch((HolonSwitch) u); fillArrayofBooleans(); } } float getMaximum(HolonElement ele) { if (ele.isFlexible()) { return ele.getFlexibleEnergyAvailablePerElement(); } else { return ele.getEnergyPerElement(); } } /** * sets the localPeriod of the Current Graph * @param localPeriod */ public void setLocalPeriod(int localPeriod){ if(isElement)for(IGraphedElement e:tempElements)e.setLocalPeriod(localPeriod); else if(isSwitch)current.setLocalPeriod(localPeriod); } /** * gets the LocalPeriod of the CurrentGraph * @return localPeriod of the current Element or Switch */ public int getLocalPeriod(){ if(current!=null)return current.getLocalPeriod(); else return model.getGraphIterations();//TODO: maybe rename } public boolean isStretching(){ return current.isStretching(); } public void setStretching(boolean b){ if(isElement)for(IGraphedElement e:tempElements)e.setStretching(b); else if(isSwitch)current.setStretching(b); } static int lv=0; /** * Determines the index of the internal value array * of an element that should be used, since elements only save 100 values, * but iterations and local period can be anything between 1 and 100000. * * @param m the corresponding model. * @param e the element for which the calculation should be made. * @param timeStep the iteration for which the calculation should be made. * @return */ public static int getEffectiveIndex(Model m, IGraphedElement e, int timeStep){ if(e.isStretching())return timeStep*100/(m==null?STANDARD_GRAPH_ACCURACY:m.getIterations()); else return timeStep%e.getLocalPeriod()*100/e.getLocalPeriod(); } /** * Same as getEffectiveIndex(Model, IGraphedElement, int), * but using the Model obtained from the singleton controller * to determine the total number of iterations(for "use global"). */ public static int getEffectiveIndex(IGraphedElement e, int timeStep){ return getEffectiveIndex(SingletonControl.getInstance().getControl()==null?null:SingletonControl.getInstance().getControl().getModel(),e,timeStep); } /** * Same as getEffectiveIndex(Model, IGraphedElement), * but the current iteration is also obtained from the standard model. */ public static int getEffectiveIndex(IGraphedElement e){ return getEffectiveIndex(e,SingletonControl.getInstance().getControl().getModel().getCurIteration()); } }