Edit C:\Program Files\Java\jdk1.8.0_121\com\sun\javafx\geom\RectangularShape.java
/* * Copyright (c) 1997, 2013, Oracle and/or its affiliates. All rights reserved. * ORACLE PROPRIETARY/CONFIDENTIAL. Use is subject to license terms. * * * * * * * * * * * * * * * * * * * * */ package com.sun.javafx.geom; import com.sun.javafx.geom.transform.BaseTransform; /** * <code>RectangularShape</code> is the base class for a number of * {@link Shape} objects whose geometry is defined by a rectangular frame. * This class does not directly specify any specific geometry by * itself, but merely provides manipulation methods inherited by * a whole category of <code>Shape</code> objects. * The manipulation methods provided by this class can be used to * query and modify the rectangular frame, which provides a reference * for the subclasses to define their geometry. * * @version 1.26, 05/05/07 */ public abstract class RectangularShape extends Shape { /** * This is an abstract class that cannot be instantiated directly. * * @see Arc2D * @see Ellipse2D * @see Rectangle2D * @see RoundRectangle2D */ protected RectangularShape() { } /** * Returns the X coordinate of the upper-left corner of * the framing rectangle in <code>double</code> precision. * @return the X coordinate of the upper-left corner of * the framing rectangle. */ public abstract float getX(); /** * Returns the Y coordinate of the upper-left corner of * the framing rectangle in <code>double</code> precision. * @return the Y coordinate of the upper-left corner of * the framing rectangle. */ public abstract float getY(); /** * Returns the width of the framing rectangle in * <code>double</code> precision. * @return the width of the framing rectangle. */ public abstract float getWidth(); /** * Returns the height of the framing rectangle * in <code>double</code> precision. * @return the height of the framing rectangle. */ public abstract float getHeight(); /** * Returns the smallest X coordinate of the framing * rectangle of the <code>Shape</code> in <code>double</code> * precision. * @return the smallest X coordinate of the framing * rectangle of the <code>Shape</code>. */ public float getMinX() { return getX(); } /** * Returns the smallest Y coordinate of the framing * rectangle of the <code>Shape</code> in <code>double</code> * precision. * @return the smallest Y coordinate of the framing * rectangle of the <code>Shape</code>. */ public float getMinY() { return getY(); } /** * Returns the largest X coordinate of the framing * rectangle of the <code>Shape</code> in <code>double</code> * precision. * @return the largest X coordinate of the framing * rectangle of the <code>Shape</code>. */ public float getMaxX() { return getX() + getWidth(); } /** * Returns the largest Y coordinate of the framing * rectangle of the <code>Shape</code> in <code>double</code> * precision. * @return the largest Y coordinate of the framing * rectangle of the <code>Shape</code>. */ public float getMaxY() { return getY() + getHeight(); } /** * Returns the X coordinate of the center of the framing * rectangle of the <code>Shape</code> in <code>double</code> * precision. * @return the X coordinate of the center of the framing rectangle * of the <code>Shape</code>. */ public float getCenterX() { return getX() + getWidth() / 2f; } /** * Returns the Y coordinate of the center of the framing * rectangle of the <code>Shape</code> in <code>double</code> * precision. * @return the Y coordinate of the center of the framing rectangle * of the <code>Shape</code>. */ public float getCenterY() { return getY() + getHeight() / 2f; } /** * Determines whether the <code>RectangularShape</code> is empty. * When the <code>RectangularShape</code> is empty, it encloses no * area. * @return <code>true</code> if the <code>RectangularShape</code> is empty; * <code>false</code> otherwise. */ public abstract boolean isEmpty(); /** * Sets the location and size of the framing rectangle of this * <code>Shape</code> to the specified rectangular values. * * @param x the X coordinate of the upper-left corner of the * specified rectangular shape * @param y the Y coordinate of the upper-left corner of the * specified rectangular shape * @param w the width of the specified rectangular shape * @param h the height of the specified rectangular shape * @see #getFrame */ public abstract void setFrame(float x, float y, float w, float h); /** * Sets the location and size of the framing rectangle of this * <code>Shape</code> to the specified {@link Point2D} and * {@link Dimension2D}, respectively. The framing rectangle is used * by the subclasses of <code>RectangularShape</code> to define * their geometry. * @param loc the specified <code>Point2D</code> * @param size the specified <code>Dimension2D</code> * @see #getFrame */ public void setFrame(Point2D loc, Dimension2D size) { setFrame(loc.x, loc.y, size.width, size.height); } /** * Sets the diagonal of the framing rectangle of this <code>Shape</code> * based on the two specified coordinates. The framing rectangle is * used by the subclasses of <code>RectangularShape</code> to define * their geometry. * * @param x1 the X coordinate of the start point of the specified diagonal * @param y1 the Y coordinate of the start point of the specified diagonal * @param x2 the X coordinate of the end point of the specified diagonal * @param y2 the Y coordinate of the end point of the specified diagonal */ public void setFrameFromDiagonal(float x1, float y1, float x2, float y2) { if (x2 < x1) { float t = x1; x1 = x2; x2 = t; } if (y2 < y1) { float t = y1; y1 = y2; y2 = t; } setFrame(x1, y1, x2 - x1, y2 - y1); } /** * Sets the diagonal of the framing rectangle of this <code>Shape</code> * based on two specified <code>Point2D</code> objects. The framing * rectangle is used by the subclasses of <code>RectangularShape</code> * to define their geometry. * * @param p1 the start <code>Point2D</code> of the specified diagonal * @param p2 the end <code>Point2D</code> of the specified diagonal */ public void setFrameFromDiagonal(Point2D p1, Point2D p2) { setFrameFromDiagonal(p1.x, p1.y, p2.x, p2.y); } /** * Sets the framing rectangle of this <code>Shape</code> * based on the specified center point coordinates and corner point * coordinates. The framing rectangle is used by the subclasses of * <code>RectangularShape</code> to define their geometry. * * @param centerX the X coordinate of the specified center point * @param centerY the Y coordinate of the specified center point * @param cornerX the X coordinate of the specified corner point * @param cornerY the Y coordinate of the specified corner point */ public void setFrameFromCenter(float centerX, float centerY, float cornerX, float cornerY) { float halfW = Math.abs(cornerX - centerX); float halfH = Math.abs(cornerY - centerY); setFrame(centerX - halfW, centerY - halfH, halfW * 2f, halfH * 2f); } /** * Sets the framing rectangle of this <code>Shape</code> based on a * specified center <code>Point2D</code> and corner * <code>Point2D</code>. The framing rectangle is used by the subclasses * of <code>RectangularShape</code> to define their geometry. * @param center the specified center <code>Point2D</code> * @param corner the specified corner <code>Point2D</code> */ public void setFrameFromCenter(Point2D center, Point2D corner) { setFrameFromCenter(center.x, center.y, corner.x, corner.y); } /** * {@inheritDoc} */ public boolean contains(Point2D p) { return contains(p.x, p.y); } /** * {@inheritDoc} */ public RectBounds getBounds() { float width = getWidth(); float height = getHeight(); if (width < 0 || height < 0) { return new RectBounds(); } float x = getX(); float y = getY(); float x1 = (float)Math.floor(x); float y1 = (float)Math.floor(y); float x2 = (float)Math.ceil(x + width); float y2 = (float)Math.ceil(y + height); return new RectBounds(x1, y1, x2, y2); } /** * Returns an iterator object that iterates along the * <code>Shape</code> object's boundary and provides access to a * flattened view of the outline of the <code>Shape</code> * object's geometry. * <p> * Only SEG_MOVETO, SEG_LINETO, and SEG_CLOSE point types will * be returned by the iterator. * <p> * The amount of subdivision of the curved segments is controlled * by the <code>flatness</code> parameter, which specifies the * maximum distance that any point on the unflattened transformed * curve can deviate from the returned flattened path segments. * An optional {@link BaseTransform} can * be specified so that the coordinates returned in the iteration are * transformed accordingly. * @param tx an optional <code>BaseTransform</code> to be applied to the * coordinates as they are returned in the iteration, * or <code>null</code> if untransformed coordinates are desired. * @param flatness the maximum distance that the line segments used to * approximate the curved segments are allowed to deviate * from any point on the original curve * @return a <code>PathIterator</code> object that provides access to * the <code>Shape</code> object's flattened geometry. */ public PathIterator getPathIterator(BaseTransform tx, float flatness) { return new FlatteningPathIterator(getPathIterator(tx), flatness); } @Override public String toString() { return getClass().getName() + "[x=" + getX() + ",y=" + getY() + ",w=" + getWidth() + ",h=" + getHeight() + "]"; } }
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