import {
Circle,
Ellipse,
PI_2,
Point,
Polygon,
Rectangle,
RoundedRectangle,
Matrix,
} from '@pixi/math';
import { hex2rgb } from '@pixi/utils';
import {
Texture,
Shader,
UniformGroup, State,
} from '@pixi/core';
import FillStyle from './styles/FillStyle';
import GraphicsGeometry from './GraphicsGeometry';
import LineStyle from './styles/LineStyle';
import BezierUtils from './utils/BezierUtils';
import QuadraticUtils from './utils/QuadraticUtils';
import ArcUtils from './utils/ArcUtils';
import Star from './utils/Star';
import { BLEND_MODES } from '@pixi/constants';
import { Container } from '@pixi/display';
import { LINE_JOIN } from '../../constants/src';
const temp = new Float32Array(3);
/**
* a default shader used by graphics..
*/
let defaultShader = null;
/**
* The Graphics class contains methods used to draw primitive shapes such as lines, circles and
* rectangles to the display, and to color and fill them.
*
* @class
* @extends PIXI.Container
* @memberof PIXI
*/
export default class Graphics extends Container
{
/**
* @param {PIXI.GraphicsGeometry} [geometry=null] - Geometry to use, if omitted
* will create a new GraphicsGeometry instance.
*/
constructor(geometry = null)
{
super();
/**
* Includes vertex positions, face indices, normals, colors, UVs, and
* custom attributes within buffers, reducing the cost of passing all
* this data to the GPU. Can be shared between multiple Mesh or Graphics objects.
* @member {PIXI.Geometry}
*/
this.geometry = geometry || new GraphicsGeometry();
/**
* Represents the vertex and fragment shaders that processes the geometry and runs on the GPU.
* Can be shared between multiple Graphics objects.
* @member {PIXI.Shader}
*/
this.shader = null;
/**
* Represents the webGL state the Graphics required to render, excludes shader and geometry. E.g.,
* blend mode, culling, depth testing, direction of rendering triangles, backface, etc.
* @member {PIXI.State}
*/
this.state = State.for2d();
/**
* If this Graphics object owns the GraphicsGeometry
*
* @member {boolean}
* @private
*/
this._ownsGeometry = geometry === null;
/**
* Current fill style
*
* @member {PIXI.FillStyle}
* @private
*/
this._fillStyle = new FillStyle();
/**
* Current line style
*
* @member {PIXI.LineStyle}
* @private
*/
this._lineStyle = new LineStyle();
/**
* Current shape transform matrix.
*
* @member {PIXI.Matrix}
* @private
*/
this._matrix = null;
/**
* Current hole mode is enabled.
*
* @member {boolean}
* @default false
* @private
*/
this._holeMode = false;
/**
* Current path
*
* @member {PIXI.Polygon}
* @private
*/
this.currentPath = null;
/**
* When cacheAsBitmap is set to true the graphics object will be rendered as if it was a sprite.
* This is useful if your graphics element does not change often, as it will speed up the rendering
* of the object in exchange for taking up texture memory. It is also useful if you need the graphics
* object to be anti-aliased, because it will be rendered using canvas. This is not recommended if
* you are constantly redrawing the graphics element.
*
* @name cacheAsBitmap
* @member {boolean}
* @memberof PIXI.Graphics#
* @default false
*/
/**
* A collections of batches! These can be drawn by the renderer batch system.
*
* @private
* @member {object[]}
*/
this.batches = [];
/**
* Update dirty for limiting calculating tints for batches.
*
* @private
* @member {number}
* @default -1
*/
this.batchTint = -1;
/**
* Copy of the object vertex data.
*
* @private
* @member {Float32Array}
*/
this.vertexData = null;
this._transformID = -1;
this.batchDirty = -1;
// Set default
this.tint = 0xFFFFFF;
this.blendMode = BLEND_MODES.NORMAL;
}
/**
* Creates a new Graphics object with the same values as this one.
* Note that the only the properties of the object are cloned, not its transform (position,scale,etc)
*
* @return {PIXI.Graphics} A clone of the graphics object
*/
clone()
{
this.finishPoly();
return new Graphics(this.geometry);
}
/**
* The blend mode to be applied to the graphic shape. Apply a value of
* `PIXI.BLEND_MODES.NORMAL` to reset the blend mode.
*
* @member {number}
* @default PIXI.BLEND_MODES.NORMAL;
* @see PIXI.BLEND_MODES
*/
set blendMode(value)
{
this.state.blendMode = value;
}
get blendMode()
{
return this.state.blendMode;
}
/**
* The tint applied to the graphic shape. This is a hex value. A value of
* 0xFFFFFF will remove any tint effect.
*
* @member {number}
* @default 0xFFFFFF
*/
get tint()
{
return this._tint;
}
set tint(value)
{
this._tint = value;
}
/**
* The current fill style.
*
* @member {PIXI.FillStyle}
* @readonly
*/
get fill()
{
return this._fillStyle;
}
/**
* The current line style.
*
* @member {PIXI.LineStyle}
* @readonly
*/
get line()
{
return this._lineStyle;
}
/**
* Specifies the line style used for subsequent calls to Graphics methods such as the lineTo()
* method or the drawCircle() method.
*
* @param {number} [width=0] - width of the line to draw, will update the objects stored style
* @param {number} [color=0] - color of the line to draw, will update the objects stored style
* @param {number} [alpha=1] - alpha of the line to draw, will update the objects stored style
* @param {number} [alignment=1] - alignment of the line to draw, (0 = inner, 0.5 = middle, 1 = outter)
* @param {boolean} [native=false] - If true the lines will be draw using LINES instead of TRIANGLE_STRIP
* @param {string} [lineJoin='miter'] - shape used to join two line segments where they meet
* @return {PIXI.Graphics} This Graphics object. Good for chaining method calls
*/
lineStyle(width = 0, color = 0, alpha = 1, alignment = 0.5, native = false, lineJoin = LINE_JOIN.MITER)
{
this.lineTextureStyle(width, Texture.WHITE, color, alpha, null, alignment, native, lineJoin);
return this;
}
/**
* Like line style but support texture for line fill.
*
* @param {number} [width=0] - width of the line to draw, will update the objects stored style
* @param {PIXI.Texture} [texture=PIXI.Texture.WHITE] - Texture to use
* @param {number} [color=0] - color of the line to draw, will update the objects stored style
* @param {number} [alpha=1] - alpha of the line to draw, will update the objects stored style
* @param {PIXI.Matrix} [matrix=null] Texture matrix to transform texture
* @param {number} [alignment=0.5] - alignment of the line to draw, (0 = inner, 0.5 = middle, 1 = outter)
* @param {boolean} [native=false] - If true the lines will be draw using LINES instead of TRIANGLE_STRIP
* @param {string} [lineJoin='miter'] - shape used to join two line segments where they meet
* @return {PIXI.Graphics} This Graphics object. Good for chaining method calls
*/
lineTextureStyle(width = 0, texture = Texture.WHITE, color = 0xFFFFFF, alpha = 1,
matrix = null, alignment = 0.5, native = false, lineJoin = LINE_JOIN.MITER)
{
if (this.currentPath)
{
this.startPoly();
}
const visible = width > 0 && alpha > 0;
if (!visible)
{
this._lineStyle.reset();
}
else
{
if (matrix)
{
matrix = matrix.clone();
matrix.invert();
}
Object.assign(this._lineStyle, {
color,
width,
alpha,
matrix,
texture,
alignment,
native,
visible,
lineJoin,
});
}
return this;
}
/**
* Start a polygon object internally
* @private
*/
startPoly()
{
if (this.currentPath)
{
const points = this.currentPath.points;
const len = this.currentPath.points.length;
if (len > 2)
{
this.drawShape(this.currentPath);
this.currentPath = new Polygon();
this.currentPath.closed = false;
this.currentPath.points.push(points[len - 2], points[len - 1]);
}
}
else
{
this.currentPath = new Polygon();
this.currentPath.closed = false;
}
}
/**
* Finish the polygon object.
* @private
*/
finishPoly()
{
if (this.currentPath)
{
if (this.currentPath.points.length > 2)
{
this.drawShape(this.currentPath);
this.currentPath = null;
}
else
{
this.currentPath.points.length = 0;
}
}
}
/**
* Moves the current drawing position to x, y.
*
* @param {number} x - the X coordinate to move to
* @param {number} y - the Y coordinate to move to
* @return {PIXI.Graphics} This Graphics object. Good for chaining method calls
*/
moveTo(x, y)
{
this.startPoly();
this.currentPath.points[0] = x;
this.currentPath.points[1] = y;
return this;
}
/**
* Draws a line using the current line style from the current drawing position to (x, y);
* The current drawing position is then set to (x, y).
*
* @param {number} x - the X coordinate to draw to
* @param {number} y - the Y coordinate to draw to
* @return {PIXI.Graphics} This Graphics object. Good for chaining method calls
*/
lineTo(x, y)
{
if (!this.currentPath)
{
this.moveTo(0, 0);
}
// remove duplicates..
const points = this.currentPath.points;
const fromX = points[points.length - 2];
const fromY = points[points.length - 1];
if (fromX !== x || fromY !== y)
{
points.push(x, y);
}
return this;
}
/**
* Initialize the curve
*
* @private
* @param {number} [x=0]
* @param {number} [y=0]
*/
_initCurve(x = 0, y = 0)
{
if (this.currentPath)
{
if (this.currentPath.points.length === 0)
{
this.currentPath.points = [x, y];
}
}
else
{
this.moveTo(x, y);
}
}
/**
* Calculate the points for a quadratic bezier curve and then draws it.
* Based on: https://stackoverflow.com/questions/785097/how-do-i-implement-a-bezier-curve-in-c
*
* @param {number} cpX - Control point x
* @param {number} cpY - Control point y
* @param {number} toX - Destination point x
* @param {number} toY - Destination point y
* @return {PIXI.Graphics} This Graphics object. Good for chaining method calls
*/
quadraticCurveTo(cpX, cpY, toX, toY)
{
this._initCurve();
const points = this.currentPath.points;
if (points.length === 0)
{
this.moveTo(0, 0);
}
QuadraticUtils.curveTo(cpX, cpY, toX, toY, points);
return this;
}
/**
* Calculate the points for a bezier curve and then draws it.
*
* @param {number} cpX - Control point x
* @param {number} cpY - Control point y
* @param {number} cpX2 - Second Control point x
* @param {number} cpY2 - Second Control point y
* @param {number} toX - Destination point x
* @param {number} toY - Destination point y
* @return {PIXI.Graphics} This Graphics object. Good for chaining method calls
*/
bezierCurveTo(cpX, cpY, cpX2, cpY2, toX, toY)
{
this._initCurve();
BezierUtils.curveTo(cpX, cpY, cpX2, cpY2, toX, toY, this.currentPath.points);
return this;
}
/**
* The arcTo() method creates an arc/curve between two tangents on the canvas.
*
* "borrowed" from https://code.google.com/p/fxcanvas/ - thanks google!
*
* @param {number} x1 - The x-coordinate of the beginning of the arc
* @param {number} y1 - The y-coordinate of the beginning of the arc
* @param {number} x2 - The x-coordinate of the end of the arc
* @param {number} y2 - The y-coordinate of the end of the arc
* @param {number} radius - The radius of the arc
* @return {PIXI.Graphics} This Graphics object. Good for chaining method calls
*/
arcTo(x1, y1, x2, y2, radius)
{
this._initCurve(x1, y1);
const points = this.currentPath.points;
const result = ArcUtils.curveTo(x1, y1, x2, y2, radius, points);
if (result)
{
const { cx, cy, radius, startAngle, endAngle, anticlockwise } = result;
this.arc(cx, cy, radius, startAngle, endAngle, anticlockwise);
}
return this;
}
/**
* The arc method creates an arc/curve (used to create circles, or parts of circles).
*
* @param {number} cx - The x-coordinate of the center of the circle
* @param {number} cy - The y-coordinate of the center of the circle
* @param {number} radius - The radius of the circle
* @param {number} startAngle - The starting angle, in radians (0 is at the 3 o'clock position
* of the arc's circle)
* @param {number} endAngle - The ending angle, in radians
* @param {boolean} [anticlockwise=false] - Specifies whether the drawing should be
* counter-clockwise or clockwise. False is default, and indicates clockwise, while true
* indicates counter-clockwise.
* @return {PIXI.Graphics} This Graphics object. Good for chaining method calls
*/
arc(cx, cy, radius, startAngle, endAngle, anticlockwise = false)
{
if (startAngle === endAngle)
{
return this;
}
if (!anticlockwise && endAngle <= startAngle)
{
endAngle += PI_2;
}
else if (anticlockwise && startAngle <= endAngle)
{
startAngle += PI_2;
}
const sweep = endAngle - startAngle;
if (sweep === 0)
{
return this;
}
const startX = cx + (Math.cos(startAngle) * radius);
const startY = cy + (Math.sin(startAngle) * radius);
// If the currentPath exists, take its points. Otherwise call `moveTo` to start a path.
let points = this.currentPath ? this.currentPath.points : null;
if (points)
{
if (points[points.length - 2] !== startX || points[points.length - 1] !== startY)
{
points.push(startX, startY);
}
}
else
{
this.moveTo(startX, startY);
points = this.currentPath.points;
}
ArcUtils.arc(startX, startY, cx, cy, radius, startAngle, endAngle, anticlockwise, points);
return this;
}
/**
* Specifies a simple one-color fill that subsequent calls to other Graphics methods
* (such as lineTo() or drawCircle()) use when drawing.
*
* @param {number} [color=0] - the color of the fill
* @param {number} [alpha=1] - the alpha of the fill
* @return {PIXI.Graphics} This Graphics object. Good for chaining method calls
*/
beginFill(color = 0, alpha = 1)
{
return this.beginTextureFill(Texture.WHITE, color, alpha);
}
/**
* Begin the texture fill
*
* @param {PIXI.Texture} [texture=PIXI.Texture.WHITE] - Texture to fill
* @param {number} [color=0xffffff] - Background to fill behind texture
* @param {number} [alpha=1] - Alpha of fill
* @param {PIXI.Matrix} [matrix=null] - Transform matrix
* @return {PIXI.Graphics} This Graphics object. Good for chaining method calls
*/
beginTextureFill(texture = Texture.WHITE, color = 0xFFFFFF, alpha = 1, matrix = null)
{
if (this.currentPath)
{
this.startPoly();
}
const visible = alpha > 0;
if (!visible)
{
this._fillStyle.reset();
}
else
{
if (matrix)
{
matrix = matrix.clone();
matrix.invert();
}
Object.assign(this._fillStyle, {
color,
alpha,
texture,
matrix,
visible,
});
}
return this;
}
/**
* Applies a fill to the lines and shapes that were added since the last call to the beginFill() method.
*
* @return {PIXI.Graphics} This Graphics object. Good for chaining method calls
*/
endFill()
{
this.finishPoly();
this._fillStyle.reset();
return this;
}
/**
* Draws a rectangle shape.
*
* @param {number} x - The X coord of the top-left of the rectangle
* @param {number} y - The Y coord of the top-left of the rectangle
* @param {number} width - The width of the rectangle
* @param {number} height - The height of the rectangle
* @return {PIXI.Graphics} This Graphics object. Good for chaining method calls
*/
drawRect(x, y, width, height)
{
return this.drawShape(new Rectangle(x, y, width, height));
}
/**
* Draw a rectangle shape with rounded/beveled corners.
*
* @param {number} x - The X coord of the top-left of the rectangle
* @param {number} y - The Y coord of the top-left of the rectangle
* @param {number} width - The width of the rectangle
* @param {number} height - The height of the rectangle
* @param {number} radius - Radius of the rectangle corners
* @return {PIXI.Graphics} This Graphics object. Good for chaining method calls
*/
drawRoundedRect(x, y, width, height, radius)
{
return this.drawShape(new RoundedRectangle(x, y, width, height, radius));
}
/**
* Draws a circle.
*
* @param {number} x - The X coordinate of the center of the circle
* @param {number} y - The Y coordinate of the center of the circle
* @param {number} radius - The radius of the circle
* @return {PIXI.Graphics} This Graphics object. Good for chaining method calls
*/
drawCircle(x, y, radius)
{
return this.drawShape(new Circle(x, y, radius));
}
/**
* Draws an ellipse.
*
* @param {number} x - The X coordinate of the center of the ellipse
* @param {number} y - The Y coordinate of the center of the ellipse
* @param {number} width - The half width of the ellipse
* @param {number} height - The half height of the ellipse
* @return {PIXI.Graphics} This Graphics object. Good for chaining method calls
*/
drawEllipse(x, y, width, height)
{
return this.drawShape(new Ellipse(x, y, width, height));
}
/**
* Draws a polygon using the given path.
*
* @param {number[]|PIXI.Point[]|PIXI.Polygon} path - The path data used to construct the polygon.
* @return {PIXI.Graphics} This Graphics object. Good for chaining method calls
*/
drawPolygon(path)
{
// prevents an argument assignment deopt
// see section 3.1: https://github.com/petkaantonov/bluebird/wiki/Optimization-killers#3-managing-arguments
let points = path;
let closed = true;// !!this._fillStyle;
// check if data has points..
if (points.points)
{
closed = points.closed;
points = points.points;
}
if (!Array.isArray(points))
{
// prevents an argument leak deopt
// see section 3.2: https://github.com/petkaantonov/bluebird/wiki/Optimization-killers#3-managing-arguments
points = new Array(arguments.length);
for (let i = 0; i < points.length; ++i)
{
points[i] = arguments[i]; // eslint-disable-line prefer-rest-params
}
}
const shape = new Polygon(points);
shape.closed = closed;
this.drawShape(shape);
return this;
}
/**
* Draw any shape.
*
* @param {PIXI.Circle|PIXI.Ellipse|PIXI.Polygon|PIXI.Rectangle|PIXI.RoundedRectangle} shape - Shape to draw
* @return {PIXI.Graphics} This Graphics object. Good for chaining method calls
*/
drawShape(shape)
{
if (!this._holeMode)
{
this.geometry.drawShape(
shape,
this._fillStyle.clone(),
this._lineStyle.clone(),
this._matrix
);
}
else
{
// console.log('HOLE');
this.geometry.drawHole(shape, this._matrix);
}
return this;
}
/**
* Draw a star shape with an arbitrary number of points.
*
* @param {number} x - Center X position of the star
* @param {number} y - Center Y position of the star
* @param {number} points - The number of points of the star, must be > 1
* @param {number} radius - The outer radius of the star
* @param {number} [innerRadius] - The inner radius between points, default half `radius`
* @param {number} [rotation=0] - The rotation of the star in radians, where 0 is vertical
* @return {PIXI.Graphics} This Graphics object. Good for chaining method calls
*/
drawStar(x, y, points, radius, innerRadius, rotation = 0)
{
return this.drawPolygon(new Star(x, y, points, radius, innerRadius, rotation));
}
/**
* Clears the graphics that were drawn to this Graphics object, and resets fill and line style settings.
*
* @return {PIXI.Graphics} This Graphics object. Good for chaining method calls
*/
clear()
{
this.geometry.clear();
this._matrix = null;
this._holeMode = false;
this.currentPath = null;
this._spriteRect = null;
return this;
}
/**
* True if graphics consists of one rectangle, and thus, can be drawn like a Sprite and
* masked with gl.scissor.
*
* @returns {boolean} True if only 1 rect.
*/
isFastRect()
{
// will fix this!
return false;
// this.graphicsData.length === 1
// && this.graphicsData[0].shape.type === SHAPES.RECT
// && !this.graphicsData[0].lineWidth;
}
/**
* Renders the object using the WebGL renderer
*
* @private
* @param {PIXI.Renderer} renderer - The renderer
*/
_render(renderer)
{
this.finishPoly();
const geometry = this.geometry;
// batch part..
// batch it!
geometry.updateBatches();
if (geometry.batchable)
{
if (this.batchDirty !== geometry.batchDirty)
{
this.batches = [];
this.batchTint = -1;
this._transformID = -1;
this.batchDirty = geometry.batchDirty;
this.vertexData = new Float32Array(geometry.points);
const blendMode = this.blendMode;
for (let i = 0; i < geometry.batches.length; i++)
{
const gI = geometry.batches[i];
const color = gI.style.color;
// + (alpha * 255 << 24);
const vertexData = new Float32Array(this.vertexData.buffer,
gI.attribStart * 4 * 2,
gI.attribSize * 2);
const uvs = new Float32Array(geometry.uvsFloat32.buffer,
gI.attribStart * 4 * 2,
gI.attribSize * 2);
const indices = new Uint16Array(geometry.indicesUint16.buffer,
gI.start * 2,
gI.size);
const batch = {
vertexData,
blendMode,
indices,
uvs,
_batchRGB: hex2rgb(color),
_tintRGB: color,
_texture: gI.style.texture,
alpha: gI.style.alpha,
worldAlpha: 1 };
this.batches[i] = batch;
}
}
renderer.batch.setObjectRenderer(renderer.plugins.batch);
if (this.batches.length)
{
this.calculateVertices();
this.calculateTints();
for (let i = 0; i < this.batches.length; i++)
{
const batch = this.batches[i];
batch.worldAlpha = this.worldAlpha * batch.alpha;
renderer.plugins.batch.render(batch);
}
}
}
else
{
// no batching...
renderer.batch.flush();
if (!this.shader)
{
// if there is no shader here, we can use the default shader.
// and that only gets created if we actually need it..
if (!defaultShader)
{
const sampleValues = new Int32Array(16);
for (let i = 0; i < 16; i++)
{
sampleValues[i] = i;
}
const uniforms = {
tint: new Float32Array([1, 1, 1, 1]),
translationMatrix: new Matrix(),
default: UniformGroup.from({ uSamplers: sampleValues }, true),
};
// we can bbase default shader of the batch renderers program
const program = renderer.plugins.batch.shader.program;
defaultShader = new Shader(program, uniforms);
}
this.shader = defaultShader;
}
const uniforms = this.shader.uniforms;
// lets set the transfomr
uniforms.translationMatrix = this.transform.worldTransform;
const tint = this.tint;
const wa = this.worldAlpha;
// and then lets set the tint..
uniforms.tint[0] = (((tint >> 16) & 0xFF) / 255) * wa;
uniforms.tint[1] = (((tint >> 8) & 0xFF) / 255) * wa;
uniforms.tint[2] = ((tint & 0xFF) / 255) * wa;
uniforms.tint[3] = wa;
// the first draw call, we can set the uniforms of the shader directly here.
// this means that we can tack advantage of the sync function of pixi!
// bind and sync uniforms..
// there is a way to optimise this..
renderer.shader.bind(this.shader);
// then render it
renderer.geometry.bind(geometry, this.shader);
// set state..
renderer.state.setState(this.state);
// then render the rest of them...
for (let i = 0; i < geometry.drawCalls.length; i++)
{
const drawCall = geometry.drawCalls[i];
const groupTextureCount = drawCall.textureCount;
for (let j = 0; j < groupTextureCount; j++)
{
renderer.texture.bind(drawCall.textures[j], j);
}
// bind the geometry...
renderer.geometry.draw(drawCall.type, drawCall.size, drawCall.start);
}
}
}
/**
* Retrieves the bounds of the graphic shape as a rectangle object
*
* @private
*/
_calculateBounds()
{
this.finishPoly();
const lb = this.geometry.bounds;
this._bounds.addFrame(this.transform, lb.minX, lb.minY, lb.maxX, lb.maxY);
}
/**
* Tests if a point is inside this graphics object
*
* @param {PIXI.Point} point - the point to test
* @return {boolean} the result of the test
*/
containsPoint(point)
{
this.worldTransform.applyInverse(point, Graphics._TEMP_POINT);
return this.geometry.containsPoint(Graphics._TEMP_POINT);
}
/**
* Recalcuate the tint by applying tin to batches using Graphics tint.
* @private
*/
calculateTints()
{
if (this.batchTint !== this.tint)
{
this.batchTint = this.tint;
const tintRGB = hex2rgb(this.tint, temp);
for (let i = 0; i < this.batches.length; i++)
{
const batch = this.batches[i];
const batchTint = batch._batchRGB;
const r = (tintRGB[0] * batchTint[0]) * 255;
const g = (tintRGB[1] * batchTint[1]) * 255;
const b = (tintRGB[2] * batchTint[2]) * 255;
// TODO Ivan, can this be done in one go?
const color = (r << 16) + (g << 8) + (b | 0);
batch._tintRGB = (color >> 16)
+ (color & 0xff00)
+ ((color & 0xff) << 16);
}
}
}
/**
* If there's a transform update or a change to the shape of the
* geometry, recaculate the vertices.
* @private
*/
calculateVertices()
{
if (this._transformID === this.transform._worldID)
{
return;
}
this._transformID = this.transform._worldID;
const wt = this.transform.worldTransform;
const a = wt.a;
const b = wt.b;
const c = wt.c;
const d = wt.d;
const tx = wt.tx;
const ty = wt.ty;
const data = this.geometry.points;// batch.vertexDataOriginal;
const vertexData = this.vertexData;
let count = 0;
// console.log('.,', data.length);
for (let i = 0; i < data.length; i += 2)
{
const x = data[i];
const y = data[i + 1];
vertexData[count++] = (a * x) + (c * y) + tx;
vertexData[count++] = (d * y) + (b * x) + ty;
}
}
/**
* Closes the current path.
*
* @return {PIXI.Graphics} Returns itself.
*/
closePath()
{
// ok so close path assumes next one is a hole!
const currentPath = this.currentPath;
if (currentPath && currentPath.shape)
{
currentPath.shape.close();
}
return this;
}
/**
* Apply a matrix to the positional data.
*
* @param {PIXI.Matrix} matrix - Matrix to use for transform current shape.
* @return {PIXI.Graphics} Returns itself.
*/
setMatrix(matrix)
{
this._matrix = matrix;
return this;
}
/**
* Begin adding holes to the last draw shape
* IMPORTANT: holes must be fully inside a shape to work
* Also weirdness ensues if holes overlap!
* @return {PIXI.Graphics} Returns itself.
*/
beginHole()
{
this.finishPoly();
this._holeMode = true;
return this;
}
/**
* End adding holes to the last draw shape
* @return {PIXI.Graphics} Returns itself.
*/
endHole()
{
this.finishPoly();
this._holeMode = false;
return this;
}
/**
* Destroys the Graphics object.
*
* @param {object|boolean} [options] - Options parameter. A boolean will act as if all
* options have been set to that value
* @param {boolean} [options.children=false] - if set to true, all the children will have
* their destroy method called as well. 'options' will be passed on to those calls.
* @param {boolean} [options.texture=false] - Only used for child Sprites if options.children is set to true
* Should it destroy the texture of the child sprite
* @param {boolean} [options.baseTexture=false] - Only used for child Sprites if options.children is set to true
* Should it destroy the base texture of the child sprite
* @param {boolean} [options.geometry=false] - if set to true, the geometry object will be
* be destroyed.
*/
destroy(options)
{
const destroyGeometry = typeof options === 'boolean' ? options : options && options.geometry;
if (destroyGeometry || this._ownsGeometry)
{
this.geometry.destroy();
}
this._matrix = null;
this.currentPath = null;
this._lineStyle.destroy();
this._lineStyle = null;
this._fillStyle.destroy();
this._fillStyle = null;
this.geometry = null;
this.shader = null;
this.vertexData = null;
this.batches.length = 0;
this.batches = null;
super.destroy(options);
}
}
/**
* Temporary point to use for containsPoint
*
* @static
* @private
* @member {PIXI.Point}
*/
Graphics._TEMP_POINT = new Point();
