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{"version":3,"file":"pointExtras.mjs","sources":["../../src/math-extras/pointExtras.ts"],"sourcesContent":["import { Point } from '../maths/point/Point';\n\nimport type { PointData } from '../maths/point/PointData';\n\nexport const pointExtraMixins: any = {\n /**\n * Adds `other` to `this` point and outputs into `outPoint` or a new Point.\n *\n * _Note: Only available with **pixi.js/math-extras**._\n * @method add\n * @memberof maths.Point#\n * @param {maths.PointData} other - The point to add to `this`.\n * @param {maths.PointData} [outPoint] - A Point-like object in which to store the value,\n * optional (otherwise will create a new Point).\n * @returns {PointData} The `outPoint` reference or a new Point, with the result of the addition.\n */\n /**\n * Adds `other` to `this` point and outputs into `outPoint` or a new Point.\n *\n * _Note: Only available with **pixi.js/math-extras**._\n * @method add\n * @memberof maths.ObservablePoint#\n * @param {maths.PointData} other - The point to add to `this`.\n * @param {maths.PointData} [outPoint] - A Point-like object in which to store the value,\n * optional (otherwise will create a new Point).\n * @returns {PointData} The `outPoint` reference or a new Point, with the result of the addition.\n */\n add<T extends PointData>(other: PointData, outPoint?: T): T\n {\n if (!outPoint)\n {\n outPoint = new Point() as PointData as T;\n }\n outPoint.x = this.x + other.x;\n outPoint.y = this.y + other.y;\n\n return outPoint;\n },\n\n /**\n * Subtracts `other` from `this` point and outputs into `outPoint` or a new Point.\n *\n * _Note: Only available with **pixi.js/math-extras**._\n * @method subtract\n * @memberof maths.Point#\n * @param {maths.PointData} other - The point to subtract to `this`.\n * @param {maths.PointData} [outPoint] - A Point-like object in which to store the value,\n * optional (otherwise will create a new Point).\n * @returns {PointData} The `outPoint` reference or a new Point, with the result of the subtraction.\n */\n /**\n * Subtracts `other` from `this` point and outputs into `outPoint` or a new Point.\n *\n * _Note: Only available with **pixi.js/math-extras**._\n * @method subtract\n * @memberof maths.ObservablePoint#\n * @param {maths.PointData} other - The point to subtract to `this`.\n * @param {maths.PointData} [outPoint] - A Point-like object in which to store the value,\n * optional (otherwise will create a new Point).\n * @returns {PointData} The `outPoint` reference or a new Point, with the result of the subtraction.\n */\n subtract<T extends PointData>(other: PointData, outPoint?: T): T\n {\n if (!outPoint)\n {\n outPoint = new Point() as PointData as T;\n }\n outPoint.x = this.x - other.x;\n outPoint.y = this.y - other.y;\n\n return outPoint;\n },\n\n /**\n * Multiplies component-wise `other` and `this` points and outputs into `outPoint` or a new Point.\n *\n * _Note: Only available with **pixi.js/math-extras**._\n * @method multiply\n * @memberof maths.Point#\n * @param {maths.PointData} other - The point to multiply with `this`.\n * @param {maths.PointData} [outPoint] - A Point-like object in which to store the value,\n * optional (otherwise will create a new Point).\n * @returns {PointData} The `outPoint` reference or a new Point, with the component-wise multiplication.\n */\n /**\n * Multiplies component-wise `other` and `this` points and outputs into `outPoint` or a new Point.\n *\n * _Note: Only available with **pixi.js/math-extras**._\n * @method multiply\n * @memberof maths.ObservablePoint#\n * @param {maths.PointData} other - The point to multiply with `this`.\n * @param {maths.PointData} [outPoint] - A Point-like object in which to store the value,\n * optional (otherwise will create a new Point).\n * @returns {PointData} The `outPoint` reference or a new Point, with the component-wise multiplication.\n */\n multiply<T extends PointData>(other: PointData, outPoint?: T): T\n {\n if (!outPoint)\n {\n outPoint = new Point() as PointData as T;\n }\n outPoint.x = this.x * other.x;\n outPoint.y = this.y * other.y;\n\n return outPoint;\n },\n\n /**\n * Multiplies each component of `this` point with the number `scalar` and outputs into `outPoint` or a new Point.\n *\n * _Note: Only available with **pixi.js/math-extras**._\n * @method multiplyScalar\n * @memberof maths.Point#\n * @param {number} scalar - The number to multiply both components of `this`.\n * @param {maths.PointData} [outPoint] - A Point-like object in which to store the value,\n * optional (otherwise will create a new Point).\n * @returns {PointData} The `outPoint` reference or a new Point, with the multiplication.\n */\n /**\n * Multiplies each component of `this` point with the number `scalar` and outputs into `outPoint` or a new Point.\n *\n * _Note: Only available with **pixi.js/math-extras**._\n * @method multiplyScalar\n * @memberof maths.ObservablePoint#\n * @param {number} scalar - The number to multiply both components of `this`.\n * @param {maths.PointData} [outPoint] - A Point-like object in which to store the value,\n * optional (otherwise will create a new Point).\n * @returns {PointData} The `outPoint` reference or a new Point, with the multiplication.\n */\n multiplyScalar<T extends PointData>(scalar: number, outPoint?: T): T\n {\n if (!outPoint)\n {\n outPoint = new Point() as PointData as T;\n }\n outPoint.x = this.x * scalar;\n outPoint.y = this.y * scalar;\n\n return outPoint;\n },\n\n /**\n * Computes the dot product of `other` with `this` point.\n * The dot product is the sum of the products of the corresponding components of two vectors.\n *\n * _Note: Only available with **pixi.js/math-extras**._\n * @method dot\n * @memberof maths.Point#\n * @param {maths.PointData} other - The other point to calculate the dot product with `this`.\n * @returns {number} The result of the dot product. This is an scalar value.\n */\n /**\n * Computes the dot product of `other` with `this` point.\n * The dot product is the sum of the products of the corresponding components of two vectors.\n *\n * _Note: Only available with **pixi.js/math-extras**._\n * @method dot\n * @memberof maths.ObservablePoint#\n * @param {maths.PointData} other - The other point to calculate the dot product with `this`.\n * @returns {number} The result of the dot product. This is an scalar value.\n */\n dot(other: PointData): number\n {\n return (this.x * other.x) + (this.y * other.y);\n },\n\n /**\n * Computes the cross product of `other` with `this` point.\n * Given two linearly independent R3 vectors a and b, the cross product, a × b (read \"a cross b\"),\n * is a vector that is perpendicular to both a and b, and thus normal to the plane containing them.\n * While cross product only exists on 3D space, we can assume the z component of 2D to be zero and\n * the result becomes a vector that will only have magnitude on the z axis.\n *\n * This function returns the z component of the cross product of the two points.\n *\n * _Note: Only available with **pixi.js/math-extras**._\n * @method cross\n * @memberof maths.Point#\n * @param {maths.PointData} other - The other point to calculate the cross product with `this`.\n * @returns {number} The z component of the result of the cross product.\n */\n /**\n * Computes the cross product of `other` with `this` point.\n * Given two linearly independent R3 vectors a and b, the cross product, a × b (read \"a cross b\"),\n * is a vector that is perpendicular to both a and b, and thus normal to the plane containing them.\n * While cross product only exists on 3D space, we can assume the z component of 2D to be zero and\n * the result becomes a vector that will only have magnitude on the z axis.\n *\n * This function returns the z component of the cross product of the two points.\n *\n * _Note: Only available with **pixi.js/math-extras**._\n * @method cross\n * @memberof maths.ObservablePoint#\n * @param {maths.PointData} other - The other point to calculate the cross product with `this`.\n * @returns {number} The z component of the result of the cross product.\n */\n cross(other: PointData): number\n {\n /*\n * Returns the magnitude of the vector that would result\n * from a regular 3D cross product of the input vectors,\n * taking their Z values implicitly as 0\n * (i.e. treating the 2D space as a plane in the 3D space).\n * The 3D cross product will be perpendicular to that plane,\n * and thus have 0 X & Y components\n * (thus the scalar returned is the Z value of the 3D cross product vector).\n */\n return (this.x * other.y) - (this.y * other.x);\n },\n\n /**\n * Computes a normalized version of `this` point.\n *\n * A normalized vector is a vector of magnitude (length) 1\n *\n * _Note: Only available with **pixi.js/math-extras**._\n * @method normalize\n * @memberof maths.Point#\n * @param {maths.PointData} [outPoint] - A Point-like object in which to store the value,\n * optional (otherwise will create a new Point).\n * @returns {PointData} The normalized point.\n */\n /**\n * Computes a normalized version of `this` point.\n *\n * A normalized vector is a vector of magnitude (length) 1\n *\n * _Note: Only available with **pixi.js/math-extras**._\n * @method normalize\n * @memberof maths.ObservablePoint#\n * @param {maths.PointData} [outPoint] - A Point-like object in which to store the value,\n * optional (otherwise will create a new Point).\n * @returns {PointData} The normalized point.\n */\n normalize<T extends PointData>(outPoint?: T): T\n {\n if (!outPoint)\n {\n outPoint = new Point() as PointData as T;\n }\n const magnitude = Math.sqrt((this.x * this.x) + (this.y * this.y));\n\n outPoint.x = this.x / magnitude;\n outPoint.y = this.y / magnitude;\n\n return outPoint;\n },\n\n /**\n * Computes the magnitude of this point (Euclidean distance from 0, 0).\n *\n * Defined as the square root of the sum of the squares of each component.\n *\n * _Note: Only available with **pixi.js/math-extras**._\n * @method magnitude\n * @memberof maths.Point#\n * @returns {number} The magnitude (length) of the vector.\n */\n /**\n * Computes the magnitude of this point (Euclidean distance from 0, 0).\n *\n * Defined as the square root of the sum of the squares of each component.\n *\n * _Note: Only available with **pixi.js/math-extras**._\n * @method magnitude\n * @memberof maths.ObservablePoint#\n * @returns {number} The magnitude (length) of the vector.\n */\n magnitude(): number\n {\n return Math.sqrt((this.x * this.x) + (this.y * this.y));\n },\n\n /**\n * Computes the square magnitude of this point.\n * If you are comparing the lengths of vectors, you should compare the length squared instead\n * as it is slightly more efficient to calculate.\n *\n * Defined as the sum of the squares of each component.\n *\n * _Note: Only available with **pixi.js/math-extras**._\n * @method magnitudeSquared\n * @memberof maths.Point#\n * @returns {number} The magnitude squared (length squared) of the vector.\n */\n /**\n * Computes the square magnitude of this point.\n * If you are comparing the lengths of vectors, you should compare the length squared instead\n * as it is slightly more efficient to calculate.\n *\n * Defined as the sum of the squares of each component.\n *\n * _Note: Only available with **pixi.js/math-extras**._\n * @method magnitudeSquared\n * @memberof maths.ObservablePoint#\n * @returns {number} The magnitude squared (length squared) of the vector.\n */\n magnitudeSquared(): number\n {\n return (this.x * this.x) + (this.y * this.y);\n },\n\n /**\n * Computes vector projection of `this` on `onto`.\n *\n * Imagine a light source, parallel to `onto`, above `this`.\n * The light would cast rays perpendicular to `onto`.\n * `this.project(onto)` is the shadow cast by `this` on the line defined by `onto` .\n *\n * _Note: Only available with **pixi.js/math-extras**._\n * @method project\n * @memberof maths.Point#\n * @param {maths.PointData} onto - A non zero vector describing a line on which to project `this`.\n * @param {maths.PointData} [outPoint] - A Point-like object in which to store the value,\n * optional (otherwise will create a new Point).\n * @returns {PointData} The `this` on `onto` projection.\n */\n /**\n * Computes vector projection of `this` on `onto`.\n *\n * Imagine a light source, parallel to `onto`, above `this`.\n * The light would cast rays perpendicular to `onto`.\n * `this.project(onto)` is the shadow cast by `this` on the line defined by `onto` .\n *\n * _Note: Only available with **pixi.js/math-extras**._\n * @method project\n * @memberof maths.ObservablePoint#\n * @param {maths.PointData} onto - A non zero vector describing a line on which to project `this`.\n * @param {maths.PointData} [outPoint] - A Point-like object in which to store the value,\n * optional (otherwise will create a new Point).\n * @returns {PointData} The `this` on `onto` projection.\n */\n project<T extends PointData>(onto: PointData, outPoint?: T): T\n {\n if (!outPoint)\n {\n outPoint = new Point() as PointData as T;\n }\n // Math says: a Projected over b = [(a·b) / (b·b)] * b;\n const normalizedScalarProjection = ((this.x * onto.x) + (this.y * onto.y)) / ((onto.x * onto.x) + (onto.y * onto.y));\n\n outPoint.x = onto.x * normalizedScalarProjection;\n outPoint.y = onto.y * normalizedScalarProjection;\n\n return outPoint;\n },\n\n /**\n * Reflects `this` vector off of a plane orthogonal to `normal`.\n * `normal` is not normalized during this process. Consider normalizing your `normal` before use.\n *\n * Imagine a light source bouncing onto a mirror.\n * `this` vector is the light and `normal` is a vector perpendicular to the mirror.\n * `this.reflect(normal)` is the reflection of `this` on that mirror.\n *\n * _Note: Only available with **pixi.js/math-extras**._\n * @method reflect\n * @memberof maths.Point#\n * @param {maths.PointData} normal - The normal vector of your reflecting plane.\n * @param {maths.PointData} [outPoint] - A Point-like object in which to store the value,\n * optional (otherwise will create a new Point).\n * @returns {PointData} The reflection of `this` on your reflecting plane.\n */\n /**\n * Reflects `this` vector off of a plane orthogonal to `normal`.\n * `normal` is not normalized during this process. Consider normalizing your `normal` before use.\n *\n * Imagine a light source bouncing onto a mirror.\n * `this` vector is the light and `normal` is a vector perpendicular to the mirror.\n * `this.reflect(normal)` is the reflection of `this` on that mirror.\n *\n * _Note: Only available with **pixi.js/math-extras**._\n * @method reflect\n * @memberof maths.ObservablePoint#\n * @param {maths.PointData} normal - The normal vector of your reflecting plane.\n * @param {maths.PointData} [outPoint] - A Point-like object in which to store the value,\n * optional (otherwise will create a new Point).\n * @returns {PointData} The reflection of `this` on your reflecting plane.\n */\n reflect<T extends PointData>(normal: PointData, outPoint?: T): T\n {\n if (!outPoint)\n {\n outPoint = new Point() as PointData as T;\n }\n\n // Given an incident vector i and a normal vector n, returns the reflection vector r = i - 2 * dot(i, n) * n\n\n const dotProduct = (this.x * normal.x) + (this.y * normal.y);\n\n outPoint.x = this.x - 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