Merge "Internal copy of Palette API." into oc-dev (5086a1d0) · Commits · e / os / android_frameworks_base

core/java/com/android/internal/graphics/ColorUtils.java

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		/*
		* Copyright (C) 2017 The Android Open Source Project
		*
		* Licensed under the Apache License, Version 2.0 (the "License");
		* you may not use this file except in compliance with the License.
		* You may obtain a copy of the License at
		*
		* http://www.apache.org/licenses/LICENSE-2.0
		*
		* Unless required by applicable law or agreed to in writing, software
		* distributed under the License is distributed on an "AS IS" BASIS,
		* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
		* See the License for the specific language governing permissions and
		* limitations under the License
		*/

		package com.android.internal.graphics;

		import android.annotation.ColorInt;
		import android.annotation.FloatRange;
		import android.annotation.IntRange;
		import android.annotation.NonNull;
		import android.graphics.Color;

		/**
		* Copied from: frameworks/support/core-utils/java/android/support/v4/graphics/ColorUtils.java
		*
		* A set of color-related utility methods, building upon those available in {@code Color}.
		*/
		public final class ColorUtils {

		private static final double XYZ_WHITE_REFERENCE_X = 95.047;
		private static final double XYZ_WHITE_REFERENCE_Y = 100;
		private static final double XYZ_WHITE_REFERENCE_Z = 108.883;
		private static final double XYZ_EPSILON = 0.008856;
		private static final double XYZ_KAPPA = 903.3;

		private static final int MIN_ALPHA_SEARCH_MAX_ITERATIONS = 10;
		private static final int MIN_ALPHA_SEARCH_PRECISION = 1;

		private static final ThreadLocal<double[]> TEMP_ARRAY = new ThreadLocal<>();

		private ColorUtils() {}

		/**
		* Composite two potentially translucent colors over each other and returns the result.
		*/
		public static int compositeColors(@ColorInt int foreground, @ColorInt int background) {
		int bgAlpha = Color.alpha(background);
		int fgAlpha = Color.alpha(foreground);
		int a = compositeAlpha(fgAlpha, bgAlpha);

		int r = compositeComponent(Color.red(foreground), fgAlpha,
		Color.red(background), bgAlpha, a);
		int g = compositeComponent(Color.green(foreground), fgAlpha,
		Color.green(background), bgAlpha, a);
		int b = compositeComponent(Color.blue(foreground), fgAlpha,
		Color.blue(background), bgAlpha, a);

		return Color.argb(a, r, g, b);
		}

		private static int compositeAlpha(int foregroundAlpha, int backgroundAlpha) {
		return 0xFF - (((0xFF - backgroundAlpha) * (0xFF - foregroundAlpha)) / 0xFF);
		}

		private static int compositeComponent(int fgC, int fgA, int bgC, int bgA, int a) {
		if (a == 0) return 0;
		return ((0xFF * fgC * fgA) + (bgC * bgA * (0xFF - fgA))) / (a * 0xFF);
		}

		/**
		* Returns the luminance of a color as a float between {@code 0.0} and {@code 1.0}.
		* <p>Defined as the Y component in the XYZ representation of {@code color}.</p>
		*/
		@FloatRange(from = 0.0, to = 1.0)
		public static double calculateLuminance(@ColorInt int color) {
		final double[] result = getTempDouble3Array();
		colorToXYZ(color, result);
		// Luminance is the Y component
		return result[1] / 100;
		}

		/**
		* Returns the contrast ratio between {@code foreground} and {@code background}.
		* {@code background} must be opaque.
		* <p>
		* Formula defined
		* <a href="http://www.w3.org/TR/2008/REC-WCAG20-20081211/#contrast-ratiodef">here</a>.
		*/
		public static double calculateContrast(@ColorInt int foreground, @ColorInt int background) {
		if (Color.alpha(background) != 255) {
		throw new IllegalArgumentException("background can not be translucent: #"
		+ Integer.toHexString(background));
		}
		if (Color.alpha(foreground) < 255) {
		// If the foreground is translucent, composite the foreground over the background
		foreground = compositeColors(foreground, background);
		}

		final double luminance1 = calculateLuminance(foreground) + 0.05;
		final double luminance2 = calculateLuminance(background) + 0.05;

		// Now return the lighter luminance divided by the darker luminance
		return Math.max(luminance1, luminance2) / Math.min(luminance1, luminance2);
		}

		/**
		* Calculates the minimum alpha value which can be applied to {@code foreground} so that would
		* have a contrast value of at least {@code minContrastRatio} when compared to
		* {@code background}.
		*
		* @param foreground the foreground color
		* @param background the opaque background color
		* @param minContrastRatio the minimum contrast ratio
		* @return the alpha value in the range 0-255, or -1 if no value could be calculated
		*/
		public static int calculateMinimumAlpha(@ColorInt int foreground, @ColorInt int background,
		float minContrastRatio) {
		if (Color.alpha(background) != 255) {
		throw new IllegalArgumentException("background can not be translucent: #"
		+ Integer.toHexString(background));
		}

		// First lets check that a fully opaque foreground has sufficient contrast
		int testForeground = setAlphaComponent(foreground, 255);
		double testRatio = calculateContrast(testForeground, background);
		if (testRatio < minContrastRatio) {
		// Fully opaque foreground does not have sufficient contrast, return error
		return -1;
		}

		// Binary search to find a value with the minimum value which provides sufficient contrast
		int numIterations = 0;
		int minAlpha = 0;
		int maxAlpha = 255;

		while (numIterations <= MIN_ALPHA_SEARCH_MAX_ITERATIONS &&
		(maxAlpha - minAlpha) > MIN_ALPHA_SEARCH_PRECISION) {
		final int testAlpha = (minAlpha + maxAlpha) / 2;

		testForeground = setAlphaComponent(foreground, testAlpha);
		testRatio = calculateContrast(testForeground, background);

		if (testRatio < minContrastRatio) {
		minAlpha = testAlpha;
		} else {
		maxAlpha = testAlpha;
		}

		numIterations++;
		}

		// Conservatively return the max of the range of possible alphas, which is known to pass.
		return maxAlpha;
		}

		/**
		* Convert RGB components to HSL (hue-saturation-lightness).
		* <ul>
		* <li>outHsl[0] is Hue [0 .. 360)</li>
		* <li>outHsl[1] is Saturation [0...1]</li>
		* <li>outHsl[2] is Lightness [0...1]</li>
		* </ul>
		*
		* @param r red component value [0..255]
		* @param g green component value [0..255]
		* @param b blue component value [0..255]
		* @param outHsl 3-element array which holds the resulting HSL components
		*/
		public static void RGBToHSL(@IntRange(from = 0x0, to = 0xFF) int r,
		@IntRange(from = 0x0, to = 0xFF) int g, @IntRange(from = 0x0, to = 0xFF) int b,
		@NonNull float[] outHsl) {
		final float rf = r / 255f;
		final float gf = g / 255f;
		final float bf = b / 255f;

		final float max = Math.max(rf, Math.max(gf, bf));
		final float min = Math.min(rf, Math.min(gf, bf));
		final float deltaMaxMin = max - min;

		float h, s;
		float l = (max + min) / 2f;

		if (max == min) {
		// Monochromatic
		h = s = 0f;
		} else {
		if (max == rf) {
		h = ((gf - bf) / deltaMaxMin) % 6f;
		} else if (max == gf) {
		h = ((bf - rf) / deltaMaxMin) + 2f;
		} else {
		h = ((rf - gf) / deltaMaxMin) + 4f;
		}

		s = deltaMaxMin / (1f - Math.abs(2f * l - 1f));
		}

		h = (h * 60f) % 360f;
		if (h < 0) {
		h += 360f;
		}

		outHsl[0] = constrain(h, 0f, 360f);
		outHsl[1] = constrain(s, 0f, 1f);
		outHsl[2] = constrain(l, 0f, 1f);
		}

		/**
		* Convert the ARGB color to its HSL (hue-saturation-lightness) components.
		* <ul>
		* <li>outHsl[0] is Hue [0 .. 360)</li>
		* <li>outHsl[1] is Saturation [0...1]</li>
		* <li>outHsl[2] is Lightness [0...1]</li>
		* </ul>
		*
		* @param color the ARGB color to convert. The alpha component is ignored
		* @param outHsl 3-element array which holds the resulting HSL components
		*/
		public static void colorToHSL(@ColorInt int color, @NonNull float[] outHsl) {
		RGBToHSL(Color.red(color), Color.green(color), Color.blue(color), outHsl);
		}

		/**
		* Convert HSL (hue-saturation-lightness) components to a RGB color.
		* <ul>
		* <li>hsl[0] is Hue [0 .. 360)</li>
		* <li>hsl[1] is Saturation [0...1]</li>
		* <li>hsl[2] is Lightness [0...1]</li>
		* </ul>
		* If hsv values are out of range, they are pinned.
		*
		* @param hsl 3-element array which holds the input HSL components
		* @return the resulting RGB color
		*/
		@ColorInt
		public static int HSLToColor(@NonNull float[] hsl) {
		final float h = hsl[0];
		final float s = hsl[1];
		final float l = hsl[2];

		final float c = (1f - Math.abs(2 * l - 1f)) * s;
		final float m = l - 0.5f * c;
		final float x = c * (1f - Math.abs((h / 60f % 2f) - 1f));

		final int hueSegment = (int) h / 60;

		int r = 0, g = 0, b = 0;

		switch (hueSegment) {
		case 0:
		r = Math.round(255 * (c + m));
		g = Math.round(255 * (x + m));
		b = Math.round(255 * m);
		break;
		case 1:
		r = Math.round(255 * (x + m));
		g = Math.round(255 * (c + m));
		b = Math.round(255 * m);
		break;
		case 2:
		r = Math.round(255 * m);
		g = Math.round(255 * (c + m));
		b = Math.round(255 * (x + m));
		break;
		case 3:
		r = Math.round(255 * m);
		g = Math.round(255 * (x + m));
		b = Math.round(255 * (c + m));
		break;
		case 4:
		r = Math.round(255 * (x + m));
		g = Math.round(255 * m);
		b = Math.round(255 * (c + m));
		break;
		case 5:
		case 6:
		r = Math.round(255 * (c + m));
		g = Math.round(255 * m);
		b = Math.round(255 * (x + m));
		break;
		}

		r = constrain(r, 0, 255);
		g = constrain(g, 0, 255);
		b = constrain(b, 0, 255);

		return Color.rgb(r, g, b);
		}

		/**
		* Set the alpha component of {@code color} to be {@code alpha}.
		*/
		@ColorInt
		public static int setAlphaComponent(@ColorInt int color,
		@IntRange(from = 0x0, to = 0xFF) int alpha) {
		if (alpha < 0 \|\| alpha > 255) {
		throw new IllegalArgumentException("alpha must be between 0 and 255.");
		}
		return (color & 0x00ffffff) \| (alpha << 24);
		}

		/**
		* Convert the ARGB color to its CIE Lab representative components.
		*
		* @param color the ARGB color to convert. The alpha component is ignored
		* @param outLab 3-element array which holds the resulting LAB components
		*/
		public static void colorToLAB(@ColorInt int color, @NonNull double[] outLab) {
		RGBToLAB(Color.red(color), Color.green(color), Color.blue(color), outLab);
		}

		/**
		* Convert RGB components to its CIE Lab representative components.
		*
		* <ul>
		* <li>outLab[0] is L [0 ...1)</li>
		* <li>outLab[1] is a [-128...127)</li>
		* <li>outLab[2] is b [-128...127)</li>
		* </ul>
		*
		* @param r red component value [0..255]
		* @param g green component value [0..255]
		* @param b blue component value [0..255]
		* @param outLab 3-element array which holds the resulting LAB components
		*/
		public static void RGBToLAB(@IntRange(from = 0x0, to = 0xFF) int r,
		@IntRange(from = 0x0, to = 0xFF) int g, @IntRange(from = 0x0, to = 0xFF) int b,
		@NonNull double[] outLab) {
		// First we convert RGB to XYZ
		RGBToXYZ(r, g, b, outLab);
		// outLab now contains XYZ
		XYZToLAB(outLab[0], outLab[1], outLab[2], outLab);
		// outLab now contains LAB representation
		}

		/**
		* Convert the ARGB color to its CIE XYZ representative components.
		*
		* <p>The resulting XYZ representation will use the D65 illuminant and the CIE
		* 2° Standard Observer (1931).</p>
		*
		* <ul>
		* <li>outXyz[0] is X [0 ...95.047)</li>
		* <li>outXyz[1] is Y [0...100)</li>
		* <li>outXyz[2] is Z [0...108.883)</li>
		* </ul>
		*
		* @param color the ARGB color to convert. The alpha component is ignored
		* @param outXyz 3-element array which holds the resulting LAB components
		*/
		public static void colorToXYZ(@ColorInt int color, @NonNull double[] outXyz) {
		RGBToXYZ(Color.red(color), Color.green(color), Color.blue(color), outXyz);
		}

		/**
		* Convert RGB components to its CIE XYZ representative components.
		*
		* <p>The resulting XYZ representation will use the D65 illuminant and the CIE
		* 2° Standard Observer (1931).</p>
		*
		* <ul>
		* <li>outXyz[0] is X [0 ...95.047)</li>
		* <li>outXyz[1] is Y [0...100)</li>
		* <li>outXyz[2] is Z [0...108.883)</li>
		* </ul>
		*
		* @param r red component value [0..255]
		* @param g green component value [0..255]
		* @param b blue component value [0..255]
		* @param outXyz 3-element array which holds the resulting XYZ components
		*/
		public static void RGBToXYZ(@IntRange(from = 0x0, to = 0xFF) int r,
		@IntRange(from = 0x0, to = 0xFF) int g, @IntRange(from = 0x0, to = 0xFF) int b,
		@NonNull double[] outXyz) {
		if (outXyz.length != 3) {
		throw new IllegalArgumentException("outXyz must have a length of 3.");
		}

		double sr = r / 255.0;
		sr = sr < 0.04045 ? sr / 12.92 : Math.pow((sr + 0.055) / 1.055, 2.4);
		double sg = g / 255.0;
		sg = sg < 0.04045 ? sg / 12.92 : Math.pow((sg + 0.055) / 1.055, 2.4);
		double sb = b / 255.0;
		sb = sb < 0.04045 ? sb / 12.92 : Math.pow((sb + 0.055) / 1.055, 2.4);

		outXyz[0] = 100 * (sr * 0.4124 + sg * 0.3576 + sb * 0.1805);
		outXyz[1] = 100 * (sr * 0.2126 + sg * 0.7152 + sb * 0.0722);
		outXyz[2] = 100 * (sr * 0.0193 + sg * 0.1192 + sb * 0.9505);
		}

		/**
		* Converts a color from CIE XYZ to CIE Lab representation.
		*
		* <p>This method expects the XYZ representation to use the D65 illuminant and the CIE
		* 2° Standard Observer (1931).</p>
		*
		* <ul>
		* <li>outLab[0] is L [0 ...1)</li>
		* <li>outLab[1] is a [-128...127)</li>
		* <li>outLab[2] is b [-128...127)</li>
		* </ul>
		*
		* @param x X component value [0...95.047)
		* @param y Y component value [0...100)
		* @param z Z component value [0...108.883)
		* @param outLab 3-element array which holds the resulting Lab components
		*/
		public static void XYZToLAB(@FloatRange(from = 0f, to = XYZ_WHITE_REFERENCE_X) double x,
		@FloatRange(from = 0f, to = XYZ_WHITE_REFERENCE_Y) double y,
		@FloatRange(from = 0f, to = XYZ_WHITE_REFERENCE_Z) double z,
		@NonNull double[] outLab) {
		if (outLab.length != 3) {
		throw new IllegalArgumentException("outLab must have a length of 3.");
		}
		x = pivotXyzComponent(x / XYZ_WHITE_REFERENCE_X);
		y = pivotXyzComponent(y / XYZ_WHITE_REFERENCE_Y);
		z = pivotXyzComponent(z / XYZ_WHITE_REFERENCE_Z);
		outLab[0] = Math.max(0, 116 * y - 16);
		outLab[1] = 500 * (x - y);
		outLab[2] = 200 * (y - z);
		}

		/**
		* Converts a color from CIE Lab to CIE XYZ representation.
		*
		* <p>The resulting XYZ representation will use the D65 illuminant and the CIE
		* 2° Standard Observer (1931).</p>
		*
		* <ul>
		* <li>outXyz[0] is X [0 ...95.047)</li>
		* <li>outXyz[1] is Y [0...100)</li>
		* <li>outXyz[2] is Z [0...108.883)</li>
		* </ul>
		*
		* @param l L component value [0...100)
		* @param a A component value [-128...127)
		* @param b B component value [-128...127)
		* @param outXyz 3-element array which holds the resulting XYZ components
		*/
		public static void LABToXYZ(@FloatRange(from = 0f, to = 100) final double l,
		@FloatRange(from = -128, to = 127) final double a,
		@FloatRange(from = -128, to = 127) final double b,
		@NonNull double[] outXyz) {
		final double fy = (l + 16) / 116;
		final double fx = a / 500 + fy;
		final double fz = fy - b / 200;

		double tmp = Math.pow(fx, 3);
		final double xr = tmp > XYZ_EPSILON ? tmp : (116 * fx - 16) / XYZ_KAPPA;
		final double yr = l > XYZ_KAPPA * XYZ_EPSILON ? Math.pow(fy, 3) : l / XYZ_KAPPA;

		tmp = Math.pow(fz, 3);
		final double zr = tmp > XYZ_EPSILON ? tmp : (116 * fz - 16) / XYZ_KAPPA;

		outXyz[0] = xr * XYZ_WHITE_REFERENCE_X;
		outXyz[1] = yr * XYZ_WHITE_REFERENCE_Y;
		outXyz[2] = zr * XYZ_WHITE_REFERENCE_Z;
		}

		/**
		* Converts a color from CIE XYZ to its RGB representation.
		*
		* <p>This method expects the XYZ representation to use the D65 illuminant and the CIE
		* 2° Standard Observer (1931).</p>
		*
		* @param x X component value [0...95.047)
		* @param y Y component value [0...100)
		* @param z Z component value [0...108.883)
		* @return int containing the RGB representation
		*/
		@ColorInt
		public static int XYZToColor(@FloatRange(from = 0f, to = XYZ_WHITE_REFERENCE_X) double x,
		@FloatRange(from = 0f, to = XYZ_WHITE_REFERENCE_Y) double y,
		@FloatRange(from = 0f, to = XYZ_WHITE_REFERENCE_Z) double z) {
		double r = (x * 3.2406 + y * -1.5372 + z * -0.4986) / 100;
		double g = (x * -0.9689 + y * 1.8758 + z * 0.0415) / 100;
		double b = (x * 0.0557 + y * -0.2040 + z * 1.0570) / 100;

		r = r > 0.0031308 ? 1.055 * Math.pow(r, 1 / 2.4) - 0.055 : 12.92 * r;
		g = g > 0.0031308 ? 1.055 * Math.pow(g, 1 / 2.4) - 0.055 : 12.92 * g;
		b = b > 0.0031308 ? 1.055 * Math.pow(b, 1 / 2.4) - 0.055 : 12.92 * b;

		return Color.rgb(
		constrain((int) Math.round(r * 255), 0, 255),
		constrain((int) Math.round(g * 255), 0, 255),
		constrain((int) Math.round(b * 255), 0, 255));
		}

		/**
		* Converts a color from CIE Lab to its RGB representation.
		*
		* @param l L component value [0...100]
		* @param a A component value [-128...127]
		* @param b B component value [-128...127]
		* @return int containing the RGB representation
		*/
		@ColorInt
		public static int LABToColor(@FloatRange(from = 0f, to = 100) final double l,
		@FloatRange(from = -128, to = 127) final double a,
		@FloatRange(from = -128, to = 127) final double b) {
		final double[] result = getTempDouble3Array();
		LABToXYZ(l, a, b, result);
		return XYZToColor(result[0], result[1], result[2]);
		}

		/**
		* Returns the euclidean distance between two LAB colors.
		*/
		public static double distanceEuclidean(@NonNull double[] labX, @NonNull double[] labY) {
		return Math.sqrt(Math.pow(labX[0] - labY[0], 2)
		+ Math.pow(labX[1] - labY[1], 2)
		+ Math.pow(labX[2] - labY[2], 2));
		}

		private static float constrain(float amount, float low, float high) {
		return amount < low ? low : (amount > high ? high : amount);
		}

		private static int constrain(int amount, int low, int high) {
		return amount < low ? low : (amount > high ? high : amount);
		}

		private static double pivotXyzComponent(double component) {
		return component > XYZ_EPSILON
		? Math.pow(component, 1 / 3.0)
		: (XYZ_KAPPA * component + 16) / 116;
		}

		/**
		* Blend between two ARGB colors using the given ratio.
		*
		* <p>A blend ratio of 0.0 will result in {@code color1}, 0.5 will give an even blend,
		* 1.0 will result in {@code color2}.</p>
		*
		* @param color1 the first ARGB color
		* @param color2 the second ARGB color
		* @param ratio the blend ratio of {@code color1} to {@code color2}
		*/
		@ColorInt
		public static int blendARGB(@ColorInt int color1, @ColorInt int color2,
		@FloatRange(from = 0.0, to = 1.0) float ratio) {
		final float inverseRatio = 1 - ratio;
		float a = Color.alpha(color1) * inverseRatio + Color.alpha(color2) * ratio;
		float r = Color.red(color1) * inverseRatio + Color.red(color2) * ratio;
		float g = Color.green(color1) * inverseRatio + Color.green(color2) * ratio;
		float b = Color.blue(color1) * inverseRatio + Color.blue(color2) * ratio;
		return Color.argb((int) a, (int) r, (int) g, (int) b);
		}

		/**
		* Blend between {@code hsl1} and {@code hsl2} using the given ratio. This will interpolate
		* the hue using the shortest angle.
		*
		* <p>A blend ratio of 0.0 will result in {@code hsl1}, 0.5 will give an even blend,
		* 1.0 will result in {@code hsl2}.</p>
		*
		* @param hsl1 3-element array which holds the first HSL color
		* @param hsl2 3-element array which holds the second HSL color
		* @param ratio the blend ratio of {@code hsl1} to {@code hsl2}
		* @param outResult 3-element array which holds the resulting HSL components
		*/
		public static void blendHSL(@NonNull float[] hsl1, @NonNull float[] hsl2,
		@FloatRange(from = 0.0, to = 1.0) float ratio, @NonNull float[] outResult) {
		if (outResult.length != 3) {
		throw new IllegalArgumentException("result must have a length of 3.");
		}
		final float inverseRatio = 1 - ratio;
		// Since hue is circular we will need to interpolate carefully
		outResult[0] = circularInterpolate(hsl1[0], hsl2[0], ratio);
		outResult[1] = hsl1[1] * inverseRatio + hsl2[1] * ratio;
		outResult[2] = hsl1[2] * inverseRatio + hsl2[2] * ratio;
		}

		/**
		* Blend between two CIE-LAB colors using the given ratio.
		*
		* <p>A blend ratio of 0.0 will result in {@code lab1}, 0.5 will give an even blend,
		* 1.0 will result in {@code lab2}.</p>
		*
		* @param lab1 3-element array which holds the first LAB color
		* @param lab2 3-element array which holds the second LAB color
		* @param ratio the blend ratio of {@code lab1} to {@code lab2}
		* @param outResult 3-element array which holds the resulting LAB components
		*/
		public static void blendLAB(@NonNull double[] lab1, @NonNull double[] lab2,
		@FloatRange(from = 0.0, to = 1.0) double ratio, @NonNull double[] outResult) {
		if (outResult.length != 3) {
		throw new IllegalArgumentException("outResult must have a length of 3.");
		}
		final double inverseRatio = 1 - ratio;
		outResult[0] = lab1[0] * inverseRatio + lab2[0] * ratio;
		outResult[1] = lab1[1] * inverseRatio + lab2[1] * ratio;
		outResult[2] = lab1[2] * inverseRatio + lab2[2] * ratio;
		}

		static float circularInterpolate(float a, float b, float f) {
		if (Math.abs(b - a) > 180) {
		if (b > a) {
		a += 360;
		} else {
		b += 360;
		}
		}
		return (a + ((b - a) * f)) % 360;
		}

		private static double[] getTempDouble3Array() {
		double[] result = TEMP_ARRAY.get();
		if (result == null) {
		result = new double[3];
		TEMP_ARRAY.set(result);
		}
		return result;
		}

		}
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