/******************************************************************************************************************* * * Answers to the request for a measurement. * ******************************************************************************************************************/ @Nonnull private static MeasureWithPrecision<ColorTemperature> parseTemperature (final @Nonnull ConsoleOutput output, final @Nonnull String regexp) { final Scanner scanner = output.filteredAndSplitBy(regexp, "[ (K)]"); final int t = scanner.nextInt(); scanner.next(); // K scanner.next(); // blank scanner.next(); // Delta scanner.next(); // E final double de = scanner.nextDouble(); return measureWithPrecision(kelvin(t), de); } }
@Nonnull private static ColorTemperature randomTemperature (final @Nonnull Random r) { return kelvin(2000 + r.nextInt(6000)); }
@Nonnull private static ColorTemperature randomTemperature (final @Nonnull Random r) { return kelvin(2000 + r.nextInt(6000)); }
/******************************************************************************************************************* * * Answers to the request for a measurement. * ******************************************************************************************************************/ public void onMeasurementRequest (final @ListensTo @Nonnull MeasurementRequest message) throws InterruptedException { log.info("onMeasurementRequest({})", message); Thread.sleep(500); final ColorPoints colorPoints = new ColorPoints(colorLab(r.nextDouble() * 100, r.nextDouble() * 100, r.nextDouble() * 100), colorXYZ(r.nextDouble() * 100, r.nextDouble() * 100, r.nextDouble() * 100)); final MeasureWithPrecision<ColorTemperature> ccTemp = measureWithPrecision(kelvin(2000 + r.nextInt(6000)), r.nextDouble() * 10); final MeasureWithPrecision<ColorTemperature> planckianTemp = measureWithPrecision(kelvin(2000 + r.nextInt(6000)), r.nextDouble() * 10); final MeasureWithPrecision<ColorTemperature> daylightTemp = measureWithPrecision(kelvin(2000 + r.nextInt(6000)), r.nextDouble() * 10); new MeasurementMessage(colorPoints, ccTemp, planckianTemp, daylightTemp).send(); } }
/******************************************************************************************************************* * * Answers to the request for a measurement. * ******************************************************************************************************************/ public void onMeasurementRequest (final @ListensTo @Nonnull MeasurementRequest message) throws InterruptedException { log.info("onMeasurementRequest({})", message); Thread.sleep(500); final ColorCoordinatesSet coordinatesSet = new ColorCoordinatesSet(colorLab(r.nextDouble() * 100, r.nextDouble() * 100, r.nextDouble() * 100), colorXYZ(r.nextDouble() * 100, r.nextDouble() * 100, r.nextDouble() * 100)); final MeasureWithPrecision<ColorTemperature> ccTemp = measureWithPrecision(kelvin(2000 + r.nextInt(6000)), r.nextDouble() * 10); final MeasureWithPrecision<ColorTemperature> planckianTemp = measureWithPrecision(kelvin(2000 + r.nextInt(6000)), r.nextDouble() * 10); final MeasureWithPrecision<ColorTemperature> daylightTemp = measureWithPrecision(kelvin(2000 + r.nextInt(6000)), r.nextDouble() * 10); new MeasurementMessage(coordinatesSet, ccTemp, planckianTemp, daylightTemp).send(); } }
/******************************************************************************************************************* * * Answers to the request for a measurement. * ******************************************************************************************************************/ @Nonnull private static MeasureWithPrecision<ColorTemperature> parseTemperature (final @Nonnull ConsoleOutput output, final @Nonnull String regexp) { final Scanner scanner = output.filteredAndSplitBy(regexp, "[ (K)]"); final int t = scanner.nextInt(); scanner.next(); // K scanner.next(); // blank scanner.next(); // Delta scanner.next(); // E final double de = scanner.nextDouble(); return measureWithPrecision(kelvin(t), de); } }
final ColorTemperature temperature = kelvin(parseInt(temperatureMatcher.group(3))); map.put(xy, new UniformityMeasurement(temperature, luminance)); continue;
m.put(xy(0, 0), new UniformityMeasurement(kelvin(2568), 9)); m.put(xy(1, 0), new UniformityMeasurement(kelvin(5436), 79)); m.put(xy(2, 0), new UniformityMeasurement(kelvin(7916), 61)); m.put(xy(0, 1), new UniformityMeasurement(kelvin(4329), 0)); m.put(xy(1, 1), new UniformityMeasurement(kelvin(2111), 56)); m.put(xy(2, 1), new UniformityMeasurement(kelvin(2641), 52)); m.put(xy(0, 2), new UniformityMeasurement(kelvin(3015), 4)); m.put(xy(1, 2), new UniformityMeasurement(kelvin(6864), 20)); m.put(xy(2, 2), new UniformityMeasurement(kelvin(7209), 0)); final UniformityMeasurements measurements = new UniformityMeasurements(new ProfiledDisplay(new Display("display1", 0), "profile"), m); messageVerifier.verify(UniformityMeasurementMessage.class).with("measurements", new Equals(measurements));
m.put(xy(0, 0), new UniformityMeasurement(kelvin(2568), 9)); m.put(xy(1, 0), new UniformityMeasurement(kelvin(5436), 79)); m.put(xy(2, 0), new UniformityMeasurement(kelvin(7916), 61)); m.put(xy(0, 1), new UniformityMeasurement(kelvin(4329), 0)); m.put(xy(1, 1), new UniformityMeasurement(kelvin(2111), 56)); m.put(xy(2, 1), new UniformityMeasurement(kelvin(2641), 52)); m.put(xy(0, 2), new UniformityMeasurement(kelvin(3015), 4)); m.put(xy(1, 2), new UniformityMeasurement(kelvin(6864), 20)); m.put(xy(2, 2), new UniformityMeasurement(kelvin(7209), 0)); final UniformityMeasurements measurements = new UniformityMeasurements(new ProfiledDisplay(new Display("display1", 0), new Profile("profile")), m); messageVerifier.verify(UniformityMeasurementMessage.class).with("measurements", new Equals(measurements));