Integrating Sphere Color Measurement System

The integrating sphere colorimeter diffuses the light source through the inner wall of the sphere, ensuring uniform illumination on the sample surface. The detector captures the reflected light, analyzes the spectral data, and calculates color coordinates and color difference values. It is used for color quality control in industries such as coatings and plastics, comparing the differences between standard colors and sample colors.

Instruments

Using parallel illumination hemispherical scattering integrating sphere photoelectric receiving mode, the light transmitter and haze measurement accuracy are 0.01%, support U disk storage and USB communication, equipped with thin film magnetic fixture and liquid sample Cup.

$ 2888.00

Using parallel illumination hemisphere scattering integrating sphere photoelectric reception mode, light transmitance measurement range 0-100%, haze measurement range 0-99%, with open sample window design, not affected by environment light.

$ 2629.00

Using parallel illumination hemispherical scattering integrating sphere photoelectric receiving mode, the accuracy of light transmitance and haze display is 0.01%, equipped with thin film magnetic fixture and liquid sample Cup, and supports 2000 sets of data storage.

$ 3882.00

With 58mm large integrating sphere and combined LED Illuminant, it receives a wider range of reflected light, with repeability accuracy within 0.04, with 3.5-inch Touchscreen and ergonomic design.

$ 3236.00

Measurement accuracy is increased by 96% with integrating sphere structure coating. Standard Deviation Delta E * ab ≤ 0.06 ensures Data Stability and supports a variety of chroma space and Illuminant selection.

$ 703.00

Using 150mm integrating sphere and 25mm test hole, Measurement accuracy Delta R457 ≤ 0.5, support Opacity, transparency and inks absorption value and other Multi-ParaMeter detection, suitable for a variety of sample thicknesses.

$ 2329.00

Using German High Sensitivity Sensor and Illuminant, with more than 96% high diffuse coating integrating sphere structure, Repeatability Standard Deviation Delta E * ab ≤ 0.06, can measure arc surface, powder and other special-shaped surfaces.

$ 566.00

Measurement principle of diffuse transmission, optical density Measurement range of 6.000 OD, accuracy +/- 0.02 OD, equipped with fixed seat and bracket, support two Measurement mode, suitable for translucent material testing.

$ 743.00

With 4mm and 8mm dual measurement diaMeter, it can adapt to curved surface and small area color measurement, Repeatability Standard Deviation Delta E * ab ≤ 0.06, with high diffusion coating integrating sphere to ensure data accuracy.

$ 848.00

The integrating sphere principle is used to achieve full luminous flux reception, the maximum measurement thickness is 55mm, and the open measurement area is equipped to adapt to any size sample. Standard light sources and compensation methods are supported to ensure data accuracy.

$ 961.00

With 8mm and 4mm dual measurement diaMeters, Delta E * ab Repeatability is less than 0.03, new integrating sphere design ensures measurement Stability, supports multiple Color Spaces and dual positioning functions.

$ 1138.00

Adopt 4mm small diaMeter design, equipped with dual positioning system and new integrating sphere optical path, measurement Stability up to Delta E * ab 0.08, support dual measurement end face switching, built-in rechargeable lithium battery lasting.

$ 719.00

Repeatability Delta E * ab ≤ 0.08, display accuracy 0.01, equipped with non-contact automatic black and white plate calibration and integrating ball dual optical path sensor to ensure stable and accurate measurement, Type-C charging can be continuously tested 12,000 times.

$ 315.00

Optical inspection grade quartz containers for measurement of liquids, slurries, powders and fine particles simplify the Sample Handling process and improve measurement efficiency.

$ 525.00

Repeatability Delta E * ab within 0.1, Measurement time of about 1.0 seconds; Non-contact automatic whiteboard calibration to avoid dirt, integrating ball double light path design to ensure stability, lightweight and portable can be continuously tested 12,000 times.

$ 234.00

Articles

The necessity of a standard light source box in visual color comparison and color difference assessment of coatings.
In the production of coatings, accurate color evaluation is crucial. Visual color comparison is easily affected by light, as natural light is unstable, and different lighting conditions can make colors appear different.
Colorimeter controls batch color difference in plastic and rubber films.
This article primarily discusses how to use a colorimeter to control color differences in the production of plastic and rubber films. It explains the working principle of the colorimeter, which involves converting colors into numerical values represented by L, a, and b values, and then calculating the color difference.
Colorimeter evaluates the change in yellowing index of transparent resin.
This article introduces how to use a colorimeter to measure the yellowing index changes in transparent resin. Transparent resin can turn yellow over time or due to environmental influences, and the yellowing index can quantify the degree of color change.
Colorimeter evaluation of color difference in anodized coloring layers
This article explains how colorimeters are used to evaluate color differences in anodized coloring layers. It describes how colorimeters convert colors into numerical values based on international standards and quantify color variations by calculating the color difference ΔE.
Reflectometer for measuring the hiding power of colored paint coatings
This article introduces the method of using a reflectometer to measure the hiding power of colored paint coatings. Hiding power refers to the ability of a coating to conceal differences in the underlying color. Traditional methods relying on visual judgment are prone to subjective influences, while instrumental measurement offers greater objectivity and accuracy.
Application of Colorimeters in Color Management for Packaging and Printing
This article mainly discusses the application of colorimeters in color management for packaging and printing. A colorimeter is an instrument used to measure color, capable of converting colors into numerical values, such as representing them with L*a*b* values.
Multi-angle colorimeter detects color changes in pearlescent coatings.
Pearlescent coatings contain special flake pigments that produce color effects that vary with the viewing angle, known as "goniochromism." Traditional single-angle measurements struggle to accurately capture this characteristic.
Application of Colorimeters in Controlling Color Differences in Paint Batches
This article introduces the role of colorimeters in controlling color consistency in paint production. Since human judgment of color is easily influenced by lighting and subjective factors, colorimeters quantify color differences in the CIELAB color space by measuring spectral data, providing an objective basis for production.
Application of Colorimeter and Color Matching Box in Pigment Color Inspection
A colorimeter and a light booth are two primary tools in pigment color inspection. The colorimeter measures color through photoelectric principles, while the light booth provides a standardized light source environment for visual evaluation of color effects, metamerism, and other phenomena.
A spectrophotometer uses digital language to describe colors, making color differences impossible to hide.
A spectrophotometer measures the color of an object through spectral analysis, converting reflected light data into spectral curves. It then calculates chromaticity parameters such as L*a*b* based on international standards, achieving a digital representation of color.
How to Interpret Color Difference Lab Values Measured by a Spectrophotometer? Save This Color Difference Judgment Standard Now!
This article explains how spectrophotometers measure and evaluate color differences using the Lab color space. In the Lab values, L represents lightness, while a and b indicate the red-green and yellow-blue color biases. The color difference ΔE is calculated using a formula to quantify the variation between a sample and the standard.