Spectral Colorimeter LCS-T2016

Introduction

Spectral Colorimeter offers a semiband width of 10nm, ensuring wavelength resolution for accurate color differentiation and spectral analysis. It features an integrated white calibration plate, providing a standard reference for minimizing errors. The instrument includes an enhanced yellow and white index, improving the evaluation of visual brightness. Our spectral colorimeter has a silicon photodiode array sensor for detecting light intensity across different wavelengths.

This analytical equipment is designed to meet the rigorous requirements of modern laboratory operations, ensuring high precision, reliability, and ease of use for various experimental applications.

Applications

Spectral Colorimeter determines color accuracy by comparing measured spectra against standard color models. It plays a key role in the textile, printing, and dyeing sectors for batch quality control and ensuring color consistency in the printing and dyeing process.

Specifications

Semiband Width	10nm
Optical Geometry	D/8
Sphere Size	Φ40 mm
Wavelength Range	400 to 700 nm
Measuring Aperture	Φ8mm
Measured Reflectance Range	L: 0 to 100
Color Spaces	, , Yxy, LCh
Color Difference Formula	ΔE × ab, ΔE × 00
Illuminants	D 65, A, F2 ()
Viewing Angle	10°
Measurement Time	1.5s
Repeatability	Chromaticity Value: /, ΔE × ab 0.08
Inter-Instrument Error	/, within ΔE × ab 0.4
Displayed Accuracy	0.01
Measurement Mode	2 to 99 times
Storage Capacity	1000Pcs Standard, 30000 Pcs Sample
Operating Temperature	0 to 40°C, 0 to 85% RH, Altitude<2000m
Storage Temperature	-20 to 50°C, 0 to 85% RH
Dimensions (L× W× H)	81 × 71 × 214 mm
Weight	460g

Features

Rapid Data Analysis

Multiple Measurement Averages

Color Accuracy Verification

Advanced Error Detection

Polarization Reflection Filter

FAQs

1. Can spectral colorimeters be used to analyze colors in food products?

Yes, spectral colorimeters can be used to analyze colors in food products. In the food industry, color is a critical quality parameter that affects both consumer perception and product consistency. Spectral colorimeters measure the full spectrum of reflected light from food surfaces, allowing manufacturers to track subtle color changes that might indicate spoilage, oxidation, or differences in ingredients. These instruments are highly effective in assessing products like fruits, meats, sauces, and beverages. Since food products can have complex surfaces and varying textures, spectral colorimeters offer the advantage of capturing accurate and reproducible color measurements. By using tools like Lab* color space, manufacturers can ensure that their food products meet the desired color specifications, which are often key indicators of quality and freshness.

2. How do spectral colorimeters handle the measurement of color in liquids?

spectral colorimeters can measure the color of liquids by using a transmittance measurement method. In this configuration, light is passed through the liquid sample, and the colorimeter measures the light that passes through the liquid at various wavelengths. This allows the instrument to capture the color characteristics based on the absorption of specific wavelengths by the liquid. Special cuvettes or measurement cells are often used to hold the liquid during the measurement, and the instrument must be carefully calibrated to account for the thickness of the liquid and the potential influence of container materials. Spectral colorimeters can be highly accurate in determining the precise color of liquids, which is valuable in applications such as chemical analysis, beverage production, or even medical diagnostics where the color of liquids can be indicative of certain properties or conditions.

3. How does spectral colorimeter calibration differ for different types of samples?

It supplies advanced models of spectral colorimeter. Calibration of a spectral colorimeter may vary depending on the type of sample being measured, due to the inherent differences in surface properties. For flat, smooth samples, calibration typically involves using a white calibration standard to account for baseline reflectance across the full spectrum. Calibration for materials like glossy surfaces, which reflect light it may require a different setup to avoid measurement errors caused by angle-dependent reflection. The goal of calibration in all cases is to ensure that the colorimeter delivers accurate and reproducible readings, whether the sample is flat, textured, glossy, or translucent.

4. How does the spectral colorimeter account for different light conditions during measurements?

Spectral colorimeters are equipped with the ability to simulate different light conditions, which is critical for measuring how a color appears under various lighting environments. This is accomplished by using standard illuminants, such as D65 (daylight), A (incandescent), or F (fluorescent), which represent typical light sources encountered in daily life. The colorimeter captures how the sample reflects light under each illuminant and adjusts the measurement accordingly. Some advanced spectral colorimeters offer the ability to simulate multiple light conditions and even adjust for metamerism—where two colors may look the same under one light but different under another. By factoring in the effects of various light sources, the spectral colorimeter ensures that the color measurements accurately reflect how a sample will appear in real-world settings.

5. How does spectral resolution affect the accuracy of color measurement in spectral colorimeters?

It supplies premium spectral colorimeter. Spectral resolution refers to the ability of the colorimeter to distinguish between closely spaced wavelengths of light. The higher the spectral resolution, the more detailed the measurement will be across the visible spectrum. This is particularly important when measuring subtle color differences or working with materials that have complex optical properties. A high spectral resolution allows the colorimeter to capture finer details in the reflectance curve of a material, which enhances the accuracy of the color measurement. In contrast, a lower resolution might miss these subtle differences, leading to less precise color data. Therefore, for applications requiring exact color matching or the analysis of intricate color transitions, a high spectral resolution is essential. It ensures that even slight variations in color, which might be significant in precise color analysis, are accurately captured.