Gel Documentation System LBGD-T2010

Introduction

Gel Documentation System offers an effective pixel resolution of 1280 × 1024, delivering high-quality imaging with excellent clarity. It is equipped with advanced electric zoom lens protection, ensuring the lens remains secure. The UV block protective cover shields sensitive components from harmful ultraviolet rays, prolonging the system's lifespan. Its ultra-thin conversion plate enhances imaging precision without compromising accuracy. Our multi-layer coated filter kit improves image quality by minimizing unwanted reflections and enhancing contrast.

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

Applications

Gel Documentation System  captures analyzes, and documents images of nucleic acids and proteins separated through gel electrophoresis. It is widely used in molecular biology, biotechnology, and genetic research for accurate visualization and data analysis.

Specifications

Effective Pixel	1280 × 1024
Pixel Density	10 bit
Pixel Dimensions	5.4 × 5.4 μm
Resolution	1.4 Megapixels
Signal to Noise Ratio	≥56 dB
Sensitivity	EB stain below 20 pg
Zoom Lens	F=1:1.2, 2/3'' inch 6x zoom lens
Filter	590 nm
Transmission UV Wavelength	302 nm (8 W)
Reflection UV Wavelength	254 nm (11 W), 365 nm (11 W)
Transmission UV Lamp Power	8 W (302nm)
Reflection UV Lamp Power	11 W (254nm)
UV Transmission Dimensions (W × L)	250 × 200 mm
Visible Light Transmission Dimensions (W × L)	250 × 210 mm
Dimensions (L × W × H)	470 × 405 × 820 mm
Weight	29 kg

Features

High-resolution digital

Real-time full-screen display

Gel center-indicator placement

Intelligent darkroom control

Automatic UV cut-off

FAQs

1. What types of gels can be analyzed using a Gel Documentation System?

Gel Documentation Systems can analyze various types of gels, including agarose gels, polyacrylamide gels (-), and Western blot membranes. These systems are compatible with gels stained using fluorescent dyes like ethidium bromide, Green, and protein stains such as Coomassie blue or silver stain. Gel Documentation Systems are designed to support multiple gel types, offering flexible imaging options and ensuring high sensitivity for detecting different nucleic acid and protein samples.

2. What lighting options are available in a Gel Documentation System?

Gel Documentation Systems offer different illumination options, including UV light, blue light, and white light. UV light is most commonly used for detecting nucleic acids stained with ethidium bromide, while blue light is safer and ideal for fluorescent dyes such as Green. White light is primarily used to visualize protein gels stained with Coomassie blue or silver stain. Gel Documentation Systems come equipped with all these lighting options, allowing researchers to select the most appropriate light source for their experiment. The systems also offer adjustable intensity settings to optimize visualization and prevent overexposure, ensuring high-quality images.

3. How does the camera resolution affect the quality of gel images?

The resolution of the camera significantly impacts the clarity, accuracy, and detail of gel images. Higher resolution cameras capture fine details and allow for better quantification of low-intensity bands. This is particularly important when working with faint signals, small bands, or complex samples. Gel Documentation Systems are equipped with high-resolution cameras that deliver sharp, detailed images, ensuring that even weak bands are accurately detected and analyzed. The systems also include automatic exposure settings and image enhancement features that further improve image quality and quantification accuracy.

4. Can the Gel Documentation System perform quantitative analysis?

Yes, modern Gel Documentation Systems are capable of performing quantitative analysis using integrated image analysis software. This software can measure band intensity, calculate molecular weight, and analyze concentration differences between samples. Quantitative analysis helps researchers assess , , or protein concentrations accurately and compare results across multiple experiments. systems include advanced analysis software with automatic band detection, background correction, and densitometry tools that ensure reliable and reproducible quantification. The software also generates detailed reports, allowing researchers to easily document and share their findings.

5. What safety precautions should be taken while using a Gel Documentation System?

Since Gel Documentation Systems often use UV light for visualization, it is crucial to take safety precautions to avoid exposure, which can be harmful to the eyes and skin. Researchers should wear protective goggles, gloves, and lab coats when working with UV light. It is also essential to ensure that the system’s UV shield or safety cover is in place to block harmful radiation. Gel Documentation Systems are designed with built-in safety features such as UV-blocking covers and automatic shut-off mechanisms, minimizing the risk of accidental exposure and ensuring a safe working environment for users.

6. How do I ensure accurate band quantification using a Gel Documentation System?

Accurate band quantification depends on optimized exposure settings, appropriate background correction, and consistent sample loading. Using a suitable molecular weight marker or ladder for reference and ensuring uniform gel running conditions also contribute to accurate quantification. Gel Documentation Systems are equipped with auto-exposure features and advanced image analysis software that automatically corrects for background noise, normalizes band intensity, and provides reliable quantification. The software’s intuitive interface guides researchers through each step, ensuring consistent and reproducible results.