Electrophoresis Power Supply LEPS-T2020

Introduction

Electrophoresis Power Supply has a voltage range of 10 to 300 V and provides stable and adaptable power delivery for various electrophoresis. It features an anti-slip rubber base that ensures secure placement during operation, minimizing movement and enhancing lab safety. The advanced thermal protection safeguards internal components from overheating, extends equipment life, and provides consistent performance. Our electrophoresis power supply has easy firmware upgrades that allow users to keep the system up to date with the latest features and enhancements.

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

Applications

Electrophoresis Power Supply separates nucleic acids or proteins by breaking their secondary structures, ensuring separation based on size. It is used in molecular biology, genetic research, and protein analysis for mutation detection, and denatured protein studies.

Specifications

Voltage Range	10 to 300 V
Current Range	1 to 1500 mA
Power Range	1 to 450 W
Storage Function	Store 100 Methods
Programming Method	Can store 10 methods, each upto 10 steps
Timer Range	1 min to 99 hr 59 mins
V-hr Function	1 to 99999 V-hr
Output Jacks	Four Sets
Dimension (L × W × H)	280 × 237 × 118 mm
Weight	3.2 kg

Features

Real-time performance tracking

Flexible output configurations

Built-in system diagnostics

Precision timer integration

Compact bench-top footprint

FAQs

1. What is the function of an electrophoresis power supply in the lab?

It provides electrophoresis power supplies that serve as the backbone of gel electrophoresis systems by supplying a consistent and regulated electric field. This field is essential for driving charged molecules like nucleic acids and proteins through a gel matrix, allowing scientists to separate them based on size or charge. The power supply ensures precise control over voltage, current, and time, which is critical for obtaining accurate and reproducible results. Without a reliable power source, separation would be uneven or unclear, potentially compromising experimental outcomes.

2. How do I choose the right electrophoresis power supply for my application?

It advises users to consider the specific type of electrophoresis they plan to perform (, , or protein), as well as the gel system dimensions and experimental load. power supplies come with flexible voltage and current ranges, timer settings, and multiple output modes (constant voltage, constant current, constant power) to suit various research needs. For example, gel electrophoresis generally requires lower voltage, while protein - may need higher settings. units are built to be compatible with a wide variety of electrophoresis chambers, ensuring smooth integration and optimized performance across different techniques.

3. Can one power supply be used for multiple types of electrophoresis?

It manufactures versatile electrophoresis power supplies that are compatible with multiple electrophoresis techniques. These systems are equipped with programmable modes and wide-ranging output capabilities, allowing users to easily switch between applications like agarose gel electrophoresis for , - for proteins, and even Western blotting. This eliminates the need for multiple dedicated power units, saving both bench space and cost, while also increasing workflow efficiency and standardization in multi-purpose labs.

4. What are the advantages of using a programmable power supply?

programmable electrophoresis power supplies allow users to automate experimental runs by setting specific voltage, current, and time profiles in advance. This capability is especially beneficial for long or multi-step procedures that require gradual changes in parameters. Programmability not only saves time but also reduces manual intervention, ensuring better reproducibility and minimizing errors. user-friendly interface allows for storing and recalling programs, which streamlines repetitive tasks and enhances overall laboratory productivity.

5. How does the constant voltage or current mode affect gel results?

It incorporates both constant voltage and constant current modes in its power supplies, giving users the flexibility to adapt to their experimental needs. Constant voltage mode keeps the voltage steady while allowing current to fluctuate based on gel resistance ideal for / separation. In contrast, constant current mode is often preferred for protein electrophoresis as it ensures uniform migration and prevents heat build-up, which can distort bands. precise output regulation prevents anomalies during the run, helping researchers achieve clear and well-resolved band patterns.