Electrophoresis Power Supply LEPS-T2023

Introduction

Electrophoresis Power Supply has a voltage range of 30 to 1000 V and offers wide adaptability for stable voltage control. Its quiet operation mechanism ensures a noise-free lab environment, promoting better focus and comfort during use. The integrated error code display system provides real-time alerts for quick troubleshooting and uninterrupted performance. It features universal power input support, making it compatible with varying international voltage standards. Our electrophoresis power supply has vibration-resistant construction, enhances system stability, and safeguards internal components.

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	30 to 1000 V
Current Range	1 to 500 mA
Power Range	1 to 300 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)	260 × 275 × 125 mm
Weight	4.6 kg

Features

Stable long-duration runs

Built-in data storage

Programmable run profiles

Laboratory-grade accuracy

Supports multiple gel formats

FAQs

1. How do I determine the optimal run time for electrophoresis?

The optimal run time for electrophoresis depends on factors like gel type, buffer composition, molecule size, and applied voltage. Running the gel for too short a time may result in poor separation, while running it for too long can cause diffusion or band smearing. A good practice is to monitor the dye front movement or use a pre-determined migration chart. electrophoresis power supplies offer real-time monitoring and adjustable run-time settings, ensuring researchers can achieve precise and reproducible separations.

2. Can I use an electrophoresis power supply for non-electrophoresis applications?

While electrophoresis power supplies are primarily designed for gel electrophoresis, they can also be used for applications requiring precise low-voltage DC power, such as electroblotting, cell electroporation, and electrochemical reactions. However, it is crucial to ensure that the voltage and current settings align with the specific requirements of the alternative application. power supplies provide adjustable voltage and current outputs, making them versatile and suitable for a wide range of laboratory experiments beyond electrophoresis.

3. What is the difference between constant voltage, constant current, and constant power modes?

Electrophoresis power supplies typically operate in three different modes: constant voltage (CV), constant current (CC), and constant power (CP). In constant voltage mode, the voltage remains fixed while the current varies depending on gel resistance. This mode is commonly used for and electrophoresis. In constant current mode, the current remains steady while the voltage adjusts, making it ideal for - and protein separations, where maintaining a stable migration rate is crucial. Constant power mode is useful for applications like isoelectric focusing (), where both voltage and current are adjusted dynamically to maintain stable power output. electrophoresis power supplies offer flexible operation in all three modes, allowing researchers to choose the most suitable setting for their experiments.

4. How does temperature affect electrophoresis performance, and how can it be managed?

Excessive heat generation during electrophoresis can lead to gel distortion, poor band resolution, and sample degradation. Factors like high voltage settings, prolonged run times, and inadequate buffer circulation contribute to heat buildup. To manage this, it is recommended to run gels at lower voltage settings for longer durations, use cooling systems or pre-cooled buffers, and ensure that the electrophoresis chamber is well-ventilated. electrophoresis power supplies incorporate stable voltage control and heat management features, reducing the risk of overheating and ensuring optimal separation conditions.

5. What are the common mistakes to avoid when using an electrophoresis power supply?

Some common mistakes when using an electrophoresis power supply include using incorrect voltage settings, improper gel loading, and connecting electrodes in the wrong orientation. Other errors include not using fresh buffer solutions, failing to check for damaged cables, and running the gel for too long or too short a time. These mistakes can lead to poor separation, sample loss, or even damage to the gel and equipment. power supplies come with clear display indicators, safety alarms, and user-friendly controls, helping researchers minimize errors and achieve consistent, high-quality results.