Electrophoresis Power Supply LEPS-T2013

Introduction

Electrophoresis Power Supply Voltage Range of 5 to 300 V ensures adaptability across various laboratory applications, allowing precise control over experimental conditions. It features user-programmable settings, enabling researchers to customize voltage parameters for different protocols. The system ensures smooth power distribution, reducing fluctuations for consistent performance. Its compatibility range supports multiple electrophoresis techniques.  Our electrophoresis power supply has high-precision voltage control and accurate adjustments for optimal separation efficiency.

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	5 to 300 V
Current Range	1 to 400 mA
Power Range	1 to 120 W
Storage Function	Store 10 Methods
Timer Range	1 min to 99 hr 59 mins
Output Jacks	Two Sets
Dimension (L × W × H)	280 × 237 × 118 mm
Packing Dimension	380 × 340 × 230 mm
Weight	3.2 Kg
Gross Weight	4 Kg

Features

High durability components

Intuitive control panel

Rapid voltage adjustment

Noise-free power output

Overcurrent protection system

FAQs

1. Can I use the same power supply for both and protein electrophoresis?

Yes, but it is important to use a power supply with adjustable voltage and current settings to accommodate both techniques. and electrophoresis require low voltage for longer durations, whereas protein electrophoresis often requires higher voltage for shorter runs. power supplies feature multiple operation modes (constant voltage, current, and power) and a wide range of voltage outputs, making them suitable for both nucleic acid and protein electrophoresis applications. Their digital interface and programmable settings allow users to easily switch between different electrophoresis techniques.

2. What safety features should an electrophoresis power supply have?

A reliable electrophoresis power supply should be equipped with essential safety features such as overload protection, short-circuit detection, automatic shut-off, and voltage stabilization to prevent accidents and damage to sensitive equipment. power supplies incorporate these advanced safety mechanisms, along with real-time monitoring and alarms that alert users to any irregularities. This ensures that electrophoresis experiments can be conducted safely and with minimal risk of electrical faults or overheating.

3. How can I prevent overheating during electrophoresis?

Overheating can lead to poor resolution and distorted bands in electrophoresis. To minimize heat buildup, it is advisable to use a lower voltage for a longer duration, ensure adequate ventilation around the system, and use pre-chilled buffer solutions. Running multiple gels at excessively high voltages should also be avoided. electrophoresis power supplies are designed with efficient heat management systems, ensuring controlled power output and stable temperature conditions to prevent excessive heating.

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

Electrophoresis power supplies operate in different modes to suit various applications. In constant voltage mode, the voltage remains steady while the current fluctuates, which is commonly used for and electrophoresis. Constant current mode keeps the current stable while the voltage adjusts, making it ideal for protein electrophoresis such as -. Constant power mode regulates both voltage and current to maintain a fixed power output, often used in isoelectric focusing. power supplies offer all three operation modes, allowing users to choose the best settings for their experiments with ease.

5. Why is my electrophoresis run taking longer than expected?

Several factors can contribute to a slow electrophoresis run, including low voltage settings, high buffer resistance, poor gel quality, or incorrect electrode placement. Using fresh buffer solutions, optimizing voltage settings, and ensuring proper gel preparation can help improve run efficiency. electrophoresis power supplies provide stable and precise power delivery, reducing the likelihood of inconsistencies and ensuring timely completion of experiments.