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The separation and identification of biomacromolecules such as nucleic acids and proteins constitute core experimental techniques in molecular biology. Traditional electrophoresis workflows are fragmented, with independent power supplies, electrophoresis tanks and imaging devices lacking systematic integration. Unstable voltage output, inconsistent buffer preparation and imprecise sample loading often cause band distortion, tailing and poor separation resolution, compromising molecular weight identification and semi-quantitative results. Tailored for nucleic acid and protein samples, our Electrophoresis Analysis Solution integrates electrophoresis hardware, supporting consumables and data analysis tools, establishing a complete workflow covering sample loading, biomacromolecule separation and band interpretation.
The solution includes programmable stable power supplies and a full range of matched electrophoresis tanks, supporting mainstream electrophoresis modes such as agarose-based nucleic acid electrophoresis and SDS-PAGE protein electrophoresis. The programmable power supply delivers precise constant voltage and constant current control with gradient programming functions, ensuring stable output and minimizing band distortion caused by current fluctuation during electrophoresis. Optimized tank structures provide uniform heat dissipation and effectively prevent band diffusion induced by overheating, adapting to both micro-sample and high-throughput experimental scenarios. Seamlessly compatible with our imaging analysis system, the platform enables a streamlined closed-loop workflow of electrophoresis separation, image acquisition and band analysis, allowing gels to be directly transferred for post-electrophoresis imaging.
Designed to serve both teaching laboratories and professional research platforms, the solution offers flexible hardware configurations with basic and high-throughput options. Standardized operating SOPs help standardize laboratory electrophoresis procedures and reduce experimental failures caused by manual errors. As a fundamental separation technology for biomacromolecule research, the integrated electrophoresis system simplifies operational procedures and improves separation stability and result repeatability. Compatible with sample pre-treatment and imaging systems, it forms a complete molecular experimental platform, providing robust and reliable macromolecule separation and detection capabilities to support consistent and progressive molecular biology research.