Microlab nitrocellulose membrane is composed of high-quality 100% pure nitrocellulose membranes. The rolls, sheets, are available in 0.22μm and 0.45μm with high surface area and uniformity. The nitrocellulose membranes have high binding properties for Western blot, dot-blot assays, and other protein or nucleic acid methods. Special formats have been developed for stripping and/or reprobing purposes.
Introducing Microlab nitrocellulose membranes – the ideal solution for your laboratory's protein and nucleic acid analysis needs. Our membranes are made from 100% pure nitrocellulose and are designed to deliver superior performance for a wide range of applications, including protein blotting and dot blot analysis.
Microlab nitrocellulose membranes are available in 0.22 μm and 0.45 μm sizes, featuring high specific surface area and uniformity to ensure optimal sample binding performance. They are ideal for researchers and scientists requiring reliable and consistent results. The superior binding capacity of our membranes enables efficient capture and detection of proteins and nucleic acids, making them an essential tool in molecular biology and biochemistry laboratories.
In addition to their superior performance, Microlab nitrocellulose membranes are designed with versatility in mind. We have developed special specifications for peeling and reprobeging, allowing you to maximize the use of each membrane and minimize waste. This feature is especially important for researchers who want to save time and resources while maintaining experimental integrity.
Whether you're conducting routine testing or cutting-edge research, Microlab nitrocellulose membranes are the ideal choice for your reliable imprinted membrane filters. With their high-quality structure and superior binding properties, you can trust the accuracy and reproducibility of your results. Microlab nitrocellulose membranes—the perfect combination of quality and performance—help you improve your laboratory productivity. Experience their superior performance today and learn how our membranes can help you achieve better research results.
