Description
Specifications Table
| Product Name | Biolit® Cas9 Nickase |
|---|---|
| Quantity/Pack Size | 50 pmol |
| Form | Liquid |
| Grade | Research Grade |
| Application | Gene Editing, CRISPR-Cas9 Research |
Product Description
Biolit® Cas9 Nickase is a specialized CRISPR enzyme designed for precise gene editing applications. Unlike traditional Cas9, this nickase variant introduces single-strand breaks in DNA, reducing off-target effects and improving editing accuracy. It is widely used in molecular biology labs for genome engineering, functional genomics, and synthetic biology research.
This high-quality enzyme is purified to ensure maximum activity and stability, making it a reliable choice for researchers working on complex genetic modifications. Whether you’re studying gene function or developing therapeutic models, Biolit® Cas9 Nickase provides the precision needed for successful experiments.
Upgrade your gene editing toolkit with Biolit® Cas9 Nickase—order now for seamless research workflows.
At eqipped, we understand the importance of reliable lab supplies. That’s why we source Biolit® Cas9 Nickase directly from trusted manufacturers, ensuring you receive a product that meets rigorous quality standards. Our seamless ordering process and fast delivery make it easier than ever to get the tools you need for your research.
FAQs
What is the difference between Cas9 and Cas9 Nickase?
Cas9 Nickase introduces single-strand breaks in DNA, while traditional Cas9 creates double-strand breaks. This reduces off-target effects and improves editing precision.
How should I store Biolit® Cas9 Nickase?
Store at -20°C for long-term stability. Avoid repeated freeze-thaw cycles to maintain enzyme activity.
Is this product suitable for in vivo applications?
Yes, Biolit® Cas9 Nickase is commonly used in both in vitro and in vivo gene editing experiments.
What is the shelf life of this enzyme?
When stored properly, Biolit® Cas9 Nickase remains stable for up to 12 months.
Can I use this for CRISPR screening?
Absolutely. Its high specificity makes it ideal for large-scale CRISPR screens and functional genomics studies.
