Knock-In Cell Line
服务详情
Cell Types |
Various cell types including tumor cells and stem cells, etc. Click to view the Comprehensive Cell List |
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Services | Fluorescent protein knock-in / Tag protein knock-in |
Deliverables | Gene knock-in monoclonal cell line: 1 clone (2 vials, 1×10^6 cells per vial) |
Turnaround/Price |
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![Gene Knock-in Technology | EDITGENE](../../../../uploads/20241016/HzfGVupYSivgU7Dx_e12cf8485b0c17868fe3e6da1dfb60af.jpg)
EDI-Service Advantages
Efficient sgRNA Design
Optimized Donor Design
Streamlined Cell Screening Solutions
Service Types
Fluorescent Protein Knock-in | -EGFP, Luc, mCherry, and more. |
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Tag Protein Knock-in | -Flag, HA, Myc, HiBiT, and others. |
Precise insertion of specific DNA fragments into targeted genomic loci. | / |
Targeted knock-in of specific DNA fragments into genomic safe harbor regions. | / |
Workflow
![Knock-in Service Workflow | EDITGENE](../../../../uploads/20241018/xmQACIthFvNBdH0D_b79e7884fe1fc68bcd3d37573e548d89.png)
Advantage and Characteristic
![](/assets/front/img/service_p8.png)
Optimazied Strategy
![](/assets/front/img/service_p9.png)
Optimazied Strategy
![](/assets/front/img/service_p10.png)
Optimazied Strategy
![](/assets/front/img/service_p11.png)
Optimazied Strategy
参考文献
Knock-in strategy based on CLASH technology
The CLASH (Cas9-Linked Adaptor Synthesis for Homology-directed repair) technology enables efficient large-scale gene knock-in for cell engineering. This method combines the Cas9 protein and adaptor synthesis, allowing parallel knock-in across various cell types. By providing specific adaptors during the DNA repair process, it significantly enhances homology-directed repair (HDR) efficiency, thereby increasing knock-in success rates. This technology shows great potential in cell engineering and gene editing, especially for complex bioengineering applications requiring multi-gene modifications.
Enhancing CRISPR-mediated homology-directed repair (HDR) efficiency through cell cycle synchronization
This study explores a method to enhance CRISPR-mediated HDR efficiency by synchronizing the cell cycle. Using small molecules to modulate the cell cycle, researchers achieved a 1.2- to 1.5-fold increase in knock-in efficiency across various cell lines. The study also demonstrated this approach's application in animal embryos, significantly increasing knock-in frequency in pig embryos. This technique improves knock-in success by guiding cells to an HDR-favorable cycle stage, offering a new optimization strategy for CRISPR gene editing.