MTK

MTK enables rapid assembly of modular DNA circuits for mammalian cells using Golden Gate-based cloning to construct transcriptional units from a curated parts library for applications including dCas9-based circuit prototyping and generation of noninfectious viral circuits for pharmacological testing.


Key Features:

  • Golden Gate-Based Cloning: Uses Golden Gate assembly to combine parts into transcriptional units with high fidelity and scarless junctions.
  • Curated Library of Modular Parts: Provides a characterized collection of interchangeable genetic parts for building promoters, coding sequences, and regulatory elements.
  • Versatile Assembly Capabilities: Supports construction of single-integration landing pads and generation/delivery of libraries containing protein variants and single-guide RNAs (sgRNAs).
  • Iterative Circuit Prototyping: Enables repeated assembly and testing cycles for dCas9-based regulatory circuit development.

Scientific Applications:

  • Noninfectious Viral Circuit Generation: Produces noninfectious viral circuits for rapid testing of pharmacological inhibitors against emerging viruses.
  • dCas9 Circuit Development: Facilitates prototyping and optimization of dCas9-based gene regulatory circuits in mammalian cells.
  • Library-Based Screening: Enables construction and delivery of protein variant and sgRNA libraries for functional screening.
  • Cell Engineering with Landing Pads: Supports creation of single-integration landing pads for stable integration of synthetic circuits in mammalian cells.

Methodology:

Selection of modular parts from the curated library followed by assembly into transcriptional units using Golden Gate cloning, with resulting constructs integrated into mammalian cells.

Topics

Details

Tool Type:
command-line tool
Added:
1/14/2020
Last Updated:
12/29/2020

Operations

Publications

Fonseca JP, Bonny AR, Kumar GR, Ng AH, Town J, Wu QC, Aslankoohi E, Chen SY, Dods G, Harrigan P, Osimiri LC, Kistler AL, El-Samad H. A Toolkit for Rapid Modular Construction of Biological Circuits in Mammalian Cells. ACS Synthetic Biology. 2019;8(11):2593-2606. doi:10.1021/acssynbio.9b00322. PMID:31686495.

PMID: 31686495
Funding: - Defense Advanced Research Projects Agency: HR0011-16-2-0045 - National Science Foundation: 1715108