Webinars

WEBINAR

How-to Guide for TARGATT™ Transgenic Kit, by Dr Ruby Chen-Tsai (Julu 2017)

WEBINAR-TARGATT-Howto-guide 

The TARGATT™ Transgenic Kit is designed to create site-specific knock-in transgenic mice at a defined chromosomal locus in a more efficient and significantly faster way over traditional methods. Generating transgenic mice by conventional methods (e.g. pronuclear microinjection or lentiviral injection) has following limitations, first of which is random insertion of the transgene. Random insertion of a transgene results in position effect where either the transgene is prone to silencing or endogenous gene expression is disrupted. Secondly, transgenes can be inserted as multiple copies, resulting in instability at the insertion locus. Using our proprietary site-specific DNA integration system, TARGATT™, combined with our genetically engineered TARGATT™ mice (Charles River strain code 537 and 549) or embryos (ASC cat. #AST-0001, #AST-0002, #AST-0003, #AST-0004, #AST-0012, #AST-0013), you can generate your desired mouse models with guaranteed gene expression in as little as three months.

This video gives a step-by-step overview on how to use the TARGATT™ Trangenic Kit and the TARGATT™ technology to generate site-specific knock-in mouse models.


Human iPSC-based Disease Modeling & Drug Screening for Neurodegenerative Disorders (May 2017)

WEBINAR-iPSC-neural-Xianmin


Human induced pluripotent stem cell (iPSC) technology offers the benefits of a cell line coupled with the advantage of using human primary cells. Additionally, iPSCs are also amenable to genome editing, and engineered iPSCs and their isogenic control lines can be terminally differentiated into cells of multiple lineages. This presents an almost limitless access to relevant and predictive disease models for basic research, drug discovery, toxicity screening and hopefully for regenerative cell therapy. In this webinar, we will elaborate on a panel of iPSC lines engineered for neurotoxicity assays and disease modeling. The cell lines in this panel include: 1) control lines, 2) patient-specific lines, 3) lineage-specific knock-in reporters, 4) isogenic controls of single and double knock-outs. We have also established scalable protocols for generating differentiated cells in an assay ready format. This talk will focus on the utility of these lines for neurotoxicity assays, including assays to determine the specificity of different neural cell types for a small range of chemicals and drugs from the Tox21 library, as well as for neuroprotective assays with dopaminergic neurons.

Highlights of this webinar:

Choosing the Right Genome Editing Technology for Your Mouse ModelsCRISPRTARGATT™ and Beyond... (February 2017)

2017-webinar-mousemodel


Highlights of this Webinar:



Using autobioluminescent cells to reduce the cost and complexity of optical imaging (November 2016)

2016-autobioluminescence-webinar

  

Autobioluminescent cells use a genetically encoded synthetic luciferase cassette to continuously produce a bioluminescent signal without the need for extracellular stimulation. By encoding both a luciferase protein, as well as a short synthetic pathway capable of transforming natural intracellular products into luciferin substrates, these cells can self-modulate their bioluminescent production in response to metabolic activity levels, or autonomously enact their bioluminescent phenotype in response to intra- or extracellular events. The use of this self-directed approach to bioluminescent imaging improves upon traditional reporters such as firefly luciferase (luc) by negating the need for light activating chemical substrate addition, which reduces the cost of performance while simultaneously increasing the amount of data that can be obtained per run. This eliminates the need for sample destruction or any investigator interaction, allowing for ultra-simplistic, low-cost bioluminescent screening using existing optical imaging equipment. This webinar will discuss the capabilities and uses of autobioluminescent cells for improving existing bioluminescent imaging workflows and for developing new workflows that leverage the autonomous signal generation phenotype to gather data not available from traditional optical imaging reporter platforms.

Highlights of this webinar: 

  • An introduction to autobioluminescence
  • Autobioluminescent vs. bioluminescent imaging
  •  Using autobioluminescence for in vitro applications
  •  Using autobioluminescence for in vivo applications
  •  Autobioluminescent expression in stem cells
  •  Conclusions

ONCOREF™ Reference Standards: Application of CRISPR/Cas9 to the Generation of Isogenic Cell Lines and Reference Materials (October 2016)

2016-Oncoref-webinar


CRISPR/Cas9 is rapidly enabling the development of new tools for enhancing our understanding oncogenic mutations in cancer. In order to aid in advancing cancer diagnosis and treatment, Applied StemCell has recently engineered a series of 40 isogenic cell lines that feature diverse mutations in the MAPK pathway. These mutant lines are available as isogenic pairs for applications in lead compound discovery, or as FFPE and nucleic acid reference materials for assay development. This webinar will focus on ASC’s efforts in developing these research tools, as well as applications of the materials for the advancement of cancer research.

Highlights of this talk:

  • Overview of molecular reference materials 
  • Workflow and QC for ONCOREF™ cell line generation
  • Advantages of CRISPR-engineered molecular reference standards
  • Applications of reference materials in assay development
  • Q & A

CRISPR/Cas9 Gene Editing in Blood-derived Immune Cells (July 2016)

2016-blood-cell-webinar

 
This recorded webinar discusses Applied StemCell's efforts in fine tuning its CRISPR/Cas9 technology to improve the efficiency of gene editing in blood derived

Highlights of the talk: immune cells, such as Jurkat, K562, TF1, natural killer cell-derived cell lines and bone marrow cell lines. The talk also illustrates the potential difficulties when working with blood cells and demonstrates how Applied StemCell addresses these issues. 

  • Discrepancies in guide RNA (gRNA) activity among major blood-derived cell lines and how it affects gene editing efficiency
  • Guidelines to generate your desired mutations when available gRNAs are not ideal
  • Key steps to enhance your screening process and improve genome modification efficiency
  • Alternate solutions for engineering cell lines sensitive to DNA plasmid transfection

Generating Site-specific Transgenic Rat Models using TARGATT™ (April 2016)

2016-TARGATT-rat-webinar

 

This webinar introduces the TARGATT™ integrase based technology for generation of transgenic rats. The TARGATT™ platform enables very efficient insertion of large fragment DNA into a preselected, transcriptionally active locus in the rat genome. The webinar also discusses the advantages of generating transgenic rat models using this technology and the various applications that these rat models can be used in.

Highlights of the talk:

  • Introduction to TARGATT™ integrase based technology
  • How TARGATT™ technology is used to generate large fragment knock-in animal models
  • Advantages of using TARGATT™ for site-specific knock-in compared to other gene editing technologies
  • How we generate transgenic rat models using the TARGATT™ platform

 TARGATT™ and CRISPR/Cas9 modified induced pluripotent stem cells (iPSCs) for in vitro genetic disease modeling (December 2015)

2015-iPSC-disease-modeling

 

Applied StemCell is one of the prominent providers of gene editing services to generate transgenic animal and cellular models for researchers in academia and industries. This recorded presentation showcases Applied StemCell's achievements with using CRISPR/ Cas9 and its proprietary TARGATT™ gene editing technologies to modify induced Pluripotent Stem Cells (iPSCs). The webinar also explains the need for better models of human diseases and the advantages of using of genetically engineered iPSCs as in vitro models for genetic disease modeling. With examples and case studies, we describe how we optimize protocols to improve efficiency and are able to provide high quality service for generating iPSC disease models.

Highlights of this talk:

  • Current trends in genetically modified iPSCs as disease models
  • ASC's complementary technology platforms (CRISPR & TARGATT™) used for generating site-specific, genetically modified iPSC models
  • Advantages of using genetically modified iPSCs and bottlenecks in gene editing of iPSCs
  • ASC's upgraded protocols for high efficiency gene editing in iPSCs
  • Examples of gene modification from patient/ healthy individual derived iPSCs