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CRISPR-edited Knock-in iPS Cells

Accelerate disease model development, drug discovery, and regenerative medicine with the high editing efficiency and precise genomic integration of EditCo's edited iPS Cells.

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Overview

Unlock advanced CRISPR knock-ins for neuroscience and regenerative medicine research.

  • Quality: Maintain iPSC quality, pluripotency, and cell integrity with EditCo’s editing process.
  • Precision: Focus on the phenotype of your desired edit and minimize off-target effects with transient transfection.
  • Unlocked Capacity: Experience faster lead times with EditCo’s high-throughput automated platform.
iPS Cells

Achieve Precise CRISPR Knock-Ins While Preserving iPSC Quality

Elevate your neuroscience, cardiovascular, or regenerative medicine research with EditCo's precise CRISPR knock-in edits in iPSCs. Let EditCo handle the complex editing process so you can focus on assay development, differentiation, and other downstream applications. Our robust, automated platform ensures high editing efficiencies while maintaining cell quality and pluripotency, providing you with reliable and artifact-free CRISPR-edited iPSCs.

EditCo offers a range of knock-ins, including single nucleotide variants (SNVs), tags, and <100 bp insertions, available in both homozygous and heterozygous states, and in clone or pool formats. Empower your research and accelerate your discoveries with EditCo's advanced CRISPR technology.

EditCo’s Automated iPS Cell Line Editing Process

Cell Pools Clones Timeline

 

Isogenic Neuronal Lines
Isogenic Neuronal Lines: Developing a neuronal isogenic line reverting a disease SNV genotype back to wild type or vice versa is easy with our quality CRISPR edited iPSCs differentiated into your neuronal cell type(s).
Drug Screening
Drug Screening: Enable drug screening in disease-relevant cell types with necessary gene-corrected control lines to increase the rate of success of an identified target compound.
Protein Tagging
Endogenous Tagging of Proteins: Efficiently tag your target protein to study subcellular localization under endogenous regulatory elements.
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Disease Modeling: Study your mutation of interest in a disease-relevant cell type through edited iPSCs that maintain quality, enabling differentiation.
Single-guide RNA Knock-in Cell Pools

Single-guide RNA Knock-in Cell Pools

High Efficiency CRISPR iPSC Knock-ins with DIY Clonal Isolation

EditCo’s Knock-in iPS Cell Pools provide a heterogeneous mix of CRISPR-edited and unedited cells, giving you high editing efficiency without clonal isolation. Benefit from EditCo’s optimized CRISPR platform, achieving precise edits while allowing you the flexibility to perform clonal isolation yourself. For those seeking a fully automated process, explore our Knock-in iPS Cell Clones for guaranteed homogeneity and convenience.

Features

Cell Source

  • EditCo supplied (standard)
  • Customer supplied

Available Edits

  • SNV, Tag, or Insersion
  • A heterogeneous population of edited and unedited cells

CRISPR Design

  • Synthetic modified sgRNA (standard)
  • Donor ssODN (standard)

Add-ons

  • QC: Pluripotency testing

Deliverables

  • Regular updates on your order's progress
  • Edited cell pools (2 vials with 5 million cells/vial)
  • Mock-transfected cell pools (2 vials with 5 million cells/vial)
  • Sequence of synthetic sgRNA used
  • Primer sequences used for NGS sequencing
  • NGS sequencing analysis report for each edited pool after expansion.
  • Comprehensive QC report that includes the following information: mycoplasma test (positive/negative), passage number, and analysis for add-on QC

Sequencing deliverable note: For large knock-ins and non-human/mouse cell types an alignment between the Sanger sequencing data of the edited pool and the knock-in sequence will be provided

Robust Editing Across Different iPSC Lines

EditCo’s robust, automated editing platform results in high knock-in efficiency across a range of workhorse iPSC lines and patient derived iPS cell lines, ensuring a high success rate in any iPSC line.

 

iPSC Knock-in

Figure 1. Average knock-in editing efficiency by knock-in type. Knock-in efficiencies were all above 31% and performed in a variety of EditCo-supplied and customer supplied iPSC lines. Tags and Small KIs were all less than 100 bps in length. Knock-in edits were performed using RNPs and ssODNs and editing efficiency was assessed in the pool stage before proceeding to clonal isolation. DNA in each population of cells was PCR-amplified around the cut site, Sanger-sequenced, and submitted for ICE analysis to quantify editing efficiency.

 

EditCo Delivers Pluripotent Edited Cells

Quality comes first in the development of EditCo’s Knock-in iPS Cells by using our automated workflow and transient RNPs to maintain pluripotency of your cells.

iPSC Pluripotency

Figure 3. iPS cells were assessed for standard pluripotency markers, three days post-editing.

Single-guide RNA Knock-in Cell Clones

Single-guide RNA Knock-in Cell Clones

Move Directly Into Your Functional Assays with Confidence

Streamline your research with EditCo’s Knock-in iPS Cell Clones, a homogeneous population of iPSC cells derived from single CRISPR-edited cell. Focus on your functional assays and downstream applications while we handle the entire CRISPR editing and single-cell cloning process, ensuring you receive high-quality, reliable clones to accelerate your scientific breakthroughs.

Features

Cell Source

  • EditCo supplied (standard)
  • Customer supplied

Genetic Modifications

  • SNV, Tag, or Insertion
  • Homozygous or Heterozygous Edits

CRISPR Design

  • Synthetic modified sgRNA (standard)
  • Donor ssODN (Standard)

Add-Ons

  • Additional clones
  • QC: Pluripotency Testing
  • QC: Karyotype Testing

Deliverables

  • Regular milestone updates on your order's progress
  • 2 independent clones with the required knock-in (2 vials of each clone with 500,000 cells/vial)
  • Mock-transfected cell pools (2 vials with 500,000 cells/vial)
  • Sequence of synthetic sgRNA and HDR template used
  • Primer sequences used for NGS sequencing
  • NGS sequencing analysis report for each edited pool after expansion.
  • Comprehensive QC report that includes the following information: mycoplasma test (positive/negative), passage number, and analysis for add-on QC

Sequencing deliverable note: For large knock-ins and non-human/mouse cell types an alignment between the Sanger sequencing data of the edited pool and the knock-in sequence will be provided

Precise Single Nucleotide Variants (SNVs)

iPSC SNV-2

Figure 3. 100% SNV editing in iPS cell clones. A CRISPR-edited homozygous clone containing a single nucleotide change from cytosine (C, bottom) to thymine (T, top). The SNV change is enclosed by an orange box across both traces. The target sequence (underlined in black) and the PAM site (underlined with a red dashed line) are indicated in the control trace. Human iPS cells were electroporated with sgRNA and Cas9 (as RNPs) along with a ssODN containing the single nucleotide change. To produce clonal populations, single cells were isolated using limiting dilution and expanded.

Cell Lines

Use Our iPS Cell Lines or Onboard Your Own

 
EditCo-supplied cell lines available for all engineered iPS cell orders at no additional cost

* Parental vials available for evaluation prior to booking an edit

Resources

Application Note
CRISPR-Engineered Cells Enable Variant Disease Modeling
Understand how all researchers can leverage CRISPR-engineered cells to model multiple genetic variants and clones at scale.
Learn More
article
A New Research Toolbox at the Forefront of Genomic Engineering
This GEN article describes how EditCo’s novel CRISPR platform is changing cell and gene therapy research, including high-throughput iPSC editing.
Learn More
Flyer
CRISPR-Edited iPS Cells, Guaranteed
CRISPR-Edited iPS Cells, GuaranteedWe offer knockouts, single nucleotide variants, and tag insertions in control or patient-derived iPS cell lines—available in homozygous or heterozygous clone or pool formats.
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EditCo's Automated CRISPR Platform

Integrating our core CRISPR expertise, high-quality reagents, and automated processes, we deliver the best edited cell-based models at any scale.

CRISPR Engineered Cells Enable Variant Disease Modeling
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Leveraging a sophisticated infrastructure with integration between bioinformatics, software, and automated platforms
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Automating biology and synergistic disciplines for streamlined cell editing and cell culture workflows
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Delivering experiment-ready edited cells for your next discoveries through a robust and cohesive ecosystem
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Principal Investigator, Boston Children's Hospital
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Principal Investigator, Boston Children's Hospital, Dana-Farber Cancer Institute, Harvard Medical School
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Albert Rose, Ph. D.
Principal Investigator, Boston Children's Hospital, Dana-Farber Cancer Institute, Harvard Medical School
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Albert Rose, Ph. D.
Principal Investigator, Boston Children's Hospital, Dana-Farber Cancer Institute, Harvard Medical School
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