CRISPR Knockout ready ioMotor Neurons Immunofluorescence stain
SOX11 functionality by immunofluorescence in CRISPR knockout ready ioMotor Neurons
SOX11 functionality by immunofluorescence quantification in CRISPR knockout ready ioMotor Neurons
CD63 knockout data in CRISPR knockout ready ioMotor Neurons by flow cytometry
CRISPRkoMotor_morphology_brightfield
CRISPR knockout ready ioMotor Neurons marker expression by immunofluorescence
CRISPRkoioMotor_RtqPCR
CRISPR Knockout ready ioMotor Neurons Immunofluorescence stain
SOX11 functionality by immunofluorescence in CRISPR knockout ready ioMotor Neurons
SOX11 functionality by immunofluorescence quantification in CRISPR knockout ready ioMotor Neurons
CD63 knockout data in CRISPR knockout ready ioMotor Neurons by flow cytometry
CRISPRkoMotor_morphology_brightfield
CRISPR knockout ready ioMotor Neurons marker expression by immunofluorescence
CRISPRkoioMotor_RtqPCR

cat no | io1101

CRISPRko-Ready ioMotor Neurons

Human iPSC-derived motor neurons expressing Cas9 for rapid gene knockout generation

  • Cryopreserved human iPSC-derived cells powered by opti-ox that are ready for experiments in days
  • Neurons for functional genomics, stably expressing Cas9 for gene knockouts and CRISPR screens
  • Clump free, highly-pure motor neurons, that form functional neuronal networks in co-culture with astrocytes

CRISPR Knockout ready ioMotor Neurons Immunofluorescence stain

Human iPSC-derived motor neurons expressing Cas9 for rapid gene knockout generation

SOX11 functionality by immunofluorescence in CRISPR knockout ready ioMotor Neurons

Immunofluorescence staining demonstrates high knockout efficiency of SOX11 by lentiviral transduction

Immunofluorescence staining of CRISPRko-Ready ioMotor Neurons demonstrates a highly efficient knockout of SOX11. The gRNA was delivered by lentiviral transduction on day 3 post-revival. Immunofluorescence staining of SOX11 was conducted five days post gRNA delivery (day 8 post-revival). A non-targeting gRNA was used as a control.

SOX11 functionality by immunofluorescence quantification in CRISPR knockout ready ioMotor Neurons

Immunofluorescence staining demonstrates high knockout efficiency of SOX11 by lentiviral transduction

Immunofluorescence quantification demonstrates >80% knockout efficiency of SOX11.

CD63 knockout data in CRISPR knockout ready ioMotor Neurons by flow cytometry

Flow cytometry analysis demonstrates high knockout efficiency CD63 by lentiviral transduction

Flow cytometry analysis of CD63 protein expression in CRISPRko-Ready ioMotor Neurons, after delivery of gRNA targeting CD63. gRNAs were introduced into the cells at day 3 post-thaw using lentiviral transduction. After 8 days of culture following guide delivery, CD63 gene knockout efficiency was assessed by flow cytometry analysis.

(C) Lentiviral transduction with gRNA targeting CD63: 53% of cells received a CD63 gRNA, as measured by GFP expression. A high knockout efficiency of 80% was achieved in these GFP+ cells (D) compared to (B) the non-targeting gRNA population.

CRISPRkoMotor_morphology_brightfield

CRISPRko-Ready ioMotor Neurons form structural neuronal networks from day 4

CRISPRko-Ready ioMotor Neurons mature rapidly, show motor neuron morphology and form structural neuronal networks over 11 days, highly similar to wild-type ioMotor Neurons (io1027). From Day 4 onwards cells begin to exhibit classical neuronal morphology with clear outgrowth, no signs of cell clustering or clumping. Day 1 to 11 post-thawing.

CRISPR knockout ready ioMotor Neurons marker expression by immunofluorescence

CRISPRko-Ready ioMotor Neurons express neuron-specific markers

Immunofluorescence staining at day 11 demonstrates that CRISPRko-Ready ioMotor Neurons and wild type ioMotor Neurons show comparable expression of key markers – indicating Cas9 expression has not affected cell programming. Both cells express pan-neuronal markers MAP2 and TUBB3, the cholinergic markers ChAT and VAChT and the motor neuron-specific markers MNX1 and ISL1/2.

CRISPRkoioMotor_RtqPCR

CRISPRko-Ready ioMotor Neurons demonstrate gene expression of neuronal-specific and motor neuron markers following deterministic cell programming

Gene expression analysis at day 11 demonstrates that CRISPRko-Ready ioMotor Neurons (CR) and ioMotor Neurons (WT) lack the expression of pluripotency markers (NANOG and OCT4). In contrast, they robustly express pan-neuronal (TUBB3, MAP2) and cholinergic (CHAT, VACHT) markers, and the motor neuron specific markers (ISL2, HB9). Gene expression levels were assessed by RT-qPCR. Data normalised to HMBS; cDNA samples of the parental human iPSC line (iPSC) were included as reference; n=3 replicates.

Vial limit exceeded

A maximum number of 20 vials applies. If you would like to order more than 20 vials, please contact us at orders@bit.bio.

Human iPSC-derived motor neurons expressing Cas9 for rapid gene knockout generation

CRISPR knockout (CRISPRko)-Ready ioMotor Neurons are opti‑ox deterministically programmed lower motor neurons that constitutively express Cas9 nuclease. The cells arrive ready for guide RNA (gRNA) delivery from day 3 post-thaw. Using our optimised lentivirus gRNA delivery protocols, users can perform gene knockouts, pooled or arrayed CRISPR screens and start measuring readouts within a few days.

Using CRISPRko-Ready ioMotor Neurons eliminates the need to spend months engineering and characterising Cas9-stable iPSC lines and optimising differentiation protocols, significantly reducing experimental timelines. With these ready-to-use cells, reliable and reproducible experimental results can be achieved by simply introducing gRNAs targeting the gene of interest.

The cells are a powerful tool for functional genomics, drug target identification and translational research.

Benchtop benefits

efficient2_0

High knockout efficiency

Optimised protocols for lentivirus based guide RNA delivery ensure maximal knockout efficiency.

easy_0

Ready to use

Defined, characterised human neurons constitutively expressing Cas9, ready for knockout experiments from day 3.

quick_0

Quick and easy

Generate readouts within days using a simple protocol for cell maturation and guide RNA delivery.

Ready within days


CRISPRko_ioMotor_timelines3-1

CRISPRko-Ready ioMotor Neurons are delivered in a cryopreserved format and are programmed to mature rapidly upon revival in the recommended media. The protocol for culturing these cells has three phases: 1. Stabilisation for 2 days. 2. Pre-maintenance for an additional 2 days during which the neurons mature. 3. Maintenance of neurons for the remainder of assay requirements. gRNAs have been optimised from day 3 post-thaw, and readouts performed from day 8 post-thaw.

Go from cell seeding to gene knockout in days

CRISPRko_ioMotor_workflow_graphic

 

Product specifications

Starting material

Human iPSC line

Seeding compatibility

6, 24 & 96 well plates

Shipping info

Dry ice

Donor

Caucasian adult male, age 55-60 years old (skin fibroblast),
Genotype APOE 3/4

Vial size

Small: >1 x 10 viable cells, Evaluation pack*: 3 small vials of >1 x 10⁶ viable cells

Quality control

Sterility, protein expression (ICC), gene expression (RT-qPCR), functionality of CRISPRko (ICC)

Differentiation method

opti-ox deterministic programming

Recommended seeding density

30,000 cells/cm²

User storage

LN2 or -150°C

Format

Cryopreserved cells

Product use

ioCells are for research use only

Applications

Single gene knockouts
Combinatorial gene knockouts
Pooled CRISPR screens
Arrayed CRISPR screens

* Evaluation packs are intended for first-time users, or for existing users testing a new cell type or derivative. A user can request multiple evaluation packs as long as each one is for a different product, with only one pack allowed per product.

Technical data

Ready to generate gene knockouts

Immunofluorescence staining demonstrates high knockout efficiency of SOX11 by lentiviral transduction 

lentiviral transduction of gRNA generates efficient SOX11 knockouts in CRISPR-ready motor neurons shown by ICC
lentiviral transduction of gRNA generates efficient SOX11 knockouts in CRISPR-ready motor neurons shown by ICC Quantification

Immunofluorescence staining of CRISPRko-Ready ioMotor Neurons demonstrates a highly efficient knockout of SOX11. The gRNA was delivered by lentiviral transduction on day 3 post-revival. Immunofluorescence staining of SOX11 was conducted five days post gRNA delivery (day 8 post-revival). A non-targeting gRNA was used as a control.

Immunofluorescence quantification demonstrates >80% knockout efficiency of SOX11.

Flow cytometry analysis demonstrates high knockout efficiency CD63 by lentiviral transduction

Flow cytometry analysis of CD63 protein expression in CRISPRko-Ready ioMotor Neurons

Flow cytometry analysis of CD63 protein expression in CRISPRko-Ready ioMotor Neurons, after delivery of gRNA targeting CD63. gRNAs were introduced into the cells at day 3 post-thaw using lentiviral transduction. After 8 days of culture following guide delivery, CD63 gene knockout efficiency was assessed by flow cytometry analysis.

(C) Lentiviral transduction with gRNA targeting CD63: 53% of cells received a CD63 gRNA, as measured by GFP expression. A high knockout efficiency of 80% was achieved in these GFP+ cells (D) compared to (B) the non-targeting gRNA population.

Highly characterised and defined

CRISPRko-Ready ioMotor Neurons form structural neuronal networks from day 4

CRISPRkoMotor_morphology_brightfield

CRISPRko-Ready ioMotor Neurons mature rapidly, show motor neuron morphology and form structural neuronal networks over 11 days, highly similar to wild-type ioMotor Neurons (io1027). From Day 4 onwards cells begin to exhibit classical neuronal morphology with clear outgrowth, no signs of cell clustering or clumping. Day 1 to 11 post-thawing.

CRISPRko-Ready ioMotor Neurons express neuron-specific markers

CRISPR knockout ready ioMotor Neurons demonstrating expression of motor neuronal and pan-neuronal markers by immunofluorescence

Immunofluorescence staining at day 11 demonstrates that CRISPRko-Ready ioMotor Neurons and wild type ioMotor Neurons show comparable expression of key markers – indicating Cas9 expression has not affected cell programming. Both cells express pan-neuronal markers MAP2 and TUBB3, the cholinergic markers ChAT and VAChT and the motor neuron-specific markers MNX1 and ISL1/2.

CRISPRko-Ready ioMotor Neurons demonstrate gene expression of neuronal-specific and motor neuron markers following deterministic cell programming

ioMotor-Neurons-CRISPR-Ready-RT-qPCR

Gene expression analysis at day 11 demonstrates that CRISPRko-Ready ioMotor Neurons (CR) and ioMotor Neurons (WT) lack the expression of pluripotency markers (NANOG and OCT4). In contrast, they robustly express pan-neuronal (TUBB3, MAP2) and cholinergic (CHAT, VACHT) markers, and the motor neuron specific markers (ISL2, HB9). Gene expression levels were assessed by RT-qPCR. Data normalised to HMBS; cDNA samples of the parental human iPSC line (iPSC) were included as reference; n=3 replicates.

Technical data

Gene knockout generation

Immunofluorescence staining demonstrates high knockout efficiency of SOX11 by lentiviral transduction

SOX11 knockout by immunofluorescence in iPSC-derived motor neurons
SOX11 knockout immunofluorescence quantification in iPSC-derived motor neurons

Immunofluorescence staining of CRISPRko-Ready ioMotor Neurons demonstrates a highly efficient knockout of SOX11. The gRNA was delivered by lentiviral transduction on day 3 post-revival. Immunofluorescence staining of SOX11 was conducted five days post gRNA delivery (day 8 post-revival). A non-targeting gRNA was used as a control.

Immunofluorescence quantification demonstrates >80% knockout efficiency of SOX11.

Product resources

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CRISPRko-Ready ioMotor Neurons | User Manual User manual
CRISPRko-Ready ioMotor Neurons | User Manual

V2

2025

bit.bio

Download
How to culture ioMotor Neurons Video tutorial
How to culture ioMotor Neurons
Prachi Bhagwatwar​​​​ | ​Research Assistant | bit.bio
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Harnessing AI-guided visual biology to discover drug targets for neurodegenerative disease Webinar
Harnessing AI-guided visual biology to discover drug targets for neurodegenerative disease

Ben Bar-Sadeh, PhD | Senior Scientist | Anima Biotech

Tom Brown | Senior Product Manager | bit.bio

Watch now
ioMotor Neurons and related disease models | User Manual User manual
ioMotor Neurons and related disease models | User Manual
V6
2025
bit.bio
Download
MaxWell Summit 2024 Poster Presentation with Luke Foulser ioMotor Neurons Video
MaxWell Summit 2024 Poster Presentation with Luke Foulser ioMotor Neurons

Luke Foulser | Scientist | bit.bio

Watch
Rapid and consistent generation of functional motor neurons from reprogrammed human iPSCs using opti-ox technology Poster
Rapid and consistent generation of functional motor neurons from reprogrammed human iPSCs using opti-ox technology
Foulser, et al 
bit.bio
2024
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ioMotor Neurons Brochure
ioMotor Neurons
bit.bio
Download
Empowering motor neuron disease research and drug discovery with a new class of functional, reproducible hiPSC-derived motor neurons Webinar
Empowering motor neuron disease research and drug discovery with a new class of functional, reproducible hiPSC-derived motor neurons

Tom Brown | Senior Product Manager | bit.bio

Marcos Herrera Vaquero, PhD | Senior Scientist | bit.bio
Watch now

Giving you access to endless and reliable human cells

“To do a genome-level CRISPR screen, with all the necessary replicates, requires billions of cells. Reaching that scale with iPSCs has been a significant challenge, so, many people turn to immortalised cell lines. But these cells are quite different from neurons in the human body. The development of ioCRISPR-Ready Cells is a huge step forward because it allows us to perform large-scale CRISPR screens on cells that closely resemble their in vivo counterparts—it’s a more physiologically relevant way of doing things.” 

 

Manos headshot 2Emmanouil Metzakopian
Former Group leader, UK Dementia Research Institute, Cambridge University.
VP R&D, bit.bio.

minus 80 degree freezer for storage-1-1

ioCells catalogue

Human iPSC-derived cells

powered by opti-ox

Consistent. Defined. Scalable.

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