Poster
Rapid and consistent generation of functional motor neurons from reprogrammed human iPSCs using opti-ox technology
This poster was presented by bit.bio at Society for Neuroscience 2023 international conference, demonstrating the use of opti-ox technology to rapidly reprogram hiPSCs into motor neurons, termed ioMotor Neurons.
![Rapid and consistent generation of functional motor neurons from reprogrammed human iPSCs using opti-ox technology](https://www.bit.bio/hs-fs/hubfs/Website%20content/Product%20pages/ioMotor%20Neurons/iomotor_neuron_HERO_ICC_top_CROP2_COMPRESS.png?width=2164&height=2841&name=iomotor_neuron_HERO_ICC_top_CROP2_COMPRESS.png)
This poster was presented by bit.bio at Society for Neuroscience 2023 international conference, demonstrating the use of opti-ox technology to rapidly reprogram hiPSCs into motor neurons, termed ioMotor Neurons.
We have used opti-ox technology to rapidly reprogram hiPSCs into motor neurons, termed ioMotor Neurons, which are a homogenous population of cells with classical neuronal morphology and neurite outgrowth. As early as 4 days in culture, cells express the pan-neuronal markers MAP2 and TUBB3, the cholinergic markers ChAT and VAChT and the motor neuron-specific markers MNX1 and ISL1/2, as assessed by both ICC and RT-qPCR. Bulk RNA sequencing of ioMotor Neurons demonstrates a rapid acquisition of a motor neuron signature. ioMotor Neurons show spontaneous neuronal activity with increasing firing rate over 40 days in culture, as shown by multielectrode array activity (MEA).
Vaquero, et al
bit.bio
2023