iPSC

New Therapeutic Target in the Fight Against ALS

Scientists uncover a new protein in a pathway for neurotoxicity and cell death A new study published in Nature takes us one step forward in understanding the key mechanisms behind neurodegenerative diseases. With the urgent need for human cellular models to study such pathologies, scientists have developed a new 2D cell culture model with features mirroring those of human brains, with the support from MaxWell Biosystems’ high-density Microelectrode arrays (HD-MEAs). Delving deeper into the effects of the abnormal accumulation of TAR DNA-binding protein…

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Join the Conversation with Prof. Tarja Malm

Interview Join the Conversation with Prof. Dr. Tarja Malm Malm Lab / Neuroinflammation Research Group, A.I. Virtanen Institute, University of Eastern Finland Back in May 2023, we had the pleasure of having Prof. Dr. Tarja Malm present at the 3rd In-Vitro 2D & 3D Neuronal Networks Summit, the MxW Summit 2023. Dr. Tarja captivated the audience with insights into modeling brain functions with microglia-containing organoids.Recently, we had the privilege to engage in an inspiring conversation with Dr. Tarja about her…

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HD-MEAs play a role in the functional characterization of human iPSC-derived dopaminergic neurons

Maria Sundberg from the Boston Children’s Hospital, Harvard Medical School, and colleagues, recently reported in Nature Communications a study on the reciprocal copy number variations (CNVs) of 16p11.2 gene region, associated with a wide spectrum of neuropsychiatric and neurodevelopmental disorders. For the functional analysis of the developing iPSC-derived dopaminergic (DA) neuron network, complementary-metal-oxide-semiconductor (CMOS)-based high-density microelectrode arrays (HD-MEAs), MaxOne System by MaxWell Biosystems was extensively used. 16p.11.2 Reciprocal copy number variations (CNVs) in neuropsychiatric disorders 16p.11.2 CNVs have been implicated in…

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Observing the activity of human-derived neurons in health and in disease

The combination of two technologies—induced pluripotent stem cells and high-density microelectrode arrays—offers an unprecedented platform to study human brain activity in detail outside the body.    Back in 2006, Prof. Yamanaka and colleagues revealed a technique to reprogram adult skin cells into embryonic-like cells called induced pluripotent stem cells or iPSCs. This Nobel Prize winning technology enables access to human neurons derived from adult blood or skin cells in a high-throughput manner, thus opening up the possibilities to study neurological…

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