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<a href="https://biosciences.ricoh.com">Home</a> <span class="separator et-pb-icon">5</span> Events 5 Event 5 Functional Characterization of iPSC-Derived Neurons and Glial Cells Using MEA and Calcium Flux Technologies

WEBINAR

Functional Characterization of iPSC-Derived Neurons and Glial Cells Using MEA and Calcium Flux Technologies

RecordedSeptember 2, 2026SpeakerDaria KurganovaFocusMEA + Calcium Imaging

In this on-demand recording, Daria Kurganova discusses how MEA and calcium flux assays can be applied to functionally characterize iPSC-derived neurons and glial cells. The presentation highlights how these platforms capture electrophysiological activity and calcium signaling dynamics, providing a robust framework for evaluating cell maturation, network function, and disease-relevant phenotypes in vitro.

Watch On-Demand

What You’ll Learn

  • ○An overview of Ricoh Biosciences’ iPSC-derived platform and its applications in neuroscience research
  • ○The principles of multielectrode array (MEA) electrophysiology and calcium flux assays for measuring neuronal network activity and function
  • ○How iPSC-derived neurons and glial cells can be incorporated into functional assays to better model human neurobiology and disease
  • ○Examples of how these assay platforms are being used to investigate disease mechanisms, characterize compound activity, and support therapeutic development in neurodegenerative and neurological disorders

Webinar Details

Recording Info

RecordedSeptember 2, 2026Duration60 minutes

Format

▶On-Demand Recording

Resources

Webinar Q&A Report

Didn’t catch the live Q&A, or want to revisit the answers? Download the full report of audience questions and our responses.

Download Q&A Report ↓

Daria Kurganova

Featured Speaker

Daria Kurganova

Scientist, Research & Development

Daria Kurganova is an R&D Scientist at Ricoh Biosciences, where she leads cell production initiatives and develops functional assay services to support neuroscience research and drug discovery. She earned her B.S. in Molecular and Cell Biology from Johns Hopkins University and specializes in the development and application of human iPSC-derived cellular models, including neurons and glial cells. Her expertise spans cell manufacturing, assay development, multielectrode array (MEA) electrophysiology, calcium flux imaging, and translational in vitro disease modeling. Working closely with academic and industry partners, she helps researchers implement physiologically relevant human cell models to accelerate therapeutic discovery for neurological and neurodegenerative diseases.