Technology ID
TAB-3722

Functional Brain Region-Specific Neural Spheroids for Modeling Neurological Diseases and Therapeutics Screening

E-Numbers
E-072-2012-0
Lead Inventor
Marugan, Juan (National Human Genome Research Institute (NIH/NHGRI))
Co-Inventors
Zheng, Wei (National Human Genome Research Institute (NIH/NHGRI))
Ferrer-Alegre, Marc (NCATS)
Chen, Catherine (National Human Genome Research Institute (NIH/NHGRI))
Agoulnik, Alexander (Florida International University (FIU))
Southall, Noel (National Human Genome Research Institute (NIH/NHGRI))
Xiao, Jingbo (National Human Genome Research Institute (NIH/NHGRI))
Agoulnik, Irina (Florida International University (FIU))
Applications
Vaccines­­­
Therapeutics
Research Materials
Diagnostics
Therapeutic Areas
Reproductive Health
Neurology
Immunology
Cardiology
Research Products
Research Equipment
Lead IC
NCATS
ICs
NCATS
3D spheroids have emerged as powerful drug discovery tools given their high-throughput screening (HTS) compatibility. The present invention presents a method for generating functional neural spheroids with differentiated human induced pluripotent stem cell (hiPSC)-derived neurons and astrocytes at cell type compositions mimicking specific regions of the human brain. Recordings of intracellular calcium oscillations were used as functional assays, and the utility of this spheroids system was shown through disease modeling, drug testing, and formation of assembloids, modeling connection of two unique brain regions, to model neurocircuitry. The invention further provides disease models applications such as for Alzheimer’s and Parkinson’s Disease through incorporating genetically engineered cells into spheroids, as well as Opioid Use Disorder by chronically treating spheroids with mu-opioid agonists.
Commercial Applications
High throughput screening for therapeutics and drug discovery, neural circuitry modeling.

Competitive Advantages
The invention advantageously provides a highly reproducible functional neural spheroid assay platform where cell type composition can be adjusted to mimic a specific brain region of interest and that can be used for HTS and neural circuitry modeling.
Licensing Contact:
Kalsi, Jasmine
jasmine.kalsi@nih.gov