Modeling Traumatic Brain Injury Mechanics via Human Organoid Systems
Evaluating acute cellular stress, neuro-inflammation, and micro-tissue recovery dynamics following mechanical impact on functional organoid cultures.
Advancing precision neuro-oncology, translational neuroscience, and biomimetic organoid modeling through cutting-edge scientific research.
Our interdisciplinary research spans key domains in advanced bioprinting, radiobiology, and personalized therapy development.
Developing 3D patient-specific neural micro-tissues to model complex neuro-architectures and disease progression.
Investigating glioblastoma tumor dynamics, micro-environment resistance, and novel anti-invasive therapeutic targets.
Evaluating spatial dosimetry, micro-fractionation responses, and radioprotection in live 3D tumor avatars.
Tailoring therapeutic drug screening protocols using patient-derived organoid avatars for individual treatment selection.
Bridging benchtop organoid discoveries with bedside clinical neuro-oncology and therapeutic drug pipelines.
Integrating high-throughput microfluidics, bio-imaging, and computational modeling for medical innovation.
Selected scientific contributions authored and co-authored by our scientific advisory team and research collaborators.
Dr. Deepak (AIIMS), KYAH Scientific Advisory Board
Evaluating acute cellular stress, neuro-inflammation, and micro-tissue recovery dynamics following mechanical impact on functional organoid cultures.
Interested in joint research initiatives or evaluating our brain organoid platforms for your studies?
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