

Research Fellowship & AI Training
Partnership


We Offer
The SV Young Scholars Neuroscience & NeuroAI Program is a non-degree-granting research initiative that empowers young scholars and early-career professionals to explore the frontiers of brain science and computational biomedicine. Our program bridges neuroscience education and hands-on research through mentorship by leading faculty, interdisciplinary workshops, and real-world applications in translational neuroscience.
We offer:
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Summer and year-round neuroscience research programs, including neurodegeneration RNA-seq and proteomics analysis, brain EEG analysis, and digital biomarker discovery.
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Computational neuroscience and AI model training focused on neurodegeneration (e.g., Alzheimer’s disease) and neurodivergent (e.g. Autism),
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Collaborations with researchers from institutions such as Carnegie Mellon University, Stanford, and Massachusetts General Hospital.
Neurodegeneration Research
Alzheimer’s Biomarker Identification Using
Graph Reinforcement Learning to Model Brain-Blood Gene Network
Alzheimer’s disease (AD) pathology begins decades before symptoms arise, with females twice as likely as males. Proactive early detection and preventive brain health measurement are critical. My research developed NeuroPlasmaNet, an AI system using graph neural networks to simulate sex-specific brain-blood gene networks and reinforcement fine-tuning guided by known biological pathways. Brain-first analysis anchored blood markers in AD neural pathology, avoiding noise from whole-body blood circulation. System achieved blood-based early detection with 92.03% accuracy.

Upcoming Presentation at Alzheimer's Association International Conference (AAIC)
July 27-31, 2025 | Toronto Canada
May 13-16th, 2025 | Columbus, Ohio USA










Neurodivergent Research
Development of A Personalized Training System for Socio-Emotional Skills of Autistic Children Using Digital Twin
1 in 36 children are diagnosed with autism spectrum disorder. Some key symptoms and supporting neuroscience are: lack of emotion interpretation (amygdala theory), not showing sign of acknowledgement (impaired mirror neuron system), and eyes not focusing on the priority area (relevance detector theory). Existing therapy is not highly personalized and challenging to recognize subtle improvement. Current AI models are not tailored to ASD’s unique facial features (asymmetric, side glancing). My research aims to design and implement a neuroscience-based AI co-pilot training system that tailors to autistic children’s individual preferences (subgroups) and unique facial features using personalized digital twins as training partners. I designed the HarmonyVisage system. The blendshape analyzer offers real time feedback on subtle socio-emotional cues and reciprocal eye engagement, and explains emotions using 13 measurable facial features. Digital twins are used as mirroring practice partners. VGG16 (16 layers CNN) salience map detector automatically guides trainee’s attention. HarmonyVisage is the first AI system built on a unique multimodality dataset with ASD specific 3D tessellation and facial features. 4 phases of experiments were conducted with a total of 46 participants (male: 38, female:8, age:6-13) and 3500+ training sessions. Each participant went through 8-week training. 3 out of the 4 subgroups demonstrated statistically significant improvement with p-values 0.027, 0.001, 0.158, and 0.001 respectively. Test and control group study showed digital twin’s positive engagement with p-value 0.014. HarmonyVisage may be used at home for daily training and in therapy clinic to assist therapist accurate assessment. The proposed solution is highly scalable and accessible. In a world transformed by AI, HarmonyVisage is bridging the gap between perspectives and contributing to an inclusive and harmonic society.










Computational Research Presented at IBM Research Center
Oct. 17th, 2024

Accelerated Data Science
Using NVIDIA GPUs with Python
Excited to share that we host a data science workshop powered by NVIDIA tech stack. It is designed to empower the Young Scholars community with cutting-edge compute resources and for making high-performance computing more accessible! In this hands-on session, participants explore:
✒️ CuPy as a drop-in replacement for NumPy and SciPy
✒️ RAPIDS for end-to-end, GPU-accelerated data science
✒️ A real-world geospatial analysis integrating the entire GPU toolkit
Huge thanks to NVIDIA solution architect Zoe Ryan for leading the young scholars through this workshop, and to Huiwen Ju and Jeffrey Lancaster for the support on STEM education!
We're committed to bridging talent with tools.





