
A low-cost, Raspberry Pi–based wearable that combines object detection, depth estimation, OCR, and multimodal feedback to support navigation and reading for visually impaired individuals in unstructured environments.
Features: (1) YOLO-based object detection with monocular depth for obstacle identification and distance estimation with audio/vibration alerts, and (2) OCR pipeline (PyTesseract + TTS) for reading text from signage.
-> A sub-$35 wearable EEG system capturing raw cognitive signals at 80–100 Hz, cutting hardware costs by over 94% compared to standard commercial-grade devices.
-> Curated a dataset of 400 seconds from 10 participants, utilizing standard serial communication to log raw analog-to-digital signals directly without applying hardware offset corrections
-> Demonstrated practical feasibility by integrating the predictive models into an online car simulator, utilizing classified attention and relaxation states to control acceleration and braking dynamically.
Selected as a Student Researcher for the New York Academy of Sciences — Junior Academy, a highly competitive global program with roughly a 10% acceptance rate.
-> Selected as a student researcher for the New York Academy of Sciences - Junior Academy (~10% acceptance)
-> Collaborated with a team of 6 high schoolers from across the world and developed a BIPV and floating solar based solution for the probelm statement " To design an innovative and scalable solution to improve electrical infrastructure and/or energy storage technology in order to make solar energy use more reliable, efficient, and economical for meeting the energy demands of technology and society."
Through Hyperbloom Hacks — a nonprofit I founded to make computer science opportunities more accessible to students.
It was built with the aim to ensure that curious students have access to the resources, mentorship, and opportunities they need to pursue computer science.
Awarded for the Jacket–Helmet Assistive System for Visually Impaired Individuals project.
Multi-Instrumentalist