Experience
Co-founded a neurotechnology venture building EEG-powered fatigue detection for the
logistics industry. I direct research, the machine-learning pipeline, and academic and industry
partnerships. The company is valued at $5M with $100k in pre-seed funding.
- Architected real-time ML pipelines that classify driver vigilance states from in-ear EEG, producing a proprietary Vigilance Score that outperforms camera-based fatigue classification by 40%.
- Built on-device inference models triggering haptic feedback within milliseconds, with encrypted local processing for data privacy.
- Recruited and supervised two interns (an EE PhD candidate and a CS undergraduate); led IRB submission for human fatigue trials at JHU Bayview.
- Co-authored a provisional patent on a DOT-compliant in-ear EEG headset; partnered with IDUN Technologies for consumer-grade hardware.
- Secured pilots with Terminal Transportation and Old Dominion Freight Line and a research partnership with the U.S. Army Aeromedical Research Laboratory (USAARL).
- Selected for Antler NYC and the JHU Pava Center Spark/Ignite/Fuel/Blaze accelerators; recognized at e-Fest, America 250, Telora, and the Carey Venture Showcase.
Independent and honors-thesis research on closed-loop neuromodulation for autonomic
control after spinal cord injury. Awarded the Provost's Undergraduate Research Award (PURA) and a
Neuroscience Departmental Summer Research Award.
- Engineered closed-loop epidural stimulation systems to modulate mean arterial pressure in post-spinal-cord-injury rats using multi-modal physiological signals.
- Led an independent project comparing focused ultrasound (FUS) to invasive vagus nerve stimulation — now the basis of my honors thesis and a first-author publication.
- Fabricated custom PEDOT:PSS in-ear sensors on PDMS substrates and built Python/MATLAB pipelines for R-peak detection and heart-rate-variability analysis matching clinical gold-standard electrodes.
- Performed 30+ rat laminectomies and assisted in 10+ porcine surgeries; authored an approved IACUC amendment to launch autonomic dysreflexia research.
- Contributed to 9 papers (2 first-author) and presented at the 2026 Design of Medical Devices Conference and Yale Bouchet Conference.
Developing a clinical platform to characterize pain signals through in-ear EEG, validated
against a 64-lead EEG cap.
- Hand-soldering in-ear electrodes and building a clinical-trial-ready data-collection and stimulation interface.
- Integrated an Arduino-based controlled pulse generator to synchronize recording software with the raw data stream.
- Attending cardiovascular surgeries on porcine models to contextualize the physiological basis of pain signaling.
Clinical EEG research identifying early biomarkers of postoperative delirium in spine
surgery patients.
- Consent patients, administer pre-operative cognitive assessments, and apply the Ceribell rapid EEG headset with signal-quality verification before surgery.
- Monitor and maintain EEG signal integrity intraoperatively while coordinating with surgical and nursing teams.
- Assess patient alertness and comfort in the post-anesthesia care unit before final data collection.
Pre-hospital patient care as a certified EMT-Basic on a Baltimore County BLS/ALS unit.- Responded to 70+ calls across lower-income Baltimore County neighborhoods, serving patients in homelessness, substance-use, and mental-health crises.
- Participate in Baltimore's Narcan leave-behind program, distributing naloxone at no cost.
- Completed station-based field training, HAZMAT, CPR/BLS recertification, and fire-pole certification; help run firehouse community events.
Studied attentional suppression circuits in avian and rodent models.- Set up and tested experimental devices and mapped circuit-level dynamics from raw data.
- Built a Raspberry Pi simulation replicating the brain’s attentional pathways.
- Mentored two high-school students in Python, machine learning, and hardware toward a conference-ready Young Engineers demonstration.
- Contributed to an Abbott Invention Disclosure for gait analysis using a spine-implanted inertial measurement unit (IMU).
- Initiated algorithm development for wearable-sensor data collection.
- Supported data processing for the REALITY study analyzing long-term outcomes of 2,000+ neurostimulation patients.
- Researched early diagnosis for non-lactating mothers using machine learning.
- Invited as a presenter at the BMES Annual Conference for a selective high-school poster competition.