San Francisco Bay Area
After completion of my PhD I was awarded the EPSRC Fellowship Prize. An award given to the Top PhD Candidate in Physical Sciences at the University of Cambridge. I was awarded 2 years of funding to focus on leading my own Biohybrid Research after submitting a research proposal with world leading collaborators in the field.
My Doctoral research focused on developing an implantable neuroprosthetic device combining stem-cell derived cells and electronics to restore lost neurological function in a peripheral nerve injury model. (Funded by the Engineering and Physical Sciences Research Council (EPSRC)). After completion I was awarded the EPSRC Doctoral Fellowship Prize, awarded to the best PhD candidate at the University of Cambridge. Supervisor: Professor George Malliaras (Prince Phillip Professor of Technology) Bioelectronics Lab 1st Year Engineering modules passed with an average grade of 70% (Distinction): Management of Technology Biosensors Research and Development Course (RDC) Extracurricular Activities include: University Lacrosse Blue's Team Cambridge University Engineering Society (CUES) Cambridge Union Member
Deliver seminars and supervisions on Bioelectronics to prospective students and provide an insight into studying in the Engineering Department at University of Cambridge.
As an Academic Collaborator at Bit Bio, I had the privilege of collaborating closely with Dr. Mark Kotter at the early stage of this groundbreaking biotech startup. Witnessing its growth from a team of one to over 100 individuals. In my role, I utilized a cutting-edge cell culture product derived from induced pluripotent stem cells (iPSC) developed by BitBio, combined with custom-made bioelectronic devices crafted by myself, to pioneer innovative in vitro culture assays. Additionally, I conducted electrophysiology experiments spanning from stem cells to mature contracting Human ioMyocytes, utilizing a bespoke ephys system that I custom built. Pushing the boundaries further, I optimized and executed intricate animal-based surgeries to demonstrate the implantable survival of the cell product in animal models. This endeavor culminated in the development of a groundbreaking biohybrid neural interface, incorporating Bit Bio's cell technology, a milestone achievement highlighted in our publication in Science Advances. My groundbreaking research marked the first-ever demonstration of Bit Bio's cell product surviving in an animal model, a testament to our collaborative efforts and the product's potential. Our success was further recognized when we were featured in a Nature article, showcasing the impact of our collaboration and product on the scientific community. I am immensely proud of the contributions made during my academic collaboration at Bit Bio and excited to continue driving innovation and breakthroughs at the intersection of academia and industry.