Solved 100+ problems spanning probability theory, multivariable calculus, linear algebra, and statistical mechanics.
Provided supervised learning training data for Chat GPT in the form of next logical step prompts for physics.
Enhanced LLM capabilities in identifying and implementing mathematical formulas, such as the binomial theorem.
Implemented MongoDB in conjunction with Google Firebase to manage customer data in JSON format.
Built a React Native frontend for an Uber-style laundry & cleaning service startup with over 20,000 MAU. Integrated Google Maps and WooCommerce APIs for real-time location tracking and payment functionality.
Created a REST API for DB requests using Express.js & Node.js. Completed wire-framing from scratch on Figma.
B.A. Physics
National Merit Scholarship Recipient
Cal Ski and Snowboard Club
Columbia Science Honors Program, Columbia Engineering Summer High School Academic Program for Engineers, Science Olympiad Senior Captain
Odyssey of the Mind World Finalist, NHS VP, All-State Choir, Chamber Choir
SAT: 1570, PSAT: 1520, SAT MATH II: 800, SAT Physics: 800
My experience covers full-stack development & ML development
This experiment delves into the manipulation of atomic spin states through the application of circularly polarized laser light and external magnetic fields. Specifically, we determined the resonance frequencies of two rubidium isotopes at various magnetic field strengths, and the pumping and relaxation times of the isotopes.
The primary objectives were to understand the hyperfine structure of these isotopes, determine their nuclear spins, verify the Breit-Rabi formula, and to determine the ambient magnetic field.
The nuclear spins for 85-Rb and 87-Rb were found to be 3/2 and 5/2 respectively. The ambient magnetic field was determined to be 3.56 * 10ˆ-5 Teslas with an uncertainty of +/- 0.0125 Teslas.
The gamma ray spectroscopy experiment consisted of an extensive study of gamma-rays conducted using Sodium Iodide (NaI) scintillation crystals and four radioactive isotopes.
The primary objectives of the experiment were to calibrate the NaI(Tl) detectors for accurate gamma-ray energy measurements, to verify the inverse square law of radiation intensity, to determine the intensity of a Cesium-137 source, and to measure the mass attenuation coefficients for various materials at different gamma-ray energies.
The Compton scattering frequencies were determined, and background noise removal from back-scattering and ambient noise was performed using Python.
This experiment consisted of a statistical verification of quantum entanglement via a violation of Bell’s inequality — specifically the CHSH inequality — in order to reject local hidden variables theories and to affirm the validity of quantum mechanics.
The entangled pairs of photons were generated via a process called spontaneous parametric down conversion using beta barium borate crystals.
A coincidence counter built using a FPGA tracked the incidences of pairs of orthogonally polarized photons — corresponding to spin up and spin down - and indicating a potentially entangled pair.
This experiment invovled tracking paths of polystyrene beads in a glycol solution using Computer Vision to model stochastic behavior
Monte Carlo simulations were ran to model possible future trajectories of the beads using the Markov property
Data analysis and regressions were performed in Python using the SciPy, NumPy, and Matplotlib libraries
