Evolution of Retinal Neuron Fractality
Research on fractal resonance proposing that neurons exhibit enhanced connectivity when an implant's electrode geometry is matched to the fractal dimension of neural tissue. Published in MDPI.
Specializing in fractals, computer vision, neurons and electrode design.
Currently a fourth year Physics Ph.D. candidate at the University of Oregon.
My area of passion lies in the cross-section of fractals, machine learning, and simulated environments. I explore how fractal geometry can enhance neural interfaces and develop computational methods for analyzing complex biological systems.
My research investigates how fractal resonance in electrode design can improve connectivity with neurons, combining physics principles with cutting-edge computer vision and deep learning techniques.
Conducting Ph.D. research in physics, specializing in fractals, computer vision, neurons and electrode design. Developing novel approaches to neural interface technology through fractal geometry optimization.
Designed data collection scheme to maximize efficiency in a fast-paced data-taking environment. Contributed to research initiatives and presented findings through academic posters.
Focused on optimizing Sparse Carbon Nanotube Networks for bio-sensing purposes. Primary investigation method was simulation-based analysis of network configurations.
Doctor of Science, Physics
2022 — PresentB.S. Physics, Minor in Mathematics
2018 — 2022Research on fractal resonance proposing that neurons exhibit enhanced connectivity when an implant's electrode geometry is matched to the fractal dimension of neural tissue. Published in MDPI.
A Python package for fractal analysis and box counting with advanced visualization capabilities. Tools for performing boxcounts on images with image processing utilities.
Arduino/Robotics project featuring a robot arm with MPU 6050 sensor for movement mimicking capabilities. Demonstrates real-time motion tracking and servo control.
Studying the fractal fluency of Computer Vision architectures to understand how neural networks process and recognize fractal patterns in visual data.
Neuronal Instance Segmentation model for precise identification and segmentation of individual neurons in microscopy images using advanced deep learning techniques.
I'm always interested in discussing research collaborations, opportunities in machine learning and physics, or just connecting with fellow researchers.
Let's ConnectEugene, Oregon