As a passionate data-driven researcher, I thrive on collaboration and innovation, particularly in leveraging machine learning to revolutionize healthcare. I contribute to cutting-edge projects at the NERVES Lab and the Utah NeuroRobotics Lab at the University of Utah. My work included designing wireless sEMG chips, programs to process body-worn sensor signals automatically, and developing cognitive workload measurements for complex machine learning systems for neuroprosthesis.
I am working to create advanced learning systems that use state-of-the-art reinforcement learning algorithms to control exoskeletons for post-stroke assistance while walking on and between different terrains. I seek opportunities to develop my data science, artificial intelligence, and machine learning expertise and drive impactful research through collaborative endeavors.
Fine-Tuning Faster R-CNN for Guardrail Damage Detection [View Project]
Researched and implemented advanced fineātuning strategies on a Faster RāCNN to detect guardrail damage, improving detection accuracy by 5% and decreasing false positives by 92% for Blyncsy, Inc.
Designed a saliencyāscoring pipeline leveraging preātrained networks to automatically verify ground truth labels in the training and testing sets, automatically finding errors in roughly 10% of images.
Engineered endātoāend training pipelines for a custom Faster RāCNN, packaged as the BlyncsySFT pip package for easy deployment and reproducibility.
Keywords: Python, PyTorch, Object Detection, pip
Machine Learning Library From Scratch [View Project]
Built a custom Python ML library with crossāvalidation to support ID3, perceptron, logisticāregression, and SVM classifiers.
Leveraged library to secure a topā10 finish out of 150+ teams in a course Kaggle NLP classification challenge.
Performed feature transformation, dimensionality reduction, and hyperparameter tuning to increase model accuracy.