Scientific Data Engineer
Computer Vision and Biomedical Research
I am passionate about open science and using Machine Learning and Artificial Intelligence to improve scientific understanding. My background blends bioengineering and computer science together – with over four years of work experience applying computer vision and deep learning to large-scale 3D stem cell imaging datasets.
I’ve contributed to the development of open-source tools that enhance biomedical image analysis (Allen Cell and Structure Segmenter) and to research papers exploring intracellular interactions (EMT Paper). My experience also spans immunology, neuroscience, cancer, and malaria research, reflecting a broad interest in health and discovery.
I am currently the founding engineer for the NeuroNur Research Initiative: a newly launched, volunteer-driven initiative dedicated to advancing neuroscience through collaboration, open data, and inclusive research. As a Black woman in STEM, I care deeply about building a more diverse and collaborative future for AI and computational biology.
MASTER OF APPLIED BIOENGINEERING, CONCENTRATION IN COMPUTATIONAL BIOLOGY
BACHELOR OF SCIENCE IN BIOMEDICAL ENGINEERING, CONCENTRATION IN CELL & TISSUE ENGINEERING
MINOR IN CHEMICAL ENGINEERING
Provided support in the design and implementation of machine learning algorithms and computer vision solutions for image analysis to better understand cell–cell dynamics.
The work encompassed algorithm development, open-source tool creation, large-scale data pipeline management, and the use of high-performance GPUs within a collaborative scientific environment.
Designed and implemented supervised and unsupervised machine learning algorithms to predict gut microbiome responses to intervention within the Arivale Wellness Study, enhancing the understanding of microbiome dynamics.
Part of the Clinical Product Characterization team developing and testing Celgene CAR-T Cell therapies, JCAR017 and JCARH125.
Worked in a team studying pancreatic ductal adenocarcinoma (PDA) using genetically engineered mouse models to better understand the mechanism and pathogenesis of the disease.
Assigned to a clinical research trial for the development of a potential malaria vaccine using the genetically attenuated parasite Plasmodium falciparum.
If you want to collaborate or have any questions, please feel free to reach out!