Set up image viewing infrastructure for clinical modalities. Developed software and infrastructure to analyze and train from radiology for data and machine learning scientists. Assisted with the development of ML models from H&E for target discovery. Developed cloud compute infrastructure to support software across insitro’s diverse scientific and computational domains. Built full-stack tools to explore transcriptomics and embeddings data. Designed data structures to support analysis and machine learning for omics. Produced analyses and reports for target screening in collaboration with scientific teams.

Lead and built a project called Datahub, which aims to structure data to support research. Biomedical research is complex, with highly heterogeneous metadata depending on the sample, modality, or goal. Datahub leverages graph databases to represent highly interconnected metadata. A website and API allows users to easily upload, track, and analyze ongoing research. To support Datahub, I also developed infrastructure and analysis pipelines for the mass spectrometry and genomics platforms. Communicated with leadership, and users, and coordinated software engineers to develop automation. Researched using graph theory to interrogate multiomic data being generated at the Biohub under the guidance of the quantitive cell science data science team and Dr Angela Oliveira Pisco. Furthermore worked to analyse and interpret transcriptomics and spatial transcriptomcis datasets.

Worked as a bioinformatician for Illumina’s EMEA office, within their Population Genomics (PopGen) group reporting to Dr Ole Schulz-Trieglaff. Contributed to methods for merging and saving terabytes of variant called files (VCFs). Developed test software for triaging bugs and identifying algorithmic slowdowns. Worked for the DRAGEN platform in C++ and Python locally and in Illumina’s HPC environment.

Developed machine learning models under the guidance of Professor Darrel Francis and Dr. James Howard in the Cardiology Department of Hammersmith Hospital, with the end goal of producing a CMRI (cardiac magnetic resonance imaging) pipeline for automated diagnostic of cardiovascular diseases. Developed a classifier that identified the ‘view’ of CMRIs, and retrospectively assessed model performance using several metrics. Investigated a potential novel transformer methodology for image data.

GGC collects bespoke exome data from underrepresented populations for investigations into disease genotypes, towards a 1 Million Genome Project. Developed an exome analysis pipeline in nextflow for variant calling and evaluated called variants using bioinformatics tools and Exomiser on a HPC. Also created a PostgreSQL database for storage of the Exomiser analysis, an API backend, and a ReactJS frontend. My project enabled geneticists to review and autogenerate reports on likely causative variants for the subject’s disease phenotype.

This project was an investigation into the effect of adiponectin on ß-Amyloid secretion in PDK1- Knockdown HEK293 cells, as a potential molecular target for treating Alzheimers. I worked with a group of four other researchers to develop knockdown cells with CRISPR, and evaluate the impact of adiponectin on the ß-Amyloid secretion pathway through protein and genomic expression.

Automat develops turnkey software solutions. Worked within Automat’s ‘Workshop Mode’ and was responsible for the infrastructure behind the communication software pricing API and a web-scraping tool. Developed and deployed this all on AWS. Worked with Docker, SQL, and Serverless.

Studied the inhibition of paclitaxel-induced apoptosis by epinephrine in a breast cancer cell line using cell viability assays, western blot, and qPCR alongside cell culture techniques.

Researched and developed a hardware device for i2x’s call assistance service. Developed audio streaming software in python and Arduino, to stream data to i2x’s ML infrastructure, and visualise analytics.

Leonyte was an early stage startup aiming to provide real-time testing for pathogens in food. Worked with the engineering team to develop a prototype portable bacterial detection device. This involved reading data sheets from National Instruments, writing summaries, and constructing several prototypes. Visualized biological and system data for presentation and troubleshooting. Smoothed signals and fine-tuned detection algorithms to improve pathogen detection. Helped with administration related to inventory, monthly invoicing, and SCRUM.