Research

Interpretable AI for RNA therapeutic design

With a background in rare disease genetics and spliceosomal biology, I develop interpretable models that make splicing predictions easier to test and use in RNA therapeutic design.

Centriole cross-section schematic Nine connected microtubule triplet profiles arranged around a central cartwheel.

Focus

RNA biology as a design problem

Individualized RNA therapies are now possible, but broader implementation is limited by the high cost of antisense oligonucleotide (ASO) screening and unanticipated toxicity.

My work connects sequence analysis, splicing mechanisms, and predictive models to address these bottlenecks and make RNA therapeutic design more interpretable.

RNA therapeutics

Using sequence models to prioritize RNA therapeutic designs before experimental screening.

Rare disease genetics

Variant-centered thinking grounded in patient genetics and the practical constraints of small-patient populations.

Spliceosomal biology

Models grounded in RNA processing, splice-site choice, and splicing mechanism.

Interpretable models

Predictive systems designed to identify causal signals and guide experimental decisions.

Selected publications

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