Why does the same disease affect individuals so differently? Some people progress faster, develop different complications, or respond differently to treatment. Precise understanding of the causal biology of disease heterogeneity leads to better prevention, management, and treatment.
Our group develops statistical models and computational tools to dissect interindividual differences in disease. We leverage our expertise in analyzing population-scale genomic data, predictive modeling, and therapeutic target discovery.
We are recruiting at all levels. Please check the Join Us page for more information.
Assistant Professor
Mapping the biological basis of heterogeneity in disease.
PhD Student
Developing methods to uncover genetics of complex traits.
Graduate Student
Graduate Student
Graduate student researching disease heterogeneity and genetic feature discovery using machine learning.
Graduate Student
Graduate student interested in statistical genetics, Mendelian Randomization, and computational methods for understanding disease mechanisms.
Undergraduate Student
Undergraduate student interested in applying statistical methods to better understand and quantify pleiotropy.
Undergraduate Student
Undergraduate bioengineering student interested in using large scale genomic and phenotypic data to predict aging.
Statistical genetics, computational genomics, precision medicine
We study the underlying biology of disease heterogeneity and develop statistical and computational methods to improve prevention, disease management, and treatment.

Diagnosis for the same disease affects individuals differently. However, we don’t know how best to represent biologically meaningful axes of variation within a disease, beyond the standard case vs. control comparison or proxy measure of severity. We combine human genetics, causal inference, and modern AI to address this challenge.

Accurate prediction of disease risk using genomics enables earlier identification of individuals at elevated risk and facilitates more effective prevention strategies. However, existing genetic approaches show limited generalizability across cohorts and lack biological interpretation. We develop robust and biologically interpretable models using high-dimensional data.

Low success rates in clinical trials remain a major challenge in drug development. We leverage our expertise and bring human genetic evidence to therapeutic target discovery and validation. We envision nominating therapeutic targets for disease subtypes based on their underlying biology.
In this study, led by Xiaohe (Lucy) Tian, we showed that ancestry-aware integration of tissue-specific genomic annotations enhances the transferability of polygenic scores (PGS).
We developed a polygenic score training approach that allows direct inclusion of admixed individuals without the need for local ancestry inference and showed ancestry-diverse …
We analyzed the genetic basis of 35 blood and urine biomarkers in UK Biobank. We revealed that genetic effects on biomarkers inform the genetic basis of disease.
We identified an allelic series of rare protein-altering variants in ANGPTL7 that lower intraocular pressure and protect against glaucoma, highlighting ANGPTL7 as a therapeutic …
We developed DeGAs to decompose shared genetic associations across 2,138 UK Biobank phenotypes and identify their underlying pleiotropic structure.

Prof. Tanigawa teaches at UCLA. The lab provides training in statistical genetics, computational genomics, and clear scientific communication through coursework, research mentoring, and collaboration.
We had a social gathering to celebrate the near completion of the Spring 2026 quarter.
The Tanigawa Lab at UCLA is recruiting students and postdoctoral researchers in statistical genetics, computational genomics, and precision medicine.
How I think about mentorship, scientific training, expectations, and professional growth across career stages.
Yosuke received a JST PRESTO award to support research on mathematical modeling of interindividual differences in disease.
The Tanigawa Lab at UCLA is recruiting students and postdoctoral researchers in statistical genetics, computational genomics, and precision medicine.
The UCLA Tanigawa Lab
Department of Bioengineering
University of California, Los Angeles
Engineering V, Room 5121E
410 Westwood Plaza
Los Angeles, CA 90095
United States
Meetings by appointment
For recruiting, please follow the instructions on the recruiting page. We will not respond to inquiries from those who ignore the instructions.
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