Perturbation-aware representation learning for heterogeneous single-cell genetic screens
Manuscript · In preparation
Computational biology · machine learning
I develop statistical and machine-learning methods for complex data and lead their application in large-scale biological studies.
At ETH Zürich, my work spans genome-scale in vivo Perturb-seq, CRISPR-based transcriptional recording, metabolomics and cancer multi-omics, from experimental design and scalable analysis to reusable software.
Research focus
I apply statistical methodology and machine learning across experimental domains: cancer biology, genetic perturbations and transcriptional recording, with an emphasis on approaches that remain useful beyond a single dataset.
Designing genome-scale perturbation experiments and developing statistical and machine-learning methods to interpret their effects in live mice.
Read moreComputational methods for CRISPR-based systems that turn bacteria into recorders of their own molecular activity.
Read moreStatistical and algorithmic methods for metabolomics, metagenomics and multimodal data.
Read moreMultimodal analysis of clinically annotated cancer cohorts, with work in melanoma and ovarian cancer.
Read moreSelected outputs
Principal contributions to research spanning transcriptional recording, single-cell perturbation screens, cancer multi-omics and computational method development.
Manuscript · In preparation
Bioinformatics · Accepted
Nature Protocols
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