Simon Dumas

This paper develops interconnected macroporous GelMA scaffolds using temperature-controlled spinodal decomposition to optimize pore size for enhanced cell culture.

The paper introduces OneCell CUT&Tag, a single-cell multi-omics method that captures chromatin, transcriptome, and surface marker data, revealing epigenomic reprogramming during mammary gland basal-to-luminal transition.

This paper develops a single-nucleus multimodal framework to analyze transcriptional and histone modification landscapes in ovarian cancer, revealing epigenomic priming of chemoresistant states and its impact on treatment outcomes.

This study introduces magnetic bioprinting to control tissue geometry and mechanical forces in skeletal muscle, enabling shape fabrication and mechanical property investigation.

This study develops a magnetic bioprinting method to create stretchable, shape-controlled skeletal muscle tissues that maintain their form and enhance maturation through magnetic stimulation.

The paper introduces a magnetic microtweezer system for bioseparation in sub-nanoliter droplets, achieving 72% extraction efficiency for oligonucleotides.