Combine molecular biology, biochemical and advanced microscopy techniques to study myelinating glial cells

We study how osteoclasts, the only cells in our body that can degrade bone, are formed and how they function, both in health and in disease

We use computers, chemistry and biology to design covalent ligands for interesting proteins, to understand biology and discovery drugs

We are interested in deciphering questions spanning from molecular to behavioral levels

The interplay between viruses, cells, and the host's immune response.

We seek a molecular understanding of membrane remodeling and its contribution to health and disease

The role of specialized metabolism in plant- environment interactions

We develop algorithms for enzyme and antibody design and verify them using high-throughput experiments.

We are interested to learn basic principles dictating specificity of proteinprotein interactions and how this relates to cell signaling

We study interactions between peripheral circadian clocks and exercise physiology, hypoxia signaling and metabolic pathways

Characterization of the functions and mechanisms of long noncoding RNAs and of nuclear RNA export

Interactions between bacteria and the viruses that infect them

We study the mitochondria, and are especially passionate about their most ancient and conserved pathway- iron-sulfur cluster biosynthesis

Disulfide bonding in the folding, assembly, and regulation of proteins and protein complexes

Membrane protein folding and misfolding in health and disease

Biophysics, soft matter, active matter

Studying cell-cell communication mechanisms of malaria parasites within a population and with their hosts

Health effects of air polution, transport of bacteria and fungi in the atmosphere

Proteostasis control in cancer and immune regulation

How human RNA viruses interact with their host cells and transform them into viral factories

Mechanisms of oligodendrocyte and white matter aging and rejuvenation.