//
sign in
Profile
by @danabra.mov
Profile
by @dansshadow.bsky.social
Profile
by @jimpick.com
AviHandle
by @danabra.mov
AviHandle
by @dansshadow.bsky.social
AviHandle
by @katherine.computer
EventsList
by @katherine.computer
ProfileHeader
by @dansshadow.bsky.social
ProfileHeader
by @danabra.mov
ProfileMedia
by @danabra.mov
ProfilePlays
by @danabra.mov
ProfilePosts
by @danabra.mov
ProfilePosts
by @dansshadow.bsky.social
ProfileReplies
by @danabra.mov
Record
by @atsui.org
Skircle
by @danabra.mov
StreamPlacePlaylist
by @katherine.computer
+ new component
Profile
Loading...
Professor of Molecular Therapeutics and Metabolic Biology at UC Berkeley; Departments of Molecular & Cell Biology and Nutritional Sciences & Toxicology. Lipid droplets, ferroptosis, ubiquitin, drug development.
James Olzmann









Loading...
3/3 Also exciting to see a complementary study from @angelifriedmann.bsky.social @veraskafar.bsky.social & colleagues published in Nature Cell Biol today. Together, our studies highlight a role for vitamin B2 metabolism and FAD in regulating FSP1 and ferroptosis. www.nature.com/articles/s41...
2/3 Huge congratulations to the entire team for driving this project forward. Grateful for fantastic collaborators, including @theprattgroup.bsky.social and everyone in the lab who contributed to this work. A true team effort across genetics, cell biology, and chemical biology.
#Vitamin B2 is converted into molecules which protect cells from oxidative damage. The downside: It also protects #cancer cells. Scientists at the Rudolf Virchow Centre at #JMU discovered that. 📸 Natalie Fahmer ➡️ www.uni-wuerzburg.de/en/news-and-...
New online: FAD-dependent stabilization of FSP1 promotes ferroptosis resistance
3mo
1/3 Thrilled to see our paper led by Kirandeep Deol is out in Nature Structural & Molecular Biology! CRISPR screens to uncover a role for vitamin B2 metabolism in stabilizing FSP1 via FAD, revealing a new way vitamins regulate ferroptosis. www.nature.com/articles/s41...
Sooo happy to share our new paper in @nature.com “CLCC1 promotes hepatic neutral lipid flux and nuclear pore complex assembly.” A terrific collaboration with @arrudalab.bsky.social, led by co–first authors Alyssa Mathiowetz and Emily Maymand. www.nature.com/articles/s41...
California Bill Would Create A $23 Billion Fund For University Research
3mo
3mo
3mo
Happy to share the final version of the study where we describe a central role for vitaminB2 in regulating membrane redox state - some new cool experiments were added since the preprint was posted - pls check this out thttps://www.nature.com/articles/s41556-025-01856-x
3mo
3mo
Cool paper alert 🚨! Congrats @olzmannlab.bsky.social! Proud to have made a small contribution to this. One of the prettiest membrane-protein structures I have simulated ☺️
1mo
3mo
3mo
James Olzmann
CRISPR–Cas9 screening identifies CLCC1 as a factor that increases neutral lipid flux to prevent hepatic steatosis and promotes nuclear pore complex assembly by promoting membrane bending and fusi...
www.nature.com
CLCC1 promotes hepatic neutral lipid flux and nuclear pore complex assembly - Nature
Awesome paper and super useful resource of CRISPR-based screens to identify regulators of #LipidDroplet biology under different metabolic conditions: crisprlipid.org
A California bill would give voters the chance to vote on whether the state should create a $23 billion bond that would be used to award grants to university researchers.
www.forbes.com
California Bill Would Create A $23 Billion Fund For University Research
James Olzmann
Julius-Maximilians-Universität Würzburg
Nature Structural & Molecular Biology
James Olzmann
James Olzmann
3mo
Forbes