Walter W. Chen, MD, PhD
@walterwchen1
Harvard/MIT MD-PhD + @TheBCRP grad, NICU physician @UTSWNews, postdoc @RJDLab, @statnews Wunderkind, @the_asci E-Gen awardee, studying organelles, views = mine
ID: 1044292288787214336
24-09-2018 18:27:38
4,4K Tweet
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Hiring committees, please take note! Drew Scott is on the job hunt, looking for an academic home for the Scott Lab š His lab will study metabolism in the brain tumor microenvironment. And if youāre into that sorta thing⦠he also has a K99/R00 cc: Daniel Wahl
I am excited to share my graduate work in David M. Sabatini and Dave Bartelās labs. Since their discovery, we have known lysosomes possess RNase activity; however, their substrates were not known. Surprisingly we find specific RNAs are targeted for degradation! biorxiv.org/content/10.110ā¦
Excited to join the Childrenās Research Institute at UT Southwestern community to advance discoveries in genome integrity. Weāre grateful to UTSW Department of Pathology for 6 wonderful years. šØ Weāre recruiting motivated postdocs to study how mitotic errors and aberrant nuclear structures drive cancer genome evolutionājoin us!
The Baik Lab at UCSF (CVRI) is hiring a post-doc! We study hypoxia adaptation in cardiovascular disease and mechanisms of cancer therapy-related cardiotoxicities. Collaborative culture, strong mentorship, and innovative approaches! Email CV + cover letter to [email protected]
Congrats to ā¦Samir M. Parikhā© and teamā© for a breakthrough paper in ā¦Science Magazineā© showing that somatically acquired heteroplasmic mtDNA mutations are a cause of chronic kidney disease and are functionally reversible. ā¦ā¦American Society of Nephrologyā© ā¦ASCIā© šš
Happy to share our new paper in nature led by staff scientist Xuejing Liu Xuejing (Jessica) Liu, MD, PhD. We report identification of a UCP1-independent pathway of brown fat thermogenesis involving ATP-consuming metabolism of BCFA in peroxisomes. #Obesity #T2D nature.com/articles/s4158⦠WashU Medicine Department of Medicine
Wonderful to see our paper on the #organelle signatures of #neurons and #astrocytes out in final form - congratulations Shannon Rhoads and team! šdoi.org/10.1016/j.celrā¦
Grateful for the opportunity to speak at this yearās symposium on diabetes and cancer with City of Hope. Virtual meeting, registration link below #ConnectingTheDots Charles Brenner, PhD
My co-authors and I from Konnikova lab lab are very excited to present our research findings on placental immune cells! Iāll highlight some of our key findings in this thread and you can check out the full results linked below.š¬(1/n) biorxiv.org/content/10.110ā¦
Excited to share our work with David M. Sabatini & Jonathan Weissman's Lab. How do lysosomes change with age? We present a metabolic atlas of lysosomal aging, and reveal a lysosomal āaging clockā of metabolites linked to lysosomal storage disorders.Ā GratefulĀ to all co-authors! biorxiv.org/cgi/content/shā¦
Excited to present my research at the upcoming University of Utahās Rising Stars Symposium and meet fellow scientists who love metabolism! Childrenās Research Institute at UT Southwestern
Our new work in Cell Metabolism by Artem Khan describes three new SLC transporters, including SLC25A45, a mitochondrial transporter for methylated amino acids that is essential for carnitine synthesis and fasting adaptation. Rockefeller University cell.com/cell-metabolisā¦
Thank you very much, Ali! Honored and humbled to be named Thomas D. Spies Professor of Genetic Metabolism. Thanks to Shilatifard Lab Northwestern Feinberg School of Medicine Lurie Cancer Center, mentors FrƩdƩric Bost, Brendan Manning, NoTwitterNav, my family & friends!
Colliding ribosomes are potent signals of cellular stress. But do cells use āprogrammedā ribosome collisions to regulate gene expression? Iām excited to present a new story led by Frederick Rehfeld revealing that the answer is YES! Read on to find out how. biorxiv.org/content/10.110ā¦
Thrilled to announce the launch of my lab Childrenās Research Institute at UT Southwestern this January! We will explore how cells sense and respond to mechanical forces, focusing on membrane mechanics to reveal how tension and signaling work together to shape cell behavior.