Philipp Niethammer

Philipp Niethammer is an Associate Professor at the Graduate School of Medical Sciences, Memorial Sloan Kettering Cancer Center, with a primary affiliation in the Department of Cell & Developmental Biology. His research bridges immunology, biophysics, and cancer biology through innovative use of zebrafish models and interdisciplinary methodologies.

His research focuses on the fundamental mechanisms by which tissues detect damage and initiate immune and repair responses. Key interests include wound detection, nuclear mechanotransduction, ROS and lipid signaling, and the role of these processes in inflammatory diseases like asthma and colitis, as well as cancer. He employs a multidisciplinary toolkit combining intravital imaging in zebrafish, computational modeling, and biochemical reconstitution to dissect signaling dynamics across scales.

The recent publications highlight a strong trend in understanding physical and chemical signaling in tissue integrity: from ROS waves in wound detection to nuclear membrane responses under mechanical stress and the discovery of oxoeicosanoids as infection defense molecules. His work consistently appears in top-tier journals, indicating high impact in cell biology and immunology.

Scientific Awards:

• Dorsett L. Spurgeon Distinguished Medical Research Award
• American Asthma Foundation Scholar
• Boyer Basic Research Award

Dr. Niethammer leads an active research program supported by institutional affiliations with Memorial Sloan Kettering and Weill Cornell. While specific grants are not listed, his sustained productivity and recognition suggest robust funding. He is likely involved in mentoring graduate students in the Tri-Institutional PhD Program, particularly in Cell & Developmental Biology, though no students are explicitly named.

His lab, the Niethammer Lab, conducts cutting-edge research on leukocyte targeting to sites of tissue damage, aiming to uncover the initial triggers of inflammation. Projects include mechanosensitive lipid signaling in skeletal homeostasis, oxoeicosanoid physiology, nuclear membrane mechanotransduction, and wound sensing by blood vessels.