Welcome to the Biophysics Group at CMU!

Biophysics is an exciting interdisciplinary frontier in physics. It applies tools and techniques of physics to understand how biological systems work, from the scales of single molecules to an entire living organism—and beyond. At the same time, biological phenomena offer us physicists unique opportunities to learn new physics on complex, non-equilibrium systems.

The Biophysics Group at Carnegie Mellon combines theory, experiments and computational modelling to investigate the fundamental principles that govern the structure, mechanics and dynamic behavior of living systems across different levels of biological organization and complexities.

For more details on our ongoing research activities, please have a look here.

 Banerjee
 Group

Theory and Simulations
  

 Deserno
Group

Theory and Simulation
  

 Si
Group

Experimental cell biophysics

Heinrich
Group

Molecular Events in Cell Signaling
 

 Garoff
 Group

Interfacial Science
 

 Nagle
 Group

Experiment and Theory
  

 Tristram-Nagle
 Group

Experiment
  

Research Highlights

“Mechanistic origin of cell-size control and homeostasis in bacteria”, Fangwei Si, Guillaume Le Treut, John T. Sauls, Stephen Vadia, Petra Anne Levin, & Suckjoon Jun

Current Biology 29(11), 1760–1770.e7 (2019)

 

“Uncovering a membrane-distal conformation of KRAS available to recruit RAF to the plasma membrane.”, F. Heinrich, M. Lösche and collaborators

PNAS 117, 24258 (2020)       (Commentary)

 

“Spontaneous curvature, differential stress, and bending modulus of asymmetric lipid membranes”, A. Hossein and M. Deserno.

Biophys. J. 118, 624–642 (2020).

 

“Surface-to-volume scaling and aspect ratio preservation in rod-shaped bacteria”, N. Ojkic, D. Serbanescu and S. Banerjee.

eLife 8, e47033 (2019).

 

Flow regime transitions and effects on solute transport in surfactant-driven Marangoni flows“, S.V. Iasella, N. Sun, X. Zhang, T.E. Corcoran, S. Garoff, T.M. Przybycien, R.D. Tilton.

J. Colloid Interface Sci. 553, 136–147 (2019).

Synergistic biophysical techniques reveal structural mechanisms of engineered cationic antimicrobial peptides in lipid model membranes”, F. Heinrich, A. Salyapongse, A. Kumagai, F.G. Dupuy, K. Shukla, A. Penk, D. Huster, R.K. Ernst, A. Pavlova, J.C. Gumbart, B. Deslouches,Y.P. Di, and S. Tristram-Nagle.

 Chem. Eur. J. 26, 6247–6256 (2020).