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Career

  • 1988 Service de Physique Théorique, Centre d'Etudes Nucléaires de Saclay, Gif-sur-Yvette, France Visiting Scientist
  • 1988-1991: University of Chicago, James Franck and Enrico Fermi Institutes Postdoctoral Research
  • 1991-1996: Princeton University - Assistant Professor of Physics Associated Faculty, Program in Applied and Computational Mathematics
  • 1996-2006: University of Arizona - Associate Professor then Professor of Physics and Applied Mathematics
  • 2006-2023: University of Cambridge - Schlumberger Professor of Complex Physical Systems, DAMTP
  • 2023-: University of Cambridge - Alan Turing Professor of Complex Physical Systems, DAMTP

Research

The primary focus of my research is biological physics.  Our group conducts both theoretical and experimental research on problems of evolutionary biology (such as the evolution of multicellularity), developmental biology, and aspects of nonequilibrium phenomena unique to living systems.  We also conduct research on natural pattern formation in the physical and biological world.  

Selected Recent Publications

1. Coffee Stains, Cell Receptors, and Time Crystals: Lessons From the Old Literature, Raymond E. Goldstein, Physics Today 71, 32-38 (2018).

2. Time-Irreversibility and Criticality in the Motility of a Flagellate Microorganism, Kirsty Y. Wan and Raymond E. Goldstein, Physical Review Letters 121, 058103 (2018).

3. The Noisy Basis of Morphogenesis: Mechanisms and Mechanics of Cell Sheet Folding Inferred from Developmental Variability, Pierre A. Haas, Stephanie Höhn, Aurelia R. Honerkamp-Smith, Julius B. Kirkegaard, and Raymond E. Goldstein PLOS Biology 16, e2005536 (2018).

4. Why Clothes Don't Fall Apart: Tension Transmission in Staple Yarns, Patrick B. Warren, Robin C. Ball, and Raymond E. Goldstein, Physical Review Letters 120, 158001 (2018).

5. Aerotaxis in the Closest Relatives of Animals, Julius B. Kirkegaard, Ambre Bouillant, Alan O. Marron, Kyriacos C. Leptos, and Raymond E. Goldstein, eLife 5, e18109 (2016).

6. Batchelor Prize Lecture: Fluid Dynamics at the Scale of the Cell, Raymond E. Goldstein, Journal of Fluid Mechanics 807, 1-39 (2016).

7. Instabilities and Solitons in Minimal Strips, Thomas Machon, Gareth P. Alexander, Raymond E. Goldstein, and Adriana I. Pesci, Physical Review Letters 117, 017801 (2016).

8. Coordinated Beating of Algal Flagella is Mediated by Basal Coupling, Kirsty Y. Wan and Raymond E. Goldstein, Proceedings of the National Academy of Sciences USA 113, E2784-93 (2016).

 

Publications

Rheotaxis facilitates upstream navigation of mammalian sperm cells
V Kantsler, J Dunkel, M Blayney, RE Goldstein
– eLife
(2014)
3,
e02403
Boundary singularities produced by the motion of soap films.
RE Goldstein, J McTavish, HK Moffatt, AI Pesci
– Proceedings of the National Academy of Sciences
(2014)
111,
8339
Lag, lock, sync, slip: The many 'phases' of coupled flagella
KY Wan, KC Leptos, RE Goldstein
– Journal of the Royal Society Interface
(2014)
11,
20131160
Controlling active self-assembly through broken particle-shape symmetry
HH Wensink, V Kantsler, RE Goldstein, J Dunkel
– Physical Review E
(2014)
89,
ARTN 010302
Controlling active self-assembly through broken particle-shape symmetry
HH Wensink, V Kantsler, RE Goldstein, J Dunkel
– Physical review. E, Statistical, nonlinear, and soft matter physics
(2014)
89,
010302
Using Hydrodynamic Flow to Concentrate Membrane-Associated Proteins in Free Fluid Lipid Bilayers
AR Honerkamp-Smith, P Jonsson, RE Goldstein
– Biophysical Journal
(2014)
106,
500a
Stabilizing and Controlling Swimming Bacteria: Shaping a Turbulent Suspension into a Ferromagnetic State
H Wioland, FG Woodhouse, J Dunkel, E Lushi, RE Goldstein
– Biophysical Journal
(2014)
106,
577a
Surface Interactions in Suspensions of Swimming Cells
V Kantsler, J Dunkel, RE Goldstein
– Biophysical Journal
(2014)
106,
210A
Antiphase Synchronization in a Flagellar-Dominance Mutant of Chlamydomonas
KC Leptos, KY Wan, M Polin, I Tuval, AI Pesci, RE Goldstein
– Physical review letters
(2013)
111,
158101
Cytoplasmic streaming in plant cells emerges naturally by microfilament self-organization
FG Woodhouse, RE Goldstein
– Proceedings of the National Academy of Sciences of the United States of America
(2013)
110,
14132
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Research Group

Biological Physics and Mechanics

Room

H0.06

Telephone

01223 337908