Simons Foundation: Simons Fellows in Theoretical Physics

Announcement by the Simons Foundation on New York Times on May 7, 2013 (Page D7)
The New Bond: Colloids with valence and specific directional bonding
Cover article on the November 1st, 2012 issue of Nature
Yufeng Wang, Yu Wang, Dana R. Breed, Vinothan N. Manoharan, Lang Feng, Andrew D. Hollingsworth, Marcus Weck & David J. Pine. Colloids with valence and specific directional bonding. Nature, 491, 51–55 (01 November 2012).
For more news about our latest research, please visit Pine Research Group at the Center for Soft Matter Research.
SPS Leadership Scholarship
by the National Society of Physics Students of the American Institute of Physics
Abigail Polin
Einstein's Apple: Homogeneous Einstein Fields
Engelbert Schucking and Eugene Surowitz have placed an advanced draft of their book "Einstein's Apple" on Schucking's NYU web page.
College of Arts and Science’s Outstanding Teaching Award 2012
Philip Frankel
GSAS 2011-2012 Dean's Outstanding Dissertation Award in the Sciences
Jo Bovy (PhD 2011)
"Dynamical Inference in the Milky Way"
38th Annual Undergraduate Research Conference
New York University College of Arts and Science 38th Annual Undergraduate Research Conference
Panel Winners:
- Bezia Laderman
- Christopher Peel
- Abigail Polin
- Lisa Tran
- Mark Korpics
- Kelvin Rodriguez
"Essentials of Hamiltonian Dynamics"
A new Dynamics textbook by Professor John Lowenstein.
6th Gotham-Metro Condensed Matter Meeting 2011 at NYAS
"Switching field distributions for a Co/Ninanomagnet with perpendicular magnetization under thermal activationand spin-transfer torques"
Daniel Gopman of New York University presented the development of a model of switching field distributions of Cobalt/Nickel nanomagnets in the presence of spin torque transfer and thermal fluctuations. Co/Ni nanomagnets form a two-state spin transfer device that is appropriate for testing magnetization reversal induced by spin transfer with thermal activation. Gopman modeled experimentally obtained switching field distributions (SFD) as thermal activation over a field-dependent energy barrier that is modified by applied currents. Gopman demonstrates that the SFD well describes the thermally activated reversal of a nanomagnet under spin transfer torques.
To see the full presentation, open this page and click the media tab.


