28.01.2015 Views

Physics Graduate Brochure - Physics - North Carolina State University

Physics Graduate Brochure - Physics - North Carolina State University

Physics Graduate Brochure - Physics - North Carolina State University

SHOW MORE
SHOW LESS

You also want an ePaper? Increase the reach of your titles

YUMPU automatically turns print PDFs into web optimized ePapers that Google loves.

Lubos Mitas<br />

Prof. Mitas' research includes many-body<br />

computational methods for quantum systems, ab initio<br />

calculations of electronic structure, fundamental<br />

properties of many-body wavefunctions, variational<br />

and quantum Monte Carlo methods, and the<br />

theoretical prediction and analysis of new clusters,<br />

molecules, and solids. Some of his recent work<br />

includes structural properties of transition metal<br />

oxides under pressure, electronic and atomic<br />

structures of transition metal nanoparticles, theory of<br />

pfaffian pairing wavefunctions, structure of fermion<br />

nodes and nodal cells, excitations in silane and<br />

methane molecules, silicon nanoparticles,<br />

ferromagnetism in hexaborides, and electron<br />

correlations in carbon rings.<br />

(lubos_mitas@ncsu.edu)<br />

Christopher Roland<br />

Prof. Roland explores the properties of nanoscale<br />

materials and biomolecules. Recent topics include<br />

methods for multiscale biomolecular simulations,<br />

quantum transport in nanoscale devices; the dynamics<br />

and biological function of certain biomolecules, and<br />

the physics of nanotubes. Several recent studies<br />

include pattern formation and strain-induced<br />

instabilities in modulated systems, first-principles<br />

calculations of capacitance in carbon nanotubes,<br />

Schottky barriers in carbon and boron nitride nanotube<br />

devices, and quantum transport through short<br />

semiconducting nanotubes. (cmroland@ncsu.edu)<br />

Celeste Sagui<br />

Prof. Sagui's research interests include statistical<br />

mechanics, condensed matter theory and complex<br />

systems, phase separation and nucleation processes,<br />

computational biology and biomolecular simulations.<br />

Recent work has focused on the accurate and efficient<br />

treatment of electrostatics and free-energy methods<br />

for large-scale biomolecular simulations. Some<br />

systems under study include structure and transitions<br />

of nucleic aids and proteins, molecular and ion<br />

solvation, modulated condensed matter systems for<br />

nanotechnological applications, antibiotics and<br />

metalloproteins. To explore the properties of these<br />

systems, Prof. Sagui uses a range of computational<br />

methods including quantum chemistry, density<br />

functional theory, classical molecular dynamics, phase<br />

field models, and hydrodynamics.<br />

(celeste_sagui@ncsu.edu)<br />

Carbon nanotube aligned with atoms of a<br />

graphite sheet exhibits good current flow<br />

Three-dimensional slice of the 59-dimensional<br />

node of electronic wavefunction of solid nitrogen<br />

Further Information<br />

Prospective students can contact any faculty member directly (see email addresses above) or the <strong>Graduate</strong> Program<br />

office at py-grad-program@ncsu.edu.<br />

.NC STATE <strong>Physics</strong>.<br />

www.physics.ncsu.edu

Hooray! Your file is uploaded and ready to be published.

Saved successfully!

Ooh no, something went wrong!