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Condensed Matter

Du 01

Rui-Rui Du

Professor

Naomi Halas

Professor (Joint Appointment)

Adilet Imambekov

Assistant Professor

Junichiro Kono

Professor (Joint Appointment)

Morosan 01

Natleson 01

Nordlander 01

Rau 01

Emilia Morosan

Assistant Professor

Doug Natelson

Associate Professor

Peter Nordlander

Professor

Carl Rau

Professor

Si 01

Walters 01

Gustavo E. Scuseria

Professor (Joint Appointment)

Qimiao Si

Professor

G. King Walters

Emeritus Professor

Condensed Matter Links

Condensed Matter Seminars

Quantum Magnetism Lab

Keck Program in Quantum Materials

 

 

Primary Current Research Efforts of Rice CMP Faculty


Rui-Rui Du

Millikelvin experiments in quantum Hall topological phases

Quantum transport and imaging of non equilibrium 2d electrons

 

Adilet Imambekov

Theory of 1D quantum liquids

Many-body dynamics of strongly correlated liquids

Strongly correlated phenomena with ultracold atomic gases


Emilia Morosan

Heavy fermion materials and quantum phase transitions

Novel electronic and magnetic materials


Doug Natleson

Single-molecule electronics

Organic semiconductors

Single-molecule sensing


Peter Nordlander

Theoretical nanophotonics

Applications of plasmonics and nanphotonics


Carl Rau

Magnetic nanstructures


Qimiao Si

Quantum criticality and non-Fermi liquid behavior in strongly correlated systems

High temperature superconductivity, especially spin dynamics


Links above have complete descriptions of ongoing research programs

Examples of CMP research at Rice:

 
An illustration of local quantum criticality. The traditional theory of phase transitions distinguishes the phases of matter by an order parameter -- a classical variable -- and describes criticality in terms of order-parameter fluctuations. This Landau paradigm may fail for a quantum phase transition, which occurs at absolute zero temperature when a non-thermal parameter (delta) is tuned. The local quantum criticality, developed in the context of antiferromagnetic quantum critical points of heavy fermion metals, is inherently quantum-mechanical. It involves a breakdown of the Kondo screening effect, which leads to a jump in the Fermi surface and the vanishing of multiple energy scales at the onset of magnetic ordering.          
 
Nanoscale gaps for surface-enhanced Raman spectroscopy. (A) Micrograph of nanoscale Au constrictions. (B) Close-up. A nanometer-scale gap has been made between left and right electrodes, which is a focal point for plasmon enhanced electric fields when illuminated. (C) Raman image of silicon substrate, showing Au pads. (D) Raman emission from molecules on the Au electrodes, localized to the nanoscale gap. Similar structures can be used for sensing and examining the interplay between current flow and vibrational effects in single molecules.