PhD in Physics - Experimental Condensed Matter Physics in Ithaca United States | Cornell University

The graduate physics curriculum equips students with comprehensive training in both theoretical and experimental physics, preparing them for high-level careers in research or academia. This program is tailored for aspiring professional physicists and consists of two key elements: First, achieving proficiency in fundamental advanced physics principles. This foundation empowers graduates to explore diverse career paths, such as teaching physics at universities or engaging in research across various specializations beyond their thesis focus. Second, conducting innovative research within a specific physics discipline. This component deepens students' expertise in a chosen research field while providing hands-on experience that culminates in an original thesis contribution.

Condensed-matter physics examines densely packed atomic systems with strong interactions, as found in liquids and solids. These interactions can generate remarkable phenomena like the superfluid states of helium-3 or high-temperature superconductivity. Cornell's research strengths encompass nanostructure physics, quantum materials, cryogenics, x-ray studies, and soft matter physics.

Cornell pioneered nanostructure physics and maintains its leadership through cutting-edge resources at the Cornell NanoScale Science & Technology Facility (CNF). Our physicists have developed both precision lithography methods for creating sub-10nm structures and innovative assembly techniques for integrating nanoscale components into functional devices. Current research explores quantum effects in carbon nanotubes, graphene, and organic molecules, while also advancing nanometer-scale magnetic devices for applications like high-density memory storage. The department is pushing boundaries with ultra-sensitive nanomechanical sensors made from advanced materials, approaching quantum detection limits. We continuously develop novel characterization tools, including next-generation scanning-probe microscopy techniques for nanoscale investigations.