ICAM-I2CAM scientists seek to identify the organizing principles responsible for the remarkable range of quantum phases observed in strongly correlated electron systems, such as the heavy electron materials and the “high T_c” cuprate superconductors, and to discover new ones. In the example shown to the right, measurements using scanning tunneling microscopy of the energy gap function of the underdoped cuprate superconductors from the Seamus Davis lab at Cornell reveal novel and intrinsic electronic disorder at the nanometer scale in underlying well ordered crystals.
ICAM-I2CAM scientists work together to understand the organizing principles underlying the diverse phenomena of biological matter. For example, groups in San Diego, Davis, Cambridge, Chicago, and Lausanne study the self-assembly of proteins into the “amyloid” structures that are hypothesized to provide the remarkable tensile strength of spider silk and to play a key role in bringing about diseases like Alzheimer’s, Mad Cow, Type II Diabetes, and Parkinson’s. The examples shown to the right give the schematics of amyloid fibrillogenesis and images of fibrils from the Hilal Lashuel Laboratory, Ecole Polytechnique Federale Lausanne.
ICAM-I2CAM researchers also actively explore the organizing principles of soft matter systems, such as liquid crystals, colloidal suspensions, and polymer blends. These intriguing fragile forms of matter easily respond to mechanical stresses, electric and magnetic fields, temperature variations, and light, assuring a richness of physics phenomena and a wealth of technological applications. The examples below to the right the Ivan Smalyukh lab at University of Colorado at Boulder show how focused infrared laser beams may be used for touchless optical trapping and the manipulation of liquid crystal defects.
ICAM-I2CAM scientists seek to apply their understanding of the organizing principles responsible for various low temperature ordered states found in correlated matter to the design of new materials that exhibit desired emergent properties.
Additional details about the accomplishments and scope of the ICAM science and research effort may be found on the following links:
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