乐播传媒

Our research focuses on discovery and study of novel quantum materials that are driven by a combined effect of spin-orbit and Coulomb interactions. In particular, we are interested in single-crystal synthesis, physics of complex oxides and materials properties at extreme conditions of high magnetic field, high pressure and low temperature. For more information, visit /lab/cao/

Our research focuses on the development of ultrahigh resolution functional scanning probe microscopies capable of resolving energy transport and dissipation processes at the nanoscale. One of our overarching goals is to establish enabling experimental platforms to facilitate the electrical, thermal, and thermoelectric characterizations of emergent quantum materials and quantum devices at the nanoscale. This can go even further, reaching the atomic and single-molecule level where the transport and interaction physics...

Our group鈥檚 efforts center around spectroscopic measurements of novel superconductors, topological materials and correlated electron systems, as well as some device physics and quantum computation projects. A major family of tools for us through the years has been angle resolved photoemission spectroscopy (ARPES), ultrafast laser-ARPES, and ultra-resolution laser-ARPES. Here we are focused on uncovering the basic electronic structure and electronic interactions/correlations that endow these materials with their unique physical properties...

My group aims to identify and understand new states of matters, which often arise from strong correlation among multiple degrees of freedoms. We investigate the electrical and thermal transports properties and thermodynamics variables under extreme conditions to detect and characterize the low energy excitations that reflect fundamental natures of the novel states. For more information, please visit my group website

The research in our group is on the development and application of new ultra-resolution nonlinear and ultrafast optical microscopy techniques. Using scanning probe tips as optical antennas allows us to resolve the quantum nature and emergent properties of materials at their elementary ultrafast time and atomic length scales. Examples range from nano-imaging quantum phases in 2D materials, energy transfer in molecular photonic and electronic materials, to pico-cavity control of single...

Our research focuses on using neutron, x-ray, and Raman scattering to investigate the physics of correlated electrons and electron-phonon coupling in perovskite oxides (including high Tc supercondcutors, manganites, etc.) and other unusual materials. For more information, visit https://sites.google.com/a/colorado.edu/d-reznik/group-members

Our group works in the general area of experimental condensed matter physics of thin films and very small systems. Presently, the group is working on the nanoelectromechanical behavior of nanowires and fabricated electromechanical structures and surface/bulk molecular dipole systems. For more information, visit https://spot.colorado.edu/~rogersct/index.html

Members of the Shaheen group carry out research aimed at advancing solar energy harvesting, developing new optoelectronic materials and devices, and studying complex processes in biological systems. They are interested in quantum materials with unique charge transport and photonic properties for applications in photovoltaics, memory devices, and neuromorphic circuits. For more information, visit /faculty/shaheen/