Participants

The research interest is the developments of multi-extreme THz ESR. I am very much interested in the international network with the SharedEPR network.

We focus on catalysis and enzyme action with B12 dependent coenzyme 'EAL' as the main protein.

I am interested in international collaborative research.

I am interested in the development of NV-based magnetic resonance spectroscopy and imaging techniques.
In particular in cell-vivo experiments at room temperature.

The SMART Center provides training in EPR to middle and high school students. Essential to this process is the basic
understanding of solid experimental design and
legitimate data collection and analysis as well as
the ability to draw valid conclusions. Students plan their own research projects and generate original data with the potential for presentation to the scientific community.

We use biophysical methods to study neurological proteins, their cofactors and how misregulation contributes to disease.

Dissertation Advisors: Gareth R. Eaton and Sandra S. Eaton.

I have a strong interest in using pulse dipolar spectroscopy and site-directed spin labelling to derive dynamics and relative location of secondary structure of protein. I have experience in microwave electronics and quasioptical methods.

Most of my research efforts are directed at using ESEEM and HYSCORE to structurally characterize the catalytic sites of metalloenzymes.

My research interests are centered around inorganic solid state semiconductors, namely GaAs and AlGaAs multiple quantum well films. My group will often strain these materials by bonding them to materials which have different lattice constants and lowering the temperature. We are able to dynamically polarize nuclei through the application of laser light and study the enhanced polarization via ordinary NMR. I want to join the Shared EPR network in order to learn about the research advances in EPR.

My research focuses on the impact of spin on the electronic properties of materials and devices for solar energy generation and quantum enabled electronics. My group also supports the use of advanced spin resonance techniques to address problems in biology and chemistry.

Allosteric drugs have the ability to fine-tune cellular response and direct cell signaling towards a particular pathway for the largest class of druggable proteins, G protein coupled receptors (GPCRs). I use continuous wave and DEER EPR spectroscopies to study GPCRs in the presence of allosteric ligands, to identify the mechanism of the allosteric response, and inform future rational drug design.

I am an Emmy Noether Group Leader in the Chemistry Department of the University of Konstanz. Our research focuses on the development of new methods of DNP/MAS NMR as well as the use of multi-frequency EPR to study reaction mechanisms of (metallo)enzymes.

My main interest is in the area of instrumentation development for EPR, DNP and NMR spectroscopy.

My research interests are organic & carbon based semiconductors, silicon-based semiconductors, low-dimensional electron systems, spintronics, EPR/EDMR instrumentation and methods.

Linking US and UK EPR researchers

Our lab's research is focused on understanding the physics of materials and structures with extremely long electron spin coherence. One of the main applications is the development of devices for quantum simulation and quantum computing. Long coherence requires very dilute systems, pushing the limits of sensitivity and stability. Some of the experiments must be run at milliKelvin temperatures and microwatt power levels, for which we are developing superconducting microresonators.

We are interested in magnetic resonance of OLEDs.

We are examining EPR for use as a real-time sensor of multi-phase fluids (namely crude oil with some salty water, gas, and dissolved solids). We have hand-built a rough-and-ready EPR machine but we can surely benefit from lessons learned by the community. Main challenges we face are signal-to-noise and system calibration over a broad operating range (our incoming fluids can be up to 5ksi and 120degC).

My group is interested in using EPR to study the transition metals of metal complexes with different types of binders and observe the iterations they present with their neighboring atoms.

Yanxian currently focuses on the complex coacervation of intrinsically disordered protein (IDP) and RNA, using cwEPR, DNP and DEER to probe conformation and dynamics of IDP and RNA.

I am interested in expanding my and my group's knowledge and experience in EPR for characterization of inorganic materials doped with paramagnetic metal ions and of conductive materials.

To be completed.

Lead developer of Spinach

To be filled.