Participants

I found membrane proteins and their interactions with lipid bilayers as one of the most intriguing fields of research. That is why I decided to work in this field for my PhD degree. EPR is one of the best techniques to investigate membrane proteins, their structures, their interactions with lipid bilayers, etc.
I believe SharedEPR network will provide priceless opportunities to meet experts in this field, collaborate with EPR researchers around the country and get access to advanced facilities

As a bourgeoning scientist, it is important to me to contribute to the field of research and also better it if I am able to do so. Through my continued studies I hope I can contribute to the development and refinement of EPR techniques and further the use of EPR as a tool for understanding protein dynamics. It is my desire to continue studying protein dynamics beyond my graduate career, therefore, developing a firm foundation in EPR is of utmost importance as I build my career as a scientist.

My research interests include instrumentation, and DEER sample preparation.

EDMR spectroscopy of organic semiconductors and other materials with low spin-orbit coupling at high resonant driving fields B1 using microwire and low frequency/B0 conditions with potential application for magnetometry and the exploration of nonlinear magnetic field phenomena

My research is now focused on conformations of GATA3 binding domain bonded to DNA by using site directed spin labeling.

I am a research scientist in College of Chemistry, Peking University. My major research interest is the quantum coherence, magnetic anisotropy and coupling behavior of magnetic molecules.

I took over the position of Assistant Director at the Magnetic Resonance Center (MRC) at BC last year, and the majority of my duties are centered on assisting students with their experiments on our EMX-Plus EPR spectrometer. I have been assisting students with acquiring routine EPR spectra of organic radicals and nitroxides, as well as guiding them through the process of EPR simulations, as I concurrently hone the art myself.

Looking to learn more about EPR. Strong background in MRI. Would like to combine EPR and MRI to explore iron in the body.

I'm interested in using pulsed electrically and optically detected magnetic resonance to investigate the optical and electronic pathways of organic electronic devices.

I study protein-solvent dynamics in Ethanolomine Ammonia Lyase catalysis

To be filled.

Lead developer of Spinach

To be completed.

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.

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.

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.

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).

We are interested in magnetic resonance of OLEDs.

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.

Linking US and UK EPR researchers

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

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

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.

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.

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.