Participants

My main research interest is to study nano scale spin environments in different systems employing NV centers in diamond as a magnetic sensor. I hope SharedEPR would be great community to stay touched with recent developments in the field.

As a Principal Experimentalist at the Institute for Terahertz Science and Technology I am looking for new users of our Terahertz Facility, including high field EPR instrument.

As a graduate student, my research interest is to use defect nitrogen-vacancy centers in nanodiamonds as magnetic sensor to study the dynamics of spin labeled biological molecules.

I am deeply involved in EPR research since 1985 and played a key role in the development of original methods in site directed spin labeling and nitroxide scanning. Work involved lineshape analysis, accessibility using power saturation and saturation recovery, distance measurements using CW and pulse methods, as well as synthesizing massive amounts of local results into the understanding of global structure and function. A rich collection of software written in LabVIEW is available.

I want to learn principals of epr,experimental and theoretical. I wish study in this field of spectroscopy

I'm a graduate student at Penn State interested in EDMR in electronic materials. Most of my experience is with SiC-based electronic devices.

Research Interests: 1. Investigate the reaction mechanisms of metallo enzymes, and 2. utilize micro-resonators to study metabolic radicals in live mammalian cells.
Motivation for participating in the SharedEPR network: join forces with other members to apply EPR methods to new areas of research and to facilitate the progress of young investigators in the field.

We study electron transfer and catalysis in redox-active proteins.

My research group builds single-chip EPR transceivers in silicon/CMOS. The single-chip solution has two major benefits:

1) It can be easily scaled to wave-scaled EPR arrays enabling reliable fabrication of 1000s of EPR spectrometers.
2) Silicon/CMOS fabrication technology can reduce the cost of EPR spectrometers to below $100 in high-volumes.

My team also works on low-cost single-chip sources and detectors in the THz frequencies that can be used in high-field EPR.

I am interested in the thermodynamics of the coupling between proteins and their solvating hydration water. To access the thermodynamics I employ a combination of EPR and NMR techniques mainly focusing in relaxometry. My current goal is to access energy scales in the protein water coupling phenomena from EPR noise spectroscopy.

I work with Tau Protein and aquire distance measurements using DEER

I am Graduate Student working at National High Magnetic Field laboratory. My interest lies in investigating the transition metal ions with giant magnetic anisotropy using high field EPR. I am also developing a high pressure cell/cavity to study the effect of structure on these materials.

My background is in relaxation measurements (T1,T2) of organic radicals in aqueous phase (250 MHz - 34 GHz) and development of rapid scan EPR imaging at 250 MHz. As a post doc I gained experience constructing my own instrumentation for low-field solution DNP. I am now at a contract R&D firm and am championing low-field electromagnetics as an answer to many materials characterization problems. I have an interest in expansion and development of in-situ EPR.

need to update

My research is focused on spin-selection rules and other spin-dependent electronic transitions in condensed matter with low spin-orbit coupled electron states which can potentially be utilized for spin-to-charge conversion in spin-based technologies (spintronics, quantum computing). Materials of interest are organic and other carbon based semiconductors, silicon based materials such as mono-, poly, micro, and nano-crystalline as well as amorphous silicon and silicon nitride.

To increase opportunities for interdisciplinary applications of EPR.

To increase the sensitivity and distance range of DEER/PELDOR is the aim of my PhD project. In this respect, I am working with shaped pulses generated by an Arbitrary Waveform Generator (AWG) and DEER pulse sequences involving more than 4 pulses.

update

I have been a leading developer of experimental EPR spectroscopy, particularly high-resolution, high-field applications based on quasioptical technology. I have also contributed significantly to the development and dissemination of software for quantitative analysis of EPR line shapes based on both diffusion equations and molecular dynamics calculations. I have broad experience applying these methods to study structure and dynamics in a wide range of systems, including protein and nucleic acids,

Our research efforts have been directed at the use of spectroscopic methods, such as EPR spectroscopy, to determine the structures and structural transitions in membrane transport proteins and proteins involved in neuronal exocytosis. We have also made extensive use of EPR based methods to characterize the mechanisms of reversible protein-membrane interactions, and to examine the dynamics and conformational equilibria in membrane proteins.

We utilize a variety of home built CW spectrometers to perform ESR and EDMR on a wide variety of samples. I am most interested in new instrument development for biochemical and solid state studies.

I am in the Stoll group at the University of Washington, looking at spin label contributions to DEER.

My group is interested in using DNP for studying interactions between nanomaterials and biologically-relevant molecules.

XBand ODNP

I am interested in studying the dynamics of lipids and proteins in the cell membranes. Currently as a graduate student at ACERT and the Freed group, I have been developing two dimensional and high field epr experiments to study biomembranes.