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Mlynek JürgenView profile

Professor

• Experimental Quantum Optics
• Atomic Physics
• Surface Physics

Jürgen Mlynek is a Professor of Experimental Physics at Humboldt-Universität zu Berlin, with a distinguished career spanning academia and research leadership. He served as President of the Helmholtz Association (2005–2015), Humboldt-Universität zu Berlin (2000–2005), and held a Vice-President role at the German Research Foundation (DFG) (1996–2001). His academic journey includes faculty positions at the University of Constance (1990–2000) and ETH Zürich (1986–1990), along with research roles at IBM and the University of Hannover. Research Interests: Experimental quantum optics Atomic physics Surface physics Scientific Awards: Physik-Preis (1987) Gottfried-Wilhelm-Leibniz Preis (1992) Max-Born Prize and Medal (1996) Urania Medal (2003) Order of Merit of Berlin (2008) Grand Cross of Niedersachsen (2009) Officer's Cross of Germany (2010) Honorary doctorate from Ulm University (2012) Ring of Honor of Garbsen (2014) His publications highlight innovations in quantum measurement techniques , atom interferometry , optical resonators , and single-photon states , reflecting contributions to quantum optics and precision measurement.

P.L.Stephan ThambanView profile

Senior Lecturer

• Plasma Processing
• Semiconductor Manufacturing
• Material Science
• +3 more

P.L.Stephan Thamban is a Senior Lecturer II in the Department of Mechanical Engineering at the Erik Jonsson School of Engineering and Computer Science, The University of Texas at Dallas (UTD). He holds a PhD (2005) and MS (2002) in Mechanical Engineering from UTD. His research focuses on plasma processing, semiconductor manufacturing, and advanced material characterization techniques. Key research interests include plasma etching, biocompatible material synthesis, optical emission spectroscopy, and thin film technologies. His work emphasizes process optimization, real-time diagnostics, and plasma chemistry analysis. Recent publications explore gas mixtures for silicon etching, pulsed plasma synthesis for biomedical applications, and endpoint detection systems for semiconductor fabrication. Awards: 2011 Recognition for inventive contribution at UTD; 2011 AVS International Symposium moderation invitation Thamban's contributions bridge plasma physics and engineering applications, with instrumentation innovations for semiconductor manufacturing. His research spans interdisciplinary areas including material science, biomedical engineering, and nanoscale processing.

D.S. Fahmeed HyderView profile

Professor

• Magnetic Resonance Imaging
• Neuroimaging
• Molecular Imaging
• +3 more

D.S. Fahmeed Hyder is a Professor of Biomedical Engineering at Yale University, with additional appointments in Radiology & Biomedical Imaging. He holds a Ph.D. from Yale University and leads the Hyder Lab, which focuses on advancing quantitative and translational imaging technologies using magnetic resonance methods to study brain function and dysfunction at the laminar level. His research integrates multidisciplinary approaches, including molecular imaging, neurophysiology, and material science. Research Interests: Neurovascular and neurometabolic coupling mechanisms Molecular imaging probes for disease diagnostics Functional MRI (fMRI) and metabolic imaging in health and disease Imaging applications for Alzheimer’s, stroke, and cancer Publications: Dr. Hyder’s recent work emphasizes cutting-edge imaging techniques, such as pH-sensitive biosensors, high-resolution fMRI, and multimodal optical imaging. His research highlights include studies on neurovascular dysfunction in Alzheimer’s models, therapeutic interventions for brain injury, and molecular imaging of tumor microenvironments. Awards: Niels Lassen Award (2003), for cerebral blood flow research Early Career Faculty Award (1998), NSF & NIH Pilot Awards from JDRF & Yale-UCL Collaborative (2008, 2013) Labs/Teams: The Hyder Lab collaborates with institutions like UCL and the James S. McDonnell Foundation, advancing translational imaging solutions for clinical applications.

Nicole A. BenedekView profile

Associate Professor

• Materials Theory
• Computational Materials Science
• Complex Oxides
• +9 more

Nicole A. Benedek is an Associate Professor in the Department of Materials Science and Engineering at Cornell University, part of the College of Engineering. Her research group focuses on theoretical and computational approaches to understanding and designing functional materials, particularly complex oxides and perovskites. She integrates principles of crystal chemistry, symmetry, and density functional theory to uncover mechanisms underlying material properties and to guide the discovery of new materials with targeted functionalities. Her research interests include nonlinear phononics, ultrafast optical control of lattice dynamics, ferroelectricity, magnetism, and thermal transport in materials. She is particularly interested in how materials behave out of equilibrium and how external stimuli such as light can induce dramatic changes in their properties. This work has implications for low-power electronics, data storage, and dynamic optical devices. The recent publications from her group reflect a strong trend in controlling material symmetries and properties using light, especially through infrared and Raman resonant excitation. Her work bridges theory and experiment, often in collaboration with synthetic chemists, to validate predictions and discover new polar and multiferroic materials. She has made key contributions to understanding negative thermal expansion, light-induced phase transitions, and hybrid improper ferroelectricity. Scientific Awards: NSF CAREER Award, National Science Foundation (2015) Ralph E. Powe Junior Faculty Enhancement Award (2014) Journal of Materials Chemistry Emerging Investigator (2016) Australian Postgraduate Award (2003) Dr. Benedek advises graduate students in materials science and engineering and has mentored PhD candidates such as Ethan T. Ritz and Tucker Swenson. Her research is supported by the National Science Foundation (including the MRSEC program), the Department of Energy, and the Cornell Center for Materials Research. She leads the Benedek Group, which develops theoretical frameworks to explain and predict material behavior, emphasizing design rules for next-generation functional materials. The Benedek Group collaborates extensively with experimentalists, notably with Michael A. Hayward at Oxford University, to synthesize and characterize predicted materials. Their joint work has led to the discovery of new ferroelectric Dion-Jacobson phases and a deeper understanding of polar distortions in layered perovskites. The group combines computational modeling with physical insight to push the boundaries of materials design.

Johannes V. BarthView profile

Professor

• Molecular Nanoscience
• Surface Chemistry
• Scanning Probe Microscopy
• +3 more

Johannes V. Barth is a Professor at the Technical University of Munich (TUM), leading the Surface and Interface Physics (E20) group within the Physics Department. His research focuses on molecular nanoscience at interfaces, exploring surface chemical processes, heterogenous catalysis models, and functional nanoarchitectures. Utilizing scanning probe microscopy (STM) and advanced spectroscopy, his work investigates charge transfer dynamics, electronic reconfiguration, and molecular self-assembly to design low-dimensional materials and nanotextured surfaces. As part of the Catalysis Research Center (CRC) and the Munich Catalysis Alliance (MuniCat), his group contributes to projects like the CRC IAS 2D INK. Key research themes include on-surface synthesis of carbon scaffolds, supramolecular tessellation, and quasicrystalline coordination networks. Notable publications include works on porphyrin interfaces and pyrene-fused nanostructures, published in Nat. Chem. and ACS Nano . His team collaborates on facilities like the Analytic Core Facility and employs techniques such as LT-STM and NEXAFS. While no specific awards are listed, his contributions to surface science and nanotechnology are recognized through his extensive publication record and leadership inCRC initiatives.

Christian KniggeView profile

Professor

• accretion phenomena
• associated outflows
• cataclysmic variables
• +3 more

Professor Christian Knigge serves as Professor of Astrophysics at the University of Southampton and is a core member of the Southampton Theory Astrophysics and Gravity (STAG) Research Centre within the Institute for Life Sciences. His research program investigates accretion phenomena across diverse cosmic scales, from stellar-mass compact objects to supermassive black holes. Knigge's primary research focuses on accretion phenomena and associated outflows, cataclysmic variables, close binaries, globular clusters, and active galactic nuclei. He examines the physical mechanisms driving accretion disk instabilities, outflow generation, and explosive events in binary systems, with particular emphasis on white dwarf and black hole accretors. His work integrates observational data with theoretical modeling to unravel the complex physics of these high-energy environments. Recent publications (2024-2025) reveal a strong emphasis on multi-wavelength observational campaigns, especially leveraging JWST capabilities, alongside theoretical code development. Key research threads include characterizing disk winds in active galactic nuclei, identifying quasi-periodic oscillations in white dwarf systems, classifying optical outbursts in cataclysmic variables, and developing computational tools like the SIROCCO radiative transfer code. These studies demonstrate his leadership in connecting observational signatures with fundamental accretion physics across different astrophysical regimes. Supervision: Currently guides six PhD students in Physics (Austen George William Wallis, Cordelia Brown, Brian Luff, Zackery Alexander Irving, Arianna Clarissa Albayati, Pornisara Nuchvanichakul) Grants: Leads STFC-funded projects including 'Line-Driven Disk Winds in Active Galactic Nuclei', 'C Knigge - Astrophysics at Southampton', and previously held a Leverhulme Trust Research Fellowship for 'The Universal Nature of Accreting Compact Objects' As an integral member of the STAG Research Centre, Knigge collaborates within a multidisciplinary team investigating gravity-dominated systems, contributing to Southampton's prominence in theoretical and observational astrophysics through both individual research initiatives and institutional consolidation grants.

Daniel L.M. SuessView profile

Associate Professor

• Inorganic Chemistry
• Biological Chemistry
• Catalysis
• +3 more

Dr. Daniel L.M. Suess is an Associate Professor in the Department of Chemistry at the Massachusetts Institute of Technology (MIT). He holds a B.A. in Chemistry and English from Williams College (2007) and a Ph.D. in Inorganic Chemistry from the California Institute of Technology (2013), under Prof. Jonas Peters. After postdoctoral research with Prof. R. David Britt at UC Davis, he joined MIT in 2017. His research focuses on the chemical mechanisms of iron-sulfur clusters in biological and synthetic systems. Key areas include catalytic functions of these clusters in processes like nitrogen fixation, photosynthesis, and DNA repair. The Suess Lab bridges synthetic and biological chemistry to study cluster bonding, reactivity, and their roles in shaping Earth’s molecular composition. Techniques include isotopic labeling, spectroscopy, and computational modeling. Recent work explores reaction mechanisms of iron-sulfur clusters in nitrogenase cofactors and synthetic analogs, with implications for sustainable catalysis. Group members (Ph.D., master’s, and undergraduate students, plus postdocs) contribute to projects on cluster assembly, site-specific labeling, and catalytic activity. Collaborations span institutions like Harvard, Princeton, and UC Berkeley. Advising includes over 15 students and postdocs, many moving to industry or academia. The lab is supported by grants focusing on biogeochemical cycles and synthetic bio-inspired catalysts. Future directions aim to expand understanding of cluster-based catalytic systems and their environmental applications.

Olivia C. FiebigView profile

Assistant Professor

• Membrane Biophysics
• Lipid-Protein Interactions
• Photosynthesis
• +3 more

Olivia C. Fiebig is an Assistant Professor of Chemistry at Smith College, where she conducts interdisciplinary research at the intersection of biophysics and membrane science. Her work combines biochemical, spectroscopic, and physical methodologies to investigate fundamental membrane behaviors with implications for biological systems. Her educational background includes: Ph.D. in Chemistry from the Massachusetts Institute of Technology B.S. and B.A. from Rowan University Dr. Fiebig's research centers on membrane biophysics , specifically examining how lipids and proteins interact within cell membranes to influence biological processes. She employs model membrane systems such as vesicles and nanodiscs to study lipid behavior, protein-lipid interactions, and the physical properties governing membrane assembly. A significant portion of her work focuses on photosynthetic light-harvesting complexes in purple bacteria, utilizing ultrafast spectroscopy to probe energy transfer dynamics under varying environmental conditions. Analysis of her recent publications reveals consistent emphasis on optimizing model membrane systems to replicate biological complexity, with particular attention to photosynthetic acclimation strategies and the effects of ionic environments on membrane and protein stability. Her work bridges fundamental biophysical principles with practical applications in understanding biological membrane function. Her notable recognition includes: Eberly Postdoctoral Research Fellow Dr. Fiebig leads an active research laboratory that trains students in advanced biophysical techniques while advancing understanding of membrane organization and function. Her group's work on near-native membrane systems represents a significant methodological contribution to the field.

Caroline E. PaulView profile

Associate Professor

• Biocatalysis
• Enzyme Engineering
• Enzyme Discovery
• +7 more

Dr. Caroline E. Paul is an Associate Professor in the Department of Biotechnology at Delft University of Technology (TU Delft) , Faculty of Applied Sciences. She leads an active research group focused on biocatalysis, enzyme engineering, and biomimetic cofactor systems. Education: PhD in Bioorganic Chemistry, University of Oviedo, Spain MSc in Chemical Synthesis and Reactivity, University of Oviedo MSc in Biological Chemistry, University of Toronto Honours BSc in Biological Chemistry, University of Toronto Research Interests: Dr. Paul’s research centers on enzyme discovery and engineering , particularly in flavoprotein monooxygenases and ene reductases. Her group explores biomimetic cofactors to replace natural NAD(P)H, enabling more efficient and sustainable biocatalytic processes. A major focus is the development of one-pot enzymatic cascades for asymmetric synthesis, such as azidohydroxylation and allylic oxidation, with applications in pharmaceutical and fine chemical synthesis. She also investigates metalloproteomics using MIRAGE to study metal distribution in biological systems. Publication Trends: Her recent publications (2020–2024) demonstrate a consistent focus on biocatalytic cascade reactions , cofactor engineering , and enzyme mechanism elucidation . There is a strong emphasis on green chemistry and sustainable synthesis using enzymatic systems. Her work frequently involves the use of biomimetic reductants like BNAH and the integration of photochemical or hydrogen-driven cofactor regeneration. The research bridges fundamental enzymology with practical applications in organic synthesis. Scientific Awards and Grants: ERC Starting Grant (2020) KNCV Gold Medal (2024) Chemistry Europe Fellow (2022–2023) NWO ENW XL Grant (2022) NWO VENI Grant (2015) FP7 Marie Curie Intra-European Fellowship (2013) Delft Technology Fellowship (2018) Advising and Funding: Dr. Paul has successfully secured multiple competitive grants, including from the European Commission (ERC, HORIZON) and the Dutch Research Council (NWO), supporting her research on non-canonical cofactors and biocatalytic cascades. She co-founded NextGenBiocat , an international symposium promoting early-career researchers in biocatalysis, indicating her commitment to mentoring and academic community building. While specific students are not listed, her active funding and group leadership imply ongoing supervision of PhD and postdoctoral researchers. Labs and Teams: She leads the Caroline Paul Group within the Biocatalysis section at TU Delft. Her research involves collaborations with groups across Europe, including Wageningen University, Ruhr-Universität Bochum, and Enzymicals AG. Her lab employs advanced techniques such as isothermal titration calorimetry, stopped-flow spectroscopy, and microsecond freeze-quenching to study enzyme kinetics and mechanisms.

Atsushi UrakawaView profile

Professor

• Heterogeneous Catalysis
• In situ/operando Spectroscopy
• Reaction Engineering
• +7 more

Prof. Atsushi Urakawa is a Full Professor in the Department of Chemical Engineering at the Faculty of Applied Sciences, Delft University of Technology (TU Delft) . He leads the Urakawa Group , which focuses on developing sustainable heterogeneous catalytic processes with minimal environmental impact. PhD, ETH Zurich (2006) MSc, TU Delft BSc, Kyushu University, Japan His research is centered on heterogeneous catalysis , employing in situ/operando spectroscopy and reaction engineering to understand catalytic mechanisms. Key research themes include CO₂ conversion to chemicals , methane activation , hydrogen production , and environmental catalysis (NOx abatement) . The group also pioneers advanced in situ/operando tools for studying solid-gas and solid-liquid interfaces at the reactor scale. The recent publications reflect a strong focus on CO₂ hydrogenation under high pressure, design of bimetallic and supported catalysts , and mechanistic elucidation using operando techniques. The work bridges fundamental understanding with industrial sustainability. Scientific Awards: Fellow of the Royal Society of Chemistry (2016) JSPS Prize (2020) The Japan Academy Medal (2021) Advising: Prof. Urakawa supervises PhD and postdoctoral researchers, including Nat Phongprueksathat , George Tierney , and Gerben-Jan Hooijer . His group collaborates with industrial partners such as Toyota on carbon capture and reduction (CCR) projects. While specific grants are not detailed, his research is clearly supported by high-impact publications and international recognition. Labs & Teams: The Urakawa Group is embedded within the Catalysis Engineering section at TU Delft, fostering interdisciplinary research at the intersection of materials science, catalysis, and process engineering.

Michael BarnesView profile

Professor

• Chemical Physics
• Nanomaterials
• Single-Molecule Spectroscopy
• +7 more

Michael Barnes is a Professor in the Department of Chemistry at the University of Massachusetts Amherst, where he also serves as the Graduate Program Director. He is affiliated with the Materials Science and Engineering Interdisciplinary Graduate Program, reflecting the interdisciplinary nature of his research. His work is conducted in the Physical Sciences Building and the Lederle Graduate Research Tower. Ph.D., Rice University (1991) B.S., California State University, Sonoma (1985) His research focuses on the chemical physics of nanoscale systems, particularly the relationship between structure and optoelectronic function in polymeric and inorganic composite nanostructures. He employs a technique known as “Chemical Microscopy,” which integrates single-molecule imaging, spectroscopy, and scanning probe methods like atomic force microscopy (AFM). His work spans quantum dot-organic hybrids, polythiophene nanostructures, and chiral molecules, with implications for energy harvesting and advanced optical technologies. The available publications, both from 2012, center on exciton dynamics and structural properties in conjugated polymer systems such as polythiophenes and P3HT nanofibers. These studies utilize advanced optical techniques to probe inter- and intrachain interactions, solvation effects, and regioregularity at the nanoscale, revealing insights into charge transport and photophysical behavior relevant to organic photovoltaics. While no formal scientific awards are listed in the provided text, his research has been published in high-impact journals such as Science and the Journal of Physical Chemistry Letters . He advises a research group comprising graduate students and researchers, and collaborates with prominent faculty including Prof. Todd Emrick and Prof. Latha Venkataraman. Senior Staff Scientist, Oak Ridge National Laboratory (2003–2004) Staff Scientist, Oak Ridge National Laboratory (1994–2003) Dr. Barnes leads the Barnes Research Group, which investigates single-molecule photophysics, chiroptical responses, and nanostructure functionality. The lab focuses on systems such as CdSe-organic composites, polythiophene nanoparticles, and chiral fluorophores, aiming to bridge molecular structure with macroscopic optoelectronic behavior.

Dominik MunzView profile

Professor

• Coordination Chemistry
• Inorganic Chemistry
• Organic Chemistry
• +14 more

Prof. Dr. Dominik Munz is a Professor of Coordination Chemistry at the Faculty of Natural Sciences and Technology, Saarland University , Germany. He leads an interdisciplinary research group at the interface of inorganic, organic, and physical chemistry, focusing on creative solutions for catalysis, energy conversion, and functional materials. Education: Ph.D. from TU Dresden (implied by 'alma mater' reference). Research Interests: The Munz group is driven by the pursuit of novel chemical bonding and unusual electronic structures. Their primary research areas are: Bond Activation for Catalysis: Designing new transition- and main-group metal complexes with innovative bonding motifs to activate strong bonds and facilitate energy conversion. Optoelectronic Materials: Investigating radicaloid systems for applications in solar cells and microelectronics. Reactive Intermediates as Molecular Switches: Exploring transient, highly reactive species for use in soft and intelligent materials. Their synthetic work is guided by computational predictions and employs advanced spectroscopic techniques under inert conditions. Publication Trends: The group's recent publications (2023-2025) demonstrate a strong focus on pushing the boundaries of main-group and transition-metal chemistry. Key themes include the synthesis of highly unusual species like terminal gold(I) imides and lead(II)-substituted triplet carbenes, the discovery of powerful new reagents from simple oxidations (e.g., PPh3), and the exploration of high- and low-valent states of metals (e.g., FeVII, Al(I)). Their work frequently appears in top-tier journals like JACS , Nature , and Angewandte Chemie , highlighting its significance and impact. Scientific Awards: European Research Council (ERC) Starting Grant Advising and Grants: Prof. Munz actively mentors a large group of students and postdoctoral researchers, as evidenced by numerous publications led by his advisees. His research is supported by significant competitive grants, including the ERC Starting Grant and a DFG-funded Research Training Group (RTG Ec=m²), which is hiring 10 new PhD scholars. This indicates a robust research program focused on 'Engineering Covalent Bonds in Molecules and Materials.' Laboratories and Research Groups: The Munz group operates state-of-the-art laboratories at Saarland University, equipped with brand-new gloveboxes for air-sensitive chemistry. The group is a key part of the 'PharmaScienceHub,' a collaborative initiative between Saarland University and the Helmholtz Institute for Pharmaceutical Research. They are also involved in the Skilizium, a research meeting with groups from Saarland, Marburg, and Münster. The group fosters a dynamic environment, engaging in outreach activities like hosting high school students and organizing scientific meetings such as the Fulbright-Cottrell Meeting on Science Communication.

Nandini GuptaView profile

Professor

• High Voltage Engineering
• Dielectric and Insulation
• Plasma and Gas Discharges
• +3 more

Nandini Gupta is a Professor in the Department of Electrical Engineering at the Indian Institute of Technology Kanpur . Her research focuses on high voltage engineering, dielectric materials, and plasma discharges. Education : PhD (1998) and ME (1994) from Indian Institute of Science, Bangalore; BE (1991) from Jadavpur University, Kolkata Her work explores dielectric and insulation systems , nanoparticle-enhanced materials , and space charge dynamics in polymers. She has contributed to understanding surface degradation in nanodielectrics and plasma discharge phenomena . Recent publications analyze electric tree progression , nanofiller effects on epoxy resin, and charge transport mechanisms in insulating polymers.

Tom MitchellView profile

Professor

• Human Computer Interaction
• Music Technology
• Sonification
• +5 more

Tom Mitchell is a Professor of Audio and Music Interaction at the University of the West of England (UWE), Bristol . As leader of the Creative Technologies Laboratory , his research focuses on interactive technologies for creative expression, blending computer science, music, and artificial intelligence. He is the principal investigator for the UKRI Future Leaders Fellowship project "Sensing Music Interactions from the Outside-In" and co-investigator for the Bridge , a £3M creative technology facility. His research spans digital musical instrument design , GPU-accelerated audio processing , and sonification of scientific data . Recent work includes accessibility improvements in virtual environments, AI-driven DMI development, and interdisciplinary collaborations like the MiMU Gloves with Imogen Heap. He also contributes to robotics teleoperation through auditory feedback systems. Selected publications highlight trends in GPU acceleration for audio , generative AI in musical contexts , and human-robot collaboration via sonification. As a software developer , he specializes in C++ and the Juce library , with applications in live performance systems and scientific visualization projects like Soma and danceroom Spectroscopy . UKRI Future Leaders Fellow Active in AHRC and WECA-funded projects Best paper nominations at EvoMUSART and International Faust Conference Mitchell collaborates with institutions including the Bristol Robotics Laboratory , Computer Science Research Centre , and Pervasive Media Studio . His work bridges academic research with commercial applications through ventures like May Productions and x-io Technologies.

Hans-Joachim GrafeView profile

Researcher

• Nuclear Magnetic Resonance
• High Temperature Superconductivity
• Quantum Magnetism
• +3 more

Dr. Hans-Joachim Grafe is a group leader at the Institute for Solid State Research within the Leibniz Institute for Solid State- and Materials Research (IFW Dresden) in Germany. His research focuses on Nuclear Magnetic Resonance (NMR) studies of quantum materials, particularly investigating high temperature superconductors and quantum magnets. Dr. Grafe completed his diploma thesis at TU Braunschweig on NMR measurements of Sr 14 Cu 24 O 41 under the guidance of Hans-Henning Klauß. He then pursued his PhD at IFW Dresden and TU Dresden, working with Bernd Büchner and Nicholas Curro at Los Alamos National Laboratory on NMR studies of rare earth co-doped lanthanum cuprates. His research interests span Nuclear Magnetic Resonance spectroscopy, high temperature superconductivity, quantum magnetism, and the development of novel NMR instrumentation. Dr. Grafe has made significant contributions to understanding the electronic and magnetic properties of unconventional superconductors using NMR techniques. Recently, he has been involved in developing self-assembled rolled-up microcoils for NMR on nanoliter-sized samples, expanding the capabilities of NMR spectroscopy for studying minute quantities of materials. Analysis of Dr. Grafe's recent publications (2021-2025) reveals a strong focus on applying NMR techniques to investigate quantum magnetic systems, high-temperature superconductors, and novel instrumentation development. His work spans condensed matter physics, materials science, and NMR methodology, with particular emphasis on frustrated magnets, iron-based superconductors, and innovative approaches to enhance NMR sensitivity for nanoscale applications. Dr. Grafe has presented his research at numerous international conferences and seminars, including the Mitteldeutsches Resonanztreffen, Analytica, and various university seminars across Europe. His invited talks often focus on NMR applications in quantum materials and recent advances in NMR instrumentation.