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Prof. Gottfried Otting
Protein functions depend on 3D structure. We use NMR spectroscopy to assess the structure and structural changes of proteins and their complexes with other molecules (proteins, DNA, drugs). Using NMR spectroscopy, we can do this in aqueous solution, i.e. under near-physiological conditions. In particular, we develop new methods for studying complexes of greater molecular weight and of biological and medical interest.
Prof. Mei Hong
The Hong group develops and applies high-resolution solid-state NMR spectroscopy to elucidate the structure and dynamics of biological macromolecules, with an emphasis on membrane proteins. We design magic-angle-spinning NMR techniques that measure inter-atomic distances and molecular motions, and apply these techniques to problems in biology, pharmacology, and biomaterials. We have a long-standing interest in ion channels and curvature-inducing membrane proteins. We are also investigating the polysaccharide structures in energy-rich plant cell walls and amyloid proteins involved in neurodegenerative diseases. We study these complex noncrystalline proteins and carbohydrates in their native environments, at atomic resolution, with both structural and dynamical details, from which we obtain mechanistic insights that are rarely available from other structural techniques.
Prof. Tatyana Polenova
Investigates structure and dynamics of biopolymers and inorganic materials in the solid state; Uses NMR spectroscopy, combined with computational, and biochemical methods, to gain understanding of the molecular mechanisms underlying the chemical reactivity of proteins; Studies HIV-1 capsid protein assemblies, microtubule-associated protein assemblies and vanadium-containing proteins; Permanent member of the National Institutes of Health's study section devoted to biochemistry and biophysics of membranes
Prof. Matthias Ernst
The research group focuses on Method Development in Solid-State NMR and Application to Biomolecules: Heteronuclear spin decoupling in solid-state NMR; fast Magic-Angle Spinning; Dipolar recoupling under fast MAS by adiabatic methods; Application to MAS to Biomolecule and Fundamental Research in Physical Chemistry Using Solid-State NMR
Prof. Malcom Levitt
Professor Levitt’s group at Southampton is working on new ways to interact with the magnetic nuclei and gain information about matter. The group’s primary current interest is to develop the phenomenon of hyperpolarisation, in which the radio signals are enhanced by huge factors, up to tens of thousands, by preparing the sample in a special way. This may eventually lead to new types of NMR and MRI experiment, for example forming images of cancer activity, using just a magnet and radio waves, avoiding the need for an operation, or the use of damaging high-energy radiation
https://www.southampton.ac.uk/chemistry/about/staff/mhl.page
Prof. Dr. Michael Sattler
The research of Prof. Sattler focuses on the development and application of nuclear magnetic resonance (NMR) spectroscopy in solution. His aim is to describe the structure, dynamics and molecular interactions of biological macromolecules (proteins, RNAs with each other and with small molecules and drug-like compounds). This should lead to a better understanding of the basic molecular principles of fundamental biological processes and disease mechanisms
https://www.ch.tum.de/en/faculty/staff/active-members/s/prof-dr-michael-sattler/
Prof. Hartmut Oschkinat
The main focus of our group is the development of solid-state magic-angle spinning (MAS) NMR methodology as a routine tool for biological studies, in particular for structural characterisation of protein-protein interactions that are responsible for the reception and transduction of signals. This research focuses traditionally on membrane integrated proteins and receptor-ligand complexes
Prof. David Bryce
Through his research programs, Dr. Bryce develops and applies solid-state NMR spectroscopic and quantum chemical methods for the study of nuclei in unique bonding environments in diverse solid compounds, cocrystals, and materials. One of the goals is to establish tools for providing new insights into supramolecular materials and related systems. Non-covalent halogen bonds, pnictogen bonds, chalcogen bonds, and tetrel bonds are a current focus. NMR crystallography, crystal engineering, and mechanochemistry are also particular areas of interest and application. In addition to providing fundamentally new chemical knowledge on structure and bonding in such systems, one of the aims is to establish solid-state NMR as more of a predictive tool in the characterization of inorganic and bioinorganic molecules
Prof. Galia Debelouchina
We develop sensitivity-enhancement methodologies that allow the unprecedented increase in the signal-to-noise ratios of NMR experiments and the dramatic reduction of data acquisition times (e.g. from weeks to hours). In particular, we use dynamic nuclear polarization (DNP), a method based on the transfer of polarization from electrons to nuclei, that is well-suited for the characterization of large biological assemblies. Our research integrates concepts from physical and synthetic chemistry to improve on the efficiency and scope of DNP-enhanced NMR for challenging biological systems.
Prof. Alexej Jerschow
Research projects include various aspects of NMR/MRI methodology development and applications. Most recently work in the lab has been divided between battery diagnostics using in situ NMR/MRI and the study of nuclear spin singlet states and relaxation theory. .
Prof. Mahavir Singh
Dr Singh’s laboratory studies protein-nucleic acid interactions that govern the processes of telomere DNA maintenance, chromatin remodelling, and bacterial toxin-antitoxin systems. They use solution NMR in conjunction with other biophysical methods to study these interactions.
Prof. Gaël de Paëpe
Our research interests include New methods for recoupling in solid-state NMR; New approaches for DNP-enhanced solid-state NMR; DNP-enhanced NMR of quadrupolar nuclei; Advanced instrumentation for DNP-enhanced solid-state NMR; NMR of surfaces; DNP of self-assembled systems; On-cell NMR using DNP.
https://www.mem-lab.fr/Pages/Portrait/Gael-de-Paepe.aspx
Prof. Yusuke Nishiyama
We are focusing on new methodology development to solve the crystalline structure of nano- to micro-meter sized particles using electron and NMR nanocrystallography approach. The approach combining the electron diffraction and solid-state NMR and gives deeper insights into molecular structure including hydrogen positions. We are also working on application of the methods to wide varieties of materials including pharmaceutical materials, biomolecules, proteins, organic-inorganic hybrid materials etc.
https://www.riken.jp/en/research/labs/bzp/cjcc/adv_solidstate_nmr/index.html
Prof. Lucio Frydman
Research in our group focuses on the development of new techniques in nuclear magnetic resonance (NMR) analysis, and on the application of these methods to the resolution of chemical problems and to magnetic resonance imaging (MRI).
Prof. Kavita Dorai
Our research is poised at the Interface of Physics and Biology. Ongoing research projects include: NMR Quantum Computing, NMR Metabolomics, Diffusion NMR, NMR Spin Relaxation and NMR Methodology Development.
Prof. Lyndon Emsley
Our research interests include: DNP Enhanced NMR Spectroscopy; Biomolecular Solid-State NMR for Protein Biophysics; NMR Crystallography; Structural characterization of metal containing catalysts.
https://www.epfl.ch/labs/lrm/research/materials-science-catalysis/
Prof. Neeraj Sinha
We develop and apply Nuclear Magnetic Resonance (NMR) spectroscopic (solid state and solution state) methods to various biological systems for understanding human disease progression. Our research area is mainly interdisciplinary in nature with application of concepts from Physics, Computation and Biology. .
Prof. Vipin Agarwal
His basic area of research is solid-state Nuclear Magnetic Resonance spectroscopy. In the last decade solid-state NMR spectroscopy has come of age and continues to conquer new frontiers in biology, chemistry and material science by addressing structure and characterization issues in more challenging systems. This has shifted the focus of research in the field of solid-state NMR from primarily being method development to an application-based spectroscopic technique. They are work in the area of development of solid-state NMR methods and then subsequent application of these methods to address problems in structural biology, understanding motions in proteins or characterization of materials.
Prof. Jeetender Chugh
Dr. Jeetender Chugh obtained his PhD from Tata Institute of Fundamental Research (TIFR), Mumbai while working on protein assemblies using NMR spectroscopy, and method developments in NMR. He worked on two types of projects: (a) Structural characterization of the GTPase Effector Domain (GED) of dynamin, and (b) development of NMR methods to facilitate rapid resonance assignments in proteins.
Jeet did his post-doctoral research in the field of RNA-dynamics using NMR spectroscopy, where he studied the mechanism of A-site RNA populating an alternative conformation necessary for the proofreading mechanism in ribosomes. He also studied fluorinated peptides from biological perspective.
Prof. Sheetal Jain
Our group’s research focus is on developing new magnetic resonance spectroscopic methods and techniques to elucidate structural and dynamical details of renewable energy materials such as semiconductors for solar energy harvesting, catalysts for biomass energy conversion reactions and electrolytes. Properties such as ion-mobility in solid-electrolytes, conversion efficiency in perovskites and catalytic activity of solid-catalysts are determined by atomic structures and dynamics. Our group is an interdisciplinary research group in which both experimental and theoretical projects are being pursued.
Prof. Samanwita Pal
Our research group is a part of the Department of Chemistry, IIT Jodhpur. We use the Bruker 500 MHz WB NMR instrument available as a central facility at the Institute. We are interested mainly in Solution and Solid State NMR as well as NQR. At present our main focus is to decipher intermolecular interactions in solution as a basis of molecular recognition important for biological processes. This gives us a chance to look at the interfaces of Chemistry and Biology. We are also aiming to understand potential molecular dynamics present in the solid state by employing both solid state NMR as well as NQR. A combination of complementary biophysical techniques viz., Fluorescence Spectroscopy, FTIR, UV-VIS, Circular Dichroism, SEM are also implemented in our research to strengthen our NMR understanding of a particular system under investigation.
Prof. Vivek Tiwari
Dr. Tiwari is an expert in Nuclear Magnetic Resonance / Magnetic Resonance Imaging focused towards development and translation of Magnetic Resonance Imaging and Spectroscopy methods for investigating the structural and functional underpinning of brain disorders. His research is an amalgamation of neuroimaging and artificial intelligence with an aim to develop easy-to-disseminate unsupervised brain MRI/MRS/f-MRI acquisition and analysis methods for clinical management of glioma and other brain disorders
Prof. Ranabir Das
The research interests lay in Biochemistry, Structural Biology, Biophysics, Ubiquitin Signaling, Herpesvirus; Host-Microbe Interactions; Protein Quality Control
Prof. Stephan Grzesiek
Our research is focused on problems in structural biology where NMR can yield unique new information on biomolecular structure, dynamics, and function. In particular, we are interested in molecules associated with human diseases, such as Abl kinase, a protein responsible for the development of chronic myeloid leukemia, the HIV-1 coreceptor CCR5, the β1-adrenergic receptor, or lipopolysaccharide, the molecule responsible for endotoxic shock.
Further development of NMR methods A second focus is the development of new NMR methods that yield a better description of protein structure, dynamics and physicochemical interactions. In particular, we are developing new technologies for a highly quantitative description of unfolded protein states and of hydrogen bonds.
Prof. G. A. Nagana Gowda
My research interests are in the area of metabolomics, both methods development and applications focusing investigations of human health and diseases. Our methods development, utilizing nuclear magnetic resonance (NMR) spectroscopy and mass spectrometry (MS) techniques, is focused on the analysis of metabolites in complex biological mixtures from humans, animal models and cell lines. We also combine NMR and MS techniques to exploit their combined strength to unravel the biological complexity and identify and quantify unknown metabolites. We are particularly interested in enhancing the NMR’s detection sensitivity and resolution with a view to expand the pool of quantifiable metabolites for metabolomics applications. As a part of this aim, we develop and utilize smart isotope tags that possess dual characteristics – stable isotope for NMR’s sensitivity and permanent charge for MS’s sensitivity- and enable exploiting the combined strength of two bioanalytical platforms.
Prof. Ashutosh Kumar
Our research interests are in Structural Biology, Biophysics, Solid and Liquid-state NMR Spectroscopy, Protein-Protein, Protein-lipid and Protein-drug interactions. The lab has been instrumental in representing the juxtaposition posed by the structure and dynamics of a biomolecule that essentially holds the answers for underlying accessories that drives life as we know or providing a platform for myriad options ranging from visualization to therapeutics.
Prof. Uma Sharma
Evaluation and applications of MRI and MRS techniques in diagnosis and treatment management in oncology. MRI study of animal experimental model systems. NMR metabonomic studies in diagnosis of human diseases. Specialties: In Vivo Magnetc Resonance Spectroscopy (MRS) and In vitro MRS and MRI
Prof. Sujoy Mukherjee
We are using solution-state NMR spectroscopy to study the partially destabilized so-called invisible-states of these amyloidogenic proteins by which fibril formation is believed to be initiated and obtain atomic resolution information on residues that initiate protein aggregation. On the other hand, the structure of the amyloid fibrils are also being investigated using “magic-angle” spinning solid-state NMR and another key interest area of our group is to understand the mechanism of signal transduction by G-protein coupled receoptors (GPCR). Because these are membrane proteins and very dynamic in nature, investigations into their structure and dynamics have eluded the scientific community by standard biophysical techniques. Solid state NMR using Cross-polarization with magic-angle spinning (CP-MAS) is a novel biophysical technique that can be used to investigate the structure, and more importantly, the dynamics of these membrane proteins.
Prof. Bikash Baishya
NMR based discrimination and quantification of chiral molecules utilizing chiral media, Structure determination of complex organic molecules, Relaxation rate measurements, Improved NMR methods for detections and quantification of metabolites, Fast NMR methods
Prof. Sathyamoorthy Bharathwaj
Our lab is involved in applying conventional and advanced NMR methodology to characterize structure and dynamics of various biomolecules. Thermodynamic and kinetic characterization would be performed using basic physical chemistry principles for vital biological problems. The results would be interpreted to describe the function of the molecule and shall be applied to study various systems, such as DNA misincorporation/ mismatches and damage, kinetics of RNA refolding, etc. In addition to existing methods, new NMR methods shall be developed, implemented and applied to further our biophysical understanding of proteins and nucleic acids. Long-term goals would be extending the methodology to study protein-nucleic acid complexes.
Prof. Arindam Ghosh
Methodological development of multi dimensional NMR; Analytical and numerical studies towards finding alternative data processing protocols other than Fourier Transformation; Noise analysis and profiling; Digital Signal Processing in NMR; Quantum Information Processing using NMR; Ab-initio calculation of NMR parameters
Prof. Anirban Bhunia
My lab is engaged in the systematic design of several peptides (which are considered as “nano-indicators”) and determine its three-dimensional structure using NMR spectroscopy in combination with molecular dynamics (MD) simulation to correlate its structure with respective function such as antimicrobial activity, or antifreeze peptide or inhibitors of fibrillation
Prof. Nilamoni Nath
The primary means for our research is nuclear magnetic resonance (NMR) spectroscopy, a technique that delivers many vital observables that are a beautiful blend of biology, chemistry, and physics. Current research interests in the lab include, but are not limited to: Development of NMR Methodologies for the Analysis of Synthetic and Natural Organic Molecules in Anisotropic Media using Residual Dipolar Couplings (RDCs), Residual Chemical Shift Anisotropy (RCSA) and Residual Quadrupolar Couplings in conjunction with Density Functional Theory; Development of New Chiral Polymer Gels and Liquid Crystals as Alignment Media for Small Molecules in Organic Solvents; Isolation and Structure Elucidation of Bioactive Natural Products from Medicinal Plants from the North Eastern part of India; NMR Metabolomics; Molecular Modeling and Computational Chemistry
https://www.gauhati.ac.in/member/nilamoni-nath?aid=Mw==&did=Mjc=
Prof. Sulakshana Mukherjee
Structural and Molecular Biology: Protein-protein, Protein-DNA interaction,using NMR, various biophysical and biochemical method
Prof. Mandar V Deshmukh
The lab of Dr. Deshmukh explores the structural and molecular basis of evolutionary divergence in the noncoding RNA mediated gene silencing pathway across organisms. He utilizes state-of-the-art biomolecular NMR techniques coupled with molecular biology, biochemistry, and biophysics to elaborate on the structure and function of several important high molecular weight proteins and nucleic acids. His lab employs an innovative biomolecular NMR approach to study inter-domain orientations and dynamics in multi-domain proteins such as RDE-4, DRB4, and DRB2. The studies performed by his group deciphered the initiation of the non-coding RNA mediated gene regulation pathway in various species.
https://www.ccmb.res.in/People/Research-Group/Mandar-V-Deshmukh
Dr. Ashish Arora
Our lab specializes in the determination of atomic resolution structures of proteins in solution using state-of-the-art multidimensional experiments of NMR spectroscopy. In addition to structure, we study the dynamics of protein molecules using NMR spectroscopy. We are also carrying out NMR based screening of small molecule binders against protein targets.
Prof. Dinesh Gupta
We are involved in Studying Mechanistic Structural Biology of Proteins of therapeutic relevance using Solution NMR based methods in combination with other chemical biology and computational biology tools. In parallel, our group is also involved in disease metabotyping studies i.e. to identify disease specific metabolic signatures and to further explore their utility in clinical diagnosis and surveillance. For this, we mainly perform NMR based metabolomics analysis on human serum and urine samples.
Prof. Vinesh Vijayan
Our Research interests include; Structural studies of small molecules and Bio-molecules and Method development for structure determination of membrane proteins and protein aggregates combining both solid and solution NMR techniques
Dr. Srinivas Oruganti
Process Research & Development • Complex APIs & Intermediates • Functional Organic Materials, New Chemical Entities • Drug Discovery • Drug targeting • Bio-conjugation • Labeled secondary metabolites, Glycochemistry: Synthesis of cluster glycosides, glycodendrimers, glycopeptides, di-/trisaccharide synthesis • Bio-conjugation strategies: Neoglycoprotein synthesis • Biophysical evaluation of carbohydrate-protein interactions: ITC and SPR
Dr. Sachin Rama Chaudhari
Application of NMR spectroscopy in Food Science (selective spice, fatty acids etc.; -Solution and solid-state NMR methods development;- Metabolism by NMR; -Exploring Diverse facets in Modern Chemistry by NMR
Prof. Toshimichi Fujiwara
Structure of membrane protein pHtrâ…ˇ for transmitting light signal 2. Structure of halorhodopsin relevant for light-driven ion pumping 3. Protein-protein interactions for clock and signal transduction 4. Signal transduction through biomembranes by G-protein activating peptides 5. Functional slow protein motions revealed by NMR relaxation 6.Structure analysis by NMR bioinformatics 7. Application of NMR with enhanced sensitivity by terahertz waves
https://www.bio.sci.osaka-u.ac.jp/en/dbs01/re-paper-temp.php?id=32
Prof. Catherine Eichhorn
Our research program uses integrated structural biology, biophysical, and chemical biology tools to investigate the folding and function of regulatory RNAs and RNPs. We aim to elucidate the biophysical properties governing RNP assembly and stability in order to achieve a rigorous understanding of how RNPs regulate gene expression in healthy individuals, and how dysfunction leads to divergent disease phenotypes. The principles deduced from these studies will provide valuable information on RNA conformational dynamics, RNA-protein recognition, and mechanisms of hierarchical protein assembly onto structured RNAs, enabling future studies to probe the mechanism further in vivo and informing the design of therapeutics to target diseases caused by improperly functioning regulatory RNPs. We take a highly interdisciplinary approach using solution NMR spectroscopy, X-ray crystallography, and electron microscopy, as well as biochemical and biophysical methods to investigate RNA structure and dynamics, RNA-protein interactions, and RNP function
https://www.eichhornlab.com/
Prof. Murali Krishna Cherukuri
Our research interests concentrate on molecular imaging tools to study tumor the tumor microenvironment. Efforts of our group are to develop and implement molecular imaging techniques which can characterize the tumor microenvironment on a physiologic and metabolic basis. Experience from pre-clinical studies will be translated to the clinic. We have developed low field magnetic resonance (Electron Paramagnetic Resonance) imaging technology which is the only imaging technique which can provide tissue oxygen maps quantitatively and probe changes in tumor oxygenation dynamically as well as longitudinally in response to treatment. It is currently implemented for small animal imaging research. Efforts are underway for imaging scale up for human studies.
Our group is also among a handful of research groups involved in a unique imaging research called hyperpolarized MRI using 13C labeled endogenous molecules such as pyruvate which enable imaging enzyme activities associated such as LDHA which is elevated in tumors as well as enzymes in the citric acid cycle. This is used in our lab for pre-clinical studies as well as clinical studies within CCR.
https://ccr.cancer.gov/staff-directory/murali-krishna-cherukuri
Prof. Amit Shard
Amit Shard received his M.Sc. degree in Pharmaceutical Chemistry from SBS (PGI) Dehradun and Ph.D. degree from CSIR-Institute of Himalayan Bioresource Technology, Palampur working under the direction of Prof. Arun K. Sinha. After completing his doctoral work, he joined as faculty at the National Institute of Pharmaceutical Education and Research-Ahmedabad in 2014. His research interests include the development of novel antitumor PKM2 modulators and computer-aided drug design.
Prof. Veera Mohana Rao Kakita
Research interests in NMR spectroscopy. High-resolution NMR methods and applications, Hadamard NMR spectroscopy, pure shift NMR, NMR super sequences, metabolomics, and Machine Learning/ Artificial Intelligence techniques. He and Prof. R. V. Hosur co-authored the book "A graduate course in NMR spectroscopy."
https://scholar.google.com/citations?user=lYCCHKMAAAAJ&hl=en
Prof. G Senthil Kumar
Protein-protein interactions, NMR Spectroscopy, X-ray Crystallography, Antigen-antibody interactions, Epitope/paratope mapping, Structure-function relationship studies, Structural dynamics
http://www.nii.res.in/research/g-senthil-kumar#
Prof. T G Ajithkumar
Solid-state NMR, focusing on developing Solid-state Nuclear Magnetic Resonance experiments and applying it to understand the structure and property of a variety of materials
Prof. Gianluigi Veglia
The overall goal of my group is to study the structure and dynamics of membrane proteins and kinases. We use a multidisciplinary approach, which includes molecular biology, multidimensional solution and solid-state NMR spectroscopy, calorimetry and molecular modeling.
Prof. Nitin Lobo
The focus of research has been to obtain the structure and dynamics of a different class of materials ranging from molecular, macromolecular, and supramolecular systems using solid-state NMR based methodologies. Utility of Magnetic Resonance Imaging (MRI) and Spectroscopy (MRS) techniques as a non-destructive and non-invasive tool to gain molecular insights into the leather making process
https://www.clri.org/EmployeProfile/358_Dr.Nitin_Prakash_Lobo_.html
Prof. Phani Kumar
Molecular/Atomistic level insights on protein-ligand interactions using ligand and protein based NMR approaches such as saturation transfer Difference (STD) NMR, spin-relaxation and 1H-15N HSQC. Geometrical aspects (size and shape) of block copolymer-surfactant/drug complexes using NMR relaxometry, translational self-diffusion and Small-angle neutron scattering (SANS). Molecular dynamics of Soft materials such as thermotropic and lyotropic liquid Crystals using nuclear magnetic relaxation dispersion (NMRD) technique (Fast field cycling NMR). Structural and dynamical characterization of energy materials such as Li ion battery by employing NMR spin-relaxation, NOE and translational self-diffusion approaches
https://www.clri.org/EmployeProfile/63_Dr.B.V.N_Phani__Kumar_.html
Prof. Ashok Sekhar
Ashok is an Assistant Professor at the Molecular Biophysics Unit of the Indian Institute of Science Bangalore. He completed his PhD in Biophysics at the University of Wisconsin Madison, USA, under the supervision of Prof. Silvia Cavagnero. Following his PhD, Ashok worked with Prof. Lewis Kay at the University of Toronto as a postdoctoral fellow for 6 years. He joined IISc in November 2017 and has been working there as a DBT/Wellcome Trust Intermediate Fellow. Ashok enjoys using principles from physics and chemistry in addressing problems of biological interest. His research group focuses on developing and applying NMR spectroscopic methods for studying the dynamics of protein conformational transitions relevant in function and malfunction.
Prof.Neel Sarovar Bhavesh
Prof. Bhavesh group uses an interdisciplinary approach encompassing a wide array of biophysical, biochemical and molecular biology techniques for understanding the structure and function of macromolecules with special thrust on molecular mechanism of Protein-RNA interactions. Liquid-state NMR spectroscopy and X-ray crystallography are synergistically used in his group for determination of atomic resolution structures of protein-RNA complexes that provide a wealth of information pertaining to the binding interfaces, recognition mechanisms, and the forces that stabilize these complexes. Current research focuses on RNA binding proteins that involved in post-transcription regulation of mRNA to decipher a possible general code of RNA recognition. He also uses NMR spectroscopy for metabolic profiling of bio-fluids to understand dysregulation during disease condition and help in identification of biomarkers.
Prof. Anil Kumar
Prof. Anil Kumar is NASI Senior Scientist Platinum Jubilee Fellow, NMR Research Centre, IISc Bangalore. Quantum Computing by NMR in which the group has used transition and spin-selective pulses in one and two dimensional NMR to (i) prepare pseudo-pure states, (ii) execute logical gates and (iii) implement Deutsch-Jozse quantum algorithm. Efforts are going on to increase the number of qubits by use of quadrupolar and dipolar coupled spins oriented in liquid crystal matrices.
Prof. Paul Schanda
Paul Schanda is a professor at IST Austra working on Biomolecular Mechanisms from Integrated NMR Spectroscopy. The group, spans activities from nuclear spin dynamics and biophysics to challenging biological problems.
Prof. Akira Naito
In our laboratory, structure-function relationship of biologically active molecules is investigating using a various biophysical methods such as nuclear magnetic resonance spectroscopy. We focus on revealing the structure-function relationship of membrane proteins in view of bio nano-machine; Determination of membrane bound state of antimicrovial peptides in view of bio defense system; Investigation of a fibrillation mechanism of amyloid forming peptides in view of medical engineering.l Developments of a novel method of solid-state NMR spectroscopy.
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