Robert Bittl spends much of his time researching Electron paramagnetic resonance, Photochemistry, Crystallography, Photosystem I and Electron transfer. His Electron paramagnetic resonance research includes elements of Photosynthetic reaction centre, Hyperfine structure, P700, Electronic structure and Photosystem II. His Photochemistry research integrates issues from Tryptophan, Rhodobacter sphaeroides, Radical and DNA photolyase.
His work in Crystallography tackles topics such as Pulsed EPR which are related to areas like Unpaired electron, Ground state and Center. His Photosystem I research is multidisciplinary, incorporating elements of Polarization, Quantum, Stereochemistry and Photosystem. The concepts of his Electron transfer study are interwoven with issues in Electron nuclear double resonance, Fluorescence and Cofactor.
His primary areas of investigation include Electron paramagnetic resonance, Photochemistry, Crystallography, Spectroscopy and Photosystem I. His Electron paramagnetic resonance research incorporates themes from Spectral line, Pulsed EPR, Hyperfine structure and Analytical chemistry. His Photochemistry research includes themes of Radical, Photosystem II, Fluorescence and Flavin group.
His study looks at the intersection of Crystallography and topics like Electron nuclear double resonance with Proton. As a part of the same scientific family, Robert Bittl mostly works in the field of Spectroscopy, focusing on Paramagnetism and, on occasion, Resonance. His studies deal with areas such as Photosynthetic reaction centre, Acceptor, Photosystem and Quinone as well as Photosystem I.
His primary scientific interests are in Electron paramagnetic resonance, Analytical chemistry, Photochemistry, Spectroscopy and Biophysics. The study incorporates disciplines such as Crystallography, Molecular physics and Nanoparticle, Nanocarriers in addition to Electron paramagnetic resonance. Robert Bittl has researched Analytical chemistry in several fields, including Zero field splitting, Spin probe, Spectrometer, Spectral line and Synchrotron.
His Photochemistry study combines topics from a wide range of disciplines, such as Acceptor, Hydride, Nickel, Active site and Ralstonia. His biological study spans a wide range of topics, including Semiquinone, Histidine kinase, Biochemistry, Arabidopsis and Flavin group. As part of the same scientific family, he usually focuses on Flavin group, concentrating on Cryptochrome and intersecting with Photolyase, DNA photolyase and Pulsed EPR.
His primary areas of study are Electron paramagnetic resonance, Crystallography, Analytical chemistry, Polymer and Biophysics. While working in this field, Robert Bittl studies both Electron paramagnetic resonance and ATP hydrolysis. His work carried out in the field of Crystallography brings together such families of science as Hydrogenase, NiFe hydrogenase, Stereochemistry and Cluster.
Robert Bittl interconnects Spectral line, Zero field splitting and Synchrotron in the investigation of issues within Analytical chemistry. The Polymer study combines topics in areas such as Polaron, Acceptor and Photochemistry. His research in Biophysics intersects with topics in Arabidopsis thaliana, Semiquinone, Arabidopsis, Biochemistry and Cryptochrome.
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Cryptochrome blue light photoreceptors are activated through interconversion of flavin redox states
Jean-Pierre Bouly;Erik Schleicher;Maribel Dionisio-Sese;Filip Vandenbussche;Filip Vandenbussche.
Journal of Biological Chemistry (2007)
The Signaling State of Arabidopsis Cryptochrome 2 Contains Flavin Semiquinone
Roopa Banerjee;Erik Schleicher;Stefan Meier;Rafael Muñoz Viana.
Journal of Biological Chemistry (2007)
Radicals, radical pairs and triplet states in photosynthesis.
Wolfgang Lubitz;Friedhelm Lendzian;Robert Bittl.
Accounts of Chemical Research (2002)
Human and Drosophila Cryptochromes Are Light Activated by Flavin Photoreduction in Living Cells
Nathalie Hoang;Erik Schleicher;Sylwia Kacprzak;Jean-Pierre Bouly.
PLOS Biology (2008)
On the reaction mechanism of adduct formation in LOV domains of the plant blue-light receptor phototropin.
Erik Schleicher;Radoslaw M. Kowalczyk;Christopher W. M. Kay;Peter Hegemann.
Journal of the American Chemical Society (2004)
How carotenoids protect bacterial photosynthesis
Richard J. Cogdell;Tina D. Howard;Robert Bittl;Erberhard Schlodder.
Philosophical Transactions of the Royal Society B (2000)
Strongly exchange-coupled triplet pairs in an organic semiconductor
Leah R. Weiss;Sam L. Bayliss;Felix Kraffert;Karl J. Thorley.
Nature Physics (2017)
Recruitment of a Foreign Quinone into the A1 Site of Photosystem I: II. STRUCTURAL AND FUNCTIONAL CHARACTERIZATION OF PHYLLOQUINONE BIOSYNTHETIC PATHWAY MUTANTS BY ELECTRON PARAMAGNETIC RESONANCE AND ELECTRON-NUCLEAR DOUBLE RESONANCE SPECTROSCOPY *
Boris Zybailov;Art van der Est;Stephan G. Zech;Christian Teutloff.
Journal of Biological Chemistry (2000)
Magnetic-field effect on the photoactivation reaction of Escherichia coli DNA photolyase
Kevin B. Henbest;Kiminori Maeda;P. J. Hore;Monika Joshi.
Proceedings of the National Academy of Sciences of the United States of America (2008)
Correlated Donor/Acceptor Crystal Orientation Controls Photocurrent Generation in All-Polymer Solar Cells
Marcel Schubert;Brian A. Collins;Brian A. Collins;Hannah Mangold;Ian A. Howard.
Advanced Functional Materials (2014)
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