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Books on the topic 'Electron energy transfer rates'

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Published: 4 June 2021

Last updated: 11 February 2022

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1

Govindjee, J. Barber, W. A. Cramer, J. H. C. Goedheer, J. Lavorel, R. Marcelle, and Barbara A. Zilinskas, eds. Excitation Energy and Electron Transfer in Photosynthesis. Dordrecht: Springer Netherlands, 1987. http://dx.doi.org/10.1007/978-94-009-3527-3.

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2

Yamada Conference on Dynamics and Mechanisms of Photoinduced Electron Transfer and Related Phenomena (1991 Senri Nyū Taun, Japan). Dynamics and mechanisms of photoinduced electron transfer and related phenomena: Proceedings of the Yamada Conference XXIX on Dynamics and Mechanisms of Photoinduced Electron Transfer and Related Phenomena, Senri, Osaka, Japan, May 12-16, 1991. Amsterdam: North-Holland, 1992.

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3

Andreo, P. Tables of charge and energy deposition distributions in elemental materials irradiated by plane-parallel electron beams with energies between 0.1 and 100 MeV. Osaka, Japan: Research Institute for Advanced Science and Technology, University of Osaka Prefecture (1-2 Gakuen-cho, Sakai, Osaka 593, Japan), 1992.

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4

Kinsella, Michael Francis John. Charge transfer in the coadsorption of potassium and simple molecules on graphite studied by electron energy loss spectroscopy. Birmingham: University of Birmingham, 1997.

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5

Liu, Guo-jun. Energy and electron transfer in macromolecules. 1989.

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6

1933-, Govindjee, Govindjee 1933-, and Butler Warren L. 1925-1984, eds. Excitation energy and electron transfer in photosynthesis. Dordrecht: M. Nijhoff, 1987.

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7

Kapinus, E. I. Energy, Charge and Electron Transfer Processes in Chemistry. PH "Akademperiodyka", 2016. http://dx.doi.org/10.15407/akademperiodyka.322.135.

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8

Molecular bioenergetics: Simulations of electron, proton, and energy transfer. Washington, DC: American Chemical Society, 2004.

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9

Chattoraj, Mita. Intramolecular electron and energy transfer in a molecular beam. 1992.

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10

C, Papageorgiou George, Barber J. 1940-, Papa S, Unesco. European Expert Committee on Biomaterials and Biotechnology. Working Group IV., and Kentron Pyrēnikōn Ereunōn Dēmokritos, eds. Ion interactions in energy transfer biomembranes. New York: Plenum Press, 1986.

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11

Schatz, George C., Oleg Prezhdo, Petter Persson, Jan Van De Lagemaat, and Mischa Bonn. Solar Energy Conversion: Dynamics of Interfacial Electron and Excitation Transfer. Royal Society of Chemistry, The, 2013.

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12

Chan, Chi-Kin. Time-resolved studies of electron and energy transfer in photosynthesis. 1991.

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13

W, Canters G., Vijgenboom E, and NATO Advanced Research Workshop on Biological Electron Transfer Chains: Genetics, Composition, and Mode of Operation (1997 : Tomar, Portugal), eds. Biological electron transfer chains: Genetics, composition, and mode of operation. Dordrecht: Kluwer Academic Publishers, 1998.

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14

Baudin, Helena Berglund. Electron and Energy Transfer in Supramolecular Complexes Designed for Artificial Photosynthesis. Uppsala Universitet, 2001.

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15

Barrett, T. W. Energy Transfer Dynamics: Studies and Essays in Honor of Herbert Frohlich. Springer-Verlag, 1987.

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16

Excitation Energy and Electron Transfer in Photosynthesis: Dedicated to Warren L. Butler. Springer, 2011.

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17

Molecular Bioenergetics: Simulations of Electron, Proton, and Energy Transfer (Acs Symposium Series). An American Chemical Society Publication, 2004.

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18

(Editor), Govindjee, J. Barber (Editor), W. A. Cramer (Editor), J.H.C. Goedheer (Editor), J. Lavorel (Editor), R. Marcelle (Editor), and B. Zilinskas (Editor), eds. Excitation Energy and Electron Transfer in Photosynthesis: Dedicated to Warren L. Butler. Springer, 1987.

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19

(Editor), G. W. Canters, and E. Vijgenboom (Editor), eds. Biological Electron Transfer Chains: Genetics, Composition and Mode of Operation (NATO Science Series C:). Springer, 1998.

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20

Devens, Gust, and Moore Thomas A, eds. Covalently linked donor-acceptor species for mimicry of photosynthetic electron and energy transfer. Oxford: Pergamon, 1989.

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21

Charge migration in DNA: Perspectives from physics, chemistry, and biology. Berlin: Springer, 2007.

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22

Charge migration in DNA: Perspectives from physics, chemistry, and biology. Berlin: Springer, 2007.

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23

Charge Migration in DNA: Perspectives from Physics, Chemistry, and Biology (NanoScience and Technology) (NanoScience and Technology). Springer, 2007.

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24

1950-, Chakraborty T., ed. Charge migration in DNA: Perspectives from physics, chemistry, and biology. Berlin: Springer, 2007.

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25

Matage, Noboru, and Tadashi Okada. Dynamics and Mechanisms of Photoinduced Electron Transfer and Related Phenomena: Proceedings (North-Holland Delta Series). North-Holland, 1992.

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26

1905-, Fröhlich H., Barrett T. W. 1939-, and Pohl Herbert A. 1916-, eds. Energy transfer dynamics: Studies and essays in honor of Herbert Fröhlich on his eightieth birthday. Berlin: Springer-Verlag, 1987.

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27

Charge transfer between ground-state Si³⁺ and He at electron-volt energies. [Washington, DC: National Aeronautics and Space Administration, 1997.

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28

Murphy, Elaine, Yann Nadjar, and Christine Vianey-Saban. Fatty Acid Oxidation, Electron Transfer and Riboflavin Metabolism Defects. Oxford University Press, 2016. http://dx.doi.org/10.1093/med/9780199972135.003.0008.

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The fatty acid oxidation disorders are a group of autosomally recessively inherited disorders of energy metabolism that may present with life-threatening hypoketotic hypoglycemia, encephalopathy and hepatic dysfunction, muscle symptoms, and/or cardiomyopathy. Milder phenotypes may present in adulthood, causing exercise intolerance, episodic rhabdomyolysis, and neuropathy. Specific investigations include acylcarnitine profiling, urine organic acid analysis, fibroblast or leucocyte studies of fatty acid oxidation flux/enzyme activity, and genetic testing. Management varies depending on the condition but includes avoidance of precipitants such as fasting, fever, and intense exercise, a high-carbohydrate, low-fat diet, and supplementation with carnitine or riboflavin. Inborn errors of riboflavin transport mainly present with Brown-Vialetto-Van Laere syndrome. Some patients respond dramatically to riboflavin supplementation; therefore it has to be tried in all suspected patients.

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29

Barker, Jeffries Jay, Crosley David R. 1941-, and United States. National Aeronautics and Space Administration., eds. Transition probabilities in OH A²[sigma]⁺ - X²[pi]₁: bands with vʹ = 0 and 1, vʺ = 0 to 4. Menlo Park, Calif: Molecular Physics Dept., SRI International, 1986.

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30

Track structure model for radial distributions of electron spectra and event spectra from high-energy ions. Hampton, Va: National Aeronautics and Space Administration, Langley Research Center, 1998.

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31

Compton scattering by static and moving media. [Washington, DC: National Aeronautics and Space Administration, 1997.

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32

Launay, Jean-Pierre, and Michel Verdaguer. The excited electron: photophysical properties. Oxford University Press, 2018. http://dx.doi.org/10.1093/oso/9780198814597.003.0004.

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After a review of fundamental notions such as absorption, emission and the properties of excited states, the chapter introduces excited-state electron transfer. Several examples are given, using molecules to realize photodiodes, light emitting diodes, photovoltaic cells, and even harnessing photochemical energy for water photolysis. The specificities of ultrafast electron transfer are outlined. Energy transfer is then defined, starting from its theoretical description, and showing its involvement in photonic wires or molecular assemblies realizing an antenna effect for light harvesting. Photomagnetic effects; that is, the modification of magnetic properties after a photonic excitation, are then studied. The examples are taken from systems presenting a spin cross-over, with the LIESST effect, and from systems presenting metal–metal charge transfer, in particular in Prussian Blue analogues and their molecular version.

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33

Glazov, M. M. Electron Spin Relaxation Beyond the Hyperfine Interaction. Oxford University Press, 2018. http://dx.doi.org/10.1093/oso/9780198807308.003.0008.

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Here, some prospects for future studies in the field of electron and nuclear spin dynamics are outlined. In contrast to previous chapters where the electron interaction with multitude of nuclei was discussed, in Chapter 8 particular emphasis is put on a situation where hyperfine interaction is so strong that it leads to a qualitative rear rangement of the energy spectrum resulting in coherent excitation transfer between electron and nucleus. The strong coupling between the spin of the charge carrier and of the nucleus is realized; e.g., in the case of deep impurity centers in semiconductors or in isotopically purified systems. We also discuss the effect of the nuclear spin polaron; that is, the ordered state, where the carrier spin orientation results in alignment of spins of the nucleus interacting with the electron or hole. Such problems have been briefly discussed in the literature but, in our opinion, call for in-depth investigation.

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34

Glazov, M. M. Strong Coupling of Electron and Nuclear Spins: Outlook and Prospects. Oxford University Press, 2018. http://dx.doi.org/10.1093/oso/9780198807308.003.0011.

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In this chapter, some prospects in the field of electron and nuclear spin dynamics are outlined. Particular emphasis is put ona situation where the hyperfine interaction is so strong that it leads to a qualitative rearrangement of the energy spectrum resulting in the coherent excitation transfer between the electron and nucleus. The strong coupling between the spin of the charge carrier and of the nucleus is realized, for example in the case of deep impurity centers in semiconductors or in isotopically purified systems. We also discuss the effect of the nuclear spin polaron, that is ordered state, formation at low enough temperatures of nuclear spins, where the orientation of the carrier spin results in alignment of the spins of nucleus interacting with the electron or hole.

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35

Federal research: Advanced Technology Program's indirect cost rates and program evaluation status : report to the ranking minority member, Committee on Science, Space, and Technology, House of Representatives. Washington, D.C: The Office, 1993.

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36

Ieda, J., and S. Maekawa. Spinmotive force. Oxford University Press, 2017. http://dx.doi.org/10.1093/oso/9780198787075.003.0007.

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This chapter begins with Faraday’s law, which states that electromotive forces power everything by virtue of the charge e of an electron, and introduces spinmotive forces which reflect the magnetic moment of an electron. This motive force reflects the energy conservation requirements of the spin-torque transfer process that is at the heart of spintronics. The Stern-Gerlach experiment that used spin-dependent forces established the existence of spin. It is shown here that conservative forces would exist even if an electron was not charged, and do exist for uncharged excitations, such as magnons or phonons. Such forces are especially important in ferromagnetic materials where the spinmotive force commonly drives an electronic charge current due to the higher mobility of the majority electrons.

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37

Launay, Jean-Pierre, and Michel Verdaguer. Electrons in Molecules. Oxford University Press, 2018. http://dx.doi.org/10.1093/oso/9780198814597.001.0001.

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The book treats in a unified way electronic properties of molecules (magnetic, electrical, photophysical), culminating with the mastering of electrons, i.e. molecular electronics and spintronics and molecular machines. Chapter 1 recalls basic concepts. Chapter 2 describes the magnetic properties due to localized electrons. This includes phenomena such as spin cross-over, exchange interaction from dihydrogen to extended molecular magnetic systems, and magnetic anisotropy with single-molecule magnets. Chapter 3 is devoted to the electrical properties due to moving electrons. One considers first electron transfer in discrete molecular systems, in particular in mixed valence compounds. Then, extended molecular solids, in particular molecular conductors, are described by band theory. Special attention is paid to structural distortions (Peierls instability) and interelectronic repulsions in narrow-band systems. Chapter 4 treats photophysical properties, mainly electron transfer in the excited state and its applications to photodiodes, organic light emitting diodes, photovoltaic cells and water photolysis. Energy transfer is also treated. Photomagnetism (how a photonic excitation modifies magnetic properties) is introduced. Finally, Chapter 5 combines the previous knowledge for three advanced subjects: first molecular electronics in its hybrid form (molecules connected to electrodes acting as wires, diodes, memory elements, field-effect transistors) or in the quantum computation approach. Then, molecular spintronics, using, besides the charge, the spin of the electron. Finally the theme of molecular machines is presented, with the problem of the directionality control of their motion.

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38

Eland, John H. D., and Raimund Feifel. Diatomic molecules. Oxford University Press, 2018. http://dx.doi.org/10.1093/oso/9780198788980.003.0003.

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Double ionisation of most of the experimentally accessible diatomic molecules has been studied previously by several techniques, including Auger spectroscopy, double electron transfer, kinetic energy release, and high-level theory. New double photoionisation spectra of HBr, HI, N2, CO, NO, O2, Br2, ICl, and I2 are presented here with analysis to identify the electronic states of the doubly charged ions. A simple empirical model is introduced to estimate double ionisation energies on the basis of orbital energies. For CO, NO, and O2, an indirect double ionisation mechanism is found, involving dissociation of a singly charged molecular ion followed by atomic autoionisation of one fragment. Energies of the dication states are listed with distinction between adiabatic and vertical values.

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39

Billing, Gert D., ed. The Quantum Classical Theory. Oxford University Press, 2003. http://dx.doi.org/10.1093/oso/9780195146196.001.0001.

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Over a period of fifty years, the quantum-classical or semi-classical theories have been among the most popular for calculations of rates and cross sections for many dynamical processes: energy transfer, chemical reactions, photodissociation, surface dynamics, reactions in clusters and solutions, etc. These processes are important in the simulation of kinetics of processes in plasma chemistry, chemical reactors, chemical or gas lasers, atmospheric and interstellar chemistry, as well as various industrial processes. This book gives an overview of quantum-classical methods that are currently used for a theoretical description of these molecular processes. It gives the theoretical background for the derivation of the theories from first principles. Enough details are provided to allow numerical implementation of the methods. The book gives the necessary background for understanding the approximations behind the methods and the working schemes for treating energy transfer processes from diatomic to polyatomic molecules, reactions at surfaces, non-adiabatic processes, and chemical reactions.

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40

Nitzan, Abraham. Chemical Dynamics in Condensed Phases. Oxford University Press, 2006. http://dx.doi.org/10.1093/oso/9780198529798.001.0001.

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This text provides a uniform and consistent approach to diversified problems encountered in the study of dynamical processes in condensed phase molecular systems. Given the broad interdisciplinary aspect of this subject, the book focuses on three themes: coverage of needed background material, in-depth introduction of methodologies, and analysis of several key applications. The uniform approach and common language used in all discussions help to develop general understanding and insight on condensed phases chemical dynamics. The applications discussed are among the most fundamental processes that underlie physical, chemical and biological phenomena in complex systems. The first part of the book starts with a general review of basic mathematical and physical methods (Chapter 1) and a few introductory chapters on quantum dynamics (Chapter 2), interaction of radiation and matter (Chapter 3) and basic properties of solids (chapter 4) and liquids (Chapter 5). In the second part the text embarks on a broad coverage of the main methodological approaches. The central role of classical and quantum time correlation functions is emphasized in Chapter 6. The presentation of dynamical phenomena in complex systems as stochastic processes is discussed in Chapters 7 and 8. The basic theory of quantum relaxation phenomena is developed in Chapter 9, and carried on in Chapter 10 which introduces the density operator, its quantum evolution in Liouville space, and the concept of reduced equation of motions. The methodological part concludes with a discussion of linear response theory in Chapter 11, and of the spin-boson model in chapter 12. The third part of the book applies the methodologies introduced earlier to several fundamental processes that underlie much of the dynamical behaviour of condensed phase molecular systems. Vibrational relaxation and vibrational energy transfer (Chapter 13), Barrier crossing and diffusion controlled reactions (Chapter 14), solvation dynamics (Chapter 15), electron transfer in bulk solvents (Chapter 16) and at electrodes/electrolyte and metal/molecule/metal junctions (Chapter 17), and several processes pertaining to molecular spectroscopy in condensed phases (Chapter 18) are the main subjects discussed in this part.

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