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Forster

Forster D 1975 Hydrodynamic Fluctuations, Broken Symmetry, and Correlation Functions (New York Benjamin)... [Pg.758]

In this chapter we shall first outline the basic concepts of the various mechanisms for energy redistribution, followed by a very brief overview of collisional intennoleciilar energy transfer in chemical reaction systems. The main part of this chapter deals with true intramolecular energy transfer in polyatomic molecules, which is a topic of particular current importance. Stress is placed on basic ideas and concepts. It is not the aim of this chapter to review in detail the vast literature on this topic we refer to some of the key reviews and books [U, 12, 13, 14, 15, 16, 17, 18, 19, 20, 21, 22, 23, 24, 25, 26, 27, 28, 29, 30, 31, and 32] and the literature cited therein. These cover a variety of aspects of tire topic and fiirther, more detailed references will be given tliroiighoiit this review. We should mention here the energy transfer processes, which are of fiindamental importance but are beyond the scope of this review, such as electronic energy transfer by mechanisms of the Forster type [33, 34] and related processes. [Pg.1046]

Forster J S and Frommer J E 1988 Imaging of liquid crystals using a tunnelling microscope Nature 333 542... [Pg.1721]

Deniz A A, Dahan M, Grunwell J R, Ha T, Faulhaber A E, Chemla D S, Weiss S and Schultz P G 1999 Single-pair fluorescence resonance energy transfer on freely diffusing molecules observation of Forster distance dependence and subpopulations Proc. Natl Acad. Sc/. USA 96 3670-5... [Pg.2511]

More recently Andrews and Juzeliunas [6, 7] developed a unified tlieory that embraces botli radiationless (Forster) and long-range radiative energy transfer. In otlier words tliis tlieory is valid over tire whole span of distances ranging from tliose which characterize molecular stmcture (nanometres) up to cosmic distances. It also addresses tire intennediate range where neitlier tire radiative nor tire Forster mechanism is fully valid. Below is tlieir expression for tire rate of pairwise energy transfer w from donor to acceptor, applicable to transfer in systems where tire donor and acceptor are embedded in a transparent medium of refractive index ... [Pg.3018]

Forster Th 1965 Delooalized exoitation and exoitation transfer Modern Quantum Chemistry ed O Sinanoglu (New York Aoademio) pp 93-137... [Pg.3030]

Knox R S and Gulen D 1993 Theory of polarized fluorescence from molecular pairs—Forster transfer at large electronic coupling Photochem. Photobiol. 57 40-3... [Pg.3031]

Sandstrom et al. (65) evaluated the Kj value for 4,5-dimethyl-A-4-thiazoline-2-thione (46) in water (Scheme 19) K-j= 10. A-4-Thiazoline-2-thiones are less basic in the first excited state (61) than in the ground state, so application of Forster s cycle suggests that the thione form is even more favored in the first excited state. Huckel molecular orbital (HMO) calculations suggest that electronic effects due to substitution in... [Pg.377]

A great number of monoaza or polyaza. either symmetrica] or unsym-metrical, mono trimethine thiazolocyainines have been synthesized in order to verify or to obtain semiempirical rules, more or less based on the resonance theory, concerning the relation between the color of a thiazolo dye and the number and place of nitrogen atoms in the chromophoric chain. For example. Forster s rule applies to ionic dyes and stipulates that the will increase with the decreasing tendency of chromophoric atoms lying between the two auxochromes to take up the characteristic charges (90). [Pg.78]

Source Compiled from Parson, M. L. Major, S. Forster, A. R. Appl. Spectrosc. 1983,37, 411-418 Weltz, B. Atomic Absorption Spectrometry, VCH Deerfield Beach, FL, 1985. [Pg.417]

D. Forster and J. F. Roth, eds.. Homogeneous Catalysis 11 (Advances ia Chemistry Series 132), American Chemical Society, Washiagton, D.C. 1974 ... [Pg.249]

F. Forster, Fluorescent Organischer Verhindungen, Vandenhoeck and Ruprecht, Gottingen, 1951. [Pg.304]

The direction of the long-wavelength maximum shift caused by the heterosubstitution or the introduction of substituents is deterrnined by the Forster-Dewar-Knott rule (40—42). Spatial hindrances within the symmetrical PMDs cause bathochromic effects (39,43), whereas the introduction of an acetylenic bond is accompanied by the maximum shift to the short-wavelength spectral region (44). [Pg.494]

B. R. Beattie and H. S. Forster, Jr., Proceedings of the 1979 Mnnual MWWM Conference, American Water Works Association, New York, 1979. [Pg.228]


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Avogadro’s number Forster electronic excitation energy transfer

Axial trapping, molecular dyes in zeolite channels, Forster electronic excitation

Boiling Forster-Zuber equation

Cylinder morphology, molecular dyes in zeolite Forster electronic excitation energy transfer

Dexter-Forster model

Donor fluorescence rate, Forster electronic

Donor fluorescence rate, Forster electronic dyes in zeolite L channels

Dye molecules, zeolite L channels Forster energy transfer

Electrical excitation Forster energy transfer

Electronic energy transfer Forster

Energy Forster

Energy Forster mechanism

Energy Transfer II. The Forster Mechanism

Energy migration, Forster mechanism

Energy transfer Forster radius

Energy transfer Forster theory

Energy transfer Forster type resonance

Excitons Forster

Excitons Forster radius

Excitons Forster rate

External quantum efficiency Forster energy transfer

FORSTER Diazo synthesis

FORSTER ’ DECKER Amine synthesis

Fluorescence Forster mechanism

Forster Brown

Forster Equation-Theory

Forster acidities

Forster and Dexter mechanisms

Forster and Dexter transfer

Forster calculation

Forster constant

Forster critical transfer distance

Forster cycle

Forster distance

Forster distance Fluorescence resonance energy transfer

Forster efficiency

Forster energy exchange

Forster energy transfer

Forster energy transfer Franck-Condon factor, amplified spontaneous

Forster energy transfer Principles

Forster energy transfer amplified spontaneous emission and lasing

Forster energy transfer dye molecules in zeolite L channels

Forster energy transfer emission and lasing

Forster energy transfer experiments from Trp residues to calcofluor white

Forster energy transfer from quantum dots to organics

Forster energy transfer in a planar geometry

Forster energy transfer laser resonators

Forster energy transfer mechanism

Forster energy transfer mechanism (FRET

Forster energy transfer mediation

Forster energy transfer molecular glasses, absorption and emission

Forster energy transfer quenching

Forster energy transfer rate

Forster equation

Forster excitation transfer

Forster exciton

Forster exciton transfer

Forster interactions

Forster length

Forster limit

Forster mechanism

Forster mechanism chromophore electronic coupling

Forster mechanism light harvesting

Forster model

Forster orientation factor

Forster probe

Forster quenching

Forster radius

Forster rates

Forster reaction

Forster reaction diazo compounds

Forster reaction synthesis from oximes

Forster resonance energy transfer

Forster resonance energy transfer FRET)

Forster resonance energy transfer FRET) imaging

Forster resonance energy transfer calculator

Forster resonance energy transfer donor

Forster resonance energy transfer efficiency measurement

Forster resonance energy transfer efficiency, measuring

Forster resonance energy transfer fluorophores

Forster resonance energy transfer imaging (

Forster resonance energy transfer measurement

Forster resonance energy transfer molecule, design

Forster resonance energy transfer pairs

Forster resonance energy transfer properties

Forster resonance energy transfer states

Forster resonance energy transfer studies

Forster resonant energy transfer

Forster resonant excitation transfer

Forster separation distance

Forster spectral overlap

Forster theory

Forster through-space

Forster transfer

Forster transfer process

Forster transfer rate

Forster transfer, efficiency

Forster type energy transfer

Forster, Georg

Forster, Richard

Forster-Coulson-Mofitt orbitals

Forster-Decker

Forster-Dexter theory

Forster-Zuber

Forster-Zuber correlation

Forster-Zuber equation

Forster-type coulombic interactions

Forster-type resonant energy transfer

Forster-type triplet energy transfer

Forsters Model

Forsters theory

Forster’s cycle

Forster’s mechanism

Forster’s model

Forster’s theory

Front trapping, molecular dyes in zeolite channels, Forster electronic excitation

Front-back trapping, molecular dyes in zeolite channels, Forster electronic excitation

Generalized Forster Theory

Integrated fluorescence, molecular dyes zeolite L channels, Forster electronic

Interaction between Spin-Singlet Excitations (Forster)

Markoff chain, molecular dyes in zeolite channels, Forster electronic excitation

Photoacids, Photoacidity and Forster Cycle

Point trapping, molecular dyes in zeolite channels, Forster electronic excitation

Prediction by means of the Forster cycle

Protein Forster resonance energy transfer

Resonance energy transfer Forster theory

Resonance transfer, Forster

Singlet energy transfer Forster

Supramolecularly organized luminescent dye Forster energy transfer

The Forster Theory

The Forster energy transfer

Time-Resolved Forster Resonance Energy Transfer (TR-FRET)

Time-resolved Forster resonance

Transition Metal Complexes, Primary Processes in (Forster)

Trap fluorescence, molecular dyes in zeolite channels, Forster electronic excitation

Triplet Forster mechanism

Zeolite L channels, supramolecularly organized Forster energy transfer

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