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9780471987321

Resonance Energy Transfer

by ;
  • ISBN13:

    9780471987321

  • ISBN10:

    0471987328

  • Edition: 1st
  • Format: Hardcover
  • Copyright: 1999-05-04
  • Publisher: WILEY
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Summary

Resonance Energy Transfer The resonance transfer of energy between molecules, or between sites within a large molecule, plays a central role in many areas of modern chemistry and physics. In biophysics, for example, this process defines the migration of excitation energy within photosynthetic systems (commonly the Frster mechanism). Another important area is in crystals, laser and other laser materials. Resonance Energy Transfer contains a large amount of cutting-edge research which has never before appeared in book form. It is the first comprehensive modern survey of the field, offering a broad, yet detailed view of the mechanisms of energy transfer. The broad range of applications of fluorescence and fluorescence energy transfer to studies in molecular biology and biotechnology ensures that resonance energy transfer will be a vital component of the new science and technology of the next millenium. This book is written for those working with materials, both experimentally and theoretically, as well as for biophysicists and biochemists interested in studying protein structure and dynamics. ISBN 0 471 987328 (Cloth) Foreword supplied by Professor Graham Fleming FRS, University of California, Berkeley, USA. Cover shows the Peripheral Light Harvesting Complex (LH2) of Rps.acidophila kindly supplied by Dr. Stephen M. Prince, University of Glasgow, UK.

Author Biography

David L. Andrews, School of Chemical Sciences, University of East Anglia, GB. Highly respected and has made major interesting contributions in the field. His works are very deep and illuminating. Professor Andrews has also published in condensed matter QED, though not to the same extent. One of his books has gone to a third edition, and another has been reprinted.

Table of Contents

Contributors xvii
Preface xxiii
Naturally Occurring Aminophosphonic and Aminophosphinic Acids
1(32)
Przemyslaw Mastalerz
Pawel Kafarski
2-Aminoethanephosphonic acid (AEP, ciliatane)
2(6)
Phosphonates metabolically related to 2-aminoethanephosphonic acid
8(1)
Aminophosphonate antibiotics and related compounds
9(1)
Antibiotic phosphonopeptides
10(5)
Biosynthesis of the P--C bond
15(2)
Biosynthesis of 2-aminoethanephosphonic acid and its N-methylated derivatives
17(1)
Biosynthesis of bialaphos
18(1)
Biodegradation of organophosphonates
18(4)
The origin of aminophosphonates in nature
22(1)
References
23(10)
Synthesis of α-Aminoalkanephosphonic and α-Aminoalkanephosphinic Acids
33(42)
Pawel Kafarski
Jerzy Zon
Aldehydes and ketones as substrates for the preparation of aminophosphonates
34(16)
Amidolkylation of trivalent phosphorus compounds
34(3)
Mannich-type condensation of amines with aldehydes and phosphorous or hypophosphorous acid
37(1)
Kabachnik-Fields reaction
38(3)
Hydrophosphonylation of imines
41(3)
Hydrophosphonylation of other C=N bonds
44(2)
Hydrophosphonylation of triazines
46(1)
Hydrophosphonylation of aldehydes-hydroxyalkanephosphonates as substrates for the preparation of 1-aminoalkanephosphonates
47(3)
Carboxylic acids as substrates for the synthesis of 1-aminoalkanephosphonic acids
50(5)
1-Oxoalkanephosphonates as substrates
50(3)
Phosphonoacetates as substrates
53(1)
Replacement of amino acid carboxylic moieties by phosphonic groups
54(1)
Nitriles as substrates
55(1)
Phosphonylation of halogenoalkylamines and related compounds
56(3)
Amination of alkanephosphonates and functionalized alkanephosphonates
59(2)
Nucleophilic amination
59(1)
Electrophilic amination
60(1)
Alkylation of derivatives of dialkyl aminomethanephosphonates
61(3)
Alkylation of Schiff bases
61(1)
Alkylation of other derivatives of aminomethanephosphonic acid
62(2)
Hydrogenation of N-acyl-α, β-dehydroaminophosphonates
64(1)
Other methods
64(3)
Hydrolytic cleavage of carbon-phosphorus bond
67(1)
References
67(8)
Synthesis of Aminoalkanephosphonic and Aminoalkanephosphinic Acids with the Amino Substituent in other than the α-Position
75(28)
Valery P. Kukhar
Synthesis of ω-aminophosphonates by addition of amines to unsaturated phosphonates
76(2)
Introduction of the amino function by ketophosphonate transformation
78(4)
Formation of the amino function in phosphonates by reduction of nitrogen-containing groups
82(1)
Syntheses of aminophosphonates by the Arbuzov and Michaelis--Becker reactions
83(2)
Synthesis of aminoalkanephosphonic acids by Curtius and Hofmann rearrangements
85(1)
Syntheses of aminophosphonates by the carbanion approach
86(2)
Miscellaneous reactions leading to aminophosphonates
88(4)
Arenephosphonic acids containing an amino function in the ring
92(2)
Nitrogen heterocycles with a phosphonic (or phosphinic) acid residue
94(5)
References
99(4)
α-Amino Acid Analogues Bearing Side-Chain C-P Linkages
103(24)
Sharon Lall
Robert Engel
Introduction
103(1)
Syntheses and biological significance
104(1)
Analogues of biological α-amino acids
104(11)
Structures of interest
104(2)
Syntheses of analogues of phosphinothricin
106(3)
Other potentially useful analogues of phosphinothricin
109(1)
Analogues of glutamic and aspartic acid--structure
110(1)
Analogues of glutamic and aspartic acid--syntheses and biology
110(5)
Analogues of amino acid phosphate esters
115(4)
Biology and structure
115(1)
Analogues of amino acid phosphate esters--synthesis
116(3)
Other α-amino acids containing a C-P bond in the side-chain
119(1)
Analogues of phosphatidylserine
120(1)
Consideration for future studies
121(1)
References
122(5)
Asymmetric Synthesis of Aminophosphonic and Aminophosphinic Acids
127(46)
Valery P. Kukhar
Enantioselective C--C Bond forming reactions
128(15)
Chiral `glycine' synthons--chirality in the nitrogen residue
128(9)
Chiral `glycine' synthons--chirality in the phosphorus residue
137(2)
Catalyzed C--C bond formation reaction leading to chiral aminophosphonates
139(1)
Miscellaneous C--C bond formation reactions leading to chiral aminophosphonates
140(3)
Enantioselective C--P bond forming reactions
143(11)
Addition of hydrophosphonyl compounds to imines
143(5)
Three-component Kabachnik--Fields reaction
148(3)
Catalytic addition of hydrophosphonyl compounds to C=N bonds
151(1)
Miscellaneous reactions for stereoselective C--P bond formation
152(2)
Stereoselective C--N bond formation
154(10)
Steroselective C--H bond forming reactions
164(3)
Conclusions
167(1)
References
168(5)
Synthesis of Phosphono-and Phosphinopeptides
173(32)
Pawel Kafarski
Barbara Lejcczak
Protection of the amino group
174(2)
Protection of the phosphonic moiety
176(2)
Synthesis of phosphono-and phosphinopeptides containing P-terminal aminophosphonate
178(5)
Preparation of diastereomeric phosphonodipeptides containing P-terminal aminophosphonate
183(1)
Phosphonodepsipeptides containing P-terminal hydroxyphosphonate
183(1)
Peptides containing a phosphonic or phosphinic moiety in the side-chain
184(3)
Peptides containing a phosphonamide or phosphinamide bond
187(4)
Phosphonodepsipeptides containing a phosphonoester moiety
191(2)
Phosphinopeptide nucleic acids
193(1)
Phosphinopeptides in which a phosphinic acid replaces a dipeptidyl fragment of the peptide chain
194(2)
Peptides in which a PH2 group replaces the NH2 moiety
196(1)
References
196(9)
Column Chromatography of Aminophosphonic Acids and Phosphonopeptides
205(12)
S. V. Galushko
Introduction
205(1)
Separation of phosphonopeptides using column liquid chromatography
206(1)
Chiral recognition of aminophosphonic acids
207(6)
Derivatization of aminophosphonic acids for HPLC analysis
213(1)
Derivatization of aminophosphonic acids for gas chromatographic analysis
214(1)
Optimization and problem solving
215(1)
References
215(2)
Physical Properties and NMR-Spectroscopic Characterization of Aminophosphonates and Aminophosphinates
217(68)
Gerhard Hagele
Introduction
217(2)
The 1H-NMR spectrum of α-N-phenylamino-α-phenylmethanephosphonic acid diethyl ester
219(14)
The aromatic region
219(3)
The-CHP-NH-skeleton
222(1)
The alkoxy region
223(3)
Aromatic ring current effects and molecular structure
226(7)
1H-, 19F-and 31 P-NMR spectra of aromatic substitutents Ar1 and Ar2 and related fragments in α-N-arylamino-α-arylmethanephosphonic acid diethyl esters
233(1)
Increasing complexity by sterically demanding aromatic substituents in Ar1 or Ar2
234(8)
The 1-naphthyl group attached to the CHP unit
234(3)
The 2-naphthyl group attached to the CHP unit
237(2)
The 9-anthryl group attached to the CHP unit
239(1)
The 1-naphthyl group attached to the NH unit
240(2)
Sterically overcrowded aminophosphonates
242(4)
Variations of 1H-NMR spectra from-CHP-NH-fragments with substituent pattern, temperature, solvent and protonation
246(14)
α-N-(4-fluorophenyl)amino-α-phenylmethanephosphonic acid diethyl ester
246(5)
Classification of-CHP-NH-spectra
251(1)
Attempts to interpret the results
251(2)
Conformational analysis of α-N-(4-trifluoromethylphenyl)amino-α-phenylmethanephosphonic acid diethyl ester
253(6)
Bulky aromatic substituents in Ar1 and Ar2
259(1)
Heterocyclic aminophosphonates
260(2)
Aromatic ring current effects in an isomeric pair of naphthyl-substituted aminophosphonates
262(3)
Bifunctional aminophosphonates
265(4)
Structural considerations
265(1)
The CHP-skeleton of bifunctional aminophosphonates
265(2)
The P(O) (OCH3)2 groups from bifunctional aminophosphonates
267(2)
Aminophosphinates
269(7)
Solid state and molecular modelling of P-[α-N-(4-fluorophenyl)-amino-α-phenylmethyl]-P-(methyl) phosphinic acid n-butyl ester (2.1-D1)
271(3)
The 1H-NMR spectrum of P-[α-N-(4-fluorophenyl) amino-α-phenyl-methyl]-P-(methyl)phosphinic acid n-butyl ester (2.1-D1)
274(2)
Some comments on phosphonic and phosphinic acids
276(4)
References
280(5)
Structure and Stability Constants of Metal Complexes in Solution
285(42)
Tamas Kiss
Istvan Lazar
Introduction
285(1)
Phosphonic derivatives of amino acids and related compounds
286(11)
Acid-base chemistry
286(1)
Metal-binding capabilities
287(10)
Phosphono derivatives of dipeptides
297(1)
Open-chain aminopolyphosphonates
298(8)
Macrocyclic aminophosphonates and aminophosphinates
306(15)
Acid-base chemistry
309(3)
Metal complex formation
312(5)
Biomedical applications
317(1)
MRI contrast enhancement materials
317(2)
Diagnostic use of fluorescent complexes
319(1)
Paramagnetic complexes as shift reagents
320(1)
Determination of intracellular metal ion concentration
320(1)
Radioimmunoassay techniques
320(1)
Determination of pH
321(1)
Acknowledgements
321(1)
References
321(6)
X-Ray Crystallographic Studies
327(36)
Nick Choi
Mary McPartlin
Introduction
327(18)
Mono(aminophosphonic) and mono (aminophosphinic) acids
345(4)
N-Acylated aminophosphonic and aminophosphinic acids
349(2)
Diphosphonic and diphosphinic acids
351(1)
Triphosphonic acids
351(1)
Tetraphosphonic and tetraphosphinic acids
352(7)
References
359(4)
Mass Spectrometry and Gas Chromatography-Mass Spectrometry of Aminoalkanephosphonic Acids
363(44)
Zbigniew H. Kudzin
M. Sochaki
Introduction
363(1)
Derivatization of aminophosphonic acids and related compounds for GC and GC/MS
364(8)
Mass spectrometric characterization of derivatized aminoalkanephosphonic acids and related copounds
372(13)
Mass spectrometric characterization of O,O-substituted aminoalkanephosphonic acids
372(1)
Mass spectrometric characterization of TMS-derivatives of aminoalkanephosphonates
372(2)
Mass spectrometric characterization of O,O-dialkyl derivatives of aminoalkanephosphonates
374(2)
Mass spectrometric characterization of O,O-dialkyl 1-(N-acylamino)-alkanephosphonates
376(1)
Mass spectrometric characterization of O,O-dialkyl 1-(N-formylamino)-alkanephosphonates
377(2)
Mass spectrometric characterization of O,O-dialkyl 1-(N-acetylamino)-alkanephosphonates
379(1)
Mass Spectrometic Characterization of O,O-Dialkyl 1-(N-trifluoroacetylamino)-alkanephosphonates
379(3)
Mass spectrometric characterization of other types of N-acylaminoalkanephosphonates
382(1)
Chemical ionization mass spectrometry of O,O-dialkyl 1-(N-acylamino)alkanephosphonates
382(3)
Mass spectrometric characterization of underivatized aminoalkanephosphonic acids, partly protected aminoalkanephosphonic acids and related derivatives
385(10)
Mass spectra of underivatized aminoalkanephosphonic acids
385(1)
Chemical ionization mass spectra of aminoalkanephosphonic acids
385(3)
Fast atom bombardment mass spectra of amino-and guanidino-alkanephosphonic acids
388(2)
Mass spectra of N-acylaminoalkanephosphonic acids
390(5)
Mass spectrometric characterization of phosphonopetides
395(9)
EI mass spectra of protected phosphonopeptides
397(2)
FAB mass spectra of protected phosphonopeptides
399(2)
FAB mass spectra of unprotected phosphonopeptides
401(3)
References
404(3)
The Biological Activity of Phosphono-and Phosphinopeptides
407(36)
Pawel Kafarski
Barbara Lejczak
Antibacterial phosphonopeptides
408(3)
Inhibition of proteases
411(16)
Inhibitors of serine proteases
412(5)
Inhibitors of metalloproteases
417(8)
Inhibitors of aspartic proteases
425(1)
Inhibitors of cysteine proteases
426(1)
Inhibitors of β-lactamase
427(1)
Inhibitors of ligases
427(1)
Inhibitors of phosphotyrosyl-dependent signal transduction
428(3)
Analogues of methotrexate
431(3)
Other actvities
434(1)
Catalytic antibodies (abzymes)
434(1)
References
435(8)
Aminophosphonic and Aminophosphinic Acids and their Derivatives as Agrochemicals
443(40)
Harry R. Hudson
Introduction
443(1)
Commercially available agrochemicals and their analogues
444(10)
Glyphosate
445(4)
Glufosinate and Bilanafos
449(5)
Related Aminocarbonylphosphonic Acids
454(1)
Biologically active aminophosphonic and aminophosphinic acids as candidate agrochemicals
454(20)
Introduction
454(1)
Plant-growth Regulators and Herbicides
455(1)
Aminoalkane-phosphonic and-phosphinic acids
455(3)
Aminocycloalkyl-phosphonic acids and-phosphine oxides
458(1)
N-Arylaminoalkyl-phosphonates,-phosphinates, and-phosphine oxides
458(1)
Amino(aryl)alkyl-phosphonic and-phosphinic acids
459(2)
Phosphono-and phosphinopeptides
461(1)
N-Phosphonoacetylamines, guanidino derivatives, and isoxazole-substituted aminoethylphosphonates
462(1)
Aminomethylenebisphosphonic acids
463(2)
Fungicides
465(1)
Introduction
465(1)
N-(ω-Guanidinoalkyl)-and N-(ω-aminoalkyl)-aminoalkane-phosphonic and-phosphinic acids
466(1)
Aminoalkane-phosphonic and-phosphinic acids
467(2)
Amino(aryl)alkyl-phosphonic and-phosphinic acids
469(1)
Phosphonopeptides
470(1)
Insecticides and related compounds
471(1)
Summary and Prospects
472(2)
Acknowledgement
474(1)
References
474(9)
Neuroactive Aminophosphinic and Aminophosphinic Acid Derivatives
483(54)
David Jane
Introduction
483(1)
Ionotropic glutamate receptors
484(21)
Introduction
484(2)
The NMDA receptor complex
486(1)
NMDA receptor subtypes
487(1)
NMDA recepter agonists
488(2)
Competitive NMDA receptor antagonists
490(4)
Radioligands for the glutamate recognition site of the NMDA receptor
494(1)
Molecular modelling studies
494(1)
Subtype selectivity of competitive NMDA receptor antagonists
495(1)
Antagonists binding to the glycine co-agonist site of the NMDA receptor
496(1)
Therapeutic applications of NMDA receptor antagonists
497(1)
AMPA and kainate receptors
498(3)
AMPA and kainate receptor agonists
501(1)
AMPA and kainate receptor antagonists
501(3)
Therapeutic utility of AMPA and kainate antagonists
504(1)
Metabotropic glutamate receptors
505(11)
Introduction
505(3)
Group I selective agonists and antagonists
508(2)
Group II selective agonists and antagonists
510(1)
Group III selective agonists and antagonists
511(4)
The QUIS effect
515(1)
Phospholipase D coupled mGlu receptors
516(1)
Therapeutic utility of mGlu receptor agonists and antagonists
516(1)
Gaba receptor pharmacology
516(9)
Introduction
516(1)
GABAB receptor agonists and antagonists
517(4)
GABAC receptor agonists and antagonists
521(2)
GABA uptake inhibitors
523(1)
Antagonists of the strychnine-sensitive glycine receptor
524(1)
Concluding remarks
525(1)
Acknowledgements
525(1)
References
526(11)
Aminophosphonic and Aminophosphinic Acid Derivatives in the Design of Transition State Analogue Inhibitors: Biomedical Opportunities and Limitations
537(22)
Jozef Oleksyszyn
Proteolytic Enzymes: classification, mechanism of the proteolysis and implication for the design of transition analogue inhibitors
539(2)
Drug development
541(3)
Proteolytic enzymes as targets for drug design
544(2)
Serine proteinases as targets for drug design. Biomedical opportunities for derivatives of α-aminoalkylphosphonic acid diphenyl esters
546(3)
Human neutrophil elastase (HNE)
549(1)
Dipeptidyl peptidase IV (DPP IV/D26)
550(2)
Human heart chymase
552(1)
Human cytomegalovirus protease
553(1)
Granzymes
553(2)
Proteolytic enzymes from larvae of the fire ant, Solenopsis invicta
555(1)
References
556(3)
Aminophosphonic and Aminophosphinic Acids in the Design and Synthesis of HIV Protease Inhibitors
559(20)
Anusch Peyman
Introduction
559(2)
Linear Inhibitors of HIV protease
561(4)
C2-Symmetric Inhibitors of HIV protease
565(8)
Non-peptide inhibitors of HIV protease
573(2)
Conclusions
575(1)
References
575(4)
Aminophosphonic Acid Derivatives as Antithrombotic Agents
579(18)
Donovan St. C. Green
Emmanuel Skordalakes
Michael F. Scully
John J. Deadman
Introduction
579(2)
Studies of the Mechanism of Inhibition of Thrombin by Peptidylphosphonates
581(2)
Routes to Dialkyl and Diaryl α-Aminophosphonates as Precursors for Thrombin Inhibitors
583(1)
Tripeptidylphosphonates as Thrombin Inhibitors
584(2)
Determination of Ki and Mechanism of Inhibition of Thrombin
586(1)
Kinetics of the Slow Binding Phase (k2, k-2, and ki,) of Thrombin Inhibition by Z-Dpa-Pro-MpgP (OPH)2
586(1)
Fitting generated values for A0 (initial absorbance), Vo (initial velocity), and Vs (final steady state velocity)
587(2)
Specificity of Z-Dpa-Pro-MpgP (OPh)2 for Thrombin
589(1)
Analysis of the Interaction of Z-D-Dpa-Pro-MpgP (OPh)2 with Human Thrombin by Crystallography
590(2)
O,O-Dialkyl Dipeptidyl-ψ-(carboxy) benzylphosphonates as Novel Thrombin Inhibitors
592(2)
Conclusions
594(1)
References
594(3)
Aminophosphonic and Aminophosphinic Acid Derivatives as Inhibitors of Human Collagenase
597(24)
Roger Markwell
Human collagenase (MMP-1) and the matrix metalloproteinase (MMP) family
597(1)
Potential therapeutic indications for MMP inhibitors
598(1)
Structural characterisation of the MMP's
598(1)
Design of collagenase inhibitors
599(1)
Aminophosphonic acid derivatives as collagenase inhibitors
600(6)
Proposed binding of an aminophosphonic acid inhibitor to collagenase (MMP-1)
606(3)
Aminophosphinic acid derivatives as collagenase inhibitors
609(6)
Comparison of aminophosphonic acid based inhibitors with other structural types
615(2)
References
617(4)
Index 621

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