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9783527306169

Handbook of Metathesis, 3 Volume Set

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  • ISBN13:

    9783527306169

  • ISBN10:

    3527306161

  • Edition: 1st
  • Format: Hardcover
  • Copyright: 2003-10-17
  • Publisher: Wiley-VCH

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Summary

There is probably no name more closely linked to metathesis than that of Robert H. Grubbs of the California Institute of Technology. His pioneering work has led to the success of this important and fascinating reaction and in this comprehensive three-volume work he presents all its important aspects. The standard work on the topic The team of authors reads like a "Who's who" of metathesis Clearly divided into catalyst developments, organic synthesis applications and polymer synthesis A must-have for every organic and polymer chemist

Author Biography

Robert H. Grubbs received his Ph.D. from Columbia University for work with Ron Breslow. After a postdoctoral year with Jim Collman at Stanford University, he joined the faculty at Michigan State University. In 1978, he moved to the California Institute of Technology, where he is now the Victor and Elizabeth Atkins Professor of Chemistry. Among many other awards he received the Nobel Prize in 2005 for his research on the metathesis reaction. His research interests include polymer chemistry, organometallic catalysis, and development of new synthetic organic methodology.

Table of Contents

Preface xxi
References xxv
List of Contributors
xxvii
Introduction
1(3)
Robert H. Grubbs
References
3(1)
The Role of the ``Tebbe Complex'' in Olefin Metathesis
4(4)
Robert H. Grubbs
References
6(2)
The Discovery and Development of High Oxidation State Mo and W Imido Alkylidene Complexes for Alkene Metathesis
8(25)
Richard R. Schrock
Introduction
8(1)
Tantalum Alkylidene Complexes
9(4)
Early Tungsten Alkylidene Complexes
13(2)
Development of Imido Alkylidene Complexes
15(5)
Rhenium Alkylidene Complexes
20(1)
Details of Reactions of Imido Alkylidene Complexes and Theoretical Calculations
21(3)
Catalyst and Reaction Variations
24(4)
Concluding Remarks
28(5)
Acknowledgments
28(1)
References
29(4)
From III-Defined to Well-Defined W Alkylidene Complexes
33(14)
Christophe Coperet
Frederic Lefebvre
Jean-Marie Basset
Introduction
33(1)
Oxoalkylidene W Complexes
33(2)
Alkoxy-Alkylidene W Complexes: Kress-Osborn System
35(2)
Aryloxy-Alkylidene W Complexes: Leconte-Basset System
37(1)
Amidoalkylidene W Complexes
38(4)
Imido-Alkylidene W Complexes: Schrock's System
42(2)
Summary and Outlooks
44(3)
References
45(2)
Fischer Metal Carbenes and Olefin Metathesis
47(14)
Thomas J. Katz
Fischer Metal Carbenes and Olefin Metathesis
47(1)
The Role of Fischer Metal Carbenes in Metathesis
47(2)
Induction of Olefin Metatheses by Fischer Metal Carbenes
49(4)
Properties of 2
49(1)
Olefin Metatheses Initiated by Metal Carbene 1
49(2)
Mechanistic Implications
51(1)
Metatheses Initiated by Metal Carbene 2
52(1)
Initiation of Acetylene Polymerization by Fischer Metal Carbenes
53(2)
Introduction
53(1)
Examples of Acetylene Polymerizations Initiated by Fischer Metal Carbenes
54(1)
Actuation of Olefin Metathesis by Acetylenes
55(6)
Metatheses of Cyclic and Acyclic Alkenes Actuated by An Acetylene
55(1)
Reaction of Enynes With Fischer Metal Carbenes
55(1)
Rearrangement of Enynes to Dienes
56(1)
References
57(4)
The Discovery and Development of Well-Defined, Ruthenium-Based Olefin Metathesis Catalysts
61(25)
SonBinh T. Nguyen
Tina M. Trnka
The Discovery of Well-Defined Ruthenium Olefin Metathesis Catalysts: A Personal Account
61(4)
SonBinh Nguyen
(PPh3)2 Cl2 Ru=CH-CH=CPh2, the First Well-Defined, Metathesis-Active Ruthenium Alkylidene Complex
62(1)
(PCy3)2 Cl2 Ru=CH-CH=CPh2, A Well-Defined Ruthenium Alkylidene Catalyst for the Metathesis of Acyclic Olefins
63(1)
Initial Applications of Olefin Metathesis Chemistry Catalyzed by (PCy3)2 Cl2 Ru=CH-CH=CPh2
64(1)
More Accessible Ruthenium Alkylidene Sources
65(3)
2nd-Generation Grubbs Catalysts
68(5)
N-Heterocyclic Carbene (NHC) Ligands
70(3)
Multi-Component Ruthenium-Based Olefin Metathesis Catalyst Systems and Homogeneous Catalyst Precursors
73(1)
Solid-Supported Ruthenium-Based Olefin Metathesis Catalysts
74(6)
Conclusions
80(6)
References
81(5)
Synthesis of Ruthenium Carbene Complexes
86(9)
Warren R. Roper
Introduction
86(1)
The First Ruthenium Carbene Complexes
86(2)
Ruthenium Methylene Complexes
88(4)
Ruthenium Dihalocarbene Complexes
92(3)
Acknowledgments
93(1)
References
93(2)
Synthesis of Rhodium and Ruthenium Carbene Complexes with a 16-Electron Count
95(17)
Helmut Werner
Justin Wolf
Introduction
95(1)
Rhodium(I) Carbenes from Diazoalkanes
95(3)
Ruthenium(II) Carbenes and Vinylidenes from Terminal Alkynes
98(10)
Conclusions
108(4)
Acknowledgements
109(1)
References
109(3)
Mechanism of Ruthenium-Catalyzed Olefin Metathesis Reactions
112(20)
Melanie S. Sanford
Jennifer A. Love
Introduction
112(1)
First-Generation Bis-Phosphine Catalyst Systems
112(11)
General Mechanistic Considerations
112(4)
Substituent Effects in Ruthenium-Catalyzed Olefin Metathesis
116(2)
Thermal Decomposition of Ruthenium Catalysts
118(2)
Decomposition in the Presence of Functional Groups
120(1)
Mechanistic Considerations in Other First-Generation Ruthenium Metathesis Catalysts
120(3)
Second-Generation Ruthenium Olefin Metathesis Catalysts
123(6)
General Mechanistic Considerations
124(1)
Substituent Effects in Ruthenium-Catalyzed Olefin Metathesis
125(2)
Thermal Decomposition of Ruthenium Catalysts
127(1)
Decomposition in the Presence of Functional Groups
127(1)
Other Second-Generation Ruthenium Catalysts
128(1)
Conclusions
129(3)
References
130(2)
Intrinsic Reactivity of Ruthenium Carbenes
132(41)
Christian Adlhart
Peter Chen
Introduction
132(3)
Electrospray Ionization Mass Spectrometry (ESI MS) of Transition Metal Complexes
135(4)
Electrospray Ionization
135(1)
Tandem Mass Spectrometry
136(1)
Reaction Conditions in the Collision Cell of the Tandem ESI MS
137(2)
General Reactivity of Ruthenium Carbene Complexes in the Gas Phase
139(8)
Dissociative Mechanism
139(2)
Evidence for ROMP and RCM
141(2)
Systematic Variation of a Common Structural Motif -- Steric Effects and Halogen Effects
143(3)
Conclusions
146(1)
Three Key Factors that Determine the Activity of Metathesis Catalysts
147(20)
Solution-Phase Pre-Equilibria: Activation
147(1)
Pre-Equilibria During the Turnover: Backbiting
148(7)
Catalyst Commitment: Potential Surface
155(12)
Conclusions
167(6)
Compound Numbers
167(2)
References
169(4)
The Discovery and Development of High Oxidation State Alkylidyne Complexes for Alkyne Metathesis
173(17)
Richard R. Schrock
Introduction
173(1)
Alkylidyne Complexes of Tantalum
174(1)
Alkylidyne Complexes of Tungsten
174(4)
Formation of Trialkoxy Alkylidyne Complexes from W2(OR)6 Species
178(2)
Alkylidyne Complexes of Molybdenum
180(1)
Reactions that Limit Metathesis Activity
181(4)
Alkylidyne Complexes of Rhenium
185(1)
Conclusions and Comments
186(4)
Acknowledgments
187(1)
References
187(3)
Well-Defined Metallocarbenes and Metallocarbynes Supported on Oxide Supports Prepared via Surface Organometallic Chemistry: A Source of Highly Active Alkane, Alkene, and Alkyne Metathesis Catalysts
190(1)
Christophe Coperet
Frederic Lefebvre
Jean-Marie Basset
Introduction
190(1)
Preparation and Characterization of Well-Defined Metallocarbenes and Metallocarbynes via Surface Organometallic Chemistry
191(4)
Strategy and Tools in Surface Organometallic Chemistry
191(1)
Application to the Preparation of Well-Defined Metallocarbene and Metallocarbyne Supported on Oxides
192(3)
Reactivity in Alkene and Alkyne Metathesis
195(5)
Group 5 and 6 Metallocarbenes and Metallocarbynes Supported on Oxides
195(2)
Group 7 Metallocarbenes and Metallocarbynes Supported on Oxides
197(3)
Reactivity in Alkane Metathesis
200(1)
Summary and Outlook
201(1)
Acknowledgments
202(1)
References
202
List of Contributors
xxi
Olefin Metathesis and Related Reactions in Organic Synthesis: Introduction to Metal-Carbon Double Bonds in Organic Synthesis
1(4)
Robert H. Grubbs
References
4(1)
General Ring-Closing Metathesis
5(123)
So-Yeop Han
Sukbok Chang
Introduction
5(2)
Synthesis of Carbocyles
7(17)
Carbocyclization
7(9)
Medium-Sized Carbocycles
16(6)
Spiro Carbocycles
22(2)
Synthesis of Bridged Bicycloalkenes
24(5)
Synthesis of Heterocycles Containing Si, P, S, or B
29(9)
Si-Heterocycles
29(3)
P-Heterocycles
32(3)
S-Heterocycles
35(2)
B-Heterocycles
37(1)
Synthesis of Cyclic Ethers
38(8)
Mono- and Bicyclic Ethers
38(5)
Polycyclic Ethers
43(3)
Applications to N-Heterocycles and Peptide Chemistry
46(19)
N-Heterocycles
46(6)
Small and Medium-Sized Lactams
52(2)
Cyclic Amino Acids, Peptides, and Peptidomimetics
54(11)
Synthesis of Macrocycles
65(9)
Macrocycles
66(2)
Macrolactones
68(5)
Macrolactams
73(1)
Synthesis of Cyclic Conjugated Dienes
74(3)
Alkyne Metathesis
77(3)
Enyne Metathesis
80(6)
General Enyne Metathesis
80(3)
Dienyne Metathesis
83(3)
Multi-Directional RCM
86(2)
Tandem Processes
88(6)
Tandem ROM/RCM
88(4)
Other Tandem RCM
92(2)
Asymmetric RCM
94(2)
Synthesis of Complex Molecules
96(32)
Template-Directed RCM
96(1)
RCM in Supramolecular Chemistry
96(13)
Synthetic Applications
109(10)
References
119(9)
Catalytic Asymmetric Olefin Metathesis
128(23)
Amir H. Hoveyda
Introduction
128(1)
The Catalyst Construct
129(1)
Mo-Catalyzed Kinetic Resolution With Hexafluoro-Mo Catalysts
129(1)
Chiral Mo-Diolate Complexes for Kinetic Resolution and Asymmetric Synthesis
130(15)
Chiral Biphen-Mo Catalysts
130(1)
Catalytic Kinetic Resolution Through Mo-Catalyzed ARCM
130(1)
Catalyst Modularity and Optimization of Mo-Catalyzed ARCM Efficiency and Selectivity
131(2)
Catalytic Asymmetric Synthesis Through Mo-Catalyzed ARCM
133(4)
Catalytic Asymmetric Synthesis Through Tandem Mo-Catalyzed AROM/RCM
137(5)
Catalytic Asymmetric Synthesis Through Tandem Mo-Catalyzed AROM/CM
142(1)
Towards User-Friendly and Practical Chiral Mo-Based Catalysts for Olefin Metathesis
143(2)
Chiral Ru-Based Olefin Metathesis Catalysts
145(2)
Conclusions and Outlook
147(4)
Acknowledgments
148(1)
References
148(3)
Tandem Ring-Closing Metathesis
151(25)
Stefan Randl
Siegfried Blechert
Introduction
151(1)
Tandem Metathesis Involving Double Bonds Only
152(12)
RRM of Alkenyl-Substituted Cycloolefins
152(8)
RRM of bis Alkenyl-Substituted Cycloolefins
160(4)
Tandem Reactions of Polycycloolefins
164(1)
Tandem RCM Involving Enyne Reactions
164(8)
Tandem Reactions with Triple Bonds As ``Relays''
164(2)
Tandem Processes Involving Ring Rearrangement
166(3)
Alkyne Trimerizations Catalyzed by Metathesis Catalysts
169(2)
Other Tandem Processes Involving C--C Triple Bonds
171(1)
Summary and Outlook
172(4)
References
173(3)
Ene-Yne Metathesis
176(29)
Miwako Mori
Introduction
176(4)
Transition Metal-Carbene Complex-Catalyzed Enyne Metathesis
180(14)
Ring-Closing Metathesis (RCM) of Enyne Using Ruthenium Carbene Complex
180(6)
Ring-Opening Metathesis--Ring-Closing Metathesis of Cycloalkene-Yneo
186(2)
Intermolecular Enyne Metathesis (Cross-Metathesis)
188(6)
Skeletal Reorganization Using Transition Metals
194(4)
Utilization of Enyne Metathesis for the Synthesis of Natural Products and Related Biologically Active Substances
198(2)
Perspective
200(5)
References
203(2)
Ring-Opening Cross-Metatheses
205(33)
Thomas O. Schrader
Marc L. Snapper
Introduction
205(1)
Early Examples of ROCM
206(7)
Mechanistic Insight
206(1)
Early Efforts toward a Selective ROCM
207(2)
Well-Defined Metal Complexes as Catalysts
209(3)
New Opportunities for Olefin Metathesis
212(1)
Selective ROCM Reactions
213(15)
ROCM Involving Cyclobutenes
213(3)
Regio- and Stereoselective ROCM
216(2)
ROCM of Bridged Bicyclic Alkenes
218(5)
ROCM Reactions of Cyclopropenes
223(1)
ROCM Reactions Involving Unstrained Cycloolefins
224(1)
ROCM Reactions of Trisubstituted Olefins
224(2)
Variations of ROCM
226(1)
Ring Expansion via Olefin Metathesis
226(2)
Enantioselective ROCM
228(2)
Mo-Catalyzed Asymmetric ROCM
228(2)
A Recyclable Chiral Ruthenium Catalyst for Asymmetric ROCM
230(1)
ROCM in Total Synthesis
230(3)
Conclusions
233(5)
References
235(3)
Ring-Expansion Metathesis Reactions
238(8)
Choon Woo Lee
References
244(2)
Olefin Cross-Metathesis
246(50)
Arnab K. Chatterjee
Olefin Forming Cross-Coupling Reactions
246(1)
Olefin Metathesis and Selectivity Problems in CM
247(2)
Metathesis Catalyst Overview
249(1)
Selectivity Challenges in CM
250(2)
Stereoselective CM Reactions
252(4)
Product-Selective Reactions by CM
256(2)
Styrene CM Reactions
258(3)
Trisubstituted Olefin Synthesis by CM
261(3)
Electron-Poor Olefins in CM
264(5)
Reagent Synthesis by CM
269(6)
Applications of CM
275(3)
Bioorganic Applications of CM
278(10)
CM Product-Selectivity Model
288(2)
Conclusions
290(6)
References
292(4)
Olefin Metathesis Strategies in the Synthesis of Biologically Relevant Molecules
296(27)
Jennifer A. Love
Introduction
296(2)
Olefin Metathesis Strategies in Complex Molecule Synthesis
296(1)
Catalysts for Olefin Metathesis
297(1)
RCM and ROM in Complex Molecule Synthesis
298(14)
Laulimalide
298(4)
Boronolide
302(1)
Ingenol
303(1)
Asteriscanolide
303(2)
(+)-FR900482
305(1)
Salicylihalamide
306(1)
Roseophilin
307(2)
Ircinal A and Manzamine A
309(1)
Amphidinolide A
309(1)
Peptidomimetics
310(2)
Ring-Closing Ene-Yne Metathesis
312(2)
Cross-Metathesis in the Synthesis of Complex Molecules
314(2)
( -- )-Cylindrocyclophanes A and F
314(1)
Garsubellin A
315(1)
(+)-Brefeldin A
315(1)
ROMP in Complex Molecule Synthesis
316(2)
Conclusions
318(5)
References
319(4)
Vignette 1 The Olefin Metathesis Reaction in Complex Molecule Construction
323(15)
K. C. Nicolaou
Scott A. Snyder
Acknowledgments
334(1)
References
335(3)
Vignette 2 Applications of Ring-Closing Metathesis to Alkaloid Synthesis
338(15)
Stephen F. Martin
Introduction
338(1)
Methodological Studies
339(3)
Synthesis of Alkaloid Natural Products
342(8)
Conclusions
350(1)
Acknowledgments
351(1)
References
351(2)
Vignette 3 Radicicol and the Epothilones: Total Synthesis of Novel Anticancer Agents Using Ring-Closing Metathesis
353(8)
Jon T. Njardarson
Robert M. Garbaccio
Samuel J. Danishefsky
References
359(2)
The Use of Olefin Metathesis in Combinatorial Chemistry: Supported and Chromatography-Free Syntheses
361(42)
Andrew M. Harned
Donald A. Probst
Paul R. Hanson
Introduction
361(1)
Metathesis Reactions Toward Supported Synthesis and Library Generation
362(13)
Ring-Closing Metathesis (RCM)
362(7)
Cross-Metathesis (X-MET)
369(6)
Polymer-Supported Metathesis Catalysts
375(2)
ROMP-Based Strategies
377(19)
ROMPgel Reagents
378(8)
ROMP as a Purification Tool
386(4)
ROMPspheres
390(1)
ROM Polymers as Supports
391(5)
Conclusions
396(7)
Acknowledgements
399(1)
References
399(4)
Metal-Catalyzed Olefin Metathesis in Metal Coordination Spheres
403(29)
Eike B. Bauer
J. A. Gladysz
Introduction
403(1)
Earliest Literature
404(1)
Ferrocenes
405(5)
Sophisticated Target Molecules: Catenanes and Knots
410(4)
Systematic Investigation of Reaction Scope
414(6)
Additional Literature Examples
420(5)
Towards Additional Types of Sophisticated Target Molecules
425(4)
Summary
429(1)
Addendum
429(3)
Acknowledgments
429(1)
References
430(2)
Alkyne Metathesis
432(31)
Alois Furstner
Introduction
432(1)
Classical Catalyst Systems for Alkyne Metathesis
432(2)
Recent Advances in Catalyst Design
434(3)
Preparative Applications of Alkyne Metathesis
437(21)
Alkyne Homometathesis Reactions
437(2)
Alkyne Cross-Metathesis
439(4)
Ring-Closing Alkyne Metathesis (RCAM)
443(5)
Applications of RCAM to Natural Product Synthesis
448(8)
Post-Metathesis Transformations Other Than Lindlar Hydrogenation: Selective Synthesis of (E)-Alkenes and Heterocyclic Motifs
456(2)
Conclusions and Outlook
458(5)
References
459(4)
Metathesis of Silicon-Containing Olefins
463(28)
Bogdan Marciniec
Cezary Pietraszuk
Introduction
463(1)
Self-Metathesis of Alkenylsilanes
464(1)
Cross-Metathesis vs. Silylative Coupling (Trans-Silylation) of Alkenes with Vinylsilanes
464(6)
Cross-Metathesis of Allylsilanes with Alkenes
470(2)
Ring-Closing Metathesis of Silicon-Containing Dienes
472(4)
Ring-Opening Metathesis/Cross-Metathesis
476(2)
Polycondensation vs. Ring Closing of Divinyl-Substituted Silicon Compounds
478(3)
ADMET Polymerization of Silicon-Containing Dienes
481(2)
Ring-Opening Metathesis Polymerization of Silacycloalkenes
483(1)
Ring-Opening Metathesis Polymerization of Silyl-Substituted Cycloalkenes
483(2)
Degradation vs. Functionalization of Polymers
485(6)
References
486(5)
Commercial Applications of Ruthenium Metathesis Processes
491(1)
Richard L. Pederson
Introduction
491(1)
Fine Chemicals
491(4)
Agrochemicals: Insect Pheromones
492(2)
Polymer Additives
494(1)
Fuel Additives
494(1)
Drug Discovery
494(1)
Pharmaceutical Applications
495(10)
Future Directions for Metathesis
505(1)
Summary
506(1)
References
507
List of Contributors
xxi
Introduction
1(1)
Robert H. Grubbs
Living Ring-Opening Olefin Metathesis Polymerization
2(70)
Grainne Black
Declan Maher
Wilhelm Risse
Historic Overview of Living Polymerization Systems
2(2)
Definition of Living Polymerization and Relevant Terminology
4(2)
Introduction to ROMP
6(5)
Olefin Metathesis Catalysts for Living Polymerizations
11(61)
Titanacyclobutane Compounds
11(5)
Tantalum-Alkylidene and Tantalacyclobutane Complexes for Norbornene Polymerizations
16(1)
Tungsten Catalysts
17(4)
Imido Molybdenum-Alkylidene Complexes
21(12)
Imido Tungsten- and Molybdenum-Alkylidene Catalysts for ROMP of Monomers Containing Cyclobutene, Bicyclooctadiene, and Bicyclooctadiene Ring Systems
33(9)
Tungsten- and Molybdenum-Alkylidene Catalysts in Cyclopentene Polymerizations
42(1)
Paracyclophene Polymerizations
43(1)
Ruthenium Catalysts and Living ROMP
44(19)
Star-Shaped Polymers via ROMP
63(3)
References
66(6)
Synthesis of Copolymers
72(46)
Ezat Khosravi
Introduction
72(1)
Random Copolymers
72(4)
Block Copolymers
76(16)
Sequential Addition of Monomers
76(7)
Coupling Reaction
83(1)
Transformation of Propagating Species
84(6)
Application of Well-Defined Bimetallic Initiators
90(2)
Comb and Graft Copolymer
92(6)
Combination of ROMP and Anionic Polymerization
92(2)
Combination of ROMP and ATRP
94(1)
Combination of ROMP and Cationic Polymerization
95(1)
Combination of ROMP and Wittig-Type Reaction
96(1)
Repetitive ROMP
96(2)
Multi-Shaped Copolymers
98(5)
Alternating Copolymers
103(2)
Cross-Linked Copolymers
105(13)
Well-Defined, Cross-Linked System via Direct Copolymerization
105(5)
Cross-Linked Systems via Homopolymerization of Monomers with Cross-Linkable Side Chains
110(2)
Cross-Linked Material via Combination of ROMP and Oxidative Polymerization
112(1)
References
113(5)
Conjugated Polymers
118(25)
W. James Feast
Introduction
118(3)
Strategies for Applying ROMP in the Synthesis of Conjugated Polymers
121(1)
Direct Routes from Monomer to Conjugated Polymer Via Chain-Growth Processes
122(5)
Direct Routes from Monomer to Conjugated Polymer Via Step-Growth Processes
127(2)
Indirect Routes to Conjugated Polymer Via Processable Precursor Polymers
129(10)
Conclusions
139(4)
References
139(4)
Stereochemistry of Ring-Opening Metathesis Polymerization
143(37)
James G. Hamilton
Introduction
143(1)
Consequences of cis/trans Isomerism and Tacticity in ROMP Polymers
144(2)
Determination of the Stereochemistry of ROMP Polymers
146(10)
Cis/trans Double-Bond Ratio
146(3)
Tacticity
149(7)
Control and Interpretation of Stereochemistry
156(24)
Ratio and Distribution of cis and trans Double Bonds
156(13)
Tacticity
169(7)
References
176(4)
Syntheses and Applications of Bioactive Polymers Generated by Ring-Opening Metathesis Polymerization
180(46)
Laura L. Kiessling
Robert M. Owen
Introduction
180(3)
Synthesis of Biologically Active Polymeric Displays
183(20)
Carbohydrate-Containing Polymeric Displays
183(6)
Peptide-Substituted Polymers
189(4)
Synthesis of DNA/Polymer Conjugates via ROMP
193(2)
Synthesis of Drug/Polymer Conjugates via ROMP
195(1)
Post-Polymerization Modification Strategies
196(3)
End-Capping Strategies
199(4)
Applications of Biologically Active Polymeric Displays
203(17)
Protein-Carbohydrate Interactions
203(8)
Integrins and Cellular Adhesion
211(2)
Pathogenic Organisms
213(3)
Cell Clustering
216(1)
Bacterial Chemotaxis
216(4)
Conclusions
220(6)
References
222(4)
Metathesis Polymerization: A Versatile Tool for the Synthesis of Surface-Functionalized Supports and Monolithic Materials
226(29)
Michael R. Buchmeiser
Introduction
226(1)
Precipitation Polymerization-Based Techniques
226(4)
Grafting Techniques
230(9)
Coating Techniques
239(1)
Monolithic Supports
240(11)
Basics and Concepts
241(1)
Manufacture of Metathesis-Based Monolithic Supports
242(1)
Microstructure of Metathesis-Based Rigid Rods
242(3)
Functionalization, Metal Removal, and Metal Content
245(2)
Applications of Functionalized Metathesis-Based Monoliths in Catalysis
247(4)
Conclusions, Summary, and Outlook
251(4)
Acknowledgments
251(1)
References
251(4)
Telechelic Polymers from Olefin Metathesis Methodologies
255(28)
Christopher W. Bielawski
Marc A. Hillmyer
Introduction and Background
255(3)
Telechelic Polymers from Metathesis Polymerizations
258(5)
Molecular Weight and Functionality Control in a ROMP/CT System
260(3)
Syntheses and Applications of Telechelic Polymers Prepared Using Metathesis
263(16)
Synthesis of Telechelic Polymers Using Ill-Defined Catalysts
264(3)
Synthesis of Telechelic Polymers Using Well-Defined Metal Alkylidenes
267(10)
Synthesis of End-Functionalized Polymers Using Functionalized Initiators
277(2)
Conclusions and Outlook
279(4)
References
280(3)
ADMET Polymerization
283(71)
Stephen E. Lehman, Jr.
Kenneth B. Wagener
Introduction
283(5)
ADMET: The Metathesis Polycondensation Reaction
288(6)
Kinetics and Equilibrium Considerations
289(2)
Molecular Weight Distribution
291(1)
Interchange Reactions
291(1)
Cyclization vs. Polymerization
292(1)
Monomer Purity
293(1)
Early Observations in the Evolution of ADMET Polymerization: Reactions of Non-Conjugated Dienes with Classical Metathesis Catalysts
294(3)
ADMET of Non-Conjugated Hydrocarbon Dienes with Well-Defined Metathesis Catalysts
297(13)
Linear Terminal Dienes
297(3)
Branched Terminal Dienes
300(5)
Geminal Disubstituted Olefins
305(2)
1,2-Disubstituted Olefins
307(1)
Trisubstituted Olefins
308(2)
ADMET Copolymerization
310(1)
Synthesis of Conjugated Polymers via ADMET
311(5)
Polyacetylenes
311(2)
Polyphenylenevinylenes
313(2)
Other Conjugated Polymers
315(1)
ADMET Polymerization of Functionalized Dienes
316(13)
Ethers, Acetals, and Alcohols
318(1)
Amines
319(1)
Boronates
320(1)
Thioethers
321(1)
Carbonyl Compounds
322(3)
Halides
325(1)
Silicon Compounds
325(4)
Organometallic Compounds
329(1)
Retro-ADMET: Towards Recycling of Unsaturated Polymers with Well-Defined Metathesis Catalysts
329(2)
Telechelic Oligomers via ADMET
331(1)
Kinetics and Mechanism
332(6)
Modeling Polyolefins with ADMET
338(7)
Hydrogenation of ADMET Polymers
338(1)
Branched Polyethylene
339(3)
Functionalized Polyethylene
342(3)
Towards Biologically Useful Polymers via ADMET
345(2)
Solid-State Polymerization
347(1)
Conclusions and Outlook
347(7)
References
347(7)
Acyclic Diyne Metathesis Utilizing in Situ Transition Metal Catalysts: An Efficient Access to Alkyne-Bridged Polymers
354(21)
Uwe H. F. Bunz
Introduction
354(3)
Alkyne Metathesis
355(2)
ADIMET: Synthesis of Alkyne-Bridged Polymers
357(13)
Synthesis of PPEs by in situ ADIMET
360(3)
Synthesis of PPE-PPV Copolymers by in situ ADIMET
363(2)
Synthesis of Other PAEs by ADIMET
365(5)
Alkyne-Bridged Carbazole Polymers (PCE) by ADIMET
370(1)
Conclusions
370(5)
Acknowledgments
371(1)
References
371(4)
Polymerization of Substituted Acetylenes
375(32)
Toshio Masuda
Fumio Sanda
Introduction
375(3)
Polymerization Catalysts
378(6)
Mo and W Catalysts
378(3)
Nb and Ta Catalysts
381(1)
Rh Catalysts
382(2)
Other Group 8--10 Metal Catalysts
384(1)
Controlled Polymerizations
384(5)
Living Polymerization by Metal Halide-Based Metathesis Catalysts
385(2)
Living Polymerization by Single-Component Metal-Carbene Catalysts
387(1)
Stereospecific Living Polymerization by Rh Catalysts
388(1)
New Monomers and Functional Polymers
389(18)
Gas-Permeable Polyacetylenes
396(1)
Optically Active Polyacetylenes
397(2)
Other Functional Polyacetylenes
399(2)
References
401(6)
Commercial Applications of Ruthenium Olefin Metathesis Catalysts in Polymer Synthesis
407(12)
Mark S. Trimmer
Introduction
407(1)
Background
407(1)
New Developments
408(1)
Poly-DCPD
409(2)
Other ROMP Polymers
411(2)
Hydrogenated ROMP Polymers
413(1)
Depolymerization
414(1)
Summary
414(5)
References
414(5)
Index 419

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