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Macromolecular Engineering, Volume 1: Precise Synthesis, Materials Properties, Applications [Hardback]

Edited by (Carnegie Mellon University, Pittsburgh, USA), Edited by (CNRS, Pessac, France), Edited by (UMR 167 CNRS-ESPCI, Paris, France)
  • Formāts: Hardback, 2982 pages, height x width x depth: 246x183x165 mm, weight: 6042 g
  • Izdošanas datums: 23-Feb-2007
  • Izdevniecība: Blackwell Verlag GmbH
  • ISBN-10: 3527314466
  • ISBN-13: 9783527314461
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  • Formāts: Hardback, 2982 pages, height x width x depth: 246x183x165 mm, weight: 6042 g
  • Izdošanas datums: 23-Feb-2007
  • Izdevniecība: Blackwell Verlag GmbH
  • ISBN-10: 3527314466
  • ISBN-13: 9783527314461
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The four volumes of this impressive reference present up-to-date discussion of the world of macromolecular engineering in 65 chapters written by an international team of specialists. Vol.1 is devoted to the synthetic techniques used for preparing well-defined macromolecules--both organic and inorganic--with chapters on the biosynthesis of protein-based polymeric materials, segmented copolymers by mechanistic transformations, and polymerization under light and other external stimuli, among other topics. The elements of macromoleuclar architecture are the subject of Vol.2, with chapters on various aspects of microstructure control, functionalities, and non-linear topologies. Techniques used to achieve structure-property correlation and characterization are described in the 15 chapters of Vol.3, among them scanning calorimetry, chromatography, NMR spectroscopy, and high-throughput screening. The final volume is devoted to applications, where the story and processes associated with 18 significant and cutting edge applications are described, among them nanocomposites, tissue engineering, polymeric drugs, and polymer bioconjugates. The editors are Matyjaszewski (natural sciences, Carnegie Mellon U., Pittsburgh, PA), Yves Gnanou (polymeric chemistry, Bordeaux U., France), and Ludwik Leibler (Ecole de Physique et Chimie Industrielles, Paris, France). Annotation ©2007 Book News, Inc., Portland, OR (booknews.com)

The book provides a state of the art description of the synthetic tools to precisely control various aspects of macromolecular structure including chain composition, microstructure, functionality and topology as well as modern characterization techniques at molecular and macroscopic level for various properties of well-defined (co)polymers in solution, bulk and at surfaces. The book addresses also the correlation of molecular structure with macroscopic properties additionally affected by processing. Finally, some emerging applications for the (co)polymers are highlighted.
Preface xxv
List of Contributors
xxvii
Volume 1 Synthetic Techniques
Macromolecular Engineering
1(6)
Krzysztof Matyjaszewski
Yves Gnanou
Ludwik Leibler
Anionic Polymerization of Vinyl and Related Monomers
7(50)
Michel Fontanille
Yves Gnanou
Introduction
7(1)
General Features of Anionic Polymerization
8(9)
Polymerizability of Vinyl and Related Monomers
9(2)
Various Parameters Influencing the Structure and Reactivity of Active Centers
11(1)
Influence of the Type of Monomer
12(1)
Influence of the Nature of Solvent
13(2)
Influence of Additives
15(1)
Influence of the Counterion
16(1)
Experimental Constraints Related to Anionic Polymerization
17(1)
Initiation of Anionic Polymerizations
17(13)
Initiation by Electron Transfer
18(1)
Initiation by Nucleophilic Addition to the Double Bond
19(1)
In Polar Solvents
19(2)
In Nonpolar Solvents
21(4)
Bi- and Multifunctional Initiators
25(4)
Initiation by Alkoxides and Silanolates
29(1)
Initiation of the Polymerization of Alkyl (Meth)acrylates by Group Transfer
29(1)
Propagation Step
30(12)
Kinetics of the Propagation Step
31(1)
Kinetics of Polymerization in Non-polar Solvents
31(3)
Polymerizations Carried Out in Polar Media
34(2)
Anionic Polymerization of (Meth)acrylic Monomers
36(1)
General Characteristics
36(1)
Propagation by Group Transfer
37(1)
Anionic Copolymerization
38(1)
Regio- and Stereoselectivity in Anionic Polymerization
39(1)
Cases of Conjugated Dienes
39(1)
Case of Vinyl and Related Monomers
40(2)
Persistence of Active Centers
42(3)
Case of Polystyrenic Carbanions
43(1)
Case of Polydiene Carbanions
44(1)
Case of (Meth)acrylic Polymers
44(1)
Application of Anionic Polymerization to Macromolecular Synthesis
45(12)
Prediction of Molar Masses and Control of Their Dispersion
46(1)
Functionalization of Chain Ends
46(1)
Synthesis of Graft and Block Copolymers
47(1)
Star Polymers
48(1)
Macrocyclic Polymers
49(1)
References
50(7)
Carbocationic Polymerization
57(46)
Priyadarsi De
Rudolf Faust
Introduction
57(1)
Mechanistic and Kinetic Details of Living Cationic Polymerization
58(2)
Living Cationic Polymerization
60(1)
Monomers and Initiating Systems
61(1)
Additives in Living Cationic Polymerization
61(9)
Isobutene (IB)
62(2)
β-Pinene
64(1)
Styrene (St)
65(1)
p-Methylstyrene (p-MeSt)
65(1)
p-Chlorostyrene (p-ClSt)
66(1)
2,4,6-Trimethylstyrene (TMeSt)
66(1)
p-Methoxystyrene (p-MeOSt)
66(1)
α-Methylstyrene (αMeSt)
67(1)
Indene
67(1)
N-Vinylcarbazole
68(1)
Vinyl Ethers
68(2)
Functional Polymers by Living Cationic Polymerization
70(4)
Functional Initiator Method
70(2)
Functional Terminator Method
72(2)
Telechelic Polymers
74(2)
Macromonomers
76(4)
Synthesis Using a Functional Initiator
76(2)
Synthesis Using a Functional Capping Agent
78(2)
Chain-end Modification
80(1)
Block Copolymers
80(13)
Linear Diblock Copolymers
81(3)
Linear Triblock Copolymers
84(1)
Synthesis Using Difunctional Initiators
84(1)
Synthesis Using Coupling Agents
85(1)
Block Copolymers with Nonlinear Architecture
86(1)
Synthesis of AnBn Hetero-arm Star-block Copolymers
87(1)
Synthesis of AA'B, ABB' and ABC Asymmetric Star-block Copolymers Using Furan Derivatives
87(2)
Block Copolymers Prepared by the Combination of Different Polymerization Mechanisms
89(1)
Combination of Cationic and Anionic Polymerization
89(1)
Combination of Living Cationic and Anionic Ring-opening Polymerization
90(2)
Combination of Living Cationic and Radical Polymerization
92(1)
Branched and Hyperbranched Polymers
93(1)
Surface-initiated Polymerization: Polymer Brushes
94(1)
Conclusions
94(9)
References
95(8)
Ionic and Coordination Ring-opening Polymerization
103(58)
Stanislaw Penczek
Andrzej Duda
Przemyslaw Kubisa
Stanislaw Slomkowski
Introduction
103(3)
Thermodynamics of Ring-opening Polymerization
106(3)
Equilibrium Monomer Concentration -- Ceiling/Floor Temperatures
106(1)
Recent Results Related to Thermodynamics of Ring-opening Polymerization
107(1)
Thermodynamics of γ-Butyrolactone (Co)polymerization
107(1)
Copolymerization of Lactide at the Polymer--Monomer Equilibrium
108(1)
Basic Mechanistic Features of Ring-opening Polymerization
109(37)
Anionic and Coordination Ring-opening Polymerization of Cyclic Ethers and Sulfides
109(1)
Initiators and Initiation
109(1)
Active Centers -- Structures and Reactivities
110(1)
Controlled Anionic and Coordination Polymerization of Oxiranes
111(2)
Stereocontrolled Polymerization of Chiral Oxiranes
113(1)
Controlled Synthesis of Aliphatic Polyesters by Anionic and Coordination Ring-opening Polymerization
114(1)
Initiators and Active Centers -- Structures and Reactivities
114(4)
Controlled Polymerization of Cyclic Esters with ``Multiple-site'' Metal Alkoxides and Carboxylates
118(3)
Controlled Polymerization of Cyclic Esters with ``Single-site'' Metal Alkoxides
121(1)
Poly(β-hydroxybutyrate)s by Carbonylation of Oxiranes
121(1)
Stereocontrolled Polymerization of Chiral Cyclic Esters
122(4)
Stereocomplexes of Aliphatic Polyesters
126(1)
Controlled Synthesis of Aliphatic Polycarbonates by Anionic and Coordination Ring-opening Polymerization
127(2)
Controlled Synthesis of Branched and Star-shaped Polyoxiranes and Polyesters
129(1)
Anionic Polymerization of Oxiranes
129(2)
Coordination Polymerization of Cyclic Esters
131(1)
Controlled Synthesis of Polyamides by Anionic and Coordination Ring-opening Polymerization
132(1)
Polymerization of Lactams
132(2)
Polymerization of N-Carboxyanhydrides of α-Amino Acids (NCAs)
134(2)
Cationic Ring-opening Polymerization
136(1)
Propagation in Cationic Ring-opening Polymerization
137(1)
Chain Transfer to Polymer in Cationic Ring-opening Polymerization
138(2)
Activated Monomer Mechanism in Cationic Ring-opening Polymerization of Cyclic Ethers and Esters
140(4)
Branched and Star-shaped Polymers Prepared by Cationic Ring-opening Polymerization
144(1)
Cationic Polymerization of Cyclic Imino Ethers (Oxazolines)
145(1)
Dispersion Ring-opening Polymerization
146(3)
Conclusion
149(12)
References
150(11)
Radical Polymerization
161(56)
Krzysztof Matyjaszewski
Wade A. Braunecker
Introduction
161(1)
Typical Features of Radical Polymerization
162(9)
Fundamentals of Organic Radicals
162(1)
Elementary Reactions and Kinetics
163(2)
Copolymerization
165(1)
Monomers
166(1)
Initiators for RP
166(2)
Additives
168(1)
Typical Conditions for RP
168(1)
Commercially Important Polymers by RP
169(1)
Polyethylene
169(1)
Polystyrene
169(1)
Poly(vinyl chloride) (PVC)
170(1)
Poly(meth)acrylates
170(1)
Other polymers
170(1)
Controlled/Living Radical Polymerization
171(2)
General Concepts
171(1)
Similarities and Differences Between RP and CRP
172(1)
SFRP and NMP Systems -- Examples and Peculiarities
173(3)
Monomers and Initiators
174(1)
General Conditions
175(1)
Controlled Architectures
175(1)
Other SFRP Systems
175(1)
ATRP -- Examples and Peculiarities
176(6)
Basic ATRP Components
177(1)
Monomers
177(1)
Initiators
178(1)
Transition Metal Complexes as ATRP Catalysts
179(1)
Conditions
180(2)
Controlled Architectures
182(1)
Degenerative Transfer Processes and RAFT
182(3)
Monomers and Initiators
184(1)
Transfer Agents
185(1)
Controlled Architectures
185(1)
Relative Advantages and Limitations of SFRP, ATRP and DT Processes
185(2)
SFRP
186(1)
ATRP
186(1)
RAFT and Other DT Processes
186(1)
Controlled Polymer Architectures by CRP: Topology
187(6)
Linear Chains
188(1)
Star-like Polymers
188(1)
Comb-like Polymers
189(2)
Branched and Hyperbranched Polymers
191(1)
Dendritic Structures
192(1)
Polymer Networks and Microgels
192(1)
Cyclic Polymers
192(1)
Chain Composition
193(7)
Statistical Copolymers
193(1)
Segmented Copolymers (Block, Grafts and Multisegmented Copolymers)
193(1)
Block Copolymers by a Single CRP Method
193(1)
Block Copolymers by Combination of CRP Methods
194(1)
Block Copolymerization by Site Transformation and Dual Initiators
195(1)
Multisegmented Block Copolymers
196(1)
Stereoblock Copolymers
197(1)
Graft Copolymers
197(2)
Periodic Copolymers
199(1)
Gradient Copolymers
199(1)
Molecular Hybrids
199(1)
Templated Systems
200(1)
Functional Polymers
200(3)
Polymers with Side Functional Groups
201(1)
End-group Functionality: Initiators
202(1)
End-group Functionality Through Conversion of Dormant Chain End
202(1)
Applications of Materials Prepared by CRP
203(2)
Polymers with Controlled Compositions
204(1)
Polymers with Controlled Topology
204(1)
Polymers with Controlled Functionality
204(1)
Hybrids
205(1)
Outlook
205(12)
Mechanisms
205(1)
Molecular Architecture
206(1)
Characterization
207(1)
Structure--Property Relationship
207(1)
Acknowledgments
207(1)
References
208(9)
Coordination Polymerization: Synthesis of New Homo- and Copolymer Architectures from Ethylene and Propylene using Homogeneous Ziegler--Natta Polymerization Catalysts
217(32)
Andrew F. Mason
Geoffrey W. Coates
Introduction, Historical Perspective and Scope of Review
217(1)
Primer on the Homogeneous Coordination Polymerization of Olefins
218(4)
Nature of the Active Species and Mechanism of Initiation
218(1)
Mechanism of Propagation
219(1)
Mechanisms of Termination and Chain Transfer
220(2)
Ethylene-based Polymers
222(2)
Propylene-based Polymers
224(11)
Atactic, Isotactic and Syndiotactic Polypropylene
224(2)
Hemiisotactic Polypropylene
226(1)
Stereoblock Polypropylene
226(7)
Graft and Star Polypropylene
233(2)
Ethylene--Propylene Copolymers
235(7)
Random Ethylene--Propylene Copolymers
235(1)
Alternating Ethylene--Propylene Copolymers
235(3)
Ethylene--Propylene Block Copolymers
238(3)
Ethylene--Propylene Graft Copolymers
241(1)
Summary and Outlook
242(7)
References
243(6)
Recent Trends in Macromolecular Engineering
249(46)
Damien Quemener
Valerie Heroguez
Yves Gnanou
Introduction
249(1)
The March Towards Well-defined/Selective Catalysts for ROMP
250(7)
Discovery of Olefin Metathesis and its Mechanism
250(2)
Development of Well-defined ROMP Initiators
252(5)
Macromolecular Engineering Using ROMP
257(16)
Block Copolymers by ROMP and Combination of ROMP with Other ``Living'' Polymerizations
258(4)
Graft Copolymers by ROMP with Other ``Living'' Polymerizations
262(1)
ROMP/ROMP
262(1)
Anionic Polymerization/ROMP
263(2)
Cationic Polymerization/ROMP
265(1)
ATRP/ROMP
265(1)
ROP/ROMP
266(1)
ROMP/ROP/ATRP
267(1)
Star Polymers by ROMP
268(5)
ROMP in Dispersed Medium
273(7)
Emulsion ROMP
274(2)
Dispersion ROMP
276(1)
Suspension ROMP
277(1)
Miniemulsion ROMP
278(2)
Advanced Materials by ROMP
280(10)
Liquid Crystalline Polymers
280(1)
Conjugated and Electroactive Polymers
281(2)
Monolithic Supports
283(1)
Supported Catalysts
284(2)
Biological Materials
286(4)
Hybrid Materials/Particles
290(1)
Conclusion
290(5)
References
290(5)
Polycondensation
295(56)
Tsutomu Yokozawa
Monomer Reactivity Control (Stoichiometric-imbalanced Polycondensation)
295(8)
Polycondensation of α,α-Dihalogenated Monomers
296(2)
Pd-catalyzed Polycondensation
298(1)
Crystallization Polycondensation
299(3)
Nucleation--Elongation Polycondensation
302(1)
Sequence Control
303(7)
Sequential Polymers from Symmetrical and Unsymmetrical Monomers
304(4)
Sequential Polymers from Two Unsymmetrical Monomers
308(1)
Sequential Polymers from Two Symmetrical Monomers and One Unsymmetrical Monomer
309(1)
Sequential Polymers from Two Symmetrical Monomers and Two Unsymmetrical Monomers
310(1)
Molecular Weight and Polydispersity Control
310(14)
Transfer of Reactive Species
311(5)
Different Substituent Effects Between Monomer and Polymer
316(1)
Resonance Effect (Polymerization of para-Substituted Monomers)
316(5)
Inductive Effect (meta-Substituted Monomers)
321(1)
Transfer of Catalyst
322(2)
Chain Topology and Polymer Morphology Control
324(10)
Cyclic Polymers
324(2)
Hyperbranched Polymers
326(1)
Polyphenylene
326(1)
Polyester
326(2)
Polyamide
328(1)
Polyether
329(1)
Poly(Ether Ketone) and Poly(Ether Sulfone)
330(1)
Poly(Ether Imide)
331(1)
Polyurethane and Polyurea
332(1)
Polymer Morphology Control
332(2)
Condensation Polymer Architecture
334(17)
Block Copolymers
334(1)
Block Copolymers of Condensation Polymers
334(3)
Block Copolymers of Condensation Polymers and Coil Polymers
337(6)
Star Polymers
343(1)
Graft Polymers
344(1)
References
345(6)
Supramolecular Polymer Engineering
351(50)
G. B. W. L. Ligthart
Oren A. Scherman
Rint P. Sijbesma
E. W. Meijer
Introduction
351(1)
General Aspects of Supramolecular Polymers
352(4)
Non-covalent Interactions
356(5)
Hydrogen Bonds
356(4)
Solvophobic and Coulombic Interactions
360(1)
Supramolecular Polymers
361(26)
Small Building Blocks
361(1)
Supramolecular Polymers Based on Liquid Crystalline Monomers
362(1)
Supramolecular Polymers in Isotropic Solution
363(10)
Large Building Blocks
373(1)
Main-chain Supramolecular Polymers
374(4)
Supramolecular Block Copolymers
378(2)
Side-chain Supramolecular Polymers
380(5)
Applications Based on Supramolecular UPy Materials
385(2)
Ring--Chain Equilibria in Supramolecular Polymers
387(5)
Conclusions and Outlook
392(9)
References
393(8)
Polymer Synthesis and Modification by Enzymatic Catalysis
401(78)
Shiro Kobayashi
Masashi Ohmae
Introduction
401(1)
Characteristics of Enzymatic Catalysis
402(2)
Synthesis of Poly(aromatic)s Catalyzed by Oxidoreductases
404(16)
Synthesis of Polymers from Phenolic Compounds
405(1)
Polymers from Unsubstituted Phenol
406(2)
Polymers from Substituted Phenols
408(5)
Polymerization of Phenols Catalyzed by Enzyme Model Complexes
413(1)
Synthesis of Polymers from Polyphenols
414(1)
Polymers from Catechol Derivatives
414(3)
Polymers from Flavonoids
417(1)
Synthesis of Polyaniline and Its Derivatives
418(2)
Synthesis of Vinyl Polymers Catalyzed by Oxidoreductases
420(2)
Synthesis of Polysaccharides Catalyzed by Hydrolases
422(17)
Synthesis of Polysaccharides via Polycondensation
422(1)
Cellulose and Its Derivatives
422(5)
Xylan
427(1)
Amylose Oligomers
427(1)
Hybrid Polysaccharides
428(1)
Oligo- and Polysaccharide Synthesis by Mutated Enzymes
429(1)
Synthesis of Polysaccharides via Ring-opening Polyaddition
430(1)
Chitin and its Derivatives
431(4)
Glycosaminoglycans
435(2)
Unnatural Hybrid Polysaccharides
437(2)
Synthesis of Polyesters Catalyzed by Hydrolases, Mainly by Lipases
439(22)
Polyesters via Ring-opening Polymerization
439(1)
Ring-opening Polymerization of Lactones
439(13)
Ring-opening Polymerization of Other Cyclic Monomers
452(2)
Polyesters via Polycondensation
454(1)
Polycondensation of Dicarboxylic Acids and Their Derivatives with Glycols
454(4)
Polycondensation of Oxyacid Derivatives
458(1)
Synthesis of Functional Polyesters
459(2)
Modification of Polymers by Enzymatic Catalysis
461(5)
Modification of Polysaccharides
462(3)
Modification of Other Polymers
465(1)
Conclusion
466(13)
References
467(12)
Biosynthesis of Protein-based Polymeric Materials
479(40)
Robin S. Farmer
Manoj B. Charati
Kristi L. Kiick
Protein Polymers That Mimic Natural Proteins
481(11)
Silk
481(3)
Elastin
484(2)
Elastin-like Polypeptide Copolymers
486(1)
Silk--Elastin-like Polypeptides
487(1)
Applications of ELPs
488(1)
Collagen
489(2)
Other Naturally Occurring Proteins
491(1)
Resilin
491(1)
Mussel Adhesive Plaque Protein and Glutenin
491(1)
Protein Polymers of De Novo Design
492(4)
β-Sheet-forming Protein Polymers
492(1)
Liquid Crystals
493(1)
Coiled Coils
494(1)
Helical Protein Polymers
495(1)
Non-structured Protein Polymers
495(1)
Proteins Containing Non-natural Amino Acids
496(14)
Synthetic Methodologies
496(1)
Chemical Synthesis
496(2)
In Vitro Suppression Strategies
498(1)
In Vivo Suppression Strategies
498(1)
Multisite Incorporation of Non-natural Amino Acids into Protein Polymers In Vivo
499(4)
Types of Chemically Novel Amino Acids Incorporated into Protein Polymers
503(1)
Halide-functionalized Side-chains
503(2)
Azide-functionalized Side-chains
505(2)
Ketone-functionalized Side-chains
507(1)
Alkyne- and Alkene-functionalized Side-chains
507(1)
Photoreactive Side-chains
508(1)
Unsaturated and Structural Amino Acid Analogues
508(2)
Prospects for Protein-based Polymers
510(9)
References
512(7)
Macromolecular Engineering of Polypeptides Using the Ring-opening Polymerization-Amino Acid N-Carboxyanhydrides
519(22)
Harm-Anton Klok
Timothy J. Deming
Introduction
519(1)
Polymerization of α-Amino Acid N-Carboxyanhydrides
520(5)
Conventional Methods
520(2)
Transition Metal-mediated NCA Polymerization
522(1)
Other NCA Polymerization Methods
522(3)
Block Copolymers
525(6)
Block Copolypeptides
525(1)
Conventional NCA Polymerization
525(3)
Controlled NCA Polymerizations
528
Hybrid Block Copolymers
526(1)
Conventional NCA Polymerization
526(2)
Controlled NCA Polymerizations
528(3)
Star Polypeptides
531(2)
Conventional NCA Polymerization
531(2)
Controlled NCA Polymerizations
533(1)
Graft and Hyperbranched Polypeptides
533(4)
Summary and Conclusions
537(4)
References
539(2)
Segmented Copolymers by Mechanistic Transformations
541(64)
M. Atilla Tasdelen
Yusuf Yagci
Introduction
541(4)
Direct Transformations
545(1)
Indirect Transformation
546(44)
Transformations Involving Condensation Polymerization
546(1)
Condensation Polymerization to Conventional Radical Polymerization
547(2)
Condensation Polymerization to Controlled Radical Polymerization
549(2)
Macrocyclic Polymerization to Condensation Polymerization
551(1)
Condensation Polymerization to Anionic Coordination-Insertion Polymerization
552(1)
Transformations Involving Suzuki and Yamamoto Polycondensations
553(2)
Transformation of Anionic Polymerization to Radical Transformation
555(1)
Anionic Polymerization to Conventional Radical Polymerization
555(1)
Anionic Polymerization to Controlled Radical Polymerization
556(7)
Transformation of Cationic Polymerization to Radical Polymerization
563(1)
Cationic Polymerization to Conventional Radical Transformation
563(5)
Cationic Polymerization to Controlled Radical Transformation
568(4)
Transformation of Radical Polymerization to Anionic Polymerization
572(1)
Conventional Radical Polymerization to Anionic Polymerization
572(1)
Controlled Radical Polymerization to Anionic Polymerization
573(1)
Transformation of Radical Polymerization to Cationic Polymerization
574(4)
Transformations Involving Anionic and Cationic Polymerizations
578(5)
Transformations Involving Activated Monomer Polymerization
583(2)
Transformations Involving Metathesis Polymerization
585(1)
Transformations Involving ZieglerNatta Polymerization
586(3)
Transformations Involving Group Transfer Polymerization
589(1)
Coupling Reactions and Concurrent Polymerizations
590(3)
Conclusions
593(12)
References
594(11)
Polymerizations in Aqueous Dispersed Media
605(38)
Bernadette Charleux
Francois Ganachaud
Introduction
605(1)
Aqueous Suspension Polymerization
606(7)
Conventional Free Radical Polymerization
606(1)
Controlled/Living Free Radical Polymerization
607(1)
Nitroxide-mediated Controlled Free Radical Polymerization (NMP)
607(1)
Atom-transfer Radical Polymerization (ATRP)
607(1)
Other Controlled Free Radical Polymerization Methods
608(1)
Ring-opening Metathesis Polymerization (ROMP)
608(1)
Ionic Polymerizations
608(1)
Oil-in-Water Processes
608(2)
Water-in-Oil Processes
610(1)
Polycondensation/Polyaddition
610(1)
Phase-transfer Catalysis
610(2)
Preparation of Microcapsules
612(1)
Aqueous Miniemulsion Polymerization
613(13)
Conventional Free Radical Polymerization
613(2)
Controlled/Living Free Radical Polymerization
615(1)
Nitroxide-mediated Controlled Free Radical Polymerization
615(2)
Atom-transfer Radical Polymerization
617(2)
Control via Reversible Chain Transfer
619(1)
Other Controlled Free Radical Polymerization Methods
620(1)
Ring-opening Metathesis Polymerization
620(1)
Catalytic Polymerization of Ethylene and Butadiene
621(1)
Ionic Polymerization
622(1)
Irreversible Deactivation of the Chain Ends by Water
622(1)
Reversible Deactivation of the Chain Ends by Water
623(2)
Polycondensation/Polyaddition Reactions
625(1)
Aqueous Emulsion Polymerization
626(7)
Conventional Free Radical Polymerization
626(3)
Controlled/Living Free Radical Polymerization
629(1)
Nitroxide-mediated Controlled Free Radical Polymerization
629(1)
Atom-transfer Radical Polymerization
630(1)
Control via Reversible Addition--Fragmentation Chain Transfer
630(2)
Ring-opening Metathesis Polymerization
632(1)
Catalytic Polymerization of Ethylene
632(1)
Ionic Polymerization
632(1)
Polymerization in Surfactant Templates
633(3)
Microemulsion Polymerization
633(1)
Conventional Free Radical Polymerization
633(1)
Controlled Free Radical Polymerization
634(1)
Ionic Polymerization
635(1)
Polycondensation
635(1)
Polymerization in Vesicles
635(1)
Conclusions
636(7)
References
636(7)
Polymerization Under Light and Other External Stimuli
643(30)
Jean Pierre Fouassier
Xavier Allonas
Jacques Lalevee
Introduction
643(1)
Background
643(2)
Photopolymerization Reactions
643(1)
Light Sources
644(1)
Absorption of Light
645(1)
Initiation Step
645(1)
Photoinitiators and Photosensitizers
645(4)
Photoinitiators
646(1)
Direct Production of Reactive Species
646(1)
Radical Photoinitiators
646(1)
Cationic Photoinitiators
646(1)
Anionic Photoinitiators
647(1)
Photoacid and Photobase Generators
647(1)
Absorption Spectra
647(1)
Excited State Reactivity
648(1)
Photosensitizers
648(1)
Processes
648(1)
Examples
648(1)
Properties of Photoinitiators and Photosensitizers
649(1)
Monomers and Oligomers
649(3)
Various Systems
650(1)
Radical Monomers and Oligomers
650(1)
Cationic Monomers and Oligomers
650(1)
Current Developments
650(1)
General Properties
651(1)
Brief Overview of Applications in UV Curing
652(1)
Photochemical/Chemical Reactivity and Final Properties
653(11)
Different Aspects of Photopolymerization Reactions
653(1)
Examples
653(2)
Functional Properties
655(2)
Some Typical Reactions of Industrial Interest in the UV Curing Area
657(4)
Kinetics and Efficiency of the Photopolymerization Reaction
661(1)
Overall Processes
661(1)
Monitoring of the Photopolymerization Reaction
661(1)
Kinetics of Photopolymerization
662(1)
Photochemical and Chemical Reactivity
663(1)
Electron Beam, Microwave, Gamma Rays, Plasma and Pressure Stimuli Compared with Temperature and Light
664(2)
Conclusion
666(7)
References
667(6)
Inorganic Polymers with Precise Structures
673(58)
David A. Rider
Ian Manners
Metal-containing Polymers
673(3)
Introduction
673(1)
Chain Growth Polymerizations
674(1)
Living Polymerizations and Controlled Polymerizations
675(1)
Use of Nitroxide-mediated Radical Polymerization
676(5)
Introduction
676(1)
Nitroxide-mediated Radical Polymerization Routes to Ligand Functional Homopolymers
677(1)
Nitroxide-mediated Radical Polymerization Routes to Ligand Functional Block Copolymers
678(2)
Nitroxide-mediated Radical Polymerization of Metallomonomers
680(1)
Nitroxide-mediated Radical Polymerization of Metallomonomers to Prepare Block Copolymers
680(1)
Use of Atom-transfer Radical Polymerization (ATRP)
681(5)
Introduction
681(1)
Atom-transfer Radical Polymerization to Ligand Functional Homopolymers
682(1)
Atom-transfer Radical Polymerization Routes to Ligand Functional Block Copolymers
682(2)
Atom-transfer Radical Polymerization of Metallomonomers
684(1)
Use of Atom-transfer Radical Polymerization of Metallomonomers to Prepare Block Copolymers
685(1)
Use of Reversible Addition Fragmentation Termination (RAFT) Polymerization
686(2)
Introduction
686(1)
Reversible Addition Fragmentation Termination Polymerization to Prepare Ligand Functional Block Copolymers
687(1)
Use of Living Cationic Polymerization
688(2)
Use of Living Anionic Polymerization
690(6)
Introduction
690(1)
Living Anionic Polymerization Routes to Ligand Functional Homopolymers
691(1)
Living Anionic Polymerization Routes to Ligand Functional Block Copolymers
691(1)
Living Anionic Polymerization of Metallomonomers
692(2)
Living Anionic Polymerization of Metallomonomers to Prepare Block Copolymers
694(2)
Use of Metathesis Polymerization
696(8)
Introduction
696(1)
Metathesis Polymerization Routes to Ligand Functional Block Copolymers
697(1)
Metathesis Polymerization of Metallomonomers
697(5)
Use of Metathesis Polymerization of Metallomonomers to Prepare Block Copolymers
702(2)
Indirect Sequential Polymerization Routes to Metal-containing Block Copolymers
704(3)
Routes to Metallo-linked Block Copolymers
707(2)
Routes to Metal-centered Star- and Star-block Copolymers
709(3)
Applications of Metal-containing Polymers with Precise Structures
712(5)
Polymers Based on Main Group Elements
717(9)
Introduction
717(1)
Polysiloxanes
718(2)
Polysilanes
720(4)
Polyphosphazenes
724(2)
Conclusions and Outlook
726(5)
References
727(4)
Volume 2 Elements of Macromolecular Structural Control
Tacticity
731(44)
Tatsuki Kitayama
Synthesis of Macromonomers and Telechelic Oligomers by Living Polymerizations
775(38)
Bernard Boutevin
Cyrille Boyer
Ghislain David
Pierre Lutz
Statistical, Alternating and Gradient Copolymers
813(26)
Bert Klumperman
Multisegmental Block/Graft Copolymers
839(36)
Constantinos Tsitsilianis
Controlled Synthesis and Properties of Cyclic Polymers
875(34)
Alain Deffieux
Redouane Borsali
Polymers with Star-related Structures
909(64)
Nikos Hadjichristidis
Marinos Pitsikalis
Hermis latrou
Linear Versus (Hyper)branched Polymers
973(34)
Hideharu Mori
Axel H. E. Muller
Peter F. W. Simon
From Stars to Microgels
1007(50)
Daniel Taton
Molecular Design and Self-assembly of Functional Dendrimers
1057(46)
Wei-Shi Li
Woo-Dong Jang
Takuzo Aida
Molecular Brushes -- Densely Grafted Copolymers
1103(34)
Brent S. Sumerlin
Krzysztof Matyjaszewski
Grafting and Polymer Brushes on Solid Surfaces
1137(42)
Takeshi Fukuda
Yoshinobu Tsujii
Kohji Ohno
Hybrid Organic Inorganic Objects
1179(30)
Stefanie M. Gravano
Timothy E. Patten
Core--Shell Particles
1209(40)
Anna Musyanovych
Katharina Landfester
Polyelectrolyte Multilayer Films -- A General Approach to (Bio)functional Coatings
1249(58)
Nadia Benkirane-Jessel
Philippe Lavalle
Vincent Ball
Joelle Ogier
Bernard Senger
Catherine Picart
Pierre Schaaf
Jean-Claude Voegel
Gero Decher
Bio-inspired Complex Block Copolymers/Polymer Conjugates and Their Assembly
1307(34)
Markus Antonietti
Hans G. Borner
Helmut Schlaad
Complex Functional Macromolecules
1341(46)
Zhiyun Chen
Chong Cheng
David S. Germack
Padma Gopalan
Brooke A. van Horn
Shrinivas Venkataraman
Karen L. Wooley
Volume 3 Structure-Property Correlation and Characterization Techniques
Self-assembly and Morphology Diagrams for Solution and Bulk Materials: Experimental Aspects
1387(44)
Vahik Krikorian
Youngjong Kang
Edwin L. Thomas
Simulations
1431(40)
Denis Andrienko
Kurt Kremer
Transport and Electro-optical Properties in Polymeric Self-assembled Systems
1471(44)
Olli Ikkala
Gerrit ten Brinke
Atomic Force Microscopy of Polymers: Imaging, Probing and Lithography
1515(60)
Sergei S. Sheiko
Martin Moller
Scattering from Polymer Systems
1575(30)
Megan L. Ruegg
Nitash P. Balsara
From Linear to (Hyper) Branched Polymers: Dynamics and Rheology
1605(44)
Thomas C. B. McLeish
Determination of Bulk and Solution Morphologies by Transmission Electron Microscopy
1649(38)
Volker Abetz
Richard J. Spontak
Yeshayahu Talmon
Polymer Networks
1687(44)
Karel Dusek
Miroslava Duskova-Smrckova
Block Copolymers for Adhesive Applications
1731(22)
Costantino Creton
Reactive Blending
1753(30)
Robert Jerome
Predicting Mechanical Performance of Polymers
1783(98)
Han E.H. Meijer
Leon E. Govaert
Tom A.P. Engels
Scanning Calorimetry
Rene Androsch
Bernhard Wunderlich
Chromatography of Polymers
1881(56)
Wolfgang Radke
NMR Spectroscopy
1937(30)
Hans Wolfgang Spiess
High-throughput Screening in Combinatorial Polymer Research
1967(34)
Michael A. R. Meier
Richard Hoogenboom
Ulrich S. Schubert
Volume 4 Applications
Applications of Thermoplastic Elastomers Based on Styrenic Block Copolymers
2001(32)
Dale L. Handlin, Jr.
Scott Trenor
Kathryn Wright
Nanocomposites
2033(38)
Michael Alexandre
Philippe Dubois
Polymer/Layered Filler Nanocomposites: An Overview from Science to Technology
2071(64)
Masami Okamoto
Polymeric Dispersants
2135(46)
Frank Pirrung
Clemens Auschra
Polymeric Surfactants
2181(44)
Henri Cramail
Eric Cloutet
Karunakaran Radhakrishnan
Molecular and Supramolecular Conjugated Polymers for Electronic Applications
2225(38)
Andrew C. Grimsdale
Klaus Mullen
Polymers for Microelectronics
2263(32)
Christopher W. Bielawski
C. Grant Willson
Applications of Controlled Macromolecular Architectures to Lithography
2295(36)
Daniel Bratton
Ramakrishnan Ayothi
Nelson Felix
Christopher K. Ober
Microelectronic Materials with Hierarchical Organization
2331(38)
G. Dubois
R. D. Miller
James L. Hedrick
Semiconducting Polymers and their Optoelectronic Applications
2369(40)
Nicolas Leclerc
Thomas Heiser
Cyril Brochon
Georges Hadziioannou
Polymer Encapsulation of Metallic and Semiconductor Nanoparticles: Multifunctional Materials with Novel Optical, Electronic and Magnetic Properties
2409(42)
Jeffrey Pyun
Todd Emrick
Polymeric Membranes for Gas Separation, Water Purification and Fuel Cell Technology
2451(42)
Kazukiyo Nagai
Young Moo Lee
Toshio Masuda
Utilization of Polymers in Sensor Devices
2493(48)
Basudam Adhikari
Alok Kumar Sen
Polymeric Drugs
2541(56)
Tamara Minko
Jayant J. Khandare
Sreeja Jayant
From Biomineralization Polymers to Double Hydrophilic Block and Graft Copolymers
2597(48)
Helmut Colfen
Applications of Polymer Bioconjugates
2645(44)
Joost A. Opsteen
Jan C. M. van Hest
Gel: a Potential Material as Artificial Soft Tissue
2689(30)
Yong Mei Chen
Jian Ping Gong
Yoshihito Osada
Polymers in Tissue Engineering
2719(24)
Jeffrey A. Hubbell
IUPAC Polymer Terminology and Macromolecular Nomenclature 2743(4)
R. F. T. Stepto
Subject Index 2747


Krzysztof Matyjaszewski is currently J.C. Warner University Professor of Natural Sciences at Carnegie Mellon University in Pittsburgh, USA. He is also Director of Center for Macromolecular Engineering at CMU and adjunct professor at University of Pittsburgh and at Polish Academy of Sciences. He is the editor of "Progress in Polymer Science" and "Central European Journal of Chemistry". His research group is involved in several areas of macromolecular engineering, especially in synthesis of various well-defined copolymers using atom transfer radical polymerization and other controlled/living polymerization techniques. He is author of over 400 peer-reviewed publications, over 50 book chapters, 8 books and 26 US patents.

Yves Gnanou is currently the Director of the "Laboratoire de Chimie des Polymčres Organiques" at Bordeaux University (France) and Director of Research with the "Centre National de la Recherche Scientifique". He is also an adjunct professor at University of Florida (Department of Chemistry-Gainesville) and was a visiting professor at the Massachussets Institute of Technology, Cambridge, USA. His research interests focus on the study of the mechanism of chain polymerizations and the development of miscellaneous polymeric architectures by novel synthetic methods. He is author of more than 160 peer-reviewed publications in the field of polymer chemistry, 1 book and 16 patents.

Ludwik Leibler is currently Director of Research with the "Centre National de la Recherche Scientifique" and Professor of Soft Matter and Chemistry at Ecole de Physique et Chimie Industrielles in Paris. His background includes stints in academia, in government, and in industrial laboratories. His current projects deal with macromolecular and supramolecular systems and in particular with blends, copolymers, and networks. He authored more than 130 papers in peer-reviewed journals. In 2004, Dr. Leibler has been elected as Foreign Associate of National Academy of Engineering (USA).