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Redaktion: Alexei R. Khokhlov
Conformation-Dependent Design of Sequences in Copolymers
erschienen Februar 2006 252 Seiten, Gebunden
Springer-Verlag GmbH & Co. KG | ISBN: 3540295151
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Innerhalb 24 Stunden versandfertig. Expressversand: In Deutschland versandkostenfrei | Österreich: 4 € | Schweiz: ab 4 € | Europaweit ab 6 €. Versandkostenübersicht weltweit. Alle Preise inkl. MwSt. |
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| VORWORT | öffnen |
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PrefaceFor a long time, chemical industry was focused on polymers mainly from the viewpoint of obtaining advanced construction materials, such as plastics, rubbers, fibers, polymer composites. These materials provided a number of important benefits, including improved strength and long-term durability, light weight, environmental resistance, and design flexibility. Starting from about the early 1980s, the main focus of interest shifted to functional polymers. Among these are superabsorbents, nan...
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ADVANCES IN POLYMER SCIENCE Conformation-Dependent Design of Sequences in Copolymers II Volume Editor A. R. Khokhlov V. O. Aseyev Temperature Dependence of the Colloidal H. Tenhu • F.M. Winnik Stability of Neutral Amphiphilic Polymers in Water V. I. Lozinsky Approaches to Chemical Synthesis of Protein-Like Copolymers S. I. Kuchanov Role of Physical Factors in the Process A. R. Khokhlov of Obtaining Copolymers A.Y. Grosberg After-Action of the Ideas of I.M. Lifsh... [weiter lesen] |
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| AUTOR | öffnen |
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Volume EditorProf. Alexei R. Khokhlov Physics Department Moscow State University 119992 Moscow, Russia khokhlov@polly.phys.msu.ru Editorial BoardProf. Akihiro Abe Department of Industrial Chemistry Tokyo Institute of Polytechnics 1583 Iiyama, Atsugi-shi 243-02, Japan aabe@chem.t-kougei.ac.jpProf. A.-C. Albertsson Department of Polymer Technology The Royal Institute of Technology 10044 Stockholm, Sweden aila@polymer.kth.se Prof. Ruth Duncan Welsh School of Pharmacy Cardiff University Redwoo... [weiter lesen] |
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Contents Temperature Dependence of the Colloidal Stability of Neutral Amphiphilic Pol... V. O. Aseyev • H. Tenhu • F. M. Winnik 1 Approaches to Chemical Synthesis of Protein-Like Copolymers V. I. Lozinsky 87 Role of Physical Factors in the Process of Obtaining Copolymers S. I. Kuchanov A. R. Khokhlov 129 After-Action of the Ideas of I. M. Lifshitz in Polymer and Biopolymer Phy... A. Y. Grosberg A. R. Khokhlov 189 Author Index Volumes 100-196211 Subject Index 237
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Subject Index AAcrylic acid I 112 Adsorption selectivity I 90 Adsorption-tuned copolymers I 23, 90 AIBN I 108 Alzheimer's disease I 80 Amino acids I 10 Amphiphilic monomers I 177 Amphiphilic polymers II 5 Amyloid fibrils I 80 ATRP I 8 BBiopolymers II 189 Blockiness, heterogeneous II 87 CCatalysis, micellar I 196 Cholic acid I 113 Cluster aggregation, diffusionlimited/reaction-limited I 151 Coil-globule transition I 79, 86, 102, 105, 118; II 189 Collapse transition I 54 Colloidal stability II 1 Configurational statistics II 133 Conformation-dependent sequence design (CDSD) I 1, 8 Controlled radical polymerization I 8 Critical aggregation concentration I 202 DDegenerative chain transfer technique I 8 Density functional theory I 57 Derjaguin-Landau-Verwey-Overbeek theory (DLVO) II 4 Designability of conformation II 205 Diethylacrylamide (DEA) I 155 Dimethylacrylamide (DMA) I 155 DNA I 15; II 189 - heteropolymer, melting II 203 DNA collapse II 194 EEmulsion copolymerization I 36 GGels, superabsorbing II 189 Gibbs energy II 3 Globular proteins I 179 Globules II 1, 189 Glycidyl methacrylate II 92 HHA copolymer I 84 Heteropolymers, charged I 1 HP model I 9, 179 Hydrophobic effect II 5 Hydrophobization II 94 IImmobilized metal chelate chromatography (IMCC) II 117 Interfaces I 177 Ionomers I 145 N-Isopropylacrylamide I 108, 183; II 14, 92 LLaser light scattering I 106, 114 LCST I 188; II 12 Lifshitz, I.M. II 189 Long-range correlations I 14 MMarkovian copolymers II 135 Mesoglobular phase I 154 Mesoglobules II 1 - colloidal stability II 63 Methyl methacrylate I 187 N-Methyldiethanolamine II 121 Molecular dispenser I 24, 91; II 202 Molecular structure distribution II 132 NNeutral amphiphilic polymers II 5 NIPAM I 108, 183; II 14, 92 p-Nitrophenyl acetate I 196 Nitrophenyl alkanoates I 202 Nonradiative energy transfer II 54 OOil-water boundary II 168 PP(DEA-co-DMA) I 113 Pair correlation functions I 59 PAM-co-NaAA I 151 PDEVP I 202 PEO I 110, 189; II 4, 192 PEO-methacrylates II 46 Phase behavior I 57 Phenolfluorene II 122 PMMA I 85 PNIPAM I 102, 105, 188; II 1, 12, 15 PNIPAM-co-PEO II 29 Poly(acrylamide) I 112 Poly(N-alkylacrylamide) II 15 Poly(N, N-diethylacrylamide) I 113, 170 Poly(ethylene oxide) PEO I 110, 189; II 4, 192 Poly(N-isopropylacrylamide) PNIPAM I 102, 105, 188; II 1, 12, 15 Poly(N-vinylamides) II 36 Poly(N-vinylcaprolactam) I 189; II 1, 12, 36 Poly(vinyl methyl ether) II 1, 12, 59 Polyacrylamide, hydrophobized II 95 Polyamphiphiles I 1 Polyelectrolyte gels II 196 Polyelectrolytes, hydrophobic I 70 Polymer catalysts I 196 Polymeranalogous reactions II 130 Polystyrene, maltopentaose I 186 Protein globules I 79 Protein-like copolymers I 10; II 27, 74, 87 PVCL I 189; II 1, 12, 36 PVME II 1, 12, 59 RRandom energy model II 196 Random phase approximation I 57 Repulsive forces II 4 RISM theory I 57, 58, 63 SSAXS I 185 Scattering II 152 Self-consistent field methods (SCF) I 63 Self-consistent mean field (SCMF) I 57 Sequence assembly I 57 Sequence design II 197, 199, 202 Sequence evolution I 26 Size-composition distribution II 132 Solution properties I 1 Solvent-accessible surface-area I 21 Stable free-radical polymerization I 8 Styrene, maltopentaose I 186 Superabsorbing gels II 189 Surface nanoreactor I 198 TTerephthaloyl dichloride II 122 VN-Vinylcaprolactam I 35, 183; II 98 N-Vinylimidazole I 35; 77 98 N-Vinylpyrrolidone I 109, 158, 183; II 14, 119 ZZipping transition I 84
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