Supramolecular chemistry

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Hauptverfasser: Steed, Jonathan W. 1969- (VerfasserIn), Atwood, Jerry L. 1942- (VerfasserIn)
Format: Buch
Sprache:English
Veröffentlicht: Chichester Wiley 2009
Ausgabe:2. ed.
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Datensatz im Suchindex

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adam_text Contents About the Authors xxi Preface to the First Edition xxiii Preface to the Second Edition xxv Acknowledgements xxvii ι Concepts ι 1.1 Definition and Development of Supramolecular Chemistry 2 1.1.1 What is Supramolecular Chemistry? 2 1.1.2 Host-Guest Chemistry 3 1.1.3 Development 4 1.2 Classification of Supramolecular Host-Guest Compounds 6 1.3 Receptors, Coordination and the Lock and Key Analogy 6 1.4 Binding Constants 9 1.4.1 Definition and Use 9 1.4.2 Measurement of Binding Constants 11 1.5 Cooperativity and the Chetate Effect 17 1.6 Preorganisation and Complementarity 22 1.7 Thermodynamic and Kinetic Selectivity, and Discrimination 26 1.8 Nature of Supramolecular Interactions 27 1.8.1 Ion-ion Interactions 27 1.8.2 Ion-Dipole Interactions 27 1.8.3 Dipole-Dipole Interactions 28 1.8.4 Hydrogen Bonding 28 1.8.5 Cation -π Interactions 32 1.8.6 Anion -π Interactions 33 1.8.7 κ—η Interactions 33 1.8.8 Van der Waals Forces and Crystal Close Packing 35 1.8.9 Closed Shell Interactions 36 1.9 Solvation and Hydrophobie Effects 38 1.9.1 Hydrophobie Effects 38 1.9.2 Solvation 39 1.10 Supramolecular Concepts and Design 41 1.10.1 Host Design 41 1.10.2 Informed and Emergent Complex Matter 42 1.10.3 Nanochemistry 44 шШт Contents Summary 45 Study Problems 45 Suggested Further Reading 46 References 47 2 The Supramolecular Chemistry of Life 49 2.1 Biological Inspiration for Supramolecular Chemistry 50 2.2 Alkali Metal Cations in Biochemistry 50 2.2.1 Membrane Potentials 50 2.2.2 Membrane Transport 53 2.2.3 Rhodopsin: A Supramolecular Photonic Device 60 2.3 Porphyrins and Tetrapyrrole Macrocycles 61 2.4 Supramolecular Features of Plant Photosynthesis 63 2.4.1 The Role of Magnesium Tetrapyrrole Complexes 63 2.4.2 Manganese-Catalysed Oxidation of Water to Oxygen 68 2.5 Uptake and Transport of Oxygen by Haemoglobin 70 2.6 Enzymes and Coenzymes 74 2.6.1 Characteristics of Enzymes 74 2.6.2 Mechanism of Enzymatic Catalysis 77 2.6.3 Coenzymes 79 2.6.4 The Example of Coenzyme B12 80 2.7 Neurotransmitters and Hormones 83 2.8 Semiochemistry in the Natural World 85 2.9 DNA 86 2.9.1 DNA Structure and Function 86 2.9.2 Site-Directed Mutagenesis 91 2.9.3 The Polymerase Chain Reaction 92 2.9.4 Binding to DNA 93 2.9.5 DNA Polymerase: A Processive Molecular Machine 97 2.10 Biochemical Self-Assembly 99 Summary 102 Study Problems 102 References 103 3 Cation-Binding Hosts 105 3.1 Introduction to Coordination Chemistry 106 3.1.1 Supramolecular Cation Coordination Chemistry 106 3.1.2 Useful Concepts in Coordination Chemistry 106 3.1.3 EDTA - a Classical Supramolecular Host 112 Contents 3.2 The Crown Ethers 114 3.2.1 Discovery and Scope 114 3.2.2 Synthesis 116 3.3 The Lariat Ethers and Podands 118 3.3.1 Podands 118 3.3.2 Lariat Ethers 120 3.3.3 Bibracchial Lariat Ethers 121 3.4 The Cryptands 122 3.5 The Spherands 125 3.6 Nomenclature of Cation-Binding Macrocycles 127 3.7 Selectivity of Cation Complexation 129 3.7.1 General Considerations 129 3.7.2 Conformational Characteristics of Crown Ethers 130 3.7.3 Donor Group Orientation and Chelate Ring Size Effects 132 3.7.4 Cation Binding by Crown Ethers 135 3.7.5 Cation Binding by Lariat Ethers 140 3.7.6 Cation Binding by Cryptands 142 3.7.7 Preorganisation: Thermodynamic Effects 144 3.7.8 Preorganisation: Kinetic and Dynamic Effects 147 3.8 Solution Behaviour 149 3.8.1 Solubility Properties 149 3.8.2 Solution Applications 149 3.9 Synthesis: The Template Effect and High Dilution 153 3.9.1 The Template Effect 153 3.9.2 High-Dilution Synthesis 157 3.10 Soft Ligands for Soft Metal Ions 160 3.10.1 Nitrogen and Sulfur Analogues of Crown Ethers 160 3.10.2 Nitrogen and Sulfur Analogues of Cryptands 163 3.10.3 Azamacrocycles: Basicity Effects and the Example of Cyclam 164 3.10.4 Phosphorus-Containing Macrocycles 167 3.10.5 Mixed Cryptâtes 168 3.10.6 Schiff Bases 170 3.10.7 Phthalocyanines 172 3.10.8 Torands 173 3.11 Proton Binding: The Simplest Cation 173 3.11.1 Oxonium Ion Binding by Macrocycles in the Solid State 174 3.11.2 Solution Chemistry of Proton Complexes 177 3.12 Complexation of Organic Cations 180 3.12.1 Binding of Ammonium Cations by Corands 181 3.12.2 Binding of Ammonium Cations by Three-Dimensional Hosts 183 3.12.3 Ditopic Receptors 184 3.12.4 Chiral Recognition 185 3.12.5 Amphiphilic Receptors 193 3.12.6 Case Study: Herbicide Receptors 194 Contents 3.13 Alkalides and Electrides 195 3.14 The Calixarenes 197 3.14.1 Cation Complexation by Calixarenes 198 3.14.2 Phase Transport Equilibria 204 3.14.3 Cation Complexation by Hybrid Calixarenes 206 3.15 Carbon Donor and ff-acid Ligands 208 3.15.1 Mixed C-Heteroatom Hosts 209 3.15.2 Hydrocarbon Hosts 211 3.16 The Siderophores 213 3.16.1 Naturally Occurring Siderophores 213 3.16.2 Synthetic Siderophores 215 Summary 217 Study Problems 217 Thought Experiment 218 References 219 4 Anion Binding 223 4.1 Introduction 224 4.1.1 Scope 224 4.1.2 Challenges in Anion Receptor Chemistry 225 4.2 Biological Anion Receptors 227 4.2.1 Anion Binding Proteins 228 4.2.2 Arginine as an Anion Binding Site 229 4.2.3 Main Chain Anion Binding Sites in Proteins: Nests 230 4.2.4 Pyrrole-Based Biomolecules 231 4.3 Concepts in Anion Host Design 232 4.3.1 Preorganisation 232 4.3.2 Entropie Considerations 233 4.3.3 Considerations Particular to Anions 234 4.4 From Cation Hosts to Anion Hosts - a Simple Change in pH 236 4.4.1 Tetrahedral Receptors 236 4.4.2 Shape Selectivity 238 4.4.3 Ammonium-Based Podands 239 4.4.4 Two-Dimensional Hosts 240 4.4.5 Cyclophane Hosts 246 4.5 Guanidinium-Based Receptors 248 4.6 Neutral Receptors 251 4.6.1 Zwitterions 253 4.6.2 Amide-Based Receptors 253 4.6.3 Urea and Thiourea Derivatives 255 4.6.4 Pyrrole Derivatives 257 4.6.5 Peptide-Based Receptors 258 Contents 4.7 Inert Metal-Containing Receptors 259 4.7.1 General Considerations 259 4.7.2 Organometallic Receptors 261 4.7.3 Hydride Sponge and Other Lewis Acid Chelates 268 4.7.4 Anticrowns 271 4.8 Common Core Scaffolds 276 4.8.1 The Trialkylbenzene Motif 277 4.8.2 Cholapods 278 Summary 281 Study Problems 281 Thought Experiments 282 References 282 5 Ion Pair Receptors 285 5.1 Simultaneous Anion and Cation Binding 286 5.1.1 Concepts 286 5.1.2 Contact Ion Pairs 287 5.1.3 Cascade Complexes 289 5.1.4 Remote Anion and Cation Binding Sites 291 5.1.5 Symport and Metals Extraction 295 5.1.6 Dual-Host Salt Extraction 298 5.2 Labile Complexes as Anion Hosts 299 5.3 Receptors for Zwitterions 303 Summary 304 Study Problems 304 References 305 6 Molecular Guests in Solution 307 6.1 Molecular Hosts and Molecular Guests 308 6.1.1 Introduction 308 6.1.2 Some General Considerations 308 6.2 Intrinsic Curvature: Guest Binding by Cavitands 310 6.2.1 Building Blocks 310 6.2.2 Calixarenes and Resorcarenes 311 6.2.3 Dynamics of Guest Exchange in Cavitates 320 6.2.4 Glycoluril-Based Hosts 323 6.2.5 Kohnkene 326 6.3 Cyclodextrins 327 6.3.1 Introduction and Properties 327 6.3.2 Preparation 331 6.3.3 Inclusion Chemistry 331 6.3.4 Industrial Applications 335 6.4 Molecular Clefts and Tweezers 6.5 Cyclophane Hosts 6.5.1 General Aspects 6.5.2 Cyclophane Nomenclature 6.5.3 Cyclophane Synthesis 6.5.4 Molecular Iron Maidens 6.5.5 From Tweezers to Cyclophanes 6.5.6 The Diphenylmethane Moiety 6.5.7 Guest Inclusion by Hydrogen Bonding 6.5.8 Charge-Transfer Cyclophanes Contents 336 340 340 341 342 345 346 347 353 357 6.6 Constructing a Solution Host from Clathrate-Forming Building Blocks: The Cryptophanes 358 6.6.1 Construction of Containers from a Curved Molecular Building Block 358 6.6.2 Complexation of Halocarbons 361 6.6.3 Competition with Solvent 363 6.6.4 Complexes with Alkyl Ammonium Ions and Metals 364 6.6.5 Methane and Xenon Complexation 365 6.6.6 An Imploding Cryptophane 366 6.6.7 Hemicryptophanes 367 6.7 Covalent Cavities: Carcerands and Hemicarcerands 370 6.7.1 Definitions and Synthesis 370 6.7.2 Template Effects in Carcerand Synthesis 373 6.7.3 Complexation and Constrictive Binding 373 6.7.4 Carcerism 375 6.7.5 Inclusion Reactions 376 6.7.6 Giant Covalent Cavities 379 Summary 381 Study Problems 381 Thought Experiment 382 References 382 7 Solid-State Inclusion Compounds 385 7.1 Solid-State Host-Guest Compounds 386 7.2 Clathrate Hydrates 387 7.2.1 Formation 387 7.2.2 Structures and Properties 388 7.2.3 Problems and Applications 391 7.3 Urea and Thiourea Clathrates 393 7.3.1 Structure 393 7.3.2 Guest Order and Disorder 394 7.3.3 Applications of Urea Inclusion Compounds 398 Contents 7.4 Other Channel Clathrates 399 7.4.1 Trimesic Acid 399 7.4.2 Helical Tubulands and Other Di-ols 401 7.4.3 Perhydrotriphenylene: Polarity Formation 403 7.5 Hydroquinone, Phenol, Dianin s Compound and the Hexahost Strategy 406 7.6 Tri-o-thymotide 410 7.6.1 Inclusion Chemistry 410 7.6.2 Synthesis and Derivatives 412 7.6.3 Applications 413 7.7 Cyclotriveratrylene 414 7.7.1 Properties 414 7.7.2 Synthesis 414 7.7.3 Inclusion Chemistry 416 7.7.4 Network Structures 418 7.8 Inclusion Compounds of the Calixarenes 419 7.8.1 Organic-Soluble Calixarenes 419 7.8.2 Fullerene Complexation 423 7.8.3 Water-Soluble Calixarenes 426 7.9 Solid-Gas and Solid-Liquid Reactions in Molecular Crystals 429 7.9.1 The Importance of Gas Sorption 429 7.9.2 Gas Sorption by Calixarenes 431 7.9.3 Gas Sorption by Channel Hosts 434 7.9.4 Gas Sorption by Coordination Complex Hosts 435 Summary 437 Study Problems 438 References 438 8 Crystal Engineering 441 8.1 Concepts 442 8.1.1 Introduction 442 8.1.2 Tectons and Synthons 443 8.1.3 The Special Role of Hydrogen Bonding 447 8.1.4 Hydrogen Bond Acidity and Basicity 452 8.2 Crystal Nucleation and Growth 453 8.2.1 Theory of Crystal Nucleation and Growth 453 8.2.2 NMR Spectroscopy as a Tool to Probe Nucleation 455 8.2.3 Crystal Growth at Air-Liquid Interfaces 456 8.2.4 Chirality Induction: The Adam Effect 458 8.2.5 Dyeing Crystal Interfaces 462 8.2.6 Hourglass Inclusions 464 8.2.7 Epitaxy: Engineering Crystals 467 8.2.8 Crystals as Genes? 469 8.2.9 Mechanochemistry and Topochemistry 470 Contents 8.3 Understanding Crystal Structures 476 8.3.1 Graph Set Analysis 476 8.3.2 Etter s Rules 478 8.3.3 Crystal Deconstruction 481 8.3.4 Crystal Engineering Design Strategies 482 8.4 The Cambridge Structural Database 484 8.5 Polymorphism 487 8.5.1 The Importance of Polymorphism 487 8.5.2 Types of Polymorphism 489 8.5.3 Controlling Polymorphism 492 8.6 Co-crystals 493 8.6.1 Scope and Nomenclature 493 8.6.2 Designer Co-crystals 494 8.6.3 Hydrates 497 8.7 Z > 1 498 8.8 Crystal Structure Prediction 500 8.8.1 Soft vs. Hard Predictions 500 8.8.2 Crystal Structure Calculation 501 8.8.3 The CCDC Blind Tests 504 8.9 Hydrogen Bond Synthons - Common and Exotic 505 8.9.1 Hydrogen Bonded Rings 505 8.9.2 Hydrogen Bonds to Halogens 510 8.9.3 Hydrogen Bonds to Cyanometallates 511 8.9.4 Hydrogen Bonds to Carbon Monoxide Ligands 512 8.9.5 Hydrogen Bonds to Metals and Metal Hydrides 514 8.9.6 CH Donor Hydrogen Bonds 517 8.10 Aromatic Rings 519 8.10.1 Edge-to-Face and Face-to-Face Interactions 519 8.10.2 Aryl Embraces 522 8.10.3 Metal -π Interactions 523 8.11 Halogen Bonding and Other Interactions 524 8.12 Crystal Engineering of Diamondoid Arrays 526 Summary 530 Study Problems 531 Thought Experiment 532 References 532 9 Network Solids 537 9.1 What Are Network Solids? 538 9.1.1 Concepts and Classification 538 9.1.2 Network Topology 539 9.1.3 Porosity 542 Contents 9.2 Zeolites 543 9.2.1 Composition and Structure 543 9.2.2 Synthesis 547 9.2.3 MFI Zeolites in the Petroleum Industry 548 9.3 Layered Solids and Intercalates 550 9.3.1 General Characteristics 550 9.3.2 Graphite Intercalates 553 9.3.3 Controlling the Layers: Guanidinium Sulfonates 554 9.4 In the Beginning: Hoffman Inclusion Compounds and Werner Clathrates 556 9.5 Coordination Polymers 561 9.5.1 Coordination Polymers, MOFs and Other Terminology 561 9.5.2 OD Coordination Clusters 562 9.5.3 ID, 2D and 3D Structures 564 9.5.4 Magnetism 568 9.5.5 Negative Thermal Expansion 570 9.5.6 Interpenetrated Structures 571 9.5.7 Porous and Cavity-Containing Structures 575 9.5.8 Metal-Organic Frameworks 578 9.5.9 Catalysis by MOFs 583 9.5.10 Hydrogen Storage by MOFs 583 Summary 586 Study Problem 587 References 587 10 Self-Assembly 591 10.1 Introduction 592 10.1.1 Scope and Goals 592 10.1.2 Concepts and Classification 594 10.2 Proteins and Foldamers: Single Molecule Self-Assembly 598 10.2.1 Protein Self-Assembly 598 10.2.2 Foldamers 599 10.3 Biochemical Self-Assembly 600 10.3.1 Strict Self-Assembly: The Tobacco Mosaic Virus and DNA 600 10.3.2 Self-Assembly with Covalent Modification 602 10.4 Self-Assembly in Synthetic Systems: Kinetic and Thermodynamic Considerations 604 10.4.1 Template Effects in Synthesis 604 10.4.2 A Thermodynamic Model: Self-Assembly of Zinc Porphyrin Complexes 606 10.4.3 Cooperativity and the Extended Site Binding Model 610 10.4.4 Double Mutant Cycles - Quantifying Weak Interactions 615 10.4.5 Probability of Self-Assembly 616 Contents 10.5 Self-Assembling Coordination Compounds 620 10.5.1 Design and Notation 620 10.5.2 A Supramolecular Cube 621 10.5.3 Molecular Squares and Boxes 624 10.5.4 Self-Assembly of Metal Arrays 637 10.6 Self-Assembly of Closed Complexes by Hydrogen Bonding 641 10.6.1 Tennis Balls and Softballs: Self-Complementary Assemblies 641 10.6.2 Heterodimeric Capsules 646 10.6.3 Giant Self-Assembling Capsules 646 10.6.4 Rosettes 651 10.7 Catenanes and Rotaxanes 653 10.7.1 Overview 653 10.7.2 Statistical Approaches to Catenanes and Rotaxanes 655 10.7.3 Rotaxanes and Catenanes Involving π-π Stacking Interactions 656 10.7.4 Hydrogen Bonded Rotaxanes and Catenanes 666 10.7.5 Metal and Auxiliary Linkage Approaches to Catenanes and Rotaxanes 669 10.7.6 Molecular Necklaces 677 10.8 Helicates and Helical Assemblies 678 10.8.1 Introduction 678 10.8.2 Synthetic Considerations 681 10.8.3 [4 + 4] Helicates 682 10.8.4 [6 + 6] Helicates 683 10.8.5 Self-Recognition and Positive Cooperativity 684 10.8.6 Cyclic Helicates 686 10.8.7 Anion-Based Helices 687 10.8.8 Hydrogen-Bonded Helices 687 10.9 Molecular Knots 691 10.9.1 The Topology of Knots 691 10.9.2 Trefoil Knots 693 10.9.3 Other Knots 696 10.9.4 Borromean Rings 697 Summary 700 Study Problems 701 Thought Experiment 702 References 702 11 Molecular Devices 707 11.1 Introduction 708 11.1.1 Philosophy of Molecular Devices 708 11.1.2 When Is a Device Supramolecular? 708 Contents МрЈ!» 11.2 Supramolecular Photochemistry 710 11.2.1 Photophysical Fundamentals 710 11.2.2 Mechanisms of Energy and Electron Transfer 713 11.2.3 Bimetallic Systems and Mixed Valence 715 11.2.4 Bipyridine and Friends as Device Components 716 11.2.5 Bipyridyl-Type Light Harvesting Devices 718 11.2.6 Light-Conversion Devices 725 11.2.7 Non-Covalently Bonded Systems 726 11.3 Information and Signals: Semiochemistry and Sensing 730 11.3.1 Supramolecular Semiochemistry 730 11.3.2 Photophysical Sensing and Imaging 731 11.3.3 Colorimetrie Sensors and the Indicator Displacement Assay 738 11.3.4 Electrochemical Sensors 742 11.4 Molecule-Based Electronics 746 11.4.1 Molecular Electronic Devices 746 11.4.2 Molecular Wires 746 11.4.3 Molecular Rectifiers 750 11.4.4 Molecular Switches 752 11.4.5 Molecular Logic 756 11.4.6 Towards Addressable Molecular Devices 760 11.5 Molecular Analogues of Mechanical Machines 762 11.6 Nonlinear Optical Materials 765 11.6.1 Origins of Nonlinear Optical Effects 765 11.6.2 Second-Order Nonlinear Optical Materials 768 11.6.3 Third Harmonic Generation Nonlinear Optical Materials 771 Summary 771 Study Problems 771 References 772 12 Biological Mimics and Supramolecular Catalysis 777 12.1 Introduction 778 12.1.1 Understanding and Learning from Biochemistry 778 12.1.2 Characteristics of Biological Models 779 12.2 Cyclodextrins as Enzyme Mimics 780 12.2.1 Enzyme Modelling Using an Artificial Host Framework 780 12.2.2 Cyclodextrins as Esterase Mimics 782 12.2.3 Functionalised Cyclodextrins 783 12.3 Corands as ATPase Mimics 785 Contents 12.4 Cation-Binding Hosts as Transacylase Mimics 788 12.4.1 Olirai Corands 788 12.4.2 A Structure and Function Mimic 790 12.5 Metallobiosites 792 12.5.1 Haemocyanin Models 793 12.5.2 Zinc-Containing Enzymes 795 12.6 Haem Analogues 798 12.6.1 Models of Oxygen Uptake and Transport 798 12.6.2 Cytochrome P-450 Models 803 12.6.3 Cytochrome с Oxidase Models 807 12.7 Vitamin B12 Models 808 12.8 Ion Channel Mimics 809 12.9 Supramolecular Catalysis 813 12.9.1 Abiotic Supramolecular Catalysis 813 12.9.2 Dynamic Combinatorial Libraries 817 12.9.3 Self-Replicating Systems 819 12.9.4 Emergence of Life 823 Summary 825 Study Problems 825 Thought Experiment 826 References 826 13 Interfaces and Liquid Assemblies 829 13.1 Order in Liquids 830 13.2 Surfactants and Interfacial Ordering 831 13.2.1 Surfactants, Micelles and Vesicles 831 13.2.2 Surface Self-Assembled Monolayers 837 13.3 Liquid Crystals 839 13.3.1 Nature and Structure 839 13.3.2 Design of Liquid Crystalline Materials 846 13.3.3 Supramolecular Liquid Crystals 848 13.3.4 Liquid Crystal Displays 851 13.4 Ionic Liquids 852 13.5 Liquid Clathrates 854 Summary 858 Study Problems 858 References 859 Contents 14 Supramolecular Polymers, Gels and Fibres ббі 14.1 Introduction 862 14.2 Dendrimers 862 14.2.1 Structure and Nomenclature 862 14.2.2 Preparation and Properties of Molecular Dendrimers 866 14.2.3 Dendrimer Host-Guest Chemistry 869 14.2.4 Supramolecular Dendrimer Assemblies 872 14.2.5 Dendritic Nanodevices 874 14.3 Covalent Polymers with Supramolecular Properties 876 14.3.1 Amphiphilic Block Copolymers 876 14.3.2 Molecular Imprinted Polymers 879 14.4 Self-Assembled Supramolecular Polymers 880 14.5 Polycatenanes and Polyrotaxanes 883 14.6 Biological Self-Assembled Fibres and Layers 885 14.6.1 Amyloids, Actins and Fibrin 885 14.6.2 Bacterial S-Layers 887 14.7 Supramolecular Gels 888 14.8 Polymeric Liquid Crystals 893 Summary 894 Study Problems 895 References 895 15 Nanochemistry 899 15.1 When Is Nano Really Nano? 900 15.2 Nanotechnology: The Top Down and Bottom Up Approaches 900 15.3 Templated and Biomimetic Morphosynthesis 902 15.4 Nanoscale Photonics 905 15.5 Microfabrication, Nanofabrication and Soft Lithography 907 15.6 Assembly and Manipulation on the Nanoscale 912 15.6.1 Chemistry with a Microscope Tip 912 15.6.2 Self-Assembly on Surfaces 914 15.6.3 Addressing Single Molecules 918 15.6.4 Atomic-Level Assembly of Materials 920 15.7 Nanoparticles 921 15.7.1 Nanoparticles and Colloids: Definition and Description 921 15.7.2 Gold Nanoparticles 922 15.7.3 Quantum Dots 925 15.7.4 Non-Spherical Nanoparticles 927 Contents 15.8 Endohedral Fullerenes, Nanotubes and Graphene 927 15.8.1 Fullerenes as Hosts 928 15.8.2 Carbon Nanotubes 931 15.8.3 Graphene 935 15.8.4 Afterword - Damascus Steel 935 Summary 936 Thought Experiment 937 References 937 Index 941
any_adam_object 1
author Steed, Jonathan W. 1969-
Atwood, Jerry L. 1942-
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(DE-588)134006593
author_facet Steed, Jonathan W. 1969-
Atwood, Jerry L. 1942-
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id DE-604.BV035248122
illustrated Illustrated
indexdate 2024-12-23T21:24:08Z
institution BVB
isbn 9780470512340
9780470512333
language English
oai_aleph_id oai:aleph.bib-bvb.de:BVB01-017053808
oclc_num 251208094
open_access_boolean
owner DE-20
DE-703
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DE-BY-TUM
DE-29T
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DE-11
owner_facet DE-20
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DE-91G
DE-BY-TUM
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DE-BY-UBM
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physical XXVI, 970 S. Ill., graph. Darst.
publishDate 2009
publishDateSearch 2009
publishDateSort 2009
publisher Wiley
record_format marc
spellingShingle Steed, Jonathan W. 1969-
Atwood, Jerry L. 1942-
Supramolecular chemistry
Chelaten gtt
Fotochemie gtt
Macrocyclische verbindingen gtt
Mimetica gtt
Porfyrinen gtt
Supramoleculaire systemen gtt
Viagra gtt
Supramolecular chemistry
Supramolekulare Chemie (DE-588)4306141-2 gnd
subject_GND (DE-588)4306141-2
title Supramolecular chemistry
title_auth Supramolecular chemistry
title_exact_search Supramolecular chemistry
title_full Supramolecular chemistry Jonathan W. Steed ; Jerry L. Atwood
title_fullStr Supramolecular chemistry Jonathan W. Steed ; Jerry L. Atwood
title_full_unstemmed Supramolecular chemistry Jonathan W. Steed ; Jerry L. Atwood
title_short Supramolecular chemistry
title_sort supramolecular chemistry
topic Chelaten gtt
Fotochemie gtt
Macrocyclische verbindingen gtt
Mimetica gtt
Porfyrinen gtt
Supramoleculaire systemen gtt
Viagra gtt
Supramolecular chemistry
Supramolekulare Chemie (DE-588)4306141-2 gnd
topic_facet Chelaten
Fotochemie
Macrocyclische verbindingen
Mimetica
Porfyrinen
Supramoleculaire systemen
Viagra
Supramolecular chemistry
Supramolekulare Chemie
url http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=017053808&sequence=000002&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA
work_keys_str_mv AT steedjonathanw supramolecularchemistry
AT atwoodjerryl supramolecularchemistry