
Supramolecular Chemistry, 8 Volume Set From Molecules to Nanomaterials
by Steed, Jonathan W.; Gale, Philip A.-
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Summary
Author Biography
Professor Philip Gale, School of Chemistry, University of Southampton,UK
Professor Gale is currently Head of the School of Chemistry at Southampton University. He is the author or co-author of over 160 publications including two books and a series of highly cited review articles on anion complexation. Professor Gale has won a number of research prizes and is the co-editor of the journal Supramolecular Chemistry, a commissioning editor for Chemical Society Reviews and a member of the international editorial advisory boards of Coordination Chemistry Reviews, the Encyclopaedia of Supramolecular Chemistry, The Open Inorganic Chemistry Journal and Chemical Communications. Professor Gale is also a member of RSC Science Policy Board.
Professor Jonathan Steed, Professor of Inorganic Chemistry, Department of Chemistry, Durham University,UK
Jonathan Steed is Professor of Inorganic Chemistry at Durham University. He is co-author of the textbooks Supramolecular Chemistry (2000 & 2009), Core Concepts in Supramolecular Chemistry and Nanochemistry (2007) and around 250 research papers. He has edited the Encyclopaedia of Supramolecular Chemistry (2004) and Organic Nanostructures (2008).
International Advisory Board
Jerry Atwood - University of Missouri-Columbia
Paul D. Beer - University of Oxford
Makoto Fujita - The University of Tokyo
Tom Fyles - University of Victoria
Andrew D. Hamilton - Yale University
Michaele Hardie - University of Leeds
Ivan Huc - Institut Européen de Chimie et Biologie (IECB)
Yun-Bao Jiang - Xiamen University
Kate Jolliffe - The University of Sydney
Kimoon Kim - Pohang University of Science and Technology (POSTECH)
David A. Leigh - University of Edinburgh
Jonathan L. Sessler - Institute for Cellular and Molecular Biology
George Shimizu - University of Calgary
Section Editors
Philip Gale, University of Southampton, UK
Eric Anslyn, University of Texas, USA
Bradley Smith, University of Notre Dame, USA
Edwin Constable, University of Basel, Switzerland
Enrique García-España, Universidad de Valencia, Spain
Douglas Philp, University of St Andrews, UK
Marcey Waters, University of North Carolina, USA
David Amabilino, Institut de Ciencia de Materials de Barcelona (CSIC), Spain
Pavel Anzenbacher, Bowling Green State University, USA
Len Barbour, University of Stellenbosch, South Africa
David K Smith, University of York, UK
Paula Mendes & Jonathan Preece, University of Birmingham, UK Co
Table of Contents
Concepts | |
Contributors to Volume 1 | p. xiii |
Foreword | p. xv |
Preface | p. xvii |
Abbreviations and Acronyms | p. xix |
Concepts 1 Definition and Emergence of Supramolecular Chemistry | p. 3 |
Supramolecular Interactions | p. 9 |
Complementarity and Preorganization | p. 25 |
The Thermodynamics of Molecular Recognition | p. 45 |
Cooperativity and the Chelate, Macrocyclic and Cryptate Effects | p. 67 |
Multivalency | p. 95 |
Solvation Effects in Supramolecular Recognition | p. 117 |
Competition Experiments | p. 135 |
Supramolecular Information/Programming from a Boolean Perspective | p. 161 |
Self-Assembly and Self-Organization | p. 167 |
Introduction to Surfactant Self-Assembly | p. 181 |
Reversible Covalent Bond Toolbox | p. 205 |
Chirality | p. 217 |
Techniques | |
Contributors to Volume 2 | p. xiii |
Foreword | p. xvii |
Preface | p. xix |
Abbreviations and Acronyms | p. xxi |
Techniques | p. 237 |
Binding Constants and Their Measurement | p. 239 |
Isothermal Titration Calorimetry in Supramolecular Chemistry | p. 275 |
NMR Spectroscopy in Solution | p. 297 |
Diffusion Ordered NMR Spectroscopy (DOSY) | p. 319 |
Solid-State NMR Studies on Supramolecular Chemistry | p. 331 |
Mass Spectrometry and Gas-Phase Chemistry of Supermolecules: A Primer | p. 347 |
Luminescent Spectroscopy in Supramolecular Chemistry | p. 379 |
Circular Dichroism Spectroscopy | p. 393 |
Dynamic Light Scattering in Supramolecular Materials Chemistry | p. 411 |
X-Ray Diffraction: Addressing Structural Complexity in Supramolecular Chemistry | p. 425 |
Small-Angle X-ray Scattering (SAXS) and Wide-Angle X-ray Scattering (WAXS) of Supramolecular Assemblies | p. 437 |
Supramolecular Electrochemistry | p. 451 |
Transport Experiments in Membranes | p. 473 |
Vesicles in Supramolecular Chemistry | p. 501 |
Rheology | p. 517 |
Langmuir-Blodgett Films | p. 529 |
Affinity Capillary Electrophoresis as a Tool to Characterize Intermolecular Interactions | p. 543 |
Ion Chromatography and Membrane Separations Using Macrocyclic Ligands | p. 563 |
Brewster Angle Microscopy | p. 589 |
Scanning Electron Microscopy | p. 619 |
Transmission Electron Microscopy (TEM) | p. 633 |
Scanning Tunneling Microscopy (STM) | p. 647 |
Atomic Force Microscopy (AFM) | p. 659 |
Scanning Near-Field Optical Microscopy (SNOM) | p. 669 |
Computational Techniques (DFT, MM, TD-DFT, PCM) | p. 689 |
Uses of Differential Sensing and Arrays in Chemical Analysis | p. 709 |
Molecular Recognition | |
Contributors to Volume 3 | p. xiii |
Foreword | p. xv |
Preface | p. xvii |
Abbreviations and Acronyms | p. xix |
Molecular Recognition | p. 731 |
Crown and Lariat Ethers | p. 733 |
Azacycloalkanes and Azacyclophanes | p. 753 |
Hetero-Crown Ethers-Synthesis and Metal-Binding Properties of Macrocyclic Ligands Bearing Group 16 (S, Se, Te) Donor Atoms | p. 785 |
Cryptands and Spherands | p. 811 |
Schiff Base and Reduced Schiff Base Ligands | p. 827 |
Calixarenes in Molecular Recognition | p. 863 |
Cyclotriveratrylene and Cryptophanes | p. 895 |
Carcerands and Hemicarcerands | p. 917 |
Cyclodextrins: From Nature to Nanotechnology | p. 955 |
Cucurbituril Receptors and Drug Delivery | p. 983 |
Podands | p. 1001 |
Porphyrins and Expanded Porphyrins as Receptors | p. 1045 |
Supramolecular Phthalocyanine-Based Systems | p. 1075 |
Guanidinium-Based Receptors for Oxoanions | p. 1101 |
Anion Receptors Containing Heterocyclic Rings | p. 1125 |
Amide and Urea-Based Receptors, MD. Alamgir Hossain | p. 1153 |
Synthetic Peptide-Based Receptors | p. 1179 |
Biological Small Molecules as Receptors | p. 1205 |
Receptors for Nucleotides | p. 1225 |
Receptors for Zwitterionic Species | p. 1259 |
Ion-Pair Receptors | p. 1281 |
Metal Complexes as Receptors | p. 1309 |
Hydrogen-Bonding Receptors for Molecular Guests | p. 1325 |
Boronic Acid-Based Receptors | p. 1345 |
Supramolecular Catalysis, Reactivity And Chemical Biology | |
Contributors to Volume 4 | p. xiii |
Foreword | p. xvii |
Preface | p. xix |
Abbreviations and Acronyms | p. xxi |
Supramolecular Reactivity | p. 1381 |
Supramolecular Organocatalysis | p. 1383 |
Replication Processes-From Autocatalysis to Systems Chemistry | p. 1415 |
Artificial Enzyme Mimics | p. 1447 |
Dynamic Covalent Chemistry | p. 1497 |
Reaction Networks | p. 1527 |
Reactions in Dynamic Self-Assemblies | p. 1543 |
Reactivity in Nanoscale Vessels | p. 1575 |
Reactions in Solid-State Inclusion Compounds | p. 1589 |
Functional Polymers | p. 1613 |
Supramolecular Aspects of Chemical Biology | p. 1637 |
Rational Design of Peptide-Based Biosupramolecular Systems | p. 1639 |
Nucleic Acid Mimetics | p. 1665 |
Supramolecular Approaches to the Study of Glycobiology | p. 1685 |
Porphyrinoids: Highly Versatile, Redox-Active Scaffolds for Supramolecular Design and Biomimetic Applications | p. 1713 |
Supramolecular Chemistry of Membranes | p. 1731 |
Membrane Transport | p. 1751 |
Supramolecular Bioinorganic Chemistry | p. 1771 |
The Role of Supramolecular Chemistry in Responsive Vectors for Gene Delivery | p. 1807 |
Supramolecular Chemistry in In Vitro | |
Biosensors | p. 1825 |
Supramolecular Chemistry in Biological Imaging In Vivo | p. 1851 |
Aptamer Moieties in Biochemical Applications | p. 1877 |
Supramolecular Approaches for Inhibition of Protein-Protein and Protein-DNA Interactions | p. 1885 |
Supramolecular Approaches to Medicinal Chemistry | p. 1909 |
Supramolecular Systems for Tissue Engineering | p. 1929 |
Chemical Biology Using Fluorinated Building Blocks | p. 1947 |
Self-Assembly And Supramolecular Devices | |
Contributors to Volume 5 | p. xiii |
Foreword | p. xvii |
Preface | p. xix |
Abbreviations and Acronyms | p. xxi |
Self-Processes | p. 1965 |
Template Strategies in Self-Assembly | p. 1967 |
Self-Assembly of Coordination Compounds: Design Principles | p. 1993 |
Self-Assembly of Coordination Chains and Helices | p. 2045 |
Self-Assembly of Coordination Cages and Spheres | p. 2071 |
Self-Assembly of Organic Supramolecular Capsules | p. 2085 |
Self-Assembly of Supramolecular Wires | p. 2115 |
Synthesis of Supramolecular Nanotubes | p. 2149 |
Organic Foldamers and Helices | p. 2183 |
Self-Assembly of Macromolecular Threaded Systems | p. 2207 |
Self-Assembled Links: Catenanes | p. 2225 |
Templated Synthesis of Knots and Ravels | p. 2245 |
Self-Assembly of Nucleic Acids | p. 2263 |
Viruses as Self-Assembled Templates | p. 2275 |
Peptide Self-Assembly | p. 2293 |
Rotaxanes-Self-Assembled Links | p. 2311 |
Supramolecular Devices | p. 2331 |
Photoprocesses of Relevance to Supramolecular Chemistry | p. 2333 |
Photoinduced Electron Transfer Processes in Biological and Artificial Supramolecules | p. 2365 |
Molecular Devices: Energy Transfer | p. 2397 |
Molecular Devices: Molecular Machinery | p. 2425 |
Molecular Logic Gates | p. 2497 |
Single-Molecule Electronics | p. 2507 |
Molecular Redox Sensors | p. 2523 |
Ion-Selective Electrodes With Ionophore-Doped Sensing Membranes | p. 2539 |
Colorimetric Sensors | p. 2581 |
Luminescent Sensing | p. 2611 |
Photoswitching Materials | p. 2643 |
Supramolecular Chemistry in Medicine | p. 2675 |
Magnetic Resonance Imaging Contrast Agents | p. 2693 |
Supramolecular Chemistry for Organic Photovoltaics | p. 2725 |
Supramolecular Materials Chemistry | |
Contributors to Volume 6 | p. xiii |
Foreword | p. xv |
Preface | p. xvii |
Abbreviations and Acronyms | p. xix |
Supramolecular Materials Chemistry | p. 2789 |
Crystal Engineering | p. 2791 |
Noncovalent Interactions in Crystals | p. 2829 |
Concepts and Nomenclature in Chemical Crystallography | p. 2869 |
Crystal Structure Prediction | p. 2905 |
The Cambridge Structural Database System and Its Applications in Supramolecular Chemistry and Materials Design | p. 2927 |
Crystal Growth and Molecular Crystal Growth Modification | p. 2947 |
Polymorphism: Fundamentals and Applications | p. 2957 |
Cocrystals: Synthesis, Structure, and Applications | p. 2975 |
Mechanical Preparation of Crystalline Materials. An Oxymoron? | p. 2993 |
Physico-Chemical Aspects of Inclusion Compounds | p. 3009 |
Clathrate Hydrates | p. 3017 |
Synthetic Clathrate Systems | p. 3033 |
Network and Graph Set Analysis | p. 3057 |
Coordination Polymers | p. 3073 |
Zeolitelike Metal-Organic Frameworks (ZMOFs): Design, Structure, and Properties | p. 3087 |
Interpenetration | p. 3107 |
Supramolecular Isomerism | p. 3121 |
Gas Storage and Separation in Supramolecular Materials | p. 3133 |
Templated [2 + 2] Photodimerizations in the Solid State | p. 3153 |
Soft Matter | |
Contributors to Volume 7 | p. xiii |
Foreword | p. xv |
Preface | p. xvii |
Abbreviations and Acronyms | p. xix |
Soft Matter | p. 3167 |
Soft Matter Science-a Historical Overview with a Supramolecular Perspective | p. 3169 |
Multicomponent Self-Assembled Polymers Based on ¿-Conjugated Systems | p. 3183 |
Functions Based on Dynamic Structural Changes of Coordination Polymers | p. 3205 |
Self-Healing and Mendable Supramolecular Polymers | p. 3221 |
Assembly of Block Copolymers | p. 3235 |
Molecularly Imprinted Polymers | p. 3255 |
Supramolecular Dendrimer Chemistry | p. 3283 |
Hyperbranched Polymers in Supramolecular Chemistry | p. 3297 |
Supramolecular Chemistry in Polymer Networks | p. 3321 |
Stimuli-Responsive and Motile Supramolecular Soft Materials | p. 3337 |
Self-Assembling Fibrillar Networks-Supramolecular Gels | p. 3355 |
Self-Assembly of Facial Amphiphiles in Water | p. 3377 |
Self-Assembly of Surfactants at Solid Surfaces | p. 3395 |
Physisorption for Self-Assembly of Supramolecular Systems: A Scanning Tunneling Microscopy Perspective | p. 3419 |
Chemisorbed Self-Assembled Monolayers | p. 3445 |
Self-Organization and Self-Assembly in Liquid-Crystalline Materials | p. 3463 |
Liquid Crystals Formed from Specific Supramolecular Interactions | p. 3493 |
Covalent Capture of Self-Assembled Soft Materials | p. 3515 |
Designing Peptide-Based Supramolecular Biomaterials | p. 3525 |
Self-Assembly of Polymers into Soft Nanoparticles and Nanocapsules | p. 3541 |
Self-Assembled Polymer Supermolecules as Templates for Nanomaterials | p. 3563 |
Nanotechnology | |
Contributors to Volume 8 | p. xiii |
Foreword | p. xv |
Preface | p. xvii |
Abbreviations and Acronyms | p. xix |
Nanotechnology | p. 3587 |
Nanotechnology: The "Top-Down" and "Bottom-Up" Approaches | p. 3589 |
Nanolithography | p. 3603 |
Two-Dimensional Supramolecular Chemistry | p. 3625 |
Biologically Derived Supramolecular Materials | p. 3647 |
Supramolecular Hybrid Nanomaterials as Prospective Sensing Platforms | p. 3669 |
Self-Assembled Nanoparticles | p. 3699 |
Photochemically Driven Molecular Devices and Machines | p. 3719 |
Magnetically Responsive Self-Assembled Composite Materials | p. 3751 |
Advances in Supramolecular Chemistry of Carbon Nanotubes | p. 3767 |
One-Dimensional Nanostructures of Molecular Graphenes | p. 3791 |
Supramolecular Nanoparticles for Molecular Diagnostics and Therapeutics | p. 3809 |
Atomic Force Microscopy Measurements of Supramolecular Interactions | p. 3825 |
Nanoelectronics | p. 3841 |
Glossary | p. 3859 |
Subject Index | p. 3887 |
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