Supramolecular Chemistry

Супрамолекулярная химия
J.-M. Lehn
1995-05-26

anion coordination chemistrymolecular and supramolecular devicesmolecular recognitionsupramolecular catalysissupramolecular chemistry
Part 1 From molecular to supramolecular chemistry: concepts and language of supramolecular chemistry. Part 2 Molecular recognition: recognition, information, complementarity molecular receptors - design principles spherical recognition - cryptates of metal cations tetrahedral recognition by macrotricyclic cryptands recognition of ammonium ions and related substrates binding and recognition of neutral moelcules. Part 3 Anion co-ordination chemistry and the recognition of anionic substrates. Part 4 Coreceptor molecules and multiple recognition: dinuclear and polynuclear metal ion cryptates linear recognition of molecular length by ditopic coreceptors heterotopic coreceptors - cyclophane receptors, amphiphilic receptors, large molecular cage multiple recognition in metalloreceptors supramolecular dynamics. Part 5 Supramolecular reactivity and catalysis: catalysis by reactive macrocyclic cation receptor molecules catalysis by reactive anion receptor molecules catalysis with cyclophane type receptors supramolecular metallo-catalysis cocatalysis - catalysis of synthetic reactions biomolecular and abiotic catalysis. Part 6 Transport processes and carrier design: carrier-mediated transport cation-transport processes - cation carriers anion transport processes - anion carriers coupled transport processes electron-coupled transpoort in a redox gradient proton-coupled transport in a pH gradient light-coupled transport processes transfer via transmembrane channels. Part 7 From supermolecules to polymolecular assemblies: heterogeneous molecular recognition - supramolecular solid materials from endoreceptors to exoreceptors - molecular recognition at surfaces molecular and supramolecular morphogenesis supramolecular heterogeneous catalysis. Part 8 Molecular and supramolecular devices: molecular recognition, information and signals - semiochemistry supramolecular photochemistry - molecular and supramolecular photonic devices light conversion and energy transfer devices photosensitive molecular receptors photoinduced electron transfer in photoactive devices photoinduced reactions in supramolecular species non-linear optical properties of supramolecular species supramolecular effects in photochemical hole burning molecular and supramolecular electronic devices supramolecular electrochemistry electron conducting devices - molecular wires polarized molecular wires - rectifying devices modified and switchable molecular wires molecular magnetic devices molecular and supramolecular ionic devices tubular mesophases. (Part contents).
1
Coreceptor and multivalent strategies (dinuclear/polynuclear cryptates, ditopic and heterotopic coreceptors, metalloreceptors) enable multiple and length-specific recognition and dynamic supramolecular behavior.
2
Molecular and supramolecular devices exploit recognition, photochemistry, electron transfer, nonlinear optics, electrochemistry, and molecular wires to realize photonic, electronic, ionic, magnetic, and switchable devices.
3
Molecular recognition principles include design of complementary molecular receptors (cryptates, cryptands, cyclophanes) enabling selective binding of metal cations, ammonium ions, neutral molecules, and anions.
4
Reactive supramolecular receptors and cyclophane/metallo-catalysts mediate catalysis, including cocatalysis and parallels between biomolecular and abiotic catalytic systems.
5
Supramolecular chemistry extends molecular chemistry into systems defined by non-covalent interactions, introducing specific concepts and language for the field.
6
Supramolecular systems enable controlled transport (cation/anion carriers, coupled transport, redox-, pH-, and light-coupled transport, transmembrane channels) and form polymolecular assemblies, surfaces, and heterogeneous catalytic materials.

Supramolecular chemical systems (supramolecules, molecular receptors, coreceptors, carriers, and polymolecular assemblies)

Principles, mechanisms and functions of molecular recognition, binding and coordination (cation/anion/neutral substrates), supramolecular dynamics, reactivity and catalysis, transport processes, assembly into polymolecular materials, and device-related photonic/electronic/ionic properties

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1995-05-26
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J.-M. Lehn
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