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Molecular materials

With the wealth of infonnation contained in such two-dimensional data sets and with the continued improvements in technology, the Raman echo and quasi-echo techniques will be the basis for much activity and will undoubtedly provide very exciting new insights into condensed phase dynamics in simple molecular materials to systems of biological interest. [Pg.1213]

Polymer and chain formation is another property of chalcogen-nitrogen compounds that distinguishes them from their oxygen analogues. In addition to the unique, superconducting poly(sulfur nitride) (SN) (1.24) (Section 14.2), a variety of poly(thiazyl) chains such as RS5N4R (1.25) (Section 14.3) have been characterized. Interest in these chains stems from their possible use as models for the behaviour of (SN) and as components in molecular materials, e.g., as molecular wires. [Pg.8]

Synthesis and physical properties of hemiporphyrazines as targets for the preparation of molecular materials 98CRV563. [Pg.248]

Trinuclear Molybdenum and Tungsten Cluster Chalcogenides From Solid State to Molecular Materials... [Pg.105]

Ames Laboratory (Iowa State University, USA) investigating new solid state phases based on reduced rare earth halides. Since 1993, she has held a position at the University Jaume 1 of Castello (Spain) and became Associate Professor of Physical Chemistry in 1995. During the second semester of 2005, she held a visiting professor position at the Laboratory of Chemistry, Molecular Engineering and Materials of the CNRS-Universtity of Angers (France). Her research has been focussed on the chemistry of transition metal clusters with special interest in multifunctional molecular materials and the relationship between the molecular and electronic structures of these systems with their properties. She is currently coauthor of around 80 research papers on this and related topics. [Pg.369]

Acid-base (AB) cements have been known since the mid 19th century. They are formed by the interaction of an acid and a base, a reaction which yields a cementitious salt hydrogel (Wilson, 1978) and offers an alternative route to that of polymerization for the formation of macro-molecular materials. They are quick-setting materials, some of which have unusual properties for cements, such as adhesion and translucency. They find diverse applications, ranging from the biomedical to the industrial. [Pg.1]

Attention has been given to the synthesis of bimetallic silver-gold clusters [71] due to their effective catalytic properties, resistance to poisoning, and selectivity [72]. Recently molecular materials with gold and silver nanoclusters and nanowires have been synthesized. These materials are considered to be good candidates for electronic nanodevices and biosensors [73]. [Pg.33]

Halogen Bonding in Conducting or Magnetic Molecular Materials M. Fourmigu6. 181... [Pg.10]

The involvement of halogen bonding in conducting molecular materials is essentially based on the use of halogenated TTFs in electrocrystallization experiments with counter ions of Lewis base character prone to act as halogen bond acceptors. This concept was first successfully introduced by Imakubo... [Pg.196]

What is the ultimate fate of the molecular material formed in the envelopes of carbon-rich stars as it heads out into space The dust grains will be processed only slowly by the interstellar radiation held and survive almost intact until they become part of an interstellar cloud. The survival of individual PAHs depends on their size the larger ones withstand radiation much better than do the smaller ones.115 By survival we are referring to the aromatic skeleton the interstellar radiation field will efficiently break H bonds and cause ionization so that unsaturated, ionized PAHs are likely to dominate those found in the diffuse interstellar medium. Such species have been suggested as a source of the DIBs.118,123 Small molecules photodissociate in the interstellar radiation field before the material becomes part of an interstellar cloud. [Pg.37]

When considering molecular materials, Equation (1) translates into its macroscopic equivalent... [Pg.622]

Gatteschi, D. and Sessoli, R. (2003) Quantum tunneling of magnetization and related phenomena in molecular materials. Angew. Chem. Int. Ed., 42,... [Pg.56]

Figure 5 Conductivities of natural, polymeric and molecular materials... Figure 5 Conductivities of natural, polymeric and molecular materials...
Coordination and Organometallic Complexes as Second-order Nonlinear Optical Molecular Materials... [Pg.1]


See other pages where Molecular materials is mentioned: [Pg.1957]    [Pg.2239]    [Pg.157]    [Pg.245]    [Pg.32]    [Pg.298]    [Pg.442]    [Pg.93]    [Pg.426]    [Pg.95]    [Pg.126]    [Pg.377]    [Pg.385]    [Pg.403]    [Pg.175]    [Pg.90]    [Pg.3]    [Pg.129]    [Pg.220]    [Pg.80]    [Pg.460]    [Pg.74]    [Pg.192]    [Pg.224]    [Pg.705]    [Pg.621]    [Pg.622]    [Pg.622]    [Pg.624]    [Pg.93]    [Pg.769]   
See also in sourсe #XX -- [ Pg.433 ]

See also in sourсe #XX -- [ Pg.433 ]

See also in sourсe #XX -- [ Pg.44 ]




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Ab Initio Molecular-Dynamics Simulations of Doped Phase-Change Materials

Amorphous molecular materials

Amorphous pharmaceutical materials molecular mobility

Applications molecular optical materials

Applications of Molecularly Imprinted Materials as Enzyme Mimics

Applications of molecular dynamics to irradiation effects in materials

Applications, molecular electronics functional materials

Biomimetics. molecular materials

Capacitors, molecular electronic materials

Carbon molecular sieve material functionalization

Carbon molecular sieve material selection

Carbon molecular sieves materials

Catalyst materials molecular sieves

Cell-material interface, molecular

Cell-material interface, molecular mechanisms

Charge amorphous molecular materials

Charge-blocking amorphous molecular materials

Chiral Enantiopure Molecular Materials

Conjugation length, nonlinear optics, molecular materials

Coordination chemistry molecular materials

Copolymer materials, mesoporous molecular

Crystallography neutron, molecular materials

Diodes molecular electronic materials

Donor-acceptor groups, nonlinear optics molecular materials

High-molecular-weight DNA materials

Higher molecular weight organic materials

History of Molecular Sieve Materials

Ion Selective Molecularly Imprinted Materials

Lanthanide Based Magnetic Molecular Materials

Lanthanides, coordination polymers molecular materials

Lithographic resist materials, molecular glasses

Low molecular weight organic materials

Low-molecular-weight oxidized materials

Low-molecular-weight oxidized materials LMWOM)

M41S materials, mesoporous molecular sieves

M41S materials, mesoporous molecular sieves silicates

Magnetic materials molecular magnetism

Magnetic molecular materials resolution

Magnetism molecular materials

Material characterization methods molecular vibrations

Material equations, molecular photonics

Memory devices, molecular electronic materials

Metal-oxide frameworks molecular materials

Microporous carbon materials molecular sieves

Microstructured materials molecular approach

Molecular Materials Edited by Duncan W. Bruce, Dermot O Hare and Richard I. Walton

Molecular alignment nonlinear materials

Molecular electronic materials

Molecular engineering polymeric materials

Molecular glasses, optoelectronic applications photorefractive materials

Molecular level materials

Molecular magnetic materials

Molecular magnetic materials coupling mechanism

Molecular magnetic materials measuring techniques

Molecular magnetic materials multifunctional

Molecular magnetic materials quantum tunneling

Molecular magnetic materials relaxation

Molecular magnetic materials spin-lattice relaxation

Molecular magnetic materials switchable

Molecular magnets materials

Molecular materials for high-performance OLEDs

Molecular materials history

Molecular materials, research

Molecular materials, research challenges

Molecular nonlinear optical materials

Molecular nonlinear optical materials third-order effects

Molecular nonlinear optical materials, design

Molecular optoelectronic materials

Molecular organic materials

Molecular photonic materials

Molecular properties, rubbery material

Molecular sieve materials

Molecular sieve materials properties

Molecular signalling mechanisms host-material interactions

Molecular structure, role materials

Molecular weight of the starting material

Molecular weight polyimide materials

Molecularly Imprinted Materials for

Multidimensional molecular materials

Nomenclature, molecular sieve materials

Organic magnetic materials molecular

Organic molecular crystals polymeric materials

Organic sensor materials, molecular structure

Photochromic amorphous molecular materials

Photochromic materials, molecular glasses

Photochromic materials, molecular glasses azo reorientation and surface gratings

Photorefractive materials, molecular glasses

Polymeric materials connection between molecular

Polymeric materials, molecular

Polymeric materials/polymers molecular design

Porous materials molecular simulation calculations

Quantum molecular dynamic materials

Resists, molecular electronic materials

SVM Applied to Molecular and Materials Design

Shape-memory materials molecular mechanism

Spacers, nonlinear optics, molecular materials

Starting material, molecular weight

Switches, molecular electronic materials

The Development of Chemistry for Molecular Sieves and Porous Materials

The alphabet of high energy molecular materials

Transistors molecular electronic materials

Trinuclear Molybdenum and Tungsten Cluster Chalcogenides From Solid State to Molecular Materials

Zeolite and molecular sieves materials

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