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Polymer energy

Grignard chemistry was used as an alternative to hydroboration reaction by the Chujo team in its search for new n-type conjugated polymers for utilization in polymer energy storage systems. By this route, the syntheses of 7r-conjugated poly(p-phenylene-boranes) (15)35 (Fig. 12) and poly(ethynylene-phenylene-ethynylene-borane)s were reported.36... [Pg.28]

Polymer Energy Minima c (A) Conformation in Crystalline State Chain Symmetry Space Group References... [Pg.99]

When the work functions of the contact electrodes are not well matched to the bands of the EL polymers, energy barriers are formed at the respective interfaces. The height of the barrier for hole injection is determined by the difference between the work function of... [Pg.13]

Complementary DNA hybridizes with labeled probe associates with polymer energy transfer Cy emission... [Pg.381]

Keywords. Light-emitting diodes, Conjugated polymers, Energy transfer, Electroluminescence, Quantum efficiency... [Pg.193]

For photovoltaic cells made with pure conjugated polymers, energy conversion efficiencies are typically 10-3-10-1%, too low to be used in practical applications [18,59]. Photoinduced charge transfer across a donor/acceptor (D/A)... [Pg.163]

Figure 118 (a) Schematic representation (not to scale) of separated polymer channel domains individual submicrometer size LEDs in the polymer blend (PMCHT PTOPT)/PBD EL structure, (b) The energy level structure of the EL device. The data on polymer energy levels taken from Ref. 345. The hole injection barriers from ITO into PMCHT [AEh(l) = 1 eV] and PTOPT [AEh(2) 9 0.6 eV] are indicated in the figure. For the molecular structure of the polymers, see Fig. 119. [Pg.286]

Increase of the slope of the ablation rate that is caused by a more efficient decomposition of the polymer. Energy that has been gained from an exothermic decomposition of the polymer can also increase the ablation rate. [Pg.544]

Pchem. Polymer Bio-based polymer Energy savings Pchem. Polymer Bio-based polymer Emission savings ... [Pg.205]

Y. Zhou, M. Eck, M. Kruger, Bulk-Heterojunction Hybrid Solar Cells Based on Colloidal Nanocrystals and Conjugated Polymers. Energy Environmental Science 2010,3,1851. [Pg.224]

The two new terms (relative to Eq. (1)) describe interac ons between the particles of interest and a bath. In a stochastic simulation of local polymer dynamics in dilute solution, the polymer chain is the systmi of interest and the solvent is the bath. Bath particles are not represented explicitly. Rather, the bath damps the motion of the particles with friction terms and supplies stochastic forces Nj which mimic the effect of collisions between solvent molecules and the polymer. Energy is not conserved in the system stochastic forces exdiange energy between the bath and the chain. In principle, P should now indude a hydrodynamic interaction term [14]. In practice, this term is usually neglected in simulatiorm of local dynamics and only the intramolecular potential energy of the polymer is used to determine the force. The stochastic forces in Eq. (2) are characterized by ... [Pg.77]

RARE EARTH METAL CONTAINING POLYMERS ENERGY TRANSFER FROM URANYL TO EUROPIUM IONS IN lONOMERS... [Pg.387]


See other pages where Polymer energy is mentioned: [Pg.506]    [Pg.185]    [Pg.162]    [Pg.66]    [Pg.85]    [Pg.152]    [Pg.40]    [Pg.302]    [Pg.192]    [Pg.3840]    [Pg.148]    [Pg.2856]    [Pg.366]    [Pg.124]    [Pg.344]    [Pg.384]    [Pg.176]    [Pg.230]    [Pg.131]    [Pg.256]    [Pg.91]    [Pg.349]    [Pg.87]    [Pg.935]    [Pg.45]    [Pg.391]    [Pg.718]    [Pg.101]    [Pg.190]    [Pg.7]    [Pg.82]    [Pg.83]    [Pg.578]   
See also in sourсe #XX -- [ Pg.318 , Pg.321 ]




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Activation Energy of Secondary Relaxation in Polymers

Activation energy polymer transitions

Activation energy theories, polymer glass

Applications of High-Energy Radiation in Polymer Physics

Attractive interaction energy polymer-coated particles

Benzene, bond dissociation energy polymers

Bonds energy breaks polymer chain

Calculation polymer-correlation energy

Chain energy along polymer

Conducting Polymer Nanocomposites for Energy Storage Application

Conformational and Packing Energy Analysis of Polymer Epitaxy

Conformational energy calculations isotactic/syndiotactic polymers

Crystalline polymers energy calculations

ENERGY CONSERVATION IN TEXTILE AND POLYMER PROCESSING

Energy Migration in Resist Polymers

Energy Transfer from Photosensitive Polymers to SWNTs

Energy and Polymer Recycling

Energy calculations, isotactic/syndiotactic polymers

Energy conducting polymers

Energy conjugated polymers

Energy conversion membranes polymer electrolyte fuel cells

Energy filler-polymer interaction

Energy inputs starch polymers

Energy luminescent conjugated polymers

Energy polymer heterojunctions

Energy spinodal decomposition, polymer blends

Energy structure, electroluminescent polymers

Energy through silicone liquid polymer

Energy to the polymer

Energy transfer processes in polymers

Fluorocarbon polymers surface free energies

Fracture Surface Energy of glassy polymers

Free Energy of Flexible and Rigid Rod Polymer Blends

Free energy of polymer solutions

Free-energy landscape, polymer crystal

Gibbs free energy equation, glass transition polymers

Glassy Polymers fracture surface energies

Glassy Polymers surface free energies

High-energy radiation polymer degradation

Hydrogen, bond dissociation energy polymers

Hydrogen, energy conversion polymer electrolyte fuel cell

In-service requirements of advanced fibre-reinforced polymer (FRP) composites for sustainable energy applications

Interaction Forces (Energies) Between Particles or Droplets Containing Adsorbed Non-ionic Surfactants and Polymers

Interaction energy density, polymer blends

Interaction energy nonadsorbing polymer

Interfacial energy polymer blend phase separation

Internal energy and specific heat of an isolated polymer chain

Length and Energy Scales of Minimal, Coarse-Grained Models for Polymer-Solid Contacts

Microwave energy polymer processing

POLYMERS IN SOLAR ENERGY UTILIZATION

Photoconductive polymers produced by thermal or high-energy radiation treatment

Polymer Nanocomposites for Energy Storage Applications

Polymer backbone bond energy

Polymer crystallization Gibbs free energy

Polymer degradation by high-energy radiation

Polymer electrolyte fuel cell energy conversion

Polymer energy content

Polymer energy conversion

Polymer energy dissipation

Polymer energy elasticity

Polymer oxygen diffusion, activation energy

Polymer surface energy

Polymer surface energy values

Polymer systems Helmholtz energy

Polymers (cont surface energies

Polymers Potential energy function

Polymers activation energy

Polymers and Energy

Polymers cohesive energy density

Polymers dissociation energy

Polymers energy consumption

Polymers energy harvesting based

Polymers energy recovery from

Polymers energy storage based

Polymers free energy

Polymers free energy calculations

Polymers, surface free energy data

Polystyrene polymers, energy

Polystyrene polymers, energy dissipation

Pyrolysis activation energy, polymer

Relaxation Activation Energy of Polymers in the Glass Transition Region

Relaxation activation energy, polymers

Selected Correlation Energy Calculations on Polymers

Singlet Energy Migration, Trapping and Excimer Formation in Polymers

Stiff polymers bending energy

Surface energy of solid polymers

Surface free energies polymer blends

Surface free energies polymer crystals

Sustainable energy advanced fibre-reinforced polymer

Sustainable energy recently developed polymers

Transfer of Vibrational Energy in Dye-Doped Polymers

Transport activation energy, of polymer segments

Typical Gross Energies for Polymer Production

Use of Polymer Compositions for Nuclear Energy Applications

Use of high-energy radiation in polymer blends technology

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