Free-Radical Retrograde-Precipitation Polymerization (FRRPP) [recurso electrónico] : Novel Concepts, Processes, Materials, and Energy Aspects / by Gerard Caneba.
Tipo de material:
TextoEditor: Berlin, Heidelberg : Springer Berlin Heidelberg : Imprint: Springer, 2010Descripción: XIV, 310 p. online resourceTipo de contenido: text Tipo de medio: computer Tipo de portador: online resourceISBN: 9783642030253Tema(s): Chemistry | Chemistry, Physical organic | Polymers | Chemical engineering | Industrial engineering | Renewable energy sources | Nanotechnology | Chemistry | Polymer Sciences | Industrial and Production Engineering | Nanotechnology | Physical Chemistry | Renewable and Green Energy | Industrial Chemistry/Chemical EngineeringFormatos físicos adicionales: Printed edition:: Sin títuloClasificación CDD: 541.2254 Clasificación LoC:QD380-388Recursos en línea: Libro electrónico
En: Springer eBooksResumen: The free-radical retrograde-precipitation polymerization (FRRPP) process was introduced by the author in the early 1990s as a chain polymerization method, whereby phase separation is occurring while reactive sites are above the lower cr- ical solution temperature (LCST). It was evident that certain regions of the product polymer attain temperatures above the average ?uid temperature, sometimes rea- ing carbonization temperatures. During the early stages of polymerization-induced phase separation, nanoscale polymer domains were also found to be persistent in the reacting system, in apparent contradiction with results of microstructural coarsening from constant-temperature modeling and experimental studies. This mass con?- ment behavior was used for micropatterning, for entrapment of reactive radical sites, and for the formation of block copolymers that can be used as intermediates, surf- tants, coatings, coupling agents, foams, and hydrogels. FRRPP-based materials and its mechanism have also been proposed to be relevant in energy and environmentally responsible applications. This technology lacks intellectual appeal compared to others that have been p- posed to produce polymers of exotic architectures. There are no special chemical mediators needed. Control of conditions and product distribution is done by p- cess means, based on a robust and ?exible free-radical-based chemistry. Thus, it can readily be implemented in the laboratory and in production scale.
| Tipo de ítem | Biblioteca actual | Colección | Signatura | Copia número | Estado | Fecha de vencimiento | Código de barras |
|---|---|---|---|---|---|---|---|
| Libro Electrónico | Biblioteca Electrónica | Colección de Libros Electrónicos | QD380 -388 (Browse shelf(Abre debajo)) | 1 | No para préstamo | 373497-2001 |
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| QD380 -388 Polymer Libraries | QD380 -388 Scanning Force Microscopy of Polymers | QD380 -388 Polymers - Opportunities and Risks II | QD380 -388 Free-Radical Retrograde-Precipitation Polymerization (FRRPP) | QD380 -388 Organic Electronics | QD380 -388 Phenolic Resins: A Century of Progress | QD380 -388 Molecular Dynamics of Glass-Forming Systems |
The free-radical retrograde-precipitation polymerization (FRRPP) process was introduced by the author in the early 1990s as a chain polymerization method, whereby phase separation is occurring while reactive sites are above the lower cr- ical solution temperature (LCST). It was evident that certain regions of the product polymer attain temperatures above the average ?uid temperature, sometimes rea- ing carbonization temperatures. During the early stages of polymerization-induced phase separation, nanoscale polymer domains were also found to be persistent in the reacting system, in apparent contradiction with results of microstructural coarsening from constant-temperature modeling and experimental studies. This mass con?- ment behavior was used for micropatterning, for entrapment of reactive radical sites, and for the formation of block copolymers that can be used as intermediates, surf- tants, coatings, coupling agents, foams, and hydrogels. FRRPP-based materials and its mechanism have also been proposed to be relevant in energy and environmentally responsible applications. This technology lacks intellectual appeal compared to others that have been p- posed to produce polymers of exotic architectures. There are no special chemical mediators needed. Control of conditions and product distribution is done by p- cess means, based on a robust and ?exible free-radical-based chemistry. Thus, it can readily be implemented in the laboratory and in production scale.
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