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In this work crazing in amorphous thermoplastics is investigated. Experiments on an ABS-material are used to characterize the deformation and fracture behavior. A homogenized material model for distributed crazing is developed. Simulation of macroscopic crack growth and the comparison with experiments are used to investigate the plastic zone at the crack tip and the fracture behavior.
damage --- Schädigung --- Crazing --- multi scale simulation --- rubber toughened thermoplastics --- Multiskalen Simulation --- Gummimodifizierte Thermoplaste
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The main objective of polymer materials scientists is to develop and design high performance polymer-based materials via the introduction of block copolymers, ionomers or inorganic-organic hybrids, in order to introduce functionalities such as mechanical reinforcement, gas barrier properties, fire retardancy, shape memory behavior or self-healing ability. In the last ten years, ionic liquids have demonstrated huge potential as new components within polymer-based materials, leading to a wide range of applications. Due to their many physical-chemical properties, as well as their various possible combinations, ionic liquids represent a new path to produce multifunctional materials.
History of engineering & technology --- ionic liquids --- thermosets --- Lithium salts --- electrolytes --- polyoxymethylene --- ionic liquid --- crystallization behavior --- nucleation --- polymerizable ionic liquid microemulsions --- poly(ionic liquid)s --- adsorption --- poly(ionic liquid) --- cross-linker --- electrochemical detection --- 4-nonylphenol --- poly (butylene adipate-co-terephthalate) --- layered double hydroxide --- in-situ polymerization --- nanocomposite --- permeability --- biodegradable polymer --- IR spectroscopy --- silica --- high pressure --- microwave --- synthetic methods --- nanomaterials --- polymers --- humidity sensing --- free-ion concentration --- fast response and recovery --- respiratory rate monitoring --- PMMA --- plasticizer --- mechanical behavior --- crazing --- thermal behavior --- ionic liquids --- thermosets --- Lithium salts --- electrolytes --- polyoxymethylene --- ionic liquid --- crystallization behavior --- nucleation --- polymerizable ionic liquid microemulsions --- poly(ionic liquid)s --- adsorption --- poly(ionic liquid) --- cross-linker --- electrochemical detection --- 4-nonylphenol --- poly (butylene adipate-co-terephthalate) --- layered double hydroxide --- in-situ polymerization --- nanocomposite --- permeability --- biodegradable polymer --- IR spectroscopy --- silica --- high pressure --- microwave --- synthetic methods --- nanomaterials --- polymers --- humidity sensing --- free-ion concentration --- fast response and recovery --- respiratory rate monitoring --- PMMA --- plasticizer --- mechanical behavior --- crazing --- thermal behavior
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The main objective of polymer materials scientists is to develop and design high performance polymer-based materials via the introduction of block copolymers, ionomers or inorganic-organic hybrids, in order to introduce functionalities such as mechanical reinforcement, gas barrier properties, fire retardancy, shape memory behavior or self-healing ability. In the last ten years, ionic liquids have demonstrated huge potential as new components within polymer-based materials, leading to a wide range of applications. Due to their many physical-chemical properties, as well as their various possible combinations, ionic liquids represent a new path to produce multifunctional materials.
History of engineering & technology --- ionic liquids --- thermosets --- Lithium salts --- electrolytes --- polyoxymethylene --- ionic liquid --- crystallization behavior --- nucleation --- polymerizable ionic liquid microemulsions --- poly(ionic liquid)s --- adsorption --- poly(ionic liquid) --- cross-linker --- electrochemical detection --- 4-nonylphenol --- poly (butylene adipate-co-terephthalate) --- layered double hydroxide --- in-situ polymerization --- nanocomposite --- permeability --- biodegradable polymer --- IR spectroscopy --- silica --- high pressure --- microwave --- synthetic methods --- nanomaterials --- polymers --- humidity sensing --- free-ion concentration --- fast response and recovery --- respiratory rate monitoring --- PMMA --- plasticizer --- mechanical behavior --- crazing --- thermal behavior
Choose an application
The main objective of polymer materials scientists is to develop and design high performance polymer-based materials via the introduction of block copolymers, ionomers or inorganic-organic hybrids, in order to introduce functionalities such as mechanical reinforcement, gas barrier properties, fire retardancy, shape memory behavior or self-healing ability. In the last ten years, ionic liquids have demonstrated huge potential as new components within polymer-based materials, leading to a wide range of applications. Due to their many physical-chemical properties, as well as their various possible combinations, ionic liquids represent a new path to produce multifunctional materials.
ionic liquids --- thermosets --- Lithium salts --- electrolytes --- polyoxymethylene --- ionic liquid --- crystallization behavior --- nucleation --- polymerizable ionic liquid microemulsions --- poly(ionic liquid)s --- adsorption --- poly(ionic liquid) --- cross-linker --- electrochemical detection --- 4-nonylphenol --- poly (butylene adipate-co-terephthalate) --- layered double hydroxide --- in-situ polymerization --- nanocomposite --- permeability --- biodegradable polymer --- IR spectroscopy --- silica --- high pressure --- microwave --- synthetic methods --- nanomaterials --- polymers --- humidity sensing --- free-ion concentration --- fast response and recovery --- respiratory rate monitoring --- PMMA --- plasticizer --- mechanical behavior --- crazing --- thermal behavior
Listing 1 - 4 of 4 |
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