AbstractA model is developed for the elastic behavior of nanocomposite hydrogels subjected to swelling-drying under an arbitrary deformation with finite strains. Novel constitutive equations are derived based on the Flory concept of flexible chains with constrained junctions and solvent-dependent reference configuration. Adjustable parameters in the stress-strain relations are found by fitting observations on N,N-dimethylacrylamide/hectorite nanoclay hydrogels. The constitutive model describes adequately the mechanical response of nanocomposite hydrogels subjected to swelling-drying and solvent exchange
© 2013 Dr. James Paul BestHydrogel materials have demonstrated unique potential for biomedical appli...
The mechanical properties of hydrated biomaterials are non-recoverable upon unconfined compression i...
Smart materials with self-growing and tailorable mechanical strength have wide-range potential appli...
AbstractA model is developed for the elastic behavior of nanocomposite hydrogels subjected to swelli...
AbstractConstitutive equations are derived for the elastic response of swollen elastomers and hydrog...
Constitutive equations are derived for the elastic response of swollen elastomers and hydrogels unde...
In the recent trend of advanced material research, manufacturing novel materials with improved prope...
AbstractConstitutive equations are formulated for the mechanical behavior of rubber-like materials s...
A hydrogel is a polymeric three-dimensional network structure. The applications of this material typ...
A hydrogel is a polymeric three-dimensional network structure. The applications of this material typ...
textA hydrogel consists of a cross-linked polymer network and solvent molecules, capable of large, r...
The aim of tissue engineering is the regeneration of damaged tissue or the production of representat...
The polymer network of a nanocomposite (NC) hydrogel is physically crosslinked by nanoclay. Recently...
In this study, fracture toughness of nanocomposite hydrogels is quantified, and active mechanisms fo...
Biodegradable synthetic hydrogels have emerged as promising materials for tissue engineering and dru...
© 2013 Dr. James Paul BestHydrogel materials have demonstrated unique potential for biomedical appli...
The mechanical properties of hydrated biomaterials are non-recoverable upon unconfined compression i...
Smart materials with self-growing and tailorable mechanical strength have wide-range potential appli...
AbstractA model is developed for the elastic behavior of nanocomposite hydrogels subjected to swelli...
AbstractConstitutive equations are derived for the elastic response of swollen elastomers and hydrog...
Constitutive equations are derived for the elastic response of swollen elastomers and hydrogels unde...
In the recent trend of advanced material research, manufacturing novel materials with improved prope...
AbstractConstitutive equations are formulated for the mechanical behavior of rubber-like materials s...
A hydrogel is a polymeric three-dimensional network structure. The applications of this material typ...
A hydrogel is a polymeric three-dimensional network structure. The applications of this material typ...
textA hydrogel consists of a cross-linked polymer network and solvent molecules, capable of large, r...
The aim of tissue engineering is the regeneration of damaged tissue or the production of representat...
The polymer network of a nanocomposite (NC) hydrogel is physically crosslinked by nanoclay. Recently...
In this study, fracture toughness of nanocomposite hydrogels is quantified, and active mechanisms fo...
Biodegradable synthetic hydrogels have emerged as promising materials for tissue engineering and dru...
© 2013 Dr. James Paul BestHydrogel materials have demonstrated unique potential for biomedical appli...
The mechanical properties of hydrated biomaterials are non-recoverable upon unconfined compression i...
Smart materials with self-growing and tailorable mechanical strength have wide-range potential appli...