The complex relationship between the hydrodynamic environment and surrounding tissues directly impacts on the design and production of clinically useful grafts and implants. Tissue engineers have generally seen bioreactors as 'black boxes' within which tissue engineering constructs (TECs) are cultured. It is accepted that a more detailed description of fluid mechanics and nutrient transport within process equipment can be achieved by using computational fluid dynamics (CFD) technology. This review discusses applications of CFD for tissue engineering-related bioreactors -- fluid flow processes have direct implications on cellular responses such as attachment, migration and proliferation. We conclude that CFD should be seen as an invaluable t...
Perfusion bioreactors have been proved to be an impartible part of vascular tissue engineering due t...
CFD (computational fluid dynamics) is becoming a common and practical tool for modeling the hydrodyn...
Part of special issue: 2nd International Conference on Medical Devices: Materials, Mechanics and Man...
The complex relationship between the hydrodynamic environment and surrounding tissues directly impac...
The hydrodynamic environment “created” by bioreactors for the culture of a tissue engineered constru...
The in vitro culture process via bioreactors is critical to create tissue-engineered con-structs (TE...
This research studies dynamic culture for 3D tissue construct development with computational fluid d...
Bone tissue engineering strategies use flow through perfusion bioreactors to apply mechanical stimul...
Due to the sensitivity of mammalian cell cultures, understanding the influence of operating conditio...
Tissue engineering is an emerging field with the aim to produce artificial organs and tissues for tr...
The purpose of this study is to improve the design of a bioreactor for growing bone and other three-...
Despite the advances in the field of tissue engineering (TE), engineered tissue products that are pa...
Mechanical stimulation can regulate cellular behavior, e.g., differentiation, proliferation, matrix ...
A three-dimensional computational fluid dynamics- (CFD-) model based on a differential pressure lami...
Since design, construction and evaluation of bioreactors for large-scale production is costly and ti...
Perfusion bioreactors have been proved to be an impartible part of vascular tissue engineering due t...
CFD (computational fluid dynamics) is becoming a common and practical tool for modeling the hydrodyn...
Part of special issue: 2nd International Conference on Medical Devices: Materials, Mechanics and Man...
The complex relationship between the hydrodynamic environment and surrounding tissues directly impac...
The hydrodynamic environment “created” by bioreactors for the culture of a tissue engineered constru...
The in vitro culture process via bioreactors is critical to create tissue-engineered con-structs (TE...
This research studies dynamic culture for 3D tissue construct development with computational fluid d...
Bone tissue engineering strategies use flow through perfusion bioreactors to apply mechanical stimul...
Due to the sensitivity of mammalian cell cultures, understanding the influence of operating conditio...
Tissue engineering is an emerging field with the aim to produce artificial organs and tissues for tr...
The purpose of this study is to improve the design of a bioreactor for growing bone and other three-...
Despite the advances in the field of tissue engineering (TE), engineered tissue products that are pa...
Mechanical stimulation can regulate cellular behavior, e.g., differentiation, proliferation, matrix ...
A three-dimensional computational fluid dynamics- (CFD-) model based on a differential pressure lami...
Since design, construction and evaluation of bioreactors for large-scale production is costly and ti...
Perfusion bioreactors have been proved to be an impartible part of vascular tissue engineering due t...
CFD (computational fluid dynamics) is becoming a common and practical tool for modeling the hydrodyn...
Part of special issue: 2nd International Conference on Medical Devices: Materials, Mechanics and Man...