Restoration of brain functions following trauma or degenerative neural diseases is considered among the greatest challenges in neurology due to the fact that the central nervous system (CNS) does not regenerate on its own. Tissue engineering offers a potential solution in developing artificial neural/brain tissues. Numerous hydrogel based biomaterials have been investigated in the field of neural tissue engineering. However, the lack of the optimum combination of mechanical and biological properties in commonly available hydrogels represents a major bottle neck in growing artificial neural tissues. In this study, 3 dimensional cell culture of PC12 neuronal cells have been investigated in methacrylated Gelatin (GelMA) hydrogel for brain tiss...
Over the past decade, hydrogels have shown great potential for mimicking three-dimensional (3D) brai...
Over the past decade, hydrogels have shown great potential for mimicking three-dimensional (3D) brai...
Over the past decade, hydrogels have shown great potential for mimicking three-dimensional (3D) brai...
Recreating the 3D environment of the CNS using hydrogel matrices allows neurons and glial cells in v...
ABSTRACT: Brain tissue engineering has now emerged as one of the most promising treatments for the t...
Recent years have witnessed the development of an enormous variety of hydrogel-based systems for neu...
The development of techniques to create and use multiphase microstructured hydrogels (granular hydro...
The development of techniques to create and use multiphase microstructured hydrogels (granular hydro...
Promoting nerve regeneration requires engineering cellular carriers to physically and biochemically ...
State-of-the-art neuroprosthetic devices rely on stiff metallic electrodes to communicate with neura...
Biomaterial scaffolds have the potential to enhance neuronal development and regeneration. Understan...
© 2020Brain tissues that are severely damaged by traumatic brain injury (TBI) is hardly regenerated,...
The use of advanced biomaterials as a structural and functional support for stem cells-based therape...
© 2020Brain tissues that are severely damaged by traumatic brain injury (TBI) is hardly regenerated,...
Brain tissues that are severely damaged by traumatic brain injury (TBI) is hardly regenerated, which...
Over the past decade, hydrogels have shown great potential for mimicking three-dimensional (3D) brai...
Over the past decade, hydrogels have shown great potential for mimicking three-dimensional (3D) brai...
Over the past decade, hydrogels have shown great potential for mimicking three-dimensional (3D) brai...
Recreating the 3D environment of the CNS using hydrogel matrices allows neurons and glial cells in v...
ABSTRACT: Brain tissue engineering has now emerged as one of the most promising treatments for the t...
Recent years have witnessed the development of an enormous variety of hydrogel-based systems for neu...
The development of techniques to create and use multiphase microstructured hydrogels (granular hydro...
The development of techniques to create and use multiphase microstructured hydrogels (granular hydro...
Promoting nerve regeneration requires engineering cellular carriers to physically and biochemically ...
State-of-the-art neuroprosthetic devices rely on stiff metallic electrodes to communicate with neura...
Biomaterial scaffolds have the potential to enhance neuronal development and regeneration. Understan...
© 2020Brain tissues that are severely damaged by traumatic brain injury (TBI) is hardly regenerated,...
The use of advanced biomaterials as a structural and functional support for stem cells-based therape...
© 2020Brain tissues that are severely damaged by traumatic brain injury (TBI) is hardly regenerated,...
Brain tissues that are severely damaged by traumatic brain injury (TBI) is hardly regenerated, which...
Over the past decade, hydrogels have shown great potential for mimicking three-dimensional (3D) brai...
Over the past decade, hydrogels have shown great potential for mimicking three-dimensional (3D) brai...
Over the past decade, hydrogels have shown great potential for mimicking three-dimensional (3D) brai...