This paper describes the development of novel bioreactor systems for use in studying the development of tissue engineered muscle constructs. The bioreactor systems combine two environmental stimuli, mechanical loading and electrical pulses which, independently, are known to promote muscle tissue growth, into a single system to investigate whether further functional improvements can be achieved. The bioreactors are reprogrammable to enable different stimulation protocols to be assessed and allow the simultaneous stimulation of up to six tissues in a single system. This allows us to improve experimental throughput and speeds up our understanding of the physiological processes involved in skeletal muscle development
Skeletal muscle tissue is characterized by high metabolic requirements, defined structure and high r...
Bioreactor technology is vital for tissue engineering. Usually, bioreactors are used to provide a ti...
Muscular tissue regeneration may be enhanced in vitro by means of mechanical stimulation, inducing c...
This paper describes the development of novel bioreactor systems for use in studying the development...
This paper describes the development of novel bioreactor systems for use in studying the development...
For over 300 years, scientists have understood that stimulation, in the form of an electrical impuls...
The bioengineering of skeletal muscle tissue in-vitro has enabled researchers to more closely mimic ...
We report on the development of a bioreactor system for mechanical stimulation of musculoskeletal ti...
The bioengineering of skeletal muscle tissue in-vitro has enabled researchers to more closely mimic ...
Tissue engineering skeletal muscle has versatile potential applications but it is still challenging ...
Objective To give a concise review of the current state of the art in tissue engineering (TE) relate...
Engineered muscle tissues can be used for several different purposes, which include the production o...
Tissue engineering is an interdisciplinary field in which cell biology, biomaterials science, and su...
We review here the current research status on bioreactors for tissue engineering with cell electrica...
Low-labor production of tissue-engineered muscles (TEMs) is one of the key technologies to realize t...
Skeletal muscle tissue is characterized by high metabolic requirements, defined structure and high r...
Bioreactor technology is vital for tissue engineering. Usually, bioreactors are used to provide a ti...
Muscular tissue regeneration may be enhanced in vitro by means of mechanical stimulation, inducing c...
This paper describes the development of novel bioreactor systems for use in studying the development...
This paper describes the development of novel bioreactor systems for use in studying the development...
For over 300 years, scientists have understood that stimulation, in the form of an electrical impuls...
The bioengineering of skeletal muscle tissue in-vitro has enabled researchers to more closely mimic ...
We report on the development of a bioreactor system for mechanical stimulation of musculoskeletal ti...
The bioengineering of skeletal muscle tissue in-vitro has enabled researchers to more closely mimic ...
Tissue engineering skeletal muscle has versatile potential applications but it is still challenging ...
Objective To give a concise review of the current state of the art in tissue engineering (TE) relate...
Engineered muscle tissues can be used for several different purposes, which include the production o...
Tissue engineering is an interdisciplinary field in which cell biology, biomaterials science, and su...
We review here the current research status on bioreactors for tissue engineering with cell electrica...
Low-labor production of tissue-engineered muscles (TEMs) is one of the key technologies to realize t...
Skeletal muscle tissue is characterized by high metabolic requirements, defined structure and high r...
Bioreactor technology is vital for tissue engineering. Usually, bioreactors are used to provide a ti...
Muscular tissue regeneration may be enhanced in vitro by means of mechanical stimulation, inducing c...