The chemical and physical properties of scaffolds affect cellular behaviour, which ultimately determines the performance and outcome of tissue-engineered cartilage constructs. The objective of this study was to assess whether a degradable porous poly(urethane urea) scaffold could be a suitable material for cartilage tissue engineering. We also investigated whether the post-expansion redifferentiation and cartilage tissue formation of in vitro expanded adult human chondrocytes could be regulated by controlled modifications of the scaffold architecture. Scaffolds with different pore sizes
A highly interconnecting and accessible pore network has been suggested as one of a number of prereq...
The goal of this study was to produce and characterize the scaffolds by combining the advantages of...
Engineered scaffolds for tissue-engineering should be designed to match the stiffness and strength o...
We investigated whether the post-expansion redifferentiation and cartilage tissue formation capacity...
Articular cartilage was thought to be one of the first tissues to be successfully engineered. Despit...
Poly(1,8-octanediol-co-citrate) (POC) is a biocompatible, biodegradable elastomer with potential app...
Musculoskeletal tissue, bone and cartilage are under extensive investigation in tissue engineering r...
An important tenet in designing scaffolds for regenerative medicine consists in mimicking the dynami...
Introduction: The effect of scaffold pore size and interconnectivity is undoubtedly a crucial factor...
Cartilage is a tissue that has a low potential for self-repair. One of the methods forimprovement of...
Cartilage has a poor regenerative capacity. Tissue-engineering approaches using porous scaffolds see...
Recent investigations into micro-architecture of scaffolds has revealed that mean pore sizes are cel...
Cartilage has a poor regenerative capacity. Tissue-engineering approaches using porous scaffolds see...
Development of artificial materials for the facilitation of cartilage regeneration remains an import...
A highly interconnecting and accessible pore network has been suggested as one of a number of prereq...
The goal of this study was to produce and characterize the scaffolds by combining the advantages of...
Engineered scaffolds for tissue-engineering should be designed to match the stiffness and strength o...
We investigated whether the post-expansion redifferentiation and cartilage tissue formation capacity...
Articular cartilage was thought to be one of the first tissues to be successfully engineered. Despit...
Poly(1,8-octanediol-co-citrate) (POC) is a biocompatible, biodegradable elastomer with potential app...
Musculoskeletal tissue, bone and cartilage are under extensive investigation in tissue engineering r...
An important tenet in designing scaffolds for regenerative medicine consists in mimicking the dynami...
Introduction: The effect of scaffold pore size and interconnectivity is undoubtedly a crucial factor...
Cartilage is a tissue that has a low potential for self-repair. One of the methods forimprovement of...
Cartilage has a poor regenerative capacity. Tissue-engineering approaches using porous scaffolds see...
Recent investigations into micro-architecture of scaffolds has revealed that mean pore sizes are cel...
Cartilage has a poor regenerative capacity. Tissue-engineering approaches using porous scaffolds see...
Development of artificial materials for the facilitation of cartilage regeneration remains an import...
A highly interconnecting and accessible pore network has been suggested as one of a number of prereq...
The goal of this study was to produce and characterize the scaffolds by combining the advantages of...
Engineered scaffolds for tissue-engineering should be designed to match the stiffness and strength o...