
Tissue engineering aims to induce tissue self-regeneration in vivo or to produce a functional tissue replacement in vitro to be then implanted in the body. To produce a viable and functional tendon, a uniaxially orientated collagen type I matrix has to be generated. Biochemical and physical factors can potentially alter both the production and the organisation of this matrix, and their combination in a dose- and time-dependent manner is probably the key to in vitro engineered tendons. This review discusses the role of these different factors affecting tenocyte growth in a three-dimensional environment in vivo and in vitro, and underlines the future challenge of tendon tissue engineering.
Male, Tissue Engineering, Biocompatible Materials, Prostheses and Implants, Plastic Surgery Procedures, Sensitivity and Specificity, Tendons, Risk Factors, Tendon Injuries, Tensile Strength, Tendinopathy, Humans, Regeneration, Female, Stress, Mechanical
Male, Tissue Engineering, Biocompatible Materials, Prostheses and Implants, Plastic Surgery Procedures, Sensitivity and Specificity, Tendons, Risk Factors, Tendon Injuries, Tensile Strength, Tendinopathy, Humans, Regeneration, Female, Stress, Mechanical
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