Multicomponent gelatin-methacryloyl (GelMA) hydrogels are regularly adopted for cartilage tissue engineering (TE) applications, where optimizing chemical modifications for preserving biofunctionality is often overlooked. This study investigates the biological effect of two different modification methods, methacrylation and thiolation, to copolymerize GelMA and heparin. The native bioactivity of methacrylated heparin (HepMA) and thiolated heparin (HepSH) is evaluated via thromboplastin time and heparan sulfate-deficient myeloid cell-line proliferation assay, demonstrating that thiolation is superior for preserving anticoagulation and growth factor signaling capacity. Furthermore, incorporating either HepMA or HepSH in chondrocyte-laden GelMA...
Objective: To study the possibility of primary human chondrocytes culture in gelatin scaffold and th...
In this study, injectable hydrogels were prepared by horseradish peroxidase-mediated co-crosslinking...
Gelatin hydrogels can mimic the microenvironments of natural tissues and encapsulate cells homogeneo...
In recent years, scaffold-based strategies adopting hydrogels for cartilage regeneration have receiv...
Hydrogels hold a macromolecular structure comparable to that of native tissues and thus are very att...
Gelatin methacryloyl (GelMA) hydrogels are a mechanically and biochemically tuneable biomaterial, fa...
The development of hydrogels tailored for cartilage tissue engineering has been a research and clini...
Hydrogels are promising materials for cartilage repair, but the properties required for optimal func...
Gelatin methacrylate (GelMA) hydrogels have been widely studied for biomedical applications, such as...
Abstract Background Mesenchymal stem cells (MSCs) hold great promise for cartilage repair given thei...
Gelatin-methacrylamide (gelMA) hydrogels are shown to support chondrocyte viability and differentiat...
Hydrogels are promising materials for cartilage repair, but the properties required for optimal func...
Developing a biomaterial suitable for adipose-derived stem cell (ADSCs)-laden scaffolds that can dir...
For millions of people, damaged cartilage is a major source of pain and disability. As those people ...
For millions of people, damaged cartilage is a major source of pain and disability. Once damaged, ca...
Objective: To study the possibility of primary human chondrocytes culture in gelatin scaffold and th...
In this study, injectable hydrogels were prepared by horseradish peroxidase-mediated co-crosslinking...
Gelatin hydrogels can mimic the microenvironments of natural tissues and encapsulate cells homogeneo...
In recent years, scaffold-based strategies adopting hydrogels for cartilage regeneration have receiv...
Hydrogels hold a macromolecular structure comparable to that of native tissues and thus are very att...
Gelatin methacryloyl (GelMA) hydrogels are a mechanically and biochemically tuneable biomaterial, fa...
The development of hydrogels tailored for cartilage tissue engineering has been a research and clini...
Hydrogels are promising materials for cartilage repair, but the properties required for optimal func...
Gelatin methacrylate (GelMA) hydrogels have been widely studied for biomedical applications, such as...
Abstract Background Mesenchymal stem cells (MSCs) hold great promise for cartilage repair given thei...
Gelatin-methacrylamide (gelMA) hydrogels are shown to support chondrocyte viability and differentiat...
Hydrogels are promising materials for cartilage repair, but the properties required for optimal func...
Developing a biomaterial suitable for adipose-derived stem cell (ADSCs)-laden scaffolds that can dir...
For millions of people, damaged cartilage is a major source of pain and disability. As those people ...
For millions of people, damaged cartilage is a major source of pain and disability. Once damaged, ca...
Objective: To study the possibility of primary human chondrocytes culture in gelatin scaffold and th...
In this study, injectable hydrogels were prepared by horseradish peroxidase-mediated co-crosslinking...
Gelatin hydrogels can mimic the microenvironments of natural tissues and encapsulate cells homogeneo...