Cells, Free Full-Text

Por um escritor misterioso

Descrição

Silk has a long history as an exclusive textile, but also as a suture thread in medicine; nowadays, diverse cell carriers are manufactured from silk. Its advantages are manifold, including high biocompatibility, biomechanical strength and processability (approved for nearly all manufacturing techniques). Silk’s limitations, such as scarcity and batch to batch variations, are overcome by gene technology, which allows for the upscaled production of recombinant “designed” silk proteins. For processing thin fibroin filaments, the sericin component is generally removed (degumming). In contrast to many synthetic biomaterials, fibroin allows for superior cell adherence and growth. In addition, silk grafts demonstrate superior mechanical performance and long-term stability, making them attractive for anterior cruciate ligament (ACL) tissue engineering. Looking at these promising properties, this review focusses on the responses of cell types to silk variants, as well as their biomechanical properties, which are relevant for ACL tissue engineering. Meanwhile, sericin has also attracted increasing interest and has been proposed as a bioactive biomaterial with antimicrobial properties. But so far, fibroin was exclusively used for experimental ACL tissue engineering approaches, and fibroin from spider silk also seems not to have been applied. To improve the bone integration of ACL grafts, silk scaffolds with osteogenic functionalization, silk-based tunnel fillers and interference screws have been developed. Nevertheless, signaling pathways stimulated by silk components remain barely elucidated, but need to be considered during the development of optimized silk cell carriers for ACL tissue engineering.
Cells, Free Full-Text
Textile-embedded cell-free biosensors
Cells, Free Full-Text
An illustration of the full-duplex cell-free massive MIMO system.
Cells, Free Full-Text
Antibodies, Free Full-Text
Cells, Free Full-Text
Nature Reviews Molecular Cell Biology on X: From May cover Challenges and directions in studying cell–cell communication by #ExtracellularVesicles @DaveCarter1234 @guillaume_niel @VaderPieter Clayton Lambert & Raposo #EVsAreCool FREE pdf: https
Cells, Free Full-Text
Labile coat: reason for noninfectious cell-free varicella-zoster virus in culture. - Abstract - Europe PMC
Cells, Free Full-Text
Cell-free synthesis of human interferon. - Abstract - Europe PMC
Cells, Free Full-Text
Rapid cell-free forward engineering of novel genetic ring oscillators
Cells, Free Full-Text
JCM, Free Full-Text
Cells, Free Full-Text
Cells, Free Full-Text
Cells, Free Full-Text
Cell-free mutant analysis combined with structure prediction of a lasso peptide biosynthetic protein B2
Cells, Free Full-Text
Sequencing of Circulating Cell-free DNA during Pregnancy
Cells, Free Full-Text
The cell-free system: A new apparatus for affordable, sensitive, and portable healthcare - ScienceDirect
Cells, Free Full-Text
Cells, Free Full-Text
Cells, Free Full-Text
Towards reproducible cell-free systems
Cells, Free Full-Text
Cell Circuits and Complex Tissues
de por adulto (o preço varia de acordo com o tamanho do grupo)