Natural Biomaterials for Tissue Engineering is a comprehensive reference that provides in-depth principles for supporting and enabling knowledge during the tissue production process, focusing on different cell systems. The tissue fabrication process is illustrated with specific examples for more than 30 tissues, which may soon lead to new tissue engineering therapies. The section coverage includes an overall introduction, decellularization protocols specific to each tissue, characterization, materials and methods, cell seeding process, preclinical evaluation in laboratory animals, clinical applications, limitations, conclusion, and future challenges. Readers may turn to this up-to-date coverage for a widespread understanding of regenerative medicine, which will be useful to students and experts alike.
1. 1 : An introduction to biomaterials - p. Page x 2. 2 : Decellularization and characterization methods - p. Page 15 3. 3 : Crosslinking of biomaterials - p. Page 41 4. 4 : Rumen-derived extracellular matrix scaffolds and clinical application - p. Page 68 5. 5 : Reticulum-derived extracellular matrix scaffolds - p. Page 103 6. 6 : Omasum-derived extracellular matrix scaffolds - p. Page 128 7. 7 : Gall bladder-derived extracellular matrix scaffolds - p. Page 155 8. 8 : Aorta-derived extracellular matrix scaffolds and clinical application - p. Page 199 9. 9 : Pericardium-derived extracellular matrix scaffolds - p. Page 237 10. 10 : Diaphragm-derived extracellular matrix scaffolds and clinical application - p. Page 264 11. 11 : Fish swim bladder–derived tissue scaffolds - p. Page 301 12. 12 : Stem cell loading multiwalled carbon nanotubes-based bioactive scaffold for peripheral nerve regeneration in a rat model - p. Page 340 13. 13 : Cellular architects: mesenchymal stem cells crafting the future of regenerative medicine - p. Page 363 14. 14 : Polymeric nanoencapsulation for ameliorative application in rodent hepatic regeneration - p. Page 379 15. Index - p. Page 419
Natural Biomaterials for Tissue Engineering is a comprehensive reference that provides in-depth principles for supporting and enabling knowledge during the tissue production process, focusing on different cell systems. The tissue fabrication process is illustrated with specific examples for more than 30 tissues, which may soon lead to new tissue engineering therapies. The section coverage includes an overall introduction, decellularization protocols specific to each tissue, characterization, materials and methods, cell seeding process, preclinical evaluation in laboratory animals, clinical applications, limitations, conclusion, and future challenges. Readers may turn to this up-to-date coverage for a widespread understanding of regenerative medicine, which will be useful to students and experts alike.
1. 1 : An introduction to biomaterials - p. Page x 2. 2 : Decellularization and characterization methods - p. Page 15 3. 3 : Crosslinking of biomaterials - p. Page 41 4. 4 : Rumen-derived extracellular matrix scaffolds and clinical application - p. Page 68 5. 5 : Reticulum-derived extracellular matrix scaffolds - p. Page 103 6. 6 : Omasum-derived extracellular matrix scaffolds - p. Page 128 7. 7 : Gall bladder-derived extracellular matrix scaffolds - p. Page 155 8. 8 : Aorta-derived extracellular matrix scaffolds and clinical application - p. Page 199 9. 9 : Pericardium-derived extracellular matrix scaffolds - p. Page 237 10. 10 : Diaphragm-derived extracellular matrix scaffolds and clinical application - p. Page 264 11. 11 : Fish swim bladder–derived tissue scaffolds - p. Page 301 12. 12 : Stem cell loading multiwalled carbon nanotubes-based bioactive scaffold for peripheral nerve regeneration in a rat model - p. Page 340 13. 13 : Cellular architects: mesenchymal stem cells crafting the future of regenerative medicine - p. Page 363 14. 14 : Polymeric nanoencapsulation for ameliorative application in rodent hepatic regeneration - p. Page 379 15. Index - p. Page 419
