Inorganic Biomaterials for Drug Delivery covers a wide range of inorganic biomaterial types and their properties, from traditional materials like ceramics, metallics, and bioglasses to novel composites and nano-engineered inorganic biomaterials. Biocompatibility, toxicity, and regulatory considerations are also thoroughly discussed, ensuring the reader is fully equipped for efficient biomaterials selection and utilization in drug delivery applications. This is a must-have reference for those working in the fields of materials science, biomedical engineering, pharmaceutical science, pharmacology, chemical engineering, and clinical science.
1. 1. Introduction of inorganic biomaterials - p. 1 2. 2. Carbon nanotubes in drug delivery - p. 23 3. 3. Carbon dots in drug delivery - p. 55 4. 4. Silver nanoparticles in therapeutics - p. 71 5. 5. Iron nanoparticles for drug delivery - p. 85 6. 6. Use of platinum in drug delivery - p. 121 7. 7. Use of titanium dioxide in drug delivery - p. 153 8. 8. Iron oxides for drug delivery - p. 189 9. 9. Use of hydroxyapatite for drug delivery applications - p. 221 10. 10. Tricalcium phosphate in drug delivery - p. 261 11. 11. Calcium sulfate in drug delivery - p. 287 12. 12. Nanophase ceramics-based systems used in drug delivery - p. 311 13. 13. Bioglass ceramics-based drug delivery systems - p. 321 14. 14. Metal-doped ceramics in drug delivery - p. 363 15. 15. Calcium silicate in drug delivery - p. 381 16. 16. Mesoporous silica in drug delivery - p. 415 17. 17. Use of colloidal silica in drug delivery - p. 463 18. 18. Montmorillonite for drug delivery - p. 483 19. 19. Bentonite in drug delivery - p. 499 20. 20. Kaolinite in drug delivery - p. 519 21. 21. Zeolites in drug delivery - p. 571 22. 22. Halloysite in drug delivery - p. 603 23. Index - p. 617
Inorganic Biomaterials for Drug Delivery covers a wide range of inorganic biomaterial types and their properties, from traditional materials like ceramics, metallics, and bioglasses to novel composites and nano-engineered inorganic biomaterials. Biocompatibility, toxicity, and regulatory considerations are also thoroughly discussed, ensuring the reader is fully equipped for efficient biomaterials selection and utilization in drug delivery applications. This is a must-have reference for those working in the fields of materials science, biomedical engineering, pharmaceutical science, pharmacology, chemical engineering, and clinical science.
1. 1. Introduction of inorganic biomaterials - p. 1 2. 2. Carbon nanotubes in drug delivery - p. 23 3. 3. Carbon dots in drug delivery - p. 55 4. 4. Silver nanoparticles in therapeutics - p. 71 5. 5. Iron nanoparticles for drug delivery - p. 85 6. 6. Use of platinum in drug delivery - p. 121 7. 7. Use of titanium dioxide in drug delivery - p. 153 8. 8. Iron oxides for drug delivery - p. 189 9. 9. Use of hydroxyapatite for drug delivery applications - p. 221 10. 10. Tricalcium phosphate in drug delivery - p. 261 11. 11. Calcium sulfate in drug delivery - p. 287 12. 12. Nanophase ceramics-based systems used in drug delivery - p. 311 13. 13. Bioglass ceramics-based drug delivery systems - p. 321 14. 14. Metal-doped ceramics in drug delivery - p. 363 15. 15. Calcium silicate in drug delivery - p. 381 16. 16. Mesoporous silica in drug delivery - p. 415 17. 17. Use of colloidal silica in drug delivery - p. 463 18. 18. Montmorillonite for drug delivery - p. 483 19. 19. Bentonite in drug delivery - p. 499 20. 20. Kaolinite in drug delivery - p. 519 21. 21. Zeolites in drug delivery - p. 571 22. 22. Halloysite in drug delivery - p. 603 23. Index - p. 617
