Principles of Biomaterials Encapsulation: Volume One, provides an expansive and in-depth resource covering the key principles, biomaterials, strategies and techniques for encapsulation. Volume One begins with an introduction to encapsulation, with subsequent chapters dedicated to a broad range of encapsulation principles and techniques, including spray chilling and cooling, microemulsion, polymerization, extrusion, cell microencapsulation and much more. This book methodically details each technique, assessing the advantages and disadvantages of each, allowing the reader to make an informed decision when using encapsulation in their research. Principles of Biomaterials Encapsulation: Volume One enables readers to learn about the various strategies and techniques available for encapsulation of a wide selection of biomedical substrates, such as drugs, cells, hormones, growth factors and so on.
Written and edited by well-versed materials scientists with extensive clinical, biomedical and regenerative medicine experience, this book offers a deeply interdisciplinary look at encapsulation in translational medicine. As such, this book will provide a useful resource to a broad readership, including those working in the fields of materials science, biomedical engineering, regenerative and translational medicine, pharmacology, chemical engineering and nutritional science.
1. Chapter 1 : An introduction to biomaterials encapsulation - p. Page x 2. Chapter 2 : Encapsulation techniques overview - p. Page 9 3. Chapter 3 : Encapsulation of bioactive compunds: Role of nanotechnology - p. Page 30 4. Chapter 4 : Morphology control in encapsulation - p. Page 59 5. Chapter 5 : Encapsulation: Advances in cell encapsulation - p. Page 88 6. Chapter 6 : Encapsulation: Spray chilling and cooling - p. Page 103 7. Chapter 7 : Encapsulation: Spinning disk technology - p. Page 127 8. Chapter 8 : Encapsulation: Fluidized bed coating technology - p. Page 139 9. Chapter 9 : Encapsulation: Microemulsion - p. Page 153 10. Chapter 10 : Encapsulation: Electrospray - p. Page 187 11. Chapter 11 : Encapsulation: Melt dispersion - p. Page 208 12. Chapter 12 : Encapsulation: Pan-coating - p. Page 230 13. Chapter 13 : Encapsulation via electrospinning technology - p. Page 251 14. Chapter 14 : Microencapsulation: Spray drying - p. Page 265 15. Chapter 15 : Microencapsulation: Air suspension technique - p. Page 292 16. Chapter 16 : Microencapsulation: Polymerization - p. Page 301 17. Chapter 17 : Microencapsulation: Coacervation phase separation - p. Page 319 18. Chapter 18 : Microencapsulation: Solvent evaporation - p. Page 367 19. Chapter 19 : Microencapsulation: Extrusion - p. Page 387 20. Chapter 20 : Microencapsulation: Dripping and jet break-up - p. Page 406 21. Chapter 21 : Microencapsulation: Annular jet process - p. Page 426 22. Chapter 22 : Microencapsulation: Phase inversion precipitation - p. Page 437 23. Chapter 23 : Cell microencapsulation - p. Page 454 24. Index - p. Page 475
Principles of Biomaterials Encapsulation: Volume One, provides an expansive and in-depth resource covering the key principles, biomaterials, strategies and techniques for encapsulation. Volume One begins with an introduction to encapsulation, with subsequent chapters dedicated to a broad range of encapsulation principles and techniques, including spray chilling and cooling, microemulsion, polymerization, extrusion, cell microencapsulation and much more. This book methodically details each technique, assessing the advantages and disadvantages of each, allowing the reader to make an informed decision when using encapsulation in their research. Principles of Biomaterials Encapsulation: Volume One enables readers to learn about the various strategies and techniques available for encapsulation of a wide selection of biomedical substrates, such as drugs, cells, hormones, growth factors and so on.
Written and edited by well-versed materials scientists with extensive clinical, biomedical and regenerative medicine experience, this book offers a deeply interdisciplinary look at encapsulation in translational medicine. As such, this book will provide a useful resource to a broad readership, including those working in the fields of materials science, biomedical engineering, regenerative and translational medicine, pharmacology, chemical engineering and nutritional science.
1. Chapter 1 : An introduction to biomaterials encapsulation - p. Page x 2. Chapter 2 : Encapsulation techniques overview - p. Page 9 3. Chapter 3 : Encapsulation of bioactive compunds: Role of nanotechnology - p. Page 30 4. Chapter 4 : Morphology control in encapsulation - p. Page 59 5. Chapter 5 : Encapsulation: Advances in cell encapsulation - p. Page 88 6. Chapter 6 : Encapsulation: Spray chilling and cooling - p. Page 103 7. Chapter 7 : Encapsulation: Spinning disk technology - p. Page 127 8. Chapter 8 : Encapsulation: Fluidized bed coating technology - p. Page 139 9. Chapter 9 : Encapsulation: Microemulsion - p. Page 153 10. Chapter 10 : Encapsulation: Electrospray - p. Page 187 11. Chapter 11 : Encapsulation: Melt dispersion - p. Page 208 12. Chapter 12 : Encapsulation: Pan-coating - p. Page 230 13. Chapter 13 : Encapsulation via electrospinning technology - p. Page 251 14. Chapter 14 : Microencapsulation: Spray drying - p. Page 265 15. Chapter 15 : Microencapsulation: Air suspension technique - p. Page 292 16. Chapter 16 : Microencapsulation: Polymerization - p. Page 301 17. Chapter 17 : Microencapsulation: Coacervation phase separation - p. Page 319 18. Chapter 18 : Microencapsulation: Solvent evaporation - p. Page 367 19. Chapter 19 : Microencapsulation: Extrusion - p. Page 387 20. Chapter 20 : Microencapsulation: Dripping and jet break-up - p. Page 406 21. Chapter 21 : Microencapsulation: Annular jet process - p. Page 426 22. Chapter 22 : Microencapsulation: Phase inversion precipitation - p. Page 437 23. Chapter 23 : Cell microencapsulation - p. Page 454 24. Index - p. Page 475
