Nanodynamic Therapies: Principles and Applications explores the innovative use of nanosensitizers to generate reactive oxygen species for the targeted treatment of cancer and bacterial infections. Covering a broad spectrum of ROS-based therapeutic strategies, including photodynamic, chemodynamic, sonodynamic, electrodynamic, radiodynamic, thermodynamic, piezoelectric dynamic, and pyroelectric dynamic therapies, this book provides comprehensive insights into their fundamental principles, biomedical applications, and emerging clinical perspectives. The book highlights the role of diverse nanomaterials, such as metal-based, polymer-based, carbon-based, lipid-based, and two-dimensional nanomaterials, in enhancing anticancer and antibacterial therapies. With a strong focus on translation research and therapeutic innovation, it presents the recent advances and future direction in nanodynamic approaches for combating cancer and microbial infections.
This volume serves as a valuable resource for researchers; postgraduate students in nanotechnology, materials science, biomaterials, and pharmaceutical sciences; and clinicians and cancer researchers seeking a comprehensive understanding of nanodynamic therapies and their impact on modern therapeutic strategies.
1. Part I. Introduction to nanodynamic therapies - p. P1 2. Chapter 1. Introduction to nanodynamic therapies for cancer and bacterial infections - p. 3 3. Chapter 2. Fundamental principles and biological aspects of ROS-based nanodynamic therapies for cancer and bacterial infections - p. 29 4. Chapter 3. Dynamic therapies: Harnessing nanomaterials for cancer and bacterial infection treatment - p. 87 5. Part II. Nano-based photodynamic cancer therapy - p. P2 6. Chapter 4. Advanced metal-based nanomaterials for photodynamic cancer therapy - p. 111 7. Chapter 5. Polysaccharide-based nanoparticles for photodynamic cancer therapy - p. 155 8. Chapter 6. Recent advances in lipid-based drug carrier systems for photodynamic therapy of cancer - p. 209 9. Chapter 7. Photoactivatable nanozymes for photodynamic cancer therapy - p. 253 10. Chapter 8. Design of photosensitizers for photodynamic therapy of cancer and cancer stem cells - p. 279 11. Part III. Nanomaterial-based chemodynamic cancer therapy - p. P3 12. Chapter 9. Multifunctional nanozymes: Revolutionizing chemodynamic therapy in cancer treatment - p. 313 13. Chapter 10. Metal-based nanomaterials in chemodynamic cancer therapy - p. 331 14. Part IV. Nanomaterial-based sonodynamic cancer therapy - p. P4 15. Chapter 11. Multifunctional nanosonosensitizers for enhanced ultrasound-triggered reactive oxygen species generation in targeted sonodynamic cancer therapy - p. 357 16. Chapter 12. The promise of nanomaterial-based sonodynamic therapy in enhancing cancer treatment - p. 375 17. Part V. Nanomaterial-based other dynamic cancer therapy - p. P5 18. Chapter 13. Multifunctional nanoparticles to enable electro/radio/thermo/piezoelectric dynamic therapy of cancer - p. 403 19. Part VI. Combination of nanodynamic therapy with other therapies of cancer - p. P6 20. Chapter 14. Advancements in nanomaterial-based combinatorial nanodynamic approaches for cancer therapy - p. 435 21. Chapter 15. Metal and metal oxide-based nanomaterials for cancer chemo/photodynamic therapy - p. 463 22. Part VII. Antibacterial nanophotodynamic therapy - p. P7 23. Chapter 16. Innovative photosensitizer strategies in antibacterial photodynamic therapy - p. 491 24. Chapter 17. Emerging trends in polymer nanomaterials for antibacterial photodynamic therapy - p. 515 25. Chapter 18. Nanoparticle application to enhance photodynamic therapy on bacterial pathogens - p. 563 26. Chapter 19. Metal nanomaterials for antimicrobial photodynamic therapy - p. 603 27. Part VIII. Nanomaterial-based chemodynamic antibacterial therapy - p. P8 28. Chapter 20. Nanogels for chemodynamic antibacterial therapy - p. 631 29. Chapter 21. Nanomaterial-mediated antibacterial chemodynamic therapy - p. 671 30. Chapter 22. Advancements in hydrogel technology: Transforming chemodynamic antibacterial therapy - p. 697 31. Part IX. Nanomaterial-based antibacterial sonodynamic therapy - p. P9 32. Chapter 23. Engineering multifunctional nanoparticles for enhanced antibacterial sonodynamic therapy - p. 729 33. Part X. Combination of nanodynamic antibacterial therapy with other therapies - p. P10 34. Chapter 24. Combination nanodynamic therapy: A revolutionary approach to antibacterial treatment - p. 765 35. Index - p. 787
Nanodynamic Therapies: Principles and Applications explores the innovative use of nanosensitizers to generate reactive oxygen species for the targeted treatment of cancer and bacterial infections. Covering a broad spectrum of ROS-based therapeutic strategies, including photodynamic, chemodynamic, sonodynamic, electrodynamic, radiodynamic, thermodynamic, piezoelectric dynamic, and pyroelectric dynamic therapies, this book provides comprehensive insights into their fundamental principles, biomedical applications, and emerging clinical perspectives. The book highlights the role of diverse nanomaterials, such as metal-based, polymer-based, carbon-based, lipid-based, and two-dimensional nanomaterials, in enhancing anticancer and antibacterial therapies. With a strong focus on translation research and therapeutic innovation, it presents the recent advances and future direction in nanodynamic approaches for combating cancer and microbial infections.
This volume serves as a valuable resource for researchers; postgraduate students in nanotechnology, materials science, biomaterials, and pharmaceutical sciences; and clinicians and cancer researchers seeking a comprehensive understanding of nanodynamic therapies and their impact on modern therapeutic strategies.
1. Part I. Introduction to nanodynamic therapies - p. P1 2. Chapter 1. Introduction to nanodynamic therapies for cancer and bacterial infections - p. 3 3. Chapter 2. Fundamental principles and biological aspects of ROS-based nanodynamic therapies for cancer and bacterial infections - p. 29 4. Chapter 3. Dynamic therapies: Harnessing nanomaterials for cancer and bacterial infection treatment - p. 87 5. Part II. Nano-based photodynamic cancer therapy - p. P2 6. Chapter 4. Advanced metal-based nanomaterials for photodynamic cancer therapy - p. 111 7. Chapter 5. Polysaccharide-based nanoparticles for photodynamic cancer therapy - p. 155 8. Chapter 6. Recent advances in lipid-based drug carrier systems for photodynamic therapy of cancer - p. 209 9. Chapter 7. Photoactivatable nanozymes for photodynamic cancer therapy - p. 253 10. Chapter 8. Design of photosensitizers for photodynamic therapy of cancer and cancer stem cells - p. 279 11. Part III. Nanomaterial-based chemodynamic cancer therapy - p. P3 12. Chapter 9. Multifunctional nanozymes: Revolutionizing chemodynamic therapy in cancer treatment - p. 313 13. Chapter 10. Metal-based nanomaterials in chemodynamic cancer therapy - p. 331 14. Part IV. Nanomaterial-based sonodynamic cancer therapy - p. P4 15. Chapter 11. Multifunctional nanosonosensitizers for enhanced ultrasound-triggered reactive oxygen species generation in targeted sonodynamic cancer therapy - p. 357 16. Chapter 12. The promise of nanomaterial-based sonodynamic therapy in enhancing cancer treatment - p. 375 17. Part V. Nanomaterial-based other dynamic cancer therapy - p. P5 18. Chapter 13. Multifunctional nanoparticles to enable electro/radio/thermo/piezoelectric dynamic therapy of cancer - p. 403 19. Part VI. Combination of nanodynamic therapy with other therapies of cancer - p. P6 20. Chapter 14. Advancements in nanomaterial-based combinatorial nanodynamic approaches for cancer therapy - p. 435 21. Chapter 15. Metal and metal oxide-based nanomaterials for cancer chemo/photodynamic therapy - p. 463 22. Part VII. Antibacterial nanophotodynamic therapy - p. P7 23. Chapter 16. Innovative photosensitizer strategies in antibacterial photodynamic therapy - p. 491 24. Chapter 17. Emerging trends in polymer nanomaterials for antibacterial photodynamic therapy - p. 515 25. Chapter 18. Nanoparticle application to enhance photodynamic therapy on bacterial pathogens - p. 563 26. Chapter 19. Metal nanomaterials for antimicrobial photodynamic therapy - p. 603 27. Part VIII. Nanomaterial-based chemodynamic antibacterial therapy - p. P8 28. Chapter 20. Nanogels for chemodynamic antibacterial therapy - p. 631 29. Chapter 21. Nanomaterial-mediated antibacterial chemodynamic therapy - p. 671 30. Chapter 22. Advancements in hydrogel technology: Transforming chemodynamic antibacterial therapy - p. 697 31. Part IX. Nanomaterial-based antibacterial sonodynamic therapy - p. P9 32. Chapter 23. Engineering multifunctional nanoparticles for enhanced antibacterial sonodynamic therapy - p. 729 33. Part X. Combination of nanodynamic antibacterial therapy with other therapies - p. P10 34. Chapter 24. Combination nanodynamic therapy: A revolutionary approach to antibacterial treatment - p. 765 35. Index - p. 787
