Biophysics at the Nanoscale: Applications of Functional Materials explores how nanomaterials and nanotechnology can be used effectively in biophysics. The book introduces the structures and functions of nanoscale-based materials from a biophysical perspective while also discussing nanotechnology opportunities for their purposeful manipulation and the integration of nanoscale-based materials with current top-notch tools and platforms to ultimately facilitate their potential applications in the areas like biomedicine and the pharmaceutical sciences.
The book provides the most impactful research and current techniques and strategies. With contributions from an international group of experts in the field, the book is highly informative and is a reference point for learning key knowledge and information.
1. Title of Book - p. i 2. Cover image - p. i 3. Title page - p. ii 4. Table of Contents - p. iii 5. Copyright - p. iv 6. List of contributors - p. xi 7. Chapter 1. Self-assembled monolayer–based nanoscaled surfaces - p. 1 8. Chapter 2. Micro/nanomotors: recent applications - p. 27 9. Chapter 3. Nanoscale physics of electrochemistry - p. 43 10. Chapter 4. Nanomotor technologies developed for cell-based nanoscale transport phenomena and mechanism - p. 73 11. Chapter 5. Molecularly imprinted polymer nanoparticles: solid-phase synthesis and molecularly imprinted nanoparticle assay - p. 93 12. Chapter 6. Molecular imprinting on the nanoscale rapid detection of cells - p. 107 13. Chapter 7. Nanomachines and their biomedical applications - p. 131 14. Chapter 8. Monolithic column based capillary- and nano-liquid chromatography applied to protein separation - p. 151 15. Chapter 9. Interferometric reflectance imaging sensor for diagnosis and therapy - p. 167 16. Chapter 10. Atomic force microscopy and scanning tunneling microscopy of live cells - p. 183 17. Chapter 11. Nanomolecular imprinted templates for virus detection - p. 203 18. Chapter 12. Nanodevices and nanomachines at the nanoscale biophysics - p. 233 19. Index - p. 263
Biophysics at the Nanoscale: Applications of Functional Materials explores how nanomaterials and nanotechnology can be used effectively in biophysics. The book introduces the structures and functions of nanoscale-based materials from a biophysical perspective while also discussing nanotechnology opportunities for their purposeful manipulation and the integration of nanoscale-based materials with current top-notch tools and platforms to ultimately facilitate their potential applications in the areas like biomedicine and the pharmaceutical sciences.
The book provides the most impactful research and current techniques and strategies. With contributions from an international group of experts in the field, the book is highly informative and is a reference point for learning key knowledge and information.
1. Title of Book - p. i 2. Cover image - p. i 3. Title page - p. ii 4. Table of Contents - p. iii 5. Copyright - p. iv 6. List of contributors - p. xi 7. Chapter 1. Self-assembled monolayer–based nanoscaled surfaces - p. 1 8. Chapter 2. Micro/nanomotors: recent applications - p. 27 9. Chapter 3. Nanoscale physics of electrochemistry - p. 43 10. Chapter 4. Nanomotor technologies developed for cell-based nanoscale transport phenomena and mechanism - p. 73 11. Chapter 5. Molecularly imprinted polymer nanoparticles: solid-phase synthesis and molecularly imprinted nanoparticle assay - p. 93 12. Chapter 6. Molecular imprinting on the nanoscale rapid detection of cells - p. 107 13. Chapter 7. Nanomachines and their biomedical applications - p. 131 14. Chapter 8. Monolithic column based capillary- and nano-liquid chromatography applied to protein separation - p. 151 15. Chapter 9. Interferometric reflectance imaging sensor for diagnosis and therapy - p. 167 16. Chapter 10. Atomic force microscopy and scanning tunneling microscopy of live cells - p. 183 17. Chapter 11. Nanomolecular imprinted templates for virus detection - p. 203 18. Chapter 12. Nanodevices and nanomachines at the nanoscale biophysics - p. 233 19. Index - p. 263
