Due to novel research on the application of bio-degradable biofilms in the packaging industry of food, starch is one of the most promising and promising sources. Starch-Based Nanomaterials for Food Packaging: Perspectives and Future Prospectus presents the properties and sources of starch- based nanomaterials, its perspectives, safety aspects, applications, and future trends.
The chapters cover nanostructured materials, polysaccharide based bionanocomposites, starch based nanofibers, starch nanostructured based for food packaging application. Besides bringing nano gold imprinted starch bio nanocomposites, cereal starch-based nanoparticles, and edible packaging reinforced with starch-based nanomaterials.
This is a complete resource to the food industrialists who deal directly with food packaging and fruit and vegetable preservation.
1. Chapter 1. Introduction - p. 1 2. Chapter 2. A brief review of statistical mechanics - p. 11 3. Chapter 3. The equation of radiative transfer - p. 37 4. Chapter 4. Optical electromagnetics - p. 71 5. Chapter 5. The Lorentz atom - p. 97 6. Chapter 6. Classical Hamiltonian dynamics - p. 115 7. Chapter 7. An introduction to quantum mechanics - p. 125 8. Chapter 8. Atomic spectroscopy - p. 167 9. Abstract - p. 167 10. 8.1 Introduction - p. 169 11. 8.2 The one-electron atom - p. 168 12. 8.3 Multi-electron atoms - p. 194 13. 8.4 Conclusion - p. 209 14. References - p. 209 15. Chapter 9. Molecular spectroscopy - p. 211 16. Abstract - p. 211 17. 9.1 Introduction - p. page211 18. 9.2 Diatomic molecules - p. 212 19. 9.3 Polyatomic molecules - p. 246 20. 9.4 Conclusions - p. page255 21. References - p. page255 22. Chapter 10. Resonance response - p. 257 23. Chapter 11. Line broadening - p. 271 24. Chapter 12. The density matrix equations - p. 307 25. Chapter 13. Polarization - p. 327 26. Chapter 14. Rayleigh and Raman scattering - p. 339 27. Abstract - p. 339 28. 14.1 Introduction - p. page339 29. 14.2 Polarizability - p. page345 30. 14.3 Classical molecular scattering - p. 356 31. 14.4 Rayleigh scattering - p. 355 32. 14.5 Raman scattering - p. 361 33. 14.6 Vibrational Raman - p. 363 34. 14.7 Rotational and rotational-vibrational Raman - p. 368 35. 14.8 Raman lineshapes - p. page373 36. 14.9 Raman flowfield measurements - p. page373 37. 14.10 Conclusions - p. 376 38. References - p. page376 39. Chapter 15. Nonlinear optics: coherent anti-Stokes Raman spectroscopy - p. 379 40. Abstract - p. 379 41. 15.1 Introduction - p. page379 42. 15.2 Introduction to nonlinear optics and CARS - p. 381 43. 15.3 Material polarization of CARS - p. 389 44. 15.4 Additional issues - p. page415 45. 15.5 Conclusions - p. 419 46. References - p. 419 47. Appendix A. Constants - p. 421 48. Appendix B. Nomenclature - p. 425 49. Appendix C. Units - p. 431 50. Appendix D. Regularly used Dirac mathematics - p. 443 51. Index - p. 449
Due to novel research on the application of bio-degradable biofilms in the packaging industry of food, starch is one of the most promising and promising sources. Starch-Based Nanomaterials for Food Packaging: Perspectives and Future Prospectus presents the properties and sources of starch- based nanomaterials, its perspectives, safety aspects, applications, and future trends.
The chapters cover nanostructured materials, polysaccharide based bionanocomposites, starch based nanofibers, starch nanostructured based for food packaging application. Besides bringing nano gold imprinted starch bio nanocomposites, cereal starch-based nanoparticles, and edible packaging reinforced with starch-based nanomaterials.
This is a complete resource to the food industrialists who deal directly with food packaging and fruit and vegetable preservation.
1. Chapter 1. Introduction - p. 1 2. Chapter 2. A brief review of statistical mechanics - p. 11 3. Chapter 3. The equation of radiative transfer - p. 37 4. Chapter 4. Optical electromagnetics - p. 71 5. Chapter 5. The Lorentz atom - p. 97 6. Chapter 6. Classical Hamiltonian dynamics - p. 115 7. Chapter 7. An introduction to quantum mechanics - p. 125 8. Chapter 8. Atomic spectroscopy - p. 167 9. Abstract - p. 167 10. 8.1 Introduction - p. 169 11. 8.2 The one-electron atom - p. 168 12. 8.3 Multi-electron atoms - p. 194 13. 8.4 Conclusion - p. 209 14. References - p. 209 15. Chapter 9. Molecular spectroscopy - p. 211 16. Abstract - p. 211 17. 9.1 Introduction - p. page211 18. 9.2 Diatomic molecules - p. 212 19. 9.3 Polyatomic molecules - p. 246 20. 9.4 Conclusions - p. page255 21. References - p. page255 22. Chapter 10. Resonance response - p. 257 23. Chapter 11. Line broadening - p. 271 24. Chapter 12. The density matrix equations - p. 307 25. Chapter 13. Polarization - p. 327 26. Chapter 14. Rayleigh and Raman scattering - p. 339 27. Abstract - p. 339 28. 14.1 Introduction - p. page339 29. 14.2 Polarizability - p. page345 30. 14.3 Classical molecular scattering - p. 356 31. 14.4 Rayleigh scattering - p. 355 32. 14.5 Raman scattering - p. 361 33. 14.6 Vibrational Raman - p. 363 34. 14.7 Rotational and rotational-vibrational Raman - p. 368 35. 14.8 Raman lineshapes - p. page373 36. 14.9 Raman flowfield measurements - p. page373 37. 14.10 Conclusions - p. 376 38. References - p. page376 39. Chapter 15. Nonlinear optics: coherent anti-Stokes Raman spectroscopy - p. 379 40. Abstract - p. 379 41. 15.1 Introduction - p. page379 42. 15.2 Introduction to nonlinear optics and CARS - p. 381 43. 15.3 Material polarization of CARS - p. 389 44. 15.4 Additional issues - p. page415 45. 15.5 Conclusions - p. 419 46. References - p. 419 47. Appendix A. Constants - p. 421 48. Appendix B. Nomenclature - p. 425 49. Appendix C. Units - p. 431 50. Appendix D. Regularly used Dirac mathematics - p. 443 51. Index - p. 449
