Handbook of Nanomaterials in Analytical Chemistry: Modern Trends in Analysis explores the recent advancements in a variety of analytical chemistry techniques due to nanotechnology. It also devotes several chapters to the analytical techniques that have proven useful for the analysis of nanomaterials. As conventional analytical chemistry methods become insufficient in terms of accuracy, selectivity, sensitivity, reproducibility, and speed, recent advances have opened up new horizons for chemical analysis and detection methods. Chapters are authored by experts in their respective fields and include up-to-date reference materials, such as websites of interest and suggested reading lists on the latest research.
1. Cover image - p. Cover 2. Title page - p. iii 3. Table of Contents - p. iii 4. Copyright - p. iv 5. List of contributors - p. xi 6. Section I: Modern age of analytical chemistry—Nanomaterials (NMs) - p. xiv 7. 1. Carbon nanodots from natural (re)sources: a new perspective on analytical chemistry - p. 3 8. 2. Modern age of analytical chemistry: nanomaterials - p. 29 9. Section II: Nanomaterials (NMs) in sample preparation - p. 37 10. 3. Nanomaterials for microextraction techniques in bioanalysis - p. 43 11. 4. Recent advances in solid-phase extraction techniques with nanomaterials - p. 57 12. 5. The use of magnetic nanoparticles in sample preparation devices and tools - p. 75 13. Section III: Nanomaterials (NMs) in separation - p. 90 14. 6. Separation techniques with nanomaterials - p. 99 15. 7. Membrane applications of nanomaterials - p. 159 16. Section IV: Nanomaterials (NMs) in Integration (micro-TAS & Lab on Chip Analytical chemistry with Nanomaterials (NMs) - p. 176 17. 8. Micro total analysis systems with nanomaterials - p. 185 18. Section V: Nanomaterials (NMs) in detection - p. 195 19. 9. Electrochemically engineered nanoporous photonic crystal structures for optical sensing and biosensing - p. 201 20. 10. Pressure and temperature optical sensors: luminescence of lanthanide-doped nanomaterials for contactless nanomanometry and nanothermometry - p. 227 21. 11. Nanoparticle-integrated electrochemical devices for identification of mycotoxins - p. 275 22. 12. Functional nanomaterial-derived electrochemical sensor and biosensor platforms for biomedical applications - p. 297 23. 13. Nanomaterial-based sensors - p. 329 24. 14. MXene-based sensors and biosensors: next-generation detection platforms - p. 361 25. Section VI: Functionalized nanomaterials for analytical chemistry - p. 370 26. 15. Functionalized nanomaterials for sample preparation methods - p. 375 27. 16. Surface-modified metal nanoparticles for recognition of toxic organic molecules - p. 415 28. Section VII: Nanomaterials: risk, toxicity, and regulatory norms - p. 429 29. 17. Safety risk, ELSI (ethical, legal, social issues), and economics of nanomaterials - p. 435 30. Section VIII: Analysis of Nanomaterials - p. 444 31. 18. Advanced micro- and nanoscale characterization techniques for carbonaceous aerosols - p. 449 32. 19. Issues related with the analysis of nanomaterials - p. 473 33. Section IX: Future of analytical chemistry with nanomaterials - p. 486 34. 20. Graphene quantum dots in biomedical applications: recent advances and future challenges - p. 493 35. Index - p. 507
Handbook of Nanomaterials in Analytical Chemistry: Modern Trends in Analysis explores the recent advancements in a variety of analytical chemistry techniques due to nanotechnology. It also devotes several chapters to the analytical techniques that have proven useful for the analysis of nanomaterials. As conventional analytical chemistry methods become insufficient in terms of accuracy, selectivity, sensitivity, reproducibility, and speed, recent advances have opened up new horizons for chemical analysis and detection methods. Chapters are authored by experts in their respective fields and include up-to-date reference materials, such as websites of interest and suggested reading lists on the latest research.
1. Cover image - p. Cover 2. Title page - p. iii 3. Table of Contents - p. iii 4. Copyright - p. iv 5. List of contributors - p. xi 6. Section I: Modern age of analytical chemistry—Nanomaterials (NMs) - p. xiv 7. 1. Carbon nanodots from natural (re)sources: a new perspective on analytical chemistry - p. 3 8. 2. Modern age of analytical chemistry: nanomaterials - p. 29 9. Section II: Nanomaterials (NMs) in sample preparation - p. 37 10. 3. Nanomaterials for microextraction techniques in bioanalysis - p. 43 11. 4. Recent advances in solid-phase extraction techniques with nanomaterials - p. 57 12. 5. The use of magnetic nanoparticles in sample preparation devices and tools - p. 75 13. Section III: Nanomaterials (NMs) in separation - p. 90 14. 6. Separation techniques with nanomaterials - p. 99 15. 7. Membrane applications of nanomaterials - p. 159 16. Section IV: Nanomaterials (NMs) in Integration (micro-TAS & Lab on Chip Analytical chemistry with Nanomaterials (NMs) - p. 176 17. 8. Micro total analysis systems with nanomaterials - p. 185 18. Section V: Nanomaterials (NMs) in detection - p. 195 19. 9. Electrochemically engineered nanoporous photonic crystal structures for optical sensing and biosensing - p. 201 20. 10. Pressure and temperature optical sensors: luminescence of lanthanide-doped nanomaterials for contactless nanomanometry and nanothermometry - p. 227 21. 11. Nanoparticle-integrated electrochemical devices for identification of mycotoxins - p. 275 22. 12. Functional nanomaterial-derived electrochemical sensor and biosensor platforms for biomedical applications - p. 297 23. 13. Nanomaterial-based sensors - p. 329 24. 14. MXene-based sensors and biosensors: next-generation detection platforms - p. 361 25. Section VI: Functionalized nanomaterials for analytical chemistry - p. 370 26. 15. Functionalized nanomaterials for sample preparation methods - p. 375 27. 16. Surface-modified metal nanoparticles for recognition of toxic organic molecules - p. 415 28. Section VII: Nanomaterials: risk, toxicity, and regulatory norms - p. 429 29. 17. Safety risk, ELSI (ethical, legal, social issues), and economics of nanomaterials - p. 435 30. Section VIII: Analysis of Nanomaterials - p. 444 31. 18. Advanced micro- and nanoscale characterization techniques for carbonaceous aerosols - p. 449 32. 19. Issues related with the analysis of nanomaterials - p. 473 33. Section IX: Future of analytical chemistry with nanomaterials - p. 486 34. 20. Graphene quantum dots in biomedical applications: recent advances and future challenges - p. 493 35. Index - p. 507