Fluorescence Spectroscopy in Analytical Chemistry: A Practical Approach provides a comprehensive overview of the fundamental, theoretical aspects and advanced applications of fluorescence spectroscopy in analytical chemistry. The book provides basic knowledge and recent advances, enabling new users to effectively apply techniques. Readers will gain significant insights into recent developments of organic and inorganic fluorophores and their potential applications in fluorescence spectroscopy for quantitative analysis of various molecules. Sections explore the challenges and potential applications, with an emphasis on understanding the theory, detection mechanisms, and new fluorophores for molecular recognition.
The book is a valuable resource, practical guide, and roadmap to fluorescence spectroscopy for all chemists, analytical scientists, academics, and researchers investigating organic and inorganic fluorophore-based sensor technology for molecular and ionic species sensing. It is also an important reference for researchers, bioanalytical chemists, and technologists working on fluorescence spectroscopy.
1. Chapter 1. Introduction, basic theory, and principles - p. 1 2. Chapter 2. Design and application of fluorescent organic complexes of trivalent lanthanides - p. 37 3. Chapter 3. Detection mechanisms in fluorescence analytical spectroscopy - p. 55 4. Chapter 4. Designing of organic fluorophores in fluorescence spectroscopy - p. 91 5. Chapter 5. Carbon nanostructures in fluorescence spectroscopy for sensing applications - p. 113 6. Chapter 6. Metal nanoclusters in fluorescence spectroscopy for sensing applications - p. 143 7. Chapter 7. Semiconductor quantum dots in fluorescence analytical spectroscopy - p. 165 8. Chapter 8. Upconversion nanoparticles integrated fluorescence spectroscopy for analytical applications - p. 181 9. Chapter 9. Perovskite nanomaterials-based fluorescence spectroscopic methods for the analysis of a wide variety of molecules - p. 229 10. Chapter 10. Two-dimensional nanomaterials-based fluorescence detection approaches - p. 249 11. Chapter 11. Metal-organic frameworks in fluorescence spectrometry for molecular and ionic species identification - p. 277 12. Chapter 12. Ratiometric fluorescence analytical strategies: Designing principles and applications - p. 301 13. Chapter 13. Biomolecule-based fluorophores for molecular recognition - p. 325 14. Chapter 14. Fluorescence spectroscopy for single-molecule detection - p. 369 15. Chapter 15. Fluorescence spectroscopy for reactive oxygen and nitrogen species assays - p. 399 16. Chapter 16. Detection of gases and volatile organic compounds by fluorescence spectroscopy - p. 415 17. Chapter 17. Development of fluorescent paper strips for sensing applications - p. 439 18. Chapter 18. Fluorescence lifetime spectroscopy for qualitative and quantitative analysis of molecular and ionic species - p. 471 19. Chapter 19. Fluorescence microscopy for visualizing molecular and biomolecular species - p. 509 20. Chapter 20. Applications of fluorescence-based techniques for microplastics and nanoplastics analysis - p. 531 21. Chapter 21. Fluorescence turn-on and turn-off sensing mechanisms for metal ion detection in water - p. 553 22. Chapter 22. Molecularly imprinted fluorescence probes: Syntheses, mechanisms of action and applications - p. 581 23. Chapter 23. Fluorescence spectroscopy in clinical, pharmaceutical, and forensic applications - p. 611 24. Chapter 24. Future prospects and challenges of fluorescence spectroscopy in analytical chemistry - p. 637 25. Index - p. 643
Fluorescence Spectroscopy in Analytical Chemistry: A Practical Approach provides a comprehensive overview of the fundamental, theoretical aspects and advanced applications of fluorescence spectroscopy in analytical chemistry. The book provides basic knowledge and recent advances, enabling new users to effectively apply techniques. Readers will gain significant insights into recent developments of organic and inorganic fluorophores and their potential applications in fluorescence spectroscopy for quantitative analysis of various molecules. Sections explore the challenges and potential applications, with an emphasis on understanding the theory, detection mechanisms, and new fluorophores for molecular recognition.
The book is a valuable resource, practical guide, and roadmap to fluorescence spectroscopy for all chemists, analytical scientists, academics, and researchers investigating organic and inorganic fluorophore-based sensor technology for molecular and ionic species sensing. It is also an important reference for researchers, bioanalytical chemists, and technologists working on fluorescence spectroscopy.
1. Chapter 1. Introduction, basic theory, and principles - p. 1 2. Chapter 2. Design and application of fluorescent organic complexes of trivalent lanthanides - p. 37 3. Chapter 3. Detection mechanisms in fluorescence analytical spectroscopy - p. 55 4. Chapter 4. Designing of organic fluorophores in fluorescence spectroscopy - p. 91 5. Chapter 5. Carbon nanostructures in fluorescence spectroscopy for sensing applications - p. 113 6. Chapter 6. Metal nanoclusters in fluorescence spectroscopy for sensing applications - p. 143 7. Chapter 7. Semiconductor quantum dots in fluorescence analytical spectroscopy - p. 165 8. Chapter 8. Upconversion nanoparticles integrated fluorescence spectroscopy for analytical applications - p. 181 9. Chapter 9. Perovskite nanomaterials-based fluorescence spectroscopic methods for the analysis of a wide variety of molecules - p. 229 10. Chapter 10. Two-dimensional nanomaterials-based fluorescence detection approaches - p. 249 11. Chapter 11. Metal-organic frameworks in fluorescence spectrometry for molecular and ionic species identification - p. 277 12. Chapter 12. Ratiometric fluorescence analytical strategies: Designing principles and applications - p. 301 13. Chapter 13. Biomolecule-based fluorophores for molecular recognition - p. 325 14. Chapter 14. Fluorescence spectroscopy for single-molecule detection - p. 369 15. Chapter 15. Fluorescence spectroscopy for reactive oxygen and nitrogen species assays - p. 399 16. Chapter 16. Detection of gases and volatile organic compounds by fluorescence spectroscopy - p. 415 17. Chapter 17. Development of fluorescent paper strips for sensing applications - p. 439 18. Chapter 18. Fluorescence lifetime spectroscopy for qualitative and quantitative analysis of molecular and ionic species - p. 471 19. Chapter 19. Fluorescence microscopy for visualizing molecular and biomolecular species - p. 509 20. Chapter 20. Applications of fluorescence-based techniques for microplastics and nanoplastics analysis - p. 531 21. Chapter 21. Fluorescence turn-on and turn-off sensing mechanisms for metal ion detection in water - p. 553 22. Chapter 22. Molecularly imprinted fluorescence probes: Syntheses, mechanisms of action and applications - p. 581 23. Chapter 23. Fluorescence spectroscopy in clinical, pharmaceutical, and forensic applications - p. 611 24. Chapter 24. Future prospects and challenges of fluorescence spectroscopy in analytical chemistry - p. 637 25. Index - p. 643
