Covalent Organic Frameworks

Tahir Rasheed is a researcher at the Interdisciplinary Research Center for Advanced Materials, King Fahd University of Petroleum and Minerals, Saudi Arabia. His research interests focus on multiple disciplines including controllable synthesis, characterization and self-assembly of polymeric materials, polymer-based composites, nanomaterials and nanocomposites, and hybrid nanocomposites, with special emphasis on their potential applications in the field of sensing and biosensing, electrocatalysis, and the degradation and quantification of various emerging pollutants.Ibrahim Yahia Yaagoob is a post-doctoral fellow in the Chemistry Department, King Fahd University of Petroleum and Minerals, Saudi Arabia. His research aims to synthesise and develop new innovative materials, including bio-inspired materials, to mitigate organic micropollutants and toxic materials from industrial wastewater.Chandrabhan Verma, PhD, works at the Interdisciplinary Research Center for Advanced Materials, King Fahd University of Petroleum and Minerals, Dhahran, Saudi Arabia. He is a member of the American Chemical Society (ACS). His research interests mainly focus on the synthesis and design of environment-friendly corrosion inhibitors used for several industrial applications. Dr. Verma received his PhD degree from the Department of Chemistry at IIT?BHU, Varanasi, India and MSc degree in organic chemistry (Gold Medalist). Dr. Verma is the author of several research and review articles in peer-reviewed international journals. He has also received several national and international awards for his academic achievements.

• PART 1: FUNDAMENTALS1. Introduction to COFs2. Structural design and construction of COFs and COF-based nanocomposites3. Material and chemistry of COFs4. Fabrication approaches for COFs and COFs-oriented materials5. Strategies for COFs functionalization6. Strategies to improve sensitivity and selectivity of COFsPART 2: COVALENT ORGANIC FRAMEWORKS-BASED NANOCOMPOSITES7. COF carbon-based nanocomposites8. COF metal oxide-based nanocomposites9. COF polymer-based composites10. COF chalcogenide-based nanocompositesPART 3: COVALENT ORGANIC FRAMEWORKS-BASED NANOCOMPOSITES FOR ENERGY STORAGE11. COFs-based nanocomposites for supercapacitors and pseudocapacitors12. COFs-based nanocomposites for lithium-ion batteries13. COFs-based nanocomposites for sodium-ion batteries14. COFs-based nanocomposites for potassium-ion batteries15. COFs-based nanocomposites for magnesium-ion batteries16. COFs-based nanocomposites for zinc batteries17. COFs-based nanocomposites for lithium sulphur batteriesPART 4: COVALENT ORGANIC FRAMEWORKS-BASED NANOCOMPOSITES FOR ENERGY CONVERSION18. COFs-based nanocomposites for photocatalysis19. COFs-based nanocomposites for electrocatalysis20. COFs-based nanocomposites for carbon dioxide reduction21. COFs-based nanocomposites for organic transformations22. COFs-based nanocomposites for ionic conduction/transportation23. COFs-based nanocomposites for proton conduction/transportationPART 5: COVALENT ORGANIC FRAMEWORKS FOR ENVIRONMENTAL REMEDIATION24. COFs-based nanocomposites for degradation of dyes25. COFs-based nanocomposites for removal of pharmaceutical and personal care products26. COFs-based nanocomposites for removal of heavy metals, anions, and radionuclides27. COFs-based nanocomposites for capture of toxic gases28. COFs-based nanocomposites for elimination of phenolic and endocrine disrupting chemicals29. COFs-based nanocomposites in wastewater treatmentPART 6: COVALENT ORGANIC FRAMEWORKS FOR SENSING30. COFs-based nanocomposites for fluorescent sensing31. COFs-based nanocomposites for colorimetric sensing32. COFs-based nanocomposites for electrochemical sensing33. COFs-based nanocomposites for other sensing applicationsPART 7: CHALLENGES AND FUTURE34. Challenges and future prospects of COFs for energy and environmental applications