Green Sustainable Process for Chemical and Environmental Engineering and Science

1. Introduction<br>2. Oxidation and reduction reactions in water<br>3. Oxidation and reduction reactions in supercritical water<br>4. Micelle-assisted organic synthesis in water<br>5. Organic synthesis in aqueous vs non-aqueous media<br>6. Protection and deprotection reactions in water<br>7. Regioselective synthesis in water<br>8. Stereoselective organic synthesis in water<br>9. Stereospecific organic synthesis in water<br>10. Green organic synthesis in supercritical water<br>11. Addition-type reactions in water<br>12. Condensation reactions in water<br>13. Alkylation reactions in water<br>14. Ring-opening reactions in water<br>15. Value-added chemical synthesis in supercritical water<br>16. Organometallics synthesis in supercritical water<br>17. Allylation reactions in water<br>18. Olefin methasis in water<br>19. Phenolic compounds synthesis in water<br>20. Cycloadditions and Diels-Alder reactions in water<br>21. Fluoroorganics in water<br>22. Polymer synthesis in water and supercritical water<br>23. Heterocyclics synthesis in water<br>24. Hydrogenation reactions in water<br>25. Cyclodextrin-assisted organic synthesis in water<br>26. Biological-active organic synthesis in water<br>27. Catalyst-free organic synthesis in water<br>28. Multi component organic synthesis in water<br>29. Grignard reactions in water<br>30. C-H activation reactions in water<br>31. Carbohydrate synthesis in supercritical water<br>32. C-N formation reactions in water<br>33. Coupling reactions in water<br>34. Bio-fuel production in water<br>35. Halide synthesis in water<br>36. Employing green catalysis for organic synthesis in supercritical water<br>37. State of the art and perspectives of aqueous organic synthesis