Utilizing BimetalOrganic Frameworks for the Adsorption and Elimination of Hazardous Pesticides and Toxic Materials from Wastewater: Optimization of the adsorption process Using BoxBehnken Design

Chemical Engineering

1. Metal-Organic Frameworks 100%
2. Methanol 53%
3. Solution pH 46%
4. Batch Adsorption 40%
5. Thermodynamics 40%
6. Zeta Potential 33%
7. Isotherm Models 26%
8. High Adsorption Capacity 26%
9. Kinetic Isotherms 26%
10. Chemical Kinetics Characteristics 26%
11. Wastewater Treatment 20%
12. Industrial Wastewater 20%
13. Treated Water 20%
14. Dye Concentration 20%
15. Efficient Adsorption 20%
16. Nanosphere 20%
17. Centrifugation 20%
18. Sorption 20%
19. Cancer 20%
20. Malignant Neoplasm 20%
21. Chitosan 13%
22. Deionized Water 13%
23. Chemisorption 13%
24. Adsorption Efficiency 13%
25. Pseudo-second Order 13%
26. Carbon Dioxide 13%
27. Pseudo-second-order Model 13%
28. Biochar 13%
29. Adsorbent Dosage 13%
30. Water Treatment 13%
31. Nanomaterial 13%
32. Macromolecule 13%
33. Desalinization 13%
34. Hydrogen 13%
35. Maximum Adsorption Capacity 6%
36. Pseudo-second-order Kinetics 6%
37. BET Analysis 6%
38. Operating Variables 6%
39. Endothermic Reaction 6%
40. Polytetrafluoroethylene 6%
41. Adsorption System 6%
42. Mesoporous Iron Oxide 6%
43. Potable Water 6%
44. Activated Carbon 6%
45. Colloid 6%
46. Organometallics 6%
47. Film Diffusion 6%
48. Heating Rate 6%
49. Iron Oxide 6%
50. Transition Metal 6%
51. Enhanced Adsorption 6%
52. Ammonium Hydroxide 6%
53. Alginate 6%
54. Efficient Adsorbent 6%
55. Initial Dye Concentration 6%
56. Copper Oxide 6%
57. Contaminated Wastewater 6%
58. Cd(II) Ions 6%
59. Aerogel 6%
60. Desorption 6%
61. Batch System 6%
62. Point of Zero Charge 6%
63. Discrete Fourier Transform 6%
64. Antioxidant 6%
65. Nanocrystal 6%
66. Nitrogen 6%
67. Sodium 6%
68. Water Quality 6%