Development of a system to manage pesticide-contaminated wastewater

Transactions of the American Society of Agricultural Engineers

Volumn 44, Issue 4, 2001, Pages 877-890

  Yoder, D C ^a   Corwin, B K ^a   Mueller, T C ^a   Hart, W E ^a   Mote, C R ^a   Wills, J B ^a  

^a UNIVERSITY OF TENNESSEE   (United States)

Author keywords

Bioreactors; Disposal; Pesticides; Wastewater disposal

Indexed keywords

BIOREACTORS; CONTAMINATION; ENVIRONMENTAL IMPACT; GREENHOUSE EFFECT; PESTICIDES; SOIL MECHANICS;

PESTICIDE-CONTAMINATED WASTEWATER;

WASTEWATER DISPOSAL;

ATRAZINE; FLUOMETURON; PESTICIDE;

BIOREACTOR; COST; EFFLUENT DISPOSAL; ENVIRONMENTAL IMPACT; PESTICIDE; SAFETY; SOIL;

DAY LENGTH; EVAPORATION; PROCESS DESIGN; SOIL TEXTURE; SURFACE SOIL; UNITED STATES; WASTE WATER MANAGEMENT; WATER CONTAMINATION;

EID: 0035651837     PISSN: 00012351     EISSN: None     Source Type: Journal    
DOI: None     Document Type: Article

References (81)

1. The influence of soil properties on the rates of degradation of metamitron, metazachlor, and metribuzin
2. Detoxification of pesticides and hazardous wastes by the microwave plasma process
3. Water and pesticide volatilization from a waste disposal pit
4. Pesticide rinse water disposal options
5. Pesticide users must examine waste disposal options
6. The fate and mobility of pesticides: Lessons from the past, where to from here
7. Toxic substance solvent evaporator
8. Pesticide wastewater disposal: Biological methods
9. Conquering the monster: The photochemical destruction of chlorodioxins
10. A practical system to treat pesticide-laden wastewater
11. Treatment of pesticide wastes: Regulatory and operational requirements for successful treatment systems. Chapter 9
12. Effect of crop presence on persistence of atrazine, metribuzin, and clomazone in surface soil
13. Pesticide waste disposal in agriculture
14. Groundwater contamination not widespread
15. Disposal of dilute and concentrated agricultural pesticides using absorption and chemical and microbial degradation
16. Storage, handling, and shipment of pesticide waste: Regulatory requirements
17. Degradation of high concentrations of a phosphorothiotic ester by hydrolase
18. Chemical treatment options for pesticide wastes disposal
19. Evaluation of economical sorbents for removal of metolachlar from rinsate wastewater
20. Microbiology of a pesticide disposal pit
21. Pesticide disposal sites: Sampling and analysis
22. Degradation of pesticides in controlled water-soil systems
23. A biological/physical process for the elimination of cattle-dip pesticide wastes
24. Biotechnology in bioremediation of pesticide-contaminated sites. Chapter 12
25. Ultraviolet-ozonation in pesticide wastewater disposal: State-of-the-art, technology transfer, and research needs
26. A large scale UV-ozonation degradation unit: Field trials on soil pesticide waste disposal
27. Homemade rinsate solution
28. Treatment of pesticide-laden wastewater by recirculation through activated carbon
29. Reaction of sodium perborate with organophosphorus esters
30. Investigation of degradation rates of carbamate pesticides: Exploring a new detoxification method
31. Abiotic hydrolysis of sorbed pesticides
32. Biodegradability of pesticides sorbed to activated carbon. Chapter 18
33. Anaerobic microbial dechlorination: An approach to on-site treatment of toxaphene-contaminated soil
34. Liquid chromatographic determination of fluometuron and metabolites in soil
35. Disposal of concentrated solutions of diazinon using organic absorption and chemical and microbial degradation
36. Pesticide wastewater cleanup using demulsification, sorption, and filtration followed by chemical and biological degradation. Chapter 14
37. Biologically based sorbents and their potential use in pesticide waste disposal during composting. Chapter 11
38. Maximize efforts to minimize waste
39. Removal of pesticide wastes by means of solar photodecomposition
40. Treating pesticide-contaminated wastewater: Development and evaluation of a system
41. Physical treatment options: Removal of chemicals from wastewater by adsorption, filtration, and/or coagulation
42. Carbon adsorption treatment of rinsewater
43. The logistics of transporting pesticide waste from the user to disposer
44. Approaches to decontamination or disposal of pesticides: Photodecomposition
45. Transfer of degradative capabilities: Bacillus megaterium to Bacillus subtilis by plasmid transfer techniques
46. Waste water recycling
47. Developing technology for the detoxification of pesticides and other hazardous materiais
48. Organophosphorus pesticide volatilization: Model soil pits and evaporation ponds
49. Biological and chemical disposal systems for waste pesticide solutions
50. The effects of various soil factors and amendments on the degradation of pesticide mixtures
51. Pesticide waste disposal: Review and 1985 national workshop summary
52. Current technologies for pesticide waste disposal. Chapter 11
53. Microbial degradation of pesticides in tropical soils
54. Degradation of 2,4-D residues using a soil bacterium in a sprayer tank system
55. Prediction of the persistence of the triazine herbicides atrazine, cyanazine, and metribuzin in Regina heavy clay
56. On-site treatment of pesticide waste and rinsate using ozone and biologically active soil
57. On-site pesticide disposal at chemical control centers
58. Recycling pesticide rinsewater
59. Evaluation of a low-input on-farm disposal system for trifluralin, cyfluthrin, and mancozeb
60. Simulation of herbicide persistence in soil: A revised computer model
61. State of the art report on pesticide disposal research
62. Disposal of pesticide wastes in lined evaporation beds
63. Degradation of pesticide waste taken from highly contaminated soil evaporation pit in California
64. Destruction of pesticides and pesticide containers by molten salt combustion