To Study the Need of Systemic Formwork for Waste Water Treatment at Fish Processing Plant' (A Review)
DOI:
https://doi.org/10.29070/ktwx9j05Keywords:
Fish processing, Waste water treatment, resultAbstract
Waste water from angle preparation enterprises originates from several sources, including emptying angles, dressing, liquefying water from ice dissolution, washing equipment and utensils, treating with additional substances, and cleaning and disinfecting offices and spaces. Water is used not only to clean angles but also to wash blood, sludge, and offal from the surfaces of various handling equipment, utensils, floors, and sump pumps. The majority of computerized handling supplies come with a water shower framework that may clean hardware and remove offal.
The emergence of these forms in tall water use also leads to the mixing of blood and offal in the wash water. Fish handling waste water is full of significant pollutants that are colloidal, soluble, and particulate. Features of waste water produced depend on the type of angle used for preparation, the preparation method, and the final object placed. When handling operations such as minor (angle washing or cleaning), mild (angle filet preparation), and severe (surimi planning), the degree of defilement can change.
Fish waste water must have exceptionally high levels of nitrogen, fat, oil, and oil (Mist), as well as biochemical oxygen demand (BOD). In order to reduce shameful waste transfer in the environment, this extended show introduces angle waste management processors to the concepts of fishery waste categorization and the many types of treatment used. This topic includes many aspects of angle waste, separate management of fluid angle waste and strong waste using chemicals, Indore composting technique, and suitable transfer.
References
Al-Lahhama, O., N.M. El Assib, and M. Fayyadc (2003) Impact of treated wastewater irrigation on quality attributes and contamination of tomato fruit. Agricultural Water Management 61 51–62.
Almas, A. A. M. and M. Scholz (2006) Potential for wastewater reuse in irrigation: case study
from Aden (Yemen). International Journal of Environmental Studies. 63:2, 131-142.
Atif Mustafa (2013) Constructed Wetland for Wastewater Treatment and Reuse: A Case Study of Developing Country. International Journal of Environmental Science and Development, Vol. 4, No. 1, February 2013. Page no 20-24.
Blanca J. and I. Navarro (2017) Wastewater Use in Agriculture: Public Health Considerations Encyclopedia of Environmental Management DOI: 10.1081/E-EEM-120046689.
Busaidi A. A. and M. Ahmed(2017) Maximum Use of Treated Wastewater in Agriculture. Springer Water, DOI 10.1007/978-3-319-51856-5_21
Carr G., R. B. Potter and S. Nortcliff (2011) Water reuse for irrigation in Jordan: Perceptions of water quality among farmers. Agriculture Water management 98 page no. 847-854.
Dixon, A. Butler D. and A. Fewkes (1999) Water saving potential of domestic water reuse systems using greywater and rainwater in combination. Water Science and Technology. 39(5): 25-32.
Irenikatché Akponikpea P.B., Wima K., Yacouba H. and A. Mermoudc (2011) Reuse of domestic wastewater treated in macrophyte ponds to irrigate tomato and eggplant in semi-arid West-Africa: Benefits and risks. Agricultural Water Management 98(2011): 834-840.
Jaramillo, M.F. and I. Restrepo. (2017) Wastewater Reuse in Agriculture: A Review about
Its Limitations and Benefits Sustainability, 9, 1734 page no-1-19.
Jiménez B. and I. Navarro (2012) Wastewater Use in Agriculture: Public Health Considerations. Encyclopedia of Environmental Management DOI: 10.1081/E-EEM-120046689 Copyright © 2012 by Taylor & Francis.
Junying C. Jining C. and C.W.P. Fu (2004) wastewater reuse potential analysis: implications for China's water resources management. Water research 38(11): 2746-2756.
Manjuntha M.V., Hebbara, M., Prasanna kumara, B.H., Satyareddi S. and G.S. Dasog (2017) Effect of untreated and engineered constructed wetland treated wastewater on yield, water productivity and economics of brinjal. Green Farming Vol. (3): 676-679.
Monia Trad Raïs (2019) Effects of Citrus sinensis Irrigation with Treated Wastewater on Microbiological Quality of Soil and Fruits. IJISET - International Journal of Innovative Science, Engineering & Technology, Vol. 6 Issue 6, June 2019 ISSN (Online) 2348 – 7968 Page no:- 86-96. Wastewater use in Fars Province , Iran. Water Policy 18(2): 355-367
Tripathia V.K., Singh Rajput T.B., Patel, N. and L. Nain Impact of municipal wastewater reuse through micro- irrigation system on the incidence of coliforms in selected vegetable crops (2019) Journal of Environmental Management 251 Page no 1-10.
Weizhen L. and A.Y.T. Leung (2003) A preliminary study on potential of developing shower/laundry wastewater reclamation and reuse system. Chemosphere 52(9): 1451-1459.
Zoherh D.H., Bagheria, A., Fotourehchib Z. and C. A. Damalas (2020) Farmers’ acceptance and willingness to pay for using treated wastewater in crop irrigation: A survey in western Iran. Agricultural Water Management. Vol 239 (2020) 106262 Page no-1-10.
Antonie, R.L.; 1978. Design criteria for applications of the rotating biological contactor to domestic and industrial wastewater treatment, International Environment Colloquium, May 16-17, Liege, Belgium. API (American Petroleum Institute), 1959. Manual for disposal of refinery wastes; API, New York, U.S.A.
Bauman, F.J.; 1974. Dichromat Reflux Chemical Oxygen Demand. A Proposed Method for
Chlorine Correction in Highly Saline Wastes. Analytical Chemistry 46:1336-1338.
Balslev-Olesen, P., Lynggaard, A. and Nickelsen, C.; 1990. Pilot-Scale experiments on Anaerobic Treatment of Waste-water from a Fish Processing Plant. Water Science and Technology 22:463-474.
Eckenfelder, W. W; 1980. Principles of Water Quality Management; CBI Publishing Co.; Boston, U. S.A.
EPA (Environmental Protection Agency), 1978. Construction costs for municipal wastewater treatment plants: 1973-1977. Technical Report MCD-37, U.S. E.P.A. Washington, D. Ertz, D.B; 1980. Dissolved Air Flotation Treatment of Seafood Processing Wastes. An Assessment, in Proc. 8th. Natl.Symp. on Food Processing Wastes, Cincinnati, Ohio, U.S.A.
Advances in Fish Science and Technology, J.J. Conell, Ed. Fishing News Books, Ltd. Surrey, England. the College of Agriculture and Veterinary Medicine, Nihon University, Japan 33:468-475.
Nishide, E.; 1977. Coagulation of Fishery wastewater with Inorganic Coagulants; Bulletin of the College of Agriculture and Veterinary Medicine, Nihon University, Japan 34:291-294.
Ramalho, R.S.; 1977. Introduction to Wastewater Treatment Processes; Academic Press, Inc.; New York, U.S.A.
Rich, L. G.; 1980. Low Maintenance, Mechanically Simple Wastewater Treatment Systems, McGraw-Hill Book Co., New York; U.S.A.
Stover, E. L. and Jover, R.N.; 1980. High Level Ozone Disinfection of Wastewater for Shell Fish Discharges; Ozone Science and Engineering; 1:335-346.
Sorensen, P. E.; 1974. Fiskeriindustri-Vandproblemer; Vandkvalitetinstituttet, Copenhagen, Denmark.
Uluatam, S. S.; 1991. Cost models for small wastewater treatment plants. International Journal of Environmental Studies; 37:171-181.
Wright, D.G. and Woods, D.R.; 1993. Evaluation of capital cost data. Part 7. Liquid waste disposal with emphasis on physical treatment; Canadian Journal of Chemical Engineering 71:575-590.
Ziminska, H.; 1985. Protein Recovery from Fish Wastewaters; Proceedings of the Fifth International Symposium on Agricultural. Wastes; p 379; American Society of Agricultural Engineering; St. Joseph, MI, U.S.A.
This work is licensed under a 