To Study the Requirement of Implementation of Zero Waste Management Plan for Steel Production Plant (A Review)
DOI:
https://doi.org/10.29070/f3hm6243Keywords:
Steel Plant, Zero waste management, Waste managementAbstract
Unsustained mining practices have resulted in the overuse of shared resources this year, degrading the environment extensively. Additionally, there is an increase in nursery gas emissions from the generation of vital metals due to a continually growing demand for metals, a decline in metal grades, and complex underused stockpiles. As a result, the mineral preparation and metal production industry frequently finds itself under increasing pressure to advance the overall sustainability of its operations, notably through reducing energy consumption, outflows, and waste transfer. Large volumes of wastewater are released by the steel and press industries. Typically, a quantitative approach is used to assess the wastewater's natural effects. In any event, a more notable factor in the harm to the natural environment is the water quality of released effluent. Furthermore, there is still a gap in the thorough assessment of several contaminants in wastewater in terms of both quantity and quality. This work considers the volume of wastewater and the quality of primary forms in order to characterize an add-up to natural affect score that surveys the natural impact of wastewater release. A field check and estimation of wastewater release volume and quality is carried out to secure pH, suspend solids chemical oxygen request add up to nitrogen add up to press, and hexavalent chromium in order to actualize the totally subjective and quantitative appraisal. Coordination steel plants use five basic materials (discus, water, fuel, and control) in the process of producing steel. It is important to note that steel can be generated at a coordinate office using press mineral as well as at an auxiliary office, which mostly uses recycled steel waste to make steel. The development industry and other building applications use a variety of rolled products (sheets, tin- and zinc-plated sheets, cold rolled groups, steel channels, sheet-metal segments, etc.) and made or drawn products (bars, wires) in conjunction with crude steel. Over time, the idea of a life cycle strategy for the supportability of products and services has received more and more attention.
References
Alvarez, D., Garrido, N. Sans, R. and Can-eras, I. (2004) Minimization optimization of water use in the process of cleaning reactors and containers in a chemical industry. Journal of Cleaner Production, 12, pp.781-787
Arun Mittal. (2011). Biological Wastewater Treatment, Fultide Articles, Water Today.
Bashaar Y. (2004). Nutrients Requirements in Biological Industrial Wastewater
Treatment. African Journal of Biotechnology Vol. 3 (4), pp. 236-238, April 2004 bAvailable online at http://www.academicjournals.org/AJB ISSN 1684–5315 © 2004 Academic Journals
Bury, S.J., Groot, C.K., Huth, C. and Hardt, N. (2002). Dynamic simulation of chemical industry wastewater treatment plants. Water Science & Technology, Vol. 45 No 4-5 pp 355-363
Carini, D (1999) Treatment of industrial wastewater using chemical-biological sequencing batch biofilm reactor (SBBR) processes. Ph.D. thesis Swiss Federal Institute of Technology, Zurich, Switzerland.
EPA, (1998). Wastewater Treatment Technologies in: Pollution Prevention (P2) Guidance Manual for the Pesticide Formulating, Packaging and Repackaging Industry including implementing the P2 alternative, EPA, 821-B-98-017 June 1998, Pp. 41-46
Fayza A., Hala S., Hisham S., Saber A. (2004) Chemical Industry Wastewater Treatment, Water Pollution Research department, National Research Centre, Cairo, Egypt "Faculty of Engineering, Cairo University, Cairo, Egypt
Florante A., Magnaye, Pag-asa D., GASPILLO, Joseph L. (2009). Biological Nitrogen and COD Removal of Nutrient-Rich Wastewater Using Aerobic and Anaerobic Reactors, J. Water Resource and Protection, 2009, 1, 376-380 doi:10.4236/jwarp.2009.15045 Published Online November 2009 (http://www.scirp.org/journal/jwarp)
Gašpariková1 E., Kapusta1 Š., Bodík1 I., Derco1 J., Kratochvíl K. (2004) Evaluation of Anaerobic-Aerobic WastewaterTreatment Plant Operations,Polish
Hu, H.Y., Goto, N. and Fujie, K. (1999). Concepts and methodologies to minimize pollutant discharge for zero-emission production. Wat. Sci.Tech. Vol. 10-11, Pp. 9-16.
Jobbagy, A., Nerbert, N., Altermatt, R.H. and Samhaber, W.M. (2000) Encouraging filament growth in an activated sludge treatment plant of the chemical industry. Wat. Res. Vol. 34, No. 2, pp. 699-703.
Mahdi A., Azni I., Aofah A. (2007). Combined Anaerobic-Aerobic System for Treatment of Textile Wastewater. Journal of Engineering Science and Technology Vol. 2, No. 1 (2007) 55-69 © School of Engineering, Taylor’s University College
Meric, S., Kabdash, I., Tunay, O. and Orhon, D. (1999). Treatability of strong wastewaters from polyester manufacturing industry. Wat. Sci. Tech., Vol. 39, No. 10-11, Pp. 1-7
Nemerow, N.L. and Dasgupta, A. (1991) "Industrial and Hazardous waste Treatment "Van Nostrand Reinhold, New York.
Nykova N., Muller T. G., Gyllenberg M., Timmer J. (2002). Quantitative analyses of anaerobic wastewater treatment processes: identifiability and parameter estimation. Biotechnology and Bioengineering, 78, (1), 89-103.