Balancing the Needs of Water Use pp 244-254 | Cite as
Water Quality Guidelines and Standards
Chapter
Abstract
Water quality guidelines and standards have emerged as one of the best ways of balancing the needs of multiple water use. Local and national/international water management schemes benefit from these values, which in turn leads to improved efficiency of use of waters. Because standards represent concrete numbers, all users know exactly what they can or cannot do with their allotment of water.
Keywords
Environmental Protection Agency Total Coliform Water Quality Criterion Sodium Adsorption Ratio Irrigation Water Quality
These keywords were added by machine and not by the authors. This process is experimental and the keywords may be updated as the learning algorithm improves.
Preview
Unable to display preview. Download preview PDF.
References
- Alabaster, J.S., and A.J. Lloyd. 1980. Water quality criteria for freshwater fish. London: Butterworths. 297 pp.Google Scholar
- American Society of Mechanical Engineers. 1979. Consensus on operating practices for the control of feedwater and boiler water quality in modern industrial boilers. Prepared by Feedwater Quality Task Group for Industrial Boiler Subcommittee of the ASME Research Committee on Water in Thermal Power Systems. American Society of Mechanical Engineers, New York, 18 pp.Google Scholar
- Bhargave, D.S. 1985. Expression for drinking water supply standards. Journal of Environmental Engineering 111:304–316.CrossRefGoogle Scholar
- Canadian Water Quality Guidelines. 1987. Environment Canada, Ottawa, 396 pp.Google Scholar
- Environment Canada. 1983. Hexachlorobutadiene. In: Guidelines for surface water quality. Environment Canada, Ottawa, 23 pp.Google Scholar
- Federal Register. 1985. National preliminary drinking water regulations; synthetic organic chemicals, inorganic chemicals and microorganisms; proposed rule. Federal Register (USA), November 1985, 50(219):46936–47022.Google Scholar
- Federal Register. 1987. National preliminary drinking water regulations; synthetic organic chemicals; monitoring for unregulated contaminants. Federal Register (USA), 8 July 1987, 52(130):25690–25717.Google Scholar
- Federal Water Pollution Control Administration. 1968. Report of the National Technical Advisory Committee on Water Quality Criteria. US Government Printing Office, Washington, DC, 234 pp.Google Scholar
- Fritchie, R.G. 1978. Water Supply and Treatment State-of-the-Art. Technical Association of the Pulp and Paper Industry, Atlanta, Georgia, 87 pp.Google Scholar
- Geldreich, E., H. Nash, D. Reasoner, and R. Taylor. 1972. The necessity of controlling bacterial populations in potable waters: Community water supply. Journal of the American Water Works Association 64:596–602.Google Scholar
- Hart, B.T. 1974. A compilation of Australian water quality criteria. Australian Water Resources Council, Department of Environment and Conservation, Technical Paper No. 7, Canberra, Australia, 27 pp.Google Scholar
- Hocking, M.B. 1985. Modern chemical technology and emission control. Springer- Verlag, New York, 460 pp.CrossRefGoogle Scholar
- International Joint Commission. 1981. Report of the Aquatic Ecosystem Objectives committee. Great Lakes Advisory Board, International Joint Commission, Windsor, Ontario.Google Scholar
- International Joint Commission. 1985. Toxaphene. Great Lakes Science Advisory Board, International Joint Commission, Windsor, Ontario.Google Scholar
- Jain, R.K. 1984. Formulation of environmental regulations. Journal of Environmental Engineering 110:770–779.CrossRefGoogle Scholar
- Krisher, A.S. 1978. Raw water treatment in the CPI. Chemical Engineering 85:78–98.Google Scholar
- Lorch, W. 1981. Handbook of water purification. McGraw-Hill, London, 715 pp.Google Scholar
- Luken, R.A. 1985. The emerging role of benefit-cost analysis in the regulatory process at EPA. Environmental Health Perspectives 62:373–379.PubMedCrossRefPubMedCentralGoogle Scholar
- McCarty, L., M. Lapp, and M. Shea. 1984. Chlorinated benzenes in the aquatic environment. Scientific Criteria Document for Standard Development, No. 3–84, Ministry of Environment, Toronto, Ontario.Google Scholar
- McKee, P.M., R.P. Scroggins, and D.M. Casson. 1984. Chlorinated phenols in the aquatic environment. Scientific Criteria Document for Standard Development, No. 2–84, Ministry of Environment, Toronto, Ontario.Google Scholar
- Seidler, R., T. Evans, J. Kaufman, C. Warwick, and M. LeChevallier. 1981. Limitations of standard coliform enumeration techniques. Journal of the American Water Works Association 73:538–542.Google Scholar
- Tate, D.M., and D.W. Scharf. 1985. Water use in Canadian industry, 1981. Environment Canada, Social Science Series Number 19, Ottawa, 39 pp.Google Scholar
- Travis, C.C., S.A. Richter, E.A.C. Crouch, R. Wilson, and E.D. Klema. 1987. Cancer risk management. Environmental Science and Technology 21: 415–420.PubMedCrossRefGoogle Scholar
- US Environmental Protection Agency. 1976. Quality criteria for water. US EPA, Washington DC, 256 pp.Google Scholar
- US Environmental Protection Agency. 1980a. Ambient water quality criteria for nickel. US EPA-440/5–80–060, Washington, DC.Google Scholar
- US Environmental Protection Agency. 1980b. Ambient water quality criteria for endrin. US EPA-440/5–80–047, Washington, DC.Google Scholar
- US Environmental Protection Agency. 1984a. Criteria document: Total coliforms in drinking water. US EPA-PB86–118148, Washington DC.Google Scholar
- US Environmental Protection Agency. 1984b. Drinking water criteria document for heterotrophic bacteria. US EPA-PB86–118189, Washington, DC.Google Scholar
- US Environmental Protection Agency. 1985a. Drinking water criteria document for Legionella. US EPA-PB86–117843, Washington, DC.Google Scholar
- US Environmental Protection Agency. 1985b. Drinking water criteria document for viruses. US EPA-PB86–118270, Washington, DC.Google Scholar
- US Environmental Protection Agency. 1985c. Guidelines for deriving numerical national water quality criteria for the protection of aquatic organisms and their uses. US EPA-PB85–227049, Washington, DC. 253.Google Scholar
- US Environmental Protection Agency. 1985d. Water quality criteria for cadmium - 1984. US EPA-440/5–84–032, Washington, DC.Google Scholar
- US Environmental Protection Agency. 1985e. Ambient water quality criteria for chromium - 1984. US EPA-440/5–84–030, Washington, DC. US Environmental Protection Agency. 1985f. Ambient water quality criteria for lead—1984. US EPA-440/5–84–027, Washington, DC.Google Scholar
- US Environmental Protection Agency, 1985f. Ambient water quality criteria for lead - 1984. US EPA-440/5’84’027, Washington, DC.Google Scholar
- US Environmental Protection Agency. 1986. Ambient water quality criteria for dissolved oxygen. US EPA-440/5–86–003, Washington, DC.Google Scholar
- Water Research Centre. 1984. Proposed environmental quality standards for list II substances in water: chromium, inorganic lead, zinc, copper, nickel, arsenic. Water Research Centre, TR 207–212, Stevenage, England.Google Scholar
- Westcot, D.W., and R.S. Ayers. 1984. Irrigation water quality criteria. In: Irrigation with reclaimed wastewater. California State Water Resources Control Board, Report No. 81–1-WR.Google Scholar
- World Health Organization. 1984a. Guidelines for drinking-water quality, vol. 1. Recommendations. WHO, Geneva, 130 pp.Google Scholar
- World Health Organization. 1984b. Guidelines for drinking-water quality, vol. 2. Health criteria and other supporting information. WHO, Geneva, 335 pp.Google Scholar
- World Health Organization. 1984c. Guidelines for drinking-water quality, vol. 3. Drinking-water quality control in small communities supplies. WHO, Geneva, 121 pp.Google Scholar
Copyright information
© Springer Science+Business Media New York 1989