Relevant bibliographies by topics / Water reuse Australia Health aspects

Academic literature on the topic 'Water reuse Australia Health aspects'

Author: Grafiati
Published: 10 December 2022
Last updated: 29 January 2023

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Journal articles on the topic "Water reuse Australia Health aspects"

1

Tortajada, Cecilia, and Sunil Nambiar. "Communications on Technological Innovations: Potable Water Reuse." Water 11, no. 2 (January 31, 2019): 251. http://dx.doi.org/10.3390/w11020251.

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Water scarcity has prompted an increasing number of cities to look for non-conventional sources of clean water. One of these sources is reused water, or highly treated reclaimed or recycled wastewater, a worthy addition to the portfolio of water-resource alternatives that increasing cities are considering in view of demographic and environmental changes. In this paper, we analyse communications from the media, policymakers and utility managers on the technology used to produce reused water for potable purposes. The focus of our analysis is technology as a means for producing safe and reliable water supply in the long-term. Three places were selected because of their differing experiences with social acceptance: Singapore, Orange County (California, United States), and Queensland (Australia). We found distinct differences in the communications used in the three places, which we believe have strongly influenced public opinion on the provision of clean water through potable water reuse. In communicating technological innovations to the public, it is essential to also discuss the broader framework affecting reliable water supplies. In this light, planning, legal and regulatory frameworks, institutional coordination, financial sustainability, and operational aspects should also be communicated.
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Muston, M. H. "Changing of the water recycling paradigm in Australia." Water Supply 12, no. 5 (August 1, 2012): 611–18. http://dx.doi.org/10.2166/ws.2012.034.

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The development of water recycling schemes in Australia has, in recent years, undergone a maturity characterised by some emerging trends in the paradigm of water reuse and its integration into the overall water supply strategies for large urban and peri-urban areas. This paper looks at case studies within the context of these observed trends and discusses the institutional frameworks as well as some technical aspects of the case studies to illustrate the trends. Comparison is made with some selected international examples to develop a better understanding of these recent Australian developments within the international context. While not a complete inventory of the many recent recycling schemes in Australia, the paper examines these emerging trends within the context of the growing number of larger-scale industrial, agricultural and dual reticulation urban recycled water systems in Australia and the trend to decentralised recycling schemes.
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Greenway, Margaret, and John S. Simpson. "Artificial wetlands for wastewater treatment, water reuse and wildlife in Queensland, Australia." Water Science and Technology 33, no. 10-11 (May 1, 1996): 221–29. http://dx.doi.org/10.2166/wst.1996.0678.

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Queensland, Australia has a subtropical-tropical climate with dry winters and wet monsoonal summers. Arid climatic conditions prevail inland with hot dry days and cold nights. The climatic conditions are conducive to high plant growth rates and hence offer great potential for constructed wetlands for water pollution control. The water (a scarce resource during the dry season and in arid regions) can also be used to irrigate crops, playing fields, parks and gardens or golf courses. The water discharged from the wetlands is also of an acceptable quality to flow into estuarine and riverine environments. Many natural wetlands are only seasonally inundated and during the dry season wildlife has to seek alternative refuges. Artificial wetlands receiving sewage effluent provide permanent wildlife habitats and improve the landscape amenity. The Queensland government's Department of Primary Industries has initiated an Artificial Wetlands for Water Pollution Research Program. Under this scheme 10 experimental pilot artificial wetlands have been established and a further 6 university research projects are being conducted on various aspects of artificial wetlands including nutrient and heavy metal uptake and bioavailability in wetland plants, sediment biogeochemistry and mass balances. One gold mine rehabilitation project has an artificial wetland to treat mine leachate. This paper presents 3 case studies which include significant results with respect to wastewater polishing and re-use.
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Ho, G., S. Dallas, M. Anda, and K. Mathew. "On-site wastewater technologies in Australia." Water Science and Technology 44, no. 6 (September 1, 2001): 81–88. http://dx.doi.org/10.2166/wst.2001.0346.

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Domestic wastewater reuse is currently not permitted anywhere in Australia but is widely supported by the community, promoted by researchers, and improvised by up to 20% of householders. Its widespread implementation will make an enormous contribution to the sustainability of water resources. Integrated with other strategies in the outdoor living environment of settlements in arid lands, great benefit will be derived. This paper describes six options for wastewater reuse under research by the Remote Area Developments Group (RADG) at Murdoch University and case studies are given where productive use is being made for revegetation and food production strategies at household and community scales. Pollution control techniques, public health precautions and maintenance requirements are described. The special case of remote Aboriginal communities is explained where prototype systems have been installed by RADG to generate windbreaks and orchards. New Australian design standards and draft guidelines for domestic greywater reuse produced by the Western Australian State government agencies for mainstream communities are evaluated. It is recommended that dry composting toilets be coupled with domestic greywater reuse and the various types available in Australia are described. For situations where only the flushing toilet will suffice the unique “wet composting” system can be used and this also is described. A vision for household and community-scale on-site application is presented.
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Duarte, Victor Magalhães, Luciano Matos Queiroz, Ednildo Andrade Torres, and Asher Kiperstok. "Energetic aspects and opportunities for reusing water on offshore platforms in Campos Basin, Brazil." Ambiente e Agua - An Interdisciplinary Journal of Applied Science 12, no. 5 (August 23, 2017): 786. http://dx.doi.org/10.4136/ambi-agua.2121.

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In the drilling and production of oil at sea, a large quantity of potable water used is most commonly transported to oil platforms using offshore supply vessels (OSVs). Sea water desalination is used as well, but only in a few oil platforms. To minimize energy consumption, water supply options were studied. The desalination of seawater and the reusing of streams of grey water and black water were evaluated and compared with the characteristics of the current supply via OSVs. In both desalination and OSV water supply options an electrolytic wastewater treatment plant is used. The objective of this study was to analyze the current situation regarding water supply on offshore platforms located in the Campos Basin, Rio de Janeiro, Brazil, and to propose measures to take advantage of opportunities to reuse water and reduce energy expenditure. Two alternative scenarios were developed that involved the reuse of water that comes from the effluent of a biological wastewater treatment plant (WWTP). Information on the logistics of supplying water to platforms was obtained through direct consultation with companies and sources in the literature. The results show that annual energy consumption (uptake, treatment, transportation, use and waste water treatment) of water on offshore platforms is currently 1.89 GWh, and that a reduction of 1.8 GWh of the energy consumed can be achieved using advanced reuse treatments. Energy consumption in the water reuse treatment is more competitive than those of transport by OSVs or seawater desalination.
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Sarikaya, Hasan Z., and Veysel Eroglu. "Wastewater Reuse Potential in Turkey: Legal and Technical Aspects." Water Science and Technology 27, no. 9 (May 1, 1993): 131–37. http://dx.doi.org/10.2166/wst.1993.0187.

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Treated wastewater is one of the potential water resources in especially arid and semi arid regions. Overall, Turkey is not poor in terms of water sources. However, due to distribution of water in time and in space water shortage is felt. Wastewater reuse potential is especially high during summer months for agricultural and recreational purposes. In coastal areas of Turkey treated wastewaters from the coastal settlements are reused to irrigate the green areas and parks. Surplus effluents are discharged into the sea by use of marine outfall pipes. Extended aeration type of activated sludge processes followed by chlorination is the most common form of the treatment. Agricultural reuse is encouraged in inland rural regions. Simple wastewater treatment methods such as stabilization ponds are popular in rural areas. Water quality standards regulating irrigational wastewater reuse are recently set in Turkey. Guidelines given by World Health Organization (WHO) are generally adopted except the limits for the intestinal nematodes and the residual chlorine. Irrigational reuse standards as well as the degree of the treatment have to be revised based on the local experiences. Assurance of a given effluent quality is one of the major problems in management of the wastewater reuse in rural areas. Local examples are presented to illustrate this point.
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Pronk, G. J., S. F. Stofberg, T. C. G. W. Van Dooren, M. M. L. Dingemans, J. Frijns, N. E. Koeman-Stein, P. W. M. H. Smeets, and R. P. Bartholomeus. "Increasing Water System Robustness in the Netherlands: Potential of Cross-Sectoral Water Reuse." Water Resources Management 35, no. 11 (August 17, 2021): 3721–35. http://dx.doi.org/10.1007/s11269-021-02912-5.

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AbstractWater reuse has the potential to substantially reduce the demand on groundwater and surface water. This study presents a method to evaluate the potential of water reuse schemes in a regional context and demonstrates how water reuse propagates through the water system and potentially reduces pressure on groundwater resources. The use of Sankey diagram visualisation provides a valuable tool to explore and evaluate regional application of water reuse, its potential to reduce groundwater and surface water demand, and the possible synergies and trade-offs between sectors. The approach is demonstrated for the Dutch anthropogenic water system in the current situation and for a future scenario with increased water demand and reduced water availability due to climate change. Four types of water reuse are evaluated by theoretically upscaling local or regional water reuse schemes based on local reuse examples currently in operation in the Netherlands or Flanders: municipal and industrial wastewater effluent reuse for irrigation, effluent reuse for industrial applications, and reuse for groundwater replenishment. In all cases, water reuse has the potential to significantly reduce groundwater extraction volume, and thus to alleviate the pressure on the groundwater system. The water-quantity based analysis is placed in the context of water quality demands, health and safety aspects, technological requirements, regulations, public perception, and its net impact on the environment. This integrative context is essential for a successful implementation of water reuse in practice.
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Chiou, R. J., T. C. Chang, and C. F. Ouyang. "Aspects of municipal wastewater reclamation and reuse for future water resource shortages in Taiwan." Water Science and Technology 55, no. 1-2 (January 1, 2007): 397–405. http://dx.doi.org/10.2166/wst.2007.058.

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The Water Resources Agency (WRA), Ministry of Economic Affairs (MOEA) has predicted that the annual water demand in Taiwan will reach approximately 20 billion m3 by 2021. However, the present water supply is only 18 billion m3 per year. This means that an additional 2 billion m3 have to be developed in the next 17 years. The reuse of treated wastewater effluent from municipal wastewater treatment plants could be one target for the development of new water resources. The responsible government departments already have plans to construct public sewerage systems in order to improve the quality of life of the populace and protect the environment. The treated wastewater effluent from such municipal wastewater treatment plants could be a very stable and readily available secondary type of water resource, different from the traditional types of water resources. The major areas where reclaimed municipal wastewater can be used to replace traditional fresh water resources include agricultural and landscape irrigation, street cleaning, toilet flushing, secondary industrial reuse and environmental uses. However, necessary wastewater reclamation and reuse systems have not yet been established. The requirements for their establishment include water reuse guidelines and criteria, the elimination of health risks ensuring safe use, the determination of the wastewater treatment level appropriate for the reuse category, as well as the development and application of management systems reuse. An integrated system for water reuse would be of great benefit to us all by providing more efficient ways to utilise the water resources.
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Poussade, Y., A. Roux, T. Walker, and V. Zavlanos. "Advanced oxidation for indirect potable reuse: a practical application in Australia." Water Science and Technology 60, no. 9 (November 1, 2009): 2419–24. http://dx.doi.org/10.2166/wst.2009.665.

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December 2008 marked the completion of Stage 2B of the Western Corridor Recycled Water (WCRW) Project in South East Queensland, Australia. With a maximum combined production capacity of 232 million litres of purified recycled water a day, it is the third largest recycled water scheme in the world and the largest in southern hemisphere. A seven-barrier approach has been used to ensure very highest quality, safe water is produced at all times for the purpose of indirect potable reuse. Three of these barriers occur in the advanced water treatment section of the WCRW Project: micro- or ultra-filtration (MF), reverse osmosis (RO), and H2O2/UV advanced oxidation. In addition to providing very efficient disinfection, the advanced oxidation process specifically aims at destroying compounds not fully rejected by RO that are potential health hazards. This includes N-nitrosodimethylamine (NDMA), which is a potential carcinogenic product likely to be formed by chlorination or chloramination of wastewaters. As in many other countries, Australia has adopted a stringent guideline limit for this compound of 10 ng/L in purified recycled water. After 16 months of operations of the WCRW Project's first plant, the advanced oxidation system has been proven effective in removing NDMA and ensuring 100% compliance with the regulation at a controlled cost.
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10

Kracman, B., R. Martin, and P. Sztajnbok. "The Virginia Pipeline: Australia's largest water recycling project." Water Science and Technology 43, no. 10 (May 1, 2001): 35–42. http://dx.doi.org/10.2166/wst.2001.0573.

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The need to conserve, reuse and recycle water is becoming increasingly important for both environmental and economic reasons. The Virginia Pipeline is Australia's largest water recycling project. More than half the output from (the capital of South Australia) Adelaide's largest wastewater treatment plant is further treated to achieve a product water quality fit for irrigation of vegetable crops with minimal public health restrictions. The project partners have a vision to achieve total reuse. To achieve this vision, recycled water will need to be stored during cool weather periods when the demand for water is low. Temporary storage of this water in poor quality aquifers is the subject of a major research project.
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Dissertations / Theses on the topic "Water reuse Australia Health aspects"

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Ranmuthugala, Geethanjali Piyawadani. "Disinfection by-products in drinking water and genotoxic changes in urinary bladder epithelial cells." View thesis entry in Australian Digital Theses Program, 2001. http://thesis.anu.edu.au/public/adt-ANU20011207.110344/index.html.

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Irons, Christopher D. "Community dynamics in catchment health : an investigation into whole of catchment management based on research in the Lake Corangamite Basin, Western Victoria." Master's thesis, 1998. http://hdl.handle.net/1885/144416.

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Books on the topic "Water reuse Australia Health aspects"

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California Potable Reuse Committee. A proposed framework for regulating the indirect potable reuse of advanced treated reclaimed water by surface water augmentation in California. [Sacramento, Calif.?]: The Committee, 1996.

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2

Shuval, Hillel I. Wastewater irrigation in developing countries: Health effects and technical solutions. Washington, D.C: UNDP-World Bank Water and Sanitation Pro gram, 1990.

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California. Legislature. Senate. Select Committee on Environmental Justice. Recycled drinking water in the East Valley: Environmental benefit or environmental injustice? [Sacramento, CA: Senate Publications, 2000.

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Westcot, D. W. Quality control of wastewater for irrigated crop production. Rome: Food and Agriculture Organization of the United Nations, 1997.

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GRID--Arendal, ed. Sick water?: The central role of wastewater management in sustainable development : a rapid response assessment. Arendal, Norway: UNEP/GRID-Arendal, 2010.

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Workshop on "Wastewater Reuse in Agriculture in Vietnam: Water Management, Environment and Human Health Aspects" (2001 Hanoi, Vietnam). Wastewater reuse in agriculture in Vietnam: Water management, environment and human health aspects : proceedings of a workshop held in Hanoi, Vietnam, 14 March 2001. Edited by Sally L. (Liqa), Hoek Wim van der, and Ranawake Mala. Colombo, Sri Lanka: International Water Management Institute, 2001.

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United States. General Accounting Office. Accounting and Information Management Division. Financial management: Financial reporting issues related to the Navy's Direct Vendor Delivery initiative. Washington, D.C: The Office, 2000.

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Groundwater Recharge with Reclaimed Water: Birth outcomes in Los Angeles County 1982-1993. RAND Corporation, 1999.

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M, Sloss Elizabeth, and Water Replenishment District of Southern California., eds. Groundwater recharge with reclaimed water: An epidemiologic assessment in Los Angeles County, 1987-1991. Santa Monica, Calif: Rand, 1996.

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Groundwater Recharge with Reclaimed Water: An Epidemiologic Assessment in Los Angeles County,1987-1991. RAND Corporation, 1996.

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Book chapters on the topic "Water reuse Australia Health aspects"

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Rowe, Donald R., and Isam Mohammed Abdel-Magid. "Health Aspects of Using Reclaimed Water in Engineering Projects." In Handbook of Wastewater Reclamation and Reuse, 107–64. CRC Press, 2020. http://dx.doi.org/10.1201/9780138752514-4.

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