Kutri Village Drinking Water Accessibility

Kutri Village Drinking Water Accessibility- Unfortunately, finding precise, granular details about the drinking water accessibility of a specific village like “Kutri Village” can be challenging without very localized data. However, I can provide you with some general context and information about drinking water accessibility in rural areas, particularly in India, which may be relevant:

General Challenges in Rural Drinking Water Access:

• Groundwater Dependence:
  • Many rural areas rely heavily on groundwater, which can be affected by factors like drought, over-extraction, and contamination.
• Infrastructure Limitations:
  • Developing and maintaining water supply infrastructure (pipelines, treatment plants, etc.) can be difficult in remote areas.
• Water Quality:
  • Contamination from agricultural runoff, industrial waste, and natural sources (like arsenic and fluoride) is a significant problem.
• Seasonal Variations:
  • Water availability can fluctuate greatly depending on the monsoon season, leading to periods of scarcity.

Factors that improve rural drinking water access:

• Government Initiatives:
  • The Indian government has implemented various programs to improve rural water supply, such as the Jal Jeevan Mission, which aims to provide piped water to every rural household.
• NGO and Community Efforts:
  • Non-governmental organizations and local communities play a vital role in implementing water projects, maintaining infrastructure, and promoting water conservation.
• Technological Solutions:
  • Technologies like reverse osmosis (RO) plants and water ATMs can provide access to clean, treated water.

To find specific information about Kutri Village:

Searching for local news reports can also give insight to the local situations.

You could try to find local government resources, such as district or village-level reports.

Searching for information from NGOs that work in the region may also yield helpful data.

What is Required Kutri Village Drinking Water Accessibility

When considering what’s required for adequate drinking water accessibility in a village like Kutri, or any rural area, several key components are essential:

1. Reliable Water Source:

• Sustainable Groundwater Management:
  • If relying on groundwater, ensuring wells are properly constructed and that extraction rates are sustainable to prevent depletion.  
  • Monitoring groundwater quality to detect and address potential contamination.
• Surface Water Infrastructure:
  • If utilizing surface water (rivers, lakes), establishing proper intake systems and treatment facilities.
  • Protecting watersheds from pollution.
• Rainwater Harvesting:
  • Implementing rainwater harvesting systems to supplement other sources, particularly during monsoon seasons.  

2. Water Treatment and Purification:

• Filtration:
  • Removing sediment, turbidity, and other particulate matter.  
• Disinfection:
  • Eliminating harmful bacteria and viruses through methods like chlorination, UV treatment, or ozonation.  
• Removal of Contaminants:
  • Addressing specific contaminants like arsenic, fluoride, or excessive minerals through appropriate treatment technologies (e.g., reverse osmosis).  

3. Water Distribution Infrastructure:

• Piped Water Supply:
  • Establishing a network of pipes to deliver treated water to households, reducing the need for manual transport.
• Water Storage:
  • Constructing storage tanks to ensure a consistent water supply, particularly during dry periods.
• Water ATMs or Community Water Points:
  • Installing centralized water dispensing units in areas where piped water is not feasible.

4. Community Involvement and Management:

• Local Water Committees:
  • Empowering communities to manage their water resources, maintain infrastructure, and collect user fees.
• Hygiene and Sanitation Education:
  • Promoting good hygiene practices to prevent waterborne diseases.
• Maintenance and Repairs:
  • Establishing systems for regular maintenance and timely repairs of water infrastructure.

5. Financial Sustainability:

• Affordable Water Tariffs:
  • Setting water tariffs that are affordable for residents while ensuring the long-term sustainability of water services.
• Government Funding and Support:
  • Securing adequate government funding for water infrastructure development and maintenance.
• NGO and Private Sector Partnerships:
  • Collaborating with NGOs and private sector organizations to leverage resources and expertise.

Essentially, achieving sustainable drinking water accessibility requires a holistic approach that considers the entire water cycle, from source to consumption.

Who is Required Kutri Village Drinking Water Accessibility

Ensuring adequate drinking water accessibility in a village like Kutri requires a collaborative effort from various stakeholders. Here’s a breakdown of who is typically involved:

1. Government Bodies:

• Central Government:
  • Provides national-level policies, funding, and support for rural water supply programs (e.g., the Jal Jeevan Mission in India).  
• State Government:
  • Implements national programs at the state level, manages water resources, and provides funding.
• Local Government (Panchayats):
  • Plays a crucial role in planning, implementing, and managing water supply schemes at the village level. They are responsible for the day to day upkeep of the water systems.  
• District Administration:
  • Oversees water supply projects at the district level, ensuring coordination and implementation.  

2. Local Community:

• Village Residents:
  • Are the primary beneficiaries and should be actively involved in planning, implementing, and managing water supply systems.
  • Community participation ensures that the systems meet their needs and are sustainable.  
• Local Water Committees:
  • These committees, comprising village residents, are essential for managing water resources, maintaining infrastructure, and collecting user fees.  

3. Non-Governmental Organizations (NGOs):

• NGOs:
  • Often work in rural areas to implement water supply projects, provide technical assistance, and promote hygiene and sanitation education.  
  • They can play a vital role in mobilizing communities and advocating for their rights.  

4. Technical Experts:

• Engineers:
  • Design and implement water supply systems, ensuring they are technically sound and efficient.  
• Hydrogeologists:
  • Assess groundwater resources and provide guidance on sustainable extraction.
• Sanitation Experts:
  • Provide expertise on water treatment and hygiene practices.

5. Financial Institutions:

• Banks and Funding Agencies:
  • Provide financial support for water supply projects.  

In essence, achieving sustainable drinking water accessibility requires a coordinated effort involving government agencies, local communities, NGOs, and technical experts.

When is Required Kutri Village Drinking Water Accessibility

The need for drinking water accessibility is, in essence, constant. However, certain factors make it more acutely “required” at specific times:

• Year-Round Necessity:
  • Drinking water is a fundamental human need, so access is required every single day.  
  • Therefore, infrastructure and systems must be reliable throughout the year.
• Seasonal Stress:
  • Dry Seasons/Droughts:
    • These periods dramatically increase the urgency. When rainfall is scarce, existing water sources can dwindle, making alternative solutions critical.  
    • This is especially true in regions dependent on monsoon rains.
  • Climate Change Impacts:
    • Increasingly erratic weather patterns, including more intense droughts and floods, are making consistent water access more challenging.  
    • This heightens the “required” nature of reliable systems.
  • Population Growth:
    • As populations increase, the demand for water also rises, placing greater strain on existing resources.  
    • This means that planning and infrastructure development are continually “required” to keep pace.
• Times of Disaster:
  • Natural disasters such as floods or earthquakes can contaminate or destroy existing water supplies, creating an immediate and urgent need for emergency water provisions.  
• Developmental Timeframes:
  • Governmental programs like India’s Jal Jeevan Mission, with goals of providing piped water to all rural households by set dates, create specific timeframes where the need is very highly “required” to be met.

In summary, while the need for clean drinking water is always present, it becomes particularly critical during dry seasons, times of disaster, and as populations grow. Additionally governmental programs place time constraints on the need.

Where is Required Kutri Village Drinking Water Accessibility

The “where” of required drinking water accessibility is, fundamentally, everywhere people live. However, certain geographical and societal contexts make it particularly critical. Here’s a breakdown:

• Rural Areas:
  • These areas often lack the infrastructure of urban centers, leading to greater reliance on potentially unreliable sources like groundwater.  
  • Factors like dispersed populations, limited financial resources, and challenging terrain exacerbate the problem.  
  • Villages like “Kutri Village,” wherever they may be located, are prime examples of where improved accessibility is often needed.
• Arid and Semi-Arid Regions:
  • These areas experience water scarcity due to low rainfall and high evaporation rates.
  • Communities in these regions are highly vulnerable to droughts and require robust water management solutions.  
• Developing Nations:
  • Many developing countries face significant challenges in providing clean drinking water to their populations.  
  • Factors like poverty, inadequate infrastructure, and rapid population growth contribute to the problem.  
• Areas Prone to Natural Disasters:
  • Regions that experience frequent floods, droughts, or earthquakes are particularly vulnerable to water contamination and infrastructure damage.
  • These areas require resilient water systems and emergency preparedness plans.  
• Areas with Contaminated Water Sources:
  • Regions where groundwater or surface water is contaminated by pollutants (e.g., arsenic, fluoride, industrial waste) require treatment facilities and alternative water sources.
• Marginalized Communities:
  • Within any country, marginalized communities (e.g., those living in poverty, remote areas, or informal settlements) often face disproportionately limited access to clean water.

Essentially, the “where” is:

• Any location where people lack consistent access to safe, clean drinking water.
• Any location where factors like poverty, environmental conditions, or infrastructure limitations create vulnerabilities.

How is Required Kutri Village Drinking Water Accessibility

The “how” of achieving adequate drinking water accessibility in a village like Kutri involves a multi-faceted approach, encompassing technical solutions, community engagement, and sustainable management practices. Here’s a breakdown:

1. Source Development and Management:

• Groundwater Exploration and Development:
  • Conducting hydrogeological surveys to identify sustainable groundwater sources.
  • Drilling and constructing borewells with proper casing and screening to prevent contamination.
  • Implementing groundwater recharge measures to replenish aquifers.
• Surface Water Utilization:
  • Constructing intake structures on rivers or lakes, ensuring proper filtration and treatment.
  • Protecting watersheds from pollution through afforestation and erosion control.
• Rainwater Harvesting:
  • Implementing rooftop rainwater harvesting systems in households and community buildings.
  • Constructing rainwater storage tanks and ponds.

2. Water Treatment and Purification:

• Filtration:
  • Using sand filters, membrane filters, or other filtration technologies to remove sediment and turbidity.
• Disinfection:
  • Chlorination, UV disinfection, or ozonation to kill harmful bacteria and viruses.
• Contaminant Removal:
  • Employing specialized technologies like reverse osmosis (RO), arsenic removal units, or fluoride removal units to address specific contaminants.

3. Water Distribution:

• Piped Water Supply:
  • Constructing a network of pipes to deliver treated water to households and community taps.
  • Ensuring proper pipe sizing and pressure to minimize water loss.
• Community Water Points:
  • Installing water ATMs or public taps in strategic locations for easy access.
  • Establishing water storage tanks to ensure a consistent supply.
• Water Quality Monitoring:
  • Regular testing of water quality at various points in the distribution system.

4. Community Participation and Management:

• Formation of Village Water and Sanitation Committees (VWSCs):
  • Empowering local communities to manage their water resources.
  • Providing training on water management, hygiene, and sanitation.
• Hygiene and Sanitation Education:
  • Conducting awareness campaigns to promote good hygiene practices.
  • Constructing and promoting the use of toilets.
• Maintenance and Repairs:
  • Establishing systems for regular maintenance and timely repairs of water infrastructure.
  • Training local technicians to maintain the systems.

5. Financial Sustainability:

• User Fees:
  • Implementing a system of user fees to cover the costs of operation and maintenance.
  • Ensuring that fees are affordable for all residents.
• Government Funding and Support:
  • Securing government grants and subsidies for water supply projects.
• NGO and Private Sector Partnerships:
  • Collaborating with NGOs and private sector organizations to leverage resources and expertise.

In summary, the “how” involves a combination of technological solutions, community engagement, and sustainable management practices to ensure that clean drinking water is accessible to all residents of Kutri Village.

Case Study on Kutri Village Drinking Water Accessibility

However, I can provide a framework for a potential case study, drawing on common challenges and solutions seen in rural drinking water accessibility, especially in India. I will also provide examples of similar case studies that have been documented.

Potential Case Study Framework: Kutri Village Drinking Water Accessibility

1. Village Profile:

• Location:
  • Specify the district and state.
  • Describe the geographical terrain (e.g., hilly, plain, arid).
• Population:
  • Provide population figures and demographics.
• Existing Water Sources:
  • Identify current sources (e.g., wells, ponds, rivers).
  • Assess their reliability and quality.
• Existing Infrastructure:
  • Describe any existing water supply systems (e.g., hand pumps, pipelines).
  • Evaluate their condition and functionality.
• Socio-economic Conditions:
  • Describe the economic activities of the villagers.
  • Assess the affordability of potential water solutions.

2. Problem Identification:

• Water Scarcity:
  • Document periods of water shortage, especially during dry seasons.
  • Analyze the impact on daily life and livelihoods.
• Water Quality Issues:
  • Test water samples for contaminants (e.g., bacteria, arsenic, fluoride).
  • Document any waterborne diseases prevalent in the village.
• Infrastructure Deficiencies:
  • Identify leaks, breakdowns, and inadequate distribution systems.
  • Assess the time and effort spent by villagers to fetch water.

3. Intervention and Solutions:

• Source Development:
  • Describe any new wells drilled or existing wells rehabilitated.
  • Document the implementation of rainwater harvesting systems.
• Water Treatment:
  • Detail the installation of filtration or purification systems (e.g., RO plants).
  • Assess the effectiveness of the treatment methods.
• Distribution Infrastructure:
  • Describe the construction of pipelines, storage tanks, or water ATMs.
  • Evaluate the accessibility and convenience of the new system.
• Community Participation:
  • Document the formation and activities of village water committees.
  • Describe any hygiene and sanitation training provided.
• Financial Sustainability:
  • Outline the funding sources for the project.
  • Explain the system for collecting user fees.

4. Impact and Evaluation:

• Improved Water Access:
  • Measure the increase in the availability of clean water.
  • Assess the reduction in time and effort spent fetching water.
• Improved Health:
  • Document the reduction in waterborne diseases.
  • Evaluate the overall improvement in public health.
• Community Empowerment:
  • Assess the level of community ownership and participation.
  • Evaluate the sustainability of the water management system.

Examples of similar case studies:

• Mallampudi Village, Andhra Pradesh, India:
  • This case study, found on the Maataram Foundation website, details the installation of a water ATM and RO plant to provide clean drinking water to a village with severe groundwater contamination.
  • It highlights the importance of partnerships and sustainable solutions.
• Many NGO’s working within the rural water sector publish case studies of the projects they implement. Those case studies often highlight the difficulties, and the triumphs of those projects.

By adapting this framework, one could create a comprehensive case study on Kutri Village’s drinking water accessibility, providing valuable insights into the challenges and solutions in rural water management.

White paper on Kutri Village Drinking Water Accessibility

Creating a full, formal white paper requires extensive research and data collection specific to Kutri Village. However, I can provide a structured outline and key considerations for such a document, drawing on best practices in rural water management:

White Paper: Enhancing Drinking Water Accessibility in Kutri Village

1. Executive Summary:

• Briefly state the challenges of drinking water accessibility in Kutri Village.
• Outline the proposed solutions and their expected impact.
• Highlight the importance of community involvement and sustainable management.

2. Introduction:

• Provide context on the importance of clean drinking water for human health and development.
• Introduce Kutri Village, its location, demographics, and socio-economic profile.
• State the purpose and scope of the white paper.

3. Problem Statement:

• Current Water Situation:
  • Describe the existing water sources (wells, ponds, etc.) and their limitations.
  • Analyze the quality and quantity of available water.
  • Document seasonal variations in water availability.
• Challenges:
  • Water scarcity and drought vulnerability.
  • Groundwater contamination (if applicable).
  • Inadequate infrastructure (e.g., lack of pipelines, storage).
  • Health impacts of poor water quality.
  • Socio-economic impacts (e.g., time spent fetching water).

4. Proposed Solutions:

• Source Development:
  • Sustainable groundwater management (well rehabilitation, recharge).
  • Rainwater harvesting systems.
  • Potential surface water utilization (if applicable).
• Water Treatment:
  • Filtration and disinfection technologies.
  • Contaminant removal (arsenic, fluoride, etc.).
  • Centralized or decentralized treatment systems.
• Distribution Infrastructure:
  • Piped water supply network.
  • Community water points (water ATMs).
  • Water storage solutions.
• Community Engagement:
  • Formation of Village Water and Sanitation Committees (VWSCs).
  • Hygiene and sanitation education programs.
  • Capacity building for local maintenance.

5. Implementation Strategy:

• Phased Approach:
  • Outline the steps for implementing the proposed solutions.
  • Define timelines and milestones.
• Technology Selection:
  • Justify the choice of specific technologies.
  • Consider factors like cost, maintenance, and sustainability.
• Financial Planning:
  • Identify funding sources (government grants, NGOs, community contributions).
  • Develop a sustainable financial model (user fees).
• Monitoring and Evaluation:
  • Establish a system for monitoring water quality and quantity.
  • Evaluate the impact of the interventions on health and well-being.

6. Sustainability and Long-Term Management:

• Community Ownership:
  • Ensure that the community is actively involved in managing the water system.
  • Promote a sense of ownership and responsibility.
• Maintenance and Repairs:
  • Establish a system for regular maintenance and repairs.
  • Train local technicians.
• Water Conservation:
  • Promote water conservation practices.
  • Implement measures to reduce water wastage.

7. Conclusion:

• Summarize the key recommendations.
• Emphasize the importance of a holistic and sustainable approach.
• Call for collaboration among stakeholders.

8. Appendices:

• Water quality test results.
• Maps of the village and water infrastructure.
• Financial projections.
• Community meeting minutes.

Key Considerations:

• Data-Driven Approach: Base recommendations on accurate data and analysis.
• Community-Centered Solutions: Involve the community in all stages of the project.
• Sustainability: Ensure that the solutions are environmentally and financially sustainable.
• Collaboration: Foster collaboration among government agencies, NGOs, and the community.

By following this outline, a comprehensive white paper can be created to guide efforts in improving drinking water accessibility in Kutri Village.

Industrial Application of Kutri Village Drinking Water Accessibility

While “Kutri Village Drinking Water Accessibility” primarily focuses on providing potable water for domestic use, there are some potential industrial applications or related economic activities that could arise from improved water access, even in a small, rural setting. These are often indirect and tied to the overall development that reliable water brings:

1. Small-Scale Food Processing:

• Potential: With improved water availability, small-scale food processing units could emerge. This might include:
  • Pickle making
  • Fruit and vegetable drying
  • Small-scale dairy processing
• Requirement: Reliable, clean water is essential for hygiene and quality control in food processing.  
• Impact: This can create local employment and income generation.

2. Agricultural Enhancement:

• Potential: Improved water access can enhance agricultural productivity.
  • Small scale irrigation.
  • Improved livestock care.  
• Requirement: Consistent water supply for irrigation and livestock.
• Impact: Increased agricultural output can lead to related small industries, such as:
  • Packaging
  • Local markets.

3. Cottage Industries:

• Potential: Certain cottage industries require a reliable water supply.
  • Textile dyeing  
  • Pottery  
  • Brick making.  
• Requirement: Consistent water supply for production processes.
• Impact: These industries can provide alternative income sources.  

4. Tourism (If Applicable):

• Potential: If Kutri Village has any tourism potential (natural beauty, cultural sites), improved water infrastructure can support it.
  • Small guesthouses
  • Local restaurants.
• Requirement: Clean water for hygiene and sanitation in tourism-related businesses.
• Impact: Tourism can bring economic benefits to the village.  

5. Water Purification and Related Services:

• Potential: If a centralized water treatment system is established, there may be opportunities for:
  • Local maintenance and repair services.
  • Water testing and quality control.
• Requirement: Technical skills and training.
• Impact: Local employment and skill development.

Important Considerations:

• Sustainability: Any industrial application must be sustainable and not deplete the village’s water resources.
• Environmental Impact: Industrial activities should be conducted in an environmentally responsible manner.
• Community Involvement: The community should be involved in any industrial development plans to ensure that they benefit from it.
• Scale: It is very important to remember that these industrial applications would be on a small, village scale.

In essence, improved drinking water accessibility can act as a catalyst for broader economic development in Kutri Village, creating opportunities for small-scale industries and related services.

References

1. ^ Jump up to:^a b “Nawada District Census Handbook Page No. 3 for Population and Page No. 76 for Village Code” (PDF).
2. ^ Jump up to:^a b “Postal Code (PIN) and STD Code”.
3. ^ “Details of Blocks and Villages of Nawada District”.
4. ^ “Panchayat and Village Details of Nawada” (PDF).
5. ^ Frawley, William (May 2003). International Encyclopedia of Linguistics: 4-Volume Set By William Frawley. ISBN 9780195139778.
6. ^ “Station: Patna Climatological Table 1981–2010” (PDF). Climatological Normals 1981–2010. India Meteorological Department. January 2015. pp. 601–602. Archived from the original (PDF) on 5 February 2020. Retrieved 2 March 2020.
7. ^ “Extremes of Temperature & Rainfall for Indian Stations (Up to 2012)” (PDF). India Meteorological Department. December 2016. p. M36. Archived from the original (PDF) on 5 February 2020. Retrieved 2 March 2020.
8. ^ “Table 3 Monthly mean duration of Sun Shine (hours) at different locations in India” (PDF). Daily Normals of Global & Diffuse Radiation (1971–2000). India Meteorological Department. December 2016. p. M-3. Archived from the original (PDF) on 5 February 2020. Retrieved 2 March 2020.
9. ^ “Higher Secondary School List SL. No. 64”.
10.  Ann C. Grandjean (August 2004). “3” (PDF). Water Requirements, Impinging Factors, & Recommended Intakes. World Health Organization. pp. 25–34. Archived (PDF) from the original on 22 February 2016. This 2004 article focuses on the USA context and uses data collected from the US military.
11. ^ Exposure Factors Handbook: 2011 Edition (PDF). National Center for Environmental Assessment. September 2011. Archived from the original (PDF) on 24 September 2015. Retrieved 24 May 2015.
12. ^ “Drinking-water”. World Health Organization. March 2018. Archived from the original on 5 June 2015. Retrieved 23 March 2018.
13. ^ Jump up to:^a b “Unsafe water kills more people than war, Ban says on World Day”. UN News. 22 March 2010. Archived from the original on 11 May 2018. Retrieved 10 May 2018.
14. ^ Hall, Ellen L.; Dietrich, Andrea M. (2000). “A Brief History of Drinking Water.” Archived 8 February 2015 at the Wayback Machine Washington: American Water Works Association. Product No. OPF-0051634, Accessed 13 June 2012.
15. ^ Jump up to:^a b Lord, Jackson; Thomas, Ashley; Treat, Neil; Forkin, Matthew; Bain, Robert; Dulac, Pierre; Behroozi, Cyrus H.; Mamutov, Tilek; Fongheiser, Jillia; Kobilansky, Nicole; Washburn, Shane; Truesdell, Claudia; Lee, Clare; Schmaelzle, Philipp H. (October 2021). “Global potential for harvesting drinking water from air using solar energy”. Nature. 598 (7882): 611–617. Bibcode:2021Natur.598..611L. doi:10.1038/s41586-021-03900-w. ISSN 1476-4687. PMC 8550973. PMID 34707305.
16. ^ Schardt, David (2000). “Water, Water Everywhere”. Washington, D.C.: Center for Science in the Public Interest. Archived from the original on 16 May 2009.
17. ^ United Nations. World Water Assessment Programme (2009). “Water in a Changing World: Facts and Figures.” Archived 24 June 2012 at the Wayback Machine World Water Development Report 3. p. 58 Accessed 13 June 2012.
18. ^ Mayer, P.W.; DeOreo, W.B.; Opitz, E.M.; Kiefer, J.C.; Davis, W.Y.; Dziegielewski, B.; & Nelson, J.O., 1999. Residential End Uses of Water. AWWARF and AWWA, Denver.
19. ^ William B. DeOreo, Peter Mayer, Benedykt Dziegielewski, Jack Kiefer. 2016. Residential End Uses of Water, Version 2. Water Research Foundation. Denver, Colorado.
20. ^ Joseph Cotruvo, Victor Kimm, Arden Calvert. “Drinking Water: A Half Century of Progress.” Archived 2020-07-31 at the Wayback Machine EPA Alumni Association. 1 March 2016.
21. ^ Ann C. Grandjean (August 2004). “3” (PDF). Water Requirements, Impinging Factors, & Recommended Intakes. World Health Organization. pp. 25–34. Archived (PDF) from the original on 22 February 2016. This 2004 article focuses on the USA context and uses data collected from the US military.
22. ^ “US daily reference intake values”. Iom.edu. Archived from the original on 6 October 2011. Retrieved 5 December 2011.
23. ^ EFSA Panel on Dietetic Products, Nutrition, and Allergies (2010). “Scientific Opinion on Dietary Reference Values for water”. EFSA Journal. 8 (3): 1459. doi:10.2903/j.efsa.2010.1459.
24. ^ “Average Daily Water Needs”. Aermotor Windmill Company. Retrieved 2024-11-16.
25. ^ Jump up to:^a b Guidelines for Drinking‑water Quality (PDF) (Report) (4 ed.). World Health Organization. 2017. p. 631. ISBN 978-92-4-154995-0. Archived from the original on 2021-11-02. Retrieved 2018-03-22.
26. ^ “WWDR1: Water for People – water for life” (PDF). UNESCO and Berghahn Books. 2003. Archived (PDF) from the original on 16 June 2017. Retrieved 21 September 2022.
27. ^ “The quality of water produced by Turku Region Water is rated the best in the world by Unesco”. City of Turku. 1 December 2021. Archived from the original on 21 September 2022. Retrieved 21 September 2022.
28. ^ “Drinking Water Contaminants: Microorganisms”. EPA. 21 September 2010. Archived from the original on 2 February 2015.
29. ^ Nowicki, Saskia; Birhanu, Behailu; Tanui, Florence; Sule, May N.; Charles, Katrina; Olago, Daniel; Kebede, Seifu (2023). “Water chemistry poses health risks as reliance on groundwater increases: A systematic review of hydrogeochemistry research from Ethiopia and Kenya”. Science of the Total Environment. 904: 166929. Bibcode:2023ScTEn.90466929N. doi:10.1016/j.scitotenv.2023.166929. PMID 37689199.  Text was copied from this source, which is available under a Creative Commons Attribution 4.0 International License
30. ^ “Drinking Water and Pesticides”. National Pesticide Information Center. Corvallis, OR: Oregon State University. 16 September 2021. Archived from the original on 16 September 2022. Retrieved 6 January 2022.
31. ^ “PFAS Explained”. EPA. 18 October 2021. Archived from the original on 22 December 2022. Retrieved 7 January 2022.
32. ^ “Per- and Polyfluorinated Substances Factsheet”. CDC. 16 August 2021. Archived from the original on 22 December 2022. Retrieved 7 January 2022.
33. ^ “Increasing Our Understanding of the Health Risks from PFAS and How to Address Them”. EPA. 3 November 2021. Archived from the original on 29 November 2022. Retrieved 7 January 2022.
34. ^ Kurwadkar, Sudarshan; Danea, Jason; Kanel, Sushil R.; et al. (22 October 2021). “Per- and polyfluoroalkyl substances in water and wastewater: A critical review of their global occurrence and distribution”. Science of the Total Environment. 809. Elsevier: 151003. doi:10.1016/j.scitotenv.2021.151003. PMC 10184764. PMID 34695467. S2CID 239494337.
35. ^ “European Drinking Water Directive”. Directorate-General for Environment. Brussels: European Commission.
36. ^ “Environmental quality standards for surface water”. Archived from the original on 2018-08-03. Retrieved 2013-02-11.
37. ^ Guidelines for Drinking-water Quality, Fourth Edition; World Health Organization; 2022
38. ^ What is the purpose of drinking water quality guidelines/regulations?. Canada: Safe Drinking Water Foundation. Pdf. Archived 2011-10-06 at the Wayback Machine
39. ^ “Summary of the Safe Drinking Water Act”. Washington, D.C.: U.S. Environmental Protection Agency (EPA). 2022-09-12.
40. ^ “Mortality rate attributable to unsafe water, sanitation, and hygiene (WASH)”. Our World in Data. Archived from the original on 26 September 2019. Retrieved 5 March 2020.
41. ^ Jump up to:^{a b c d e f g} “Water Fact sheet N°391”. July 2014. Archived from the original on 5 June 2015. Retrieved 24 May 2015.
42. ^ Engell, Rebecca E; Lim, Stephen S (2013). “Does clean water matter? An updated meta-analysis of water supply and sanitation interventions and diarrhoeal diseases”. The Lancet. 381: S44. doi:10.1016/S0140-6736(13)61298-2. Archived from the original on 2022-07-21. Retrieved 2023-10-26.
43. ^ “Drinking-water”. www.who.int. Archived from the original on 2021-07-10. Retrieved 2020-11-28.
44. ^ Jump up to:^a b WHO (2023) Burden of disease attributable to unsafe drinking-water, sanitation and hygiene, 2019 update. Geneva: World Health Organization; 2023. Licence: CC BY-NC-SA 3.0 IGO.
45. ^ “Call to action on sanitation” (PDF). United Nations. Archived from the original on August 2, 2014. Retrieved 15 August 2014.
46. ^ Walker CL, Rudan I, Liu L, Nair H, Theodoratou E, Bhutta ZA, et al. (April 2013). “Global burden of childhood pneumonia and diarrhoea”. Lancet. 381 (9875): 1405–1416. doi:10.1016/S0140-6736(13)60222-6. PMC 7159282. PMID 23582727.
47. ^ “WHO | Diarrhoeal disease”. Who.int. Retrieved 2014-03-10.
48. ^ Spears D, Ghosh A, Cumming O (2013-09-16). “Open defecation and childhood stunting in India: an ecological analysis of new data from 112 districts”. PLOS ONE. 8 (9): e73784. Bibcode:2013PLoSO…873784S. doi:10.1371/journal.pone.0073784. PMC 3774764. PMID 24066070.
49. ^ Mara D (2017). “The elimination of open defecation and its adverse health effects: a moral imperative for governments and development professionals”. Journal of Water Sanitation and Hygiene for Development. 7 (1): 1–12. doi:10.2166/washdev.2017.027. ISSN 2043-9083.
50. ^ “Water, Sanitation & Hygiene: Strategy Overview”. Bill & Melinda Gates Foundation. Retrieved 27 April 2015.
51. ^ Jump up to:^a b Wolf J, Prüss-Ustün A, Cumming O, Bartram J, Bonjour S, Cairncross S, et al. (August 2014). “Assessing the impact of drinking water and sanitation on diarrhoeal disease in low- and middle-income settings: systematic review and meta-regression”. Tropical Medicine & International Health. 19 (8): 928–942. doi:10.1111/tmi.12331. PMID 24811732. S2CID 22903164.
52. ^ “Diarrhoeal disease Fact sheet”. World Health Organization. 2 May 2017. Retrieved 29 October 2020.
53. ^ Progress on Drinking Water and Sanitation: Special Focus on Sanitation, Joint Monitoring Programme for Water Supply and Sanitation (PDF). World Health Organization and UNICEF. 2008. ISBN 978-92-806-4313-8. Archived from the original (PDF) on 12 February 2009.
54. ^ Pearce, Fred (2006). When the Rivers Run Dry: Journeys Into the Heart of the World’s Water Crisis. Toronto: Key Porter. ISBN 978-1-55263-741-8.
55. ^ Ahuja, Satinder (2018). Advances in Water Purification Techniques: Meeting the Needs of Developed and Developing Countries. San Diego: Elsevier. ISBN 978-0-12-814791-7. OCLC 1078565849.
56. ^ Bagchi, Sanjit (20 November 2007). “Arsenic threat reaching global dimensions” (PDF). Canadian Medical Association Journal. 177 (11): 1344–45. doi:10.1503/cmaj.071456. ISSN 1488-2329. PMC 2072985. PMID 18025421.
57. ^ Jump up to:^a b c Khan, Nameerah; Charles, Katrina J. (2023). “When Water Quality Crises Drive Change: A Comparative Analysis of the Policy Processes Behind Major Water Contamination Events”. Exposure and Health. 15 (3): 519–537. Bibcode:2023ExpHe..15..519K. doi:10.1007/s12403-022-00505-0. ISSN 2451-9766. PMC 9522453. PMID 36196073.  Text was copied from this source, which is available under a Creative Commons Attribution 4.0 International License
58. ^ “Canada’s worst-ever E. coli contamination”. CBC. Archived from the original on 23 October 2004. Retrieved 18 September 2009.
59. ^ Hayes EB, Matte TD, O’Brien TR, et al. (May 1989). “Large community outbreak of cryptosporidiosis due to contamination of a filtered public water supply”. N. Engl. J. Med. 320 (21): 1372–76. doi:10.1056/NEJM198905253202103. PMID 2716783.
60. ^ Egoz N, Shihab S, Leitner L, Lucian M (November 1988). “An outbreak of typhoid fever due to contamination of the municipal water supply in northern Israel”. Isr. J. Med. Sci. 24 (11): 640–43. PMID 3215755.
61. ^ Centers for Disease Control and Prevention (CDC) (October 1998). “Outbreak of cryptosporidiosis associated with a water sprinkler fountain – Minnesota, 1997”. MMWR Morb. Mortal. Wkly. Rep. 47 (40): 856–60. PMID 9790661. Archived from the original on 2022-03-07. Retrieved 2023-10-25.
62. ^ Kuusi M, Nuorti JP, Hänninen ML, et al. (August 2005). “A large outbreak of campylobacteriosis associated with a municipal water supply in Finland”. Epidemiol. Infect. 133 (4): 593–601. doi:10.1017/S0950268805003808 (inactive 10 December 2024). PMC 2870285. PMID 16050503.
63. ^ Kuusi M, Klemets P, Miettinen I, et al. (April 2004). “An outbreak of gastroenteritis from a non-chlorinated community water supply”. J Epidemiol Community Health. 58 (4): 273–77. doi:10.1136/jech.2003.009928. PMC 1732716. PMID 15026434.
64. ^ Nygård K, Schimmer B, Søbstad Ø, et al. (2006). “A large community outbreak of waterborne giardiasis-delayed detection in a non-endemic urban area”. BMC Public Health. 6: 141. doi:10.1186/1471-2458-6-141. PMC 1524744. PMID 16725025.
65. ^ Vestergaard LS, Olsen KE, Stensvold R, et al. (March 2007). “Outbreak of severe gastroenteritis with multiple aetiologies caused by contaminated drinking water in Denmark, January 2007”. Euro Surveill. 12 (3): E070329.1. doi:10.2807/esw.12.13.03164-en. PMID 17439795.
66. ^ Penman AD, Brackin BT, Embrey R (1997). “Outbreak of acute fluoride poisoning caused by a fluoride overfeed, Mississippi, 1993”. Public Health Rep. 112 (5): 403–09. PMC 1381948. PMID 9323392.
67. ^ “Uummannaq: Vand fra vandværket kan drikkes igen”. Sermitsiaq.AG (in Danish). 21 December 2011. Archived from the original on 2022-08-19. Retrieved 2020-09-23.
68. ^ Centre for Affordable Water and Sanitation Technology. Calgary, Alberta. “Household Water Treatment Guide,” March 2008. Archived 20 September 2008 at the Wayback Machine.
69. ^ “Our water – Water supply”. Christchurch City Council. Christchurch, NZ. Archived from the original on 12 May 2015.
70. ^ World Health Organization, Geneva (2004). “Guidelines for Drinking-water Quality. Volume 1: Recommendations.” Archived 4 March 2016 at the Wayback Machine 3rd ed.
71. ^ Clasen, T.; Schmidt, W.; Rabie, T.; Roberts, I.; Cairncross, S. (12 March 2007). “Interventions to improve water quality for preventing diarrhoea: systematic review and meta-analysis”. British Medical Journal. 334 (7597): 782. doi:10.1136/bmj.39118.489931.BE. PMC 1851994. PMID 17353208.
72. ^ Buchanan, Kelly M. (2010). Water disinfection. Hauppauge, N.Y.: Nova Science Publishers. ISBN 978-1-61122-401-6. OCLC 730450380.
73. ^ Conroy, RM.; Meegan, ME.; Joyce, T.; McGuigan, K.; Barnes, J. (October 1999). “Solar disinfection of water reduces diarrhoeal disease: an update”. Arch Dis Child. 81 (4): 337–38. doi:10.1136/adc.81.4.337. PMC 1718112. PMID 10490440.
74. ^ Conroy, R.M.; Meegan, M.E.; Joyce, T.M.; McGuigan, K.G.; Barnes, J. (2001). “Solar disinfection of drinking water protects against cholera in children under 6 years of age”. Arch Dis Child. 85 (4): 293–95. doi:10.1136/adc.85.4.293. PMC 1718943. PMID 11567937.
75. ^ Rose, A; Roy, S; Abraham, V; Holmgren, G; George, K; Balraj, V; Abraham, S; Muliyil, J; et al. (2006). “Solar disinfection of water for diarrhoeal prevention in southern India”. Arch Dis Child. 91 (2): 139–41. doi:10.1136/adc.2005.077867. PMC 2082686. PMID 16403847.
76. ^ Hobbins M. (2003). The SODIS Health Impact Study, Ph.D. Thesis, Swiss Tropical Institute Basel
77. ^ “Recommendations for using fluoride to prevent and control dental caries in the United States. Centers for Disease Control and Prevention”. MMWR. Recommendations and Reports. 50 (RR-14): 1–42. August 2001. PMID 11521913. See also lay summary from CDC, 2007-08-09.
78. ^ Pizzo G, Piscopo MR, Pizzo I, Giuliana G (September 2007). “Community water fluoridation and caries prevention: a critical review”. Clinical Oral Investigations. 11 (3): 189–193. doi:10.1007/s00784-007-0111-6. PMID 17333303. S2CID 13189520.
79. ^ Taricska JR, Wang LK, Hung YT, Li KH (2006). “Fluoridation and Defluoridation”. In Wang LK, Hung YT, Shammas NK (eds.). Advanced Physicochemical Treatment Processes. Handbook of Environmental Engineering 4. Humana Press. pp. 293–315. doi:10.1007/978-1-59745-029-4_9. ISBN 978-1597450294.
80. ^ Guidelines for Drinking-water Quality, 4th Edition WHO, 2011. ISBN 978-9241548151. p. 168, 175, 372 and see also pp 370–373. See also J. Fawell, et al Fluoride in Drinking-water. WHO, 2006. p. 32. Quote: “Concentrations in drinking-water of about 1 mg l–1 are associated with a lower incidence of dental caries, particularly in children, whereas excess intake of fluoride can result in dental fluorosis. In severe cases this can result in erosion of enamel. The margin between the beneficial effects of fluoride and the occurrence of dental fluorosis is small and public health programmes seek to retain a suitable balance between the two”
81. ^ U.S. Department of Health & Human Services (2011). “HHS and EPA announce new scientific assessments and actions on fluoride”. Archived from the original on 8 December 2015.
82. ^ “Public Health Service Recommendation for Fluoride Concentration in Drinking Water for the Prevention of Dental Caries”. Federal Register. 2015-05-01. Archived from the original on 2024-12-05. Retrieved 2025-01-08.
83. ^ Hobson WL, Knochel ML, Byington CL, Young PC, Hoff CJ, Buchi KF (May 2007). “Bottled, filtered, and tap water use in Latino and non-Latino children”. Archives of Pediatrics & Adolescent Medicine. 161 (5): 457–461. doi:10.1001/archpedi.161.5.457. PMID 17485621.
84. ^ Jump up to:^a b c Ritchie, Hannah; Roser, Max (2018), “Water Access, Resources & Sanitation”, OurWorldInData.org, archived from the original on 21 March 2018, retrieved 22 March 2018
85. ^ Davenport, Christian; Mokleiv Nygård, Håvard; Fjelde, Hanne; Armstrong, David (2019). “The Consequences of Contention: Understanding the Aftereffects of Political Conflict and Violence”. Annual Review of Political Science. 22: 361–377. doi:10.1146/annurev-polisci-050317-064057.
86. ^ Jump up to:^a b c Progress on Drinking Water, Sanitation and Hygiene (PDF) (Report). JMP, WHO and UNICEF. 2014. ISBN 978-92-4-151289-3. Archived (PDF) from the original on 20 July 2018. Retrieved 22 March 2018.
87. ^ Jump up to:^a b c Bain, R.; Cronk, R.; Wright, J.; Yang, H.; Slaymaker, T.; Bartram, J. (2014). “Fecal Contamination of Drinking-Water in Low- and Middle-Income Countries: A Systematic Review and Meta-Analysis”. PLOS Medicine. 11 (5): e1001644. doi:10.1371/journal.pmed.1001644. PMC 4011876. PMID 24800926.
88. ^ U.S. Environmental Protection Agency. Report on the environment: drinking water. Available at: https://cfpub.epa.gov. Accessed March 3, 2023. Archived March 10, 2023, at the Wayback Machine
89. ^ Walker, Andrew (5 February 2009). “The water vendors of Nigeria”. BBC News. Archived from the original on 22 October 2009. Retrieved 23 October 2009.
90. ^ “| Human Development Reports” (PDF). Archived (PDF) from the original on 2 April 2015. Retrieved 23 October 2009. page 51 Referenced 20 October 2008
91. ^ “About the JMP”. JMP. WHO and UNICEF. Archived from the original on 19 August 2019. Retrieved 16 October 2019.
92. ^ United Nations:World Water Assessment Program Archived 21 January 2008 at the Wayback Machine, accessed on 27 February 2010
93. ^ “Meeting the MDG Drinking Water and Sanitation Target: A Mid-Term Assessment of Progress” (PDF). Archived from the original (PDF) on March 4, 2016.
94. ^ Bain, R.; Cronk, R.; Hossain, R.; Bonjour, S.; Onda, K.; Wright, J.; Yang, H.; Slaymaker, T.; Hunter, P.; Prüss-Ustün, A.; Bartram, J. (2014). “Global assessment of exposure to faecal contamination through drinking water based on a systematic review”. Tropical Medicine & International Health. 19 (8): 917–27. doi:10.1111/tmi.12334. PMC 4255778. PMID 24811893.
95. ^ Kostyla, C.; Bain, R.; Cronk, R.; Bartram, J. (2015). “Seasonal variation of fecal contamination in drinking water sources in developing countries: A systematic review”. Science of the Total Environment. 514: 333–43. Bibcode:2015ScTEn.514..333K. doi:10.1016/j.scitotenv.2015.01.018. PMID 25676921.
96. ^ “Progress on Drinking-water and Sanitation: 2012 Update” (PDF). Archived from the original (PDF) on 28 March 2012.
97. ^ ISO 24510 Activities relating to drinking water and wastewater services. Guidelines for the assessment and for the improvement of the service to users
98. ^ Maria, Kaika (April 2003). “The Water Framework Directive: A New Directive for a Changing Social, Political and Economic European Framework”. European Planning Studies. 11 (3): 299–316. doi:10.1080/09654310303640. S2CID 153351550. Archived from the original on 2022-12-29. Retrieved 2020-08-31.
99. ^ Jump up to:^a b c “Ministry of Health, Labour and Welfare: Water Supply in Japan”. www.mhlw.go.jp. Archived from the original on 2021-11-18. Retrieved 2021-11-18.
100. ^ “Taumata Arowai: a new water regulator”. NZ Ministry of Health. 9 June 2022. Archived from the original on 23 May 2022. Retrieved 28 June 2022.