Water positive

Last updated

Water positive is the concept of water conservation by a company, community, or individual that actively contributes to the sustainable management and restoration of water resources. This involves implementing practices and technologies that reduce water consumption, improve water quality, and enhance water availability. The goal of being water positive is to leave a positive impact on water ecosystems and ensure that more water is conserved and restored than is used or depleted. [1] [2] [3]

Contents

Although many corporations have focused on this issue primarily within their own operations, especially in regions with low water thresholds, organizations like the Water Resilience Coalition are committed to achieving a net positive water impact (NPWI) by the year 2050, encompassing their entire value chain. This commitment entails optimizing not only their direct operations but also considering and improving the impact throughout their supply chain, which makes sense as a significant portion of corporate production is outsourced. [4]

History

The idea of water positivity began in the construction industry in the early 2000s. This was in response to an agenda for optimizing construction practices by reducing their environmental impact through land and material reductions, as well as energy and water conservation, to produce "zero impact buildings." [5] To conserve water, rain harvesting was considered to minimize dependence on freshwater consumption.

Interest in water positivity expanded to other domains and industries as concerns began to rise over the challenges of global freshwater scarcity. It can be coupled with the previous agenda of net zero emissions, sharing a common goal of restoring the environment through sustainable management of vital resources. Civil and corporate responsibilities aim to control resource consumption and manage waste to achieve a net positive impact. To achieve these goals, compensation incentives are introduced as credits (such as carbon credits or water-positive credits) that can be commercially exchanged between the seller (authorized carbon credit or water-positive holders) and buyers, promoting positive environmental impacts.

Like the compensation of greenhouse gases (GHG), the idea behind water positivity is to balance the water footprint by implementing measures for process efficiency, water purification, aquifer recharge, ecosystem conservation, and other water compensation projects. It focuses on managing this critical resource so that organizations contribute more to global water sustainability.

In 2023, the concept of Water Positive gained greater significance with the creation of the Water Positive Think Tank (WPTT), [6] an initiative that brings together experts from various disciplines and regions around the world, committed to sustainable and regenerative water management. This group was formed in response to the growing urgency to implement measures that ensure the availability and quality of water resources in the near future. During the United Nations Water Conference in New York in March 2023, [7] the founders of the WPTT recognized the call to action and the shared responsibility to drive effective solutions. In 2024, Daniele Strongone [8] was appointed as its first president, with Esmeralda Leyva named as vice president.


Expansion

Water positivity expanded globally in the 2000s, driven partly by the United Nations Millennium Development Goals relating to access to drinking water and the need for manufacturing industries to participate in water sustainability in their production.

Beverage companies like The Coca-Cola Company and PepsiCo established water positivity commitments for water-stressed regions by investing in water efficiency and community projects. They set goals to reduce the use of potable water per liter of product production, becoming models for other industries. In June 2007, Coca-Cola announced a multi-year partnership with World Wildlife Fund(WWF) on water conservation. E. Neville Isdell, Coca-Cola's chairman and CEO, said: "Our goal is to replace every drop of water we use in our beverages and their production. For us, that means reducing the amount of water used...recycling water used for manufacturing processes so it can be safely returned to the environment, and replenishing water in communities and nature through locally relevant projects." [9]

With the UN Sustainable Development Goals established in 2015 and growing social pressure for companies to adopt environmentally sustainable practices, more companies across various industries publicly committed to the goal of being water positive by 2030 to 2050.

The surge in commitment to this initiative occurred after 2015, when Microsoft, Google, Ecolab, Unilever, Nestlé, AB InBev, Levi's, IKEA, Cargill, BP, Gap Inc., Colgate-Palmolive, Meta, Diageo, Starbucks, Danone, IBM, Procter & Gamble, Intel and Mars proposed drastic reductions in their operational water consumption, offsetting consumption by implementing strategies such as rainwater harvesting systems, water purification, reforestation projects, and aquifer recharge, among other initiatives, focusing on improving water-stressed basins. [10]

On August 7, 2023, Canada Ocean Racing, an offshore sailing team competing in the IMOCA Globe Series), named its new team "Be Water Positive". [11]  The team partnered with Alex Thomson Racing, which managed British solo sailor Alex Thomson’s five Vendée Globe campaigns over the past[ when? ] 20 years. Canada Ocean Racing's goal was to be the first Canadian team to complete the Vendée Globe and build awareness of water positivity. [12]

Strategies

The main strategies applied by companies and entities were presented at the United Nations Conference on Water held in New York City in 2023. [13] It is assumed that by systematically following these guidelines and with long-term commitments, various companies have set goals to be water positive within 10 to 15 years. The strategies are:

Compensation

The water positive concept, through water purification using unconventional resources, was presented for the first time during the opening ceremony at the IDA 2022 World Congress during the “Charting Resilient Water Solutions” opening ceremony. [14] . The initiative was presented by IDA Vice President at that time, Alejandro Sturniolo.

The objective of water footprint compensation is to achieve a positive impact on global water resources. This is done by collaborating with various stakeholders to implement water purification systems in areas of scarcity, thus increasing the local supply. A more balanced trade in virtual water footprint, which is the water used to produce traded goods and services between regions, is also promoted.

Regulating this virtual water trade can improve the global efficiency of water use. Regions with abundant water resources could compensate part of the water footprint from regions with high water stress, thus helping to alleviate their dependence on virtual water imports. This two-pronged approach of increasing local supply and balancing trade between regions represents a comprehensive management of global water resources that only these decentralized treatments allow in a way similar to the carbon offset market.

The Water Benefit Standard

The Water Benefit Standard launched in 2014, was the first globally consistent standard that certified the positive socio-economic impacts of water projects. The principles and safeguards from this standard have been embedded into the broader framework of the Gold Standard registry for Water Benefit Certificates. This ensures that any project that may have implications on water quality or access, actively manages any risks. [15]

Related Research Articles

<span class="mw-page-title-main">Aquifer</span> Underground layer of water-bearing permeable rock

An aquifer is an underground layer of water-bearing material, consisting of permeable or fractured rock, or of unconsolidated materials. Aquifers vary greatly in their characteristics. The study of water flow in aquifers and the characterization of aquifers is called hydrogeology. Related terms include aquitard, which is a bed of low permeability along an aquifer, and aquiclude, which is a solid, impermeable area underlying or overlying an aquifer, the pressure of which could lead to the formation of a confined aquifer. The classification of aquifers is as follows: Saturated versus unsaturated; aquifers versus aquitards; confined versus unconfined; isotropic versus anisotropic; porous, karst, or fractured; transboundary aquifer.

<span class="mw-page-title-main">Resource depletion</span> Depletion of natural organic and inorganic resources

Resource depletion is the consumption of a resource faster than it can be replenished. Natural resources are commonly divided between renewable resources and non-renewable resources. The use of either of these forms of resources beyond their rate of replacement is considered to be resource depletion. The value of a resource is a direct result of its availability in nature and the cost of extracting the resource. The more a resource is depleted the more the value of the resource increases. There are several types of resource depletion, including but not limited to: mining for fossil fuels and minerals, deforestation, pollution or contamination of resources, wetland and ecosystem degradation, soil erosion, overconsumption, aquifer depletion, and the excessive or unnecessary use of resources. Resource depletion is most commonly used in reference to farming, fishing, mining, water usage, and the consumption of fossil fuels. Depletion of wildlife populations is called defaunation.

<span class="mw-page-title-main">Groundwater</span> Water located beneath the ground surface

Groundwater is the water present beneath Earth's surface in rock and soil pore spaces and in the fractures of rock formations. About 30 percent of all readily available fresh water in the world is groundwater. A unit of rock or an unconsolidated deposit is called an aquifer when it can yield a usable quantity of water. The depth at which soil pore spaces or fractures and voids in rock become completely saturated with water is called the water table. Groundwater is recharged from the surface; it may discharge from the surface naturally at springs and seeps, and can form oases or wetlands. Groundwater is also often withdrawn for agricultural, municipal, and industrial use by constructing and operating extraction wells. The study of the distribution and movement of groundwater is hydrogeology, also called groundwater hydrology.

The phrase sustainable industries is related to the development of industrial processes in a sustainable way. The phrase refers to greening of energy intensive industries such as the textiles, steel, cement, and paper industries.

<span class="mw-page-title-main">Water supply network</span> System of engineered hydrologic and hydraulic components providing water

A water supply network or water supply system is a system of engineered hydrologic and hydraulic components that provide water supply. A water supply system typically includes the following:

  1. A drainage basin
  2. A raw water collection point where the water accumulates, such as a lake, a river, or groundwater from an underground aquifer. Raw water may be transferred using uncovered ground-level aqueducts, covered tunnels, or underground water pipes to water purification facilities.
  3. Water purification facilities. Treated water is transferred using water pipes.
  4. Water storage facilities such as reservoirs, water tanks, or water towers. Smaller water systems may store the water in cisterns or pressure vessels. Tall buildings may also need to store water locally in pressure vessels in order for the water to reach the upper floors.
  5. Additional water pressurizing components such as pumping stations may need to be situated at the outlet of underground or aboveground reservoirs or cisterns.
  6. A pipe network for distribution of water to consumers and other usage points
  7. Connections to the sewers are generally found downstream of the water consumers, but the sewer system is considered to be a separate system, rather than part of the water supply system.
<span class="mw-page-title-main">Environmental technology</span> Technical and technological processes for protection of the environment

Environmental technology (envirotech) is the use of engineering and technological approaches to understand and address issues that affect the environment with the aim of fostering environmental improvement. It involves the application of science and technology in the process of addressing environmental challenges through environmental conservation and the mitigation of human impact to the environment.

<span class="mw-page-title-main">Sustainable urban infrastructure</span>

Sustainable urban infrastructure expands on the concept of urban infrastructure by adding the sustainability element with the expectation of improved and more resilient urban development. In the construction and physical and organizational structures that enable cities to function, sustainability also aims to meet the needs of the present generation without compromising the capabilities of the future generations.

Eco commerce is a business, investment, and technology-development model that employs market-based solutions to balancing the world's energy needs and environmental integrity. Through the use of green trading and green finance, eco-commerce promotes the further development of "clean technologies" such as wind power, solar power, biomass, and hydropower.

<span class="mw-page-title-main">Overdrafting</span> Unsustainable extraction of groundwater

Overdrafting is the process of extracting groundwater beyond the equilibrium yield of an aquifer. Groundwater is one of the largest sources of fresh water and is found underground. The primary cause of groundwater depletion is the excessive pumping of groundwater up from underground aquifers. Insufficient recharge can lead to depletion, reducing the usefulness of the aquifer for humans. Depletion can also have impacts on the environment around the aquifer, such as soil compression and land subsidence, local climatic change, soil chemistry changes, and other deterioration of the local environment.

Design impact measures are measures used to qualify projects for various environmental rating systems and to guide both design and regulatory decisions from beginning to end. Some systems, like the greenhouse gas inventory, are required globally for all business decisions. Some are project-specific, like the LEED point rating system which is used only for its own ratings, and its qualifications do not correspond to much beyond physical measurements. Others like the Athena life-cycle impact assessment tool attempt to add up all the kinds of measurable impacts of all parts of a building throughout its life and are quite rigorous and complex.

<span class="mw-page-title-main">Water scarcity</span> Situation where there is a shortage of water

Water scarcity is the lack of fresh water resources to meet the standard water demand. There are two types of water scarcity. One is physical. The other is economic water scarcity. Physical water scarcity is where there is not enough water to meet all demands. This includes water needed for ecosystems to function. Regions with a desert climate often face physical water scarcity. Central Asia, West Asia, and North Africa are examples of arid areas. Economic water scarcity results from a lack of investment in infrastructure or technology to draw water from rivers, aquifers, or other water sources. It also results from weak human capacity to meet water demand. Many people in Sub-Saharan Africa are living with economic water scarcity.

Peak water is a concept that underlines the growing constraints on the availability, quality, and use of freshwater resources. Peak water was defined in 2010 by Peter Gleick and Meena Palaniappan. They distinguish between peak renewable, peak non-renewable, and peak ecological water to demonstrate the fact that although there is a vast amount of water on the planet, sustainably managed water is becoming scarce.

Slingshot is a water purification device created by inventor Dean Kamen. Powered by a Stirling engine running on a combustible fuel source, it claims to be able to produce drinking water from almost any source by means of vapor compression distillation, requires no filters, and can operate using cow dung as fuel.

Water resources are natural resources of water that are potentially useful for humans, for example as a source of drinking water supply or irrigation water. These resources can be either freshwater from natural sources, or water produced artificially from other sources, such as from reclaimed water (wastewater) or desalinated water (seawater). 97% of the water on Earth is salt water and only three percent is fresh water; slightly over two-thirds of this is frozen in glaciers and polar ice caps. The remaining unfrozen freshwater is found mainly as groundwater, with only a small fraction present above ground or in the air. Natural sources of fresh water include surface water, under river flow, groundwater and frozen water. People use water resources for agricultural, industrial and household activities.

<span class="mw-page-title-main">Sustainable engineering</span> Engineering discipline

Sustainable engineering is the process of designing or operating systems such that they use energy and resources sustainably, in other words, at a rate that does not compromise the natural environment, or the ability of future generations to meet their own needs.

<span class="mw-page-title-main">Water footprint</span> Extent of water use in relation to consumption by people

A water footprint shows the extent of water use in relation to consumption by people. The water footprint of an individual, community, or business is defined as the total volume of fresh water used to produce the goods and services consumed by the individual or community or produced by the business. Water use is measured in water volume consumed (evaporated) and/or polluted per unit of time. A water footprint can be calculated for any well-defined group of consumers or producers, for a single process or for any product or service.

<span class="mw-page-title-main">Micro-sustainability</span> Individual or small scale sustainability efforts

Micro-sustainability is the portion of sustainability centered around small scale environmental measures that ultimately affect the environment through a larger cumulative impact. Micro-sustainability centers on individual efforts, behavior modification, education and creating attitudinal changes, which result in an environmentally conscious individual. Micro-sustainability encourages sustainable changes through "change agents"—individuals who foster positive environmental action locally and inside their sphere of influence. Examples of micro-sustainability include recycling, power saving by turning off unused lights, programming thermostats for efficient use of energy, reducing water usage, changing commuting habits to use less fossil fuels or modifying buying habits to reduce consumption and waste. The emphasis of micro-sustainability is on an individual's actions, rather than organizational or institutional practices at the systemic level. These small local level actions have immediate community benefits if undertaken on a widespread scale and if imitated, they can have a cumulative broad impact.

Sustainable products are products either sustainably sourced, manufactured or processed and provide environmental, social, and economic benefits while protecting public health and the environment throughout their whole life cycle, from the extraction of raw materials to the final disposal.

Resource efficiency is the maximising of the supply of money, materials, staff, and other assets that can be drawn on by a person or organization in order to function effectively, with minimum wasted (natural) resource expenses. It means using the Earth's limited resources in a sustainable manner while minimising environmental impact. Natural resource efficiency is embedded into the work of initiatives like the United Nations Environment Programme (UNEP) and international strategies such as the European Union's "Green Deal".

<span class="mw-page-title-main">Sustainable Development Goal 12</span> 12th of 17 Sustainable Development Goals to ensure responsible consumption and production

Sustainable Development Goal 12, titled "responsible consumption and production", is one of the 17 Sustainable Development Goals established by the United Nations in 2015. The official wording of SDG 12 is "Ensure sustainable consumption and production patterns". SDG 12 is meant to ensure good use of resources, improve energy efficiency and sustainable infrastructure, provide access to basic services, create green and decent jobs, and ensure a better quality of life for all. SDG 12 has 11 targets to be achieved by at least 2030, and progress towards the targets is measured using 13 indicators.

References

  1. Loher, Nicole (2023-03-15). "What Does it Mean to Be 'Water Positive'?". Meta Sustainability. Retrieved 2023-11-27.
  2. "¿Qué es ser "water positive"? El nuevo objetivo de las grandes compañías". Hidrología Sostenible (in Spanish). 2022-05-10. Retrieved 2023-11-27.
  3. Schupak, Amanda (2021-10-14). "Corporations are pledging to be 'water positive'. What does that mean?". The Guardian. ISSN   0261-3077 . Retrieved 2023-11-27.
  4. "Water Resilience Coalition – Sign the business pledge to preserve the world's most water-stressed river basins" . Retrieved 2024-12-30.
  5. "ITC, Yes Bank, HCL, Infosys, ONGC. More and more businesses now realize there are long-term benefits in going green". India Today. 30 November 1999. Retrieved 2023-12-22.
  6. "Water Positive Think Tank". Water Positive. Retrieved 2024-11-15.
  7. "United Nations Water Conference 2023". United Nations Sustainable Development Goals. Retrieved 2024-11-15.
  8. "Mr. Daniele Strongone Profile". IDADESAL. Retrieved 2024-11-15.
  9. "The Coca-Cola Company Pledges to Replace the Water It Uses in Its Beverages and Their Production". www.csrwire.com (Press release). Retrieved 2023-12-22.
  10. "Water replenishment: Our learnings on the journey to water positive (microsoft.com)".
  11. "BE WATER POSITIVE". www.imoca.org. Retrieved 2024-03-14.
  12. "IDRA Announces Signing MOU with the Canada Ocean Racing Be Water Positive Team". Idadesal. 2023-07-19. Retrieved 2024-03-14.
  13. "Water Positive Initiative presented in the UN 2023 Water Conference held in New York on 2023" (PDF). sdgs.un.org.
  14. "IDRA 2022 World Congress "Charting Resilient Water Solutions" Opening Ceremony Featured Dignitaries and VIPs from Around the World". idadesal.org. October 13, 2022.
  15. "Water Benefits". Gold Standard. Retrieved 2024-06-23.