The ESG Institute’s Post

Sustainable Water Management Sustainable water management is a critical aspect of responsible farming practices. In agriculture, water is a precious resource that must be used efficiently to ensure long term environmental and economic sustainability. Sustainable water management involves strategies and practices that aim to conserve water, minimize waste, and protect water quality. One key aspect of sustainable water management is the implementation of efficient irrigation systems. By using technologies such as drip irrigation and precision watering techniques, farmers can deliver water directly to the roots of plants, reducing water loss through evaporation and runoff. This will not only conserves water but also ensures that crops receive the optimal amount of moisture for healthy growth. Another important component of sustainable water management is the conservation of natural water sources such as rivers, lakes, and aquifers. This can be achieved through measures such as watershed protection, wetland restoration, and reforestation, which help to maintain water quality and quantity for both agricultural and environmental purposes. Moreover, sustainable water management involves the treatment and recycling of agricultural wastewater. By capturing and treating wastewater from farms, nutrients and organic matter can be reclaimed for use as fertilizers or soil amendments, reducing the need for synthetic inputs and minimizing pollution of water bodies. Overall, sustainable water management is essential for the long term viability of agricultural systems. By implementing efficient irrigation practices, conserving natural water sources, and responsibly managing wastewater, farmers can ensure that water resources are protected and available for future generations. Found this helpful? Comment below or repost for others to see and learn. #sdgs #farming #livestock #agribusiness #agriculture #africa #sustainableagriculture #publicspeaker #realestate

Harnessing Ambient Humidity: A Sustainable Solution for Greenhouses In response to increasing drought conditions and the urgent need for sustainable agricultural practices, the Universitat Oberta de Catalunya (UOC) and Barcelona-based LENIUM have embarked on a groundbreaking research project. Funded by the Nuclis program, this initiative aims to design an irrigation system that captures and utilizes water from ambient humidity, significantly contributing to the […] https://lnkd.in/eM8TAeBf

Soil moisture retention is critical for several reasons, especially in agriculture and environmental conservation. Here's why it matters: 1. Water Conservation Efficient Water Use: Soil that retains moisture reduces the need for frequent irrigation, conserving water in regions where water scarcity is a concern. In areas practicing drip irrigation, better moisture retention ensures that crops receive the right amount of water without wastage. 2. Plant Growth and Yield Consistent Water Supply: Plants rely on soil moisture for nutrient absorption and photosynthesis. When soil retains moisture, it provides a steady supply of water to the plant roots, helping in better growth, higher yields, and healthier crops. 3. Soil Health Prevents Soil Degradation: Proper moisture retention helps maintain soil structure and prevents issues like erosion, compaction, and nutrient loss. It also supports the microbial life that is essential for nutrient cycling and organic matter breakdown. 4. Resilience to Climate Change Buffer Against Drought: Soils with good moisture retention act as a buffer during dry spells. This resilience is vital as unpredictable rainfall patterns and droughts become more frequent due to climate change. 5. Environmental Impact Reduces Runoff and Erosion: When soils retain moisture, the risk of water runoff and soil erosion decreases. This protects the land from degradation and minimizes the amount of sediment and pollutants that enter water bodies, contributing to a healthier environment. Soil moisture retention is essential for sustainable agriculture, environmental conservation, and water resource management. By improving soil's ability to hold water, farmers can increase crop productivity, conserve water, and protect the land from degradation.

Water conservation has become essential due to the growing population, rapid industrialization, and climate change. While traditional methods like rainwater harvesting, drip irrigation, and cultivating drought-resistant crops have been effective to some extent, new modern technologies like smart irrigation systems and greywater recycling leverage advancements in engineering, automation, and data analytics to optimize water usage and reduce wastage. Check out the link below to find out more. #waterconversation #watertechnologies  

Traditional preferences of farmers favouring water-intensive crops such as rice, wheat and sugarcane due to local agri-economics came at a cost: 80% of the country’s irrigation water covers only 40% of the farmed area.

Reviving Dried Springs in the Hills of Nepal In the picturesque hills of Nepal, the lifeline of many communities has long been the natural springs that dot the landscape. These springs provide essential water for drinking, irrigation, and livestock. However, in recent years, many of these springs have begun to dry up, posing a significant challenge to the local population. The Problem The drying of springs in Nepal’s mid-hills is a multifaceted issue. Factors such as climate change, deforestation, and changes in land use have all contributed to the reduction in groundwater levels. Additionally, traditional water management practices, like maintaining ponds for buffalo wallowing, have declined, further exacerbating the problem. The Solution Recognizing the urgent need to address this issue, various organizations, including the International Centre for Integrated Mountain Development (ICIMOD) and the Nepal Water Conservation Foundation (NWCF), have initiated projects aimed at reviving these vital water sources. One such project in the Kavre District has shown promising results. Methodology The approach to reviving the springs involves a combination of traditional knowledge and modern science. The key steps include: Mapping and Monitoring: Identifying and mapping the springs, and monitoring their water discharge levels throughout the year. Community Involvement: Engaging local communities in the process, ensuring they understand the importance of sustainable water use. Recharging Groundwater: Constructing ponds and other structures to capture monsoon runoff, allowing it to seep back into the ground and replenish the groundwater levels. Policy Advocacy: Working with local and national governments to implement policies that support sustainable water management practices Success Stories In Tinpiple, a village in Kavre District, the revival efforts have led to a significant improvement in water availability. The construction of ponds and the reintroduction of traditional water management practices have helped to recharge the groundwater, ensuring a more reliable water supply for the community Conclusion The revival of dried springs in Nepal’s hills is a testament to the power of community-driven initiatives and the importance of integrating traditional knowledge with modern science. As these efforts continue, they offer hope for a sustainable and water-secure future for the region.

Zero Water Consumption: A Sustainable Future. Did you know that adopting zero water consumption practices can make a huge difference in preserving our planet’s most precious resource? By reusing water, implementing smart irrigation systems, and optimizing water efficiency, we can significantly reduce our environmental impact. Let’s take small steps towards a more sustainable, water-conscious future!

Soil Conservation: The Key to Sustainable Farming and Healthy Ecosystems Soil is the bedrock of agriculture, providing essential nutrients, water, and support for plant growth. However, soil degradation and erosion pose serious threats to agricultural productivity and environmental health. Soil… >>> Read more

Water Stewardship Case Study with Agricola Chapi (Peru) As global retailers and consumers push for more sustainable practices, Worldwide Fruit Limited (WFL) is leading the charge with its commitment to water stewardship. In line with their Courtauld Commitments, WFL is highlighting the incredible efforts of their strategic suppliers, like Agricola Chapi, a family-owned Peruvian agro-exporter. For the past five years, Chapi has been supplying top-quality avocados from Peru's Ica Valley—a region facing significant water challenges. Despite these hurdles, Chapi has achieved over 99% water use efficiency by implementing advanced irrigation technologies, groundwater recharge initiatives, and adhering to international standards like AWS and LEAF certifications. Their dedication to sustainability goes beyond water management, with initiatives in biodiversity, habitat restoration, and integrated pest management.   Chapi also prioritizes the well-being of its workforce and the local community, providing access to safe drinking water, sanitation facilities, and health services. Their involvement in local projects to improve water access and environmental education underscores their commitment to both people and the planet. This case study showcases Chapi’s leadership in sustainable agriculture, proving that economic success, environmental stewardship and care for their employees can go hand-in-hand. Read the full case study here: https://lnkd.in/dfhfaiRi (Compiled by Blue North Sustainability)

DAY 18: Adopt Rainwater Harvesting System What is rainwater harvesting system? Rainwater harvesting is the collection and storage of rainwater from surfaces such as roofs and land, for later use. It is a sustainable method to capture and store rainwater that would otherwise run off and be lost. Rainwater harvesting systems typically include a collection surface (such as a roof), gutters or pipes to channel the water, a storage tank or cistern to store the collected water, and a filtration system to remove debris and impurities. The harvested rainwater can be used for various purposes such as irrigation, flushing toilets, washing clothes, and even for drinking water after proper treatment. This system is common in my home town at Edo State due to water scarcity. Some compounds like my grandparents' have two of such stytem installed, not only to conserve useable water, but also because it is not expensive to construct or install. This practice is also popular in places like, India, Australia, Singapore, Germany, Brazil, etc. Methods of harvesting rainwater include rooftop collection, gutters and downspouts, storage tanks, filtration, and distribution for various uses. It is very important to note that harvesting rainwater reduces reliance on traditional water sources, mitigating pressure on groundwater and surface water. It also reduces erosion and runoff, replenishes groundwater, and helps maintain local ecosystems by sustaining vegetation and wildlife habitats, contributing to overall environmental health and sustainability. Costs for rainwater harvesting include initial setup for collection systems, storage tanks, and filtration, but long-term savings are significant. Rainwater harvesting costs less upfront than digging a borehole, with lower maintenance costs and environmental impact, but may have limited storage capacity. With rainwater harvesting, we're turning rainy days into green days and ensuring a brighter, water-smart tomorrow. Let's make a splash and celebrate the liquid gold falling from the sky! Together in green greatness, Sustainably Yours #ECO30Impact #ECO30Champions