Equality and Resilience of Agroecosystems through Smart water Management and USe Project (ERASMUS)

The Equality and Resilience of Agroecosystems through Smart water Management and USe (ERASMUS) project is a collaborative initiative aimed at improving climate-resilient agriculture and sustainable water use across vulnerable regions. Through international research and partnership, the project strengthens agroecosystem resilience by promoting smart water management, inclusive governance, and equitable resource access.

A central element of ERASMUS is the development of data-driven irrigation and water monitoring systems. These smart tools are designed to enhance water use efficiency, support adaptive decision-making at the farm level, and mitigate risks related to water scarcity and climate change—especially among smallholder farmers and underserved communities.

• Enhance the resilience of agroecosystems through sustainable and smart water management practices adapted to climate variability.
• Improve the capacity of farmers and local stakeholders to monitor, manage, and optimize water resources using data-driven tools and technologies.
• Promote inclusive and equitable water governance by strengthening institutional collaboration and ensuring access for smallholders and vulnerable groups.
• Support climate adaptation in agriculture through research-based policy recommendations and scalable solutions tailored to local contexts.

As a research and innovation partner in the ERASMUS Project, we contributed to advancing resilience and sustainability in agricultural water systems across Italy. Our work supported water utilities in understanding and operationalizing smart water management practices tailored to the challenges of climate adaptation.

At Harmoni, we apply a holistic and adaptive approach to sustainable water management in agriculture. We integrate technology, research, and stakeholder engagement to deliver long-term impact for climate-resilient agroecosystems.

We prioritize:

• Rigorous research and innovation by analyzing global best practices in smart water technologies and resilient distribution systems.
• Co-design with local utilities and institutions, ensuring solutions are context-specific, feasible, and inclusive.
• Capacity building and knowledge transfer to empower local stakeholders with the tools and data to adapt and thrive under climate pressures.
• Scalable water management models that support both immediate efficiency gains and long-term sustainability goals.

By aligning our technical expertise with local needs and international sustainability goals, we help transform traditional water management into a proactive, data-driven, and equitable system for the future of agriculture.

Our contributions have resulted in measurable progress toward building more resilient, efficient, and sustainable water distribution systems for agriculture.

Highlights of our impact include:

• Enhanced understanding of hydraulic system performance by researching and analyzing the operational behavior of key water distribution components.
• Developed evidence-based strategies through advanced modelling, numerical simulations, and experimental data to identify system inefficiencies and potential improvements.
• Led the implementation and field testing of smart water solutions, collaborating with utilities and stakeholders to pilot innovative approaches in real-world settings.
• Disseminated findings through peer-reviewed publications and technical reports, ensuring that our insights contribute to both academic research and practical water management policy.