Building Resilient Farming Systems

Farmers in Timor Leste create terraced plots adjacent to a creek.
Farmers dig terraces on a demonstration plot, and mix grass, green tree leaves, and manure to make compost. The work is part of Mercy Corps’s M-RED program, which supports climate-sensitive agriculture design. The hillside will grow vanilla and other crops.
13 March 2025
Resilience Design in Smallholder Farming Systems: A Practical Approach to Strengthening Farmer Resilience to Shocks and Stresses (8.44 MB) Resilience Design in Smallholder Farming Systems Approach: Technical Checklist Guidance (1.77 MB) Resilience Design Farming Technical Checklist (260.59 KB) Resilience Design Facilitator’s Guide (5.05 MB) Resilience Design in Smallholder Farming Systems: Measurement Toolkit (1.26 MB) Resilience Design Agroecological Minimum Standards.pdf (1.91 MB)

Across the globe, many smallholder farmers rely on agricultural practices that deplete soil fertility, reduce biodiversity, and strain water supplies to sustain their families. As ecosystem functioning diminishes, farmers find themselves trapped in a cycle of declining productivity and growing vulnerability. These challenges are further intensified by more frequent and severe climate shocks, including erratic rainfall, prolonged droughts, and destructive floods. Such disruptions threaten food security and undermine traditional farming systems, particularly in regions with limited resources to adapt. Farmers need solutions that build a foundation of healthy soils, encourage reliable water access, and cultivate a resilient, diverse agroecosystem to break the cycle.

The Resilience Design in Smallholder Farming Systems (RD) Approach* strengthens the resilience of smallholder farmers and their farming systems through thoughtful farm design and agroecological best practices. By adopting a principle-based farm design process that works with their surrounding natural systems, farmers can restore and improve their agricultural land by building healthy, living soils to enhance productivity and reduce erosion; prioritizing water management to ensure water is accessible to crops/plants; and enhancing biodiversity to improve ecosystem functioning. With proper household and/or community planning and management, RD sites can provide high yields of nutrient-dense, seasonal fruits, vegetables, and non-edible crops—such as building materials or medicinal plants—throughout the year.

The approach can be scaled from the garden level (termed permagarden), through to the landscape level, depending on the need and context. Within crisis settings, our focus is on developing small permagardens that capture rainwater and greywater, recycle all available organic inputs, and emphasize a diverse range of quick growing vegetables to provide farmers with short-term nutrition and income returns and lay the foundation for longer-term resilience.

*Developed by Mercy Corps, Warren Brush, Thomas Cole and Brad Lancaster

Benefits of Resilience Design

Ecological—Enhanced natural resources and ecosystem services through:

  • Improved soil health  
  • Improved water availability
  • Increased biodiversity
  • Nutrient cycling and reused or diverted waste streams

Economic—Increased income stability through:

  • Diversified and intensified production
  • Reduced input costs through the use of local resources

Social—Strengthened skill sets, capacity, and confidence of household members through:

  • Design driven by and rooted in the knowledge, choices and aspirations of the farmers
  • Support for local innovators in becoming leaders
  • Building social capital through increased capacity to share food and knowledge

Nutritional—Enriched nutritional status through:

  • Increased access to a diverse and culturally appropriate diet throughout the year, especially during the dry or lean seasons
  • Improved nutritional content of food through increased nutrient uptake of plants

Energy—Improved energy efficiency through:

  • A design that reduces the time and energy needed to tend animals and crops