Regenerative Agriculture

Regenerative Agriculture Overview

Vision

The Regenerative Agriculture project at Can Brull aims to implement ecological farming practices that heal and enhance the land while providing sustenance for the community. Going beyond sustainable practices, we focus on regeneration—actively improving soil health, increasing biodiversity, enhancing ecosystem services, and sequestering carbon through thoughtful cultivation and land management.

Key Components

Ecological Farming Practices

  • No-till cultivation methods
  • Cover cropping and mulching systems
  • Companion planting and polycultures
  • Integration of perennial food systems
  • Rotational grazing (future consideration)
  • Water harvesting and conservation

Permaculture Design

  • Implementation of permaculture zoning principles
  • Food forests and edible landscaping
  • Guild planting for mutually beneficial plant communities
  • Efficient energy and resource cycling
  • Integration with natural patterns and processes

Food Production

  • Diverse vegetables, fruits, herbs, and grains
  • Season extension techniques
  • Seed saving and preservation
  • Post-harvest handling and storage
  • Processing and preservation methods

Soil Building

  • On-site composting systems:
  • Three-bin system for hot composting
  • Specialized fungal-dominant compost for woody plants
  • In-place sheet composting for direct soil feeding
  • Biochar production and application
  • Remineralization strategies
  • Microbial inoculation techniques
  • Monitoring of soil health indicators

Water Management

  • Year-1 trial plan:
  • 0.5 ha mixed vegetables (successive plantings, regenerative methods)
  • 2 ha young orchard (citrus + apple + fig + cherry)
  • 400m² syntropic agroforestry pilot (forest integration)
  • Tech stack: Soil-moisture sensors + Regulated Deficit Irrigation (RDI)
  • Mid-term vision: 3 ha mature orchard, expanded vegetable production, 0.8 ha syntropic system
  • Water requirements:
  • Vegetables (0.5 ha): 2,900m³/year
  • Young orchard (2 ha): 2,700m³/year (50% of mature needs)
  • Syntropic pilot (400m²): 157.5m³/year (establishment phase)
  • Total agricultural water: 5,757.5m³/year
  • Peak demand: 80% (≈4,600m³) during Jun-Sep dry period
  • Water conservation technologies:
  • Soil-moisture-sensor scheduling: 10% water reduction
  • Regulated-deficit irrigation (RDI) on orchard: 20% reduction
  • Potential future: Sub-surface drip, PRD, sap-flow monitoring
  • Monitoring system: DIY sensor network with capacitive VWC probes
  • Storage infrastructure:
  • Primary: Natural Swimming Pond (418.5m³)
  • Secondary: Existing poly tank (50m³)
  • Source: Two wells (to be flow-tested)
  • Rainwater harvesting
  • Swales and berms for water retention
  • Keyline design for optimal water distribution
  • Grey water recycling (future consideration)

Integration with Other Projects

Specific Approaches

Traditional Annual Production

  • 0.5 ha dedicated to mixed vegetables using no-till methods
  • Emphasis on soil building and water conservation
  • Integration with composting system for fertility

Orchard Systems

  • 2 ha young orchard with mixed fruit varieties
  • Regulated deficit irrigation for water efficiency
  • Understory management for biodiversity support

Syntropic Agroforestry

  • 400m² pilot project within existing forest
  • Multi-layered, succession-based design
  • Focus on berries, nuts, perennial vegetables, and fungi
  • Planned expansion to 0.8 ha based on pilot results
  • See Syntropic Agroforestry Pilot Project for details

On-Site Composting

  • Comprehensive system for processing all organic materials
  • Multiple composting approaches for different end uses
  • Integration with both production systems and mushroom cultivation
  • See On-Site Composting System for details

Land Resources

Connection to Can Brull Vision

The Regenerative Agriculture project embodies the Can Brull philosophy by:

  • Supporting self-sufficiency and food sovereignty for the community
  • Demonstrating regenerative practices that heal rather than deplete resources
  • Creating opportunities for learning and collaboration
  • Establishing direct relationships between people and the land that sustains them
  • Building resilience through diversity and ecological design

Economic Considerations

  • Primary focus on community food production and self-sufficiency
  • Potential surplus for local markets or CSA programs
  • Value-added products from farm outputs
  • Educational programs and workshops
  • Integration with broader regional food systems

Current Status

  • Planning phase for Year-1 agricultural trial
  • Water infrastructure assessment in progress
  • Well testing needed to determine water capacity
  • Initial sensor and irrigation system design underway
  • Composting system site selection in process
  • Syntropic pilot site assessment beginning

Next Steps

  1. Complete 72-hour pump tests for both wells
  2. Stake out the 18×14m pond area and obtain excavation quotes
  3. Order and install flow meters for monitoring
  4. Build prototype sensor node for irrigation management
  5. Develop detailed planting plan for initial 0.5 ha vegetables
  6. Design irrigation system for 2 ha young orchard
  7. Begin forest assessment for syntropic pilot location
  8. Establish initial composting infrastructure
  9. Create seasonal planting calendar

See also: 00 - PROJECT OVERVIEW/Manifesto#Part Regenerative Agriculture & Self-Sufficiency|Manifesto - Regenerative Agriculture Section, 01 - PROPERTY/Land Resources/Arable Land|Arable Land, 01 - PROPERTY/Infrastructure/Water|Water Infrastructure, 03 - INFRASTRUCTURE PROJECTS/Natural Swimming Pond|Natural Swimming Pond, Syntropic Agroforestry Pilot Project, On-Site Composting System