A "half-broken" piece of furniture or structure in your Airbnb costs 4× more in negative reviews than fixing it on time.
Design my structure → Sustainability & Territory Projected ROI: 18% per year
Peri-urban Self-sustaining Farm:
A replicable model of food and technological sovereignty on 2 hectares. It integrates organic agriculture, automation with artificial intelligence, and low ecological footprint geodesic infrastructures.
📊 Traction Indicators (KPIs)
30% 💧 Reduction in water consumption
40,000 L 🌧️ Rainwater collected per year
2.5 ha 🌳 Regenerated area under management
3.2 kWp ☀️ Installed solar capacity
Auditoría de Tracción:
📌 Status: Projected ROI: 18% per year
🧪 Madurez (TRL): 15
📈 Achieved ROI: 35
💰 Investment: $125.000.000
📖 Context and Results
The Vision and the Legacy
This project is the materialization of the three worlds in which I operate: Data, Territory, and Design. The goal is to create a small-scale model of life and production that is replicable, demonstrating that technological development can enhance nature rather than destroy it.
Project Phases
- Research and Design (Current Phase): 3D modeling of the space using geodesic domes, structuring the financial model, and creating the IoT network prototype (n8n + sensors) for irrigation automation.
- Acquisition and Deployment: Consolidation of the pilot plot, preparation of clean crops, and installation of solar energy and water collection infrastructure.
- Scalability and Transfer: Opening the model. Turning the farm into an open-source educational hub where other farmers and enthusiasts can replicate the ecosystem and adapt it to their territories.
Indicators and Value (For Investors)
- Resource Optimization: Automation reduces water usage by 30% through precision agriculture.
- Mitigated Risk: Decision-making supported by real-time analysis of climate and soil data.
- SDG Impact: Directly contributes to Food Security (SDG 2), Sustainable Cities (SDG 11), and Responsible Production and Consumption (SDG 12).
💡
Analytical Insight
Automation + nature are not incompatible. This project demonstrates that with 2.5 hectares, low-consumption IoT sensors, and a well-designed geodesic dome, a self-sufficient farm can operate with 30% less water and 0% synthetic chemicals.
🔧 Challenge Log: Problem Solving
💡 Click on any challenge to expand and learn about the action taken.
⚠️ Challenge 1: The terrain has an irregular slope that complicates the leveling of the geodesic… ▾
The Challenge
The terrain has an irregular slope that complicates the leveling of the geodesic infrastructure.
✅ Resolution
A laminated wood platform with adjustable anchors was designed to compensate for up to 15° of slope without requiring earth movement.
⚠️ Challenge 2: Internet connection in the rural area is intermittent (< 5 Mbps). ▾
The Challenge
Internet connection in the rural area is intermittent (< 5 Mbps).
✅ Resolution
A local edge gateway with Redis was implemented to buffer IoT sensor data and synchronize in batches when the connection is restored.
⚠️ Challenge 3: The automated irrigation system requires consuming less than 50W to operate with… ▾
The Challenge
The automated irrigation system requires consuming less than 50W to operate with solar panels.
✅ Resolution
It was decided to use ESP32 microcontrollers in deep-sleep mode + latching valves (0 consumption at rest), achieving an average consumption of 12W.
💬 External Validation
🏆 ✅ Proceso completado
"Trabajar con Camilo transformó mi negocio. La automatización de WhatsApp me recuperó ventas que ni sabía que estaba perdiendo. Altamente recomendado."
📍 Cliente de Soluciones Operativas
🌳 Digital Garden
The intellectual 'behind the scenes' of this project: