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 0% synthetic chemicals
Peri-urban Self-sustaining Farm
A replicable model of food and technological sovereignty on 2.5 hectares. It integrates organic agriculture, automation with artificial intelligence, and low ecological footprint geodesic infrastructures.
📊 Traction Indicators (KPIs)
30% 💧 Reduction in water consumption
6-10 months ⏳ Biological delay before the first harvest
800-1,000 ml/year 🍯 Honey production per hive
$850,000-1,200,000 COP/ha 🐝 Assisted pollination B2B
Auditoría de Tracción:
📌 Status: 0% synthetic chemicals
🧪 Madurez (TRL): TRL 9 — Sistema real operando
📈 Achieved ROI: 22% anual
💰 Investment: $125,000,000
📸 Project Gallery
🔎
Floor view with adjustable anchors on a 15° slope
Render of the complete structural system with laminated wood platform
Network topology with ARM Edge Gateway, Redis cache, and webhook synchronization
Immersive view of the 2.5 ha land with subsystem locations
📖 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.
What I Still Don't Know
- The replication model is not published as a downloadable guide for other producers
- Rural connectivity remains the most challenging operational risk to mitigate without relying on external infrastructure
- The integration of data from the meliponary with Sostenty's ESG system for auditable metrics is under development
🎯 Objectives and Scope
Validate financial model of peri-urban farm with real ROI
Document 3+ years of operation with field data, not projections
Demonstrate viability of self-sustaining system without subsidies
Complete operation with B2B income (honey, pollination) and reduction of OPEX through water and energy efficiency
Publish replication guide for producers in the Ambalá-Calambeo corridor
Standardize the model as a downloadable resource with tools, costs, and lessons learned
Integrate verifiable impact metrics for ESG investors
Connection of data flow with Sostenty reporting system
📌 Critical Assumptions
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Rural connectivity (<5 Mbps) remains the most challenging operational risk to mitigate without relying on external infrastructure
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The biological delay of 6-10 months before the first honey harvest impacts cash flow in the first two years
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The mandatory retention rate of 25-40% of unharvestable honey is essential for the colony's survival during dry seasons
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5-15% biological stress rate due to relocation of hives for commercial pollination services
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Hass avocado producers may use pesticides even if they declare otherwise — 180-day quarantines are budgeted
🚀 Action Plan and Phases
1
Research and Design
⏱️ 6 months 📦 Deliverables:
Financial model, 3D modeling of the dome, IoT network prototype (n8n + sensors), structural platform design
2
Acquisition and Deployment
⏱️ 12 months 📦 Deliverables:
Pilot plot, crop preparation, 3.2 kW solar system, 40,000 L/year water collection, 18 ESP32 nodes
3
Operation and data collection
⏱️ 24+ months (ongoing) 📦 Deliverables:
Continuous field data, validation of 22% ROI, calibration of Iwagé PRO, ESG impact metrics
4
Scalability and Transfer
⏱️ Next 📦 Deliverables:
Open-source replication guide, educational hub, standardized tools and costs for corridor producers
💰 Cost-Benefit Analysis
🔴 Costs
CAPEX — complete infrastructure (2.5 ha) $125,000,000 COP
Geodesic dome, structural platform, 3.2 kW solar system, 18 ESP32 sensors, Edge Gateway, rain collection, 20 technified hives
Technified hive (Tetragonisca angustula) $150,000-200,000 COP each
Includes AF/INPA box, roofed house, and colony core
🟢 Benefits
Annual ROI of the project 22%
Documented with field data, incorporating biological delay and retention rate
Reduction in water consumption 30%
Measured by ESP32 sensors vs. conventional irrigation baseline, zero synthetic chemicals
Honey production per hive 800-1,000 ml/year
25-40% unharvestable (retention for colony survival during dry seasons)
Assisted pollination B2B $850,000-1,200,000 COP/ha
Services for passion fruit and Hass avocado, with a discount for biological stress of 5-15%
Rainwater collection capacity 40,000 L/year
Closed-loop system integrated into smart irrigation
💡
Analytical Insight
Automation + nature are not mutually exclusive. This project demonstrates that with 2.5 hectares, low-power IoT sensors, and a well-designed geodesic dome, a self-sufficient farm can operate with 30% less water and 0% synthetic chemicals. The key is not the technology alone, but solving the three engineering bottlenecks that most agroecological projects overlook: building on slopes without concrete, irrigating without a stable network, and harvesting honey without destroying the colony. <!-- RICH:content -->
🔧 Challenge Log: Problem Solving
💡 Click on any challenge to expand and learn about the action taken.
⚠️ Challenge 1: Land with natural slopes of up to 15° that prevented traditional concrete founda… ▾
The Challenge
Land with natural slopes of up to 15° that prevented traditional concrete foundations
✅ Resolution
Laminated wood structural platform supported by adjustable articulated anchors — reduces construction impact by 90% vs. concrete and preserves natural water drainage
⚠️ Challenge 2: Isolated electrical network for automated irrigation system with 18 sensors ▾
The Challenge
Isolated electrical network for automated irrigation system with 18 sensors
✅ Resolution
ESP32 in deep-sleep mode + latching solenoid valves that only require a 200 ms pulse to open/close — total consumption of 12W daily powered by a 3.2 kW solar panel
⚠️ Challenge 3: Unstable rural connectivity (<5 Mbps) for real-time remote monitoring ▾
The Challenge
Unstable rural connectivity (<5 Mbps) for real-time remote monitoring
✅ Resolution
Local ARM Edge Gateway with Redis cache — logs are buffered locally and synchronized in bulk via webhooks when the network is restored
⚠️ Challenge 4: Standard financial models assume constant yields from month 1 ignoring biologica… ▾
The Challenge
Standard financial models assume constant yields from month 1 ignoring biological cycles
✅ Resolution
Iwagé PRO introduces a biological delay of 6-10 months before the first harvest, mandatory retention rate of 25-40%, and stress rates due to relocation
⚠️ Challenge 5: Harvesting more honey than the colony can regenerate destroys the productive sys… ▾
The Challenge
Harvesting more honey than the colony can regenerate destroys the productive system
✅ Resolution
The model mandatorily discounts 25-40% of the production that is not harvested — reserve for the colony's nutrition during dry seasons in Ibagué
🌳 Digital Garden
The intellectual 'behind the scenes' of this project:
Blog
→ Por qué destruí mi portafolio para construir un "Ecosistema Vivo"
Blog
→ Bioarquitectura en pendiente y en plano
Blog
→ El domo geodésico: por qué la forma más eficiente de la naturaleza también es la más habitable
Blog
→ La bio-refinería doméstica: donde nada que sale se considera basura
Blog
→ Gestión hídrica de ciclo cerrado: el agua que se gana con hábitos
Blog
→ Granja peri-urbana: modelo financiero de un proyecto real
Blog
→ Sistema autosustentable Iwagé: mapa de un proyecto en construcción
Blog
→ Home Assistant y el gemelo digital de la granja
Blog
→ Sistema solar off-grid: sin red, con todo lo que necesitas
Blog
→