Hamro Gaun Eco Village

Hamro Gaun Eco Village represents a prototype for rural development that rejects the industrial-modernist paradigm of suburban sprawl in favor of a regenerative, place-based model. The village is designed as a metabolizing organism, where human habitation, food production, and waste management are inextricably linked through closed-loop systems. By marrying traditional vernacular wisdom with modern ecological planning, Hamro Gaun offers a blueprint for low-carbon, off-grid rural living that restores the soil, the climate, and the community.

Vernacular Architecture and Passive Design

The built environment of Hamro Gaun is rooted in regional materiality and climate-responsive planning. Rather than introducing high-embodied-carbon materials, the village utilizes mud, stone, and timber — materials that are locally available and have a negligible carbon footprint.

Thermal Mass: Thick mud walls provide significant thermal mass, regulating indoor temperatures by absorbing heat during the day and releasing it at night, naturally cooling the interiors in summer and retaining warmth in winter.
Courtyard Planning: Housing is organized around central courtyards that serve as microclimate regulators, providing shaded outdoor spaces, encouraging ventilation, and creating intimate social nodes.
Passive Ventilation: Rooflines and window placements are calculated to leverage prevailing winds, facilitating cross-ventilation and the stack effect to minimize the need for mechanical cooling.
Low-Impact Foundation: Structures sit on traditional stone plinths, minimizing excavation and preserving the natural drainage of the site.

Regenerative Agriculture and Food Forests

The village is not a residential enclave surrounded by monoculture; the village is the agricultural landscape. The food production system is based on permaculture principles that build soil health and biodiversity.

Food Forests: The village perimeter is defined by a multi-layered food forest — a long-term carbon sink and perennial food source that mimics a natural forest structure.
Permaculture Zones: The site is zoned by frequency of use, from high-touch kitchen gardens near the homes to low-intervention agroforestry and livestock pastures on the periphery.
Agroforestry and Livestock: Integrated livestock provide manure for soil fertility, while agroforestry systems produce fodder, fodder, and timber in a mutually beneficial cycle.

Circular Systems and Waste Management

Hamro Gaun operates on a circular economy model where every waste stream is a resource for another system. The village is designed as a self-contained metabolic unit.

Water Management: Rainwater is harvested from roofs and stored in underground cisterns. Greywater from kitchens and showers is filtered through constructed wetlands and reused for irrigation.
Waste-to-Resource: Food waste and agricultural residues are processed in on-site composting and biogas units, providing a renewable energy source for cooking and a nutrient-rich fertilizer for the food forest.
Decentralized Energy: The village is off-grid, supported by a distributed solar array and biogas generation, minimizing dependence on the centralized fossil-fuel grid.

Community Governance and Ecological Education

The project is fundamentally a social experiment in collective living. Hamro Gaun is built on land owned collectively by the community, with resources shared and governance based on ecological literacy and mutual aid.

Educational Center: A dedicated space serves as a hub for permaculture training, ecological skills, and community governance workshops.
Shared Infrastructure: Tools, vehicles, and processing equipment are held in common, reducing the need for individual ownership and fostering cooperation.

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