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The Magoda Project: Architecture Against Malaria

In rural Tanzania, a team of architects and scientists has proven that a building can save lives. The Magoda Project consists of eight prototype homes designed to fight malaria not with chemicals, but with geometry. By fusing traditional African methods with Asian typology, these "star homes" reduced indoor mosquito density by an astonishing 96%.

This is one of the most important architectural experiments of the decade. We often talk about "sustainable" design, but the Magoda Project defines sustainability in its rawest form: survival. Jakob Knudsen and his team have demonstrated that good architecture is a medical instrument. It proves that a slight shift in design, raising a floor, changing a wall material, can do the work of a thousand bed nets.


The Vision: Asian Logic, African Context

Sub-Saharan Africa faces a lethal paradox: to protect themselves from malaria, families sleep under bed nets. But in the stifling heat, these nets block airflow, making sleep unbearable. Many people end up sleeping outdoors or removing the nets, exposing themselves to deadly mosquitoes.


The Magoda Project sought to break this cycle by minimizing contact between people and disease vectors. The design team looked east for a solution. They integrated Asian architectural features, specifically the elevated floors and lightweight breathable walls of Thai and Malay vernacular, into the Tanzanian context.

The goal was simple but radical: create a house so cool and airy that sleeping under a net is comfortable, or better yet, create a house that keeps mosquitoes out entirely so the net isn't needed.


Tectonics: Bamboo, Mesh, and Shade

The project is a "living laboratory" of eight prototypes, testing different materials to see which performed best against the climate and the insects.


  • The Facades: The team moved away from the traditional solid mud or brick walls that trap heat. Instead, they experimented with permeable skins: Bamboo strips, Timber louvers, and agricultural Shade-nets. These materials allow the house to breathe while acting as a physical barrier to insects.

  • The Structure: The houses are light, single- or double-storey structures topped with corrugated iron roofs. Crucially, the eaves are left open but sealed with mosquito mesh, ensuring hot air can escape without letting pests in.

  • The Hybrid: The "Village Council House" (Phase II) combines these lessons into a double-storey civic building clad in bamboo and mesh, proving the system works for public infrastructure as well as housing.


The Living Building: Performance as Cure

The results of this architectural clinical trial were groundbreaking. By prioritizing ventilation, the Magoda homes achieved two critical performance metrics compared to traditional local dwellings:

  1. Thermal Comfort: The interiors remained on average 2.3°C cooler, drastically improving sleep quality.

  2. Disease Control: The double-storey prototypes reduced indoor mosquito density by 96%.

The design also moved cooking facilities outdoors to eliminate indoor smoke pollution, further improving respiratory health. It is a total reinvention of the rural home, turning it from a passive shelter into an active defense system.


Data Sheet

  • Project: The Magoda Project

  • Location: Magoda Village, Tanga, Tanzania

  • Architects/Team: Jakob Knudsen (Ingvartsen Architects), Lorenz von Seidlein, William N. Kisinza, Konstantin Ikonomidis, Emi Bryan, Salum Mshamu, Kiondo Mgumi

  • Project Type: Prototype Low-Cost Housing / Research

  • Area: 45 m² – 63 m² (per unit)

  • Key Materials: Bamboo, Shade-net, Timber Louvers, Corrugated Iron, Mosquito Mesh

  • Key Stat: 96% reduction in indoor mosquito density (Double-storey units)

Project Gallery

©2026  by African Architecture [Terrafriq]

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