vision
- build durable, living structures using fully local, regenerative, biodegradable materials
- create a closed-loop, fully soil-safe architecture system able to rival industrial materials like polycarbonate
- but rooted in tropical agroforestry ecosystems
core material system
- cassava starch bioplastic (body)
- banana fiber reinforcement (strength)
- damar resin coating (waterproof and uv shield)
- volcanic clay slip (surface hardness and microbial resistance)
- optional beeswax overlay (flexibility in harsh conditions)
- alang-alang thatch (roofing top protection)
material properties
| feature | result |
|---|---|
| waterproofness | high (damar resin coating) |
| uv resistance | moderate-high (clay and shading) |
| mechanical strength | medium-high (fiber core) |
| lifespan | 8–12 years (upgradable to 15+ with maintenance) |
| biodegradability | full (soil-safe recycling) |
| transparency | semi-translucent (milky diffuse light) |
| repairability | easy (re-coating damar and slip patching) |
material production system
- manihot esculenta — starch source
- musa — fiber source
- shorea, agathis — resin source
- cocos nucifera — glycerin, oils
- trigona — beeswax
- volcanic clay from andosol — for surface treatments
- rainwater — for processing
architecture layering concept
(alang-alang thatch top shield)
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(bamboo batten framework)
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(air gap for ventilation)
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(bioplastic sheet — cassava starch + banana fiber core)
(damar resin hard coating + clay slip)
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(bamboo or light timber framing)
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(stilted raised stone or bamboo foundation)
maintenance protocol
| time | action |
|---|---|
| every 6 months | visual inspection, minor repairs |
| every 5 years | re-apply damar resin layer if needed |
| every 10 years | partial or full alang-alang rethatching |
| every 15–20 years | refresh bioplastic panels if necessary |
performance summary
- structures expected lifespan: 40–50+ years (core frame)
- bioplastic roofing elements lifespan: 8–12 years per cycle
- all components compostable or recyclable onsite
regenerative architecture model
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- grow materials within agroforest modules.
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- harvest and process materials with low energy techniques.
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- build modular, repairable, breathable structures. 4. maintain through light interventions.
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- recycle materials back into soil after full use cycle.
outcome
- zero toxic waste
- zero dependence on industrial supply chains
- self-renewing building material economy
- full integration with local ecosystem cycles
strategic advantages
| advantage | reason |
|---|---|
| full material sovereignty | independence from global supply lines |
| resilience to climate | breathable, flexible architecture that adjusts naturally |
| community empowerment | local labor and knowledge centered construction |
| ecological restoration | buildings that support forest health, not destroy it |
final philosophy
- build as forests build:
- growing structures from living networks,
- replacing decay with rebirth,
- merging architecture with ecology