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Archibiosis

Humans & Nature as Co-Creators

Explored plant-root biomaterials to prototype ecological architectural systems that grow, host life, and evolve over time.

Thesis Project · KU Leuven
Role: Design Research · Biomaterials Investigation · Systems Thinking 
Team: Hana Khurshid

Archibiosis explores plant root–based biomaterials as a means of creating eco-responsive architectural systems. The project reframes architecture as a relationship between humans and living systems, supporting ecological processes and non-human life within urban environments.

The work proposes a modular architectural prototype designed to reintroduce habitats displaced by urbanization. These structures aim to support biodiversity while contributing to improved air quality, environmental resilience, and human well-being. By prioritizing biodegradable materials and growth-based fabrication, the project positions architecture as an evolving ecological participant rather than a static object.

Form and geometry are informed by root growth patterns, using logics of expansion, entanglement, and adaptation to guide design decisions. Through this approach, Archibiosis frames architecture as a collaborative process in which human design and living systems build together over time.

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Concept: Architecture as a Holobiont

The project is grounded in the concept of the holobiont, a biological unit formed by a host and its associated organisms. Drawing inspiration from coral ecosystems, Archibiosis treats architecture as a structural host that enables layered ecological relationships to emerge over time.

This approach shifts design away from human-centered optimization toward multi-species performance, where growth, decay, and care are active components of the system rather than afterthoughts.

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Concept

Design System & Material Strategy

The architectural system is composed of modular units derived from naturally occurring geometries, enabling variation, porosity, and ecological specificity. Modules integrate:

  • Root-grown biomaterials supported by biodegradable scaffolds

  • Spaces for pollinators, birds, and soil organisms

  • Planters and compost systems that close local material loops

The system is designed to remain alive - continuously growing, decomposing, and regenerating - rather than fixed or static.

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Step by Step design process

Birds Module Detail

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Bees Module Detail

Butterfly Module Detail

Compost Module Detail

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Designing Process done on Grasshopper

Computational Framework

Parametric design methods were used to translate biological growth patterns into a flexible architectural framework. Natural logics such as fractals and Voronoi structures informed module geometry, enabling:

  • Functional gradation

  • Structural stability

  • Species-specific spatial variation

This computational approach allows the system to adapt across scales—from small urban interventions to façade systems and public infrastructure.

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Close up details of plant joinery

Ground Connection

Application & Impact

Archibiosis is envisioned as a scalable urban system that can be deployed as pavilions, façade elements, street furniture, or public infrastructure. By embedding ecological function into everyday spaces, the project proposes a new model of urban care; one where architecture actively supports biodiversity, air quality, and human well-being

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