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Bacterial Cellulose

A designer’s inquiry into sustainable material expression through microbial biopolymers.

The Project Crux

Context & Research

Research & colours

Insights

Output (hands- on Inquiry)

Output

  • Material Origins

  • Microbial cultures (Komagataeibacter xylinus)

  • Pure, strong, moldable

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  • Symbiotic culture of bacteria & yeast (SCOBY)

  • Fermentation process (glucose → cellulose)

  • Water-based growth, low-energy process

  • Natural Dyeing Methods

  • Plant-based dyes (hibiscus, onion, pomegranate, eucalyptus)

  • Enzymatic coloring (laccase + flavonoids)

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  • Botanical extracts (indigo, madder root, turmeric)

  • Kitchen waste sources (avocado pits, onion skins)

  • Mineral mordants (alum, iron, copper for fixing)

  • Sun-assisted dyeing (solar dye baths)

  • Properties Retained

  • High tensile strength

  • Thermal & mechanical stability

  • Material as Living System → BC behaves like skin, responsive & adaptable.

  • Pigment as Narrative → Natural dyes embed cultural + ecological stories.

  • Circularity in Practice → Waste streams (kitchen scraps, plant residues) become resources.

  • Sustainability & Biocompatibility

  • Fully biodegradable & compostable

  • Eco-friendly alternative to synthetic textiles

  • Design Implications

  • Bio-textiles, vegan leather, fashion futures

  • Aligns with biodesign & eco-innovation

  • Tactile Aesthetics → Unique textures & translucency emerge from dye–material interaction.

  • Scalability Challenges → Growth time & fragility limit mass production.

  • ​In this exploration, bacterial cellulose becomes both canvas and content—its microbial purity, dye-compatibility, and ecological footprint converge into a material that is not just seen, but felt. Natural pigments amplify the narrative, while biodesign frames a future where textiles are living, ethical, and intelligent.

© 2020 Copyright by Diveja K. All rights reserved. 
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