OXMAN Grows Textile Colour Using Bacteria Instead Of Synthetic Dyes

Corporate Update

OXMAN Grows Textile Colour Using Bacteria Instead Of Synthetic Dyes

OXMAN is developing a new textile coloration method that replaces synthetic dyes with living bacterial pigmentation, allowing color to grow directly on fabric surfaces rather than being applied as a finishing process.

The research, part of its Vigils project, explores how pigmented bacteria can be cultivated on textiles so that color emerges through biological activity integrated into the material itself. Instead of treating dyeing as a separate industrial step, the studio reframes it as a process of growth embedded in fabrication.

The approach draws from natural systems where color is produced biologically—such as butterfly wings, flower petals, and animal patterns—rather than chemically applied.

Shift from dyes to living systems

The work extends founder Neri Oxman’s broader design philosophy, which positions biology as an active manufacturing partner. Earlier research at MIT Media Lab, including projects like Silk Pavilion and Aguahoja, explored how living organisms and biodegradable materials can participate in fabrication processes.

OXMAN now describes this direction as Nature-Centric Design, moving beyond biomimicry toward systems where biology directly contributes to material creation.

Textile industry impact

The project targets one of fashion’s most polluting stages: dyeing and finishing. The textile sector consumes an estimated 93 billion cubic meters of water annually and generates around 20% of global industrial wastewater, much of it linked to synthetic, petrochemical-based dyes.

By using bacterial pigmentation, OXMAN aims to reduce dependence on chemical dyeing processes and reimagine colour as part of a material’s lifecycle rather than an external treatment.

From experiment to manufacturing model

The research connects to OXMAN’s wider experimental platform O°, which integrates robotic fabrication, biodegradable polymers, and microbial systems to create materials designed to grow, function, and eventually decompose within a single ecological cycle.

Projects like Vespers III previously demonstrated bacteria-generated pigmentation in 3D-printed structures. Vigils extends this approach to textiles, testing whether living organisms can directly color fabric at scale.

A shift in how materials are made

Across its work, OXMAN is exploring a shift from industrial assembly to biological growth systems, using organisms such as bacteria, silkworms, and engineered microbes as active participants in production.

The studio’s latest textile research signals a broader ambition: to replace conventional dyeing and manufacturing with systems where materials are grown, not processed, and where color becomes a function of biology rather than chemistry.

The research connects to OXMAN’s wider experimental platform O°, which integrates robotic fabrication, biodegradable polymers, and microbial systems to create materials designed to grow, function, and eventually decompose within a single ecological cycle. Projects like Vespers III previously demonstrated bacteria-generated pigmentation in 3D-printed structures. Vigils extends this approach to textiles, testing whether living organisms can directly color fabric at scale.

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