HyphaTex

Our technology

Biology connects the fibers. Engineering creates the material.

HyphaTex combines recovered textile fibers, regional natural materials, controlled mycelium growth, and engineered processing to develop panel products for interior construction.

The material system

A material platform built from three systems.

Recovered Fibers

Textile waste provides a diverse fiber resource that can be recovered and reformulated rather than sent directly to disposal.

Regional Natural Materials

Date-palm residues and other suitable natural fibers can provide locally relevant structure, texture, and material diversity.

Mycelium

Mycelial growth creates a network through prepared fibers and contributes to formation of the composite.

Process

From feedstock to panel.

01

Feedstock Selection

Textile and natural-fiber streams are assessed for composition, cleanliness, size, and suitability.

02

Fiber Preparation

Materials are sorted, cleaned where necessary, reduced to controlled dimensions, and blended.

03

Formulation

Fiber ratios, moisture, nutrients, mineral additives, and inoculation conditions are adjusted.

04

Biological Growth

The material is formed and incubated under controlled environmental and contamination-management conditions.

05

Drying and Pressing

Growth is stopped through drying. The composite may remain lightweight or undergo controlled pressing.

06

Finishing and Testing

Panels are cut, sanded, treated, coated, laminated, or machined as required before validation.

Confidential formulations and process parameters are not disclosed.

Product pathways

Two formats. Different performance targets.

Lightweight Biofabricated Panels

Low-density formats preserve more of the porous composite structure and are being developed primarily for acoustic and insulation-related applications.

Pressed Composite Boards

Higher-density formats use controlled pressing and finishing to target improved strength, surface quality, dimensional stability, and compatibility with interior board applications.

Why mycelium?

An enabling biology inside an engineering system.

Fiber Integration

The network grows through and around prepared fibers.

Low-Temperature Formation

The biological phase takes place under comparatively mild processing conditions.

Formulation Flexibility

The system can be adjusted across different fiber combinations and product densities.

Circular Design Potential

The platform is being developed around recovered feedstocks and reduced dependence on conventional synthetic resin systems.

Development priorities

Performance validation guides the next stage.

Current development priorities include fire behaviour, acoustic absorption, thermal conductivity, flexural and compressive properties, moisture resistance, dimensional stability, surface finishing, durability, manufacturability, and certification readiness.

Testing

Standardized test methods will be used to establish defensible performance claims.

Process Consistency

Formulation and manufacturing controls are being refined for repeatable panel quality.

Scale-Up

Pilot work will inform equipment, throughput, quality, and partner requirements.