Grown, not extracted. 
High-performance bio-materials from mycelium and seaweed.

MYCL (Mycotech Lab) transforms agricultural waste and seaweed biomass into carbon-sequestering materials by growing mushroom mycelium and extract seaweed into custom forms.

Grown not extracted

Mycelium and seaweed is cultivated in a using a fraction of the land, water, and chemicals of animal and synthetic leather 

Tunable by design

Customizable surface texture and form; the same platform yields supple sheets or rigid composite

Circular by default

Feedstock is agricultural by-product and seaweed biomass; the finished material is compostable and carbon-sequestering. 

Mylea™

flexible mycelium leather sheet; supple, durable, cruelty-free, compostable. For footwear, bags, accessories

How Mylea™ is Made ?

1. Feedstock

collect and prepare agricultural by-products as the growth substrate

2. Growing Incubation

mycelium colonizes the substrate in a controlled environment

3. Finish

harvest, treat, and apply the tunable surface texture; halt growth for a stable material

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57% CO₂ Lower Emission

From the latest LCA report, at the current pilot scale, 1 m² of Mylea™ has a Global Warming Potential (GWP) of 46.70 kg CO₂eq (ReCiPe 2016). It is 57% lower carbon emission than bovine leather 110 kg CO₂eq (Unido)

LCA Report

Biodegradable

After 45 days of testing using the ISO 14855-1:2012 protocol, Mylea™ demonstrated a biodegradation rate of 51.7%. Based on linear regression analysis, this material is projected to achieve complete biodegradation within 90-100 days.

Biodegradability Report

99% Lower Water Consumption

Mylea™ only consume 0.389 m³ during the growing and post treatment process

Certifications & Awards

Mylea™ sea

it's not plastic but fantastic. Extracting polysaccharide of  marine biomass to create aesthetic film material for bags, and accessories

How Mylea™ Sea is Made ?

1. Feedstock

Sustainable tropical seaweed-derived marine biomass as the foundation of our products

2. Extraction

Our biofilm starts with polysaccharides extracted from seaweed, which serve as the primary feedstock. 

3. Finish

biofilm is treated and  tested to make sure the flexibility, tear, tensile strength are met requirement

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High Flexibility

This material features exceptional flexibility, maintaining its integrity through over 100,000 cycles before failure.

High Elongation

Our material formulations are engineered for exceptional elasticity, with multiple compositions capable of achieving elongation rates between 40-100%. This high elongation capability ensures superior flexibility and resilience across diverse application requirements.

Water Repellency

Enhanced nano-textured surface design achieves superior water repellency with contact angles exceeding 90 degrees

Mycelium Composite

Mycelium composite grown through agri crop waste ; lightweight, fire-resistant, acoustic insulation, for interiors and architecture

How Mycelium Composite is Made ?

1. Feedstock

collect and prepare agricultural by-products as the growth substrate

2. Incubation + Casting

Mycelium substrate is molded into the desired form through a casting process.

3. Finish

Once fully dried, the material becomes sturdy and durable without requiring any adhesive. 

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High Compressive Strength

This material features exceptional flexibility, maintaining its integrity through over 100,000 cycles before failure.

Ultra-Low Thermal Conductivity

Our advanced materials feature outstanding thermal insulation properties with low thermal conductivity at 0.04 W/m·K.

Fire Resistance

Crafted without resin or adhesive, this material resists combustion and flame exposure.

Frequently asked questions

Mylea™

Is Mylea™ real leather? Is it vegan?

No animal is involved, and there is no PVC or heavy-metal tanning. Unlike synthetic "vegan leather," which is usually use plastic (PU/PVC) to mimic the texture, Mylea is largely bio-based and biodegradable. Option for PU coating is available to improve performance

Are the fungi used to grow these materials safe for humans and the environment?

Yes. MYCL uses non-pathogenic fungal strains — the same family of organisms behind edible mushrooms and fermented foods or medicine. In the finished material the fungal biomass is dried and stabilized, so the product is inert and safe to handle, wear, and install. No spores developed during the growing phase and finished process.

Are these materials genetically modified (GMO)?

No. Mylea and Mycelium Composite are made by cultivating naturally occurring fungal mycelium on agricultural substrate the material is grown, not genetically engineered

What does end-of-life look like — are they biodegradable?

After 45 days of testing using the ISO 14855-1:2012 protocol, Mylea™ demonstrated a biodegradation rate of 51.7%. Based on linear regression analysis, this material is projected to achieve complete biodegradation within 90-100 days.

Where do Mylea™'s raw materials come from?

Agricultural crop waste  low-value residues turned into a functional product. A key sourcing from farmer of Palm Oil Biomass (only RSPO Certified), Sugarcane, Rice Husk, Corn husk.

Does making these compete with food production?

No — the opposite. Mylea and Mycelium Composite are grown on agricultural crop waste, low-value residue that would otherwise be burned or discarded.

How much environmental impact does Mylea™ actually save?

Independently assessed, Mylea cuts global warming potential by about 48% versus synthetic leather — roughly 57 kg CO₂e/m² today versus 110 for synthetic, with a path toward 15 at full scale. Across a single 10,000 sqft production run, MYCL estimates around 7 million kg of CO₂ avoided from crop waste that would otherwise be burned, plus 2.5 tons of PU/PVC displaced.

Are these Mylea™ claims independently verified?

Yes. The Mylea life-cycle assessment was conducted with Indonesia's national research agency (BRIN) and published in a peer-reviewed journal, following ISO 14040/14044. 

Where is Mylea™ made? Does it support local communities?

Yes. MYCL eco-factory in Bandung Indonesia has created around 60+ new green jobs — half held by women — paying roughly 90% more than comparable local work. 

Mylea™ sea

What can Mylea Sea replace, and is it strong enough?

It replaces PVC sheets and films, and performs in the range of common bioplastics. Made from red seaweed (Eucheuma cottonii and Kappaphycus alvarezii), it has a mechanical strength of about 6.9  - 10 MPa and ~42% - 100% elongation, is cheap to produce even in small quantities, and manufactures quickly .

Is farming seaweed for this good for the ocean?

Yes. Seaweed absorbs roughly 40× more CO₂ during cultivation than a tree over the same area, needs no land, fresh water, or fertilizer, and provides income for coastal farming communities.

Are Mylea™ sea microplastic-free?

Yes — there is no fossil based plastic in them to shed as persistent microplastic.

Does making these compete with food production?

Mylea Sea uses farmed seaweed, which needs no land, fresh water, or fertilizer and doesn't displace food crops. 

Where do Mylea™'s raw materials come from?

Agricultural crop waste  low-value residues turned into a functional product. A key sourcing from farmer of Palm Oil Biomass (only RSPO Certified), Sugarcane, Rice Husk, Corn husk.

Does making these compete with food production?

No — the opposite. Mylea and Mycelium Composite are grown on agricultural crop waste, low-value residue that would otherwise be burned or discarded.

Mycelium Composite

Are the fungi used to grow these materials safe for humans and the environment?

Yes. MYCL uses non-pathogenic fungal strains — the same family of organisms behind edible mushrooms and fermented foods or medicine. In the finished material the fungal biomass is dried and stabilized, so the product is inert and safe to handle, wear, and install. No spores developed during the growing phase and finished process.

Are these materials genetically modified (GMO)?

No. Mylea and Mycelium Composite are made by cultivating naturally occurring fungal mycelium on agricultural substrate the material is grown, not genetically engineered

Is it fire-safe?

Yes — it achieves Class-0 fire performance without toxic flame retardants. It does not combust, produces no flaming droplets, takes far longer to ignite than polyurethane (PU) foam, and gives off far less toxic smoke. Fire behavior has been tested with independent labs including the University of Queensland and RMIT.