Technology · Forestry & biomaterials / Wood & construction

Biocomposites & nanomaterials

Advanced bio-based structural and functional materials including mycelium composites, nanocellulose, and natural fiber reinforced polymers that replace fossil-derived plastics, fiberglass, and EPS foams.

Risk: low Construction US · EU · CN Science: why it works → verified · 6 Sources (0 independent)

1 · What it gives

Biocomposites and nanomaterials represent a rapidly growing segment at the intersection of the circular bioeconomy and advanced materials science. By utilizing renewable biomass such as bamboo, agricultural residues, mycelium, and forest products, the industry produces high-performance substitutes for plastics, metals, and fiberglass. Natural fiber composites (NFC) combine flax, hemp, or bamboo with polymer matrices to achieve high tensile strength (e.g., 150-200 MPa for laminated bamboo) suitable for automotive and construction applications. Meanwhile, nanocellulose (CNC/CNF) and mycelium-based foams offer unparalleled structural versatility, with mycelium matching expanded polystyrene (EPS) in thermal conductivity (0.04-0.06 W/mK) while being 100% compostable within 30 days.

The key directions of biocomposites and nanomaterials are:

Natural Fiber Composites (NFC): Polymers reinforced with flax, hemp, or bamboo for lightweight automotive and construction parts.
Nanocellulose (CNC/CNF): High-strength nano-scale cellulose used as a rheology modifier, barrier film, or reinforcement agent.
Mycelium Materials: Fungal root networks grown on agricultural waste to create compostable packaging and leather alternatives.
Bacterial Cellulose (BC): Ultra-pure cellulose synthesized by bacteria for biomedical wound dressings and acoustic membranes.

Sectoral value chain#

[Biomass harvesting] ──> [Primary processing] ──> [Biocatalysis & Extraction] ──> [Compounding]
                                  │
                          (Cascading biorefinery)
                                  │
                                  ▼
[End-of-life / Compost] <─── [Industrial Products] <─────┘

Value chain levels#

Level	Description	Key inputs/outputs
Biomass harvesting	Collection of forestry, agricultural, and bamboo biomass.	In: Raw biomass. Out: Sized feedstock.
Primary processing	Mechanical and chemical pulping or fractionation.	In: Sized feedstock. Out: Cellulose fibers / Substrate.
Biocatalysis & Extraction	Extraction of nanocellulose or inoculation with mycelium.	In: Substrate / Fibers. Out: CNF/CNC or Mycelium matrix.
Compounding	Mixing natural fibers or nanomaterials with bio-resins.	In: Processed bio-fibers. Out: Biocomposite pellets / prepregs.
Manufacturing	Molding, pressing, or 3D printing into final shapes.	In: Prepregs / Mycelium blocks. Out: Industrial components.
End-of-life	Biodegradation or thermal recycling of the composite.	In: Used components. Out: Compost / Energy.

Cross-cutting technologies of the sector:

Cascading biorefinery: Zero-waste extraction of valuable fractions before utilizing residues for energy.
Green chemistry: Replacing toxic solvents with benign or enzymatic processes.
Mycelium solid-state fermentation: Growing structural materials at room temperature without energy-intensive curing.

2 · What it replaces 3 · matched by industry

D2E2	Bio-based building insulation — wood-fibre boards, hemp and flax mats, cellulose, straw, hempcrete, mycelium panels — instead of polystyrene/polyurethane foams with brominated or chlorinated flame retardants and isocyanate spray foams Replaces: EPS/XPS polystyrene with HBCDD (historic) and polymeric brominated flame retardants; polyurethane/PIR foams with TCPP (chlorinated phosphate …	BUILD
D1E–	Formaldehyde-free wood-based panels (plywood, particleboard, MDF) with bio-based adhesives — soy-protein, lignin, tannin and other bio-adhesives — instead of urea-formaldehyde (UF), melamine-UF and phenol-formaldehyde resins Replaces: Urea-formaldehyde and melamine-urea-formaldehyde resins (most interior panels), phenol-formaldehyde (partly)	BUILD
D0E–	Self-healing bio-concrete and microbial repair mortars (bacteria producing limestone, microbially induced calcite precipitation, MICP) — instead of epoxy and polyurethane crack injection and some chemical sealants Replaces: Epoxy and polyurethane (isocyanate) crack-injection resins and coatings for concrete repair (partly); repeated repair cycles	BUILD

3 · How to implement 6 steps

1
Substrate preparationFormulation & blending
Agricultural byproducts like hemp hurd or wood chips are cleaned, chopped to a uniform particle size, and hydrated to provide an optimal nutritional base for fungal growth.
Who can do this step matched automatically
Advanced Enzyme Technologies (NSE) India
✓ ISO 9001 500 m3
“This is a satellite blending, mixing and formulation facility, located at Vashind near Shahapur and dedicated to the company’s Animal Nutrition business.”
India Glycols (NSE) India
✓ ISO 9001 7,500 MT/ industrial scale
“Recent expansions and new facilities across процесses: MEG production growth (up to 200,000 MTPA), EO purification, ethoxylate, sulphation, formulation plants, and …”
Rossari Biotech (NSE) India
✓ ISO 9001 industrial scale
“The company also announced a new greenfield blending facility in Thailand to boost Southeast Asia operations and smarter capacity utilization across its HPPC, TSC, and AHN …”
2
Pasteurization
The hydrated substrate is steam-pasteurized or mildly sterilized to eliminate competing bacteria and wild fungi, ensuring a sterile environment for the target mycelium strain.
3
Inoculation
The cooled substrate is inoculated with a pure liquid culture or grain spawn of specific fungal strains (e.g., Ganoderma lucidum) and thoroughly mixed in sterile conditions.
4
Mold incubationFermentation & cultivation
The inoculated mixture is packed into custom thermoformed molds and incubated in dark, climate-controlled vertical farming racks for 5 to 7 days, allowing the mycelial network to bind the particles.
Who can do this step matched automatically
Spiber Japan
✓ ISO 9001 industrial scale
“By harnessing the power of precision fermentation, Spiber engineers proteins at the molecular level, resulting in versatile materials that can be tailored to specific needs.”
Advanced Enzyme Technologies (NSE) India
✓ ISO 9001 500 m3
“Technology: microbial fermentation with ~500 m3 fermentation capacity; 15+ patents; developed/upscaled probiotic production technologies.”
Cathay Biotech 凯赛生物 (SSE 688065) China
✓ ISO 9001 115,000 tons industrial scale
“四大核心技术方向：微生物代谢途径与高效工程菌构建、代谢调控与高效转化、发酵体系分离纯化、聚合工艺及下游应用开发”
CHITOSE Japan
industrial scale
“AI x BIOMANUFACTURING”
OnDemandBio South Korea
industrial scale
“OnDemandBio is a South Korean deep-tech startup specializing in precision fermentation and synthetic biology to produce high-value biomaterials for the food, healthcare, and …”
5
Demolding & dryingPurification & downstream
The solidified, fully colonized parts are popped out of their molds and placed in low-temperature convection dryers to arrest the biological growth and remove residual moisture.
Who can do this step matched automatically
Advanced Enzyme Technologies (NSE) India
✓ ISO 9001 500 m3
“Development of robust, scalable fermentation and downstream processing (production and recovery/yield optimization).”
Algal Bio Japan
industrial scale
“・Equipped with comprehensive downstream processing capabilities (Concentration, sterilization, and drying)”
HLB Genex (ex-GenoFocus) South Korea
industrial scale
“With fungal and bacterial secretion systems, we custom produce the evolved enzyme products in large-scale fermentation and downstream processes.”
Tsukishima Kikai Japan
✓ ISO 9001
“Crystallization and refining: In-house developed DP Crystallizer and Oslo Crystallizer for tailored crystallization and refining processes; integrated purification units combining …”
6
Heat pressing
For structural or dense applications, the dried parts undergo thermal pressing at 100°C to permanently cross-link the chitin matrix, ensuring stability, fire resistance, and exact dimensional tolerances.

4 · Who delivers

Matched suppliers (matched automatically)

Ecovative	United States	Producer	active
Stora Enso	Finland	Research / RTO	active
Toray	Japan	Producer	active
NatureWorks	United States	Producer	active
UPM	Finland	Producer	active
Mycotech Lab (MYCL)	Indonesia	Producer	active

Listed suppliers

Ecovative · Stora Enso

In the services and supply catalogue 2 · paid service

Biopolymers & materials · Engineering, EPC & validation

Leading companies and institutes (from the brief)

Company / Institute	Country	Key products / platforms	Tech features	Status 2026
Ecovative	🇺🇸 USA	Mycelium packaging	AirMycelium solid-state fermentation	commercial
Bcomp	🇨🇭 Switzerland	ampliTex flax prepregs	High-performance natural fiber grids	commercial
Tecnaro	🇩🇪 Germany	Arboform liquid wood	Lignin and natural fiber compounding	commercial
MycoBio	🇨🇳 China	Mycelium foams	Ganoderma-based EPS replacements	commercial
SINOPOL	🇨🇳 China	Nanocellulose	TEMPO-oxidized NFC production	operating
Stora Enso	🇸🇪 Sweden	Celluforce NFC	Microfibrillated cellulose piloting	commercial

5 · Rules & route to market

Route into Russia / EAEU: BUILD · Ministry of Construction (Minstroy) / certification bodies
technical certificate within 10 working days under the 2022 special procedure, plus testing
Information, not legal advice — confirm the procedure for your product. (2026-10-06)

United States

The US leads in high-tech niches of biocomposites, particularly in 3D printing of bio-based housing and the commercialization of mycelium packaging and hemp-based building materials.

Mycelium commercialization, 3D printed housing, Hempcrete standards#

Mycelium leadership: Pioneers like Ecovative produce tons of AirMycelium weekly as a 100% compostable replacement for EPS packaging, dominating the sustainable e-commerce sector.
3D printed bio-homes: The University of Maine deployed the world’s largest 3D printer for BioHome3D, printing full-scale houses using wood residuals reinforced with nanocellulose.
Building codes: The 2024 International Residential Code (IRC) officially included “hemp-lime” (Hempcrete), legally opening the market for mass bio-based construction across 48 states.

European Union

The European Union leads the world in natural fiber composites for the automotive sector and nano-biomaterials, driven by strict decarbonization quotas (Fit for 55) and the REACH regulation.

Automotive lightweighting, Nanocellulose R&D, Circular design#

Flax & Hemp for mobility: German and French automakers (Porsche, Audi, BMW) are replacing fiberglass with flax/hemp composites, reducing EV weight and lowering carbon footprints by 40-60%.
Nanocellulose pioneers: Nordic companies (Stora Enso, UPM) lead in nanocellulose applications, piloting CNC/NFC for biodegradable packaging, coatings, and biomedical hydrogels.
Wind turbine recycling: Spanish consortia are deploying thermoplastic lignin-based composites for wind turbine blades to enable 100% recycling at the end of their 30-year lifespan.

China

China relies on its massive bamboo resources and industrial scale to dominate the production of structural biocomposites, nanocellulose, and bacterial cellulose.

Bamboo structures, Scale-up manufacturing, Export dominance#

Laminated bamboo: Widespread use of laminated veneer bamboo (LVB) with a bending strength of 160 MPa to build bridges and train carriages, acting as a direct replacement for steel.
Nanocellulose expansion: Rapid scaling of CNF and CNC production (over 8,000 tons/year) for flexible electronics and bio-plastics reinforcement.
Bacterial cellulose hubs: Hainan province leads global production of high-purity bacterial cellulose for biomedical dressings and acoustic membranes.

6 · Money: tenders & grants

Grant	Circular innovative advanced materials: facilitating the transition from design to markets (RIA) (Innovative … European Commission · EU	Feb 2, 2027 109 days
Grant	Increasing riparian and coastal areas resilience to climate change, including in waterfront cities and … European Commission · EU	Sep 21, 2027 340 days
Grant	Textile circularity through advanced processing and manufacturing technologies and system approaches (IA) … European Commission · EU	Feb 2, 2027 109 days

7 · Tech stack & innovations

The biocomposites stack relies on manipulating natural polymer structures at the nano- and macro-scale to achieve strength-to-weight ratios rivaling synthetic materials.

Nanocellulose Processing (CNC/CNF):
- Mechanical fibrillation or TEMPO-mediated oxidation produces CNF (3-50 nm diameter), while acid hydrolysis yields highly crystalline CNC (5-50 nm).
- These nanoparticles act as exceptional rheology modifiers and reinforcing agents, increasing the strength of PLA bioplastics by 30-50%.
Mycelium Solid-State Fermentation:
- Agricultural waste is inoculated with fungal strains (Ganoderma, Pleurotus) and grown for 5-7 days.
- The resulting chitin-glucan matrix is dried and heat-pressed to halt growth, forming a fire-resistant, insulating foam with a density of 18-80 kg/m³.
Bamboo Lamination and Compounding:
- Bamboo fibers are extracted and bonded with phenolic or bio-resins under high pressure, creating Laminated Veneer Bamboo (LVB) with a tensile strength exceeding pine by 3x.

Sources 6 · 0 independent · 6 producer sites

Producers' own sites 6

Ecovative producer checked 2025-07-11 · link not kept
Bcomp producer checked 2026-05-08 · link not kept
Tecnaro producer checked 2025-11-12 · link not kept
Mycobio producer checked 2026-06-25 · link not kept
Sinopol producer checked 2026-06-25 · link not kept
Stora enso producer checked 2025-07-14 · link not kept