- Introduction
- Global Market Potential
- Key Drivers of Market
- Major Producers
- Technology Providers
- Leading Innovators
- Production Processes
- Global Feedstock Options and Availability
- New technologies and Innovations
- End use Application
- Emerging and Future Opportunities
- Key Challenges
- Strategic Industry Initiatives
- Future Outlook
- Conclusion
Introduction
Bio-isoprene (2-methyl-1,3-butadiene) is a renewable platform chemical produced from biomass-derived sugars and other renewable carbon sources through microbial fermentation and synthetic biology, offering a sustainable alternative to petroleum-derived isoprene. Conventionally manufactured as a by-product of naphtha cracking in the petrochemical industry, isoprene is an essential monomer for the production of synthetic rubber, polyisoprene, butyl rubber, styrene-isoprene-styrene (SIS) elastomers, adhesives, medical products, and specialty chemicals.
Commercial bio-isoprene production primarily relies on engineered microorganisms, including Escherichia coli and Saccharomyces cerevisiae, which convert renewable feedstocks such as glucose, sucrose, sugarcane-derived sugars, corn sugars, and lignocellulosic sugars into isoprene through advanced metabolic engineering, synthetic biology, and precision fermentation. Significant research is also focused on utilizing waste biomass, glycerol, and carbon dioxide-derived feedstocks to further improve sustainability and reduce production costs.
Growing demand for sustainable tires, bio-based elastomers, renewable chemicals, and low-carbon manufacturing is accelerating interest in bio-isoprene. Major tire manufacturers and chemical companies are investing in renewable isoprene to reduce dependence on fossil feedstocks while supporting corporate decarbonization, circular economy initiatives, and global net-zero commitments.
Global Market Potential
Parameter |
Details |
|
Current Market Size |
USD 174-200 million(bio-isoprene segment) |
|
Market Size (2030) |
USD 300–400 million (projected) |
|
Projected Market Size (2035) |
USD 720-830 million, driven by increasing adoption in sustainable rubber, elastomers, and specialty chemicals |
|
Expected CAGR (2025–2035) |
8.5% – 14.2% |
|
Production Volume |
5,000-10,000 tonnes per year |
|
Major Producing Regions |
North America, Europe, Japan, Brazil, and China |
|
Primary End-Use Industries |
Synthetic rubber, tire manufacturing, adhesives, sealants, healthcare products, industrial elastomers, specialty chemicals, and fragrances |
|
Largest Future Growth Segment |
Bio-based synthetic rubber, particularly polyisoprene and styrene-isoprene-styrene (SIS) elastomers for tires, automotive components, and medical applications |
Current Market Size
The global bio-based isoprene market is estimated to be valued at approximately USD 174-200 million in 2025. While the overall isoprene market is dominated by petrochemical production, bio-based isoprene is gaining attention as a sustainable alternative due to increasing demand for renewable synthetic rubber, bio-based elastomers, sustainable aviation materials, and specialty chemicals. Commercial deployment remains limited but is steadily expanding through investments in industrial biotechnology and precision fermentation.
Forecast (2030 & 2035)
The market is projected to reach USD 300–400 million by 2030 and USD 720 –830 million by 2035, driven by increasing adoption in synthetic rubber, tire manufacturing, adhesives, medical materials, specialty polymers, and bio-based chemicals. Growing investments in renewable feedstocks, fermentation technologies, and low-carbon manufacturing are expected to accelerate commercialization and significantly expand production capacity over the next decade.
CAGR
The global bio-based isoprene market is expected to grow at a compound annual growth rate (CAGR) of approximately 35–42% between 2025 and 2035. Growth will be supported by rising demand for renewable elastomers, sustainable rubber products, and bio-based platform chemicals, along with increasing corporate commitments toward decarbonization.
Production Volume
Global production of bio-based isoprene is currently estimated at less than 10,000 tonnes per year, with production concentrated in North America, Europe, Japan, and China through pilot and early commercial-scale facilities. As fermentation technologies mature and production costs decline, global manufacturing capacity is expected to increase substantially over the coming decade.
Demand Outlook
Demand for bio-based isoprene is expected to increase rapidly due to several long-term market drivers:
- Growing demand for renewable synthetic rubber in the tire and automotive industries.
- Increasing adoption of bio-based elastomers in footwear, medical devices, adhesives, and industrial products.
- Rising investments in industrial biotechnology and commercial-scale fermentation technologies.
- Expansion of renewable specialty chemicals and sustainable polymer value chains.
- Corporate and government initiatives supporting low-carbon manufacturing and circular bioeconomy.
- Increasing focus on reducing dependence on fossil-derived petrochemical feedstocks.
These trends position bio-based isoprene as one of the most promising renewable platform chemicals, with significant long-term opportunities across the rubber, polymer, automotive, healthcare, and specialty chemical industries.
Key Drivers of Bio isoprene Market
|
Driver |
Description |
|
Growing Demand for Sustainable Synthetic Rubber |
Bio-isoprene is a renewable alternative to petroleum-derived isoprene used in the production of polyisoprene rubber, butyl rubber, and styrene-isoprene-styrene (SIS) elastomers. Increasing demand for sustainable tires and elastomers is a major market driver. |
|
Automotive Industry Decarbonization |
Automotive manufacturers and tire companies are adopting bio-based materials to reduce lifecycle carbon emissions and meet sustainability targets, driving demand for renewable isoprene in tires, seals, hoses, belts, and other rubber components. |
|
Advancements in Synthetic Biology & Precision Fermentation |
Rapid progress in metabolic engineering, CRISPR, synthetic biology, and precision fermentation is improving bio-isoprene yields, lowering production costs, and accelerating commercialization. |
|
Corporate Net-Zero & Circular Economy Initiatives |
Chemical companies, tire manufacturers, and consumer goods companies are increasingly replacing fossil-derived raw materials with renewable carbon feedstocks to achieve ESG, net-zero, and circular economy goals. |
|
Expansion of High-Performance Elastomers & Specialty Applications |
Bio-isoprene is gaining interest for use in medical-grade polyisoprene, specialty adhesives, sealants, industrial elastomers, and high-performance polymers, expanding its market beyond traditional tire applications. |
Major Producers
|
Company |
Headquarters |
Overview |
|
Goodyear Tire & Rubber Company |
United States |
A pioneer in the development of bio-isoprene for sustainable tire manufacturing. Through collaborations in industrial biotechnology, the company has demonstrated renewable isoprene for high-performance tire applications. |
|
Michelin |
France |
One of the leading tire manufacturers investing in renewable elastomers and bio-based isoprene as part of its long-term sustainable materials strategy and carbon reduction initiatives. |
|
Bridgestone Corporation |
Japan |
Actively researching bio-based isoprene and renewable synthetic rubber to support sustainable tire production and reduce dependence on fossil-derived feedstocks. |
|
Amyris, Inc. |
United States |
A pioneer in precision fermentation and synthetic biology, Amyris developed engineered microbial platforms for producing bio-isoprene and other renewable hydrocarbons, demonstrating the commercial potential of fermentation-based isoprene. |
|
Genencor |
United States |
Developed one of the earliest commercial bio-isoprene technologies through advanced metabolic engineering. In collaboration with Goodyear, Genencor demonstrated large-scale microbial production of renewable isoprene for synthetic rubber applications. |
Technology Providers
|
Company |
Headquarters |
Technology / Expertise |
|
GEA Group |
Germany |
Provides industrial fermentation systems, bioreactors, downstream processing equipment, and process integration solutions for commercial bio-isoprene production. |
|
Technip Energies |
France |
Offers biorefinery engineering, process design, scale-up, and industrial plant integration for bio-based chemicals, including fermentation-derived hydrocarbons. |
|
Sulzer |
Switzerland |
Supplies separation, purification, distillation, solvent recovery, and downstream processing technologies for bio-based chemical manufacturing. |
|
Alfa Laval |
Sweden |
Delivers heat exchangers, membrane filtration, centrifuges, evaporation systems, and energy-efficient processing equipment for fermentation-based bioprocesses. |
Production Processes
Conventional Production
Conventionally, isoprene is produced as a by-product of naphtha steam cracking during the manufacture of ethylene and other petrochemicals. It can also be synthesized through catalytic dehydrogenation of isopentane or isoamylene. These petroleum-based routes dominate global production and supply the rubber, automotive, and chemical industries.
Bio-Based Production
Bio-isoprene is produced through microbial fermentation, where engineered microorganisms convert renewable carbon sources into isoprene via the methylerythritol phosphate (MEP) or mevalonate (MVA) metabolic pathways. Advances in synthetic biology, metabolic engineering, and precision fermentation have significantly improved microbial productivity, making fermentation the leading renewable production route.
Major Production Pathways
|
Production Pathway |
Description |
|
Sugar-Based Precision Fermentation |
The most widely researched route, where glucose, sucrose, molasses, or starch hydrolysates are fermented by engineered microorganisms to produce bio-isoprene. |
|
Lignocellulosic Biomass Fermentation |
Agricultural residues such as bagasse, corn stover, wheat straw, rice straw, and forestry residues are converted into fermentable sugars and subsequently fermented into isoprene, enabling second-generation production. |
|
Glycerol-Based Fermentation |
Crude glycerol from biodiesel production is utilized as an alternative carbon source by engineered microbial strains, improving feedstock flexibility and supporting circular bioeconomy models. |
|
CO₂ & C1 Biomanufacturing |
Emerging production pathways utilize engineered microorganisms capable of converting carbon dioxide, methanol, or formate into isoprene, offering the potential for carbon-neutral production. |
Key Microbes
|
Microorganism |
Role in Production |
|
Escherichia coli |
The most extensively engineered microbial host for bio-isoprene production due to its rapid growth, well-understood genetics, and ease of metabolic engineering. |
|
Saccharomyces cerevisiae |
Widely used industrial yeast engineered with the mevalonate (MVA) pathway for robust isoprene production and industrial-scale fermentation. |
|
Bacillus subtilis |
Explored as a Gram-positive microbial platform because of its high secretion capability and industrial robustness. |
|
Corynebacterium glutamicum |
Investigated as an alternative industrial chassis owing to its high carbon conversion efficiency and established use in large-scale fermentation. |
|
Synechocystis spp. / Cyanobacteria |
Photosynthetic microorganisms engineered to produce isoprene directly from CO₂ and sunlight, representing a promising long-term renewable production route. |
Key Feedstock Intermediates
|
Intermediate |
Role in Production |
|
Glucose |
Primary carbon source for engineered microbial fermentation. |
|
Sucrose |
Renewable sugar feedstock derived from sugarcane or sugar beet. |
|
Molasses |
Low-cost industrial feedstock widely used in fermentation processes. |
|
Lignocellulosic Sugars |
Derived from agricultural and forestry residues for second-generation bio-isoprene production. |
|
Crude Glycerol |
Biodiesel by-product investigated as an alternative renewable carbon source. |
Global Feedstock Options and Availability
|
Feedstock |
Description |
Global Availability & Key Regions |
Advantages |
Disadvantages |
|
Corn (Maize) Sugars |
Glucose obtained from corn starch is the most widely used carbon source for microbial bio-isoprene fermentation. |
Very High – United States, China, Brazil, Argentina, Mexico |
Well-established supply chain, high sugar yield, consistent quality, and mature industrial infrastructure. |
Competes with food and feed uses; susceptible to commodity price fluctuations. |
|
Sugarcane Sugars & Molasses |
Sugarcane juice and molasses provide fermentable sugars for bio-isoprene production through microbial fermentation. |
Very High – Brazil, India, Thailand, China, Pakistan |
Low-cost feedstock, renewable, high sugar content, and well suited for large-scale fermentation. |
Seasonal availability and dependence on sugar industry dynamics. |
|
Sugar Beet Sugars & Molasses |
Sugar beet-derived sugars serve as an alternative renewable carbon source, particularly in temperate regions. |
High – France, Germany, Russia, Poland, United States |
Strong availability in Europe, efficient sugar extraction, and established processing infrastructure. |
Seasonal harvesting and relatively limited availability outside temperate regions. |
|
Cassava Starch |
Cassava starch is hydrolyzed into glucose for microbial fermentation, particularly in Southeast Asia. |
High – Thailand, Vietnam, Indonesia, Nigeria |
Low production cost, abundant regional availability, and high starch content. |
Regional feedstock with variable supply depending on crop yields and weather conditions. |
|
Lignocellulosic Biomass |
Agricultural and forestry residues such as bagasse, corn stover, wheat straw, rice straw, and wood residues are converted into fermentable sugars for second-generation bio-isoprene production. |
Very High – Global |
Non-food feedstock, abundant, low-cost, reduces agricultural waste, and significantly lowers lifecycle carbon emissions. |
Requires expensive pretreatment and enzymatic hydrolysis; technology remains more complex than first-generation routes. |
|
Crude Glycerol |
By-product of biodiesel production used as an alternative renewable carbon source by engineered microorganisms. |
High – European Union, United States, Brazil, Indonesia, Malaysia |
Low-cost waste feedstock, supports circular economy, and improves biodiesel value chains. |
Requires engineered microbial strains and additional process optimization for efficient conversion. |
New Technologies & Innovations
|
Technology |
Description |
TRL Level |
Advantages |
Disadvantages |
Example |
|
Precision Fermentation for Bio-Isoprene |
Advanced metabolic engineering, CRISPR, and synthetic biology are used to engineer microorganisms such as E. coli and S. cerevisiae to produce bio-isoprene directly from renewable sugars via the MEP and MVA pathways. |
7–9 |
High selectivity, renewable feedstocks, lower greenhouse gas emissions, and compatibility with existing rubber manufacturing infrastructure. |
Fermentation productivity, isoprene recovery, and cost competitiveness remain key commercialization challenges. |
Goodyear and Genencor pioneered microbial bio-isoprene technology for sustainable rubber production. |
|
Lignocellulosic Biomass Biorefineries |
Second-generation biorefineries convert agricultural residues and forestry biomass into fermentable sugars for sustainable bio-isoprene production. |
6–8 |
Utilizes non-food biomass, reduces agricultural waste, lowers lifecycle carbon emissions, and improves feedstock sustainability. |
Biomass pretreatment and enzymatic hydrolysis increase process complexity and production costs. |
Demonstration biorefineries are integrating lignocellulosic sugar platforms with bio-isoprene fermentation. |
|
Continuous Fermentation & Smart Biomanufacturing |
Continuous fermentation integrated with advanced sensors, automation, digital twins, and real-time process analytics enhances bio-isoprene productivity and manufacturing efficiency. |
7–8 |
Higher productivity, improved process stability, reduced operating costs, and consistent product quality. |
Higher capital investment, more complex process control, and specialized operational expertise required. |
Next-generation biomanufacturing facilities are adopting continuous fermentation for renewable chemicals and bio-based monomers. |
End-Use Applications
|
Application |
Description |
Benefits |
Current Status |
Example |
|
Synthetic Rubber & Tires |
The largest application of bio-isoprene is the production of polyisoprene rubber, butyl rubber, and styrene-isoprene-styrene (SIS) elastomers used in passenger car, commercial vehicle, and aircraft tires. |
Renewable alternative to petroleum-derived isoprene, reduced carbon footprint, and compatibility with existing tire manufacturing processes. |
Largest and fastest-growing commercial application. |
Sustainable tires, automotive rubber components, industrial belts, hoses, and seals. |
|
Medical-Grade Polyisoprene |
Bio-isoprene is polymerized into synthetic polyisoprene for manufacturing medical and healthcare products. |
Latex-free, excellent elasticity, high purity, and reduced risk of allergic reactions compared to natural rubber latex. |
Rapidly growing due to increasing demand for high-quality medical materials. |
Surgical gloves, medical tubing, catheters, stoppers, and other medical devices. |
|
Adhesives, Sealants & Elastomers |
Used in the production of styrene-isoprene-styrene (SIS) block copolymers, pressure-sensitive adhesives, hot-melt adhesives, sealants, and industrial elastomers. |
Excellent flexibility, adhesion, durability, and renewable carbon content. |
Established application with growing demand for sustainable adhesive formulations. |
Packaging adhesives, hygiene products, tapes, labels, and construction sealants. |
|
Specialty Chemicals & Fine Chemicals |
Bio-isoprene serves as an intermediate for the synthesis of specialty chemicals, terpene derivatives, fragrances, flavors, solvents, and performance additives. |
Renewable feedstock, lower environmental impact, and versatile chemical building block. |
Emerging application with increasing industrial interest. |
Fragrance ingredients, specialty solvents, and high-value chemical intermediates. |
Emerging & Future Opportunities
|
Application Area |
Future Opportunity |
Description |
Example / Current Development |
|
Sustainable Tire Manufacturing |
Renewable Synthetic Rubber |
Bio-isoprene is expected to become a major renewable feedstock for polyisoprene, butyl rubber, and other synthetic elastomers, helping tire manufacturers reduce dependence on fossil-derived materials. |
Global tire manufacturers are investing in renewable rubber technologies to support carbon-neutral mobility. |
|
Electric Vehicle (EV) Components |
Lightweight & High-Performance Elastomers |
Bio-isoprene-derived elastomers can be used in battery seals, gaskets, hoses, vibration dampers, and flexible components for electric vehicles. |
Automotive suppliers are developing sustainable elastomers for next-generation EV platforms. |
|
Medical & Biomedical Products |
Advanced Healthcare Materials |
High-purity bio-isoprene will support the production of latex-free surgical gloves, catheters, implants, drug-delivery devices, and biomedical elastomers. |
Medical device manufacturers are increasing the use of synthetic polyisoprene for premium healthcare applications. |
|
Bio-Based Adhesives & Smart Materials |
High-Performance Functional Polymers |
Renewable isoprene will enable the development of next-generation adhesives, smart elastomers, flexible electronics, wearable devices, and responsive polymer systems. |
Materials companies are developing bio-based elastomers for electronics, consumer products, and industrial applications. |
|
Sustainable Aviation & Aerospace Materials |
Advanced Elastomers & Lightweight Components |
Bio-isoprene-derived polymers are being explored for high-performance aerospace seals, flexible components, specialty coatings, and lightweight composite materials. |
Aerospace companies are evaluating renewable elastomers to reduce lifecycle emissions. |
Key Challenges
1. High Production Cost
Bio-isoprene production remains more expensive than conventional petroleum-derived isoprene due to the costs associated with renewable feedstocks, microbial fermentation, downstream processing, and product recovery. Achieving cost competitiveness is essential for large-scale adoption.
Example: The price gap between bio-based and petrochemical isoprene remains a key barrier for widespread commercialization.
2. Low Fermentation Productivity & Microbial Performance
Although significant progress has been made in synthetic biology and metabolic engineering, engineered microorganisms still require improvements in isoprene yield, productivity, carbon conversion efficiency, and strain stability.
Example: Researchers continue optimizing engineered Escherichia coli and Saccharomyces cerevisiae strains to increase industrial productivity.
3. Volatile Product Recovery
Unlike many fermentation products, isoprene is highly volatile, requiring specialized gas capture, condensation, and purification systems during production. Efficient recovery remains one of the major engineering challenges.
Example: Advanced off-gas recovery technologies are needed to minimize product loss and improve overall process economics.
4. Feedstock Availability & Sustainability
Most commercial processes rely on corn sugars, sugarcane sugars, and other carbohydrate-rich feedstocks, which may compete with food production and are subject to seasonal availability and commodity price fluctuations.
Example: Expanding the use of lignocellulosic biomass and waste-derived feedstocks is essential for improving long-term sustainability.
5. Competition from Established Petrochemical Infrastructure
Petroleum-derived isoprene benefits from large-scale integrated production facilities, mature supply chains, and lower manufacturing costs. Bio-isoprene must demonstrate competitive economics, consistent quality, and reliable supply to gain broader market acceptance.
Example: Tire and chemical manufacturers require renewable isoprene that can seamlessly integrate into existing polymer manufacturing processes without compromising performance.
Strategic Industry Initiatives
Industrial Biotechnology & Chemical Companies
Commercialization of Bio-Isoprene through Precision Fermentation
Leading biotechnology companies are investing in precision fermentation, synthetic biology, and metabolic engineering to commercialize bio-isoprene as a renewable alternative to petroleum-derived isoprene. The focus is on improving microbial productivity, reducing production costs, and enabling large-scale manufacturing.
Example: Genencor and Amyris, Inc. have pioneered microbial bio-isoprene production using engineered microorganisms.
Location: United States
Development of Sustainable Rubber Value Chains
Global tire manufacturers are integrating bio-isoprene into renewable synthetic rubber supply chains to reduce carbon emissions and dependence on fossil-based feedstocks.
Example: Goodyear Tire & Rubber Company, Michelin, and Bridgestone Corporation are investing in sustainable elastomers and renewable rubber technologies.
Location: United States, France, Japan
Technology & Process Innovation
Lignocellulosic Biorefineries & Alternative Feedstocks
Organizations are investing in second-generation biorefineries that utilize agricultural residues, forestry biomass, crude glycerol, and industrial side streams to produce bio-isoprene while reducing dependence on food-based feedstocks.
Example: Demonstration biorefineries are integrating lignocellulosic sugar platforms with renewable hydrocarbon production.
Location: Global
Sustainable Manufacturing & Circular Economy
Renewable Carbon & Net-Zero Initiatives
Chemical manufacturers and downstream industries are adopting renewable carbon strategies by replacing fossil-derived isoprene with bio-based alternatives to achieve ESG, carbon neutrality, and circular economy goals.
Example: Tire, automotive, and specialty chemical companies are incorporating renewable monomers into long-term decarbonization strategies.
Location: Global
Expansion into High-Value Specialty Applications
Manufacturers are expanding bio-isoprene applications beyond tires into medical-grade polyisoprene, specialty elastomers, adhesives, aerospace materials, and advanced polymers, creating new high-value markets.
Example: Companies are developing premium renewable elastomers for healthcare and industrial applications.
Location: Global
Governments & Research Organizations
Support for Industrial Biotechnology & Renewable Chemicals
Governments are funding synthetic biology, renewable chemicals, precision fermentation, and advanced biomanufacturing through national bioeconomy programs to accelerate commercialization of bio-based platform chemicals.
Example: The U.S. Department of Energy supports research on renewable hydrocarbons, biomass conversion, and industrial biotechnology through its Bioenergy Technologies Office (BETO).
Location: United States
Research on CO₂-Based & Photosynthetic Production
Research institutions are developing engineered cyanobacteria, C1-utilizing microbes, and carbon capture-based fermentation technologies for direct production of bio-isoprene from CO₂, methanol, and formate.
Example: National Renewable Energy Laboratory, Joint BioEnergy Institute (JBEI), and Korea Research Institute of Bioscience and Biotechnology (KRIBB) are advancing next-generation renewable hydrocarbon technologies.
Location: United States, South Korea
Future Outlook
Technology Roadmap
The future of bio-isoprene production will be driven by precision fermentation, synthetic biology, metabolic engineering, continuous bioprocessing, and integrated biorefineries. Advances in high-performance microbial strains, gas recovery systems, and downstream purification technologies are expected to significantly improve production yields while reducing manufacturing costs. Future production will increasingly utilize lignocellulosic biomass, crude glycerol, agricultural residues, and CO₂-derived carbon sources, improving sustainability and feedstock flexibility.
Five-Year Outlook (2025–2030)
Over the next five years, bio-isoprene production is expected to expand as industrial biotechnology companies and tire manufacturers continue investing in renewable elastomers and sustainable rubber value chains. Commercial deployment will focus on supplying bio-based polyisoprene, butyl rubber, styrene-isoprene-styrene (SIS) elastomers, adhesives, and specialty polymers. Improvements in fermentation efficiency and process economics are expected to support broader market adoption, particularly in North America, Europe, Japan, and China.
Ten-Year Outlook (2030–2035)
By 2035, bio-isoprene is expected to become one of the leading renewable hydrocarbon platform chemicals, supported by commercial-scale biorefineries utilizing renewable sugars, lignocellulosic biomass, waste-derived feedstocks, and potentially CO₂-based production platforms. Adoption is expected to increase across synthetic rubber, tire manufacturing, automotive components, medical elastomers, aerospace materials, adhesives, and specialty chemicals, enabling substantial replacement of petroleum-derived isoprene.
Conclusion
Bio-isoprene is one of the most promising renewable hydrocarbon platform chemicals, providing a sustainable alternative to petroleum-derived isoprene for the production of synthetic rubber, polyisoprene, butyl rubber, styrene-isoprene-styrene (SIS) elastomers, adhesives, medical products, and specialty chemicals. Produced through precision fermentation using engineered microorganisms and renewable feedstocks such as glucose, sugarcane-derived sugars, lignocellulosic biomass, glycerol, and other bio-based carbon sources, bio-isoprene offers significant potential to reduce greenhouse gas emissions while supporting the transition toward renewable materials and circular manufacturing.
Although challenges remain, including high production costs, fermentation efficiency, volatile product recovery, feedstock optimization, and competition with established petrochemical production routes, continuous advances in synthetic biology, metabolic engineering, continuous bioprocessing, and integrated biorefineries are steadily improving commercial viability.
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