Technology · Biochemistry & industrial biotech / Platform chemicals
Biosynthetic ethylene & bio-ethylene oxide
Producing the world's most ubiquitous petrochemical building block from renewable biomass and captured carbon.
1 · What it gives
Ethylene is the fundamental building block of the global petrochemical industry, traditionally produced via highly energy-intensive steam cracking of fossil naphtha or ethane. Biosynthetic ethylene and its critical derivative, bio-ethylene oxide (bio-EO), are instead produced primarily through the catalytic dehydration of renewable bioethanol. By providing an exact, chemically identical “drop-in” molecule, bio-ethylene allows the plastics, packaging, and surfactant industries to aggressively decarbonize their supply chains without re-engineering downstream manufacturing infrastructure. Global capacity is surging as FMCG brands mandate sustainable packaging.
The key directions of biosynthetic ethylene are:
- Bio-Polyethylene (Bio-PE): polymerizing bio-ethylene to create green plastics for packaging, saving up to 3 tons of CO2 per ton of plastic.
- Bio-Ethylene Oxide (Bio-EO): oxidizing bio-ethylene to produce green surfactants, glycols, and PET resins for the textile industry.
- Ethanol-to-Ethylene (EtE): optimizing the catalytic dehydration process to reach 99%+ conversion efficiency from 1G and 2G bioethanol.
- Gas Fermentation (Gas Fermentation): utilizing engineered microbes to convert industrial off-gases directly into ethanol or ethylene precursors.
Sectoral value chain#
[Feedstock] ──> [Fermentation] ──> [Dehydration] ──> [Polymerization]
│
(Platform Chemicals)
│
▼
[Consumer Goods] <─── [Manufacturing] <─────┘
Value chain levels#
| Level | Description | Key inputs/outputs |
|---|---|---|
| 1. Feedstock sourcing | Procuring sugarcane, corn, or industrial CO2 | In: Biomass, off-gas. Out: Raw sugars/gas. |
| 2. Ethanol production | Fermenting sugars or gases into bioethanol | In: Raw sugars/gas. Out: Bioethanol. |
| 3. Catalytic dehydration | Converting bioethanol into bio-ethylene | In: Bioethanol. Out: Bio-ethylene gas. |
| 4. Chemical derivatization | Oxidizing ethylene into bio-ethylene oxide | In: Bio-ethylene gas. Out: Bio-EO, MEG. |
| 5. Polymerization | Synthesizing green plastics and resins | In: Bio-ethylene, MEG. Out: Bio-PE, Bio-PET. |
| 6. Downstream manufacturing | Producing packaging and consumer products | In: Bio-PE, Bio-PET. Out: Consumer goods. |
Cross-cutting technologies of the sector:
- Alumina/Zeolite Catalysis: specialized solid acid catalysts that lower the activation energy required for ethanol dehydration.
- Microbial Gas Fermentation: deploying acetogenic bacteria in continuous bioreactors to metabolize CO2 and CO into ethanol.
- Mass Balance Accounting: strict traceability protocols required by REACH and ISCC to verify the renewable content of drop-in chemicals.
2 · What it replaces 6 · matched by industry
3 · How to implement 6 steps
- 1Feedstock preparationFeedstock & raw materialsFormulation & blendingMilling and hydrolyzing agricultural biomass (like sugarcane or corn) into fermentable sugars, or capturing industrial CO2 for gas fermentation.Who can do this step matched automaticallyIndia Glycols (NSE) India✓ ISO 9001 7,500 MT/ industrial scale“India Glycols Limited holds the distinction of being the only green petrochemical company of its kind and is the first and only in the world to have commercialized the production …”Avantium Netherlands✓ ISO 9001 pilot scale“Avantium develops and commercializes innovative technologies for the production of materials based on sustainable carbon feedstocks, i.e.”industrial scale“Recent updates highlight public communications on ethanol myths and the broader role of bio-based feedstocks in India.”GS Caltex South Korea180,000 tons industrial scale“Environmental and utility infrastructure: Wastewater recycling at Yeosu, with discharge standards at 50% of legal requirements; on-site cogeneration plant (100,000 kW) plus steam …”
- 2Bioethanol fermentationFermentation & cultivationInoculating the sugars or off-gases with industrial yeast or acetogenic bacteria in massive anaerobic bioreactors to produce fuel-grade bioethanol.Who can do this step matched automatically20 tons per day industrial scale“Beijing Shougang LanzaTech is a Chinese biomanufacturing company specializing in carbon capture, utilization, and storage (CCUS) by converting industrial waste gas into ethanol and …”✓ 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”✓ ISO 9001 500 m3“Technology: microbial fermentation with ~500 m3 fermentation capacity; 15+ patents; developed/upscaled probiotic production technologies.”Fermbox Bio India400 kilolitres industrial scale“Fermbox Bio is an active Bengaluru-based synthetic biology and precision fermentation company founded in 2022 by Subramani Ramachandrappa and Preeti Dharmagoudar.”✓ ISO 9001 75,000 tons industrial scale“Henan Jindan Lactic Acid Technology Co., Ltd.（金丹科技，SZ300829）研发、生产和销售L-乳酸及乳酸盐（乳酸钠、乳酸钙）等发酵产品，产品用于食品、饲料、生物降解材料（PLA等原料）、工业与医药等领域；公司采用现代微生物发酵技术，拥有自研菌种育种体系及乳酸制备、提纯等核心工艺，并具备国家级研发平台与多项专利。公 …”
- 3Catalytic dehydrationVaporizing the bioethanol and passing it over heated solid-acid zeolite catalysts in a high-temperature reactor to strip away water molecules.
- 4Product purificationPurification & downstreamScrubbing, compressing, and cryogenically distilling the resulting gas stream to achieve 99.9% polymer-grade bio-ethylene.Who can do this step matched automatically✓ ISO 9001 500 m3“Development of robust, scalable fermentation and downstream processing (production and recovery/yield optimization).”Alfa Laval Sweden✓ ISO 9001“Here we compare the three most common options: centrifugation, filtration and coalescence.”
- 5Downstream derivatizationPurification & downstreamFeeding the pure bio-ethylene into polymerization reactors to create Bio-PE, or oxidizing it over silver catalysts to produce Bio-Ethylene Oxide.Who can do this step matched automatically✓ ISO 9001 500 m3“Development of robust, scalable fermentation and downstream processing (production and recovery/yield optimization).”Alfa Laval Sweden✓ ISO 9001“Here we compare the three most common options: centrifugation, filtration and coalescence.”
- 6Commercial integrationShipping the green plastic pellets or bio-surfactants to FMCG manufacturers, utilizing ISCC PLUS mass-balance certification to claim carbon reduction.
4 · Who delivers
Matched suppliers (matched automatically)
| India Glycols (NSE) | India | Producer | active |
| LanzaTech | United States | Producer | active |
| Beijing Shougang LanzaTech | China | Services / consulting | active |
| Clariant | Switzerland | Distributor | active |
| Restrain | United Kingdom | Producer | active |
| Avantium | Netherlands | Producer | active |
| LG Chem | South Korea | Producer | active |
In the services and supply catalogue 2 · paid service
Contract manufacturing (CMO/CDMO/toll) · Upstream — fermentation & cell culture
Leading companies and institutes (from the brief)
| Company / Institute | Country | Key products / platforms | Tech features | Status 2026 |
|---|---|---|---|---|
| Braskem | 🇧🇷 Brazil | I’m green Bio-PE | Sugarcane ethanol-to-ethylene | commercial |
| Technip Energies | 🇫🇷 France | Hummingbird EtE | Proprietary dehydration catalysis | commercial |
| LanzaTech | 🇺🇸 USA | CarbonSmart ethanol | Gas fermentation to olefins | commercial |
| India Glycols | 🇮🇳 India | Bio-EO and MEG | Green surfactants and textiles | commercial |
| Dow | 🇺🇸 USA | Renewable plastics | Drop-in chemical integration | commercial |
| Sinopec | 🇨🇳 China | Bio-based chemicals | Mega-scale industrial integration | commercial |
5 · Rules & route to market
Route into Russia / EAEU: CHEM · Minpromtorg (registration) / Rospotrebnadzor (notification of new substances)
state registration ~10-15 working days after expert assessment; new substances need notification
Information, not legal advice — confirm the procedure for your product. (2026-10-06)
state registration ~10-15 working days after expert assessment; new substances need notification
Information, not legal advice — confirm the procedure for your product. (2026-10-06)
United States
The US leverages its massive corn ethanol infrastructure and cutting-edge biotech ecosystem to pioneer alternative ethylene pathways.
corn ethanol leverage, gas fermentation, corporate off-take#
- LanzaTech Innovation: scaling commercial gas fermentation plants that capture steel mill emissions to produce ethanol for bio-ethylene.
- Dow Chemical Partnerships: collaborating with global suppliers to integrate massive quantities of bio-PE into North American supply chains.
- Cemvita Factory: engineering specialized microbes to secrete ethylene directly from CO2 and water, bypassing the ethanol intermediate entirely.
European Union
The EU is the world’s most aggressive regulatory environment for petrochemical decarbonization, driving massive demand for bio-EO and bio-PE.
REACH compliance, bio-surfactants, technology licensing#
- Technip Energies (Hummingbird): licensing highly efficient, proprietary ethanol-to-ethylene (EtE) technology to global chemical producers.
- Clariant Sunliquid: advancing 2G cellulosic ethanol platforms to feed sustainable European chemical pipelines.
- EU Plastics Tax: imposing heavy financial penalties on non-recycled fossil packaging, heavily incentivizing the adoption of bio-based drop-in plastics.
China
China is heavily investing in coal-to-olefins alternatives, pushing bio-based platform chemicals to improve industrial self-sufficiency and hit carbon peak targets.
domestic substitution, mega-refineries, industrial symbiosis#
- Sinopec Mega-projects: integrating bio-ethylene production into massive state-owned petrochemical complexes to diversify away from imported oil.
- Biomass Mobilization: utilizing the nation’s vast agricultural residue (corn stover, wheat straw) as a second-generation (2G) cellulosic ethanol feedstock.
- Green Manufacturing Mandates: state directives forcing domestic packaging and textile sectors to adopt bio-PET and bio-PE.
6 · Money: tenders & grants
| Grant | Capacity Building Grants for Non-Land-Grant Colleges of Agriculture Program National Institute of Food and Agriculture · United States | Nov 10, 2026 25 days |
| Grant | Capacity building for extending product lifecycles through repair and refurbishment European Commission · EU | Sep 22, 2027 341 days |
| Grant | Carbon farming innovation and scale-up European Commission · EU | Sep 23, 2027 342 days |
| Grant | Improving biomass flows for a sustainable and circular bioeconomy European Commission · EU | Sep 22, 2027 341 days |
7 · Tech stack & innovations
Producing bio-ethylene requires massive chemical engineering scale and highly stable catalytic processes.
- Catalytic Dehydration (EtE):
- The endothermic dehydration of ethanol (C2H5OH → C2H4 + H2O) occurs in fluidized or fixed-bed reactors at 300–500°C.
- Advanced zeolite and synergistic alumina catalysts ensure >99% ethylene selectivity, preventing the formation of diethyl ether byproducts.
- Direct Microbial Synthesis:
- Emerging synthetic biology approaches utilize engineered cyanobacteria or E. coli containing an ethylene-forming enzyme (EFE).
- Allows microbes to convert CO2 and sunlight directly into ethylene gas, which bubbles out of the bioreactor for continuous collection.
- Ethylene Oxide (EO) Synthesis:
- Bio-ethylene is subjected to direct oxidation over a silver-based catalyst at 250°C.
- Bio-EO is highly reactive and explosive, requiring complex, tightly controlled micro-channel reactors before being converted to stable glycols.
Sources 8 · 0 independent · 8 producer sites
Producers' own sites 8
- Braskem producer checked 2026-05-19 · link not kept
- Dow producer checked 2026-06-11 · link not kept
- Lanzatech producer checked 2026-05-25 · link not kept
- Clariant producer checked 2026-06-22 · link not kept
- Technip energies producer checked 2026-06-16 · link not kept
- India glycols producer checked 2026-06-19 · link not kept
- Sinopec producer checked 2026-06-24 · link not kept
- Cemvita producer checked 2026-06-08 · link not kept