Pyrolysis Oil Market Size & Share Analysis - Growth Trends and Forecast (2027 - 2032)

Market Trends and Insights

Rising demand for renewable and circular fuel substitutes

Fuel substitution creates a demand opportunity when renewable liquids can enter an established fuel application. The International Energy Agency expects global renewable energy use in transport to rise 50% from 2024 to 2030, across electricity, liquid biofuels, biogases, and renewable hydrogen-based fuels. Road biofuels contribute 35% of that projected growth, with significant growth forecast in Brazil, Indonesia, India, and Malaysia. For biomass-oil producers, the liquid-fuel component of this transition creates a potential downstream route whose value depends on acceptance by a specific fuel process. Matching output to that route can establish a buyer for the liquid before a producer commits capital to expanding its dedicated supply.

Stricter plastic-waste regulations and bans worldwide

Packaging requirements can create a durable reason to secure circular feedstock beyond voluntary substitution commitments. The EU’s Packaging and Packaging Waste Regulation requires recycled plastic in new plastic packaging from 2030.^[1] Its phased application began on August 12, 2026, separating the broader framework from the later recycled-plastic requirement. For pyrolysis-oil suppliers targeting packaging chains, commercial value depends on buyers being able to count the resulting recycled plastic toward that obligation. This favors supply arrangements connecting oil conversion with qualifying packaging output rather than treating every outlet as equivalent. The intervening period gives oil producers a window to qualify a packaging conversion route before recycled content becomes compulsory in that application.

Rising chemical-recycling investment pipelines

Financed recycling projects can expand circular feedstock supply more credibly than uncommitted capacity announcements. By March 14, 2025, Xycle had secured equity and senior debt for its first commercial-scale Rotterdam plant, designed to process 21,000 metric tons of plastic waste annually. Dow participated as an equity investor and intended off-taker, connecting project finance with a prospective outlet for circular feedstock. On April 9, 2026, Xycle reported installation of 6 oil-storage tanks, with processing-hall and piping work continuing. These milestones support a supply pipeline whose commercial timing depends on completing an integrated facility. A buyer’s equity stake can link funding to a future outlet, while construction readiness determines when that relationship can support usable oil supply.

FCC / hydro-processing co-feeding can lower refinery CAPEX

Routing upgraded pyrolysis oil through an existing refinery gives it an established downstream outlet. Neste completed integration of its liquefied-waste-plastic upgrading facility at Porvoo, Finland, at the end of 2025 and commissioned it in March 2026.^[2] Liquefied waste plastic includes pyrolysis oil, and the upgraded product is co-processed with fossil products in the refinery. Production ramp-up began in 2026, with gradual progress dependent on market and legislative developments. This provides an operating example of integration around an existing refinery’s processing base, connecting recycled liquid preparation with downstream conversion. The oil’s route to market consequently depends on the refinery’s integration and ramp-up schedule.

Corrosivity and instability during storage/transport

Storage conditions can limit how flexibly a biomass-oil producer moves output between production and delivery. IEA Bioenergy reported in 2025 that strongly acidic pyrolysis oil from wood or straw cannot be stored for long periods above 25°C because reactions change properties such as viscosity. The limitation depends on feedstock and process quality, and some plants produce oil usable as fuel after several months of storage. This variation makes the supplied oil’s condition relevant to storage arrangements and shipment timing. A producer serving a distant fuel buyer may therefore face a tighter delivery window than reactor capacity alone suggests. Preserving a usable liquid between conversion and delivery can add handling costs and restrict scheduling flexibility.

High CAPEX and scale-up execution risk

Capital exposure can extend beyond initial construction when a failed production system needs both replacement equipment and fresh funding. Pryme N.V. decided in March 2026 to close Rotterdam’s Pryme One pyrolysis-oil plant indefinitely and stop research and development. The operator cited repeated reactor failures, the absence of a suitable replacement reactor, and inability to secure the necessary funding. This combination connects execution risk directly with financing, because technical recovery requires both a workable replacement and capital to deploy it. Pryme One’s indefinite closure leaves its intended oil supply unavailable, while any successor project would need a dependable reactor and committed funding before it could supply buyers.

*Our forecasts treat driver/restraint impacts as directional, not additive. The impact forecasts reflect baseline growth, mix effects, and variable interactions.

Pyrolysis Oil Market Segment Analysis

Waste plastics accounted for a 59.26% share of the pyrolysis oil market size in 2026 and are projected to record a 17.08% CAGR between 2027 and 2032. TotalEnergies started production at its Grandpuits chemical plastics recycling plant in France in March 2026, with capacity to process 15,000 metric tons of plastic waste annually. The plant converts hard-to-recycle French household plastics into synthetic oil through pyrolysis, connecting a defined waste stream with an operating conversion asset. A producer following this model would need collection-system partners as well as conversion equipment, tying expansion to access to household waste streams.

Waste-plastic oil reached Shell Chemicals Europe B.V. through Trifol Resources Limited’s first commercial shipment of approximately 50 metric tons from Tipperary, Ireland, in March 2025. The shipment formed part of an August 2024 supply agreement, with processing intended at Moerdijk, Netherlands. Waste tires supply BASF through Pyrum’s conversion of end-of-life and scrap tires into oil used with fossil feedstocks for butadiene and styrene, under the European tire-to-tire initiative launched July 22, 2026. At Hengelo, Netherlands, the pyrolysis plant formerly operated by Empyro BV, whose acquisition Aurora Renewable Carbon announced on August 1, 2025, converts clean wood-waste biomass into fast-pyrolysis bio-oil and also generates process steam and electricity for internal use and adjacent industrial operations. Chemical offtake can anchor plastic-oil commercialization, while biomass projects can combine oil production with an industrial site’s energy needs.

Fuels represented a 93.97% pyrolysis oil market share in 2026 and are forecast to grow at a 16.5% CAGR between 2027 and 2032. Petrobras and Riograndense Refinery completed a 7-day industrial-scale test in Rio Grande, Brazil, on February 17, 2025, co-processing 5% non-food biomass pyrolysis bio-oil with fossil feedstock. Riograndense operated the fluid catalytic cracking (FCC) unit, using Petrobras technology. The test produced fuel gas, LPG, and components for gasoline and marine fuel with renewable content. An oil supplier pursuing this route must reach a refinery able to convert the blended feedstock into saleable fuel fractions.

Chemicals offer a feedstock outlet centered on recycled polymer production, with a different downstream conversion chain from fuel applications. By June 11, 2025, INEOS Olefins & Polymers at Lavera, France, had received its first deliveries of pyrolysis oil from post-consumer plastic packaging waste that could not be mechanically recycled.^[3] The oil was intended for cracker production of ethylene and propylene, followed by conversion into recycled polyethylene and polypropylene. A polymer-directed supplier’s commercial reach depends on access to both cracker intake and resin conversion, because the intended output is recycled polymer rather than a refinery fuel fraction.

Geography Analysis

Europe Pyrolysis Oil Market

Europe held a 33.44% share of the pyrolysis oil market size in 2026, making it the largest region. In April 2026, Vitol reported that its WPU facility in Farevejle, Denmark, had capacity to recycle 20,000 metric tons of plastic waste annually, was operating close to full capacity, and supplied customers. WPU converts end-of-life plastics through batch pyrolysis into oil used as petrochemical feedstock for recycled-plastics production. European materials buyers thus have an operating regional supply route linking plastic-waste conversion with petrochemical use, allowing sourcing from established conversion rather than depending entirely on future plant commissioning.

Asia-Pacific Pyrolysis Oil Market

Asia-Pacific is the fastest-growing region, with a projected 18% CAGR between 2027 and 2032. Chemical Recycle Japan, an Idemitsu Kosan subsidiary, began commercial operation at its Ichihara oil-conversion facility in Chiba, Japan, on April 27, 2026, with capacity to process 20,000 metric tons of used plastics annually. The process uses the resulting recycled oil as raw material for chemical-recycling products, connecting used-plastics conversion with downstream chemical manufacturing. Expansion of this kind makes coordination between oil conversion and chemical processing central to growth, because new upstream capacity needs an outlet capable of using its liquid output.

North America has a refinery-delivery route illustrated by Freepoint Eco-Systems’ first rail-car loading of waste-plastic pyrolysis oil in 2025 for Shell USA’s Norco, Louisiana, refinery. Dispatch from Ohio connected a separate conversion facility with the intended refining recipient. In South America, Brazil’s Vallourec Florestal unit supplied non-food biomass bio-oil in 2025, made by condensing vapors from eucalyptus charcoal production. In Middle-East and Africa, Mandini Group reported in 2026 that its Johannesburg tire-pyrolysis facility had operated continuously for 12 years and produced oil, steel wire, and carbon char. Oil expansion around a rail-served refinery would prioritize delivery links, while a tire-recovery operation would need outlets for several recovered products.

Regulatory Framework and Outlook

The selected jurisdictions compare feedstock controls, material-use qualification, and fuel-pathway approval for pyrolysis-oil producers. Ratings use the perspective of a producer seeking compliant industrial outlets and flexibility in sourcing waste feedstock. A material-use end-of-waste route and a new-fuel pathway approval govern different commercial decisions, so their benefits depend on the intended oil outlet.

China’s established operating controls and waste-identification update effective March 1, 2026, support a middle assessment and continuity of core producer duties. Canada offers a conditional application route requiring verifiable data and consistent modeling, supporting a middle assessment with continuing approval obligations. France’s defined material-use pathway offers favorable access, while its qualifying contract, monitored oil quality, and emissions conditions support continuity in compliance requirements. Brazil’s low assessment reflects constraints on imported waste feedstock, with continuity based on the enacted restriction and its implemented import controls.

Value Chain Stages

The value chain compares oil conversion, bulk transport, and upgrading into chemical feedstock. Flux245 converts plastic waste into oil sold to refineries and petrochemical companies, while Ensyn produces biocrude from forest and agricultural residues. These pathways place the oil-sale opportunity at different feedstock interfaces, with transport and upgrading adding separate supplier activities after conversion.

Neste upgrades liquefied waste plastic, including pyrolysis oil, while its partners convert the resulting feedstock into polymers and chemicals. That division allows an oil supplier’s route to chemical customers to involve logistics and upgrading counterparties with distinct operating responsibilities. A converter can pursue oil-sale earnings without owning the polymer-production assets needed to reach the final materials customer.

Key Opportunities for Market Participants

The opportunities compare oil-supply offers shaped by downstream recycled-content qualification and receiving-plant requirements. EU bottle-content rules applicable from July 23, 2026, allow mass-balance accounting for chemically recycled post-consumer plastic subject to feasible chemical transformation. Attribution is facility-specific, uses accounting periods of at most 3 months, and cannot be transferred between facilities or companies. For oil producers, this makes the receiving plant’s conversion route central to an offer targeting qualifying recycled polymers.

The central opening is receiver-linked oil supply with an auditable attribution record. Qualification terms can connect input eligibility with the receiving plant’s documented conversion into eligible output. A multi-site buyer gains no attribution at one plant from qualifying input delivered to another, making site-matched supply the useful contracting unit.