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Market Definition
Sustainable Aviation Fuel (SAF) is a renewable, drop-in alternative to conventional fossil-based jet fuel (Jet-A or Jet A-1), designed to reduce the aviation sector’s carbon footprint. SAF is produced from sustainable feedstocks such as waste cooking oils, animal fats, municipal solid waste, forestry residues, agricultural by-products, and advanced synthetic processes (e.g., Power-to-Liquid using captured CO₂ and green hydrogen).
Unlike conventional biofuels, SAF is specifically developed to meet the stringent performance and safety standards of aviation fuel. It is chemically almost identical to fossil-based jet fuel, meaning it can be blended with conventional jet fuel (up to approved limits, usually 50%) and used in existing aircraft engines, fueling infrastructure, and supply chains without modifications.
Market Insights
The global Sustainable Aviation Fuel (SAF) market is witnessing rapid growth, driven by the aviation industry’s commitment to decarbonization and global net-zero targets. SAF is a bio-based and synthetic alternative to conventional jet fuel, capable of reducing lifecycle greenhouse gas emissions by up to 80% compared to fossil-based fuels.
The SAF market, though at a nascent stage, is expanding at a remarkable pace. According to Syllogist, global SAF production is expected to grow at a CAGR of more than 50% during 2025-2030. The surge in production is largely attributed to increasing investments, policy support, and airline commitments to long-term offtake agreements.
Currently, HEFA (Hydroprocessed Esters and Fatty Acids) is the leading production pathway due to its commercial readiness, cost-effectiveness, and high yield. Other emerging technologies include Fischer–Tropsch (FT) gasification, Alcohol-to-Jet (ATJ), and co-processing techniques, which are expected to gain traction as they mature and scale.
Commercial airlines account for the bulk of SAF consumption, representing over 55% of total demand in 2022. General and business aviation sectors are also adopting SAF, supported by international aviation emission reduction frameworks such as CORSIA (Carbon Offsetting and Reduction Scheme for International Aviation).
The aviation industry has been incorporating alternative fuels since 2011, and adoption has grown steadily over the past decade. To date, more than 440,000 commercial flights have operated using SAF. Momentum accelerated significantly in 2021, when companies signed a total of 23 offtake agreements, compared with just five agreements in 2020. The contracted offtake volumes also saw a sharp jump, rising from 415.64 million liters in 2020 to nearly 9.2 billion liters in 2021, reflecting strong industry commitment to scaling SAF adoption.
Market Dynamics: Drivers
Stringent Environmental Regulations and Net-Zero Commitments
Aviation accounts for nearly 2–3% of global CO₂ emissions, and demand for air travel is steadily increasing. This makes the industry a critical focus for decarbonization.
Governments and international organizations are enforcing carbon reduction targets, such as:
- CORSIA (Carbon Offsetting and Reduction Scheme for International Aviation) led by ICAO, which requires airlines to reduce or offset CO₂ emissions from international flights.
- The European Union’s ReFuelEU Aviation initiative, mandating a rising share of SAF blending (2% by 2025, 6% by 2030, 70% by 2050).
- The U.S. SAF Grand Challenge, aiming to produce 3 billion gallons per year by 2030 and achieve 100% SAF use by 2050.
Airlines are also voluntarily pledging to reach net-zero by 2050 (e.g., IATA members), which directly boosts SAF demand.
Corporate and Airline Demand (Offtake Agreements & ESG Goals)
Airlines, airports, and corporations are under pressure to reduce their Scope 3 emissions (indirect emissions from travel and supply chains). SAF provides one of the most effective solutions.
This has led to a surge in offtake agreements between airlines and fuel producers. For example:
- In 2021, global SAF offtake agreements reached 9.2 billion liters, compared to only 415 million liters in 2020.
- Major airlines like Delta, United, Lufthansa, and Emirates have signed multi-year SAF procurement contracts.
Corporate buyers like Amazon, Microsoft, and DHL are also partnering with fuel producers to lower their logistics-related emission
Market Dynamics: Challenges
High Production Costs and Limited Supply
SAF is currently 2–4 times more expensive than conventional jet fuel due to high feedstock costs, immature supply chains, and expensive production technologies.
Global SAF production in 2022 accounted for less than 0.1% of total aviation fuel demand (~300 million liters produced vs. ~300 billion liters required annually).
Without large-scale production facilities and continued cost reduction through innovation, airlines may struggle to integrate SAF economically without subsidies.
Feedstock Availability and Sustainability Concerns
Most commercial SAF today is produced via HEFA technology, which relies on waste lipids like used cooking oil (UCO) and animal fats. These feedstocks are limited and highly competed for by other sectors (e.g., biodiesel, chemicals).
Scaling SAF to meet global aviation demand will require diversifying feedstocks, including lignocellulosic biomass, municipal solid waste, and synthetic fuels (Power-to-Liquid).
There are also concerns around land use, food security, and biodiversity if SAF feedstocks are not sourced sustainably.
Market Segmentation
- Based on Feedstock, the Global Sustainable Aviation Fuel market is segmented into
- Waste Oils & Fats
- Biomass & Agricultural Residues
- Sugar & Starch Crops
- Algae-based feedstocks
- Municipal Solid Waste
- Green Hydrogen + Captured CO₂ (for synthetic e-SAF)
- Based on Technology, the Global Sustainable Aviation Fuel market is segmented into
- HEFA-SPK
- FT-SPK (Fischer-Tropsch Synthetic Paraffinic Kerosene)
- ATJ-SPK
- CHJ (Catalytic Hydro thermolysis Jet)
- HFS-SIP (Hydro processed Fermented Sugars to Synthetic Iso-Paraffins)
- PtL / e-SAF
- Based on End Users, the Global Sustainable Aviation Fuel market is segmented into
- Commercial Flights
- General Flights
- Military Aircrafts
- Unmaned Aerial Vehicles (UAV)
- Based on Type, the Global Sustainable Aviation Fuel market is segmented into
- Bio-SAF (based on bio-based feedstocks)
- Synthetic SAF (e-SAF / Power-to-Liquids) (produced using renewable hydrogen + captured CO₂)
- Blended SAF
- 100% SAF (long-term vision, still under trials)
- Based on Geography, the Global Sustainable Aviation Fuel market is segmented into
- Asia-Pacific
- North America
- Europe
- Latin America
- Middle East & Africa
- All market revenue has been given in US Dollar, while the market volumes are given in million tons.
Historical Year: 2020-2024
Base Year: 2025
Estimated: 2026
Forecast- 2027-2030
Key Questions this Study will Answer
- What are the key overall market statistics or market estimates (Market Overview, Market Size- By Value, Market Size-By Volume, Forecast Numbers, Market Segmentation, Market Shares) of Global Sustainable Aviation Fuel Market?
- What is the region wise industry size, growth drivers and challenges key market trends?
- What are the key innovations, opportunities, current and future trends and regulations in the Global Sustainable Aviation Fuel Market?
- Who are the key competitors, what are their key strength and weakness and how they perform in Global Sustainable Aviation Fuel Market based on competitive benchmarking matrix?
- What are the key results derived from the market surveys conducted during Global Sustainable Aviation Fuel Market study?
- Market Foundations & Dynamics
- Introduction
- Product Overview
- Research Methodology
- Executive Summary
- Market Dynamics (Drivers, Restraints, Opportunities, Challenges)
- Market Ecosystem
- SAF’s Role in Aviation Fuel Supply Chain Integration
- Digitalization in the Value Chain (AI, IoT, Blockchain, MRV Systems)
- Supply Chain Logistics for Feedstocks and SAF Distribution
- Stakeholders across the value chain:
- Feedstock Suppliers (waste fats, oils, residues, CO₂ sources)
- Technology Licensors & Refiners
- Distributors & Blenders
- Airlines & Corporate Buyers
- Mapping of roles and interdependencies
- Market Trends & Developments
- White Market Space Analysis
- Demand–Supply Gaps
- Investment Hotspots
- Unmet Needs
- Risk Assessment Framework
- Political/geopolitical risk
- Operational risk
- Environmental risk
- Financial risk
- ESG & Sustainability Dimensions
- Carbon Intensity Reduction via SAF Adoption
- ESG Compliance and Sustainable Financing
- Feedstock Sustainability Challenges & Innovations
- Circular Economy and Carbon Accounting
- Talent, Skills & Workforce Transformation
- Human Capital Challenges in SAF Industry Scale-up
- Reskilling Needs: Engineers, Chemists, Digital Specialists
- Safety, Regulatory Compliance, and Operational Training
- Introduction
- Policy, Regulations & Certifications
- Global Policy Landscape
- Introduction to SAF Policy Landscape
- Overview of SAF and Its Role in Decarbonizing Aviation
- Importance of Policies and Regulations for SAF Adoption
- Global Net-Zero Commitments and Aviation Sector Goals (ICAO, IATA, CORSIA)
- Global Regulatory Framework
- International Policy Frameworks
- International Civil Aviation Organization (ICAO): CORSIA Framework
- SAF Eligibility Criteria under CORSIA
- Lifecycle Emissions Standards
- Monitoring, Reporting & Verification (MRV)
- Role of IATA, UNFCCC, and Global Aviation Climate Goals
- Key International Agreements
- Regional & Country-Level Policies
- United States: SAF Policies, SAF Grand Challenge & Targets, Blending Mandates, IRA SAF Tax Credits (45Z, 40B), State-Level Incentives
- Canada: SAF Roadmap and Policy Updates
- Europe: ReFuelEU Aviation Mandate, RED II & RED III, Fit for 55 Package
- Europe Country-Level: France, Germany, Netherlands, UK SAF Mandates & Incentives
- China: SAF Pilot Programs and Policy Direction
- Japan: SAF Mandate for 10% by 2030
- Singapore, South Korea: SAF Incentives and Blending Targets
- India: Biofuel Policy & SAF Initiatives
- Middle East: UAE SAF Strategy, Saudi Arabia’s Vision 2030
- Africa: African Union Biofuel Policies and Aviation Sector Readiness
- Latin America: Brazil (RenovaBio Program), Mexico & Other Key Countries
- Policy Instruments & Certifications
- Blending Mandates (minimum % SAF in jet fuel)
- Tax Credits and Subsidies (PTC, Blending Credits)
- Carbon Pricing & Cap-and-Trade (EU ETS, California LCFS)
- R&D Grants and Funding Mechanisms
- Green Financing & Public-Private Partnerships
- Government Procurement Programs
- Certification & Sustainability Standards (ASTM, CORSIA Feedstock Pathways, RSB, ISCC, Blockchain Traceability)
- Comparative & Future Outlook
- Comparative Policy Analysis (Mandates vs. Incentives)
- Effectiveness of Policies
- Global Best Practices for Scaling SAF Adoption
- Challenges in Policy Harmonization (International Flights, Carbon Accounting)
- Future Policy Trends & Recommendations (2025–2035)
- Role of SAF in Net Zero 2050 Roadmap
- Strategic Actions for Airlines & SAF Producers
- Carbon Credit Monetization
- Carbon Credit Generation Mechanisms
- Regional Incentives and Subsidies
- Impact of Policies on SAF Economics and Adoption Rate
- Global Policy Landscape
- Technologies and Supply Chain Analysis
- SAF Technologies Benchmarking
- Technology Pathways: HEFA, FT-SPK, BtL, PtL, ATJ, SIP, HDCJ, Co-processing with Petroleum, Emerging Routes (MTJ, Electrofuels, Catalytic/Thermochemical)
- Benchmarking Framework: TRL, Feedstock Flexibility, Conversion Efficiency, Cost, Scalability, Infrastructure Needs, Certification Status
- Comparative Benchmarking & Break-even Scenarios
- CO₂-to-SAF Technology Landscape
- Overview of CO₂ Capture & Utilization (CCU)
- Power-to-Liquid (PtL) / Fischer-Tropsch (FT)
- Alcohol-to-Jet (ATJ) from CO₂-derived ethanol/methanol
- Methanol-to-Jet (MTJ)
- Direct Air Capture (DAC) + Hydrogen Routes
- Emerging & Next-Gen CO₂ Conversion Tech
- Benchmarking Criteria: TRL, Conversion Yields, Energy/H₂ Inputs, Cost, Scalability, Environmental Impact
- Comparative Benchmarking (FT vs. ATJ vs. MTJ vs. Direct Synthesis)
- Supply Chain Analysis
- Raw Material Availability & Sourcing (feedstock types, geographic distribution, competition, price volatility)
- Distribution Channels & Procurement Models (airline agreements, airport fueling infrastructure, logistics challenges)
- Key Stakeholders (feedstock suppliers, tech licensors, refiners, distributors, airlines, corporate buyers)
- Supply Chain Risks & Mitigations (feedstock supply, regulatory delays, infrastructure, price volatility, geopolitics)
- Future R&D Priorities: next-gen feedstock, AI-driven optimization, digital twins
- Detailed Profile of Technology Providers
- Company Overview (Name, Headquarters, Year Established, etc.)
- Technology Overview
- Technology Type
- Core Process Description
- Patented / Proprietary Features
- Technology Readiness & Certification
- Technology Readiness Level (TRL) (1–9 scale)
- ASTM Certification Status
- Commercial Deployment
- Number of operational plants
- Pilot or demo facilities (with location and capacity)
- Production Capacity & Projects
- Licensed Capacity (current and planned)
- Number of Licenses Issued / Clients
- Key Operational Projects (existing plants and locations)
- Pipeline Projects (announced under construction)
- Partnerships & Collaborations
- Feedstock Partnerships
- Airlines & Offtake Agreements
- Oil Majors / Refiners Partnerships
- Government or R&D Partnerships
- Competitive Positioning
- Strengths, Challenges / Limitations
- Benchmarking Metrics
- CapEx per MT of production
- Opex per MT
- GHG reduction percentage vs fossil jet fuel
- SAF yield per feedstock unit
- Recent Developments
- SAF Technologies Benchmarking
- Demand-Supply Analysis and Market Outlook
- Demand-Supply Analysis
- Regional Demand-Supply (2020–2035)
- Production, Imports/Exports, Consumption, Inventory
- Demand-Supply Gap
- SAF Volume Data Analysis
- Offtake Agreements (by producer & purchaser)
- SAF Production Capacity & Pipeline (current, projected, benchmarking by tech/capacity/investment)
- Global, Regional & Country Forecasts (2020–2035)
- Global SAF Market Outlook (value, volume)
- Market Share by
- Feedstock (Waste Oils & Fats, Biomass & Agricultural Residues, Sugar & Starch Crops, Algae-based Feedstocks, Municipal Solid Waste, Green Hydrogen + Captured CO2)
- Blending Capacity (Below 30%, 30%-50%, Above 50%)
- Technology (HEFA-SPK, FT-SPK, ATJ-SPK, CHJ, HFS-SIP, PtL/e-SAF)
- End Use (General Flights, Commercial Flights, Military Aircrafts and Unmaned Aerial Vehicles (UAV)
- Type (Biofuel, Hydrogen Fuel, Power to Liquid, Gas to Liquid)
- Company
- Regional & Country Outlook (2020-2035)
- Asia-Pacific (China, India, Japan, Australia, South Korea, Singapore)
- North America (US, Canada)
- Latin America (Brazil, Mexico)
- Europe (Germany, UK, France)
- Middle East & Africa (UAE, Qatar, Bahrain)
- Future Outlook & Opportunity Mapping (2025–2035)
- Scenario Planning (Base, Optimistic, Conservative)
- Sensitivity Analysis
- Identification of regional investment hotspots
- SAF’s Positioning in the Low-Carbon Transition
- Demand-Supply Analysis
- Pricing Analysis
- Production Cost Benchmarking Across Technologies
- Regional Pricing Models (Logistics, Energy Input Costs)
- Break-even Analysis for Different Pathways & Use Cases
- SAF Average Selling Prices
- By Payers
- By Pathway
- By Region
- Indicative Pricing Trends (2020-2035)
- Comparison with Jet Fuel
- Current price gap
- Impact of subsidies & tax credits
- Capex & Opex Breakdown by Pathway
- HEFA
- PtL
- ATJ & FT
- Cost Contribution Breakdown (feedstock, technology, distribution)
- Cost Drivers (yields, advanced biomanufacturing, scaling up)
- Cost Competitiveness & Breakeven Scenarios
- Country-specific breakeven ranges
- Sensitivity to carbon pricing & hydrogen costs
- Role of SAF Certificates, Registries & Book-and-Claim Systems
- Growing corporate demand for voluntary SAF credits
- Impact on pricing and market liquidity
- Competition Outlook
- Competition Benchmarking
- Competition Matrix: Market Leaders vs. Startups vs. Diversifying Incumbents
- Producer & Operator Strategies
- Case Comparisons of Early Adopters vs. Laggards
- Startups & Disruptors in Next-Gen SAF Pathways
- Market Leaders (Total 10 Companies)
- Startups & Emerging Players (Top 10 Companies)
- Diversifying Incumbents / Strategic Investors (Top 10 Companies)
- Company Overview
- Technology Used/ Technology Leadership
- Geographic & Sectoral Focus
- Existing Capacity/ Expansion Pipelines & Future Capacity
- Competitive Positioning: Market Share by
- Region
- Technology Pathway
- Business Models
- Technology Innovation
- Partnerships & Collaborations
- Strategic Partnerships & Offtake Agreements
- Financial Analysis
- Competitive Edge & Differentiation
- Strategic Rationale for Entry (Only for Diversifying Incumbents / Strategic Investors)
- SWOT Analysis
- Competitive Strategies
- Vertical Integration
- Regional Expansion
- R&D Investments
- Policy Alignment
- Sustainability Initiatives
- Risks & Strategic Dilemmas
- Competition Benchmarking
- SAF Project Economics
- Capex requirements (by technology)
- Opex (feedstock, utilities, logistics)
- Levelized Cost of SAF (LC-SAF) & sensitivity analysis
- IRR & Payback periods under different policy scenarios
- International Trade, Case Studies & Business Models in SAF
- Trade Dynamics
- Imports, Exports, Leading Countries
- Global Trade Flows
- Export–Import Dependencies
- Trade Regulations & Certification Barriers
- Logistics & Infrastructure Readiness
- Pricing in International Trade
- Strategic Trade Partnerships & Alliances
- Future Outlook: Trade Dynamics 2025–2035
- Project Case Studies (Global Best Practices)
- Successful SAF Implementations Across Regions
- Successful SAF facilities
- Airline adoption cases
- Airline–refiner partnerships
- Airport-level integration
- Technology Adoption Roadmaps
- Business Models
- Standalone SAF production facilities
- Co-processing with refineries
- Integrated biorefineries (multi-fuel, multi-feedstock)
- Airline–Producer Offtake Agreements
- Corporate voluntary SAF adoption models
- Financing Mechanisms
- Equity, debt, project finance, green bonds, climate funds
- Public-private partnerships & procurement programs
- Successful SAF Implementations Across Regions
- Trade Dynamics
- Strategic Recommendations & Roadmap
- Competitors’ Strategic Initiatives (offtake agreements, collaborations, M&A, JVs, PPPs)
- Future Outlook (next 5–10 years, emerging players, success factors)
- Strategic Recommendations (capacity scaling, cost reduction, innovation roadmap, R&D, feedstock, digitalization, regional strategies)
- SAF Market Acceleration Roadmap
- Short-term (2025–2027)
- Mid-term (2028–2030)
- Long-term (2031–2035)
- Tailored recommendations for:
- For SAF Producers & Refiners
- For Airlines & End Users
- For Policymakers & Regulators
- For Investors & Strategic Partners
- Recommendations on Key Success Factors
- Partnerships & alliances
- Digitalization & AI integration
- Policy alignment & certification compliance
- Investor confidence & capital availability