Sustainable Aviation Fuel Market: By Manufacturing Technology, Fischer Tropsch Synthetic Paraffinic Kerosene, Methanol-to-Jetfuel, Alcohol to Jet SPK, Others), By Blending Capacity and Region Forecast 2020-2031
Sustainable Aviation Fuel Market size was valued at US$ 240.2 million in 2021 and US$ 3,264 million in 2024 with a growth rate of 138.7% during the historic years. In 2025, the market valued at US$ 6,332 million and expected to witness a CAGR of 44.8% over the forecast period (2025-2031) and is estimated to be valued at US$ 58,401 million in 2031.
The market refers to the global industry focused on the production, distribution, and utilization of aviation fuels derived from renewable and sustainable sources such as biomass, waste oils, municipal solid waste, and advanced feedstocks. SAF is designed to serve as a direct substitute or blend for conventional jet fuel, meeting stringent aviation safety and performance standards while significantly reducing lifecycle greenhouse gas emissions. The market encompasses technological processes, supply chain logistics, regulatory frameworks, and commercial adoption pathways driving the transition toward low-carbon aviation.
The market is experiencing rapid growth as governments, airlines, and energy companies increasingly prioritize carbon reduction in the aviation sector. With aviation accounting for a significant share of global greenhouse gas emissions, SAF has emerged as a critical solution for decarbonizing air travel. Supported by international policies, such as CORSIA (Carbon Offsetting and Reduction Scheme for International Aviation) and net-zero commitments by leading airlines, demand for SAF is rising. Market expansion is further fueled by advancements in feedstock diversification, partnerships between fuel producers and aviation stakeholders, and large-scale investments in refining capacity. However, high production costs, limited availability of sustainable feedstocks, and supply chain challenges remain key barriers, highlighting the need for technological innovation and supportive government incentives to ensure long-term scalability.
Based on the manufacturing technology
Hydro processed Esters and Fatty Acids – Synthetic Paraffinic Kerosene (HEFA-SPK) is anticipated to lead the Sustainable Aviation Fuel market due to its technological maturity and large-scale commercial viability. HEFA-SPK is currently the most widely approved and adopted pathway for SAF production, offering seamless compatibility with existing aircraft engines and fueling infrastructure. It utilizes readily available feedstocks such as used cooking oil, animal fats, and vegetable oils, ensuring consistent supply and cost-efficiency compared to other advanced pathways. Major producers like Neste and World Energy have already scaled up HEFA-SPK facilities, supported by strong policy incentives and airline offtake agreements, driving its global dominance.
Based on the blending capacity
The below 30% blending capacity segment is anticipated to lead the market, primarily because it aligns with current regulatory requirements and airline operational standards. Most aviation authorities, including ASTM International, have certified SAF for blending with conventional jet fuel up to 50%, but most airlines and airports are currently adopting blends below 30% due to cost constraints and limited supply availability. This blending range provides a practical balance between reducing lifecycle emissions and maintaining fuel affordability, while also ensuring seamless engine compatibility. Government mandates, such as the EU’s SAF blending targets starting at low percentages, reinforce the dominance of this segment in the near term.
Study Period
2025-2031Base Year
2024CAGR
44.8%Largest Market
North-AmericaFastest Growing Market
Asia-Pacific
A major driver for the market is the increasing global emphasis on decarbonization within the aviation industry. Airlines, airports, and governments are under mounting pressure to reduce greenhouse gas emissions in line with international climate goals, such as the Paris Agreement and net-zero targets for 2050. Aviation contributes around 2–3% of global CO? emissions, yet unlike road transport, it has limited near-term alternatives to fossil fuels due to safety and performance constraints. SAF emerges as the most viable pathway to achieving immediate emission reductions, offering up to 80% lower lifecycle carbon intensity compared to conventional jet fuel. Regulatory initiatives such as the EU’s “Fit for 55” package, U.S. Inflation Reduction Act incentives, and ICAO’s CORSIA framework are further accelerating adoption. These binding commitments and policy supports are compelling airlines to sign long-term offtake agreements, boosting both investment in SAF production capacity and demand growth worldwide.
Despite its potential, the market faces a significant restraining factor in the form of high production costs and scalability limitations. Producing SAF requires advanced conversion technologies, such as Fischer-Tropsch synthesis, Hydroprocessed Esters and Fatty Acids (HEFA), or Alcohol-to-Jet pathways, all of which demand large capital investments and complex infrastructure. Currently, SAF can cost 2–5 times more than conventional jet fuel, making it financially burdensome for airlines already operating on thin profit margins. Moreover, the availability of sustainable feedstocks, including used cooking oils, agricultural residues, and municipal waste, is limited and unevenly distributed globally. This scarcity challenges continuous large-scale production, restricting supply chains. Without robust subsidies, carbon pricing mechanisms, or long-term purchase agreements, producers struggle to justify investments in new facilities. These cost and scalability barriers hinder the widespread adoption of SAF, posing a threat to the industry’s ability to meet projected demand for greener aviation fuels.
The SAF market holds significant opportunities through advancements in technology and the diversification of feedstock sources. Emerging innovations in Power-to-Liquid (PtL) synthetic fuels, algae-based biofuels, and waste-to-fuel pathways have the potential to dramatically expand production capacity while reducing dependency on limited feedstock streams like waste oils. Breakthroughs in hydrogen-based aviation fuel synthesis, alongside carbon capture and utilization (CCU) technologies, open new avenues for creating scalable and ultra-low-carbon aviation fuels. Partnerships between technology developers, energy companies, and airlines are accelerating commercialization, with pilot projects and demonstration plants paving the way for industrial-scale deployment. Furthermore, governments are offering incentives for research and development, which can lower costs over time and enhance production efficiency. As global passenger traffic continues to rebound and air freight volumes expand, these innovations offer a substantial growth opportunity for SAF producers to meet demand while ensuring environmental and economic sustainability.
A prominent trend in the market is the growing number of strategic partnerships and long-term offtake agreements between airlines, fuel producers, and governments. Airlines are increasingly securing multi-year supply contracts to guarantee access to SAF amid limited availability, while simultaneously signaling their commitment to carbon neutrality. For instance, leading carriers such as United Airlines, Delta, and Lufthansa have announced billion-dollar deals with biofuel companies to secure future volumes. This trend is mirrored by energy giants like BP, Shell, and TotalEnergies, which are investing in SAF production facilities and partnering with airports to establish distribution networks. Governments are also playing a role by mandating blending requirements and providing subsidies to de-risk such collaborations. These partnerships not only stabilize supply and pricing but also encourage investment in new production plants, thereby driving market confidence. This collaborative approach is setting the foundation for a more resilient and scalable SAF ecosystem.
Report Benchmarks |
Details |
Report Study Period |
2025-2031 |
Market Size in 2024 |
US$ 3,264 million |
Market Size in 2031 |
US$ 58,401 million |
Market CAGR |
44.8% |
By Manufacturing Technology |
|
By Blending |
|
By Region |
|
According to PBI Analyst, the Sustainable Aviation Fuel (SAF) market is evolving as a critical component of the global aviation industry’s transition toward decarbonization. With air travel contributing significantly to greenhouse gas emissions, SAF offers a near-term, scalable solution capable of reducing lifecycle emissions by up to 80% compared to conventional jet fuel. Supported by stringent government mandates, international frameworks such as CORSIA, and net-zero commitments from major airlines, demand is accelerating worldwide. Advancements in feedstock utilization, manufacturing technologies like HEFA-SPK and ATJ, and strategic partnerships between fuel producers and carriers are driving market growth. However, high production costs, limited feedstock availability, and supply chain challenges remain key hurdles. Despite these restraints, rising investments, policy incentives, and large-scale offtake agreements signal strong long-term potential, positioning SAF as a cornerstone of aviation’s sustainable future.
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Sustainable aviation fuel market size was valued at US$ 240.2 Mn in 2021 and US$ 3,264 Mn in 2024 with a growth rate of 138.7% during the historic years.
The major players in the market are Aemetis Inc., Avfuel Corporation, Fulcrum Bioenergy, Gevo, Preem AB, Lanzatech, Neste, Preem AB, Sasol, SkyNRG, and World Energy.
The North American market is expected to witness the largest market share during the forecast period.
The SAF market is primarily driven by global decarbonization goals, government mandates, and airline commitments to achieve net-zero emissions by 2050. Strong policy support, international frameworks like CORSIA, and rising investments in refining capacity further accelerate adoption.
The biggest challenges include high production costs, limited feedstock availability, and scalability issues. SAF is still two to five times more expensive than conventional jet fuel, creating financial hurdles for widespread adoption.
The SAF market is primarily driven by global decarbonization goals, government mandates, and airline commitments to achieve net-zero emissions by 2050. Strong policy support, international frameworks like CORSIA, and rising investments in refining capacity further accelerate adoption.
The biggest challenges include high production costs, limited feedstock availability, and scalability issues. SAF is still two to five times more expensive than conventional jet fuel, creating financial hurdles for widespread adoption.
1. Executive Summary |
2. Global Sustainable Aviation Fuel Market Introduction |
2.1. Global Sustainable Aviation Fuel Market – Taxonomy |
2.2. Global Sustainable Aviation Fuel Market –Definitions |
2.2.2. By Biofuel Manufacturing Technology |
2.2.3. By Biofuel Blending Capacity |
2.2.5. By Region |
3. Global Sustainable Aviation Fuel Market Dynamics |
3.1. Drivers |
3.2. Restraints |
3.3. Opportunities/Unmet Needs of the Market |
3.4. Trends |
3.5. Global Sustainable Aviation Fuel Market Dynamic Factors - Impact Analysis |
3.5. Global Sustainable Aviation Fuel Market – Competition Landscape |
4. Global Sustainable Aviation Fuel Market Analysis, 2020-2024 and Forecast 2025-2031 |
4.1. Market Analysis, 2020-2024 and Forecast 2025-2031 (Revenue, USD Mn) |
4.2. Year-over-Year (Y-o-Y) Growth Analysis (%) |
4.3. Market Opportunity Analysis |
5. Global Sustainable Aviation Fuel Market, By Manufacturing Technology, 2020-2024 and Forecast 2025-2031 (Revenue, USD Mn) |
5.1. Hydro processed Fatty Acid Esters and Fatty Acids - Synthetic Paraffinic Kerosene (HEFA-SPK) |
5.1.1. Market Analysis, 2020-2024 and Forecast 2025-2031 (Revenue, USD Mn) |
5.1.2. Year-over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
5.1.3. Market Opportunity Analysis |
5.2. Fischer Tropsch Synthetic Paraffinic Kerosene (FT-SPK) |
5.2.1. Market Analysis, 2020-2024 and Forecast 2025-2031 (Revenue, USD Mn) |
5.2.2. Year-over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
5.2.3. Market Opportunity Analysis |
5.3. Synthetic Iso-paraffin from Fermented Hydro processed Sugar (HFS-SIP) |
5.3.1. Market Analysis, 2020-2024 and Forecast 2025-2031 (Revenue, USD Mn) |
5.3.2. Year-over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
5.3.3. Market Opportunity Analysis |
5.4. Alcohol to Jet SPK (ATJ-SPK) |
5.4.1. Market Analysis, 2020-2024 and Forecast 2025-2031 (Revenue, USD Mn) |
5.4.2. Year-over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
5.4.3. Market Opportunity Analysis |
5.5. Catalytic Hydro thermolysis Jet (CHJ) |
5.5.1. Market Analysis, 2020-2024 and Forecast 2025-2031 (Revenue, USD Mn) |
5.5.2. Year-over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
5.5.3. Market Opportunity Analysis |
6. Global Sustainable Aviation Fuel Market, By Blending Capacity, 2020-2024 and Forecast 2025-2031 (Revenue, USD Mn) |
6.1. Below 30% |
6.1.1. Market Analysis, 2020-2024 and Forecast 2025-2031 (Revenue, USD Mn) |
6.1.2. Year-over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
6.1.3. Market Opportunity Analysis |
6.2. 30-50% |
6.2.1. Market Analysis, 2020-2024 and Forecast 2025-2031 (Revenue, USD Mn) |
6.2.2. Year-over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
6.2.3. Market Opportunity Analysis |
6.3. Above 50% |
6.3.1. Market Analysis, 2020-2024 and Forecast 2025-2031 (Revenue, USD Mn) |
6.3.2. Year-over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
6.3.3. Market Opportunity Analysis |
7. Global Sustainable Aviation Fuel Market Forecast, By Region, 2020-2024 and Forecast 2025-2031 (Revenue, USD Mn) |
7.1. North America |
7.1.1. Market Analysis, 2020-2024 and Forecast 2025-2031 (Revenue, USD Mn) |
7.1.2. Year-over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
7.1.3. Market Opportunity Analysis |
7.2. Europe |
7.2.1. Market Analysis, 2020-2024 and Forecast 2025-2031 (Revenue, USD Mn) |
7.2.2. Year-over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
7.2.3. Market Opportunity Analysis |
7.3. Asia-Pacific |
7.3.1. Market Analysis, 2020-2024 and Forecast 2025-2031 (Revenue, USD Mn) |
7.3.2. Year-over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
7.3.3. Market Opportunity Analysis |
7.4. Latin America |
7.4.1. Market Analysis, 2020-2024 and Forecast 2025-2031 (Revenue, USD Mn) |
7.4.2. Year-over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
7.4.3. Market Opportunity Analysis |
7.5. Middle East and Africa |
7.5.1. Market Analysis, 2020-2024 and Forecast 2025-2031 (Revenue, USD Mn) |
7.5.2. Year-over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
7.5.3. Market Opportunity Analysis |
7.5. Global Sustainable Aviation Fuel Market - Opportunity Analysis Index, By Fuel Type, By Biofuel Manufacturing Technology, By Biofuel Blending Capacity, By Platform, and Region, 2024-2030 |
8. North America Sustainable Aviation Fuel Market Analysis, 2020-2024 and Forecast 2025-2031 (Revenue, USD Mn) |
8.1. Fuel Type Analysis 2017-2023 and Forecast 2024-2030 by Revenue (USD Mn), Y-o-Y Growth (%), and Market Share (%) |
8.1.1. Biofuel |
8.1.2. Hydrogen Fuel |
8.1.3. Power to Liquid Fuel |
8.1.4. Gas-to-Liquid |
8.2. Biofuel Manufacturing Technology Analysis 2017-2023 and Forecast 2024-2030 by Revenue (USD Mn), Y-o-Y Growth (%), and Market Share (%) |
8.2.1. Hydro processed Fatty Acid Esters and Fatty Acids - Synthetic Paraffinic Kerosene (HEFA-SPK) |
8.2.2. Fischer Tropsch Synthetic Paraffinic Kerosene (FT-SPK) |
8.2.3. Synthetic Iso-paraffin from Fermented Hydroprocessed Sugar (HFS-SIP) |
8.2.4. Alcohol to Jet SPK (ATJ-SPK) |
8.2.5. Catalytic Hydrothermolysis Jet (CHJ) |
8.3. Industry Analysis 2017-2023 and Forecast 2024-2030 by Revenue (USD Mn), Y-o-Y Growth (%) and Market Share (%) |
8.3.1. Below 30% |
8.3.2. 30% to 50% |
8.3.3. Above 50% |
8.4. Platform Analysis 2017-2023 and Forecast 2024-2030 by Revenue (USD Mn), Y-o-Y Growth (%) and Market Share (%) |
8.4.1. Commercial Aviation |
8.4.2. Military Aviation |
8.4.3. Business & General Aviation |
8.4.4. Unmanned Aerial Vehicle |
8.5. Country Analysis 2017-2023 and Forecast 2024-2030 by Revenue (USD Mn) Y-o-Y Growth (%) and Market Share (%) |
8.5.1. USA |
8.5.2. Canada |
8.5. North America Sustainable Aviation Fuel Market - Opportunity Analysis Index, By Fuel Type, Biofuel Manufacturing Technology, By Biofuel Blending Capacity, By Platform, and Country, 2024-2030 |
8.6. North America Sustainable Aviation Fuel Market Dynamics – Trends |
9. Europe Sustainable Aviation Fuel Market Analysis, 2020-2024 and Forecast 2025-2031 (Revenue, USD Mn) |
9.1. Fuel Type Analysis 2017-2023 and Forecast 2024-2030 by Revenue (USD Mn), Y-o-Y Growth (%), and Market Share (%) |
9.1.1. Biofuel |
9.1.2. Hydrogen Fuel |
9.1.3. Power to Liquid Fuel |
9.1.4. Gas-to-Liquid |
9.2. Biofuel Manufacturing Technology Analysis 2017-2023 and Forecast 2024-2030 by Revenue (USD Mn), Y-o-Y Growth (%), and Market Share (%) |
9.2.1. Hydro processed Fatty Acid Esters and Fatty Acids - Synthetic Paraffinic Kerosene (HEFA-SPK) |
9.2.2. Fischer Tropsch Synthetic Paraffinic Kerosene (FT-SPK) |
9.2.3. Synthetic Iso-paraffin from Fermented Hydroprocessed Sugar (HFS-SIP) |
9.2.4. Alcohol to Jet SPK (ATJ-SPK) |
9.2.5. Catalytic Hydrothermolysis Jet (CHJ) |
9.3. Industry Analysis 2017-2023 and Forecast 2024-2030 by Revenue (USD Mn), Y-o-Y Growth (%) and Market Share (%) |
9.3.1. Below 30% |
9.3.2. 30% to 50% |
9.3.3. Above 50% |
9.4. Platform Analysis 2017-2023 and Forecast 2024-2030 by Revenue (USD Mn), Y-o-Y Growth (%) and Market Share (%) |
9.4.1. Commercial Aviation |
9.4.2. Military Aviation |
9.4.3. Business & General Aviation |
9.4.4. Unmanned Aerial Vehicle |
9.5. Country Analysis 2017-2023 and Forecast 2024-2030 by Revenue (USD Mn) Y-o-Y Growth (%) and Market Share (%) |
9.5.1. Germany |
9.5.2. UK |
9.5.3. France |
9.5.4. Spain |
9.5.5. Italy |
9.5.5. Russia |
9.5.6. Rest of Europe |
9.5. Europe Sustainable Aviation Fuel Market - Opportunity Analysis Index, By Fuel Type, Biofuel Manufacturing Technology, By Biofuel Blending Capacity, By Platform, and Country, 2024-2030 |
9.6. Europe Sustainable Aviation Fuel Market Dynamics – Trends |
10. Asia-Pacific Sustainable Aviation Fuel Market Analysis, 2020-2024 and Forecast 2025-2031 (Revenue, USD Mn) |
10.1. Fuel Type Analysis 2017-2023 and Forecast 2024-2030 by Revenue (USD Mn), Y-o-Y Growth (%), and Market Share (%) |
10.1.1. Biofuel |
10.1.2. Hydrogen Fuel |
10.1.3. Power to Liquid Fuel |
10.1.4. Gas-to-Liquid |
10.2. Biofuel Manufacturing Technology Analysis 2017-2023 and Forecast 2024-2030 by Revenue (USD Mn), Y-o-Y Growth (%), and Market Share (%) |
10.2.1. Hydro processed Fatty Acid Esters and Fatty Acids - Synthetic Paraffinic Kerosene (HEFA-SPK) |
10.2.2. Fischer Tropsch Synthetic Paraffinic Kerosene (FT-SPK) |
10.2.3. Synthetic Iso-paraffin from Fermented Hydroprocessed Sugar (HFS-SIP) |
10.2.4. Alcohol to Jet SPK (ATJ-SPK) |
10.2.5. Catalytic Hydrothermolysis Jet (CHJ) |
10.3. Industry Analysis 2017-2023 and Forecast 2024-2030 by Revenue (USD Mn), Y-o-Y Growth (%) and Market Share (%) |
10.3.1. Below 30% |
10.3.2. 30% to 50% |
10.3.3. Above 50% |
10.4. Platform Analysis 2017-2023 and Forecast 2024-2030 by Revenue (USD Mn), Y-o-Y Growth (%) and Market Share (%) |
10.4.1. Commercial Aviation |
10.4.2. Military Aviation |
10.4.3. Business & General Aviation |
10.4.4. Unmanned Aerial Vehicle |
10.5. Country Analysis 2017-2023 and Forecast 2024-2030 by Revenue (USD Mn) Y-o-Y Growth (%) and Market Share (%) |
10.5.1. China |
10.5.2. India |
10.5.3. Japan |
10.5.4. ASEAN |
10.5.5. Australia & New Zealand |
10.5.5. Rest of Asia-Pacific |
10.5. Asia-Pacific Sustainable Aviation Fuel Market - Opportunity Analysis Index, By Fuel Type, Biofuel Manufacturing Technology, By Biofuel Blending Capacity, By Platform, and Country, 2024-2030 |
10.6. Asia-Pacific Sustainable Aviation Fuel Market Dynamics – Trends |
11. Latin America Sustainable Aviation Fuel Market Analysis, 2020-2024 and Forecast 2025-2031 (Revenue, USD Mn) |
11.1. Fuel Type Analysis 2017-2023 and Forecast 2024-2030 by Revenue (USD Mn), Y-o-Y Growth (%), and Market Share (%) |
11.1.1. Biofuel |
11.1.2. Hydrogen Fuel |
11.1.3. Power to Liquid Fuel |
11.1.4. Gas-to-Liquid |
11.2. Biofuel Manufacturing Technology Analysis 2017-2023 and Forecast 2024-2030 by Revenue (USD Mn), Y-o-Y Growth (%), and Market Share (%) |
11.2.1. Hydro processed Fatty Acid Esters and Fatty Acids - Synthetic Paraffinic Kerosene (HEFA-SPK) |
11.2.2. Fischer Tropsch Synthetic Paraffinic Kerosene (FT-SPK) |
11.2.3. Synthetic Iso-paraffin from Fermented Hydroprocessed Sugar (HFS-SIP) |
11.2.4. Alcohol to Jet SPK (ATJ-SPK) |
11.2.5. Catalytic Hydrothermolysis Jet (CHJ) |
11.3. Industry Analysis 2017-2023 and Forecast 2024-2030 by Revenue (USD Mn), Y-o-Y Growth (%) and Market Share (%) |
11.3.1. Below 30% |
11.3.2. 30% to 50% |
11.3.3. Above 50% |
11.4. Platform Analysis 2017-2023 and Forecast 2024-2030 by Revenue (USD Mn), Y-o-Y Growth (%) and Market Share (%) |
11.4.1. Commercial Aviation |
11.4.2. Military Aviation |
11.4.3. Business & General Aviation |
11.4.4. Unmanned Aerial Vehicle |
11.5. Country Analysis 2017-2023 and Forecast 2024-2030 by Revenue (USD Mn) Y-o-Y Growth (%) and Market Share (%) |
11.5.1. Brazil |
11.5.2. Mexico |
11.5.3. Rest of Latin America |
11.5. Latin America Sustainable Aviation Fuel Market - Opportunity Analysis Index, By Fuel Type, Biofuel Manufacturing Technology, By Biofuel Blending Capacity, By Platform, and Country, 2024-2030 |
11.6. Latin America Sustainable Aviation Fuel Market Dynamics – Trends |
12. Middle East and Africa Sustainable Aviation Fuel Market Analysis, 2020-2024 and Forecast 2025-2031 (Revenue, USD Mn) |
12.1. Fuel Type Analysis 2017-2023 and Forecast 2024-2030 by Revenue (USD Mn), Y-o-Y Growth (%), and Market Share (%) |
12.1.1. Biofuel |
12.1.2. Hydrogen Fuel |
12.1.3. Power to Liquid Fuel |
12.1.4. Gas-to-Liquid |
12.2. Biofuel Manufacturing Technology Analysis 2017-2023 and Forecast 2024-2030 by Revenue (USD Mn), Y-o-Y Growth (%), and Market Share (%) |
12.2.1. Hydro processed Fatty Acid Esters and Fatty Acids - Synthetic Paraffinic Kerosene (HEFA-SPK) |
12.2.2. Fischer Tropsch Synthetic Paraffinic Kerosene (FT-SPK) |
12.2.3. Synthetic Iso-paraffin from Fermented Hydroprocessed Sugar (HFS-SIP) |
12.2.4. Alcohol to Jet SPK (ATJ-SPK) |
12.2.5. Catalytic Hydrothermolysis Jet (CHJ) |
12.3. Industry Analysis 2017-2023 and Forecast 2024-2030 by Revenue (USD Mn), Y-o-Y Growth (%) and Market Share (%) |
12.3.1. Below 30% |
12.3.2. 30% to 50% |
12.3.3. Above 50% |
12.4. Platform Analysis 2017-2023 and Forecast 2024-2030 by Revenue (USD Mn), Y-o-Y Growth (%) and Market Share (%) |
12.4.1. Commercial Aviation |
12.4.2. Military Aviation |
12.4.3. Business & General Aviation |
12.4.4. Unmanned Aerial Vehicle |
12.5. Country Analysis 2017-2023 and Forecast 2024-2030 by Revenue (USD Mn) Y-o-Y Growth (%) and Market Share (%) |
12.5.1. Gulf Cooperation Council (GCC) Countries |
12.5.2. South Africa |
12.5.3. Rest of MEA |
12.5. MEA Sustainable Aviation Fuel Market - Opportunity Analysis Index, By Fuel Type, Biofuel Manufacturing Technology, By Biofuel Blending Capacity, By Platform, and Country, 2024-2030 |
12.6. MEA Sustainable Aviation Fuel Market Dynamics – Trends |
13. Competition Landscape |
13.1. Strategic Dashboard of Top Market Players |
13.2. Company Profiles (Introduction, Financial Analysis, Key Fuel Types, Key Developments, Strategies, and SWOT Analysis) |
13.2.1. Aemetis Inc. |
13.2.2. Avfuel Corporation |
13.2.3. Fulcrum Bioenergy |
13.2.4. Gevo |
13.2.5. Preem AB |
13.2.5. Lanzatech |
13.2.6. Neste |
14. Research Methodology |
15. Appendix and Abbreviations |
Key Market Players