SAF Market Forecast Reaches $10.27bn by 2032 as Power-to-Liquid Routes Scale

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SAF Market Forecast Reaches $10.27bn by 2032 as Power-to-Liquid Routes Scale

Power-to-LiquidFischer-TropschSAF marketco-electrolysisReFuelEU
July 23, 2026  •  2 min read
The global sustainable aviation fuel market is on track to more than quadruple from $2.37 billion in 2026 to $10.27 billion by 2032, according to a new industry forecast released in July. While hydroprocessed esters and fatty acids (HEFA) continue to dominate current production, Power-to-Liquid e-fuels—synthesised via Fischer-Tropsch routes from green hydrogen and captured CO₂—are positioned to capture a rising share as electrolyser capacity and carbon-utilisation infrastructure expand across Europe and North America.
$2.37bn
SAF market value 2026
$10.27bn
Forecast SAF market 2032
2026
IATA production forecast year
49+
Key market players profiled

Market dynamics and pathway competition

The forecast, which profiles Shell, BP, TotalEnergies, Neste, and 49 other key players, underscores the intensifying competition between first-generation HEFA pathways and emerging synthetic routes. HEFA remains constrained by feedstock availability—used cooking oil and animal fats are finite—while Power-to-Liquid offers theoretically unlimited scalability if renewable electricity and carbon sources are secured. BloombergNEF’s price outlook suggests SAF costs are beginning to level off as production scales, yet the International Air Transport Association has warned that growth remains too slow to meet aviation decarbonisation targets despite higher 2026 production forecasts.

Airbus recently unveiled a study examining SAF’s potential to support economic growth and accelerate Canada’s climate ambitions, reflecting intensifying government and OEM interest in securing domestic supply chains. Fischer-Tropsch synthesis—the core of Power-to-Liquid—requires precise catalyst formulation and heat integration; AI-driven reactor optimisation and co-electrolysis tuning are now being explored by engineering firms to improve carbon conversion efficiency and reduce parasitic energy losses at scale.

Power-to-Liquid technology readiness

Fischer-Tropsch reactors convert syngas (a mixture of hydrogen and carbon monoxide) into liquid hydrocarbons that can be refined into drop-in jet fuel. The process demands careful temperature control, optimal H₂:CO ratios, and advanced catalysts—typically cobalt or iron-based—to maximise selectivity toward kerosene-range molecules. Co-electrolysis, which simultaneously splits water and CO₂ in a single high-temperature cell, offers a more thermally efficient route to syngas than coupling separate electrolysers with reverse water-gas-shift reactors. Heat recovery from exothermic Fischer-Tropsch synthesis can be integrated into upstream electrolysis units, reducing overall electricity demand and improving project economics.

Investment outlook and policy drivers

The ReFuelEU Aviation mandate, requiring 2% SAF blending by 2025 and 70% by 2050, is channelling capital toward both biogenic and synthetic pathways. RED III’s multipliers for renewable fuels of non-biological origin (RFNBOs) provide additional revenue support for Power-to-Liquid projects. As module manufacturers scale compact Fischer-Tropsch units and electrolyser costs continue to decline, the gap between HEFA and e-fuel production economics is narrowing faster than many industry observers anticipated even two years ago.

Bottom Line
The SAF market’s forecast quadrupling by 2032 signals robust demand, but meeting aviation’s 2050 net-zero targets will require Power-to-Liquid routes to move swiftly from pilot to commercial scale. Fischer-Tropsch synthesis and co-electrolysis—backed by AI-driven process optimisation and supportive EU policy—are poised to complement HEFA’s feedstock-limited output, yet IATA’s warning that production growth lags ambition underscores the urgency of final investment decisions and infrastructure buildout over the next 24 months.

Sources

Featured image via Unsplash.

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