Ahmed AlJameel

Energy & Climate Policy Researcher

Centre for Environmental Policy, Imperial College London

United Kingdom

Ahmed AlJameel is a PhD researcher in energy and climate policy at the Centre for Environmental Policy Imperial College London, and a Doctoral Research Fellow at the Oxford Institute for Energy Studies. His research examines how market-based mechanisms and complementary policies can support the net-zero energy transition in hard-to-abate sectors, with a particular focus on sustainable aviation fuel (SAF) and lower-carbon aviation fuel (LCAF) in the UK, EU and KSA.


Ahmed is a lead author of an Intergovernmental Panel on Climate Change (IPCC) methodology report on carbon dioxide removal technologies and carbon capture, utilisation and storage for national greenhouse-gas inventories, and a nominated expert on the UNFCCC Roster of Experts.


Previously, Ahmed was a Research Fellow at OPEC within the Environmental Matters Unit and served as an energy and climate policy expert in the Sustainability and Climate Change Deputyship of Saudi Arabia’s Ministry of Energy. He participated as a lead negotiator for the Arab Group on climate-finance agenda items at the UN Climate Change COP26 and COP27 and has advised the Board of the Green Climate Fund (GCF).

Participates in

TECHNICAL PROGRAMME | Energy Fuels and Molecules

Alternative Fuels - E fuels, Biofuels and SAF
Forum 15 | Hall 10 - SAUDI ENERGY Technical Programme 3
13
October
14:15 15:30
UTC+3
The aviation sector is among the hard to decarbonise sectors due to its reliance on high-energy-density fuels and long technology turnover cycles. While alternative technologies such as hydrogen fuel and electrification remain in early stage, alternative drop-in fuels, especially Sustainable Aviation Fuels (SAFs) and Low-Carbon Aviation Fuels (LCAFs), offer a near- to mid-term solution for emissions reduction, requiring minimal changes to existing aircraft and fuelling infrastructure. However, these fuels continue to face economic and market barriers, including high production costs, limited supply, and inadequate policy support.

For instance, e-kerosene which is  a power-to liquid (PtL) sustainable aviation fuel is currently 5 times more expensive than conventional kerosene fuel. If the carbon source of the synthetic PtL fuel is from negative emissions using Direct-Air Capture (DAC), this price gap increases further up to 6 times more expensive than the current price of conventional fuel. Although that the current price of the biomass-based SAF is just around 3 times, however there are resource availability limitation especially in the arid and semi-arid regions, which give rise to energy security issues when these feedstocks are imported from somewhere else. LCAF which is a fossil-based clean aviation fuel  exhibits the smallest price difference due to the fact that its price is calculated based on adding a premium equal the abatement cost. However, LCAF only reduce 10% of the lifecycle emissions of the aviation fuel, unlike other SAFs which reach 50-70% reduction.

The Kingdom of Saudi Arabia (KSA) holds a strategic position in global aviation to serve as a connection hub between Europe, Asia, and Africa, while also managing a rapidly growing domestic and international air travel market. As part of KSA Vision 2030, the country aims to transform its aviation sector by tripling its capacity while maintaining environmental sustainability. A major milestone in this effort is the development of Red Sea Airport, which is set to become the first carbon-neutral airport in the region, with Fly Red Sea fuelled exclusively with SAF and LCAF. Despite these opportunities, the sector still relies almost entirely on conventional jet fuels with the absence of any policy incentives to support alternative fuels.

This research proposes a novel design of market-based mechanisms (MBMs) to accelerate the uptake of  alternative drop-in fuels in KSA aviation sector. In addition, a novel agent-based model (ABM) was developed to simulate the diffusion pathways for these alternative drop-in fuels under different MBM scenarios in KSA air fleet. The study provides insights on  the optimal intervention mixes to accelerate decarbonisation in KSA aviation sector.