Carbon-neutral aviation in Nigeria: Assessing the feasibility and impacts of sustainable aviation fuel adoption

Adeniyi O. Oluwakoya(1),


(1) Redeemer’s University, Ede, Osun State
Corresponding Author

Abstract


This study investigates the feasibility and potential impacts of transitioning Nigeria's aviation industry towards carbon-neutral operations through the adoption of Sustainable Aviation Fuel (SAF). By examining Nigeria's aviation landscape, international efforts for carbon-neutral aviation, and factors such as feedstock availability, infrastructure, and economic considerations, the paper assesses the viability of SAF adoption. Environmental and economic benefits, including reduced carbon emissions, improved air quality, job creation, and economic diversification, are explored. Challenges such as regulatory hurdles, investment requirements, and public awareness are analyzed, with recommendations provided for policy support, industry collaboration, research and development, and public education campaigns. Despite the absence of specific SAF adoption case studies in Nigeria, insights from international experiences inform the recommendations. The findings suggest Nigeria's potential to lead in SAF adoption regionally, contributing to environmental sustainability and economic growth in the aviation sector, while also offering broader implications for the global industry's transition towards a more sustainable future.


Keywords


Carbon-neutral aviation, sustainable aviation fuel (SAF), Nigeria, feasibility, environmental impact, economic benefits

References


Barkas P, Honeck D, & Rubio E (2020). International trade in travel and tourism services: Economic impact and policy responses during the COVID-19 crisis (No. ERSD-2020-11). WTO Staff Working Paper.

Chiaramonti D (2019). Sustainable aviation fuels: the challenge of decarbonization. Energy Procedia, 158, 1202-1207

Ezeonu CS & Ezeonu NC (2016). Alternative sources of petrochemicals from readily available biomass and agro-products in Africa: A review. J Pet Environ Biotechnol, 7(301), 2.

Fawzy S, Osman AI, Doran J, & Rooney DW (2020). Strategies for mitigation of climate change: a review. Environmental Chemistry Letters, 18, 2069-2094.

Finger M, Montero-Pascual JJ, & Serafimova T (2021). Navigating towards the decarbonisation of European aviation. European University Institute.

Habermeyer F, Weyand J, Maier S, Kurkela E, & Dietrich RU (2023). Power Biomass to Liquid—an option for Europe’s sustainable and independent aviation fuel production. Biomass Conversion and Biorefinery, 1-19.

Jensen LL, Bonnefoy PA, Hileman JI, & Fitzgerald JT (2023). The carbon dioxide challenge facing US aviation and paths to achieve net zero emissions by 2050. Progress in Aerospace Sciences, 141, 100921.

Lebrouhi BE, Djoupo JJ, Lamrani B, Benabdelaziz K, & Kousksou T (2022). Global hydrogen development-A technological and geopolitical overview. International Journal of Hydrogen Energy, 47(11), 7016-7048.

Montoya Sánchez N, Link F, Chauhan G, Halmenschlager C, El‐Sayed HE, Sehdev R, & de Klerk A (2022). Conversion of waste to sustainable aviation fuel via Fischer–Tropsch synthesis: Front‐end design decisions. Energy Science & Engineering, 10(5), 1763-1789

Mousavi S & Bossink BA (2017). Firms’ capabilities for sustainable innovation: The case of biofuel for aviation. Journal of Cleaner Production, 167, 1263-1275.

Oluwakoya AO & Ajayi DD (2021). Liberalisation and the regional air network configuration from Nigeria to other West African Countries Prace Komisji Geografii Przemysłu Polskiego Towarzystwa Geograficznego 35 (4)

Oluwakoya AO & Ogundipe SD (2021) Socio-economic Characteristics and Perception of Safety and Security in Murtala Muhammed Airport Two (MMA2) Nigerian Journal of Logistics & Transport 1, pp.161-174

Oluwakoya AO & Ogundipe SD (2022) Assessment of the Flows of Passenger Movement at Nigeria International Terminal from 2007 to 2015 Redeemer’s University Journal of Management and Social Sciences 5 (1)

Pavlenko N (2021. An assessment of the policy options for driving sustainable aviation fuels in the European Union. ICCT.

Soria Baledon M, Trudel M, & Kosoy N (2022). Alternative jet fuels and climate geopolitics: What, why does it and who matters in the environmental policy-making process. International Journal of Sustainable Transportation, 16(6), 541-557.

Sreenath S, Sudhakar K, & Yusop AF (2021). Sustainability at airports: Technologies and best practices from ASEAN countries. Journal of environmental management, 299, 113639.

Strouhal M (2020) CORSIA-Carbon Offsetting and Reduction Scheme for International Aviation. MAD-Magazine of Aviation Development, 8(1), 23-28.

Usman M, Cheng S, Boonyubol S, & Cross JS (2023). The future of aviation soars with HTL-based SAFs: exploring potential and overcoming challenges using organic wet feedstocks. Sustainable Energy & Fuels, 7(17), 4066-4087.

Yang L, Takase M, Zhang M, Zhao T, & Wu X (2014). Potential non-edible oil feedstock for biodiesel production in Africa: a survey. Renewable and sustainable energy reviews, 38, 461-477.

Zhang L, Butler T L, & Yang* B (2020). Recent trends, opportunities, and challenges of sustainable aviation fuel. Green Energy to Sustainability: Strategies for Global Industries, 85-110.


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DOI: 10.57046/XFVA9454

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