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Prospective life cycle inventory datasets for conventional and hybrid-electric aircraft technologies

  • Nils Thonemann
  • , Karen Saavedra-Rubio
  • , Eleonore Pierrat
  • , Katarzyna Dudka
  • , Mathilde Bangoura
  • , Nils Baumann
  • , Christian Bentheimer
  • , Priscilla Caliandro
  • , Roeland De Breuker
  • , Cor de Ruiter
  • , Mario Di Stasio
  • , Julie Elleby
  • , Alexe Guiguemde
  • , Bruno Lemoine
  • , Martin Maerz
  • , Valerio Marciello
  • , Markus Meindl
  • , Fabrizio Nicolosi
  • , Manuela Ruocco
  • , Benjamin Sala
  • Anna Lia Scharling Tromer Dragsdahl, Andrea Vezzini, Zhangqi Wang, Thomas Wannemacher, Julius Zettelmeier, Alexis Laurent*
*Corresponding author for this work
  • Mahytec
  • Proton Motor Fuel Cell GmbH
  • Friedrich-Alexander University Erlangen-Nürnberg
  • Bern University of Applied Sciences
  • Delft University of Technology
  • Rotterdam -The Hague Innovation Airport
  • University of Naples Federico II
  • SmartUp Engineering S.r.l.
  • ACCUREC-Recycling GmbH

Research output: Contribution to journalJournal articleResearchpeer-review

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Abstract

Hybrid-electric aircraft represent a promising solution for the urgent need to decarbonize short-haul flights and bolster aviation sustainability. Nevertheless, the realization of hybrid-electric aircraft demands rigorous environmental impact analysis, given the substantial investments, time, and research required for technology development. This study offers a comprehensive life cycle inventory spanning the years 2030, 2040, and 2050 for both conventional and hybrid-electric aircraft configurations. Our inventory datasets are meticulously constructed through a systematic approach, ensuring data harmonization by drawing upon scientific literature, industry expertise, and primary data sources. This extensive dataset encompasses all pertinent systems necessary to model the environmental footprint of flights covering distances ranging from 200 to 600 nautical miles, utilizing a 50-passenger aircraft with the ATR42 as a reference model. Additionally, we furnish supplemental data for end-of-life considerations and uncertainty analysis. The systems under examination include the airframe, powertrain, power electronics and drives, batteries, fuel cells, hydrogen onboard storage, airport infrastructure, and battery charging stations. Notably, the carbon footprint of conventional aircraft aligns with data from the ecoinvent v3.8 database; however, our provided datasets are more than tenfold more detailed and incorporate a forward-looking perspective. These meticulously curated life cycle inventories can be amalgamated to simulate the potential environmental ramifications of conventional aircraft powered by kerosene or alternative aviation fuels, hybrid-electric aircraft utilizing battery technology, and hybrid-electric aircraft employing hydrogen as a fuel in conjunction with batteries. In this context, our findings play a pivotal role in nurturing the development of technology roadmaps that prioritize environmental sustainability within the realm of regional aviation.
Original languageEnglish
Article number140314
JournalJournal of Cleaner Production
Volume434
Number of pages12
ISSN0959-6526
DOIs
Publication statusPublished - 2024

UN SDGs

This output contributes to the following UN Sustainable Development Goals (SDGs)

  1. SDG 7 - Affordable and Clean Energy
    SDG 7 Affordable and Clean Energy
  2. SDG 12 - Responsible Consumption and Production
    SDG 12 Responsible Consumption and Production

Keywords

  • LCA
  • Prospective life cycle assessment
  • Environmental sustainability
  • Data collection
  • Transport
  • Aviation
  • Industrial ecology

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