Power Management for Hybrid Electric Aircraft

A Special Issue of Aerospace (ISSN 2226-4310) belonging to the section "Aeronautics".

Deadline for manuscript submissions: 31 December 2026 | Viewed by 1376

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Guest Editor
Department of Mechanical and Aerospace Engineering, Politecnico di Torino, Corso Duca degli Abruzzi, 24, 10129 Torino, TO, Italy
Interests: aircraft design; sustainable aviation; hybrid-electric aircraft; hydrogen-based aircraft; multidisciplinary optimization
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Special Issue Information

Dear Colleagues,

In recent years, the electrification of aviation propulsion systems has captured growing interest as a pathway toward reducing carbon emissions, enhancing energy efficiency, and enabling novel aircraft architectures. Among these developments, hybrid electric aircraft, those combining conventional fuel-based power with one or more forms of electric energy storage or generation, offer a promising intermediate step between today’s fleet and a fully electric future. However, managing the synergy between heterogeneous power sources, ensuring high reliability, and optimizing performance across flight phases pose substantial technical challenges.

This Special Issue is dedicated to advancing the scientific understanding and technological development of hybrid-electric propulsion systems since the integration of these energy sources requires innovative architectures, real-time control algorithms, and adaptive management strategies capable of dynamically balancing power flows, maximizing efficiency, and ensuring system robustness under varying flight and environmental conditions. These developments also have profound implications for aircraft design and integration, as power and energy management directly affect the sizing of propulsion components, thermal systems, and structural layouts. Indeed, a critical cross-cutting challenge is thermal management to effectively dissipate the generated heat and maintain performance, safety, and longevity. Advanced cooling concepts, integrated thermal networks, and predictive control are essential to prevent thermal runaway and to ensure stable operation across transient and steady-state regimes. Furthermore, simulation and digital-twin methodologies, enabling high-fidelity and multi-domain modeling of electrical, thermal, and mechanical interactions. These tools are key to exploring design trade-offs, supporting hardware-in-the-loop testing, and developing reliable power management strategies for different classes of hybrid-electric aircraft.

This Special Issue aims to provide a platform for the dissemination of state-of-the-art methods and to identify open challenges for future generations of hybrid electric propulsion systems. Potential topics include, but are not limited to, the following:

  • Hybridization strategies combining batteries and fuel cells
  • Power management architectures and control algorithms
  • Energy optimization across flight missions
  • Thermal management and cooling system design
  • Multiphysics and real-time simulation frameworks
  • Digital-twin and model-based system design
  • Reliability, safety, and certification aspects
  • Experimental validation and hardware-in-the-loop applications

Dr. Giuseppe Palaia
Guest Editor

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Keywords

  • power management
  • hybrid electric
  • fuel cell
  • multidisciplinary design optimization
  • hybrid powertrain architectures
  • sustainable aviation
  • aircraft design

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Published Papers (2 papers)

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Research

34 pages, 3043 KB  
Article
Detailed Sensitivity and Multi-Level Design Studies on a Hydrogen-Hybrid Dual-Fuel Regional Aircraft Retrofit
by Ulrich Carsten Johannes Rischmüller, Alexandros Lessis, Patrick Egerer, Rafael Balderas-Xicohtencatl and Mirko Hornung
Aerospace 2026, 13(8), 724; https://doi.org/10.3390/aerospace13080724 - 13 Aug 2026
Viewed by 313
Abstract
Current research in commercial aviation is exploring numerous propulsion and aircraft technologies to mitigate its environmental impact. While purely hydrogen-powered aircraft face manifold challenges, combining hydrogen and conventional fuel may facilitate the introduction of hydrogen-based flight. This study dives into the conceptual design [...] Read more.
Current research in commercial aviation is exploring numerous propulsion and aircraft technologies to mitigate its environmental impact. While purely hydrogen-powered aircraft face manifold challenges, combining hydrogen and conventional fuel may facilitate the introduction of hydrogen-based flight. This study dives into the conceptual design of a parallel-hybrid dual-fuel regional aircraft retrofit based on the D328eco. The assessed retrofit approach aims to extend airframe service life and reduce emissions by incorporating a novel propulsion system. By integrating high-temperature fuel cells (FCs) to assist conventional turboshaft engines, the powertrain reduces fuel consumption. Utilizing the Bauhaus Luftfahrt Aircraft Design Environment, various aircraft-level sensitivities and hybridization strategies were assessed. The fuel/payload ratio was identified as a key metric, and enabling FC support during diversion climb while minimizing that ratio shifted the corresponding hybridization degree from 20.3% to 37.2%. Retaining the reference turboshaft-engine for reduced retrofit development costs, a hybridization degree of 20.2% was attainable while the minimum allowable payload was carried aboard. Subsequent off-design mission analysis revealed a decrease in transport efficiency for reduced mission ranges, underlining the importance of market-tailored aircraft designs. The main studies were complemented by a higher-level emission and climate impact assessment to set the basis for more generalized retrofit statements. Full article
(This article belongs to the Special Issue Power Management for Hybrid Electric Aircraft)
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18 pages, 3355 KB  
Article
Energy Management Strategy Under Fuel Constraints for Battery–Fuel Cell-Powered All-Electric Aircraft
by Ayesha R. E. Wise, Sharmila Sumsurooah, Serhiy Bozhko and Seang Yeoh
Aerospace 2026, 13(7), 641; https://doi.org/10.3390/aerospace13070641 - 15 Jul 2026
Viewed by 438
Abstract
Sustainable aviation is an ever-growing field, with feasibility, safety, and longevity being key areas of concern. Future electric aircraft will rely on multiple energy sources. Batteries can provide a fast response to changes in power demands, and fuel cells offer high energy density [...] Read more.
Sustainable aviation is an ever-growing field, with feasibility, safety, and longevity being key areas of concern. Future electric aircraft will rely on multiple energy sources. Batteries can provide a fast response to changes in power demands, and fuel cells offer high energy density for prolonged operation. This work has developed an energy management strategy (EMS) aimed to minimise the overall energy consumption from these sources. The EMS is further designed to respect the operational limits of each component. It investigates three EM approaches to account for the hydrogen consumption restriction, namely the unconstrained method, the fixed-limit method, and a novel depletion-aware method. The unconstrained method assumes there is an unlimited amount of hydrogen, meaning it uses 14.81% more hydrogen than is available, whereas the fixed-limit approach applies the maximum amount of hydrogen available within the fuel tank. However, when there is no hydrogen available, the fuel cell shuts down immediately. This work introduces a novel depletion-aware approach which is conscious of reaching the hydrogen supply minimum limit and, hence, allows for greater use of the battery energy during this period. This allows for better coordination between the battery and fuel cell. The three EMSs are simulated and verified in MATLAB/SIMULINK. The simulation results are then validated using software-in-the-loop in dSPACE. The work demonstrates that the depletion-aware approach has distinct benefits compared to the other two methods as it constrains the fuel consumption and allows a smoother transition between energy storage devices and provides a scalable energy management strategy applicable to a range of all-electric and hybrid-electric aircraft. Full article
(This article belongs to the Special Issue Power Management for Hybrid Electric Aircraft)
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