A novel battery thermal management system for an unmanned aerial
Unmanned aerial vehicle (UAV) is being widely applied in civilian and military fields. Batteries are popularly used as energy source in UAV because of their high power density, long
The adoption of unmanned aerial vehicles (UAVs) for transporting temperature-sensitive payloads offers significant advantages but presents multiple challenges spanning regulatory issues, payload capacity, flight range, temperature control, and battery performance.
Unmanned aerial vehicle (UAV) is being widely applied in civilian and military fields. Batteries are popularly used as energy source in UAV because of their high power density, long lifetime and stable cycles [1, 2]. The battery with a high power density will produce a great chemical reaction heat during cruising.
Additionally, an integrated UAV container design repurposes waste heat from UAV components such as motors and batteries to heat the payload chamber, while cooling is managed through Peltier junctions or refrigeration compressors, with a temperature controller regulating the internal environment using real-time sensor data.
Nevertheless, companies such as Zipline, Matternet, and DHL continue to set benchmarks by integrating advanced thermal management techniques across their delivery ecosystems, highlighting the growing maturity of commercial UAV-based logistics for temperature-sensitive deliveries.
Unmanned aerial vehicle (UAV) is being widely applied in civilian and military fields. Batteries are popularly used as energy source in UAV because of their high power density, long
In the field of aviation, solar-powered unmanned aerial vehicles (UAVs) have attracted attention owing to their high-altitude cruise and the availability of renewable energy, .
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