February 21, 2019

British aerospace company BAE Systems launched the first flight of a solar-powered drone named Phoenix, designed to stay aloft for over a year.


Woomera, Australia | BAE Systems

Watercolor painting based depiction of British aerospace company BAE Systems launched the first flight of a solar-powered drone named Phoenix, designed to stay aloft for over a year. (2019)

BAE Systems’ Solar-Powered Drone Phoenix First Flight on February 21, 2019

On February 21, 2019, BAE Systems, a leading British aerospace and defense company, marked a significant milestone in aviation technology with the inaugural flight of its solar-powered drone, Phoenix. This unmanned aerial vehicle (UAV) was designed to demonstrate an advanced capability in sustainable aviation with its ability to remain airborne for extended periods, potentially over a year, using renewable energy.

Background and Development

The development of Phoenix is a part of BAE Systems’ effort to explore innovative solutions in aviation technology, specifically focusing on High-Altitude, Long-Endurance (HALE) systems. This effort aligns with a broader industry trend towards reducing carbon footprints and increasing energy efficiency in aerospace technologies.

The project received backing from the Ministry of Defence (MoD) and various aerospace technology funds, as it promised strategic advantages by enabling persistent observation and communication services without the need for frequent landings.

Design Features

  • Solar Power Utilization: Phoenix leverages photovoltaic cells lined along its wings, harnessing solar energy to charge its onboard batteries. This power strategy supports long-duration flights without reliance on traditional fuel sources.
  • Advanced Materials: The airframe incorporates lightweight, durable materials that enhance its efficiency and endurance in high-altitude environments.
  • Innovative Control Systems: Equipped with sophisticated flight control systems, Phoenix can operate autonomously for extended durations, maintain its designated flight parameters, and adjust to environmental conditions.

Significance and Implications

The successful flight of Phoenix represents a step forward in the quest for sustainable aviation solutions. It underscores the potential for solar-powered HALE systems to fulfill military, scientific, and commercial roles, such as surveillance, data collection, and communication relay.

Advancements in this technology could lead to significant cost savings by reducing the need for frequent maintenance and fuel consumption. Additionally, its persistent flight capability opens new opportunities for continuous coverage in remote or hard-to-reach areas without logistical challenges associated with traditional aircraft.

Aftermath

Post its successful test, Phoenix became a part of BAE Systems’ broader portfolio of advanced aerospace solutions. It spurred further research and development into autonomous, renewable energy-powered flight within the industry. The project serves as an incubation ground for technologies that might revolutionize future aerospace endeavors, aligning with global sustainability goals.