The term pelican mustang often evokes images of powerful American muscle, but it also points to a specific and fascinating intersection of aviation and automotive history. This designation refers to the unique process of mating a Ford Mustang body with a license-built Grumman AA-5 Tiger airframe, creating a rolling sculpture that blends road-going style with certified flight capability. The result is a vehicle that captures the imagination, representing the ultimate expression of personal freedom for a specific breed of enthusiast who dreams of driving to the airport and taking off under their own power.
The Genesis of a Dream: Why Combine Car and Plane?
The appeal of the pelican mustang lies in the fundamental human desire for versatility and adventure. For the average car enthusiast, the dream is simple: drive a beautiful machine. For the aviation-minded, that dream extends to the sky. The pelican mustang kit answered the call, offering a practical solution to the logistical nightmare of transporting a traditional aircraft. Instead of hauling a disassembled plane on a trailer, owners could drive their hangar to the airport, significantly reducing the time, cost, and complexity of private flying. This fusion of transportation modes was not just a novelty; it was a calculated attempt to democratize access to the skies.
Grumman’s Legacy: The AA-5 Tiger Connection
The aviation component of the pelican mustang is not a custom fabrication but a legitimate, FAA-certified aircraft designed by Grumman. The specific airframe used is the AA-5 Tiger, a four-seat, single-engine general aviation plane produced in the 1970s. Known for its durability, forgiving flight characteristics, and efficient performance, the AA-5 was a popular choice for flight schools and private owners. By utilizing an existing, proven design, the pelican mustang project sidestepped the immense regulatory and engineering hurdles of creating a new aircraft from scratch, providing a ready-made flying platform that enthusiasts could modify.
Design and Engineering: The Transformation Process
Converting a Mustang into a flying machine is a monumental task that requires exceptional engineering skill. The process begins with the complete removal of the car’s interior, drivetrain, and rear suspension. A custom-built steel space frame is then welded into the chassis, providing the necessary strength to support the aircraft’s weight and stress loads. The most visually dramatic change is the addition of a retractable main landing gear, housed within the modified wheel wells, and a fixed nosewheel derived from the Mustang’s original front suspension. The wings, constructed from fabric-covered aluminum, are mounted on the spine of the aircraft and can be detached for road transport, allowing the vehicle to comply with vehicle registration laws.
Performance and Practicality: A Dual-Mode Machine
As a car, the pelican mustang retains the iconic stance and aggressive posture of a Mustang, turning heads at any car show. However, its performance is necessarily compromised by the added weight of the aviation components. The engine, typically a modified four-cylinder or small-block V8, must propel thousands of pounds, resulting in respectable but not spectacular road acceleration. In the air, the transformation is remarkable. The vehicle becomes a genuine aircraft, capable of cruising at speeds around 120 knots with a range of approximately 600 miles. This dual-mode capability creates a unique driving and flying experience, where the journey is as much about the transition between modes as the destination itself.
Regulatory Hurdles and the Road to Certification
Perhaps the most significant challenge for the pelican mustang is navigating the complex bureaucracies of transportation authorities. The vehicle must meet the safety standards of both the Department of Transportation (DOT) for road use and the Federal Aviation Administration (FAA) for flight. This dual certification requires extensive testing, documentation, and often, bespoke solutions for issues like lighting, braking, and structural integrity. Owners face the reality that their vehicle is rarely legal to drive and fly in every jurisdiction without specific approvals, making it a project for the dedicated and patient individual who is willing to work within the regulatory framework.
