The Mid-America Flight Museum's Gee Bee QED (R6) replica on display at EAA AirVenture represents a rare and technically sophisticated piece of Golden Age racing history brought back to airworthy status. Built around 2012 from plans that surfaced in the early 2000s, the aircraft was constructed by the late Jim Moss before eventually landing in the Mid-America Flight Museum's collection after a period of static display and storage. Unlike the notoriously unstable and deadly Gee Bee R1 and R2 racers that earned the type its dangerous reputation, the QED was designed as a cross-country racer rather than a pylon speed demon, and by all accounts from Director of Operations Kelly McMahon, it flies as a surprisingly stable, well-mannered airplane—cruising at roughly 200 knots, stalling around 83 knots, and touching down just under 90 knots. The aircraft's red-and-white paint scheme often triggers confusion with the more infamous Gee Bee racers, but the QED's flight characteristics and mission profile are fundamentally different.
What makes this restoration particularly noteworthy to working pilots and warbird/vintage aircraft operators is the engineering rigor applied to solving a problem that plagued the entire Gee Bee lineage: aileron flutter. The original 1930s-era Gee Bees were built at a time when aerodynamic understanding lagged behind the speeds these racers were achieving, making flutter a lethal and poorly understood phenomenon. In restoring this replica, the museum's team—notably including a flutter analysis effort led by Embry-Riddle Aeronautical University students—applied modern engineering analysis to install counterbalanced ailerons and refine the flight control system, effectively resolving a decades-old safety issue with contemporary tools. This is a useful case study for anyone involved in warbird restoration or experimental/exhibition category operations: it demonstrates how modern stress and flutter analysis can retroactively de-risk vintage airframes without compromising historical authenticity, and it underscores the value of partnering with university aerospace programs to bring fresh engineering talent into legacy aircraft preservation.
The powerplant and parts-sourcing story also offers insight into how warbird and replica operators keep irreplaceable aircraft flying reliably. Rather than chasing an exact replica of the original 675-horsepower engine, the team opted for a Wright R-1820 pulled from a T-28B—delivering 1,425 horsepower—paired with a DC-3 propeller and a distinctive cowling borrowed stylistically from an Albatros design. This pragmatic approach, blending parts from multiple type-certificated aircraft with proven maintenance histories, is a common and sensible strategy in the warbird community: it maximizes dispatch reliability and parts availability while preserving the visual and performance character of the original design. McMahon's comment about starter reliability—"you know it's going to start"—speaks directly to the operational confidence that owners and pilots of vintage exhibition aircraft prioritize, particularly when these airplanes are flown to airshows across the country and must perform predictably in front of crowds.
Beyond the technical story, this restoration fits into a broader trend within general aviation's warbird and vintage aircraft community: the shift from static museum preservation toward "living history" operation, where aircraft are restored to flying condition specifically to educate, inspire, and mentor. McMahon's emphasis on honoring veterans and mentoring youth—particularly through the Embry-Riddle collaboration—reflects a growing recognition among museums and private collectors that flying historical aircraft, rather than simply displaying them, creates far more powerful engagement with aviation history and inspires the next generation of pilots and engineers. For business and corporate pilots attending AirVenture, aircraft like the Gee Bee QED replica serve as a reminder of aviation's experimental and often dangerous early decades, and how far flight control engineering, materials science, and safety analysis have advanced. The project also highlights the ongoing role that Part 91 exhibition operations and organizations like the EAA play in keeping these engineering lessons alive and accessible to the flying public.