First, let’s define what we mean by “space-age tech.” These are the futuristic technologies developed during and after the 20th-century space race. Although they were initially created for space exploration, many of these innovations have found valuable applications here on Earth. Take satellite communication as an example: initially designed to launch and maintain satellites, it has since become the foundation for navigation, communication, weather forecasting, and more on Earth.

The automotive industry, always quick to embrace innovation, has drawn inspiration from a wide range of fields, including space science and cosmology, to push the boundaries of performance, safety, and efficiency. From GPS to microelectronics, propulsion systems, solar energy, and lightweight materials, cars have benefited from space-age technology in unexpected ways. Here are 10 incredible examples where automakers have looked to the stars for inspiration.

2026 Tesla Roadster

The 2026 Tesla Roadster is set to be a true pioneer in space-age automotive technology. Elon Musk has promised that this second-generation vehicle will showcase some of Tesla’s space travel technologies. Back in 2018, Musk teased a “SpaceX option package” for the Roadster, which includes cold gas thrusters designed to enhance the car’s handling. By 2024, Musk hinted that the Roadster might even be capable of flying, thanks to rocket thrusters derived from SpaceX’s cold-gas propulsion system. Expect unmatched acceleration and maneuverability when this car hits the road.

Chevrolet Corvette (C8)

The C8 Corvette takes performance to the next level, thanks to its lightweight, aerospace-inspired construction. The car features a 6.2-liter LT2 V8 engine producing 495 hp and 470 lb-ft of torque. But it’s the Corvette’s aerospace-grade aluminum frame and carbon fiber components that help reduce weight and optimize performance. The use of precision-engineered materials, such as its carbon-fiber rear bumper, reflects the advanced techniques used in spacecraft design.

1986 Porsche 959

The 1986 Porsche 959 was ahead of its time in terms of both design and materials. The car’s body panels were made from fiberglass-reinforced Kevlar and its floors from Nomex—materials originally developed for aerospace applications. These materials not only reduced the car’s weight but also enhanced its strength and heat resistance, making the Porsche 959 a true technological marvel for its era.

1989 Lexus LS 400

The Lexus LS 400 was the result of six years of research and development, a project involving over 1,400 engineers, 2,300 technicians, and 2.2 million miles of testing. Among the technological breakthroughs in this luxury sedan was the integration of vibration dampers inspired by aerospace technology, which significantly reduced engine vibrations. This was one of the many innovations that helped the LS 400 set new benchmarks for comfort and refinement in luxury vehicles.

1994 Audi A8

The Audi A8, introduced in 1994, was a game-changer for the automotive world, thanks to its use of a space-age-inspired aluminum space frame (ASF). This innovative frame reduced the car’s weight by over 40% without sacrificing rigidity, improving both performance and fuel efficiency. Audi’s use of aerospace materials helped elevate the A8 as a flagship luxury sedan, raising the bar for competitors in the segment.

2005 Ford GT

The 2005 Ford GT draws heavily on aerospace engineering principles, with its carbon fiber chassis and body panels designed for strength and low weight. This is the modern version of the iconic GT40, and it uses advanced aerodynamics and wind tunnel testing—techniques borrowed from spacecraft design. The GT’s construction materials and aerodynamic features make it a top contender in performance and speed.

2014 BMW i8

The BMW i8 is a prime example of space-age technology used to enhance both performance and sustainability. The car’s carbon fiber reinforced polymer (CFRP) chassis, which blends carbon fibers with polymer resin, is lightweight yet incredibly strong. This composite material, inspired by aerospace engineering, allows the i8 to deliver exceptional performance while reducing its environmental impact.

2013 McLaren P1

The 2013 McLaren P1 takes hypercar technology to new heights with its use of aerospace-derived materials and systems. The car’s carbon fiber monocoque (MonoCage) is one of the lightest full-body structures ever designed for a road car. Its dynamic wings generate over 1,300 lbs of downforce, while the F1-inspired Drag Reduction System (DRS) reduces drag by 23%, reflecting the high-performance engineering used in spacecraft.

1997 Toyota Prius

The Toyota Prius was a trailblazer in hybrid technology, using regenerative braking systems that captured and reused energy lost during braking—similar to the energy recapture systems used in spacecraft. This technology helped set the Prius apart in the hybrid market, making it a pioneer in improving fuel efficiency and reducing wear on traditional braking components.

2005 Bugatti Veyron

The Bugatti Veyron’s performance is legendary, and much of its success can be attributed to its aerospace-grade thermal management systems. With a 1,001-hp W16 engine, the Veyron needed an advanced cooling system capable of handling extreme heat. Using materials derived from aerospace technology, the Veyron’s system, which includes ten radiators, allowed it to break the 250-mph barrier, cementing its place as one of the fastest production cars ever made