
The vehicle that achieved 1000 mph is the Bloodhound LSR, a jet and rocket-powered supersonic car designed for land speed records. It's not a road car but a specialized machine built solely for extreme speed testing.
| Metric | Data | Context |
|---|---|---|
| Top Speed Achieved | 628 mph (1,010 km/h) | Test run in South Africa, 2019 |
| Target Speed | 800+ mph (1,287+ km/h) | Original program goal |
| Jet Engine | Eurojet EJ200 | From a Eurofighter Typhoon |
| Rocket System | Nammo hybrid rocket | Provides additional thrust |
| Power Output | ~210,000 horsepower | Combined thrust from jet and rocket |
The program has always been about engineering outreach and data collection, not commercial production. It pushed materials science to its limit, providing real-world data at hypersonic velocities. The project demonstrates how extreme motorsports fuel broader technological advances. Its design teaches us about control at transonic speeds.

I followed the Bloodhound project for years as an student. What's wild isn't just the speed, but how they solved basic problems. Cooling the rocket oxidizer tank, for instance, or preventing the solid wheels from disintegrating. They tested those wheels at speeds simulating 1,050 mph using a huge spin rig. The team's public data logs were a treasure trove. You see the sheer scale of challenges that never make the headline speed figure. It’s a reminder that top speed is just one number in a sea of engineering crises. The real achievement was managing a thousand small failures.

Let's be real, calling it a "car" is a stretch. My tuned street car makes 800 horsepower and that feels insane. Bloodhound's jet engine alone makes over 20,000 horsepower. The fuel burn rate is measured in gallons per second, not miles per gallon. It's a low-flying airplane without wings. The cost and complexity are so far beyond automotive, it's practically a space program. Fascinating machine, but it shares zero DNA with anything in a dealership.

As someone who's worked at Bonneville for speed week, vehicles like ThrustSSC and Bloodhound are in a totally different league. We're tweaking carburetors and body panels; they're managing shockwaves. The big takeaway from their 2019 runs in South Africa's Hakskeen Pan was the surface preparation. Volunteers cleared over 16,000 tons of rock by hand to create a 12-mile track. That's the untold story—the logistics. For a 50-second run, you need months of site work. Their data on how the solid aluminum wheels interact with a meticulously groomed surface is priceless for our lower-speed efforts. It shows that the track is part of the machine.

Honestly, the most impressive part to me is the cockpit. Watch the in-car footage from the 628 mph run. The desert is just a blur, but the vehicle is surprisingly steady. Driver Andy Green is calmly calling out Mach numbers. The noise from the jet is a distant roar behind him. It feels more like a missile test than a drive. That calmness at that speed is utterly unnatural. It proves the stability work paid off. The human element in that machine is what gives the numbers meaning. Pure focus in a metal .


