If your mental image of a Ford Mustang Mach-E is a quiet electric SUV commuting through Kansas City, prepare to completely recalibrate your expectations.

Ford Racing has taken the basic idea of the Mustang Mach-E and transformed it into something so extreme that calling it a modified production vehicle almost misses the point. The Ford Super Mustang Mach-E is a purpose-built electric hill climb machine producing more than 1,400 horsepower, generating thousands of pounds of aerodynamic downforce and using technology developed specifically to survive one of the most demanding motorsports events in the world.

And Ford hasn't built it simply to park underneath lights at an auto show.

It has raced it.

It has won with it.

It has continued developing it.

And in 2026, Ford and driver Romain Dumas took the Super Mustang Mach-E all the way to the top of Pikes Peak and claimed the title King of the Mountain with the fastest overall time of the event.

Then they took it to England and won the Goodwood Festival of Speed Timed Shoot-Out.

This may have started as an engineering experiment inspired by an electric SUV, but it has developed into one of the wildest performance vehicles Ford has ever built.

For Ford enthusiasts, it also provides a fascinating look at how racing, aerodynamics, electric motors, batteries, regenerative braking and computer simulation could influence future Ford vehicles.

This Is Not the Mustang Mach-E You See in a Dealership

We should start by clearing up one very important point.

You cannot walk into a Ford dealership and order a 1,400-horsepower Super Mustang Mach-E.

The vehicle is an electric demonstrator, meaning Ford created it primarily as a rolling laboratory and competition machine. It shares design inspiration and a name with the production Mustang Mach-E, but underneath the bodywork it is a radically different vehicle.

That is exactly what makes the project interesting.

Ford isn't limited by the normal requirements of a production automobile. Engineers aren't worried about fitting groceries behind the second row, delivering hundreds of miles of everyday driving range or making the suspension comfortable enough for the morning commute.

Instead, they can ask a different question:

What happens if we take electric performance technology and push it as far as possible?

The answer is a Mustang Mach-E silhouette containing three powerful electric motors, a specialized high-performance battery, carbon braking, lightweight magnesium wheels and an aerodynamic package capable of creating almost unbelievable amounts of downforce.

For perspective on how dramatically different this machine is from the street vehicle that inspired it, drivers can explore the production Ford Mustang Mach-E at Chuck Anderson Ford.

The production model is an electric SUV designed for real-world transportation. The Super Mustang Mach-E is what happens when Ford Racing takes that electric performance idea and removes most of the practical limitations.

More Than 1,400 Horsepower

Let's start with the number that gets everyone's attention.

Ford says the Super Mustang Mach-E uses three STARD UHP six-phase electric motors producing more than 1,400 horsepower. The motors send power to all four wheels, giving the car the immediate torque delivery and traction needed for an event as demanding as Pikes Peak.

Those motors are supplied by a specialized 50-kWh lithium-polymer NMC battery, operating through a roughly 799-volt electrical architecture in its original Pikes Peak configuration. Compared with Ford's previous F-150 Lightning SuperTruck demonstrator, the Mach-E package allowed the team to reduce significant weight while improving regenerative-braking capability.

A 50-kWh battery might seem surprisingly small when compared with the battery in a modern long-range production EV.

That's because the Super Mustang Mach-E isn't trying to drive 300 miles.

It needs to attack roughly 12 miles of mountain with enormous power.

Every pound matters. Carrying battery capacity that the car doesn't need would only add unnecessary mass. Ford could therefore optimize the pack around maximum performance rather than maximum driving range.

That is a perfect example of why Ford calls these cars demonstrators. Engineers can explore solutions they wouldn't necessarily use in a production vehicle and discover what happens at the outer limits.

Regenerative Braking at 710 Kilowatts

One of the most fascinating numbers isn't horsepower.

It's 710 kW.

Ford says the Super Mustang Mach-E's electrical system is capable of handling as much as 710 kilowatts of regenerative braking.

Regenerative braking is one of the fundamental advantages of electric propulsion. In a conventional vehicle, braking converts much of the vehicle's kinetic energy into heat at the brake rotors. An electric vehicle can instead use its motors as generators during deceleration, sending some of that energy back into the battery.

Production EVs do this every day.

Ford Racing takes the concept to an entirely different level.

At Pikes Peak, the car is constantly accelerating and braking through 156 turns. Recovering huge amounts of energy during those braking events can help keep energy available for another acceleration zone.

Of course, regenerative braking can't do everything. The Super Mustang Mach-E also uses serious carbon braking hardware for the enormous stopping demands that come with competition.

The interesting part for ordinary Ford customers is what engineers can learn from coordinating those two systems.

How much braking can come from the electric motors?

How much should come from the friction brakes?

How does that balance change with speed, battery temperature and available traction?

How much energy can safely be sent back into the battery?

Ford has specifically said the knowledge collected during these extreme projects contributes to future work involving power delivery, thermal management, regenerative-braking strategy and other production-vehicle development.

That is racing serving as an engineering laboratory.

Then There Is the Downforce

Horsepower might be the first number everyone talks about, but the aerodynamic figures may be even crazier.

In its original Pikes Peak configuration, Ford said the Super Mustang Mach-E could generate approximately 6,900 pounds of downforce at 150 mph.

Read that number again.

6,900 pounds.

The wings, splitters, underbody components and other aerodynamic surfaces are using airflow to push the vehicle into the pavement with several thousand pounds of force.

There is an enormous rear wing. There is an aggressive front aerodynamic package. There are gigantic surfaces that would look ridiculous on a street vehicle because they have not been designed around subtlety.

They have been designed around one objective: grip.

Ford's later development work demonstrated even more extreme capability. During preparation for the 2026 Pikes Peak event, Ford reported that the Super Mustang Mach-E became the highest-downforce vehicle tested in Ford's new rolling-road wind tunnel, with as much as 12,000 pounds of downforce available in certain conditions.

That's closer to aircraft-level aerodynamic thinking than conventional street-car design.

The challenge is that maximum downforce isn't automatically the same thing as useful downforce. Engineers need aerodynamic balance. If the front of the vehicle creates too much relative to the rear—or vice versa—the driver may lose confidence.

They also have to consider Pikes Peak's altitude.

The race begins thousands of feet above sea level and finishes at 14,115 feet. As the car climbs, the air becomes thinner. Thinner air means aerodynamic devices create less force, so a vehicle that feels perfectly balanced lower on the mountain can behave differently closer to the summit.

Ford had to engineer around that changing environment.

Why Ford Keeps Going to Pikes Peak

The Pikes Peak International Hill Climb is sometimes called The Race to the Clouds, and there are few motorsports events like it.

The complete course stretches 12.42 miles and contains 156 turns. Drivers climb 4,725 feet before reaching the finish line at an elevation of 14,115 feet. Weather at the bottom can be completely different from conditions near the top.

For a traditional combustion engine, altitude creates another problem: oxygen.

As air becomes thinner, there is less oxygen available for combustion. Turbocharging can compensate for some of that, but the environment remains challenging.

An electric motor doesn't need oxygen to make power.

That makes Pikes Peak an especially interesting environment for extreme EV development.

But electric vehicles face their own challenges. Battery temperature must be controlled. Motors and inverters create heat. Braking systems are repeatedly punished. Aerodynamics change with altitude. Tires must operate through dramatically different conditions.

In other words, Pikes Peak removes one traditional limitation of internal combustion while creating a laboratory full of new problems for Ford's EV engineers to solve.

The Super Mustang Mach-E Was the Third Chapter

Ford didn't simply wake up one morning and decide to create this Mach-E.

The project came after several years of increasingly extreme electric demonstrators.

Ford attacked Pikes Peak in 2023 with the spectacular SuperVan 4.2, another high-powered electric vehicle developed with STARD. Romain Dumas drove it to an Open Class record.

For 2024, Ford created the F-150 Lightning SuperTruck, an almost unrecognizable racing machine shaped vaguely like a pickup and producing enormous power and downforce.

Then came the Mach-E.

Ford announced in early 2025 that its third consecutive electric Pikes Peak demonstrator would be derived from Mustang Mach-E, again with Dumas behind the wheel.

Compared with the Lightning SuperTruck, Ford designed the Super Mustang Mach-E to be lighter, more nimble, better balanced and capable of increased regenerative braking.

It wasn't simply another body wrapped around the same hardware.

It was another stage of development.

Ford was learning from one car and putting those lessons into the next.

The Strange 2025 Pikes Peak Debut

The Super Mustang Mach-E made its competition debut at Pikes Peak in June 2025.

Unfortunately, Mother Nature didn't cooperate.

Extreme weather near the summit forced organizers to shorten the course dramatically. Instead of completing the normal 12.42-mile run all the way to the top, competitors raced on a much shorter section ending around Glen Cove.

Dumas recorded a time of 3:42.252, giving Ford the fastest time in its class on the shortened course.

It was a victory, but it also left unfinished business.

Ford had designed this car to attack the entire mountain.

The weather had prevented the team from finding out what it could really do.

So Ford came back.

Ford Returned in 2026—and Won the Whole Thing

This is where the Super Mustang Mach-E story becomes much more significant.

Rather than treating the 2025 project as a one-year publicity exercise, Ford Racing spent another year studying and improving the car.

Engineers scanned the vehicle and compared its physical dimensions with the original computer-aided design data. They measured its center of gravity and moments of inertia. They performed kinematics and compliance testing. They studied steering precision, roll stiffness, suspension geometry and friction within the suspension system.

The team used sophisticated multi-post test rigs to reproduce suspension movement and aerodynamic loads. Dumas worked with engineers in Ford's driver-in-the-loop simulator. Virtual drivers completed thousands of simulated Pikes Peak runs. Engineers used pressure measurements, computational fluid dynamics and Ford's rolling-road wind tunnel to better understand how air moved around the car.

Then, on June 22, 2026, Dumas pointed the Super Mustang Mach-E toward the summit.

This time, they got the full course.

The result was 8:18.202.

That was the fastest overall time of the 104th running of the Pikes Peak International Hill Climb, making Romain Dumas King of the Mountain for the sixth time and delivering Ford Racing its second overall Pikes Peak victory.

Ford also won the new Unlimited — Production Based category.

The car that weather had prevented from showing its full potential in 2025 returned one year later and won the entire event.

Number 125 Had a Special Meaning

Ford changed the car's race number for the 2026 event.

The Super Mustang Mach-E carried No. 125.

That number celebrated 125 years of Ford involvement in racing.

Henry Ford famously entered a race in 1901 and defeated Alexander Winton in an event that helped attract the investment needed for Ford's future automotive ventures. Fifteen years later, Ford vehicles participated in the first Pikes Peak Hill Climb in 1916.

In 2026, Ford Racing connected those two histories by sending one of the most advanced electric race cars the company has ever constructed up the same mountain.

The technology could hardly be more different.

The philosophy is surprisingly similar.

Ford has long used competition to prove ideas, develop technology and demonstrate engineering capability.

The Super Mustang Mach-E is simply a 21st-century version of that tradition.

Then Ford Took the Mach-E to Goodwood

Winning Pikes Peak would have made 2026 a successful year by itself.

Ford wasn't finished.

The Super Mustang Mach-E traveled to England for the Goodwood Festival of Speed, where it competed in the famous Timed Shoot-Out up Goodwood's 1.16-mile hill.

Once again, Romain Dumas was driving.

And once again, the Mach-E won.

Dumas completed the 2026 Goodwood shootout in 41.98 seconds, beating the competition—including the latest Formula E machinery—and giving Ford Racing its third consecutive Goodwood Timed Shoot-Out victory with one of its extreme electric demonstrators.

The progression is impressive.

In 2024, Dumas won at Goodwood in SuperVan 4.2 with a 43.98-second run.

In 2025, he drove the F-150 Lightning SuperTruck to a 43.22.

In 2026, Super Mustang Mach-E dropped Ford's winning time to 41.98 seconds.

Three radically different Ford EV demonstrators.

Three consecutive victories.

And continuous improvement.

Romain Dumas Is a Huge Part of the Story

You don't hand a 1,400-plus-horsepower experimental hill climb car to just anyone.

Romain Dumas is one of the world's most experienced hill climb and endurance racing drivers. His résumé includes major victories in international endurance racing, and he has an extraordinary history at Pikes Peak.

Most importantly, Dumas holds the outright Pikes Peak course record, set in 2018.

His experience is valuable to Ford for more than his ability to drive quickly.

Development drivers provide engineers with information that sensors alone cannot.

A sensor can tell engineers how much a suspension component moved.

Dumas can tell them whether that movement made the vehicle difficult to place precisely at 120 mph.

Data can reveal steering forces.

A driver can explain whether those forces inspire confidence.

Simulation can predict how a setup should behave.

Dumas can tell Ford what actually happens when he reaches a corner with a massive drop on the other side.

That relationship between engineering data and human feedback is a major part of race-car development.

What Does Any of This Have to Do With Your Mach-E?

Obviously, the Mustang Mach-E sitting in a customer's garage isn't going to generate 6,900 pounds of downforce or regenerate electricity at 710 kW.

That's not the point.

The transfer from racing to production rarely works by taking a complete race-car system and installing it unchanged into a street vehicle.

Instead, engineers learn principles.

Ford can study battery chemistry under extreme discharge rates.

It can learn how cells behave when repeatedly asked to produce enormous power.

Engineers can develop better thermal-management strategies.

They can study regenerative braking and how it interacts with mechanical brakes.

They can improve motor control, inverter performance and software calibration.

They can refine simulation tools.

They can improve aerodynamic modeling.

They can test suspension-development processes.

Perhaps equally importantly, the company can train engineers to solve problems quickly in an environment where performance is measurable.

Ford has been very clear about the purpose. The company describes racing as a laboratory, with knowledge from projects such as the Super Mustang Mach-E feeding into future electric and hybrid development.

That means the car isn't an isolated science experiment.

It's part of Ford's broader development process.

The Production Mach-E Is Already a Serious Performance EV

The contrast between the race car and production SUV is enormous, but that shouldn't obscure how capable the normal Mach-E has become.

The road-going Mustang Mach-E has developed considerably since its original introduction. Ford has expanded range, improved charging, refined motor technology and introduced increasingly performance-oriented variants such as Mach-E GT and Mach-E Rally.

Ford has also continued emphasizing electric all-wheel drive, immediate torque and the handling benefits created by positioning the battery low in the vehicle.

Drivers in Excelsior Springs, Liberty, Lawson, Kearney, Smithville and the Kansas City area who want to see the street-going side of Ford's electric Mustang program can explore the 2026 Ford Mustang Mach-E at Chuck Anderson Ford.

No, it isn't the Pikes Peak car.

Your groceries should probably be thankful for that.

But the production Mach-E and the Super Mustang Mach-E are part of the same larger question Ford is attempting to answer: How much performance can electric propulsion deliver?

This Is Why Ford Still Goes Racing

There are easier ways to advertise an electric vehicle.

Ford could film a commercial.

It could put a Mach-E underneath bright lights at an auto show.

It could publish acceleration figures and call it a day.

Instead, Ford has built machines like SuperVan 4.2, the F-150 Lightning SuperTruck and the Super Mustang Mach-E and taken them to places where failure is extremely public.

That's meaningful.

Pikes Peak doesn't care what the computer simulation predicted.

Goodwood doesn't award a trophy because a vehicle had an impressive press release.

The stopwatch gives the answer.

That makes these programs valuable from both an engineering and enthusiast perspective.

Ford gets real data under extreme conditions, while enthusiasts get something equally important: proof that the company still believes performance should be exciting.

The Super Mustang Mach-E Is Absolutely Ridiculous—and That's the Point

There is nothing practical about putting more than 1,400 horsepower into an electric machine with enormous wings and sending it toward a 14,115-foot mountain summit.

That's exactly why projects like this matter.

The automobile industry is undergoing one of the largest technological transitions in its history. Electric power, hybrids, software, advanced batteries and increasingly complex vehicle electronics are changing how cars and trucks are engineered.

Performance cars have an important role to play in that transition.

They make engineers solve difficult problems.

They make new technology interesting.

And they remind people that efficiency and excitement do not have to be opposites.

Ford's Super Mustang Mach-E may look vaguely like an electric SUV, but what Ford has created is closer to a laboratory, race car and engineering statement rolled into one extraordinary machine.

It debuted at Pikes Peak in 2025 and won its class on a weather-shortened course.

Ford refused to stop there.

The engineers spent another year refining aerodynamics, suspension, simulation and vehicle dynamics.

They returned to the full mountain in 2026.

Romain Dumas drove the Super Mustang Mach-E to the summit in 8 minutes, 18.202 seconds and became King of the Mountain.

Then Ford transported the car across the Atlantic and won the Goodwood Festival of Speed Timed Shoot-Out in 41.98 seconds.

More than 1,400 horsepower.

Three electric motors.

All-wheel drive.

A 50-kWh competition battery.

Up to 710 kW of regenerative braking.

Thousands of pounds of aerodynamic downforce.

Two of the world's most famous hill climbs.

Two major 2026 victories.

And an enormous amount of engineering data being carried back into Ford's future vehicle-development programs.

That's what Ford Motor Company has done with the Mustang Mach-E hill climb supercar.

And it may be one of the best examples yet of why Ford's electric future doesn't have to be boring.

If you'd like to see where the road-going side of that technology stands today, explore the Ford Mustang Mach-E at Chuck Anderson Ford in Excelsior Springs, Missouri.

You won't get 1,400 horsepower or a rear wing the size of a dining-room table.

But you'll be driving a vehicle whose name is now attached to one of the wildest electric racing experiments Ford has ever created.