Red Bull Wingsuit Flying: What Most People Get Wrong About These Flights

Red Bull Wingsuit Flying: What Most People Get Wrong About These Flights

Gravity is relentless. It doesn't care about your sponsor deals or how many cameras you've strapped to your helmet. When you’re standing on the edge of a cliff in a suit that makes you look like a flying squirrel, the math is pretty simple: you are falling. But Red Bull wingsuit flying has turned that fall into something that looks suspiciously like flight. It’s not just about the "wings." It is about a massive energy drink brand pouring millions into a sport that most insurance companies won't even acknowledge exists.

Honestly, the term "squirrel suit" is kinda funny, but the reality is terrifying. You’re wearing a specialized jumpsuit made of high-tenacity nylon with fabric membranes between the legs and under the arms. These membranes, or "wings," create surface area. When air fills them, they become an airfoil. Suddenly, that vertical drop gains a horizontal component. Top-tier pilots like Peter Salzmann or the late Valery Rozov didn't just fall; they glided at ratios that seem to defy physics.

The Physics of a Red Bull Wingsuit Flight

How does it actually work? Most people think you just jump and fly like Superman. Not quite. You’re basically a human glider. The goal is "glide ratio," which is the distance you travel forward for every foot you drop. A world-class pilot can hit a 3:1 ratio. That means for every meter they fall, they move three meters forward.

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Speed is your friend here. If you go too slow, the suit stalls. You lose lift. You tumble. To keep the suit pressurized and rigid, you need air rushing into the inlets at high speeds, often exceeding 100 mph. Red Bull has pushed this tech further than almost anyone else by funding R&D that individual jumpers simply couldn't afford. They’ve moved from basic nylon kits to carbon-fiber-reinforced setups and even electric-powered impeller systems.

Take Peter Salzmann’s 2020 project in the Austrian Alps. He didn't just jump; he used an electric drive system developed with BMW i and Red Bull Advanced Technologies. It featured two carbon impellers spinning at 25,000 rpm. This wasn't just falling—it was powered flight. He hit speeds of over 186 mph. That is faster than a Ferrari on a straightaway, but with nothing between him and the mountain air but some fabric and a battery pack.

Why Red Bull Dominates This Space

Red Bull isn't just a drink company; they’re a media powerhouse that happens to sell cans of caffeine. Their involvement in wingsuiting changed the sport's trajectory. Before the big money came in, B.A.S.E. jumping and wingsuiting were underground, gritty, and—let’s be real—frequently illegal.

They brought structure. And cameras. Lots of cameras.

By sponsoring athletes like Jeb Corliss or the Soul Flyers (Fred Fugen and Vince Reffet), Red Bull shifted the focus from "look at this crazy person" to "look at this incredible feat of engineering and human skill." They turned proximity flying—the act of hugging the contours of a mountain—into a high-definition spectator sport.

The Cost of Innovation

It’s not all Red Bull Stratos-style glory. This sport has a dark side. The margins for error are non-existent. When you are proximity flying at 120 mph just feet away from jagged granite, a single twitch or a sudden gust of wind is fatal. There’s no "fender bender" in a wingsuit.

Red Bull has faced criticism for this. Some argue that the pressure to create "viral content" pushes athletes to take risks they might otherwise avoid. However, the athletes themselves often disagree. For them, the sponsorship provides the resources for better gear, more training jumps, and professional weather monitoring. It's a trade-off. You get the funding to do the impossible, but you do it with a silver and blue bull on your chest.

Iconic Moments in Red Bull Wingsuit History

You can't talk about this without mentioning the "A Door in the Sky" project. In 2017, Fred Fugen and Vince Reffet jumped off a mountain in Switzerland and landed inside a moving Pilatus Porter plane. Think about that for a second. They had to match the speed and trajectory of a light aircraft and fly through a tiny door. It took over 100 practice jumps. It’s one of the most technical feats ever recorded in human flight.

Then there’s the late Valery Rozov. In 2013, he jumped from the north face of Everest. He spent years preparing for the thin air at 7,220 meters. At that altitude, the air is so thin that the suit doesn't behave the same way. You need more speed to get lift. Rozov’s success was a masterclass in high-altitude logistics and sheer nerves.

What Most People Get Wrong

People think wingsuiting is just B.A.S.E. jumping with more fabric. That's a mistake. While many wingsuit flights start from fixed objects (B.A.S.E.), many start from planes (Skydiving). The skill sets overlap, but the physics are distinct.

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  • The "Landing" Myth: No, you can't land a wingsuit on the ground like a bird. Not safely, anyway. You almost always deploy a parachute. There have been a few "stunt" landings into boxes or nets, but they are incredibly dangerous and not a standard way to end a flight.
  • The Ease of Entry: You don't just buy a suit and jump. Most associations require at least 200 skydives before you even put on a wingsuit. You need to understand air pressure, body positioning, and emergency procedures instinctively before adding the complexity of "wings."
  • The "Adrenaline Junkie" Label: Many Red Bull pilots are surprisingly calm, calculated people. They aren't looking for a "rush" as much as they are looking for a flow state. It’s about precision. If you’re shaking with adrenaline, you’re going to make a mistake.

The Future: Electric and Beyond

Where do we go from here? The Salzmann project proved that electric propulsion is the next frontier. We are moving away from "falling with style" toward true, sustainable human flight. Imagine a suit that doesn't just glide down a mountain but can actually gain altitude.

We are also seeing massive leaps in "augmented reality" for pilots. Heads-up displays (HUDs) inside helmets are being tested to show glide ratios, wind speeds, and terrain mapping in real-time. This tech, often refined through Red Bull's racing and aeronautics divisions, makes the sport marginally safer by giving pilots better data.

Practical Steps if You're Interested

Look, you aren't going to be the next Red Bull athlete tomorrow. But if this world fascinates you, there is a path. It’s long, expensive, and requires a lot of dirt-diving.

  1. Start at a Dropzone: Find a USPA-certified (or your local equivalent) skydiving center. You need to become a proficient skydiver first. Period.
  2. Log Your Jumps: You need about 200 stable freefall jumps. Use this time to learn "canopy control." Your parachute is what keeps you alive at the end of every flight.
  3. Take a First Wingsuit Course (FWC): Once you have the numbers, find a dedicated wingsuit instructor. They will teach you how to "zip in" and, more importantly, how to deal with the restricted arm movement that causes most beginners to panic.
  4. Study the Tech: Read up on wing loading and airfoil design. Brands like Squirrel or Phoenix-Fly have extensive manuals on how different suits handle.
  5. Respect the Weather: Learn to read METARs and understand micro-climates. In wingsuiting, the wind at the top of the cliff is rarely the same as the wind 1,000 feet down.

Red Bull wingsuit flying has pushed the boundaries of what we thought the human body could do. It's a blend of high-stakes athleticism and cutting-edge engineering. Whether you view it as the ultimate expression of freedom or a terrifying gamble, you can't deny that it’s changed our relationship with the sky forever. Just remember: the mountain always wins in a tie. Respect the glide, do the math, and never skip the prep work.

To dig deeper into the specific aerodynamics of modern suits, research the "square footage" to "drag coefficient" ratios used by manufacturers to stabilize high-speed proximity lines. Knowing the math won't make you fly, but it might keep you from stalling.