Qwicklane: The World's First Electric Ski Touring Binding, Explained
- Colton Barry
- 15 hours ago
- 7 min read
Three friends from Bavaria put a motor in a touring binding. The interesting part is what the binding can learn and understand about your stride.
Every ski tourer knows the move. The skin track gets steeper, you want the tall riser, so you stop, plant a pole, flip it around, and start poking at the climbing aid behind your heel. Sometimes you get it on the first try. Sometimes you don’t. And sometimes you decide it isn’t worth the hassle and just burn your calves through the next pitch. That’s probably closer to how most of us actually tour:
Spending a lot of time in a riser position that’s good enough because changing it is annoying.
A Bavarian startup called Qwicklane decided that was a problem worth solving. Their answer is the Easy 1.0, the first ski touring binding I know of with a motor built into the heel. I’ll admit that my first reaction was somewhere between “interesting” and “why?” But after digging through the specs and a few German-language test reports, the design makes a lot more sense than I expected.
It Started With a Frustrating Day in the Dolomites
The idea came to Lukas Ernst while ski touring in the Dolomites. On a steep, icy section, he kept stopping to adjust his girlfriend’s climbing aid, even though stopping and reaching around behind the ski was exactly what neither of them wanted.
Back home, Ernst and Johannes Sellmaier—a mechanical engineer and embedded-systems specialist—started prototyping a better solution. Two government founder stipends helped fund the early work, while extensive 3D printing let them iterate without paying for expensive injection-mold tooling. Dominik Riediger, a former German alpine team racer, joined roughly 18 months later to handle the business side.
One of their better decisions was not trying to reinvent the entire binding.
Qwicklane partnered with Dynafit and uses a standard Dynafit Radical toe piece, mounted on a 5 mm spacer, along with a Dynafit brake. Qwicklane focused its development work on the heel.
For a three-person startup, that makes a lot of sense. The toe is safety-critical, heavily tested, and the product of decades of refinement. Rather than duplicate all of that work, Qwicklane could concentrate on the one part of the binding it actually wanted to change.
The partnership also gave the team access to Dynafit’s testing facilities, where the system was put through lab testing before launch.
So What’s Actually Inside the Heel?
The Qwicklane heel sits on a rail system and uses a standard Dynafit mounting pattern, so from an installation standpoint it isn’t some completely alien piece of hardware.
The housing is made from glass-fiber-reinforced POM, an engineering plastic commonly used in gears, bearings, and other low-friction mechanical components. It handles cold well, absorbs little moisture, and has good dimensional stability—all useful qualities for something expected to spend its life getting frozen, wet, loaded, and unloaded thousands of times.
Inside the heel is a worm-drive actuator connected to an electric motor.
That choice is important. Worm drives can create a lot of torque reduction in a compact package and are commonly used in applications where the output needs to hold its position. Here, the motor only needs power while the heel is rotating. Once the riser is in position, the mechanism holds it there without continuously drawing from the battery.
You control it with a small Bluetooth remote with plus and minus buttons. The remote can be mounted to a pole grip, pack strap, glove, or jacket.
There are three climbing-aid positions, and changing between them takes about one second.
That alone is useful. The cleverer part is knowing when to move.
The Sensor is the Most Interesting Part
The binding doesn’t just rotate whenever you press the button. Sensors in the heel detect when your boot is putting pressure on the climbing aid. If you ask the binding to change positions while your heel is loaded, nothing happens immediately. Instead, it remembers the command and waits until your heel lifts during the next stride...
Then it moves.
That means you don’t have to stop walking. The adjustment happens during the natural moment in your stride when the heel piece is already unloaded. It’s a simple idea, but it solves one of the biggest mechanical problems with motorizing a climbing aid. Rather than asking a small motor to force the heel piece around while a skier is standing on it, Qwicklane waits until the load disappears.
The hands-on testers at Skimo Austria noticed another benefit that may matter just as much in practice:
When changing riser heights becomes effortless, you start doing it far more often.
Instead of picking one position and leaving it there through rolling terrain, you can adjust your ankle angle for every steeper pitch or flatter section. The advantage isn’t simply saving yourself from reaching behind your ski. It makes you more likely to use the climbing aids the way they were intended in the first place.
The Numbers
Added weight from the electronics: 75 g per binding for the motor and battery, according to Qwicklane
Total weight: under 500 g per side without the brake; under 570 g per side with the brake, according to manufacturer figures reported by PRIME Skiing
Release value: Z 5–10, with interchangeable Z6 and Z8 spring forks for vertical release
Battery: removable, cold-weather cell charged by USB
Battery life: at least 120 adjustments per charge, or roughly three tours
Temperature rating: no reported loss of function down to −20 °C
Heel adjustment range: roughly 20 mm without an additional adjustment plate
Price: €799 at launch and through European specialty retailers
Boot compatibility: touring boots with standard tech inserts
The 75 g figure is the one that caught my attention.
A complete Dynafit Radical weighs around 520 g per side. That puts the Qwicklane in roughly the same territory as a normal full-featured touring binding rather than creating a separate, much heavier category of “electric” hardware.
Seventy-five grams isn’t nothing in ski touring. But it’s also about the weight of an energy gel.
If Qwicklane had added 300 grams per ski to accomplish the same thing, I’m not sure this product would make much sense. At 75 grams, the tradeoff becomes a more interesting conversation.
The Obvious Questions
What happens if the battery dies?
You keep skiing.
The climbing aids can still be rotated manually just like those on a conventional tech binding. Switching the heel into ski mode for the descent is also done by hand, and the electronics shut down completely. That may be the most important design decision Qwicklane made. The motor is an added convenience, not something the binding needs in order to function. If the battery dies, the remote breaks, or the electronics decide they’ve had enough of your January hut trip, you still have a normal mechanical climbing aid underneath it all.
What about avalanche transceiver interference?
This was the question I immediately had too.
You’re putting a motor, battery, and Bluetooth radio on each ski, fairly close to the avalanche transceiver you’re wearing on your body. Electronics and beacons are not always great neighbors.
Qwicklane says it conducted EMC testing on the complete system, including the remote, and found no measurable interference at the 457 kHz frequency used by avalanche transceivers. That’s encouraging, but I’d still like to see independent testing from an avalanche-safety organization or transceiver manufacturer before treating the question as completely settled. For now, it’s a manufacturer-supported claim worth keeping an eye on.
What happens when the heel fills with ice?
The electronics and drivetrain sit inside a sealed enclosure, and the worm-drive system was designed with enough torque to continue operating through ice buildup.
Skimo Austria’s testers specifically tried to get the system to jam or stop working and reported that they couldn’t.
Long-term use is another question, though. A few aggressive test days and several winters of freeze-thaw cycles are not the same thing.
Would I Actually Want One?
I expected to get to this point and make some joke about e-bikes finally reaching the skin track. But the comparison doesn’t really work. An e-bike adds propulsion. Qwicklane doesn’t make climbing easier in that sense. You still move yourself and your skis uphill exactly as before. What it removes is one small, repetitive annoyance—and occasionally an awkward one—during the ascent. Maybe the better comparison is power windows in a car. You can absolutely live without them. For decades, everyone did. But once the button is there, reaching over and cranking the window by hand suddenly feels unnecessary.
There are still plenty of reasons to hesitate. €799 is expensive. The electronics have a few seasons of real-world history rather than a few decades. U.S. availability appears limited at this point in time. There’s also a higher standard for putting new technology into a ski binding than there is for putting it into a jacket pocket. Bindings are safety equipment. Even though Dynafit supplies much of the proven hardware and the system has gone through lab testing, buyers are still trusting a relatively new heel design from a small company.
What I like is that Qwicklane seems to understand that.
They didn’t try to motorize everything. They left proven pieces alone, added only 75 grams of electronics, used a sensor so the motor never has to fight the skier’s weight, and made sure the binding still works normally if the electronic system fails. That’s a much more convincing approach than adding technology simply because you can. And the current version may only be the beginning. Qwicklane has suggested that the sensors already in the binding could eventually support features such as performance tracking or automatic riser selection through software updates. A touring binding that recognizes the terrain, watches your stride, and chooses the appropriate climbing aid on its own suddenly doesn’t sound all that far away.
Qwicklane put the first motor in a ski binding. I doubt it will be the last.
Comments