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PUMA Innovations

More than ideas: Constantly changing the game to be Forever Faster.

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NETFIT

Our Obsession With Fit

For a long time now, we have been obsessed with the fit of our PUMA shoes. And why shouldn’t we be? A perfect fit can make or break an athlete’s performance.
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Our obsession began in the 60s with the Brush Spike, the first track spike to use a thick-strapped touch fastener instead of thin laces. The 80s brought PUMA Disc, which used cables throughout the shoe to fasten it firmly to the foot. NetFit technology takes the individuality of athletes into account and provides the ability to customize the fit. You can lace your NetFit shoes any way you want to achieve the perfect fit. No matter the foot shape or lock-down need. Experiment with the lacing system, adapt it to your fit specifications, whether wide or narrow footed. NetFit works, is individual and it’s cool.

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Simplicity at its finest

The best new ideas sometimes come from established ideas sitting right in front us. This time, a regular walk through the fruit section of the supermarket was what sparked a technological revolution. And it didn’t stop there. At PUMA, we make fast first prototypes with the energy of our initial idea. That’s the best way to quickly know if it’s a good one or not. This one proved to be good.

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Not The Same Old Mesh. More Sports. A Cool Look.

Using mesh on a sport shoe is old news. The first prototypes we built used the standard material found at most shoe factories. But for us that wasn’t enough. We were demanding more of the mesh, more performance. It needed to withstand the constant pull of laces. First attempts to lace up the shoe failed. The mesh ripped. What to do?

Instead of giving up we broadened our horizons, we looked beyond the shoe industry to find a suitably strong mesh. We hit the mark in the automotive industry: An industrial grade mesh, usually used in trucks to hold heavy cargo. In the end, we worked with the mesh factory to develop a completely new mesh with the strength to hold cargo, but the flexibility needed for shoes.

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Once we got NetFit to work in a running shoe, we realized every athlete wants great fit in their shoe. And those who require a durable and lasting fit would require it too. So, we expanded into other disciplines and the first shoe after the initial running shoe was a sprint spike. Sprinters need precision fit to get them out of the starting blocks securely and in the many strides of their race without loosening. Basketball players need unchanging support when they cut from side to side. And footballers need fit along with durability to withstand passes and runs for 90 minutes. These requirements of the needed material made it more challenging to find it, but oh so much more rewarding to finally present the results.

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PUMA Running IGNITE NETFIT
PUMA soccer shoe

Another striking thing about NetFit? Its look.

Or would you choose a functional shoe with a design you don’t like? Today, functionality in a product is not the only thing that makes it sell. How it looks is super important. NetFit shoes make a simple visual statement from afar, but also make a highly detailed impression up close. Add color and it’s a hit!

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JAMMING

Innovating Making

More often than not, coming up with an idea is the easiest part. Getting it done is what needs a few test runs. Jamming completely changed how we bring cushioning qualities to a shoe.
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A FUN-ctional Run

Running can be a lot of science. But it should be just as much fun. Not everyone is set on winning a race. The feeling of running, experiencing freedom and your own energy is just as rewarding. Everyone loves the feeling of running in sand. We asked ourselves: how do we recreate the same sensation in a shoe?

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This was the starting point for PUMA Innovation experts. The first Jamming midsole prototype was a midsole “bag” filled with thousands of foam beads. It already felt great during the first test, but it was still unstable. What followed was fast, iterative prototyping. By using the ETPU beads used in our NRGY midsoles, we found a filling for an entirely new adaptive cushioning system. When injected into a polyurethane midsole membrane, they can still move independently with every step. The perfect mix of cushioning and stability.

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PUMA Black Forest

The solution came with an innovative manufacturing process: We had to get hundreds of little beads into a bag and seal it off to let none escape. And all of this had to be possible on a large scale. Just for this purpose, a special machine had to be created. Making one shoe is one thing. Making thousands is another. But we got it done.

The Jamming name was inspired by the work of Skylar Tibbits and the MIT Self Assembly Lab, describing what happens when liquid or beads are placed in small spaces like our midsole and start reacting as larger solids would.

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When you have fun, colorful beads, it would be a shame to not make more of it. For the 2016 Olympics in Rio, Usain Bolt was issued a special vest. Filled with the multi-colored beads of our Jamming shoes. Naturally, the beads were the colors of the Jamaican flag. Fun.

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AUTO­DISC

The Future is Now

2015 was the year we didn’t have to go back to the future anymore for automated footwear. With technology that was first implemented in 1992, PUMA led the way.
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The self-lacing shoe was a dream of the 80s. In 2014, PUMA took on the challenge. Within a year, we created the first automatic lacing running shoe.
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THE FUTURE AT OUR BACKS

Once we got the idea to create AutoDisc, we automatically entered a race to beat the competition. Discover how PUMA Innovation worked faster to develop the first automatic lacing footwear before any other sports brand.

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Bolt unboxes

By connecting the motor via Bluetooth, the user can tighten and loosen their shoe with just a touch on their smartphone. These models were specially created for PUMA athletes competing at the 2016 Rio Olympics. The fastest man in the world, Usain Bolt, was one of the first people to experience PUMA Autodisc. But before we got there, we had to complete our own sprints.

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EVO­POWER

Next Level Power

As a sports brand, PUMA is well-aware of how the human body is capable of incredible feats. Still, discovering the best thing to strike a ball is, in fact, the bare foot was a surprise. It helped us create the most powerful boot in the industry.
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EVOPOWER #startbelieving Experience the power
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PUMA Innovation takes pride in the act of discovery. It fuels real world insights that lead to real world solutions. When we set out to create a new football power concept, we were very clear on a few things:

  • We wanted a relevant football story.
  • A real innovation.
  • No gimmicks.
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Before we started we did our homework and discovered that all the so-called power football shoes, when measured, did not actually deliver on their promise. In fact, the shoe that delivered the best power was not a shoe at all. It was the bare foot. While that shocked and surprised us, it led us to form a hypothesis: Harnessing the natural power of the foot will produce an outstanding power boot. Our research methodology validated our hypothesis and gave us the formula that would come to be known as natural power.

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We created a shoe that could play like a bare foot, with no loss of power and still provide the stability needed for other plays. EvoPower was new. It was different. We enhanced the foot where it was needed and minimized where it wasn’t. The result looks different from other power boots in the industry. And it performs, measurably, better.

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SPEED­CAT

From Concept to Innovation

When we were given the chance to explore a futuristic race suit in the CSL project, we went all out: fireproof cotton, knitted panels in the limbs and midsection, and ergonomically designed 3D arm for increased driver comfort.
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Freeing our creativity

And with the fireproof cotton and knitted panels in the arms and midsection, we created a first-ever innovation. Designing for the future is liberating. You get to make choices that are not necessarily grounded in reality. Those were the conditions when PUMA Innovation designed the CSL Concept Suit alongside BMW.

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For us, that wasn’t enough

Usually, homologation rules for race suits create an extremely limiting environment to do something new and different. Material selections must pass strict safety standards. Concept designing frees you from these restrictions. It allowed us to focus on other things, like driver comfort. We started thinking about using new materials, garment architecture and manufacturing methods previously unseen in a driver suit.

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The CSL Concept Suit uses fireproof cotton and tubular knit articulated panels and sleeves designed to fit the driver when in the driving position. With both hands on the wheel, a driver connects to the car through a digital pathway made visible through integrated LED lights. This pathway provides relevant information to the driver.

In the end, we took the project and turned it into reality: the Speedcat Driver Suit worn by driver champions of the Deutsche Tourenwagen Masters.

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TRIAXAL WEAVE

Weaving Newness

Innovation often starts with a simple approach. In the case of triaxial weave, it started with a simple question: How can materials and sustainable manufacturing methods influence footwear design?
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The answer came with a close look at nature, a simple approach to making things and of course, shoe making. Every now and then, simple approaches produce things that fundamentally change how we see things.
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THE TRIALS OF TRIAXIAL

The idea to create shoes using a triaxial weave machine came to us from PUMA Innovation designer Andreas Siegismund. At the time, Andreas was working on his thesis, which focused on design and sustainability. Andreas’ idea was to use a sustainable fiber and one machine to create the complete upper portion of the shoe.

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Trials of Triaxal

Finding the right material was the biggest challenge. He needed something that was stable enough to go through the triaxial weave machine but also worked well as a performance shoe material. Carbon fiber, nylon, TPU and cotton fibers were all used to create a range of prototypes until we found what we needed.

Thinking we could make a shoe from a weaving machine is pretty bold. Proving we could weave a 360° one-piece upper that has 100% fit to the last is even bolder. Innovating a method of making that provided great fit and style on a fast, sustainable platform shows the boldness and confidence of our brand.

Trials of Triaxial
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Now we can weave an upper in less than 60 seconds on a completely sustainable platform. Direct weave to last, uninterrupted coverage, contouring to the exact shape of the foot – we did it.

Here, it changed how we see our capabilities in manufacturing, in performance and in aesthetics. The triaxial weave machinery became an industry first allowing us to create a seamless, one-piece, 360° upper. It’s used to make cars – and now we’re making shoes.

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EVOKNIT

Football and Chill

Football is strategy, keeping a cool head when things are running hot. Football is passion, introducing heat when things are cooling off. What’s true for the game is equally true for the gear. The question is: How do you increase the thermal conductivity in textiles?
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NEW ACTIVE PLAYERS ON THE FIELD

On the road to the World Cup, we developed the first adaptable thermoregulation football jersey. We started with an investigation into what techniques and materials are used to cool hot objects with air. What quickly became clear was that by adding fins to hot objects, we could increase the cooling capacity. A radiator, like what you would find in a high performance engine, is a classic example.

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In the next step, we had to translate what is usually done with metal fins to textiles. The thermoregulation is achieved with a combination of performance yarns and strategically placed structures based on what we learned from body heat maps: Mesh throughout the body for ventilation and 3D structures imitating fins, providing dynamic cooling beneath the arms.

To engineer the fin-like channels and vents, we used seamless knitting machinery. The additional advantage is ultimate fit and full mobility, allowing for better freedom of movement on the pitch.

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In close communication with our partners and athletes, we put our kit through its paces in all kinds of situations in and out of the lab. From intense heat to bitter cold, from low humidity to downright pouring rain, our players performed on fields and training rooms all-over the world, outfitted in evoKNIT gear. Laboratory validation was done at Loughborough University with simulated temperatures. Parts of our field testing were done at the Stuttgart Innovation Lab in Germany, others in Italy, France, Uruguay and the Ivory Coast. Together with our player partners, including professional players Aguero, Reus, and Griezmann, we created a top-performing thermo-regulated, seamless shirt.

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The RS Computer Shoe

Running on 64k

Today, tracking your athletic performance is pretty natural. Back in 1984, when technology was just entering daily life, PUMA set a new pace in running performance by creating the first wearable sports product.
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Armin Dassler had a vision – sparked by the drive to help athletes perform better through new technology.

When Dr. Peter Cavanagh, a professor of sports medicine obsessed with accurate measurement, met the then PUMA CEO to get his insights into running shoes, it was a perfect match. After learning of Cavanagh’s work, Dassler invited him to become a sport science advisor to PUMA and gave him the chance to bring his research directly to runners. The 80s marked a change: People realized the road to a healthy life simply involved a pair of shoes and the will to endure.

Together with Dr. Peter Cavanagh, we went ahead and attached a computer chip to a running shoe. For PUMA, this opened the doors to researching runner behavior by using scanning and sensing technology – at a time when no-one else was doing so. Cavanagh later even used this methodology to track astronauts in space.

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Cavanagh invented a formula that would allow body-mounted sensors to track a runner’s motion with a precision that has not been achieved elsewhere till this day. Equipped with foot scanners and insole sensors, the PUMA Running Studio – PUMA RS for short – brought it all together.

By attaching a computer chip to the heel of a PUMA running shoe with a Multiplex IV midsole, we made speed, calorie and distance tracking possible – as early as the 80s.

No-one had ever created a shoe with a body-mounted sensor to capture and store data. In fact, it would take 20+ years before anyone else achieved that in a shoe.

RS Computer