How a leading Furniture company can implement design-for-cost strategies and launch products faster?

By Lauriane
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Nowy Styl Group is a European leader in comprehensive furniture solutions and the third largest manufacturer of office furniture in Europe. They have selected “My Product Portfolio”, a Dassault Systèmes industry solution experience, to design, develop and deliver more innovative products and accelerate new product introductions.

“Dassault Systèmes’ industry solution experience helps our technical departments, personnel, partners and suppliers better communicate and monitor and detect issues early in the development process to optimize product quality. These capabilities reduce development and manufacturing time and costs and improve our time to market.” said Tomasz Bardzik, CTO Nowy Styl Group.


To understand how Nowy Styl Group can implement design-for-cost strategies and launch products faster and in compliance with sustainability targets and safety norms, Watch the video and Listen to Tomasz Bardzik, CTO of Nowy Styl Group


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3D Won’t Replace Traditional Fashion Design (It Will Make it Better)

By Lauriane
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dressmaking still life - pink measure tape, pins, thimble, shears on fabrics

There’s something about fashion apparel that inspires people. It is, perhaps, the oldest craft, art form, and profession in the world, evolving from the simple utility of animal skins to the modern, purpose-built, tech apparel of today. People are passionate about their clothes: the fit, the color, the style, and the way it compliments their form. And why not? There are so many aspects to enjoy about apparel. There is the coziness of fleece or the comfort of a tee-shirt. Fabrics that, because of the thread construction, shimmer like fluttering fall leaves. There is the bliss of finding those pants with the perfect fit that seem to effortlessly compliment the human form.

Apparel is a fundamentally physical experience, so how can we hope to improve the experience with the cold preciseness of digital technology?

black-and-white-modelHumans tend to be binary in nature: plus or minus, black or white, either/or. The reality is that there is so little in life that is totally clear cut. The truth is generally found all along the line between the extremes, and so it is with physical and digital fashion design. Fashion design is, and always will be, about how a physical garment looks and feels on the body. But the fact remains that there are certain things that are either difficult, or impossible, to do in the real world. Many of these things, however, can be extremely easy to accomplish in the digital domain.

For instance, when creating a physical garment, there is no way to instantly change its color, material, or shape. Further, it takes a massive amount of effort to rearrange a physical retail space in order to try different assortments, layouts, and fixtures. However, making these types of changes are nearly instantaneous in the digital world. And although the digital realm is very good about showing options and allowing you to make changes, it can tell you very little about how a garment feels and nothing about the quality of its construction. And it’s because of this last flaw in digital tools that many in the fashion world often throw these tools out completely.

But is there a middle ground? Is it possible to have the benefits of digital while retaining the authenticity of physical?

joshua-black-whiteMany industries have moved to the concept of the “virtual twin.” A virtual twin is a digital version of something that exists in the real world. This virtual twin often has many of the same attributes of its physical counterpart, such as size, weight, bendability, stretchiness, color, texture, etc. The idea behind this virtual twin is that different scenarios can be tested on the digital version far more quickly and efficiently than having to take the time to construct and test versions physically. This is done routinely in aerospace and automotive industries where real mechanical physics are applied to digital vehicles, which are flown or driven many times before a single physical part is ever created.

So, can this idea of a virtual twin be applied to apparel and fashion? Many companies now make the tools that allow fashion brands to create an apparel virtual twin in order to gain a great number of benefits.

Learn more about 3D in Consumer Goods, Fashion and Retail:

A Step into the Future

By Catherine
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Written by Catherine Bolgar

For the past 15,000 years or so, shoes have been kept firmly underfoot. Now, they are getting smart—in numerous ways.


Running the numbers: The soles of our feet are logical places to collect a range of information, especially about how we walk. Previously, such data—known as gait analytics—could be obtained only in a lab. But in just the past two years, microprocessors have become more powerful and cheaper, making it possible to place advanced sensors inside shoes. 

We feel at some point in time we’re all going to have sensors in our footwear,” says Quin Sandler, chief executive of Plantiga, a footwear technology company in San Francisco and Vancouver.

Plantiga’s first product, not yet on the market, is a razor-thin insert that goes under the shoe’s insole and contains a sensor array to collect gait data and transmit it to a smartphone.

Such sensors have many applications. In sports, they could provide insight into performance, fatigue or energy levels. In health care, sensors could help assess balance or patient recovery. In business, sensors could alert flagging workers to the risk of injury, Mr. Sandler says.

Woman walking

The Fraunhofer Institute for Photonic Microsystems in Dresden, Germany, is also developing a running shoe that can measure biomechanical data and warn runners, via their smartphone in real time, of incorrect foot position or overload.

Sure-footed: Other technological advances in shoe soles aim to reduce the number of slips and falls. These are the second biggest cause of accidental injury deaths worldwide. In the U.S. the direct medical costs of falls among the elderly was $34 billion in 2013.

To reduce such accidents, scientists at the Toronto Rehabilitation Institute are embedding glass fibers in a rubbery material to give soles a better grip on slippery surfaces. Meanwhile, researchers at the National Taiwan University of Science and Technology have found that soles gain most traction when their tread grooves are perpendicular to the walking direction. 

Shock absorbers: The marvels of high-tech footwear engineering also include athletic footwear and high-fashion cantilevered heel-less shoes. Plantiga, for example, is designing working shoes that hold the foot in a micro-suspension system.

“The goal is to make an advanced piece of footwear that would change the impact into the body,” Plantiga’s Mr. Sandler says.

Like a car whose chassis stays parallel to the ground when its tires meet bumps or potholes, Plantiga’s suspension system would protect the wearer’s foot when the shoe hits the ground.

Impact-reducing designs help protect joints from wear and tear. A study at Rush University Medical Center in Chicago found that walking barefoot or wearing flat, flexible “mobility” shoes that mimic the mechanics of walking barefoot, puts less load on the knees—a particularly important issue for osteoarthritis sufferers.

A spring in your step: A wearable boot-like robot, or exoskeleton, can reduce the amount of energy expended in walking by 7%, without adding external power.

“PHuman exoskeletoneople are very efficient, capable walkers,” says Steven Collins, a mechanical engineer and roboticist from Carnegie Mellon University. Many people hypothesized it wouldn’t be possible to improve on walking economy without a synthetic energy source. You might say we beat evolution.”

The exoskeleton consists of a lightweight, carbon-fiber frame that clamps onto the calf and around the shoe. A cable runs from the heel to the back of the knee, where a mechanical clutch engages with each step, locking the cable. When the toe touches the ground, the spring stretches and produces torque around the ankle joint. When the foot leaves the ground, the clutch releases.

The device assumes some of the work done by the Achilles tendon and calf muscles but without consuming energy, making the wearer suddenly feel some 4.5 kilograms (10 lb.) lighter. The equipment has many benefits, including helping the disabled, assisting with stroke recovery, and reducing fatigue for workers—such as soldiers, nurses or postal carriers—whose jobs involve extensive walking.

“We want to help people with disabilities to walk more easily,” Dr. Collins says. “But this is part of a bigger trend toward wearing computers and robots on your body. There are older technologies that we use all the time that we don’t think of as augmentation: eyeglasses, contact lenses, hearing aids, pacemakers. When the technology gets to a point where it’s worth the cost and worth looking a little bit different because you have a shiny carbon-fiber thing on your leg, then I think gadgets like this one will be widely used.”


Catherine Bolgar is a former managing editor of The Wall Street Journal Europe. For more from Catherine Bolgar, contributors from the Economist Intelligence Unit along with industry experts, join the Future Realities discussion.


Photos courtesy of iStock

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