Fashion collection features solar panels for charging a mobile phone

Flaps in this range of clothing by Dutch fashion designer Pauline van Dongen open up to reveal solar panels, enabling the wearer to become a walking mobile phone charger (+ movie).

Wearable Solar by Pauline van Dongen

Pauline van Dongen collaborated with Christiaan Holland from the HAN University of Applied Sciences and solar energy expert Gert Jan Jongerden on the Wearable Solar project, which aims to integrate photovoltaic technology into comfortable and fashionable clothing.

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“Wearable Solar is about integrating solar cells into fashion, so by augmenting a garment with solar cells the body can be an extra source of energy,” Van Dongen told Dezeen at the Wearable Futures conference in London. “It’s really about the true integration of technology and fashion, which can transcend the realm of gadgets.”

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The dress features 72 flexible cells attached to panels on the front of the garment that can be folded outwards to capture sunlight. Forty-eight rigid crystal solar panels are incorporated into leather flaps on the jacket’s shoulders and waist so they can be revealed when the sun shines and hidden when not in use.

A standard charging plug connects the solar panels directly to a mobile device, and Van Dongen claimed that a garment exposed to direct sunlight for one hour could capture enough energy to charge a typical smartphone to 50 percent capacity.

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Van Dongen said the comfort and weight of these garments could be improved by experimenting with flexible photovoltaic cells, adding that other hardware such as batteries also needs to be refined before wearable technology will become part of everyday life.

“Wearability is very important to my work because I am a fashion designer,” explained Van Dongen. “We’re dealing here with the human body and it’s not just a static body, it’s dealing with movement and expressions, a sensory surface so it’s very important to stress the wearability.”

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“We’re not very far away from people actually wearing these garments that I design,” said Van Dongen, adding that the project team are also currently seeking investment to translate it into a commercially viable enterprise.

“I think it’s important to see which technologies are really ready to be implemented, how people would deal with them, how people would feel in those clothes, what it could mean to them. And of course looking at the cost of these technologies. If you’re integrating 80 solar cells then of course you’re adding to the cost and you have to look at how much people are willing to pay for it.”

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The project is being presented at Wearable Futures, an event showcasing innovations in wearable technologies which is taking place in London from 10-11 December.

Here is some more information from the designer:


Wearable Solar

Solar cells have been constructed to capture solar light and convert it into electricity. Their internal structure is layered and resembles the stratified cells of the human body, which naturally interacts with sunlight. If a body is augmented with solar cells it will embody enough electrical power to become a real source of energy. For the Wearable Solar project, a coat and a dress have been designed placing solar cells close to the body.

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The two wool and leather prototypes comprise parts with solar cells which can be revealed when the sun shines or folded away and worn invisibly when they aren’t directly needed. The coat incorporates 48 rigid solar cells while the dress 72 flexible solar cells. Each of them, if worn in the full sun for an hour, can store enough energy to allow a typical smartphone to be 50% charged. The Sun is the biggest source of energy on earth and now that fossil fuels are depleting, it’s time we come up with a sustainable alternative.

The multi-disciplinary team behind Wearable Solar is composed by: Pauline van Dongen, Christiaan Holland (Project leader Gelderland Valoriseert from the HAN) and Gert Jan Jongerden (Solar-energy expert).

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Solar-powered family car wins race across Australia

News: a vehicle described as “the world’s first solar-powered family car” has come first in a photovoltaic-powered race across Australia (+ slideshow).

Stella, a four-seater car developed by Solar Team Eindhoven from the Eindhoven University of Technology (TU/e) in the Netherlands, today claimed victory in the Cruiser class at the World Solar Challenge 2013.

Stella solar-powered family car

The vehicle completed the 3,000 km journey with an average of three people on board at an average of 67 km/h and a top speed of 120 km/h.

The Cruiser class, a new category at the biannual World Solar Challenge, was inaugurated in order to encourage the development of commercially viable solar-powered vehicles. Whereas other categories focus on speed alone, the Cruiser class takes into account practicality for everyday use.

“The team was judged on several aspects like comfort, features, styling and aesthetics but also parallel parking and cargo space,” said Solar Team Eindhoven. “Being the only one with a license plate, the road registration of Stella added up in the final score.”

“I congratulate Team Eindhoven on their innovation, practical design and foresight, to think outside the square and add the extra seats,” said World Solar Challenge director Chris Selwood. “‘Stella’ is a wonderful solar car in a field of exceptional cars and teams. I look forward to 2015 and the prospect of more cruisers as we work toward the world’s most efficient electric car.”

Stella, developed over a year and a half by Eindhoven students, features solar panels on its roof and rear. The rear panels can be flipped up to face the sun, recharging the onboard batteries when the car is stationary. It generates more power than it uses, meaning it could supply surplus electricity to the grid.

“The car generates more energy than it needs, therefor it will be possible to give back electricity to the power net,” said Solar Team Eindhoven spokesperson Charlotte van den Heuvel.  “The car needs only half the power that the solar cells achieve. Therefor the car is energy-positive.”

Solar Team Eindhoven describe the car as “ultralight, extremely aerodynamic and has an exceptionally efficient drive train, with electrical motors in the wheels, a sophisticated energy management system and a minimal battery pack.”

The team developed Stella in order to explore the potential of solar-powered consumer vehicles. “The design of the car of the future has to meet the needs of modern consumers,” the team said when the car was unveiled earlier this year. “The car must be capable of transporting a family from the Netherlands to France in one day, it needs to be suitable for the daily commute to work, and it needs to achieve all this in comfort.”

“Since the Solar Team Eindhoven wants to contribute to the development of a car of the future, the design demands more than just a focus on speed,” the team added. “Comfort, ease of use, and feasibility are all key terms.”

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World’s first solar-powered family car to race across Australia

News: students at the Eindhoven University of Technology have unveiled what they claim to be the world’s first solar-powered family car.

Called Stella, and resembling a squashed, wingless aeroplane, the vehicle can seat four people and can travel up to 600 kilometres, powered by solar panels mounted on the roof.

The vehicle has been developed to take part in the new Cruiser Class category of the World Solar Challenge – a biannual 3,000km race race through the Australian outback from Darwin to Adelaide.

This new category will be introduced for the first time at this year’s event, taking place from 6-13 October, to reflect the growing interest in commercially viable solar cars.

Solar-powered family car by Eindhoven University of Technology

Unlike the other categories, where speed is the main concern, the Cruiser Class is judged on criteria including comfort and usability. Cruiser Class vehicles must also carry a passenger as well as a driver.

“The design of the car of the future has to meet the needs of modern consumers,” says Solar Team Eindhoven, which is based at Eindhoven University of Technology. “The car must be capable of transporting a family from the Netherlands to France in one day, it needs to be suitable for the daily commute to work, and it needs to achieve all this in comfort.”

“Since the Solar Team Eindhoven wants to contribute to the development of a car of the future, the design demands more than just a focus on speed,” the team adds. “Comfort, ease of use, and feasibility are all key terms.”

The carbon and aluminium car features a buttonless, touchscreen dashboard and a responsive steering wheel that expands or contracts according to your speed.

Solar-powered family car by Eindhoven University of Technology

Solar panels on the car’s roof will generate around half the energy it requires, with the remaining power coming from solar recharging stations.

Solar Team Eindhoven’s website provides more details of the World Solar Challenge race. “A large part of the energy to be used will be collected by solar cells as we travel,” it says. “During the race, there are only three opportunities to recharge the relatively small battery, which means the car has to be able to independently drive a minimum of 750 kilometers on electric energy. Besides the issue of energy and its management, navigation, safety and support will be essential.

“Once the race starts in Darwin, the teams are permitted to drive until 5.00 p.m. in the afternoon. After that, they have to set up camp in the outback and be ready to leave again at 8.00 a.m. The teams must be completely self reliant and must reach all seven checkpoints.”

Photos are by Bart van Overbeeke/TU Eindhoven.

Here’s some info from Eindhoven University of Technology:


TU/e student team unveils world’s first solar-powered family car

Solar Team Eindhoven starts World Solar Challenge in Australia with four-seater family car

The Solar Team Eindhoven (STE) of Eindhoven University of Technology (TU/e) presented the world’s first solar-powered family car today. ‘Stella’ is the first ‘energy-positive car’ with room for four people, a trunk, intuitive steering and a range of 600 kilometers. This is the car being entered by the student team in the Cruiser class of the World Solar Challenge that starts in Australia in October 2013.

A car that produces electricity

The solar cells of ‘Stella’- Latin for star and also a reference to the family character of the car – generate more electricity on average than the car uses and that means the surplus electricity can be returned to the power grid, thereby making the car ‘energy-positive’.

The car of the future

Solar Team Eindhoven has set itself the goal of developing the car of the future. By combining aerodynamic design with lightweight materials like carbon and aluminum, a very fuel-efficient car has been designed, which also has ingenious applications like a LED strip and touchscreen that make all the buttons and knobs we know today superfluous. Intuitive driving is enabled by a steering wheel that expands or contracts when you are driving too fast or too slowly. STE will have the car officially certified for road use to prove that this really is a fully-fledged car.

World Solar Challenge

University teams from all over the world will be competing in a 3,000 km long race through the Australian outback. Solar Team Eindhoven is taking part in the Cruiser class in which the emphasis lies on practical and user-friendly solar cars rather than on speed. The ‘solar race’ takes place from 6 to 13 October 2013. Back in the Netherlands there will be a tour of high schools to promote engineering and science in education.

The engineer of tomorrow

Thanks to Solar Team Eindhoven entry, TU/e is represented for the first time in the Solar World Challenge. A multidisciplinary team (with 22 students from six different TU/e departments) has spent a year on this project that involves challenges from the fields of energy and mobility. Cooperation with industry has given the students an opportunity to become familiar with top-notch entrepreneurship, thereby underlining TU/e’s vision of educating the engineer of tomorrow. TU/e professors prof.dr. Elena Lomonova and prof.dr.ir. Maarten Steinbuch are members of the steering group.

Eindhoven  University of Technology

Eindhoven University of Technology (TU/e) is a research-driven, design-oriented technology university with a strong international focus. The university was founded in 1956 and has around 7,200 students and 3,000 staff. TU/e is geared to the societal challenges posed in the areas of Energy, Health and Smart Mobility.

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Brazil opens first solar-powered stadium ahead of 2014 World Cup

Brazil opens first solar-powered stadium, photo by Luan S.R.

News: a 1960s football stadium in Brazil has become the first of several in the country to be equipped with a solar-powered roof in preparation for next year’s FIFA World Cup.

The Mineirão Stadium in the south-eastern city of Belo Horizonte, originally built in 1965, has been fitted with a 1.4MW solar array on its rooftop.

The €12.5 million (£10.7 million) project will see energy fed back into the grid rather than being used directly by the stadium.

The next ground to be converted is the Mané Garrincha stadium in Brasilia, which will be fitted with a 2.5MW solar array providing enough solar energy to power nearly half the stadium.

Organisers had initially hoped to install solar arrays in all 12 of the 2014 World Cup venues, but with just over a year until the tournament starts, that target appears to have been lowered.

Brazil opens first solar-powered stadium ahead of 2014 World Cup
Mineirão Stadium, photo by ME/Portal da Copa/Nitro Imagens

Earlier this year, the stadium in Rio de Janeiro that was set to host athletics tournaments during the 2016 Olympics was closed indefinitely due to structural problems with its roof.

We recently reported on plans for a new basketball stadium on the waterfront in San Francisco and news that construction has begun on a football stadium in Bordeaux, France, designed by Herzog & de Meuron – see all stadiums.

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Black Tree by Miloš Milivojevic

Serbian designer Miloš Milivojevic has installed a tree-like mobile phone charger powered by the sun in a park in Belgrade.

Black Tree by Miloš Milivojevic

Black Tree was created by Miloš Milivojevic for renewable energy company Strawberry Energy.

Black Tree by Miloš Milivojevic

Situated in Tašmajdan Park near St. Mark’s Church, the tree-shaped structure provides solar-powered energy so that passers-by can recharge their mobile phones and tablets while sitting on the bench underneath.

Black Tree by Miloš Milivojevic

Charging points on stretchy cords hang from the metal bar on the bench.

Black Tree by Miloš Milivojevic

Other projects in Belgrade we’ve featured on Dezeen include and a concept shop inspired by the “golden years of communism” and a beauty salon with long plastic threads like hair hanging from its ceiling.

See all our stories from Belgrade » 
See all our stories about solar panels »

Here’s more information from the designer:


Black Tree for Strawberry Energy

Black Tree is a public solar charger for mobile phones, designed for Strawberry Energy, the company which invented the first public solar charger for mobile phones – the Strawberry Tree. In cooperation with Palilula Municipality and the city of Belgrade, this Strawberry Tree with completely new design has been set up in Tašmajdan park in Belgrade in November 2012.

Black Tree is conceived as an artificial tree which transforms the solar energy into the necessary electrical energy and in this way joins the surrounding forest in a common struggle for the planet richer in oxygen. With its function, this Strawberry Tree reminds us of the insufficiently exploited potential of the energy of the sun, through people’s everyday habits such as sitting under the tree and using the nature as a shelter from the sun. The large but elegant steel construction is more than three and a half metres long and four and half metres tall which follows the line of a real tree.

This public solar charger for mobile devices enables visitors of Tašmajdan park to recharge the batteries of their mobile phones, tablets and multimedia devices with the energy of sun.

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Shenzhen International Energy Mansion by BIG

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Danish architects Bjarke Ingels Group have won an international competition to design a low-energy tower for the Shenzhen Energy Company in Shenzhen, China.

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The 200m-tall headquarters features a folded facade to shade the interior from the sun while solar panels help to reduce energy use by 60%.

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More BIG: see our recent story on Astana National Library in Kazakhstan by BIG.

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Here’s some info from BIG:

BIG to design sustainable skyscraper in Shenzhen, China.

BIG, in collaboration with ARUP and Transsolar, was awarded first-prize in an international competition to design Shenzhen International Energy Mansion, the regional headquarters for the Shenzhen Energy Company.

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The purpose of the international design competition was to find a sustainable and efficient solution for the Shenzhen Energy Company office headquarters. Located in the centre of Shenzhen, the 96,000 square meter project will be integrated with the surrounding environment and designed to withstand the tropical climate of the city. BIG’s winning proposal was selected by the jury experts from Shenzhen Municipal Planning Bureau chaired by Alejandro Zaera-Polo and client representatives.

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The headquarters rises 200 meters creating a new landmark visible from the highway in the cultural, political and business center of Shenzhen. BIG envisions combining a practical and efficient floor plan layout with a sustainable façade that both, passively and actively reduce the energy consumption of the building. The façade is conceived as a folded skin that shades the office complex from direct sunlight and integrates solar thermal panels, reducing the overall energy consumption of the building.

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Design Evolution
The skyscraper has evolved as an economically efficient way to provide flexible, functional and well illuminated workspaces for dense populations of professionals. It has, however, evolved at a time when air conditioning and electric lighting are merely seen as modern solutions to modern demand, without thought being given to environmental consequences or energy shortages.

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Today, the skyscraper needs to evolve into a new sustainable species. It must retain its highly evolved qualities such as flexibility, daylight, views, density and general usability while advancing new and untested attributes such as ways of combining maximum daylight exposure with minimal sunshine exposure or integrated ways of limiting the need for cooling.

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“We propose to make the Shenzhen Energy Mansion the first specimen of a new species of office buildings that exploits the buildings interface with the external elements – sun, daylight, humidity, wind – as a source to create maximum comfort and quality inside. The Shenzhen Energy Mansion will appear as a subtle mutation of the classic skyscraper – a natural evolution rather than a desperate revolution.”
Bjarke Ingels, Founding Partner, BIG.

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Curtain wall
The traditional glass façade has little insulation leaving the offices overheated by direct sunlight. This results in excessive energy consumption for air conditioning and the need for a heavy glass coating that makes the view seem permanently dull and grey.

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“The towers are based on an efficient and well-proven floor plan enclosed in a skin specifically modified and optimized for the local climate. By focusing on the envelope, the façade, we are able to enhance the sustainable performance of the building drastically.”
Andreas Klok Pedersen, Project Leader, BIG.

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By folding the façade in an origami like shape we achieve a structure with closed and open parts. The closed parts provide a highly-insulated façade, while blocking the direct sunlight. On the outside the closed parts are fitted with solar thermal heat panels that power the air conditioning and provide dehumidification for the working spaces.

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The folded wall provides a free view through clear glass in one direction creating a condition with plenty of diffused daylight by reflecting the direct sunlight between the interior panels. Even with direct sun from east or west, the majority of the solar rays reflect off the glass, due to the flat angle of the window. The reflected rays increase the efficiency of solar thermal energy panels. The combination of minimal passive solar heating and active solar panels reduce the energy consumption by more than 60%.

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SHENZHEN INTERNATIONAL ENERGY MANSION CREDIT LIST:

ARCHITECT: BIG
CLIENT: Shenzhen Energy Company
COLLABORATORS: ARUP, Transsolar
SIZE: 96.000 M2
LOCATION: Shenzhen, China
STATUS: 1st Prize

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Partner-In-Charge: Bjarke Ingels
Project Leader: Andreas Klok Pedersen
Team: Cat Huang, Alex Cozma, Fan Zhang, Kuba Snopek, Flavien Menu, Stanley Lung

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More Dezeen stories about Shenzhen:

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Shenzhen Crystal Island by OMA and Urbanus