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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Vertical takeoff flying car concept unveiled

Terrafugia TF-X

News: a flying car capable of vertical takeoff and landing is being developed by the makers of a two-seater aircraft that turns into a car (+ movie).

Massachusetts-based company Terrafugia has announced it is working on a concept for a four-seater vehicle with motorised rotors, which can take off without the need for a runway.

Terrafugia TF-X
TF-X concept

Dubbed TF-X, the vehicle’s wings and rotors are designed to fold into the side of the car when it’s on the road, making it small enough to park in a standard garage.

Terrafugia TF-X

The ability to take off from standstill would allow owners to take to the air from their driveways. Once in the air, it is expected to be able to fly nonstop for 500 miles.

Terrafugia TF-X

The TF-X probably wouldn’t be suitable for escaping traffic jams, however, as it requires a 30-metre-wide clear space around it during takeoff.

Terrafugia TF-X

A working model of the aircraft is expected to become available to purchase within eight to 12 years.

Terrafugia Transition
Transition

Meanwhile Terrafugia’s earlier flying car concept, the Transition, which last year flew for eight minutes at an altitude of 420 metres during its test flight, is set to become available to buy within two years, priced at £190,000.

Terrafugia Transition

In 2010, Terrafugia worked with Danish industrial designers KiBiSi on the second generation redesign of the Transition.

Terrafugia Transition

Other hybrid vehicles we’ve featured include a car shaped like a catamaran and designer Ross Lovegrove’s idea for bubble-shaped cars powered by solar canopies – see all transport.

Here’s more information from Terrafugia:


Terrafugia Shares TF-X Vision

Terrafugia Inc., the developer of the Transition street-legal airplane, announced its vision for the future of personal transportation. Building on its experience with the Transition program, Terrafugia has begun feasibility studies of a four-seat, vertical takeoff and landing (VTOL) plug-in hybrid- electric flying car, the TF-X. Incorporating the state-of-the-art in intelligent systems, fly by wire controls, and currently available technology, the TF-X will further increase the level of safety, simplicity, and convenience of personal aviation.

“This is the right time for us to begin thinking about the future of the company beyond Transition development,” says Terrafugia CEO/CTO Carl Dietrich. “We are passionate about continuing to lead the creation of a flying car industry and are dedicating resources to lay the foundations for our vision of personal transportation.”

Terrafugia’s design team is excited to be looking ahead to TF-X development activities as the Transition programme shifts from research and development to certification, production, and customer support activities. The Transition serves as a Proof of Process for TF-X development and commercialisation through the many technical, regulatory, and usage challenges it has overcome.

By directly addressing congestion and other transportation challenges currently being faced internationally, widespread adoption of vehicles like the Transition and TF-X could result in significant economic benefits and personal time savings. Preliminary conversations with the Federal Aviation Administration (FAA) about the TF-X concept have demonstrated their willingness to consider innovative technologies and regulatory solutions that are in the public interest and enhance the level of safety of personal aviation. Terrafugia is excited to be nearing production of the Transition and continuing to push the envelope of personal transportation.

Terrafugia (terra-FOO-gee-ah), based in Woburn, MA, is a growing aerospace company founded by pilot- engineers from MIT and supported by a world-class network of advisors and investors. The company name is Latin for “escape the earth.” Terrafugia’s mission is to build practical flying cars.

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New York launches bike-share scheme

New York launches bike-share scheme

News: America’s largest bicycle sharing scheme will begin this month in New York City, with 6000 bikes available to rent from docking stations in Manhattan and parts of Brooklyn.

The scheme, dubbed Citi Bike after its multi-million-dollar sponsorship from Citibank, will invite commuters and tourists to take advantage of New York’s 700 miles of cycle lanes.

The May launch will see bikes placed in 330 docking stations across the city, spanning from 59th Street in Manhattan down to the Bedford-Stuyvesant area of Brooklyn.

City officials plan to eventually expand the scheme to 10,000 bikes and 600 docking stations across Manhattan, Brooklyn and Queens.

Thousands of New Yorkers have already signed up as Citi Bike members, paying an annual fee of $95 for access to unlimited rides of 45 minutes.

Cyclists who don’t have a membership will be able to purchase a 24-hour pass for about $10, or a seven-day pass for $25, allowing an unlimited number of half-hour trips.

New York launches bike-share scheme, photo by Planetgordoncom

The three-speed aluminium-frame Citi Bike has front and rear LEDs that flash when the wheels are in motion and an adjustable seatpost to accommodate riders of different heights.

Both the bikes and docking stations are part of a system called Bixi, which was first developed by French Canadian designer Michel Dallaire as a cycle-share scheme for Montreal.

Citi Bike app will also help cyclists to locate their nearest docking station, plan their route on a map and find local shops, services and restaurants.

The launch follows the successful roll-out of bike-share schemes in cities including London, Washington D.C., Paris and Barcelona, while Chicago and San Francisco are both preparing to launch their own schemes later this year.

French designer Philippe Starck recently unveiled a prototype bicycle crossed with a scooter for a free cycle scheme in Bordeaux, France.

Other city bikes we’ve featured include an folding electric bicycle by auto maker BMW and another folding bike with full-sized wheels – see all bicycles on Dezeen.

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Mobile phone data used to redesign bus network in Ivory Coast

Ivory Coast bus, photo by Abdallahh

News: researchers from IBM have redesigned the bus routes across Ivory Coast’s largest city using data from mobile phones.

The project, by a team from IBM’s research lab in Dublin, Ireland, is an example of how so-called “big data” can be mined for information that leads to improved policies and services.

The researchers looked at 2.5 billion call records from mobile phone users to work out commuters’ movements.

The anonymous data came from phones in the city of Abidjan, where a deteriorating public transport system has prompted a huge and unregulated fleet of private minibuses and taxis to spring up.

Mobile phone data used to re-route bus network in Ivory Coast
Outgoing flows from a mobile phone antenna

Commuters’ journeys in these private vehicles can’t be easily monitored by the city’s authorities, so the IBM team used time and location data from call records and text messages to work out frequent routes.

They then looked at how well commuters were served by the city’s buses and came up with 65 possible improvements to existing routes, concluding that they could reduce average travel times by 10 per cent.

“If transit agencies could have an effective tool to quantify the travel demand, as well as recommendations on how to best design the transit network, cities would be able to better support travellers’ mobility demand through a regulated and efficient public transport system,” the researchers explained in their report.

Mobile phone data used to re-route bus network in Ivory Coast
Routes on Abidjan’s public transit network

The AllAboard project, which is currently only a research exercise, was entered into the Data for Development competition run by mobile phone operator Orange, an open data challenge inviting researchers to find uses for its huge datasets of call activity.

Olivier Verscheure, a senior scientist at IBM’s research laboratory in Dublin, told the BBC that the project only hinted at what could be gleaned from such huge datasets.

“If we could have merged the telco data with city data, such as the bus timetables we could have the potential to completely change the existing network,” he said.

“Analysis of public transport and telco data would show how people move in a city and allow planners to create a bike sharing infrastructure from scratch, for example.”

Earlier this year we featured a concept to make highways safer with glow-in-the-dark roads and responsive street lamps – see all transport design.

Top photograph is by Abdallahh.

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Virgin Galactic passenger spacecraft completes first rocket-powered flight

Virgin Galactic test flight

News: Richard Branson’s Virgin Galactic passenger spacecraft broke the sound barrier during its first rocket-powered flight in California yesterday.

Virgin Galactic’s SpaceShipTwo was brought to an altitude of 14,000 metres before being released by its carrier craft over the Mojave Desert.

The pilots then rotated the spacecraft to a vertical position and ignited its rocket, which propelled it beyond the speed of sound and took it to almost 17,000 metres above ground.

Virgin Galactic test flight
Image by VirginGalactic.com

“The first powered flight of Virgin Spaceship Enterprise was without any doubt our single most important flight test to date,” said Branson, the British entrepreneur who founded Virgin Galactic to be the world’s first commercial space travel company.

“Today’s supersonic success opens the way for a rapid expansion of the spaceship’s powered flight envelope, with a very realistic goal of full space flight by the year’s end,” he added.

SpaceShipTwo is designed to carry two pilots and six passengers on two-and-a-half-hour sub-orbital flights and was unveiled in 2009, a year after its carrier craft WhiteKnightTwo was unveiled – see all news about Virgin Galactic.

Photo by Mark Greenberg

The Virgin Galactic terminal in New Mexico was designed by Foster + Partners, the British firm that recently announced proposals to 3D-printing buildings on the moon – see all news and stories about space.

Top image is by Marscientific.com and Clay Center Observatory.

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4StrikeBike by TSG Essempio

A bicycle that can be pedalled with hands and feet at the same time has been developed by Dutch studio TSG Essempio.

4StrikeBike by TSG Essempio

Pedals replacing the handlebars allow the 4StrikeBike to be cycled with the hands and steered simultaneously.

4StrikeBike by TSG Essempio

These pedals click into a fixed upright position so the bike can also be used normally.

4StrikeBike by TSG Essempio

“The 4StrikeBike has adjustable peddling handlebars and can be used as an ordinary city bike in traffic as well as a touring bike for longer distances at higher speeds,” Jan Willem Zuyderduyn of TSG Essempio told Dezeen.

4StrikeBike by TSG Essempio

A chain runs up one side of the frame between the hand pedals and the standard mechanism linking the foot pedals to the back wheel.

4StrikeBike by TSG Essempio

The crankshaft has a special freewheel system that allows the bike to be cycled with both the upper and lower body, or just the legs while getting on and off.

4StrikeBike by TSG Essempio

Retired Dutch surgeon Lex van Stekelenburg came up with the idea for the bike after developing back problems, following years of performing lengthy operations while standing with a hunched posture.

4StrikeBike by TSG Essempio

Van Stekelenburg took the concept to TSG Essempio, who developed his proposal and prototypes further.

We’ve featured a number of unusual bicycles, including one made from see-through plastic and another constructed out of cardboardSee more cycling design »

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ME.WE concept car by Jean-Marie Massaud for Toyota

French architect Jean-Marie Massaud has collaborated with auto maker Toyota to create an “anti-crisis” concept car with a retractable windscreen, plastic bodywork and a bamboo bonnet (+ slideshow).

ME.WE concept car by Toyota and Jean-Marie Massaud

Massaud and Toyota designed the electric car to tackle current economical and environmental crises by using cheap, lightweight materials that reduce the vehicle’s energy consumption.

ME.WE concept car by Toyota and Jean-Marie Massaud

A tubular aluminium structure would support recyclable polypropelene body panels, which could be customised with different textures, patterns and colours. Strips of bamboo that wrap around the dashboard would extend out to form the bonnet and also cover the remaining horizontal surfaces, including the floor and roof.

ME.WE concept car by Toyota and Jean-Marie Massaud

All the windows, including the windscreen, would be retractable so passengers could feel the breeze from every angle. The rear bench could fold down and tuck under the front seat when not needed, and would be removable for use outside the vehicle.

ME.WE concept car by Toyota and Jean-Marie Massaud

Luggage could be stored on the roof under a fold-out neoprene cover to create more space inside. Alternatively, the boot could fold out to make room for larger goods.

ME.WE concept car by Toyota and Jean-Marie Massaud

A screen above the steering wheel would display vehicle speed, battery charge, journey information and navigation instructions provided via a smartphone, which could be mounted below and used to control music and temperature.

ME.WE concept car by Toyota and Jean-Marie Massaud

Heating and air conditioning would be delivered by a low-energy air pump and electric seat heaters to minimise power consumption. An in-wheel motor system means the car would be operable in two or four-wheel drive.

ME.WE concept car by Toyota and Jean-Marie Massaud

Other recent concept car include Ross Lovegrove’s blue vehicle for Renault with a glass roof covered in LED patterns and Pininfarina’s two-seater model without a windshieldSee more car design »

Read on for more information from Toyota:


Toyota presents the ME.WE Concept

Working with Toyota since 2011, Massaud has sought to create an “anti-crisis” car that addresses contemporary human, economic and environmental challenges, bringing his independent vision and experience from outside the motor industry.

ME.WE concept car by Toyota and Jean-Marie Massaud

The thinking behind the concept

Massaud and Toyota defined three primary aims for the concept: –

Pertinence – their vision for the car is passionate but considered. The concept should be adaptable to a wide variety of lifestyles as well as displaying high quality and innovation.

Synthesis – a move away from motor industry tradition to remove excess and suggest a new way of responding to people’s behaviour and expectations. The concept should propose an alternative synthesis based on personal choices about vehicle architecture, lower running costs and the way the vehicle will be used.

Modernity – challenge conventions and seek change in designing a car that goes beyond just looking good through the experience it offers, its intelligent solutions and its ability to exceed the needs of the owner. This should be a car that reflects the values of forward-thinking people rather than simply their social status.

ED2 and Massaud combined their expertise to produce a car that reflects a quest for change in personal mobility. While cars have increasingly become subject to restrictions, they have put road users – drivers and pedestrians – at the heart of their thinking. The focus is on the desire for freedom, pleasure, emotion and the ability to travel free from constraints, while at the same time addressing people’s sense of personal responsibility and commitment to good citizenship.

The result is car that takes a modern, global view of travel and forms part of a wider view on how to adapt to the environmental challenges that will shape the future of personal mobility. It is a no-extras package, conceived as an “anti-excess” vehicle. In short, the Toyota ME.WE represents the transition from the culture of “more” to the culture of “better”.

ME.WE concept car by Toyota and Jean-Marie Massaud

The vehicle

ME.WE seeks to resolve a number of real-life contradictions, not through reinvention of what a car is, but by taking a different approach that is simpler, more appropriate and realistic – an alternative to cars that are about “passion and status”. The goal was do more and create better while using less. By reducing the pool of resources and constraints, it was possible to increase capability, quality and
pleasure.

Light and resilient: ME.WE has a tubular aluminium structure, on to which light and hard-wearing polypropylene panels are fitted.

Individual and standard: the moulded panels are made using a cost-efficient standard production system, but they are easy to personalise.

Freedom and responsibility: ME.WE is a pick-up, convertible, off-roader and small city car in one. It appeals to a wide range of users, and has a small eco-footprint thanks to its light weight and the materials used in its construction.

ME and WE: the concept’s name expresses its simultaneous concern for personal well-being (ME) and that of others (WE). ME.WE is electric-powered, using the same in-wheel motors as the Toyota i-ROAD, with batteries located under the floor, as in the iQ EV. With none of the traditional packaging restraints associated with conventional powertrains, the entire interior could be devoted to the vehicle’s occupants and luggage.

The lightweight construction using aluminium and polypropylene panels helps keep the car’s weight down to a target 750kg, about 20 per cent less than a conventional steel-built supermini. The body panels, which are 100 per cent recyclable, weight just 14kg. Bamboo is used in the construction of the floor and for the cabin’s horizontal surfaces, chosen both for being a renewable resource and aesthetically pleasing. ME.WE is easy to keep clean with a simple wash, inside and out.

ME.WE concept car by Toyota and Jean-Marie Massaud

ME.WE is an intelligent response to the ecological threats posed by mass production and the increasing number of cars on the world’s roads, as it is made from materials that help reduce the energy it consumes and the CO2 and harmful emissions it produces.

The simplicity of its design is matched by it ease of use. The in-wheel motor system means it can be operated in two or four-wheel drive, allowing it to tackle rougher terrain than a traditional car, and without the weight penalty of a 4×4 transmission system.

In the cabin priority is given to driver and passengers, so luggage can be carried on the roof beneath a fold-out, weatherproof neoprene cover. However, the rear luggage space can be extended into a platform like that found in a pick-up. The rear bench seat is mounted on floor rails and when not in use can be folded and stored beneath the front seat. It can also be removed altogether and even used for ad-hoc picnic seating.

The simplicity of the design is also evident in the instrumentation, which comprises a single screen above the steering wheel which displays vehicle speed, battery charge, journey information and navigation instructions, delivered via a smartphone. The phone itself is mounted below the screen so the driver can personalise the cabin environment with music and other apps, as well as controlling on-board temperature.

The heating and air conditioning are delivered by a low-energy air pump and electric seat heaters to minimise power consumption. And to achieve a cabriolet-like open air feel, all the windows can be opened, even the windscreen.

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Twin’Z concept car by Ross Lovegrove for Renault

Milan 2013: following a teaser movie, British designer Ross Lovegrove unveils his concept car for French car brand Renault at the Triennale Design Museum in Milan (+ slideshow).

Twin'Z concept car by Ross Lovegrove for Renault

Lovegrove added colourful LED patterns over the glass roof and down the windshield edges of the carbon fibre Twin’Z electric city car, after Renault invited the British designer to provide finishing details to the bodywork.

Twin'Z concept car by Ross Lovegrove for Renault

“Passengers are hooded in a technological envelope that bathes them in a light which responds to the energy and pulse of Twin’Z,” says Ross Lovegrove. “This roofscape heightens the sensation of space and blends seamlessly into the rear window.”

Twin'Z concept car by Ross Lovegrove for Renault

The smaller two of four headlights glow through radial fibrous spokes, a motif also used for the bright green wheel alloys. Swirling lines adorn the tyres, which were developed by manufacturer Michelin.

Twin'Z concept car by Ross Lovegrove for Renault

Lovegrove also designed the interior of the four-seat vehicle and added fluorescent yellow bands to emphasise the contours of the design. “The interior is not broken up into separate elements and all passengers feel very much part of the travelling experience,” he says. “The rear seat backs have been integrated into the floorpan to create space and a new, informal aesthetic.”

Twin'Z concept car by Ross Lovegrove for Renault

Instead of a dashboard, statistics such as speed and range are displayed on a smartphone that sits where a gearstick would usually be. Four electric doors open without handles like pairs of shutters on each side, alleviating the central pillars found on most cars.

Twin'Z concept car by Ross Lovegrove for Renault

The car’s colour was inspired by French painter Yves Klein, whose signature blue hue was also the muse for a collection of pleated garments we featured last week. “It echoes France’s cultural heritage while also mirroring the virtues of our planet. After all, isn’t the Earth blue when seen from space?” says Lovegrove.

Twin'Z concept car by Ross Lovegrove for Renault

Other recently designed concept cars include Audi’s vehicles that drive and park themselves and Pininfarina’s car that has no windshield.

Twin'Z concept car by Ross Lovegrove for Renault

The car is on show at the Triennale Design Museum in Milan, Viale Alemagna 6. Elsewhere in the city, Ronan and Erwan Bouroullec have designed an installation of spinning cork platforms for BMW i.  Check out our map of events taking place in Milan this week.

See all our stories about designs by Ross Lovegrove »
See all our stories about car design »
See all our coverage of Milan 2013 »

Here’s some additional information from Renault:


Twin’z Concept-Car – a refreshing view of the city-car, blending technology and refinement

Renault and British designer Ross Lovegrove today took the wraps off Twin’Z. This concept car is the fruit of their close collaboration and brings together two worlds where Design plays an important role : the world of furniture and that of the automobile.

Twin'Z concept car by Ross Lovegrove for Renault

As the ‘Play’ petal of Renault Design’s life-cycle ‘flower’, Twin’Z is the latest concept car in the programme which sets out to illustrate Renault’s new design strategy through parallels with threshold phases of human existence. Twin’Z is a fun, modern, artistic take on the city- car which plays on emotions and excites the senses. It draws its inspiration from the heritage of some of the brand’s most emblematic models, such as the Renault 5 and Renault Twingo. The Twin’Z is an all-electric car with rear-wheel drive and a rear-mounted motor.

Twin'Z concept car by Ross Lovegrove for Renault

Renault invited British designer Ross Lovegrove to add some design flourishes and the result is an arresting blend of technology and refinement. Ross Lovegrove was given a free hand to imagine a cabin that is truly occupant-friendly. This project eloquently illustrates the many possible sources of inspiration that can drive Design and represents an original approach to the city-car.

Twin'Z concept car by Ross Lovegrove for Renault

Ross Lovegrove’s personal vision of the automobile takes its inspiration from the world of nature, and the result combines an unprecedented play on light and organic forms to make Z28RL an endearing, almost living object.

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Lorry redesigned to prevent cyclist deaths

Safer Urban Lorry by London Cycling Campaign

News: a London cycling organisation has come up with a concept for a lorry with no blindspot to reduce the number of cyclists killed in collisions.

The Safer Urban Lorry would have a lower cab and larger windows than most trucks, allowing the driver to spot cyclists and pedestrians in the immediate vicinity of the vehicle.

Safer Urban Lorry by London Cycling Campaign

With the additional help of a 360 degree camera, the design would eliminate the driver’s blindspot and reduce the likelihood of the lorry crushing a cyclist as it makes a left turn – the cause of most fatal cycling collisions in London.

Reducing the gap between the underside of the lorry and the ground would also help to push cyclists away in the event of a collision, rather than dragging them underneath the wheels.

Safer Urban Lorry by London Cycling Campaign

According to the London Cycling Campaign, the organisation behind the design, lorries make up 5% of the traffic in Greater London but are involved in half the cyclist deaths. A large proportion of pedestrian fatalities in cities also involve lorries.

We recently featured a bollard with a foot rest and handle to help cyclists keep their balance at traffic lights and magnetic bicycle lights that turn on as soon when they touch the steel frame – see all cycling design.

Safer Urban Lorry by London Cycling Campaign

We’ve also featured lots of bikes on Dezeen, such as Philippe Starck’s scooter-like design for a free cycle scheme in Bordeaux and a conceptual see-through bike frame  – see all bicycles.

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Queen Alia International Airport by Foster + Partners

Foster + Partners drew inspiration from Bedouin tents to create a canopy of domes over a new airport terminal that opened yesterday in Amman, Jordan (+ slideshow).

Queen Alia International Airport by Foster + Partners

Located just outside the capital, the Queen Alia International Airport is the largest airport in the country and the modular design of the terminal will allow the airport to further expand each year, increasing passenger capacity from 3.5 million annually to 12 million by 2030.

Queen Alia International Airport by Foster + Partners

The tessellated concrete roof canopy spans the entire terminal. There are glazed elevations on each side of the building to help passenger orientation, so the roof overhangs the facade to shade the interior from intense sunlight.

Queen Alia International Airport by Foster + Partners

Foster + Partners borrowed additional motifs from traditional Islamic architecture to generate shapes used throughout the building. The underside of each dome is embossed to resemble the surface of a leaf, while the supporting grid of concrete columns feature split ends designed to look like plant stems. In the gaps between, droplet-shaped skylights allow light to filter through each space.

Queen Alia International Airport by Foster + Partners

The concrete used displays soft brown tones intended to match the shades of the surrounding desert, which the architects created by mixed the material with local gravel. The high thermal mass of the concrete will also help to maintain a stead internal climate during the severe changes in temperature that take place during the summer.

Queen Alia International Airport by Foster + Partners

Departure gates are divided into two wings and open out to courtyards filled with trees and plants, expected to improve the air quality.

Queen Alia International Airport by Foster + Partners

“Queen Alia International Airport has been an extraordinary project,” commented Foster + Partners’ chief executive Mouzhan Majidi. “It has transformed Amman into a niche hub, while offering critical growth for the wider economy through regional links. The new terminal building is energy efficient, will accommodate phased expansion and provides a dynamic symbol for Jordan.”

Queen Alia International Airport by Foster + Partners

London firm Foster + Partners have worked on a number of airports and other transport projects over the years. The office famously designed Beijing’s Capital Airport and was responsible for London’s Stansted airport and Chek Lap Kok Airport in Hong Kong.

Queen Alia International Airport by Foster + Partners

In 2011 Foster + Partners also completed the world’s first tourist space terminal in New Mexico. See more architecture by Foster + Partners.

Queen Alia International Airport by Foster + Partners

Photography is by Nigel Young.

Queen Alia International Airport by Foster + Partners

Here’s some more information from Foster + Partners:


Official opening of Queen Alia International Airport in Amman, Jordan

Today marked the official opening of Queen Alia International Airport, the spectacular new gateway to Amman. The airport has a highly efficient passive design, which has been inspired by local traditions, and is based on a flexible modular solution that allows for future expansion – the new building secures the city’s position as the main hub for the Levant region and allows the airport to grow by 6 per cent per annum for the next twenty-five years, increasing capacity from 3.5 million to 12 million passengers per annum by 2030.

Queen Alia International Airport by Foster + Partners

In response to Amman’s climate, where summer temperatures vary markedly between day and night time, the building is constructed largely from concrete, the high thermal mass of the material providing passive environmental control. The tessellated roof canopy comprises a series of shallow concrete domes, which extend to shade the facades – each dome provided a modular unit for construction. The domes branch out from the supporting columns like the leaves of a desert palm and daylight floods the concourse through split beams at the column junctions. Echoing the veins of a leaf, a geometric pattern based on traditional Islamic forms is applied to each exposed soffit. The complex geometry of the roof shells and fabrication strategy was developed in conjunction with Foster + Partners in-house geometry specialists.

Queen Alia International Airport by Foster + Partners

Two piers of departure gates run along either side of the central building, which contains the main processing areas and shops, lounges and restaurants. Between these volumes, open-air courtyards – a feature of vernacular architecture in the region – contribute to the terminal’s environmental strategy: the plants and trees help to filter pollution and pre-condition the air before it is drawn into the air handling system and reflecting pools bounce indirect natural light into the airport.

Queen Alia International Airport by Foster + Partners

The terminal is glazed on all sides to allow views of the aircraft on the apron and to aid orientation. Horizontal louvres shade the facades from direct sunlight – to eliminate glare, the louvres become concentrated in more exposed areas close to the columns. The concrete structure incorporates local gravel to reduce maintenance requirements and the embodied energy of the material, and to harmonise with the natural shades of local sand.

Queen Alia International Airport by Foster and Partners

Amman is one of the oldest continually inhabited cities in the world – the airport’s design resonates with a sense of place and local architecture, particularly in the domed roof, which from the air echoes the black flowing fabric of a Bedouin tent. There are also references to the Jordanian tradition of hospitality – in celebration of the custom for family groups to congregate at the airport, the forecourt has been enlarged to create a landscaped plaza with seating, shaded by trees, where people can gather to bid farewell or welcome returning travellers.

Queen Alia International Airport by Foster + Partners

Above: level one plan – click for larger image

Queen Alia International Airport by Foster + Partners

Above: level two plan – click for larger image

Queen Alia International Airport by Foster + Partners

Above: level three plan – click for larger image

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