Passengers will have great view over the big window located at the front of the boat, stretching to the roof from the floor. The on top LED light integrated lantern will make it easy to dock the boat at night. Upper deck is surrounded by glass to provide easy controlling the boat without disturbing pillars. This gives a much better view as well while giving a more open feeling. Outside the deck, there are security rails as a part of the hull structure that elongates backwards with the wings. A thin glass is designed to rise from the hull at the front to attach the wings at the back, making the boat simple and clean.

The interior of the lower deck is separated in two different parts, one is a private section and another one is an open lounge area, allowing the passengers to rest for a while or participate in social activities as they want. The master bedroom is located in the center which is the best place to be maximum comfortable because of the stability during any directional movements of the yacht. This concept won the award from azimut, and was shown at Piazza San Carlo in Turin ITALY in a big Azimut Event.

Specs:
LENGHT OVERALL(incl.pulpit) 22.05m
HYLL LENGHT(incl.platform) 21.73m
BEAM AT MAIN SECTION 5.12m
DRAFTS(incl.props. at full load) 1.79m
DISPLACEMENT(at full load) 33.2t
ENGINES 2×1410mHP (1036kw) MAN 12V CRM
MAXIMUM SPEED(at half load) 39 knots
CRUISING SPEED( at half load) 32 knots
FUEL CAPACITY 3.300L
WATER CAPACITY 980L
CABINS 3+1 CREW
BERTHS 6+1 CREW
BUILDING MATERIAL CARBON FIBER/VTR/GPR
KEEL V-shape with angle of deadrise 15,4 degrees aft.

Designer : Anders Gloslie

This proposal is focused around providing an alternative view of what the future of the Taxi might be. The vehicle is designed around the user and this is reflected in the safety of ingress/egress, the passenger/driver compartment split and features for ease of use by passengers. Features include, split for driver safety when used as night rider, GPS and mapping system for driver and passenger, passenger entertainment/info hub, Smart card system, disability access and focus on curb side access only. Technological features include the hydrogen fuel cell, battery generators, solar panel system and recharging hubs.

The overall aesthetic of the vehicle is influenced by the Australian environment; space, relaxed ambience, unique identity, comfort, security, and a ‘can do’ attitude. These unique characteristics immediately identify the vehicle as special purpose and also set it apart from other vehicles on the road. The curb-side DLO captures the essence of the Taxi in that it is inviting passengers inside for an experience.

The footprint is emphasized by the wheels being in the outermost corners of the vehicle which allows for greater volume and also a very level and balanced stance. The roof features an acrylic opening area to allow for a greater sense of space while also allowing a great vantage point for passengers. The solar panel is also cleverly housed on the roof to harness the most energy from beating Australian sun.

Curb side access only for passenger ingress / egress safety. All doors use a slider system for minimizing the overall footprint of the vehicle whilst it is in operation. Access for wheel-chair bound passengers is catered for by providing a platform that extends to the curbside to allow access. All rear compartment seats tuck away to open-up maximum floor room for wheelchair access. Rear trunk also operates on a slider system.

The rear compartment is split-up to allow for better communication for the rear occupants. Rear seats fold away to allow access and floor clearance for wheelchair access. Heads-up display on split window for accessing features such as map, places of interest, fares and also for advertising. Driver to passenger split is driven by – safety and privacy. The split ensures security of the drivers whilst also providing a more private booth-type environment for passengers. Doors split open at the centre to allow for maximum operating opening distance.

Polycarbonate is used throughout the vehicle due to its impact resistance, relative lightweight, optical qualities and high temp resistance. The chassis comprises of aluminum to minimize weight.

Curb-side access only for passenger safety, bright orange livery for visual impact, safety-cell for passengers and driver all contribute to overall safety. Optimized seating configuration allows greater interaction, comfort and ease of use – especially the fold away seats for wheelchair access.

Hydrogen fuel cell technology coupled with electric generators / batteries propel the vehicle. The solar panel is used to harness extra energy as well as the recharging hubs when the vehicle is used to pick up passengers.

Designer : Damian Lucaciu

Interview with Nico :

What was the inspiration for your concept?
The inspiration was the experimental approach to molecular cooking. Even after several decades of molecular cuisine, it still seems to be an exclusive game for specialists. So it became my main goal to bring some of the fantastic possibilities and ideas of molecular cooking to all ambitious cooks with an easy to use, affordable appliance.

How does your concept fit into this year’s competition theme “Designs for the next 90 years”?
I think the idea of molecular cooking is forward-looking, but the procedures and methods of preparing molecular dishes are still conventional. I would like to change this with my concept. At first, the idea of printing food seems to be something straight out of a science-fiction movie, but on second thought it is not unrealistic at all. I even think that Moléculaire could be the future kitchen tool that opens up possibilities for food-makers interested in molecular cooking.

What are the main consumer benefits of your concept?
Moléculaire is a futuristic kitchen appliance that offers several new possibilities to professional chefs as well as home users. It’s based on a layer-by-layer printing technique that arranges small particles from a set of ingredients. Within minutes, it prints out three-dimensional desserts, complex structures, shapes for molecular dishes, and patterns for decorating a meal. In addition, it’s easy to use. You simply insert a blister pack into the reservoir, place Moléculaire on top of a plate, and press the start button. Users can also create their own recipes with special software and their own ingredients. Ambitious users can download recipes and share them with other users in an online community.

Describe the consumer research behind your concept.
I conducted interviews with chefs and did a lot of research on the Internet. These approaches helped me to understand users’ interests, concerns, wishes, needs and desires. The outcome shaped my initial ideas and helped them grow. The most difficult thing about designing for the future is predicting the possible social and technological developments (their direction and speed). Therefore, it was very useful to read reports like sociological studies about cooking and future scenarios about the development of new technologies.

What kind of materials would you use to build your concept?
For my concept, I would use polycarbonate as the main material. I plan on applying this material in three different variations, each providing the right characteristics for the different parts of my design. Transparent polycarbonate can be used for the window, black tinted for the lid/display, and white for the body. The robotic printer arm and head could be made from aluminum. A blue (O)LED backlight accentuates the processes inside the printer.

Who is your favorite designer?
I don‘t have a favorite designer.

What are your career goals?
After I graduate in 2010, I want to gain more professional experience in a product-design company. In the long term, I want to further develop my conceptual and strategic skills and step into product-related design management.

Designer : Nico Kläber

The riding position of this eco friendly vehicle can be adjusted as per the rider’s requirement and one fast movement can turn the vehicle into a trolley from a motorized trike that you can drag or store anywhere. The rear wheel houses an eco electric motor that charges the battery as the front wheel turns and harness energy that is lost in breaking to charge the battery. A luggage compartment is located in between the battery and the motor where you can store your necessary stuff. It comprises a strong, lightweight and eco friendly polycarbonate structure that can be recycled several timers over using low energy.

Designer : Nick Fisher

Gosha says :

“A hybrid airship is actually a hybrid between an airship and an airplane, deriving roughly two thirds of its lift from buoyancy of lighter than air gas, and the remaining third from aerodynamic lift generated by wings. The outcome is a craft which when loaded is only slightly heavier than the air around it, and therefore requires very little effort to become airborne and even less effort to cruise comfortably at around 120mph.

The Airship One has a semi-rigid construction, Aluminum and fiber composite frame supporting PU fabric ballonets filled with lighter than air, non flammable Helium gas. Propulsion is provided by four DC electric motors, which during cruise receive their energy from solar panels mounted on the hull and wings, and during takeoff also from a bio-diesel generator. The ship can take off and land vertically, with no need for a runway of any kind.

With its 30-ton cargo capacity and a double-deck passenger compartment which can accommodate some 25 passengers with levels of comfort that by far exceed those of the most luxurious airliner.

While currently only a concept, I strongly believe that in the not too distant future machines like the Airship One will offer a quiet, efficient and eco-friendly alternative to air transport.”

Designer : Gosha Galitsky

Designer : Ebrima Faye

[Press Release]
Mercedes-Benz F-CELL Roadster – trainees build a car of the future

* Young people unite high tech and tradition

* Alternative drive systems as a training topic

In a hitherto unique project bridging various fields of profession, the trainees of Daimler AG at the Sindelfingen Mercedes-Benz plant have built a Roadster with fuel cell drive. For about a year, more than 150 trainees and dual education system students worked on the overall concept, development, assembly, and completion of the F-CELL Roadster. This project involved junior employees from the fields of automotive mechatronics, model-building, electronics, coating technology, manufacturing mechanics, product design, and interior appointments. The prime objective of the project was to integrate the topic of alternative drive systems into training with hands-on experience.

“This project impressively demonstrates that the topic of sustainable mobility has become an integral part of our vocational training,” said Human Resources Board member and Labor Relations Manager Günther Fleig. “I am delighted to see how much initiative and creativity the young people have put into this project.”

Tradition meets the future

The F-CELL Roadster uniquely combines state-of-the-art technologies with the history of vehicle construction. As an allusion to the Benz Patent Motor Car from 1886, the vehicle is fitted with large spoked wheels. Moreover, the F-CELL Roadster incorporates stylistic elements from diverse eras of automotive history, such as the carbon-fiber bucket seats with hand-stitched leather covers and the distinctively styled fiberglass front section, based on the component from the Formula One racing bolides.

The F-CELL Roadster is controlled with drive-by-wire technology, and a joystick takes the place of a conventional steering wheel. The vehicle is powered by the emission-free fuel cell system located at the rear. With a power rating of 1.2 kW the F-CELL Roadster reaches a top speed of 25 km/h and has an operating range of up to 350 km.

Designer : Mercedes Benz via [Jalopnik]

Designer : Iulian Bumbu via CarBodyDesign

Text from David:
Transportation is a key factor in our urban environments and most of our cities are now developed to match the scale and needs of cars, and car users. This reality raises issues regarding sustainability and environment, energy consumption and quality of life.

So, “How can public and personal transports be redefined in a sustainable way, delivering a sense of personal space and independence to its users?” This was the title of my Master of Science in Design and Transport Thesis, concluded in Coventry University, UK, with Distinction, in September 2008.

In other words, the aim of this project was to develop guidelines and a holistic solution for a new system of urban transport, composed of vehicle and infrastructure, in a sustainable way and adaptable to various urban environments.

To develop the project I needed information about: user’s behaviors and explanations for them; main trends; analysis of existing solutions and identification of their problems; definition of applicable technologies in a sustainable manner in a near future. This information was gathered through an online questionnaire, statistical data from several sources, literary research, internet articles, pictures, video and expert interviews and then compiled in my final report.

Preliminary research indicated that several attempts to tackle the issue of mass transportation are being tested and implemented throughout the biggest cities on Earth. Several solutions exist already, but people always seem to give preference to a personal vehicle of some kind to move, commute or make quick trips. Only when there is no other choice, people seem to engage in public transportation. Personal transport is the preferred mode of use and this is a trend that keeps increasing.

The conclusion of the thesis report was composed of guidelines and design specifications that served as basis for the development of a new type of transportation that is truly sustainable and that meets people’s requirements. This generic solution was exemplified through a typical design project that will act as future reference and that goes by the name of “SCARAB”.

PROJECT DESCRIPTION:
VEHICLE:
- The vehicle allows users to have freedom of use much like a motorcycle but with the convenience of having an enclosed private space and luggage compartments.
- The vehicle can be operated in several different positions depending on speed. It is parked vertically for easy ingress and egress and optimization of public space. When in speed position, the vehicle also tilts when curving or changing direction.
- When circulating in dedicated pathways, the SCARAB is controlled by a centralized computer or by a traffic management centre. Outside of the dedicated pathways the SCARAB is controlled by the user just like any other vehicle.

VEHICLE SPECS:
-The vehicle is composed of interchangeable modules that can be customized by the potential buyer/user.
-Powerpack module composed of a permanent battery plus 3 options for the main energy pack (battery, biofuel ICE or a fuel cell).
-4 wheel drive through electric brushless in-wheel motors with directdrive.
-Wheels with regenerative braking through EW Brakes.
-Drive by wire and tactile HUD embedded in the Lexan canopy.
-Structural elements in Carbon-Aramid composite.
-Embedded sensors, Lidar, radar, transponders, GPS. These serve to exchange information with the system, with other drivers and to have precise location data.

INFRASTRUCTURE:
-Communication nodes spread through roadways and traffic management centres in major conurbations.
-Dedicated paths with electromagnetic transponders embedded in the road.
-Parking facilities with solar/wind power generators.
-High speed/long distance travel provided through a railroad interface (not yet developed).

SYSTEM:
-Renting of the vehicle or modules that allows for a private/public/mixed utilization and transport access for people with less financial resources.
-Doesn’t need new infrastructures (uses the existing roads).
-Is backward compatible with current transport systems and uses current day technologies.

Designer : David Miguel Moreira Gonçalves

[Press Release]
Honda FC Sport Design Study Suggests Hydrogen Sports Car Future

LOS ANGELES, Nov. 19, 2008 – Honda today revealed the Honda FC Sport design study model, a hydrogen-powered, three-seat sports car concept, at the 2008 Los Angeles Auto Show.

The FC Sport emphasizes the design flexibility and potential of Honda’s V Flow fuel cell technology – already deployed in the Honda FCX Clarity sedan – and reconfigures it into a lightweight sports car design with an ultra-low center of gravity, powerful electric motor performance and zero-emissions. The design study concept is inspired by supercar levels of performance through low weight and a high-performance, electrically driven fuel cell powertrain.

“The Honda FC Sport explores how to satisfy automotive performance enthusiasts in a world beyond petroleum,” said Dan Bonawitz, vice president of American Honda Motor Co., Inc. “People who love sports cars will still have a reason to love in a hydrogen-powered future.”

The high-output Honda fuel cell powertrain and a sleek, aerodynamic body contribute to the vehicle’s performance potential. A modular approach to fuel cell component packaging and the electric drivetrain contribute to the FC Sport’s low center of gravity with the majority of vehicle mass distributed between the axles, creating the balanced weight distribution sought after in sports cars.

The ideal placement of the Honda V-Flow fuel cell stack and related components demonstrates the benefits of a platform-specific, hydrogen-powered fuel cell powertrain. The FC Sport is configured to accommodate a custom-formed high-power fuel cell stack, located between the rear seats, and a battery pack placed low in the middle of the vehicle. The electric motor resides just forward of the rear axle. Two fuel storage tanks, visible from above, are located above the rear axle.

The optimal placement of fuel cell components for performance also allows for a relatively large passenger cabin by conventional supercar standards with enough space for three seating positions. The interior layout focuses primarily on the driver with a racecar-like center driving position. The enclosed canopy opens upward from the rear to allow for entry and exit. Two rear passenger seats flank the driver’s left and right side.

The sleek, low-profile body is designed to convey a high-technology appearance with sculpting that combines angular shapes in the front of the vehicle that taper into geometric, hex forms in the rear. The rear hex forms house cooling radiators for the fuel cell. Formula 1-style barge boards behind the front wheels enhance high speed aerodynamics and convey the vehicle’s racing pedigree. The hydrogen storage tanks, visible from the rear deck, showcase the FC Sports fuel cell technology in much the same way that a “naked bike” motorcycle showcases its engineering technology.

The glacier white body color conveys the FC Sport’s clean environmental aspirations while the dark wheels and deeply tinted glass provide a symbolic contrast befitting of the vehicle’s unique combination of clean power and high performance. Green construction techniques further contribute to a reduced carbon footprint. An organic, bio-structure theme is carried through to the body construction where exterior panels are intended to use plant-derived bio-plastics.

The Advanced Design Studio of Honda R&D Americas, in Pasadena, California, developed the FC Sport design study with the primary objective of using existing fuel cell technology as the basis for an ultimate Honda sports car. Designer Jason Wilbur led the design efforts.

Honda R&D Americas, Inc. began its operations in California in 1975 with local market research activities and has steadily grown its capabilities over the past 33 years to include all aspects of new vehicle design and development. Recent development efforts include trend-setting products such as the Honda Pilot, Ridgeline, Element, Civic Coupe and Civic Si.

In 2008, the company opened two new design centers in Southern California: the Acura Design Studio (Torrance), for the research and design of new Acura products; and the Advanced Design Studio (Pasadena), for the exploration and development of advanced design themes for both Honda and Acura.

The company operates 11 major R&D facilities in North America, including a full vehicle development center in Raymond, Ohio, and three design studios in Southern California. Honda R&D designers, engineers and support personnel are engaged in the development of Honda and Acura automobiles, powersports products, and power equipment for North America and global markets. The company’s main centers of operation include the Los Angeles Center (Torrance, California), responsible for market research, concept development and styling design; the Ohio Center (Raymond, Ohio), responsible for complete product development, testing, and support of North American supplier and manufacturing operations; and a dynamic test facility in Cantil, California.