Text from the website:
The engine that used is a rotary air engine. It is the invention of the Melbourne engineer Angelo Di Pietro. The engine is compact, lightweight and powerful and runs on compressed air from two compressed air tanks on the bike. It revs up to 3,000 RPM, and because of this, the inventors didn’t need any gear box on the bike. There is only one gear, which is just a sprocket bolted directly to the axis of the engine and chained to the rear wheel.

Compressed air is stored in the bike’s on-board carbon fiber tanks. Once mass produced, the bike will have solar panels that will generate enough energy to compress air and store it in the bike’s tanks, which will increase its range indefinitely.

As the bike was designed as a speed record setter, there is no headlight, brake light or indicator lights on the bike. Instead, there were three little cameras fitted at the front and tail on the bike that are used to record the run. The body works were designed to be aerodynamic and lightweight, and it will be made of fiber glass or carbon fiber.

Designer : Edwin Conan

Designer : Daniele Gualeni

This concept has been driven from the need for zero-pollution, efficient and affordable cars for the future community and enjoying the freedom of a ride. The ATNMBL is designed as a self-driving car with artificial intelligence which arrive to you with just a phone call. The standing-height entrance has an electric sliding glass door and upon entering, you will be asked for your desired destination. The comprehensive and innovative voice recognition system of this vehicle along with a touch screen remote and slide up display, it can offer a wide range of tour planning, detailed performance setting and enjoyable ride sharing.

The overall arrangement of the interior of ATNMBL is very much familiar with conventional living room sitting including side chair, a couch and a low table. Up to seven passengers can sit towards each other and can see outside through large floor-to-ceiling windows on both sides. From outside, this vehicle looks like micro-architecture with a large window, pitched room and asymmetrical shape from every view without any reference to past automobile designs.

A considerable amount of typical car space is blocked with the engine and drive train, while, the mechanical components of ATNMBL are simplified and densely packed, providing more interior space. Each wheel contains electric motors which provide all-wheel drive. The power storing mechanism is located beneath the floor; moreover, alternative solar energy can be obtained from the roof-top solar panels. The front and rear end contains an array of tail lights, headlights and sensors.

Designer : Mike and Maaike via Core77

[Press Release]

DRAGONFLY, A METABOLIC FARM FOR URBAN AGRICULTURE

2009 : 800 MILLION OF URBAN FARMERS FOR RESPONSIBLE ECO-CITIES

The world of fast-food and frozen food is over! The urban keen interest of the beginning of our Century turns toward the garden flat bringing back the countryside in our overcrowded cities fighting from now on for a community urban agriculture able to contribute to the durability of the city and to rethink the food production.

On the roofs, terraces, balconies, in the hollow of the non-built public spaces, in the interior yards and the suspended greenhouses, the eco-warrior aspires to escape from its competitive and consumeristic universe imposed by the laws of the market. He desires to cultivate its immediate landscape so as to better take root in the ground by creating his own ecologic and alimentary biodiversity. The consumer becomes from then on producer and the garden inhabitant !

From the Parisian « worker gardens » to the « community gardens » of New York going though Muscovite « vegetable squares », eight hundred million of urban farmers, i.e. more than one human being out of ten, consume nowadays chlorophyllous products from these cosmopolitan kitchen gardens. These new gardens, aware of the emergency to reduce our fuel consumption and the necessity to modify our behaviour facing the climatic changes, decrease thus their environmental impact and build eco-responsible cities on a community way.

2025 : 5.5 BILLION OF CITY SLICKERS FACING THE FOOD CHALLENGE OF THE 21ST CENTURY

According to the PNUD (Programme of the United Nations for the Development), the worldwide urban population will go from 3.1 billion of inhabitants in 2009 up to 5.5 billion of inhabitants within 2025. Looking for a positive energetic assessment, the contemporary city aims within fifteen years at producing cleanly and intensively more energy than it consumes so as to pack this urban exodus! It develops therefore the urban agriculture to become food self-sufficient by recycling at the same time its liquid waste by phyto-purification, its solid waste in fertilizers by composting and by producing energy by biomass, photovoltaic cells and other renewable energies (thermic solar, photovoltaic solar, wind, tide-turbine energies…).

In order to avoid the asphixiation of the planet and the feeding of its 9 billion of inhabitants within 2050, it deals thus with reinventing the traditional energetic pattern between the city and the countryside between western countries, emerging countries and developing countries. This sums up as following: on the one hand import of natural and food resources, and on the other hand export of waste and pollution. The ecologic city aims at reintegrating the farming function on the urban scale by emphasizing the role of the urban agriculture in the use and the reuse of natural resources and biodegradable waste so as to close the loop of ecologic flows.

The urban agriculture can feed the city without any pesticide or chemical fungicide (whose toxicity is proved on the human being : cancer, sterility…), and make it less food dependant of its backcountry or other regions of the world. Organising the distribution of fresh products in short circuits, that means linked directly with the consumer, the urban agriculture complete thus the traditional agriculture. In addition to the nutritive quality of the produced and consumed food, the urban agriculture is also a growth lever of the urban unemployment market and the local economy. It is used directly as a social link in the conciliation of the primary needs of the newcomers with the challenge of their integration in the life of the city, fighting thus against poverty and exclusion. On the sanitary level, this farm approach presents also an interesting potential for the decontamination of polluted grounds and undergrounds as well as for he purification of the polluted atmosphere in CO2.

Due to the fuel crisis and climatical change, the rural agriculture of the western countries must answer to the worldwide food crisis of the developing countries and mainly Africa. Its role is from now on to produce (with an increase estimated of 60% within 2050) all the foodstuffs transportable by boat such as cereals or corn. This is based on the evolution of the science and the most advanced biotechnologies. In addition to this nutritious role, the rural agriculture is newly challenged to recycle its own culture rebus for the green chemistry in order to produce the bio fuel called “second generation fuel” using the energy of non-consumable materials from the plants, that means fibres such as celluloses.

DRAGONFLY, A NOURISHING VERTICALY CULTIVATED CENTRAL PARK

The architecture has to be in the service of this new agriculture and to design this new social desire in this context of ecologic mutation and food autonomy! The Dragonfly project suggests therefore building a prototype of urban farm offering around a mixed programme of housing, offices and laboratories in ecological engineering, farming spaces which are vertically laid out in several floors and partly cultivated by its own inhabitants. This vertical farm sets up all the sustainable applications in organic agriculture based on the intensive production varied according to the rhythm of the seasons. This nourishing agriculture is furthermore in favour of the reuse of biodegradable waste and the keeping of energy and renewable resources for a planning of ecosystemic densification.

Floor by floor, the tower superposes not only stock farming ensuring the production of meat, milk, poultry and eggs but also farming grounds, true biological reactors continuously regenerated with organic humus. It diversifies the cultivated varieties to avoid the washing of stratums of soft substratum. Thus, the cultures succeed one another vertically according to their agronomical ability to provide some elements of the ground between the essences that are sowed and harvested. The tower, true living organism, becomes thus metabolic and self-sufficient in water, energy, and bio-fertilizing. Nothing is lost; everything is recyclable to a continuous auto-feeding!

A BIONIC AND ENERGETICALLY SELF-SUFFICIENT ARCHITECTURE
The architecture of Dragonfly prototype suggests reinventing the vertical building (that outlined the urbanistic booming of New York City since the 19th Century) as structurally and functionally as ecologically and energetically.

To ensure the social diversity and a permanent life cycle (24h/24) in the tower, the mixed programmation is mainly laid out around two poles of housing and work places. Around housings, offices and research laboratories as well as the most private to the most public agricultural and leisure spaces are designed in gardens, kitchen gardens, orchards, meadows, rice fields, farms and suspended fields. The distribution of flows is made around a true safe spine spreading in loop the numerous elevators, the goods elevators and stair wells serving all the levels by separating simultaneously the inputs and the outputs recycled from plants, animals and human beings.

Architecturally, the functional organisation is represented by two oblong towers symetrically arranged in pair around a huge climatic greenhouse that links them and deploys itself between two crystalline wings. These very light wings in glass and steel retake the loads of the building and are directly inspired from the structure of the dragonfly wings coming from the family of “Odonata Anisoptera” whose transparent membrane is very finely nervured. Two inhabited rings buttress around these wings. Their organically chiselled exo-structure accommodates the inter-climatic spaces that receive the agrarian cultures. They buttress.

The whole set forms «double layer» architecture in bee nest mesh that exploits the solar passive energy at its maximum level, by accumulating the warm air in the winter in the thickness of the exo-structure, and by cooling the atmosphere by natural ventilation and by evapo-perpiration of the plants in the summer. Protecting thus the cultures from climatic changes in New York (from -25.5°C in the winter to +41°C in the summer), these plug spaces are useful to reflect on the agriculture not anymore in terms of surface area but really in terms of volume. Actually, whereas grounds nourish orchards, each wall and each ceiling are metamorphosed into three-dimensional kitchen gardens. The interior frontages of the housing and offices throw towards the skyline of New York the cantilever of their hydrophonic balconies with hexagonal section thanks to what it multiplies the culture layers by floors. The vegetation abounds, the earth is swarming of insects and animals are freely brought up in holding tanks by urban consumers with low income. The architecture becomes eatable!

Designer : Vincent Callebaut Architect

Designer : Yasuhiro Akama

Designer : Jens Roeper and Phil Perez

Zhang says:
MERM (Modular Electronic Retail Minivan) facilitates a mobile retail market that could bring retail services and vibrancy to city areas that have been drained of intensity due to singular functional uses or irregular visitor flows. With its various functional modules and transformable car body, MERM makes optimum use of the space it occupies. The electric engine does not produce any air pollution and the solar panel on the roof provides power for all facilities on board.

With the help of a central information system, a group of mobile MERMs could greatly increase the efficiency of the retail process, and reduce unnecessary municipal input. So that MERM can match various sales purposes in different environments, the central container has been designed with changeable modules. These accommodate “Magazines and Souvenirs”, “Hot Food” and “Frozen Food”. Users can purchase several types of modules and choose a two-module combination (one for each side of MERM) that best fits their current sales plan. Modules are easy to replace by simply sliding them out from the car body.

When MERM is in driving mode, all the inner space is fully used for storing goods. When it’s switched to retail booth mode, the shelf can be easily unfolded for display outside the car, making adequate space for the vendor to stand inside. This feature minimizes the size of the car and thus reduces its energy consumption. Also, the compact size enables the user to drive in narrow urban streets.

Designer : Zhang Zhongren

Text from the website:
The Freight*BUS is designed for several possible propulsion systems, including batteries that are automatically recharged when the bus stops and the potential for fuel cell operation in the future. Thanks to in-wheel electric motors, the bus can manoeuvre into tight bus stops in a ‘crab’ like movement.

Designer : Hugh Frost via Yahoo

Some description from the designer :
Algaster uses algae for biomass production, because of their high oil content (several energetic industries are taking this into account from spain to japan). At the same time it provides eutrophic water cleaning (creating energy from pollution, in a way).
The system is composed by several machines, as needed (it could be used in sea water as well as in lakes). Every machine is independent (controlled by a GPS system and driven by robotic legs so it doesn’t destroy the underwater ecosystem) and acting as unit of an insect swarm.

Every unit harvests algae, cut them in little pieces (to make them dry out sooner) and treat them with UV rays (this way sterilizing algae’s spores). Then the load is stored in nets (contained in ten sliding boxes in the back of the machine). When the net is full with treated algae, an inflatable structure closes it and brings it on surface. When every net is full, an inflatable structure brings the machine on surface too. Power supply is provided by solar cells, on the back. In this way, while in the surface without net-containing boxes, it fully recharges. Every machine can harvest a 100kg load every day (10kg every net), a 10 machine system can harvest 1ton of algae!

Designer : Stefano Pertegato, Philipp Frank, Marco Nicoletti, Francesco Schiraldi, Eloisa Tolu

Designer : Liang Tian