Imagine stepping out of your highrise apartment into a sunny, plant-lined corridor, biting into an apple grown in the orchard on the fourth floor as you bid “good morning” to the farmer off to milk his cows on the fifth.
You take the lift to your office, passing the rice paddy and one of the many gardens housed in the glass edifice that not only heats and cools itself, but also captures rainwater and recirculates domestic waste as plant food.
No, this is not the setting for a futuristic movie about humans colonising a new planet.
It is the design of Belgian architect Vincent Callebaut for a 132-floor “urban farm”—the answer, he believes, to a healthier, happier future for the estimated six billion people who will live in cities by 2050.
With food, water and energy sources dwindling, the city of the future will have to be a self-sufficient “living organism”, said the 36-year-old designer of avant-garde buildings some critics have dismissed as daft or a blight on the landscape.
“We need to invent new ways of living in the future,” Callebaut told AFP at the Paris studio where he plies his trade.
“The city of tomorrow will be dense, green and connected. The goal is to bring agriculture and nature back into the urban core so that by 2050… we have green, sustainable cities where humans live in balance with their environment.”
Each building, he said, must ultimately be a “self-sufficient, mini-power station.”
The quest for sustainable urban living has never been more urgent as people continue flocking to cities which encroach ever more onto valuable rural land, gobbling up scarce natural resources and making a disproportionate contribution to pollution and Earth-warming carbon emissions.
Enter Callebaut with his project “Dragonfly”—a design for a massive, twin-towered, “vertical farm” on New York’s Roosevelt Island.
From each tower springs a large, glass-and-steel wing, so that the edifice resembles the insect after which it was named.
The draft structure includes areas for meat, dairy and egg production, orchards, meadows and rice fields along with offices and flats, gardens and public recreation spaces.
Energy is harvested from the Sun and wind, and hot air is trapped between the building “wings” to provide heating in winter. In summer, cooling is achieved through natural ventilation and transpiration from the abundant plant growth.