We know that pollution is bad for us, don’t we? And we guess that living in areas with high levels of pollution is probably not good for our health, but we need to live near our job, and populated areas offer more employment opportunity, recreational and cultural opportunities and other advantages. But at what cost? And what can we do to reduce the levels of
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The amount of energy we use to manufacture the products we use every day is a significant part of the energy needed to support out lifestyle. As the planet gets more and more populated, can we continue to make manufacturing more efficient, or are thee limits to this?
The Cambridge Solar Tool shows Cambridge residents, businesses, and property owners how much electricity can be produced on their rooftops from solar photovoltaic (PV) systems, how the financial investment will pay off, and how much pollution will be reduced.
Fusion power is the power generated by nuclear fusion processes. In fusion reactions two light atomic nuclei fuse together to form a heavier nucleus (in contrast with fission power which breaks up a heavier nucleus to release power). In doing so they release a comparatively large amount of energy arising from the binding energy due to the strong nuclear force
Cities are facing many problems, including the lack of parking spaces and air pollution. Regular electric vehicles would solve the air pollution issue, but not the parking one.
This is probably why the Massachusetts Institute of Technology (MIT) worked on a folding electric car codenamed CityCar. The result is Hiriko (“urban” in Basque language), a folding electric car that will soon be built by a consortium of Spanish and Basque companies.
The vehicle was presented officially to the press and general public by the European Commission’s President, José Manuel Durao Barroso, which touted it as an answer to the crisis.
A two-seater, the car has a 120 kilometers (75 miles) autonomy and can go to up to 50 kmph (31 mph), which is the maximum speed in many, if not most European cities. The limited range, speed and space make it an urban city vehicle only.
The Hiriko is powered by four individual in-wheel electric motors that enable the car to spin in a 360 or park easily. Both driver and passenger enter and exit the vehicle by the front.
The folding capacities and the tiny size ( just 2.5 meters (8 feet) long unfolded, under 2 meters folded ) of the car enable to park three of them once they are folded in a regular parking space.
Driving might differ from your daily experience as the official website notes that:
” HIRIKO will be driven by means of a haptic steering wheel, without a steering bar, and it will be electronically managed. The joystick will be an option offered to those customers who demand it.”
Folding the car can be done by activating a command on the in-built screen of the steering wheel.
The cities of Berlin, Madrid, Malmö, Hong Kong, Quito and San Francisco will soon test these vehicles. The Huffington Post reports that talks are under way with Paris, London, Boston, Dubai and Brussels.
If all these tests are positive, you may see these cars in your city sometime in the not too distant future.
MIT’s annual Energy Conference, held last Friday and Saturday, featured an impressive array of young engineers, scientists, and renewable energy entrepreneurs. It also included a sizeable number of more established players in the energy field. And the question left hanging at the end of the conference was whether this group of inventors and dreamers
Massachusetts Institute of Technology (MIT) researchers recently released a study examining the future of the U.S. electric grid. MIT concluded that developing a modern grid through the anticipation of needed improvements can facilitate the integration of renewable energy resources, accommodate a growing number of electric vehicles,
Scientists at the Massachusetts Institute of Technology (MIT) say that replacing flat solar panels with three-dimensional structures could make photovoltaic systems as much as 20 times more effective.
In a series of tests, the researchers found that such 3D structures are able to pick up light even when the
Top Ten Highlights of Cleantech in the Massachusetts Institute of Technology (MIT)
Universities house the future, no one will deny that. Universities house the next generation of thinkers and doers, the ones that will work to make the planet better for the following generations to come. One of the primary universities that is taking clean technology to heart, understanding that its development is key for
Researchers at MIT have designed a device the size of a U.S. quarter that harvests energy from low-frequency vibrations, such as those that might be felt along a pipeline or bridge. The tiny energy harvester — known technically as a microelectromechanical system, or MEMS — picks up a wider range of
Scientists at the Massachusetts Institute of Technology are developing a new battery technology that they say would significantly reduce the size of electric car battery systems and potentially double the range of electric vehicles.
The technology uses a type of semi-solid flow cell
Lithium-ion batteries are everywhere these days. From cellphones to electric cars, they dominate the market for rechargeable devices. One of the main challenges faced by the electric vehicle industry is related to the energy density of electric car batteries.
MIT researchers have developed a method for producing photovoltaic cells on paper and fabric.
Innovative solar technologies are popping up at a staggering rate. Last week MIT announced a new method for producing PV cells that’s compares in price and simplicity to printing photos at home.
The U.S. could cut its carbon dioxide emissions by 8 percent, almost half of the country’s unofficial 2020 emissions reduction goal, by increasing use of natural gas plants, according to a new M.I.T. report.
The report, “The Future of Natural Gas,” found that