Lifeboat Foundation

The more crops we cultivate, the less chance our food supply wil get wiped out by a disease.

Out of the more than 300,000 plant species in existence, only three species—rice, wheat, and maize—account for most of the plant matter that humans consume, partly because in the history of agriculture, mutations arose that made these crops the easiest to harvest. But with CRISPR technology, we don’t have to wait for nature to help us domesticate plants, argue researchers at the University of Copenhagen. In a Review published March 2 in Trends in Plant Science, they describe how gene editing could make, for example, wild legumes, quinoa, or amaranth, which are already sustainable and nutritious, more farmable.

“In theory, you can now take those traits that have been selected for over thousands of years of crop domestication—such as reduced bitterness and those that facilitate easy harvest—and induce those mutations in plants that have never been cultivated,” says senior author Michael Palmgren, a botanist who heads an interdisciplinary think tank called “Plants for a Changing World” at the University of Copenhagen.

Continue reading “Want more crop variety? Researchers propose using CRISPR to accelerate plant domestication” »

Denmark’s wind turbines produced enough electricity to power the entire country last month.

The Scandinavian nation generated 97 gigawatt-hours (GWh) on 22 February, thanks to particularly windy weather, which is enough to power 10 million average EU households for the day.

Wind Europe spokesman Oliver Joy said the “impressive” feat was another boon for wind energy.

Continue reading “Denmark runs entirely on wind energy for a day” »

Nice.

MIT researchers have done even better. MIT has spunout a company called Sistine Solar that has developed a technology to print any kind of image on a skin that can be applied on solar panels, which change the appearance of the photovoltaic cells from all angles, without compromising on their capacity to generate electricity. Founded by the Sloan School of Management at MIT, Sistine Solar hopes to increase the adoption of clean energy with solar panels that mimic the surroundings or environment.

Continue reading “MIT spinout Sistine Solar can print any image on photovoltaic cells” »

Researchers at the University of Minnesota and University of Milano-Bicocca are bringing the dream of windows that can efficiently collect solar energy one step closer to reality thanks to high tech silicon nanoparticles.

The researchers developed technology to embed the silicon nanoparticles into what they call efficient luminescent solar concentrators (LSCs). These LSCs are the key element of windows that can efficiently collect solar energy. When light shines through the surface, the useful frequencies of light are trapped inside and concentrated to the edges where small solar cells can be put in place to capture the energy.

The research is published today in Nature Photonics.

Continue reading “Dream of energy-collecting windows is one step closer to reality” »

The falcon-wing doors sealed shut and the boy studied the moonroof above his seat. His eyes trailed forward to the panoramic front windshield. The 17-inch touch screen in the center stack arrested his attention, like headlights to a deer, causing the boy to mutter, as if in a trance, “This is how I imagine cars of the future.”

Then I floored it and the kid erupted in a fit of giggles as the all-electric performance SUV rocketed to 60 mph in 2.9 seconds.

Gets too advanced for me, but still interesting.

As the world transitions to a low-carbon energy future, near-term, large-scale deployment of solar power will be critical to mitigating climate change by midcentury. Climate scientists estimate that the world will need 10 terawatts (TW) or more of solar power by 2030—at least 50 times the level deployed today. At the MIT Photovoltaics Research Laboratory (PVLab), teams are working both to define what’s needed to get there and to help make it happen. “Our job is to figure out how to reach a minimum of 10 TW in an economically and environmentally sustainable way through technology innovation,” says Tonio Buonassisi, associate professor of mechanical engineering and lab director.

Their analyses outline a daunting challenge. First they calculated the growth rate of solar required to achieve 10 TW by 2030 and the minimum sustainable price that would elicit that growth without help from subsidies. Current technology is clearly not up to the task. “It would take between $1 trillion and $4 trillion of additional debt to just push current technology into the marketplace to do the job, and that’d be hard,” says Buonassisi. So what needs to change?

Continue reading “Mechanical engineers leading effort to detect defects that reduce efficiency” »

Farmers have numerous sources of technology and data available to use in their operations, but many producers struggle with what kind and how much technology they need, according to an article on the University of Nebraska-Lincoln’s Institute of Agriculture and Natural Resources website.

Understanding which technologies and data sets are important and how to best use them is the focus of Joe Luck’s work as Nebraska Extension precision agriculture engineer.

“To me, precision ag has become a catchall term, but basically it refers to hardware and software systems that improve knowledge and decision support to make farming more manageable, sustainable and profitable,” said Luck, who also is an assistant professor of biological systems engineering.

Continue reading “Precision Agriculture Makes Farming More Sustainable, Profitable” »

Luminescent solar concentrators (LSCs), which are flat panes of mostly transparent material that take sunlight (both diffuse and directed) and concentrate it at the panes’ edges, can be used as “photovoltaic windows,” which, as the name makes clear, collect solar energy while serving as ordinary windows. Now, researchers at the Università degli Studi di Milano-Bicocca and Glass to Power Srl (both of Milano, Italy) and the University of Minnesota (Minneapolis, MN) are lowering the potential cost of such windows by using silicon nanoparticles as the fluorescent absorber/emitter in the LSC windows.

https://www.youtube.com/watch?v=IEWBmIrXyhw

“Launched in 2007, the Fuller Challenge has defined an emerging field of practice: the whole systems approach to understanding and intervening in complex and interrelated crises for wide-scale social and environmental impact. The entry criteria have established a new framework through which to identify and measure effective, enduring solutions to global sustainability’s most entrenched challenges. The rigorous selection process has set a unique standard, gaining renown as “Socially-Responsible Design’s Highest Award.”

The Fuller Challenge attracts bold, visionary, tangible initiatives focused on a well-defined need of critical importance. Winning solutions are regionally specific yet globally applicable and present a truly comprehensive, anticipatory, integrated approach to solving the world’s complex problems.”

Deadline is March 31, 2017