When a flower doesn’t bloom you fix the environment in which it grows, not the flower.
(via ociz)
Today I am drawing Christmas card designs. For robots. #christmascard #christmas #xmas #merrychristmas #robot #robotart #art #illustration #instaartist #instaart #jonturner
In an experiment, two ravens had to simultaneously pull the two ends of one rope to slide a platform with two pieces of cheese into reach. If only one of them pulled, the rope would slip through the loops, leaving them with no cheese. Without any training they solved the task and cooperated successfully.
However, when one of the two birds cheated and stole the reward of its companion, the victims of such cheats immediately noticed and started defecting in further trials with the same individual.
“Such a sophisticated way of keeping your partner in check has previously only been shown in humans and chimpanzees, and is a complete novelty among birds.”
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Consider a 100% tax-deductible DONATION to free a child from slavery on Lake Volta here: madeinafreeworld.com/ghana
Amazing Maps of the World
A Merry-Go-Round That Turns The Power Of Play Into Electricity - Vlad Vilenski posted in Green, Electricity and Non Profit
Empower Playgrounds is a nonprofit that has come up with an intriguing solution: Harnessing the power of play, it provides merry-go-rounds to schools in Ghana that generate and store electricity as they are spun around, even while teeming with laughing and smiling kids.
Continue to fastcodesign.com
There hadn’t been one single baby tortoise sighting in more than a century on the Galapagos Island of Pinzon, until a small group of the tiny, shelled youngsters were spotted this year.
The recent births are helping to pull the critically endangered animals back from the brink of extinction after they were nearly laid to waste as a result of human activity.
This is huge news for a species that has been struggling to survive for a century, relying on humans raising young tortoises bred in captivity until they are large enough to not fall prey to rats and predators.
Remember the Japanese biomaterials company Spiber? In 2013, they presented a cocktail dress made of Qmonos (from the Japanese word kumonosu meaning ‘spider web’), their present 11-year-10-design-iterations-and-656-gene-synthesis synthetic version of stronger than steel and more flexible than nylon lightweight spider silk.
Snip from geek.com:
The end result of all that research is a method for producing artificial spider silk through a fermentation process using bioengineered microorganisms to produce the silk proteins. A real spider can only produce so much silk, but an engineered cell that does nothing but spit out silk proteins can be used to scale production up quickly.
Now they presented in collaboration with The North Face a new prototype called The Moon Parka, which is currently touring North Face stores across Japan. It’s intended to show that practical applications of spider silk are possible (cost is now 1/53,000 of what it was in 2008). Spiber aims to deliver the final product next year. Presumably only in Japan. But fingers crossed for a worldwide rollout at reasonable prices.
Watch their promo-launch video below:
[North Face x Spiber] [Spiber] [picture by North Face]
Ancient Mars had a thick atmosphere filled with carbon dioxide that kept it warm. Rivers trickled into lakes across its surface. Some researchers think there might even have been an ocean. It looked a lot like ancient Earth.
But Mars doesn’t have Earth’s magnetic field, and that has made all the difference. Our magnetic field blocks solar wind - the high energy particles emitted by the sun.
Thanks to new data from the Mars Atmosphere and Volatile Evolution Mission (MAVEN) we know that this solar wind has been assaulting Mars for centuries, and as a result its atmosphere is constantly leaking into space.
Read more here!
Algorithm take months, not years, to find material for improved energy conversion
In even the most fuel-efficient cars, about 60 percent of the total energy of gasoline is lost through heat in the exhaust pipe and radiator. To combat this, researchers are developing new thermoelectic materials that can convert heat into electricity. These semiconducting materials could recirculate electricity back into the vehicle and improve fuel efficiency by up to 5 percent.
The challenge is, current thermoelectric materials for waste heat recovery are very expensive and time consuming to develop. One of the state of the art materials, made from a combination of hafnium and zirconium (elements most commonly used in nuclear reactors), took 15 years from its initial discovery to optimized performance.
Now, researchers from the Harvard John A. Paulson School of Engineering and Applied Sciences (SEAS) have developed an algorithm that can discover and optimize these materials in a matter of months, relying on solving quantum mechanical equations, without any experimental input.
“These thermoelectric systems are very complicated,” said Boris Kozinsky, a recently appointed Associate Professor of Computational Materials Science at SEAS and senior author of the paper. “Semiconducting materials need to have very specific properties to work in this system, including high electrical conductivity, high thermopower, and low thermal conductivity, so that all that heat gets converted into electricity. Our goal was to find a new material that satisfies all the important properties for thermoelectric conversion while at the same time being stable and cheap.”
Read more.