Genetics: Do not. Unless cheek swabs?
Chemistry: NO!!!!! DO NOT!!!!!!
Archaeology: Perhaps. But might be human bone.
Geology: Sometimes needed, sometimes dangerous
Psychology: Best not.
Physics: ????????? How??????
Zoology: In zoology, science licks you.
https://www.facebook.com/drunkscience4u/videos/1418162364863308/
We all know this struggle, Cylinder. We all know. March 4, we make their dreams come true on YouTube! Tune in!
Old but gold 💛
Let’s celebrate black people, who made history! This is so important to know that some of us didn’t give up and were strong enough to achieve something great like this. These stories are inspirational , but we don’t see them in our history books. Even though she was told women can’t go into space, she never stopped believing in her dreams.
“As a little girl, I was excited, and people kept trying to explain to me why women couldn’t go into space,” Jemison said, according to the university’s student newspaper, The Plainsman. “I always thought they were full of it.”
She’s the role model for every black kid, who has big dreams! She is a living proof everything’s possible!
#BlackHistoryMonth
Chop a magnet in two, and it becomes two smaller magnets. Slice again to make four. But the smaller magnets get, the more unstable they become; their magnetic fields tend to flip polarity from one moment to the next. Now, however, physicists have managed to create a stable magnet from a single atom.
The team, who published their work in Nature on 8 March1, used their single-atom magnets to make an atomic hard drive. The rewritable device, made from 2 such magnets, is able to store just 2 bits of data, but scaled-up systems could increase hard-drive storage density by 1,000 times, says Fabian Natterer, a physicist at the Swiss Federal Institute of Technology (EPFL) in Lausanne, and author of the paper.
“It’s a landmark achievement,” says Sander Otte, a physicist at Delft University of Technology in the Netherlands. “Finally, magnetic stability has been demonstrated undeniably in a single atom.”
Continue Reading.
The Juno mission has been revealing angles of Jupiter we’ve never seen before. This photo shows Jupiter’s northern temperate latitudes and NN-LRS-1, a.k.a. the Little Red Spot (lower left), the third largest anticyclone on Jupiter. The Little Red Spot is a storm roughly the size of the Earth and was first observed in 1993. As an anticyclone, it has large-scale rotation around a core of high pressure and rotates in a clockwise direction since it is in the northern hemisphere. Jupiter’s anticyclones seem to be powered by merging with other storms; in 1998, the Little Red Spot merged with three other storms that had existed for decades. (Image credit: NASA/JPL-Caltech/SwRI/MSSS/Gerald Eichstaedt/John Rogers; via Bad Astronomy)
The official page of Drunk Science! An enthusiastic host performs simple experiments and then humorously explains the science behind the result, all while visibly drunk.
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