26.3472939, 29.527707

https://player.vimeo.com/video/129003674

Hannah Reber, "Fragezeichen V4", 2015, part of multiple-screen video installation

https://player.vimeo.com/video/58293122?title=0&byline=0&portrait=0

Hannah Reber, “Untitled (spin the bottle)”, 2013, installation version #3

https://www.forbes.com/forbes/welcome/?toURL=https://www.forbes.com/sites/startswithabang/2017/05/08/hubble-views-the-final-frontier-for-dark-matter/&refURL=&referrer=

Scientists Have Set a Limit For Quantum Entanglement - And It's Really Freaking Powerful

Unbreakable at 30 times Earth's acceleration.

For the first time, scientists have subjected quantum entanglement to extreme levels of acceleration, and there’s nothing fragile about this “spooky action at a distance”- it’s way more robust than we thought.

In recent experiments, entangled particles held firm even while being accelerated to 30g - 30 times Earth’s acceleration - and the results could have a big impact on our search for a unified theory of modern physics.

“These experiments shall help [us] unify the theories of quantum mechanics and relativity,” says one of the team, Rupert Ursin, from the University of Vienna, Austria.

Continue Reading.

“paper works”, Hannah Reber, 2013, Berlin

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A new study publishing this week in the Astrophysical Journal by Gary Prézeau of NASA’s Jet Propulsion Laboratory, Pasadena, California, proposes the existence of long filaments of dark matter, or “hairs.” http://ift.tt/1NdQIKk

Hold a buoyant sphere like a ping pong ball underwater and let it go, and you’ll find that the ball pops up out of the water. Intuitively, you would think that letting the ball go from a lower depth would make it pop up higher – after all, it has a greater distance to accelerate over, right? But it turns out that the highest jumps comes from balls that rise the shortest distance. When released at greater depths, the buoyant sphere follows a path that swerves from side to side. This oscillating path is the result of vortices being shed off the ball, first on one side and then the other. (Image and research credit: T. Truscott et al.)