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I see a future in TSA, FBI, CIA, local law enforcement, insurance companies’ fraud units, etc.


Purdue is leading part of an international effort to develop a system for the military that would detect doctored images and video and determine specifically how they were manipulated.

“This team has some of the most senior and skilled people out there in the field, some of whom helped to create the area of media forensics,” said Edward Delp, Purdue’s Charles William Harrison Distinguished Professor of Electrical and Computer Engineering, in a press release.

The project is funded over four years with a $4.4 million grant from the U.S. Defense Advanced Research Projects Agency (DARPA). The research also involves the University of Notre Dame, New York University, University of Southern California, University of Siena in Italy, Politecnico di Milano in Italy, and University of Campinas, in Brazil.

Anyone, planning to attend this November? It looks like the who’s who in Drones and Robotics.


The post is also available in: Hebrew :הכתבה זמינה גם ב

The Unmanned Systems and Robotics AUS&R 2016 international convention has been attracting the attention of world’s leading states and defense industries, including the US, India, Germany, DARPA governmental agency and many others, which had already registered to participate.

60 international media channels will broadcast the innovative autonomous systems demos at the airshow and convention, which will be held on September 19th, 2016 at the Lago event center, Rishon LeZion.

Good; glad they are hearing us. Because it is a huge issue for sure especially with some of the things that I seen some of the researchers proposing to use CRISPR, 3D Printers, etc. to create some bizarre creatures. Example, in March to scientists in the UK wanted to use CRISPR to create a dragon; personally I didn’t expect it to be successful. However, the scientists didn’t consider the fallout to the public if they had actually succeeded.


For a few hundred dollars, anyone can start doing genetic editing in the comfort of their own home.

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The human body has about 25,000 genes. Researchers already know of 65 genes they believe carry a risk for autism. Now, researchers at Princeton University in New Jersey have identified 2,500 more that could help create the conditions for autism.

The discovery is important because the genes could lead scientists toward finding a cause and, possibly, a treatment.

Autism and … Facebook?

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Awesome.


Stroke is the leading cause of serious, long-term disability in the US. Every year almost 800,000 people suffer from a stroke. The impact on their lives, and the lives of those around them can be devastating.

Right now the only treatment approved by the US Food and Drug Administration (FDA) is tissue plasminogen activator or tPA. This helps dissolve the blood clot causing most strokes and restores blood flow to the brain. However, to be fully effective this has to be administered within about 3–4 hours after the stroke. Many people are unable to get to the hospital in time and as a result suffer long-term damage, damage that for most people has been permanent.

But now a new study in Nature Medicine shows that might not be the case, and that this damage could even be reversible.

Nice synopsis.


The lattice symmetry of a quantum Wigner crystal is deduced from its effect on quantized states in a nearby sheet of electrons.

Left to their own devices, electrons confined to a sheet can crystallize into an ordered array at low temperatures because of their mutual repulsion. Physicists have observed a classical version of this “Wigner crystal” in electrons floating on liquid helium and a quantum variety in electrons trapped at a semiconductor interface. But the lattice geometry of electrons in the latter has been tough to glean. A team led by Mansour Shayegan at Princeton University, New Jersey, obtained this information using a new technique, possibly providing a way to test the many-body theories that predict Wigner crystallization.

The experimental device consists of a stack of two closely spaced semiconductor quantum wells. Electrons in quantum wells are effectively trapped in 2D, and at high magnetic fields and low temperatures they fall into quantized orbits. These states are the basis of the fractional quantum Hall effect (FQHE), whose signature is sharp dips in the resistance at fractional values of the so-called filling factor (the ratio of electron density to field strength).