Courtney Love discovers direct evidence of Big Bang cosmic inflation, and by Courtney Love, I mean scientists
Researchers from the BICEP2 collaboration today announced the first direct evidence for this cosmic inflation. Their data also represent the first images of gravitational waves, or ripples in space-time. These waves have been described as the “first tremors of the Big Bang.” Finally, the data confirm a deep connection between quantum mechanics and general relativity.
Physicists in Germany and the US developed an entirely new kind of particle that doesn’t exist in nature, called a dropleton.
Writing in the journal Nature, they said it behaves a bit like a liquid droplet and described it as a quasiparticle — an amalgamation of smaller types of particles.
The discovery, they added, could be useful in the development of nanotechnology, including the design of optoelectronic devices. These include things like the semiconductor lasers used in Blu-ray disc players.
The microscopic quantum droplet does not dawdle. In the physicists’ experiments using an ultra-fast laser emitting about 100 million pulses per second, the quantum droplet appeared for only about 2.5 billionths of a second.
At least not “black holes” as they’re currently defined, where there’s an even horizon, a point at which light or nothing else can escape once it gets sucked in. While his paper has not been peer reviewed, what he’s essentially saying is that because of quantum fluctuation, stuff can and does escape from black holes, which basically just takes the “black” out of black holes. Everyone could just say “Stephen Hawking says things can escape from a black hole”, but instead, it sounds a lot better to say “there are no black holes”.
39 minutes. It may not seem like a lot, and obviously compared to the computer you’re reading this on, working for 39 minutes sounds kinda lousy. But in terms of quantum computing, it’s a big, big, big deal. That’s how long scientists were able to hold a qubit’s memory state for, which is way longer than anyone had previously been able to accomplish.
Every good attempt to try and reign in the weird world of quantum physics has so far met with mixed results, but the discovery of a multifaceted, multidimensional geometric shape at the heart of quantum physics may make things a little more predictable. And it would even make the ancient Greeks get a boner in their togas, considering how big they were on beautiful geometry being the basis for everything.
There’s a lot to summarize, but the above shape is called an amplituhedron and in its geometry are all the probabilities of particle interaction.
Submitted by Delsyd
Physicist Art Hobson has offered a solution, within the framework of standard quantum physics, to the long-running debate about the nature of quantum measurement.
In an article published August 8 by Physical Review A, a journal of the American Physical Society, Hobson argues that the phenomenon known as “nonlocality” is key to understanding the measurement problem illustrated by “Schrodinger’s cat.”
Over the years, there have been many challenges to the second law of thermodynamics— that law that says there is no free energy and you can’t get something for nothing— some of them have been valid, some have not. In a recent experiment from Japan, it was found that quantum entangled particles take that second law and just blow by it like it wasn’t even there. Free energy? Apparently so.
Two thousand years ago, Egypt was one of the great academic centers of the world. And now, one 19 year girl old named Aisha Mustafa has invented a quantum physics based propulsion system that would make the ancient Egyptian scholars proud, and it could represent the future of space travel.
Quantum computers are going to be so incredibly badass, but here’s exactly how badass: A new quantum simulator from the University of Sydney has, and we’re quoting here, “the potential to perform calculations that would require a supercomputer larger than the size of the known universe.” Mind. Blown.
Regardless of the initial results of an experiment with some neutrinos, the absolute speed limit in the universe is still the speed of light. Even in the weird quantum world, nothing can go faster than the speed of light and that’s just how it is. But what is the quantum speed limit? By putting quantum particles in a lattice, Marc Cheneau and colleagues have identified this maximum quantum velocity, which has implications for quantum entanglement and quantum computations.
Quantum cryptology right now is the absolute best of the best in terms of computer and network security, as it’s seen as completely unbreakable. But nothing is unbreakable— someone will find a way. And with quantum cryptology, one way may be to mimic the quantum entanglement upon with the encoding relies.