They have successfully collided particles at 13 TeV.
http://home.web.cern.ch/about/updates/2015/05/first-images-collisions-13-tev
http://home.web.cern.ch/about/updates/2015/05/first-images-collisions-13-tev
Around 200 years ago, electricity and magnetism were seen as a circus act, a toy that was entertaining but with no practical application.Okay. I am not trained in science. In plain language, what is the import of this development?
A teraelectronvolt is just a snotload of voltage (electrical pressure, akin to water pressure out of a pipe). 13 teraelectronvolts is about twice the previous record, and is what is needed to keep stray particles from destroying the collider itself. They're smashing protons together to see what smaller particles break off, to see what protons are made of. Protons, electrons and neutrons make up all matter. The quarks, fermions, bosons, and other little bits is what makes up the protons, electrons and neutrons. To find out what quarks are made of, it takes a tremendous amount of energy to smash them apart. Certain scientific theories make certain predictions, and if the predictions are found to be false, then the theory must be adapted or disguarded.
One of the theories of particle physics was that a certain type of particle must exist, to explain why observed particles act the way they do. High energy collisions in the LHC confirmed the existence of this particle, the Higgs-Boson Particle. Higher energies are required to confirm the predictions of other theories.
These theories make predictions that, for example, will further confirm (or refute) the Big Bang Theory, and they make predictions about the quantum mechanics of how computers work, which could result in computers being able to read, process and store data on a quantum level. In addition, if these elementary particles can be understood and harnessed, then utilizing the energy stored in an atomic bomb would be as safe and easy as plopping a AA battery into a flashlight.
They're isn't likely to be any major immediate real world revelations from this latest step in data discovery, but it's one pretty big step in the world of physics one that could lead to any number of things we can't get even imagine. In mean, who would have thought back in 1936 when a mathematical prediction of quantum physics about the effect of magnetization on the mobility of charge carriers in solids, as being related to the spin of those carriers, would lead directly to invention of long-distance quantum data encryption using atoms of the rare-earth element europium embedded in yttrium orthosilicate crystals, creating a storage device capable of holding quantum state information for up to six hours at a time (instead of the milliseconds in which quantum state matter usually exists). They did that a couple of months ago.
Understanding the data they may get from the current LHC experiments could boost that from 6 hours to infinite time periods, not to mention being used for technologies we haven't yet conceived.
Our solar system has an orbit in the Milky Way galaxy. It's traveling at about 700,000 MPH and takes 250 million yrs to complete.
If you shrunk the Milky Way Galaxy down to the size of Asia, our solar system would be the size of a dime
And ironically, it was the shortsightedness and unwillingness of American to fund the LHC that caused it to be built elsewhere.
http://www.texasmonthly.com/story/how-texas-lost-worlds-largest-super-collider
I totally agree, Greasy. Science rocks!And none of this knowledge would be possible without the Scientific Method.
I'm not bagging on religious beliefs here, I'm just giving credit where it's due.