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IceCube Neutrino Observatory Detects Mysterious High-Energy Particles. By John Matson Hot on the heels of detecting the two highest-energy neutrinos ever observed, scientists working with a mammoth particle detector buried in ice near the South Pole unveiled preliminary data showing that they also registered the signal of 26 additional high-energy neutrinos.

IceCube Neutrino Observatory Detects Mysterious High-Energy Particles

The newfound neutrinos are somewhat less energetic than the two record-setters but nonetheless appear to carry more energy than would be expected if created by cosmic rays hitting the atmosphere—a prodigious source of neutrinos raining down on Earth. The particles thus may point to unknown energetic astrophysical processes deeper in the cosmos . “The result right now is very preliminary,” cautions Nathan Whitehorn of the University of Wisconsin–Madison, who described the new data May 15 during a symposium in Madison on particle astrophysics.

“We’re not totally certain right now that it’s from an astrophysical source.” Dark matter experiment CDMS sees three tentative clues. 15 April 2013Last updated at 16:08 ET By Jason Palmer Science and technology reporter, BBC News, Denver, Colorado The CDMS experiment is based underground at the Soudan mine in Minnesota, US Researchers have revealed the first potential hints of the elusive material called dark matter at an underground laboratory in the US.

Dark matter experiment CDMS sees three tentative clues

Though it is believed to make up a quarter of our Universe, dark matter - true to its name - has never been seen. Scientists at the American Physical Society meeting showed three promising clues to it from the CDMS experiment. PHYSICS HIGHLIGHTS - PLAIN ENGLISH SUMMARIES. New measurements have been released by the LHCb collaboration on the search for matter anti-matter differences (CP violation) in particles containing charm quarks.


A previous LHCb measurement gave a first hint of CP violation differences in the charm sector. This was further strengthened by results from two other experiments (CDF in the USA, and Belle in Japan). Has Dark Matter Finally Been Found? Big News Soon. BOSTON — Big news in the search for dark matter may be coming in about two weeks, the leader of a space-based particle physics experiment said today (Feb. 17) here at the annual meeting of the American Association for the Advancement of Science.

Has Dark Matter Finally Been Found? Big News Soon

That's when the first paper of results from the Alpha Magnetic Spectrometer, a particle collector mounted on the outside of the International Space Station, will be submitted to a scientific journal, said MIT physicist Samuel Ting, AMS principal investigator. Though Ting was coy about just what, exactly, the experiment has found, he said the results bear on the mystery of dark matter, the invisible stuff thought to outnumber regular matter in the universe by a factor of about six to one.

"It will not be a minor paper," Ting said, hinting that the findings were important enough that the scientists rewrote the paper 30 times before they were satisfied with it. Time: The entanglement of quantum physics. Who's Afraid of a Big Black Hole. A Capella Science - Rolling in the Higgs (Adele Parody) Watch the bouncing droplet.

Hans Bethe: Quantum Physics Made Relatively Simple. Physics of the Impossible How to Become Invisible. Michio Kaku: The Universe in a Nutshell. Brian Cox's guide to quantum mechanics. Common Sense Quantum Physics. Pr. Brian Cox - A Night with the Stars [BBC, Full Lecture] Dr Quantum - Double Slit Experiment.

MinutePhysics. "Beautiful" New Particle Found at LHC. Known as Xi(b)* (pronounced "csai bee-star"), the new particle is a baryon, a type of matter made up of three even smaller pieces called quarks.

"Beautiful" New Particle Found at LHC

Protons and neutrons, which make up the nuclei of atoms, are also baryons. (Related: "Proton Smaller Than Thought—May Rewrite Laws of Physics. " ) The Xi(b)* particle belongs to the so-called beauty baryons, particles that all contain a bottom quark, also known as a beauty quark. The newfound particle had long been predicted by theory but had never been observed.

Although finding Xi(b)* wasn't exactly a surprise, the discovery should help scientists solve the larger puzzle of how matter is formed. What Today's Higgs Boson Discovery Really Means. The boson series, in short and somewhat muddied recollection of the subject.

What Today's Higgs Boson Discovery Really Means

Please do your own research if you want a fully accurate description, google and wikipedia are great places to start, cassiopea project has a video series on the standard model that explain it pretty well too. The term 'boson' is a concatenation of Bose-Einstein, representing physical properties which are very alien to what we normally observe. The matter we can see is Newtonian, meaning it follows Newton's laws of physics. One of the more interesting properties of bosons occurs when cooled into a condensate, they no longer have deterministic volume, meaning even if you had millions of particles in this state they would still measure out to have the same volume as a single particle, in effect all occupying the same position in space.

BBC Richard Hammonds Invisible Worlds S01E01 720p BluRay Full episode. BBC Richard Hammonds Invisible Worlds S01E02 720p BluRay. BBC Richard Hammonds Invisible Worlds S01E03 720p BluRay. Why do we believe in electrons, but not in fairies? By Benjamin Kuipers No one has directly observed either electrons or fairies.

Why do we believe in electrons, but not in fairies?

Both of them are theoretical constructs, useful to explain observations that might be difficult to explain otherwise. The "theory of fairies" can actually explain more things than the "theory of electrons". So why do we believe in electrons, but not in fairies? Physics. Ics team proposes a way to create an actual space-time crystal. ( -- Earlier this year, theoretical physicists Frank Wilczek, of MIT put forth an idea that intrigued the research community.

ics team proposes a way to create an actual space-time crystal

He suggested that it should be possible to construct a so called space-time crystal by adding a fourth dimension, movement in time, to the structure of a crystal, causing it to become an infinitely running clock of sorts. At the time, Wilczek acknowledged that his ideas on how to do so were inelegant, to say the least. Now another international team led by Tongcang Li has proposed a way to achieve what Wilczek proposed using a far more elegant process. Carl Sagan's Cosmos. Welcome to YouTube! The location filter shows you popular videos from the selected country or region on lists like Most Viewed and in search results.To change your location filter, please use the links in the footer at the bottom of the page. Click "OK" to accept this setting, or click "Cancel" to set your location filter to "Worldwide".

For the Love of Physics (May 16, 2011) Cassiopeia Project - Physics - Gravity And Branes. Richard Feynman - The Pleasure Of Finding Things Out.