<?xml version="1.0" encoding="utf-8"?>
<rss version="2.0" 
	xmlns:media="http://search.yahoo.com/mrss/">
<channel>
<title>Phys.org: Quantum Physics News</title>
<link>http://phys.org/physics-news/quantum-physics/</link>
<language>en-us</language> 
<description>Phys.Org provides the latest news on quantum physics, wave particle duality, quantum theory, quantum mechanics, quantum entanglement, quantum teleportation, and quantum computing.</description>

 <item>
     <title>Making quantum encryption practical</title>
   	 <description>One of the many promising applications of quantum mechanics in the information sciences is quantum key distribution (QKD), in which the counterintuitive behavior of quantum particles guarantees that no one can eavesdrop on a private exchange of data without detection.</description>
     <link>http://phys.org/news288340062.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Tue, 21 May 2013 07:27:57 EST</pubDate>
	 <guid isPermaLink="false">news288340062</guid>
	 
</item>
<item>
     <title>Lab sets a new record for creating heralded photons</title>
   	 <description>(Phys.org) —Entanglement, by general consensus of physicists, is the weirdest part of quantum science. To say that two particles, A and B, are entangled means that they are actually two parts of an inseparable quantum thing. An important consequence of this inherent kinship is that measuring a property of A (say, the particle's polarization) is necessarily to know the corresponding property of B, even if you're not there with a detector to observe B and even if (as explained below) the existence of that property had no prior fixed value until the moment particle A was detected.</description>
     <link>http://phys.org/news288283333.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Mon, 20 May 2013 15:42:22 EST</pubDate>
	 <guid isPermaLink="false">news288283333</guid>
	 <media:thumbnail url="http://cdn.physorg.com/newman/gfx/news/tmb/2013/labsetsanewr.jpg" width="90" height="90" />
</item>
<item>
     <title>Competition in the quantum world</title>
   	 <description>Innsbruck physicists led by Rainer Blatt and Peter Zoller experimentally gained a deep insight into the nature of quantum mechanical phase transitions. They are the first scientists that simulated the competition between two rival dynamical processes at a novel type of transition between two quantum mechanical orders. They have published the results of their work in the journal Nature Physics.</description>
     <link>http://phys.org/news288248146.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Mon, 20 May 2013 05:55:55 EST</pubDate>
	 <guid isPermaLink="false">news288248146</guid>
	 <media:thumbnail url="http://cdn.physorg.com/newman/gfx/news/tmb/2013/ghjgbhn.jpg" width="90" height="90" />
</item>
<item>
     <title>Superfluids: Observation of 'second sound' in a quantum gas</title>
   	 <description>Second sound is a quantum mechanical phenomenon, which has been observed only in superfluid helium. Physicists from the University of Innsbruck, Austria, in collaboration with colleagues from the University of Trento, Italy, have now proven the propagation of such a temperature wave in a quantum gas. The scientists have published their historic findings in the journal Nature.</description>
     <link>http://phys.org/news287841227.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Wed, 15 May 2013 13:00:11 EST</pubDate>
	 <guid isPermaLink="false">news287841227</guid>
	 <media:thumbnail url="http://cdn.physorg.com/newman/gfx/news/tmb/2013/observationo.jpg" width="90" height="90" />
</item>
<item>
     <title>New principle may help explain why nature is quantum</title>
   	 <description>Like small children, scientists are always asking the question 'why?'. One question they've yet to answer is why nature picked quantum physics, in all its weird glory, as a sensible way to behave. Researchers Corsin Pfister and Stephanie Wehner at the Centre for Quantum Technologies at the National University of Singapore tackle this perennial question in a paper published today in Nature Communications.</description>
     <link>http://phys.org/news287689070.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Tue, 14 May 2013 11:00:01 EST</pubDate>
	 <guid isPermaLink="false">news287689070</guid>
	 <media:thumbnail url="http://cdn.physorg.com/newman/gfx/news/tmb/2013/newprinciple.jpg" width="90" height="90" />
</item>
<item>
     <title>The changing phase of quantum materials: Theoretical model could aid search for ideal material for quantum computers</title>
   	 <description>Matter is categorized as either conductive, semi-conductive or resistive to the flow of electrons based on its bulk properties. However, physicists have now predicted a new state of matter in which the bulk of the material is insulating—resisting electron flow—but where electrons are free to move along its edges. The possibility of such a material, known as a 'topological insulator', has caused a great deal of excitement among physicists because its surface conducting states are unusually stable, making them a promising resource for use in quantum computers. Bohm-Jung Yang and Naoto Nagaosa from the RIKEN Center for Emergent Matter Science and their co‐workers have now devised a general theory for how an insulator changes into a topological insulator, which should aid in the practical search for such materials.</description>
     <link>http://phys.org/news287393985.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Fri, 10 May 2013 08:39:52 EST</pubDate>
	 <guid isPermaLink="false">news287393985</guid>
	 <media:thumbnail url="http://cdn.physorg.com/newman/gfx/news/tmb/2013/thechangingp.jpg" width="90" height="90" />
</item>
<item>
     <title>Researchers extend electron spin in diamond for incredibly tiny magnetic detectors</title>
   	 <description>(Phys.org) —From brain to heart to stomach, the bodies of humans and animals generate weak magnetic fields that a supersensitive detector could use to pinpoint illnesses, trace drugs – and maybe even read minds. Sensors no bigger than a thumbnail could map gas deposits underground, analyze chemicals, and pinpoint explosives that hide from other probes.</description>
     <link>http://phys.org/news287386752.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Fri, 10 May 2013 06:39:19 EST</pubDate>
	 <guid isPermaLink="false">news287386752</guid>
	 <media:thumbnail url="http://cdn.physorg.com/newman/gfx/news/tmb/2013/flaweddiamon.jpg" width="90" height="90" />
</item>
<item>
     <title>In first head-to-head speed test with conventional computing, quantum computer wins</title>
   	 <description>(Phys.org) —A computer science professor at Amherst College who recently devised and conducted experiments to test the speed of a quantum computing system against conventional computing methods will soon be presenting a paper with her verdict: quantum computing is, &quot;in some cases, really, really fast.&quot;</description>
     <link>http://phys.org/news287257401.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Wed, 08 May 2013 18:48:37 EST</pubDate>
	 <guid isPermaLink="false">news287257401</guid>
	 <media:thumbnail url="http://cdn.physorg.com/newman/gfx/news/tmb/2013/thedwavesyst.jpg" width="90" height="90" />
</item>
<item>
     <title>Cold atoms for quantum technology</title>
   	 <description>Researchers from the National Physical Laboratory, University of Strathclyde, Imperial College London and University of Glasgow have developed a portable way to produce ultracold atoms for quantum technology and quantum information processing. Their research has been published in the journal Nature Nanotechnology, where it is featured on the front cover.</description>
     <link>http://phys.org/news287223595.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Wed, 08 May 2013 09:20:08 EST</pubDate>
	 <guid isPermaLink="false">news287223595</guid>
	 <media:thumbnail url="http://cdn.physorg.com/newman/gfx/news/tmb/2013/coldatomsfor.jpg" width="90" height="90" />
</item>
<item>
     <title>Study finds semiclassical gravity counterintuitive, but on the horizon of testability</title>
   	 <description>(Phys.org) —One of the more controversial theories of quantum gravity, which attempts to unify quantum mechanics and general relativity, is semiclassical gravity, which was proposed in the 1960s. As its name suggests, semiclassical gravity involves a combination of quantum and classical components. Specifically, matter obeys the rules of quantum mechanics while gravity and the spacetime structure obey classical laws. Many physicists think that integrating quantum and classical systems in this way creates physical contradictions and mathematical inconsistencies. However, in a new paper, physicists have closely analyzed exactly how classical gravity might affect the quantum properties of macroscopic objects, and found that the effects of semiclassical gravity may be experimentally detectable with state-of-the-art technology.</description>
     <link>http://phys.org/news287213873.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Wed, 08 May 2013 09:00:01 EST</pubDate>
	 <guid isPermaLink="false">news287213873</guid>
	 
</item>
<item>
     <title>Quantum optics with microwaves</title>
   	 <description>(Phys.org) —Physicists at ETH Zurich have demonstrated one of the quintessential effects of quantum optics—known as the Hong-Ou-Mandel effect—with microwaves, whose frequency is 100'000 times lower than that of visible light. The experiment takes quantum optics into a new frequency regime and could eventually lead to new technological applications.</description>
     <link>http://phys.org/news287205985.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Wed, 08 May 2013 04:26:36 EST</pubDate>
	 <guid isPermaLink="false">news287205985</guid>
	 <media:thumbnail url="http://cdn.physorg.com/newman/gfx/news/tmb/2013/quantumoptic.jpg" width="90" height="90" />
</item>
<item>
     <title>Los Alamos reveals it's been running quantum network for two and a half years</title>
   	 <description>(Phys.org) —In a recent paper available on arXiv, a team of researchers at New Mexico's Los Alamos National Laboratory has revealed they've been running a quantum network for 2 1/2 years. The network is hub-and-spoke based, the team reports, and allows for perfectly secure messaging except at the hub.</description>
     <link>http://phys.org/news287139027.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Tue, 07 May 2013 10:00:02 EST</pubDate>
	 <guid isPermaLink="false">news287139027</guid>
	 <media:thumbnail url="http://cdn.physorg.com/newman/gfx/news/tmb/2013/uyghijkm.jpg" width="90" height="90" />
</item>
<item>
     <title>16 atomic ions simulate a quantum antiferromagnet</title>
   	 <description>(Phys.org) —Frustration crops up throughout nature when conflicting constraints on a physical system compete with one another. The way nature resolves these conflicts often leads to exotic phases of matter that are poorly understood. This week's issue of Science Magazine features new results from the research group of Christopher Monroe at the JQI, where they explored how to frustrate a quantum magnet comprised of sixteen atomic ions – to date the largest ensemble of qubits to perform a simulation of quantum matter.</description>
     <link>http://phys.org/news286815176.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Fri, 03 May 2013 15:53:11 EST</pubDate>
	 <guid isPermaLink="false">news286815176</guid>
	 <media:thumbnail url="http://cdn.physorg.com/newman/gfx/news/tmb/2013/16atomicions.jpg" width="90" height="90" />
</item>
<item>
     <title>Creating time crystals with a rotating ion ring</title>
   	 <description>(Phys.org) —There has been a lot of talk recently about the possibility of building what has come to be known as a time crystal. In February 2012, Frank Wilczek originally proposed the idea that under certain conditions, physical structures can move in a repeating pattern without expending any energy. Last June, a group of researchers at Berkeley proposed a time crystal could be realized as a persistently rotating ring of charged atoms. Unfortunately a problem with that approach was pointed out by Patrick Bruno, who noted that to be a time crystal, an object must exhibit perpetual motion in its lowest energy state—the ground state. Commenting in Physical Review Letters in March, Bruno showed that the particular example described by Wilczek was actually one of a system in an excited state, and therefore not a time crystal. Taking advantage of recent breakthroughs in the construction of low noise ion traps, Berkeley researchers now plan to build an ion trap that will satisfy the critics.</description>
     <link>http://phys.org/news286813095.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Fri, 03 May 2013 15:18:34 EST</pubDate>
	 <guid isPermaLink="false">news286813095</guid>
	 <media:thumbnail url="http://cdn.physorg.com/newman/gfx/news/tmb/2013/ionringforti.jpg" width="90" height="90" />
</item>
<item>
     <title>Intriguing state of matter previously predicted in graphene-like materials might not exist after all</title>
   	 <description>Virtually every material undergoes atomic-level ordering when cooled to temperatures approaching absolute zero. Liquid water, for example, is frozen into atomically ordered crystalline ice. However, condensed matter physicists have theorized that it may be possible to achieve a state called a quantum spin liquid, in which quantum-mechanical effects or the structure of the atomic lattice hinder the development of atomic order while retaining strong electronic interactions. Seiji Yunoki and colleagues from the RIKEN Center for Emergent Matter Science and the RIKEN Advanced Institute for Computational Science have now shown through detailed calculations that achieving the quantum spin liquid state may be more difficult than previously thought.</description>
     <link>http://phys.org/news286702363.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Thu, 02 May 2013 08:32:56 EST</pubDate>
	 <guid isPermaLink="false">news286702363</guid>
	 <media:thumbnail url="http://cdn.physorg.com/newman/gfx/news/tmb/2013/intriguingst.jpg" width="90" height="90" />
</item>
<item>
     <title>Use of laser light yields versatile manipulation of a quantum bit</title>
   	 <description>By using light, researchers at UC Santa Barbara have manipulated the quantum state of a single atomic-sized defect in diamond –– the nitrogen-vacancy center –– in a method that not only allows for more unified control than conventional processes, but is more versatile, and opens up the possibility of exploring new solid-state quantum systems. Their results are published in the latest edition of the Proceedings of the National Academy of Sciences.</description>
     <link>http://phys.org/news286640860.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Wed, 01 May 2013 15:28:09 EST</pubDate>
	 <guid isPermaLink="false">news286640860</guid>
	 <media:thumbnail url="http://cdn.physorg.com/newman/gfx/news/tmb/2013/1-useoflaserli.jpg" width="90" height="95" />
</item>
<item>
     <title>Towards quantum Internet with combined optical and electrical technique</title>
   	 <description>An Australian team led by researchers at the University of New South Wales has achieved a breakthrough in quantum science that brings the prospect of a network of ultra-powerful quantum computers - connected via a quantum internet –closer to reality.</description>
     <link>http://phys.org/news286625403.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Wed, 01 May 2013 13:00:13 EST</pubDate>
	 <guid isPermaLink="false">news286625403</guid>
	 <media:thumbnail url="http://cdn.physorg.com/newman/gfx/news/tmb/2013/bestofbothwo.jpg" width="90" height="90" />
</item>
<item>
     <title>Success in initializing and reading nuclear spins brings quantum computer a step closer</title>
   	 <description>A quantum computer is controlled by the laws of quantum physics; it promises to perform complicated calculations, or search large amounts of data, at a speed that exceeds by far those that today's fastest supercomputers are capable of.</description>
     <link>http://phys.org/news286541913.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Tue, 30 Apr 2013 11:58:45 EST</pubDate>
	 <guid isPermaLink="false">news286541913</guid>
	 
</item>
<item>
     <title>Gravity's lingua franca: Unifying general relativity and quantum theory through spectra; geometry</title>
   	 <description>(Phys.org) —Mathematics is, in essence, an artificial language for precisely articulating theories about the physical world. Unlike natural language, however, translating different classes of mathematics can be difficult at best. Such is the case encountered in the attempt to unify general relativity and quantum theory, since they are expressed in differential geometry and functional analysis, respectively. That being said, spectral geometry – a field in mathematics which concerns relationships between geometric structures of manifolds and spectra of canonically defined differential operators – may resolve this long-standing quandary by allowing spacetime to be treated as simultaneously continuous and discrete, essentially relating the frequency-based ringing of the fabric of spacetime to its manifold-based shape. Recently, scientists at California Institute of Technology, Princeton University, University of Waterloo, and University of Queensland normalized and segmented spectral geometry into small, finite-dimensional steps. They then demonstrated their approach of calculating the shapes of two-dimensional objects from their vibrational spectra as being viable in two, and possibly more, dimensions.</description>
     <link>http://phys.org/news286449018.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Mon, 29 Apr 2013 11:00:01 EST</pubDate>
	 <guid isPermaLink="false">news286449018</guid>
	 <media:thumbnail url="http://cdn.physorg.com/newman/gfx/news/tmb/2013/4rwesdfe4.jpg" width="90" height="90" />
</item>
<item>
     <title>Physicists propose measure of macroscopicity; Schrodinger's cat scores a 57</title>
   	 <description>(Phys.org) —The size of an object can be measured in many ways, such as by its mass, volume, or even the number of atoms it contains. And when it comes to quantum physics, &quot;macroscopic&quot; objects are considered to be larger than &quot;quantum&quot; ones, since the former are usually described by classical laws and the latter by quantum laws. However, physicists have been challenging the boundary between these two realms by performing experiments that show that multiparticle objects can exist in quantum superpositions. But there has been no standard measure of macroscopicity until now, as a team of physicists has proposed that the macroscopicity of an object can be measured in terms of certain parameters of the experiment used to probe its quantum superposition, rather than as a single property of the object itself.</description>
     <link>http://phys.org/news286207660.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Fri, 26 Apr 2013 15:08:34 EST</pubDate>
	 <guid isPermaLink="false">news286207660</guid>
	 <media:thumbnail url="http://cdn.physorg.com/newman/gfx/news/tmb/2013/hdhtrdyh5d.jpg" width="90" height="90" />
</item>
<item>
     <title>Movement of pyrrole molecules defy 'classical' physics</title>
   	 <description>(Phys.org) —New research shows that movement of the ring-like molecule pyrrole over a metal surface runs counter to the centuries-old laws of 'classical' physics that govern our everyday world.</description>
     <link>http://phys.org/news286195025.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Fri, 26 Apr 2013 11:37:12 EST</pubDate>
	 <guid isPermaLink="false">news286195025</guid>
	 <media:thumbnail url="http://cdn.physorg.com/newman/gfx/news/tmb/2013/movementofpy.jpg" width="90" height="90" />
</item>
<item>
     <title>'Quantum Internet': Towards realization of solid-state quantum network</title>
   	 <description>(Phys.org) —Researchers at TU Delft in the Netherlands have managed to bring two electrons, three meters from each other, into a quantum- entangled state. This result marks a major step towards realizing a quantum network that can be used to connect future quantum computers and to send information in a completely secure way by means of 'teleportation'. The results have been published online on April 24 in Nature.</description>
     <link>http://phys.org/news286048535.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Wed, 24 Apr 2013 18:55:43 EST</pubDate>
	 <guid isPermaLink="false">news286048535</guid>
	 <media:thumbnail url="http://cdn.physorg.com/newman/gfx/news/tmb/2013/utfg8ugi.jpg" width="90" height="90" />
</item>
<item>
     <title>Scientists provide 'new spin' on emerging quantum technologies</title>
   	 <description>An international team of scientists has  shed new light on a fundamental area of physics which could have  important implications for future electronic devices and the transfer of  information at the quantum level.</description>
     <link>http://phys.org/news285925816.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Tue, 23 Apr 2013 08:50:28 EST</pubDate>
	 <guid isPermaLink="false">news285925816</guid>
	 
</item>
<item>
     <title>Ultrafast technique unlocks design principles of quantum biology</title>
   	 <description>University of Chicago researchers have created a synthetic compound that mimics the complex quantum dynamics observed in photosynthesis and may enable fundamentally new routes to creating solar-energy technologies. Engineering quantum effects into synthetic light-harvesting devices is not only possible, but also easier than anyone expected, the researchers report in the April 18 edition of Science Express.</description>
     <link>http://phys.org/news285601733.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Fri, 19 Apr 2013 14:49:04 EST</pubDate>
	 <guid isPermaLink="false">news285601733</guid>
	 <media:thumbnail url="http://cdn.physorg.com/newman/gfx/news/tmb/2013/ultrafasttec.jpg" width="90" height="90" />
</item>
<item>
     <title>A silicon platform for quantum computers</title>
   	 <description>A team of Australian engineers at the University of New South Wales (UNSW) has demonstrated a quantum bit based on the nucleus of a single atom in silicon, promising dramatic improvements for data processing in ultra-powerful quantum computers of the future.</description>
     <link>http://phys.org/news285416725.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Wed, 17 Apr 2013 13:00:26 EST</pubDate>
	 <guid isPermaLink="false">news285416725</guid>
	 <media:thumbnail url="http://cdn.physorg.com/newman/gfx/news/tmb/2013/3-2-1-quantumcompu.jpg" width="90" height="90" />
</item>
<item>
     <title>A new twist for quantum systems</title>
   	 <description>Physicists at ETH Zurich have developed a method for precisely controlling quantum systems by exploiting a trick that helps cats to land on their feet and motorists to fit their cars into parking spots. In the longer run, the method could lead to the development of more reliable quantum computers.</description>
     <link>http://phys.org/news285416040.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Wed, 17 Apr 2013 13:00:11 EST</pubDate>
	 <guid isPermaLink="false">news285416040</guid>
	 <media:thumbnail url="http://cdn.physorg.com/newman/gfx/news/tmb/2013/anewtwistfor.jpg" width="90" height="90" />
</item>
<item>
     <title>Physicists set new record for quantum teleportation with matter qubits</title>
   	 <description>(Phys.org) —In most demonstrations of quantum teleportation between remote atomic qubits, the atoms exist in free space. In a new study, scientists have discovered that trapping the atoms in optical cavities can overcome some of the previous obstacles facing matter teleportation, which enables an improvement in efficiency of almost 5 orders of magnitude and teleportation across a record-breaking distance of 21 m. These improvements in quantum teleportation could open the doors to realizing quantum networks with many nodes for teleporting qubits to various destinations.</description>
     <link>http://phys.org/news285329545.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Tue, 16 Apr 2013 12:00:01 EST</pubDate>
	 <guid isPermaLink="false">news285329545</guid>
	 <media:thumbnail url="http://cdn.physorg.com/newman/gfx/news/tmb/2013/efficientteleportation.jpg" width="90" height="90" />
</item>
<item>
     <title>Physicists succeed in closing last local realistic loophole for systems of entangled photons</title>
   	 <description>A team led by the Austrian physicist Anton Zeilinger has carried out an experiment with photons, in which they have closed an important loophole. The researchers have thus provided the most complete experimental proof that the quantum world is in conflict with our everyday experience. The results of this study appear this week in the renowned journal Nature.</description>
     <link>http://phys.org/news285233096.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Mon, 15 Apr 2013 08:25:06 EST</pubDate>
	 <guid isPermaLink="false">news285233096</guid>
	 <media:thumbnail url="http://cdn.physorg.com/newman/gfx/news/tmb/2013/photonsrunou.jpg" width="90" height="90" />
</item>
<item>
     <title>Researchers evaluate Bose-Einstein condensates for communicating among quantum computers</title>
   	 <description>Quantum computers promise to perform certain types of operations much more quickly than conventional digital computers. But many challenges must be addressed before these ultra-fast machines become available, among them, the loss of order in the systems – a problem known as quantum decoherence – which worsens as the number of bits in a quantum computer increases.</description>
     <link>http://phys.org/news284904743.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Thu, 11 Apr 2013 13:12:56 EST</pubDate>
	 <guid isPermaLink="false">news284904743</guid>
	 <media:thumbnail url="http://cdn.physorg.com/newman/gfx/news/tmb/2013/1-researcherse.jpg" width="90" height="90" />
</item>
<item>
     <title>Superheated Bose-Einstein condensate exists above critical temperature</title>
   	 <description>(Phys.org) —At very low temperatures, near absolute zero, multiple particles called bosons can form an unusual state of matter in which a large fraction of the bosons in a gas occupy the same quantum state—the lowest one—to form a Bose-Einstein condensate (BEC). In a sense, the bosons lose their individual identities and behave like a single, very large atom. But while previously BECs have only existed below a critical temperature, scientists in a new study have shown that BECs can exist above this critical temperature for more than a minute when different components of the gas evolve at different rates.</description>
     <link>http://phys.org/news284792079.html</link>
	 <category>Physics - Quantum Physics</category>
	 <pubDate>Wed, 10 Apr 2013 09:00:01 EST</pubDate>
	 <guid isPermaLink="false">news284792079</guid>
	 <media:thumbnail url="http://cdn.physorg.com/newman/gfx/news/tmb/2013/superheatedbec.jpg" width="90" height="90" />
</item>


</channel>
</rss>
