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	<title>Comments on: CMS observes a new beauty particle</title>
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	<description>Thoughts on work and life from particle physicists from around the world.</description>
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		<title>By: dequantizer</title>
		<link>http://www.quantumdiaries.org/2012/04/27/cms-observes-a-new-beauty-particle/#comment-69179</link>
		<dc:creator>dequantizer</dc:creator>
		<pubDate>Mon, 14 May 2012 08:51:07 +0000</pubDate>
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		<description><![CDATA[Under current luminosity and 8TeV collision energy density, CMS will detect this year more of the beauties of this family and their excited state masses will exhibit orders of magnitude faster state decay rates. As the collision energy intensity is pumped up, more excited mass states will likely be generated but the faster decay processes will not be easily detected / observed.

For the record, I predict that CMS detectors will have difficulty observing / detecting still higher excited mass states around (12.7TeV - 14.0TeV) collision intensity or little lower.  This is because the fluidity-plasma state of matter at those energy intensities and temperatures become ultra-fluidic, ultra-plasmatic, with much lower and lower fluidous density, that forces matter to be ultra-easily penetratable.

This state of matter [matter::anti-matter] together state, increases as we increase collision energy intensity, and decreases as we decrease collision intensity, until we get back to the state of matter &quot;gluon-quark-plasma&quot; discovered by CERN scientist during year 2000.

The [matter::anti-matter] state decay rate process becomes at some point, many-fold faster than the speed of light (or faster than nuetrinos under current OPERA investigation) until either one of them survives, which is matter, that dominates today.

Just for the record.]]></description>
		<content:encoded><![CDATA[<p>Under current luminosity and 8TeV collision energy density, CMS will detect this year more of the beauties of this family and their excited state masses will exhibit orders of magnitude faster state decay rates. As the collision energy intensity is pumped up, more excited mass states will likely be generated but the faster decay processes will not be easily detected / observed.</p>
<p>For the record, I predict that CMS detectors will have difficulty observing / detecting still higher excited mass states around (12.7TeV &#8211; 14.0TeV) collision intensity or little lower.  This is because the fluidity-plasma state of matter at those energy intensities and temperatures become ultra-fluidic, ultra-plasmatic, with much lower and lower fluidous density, that forces matter to be ultra-easily penetratable.</p>
<p>This state of matter [matter::anti-matter] together state, increases as we increase collision energy intensity, and decreases as we decrease collision intensity, until we get back to the state of matter &#8220;gluon-quark-plasma&#8221; discovered by CERN scientist during year 2000.</p>
<p>The [matter::anti-matter] state decay rate process becomes at some point, many-fold faster than the speed of light (or faster than nuetrinos under current OPERA investigation) until either one of them survives, which is matter, that dominates today.</p>
<p>Just for the record.</p>
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