Difference between revisions of "Cold Helium, a Microcosm of the World"

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| title = Cold Helium, a Microcosm of the World  
 
| title = Cold Helium, a Microcosm of the World  
 
| url = [http://www.naturalphilosophy.org/pdf/abstracts/abstracts_916.pdf Link to paper]
 
| url = [http://www.naturalphilosophy.org/pdf/abstracts/abstracts_916.pdf Link to paper]
| author = [[Carl R. Littmann]]
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| author = [[Carl R Littmann]]
 
| published = 2007
 
| published = 2007
 
| journal = [[Proceedings of the NPA]]
 
| journal = [[Proceedings of the NPA]]
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==Abstract==
 
==Abstract==
  
Helium is unique among elements. Even at 0 Deg. K., it does not completely solidify until a 26 atm Pressure is applied. We perform the obvious, compelling calculation: (26 atm Pressure) times (the jurisdictional Volume of a solidified helium atom); and we explore implications. That strange squeezed product, (P x V) implies an equivalent ?stealth' energy and also a stealth temperature times Boltzmann's constant. We note that a weak 2.72 Deg. K ?CMB' photon would seem to knock a zero-viscosity liquid helium atom, i.e., at 2.18 Deg. K or less, into its warmer viscous state. We consider the reverse; and contemplate helium as a microcosm of the world. Zero- viscosity helium flow is difficult to detect -- somewhat like the aether wind and drag. But a Superflu-id is not superflu-ous! (i.e., it is not ?suPERfluous' ? as Einstein wrongly termed ?aether'). We crudely explore the implications of all the above.[[Category:Scientific Paper]]
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Helium is unique among elements. Even at 0 Deg. K., it does not completely solidify until a 26 atm Pressure is applied. We perform the obvious, compelling calculation: (26 atm Pressure) times (the jurisdictional Volume of a solidified helium atom); and we explore implications. That strange squeezed product, (P x V) implies an equivalent ?stealth' energy and also a stealth temperature times Boltzmann's constant. We note that a weak 2.72 Deg. K ?CMB' photon would seem to knock a zero-viscosity liquid helium atom, i.e., at 2.18 Deg. K or less, into its warmer viscous state. We consider the reverse; and contemplate helium as a microcosm of the world. Zero- viscosity helium flow is difficult to detect -- somewhat like the aether wind and drag. But a Superflu-id is not superflu-ous! (i.e., it is not ?suPERfluous' ? as Einstein wrongly termed ?aether'). We crudely explore the implications of all the above.
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[[Category:Scientific Paper|cold helium microcosm world]]

Latest revision as of 10:09, 1 January 2017

Scientific Paper
Title Cold Helium, a Microcosm of the World
Read in full Link to paper
Author(s) Carl R Littmann
Keywords {{{keywords}}}
Published 2007
Journal Proceedings of the NPA
Volume 4
Number 1
No. of pages 8
Pages 125-128

Read the full paper here

Abstract

Helium is unique among elements. Even at 0 Deg. K., it does not completely solidify until a 26 atm Pressure is applied. We perform the obvious, compelling calculation: (26 atm Pressure) times (the jurisdictional Volume of a solidified helium atom); and we explore implications. That strange squeezed product, (P x V) implies an equivalent ?stealth' energy and also a stealth temperature times Boltzmann's constant. We note that a weak 2.72 Deg. K ?CMB' photon would seem to knock a zero-viscosity liquid helium atom, i.e., at 2.18 Deg. K or less, into its warmer viscous state. We consider the reverse; and contemplate helium as a microcosm of the world. Zero- viscosity helium flow is difficult to detect -- somewhat like the aether wind and drag. But a Superflu-id is not superflu-ous! (i.e., it is not ?suPERfluous' ? as Einstein wrongly termed ?aether'). We crudely explore the implications of all the above.