author_facet Skrbek, L.
Sreenivasan, K. R.
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Sreenivasan, K. R.
author Skrbek, L.
Sreenivasan, K. R.
spellingShingle Skrbek, L.
Sreenivasan, K. R.
Physics of Fluids
Developed quantum turbulence and its decay
Condensed Matter Physics
Fluid Flow and Transfer Processes
Mechanics of Materials
Computational Mechanics
Mechanical Engineering
author_sort skrbek, l.
spelling Skrbek, L. Sreenivasan, K. R. 1070-6631 1089-7666 AIP Publishing Condensed Matter Physics Fluid Flow and Transfer Processes Mechanics of Materials Computational Mechanics Mechanical Engineering http://dx.doi.org/10.1063/1.3678335 <jats:p>This article is primarily a review of our knowledge of the correspondence between classical and quantum turbulence, though it is interspersed with a few new interpretations. This review is deemed timely because recent work in quantum turbulence promises to provide a better understanding of aspects of classical turbulence, though the two fields of turbulence have similarities as well as differences. We pay a particular attention to the conceptually simplest case of zero temperature limit where quantum turbulence consists of a tangle of quantized vortex line and represents a simple prototype of turbulence. At finite temperature, we anchor ourselves at the level of two-fluid description of the superfluid state—consisting of a normal viscous fluid and a frictionless superfluid—and review much of the available knowledge on quantum turbulence in liquid helium (both He II and 3He-B). We consider counterflows in which the normal and superfluid components flow against each other, as well as co-flows in which the direction of the two fluids is the same. We discuss experimental methods, phenomenological results as well as key theoretical concepts.</jats:p> Developed quantum turbulence and its decay Physics of Fluids
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title Developed quantum turbulence and its decay
title_unstemmed Developed quantum turbulence and its decay
title_full Developed quantum turbulence and its decay
title_fullStr Developed quantum turbulence and its decay
title_full_unstemmed Developed quantum turbulence and its decay
title_short Developed quantum turbulence and its decay
title_sort developed quantum turbulence and its decay
topic Condensed Matter Physics
Fluid Flow and Transfer Processes
Mechanics of Materials
Computational Mechanics
Mechanical Engineering
url http://dx.doi.org/10.1063/1.3678335
publishDate 2012
physical
description <jats:p>This article is primarily a review of our knowledge of the correspondence between classical and quantum turbulence, though it is interspersed with a few new interpretations. This review is deemed timely because recent work in quantum turbulence promises to provide a better understanding of aspects of classical turbulence, though the two fields of turbulence have similarities as well as differences. We pay a particular attention to the conceptually simplest case of zero temperature limit where quantum turbulence consists of a tangle of quantized vortex line and represents a simple prototype of turbulence. At finite temperature, we anchor ourselves at the level of two-fluid description of the superfluid state—consisting of a normal viscous fluid and a frictionless superfluid—and review much of the available knowledge on quantum turbulence in liquid helium (both He II and 3He-B). We consider counterflows in which the normal and superfluid components flow against each other, as well as co-flows in which the direction of the two fluids is the same. We discuss experimental methods, phenomenological results as well as key theoretical concepts.</jats:p>
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author Skrbek, L., Sreenivasan, K. R.
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description <jats:p>This article is primarily a review of our knowledge of the correspondence between classical and quantum turbulence, though it is interspersed with a few new interpretations. This review is deemed timely because recent work in quantum turbulence promises to provide a better understanding of aspects of classical turbulence, though the two fields of turbulence have similarities as well as differences. We pay a particular attention to the conceptually simplest case of zero temperature limit where quantum turbulence consists of a tangle of quantized vortex line and represents a simple prototype of turbulence. At finite temperature, we anchor ourselves at the level of two-fluid description of the superfluid state—consisting of a normal viscous fluid and a frictionless superfluid—and review much of the available knowledge on quantum turbulence in liquid helium (both He II and 3He-B). We consider counterflows in which the normal and superfluid components flow against each other, as well as co-flows in which the direction of the two fluids is the same. We discuss experimental methods, phenomenological results as well as key theoretical concepts.</jats:p>
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spelling Skrbek, L. Sreenivasan, K. R. 1070-6631 1089-7666 AIP Publishing Condensed Matter Physics Fluid Flow and Transfer Processes Mechanics of Materials Computational Mechanics Mechanical Engineering http://dx.doi.org/10.1063/1.3678335 <jats:p>This article is primarily a review of our knowledge of the correspondence between classical and quantum turbulence, though it is interspersed with a few new interpretations. This review is deemed timely because recent work in quantum turbulence promises to provide a better understanding of aspects of classical turbulence, though the two fields of turbulence have similarities as well as differences. We pay a particular attention to the conceptually simplest case of zero temperature limit where quantum turbulence consists of a tangle of quantized vortex line and represents a simple prototype of turbulence. At finite temperature, we anchor ourselves at the level of two-fluid description of the superfluid state—consisting of a normal viscous fluid and a frictionless superfluid—and review much of the available knowledge on quantum turbulence in liquid helium (both He II and 3He-B). We consider counterflows in which the normal and superfluid components flow against each other, as well as co-flows in which the direction of the two fluids is the same. We discuss experimental methods, phenomenological results as well as key theoretical concepts.</jats:p> Developed quantum turbulence and its decay Physics of Fluids
spellingShingle Skrbek, L., Sreenivasan, K. R., Physics of Fluids, Developed quantum turbulence and its decay, Condensed Matter Physics, Fluid Flow and Transfer Processes, Mechanics of Materials, Computational Mechanics, Mechanical Engineering
title Developed quantum turbulence and its decay
title_full Developed quantum turbulence and its decay
title_fullStr Developed quantum turbulence and its decay
title_full_unstemmed Developed quantum turbulence and its decay
title_short Developed quantum turbulence and its decay
title_sort developed quantum turbulence and its decay
title_unstemmed Developed quantum turbulence and its decay
topic Condensed Matter Physics, Fluid Flow and Transfer Processes, Mechanics of Materials, Computational Mechanics, Mechanical Engineering
url http://dx.doi.org/10.1063/1.3678335