Phenomenology of quantum turbulence in superfluid helium

Quantum turbulence—the stochastic motion of quantum fluids such as ⁴He and ³He-B, which display pure superfluidity at zero temperature and two-fluid behavior at finite but low temperatures—has been a subject of intense experimental, theoretical, and numerical studies over the last half a century. Ye...

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Published inProceedings of the National Academy of Sciences - PNAS Vol. 118; no. 16; pp. 1 - 10
Main Authors Skrbek, Ladislav, Schmoranzer, David, Midlik, Šimon, Sreenivasan, Katepalli R.
Format Journal Article
LanguageEnglish
Published United States National Academy of Sciences 20.04.2021
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Abstract Quantum turbulence—the stochastic motion of quantum fluids such as ⁴He and ³He-B, which display pure superfluidity at zero temperature and two-fluid behavior at finite but low temperatures—has been a subject of intense experimental, theoretical, and numerical studies over the last half a century. Yet, there does not exist a satisfactory phenomenological framework that captures the rich variety of experimental observations, physical properties, and characteristic features, at the same level of detail as incompressible turbulence in conventional viscous fluids. Here we present such a phenomenology that captures in simple terms many known features and regimes of quantum turbulence, in both the limit of zero temperature and the temperature range of two-fluid behavior.
AbstractList Quantum turbulence-the stochastic motion of quantum fluids such as He and He-B, which display pure superfluidity at zero temperature and two-fluid behavior at finite but low temperatures-has been a subject of intense experimental, theoretical, and numerical studies over the last half a century. Yet, there does not exist a satisfactory phenomenological framework that captures the rich variety of experimental observations, physical properties, and characteristic features, at the same level of detail as incompressible turbulence in conventional viscous fluids. Here we present such a phenomenology that captures in simple terms many known features and regimes of quantum turbulence, in both the limit of zero temperature and the temperature range of two-fluid behavior.
Quantum turbulence—the stochastic motion of quantum fluids such as ⁴He and ³He-B, which display pure superfluidity at zero temperature and two-fluid behavior at finite but low temperatures—has been a subject of intense experimental, theoretical, and numerical studies over the last half a century. Yet, there does not exist a satisfactory phenomenological framework that captures the rich variety of experimental observations, physical properties, and characteristic features, at the same level of detail as incompressible turbulence in conventional viscous fluids. Here we present such a phenomenology that captures in simple terms many known features and regimes of quantum turbulence, in both the limit of zero temperature and the temperature range of two-fluid behavior.
Quantum turbulence-the stochastic motion of quantum fluids such as 4He and 3He-B, which display pure superfluidity at zero temperature and two-fluid behavior at finite but low temperatures-has been a subject of intense experimental, theoretical, and numerical studies over the last half a century. Yet, there does not exist a satisfactory phenomenological framework that captures the rich variety of experimental observations, physical properties, and characteristic features, at the same level of detail as incompressible turbulence in conventional viscous fluids. Here we present such a phenomenology that captures in simple terms many known features and regimes of quantum turbulence, in both the limit of zero temperature and the temperature range of two-fluid behavior.
Quantum turbulence—the stochastic motion of quantum fluids such as 4 He and 3 He-B, which display pure superfluidity at zero temperature and two-fluid behavior at finite but low temperatures—has been a subject of intense experimental, theoretical, and numerical studies over the last half a century. Yet, there does not exist a satisfactory phenomenological framework that captures the rich variety of experimental observations, physical properties, and characteristic features, at the same level of detail as incompressible turbulence in conventional viscous fluids. Here we present such a phenomenology that captures in simple terms many known features and regimes of quantum turbulence, in both the limit of zero temperature and the temperature range of two-fluid behavior.
Quantum turbulence-the stochastic motion of quantum fluids such as 4He and 3He-B, which display pure superfluidity at zero temperature and two-fluid behavior at finite but low temperatures-has been a subject of intense experimental, theoretical, and numerical studies over the last half a century. Yet, there does not exist a satisfactory phenomenological framework that captures the rich variety of experimental observations, physical properties, and characteristic features, at the same level of detail as incompressible turbulence in conventional viscous fluids. Here we present such a phenomenology that captures in simple terms many known features and regimes of quantum turbulence, in both the limit of zero temperature and the temperature range of two-fluid behavior.Quantum turbulence-the stochastic motion of quantum fluids such as 4He and 3He-B, which display pure superfluidity at zero temperature and two-fluid behavior at finite but low temperatures-has been a subject of intense experimental, theoretical, and numerical studies over the last half a century. Yet, there does not exist a satisfactory phenomenological framework that captures the rich variety of experimental observations, physical properties, and characteristic features, at the same level of detail as incompressible turbulence in conventional viscous fluids. Here we present such a phenomenology that captures in simple terms many known features and regimes of quantum turbulence, in both the limit of zero temperature and the temperature range of two-fluid behavior.
Author Sreenivasan, Katepalli R.
Skrbek, Ladislav
Schmoranzer, David
Midlik, Šimon
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BackLink https://www.ncbi.nlm.nih.gov/pubmed/33790051$$D View this record in MEDLINE/PubMed
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Keywords pure superfluid state
two-fluid state
Vinen and Kolmogorov turbulence
quantum turbulence
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Author contributions: L.S. and D.S. designed research; D.S. and Š.M. performed research; D.S. and Š.M. analyzed data; and L.S. and K.R.S. wrote the paper.
Edited by David A. Weitz, Harvard University, Cambridge, MA, and approved February 22, 2021 (received for review December 4, 2020)
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Snippet Quantum turbulence—the stochastic motion of quantum fluids such as ⁴He and ³He-B, which display pure superfluidity at zero temperature and two-fluid behavior...
Quantum turbulence—the stochastic motion of quantum fluids such as 4 He and 3 He-B, which display pure superfluidity at zero temperature and two-fluid behavior...
Quantum turbulence-the stochastic motion of quantum fluids such as He and He-B, which display pure superfluidity at zero temperature and two-fluid behavior at...
Quantum turbulence-the stochastic motion of quantum fluids such as 4He and 3He-B, which display pure superfluidity at zero temperature and two-fluid behavior...
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SubjectTerms Computational fluid dynamics
Fluid flow
Helium
Incompressible flow
Liquid helium
Low temperature
PERSPECTIVE
Phenomenology
Physical properties
Physical Sciences
Quantum turbulence
Superfluidity
Temperature
Turbulence
Viscous fluids
Title Phenomenology of quantum turbulence in superfluid helium
URI https://www.jstor.org/stable/27039838
https://www.ncbi.nlm.nih.gov/pubmed/33790051
https://www.proquest.com/docview/2515757412
https://www.proquest.com/docview/2507727495
https://pubmed.ncbi.nlm.nih.gov/PMC8072252
Volume 118
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