Published December 1, 2017 | Version v1
Journal article

Analytical and numerical performance models of a Heisenberg Vortex Tube

  • 1. HYdrogen Properties for Energy Research (HYPER) Laboratory, Washington State University, Pullman, WA 99164-2920 (United States)

Description

Analytical and numerical investigations of a Heisenberg Vortex Tube (HVT) are performed to estimate the cooling potential with cryogenic hydrogen. The Ranque-Hilsch Vortex Tube (RHVT) is a device that tangentially injects a compressed fluid stream into a cylindrical geometry to promote enthalpy streaming and temperature separation between inner and outer flows. The HVT is the result of lining the inside of a RHVT with a hydrogen catalyst. This is the first concept to utilize the endothermic heat of para-orthohydrogen conversion to aid primary cooling. A review of 1st order vortex tube models available in the literature is presented and adapted to accommodate cryogenic hydrogen properties. These first order model predictions are compared with 2-D axisymmetric Computational Fluid Dynamics (CFD) simulations. (paper)

Availability note (English)

Available from http://dx.doi.org/10.1088/1757-899X/278/1/012132

Additional details

Publishing Information

Journal Title
IOP Conference Series. Materials Science and Engineering (Online)
Journal Volume
278
Journal Issue
1
Journal Page Range
[8 p.]
ISSN
1757-899X

Conference

Title
International Cryogenic Materials Conference
Acronym
ICMC-2017
Dates
9-13 Jul 2017
Place
Madison, WI (United States)

INIS

Country of Publication
United Kingdom
Country of Input or Organization
International Atomic Energy Agency (IAEA)
INIS RN
52070049
Subject category
S71: CLASSICAL AND QUANTUM MECHANICS, GENERAL PHYSICS;
Resource subtype / Literary indicator
Conference
Descriptors DEI
AXIAL SYMMETRY; CATALYSTS; COHERENT TUBE MODEL; COMPUTERIZED SIMULATION; COOLING; CRYOGENICS; ENTHALPY; FLUID MECHANICS; GEOMETRY; HYDROGEN; PERFORMANCE; VORTICES
Descriptors DEC
ELEMENTS; MATHEMATICAL MODELS; MATHEMATICS; MECHANICS; NONMETALS; NUCLEAR MODELS; PARTICLE MODELS; PHYSICAL PROPERTIES; SIMULATION; SYMMETRY; THERMODYNAMIC PROPERTIES