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Entropy jump across an inviscid shock waveThe shock jump conditions for the Euler equations in their primitive form are derived by using generalized functions. The shock profiles for specific volume, speed, and pressure are shown to be the same, however density has a different shock profile. Careful study of the equations that govern the entropy shows that the inviscid entropy profile has a local maximum within the shock layer. We demonstrate that because of this phenomenon, the entropy, propagation equation cannot be used as a conservation law.
Document ID
19950017176
Acquisition Source
Legacy CDMS
Document Type
Preprint (Draft being sent to journal)
Authors
Salas, Manuel D.
(NASA Langley Research Center Hampton, VA., United States)
Iollo, Angelo
(Politecnico di Torino Torino, Italy)
Date Acquired
September 6, 2013
Publication Date
February 1, 1995
Publication Information
Publisher: NASA
Subject Category
Fluid Mechanics And Heat Transfer
Report/Patent Number
ICASE-95-12
NAS 1.26:195046
NASA-CR-195046
Accession Number
95N23596
Funding Number(s)
CONTRACT_GRANT: NAS1-19480
PROJECT: RTOP 505-90-52-01
Distribution Limits
Public
Copyright
Work of the US Gov. Public Use Permitted.
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