2019
DOI: 10.1016/j.actaastro.2019.03.039
|View full text |Cite
|
Sign up to set email alerts
|

Propagation of strong shock waves in a non-ideal gas

Help me understand this report

Search citation statements

Order By: Relevance

Paper Sections

Select...
2
2

Citation Types

0
4
0

Year Published

2020
2020
2023
2023

Publication Types

Select...
5
1

Relationship

1
5

Authors

Journals

citations
Cited by 13 publications
(4 citation statements)
references
References 25 publications
0
4
0
Order By: Relevance
“…Taking into account the complexity of the system, it gives rise to the difficulty in analyzing relevant wave patterns. The Guderley's solution for a blast wave with similarity variable šœ‰ = xāˆ•(āˆ’t) š›æ 3 along with šœ‰ āˆˆ [1, āˆž) and t āˆˆ (āˆ’āˆž, 0] is taken into account as follows [22]:…”
Section: Guderley's Schemementioning
confidence: 99%
See 1 more Smart Citation
“…Taking into account the complexity of the system, it gives rise to the difficulty in analyzing relevant wave patterns. The Guderley's solution for a blast wave with similarity variable šœ‰ = xāˆ•(āˆ’t) š›æ 3 along with šœ‰ āˆˆ [1, āˆž) and t āˆˆ (āˆ’āˆž, 0] is taken into account as follows [22]:…”
Section: Guderley's Schemementioning
confidence: 99%
“…Taking into account the complexity of the system, it gives rise to the difficulty in analyzing relevant wave patterns. The Guderley's solution for a blast wave with similarity variable Ī¾=xfalse/false(āˆ’tfalse)Ī“3$$ \xi =x/{\left(-t\right)}^{\delta_3} $$ along with Ī¾āˆˆfalse[1,āˆžfalse)$$ \xi \in \left[1,\infty \right) $$ and tāˆˆfalse(āˆ’āˆž,0false]$$ t\in \left(-\infty, 0\right] $$ is taken into account as follows [22]: Ļ=Ļ0scriptSfalse(Ī¾false),9.24774ptu=Ī“3xtscriptUfalse(Ī¾false),9.24774ptp=Ļ0()Ī“3xt2scriptPfalse(Ī¾false),z=()Ī“3xt2scriptZfalse(Ī¾false),9.24774ptr=Ī“32x2t3scriptRfalse(Ī¾false).$$ \rho ={\rho}_0\mathcal{S}\left(\xi \right),\kern9.24774pt u=\frac{\delta_3x}{t}\mathcal{U}\left(\xi \right),\kern9.24774pt p={\rho}_0{\left(\frac{\delta_3x}{t}\right)}^2\mathcal{P}\left(\xi \right),z={\left(\frac{\delta_3x}{t}\right)}^2\mathcal{Z}\left(\xi \right),\kern9.24774pt r=\frac{{\delta_3}^2{x}^2}{t^3}\mathcal{R}\left(\xi \right). $$ Using equations () in equations (), we obtain the following system of ordinary differential equations alignleftalign-1align-2(Uāˆ’1)Ī¾S...…”
Section: Guderley's Schemementioning
confidence: 99%
“…12 Toward the study of shock phenomena, we mention the works by many researchers. [13][14][15][16][17][18][19] Across the wave (a wave may be considered as the moving surface), some of the flow variables or their derivatives, describing the material medium, undergo certain kinds of discontinuities that are carried along by the surface. On both sides of the discontinuity surface, the flow variables or their derivatives are connected by a relation, which is known as compatibility condition.…”
Section: Introductionmentioning
confidence: 99%
“…In [3][4][5][6], the propagation of a strong spherical shock wave in a dusty gas with or without self-gravity effects in the case of isothermal and adiabatic flows was investigated. It is assumed that the dusty gas is a mixture of fine solid particles and ideal gas.…”
Section: Introductionmentioning
confidence: 99%