November 13, 2025FluidsOpen Access

Shock Wave Propagation and Its Diffraction in an Annular Channel

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Computational fluid dynamics reveals shock wave propagation behavior in curved channels, suggesting design improvements for detonation systems.

Shock wave propagation intensifies due to increased curvature in annular channels, leading to higher local pressure peaks.
Pressure peaks can increase by up to 20% due to shock focusing effects near the inner wall of the channel.
CFD simulations evaluate shock dynamics across various inlet Mach numbers and curvatures, capturing transient flow features.
Findings enhance understanding of shock phenomena in confined environments, impacting designs of safety and detonation systems.

Konstantin Volkov (2025) studied this question.

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November 13, 2025FluidsOpen Access

View Full Paper

Ask AI

Bookmark

Authors

Computational fluid dynamics reveals shock wave propagation behavior in curved channels, suggesting design improvements for detonation systems.

Shock wave propagation intensifies due to increased curvature in annular channels, leading to higher local pressure peaks.
Pressure peaks can increase by up to 20% due to shock focusing effects near the inner wall of the channel.
CFD simulations evaluate shock dynamics across various inlet Mach numbers and curvatures, capturing transient flow features.
Findings enhance understanding of shock phenomena in confined environments, impacting designs of safety and detonation systems.

Konstantin Volkov (2025) studied this question.

View Full Paper

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Bookmark