Search Results - "Shock tubes"

A Shock‐Tube Facility for Gas‐Phase Chemical Kinetics Studies: Design, Validation, and Application for Methane Oxidation.

Authors: Alturaifi, Sulaiman A. Belal, Belal Y. Elkhazraji, Ali et al.

Source: Chemistry - Methods. Jan2026, Vol. 6 Issue 1, p1-12. 12p.

Performance Enhancement of Shock Wave Assisted Drug Delivery Based on Converging Shock Tube Design.

Authors: Ansari, Z. Das, K. Pallekonda, R. B.

Source: Journal of Applied Fluid Mechanics; Nov2025, Vol. 18 Issue 11, p2837-2851, 15p

Real Gas Corrections Based on the Interaction of One-Dimensional Unsteady Waves in a Shock Tube.

Authors: Zhang, Decong Dai, Yuqiang Yu, Ning et al.

Source: Heat Transfer Engineering. 2025, Vol. 46 Issue 13/14, p1240-1255. 16p.

Subjects: Real gases, Shock tubes, Ideal gases, Shock waves, Equations of state

Evaluating the dynamic integrity of ruthenium oxide nanoparticles using a shock tube: An integrated experimental and DFT study.

Authors: Sakthivel, Surendhar Paramasivam, Sivaprakash Dhas Sathyadhas Amalapushpam, Martin Britto et al.

Source: Ceramics International. Apr2026:Part B, Vol. 52 Issue 10, p14809-14822. 14p.

Subjects: Shock tubes, Density functional theory, Catalytic activity, Nanoparticles analysis, Dynamic stability, Stability (Mechanics), Ruthenium oxides, Photodegradation

Non-equilibrium thermochemistry in real shock tubes.

Authors: Steer, Joseph Clarke, Justin Collen, Peter L. et al.

Source: Journal of Fluid Mechanics. 4/10/2026, Vol. 1032, p1-40. 40p.

Subjects: Shock tubes, Nonequilibrium plasmas, Heat flux, Hypersonic planes, Nonequilibrium thermodynamics, Chemical kinetics

Experimental and Kinetic Simulation Study of the High-Temperature Pyrolysis of 1,2,4-Trimethylbenzene, 1,3,5-Trimethylbenzene and n-Propylbenzene.

Authors: Feng, Yujia Li, Jing Liu, Gengqi et al.

Source: Energies (19961073). May2025, Vol. 18 Issue 10, p2419. 21p.

Subjects: Chemical decomposition, Shock tubes, Aromatic compounds, Paclobutrazol, Isomers

Development of a HCl laser absorption diagnostic near 3.3 μm for shock-tube chemical kinetics studies.

Authors: Grégoire, Claire M. Petersen, Eric L.

Source: Applied Physics B: Lasers & Optics. May2025, Vol. 131 Issue 5, p1-14. 14p.

Subjects: Shock tubes, Absorption coefficients, Shock waves, Chemical kinetics, Hydrogen chloride

Extending the Traceability of Dynamic Calibration to the High-Pressure Regime Using a Shock Tube.

Authors: Amer, Eynas Jönsson, Gustav Penttinen, Olle et al.

Source: Sensors (14248220). Apr2025, Vol. 25 Issue 8, p2453. 19p.

Damage Assessment of Laboratory-Scale Reinforced Concrete Columns Under Localized Blast Loading.

Authors: Rhouma, Mohamed Ben Maazoun, Azer Aminou, Aldjabar et al.

Source: Buildings (2075-5309); Apr2025, Vol. 15 Issue 7, p1003, 25p

Investigating the use of low and high-density polyethylene blends with waste material from three-layer factory tube for the third layer of shock tubes.

Authors: Khalili Gashtroudkhani, Ali Dahmardeh Ghaleno, Mohammad Soltan Abadi, Saeed et al.

Source: Frontiers in Chemistry. 2025, p1-11. 11p.

Research on Ignition Characteristics of Micron-size Aluminum Powder.

Authors: Wang, Dan Yang, Zhiyuan Wang, Zhisong et al.

Source: Combustion Science & Technology; 2026, Vol. 198 Issue 9, p2818-2841, 24p

Wave Structures Influenced by Effective Diffusivity in a Relaxing Gas With Quartic Nonlinearity.

Authors: Khairnar, Sagar Madhumita, G. Sharma, V. D.

Source: Mathematical Methods in the Applied Sciences; Jun2026, Vol. 49 Issue 9, p9009-9021, 13p

Study of the Atomization and Combustion Characteristics of Aluminum-Containing Gel Fuel Under the Effect of Shock Wave.

Authors: He, Guibiao Xue, Mingshuai Jian, Li et al.

Source: Combustion Science & Technology; 2026, Vol. 198 Issue 8, p1989-2006, 18p

Strong-shock-driven Richtmyer–Meshkov instability at quasi-single-mode interfaces.

Authors: Cai, Wei Wang, He Si, Ting

Source: Journal of Fluid Mechanics; 5/10/2026, Vol. 1034, p1-22, 22p

Investigation of Hypersonic Boundary-Layer Transition on a Typical Re-Entry Vehicle: Insights into Spot-like, Non-Modal Breakdown Mechanisms.

Authors: Golui, Dibya Kanti Desikan, S. L. N.

Source: Flow, Turbulence & Combustion; May2026, Vol. 116 Issue 4, p1-30, 30p

Laser Absorption Shock Tube Study of C1 to C4n‐Alkyl Formate Pyrolysis.

Authors: Döntgen, Malte Wildenberg, Alina Heufer, Karl Alexander

Source: International Journal of Chemical Kinetics; May2026, Vol. 58 Issue 5, p199-209, 11p

Data Assimilation of Compressible Flows With Discontinuities: Evaluating Algorithms on Sod's Shock Tube.

Authors: Edoh, Ayaboe K. West, Eric J. Houba, Tomas et al.

Source: International Journal for Numerical Methods in Fluids; May2026, Vol. 98 Issue 5, p644-672, 29p

Morphological coalescence in silver sulfate microparticles modulated using a shock tube.

Authors: Sakthivel, Surendhar Amalapushpam, Martin Britto Dhas Sathyadhas Hedge, Chitrakara et al.

Source: Chemical Communications. 4/28/2026, Vol. 62 Issue 32, p8253-8256. 4p.

Ignition Characteristics of Methane–Ethylene Mixtures: Shock Tube Measurements and Chemical Kinetic Analysis.

Authors: Ogawa, Shinichiro¹ (AUTHOR) shinichiro.ogawa@omu.ac.jp

Source: International Journal of Chemical Kinetics. Apr2026, p1. 13p. 13 Illustrations.

Pyrolysis of Neopentane in a Single Pulse Shock Tube: The Pressure Dependence of the Rate Constant for the C─C Bond Cleavage of Neopentane.

Authors: Yasunaga, Kenji Moriyama, Hiroto Yamanaka, Nobutaka et al.

Source: International Journal of Chemical Kinetics; Apr2026, Vol. 58 Issue 4, p138-145, 8p