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Journal Articles

OBurnett Equations: Thermodynamically Consistent Continuum Theory Beyond the Navier–Stokes Regime

Ravi Sudam Jadhav, Upendra Yadav, Amit Agrawal

Publisher: ASME

J. Heat Mass Transfer. June 2023, 145(6): 060801.

Paper No: HT-21-1814

https://doi.org/10.1115/1.4054578

Published Online: January 12, 2023

View Article titled, OBurnett Equations: Thermodynamically Consistent Continuum Theory Beyond the Navier–Stokes Regime

Topics: Boundary-value problems, Flow (Dynamics), Heat flux, Momentum, Navier-Stokes equations, Poiseuille flow, Pressure, Shock (Mechanics), Shock waves, Stress

Journal Articles

Experimental Study on Combined Cooling Method for Porous Struts in Supersonic Flow

Gan Huang, Yinhai Zhu, Zhiyuan Liao, Taojie Lu, Pei-Xue Jiang, Zheng Huang

Publisher: ASME

J. Heat Mass Transfer. February 2018, 140(2): 022201.

Paper No: HT-17-1019

https://doi.org/10.1115/1.4037499

Published Online: September 6, 2017

View Article titled, Experimental Study on Combined Cooling Method for Porous Struts in Supersonic Flow

Topics: Coolants, Cooling, Flow (Dynamics), Struts (Engineering), Temperature, Transpiration, Pressure, Temperature distribution, Shock waves

Journal Articles

Thermal Response of Supersonic Airflow to a Fin Protrusion Situated on a Curved Surface

Majid Molki, David W. Fasig

Publisher: ASME

J. Heat Mass Transfer. November 2009, 131(11): 111704.

https://doi.org/10.1115/1.3155003

Published Online: August 26, 2009

View Article titled, Thermal Response of Supersonic Airflow to a Fin Protrusion Situated on a Curved Surface

Topics: Airfoils, Fillers (Materials), Heating, Shock waves, Supersonic flow, Temperature, Pressure, Flow (Dynamics), Space vehicles, Air flow

Journal Articles

Thermal-Fluid Phenomena Induced by Nanosecond-Pulse Heating of Materials in Water

I. Ueno, M. Shoji

Publisher: ASME

J. Heat Mass Transfer. December 2001, 123(6): 1123–1132.

https://doi.org/10.1115/1.1409264

Published Online: April 27, 2001

View Article titled, Thermal-Fluid Phenomena Induced by Nanosecond-Pulse Heating of Materials in Water

Topics: Heating, Lasers, Pressure, Water, Shock waves, Pumps, Temperature, Bubbles, Fluence (Radiation measurement), Signals

Journal Articles

On the Thermal Shock Wave Induced by a Moving Heat Source

D. Y. Tzou

Publisher: ASME

J. Heat Mass Transfer. May 1989, 111(2): 232–238.

https://doi.org/10.1115/1.3250667

Published Online: May 1, 1989

View Article titled, On the Thermal Shock Wave Induced by a Moving Heat Source

Topics: Heat, Thermal shock, Waves, Fracture (Materials), Heat conduction, Mach number, Shock waves, Temperature, Temperature gradient

Journal Articles

Solidification Effects on the Fragmentation of Molten Metal Drops Behind a Pressure Shock Wave

J. W. Yang, S. G. Bankoff

Publisher: ASME

J. Heat Mass Transfer. February 1987, 109(1): 226–231.

https://doi.org/10.1115/1.3248047

Published Online: February 1, 1987

View Article titled, Solidification Effects on the Fragmentation of Molten Metal Drops Behind a Pressure Shock Wave

Topics: Metals, Pressure, Shock waves, Solidification, Boundary-value problems, Shock (Mechanics), Stability, Stiffness, Water

Journal Articles

Destabilization of Film Boiling Due to Arrival of a Pressure Shock—Part I: Experimental

A. Inoue, S. G. Bankoff

Publisher: ASME

J. Heat Mass Transfer. August 1981, 103(3): 459–464.

https://doi.org/10.1115/1.3244486

Published Online: August 1, 1981

View Article titled, Destabilization of Film Boiling Due to Arrival of a Pressure Shock—Part I: Experimental

Topics: Film boiling, Pressure, Shock (Mechanics), Temperature, Vapors, Collapse, Transient heat transfer, Transients (Dynamics), Compressibility, Ethanol

Journal Articles

High Temperature Thermal Conductivity of Rare Gases and Gas Mixtures

Richard A. Matula

Publisher: ASME

J. Heat Mass Transfer. August 1968, 90(3): 319–324.

https://doi.org/10.1115/1.3597507

Published Online: August 1, 1968

View Article titled, High Temperature Thermal Conductivity of Rare Gases and Gas Mixtures

Topics: Gases, High temperature, Thermal conductivity, Temperature, Atoms, Heat transfer, Shock tubes, Gages, Helium, Pressure

Journal Articles

Measurement of the Thermal Conductivity of Noble Gases in the Temperature Range 1500 to 5000 Deg Kelvin

D. J. Collins, W. A. Menard

Publisher: ASME

J. Heat Mass Transfer. February 1966, 88(1): 52–55.

https://doi.org/10.1115/1.3691476

Published Online: February 1, 1966

View Article titled, Measurement of the Thermal Conductivity of Noble Gases in the Temperature Range 1500 to 5000 Deg Kelvin

Topics: Gases, Temperature, Thermal conductivity, Density, Heat transfer, Shock waves, Thermal boundary layers

Journal citation

NARROW

OBurnett Equations: Thermodynamically Consistent Continuum Theory Beyond the Navier–Stokes Regime

Experimental Study on Combined Cooling Method for Porous Struts in Supersonic Flow

Thermal Response of Supersonic Airflow to a Fin Protrusion Situated on a Curved Surface

Thermal-Fluid Phenomena Induced by Nanosecond-Pulse Heating of Materials in Water

On the Thermal Shock Wave Induced by a Moving Heat Source

Solidification Effects on the Fragmentation of Molten Metal Drops Behind a Pressure Shock Wave

Destabilization of Film Boiling Due to Arrival of a Pressure Shock—Part I: Experimental

High Temperature Thermal Conductivity of Rare Gases and Gas Mixtures

Measurement of the Thermal Conductivity of Noble Gases in the Temperature Range 1500 to 5000 Deg Kelvin

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