
Jack McNamara
· Professor, Mechanical and Aerospace EngineeringOhio State University · Electrical and Computer Engineering
Active 1951–2026
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About
Jack J. McNamara is a professor in the Department of Mechanical & Aerospace Engineering at The Ohio State University. His research interests are broadly in the areas of fluid-structural interactions and model reduction of high-dimensional dynamical systems, with an interconnected goal of improving basic understanding and computational methods. A core application target is air vehicle operation in high-speed flow regimes, where there is a potential for complex interactions at both the component (fluid-thermal-structural-material) and vehicle (aero-servo-thermo-elastic-propulsive) levels. Other application areas include fluid-structural centric problems associated with ship airwakes, wind turbines, flapping wing air vehicles, automobiles, and turbomachinery. He is the director of the Multi-Physics Interactions Research Group (MIRG) at The Ohio State University.
Research topics
- Physics
- Mechanics
- Structural engineering
- Engineering
- Materials science
- Optics
Selected publications
Dynamic interaction between shock wave turbulent boundary layer and flexible panel
Journal of Fluids and Structures · 2022 · 52 citations
Features of panel flutter response to shock boundary layer interactions
Journal of Fluids and Structures · 2021 · 41 citations
Hypersonic Oscillating Shock-Wave/Boundary-Layer Interaction on a Flat Plate
AIAA Journal · 2021 · 27 citations
This work discusses the design, measurement, and simulation of an oscillating shock-wave/boundary-layer interaction on a flat plate at Mach 5.8 and . The shock generator is free to pitch and oscillates with a frequency of 42 Hz, resulting in a shock that varies in intensity and impingement point, with a maximum flow-deflection angle of approximately 10 deg. Transition appears to take place downstream of the separated region for both static (with a fixed flow-deflection angle) and dynamic experim…
Numerical Investigation of a Turbulent High-Speed Flow Separating from a Deforming Cantilever Plate
AIAA Journal · 2023-02-01 · 11 citations
articleDeep understanding of multiscale nonlinear phenomena, such as shocks, turbulent flow, and separation, is critical for the accurate and efficient treatment of high-speed fluid–structural interactions. To better characterize the principal issues, a numerical investigation is performed of the response of a Mach 2.0 flow to prescribed motion of a cantilever plate. The main features of the flow are separation at the end of the plate and re-attachment on the downstream floor, which are modulated by sh…
One-Way Fluid-Structure Interactions in Turbulent Shock-Boundary Layer Interactions
2024-01-04 · 10 citations
articleFluid-Structure Interactions (FSI), especially associated with shock-boundary layer interactions (SBLI), play a significant role in the design and performance of high-speed vehicles. Two-way FSI simulations involving SBLI, while needed for comprehensive understanding, are prohibitively expensive for parametric studies. One-way studies not only offer a way to assess FSI sensitivities and identify the parameter space for targeted fully-coupled campaigns but also allows us certain insights into flu…
Frequent coauthors
- 53 shared
Peretz P. Friedmann
University of Michigan–Ann Arbor
- 37 shared
Andrew Crowell
Virginia Commonwealth University
- 35 shared
Adam Culler
Sierra Lobo (United States)
- 28 shared
Datta V. Gaitonde
- 24 shared
Rohit Deshmukh
- 20 shared
Biju J. Thuruthimattam
University of Michigan–Ann Arbor
- 20 shared
Brent A. Miller
The Ohio State University
- 19 shared
Kenneth G. Powell
University of Michigan–Ann Arbor
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