Overview
- A unique “backstepping” approach is presented and extended to eliminate one of the well-recognized root causes of transition to turbulence
- New results in fluid dynamics and the analysis of Navier–Stokes equations are presented
- For a broad, interdisciplinary readership of graduate students, researchers, and practitioners in control, fluid mechanics, mechanical, aerospace, chemical, and electrical engineering, and applied mathematics. May be used as a supplementary text for graduate courses on control of distributed-parameter systems and on flow control
- Applications to aerodynamics, chemical processes, weather forecasting, and plasma control
Part of the book series: Systems & Control: Foundations & Applications (SCFA)
Access this book
Tax calculation will be finalised at checkout
Other ways to access
Table of contents (9 chapters)
-
Front Matter
-
Back Matter
Keywords
About this book
This monograph presents new constructive design methods for boundary stabilization and boundary estimation for several classes of benchmark problems in flow control, with potential applications to turbulence control, weather forecasting, and plasma control. The basis of the approach used in the work is the recently developed continuous backstepping method for parabolic partial differential equations, expanding the applicability of boundary controllers for flow systems from low Reynolds numbers to high Reynolds number conditions.
Efforts in flow control over the last few years have led to a wide range of developments in many different directions, but most implementable developments thus far have been obtained using discretized versions of the plant models and finite-dimensional control techniques. In contrast, the design methods examined in this book are based on the “continuum” version of the backstepping approach, applied to the PDE model of the flow. The postponement of spatial discretization until the implementation stage offers a range of numerical and analytical advantages.
Specific topics and features:
* Introduction of control and state estimation designs for flows that include thermal convection and electric conductivity, namely, flows where instability may be driven by thermal gradients and external magnetic fields.
* Application of a special "backstepping" approach where the boundary control design is combined with a particular Volterra transformation of the flow variables, which yields not only the stabilization of the flow, but also the explicit solvability of the closed-loop system.
* Presentation of a result unprecedented in fluid dynamics and in the analysis of Navier–Stokes equations: closed-form expressions for the solutions of linearized Navier–Stokes equations under feedback.
* Extension of the backstepping approach to eliminate one of the well-recognized root causes of transition toturbulence: the decoupling of the Orr–Sommerfeld and Squire systems.
Control of Turbulent and Magnetohydrodynamic Channel Flows is an excellent reference for a broad, interdisciplinary engineering and mathematics audience: control theorists, fluid mechanicists, mechanical engineers, aerospace engineers, chemical engineers, electrical engineers, applied mathematicians, as well as research and graduate students in the above areas. The book may also be used as a supplementary text for graduate courses on control of distributed-parameter systems and on flow control.
Authors and Affiliations
Bibliographic Information
Book Title: Control of Turbulent and Magnetohydrodynamic Channel Flows
Book Subtitle: Boundary Stabilization and State Estimation
Authors: Rafael Vazquez, Miroslav Krstic
Series Title: Systems & Control: Foundations & Applications
DOI: https://doi.org/10.1007/978-0-8176-4699-8
Publisher: Birkhäuser Boston, MA
eBook Packages: Mathematics and Statistics, Mathematics and Statistics (R0)
Copyright Information: Birkhäuser Boston 2008
Hardcover ISBN: 978-0-8176-4698-1Published: 26 November 2007
eBook ISBN: 978-0-8176-4699-8Published: 06 October 2007
Series ISSN: 2324-9749
Series E-ISSN: 2324-9757
Edition Number: 1
Number of Pages: X, 212
Topics: Classical and Continuum Physics, Systems Theory, Control, Engineering Fluid Dynamics, Partial Differential Equations, Mechanical Engineering, Engineering Thermodynamics, Heat and Mass Transfer