Heat Transfer in Subsonic Separated Flows

Preface
	References
Contents
Nomenclature
	Indices
1 The State of the Art in Research into the Hydrodynamics and Heat Transfer of Separated Flows
	1.1 Introduction
	1.2 Contemporary Simulation Level of Separated Flows
	1.3 Recent Advances in the Experimental Study of Separated Flows
	References
2 Separation of a Laminar Boundary Layer
	2.1 Introduction
	2.2 Flow and Heat Transfer in Laminar Flow Around 2D Obstacles
	2.3 Influence of Dynamic and Thermal Prehistory on the Development of Laminar Separated Flow Behind a Step and Cavity
	2.4 Flow Separation and Reattachment at a Permeable Surface
	References
3 Features of the Development of a Turbulent Separated Flow Behind a Step and a Rib at a Changed External Turbulence
	3.1 Experimental Research Methods and Facilities
		3.1.1 Aerodynamic Tube and Models for Studying the Flow Behind a Single Rib and Step
		3.1.2 Model of Streamlining for a Rectangular Cavity with Inclined Side Walls
		3.1.3 Experimental Set-Up Used to Measure an Inclined Rib and Rib System
		3.1.4 Main Measuring Instrumentation and Data Processing Methods
		3.1.5 Tracer Visualisation Method
	3.2 Heat Transfer in a Separated Flow Behind a Backward-Facing Step Under Natural and Increased Turbulence of the Main Flow
		3.2.1 Separated Flow Dynamics Behind Steps of Different Heights
		3.2.2 Heat Transfer in the Separated Flow Behind a Step
	3.3 Flow Separation Behind a Step with an Inclined Wall
	3.4 Effect of External Turbulence on the Dynamic Characteristics and Heat Transfer Enhancement Behind a Single Rib
	3.5 Effect of High, Closely Spaced Ribs on Heat Transfer
	References
4 Flow and Heat Transfer Behind a Rib Installed at an Angle to the Flow
	4.1 Development of a Separated Flow Behind a Rib for Varying Incidence Angle
	4.2 Heat Transfer in a System of Ribs Located at an Angle to the Flow
		4.2.1 Flow Around the Rib System for Turbulised Flow
	References
5 Flow and Heat Transfer in Cavities
	5.1 Three-Dimensional Structure of the Flow in Cavities
	5.2 Cavities with Inclined Walls: Features of Heat Transfer
	5.3 Effect of the Degree of Incoming Flow Turbulence on Heat Transfer in Cavities
	5.4 Passive Control of Heat Transfer Inside Cavities
	References
6 Effect of Separated Zones on Vortex Formation and Turbulent Heat Transfer in a Round Pipe
	6.1 Effect of Dynamic Prehistory on Heat Transfer in a Separated Flow
	6.2 Effect of Thermal Prehistory on Heat Transfer at Flow Separation
	6.3 Separated Flow Structure and Heat Transfer Depending on the Ratio of Pipe Expansion
	6.4 Enhancement of Heat Transfer When Streamlining Obstacles of Various Shapes
	6.5 Thermohydraulic Efficiency of a Diaphragm in a Pipe
	6.6 Separated Flow in an Axisymmetric Diffuser After Sudden Pipe Expansion
	References
7 Flow Separation in the Field of the Longitudinal Pressure Gradient
	7.1 Introduction
	7.2 Numerical Study of the Separated Flow Development in a Longitudinal Pressure Gradient Field
	7.3 Experimental Installation and Technique
	7.4 Experimental Results
	7.5 Analysis of Results and Discussion
	References
8 Interference of Separated Flows at Various Scales
	8.1 Methods of Separated Flow Control
	8.2 Experimental Set-Up
	8.3 Flow Dynamics
	8.4 Heat Transfer Under Interference of Separated Flows
	References