NOC:Fundamentals of Supersonic and Hypersonic Flow

Lecture 1 - Introduction to supersonic and hypersonic flows

Lecture 2 - Introduction to supersonic and hypersonic flows (Continued...)

Lecture 3 - Characteristics of these two flow regimes

Lecture 4 - Characteristics of these two flow regimes (Continued...)

Lecture 5 - Where do these flows occur

Lecture 6 - Basic Concepts and Governing Equations of Compressible Flow

Lecture 7 - Basic Concepts and Governing Equations of Compressible Flow (Continued...)

Lecture 8 - Basic Concepts and Governing Equations of Compressible Flow (Continued...)

Lecture 9 - Basic Concepts and Governing Equations of Compressible Flow (Continued...)

Lecture 10 - Basic Concepts and Governing Equations of Compressible Flow (Continued...)

Lecture 11 - Brief introduction to waves

Lecture 12 - Shocks and Expansion waves

Lecture 13 - Shock and expansion wave relations in the high Mach number limit

Lecture 14 - Revisiting Waves, Conservation Equations and Shocks

Lecture 15 - More on shock and expansion wave relations

Lecture 16 - Introduction to viscous compressible flow

Lecture 17 - Introduction to viscous compressible flow - boundary layer equations

Lecture 18 - Compressible Boundary Layer Equations (Continued...)

Lecture 19 - Compressible Boundary Layer Equations (Continued...)

Lecture 20 - Compressible Boundary Layer Equations - aerodynamic heating and drag

Lecture 21 - Introduction to High Temperature Gas Dynamics

Lecture 22 - Introduction to High Temperature Gas Dynamics (Continued...)

Lecture 23 - Introduction to High Temperature Gas Dynamics (Continued...)

Lecture 24 - Thermodynamics and chemistry of high temperature gases

Lecture 25 - Equilibrium chemically reacting gas mixture

Lecture 26 - Introduction to Statistical Thermodynamics

Lecture 27 - Macrostates and Microstates and counting of microstates

Lecture 28 - Most probable macrostate - Boltzmann Distribution

Lecture 29 - Partition function and its role in finding thermodynamic properties of a single

Lecture 30 - Equilibrium composition of high temperature air

Lecture 31 - Introduction to Hypersonic Non Equilibrium Flows

Lecture 32 - Basics of Kinetic Theory of Gases

Lecture 33 - Kinetic Theory of Gases (Continued...)

Lecture 34 - Vibrational Nonequilibrum

Lecture 35 - Chemical Nonequilibrum

Lecture 36 - Inviscid High Temperature Equilibrium Flow

Lecture 37 - Inviscid High Temperature Equilibrium Flow (Continued...)

Lecture 38 - Governing equations of Inviscid High Temperature Equilibrium Flow

Lecture 39 - Inviscid High Temperature Equilibrium Flow-normal and oblique shock

Lecture 40 - Inviscid High Temperature Equilibrium Flow-flow through CD nozzle

Lecture 41 - Inviscid High Temperature Non Equilibrium Flow - Introduction

Lecture 42 - Inviscid High Temperature Non Equilibrium Flow - Introduction (Continued...)

Lecture 43 - Inviscid High Temperature Non Equilibrium Flow - Governing Equations

Lecture 44 - Inviscid High Temperature Non Equilibrium Flow - frozen, equilibrium

Lecture 45 - Inviscid High Temperature Non Equilibrium Flow - shocks, nozzle flow

Lecture 46 - Viscous High Temperature Flows - Introduction

Lecture 47 - Viscous High Temperature Flows - Introduction (Continued...)

Lecture 48 - Transport properties and Governing Equations of Viscous High Temperature Flows

Lecture 49 - Governing Equations of Viscous High Temperature Flows, Boundary layer Equations

Lecture 50 - Introduction to radiative heat transfer, computational results on viscous

Lecture 51 - Recapitulating the basics of high speed aerodynamics from an application perspective

Lecture 52 - Recapitulating the basics of high speed aerodynamics from an application perspective

Lecture 53 - Supersonic and Hypersonic Shock Interactions

Lecture 54 - Supersonic and hypersonic shock interactions (Continued...); Hypersonic Flight

Lecture 55 - Hypersonic Flight Trajectories (Continued...), Basics of wave rider, Recapitulation

Lecture 56 - Reference Temperature Method; Brief discussion on boundary layer transition

Lecture 57 - Recapitulation of the Reference Temperature Method; Governing equations

Lecture 58 - Some numerical simulations on shock diffraction, shock wave boundary

Lecture 59 - High speed intakes; scramjet engines; other applications of shock waves

Lecture 60 - Other applications of shock waves - astrophysical flows, a quick