Course Content		Momentum Heat and Mass Transfer ChemE 530
Chapter in Lecture	Topics		Chapter in Textbook^*
1	Introduction: terminology, basic rate equations (diffusivities), molecular interpretation, restrictions for continuum approach.  Furthermore: Diffusion models (Mass Transfer)		1
2	Conservation Equations: Conservation of mass and energy, heat transfer at interfaces.		2
3	Scaling and Approximation Techniques:  Scaling and reduction in dimensionality, Buckingham Pi Theorem, Finite Difference Method, Boundary Conditions (Dirichlet, Neumann)		3
4-5-6	Fluid Mechanics: Kinematics, conservation of momentum, viscous stresses and strain, statics, constitutive equation for viscous stress, fluid mechanics between interfaces (lift forces, circulation), stream function, visualization of flow (potential flow:  irrotational flow and  inviscid flow), residual method for drag force determination (potential flow approximation), Non-Newtonian fluids (magnitude of stress tensor), creeping flow, viscous particle motion		5-6-7
7	Boundary Layer Theory: laminar and turbulent regimes, boundary-layer separation		8
8	Transport in Turbulent flow: Reynolds stresses, eddy viscosity, velocity fluctuations and distribution, the origin of turbulences		8/13
9	Confined laminar flow: Forced convection heat and mass transfer in small conduit flow		9