Industry-relevant training in Business, Technology, and Design to help professionals and graduates upskill for real-world careers.
Fun, engaging games to boost memory, math fluency, typing speed, and English skills—perfect for learners of all ages.
The chapter discusses the differential analysis of fluid flow, emphasizing the transition from integral to differential approaches in fluid mechanics. It introduces the fundamental principles behind mass conservation and momentum equations and elaborates on the concept of partial differential equations as they relate to fluid dynamics. Key derivations include the application of Reynolds transport theorem and Gauss's divergence theorem, which are vital for understanding mass conservation in fluid systems.
Enroll to start learning
You’ve not yet enrolled in this course. Please enroll for free to listen to audio lessons, classroom podcasts and take practice test.
References
ch24.pdfClass Notes
Memorization
What we have learnt
Final Test
Revision Tests
Term: Integral Approach
Definition: A method of analyzing fluid flow by considering control volumes to estimate gross characteristics of force and mass conservation.
Term: Differential Approach
Definition: An analysis method focusing on point-specific properties in the fluid flow domain to derive equations for pressure, velocity, and density.
Term: Mass Conservation Equation
Definition: A fundamental equation in fluid mechanics that relates the rate of change of mass in a control volume to the mass inflow and outflow rates.
Term: Reynolds Transport Theorem
Definition: A theorem that relates the time rate of change of a quantity in a control volume to the flux of that quantity through the control surface.
Term: Gauss's Divergence Theorem
Definition: A statement that allows the conversion of volume integrals of a vector field's divergence into surface integrals over the boundary of that volume.