PHYSICS / COURSE NAVIGATOR
← Course Navigator

COURSE 10 / COURSE

Fluid Mechanics

Close the loop with flowing matter.

OUTCOMEModel pressure and velocity fields from hydrostatics through Bernoulli, viscous flow, vorticity, turbulence, and the Navier–Stokes equations.
PREREQUISITECourses 01–09, especially vector calculus and continuum mechanics.
Fluid Mechanics: original course diagram
Course visual: a compact prompt for the physical ideas developed below.

12 CHAPTERS

Course map

01Fluid properties and pressureDefine density, viscosity, compressibility, and pressure for a fluid model.→02Hydrostatics and buoyancySolve fluids at rest and connect pressure variation to weight.→03Control volumes and continuityTrack mass through pipes, nozzles, tanks, and moving boundaries.→04Bernoulli and mechanical energyUse pressure, elevation, and speed while naming every loss assumption.→05Momentum in a flowing control volumeCalculate jet reactions, bends, and support loads.→06Viscous pipe flowDerive the balance behind laminar pressure drop and Poiseuille flow.→07Boundary layers and separationSee how wall friction, adverse pressure gradients, and detachment arise.→08Dimensional analysis and similarityUse Reynolds and other dimensionless groups to transfer insight between scales.→09Vorticity, circulation, and potential flowDescribe rotation in a fluid and identify useful idealizations.→10The Navier–Stokes equationsAssemble mass, momentum, pressure, viscosity, and body-force terms in local form.→11Turbulence, averaging, and modelingUnderstand why the exact equations can still require closure assumptions.→12Fluid studio: a fountain systemMove from measurements to a defensible model of basin, pump, pipe, nozzle, and display.→