Lehrinhalte
momentum conservation, mass flux, acceleration and velocity field;
basic equations of hydromechanics and hydraulics: derivation of mass-, momentum and energy conservation laws;
Helmholtz laws of rotation;
Resistance formulas of Prandtl, Nikuradse and Colebrook-White;
boundary layers and flow separation;
local head loss;
specific solutions of the Navier-Stokes equations;
basic outline of turbulence and boundary layer theory;
shock wave / water hammer computation in unsteady pipe flow;
pipe network computation;
non-Newtonian (Bingham) Fluids;
sediment transport.
momentum conservation, mass flux, acceleration and velocity field;
basic equations of hydromechanics and hydraulics: derivation of mass-, momentum and energy conservation laws;
Helmholtz laws of rotation;
Resistance formulas of Prandtl, Nikuradse and Colebrook-White;
boundary layers and flow separation;
local head loss;
specific solutions of the Navier-Stokes equations;
basic outline of turbulence and boundary layer theory;
shock wave / water hammer computation in unsteady pipe flow;
pipe network computation;
non-Newtonian (Bingham) Fluids;
sediment transport.
- Lehrende: Boris Lehmann
- Lehrende: Peter Mewis
Semester: Inverno 2018/19