Fluid Physics Track – Course Information

 

 

Note: Below information is for the 2005-2006 courses. See VIST for more up-to-date course information.

 

Compulsary Track Courses

 

Advanced Fluid Mechanics (5 ects)

Short description: The focus of this advanced fluid physics course will be on analytical methods and techniques used in present-day research. Topics are the Navier Stokes equations, energy equations, potential flow in 2D and 3D, Stokes flow, surface waves, boundary layers, self-similarity and intermediate asymptotics.

Previous knowledge: Physics of Fluids or another introductory course in fluid mechanics (required).

Course material: Pijush K. Kundu, Ira M. Cohen, Fluid Mechanics, 3rd Ed., Elsevier Academic Press, London UK (2004)

Examination: exercises during the course, written/oral exam at the end of the course.  

Teaching Staff: dr. D. van der Meer, ir. G.J. de Bruin.

 

Capillarity Phenomena (5 ects)

Short description: Capillarity is the study of the interfaces between two immiscible fluids or a fluid and a solid. Topics of this course are surface tension, capillary rise, thin films, wetting and dewetting, electrowetting, capillary waves, surfactants, special interfaces.

Previous knowledge: Physics of Fluids or another introductory course in fluid mechanics (required).

Course material: Pierre-Gilles de Gennes, Françoise Brochard-Wyart, David Quéré, Capillarity and Wetting Phenomena, Springer Science and Business Media, New York USA (2003).

Examination: exercises during the course, written/oral exam at the end of the course.

Teaching Staff: prof. dr. F. Mugele, Dipl. Phys. H. Rathgen

 

Numerical Techniques for Partial Differential Equations  (5 ects)

Short description: Numerical analysis for partial differential equations in practical applications from applied mathematics, engineering and physics: Hyperbolic and parabolic equations (waves and diffusion). Accuracy, stability, and convergence of finite difference and finite volume methods. Boundary conditions.

Previous knowledge:  

Course material: K.W. Morton and D.F. Mayers, Numerical Solution of Partial Differential Equations, Cambridge University Press, Cambridge UK (1998).

Examination: Three combined theoretical and numerical exercises and an oral examination.

Teaching Staff: dr.ir. O. Bokhove, prof.dr.ir. B.J. Geurts

 

Experimental Techniques in Physics of Fluids (5 ects)

Short description: An introduction to experimental techniques in fluid dynamics, like particle image velocimetry, laser-doppler anemometry, hot-wire anemometry, and high speed imaging. In lectures principles and specific advantages and limitations will be discussed. Methods will be illustrated in informative and hands-on labtours, and by performing laboratory experiments.

Previous knowledge: Physics of Fluids or another introductory course in fluid physics, laboratory courses (required).

Course material: Reader (power-point presentations through Teletop)

Examination: lab reports.

Teaching Staff: dr. C.-D. Ohl

 

 

Chair Specific Courses (Physics of Fluids group):

 

Turbulence (5 ects)

Short description: Navier Stokes equation, hydrodynamical instabilities, routes to chaos, transition to turbulence, statistical desciption of turbulent flow, Rayleigh-Bénard convection, Boussinesq equation, potential flows, mean flow equations, free shear flow, fully developed turbulence, Kolmogorov's theory of turbulence, intermittency, boundary layer theory, numerical flow simulations.

Previous knowledge: Advanced Fluid Mechanics, Partial Differential Equations.

Course material: S.B. Pope, Turbulent Flows, Cambridge Univ. Press, Cambridge UK (2000).

Examination: t.b.a.

Teaching Staff: prof. dr. D. Lohse

 

Bubbles (2,5 ects)

Short description: The Bubble course consists of 2 parts. 4 lectures on the physics of single bubbles and 4 lectures on the behavior of multiple bubbles and bubble clouds. The course treats the forces on bubbles, the acoustics of bubbles and bubble clouds, microstreaming and jets due to bubble oscillation and collapse.

Previous knowledge: Introductory course fluid mechanics (required), Advanced Fluid Mechanics (recommended)

Course material: T.G. Leighton, The Acoustic Bubble, Academic Press (1997) ISBN: 0124419216 (recommended).

Examination: t.b.a.

Teaching Staff: dr. M. Versluis.

 

Granular Matter (2,5 ects)

Short description: Granular matter can be considered as the fourth state of matter: Depending on the situation, granular matter can behave as a solid, a liquid, or a gas, but always has its own peculiar properties. When dry sand is poured, it acts as a fluid. The pile on which it is poured is solid-like, stabilized by forces in between the sand beeds. When dry sand is strongly shaken or fluidized through a gas stream, it behaves gas-like. This course gives an introduction to granular matter in its various forms.

Previous knowledge: Introductory statistical physics course.

Course material: Jacques Duran, Sands, powders, and grains. An introduction to the physics of granular materials, Springer-Verlag, Heidelberg Germany (2000) (recommended).

Examination: t.b.a. 

Teaching Staff: prof. dr. D. Lohse

 


 

Chair Specific Courses (Physics of Complex Fluids group):

 

Soft Matter (5 ects)

(see also Complex Dispersion Rheology group)

Short description: Soft matter comes in a great variety of materials, ranging from simple atomistic or molecular liquids to polymers, self-assembled amphiphiles forming various two or three dimensional mesoscopic structures and colloidal dispersions. In this course we study the structure and thermodynamics of these systems emphasizing similarities between different systems. In the second part of the course we address dynamic processes like diffusion and viscoelastic relaxation.

Course material: J-L Barrat and J-P Hansen, Basic concepts for simple and complex liquids, Cambridge Press, 2003

Teaching staff: W.J. Briels, W.K. den Otter and  J.T. Padding

 

Bionanotechnology and Nanofluidics (5 ects)

(This course is also part of the Nanotechnology Master program.)

Short description: Topics as liquid structure near solid-liquid interfaces, hydrodynamic boundary

conditions and electro-kinetic effects; basics of colloidal physics&chemistry; Furthermore, this module will introduce you to subjects as structures of bio-molecules, recombinant DNA technology, interfacing bio with non-bio materials, etc.

Previous knowledge: Introductory course fluid mechanics (required)

Examination: t.b.a.

Teaching Staff: Dr. M. Bennink; Prof. Dr. F. Mugele

 

 

Chair Specific Courses (Complex Dispersion Rheology group):

 

Soft Matter (5 ects)

(see also Physics of Complex Fluids group)

Short description: Soft matter comes in a great variety of materials, ranging from simple atomistic or molecular liquids to polymers, self-assembled amphiphiles forming various two or three dimensional mesoscopic structures and colloidal dispersions. In this course we study the structure and thermodynamics of these systems emphasizing similarities between different systems. In the second part of the course we address dynamic processes like diffusion and viscoelastic relaxation.

Course material: J-L Barrat and J-P Hansen, Basic concepts for simple and complex liquids, Cambridge Press, 2003

Teaching staff: W.J. Briels, W.K. den Otter and  J.T. Padding

 

 

Continuum Mechanics & Physical Hydrodynamics (5 ects)

Information not yet available

 

 

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