Courses at the UT 2018-2019
Applied Physics
Bachelor
| Module 1: Dynamica en Relativiteit (201800157) Jacco Snoeijer, Alvaro Marin |
B1 Q1 5 EC |
| Physics of Fluids (147023) Devaraj van der Meer |
B2 Q3+4 5 EC |
| Physics of Fluids lab course (147023) Michel Versluis |
B2 Q3 2.5 EC |
| Mathematical and Numerical Physics (201900080) Jacco Snoeijer, Richard Stevens |
5 EC |
Master courses in Fluid Physics
| Advanced Fluid Mechanics (193570010) Sander Huisman, Detlef Lohse |
M Q1 5 EC |
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| Heat and Mass transfer (191470241) Dominik Krug |
M Q3 5 EC |
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| Experimental Techniques in Physics of Fluids (193580020) Alvaro Marin, Sander Huisman |
M Q3 5 EC |
More details |
| Turbulence (193580010) Richard Stevens |
M Q2 5 EC |
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| Granular Matter (193580030) Devaraj van der Meer, Stefan Luding |
M Q3 5 EC |
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| Physics of Bubbles (193572010) Michel Versluis |
M Q2 2.5 EC |
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| Capillarity Phenomena (193565000) Jacco Snoeijer |
M Q4 5 EC |
Biomedical Engineering
Master Courses
| Physical and Medical Acoustics (193542070) Michel Versluis |
M Q3 5 EC |
| Physics of Bubbles (193572010) Michel Versluis |
M Q2 2.5 EC |
Technical Medicine
Bachelor Courses
| Urogenital System (technical contribution) (193304002) Michel Versluis |
B3 Q2 5EC |
Other courses
Experimental Techniques in Fluid Mechanics
JMBC PhD Course
This course for JMBC PhD students gives a general overview of concepts of experimental methods for flow, pressure, concentration and temperature measurements. The course will discuss various classic techniques (thermocouples, Pitot-tubes, hot-wire anemometry) and optical techniques such as shadow and Schlieren. The course will also focus on modern non-intrusive laser techniques (Laser Doppler and Phase Doppler Anemometry, Particle Imaging and Particle Tracking Velocimetry and Laser-induced Fluorescence). We will discuss methods for flow visualization and high-speed imaging and we have special presentations on experimental methods used in two-phase flows and in rheology. The course includes labtours and 'hands-on' demonstrations.
The Physics of Granular Matter
JMBC PhD Course
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: 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. It is the dissipative nature of the interparticle interactions of granular matter which makes it behave so differently from ordinary matter. What makes the field so appealing is that many questions not only exemplify emerging concepts from modern physics, but also pose new basic questions: granular materials are heterogeneous and hysteretic, and can show jamming or transitions to glassy states. They are characterized by large fluctuations and form structures (such as shear bands) on scales comparable to the grain scale. Granular dynamics displays inherently dynamical phase transitions, complexity, and pattern formation; it is dissipative and far from equilibrium, highly nonlinear and nonlocal in time. But granular matter is also important from a more applied point of view: more than half of all goods processed worldwide is granular matter, such as coal, sand, gravel, grain, potatoes, or pills. The economic potential of granular matter is enormous: it has been estimated that no less than 40 percent of the capacity of the industries that process granular matter is wasted due to problems connected to the handling of these materials. Typical questions are connected with grain silos and their stability, waste processing, dike construction, sand transport in rivers and tidal zones, fluidized beds, heterogene catalyse, particle characterization, or pill processing in the pharmaceutical industry.The aim of the school is to give an introduction to the physics granular matter.
