Student Projects - Revision history

Dietrich: /* Machine Learning and Data Mining: Classification, Clustering and Dimension Reduction */

2020-09-21T11:25:51Z

Machine Learning and Data Mining: Classification, Clustering and Dimension Reduction

← Older revision		Revision as of 11:25, 21 September 2020
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	Usually student projects deal with the application of data mining techniques based on sparse grids (classification, clustering and dimension reduction) in various fields of science and engineering (astrophysics, car crash tests, plasma physics, …). But we also offer projects exploring the sparse grids techniques themselves, like adaptivity, basis functions and algorithms.		Usually student projects deal with the application of data mining techniques based on sparse grids (classification, clustering and dimension reduction) in various fields of science and engineering (astrophysics, car crash tests, plasma physics, …). But we also offer projects exploring the sparse grids techniques themselves, like adaptivity, basis functions and algorithms.

	Contact: [[Felix Dietrich]], [[Paul Cristian Sarbu, M.Sc. (hons)\|Paul Sarbu]], [[Michael_Obersteiner,_M.Sc.\|Michael Obersteiner]]		Contact: [https://www.in.tum.de/i05/personen/personen/felix-dietrich/ Felix Dietrich], [[Paul Cristian Sarbu, M.Sc. (hons)\|Paul Sarbu]], [[Michael_Obersteiner,_M.Sc.\|Michael Obersteiner]]

	=== High Dimensional Approximation in Plasma Physics ===		=== High Dimensional Approximation in Plasma Physics ===

Dietrich: /* Machine Learning and Data Mining: Classification, Clustering and Dimension Reduction */

2020-09-21T11:24:34Z

Machine Learning and Data Mining: Classification, Clustering and Dimension Reduction

← Older revision		Revision as of 11:24, 21 September 2020
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	Usually student projects deal with the application of data mining techniques based on sparse grids (classification, clustering and dimension reduction) in various fields of science and engineering (astrophysics, car crash tests, plasma physics, …). But we also offer projects exploring the sparse grids techniques themselves, like adaptivity, basis functions and algorithms.		Usually student projects deal with the application of data mining techniques based on sparse grids (classification, clustering and dimension reduction) in various fields of science and engineering (astrophysics, car crash tests, plasma physics, …). But we also offer projects exploring the sparse grids techniques themselves, like adaptivity, basis functions and algorithms.

	Contact: [[~~Kilian Röhner~~]], [[Paul Cristian Sarbu, M.Sc. (hons)\|Paul Sarbu]], [[Michael_Obersteiner,_M.Sc.\|Michael Obersteiner]]		Contact: [[Felix Dietrich]], [[Paul Cristian Sarbu, M.Sc. (hons)\|Paul Sarbu]], [[Michael_Obersteiner,_M.Sc.\|Michael Obersteiner]]


	=== High Dimensional Approximation in Plasma Physics ===		=== High Dimensional Approximation in Plasma Physics ===

Krenz: /* Computational Seismology */

2020-08-17T16:11:59Z

Computational Seismology

← Older revision		Revision as of 16:11, 17 August 2020
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	Students are very welcome and will work on state-of-the-art research of the involved fields: High performance computing, Numerics and Seismology.		Students are very welcome and will work on state-of-the-art research of the involved fields: High performance computing, Numerics and Seismology.

	Contact: [[~~Carsten_Uphoff~~,_M.Sc.\|~~Carsten Uphoff~~]], [[Leonhard_Rannabauer,_M.Sc.\|Leonhard Rannabauer]]		Contact: [[Lukas_Krenz,_M.Sc.\|Lukas Krenz]], [[Sebastian_Wolf,_M.Sc.\|Sebastian Wolf]], [[Leonhard_Rannabauer,_M.Sc.\|Leonhard Rannabauer]]

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Seckler: /* Molecular Dynamics Simulations */

2020-08-14T11:16:31Z

Molecular Dynamics Simulations

← Older revision		Revision as of 11:16, 14 August 2020
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	Contact:		Contact:
	* [[Steffen Seckler]]
	* [[Fabio Gratl]]		* [[Fabio Gratl]]

Gratl: /* Molecular Dynamics Simulations */

2019-12-04T13:37:10Z

Molecular Dynamics Simulations

← Older revision		Revision as of 13:37, 4 December 2019
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	Contact:		Contact:
	* [[Steffen Seckler]]		* [[Steffen Seckler]]
	* [[Nikola Tchipev, M.Sc.]]
	* [[Fabio Gratl]]		* [[Fabio Gratl]]

Gratl: updated ppl for HPC

2019-12-04T13:36:28Z

updated ppl for HPC

← Older revision		Revision as of 13:36, 4 December 2019
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	Contact persons:		Contact persons:
	* [[Michael Bader]]: earthquake simulation (code SeisSol; optimization and load balancing)		* [[Michael Bader]]: earthquake simulation (code SeisSol; optimization and load balancing)
	* [[~~Emily_Mo-Hellenbrand~~,_M.Sc.\|~~Emily Mo-Hellenbrand~~]]: [http://invasic.informatik.uni-erlangen.de/en/~~tp_d3_PhII~~.php Invasive Computing~~, D3~~]~~, various applications (Tsunami/Weather simulations, CFD, Machine learning algorithms) with a focus on high-performance and resource-awareness~~		* [[Santiago_Narvaez,_M.Sc. \| Santiago Narvaez]]: [http://invasic.informatik.uni-erlangen.de/en/index.php Invasive Computing]
	* [[Alexander Pöppl, M.Sc. \|Alexander Pöppl]]: [http://invasic.informatik.uni-erlangen.de/en/tp_a4_PhII.php Invasive Computing, A4]		* [[Alexander Pöppl, M.Sc. \|Alexander Pöppl]]: [http://invasic.informatik.uni-erlangen.de/en/tp_a4_PhII.php Invasive Computing, A4]
	* [[~~Roland Wittmann, M.Sc.\|Roland Wittmann]]: Spacetree-based algorithms, load balancing~~		* [[Fabio Gratl]]: N-Body Methods, hardware-aware optimizations, Xeon Phi programming
	* [[Nikola Tchipev, M.Sc.\|Nikola Tchipev]]: N-Body Methods, hardware-aware optimizations, Xeon Phi programming

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Mendl at 11:49, 24 October 2019

2019-10-24T11:49:03Z

← Older revision		Revision as of 11:49, 24 October 2019
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	Videos: [http://www5.in.tum.de/sierpinski/media.php Videos]		Videos: [http://www5.in.tum.de/sierpinski/media.php Videos]

			== Quantum Computing ==

			See https://www5.in.tum.de/~quanTUMcomputing/

			Contact: [[Univ.-Prof. Dr. Christian Mendl]]

	== Uncertainty Quantification ==		== Uncertainty Quantification ==

Neckel: /* Computational Fluid Dynamics (CFD) */

2019-05-08T14:49:32Z

Computational Fluid Dynamics (CFD)

← Older revision		Revision as of 14:49, 8 May 2019
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	The simulation of various flow phenomena and the development of software for this purpose are important problems. Currently, we mainly collaborate with the ([https://www.grs.de/en GRS]) on thermohydraulic problems.		The simulation of various flow phenomena and the development of software for this purpose are important problems. Currently, we mainly collaborate with the ''Gesellschaft für Anlagen- und Reaktorsicherheit'' ([https://www.grs.de/en GRS]) on thermohydraulic problems.

Neckel at 14:48, 8 May 2019

2019-05-08T14:48:56Z

← Older revision		Revision as of 14:48, 8 May 2019
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	The simulation of various flow phenomena and the development of software for this purpose are important problems. ~~We offer topics for projects and theses~~ (BA/MA).		The simulation of various flow phenomena and the development of software for this purpose are important problems. Currently, we mainly collaborate with the ([https://www.grs.de/en GRS]) on thermohydraulic problems.

	To achieve efficient and accurate codes, we apply mathematical methods (finite element method, multigrid, numerical time integration schemes, etc.) as well as computer science techniques (parallelisation, cache- and runtime-optimisation, high performance computing, etc.). The focus of a project or a thesis can be adapted to be either in one or both of these two fields.

			<!--Further information on possible projects: [[Concrete project topics in Computational Fluid Dynamics (CFD)\|Concrete project topics in Computational Fluid Dynamics (CFD)]]-->
	Further information on possible projects: [[Concrete project topics in Computational Fluid Dynamics (CFD)\|Concrete project topics in Computational Fluid Dynamics (CFD)]]
	<!--[http://www5.in.tum.de/lehre/CFD_projects_en.html Concrete project topics in Computational Fluid Dynamics (CFD)]-->		<!--[http://www5.in.tum.de/lehre/CFD_projects_en.html Concrete project topics in Computational Fluid Dynamics (CFD)]-->


	Contact:		Contact:
	* [[Dr. rer. nat. Tobias Neckel]]~~: quantification of uncertainty, high performance computing, finite element method, turbulence, multigrid~~		* [[Dr. rer. nat. Tobias Neckel]]
	<!--* [[Dr. rer. nat. Philipp Neumann]]: Lattice Boltzmann fluid simulations, micro- and mesoscale simulation approaches, multiscale methods in fluid dynamics, parallel simulations-->		<!--* [[Dr. rer. nat. Philipp Neumann]]: Lattice Boltzmann fluid simulations, micro- and mesoscale simulation approaches, multiscale methods in fluid dynamics, parallel simulations-->

Gratl: /* Molecular Dynamics Simulations */

2019-04-15T14:08:25Z

Molecular Dynamics Simulations

← Older revision		Revision as of 14:08, 15 April 2019
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	Further challenges arise when so called "long-range" interactions are present in the simulation. In such cases all interactions in the system need to be taken into account, leading to O(N^2) behavior. A different class of methods needs to be applied, such as the Barnes-Hut Method or the Fast Multipole Method, in order to solve the problem in O(Nlog N) or O(N) time.		Further challenges arise when so called "long-range" interactions are present in the simulation. In such cases all interactions in the system need to be taken into account, leading to O(N^2) behavior. A different class of methods needs to be applied, such as the Barnes-Hut Method or the Fast Multipole Method, in order to solve the problem in O(Nlog N) or O(N) time.

	[[Image:StudentProjects_spherical_harmonics.png\|600px]]		[[Image:StudentProjects_spherical_harmonics.png\|600px]]