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Learn more about the PhD program Computing Science

The PhD program in Computing Science is supported by the Department of Mathematics, Physics, and Computer Science and prepares students who are qualified to perform independent research in the field of computer science.

The program considers both theoretical and application-oriented practical problems of computer science. This includes mathematical and scientific problems which can be pursued in cooperation with other fields from the Graduate School BayNAT. The following research areas of computer science are represented in the program:

Software Engineering

The chair for Software Engineering is focused on research in the area of Model-Driven Softwate Engineering. Models, for instance UML class diagrams, have been used for a long period of time in order to design or to document software systems. They abstract from the software system to be developed or to be analyzed by reducing it to concepts necessary to make or comprehend design decisions. The goal of Model-Driven Engineering is to automatize the transformation from input models to source code complying to the desired target language as much as possible. For research, this goal implies a multitude of interesting questions, including model exchange, definition of graphical and/or textual syntax, dynamic semantics, support for variability (e.g., software product lines), model-to-model as well as model-to-text transformations, and support for model-driven processes and tools in general.


Parallel and Distributed Systems

This research area deals with the principles, technology and programming of parallel and distributed systems. The goal is to simplify the programming of various complex systems, so that the user can concentrate on the properties of the algorithms and calculations, while the software system realizes the efficient use on the respective platform. Priorities are on the development of new and efficient implementation of known parallel algorithms from the field of scientific computing, the development of new programming models for the realization of adaptive, scalable, and flexible deployments, scheduling and load balancing methods and the development of programming environments and software libraries that provide the user with these approaches with several levels of abstraction.


Robotics and Embedded Systems

In this research area two research directions are regarded. The first direction is the coexistence and cooperation of humans and robots. The aim is to lift the strict spatial separation between humans and robots to combine their strengths synergistically. For this, the camera-based surveillance, collision detection, motion planning and intention recognition are considered. The second research direction is the intuitive programming of robots. Goal is to reduce the high programming effort and to make the robot even for non-experts available and thus increase the potential applications. For this, the simple sensor integration, programming by demonstration as well as imperative and declarative approaches are considered.


Databases and Information Systems

Research at the Chair of Applied Computer Science IV (Databases and Information Systems) is focusing on generic methods and architectures for modelling and implementing database and/or process-based information systems. The focal point of our research lies in the comprehensive investigation of all aspects of process management. Our underlying thesis is that process management is an ideal means for all sorts of integration efforts within an enterprise. Although, we still see that many pragmatic issues of process management are not matured enough such that process management can become a standard technology that easily can be applied. Our aim is to further investigate the theoretical and conceptual basis of process management and translate these results into pragmatically solutions.


Visual Computing

The main reserach in this area is focused on real-time rendering, geometric modeling and medical image processing. The central reserach topic in real-time rendering is the synthesis of photo realistic images using current graphics hardware. Here the human visual system is one of the main factors that can be used to generate as realistic as possible images in real-time. In the area of geometric modeling the increasing complexity of industrial CAD models poses more and more challanges to 3D modeling systems. Therefore, new methods are required that can cope with the increasing amount of data and allow for interactive modeling. The amount of data is also continuously increasing in the field of medical image processing due to the development of imaging hardware with increasing resolution and specimen size. As classical methods in this area do not scale to larger data sets, completely new algorithms have to be developed in this area as well.


Algorithms and Data Structures

The central aspects of this research area are the design and the analysis of algorithms and data structures, in particular in the field of computational geometry (with an emphasis on the analysis and the comparison of geometric patterns and shapes). Furthermore we consider topics like, e.g., the classification of geometric problems within the framework of parameterized complexity theory, or the design and planning of geometric networks. The work focuses on both, the theoretical investigation of algorithmic questions, as well as the implementation of the methods developed in various application areas (like, e.g., shape matching or computer assisted surgery).


Theoretical Computer Science

The Theoretical Computer Science group investigates mathematical foundations of computing and computer science. A particular focus is on foundations of databases, standards for data on the Web, semi-structured data, and management of data in general. Through the close connections between data management and areas such as logic, complexity, and scalability we can combine fundamental research with the study of current topics in data management. Our mathematical tools consist of complexity theory, automata theory, logic, and discrete mathematics.

In-depth knowledge of Computer Science, career skills

In addition to independent research, the PhD program imparts in-depth knowledge of computer science. Along the way you will acquire key skills for your career. Languages of instruction are German and English.

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