Zum Hauptinhalt springen

Computer Science

English Modules and Classes

Lecturer

Prof. PhD Andreas Siebert

Type of courseLecture / Tutorials
ECTS credits5
SemesterSummer Semester
Module NumberIB760
Admission Requirements

Algorithms and data structures

Programming knowledge

B2 Level in English

FormatOn Campus
Objectives

Throughout the course, students:

  • Become familiar with basic algorithms in the field of big data and be able to apply them
  • Become familiar with systems that are used to process very large volumes of – in particular – unstructured data and be able to assess when it is appropriate to use them

LecturerProf. Dr. Abdelmajid Khelil
ECTS5
SemesterWinter and Summer Semester
Module NumberIB765
Admission Requirements

Experience in Software Enigneering and Programming

B2 Level in English

FormatOn Campus
ObjectivesThroughout the course, students:
  • Identify real-world problems and recognise the problems of creating complex solutions using a wide variety of IoT platforms. They are in a position to analyse the environment of the problem and are able to discuss these in advance in cooperation with companies.
  • Acquire knowledge of design thinking, agile project management and the independent implementation of projects is acquired in teamwork. They are able to apply interdisciplinary knowledge, integrate the problem solver into the project in an agile manner and to present the results of their work.
Teaching Content

The cooperating companies offer the students real problems from the most important IoT domains, such as Smart Agriculture, Smart Building, Smart Energy, Smart Production, eHealth, etc.

The problem is described in detail using defined application cases. In addition, the aspects of IoT Cloud and IoT Security are also examined.
The students are supervised by the lecturer and the coach of the innovation lab.

Lecturer

Prof. Dr. Markus Mock

Type of courseLecture
ECTS credits5
SemesterSummer Semester
Module NumberIB768/KI620
Admission Requirements

B2 Level in English

FormatOn Campus
Objectives

Throughout the course, students:

  • become familiar with importance of resource managmeent and concept of elasticity in the cloud
  • learn about strategies for synchronizing distributed data sources
  • gain availability in explaining advantages and disadvantages of virtualized infrastructures
  • launch applications that uses cloud infrastructure for processing or data storage in the cloud
  • learn important computing paradigms for higly distributed processing

Teaching Content

  • Computing and Internet Scale - clusters, grids, and networks
  • Cloud services (such as AWS, Azure, or Google Cloud)
  • IaaS, SaaS, PaaS and resource elasticity
  • Virtualization, replication and process migration
  • Security in the Cloud, Virtual Private Network
  • Weakly consistent data stores, CAP Theorem
  • Distributed File Systems, e.g. HDFS
  • Mapreduce and Hadoop: paradigm for distributed computation

LecturerLecturers of th respective semester
ECTS5
SemesterSummer Semester
Module NumberIB351/WIF490/KI630
Admission Requirements

Experience in Programming and Software Engineeering

B2 Level in English

FormatOn Campus
Objectives

After successful completion of this course, students:

  • Know the problems of creating complex systems
  • Can apply the basics of scientific work and know how to independently carry out projects appropriate to the degree programme
  • Have learned to work in a team and have acquired knowledge in estimating the scope of projects as well as in the management and supervision of projects.
  • Are able to apply interdisciplinary knowledge and present work results.
ContentThe teachers of the Faculty of Computer Science offer the students a choice of project topics with a short description. Teams of students can propose a project themselves, for this you must find a supervising lecturer. The students are regularly supervised professionally by the issuing lecturer.

Lecturer

Prof. Dr. Abdelmajid Khelil

Type of courseLecture / Tutorials
ECTS credits5
SemesterSummer Semester
Module NumberIB764
Admission RequirementsB2 Level in English
FormatOn Campus
Objectives

After successful completion of this course, students are able to:

  • Identify real-world problems and recognize the core issue of creating complex solutions using a wide range of IoT platforms.
  • Analyze the context of a given problem and discuss these in advance in cooperation with companies.
  • Acquire knowledge about Design Thinking, agile project management and independent execution of projects in teamwork.
  • Apply interdisciplinary knowledge, integrate the problem poser into the project in an agile manner and present the results of their work.

Lecturer

Prof. Dr. rer. nat. Sandra Eisenreich

Type of courseLecture
ECTS credits8
SemesterSummer Semester
Module NumberKI440
Admission Requirements

B2 Level in English

FormatOn Campus
Objectives

Througout the course students:

  • gain insights into the theory and applications of Deep Learning.
  • are able to understand and explain basic terminology and assess which problems deep learning is particularly well suited for, and know about disadvantages/difficulties
  • gain first experiences in important current technologies in the field of Deep Learning and gain insights into important application areas.
  • are able to implement selected methods in Python with the help of suitable Deep Learning frameworks

Teaching content:

  • Backpropagation and deep neural network training
  • Automatic differentiation
  • Initialization and regulariziation
  • Deep Learning for computer vision with CNNs (image classification, object detection, segmentation)
  • Recurrent Neural Networks and LSTMs
  • Attention Mechanisms and Transformer Models
  • Generative Models (VAEs, GANs, Diffusion Models)

Lecturer

Prof. Dr. Eduard Kromer

Type of courseLecture
ECTS credits5
SemesterWinter Semester
Module NumberKI740
Admission Requirements

B2 Level in English

FormatOn Campus
Objectives

Througout the course students:

  • gain insights into the theory and applications of Reinforcement Learning.
  • are able to understand and explain basic terminology and are able to assess which problems Reinforcement Learning is particularly well suited for, and know about disadvantages/difficulties.
  • gain first experiences in important current technologies in the field of Reinforcement Learning and gain insights into important areas of application.
  • are able to implement selected methods in Python with the help of suitable frameworks.

Teaching content:

Why Reinforcement Learning? Reinforcement Learning as a Discipline.

  • Multi-armed Bandits
  • Markov Decision Processes, Dynamic Programming and Monte Carlo Methods
  • Temporal-Difference Learning
  • Value Function Approximation
  • Policy Gradient Methods
  • Applications and Case Studies
  • Practical Reinforcement Learning: The RL Project Lifecycle

Lecturer

Prof. Dr. Christopher Auer

Type of courseLecture
ECTS credits5
SemesterWinter Semester
Module NumberKI790
Admission Requirements

B2 Level in English

FormatOn Campus
Objectives

The students obtain insights into the inner workings of modern 3D game engine and their applications. They learn the most important mechanism behind 3D game engines and modern methods to design and implement interactive 3D applications.

Topics include:

Mathematical basics: vector spaces, homogeneous coordinates, coordinate transformations and projections

 3D graphics: scene graphs, camera, rendering 3D objects, textures and uv-coordinates, light and shadow, visibility

 Collision detection, basics of 3D physics engines

  3D graphics in-depth: graphics pipeline, light models, BRDFs, vertex and pixel shader

 AI: way finding, decision making

 Application development: handling events and states, design patterns

LecturerProf. Dr. Markus Böhm
ECTS2 (Per Semester)
SemesterWinter and Summer Semester
Module NumberWIF290
Admission Requirements--
FormatOn Campus
Objectives

Students are motivated to work scientifically and will be able to acquire subject-specific knowledge from the scientific literature and to prepare this knowledge for specific target groups.


The course covers four areas:

1. Basics of scientific work

Students understand the necessity of a scientific approach to problems and are able to understand the basic concepts of scientific work. (e.g. research questions, argumentation logic, writing style, citation)

2. Research methods

Students are able to apply essential research methods commonly used in business informatics and to assess the basic applicability of these methods for a given problem. In addition, they understand the basics of design-oriented research (Design Science). Furthermore, they are able to conduct a systematic literature study on their own.

3. Handling of scientific texts

Students can describe the structure of scientific texts, apply reading strategies and assess their basic scientific quality. Furthermore, they can compile, evaluate and compare the core statements of different scientific texts.

4. Presentation and discussion

In the area of presentation and discussion, students understand the essential elements of effective presentations and are able to apply them to a lecture. In addition, they are able to apply argumentation strategies for professional discussions and methods for effective discussion moderation.


Implicitly, this course promotes the English language level of the students to the level B2.2/C1.1 of the CEFR. Through intensive literature work with English-language scientific texts and their presentation/discussion, they have the ability to understand the main content of complex texts on concrete and abstract topics as well as to participate in specialist discussions in the field of business information systems.

LecturerProf. Dagmar Schuller
ECTS5
SemesterWinter Semester
Module NumberKI791
Admission RequirementsB2 level in English
FormatOn Campus
Objectives

Qualification goals:
Y Combinator is one of the most successful startup/accelerator programs from Silicon Valley and is
particularly focused on HiTech.

Y Combinator Exists are for example Airbnb, Stripe, Dropbox, Reddit, etc. The aim of the Y Combinator program is in particular to create independent start-ups within a short period of time (3 months), regardless of the phase of the idea (idea generation or already existing concept or demonstrator) to achieve significant progress in order to present not only their plan on Y Combinator Demo Day, but also to achieve a significantly improved, realistic result with which a possible further implementation can be further implementation can actually be realized.

In this module, the students should get insight into how to move from an idea to actual implementation for AI-based business models and innovations.
This module provides students with both the tools as well as the know-how on how to efficiently and specifically use the current AI methods and possibilities for entrepreneurial success, evaluate whether the idea is viable under the given premises and what, in addition to the technical requirements, is necessary for the successful realization of the product/project.

Course content:

  • Current AI business models
  • Success criteria for selection and evaluation, benchmarking
  • Essential decision criteria for successful entrepreneurship/intrapreneurship
  • Presentation technique

LecturerProf. Dagmar Schuller
ECTS5
SemesterWinter Semester
Module NumberWIF726
Admission RequirementsB2 level in English
FormatOn Campus
Objectives

Qualification goals:
Students will gain an overview of AI applications and their practical applicability within real company examples. The students develop the ability to identify AI application cases and to methodically evaluate their applicability.

The focus here is particularly on the area of process optimization. In this context, the following are also rounded off the topics of data selection and management, bias mitigation as well as ethical and legal principles for the application.


Course content:
- Identification of potential for process optimization through AI applications
- Methodical evaluation of application cases and feasibility
- Proof-of-concept planning
- Legal basis for data collection, preparation and processing for the envisaged AI applications
- Bias mitigation approaches, ethical principles

LecturerProf. Dr. Markus Mock
ECTS5
SemesterWinter Semester
Module NumberKI720
Admission RequirementsB2 level in English
FormatOn Campus
Objectives

Qualification goals:

Students are able to implement machine learning in the cloud and are familiar with various machine learning methods. They are able to implement these methods in a cloud environment and practically solve ML problems. They are able to select suitable cloud infrastructure and services for the problems at hand and are familiar with the practical use of standard tools.

Course content:

- Basic concepts of cloud computing, especially using AWS

- The cloud computing machine learning pipeline:

- ML problem formulation and business case definition

- ML data collection and labelling, data cleaning, ETL

- Understanding and evaluating ML data, Pandas library, statistics for understanding data

- ML feature engineering

- ML model selection and training with Amazon Sagemaker

- (Automated) hyperparameter tuning

- Model deployment in the cloud

- ML model evaluation

- Special topics, vision, NLP and forecasting

- Tools: Python libraries Pandas, Skikit

Type of courseBachelor Thesis
ECTS credits12
SemesterWinter Semester
Module NumberIB720/KI710
Admission Requirements

B2 Level in English

Format

On Campus

ObjectivesIn English; supervised by a member of UASL faculty during stay

Type of courseInternship
ECTS credits28
SemesterWinter + Summer Semester
Module NumberIB500
Admission Requirements

B2 Level in English

Format

On Campus