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Assistant Professorship (all genders) - Tenure Track

Salary

€59k - €72k

Min Experience

0 years

Location

Vienna

JobType

full-time

About the job

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About the role

TU Wien is Austria's largest institution of research and higher education in the fields of technology and natural sciences. With over 26,000 students and more than 4000 scientists, research, teaching, and learning dedicated to the advancement of science and technology have been conducted here for more than 200 years, guided by the motto "Technology for People". As a driver of innovation, TU Wien fosters close collaboration with business and industry and contributes to the prosperity of society. The Faculty of Informatics, one of the eight faculties at TU Wien, plays an active role in national and international research and has an excellent reputation. The main areas of research include Computer Engineering, Logic and Computation, Visual Computing & Human-Centered Technology, as well as Information Systems Engineering. The TU Wien Faculty of Informatics seeks to fill the open tenure-track position of an Assistant Professor of Machine Learning for Cyber-Physical Systems. The position is affiliated with the Institute of Computer Engineering, Research Unit Cyber-Physical Systems. The estimated starting date is March 2026. The work contract is initially limited to six years. The candidate and TU Wien can agree upon a tenure evaluation, which when positive, opens the possibility to change the position to Associate Professor with an unlimited contract. Tasks: Cyber-physical systems (CPS) and the Internet of Things (IoT) are the foundational software/hardware systems for strategically essential fields in modern society. These sectors include self-driving cars, autonomous robots, Industry 4.0, smart agriculture, smart grids, intelligent buildings, and advanced healthcare. Due to the growing use and the severe consequences that can arise from the potential malfunction of CPS/IoT systems, the modelling, analysis, and optimal control of CPS/IoT systems have become critical societal concerns. Given the complexity inherent in these fields, traditional first-principle approaches need to be enhanced with modern, data-driven methodologies. Stochastic machine-learning techniques, in particular, will be essential for CPS/IoT systems, as they not only help extract insights from the vast amounts of data generated by CPS/IoT systems but also take advantage of the stochastic nature of these data. Supervised, unsupervised, and reinforcement learning methods have already shown significant potential for model inference, predictive accuracy, and optimal control within these fields. It is crucial to scale these methods for large-scale CPS/IoT applications, such as smart cities, and to improve the reasoning about their high-level data features. This improvement promises to establish a stochastic foundation for a cognitive understanding within these systems. Additionally, lifelong learning has been recognized as an essential component of future cognitive CPS/IoT systems. This requires robust mathematical foundations and lightweight designs for edge devices.

About the company

TU Wien is Austria's largest institution of research and higher education in the fields of technology and natural sciences. With over 26,000 students and more than 4000 scientists, research, teaching, and learning dedicated to the advancement of science and technology have been conducted here for more than 200 years, guided by the motto "Technology for People". As a driver of innovation, TU Wien fosters close collaboration with business and industry and contributes to the prosperity of society.

Skills

deep neural networks
residual networks
neural ordinary differential equations
unsupervised learning
autoencoders
generative adversarial networks
supervised learning
vanishing gradients
degradation problems
sim2real reinforcement learning
testing and shielding of reinforcement learning agents
multi-agent reinforcement learning
monitoring deep neural networks
out-of-distribution detection
attention mechanisms
transformers
higher-order reasoning in deep neural networks
structured state space models
mixture of experts
large language models
explainable ai
neuro-symbolic ai