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AIT Austrian Institute of Technology in Vienna invites applications for a master thesis on hybrid motion planning for real-time model predictive control in robotics. You will explore combining gradient-based and sampling-based optimisation to improve trajectory generation.
Responsibilities include literature review, algorithm analysis, MATLAB implementation, simulation-based evaluation on ground vehicles, and an experimental test on a Husky platform, under expert supervision.
The AIT Austrian Institute of Technology is Austria’s largest Research and Technology Organisation (RTO). We aim to transform scientific excellence into innovation with impact. Together with our partners, we develop technologies and solutions for a sustainable, resilient, and digitalized future, strengthening Europe’s competitiveness and technological sovereignty. Our international teams combine cutting-edge research with strong implementation expertise to create measurable value for industry and society.
Our research unit Complex Dynamical Systems located in Vienna (Argentinierstraße) at the Center for Vision, Automation & Control invites applications for a master thesis. We focus our research on modelling, simulation, analysis and optimsation and control of complex and dynamical industrial systems and processes to enhance product quality, increase flexibility, and improve resource efficiency. These methods are applied accross a broad range of industrial domains such as mechatronics, robotics, and industrial production facilities.
As part of this master’s thesis, you will investigate hybrid motion planning methods for real-time model predictive control in robotics, with a particular focus on combining gradient-based and sampling-based optimisation techniques. Motion planning enables autonomous vehicles and robots to navigate safely and efficiently in complex environments. However, nonlinear dynamics, state and actuation constraints, and environments containing multiple obstacles give rise to non-convex optimisation landscapes in which gradient-based methods may converge to local minima and fail to compute feasible trajectories. Stochastic optimisation methods, such as Model Predictive Path Integral Control (MPPI), have been developed to mitigate these limitations by improving exploration of the solution space. However, such methods can suffer from noisy solutions and slow convergence. Hybrid approaches aim to combine the fast local convergence properties of gradient-based optimal control with the global exploration capabilities of sampling-based methods.
At AIT diversity and inclusion are of great importance. This is why we strive to inspire women to join our teams in the field of technology. We welcome applications from women, who will be given preference in case of equal qualifications after taking into account all relevant facts and circumstances of all applications.