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Univ.-Prof. Dr.-Ing. habil. Lena Zentner
Head of Group
Email: lena.zentner@tu-ilmenau.de
Tel: +49 3677 69-1779
Technische Universität Ilmenau
Fakultät für Maschinenbau
Fachgebiet Mechanik Nachgiebiger Systeme
Univ.-Prof. Dr.-Ing. habil. L. Zentner
Max-Planck-Ring 12
Werner-Bischoff-Bau Raum 2260
98693 Ilmenau
Technische Universität Ilmenau
Fakultät für Maschinenbau
Fachgebiet Mechanik Nachgiebiger Systeme
Univ.-Prof. Dr.-Ing. habil. L. Zentner
Postfach 10 05 65
98684 Ilmenau
The transmission and motion behavior of compliant systems is achieved by the specific elastic deformation of its adhesively joined coupled elements. In addition to a very precise motion a wide range of deformation behavior and the application of intrinsic sensor and actuator technologies are possible with compliant systems.
Modeling, simulation and optimizing for specified criteria, like adjusting a certain range of movement or achieving a proper state of stress
Synthesis of compliant systems according to given criteria by means of various methods, including AI-based synthesis
Purposeful adjustment of special properties (e.g. snap through) obtaining extensive force characteristics and paths of motion
Development and analysis of highly elastic structures with intrinsic sensor and actuator functions as well as a special mechanical performance
Research of newly-developed principles of transmission of motion and positioning according to biological models as well as their technical implementation
A wide range of technical issues can be investigated with multi-body dynamics. These include questions from machine dynamics and investigations of the dynamics of mechatronic systems. Our focus is on:
A large number of measuring devices are available in the department to investigate the dynamic behaviour of technical systems.
Mechanisms are constrained systems of bodies designed to transmit and to convert motions and forces. More complex and small-scale systems as well as more and more challenging tasks lead to increasing demands on the mechanisms. In this case model-based development is essential for which analytical and computer based methods are used.
Model-based analysis of motion behaviour and mechanical stress (finite element analysis) for complex mechanisms
Synthesis for predetermined motion behaviour and transmission functions
Optimization concerning the dynamical behaviour as well as resulting stress of particular linkages
Optimization of the vibration characteristics
Magnetic elastic materials and fluids can significantly change material properties in a controlled manner under magnetic field stimulation. These smart materials provide solutions for many application systems, including magnetic field-actuated mobile robots and sensors with an adjustable operation range. Realization of our systems is carried out focusing on: