Forschungsbericht 2023

Baustatik B-4

Leitung: Oesterle, Bastian
Oberingenieur: Priebe, Jürgen

Institut auf TORE
Institutswebsite

The Institute for Structural Analysis conducts basic research in the field of computational methods of non-linear structural mechanics. The scientific work is interdisciplinary and primarily methodically oriented. The focus is on the finite element method, innovative design and simulation methods, stability problems, non-linear dynamics and applications of artificial intelligence in structural mechanics. Associated experimental work completes the research profile.

Publikationen

• Evaluation of seismically designed reinforced concrete buildings with respect to progressive collapse resistance : (structural and economical analysis) - Doctoral Thesis
  Damlakhi, Fuad
  Mensch und Buch Verlag 978-3-96729-206-0: (2023)
  
  
• Power efficient active vibration control of single and multi-degree-of-freedom systems via eccentric rotaing masses - Doctoral Thesis
  Terrill, Richard Douglas
  Technische Universität Hamburg (2023)
  
  
• Finite element technology-based selective mass scaling for shear deformable strucural element formulations - Conference Paper
  Oesterle, Bastian; Tkachuk, Anton; Bischoff, Manfred
  9th ECCOMAS Thematic Conference on Computational Methods in Structural Dynamics and Earthquake Engineering (COMPDYN 2023)
  Open Access | Publisher DOI
  
  
• Finite element technology-based selective mass scaling for explicit dynamic analyses of thin-walled structures using solid elements - Conference Paper
  Hoffmann, Moritz; Tkachuk, Anton; Bischoff, Manfred; Oesterle, Bastian
  9th ECCOMAS Thematic Conference on Computational Methods in Structural Dynamics and Earthquake Engineering (COMPDYN 2023)
  Open Access | Publisher DOI
  
  

Projekte

• Dynamische Simulation des Beulens und Knitterns dünner Schalen und Membrane mit glatten Diskretisierungsmethoden
  Deutsche Forschungsgemeinschaft (DFG); Laufzeit 2023-2024
  Projektleitung: Oesterle, Bastian
  
  
• FET-SMS - Auf Finite-Elemente-Technologie basierende selektive Massenskalierung für explizite Dynamik dünnwandiger Strukturen
  Deutsche Forschungsgemeinschaft (DFG); Laufzeit 2023-2025
  Projektleitung: Oesterle, Bastian
  
  
• Effiziente Simulation primärer und sekundärer Instabilitäten in mehrschichtigen Sytemen
  Daimler und Benz Stiftung; Laufzeit 2021-2023
  Projektleitung: Oesterle, Bastian
  
  

Kooperationspartner

• Stanford University
• Karlstad University
• Politechnico di Milano
• Univesidad Polytécnica de Madrid
• Universität Stuttgart