Institute for Ship Structural Design and Analysis (M-10)
Institute for Ship Structural Design and Analysis (M-10)
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Fatigue and Fracture Mechanics
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LESSMAT – Lightweight system for passenger trains and cruise ships with improved material utilization and more efficient production procedures
ICESHAPE - Investigation of critical ice floe and iceberg shapes for full-scale ship-ice collision simulations
Identification of continuum mechanical material parameters of granules by means of particle methods
HealthProp – Life Prediction and Health Monitoring of Marine Propulsion System under Ice Impact
Optimization of the mechanical properties of particle systems to improve kinetic energy absorption
WeSKAL – Improved fatigue strength assessment of welded maritime load-bearing structures through scalable fatigue tests
Modelling and simulation of cables with high-order finite elements
Systematic approaches for the optimal corrosion protection of coating systems on particularly stressed maritime structures (SKALa)
Optimization Strategies for Fluid-Structure Interaction in Maritime Applications
Numerical modelling of partially cemented soils on the stagnation zone
Numerical analysis of hybrid foams undergoing large deformations utilizing the finite cell method
A remeshing approach for the finite cell method applied to problems with large deformations
Development of a combined FEM-FCM formulation for nonlinear analysis of thin-walled structures
Extension of fictitious domain methods for vibroacoustic problems – Analysis of heterogeneous, foamed damping material
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Development of a combined FEM-FCM formulation for nonlinear analysis of thin-walled structures
Development of a combined FEM-FCM formulation for nonlinear analysis of thin-walled structures
Project members:
Mohammad Amin Shahmohammadi
,
Prof. Alexander Düster
Funding party
:
Alexander von Humboldt Foundation
Duration
:
Project outline:
References: