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    Item type:Publication, Access status: with files ,
    Workshop numerical methods in geotechnics: AI in geotechnics, deformation based design, numerical optimization
    (Technische Universität Hamburg, 2026-09-17) ; ; ; ;
    The Workshop “Numerical Methods in Geotechnics”, held on 17–18 September 2026 in Hamburg, Germany, brings together researchers and practitioners to discuss recent developments in computational geotechnics. The workshop focuses on three main topics: artificial intelligence in geotechnics, deformation-based design, and numerical optimization. The contributions presented in these proceedings cover data-driven and AI-assisted modelling, surrogate models, advanced finite element methods, uncertainty quantification, soil–structure interaction, and optimization approaches in geotechnical engineering. Together, they highlight current advances in numerical methods and their growing importance for more predictive, efficient, and reliable geotechnical analysis and design.
    Publicationtype: Conference Proceedings
      127  69
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    Item type:Publication,
    Zur Tragfähigkeit von granularen Lastverteilungsschichten über Stabilisierungssäulen
    Approach to determine ultimate stress mobilization in the Interface of rigid inclusion head and load transfer platform. One field of application for rigid inclusions is the soil improvement for large-area structures such as (fibre-) reinforced slabs of logistics centers and other complexes. To optimise the slab (thickness and reinforcement), a load transfer platform (LTP) is usually installed above the columns. The aim of the LTP is to decouple the rigid inclusions from the structure and to enable a shallow foundation design of the slab. The interaction between columns, LTP and slab must be taken into account, which can cause additional stresses in the LTP and in the slab. In this paper, the approach proposed by french ASIRI recommendation for a granular LTP over rigid inclusions is presented, considering the conventional failure mechanism according to German standard DIN 4017. In a parameter study, influencing variables on the limit state of the LTP be evaluated. In addition, the results of FE calculations on an axisymmetric unit cell with a stiffness reduction of the surrounding soil are used. The FE calculations show that the allowable limit stress increase with a reduction of the LTP thickness, but up to the critical height additional bending moments in the slab must be taken into account. The bending moment increases with a reduction of the LTP thickness.
    Publicationtype: Journal Article
      151
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    Item type:Publication,
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