Simulation Chain: From the Material Behavior to the Thermo-Mechanical Long-Term Response of Asphalt Pavements and the Alteration of Functional Properties (Surface Drainage)
Research output: Contribution to book/conference proceedings/anthology/report › Chapter in book/anthology/report › Contributed › peer-review
Contributors
Abstract
In this chapter, a simulation chain is described and applied to an asphalt test track and a highway pavement structure. The simulation chain consists of different modules reaching from the experimental identification of the asphalt material, its numerical modeling on the material scale via adequate models to finally the structural scale of the pavement and the vehicle-tire system, which is numerically assessed in the framework of a coupled vehicle-tire-pavement system. Relative dynamic effects of vehicle-tire-pavement interaction have been investigated based on a multibody analysis of the vehicle driving on a rough pavement surface (external stimulus). For the pavement simulation, equivalent tire loads are used in an arbitrary Lagrangian Eulerian framework for tire and pavement. Finally, the rut formation is computed by varying different influence factors (climate temperature, vertical tire force, type of asphalt material of the surface layers etc.). With the help of the simulated deformed pavement geometry (whole service life), surface drainage characteristics are finally analyzed and assessed via a surface drainage module, e.g. to compute and predict the alteration of the pavement runoff during the service life of the pavement.
Details
Original language | English |
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Title of host publication | System Pavement – Tire – Vehicle: A Holistic Computational Approach |
Pages | 267-289 |
Number of pages | 23 |
Publication status | Published - 3 Jul 2021 |
Peer-reviewed | Yes |
Publication series
Series | Coupled System Pavement - Tire - Vehicle |
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Volume | 96 |
ISSN | 1613-7736 |
External IDs
Scopus | 85109931229 |
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Keywords
Sustainable Development Goals
ASJC Scopus subject areas
Keywords
- FEM simulation, Rutting, Surface drainage, Vehicle-tire-pavement interaction