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      • C1: Constitutive friction law for the description and optimization of tailored surfaces
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      • A coupled MD-FE simulation method accounting for interphases in nanoparticle filled thermoplastics.
      • Modelling and simulation of nonlinear electro-thermo-visco-elastic EAPs(Electronic Electro-Active Polymers)
      • Modeling and computation of growth in soft biological matter
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      • Novel Biopolymer Hydrogels for Understanding Complex Soft Tissue Biomechanics
      • A coupled MD-FE simulation method accounting for interphases in nanoparticle filled thermoplastics.
      • Teilprojekt P5 – Compressive Failure in Porous Materials
      • Modelling and simulation of nonlinear electro-thermo-visco-elastic EAPs(Electronic Electro-Active Polymers)
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      • A hybrid Sampling-Stochastic-Finite-Element-Method for polymorphic, microstructural uncertainties in heterogeneous materials
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      • BRAIn mechaNIcs ACross Scales: Linking microstructure, mechanics and pathology
      • BRAIn mechaNIcs ACross Scales: Linking microstructure, mechanics and pathology
      • Teilprojekt P6 – Fracture in Thermoplastics: Discrete-to-Continuum
      • Teilprojekt P10 – Configurational Fracture/Surface Mechanics
      • Teilprojekt P11 – Fracture Control by Material Optimization
      • Teilprojekt P8 – Fracture in Polymer Composites: Meso to Macro
      • Novel Biopolymer Hydrogels for Understanding Complex Soft Tissue Biomechanics
      • Novel Biopolymer Hydrogels for Understanding Complex Soft Tissue Biomechanics
      • BRAIn mechaNIcs ACross Scales: Linking microstructure, mechanics and pathology
      • Teilprojekt P6 – Fracture in Thermoplastics: Discrete-to-Continuum
      • Teilprojekt P5 – Compressive Failure in Porous Materials
      • Multi-scale, Multi-physics Modelling and Computation of magneto-sensitive POLYmeric materials
      • Multi-scale modeling of nano-structured polymeric materials: from chemistry to materials performance
      • Identifikation von Interphaseneigenschaften in Nanokompositen
      • Novel Biopolymer Hydrogels for Understanding Complex Soft Tissue Biomechanics
      • Mesoscopic modelling and simulation of properties of additively manufactured metallic parts (C5)
      • Teilprojekt P5 – Compressive Failure in Porous Materials
      • Discrete and Continuous Methods for Modelling and Simulation of Polymeric Materials
      • Multi-scale, Multi-physics Modelling and Computation of magneto-sensitive POLYmeric materials
      • Multiscale modeling of nervous tissue: comprehensively linking microstructure, pathology, and mechanics
      • Multiscale modeling of nervous tissue: comprehensively linking microstructure, pathology, and mechanics
      • Multi-scale modeling of nano-structured polymeric materials: from chemistry to materials performance
      • Fractures across Scales: Integrating Mechanics, Materials Science, Mathematics, Chemistry, and Physics/ Skalenübergreifende Bruchvorgänge: Integration von Mechanik, Materialwissenschaften, Mathematik, Chemie und Physik
      • Identifikation von Interphaseneigenschaften in Nanokompositen
      • Bridging scales – from Quantum Mechanics to Continuum Mechanics. A Finite Element approach.
      • Teilprojekt P12 – Postdoctoral Project: Quantum-to-Continuum Model of Thermoset Fracture
      • Mikroskalige Charakterisierungsmethoden zur Kalibrierung von Stoffgesetzen für Biomaterialien und Kunststoffe
      • Multiscale modeling of nervous tissue: comprehensively linking microstructure, pathology, and mechanics
      • Fractures across Scales: Integrating Mechanics, Materials Science, Mathematics, Chemistry, and Physics/ Skalenübergreifende Bruchvorgänge: Integration von Mechanik, Materialwissenschaften, Mathematik, Chemie und Physik
      • Bridging scales – from Quantum Mechanics to Continuum Mechanics. A Finite Element approach.
      • Teilprojekt P12 – Postdoctoral Project: Quantum-to-Continuum Model of Thermoset Fracture
      • Mikroskalige Charakterisierungsmethoden zur Kalibrierung von Stoffgesetzen für Biomaterialien und Kunststoffe
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      • Reduced order modelling of non-linear gyroscopic systems in ALE formulation with frictional contact
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      • Teilprojekt P11 – Fracture Control by Material Optimization
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      • Teilprojekt P8 – Fracture in Polymer Composites: Meso to Macro
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      • Discrete and Continuous Methods for Modelling and Simulation of Polymeric Materials
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  5. TR 73, TP C1: Constitutive friction law for the description and optimization of tailored surfaces

TR 73, TP C1: Constitutive friction law for the description and optimization of tailored surfaces

In page navigation: Institute of Applied Mechanics
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    • Biomechanics
    • Contact mechanics
      • TR 73, TP C1: Constitutive friction law for the description and optimization of tailored surfaces
      • A coupled MD-FE simulation method accounting for interphases in nanoparticle filled thermoplastics.
      • Reduced order modelling of non-linear gyroscopic systems in ALE formulation with frictional contact
      • Material modelling of sheet-layered lamination stacks
    • Material Mechanics
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TR 73, TP C1: Constitutive friction law for the description and optimization of tailored surfaces

Constitutive friction law for the description and optimization of tailored surfaces

(Third Party Funds Group – Sub project)

Overall project: TRR 73: Umformtechnische Herstellung von komplexen Funktionsbauteilen mit Nebenformelementen aus Feinblechen - Blechmassivumformung
Project leader: Ulf Engel, Kai Willner, Marion Merklein
Project members: Florian Beyer, Maria Löffler, Ulrich Vierzigmann, Franz Hauer, Johannes Henneberg
Start date: 1. January 2009
End date: 31. December 2020
Acronym:
Funding source: DFG / Sonderforschungsbereich / Transregio (SFB / TRR)
URL: https://www.tr-73.de/

Abstract

A central challenge in sheet-bulk metal forming is a partially uncontrolled material flow. This worsens the achievable geometrical accuracy of the parts. In this context, the objective of the project is to control the material flow by local adjustments of the friction by modifying the workpiece or tool surface. Hereby, the die filling of the functional elements is improved. Especially tool-sided modifications have a high potential, since they do not extend the process chain. However, for an efficient application, they must offer a high wear resistance, which is why the functional relationships between wear-induced changes in the tool topography and friction are being researched.

Publications

  • Henneberg J., Beyer F., Löffler M., Willner K., Merklein M.:
    Constitutive Friction Law for the Description and Optimization of Tailored Surfaces
    In: Merklein, M. Tekkaya, A. E. Behrens, B.-A. (ed.): Sheet Bulk Metal Forming, Cham: Springer Nature Switzerland, 2021, p. 307 - 333 (Lecture Notes inProduction Engineering)
    ISBN: 978-3-030-61901-5

    DOI: 10.1007/978-3-030-61902-2_14
  • Henneberg J., Beyer F., Willner K., Merklein M.:
    Konstitutives Reibgesetz zur Beschreibung und Optimierung von Tailored Surfaces
    23. Umformtechnisches Kolloquium Hannover: Aktuelle Entwicklungen im Bereich der Umformtechnik (Hannover)
  • Henneberg J., Merklein M.:
    Investigation on extrusion processes in sheet-bulk metal forming from coil
    In: CIRP Journal of Manufacturing Science and Technology (2020)
    ISSN: 1755-5817
    DOI: 10.1016/j.cirpj.2020.08.007
  • Pilz F., Henneberg J., Merklein M.:
    Extension of the forming limits of extrusion processes in sheet-bulk metal forming for production of minute functional elements
    In: Manufacturing Review 7 (2020), Article No.: 9
    ISSN: 2265-4224
    DOI: 10.1051/mfreview/2020003
  • Henneberg J., Merklein M.:
    Measures for controlling the material flow when extruding sheet-bulk metal forming parts from coil
    In: Manufacturing Review 7 (2020)
    ISSN: 2265-4224
    DOI: 10.1051/mfreview/2020033

Institute of Applied Mechanics
Friedrich-Alexander-Universität Erlangen-Nürnberg

Egerlandstrasse 5
91058 Erlangen
Germany
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