Logo RUB
  • Institute
    • ICAMS
      • Mission
      • Structure
      • Members
      • Fellows
    • Departments & Research Groups
      • Atomistic Modelling and Simulation
      • Scale-Bridging Thermodynamic and Kinetic Simulation
      • Micromechanical and Macroscopic Modelling
      • Artificial Intelligence for Integrated Material Science
      • Computational Design of Functional Interfaces
      • Scale-Bridging Simulation of Functional Composites
      • Materials Informatics and Data Science
      • High-Performance Computing in Materials Science
    • Central Services
      • Coordination Office
      • IT
  • Research
    • Overview
    • Publications
    • Software and Data
    • Collaborative research
    • Research networks
    • Young enterprises
  • Teaching
    • Overview
    • Materialwissenschaft B.Sc.
    • Materials Science and Simulation M.Sc.
    • ICAMS Graduate School
    • Student Projects
  • News & Events
    • Overview
    • News
    • Seminars and Workshops
    • Conferences
  • Services
    • Overview
    • Contact
    • Open positions
    • Travel information
 
ICAMS
ICAMS
MENÜ
  • RUB-STARTSEITE
  • Institute
    • ICAMS
    • Departments & Research Groups
    • Central Services
  • Research
    • Overview
    • Publications
    • Software and Data
    • Collaborative research
    • Research networks
    • Young enterprises
  • Teaching
    • Overview
    • Materialwissenschaft B.Sc.
    • Materials Science and Simulation M.Sc.
    • ICAMS Graduate School
    • Student Projects
  • News & Events
    • Overview
    • News
    • Seminars and Workshops
    • Conferences
  • Services
    • Overview
    • Contact
    • Open positions
    • Travel information

Just another WordPress site - Ruhr-Universität Bochum

A study on the principle of maximum dissipation for coupled and non-coupled non-isothermal processes in materials

K. Hackl, F.D. Fischer, J. Svoboda

Proceedings of the Royal Society A: Mathematical, Physical and Engineering Sciences, 467, 1186-1196, (2011)

DOI: 10.1098/rspa.2010.0179

Download: BibTEX

Onsager's principle of maximum dissipation (PMD) has proven to be an efficient tool to derive evolution equations for the internal variables describing non-equilibrium processes. However, a rigorous treatment of PMD for several simultaneously acting dissipative processes is still open and presented in this paper. The coupling or uncoupling of the processes is demonstrated via the mathematical structure of the dissipation function. Examples are worked out for plastic deformation and heat flux.

back
{"type":"article", "name":"k.hackl20114", "author":"K. Hackl and F.D. Fischer and J. Svoboda", "title":"A study on the principle of maximum dissipation for coupled and noncoupled nonisothermal processes in materials", "journal":"Proceedings of the Royal Society A: Mathematical, Physical and Engineering Sciences", "volume":"467", "OPTnumber":"2128", "OPTmonth":"4", "year":"2011", "OPTpages":"1186-1196", "OPTnote":"", "OPTkey":"functions; heat flux; maximum principle; coupled process; dissipation; dissipation functions; dissipative process; evolution equations; internal variables; mathematical structure; non-equilibrium process; non-isothermal process; onsager; principle of maxi", "DOI":"10.1098/rspa.2010.0179"}
Logo RUB
  • Open positions
  • Travel information
  • Imprint
  • Privacy Policy
  • Sitemap
Ruhr-Universität Bochum
Universitätsstraße 150
44801 Bochum

  • Open positions
  • Travel information
  • Imprint
  • Privacy Policy
  • Sitemap
Seitenanfang Kontrast N