The Sgen rate maximization postulate: Applications to process-path analysis for solidification and micropyretic synthesis

Y. D. Bensah, H. P. Li, J. A. Sekhar

Research output: Contribution to journalArticlepeer-review

6 Citations (Scopus)

Abstract

The principle of maximum entropy generation rate principle is reviewed for its applicability in Materials Science. The principle of MEPR states that, if there are sufficient degrees of freedom within a system, it will adopt a stable state at which the entropy generation (production) rate is maximized. Where feasible, the system will also try and adopt a steady state. MEPR determines the most probable state. MEPR thus allows for pathway selections that can occur in an open thermodynamic system. Recent work also shows that isolated systems and closed thermodynamic systems also display this principle. The Belousov-Zhabitonsky reaction is also described in the Sgen context. Both solidification morphologies and micropyretic process generated morphologies are studied as examples of the Sgen and MEPR.

Original languageEnglish
Pages (from-to)79-86
Number of pages8
JournalKey Engineering Materials
Volume521
DOIs
Publication statusPublished - 2012

Keywords

  • Entropy Generation
  • MEPR
  • Micropyretic Synthesis
  • Solidification

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