IDEALS Home University of Illinois at Urbana-Champaign logo The Alma Mater The Main Quad

Modeling the thermal expansion boundary layer during the combustion of energetic materials

Show full item record

Bookmark or cite this item: http://hdl.handle.net/2142/250

Files in this item

File Description Format
PDF 959.pdf (668KB) (no description provided) PDF
Title: Modeling the thermal expansion boundary layer during the combustion of energetic materials
Author(s): Kuznetsov, Igor R.; Stewart, D. Scott
Subject(s): combustion compressible flow computational fluid dynamics continuum mechanics detonation and shock physics multiphase flows nonlinear waves numerical methods phase transitions
Abstract: An approach is presented for modeling the thermal expansion boundary layer in energetic materials such as solid propellants and explosives during their combustion. A thermodynamically consistent system of conservation laws is presented that describes the thermo-elastic solid with a temperature dependent thermal expansion coefficient in order to study the role of thermal expansion in heat transfer and deformation in a thin layer adjacent to the combustion zone. It is shown that the thermal expansion can produce an effect that absorbs energy near the burning surface and can significantly reduce the temperature in a small layer. The analysis given here is also relevant to the technologically important problem of laser ablation of materials, but the discussion is focused on application to propellant combustion.
Issue Date: 2000-10
Publisher: Department of Theoretical and Applied Mechanics (UIUC)
Series/Report: TAM Reports 959
Genre: Technical ReportArticle
Type: Text
Language: English
URI: http://hdl.handle.net/2142/250
ISSN: 0073-5264
Publication Status: published or submitted for publication
Peer Reviewed: is peer reviewed
Date Available in IDEALS: 2007-03-08
Is Version Of: Published as: Igor R. Kuznetsov and D. Scott Stewart. Modeling the thermal expansion boundary layer during the combustion of energetic materials. Combustion and Flame, Vol. 126, No. 4, 2001, pp. 1747-1763 (17). DOI: 10.1016/S0010-2180(01)00280-2. Copyright 2001 Elsevier.
 

This item appears in the following Collection(s)

  • Theoretical and Applied Mechanics (TAM) Technical Reports
    TAM technical reports include manuscripts intended for publication, theses judged to have general interest, notes prepared for short courses, symposia compiled from outstanding undergraduate projects, and reports prepared for research-sponsoring agencies.

Show full item record

Item Statistics

  • Total Downloads: 478
  • Downloads this Month: 1
  • Downloads Today: 0

Browse

My Account

Information

Access Key