Shopping cart ITEMS
 modern scholarly publishers in the finest tradition
Login Register
Home
Books
Journals
References
A-Z Index
Author Index
For Our Authors
User Area
Shopping Cart
Contact
Electronic Data Center

Heat Transfer Research

 

ISSN for PRINT: 1064-2285

Institutional price:

$2485.00

Issues per year:

8

For Online Access

Best Paper Award Selection - Editorial Board Site

Add subscription to shopping cart

2008, Volume39

Issue 3

  92 pages  

DOI: 10.1615/HeatTransRes.v39.i3   

click 'Save as...' here to save XML metadata

Issue price - $372.00  

Add to shopping cart

  • Modeling and Simulation of Solid Propellant Particle Path in the Combustion Chamber of a Solid Rocket Motor
  • R. S. Amano
    Department of Mechanical Engineering, University of Wisconsin-Milwaukee, Milwaukee, Wisconsin, USA

    YuMin Xiao
    ESI-CFD, Huntsville, AL 35803, Al, USA


    ABSTRACT

    In a solid rocket motor (SRM) using aluminized composite solid propellant and a submerged nozzle, a two-phase flow needs to be investigated by both experiment and computation. The boundary conditions for the ejecting particles constrain their trajectories, hence these affect the two-phase flow calculations, and thus significantly affect the evaluation of the slag accumulation. A new method to determine the velocities of particles on the solid propellant surface was developed in the present study, which is based on the RTR (X-ray Realtime Radiography) technique and coupled with the two-phase flow numerical simulation. A method was developed to simulate the particle ejection from the propellant surface. The moving trajectories of metal particles in a firing combustion chamber were measured by using the RTR high-speed motion analyzer. Image processing software was also developed for the RTR images, so the trajectories of particles could be obtained. Numerical simulations with different propellant-surface boundary conditions were performed to calculate particle trajectories. By comparing the two trajectories, an appropriate boundary condition on the propellant surface was referred. The present method can be extended to study the impingement of particles on a wall and other related two-phase flows.

    DOI: 10.1615/HeatTransRes.v39.i3.30

    Download article, 211-228 pages

    Article price - $55.00  

    Add to shopping cart

    << Previous article   Next article >>

    Designed by offsiteteam Designed by offsiteteam Designed by offsiteteam
    Begell House Inc.
    50 Cross Highway,
    Redding, CT 06896
    TEL (203) 938 1300
    FAX (203) 938 1304
    orders@begellhouse.com