American Physical Society
APS SitesAPSJournalsPhysicsCentralPhysicsFocus
 
Become a Member | Contact Us
  • Publications
    • Journals of the American Physical Society
    • APS News
    • Physics
    • Physics Today
    • Physical Review Focus
    • Capitol Hill Quarterly
    • Other APS Publications
    • Reciprocal Society Newsletters
  • Meetings & Events
    • March Meeting
    • April Meeting
    • Meeting Calendar
    • Abstract Submission
    • Archives of the Bulletin of the American Physical Society
    • Policies & Guidelines
    • Archived Multimedia Presentations
  • Programs
    • Education
    • International Affairs
    • Physics for All
    • Women in Physics
    • Minorities in Physics
    • Prizes, Awards & Fellowships
  • Membership
    • Join APS
    • Renew Membership
    • Member Directory
    • My Member Profile
    • Member Services
    • APS Units
  • Policy & Advocacy
    • Issues
    • Reports & Studies
    • APS Statements
    • Advocacy Tools
    • Advocacy Resources
    • Fellowships & Fellows
    • Contact APS Public Affairs
  • Careers In Physics
    • Physics Job Opportunities
    • Physics Students
    • Tools for Educators
    • Professional Development
  • About APS
    • History & Vision
    • Society Governance
    • Support APS
    • APS Jobs
    • Contact Us
    • Visit Us
About APS
  • History & Vision
  • Society Governance
  • Support APS
  • APS Jobs
  • Contact Us
  • Visit Us

 
Home   |   About APS   |   Images in Physics   |   Supernova Explosion Simulation

Supernova Explosion Simulation

Email | Print

This 2-dimensional image is a snapshot from a radiation magnetohydrodynamic (RMHD) simulation of a supernova core collapse, bounce, and explosion. When the supernova rotates rapidly, magnetic stress (the colored lines) within the core causes it to explode as a bipolar jet.

In this figure, the magnetic lines of force are colored red.  They denote high-entropy regions near the explosion shock wave. The flux lines (colored blue) reside in the lower-entropy inner core at lower velocities, and some of this material will not be ejected.

Among other things, this simulation research suggests that even when the supernova rotates slightly, or slowly, the resulting supernova explosion may be followed by a weak, but still discernable, MHD jet explosion, but that if core rotation is rapid a prodigiously-energetic asymmetrical jet explosion is likely. The multi-dimensional, multi-group, rapidly rotating RMHD simulations from this research should lead to more realistic simulations revealing additional information about the role, if any, of magnetic fields in supernova collapse.

 

Supernova explosion simulation
Image credit:  Adam Burrows/Princeton University

Support for this work comes from the Scientific Discovery through Advanced Computing (SciDAC) program of the Department of Energy (DOE) under grant number DE-FG02-08ER41544 and from the National Science Foundation (NSF) under grant number AST-0504947

Gray arrow  View all Physics Images

Home | APS Jobs | Media Center | Privacy | Site Map
    © 2009 American Physical Society