The evolution of the energy spectrum of cosmic rays accelerated by the first order Fermi mechanism, by a supernova remnant shock wave, including adiabatic deceleration effects behind the front, is carried out by means of a time-dependent numerical code. The calculations apply to the adiabatic stage (or Sedov stage) of the supernova explosion, and the energetic particle spectrum is calculated in the test particle limit (i.e., the back reaction of the cosmic rays on the flow is not included). The particles are injected mono-energetically at the shock. The radial distribution, The radial distribution, and the spectrum of the accelerated and decelerated particles is shown
Abstract Diffusive shock acceleration (Fermi acceleration) of cosmic rays in a system containing two...
Perpendicular shocks are shown to be rapid particle accelerators that perform optimally when the rat...
The shock acceleration mechanism is invoked to explain non-thermal cosmic rays in Supernova Remnants...
We use kinetic simulations of diffusive shock acceleration (DSA) to study the time-dependent evoluti...
Submitted to Cornell University’s online archive www.arXiv.org in 2007 by Protheroe, Raymond John. P...
We investigate the effects of the efficient production of cosmic rays on the evolution of supernova ...
It is now well established that cosmic rays (CRs) are accelerated at collisionless shocks through di...
A plasma simulation model was used to study the resonant interactions between streaming cosmic-ray i...
Nonthermal radiation from supernova remnants (SNRs) provides observational evidence and con-straints...
We simulate time-dependent particle acceleration in the blast wave of a young supernova remnant (SNR...
We have calculated the cosmic ray (CR) acceleration at young remnants from Type Ia supernovae expand...
We have developed a cosmic ray (CR) shock code in one dimensional spherical geometry with which the ...
The processes responsible for the broad-band radiation of the young supernova remnant Cas A are expl...
Received...; accepted... We present numerical models for supernova remnant evolution, using a new ve...
In this thesis we study the acceleration of cosmic-rays, high-energy particles pervading the Univers...
Abstract Diffusive shock acceleration (Fermi acceleration) of cosmic rays in a system containing two...
Perpendicular shocks are shown to be rapid particle accelerators that perform optimally when the rat...
The shock acceleration mechanism is invoked to explain non-thermal cosmic rays in Supernova Remnants...
We use kinetic simulations of diffusive shock acceleration (DSA) to study the time-dependent evoluti...
Submitted to Cornell University’s online archive www.arXiv.org in 2007 by Protheroe, Raymond John. P...
We investigate the effects of the efficient production of cosmic rays on the evolution of supernova ...
It is now well established that cosmic rays (CRs) are accelerated at collisionless shocks through di...
A plasma simulation model was used to study the resonant interactions between streaming cosmic-ray i...
Nonthermal radiation from supernova remnants (SNRs) provides observational evidence and con-straints...
We simulate time-dependent particle acceleration in the blast wave of a young supernova remnant (SNR...
We have calculated the cosmic ray (CR) acceleration at young remnants from Type Ia supernovae expand...
We have developed a cosmic ray (CR) shock code in one dimensional spherical geometry with which the ...
The processes responsible for the broad-band radiation of the young supernova remnant Cas A are expl...
Received...; accepted... We present numerical models for supernova remnant evolution, using a new ve...
In this thesis we study the acceleration of cosmic-rays, high-energy particles pervading the Univers...
Abstract Diffusive shock acceleration (Fermi acceleration) of cosmic rays in a system containing two...
Perpendicular shocks are shown to be rapid particle accelerators that perform optimally when the rat...
The shock acceleration mechanism is invoked to explain non-thermal cosmic rays in Supernova Remnants...