activity
20152020
most citedNon-ideal magnetohydrodynamics vs turbulence I: Which is the dominant process in protostellar disc formation?

37 citations · 65 across the 4 of their papers we have counts for

collaborators

5 papers

astro-ph.SR202026 cited

Non-ideal magnetohydrodynamics vs turbulence II: Which is the dominant process in stellar core formation?

James Wurster, Benjamin T. Lewis

Non-ideal magnetohydrodynamics (MHD) is the dominant process. We investigate the effect of magnetic fields (ideal and non-ideal) and turbulence (sub- and transsonic) on the formati…

astro-ph.SR202037 cited

Non-ideal magnetohydrodynamics vs turbulence I: Which is the dominant process in protostellar disc formation?

James Wurster, Benjamin T. Lewis

Non-ideal magnetohydrodynamics (MHD) is the dominant process. We investigate the effect of magnetic fields (ideal and non-ideal) and turbulence (sub- and transsonic) on the formati…

astro-ph.SR2018

Shaken and stirred: the effects of turbulence and rotation on disc and outflow formation during the collapse of magnetised molecular cloud cores

Benjamin T. Lewis, Matthew R. Bate

We present the results of eighteen magnetohydrodynamical calculations of the collapse of a molecular cloud core to form a protostar. Some calculations include radiative transfer in…

astro-ph.IM20161 cited

Smoothed Particle Magnetohydrodynamics: A State of the Union

Benjamin T. Lewis, Matthew R. Bate, Terrence S. Tricco

Obtaining a stable magnetohydrodynamical (MHD) formalism in SPH - i.e. smoothed particle magnetohydrodynamics (SPMHD) - has proven remarkably difficult. To implement MHD requires t…

astro-ph.IM20151 cited

Stable smoothed particle magnetohydrodynamics in very steep density gradients

Benjamin T. Lewis, Matthew R. Bate, Joseph J. Monaghan +1

The equations of smoothed particle magnetohydrodynamics (SPMHD), even with the various corrections to instabilities so far proposed, have been observed to be unstable when a very s…