git-svn-id: svn://svn.icms.temple.edu/lammps-ro/trunk@11144 f3b2605a-c512-4ea7-a41b-209d697bcdaa

This commit is contained in:
sjplimp 2014-01-07 00:56:09 +00:00
parent 4fba6ab25b
commit 8fee0da47e
4 changed files with 38 additions and 28 deletions

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@ -144,14 +144,15 @@ particles is less than the <I>delta</I> setting.
</P>
<P>Once a trial x,y,z position has been selected, the insertion is only
performed if no current atom in the simulation is within a distance R
of any atom in the new particle. Note that the default value for R is
0.0, which will allow atoms to strongly overlap if you are inserting
where other atoms are present. This distance test is performed
independently for each atom in an inserted molecule, based on the
randomly rotated configuration of the molecule. If this test fails, a
new random position within the insertion volume is chosen and another
trial is made. Up to Q attempts are made. If the particle is not
successfully inserted, LAMMPS prints a warning message.
of any atom in the new particle, including the effect of periodic
boundary conditions if applicable. Note that the default value for R
is 0.0, which will allow atoms to strongly overlap if you are
inserting where other atoms are present. This distance test is
performed independently for each atom in an inserted molecule, based
on the randomly rotated configuration of the molecule. If this test
fails, a new random position within the insertion volume is chosen and
another trial is made. Up to Q attempts are made. If the particle is
not successfully inserted, LAMMPS prints a warning message.
</P>
<P>The <I>rate</I> option moves the insertion volume in the z direction (3d)
or y direction (2d). This enables particles to be inserted from a

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@ -132,14 +132,15 @@ particles is less than the {delta} setting.
Once a trial x,y,z position has been selected, the insertion is only
performed if no current atom in the simulation is within a distance R
of any atom in the new particle. Note that the default value for R is
0.0, which will allow atoms to strongly overlap if you are inserting
where other atoms are present. This distance test is performed
independently for each atom in an inserted molecule, based on the
randomly rotated configuration of the molecule. If this test fails, a
new random position within the insertion volume is chosen and another
trial is made. Up to Q attempts are made. If the particle is not
successfully inserted, LAMMPS prints a warning message.
of any atom in the new particle, including the effect of periodic
boundary conditions if applicable. Note that the default value for R
is 0.0, which will allow atoms to strongly overlap if you are
inserting where other atoms are present. This distance test is
performed independently for each atom in an inserted molecule, based
on the randomly rotated configuration of the molecule. If this test
fails, a new random position within the insertion volume is chosen and
another trial is made. Up to Q attempts are made. If the particle is
not successfully inserted, LAMMPS prints a warning message.
The {rate} option moves the insertion volume in the z direction (3d)
or y direction (2d). This enables particles to be inserted from a

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@ -109,12 +109,16 @@ its value.
</P>
<P>Each timestep particles are inserted, they are placed randomly inside
the insertion volume so as to mimic a stream of poured particles. If
they are molecules they are also oriented randomly. The larger the
volume, the more particles that can be inserted at any one timestep.
Particles are inserted again after enough time has elapsed that the
previously inserted particles fall out of the insertion volume under
the influence of gravity. Insertions continue every so many timesteps
until the desired # of particles has been inserted.
they are molecules they are also oriented randomly. Each atom in the
particle is tested for overlaps with existing particles, including
effects due to periodic boundary conditions if applicable. If an
overlap is detected, another random insertion attempt is made; see the
<I>vol</I> keyword discussion below. The larger the volume of the
insertion region, the more particles that can be inserted at any one
timestep. Particles are inserted again after enough time has elapsed
that the previously inserted particles fall out of the insertion
volume under the influence of gravity. Insertions continue every so
many timesteps until the desired # of particles has been inserted.
</P>
<P>All other keywords are optional with defaults as shown below.
</P>

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@ -98,12 +98,16 @@ its value.
Each timestep particles are inserted, they are placed randomly inside
the insertion volume so as to mimic a stream of poured particles. If
they are molecules they are also oriented randomly. The larger the
volume, the more particles that can be inserted at any one timestep.
Particles are inserted again after enough time has elapsed that the
previously inserted particles fall out of the insertion volume under
the influence of gravity. Insertions continue every so many timesteps
until the desired # of particles has been inserted.
they are molecules they are also oriented randomly. Each atom in the
particle is tested for overlaps with existing particles, including
effects due to periodic boundary conditions if applicable. If an
overlap is detected, another random insertion attempt is made; see the
{vol} keyword discussion below. The larger the volume of the
insertion region, the more particles that can be inserted at any one
timestep. Particles are inserted again after enough time has elapsed
that the previously inserted particles fall out of the insertion
volume under the influence of gravity. Insertions continue every so
many timesteps until the desired # of particles has been inserted.
All other keywords are optional with defaults as shown below.