Fix more typos in examples

lmp_linux_double

The precision (single, mixed, double) refers to the GPU and USER-CUDA

pacakge precision.  See the README files in the lib/gpu and lib/cuda

package precision.  See the README files in the lib/gpu and lib/cuda

directories for instructions on how to build the packages with

different precisions.  The GPU and USER-CUDA sub-sections of the

doc/Section_accelerate.html file also describes this process.

pour:     pouring of granular particles into a 3d box, then chute flow

prd:      parallel replica dynamics of vacancy diffusion in bulk Si

python:   use of PYTHON package to invoke Python code from input script

qeq:      use of QEQ pacakge for charge equilibration

qeq:      use of QEQ package for charge equilibration

reax:     RDX and TATB models using the ReaxFF

rigid:    rigid bodies modeled as independent or coupled

shear:    sideways shear applied to 2d solid, with and without a void

    in.bar1d_ghost_flux - Quasi-1D elastic wave propagation with coupling using boundary stresses from ghost atoms

    in.bar1d_thermo_elastic - Quasi-1D finite temperature elastic wave propagation

    in.cnt_electrostatic - Mechanical response of CNT with fixed charge density in an electric field

    in.cnt_electrostatic2 - Mechanical reponse of CNT with self-consistent charge density and electric field

    in.cnt_electrostatic2 - Mechanical response of CNT with self-consistent charge density and electric field

    in.cnt_fixed_charge - Mechancial response of CNT with fixed atomic charges in an electric field

    in.eam_energy - Quasi-static/quasi-1D coupling and transfer extraction of energy density for EAM gold

    in.electron_density - Mechanical response of differnt CNT models with a self-consistent electron density and electric field

    in.bar1d_ghost_flux - Quasi-1D elastic wave propagation with coupling using boundary stresses from ghost atoms

    in.bar1d_thermo_elastic - Quasi-1D finite temperature elastic wave propagation

    in.cnt_electrostatic - Mechanical response of CNT with fixed charge density in an electric field

    in.cnt_electrostatic2 - Mechanical reponse of CNT with self-consistent charge density and electric field

    in.cnt_electrostatic2 - Mechanical response of CNT with self-consistent charge density and electric field

    in.cnt_fixed_charge - Mechancial response of CNT with fixed atomic charges in an electric field

    in.eam_energy - Quasi-static/quasi-1D coupling and transfer extraction of energy density for EAM gold

    in.electron_density - Mechanical response of differnt CNT models with a self-consistent electron density and electric field

#AtC Thermal Coupling

# This benchmark tests heat conducting into and out of the MD region.  The

# temperature is intially 20 everywhere and the left boundary BC is fixed at

# temperature is initially 20 everywhere and the left boundary BC is fixed at

# 40.# The result should show heat diffusing through the FEM to the MD and back

# out # to the FEM on the right.  Insufficient time is captured to reach the

# linear # steady state, but heat crossing both boundaries should be observed.

#AtC Thermal Coupling

# This benchmark tests heat conducting into and out of the MD region.  The

# temperature is intially 20 everywhere and the left boundary BC is fixed at 40.

# temperature is initially 20 everywhere and the left boundary BC is fixed at 40.

# The result should show heat diffusing through the FEM to the MD and back out 

# to the FEM on the right.  Insufficient time is captured to reach the linear 

# steady state, but heat crossing both boundaries should be observed.