The verlet/style style is also a velocity-Verlet integrator, but it +
The verlet/split style is also a velocity-Verlet integrator, but it splits the force calculation within each timestep over 2 partitions of processors. See this section for an explanation of the -partition command-line switch. @@ -111,7 +111,7 @@ of 60 and 15 processors each:
partition yes 1 processors 3 4 5 partition yes 2 processors 3 1 5-
When you run in 2-partition mode with this verlet/split style, the +
When you run in 2-partition mode with the verlet/split style, the thermodyanmic data for the entire simulation will be output to the log and screen file of the 1st partition, which are log.lammps.0 and screen.0 by default; see the "-plog and -pscreen command-line diff --git a/doc/run_style.txt b/doc/run_style.txt index d797f080ca..0fe1bb970f 100644 --- a/doc/run_style.txt +++ b/doc/run_style.txt @@ -62,7 +62,7 @@ The {verlet} style is a velocity-Verlet integrator. :line -The {verlet/style} style is also a velocity-Verlet integrator, but it +The {verlet/split} style is also a velocity-Verlet integrator, but it splits the force calculation within each timestep over 2 partitions of processors. See "this section"_Section_start.html#start_6 for an explanation of the -partition command-line switch. @@ -106,7 +106,7 @@ of 60 and 15 processors each: partition yes 1 processors 3 4 5 partition yes 2 processors 3 1 5 :pre -When you run in 2-partition mode with this {verlet/split} style, the +When you run in 2-partition mode with the {verlet/split} style, the thermodyanmic data for the entire simulation will be output to the log and screen file of the 1st partition, which are log.lammps.0 and screen.0 by default; see the "-plog and -pscreen command-line