Run the analysis from the command line:
$ pan -b DEDComp_thermal
After the analysis completes, the last few lines of the output file DEDComp thermal.out should be similar to the following:
Increment end CPU wall for increment 1115 = 00:00:00.03, since start = 00:02:53.95 Layer end Finished writing file . DEDComp thermal.case Analysis completed **************************** 1 Warning **************************** CPU wall = 00:02:54.01 CPU total = 01:16:45.82 Peak RAM used for this process = 119,280 kB END Autodesk Netfabb Local Simulation

Figure 1: DED compensation example geometry
Run the analysis from the command line:
$ pan -b DEDCOMP_mechanical
After the analysis completes, the last few lines of the output file DEDComp mechanical.out should be similar to the following:
Increment end CPU wall for increment 1166 = 00:00:00.17, since start = 00:05:33.47 inc = 1167 time = 3897.0000 iter = 1 eps = 0.10971E-10 Finished writing file results . DEDComp mechanical 1167.case Increment end CPU wall for increment 1167 = 00:00:00.16, since start = 00:05:33.63 Layer end ---------------------- *COOL time increment ---------------------- HTOR is being set to zero*** inc = 1168 time = 3947.0000 iter = 1 eps = 0.12895E+03 inc = 1168 time = 3947.0000 iter = 2 eps = 0.10316E+03 inc = 1168 time = 3947.0000 iter = 3 eps = 0.11167E-10 Finished writing file results DEDComp mechanical 1168.case Increment end CPU wall for increment 1168 = 00:00:00.35, since start = 00:05:33.98 Layer end ------------------------------------------------------ Total number of equilibrium iterations: 3910 Finished writing file . DEDComp mechanical.case Analysis completed **************************** 1 Warning **************************** CPU wall for cooldown = 00:00:00.77 CPU wall = 00:05:34.40 CPU total = 02:29:52.57 Peak RAM used for this process = 215,556 kB END Autodesk Netfabb Local Simulation

Figure 2: DED compensation example path

Figure 3: DED compensation example mesh