Axisymmetric rotor#

This notebook demonstrates the process of running a Workbench service on a local machine to solve both 2D general axisymmetric rotor and 3D rotor models using PyMechanical. It includes steps for uploading project files, executing scripts, downloading results, and displaying output images.

[1]:
import os
import pathlib
[2]:
from ansys.workbench.core import launch_workbench
from ansys.mechanical.core import connect_to_mechanical

Launch the Workbench service on the local machine using specific options. Define the working directory and subdirectories for assets, scripts, and geometry databases (agdb). The launch_workbench function starts a Workbench session with the specified directory.

[3]:
workdir = pathlib.Path("__file__").parent
[4]:
assets = workdir / "assets"
scripts = workdir / "scripts"
[5]:
wb = launch_workbench(client_workdir=str(workdir.absolute()))

Upload the project files to the server using the upload_file_from_example_repo method. The files uploaded are axisymmetric_model.agdb, rotor_3d_model.agdb.

[6]:
wb.upload_file_from_example_repo("axisymmetric-rotor/agdb/axisymmetric_model.agdb")
wb.upload_file_from_example_repo("axisymmetric-rotor/agdb/rotor_3d_model.agdb")
Uploading axisymmetric_model.agdb: 100%|██████████| 2.52M/2.52M [00:00<00:00, 70.3MB/s]
Uploading rotor_3d_model.agdb: 100%|██████████| 2.52M/2.52M [00:00<00:00, 84.6MB/s]

Execute a Workbench script (project.wbjn) to define the project and load the geometry. The log file is set to wb_log_file.log and the name of the system created is stored in sys_name and printed.

[7]:
export_path = 'wb_log_file.log'
wb.set_log_file(export_path)
sys_name = wb.run_script_file(str((assets / "project.wbjn").absolute()), log_level='info')
print(sys_name)
['SYS', 'SYS 4']

Start a PyMechanical server for the system and create a PyMechanical client session to solve the 2D general axisymmetric rotor model. The project directory is printed to verify the connection.

[8]:
server_port = wb.start_mechanical_server(system_name=sys_name[1])
[9]:
mechanical = connect_to_mechanical(ip='localhost', port=server_port)
[10]:
print(mechanical.project_directory)
C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\wbnew_files\

Read and execute the script axisymmetric_rotor.py via the PyMechanical client to mesh and solve the 2D general axisymmetric rotor model. The output of the script is printed.

[11]:
with open(scripts / "axisymmetric_rotor.py") as sf:
    mech_script = sf.read()
mech_output = mechanical.run_python_script(mech_script)
print(mech_output)
{"Total Deformation": "0.79262294403210676 [mm]", "Total Deformation 2": "0.93934788182426 [mm]"}

Specify the Mechanical directory for the Modal Campbell Analysis and fetch the working directory path. Download the solver output file (solve.out) from the server to the client’s current working directory and print its contents.

[12]:
mechanical.run_python_script(f"solve_dir=ExtAPI.DataModel.AnalysisList[2].WorkingDir")
result_solve_dir_server = mechanical.run_python_script(f"solve_dir")
print(f"All solver files are stored on the server at: {result_solve_dir_server}")
All solver files are stored on the server at: C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\wbnew_files\dp0\SYS-6\MECH\
[13]:
solve_out_path = os.path.join(result_solve_dir_server, "solve.out")
[14]:
def write_file_contents_to_console(path):
    """Write file contents to console."""
    with open(path, "rt") as file:
        for line in file:
            print(line, end="")
[15]:
current_working_directory = os.getcwd()
mechanical.download(solve_out_path, target_dir=current_working_directory)
solve_out_local_path = os.path.join(current_working_directory, "solve.out")
write_file_contents_to_console(solve_out_local_path)
os.remove(solve_out_local_path)
Downloading dns:///127.0.0.1:54649:C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\wbnew_files\dp0\SYS-6\MECH\solve.out to C:\Users\ansys\actions-runner\_work\pyworkbench-examples\pyworkbench-examples\pyworkbench-examples\doc\source\examples\axisymmetric-rotor\solve.out: 100%|██████████| 80.0k/80.0k [00:00<?, ?B/s]

 Ansys Mechanical Enterprise


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          *****  MAPDL COMMAND LINE ARGUMENTS  *****
  BATCH MODE REQUESTED (-b)    = NOLIST
  INPUT FILE COPY MODE (-c)    = COPY
  DISTRIBUTED MEMORY PARALLEL REQUESTED
       4 PARALLEL PROCESSES REQUESTED WITH SINGLE THREAD PER PROCESS
    TOTAL OF     4 CORES REQUESTED
  INPUT FILE NAME              = C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr81BD\dummy.dat
  OUTPUT FILE NAME             = C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr81BD\solve.out
  START-UP FILE MODE           = NOREAD
  STOP FILE MODE               = NOREAD

 RELEASE= 2024 R2              BUILD= 24.2      UP20240603   VERSION=WINDOWS x64
 CURRENT JOBNAME=file0  17:42:44  JAN 08, 2025 CP=      0.094


 PARAMETER _DS_PROGRESS =     999.0000000

 /INPUT FILE= ds.dat  LINE=       0



 *** NOTE ***                            CP =       0.344   TIME= 17:42:45
 The /CONFIG,NOELDB command is not valid in a distributed memory
 parallel solution.  Command is ignored.

 *GET  _WALLSTRT  FROM  ACTI  ITEM=TIME WALL  VALUE=  17.7125000

 TITLE=
 wbnew--Modal Campbell

  ACT Extensions:
      LSDYNA, 2024.2
      5f463412-bd3e-484b-87e7-cbc0a665e474, wbex
 /COM,     ANSYSMotion, 2024.2
      20180725-3f81-49eb-9f31-41364844c769, wbex


 SET PARAMETER DIMENSIONS ON  _WB_PROJECTSCRATCH_DIR
  TYPE=STRI  DIMENSIONS=      248        1        1

 PARAMETER _WB_PROJECTSCRATCH_DIR(1) = C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr81BD\

 SET PARAMETER DIMENSIONS ON  _WB_SOLVERFILES_DIR
  TYPE=STRI  DIMENSIONS=      248        1        1

 PARAMETER _WB_SOLVERFILES_DIR(1) = C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\wbnew_files\dp0\SYS-6\MECH\

 SET PARAMETER DIMENSIONS ON  _WB_USERFILES_DIR
  TYPE=STRI  DIMENSIONS=      248        1        1

 PARAMETER _WB_USERFILES_DIR(1) = C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\wbnew_files\user_files\
 --- Data in consistent NMM units. See Solving Units in the help system for more

 MPA UNITS SPECIFIED FOR INTERNAL
  LENGTH      = MILLIMETERS (mm)
  MASS        = TONNE (Mg)
  TIME        = SECONDS (sec)
  TEMPERATURE = CELSIUS (C)
  TOFFSET     = 273.0
  FORCE       = NEWTON (N)
  HEAT        = MILLIJOULES (mJ)

 INPUT  UNITS ARE ALSO SET TO MPA

 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:42:45  JAN 08, 2025 CP=      0.359

 wbnew--Modal Campbell



          ***** MAPDL ANALYSIS DEFINITION (PREP7) *****
 *********** Nodes for the whole assembly ***********
 *********** Nodes for all Remote Points ***********
 *********** Elements for Body 1 'Surface Body1' ***********
 *********** Elements for Body 2 'Surface Body2' ***********
 *********** Elements for Body 3 'Surface Body3' ***********
 *********** Elements for Body 4 'Surface Body4' ***********
 *********** Send User Defined Coordinate System(s) ***********
 *********** Set Reference Temperature ***********
 *********** Send Materials ***********
 *********** Send Sheet Properties ***********
 *********** Send General Axisymmetric Properties "General Axisymmetric" *******
 *********** Send Named Selection as Node Component ***********
 *********** Send Named Selection as Node Component ***********
 *********** Send Named Selection as Node Component ***********
 *********** Send Named Selection as Node Component ***********
 *********** Send Named Selection as Element Component ***********
 *********** Send Named Selection as Node Component ***********
 *********** Create Remote Point "PointMass_RemotePoint" ***********
 *********** Create Remote Point "RemotePoint_Bearing1" ***********
 *********** Create Remote Point "RemotePoint_Bearing2" ***********
 *********** Create Remote Point "RemotePoint_FreeStanding1" ***********
 *********** Create Remote Point "RemotePoint_FreeStanding2" ***********
 *********** Create Remote Point "PointMass_RemotePoint2" ***********
 *********** Create Bearing Connection "RemotePoint_FreeStanding1 To Multiple" *
             Real Constant Set For Above Bearing Connection Is 13
 *********** Create Bearing Connection "RemotePoint_FreeStanding2 To Multiple" *
             Real Constant Set For Above Bearing Connection Is 14
 *********** Construct Remote Mass Using Remote Attachment ***********
 *********** Construct Remote Displacement ***********
 *********** Construct Remote Displacement ***********
 *********** Construct Remote Displacement ***********
 *********** Construct Remote Displacement ***********
 *** Create a component for all remote displacements ***
 *********** Define Rotational Velocity ***********


 ***** ROUTINE COMPLETED *****  CP =         0.531


 --- Number of total nodes = 7698
 --- Number of contact elements = 142
 --- Number of spring elements = 0
 --- Number of bearing elements = 0
 --- Number of solid elements = 2428
 --- Number of condensed parts = 0
 --- Number of total elements = 2577

 *GET  _WALLBSOL  FROM  ACTI  ITEM=TIME WALL  VALUE=  17.7125000

 *****  MAPDL SOLUTION ROUTINE  *****


 PERFORM A MODAL ANALYSIS
  THIS WILL BE A NEW ANALYSIS

 PARAMETER _THICKRATIO =     0.000000000


 USE QRDAMP MODE EXTRACTION METHOD
  EXTRACT     9 MODES
  COMPUTE COMPLEX MODE SHAPES: YES
  NORMALIZE THE MODE SHAPES TO THE MASS MATRIX

 QRDAMP EIGENSOLVER OPTIONS
  REUSE EIGENMODES FROM MODESYM FILE: Yes
  SYMMETRIZE CONTACT STIFFNESS MATRIX AT ELEMENT LEVEL


 CORIOLIS IN STATIONARY REFERENCE FRAME: GYROSCOPIC DAMPING MATRIX WILL BE CALCULATED

 ERASE THE CURRENT DATABASE OUTPUT CONTROL TABLE.


 WRITE ALL  ITEMS TO THE DATABASE WITH A FREQUENCY OF NONE
   FOR ALL APPLICABLE ENTITIES

 WRITE NSOL ITEMS TO THE DATABASE WITH A FREQUENCY OF ALL
   FOR ALL APPLICABLE ENTITIES

 PRINTOUT RESUMED BY /GOP

 WRITE MISC ITEMS TO THE DATABASE WITH A FREQUENCY OF ALL
   FOR THE ENTITIES DEFINED BY COMPONENT _ELMISC


 EXPAND ALL EXTRACTED MODES
  CALCULATE ELEMENT RESULTS AND NODAL DOF SOLUTION
  CALCULATE STRESSES IN ANY DOWNSTREAM MODE SUPERPOSITION EXPANSION PASS

 DO NOT COMBINE ELEMENT SAVE DATA FILES (.esav) AFTER DISTRIBUTED PARALLEL SOLUTION

 DO NOT COMBINE ELEMENT MATRIX FILES (.emat) AFTER DISTRIBUTED PARALLEL SOLUTION

 DO NOT COMBINE ASSEMBLED MATRIX FILES (.full) AFTER DISTRIBUTED PARALLEL SOLUTION
 ---------------- Campbell diagram point 1 ----------------

 CMOMEGA on component= CM_ROTVELCITY137
  OMEGAX, OMEGAY, OMEGAZ=  0.10472E-14  0.0000      0.0000
  X1, Y1, Z1=   0.0000      0.0000      0.0000

 *GET  ANSINTER_  FROM  ACTI  ITEM=INT        VALUE=  0.00000000

 *IF  ANSINTER_  ( =   0.00000     )  NE
      0  ( =   0.00000     )  THEN

 *ENDIF

 *** NOTE ***                            CP =       0.594   TIME= 17:42:45
 The automatic domain decomposition logic has selected the MESH domain
 decomposition method with 4 processes per solution.

 *****  MAPDL SOLVE    COMMAND  *****

 *** WARNING ***                         CP =       0.609   TIME= 17:42:45
 Element shape checking is currently inactive.  Issue SHPP,ON or
 SHPP,WARN to reactivate, if desired.

 *** NOTE ***                            CP =       0.656   TIME= 17:42:45
 The model data was checked and warning messages were found.
  Please review output or errors file (
 C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr8
 81BD\file0.err ) for these warning messages.

 *** SELECTION OF ELEMENT TECHNOLOGIES FOR APPLICABLE ELEMENTS ***
      --- GIVE SUGGESTIONS AND RESET THE KEY OPTIONS ---

 ELEMENT TYPE         1 IS SOLID272. KEYOPT(6) IS ALREADY SET AS SUGGESTED AND NO
 RESETTING IS NEEDED.

 ELEMENT TYPE         2 IS SOLID272. KEYOPT(6) IS ALREADY SET AS SUGGESTED AND NO
 RESETTING IS NEEDED.

 ELEMENT TYPE         3 IS SOLID272. KEYOPT(6) IS ALREADY SET AS SUGGESTED AND NO
 RESETTING IS NEEDED.

 ELEMENT TYPE         4 IS SOLID272. KEYOPT(6) IS ALREADY SET AS SUGGESTED AND NO
 RESETTING IS NEEDED.



 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:42:45  JAN 08, 2025 CP=      0.656

 wbnew--Modal Campbell



                       S O L U T I O N   O P T I O N S

   PROBLEM DIMENSIONALITY. . . . . . . . . . . . .3-D
   DEGREES OF FREEDOM. . . . . . UX   UY   UZ   ROTX ROTY ROTZ
   ANALYSIS TYPE . . . . . . . . . . . . . . . . .MODAL
      EXTRACTION METHOD. . . . . . . . . . . . . .QRDAMP
      QRDAMP BASE EIGENSOLVER. . . . . . . . . . .BLOCK LANCZOS
      COMPLEX SOLUTION OUTPUT. . . . . . . . . . .ON
   OFFSET TEMPERATURE FROM ABSOLUTE ZERO . . . . .  273.15
   NUMBER OF MODES TO EXTRACT. . . . . . . . . . .     9
   GLOBALLY ASSEMBLED MATRIX . . . . . . . . . . .UNSYMMETRIC
   NUMBER OF MODES TO EXPAND . . . . . . . . . . .ALL
   ELEMENT RESULTS CALCULATION . . . . . . . . . .ON

 *** WARNING ***                         CP =       0.656   TIME= 17:42:45
 Material number 13 (used by element 2435) should normally have at least
 one MP or one TB type command associated with it.  Output of energy by
 material may not be available.

 *** NOTE ***                            CP =       0.672   TIME= 17:42:45
 The step data was checked and warning messages were found.
  Please review output or errors file (
 C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr8
 81BD\file0.err ) for these warning messages.

 *** NOTE ***                            CP =       0.688   TIME= 17:42:45
 Internal nodes from 7699 to 7702 are created.
 4 internal nodes are used for handling degrees of freedom on pilot
 nodes of rigid target surfaces.

 *** NOTE ***                            CP =       0.703   TIME= 17:42:45
 Internal nodes from 7699 to 7702 are created.
 4 internal nodes are used for handling degrees of freedom on pilot
 nodes of rigid target surfaces.

 *** NOTE ***                            CP =       0.750   TIME= 17:42:45
 Rigid-constraint surface identified by real constant set 5 and contact
 element type 5 has been set up.  The degrees of freedom of the rigid
 surface are driven by the pilot node 7689 which connects to other
 element 2583.  Internal MPC will be built.
 This pair will be merged with other pair defined by real constant set
 11.
 The used degrees of freedom set is  UX   UY   UZ   ROTX ROTY ROTZ
 ****************************************


 *** NOTE ***                            CP =       0.750   TIME= 17:42:45
 Rigid-constraint surface identified by real constant set 7 and contact
 element type 7 has been set up.  The degrees of freedom of the rigid
 surface are driven by the pilot node 7690 which connects to other
 element 2435.  Internal MPC will be built.
 The used degrees of freedom set is  UX   UY   UZ   ROTX ROTY ROTZ
 ****************************************


 *** NOTE ***                            CP =       0.750   TIME= 17:42:45
 Rigid-constraint surface identified by real constant set 9 and contact
 element type 9 has been set up.  The degrees of freedom of the rigid
 surface are driven by the pilot node 7691 which connects to other
 element 2436.  Internal MPC will be built.
 The used degrees of freedom set is  UX   UY   UZ   ROTX ROTY ROTZ
 ****************************************


 *** NOTE ***                            CP =       0.750   TIME= 17:42:45
 Rigid-constraint surface identified by real constant set 11 and
 contact element type 11 has been set up.  The degrees of freedom of
 rigid surface are driven by the pilot node 7694.  Internal MPC will be
 built.
 This pair will be merged with other pair defined by real constant set
 5.
 The used degrees of freedom set is  UX   UY   UZ   ROTX ROTY ROTZ
 Please verify constraints (including rotational degrees of freedom)
  on the pilot node by yourself.
 ****************************************




 *** NOTE ***                            CP =       0.766   TIME= 17:42:45
 Internal nodes from 7699 to 7702 are created.
 4 internal nodes are used for handling degrees of freedom on pilot
 nodes of rigid target surfaces.



     D I S T R I B U T E D   D O M A I N   D E C O M P O S E R

  ...Number of elements: 2577
  ...Number of nodes:    7702
  ...Decompose to 4 CPU domains
  ...Element load balance ratio =     1.002


                      L O A D   S T E P   O P T I O N S

   LOAD STEP NUMBER. . . . . . . . . . . . . . . .     1
   THERMAL STRAINS INCLUDED IN THE LOAD VECTOR . .   YES
   CORIOLIS EFFECT IN STATIONARY REF. FRAME  . . .    ON
   REUSE EIGENMODES FOR QRDAMP SOLVER. . . . . . .YES
   PRINT OUTPUT CONTROLS . . . . . . . . . . . . .NO PRINTOUT
   DATABASE OUTPUT CONTROLS
      ITEM     FREQUENCY   COMPONENT
       ALL       NONE
      NSOL        ALL
      MISC        ALL       _ELMISC



                         ***********  PRECISE MASS SUMMARY  ***********

   TOTAL RIGID BODY MASS MATRIX ABOUT ORIGIN
               Translational mass               |   Coupled translational/rotational mass
        0.38553E-02    0.0000        0.0000     |     0.0000      -0.10217E-17   0.11484E-12
         0.0000       0.38553E-02   0.13172E-20 |    0.19954E-17  -0.13482E-18   0.62268
         0.0000       0.26458E-20   0.38553E-02 |   -0.11484E-12  -0.62268       0.62267E-18
     ------------------------------------------ | ------------------------------------------
                                                |         Rotational mass (inertia)
                                                |     2.7510       0.52043E-10   0.43541E-15
                                                |    0.52043E-10    149.62      -0.11702E-15
                                                |    0.42266E-15   0.47130E-16    149.62

   TOTAL MASS = 0.38553E-02
     The mass principal axes coincide with the global Cartesian axes

   CENTER OF MASS (X,Y,Z)=    161.51      -0.29787E-10  -0.26502E-15

   TOTAL INERTIA ABOUT CENTER OF MASS
         2.7510       0.33495E-10   0.11312E-15
        0.33495E-10    49.050      -0.11702E-15
        0.11312E-15  -0.11702E-15    49.050
     The inertia principal axes coincide with the global Cartesian axes


  *** MASS SUMMARY BY ELEMENT TYPE ***

  TYPE      MASS
     1  0.274552E-03
     2  0.769219E-03
     3  0.621633E-03
     4  0.788881E-03
    15  0.140100E-02

 Range of element maximum matrix coefficients in global coordinates
 Maximum = 14269624.8 at element 1019.
 Minimum = 35030 at element 2436.

   *** ELEMENT MATRIX FORMULATION TIMES
     TYPE    NUMBER   ENAME      TOTAL CP  AVE CP

        1       441  SOLID272      0.172   0.000390
        2       580  SOLID272      0.234   0.000404
        3       810  SOLID272      0.578   0.000714
        4       597  SOLID272      0.266   0.000445
        5        43  CONTA175      0.000   0.000000
        6         1  TARGE170      0.000   0.000000
        7        28  CONTA175      0.000   0.000000
        8         1  TARGE170      0.000   0.000000
        9        28  CONTA175      0.000   0.000000
       10         1  TARGE170      0.000   0.000000
       11        43  CONTA175      0.000   0.000000
       12         1  TARGE170      0.000   0.000000
       13         1  COMBI214      0.000   0.000000
       14         1  COMBI214      0.000   0.000000
       15         1  MASS21        0.000   0.000000
 Time at end of element matrix formulation CP = 1.8125.

   *** GYROSCOPIC DAMPING MATRIX CALCULATED FOR LISTED ELEMENTS:
     TYPE     NUMBER   ENAME

        1       441  SOLID272
        2       580  SOLID272
        3       810  SOLID272
        4       597  SOLID272
       15         1  MASS21


  BLOCK LANCZOS CALCULATION OF UP TO     9 EIGENVECTORS.
  NUMBER OF EQUATIONS              =        22781
  MAXIMUM WAVEFRONT                =          263
  MAXIMUM MODES STORED             =            9
  MINIMUM EIGENVALUE               =  0.00000E+00
  MAXIMUM EIGENVALUE               =  0.10000E+31



  Memory allocated on only this MPI rank (rank     0)
  -------------------------------------------------------------------
  Equation solver memory allocated                     =    14.976 MB
  Equation solver memory required for in-core mode     =    14.280 MB
  Equation solver memory required for out-of-core mode =     8.691 MB
  Total (solver and non-solver) memory allocated       =   488.140 MB


  Total memory summed across all MPI ranks on this machines
  -------------------------------------------------------------------
  Equation solver memory allocated                     =    65.311 MB
  Equation solver memory required for in-core mode     =    62.275 MB
  Equation solver memory required for out-of-core mode =    36.311 MB
  Total (solver and non-solver) memory allocated       =  1140.397 MB

 *** NOTE ***                            CP =       2.328   TIME= 17:42:46
 The Distributed Sparse Matrix Solver used by the Block Lanczos
 eigensolver is currently running in the in-core memory mode.  This
 memory mode uses the most amount of memory in order to avoid using the
 hard drive as much as possible, which most often results in the
 fastest solution time.  This mode is recommended if enough physical
 memory is present to accommodate all of the solver data.

  Process memory required for in-core LANCZOS Workspace             =     24.423317 MB
  Process memory required for out-of-core LANCZOS Workspace         =     1.053017 MB

  Total   memory required for in-core LANCZOS Workspace             =     92.959808 MB
  Total   memory required for out-of-core LANCZOS Workspace         =     4.099365 MB

  Lanczos Memory Mode : INCORE


  >> Shift # 1 :  |                                  : 9 Eigenvalues Converged


 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:42:46  JAN 08, 2025 CP=      2.641

 wbnew--Modal Campbell



 *** UNDAMPED FREQUENCIES FROM BLOCK LANCZOS ITERATION ***

  MODE    FREQUENCY (HERTZ)


    1     190.0656343486
    2     209.1598339837
    3     639.9190075061
    4     660.1934103669
    5     736.4670026947
    6     812.1381924377
    7     991.3423824664
    8     1784.269371768
    9     1784.805960465

 Time at end of state-space matrix formulation CP = 2.671875.

  ***** DAMPED FREQUENCIES FROM REDUCED DAMPED EIGENSOLVER *****

               COMPLEX FREQUENCY (HERTZ)
  MODE     STABILITY            FREQUENCY         MODAL DAMPING RATIO


    1       0.0000000           190.06563    j       0.0000000
    2       0.0000000           209.15983    j       0.0000000
    3       0.0000000           639.91901    j       0.0000000
    4       0.0000000           660.19341    j       0.0000000
    5       0.0000000           736.46700    j       0.0000000
    6       0.0000000           812.13819    j       0.0000000
    7       0.0000000           991.34238    j       0.0000000
    8       0.0000000           1784.2694    j       0.0000000
    9       0.0000000           1784.8060    j       0.0000000

 Time at end of eigenproblem resolution CP = 2.671875.

 Time at end of mode shape normalization CP = 2.703125.

   *** ELEMENT RESULT CALCULATION TIMES
     TYPE    NUMBER   ENAME      TOTAL CP  AVE CP

        1       441  SOLID272      0.062   0.000142
        2       580  SOLID272      0.062   0.000108
        3       810  SOLID272      0.188   0.000231
        4       597  SOLID272      0.156   0.000262
        5        43  CONTA175      0.000   0.000000
        7        28  CONTA175      0.000   0.000000
        9        28  CONTA175      0.000   0.000000
       11        43  CONTA175      0.000   0.000000
       13         1  COMBI214      0.000   0.000000
       14         1  COMBI214      0.000   0.000000
       15         1  MASS21        0.000   0.000000

   *** NODAL LOAD CALCULATION TIMES
     TYPE    NUMBER   ENAME      TOTAL CP  AVE CP

        1       441  SOLID272      0.000   0.000000
        2       580  SOLID272      0.000   0.000000
        3       810  SOLID272      0.000   0.000000
        4       597  SOLID272      0.000   0.000000
        5        43  CONTA175      0.000   0.000000
        7        28  CONTA175      0.000   0.000000
        9        28  CONTA175      0.000   0.000000
       11        43  CONTA175      0.000   0.000000
       13         1  COMBI214      0.000   0.000000
       14         1  COMBI214      0.000   0.000000
       15         1  MASS21        0.000   0.000000

 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:42:49  JAN 08, 2025 CP=      4.844

 wbnew--Modal Campbell





          ***** PARTICIPATION FACTOR CALCULATION *****  X  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
     1     190.066       0.52613E-02   0.11567E-05    0.315019    0.133790E-11    0.328178E-01    0.347031E-09
     2     209.160       0.47810E-02  -0.10652E-05    0.290107    0.113466E-11    0.606502E-01    0.294313E-09
     3     639.919       0.15627E-02   0.36718E-05    1.000000    0.134819E-10    0.391351        0.349699E-08
     4     660.193       0.15147E-02   0.26669E-05    0.726333    0.711251E-11    0.565816        0.184487E-08
     5     736.467       0.13578E-02   0.26633E-05    0.725356    0.709339E-11    0.739811        0.183991E-08
     6     812.138       0.12313E-02  -0.30911E-05    0.841853    0.955483E-11    0.974184        0.247837E-08
     7     991.342       0.10087E-02    0.0000        0.000000     0.00000        0.974184         0.00000
     8     1784.27       0.56045E-03  -0.77988E-06    0.212400    0.608220E-12    0.989104        0.157763E-09
     9     1784.81       0.56028E-03   0.66650E-06    0.181520    0.444221E-12     1.00000        0.115224E-09
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.407676E-10                    0.105745E-07
 -----------------------------------------------------------------------------------------------------------------



          ***** PARTICIPATION FACTOR CALCULATION *****  Y  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
     1     190.066       0.52613E-02   0.23951E-01    0.696558    0.573664E-03    0.150935        0.148799
     2     209.160       0.47810E-02  -0.23245E-01    0.676008    0.540313E-03    0.293095        0.140149
     3     639.919       0.15627E-02   0.23857E-01    0.693810    0.569146E-03    0.442841        0.147627
     4     660.193       0.15147E-02   0.27745E-01    0.806894    0.769796E-03    0.645380        0.199673
     5     736.467       0.13578E-02   0.12841E-01    0.373454    0.164898E-03    0.688765        0.427720E-01
     6     812.138       0.12313E-02  -0.34385E-01    1.000000    0.118234E-02    0.999847        0.306680
     7     991.342       0.10087E-02    0.0000        0.000000     0.00000        0.999847         0.00000
     8     1784.27       0.56045E-03  -0.43658E-03    0.012697    0.190599E-06    0.999897        0.494383E-04
     9     1784.81       0.56028E-03   0.62489E-03    0.018173    0.390493E-06     1.00000        0.101288E-03
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.380074E-02                    0.985851
 -----------------------------------------------------------------------------------------------------------------



          ***** PARTICIPATION FACTOR CALCULATION *****  Z  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
     1     190.066       0.52613E-02   0.23951E-01    0.696558    0.573664E-03    0.150935        0.148799
     2     209.160       0.47810E-02   0.23245E-01    0.676008    0.540313E-03    0.293095        0.140149
     3     639.919       0.15627E-02   0.23857E-01    0.693810    0.569146E-03    0.442841        0.147627
     4     660.193       0.15147E-02   0.27745E-01    0.806894    0.769796E-03    0.645380        0.199673
     5     736.467       0.13578E-02  -0.12841E-01    0.373454    0.164898E-03    0.688765        0.427720E-01
     6     812.138       0.12313E-02   0.34385E-01    1.000000    0.118234E-02    0.999847        0.306680
     7     991.342       0.10087E-02    0.0000        0.000000     0.00000        0.999847         0.00000
     8     1784.27       0.56045E-03  -0.43658E-03    0.012697    0.190599E-06    0.999897        0.494383E-04
     9     1784.81       0.56028E-03  -0.62489E-03    0.018173    0.390493E-06     1.00000        0.101288E-03
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.380074E-02                    0.985851
 -----------------------------------------------------------------------------------------------------------------

 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:42:49  JAN 08, 2025 CP=      4.844

 wbnew--Modal Campbell





          ***** PARTICIPATION FACTOR CALCULATION *****  X  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
  IMAGINARY COMPONENT

     1     190.066       0.52613E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     2     209.160       0.47810E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     3     639.919       0.15627E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     4     660.193       0.15147E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     5     736.467       0.13578E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     6     812.138       0.12313E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     7     991.342       0.10087E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     8     1784.27       0.56045E-03    0.0000        0.000000     0.00000         0.00000         0.00000
     9     1784.81       0.56028E-03    0.0000        0.000000     0.00000         0.00000         0.00000



          ***** PARTICIPATION FACTOR CALCULATION *****  Y  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
  IMAGINARY COMPONENT

     1     190.066       0.52613E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     2     209.160       0.47810E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     3     639.919       0.15627E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     4     660.193       0.15147E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     5     736.467       0.13578E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     6     812.138       0.12313E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     7     991.342       0.10087E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     8     1784.27       0.56045E-03    0.0000        0.000000     0.00000         0.00000         0.00000
     9     1784.81       0.56028E-03    0.0000        0.000000     0.00000         0.00000         0.00000



          ***** PARTICIPATION FACTOR CALCULATION *****  Z  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
  IMAGINARY COMPONENT

     1     190.066       0.52613E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     2     209.160       0.47810E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     3     639.919       0.15627E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     4     660.193       0.15147E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     5     736.467       0.13578E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     6     812.138       0.12313E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     7     991.342       0.10087E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     8     1784.27       0.56045E-03    0.0000        0.000000     0.00000         0.00000         0.00000
     9     1784.81       0.56028E-03    0.0000        0.000000     0.00000         0.00000         0.00000


 *** MAPDL BINARY FILE STATISTICS
  BUFFER SIZE USED= 16384
       19.812 MB WRITTEN ON ELEMENT MATRIX FILE: file0.emat
        7.812 MB WRITTEN ON ELEMENT SAVED DATA FILE: file0.esav
       10.250 MB WRITTEN ON ASSEMBLED MATRIX FILE: file0.full
        1.188 MB WRITTEN ON MODAL MATRIX FILE: file0.mode
        1.562 MB WRITTEN ON RESULTS FILE: file0.rst
 *************** Write FE CONNECTORS *********

 WRITE OUT CONSTRAINT EQUATIONS TO FILE= file.ce
 ---------------- Campbell diagram point 2 ----------------

 CMOMEGA on component= CM_ROTVELCITY137
  OMEGAX, OMEGAY, OMEGAZ=   5236.0      0.0000      0.0000
  X1, Y1, Z1=   0.0000      0.0000      0.0000

 *****  MAPDL SOLVE    COMMAND  *****

 *** WARNING ***                         CP =       4.969   TIME= 17:42:49
 Material number 13 (used by element 2435) should normally have at least
 one MP or one TB type command associated with it.  Output of energy by
 material may not be available.

 *** NOTE ***                            CP =       4.984   TIME= 17:42:49
 The step data was checked and warning messages were found.
  Please review output or errors file (
 C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr8
 81BD\file0.err ) for these warning messages.

 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:42:50  JAN 08, 2025 CP=      5.109

 wbnew--Modal Campbell



                      L O A D   S T E P   O P T I O N S

   LOAD STEP NUMBER. . . . . . . . . . . . . . . .     2
   THERMAL STRAINS INCLUDED IN THE LOAD VECTOR . .   YES
   CORIOLIS EFFECT IN STATIONARY REF. FRAME  . . .    ON
   REUSE EIGENMODES FOR QRDAMP SOLVER. . . . . . .YES
   PRINT OUTPUT CONTROLS . . . . . . . . . . . . .NO PRINTOUT
   DATABASE OUTPUT CONTROLS
      ITEM     FREQUENCY   COMPONENT
       ALL       NONE
      NSOL        ALL
      MISC        ALL       _ELMISC


   *** GYROSCOPIC DAMPING MATRIX CALCULATED FOR LISTED ELEMENTS:
     TYPE     NUMBER   ENAME

        1       441  SOLID272
        2       580  SOLID272
        3       810  SOLID272
        4       597  SOLID272
       15         1  MASS21


 *** WARNING ***                         CP =       5.750   TIME= 17:42:50
 The file0.modesym file does exist and is being used for the QR damp
 eigensolution since the ReuseKey is set to ON on the QRDOPT command.

 Time at end of state-space matrix formulation CP = 5.765625.

  ***** DAMPED FREQUENCIES FROM REDUCED DAMPED EIGENSOLVER *****

               COMPLEX FREQUENCY (HERTZ)
  MODE     STABILITY            FREQUENCY         MODAL DAMPING RATIO


    1       0.0000000           169.34208    j       0.0000000
    2       0.0000000           232.82032    j       0.0000000
    3       0.0000000           629.72205    j       0.0000000
    4       0.0000000           657.09846    j       0.0000000
    5       0.0000000           755.96914    j       0.0000000
    6       0.0000000           814.38603    j       0.0000000
    7       0.0000000           991.34238    j       0.0000000
    8       0.0000000           1766.8315    j       0.0000000
    9       0.0000000           1802.6778    j       0.0000000

 Time at end of eigenproblem resolution CP = 5.765625.

 Time at end of mode shape normalization CP = 5.765625.

 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:42:53  JAN 08, 2025 CP=      7.953

 wbnew--Modal Campbell





          ***** PARTICIPATION FACTOR CALCULATION *****  X  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
     1     169.342       0.59052E-02   0.88522E-06    0.257041    0.783611E-12    0.208125E-01    0.203256E-09
     2     232.820       0.42952E-02  -0.89446E-06    0.259726    0.800065E-12    0.420620E-01    0.207524E-09
     3     629.722       0.15880E-02   0.28870E-05    0.838314    0.833503E-11    0.263438        0.216198E-08
     4     657.098       0.15218E-02   0.34439E-05    1.000000    0.118603E-10    0.578443        0.307636E-08
     5     755.969       0.13228E-02   0.24496E-05    0.711281    0.600034E-11    0.737810        0.155639E-08
     6     814.386       0.12279E-02  -0.30558E-05    0.887324    0.933810E-11    0.985827        0.242215E-08
     7     991.342       0.10087E-02    0.0000        0.000000     0.00000        0.985827         0.00000
     8     1766.83       0.56598E-03  -0.57294E-06    0.166364    0.328255E-12    0.994546        0.851443E-10
     9     1802.68       0.55473E-03   0.45316E-06    0.131585    0.205356E-12     1.00000        0.532662E-10
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.376510E-10                    0.976608E-08
 -----------------------------------------------------------------------------------------------------------------



          ***** PARTICIPATION FACTOR CALCULATION *****  Y  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
     1     169.342       0.59052E-02   0.19193E-01    0.564651    0.368384E-03    0.110343        0.955531E-01
     2     232.820       0.42952E-02  -0.18741E-01    0.551345    0.351226E-03    0.215546        0.911026E-01
     3     629.722       0.15880E-02   0.17052E-01    0.501654    0.290770E-03    0.302640        0.754211E-01
     4     657.098       0.15218E-02   0.32294E-01    0.950051    0.104288E-02    0.615016        0.270507
     5     755.969       0.13228E-02   0.11385E-01    0.334930    0.129613E-03    0.653839        0.336196E-01
     6     814.386       0.12279E-02  -0.33992E-01    1.000000    0.115542E-02    0.999924        0.299698
     7     991.342       0.10087E-02    0.0000        0.000000     0.00000        0.999924         0.00000
     8     1766.83       0.56598E-03  -0.34726E-03    0.010216    0.120592E-06    0.999960        0.312795E-04
     9     1802.68       0.55473E-03   0.36634E-03    0.010777    0.134203E-06     1.00000        0.348101E-04
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.333855E-02                    0.865968
 -----------------------------------------------------------------------------------------------------------------



          ***** PARTICIPATION FACTOR CALCULATION *****  Z  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
     1     169.342       0.59052E-02   0.19193E-01    0.564651    0.368384E-03    0.110343        0.955531E-01
     2     232.820       0.42952E-02   0.18741E-01    0.551345    0.351226E-03    0.215546        0.911026E-01
     3     629.722       0.15880E-02   0.17052E-01    0.501654    0.290770E-03    0.302640        0.754211E-01
     4     657.098       0.15218E-02   0.32294E-01    0.950051    0.104288E-02    0.615016        0.270507
     5     755.969       0.13228E-02  -0.11385E-01    0.334930    0.129613E-03    0.653839        0.336196E-01
     6     814.386       0.12279E-02   0.33992E-01    1.000000    0.115542E-02    0.999924        0.299698
     7     991.342       0.10087E-02    0.0000        0.000000     0.00000        0.999924         0.00000
     8     1766.83       0.56598E-03  -0.34726E-03    0.010216    0.120592E-06    0.999960        0.312796E-04
     9     1802.68       0.55473E-03  -0.36634E-03    0.010777    0.134203E-06     1.00000        0.348101E-04
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.333855E-02                    0.865968
 -----------------------------------------------------------------------------------------------------------------

 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:42:53  JAN 08, 2025 CP=      7.953

 wbnew--Modal Campbell





          ***** PARTICIPATION FACTOR CALCULATION *****  X  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
  IMAGINARY COMPONENT

     1     169.342       0.59052E-02   0.55846E-06    0.567239    0.311872E-12    0.101355        0.808947E-10
     2     232.820       0.42952E-02  -0.82728E-06    0.840295    0.684398E-12    0.323778        0.177522E-09
     3     629.722       0.15880E-02   0.98452E-06    1.000000    0.969270E-12    0.638781        0.251413E-09
     4     657.098       0.15218E-02   0.63675E-07    0.064676    0.405444E-14    0.640099        0.105166E-11
     5     755.969       0.13228E-02   0.69326E-06    0.704162    0.480607E-12    0.796291        0.124662E-09
     6     814.386       0.12279E-02  -0.33299E-06    0.338228    0.110883E-12    0.832327        0.287613E-10
     7     991.342       0.10087E-02    0.0000        0.000000     0.00000        0.832327         0.00000
     8     1766.83       0.56598E-03  -0.48754E-06    0.495207    0.237694E-12    0.909575        0.616542E-10
     9     1802.68       0.55473E-03   0.52748E-06    0.535780    0.278239E-12     1.00000        0.721708E-10
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.307702E-11                    0.798130E-09
 -----------------------------------------------------------------------------------------------------------------



          ***** PARTICIPATION FACTOR CALCULATION *****  Y  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
  IMAGINARY COMPONENT

     1     169.342       0.59052E-02   0.12977E-01    0.839653    0.168397E-03    0.360343        0.436796E-01
     2     232.820       0.42952E-02  -0.15455E-01    1.000000    0.238856E-03    0.871456        0.619554E-01
     3     629.722       0.15880E-02   0.65892E-02    0.426349    0.434177E-04    0.964363        0.112619E-01
     4     657.098       0.15218E-02   0.25836E-02    0.167172    0.667522E-05    0.978646        0.173145E-02
     5     755.969       0.13228E-02   0.15486E-02    0.100204    0.239830E-05    0.983778        0.622082E-03
     6     814.386       0.12279E-02  -0.26909E-02    0.174109    0.724070E-05    0.999272        0.187812E-02
     7     991.342       0.10087E-02    0.0000        0.000000     0.00000        0.999272         0.00000
     8     1766.83       0.56598E-03  -0.51813E-03    0.033525    0.268455E-06    0.999847        0.696330E-04
     9     1802.68       0.55473E-03   0.26758E-03    0.017314    0.715997E-07     1.00000        0.185718E-04
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.467325E-03                    0.121217
 -----------------------------------------------------------------------------------------------------------------



          ***** PARTICIPATION FACTOR CALCULATION *****  Z  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
  IMAGINARY COMPONENT

     1     169.342       0.59052E-02  -0.12977E-01    0.839653    0.168397E-03    0.360343        0.436796E-01
     2     232.820       0.42952E-02  -0.15455E-01    1.000000    0.238856E-03    0.871456        0.619554E-01
     3     629.722       0.15880E-02  -0.65892E-02    0.426349    0.434177E-04    0.964363        0.112619E-01
     4     657.098       0.15218E-02  -0.25836E-02    0.167172    0.667522E-05    0.978646        0.173145E-02
     5     755.969       0.13228E-02   0.15486E-02    0.100204    0.239830E-05    0.983778        0.622082E-03
     6     814.386       0.12279E-02  -0.26909E-02    0.174109    0.724070E-05    0.999272        0.187812E-02
     7     991.342       0.10087E-02    0.0000        0.000000     0.00000        0.999272         0.00000
     8     1766.83       0.56598E-03   0.51813E-03    0.033525    0.268455E-06    0.999847        0.696330E-04
     9     1802.68       0.55473E-03   0.26758E-03    0.017314    0.715997E-07     1.00000        0.185718E-04
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.467325E-03                    0.121217
 -----------------------------------------------------------------------------------------------------------------
 ---------------- Campbell diagram point 3 ----------------

 CMOMEGA on component= CM_ROTVELCITY137
  OMEGAX, OMEGAY, OMEGAZ=   10472.      0.0000      0.0000
  X1, Y1, Z1=   0.0000      0.0000      0.0000

 *****  MAPDL SOLVE    COMMAND  *****

 *** WARNING ***                         CP =       8.062   TIME= 17:42:53
 Material number 13 (used by element 2435) should normally have at least
 one MP or one TB type command associated with it.  Output of energy by
 material may not be available.

 *** NOTE ***                            CP =       8.062   TIME= 17:42:53
 The step data was checked and warning messages were found.
  Please review output or errors file (
 C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr8
 81BD\file0.err ) for these warning messages.

 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:42:53  JAN 08, 2025 CP=      8.219

 wbnew--Modal Campbell



                      L O A D   S T E P   O P T I O N S

   LOAD STEP NUMBER. . . . . . . . . . . . . . . .     3
   THERMAL STRAINS INCLUDED IN THE LOAD VECTOR . .   YES
   CORIOLIS EFFECT IN STATIONARY REF. FRAME  . . .    ON
   REUSE EIGENMODES FOR QRDAMP SOLVER. . . . . . .YES
   PRINT OUTPUT CONTROLS . . . . . . . . . . . . .NO PRINTOUT
   DATABASE OUTPUT CONTROLS
      ITEM     FREQUENCY   COMPONENT
       ALL       NONE
      NSOL        ALL
      MISC        ALL       _ELMISC


   *** GYROSCOPIC DAMPING MATRIX CALCULATED FOR LISTED ELEMENTS:
     TYPE     NUMBER   ENAME

        1       441  SOLID272
        2       580  SOLID272
        3       810  SOLID272
        4       597  SOLID272
       15         1  MASS21


 *** WARNING ***                         CP =       8.734   TIME= 17:42:53
 The file0.modesym file does exist and is being used for the QR damp
 eigensolution since the ReuseKey is set to ON on the QRDOPT command.

 Time at end of state-space matrix formulation CP = 8.765625.

  ***** DAMPED FREQUENCIES FROM REDUCED DAMPED EIGENSOLVER *****

               COMPLEX FREQUENCY (HERTZ)
  MODE     STABILITY            FREQUENCY         MODAL DAMPING RATIO


    1       0.0000000           145.22813    j       0.0000000
    2       0.0000000           264.96486    j       0.0000000
    3       0.0000000           607.21391    j       0.0000000
    4       0.0000000           654.00922    j       0.0000000
    5       0.0000000           800.21313    j       0.0000000
    6       0.0000000           820.99584    j       0.0000000
    7       0.0000000           991.34238    j       0.0000000
    8       0.0000000           1749.5152    j       0.0000000
    9       0.0000000           1821.3096    j       0.0000000

 Time at end of eigenproblem resolution CP = 8.765625.

 Time at end of mode shape normalization CP = 8.78125.

 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:42:56  JAN 08, 2025 CP=     10.906

 wbnew--Modal Campbell





          ***** PARTICIPATION FACTOR CALCULATION *****  X  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
     1     145.228       0.68857E-02   0.78045E-06    0.202867    0.609097E-12    0.176453E-01    0.157990E-09
     2     264.965       0.37741E-02  -0.91351E-06    0.237455    0.834506E-12    0.418205E-01    0.216458E-09
     3     607.214       0.16469E-02   0.20480E-05    0.532343    0.419419E-11    0.163324        0.108791E-08
     4     654.009       0.15290E-02   0.38471E-05    1.000000    0.148001E-10    0.592077        0.383891E-08
     5     800.213       0.12497E-02   0.21603E-05    0.561550    0.466705E-11    0.727279        0.121056E-08
     6     820.996       0.12180E-02  -0.29812E-05    0.774933    0.888778E-11    0.984754        0.230535E-08
     7     991.342       0.10087E-02    0.0000        0.000000     0.00000        0.984754         0.00000
     8     1749.52       0.57159E-03  -0.58641E-06    0.152431    0.343882E-12    0.994716        0.891975E-10
     9     1821.31       0.54906E-03   0.42708E-06    0.111014    0.182398E-12     1.00000        0.473111E-10
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.345190E-10                    0.895369E-08
 -----------------------------------------------------------------------------------------------------------------



          ***** PARTICIPATION FACTOR CALCULATION *****  Y  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
     1     145.228       0.68857E-02   0.17778E-01    0.518900    0.316040E-03    0.102082        0.819757E-01
     2     264.965       0.37741E-02  -0.18066E-01    0.527311    0.326368E-03    0.207501        0.846546E-01
     3     607.214       0.16469E-02   0.10557E-01    0.308137    0.111445E-03    0.243498        0.289072E-01
     4     654.009       0.15290E-02   0.34260E-01    1.000000    0.117375E-02    0.622624        0.304451
     5     800.213       0.12497E-02   0.89202E-02    0.260367    0.795692E-04    0.648325        0.206390E-01
     6     820.996       0.12180E-02  -0.32993E-01    0.963017    0.108853E-02    0.999927        0.282348
     7     991.342       0.10087E-02    0.0000        0.000000     0.00000        0.999927         0.00000
     8     1749.52       0.57159E-03  -0.38055E-03    0.011108    0.144819E-06    0.999974        0.375637E-04
     9     1821.31       0.54906E-03   0.28475E-03    0.008311    0.810798E-07     1.00000        0.210308E-04
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.309593E-02                    0.803034
 -----------------------------------------------------------------------------------------------------------------



          ***** PARTICIPATION FACTOR CALCULATION *****  Z  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
     1     145.228       0.68857E-02   0.17778E-01    0.518900    0.316040E-03    0.102082        0.819757E-01
     2     264.965       0.37741E-02   0.18066E-01    0.527311    0.326368E-03    0.207501        0.846546E-01
     3     607.214       0.16469E-02   0.10557E-01    0.308137    0.111445E-03    0.243498        0.289072E-01
     4     654.009       0.15290E-02   0.34260E-01    1.000000    0.117375E-02    0.622624        0.304451
     5     800.213       0.12497E-02  -0.89202E-02    0.260367    0.795692E-04    0.648325        0.206390E-01
     6     820.996       0.12180E-02   0.32993E-01    0.963017    0.108853E-02    0.999927        0.282348
     7     991.342       0.10087E-02    0.0000        0.000000     0.00000        0.999927         0.00000
     8     1749.52       0.57159E-03  -0.38055E-03    0.011108    0.144819E-06    0.999974        0.375637E-04
     9     1821.31       0.54906E-03  -0.28475E-03    0.008311    0.810798E-07     1.00000        0.210308E-04
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.309593E-02                    0.803034
 -----------------------------------------------------------------------------------------------------------------

 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:42:56  JAN 08, 2025 CP=     10.906

 wbnew--Modal Campbell





          ***** PARTICIPATION FACTOR CALCULATION *****  X  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
  IMAGINARY COMPONENT

     1     145.228       0.68857E-02   0.58602E-06    0.416139    0.343424E-12    0.596446E-01    0.890787E-10
     2     264.965       0.37741E-02  -0.10344E-05    0.734539    0.107000E-11    0.245478        0.277541E-09
     3     607.214       0.16469E-02   0.14082E-05    1.000000    0.198314E-11    0.589903        0.514395E-09
     4     654.009       0.15290E-02   0.58556E-06    0.415809    0.342879E-12    0.649453        0.889375E-10
     5     800.213       0.12497E-02   0.10423E-05    0.740170    0.108647E-11    0.838147        0.281812E-09
     6     820.996       0.12180E-02  -0.64610E-06    0.458799    0.417444E-12    0.910647        0.108278E-09
     7     991.342       0.10087E-02    0.0000        0.000000     0.00000        0.910647         0.00000
     8     1749.52       0.57159E-03  -0.50729E-06    0.360230    0.257344E-12    0.955342        0.667509E-10
     9     1821.31       0.54906E-03   0.50709E-06    0.360084    0.257135E-12     1.00000        0.666968E-10
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.575783E-11                    0.149349E-08
 -----------------------------------------------------------------------------------------------------------------



          ***** PARTICIPATION FACTOR CALCULATION *****  Y  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
  IMAGINARY COMPONENT

     1     145.228       0.68857E-02   0.14083E-01    0.791251    0.198335E-03    0.284184        0.514449E-01
     2     264.965       0.37741E-02  -0.17799E-01    1.000000    0.316789E-03    0.738095        0.821701E-01
     3     607.214       0.16469E-02   0.94586E-02    0.531424    0.894647E-04    0.866284        0.232057E-01
     4     654.009       0.15290E-02   0.78038E-02    0.438450    0.608990E-04    0.953543        0.157962E-01
     5     800.213       0.12497E-02   0.23996E-02    0.134821    0.575818E-05    0.961794        0.149358E-02
     6     820.996       0.12180E-02  -0.51238E-02    0.287880    0.262538E-04    0.999412        0.680982E-02
     7     991.342       0.10087E-02    0.0000        0.000000     0.00000        0.999412         0.00000
     8     1749.52       0.57159E-03  -0.59868E-03    0.033637    0.358422E-06    0.999925        0.929690E-04
     9     1821.31       0.54906E-03   0.22819E-03    0.012821    0.520706E-07     1.00000        0.135063E-04
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.697910E-03                    0.181027
 -----------------------------------------------------------------------------------------------------------------



          ***** PARTICIPATION FACTOR CALCULATION *****  Z  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
  IMAGINARY COMPONENT

     1     145.228       0.68857E-02  -0.14083E-01    0.791251    0.198335E-03    0.284184        0.514449E-01
     2     264.965       0.37741E-02  -0.17799E-01    1.000000    0.316789E-03    0.738095        0.821701E-01
     3     607.214       0.16469E-02  -0.94586E-02    0.531424    0.894647E-04    0.866284        0.232057E-01
     4     654.009       0.15290E-02  -0.78038E-02    0.438450    0.608990E-04    0.953543        0.157962E-01
     5     800.213       0.12497E-02   0.23996E-02    0.134821    0.575818E-05    0.961794        0.149358E-02
     6     820.996       0.12180E-02  -0.51238E-02    0.287880    0.262538E-04    0.999412        0.680982E-02
     7     991.342       0.10087E-02    0.0000        0.000000     0.00000        0.999412         0.00000
     8     1749.52       0.57159E-03   0.59868E-03    0.033637    0.358422E-06    0.999925        0.929690E-04
     9     1821.31       0.54906E-03   0.22819E-03    0.012821    0.520706E-07     1.00000        0.135063E-04
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.697910E-03                    0.181027
 -----------------------------------------------------------------------------------------------------------------

 *GET  _NMODALSOLPROC  FROM  ACTI  ITEM=NUMC       VALUE=  4.00000000

 FINISH SOLUTION PROCESSING


 ***** ROUTINE COMPLETED *****  CP =        11.047



 PRINTOUT RESUMED BY /GOP

 *GET  _WALLASOL  FROM  ACTI  ITEM=TIME WALL  VALUE=  17.7158333

 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:42:57  JAN 08, 2025 CP=     11.062

 wbnew--Modal Campbell



          ***** MAPDL RESULTS INTERPRETATION (POST1) *****

 *** NOTE ***                            CP =      11.062   TIME= 17:42:57
 The model contains an element type ( COMBI214 ) that operates entirely
 in the nodal coordinate system.  Viewing nodal displacements or forces
 in other than the nodal coordinate system may be invalid.  See the
 elements manual description for more information.

 *** NOTE ***                            CP =      11.062   TIME= 17:42:57
 Reading results into the database (SET command) will update the current
 displacement and force boundary conditions in the database with the
 values from the results file for that load set.  Note that any
 subsequent solutions will use these values unless action is taken to
 either SAVE the current values or not overwrite them (/EXIT,NOSAVE).


 PRINT CAMPBELL DIAGRAM
    Sorting : ON
    X axis unit : rd/s
    Driving component : CM_ROTVELCITY137
    Printout all frequencies

 *** WARNING ***                         CP =      11.250   TIME= 17:42:57
 Sorting process may not be successful due to the shape of some modes.
 If results are not satisfactory, try to change the load steps and/or
 the number of modes.



     ***** FREQUENCIES (Hz) FROM CAMPBELL (sorting on) *****
    ** The driving component is CM_ROTVELCITY137                                                                                                                                                                                                                                                 **


 Spin(rd/s)          0.000       5235.988      10471.976

     1   BW        190.066        169.342        145.228
     2   FW        209.160        232.820        264.965
     3   BW        639.919        629.722        607.214
     4   BW        660.193        657.098        654.009
     5   FW        736.467        755.969        800.213
     6   FW        812.138        814.386        820.996
     7             991.342        991.342        991.342
     8   BW       1784.269       1766.831       1749.515
     9   FW       1784.806       1802.678       1821.310


 PRINT CAMPBELL DIAGRAM
    Sorting : ON
    X axis unit : rd/s
    Driving component : CM_ROTVELCITY137
    Stability value : ON
    Printout all frequencies

 *** WARNING ***                         CP =      11.438   TIME= 17:42:57
 Sorting process may not be successful due to the shape of some modes.
 If results are not satisfactory, try to change the load steps and/or
 the number of modes.



     ***** STABILITY VALUES (Hz) FROM CAMPBELL (sorting on) *****
    ** The driving component is CM_ROTVELCITY137                                                                                                                                                                                                                                                 **


 Spin(rd/s)          0.000       5235.988      10471.976

     1   BW          0.000          0.000          0.000
     2   FW          0.000          0.000          0.000
     3   BW          0.000          0.000          0.000
     4   BW          0.000          0.000          0.000
     5   FW          0.000          0.000          0.000
     6   FW          0.000          0.000          0.000
     7               0.000          0.000          0.000
     8   BW          0.000          0.000          0.000
     9   FW          0.000          0.000          0.000

 PRINTOUT RESUMED BY /GOP

 PRINTOUT RESUMED BY /GOP

 Set Encoding of XML File to:ISO-8859-1

 Set Output of XML File to:
     PARM,     ,     ,     ,     ,     ,     ,     ,     ,     ,     ,     ,
         ,     ,     ,     ,     ,     ,     ,

 DATABASE WRITTEN ON FILE  parm.xml

 EXIT THE MAPDL POST1 DATABASE PROCESSOR


 ***** ROUTINE COMPLETED *****  CP =        11.594



 PRINTOUT RESUMED BY /GOP

 *GET  _WALLDONE  FROM  ACTI  ITEM=TIME WALL  VALUE=  17.7158333

 PARAMETER _PREPTIME =     0.000000000

 PARAMETER _SOLVTIME =     12.00000000

 PARAMETER _POSTTIME =     0.000000000

 PARAMETER _TOTALTIM =     12.00000000

 *GET  _DLBRATIO  FROM  ACTI  ITEM=SOLU DLBR  VALUE=  1.00155521

 *GET  _COMBTIME  FROM  ACTI  ITEM=SOLU COMB  VALUE= 0.149815200

 *GET  _SSMODE   FROM  ACTI  ITEM=SOLU SSMM  VALUE=  2.00000000

 *GET  _NDOFS    FROM  ACTI  ITEM=SOLU NDOF  VALUE=  22781.0000

 /FCLEAN COMMAND REMOVING ALL LOCAL FILES
 --- Total number of nodes = 7698
 --- Total number of elements = 2577
 --- Element load balance ratio = 1.00155521
 --- Time to combine distributed files = 0.1498152
 --- Sparse memory mode = 2
 --- Number of DOF = 22781

 EXIT MAPDL WITHOUT SAVING DATABASE


 NUMBER OF WARNING MESSAGES ENCOUNTERED=          8
 NUMBER OF ERROR   MESSAGES ENCOUNTERED=          0

+--------------------- M A P D L   S T A T I S T I C S ------------------------+

Release: 2024 R2            Build: 24.2       Update: UP20240603   Platform: WINDOWS x64
Date Run: 01/08/2025   Time: 17:42     Process ID: 3796
Operating System: Windows 11  (Build: 22631)

Processor Model: Intel(R) Xeon(R) Platinum 8171M CPU @ 2.60GHz

Compiler: Intel(R) Fortran Compiler Classic Version 2021.9  (Build: 20230302)
          Intel(R) C/C++ Compiler Classic Version 2021.9  (Build: 20230302)
          Intel(R) oneAPI Math Kernel Library Version 2023.1-Product Build 20230303

Number of machines requested            :    1
Total number of cores available         :    8
Number of physical cores available      :    4
Number of processes requested           :    4
Number of threads per process requested :    1
Total number of cores requested         :    4 (Distributed Memory Parallel)
MPI Type: INTELMPI
MPI Version: Intel(R) MPI Library 2021.11 for Windows* OS


GPU Acceleration: Not Requested

Job Name: file0
Input File: dummy.dat

  Core                Machine Name   Working Directory
 -----------------------------------------------------
     0                 pyworkbench   C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr81BD
     1                 pyworkbench   C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr81BD
     2                 pyworkbench   C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr81BD
     3                 pyworkbench   C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr81BD

Latency time from master to core     1 =    3.104 microseconds
Latency time from master to core     2 =    3.049 microseconds
Latency time from master to core     3 =    3.903 microseconds

Communication speed from master to core     1 =  4724.25 MB/sec
Communication speed from master to core     2 =  5233.38 MB/sec
Communication speed from master to core     3 =  4697.23 MB/sec

Total CPU time for main thread                    :        9.6 seconds
Total CPU time summed for all threads             :       11.7 seconds

Elapsed time spent obtaining a license            :        0.5 seconds
Elapsed time spent pre-processing model (/PREP7)  :        0.1 seconds
Elapsed time spent solution - preprocessing       :        0.2 seconds
Elapsed time spent computing solution             :       11.5 seconds
Elapsed time spent solution - postprocessing      :        0.1 seconds
Elapsed time spent post-processing model (/POST1) :        0.2 seconds

Eigensolver used                                  :            QRdamp
Equation solver computational rate                :       16.0 Gflops

Sum of disk space used on all processes           :      172.0 MB

Sum of memory used on all processes               :      651.0 MB
Sum of memory allocated on all processes          :     3246.0 MB
Physical memory available                         :         32 GB
Total amount of I/O written to disk               :        0.4 GB
Total amount of I/O read from disk                :        5.7 GB

+------------------ E N D   M A P D L   S T A T I S T I C S -------------------+


 *-----------------------------------------------------------------------------*
 |                                                                             |
 |                               RUN COMPLETED                                 |
 |                                                                             |
 |-----------------------------------------------------------------------------|
 |                                                                             |
 |  Ansys MAPDL 2024 R2         Build 24.2         UP20240603    WINDOWS x64   |
 |                                                                             |
 |-----------------------------------------------------------------------------|
 |                                                                             |
 |  Database Requested(-db)     1024 MB     Scratch Memory Requested   1024 MB |
 |  Max Database Used(Master)      5 MB     Max Scratch Used(Master)    163 MB |
 |  Max Database Used(Workers)     1 MB     Max Scratch Used(Workers)   161 MB |
 |  Sum Database Used(All)         8 MB     Sum Scratch Used(All)       643 MB |
 |                                                                             |
 |-----------------------------------------------------------------------------|
 |                                                                             |
 |        CP Time      (sec) =         11.734       Time  =  17:42:58          |
 |        Elapsed Time (sec) =         15.000       Date  =  01/08/2025        |
 |                                                                             |
 *-----------------------------------------------------------------------------*

Specify the Mechanical directory path for the Modal Campbell Analysis and fetch the image directory path. Download an image file (tot_deform_2D.png) from the server to the client’s current working directory and display it using matplotlib.

[16]:
from matplotlib import image as mpimg
from matplotlib import pyplot as plt
[17]:
mechanical.run_python_script(f"image_dir=ExtAPI.DataModel.AnalysisList[2].WorkingDir")
result_image_dir_server = mechanical.run_python_script(f"image_dir")
print(f"Images are stored on the server at: {result_image_dir_server}")
Images are stored on the server at: C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\wbnew_files\dp0\SYS-6\MECH\
[18]:
def get_image_path(image_name):
    return os.path.join(result_image_dir_server, image_name)
[19]:
def display_image(path):
    print(f"Printing {path} using matplotlib")
    image1 = mpimg.imread(path)
    plt.figure(figsize=(15, 15))
    plt.axis("off")
    plt.imshow(image1)
    plt.show()
[20]:
image_name = "tot_deform_2D.png"
image_path_server = get_image_path(image_name)
[21]:
if image_path_server != "":
    current_working_directory = os.getcwd()

    local_file_path_list = mechanical.download(
        image_path_server, target_dir=current_working_directory
    )
    image_local_path = local_file_path_list[0]
    print(f"Local image path : {image_local_path}")

    display_image(image_local_path)
Downloading dns:///127.0.0.1:54649:C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\wbnew_files\dp0\SYS-6\MECH\tot_deform_2D.png to C:\Users\ansys\actions-runner\_work\pyworkbench-examples\pyworkbench-examples\pyworkbench-examples\doc\source\examples\axisymmetric-rotor\tot_deform_2D.png: 100%|██████████| 72.7k/72.7k [00:00<?, ?B/s]
Local image path : C:\Users\ansys\actions-runner\_work\pyworkbench-examples\pyworkbench-examples\pyworkbench-examples\doc\source\examples\axisymmetric-rotor\tot_deform_2D.png
Printing C:\Users\ansys\actions-runner\_work\pyworkbench-examples\pyworkbench-examples\pyworkbench-examples\doc\source\examples\axisymmetric-rotor\tot_deform_2D.png using matplotlib

../../_images/examples_axisymmetric-rotor_main_29_3.png

Specify the Mechanical directory for the Unbalance Response Analysis and fetch the working directory path. Download the solver output file (solve.out) from the server to the client’s current working directory and print its contents.

[22]:
mechanical.run_python_script(f"solve_dir=ExtAPI.DataModel.AnalysisList[3].WorkingDir")
result_solve_dir_server = mechanical.run_python_script(f"solve_dir")
print(f"All solver files are stored on the server at: {result_solve_dir_server}")
All solver files are stored on the server at: C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\wbnew_files\dp0\SYS-7\MECH\
[23]:
solve_out_path = os.path.join(result_solve_dir_server, "solve.out")
[24]:
def write_file_contents_to_console(path):
    """Write file contents to console."""
    with open(path, "rt") as file:
        for line in file:
            print(line, end="")
[25]:
current_working_directory = os.getcwd()
mechanical.download(solve_out_path, target_dir=current_working_directory)
solve_out_local_path = os.path.join(current_working_directory, "solve.out")
write_file_contents_to_console(solve_out_local_path)
os.remove(solve_out_local_path)
Downloading dns:///127.0.0.1:54649:C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\wbnew_files\dp0\SYS-7\MECH\solve.out to C:\Users\ansys\actions-runner\_work\pyworkbench-examples\pyworkbench-examples\pyworkbench-examples\doc\source\examples\axisymmetric-rotor\solve.out: 100%|██████████| 70.7k/70.7k [00:00<?, ?B/s]

 Ansys Mechanical Enterprise


 *------------------------------------------------------------------*
 |                                                                  |
 |   W E L C O M E   T O   T H E   A N S Y S (R)  P R O G R A M     |
 |                                                                  |
 *------------------------------------------------------------------*




 ***************************************************************
 *         ANSYS MAPDL 2024 R2          LEGAL NOTICES          *
 ***************************************************************
 *                                                             *
 * Copyright 1971-2024 Ansys, Inc.  All rights reserved.       *
 * Unauthorized use, distribution or duplication is            *
 * prohibited.                                                 *
 *                                                             *
 * Ansys is a registered trademark of Ansys, Inc. or its       *
 * subsidiaries in the United States or other countries.       *
 * See the Ansys, Inc. online documentation or the Ansys, Inc. *
 * documentation CD or online help for the complete Legal      *
 * Notice.                                                     *
 *                                                             *
 ***************************************************************
 *                                                             *
 * THIS ANSYS SOFTWARE PRODUCT AND PROGRAM DOCUMENTATION       *
 * INCLUDE TRADE SECRETS AND CONFIDENTIAL AND PROPRIETARY      *
 * PRODUCTS OF ANSYS, INC., ITS SUBSIDIARIES, OR LICENSORS.    *
 * The software products and documentation are furnished by    *
 * Ansys, Inc. or its subsidiaries under a software license    *
 * agreement that contains provisions concerning               *
 * non-disclosure, copying, length and nature of use,          *
 * compliance with exporting laws, warranties, disclaimers,    *
 * limitations of liability, and remedies, and other           *
 * provisions.  The software products and documentation may be *
 * used, disclosed, transferred, or copied only in accordance  *
 * with the terms and conditions of that software license      *
 * agreement.                                                  *
 *                                                             *
 * Ansys, Inc. is a UL registered                              *
 * ISO 9001:2015 company.                                      *
 *                                                             *
 ***************************************************************
 *                                                             *
 * This product is subject to U.S. laws governing export and   *
 * re-export.                                                  *
 *                                                             *
 * For U.S. Government users, except as specifically granted   *
 * by the Ansys, Inc. software license agreement, the use,     *
 * duplication, or disclosure by the United States Government  *
 * is subject to restrictions stated in the Ansys, Inc.        *
 * software license agreement and FAR 12.212 (for non-DOD      *
 * licenses).                                                  *
 *                                                             *
 ***************************************************************

 2024 R2

 Point Releases and Patches installed:

 Ansys Service Pack 2024 R2.01
 Ansys Service Pack 2024 R2.02
 Ansys Service Pack 2024 R2.03
 Ansys, Inc. License Manager 2024 R2
 Ansys, Inc. License Manager 2024 R2.01
 Ansys, Inc. License Manager 2024 R2.02
 Ansys, Inc. License Manager 2024 R2.03
 Discovery 2024 R2
 Discovery 2024 R2.01
 Discovery 2024 R2.02
 Discovery 2024 R2.03
 Core WB Files 2024 R2
 Core WB Files 2024 R2.01
 Core WB Files 2024 R2.02
 Core WB Files 2024 R2.03
 SpaceClaim 2024 R2
 SpaceClaim 2024 R2.01
 SpaceClaim 2024 R2.02
 SpaceClaim 2024 R2.03
 Icepak (includes CFD-Post) 2024 R2
 Icepak (includes CFD-Post) 2024 R2.01
 Icepak (includes CFD-Post) 2024 R2.02
 Icepak (includes CFD-Post) 2024 R2.03
 CFD-Post only 2024 R2
 CFD-Post only 2024 R2.01
 CFD-Post only 2024 R2.02
 CFD-Post only 2024 R2.03
 CFX (includes CFD-Post) 2024 R2
 CFX (includes CFD-Post) 2024 R2.01
 CFX (includes CFD-Post) 2024 R2.02
 CFX (includes CFD-Post) 2024 R2.03
 Chemkin 2024 R2
 Chemkin 2024 R2.01
 Chemkin 2024 R2.02
 Chemkin 2024 R2.03
 EnSight 2024 R2
 EnSight 2024 R2.01
 EnSight 2024 R2.02
 EnSight 2024 R2.03
 FENSAP-ICE 2024 R2
 FENSAP-ICE 2024 R2.01
 FENSAP-ICE 2024 R2.02
 FENSAP-ICE 2024 R2.03
 Fluent (includes CFD-Post) 2024 R2
 Fluent (includes CFD-Post) 2024 R2.01
 Fluent (includes CFD-Post) 2024 R2.02
 Fluent (includes CFD-Post) 2024 R2.03
 Polyflow (includes CFD-Post) 2024 R2
 Polyflow (includes CFD-Post) 2024 R2.01
 Polyflow (includes CFD-Post) 2024 R2.02
 Polyflow (includes CFD-Post) 2024 R2.03
 Forte (includes EnSight) 2024 R2
 Forte (includes EnSight) 2024 R2.01
 Forte (includes EnSight) 2024 R2.02
 Forte (includes EnSight) 2024 R2.03
 ICEM CFD 2024 R2
 ICEM CFD 2024 R2.01
 ICEM CFD 2024 R2.02
 ICEM CFD 2024 R2.03
 TurboGrid 2024 R2
 TurboGrid 2024 R2.01
 TurboGrid 2024 R2.02
 TurboGrid 2024 R2.03
 Speos 2024 R2
 Speos 2024 R2.01
 Speos 2024 R2.02
 Speos 2024 R2.03
 Speos HPC 2024 R2
 Speos HPC 2024 R2.01
 Speos HPC 2024 R2.02
 Speos HPC 2024 R2.03
 optiSLang 2024 R2
 optiSLang 2024 R2.01
 optiSLang 2024 R2.02
 optiSLang 2024 R2.03
 Remote Solve Manager Standalone Services 2024 R2
 Remote Solve Manager Standalone Services 2024 R2.01
 Remote Solve Manager Standalone Services 2024 R2.02
 Remote Solve Manager Standalone Services 2024 R2.03
 Additive 2024 R2
 Additive 2024 R2.01
 Additive 2024 R2.02
 Additive 2024 R2.03
 Aqwa 2024 R2
 Aqwa 2024 R2.01
 Aqwa 2024 R2.02
 Aqwa 2024 R2.03
 Autodyn 2024 R2
 Autodyn 2024 R2.01
 Autodyn 2024 R2.02
 Autodyn 2024 R2.03
 Customization Files for User Programmable Features 2024 R2
 Customization Files for User Programmable Features 2024 R2.01
 Customization Files for User Programmable Features 2024 R2.02
 Customization Files for User Programmable Features 2024 R2.03
 LS-DYNA 2024 R2
 LS-DYNA 2024 R2.01
 LS-DYNA 2024 R2.02
 LS-DYNA 2024 R2.03
 Mechanical Products 2024 R2
 Mechanical Products 2024 R2.01
 Mechanical Products 2024 R2.02
 Mechanical Products 2024 R2.03
 Motion 2024 R2
 Motion 2024 R2.01
 Motion 2024 R2.02
 Motion 2024 R2.03
 Sherlock 2024 R2
 Sherlock 2024 R2.01
 Sherlock 2024 R2.02
 Sherlock 2024 R2.03
 Sound - SAS 2024 R2
 Sound - SAS 2024 R2.01
 Sound - SAS 2024 R2.02
 Sound - SAS 2024 R2.03
 ACIS Geometry Interface 2024 R2
 ACIS Geometry Interface 2024 R2.01
 ACIS Geometry Interface 2024 R2.02
 ACIS Geometry Interface 2024 R2.03
 AutoCAD Geometry Interface 2024 R2
 AutoCAD Geometry Interface 2024 R2.01
 AutoCAD Geometry Interface 2024 R2.02
 AutoCAD Geometry Interface 2024 R2.03
 Catia, Version 4 Geometry Interface 2024 R2
 Catia, Version 4 Geometry Interface 2024 R2.01
 Catia, Version 4 Geometry Interface 2024 R2.02
 Catia, Version 4 Geometry Interface 2024 R2.03
 Catia, Version 5 Geometry Interface 2024 R2
 Catia, Version 5 Geometry Interface 2024 R2.01
 Catia, Version 5 Geometry Interface 2024 R2.02
 Catia, Version 5 Geometry Interface 2024 R2.03
 Catia, Version 6 Geometry Interface 2024 R2
 Catia, Version 6 Geometry Interface 2024 R2.01
 Catia, Version 6 Geometry Interface 2024 R2.02
 Catia, Version 6 Geometry Interface 2024 R2.03
 Creo Elements/Direct Modeling Geometry Interface 2024 R2
 Creo Elements/Direct Modeling Geometry Interface 2024 R2.01
 Creo Elements/Direct Modeling Geometry Interface 2024 R2.02
 Creo Elements/Direct Modeling Geometry Interface 2024 R2.03
 Creo Parametric Geometry Interface 2024 R2
 Creo Parametric Geometry Interface 2024 R2.01
 Creo Parametric Geometry Interface 2024 R2.02
 Creo Parametric Geometry Interface 2024 R2.03
 Inventor Geometry Interface 2024 R2
 Inventor Geometry Interface 2024 R2.01
 Inventor Geometry Interface 2024 R2.02
 Inventor Geometry Interface 2024 R2.03
 JTOpen Geometry Interface 2024 R2
 JTOpen Geometry Interface 2024 R2.01
 JTOpen Geometry Interface 2024 R2.02
 JTOpen Geometry Interface 2024 R2.03
 NX Geometry Interface 2024 R2
 NX Geometry Interface 2024 R2.01
 NX Geometry Interface 2024 R2.02
 NX Geometry Interface 2024 R2.03
 Parasolid Geometry Interface  2024 R2
 Parasolid Geometry Interface  2024 R2.01
 Parasolid Geometry Interface  2024 R2.02
 Parasolid Geometry Interface  2024 R2.03
 Solid Edge Geometry Interface 2024 R2
 Solid Edge Geometry Interface 2024 R2.01
 Solid Edge Geometry Interface 2024 R2.02
 Solid Edge Geometry Interface 2024 R2.03
 SOLIDWORKS Geometry Interface 2024 R2
 SOLIDWORKS Geometry Interface 2024 R2.01
 SOLIDWORKS Geometry Interface 2024 R2.02
 SOLIDWORKS Geometry Interface 2024 R2.03


          *****  MAPDL COMMAND LINE ARGUMENTS  *****
  BATCH MODE REQUESTED (-b)    = NOLIST
  INPUT FILE COPY MODE (-c)    = COPY
  DISTRIBUTED MEMORY PARALLEL REQUESTED
       4 PARALLEL PROCESSES REQUESTED WITH SINGLE THREAD PER PROCESS
    TOTAL OF     4 CORES REQUESTED
  INPUT FILE NAME              = C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\ScrB8DE\dummy.dat
  OUTPUT FILE NAME             = C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\ScrB8DE\solve.out
  START-UP FILE MODE           = NOREAD
  STOP FILE MODE               = NOREAD

 RELEASE= 2024 R2              BUILD= 24.2      UP20240603   VERSION=WINDOWS x64
 CURRENT JOBNAME=file0  17:43:11  JAN 08, 2025 CP=      0.078


 PARAMETER _DS_PROGRESS =     999.0000000

 /INPUT FILE= ds.dat  LINE=       0



 *** NOTE ***                            CP =       0.297   TIME= 17:43:11
 The /CONFIG,NOELDB command is not valid in a distributed memory
 parallel solution.  Command is ignored.

 *GET  _WALLSTRT  FROM  ACTI  ITEM=TIME WALL  VALUE=  17.7197222

 TITLE=
 wbnew--Unbalance Response

  ACT Extensions:
      LSDYNA, 2024.2
      5f463412-bd3e-484b-87e7-cbc0a665e474, wbex
 /COM,     ANSYSMotion, 2024.2
      20180725-3f81-49eb-9f31-41364844c769, wbex


 SET PARAMETER DIMENSIONS ON  _WB_PROJECTSCRATCH_DIR
  TYPE=STRI  DIMENSIONS=      248        1        1

 PARAMETER _WB_PROJECTSCRATCH_DIR(1) = C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\ScrB8DE\

 SET PARAMETER DIMENSIONS ON  _WB_SOLVERFILES_DIR
  TYPE=STRI  DIMENSIONS=      248        1        1

 PARAMETER _WB_SOLVERFILES_DIR(1) = C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\wbnew_files\dp0\SYS-7\MECH\

 SET PARAMETER DIMENSIONS ON  _WB_USERFILES_DIR
  TYPE=STRI  DIMENSIONS=      248        1        1

 PARAMETER _WB_USERFILES_DIR(1) = C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\wbnew_files\user_files\
 --- Data in consistent NMM units. See Solving Units in the help system for more

 MPA UNITS SPECIFIED FOR INTERNAL
  LENGTH      = MILLIMETERS (mm)
  MASS        = TONNE (Mg)
  TIME        = SECONDS (sec)
  TEMPERATURE = CELSIUS (C)
  TOFFSET     = 273.0
  FORCE       = NEWTON (N)
  HEAT        = MILLIJOULES (mJ)

 INPUT  UNITS ARE ALSO SET TO MPA

 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:43:11  JAN 08, 2025 CP=      0.328

 wbnew--Unbalance Response



          ***** MAPDL ANALYSIS DEFINITION (PREP7) *****
 *********** Nodes for the whole assembly ***********
 *********** Nodes for all Remote Points ***********
 *********** Elements for Body 1 'Surface Body1' ***********
 *********** Elements for Body 2 'Surface Body2' ***********
 *********** Elements for Body 3 'Surface Body3' ***********
 *********** Elements for Body 4 'Surface Body4' ***********
 *********** Send User Defined Coordinate System(s) ***********
 *********** Set Reference Temperature ***********
 *********** Send Materials ***********
 *********** Send Sheet Properties ***********
 *********** Send General Axisymmetric Properties "General Axisymmetric" *******
 *********** Send Named Selection as Node Component ***********
 *********** Send Named Selection as Node Component ***********
 *********** Send Named Selection as Node Component ***********
 *********** Send Named Selection as Node Component ***********
 *********** Send Named Selection as Element Component ***********
 *********** Send Named Selection as Node Component ***********
 *********** Create Remote Point "PointMass_RemotePoint" ***********
 *********** Create Remote Point "RemotePoint_Bearing1" ***********
 *********** Create Remote Point "RemotePoint_Bearing2" ***********
 *********** Create Remote Point "RemotePoint_FreeStanding1" ***********
 *********** Create Remote Point "RemotePoint_FreeStanding2" ***********
 *********** Create Remote Point "PointMass_RemotePoint2" ***********
 *********** Construct Remote Mass Using Remote Attachment ***********
 *********** Construct Remote Displacement ***********
 *********** Construct Remote Displacement ***********
 *********** Construct Remote Displacement ***********
 *********** Construct Remote Displacement ***********
 *** Create a component for all remote displacements ***
 *********** Create Bearing Connection "RemotePoint_FreeStanding1 To Multiple" *
             Real Constant Set For Above Bearing Connection Is 14
 *********** Create Bearing Connection "RemotePoint_FreeStanding2 To Multiple" *
             Real Constant Set For Above Bearing Connection Is 15
 *********** Component For Rotating Forces ***********
  Component For : All Bodies
 *********** SYNCHRO & CMOMEGA For Rotating Forces ***********

 SYNCHRONOUS NODAL FORCE EXCITATION
 *********** Define Rotating Force "Rotating Force" ***********
  RotatingForceComponentName,cm_SynchroComponent
 RotatingForceLoc,89.0100021362305,0.5,0.
 UnbalancedMass,3.8e-003
 UnbalancedForce,1.9e-003
 RotatingRadius,0.5
 PhaseAngle,0.
 RotatingForceAxisLoc,89.01,0.,0.
 RotatingForceAxisComponents,1.,0.,0.
 HitPointLocation,89.0100021362305,0.,0.
 HitPointNodeId,7689


 ***** ROUTINE COMPLETED *****  CP =         0.438


 --- Number of total nodes = 7698
 --- Number of contact elements = 142
 --- Number of spring elements = 0
 --- Number of bearing elements = 0
 --- Number of solid elements = 2428
 --- Number of condensed parts = 0
 --- Number of total elements = 2577

 *GET  _WALLBSOL  FROM  ACTI  ITEM=TIME WALL  VALUE=  17.7197222

 *****  MAPDL SOLUTION ROUTINE  *****


 PERFORM A HARMONIC ANALYSIS
  THIS WILL BE A NEW ANALYSIS


 PERFORM A FULL HARMONIC RESPONSE ANALYSIS

 THERMAL STRAINS ARE NOT INCLUDED IN THE LOAD VECTOR.

 STEP BOUNDARY CONDITION KEY= 1

 HARMONIC FREQUENCY RANGE - END=  1666.7      BEGIN=  0.0000

 USE   200 SUBSTEP(S) THIS LOAD STEP FOR ALL  DEGREES OF FREEDOM

 STRUCTURAL DAMPING COEFFICIENT = 0.20000E-01


 CORIOLIS IN STATIONARY REFERENCE FRAME: GYROSCOPIC DAMPING MATRIX WILL BE CALCULATED

 ERASE THE CURRENT DATABASE OUTPUT CONTROL TABLE.


 WRITE ALL  ITEMS TO THE DATABASE WITH A FREQUENCY OF NONE
   FOR ALL APPLICABLE ENTITIES

 WRITE NSOL ITEMS TO THE DATABASE WITH A FREQUENCY OF ALL
   FOR ALL APPLICABLE ENTITIES

 WRITE EANG ITEMS TO THE DATABASE WITH A FREQUENCY OF ALL
   FOR ALL APPLICABLE ENTITIES

 WRITE ETMP ITEMS TO THE DATABASE WITH A FREQUENCY OF ALL
   FOR ALL APPLICABLE ENTITIES

 WRITE VENG ITEMS TO THE DATABASE WITH A FREQUENCY OF ALL
   FOR ALL APPLICABLE ENTITIES

 WRITE STRS ITEMS TO THE DATABASE WITH A FREQUENCY OF ALL
   FOR ALL APPLICABLE ENTITIES

 WRITE EPEL ITEMS TO THE DATABASE WITH A FREQUENCY OF ALL
   FOR ALL APPLICABLE ENTITIES

 WRITE RSOL ITEMS TO THE DATABASE WITH A FREQUENCY OF ALL
   FOR ALL APPLICABLE ENTITIES

 WRITE CONT ITEMS TO THE DATABASE WITH A FREQUENCY OF ALL
   FOR ALL APPLICABLE ENTITIES

 PRINTOUT RESUMED BY /GOP

 WRITE MISC ITEMS TO THE DATABASE WITH A FREQUENCY OF ALL
   FOR THE ENTITIES DEFINED BY COMPONENT _ELMISC

 *GET  ANSINTER_  FROM  ACTI  ITEM=INT        VALUE=  0.00000000

 *IF  ANSINTER_  ( =   0.00000     )  NE
      0  ( =   0.00000     )  THEN

 *ENDIF

 *** NOTE ***                            CP =       0.469   TIME= 17:43:11
 The automatic domain decomposition logic has selected the FREQ domain
 decomposition method with 1 processes per frequency solution.

 *****  MAPDL SOLVE    COMMAND  *****



   D I S T R I B U T E D   D O M A I N   D E C O M P O S E R

 ...Number of frequency solutions:  200
 ...Decompose to 4 frequency domains (with 1 processes per domain)


 *** WARNING ***                         CP =       0.750   TIME= 17:43:12
 Element shape checking is currently inactive.  Issue SHPP,ON or
 SHPP,WARN to reactivate, if desired.


 HARMONIC EXCITATION IS UNBALANCE
     Rotational velocity equals excitation frequency
     Rotating component considered = CM_SYNCHROCOMPONENT

 *** NOTE ***                            CP =       0.781   TIME= 17:43:12
 The model data was checked and warning messages were found.
  Please review output or errors file (
 C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\ScrB
 B8DE\file0.err ) for these warning messages.

 *** SELECTION OF ELEMENT TECHNOLOGIES FOR APPLICABLE ELEMENTS ***
      --- GIVE SUGGESTIONS AND RESET THE KEY OPTIONS ---

 ELEMENT TYPE         1 IS SOLID272. KEYOPT(6) IS ALREADY SET AS SUGGESTED AND NO
 RESETTING IS NEEDED.

 ELEMENT TYPE         2 IS SOLID272. KEYOPT(6) IS ALREADY SET AS SUGGESTED AND NO
 RESETTING IS NEEDED.

 ELEMENT TYPE         3 IS SOLID272. KEYOPT(6) IS ALREADY SET AS SUGGESTED AND NO
 RESETTING IS NEEDED.

 ELEMENT TYPE         4 IS SOLID272. KEYOPT(6) IS ALREADY SET AS SUGGESTED AND NO
 RESETTING IS NEEDED.



 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:43:12  JAN 08, 2025 CP=      0.781

 wbnew--Unbalance Response



                       S O L U T I O N   O P T I O N S

   PROBLEM DIMENSIONALITY. . . . . . . . . . . . .3-D
   DEGREES OF FREEDOM. . . . . . UX   UY   UZ   ROTX ROTY ROTZ
   ANALYSIS TYPE . . . . . . . . . . . . . . . . .HARMONIC
      SOLUTION METHOD. . . . . . . . . . . . . . .FULL
   OFFSET TEMPERATURE FROM ABSOLUTE ZERO . . . . .  273.15
   THERMAL EXPANSION . . . . . . . . . . . . . . .OFF
   COMPLEX DISPLACEMENT PRINT OPTION . . . . . . .REAL AND IMAGINARY
   GLOBALLY ASSEMBLED MATRIX . . . . . . . . . . .UNSYMMETRIC

 *** WARNING ***                         CP =       0.797   TIME= 17:43:12
 Material number 14 (used by element 2435) should normally have at least
 one MP or one TB type command associated with it.  Output of energy by
 material may not be available.

 *** NOTE ***                            CP =       0.797   TIME= 17:43:12
 The step data was checked and warning messages were found.
  Please review output or errors file (
 C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\ScrB
 B8DE\file0.err ) for these warning messages.

 *** NOTE ***                            CP =       0.812   TIME= 17:43:12
 Internal nodes from 7699 to 7702 are created.
 4 internal nodes are used for handling degrees of freedom on pilot
 nodes of rigid target surfaces.

 *** NOTE ***                            CP =       0.828   TIME= 17:43:12
 Internal nodes from 7699 to 7702 are created.
 4 internal nodes are used for handling degrees of freedom on pilot
 nodes of rigid target surfaces.
 *WARNING*: Node 324 has been used on different contact pairs (real ID 5
 & 11).  These two pairs will be merged.  Please check the model
 carefully.

 *** NOTE ***                            CP =       0.859   TIME= 17:43:12
 Rigid-constraint surface identified by real constant set 5 and contact
 element type 5 has been set up.  The degrees of freedom of the rigid
 surface are driven by the pilot node 7689 which connects to other
 element 2583.  Internal MPC will be built.
 This pair will be merged with other pair defined by real constant set
 11.
 The used degrees of freedom set is  UX   UY   UZ   ROTX ROTY ROTZ
 ****************************************


 *** WARNING ***                         CP =       0.859   TIME= 17:43:12
 Element shape checking is currently inactive.  Issue SHPP,ON or
 SHPP,WARN to reactivate, if desired.

 *** WARNING ***                         CP =       0.859   TIME= 17:43:12
 Element shape checking is currently inactive.  Issue SHPP,ON or
 SHPP,WARN to reactivate, if desired.

 *** NOTE ***                            CP =       0.859   TIME= 17:43:12
 Rigid-constraint surface identified by real constant set 7 and contact
 element type 7 has been set up.  The degrees of freedom of the rigid
 surface are driven by the pilot node 7690 which connects to other
 element 2435.  Internal MPC will be built.
 The used degrees of freedom set is  UX   UY   UZ   ROTX ROTY ROTZ
 ****************************************


 *** WARNING ***                         CP =       0.859   TIME= 17:43:12
 Element shape checking is currently inactive.  Issue SHPP,ON or
 SHPP,WARN to reactivate, if desired.

 *** NOTE ***                            CP =       0.859   TIME= 17:43:12
 Rigid-constraint surface identified by real constant set 9 and contact
 element type 9 has been set up.  The degrees of freedom of the rigid
 surface are driven by the pilot node 7691 which connects to other
 element 2436.  Internal MPC will be built.
 The used degrees of freedom set is  UX   UY   UZ   ROTX ROTY ROTZ
 ****************************************


 *** WARNING ***                         CP =       0.859   TIME= 17:43:12
 Material number 14 (used by element 2435) should normally have at least
 one MP or one TB type command associated with it.  Output of energy by
 material may not be available.

 *** NOTE ***                            CP =       0.859   TIME= 17:43:12
 Rigid-constraint surface identified by real constant set 11 and
 contact element type 11 has been set up.  The degrees of freedom of
 rigid surface are driven by the pilot node 7694.  Internal MPC will be
 built.
 This pair will be merged with other pair defined by real constant set
 5.
 The used degrees of freedom set is  UX   UY   UZ   ROTX ROTY ROTZ
 Please verify constraints (including rotational degrees of freedom)
  on the pilot node by yourself.
 ****************************************




 *** WARNING ***                         CP =       0.859   TIME= 17:43:12
 Material number 14 (used by element 2435) should normally have at least
 one MP or one TB type command associated with it.  Output of energy by
 material may not be available.

 *** NOTE ***                            CP =       0.875   TIME= 17:43:12
 Internal nodes from 7699 to 7702 are created.
 4 internal nodes are used for handling degrees of freedom on pilot
 nodes of rigid target surfaces.

                      L O A D   S T E P   O P T I O N S

   LOAD STEP NUMBER. . . . . . . . . . . . . . . .     1
   FREQUENCY RANGE . . . . . . . . . . . . . . . .  0.0000     TO   1666.7
   NUMBER OF SUBSTEPS. . . . . . . . . . . . . . .   200
   STEP CHANGE BOUNDARY CONDITIONS . . . . . . . .   YES
   STRUCTURAL DAMPING COEFFICIENT. . . . . . . . . 0.20000E-01
   CORIOLIS EFFECT IN STATIONARY REF. FRAME  . . .    ON
   PRINT OUTPUT CONTROLS . . . . . . . . . . . . .NO PRINTOUT
   DATABASE OUTPUT CONTROLS
      ITEM     FREQUENCY   COMPONENT
       ALL       NONE
      NSOL        ALL
      EANG        ALL
      ETMP        ALL
      VENG        ALL
      STRS        ALL
      EPEL        ALL
      RSOL        ALL
      CONT        ALL
      MISC        ALL       _ELMISC

 *WARNING*: Node 324 has been used on different contact pairs (real ID 5
 & 11).  These two pairs will be merged.  Please check the model
 carefully.

 *** WARNING ***                         CP =       1.000   TIME= 17:43:12
 Material number 14 (used by element 2435) should normally have at least
 one MP or one TB type command associated with it.  Output of energy by
 material may not be available.

 *** NOTE ***                            CP =       1.000   TIME= 17:43:12
 Rigid-constraint surface identified by real constant set 5 and contact
 element type 5 has been set up.  The degrees of freedom of the rigid
 surface are driven by the pilot node 7689 which connects to other
 element 2583.  Internal MPC will be built.
 This pair will be merged with other pair defined by real constant set
 11.
 The used degrees of freedom set is  UX   UY   UZ   ROTX ROTY ROTZ
 ****************************************


 *** NOTE ***                            CP =       1.000   TIME= 17:43:12
 Rigid-constraint surface identified by real constant set 7 and contact
 element type 7 has been set up.  The degrees of freedom of the rigid
 surface are driven by the pilot node 7690 which connects to other
 element 2435.  Internal MPC will be built.
 The used degrees of freedom set is  UX   UY   UZ   ROTX ROTY ROTZ
 ****************************************


 *** NOTE ***                            CP =       1.000   TIME= 17:43:12
 Rigid-constraint surface identified by real constant set 9 and contact
 element type 9 has been set up.  The degrees of freedom of the rigid
 surface are driven by the pilot node 7691 which connects to other
 element 2436.  Internal MPC will be built.
 The used degrees of freedom set is  UX   UY   UZ   ROTX ROTY ROTZ
 ****************************************


 *** NOTE ***                            CP =       1.000   TIME= 17:43:12
 Rigid-constraint surface identified by real constant set 11 and
 contact element type 11 has been set up.  The degrees of freedom of
 rigid surface are driven by the pilot node 7694.  Internal MPC will be
 built.
 This pair will be merged with other pair defined by real constant set
 5.
 The used degrees of freedom set is  UX   UY   UZ   ROTX ROTY ROTZ
 Please verify constraints (including rotational degrees of freedom)
  on the pilot node by yourself.
 ****************************************



                         ***********  PRECISE MASS SUMMARY  ***********

   TOTAL RIGID BODY MASS MATRIX ABOUT ORIGIN
               Translational mass               |   Coupled translational/rotational mass
        0.38553E-02    0.0000        0.0000     |     0.0000      -0.10217E-17   0.11484E-12
         0.0000       0.38553E-02   0.13172E-20 |    0.19954E-17  -0.13482E-18   0.62268
         0.0000       0.26458E-20   0.38553E-02 |   -0.11484E-12  -0.62268       0.62267E-18
     ------------------------------------------ | ------------------------------------------
                                                |         Rotational mass (inertia)
                                                |     2.7510       0.52043E-10   0.43541E-15
                                                |    0.52043E-10    149.62      -0.11702E-15
                                                |    0.42266E-15   0.47130E-16    149.62

   TOTAL MASS = 0.38553E-02
     The mass principal axes coincide with the global Cartesian axes

   CENTER OF MASS (X,Y,Z)=    161.51      -0.29787E-10  -0.26502E-15

   TOTAL INERTIA ABOUT CENTER OF MASS
         2.7510       0.33495E-10   0.11312E-15
        0.33495E-10    49.050      -0.11702E-15
        0.11312E-15  -0.11702E-15    49.050
     The inertia principal axes coincide with the global Cartesian axes


  *** MASS SUMMARY BY ELEMENT TYPE ***

  TYPE      MASS
     1  0.274552E-03
     2  0.769219E-03
     3  0.621633E-03
     4  0.788881E-03
    13  0.140100E-02

 Range of element maximum matrix coefficients in global coordinates
 Maximum = 14269624.8 at element 1019.
 Minimum = 35030 at element 2436.

   *** ELEMENT MATRIX FORMULATION TIMES
     TYPE    NUMBER   ENAME      TOTAL CP  AVE CP

        1       441  SOLID272      0.203   0.000461
        2       580  SOLID272      0.188   0.000323
        3       810  SOLID272      0.281   0.000347
        4       597  SOLID272      0.172   0.000288
        5        43  CONTA175      0.000   0.000000
        6         1  TARGE170      0.000   0.000000
        7        28  CONTA175      0.000   0.000000
        8         1  TARGE170      0.000   0.000000
        9        28  CONTA175      0.000   0.000000
       10         1  TARGE170      0.000   0.000000
       11        43  CONTA175      0.000   0.000000
       12         1  TARGE170      0.000   0.000000
       13         1  MASS21        0.000   0.000000
       14         1  COMBI214      0.000   0.000000
       15         1  COMBI214      0.000   0.000000
 Time at end of element matrix formulation CP = 1.96875.

   *** GYROSCOPIC DAMPING MATRIX CALCULATED FOR LISTED ELEMENTS:
     TYPE     NUMBER   ENAME

        1       441  SOLID272
        2       580  SOLID272
        3       810  SOLID272
        4       597  SOLID272
       13         1  MASS21


 SPARSE MATRIX DIRECT SOLVER.
  Number of equations =       22781,    Maximum wavefront =    558


  Memory allocated on this process
  -------------------------------------------------------------------
  Equation solver memory allocated                     =   209.307 MB
  Equation solver memory required for in-core mode     =   201.306 MB
  Equation solver memory required for out-of-core mode =   104.723 MB
  Total (solver and non-solver) memory allocated       =   860.588 MB

 *** NOTE ***                            CP =       2.391   TIME= 17:43:13
 The Sparse Matrix Solver is currently running in the in-core memory
 mode.  This memory mode uses the most amount of memory in order to
 avoid using the hard drive as much as possible, which most often
 results in the fastest solution time.  This mode is recommended if
 enough physical memory is present to accommodate all of the solver
 data.

 *** NOTE ***                            CP =       2.391   TIME= 17:43:13
 The system matrix is unsymmetric.
 Sparse solver maximum pivot= 3.005101191E+09 at node 7689 ROTY.
 Sparse solver minimum pivot= 20922.4616 at node 4388 UY.
 Sparse solver minimum pivot in absolute value= 20922.4616 at node 4388
 UY.

   *** ELEMENT RESULT CALCULATION TIMES
     TYPE    NUMBER   ENAME      TOTAL CP  AVE CP

        1       441  SOLID272      0.156   0.000354
        2       580  SOLID272      0.156   0.000269
        3       810  SOLID272      0.266   0.000328
        4       597  SOLID272      0.141   0.000236
        5        43  CONTA175      0.000   0.000000
        7        28  CONTA175      0.000   0.000000
        9        28  CONTA175      0.000   0.000000
       11        43  CONTA175      0.000   0.000000
       13         1  MASS21        0.000   0.000000
       14         1  COMBI214      0.000   0.000000
       15         1  COMBI214      0.000   0.000000

   *** NODAL LOAD CALCULATION TIMES
     TYPE    NUMBER   ENAME      TOTAL CP  AVE CP

        1       441  SOLID272      0.000   0.000000
        2       580  SOLID272      0.047   0.000081
        3       810  SOLID272      0.016   0.000019
        4       597  SOLID272      0.031   0.000052
        5        43  CONTA175      0.000   0.000000
        7        28  CONTA175      0.000   0.000000
        9        28  CONTA175      0.000   0.000000
       11        43  CONTA175      0.000   0.000000
       13         1  MASS21        0.000   0.000000
       14         1  COMBI214      0.000   0.000000
       15         1  COMBI214      0.000   0.000000
 *** LOAD STEP     1   SUBSTEP     1  COMPLETED.  FREQUENCY=   8.33350
     --- CMOMEGA for CM_SYNCH=  52.361      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP     2  COMPLETED.  FREQUENCY=   16.6670
     --- CMOMEGA for CM_SYNCH=  104.72      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP     3  COMPLETED.  FREQUENCY=   25.0005
     --- CMOMEGA for CM_SYNCH=  157.08      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP     4  COMPLETED.  FREQUENCY=   33.3340
     --- CMOMEGA for CM_SYNCH=  209.44      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP     5  COMPLETED.  FREQUENCY=   41.6675
     --- CMOMEGA for CM_SYNCH=  261.80      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP     6  COMPLETED.  FREQUENCY=   50.0010
     --- CMOMEGA for CM_SYNCH=  314.17      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP     7  COMPLETED.  FREQUENCY=   58.3345
     --- CMOMEGA for CM_SYNCH=  366.53      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP     8  COMPLETED.  FREQUENCY=   66.6680
     --- CMOMEGA for CM_SYNCH=  418.89      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP     9  COMPLETED.  FREQUENCY=   75.0015
     --- CMOMEGA for CM_SYNCH=  471.25      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    10  COMPLETED.  FREQUENCY=   83.3350
     --- CMOMEGA for CM_SYNCH=  523.61      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    11  COMPLETED.  FREQUENCY=   91.6685
     --- CMOMEGA for CM_SYNCH=  575.97      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    12  COMPLETED.  FREQUENCY=   100.002
     --- CMOMEGA for CM_SYNCH=  628.33      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    13  COMPLETED.  FREQUENCY=   108.336
     --- CMOMEGA for CM_SYNCH=  680.69      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    14  COMPLETED.  FREQUENCY=   116.669
     --- CMOMEGA for CM_SYNCH=  733.05      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    15  COMPLETED.  FREQUENCY=   125.002
     --- CMOMEGA for CM_SYNCH=  785.41      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    16  COMPLETED.  FREQUENCY=   133.336
     --- CMOMEGA for CM_SYNCH=  837.77      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    17  COMPLETED.  FREQUENCY=   141.670
     --- CMOMEGA for CM_SYNCH=  890.14      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    18  COMPLETED.  FREQUENCY=   150.003
     --- CMOMEGA for CM_SYNCH=  942.50      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    19  COMPLETED.  FREQUENCY=   158.337
     --- CMOMEGA for CM_SYNCH=  994.86      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    20  COMPLETED.  FREQUENCY=   166.670
     --- CMOMEGA for CM_SYNCH=  1047.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    21  COMPLETED.  FREQUENCY=   175.004
     --- CMOMEGA for CM_SYNCH=  1099.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    22  COMPLETED.  FREQUENCY=   183.337
     --- CMOMEGA for CM_SYNCH=  1151.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    23  COMPLETED.  FREQUENCY=   191.671
     --- CMOMEGA for CM_SYNCH=  1204.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    24  COMPLETED.  FREQUENCY=   200.004
     --- CMOMEGA for CM_SYNCH=  1256.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    25  COMPLETED.  FREQUENCY=   208.338
     --- CMOMEGA for CM_SYNCH=  1309.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    26  COMPLETED.  FREQUENCY=   216.671
     --- CMOMEGA for CM_SYNCH=  1361.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    27  COMPLETED.  FREQUENCY=   225.005
     --- CMOMEGA for CM_SYNCH=  1413.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    28  COMPLETED.  FREQUENCY=   233.338
     --- CMOMEGA for CM_SYNCH=  1466.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    29  COMPLETED.  FREQUENCY=   241.671
     --- CMOMEGA for CM_SYNCH=  1518.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    30  COMPLETED.  FREQUENCY=   250.005
     --- CMOMEGA for CM_SYNCH=  1570.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    31  COMPLETED.  FREQUENCY=   258.339
     --- CMOMEGA for CM_SYNCH=  1623.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    32  COMPLETED.  FREQUENCY=   266.672
     --- CMOMEGA for CM_SYNCH=  1675.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    33  COMPLETED.  FREQUENCY=   275.006
     --- CMOMEGA for CM_SYNCH=  1727.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    34  COMPLETED.  FREQUENCY=   283.339
     --- CMOMEGA for CM_SYNCH=  1780.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    35  COMPLETED.  FREQUENCY=   291.673
     --- CMOMEGA for CM_SYNCH=  1832.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    36  COMPLETED.  FREQUENCY=   300.006
     --- CMOMEGA for CM_SYNCH=  1885.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    37  COMPLETED.  FREQUENCY=   308.339
     --- CMOMEGA for CM_SYNCH=  1937.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    38  COMPLETED.  FREQUENCY=   316.673
     --- CMOMEGA for CM_SYNCH=  1989.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    39  COMPLETED.  FREQUENCY=   325.007
     --- CMOMEGA for CM_SYNCH=  2042.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    40  COMPLETED.  FREQUENCY=   333.340
     --- CMOMEGA for CM_SYNCH=  2094.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    41  COMPLETED.  FREQUENCY=   341.674
     --- CMOMEGA for CM_SYNCH=  2146.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    42  COMPLETED.  FREQUENCY=   350.007
     --- CMOMEGA for CM_SYNCH=  2199.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    43  COMPLETED.  FREQUENCY=   358.341
     --- CMOMEGA for CM_SYNCH=  2251.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    44  COMPLETED.  FREQUENCY=   366.674
     --- CMOMEGA for CM_SYNCH=  2303.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    45  COMPLETED.  FREQUENCY=   375.007
     --- CMOMEGA for CM_SYNCH=  2356.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    46  COMPLETED.  FREQUENCY=   383.341
     --- CMOMEGA for CM_SYNCH=  2408.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    47  COMPLETED.  FREQUENCY=   391.675
     --- CMOMEGA for CM_SYNCH=  2461.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    48  COMPLETED.  FREQUENCY=   400.008
     --- CMOMEGA for CM_SYNCH=  2513.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    49  COMPLETED.  FREQUENCY=   408.341
     --- CMOMEGA for CM_SYNCH=  2565.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    50  COMPLETED.  FREQUENCY=   416.675
     --- CMOMEGA for CM_SYNCH=  2618.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    51  COMPLETED.  FREQUENCY=   425.009
     --- CMOMEGA for CM_SYNCH=  2670.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    52  COMPLETED.  FREQUENCY=   433.342
     --- CMOMEGA for CM_SYNCH=  2722.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    53  COMPLETED.  FREQUENCY=   441.676
     --- CMOMEGA for CM_SYNCH=  2775.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    54  COMPLETED.  FREQUENCY=   450.009
     --- CMOMEGA for CM_SYNCH=  2827.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    55  COMPLETED.  FREQUENCY=   458.343
     --- CMOMEGA for CM_SYNCH=  2879.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    56  COMPLETED.  FREQUENCY=   466.676
     --- CMOMEGA for CM_SYNCH=  2932.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    57  COMPLETED.  FREQUENCY=   475.010
     --- CMOMEGA for CM_SYNCH=  2984.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    58  COMPLETED.  FREQUENCY=   483.343
     --- CMOMEGA for CM_SYNCH=  3036.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    59  COMPLETED.  FREQUENCY=   491.676
     --- CMOMEGA for CM_SYNCH=  3089.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    60  COMPLETED.  FREQUENCY=   500.010
     --- CMOMEGA for CM_SYNCH=  3141.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    61  COMPLETED.  FREQUENCY=   508.344
     --- CMOMEGA for CM_SYNCH=  3194.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    62  COMPLETED.  FREQUENCY=   516.677
     --- CMOMEGA for CM_SYNCH=  3246.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    63  COMPLETED.  FREQUENCY=   525.010
     --- CMOMEGA for CM_SYNCH=  3298.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    64  COMPLETED.  FREQUENCY=   533.344
     --- CMOMEGA for CM_SYNCH=  3351.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    65  COMPLETED.  FREQUENCY=   541.678
     --- CMOMEGA for CM_SYNCH=  3403.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    66  COMPLETED.  FREQUENCY=   550.011
     --- CMOMEGA for CM_SYNCH=  3455.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    67  COMPLETED.  FREQUENCY=   558.345
     --- CMOMEGA for CM_SYNCH=  3508.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    68  COMPLETED.  FREQUENCY=   566.678
     --- CMOMEGA for CM_SYNCH=  3560.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    69  COMPLETED.  FREQUENCY=   575.012
     --- CMOMEGA for CM_SYNCH=  3612.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    70  COMPLETED.  FREQUENCY=   583.345
     --- CMOMEGA for CM_SYNCH=  3665.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    71  COMPLETED.  FREQUENCY=   591.678
     --- CMOMEGA for CM_SYNCH=  3717.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    72  COMPLETED.  FREQUENCY=   600.012
     --- CMOMEGA for CM_SYNCH=  3770.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    73  COMPLETED.  FREQUENCY=   608.346
     --- CMOMEGA for CM_SYNCH=  3822.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    74  COMPLETED.  FREQUENCY=   616.679
     --- CMOMEGA for CM_SYNCH=  3874.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    75  COMPLETED.  FREQUENCY=   625.013
     --- CMOMEGA for CM_SYNCH=  3927.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    76  COMPLETED.  FREQUENCY=   633.346
     --- CMOMEGA for CM_SYNCH=  3979.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    77  COMPLETED.  FREQUENCY=   641.680
     --- CMOMEGA for CM_SYNCH=  4031.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    78  COMPLETED.  FREQUENCY=   650.013
     --- CMOMEGA for CM_SYNCH=  4084.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    79  COMPLETED.  FREQUENCY=   658.346
     --- CMOMEGA for CM_SYNCH=  4136.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    80  COMPLETED.  FREQUENCY=   666.680
     --- CMOMEGA for CM_SYNCH=  4188.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    81  COMPLETED.  FREQUENCY=   675.014
     --- CMOMEGA for CM_SYNCH=  4241.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    82  COMPLETED.  FREQUENCY=   683.347
     --- CMOMEGA for CM_SYNCH=  4293.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    83  COMPLETED.  FREQUENCY=   691.681
     --- CMOMEGA for CM_SYNCH=  4346.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    84  COMPLETED.  FREQUENCY=   700.014
     --- CMOMEGA for CM_SYNCH=  4398.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    85  COMPLETED.  FREQUENCY=   708.347
     --- CMOMEGA for CM_SYNCH=  4450.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    86  COMPLETED.  FREQUENCY=   716.681
     --- CMOMEGA for CM_SYNCH=  4503.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    87  COMPLETED.  FREQUENCY=   725.014
     --- CMOMEGA for CM_SYNCH=  4555.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    88  COMPLETED.  FREQUENCY=   733.348
     --- CMOMEGA for CM_SYNCH=  4607.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    89  COMPLETED.  FREQUENCY=   741.682
     --- CMOMEGA for CM_SYNCH=  4660.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    90  COMPLETED.  FREQUENCY=   750.015
     --- CMOMEGA for CM_SYNCH=  4712.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    91  COMPLETED.  FREQUENCY=   758.349
     --- CMOMEGA for CM_SYNCH=  4764.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    92  COMPLETED.  FREQUENCY=   766.682
     --- CMOMEGA for CM_SYNCH=  4817.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    93  COMPLETED.  FREQUENCY=   775.016
     --- CMOMEGA for CM_SYNCH=  4869.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    94  COMPLETED.  FREQUENCY=   783.349
     --- CMOMEGA for CM_SYNCH=  4921.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    95  COMPLETED.  FREQUENCY=   791.683
     --- CMOMEGA for CM_SYNCH=  4974.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    96  COMPLETED.  FREQUENCY=   800.016
     --- CMOMEGA for CM_SYNCH=  5026.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    97  COMPLETED.  FREQUENCY=   808.350
     --- CMOMEGA for CM_SYNCH=  5079.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    98  COMPLETED.  FREQUENCY=   816.683
     --- CMOMEGA for CM_SYNCH=  5131.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    99  COMPLETED.  FREQUENCY=   825.017
     --- CMOMEGA for CM_SYNCH=  5183.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   100  COMPLETED.  FREQUENCY=   833.350
     --- CMOMEGA for CM_SYNCH=  5236.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   101  COMPLETED.  FREQUENCY=   841.683
     --- CMOMEGA for CM_SYNCH=  5288.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   102  COMPLETED.  FREQUENCY=   850.017
     --- CMOMEGA for CM_SYNCH=  5340.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   103  COMPLETED.  FREQUENCY=   858.351
     --- CMOMEGA for CM_SYNCH=  5393.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   104  COMPLETED.  FREQUENCY=   866.684
     --- CMOMEGA for CM_SYNCH=  5445.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   105  COMPLETED.  FREQUENCY=   875.018
     --- CMOMEGA for CM_SYNCH=  5497.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   106  COMPLETED.  FREQUENCY=   883.351
     --- CMOMEGA for CM_SYNCH=  5550.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   107  COMPLETED.  FREQUENCY=   891.685
     --- CMOMEGA for CM_SYNCH=  5602.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   108  COMPLETED.  FREQUENCY=   900.018
     --- CMOMEGA for CM_SYNCH=  5655.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   109  COMPLETED.  FREQUENCY=   908.352
     --- CMOMEGA for CM_SYNCH=  5707.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   110  COMPLETED.  FREQUENCY=   916.685
     --- CMOMEGA for CM_SYNCH=  5759.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   111  COMPLETED.  FREQUENCY=   925.019
     --- CMOMEGA for CM_SYNCH=  5812.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   112  COMPLETED.  FREQUENCY=   933.352
     --- CMOMEGA for CM_SYNCH=  5864.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   113  COMPLETED.  FREQUENCY=   941.686
     --- CMOMEGA for CM_SYNCH=  5916.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   114  COMPLETED.  FREQUENCY=   950.019
     --- CMOMEGA for CM_SYNCH=  5969.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   115  COMPLETED.  FREQUENCY=   958.353
     --- CMOMEGA for CM_SYNCH=  6021.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   116  COMPLETED.  FREQUENCY=   966.686
     --- CMOMEGA for CM_SYNCH=  6073.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   117  COMPLETED.  FREQUENCY=   975.019
     --- CMOMEGA for CM_SYNCH=  6126.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   118  COMPLETED.  FREQUENCY=   983.353
     --- CMOMEGA for CM_SYNCH=  6178.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   119  COMPLETED.  FREQUENCY=   991.687
     --- CMOMEGA for CM_SYNCH=  6231.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   120  COMPLETED.  FREQUENCY=   1000.02
     --- CMOMEGA for CM_SYNCH=  6283.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   121  COMPLETED.  FREQUENCY=   1008.35
     --- CMOMEGA for CM_SYNCH=  6335.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   122  COMPLETED.  FREQUENCY=   1016.69
     --- CMOMEGA for CM_SYNCH=  6388.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   123  COMPLETED.  FREQUENCY=   1025.02
     --- CMOMEGA for CM_SYNCH=  6440.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   124  COMPLETED.  FREQUENCY=   1033.35
     --- CMOMEGA for CM_SYNCH=  6492.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   125  COMPLETED.  FREQUENCY=   1041.69
     --- CMOMEGA for CM_SYNCH=  6545.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   126  COMPLETED.  FREQUENCY=   1050.02
     --- CMOMEGA for CM_SYNCH=  6597.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   127  COMPLETED.  FREQUENCY=   1058.35
     --- CMOMEGA for CM_SYNCH=  6649.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   128  COMPLETED.  FREQUENCY=   1066.69
     --- CMOMEGA for CM_SYNCH=  6702.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   129  COMPLETED.  FREQUENCY=   1075.02
     --- CMOMEGA for CM_SYNCH=  6754.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   130  COMPLETED.  FREQUENCY=   1083.36
     --- CMOMEGA for CM_SYNCH=  6806.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   131  COMPLETED.  FREQUENCY=   1091.69
     --- CMOMEGA for CM_SYNCH=  6859.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   132  COMPLETED.  FREQUENCY=   1100.02
     --- CMOMEGA for CM_SYNCH=  6911.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   133  COMPLETED.  FREQUENCY=   1108.36
     --- CMOMEGA for CM_SYNCH=  6964.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   134  COMPLETED.  FREQUENCY=   1116.69
     --- CMOMEGA for CM_SYNCH=  7016.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   135  COMPLETED.  FREQUENCY=   1125.02
     --- CMOMEGA for CM_SYNCH=  7068.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   136  COMPLETED.  FREQUENCY=   1133.36
     --- CMOMEGA for CM_SYNCH=  7121.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   137  COMPLETED.  FREQUENCY=   1141.69
     --- CMOMEGA for CM_SYNCH=  7173.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   138  COMPLETED.  FREQUENCY=   1150.02
     --- CMOMEGA for CM_SYNCH=  7225.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   139  COMPLETED.  FREQUENCY=   1158.36
     --- CMOMEGA for CM_SYNCH=  7278.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   140  COMPLETED.  FREQUENCY=   1166.69
     --- CMOMEGA for CM_SYNCH=  7330.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   141  COMPLETED.  FREQUENCY=   1175.02
     --- CMOMEGA for CM_SYNCH=  7382.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   142  COMPLETED.  FREQUENCY=   1183.36
     --- CMOMEGA for CM_SYNCH=  7435.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   143  COMPLETED.  FREQUENCY=   1191.69
     --- CMOMEGA for CM_SYNCH=  7487.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   144  COMPLETED.  FREQUENCY=   1200.02
     --- CMOMEGA for CM_SYNCH=  7540.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   145  COMPLETED.  FREQUENCY=   1208.36
     --- CMOMEGA for CM_SYNCH=  7592.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   146  COMPLETED.  FREQUENCY=   1216.69
     --- CMOMEGA for CM_SYNCH=  7644.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   147  COMPLETED.  FREQUENCY=   1225.02
     --- CMOMEGA for CM_SYNCH=  7697.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   148  COMPLETED.  FREQUENCY=   1233.36
     --- CMOMEGA for CM_SYNCH=  7749.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   149  COMPLETED.  FREQUENCY=   1241.69
     --- CMOMEGA for CM_SYNCH=  7801.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   150  COMPLETED.  FREQUENCY=   1250.03
     --- CMOMEGA for CM_SYNCH=  7854.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   151  COMPLETED.  FREQUENCY=   1258.36
     --- CMOMEGA for CM_SYNCH=  7906.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   152  COMPLETED.  FREQUENCY=   1266.69
     --- CMOMEGA for CM_SYNCH=  7958.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   153  COMPLETED.  FREQUENCY=   1275.03
     --- CMOMEGA for CM_SYNCH=  8011.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   154  COMPLETED.  FREQUENCY=   1283.36
     --- CMOMEGA for CM_SYNCH=  8063.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   155  COMPLETED.  FREQUENCY=   1291.69
     --- CMOMEGA for CM_SYNCH=  8115.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   156  COMPLETED.  FREQUENCY=   1300.03
     --- CMOMEGA for CM_SYNCH=  8168.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   157  COMPLETED.  FREQUENCY=   1308.36
     --- CMOMEGA for CM_SYNCH=  8220.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   158  COMPLETED.  FREQUENCY=   1316.69
     --- CMOMEGA for CM_SYNCH=  8273.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   159  COMPLETED.  FREQUENCY=   1325.03
     --- CMOMEGA for CM_SYNCH=  8325.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   160  COMPLETED.  FREQUENCY=   1333.36
     --- CMOMEGA for CM_SYNCH=  8377.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   161  COMPLETED.  FREQUENCY=   1341.69
     --- CMOMEGA for CM_SYNCH=  8430.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   162  COMPLETED.  FREQUENCY=   1350.03
     --- CMOMEGA for CM_SYNCH=  8482.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   163  COMPLETED.  FREQUENCY=   1358.36
     --- CMOMEGA for CM_SYNCH=  8534.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   164  COMPLETED.  FREQUENCY=   1366.69
     --- CMOMEGA for CM_SYNCH=  8587.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   165  COMPLETED.  FREQUENCY=   1375.03
     --- CMOMEGA for CM_SYNCH=  8639.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   166  COMPLETED.  FREQUENCY=   1383.36
     --- CMOMEGA for CM_SYNCH=  8691.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   167  COMPLETED.  FREQUENCY=   1391.69
     --- CMOMEGA for CM_SYNCH=  8744.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   168  COMPLETED.  FREQUENCY=   1400.03
     --- CMOMEGA for CM_SYNCH=  8796.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   169  COMPLETED.  FREQUENCY=   1408.36
     --- CMOMEGA for CM_SYNCH=  8849.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   170  COMPLETED.  FREQUENCY=   1416.69
     --- CMOMEGA for CM_SYNCH=  8901.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   171  COMPLETED.  FREQUENCY=   1425.03
     --- CMOMEGA for CM_SYNCH=  8953.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   172  COMPLETED.  FREQUENCY=   1433.36
     --- CMOMEGA for CM_SYNCH=  9006.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   173  COMPLETED.  FREQUENCY=   1441.70
     --- CMOMEGA for CM_SYNCH=  9058.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   174  COMPLETED.  FREQUENCY=   1450.03
     --- CMOMEGA for CM_SYNCH=  9110.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   175  COMPLETED.  FREQUENCY=   1458.36
     --- CMOMEGA for CM_SYNCH=  9163.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   176  COMPLETED.  FREQUENCY=   1466.70
     --- CMOMEGA for CM_SYNCH=  9215.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   177  COMPLETED.  FREQUENCY=   1475.03
     --- CMOMEGA for CM_SYNCH=  9267.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   178  COMPLETED.  FREQUENCY=   1483.36
     --- CMOMEGA for CM_SYNCH=  9320.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   179  COMPLETED.  FREQUENCY=   1491.70
     --- CMOMEGA for CM_SYNCH=  9372.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   180  COMPLETED.  FREQUENCY=   1500.03
     --- CMOMEGA for CM_SYNCH=  9425.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   181  COMPLETED.  FREQUENCY=   1508.36
     --- CMOMEGA for CM_SYNCH=  9477.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   182  COMPLETED.  FREQUENCY=   1516.70
     --- CMOMEGA for CM_SYNCH=  9529.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   183  COMPLETED.  FREQUENCY=   1525.03
     --- CMOMEGA for CM_SYNCH=  9582.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   184  COMPLETED.  FREQUENCY=   1533.36
     --- CMOMEGA for CM_SYNCH=  9634.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   185  COMPLETED.  FREQUENCY=   1541.70
     --- CMOMEGA for CM_SYNCH=  9686.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   186  COMPLETED.  FREQUENCY=   1550.03
     --- CMOMEGA for CM_SYNCH=  9739.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   187  COMPLETED.  FREQUENCY=   1558.36
     --- CMOMEGA for CM_SYNCH=  9791.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   188  COMPLETED.  FREQUENCY=   1566.70
     --- CMOMEGA for CM_SYNCH=  9843.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   189  COMPLETED.  FREQUENCY=   1575.03
     --- CMOMEGA for CM_SYNCH=  9896.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   190  COMPLETED.  FREQUENCY=   1583.37
     --- CMOMEGA for CM_SYNCH=  9948.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   191  COMPLETED.  FREQUENCY=   1591.70
     --- CMOMEGA for CM_SYNCH=  10001.      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   192  COMPLETED.  FREQUENCY=   1600.03
     --- CMOMEGA for CM_SYNCH=  10053.      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   193  COMPLETED.  FREQUENCY=   1608.37
     --- CMOMEGA for CM_SYNCH=  10106.      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   194  COMPLETED.  FREQUENCY=   1616.70
     --- CMOMEGA for CM_SYNCH=  10158.      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   195  COMPLETED.  FREQUENCY=   1625.03
     --- CMOMEGA for CM_SYNCH=  10210.      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   196  COMPLETED.  FREQUENCY=   1633.37
     --- CMOMEGA for CM_SYNCH=  10263.      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   197  COMPLETED.  FREQUENCY=   1641.70
     --- CMOMEGA for CM_SYNCH=  10315.      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   198  COMPLETED.  FREQUENCY=   1650.03
     --- CMOMEGA for CM_SYNCH=  10367.      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   199  COMPLETED.  FREQUENCY=   1658.37
     --- CMOMEGA for CM_SYNCH=  10420.      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   200  COMPLETED.  FREQUENCY=   1666.70
     --- CMOMEGA for CM_SYNCH=  10472.      0.0000      0.0000


 *** MAPDL BINARY FILE STATISTICS
  BUFFER SIZE USED= 16384
        0.250 MB WRITTEN ON ELEMENT MATRIX FILE: file0.emat
       29.188 MB WRITTEN ON ELEMENT SAVED DATA FILE: file0.esav
       34.062 MB WRITTEN ON ASSEMBLED MATRIX FILE: file0.full
      413.000 MB WRITTEN ON RESULTS FILE: file0.rst
 *************** Write FE CONNECTORS *********

 WRITE OUT CONSTRAINT EQUATIONS TO FILE= file.ce

 FINISH SOLUTION PROCESSING


 ***** ROUTINE COMPLETED *****  CP =       181.469



 PRINTOUT RESUMED BY /GOP

 *GET  _WALLASOL  FROM  ACTI  ITEM=TIME WALL  VALUE=  17.7794444

 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:46:46  JAN 08, 2025 CP=    181.469

 wbnew--Unbalance Response



          ***** MAPDL RESULTS INTERPRETATION (POST1) *****

 *** NOTE ***                            CP =     181.469   TIME= 17:46:46
 The model contains an element type ( COMBI214 ) that operates entirely
 in the nodal coordinate system.  Viewing nodal displacements or forces
 in other than the nodal coordinate system may be invalid.  See the
 elements manual description for more information.

 *** NOTE ***                            CP =     181.469   TIME= 17:46:46
 Reading results into the database (SET command) will update the current
 displacement and force boundary conditions in the database with the
 values from the results file for that load set.  Note that any
 subsequent solutions will use these values unless action is taken to
 either SAVE the current values or not overwrite them (/EXIT,NOSAVE).

 Set Encoding of XML File to:ISO-8859-1

 Set Output of XML File to:
     PARM,     ,     ,     ,     ,     ,     ,     ,     ,     ,     ,     ,
         ,     ,     ,     ,     ,     ,     ,

 DATABASE WRITTEN ON FILE  parm.xml

 EXIT THE MAPDL POST1 DATABASE PROCESSOR


 ***** ROUTINE COMPLETED *****  CP =       181.484



 PRINTOUT RESUMED BY /GOP

 *GET  _WALLDONE  FROM  ACTI  ITEM=TIME WALL  VALUE=  17.7794444

 PARAMETER _PREPTIME =     0.000000000

 PARAMETER _SOLVTIME =     215.0000000

 PARAMETER _POSTTIME =     0.000000000

 PARAMETER _TOTALTIM =     215.0000000

 *GET  _DLBRATIO  FROM  ACTI  ITEM=SOLU DLBR  VALUE=  0.00000000

 *GET  _COMBTIME  FROM  ACTI  ITEM=SOLU COMB  VALUE=  2.82741800

 *GET  _SSMODE   FROM  ACTI  ITEM=SOLU SSMM  VALUE=  2.00000000

 *GET  _NDOFS    FROM  ACTI  ITEM=SOLU NDOF  VALUE=  22781.0000

 /FCLEAN COMMAND REMOVING ALL LOCAL FILES
 --- Total number of nodes = 7698
 --- Total number of elements = 2577
 --- Element load balance ratio = 0
 --- Time to combine distributed files = 2.827418
 --- Sparse memory mode = 2
 --- Number of DOF = 22781

 EXIT MAPDL WITHOUT SAVING DATABASE


 NUMBER OF WARNING MESSAGES ENCOUNTERED=          8
 NUMBER OF ERROR   MESSAGES ENCOUNTERED=          0

+--------------------- M A P D L   S T A T I S T I C S ------------------------+

Release: 2024 R2            Build: 24.2       Update: UP20240603   Platform: WINDOWS x64
Date Run: 01/08/2025   Time: 17:46     Process ID: 20200
Operating System: Windows 11  (Build: 22631)

Processor Model: Intel(R) Xeon(R) Platinum 8171M CPU @ 2.60GHz

Compiler: Intel(R) Fortran Compiler Classic Version 2021.9  (Build: 20230302)
          Intel(R) C/C++ Compiler Classic Version 2021.9  (Build: 20230302)
          Intel(R) oneAPI Math Kernel Library Version 2023.1-Product Build 20230303

Number of machines requested            :    1
Total number of cores available         :    8
Number of physical cores available      :    4
Number of processes requested           :    4
Number of threads per process requested :    1
Total number of cores requested         :    4 (Distributed Memory Parallel)
MPI Type: INTELMPI
MPI Version: Intel(R) MPI Library 2021.11 for Windows* OS


GPU Acceleration: Not Requested

Job Name: file0
Input File: dummy.dat

  Core                Machine Name   Working Directory
 -----------------------------------------------------
     0                 pyworkbench   C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\ScrB8DE
     1                 pyworkbench   C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\ScrB8DE
     2                 pyworkbench   C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\ScrB8DE
     3                 pyworkbench   C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\ScrB8DE

Latency time from master to core     1 =    3.259 microseconds
Latency time from master to core     2 =    3.806 microseconds
Latency time from master to core     3 =    3.655 microseconds

Communication speed from master to core     1 =  4923.05 MB/sec
Communication speed from master to core     2 =  4970.27 MB/sec
Communication speed from master to core     3 =  5002.00 MB/sec

Total CPU time for main thread                    :      181.1 seconds
Total CPU time summed for all threads             :      181.7 seconds

Elapsed time spent obtaining a license            :        0.5 seconds
Elapsed time spent pre-processing model (/PREP7)  :        0.1 seconds
Elapsed time spent solution - preprocessing       :        0.2 seconds
Elapsed time spent computing solution             :      211.1 seconds
Elapsed time spent solution - postprocessing      :        2.8 seconds
Elapsed time spent post-processing model (/POST1) :        0.0 seconds

Equation solver used                              :            Sparse (unsymmetric)
Equation solver computational rate                :        4.5 Gflops

Sum of disk space used on all processes           :     3150.9 MB

Sum of memory used on all processes               :     1125.0 MB
Sum of memory allocated on all processes          :     3960.0 MB
Physical memory available                         :         32 GB
Total amount of I/O written to disk               :       19.2 GB
Total amount of I/O read from disk                :       16.0 GB

+------------------ E N D   M A P D L   S T A T I S T I C S -------------------+


 *-----------------------------------------------------------------------------*
 |                                                                             |
 |                               RUN COMPLETED                                 |
 |                                                                             |
 |-----------------------------------------------------------------------------|
 |                                                                             |
 |  Ansys MAPDL 2024 R2         Build 24.2         UP20240603    WINDOWS x64   |
 |                                                                             |
 |-----------------------------------------------------------------------------|
 |                                                                             |
 |  Database Requested(-db)     1024 MB     Scratch Memory Requested   1024 MB |
 |  Max Database Used(Master)      5 MB     Max Scratch Used(Master)    280 MB |
 |  Max Database Used(Workers)     5 MB     Max Scratch Used(Workers)   275 MB |
 |  Sum Database Used(All)        20 MB     Sum Scratch Used(All)      1105 MB |
 |                                                                             |
 |-----------------------------------------------------------------------------|
 |                                                                             |
 |        CP Time      (sec) =        181.656       Time  =  17:46:46          |
 |        Elapsed Time (sec) =        217.000       Date  =  01/08/2025        |
 |                                                                             |
 *-----------------------------------------------------------------------------*

You can save, archive and download the project using download_project_archive() method.

[26]:
#wb.download_project_archive("test_name", show_progress=True)

Start a PyMechanical server for the 3D rotor model system and create a PyMechanical client session. The project directory is printed to verify the connection.

[27]:
server_port = wb.start_mechanical_server(system_name=sys_name[0])
[28]:
mechanical = connect_to_mechanical(ip='localhost', port=server_port)
[29]:
print(mechanical.project_directory)
C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\wbnew_files\

Read and execute the script rotor_3d.py via the PyMechanical client to mesh and solve the 3D rotor model. The output of the script is printed.

[30]:
with open(scripts / "rotor_3d.py") as sf:
    mech_script = sf.read()
mech_output = mechanical.run_python_script(mech_script)
print(mech_output)
{"Total Deformation": "0.7770134826146281 [mm]", "Total Deformation 2": "0.95766479418025063 [mm]"}

Specify the Mechanical directory for the Modal Campbell Analysis and fetch the working directory path. Download the solver output file (solve.out) from the server to the client’s current working directory and print its contents.

[31]:
mechanical.run_python_script(f"solve_dir=ExtAPI.DataModel.AnalysisList[2].WorkingDir")
result_solve_dir_server = mechanical.run_python_script(f"solve_dir")
print(f"All solver files are stored on the server at: {result_solve_dir_server}")
All solver files are stored on the server at: C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\wbnew_files\dp0\SYS-2\MECH\
[32]:
solve_out_path = os.path.join(result_solve_dir_server, "solve.out")
[33]:
def write_file_contents_to_console(path):
    """Write file contents to console."""
    with open(path, "rt") as file:
        for line in file:
            print(line, end="")
[34]:
current_working_directory = os.getcwd()
mechanical.download(solve_out_path, target_dir=current_working_directory)
solve_out_local_path = os.path.join(current_working_directory, "solve.out")
write_file_contents_to_console(solve_out_local_path)
os.remove(solve_out_local_path)
Downloading dns:///127.0.0.1:55013:C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\wbnew_files\dp0\SYS-2\MECH\solve.out to C:\Users\ansys\actions-runner\_work\pyworkbench-examples\pyworkbench-examples\pyworkbench-examples\doc\source\examples\axisymmetric-rotor\solve.out: 100%|██████████| 82.4k/82.4k [00:00<?, ?B/s]

 Ansys Mechanical Enterprise


 *------------------------------------------------------------------*
 |                                                                  |
 |   W E L C O M E   T O   T H E   A N S Y S (R)  P R O G R A M     |
 |                                                                  |
 *------------------------------------------------------------------*




 ***************************************************************
 *         ANSYS MAPDL 2024 R2          LEGAL NOTICES          *
 ***************************************************************
 *                                                             *
 * Copyright 1971-2024 Ansys, Inc.  All rights reserved.       *
 * Unauthorized use, distribution or duplication is            *
 * prohibited.                                                 *
 *                                                             *
 * Ansys is a registered trademark of Ansys, Inc. or its       *
 * subsidiaries in the United States or other countries.       *
 * See the Ansys, Inc. online documentation or the Ansys, Inc. *
 * documentation CD or online help for the complete Legal      *
 * Notice.                                                     *
 *                                                             *
 ***************************************************************
 *                                                             *
 * THIS ANSYS SOFTWARE PRODUCT AND PROGRAM DOCUMENTATION       *
 * INCLUDE TRADE SECRETS AND CONFIDENTIAL AND PROPRIETARY      *
 * PRODUCTS OF ANSYS, INC., ITS SUBSIDIARIES, OR LICENSORS.    *
 * The software products and documentation are furnished by    *
 * Ansys, Inc. or its subsidiaries under a software license    *
 * agreement that contains provisions concerning               *
 * non-disclosure, copying, length and nature of use,          *
 * compliance with exporting laws, warranties, disclaimers,    *
 * limitations of liability, and remedies, and other           *
 * provisions.  The software products and documentation may be *
 * used, disclosed, transferred, or copied only in accordance  *
 * with the terms and conditions of that software license      *
 * agreement.                                                  *
 *                                                             *
 * Ansys, Inc. is a UL registered                              *
 * ISO 9001:2015 company.                                      *
 *                                                             *
 ***************************************************************
 *                                                             *
 * This product is subject to U.S. laws governing export and   *
 * re-export.                                                  *
 *                                                             *
 * For U.S. Government users, except as specifically granted   *
 * by the Ansys, Inc. software license agreement, the use,     *
 * duplication, or disclosure by the United States Government  *
 * is subject to restrictions stated in the Ansys, Inc.        *
 * software license agreement and FAR 12.212 (for non-DOD      *
 * licenses).                                                  *
 *                                                             *
 ***************************************************************

 2024 R2

 Point Releases and Patches installed:

 Ansys Service Pack 2024 R2.01
 Ansys Service Pack 2024 R2.02
 Ansys Service Pack 2024 R2.03
 Ansys, Inc. License Manager 2024 R2
 Ansys, Inc. License Manager 2024 R2.01
 Ansys, Inc. License Manager 2024 R2.02
 Ansys, Inc. License Manager 2024 R2.03
 Discovery 2024 R2
 Discovery 2024 R2.01
 Discovery 2024 R2.02
 Discovery 2024 R2.03
 Core WB Files 2024 R2
 Core WB Files 2024 R2.01
 Core WB Files 2024 R2.02
 Core WB Files 2024 R2.03
 SpaceClaim 2024 R2
 SpaceClaim 2024 R2.01
 SpaceClaim 2024 R2.02
 SpaceClaim 2024 R2.03
 Icepak (includes CFD-Post) 2024 R2
 Icepak (includes CFD-Post) 2024 R2.01
 Icepak (includes CFD-Post) 2024 R2.02
 Icepak (includes CFD-Post) 2024 R2.03
 CFD-Post only 2024 R2
 CFD-Post only 2024 R2.01
 CFD-Post only 2024 R2.02
 CFD-Post only 2024 R2.03
 CFX (includes CFD-Post) 2024 R2
 CFX (includes CFD-Post) 2024 R2.01
 CFX (includes CFD-Post) 2024 R2.02
 CFX (includes CFD-Post) 2024 R2.03
 Chemkin 2024 R2
 Chemkin 2024 R2.01
 Chemkin 2024 R2.02
 Chemkin 2024 R2.03
 EnSight 2024 R2
 EnSight 2024 R2.01
 EnSight 2024 R2.02
 EnSight 2024 R2.03
 FENSAP-ICE 2024 R2
 FENSAP-ICE 2024 R2.01
 FENSAP-ICE 2024 R2.02
 FENSAP-ICE 2024 R2.03
 Fluent (includes CFD-Post) 2024 R2
 Fluent (includes CFD-Post) 2024 R2.01
 Fluent (includes CFD-Post) 2024 R2.02
 Fluent (includes CFD-Post) 2024 R2.03
 Polyflow (includes CFD-Post) 2024 R2
 Polyflow (includes CFD-Post) 2024 R2.01
 Polyflow (includes CFD-Post) 2024 R2.02
 Polyflow (includes CFD-Post) 2024 R2.03
 Forte (includes EnSight) 2024 R2
 Forte (includes EnSight) 2024 R2.01
 Forte (includes EnSight) 2024 R2.02
 Forte (includes EnSight) 2024 R2.03
 ICEM CFD 2024 R2
 ICEM CFD 2024 R2.01
 ICEM CFD 2024 R2.02
 ICEM CFD 2024 R2.03
 TurboGrid 2024 R2
 TurboGrid 2024 R2.01
 TurboGrid 2024 R2.02
 TurboGrid 2024 R2.03
 Speos 2024 R2
 Speos 2024 R2.01
 Speos 2024 R2.02
 Speos 2024 R2.03
 Speos HPC 2024 R2
 Speos HPC 2024 R2.01
 Speos HPC 2024 R2.02
 Speos HPC 2024 R2.03
 optiSLang 2024 R2
 optiSLang 2024 R2.01
 optiSLang 2024 R2.02
 optiSLang 2024 R2.03
 Remote Solve Manager Standalone Services 2024 R2
 Remote Solve Manager Standalone Services 2024 R2.01
 Remote Solve Manager Standalone Services 2024 R2.02
 Remote Solve Manager Standalone Services 2024 R2.03
 Additive 2024 R2
 Additive 2024 R2.01
 Additive 2024 R2.02
 Additive 2024 R2.03
 Aqwa 2024 R2
 Aqwa 2024 R2.01
 Aqwa 2024 R2.02
 Aqwa 2024 R2.03
 Autodyn 2024 R2
 Autodyn 2024 R2.01
 Autodyn 2024 R2.02
 Autodyn 2024 R2.03
 Customization Files for User Programmable Features 2024 R2
 Customization Files for User Programmable Features 2024 R2.01
 Customization Files for User Programmable Features 2024 R2.02
 Customization Files for User Programmable Features 2024 R2.03
 LS-DYNA 2024 R2
 LS-DYNA 2024 R2.01
 LS-DYNA 2024 R2.02
 LS-DYNA 2024 R2.03
 Mechanical Products 2024 R2
 Mechanical Products 2024 R2.01
 Mechanical Products 2024 R2.02
 Mechanical Products 2024 R2.03
 Motion 2024 R2
 Motion 2024 R2.01
 Motion 2024 R2.02
 Motion 2024 R2.03
 Sherlock 2024 R2
 Sherlock 2024 R2.01
 Sherlock 2024 R2.02
 Sherlock 2024 R2.03
 Sound - SAS 2024 R2
 Sound - SAS 2024 R2.01
 Sound - SAS 2024 R2.02
 Sound - SAS 2024 R2.03
 ACIS Geometry Interface 2024 R2
 ACIS Geometry Interface 2024 R2.01
 ACIS Geometry Interface 2024 R2.02
 ACIS Geometry Interface 2024 R2.03
 AutoCAD Geometry Interface 2024 R2
 AutoCAD Geometry Interface 2024 R2.01
 AutoCAD Geometry Interface 2024 R2.02
 AutoCAD Geometry Interface 2024 R2.03
 Catia, Version 4 Geometry Interface 2024 R2
 Catia, Version 4 Geometry Interface 2024 R2.01
 Catia, Version 4 Geometry Interface 2024 R2.02
 Catia, Version 4 Geometry Interface 2024 R2.03
 Catia, Version 5 Geometry Interface 2024 R2
 Catia, Version 5 Geometry Interface 2024 R2.01
 Catia, Version 5 Geometry Interface 2024 R2.02
 Catia, Version 5 Geometry Interface 2024 R2.03
 Catia, Version 6 Geometry Interface 2024 R2
 Catia, Version 6 Geometry Interface 2024 R2.01
 Catia, Version 6 Geometry Interface 2024 R2.02
 Catia, Version 6 Geometry Interface 2024 R2.03
 Creo Elements/Direct Modeling Geometry Interface 2024 R2
 Creo Elements/Direct Modeling Geometry Interface 2024 R2.01
 Creo Elements/Direct Modeling Geometry Interface 2024 R2.02
 Creo Elements/Direct Modeling Geometry Interface 2024 R2.03
 Creo Parametric Geometry Interface 2024 R2
 Creo Parametric Geometry Interface 2024 R2.01
 Creo Parametric Geometry Interface 2024 R2.02
 Creo Parametric Geometry Interface 2024 R2.03
 Inventor Geometry Interface 2024 R2
 Inventor Geometry Interface 2024 R2.01
 Inventor Geometry Interface 2024 R2.02
 Inventor Geometry Interface 2024 R2.03
 JTOpen Geometry Interface 2024 R2
 JTOpen Geometry Interface 2024 R2.01
 JTOpen Geometry Interface 2024 R2.02
 JTOpen Geometry Interface 2024 R2.03
 NX Geometry Interface 2024 R2
 NX Geometry Interface 2024 R2.01
 NX Geometry Interface 2024 R2.02
 NX Geometry Interface 2024 R2.03
 Parasolid Geometry Interface  2024 R2
 Parasolid Geometry Interface  2024 R2.01
 Parasolid Geometry Interface  2024 R2.02
 Parasolid Geometry Interface  2024 R2.03
 Solid Edge Geometry Interface 2024 R2
 Solid Edge Geometry Interface 2024 R2.01
 Solid Edge Geometry Interface 2024 R2.02
 Solid Edge Geometry Interface 2024 R2.03
 SOLIDWORKS Geometry Interface 2024 R2
 SOLIDWORKS Geometry Interface 2024 R2.01
 SOLIDWORKS Geometry Interface 2024 R2.02
 SOLIDWORKS Geometry Interface 2024 R2.03


          *****  MAPDL COMMAND LINE ARGUMENTS  *****
  BATCH MODE REQUESTED (-b)    = NOLIST
  INPUT FILE COPY MODE (-c)    = COPY
  DISTRIBUTED MEMORY PARALLEL REQUESTED
       4 PARALLEL PROCESSES REQUESTED WITH SINGLE THREAD PER PROCESS
    TOTAL OF     4 CORES REQUESTED
  INPUT FILE NAME              = C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr3EE6\dummy.dat
  OUTPUT FILE NAME             = C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr3EE6\solve.out
  START-UP FILE MODE           = NOREAD
  STOP FILE MODE               = NOREAD

 RELEASE= 2024 R2              BUILD= 24.2      UP20240603   VERSION=WINDOWS x64
 CURRENT JOBNAME=file0  17:48:34  JAN 08, 2025 CP=      0.078


 PARAMETER _DS_PROGRESS =     999.0000000

 /INPUT FILE= ds.dat  LINE=       0



 *** NOTE ***                            CP =       0.391   TIME= 17:48:34
 The /CONFIG,NOELDB command is not valid in a distributed memory
 parallel solution.  Command is ignored.

 *GET  _WALLSTRT  FROM  ACTI  ITEM=TIME WALL  VALUE=  17.8094444

 TITLE=
 wbnew--Modal Campbell (C5)

  ACT Extensions:
      LSDYNA, 2024.2
      5f463412-bd3e-484b-87e7-cbc0a665e474, wbex
 /COM,     ANSYSMotion, 2024.2
      20180725-3f81-49eb-9f31-41364844c769, wbex


 SET PARAMETER DIMENSIONS ON  _WB_PROJECTSCRATCH_DIR
  TYPE=STRI  DIMENSIONS=      248        1        1

 PARAMETER _WB_PROJECTSCRATCH_DIR(1) = C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr3EE6\

 SET PARAMETER DIMENSIONS ON  _WB_SOLVERFILES_DIR
  TYPE=STRI  DIMENSIONS=      248        1        1

 PARAMETER _WB_SOLVERFILES_DIR(1) = C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\wbnew_files\dp0\SYS-2\MECH\

 SET PARAMETER DIMENSIONS ON  _WB_USERFILES_DIR
  TYPE=STRI  DIMENSIONS=      248        1        1

 PARAMETER _WB_USERFILES_DIR(1) = C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\wbnew_files\user_files\
 --- Data in consistent NMM units. See Solving Units in the help system for more

 MPA UNITS SPECIFIED FOR INTERNAL
  LENGTH      = MILLIMETERS (mm)
  MASS        = TONNE (Mg)
  TIME        = SECONDS (sec)
  TEMPERATURE = CELSIUS (C)
  TOFFSET     = 273.0
  FORCE       = NEWTON (N)
  HEAT        = MILLIJOULES (mJ)

 INPUT  UNITS ARE ALSO SET TO MPA

 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:48:34  JAN 08, 2025 CP=      0.422

 wbnew--Modal Campbell (C5)



          ***** MAPDL ANALYSIS DEFINITION (PREP7) *****
 *********** Nodes for the whole assembly ***********
 *********** Nodes for all Remote Points ***********
 *********** Elements for Body 1 'Solid1' ***********
 *********** Elements for Body 2 'Solid4' ***********
 *********** Elements for Body 3 'Solid3' ***********
 *********** Elements for Body 4 'Solid2' ***********
 *********** Send User Defined Coordinate System(s) ***********
 *********** Set Reference Temperature ***********
 *********** Send Materials ***********
 *********** Send Named Selection as Node Component ***********
 *********** Send Named Selection as Node Component ***********
 *********** Send Named Selection as Node Component ***********
 *********** Send Named Selection as Node Component ***********
 *********** Send Named Selection as Element Component ***********
 *********** Create Remote Point "PointMass_RemotePoint" ***********
 *********** Create Remote Point "RemotePoint_Bearing1" ***********
 *********** Create Remote Point "RemotePoint_Bearing2" ***********
 *********** Create Remote Point "RemotePoint_FreeStanding1" ***********
 *********** Create Remote Point "RemotePoint_FreeStanding2" ***********
 *********** Create Remote Point "PointMass_RemotePoint2" ***********
 *********** Create Bearing Connection "RemotePoint_FreeStanding1 To Multiple" *
             Real Constant Set For Above Bearing Connection Is 13
 *********** Create Bearing Connection "RemotePoint_FreeStanding2 To Multiple" *
             Real Constant Set For Above Bearing Connection Is 14
 *********** Construct Remote Mass Using Remote Attachment ***********
 *********** Construct Remote Displacement ***********
 *********** Construct Remote Displacement ***********
 *********** Construct Remote Displacement ***********
 *********** Construct Remote Displacement ***********
 *** Create a component for all remote displacements ***
 *********** Define Rotational Velocity ***********


 ***** ROUTINE COMPLETED *****  CP =         0.984


 --- Number of total nodes = 17554
 --- Number of contact elements = 134
 --- Number of spring elements = 0
 --- Number of bearing elements = 0
 --- Number of solid elements = 10970
 --- Number of condensed parts = 0
 --- Number of total elements = 11111

 *GET  _WALLBSOL  FROM  ACTI  ITEM=TIME WALL  VALUE=  17.8094444

 *****  MAPDL SOLUTION ROUTINE  *****


 PERFORM A MODAL ANALYSIS
  THIS WILL BE A NEW ANALYSIS

 PARAMETER _THICKRATIO =     1.000000000


 USE QRDAMP MODE EXTRACTION METHOD
  EXTRACT     9 MODES
  COMPUTE COMPLEX MODE SHAPES: YES
  NORMALIZE THE MODE SHAPES TO THE MASS MATRIX

 QRDAMP EIGENSOLVER OPTIONS
  REUSE EIGENMODES FROM MODESYM FILE: Yes
  SYMMETRIZE CONTACT STIFFNESS MATRIX AT ELEMENT LEVEL


 CORIOLIS IN STATIONARY REFERENCE FRAME: GYROSCOPIC DAMPING MATRIX WILL BE CALCULATED

 ERASE THE CURRENT DATABASE OUTPUT CONTROL TABLE.


 WRITE ALL  ITEMS TO THE DATABASE WITH A FREQUENCY OF NONE
   FOR ALL APPLICABLE ENTITIES

 WRITE NSOL ITEMS TO THE DATABASE WITH A FREQUENCY OF ALL
   FOR ALL APPLICABLE ENTITIES

 PRINTOUT RESUMED BY /GOP

 WRITE MISC ITEMS TO THE DATABASE WITH A FREQUENCY OF ALL
   FOR THE ENTITIES DEFINED BY COMPONENT _ELMISC


 EXPAND ALL EXTRACTED MODES
  CALCULATE ELEMENT RESULTS AND NODAL DOF SOLUTION
  CALCULATE STRESSES IN ANY DOWNSTREAM MODE SUPERPOSITION EXPANSION PASS

 DO NOT COMBINE ELEMENT SAVE DATA FILES (.esav) AFTER DISTRIBUTED PARALLEL SOLUTION

 DO NOT COMBINE ELEMENT MATRIX FILES (.emat) AFTER DISTRIBUTED PARALLEL SOLUTION

 DO NOT COMBINE ASSEMBLED MATRIX FILES (.full) AFTER DISTRIBUTED PARALLEL SOLUTION
 ---------------- Campbell diagram point 1 ----------------

 CMOMEGA on component= CM_ROTVELCITY132
  OMEGAX, OMEGAY, OMEGAZ=  0.10472E-14  0.0000      0.0000
  X1, Y1, Z1=   0.0000      0.0000      0.0000

 *GET  ANSINTER_  FROM  ACTI  ITEM=INT        VALUE=  0.00000000

 *IF  ANSINTER_  ( =   0.00000     )  NE
      0  ( =   0.00000     )  THEN

 *ENDIF

 *** NOTE ***                            CP =       1.047   TIME= 17:48:34
 The automatic domain decomposition logic has selected the MESH domain
 decomposition method with 4 processes per solution.

 *****  MAPDL SOLVE    COMMAND  *****

 *** WARNING ***                         CP =       1.250   TIME= 17:48:34
 Element shape checking is currently inactive.  Issue SHPP,ON or
 SHPP,WARN to reactivate, if desired.

 *** WARNING ***                         CP =       1.266   TIME= 17:48:34
 Make sure that the rotating element component 1 (component name
 CM_ROTVELCITY132) is axisymmetric about the axis of spin defined by
 the CMOMEGA command to correctly account for the gyroscopic effect in
 the stationary reference frame (CORIOLIS, ON,,, ON).

 *** WARNING ***                         CP =       1.266   TIME= 17:48:34
 Make sure that the rotating element component 1 (component name
 CM_ROTVELCITY132) is axisymmetric about the axis of spin defined by
 the CMOMEGA command to correctly account for the gyroscopic effect in
 the stationary reference frame (CORIOLIS, ON,,, ON).

 *** WARNING ***                         CP =       1.266   TIME= 17:48:34
 Make sure that the rotating element component 1 (component name
 CM_ROTVELCITY132) is axisymmetric about the axis of spin defined by
 the CMOMEGA command to correctly account for the gyroscopic effect in
 the stationary reference frame (CORIOLIS, ON,,, ON).

 *** WARNING ***                         CP =       1.266   TIME= 17:48:34
 Make sure that the rotating element component 1 (component name
 CM_ROTVELCITY132) is axisymmetric about the axis of spin defined by
 the CMOMEGA command to correctly account for the gyroscopic effect in
 the stationary reference frame (CORIOLIS, ON,,, ON).

 *** NOTE ***                            CP =       1.328   TIME= 17:48:34
 The model data was checked and warning messages were found.
  Please review output or errors file (
 C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr3
 3EE6\file0.err ) for these warning messages.

 *** SELECTION OF ELEMENT TECHNOLOGIES FOR APPLICABLE ELEMENTS ***
      --- GIVE SUGGESTIONS AND RESET THE KEY OPTIONS ---

 ELEMENT TYPE         1 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.

 ELEMENT TYPE         2 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.

 ELEMENT TYPE         3 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.

 ELEMENT TYPE         4 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.



 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:48:34  JAN 08, 2025 CP=      1.328

 wbnew--Modal Campbell (C5)



                       S O L U T I O N   O P T I O N S

   PROBLEM DIMENSIONALITY. . . . . . . . . . . . .3-D
   DEGREES OF FREEDOM. . . . . . UX   UY   UZ   ROTX ROTY ROTZ
   ANALYSIS TYPE . . . . . . . . . . . . . . . . .MODAL
      EXTRACTION METHOD. . . . . . . . . . . . . .QRDAMP
      QRDAMP BASE EIGENSOLVER. . . . . . . . . . .BLOCK LANCZOS
      COMPLEX SOLUTION OUTPUT. . . . . . . . . . .ON
   OFFSET TEMPERATURE FROM ABSOLUTE ZERO . . . . .  273.15
   NUMBER OF MODES TO EXTRACT. . . . . . . . . . .     9
   GLOBALLY ASSEMBLED MATRIX . . . . . . . . . . .UNSYMMETRIC
   NUMBER OF MODES TO EXPAND . . . . . . . . . . .ALL
   ELEMENT RESULTS CALCULATION . . . . . . . . . .ON

 *** WARNING ***                         CP =       1.359   TIME= 17:48:34
 Material number 13 (used by element 13909) should normally have at
 least one MP or one TB type command associated with it.  Output of
 energy by material may not be available.

 *** NOTE ***                            CP =       1.375   TIME= 17:48:34
 The step data was checked and warning messages were found.
  Please review output or errors file (
 C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr3
 3EE6\file0.err ) for these warning messages.

 *** NOTE ***                            CP =       1.422   TIME= 17:48:34
 Internal nodes from 17555 to 17558 are created.
 4 internal nodes are used for handling degrees of freedom on pilot
 nodes of rigid target surfaces.

 *** NOTE ***                            CP =       1.500   TIME= 17:48:34
 Internal nodes from 17555 to 17558 are created.
 4 internal nodes are used for handling degrees of freedom on pilot
 nodes of rigid target surfaces.
 *WARNING*: Some MPC/Lagrange based elements (e.g.13911) in real
 constant set 5 overlap with other MPC/Lagrange based elements
 (e.g.13998) in real constant set 11 which can cause overconstraint.

 *** NOTE ***                            CP =       1.578   TIME= 17:48:34
 Force-distributed-surface identified by real constant set 5 and
 contact element type 5 has been set up.  The pilot node 17545 is used
 to apply the force which connects to other element 14049.  Internal
 MPC will be built.
 The used degrees of freedom set is  UX   UY   UZ   ROTX ROTY ROTZ
 *WARNING*: Certain contact elements (for example 13960&14047) overlap
 each other.
 ****************************************


 *** NOTE ***                            CP =       1.578   TIME= 17:48:34
 Force-distributed-surface identified by real constant set 7 and
 contact element type 7 has been set up.  The pilot node 17546 is used
 to apply the force which connects to other element 13909.  Internal
 MPC will be built.
 The used degrees of freedom set is  UX   UY   UZ   ROTX ROTY ROTZ
 ****************************************


 *** NOTE ***                            CP =       1.578   TIME= 17:48:34
 Force-distributed-surface identified by real constant set 9 and
 contact element type 9 has been set up.  The pilot node 17547 is used
 to apply the force which connects to other element 13910.  Internal
 MPC will be built.
 The used degrees of freedom set is  UX   UY   UZ   ROTX ROTY ROTZ
 ****************************************


 *** NOTE ***                            CP =       1.578   TIME= 17:48:34
 Force-distributed-surface identified by real constant set 11 and
 contact element type 11 has been set up.  The pilot node 17550 is used
 to apply the force.  Internal MPC will be built.
 The used degrees of freedom set is  UX   UY   UZ   ROTX ROTY ROTZ
 *WARNING*: Most likely no MPC equations will be built due to
 overlapping with other pairs (i.e.  Real constant set 5).
 Please verify constraints (including rotational degrees of freedom)
  on the pilot node by yourself.
 ****************************************


 *** WARNING ***                         CP =       1.578   TIME= 17:48:34
 Overconstraint may occur for Lagrange multiplier or MPC based contact
 algorithm.
 The reasons for possible overconstraint are:

 *** WARNING ***                         CP =       1.578   TIME= 17:48:34
 Certain contact elements (for example 13960 & 14047) overlap with
 other.

 *** WARNING ***                         CP =       1.578   TIME= 17:48:34
 Certain contact pairs (for example 11 & 5) overlap with other.
 ****************************************



 *** NOTE ***                            CP =       1.625   TIME= 17:48:34
 Internal nodes from 17555 to 17558 are created.
 4 internal nodes are used for handling degrees of freedom on pilot
 nodes of rigid target surfaces.



     D I S T R I B U T E D   D O M A I N   D E C O M P O S E R

  ...Number of elements: 11111
  ...Number of nodes:    17558
  ...Decompose to 4 CPU domains
  ...Element load balance ratio =     1.001


                      L O A D   S T E P   O P T I O N S

   LOAD STEP NUMBER. . . . . . . . . . . . . . . .     1
   THERMAL STRAINS INCLUDED IN THE LOAD VECTOR . .   YES
   CORIOLIS EFFECT IN STATIONARY REF. FRAME  . . .    ON
   REUSE EIGENMODES FOR QRDAMP SOLVER. . . . . . .YES
   PRINT OUTPUT CONTROLS . . . . . . . . . . . . .NO PRINTOUT
   DATABASE OUTPUT CONTROLS
      ITEM     FREQUENCY   COMPONENT
       ALL       NONE
      NSOL        ALL
      MISC        ALL       _ELMISC



                         ***********  PRECISE MASS SUMMARY  ***********

   TOTAL RIGID BODY MASS MATRIX ABOUT ORIGIN
               Translational mass               |   Coupled translational/rotational mass
        0.38541E-02    0.0000        0.0000     |     0.0000      -0.31030E-07   0.13548E-06
         0.0000       0.38541E-02    0.0000     |    0.31030E-07    0.0000       0.62248
         0.0000        0.0000       0.38541E-02 |   -0.13548E-06  -0.62248        0.0000
     ------------------------------------------ | ------------------------------------------
                                                |         Rotational mass (inertia)
                                                |     2.7505       0.15255E-04   0.91712E-05
                                                |    0.15255E-04    149.58      -0.22072E-05
                                                |    0.91712E-05  -0.22072E-05    149.58

   TOTAL MASS = 0.38541E-02
     The mass principal axes coincide with the global Cartesian axes

   CENTER OF MASS (X,Y,Z)=    161.51      -0.35152E-04  -0.80514E-05

   TOTAL INERTIA ABOUT CENTER OF MASS
         2.7505      -0.66264E-05   0.41594E-05
       -0.66264E-05    49.038      -0.22072E-05
        0.41594E-05  -0.22072E-05    49.038
     The inertia principal axes coincide with the global Cartesian axes


  *** MASS SUMMARY BY ELEMENT TYPE ***

  TYPE      MASS
     1  0.788597E-03
     2  0.274317E-03
     3  0.768710E-03
     4  0.621430E-03
    15  0.140100E-02

 Range of element maximum matrix coefficients in global coordinates
 Maximum = 8468651.17 at element 4255.
 Minimum = 35030 at element 13909.

   *** ELEMENT MATRIX FORMULATION TIMES
     TYPE    NUMBER   ENAME      TOTAL CP  AVE CP

        1      3498  SOLID187      0.562   0.000161
        2      1408  SOLID187      0.266   0.000189
        3      3842  SOLID187      0.688   0.000179
        4      2222  SOLID187      0.297   0.000134
        5        50  CONTA174      0.000   0.000000
        6         1  TARGE170      0.000   0.000000
        7        17  CONTA174      0.000   0.000000
        8         1  TARGE170      0.000   0.000000
        9        17  CONTA174      0.000   0.000000
       10         1  TARGE170      0.000   0.000000
       11        50  CONTA174      0.000   0.000000
       12         1  TARGE170      0.000   0.000000
       13         1  COMBI214      0.000   0.000000
       14         1  COMBI214      0.000   0.000000
       15         1  MASS21        0.000   0.000000
 Time at end of element matrix formulation CP = 3.125.

   *** GYROSCOPIC DAMPING MATRIX CALCULATED FOR LISTED ELEMENTS:
     TYPE     NUMBER   ENAME

        1      3498  SOLID187
        2      1408  SOLID187
        3      3842  SOLID187
        4      2222  SOLID187
       15         1  MASS21


  BLOCK LANCZOS CALCULATION OF UP TO     9 EIGENVECTORS.
  NUMBER OF EQUATIONS              =        52628
  MAXIMUM WAVEFRONT                =          373
  MAXIMUM MODES STORED             =            9
  MINIMUM EIGENVALUE               =  0.00000E+00
  MAXIMUM EIGENVALUE               =  0.10000E+31



  Memory allocated on only this MPI rank (rank     0)
  -------------------------------------------------------------------
  Equation solver memory allocated                     =    59.970 MB
  Equation solver memory required for in-core mode     =    57.160 MB
  Equation solver memory required for out-of-core mode =    27.165 MB
  Total (solver and non-solver) memory allocated       =   659.516 MB


  Total memory summed across all MPI ranks on this machines
  -------------------------------------------------------------------
  Equation solver memory allocated                     =   252.404 MB
  Equation solver memory required for in-core mode     =   240.579 MB
  Equation solver memory required for out-of-core mode =   108.683 MB
  Total (solver and non-solver) memory allocated       =  1739.095 MB

 *** NOTE ***                            CP =       4.141   TIME= 17:48:37
 The Distributed Sparse Matrix Solver used by the Block Lanczos
 eigensolver is currently running in the in-core memory mode.  This
 memory mode uses the most amount of memory in order to avoid using the
 hard drive as much as possible, which most often results in the
 fastest solution time.  This mode is recommended if enough physical
 memory is present to accommodate all of the solver data.

  Process memory required for in-core LANCZOS Workspace             =     62.763954 MB
  Process memory required for out-of-core LANCZOS Workspace         =     1.965889 MB

  Total   memory required for in-core LANCZOS Workspace             =     232.133514 MB
  Total   memory required for out-of-core LANCZOS Workspace         =     7.413025 MB

  Lanczos Memory Mode : INCORE


  >> Shift # 1 :  |                                  : 9 Eigenvalues Converged


 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:48:38  JAN 08, 2025 CP=      5.078

 wbnew--Modal Campbell (C5)



 *** UNDAMPED FREQUENCIES FROM BLOCK LANCZOS ITERATION ***

  MODE    FREQUENCY (HERTZ)


    1     189.1898145226
    2     207.9876132983
    3     639.0605422493
    4     658.8539992383
    5     735.3975262256
    6     810.6490114470
    7     991.0151537309
    8     1776.767736641
    9     1777.727070344

 Time at end of state-space matrix formulation CP = 5.140625.

  ***** DAMPED FREQUENCIES FROM REDUCED DAMPED EIGENSOLVER *****

               COMPLEX FREQUENCY (HERTZ)
  MODE     STABILITY            FREQUENCY         MODAL DAMPING RATIO


    1       0.0000000           189.18981    j       0.0000000
    2       0.0000000           207.98761    j       0.0000000
    3       0.0000000           639.06054    j       0.0000000
    4       0.0000000           658.85400    j       0.0000000
    5       0.0000000           735.39753    j       0.0000000
    6       0.0000000           810.64901    j       0.0000000
    7       0.0000000           991.01515    j       0.0000000
    8       0.0000000           1776.7677    j       0.0000000
    9       0.0000000           1777.7271    j       0.0000000

 Time at end of eigenproblem resolution CP = 5.15625.

 Time at end of mode shape normalization CP = 5.21875.

   *** ELEMENT RESULT CALCULATION TIMES
     TYPE    NUMBER   ENAME      TOTAL CP  AVE CP

        1      3498  SOLID187      0.188   0.000054
        2      1408  SOLID187      0.078   0.000055
        3      3842  SOLID187      0.266   0.000069
        4      2222  SOLID187      0.156   0.000070
        5        50  CONTA174      0.000   0.000000
        7        17  CONTA174      0.000   0.000000
        9        17  CONTA174      0.000   0.000000
       11        50  CONTA174      0.000   0.000000
       13         1  COMBI214      0.000   0.000000
       14         1  COMBI214      0.000   0.000000
       15         1  MASS21        0.000   0.000000

   *** NODAL LOAD CALCULATION TIMES
     TYPE    NUMBER   ENAME      TOTAL CP  AVE CP

        1      3498  SOLID187      0.031   0.000009
        2      1408  SOLID187      0.000   0.000000
        3      3842  SOLID187      0.000   0.000000
        4      2222  SOLID187      0.031   0.000014
        5        50  CONTA174      0.000   0.000000
        7        17  CONTA174      0.000   0.000000
        9        17  CONTA174      0.000   0.000000
       11        50  CONTA174      0.000   0.000000
       13         1  COMBI214      0.000   0.000000
       14         1  COMBI214      0.000   0.000000
       15         1  MASS21        0.000   0.000000

 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:48:42  JAN 08, 2025 CP=      9.188

 wbnew--Modal Campbell (C5)





          ***** PARTICIPATION FACTOR CALCULATION *****  X  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
     1     189.190       0.52857E-02  -0.63546E-05    0.190045    0.403808E-10    0.203904E-01    0.104775E-07
     2     207.988       0.48080E-02   0.47074E-05    0.140783    0.221596E-10    0.315800E-01    0.574968E-08
     3     639.061       0.15648E-02  -0.33437E-04    1.000000    0.111805E-08    0.596142        0.290096E-06
     4     658.854       0.15178E-02   0.26430E-04    0.790452    0.698571E-09    0.948888        0.181256E-06
     5     735.398       0.13598E-02  -0.13379E-05    0.040011    0.178987E-11    0.949792        0.464413E-09
     6     810.649       0.12336E-02   0.97198E-05    0.290687    0.944741E-10    0.997497        0.245129E-07
     7     991.015       0.10091E-02  -0.24351E-06    0.007283    0.592969E-13    0.997527        0.153856E-10
     8     1776.77       0.56282E-03  -0.20950E-05    0.062656    0.438915E-11    0.999743        0.113884E-08
     9     1777.73       0.56252E-03   0.71311E-06    0.021327    0.508526E-12     1.00000        0.131946E-09
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.198038E-08                    0.513843E-06
 -----------------------------------------------------------------------------------------------------------------



          ***** PARTICIPATION FACTOR CALCULATION *****  Y  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
     1     189.190       0.52857E-02   0.23925E-01    0.692522    0.572424E-03    0.150703        0.148525
     2     207.988       0.48080E-02   0.23247E-01    0.672883    0.540418E-03    0.292979        0.140221
     3     639.061       0.15648E-02   0.22763E-01    0.658885    0.518166E-03    0.429397        0.134447
     4     658.854       0.15178E-02   0.28638E-01    0.828920    0.820118E-03    0.645311        0.212794
     5     735.398       0.13598E-02  -0.12376E-01    0.358228    0.153169E-03    0.685636        0.397422E-01
     6     810.649       0.12336E-02  -0.34548E-01    1.000000    0.119358E-02    0.999870        0.309694
     7     991.015       0.10091E-02   0.84868E-06    0.000025    0.720260E-12    0.999870        0.186884E-09
     8     1776.77       0.56282E-03  -0.46974E-03    0.013597    0.220653E-06    0.999928        0.572522E-04
     9     1777.73       0.56252E-03   0.52196E-03    0.015108    0.272442E-06     1.00000        0.706898E-04
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.379836E-02                    0.985551
 -----------------------------------------------------------------------------------------------------------------



          ***** PARTICIPATION FACTOR CALCULATION *****  Z  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
     1     189.190       0.52857E-02   0.23947E-01    0.693263    0.573441E-03    0.150972        0.148789
     2     207.988       0.48080E-02  -0.23222E-01    0.672297    0.539281E-03    0.292951        0.139926
     3     639.061       0.15648E-02   0.22786E-01    0.659668    0.519209E-03    0.429646        0.134718
     4     658.854       0.15178E-02   0.28635E-01    0.829001    0.819978E-03    0.645526        0.212757
     5     735.398       0.13598E-02   0.12360E-01    0.357826    0.152769E-03    0.685746        0.396385E-01
     6     810.649       0.12336E-02   0.34542E-01    1.000000    0.119314E-02    0.999870        0.309581
     7     991.015       0.10091E-02  -0.13381E-05    0.000039    0.179057E-11    0.999870        0.464594E-09
     8     1776.77       0.56282E-03  -0.32818E-03    0.009501    0.107699E-06    0.999898        0.279443E-04
     9     1777.73       0.56252E-03  -0.62130E-03    0.017987    0.386016E-06     1.00000        0.100158E-03
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.379831E-02                    0.985538
 -----------------------------------------------------------------------------------------------------------------

 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:48:42  JAN 08, 2025 CP=      9.188

 wbnew--Modal Campbell (C5)





          ***** PARTICIPATION FACTOR CALCULATION *****  X  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
  IMAGINARY COMPONENT

     1     189.190       0.52857E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     2     207.988       0.48080E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     3     639.061       0.15648E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     4     658.854       0.15178E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     5     735.398       0.13598E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     6     810.649       0.12336E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     7     991.015       0.10091E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     8     1776.77       0.56282E-03    0.0000        0.000000     0.00000         0.00000         0.00000
     9     1777.73       0.56252E-03    0.0000        0.000000     0.00000         0.00000         0.00000



          ***** PARTICIPATION FACTOR CALCULATION *****  Y  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
  IMAGINARY COMPONENT

     1     189.190       0.52857E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     2     207.988       0.48080E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     3     639.061       0.15648E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     4     658.854       0.15178E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     5     735.398       0.13598E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     6     810.649       0.12336E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     7     991.015       0.10091E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     8     1776.77       0.56282E-03    0.0000        0.000000     0.00000         0.00000         0.00000
     9     1777.73       0.56252E-03    0.0000        0.000000     0.00000         0.00000         0.00000



          ***** PARTICIPATION FACTOR CALCULATION *****  Z  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
  IMAGINARY COMPONENT

     1     189.190       0.52857E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     2     207.988       0.48080E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     3     639.061       0.15648E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     4     658.854       0.15178E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     5     735.398       0.13598E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     6     810.649       0.12336E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     7     991.015       0.10091E-02    0.0000        0.000000     0.00000         0.00000         0.00000
     8     1776.77       0.56282E-03    0.0000        0.000000     0.00000         0.00000         0.00000
     9     1777.73       0.56252E-03    0.0000        0.000000     0.00000         0.00000         0.00000


 *** MAPDL BINARY FILE STATISTICS
  BUFFER SIZE USED= 16384
       59.375 MB WRITTEN ON ELEMENT MATRIX FILE: file0.emat
        1.500 MB WRITTEN ON ELEMENT SAVED DATA FILE: file0.esav
       19.312 MB WRITTEN ON ASSEMBLED MATRIX FILE: file0.full
        2.625 MB WRITTEN ON MODAL MATRIX FILE: file0.mode
        3.125 MB WRITTEN ON RESULTS FILE: file0.rst
 *************** Write FE CONNECTORS *********

 WRITE OUT CONSTRAINT EQUATIONS TO FILE= file.ce
 ---------------- Campbell diagram point 2 ----------------

 CMOMEGA on component= CM_ROTVELCITY132
  OMEGAX, OMEGAY, OMEGAZ=   5236.0      0.0000      0.0000
  X1, Y1, Z1=   0.0000      0.0000      0.0000

 *****  MAPDL SOLVE    COMMAND  *****

 *** WARNING ***                         CP =       9.453   TIME= 17:48:42
 Material number 13 (used by element 13909) should normally have at
 least one MP or one TB type command associated with it.  Output of
 energy by material may not be available.

 *** NOTE ***                            CP =       9.469   TIME= 17:48:42
 The step data was checked and warning messages were found.
  Please review output or errors file (
 C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr3
 3EE6\file0.err ) for these warning messages.

 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:48:43  JAN 08, 2025 CP=      9.578

 wbnew--Modal Campbell (C5)



                      L O A D   S T E P   O P T I O N S

   LOAD STEP NUMBER. . . . . . . . . . . . . . . .     2
   THERMAL STRAINS INCLUDED IN THE LOAD VECTOR . .   YES
   CORIOLIS EFFECT IN STATIONARY REF. FRAME  . . .    ON
   REUSE EIGENMODES FOR QRDAMP SOLVER. . . . . . .YES
   PRINT OUTPUT CONTROLS . . . . . . . . . . . . .NO PRINTOUT
   DATABASE OUTPUT CONTROLS
      ITEM     FREQUENCY   COMPONENT
       ALL       NONE
      NSOL        ALL
      MISC        ALL       _ELMISC


   *** GYROSCOPIC DAMPING MATRIX CALCULATED FOR LISTED ELEMENTS:
     TYPE     NUMBER   ENAME

        1      3498  SOLID187
        2      1408  SOLID187
        3      3842  SOLID187
        4      2222  SOLID187
       15         1  MASS21


 *** WARNING ***                         CP =      11.062   TIME= 17:48:44
 The file0.modesym file does exist and is being used for the QR damp
 eigensolution since the ReuseKey is set to ON on the QRDOPT command.

 Time at end of state-space matrix formulation CP = 11.109375.

  ***** DAMPED FREQUENCIES FROM REDUCED DAMPED EIGENSOLVER *****

               COMPLEX FREQUENCY (HERTZ)
  MODE     STABILITY            FREQUENCY         MODAL DAMPING RATIO


    1       0.0000000           168.31116    j       0.0000000
    2       0.0000000           231.85840    j       0.0000000
    3       0.0000000           628.55118    j       0.0000000
    4       0.0000000           656.05083    j       0.0000000
    5       0.0000000           754.87782    j       0.0000000
    6       0.0000000           812.95857    j       0.0000000
    7       0.0000000           991.01515    j       0.0000000
    8       0.0000000           1759.5985    j       0.0000000
    9       0.0000000           1795.3315    j       0.0000000

 Time at end of eigenproblem resolution CP = 11.109375.

 Time at end of mode shape normalization CP = 11.140625.

 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:48:48  JAN 08, 2025 CP=     15.188

 wbnew--Modal Campbell (C5)





          ***** PARTICIPATION FACTOR CALCULATION *****  X  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
     1     168.311       0.59414E-02  -0.46580E-05    0.130375    0.216971E-10    0.125821E-01    0.562969E-08
     2     231.858       0.43130E-02   0.36622E-05    0.102502    0.134114E-10    0.203593E-01    0.347982E-08
     3     628.551       0.15910E-02  -0.35728E-04    1.000000    0.127648E-08    0.760583        0.331204E-06
     4     656.051       0.15243E-02   0.17776E-04    0.497536    0.315982E-09    0.943820        0.819870E-07
     5     754.878       0.13247E-02  -0.97387E-06    0.027258    0.948422E-12    0.944370        0.246084E-09
     6     812.959       0.12301E-02   0.96797E-05    0.270928    0.936962E-10    0.998704        0.243111E-07
     7     991.015       0.10091E-02  -0.24353E-06    0.006816    0.593052E-13    0.998739        0.153878E-10
     8     1759.60       0.56831E-03  -0.13638E-05    0.038172    0.185994E-11    0.999817        0.482593E-09
     9     1795.33       0.55700E-03   0.56119E-06    0.015707    0.314932E-12     1.00000        0.817144E-10
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.172445E-08                    0.447437E-06
 -----------------------------------------------------------------------------------------------------------------



          ***** PARTICIPATION FACTOR CALCULATION *****  Y  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
     1     168.311       0.59414E-02   0.19135E-01    0.560149    0.366137E-03    0.109838        0.950004E-01
     2     231.858       0.43130E-02   0.18710E-01    0.547714    0.350061E-03    0.214853        0.908293E-01
     3     628.551       0.15910E-02   0.16055E-01    0.469987    0.257755E-03    0.292178        0.668790E-01
     4     656.051       0.15243E-02   0.32770E-01    0.959298    0.107385E-02    0.614324        0.278629
     5     754.878       0.13247E-02  -0.10885E-01    0.318642    0.118479E-03    0.649866        0.307414E-01
     6     812.959       0.12301E-02  -0.34160E-01    1.000000    0.116691E-02    0.999929        0.302774
     7     991.015       0.10091E-02   0.84193E-06    0.000025    0.708844E-12    0.999929        0.183922E-09
     8     1759.60       0.56831E-03  -0.37988E-03    0.011120    0.144305E-06    0.999972        0.374425E-04
     9     1795.33       0.55700E-03   0.30488E-03    0.008925    0.929491E-07     1.00000        0.241172E-04
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.333343E-02                    0.864915
 -----------------------------------------------------------------------------------------------------------------



          ***** PARTICIPATION FACTOR CALCULATION *****  Z  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
     1     168.311       0.59414E-02   0.19152E-01    0.560756    0.366793E-03    0.110036        0.951707E-01
     2     231.858       0.43130E-02  -0.18690E-01    0.547230    0.349311E-03    0.214829        0.906348E-01
     3     628.551       0.15910E-02   0.16076E-01    0.470708    0.258451E-03    0.292363        0.670594E-01
     4     656.051       0.15243E-02   0.32772E-01    0.959543    0.107400E-02    0.614558        0.278667
     5     754.878       0.13247E-02   0.10870E-01    0.318261    0.118152E-03    0.650003        0.306566E-01
     6     812.959       0.12301E-02   0.34154E-01    1.000000    0.116647E-02    0.999939        0.302661
     7     991.015       0.10091E-02  -0.13323E-05    0.000039    0.177492E-11    0.999939        0.460533E-09
     8     1759.60       0.56831E-03  -0.26018E-03    0.007618    0.676911E-07    0.999960        0.175636E-04
     9     1795.33       0.55700E-03  -0.36713E-03    0.010749    0.134781E-06     1.00000        0.349713E-04
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.333338E-02                    0.864901
 -----------------------------------------------------------------------------------------------------------------

 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:48:48  JAN 08, 2025 CP=     15.188

 wbnew--Modal Campbell (C5)





          ***** PARTICIPATION FACTOR CALCULATION *****  X  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
  IMAGINARY COMPONENT

     1     168.311       0.59414E-02   0.27602E-05    0.177343    0.761846E-11    0.268019E-01    0.197674E-08
     2     231.858       0.43130E-02  -0.49117E-05    0.315584    0.241252E-10    0.111675        0.625969E-08
     3     628.551       0.15910E-02   0.91224E-06    0.058613    0.832191E-12    0.114602        0.215926E-09
     4     656.051       0.15243E-02  -0.84342E-06    0.054191    0.711364E-12    0.117105        0.184576E-09
     5     754.878       0.13247E-02   0.15564E-04    1.000000    0.242237E-09    0.969301        0.628527E-07
     6     812.959       0.12301E-02  -0.24239E-05    0.155739    0.587536E-11    0.989971        0.152446E-08
     7     991.015       0.10091E-02    0.0000        0.000000     0.00000        0.989971         0.00000
     8     1759.60       0.56831E-03  -0.44662E-06    0.028696    0.199470E-12    0.990673        0.517559E-10
     9     1795.33       0.55700E-03   0.16283E-05    0.104618    0.265127E-11     1.00000        0.687918E-09
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.284251E-09                    0.737537E-07
 -----------------------------------------------------------------------------------------------------------------



          ***** PARTICIPATION FACTOR CALCULATION *****  Y  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
  IMAGINARY COMPONENT

     1     168.311       0.59414E-02   0.13033E-01    0.841970    0.169862E-03    0.362167        0.440737E-01
     2     231.858       0.43130E-02   0.15479E-01    1.000000    0.239609E-03    0.873042        0.621707E-01
     3     628.551       0.15910E-02   0.64212E-02    0.414822    0.412313E-04    0.960952        0.106982E-01
     4     656.051       0.15243E-02   0.28617E-02    0.184876    0.818960E-05    0.978413        0.212493E-02
     5     754.878       0.13247E-02  -0.15046E-02    0.097203    0.226391E-05    0.983240        0.587411E-03
     6     812.959       0.12301E-02  -0.27554E-02    0.178008    0.759249E-05    0.999428        0.197000E-02
     7     991.015       0.10091E-02   0.11911E-06    0.000008    0.141871E-13    0.999428        0.368108E-11
     8     1759.60       0.56831E-03  -0.43482E-03    0.028090    0.189064E-06    0.999831        0.490559E-04
     9     1795.33       0.55700E-03   0.28130E-03    0.018172    0.791285E-07     1.00000        0.205312E-04
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.469017E-03                    0.121695
 -----------------------------------------------------------------------------------------------------------------



          ***** PARTICIPATION FACTOR CALCULATION *****  Z  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
  IMAGINARY COMPONENT

     1     168.311       0.59414E-02  -0.13019E-01    0.840341    0.169507E-03    0.361312        0.439815E-01
     2     231.858       0.43130E-02   0.15493E-01    1.000000    0.240036E-03    0.872959        0.622814E-01
     3     628.551       0.15910E-02  -0.64172E-02    0.414199    0.411807E-04    0.960738        0.106850E-01
     4     656.051       0.15243E-02  -0.28652E-02    0.184934    0.820938E-05    0.978236        0.213006E-02
     5     754.878       0.13247E-02  -0.15171E-02    0.097924    0.230173E-05    0.983143        0.597224E-03
     6     812.959       0.12301E-02  -0.27577E-02    0.177997    0.760505E-05    0.999353        0.197326E-02
     7     991.015       0.10091E-02   0.15514E-07    0.000001    0.240684E-15    0.999353        0.624495E-13
     8     1759.60       0.56831E-03   0.51283E-03    0.033101    0.262998E-06    0.999914        0.682393E-04
     9     1795.33       0.55700E-03   0.20130E-03    0.012993    0.405235E-07     1.00000        0.105145E-04
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.469143E-03                    0.121727
 -----------------------------------------------------------------------------------------------------------------
 ---------------- Campbell diagram point 3 ----------------

 CMOMEGA on component= CM_ROTVELCITY132
  OMEGAX, OMEGAY, OMEGAZ=   10472.      0.0000      0.0000
  X1, Y1, Z1=   0.0000      0.0000      0.0000

 *****  MAPDL SOLVE    COMMAND  *****

 *** WARNING ***                         CP =      15.453   TIME= 17:48:48
 Material number 13 (used by element 13909) should normally have at
 least one MP or one TB type command associated with it.  Output of
 energy by material may not be available.

 *** NOTE ***                            CP =      15.469   TIME= 17:48:48
 The step data was checked and warning messages were found.
  Please review output or errors file (
 C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr3
 3EE6\file0.err ) for these warning messages.

 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:48:48  JAN 08, 2025 CP=     15.547

 wbnew--Modal Campbell (C5)



                      L O A D   S T E P   O P T I O N S

   LOAD STEP NUMBER. . . . . . . . . . . . . . . .     3
   THERMAL STRAINS INCLUDED IN THE LOAD VECTOR . .   YES
   CORIOLIS EFFECT IN STATIONARY REF. FRAME  . . .    ON
   REUSE EIGENMODES FOR QRDAMP SOLVER. . . . . . .YES
   PRINT OUTPUT CONTROLS . . . . . . . . . . . . .NO PRINTOUT
   DATABASE OUTPUT CONTROLS
      ITEM     FREQUENCY   COMPONENT
       ALL       NONE
      NSOL        ALL
      MISC        ALL       _ELMISC


   *** GYROSCOPIC DAMPING MATRIX CALCULATED FOR LISTED ELEMENTS:
     TYPE     NUMBER   ENAME

        1      3498  SOLID187
        2      1408  SOLID187
        3      3842  SOLID187
        4      2222  SOLID187
       15         1  MASS21


 *** WARNING ***                         CP =      16.766   TIME= 17:48:49
 The file0.modesym file does exist and is being used for the QR damp
 eigensolution since the ReuseKey is set to ON on the QRDOPT command.

 Time at end of state-space matrix formulation CP = 16.8125.

  ***** DAMPED FREQUENCIES FROM REDUCED DAMPED EIGENSOLVER *****

               COMPLEX FREQUENCY (HERTZ)
  MODE     STABILITY            FREQUENCY         MODAL DAMPING RATIO


    1       0.0000000           144.17300    j       0.0000000
    2       0.0000000           264.17611    j       0.0000000
    3       0.0000000           605.75395    j       0.0000000
    4       0.0000000           653.14028    j       0.0000000
    5       0.0000000           799.09507    j       0.0000000
    6       0.0000000           819.76611    j       0.0000000
    7       0.0000000           991.01515    j       0.0000000
    8       0.0000000           1742.3461    j       0.0000000
    9       0.0000000           1813.9033    j       0.0000000

 Time at end of eigenproblem resolution CP = 16.8125.

 Time at end of mode shape normalization CP = 16.890625.

 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:48:54  JAN 08, 2025 CP=     20.469

 wbnew--Modal Campbell (C5)





          ***** PARTICIPATION FACTOR CALCULATION *****  X  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
     1     144.173       0.69361E-02  -0.39132E-05    0.111188    0.153135E-10    0.102978E-01    0.397334E-08
     2     264.176       0.37854E-02   0.33390E-05    0.094871    0.111486E-10    0.177949E-01    0.289271E-08
     3     605.754       0.16508E-02  -0.35195E-04    1.000000    0.123867E-08    0.850765        0.321395E-06
     4     653.140       0.15311E-02   0.11314E-04    0.321458    0.127999E-09    0.936840        0.332115E-07
     5     799.095       0.12514E-02  -0.66309E-06    0.018841    0.439688E-12    0.937136        0.114085E-09
     6     819.766       0.12199E-02   0.95671E-05    0.271832    0.915290E-10    0.998686        0.237488E-07
     7     991.015       0.10091E-02  -0.24358E-06    0.006921    0.593333E-13    0.998726        0.153950E-10
     8     1742.35       0.57394E-03  -0.12339E-05    0.035059    0.152248E-11    0.999750        0.395034E-09
     9     1813.90       0.55130E-03   0.60984E-06    0.017328    0.371907E-12     1.00000        0.964975E-10
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.148706E-08                    0.385843E-06
 -----------------------------------------------------------------------------------------------------------------



          ***** PARTICIPATION FACTOR CALCULATION *****  Y  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
     1     144.173       0.69361E-02   0.17737E-01    0.515341    0.314607E-03    0.101741        0.816303E-01
     2     264.176       0.37854E-02   0.18052E-01    0.524485    0.325871E-03    0.207125        0.845528E-01
     3     605.754       0.16508E-02   0.99010E-02    0.287667    0.980305E-04    0.238828        0.254357E-01
     4     653.140       0.15311E-02   0.34418E-01    1.000000    0.118462E-02    0.621925        0.307371
     5     799.095       0.12514E-02  -0.78991E-02    0.229501    0.623950E-04    0.642103        0.161895E-01
     6     819.766       0.12199E-02  -0.33264E-01    0.966451    0.110647E-02    0.999926        0.287092
     7     991.015       0.10091E-02   0.81202E-06    0.000024    0.659381E-12    0.999926        0.171088E-09
     8     1742.35       0.57394E-03  -0.41952E-03    0.012189    0.175998E-06    0.999983        0.456656E-04
     9     1813.90       0.55130E-03   0.23206E-03    0.006742    0.538521E-07     1.00000        0.139728E-04
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.309223E-02                    0.802331
 -----------------------------------------------------------------------------------------------------------------



          ***** PARTICIPATION FACTOR CALCULATION *****  Z  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
     1     144.173       0.69361E-02   0.17753E-01    0.515738    0.315176E-03    0.101937        0.817778E-01
     2     264.176       0.37854E-02  -0.18032E-01    0.523836    0.325152E-03    0.207099        0.843661E-01
     3     605.754       0.16508E-02   0.99205E-02    0.288194    0.984157E-04    0.238930        0.255356E-01
     4     653.140       0.15311E-02   0.34423E-01    1.000000    0.118494E-02    0.622170        0.307452
     5     799.095       0.12514E-02   0.78818E-02    0.228970    0.621232E-04    0.642263        0.161189E-01
     6     819.766       0.12199E-02   0.33255E-01    0.966084    0.110592E-02    0.999948        0.286951
     7     991.015       0.10091E-02  -0.13038E-05    0.000038    0.169979E-11    0.999948        0.441040E-09
     8     1742.35       0.57394E-03  -0.28201E-03    0.008192    0.795280E-07    0.999974        0.206349E-04
     9     1813.90       0.55130E-03  -0.28432E-03    0.008260    0.808360E-07     1.00000        0.209743E-04
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.309189E-02                    0.802243
 -----------------------------------------------------------------------------------------------------------------

 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:48:54  JAN 08, 2025 CP=     20.469

 wbnew--Modal Campbell (C5)





          ***** PARTICIPATION FACTOR CALCULATION *****  X  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
  IMAGINARY COMPONENT

     1     144.173       0.69361E-02   0.30542E-05    0.143500    0.932839E-11    0.176607E-01    0.242041E-08
     2     264.176       0.37854E-02  -0.64341E-05    0.302298    0.413973E-10    0.960350E-01    0.107412E-07
     3     605.754       0.16508E-02   0.16926E-05    0.079525    0.286494E-11    0.101459        0.743357E-09
     4     653.140       0.15311E-02  -0.12468E-05    0.058579    0.155446E-11    0.104402        0.403331E-09
     5     799.095       0.12514E-02   0.21284E-04    1.000000    0.453005E-09    0.962040        0.117540E-06
     6     819.766       0.12199E-02  -0.40648E-05    0.190981    0.165228E-10    0.993321        0.428712E-08
     7     991.015       0.10091E-02   0.10926E-08    0.000051    0.119367E-17    0.993321        0.309719E-15
     8     1742.35       0.57394E-03  -0.40099E-06    0.018840    0.160790E-12    0.993626        0.417197E-10
     9     1813.90       0.55130E-03   0.18349E-05    0.086211    0.336689E-11     1.00000        0.873598E-09
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.528201E-09                    0.137051E-06
 -----------------------------------------------------------------------------------------------------------------



          ***** PARTICIPATION FACTOR CALCULATION *****  Y  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
  IMAGINARY COMPONENT

     1     144.173       0.69361E-02   0.14118E-01    0.793355    0.199306E-03    0.285284        0.517132E-01
     2     264.176       0.37854E-02   0.17795E-01    1.000000    0.316653E-03    0.738537        0.821611E-01
     3     605.754       0.16508E-02   0.91945E-02    0.516697    0.845389E-04    0.859545        0.219351E-01
     4     653.140       0.15311E-02   0.80698E-02    0.453494    0.651218E-04    0.952760        0.168970E-01
     5     799.095       0.12514E-02  -0.22088E-02    0.124125    0.487869E-05    0.959743        0.126586E-02
     6     819.766       0.12199E-02  -0.52736E-02    0.296360    0.278113E-04    0.999552        0.721613E-02
     7     991.015       0.10091E-02   0.22680E-06    0.000013    0.514389E-13    0.999552        0.133467E-10
     8     1742.35       0.57394E-03  -0.50724E-03    0.028505    0.257290E-06    0.999920        0.667582E-04
     9     1813.90       0.55130E-03   0.23574E-03    0.013248    0.555722E-07     1.00000        0.144191E-04
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.698622E-03                    0.181270
 -----------------------------------------------------------------------------------------------------------------



          ***** PARTICIPATION FACTOR CALCULATION *****  Z  DIRECTION
                                                                                  CUMULATIVE     RATIO EFF.MASS
  MODE   FREQUENCY       PERIOD      PARTIC.FACTOR     RATIO    EFFECTIVE MASS   MASS FRACTION   TO TOTAL MASS
  IMAGINARY COMPONENT

     1     144.173       0.69361E-02  -0.14103E-01    0.791822    0.198890E-03    0.284516        0.516053E-01
     2     264.176       0.37854E-02   0.17811E-01    1.000000    0.317218E-03    0.738303        0.823075E-01
     3     605.754       0.16508E-02  -0.91887E-02    0.515912    0.844322E-04    0.859086        0.219074E-01
     4     653.140       0.15311E-02  -0.80724E-02    0.453236    0.651636E-04    0.952304        0.169078E-01
     5     799.095       0.12514E-02  -0.22476E-02    0.126192    0.505151E-05    0.959530        0.131070E-02
     6     819.766       0.12199E-02  -0.52827E-02    0.296607    0.279074E-04    0.999452        0.724106E-02
     7     991.015       0.10091E-02   0.24558E-07    0.000001    0.603096E-15    0.999452        0.156484E-12
     8     1742.35       0.57394E-03   0.59386E-03    0.033343    0.352671E-06    0.999957        0.915064E-04
     9     1813.90       0.55130E-03   0.17375E-03    0.009755    0.301877E-07     1.00000        0.783271E-05
 -----------------------------------------------------------------------------------------------------------------
   sum                                                            0.699045E-03                    0.181379
 -----------------------------------------------------------------------------------------------------------------

 *GET  _NMODALSOLPROC  FROM  ACTI  ITEM=NUMC       VALUE=  4.00000000

 FINISH SOLUTION PROCESSING


 ***** ROUTINE COMPLETED *****  CP =        20.875



 PRINTOUT RESUMED BY /GOP

 *GET  _WALLASOL  FROM  ACTI  ITEM=TIME WALL  VALUE=  17.8150000

 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:48:54  JAN 08, 2025 CP=     20.875

 wbnew--Modal Campbell (C5)



          ***** MAPDL RESULTS INTERPRETATION (POST1) *****

 *** NOTE ***                            CP =      20.875   TIME= 17:48:54
 The model contains an element type ( COMBI214 ) that operates entirely
 in the nodal coordinate system.  Viewing nodal displacements or forces
 in other than the nodal coordinate system may be invalid.  See the
 elements manual description for more information.

 *** NOTE ***                            CP =      20.891   TIME= 17:48:54
 Reading results into the database (SET command) will update the current
 displacement and force boundary conditions in the database with the
 values from the results file for that load set.  Note that any
 subsequent solutions will use these values unless action is taken to
 either SAVE the current values or not overwrite them (/EXIT,NOSAVE).


 PRINT CAMPBELL DIAGRAM
    Sorting : ON
    X axis unit : rd/s
    Driving component : CM_ROTVELCITY132
    Printout all frequencies

 *** WARNING ***                         CP =      21.391   TIME= 17:48:54
 Sorting process may not be successful due to the shape of some modes.
 If results are not satisfactory, try to change the load steps and/or
 the number of modes.



     ***** FREQUENCIES (Hz) FROM CAMPBELL (sorting on) *****
    ** The driving component is CM_ROTVELCITY132                                                                                                                                                                                                                                                 **


 Spin(rd/s)          0.000       5235.988      10471.976

     1   BW        189.190        168.311        144.173
     2   FW        207.988        231.858        264.176
     3   BW        639.061        628.551        605.754
     4   BW        658.854        656.051        653.140
     5   FW        735.398        754.878        799.095
     6   FW        810.649        812.959        819.766
     7   FW        991.015        991.015        991.015
     8   BW       1776.768       1759.598       1742.346
     9   FW       1777.727       1795.331       1813.903


 PRINT CAMPBELL DIAGRAM
    Sorting : ON
    X axis unit : rd/s
    Driving component : CM_ROTVELCITY132
    Stability value : ON
    Printout all frequencies

 *** WARNING ***                         CP =      21.641   TIME= 17:48:54
 Sorting process may not be successful due to the shape of some modes.
 If results are not satisfactory, try to change the load steps and/or
 the number of modes.



     ***** STABILITY VALUES (Hz) FROM CAMPBELL (sorting on) *****
    ** The driving component is CM_ROTVELCITY132                                                                                                                                                                                                                                                 **


 Spin(rd/s)          0.000       5235.988      10471.976

     1   BW          0.000          0.000          0.000
     2   FW          0.000          0.000          0.000
     3   BW          0.000          0.000          0.000
     4   BW          0.000          0.000          0.000
     5   FW          0.000          0.000          0.000
     6   FW          0.000          0.000          0.000
     7   FW          0.000          0.000          0.000
     8   BW          0.000          0.000          0.000
     9   FW          0.000          0.000          0.000

 PRINTOUT RESUMED BY /GOP

 PRINTOUT RESUMED BY /GOP

 Set Encoding of XML File to:ISO-8859-1

 Set Output of XML File to:
     PARM,     ,     ,     ,     ,     ,     ,     ,     ,     ,     ,     ,
         ,     ,     ,     ,     ,     ,     ,

 DATABASE WRITTEN ON FILE  parm.xml

 EXIT THE MAPDL POST1 DATABASE PROCESSOR


 ***** ROUTINE COMPLETED *****  CP =        21.703



 PRINTOUT RESUMED BY /GOP

 *GET  _WALLDONE  FROM  ACTI  ITEM=TIME WALL  VALUE=  17.8152778

 PARAMETER _PREPTIME =     0.000000000

 PARAMETER _SOLVTIME =     20.00000000

 PARAMETER _POSTTIME =     1.000000000

 PARAMETER _TOTALTIM =     21.00000000

 *GET  _DLBRATIO  FROM  ACTI  ITEM=SOLU DLBR  VALUE=  1.00072046

 *GET  _COMBTIME  FROM  ACTI  ITEM=SOLU COMB  VALUE= 0.426847700

 *GET  _SSMODE   FROM  ACTI  ITEM=SOLU SSMM  VALUE=  2.00000000

 *GET  _NDOFS    FROM  ACTI  ITEM=SOLU NDOF  VALUE=  52628.0000

 /FCLEAN COMMAND REMOVING ALL LOCAL FILES
 --- Total number of nodes = 17554
 --- Total number of elements = 11111
 --- Element load balance ratio = 1.00072046
 --- Time to combine distributed files = 0.4268477
 --- Sparse memory mode = 2
 --- Number of DOF = 52628

 EXIT MAPDL WITHOUT SAVING DATABASE


 NUMBER OF WARNING MESSAGES ENCOUNTERED=         15
 NUMBER OF ERROR   MESSAGES ENCOUNTERED=          0

+--------------------- M A P D L   S T A T I S T I C S ------------------------+

Release: 2024 R2            Build: 24.2       Update: UP20240603   Platform: WINDOWS x64
Date Run: 01/08/2025   Time: 17:48     Process ID: 21372
Operating System: Windows 11  (Build: 22631)

Processor Model: Intel(R) Xeon(R) Platinum 8171M CPU @ 2.60GHz

Compiler: Intel(R) Fortran Compiler Classic Version 2021.9  (Build: 20230302)
          Intel(R) C/C++ Compiler Classic Version 2021.9  (Build: 20230302)
          Intel(R) oneAPI Math Kernel Library Version 2023.1-Product Build 20230303

Number of machines requested            :    1
Total number of cores available         :    8
Number of physical cores available      :    4
Number of processes requested           :    4
Number of threads per process requested :    1
Total number of cores requested         :    4 (Distributed Memory Parallel)
MPI Type: INTELMPI
MPI Version: Intel(R) MPI Library 2021.11 for Windows* OS


GPU Acceleration: Not Requested

Job Name: file0
Input File: dummy.dat

  Core                Machine Name   Working Directory
 -----------------------------------------------------
     0                 pyworkbench   C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr3EE6
     1                 pyworkbench   C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr3EE6
     2                 pyworkbench   C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr3EE6
     3                 pyworkbench   C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr3EE6

Latency time from master to core     1 =    3.032 microseconds
Latency time from master to core     2 =    3.383 microseconds
Latency time from master to core     3 =    4.196 microseconds

Communication speed from master to core     1 =  4738.21 MB/sec
Communication speed from master to core     2 =  5034.68 MB/sec
Communication speed from master to core     3 =  5373.49 MB/sec

Total CPU time for main thread                    :       18.4 seconds
Total CPU time summed for all threads             :       21.8 seconds

Elapsed time spent obtaining a license            :        0.5 seconds
Elapsed time spent pre-processing model (/PREP7)  :        0.2 seconds
Elapsed time spent solution - preprocessing       :        0.4 seconds
Elapsed time spent computing solution             :       18.8 seconds
Elapsed time spent solution - postprocessing      :        0.4 seconds
Elapsed time spent post-processing model (/POST1) :        0.4 seconds

Eigensolver used                                  :            QRdamp
Equation solver computational rate                :       38.7 Gflops
Equation solver effective I/O rate                :       13.0 GB/sec

Sum of disk space used on all processes           :      429.4 MB

Sum of memory used on all processes               :      791.0 MB
Sum of memory allocated on all processes          :     3342.0 MB
Physical memory available                         :         32 GB
Total amount of I/O written to disk               :        0.9 GB
Total amount of I/O read from disk                :       13.1 GB

+------------------ E N D   M A P D L   S T A T I S T I C S -------------------+


 *-----------------------------------------------------------------------------*
 |                                                                             |
 |                               RUN COMPLETED                                 |
 |                                                                             |
 |-----------------------------------------------------------------------------|
 |                                                                             |
 |  Ansys MAPDL 2024 R2         Build 24.2         UP20240603    WINDOWS x64   |
 |                                                                             |
 |-----------------------------------------------------------------------------|
 |                                                                             |
 |  Database Requested(-db)     1024 MB     Scratch Memory Requested   1024 MB |
 |  Max Database Used(Master)     13 MB     Max Scratch Used(Master)    198 MB |
 |  Max Database Used(Workers)     1 MB     Max Scratch Used(Workers)   196 MB |
 |  Sum Database Used(All)        16 MB     Sum Scratch Used(All)       775 MB |
 |                                                                             |
 |-----------------------------------------------------------------------------|
 |                                                                             |
 |        CP Time      (sec) =         21.828       Time  =  17:48:56          |
 |        Elapsed Time (sec) =         24.000       Date  =  01/08/2025        |
 |                                                                             |
 *-----------------------------------------------------------------------------*

Specify the Mechanical directory path for the Modal Campbell Analysis and fetch the image directory path. Download an image file (tot_deform_3D.png) from the server to the client’s current working directory and display it using matplotlib.

[35]:
from matplotlib import image as mpimg
from matplotlib import pyplot as plt
[36]:
mechanical.run_python_script(f"image_dir=ExtAPI.DataModel.AnalysisList[2].WorkingDir")
result_image_dir_server = mechanical.run_python_script(f"image_dir")
print(f"Images are stored on the server at: {result_image_dir_server}")
Images are stored on the server at: C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\wbnew_files\dp0\SYS-2\MECH\
[37]:
def get_image_path(image_name):
    return os.path.join(result_image_dir_server, image_name)
[38]:
def display_image(path):
    print(f"Printing {path} using matplotlib")
    image1 = mpimg.imread(path)
    plt.figure(figsize=(15, 15))
    plt.axis("off")
    plt.imshow(image1)
    plt.show()
[39]:
image_name = "tot_deform_3D.png"
image_path_server = get_image_path(image_name)
[40]:
if image_path_server != "":
    current_working_directory = os.getcwd()

    local_file_path_list = mechanical.download(
        image_path_server, target_dir=current_working_directory
    )
    image_local_path = local_file_path_list[0]
    print(f"Local image path : {image_local_path}")

    display_image(image_local_path)
Downloading dns:///127.0.0.1:55013:C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\wbnew_files\dp0\SYS-2\MECH\tot_deform_3D.png to C:\Users\ansys\actions-runner\_work\pyworkbench-examples\pyworkbench-examples\pyworkbench-examples\doc\source\examples\axisymmetric-rotor\tot_deform_3D.png: 100%|██████████| 112k/112k [00:00<00:00, 115MB/s]
Local image path : C:\Users\ansys\actions-runner\_work\pyworkbench-examples\pyworkbench-examples\pyworkbench-examples\doc\source\examples\axisymmetric-rotor\tot_deform_3D.png
Printing C:\Users\ansys\actions-runner\_work\pyworkbench-examples\pyworkbench-examples\pyworkbench-examples\doc\source\examples\axisymmetric-rotor\tot_deform_3D.png using matplotlib
../../_images/examples_axisymmetric-rotor_main_54_2.png

Specify the Mechanical directory for the Unbalance Response Analysis and fetch the working directory path. Download the solver output file (solve.out) from the server to the client’s current working directory and print its contents.

[41]:
mechanical.run_python_script(f"solve_dir=ExtAPI.DataModel.AnalysisList[3].WorkingDir")
result_solve_dir_server = mechanical.run_python_script(f"solve_dir")
print(f"All solver files are stored on the server at: {result_solve_dir_server}")
All solver files are stored on the server at: C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\wbnew_files\dp0\SYS-3\MECH\
[42]:
solve_out_path = os.path.join(result_solve_dir_server, "solve.out")
[43]:
def write_file_contents_to_console(path):
    """Write file contents to console."""
    with open(path, "rt") as file:
        for line in file:
            print(line, end="")
[44]:
current_working_directory = os.getcwd()
mechanical.download(solve_out_path, target_dir=current_working_directory)
solve_out_local_path = os.path.join(current_working_directory, "solve.out")
write_file_contents_to_console(solve_out_local_path)
os.remove(solve_out_local_path)
Downloading dns:///127.0.0.1:55013:C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\wbnew_files\dp0\SYS-3\MECH\solve.out to C:\Users\ansys\actions-runner\_work\pyworkbench-examples\pyworkbench-examples\pyworkbench-examples\doc\source\examples\axisymmetric-rotor\solve.out: 100%|██████████| 79.7k/79.7k [00:00<00:00, 82.4MB/s]

 Ansys Mechanical Enterprise


 *------------------------------------------------------------------*
 |                                                                  |
 |   W E L C O M E   T O   T H E   A N S Y S (R)  P R O G R A M     |
 |                                                                  |
 *------------------------------------------------------------------*




 ***************************************************************
 *         ANSYS MAPDL 2024 R2          LEGAL NOTICES          *
 ***************************************************************
 *                                                             *
 * Copyright 1971-2024 Ansys, Inc.  All rights reserved.       *
 * Unauthorized use, distribution or duplication is            *
 * prohibited.                                                 *
 *                                                             *
 * Ansys is a registered trademark of Ansys, Inc. or its       *
 * subsidiaries in the United States or other countries.       *
 * See the Ansys, Inc. online documentation or the Ansys, Inc. *
 * documentation CD or online help for the complete Legal      *
 * Notice.                                                     *
 *                                                             *
 ***************************************************************
 *                                                             *
 * THIS ANSYS SOFTWARE PRODUCT AND PROGRAM DOCUMENTATION       *
 * INCLUDE TRADE SECRETS AND CONFIDENTIAL AND PROPRIETARY      *
 * PRODUCTS OF ANSYS, INC., ITS SUBSIDIARIES, OR LICENSORS.    *
 * The software products and documentation are furnished by    *
 * Ansys, Inc. or its subsidiaries under a software license    *
 * agreement that contains provisions concerning               *
 * non-disclosure, copying, length and nature of use,          *
 * compliance with exporting laws, warranties, disclaimers,    *
 * limitations of liability, and remedies, and other           *
 * provisions.  The software products and documentation may be *
 * used, disclosed, transferred, or copied only in accordance  *
 * with the terms and conditions of that software license      *
 * agreement.                                                  *
 *                                                             *
 * Ansys, Inc. is a UL registered                              *
 * ISO 9001:2015 company.                                      *
 *                                                             *
 ***************************************************************
 *                                                             *
 * This product is subject to U.S. laws governing export and   *
 * re-export.                                                  *
 *                                                             *
 * For U.S. Government users, except as specifically granted   *
 * by the Ansys, Inc. software license agreement, the use,     *
 * duplication, or disclosure by the United States Government  *
 * is subject to restrictions stated in the Ansys, Inc.        *
 * software license agreement and FAR 12.212 (for non-DOD      *
 * licenses).                                                  *
 *                                                             *
 ***************************************************************

 2024 R2

 Point Releases and Patches installed:

 Ansys Service Pack 2024 R2.01
 Ansys Service Pack 2024 R2.02
 Ansys Service Pack 2024 R2.03
 Ansys, Inc. License Manager 2024 R2
 Ansys, Inc. License Manager 2024 R2.01
 Ansys, Inc. License Manager 2024 R2.02
 Ansys, Inc. License Manager 2024 R2.03
 Discovery 2024 R2
 Discovery 2024 R2.01
 Discovery 2024 R2.02
 Discovery 2024 R2.03
 Core WB Files 2024 R2
 Core WB Files 2024 R2.01
 Core WB Files 2024 R2.02
 Core WB Files 2024 R2.03
 SpaceClaim 2024 R2
 SpaceClaim 2024 R2.01
 SpaceClaim 2024 R2.02
 SpaceClaim 2024 R2.03
 Icepak (includes CFD-Post) 2024 R2
 Icepak (includes CFD-Post) 2024 R2.01
 Icepak (includes CFD-Post) 2024 R2.02
 Icepak (includes CFD-Post) 2024 R2.03
 CFD-Post only 2024 R2
 CFD-Post only 2024 R2.01
 CFD-Post only 2024 R2.02
 CFD-Post only 2024 R2.03
 CFX (includes CFD-Post) 2024 R2
 CFX (includes CFD-Post) 2024 R2.01
 CFX (includes CFD-Post) 2024 R2.02
 CFX (includes CFD-Post) 2024 R2.03
 Chemkin 2024 R2
 Chemkin 2024 R2.01
 Chemkin 2024 R2.02
 Chemkin 2024 R2.03
 EnSight 2024 R2
 EnSight 2024 R2.01
 EnSight 2024 R2.02
 EnSight 2024 R2.03
 FENSAP-ICE 2024 R2
 FENSAP-ICE 2024 R2.01
 FENSAP-ICE 2024 R2.02
 FENSAP-ICE 2024 R2.03
 Fluent (includes CFD-Post) 2024 R2
 Fluent (includes CFD-Post) 2024 R2.01
 Fluent (includes CFD-Post) 2024 R2.02
 Fluent (includes CFD-Post) 2024 R2.03
 Polyflow (includes CFD-Post) 2024 R2
 Polyflow (includes CFD-Post) 2024 R2.01
 Polyflow (includes CFD-Post) 2024 R2.02
 Polyflow (includes CFD-Post) 2024 R2.03
 Forte (includes EnSight) 2024 R2
 Forte (includes EnSight) 2024 R2.01
 Forte (includes EnSight) 2024 R2.02
 Forte (includes EnSight) 2024 R2.03
 ICEM CFD 2024 R2
 ICEM CFD 2024 R2.01
 ICEM CFD 2024 R2.02
 ICEM CFD 2024 R2.03
 TurboGrid 2024 R2
 TurboGrid 2024 R2.01
 TurboGrid 2024 R2.02
 TurboGrid 2024 R2.03
 Speos 2024 R2
 Speos 2024 R2.01
 Speos 2024 R2.02
 Speos 2024 R2.03
 Speos HPC 2024 R2
 Speos HPC 2024 R2.01
 Speos HPC 2024 R2.02
 Speos HPC 2024 R2.03
 optiSLang 2024 R2
 optiSLang 2024 R2.01
 optiSLang 2024 R2.02
 optiSLang 2024 R2.03
 Remote Solve Manager Standalone Services 2024 R2
 Remote Solve Manager Standalone Services 2024 R2.01
 Remote Solve Manager Standalone Services 2024 R2.02
 Remote Solve Manager Standalone Services 2024 R2.03
 Additive 2024 R2
 Additive 2024 R2.01
 Additive 2024 R2.02
 Additive 2024 R2.03
 Aqwa 2024 R2
 Aqwa 2024 R2.01
 Aqwa 2024 R2.02
 Aqwa 2024 R2.03
 Autodyn 2024 R2
 Autodyn 2024 R2.01
 Autodyn 2024 R2.02
 Autodyn 2024 R2.03
 Customization Files for User Programmable Features 2024 R2
 Customization Files for User Programmable Features 2024 R2.01
 Customization Files for User Programmable Features 2024 R2.02
 Customization Files for User Programmable Features 2024 R2.03
 LS-DYNA 2024 R2
 LS-DYNA 2024 R2.01
 LS-DYNA 2024 R2.02
 LS-DYNA 2024 R2.03
 Mechanical Products 2024 R2
 Mechanical Products 2024 R2.01
 Mechanical Products 2024 R2.02
 Mechanical Products 2024 R2.03
 Motion 2024 R2
 Motion 2024 R2.01
 Motion 2024 R2.02
 Motion 2024 R2.03
 Sherlock 2024 R2
 Sherlock 2024 R2.01
 Sherlock 2024 R2.02
 Sherlock 2024 R2.03
 Sound - SAS 2024 R2
 Sound - SAS 2024 R2.01
 Sound - SAS 2024 R2.02
 Sound - SAS 2024 R2.03
 ACIS Geometry Interface 2024 R2
 ACIS Geometry Interface 2024 R2.01
 ACIS Geometry Interface 2024 R2.02
 ACIS Geometry Interface 2024 R2.03
 AutoCAD Geometry Interface 2024 R2
 AutoCAD Geometry Interface 2024 R2.01
 AutoCAD Geometry Interface 2024 R2.02
 AutoCAD Geometry Interface 2024 R2.03
 Catia, Version 4 Geometry Interface 2024 R2
 Catia, Version 4 Geometry Interface 2024 R2.01
 Catia, Version 4 Geometry Interface 2024 R2.02
 Catia, Version 4 Geometry Interface 2024 R2.03
 Catia, Version 5 Geometry Interface 2024 R2
 Catia, Version 5 Geometry Interface 2024 R2.01
 Catia, Version 5 Geometry Interface 2024 R2.02
 Catia, Version 5 Geometry Interface 2024 R2.03
 Catia, Version 6 Geometry Interface 2024 R2
 Catia, Version 6 Geometry Interface 2024 R2.01
 Catia, Version 6 Geometry Interface 2024 R2.02
 Catia, Version 6 Geometry Interface 2024 R2.03
 Creo Elements/Direct Modeling Geometry Interface 2024 R2
 Creo Elements/Direct Modeling Geometry Interface 2024 R2.01
 Creo Elements/Direct Modeling Geometry Interface 2024 R2.02
 Creo Elements/Direct Modeling Geometry Interface 2024 R2.03
 Creo Parametric Geometry Interface 2024 R2
 Creo Parametric Geometry Interface 2024 R2.01
 Creo Parametric Geometry Interface 2024 R2.02
 Creo Parametric Geometry Interface 2024 R2.03
 Inventor Geometry Interface 2024 R2
 Inventor Geometry Interface 2024 R2.01
 Inventor Geometry Interface 2024 R2.02
 Inventor Geometry Interface 2024 R2.03
 JTOpen Geometry Interface 2024 R2
 JTOpen Geometry Interface 2024 R2.01
 JTOpen Geometry Interface 2024 R2.02
 JTOpen Geometry Interface 2024 R2.03
 NX Geometry Interface 2024 R2
 NX Geometry Interface 2024 R2.01
 NX Geometry Interface 2024 R2.02
 NX Geometry Interface 2024 R2.03
 Parasolid Geometry Interface  2024 R2
 Parasolid Geometry Interface  2024 R2.01
 Parasolid Geometry Interface  2024 R2.02
 Parasolid Geometry Interface  2024 R2.03
 Solid Edge Geometry Interface 2024 R2
 Solid Edge Geometry Interface 2024 R2.01
 Solid Edge Geometry Interface 2024 R2.02
 Solid Edge Geometry Interface 2024 R2.03
 SOLIDWORKS Geometry Interface 2024 R2
 SOLIDWORKS Geometry Interface 2024 R2.01
 SOLIDWORKS Geometry Interface 2024 R2.02
 SOLIDWORKS Geometry Interface 2024 R2.03


          *****  MAPDL COMMAND LINE ARGUMENTS  *****
  BATCH MODE REQUESTED (-b)    = NOLIST
  INPUT FILE COPY MODE (-c)    = COPY
  DISTRIBUTED MEMORY PARALLEL REQUESTED
       4 PARALLEL PROCESSES REQUESTED WITH SINGLE THREAD PER PROCESS
    TOTAL OF     4 CORES REQUESTED
  INPUT FILE NAME              = C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr82F5\dummy.dat
  OUTPUT FILE NAME             = C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr82F5\solve.out
  START-UP FILE MODE           = NOREAD
  STOP FILE MODE               = NOREAD

 RELEASE= 2024 R2              BUILD= 24.2      UP20240603   VERSION=WINDOWS x64
 CURRENT JOBNAME=file0  17:49:08  JAN 08, 2025 CP=      0.047


 PARAMETER _DS_PROGRESS =     999.0000000

 /INPUT FILE= ds.dat  LINE=       0



 *** NOTE ***                            CP =       0.359   TIME= 17:49:09
 The /CONFIG,NOELDB command is not valid in a distributed memory
 parallel solution.  Command is ignored.

 *GET  _WALLSTRT  FROM  ACTI  ITEM=TIME WALL  VALUE=  17.8191667

 TITLE=
 wbnew--Unbalance Response (D5)

  ACT Extensions:
      LSDYNA, 2024.2
      5f463412-bd3e-484b-87e7-cbc0a665e474, wbex
 /COM,     ANSYSMotion, 2024.2
      20180725-3f81-49eb-9f31-41364844c769, wbex


 SET PARAMETER DIMENSIONS ON  _WB_PROJECTSCRATCH_DIR
  TYPE=STRI  DIMENSIONS=      248        1        1

 PARAMETER _WB_PROJECTSCRATCH_DIR(1) = C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr82F5\

 SET PARAMETER DIMENSIONS ON  _WB_SOLVERFILES_DIR
  TYPE=STRI  DIMENSIONS=      248        1        1

 PARAMETER _WB_SOLVERFILES_DIR(1) = C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\wbnew_files\dp0\SYS-3\MECH\

 SET PARAMETER DIMENSIONS ON  _WB_USERFILES_DIR
  TYPE=STRI  DIMENSIONS=      248        1        1

 PARAMETER _WB_USERFILES_DIR(1) = C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\wbnew_files\user_files\
 --- Data in consistent NMM units. See Solving Units in the help system for more

 MPA UNITS SPECIFIED FOR INTERNAL
  LENGTH      = MILLIMETERS (mm)
  MASS        = TONNE (Mg)
  TIME        = SECONDS (sec)
  TEMPERATURE = CELSIUS (C)
  TOFFSET     = 273.0
  FORCE       = NEWTON (N)
  HEAT        = MILLIJOULES (mJ)

 INPUT  UNITS ARE ALSO SET TO MPA

 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:49:09  JAN 08, 2025 CP=      0.375

 wbnew--Unbalance Response (D5)



          ***** MAPDL ANALYSIS DEFINITION (PREP7) *****
 *********** Nodes for the whole assembly ***********
 *********** Nodes for all Remote Points ***********
 *********** Elements for Body 1 'Solid1' ***********
 *********** Elements for Body 2 'Solid4' ***********
 *********** Elements for Body 3 'Solid3' ***********
 *********** Elements for Body 4 'Solid2' ***********
 *********** Send User Defined Coordinate System(s) ***********
 *********** Set Reference Temperature ***********
 *********** Send Materials ***********
 *********** Send Named Selection as Node Component ***********
 *********** Send Named Selection as Node Component ***********
 *********** Send Named Selection as Node Component ***********
 *********** Send Named Selection as Node Component ***********
 *********** Send Named Selection as Element Component ***********
 *********** Create Remote Point "PointMass_RemotePoint" ***********
 *********** Create Remote Point "RemotePoint_Bearing1" ***********
 *********** Create Remote Point "RemotePoint_Bearing2" ***********
 *********** Create Remote Point "RemotePoint_FreeStanding1" ***********
 *********** Create Remote Point "RemotePoint_FreeStanding2" ***********
 *********** Create Remote Point "PointMass_RemotePoint2" ***********
 *********** Construct Remote Mass Using Remote Attachment ***********
 *********** Construct Remote Displacement ***********
 *********** Construct Remote Displacement ***********
 *********** Construct Remote Displacement ***********
 *********** Construct Remote Displacement ***********
 *** Create a component for all remote displacements ***
 *********** Create Bearing Connection "RemotePoint_FreeStanding1 To Multiple" *
             Real Constant Set For Above Bearing Connection Is 14
 *********** Create Bearing Connection "RemotePoint_FreeStanding2 To Multiple" *
             Real Constant Set For Above Bearing Connection Is 15
 *********** Component For Rotating Forces ***********
  Component For : All Bodies
 *********** SYNCHRO & CMOMEGA For Rotating Forces ***********

 SYNCHRONOUS NODAL FORCE EXCITATION
 *********** Define Rotating Force "Rotating Force" ***********
  RotatingForceComponentName,cm_SynchroComponent
 RotatingForceLoc,89.0100021362305,0.5,5.29573956636733e-016
 UnbalancedMass,3.8e-003
 UnbalancedForce,1.9e-003
 RotatingRadius,0.5
 PhaseAngle,0.
 RotatingForceAxisLoc,89.01,0.,0.
 RotatingForceAxisComponents,1.,0.,0.
 HitPointLocation,89.0100021362305,0.,0.
 HitPointNodeId,17545


 ***** ROUTINE COMPLETED *****  CP =         0.719


 --- Number of total nodes = 17554
 --- Number of contact elements = 134
 --- Number of spring elements = 0
 --- Number of bearing elements = 0
 --- Number of solid elements = 10970
 --- Number of condensed parts = 0
 --- Number of total elements = 11111

 *GET  _WALLBSOL  FROM  ACTI  ITEM=TIME WALL  VALUE=  17.8191667

 *****  MAPDL SOLUTION ROUTINE  *****


 PERFORM A HARMONIC ANALYSIS
  THIS WILL BE A NEW ANALYSIS


 PERFORM A FULL HARMONIC RESPONSE ANALYSIS

 THERMAL STRAINS ARE NOT INCLUDED IN THE LOAD VECTOR.

 STEP BOUNDARY CONDITION KEY= 1

 HARMONIC FREQUENCY RANGE - END=  1666.7      BEGIN=  0.0000

 USE   200 SUBSTEP(S) THIS LOAD STEP FOR ALL  DEGREES OF FREEDOM

 STRUCTURAL DAMPING COEFFICIENT = 0.20000E-01


 CORIOLIS IN STATIONARY REFERENCE FRAME: GYROSCOPIC DAMPING MATRIX WILL BE CALCULATED

 ERASE THE CURRENT DATABASE OUTPUT CONTROL TABLE.


 WRITE ALL  ITEMS TO THE DATABASE WITH A FREQUENCY OF NONE
   FOR ALL APPLICABLE ENTITIES

 WRITE NSOL ITEMS TO THE DATABASE WITH A FREQUENCY OF ALL
   FOR ALL APPLICABLE ENTITIES

 WRITE EANG ITEMS TO THE DATABASE WITH A FREQUENCY OF ALL
   FOR ALL APPLICABLE ENTITIES

 WRITE ETMP ITEMS TO THE DATABASE WITH A FREQUENCY OF ALL
   FOR ALL APPLICABLE ENTITIES

 WRITE VENG ITEMS TO THE DATABASE WITH A FREQUENCY OF ALL
   FOR ALL APPLICABLE ENTITIES

 WRITE STRS ITEMS TO THE DATABASE WITH A FREQUENCY OF ALL
   FOR ALL APPLICABLE ENTITIES

 WRITE EPEL ITEMS TO THE DATABASE WITH A FREQUENCY OF ALL
   FOR ALL APPLICABLE ENTITIES

 WRITE RSOL ITEMS TO THE DATABASE WITH A FREQUENCY OF ALL
   FOR ALL APPLICABLE ENTITIES

 WRITE CONT ITEMS TO THE DATABASE WITH A FREQUENCY OF ALL
   FOR ALL APPLICABLE ENTITIES

 PRINTOUT RESUMED BY /GOP

 WRITE MISC ITEMS TO THE DATABASE WITH A FREQUENCY OF ALL
   FOR THE ENTITIES DEFINED BY COMPONENT _ELMISC

 *GET  ANSINTER_  FROM  ACTI  ITEM=INT        VALUE=  0.00000000

 *IF  ANSINTER_  ( =   0.00000     )  NE
      0  ( =   0.00000     )  THEN

 *ENDIF

 *** NOTE ***                            CP =       0.828   TIME= 17:49:09
 The automatic domain decomposition logic has selected the FREQ domain
 decomposition method with 1 processes per frequency solution.

 *****  MAPDL SOLVE    COMMAND  *****



   D I S T R I B U T E D   D O M A I N   D E C O M P O S E R

 ...Number of frequency solutions:  200
 ...Decompose to 4 frequency domains (with 1 processes per domain)


 *** WARNING ***                         CP =       1.891   TIME= 17:49:10
 Element shape checking is currently inactive.  Issue SHPP,ON or
 SHPP,WARN to reactivate, if desired.

 *** WARNING ***                         CP =       1.938   TIME= 17:49:10
 Make sure that the rotating element component 1 (component name
 CM_SYNCHROCOMPONENT) is axisymmetric about the axis of spin defined by
 the CMOMEGA command to correctly account for the gyroscopic effect in
 the stationary reference frame (CORIOLIS, ON,,, ON).

 *** WARNING ***                         CP =       1.938   TIME= 17:49:10
 Make sure that the rotating element component 1 (component name
 CM_SYNCHROCOMPONENT) is axisymmetric about the axis of spin defined by
 the CMOMEGA command to correctly account for the gyroscopic effect in
 the stationary reference frame (CORIOLIS, ON,,, ON).

 *** WARNING ***                         CP =       1.938   TIME= 17:49:10
 Make sure that the rotating element component 1 (component name
 CM_SYNCHROCOMPONENT) is axisymmetric about the axis of spin defined by
 the CMOMEGA command to correctly account for the gyroscopic effect in
 the stationary reference frame (CORIOLIS, ON,,, ON).

 *** WARNING ***                         CP =       1.938   TIME= 17:49:10
 Make sure that the rotating element component 1 (component name
 CM_SYNCHROCOMPONENT) is axisymmetric about the axis of spin defined by
 the CMOMEGA command to correctly account for the gyroscopic effect in
 the stationary reference frame (CORIOLIS, ON,,, ON).


 HARMONIC EXCITATION IS UNBALANCE
     Rotational velocity equals excitation frequency
     Rotating component considered = CM_SYNCHROCOMPONENT

 *** NOTE ***                            CP =       1.953   TIME= 17:49:10
 The model data was checked and warning messages were found.
  Please review output or errors file (
 C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr8
 82F5\file0.err ) for these warning messages.

 *** SELECTION OF ELEMENT TECHNOLOGIES FOR APPLICABLE ELEMENTS ***
      --- GIVE SUGGESTIONS AND RESET THE KEY OPTIONS ---

 ELEMENT TYPE         1 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.

 ELEMENT TYPE         2 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.

 ELEMENT TYPE         3 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.

 ELEMENT TYPE         4 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.



 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:49:10  JAN 08, 2025 CP=      1.969

 wbnew--Unbalance Response (D5)



                       S O L U T I O N   O P T I O N S

   PROBLEM DIMENSIONALITY. . . . . . . . . . . . .3-D
   DEGREES OF FREEDOM. . . . . . UX   UY   UZ   ROTX ROTY ROTZ
   ANALYSIS TYPE . . . . . . . . . . . . . . . . .HARMONIC
      SOLUTION METHOD. . . . . . . . . . . . . . .FULL
   OFFSET TEMPERATURE FROM ABSOLUTE ZERO . . . . .  273.15
   THERMAL EXPANSION . . . . . . . . . . . . . . .OFF
   COMPLEX DISPLACEMENT PRINT OPTION . . . . . . .REAL AND IMAGINARY
   GLOBALLY ASSEMBLED MATRIX . . . . . . . . . . .UNSYMMETRIC

 *** WARNING ***                         CP =       2.016   TIME= 17:49:10
 Material number 14 (used by element 13909) should normally have at
 least one MP or one TB type command associated with it.  Output of
 energy by material may not be available.

 *** NOTE ***                            CP =       2.062   TIME= 17:49:10
 The step data was checked and warning messages were found.
  Please review output or errors file (
 C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr8
 82F5\file0.err ) for these warning messages.

 *** NOTE ***                            CP =       2.125   TIME= 17:49:10
 Internal nodes from 17555 to 17558 are created.
 4 internal nodes are used for handling degrees of freedom on pilot
 nodes of rigid target surfaces.

 *** NOTE ***                            CP =       2.250   TIME= 17:49:10
 Internal nodes from 17555 to 17558 are created.
 4 internal nodes are used for handling degrees of freedom on pilot
 nodes of rigid target surfaces.
 *WARNING*: Some MPC/Lagrange based elements (e.g.13911) in real
 constant set 5 overlap with other MPC/Lagrange based elements
 (e.g.13998) in real constant set 11 which can cause overconstraint.

 *** NOTE ***                            CP =       2.359   TIME= 17:49:10
 Force-distributed-surface identified by real constant set 5 and
 contact element type 5 has been set up.  The pilot node 17545 is used
 to apply the force which connects to other element 14049.  Internal
 MPC will be built.
 The used degrees of freedom set is  UX   UY   UZ   ROTX ROTY ROTZ
 *WARNING*: Certain contact elements (for example 13960&14047) overlap
 each other.
 ****************************************


 *** WARNING ***                         CP =       2.359   TIME= 17:49:10
 Element shape checking is currently inactive.  Issue SHPP,ON or
 SHPP,WARN to reactivate, if desired.

 *** WARNING ***                         CP =       2.359   TIME= 17:49:10
 Element shape checking is currently inactive.  Issue SHPP,ON or
 SHPP,WARN to reactivate, if desired.

 *** NOTE ***                            CP =       2.359   TIME= 17:49:10
 Force-distributed-surface identified by real constant set 7 and
 contact element type 7 has been set up.  The pilot node 17546 is used
 to apply the force which connects to other element 13909.  Internal
 MPC will be built.
 The used degrees of freedom set is  UX   UY   UZ   ROTX ROTY ROTZ
 ****************************************


 *** WARNING ***                         CP =       2.359   TIME= 17:49:10
 Element shape checking is currently inactive.  Issue SHPP,ON or
 SHPP,WARN to reactivate, if desired.

 *** NOTE ***                            CP =       2.359   TIME= 17:49:10
 Force-distributed-surface identified by real constant set 9 and
 contact element type 9 has been set up.  The pilot node 17547 is used
 to apply the force which connects to other element 13910.  Internal
 MPC will be built.
 The used degrees of freedom set is  UX   UY   UZ   ROTX ROTY ROTZ
 ****************************************


 *** WARNING ***                         CP =       2.359   TIME= 17:49:10
 Make sure that the rotating element component 1 (component name
 CM_SYNCHROCOMPONENT) is axisymmetric about the axis of spin defined by
 the CMOMEGA command to correctly account for the gyroscopic effect in
 the stationary reference frame (CORIOLIS, ON,,, ON).

 *** NOTE ***                            CP =       2.359   TIME= 17:49:10
 Force-distributed-surface identified by real constant set 11 and
 contact element type 11 has been set up.  The pilot node 17550 is used
 to apply the force.  Internal MPC will be built.
 The used degrees of freedom set is  UX   UY   UZ   ROTX ROTY ROTZ
 *WARNING*: Most likely no MPC equations will be built due to
 overlapping with other pairs (i.e.  Real constant set 5).
 Please verify constraints (including rotational degrees of freedom)
  on the pilot node by yourself.
 ****************************************


 *** WARNING ***                         CP =       2.359   TIME= 17:49:10
 Overconstraint may occur for Lagrange multiplier or MPC based contact
 algorithm.
 The reasons for possible overconstraint are:

 *** WARNING ***                         CP =       2.359   TIME= 17:49:10
 Certain contact elements (for example 13960 & 14047) overlap with
 other.

 *** WARNING ***                         CP =       2.359   TIME= 17:49:10
 Certain contact pairs (for example 11 & 5) overlap with other.
 ****************************************



 *** WARNING ***                         CP =       2.359   TIME= 17:49:10
 Make sure that the rotating element component 1 (component name
 CM_SYNCHROCOMPONENT) is axisymmetric about the axis of spin defined by
 the CMOMEGA command to correctly account for the gyroscopic effect in
 the stationary reference frame (CORIOLIS, ON,,, ON).

 *** NOTE ***                            CP =       2.422   TIME= 17:49:10
 Internal nodes from 17555 to 17558 are created.
 4 internal nodes are used for handling degrees of freedom on pilot
 nodes of rigid target surfaces.

                      L O A D   S T E P   O P T I O N S

   LOAD STEP NUMBER. . . . . . . . . . . . . . . .     1
   FREQUENCY RANGE . . . . . . . . . . . . . . . .  0.0000     TO   1666.7
   NUMBER OF SUBSTEPS. . . . . . . . . . . . . . .   200
   STEP CHANGE BOUNDARY CONDITIONS . . . . . . . .   YES
   STRUCTURAL DAMPING COEFFICIENT. . . . . . . . . 0.20000E-01
   CORIOLIS EFFECT IN STATIONARY REF. FRAME  . . .    ON
   PRINT OUTPUT CONTROLS . . . . . . . . . . . . .NO PRINTOUT
   DATABASE OUTPUT CONTROLS
      ITEM     FREQUENCY   COMPONENT
       ALL       NONE
      NSOL        ALL
      EANG        ALL
      ETMP        ALL
      VENG        ALL
      STRS        ALL
      EPEL        ALL
      RSOL        ALL
      CONT        ALL
      MISC        ALL       _ELMISC

 *WARNING*: Some MPC/Lagrange based elements (e.g.13911) in real
 constant set 5 overlap with other MPC/Lagrange based elements
 (e.g.13998) in real constant set 11 which can cause overconstraint.

 *** WARNING ***                         CP =       3.000   TIME= 17:49:10
 Make sure that the rotating element component 1 (component name
 CM_SYNCHROCOMPONENT) is axisymmetric about the axis of spin defined by
 the CMOMEGA command to correctly account for the gyroscopic effect in
 the stationary reference frame (CORIOLIS, ON,,, ON).

 *** NOTE ***                            CP =       3.000   TIME= 17:49:10
 Force-distributed-surface identified by real constant set 5 and
 contact element type 5 has been set up.  The pilot node 17545 is used
 to apply the force which connects to other element 14049.  Internal
 MPC will be built.
 The used degrees of freedom set is  UX   UY   UZ   ROTX ROTY ROTZ
 *WARNING*: Certain contact elements (for example 13960&14047) overlap
 each other.
 ****************************************


 *** WARNING ***                         CP =       3.000   TIME= 17:49:10
 Make sure that the rotating element component 1 (component name
 CM_SYNCHROCOMPONENT) is axisymmetric about the axis of spin defined by
 the CMOMEGA command to correctly account for the gyroscopic effect in
 the stationary reference frame (CORIOLIS, ON,,, ON).

 *** WARNING ***                         CP =       3.000   TIME= 17:49:10
 Material number 14 (used by element 13909) should normally have at
 least one MP or one TB type command associated with it.  Output of
 energy by material may not be available.

 *** NOTE ***                            CP =       3.000   TIME= 17:49:10
 Force-distributed-surface identified by real constant set 7 and
 contact element type 7 has been set up.  The pilot node 17546 is used
 to apply the force which connects to other element 13909.  Internal
 MPC will be built.
 The used degrees of freedom set is  UX   UY   UZ   ROTX ROTY ROTZ
 ****************************************


 *** WARNING ***                         CP =       3.000   TIME= 17:49:10
 Make sure that the rotating element component 1 (component name
 CM_SYNCHROCOMPONENT) is axisymmetric about the axis of spin defined by
 the CMOMEGA command to correctly account for the gyroscopic effect in
 the stationary reference frame (CORIOLIS, ON,,, ON).

 *** WARNING ***                         CP =       3.000   TIME= 17:49:10
 Make sure that the rotating element component 1 (component name
 CM_SYNCHROCOMPONENT) is axisymmetric about the axis of spin defined by
 the CMOMEGA command to correctly account for the gyroscopic effect in
 the stationary reference frame (CORIOLIS, ON,,, ON).

 *** NOTE ***                            CP =       3.000   TIME= 17:49:10
 Force-distributed-surface identified by real constant set 9 and
 contact element type 9 has been set up.  The pilot node 17547 is used
 to apply the force which connects to other element 13910.  Internal
 MPC will be built.
 The used degrees of freedom set is  UX   UY   UZ   ROTX ROTY ROTZ
 ****************************************


 *** WARNING ***                         CP =       3.000   TIME= 17:49:10
 Make sure that the rotating element component 1 (component name
 CM_SYNCHROCOMPONENT) is axisymmetric about the axis of spin defined by
 the CMOMEGA command to correctly account for the gyroscopic effect in
 the stationary reference frame (CORIOLIS, ON,,, ON).

 *** WARNING ***                         CP =       3.000   TIME= 17:49:10
 Make sure that the rotating element component 1 (component name
 CM_SYNCHROCOMPONENT) is axisymmetric about the axis of spin defined by
 the CMOMEGA command to correctly account for the gyroscopic effect in
 the stationary reference frame (CORIOLIS, ON,,, ON).

 *** NOTE ***                            CP =       3.000   TIME= 17:49:10
 Force-distributed-surface identified by real constant set 11 and
 contact element type 11 has been set up.  The pilot node 17550 is used
 to apply the force.  Internal MPC will be built.
 The used degrees of freedom set is  UX   UY   UZ   ROTX ROTY ROTZ
 *WARNING*: Most likely no MPC equations will be built due to
 overlapping with other pairs (i.e.  Real constant set 5).
 Please verify constraints (including rotational degrees of freedom)
  on the pilot node by yourself.
 ****************************************


 *** WARNING ***                         CP =       3.000   TIME= 17:49:10
 Material number 14 (used by element 13909) should normally have at
 least one MP or one TB type command associated with it.  Output of
 energy by material may not be available.

 *** WARNING ***                         CP =       3.000   TIME= 17:49:10
 Make sure that the rotating element component 1 (component name
 CM_SYNCHROCOMPONENT) is axisymmetric about the axis of spin defined by
 the CMOMEGA command to correctly account for the gyroscopic effect in
 the stationary reference frame (CORIOLIS, ON,,, ON).

 *** WARNING ***                         CP =       3.047   TIME= 17:49:10
 Make sure that the rotating element component 1 (component name
 CM_SYNCHROCOMPONENT) is axisymmetric about the axis of spin defined by
 the CMOMEGA command to correctly account for the gyroscopic effect in
 the stationary reference frame (CORIOLIS, ON,,, ON).

 *** WARNING ***                         CP =       3.047   TIME= 17:49:10
 Make sure that the rotating element component 1 (component name
 CM_SYNCHROCOMPONENT) is axisymmetric about the axis of spin defined by
 the CMOMEGA command to correctly account for the gyroscopic effect in
 the stationary reference frame (CORIOLIS, ON,,, ON).

 *** WARNING ***                         CP =       3.109   TIME= 17:49:10
 Make sure that the rotating element component 1 (component name
 CM_SYNCHROCOMPONENT) is axisymmetric about the axis of spin defined by
 the CMOMEGA command to correctly account for the gyroscopic effect in
 the stationary reference frame (CORIOLIS, ON,,, ON).

 *** WARNING ***                         CP =       3.109   TIME= 17:49:10
 Material number 14 (used by element 13909) should normally have at
 least one MP or one TB type command associated with it.  Output of
 energy by material may not be available.

 *** WARNING ***                         CP =       3.109   TIME= 17:49:10
 Overconstraint may occur for Lagrange multiplier or MPC based contact
 algorithm.

 *** WARNING ***                         CP =       3.109   TIME= 17:49:10
 Certain contact elements (for example 13960 & 14047) overlap with
 other.

 *** WARNING ***                         CP =       3.109   TIME= 17:49:10
 Certain contact pairs (for example 11 & 5) overlap with other.

 *** WARNING ***                         CP =       3.109   TIME= 17:49:10
 Overconstraint may occur for Lagrange multiplier or MPC based contact
 algorithm.

 *** WARNING ***                         CP =       3.109   TIME= 17:49:10
 Certain contact elements (for example 13960 & 14047) overlap with
 other.

 *** WARNING ***                         CP =       3.109   TIME= 17:49:10
 Certain contact pairs (for example 11 & 5) overlap with other.

 *** WARNING ***                         CP =       3.297   TIME= 17:49:10
 Overconstraint may occur for Lagrange multiplier or MPC based contact
 algorithm.

 *** WARNING ***                         CP =       3.297   TIME= 17:49:10
 Certain contact elements (for example 13960 & 14047) overlap with
 other.

 *** WARNING ***                         CP =       3.562   TIME= 17:49:10
 Certain contact pairs (for example 11 & 5) overlap with other.


                         ***********  PRECISE MASS SUMMARY  ***********

   TOTAL RIGID BODY MASS MATRIX ABOUT ORIGIN
               Translational mass               |   Coupled translational/rotational mass
        0.38541E-02    0.0000        0.0000     |     0.0000      -0.31030E-07   0.13548E-06
         0.0000       0.38541E-02    0.0000     |    0.31030E-07    0.0000       0.62248
         0.0000        0.0000       0.38541E-02 |   -0.13548E-06  -0.62248        0.0000
     ------------------------------------------ | ------------------------------------------
                                                |         Rotational mass (inertia)
                                                |     2.7505       0.15255E-04   0.91712E-05
                                                |    0.15255E-04    149.58      -0.22072E-05
                                                |    0.91712E-05  -0.22072E-05    149.58

   TOTAL MASS = 0.38541E-02
     The mass principal axes coincide with the global Cartesian axes

   CENTER OF MASS (X,Y,Z)=    161.51      -0.35152E-04  -0.80514E-05

   TOTAL INERTIA ABOUT CENTER OF MASS
         2.7505      -0.66264E-05   0.41594E-05
       -0.66264E-05    49.038      -0.22072E-05
        0.41594E-05  -0.22072E-05    49.038
     The inertia principal axes coincide with the global Cartesian axes


  *** MASS SUMMARY BY ELEMENT TYPE ***

  TYPE      MASS
     1  0.788597E-03
     2  0.274317E-03
     3  0.768710E-03
     4  0.621430E-03
    13  0.140100E-02

 Range of element maximum matrix coefficients in global coordinates
 Maximum = 8468651.17 at element 4255.
 Minimum = 35030 at element 13910.

   *** ELEMENT MATRIX FORMULATION TIMES
     TYPE    NUMBER   ENAME      TOTAL CP  AVE CP

        1      3498  SOLID187      0.438   0.000125
        2      1408  SOLID187      0.141   0.000100
        3      3842  SOLID187      0.531   0.000138
        4      2222  SOLID187      0.219   0.000098
        5        50  CONTA174      0.000   0.000000
        6         1  TARGE170      0.000   0.000000
        7        17  CONTA174      0.000   0.000000
        8         1  TARGE170      0.000   0.000000
        9        17  CONTA174      0.000   0.000000
       10         1  TARGE170      0.000   0.000000
       11        50  CONTA174      0.000   0.000000
       12         1  TARGE170      0.000   0.000000
       13         1  MASS21        0.000   0.000000
       14         1  COMBI214      0.000   0.000000
       15         1  COMBI214      0.000   0.000000
 Time at end of element matrix formulation CP = 4.875.

   *** GYROSCOPIC DAMPING MATRIX CALCULATED FOR LISTED ELEMENTS:
     TYPE     NUMBER   ENAME

        1      3498  SOLID187
        2      1408  SOLID187
        3      3842  SOLID187
        4      2222  SOLID187
       13         1  MASS21


 SPARSE MATRIX DIRECT SOLVER.
  Number of equations =       52628,    Maximum wavefront =   1062

 *** NOTE ***                            CP =       6.391   TIME= 17:49:14
 The initial memory allocation (-m) has been exceeded.
  Supplemental memory allocations are being used.


  Memory allocated on this process
  -------------------------------------------------------------------
  Equation solver memory allocated                     =   951.501 MB
  Equation solver memory required for in-core mode     =   911.084 MB
  Equation solver memory required for out-of-core mode =   296.625 MB
  Total (solver and non-solver) memory allocated       =  1967.087 MB

 *** NOTE ***                            CP =       6.391   TIME= 17:49:14
 The Sparse Matrix Solver is currently running in the in-core memory
 mode.  This memory mode uses the most amount of memory in order to
 avoid using the hard drive as much as possible, which most often
 results in the fastest solution time.  This mode is recommended if
 enough physical memory is present to accommodate all of the solver
 data.

 *** NOTE ***                            CP =       6.391   TIME= 17:49:14
 The system matrix is unsymmetric.
 Sparse solver maximum pivot= 8675105.35 at node 4349 UX.
 Sparse solver minimum pivot= 11011.7424 at node 209 UY.
 Sparse solver minimum pivot in absolute value= 11011.7424 at node 209
 UY.

   *** ELEMENT RESULT CALCULATION TIMES
     TYPE    NUMBER   ENAME      TOTAL CP  AVE CP

        1      3498  SOLID187      0.422   0.000121
        2      1408  SOLID187      0.219   0.000155
        3      3842  SOLID187      0.516   0.000134
        4      2222  SOLID187      0.219   0.000098
        5        50  CONTA174      0.000   0.000000
        7        17  CONTA174      0.000   0.000000
        9        17  CONTA174      0.000   0.000000
       11        50  CONTA174      0.000   0.000000
       13         1  MASS21        0.000   0.000000
       14         1  COMBI214      0.000   0.000000
       15         1  COMBI214      0.000   0.000000

   *** NODAL LOAD CALCULATION TIMES
     TYPE    NUMBER   ENAME      TOTAL CP  AVE CP

        1      3498  SOLID187      0.156   0.000045
        2      1408  SOLID187      0.047   0.000033
        3      3842  SOLID187      0.094   0.000024
        4      2222  SOLID187      0.047   0.000021
        5        50  CONTA174      0.000   0.000000
        7        17  CONTA174      0.000   0.000000
        9        17  CONTA174      0.000   0.000000
       11        50  CONTA174      0.000   0.000000
       13         1  MASS21        0.000   0.000000
       14         1  COMBI214      0.000   0.000000
       15         1  COMBI214      0.000   0.000000
 *** LOAD STEP     1   SUBSTEP     1  COMPLETED.  FREQUENCY=   8.33350
     --- CMOMEGA for CM_SYNCH=  52.361      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP     2  COMPLETED.  FREQUENCY=   16.6670
     --- CMOMEGA for CM_SYNCH=  104.72      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP     3  COMPLETED.  FREQUENCY=   25.0005
     --- CMOMEGA for CM_SYNCH=  157.08      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP     4  COMPLETED.  FREQUENCY=   33.3340
     --- CMOMEGA for CM_SYNCH=  209.44      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP     5  COMPLETED.  FREQUENCY=   41.6675
     --- CMOMEGA for CM_SYNCH=  261.80      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP     6  COMPLETED.  FREQUENCY=   50.0010
     --- CMOMEGA for CM_SYNCH=  314.17      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP     7  COMPLETED.  FREQUENCY=   58.3345
     --- CMOMEGA for CM_SYNCH=  366.53      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP     8  COMPLETED.  FREQUENCY=   66.6680
     --- CMOMEGA for CM_SYNCH=  418.89      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP     9  COMPLETED.  FREQUENCY=   75.0015
     --- CMOMEGA for CM_SYNCH=  471.25      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    10  COMPLETED.  FREQUENCY=   83.3350
     --- CMOMEGA for CM_SYNCH=  523.61      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    11  COMPLETED.  FREQUENCY=   91.6685
     --- CMOMEGA for CM_SYNCH=  575.97      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    12  COMPLETED.  FREQUENCY=   100.002
     --- CMOMEGA for CM_SYNCH=  628.33      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    13  COMPLETED.  FREQUENCY=   108.336
     --- CMOMEGA for CM_SYNCH=  680.69      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    14  COMPLETED.  FREQUENCY=   116.669
     --- CMOMEGA for CM_SYNCH=  733.05      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    15  COMPLETED.  FREQUENCY=   125.002
     --- CMOMEGA for CM_SYNCH=  785.41      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    16  COMPLETED.  FREQUENCY=   133.336
     --- CMOMEGA for CM_SYNCH=  837.77      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    17  COMPLETED.  FREQUENCY=   141.670
     --- CMOMEGA for CM_SYNCH=  890.14      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    18  COMPLETED.  FREQUENCY=   150.003
     --- CMOMEGA for CM_SYNCH=  942.50      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    19  COMPLETED.  FREQUENCY=   158.337
     --- CMOMEGA for CM_SYNCH=  994.86      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    20  COMPLETED.  FREQUENCY=   166.670
     --- CMOMEGA for CM_SYNCH=  1047.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    21  COMPLETED.  FREQUENCY=   175.004
     --- CMOMEGA for CM_SYNCH=  1099.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    22  COMPLETED.  FREQUENCY=   183.337
     --- CMOMEGA for CM_SYNCH=  1151.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    23  COMPLETED.  FREQUENCY=   191.671
     --- CMOMEGA for CM_SYNCH=  1204.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    24  COMPLETED.  FREQUENCY=   200.004
     --- CMOMEGA for CM_SYNCH=  1256.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    25  COMPLETED.  FREQUENCY=   208.338
     --- CMOMEGA for CM_SYNCH=  1309.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    26  COMPLETED.  FREQUENCY=   216.671
     --- CMOMEGA for CM_SYNCH=  1361.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    27  COMPLETED.  FREQUENCY=   225.005
     --- CMOMEGA for CM_SYNCH=  1413.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    28  COMPLETED.  FREQUENCY=   233.338
     --- CMOMEGA for CM_SYNCH=  1466.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    29  COMPLETED.  FREQUENCY=   241.671
     --- CMOMEGA for CM_SYNCH=  1518.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    30  COMPLETED.  FREQUENCY=   250.005
     --- CMOMEGA for CM_SYNCH=  1570.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    31  COMPLETED.  FREQUENCY=   258.339
     --- CMOMEGA for CM_SYNCH=  1623.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    32  COMPLETED.  FREQUENCY=   266.672
     --- CMOMEGA for CM_SYNCH=  1675.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    33  COMPLETED.  FREQUENCY=   275.006
     --- CMOMEGA for CM_SYNCH=  1727.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    34  COMPLETED.  FREQUENCY=   283.339
     --- CMOMEGA for CM_SYNCH=  1780.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    35  COMPLETED.  FREQUENCY=   291.673
     --- CMOMEGA for CM_SYNCH=  1832.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    36  COMPLETED.  FREQUENCY=   300.006
     --- CMOMEGA for CM_SYNCH=  1885.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    37  COMPLETED.  FREQUENCY=   308.339
     --- CMOMEGA for CM_SYNCH=  1937.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    38  COMPLETED.  FREQUENCY=   316.673
     --- CMOMEGA for CM_SYNCH=  1989.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    39  COMPLETED.  FREQUENCY=   325.007
     --- CMOMEGA for CM_SYNCH=  2042.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    40  COMPLETED.  FREQUENCY=   333.340
     --- CMOMEGA for CM_SYNCH=  2094.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    41  COMPLETED.  FREQUENCY=   341.674
     --- CMOMEGA for CM_SYNCH=  2146.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    42  COMPLETED.  FREQUENCY=   350.007
     --- CMOMEGA for CM_SYNCH=  2199.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    43  COMPLETED.  FREQUENCY=   358.341
     --- CMOMEGA for CM_SYNCH=  2251.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    44  COMPLETED.  FREQUENCY=   366.674
     --- CMOMEGA for CM_SYNCH=  2303.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    45  COMPLETED.  FREQUENCY=   375.007
     --- CMOMEGA for CM_SYNCH=  2356.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    46  COMPLETED.  FREQUENCY=   383.341
     --- CMOMEGA for CM_SYNCH=  2408.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    47  COMPLETED.  FREQUENCY=   391.675
     --- CMOMEGA for CM_SYNCH=  2461.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    48  COMPLETED.  FREQUENCY=   400.008
     --- CMOMEGA for CM_SYNCH=  2513.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    49  COMPLETED.  FREQUENCY=   408.341
     --- CMOMEGA for CM_SYNCH=  2565.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    50  COMPLETED.  FREQUENCY=   416.675
     --- CMOMEGA for CM_SYNCH=  2618.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    51  COMPLETED.  FREQUENCY=   425.009
     --- CMOMEGA for CM_SYNCH=  2670.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    52  COMPLETED.  FREQUENCY=   433.342
     --- CMOMEGA for CM_SYNCH=  2722.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    53  COMPLETED.  FREQUENCY=   441.676
     --- CMOMEGA for CM_SYNCH=  2775.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    54  COMPLETED.  FREQUENCY=   450.009
     --- CMOMEGA for CM_SYNCH=  2827.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    55  COMPLETED.  FREQUENCY=   458.343
     --- CMOMEGA for CM_SYNCH=  2879.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    56  COMPLETED.  FREQUENCY=   466.676
     --- CMOMEGA for CM_SYNCH=  2932.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    57  COMPLETED.  FREQUENCY=   475.010
     --- CMOMEGA for CM_SYNCH=  2984.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    58  COMPLETED.  FREQUENCY=   483.343
     --- CMOMEGA for CM_SYNCH=  3036.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    59  COMPLETED.  FREQUENCY=   491.676
     --- CMOMEGA for CM_SYNCH=  3089.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    60  COMPLETED.  FREQUENCY=   500.010
     --- CMOMEGA for CM_SYNCH=  3141.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    61  COMPLETED.  FREQUENCY=   508.344
     --- CMOMEGA for CM_SYNCH=  3194.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    62  COMPLETED.  FREQUENCY=   516.677
     --- CMOMEGA for CM_SYNCH=  3246.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    63  COMPLETED.  FREQUENCY=   525.010
     --- CMOMEGA for CM_SYNCH=  3298.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    64  COMPLETED.  FREQUENCY=   533.344
     --- CMOMEGA for CM_SYNCH=  3351.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    65  COMPLETED.  FREQUENCY=   541.678
     --- CMOMEGA for CM_SYNCH=  3403.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    66  COMPLETED.  FREQUENCY=   550.011
     --- CMOMEGA for CM_SYNCH=  3455.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    67  COMPLETED.  FREQUENCY=   558.345
     --- CMOMEGA for CM_SYNCH=  3508.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    68  COMPLETED.  FREQUENCY=   566.678
     --- CMOMEGA for CM_SYNCH=  3560.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    69  COMPLETED.  FREQUENCY=   575.012
     --- CMOMEGA for CM_SYNCH=  3612.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    70  COMPLETED.  FREQUENCY=   583.345
     --- CMOMEGA for CM_SYNCH=  3665.3      0.0000      0.0000
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     --- CMOMEGA for CM_SYNCH=  3717.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    72  COMPLETED.  FREQUENCY=   600.012
     --- CMOMEGA for CM_SYNCH=  3770.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    73  COMPLETED.  FREQUENCY=   608.346
     --- CMOMEGA for CM_SYNCH=  3822.3      0.0000      0.0000
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     --- CMOMEGA for CM_SYNCH=  3874.7      0.0000      0.0000
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     --- CMOMEGA for CM_SYNCH=  3927.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    76  COMPLETED.  FREQUENCY=   633.346
     --- CMOMEGA for CM_SYNCH=  3979.4      0.0000      0.0000
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     --- CMOMEGA for CM_SYNCH=  4031.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    78  COMPLETED.  FREQUENCY=   650.013
     --- CMOMEGA for CM_SYNCH=  4084.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP    79  COMPLETED.  FREQUENCY=   658.346
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     --- CMOMEGA for CM_SYNCH=  4188.9      0.0000      0.0000
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     --- CMOMEGA for CM_SYNCH=  4503.0      0.0000      0.0000
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     --- CMOMEGA for CM_SYNCH=  4817.2      0.0000      0.0000
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     --- CMOMEGA for CM_SYNCH=  5183.7      0.0000      0.0000
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     --- CMOMEGA for CM_SYNCH=  5236.1      0.0000      0.0000
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     --- CMOMEGA for CM_SYNCH=  5288.5      0.0000      0.0000
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     --- CMOMEGA for CM_SYNCH=  5393.2      0.0000      0.0000
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     --- CMOMEGA for CM_SYNCH=  5445.5      0.0000      0.0000
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     --- CMOMEGA for CM_SYNCH=  5497.9      0.0000      0.0000
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     --- CMOMEGA for CM_SYNCH=  5550.3      0.0000      0.0000
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     --- CMOMEGA for CM_SYNCH=  5602.6      0.0000      0.0000
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     --- CMOMEGA for CM_SYNCH=  6073.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   117  COMPLETED.  FREQUENCY=   975.019
     --- CMOMEGA for CM_SYNCH=  6126.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   118  COMPLETED.  FREQUENCY=   983.353
     --- CMOMEGA for CM_SYNCH=  6178.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   119  COMPLETED.  FREQUENCY=   991.687
     --- CMOMEGA for CM_SYNCH=  6231.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   120  COMPLETED.  FREQUENCY=   1000.02
     --- CMOMEGA for CM_SYNCH=  6283.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   121  COMPLETED.  FREQUENCY=   1008.35
     --- CMOMEGA for CM_SYNCH=  6335.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   122  COMPLETED.  FREQUENCY=   1016.69
     --- CMOMEGA for CM_SYNCH=  6388.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   123  COMPLETED.  FREQUENCY=   1025.02
     --- CMOMEGA for CM_SYNCH=  6440.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   124  COMPLETED.  FREQUENCY=   1033.35
     --- CMOMEGA for CM_SYNCH=  6492.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   125  COMPLETED.  FREQUENCY=   1041.69
     --- CMOMEGA for CM_SYNCH=  6545.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   126  COMPLETED.  FREQUENCY=   1050.02
     --- CMOMEGA for CM_SYNCH=  6597.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   127  COMPLETED.  FREQUENCY=   1058.35
     --- CMOMEGA for CM_SYNCH=  6649.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   128  COMPLETED.  FREQUENCY=   1066.69
     --- CMOMEGA for CM_SYNCH=  6702.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   129  COMPLETED.  FREQUENCY=   1075.02
     --- CMOMEGA for CM_SYNCH=  6754.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   130  COMPLETED.  FREQUENCY=   1083.36
     --- CMOMEGA for CM_SYNCH=  6806.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   131  COMPLETED.  FREQUENCY=   1091.69
     --- CMOMEGA for CM_SYNCH=  6859.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   132  COMPLETED.  FREQUENCY=   1100.02
     --- CMOMEGA for CM_SYNCH=  6911.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   133  COMPLETED.  FREQUENCY=   1108.36
     --- CMOMEGA for CM_SYNCH=  6964.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   134  COMPLETED.  FREQUENCY=   1116.69
     --- CMOMEGA for CM_SYNCH=  7016.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   135  COMPLETED.  FREQUENCY=   1125.02
     --- CMOMEGA for CM_SYNCH=  7068.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   136  COMPLETED.  FREQUENCY=   1133.36
     --- CMOMEGA for CM_SYNCH=  7121.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   137  COMPLETED.  FREQUENCY=   1141.69
     --- CMOMEGA for CM_SYNCH=  7173.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   138  COMPLETED.  FREQUENCY=   1150.02
     --- CMOMEGA for CM_SYNCH=  7225.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   139  COMPLETED.  FREQUENCY=   1158.36
     --- CMOMEGA for CM_SYNCH=  7278.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   140  COMPLETED.  FREQUENCY=   1166.69
     --- CMOMEGA for CM_SYNCH=  7330.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   141  COMPLETED.  FREQUENCY=   1175.02
     --- CMOMEGA for CM_SYNCH=  7382.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   142  COMPLETED.  FREQUENCY=   1183.36
     --- CMOMEGA for CM_SYNCH=  7435.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   143  COMPLETED.  FREQUENCY=   1191.69
     --- CMOMEGA for CM_SYNCH=  7487.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   144  COMPLETED.  FREQUENCY=   1200.02
     --- CMOMEGA for CM_SYNCH=  7540.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   145  COMPLETED.  FREQUENCY=   1208.36
     --- CMOMEGA for CM_SYNCH=  7592.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   146  COMPLETED.  FREQUENCY=   1216.69
     --- CMOMEGA for CM_SYNCH=  7644.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   147  COMPLETED.  FREQUENCY=   1225.02
     --- CMOMEGA for CM_SYNCH=  7697.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   148  COMPLETED.  FREQUENCY=   1233.36
     --- CMOMEGA for CM_SYNCH=  7749.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   149  COMPLETED.  FREQUENCY=   1241.69
     --- CMOMEGA for CM_SYNCH=  7801.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   150  COMPLETED.  FREQUENCY=   1250.03
     --- CMOMEGA for CM_SYNCH=  7854.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   151  COMPLETED.  FREQUENCY=   1258.36
     --- CMOMEGA for CM_SYNCH=  7906.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   152  COMPLETED.  FREQUENCY=   1266.69
     --- CMOMEGA for CM_SYNCH=  7958.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   153  COMPLETED.  FREQUENCY=   1275.03
     --- CMOMEGA for CM_SYNCH=  8011.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   154  COMPLETED.  FREQUENCY=   1283.36
     --- CMOMEGA for CM_SYNCH=  8063.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   155  COMPLETED.  FREQUENCY=   1291.69
     --- CMOMEGA for CM_SYNCH=  8115.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   156  COMPLETED.  FREQUENCY=   1300.03
     --- CMOMEGA for CM_SYNCH=  8168.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   157  COMPLETED.  FREQUENCY=   1308.36
     --- CMOMEGA for CM_SYNCH=  8220.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   158  COMPLETED.  FREQUENCY=   1316.69
     --- CMOMEGA for CM_SYNCH=  8273.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   159  COMPLETED.  FREQUENCY=   1325.03
     --- CMOMEGA for CM_SYNCH=  8325.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   160  COMPLETED.  FREQUENCY=   1333.36
     --- CMOMEGA for CM_SYNCH=  8377.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   161  COMPLETED.  FREQUENCY=   1341.69
     --- CMOMEGA for CM_SYNCH=  8430.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   162  COMPLETED.  FREQUENCY=   1350.03
     --- CMOMEGA for CM_SYNCH=  8482.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   163  COMPLETED.  FREQUENCY=   1358.36
     --- CMOMEGA for CM_SYNCH=  8534.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   164  COMPLETED.  FREQUENCY=   1366.69
     --- CMOMEGA for CM_SYNCH=  8587.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   165  COMPLETED.  FREQUENCY=   1375.03
     --- CMOMEGA for CM_SYNCH=  8639.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   166  COMPLETED.  FREQUENCY=   1383.36
     --- CMOMEGA for CM_SYNCH=  8691.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   167  COMPLETED.  FREQUENCY=   1391.69
     --- CMOMEGA for CM_SYNCH=  8744.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   168  COMPLETED.  FREQUENCY=   1400.03
     --- CMOMEGA for CM_SYNCH=  8796.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   169  COMPLETED.  FREQUENCY=   1408.36
     --- CMOMEGA for CM_SYNCH=  8849.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   170  COMPLETED.  FREQUENCY=   1416.69
     --- CMOMEGA for CM_SYNCH=  8901.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   171  COMPLETED.  FREQUENCY=   1425.03
     --- CMOMEGA for CM_SYNCH=  8953.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   172  COMPLETED.  FREQUENCY=   1433.36
     --- CMOMEGA for CM_SYNCH=  9006.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   173  COMPLETED.  FREQUENCY=   1441.70
     --- CMOMEGA for CM_SYNCH=  9058.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   174  COMPLETED.  FREQUENCY=   1450.03
     --- CMOMEGA for CM_SYNCH=  9110.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   175  COMPLETED.  FREQUENCY=   1458.36
     --- CMOMEGA for CM_SYNCH=  9163.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   176  COMPLETED.  FREQUENCY=   1466.70
     --- CMOMEGA for CM_SYNCH=  9215.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   177  COMPLETED.  FREQUENCY=   1475.03
     --- CMOMEGA for CM_SYNCH=  9267.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   178  COMPLETED.  FREQUENCY=   1483.36
     --- CMOMEGA for CM_SYNCH=  9320.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   179  COMPLETED.  FREQUENCY=   1491.70
     --- CMOMEGA for CM_SYNCH=  9372.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   180  COMPLETED.  FREQUENCY=   1500.03
     --- CMOMEGA for CM_SYNCH=  9425.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   181  COMPLETED.  FREQUENCY=   1508.36
     --- CMOMEGA for CM_SYNCH=  9477.3      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   182  COMPLETED.  FREQUENCY=   1516.70
     --- CMOMEGA for CM_SYNCH=  9529.7      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   183  COMPLETED.  FREQUENCY=   1525.03
     --- CMOMEGA for CM_SYNCH=  9582.0      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   184  COMPLETED.  FREQUENCY=   1533.36
     --- CMOMEGA for CM_SYNCH=  9634.4      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   185  COMPLETED.  FREQUENCY=   1541.70
     --- CMOMEGA for CM_SYNCH=  9686.8      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   186  COMPLETED.  FREQUENCY=   1550.03
     --- CMOMEGA for CM_SYNCH=  9739.1      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   187  COMPLETED.  FREQUENCY=   1558.36
     --- CMOMEGA for CM_SYNCH=  9791.5      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   188  COMPLETED.  FREQUENCY=   1566.70
     --- CMOMEGA for CM_SYNCH=  9843.9      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   189  COMPLETED.  FREQUENCY=   1575.03
     --- CMOMEGA for CM_SYNCH=  9896.2      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   190  COMPLETED.  FREQUENCY=   1583.37
     --- CMOMEGA for CM_SYNCH=  9948.6      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   191  COMPLETED.  FREQUENCY=   1591.70
     --- CMOMEGA for CM_SYNCH=  10001.      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   192  COMPLETED.  FREQUENCY=   1600.03
     --- CMOMEGA for CM_SYNCH=  10053.      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   193  COMPLETED.  FREQUENCY=   1608.37
     --- CMOMEGA for CM_SYNCH=  10106.      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   194  COMPLETED.  FREQUENCY=   1616.70
     --- CMOMEGA for CM_SYNCH=  10158.      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   195  COMPLETED.  FREQUENCY=   1625.03
     --- CMOMEGA for CM_SYNCH=  10210.      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   196  COMPLETED.  FREQUENCY=   1633.37
     --- CMOMEGA for CM_SYNCH=  10263.      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   197  COMPLETED.  FREQUENCY=   1641.70
     --- CMOMEGA for CM_SYNCH=  10315.      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   198  COMPLETED.  FREQUENCY=   1650.03
     --- CMOMEGA for CM_SYNCH=  10367.      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   199  COMPLETED.  FREQUENCY=   1658.37
     --- CMOMEGA for CM_SYNCH=  10420.      0.0000      0.0000
 *** LOAD STEP     1   SUBSTEP   200  COMPLETED.  FREQUENCY=   1666.70
     --- CMOMEGA for CM_SYNCH=  10472.      0.0000      0.0000


 *** MAPDL BINARY FILE STATISTICS
  BUFFER SIZE USED= 16384
        0.625 MB WRITTEN ON ELEMENT MATRIX FILE: file0.emat
        5.438 MB WRITTEN ON ELEMENT SAVED DATA FILE: file0.esav
       84.875 MB WRITTEN ON ASSEMBLED MATRIX FILE: file0.full
      420.000 MB WRITTEN ON RESULTS FILE: file0.rst
 *************** Write FE CONNECTORS *********

 WRITE OUT CONSTRAINT EQUATIONS TO FILE= file.ce

 FINISH SOLUTION PROCESSING


 ***** ROUTINE COMPLETED *****  CP =       457.562



 PRINTOUT RESUMED BY /GOP

 *GET  _WALLASOL  FROM  ACTI  ITEM=TIME WALL  VALUE=  17.9663889

 *** MAPDL - ENGINEERING ANALYSIS SYSTEM  RELEASE 2024 R2          24.2     ***
 Ansys Mechanical Enterprise
 00000000  VERSION=WINDOWS x64   17:57:59  JAN 08, 2025 CP=    457.562

 wbnew--Unbalance Response (D5)



          ***** MAPDL RESULTS INTERPRETATION (POST1) *****

 *** NOTE ***                            CP =     457.562   TIME= 17:57:59
 The model contains an element type ( COMBI214 ) that operates entirely
 in the nodal coordinate system.  Viewing nodal displacements or forces
 in other than the nodal coordinate system may be invalid.  See the
 elements manual description for more information.

 *** NOTE ***                            CP =     457.562   TIME= 17:57:59
 Reading results into the database (SET command) will update the current
 displacement and force boundary conditions in the database with the
 values from the results file for that load set.  Note that any
 subsequent solutions will use these values unless action is taken to
 either SAVE the current values or not overwrite them (/EXIT,NOSAVE).

 Set Encoding of XML File to:ISO-8859-1

 Set Output of XML File to:
     PARM,     ,     ,     ,     ,     ,     ,     ,     ,     ,     ,     ,
         ,     ,     ,     ,     ,     ,     ,

 DATABASE WRITTEN ON FILE  parm.xml

 EXIT THE MAPDL POST1 DATABASE PROCESSOR


 ***** ROUTINE COMPLETED *****  CP =       457.578



 PRINTOUT RESUMED BY /GOP

 *GET  _WALLDONE  FROM  ACTI  ITEM=TIME WALL  VALUE=  17.9663889

 PARAMETER _PREPTIME =     0.000000000

 PARAMETER _SOLVTIME =     530.0000000

 PARAMETER _POSTTIME =     0.000000000

 PARAMETER _TOTALTIM =     530.0000000

 *GET  _DLBRATIO  FROM  ACTI  ITEM=SOLU DLBR  VALUE=  0.00000000

 *GET  _COMBTIME  FROM  ACTI  ITEM=SOLU COMB  VALUE=  2.78889360

 *GET  _SSMODE   FROM  ACTI  ITEM=SOLU SSMM  VALUE=  2.00000000

 *GET  _NDOFS    FROM  ACTI  ITEM=SOLU NDOF  VALUE=  52628.0000

 /FCLEAN COMMAND REMOVING ALL LOCAL FILES
 --- Total number of nodes = 17554
 --- Total number of elements = 11111
 --- Element load balance ratio = 0
 --- Time to combine distributed files = 2.7888936
 --- Sparse memory mode = 2
 --- Number of DOF = 52628

 EXIT MAPDL WITHOUT SAVING DATABASE


 NUMBER OF WARNING MESSAGES ENCOUNTERED=         36
 NUMBER OF ERROR   MESSAGES ENCOUNTERED=          0

 *** NOTE ***                            CP =     458.375   TIME= 17:58:01
 The solution for the current simulation was performed using 1 cores.
 The parallel performance of this simulation on this hardware indicates
 that this simulation would benefit from using additional CPU cores.
 Consider using more CPU cores, which may require additional HPC
 licenses, when running this simulation again on the same hardware.

+--------------------- M A P D L   S T A T I S T I C S ------------------------+

Release: 2024 R2            Build: 24.2       Update: UP20240603   Platform: WINDOWS x64
Date Run: 01/08/2025   Time: 17:58     Process ID: 19508
Operating System: Windows 11  (Build: 22631)

Processor Model: Intel(R) Xeon(R) Platinum 8171M CPU @ 2.60GHz

Compiler: Intel(R) Fortran Compiler Classic Version 2021.9  (Build: 20230302)
          Intel(R) C/C++ Compiler Classic Version 2021.9  (Build: 20230302)
          Intel(R) oneAPI Math Kernel Library Version 2023.1-Product Build 20230303

Number of machines requested            :    1
Total number of cores available         :    8
Number of physical cores available      :    4
Number of processes requested           :    4
Number of threads per process requested :    1
Total number of cores requested         :    4 (Distributed Memory Parallel)
MPI Type: INTELMPI
MPI Version: Intel(R) MPI Library 2021.11 for Windows* OS


GPU Acceleration: Not Requested

Job Name: file0
Input File: dummy.dat

  Core                Machine Name   Working Directory
 -----------------------------------------------------
     0                 pyworkbench   C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr82F5
     1                 pyworkbench   C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr82F5
     2                 pyworkbench   C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr82F5
     3                 pyworkbench   C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\_ProjectScratch\Scr82F5

Latency time from master to core     1 =    4.961 microseconds
Latency time from master to core     2 =    3.347 microseconds
Latency time from master to core     3 =    3.189 microseconds

Communication speed from master to core     1 =  4067.71 MB/sec
Communication speed from master to core     2 =  4785.18 MB/sec
Communication speed from master to core     3 =  5324.49 MB/sec

Total CPU time for main thread                    :      455.9 seconds
Total CPU time summed for all threads             :      458.4 seconds

Elapsed time spent obtaining a license            :        0.5 seconds
Elapsed time spent pre-processing model (/PREP7)  :        0.1 seconds
Elapsed time spent solution - preprocessing       :        0.5 seconds
Elapsed time spent computing solution             :      526.3 seconds
Elapsed time spent solution - postprocessing      :        2.8 seconds
Elapsed time spent post-processing model (/POST1) :        0.0 seconds

Equation solver used                              :            Sparse (unsymmetric)
Equation solver computational rate                :        6.9 Gflops

Sum of disk space used on all processes           :     3316.6 MB

Sum of memory used on all processes               :     4489.0 MB
Sum of memory allocated on all processes          :     7523.0 MB
Physical memory available                         :         32 GB
Total amount of I/O written to disk               :        3.8 GB
Total amount of I/O read from disk                :        0.7 GB

+------------------ E N D   M A P D L   S T A T I S T I C S -------------------+


 *-----------------------------------------------------------------------------*
 |                                                                             |
 |                               RUN COMPLETED                                 |
 |                                                                             |
 |-----------------------------------------------------------------------------|
 |                                                                             |
 |  Ansys MAPDL 2024 R2         Build 24.2         UP20240603    WINDOWS x64   |
 |                                                                             |
 |-----------------------------------------------------------------------------|
 |                                                                             |
 |  Database Requested(-db)     1024 MB     Scratch Memory Requested   1024 MB |
 |  Max Database Used(Master)     13 MB     Max Scratch Used(Master)   1110 MB |
 |  Max Database Used(Workers)    12 MB     Max Scratch Used(Workers)  1110 MB |
 |  Sum Database Used(All)        49 MB     Sum Scratch Used(All)      4440 MB |
 |                                                                             |
 |-----------------------------------------------------------------------------|
 |                                                                             |
 |        CP Time      (sec) =        458.375       Time  =  17:58:01          |
 |        Elapsed Time (sec) =        534.000       Date  =  01/08/2025        |
 |                                                                             |
 *-----------------------------------------------------------------------------*

Download all the files from the server to the current working directory for the 3D rotor model. Verify the source path for the directory and copy all files from the server to the client.

[45]:
import shutil
import glob
[46]:
current_working_directory = os.getcwd()
target_dir2 = current_working_directory
print(f"Files to be copied from server path at: {target_dir2}")
print(f"All the solver files are stored on the server at: {result_solve_dir_server}")
Files to be copied from server path at: C:\Users\ansys\actions-runner\_work\pyworkbench-examples\pyworkbench-examples\pyworkbench-examples\doc\source\examples\axisymmetric-rotor
All the solver files are stored on the server at: C:\Users\ansys\AppData\Local\Temp\WB_ansys_19944_2\wbnew_files\dp0\SYS-3\MECH\
[47]:
source_dir = result_solve_dir_server
destination_dir = target_dir2
[48]:
for file in glob.glob(source_dir + '/*'):
    shutil.copy(file, destination_dir)

Finally, call the exit method on both the PyMechanical and Workbench clients to gracefully shut down the services.

[49]:
mechanical.exit()
wb.exit()