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March 29, 2020 at 1:45 pm
sruthyvs
SubscriberI an a newbie to ansys. I need to design a soil pile continuum model in ansys 19.2.I am using a licensed software. I have created a concrete circular single end bearing pile of 500mm Dia and 12m depth in a soil block of 10*10*12 having 5 soil layers of sand and clay..... Including 6 main rebars... 17 top stirrups and... 11 bottom stirrups. I am doing this work to get this settlement analysis in Mohr coulumb model. I found issue in dealing with connections and contacts. I have given bonded connection for steel to concrete, steel rft with stirrups, bw soil layer and frictional contact with coefficient 0.2 for concrete to soil connections. But there occurred problems of overlapping and penetration.... I have just created a default mesh having 0.67m element size with 204484 elements and 981245 nodes with 40 bodies of total... A remote force of - 90Ton but m not getting the total and directional deformation... Saying an unknown error.... And CPU time elapsed..... I am using an i7 lap with 16gb ram and graphics card.... Please help me out to sort out my problem.... I jzt need information on assigning contacts and mesh. I have created contact tool... But some of the contacts are seen inactive and one contact is bonded and closed but has a large amount of penetration and gap? I don't know what it means and how can I solve this.... I just wanna find the soil settlement ie deformation of soil and pile as a whole.... -
March 30, 2020 at 3:57 pm
SaiD
Ansys EmployeeHello,
Could you share images of the geometry and the contact pair where the problem is occurring? For example, may be share the list of inactive contacts and a sample image of the geometry for one such contact?
Sai
Â
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April 4, 2020 at 5:45 am
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April 6, 2020 at 4:28 pm
SaiD
Ansys EmployeeHi,
Since it says its an unknown error, I am unable to make any guesses without additional information. But go through the post below, especially the part about contacts, and see if that helps in anyway:
Sai
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April 30, 2020 at 7:05 am
sruthyvs
Subscriberi coulnt solve the issue sir.could u plz help me? plz find the solver output file attached below.
ANSYS Mechanical Enterprise                     Â
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 ANSYS, Inc. Products Release 19.2 Â
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 AIM Release 19.2
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 Creo Elements/Direct Modeling Geometry Interface Release 19.2 Â
 Creo Parametric Geometry Interface Release 19.2
 Inventor Geometry Interface Release 19.2
 JTOpen Geometry Interface Release 19.2Â
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 Parasolid Geometry Interface Release 19.2Â
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 ANSYS, Inc. License Manager Release 19.2
         ***** ANSYS COMMAND LINE ARGUMENTS *****
 BATCH MODE REQUESTED (-b)   = NOLIST
 INPUT FILE COPY MODE (-c)   = COPY
 DISTRIBUTED MEMORY PARALLEL REQUESTED
      2 PARALLEL PROCESSES REQUESTED WITH SINGLE THREAD PER PROCESS
   TOTAL OF    2 CORES REQUESTED
 MPI OPTION                  = INTELMPI
 INPUT FILE NAME             = F:SDWORKSPACEMINI-PROJECT ANSYS WORKANSYS WORK (05-04-2020)SOIL-PILE MODEL TRIAL 1SOIL MODEL WITH MANUAL CONTACTS 30-04-2020600mm DIAMETER_ProjectScratchScrF9B3dummy.dat
 OUTPUT FILE NAME            = F:SDWORKSPACEMINI-PROJECT ANSYS WORKANSYS WORK (05-04-2020)SOIL-PILE MODEL TRIAL 1SOIL MODEL WITH MANUAL CONTACTS 30-04-2020600mm DIAMETER_ProjectScratchScrF9B3solve.out
 START-UP FILE MODE          = NOREAD
 STOP FILE MODE              = NOREAD
 RELEASE= Release 19.2        BUILD= 19.2     UP20180808  VERSION=WINDOWS x64
 CURRENT JOBNAME=file0 112:46 APR 30, 2020 CP=     0.172
 PARAMETER _DS_PROGRESS =    999.0000000  Â
 /INPUT FILE= ds.dat LINE=      0
 *** NOTE ***                           CP =      0.297  TIME= 112:46
 The /CONFIG,NOELDB command is not valid in a Distributed ANSYS        Â
 solution. Command is ignored.                                        Â
 *GET _WALLSTRT FROM ACTI ITEM=TIME WALL VALUE= 11.5461111  Â
 TITLE=
 TRIAL-1(600mm dia)--Static Structural (B5)                                  Â
 SET PARAMETER DIMENSIONS ON _WB_PROJECTSCRATCH_DIR
 TYPE=STRI DIMENSIONS=     248       1       1
 PARAMETER _WB_PROJECTSCRATCH_DIR(1) = F:SDWORKSPACEMINI-PROJECT ANSYS WORKANSYS WORK (05-04-2020)SOIL-PILE MODEL TRIAL 1SOIL MODEL WITH MANUAL CONTACTS 30-04-2020600mm DIAMETER_ProjectScratchScrF9B3
 SET PARAMETER DIMENSIONS ON _WB_SOLVERFILES_DIR
 TYPE=STRI DIMENSIONS=     248       1       1
 PARAMETER _WB_SOLVERFILES_DIR(1) = F:SDWORKSPACEMINI-PROJECT ANSYS WORKANSYS WORK (05-04-2020)SOIL-PILE MODEL TRIAL 1SOIL MODEL WITH MANUAL CONTACTS 30-04-2020600mm DIAMETERTRIAL-1(600mm dia)_filesdp0SYS-1MECH
 SET PARAMETER DIMENSIONS ON _WB_USERFILES_DIR
 TYPE=STRI DIMENSIONS=     248       1       1
 PARAMETER _WB_USERFILES_DIR(1) = F:SDWORKSPACEMINI-PROJECT ANSYS WORKANSYS WORK (05-04-2020)SOIL-PILE MODEL TRIAL 1SOIL MODEL WITH MANUAL CONTACTS 30-04-2020600mm DIAMETERTRIAL-1(600mm dia)_filesuser_files
 --- Data in consistent MKS units. See Solving Units in the help system for more
 MKS UNITS SPECIFIED FOR INTERNAL  Â
 LENGTH       (l) = METER (M)
 MASS         (M) = KILOGRAM (KG)
 TIME         (t) = SECOND (SEC)
 TEMPERATURE  (T) = CELSIUS (C)
 TOFFSET           = 273.0
 CHARGE       (Q) = COULOMB
 FORCE        (f) = NEWTON (N) (KG-M/SEC2)
 HEAT              = JOULE (N-M)
 PRESSURE          = PASCAL (NEWTON/M**2)
 ENERGY       (W) = JOULE (N-M)
 POWER        (P) = WATT (N-M/SEC)
 CURRENT      (i) = AMPERE (COULOMBS/SEC)
 CAPACITANCE  (C) = FARAD
 INDUCTANCE   (L) = HENRY
 MAGNETIC FLUX     = WEBER
 RESISTANCE   (R) = OHM
 ELECTRIC POTENTIAL = VOLT
 INPUT UNITS ARE ALSO SET TO MKS
 *** ANSYS - ENGINEERING ANALYSIS SYSTEM RELEASE Release 19.2    19.2    ***
 DISTRIBUTED ANSYS Mechanical Enterprise                     Â
 00000000 VERSION=WINDOWS x64  112:46 APR 30, 2020 CP=     0.297
 TRIAL-1(600mm dia)--Static Structural (B5)                                  Â
         ***** ANSYS ANALYSIS DEFINITION (PREP7) *****
 *********** Nodes for the whole assembly ***********
 *********** Elements for Body 1 "MEDIUM SAND 2" ***********
 *********** Elements for Body 2 "MEDIUM SAND 1" ***********
 *********** Elements for Body 3 "SILTY SANDY CLAY 3" ***********
 *********** Elements for Body 4 "SILTY SANDY CLAY 2" ***********
 *********** Elements for Body 5 "SILTY SANDY CLAY 1" ***********
 *********** Elements for Body 6 "CONCRETE-PILE" ***********
 *********** Elements for Body 7 "TOP STIRRUPS 1" ***********
 *********** Elements for Body 8 "TOP STIRRUPS 2" ***********
 *********** Elements for Body 9 "TOP STIRRUPS 3" ***********
 *********** Elements for Body 10 "TOP STIRRUPS 4" ***********
 *********** Elements for Body 11 "TOP STIRRUPS 5" ***********
 *********** Elements for Body 12 "TOP STIRRUPS 6" ***********
 *********** Elements for Body 13 "TOP STIRRUPS 7" ***********
 *********** Elements for Body 14 "TOP STIRRUPS 8" ***********
 *********** Elements for Body 15 "TOP STIRRUPS 9" ***********
 *********** Elements for Body 16 "TOP STIRRUPS 10" ***********
 *********** Elements for Body 17 "TOP STIRRUPS 11" ***********
 *********** Elements for Body 18 "TOP STIRRUPS 12" ***********
 *********** Elements for Body 19 "TOP STIRRUPS 13" ***********
 *********** Elements for Body 20 "TOP STIRRUPS 14" ***********
 *********** Elements for Body 21 "TOP STIRRUPS 15" ***********
 *********** Elements for Body 22 "TOP STIRRUPS 16" ***********
 *********** Elements for Body 23 "TOP STIRRUPS 17" ***********
 *********** Elements for Body 24 "BOTTOM STIRRUPS 1" ***********
 *********** Elements for Body 25 "BOTTOM STIRRUPS 2" ***********
 *********** Elements for Body 26 "BOTTOM STIRRUPS 3" ***********
 *********** Elements for Body 27 "BOTTOM STIRRUPS 4" ***********
 *********** Elements for Body 28 "BOTTOM STIRRUPS 5" ***********
 *********** Elements for Body 29 "BOTTOM STIRRUPS 6" ***********
 *********** Elements for Body 30 "BOTTOM STIRRUPS 7" ***********
 *********** Elements for Body 31 "BOTTOM STIRRUPS 8" ***********
 *********** Elements for Body 32 "BOTTOM STIRRUPS 9" ***********
 *********** Elements for Body 33 "BOTTOM STIRRUPS 10" ***********
 *********** Elements for Body 34 "BOTTOM STIRRUPS 11" ***********
 *********** Elements for Body 35 "MAIN LONG REBARS 1" ***********
 *********** Elements for Body 36 "MAIN LONG REBARS 2" ***********
 *********** Elements for Body 37 "MAIN LONG REBARS 3" ***********
 *********** Elements for Body 38 "MAIN LONG REBARS 4" ***********
 *********** Elements for Body 39 "MAIN LONG REBARS 5" ***********
 *********** Elements for Body 40 "MAIN LONG REBARS 6" ***********
 *********** Send User Defined Coordinate System(s) ***********
 *********** Set Reference Temperature ***********
 *********** Send Materials ***********
 *********** Create Contact "Frictional - CONCRETE-PILE To Multiple" ***********
            Real Constant Set For Above Contact Is 42 & 41
 *********** Create Contact "Bonded - MEDIUM SAND 2 To MEDIUM SAND 1" *********
            Real Constant Set For Above Contact Is 44 & 43
 *********** Create Contact "Bonded - MEDIUM SAND 1 To SILTY SANDY CLAY 3" *****
            Real Constant Set For Above Contact Is 46 & 45
 *********** Create Contact "Bonded - SILTY SANDY CLAY 3 To SILTY SANDY CLAY 2"
            Real Constant Set For Above Contact Is 48 & 47
 *********** Create Contact "Bonded - SILTY SANDY CLAY 2 To SILTY SANDY CLAY 1"
            Real Constant Set For Above Contact Is 50 & 49
 *********** Create Contact "Bonded - CONCRETE-PILE To Multiple" ***********
            Real Constant Set For Above Contact Is 52 & 51
 *********** Create Contact "Bonded - Multiple To Multiple" ***********
            Real Constant Set For Above Contact Is 54 & 53
 *********** Fixed Supports ***********
 *********** Define Pressure Using Surface Effect Elements ***********
 ***** ROUTINE COMPLETED ***** CP =        6.219
 --- Number of total nodes = 975357
 --- Number of contact elements = 547031
 --- Number of spring elements = 0
 --- Number of bearing elements = 0
 --- Number of solid elements = 202818
 --- Number of condensed parts = 0
 --- Number of total elements = 749849
 *GET _WALLBSOL FROM ACTI ITEM=TIME WALL VALUE= 11.5472222  Â
 ****************************************************************************
 *************************   SOLUTION      ********************************
 ****************************************************************************
 ***** ANSYS SOLUTION ROUTINE *****
 PERFORM A STATIC ANALYSIS
 THIS WILL BE A NEW ANALYSIS
 LARGE DEFORMATION ANALYSIS
 USE SPARSE MATRIX DIRECT SOLVER
 CONTACT INFORMATION PRINTOUT LEVEL      1
 DO NOT COMBINE ELEMENT MATRIX FILES (.emat) AFTER DISTRIBUTED PARALLEL SOLUTION
 DO NOT COMBINE ELEMENT SAVE DATA FILES (.esav) AFTER DISTRIBUTED PARALLEL SOLUTION
 NLDIAG: Nonlinear diagnostics CONT option is set to ON.
        Writing frequency : each ITERATION.
 DEFINE RESTART CONTROL FOR LOADSTEP LAST
 AT FREQUENCY OF LAST AND NUMBER FOR OVERWRITE IS   0
 DELETE RESTART FILES OF ENDSTEP
 ****************************************************
 ******************* SOLVE FOR LS 1 OF 1 ****************
 SELECT      FOR ITEM=TYPE COMPONENT=  Â
 IN RANGE       55 TO        55 STEP         1
       147 ELEMENTS (OF    749849 DEFINED) SELECTED BY ESEL COMMAND.
 SELECT     ALL NODES HAVING ANY ELEMENT IN ELEMENT SET.
       488 NODES (OF    975357 DEFINED) SELECTED FROM
     147 SELECTED ELEMENTS BY NSLE COMMAND.
 GENERATE SURFACE LOAD PRES ON SURFACE DEFINED BY ALL SELECTED NODES
 VALUES= 346840.000     0.00000000  Â
 NUMBER OF PRES ELEMENT FACE LOADS STORED =       147
 ALL SELECT  FOR ITEM=NODE COMPONENT=  Â
 IN RANGE        1 TO    975357 STEP         1
    975357 NODES (OF    975357 DEFINED) SELECTED BY NSEL COMMAND.
 ALL SELECT  FOR ITEM=ELEM COMPONENT=  Â
 IN RANGE        1 TO    749849 STEP         1
    749849 ELEMENTS (OF    749849 DEFINED) SELECTED BY ESEL COMMAND.
 ALL SELECT  FOR ITEM=ELEM COMPONENT=  Â
 IN RANGE        1 TO    749849 STEP         1
    749849 ELEMENTS (OF    749849 DEFINED) SELECTED BY ESEL COMMAND.
 PRINTOUT RESUMED BY /GOP
 USE AUTOMATIC TIME STEPPING THIS LOAD STEP
 USE      1 SUBSTEPS INITIALLY THIS LOAD STEP FOR ALL DEGREES OF FREEDOM
 FOR AUTOMATIC TIME STEPPING:
  USE    10 SUBSTEPS AS A MAXIMUM
  USE     1 SUBSTEPS AS A MINIMUM
 TIME= 1.0000  Â
 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 RSOL 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 EPPL ITEMS TO THE DATABASE WITH A FREQUENCY OF ALL
  FOR ALL APPLICABLE ENTITIES
 NONLINEAR STABILIZATION CONTROL:
 KEY=OFF
 *GET ANSINTER_ FROM ACTI ITEM=INT       VALUE= 0.00000000  Â
 *IF ANSINTER_                        ( =  0.00000    ) NEÂ
     0                                ( =  0.00000    ) THEN  Â
 *ENDIF
 *** NOTE ***                           CP =      7.531  TIME= 112:51
 The automatic domain decomposition logic has selected the MESH domain Â
 decomposition method with 2 processes per solution.                   Â
 ***** ANSYS SOLVE   COMMAND *****
 *** WARNING ***                        CP =      7.875  TIME= 112:51
 Element shape checking is currently inactive. Issue SHPP,ON or       Â
 SHPP,WARN to reactivate, if desired.                                  Â
 *** NOTE ***                           CP =      8.375  TIME= 112:52
 The model data was checked and warning messages were found.           Â
 Please review output or errors file ( F:SDWORKSPACEMINI-PROJECT   Â
 ANSYS WORKANSYS WORK (05-04-2020)SOIL-PILE MODEL TRIAL 1SOIL MODEL Â
 WITH MANUAL CONTACTS 30-04-2020600mm                                 Â
 DIAMETER_ProjectScratchScrF9B3file0.err ) for these warning        Â
 messages.                                                             Â
 *** SELECTION OF ELEMENT TECHNOLOGIES FOR APPLICABLE ELEMENTS ***
     --- GIVE SUGGESTIONS AND RESET THE KEY OPTIONS ---
 ELEMENT TYPE   1 IS SOLID186. KEYOPT(2)=0 IS SUGGESTED AND HAS BEEN RESET.
 KEYOPT(1-12)=   0   0   0   0   0   0   0   0   0   0   0   0
 ELEMENT TYPE   2 IS SOLID186. KEYOPT(2)=0 IS SUGGESTED AND HAS BEEN RESET.
 KEYOPT(1-12)=   0   0   0   0   0   0   0   0   0   0   0   0
 ELEMENT TYPE   3 IS SOLID186. KEYOPT(2)=0 IS SUGGESTED AND HAS BEEN RESET.
 KEYOPT(1-12)=   0   0   0   0   0   0   0   0   0   0   0   0
 ELEMENT TYPE   4 IS SOLID186. KEYOPT(2)=0 IS SUGGESTED AND HAS BEEN RESET.
 KEYOPT(1-12)=   0   0   0   0   0   0   0   0   0   0   0   0
 ELEMENT TYPE   5 IS SOLID186. KEYOPT(2)=0 IS SUGGESTED AND HAS BEEN RESET.
 KEYOPT(1-12)=   0   0   0   0   0   0   0   0   0   0   0   0
 ELEMENT TYPE   6 IS SOLID186. KEYOPT(2)=0 IS SUGGESTED AND HAS BEEN RESET.
 KEYOPT(1-12)=   0   0   0   0   0   0   0   0   0   0   0   0
 ELEMENT TYPE   7 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE   8 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE   9 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE  10 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE  11 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE  12 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE  13 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE  14 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE  15 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE  16 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE  17 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE  18 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE  19 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE  20 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE  21 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE  22 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE  23 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE  24 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE  25 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE  26 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE  27 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE  28 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE  29 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE  30 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE  31 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE  32 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE  33 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE  34 IS SOLID187. IT IS NOT ASSOCIATED WITH FULLY INCOMPRESSIBLE
 HYPERELASTIC MATERIALS. NO SUGGESTION IS AVAILABLE AND NO RESETTING IS NEEDED.
 ELEMENT TYPE  35 IS SOLID186. KEYOPT(2)=0 IS SUGGESTED AND HAS BEEN RESET.
 KEYOPT(1-12)=   0   0   0   0   0   0   0   0   0   0   0   0
 ELEMENT TYPE  36 IS SOLID186. KEYOPT(2)=0 IS SUGGESTED AND HAS BEEN RESET.
 KEYOPT(1-12)=   0   0   0   0   0   0   0   0   0   0   0   0
 ELEMENT TYPE  37 IS SOLID186. KEYOPT(2)=0 IS SUGGESTED AND HAS BEEN RESET.
 KEYOPT(1-12)=   0   0   0   0   0   0   0   0   0   0   0   0
 ELEMENT TYPE  38 IS SOLID186. KEYOPT(2)=0 IS SUGGESTED AND HAS BEEN RESET.
 KEYOPT(1-12)=   0   0   0   0   0   0   0   0   0   0   0   0
 ELEMENT TYPE  39 IS SOLID186. KEYOPT(2)=0 IS SUGGESTED AND HAS BEEN RESET.
 KEYOPT(1-12)=   0   0   0   0   0   0   0   0   0   0   0   0
 ELEMENT TYPE  40 IS SOLID186. KEYOPT(2)=0 IS SUGGESTED AND HAS BEEN RESET.
 KEYOPT(1-12)=   0   0   0   0   0   0   0   0   0   0   0   0
 *** ANSYS - ENGINEERING ANALYSIS SYSTEM RELEASE Release 19.2    19.2    ***
 DISTRIBUTED ANSYS Mechanical Enterprise                     Â
 00000000 VERSION=WINDOWS x64  112:52 APR 30, 2020 CP=     8.516
 TRIAL-1(600mm dia)--Static Structural (B5)                                  Â
                      S O L U T I O N  O P T I O N S
  PROBLEM DIMENSIONALITY. . . . . . . . . . . . .3-D                Â
  DEGREES OF FREEDOM. . . . . . UX  UY  UZÂ
  ANALYSIS TYPE . . . . . . . . . . . . . . . . .STATIC (STEADY-STATE)
  OFFSET TEMPERATURE FROM ABSOLUTE ZERO . . . . . 273.15  Â
  NONLINEAR GEOMETRIC EFFECTS . . . . . . . . . .ON
  EQUATION SOLVER OPTION. . . . . . . . . . . . .SPARSE           Â
  PLASTIC MATERIAL PROPERTIES INCLUDED. . . . . .YES
  NEWTON-RAPHSON OPTION . . . . . . . . . . . . .PROGRAM CHOSEN Â
  GLOBALLY ASSEMBLED MATRIX . . . . . . . . . . .SYMMETRICÂ
 *** WARNING ***                        CP =      9.578  TIME= 112:53
 Material number 55 (used by element 749703) should normally have at   Â
 least one MP or one TB type command associated with it. Output of    Â
 energy by material may not be available.                              Â
 *** NOTE ***                           CP =      9.719  TIME= 112:53
 The step data was checked and warning messages were found.            Â
 Please review output or errors file ( F:SDWORKSPACEMINI-PROJECT   Â
 ANSYS WORKANSYS WORK (05-04-2020)SOIL-PILE MODEL TRIAL 1SOIL MODEL Â
 WITH MANUAL CONTACTS 30-04-2020600mm                                 Â
 DIAMETER_ProjectScratchScrF9B3file0.err ) for these warning        Â
 messages.                                                             Â
 *** NOTE ***                           CP =      9.719  TIME= 112:53
 This nonlinear analysis defaults to using the full Newton-Raphson     Â
 solution procedure. This can be modified using the NROPT command.    Â
 *** NOTE ***                           CP =      9.719  TIME= 112:53
 The conditions for direct assembly have been met. No .emat or .erot  Â
 files will be produced.                                               Â
 *** NOTE ***                           CP =     18.500  TIME= 113:02
 The initial memory allocation (-m) has been exceeded.                 Â
 Supplemental memory allocations are being used.                      Â
 Memory resident data base increased from     1024 MB to     2048 MB.
 *** NOTE ***                           CP =     33.484  TIME= 113:17
 Symmetric Deformable- deformable contact pair identified by real      Â
 constant set 41 and contact element type 41 has been set up. The     Â
 companion pair has real constant set ID 42. Both pairs should have   Â
 the same behavior.                                                    Â
 ANSYS will keep the current pair and deactivate its companion pair,   Â
 resulting in asymmetric contact.                                      Â
 Contact algorithm: Augmented Lagrange method
 Contact detection at: Gauss integration point
 Contact stiffness factor FKN                 1.0000  Â
 The resulting initial contact stiffness     0.44683E+10
 Default penetration tolerance factor FTOLN  0.10000  Â
 The resulting penetration tolerance         0.37662E-02
 Max. initial friction coefficient MU        0.20000  Â
 Default tangent stiffness factor FKT         1.0000  Â
 Default elastic slip factor SLTOL           0.10000E-01
 The resulting elastic slip tolerance        0.67866E-03
 Update contact stiffness at each iteration
 Default Max. friction stress TAUMAX         0.10000E+21
 Average contact surface length              0.67866E-01
 Average contact pair depth                  0.37662E-01
 Default pinball region factor PINB           2.0000  Â
 The resulting pinball region                0.75324E-01
 Auto contact offset used to close gap        0.0000  Â
 Initial penetration is excluded.
 *** NOTE ***                           CP =     33.484  TIME= 113:17
 Max. Initial penetration 1.331797793E-03 was detected between contactÂ
 element 209964 and target element 216792.                             Â
 You may move entire target surface by : x= -1.327201114E-03, y=       Â
 1.807172058E-18, z= 1.10555704E-04,to reduce initial penetration.     Â
 ****************************************
Â
 *** NOTE ***                           CP =     33.484  TIME= 113:17
 Symmetric Deformable- deformable contact pair identified by real      Â
 constant set 42 and contact element type 41 has been set up. The     Â
 companion pair has real constant set ID 41. Both pairs should have   Â
 the same behavior.                                                    Â
 ANSYS will deactivate the current pair and keep its companion pair,   Â
 resulting in asymmetric contact.                                      Â
 Contact algorithm: Augmented Lagrange method
 Contact detection at: Gauss integration point
 Contact stiffness factor FKN                 1.0000  Â
 The resulting initial contact stiffness     0.44683E+10
 Default penetration tolerance factor FTOLN  0.10000  Â
 The resulting penetration tolerance         0.33540E-01
 Max. initial friction coefficient MU        0.20000  Â
 Default tangent stiffness factor FKT         1.0000  Â
 Default elastic slip factor SLTOL           0.10000E-01
 The resulting elastic slip tolerance        0.35908E-02
 Update contact stiffness at each iteration
 Default Max. friction stress TAUMAX         0.10000E+21
 Average contact surface length              0.35908  Â
 Average contact pair depth                  0.33540  Â
 Default pinball region factor PINB           2.0000  Â
 The resulting pinball region                0.67081  Â
 *** NOTE ***                           CP =     33.484  TIME= 113:17
 One of the contact searching regions contains at least 768 target     Â
 elements. You may reduce the pinball radius.                         Â
 Auto contact offset used to close gap        0.0000  Â
 Initial penetration is excluded.
 *** NOTE ***                           CP =     33.484  TIME= 113:17
 Max. Initial penetration 1.218320269E-03 was detected between contactÂ
 element 214856 and target element 206549.                             Â
 You may move entire target surface by : x= -1.016706124E-03, y=       Â
 -3.564265712E-20, z= -6.712770927E-04,to reduce initial penetration.  Â
 ****************************************
Â
 *** NOTE ***                           CP =     33.484  TIME= 113:17
 Symmetric Deformable- deformable contact pair identified by real      Â
 constant set 43 and contact element type 43 has been set up. The     Â
 companion pair has real constant set ID 44. Both pairs should have   Â
 the same behavior.                                                    Â
 ANSYS will keep the current pair and deactivate its companion pair,   Â
 resulting in asymmetric contact.                                      Â
 Small sliding logic is assumed
 Contact algorithm: Augmented Lagrange method
 Contact detection at: Gauss integration point
 Contact stiffness factor FKN                 1.0000  Â
 The resulting initial contact stiffness     0.39111E+10
 Default penetration tolerance factor FTOLN  0.10000  Â
 The resulting penetration tolerance         0.40909E-01
 Default opening contact stiffness OPSF will be used.
 Default tangent stiffness factor FKT         1.0000  Â
 Default elastic slip factor SLTOL           0.50000E-02
 The resulting elastic slip tolerance        0.20307E-02
 Update contact stiffness at each iteration
 Default Max. friction stress TAUMAX         0.10000E+21
 Average contact surface length              0.40615  Â
 Average contact pair depth                  0.40909  Â
 Default pinball region factor PINB          0.50000  Â
 The resulting pinball region                0.20455  Â
 Initial penetration/gap is excluded.
 Bonded contact (always) is defined.
 *** NOTE ***                           CP =     33.484  TIME= 113:17
 Max. Initial penetration 1.776356839E-15 was detected between contactÂ
 element 218125 and target element 218239.                             Â
 ****************************************
Â
 *** NOTE ***                           CP =     33.484  TIME= 113:17
 Symmetric Deformable- deformable contact pair identified by real      Â
 constant set 44 and contact element type 43 has been set up. The     Â
 companion pair has real constant set ID 43. Both pairs should have   Â
 the same behavior.                                                    Â
 ANSYS will deactivate the current pair and keep its companion pair,   Â
 resulting in asymmetric contact.                                      Â
 Small sliding logic is assumed
 Contact algorithm: Augmented Lagrange method
 Contact detection at: Gauss integration point
 Contact stiffness factor FKN                 1.0000  Â
 The resulting initial contact stiffness     0.39111E+10
 Default penetration tolerance factor FTOLN  0.10000  Â
 The resulting penetration tolerance         0.40909E-01
 Default opening contact stiffness OPSF will be used.
 Default tangent stiffness factor FKT         1.0000  Â
 Default elastic slip factor SLTOL           0.50000E-02
 The resulting elastic slip tolerance        0.20696E-02
 Update contact stiffness at each iteration
 Default Max. friction stress TAUMAX         0.10000E+21
 Average contact surface length              0.41392  Â
 Average contact pair depth                  0.40909  Â
 Default pinball region factor PINB          0.50000  Â
 The resulting pinball region                0.20455  Â
 Initial penetration/gap is excluded.
 Bonded contact (always) is defined.
 *** NOTE ***                           CP =     33.484  TIME= 113:17
 Max. Initial penetration 1.776356839E-15 was detected between contactÂ
 element 218171 and target element 218057.       &n -
May 1, 2020 at 3:28 pm
SaiD
Ansys EmployeeHi,
This is what I found in the image that you shared:
*** ERROR ***Â Â Â Â Â Â Â Â Â Â Â Â Â Â Â Â Â Â Â Â Â Â Â Â Â Â CP =Â Â Â Â 202.219Â Â TIME= 11:44:02
 There is not enough memory for the Distributed Sparse Matrix Solver toÂ
 proceed using the out-of-core memory mode. The total memory required Â
 by all processes = 19019 MB. The total physical memory that is       Â
 available on the system = 15468 MB. Please decrease the model size,  Â
 or run this model on another system with more physical memory.    Â
Â
So looks like the memory in your system is not enough to handle this problem. If possible, you could run this problem on a larger system with more memory. But before that it would be advisable to get some approximate results and make sure the system gets solved without any other issues or mistakes. One way to reduce the number of equations to be solved is by using a coarser mesh i.e. by using a larger element size. This will reduce the accuracy of the solution, but hopefully it will at least solve the problem and give you an approximate result. Another way would be to use bonded contact instead of frictional contact in places that you can (where the relative movement between two surfaces is negligible). Try these things and we can discuss further if need be.
Â
-
May 2, 2020 at 7:20 am
sruthyvs
SubscriberHy Sir,
Thank you for your reply.I can't go for a larger system usage at preset situation..all I could do is to get at-least an approximate result with my present system.I can cut down the size of the model by reducing the size of the soil block to 5 times dia than 10 times dia used before.I wanna know may this help me?Also cutting the 5 soil layers to 2 layers or cutting length to an extend can be tried, but will it help me out to solve this?While doing the connection I firstly had chosen automatic connections, then I got about 206 overlapping connections from the total of 207 connections. Plz let me know how can I solve this issue of over-lapping connections.Could you plz explain me what is penetration tolerance,face over-lapping tolerance ,elastic slippage etc?Also I had found many connections which actually doesn't exits. For more clarity let me say that there is no actual connection between soil layers and re-bars but automatic connections built them which I deleted. Sir may I know y this happens so?Is there any fault in my modelling?But while giving manual connections I got the problem solved ie no overlapping was found but further confusions arised while assinging the CONTACT & TARGET regions.And the problems of inactive contacts,geometric penetration etc stood up in the contact tool.Can I choose multiple bodies to single or vice versa for connections?The stirrups are given through the concerte by cutting the material,how will I assign the connection b/w these two(stirrups & concrete) ...solid face of stirrups to solid face of concrete OR solid face of stirrups to body selection of concrete?While carrying out automatic connections I have noted that the connection is given such that 1 curved face of stirrup is targeted to 6 curved faces of concrete( the 6 holes made for pouring rebars).Is this right?How can I reduce the number of contact elements in the model?The default element size given as 0.9m. Can assigning 1.2m/1.5m can give approx results...or may it b too rough?While increasing the elemnt size to 1.2m an unconverged solution is obtained.The reason for termination is error in element formulation,how can i resolve these issues?
Can the mesh be given finer at the places where I concentrate my results and coarser at other parts?how much can i increase the size?How can i do that?Can the reduction of load will help me?Some contacts are having high penetration and is shown to b inactive here...what can i do to resolve these issues.
Â
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