| 3001 |
Writing Temperature data on Elements to tmgtempe.unv... |
| 3002 |
Writing Temperature data on Nodes to tmgtempn.unv... |
| 3003 |
Writing Heat Flow Density data on Elements to tmghtfe.unv... |
| 3004 |
Writing Heat Flow Density data on Nodes to tmghtfn.unv... |
| 3005 |
Writing Temperature Gradient data on Elements to
tmggrade.unv... |
| 3006 |
Writing Temperature Gradient data on Nodes to tmggradn.unv... |
| 3007 |
Writing Heat Imbalance data on Elements to tmghbal.unv... |
| 3008 |
Writing Velocity data on Elements to tmgvele.unv... |
| 3009 |
Writing Velocity data on Nodes to tmgveln.unv... |
| 3010 |
Writing Reynolds Number data on Elements to tmgrene.unv... |
| 3011 |
Writing Reynolds Number data on Nodes to tmgrenn.unv... |
| 3012 |
Writing Total Pressure data on Elements to tmgprese.unv... |
| 3013 |
Writing Total Pressure data on Nodes to tmgpresn.unv... |
| 3014 |
Writing Mass Flow data on Elements to tmgmasse.unv... |
| 3015 |
Writing Mass Flow data on Nodes to tmgmassn.unv... |
| 3016 |
Writing Convection Coefficient data on Elements to
tmghtc.unv... |
| 3017 |
Writing View Factor Sum data on Elements to tmgvfsum.unv... |
| 3018 |
Writing Orbital View Factor data on Elements to
tmgorbvf.unv... |
| 3019 |
Writing Absorbed Orbital Flux data on Elements to
tmgabsf.unv... |
| 3020 |
Writing Incident Orbital Flux data on Elements to
tmgincf.unv... |
| 3021 |
Writing Reflected Orbital Flux data on Elements to
tmgreff.unv... |
| 3022 |
Writing Total Orbital Flux data on Elements to tmgtotf.unv... |
| 3023 |
Writing Connectivity Model to tmgconn.unv... |
| 3024 |
Writing Displacement data on Nodes to tmgdisp.unv... |
| 3025 |
Processing group reporting entities... |
| 3026 |
...done. |
| 3027 |
Writing Reporter data to <name> |
| 3028 |
Writing Phase Change Quality data on Elements to
tmgquale.unv... |
| 3029 |
Writing max and min temperature data on Elements to
tmgtmaxe.unv... |
| 3030 |
Writing Radiance data on Elements to tmgrade.unv... |
| 3031 |
Writing Apparent Temperature data on Elements to
tmgappte.unv... |
| 3032 |
Writing Fluence data on Elements to tmgfluence.unv... |
| 3033 |
Writing Solid Element Radiation flux data on elements to
tmgsolflux.unv... |
| 3034 |
Writing RC Product data on Elements to tmgrcprod.unv... |
| 3035 |
Writing Radiative exchange data on Elements to tmgradf.unv... |
| 3036 |
Writing duct fluid density data on Elements to
tmgdense.unv... |
| 3037 |
Writing duct fluid density data on Nodes to tmgdensn.unv... |
| 3038 |
No thermal results to recover. |
| 3039 |
Writing transverse gradient data on Elements to
tmgtrvtgre.unv... |
| 3040 |
Writing transverse gradient data on Nodes to
tmgtrvtgrn.unv... |
| 3041 |
<ID> or <integer> |
| 3042 |
Writing Environmental View Factor data on Elements to
tmgvfenv.unv... |
| 3043 |
Writing Temperature Error Estimates on Elements to
tmgerrmaxe.unv... |
| 3044 |
Writing Temperature Error Estimates on Nodes to
tmgerrmaxn.unv... |
| 3045 |
Writing Swirl velocities on Elements tmgswirlvele.unv... |
| 3046 |
Writing Convective heat flux data on Elements to
tmgconvflux.unv... |
| 3047 |
Writing Convective heat flux data on Nodes to
tmgconvflux.unv... |
| 3048 |
Writing wall velocities to tmgwallvel.unv... |
| 3049 |
Writing Corrected Convection Coeff on Elements to
tmgcrhtc.unv... |
| 3050 |
Writing Corrected Convection Coeff on Nodes to
tmgcrhtc.unv... |
| 3051 |
Writing Coupling Area on Elements to tmgcouplingarea.unv... |
| 3052 |
Writing Coupling Area on Nodes to tmgcouplingarea.unv... |
| 3053 |
Writing Convective Thickness on Elements to
tmgconvthick.unv... |
| 3054 |
Writing Convective Thickness on Nodes to tmgconvthick.unv... |
| 3055 |
Writing Convective Area Factor on Elements to
tmgconvfactor.unv... |
| 3056 |
Writing Convective Area Factor on Nodes to
tmgconvfactor.unv... |
| 3057 |
Writing Temperature on Protective Layers to
tmgprotempe.unv... |
| 3058 |
Writing Heat load from ducts on 3D Elements to
tmgheatduct.unv... |
| 3059 |
Writing Immersed ducts HTC on Elements to tmghtcduct.unv... |
| 3060 |
Writing Immersed ducts Solid Temperature on Elements to
tmgsoltempcduct.unv... |
| 3061 |
Writing Stream Flow Direction on Elements to
tmgflowdir.unv... |
| 3062 |
Writing Mass Flow Direction data on Elements to
tmgmassdire.unv... |
| 3063 |
Writing Immersed ducts Convective Heat Flux on Elements to
tmghtfduct.unv... |
| 3097 |
Creating intermediate results file for Time=<value>s:
<name> |
| 3099 |
Creating intermediate results file: <name> |
| 3101 |
Starting TMG Analysis... |
| 3102 |
Performing data checking... |
| 3103 |
Calculating geometrical parameters... |
| 3104 |
Calculating conductive conductances and capacitances... |
| 3105 |
Calculating thermal couplings and geometric radiative
parameters... |
| 3106 |
Calculating radiative couplings and/or gray body matrices... |
| 3107 |
Calculating radiative heat loads... |
| 3108 |
Performing element merging and elimination... |
| 3109 |
Performing Analyzer data preprocessing... |
| 3110 |
Calculating temperatures... |
| 3111 |
Performing result postprocessing... |
| 3112 |
Performing thermal model validation... |
| 3113 |
Performing model parametrization analysis... |
| 3114 |
Performing model reformatting for other solvers... |
| 3115 |
...done. |
| 3116 |
Performing temperature interpolation... |
| 3117 |
Performing calculations for laser simulation... |
| 3118 |
Performing fast view factor calculations... |
| 3119 |
_#I MPI 1$ |
| 3120 |
_#I ALL 1$ |
| 3121 |
** ERROR 3121 ** Stream with ID <ID> and name: <name> is
defined with Relative Temperature Reference Frame option. With this
option, it is invalid for Side A and Side B to be defined on components
with different rotational speeds. |
| 3122 |
Writing Mass Flow Junction Imbalance to
tmgmfjuncimbalance.unv... |
| 3123 |
** The stream with ID <ID> and name: <name> is defined with the
automatically determine mass flow option but it is not connected to any
other streams. Therefore, its mass flow cannot be computed. |
| 3124 |
** A set of <integer> connected streams with IDs <ID> are
defined with the automatically determine mass flow option but they are
not connected to any streams that have a defined mass flow. Therefore,
their mass flow cannot be computed. |
| 3125 |
** The stream with ID <ID> and name: <name> is defined with the
automatically determine inlet temperature option and the automatically
determine reverse inlet temperature option but it is not connected to
any other stream. Therefore, neither its inlet temperature nor its
reverse inlet temperature can be computed. |
| 3126 |
** <name> |
| 3127 |
** The stream with ID <ID> and name: <name> is defined with a
specified mass flow but the automatically determine reverse mass flow
option is also defined. This case is not supported by the
solver. |
| 3128 |
** The stream with ID <ID> and name: <name> is defined with the
automatically determine inlet temperature option but neither its inlet
is connected to any other stream nor flow reversal is specified.
Therefore, its inlet temperature cannot be computed. |
| 3129 |
This was caused by a user-specified junction with ID <ID> and name
<name> |
| 3130 |
Stream with ID <ID> and name <name> is a circular
stream. |
| 3131 |
<name> <ID> <name> |
| 3132 |
Performing view factor calculations on GPU... |
| 3133 |
Writing thermal connections to tmgthermalconnections.unv... |
| 3134 |
Writing coupled area ratio to tmgcoupledarearatio.unv... |
| 3135 |
Writing duct static pressure data on Elements to
tmgstatprese.unv |
| 3136 |
Writing duct static pressure data on Nodes to
tmgstatpresn.unv |
| 3137 |
Writing protective layer temperatures to tmgfemprotempnod.unv |
| 3138 |
PARAM FEM is activating the Finite Element Method. |
| 3139 |
A convective BC has been applied on a beam defined by the user.
Thickness defined by the user will be used to evaluate the convective
area. |
| 3142 |
A convective BC has been applied on an beam defined by the user.
Thickness defined by the user will be used to evaluate the convective
area. |
| 3400 |
Creating radiative SOURCE cards for laser signal and pump. |
| 3401 |
Calculating initial heat loads from laser pump. |
| 3402 |
Interfacing to structural analysis. |
| 3403 |
Calculating index of refraction. |
| 3404 |
Calculating laser signal strength and path lengths of rays. |
| 3405 |
Iteration <integer> Total signal power <value> Residual
<value> |
| 3406 |
Total pump power: <value> Total heating: <value> Exiting signal
power: <value> |
| 3407 |
Exit beam convergence for outer LASER iteration <integer>:
Position residual: <value> Direction residual: <value> Exiting
signal power residual: <value> Path length residual:
<value> |
| 3408 |
User-subroutine laserser1.f for LASER module was detected. This
routine will be compiled and linked into the LASER module for this
analysis |
| 3409 |
No user-subroutine for the LASER module was detected. A default
physics model will be used which may not be representative of the
physics of this analysis. |
| 3410 |
LASER Module Iteration Control: Maximum number of Outer Iterations:
<integer> Convergence criterion for position residual: <value>
Convergence criterion for direction residual: <value> Convergence
criterion for signal power residual: <value> Convergence criterion
for path length residual: <value> Maximum number of inner iterations
for signal power: <integer> Convergence criteria for inner power
iterations: <value> |
| 3411 |
For calculation of impermeability, the following elements have no
material orientation vector and are considered to be isotropic: |
| 3412 |
For calculation of impermeability, the following elements have
material orientation vectors defined and are considered
anisotropic: |
| 3413 |
<ID> |
| 3414 |
Total fluorescent power= <value> absorbed into group TOPABFL =
<value> absorbed into group BOTABFL = <value> lost =
<value> |
| 3500 |
...Radiation request No. <integer> is finished. Number of view
factors written to VUFF =<ID> |
| 3501 |
Number of view factors written to VUFF =<ID> ...done. |
| 3502 |
_#I HEMIVIEW 2 <integer>$ |
| 3503 |
Processing radiation request <integer> |
| 3504 |
Process <integer> performed <value> percent of the total
calculations. |
| 3505 |
Summary of workload partition in the parallel run: |
| 3600 |
.... Table too long to display. Only the first <integer> table
entries are shown. |
| 3601 |
Conjugate-Gradient solver successfully converged after <integer>
iterations. Residual=<value>, target residual=<value>, matrix
fill=<integer>. |
| 3602 |
After <integer> iterations the Conjugate-Gradient solver did not
converge. Residual=<value>, target residual=<value>, matrix
fill=<integer>. The solution is restarting with matrix
fill=<integer>, iteration limit=<integer>. |
| 3603 |
Info: Next coupling time has been modified from <value> to
<value> due to time adaptivity. |
| 3604 |
Reshaping the matrix and resetting the fill value to improve the
convergence... |
| 3605 |
The responsible element with ID <ID> is <name>. The maximum
enthalpy is contributed by heatflow from element <ID> connected by
conductance RR(<ID>)=<value> of type <ID>. <name> |
| 3606 |
The responsible row <ID> in the matrix correspond to a FEM
solution point which has the external ID of <ID> |
| 3607 |
The responsible row <ID> in the matrix correspond to the FEM
non-geometric element of the thermal void BC with ID: <ID> |
| 3608 |
The responsible row <ID> in the matrix correspond to a FEM Robin
boundary condition. |
| 3609 |
** .. success |
| 3610 |
The maximum temperature change parameter of convergence criterion has
been updated from Solution Control to <value> |
| 3611 |
The Conjugate gradient solver Convergence Criterion has been updated
from Solution Control to <value> |
| 3612 |
**** DESIGN CYCLE <integer> **** The objective function for the
current correlation step is <value> |
| 3613 |
**** DESIGN CYCLE <integer> **** The average temperature for
target locations is <value> |
| 3614 |
**** DESIGN CYCLE <integer> **** For design Variable <name>
with a step length of <value> The gradient value is <value> and
the value of the design variable is <value> |
| 3615 |
**** DESIGN CYCLE <integer> **** New design cycle |
| 3616 |
**** DESIGN CYCLE <integer> **** The value of design variable
<name> is <value> |
| 3617 |
********** NLOpt version 2.6.2 ********** THE SOFTWARE IS PROVIDED
"AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR IMPLIED, INCLUDING BUT
NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY, FITNESS FOR A
PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE AUTHORS OR
COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER LIABILITY,
WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, OUT
OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN
THE SOFTWARE. ****************************************** |
| 3618 |
ILU iteration <integer> Residual=<value> |
| 3619 |
ILU iteration <integer> DTmax=<value> at <ID> |
| 3620 |
ILU iteration <integer> Residual energy imbalance=<value>
tol=<value> |
| 3621 |
Total electrical power dissipation =<value> |
| 3622 |
Temperature prediction TDmax = <value> at void ID <ID> element
<ID> |
| 3623 |
Energy balance convergence not reached |
| 3624 |
<integer> <value> <ID> <value> <ID> <value> <ID>
<value> <value> |
| 3625 |
Iter Tmax At Tmin At TDmax At T(TDmax) Time |
| 3626 |
Energy balance convergence not reached |
| 3627 |
Hyd iter <integer> PDmax=<value> Pmax=<value>
Pmin=<value> Massdif=<value> |
| 3628 |
Clipping at hyd. res. <ID> Value=<value> Bet. elements <ID>
<ID> |
| 3629 |
The BICGSTAB method failed at iteration <integer> <name>
Breakdown. |
| 3630 |
The responsible element with ID <ID> is <name>. The maximum
enthalpy is contributed by heatflow from element <ID> connected by
conductance RR(<ID>)=<value> of type <ID>. <name> |
| 3631 |
The responsible row <ID> in the matrix correspond to a FEM
solution point which has the external ID of <ID> |
| 3632 |
The responsible row <ID> in the matrix correspond to the FEM
non-geometric element of the thermal void BC with ID: <ID> |
| 3633 |
The responsible row <ID> in the matrix correspond to a FEM Robin
boundary condition. |
| 3634 |
Thermal Correlation Summary:
------------------------------------------------ |
| 3635 |
Final objective function <value> Number of design cycles
<integer> ------------------------------------------------ DESIGN
VARIABLE NAME VALUE
------------------------------------------------ |
| 3636 |
<name> <value> |
| 3637 |
------------------------------------------------ |
| 3638 |
Thermal correlation convergence criterion is time varying. The
objective function cannot be computed as cumulative in time, as
requested. Instead, the convergence will be checked at every correlation
time. |
| 3639 |
Final objective function at |
| 3640 |
Number of design cycles <integer>
------------------------------------------------ DESIGN VARIABLE NAME
VALUE ------------------------------------------------ |
| 3641 |
t = <value> <value> |
| 3642 |
** ERROR 3642 ** There are inconsistencies in parallel run domain
decomposition setup on domain <ID>. The code for inconsistency type
is <ID>. |
| 3643 |
Note: The integrated parallel GMRES solver (SMS) is used as the
linear solver for this simulation. L2 is used as the convergence norm
with a convergence criterion value specified in the xml input file / UI
of <value>. The preconditioner matrix fill value is set to
<integer>. |
| 3644 |
State-space matrix files were extracted at time <value> Matrices
and load were linearized between time <value> and time
<value> |
| 3700 |
Domain decomposition using <name> with <integer>
CPUs... |
| 3701 |
...done. |
| 3702 |
Writing Paraview output for DOMDEC: CPU = <integer> |
| 3703 |
DOMDEC: Transferring tmg49 files to the main directory |
| 3704 |
DOMDEC: Elapsed time in gathering tmg49 files <value> sec |
| 3705 |
DOMDEC: Transferring solve result files to the main directory |
| 3706 |
DOMDEC: Transferring heat flux data to the main MODLF file |
| 3707 |
DOMDEC: Transferring VF sum data to the main tmggeom.dat file |
| 3708 |
DOMDEC: Transferring VF sum data to the main tmgrslt.dat file |
| 3709 |
DOMDEC: Elapsed time in gathering solve results files <value>
sec |
| 3710 |
DOMDEC: Multi-host configuration found. |
| 3711 |
DOMDEC: Copying <name> to cpu-specific folders. |
| 3712 |
DOMDEC: Copying <name> to primary cpus of each host. |
| 3750 |
A translation of the source model, based on MAP1 points, will be
applied in order to align the models. |
| 3751 |
The 2D solid options of the source and target models are different. A
rotation will be applied in order to align the models. |
| 3752 |
The source model does not have a 2D solid option. However, it has an
active global cyclic CSYS, which will be used to align the
models. |
| 3754 |
<ID> |
| 3755 |
The source and target will be aligned using the Source Model Mapping
simulation object. |
| 3756 |
The source and target will be aligned using the 2D solid
options. |
| 3757 |
A translation of the source model, based on Source Model Mapping
simulation object, will be applied in order to align the models. |
