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CCE tutorial
by Yosef Zlochower 16 Aug '11

16 Aug '11

Hi, Several weeks ago on an Einstein Toolkit telecon I was asked to prepare a tutorial on using CCE with the Einstein Toolkit. Maria Babiuc and I will be working on the tutorial. The slides describe how one should modify a BBH parameter file to output the Cauchy metric, compile and run utilities for modifying (filtering) and examining the data, and compiling and running the Pitt Null code (now available in the Incoming repository of the Einstein Toolkit) to produce the characteristic waveform on scri+. All the code required to run CCE is provided by the Einstein Toolkit (either in the standard toolkit, or in the Incoming repository). The slides, as well as a ThornList and parameter file are available at http://ccrg.rit.edu/~yosef/cce.html Let me know if there are any questions or requests for clarification. --

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Wanted: PushComponents
by Erik Schnetter 16 Aug '11

16 Aug '11

I am dreaming of PushComponents, a simpler way to discuss patches, to commit them, and to ensure test cases don't silently begin to fail. Applying a patch to the Einstein Toolkit requires commonly several stages: - A problem or missing feature needs to be identified - There is a bit of discussion on the mailing list or in TRAC - A patch is created - The test cases are run - A patch is proposed - The patch is reviewed - The patch may be modified or updated - The test cases are run (again), hopefully on several systems - The committer applies the patch to a clean checkout, maybe runs the test cases again - The committer writes a commit message and commits/pushes the patch This is a bit more complicated if several thorns are involved, if the original patch author doesn't have commit rights, or if the underlying problem only occurs only on a specific system. I suggest to define a self-contained patch format, probably stealing the idea from git. This format would define the complete patch, possibly for several components, in such a way that a single command (PushComponents) can apply the patch, check for conflicts, create commit messages, and push the commits upstream. Ideally, it would also keep the distinction between author and committer. Building on this patch format, we would implement a script that 1. Checks out a clean copy of e.g. the Einstein Toolkit (GetComponents) 2. Applies the patch locally 3. Runs the test cases (and maybe also a specific parameter file) locally as well as on a set of remote systems (SimFactory) 4. Checks the results, and 5. If all is fine: commits and pushes the patch (PushComponents) In this way, the currently separate actions (apply a patch, test it, and commit it) are joined together in a way that is easy to use, and people are not tempted any more to commit patches without testing. If running the test cases takes an hour or two, this doesn't matter -- it's all automated, and it's all running in the background. If something fails, this isn't a burden either -- after all, one only has to run a single command to try again. To test whether the test suite returns the expected result, I suggest to keep track in which test cases failures may be temporarily ignored. This will allow us to use this new system right away, even before we have corrected all currently failing test cases. That is, each new commit may only reduce the number of failures. -erik -- Erik Schnetter <schnetter(a)cct.lsu.edu> http://www.cct.lsu.edu/~eschnett/

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Meeting minutes
by Roland Haas 15 Aug '11

15 Aug '11

Meeting minutes: Present were: Peter, Erik, Frank, Eloisa, Ian, ROland, Tanja, Bruno, Yosef Carpet/Hg test runs: * AEI (Ian) ran a production type inspiral simulations and finds speed differences around 3% and waveform differences around 10^-4 which is below finite differencing errors. * however since vectorization does not yet work in Carpet/Hg and AEI usually uses it to obtain a 20% speed increase they will not use it in actual for-paper simulations * GT (Roland) ran a hydro simulation which so far produces similar results in git and hg, but has not progressed far due to issues with learning how to use simfactory Outstanding failing testsuites: * RotatingSymmetry180/90 works again with Carpet/Hg * QLM still fails (with MPI errors) Simfactory/python: * GT used simfactory/python for the first time, found it to be a large piece of software, would like more documentation and tutorials that are up-to-date * reiterate ticket 221 https://trac.einsteintoolkit.org/ticket/221 * RIT needs possibility to update parameter files in an ongoing simulation (already possible by modifying the file directly) * in summary: ** want more/corrected/updated documentation before the release (all contribute, please) ** maybe extract/incorporate documentation into python code to try and keep it up to date ** Erik will have a look at Ian's existing documentation http://www.aei.mpg.de/~ianhin/simfactory-userguide/ * wishlist (no particular order or priority): ** check for stalled simulations ** check when restarts fails continuously do to encountering the same error again and again ** copy input data files into simulation directory CCE: * try to simplify setup of parameters (relation between them) * check if unigrid Carpet can be used instead of PUGH as well (Yosef thinks is should but is not quite sure) * copy only required thorns from incoming to ET, leave out the ones that are not supported * Caltech extraction thorn (Worldtube) still finds NaNs, hopes to fix by end of month Fall meeting: * see reminder email: > - The fall workshop will be a "two-track" workshop, in the following > sense: There will be a ET-workshop, covering a selection of > mhd/eos/radiation transport questions. Here we need to decide on > which topic and someone to invite (but without financial support > at this point). > There will also be a Cactus-workshop, at the same time, the same > building, sharing the same room for part of the time, sharing some > discussions, and of course sharing the breaks. This is for people > with only moderate interest in the ET workshop topics, but greater > interest in infrastructure development. Prime candidates for > topics here are improved Cactus scheduling and GPGPU support. > > I am happy to be able to say that coffee breaks are covered from LSU > side. Transportation, usual meals and hotels have to be covered by > the participants though. Information to suggested hotels ect isn't > available yet. MHD: * harmonic shift in McLachlan patch does not currently work, Ian and Bruno will work on this Yours, Roland -- My email is as private as my paper mail. I therefore support encrypting and signing email messages. Get my PGP key from http://keys.gnupg.net.

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Restart problem from checkpoint files
by Kentaro Takami 15 Aug '11

15 Aug '11

Hi, all, In git version of Carpet, I have restart problem from check point files. When I restart the simulation, the code is crashed and I receive the following errors: [takami-laptop:12229] *** Process received signal *** [takami-laptop:12229] Signal: Segmentation fault (11) [takami-laptop:12229] Signal code: Address not mapped (1) [takami-laptop:12229] Failing at address: 0x4c0 [takami-laptop:12229] [ 0] /lib/libpthread.so.0(+0xf8f0) [0x7ff7ea8588f0] The problem is related with the parameter 'adm_bssn::bound = "radiative"' in BSSN_MoL, because if we use 'adm_bssn::bound = "newrad"', I can restart the simulation without any error. When I use old Carpet, IOASCII, IOBasic, IOUtil (I don't know the version, because I got them created by Formaline thorn in old my simulation), I don't have any error even if I use "radiative" parameter. -- ////////////////////////////////////////////////////////////// // // NAME : Kentaro Takami // E-MAIL : kentaro.takami(a)aei.mpg.de // ADDRESS : Max-Planck-Institute for Gravitational Physics // Albert-Einstein-Institute // Am Muhlenberg 1 // 14476 Golm // Germany. // //////////////////////////////////////////////////////////////

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Einstein Toolkit Meeting Reminder
by Frank Loeffler 14 Aug '11

14 Aug '11

Hi Please consider joining the weekly Einstein Toolkit phone call at 10 am US central time on Mondays. As usual, you can find instructions how to join on the following web site: http://einsteintoolkit.org/community/support/ I short: the number is (+1) 225-578-4942 or (+1) 866-573-0359 and the conference id is 118682#. The points on my agenda are mainly follow-ups from last week: - We gave people a week to test the hg version of Carpet within a production simulation and should now collect results/impressions/bugs. - The RIT and GaTech groups wanted to give the python version of simfactory a try. Also here we are eager to hear what they have to say. - There was some discussion as of whether or not Simfactory2 (the python version) should live in a separate repository. Whatever the decision is, we should make it soon so that we can use it within the development version of the ET thornlist. - RIT offered to provide presentation materials (slides?) regarding the use of CCE. Are these available? Who tried CCE so far? The ET should release with CCE, so we should get this into the thornlist as soon as possible, but that means we should first move the code to the 'right' place (out of incoming), so we need to make a decision about the inclusion of the CCE code into the ET. The status afaik is: - A lot of thorns got commited to 'incoming' - Not all thorns are necessary for CCE, not all should be included in the ET -> would need exact list of thorns to test/move. - Some thorns are connected to the CalTech-version of the extraction of the boundary data for the null code. This has so far only been shown to work with multipatch. That multipatch code is not (yet) publicly available. It has been tried to remove the multipatch related code parts, and this is what is now in incoming, but afaik this doesn't quite work yet. I believe it would be very good for the toolkit to have this method as well, but I would like to know how much work it would be to make this work and if someone can commit to actually do it. Otherwise this cannot be part of the next ET release. - The fall workshop will be a "two-track" workshop, in the following sense: There will be a ET-workshop, covering a selection of mhd/eos/radiation transport questions. Here we need to decide on which topic and someone to invite (but without financial support at this point). There will also be a Cactus-workshop, at the same time, the same building, sharing the same room for part of the time, sharing some discussions, and of course sharing the breaks. This is for people with only moderate interest in the ET workshop topics, but greater interest in infrastructure development. Prime candidates for topics here are improved Cactus scheduling and GPGPU support. I am happy to be able to say that coffee breaks are covered from LSU side. Transportation, usual meals and hotels have to be covered by the participants though. Information to suggested hotels ect isn't available yet. - ET paper: Some progress over last week. I (Frank) will work on it this week and contact individuals directly. Frank

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Re: [Users] Working ETK par file for BBH run?
by Scott Hawley 13 Aug '11

13 Aug '11

> > Try the qc0-mclachlan.par parameter file in the McLachlan git repo > (git://carpetcode.org/McLachlan) > > Frank > Nope. Seg Faults. Ok. Perhaps there is something wrong with both my Linux machine and my Mac. Here's a log from the Linux run (distro: Debian stable.) $ setenv OMP_NUM_THREADS 1 ; mpirun -np 2 ~/Cactus/exe/cactus_etk qc0-mclachlan.par -------------------------------------------------------------------------------- 10 1 0101 ************************ 01 1010 10 The Cactus Code V4.0 1010 1101 011 www.cactuscode.org 1001 100101 ************************ 00010101 100011 (c) Copyright The Authors 0100 GNU Licensed. No Warranty 0101 -------------------------------------------------------------------------------- Cactus version: 4.0.b17 Compile date: Aug 05 2011 (16:33:22) Run date: Aug 05 2011 (17:28:17-0500) Run host: hedges.belmont.edu (pid=31003) Working directory: /tmp/McLachlan/par Executable: /home/shawley/Cactus/exe/cactus_etk Parameter file: qc0-mclachlan.par -------------------------------------------------------------------------------- Activating thorn Cactus...Success -> active implementation Cactus Activation requested for --->IOUtil<--- Activating thorn IOUtil...Success -> active implementation IO Activation requested for --->TerminationTrigger<--- Activating thorn TerminationTrigger...Success -> active implementation TerminationTrigger Activation requested for --->AEILocalInterp<--- Activating thorn AEILocalInterp...Success -> active implementation AEILocalInterp Activation requested for --->BLAS LAPACK<--- Activating thorn BLAS...Success -> active implementation BLAS Activating thorn LAPACK...Success -> active implementation LAPACK Activation requested for --->Fortran<--- Activating thorn Fortran...Success -> active implementation Fortran Activation requested for --->GenericFD<--- Activating thorn GenericFD...Success -> active implementation GenericFD Activation requested for --->HDF5<--- Activating thorn HDF5...Success -> active implementation HDF5 Activation requested for --->LoopControl<--- Activating thorn LoopControl...Success -> active implementation LoopControl Activation requested for --->Slab<--- Activating thorn Slab...Success -> active implementation Slab Activation requested for --->TGRtensor<--- Activating thorn TGRtensor...Success -> active implementation TGRtensor Activation requested for --->SummationByParts<--- Activating thorn SummationByParts...Success -> active implementation SummationByParts Activation requested for --->InitBase<--- Activating thorn InitBase...Success -> active implementation InitBase Activation requested for --->Carpet CarpetLib CarpetInterp CarpetReduce<--- Activating thorn Carpet...Success -> active implementation Driver Activating thorn CarpetInterp...Success -> active implementation interp Activating thorn CarpetLib...Success -> active implementation CarpetLib Activating thorn CarpetReduce...Success -> active implementation reduce Activation requested for --->NaNChecker<--- Activating thorn NaNChecker...Success -> active implementation NaNChecker Activation requested for --->Boundary CartGrid3D CoordBase ReflectionSymmetry RotatingSymmetry180 SymBase<--- Activating thorn Boundary...Success -> active implementation boundary Activating thorn CartGrid3D...Success -> active implementation grid Activating thorn CoordBase...Success -> active implementation CoordBase Activating thorn ReflectionSymmetry...Success -> active implementation ReflectionSymmetry Activating thorn RotatingSymmetry180...Success -> active implementation RotatingSymmetry180 Activating thorn SymBase...Success -> active implementation SymBase Activation requested for --->SphericalSurface<--- Activating thorn SphericalSurface...Success -> active implementation SphericalSurface Activation requested for --->CarpetMask<--- Activating thorn CarpetMask...Success -> active implementation CarpetMask Activation requested for --->CarpetRegrid2 CarpetTracker<--- Activating thorn CarpetRegrid2...Success -> active implementation CarpetRegrid2 Activating thorn CarpetTracker...Success -> active implementation CarpetTracker Activation requested for --->MoL Time<--- Activating thorn MoL...Success -> active implementation MethodOfLines Activating thorn Time...Success -> active implementation time Activation requested for --->ADMBase ADMCoupling ADMMacros CoordGauge SpaceMask StaticConformal TmunuBase<--- Activating thorn ADMBase...Success -> active implementation ADMBase Activating thorn ADMCoupling...Success -> active implementation ADMCoupling Activating thorn ADMMacros...Success -> active implementation ADMMacros Activating thorn CoordGauge...Success -> active implementation CoordGauge Activating thorn SpaceMask...Success -> active implementation SpaceMask Activating thorn StaticConformal...Success -> active implementation StaticConformal Activating thorn TmunuBase...Success -> active implementation TmunuBase Activation requested for --->TwoPunctures<--- Activating thorn TwoPunctures...Success -> active implementation TwoPunctures Activation requested for --->ML_BSSN ML_BSSN_Helper NewRad<--- Activating thorn ML_BSSN...Success -> active implementation ML_BSSN Activating thorn ML_BSSN_Helper...Success -> active implementation ML_BSSN_Helper Activating thorn NewRad...Success -> active implementation NewRad Activation requested for --->Dissipation<--- Activating thorn Dissipation...Success -> active implementation Dissipation Activation requested for --->ML_ADMConstraints<--- Activating thorn ML_ADMConstraints...Success -> active implementation ML_ADMConstraints Activation requested for --->WeylScal4 Multipole<--- Activating thorn Multipole...Success -> active implementation multipole Activating thorn WeylScal4...Success -> active implementation WeylScal4 Activation requested for --->AHFinderDirect<--- Activating thorn AHFinderDirect...Success -> active implementation AHFinderDirect Activation requested for --->QuasiLocalMeasures<--- Activating thorn QuasiLocalMeasures...Success -> active implementation QuasiLocalMeasures Activation requested for --->CarpetIOBasic<--- Activating thorn CarpetIOBasic...Success -> active implementation IOBasic Activation requested for --->CarpetIOScalar<--- Activating thorn CarpetIOScalar...Success -> active implementation IOScalar Activation requested for --->CarpetIOASCII<--- Activating thorn CarpetIOASCII...Success -> active implementation IOASCII Activation requested for --->CarpetIOHDF5<--- Activating thorn CarpetIOHDF5...Success -> active implementation IOHDF5 Activation requested for --->Formaline<--- Activating thorn Formaline...Success -> active implementation Formaline Activation requested for --->TimerReport<--- Activating thorn TimerReport...Success -> active implementation timerreport -------------------------------------------------------------------------------- if (recover initial data) Recover parameters endif Startup routines [CCTK_STARTUP] Carpet::MultiModel_Startup: Multi-model Startup routine ML_BSSN_Helper::ML_BSSN_SetGroupTags: [meta] Set checkpointing and prolongation group tags Carpet::Driver_Startup: Startup routine IOUtil::IOUtil_Startup: Startup routine CarpetIOBasic::CarpetIOBasicStartup: [global] Startup routine CarpetIOHDF5::CarpetIOHDF5_Startup: Startup routine CarpetIOScalar::CarpetIOScalarStartup: [global] Startup routine CarpetInterp::CarpetInterpStartup: Startup routine CarpetReduce::CarpetReduceStartup: Startup routine CartGrid3D::SymmetryStartup: Register GH Extension for GridSymmetry CoordBase::CoordBase_Startup: Register a GH extension to store the coordinate system handles Formaline::Formaline_PrintIDs: [meta] Print the build and simulation ids CarpetIOASCII::CarpetIOASCIIStartup: [global] Startup routine ML_ADMConstraints::ML_ADMConstraints_Startup: [meta] create banner ML_BSSN::ML_BSSN_Startup: [meta] create banner ML_BSSN_Helper::ML_BSSN_RegisterSlicing: [meta] Register slicing AEILocalInterp::AEILocalInterp_U_Startup: register CCTK_InterpLocalUniform() interpolation operators MoL::MoL_Startup: Startup banner Slab::Slab_InitMPIDatatypes: Create MPI datatypes for complex variables in C SymBase::SymBase_Startup: Register GH Extension for SymBase WeylScal4::WeylScal4_Startup: [meta] create banner Startup routines which need an existing grid hierarchy [CCTK_WRAGH] ADMBase::Einstein_InitSymBound: [global] Set up GF symmetries Boundary::Boundary_RegisterBCs: [global] Register boundary conditions that this thorn provides CarpetLib::CarpetLib_setmemlimit: [global] Set operating system memory limit CarpetRegrid2::CarpetRegrid2_Initialise: [global] Initialise locations of refined regions CartGrid3D::RegisterCartGrid3DCoords: [meta] Register coordinates for the Cartesian grid CoordGauge::Einstein_ActivateSlicing: Initialize slicing, setup priorities for mixed slicings CoordGauge::Einstein_SetNextSlicing: Identify the slicing for the next iteration Formaline::Formaline_OutputSource: Output Cactus source tree Formaline::Formaline_RegisterWarnings: [meta] Register to receive warnings and info messages from the flesh Formaline::Formaline_AnnounceInitial: [global] Put some meta information about the current run into permanent storage MoL::MoL_SetupIndexArrays: Set up the MoL bookkeeping index arrays MoL::MoL_SetScheduleStatus: [global] Set the flag so it is ok to register with MoL GROUP MoL_Register: The group where physics thorns register variables with MoL ML_ADMConstraints::ML_ADMConstraints_RegisterVars: [meta] Register Variables for MoL ML_BSSN::ML_BSSN_RegisterVars: [meta] Register Variables for MoL ML_BSSN_Helper::ML_BSSN_RegisterConstrained: [meta] Register ADMBase variables as constrained WeylScal4::WeylScal4_RegisterVars: [meta] Register Variables for MoL MoL::MoL_ReportNumberVariables: [meta] Report how many of each type of variable there are Slab::Slab_InitTimers: Initialise timers GROUP SymBase_Wrapper: Wrapper group for SymBase GROUP SymmetryRegister: Register your symmetries here CartGrid3D::RegisterSymmetryBoundaries: [meta] Register symmetry boundaries ML_ADMConstraints::ML_ADMConstraints_RegisterSymmetries: [meta] register symmetries ML_BSSN::ML_BSSN_RegisterSymmetries: [meta] register symmetries ReflectionSymmetry::ReflectionSymmetry_Register: Register reflection symmetry boundaries RotatingSymmetry180::Rot180_RegisterSymmetry: Register symmetry boundaries WeylScal4::WeylScal4_RegisterSymmetries: [meta] register symmetries SymBase::SymBase_Statistics: Print symmetry boundary face descriptions TerminationTrigger::TerminationTrigger_StartTimer: Start timer TerminationTrigger::TerminationTrigger_CreateFile: Create termination file Parameter checking routines [CCTK_PARAMCHECK] ADMBase::ADMBase_ParamCheck: [global] Check consistency of parameters Boundary::Boundary_Check: Check dimension of grid variables Carpet::CarpetParamCheck: Parameter checking routine CarpetRegrid2::CarpetRegrid2_ParamCheck: Check parameters CartGrid3D::ParamCheck_CartGrid3D: Check coordinates for CartGrid3D Dissipation::dissipation_paramcheck: Check dissipation parameters for consistency Fortran::CheckFortranParameters: Test whether Fortran parameters work correctly MoL::MoL_ParamCheck: Basic parameter checking Multipole::Multipole_ParamCheck: [global] Check Multipole parameters QuasiLocalMeasures::qlm_paramcheck: [global] Check quasi-local parameter settings RotatingSymmetry180::Rot180_CheckTensorTypes: Check tensor type definitions for consistency TwoPunctures::TwoPunctures_ParamCheck: Check parameters and thorn needs Initialisation if (NOT (recover initial data AND recovery_mode is 'strict')) [CCTK_PREREGRIDINITIAL] Set up grid hierarchy [CCTK_POSTREGRIDINITIAL] AHFinderDirect::AHFinderDirect_maybe_do_masks: [global] [loop-local] set mask(s) based on apparent horizon position(s) CartGrid3D::SpatialCoordinates: Set Coordinates after regridding GROUP MaskBase_SetupMask: Set up the weight function CarpetReduce::MaskBase_InitMask: [global] [loop-local] Initialise the weight function GROUP SetupMask: Set up the weight function (schedule other routines in here) CarpetMask::CarpetExcludedSetup: [global] [loop-local] Set up the weight function for the excluded regions CarpetMask::CarpetSurfaceSetup: [global] [loop-local] Set up the weight function for the excluded spherical surfaces CarpetReduce::CoordBase_SetupMask: [global] [loop-local] Set up the outer boundaries of the weight function CarpetReduce::CarpetMaskSetup: [global] [loop-singlemap] Set up the weight function for the restriction regions Dissipation::setup_epsdis: Setup spatially varying dissipation GROUP MoL_PseudoEvolution: Calculate pseudo-evolved quantities GROUP ADMBase_SetADMVars: Set the ADM variables before this group, and use them afterwards GROUP ML_ADMConstraints_group: ML_ADMConstraints ML_ADMConstraints::ML_ADMConstraints: ML_ADMConstraints GROUP ML_ADMConstraints_bc_group: ML_ADMConstraints ML_ADMConstraints::ML_ADMConstraints_SelectBCs: [level] ML_ADMConstraints_SelectBCs GROUP ML_ADMConstraints_ApplyBCs: Apply BCs for groups set in ML_ADMConstraints GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions ML_ADMConstraints::ML_ADMConstraints_SelectBoundConds: [level] select boundary conditions GROUP ML_ADMConstraints_ApplyBCs: Apply boundary conditions controlled by thorn Boundary GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ML_BSSN_constraints1_group: ML_BSSN_constraints1 ML_BSSN::ML_BSSN_constraints1: ML_BSSN_constraints1 GROUP ML_BSSN_constraints1_bc_group: ML_BSSN_constraints1 ML_BSSN::ML_BSSN_constraints1_SelectBCs: [level] ML_BSSN_constraints1_SelectBCs GROUP ML_BSSN_constraints1_ApplyBCs: Apply BCs for groups set in ML_BSSN_constraints1 GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ML_BSSN_constraints2_group: ML_BSSN_constraints2 ML_BSSN::ML_BSSN_constraints2: ML_BSSN_constraints2 GROUP ML_BSSN_constraints2_bc_group: ML_BSSN_constraints2 ML_BSSN::ML_BSSN_constraints2_SelectBCs: [level] ML_BSSN_constraints2_SelectBCs GROUP ML_BSSN_constraints2_ApplyBCs: Apply BCs for groups set in ML_BSSN_constraints2 GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP psis_calc_4th_group: psis_calc_4th WeylScal4::psis_calc_4th: psis_calc_4th GROUP psis_calc_4th_bc_group: psis_calc_4th WeylScal4::psis_calc_4th_SelectBCs: [level] psis_calc_4th_SelectBCs GROUP psis_calc_4th_ApplyBCs: Apply BCs for groups set in psis_calc_4th GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions [CCTK_BASEGRID] ADMBase::ADMBase_SetShiftStateOn: Set the shift_state variable to 1 ADMBase::ADMBase_SetDtLapseStateOn: Set the dtlapse_state variable to 1 ADMBase::ADMBase_SetDtShiftStateOn: Set the dtshift_state variable to 1 ADMMacros::ADMMacros_SetLocalSpatialOrder: Initialize the local_spatial_order CartGrid3D::CartGrid3D_SetRanges: Set up ranges for spatial 3D Cartesian coordinates (on all grids) CarpetIOASCII::CarpetIOASCIIInit: [global] Initialisation routine CarpetIOBasic::CarpetIOBasicInit: [global] Initialisation routine CarpetIOHDF5::CarpetIOHDF5_Init: [global] Initialisation routine CarpetIOScalar::CarpetIOScalarInit: [global] Initialisation routine CartGrid3D::SpatialCoordinates: Set up spatial 3D Cartesian coordinates on the GH SphericalSurface::SphericalSurface_SetupRes: [global] [loop-local] Set surface resolution automatically AHFinderDirect::AHFinderDirect_setup: [global] setup data structures Dissipation::dissipation_basegrid: Ensure that there are enough ghost zones ML_ADMConstraints::ML_ADMConstraints_CheckBoundaries: [meta] check boundaries treatment ML_BSSN::ML_BSSN_CheckBoundaries: [meta] check boundaries treatment SphericalSurface::SphericalSurface_Setup: [global] Calculate surface coordinate descriptors GROUP MaskBase_SetupMask: Set up the weight function CarpetReduce::MaskBase_InitMask: [global] [loop-local] Initialise the weight function GROUP SetupMask: Set up the weight function (schedule other routines in here) CarpetMask::CarpetExcludedSetup: [global] [loop-local] Set up the weight function for the excluded regions CarpetMask::CarpetSurfaceSetup: [global] [loop-local] Set up the weight function for the excluded spherical surfaces CarpetReduce::CoordBase_SetupMask: [global] [loop-local] Set up the outer boundaries of the weight function CarpetReduce::CarpetMaskSetup: [global] [loop-singlemap] Set up the weight function for the restriction regions SphericalSurface::SphericalSurface_Set: [global] Set surface radii to be used for initial setup in other thorns GROUP SphericalSurface_HasBeenSet: Set the spherical surfaces before this group, and use it afterwards SphericalSurface::SphericalSurface_CheckState: [global] Test the state of the spherical surfaces SummationByParts::SBP_SetNormMask: Setup the mask for the calculation of the norm SymBase::SymBase_Check: Check whether the driver set up the grid consistently Time::Time_Initialise: [global] Initialise Time variables Time::Time_Simple: [singlemap] Set timestep based on Courant condition (courant_static) TmunuBase::TmunuBase_SetStressEnergyState: [global] Set the stress_energy_state variable WeylScal4::WeylScal4_CheckBoundaries: [meta] check boundaries treatment [CCTK_INITIAL] StaticConformal::StaticConformal_InitialiseState: Set the conformal_state variable to 0 GROUP ADMBase_InitialData: Schedule group for calculating ADM initial data TwoPunctures::TwoPunctures: Create puncture black hole initial data GROUP ADMBase_InitialGauge: Schedule group for the ADM initial gauge condition ADMBase::ADMBase_ShiftZero: Set the shift to 0 at all points ADMBase::ADMBase_DtLapseZero: Set the dtlapse to 0 at all points ADMBase::ADMBase_DtShiftZero: Set the dtshift to 0 at all points GROUP ADMBase_PostInitial: Schedule group for modifying the ADM initial data, such as e.g. adding noise ML_BSSN::ML_BSSN_convertFromADMBase: ML_BSSN_convertFromADMBase ML_BSSN::ML_BSSN_convertFromADMBaseGamma: ML_BSSN_convertFromADMBaseGamma MoL::MoL_StartLoop: [level] Initialise the step size control MoL::MoL_SetInitialTime: [level] Ensure the correct time and timestep are used - initial NaNChecker::NaNChecker_ResetCounter: [global] Reset the NaNChecker::NaNsFound counter QuasiLocalMeasures::qlm_init: [global] Initialise quasi-local calculations ML_BSSN_Helper::ML_BSSN_ExtrapolateGammas: Extrapolate Gammas and time derivatives of lapse and shift [CCTK_POSTINITIAL] CarpetIOHDF5::CarpetIOHDF5_CloseFiles: [global] Close all filereader input files GROUP MoL_PostStep: Ensure that everything is correct after the initial data have been set up ML_BSSN::ML_BSSN_enforce: ML_BSSN_enforce ML_BSSN::ML_BSSN_SelectBoundConds: [level] select boundary conditions GROUP ML_BSSN_ApplyBCs: Apply boundary conditions controlled by thorn Boundary GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ML_BSSN_convertToADMBaseGroupWrapper: Calculate ADM variables GROUP ML_BSSN_convertToADMBaseGroup: Calculate ADM variables ML_BSSN::ML_BSSN_convertToADMBase: ML_BSSN_convertToADMBase ML_BSSN::ML_BSSN_convertToADMBaseDtLapseShift: ML_BSSN_convertToADMBaseDtLapseShift ML_BSSN::ML_BSSN_convertToADMBaseDtLapseShiftBoundary: ML_BSSN_convertToADMBaseDtLapseShiftBoundary ML_BSSN_Helper::ML_BSSN_SelectBCsADMBase: [level] Select boundary conditions for ADMBase variables GROUP ML_BSSN_ApplyBCsADMBase: Apply boundary conditions to ADMBase variables GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ADMBase_SetADMVars: Set the ADM variables before this group, and use them afterwards GROUP MoL_OldBdry_Wrap: Wrapper group, do not schedule directly into this group MoL::MoL_OldBdry_SetDt: [level] Store and change dt GROUP MoL_OldStyleBoundaries: Place old style boundary routines here MoL::MoL_OldBdry_ResetDt: [level] Reset dt WeylScal4::WeylScal4_SelectBoundConds: [level] select boundary conditions GROUP WeylScal4_ApplyBCs: Apply boundary conditions controlled by thorn Boundary GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP MoL_PseudoEvolution: Calculate pseudo-evolved quantities GROUP ADMBase_SetADMVars: Set the ADM variables before this group, and use them afterwards GROUP ML_ADMConstraints_group: ML_ADMConstraints ML_ADMConstraints::ML_ADMConstraints: ML_ADMConstraints GROUP ML_ADMConstraints_bc_group: ML_ADMConstraints ML_ADMConstraints::ML_ADMConstraints_SelectBCs: [level] ML_ADMConstraints_SelectBCs GROUP ML_ADMConstraints_ApplyBCs: Apply BCs for groups set in ML_ADMConstraints GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions ML_ADMConstraints::ML_ADMConstraints_SelectBoundConds: [level] select boundary conditions GROUP ML_ADMConstraints_ApplyBCs: Apply boundary conditions controlled by thorn Boundary GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ML_BSSN_constraints1_group: ML_BSSN_constraints1 ML_BSSN::ML_BSSN_constraints1: ML_BSSN_constraints1 GROUP ML_BSSN_constraints1_bc_group: ML_BSSN_constraints1 ML_BSSN::ML_BSSN_constraints1_SelectBCs: [level] ML_BSSN_constraints1_SelectBCs GROUP ML_BSSN_constraints1_ApplyBCs: Apply BCs for groups set in ML_BSSN_constraints1 GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ML_BSSN_constraints2_group: ML_BSSN_constraints2 ML_BSSN::ML_BSSN_constraints2: ML_BSSN_constraints2 GROUP ML_BSSN_constraints2_bc_group: ML_BSSN_constraints2 ML_BSSN::ML_BSSN_constraints2_SelectBCs: [level] ML_BSSN_constraints2_SelectBCs GROUP ML_BSSN_constraints2_ApplyBCs: Apply BCs for groups set in ML_BSSN_constraints2 GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP psis_calc_4th_group: psis_calc_4th WeylScal4::psis_calc_4th: psis_calc_4th GROUP psis_calc_4th_bc_group: psis_calc_4th WeylScal4::psis_calc_4th_SelectBCs: [level] psis_calc_4th_SelectBCs GROUP psis_calc_4th_ApplyBCs: Apply BCs for groups set in psis_calc_4th GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions SummationByParts::SBP_CheckGridSizes: Check grid sizes and ghost zones Initialise finer grids recursively Restrict from finer grids [CCTK_POSTRESTRICTINITIAL] GROUP ML_ADMConstraints_bc_group: ML_ADMConstraints ML_ADMConstraints::ML_ADMConstraints_SelectBCs: [level] ML_ADMConstraints_SelectBCs GROUP ML_ADMConstraints_ApplyBCs: Apply BCs for groups set in ML_ADMConstraints GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ML_BSSN_constraints1_bc_group: ML_BSSN_constraints1 ML_BSSN::ML_BSSN_constraints1_SelectBCs: [level] ML_BSSN_constraints1_SelectBCs GROUP ML_BSSN_constraints1_ApplyBCs: Apply BCs for groups set in ML_BSSN_constraints1 GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ML_BSSN_constraints2_bc_group: ML_BSSN_constraints2 ML_BSSN::ML_BSSN_constraints2_SelectBCs: [level] ML_BSSN_constraints2_SelectBCs GROUP ML_BSSN_constraints2_ApplyBCs: Apply BCs for groups set in ML_BSSN_constraints2 GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP MoL_PostStep: Ensure that everything is correct after restriction ML_BSSN::ML_BSSN_enforce: ML_BSSN_enforce ML_BSSN::ML_BSSN_SelectBoundConds: [level] select boundary conditions GROUP ML_BSSN_ApplyBCs: Apply boundary conditions controlled by thorn Boundary GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ML_BSSN_convertToADMBaseGroupWrapper: Calculate ADM variables GROUP ML_BSSN_convertToADMBaseGroup: Calculate ADM variables ML_BSSN::ML_BSSN_convertToADMBase: ML_BSSN_convertToADMBase ML_BSSN::ML_BSSN_convertToADMBaseDtLapseShift: ML_BSSN_convertToADMBaseDtLapseShift ML_BSSN::ML_BSSN_convertToADMBaseDtLapseShiftBoundary: ML_BSSN_convertToADMBaseDtLapseShiftBoundary ML_BSSN_Helper::ML_BSSN_SelectBCsADMBase: [level] Select boundary conditions for ADMBase variables GROUP ML_BSSN_ApplyBCsADMBase: Apply boundary conditions to ADMBase variables GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ADMBase_SetADMVars: Set the ADM variables before this group, and use them afterwards GROUP MoL_OldBdry_Wrap: Wrapper group, do not schedule directly into this group MoL::MoL_OldBdry_SetDt: [level] Store and change dt GROUP MoL_OldStyleBoundaries: Place old style boundary routines here MoL::MoL_OldBdry_ResetDt: [level] Reset dt WeylScal4::WeylScal4_SelectBoundConds: [level] select boundary conditions GROUP WeylScal4_ApplyBCs: Apply boundary conditions controlled by thorn Boundary GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP psis_calc_4th_bc_group: psis_calc_4th WeylScal4::psis_calc_4th_SelectBCs: [level] psis_calc_4th_SelectBCs GROUP psis_calc_4th_ApplyBCs: Apply BCs for groups set in psis_calc_4th GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions [CCTK_POSTPOSTINITIAL] [CCTK_POSTSTEP] SphericalSurface::SphericalSurface_Set: [global] Set surface radii GROUP SphericalSurface_HasBeenSet: Set the spherical surfaces before this group, and use it afterwards SphericalSurface::SphericalSurface_CheckState: [global] Test the state of the spherical surfaces NaNChecker::NaNChecker_NaNCheck: [local] Check for NaNs and count them in NaNChecker::NaNsFound NaNChecker::NaNChecker_TakeAction: [global] [loop-level] Output NaNChecker::NaNmask and take action according to NaNChecker::action_if_found Dissipation::setup_epsdis: Setup spatially varying dissipation GROUP MaskBase_SetupMask: Set up the weight function CarpetReduce::MaskBase_InitMask: [global] [loop-local] Initialise the weight function GROUP SetupMask: Set up the weight function (schedule other routines in here) CarpetMask::CarpetExcludedSetup: [global] [loop-local] Set up the weight function for the excluded regions CarpetMask::CarpetSurfaceSetup: [global] [loop-local] Set up the weight function for the excluded spherical surfaces CarpetReduce::CoordBase_SetupMask: [global] [loop-local] Set up the outer boundaries of the weight function CarpetReduce::CarpetMaskSetup: [global] [loop-singlemap] Set up the weight function for the restriction regions endif if (recover initial data) [CCTK_BASEGRID] ADMBase::ADMBase_SetShiftStateOn: Set the shift_state variable to 1 ADMBase::ADMBase_SetDtLapseStateOn: Set the dtlapse_state variable to 1 ADMBase::ADMBase_SetDtShiftStateOn: Set the dtshift_state variable to 1 ADMMacros::ADMMacros_SetLocalSpatialOrder: Initialize the local_spatial_order CartGrid3D::CartGrid3D_SetRanges: Set up ranges for spatial 3D Cartesian coordinates (on all grids) CarpetIOASCII::CarpetIOASCIIInit: [global] Initialisation routine CarpetIOBasic::CarpetIOBasicInit: [global] Initialisation routine CarpetIOHDF5::CarpetIOHDF5_Init: [global] Initialisation routine CarpetIOScalar::CarpetIOScalarInit: [global] Initialisation routine CartGrid3D::SpatialCoordinates: Set up spatial 3D Cartesian coordinates on the GH SphericalSurface::SphericalSurface_SetupRes: [global] [loop-local] Set surface resolution automatically AHFinderDirect::AHFinderDirect_setup: [global] setup data structures Dissipation::dissipation_basegrid: Ensure that there are enough ghost zones ML_ADMConstraints::ML_ADMConstraints_CheckBoundaries: [meta] check boundaries treatment ML_BSSN::ML_BSSN_CheckBoundaries: [meta] check boundaries treatment SphericalSurface::SphericalSurface_Setup: [global] Calculate surface coordinate descriptors GROUP MaskBase_SetupMask: Set up the weight function CarpetReduce::MaskBase_InitMask: [global] [loop-local] Initialise the weight function GROUP SetupMask: Set up the weight function (schedule other routines in here) CarpetMask::CarpetExcludedSetup: [global] [loop-local] Set up the weight function for the excluded regions CarpetMask::CarpetSurfaceSetup: [global] [loop-local] Set up the weight function for the excluded spherical surfaces CarpetReduce::CoordBase_SetupMask: [global] [loop-local] Set up the outer boundaries of the weight function CarpetReduce::CarpetMaskSetup: [global] [loop-singlemap] Set up the weight function for the restriction regions SphericalSurface::SphericalSurface_Set: [global] Set surface radii to be used for initial setup in other thorns GROUP SphericalSurface_HasBeenSet: Set the spherical surfaces before this group, and use it afterwards SphericalSurface::SphericalSurface_CheckState: [global] Test the state of the spherical surfaces SummationByParts::SBP_SetNormMask: Setup the mask for the calculation of the norm SymBase::SymBase_Check: Check whether the driver set up the grid consistently Time::Time_Initialise: [global] Initialise Time variables Time::Time_Simple: [singlemap] Set timestep based on Courant condition (courant_static) TmunuBase::TmunuBase_SetStressEnergyState: [global] Set the stress_energy_state variable WeylScal4::WeylScal4_CheckBoundaries: [meta] check boundaries treatment [CCTK_RECOVER_VARIABLES] IOUtil::IOUtil_RecoverGH: [level] Checkpoint recovery routine [CCTK_POST_RECOVER_VARIABLES] AHFinderDirect::AHFinderDirect_recover: [global] import horizon data from Cactus variables CarpetIOHDF5::CarpetIOHDF5_InitCheckpointingIntervals: [global] Initialisation of checkpointing intervals after recovery CarpetIOHDF5::CarpetIOHDF5_CloseFiles: [meta] Close all initial data checkpoint files after recovery GROUP MaskBase_SetupMask: Set up the weight function CarpetReduce::MaskBase_InitMask: [global] [loop-local] Initialise the weight function GROUP SetupMask: Set up the weight function (schedule other routines in here) CarpetMask::CarpetExcludedSetup: [global] [loop-local] Set up the weight function for the excluded regions CarpetMask::CarpetSurfaceSetup: [global] [loop-local] Set up the weight function for the excluded spherical surfaces CarpetReduce::CoordBase_SetupMask: [global] [loop-local] Set up the outer boundaries of the weight function CarpetReduce::CarpetMaskSetup: [global] [loop-singlemap] Set up the weight function for the restriction regions GROUP MoL_PostStep: Ensure that everything is correct after recovery ML_BSSN::ML_BSSN_enforce: ML_BSSN_enforce ML_BSSN::ML_BSSN_SelectBoundConds: [level] select boundary conditions GROUP ML_BSSN_ApplyBCs: Apply boundary conditions controlled by thorn Boundary GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ML_BSSN_convertToADMBaseGroupWrapper: Calculate ADM variables GROUP ML_BSSN_convertToADMBaseGroup: Calculate ADM variables ML_BSSN::ML_BSSN_convertToADMBase: ML_BSSN_convertToADMBase ML_BSSN::ML_BSSN_convertToADMBaseDtLapseShift: ML_BSSN_convertToADMBaseDtLapseShift ML_BSSN::ML_BSSN_convertToADMBaseDtLapseShiftBoundary: ML_BSSN_convertToADMBaseDtLapseShiftBoundary ML_BSSN_Helper::ML_BSSN_SelectBCsADMBase: [level] Select boundary conditions for ADMBase variables GROUP ML_BSSN_ApplyBCsADMBase: Apply boundary conditions to ADMBase variables GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ADMBase_SetADMVars: Set the ADM variables before this group, and use them afterwards GROUP MoL_OldBdry_Wrap: Wrapper group, do not schedule directly into this group MoL::MoL_OldBdry_SetDt: [level] Store and change dt GROUP MoL_OldStyleBoundaries: Place old style boundary routines here MoL::MoL_OldBdry_ResetDt: [level] Reset dt WeylScal4::WeylScal4_SelectBoundConds: [level] select boundary conditions GROUP WeylScal4_ApplyBCs: Apply boundary conditions controlled by thorn Boundary GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP MoL_PseudoEvolution: Calculate pseudo-evolved quantities GROUP ADMBase_SetADMVars: Set the ADM variables before this group, and use them afterwards GROUP ML_ADMConstraints_group: ML_ADMConstraints ML_ADMConstraints::ML_ADMConstraints: ML_ADMConstraints GROUP ML_ADMConstraints_bc_group: ML_ADMConstraints ML_ADMConstraints::ML_ADMConstraints_SelectBCs: [level] ML_ADMConstraints_SelectBCs GROUP ML_ADMConstraints_ApplyBCs: Apply BCs for groups set in ML_ADMConstraints GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions ML_ADMConstraints::ML_ADMConstraints_SelectBoundConds: [level] select boundary conditions GROUP ML_ADMConstraints_ApplyBCs: Apply boundary conditions controlled by thorn Boundary GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ML_BSSN_constraints1_group: ML_BSSN_constraints1 ML_BSSN::ML_BSSN_constraints1: ML_BSSN_constraints1 GROUP ML_BSSN_constraints1_bc_group: ML_BSSN_constraints1 ML_BSSN::ML_BSSN_constraints1_SelectBCs: [level] ML_BSSN_constraints1_SelectBCs GROUP ML_BSSN_constraints1_ApplyBCs: Apply BCs for groups set in ML_BSSN_constraints1 GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ML_BSSN_constraints2_group: ML_BSSN_constraints2 ML_BSSN::ML_BSSN_constraints2: ML_BSSN_constraints2 GROUP ML_BSSN_constraints2_bc_group: ML_BSSN_constraints2 ML_BSSN::ML_BSSN_constraints2_SelectBCs: [level] ML_BSSN_constraints2_SelectBCs GROUP ML_BSSN_constraints2_ApplyBCs: Apply BCs for groups set in ML_BSSN_constraints2 GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP psis_calc_4th_group: psis_calc_4th WeylScal4::psis_calc_4th: psis_calc_4th GROUP psis_calc_4th_bc_group: psis_calc_4th WeylScal4::psis_calc_4th_SelectBCs: [level] psis_calc_4th_SelectBCs GROUP psis_calc_4th_ApplyBCs: Apply BCs for groups set in psis_calc_4th GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions TerminationTrigger::TerminationTrigger_ResetMinutes: [global] Reset Watchtime endif if (checkpoint initial data) [CCTK_CPINITIAL] CarpetIOHDF5::CarpetIOHDF5_InitialDataCheckpoint: [meta] Initial data checkpoint routine endif if (analysis) [CCTK_ANALYSIS] AHFinderDirect::AHFinderDirect_import_mask: [global] [loop-local] import the excision mask AHFinderDirect::AHFinderDirect_find_horizons: [global] find apparent horizon(s) after this time step AHFinderDirect::AHFinderDirect_store: [global] store apparent horizon(s) into spherical surface(s) AHFinderDirect::AHFinderDirect_save: [global] save apparent horizon(s) into Cactus variables AHFinderDirect::AHFinderDirect_maybe_do_masks: [global] [loop-local] set mask(s) based on apparent horizon position(s) CarpetLib::CarpetLib_printtimestats: [global] Print timing statistics if desired CarpetLib::CarpetLib_printmemstats: [global] Print memory statistics if desired Formaline::Formaline_AnnounceUpdate: [global] Put some meta information about the current run into permanent storage GROUP ML_BSSN_evolCalcGroup: Calculate BSSN RHS ML_BSSN::ML_BSSN_RHS1: ML_BSSN_RHS1 ML_BSSN::ML_BSSN_RHS2: ML_BSSN_RHS2 ML_BSSN_Helper::ML_BSSN_NewRad: Apply NewRad boundary conditions to RHS Multipole::Multipole_Calc: [global] Calculate Multipoles QuasiLocalMeasures::qlm_calculate: [global] Calculate quasi-local quantities TerminationTrigger::TerminationTrigger_CheckWalltime: Check elapsed job walltime TerminationTrigger::TerminationTrigger_CheckFile: Check termination file TimerReport::zzz_TimerReport_Output: [global] Print the timer report endif Output grid variables do loop over timesteps [CCTK_PREREGRID] CarpetTracker::CarpetTracker_SetPositions: [global] Set positions of refined regions Change grid hierarchy [CCTK_POSTREGRID] AHFinderDirect::AHFinderDirect_maybe_do_masks: [global] [loop-local] set mask(s) based on apparent horizon position(s) CartGrid3D::SpatialCoordinates: Set Coordinates after regridding GROUP MaskBase_SetupMask: Set up the weight function CarpetReduce::MaskBase_InitMask: [global] [loop-local] Initialise the weight function GROUP SetupMask: Set up the weight function (schedule other routines in here) CarpetMask::CarpetExcludedSetup: [global] [loop-local] Set up the weight function for the excluded regions CarpetMask::CarpetSurfaceSetup: [global] [loop-local] Set up the weight function for the excluded spherical surfaces CarpetReduce::CoordBase_SetupMask: [global] [loop-local] Set up the outer boundaries of the weight function CarpetReduce::CarpetMaskSetup: [global] [loop-singlemap] Set up the weight function for the restriction regions Dissipation::setup_epsdis: Setup spatially varying dissipation GROUP MoL_PostStep: Ensure that everything is correct after regridding ML_BSSN::ML_BSSN_enforce: ML_BSSN_enforce ML_BSSN::ML_BSSN_SelectBoundConds: [level] select boundary conditions GROUP ML_BSSN_ApplyBCs: Apply boundary conditions controlled by thorn Boundary GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ML_BSSN_convertToADMBaseGroupWrapper: Calculate ADM variables GROUP ML_BSSN_convertToADMBaseGroup: Calculate ADM variables ML_BSSN::ML_BSSN_convertToADMBase: ML_BSSN_convertToADMBase ML_BSSN::ML_BSSN_convertToADMBaseDtLapseShift: ML_BSSN_convertToADMBaseDtLapseShift ML_BSSN::ML_BSSN_convertToADMBaseDtLapseShiftBoundary: ML_BSSN_convertToADMBaseDtLapseShiftBoundary ML_BSSN_Helper::ML_BSSN_SelectBCsADMBase: [level] Select boundary conditions for ADMBase variables GROUP ML_BSSN_ApplyBCsADMBase: Apply boundary conditions to ADMBase variables GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ADMBase_SetADMVars: Set the ADM variables before this group, and use them afterwards GROUP MoL_OldBdry_Wrap: Wrapper group, do not schedule directly into this group MoL::MoL_OldBdry_SetDt: [level] Store and change dt GROUP MoL_OldStyleBoundaries: Place old style boundary routines here MoL::MoL_OldBdry_ResetDt: [level] Reset dt WeylScal4::WeylScal4_SelectBoundConds: [level] select boundary conditions GROUP WeylScal4_ApplyBCs: Apply boundary conditions controlled by thorn Boundary GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP MoL_PseudoEvolution: Calculate pseudo-evolved quantities GROUP ADMBase_SetADMVars: Set the ADM variables before this group, and use them afterwards GROUP ML_ADMConstraints_group: ML_ADMConstraints ML_ADMConstraints::ML_ADMConstraints: ML_ADMConstraints GROUP ML_ADMConstraints_bc_group: ML_ADMConstraints ML_ADMConstraints::ML_ADMConstraints_SelectBCs: [level] ML_ADMConstraints_SelectBCs GROUP ML_ADMConstraints_ApplyBCs: Apply BCs for groups set in ML_ADMConstraints GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions ML_ADMConstraints::ML_ADMConstraints_SelectBoundConds: [level] select boundary conditions GROUP ML_ADMConstraints_ApplyBCs: Apply boundary conditions controlled by thorn Boundary GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ML_BSSN_constraints1_group: ML_BSSN_constraints1 ML_BSSN::ML_BSSN_constraints1: ML_BSSN_constraints1 GROUP ML_BSSN_constraints1_bc_group: ML_BSSN_constraints1 ML_BSSN::ML_BSSN_constraints1_SelectBCs: [level] ML_BSSN_constraints1_SelectBCs GROUP ML_BSSN_constraints1_ApplyBCs: Apply BCs for groups set in ML_BSSN_constraints1 GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ML_BSSN_constraints2_group: ML_BSSN_constraints2 ML_BSSN::ML_BSSN_constraints2: ML_BSSN_constraints2 GROUP ML_BSSN_constraints2_bc_group: ML_BSSN_constraints2 ML_BSSN::ML_BSSN_constraints2_SelectBCs: [level] ML_BSSN_constraints2_SelectBCs GROUP ML_BSSN_constraints2_ApplyBCs: Apply BCs for groups set in ML_BSSN_constraints2 GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP psis_calc_4th_group: psis_calc_4th WeylScal4::psis_calc_4th: psis_calc_4th GROUP psis_calc_4th_bc_group: psis_calc_4th WeylScal4::psis_calc_4th_SelectBCs: [level] psis_calc_4th_SelectBCs GROUP psis_calc_4th_ApplyBCs: Apply BCs for groups set in psis_calc_4th GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions Rotate timelevels iteration = iteration+1 t = t+dt [CCTK_PRESTEP] CoordGauge::Einstein_SetNextSlicing: Identify the slicing for the next iteration NaNChecker::NaNChecker_ResetCounter: [global] Reset the NaNChecker::NaNsFound counter [CCTK_EVOL] MoL::MoL_StartLoop: [level] Initialise the step size control while (MoL::MoL_Stepsize_Bad) GROUP MoL_Evolution: A single Cactus evolution step using MoL GROUP MoL_StartStep: MoL internal setup for the evolution step MoL::MoL_SetCounter: [level] Set the counter for the ODE method to loop over MoL::MoL_SetTime: [level] Ensure the correct time and timestep are used GROUP MoL_PreStep: Physics thorns can schedule preloop setup routines in here MoL::MoL_InitialCopy: Ensure the data is in the correct timelevel while (MoL::MoL_Intermediate_Step) GROUP MoL_Step: The loop over the intermediate steps for the ODE integrator MoL::MoL_InitRHS: Initialise the RHS functions GROUP MoL_CalcRHS: Physics thorns schedule the calculation of the discrete spatial operator in here GROUP ML_BSSN_evolCalcGroup: Calculate BSSN RHS ML_BSSN::ML_BSSN_RHS1: ML_BSSN_RHS1 ML_BSSN::ML_BSSN_RHS2: ML_BSSN_RHS2 ML_BSSN_Helper::ML_BSSN_NewRad: Apply NewRad boundary conditions to RHS GROUP MoL_PostRHS: Modify RHS functions Dissipation::dissipation_add: Add Kreiss-Oliger dissipation to the right hand sides GROUP MoL_RHSBoundaries: Any 'final' modifications to the RHS functions (boundaries etc.) MoL::MoL_Add: Updates calculated with the efficient Runge-Kutta 4 method MoL::MoL_DecrementCounter: [level] Alter the counter number MoL::MoL_ResetTime: [level] If necessary, change the time GROUP MoL_PostStep: The group for physics thorns to schedule boundary calls etc. ML_BSSN::ML_BSSN_enforce: ML_BSSN_enforce ML_BSSN::ML_BSSN_SelectBoundConds: [level] select boundary conditions GROUP ML_BSSN_ApplyBCs: Apply boundary conditions controlled by thorn Boundary GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ML_BSSN_convertToADMBaseGroupWrapper: Calculate ADM variables GROUP ML_BSSN_convertToADMBaseGroup: Calculate ADM variables ML_BSSN::ML_BSSN_convertToADMBase: ML_BSSN_convertToADMBase ML_BSSN::ML_BSSN_convertToADMBaseDtLapseShift: ML_BSSN_convertToADMBaseDtLapseShift ML_BSSN::ML_BSSN_convertToADMBaseDtLapseShiftBoundary: ML_BSSN_convertToADMBaseDtLapseShiftBoundary ML_BSSN_Helper::ML_BSSN_SelectBCsADMBase: [level] Select boundary conditions for ADMBase variables GROUP ML_BSSN_ApplyBCsADMBase: Apply boundary conditions to ADMBase variables GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ADMBase_SetADMVars: Set the ADM variables before this group, and use them afterwards GROUP MoL_OldBdry_Wrap: Wrapper group, do not schedule directly into this group MoL::MoL_OldBdry_SetDt: [level] Store and change dt GROUP MoL_OldStyleBoundaries: Place old style boundary routines here MoL::MoL_OldBdry_ResetDt: [level] Reset dt WeylScal4::WeylScal4_SelectBoundConds: [level] select boundary conditions GROUP WeylScal4_ApplyBCs: Apply boundary conditions controlled by thorn Boundary GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions MoL::MoL_ResetDeltaTime: [level] If necessary, change the timestep end while MoL::MoL_FinishLoop: [level] Control the step size MoL::MoL_RestoreSandR: Restoring the Save and Restore variables to the original state end while GROUP MoL_PseudoEvolution: Calculate pseudo-evolved quantities GROUP ADMBase_SetADMVars: Set the ADM variables before this group, and use them afterwards GROUP ML_ADMConstraints_group: ML_ADMConstraints ML_ADMConstraints::ML_ADMConstraints: ML_ADMConstraints GROUP ML_ADMConstraints_bc_group: ML_ADMConstraints ML_ADMConstraints::ML_ADMConstraints_SelectBCs: [level] ML_ADMConstraints_SelectBCs GROUP ML_ADMConstraints_ApplyBCs: Apply BCs for groups set in ML_ADMConstraints GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions ML_ADMConstraints::ML_ADMConstraints_SelectBoundConds: [level] select boundary conditions GROUP ML_ADMConstraints_ApplyBCs: Apply boundary conditions controlled by thorn Boundary GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ML_BSSN_constraints1_group: ML_BSSN_constraints1 ML_BSSN::ML_BSSN_constraints1: ML_BSSN_constraints1 GROUP ML_BSSN_constraints1_bc_group: ML_BSSN_constraints1 ML_BSSN::ML_BSSN_constraints1_SelectBCs: [level] ML_BSSN_constraints1_SelectBCs GROUP ML_BSSN_constraints1_ApplyBCs: Apply BCs for groups set in ML_BSSN_constraints1 GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ML_BSSN_constraints2_group: ML_BSSN_constraints2 ML_BSSN::ML_BSSN_constraints2: ML_BSSN_constraints2 GROUP ML_BSSN_constraints2_bc_group: ML_BSSN_constraints2 ML_BSSN::ML_BSSN_constraints2_SelectBCs: [level] ML_BSSN_constraints2_SelectBCs GROUP ML_BSSN_constraints2_ApplyBCs: Apply BCs for groups set in ML_BSSN_constraints2 GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP psis_calc_4th_group: psis_calc_4th WeylScal4::psis_calc_4th: psis_calc_4th GROUP psis_calc_4th_bc_group: psis_calc_4th WeylScal4::psis_calc_4th_SelectBCs: [level] psis_calc_4th_SelectBCs GROUP psis_calc_4th_ApplyBCs: Apply BCs for groups set in psis_calc_4th GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions Evolve finer grids recursively Restrict from finer grids [CCTK_POSTRESTRICT] GROUP ML_ADMConstraints_bc_group: ML_ADMConstraints ML_ADMConstraints::ML_ADMConstraints_SelectBCs: [level] ML_ADMConstraints_SelectBCs GROUP ML_ADMConstraints_ApplyBCs: Apply BCs for groups set in ML_ADMConstraints GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ML_BSSN_constraints1_bc_group: ML_BSSN_constraints1 ML_BSSN::ML_BSSN_constraints1_SelectBCs: [level] ML_BSSN_constraints1_SelectBCs GROUP ML_BSSN_constraints1_ApplyBCs: Apply BCs for groups set in ML_BSSN_constraints1 GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ML_BSSN_constraints2_bc_group: ML_BSSN_constraints2 ML_BSSN::ML_BSSN_constraints2_SelectBCs: [level] ML_BSSN_constraints2_SelectBCs GROUP ML_BSSN_constraints2_ApplyBCs: Apply BCs for groups set in ML_BSSN_constraints2 GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP MoL_PostStep: Ensure that everything is correct after restriction ML_BSSN::ML_BSSN_enforce: ML_BSSN_enforce ML_BSSN::ML_BSSN_SelectBoundConds: [level] select boundary conditions GROUP ML_BSSN_ApplyBCs: Apply boundary conditions controlled by thorn Boundary GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ML_BSSN_convertToADMBaseGroupWrapper: Calculate ADM variables GROUP ML_BSSN_convertToADMBaseGroup: Calculate ADM variables ML_BSSN::ML_BSSN_convertToADMBase: ML_BSSN_convertToADMBase ML_BSSN::ML_BSSN_convertToADMBaseDtLapseShift: ML_BSSN_convertToADMBaseDtLapseShift ML_BSSN::ML_BSSN_convertToADMBaseDtLapseShiftBoundary: ML_BSSN_convertToADMBaseDtLapseShiftBoundary ML_BSSN_Helper::ML_BSSN_SelectBCsADMBase: [level] Select boundary conditions for ADMBase variables GROUP ML_BSSN_ApplyBCsADMBase: Apply boundary conditions to ADMBase variables GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ADMBase_SetADMVars: Set the ADM variables before this group, and use them afterwards GROUP MoL_OldBdry_Wrap: Wrapper group, do not schedule directly into this group MoL::MoL_OldBdry_SetDt: [level] Store and change dt GROUP MoL_OldStyleBoundaries: Place old style boundary routines here MoL::MoL_OldBdry_ResetDt: [level] Reset dt WeylScal4::WeylScal4_SelectBoundConds: [level] select boundary conditions GROUP WeylScal4_ApplyBCs: Apply boundary conditions controlled by thorn Boundary GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP psis_calc_4th_bc_group: psis_calc_4th WeylScal4::psis_calc_4th_SelectBCs: [level] psis_calc_4th_SelectBCs GROUP psis_calc_4th_ApplyBCs: Apply BCs for groups set in psis_calc_4th GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions [CCTK_POSTSTEP] SphericalSurface::SphericalSurface_Set: [global] Set surface radii GROUP SphericalSurface_HasBeenSet: Set the spherical surfaces before this group, and use it afterwards SphericalSurface::SphericalSurface_CheckState: [global] Test the state of the spherical surfaces NaNChecker::NaNChecker_NaNCheck: [local] Check for NaNs and count them in NaNChecker::NaNsFound NaNChecker::NaNChecker_TakeAction: [global] [loop-level] Output NaNChecker::NaNmask and take action according to NaNChecker::action_if_found Dissipation::setup_epsdis: Setup spatially varying dissipation GROUP MaskBase_SetupMask: Set up the weight function CarpetReduce::MaskBase_InitMask: [global] [loop-local] Initialise the weight function GROUP SetupMask: Set up the weight function (schedule other routines in here) CarpetMask::CarpetExcludedSetup: [global] [loop-local] Set up the weight function for the excluded regions CarpetMask::CarpetSurfaceSetup: [global] [loop-local] Set up the weight function for the excluded spherical surfaces CarpetReduce::CoordBase_SetupMask: [global] [loop-local] Set up the outer boundaries of the weight function CarpetReduce::CarpetMaskSetup: [global] [loop-singlemap] Set up the weight function for the restriction regions if (checkpoint) [CCTK_CHECKPOINT] CarpetIOHDF5::CarpetIOHDF5_EvolutionCheckpoint: [meta] Evolution checkpoint routine TimerReport::zzz_TimerReport_Checkpoint: [global] Print the timer report endif if (analysis) [CCTK_ANALYSIS] AHFinderDirect::AHFinderDirect_import_mask: [global] [loop-local] import the excision mask AHFinderDirect::AHFinderDirect_find_horizons: [global] find apparent horizon(s) after this time step AHFinderDirect::AHFinderDirect_store: [global] store apparent horizon(s) into spherical surface(s) AHFinderDirect::AHFinderDirect_save: [global] save apparent horizon(s) into Cactus variables AHFinderDirect::AHFinderDirect_maybe_do_masks: [global] [loop-local] set mask(s) based on apparent horizon position(s) CarpetLib::CarpetLib_printtimestats: [global] Print timing statistics if desired CarpetLib::CarpetLib_printmemstats: [global] Print memory statistics if desired Formaline::Formaline_AnnounceUpdate: [global] Put some meta information about the current run into permanent storage GROUP ML_BSSN_evolCalcGroup: Calculate BSSN RHS ML_BSSN::ML_BSSN_RHS1: ML_BSSN_RHS1 ML_BSSN::ML_BSSN_RHS2: ML_BSSN_RHS2 ML_BSSN_Helper::ML_BSSN_NewRad: Apply NewRad boundary conditions to RHS Multipole::Multipole_Calc: [global] Calculate Multipoles QuasiLocalMeasures::qlm_calculate: [global] Calculate quasi-local quantities TerminationTrigger::TerminationTrigger_CheckWalltime: Check elapsed job walltime TerminationTrigger::TerminationTrigger_CheckFile: Check termination file TimerReport::zzz_TimerReport_Output: [global] Print the timer report endif Output grid variables enddo Termination routines [CCTK_TERMINATE] CarpetIOHDF5::CarpetIOHDF5_TerminationCheckpoint: [meta] Termination checkpoint routine Formaline::Formaline_AnnounceFinal: [global] Put some meta information about the current run into permanent storage MoL::MoL_FreeIndexArrays: Free the MoL bookkeeping index arrays TimerReport::zzz_TimerReport_Output: [global] Print the timer report Shutdown routines [CCTK_SHUTDOWN] Routines run after changing the grid hierarchy: [CCTK_POSTREGRID] AHFinderDirect::AHFinderDirect_maybe_do_masks: [global] [loop-local] set mask(s) based on apparent horizon position(s) CartGrid3D::SpatialCoordinates: Set Coordinates after regridding GROUP MaskBase_SetupMask: Set up the weight function CarpetReduce::MaskBase_InitMask: [global] [loop-local] Initialise the weight function GROUP SetupMask: Set up the weight function (schedule other routines in here) CarpetMask::CarpetExcludedSetup: [global] [loop-local] Set up the weight function for the excluded regions CarpetMask::CarpetSurfaceSetup: [global] [loop-local] Set up the weight function for the excluded spherical surfaces CarpetReduce::CoordBase_SetupMask: [global] [loop-local] Set up the outer boundaries of the weight function CarpetReduce::CarpetMaskSetup: [global] [loop-singlemap] Set up the weight function for the restriction regions Dissipation::setup_epsdis: Setup spatially varying dissipation GROUP MoL_PostStep: Ensure that everything is correct after regridding ML_BSSN::ML_BSSN_enforce: ML_BSSN_enforce ML_BSSN::ML_BSSN_SelectBoundConds: [level] select boundary conditions GROUP ML_BSSN_ApplyBCs: Apply boundary conditions controlled by thorn Boundary GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ML_BSSN_convertToADMBaseGroupWrapper: Calculate ADM variables GROUP ML_BSSN_convertToADMBaseGroup: Calculate ADM variables ML_BSSN::ML_BSSN_convertToADMBase: ML_BSSN_convertToADMBase ML_BSSN::ML_BSSN_convertToADMBaseDtLapseShift: ML_BSSN_convertToADMBaseDtLapseShift ML_BSSN::ML_BSSN_convertToADMBaseDtLapseShiftBoundary: ML_BSSN_convertToADMBaseDtLapseShiftBoundary ML_BSSN_Helper::ML_BSSN_SelectBCsADMBase: [level] Select boundary conditions for ADMBase variables GROUP ML_BSSN_ApplyBCsADMBase: Apply boundary conditions to ADMBase variables GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ADMBase_SetADMVars: Set the ADM variables before this group, and use them afterwards GROUP MoL_OldBdry_Wrap: Wrapper group, do not schedule directly into this group MoL::MoL_OldBdry_SetDt: [level] Store and change dt GROUP MoL_OldStyleBoundaries: Place old style boundary routines here MoL::MoL_OldBdry_ResetDt: [level] Reset dt WeylScal4::WeylScal4_SelectBoundConds: [level] select boundary conditions GROUP WeylScal4_ApplyBCs: Apply boundary conditions controlled by thorn Boundary GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP MoL_PseudoEvolution: Calculate pseudo-evolved quantities GROUP ADMBase_SetADMVars: Set the ADM variables before this group, and use them afterwards GROUP ML_ADMConstraints_group: ML_ADMConstraints ML_ADMConstraints::ML_ADMConstraints: ML_ADMConstraints GROUP ML_ADMConstraints_bc_group: ML_ADMConstraints ML_ADMConstraints::ML_ADMConstraints_SelectBCs: [level] ML_ADMConstraints_SelectBCs GROUP ML_ADMConstraints_ApplyBCs: Apply BCs for groups set in ML_ADMConstraints GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions ML_ADMConstraints::ML_ADMConstraints_SelectBoundConds: [level] select boundary conditions GROUP ML_ADMConstraints_ApplyBCs: Apply boundary conditions controlled by thorn Boundary GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ML_BSSN_constraints1_group: ML_BSSN_constraints1 ML_BSSN::ML_BSSN_constraints1: ML_BSSN_constraints1 GROUP ML_BSSN_constraints1_bc_group: ML_BSSN_constraints1 ML_BSSN::ML_BSSN_constraints1_SelectBCs: [level] ML_BSSN_constraints1_SelectBCs GROUP ML_BSSN_constraints1_ApplyBCs: Apply BCs for groups set in ML_BSSN_constraints1 GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP ML_BSSN_constraints2_group: ML_BSSN_constraints2 ML_BSSN::ML_BSSN_constraints2: ML_BSSN_constraints2 GROUP ML_BSSN_constraints2_bc_group: ML_BSSN_constraints2 ML_BSSN::ML_BSSN_constraints2_SelectBCs: [level] ML_BSSN_constraints2_SelectBCs GROUP ML_BSSN_constraints2_ApplyBCs: Apply BCs for groups set in ML_BSSN_constraints2 GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions GROUP psis_calc_4th_group: psis_calc_4th WeylScal4::psis_calc_4th: psis_calc_4th GROUP psis_calc_4th_bc_group: psis_calc_4th WeylScal4::psis_calc_4th_SelectBCs: [level] psis_calc_4th_SelectBCs GROUP psis_calc_4th_ApplyBCs: Apply BCs for groups set in psis_calc_4th GROUP BoundaryConditions: Execute all boundary conditions Boundary::Boundary_ApplyPhysicalBCs: Apply all requested local physical boundary conditions CartGrid3D::CartGrid3D_ApplyBC: Apply symmetry boundary conditions ReflectionSymmetry::ReflectionSymmetry_Apply: Apply reflection symmetries RotatingSymmetry180::Rot180_ApplyBC: Apply 180 degree rotational symmetry boundary condition Boundary::Boundary_ClearSelection: [level] Unselect all grid variables for boundary conditions -------------------------------------------------------------------------------- INFO (Carpet): Multi-Model listing: model 0: "world" INFO (Carpet): Multi-Model processor distribution: processors 0-1: model 0 "world" INFO (Carpet): Multi-Model: This is processor 0, model 0 "world" INFO (Formaline): Configuration id: config-etk-hedges.belmont.edu-home-shawley-Cactus INFO (Formaline): Build id: build-etk-hedges.belmont.edu-shawley-2011.08.05-21.33.22-29655 INFO (Formaline): Simulation id: run-qc0-mclachlan-hedges.belmont.edu-shawley-2011.08.05-22.28.17-31003 INFO (Formaline): Run id: run-qc0-mclachlan-hedges.belmont.edu-shawley-2011.08.05-22.28.17-31003 -------------------------------------------------------------------------------- AMR driver provided by Carpet -------------------------------------------------------------------------------- AMR info I/O provided by CarpetIOBasic -------------------------------------------------------------------------------- AMR HDF5 I/O provided by CarpetIOHDF5 -------------------------------------------------------------------------------- AMR 0D HDF5 I/O provided by CarpetIOHDF5 -------------------------------------------------------------------------------- AMR 1D HDF5 I/O provided by CarpetIOHDF5 -------------------------------------------------------------------------------- AMR 2D HDF5 I/O provided by CarpetIOHDF5 -------------------------------------------------------------------------------- AMR scalar I/O provided by CarpetIOScalar -------------------------------------------------------------------------------- AMR 0D ASCII I/O provided by CarpetIOASCII -------------------------------------------------------------------------------- AMR 1D ASCII I/O provided by CarpetIOASCII -------------------------------------------------------------------------------- AMR 2D ASCII I/O provided by CarpetIOASCII -------------------------------------------------------------------------------- AMR 3D ASCII I/O provided by CarpetIOASCII -------------------------------------------------------------------------------- ML_ADMConstraints -------------------------------------------------------------------------------- ML_BSSN -------------------------------------------------------------------------------- MoL: Generalized time integration. -------------------------------------------------------------------------------- WeylScal4 -------------------------------------------------------------------------------- Current core file size limit: hard=[unlimited], soft=0 MB Current memory size limit: hard=[unlimited], soft=[unlimited] INFO (Carpet): Carpet is running on 2 processes INFO (Carpet): This is process 0 INFO (Carpet): This process contains 1 threads INFO (Carpet): There are 2 threads in total INFO (Carpet): Boundary specification for map 0: nboundaryzones: [[3,3,3],[3,3,3]] is_internal : [[0,0,0],[0,0,0]] is_staggered : [[0,0,0],[0,0,0]] shiftout : [[1,0,1],[0,0,0]] INFO (Carpet): CoordBase domain specification for map 0: physical extent: [0,-120,0] : [120,120,120] ([120,240,120]) interior extent: [0,-118,0] : [118,118,118] ([118,236,118]) exterior extent: [-6,-124,-6] : [124,124,124] ([130,248,130]) base_spacing : [2,2,2] INFO (Carpet): Adapted domain specification for map 0: convergence factor: 2 convergence level : 0 physical extent : [0,-120,0] : [120,120,120] ([120,240,120]) interior extent : [0,-118,0] : [118,118,118] ([118,236,118]) exterior extent : [-6,-124,-6] : [124,124,124] ([130,248,130]) spacing : [2,2,2] INFO (Carpet): Base grid specification for map 0: number of grid points : [66,125,66] number of ghost points: [[3,3,3],[3,3,3]] INFO (Carpet): Grid structure (grid points): [0][0][0][0] exterior: proc 0 [0,0,0] : [65,62,65] ([66,63,66]) 274428 [0][0][0][1] exterior: proc 1 [0,63,0] : [65,124,65] ([66,62,66]) 270072 INFO (Carpet): Group and variable statistics: INFO (Carpet): There are 356 grid functions in 56 groups INFO (Carpet): There are 994 grid scalars in 61 groups INFO (Carpet): There are 23 1-dimensional grid arrays in 4 groups INFO (Carpet): There are 415 2-dimensional grid arrays in 17 groups INFO (Carpet): There are 6 3-dimensional grid arrays in 1 groups INFO (Carpet): (The number of variables counts all time levels) INFO (CarpetIOHDF5): I/O Method 'IOHDF5' registered: AMR output of grid variables to HDF5 files INFO (CarpetIOHDF5): Periodic HDF5 output requested for 'WEYLSCAL4::Psi4r', 'WEYLSCAL4::Psi4i', 'ML_ADMCONSTRAINTS::M3', 'ML_ADMCONSTRAINTS::M2', 'ML_ADMCONSTRAINTS::M1', 'ML_ADMCONSTRAINTS::H', 'CARPETREDUCE::weight', 'ADMBASE::dtbetaz', 'ADMBASE::dtbetay', 'ADMBASE::dtbetax', 'ADMBASE::dtalp', 'ADMBASE::betaz', 'ADMBASE::betay', 'ADMBASE::betax', 'ADMBASE::alp', 'ADMBASE::kzz', 'ADMBASE::kyz', 'ADMBASE::kyy', 'ADMBASE::kxz', 'ADMBASE::kxy', 'ADMBASE::kxx', 'ADMBASE::gzz', 'ADMBASE::gyz', 'ADMBASE::gyy', 'ADMBASE::gxz', 'ADMBASE::gxy', 'ADMBASE::gxx' INFO (CarpetIOHDF5): I/O Method 'IOHDF5_0D' registered: 0D AMR output of grid variables to HDF5 files INFO (CarpetIOHDF5): I/O Method 'IOHDF5_1D' registered: 1D AMR output of grid variables to HDF5 files INFO (CarpetIOHDF5): I/O Method 'IOHDF5_2D' registered: 2D AMR output of grid variables to HDF5 files INFO (CarpetIOScalar): Periodic scalar output requested for 'WEYLSCAL4::Psi4r', 'WEYLSCAL4::Psi4i', 'SPHERICALSURFACE::sf_radius[5]', 'SPHERICALSURFACE::sf_radius[4]', 'SPHERICALSURFACE::sf_radius[3]', 'SPHERICALSURFACE::sf_radius[2]', 'SPHERICALSURFACE::sf_radius[1]', 'SPHERICALSURFACE::sf_radius[0]', 'QUASILOCALMEASURES::qlm_3det[5]', 'QUASILOCALMEASURES::qlm_3det[4]', 'QUASILOCALMEASURES::qlm_3det[3]', 'QUASILOCALMEASURES::qlm_3det[2]', 'QUASILOCALMEASURES::qlm_3det[1]', 'QUASILOCALMEASURES::qlm_3det[0]', 'QUASILOCALMEASURES::qlm_inv_z[5]', 'QUASILOCALMEASURES::qlm_inv_z[4]', 'QUASILOCALMEASURES::qlm_inv_z[3]', 'QUASILOCALMEASURES::qlm_inv_z[2]', 'QUASILOCALMEASURES::qlm_inv_z[1]', 'QUASILOCALMEASURES::qlm_inv_z[0]', 'QUASILOCALMEASURES::qlm_lqpp[5]', 'QUASILOCALMEASURES::qlm_lqpp[4]', 'QUASILOCALMEASURES::qlm_lqpp[3]', 'QUASILOCALMEASURES::qlm_lqpp[2]', 'QUASILOCALMEASURES::qlm_lqpp[1]', 'QUASILOCALMEASURES::qlm_lqpp[0]', 'QUASILOCALMEASURES::qlm_lqtp[5]', 'QUASILOCALMEASURES::qlm_lqtp[4]', 'QUASILOCALMEASURES::qlm_lqtp[3]', 'QUASILOCALMEASURES::qlm_lqtp[2]', 'QUASILOCALMEASURES::qlm_lqtp[1]', 'QUASILOCALMEASURES::qlm_lqtp[0]', 'QUASILOCALMEASURES::qlm_lqtt[5]', 'QUASILOCALMEASURES::qlm_lqtt[4]', 'QUASILOCALMEASURES::qlm_lqtt[3]', 'QUASILOCALMEASURES::qlm_lqtt[2]', 'QUASILOCALMEASURES::qlm_lqtt[1]', 'QUASILOCALMEASURES::qlm_lqtt[0]', 'QUASILOCALMEASURES::qlm_chi[5]', 'QUASILOCALMEASURES::qlm_chi[4]', 'QUASILOCALMEASURES::qlm_chi[3]', 'QUASILOCALMEASURES::qlm_chi[2]', 'QUASILOCALMEASURES::qlm_chi[1]', 'QUASILOCALMEASURES::qlm_chi[0]', 'QUASILOCALMEASURES::qlm_xi_p[5]', 'QUASILOCALMEASURES::qlm_xi_p[4]', 'QUASILOCALMEASURES::qlm_xi_p[3]', 'QUASILOCALMEASURES::qlm_xi_p[2]', 'QUASILOCALMEASURES::qlm_xi_p[1]', 'QUASILOCALMEASURES::qlm_xi_p[0]', 'QUASILOCALMEASURES::qlm_xi_t[5]', 'QUASILOCALMEASURES::qlm_xi_t[4]', 'QUASILOCALMEASURES::qlm_xi_t[3]', 'QUASILOCALMEASURES::qlm_xi_t[2]', 'QUASILOCALMEASURES::qlm_xi_t[1]', 'QUASILOCALMEASURES::qlm_xi_t[0]', 'QUASILOCALMEASURES::qlm_rsc[5]', 'QUASILOCALMEASURES::qlm_rsc[4]', 'QUASILOCALMEASURES::qlm_rsc[3]', 'QUASILOCALMEASURES::qlm_rsc[2]', 'QUASILOCALMEASURES::qlm_rsc[1]', 'QUASILOCALMEASURES::qlm_rsc[0]', 'QUASILOCALMEASURES::qlm_qpp[5]', 'QUASILOCALMEASURES::qlm_qpp[4]', 'QUASILOCALMEASURES::qlm_qpp[3]', 'QUASILOCALMEASURES::qlm_qpp[2]', 'QUASILOCALMEASURES::qlm_qpp[1]', 'QUASILOCALMEASURES::qlm_qpp[0]', 'QUASILOCALMEASURES::qlm_qtp[5]', 'QUASILOCALMEASURES::qlm_qtp[4]', 'QUASILOCALMEASURES::qlm_qtp[3]', 'QUASILOCALMEASURES::qlm_qtp[2]', 'QUASILOCALMEASURES::qlm_qtp[1]', 'QUASILOCALMEASURES::qlm_qtp[0]', 'QUASILOCALMEASURES::qlm_qtt[5]', 'QUASILOCALMEASURES::qlm_qtt[4]', 'QUASILOCALMEASURES::qlm_qtt[3]', 'QUASILOCALMEASURES::qlm_qtt[2]', 'QUASILOCALMEASURES::qlm_qtt[1]', 'QUASILOCALMEASURES::qlm_qtt[0]', 'QUASILOCALMEASURES::qlm_lie_n_theta_l[5]', 'QUASILOCALMEASURES::qlm_lie_n_theta_l[4]', 'QUASILOCALMEASURES::qlm_lie_n_theta_l[3]', 'QUASILOCALMEASURES::qlm_lie_n_theta_l[2]', 'QUASILOCALMEASURES::qlm_lie_n_theta_l[1]', 'QUASILOCALMEASURES::qlm_lie_n_theta_l[0]', 'QUASILOCALMEASURES::qlm_lambda[5]', 'QUASILOCALMEASURES::qlm_lambda[4]', 'QUASILOCALMEASURES::qlm_lambda[3]', 'QUASILOCALMEASURES::qlm_lambda[2]', 'QUASILOCALMEASURES::qlm_lambda[1]', 'QUASILOCALMEASURES::qlm_lambda[0]', 'QUASILOCALMEASURES::qlm_phi20[5]', 'QUASILOCALMEASURES::qlm_phi20[4]', 'QUASILOCALMEASURES::qlm_phi20[3]', 'QUASILOCALMEASURES::qlm_phi20[2]', 'QUASILOCALMEASURES::qlm_phi20[1]', 'QUASILOCALMEASURES::qlm_phi20[0]', 'QUASILOCALMEASURES::qlm_phi22[5]', 'QUASILOCALMEASURES::qlm_phi22[4]', 'QUASILOCALMEASURES::qlm_phi22[3]', 'QUASILOCALMEASURES::qlm_phi22[2]', 'QUASILOCALMEASURES::qlm_phi22[1]', 'QUASILOCALMEASURES::qlm_phi22[0]', 'QUASILOCALMEASURES::qlm_phi02[5]', 'QUASILOCALMEASURES::qlm_phi02[4]', 'QUASILOCALMEASURES::qlm_phi02[3]', 'QUASILOCALMEASURES::qlm_phi02[2]', 'QUASILOCALMEASURES::qlm_phi02[1]', 'QUASILOCALMEASURES::qlm_phi02[0]', 'QUASILOCALMEASURES::qlm_phi21[5]', 'QUASILOCALMEASURES::qlm_phi21[4]', 'QUASILOCALMEASURES::qlm_phi21[3]', 'QUASILOCALMEASURES::qlm_phi21[2]', 'QUASILOCALMEASURES::qlm_phi21[1]', 'QUASILOCALMEASURES::qlm_phi21[0]', 'QUASILOCALMEASURES::qlm_phi10[5]', 'QUASILOCALMEASURES::qlm_phi10[4]', 'QUASILOCALMEASURES::qlm_phi10[3]', 'QUASILOCALMEASURES::qlm_phi10[2]', 'QUASILOCALMEASURES::qlm_phi10[1]', 'QUASILOCALMEASURES::qlm_phi10[0]', 'QUASILOCALMEASURES::qlm_phi12[5]', 'QUASILOCALMEASURES::qlm_phi12[4]', 'QUASILOCALMEASURES::qlm_phi12[3]', 'QUASILOCALMEASURES::qlm_phi12[2]', 'QUASILOCALMEASURES::qlm_phi12[1]', 'QUASILOCALMEASURES::qlm_phi12[0]', 'QUASILOCALMEASURES::qlm_phi01[5]', 'QUASILOCALMEASURES::qlm_phi01[4]', 'QUASILOCALMEASURES::qlm_phi01[3]', 'QUASILOCALMEASURES::qlm_phi01[2]', 'QUASILOCALMEASURES::qlm_phi01[1]', 'QUASILOCALMEASURES::qlm_phi01[0]', 'QUASILOCALMEASURES::qlm_phi11[5]', 'QUASILOCALMEASURES::qlm_phi11[4]', 'QUASILOCALMEASURES::qlm_phi11[3]', 'QUASILOCALMEASURES::qlm_phi11[2]', 'QUASILOCALMEASURES::qlm_phi11[1]', 'QUASILOCALMEASURES::qlm_phi11[0]', 'QUASILOCALMEASURES::qlm_phi00[5]', 'QUASILOCALMEASURES::qlm_phi00[4]', 'QUASILOCALMEASURES::qlm_phi00[3]', 'QUASILOCALMEASURES::qlm_phi00[2]', 'QUASILOCALMEASURES::qlm_phi00[1]', 'QUASILOCALMEASURES::qlm_phi00[0]', 'QUASILOCALMEASURES::qlm_sdiff[5]', 'QUASILOCALMEASURES::qlm_sdiff[4]', 'QUASILOCALMEASURES::qlm_sdiff[3]', 'QUASILOCALMEASURES::qlm_sdiff[2]', 'QUASILOCALMEASURES::qlm_sdiff[1]', 'QUASILOCALMEASURES::qlm_sdiff[0]', 'QUASILOCALMEASURES::qlm_s[5]', 'QUASILOCALMEASURES::qlm_s[4]', 'QUASILOCALMEASURES::qlm_s[3]', 'QUASILOCALMEASURES::qlm_s[2]', 'QUASILOCALMEASURES::qlm_s[1]', 'QUASILOCALMEASURES::qlm_s[0]', 'QUASILOCALMEASURES::qlm_j[5]', 'QUASILOCALMEASURES::qlm_j[4]', 'QUASILOCALMEASURES::qlm_j[3]', 'QUASILOCALMEASURES::qlm_j[2]', 'QUASILOCALMEASURES::qlm_j[1]', 'QUASILOCALMEASURES::qlm_j[0]', 'QUASILOCALMEASURES::qlm_i[5]', 'QUASILOCALMEASURES::qlm_i[4]', 'QUASILOCALMEASURES::qlm_i[3]', 'QUASILOCALMEASURES::qlm_i[2]', 'QUASILOCALMEASURES::qlm_i[1]', 'QUASILOCALMEASURES::qlm_i[0]', 'QUASILOCALMEASURES::qlm_psi4[5]', 'QUASILOCALMEASURES::qlm_psi4[4]', 'QUASILOCALMEASURES::qlm_psi4[3]', 'QUASILOCALMEASURES::qlm_psi4[2]', 'QUASILOCALMEASURES::qlm_psi4[1]', 'QUASILOCALMEASURES::qlm_psi4[0]', 'QUASILOCALMEASURES::qlm_psi3[5]', 'QUASILOCALMEASURES::qlm_psi3[4]', 'QUASILOCALMEASURES::qlm_psi3[3]', 'QUASILOCALMEASURES::qlm_psi3[2]', 'QUASILOCALMEASURES::qlm_psi3[1]', 'QUASILOCALMEASURES::qlm_psi3[0]', 'QUASILOCALMEASURES::qlm_psi2[5]', 'QUASILOCALMEASURES::qlm_psi2[4]', 'QUASILOCALMEASURES::qlm_psi2[3]', 'QUASILOCALMEASURES::qlm_psi2[2]', 'QUASILOCALMEASURES::qlm_psi2[1]', 'QUASILOCALMEASURES::qlm_psi2[0]', 'QUASILOCALMEASURES::qlm_psi1[5]', 'QUASILOCALMEASURES::qlm_psi1[4]', 'QUASILOCALMEASURES::qlm_psi1[3]', 'QUASILOCALMEASURES::qlm_psi1[2]', 'QUASILOCALMEASURES::qlm_psi1[1]', 'QUASILOCALMEASURES::qlm_psi1[0]', 'QUASILOCALMEASURES::qlm_psi0[5]', 'QUASILOCALMEASURES::qlm_psi0[4]', 'QUASILOCALMEASURES::qlm_psi0[3]', 'QUASILOCALMEASURES::qlm_psi0[2]', 'QUASILOCALMEASURES::qlm_psi0[1]', 'QUASILOCALMEASURES::qlm_psi0[0]', 'QUASILOCALMEASURES::qlm_nplambda[5]', 'QUASILOCALMEASURES::qlm_nplambda[4]', 'QUASILOCALMEASURES::qlm_nplambda[3]', 'QUASILOCALMEASURES::qlm_nplambda[2]', 'QUASILOCALMEASURES::qlm_nplambda[1]', 'QUASILOCALMEASURES::qlm_nplambda[0]', 'QUASILOCALMEASURES::qlm_npmu[5]', 'QUASILOCALMEASURES::qlm_npmu[4]', 'QUASILOCALMEASURES::qlm_npmu[3]', 'QUASILOCALMEASURES::qlm_npmu[2]', 'QUASILOCALMEASURES::qlm_npmu[1]', 'QUASILOCALMEASURES::qlm_npmu[0]', 'QUASILOCALMEASURES::qlm_npnu[5]', 'QUASILOCALMEASURES::qlm_npnu[4]', 'QUASILOCALMEASURES::qlm_npnu[3]', 'QUASILOCALMEASURES::qlm_npnu[2]', 'QUASILOCALMEASURES::qlm_npnu[1]', 'QUASILOCALMEASURES::qlm_npnu[0]', 'QUASILOCALMEASURES::qlm_nppi[5]', 'QUASILOCALMEASURES::qlm_nppi[4]', 'QUASILOCALMEASURES::qlm_nppi[3]', 'QUASILOCALMEASURES::qlm_nppi[2]', 'QUASILOCALMEASURES::qlm_nppi[1]', 'QUASILOCALMEASURES::qlm_nppi[0]', 'QUASILOCALMEASURES::qlm_npalpha[5]', 'QUASILOCALMEASURES::qlm_npalpha[4]', 'QUASILOCALMEASURES::qlm_npalpha[3]', 'QUASILOCALMEASURES::qlm_npalpha[2]', 'QUASILOCALMEASURES::qlm_npalpha[1]', 'QUASILOCALMEASURES::qlm_npalpha[0]', 'QUASILOCALMEASURES::qlm_npbeta[5]', 'QUASILOCALMEASURES::qlm_npbeta[4]', 'QUASILOCALMEASURES::qlm_npbeta[3]', 'QUASILOCALMEASURES::qlm_npbeta[2]', 'QUASILOCALMEASURES::qlm_npbeta[1]', 'QUASILOCALMEASURES::qlm_npbeta[0]', 'QUASILOCALMEASURES::qlm_npgamma[5]', 'QUASILOCALMEASURES::qlm_npgamma[4]', 'QUASILOCALMEASURES::qlm_npgamma[3]', 'QUASILOCALMEASURES::qlm_npgamma[2]', 'QUASILOCALMEASURES::qlm_npgamma[1]', 'QUASILOCALMEASURES::qlm_npgamma[0]', 'QUASILOCALMEASURES::qlm_npepsilon[5]', 'QUASILOCALMEASURES::qlm_npepsilon[4]', 'QUASILOCALMEASURES::qlm_npepsilon[3]', 'QUASILOCALMEASURES::qlm_npepsilon[2]', 'QUASILOCALMEASURES::qlm_npepsilon[1]', 'QUASILOCALMEASURES::qlm_npepsilon[0]', 'QUASILOCALMEASURES::qlm_nprho[5]', 'QUASILOCALMEASURES::qlm_nprho[4]', 'QUASILOCALMEASURES::qlm_nprho[3]', 'QUASILOCALMEASURES::qlm_nprho[2]', 'QUASILOCALMEASURES::qlm_nprho[1]', 'QUASILOCALMEASURES::qlm_nprho[0]', 'QUASILOCALMEASURES::qlm_npsigma[5]', 'QUASILOCALMEASURES::qlm_npsigma[4]', 'QUASILOCALMEASURES::qlm_npsigma[3]', 'QUASILOCALMEASURES::qlm_npsigma[2]', 'QUASILOCALMEASURES::qlm_npsigma[1]', 'QUASILOCALMEASURES::qlm_npsigma[0]', 'QUASILOCALMEASURES::qlm_nptau[5]', 'QUASILOCALMEASURES::qlm_nptau[4]', 'QUASILOCALMEASURES::qlm_nptau[3]', 'QUASILOCALMEASURES::qlm_nptau[2]', 'QUASILOCALMEASURES::qlm_nptau[1]', 'QUASILOCALMEASURES::qlm_nptau[0]', 'QUASILOCALMEASURES::qlm_npkappa[5]', 'QUASILOCALMEASURES::qlm_npkappa[4]', 'QUASILOCALMEASURES::qlm_npkappa[3]', 'QUASILOCALMEASURES::qlm_npkappa[2]', 'QUASILOCALMEASURES::qlm_npkappa[1]', 'QUASILOCALMEASURES::qlm_npkappa[0]', 'ML_ADMCONSTRAINTS::M3', 'ML_ADMCONSTRAINTS::M2', 'ML_ADMCONSTRAINTS::M1', 'ML_ADMCONSTRAINTS::H', 'CARPETREDUCE::weight', 'ADMBASE::dtbetaz', 'ADMBASE::dtbetay', 'ADMBASE::dtbetax', 'ADMBASE::dtalp', 'ADMBASE::betaz', 'ADMBASE::betay', 'ADMBASE::betax', 'ADMBASE::alp', 'ADMBASE::kzz', 'ADMBASE::kyz', 'ADMBASE::kyy', 'ADMBASE::kxz', 'ADMBASE::kxy', 'ADMBASE::kxx', 'ADMBASE::gzz', 'ADMBASE::gyz', 'ADMBASE::gyy', 'ADMBASE::gxz', 'ADMBASE::gxy', 'ADMBASE::gxx' INFO (CarpetIOASCII): I/O Method 'IOASCII_0D' registered: 0D AMR output of grid variables to ASCII files INFO (CarpetIOASCII): Periodic 0D AMR output requested for: ADMBASE::gxx ADMBASE::gxy ADMBASE::gxz ADMBASE::gyy ADMBASE::gyz ADMBASE::gzz ADMBASE::kxx ADMBASE::kxy ADMBASE::kxz ADMBASE::kyy ADMBASE::kyz ADMBASE::kzz ADMBASE::alp ADMBASE::betax ADMBASE::betay ADMBASE::betaz ADMBASE::dtalp ADMBASE::dtbetax ADMBASE::dtbetay ADMBASE::dtbetaz CARPET::physical_time_per_hour CARPET::time_total CARPET::time_computing CARPET::time_communicating CARPET::time_io CARPET::local_grid_points_per_second CARPET::total_grid_points_per_second CARPET::local_grid_point_updates_count CARPET::total_grid_point_updates_count CARPET::io_per_second CARPET::io_bytes_per_second CARPET::io_bytes_ascii_per_second CARPET::io_bytes_binary_per_second CARPET::io_count CARPET::io_bytes_count CARPET::io_bytes_ascii_count CARPET::io_bytes_binary_count CARPET::comm_per_second CARPET::comm_bytes_per_second CARPET::comm_count CARPET::comm_bytes_count CARPETREDUCE::weight ML_ADMCONSTRAINTS::H ML_ADMCONSTRAINTS::M1 ML_ADMCONSTRAINTS::M2 ML_ADMCONSTRAINTS::M3 QUASILOCALMEASURES::qlm_calc_error[0] QUASILOCALMEASURES::qlm_calc_error[1] QUASILOCALMEASURES::qlm_calc_error[2] QUASILOCALMEASURES::qlm_calc_error[3] QUASILOCALMEASURES::qlm_calc_error[4] QUASILOCALMEASURES::qlm_calc_error[5] QUASILOCALMEASURES::qlm_have_valid_data[0] QUASILOCALMEASURES::qlm_have_valid_data[1] QUASILOCALMEASURES::qlm_have_valid_data[2] QUASILOCALMEASURES::qlm_have_valid_data[3] QUASILOCALMEASURES::qlm_have_valid_data[4] QUASILOCALMEASURES::qlm_have_valid_data[5] QUASILOCALMEASURES::qlm_have_killing_vector[0] QUASILOCALMEASURES::qlm_have_killing_vector[1] QUASILOCALMEASURES::qlm_have_killing_vector[2] QUASILOCALMEASURES::qlm_have_killing_vector[3] QUASILOCALMEASURES::qlm_have_killing_vector[4] QUASILOCALMEASURES::qlm_have_killing_vector[5] QUASILOCALMEASURES::qlm_timederiv_order[0] QUASILOCALMEASURES::qlm_timederiv_order[1] QUASILOCALMEASURES::qlm_timederiv_order[2] QUASILOCALMEASURES::qlm_timederiv_order[3] QUASILOCALMEASURES::qlm_timederiv_order[4] QUASILOCALMEASURES::qlm_timederiv_order[5] QUASILOCALMEASURES::qlm_iteration[0] QUASILOCALMEASURES::qlm_iteration[1] QUASILOCALMEASURES::qlm_iteration[2] QUASILOCALMEASURES::qlm_iteration[3] QUASILOCALMEASURES::qlm_iteration[4] QUASILOCALMEASURES::qlm_iteration[5] QUASILOCALMEASURES::qlm_nghoststheta[0] QUASILOCALMEASURES::qlm_nghoststheta[1] QUASILOCALMEASURES::qlm_nghoststheta[2] QUASILOCALMEASURES::qlm_nghoststheta[3] QUASILOCALMEASURES::qlm_nghoststheta[4] QUASILOCALMEASURES::qlm_nghoststheta[5] QUASILOCALMEASURES::qlm_nghostsphi[0] QUASILOCALMEASURES::qlm_nghostsphi[1] QUASILOCALMEASURES::qlm_nghostsphi[2] QUASILOCALMEASURES::qlm_nghostsphi[3] QUASILOCALMEASURES::qlm_nghostsphi[4] QUASILOCALMEASURES::qlm_nghostsphi[5] QUASILOCALMEASURES::qlm_ntheta[0] QUASILOCALMEASURES::qlm_ntheta[1] QUASILOCALMEASURES::qlm_ntheta[2] QUASILOCALMEASURES::qlm_ntheta[3] QUASILOCALMEASURES::qlm_ntheta[4] QUASILOCALMEASURES::qlm_ntheta[5] QUASILOCALMEASURES::qlm_nphi[0] QUASILOCALMEASURES::qlm_nphi[1] QUASILOCALMEASURES::qlm_nphi[2] QUASILOCALMEASURES::qlm_nphi[3] QUASILOCALMEASURES::qlm_nphi[4] QUASILOCALMEASURES::qlm_nphi[5] QUASILOCALMEASURES::qlm_origin_x[0] QUASILOCALMEASURES::qlm_origin_x[1] QUASILOCALMEASURES::qlm_origin_x[2] QUASILOCALMEASURES::qlm_origin_x[3] QUASILOCALMEASURES::qlm_origin_x[4] QUASILOCALMEASURES::qlm_origin_x[5] QUASILOCALMEASURES::qlm_origin_y[0] QUASILOCALMEASURES::qlm_origin_y[1] QUASILOCALMEASURES::qlm_origin_y[2] QUASILOCALMEASURES::qlm_origin_y[3] QUASILOCALMEASURES::qlm_origin_y[4] QUASILOCALMEASURES::qlm_origin_y[5] QUASILOCALMEASURES::qlm_origin_z[0] QUASILOCALMEASURES::qlm_origin_z[1] QUASILOCALMEASURES::qlm_origin_z[2] QUASILOCALMEASURES::qlm_origin_z[3] QUASILOCALMEASURES::qlm_origin_z[4] QUASILOCALMEASURES::qlm_origin_z[5] QUASILOCALMEASURES::qlm_origin_theta[0] QUASILOCALMEASURES::qlm_origin_theta[1] QUASILOCALMEASURES::qlm_origin_theta[2] QUASILOCALMEASURES::qlm_origin_theta[3] QUASILOCALMEASURES::qlm_origin_theta[4] QUASILOCALMEASURES::qlm_origin_theta[5] QUASILOCALMEASURES::qlm_origin_phi[0] QUASILOCALMEASURES::qlm_origin_phi[1] QUASILOCALMEASURES::qlm_origin_phi[2] QUASILOCALMEASURES::qlm_origin_phi[3] QUASILOCALMEASURES::qlm_origin_phi[4] QUASILOCALMEASURES::qlm_origin_phi[5] QUASILOCALMEASURES::qlm_delta_theta[0] QUASILOCALMEASURES::qlm_delta_theta[1] QUASILOCALMEASURES::qlm_delta_theta[2] QUASILOCALMEASURES::qlm_delta_theta[3] QUASILOCALMEASURES::qlm_delta_theta[4] QUASILOCALMEASURES::qlm_delta_theta[5] QUASILOCALMEASURES::qlm_delta_phi[0] QUASILOCALMEASURES::qlm_delta_phi[1] QUASILOCALMEASURES::qlm_delta_phi[2] QUASILOCALMEASURES::qlm_delta_phi[3] QUASILOCALMEASURES::qlm_delta_phi[4] QUASILOCALMEASURES::qlm_delta_phi[5] QUASILOCALMEASURES::qlm_mp_m0[0] QUASILOCALMEASURES::qlm_mp_m0[1] QUASILOCALMEASURES::qlm_mp_m0[2] QUASILOCALMEASURES::qlm_mp_m0[3] QUASILOCALMEASURES::qlm_mp_m0[4] QUASILOCALMEASURES::qlm_mp_m0[5] QUASILOCALMEASURES::qlm_mp_m1[0] QUASILOCALMEASURES::qlm_mp_m1[1] QUASILOCALMEASURES::qlm_mp_m1[2] QUASILOCALMEASURES::qlm_mp_m1[3] QUASILOCALMEASURES::qlm_mp_m1[4] QUASILOCALMEASURES::qlm_mp_m1[5] QUASILOCALMEASURES::qlm_mp_m2[0] QUASILOCALMEASURES::qlm_mp_m2[1] QUASILOCALMEASURES::qlm_mp_m2[2] QUASILOCALMEASURES::qlm_mp_m2[3] QUASILOCALMEASURES::qlm_mp_m2[4] QUASILOCALMEASURES::qlm_mp_m2[5] QUASILOCALMEASURES::qlm_mp_m3[0] QUASILOCALMEASURES::qlm_mp_m3[1] QUASILOCALMEASURES::qlm_mp_m3[2] QUASILOCALMEASURES::qlm_mp_m3[3] QUASILOCALMEASURES::qlm_mp_m3[4] QUASILOCALMEASURES::qlm_mp_m3[5] QUASILOCALMEASURES::qlm_mp_m4[0] QUASILOCALMEASURES::qlm_mp_m4[1] QUASILOCALMEASURES::qlm_mp_m4[2] QUASILOCALMEASURES::qlm_mp_m4[3] QUASILOCALMEASURES::qlm_mp_m4[4] QUASILOCALMEASURES::qlm_mp_m4[5] QUASILOCALMEASURES::qlm_mp_m5[0] QUASILOCALMEASURES::qlm_mp_m5[1] QUASILOCALMEASURES::qlm_mp_m5[2] QUASILOCALMEASURES::qlm_mp_m5[3] QUASILOCALMEASURES::qlm_mp_m5[4] QUASILOCALMEASURES::qlm_mp_m5[5] QUASILOCALMEASURES::qlm_mp_m6[0] QUASILOCALMEASURES::qlm_mp_m6[1] QUASILOCALMEASURES::qlm_mp_m6[2] QUASILOCALMEASURES::qlm_mp_m6[3] QUASILOCALMEASURES::qlm_mp_m6[4] QUASILOCALMEASURES::qlm_mp_m6[5] QUASILOCALMEASURES::qlm_mp_m7[0] QUASILOCALMEASURES::qlm_mp_m7[1] QUASILOCALMEASURES::qlm_mp_m7[2] QUASILOCALMEASURES::qlm_mp_m7[3] QUASILOCALMEASURES::qlm_mp_m7[4] QUASILOCALMEASURES::qlm_mp_m7[5] QUASILOCALMEASURES::qlm_mp_m8[0] QUASILOCALMEASURES::qlm_mp_m8[1] QUASILOCALMEASURES::qlm_mp_m8[2] QUASILOCALMEASURES::qlm_mp_m8[3] QUASILOCALMEASURES::qlm_mp_m8[4] QUASILOCALMEASURES::qlm_mp_m8[5] QUASILOCALMEASURES::qlm_mp_j0[0] QUASILOCALMEASURES::qlm_mp_j0[1] QUASILOCALMEASURES::qlm_mp_j0[2] QUASILOCALMEASURES::qlm_mp_j0[3] QUASILOCALMEASURES::qlm_mp_j0[4] QUASILOCALMEASURES::qlm_mp_j0[5] QUASILOCALMEASURES::qlm_mp_j1[0] QUASILOCALMEASURES::qlm_mp_j1[1] QUASILOCALMEASURES::qlm_mp_j1[2] QUASILOCALMEASURES::qlm_mp_j1[3] QUASILOCALMEASURES::qlm_mp_j1[4] QUASILOCALMEASURES::qlm_mp_j1[5] QUASILOCALMEASURES::qlm_mp_j2[0] QUASILOCALMEASURES::qlm_mp_j2[1] QUASILOCALMEASURES::qlm_mp_j2[2] QUASILOCALMEASURES::qlm_mp_j2[3] QUASILOCALMEASURES::qlm_mp_j2[4] QUASILOCALMEASURES::qlm_mp_j2[5] QUASILOCALMEASURES::qlm_mp_j3[0] QUASILOCALMEASURES::qlm_mp_j3[1] QUASILOCALMEASURES::qlm_mp_j3[2] QUASILOCALMEASURES::qlm_mp_j3[3] QUASILOCALMEASURES::qlm_mp_j3[4] QUASILOCALMEASURES::qlm_mp_j3[5] QUASILOCALMEASURES::qlm_mp_j4[0] QUASILOCALMEASURES::qlm_mp_j4[1] QUASILOCALMEASURES::qlm_mp_j4[2] QUASILOCALMEASURES::qlm_mp_j4[3] QUASILOCALMEASURES::qlm_mp_j4[4] QUASILOCALMEASURES::qlm_mp_j4[5] QUASILOCALMEASURES::qlm_mp_j5[0] QUASILOCALMEASURES::qlm_mp_j5[1] QUASILOCALMEASURES::qlm_mp_j5[2] QUASILOCALMEASURES::qlm_mp_j5[3] QUASILOCALMEASURES::qlm_mp_j5[4] QUASILOCALMEASURES::qlm_mp_j5[5] QUASILOCALMEASURES::qlm_mp_j6[0] QUASILOCALMEASURES::qlm_mp_j6[1] QUASILOCALMEASURES::qlm_mp_j6[2] QUASILOCALMEASURES::qlm_mp_j6[3] QUASILOCALMEASURES::qlm_mp_j6[4] QUASILOCALMEASURES::qlm_mp_j6[5] QUASILOCALMEASURES::qlm_mp_j7[0] QUASILOCALMEASURES::qlm_mp_j7[1] QUASILOCALMEASURES::qlm_mp_j7[2] QUASILOCALMEASURES::qlm_mp_j7[3] QUASILOCALMEASURES::qlm_mp_j7[4] QUASILOCALMEASURES::qlm_mp_j7[5] QUASILOCALMEASURES::qlm_mp_j8[0] QUASILOCALMEASURES::qlm_mp_j8[1] QUASILOCALMEASURES::qlm_mp_j8[2] QUASILOCALMEASURES::qlm_mp_j8[3] QUASILOCALMEASURES::qlm_mp_j8[4] QUASILOCALMEASURES::qlm_mp_j8[5] QUASILOCALMEASURES::qlm_time[0] QUASILOCALMEASURES::qlm_time[1] QUASILOCALMEASURES::qlm_time[2] QUASILOCALMEASURES::qlm_time[3] QUASILOCALMEASURES::qlm_time[4] QUASILOCALMEASURES::qlm_time[5] QUASILOCALMEASURES::qlm_equatorial_circumference[0] QUASILOCALMEASURES::qlm_equatorial_circumference[1] QUASILOCALMEASURES::qlm_equatorial_circumference[2] QUASILOCALMEASURES::qlm_equatorial_circumference[3] QUASILOCALMEASURES::qlm_equatorial_circumference[4] QUASILOCALMEASURES::qlm_equatorial_circumference[5] QUASILOCALMEASURES::qlm_polar_circumference_0[0] QUASILOCALMEASURES::qlm_polar_circumference_0[1] QUASILOCALMEASURES::qlm_polar_circumference_0[2] QUASILOCALMEASURES::qlm_polar_circumference_0[3] QUASILOCALMEASURES::qlm_polar_circumference_0[4] QUASILOCALMEASURES::qlm_polar_circumference_0[5] QUASILOCALMEASURES::qlm_polar_circumference_pi_2[0] QUASILOCALMEASURES::qlm_polar_circumference_pi_2[1] QUASILOCALMEASURES::qlm_polar_circumference_pi_2[2] QUASILOCALMEASURES::qlm_polar_circumference_pi_2[3] QUASILOCALMEASURES::qlm_polar_circumference_pi_2[4] QUASILOCALMEASURES::qlm_polar_circumference_pi_2[5] QUASILOCALMEASURES::qlm_area[0] QUASILOCALMEASURES::qlm_area[1] QUASILOCALMEASURES::qlm_area[2] QUASILOCALMEASURES::qlm_area[3] QUASILOCALMEASURES::qlm_area[4] QUASILOCALMEASURES::qlm_area[5] QUASILOCALMEASURES::qlm_irreducible_mass[0] QUASILOCALMEASURES::qlm_irreducible_mass[1] QUASILOCALMEASURES::qlm_irreducible_mass[2] QUASILOCALMEASURES::qlm_irreducible_mass[3] QUASILOCALMEASURES::qlm_irreducible_mass[4] QUASILOCALMEASURES::qlm_irreducible_mass[5] QUASILOCALMEASURES::qlm_radius[0] QUASILOCALMEASURES::qlm_radius[1] QUASILOCALMEASURES::qlm_radius[2] QUASILOCALMEASURES::qlm_radius[3] QUASILOCALMEASURES::qlm_radius[4] QUASILOCALMEASURES::qlm_radius[5] QUASILOCALMEASURES::qlm_spin_guess[0] QUASILOCALMEASURES::qlm_spin_guess[1] QUASILOCALMEASURES::qlm_spin_guess[2] QUASILOCALMEASURES::qlm_spin_guess[3] QUASILOCALMEASURES::qlm_spin_guess[4] QUASILOCALMEASURES::qlm_spin_guess[5] QUASILOCALMEASURES::qlm_mass_guess[0] QUASILOCALMEASURES::qlm_mass_guess[1] QUASILOCALMEASURES::qlm_mass_guess[2] QUASILOCALMEASURES::qlm_mass_guess[3] QUASILOCALMEASURES::qlm_mass_guess[4] QUASILOCALMEASURES::qlm_mass_guess[5] QUASILOCALMEASURES::qlm_killing_eigenvalue_re[0] QUASILOCALMEASURES::qlm_killing_eigenvalue_re[1] QUASILOCALMEASURES::qlm_killing_eigenvalue_re[2] QUASILOCALMEASURES::qlm_killing_eigenvalue_re[3] QUASILOCALMEASURES::qlm_killing_eigenvalue_re[4] QUASILOCALMEASURES::qlm_killing_eigenvalue_re[5] QUASILOCALMEASURES::qlm_killing_eigenvalue_im[0] QUASILOCALMEASURES::qlm_killing_eigenvalue_im[1] QUASILOCALMEASURES::qlm_killing_eigenvalue_im[2] QUASILOCALMEASURES::qlm_killing_eigenvalue_im[3] QUASILOCALMEASURES::qlm_killing_eigenvalue_im[4] QUASILOCALMEASURES::qlm_killing_eigenvalue_im[5] QUASILOCALMEASURES::qlm_spin[0] QUASILOCALMEASURES::qlm_spin[1] QUASILOCALMEASURES::qlm_spin[2] QUASILOCALMEASURES::qlm_spin[3] QUASILOCALMEASURES::qlm_spin[4] QUASILOCALMEASURES::qlm_spin[5] QUASILOCALMEASURES::qlm_npspin[0] QUASILOCALMEASURES::qlm_npspin[1] QUASILOCALMEASURES::qlm_npspin[2] QUASILOCALMEASURES::qlm_npspin[3] QUASILOCALMEASURES::qlm_npspin[4] QUASILOCALMEASURES::qlm_npspin[5] QUASILOCALMEASURES::qlm_wsspin[0] QUASILOCALMEASURES::qlm_wsspin[1] QUASILOCALMEASURES::qlm_wsspin[2] QUASILOCALMEASURES::qlm_wsspin[3] QUASILOCALMEASURES::qlm_wsspin[4] QUASILOCALMEASURES::qlm_wsspin[5] QUASILOCALMEASURES::qlm_cvspin[0] QUASILOCALMEASURES::qlm_cvspin[1] QUASILOCALMEASURES::qlm_cvspin[2] QUASILOCALMEASURES::qlm_cvspin[3] QUASILOCALMEASURES::qlm_cvspin[4] QUASILOCALMEASURES::qlm_cvspin[5] QUASILOCALMEASURES::qlm_coordspinx[0] QUASILOCALMEASURES::qlm_coordspinx[1] QUASILOCALMEASURES::qlm_coordspinx[2] QUASILOCALMEASURES::qlm_coordspinx[3] QUASILOCALMEASURES::qlm_coordspinx[4] QUASILOCALMEASURES::qlm_coordspinx[5] QUASILOCALMEASURES::qlm_coordspiny[0] QUASILOCALMEASURES::qlm_coordspiny[1] QUASILOCALMEASURES::qlm_coordspiny[2] QUASILOCALMEASURES::qlm_coordspiny[3] QUASILOCALMEASURES::qlm_coordspiny[4] QUASILOCALMEASURES::qlm_coordspiny[5] QUASILOCALMEASURES::qlm_coordspinz[0] QUASILOCALMEASURES::qlm_coordspinz[1] QUASILOCALMEASURES::qlm_coordspinz[2] QUASILOCALMEASURES::qlm_coordspinz[3] QUASILOCALMEASURES::qlm_coordspinz[4] QUASILOCALMEASURES::qlm_coordspinz[5] QUASILOCALMEASURES::qlm_mass[0] QUASILOCALMEASURES::qlm_mass[1] QUASILOCALMEASURES::qlm_mass[2] QUASILOCALMEASURES::qlm_mass[3] QUASILOCALMEASURES::qlm_mass[4] QUASILOCALMEASURES::qlm_mass[5] QUASILOCALMEASURES::qlm_adm_energy[0] QUASILOCALMEASURES::qlm_adm_energy[1] QUASILOCALMEASURES::qlm_adm_energy[2] QUASILOCALMEASURES::qlm_adm_energy[3] QUASILOCALMEASURES::qlm_adm_energy[4] QUASILOCALMEASURES::qlm_adm_energy[5] QUASILOCALMEASURES::qlm_adm_momentum_x[0] QUASILOCALMEASURES::qlm_adm_momentum_x[1] QUASILOCALMEASURES::qlm_adm_momentum_x[2] QUASILOCALMEASURES::qlm_adm_momentum_x[3] QUASILOCALMEASURES::qlm_adm_momentum_x[4] QUASILOCALMEASURES::qlm_adm_momentum_x[5] QUASILOCALMEASURES::qlm_adm_momentum_y[0] QUASILOCALMEASURES::qlm_adm_momentum_y[1] QUASILOCALMEASURES::qlm_adm_momentum_y[2] QUASILOCALMEASURES::qlm_adm_momentum_y[3] QUASILOCALMEASURES::qlm_adm_momentum_y[4] QUASILOCALMEASURES::qlm_adm_momentum_y[5] QUASILOCALMEASURES::qlm_adm_momentum_z[0] QUASILOCALMEASURES::qlm_adm_momentum_z[1] QUASILOCALMEASURES::qlm_adm_momentum_z[2] QUASILOCALMEASURES::qlm_adm_momentum_z[3] QUASILOCALMEASURES::qlm_adm_momentum_z[4] QUASILOCALMEASURES::qlm_adm_momentum_z[5] QUASILOCALMEASURES::qlm_adm_angular_momentum_x[0] QUASILOCALMEASURES::qlm_adm_angular_momentum_x[1] QUASILOCALMEASURES::qlm_adm_angular_momentum_x[2] QUASILOCALMEASURES::qlm_adm_angular_momentum_x[3] QUASILOCALMEASURES::qlm_adm_angular_momentum_x[4] QUASILOCALMEASURES::qlm_adm_angular_momentum_x[5] QUASILOCALMEASURES::qlm_adm_angular_momentum_y[0] QUASILOCALMEASURES::qlm_adm_angular_momentum_y[1] QUASILOCALMEASURES::qlm_adm_angular_momentum_y[2] QUASILOCALMEASURES::qlm_adm_angular_momentum_y[3] QUASILOCALMEASURES::qlm_adm_angular_momentum_y[4] QUASILOCALMEASURES::qlm_adm_angular_momentum_y[5] QUASILOCALMEASURES::qlm_adm_angular_momentum_z[0] QUASILOCALMEASURES::qlm_adm_angular_momentum_z[1] QUASILOCALMEASURES::qlm_adm_angular_momentum_z[2] QUASILOCALMEASURES::qlm_adm_angular_momentum_z[3] QUASILOCALMEASURES::qlm_adm_angular_momentum_z[4] QUASILOCALMEASURES::qlm_adm_angular_momentum_z[5] QUASILOCALMEASURES::qlm_ll_energy[0] QUASILOCALMEASURES::qlm_ll_energy[1] QUASILOCALMEASURES::qlm_ll_energy[2] QUASILOCALMEASURES::qlm_ll_energy[3] QUASILOCALMEASURES::qlm_ll_energy[4] QUASILOCALMEASURES::qlm_ll_energy[5] QUASILOCALMEASURES::qlm_ll_momentum_x[0] QUASILOCALMEASURES::qlm_ll_momentum_x[1] QUASILOCALMEASURES::qlm_ll_momentum_x[2] QUASILOCALMEASURES::qlm_ll_momentum_x[3] QUASILOCALMEASURES::qlm_ll_momentum_x[4] QUASILOCALMEASURES::qlm_ll_momentum_x[5] QUASILOCALMEASURES::qlm_ll_momentum_y[0] QUASILOCALMEASURES::qlm_ll_momentum_y[1] QUASILOCALMEASURES::qlm_ll_momentum_y[2] QUASILOCALMEASURES::qlm_ll_momentum_y[3] QUASILOCALMEASURES::qlm_ll_momentum_y[4] QUASILOCALMEASURES::qlm_ll_momentum_y[5] QUASILOCALMEASURES::qlm_ll_momentum_z[0] QUASILOCALMEASURES::qlm_ll_momentum_z[1] QUASILOCALMEASURES::qlm_ll_momentum_z[2] QUASILOCALMEASURES::qlm_ll_momentum_z[3] QUASILOCALMEASURES::qlm_ll_momentum_z[4] QUASILOCALMEASURES::qlm_ll_momentum_z[5] QUASILOCALMEASURES::qlm_ll_angular_momentum_x[0] QUASILOCALMEASURES::qlm_ll_angular_momentum_x[1] QUASILOCALMEASURES::qlm_ll_angular_momentum_x[2] QUASILOCALMEASURES::qlm_ll_angular_momentum_x[3] QUASILOCALMEASURES::qlm_ll_angular_momentum_x[4] QUASILOCALMEASURES::qlm_ll_angular_momentum_x[5] QUASILOCALMEASURES::qlm_ll_angular_momentum_y[0] QUASILOCALMEASURES::qlm_ll_angular_momentum_y[1] QUASILOCALMEASURES::qlm_ll_angular_momentum_y[2] QUASILOCALMEASURES::qlm_ll_angular_momentum_y[3] QUASILOCALMEASURES::qlm_ll_angular_momentum_y[4] QUASILOCALMEASURES::qlm_ll_angular_momentum_y[5] QUASILOCALMEASURES::qlm_ll_angular_momentum_z[0] QUASILOCALMEASURES::qlm_ll_angular_momentum_z[1] QUASILOCALMEASURES::qlm_ll_angular_momentum_z[2] QUASILOCALMEASURES::qlm_ll_angular_momentum_z[3] QUASILOCALMEASURES::qlm_ll_angular_momentum_z[4] QUASILOCALMEASURES::qlm_ll_angular_momentum_z[5] SPHERICALSURFACE::sf_active[0] SPHERICALSURFACE::sf_active[1] SPHERICALSURFACE::sf_active[2] SPHERICALSURFACE::sf_active[3] SPHERICALSURFACE::sf_active[4] SPHERICALSURFACE::sf_active[5] SPHERICALSURFACE::sf_valid[0] SPHERICALSURFACE::sf_valid[1] SPHERICALSURFACE::sf_valid[2] SPHERICALSURFACE::sf_valid[3] SPHERICALSURFACE::sf_valid[4] SPHERICALSURFACE::sf_valid[5] SPHERICALSURFACE::sf_area[0] SPHERICALSURFACE::sf_area[1] SPHERICALSURFACE::sf_area[2] SPHERICALSURFACE::sf_area[3] SPHERICALSURFACE::sf_area[4] SPHERICALSURFACE::sf_area[5] SPHERICALSURFACE::sf_mean_radius[0] SPHERICALSURFACE::sf_mean_radius[1] SPHERICALSURFACE::sf_mean_radius[2] SPHERICALSURFACE::sf_mean_radius[3] SPHERICALSURFACE::sf_mean_radius[4] SPHERICALSURFACE::sf_mean_radius[5] SPHERICALSURFACE::sf_centroid_x[0] SPHERICALSURFACE::sf_centroid_x[1] SPHERICALSURFACE::sf_centroid_x[2] SPHERICALSURFACE::sf_centroid_x[3] SPHERICALSURFACE::sf_centroid_x[4] SPHERICALSURFACE::sf_centroid_x[5] SPHERICALSURFACE::sf_centroid_y[0] SPHERICALSURFACE::sf_centroid_y[1] SPHERICALSURFACE::sf_centroid_y[2] SPHERICALSURFACE::sf_centroid_y[3] SPHERICALSURFACE::sf_centroid_y[4] SPHERICALSURFACE::sf_centroid_y[5] SPHERICALSURFACE::sf_centroid_z[0] SPHERICALSURFACE::sf_centroid_z[1] SPHERICALSURFACE::sf_centroid_z[2] SPHERICALSURFACE::sf_centroid_z[3] SPHERICALSURFACE::sf_centroid_z[4] SPHERICALSURFACE::sf_centroid_z[5] SPHERICALSURFACE::sf_quadrupole_xx[0] SPHERICALSURFACE::sf_quadrupole_xx[1] SPHERICALSURFACE::sf_quadrupole_xx[2] SPHERICALSURFACE::sf_quadrupole_xx[3] SPHERICALSURFACE::sf_quadrupole_xx[4] SPHERICALSURFACE::sf_quadrupole_xx[5] SPHERICALSURFACE::sf_quadrupole_xy[0] SPHERICALSURFACE::sf_quadrupole_xy[1] SPHERICALSURFACE::sf_quadrupole_xy[2] SPHERICALSURFACE::sf_quadrupole_xy[3] SPHERICALSURFACE::sf_quadrupole_xy[4] SPHERICALSURFACE::sf_quadrupole_xy[5] SPHERICALSURFACE::sf_quadrupole_xz[0] SPHERICALSURFACE::sf_quadrupole_xz[1] SPHERICALSURFACE::sf_quadrupole_xz[2] SPHERICALSURFACE::sf_quadrupole_xz[3] SPHERICALSURFACE::sf_quadrupole_xz[4] SPHERICALSURFACE::sf_quadrupole_xz[5] SPHERICALSURFACE::sf_quadrupole_yy[0] SPHERICALSURFACE::sf_quadrupole_yy[1] SPHERICALSURFACE::sf_quadrupole_yy[2] SPHERICALSURFACE::sf_quadrupole_yy[3] SPHERICALSURFACE::sf_quadrupole_yy[4] SPHERICALSURFACE::sf_quadrupole_yy[5] SPHERICALSURFACE::sf_quadrupole_yz[0] SPHERICALSURFACE::sf_quadrupole_yz[1] SPHERICALSURFACE::sf_quadrupole_yz[2] SPHERICALSURFACE::sf_quadrupole_yz[3] SPHERICALSURFACE::sf_quadrupole_yz[4] SPHERICALSURFACE::sf_quadrupole_yz[5] SPHERICALSURFACE::sf_quadrupole_zz[0] SPHERICALSURFACE::sf_quadrupole_zz[1] SPHERICALSURFACE::sf_quadrupole_zz[2] SPHERICALSURFACE::sf_quadrupole_zz[3] SPHERICALSURFACE::sf_quadrupole_zz[4] SPHERICALSURFACE::sf_quadrupole_zz[5] SPHERICALSURFACE::sf_min_radius[0] SPHERICALSURFACE::sf_min_radius[1] SPHERICALSURFACE::sf_min_radius[2] SPHERICALSURFACE::sf_min_radius[3] SPHERICALSURFACE::sf_min_radius[4] SPHERICALSURFACE::sf_min_radius[5] SPHERICALSURFACE::sf_max_radius[0] SPHERICALSURFACE::sf_max_radius[1] SPHERICALSURFACE::sf_max_radius[2] SPHERICALSURFACE::sf_max_radius[3] SPHERICALSURFACE::sf_max_radius[4] SPHERICALSURFACE::sf_max_radius[5] SPHERICALSURFACE::sf_min_x[0] SPHERICALSURFACE::sf_min_x[1] SPHERICALSURFACE::sf_min_x[2] SPHERICALSURFACE::sf_min_x[3] SPHERICALSURFACE::sf_min_x[4] SPHERICALSURFACE::sf_min_x[5] SPHERICALSURFACE::sf_min_y[0] SPHERICALSURFACE::sf_min_y[1] SPHERICALSURFACE::sf_min_y[2] SPHERICALSURFACE::sf_min_y[3] SPHERICALSURFACE::sf_min_y[4] SPHERICALSURFACE::sf_min_y[5] SPHERICALSURFACE::sf_min_z[0] SPHERICALSURFACE::sf_min_z[1] SPHERICALSURFACE::sf_min_z[2] SPHERICALSURFACE::sf_min_z[3] SPHERICALSURFACE::sf_min_z[4] SPHERICALSURFACE::sf_min_z[5] SPHERICALSURFACE::sf_max_x[0] SPHERICALSURFACE::sf_max_x[1] SPHERICALSURFACE::sf_max_x[2] SPHERICALSURFACE::sf_max_x[3] SPHERICALSURFACE::sf_max_x[4] SPHERICALSURFACE::sf_max_x[5] SPHERICALSURFACE::sf_max_y[0] SPHERICALSURFACE::sf_max_y[1] SPHERICALSURFACE::sf_max_y[2] SPHERICALSURFACE::sf_max_y[3] SPHERICALSURFACE::sf_max_y[4] SPHERICALSURFACE::sf_max_y[5] SPHERICALSURFACE::sf_max_z[0] SPHERICALSURFACE::sf_max_z[1] SPHERICALSURFACE::sf_max_z[2] SPHERICALSURFACE::sf_max_z[3] SPHERICALSURFACE::sf_max_z[4] SPHERICALSURFACE::sf_max_z[5] SPHERICALSURFACE::sf_radius[0] SPHERICALSURFACE::sf_radius[1] SPHERICALSURFACE::sf_radius[2] SPHERICALSURFACE::sf_radius[3] SPHERICALSURFACE::sf_radius[4] SPHERICALSURFACE::sf_radius[5] SPHERICALSURFACE::sf_origin_x[0] SPHERICALSURFACE::sf_origin_x[1] SPHERICALSURFACE::sf_origin_x[2] SPHERICALSURFACE::sf_origin_x[3] SPHERICALSURFACE::sf_origin_x[4] SPHERICALSURFACE::sf_origin_x[5] SPHERICALSURFACE::sf_origin_y[0] SPHERICALSURFACE::sf_origin_y[1] SPHERICALSURFACE::sf_origin_y[2] SPHERICALSURFACE::sf_origin_y[3] SPHERICALSURFACE::sf_origin_y[4] SPHERICALSURFACE::sf_origin_y[5] SPHERICALSURFACE::sf_origin_z[0] SPHERICALSURFACE::sf_origin_z[1] SPHERICALSURFACE::sf_origin_z[2] SPHERICALSURFACE::sf_origin_z[3] SPHERICALSURFACE::sf_origin_z[4] SPHERICALSURFACE::sf_origin_z[5] SPHERICALSURFACE::sf_origin_theta[0] SPHERICALSURFACE::sf_origin_theta[1] SPHERICALSURFACE::sf_origin_theta[2] SPHERICALSURFACE::sf_origin_theta[3] SPHERICALSURFACE::sf_origin_theta[4] SPHERICALSURFACE::sf_origin_theta[5] SPHERICALSURFACE::sf_origin_phi[0] SPHERICALSURFACE::sf_origin_phi[1] SPHERICALSURFACE::sf_origin_phi[2] SPHERICALSURFACE::sf_origin_phi[3] SPHERICALSURFACE::sf_origin_phi[4] SPHERICALSURFACE::sf_origin_phi[5] SPHERICALSURFACE::sf_delta_theta[0] SPHERICALSURFACE::sf_delta_theta[1] SPHERICALSURFACE::sf_delta_theta[2] SPHERICALSURFACE::sf_delta_theta[3] SPHERICALSURFACE::sf_delta_theta[4] SPHERICALSURFACE::sf_delta_theta[5] SPHERICALSURFACE::sf_delta_phi[0] SPHERICALSURFACE::sf_delta_phi[1] SPHERICALSURFACE::sf_delta_phi[2] SPHERICALSURFACE::sf_delta_phi[3] SPHERICALSURFACE::sf_delta_phi[4] SPHERICALSURFACE::sf_delta_phi[5] WEYLSCAL4::Psi4i WEYLSCAL4::Psi4r INFO (CarpetIOASCII): I/O Method 'IOASCII_1D' registered: 1D AMR output of grid variables to ASCII files INFO (CarpetIOASCII): Periodic 1D AMR output requested for: ADMBASE::gxx ADMBASE::gxy ADMBASE::gxz ADMBASE::gyy ADMBASE::gyz ADMBASE::gzz ADMBASE::kxx ADMBASE::kxy ADMBASE::kxz ADMBASE::kyy ADMBASE::kyz ADMBASE::kzz ADMBASE::alp ADMBASE::betax ADMBASE::betay ADMBASE::betaz ADMBASE::dtalp ADMBASE::dtbetax ADMBASE::dtbetay ADMBASE::dtbetaz CARPETREDUCE::weight ML_ADMCONSTRAINTS::H ML_ADMCONSTRAINTS::M1 ML_ADMCONSTRAINTS::M2 ML_ADMCONSTRAINTS::M3 QUASILOCALMEASURES::qlm_shape[0] QUASILOCALMEASURES::qlm_shape[1] QUASILOCALMEASURES::qlm_shape[2] QUASILOCALMEASURES::qlm_shape[3] QUASILOCALMEASURES::qlm_shape[4] QUASILOCALMEASURES::qlm_shape[5] QUASILOCALMEASURES::qlm_x[0] QUASILOCALMEASURES::qlm_x[1] QUASILOCALMEASURES::qlm_x[2] QUASILOCALMEASURES::qlm_x[3] QUASILOCALMEASURES::qlm_x[4] QUASILOCALMEASURES::qlm_x[5] QUASILOCALMEASURES::qlm_y[0] QUASILOCALMEASURES::qlm_y[1] QUASILOCALMEASURES::qlm_y[2] QUASILOCALMEASURES::qlm_y[3] QUASILOCALMEASURES::qlm_y[4] QUASILOCALMEASURES::qlm_y[5] QUASILOCALMEASURES::qlm_z[0] QUASILOCALMEASURES::qlm_z[1] QUASILOCALMEASURES::qlm_z[2] QUASILOCALMEASURES::qlm_z[3] QUASILOCALMEASURES::qlm_z[4] QUASILOCALMEASURES::qlm_z[5] QUASILOCALMEASURES::qlm_l0[0] QUASILOCALMEASURES::qlm_l0[1] QUASILOCALMEASURES::qlm_l0[2] QUASILOCALMEASURES::qlm_l0[3] QUASILOCALMEASURES::qlm_l0[4] QUASILOCALMEASURES::qlm_l0[5] QUASILOCALMEASURES::qlm_l1[0] QUASILOCALMEASURES::qlm_l1[1] QUASILOCALMEASURES::qlm_l1[2] QUASILOCALMEASURES::qlm_l1[3] QUASILOCALMEASURES::qlm_l1[4] QUASILOCALMEASURES::qlm_l1[5] QUASILOCALMEASURES::qlm_l2[0] QUASILOCALMEASURES::qlm_l2[1] QUASILOCALMEASURES::qlm_l2[2] QUASILOCALMEASURES::qlm_l2[3] QUASILOCALMEASURES::qlm_l2[4] QUASILOCALMEASURES::qlm_l2[5] QUASILOCALMEASURES::qlm_l3[0] QUASILOCALMEASURES::qlm_l3[1] QUASILOCALMEASURES::qlm_l3[2] QUASILOCALMEASURES::qlm_l3[3] QUASILOCALMEASURES::qlm_l3[4] QUASILOCALMEASURES::qlm_l3[5] QUASILOCALMEASURES::qlm_n0[0] QUASILOCALMEASURES::qlm_n0[1] QUASILOCALMEASURES::qlm_n0[2] QUASILOCALMEASURES::qlm_n0[3] QUASILOCALMEASURES::qlm_n0[4] QUASILOCALMEASURES::qlm_n0[5] QUASILOCALMEASURES::qlm_n1[0] QUASILOCALMEASURES::qlm_n1[1] QUASILOCALMEASURES::qlm_n1[2] QUASILOCALMEASURES::qlm_n1[3] QUASILOCALMEASURES::qlm_n1[4] QUASILOCALMEASURES::qlm_n1[5] QUASILOCALMEASURES::qlm_n2[0] QUASILOCALMEASURES::qlm_n2[1] QUASILOCALMEASURES::qlm_n2[2] QUASILOCALMEASURES::qlm_n2[3] QUASILOCALMEASURES::qlm_n2[4] QUASILOCALMEASURES::qlm_n2[5] QUASILOCALMEASURES::qlm_n3[0] QUASILOCALMEASURES::qlm_n3[1] QUASILOCALMEASURES::qlm_n3[2] QUASILOCALMEASURES::qlm_n3[3] QUASILOCALMEASURES::qlm_n3[4] QUASILOCALMEASURES::qlm_n3[5] QUASILOCALMEASURES::qlm_m0[0] QUASILOCALMEASURES::qlm_m0[1] QUASILOCALMEASURES::qlm_m0[2] QUASILOCALMEASURES::qlm_m0[3] QUASILOCALMEASURES::qlm_m0[4] QUASILOCALMEASURES::qlm_m0[5] QUASILOCALMEASURES::qlm_m1[0] QUASILOCALMEASURES::qlm_m1[1] QUASILOCALMEASURES::qlm_m1[2] QUASILOCALMEASURES::qlm_m1[3] QUASILOCALMEASURES::qlm_m1[4] QUASILOCALMEASURES::qlm_m1[5] QUASILOCALMEASURES::qlm_m2[0] QUASILOCALMEASURES::qlm_m2[1] QUASILOCALMEASURES::qlm_m2[2] QUASILOCALMEASURES::qlm_m2[3] QUASILOCALMEASURES::qlm_m2[4] QUASILOCALMEASURES::qlm_m2[5] QUASILOCALMEASURES::qlm_m3[0] QUASILOCALMEASURES::qlm_m3[1] QUASILOCALMEASURES::qlm_m3[2] QUASILOCALMEASURES::qlm_m3[3] QUASILOCALMEASURES::qlm_m3[4] QUASILOCALMEASURES::qlm_m3[5] QUASILOCALMEASURES::qlm_npkappa[0] QUASILOCALMEASURES::qlm_npkappa[1] QUASILOCALMEASURES::qlm_npkappa[2] QUASILOCALMEASURES::qlm_npkappa[3] QUASILOCALMEASURES::qlm_npkappa[4] QUASILOCALMEASURES::qlm_npkappa[5] QUASILOCALMEASURES::qlm_nptau[0] QUASILOCALMEASURES::qlm_nptau[1] QUASILOCALMEASURES::qlm_nptau[2] QUASILOCALMEASURES::qlm_nptau[3] QUASILOCALMEASURES::qlm_nptau[4] QUASILOCALMEASURES::qlm_nptau[5] QUASILOCALMEASURES::qlm_npsigma[0] QUASILOCALMEASURES::qlm_npsigma[1] QUASILOCALMEASURES::qlm_npsigma[2] QUASILOCALMEASURES::qlm_npsigma[3] QUASILOCALMEASURES::qlm_npsigma[4] QUASILOCALMEASURES::qlm_npsigma[5] QUASILOCALMEASURES::qlm_nprho[0] QUASILOCALMEASURES::qlm_nprho[1] QUASILOCALMEASURES::qlm_nprho[2] QUASILOCALMEASURES::qlm_nprho[3] QUASILOCALMEASURES::qlm_nprho[4] QUASILOCALMEASURES::qlm_nprho[5] QUASILOCALMEASURES::qlm_npepsilon[0] QUASILOCALMEASURES::qlm_npepsilon[1] QUASILOCALMEASURES::qlm_npepsilon[2] QUASILOCALMEASURES::qlm_npepsilon[3] QUASILOCALMEASURES::qlm_npepsilon[4] QUASILOCALMEASURES::qlm_npepsilon[5] QUASILOCALMEASURES::qlm_npgamma[0] QUASILOCALMEASURES::qlm_npgamma[1] QUASILOCALMEASURES::qlm_npgamma[2] QUASILOCALMEASURES::qlm_npgamma[3] QUASILOCALMEASURES::qlm_npgamma[4] QUASILOCALMEASURES::qlm_npgamma[5] QUASILOCALMEASURES::qlm_npbeta[0] QUASILOCALMEASURES::qlm_npbeta[1] QUASILOCALMEASURES::qlm_npbeta[2] QUASILOCALMEASURES::qlm_npbeta[3] QUASILOCALMEASURES::qlm_npbeta[4] QUASILOCALMEASURES::qlm_npbeta[5] QUASILOCALMEASURES::qlm_npalpha[0] QUASILOCALMEASURES::qlm_npalpha[1] QUASILOCALMEASURES::qlm_npalpha[2] QUASILOCALMEASURES::qlm_npalpha[3] QUASILOCALMEASURES::qlm_npalpha[4] QUASILOCALMEASURES::qlm_npalpha[5] QUASILOCALMEASURES::qlm_nppi[0] QUASILOCALMEASURES::qlm_nppi[1] QUASILOCALMEASURES::qlm_nppi[2] QUASILOCALMEASURES::qlm_nppi[3] QUASILOCALMEASURES::qlm_nppi[4] QUASILOCALMEASURES::qlm_nppi[5] QUASILOCALMEASURES::qlm_npnu[0] QUASILOCALMEASURES::qlm_npnu[1] QUASILOCALMEASURES::qlm_npnu[2] QUASILOCALMEASURES::qlm_npnu[3] QUASILOCALMEASURES::qlm_npnu[4] QUASILOCALMEASURES::qlm_npnu[5] QUASILOCALMEASURES::qlm_npmu[0] QUASILOCALMEASURES::qlm_npmu[1] QUASILOCALMEASURES::qlm_npmu[2] QUASILOCALMEASURES::qlm_npmu[3] QUASILOCALMEASURES::qlm_npmu[4] QUASILOCALMEASURES::qlm_npmu[5] QUASILOCALMEASURES::qlm_nplambda[0] QUASILOCALMEASURES::qlm_nplambda[1] QUASILOCALMEASURES::qlm_nplambda[2] QUASILOCALMEASURES::qlm_nplambda[3] QUASILOCALMEASURES::qlm_nplambda[4] QUASILOCALMEASURES::qlm_nplambda[5] QUASILOCALMEASURES::qlm_psi0[0] QUASILOCALMEASURES::qlm_psi0[1] QUASILOCALMEASURES::qlm_psi0[2] QUASILOCALMEASURES::qlm_psi0[3] QUASILOCALMEASURES::qlm_psi0[4] QUASILOCALMEASURES::qlm_psi0[5] QUASILOCALMEASURES::qlm_psi1[0] QUASILOCALMEASURES::qlm_psi1[1] QUASILOCALMEASURES::qlm_psi1[2] QUASILOCALMEASURES::qlm_psi1[3] QUASILOCALMEASURES::qlm_psi1[4] QUASILOCALMEASURES::qlm_psi1[5] QUASILOCALMEASURES::qlm_psi2[0] QUASILOCALMEASURES::qlm_psi2[1] QUASILOCALMEASURES::qlm_psi2[2] QUASILOCALMEASURES::qlm_psi2[3] QUASILOCALMEASURES::qlm_psi2[4] QUASILOCALMEASURES::qlm_psi2[5] QUASILOCALMEASURES::qlm_psi3[0] QUASILOCALMEASURES::qlm_psi3[1] QUASILOCALMEASURES::qlm_psi3[2] QUASILOCALMEASURES::qlm_psi3[3] QUASILOCALMEASURES::qlm_psi3[4] QUASILOCALMEASURES::qlm_psi3[5] QUASILOCALMEASURES::qlm_psi4[0] QUASILOCALMEASURES::qlm_psi4[1] QUASILOCALMEASURES::qlm_psi4[2] QUASILOCALMEASURES::qlm_psi4[3] QUASILOCALMEASURES::qlm_psi4[4] QUASILOCALMEASURES::qlm_psi4[5] QUASILOCALMEASURES::qlm_i[0] QUASILOCALMEASURES::qlm_i[1] QUASILOCALMEASURES::qlm_i[2] QUASILOCALMEASURES::qlm_i[3] QUASILOCALMEASURES::qlm_i[4] QUASILOCALMEASURES::qlm_i[5] QUASILOCALMEASURES::qlm_j[0] QUASILOCALMEASURES::qlm_j[1] QUASILOCALMEASURES::qlm_j[2] QUASILOCALMEASURES::qlm_j[3] QUASILOCALMEASURES::qlm_j[4] QUASILOCALMEASURES::qlm_j[5] QUASILOCALMEASURES::qlm_s[0] QUASILOCALMEASURES::qlm_s[1] QUASILOCALMEASURES::qlm_s[2] QUASILOCALMEASURES::qlm_s[3] QUASILOCALMEASURES::qlm_s[4] QUASILOCALMEASURES::qlm_s[5] QUASILOCALMEASURES::qlm_sdiff[0] QUASILOCALMEASURES::qlm_sdiff[1] QUASILOCALMEASURES::qlm_sdiff[2] QUASILOCALMEASURES::qlm_sdiff[3] QUASILOCALMEASURES::qlm_sdiff[4] QUASILOCALMEASURES::qlm_sdiff[5] QUASILOCALMEASURES::qlm_phi00[0] QUASILOCALMEASURES::qlm_phi00[1] QUASILOCALMEASURES::qlm_phi00[2] QUASILOCALMEASURES::qlm_phi00[3] QUASILOCALMEASURES::qlm_phi00[4] QUASILOCALMEASURES::qlm_phi00[5] QUASILOCALMEASURES::qlm_phi11[0] QUASILOCALMEASURES::qlm_phi11[1] QUASILOCALMEASURES::qlm_phi11[2] QUASILOCALMEASURES::qlm_phi11[3] QUASILOCALMEASURES::qlm_phi11[4] QUASILOCALMEASURES::qlm_phi11[5] QUASILOCALMEASURES::qlm_phi01[0] QUASILOCALMEASURES::qlm_phi01[1] QUASILOCALMEASURES::qlm_phi01[2] QUASILOCALMEASURES::qlm_phi01[3] QUASILOCALMEASURES::qlm_phi01[4] QUASILOCALMEASURES::qlm_phi01[5] QUASILOCALMEASURES::qlm_phi12[0] QUASILOCALMEASURES::qlm_phi12[1] QUASILOCALMEASURES::qlm_phi12[2] QUASILOCALMEASURES::qlm_phi12[3] QUASILOCALMEASURES::qlm_phi12[4] QUASILOCALMEASURES::qlm_phi12[5] QUASILOCALMEASURES::qlm_phi10[0] QUASILOCALMEASURES::qlm_phi10[1] QUASILOCALMEASURES::qlm_phi10[2] QUASILOCALMEASURES::qlm_phi10[3] QUASILOCALMEASURES::qlm_phi10[4] QUASILOCALMEASURES::qlm_phi10[5] QUASILOCALMEASURES::qlm_phi21[0] QUASILOCALMEASURES::qlm_phi21[1] QUASILOCALMEASURES::qlm_phi21[2] QUASILOCALMEASURES::qlm_phi21[3] QUASILOCALMEASURES::qlm_phi21[4] QUASILOCALMEASURES::qlm_phi21[5] QUASILOCALMEASURES::qlm_phi02[0] QUASILOCALMEASURES::qlm_phi02[1] QUASILOCALMEASURES::qlm_phi02[2] QUASILOCALMEASURES::qlm_phi02[3] QUASILOCALMEASURES::qlm_phi02[4] QUASILOCALMEASURES::qlm_phi02[5] QUASILOCALMEASURES::qlm_phi22[0] QUASILOCALMEASURES::qlm_phi22[1] QUASILOCALMEASURES::qlm_phi22[2] QUASILOCALMEASURES::qlm_phi22[3] QUASILOCALMEASURES::qlm_phi22[4] QUASILOCALMEASURES::qlm_phi22[5] QUASILOCALMEASURES::qlm_phi20[0] QUASILOCALMEASURES::qlm_phi20[1] QUASILOCALMEASURES::qlm_phi20[2] QUASILOCALMEASURES::qlm_phi20[3] QUASILOCALMEASURES::qlm_phi20[4] QUASILOCALMEASURES::qlm_phi20[5] QUASILOCALMEASURES::qlm_lambda[0] QUASILOCALMEASURES::qlm_lambda[1] QUASILOCALMEASURES::qlm_lambda[2] QUASILOCALMEASURES::qlm_lambda[3] QUASILOCALMEASURES::qlm_lambda[4] QUASILOCALMEASURES::qlm_lambda[5] QUASILOCALMEASURES::qlm_lie_n_theta_l[0] QUASILOCALMEASURES::qlm_lie_n_theta_l[1] QUASILOCALMEASURES::qlm_lie_n_theta_l[2] QUASILOCALMEASURES::qlm_lie_n_theta_l[3] QUASILOCALMEASURES::qlm_lie_n_theta_l[4] QUASILOCALMEASURES::qlm_lie_n_theta_l[5] QUASILOCALMEASURES::qlm_qtt[0] QUASILOCALMEASURES::qlm_qtt[1] QUASILOCALMEASURES::qlm_qtt[2] QUASILOCALMEASURES::qlm_qtt[3] QUASILOCALMEASURES::qlm_qtt[4] QUASILOCALMEASURES::qlm_qtt[5] QUASILOCALMEASURES::qlm_qtp[0] QUASILOCALMEASURES::qlm_qtp[1] QUASILOCALMEASURES::qlm_qtp[2] QUASILOCALMEASURES::qlm_qtp[3] QUASILOCALMEASURES::qlm_qtp[4] QUASILOCALMEASURES::qlm_qtp[5] QUASILOCALMEASURES::qlm_qpp[0] QUASILOCALMEASURES::qlm_qpp[1] QUASILOCALMEASURES::qlm_qpp[2] QUASILOCALMEASURES::qlm_qpp[3] QUASILOCALMEASURES::qlm_qpp[4] QUASILOCALMEASURES::qlm_qpp[5] QUASILOCALMEASURES::qlm_rsc[0] QUASILOCALMEASURES::qlm_rsc[1] QUASILOCALMEASURES::qlm_rsc[2] QUASILOCALMEASURES::qlm_rsc[3] QUASILOCALMEASURES::qlm_rsc[4] QUASILOCALMEASURES::qlm_rsc[5] QUASILOCALMEASURES::qlm_xi_t[0] QUASILOCALMEASURES::qlm_xi_t[1] QUASILOCALMEASURES::qlm_xi_t[2] QUASILOCALMEASURES::qlm_xi_t[3] QUASILOCALMEASURES::qlm_xi_t[4] QUASILOCALMEASURES::qlm_xi_t[5] QUASILOCALMEASURES::qlm_xi_p[0] QUASILOCALMEASURES::qlm_xi_p[1] QUASILOCALMEASURES::qlm_xi_p[2] QUASILOCALMEASURES::qlm_xi_p[3] QUASILOCALMEASURES::qlm_xi_p[4] QUASILOCALMEASURES::qlm_xi_p[5] QUASILOCALMEASURES::qlm_chi[0] QUASILOCALMEASURES::qlm_chi[1] QUASILOCALMEASURES::qlm_chi[2] QUASILOCALMEASURES::qlm_chi[3] QUASILOCALMEASURES::qlm_chi[4] QUASILOCALMEASURES::qlm_chi[5] QUASILOCALMEASURES::qlm_lqtt[0] QUASILOCALMEASURES::qlm_lqtt[1] QUASILOCALMEASURES::qlm_lqtt[2] QUASILOCALMEASURES::qlm_lqtt[3] QUASILOCALMEASURES::qlm_lqtt[4] QUASILOCALMEASURES::qlm_lqtt[5] QUASILOCALMEASURES::qlm_lqtp[0] QUASILOCALMEASURES::qlm_lqtp[1] QUASILOCALMEASURES::qlm_lqtp[2] QUASILOCALMEASURES::qlm_lqtp[3] QUASILOCALMEASURES::qlm_lqtp[4] QUASILOCALMEASURES::qlm_lqtp[5] QUASILOCALMEASURES::qlm_lqpp[0] QUASILOCALMEASURES::qlm_lqpp[1] QUASILOCALMEASURES::qlm_lqpp[2] QUASILOCALMEASURES::qlm_lqpp[3] QUASILOCALMEASURES::qlm_lqpp[4] QUASILOCALMEASURES::qlm_lqpp[5] QUASILOCALMEASURES::qlm_inv_z[0] QUASILOCALMEASURES::qlm_inv_z[1] QUASILOCALMEASURES::qlm_inv_z[2] QUASILOCALMEASURES::qlm_inv_z[3] QUASILOCALMEASURES::qlm_inv_z[4] QUASILOCALMEASURES::qlm_inv_z[5] QUASILOCALMEASURES::qlm_3det[0] QUASILOCALMEASURES::qlm_3det[1] QUASILOCALMEASURES::qlm_3det[2] QUASILOCALMEASURES::qlm_3det[3] QUASILOCALMEASURES::qlm_3det[4] QUASILOCALMEASURES::qlm_3det[5] SPHERICALSURFACE::sf_radius[0] SPHERICALSURFACE::sf_radius[1] SPHERICALSURFACE::sf_radius[2] SPHERICALSURFACE::sf_radius[3] SPHERICALSURFACE::sf_radius[4] SPHERICALSURFACE::sf_radius[5] WEYLSCAL4::Psi4i WEYLSCAL4::Psi4r INFO (CarpetIOASCII): I/O Method 'IOASCII_2D' registered: 2D AMR output of grid variables to ASCII files INFO (CarpetIOASCII): Periodic 2D AMR output requested for: SPHERICALSURFACE::sf_radius[0] SPHERICALSURFACE::sf_radius[1] SPHERICALSURFACE::sf_radius[2] SPHERICALSURFACE::sf_radius[3] SPHERICALSURFACE::sf_radius[4] SPHERICALSURFACE::sf_radius[5] INFO (CarpetIOASCII): I/O Method 'IOASCII_3D' registered: 3D AMR output of grid variables to ASCII files WARNING level 1 in thorn Multipole processor 1 host hedges.belmont.edu (line 238 of /home/shawley/Cactus/configs/etk/build/Multipole/multipole.cc): -> The parameter l_mode is deprecated. Use l_max instead. For compatibility, l_max = l_mode is being used. WARNING level 1 in thorn Multipole processor 1 host hedges.belmont.edu (line 253 of /home/shawley/Cactus/configs/etk/build/Multipole/multipole.cc): -> The parameter m_mode is deprecated. All m modes will be computed. INFO (CarpetLib): Old address space size limit: hard=-1, soft=-1 INFO (CarpetLib): New address space size limit: hard=-1, soft=-1 INFO (CarpetLib): (Unlimited address space size indicated by -1) INFO (CarpetRegrid2): Initialising position of centre 0 to [1.16864,0,0] INFO (CarpetRegrid2): Initialising position of centre 1 to [-1.16864,0,0] INFO (CarpetRegrid2): Initialising position of centre 2 to [0,0,0] -------------------------------------------------------------------------------- INFO (Formaline): Writing tarballs with the Cactus sources into the directory "qc0-mclachlan/cactus-source" WARNING level 1 in thorn Multipole processor 0 host hedges.belmont.edu (line 238 of /home/shawley/Cactus/configs/etk/build/Multipole/multipole.cc): -> The parameter l_mode is deprecated. Use l_max instead. For compatibility, l_max = l_mode is being used. WARNING level 1 in thorn Multipole processor 0 host hedges.belmont.edu (line 253 of /home/shawley/Cactus/configs/etk/build/Multipole/multipole.cc): -> The parameter m_mode is deprecated. All m modes will be computed. INFO (MoL): Using Runge-Kutta 4 as the time integrator. INFO (MoL): The maximum number of evolved variables is 25. 25 are registered. INFO (MoL): The maximum number of constrained variables is 20. 20 are registered. INFO (MoL): The maximum number of SandR variables is 0. 0 are registered. INFO (MoL): The maximum number of evolved complex variables is 0. 0 are registered. INFO (MoL): The maximum number of constrained complex variables is 0. 0 are registered. INFO (MoL): The maximum number of SandR complex variables is 0. 0 are registered. INFO (MoL): The maximum number of evolved array variables is 0. 0 are registered. INFO (MoL): The maximum number of constrained array variables is 0. 0 are registered. INFO (MoL): The maximum number of SandR array variables is 0. 0 are registered. INFO (MoL): The maximum number of evolved complex array variables is 0. 0 are registered. INFO (MoL): The maximum number of constrained complex array variables is 0. 0 are registered. INFO (MoL): The maximum number of SandR complex array variables is 0. 0 are registered. INFO (MoL): The maximum size of any array variables is 0. INFO (SymBase): Symmetry on lower x-face: rotating_symmetry_180 INFO (SymBase): Symmetry on lower z-face: reflection_symmetry INFO (TerminationTrigger): Reminding you every 60 minutes about remaining walltime INFO (CarpetRegrid2): Centre 1 is at position [1.16864,0,0] INFO (CarpetRegrid2): Centre 2 is at position [-1.16864,0,0] INFO (CarpetRegrid2): Centre 2 is not active INFO (CarpetRegrid2): Regridding INFO (CarpetRegrid2): Regridding levels 1 and up INFO (Carpet): Grid structure statistics: INFO (Carpet): GF: rhs: 137k active, 248k owned (+81%), 350k total (+41%), 64 steps/time INFO (Carpet): GF: vars: 78, pts: 116M active, 174M owned (+49%), 236M total (+36%), 1.0 comp/proc INFO (Carpet): GA: vars: 1431, pts: 2M active, 2M total (+0%) INFO (ADMMacros): Spatial finite differencing order: 4 INFO (CartGrid3D): Grid Spacings: INFO (CartGrid3D): dx=>2.0000000e+00 dy=>2.0000000e+00 dz=>2.0000000e+00 INFO (CartGrid3D): Computational Coordinates: INFO (CartGrid3D): x=>[-6.000,124.000] y=>[-124.000,124.000] z=>[-6.000,124.000] INFO (CartGrid3D): Indices of Physical Coordinates: INFO (CartGrid3D): x=>[0,65] y=>[0,124] z=>[0,65] INFO (AHFinderDirect): setting up AHFinderDirect data structures INFO (AHFinderDirect): to search for 6 horizons on 2 processors INFO (AHFinderDirect): constructing full sphere patch system INFO (AHFinderDirect): at origin (1.16864,0,0) INFO (AHFinderDirect): with 18 angular zones per right angle INFO (AHFinderDirect): ==> 2166 nominal, 3174 ghosted angular grid points INFO (AHFinderDirect): constructing full sphere patch system INFO (AHFinderDirect): at origin (-1.16864,0,0) INFO (AHFinderDirect): with 18 angular zones per right angle INFO (AHFinderDirect): ==> 2166 nominal, 3174 ghosted angular grid points INFO (AHFinderDirect): constructing full sphere patch system INFO (AHFinderDirect): at origin (0,0,0) INFO (AHFinderDirect): with 18 angular zones per right angle INFO (AHFinderDirect): ==> 2166 nominal, 3174 ghosted angular grid points INFO (AHFinderDirect): constructing full sphere patch system INFO (AHFinderDirect): at origin (0,0,0) INFO (AHFinderDirect): with 18 angular zones per right angle INFO (AHFinderDirect): ==> 2166 nominal, 3174 ghosted angular grid points INFO (AHFinderDirect): constructing full sphere patch system INFO (AHFinderDirect): at origin (0,0,0) INFO (AHFinderDirect): with 18 angular zones per right angle INFO (AHFinderDirect): ==> 2166 nominal, 3174 ghosted angular grid points INFO (AHFinderDirect): constructing full sphere patch system INFO (AHFinderDirect): at origin (0,0,0) INFO (AHFinderDirect): with 18 angular zones per right angle INFO (AHFinderDirect): ==> 2166 nominal, 3174 ghosted angular grid points INFO (Time): Timestep set to 0.5 (courant_static) INFO (TwoPunctures): Solving puncture equation for BH-BH system INFO (TwoPunctures): b = 1.16864 Newton: it=0 |F|=1.052185e-01 bare mass: mp=0.453 mm=0.453 bicgstab: itmax 100, tol 1.052185e-04 bicgstab: 0 1.703e+00 bicgstab: 1 1.266e+01 1.034e+00 0.000e+00 7.384e-01 bicgstab: 2 4.055e+00 1.695e+00 2.615e-02 4.375e-01 bicgstab: 3 9.935e-01 6.443e-01 2.068e-01 6.593e-01 bicgstab: 4 1.344e-01 8.687e-01 7.549e-02 4.485e-01 bicgstab: 5 9.850e-02 1.208e+00 1.948e-01 4.016e-01 bicgstab: 6 1.570e-03 7.741e-02 -3.713e-02 1.395e+00 bicgstab: 7 2.545e-04 4.524e+00 -7.124e-01 1.291e+00 bicgstab: 8 8.248e-05 8.538e-01 3.128e-01 1.291e+00 Newton: it=1 |F|=1.448405e-03 bare mass: mp=0.453 mm=0.453 bicgstab: itmax 100, tol 1.448405e-06 bicgstab: 0 2.157e-02 bicgstab: 1 1.584e-01 1.087e+00 0.000e+00 7.219e-01 bicgstab: 2 1.562e-01 -1.251e-01 9.412e-03 1.838e-01 bicgstab: 3 3.967e-03 -6.365e+00 -1.396e+00 1.044e+00 bicgstab: 4 2.974e-04 8.945e-01 1.165e-01 4.852e-01 bicgstab: 5 7.354e-05 5.797e-01 3.206e-01 8.337e-01 bicgstab: 6 1.665e-05 1.074e+00 -1.282e-01 4.702e-01 bicgstab: 7 1.469e-04 -1.578e+01 1.920e-01 4.067e-01 bicgstab: 8 3.140e-07 -4.598e-02 -3.904e+02 1.235e+00 Newton: it=2 |F|=2.097369e-07 bare mass: mp=0.453 mm=0.453 bicgstab: itmax 100, tol 2.097369e-10 bicgstab: 0 3.072e-06 bicgstab: 1 2.192e-05 6.932e-01 0.000e+00 9.593e-01 bicgstab: 2 2.262e-05 -3.022e-01 -6.246e-02 1.457e-01 bicgstab: 3 7.596e-07 -4.464e+00 -1.828e+00 5.628e-01 bicgstab: 4 6.130e-08 4.798e-01 -1.801e-01 7.218e-01 bicgstab: 5 9.396e-09 1.308e+00 -1.049e-01 5.058e-01 bicgstab: 6 5.109e-09 7.146e-01 -1.692e-01 6.925e-01 bicgstab: 7 1.020e-09 1.436e+00 3.193e-01 4.806e-01 bicgstab: 8 2.443e-10 4.924e-01 3.722e-01 2.216e+00 bicgstab: 9 8.819e-11 1.716e-01 1.989e-01 2.216e+00 Newton: it=3 |F|=1.144611e-11 INFO (TwoPunctures): The two puncture masses are mp=0.45300000000000001 and mm=0.45300000000000001 INFO (TwoPunctures): Puncture 1 ADM mass is 0.516817 INFO (TwoPunctures): Puncture 2 ADM mass is 0.516817 INFO (TwoPunctures): The total ADM mass is 1.00788 INFO (TwoPunctures): Interpolating result INFO (QuasiLocalMeasures): Initialising Quasi-Local Measure calculations [hedges:31003] *** Process received signal *** [hedges:31003] Signal: Segmentation fault (11) [hedges:31003] Signal code: Address not mapped (1) [hedges:31003] Failing at address: 0xffffffff980d06d0 [hedges:31003] [ 0] /lib64/libpthread.so.0(+0xef60) [0x7f9fd1202f60] [hedges:31003] [ 1] /lib64/libc.so.6(+0x1064e6) [0x7f9fd0f994e6] [hedges:31003] [ 2] /home/shawley/Cactus/exe/cactus_etk() [0x4155a4] [hedges:31003] [ 3] /home/shawley/Cactus/exe/cactus_etk() [0x41b62b] [hedges:31003] [ 4] /home/shawley/Cactus/exe/cactus_etk() [0x41b4cd] [hedges:31003] *** End of error message *** [hedges:31004] *** Process received signal *** [hedges:31004] Signal: Segmentation fault (11) [hedges:31004] Signal code: Address not mapped (1) [hedges:31004] Failing at address: 0xffffffff95d41810 [hedges:31004] [ 0] /lib64/libpthread.so.0(+0xef60) [0x7fc33e4a2f60] [hedges:31004] [ 1] /lib64/libc.so.6(+0x1064e6) [0x7fc33e2394e6] [hedges:31004] [ 2] /home/shawley/Cactus/exe/cactus_etk() [0x4155a4] [hedges:31004] [ 3] /home/shawley/Cactus/exe/cactus_etk() [0x41b62b] [hedges:31004] [ 4] /home/shawley/Cactus/exe/cactus_etk() [0x41b4cd] [hedges:31004] *** End of error message *** -------------------------------------------------------------------------- mpirun noticed that process rank 0 with PID 31003 on node hedges.belmont.edu exited on signal 11 (Segmentation fault). --------------------------------------------------------------------------

2 1

simfactory errors on queenbee
by Scott Hawley 13 Aug '11

13 Aug '11

(Guys, I feel like an idiot for posting multiple messages per day to this list. I'm really trying to work these things out on my own before I post.....) The TOV example works great on queenbee. :-) After reading the Advanced Tutorial, I tried to run my own job, which I called "uni449_1". It's a Cactus run which works interactively... The command I used was simfactory/sim create-submit uni449_1 --parfile=/home/shawley/runs/texmex/uni449.par --procs=8 --walltime=8:0:0 --num-threads=8 --ppn-used=1 --queue=workq Several errors appeared, and it seems *Cactus itself* never even got started...but somehow the job used up 8 hours of wall clock time. ? Does anyone have any suggestions? Errors and output log below. Thanks, Scott In /scratch/shawley/simulations/uni449_1/output-0000/ , the uni449_1.err file contained mention of several syntax errors: ... + for node in '$(cat ${MPD_NODEFILE})' + (( proc=0 )) + (( 0<0.125 )) /var/spool/torque/mom_priv/jobs/565273.qb2.SC: line 66: ((: 0<0.125: syntax error in expression (error token is ".125") + for node in '$(cat ${MPD_NODEFILE})' + (( proc=0 )) + (( 0<0.125 )) /var/spool/torque/mom_priv/jobs/565273.qb2.SC: line 66: ((: 0<0.125: syntax error in expression (error token is ".125") + for node in '$(cat ${MPD_NODEFILE})' + (( proc=0 )) + (( 0<0.125 )) /var/spool/torque/mom_priv/jobs/565273.qb2.SC: line 66: ((: 0<0.125: syntax error in expression (error token is ".125") + for node in '$(cat ${MPD_NODEFILE})' + (( proc=0 )) + (( 0<0.125 )) /var/spool/torque/mom_priv/jobs/565273.qb2.SC: line 66: ((: 0<0.125: syntax error in expression (error token is ".125") + for node in '$(cat ${MPD_NODEFILE})' + (( proc=0 )) + (( 0<0.125 )) /var/spool/torque/mom_priv/jobs/565273.qb2.SC: line 66: ((: 0<0.125: syntax error in expression (error token is ".125") + for node in '$(cat ${MPD_NODEFILE})' + (( proc=0 )) + (( 0<0.125 )) /var/spool/torque/mom_priv/jobs/565273.qb2.SC: line 66: ((: 0<0.125: syntax error in expression (error token is ".125") + for node in '$(cat ${MPD_NODEFILE})' + (( proc=0 )) + (( 0<0.125 )) /var/spool/torque/mom_priv/jobs/565273.qb2.SC: line 66: ((: 0<0.125: syntax error in expression (error token is ".125") + for node in '$(cat ${MPD_NODEFILE})' + (( proc=0 )) + (( 0<0.125 )) /var/spool/torque/mom_priv/jobs/565273.qb2.SC: line 66: ((: 0<0.125: syntax error in expression (error token is ".125") ++ date +%s + export CACTUS_STARTTIME=1312948714 + CACTUS_STARTTIME=1312948714 + /usr/local/packages/mvapich2/1.4/intel-11.1/bin/mpirun_rsh -np 1 -hostfile mpi_nodefile /bin/env MV2_ENABLE_AFFINITY=0 OMP_NUM_THREADS=8 ./SIMFACTORY/cactus_sim -L 3 uni449.par =>> PBS: job killed: walltime 28836 exceeded limit 28800 The output file didn't have any mention of Cactus: [shawley@qb3 output-0000]$ cat uni449_1.out -------------------------------------- Running PBS prologue script -------------------------------------- User and Job Data: -------------------------------------- Job ID: 565273.qb2 Username: shawley Group: lsuusers Date: 09-Aug-2011 22:58 Node: qb528 (5373) -------------------------------------- PBS has allocated the following nodes: qb528 qb502 qb493 qb472 qb463 qb441 qb215 qb149 A total of 64 processors on 8 nodes allocated --------------------------------------------- Check nodes and clean them of stray processes --------------------------------------------- Checking node qb528 22:58:19 Checking node qb502 22:58:21 Checking node qb493 22:58:23 Checking node qb472 22:58:25 Checking node qb463 22:58:27 Checking node qb441 22:58:29 Checking node qb215 22:58:30 Checking node qb149 22:58:32 Done clearing all the allocated nodes ------------------------------------------------------ Concluding PBS prologue script - 09-Aug-2011 22:58:32 ------------------------------------------------------ Warning: no access to tty (Bad file descriptor). Thus no job control in this shell. Preparing: Checking: /scratch/shawley/simulations/uni449_1/output-0000-active qb528 Tue Aug 9 22:58:33 CDT 2011 PBS nodes: qb528 qb528 qb528 qb528 qb528 qb528 qb528 qb528 qb502 qb502 qb502 qb502 qb502 qb502 qb502 qb502 qb493 qb493 qb493 qb493 qb493 qb493 qb493 qb493 qb472 qb472 qb472 qb472 qb472 qb472 qb472 qb472 qb463 qb463 qb463 qb463 qb463 qb463 qb463 qb463 qb441 qb441 qb441 qb441 qb441 qb441 qb441 qb441 qb215 qb215 qb215 qb215 qb215 qb215 qb215 qb215 qb149 qb149 qb149 qb149 qb149 qb149 qb149 qb149 Environment: Starting: Terminated ------------------------------------------------------ Running PBS epilogue script - 10-Aug-2011 06:59:09 ------------------------------------------------------ Checking node qb528 (MS) Checking node qb149 ok Checking node qb215 ok Checking node qb441 ok Checking node qb463 ok Checking node qb472 ok Checking node qb493 ok Checking node qb502 ok Checking node qb528 ok ------------------------------------------------------ Concluding PBS epilogue script - 10-Aug-2011 06:59:32 ------------------------------------------------------ Exit Status: Job ID: 565273.qb2 Username: shawley Group: lsuusers Job Name: uni449_1-0000 Session Id: 5372 Resource Limits: ncpus=1,nodes=8:ppn=8,walltime=08:00:00 Resources Used: cput=08:00:33,mem=3700kb,vmem=124928kb,walltime=08:00:36 Queue Used: workq Account String: loni_cactus06 Node: qb528 Process id: 8870 ------------------------------------------------------ -- Scott H. Hawley, Ph.D. Asst. Prof. of Physics Chemistry & Physics Dept Office: Hitch 100D Belmont University Tel: +1-615-460-6206 Nashville, TN 37212 USA Fax: +1-615-460-5458 (Temporarily broken…xxxPGP Key at http://sks-keyservers.net)

2 1

Questions re. CarpetRegrid2
by Scott Hawley 10 Aug '11

10 Aug '11

I have a few questions about CarpetRegrid2: - In doc/, the documentation.tex file, for me, just seems to be a bunch of headers with no text in them. Am I missing something? - In param.cll, the variable min_distance is described as "Minimum distance (in grid points) between coarse and fine grid boundaries". Which grid points are being counted -- the fine or the coarse ones? I'm guessing it's the coarse. - Can CarpetRegrid2 be used to (easily) define a "hollow box", that is, a set of (6) slabs which are defined on some rectangular surface and only a certain number of points "thick"? Thanks! -Scott

2 2

Intel Compiler Issues
by Tim Lemon 09 Aug '11

09 Aug '11

Hello, I'm currently trying to use the Southampton supercomputer to run my simulations using the Einstein Toolkit. I'm using the latest version of carpet (Mercurial) and the I've loaded the Intel 11.1 compiler, but I am getting the following error. "Run-Time Check Failure: The variable 'd' is being used without being initialized" This can be traced back to a function in CarpetLib (cycle.h), #if (defined(__GNUC__) || defined(__ICC) || defined(__SUNPRO_C)) && defined(__x86_64__) && !defined(HAVE_TICK_COUNTER) typedef unsigned long long ticks; static __inline__ ticks getticks(void) { unsigned a, d; asm volatile("rdtsc" : "=a" (a), "=d" (d)); return ((ticks)a) | (((ticks)d) << 32); } Any suggestions on how to fix this problem? <http://mercurial.selenic.com/> -- Kind Regards Tim lemon

3 2

Meeting minutes
by Roland Haas 08 Aug '11

08 Aug '11

Meeting minutes: Present were: Frank, Ian, Eloisa, Yosef, Tanja, Erik, Bruno, Roland next ET release: Carpet: * will make Carpet/Hg the default version (no really big bug reports in a while) * potential serious bugs: ** HDF5 1D/2D output with Multipatch (works for non-multipatch runs) ** possibly still rotatingsymmetry180 * please all run a production type run with Carpet/Hg and report back until next week * test suites using checkpointing need to be regenerated since the checkpointing format changed. Erik says that the gut version is not able to read checkpoints written by the Hg version and vice versa Simfactory: * switch to python version * ask GT and RIT to test it (others are already using it) MHD: * should be part of the release * paper should be ready before release likely by end of month * last outstanding issue is cylindrical blast wave test ** many MHD codes fail this test ** Bruno says that in the rarefaction region noise is generated ** divergence cleaning amplifies this noise ** Kommissarov introduces a resistive term to counteract this (just dissipation does not help) ** want to compare to HARM3D ** unless a solution is found soon, leave as is and refer to other codes (incl. Kommissarov's) also failing for justification * want to test gauge wave MHD test (non-trivial spacetime metric rather than Minkoswki) * Ian has patches to McLachlan to support additional gauges required for this (harmonic shift) McLachlan: * there is a desires to simplify the addition of new gauge conditions to McLachlan Refluxing: * thorn will be made public once the related paper has been published * might happen before release but is not sure Vectorization: * supported by Kranc, switch on by default eg. in McLachlan * needs LSUThorns/Vectors * update wiki https://docs.einsteintoolkit.org/et-docs/Vectorisation CCE: * will be part of release * add to trunk thornlis as soon as all thorns compile without errors (currently one thorn does not compile, Frank and Yosef will look into this) * would like wiki page or usage guide for both extraction thorns (Yosef says there is documentation for the RIT parts in the standard documentation.tex files) * more example files (beyond qc0)? HOWTO on how to add to own runs (might be in documentation already) * would like to make the slides that Yosef and Maria will use for the upcoming tutorial available miscellaneous: * automatically run testsuites each night (using Ian's scripts) * want testsuite for simfactory * update documentation to reflect current status of code (incl. Cactus core docs), write Einstein Toolkit guide * update/review ID wiki page https://docs.einsteintoolkit.org/et-docs/adding_initial_data * provide tarball of release code * provide virtual machine of released Cactus installation (LSU has experience from tutorials with this) * maybe (probably not) provide instructions for common systems (MacOS, Ubuntu, Fedora, Debian, RHEL ...). Advised against since systems are too diverse, virtual machines are easier. Timing of release: * before upcoming fall workshop (dates from reminder email): - Oct 05th: freeze - Oct 12th: release Spring workshop: * agree on precise timing off line via email * announce now (or very soon) to give people time to plan * submit proposal now (or very soon) to secure funding Fall workshop: * Oct. 31st to Nov. 3rd (inclusive, afternoon to noon, see Reminder email) * topics: ** more advanced EOS, might talk to nuclear EOS community ** radiation transport (LSU focus) ** constraint transport for MHD, compare to divergence cleaning, invite Luis Lehner (or group member) or Bruno Giacomazzo who have implemented both ** scheduling improvements (dependencies á la Uintah) ** two track meeting: split into physics + infrastructure Yours, Roland -- My email is as private as my paper mail. I therefore support encrypting and signing email messages. Get my PGP key from http://keys.gnupg.net.

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