CTThorns_CT_Analytic.json

{
  "thorn_name": "CTThorns/CT_Analytic",
  "url": "https://bitbucket.org/eloisa/ctthorns.git",
  "configuration": "# File produced by Kranc\n\nREQUIRES GenericFD\nOPTIONAL LoopControl\n{\n}\n",
  "interface": "# File produced by Kranc\n\nimplements: CT_Analytic\n\ninherits:   Boundary GenericFD Grid\n\n\n\nUSES INCLUDE: loopcontrol.h\nUSES INCLUDE: Symmetry.h\nUSES INCLUDE: Boundary.h\n\nCCTK_INT FUNCTION MoLRegisterEvolved(CCTK_INT IN EvolvedIndex, CCTK_INT IN RHSIndex)\nUSES FUNCTION MoLRegisterEvolved\n\nSUBROUTINE Diff_coeff(CCTK_POINTER_TO_CONST IN cctkGH, CCTK_INT IN dir, CCTK_INT IN nsize, CCTK_INT OUT ARRAY imin, CCTK_INT OUT ARRAY imax, CCTK_REAL OUT ARRAY q, CCTK_INT IN table_handle)\nUSES FUNCTION Diff_coeff\n\nCCTK_INT FUNCTION MultiPatch_GetMap(CCTK_POINTER_TO_CONST IN cctkGH)\nUSES FUNCTION MultiPatch_GetMap\n\nCCTK_INT FUNCTION MultiPatch_GetBbox(CCTK_POINTER_TO_CONST IN cctkGH, CCTK_INT IN size, CCTK_INT OUT ARRAY bbox)\nUSES FUNCTION MultiPatch_GetBbox\n\nCCTK_INT FUNCTION GetBoundarySpecification(CCTK_INT IN size, CCTK_INT OUT ARRAY nboundaryzones, CCTK_INT OUT ARRAY is_internal, CCTK_INT OUT ARRAY is_staggered, CCTK_INT OUT ARRAY shiftout)\nUSES FUNCTION GetBoundarySpecification\n\nCCTK_INT FUNCTION MultiPatch_GetBoundarySpecification(CCTK_INT IN map, CCTK_INT IN size, CCTK_INT OUT ARRAY nboundaryzones, CCTK_INT OUT ARRAY is_internal, CCTK_INT OUT ARRAY is_staggered, CCTK_INT OUT ARRAY shiftout)\nUSES FUNCTION MultiPatch_GetBoundarySpecification\n\nCCTK_INT FUNCTION SymmetryTableHandleForGrid(CCTK_POINTER_TO_CONST IN cctkGH)\nUSES FUNCTION SymmetryTableHandleForGrid\n\nCCTK_INT FUNCTION Boundary_SelectGroupForBC(CCTK_POINTER_TO_CONST IN GH, CCTK_INT IN faces, CCTK_INT IN boundary_width, CCTK_INT IN table_handle, CCTK_STRING IN group_name, CCTK_STRING IN bc_name)\nUSES FUNCTION Boundary_SelectGroupForBC\n\nCCTK_INT FUNCTION Driver_SelectGroupForBC(CCTK_POINTER_TO_CONST IN GH, CCTK_INT IN faces, CCTK_INT IN boundary_width, CCTK_INT IN table_handle, CCTK_STRING IN group_name, CCTK_STRING IN bc_name)\nUSES FUNCTION Driver_SelectGroupForBC\n\nCCTK_INT FUNCTION Boundary_SelectVarForBC(CCTK_POINTER_TO_CONST IN GH, CCTK_INT IN faces, CCTK_INT IN boundary_width, CCTK_INT IN table_handle, CCTK_STRING IN var_name, CCTK_STRING IN bc_name)\nUSES FUNCTION Boundary_SelectVarForBC\n\nCCTK_INT FUNCTION Driver_SelectVarForBC(CCTK_POINTER_TO_CONST IN GH, CCTK_INT IN faces, CCTK_INT IN boundary_width, CCTK_INT IN table_handle, CCTK_STRING IN var_name, CCTK_STRING IN bc_name)\nUSES FUNCTION Driver_SelectVarForBC\n\npublic:\nCCTK_REAL CT_testinipsi type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testinipsi\n} \"CT_testinipsi\"\n\npublic:\nCCTK_REAL CT_testinixx type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testinixx\n} \"CT_testinixx\"\n\npublic:\nCCTK_REAL CT_testinixy type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testinixy\n} \"CT_testinixy\"\n\npublic:\nCCTK_REAL CT_testinixz type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testinixz\n} \"CT_testinixz\"\n\npublic:\nCCTK_REAL CT_epsi type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  epsi\n} \"CT_epsi\"\n\npublic:\nCCTK_REAL CT_elaplacian type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  elaplacian\n} \"CT_elaplacian\"\n\npublic:\nCCTK_REAL CT_testcxx type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testcxx\n} \"CT_testcxx\"\n\npublic:\nCCTK_REAL CT_testcxy type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testcxy\n} \"CT_testcxy\"\n\npublic:\nCCTK_REAL CT_testcxz type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testcxz\n} \"CT_testcxz\"\n\npublic:\nCCTK_REAL CT_testcyy type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testcyy\n} \"CT_testcyy\"\n\npublic:\nCCTK_REAL CT_testcyz type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testcyz\n} \"CT_testcyz\"\n\npublic:\nCCTK_REAL CT_testczz type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testczz\n} \"CT_testczz\"\n\npublic:\nCCTK_REAL CT_testcx type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testcx\n} \"CT_testcx\"\n\npublic:\nCCTK_REAL CT_testcy type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testcy\n} \"CT_testcy\"\n\npublic:\nCCTK_REAL CT_testcz type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testcz\n} \"CT_testcz\"\n\npublic:\nCCTK_REAL CT_testc0 type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testc0\n} \"CT_testc0\"\n\npublic:\nCCTK_REAL CT_testc1 type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testc1\n} \"CT_testc1\"\n\npublic:\nCCTK_REAL CT_testc2 type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testc2\n} \"CT_testc2\"\n\npublic:\nCCTK_REAL CT_testc3 type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testc3\n} \"CT_testc3\"\n\npublic:\nCCTK_REAL CT_testc4 type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testc4\n} \"CT_testc4\"\n\npublic:\nCCTK_REAL CT_testa0 type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testa0\n} \"CT_testa0\"\n\npublic:\nCCTK_REAL CT_testa1 type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testa1\n} \"CT_testa1\"\n\npublic:\nCCTK_REAL CT_testa2 type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testa2\n} \"CT_testa2\"\n\npublic:\nCCTK_REAL CT_testa3 type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testa3\n} \"CT_testa3\"\n\npublic:\nCCTK_REAL CT_testa4 type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testa4\n} \"CT_testa4\"\n\npublic:\nCCTK_REAL CT_testW type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testW\n} \"CT_testW\"\n\npublic:\nCCTK_REAL CT_testK type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testK\n} \"CT_testK\"\n\npublic:\nCCTK_REAL CT_testdxK type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testdxK\n} \"CT_testdxK\"\n\npublic:\nCCTK_REAL CT_testdyK type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testdyK\n} \"CT_testdyK\"\n\npublic:\nCCTK_REAL CT_testdzK type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testdzK\n} \"CT_testdzK\"\n\npublic:\nCCTK_REAL CT_testXx type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testXx\n} \"CT_testXx\"\n\npublic:\nCCTK_REAL CT_testXy type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testXy\n} \"CT_testXy\"\n\npublic:\nCCTK_REAL CT_testXz type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testXz\n} \"CT_testXz\"\n\npublic:\nCCTK_REAL CT_testZ type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testZ\n} \"CT_testZ\"\n\npublic:\nCCTK_REAL CT_testAxx type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testAxx\n} \"CT_testAxx\"\n\npublic:\nCCTK_REAL CT_testAxy type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testAxy\n} \"CT_testAxy\"\n\npublic:\nCCTK_REAL CT_testAxz type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testAxz\n} \"CT_testAxz\"\n\npublic:\nCCTK_REAL CT_testAyy type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testAyy\n} \"CT_testAyy\"\n\npublic:\nCCTK_REAL CT_testAyz type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testAyz\n} \"CT_testAyz\"\n\npublic:\nCCTK_REAL CT_testAzz type=GF timelevels=3 tags='tensortypealias=\"Scalar\" tensorweight=0'\n{\n  testAzz\n} \"CT_testAzz\"\n",
  "param": "# File produced by Kranc\n\n\nshares: GenericFD\n\nUSES CCTK_INT assume_stress_energy_state\n\n\nshares: MethodOfLines\n\nUSES CCTK_INT MoL_Num_Evolved_Vars\nUSES CCTK_INT MoL_Num_ArrayEvolved_Vars\n\nrestricted:\nCCTK_INT verbose \"verbose\" STEERABLE=ALWAYS\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_INT other_timelevels \"Number of active timelevels for non-evolved grid functions\" STEERABLE=RECOVER\n{\n  0:3 :: \"\"\n} 1\n\nrestricted:\nCCTK_REAL kx \"Wavelength parameter along x\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL ky \"Wavelength parameter along y\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL kz \"Wavelength parameter along z\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL ampG \"Coefficient of the gaussian term in the exact solution\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL ampS \"Coefficient of the sine term in the exact solution\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL ampC \"Constant coefficient in the exact solution\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL ampI \"Multiplication factor between initial guess and exact solution\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL ampC1 \"Initial value for testc1\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL ampSg \"Coefficient of the 1/r term in the exact solution\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL ampV \"Coefficient of the vector part in the exact solution\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL ampVG \"Coefficient of the vector part in the exact solution (gaussian term)\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL sigma \"Width of transition function in extrinsic curvature\"\n{\n  *:* :: \"\"\n} 1\n\nrestricted:\nCCTK_REAL l \"Location of transition function in extrinsic curvature\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL phasex \"Phase in the initial data for psi along x\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL phasey \"Phase in the initial data for psi along y\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL phasez \"Phase in the initial data for psi along z\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL Kc \"Coefficient of extrinsic curvature\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL Ke \"Coefficient of extrinsic curvature in exact solution\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL massa \"mass of first black hole\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL massb \"mass of second black hole\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL xa \"x-coordinate of first black hole for BY initial data\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL ya \"y-coordinate of first black hole for BY initial data\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL za \"z-coordinate of first black hole for BY initial data\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL xb \"x-coordinate of second black hole for BY initial data\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL yb \"y-coordinate of second black hole for BY initial data\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL zb \"z-coordinate of second black hole for BY initial data\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL Pax \"x-component of linear momentum of first black hole for BY initial data\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL Pay \"y-component of linear momentum of first black hole for BY initial data\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL Paz \"z-component of linear momentum of first black hole for BY initial data\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL Pbx \"x-component of linear momentum of second black hole for BY initial data\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL Pby \"y-component of linear momentum of second black hole for BY initial data\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL Pbz \"z-component of linear momentum of second black hole for BY initial data\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL eps \"Smoothing factor\"\n{\n  *:* :: \"\"\n} 1.e-6\n\nrestricted:\nCCTK_REAL edgeL \"Coordinate length of cell edge\"\n{\n  *:* :: \"\"\n} 10\n\nrestricted:\nCCTK_REAL rBall \"Coordinate radius of ball of density for Poisson's equation\"\n{\n  *:* :: \"\"\n} 1\n\nrestricted:\nCCTK_REAL vecA \"Coordinate center of gaussian representing the X^i vector in the CTT decomposition of the constraints\"\n{\n  *:* :: \"\"\n} 1\n\nrestricted:\nCCTK_REAL amp[5] \"Initial amplitude of peaks\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL x0[5] \"Initial x-locations of peaks\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL y0[5] \"Initial y-locations of peaks\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL z0[5] \"Initial z-locations of peaks\"\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_REAL sigmax[5] \"x-spreads of initial gaussians\"\n{\n  *:* :: \"\"\n} 1\n\nrestricted:\nCCTK_REAL sigmay[5] \"y-spreads of initial gaussians\"\n{\n  *:* :: \"\"\n} 1\n\nrestricted:\nCCTK_REAL sigmaz[5] \"z-spreads of initial gaussians\"\n{\n  *:* :: \"\"\n} 1\n\nrestricted:\nCCTK_INT imaxF \"Max number of Fourier modes to include in x direction\"\n{\n  *:* :: \"\"\n} 1\n\nrestricted:\nCCTK_INT jmaxF \"Max number of Fourier modes to include in y direction\"\n{\n  *:* :: \"\"\n} 1\n\nrestricted:\nCCTK_INT kmaxF \"Max number of Fourier modes to include in z direction\"\n{\n  *:* :: \"\"\n} 1\n\nrestricted:\nCCTK_INT tile_size \"Loop tile size\"\n{\n  *:* :: \"\"\n} -1\n\nprivate:\nCCTK_KEYWORD free_data \"How to set the free data for the extrinsic curvature?\"\n{\n  \"exact\" :: \"\"\n  \"Expanding BH lattice\" :: \"\"\n  \"Bowen-York\" :: \"\"\n  \"Poisson\" :: \"\"\n  \"Lump\" :: \"\"\n} \"exact\"\n\nrestricted:\nCCTK_INT CT_Analytic_MaxNumEvolvedVars \"Number of evolved variables used by this thorn\" ACCUMULATOR-BASE=MethodofLines::MoL_Num_Evolved_Vars STEERABLE=RECOVER\n{\n  0:0 :: \"Number of evolved variables used by this thorn\"\n} 0\n\nrestricted:\nCCTK_INT CT_Analytic_MaxNumArrayEvolvedVars \"Number of Array evolved variables used by this thorn\" ACCUMULATOR-BASE=MethodofLines::MoL_Num_ArrayEvolved_Vars STEERABLE=RECOVER\n{\n  0:0 :: \"Number of Array evolved variables used by this thorn\"\n} 0\n\nrestricted:\nCCTK_INT timelevels \"Number of active timelevels\" STEERABLE=RECOVER\n{\n  0:3 :: \"\"\n} 3\n\nrestricted:\nCCTK_INT rhs_timelevels \"Number of active RHS timelevels\" STEERABLE=RECOVER\n{\n  0:3 :: \"\"\n} 1\n\nrestricted:\nCCTK_INT CT_Analytic_Poisson_Calc_calc_every \"CT_Analytic_Poisson_Calc_calc_every\" STEERABLE=ALWAYS\n{\n  *:* :: \"\"\n} 1\n\nrestricted:\nCCTK_INT CT_Analytic_Exact_Calc_calc_every \"CT_Analytic_Exact_Calc_calc_every\" STEERABLE=ALWAYS\n{\n  *:* :: \"\"\n} 1\n\nrestricted:\nCCTK_INT CT_Analytic_ExpandingLattice_Calc_calc_every \"CT_Analytic_ExpandingLattice_Calc_calc_every\" STEERABLE=ALWAYS\n{\n  *:* :: \"\"\n} 1\n\nrestricted:\nCCTK_INT CT_Analytic_BY_Calc_calc_every \"CT_Analytic_BY_Calc_calc_every\" STEERABLE=ALWAYS\n{\n  *:* :: \"\"\n} 1\n\nrestricted:\nCCTK_INT CT_Analytic_Lump_Calc_calc_every \"CT_Analytic_Lump_Calc_calc_every\" STEERABLE=ALWAYS\n{\n  *:* :: \"\"\n} 1\n\nrestricted:\nCCTK_INT CT_Analytic_ExactBoundary_calc_every \"CT_Analytic_ExactBoundary_calc_every\" STEERABLE=ALWAYS\n{\n  *:* :: \"\"\n} 1\n\nrestricted:\nCCTK_INT CT_Analytic_LumpBoundary_calc_every \"CT_Analytic_LumpBoundary_calc_every\" STEERABLE=ALWAYS\n{\n  *:* :: \"\"\n} 1\n\nrestricted:\nCCTK_INT CT_Analytic_Poisson_Calc_calc_offset \"CT_Analytic_Poisson_Calc_calc_offset\" STEERABLE=ALWAYS\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_INT CT_Analytic_Exact_Calc_calc_offset \"CT_Analytic_Exact_Calc_calc_offset\" STEERABLE=ALWAYS\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_INT CT_Analytic_ExpandingLattice_Calc_calc_offset \"CT_Analytic_ExpandingLattice_Calc_calc_offset\" STEERABLE=ALWAYS\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_INT CT_Analytic_BY_Calc_calc_offset \"CT_Analytic_BY_Calc_calc_offset\" STEERABLE=ALWAYS\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_INT CT_Analytic_Lump_Calc_calc_offset \"CT_Analytic_Lump_Calc_calc_offset\" STEERABLE=ALWAYS\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_INT CT_Analytic_ExactBoundary_calc_offset \"CT_Analytic_ExactBoundary_calc_offset\" STEERABLE=ALWAYS\n{\n  *:* :: \"\"\n} 0\n\nrestricted:\nCCTK_INT CT_Analytic_LumpBoundary_calc_offset \"CT_Analytic_LumpBoundary_calc_offset\" STEERABLE=ALWAYS\n{\n  *:* :: \"\"\n} 0\n\n",
  "schedule": "# File produced by Kranc\n\nSTORAGE: CT_testinipsi[other_timelevels]\n\nSTORAGE: CT_testinixx[other_timelevels]\n\nSTORAGE: CT_testinixy[other_timelevels]\n\nSTORAGE: CT_testinixz[other_timelevels]\n\nSTORAGE: CT_epsi[other_timelevels]\n\nSTORAGE: CT_elaplacian[other_timelevels]\n\nSTORAGE: CT_testcxx[other_timelevels]\n\nSTORAGE: CT_testcxy[other_timelevels]\n\nSTORAGE: CT_testcxz[other_timelevels]\n\nSTORAGE: CT_testcyy[other_timelevels]\n\nSTORAGE: CT_testcyz[other_timelevels]\n\nSTORAGE: CT_testczz[other_timelevels]\n\nSTORAGE: CT_testcx[other_timelevels]\n\nSTORAGE: CT_testcy[other_timelevels]\n\nSTORAGE: CT_testcz[other_timelevels]\n\nSTORAGE: CT_testc0[other_timelevels]\n\nSTORAGE: CT_testc1[other_timelevels]\n\nSTORAGE: CT_testc2[other_timelevels]\n\nSTORAGE: CT_testc3[other_timelevels]\n\nSTORAGE: CT_testc4[other_timelevels]\n\nSTORAGE: CT_testa0[other_timelevels]\n\nSTORAGE: CT_testa1[other_timelevels]\n\nSTORAGE: CT_testa2[other_timelevels]\n\nSTORAGE: CT_testa3[other_timelevels]\n\nSTORAGE: CT_testa4[other_timelevels]\n\nSTORAGE: CT_testW[other_timelevels]\n\nSTORAGE: CT_testK[other_timelevels]\n\nSTORAGE: CT_testdxK[other_timelevels]\n\nSTORAGE: CT_testdyK[other_timelevels]\n\nSTORAGE: CT_testdzK[other_timelevels]\n\nSTORAGE: CT_testXx[other_timelevels]\n\nSTORAGE: CT_testXy[other_timelevels]\n\nSTORAGE: CT_testXz[other_timelevels]\n\nSTORAGE: CT_testZ[other_timelevels]\n\nSTORAGE: CT_testAxx[other_timelevels]\n\nSTORAGE: CT_testAxy[other_timelevels]\n\nSTORAGE: CT_testAxz[other_timelevels]\n\nSTORAGE: CT_testAyy[other_timelevels]\n\nSTORAGE: CT_testAyz[other_timelevels]\n\nSTORAGE: CT_testAzz[other_timelevels]\nschedule CT_Analytic_Startup at STARTUP\n{\n  LANG: C\n  OPTIONS: meta\n} \"create banner\"\n\nschedule CT_Analytic_RegisterSymmetries in SymmetryRegister\n{\n  LANG: C\n  OPTIONS: meta\n} \"register symmetries\"\n\nif (CCTK_EQUALS(free_data, \"Poisson\"))\n{\n  schedule CT_Analytic_Poisson_Calc AT CCTK_INITIAL before CT_MultiLevel\n  {\n    LANG: C\n    READS: grid::r(Everywhere)\n    WRITES: CT_Analytic::epsi(Everywhere)\n    WRITES: CT_Analytic::testc0(Everywhere)\n    WRITES: CT_Analytic::testc1(Everywhere)\n    WRITES: CT_Analytic::testc2(Everywhere)\n    WRITES: CT_Analytic::testc3(Everywhere)\n    WRITES: CT_Analytic::testc4(Everywhere)\n    WRITES: CT_Analytic::testcx(Everywhere)\n    WRITES: CT_Analytic::testcxx(Everywhere)\n    WRITES: CT_Analytic::testcxy(Everywhere)\n    WRITES: CT_Analytic::testcxz(Everywhere)\n    WRITES: CT_Analytic::testcy(Everywhere)\n    WRITES: CT_Analytic::testcyy(Everywhere)\n    WRITES: CT_Analytic::testcyz(Everywhere)\n    WRITES: CT_Analytic::testcz(Everywhere)\n    WRITES: CT_Analytic::testczz(Everywhere)\n    WRITES: CT_Analytic::testinipsi(Everywhere)\n    WRITES: CT_Analytic::testK(Everywhere)\n    WRITES: CT_Analytic::testW(Everywhere)\n    WRITES: CT_Analytic::testXx(Everywhere)\n    WRITES: CT_Analytic::testXy(Everywhere)\n    WRITES: CT_Analytic::testXz(Everywhere)\n    WRITES: CT_Analytic::testZ(Everywhere)\n  } \"CT_Analytic_Poisson_Calc\"\n}\n\nif (CCTK_EQUALS(free_data, \"exact\"))\n{\n  schedule CT_Analytic_Exact_Calc AT CCTK_INITIAL before CT_MultiLevel\n  {\n    LANG: C\n    READS: grid::x(Everywhere)\n    READS: grid::y(Everywhere)\n    READS: grid::z(Everywhere)\n    WRITES: CT_Analytic::elaplacian(Everywhere)\n    WRITES: CT_Analytic::epsi(Everywhere)\n    WRITES: CT_Analytic::testc0(Everywhere)\n    WRITES: CT_Analytic::testc1(Everywhere)\n    WRITES: CT_Analytic::testc2(Everywhere)\n    WRITES: CT_Analytic::testc3(Everywhere)\n    WRITES: CT_Analytic::testc4(Everywhere)\n    WRITES: CT_Analytic::testcx(Everywhere)\n    WRITES: CT_Analytic::testcxx(Everywhere)\n    WRITES: CT_Analytic::testcxy(Everywhere)\n    WRITES: CT_Analytic::testcxz(Everywhere)\n    WRITES: CT_Analytic::testcy(Everywhere)\n    WRITES: CT_Analytic::testcyy(Everywhere)\n    WRITES: CT_Analytic::testcyz(Everywhere)\n    WRITES: CT_Analytic::testcz(Everywhere)\n    WRITES: CT_Analytic::testczz(Everywhere)\n    WRITES: CT_Analytic::testinipsi(Everywhere)\n  } \"CT_Analytic_Exact_Calc\"\n}\n\nif (CCTK_EQUALS(free_data, \"Expanding BH lattice\"))\n{\n  schedule CT_Analytic_ExpandingLattice_Calc AT CCTK_INITIAL before CT_MultiLevel\n  {\n    LANG: C\n    READS: grid::x(Everywhere)\n    READS: grid::y(Everywhere)\n    READS: grid::z(Everywhere)\n    READS: grid::r(Everywhere)\n    WRITES: CT_Analytic::epsi(Everywhere)\n    WRITES: CT_Analytic::testa0(Everywhere)\n    WRITES: CT_Analytic::testc0(Everywhere)\n    WRITES: CT_Analytic::testc1(Everywhere)\n    WRITES: CT_Analytic::testc2(Everywhere)\n    WRITES: CT_Analytic::testc3(Everywhere)\n    WRITES: CT_Analytic::testcxx(Everywhere)\n    WRITES: CT_Analytic::testcyy(Everywhere)\n    WRITES: CT_Analytic::testczz(Everywhere)\n    WRITES: CT_Analytic::testdxK(Everywhere)\n    WRITES: CT_Analytic::testdyK(Everywhere)\n    WRITES: CT_Analytic::testdzK(Everywhere)\n    WRITES: CT_Analytic::testinipsi(Everywhere)\n    WRITES: CT_Analytic::testK(Everywhere)\n    WRITES: CT_Analytic::testW(Everywhere)\n    WRITES: CT_Analytic::testXx(Everywhere)\n    WRITES: CT_Analytic::testXy(Everywhere)\n    WRITES: CT_Analytic::testXz(Everywhere)\n  } \"CT_Analytic_ExpandingLattice_Calc\"\n}\n\nif (CCTK_EQUALS(free_data, \"Bowen-York\"))\n{\n  schedule CT_Analytic_BY_Calc AT CCTK_INITIAL before CT_MultiLevel\n  {\n    LANG: C\n    READS: grid::x(Everywhere)\n    READS: grid::y(Everywhere)\n    READS: grid::z(Everywhere)\n    WRITES: CT_Analytic::epsi(Everywhere)\n    WRITES: CT_Analytic::testa0(Everywhere)\n    WRITES: CT_Analytic::testa1(Everywhere)\n    WRITES: CT_Analytic::testAxx(Everywhere)\n    WRITES: CT_Analytic::testAxy(Everywhere)\n    WRITES: CT_Analytic::testAxz(Everywhere)\n    WRITES: CT_Analytic::testAyy(Everywhere)\n    WRITES: CT_Analytic::testAyz(Everywhere)\n    WRITES: CT_Analytic::testAzz(Everywhere)\n    WRITES: CT_Analytic::testcxx(Everywhere)\n    WRITES: CT_Analytic::testcyy(Everywhere)\n    WRITES: CT_Analytic::testczz(Everywhere)\n    WRITES: CT_Analytic::testdxK(Everywhere)\n    WRITES: CT_Analytic::testdyK(Everywhere)\n    WRITES: CT_Analytic::testdzK(Everywhere)\n    WRITES: CT_Analytic::testinipsi(Everywhere)\n    WRITES: CT_Analytic::testK(Everywhere)\n    WRITES: CT_Analytic::testXx(Everywhere)\n    WRITES: CT_Analytic::testXy(Everywhere)\n    WRITES: CT_Analytic::testXz(Everywhere)\n    WRITES: CT_Analytic::testZ(Everywhere)\n  } \"CT_Analytic_BY_Calc\"\n}\n\nif (CCTK_EQUALS(free_data, \"Lump\"))\n{\n  schedule CT_Analytic_Lump_Calc AT CCTK_INITIAL before CT_MultiLevel\n  {\n    LANG: C\n    READS: grid::x(Everywhere)\n    READS: grid::y(Everywhere)\n    READS: grid::z(Everywhere)\n    WRITES: CT_Analytic::elaplacian(Everywhere)\n    WRITES: CT_Analytic::epsi(Everywhere)\n    WRITES: CT_Analytic::testa0(Everywhere)\n    WRITES: CT_Analytic::testc0(Everywhere)\n    WRITES: CT_Analytic::testc1(Everywhere)\n    WRITES: CT_Analytic::testc2(Everywhere)\n    WRITES: CT_Analytic::testc3(Everywhere)\n    WRITES: CT_Analytic::testc4(Everywhere)\n    WRITES: CT_Analytic::testcx(Everywhere)\n    WRITES: CT_Analytic::testcxx(Everywhere)\n    WRITES: CT_Analytic::testcxy(Everywhere)\n    WRITES: CT_Analytic::testcxz(Everywhere)\n    WRITES: CT_Analytic::testcy(Everywhere)\n    WRITES: CT_Analytic::testcyy(Everywhere)\n    WRITES: CT_Analytic::testcyz(Everywhere)\n    WRITES: CT_Analytic::testcz(Everywhere)\n    WRITES: CT_Analytic::testczz(Everywhere)\n    WRITES: CT_Analytic::testdxK(Everywhere)\n    WRITES: CT_Analytic::testdyK(Everywhere)\n    WRITES: CT_Analytic::testdzK(Everywhere)\n    WRITES: CT_Analytic::testinipsi(Everywhere)\n    WRITES: CT_Analytic::testinixx(Everywhere)\n    WRITES: CT_Analytic::testinixy(Everywhere)\n    WRITES: CT_Analytic::testinixz(Everywhere)\n    WRITES: CT_Analytic::testK(Everywhere)\n    WRITES: CT_Analytic::testXx(Everywhere)\n    WRITES: CT_Analytic::testXy(Everywhere)\n    WRITES: CT_Analytic::testXz(Everywhere)\n  } \"CT_Analytic_Lump_Calc\"\n}\n\nif (CCTK_EQUALS(free_data, \"exact\"))\n{\n  schedule CT_Analytic_ExactBoundary AT CCTK_INITIAL before CT_MultiLevel after CT_Analytic_Calc\n  {\n    LANG: C\n    SYNC: CT_testinipsi\n    READS: grid::x(Everywhere)\n    READS: grid::y(Everywhere)\n    READS: grid::z(Everywhere)\n    WRITES: CT_Analytic::testinipsi(Boundary)\n  } \"CT_Analytic_ExactBoundary\"\n}\n\nif (CCTK_EQUALS(free_data, \"Lump\"))\n{\n  schedule CT_Analytic_LumpBoundary AT CCTK_INITIAL before CT_MultiLevel after CT_Analytic_Calc\n  {\n    LANG: C\n    SYNC: CT_testinipsi\n    SYNC: CT_testinixx\n    SYNC: CT_testinixy\n    SYNC: CT_testinixz\n    READS: grid::x(Everywhere)\n    READS: grid::y(Everywhere)\n    READS: grid::z(Everywhere)\n    WRITES: CT_Analytic::testinipsi(Boundary)\n    WRITES: CT_Analytic::testinixx(Boundary)\n    WRITES: CT_Analytic::testinixy(Boundary)\n    WRITES: CT_Analytic::testinixz(Boundary)\n  } \"CT_Analytic_LumpBoundary\"\n}\n\nschedule CT_Analytic_SelectBoundConds in MoL_PostStep\n{\n  LANG: C\n  OPTIONS: level\n} \"select boundary conditions\"\n\nschedule CT_Analytic_CheckBoundaries at BASEGRID\n{\n  LANG: C\n  OPTIONS: meta\n} \"check boundaries treatment\"\n\nschedule CT_Analytic_RegisterVars in MoL_Register\n{\n  LANG: C\n  OPTIONS: meta\n} \"Register Variables for MoL\"\nschedule group ApplyBCs as CT_Analytic_ApplyBCs in MoL_PostStep after CT_Analytic_SelectBoundConds\n{\n} \"Apply boundary conditions controlled by thorn Boundary\"\n",
  "src": {
    "CT_Analytic_LumpBoundary.cc": "/*  File produced by Kranc */\n\n#define KRANC_C\n\n#include <algorithm>\n#include <assert.h>\n#include <math.h>\n#include <stdio.h>\n#include <stdlib.h>\n#include <string.h>\n#include \"cctk.h\"\n#include \"cctk_Arguments.h\"\n#include \"cctk_Parameters.h\"\n#include \"Kranc.hh\"\n#include \"Differencing.h\"\n#include \"loopcontrol.h\"\n\nnamespace CT_Analytic {\n\nextern \"C\" void CT_Analytic_LumpBoundary_SelectBCs(CCTK_ARGUMENTS)\n{\n  #ifdef DECLARE_CCTK_ARGUMENTS_CT_Analytic_LumpBoundary_SelectBCs\n  DECLARE_CCTK_ARGUMENTS_CHECKED(CT_Analytic_LumpBoundary_SelectBCs);\n  #else\n  DECLARE_CCTK_ARGUMENTS;\n  #endif\n  DECLARE_CCTK_PARAMETERS;\n  \n  if (cctk_iteration % CT_Analytic_LumpBoundary_calc_every != CT_Analytic_LumpBoundary_calc_offset)\n    return;\n  CCTK_INT ierr CCTK_ATTRIBUTE_UNUSED = 0;\n  ierr = KrancBdy_SelectGroupForBC(cctkGH, CCTK_ALL_FACES, GetBoundaryWidth(cctkGH), -1 /* no table */, \"CT_Analytic::CT_testinipsi\",\"flat\");\n  if (ierr < 0)\n    CCTK_WARN(CCTK_WARN_ALERT, \"Failed to register flat BC for CT_Analytic::CT_testinipsi.\");\n  ierr = KrancBdy_SelectGroupForBC(cctkGH, CCTK_ALL_FACES, GetBoundaryWidth(cctkGH), -1 /* no table */, \"CT_Analytic::CT_testinixx\",\"flat\");\n  if (ierr < 0)\n    CCTK_WARN(CCTK_WARN_ALERT, \"Failed to register flat BC for CT_Analytic::CT_testinixx.\");\n  ierr = KrancBdy_SelectGroupForBC(cctkGH, CCTK_ALL_FACES, GetBoundaryWidth(cctkGH), -1 /* no table */, \"CT_Analytic::CT_testinixy\",\"flat\");\n  if (ierr < 0)\n    CCTK_WARN(CCTK_WARN_ALERT, \"Failed to register flat BC for CT_Analytic::CT_testinixy.\");\n  ierr = KrancBdy_SelectGroupForBC(cctkGH, CCTK_ALL_FACES, GetBoundaryWidth(cctkGH), -1 /* no table */, \"CT_Analytic::CT_testinixz\",\"flat\");\n  if (ierr < 0)\n    CCTK_WARN(CCTK_WARN_ALERT, \"Failed to register flat BC for CT_Analytic::CT_testinixz.\");\n  return;\n}\n\nstatic void CT_Analytic_LumpBoundary_Body(const cGH* restrict const cctkGH, const int dir, const int face, const CCTK_REAL normal[3], const CCTK_REAL tangentA[3], const CCTK_REAL tangentB[3], const int imin[3], const int imax[3], const int n_subblock_gfs, CCTK_REAL* restrict const subblock_gfs[])\n{\n  DECLARE_CCTK_ARGUMENTS;\n  DECLARE_CCTK_PARAMETERS;\n  \n  /* Include user-supplied include files */\n  /* Initialise finite differencing variables */\n  const ptrdiff_t di CCTK_ATTRIBUTE_UNUSED = 1;\n  const ptrdiff_t dj CCTK_ATTRIBUTE_UNUSED = \n    CCTK_GFINDEX3D(cctkGH,0,1,0) - CCTK_GFINDEX3D(cctkGH,0,0,0);\n  const ptrdiff_t dk CCTK_ATTRIBUTE_UNUSED = \n    CCTK_GFINDEX3D(cctkGH,0,0,1) - CCTK_GFINDEX3D(cctkGH,0,0,0);\n  const ptrdiff_t cdi CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL) * di;\n  const ptrdiff_t cdj CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL) * dj;\n  const ptrdiff_t cdk CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL) * dk;\n  const ptrdiff_t cctkLbnd1 CCTK_ATTRIBUTE_UNUSED = cctk_lbnd[0];\n  const ptrdiff_t cctkLbnd2 CCTK_ATTRIBUTE_UNUSED = cctk_lbnd[1];\n  const ptrdiff_t cctkLbnd3 CCTK_ATTRIBUTE_UNUSED = cctk_lbnd[2];\n  const CCTK_REAL t CCTK_ATTRIBUTE_UNUSED = cctk_time;\n  const CCTK_REAL cctkOriginSpace1 CCTK_ATTRIBUTE_UNUSED = \n    CCTK_ORIGIN_SPACE(0);\n  const CCTK_REAL cctkOriginSpace2 CCTK_ATTRIBUTE_UNUSED = \n    CCTK_ORIGIN_SPACE(1);\n  const CCTK_REAL cctkOriginSpace3 CCTK_ATTRIBUTE_UNUSED = \n    CCTK_ORIGIN_SPACE(2);\n  const CCTK_REAL dt CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_TIME;\n  const CCTK_REAL dx CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_SPACE(0);\n  const CCTK_REAL dy CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_SPACE(1);\n  const CCTK_REAL dz CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_SPACE(2);\n  const CCTK_REAL dxi CCTK_ATTRIBUTE_UNUSED = pow(dx,-1);\n  const CCTK_REAL dyi CCTK_ATTRIBUTE_UNUSED = pow(dy,-1);\n  const CCTK_REAL dzi CCTK_ATTRIBUTE_UNUSED = pow(dz,-1);\n  const CCTK_REAL khalf CCTK_ATTRIBUTE_UNUSED = 0.5;\n  const CCTK_REAL kthird CCTK_ATTRIBUTE_UNUSED = \n    0.333333333333333333333333333333;\n  const CCTK_REAL ktwothird CCTK_ATTRIBUTE_UNUSED = \n    0.666666666666666666666666666667;\n  const CCTK_REAL kfourthird CCTK_ATTRIBUTE_UNUSED = \n    1.33333333333333333333333333333;\n  const CCTK_REAL hdxi CCTK_ATTRIBUTE_UNUSED = 0.5*dxi;\n  const CCTK_REAL hdyi CCTK_ATTRIBUTE_UNUSED = 0.5*dyi;\n  const CCTK_REAL hdzi CCTK_ATTRIBUTE_UNUSED = 0.5*dzi;\n  /* Initialize predefined quantities */\n  const CCTK_REAL p1o12dx CCTK_ATTRIBUTE_UNUSED = 0.0833333333333333333333333333333*pow(dx,-1);\n  const CCTK_REAL p1o12dy CCTK_ATTRIBUTE_UNUSED = 0.0833333333333333333333333333333*pow(dy,-1);\n  const CCTK_REAL p1o12dz CCTK_ATTRIBUTE_UNUSED = 0.0833333333333333333333333333333*pow(dz,-1);\n  const CCTK_REAL p1o144dxdy CCTK_ATTRIBUTE_UNUSED = 0.00694444444444444444444444444444*pow(dx,-1)*pow(dy,-1);\n  const CCTK_REAL p1o144dxdz CCTK_ATTRIBUTE_UNUSED = 0.00694444444444444444444444444444*pow(dx,-1)*pow(dz,-1);\n  const CCTK_REAL p1o144dydz CCTK_ATTRIBUTE_UNUSED = 0.00694444444444444444444444444444*pow(dy,-1)*pow(dz,-1);\n  const CCTK_REAL pm1o12dx2 CCTK_ATTRIBUTE_UNUSED = -0.0833333333333333333333333333333*pow(dx,-2);\n  const CCTK_REAL pm1o12dy2 CCTK_ATTRIBUTE_UNUSED = -0.0833333333333333333333333333333*pow(dy,-2);\n  const CCTK_REAL pm1o12dz2 CCTK_ATTRIBUTE_UNUSED = -0.0833333333333333333333333333333*pow(dz,-2);\n  /* Assign local copies of arrays functions */\n  \n  \n  /* Calculate temporaries and arrays functions */\n  /* Copy local copies back to grid functions */\n  /* Loop over the grid points */\n  const int imin0=imin[0];\n  const int imin1=imin[1];\n  const int imin2=imin[2];\n  const int imax0=imax[0];\n  const int imax1=imax[1];\n  const int imax2=imax[2];\n  #pragma omp parallel\n  CCTK_LOOP3(CT_Analytic_LumpBoundary,\n    i,j,k, imin0,imin1,imin2, imax0,imax1,imax2,\n    cctk_ash[0],cctk_ash[1],cctk_ash[2])\n  {\n    const ptrdiff_t index CCTK_ATTRIBUTE_UNUSED = di*i + dj*j + dk*k;\n    /* Assign local copies of grid functions */\n    \n    CCTK_REAL xL CCTK_ATTRIBUTE_UNUSED = x[index];\n    CCTK_REAL yL CCTK_ATTRIBUTE_UNUSED = y[index];\n    CCTK_REAL zL CCTK_ATTRIBUTE_UNUSED = z[index];\n    \n    /* Include user supplied include files */\n    /* Precompute derivatives */\n    /* Calculate temporaries and grid functions */\n    CCTK_REAL testinipsiL CCTK_ATTRIBUTE_UNUSED = ampC + \n      ampG*((amp[0])*exp(-0.5*pow((sigmax[0]),-2)*pow(-(x0[0]) + xL,2) - \n      0.5*pow((sigmay[0]),-2)*pow(-(y0[0]) + yL,2) - \n      0.5*pow((sigmaz[0]),-2)*pow(-(z0[0]) + zL,2)) + \n      (amp[1])*exp(-0.5*pow((sigmax[1]),-2)*pow(-(x0[1]) + xL,2) - \n      0.5*pow((sigmay[1]),-2)*pow(-(y0[1]) + yL,2) - \n      0.5*pow((sigmaz[1]),-2)*pow(-(z0[1]) + zL,2)) + \n      (amp[2])*exp(-0.5*pow((sigmax[2]),-2)*pow(-(x0[2]) + xL,2) - \n      0.5*pow((sigmay[2]),-2)*pow(-(y0[2]) + yL,2) - \n      0.5*pow((sigmaz[2]),-2)*pow(-(z0[2]) + zL,2)) + \n      (amp[3])*exp(-0.5*pow((sigmax[3]),-2)*pow(-(x0[3]) + xL,2) - \n      0.5*pow((sigmay[3]),-2)*pow(-(y0[3]) + yL,2) - \n      0.5*pow((sigmaz[3]),-2)*pow(-(z0[3]) + zL,2)) + \n      (amp[4])*exp(-0.5*pow((sigmax[4]),-2)*pow(-(x0[4]) + xL,2) - \n      0.5*pow((sigmay[4]),-2)*pow(-(y0[4]) + yL,2) - \n      0.5*pow((sigmaz[4]),-2)*pow(-(z0[4]) + zL,2))) + \n      ampS*sin(6.283185307179586476925286766559005768394*(xL*kx + \n      phasex))*sin(6.283185307179586476925286766559005768394*(yL*ky + \n      phasey))*sin(6.283185307179586476925286766559005768394*(zL*kz + \n      phasez));\n    \n    CCTK_REAL testinixxL CCTK_ATTRIBUTE_UNUSED = \n      ampVG*(exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + pow(xL - \n      vecA,2))) - exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + pow(xL + \n      vecA,2)))) + \n      ampV*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*zL*kz);\n    \n    CCTK_REAL testinixyL CCTK_ATTRIBUTE_UNUSED = \n      ampVG*(exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) + pow(yL - \n      vecA,2))) - exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) + pow(yL + \n      vecA,2)))) + \n      ampV*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*zL*kz);\n    \n    CCTK_REAL testinixzL CCTK_ATTRIBUTE_UNUSED = \n      ampVG*(exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) + pow(zL - \n      vecA,2))) - exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) + pow(zL + \n      vecA,2)))) + \n      ampV*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*zL*kz);\n    /* Copy local copies back to grid functions */\n    testinipsi[index] = testinipsiL;\n    testinixx[index] = testinixxL;\n    testinixy[index] = testinixyL;\n    testinixz[index] = testinixzL;\n  }\n  CCTK_ENDLOOP3(CT_Analytic_LumpBoundary);\n}\nextern \"C\" void CT_Analytic_LumpBoundary(CCTK_ARGUMENTS)\n{\n  #ifdef DECLARE_CCTK_ARGUMENTS_CT_Analytic_LumpBoundary\n  DECLARE_CCTK_ARGUMENTS_CHECKED(CT_Analytic_LumpBoundary);\n  #else\n  DECLARE_CCTK_ARGUMENTS;\n  #endif\n  DECLARE_CCTK_PARAMETERS;\n  \n  if (verbose > 1)\n  {\n    CCTK_VInfo(CCTK_THORNSTRING,\"Entering CT_Analytic_LumpBoundary_Body\");\n  }\n  if (cctk_iteration % CT_Analytic_LumpBoundary_calc_every != CT_Analytic_LumpBoundary_calc_offset)\n  {\n    return;\n  }\n  \n  const char* const groups[] = {\n    \"CT_Analytic::CT_testinipsi\",\n    \"CT_Analytic::CT_testinixx\",\n    \"CT_Analytic::CT_testinixy\",\n    \"CT_Analytic::CT_testinixz\",\n    \"grid::coordinates\"};\n  AssertGroupStorage(cctkGH, \"CT_Analytic_LumpBoundary\", 5, groups);\n  \n  \n  LoopOverBoundary(cctkGH, CT_Analytic_LumpBoundary_Body);\n  if (verbose > 1)\n  {\n    CCTK_VInfo(CCTK_THORNSTRING,\"Leaving CT_Analytic_LumpBoundary_Body\");\n  }\n}\n\n} // namespace CT_Analytic\n",
    "make.code.defn": "# File produced by Kranc\n\nSRCS = Boundaries.cc CT_Analytic_BY_Calc.cc CT_Analytic_ExactBoundary.cc CT_Analytic_Exact_Calc.cc CT_Analytic_ExpandingLattice_Calc.cc CT_Analytic_LumpBoundary.cc CT_Analytic_Lump_Calc.cc CT_Analytic_Poisson_Calc.cc Kranc.cc RegisterMoL.cc RegisterSymmetries.cc Startup.cc \n",
    "Kranc.cc": "\n/*  Copyright 2014 Ian Hinder\n\n    This file is part of Kranc.\n\n    Kranc is free software; you can redistribute it and/or modify\n    it under the terms of the GNU General Public License as published by\n    the Free Software Foundation; either version 2 of the License, or\n    (at your option) any later version.\n\n    Kranc is distributed in the hope that it will be useful,\n    but WITHOUT ANY WARRANTY; without even the implied warranty of\n    MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.  See the\n    GNU General Public License for more details.\n\n    You should have received a copy of the GNU General Public License\n    along with Kranc; if not, write to the Free Software\n    Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA  02111-1307  USA\n*/\n                                             \n#include <assert.h>\n#include <math.h>\n#include <stdio.h>\n#include <stdlib.h>\n\n#include <cctk.h>\n#include <cctk_Arguments.h>\n#include <cctk_Parameters.h>\n#include <util_Table.h>\n\n#include <Symmetry.h>\n            \n#include \"Kranc.hh\"\n\nnamespace CT_Analytic {\n\n/*********************************************************************\n * GetBoundaryWidths\n *********************************************************************/\n\nvoid GetBoundaryWidths(cGH const * restrict const cctkGH, CCTK_INT nboundaryzones[6])\n{\n  CCTK_INT is_internal[6];\n  CCTK_INT is_staggered[6];\n  CCTK_INT shiftout[6];\n  int ierr = -1;\n\n  if (CCTK_IsFunctionAliased (\"MultiPatch_GetBoundarySpecification\")) {\n    int const map = MultiPatch_GetMap (cctkGH);\n    /* This doesn't make sense in level mode */\n    if (map < 0)\n    {\n      static int have_warned = 0;\n      if (!have_warned)\n      {\n        CCTK_WARN(1, \"GetBoundaryWidths: Could not determine current map (can be caused by calling in LEVEL mode)\");\n        have_warned = 1;\n      }\n      for (int i = 0; i < 6; i++)\n        nboundaryzones[i] = 0;\n      return;\n    }\n    ierr = MultiPatch_GetBoundarySpecification\n      (map, 6, nboundaryzones, is_internal, is_staggered, shiftout);\n    if (ierr != 0)\n      CCTK_WARN(0, \"Could not obtain boundary specification\");\n  } else if (CCTK_IsFunctionAliased (\"GetBoundarySpecification\")) {\n    ierr = GetBoundarySpecification\n      (6, nboundaryzones, is_internal, is_staggered, shiftout);\n    if (ierr != 0)\n      CCTK_WARN(0, \"Could not obtain boundary specification\");\n  } else {\n    CCTK_WARN(0, \"Could not obtain boundary specification\");\n  }\n}\n\n/*********************************************************************\n * GetBoundaryWidth\n *********************************************************************/\n\nint GetBoundaryWidth(cGH const * restrict const cctkGH)\n{\n  CCTK_INT nboundaryzones[6];\n  GetBoundaryWidths(cctkGH, nboundaryzones);\n\n  int bw = nboundaryzones[0];\n\n  for (int i = 1; i < 6; i++)\n    if (nboundaryzones[i] != bw)\n    CCTK_WARN(0, \"Number of boundary points is different on different faces\");\n\n  return bw;\n}\n\n/*********************************************************************\n * GetBoundaryInfo\n *********************************************************************/\n\n/* Return the array indices in imin and imax for looping over the\n   interior of the grid. imin is the index of the first grid point.\n   imax is the index of the last grid point plus 1.  So a loop over\n   the interior of the grid would be\n\n   for (i = imin; i < imax; i++)\n\n   The indexing is C-style. Also return whether the boundary is a\n   symmetry, physical or interprocessor boundary.  Carpet refinement\n   boundaries are treated as interprocessor boundaries.\n*/\nvoid GetBoundaryInfo(cGH const * restrict const cctkGH,\n                               int const * restrict const cctk_ash,\n                               int const * restrict const cctk_lsh,\n                               int const * restrict const cctk_bbox,\n\t\t\t       int const * restrict const cctk_nghostzones,\n                               int * restrict const imin, \n\t\t\t       int * restrict const imax,\n                               int * restrict const is_symbnd, \n\t\t\t       int * restrict const is_physbnd,\n                               int * restrict const is_ipbnd)\n{\n  CCTK_INT bbox[6];\n  CCTK_INT nboundaryzones[6];\n  CCTK_INT is_internal[6];\n  CCTK_INT is_staggered[6];\n  CCTK_INT shiftout[6];\n  CCTK_INT symbnd[6];\n\n  int symtable = 0;\n  int dir = 0;\n  int face = 0;\n  int npoints = 0;\n  int iret = 0;\n  int ierr = 0;\n\n  if (CCTK_IsFunctionAliased (\"MultiPatch_GetBbox\")) {\n    ierr = MultiPatch_GetBbox (cctkGH, 6, bbox);\n    if (ierr != 0)\n      CCTK_WARN(0, \"Could not obtain bbox specification\");\n  } else {\n    for (dir = 0; dir < 6; dir++)\n    {\n      bbox[dir] = 0;\n    }\n  }\n\n  if (CCTK_IsFunctionAliased (\"MultiPatch_GetBoundarySpecification\")) {\n    int const map = MultiPatch_GetMap (cctkGH);\n    if (map < 0)\n      CCTK_WARN(0, \"Could not obtain boundary specification\");\n    ierr = MultiPatch_GetBoundarySpecification\n      (map, 6, nboundaryzones, is_internal, is_staggered, shiftout);\n    if (ierr != 0)\n      CCTK_WARN(0, \"Could not obtain boundary specification\");\n  } else if (CCTK_IsFunctionAliased (\"GetBoundarySpecification\")) {\n    ierr = GetBoundarySpecification\n      (6, nboundaryzones, is_internal, is_staggered, shiftout);\n    if (ierr != 0)\n      CCTK_WARN(0, \"Could not obtain boundary specification\");\n  } else {\n    CCTK_WARN(0, \"Could not obtain boundary specification\");\n  }\n\n  symtable = SymmetryTableHandleForGrid(cctkGH);\n  if (symtable < 0) \n  {\n    CCTK_WARN(0, \"Could not obtain symmetry table\");\n  }  \n  \n  iret = Util_TableGetIntArray(symtable, 6, symbnd, \"symmetry_handle\");\n  if (iret != 6) CCTK_WARN (0, \"Could not obtain symmetry information\");\n\n  for (dir = 0; dir < 6; dir++)\n  {\n    is_ipbnd[dir] = (!cctk_bbox[dir]);\n    is_symbnd[dir] = (!is_ipbnd[dir] && symbnd[dir] >= 0 && !bbox[dir]);\n    is_physbnd[dir] = (!is_ipbnd[dir] && !is_symbnd[dir]);\n  }\n\n  for (dir = 0; dir < 3; dir++)\n  {\n    for (face = 0; face < 2; face++)\n    {\n      int index = dir*2 + face;\n      if (is_ipbnd[index])\n      {\n\t/* Inter-processor boundary */\n\tnpoints = cctk_nghostzones[dir];\n      }\n      else\n      {\n\t/* Symmetry or physical boundary */\n\tnpoints = nboundaryzones[index];\n             \n\tif (is_symbnd[index])\n\t{\n\t  /* Ensure that the number of symmetry zones is the same\n\t     as the number of ghost zones */\n\t  if (npoints != cctk_nghostzones[dir])\n\t  {\n\t    CCTK_WARN (1, \"The number of symmetry points is different from the number of ghost points; this is probably an error\");\n\t  }\n\t}\n      }\n\n      switch(face)\n      {\n      case 0: /* Lower boundary */\n\timin[dir] = npoints;\n\tbreak;\n      case 1: /* Upper boundary */\n\timax[dir] = cctk_lsh[dir] - npoints;\n\tbreak;\n      default:\n\tCCTK_WARN(0, \"internal error\");\n      }\n    }\n  }\n}\n\n/*********************************************************************\n * LoopOverEverything\n *********************************************************************/\n\nvoid LoopOverEverything(cGH const * restrict const cctkGH, Kranc_Calculation const calc)\n{\n  DECLARE_CCTK_ARGUMENTS\n\n  int   dir = 0;\n  int   face = 0;\n  CCTK_REAL  normal[] = {0,0,0};\n  CCTK_REAL  tangentA[] = {0,0,0};\n  CCTK_REAL  tangentB[] = {0,0,0};\n  int   bmin[] = {0,0,0};\n  int   bmax[] = {cctk_lsh[0],cctk_lsh[1],cctk_lsh[2]};\n\n  calc(cctkGH, dir, face, normal, tangentA, tangentB, bmin, bmax, 0, NULL);\n  return;\n}\n\n/*********************************************************************\n * LoopOverBoundary\n *********************************************************************/\n\nvoid LoopOverBoundary(cGH const * restrict const cctkGH, Kranc_Calculation const calc)\n{\n  DECLARE_CCTK_ARGUMENTS\n\n  int   dir1, dir2, dir3;\n  int   dir[3];\n  CCTK_REAL  normal[3];\n  CCTK_REAL  tangentA[3];\n  CCTK_REAL  tangentB[3];\n  int   bmin[3];\n  int   bmax[3];\n  int   have_bnd;\n  int   all_physbnd;\n  int   d;\n\n  int   is_symbnd[6], is_physbnd[6], is_ipbnd[6];\n  int   imin[3], imax[3];\n  int        old_dir = 0;\n  int        old_face = 0;\n\n  GetBoundaryInfo(cctkGH, cctk_ash, cctk_lsh, cctk_bbox,\n                  cctk_nghostzones, \n                  imin, imax, is_symbnd, is_physbnd, is_ipbnd);\n\n /* Loop over all faces */\n  for (dir3 = -1; dir3 <= +1; dir3++)\n  {\n    for (dir2 = -1; dir2 <= +1; dir2++)\n    {\n      for (dir1 = -1; dir1 <= +1; dir1++)\n      {\n        dir[0] = dir1;\n        dir[1] = dir2;\n        dir[2] = dir3;\n\n        have_bnd = 0;          /* one of the faces is a boundary */\n        all_physbnd = 1;       /* all boundary faces are physical\n                                  boundaries */\n\n        for (d = 0; d < 3; d++)\n        {\n          switch(dir[d])\n          {\n          case -1:\n            bmin[d] = 0;\n            bmax[d] = imin[d];\n            have_bnd = 1;\n            all_physbnd = all_physbnd && is_physbnd[2*d+0];\n            break;\n          case 0:\n            bmin[d] = imin[d];\n            bmax[d] = imax[d];\n            break;\n          case +1:\n            bmin[d] = imax[d];\n            bmax[d] = cctk_lsh[d];\n            have_bnd = 1;\n            all_physbnd = all_physbnd && is_physbnd[2*d+1];\n            break;\n          }\n\n          /* Choose a basis */\n          normal[d] = dir[d];\n          tangentA[d] = dir[(d+1)%3];\n          tangentB[d] = dir[(d+2)%3];\n        }\n\n        if (have_bnd && all_physbnd)\n        {\n#if 0\n          CCTK_REAL normal_norm = 0.0;\n          for (d = 0; d < 3; d++)\n          {\n            normal_norm += pow(normal[d], 2);\n          }\n          normal_norm = sqrt(normal_norm);\n          for (d = 0; d < 3; d++)\n          {\n            normal[d] /= normal_norm;\n          }\n#endif\n          \n          calc(cctkGH, old_dir, old_face, normal, tangentA, tangentB, bmin, bmax, 0, NULL);\n        }\n\n      }\n    }\n  }\n  \n  return;\n}\n\n/*********************************************************************\n * LoopOverBoundaryWithGhosts\n *********************************************************************/\n\nvoid LoopOverBoundaryWithGhosts(cGH const * restrict const cctkGH, Kranc_Calculation const calc)\n{\n  DECLARE_CCTK_ARGUMENTS\n\n  int   dir1, dir2, dir3;\n  int   dir[3];\n  CCTK_REAL  normal[3];\n  CCTK_REAL  tangentA[3];\n  CCTK_REAL  tangentB[3];\n  int   bmin[3];\n  int   bmax[3];\n  int   have_bnd;\n  int   have_physbnd;\n  int   d;\n\n  int   is_symbnd[6], is_physbnd[6], is_ipbnd[6];\n  int   imin[3], imax[3];\n  int        old_dir = 0;\n  int        old_face = 0;\n\n  GetBoundaryInfo(cctkGH, cctk_ash, cctk_lsh, cctk_bbox,\n                  cctk_nghostzones, \n                  imin, imax, is_symbnd, is_physbnd, is_ipbnd);\n\n /* Loop over all faces */\n  for (dir3 = -1; dir3 <= +1; dir3++)\n  {\n    for (dir2 = -1; dir2 <= +1; dir2++)\n    {\n      for (dir1 = -1; dir1 <= +1; dir1++)\n      {\n        dir[0] = dir1;\n        dir[1] = dir2;\n        dir[2] = dir3;\n\n        have_bnd = 0;          /* one of the faces is a boundary */\n        have_physbnd = 0;      /* one of the boundary faces is a physical\n                                  boundary */\n\n        for (d = 0; d < 3; d++)\n        {\n          switch(dir[d])\n          {\n          case -1:\n            bmin[d] = 0;\n            bmax[d] = imin[d];\n            have_bnd = 1;\n            have_physbnd = have_physbnd || is_physbnd[2*d+0];\n            break;\n          case 0:\n            bmin[d] = imin[d];\n            bmax[d] = imax[d];\n            break;\n          case +1:\n            bmin[d] = imax[d];\n            bmax[d] = cctk_lsh[d];\n            have_bnd = 1;\n            have_physbnd = have_physbnd || is_physbnd[2*d+1];\n            break;\n          }\n\n          /* Choose a basis */\n          normal[d] = dir[d];\n          tangentA[d] = dir[(d+1)%3];\n          tangentB[d] = dir[(d+2)%3];\n        }\n\n        if (have_bnd && have_physbnd)\n        {\n#if 0\n          CCTK_REAL normal_norm = 0.0;\n          for (d = 0; d < 3; d++)\n          {\n            normal_norm += pow(normal[d], 2);\n          }\n          normal_norm = sqrt(normal_norm);\n          for (d = 0; d < 3; d++)\n          {\n            normal[d] /= normal_norm;\n          }\n#endif\n          \n          calc(cctkGH, old_dir, old_face, normal, tangentA, tangentB, bmin, bmax, 0, NULL);\n        }\n\n      }\n    }\n  }\n  \n  return;\n}\n\n/*********************************************************************\n * LoopOverInterior\n *********************************************************************/\n\nvoid LoopOverInterior(cGH const * restrict const cctkGH, Kranc_Calculation const calc)\n{\n  DECLARE_CCTK_ARGUMENTS\n\n  CCTK_REAL  normal[] = {0,0,0};\n  CCTK_REAL  tangentA[] = {0,0,0};\n  CCTK_REAL  tangentB[] = {0,0,0};\n\n  int   is_symbnd[6], is_physbnd[6], is_ipbnd[6];\n  int   imin[3], imax[3];\n  int        dir = 0;\n  int        face = 0;\n\n  GetBoundaryInfo(cctkGH, cctk_ash, cctk_lsh, cctk_bbox,\n                            cctk_nghostzones, \n                            imin, imax, is_symbnd, is_physbnd, is_ipbnd);\n\n  calc(cctkGH, dir, face, normal, tangentA, tangentB, imin, imax, 0, NULL);\n  \n  return;\n}\n\n/*********************************************************************\n * AssertGroupStorage\n *********************************************************************/\n\nvoid AssertGroupStorage(cGH const * restrict const cctkGH, const char *calc,\n                                  int ngroups, const char *const group_names[])\n{\n  for (int i = 0; i < ngroups; i++)\n  {\n    int result = CCTK_QueryGroupStorage(cctkGH, group_names[i]);\n    if (result == 0)\n    {\n      CCTK_VWarn(CCTK_WARN_ABORT, __LINE__, __FILE__, CCTK_THORNSTRING,\n                 \"Error in %s: Group \\\"%s\\\" does not have storage\", calc, group_names[i]);\n    }\n    else if (result < 0)\n    {\n      CCTK_VWarn(CCTK_WARN_ABORT, __LINE__, __FILE__, CCTK_THORNSTRING,\n                 \"Error in %s: Invalid group name \\\"%s\\\"\", calc, group_names[i]);\n    }\n  }\n}\n\n/*********************************************************************\n * GroupDataPointers\n *********************************************************************/\n\n/* Return a list of pointers to the members of a named group */\nvoid GroupDataPointers(cGH const * restrict const cctkGH, const char *group_name,\n                                 int nvars, CCTK_REAL const *restrict *ptrs)\n{\n  int group_index, status;\n  cGroup  group_info;\n\n  group_index = CCTK_GroupIndex(group_name);\n  if (group_index < 0)\n    CCTK_VWarn(CCTK_WARN_ABORT,   __LINE__, __FILE__, CCTK_THORNSTRING,\n               \"Error return %d trying to get group index for group \\'%s\\'\",\n               group_index,\n               group_name);\n\n  status = CCTK_GroupData(group_index, &group_info);\n  if (status < 0)\n    CCTK_VWarn(CCTK_WARN_ABORT,   __LINE__, __FILE__, CCTK_THORNSTRING,\n               \"Error return %d trying to get info for group \\'%s\\'\",\n               status,\n               group_name);\n\n  if (group_info.numvars != nvars)\n  {\n    CCTK_VWarn(CCTK_WARN_ABORT,   __LINE__, __FILE__, CCTK_THORNSTRING,\n               \"Group \\'%s\\' has %d variables but %d were expected\",\n               group_name, group_info.numvars, nvars);\n  }\n\n  int v1 = CCTK_FirstVarIndex(group_name);\n\n  for (int v = 0; v < nvars; v++)\n  {\n    ptrs[v] = (CCTK_REAL const *) CCTK_VarDataPtrI(cctkGH, 0 /* timelevel */, v1+v);\n  }\n}\n\n/*********************************************************************\n * EnsureStencilFits\n *********************************************************************/\n\nvoid EnsureStencilFits(cGH const * restrict const cctkGH, const char *calc, int ni, int nj, int nk)\n{\n  DECLARE_CCTK_ARGUMENTS\n\n  CCTK_INT bws[6];\n  GetBoundaryWidths(cctkGH, bws);\n\n  int ns[] = {ni, nj, nk};\n  const char *dirs[] = {\"x\", \"y\", \"z\"};\n  const char *faces[] = {\"lower\", \"upper\"};\n  int abort = 0;\n\n  for (int dir = 0; dir < 3; dir++)\n  {\n    for (int face = 0; face < 2; face++)\n    {\n      int bw = bws[2*dir+face];\n      if (bw < ns[dir])\n      {\n        CCTK_VInfo(CCTK_THORNSTRING,\n                   \"The stencil for %s requires %d points, but the %s %s boundary has only %d points.\",\n                   calc, ns[dir], faces[face], dirs[dir], bw);\n        abort = 1;\n      }\n    }\n    int gz = cctk_nghostzones[dir];\n    if (gz < ns[dir])\n    {\n      CCTK_VInfo(CCTK_THORNSTRING,\n                 \"The stencil for %s requires %d points, but there are only %d ghost zones in the %s direction.\",\n                 calc, ns[dir], gz, dirs[dir]);\n      abort = 1;\n    }\n  }\n\n  if (abort)\n  {\n    CCTK_VWarn(CCTK_WARN_ABORT, __LINE__, __FILE__, CCTK_THORNSTRING,\n               \"Insufficient ghost or boundary points for %s\", calc);\n  }\n}\n\n/*********************************************************************\n * idiv\n *********************************************************************/\n\n// Divide, rounding to minus infinity\nstatic int idiv(int x, int y)\n{\n  // round down manually if the result is negative\n  return (x^y) >= 0 ? x/y : (x-y+1)/y;\n}\n\n/*********************************************************************\n * imod\n *********************************************************************/\n\n// // Modulo, rounding to minus infinity\n// static int imod(int x, int y)\n// {\n//   return (x^y) >= 0 ? x%y : (x-y+1)%y + y-1;\n// }\n\n/*********************************************************************\n * ialign\n *********************************************************************/\n\n// Align x to a multiple of y\nstatic int ialign(int x, int y)\n{\n  return idiv(x, y) * y;\n}\n\n/*********************************************************************\n * TiledLoop\n *********************************************************************/\n\nvoid TiledLoop(\n  cGH const * restrict const cctkGH,\n  const KrancData & restrict kd_coarse,\n  void (calc)(const cGH* restrict const cctkGH,\n              const KrancData & restrict kd))\n{\n  DECLARE_CCTK_ARGUMENTS;\n  DECLARE_CCTK_PARAMETERS;\n\n  // Interior region\n  int imin[3], imax[3];\n  // Boundary types\n  int is_symbnd[6], is_physbnd[6], is_ipbnd[6];\n\n  GetBoundaryInfo(cctkGH, cctk_ash, cctk_lsh, cctk_bbox,\n                            cctk_nghostzones, \n                            imin, imax, is_symbnd, is_physbnd, is_ipbnd);\n\n  // Tile size\n  int tile_size_l[3];\n  // Loop bounds covered by tiles (may be larger)\n  int tiled_imin[3];\n  int tiled_imax[3];\n\n  if (tile_size == -1)\n  {\n    for (int d = 0; d < 3; d++)\n    {\n      // Loop in a single tile\n      tiled_imin[d] = kd_coarse.imin[d];\n      tiled_imax[d] = kd_coarse.imax[d];\n      tile_size_l[d] = tiled_imax[d] - tiled_imin[d];\n    }\n  }\n  else\n  {\n    for (int d = 0; d < 3; d++)\n    {\n      tile_size_l[d] = tile_size;\n      // Align with beginning of interior of domain\n      tiled_imin[d] =\n        imin[d] + ialign(kd_coarse.imin[d] - imin[d], tile_size_l[d]);\n      tiled_imax[d] = kd_coarse.imax[d];\n    }\n  }\n\n  const int dti = tile_size_l[0];\n  const int dtj = tile_size_l[1];\n  const int dtk = tile_size_l[2];\n#pragma omp parallel for collapse(3)\n  for (int tk = tiled_imin[2]; tk < tiled_imax[2]; tk += dtk)\n  {\n    for (int tj = tiled_imin[1]; tj < tiled_imax[1]; tj += dtj)\n    {\n      for (int ti = tiled_imin[0]; ti < tiled_imax[0]; ti += dti)\n      {\n        KrancData kd = kd_coarse;\n\n        kd.dir = 0;\n        kd.face = 0;\n        // TODO: initialise the rest, or use a constructor\n\n        kd.tile_imin[0] = ti;\n        kd.tile_imax[0] = ti + dti;\n        kd.tile_imin[1] = tj;\n        kd.tile_imax[1] = tj + dtj;\n        kd.tile_imin[2] = tk;\n        kd.tile_imax[2] = tk + dtk;\n\n        calc(cctkGH, kd);\n      }\n    }\n  }\n}\n\n/*********************************************************************\n * TiledLoopOverEverything\n *********************************************************************/\n\nvoid TiledLoopOverEverything(\n  cGH const * restrict const cctkGH,\n  void (calc)(const cGH* restrict const cctkGH,\n              const KrancData & restrict kd))\n{\n  DECLARE_CCTK_ARGUMENTS;\n  DECLARE_CCTK_PARAMETERS;\n\n  KrancData kd_coarse;\n\n  for (int d = 0; d < 3; d++)\n  {\n    kd_coarse.imin[d] = 0;\n    kd_coarse.imax[d] = cctk_lsh[d];\n  }\n\n  TiledLoop(cctkGH, kd_coarse, calc);\n}\n\n/*********************************************************************\n * TiledLoopOverInterior\n *********************************************************************/\n\nvoid TiledLoopOverInterior(\n  cGH const * restrict const cctkGH,\n  void (calc)(const cGH* restrict const cctkGH,\n              const KrancData & restrict kd))\n{\n  DECLARE_CCTK_ARGUMENTS;\n  DECLARE_CCTK_PARAMETERS;\n\n  // Interior region\n  int imin[3], imax[3];\n  // Boundary types\n  int is_symbnd[6], is_physbnd[6], is_ipbnd[6];\n\n  GetBoundaryInfo(cctkGH, cctk_ash, cctk_lsh, cctk_bbox,\n                            cctk_nghostzones, \n                            imin, imax, is_symbnd, is_physbnd, is_ipbnd);\n\n  KrancData kd_coarse;\n\n  for (int d = 0; d < 3; d++)\n  {\n    kd_coarse.imin[d] = imin[d];\n    kd_coarse.imax[d] = imax[d];\n  }\n\n  TiledLoop(cctkGH, kd_coarse, calc);\n}\n\n} // namespace CT_Analytic",
    "CT_Analytic_Poisson_Calc.cc": "/*  File produced by Kranc */\n\n#define KRANC_C\n\n#include <algorithm>\n#include <assert.h>\n#include <math.h>\n#include <stdio.h>\n#include <stdlib.h>\n#include <string.h>\n#include \"cctk.h\"\n#include \"cctk_Arguments.h\"\n#include \"cctk_Parameters.h\"\n#include \"Kranc.hh\"\n#include \"Differencing.h\"\n#include \"loopcontrol.h\"\n\nnamespace CT_Analytic {\n\n\nstatic void CT_Analytic_Poisson_Calc_Body(const cGH* restrict const cctkGH, const int dir, const int face, const CCTK_REAL normal[3], const CCTK_REAL tangentA[3], const CCTK_REAL tangentB[3], const int imin[3], const int imax[3], const int n_subblock_gfs, CCTK_REAL* restrict const subblock_gfs[])\n{\n  DECLARE_CCTK_ARGUMENTS;\n  DECLARE_CCTK_PARAMETERS;\n  \n  /* Include user-supplied include files */\n  /* Initialise finite differencing variables */\n  const ptrdiff_t di CCTK_ATTRIBUTE_UNUSED = 1;\n  const ptrdiff_t dj CCTK_ATTRIBUTE_UNUSED = \n    CCTK_GFINDEX3D(cctkGH,0,1,0) - CCTK_GFINDEX3D(cctkGH,0,0,0);\n  const ptrdiff_t dk CCTK_ATTRIBUTE_UNUSED = \n    CCTK_GFINDEX3D(cctkGH,0,0,1) - CCTK_GFINDEX3D(cctkGH,0,0,0);\n  const ptrdiff_t cdi CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL) * di;\n  const ptrdiff_t cdj CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL) * dj;\n  const ptrdiff_t cdk CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL) * dk;\n  const ptrdiff_t cctkLbnd1 CCTK_ATTRIBUTE_UNUSED = cctk_lbnd[0];\n  const ptrdiff_t cctkLbnd2 CCTK_ATTRIBUTE_UNUSED = cctk_lbnd[1];\n  const ptrdiff_t cctkLbnd3 CCTK_ATTRIBUTE_UNUSED = cctk_lbnd[2];\n  const CCTK_REAL t CCTK_ATTRIBUTE_UNUSED = cctk_time;\n  const CCTK_REAL cctkOriginSpace1 CCTK_ATTRIBUTE_UNUSED = \n    CCTK_ORIGIN_SPACE(0);\n  const CCTK_REAL cctkOriginSpace2 CCTK_ATTRIBUTE_UNUSED = \n    CCTK_ORIGIN_SPACE(1);\n  const CCTK_REAL cctkOriginSpace3 CCTK_ATTRIBUTE_UNUSED = \n    CCTK_ORIGIN_SPACE(2);\n  const CCTK_REAL dt CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_TIME;\n  const CCTK_REAL dx CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_SPACE(0);\n  const CCTK_REAL dy CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_SPACE(1);\n  const CCTK_REAL dz CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_SPACE(2);\n  const CCTK_REAL dxi CCTK_ATTRIBUTE_UNUSED = pow(dx,-1);\n  const CCTK_REAL dyi CCTK_ATTRIBUTE_UNUSED = pow(dy,-1);\n  const CCTK_REAL dzi CCTK_ATTRIBUTE_UNUSED = pow(dz,-1);\n  const CCTK_REAL khalf CCTK_ATTRIBUTE_UNUSED = 0.5;\n  const CCTK_REAL kthird CCTK_ATTRIBUTE_UNUSED = \n    0.333333333333333333333333333333;\n  const CCTK_REAL ktwothird CCTK_ATTRIBUTE_UNUSED = \n    0.666666666666666666666666666667;\n  const CCTK_REAL kfourthird CCTK_ATTRIBUTE_UNUSED = \n    1.33333333333333333333333333333;\n  const CCTK_REAL hdxi CCTK_ATTRIBUTE_UNUSED = 0.5*dxi;\n  const CCTK_REAL hdyi CCTK_ATTRIBUTE_UNUSED = 0.5*dyi;\n  const CCTK_REAL hdzi CCTK_ATTRIBUTE_UNUSED = 0.5*dzi;\n  /* Initialize predefined quantities */\n  const CCTK_REAL p1o12dx CCTK_ATTRIBUTE_UNUSED = 0.0833333333333333333333333333333*pow(dx,-1);\n  const CCTK_REAL p1o12dy CCTK_ATTRIBUTE_UNUSED = 0.0833333333333333333333333333333*pow(dy,-1);\n  const CCTK_REAL p1o12dz CCTK_ATTRIBUTE_UNUSED = 0.0833333333333333333333333333333*pow(dz,-1);\n  const CCTK_REAL p1o144dxdy CCTK_ATTRIBUTE_UNUSED = 0.00694444444444444444444444444444*pow(dx,-1)*pow(dy,-1);\n  const CCTK_REAL p1o144dxdz CCTK_ATTRIBUTE_UNUSED = 0.00694444444444444444444444444444*pow(dx,-1)*pow(dz,-1);\n  const CCTK_REAL p1o144dydz CCTK_ATTRIBUTE_UNUSED = 0.00694444444444444444444444444444*pow(dy,-1)*pow(dz,-1);\n  const CCTK_REAL pm1o12dx2 CCTK_ATTRIBUTE_UNUSED = -0.0833333333333333333333333333333*pow(dx,-2);\n  const CCTK_REAL pm1o12dy2 CCTK_ATTRIBUTE_UNUSED = -0.0833333333333333333333333333333*pow(dy,-2);\n  const CCTK_REAL pm1o12dz2 CCTK_ATTRIBUTE_UNUSED = -0.0833333333333333333333333333333*pow(dz,-2);\n  /* Assign local copies of arrays functions */\n  \n  \n  /* Calculate temporaries and arrays functions */\n  /* Copy local copies back to grid functions */\n  /* Loop over the grid points */\n  const int imin0=imin[0];\n  const int imin1=imin[1];\n  const int imin2=imin[2];\n  const int imax0=imax[0];\n  const int imax1=imax[1];\n  const int imax2=imax[2];\n  #pragma omp parallel\n  CCTK_LOOP3(CT_Analytic_Poisson_Calc,\n    i,j,k, imin0,imin1,imin2, imax0,imax1,imax2,\n    cctk_ash[0],cctk_ash[1],cctk_ash[2])\n  {\n    const ptrdiff_t index CCTK_ATTRIBUTE_UNUSED = di*i + dj*j + dk*k;\n    /* Assign local copies of grid functions */\n    \n    CCTK_REAL rL CCTK_ATTRIBUTE_UNUSED = r[index];\n    \n    /* Include user supplied include files */\n    /* Precompute derivatives */\n    /* Calculate temporaries and grid functions */\n    CCTK_REAL testinipsiL CCTK_ATTRIBUTE_UNUSED = ampC;\n    \n    CCTK_REAL epsiL CCTK_ATTRIBUTE_UNUSED = \n      0.0416666666666666666666666666667*(1 + isgn(rBall))*((1 + isgn(-rL + \n      rBall))*(pow(rL,2) - 3*pow(rBall,2)) - 2*(1 + isgn(rL - rBall))*pow(0.1 \n      + rL,-1)*pow(rBall,3));\n    \n    CCTK_REAL testcxxL CCTK_ATTRIBUTE_UNUSED = 1;\n    \n    CCTK_REAL testcxyL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testcxzL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testcyyL CCTK_ATTRIBUTE_UNUSED = 1;\n    \n    CCTK_REAL testcyzL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testczzL CCTK_ATTRIBUTE_UNUSED = 1;\n    \n    CCTK_REAL testcxL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testcyL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testczL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testc1L CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testc2L CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testc3L CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testc4L CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testc0L CCTK_ATTRIBUTE_UNUSED = 0.5*(-1 + isgn(rL - rBall));\n    \n    CCTK_REAL testWL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testKL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testXxL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testXyL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testXzL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testZL CCTK_ATTRIBUTE_UNUSED = 0;\n    /* Copy local copies back to grid functions */\n    epsi[index] = epsiL;\n    testc0[index] = testc0L;\n    testc1[index] = testc1L;\n    testc2[index] = testc2L;\n    testc3[index] = testc3L;\n    testc4[index] = testc4L;\n    testcx[index] = testcxL;\n    testcxx[index] = testcxxL;\n    testcxy[index] = testcxyL;\n    testcxz[index] = testcxzL;\n    testcy[index] = testcyL;\n    testcyy[index] = testcyyL;\n    testcyz[index] = testcyzL;\n    testcz[index] = testczL;\n    testczz[index] = testczzL;\n    testinipsi[index] = testinipsiL;\n    testK[index] = testKL;\n    testW[index] = testWL;\n    testXx[index] = testXxL;\n    testXy[index] = testXyL;\n    testXz[index] = testXzL;\n    testZ[index] = testZL;\n  }\n  CCTK_ENDLOOP3(CT_Analytic_Poisson_Calc);\n}\nextern \"C\" void CT_Analytic_Poisson_Calc(CCTK_ARGUMENTS)\n{\n  #ifdef DECLARE_CCTK_ARGUMENTS_CT_Analytic_Poisson_Calc\n  DECLARE_CCTK_ARGUMENTS_CHECKED(CT_Analytic_Poisson_Calc);\n  #else\n  DECLARE_CCTK_ARGUMENTS;\n  #endif\n  DECLARE_CCTK_PARAMETERS;\n  \n  if (verbose > 1)\n  {\n    CCTK_VInfo(CCTK_THORNSTRING,\"Entering CT_Analytic_Poisson_Calc_Body\");\n  }\n  if (cctk_iteration % CT_Analytic_Poisson_Calc_calc_every != CT_Analytic_Poisson_Calc_calc_offset)\n  {\n    return;\n  }\n  \n  const char* const groups[] = {\n    \"CT_Analytic::CT_epsi\",\n    \"CT_Analytic::CT_testc0\",\n    \"CT_Analytic::CT_testc1\",\n    \"CT_Analytic::CT_testc2\",\n    \"CT_Analytic::CT_testc3\",\n    \"CT_Analytic::CT_testc4\",\n    \"CT_Analytic::CT_testcx\",\n    \"CT_Analytic::CT_testcxx\",\n    \"CT_Analytic::CT_testcxy\",\n    \"CT_Analytic::CT_testcxz\",\n    \"CT_Analytic::CT_testcy\",\n    \"CT_Analytic::CT_testcyy\",\n    \"CT_Analytic::CT_testcyz\",\n    \"CT_Analytic::CT_testcz\",\n    \"CT_Analytic::CT_testczz\",\n    \"CT_Analytic::CT_testinipsi\",\n    \"CT_Analytic::CT_testK\",\n    \"CT_Analytic::CT_testW\",\n    \"CT_Analytic::CT_testXx\",\n    \"CT_Analytic::CT_testXy\",\n    \"CT_Analytic::CT_testXz\",\n    \"CT_Analytic::CT_testZ\",\n    \"grid::coordinates\"};\n  AssertGroupStorage(cctkGH, \"CT_Analytic_Poisson_Calc\", 23, groups);\n  \n  \n  LoopOverEverything(cctkGH, CT_Analytic_Poisson_Calc_Body);\n  if (verbose > 1)\n  {\n    CCTK_VInfo(CCTK_THORNSTRING,\"Leaving CT_Analytic_Poisson_Calc_Body\");\n  }\n}\n\n} // namespace CT_Analytic\n",
    "RegisterMoL.cc": "/*  File produced by Kranc */\n\n#include \"cctk.h\"\n#include \"cctk_Arguments.h\"\n#include \"cctk_Parameters.h\"\n\nextern \"C\" void CT_Analytic_RegisterVars(CCTK_ARGUMENTS)\n{\n  #ifdef DECLARE_CCTK_ARGUMENTS_CT_Analytic_RegisterVars\n  DECLARE_CCTK_ARGUMENTS_CHECKED(CT_Analytic_RegisterVars);\n  #else\n  DECLARE_CCTK_ARGUMENTS;\n  #endif\n  DECLARE_CCTK_PARAMETERS;\n  \n  CCTK_INT ierr CCTK_ATTRIBUTE_UNUSED = 0;\n  /* Register all the evolved grid functions with MoL */\n  /* Register all the evolved Array functions with MoL */\n  return;\n}\n",
    "Differencing.h": "#ifndef KRANC_DIFF_FUNCTIONS\n#  define PDstandardNth1(u) ((-8*KRANC_GFOFFSET3D(u,-1,0,0) + 8*KRANC_GFOFFSET3D(u,1,0,0) + KRANC_GFOFFSET3D(u,-2,0,0) - KRANC_GFOFFSET3D(u,2,0,0))*p1o12dx)\n#else\n#  define PDstandardNth1(u) (PDstandardNth1_impl(u,p1o12dx,cdj,cdk))\nstatic CCTK_REAL PDstandardNth1_impl(const CCTK_REAL* restrict const u, const CCTK_REAL p1o12dx, const ptrdiff_t cdj, const ptrdiff_t cdk) CCTK_ATTRIBUTE_NOINLINE CCTK_ATTRIBUTE_UNUSED;\nstatic CCTK_REAL PDstandardNth1_impl(const CCTK_REAL* restrict const u, const CCTK_REAL p1o12dx, const ptrdiff_t cdj, const ptrdiff_t cdk)\n{\n  const ptrdiff_t cdi CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL);\n  return (-8*KRANC_GFOFFSET3D(u,-1,0,0) + 8*KRANC_GFOFFSET3D(u,1,0,0) + KRANC_GFOFFSET3D(u,-2,0,0) - KRANC_GFOFFSET3D(u,2,0,0))*p1o12dx;\n}\n#endif\n\n#ifndef KRANC_DIFF_FUNCTIONS\n#  define PDstandardNth2(u) ((-8*KRANC_GFOFFSET3D(u,0,-1,0) + 8*KRANC_GFOFFSET3D(u,0,1,0) + KRANC_GFOFFSET3D(u,0,-2,0) - KRANC_GFOFFSET3D(u,0,2,0))*p1o12dy)\n#else\n#  define PDstandardNth2(u) (PDstandardNth2_impl(u,p1o12dy,cdj,cdk))\nstatic CCTK_REAL PDstandardNth2_impl(const CCTK_REAL* restrict const u, const CCTK_REAL p1o12dy, const ptrdiff_t cdj, const ptrdiff_t cdk) CCTK_ATTRIBUTE_NOINLINE CCTK_ATTRIBUTE_UNUSED;\nstatic CCTK_REAL PDstandardNth2_impl(const CCTK_REAL* restrict const u, const CCTK_REAL p1o12dy, const ptrdiff_t cdj, const ptrdiff_t cdk)\n{\n  const ptrdiff_t cdi CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL);\n  return (-8*KRANC_GFOFFSET3D(u,0,-1,0) + 8*KRANC_GFOFFSET3D(u,0,1,0) + KRANC_GFOFFSET3D(u,0,-2,0) - KRANC_GFOFFSET3D(u,0,2,0))*p1o12dy;\n}\n#endif\n\n#ifndef KRANC_DIFF_FUNCTIONS\n#  define PDstandardNth3(u) ((-8*KRANC_GFOFFSET3D(u,0,0,-1) + 8*KRANC_GFOFFSET3D(u,0,0,1) + KRANC_GFOFFSET3D(u,0,0,-2) - KRANC_GFOFFSET3D(u,0,0,2))*p1o12dz)\n#else\n#  define PDstandardNth3(u) (PDstandardNth3_impl(u,p1o12dz,cdj,cdk))\nstatic CCTK_REAL PDstandardNth3_impl(const CCTK_REAL* restrict const u, const CCTK_REAL p1o12dz, const ptrdiff_t cdj, const ptrdiff_t cdk) CCTK_ATTRIBUTE_NOINLINE CCTK_ATTRIBUTE_UNUSED;\nstatic CCTK_REAL PDstandardNth3_impl(const CCTK_REAL* restrict const u, const CCTK_REAL p1o12dz, const ptrdiff_t cdj, const ptrdiff_t cdk)\n{\n  const ptrdiff_t cdi CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL);\n  return PDstandardNth2_impl(u, p1o12dz, cdk, cdj);\n}\n#endif\n\n#ifndef KRANC_DIFF_FUNCTIONS\n#  define PDstandardNth11(u) ((30*KRANC_GFOFFSET3D(u,0,0,0) - 16*(KRANC_GFOFFSET3D(u,-1,0,0) + KRANC_GFOFFSET3D(u,1,0,0)) + KRANC_GFOFFSET3D(u,-2,0,0) + KRANC_GFOFFSET3D(u,2,0,0))*pm1o12dx2)\n#else\n#  define PDstandardNth11(u) (PDstandardNth11_impl(u,pm1o12dx2,cdj,cdk))\nstatic CCTK_REAL PDstandardNth11_impl(const CCTK_REAL* restrict const u, const CCTK_REAL pm1o12dx2, const ptrdiff_t cdj, const ptrdiff_t cdk) CCTK_ATTRIBUTE_NOINLINE CCTK_ATTRIBUTE_UNUSED;\nstatic CCTK_REAL PDstandardNth11_impl(const CCTK_REAL* restrict const u, const CCTK_REAL pm1o12dx2, const ptrdiff_t cdj, const ptrdiff_t cdk)\n{\n  const ptrdiff_t cdi CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL);\n  return (30*KRANC_GFOFFSET3D(u,0,0,0) - 16*(KRANC_GFOFFSET3D(u,-1,0,0) + KRANC_GFOFFSET3D(u,1,0,0)) + KRANC_GFOFFSET3D(u,-2,0,0) + KRANC_GFOFFSET3D(u,2,0,0))*pm1o12dx2;\n}\n#endif\n\n#ifndef KRANC_DIFF_FUNCTIONS\n#  define PDstandardNth22(u) ((30*KRANC_GFOFFSET3D(u,0,0,0) - 16*(KRANC_GFOFFSET3D(u,0,-1,0) + KRANC_GFOFFSET3D(u,0,1,0)) + KRANC_GFOFFSET3D(u,0,-2,0) + KRANC_GFOFFSET3D(u,0,2,0))*pm1o12dy2)\n#else\n#  define PDstandardNth22(u) (PDstandardNth22_impl(u,pm1o12dy2,cdj,cdk))\nstatic CCTK_REAL PDstandardNth22_impl(const CCTK_REAL* restrict const u, const CCTK_REAL pm1o12dy2, const ptrdiff_t cdj, const ptrdiff_t cdk) CCTK_ATTRIBUTE_NOINLINE CCTK_ATTRIBUTE_UNUSED;\nstatic CCTK_REAL PDstandardNth22_impl(const CCTK_REAL* restrict const u, const CCTK_REAL pm1o12dy2, const ptrdiff_t cdj, const ptrdiff_t cdk)\n{\n  const ptrdiff_t cdi CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL);\n  return (30*KRANC_GFOFFSET3D(u,0,0,0) - 16*(KRANC_GFOFFSET3D(u,0,-1,0) + KRANC_GFOFFSET3D(u,0,1,0)) + KRANC_GFOFFSET3D(u,0,-2,0) + KRANC_GFOFFSET3D(u,0,2,0))*pm1o12dy2;\n}\n#endif\n\n#ifndef KRANC_DIFF_FUNCTIONS\n#  define PDstandardNth33(u) ((30*KRANC_GFOFFSET3D(u,0,0,0) - 16*(KRANC_GFOFFSET3D(u,0,0,-1) + KRANC_GFOFFSET3D(u,0,0,1)) + KRANC_GFOFFSET3D(u,0,0,-2) + KRANC_GFOFFSET3D(u,0,0,2))*pm1o12dz2)\n#else\n#  define PDstandardNth33(u) (PDstandardNth33_impl(u,pm1o12dz2,cdj,cdk))\nstatic CCTK_REAL PDstandardNth33_impl(const CCTK_REAL* restrict const u, const CCTK_REAL pm1o12dz2, const ptrdiff_t cdj, const ptrdiff_t cdk) CCTK_ATTRIBUTE_NOINLINE CCTK_ATTRIBUTE_UNUSED;\nstatic CCTK_REAL PDstandardNth33_impl(const CCTK_REAL* restrict const u, const CCTK_REAL pm1o12dz2, const ptrdiff_t cdj, const ptrdiff_t cdk)\n{\n  const ptrdiff_t cdi CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL);\n  return PDstandardNth22_impl(u, pm1o12dz2, cdk, cdj);\n}\n#endif\n\n#ifndef KRANC_DIFF_FUNCTIONS\n#  define PDstandardNth12(u) ((-64*(KRANC_GFOFFSET3D(u,-1,1,0) + KRANC_GFOFFSET3D(u,1,-1,0)) + 64*(KRANC_GFOFFSET3D(u,-1,-1,0) + KRANC_GFOFFSET3D(u,1,1,0)) + 8*(KRANC_GFOFFSET3D(u,-1,2,0) + KRANC_GFOFFSET3D(u,1,-2,0) + KRANC_GFOFFSET3D(u,-2,1,0) + KRANC_GFOFFSET3D(u,2,-1,0)) - 8*(KRANC_GFOFFSET3D(u,-1,-2,0) + KRANC_GFOFFSET3D(u,1,2,0) + KRANC_GFOFFSET3D(u,-2,-1,0) + KRANC_GFOFFSET3D(u,2,1,0)) + KRANC_GFOFFSET3D(u,-2,-2,0) - KRANC_GFOFFSET3D(u,-2,2,0) - KRANC_GFOFFSET3D(u,2,-2,0) + KRANC_GFOFFSET3D(u,2,2,0))*p1o144dxdy)\n#else\n#  define PDstandardNth12(u) (PDstandardNth12_impl(u,p1o144dxdy,cdj,cdk))\nstatic CCTK_REAL PDstandardNth12_impl(const CCTK_REAL* restrict const u, const CCTK_REAL p1o144dxdy, const ptrdiff_t cdj, const ptrdiff_t cdk) CCTK_ATTRIBUTE_NOINLINE CCTK_ATTRIBUTE_UNUSED;\nstatic CCTK_REAL PDstandardNth12_impl(const CCTK_REAL* restrict const u, const CCTK_REAL p1o144dxdy, const ptrdiff_t cdj, const ptrdiff_t cdk)\n{\n  const ptrdiff_t cdi CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL);\n  return (-64*(KRANC_GFOFFSET3D(u,-1,1,0) + KRANC_GFOFFSET3D(u,1,-1,0)) + 64*(KRANC_GFOFFSET3D(u,-1,-1,0) + KRANC_GFOFFSET3D(u,1,1,0)) + 8*(KRANC_GFOFFSET3D(u,-1,2,0) + KRANC_GFOFFSET3D(u,1,-2,0) + KRANC_GFOFFSET3D(u,-2,1,0) + KRANC_GFOFFSET3D(u,2,-1,0)) - 8*(KRANC_GFOFFSET3D(u,-1,-2,0) + KRANC_GFOFFSET3D(u,1,2,0) + KRANC_GFOFFSET3D(u,-2,-1,0) + KRANC_GFOFFSET3D(u,2,1,0)) + KRANC_GFOFFSET3D(u,-2,-2,0) - KRANC_GFOFFSET3D(u,-2,2,0) - KRANC_GFOFFSET3D(u,2,-2,0) + KRANC_GFOFFSET3D(u,2,2,0))*p1o144dxdy;\n}\n#endif\n\n#ifndef KRANC_DIFF_FUNCTIONS\n#  define PDstandardNth13(u) ((-64*(KRANC_GFOFFSET3D(u,-1,0,1) + KRANC_GFOFFSET3D(u,1,0,-1)) + 64*(KRANC_GFOFFSET3D(u,-1,0,-1) + KRANC_GFOFFSET3D(u,1,0,1)) + 8*(KRANC_GFOFFSET3D(u,-1,0,2) + KRANC_GFOFFSET3D(u,1,0,-2) + KRANC_GFOFFSET3D(u,-2,0,1) + KRANC_GFOFFSET3D(u,2,0,-1)) - 8*(KRANC_GFOFFSET3D(u,-1,0,-2) + KRANC_GFOFFSET3D(u,1,0,2) + KRANC_GFOFFSET3D(u,-2,0,-1) + KRANC_GFOFFSET3D(u,2,0,1)) + KRANC_GFOFFSET3D(u,-2,0,-2) - KRANC_GFOFFSET3D(u,-2,0,2) - KRANC_GFOFFSET3D(u,2,0,-2) + KRANC_GFOFFSET3D(u,2,0,2))*p1o144dxdz)\n#else\n#  define PDstandardNth13(u) (PDstandardNth13_impl(u,p1o144dxdz,cdj,cdk))\nstatic CCTK_REAL PDstandardNth13_impl(const CCTK_REAL* restrict const u, const CCTK_REAL p1o144dxdz, const ptrdiff_t cdj, const ptrdiff_t cdk) CCTK_ATTRIBUTE_NOINLINE CCTK_ATTRIBUTE_UNUSED;\nstatic CCTK_REAL PDstandardNth13_impl(const CCTK_REAL* restrict const u, const CCTK_REAL p1o144dxdz, const ptrdiff_t cdj, const ptrdiff_t cdk)\n{\n  const ptrdiff_t cdi CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL);\n  return PDstandardNth12_impl(u, p1o144dxdz, cdk, cdj);\n}\n#endif\n\n#ifndef KRANC_DIFF_FUNCTIONS\n#  define PDstandardNth21(u) ((-64*(KRANC_GFOFFSET3D(u,-1,1,0) + KRANC_GFOFFSET3D(u,1,-1,0)) + 64*(KRANC_GFOFFSET3D(u,-1,-1,0) + KRANC_GFOFFSET3D(u,1,1,0)) + 8*(KRANC_GFOFFSET3D(u,-1,2,0) + KRANC_GFOFFSET3D(u,1,-2,0) + KRANC_GFOFFSET3D(u,-2,1,0) + KRANC_GFOFFSET3D(u,2,-1,0)) - 8*(KRANC_GFOFFSET3D(u,-1,-2,0) + KRANC_GFOFFSET3D(u,1,2,0) + KRANC_GFOFFSET3D(u,-2,-1,0) + KRANC_GFOFFSET3D(u,2,1,0)) + KRANC_GFOFFSET3D(u,-2,-2,0) - KRANC_GFOFFSET3D(u,-2,2,0) - KRANC_GFOFFSET3D(u,2,-2,0) + KRANC_GFOFFSET3D(u,2,2,0))*p1o144dxdy)\n#else\n#  define PDstandardNth21(u) (PDstandardNth21_impl(u,p1o144dxdy,cdj,cdk))\nstatic CCTK_REAL PDstandardNth21_impl(const CCTK_REAL* restrict const u, const CCTK_REAL p1o144dxdy, const ptrdiff_t cdj, const ptrdiff_t cdk) CCTK_ATTRIBUTE_NOINLINE CCTK_ATTRIBUTE_UNUSED;\nstatic CCTK_REAL PDstandardNth21_impl(const CCTK_REAL* restrict const u, const CCTK_REAL p1o144dxdy, const ptrdiff_t cdj, const ptrdiff_t cdk)\n{\n  const ptrdiff_t cdi CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL);\n  return PDstandardNth12_impl(u, p1o144dxdy, cdj, cdk);\n}\n#endif\n\n#ifndef KRANC_DIFF_FUNCTIONS\n#  define PDstandardNth23(u) ((-64*(KRANC_GFOFFSET3D(u,0,-1,1) + KRANC_GFOFFSET3D(u,0,1,-1)) + 64*(KRANC_GFOFFSET3D(u,0,-1,-1) + KRANC_GFOFFSET3D(u,0,1,1)) + 8*(KRANC_GFOFFSET3D(u,0,-1,2) + KRANC_GFOFFSET3D(u,0,1,-2) + KRANC_GFOFFSET3D(u,0,-2,1) + KRANC_GFOFFSET3D(u,0,2,-1)) - 8*(KRANC_GFOFFSET3D(u,0,-1,-2) + KRANC_GFOFFSET3D(u,0,1,2) + KRANC_GFOFFSET3D(u,0,-2,-1) + KRANC_GFOFFSET3D(u,0,2,1)) + KRANC_GFOFFSET3D(u,0,-2,-2) - KRANC_GFOFFSET3D(u,0,-2,2) - KRANC_GFOFFSET3D(u,0,2,-2) + KRANC_GFOFFSET3D(u,0,2,2))*p1o144dydz)\n#else\n#  define PDstandardNth23(u) (PDstandardNth23_impl(u,p1o144dydz,cdj,cdk))\nstatic CCTK_REAL PDstandardNth23_impl(const CCTK_REAL* restrict const u, const CCTK_REAL p1o144dydz, const ptrdiff_t cdj, const ptrdiff_t cdk) CCTK_ATTRIBUTE_NOINLINE CCTK_ATTRIBUTE_UNUSED;\nstatic CCTK_REAL PDstandardNth23_impl(const CCTK_REAL* restrict const u, const CCTK_REAL p1o144dydz, const ptrdiff_t cdj, const ptrdiff_t cdk)\n{\n  const ptrdiff_t cdi CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL);\n  return (-64*(KRANC_GFOFFSET3D(u,0,-1,1) + KRANC_GFOFFSET3D(u,0,1,-1)) + 64*(KRANC_GFOFFSET3D(u,0,-1,-1) + KRANC_GFOFFSET3D(u,0,1,1)) + 8*(KRANC_GFOFFSET3D(u,0,-1,2) + KRANC_GFOFFSET3D(u,0,1,-2) + KRANC_GFOFFSET3D(u,0,-2,1) + KRANC_GFOFFSET3D(u,0,2,-1)) - 8*(KRANC_GFOFFSET3D(u,0,-1,-2) + KRANC_GFOFFSET3D(u,0,1,2) + KRANC_GFOFFSET3D(u,0,-2,-1) + KRANC_GFOFFSET3D(u,0,2,1)) + KRANC_GFOFFSET3D(u,0,-2,-2) - KRANC_GFOFFSET3D(u,0,-2,2) - KRANC_GFOFFSET3D(u,0,2,-2) + KRANC_GFOFFSET3D(u,0,2,2))*p1o144dydz;\n}\n#endif\n\n#ifndef KRANC_DIFF_FUNCTIONS\n#  define PDstandardNth31(u) ((-64*(KRANC_GFOFFSET3D(u,-1,0,1) + KRANC_GFOFFSET3D(u,1,0,-1)) + 64*(KRANC_GFOFFSET3D(u,-1,0,-1) + KRANC_GFOFFSET3D(u,1,0,1)) + 8*(KRANC_GFOFFSET3D(u,-1,0,2) + KRANC_GFOFFSET3D(u,1,0,-2) + KRANC_GFOFFSET3D(u,-2,0,1) + KRANC_GFOFFSET3D(u,2,0,-1)) - 8*(KRANC_GFOFFSET3D(u,-1,0,-2) + KRANC_GFOFFSET3D(u,1,0,2) + KRANC_GFOFFSET3D(u,-2,0,-1) + KRANC_GFOFFSET3D(u,2,0,1)) + KRANC_GFOFFSET3D(u,-2,0,-2) - KRANC_GFOFFSET3D(u,-2,0,2) - KRANC_GFOFFSET3D(u,2,0,-2) + KRANC_GFOFFSET3D(u,2,0,2))*p1o144dxdz)\n#else\n#  define PDstandardNth31(u) (PDstandardNth31_impl(u,p1o144dxdz,cdj,cdk))\nstatic CCTK_REAL PDstandardNth31_impl(const CCTK_REAL* restrict const u, const CCTK_REAL p1o144dxdz, const ptrdiff_t cdj, const ptrdiff_t cdk) CCTK_ATTRIBUTE_NOINLINE CCTK_ATTRIBUTE_UNUSED;\nstatic CCTK_REAL PDstandardNth31_impl(const CCTK_REAL* restrict const u, const CCTK_REAL p1o144dxdz, const ptrdiff_t cdj, const ptrdiff_t cdk)\n{\n  const ptrdiff_t cdi CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL);\n  return PDstandardNth12_impl(u, p1o144dxdz, cdk, cdj);\n}\n#endif\n\n#ifndef KRANC_DIFF_FUNCTIONS\n#  define PDstandardNth32(u) ((-64*(KRANC_GFOFFSET3D(u,0,-1,1) + KRANC_GFOFFSET3D(u,0,1,-1)) + 64*(KRANC_GFOFFSET3D(u,0,-1,-1) + KRANC_GFOFFSET3D(u,0,1,1)) + 8*(KRANC_GFOFFSET3D(u,0,-1,2) + KRANC_GFOFFSET3D(u,0,1,-2) + KRANC_GFOFFSET3D(u,0,-2,1) + KRANC_GFOFFSET3D(u,0,2,-1)) - 8*(KRANC_GFOFFSET3D(u,0,-1,-2) + KRANC_GFOFFSET3D(u,0,1,2) + KRANC_GFOFFSET3D(u,0,-2,-1) + KRANC_GFOFFSET3D(u,0,2,1)) + KRANC_GFOFFSET3D(u,0,-2,-2) - KRANC_GFOFFSET3D(u,0,-2,2) - KRANC_GFOFFSET3D(u,0,2,-2) + KRANC_GFOFFSET3D(u,0,2,2))*p1o144dydz)\n#else\n#  define PDstandardNth32(u) (PDstandardNth32_impl(u,p1o144dydz,cdj,cdk))\nstatic CCTK_REAL PDstandardNth32_impl(const CCTK_REAL* restrict const u, const CCTK_REAL p1o144dydz, const ptrdiff_t cdj, const ptrdiff_t cdk) CCTK_ATTRIBUTE_NOINLINE CCTK_ATTRIBUTE_UNUSED;\nstatic CCTK_REAL PDstandardNth32_impl(const CCTK_REAL* restrict const u, const CCTK_REAL p1o144dydz, const ptrdiff_t cdj, const ptrdiff_t cdk)\n{\n  const ptrdiff_t cdi CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL);\n  return PDstandardNth23_impl(u, p1o144dydz, cdj, cdk);\n}\n#endif\n\n",
    "CT_Analytic_BY_Calc.cc": "/*  File produced by Kranc */\n\n#define KRANC_C\n\n#include <algorithm>\n#include <assert.h>\n#include <math.h>\n#include <stdio.h>\n#include <stdlib.h>\n#include <string.h>\n#include \"cctk.h\"\n#include \"cctk_Arguments.h\"\n#include \"cctk_Parameters.h\"\n#include \"Kranc.hh\"\n#include \"Differencing.h\"\n#include \"loopcontrol.h\"\n\nnamespace CT_Analytic {\n\n\nstatic void CT_Analytic_BY_Calc_Body(const cGH* restrict const cctkGH, const int dir, const int face, const CCTK_REAL normal[3], const CCTK_REAL tangentA[3], const CCTK_REAL tangentB[3], const int imin[3], const int imax[3], const int n_subblock_gfs, CCTK_REAL* restrict const subblock_gfs[])\n{\n  DECLARE_CCTK_ARGUMENTS;\n  DECLARE_CCTK_PARAMETERS;\n  \n  /* Include user-supplied include files */\n  /* Initialise finite differencing variables */\n  const ptrdiff_t di CCTK_ATTRIBUTE_UNUSED = 1;\n  const ptrdiff_t dj CCTK_ATTRIBUTE_UNUSED = \n    CCTK_GFINDEX3D(cctkGH,0,1,0) - CCTK_GFINDEX3D(cctkGH,0,0,0);\n  const ptrdiff_t dk CCTK_ATTRIBUTE_UNUSED = \n    CCTK_GFINDEX3D(cctkGH,0,0,1) - CCTK_GFINDEX3D(cctkGH,0,0,0);\n  const ptrdiff_t cdi CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL) * di;\n  const ptrdiff_t cdj CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL) * dj;\n  const ptrdiff_t cdk CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL) * dk;\n  const ptrdiff_t cctkLbnd1 CCTK_ATTRIBUTE_UNUSED = cctk_lbnd[0];\n  const ptrdiff_t cctkLbnd2 CCTK_ATTRIBUTE_UNUSED = cctk_lbnd[1];\n  const ptrdiff_t cctkLbnd3 CCTK_ATTRIBUTE_UNUSED = cctk_lbnd[2];\n  const CCTK_REAL t CCTK_ATTRIBUTE_UNUSED = cctk_time;\n  const CCTK_REAL cctkOriginSpace1 CCTK_ATTRIBUTE_UNUSED = \n    CCTK_ORIGIN_SPACE(0);\n  const CCTK_REAL cctkOriginSpace2 CCTK_ATTRIBUTE_UNUSED = \n    CCTK_ORIGIN_SPACE(1);\n  const CCTK_REAL cctkOriginSpace3 CCTK_ATTRIBUTE_UNUSED = \n    CCTK_ORIGIN_SPACE(2);\n  const CCTK_REAL dt CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_TIME;\n  const CCTK_REAL dx CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_SPACE(0);\n  const CCTK_REAL dy CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_SPACE(1);\n  const CCTK_REAL dz CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_SPACE(2);\n  const CCTK_REAL dxi CCTK_ATTRIBUTE_UNUSED = pow(dx,-1);\n  const CCTK_REAL dyi CCTK_ATTRIBUTE_UNUSED = pow(dy,-1);\n  const CCTK_REAL dzi CCTK_ATTRIBUTE_UNUSED = pow(dz,-1);\n  const CCTK_REAL khalf CCTK_ATTRIBUTE_UNUSED = 0.5;\n  const CCTK_REAL kthird CCTK_ATTRIBUTE_UNUSED = \n    0.333333333333333333333333333333;\n  const CCTK_REAL ktwothird CCTK_ATTRIBUTE_UNUSED = \n    0.666666666666666666666666666667;\n  const CCTK_REAL kfourthird CCTK_ATTRIBUTE_UNUSED = \n    1.33333333333333333333333333333;\n  const CCTK_REAL hdxi CCTK_ATTRIBUTE_UNUSED = 0.5*dxi;\n  const CCTK_REAL hdyi CCTK_ATTRIBUTE_UNUSED = 0.5*dyi;\n  const CCTK_REAL hdzi CCTK_ATTRIBUTE_UNUSED = 0.5*dzi;\n  /* Initialize predefined quantities */\n  const CCTK_REAL p1o12dx CCTK_ATTRIBUTE_UNUSED = 0.0833333333333333333333333333333*pow(dx,-1);\n  const CCTK_REAL p1o12dy CCTK_ATTRIBUTE_UNUSED = 0.0833333333333333333333333333333*pow(dy,-1);\n  const CCTK_REAL p1o12dz CCTK_ATTRIBUTE_UNUSED = 0.0833333333333333333333333333333*pow(dz,-1);\n  const CCTK_REAL p1o144dxdy CCTK_ATTRIBUTE_UNUSED = 0.00694444444444444444444444444444*pow(dx,-1)*pow(dy,-1);\n  const CCTK_REAL p1o144dxdz CCTK_ATTRIBUTE_UNUSED = 0.00694444444444444444444444444444*pow(dx,-1)*pow(dz,-1);\n  const CCTK_REAL p1o144dydz CCTK_ATTRIBUTE_UNUSED = 0.00694444444444444444444444444444*pow(dy,-1)*pow(dz,-1);\n  const CCTK_REAL pm1o12dx2 CCTK_ATTRIBUTE_UNUSED = -0.0833333333333333333333333333333*pow(dx,-2);\n  const CCTK_REAL pm1o12dy2 CCTK_ATTRIBUTE_UNUSED = -0.0833333333333333333333333333333*pow(dy,-2);\n  const CCTK_REAL pm1o12dz2 CCTK_ATTRIBUTE_UNUSED = -0.0833333333333333333333333333333*pow(dz,-2);\n  /* Assign local copies of arrays functions */\n  \n  \n  /* Calculate temporaries and arrays functions */\n  /* Copy local copies back to grid functions */\n  /* Loop over the grid points */\n  const int imin0=imin[0];\n  const int imin1=imin[1];\n  const int imin2=imin[2];\n  const int imax0=imax[0];\n  const int imax1=imax[1];\n  const int imax2=imax[2];\n  #pragma omp parallel\n  CCTK_LOOP3(CT_Analytic_BY_Calc,\n    i,j,k, imin0,imin1,imin2, imax0,imax1,imax2,\n    cctk_ash[0],cctk_ash[1],cctk_ash[2])\n  {\n    const ptrdiff_t index CCTK_ATTRIBUTE_UNUSED = di*i + dj*j + dk*k;\n    /* Assign local copies of grid functions */\n    \n    CCTK_REAL xL CCTK_ATTRIBUTE_UNUSED = x[index];\n    CCTK_REAL yL CCTK_ATTRIBUTE_UNUSED = y[index];\n    CCTK_REAL zL CCTK_ATTRIBUTE_UNUSED = z[index];\n    \n    /* Include user supplied include files */\n    /* Precompute derivatives */\n    /* Calculate temporaries and grid functions */\n    CCTK_REAL ra CCTK_ATTRIBUTE_UNUSED = pow(pow(eps,2) + pow(xL - xa,2) + \n      pow(yL - ya,2) + pow(zL - za,2),0.5);\n    \n    CCTK_REAL nax CCTK_ATTRIBUTE_UNUSED = (xL - xa)*pow(ra,-1);\n    \n    CCTK_REAL nay CCTK_ATTRIBUTE_UNUSED = (yL - ya)*pow(ra,-1);\n    \n    CCTK_REAL naz CCTK_ATTRIBUTE_UNUSED = (zL - za)*pow(ra,-1);\n    \n    CCTK_REAL rb CCTK_ATTRIBUTE_UNUSED = pow(pow(eps,2) + pow(xL - xb,2) + \n      pow(yL - yb,2) + pow(zL - zb,2),0.5);\n    \n    CCTK_REAL nbx CCTK_ATTRIBUTE_UNUSED = (xL - xb)*pow(rb,-1);\n    \n    CCTK_REAL nby CCTK_ATTRIBUTE_UNUSED = (yL - yb)*pow(rb,-1);\n    \n    CCTK_REAL nbz CCTK_ATTRIBUTE_UNUSED = (zL - zb)*pow(rb,-1);\n    \n    CCTK_REAL nPa CCTK_ATTRIBUTE_UNUSED = nax*Pax + nay*Pay + naz*Paz;\n    \n    CCTK_REAL nPb CCTK_ATTRIBUTE_UNUSED = nbx*Pbx + nby*Pby + nbz*Pbz;\n    \n    CCTK_REAL epsiL CCTK_ATTRIBUTE_UNUSED = 1;\n    \n    CCTK_REAL testinipsiL CCTK_ATTRIBUTE_UNUSED = ampI;\n    \n    CCTK_REAL testcxxL CCTK_ATTRIBUTE_UNUSED = 1;\n    \n    CCTK_REAL testcyyL CCTK_ATTRIBUTE_UNUSED = 1;\n    \n    CCTK_REAL testczzL CCTK_ATTRIBUTE_UNUSED = 1;\n    \n    CCTK_REAL testa0L CCTK_ATTRIBUTE_UNUSED = 0.5*(massa*pow(pow(eps,2) + \n      pow(xL - xa,2) + pow(yL - ya,2) + pow(zL - za,2),-0.5) + \n      massb*pow(pow(eps,2) + pow(xL - xb,2) + pow(yL - yb,2) + pow(zL - \n      zb,2),-0.5));\n    \n    CCTK_REAL testa1L CCTK_ATTRIBUTE_UNUSED = \n      (amp[0])*exp(0.5*(-(pow((sigmax[0]),-2)*pow((x0[0]) - xL,2)) - \n      pow((sigmay[0]),-2)*pow((y0[0]) - yL,2) - \n      pow((sigmaz[0]),-2)*pow((z0[0]) - zL,2))) + \n      (amp[1])*exp(0.5*(-(pow((sigmax[1]),-2)*pow((x0[1]) - xL,2)) - \n      pow((sigmay[1]),-2)*pow((y0[1]) - yL,2) - \n      pow((sigmaz[1]),-2)*pow((z0[1]) - zL,2))) + \n      (amp[2])*exp(0.5*(-(pow((sigmax[2]),-2)*pow((x0[2]) - xL,2)) - \n      pow((sigmay[2]),-2)*pow((y0[2]) - yL,2) - \n      pow((sigmaz[2]),-2)*pow((z0[2]) - zL,2))) + \n      (amp[3])*exp(0.5*(-(pow((sigmax[3]),-2)*pow((x0[3]) - xL,2)) - \n      pow((sigmay[3]),-2)*pow((y0[3]) - yL,2) - \n      pow((sigmaz[3]),-2)*pow((z0[3]) - zL,2))) + \n      (amp[4])*exp(0.5*(-(pow((sigmax[4]),-2)*pow((x0[4]) - xL,2)) - \n      pow((sigmay[4]),-2)*pow((y0[4]) - yL,2) - \n      pow((sigmaz[4]),-2)*pow((z0[4]) - zL,2)));\n    \n    CCTK_REAL testXxL CCTK_ATTRIBUTE_UNUSED = -0.25*((nax*nPa + \n      7*Pax)*pow(ra,-1) + (nbx*nPb + 7*Pbx)*pow(rb,-1));\n    \n    CCTK_REAL testXyL CCTK_ATTRIBUTE_UNUSED = -0.25*((nay*nPa + \n      7*Pay)*pow(ra,-1) + (nby*nPb + 7*Pby)*pow(rb,-1));\n    \n    CCTK_REAL testXzL CCTK_ATTRIBUTE_UNUSED = -0.25*((naz*nPa + \n      7*Paz)*pow(ra,-1) + (nbz*nPb + 7*Pbz)*pow(rb,-1));\n    \n    CCTK_REAL testAxxL CCTK_ATTRIBUTE_UNUSED = (3.*nax*Pax + nPa*(-1.5 + \n      1.5*pow(nax,2)))*pow(ra,-2) + (3.*nbx*Pbx + nPb*(-1.5 + \n      1.5*pow(nbx,2)))*pow(rb,-2);\n    \n    CCTK_REAL testAxyL CCTK_ATTRIBUTE_UNUSED = 1.5*((nay*Pax + \n      nax*(nay*nPa + Pay))*pow(ra,-2) + (nby*Pbx + nbx*(nby*nPb + \n      Pby))*pow(rb,-2));\n    \n    CCTK_REAL testAxzL CCTK_ATTRIBUTE_UNUSED = 1.5*((naz*Pax + \n      nax*(naz*nPa + Paz))*pow(ra,-2) + (nbz*Pbx + nbx*(nbz*nPb + \n      Pbz))*pow(rb,-2));\n    \n    CCTK_REAL testAyyL CCTK_ATTRIBUTE_UNUSED = (3.*nay*Pay + nPa*(-1.5 + \n      1.5*pow(nay,2)))*pow(ra,-2) + (3.*nby*Pby + nPb*(-1.5 + \n      1.5*pow(nby,2)))*pow(rb,-2);\n    \n    CCTK_REAL testAyzL CCTK_ATTRIBUTE_UNUSED = 1.5*((naz*Pay + \n      nay*(naz*nPa + Paz))*pow(ra,-2) + (nbz*Pby + nby*(nbz*nPb + \n      Pbz))*pow(rb,-2));\n    \n    CCTK_REAL testAzzL CCTK_ATTRIBUTE_UNUSED = (3.*naz*Paz + nPa*(-1.5 + \n      1.5*pow(naz,2)))*pow(ra,-2) + (3.*nbz*Pbz + nPb*(-1.5 + \n      1.5*pow(nbz,2)))*pow(rb,-2);\n    \n    CCTK_REAL testZL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testKL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testdxKL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testdyKL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testdzKL CCTK_ATTRIBUTE_UNUSED = 0;\n    /* Copy local copies back to grid functions */\n    epsi[index] = epsiL;\n    testa0[index] = testa0L;\n    testa1[index] = testa1L;\n    testAxx[index] = testAxxL;\n    testAxy[index] = testAxyL;\n    testAxz[index] = testAxzL;\n    testAyy[index] = testAyyL;\n    testAyz[index] = testAyzL;\n    testAzz[index] = testAzzL;\n    testcxx[index] = testcxxL;\n    testcyy[index] = testcyyL;\n    testczz[index] = testczzL;\n    testdxK[index] = testdxKL;\n    testdyK[index] = testdyKL;\n    testdzK[index] = testdzKL;\n    testinipsi[index] = testinipsiL;\n    testK[index] = testKL;\n    testXx[index] = testXxL;\n    testXy[index] = testXyL;\n    testXz[index] = testXzL;\n    testZ[index] = testZL;\n  }\n  CCTK_ENDLOOP3(CT_Analytic_BY_Calc);\n}\nextern \"C\" void CT_Analytic_BY_Calc(CCTK_ARGUMENTS)\n{\n  #ifdef DECLARE_CCTK_ARGUMENTS_CT_Analytic_BY_Calc\n  DECLARE_CCTK_ARGUMENTS_CHECKED(CT_Analytic_BY_Calc);\n  #else\n  DECLARE_CCTK_ARGUMENTS;\n  #endif\n  DECLARE_CCTK_PARAMETERS;\n  \n  if (verbose > 1)\n  {\n    CCTK_VInfo(CCTK_THORNSTRING,\"Entering CT_Analytic_BY_Calc_Body\");\n  }\n  if (cctk_iteration % CT_Analytic_BY_Calc_calc_every != CT_Analytic_BY_Calc_calc_offset)\n  {\n    return;\n  }\n  \n  const char* const groups[] = {\n    \"CT_Analytic::CT_epsi\",\n    \"CT_Analytic::CT_testa0\",\n    \"CT_Analytic::CT_testa1\",\n    \"CT_Analytic::CT_testAxx\",\n    \"CT_Analytic::CT_testAxy\",\n    \"CT_Analytic::CT_testAxz\",\n    \"CT_Analytic::CT_testAyy\",\n    \"CT_Analytic::CT_testAyz\",\n    \"CT_Analytic::CT_testAzz\",\n    \"CT_Analytic::CT_testcxx\",\n    \"CT_Analytic::CT_testcyy\",\n    \"CT_Analytic::CT_testczz\",\n    \"CT_Analytic::CT_testdxK\",\n    \"CT_Analytic::CT_testdyK\",\n    \"CT_Analytic::CT_testdzK\",\n    \"CT_Analytic::CT_testinipsi\",\n    \"CT_Analytic::CT_testK\",\n    \"CT_Analytic::CT_testXx\",\n    \"CT_Analytic::CT_testXy\",\n    \"CT_Analytic::CT_testXz\",\n    \"CT_Analytic::CT_testZ\",\n    \"grid::coordinates\"};\n  AssertGroupStorage(cctkGH, \"CT_Analytic_BY_Calc\", 22, groups);\n  \n  \n  LoopOverEverything(cctkGH, CT_Analytic_BY_Calc_Body);\n  if (verbose > 1)\n  {\n    CCTK_VInfo(CCTK_THORNSTRING,\"Leaving CT_Analytic_BY_Calc_Body\");\n  }\n}\n\n} // namespace CT_Analytic\n",
    "CT_Analytic_ExpandingLattice_Calc.cc": "/*  File produced by Kranc */\n\n#define KRANC_C\n\n#include <algorithm>\n#include <assert.h>\n#include <math.h>\n#include <stdio.h>\n#include <stdlib.h>\n#include <string.h>\n#include \"cctk.h\"\n#include \"cctk_Arguments.h\"\n#include \"cctk_Parameters.h\"\n#include \"Kranc.hh\"\n#include \"Differencing.h\"\n#include \"loopcontrol.h\"\n\nnamespace CT_Analytic {\n\n\nstatic void CT_Analytic_ExpandingLattice_Calc_Body(const cGH* restrict const cctkGH, const int dir, const int face, const CCTK_REAL normal[3], const CCTK_REAL tangentA[3], const CCTK_REAL tangentB[3], const int imin[3], const int imax[3], const int n_subblock_gfs, CCTK_REAL* restrict const subblock_gfs[])\n{\n  DECLARE_CCTK_ARGUMENTS;\n  DECLARE_CCTK_PARAMETERS;\n  \n  /* Include user-supplied include files */\n  /* Initialise finite differencing variables */\n  const ptrdiff_t di CCTK_ATTRIBUTE_UNUSED = 1;\n  const ptrdiff_t dj CCTK_ATTRIBUTE_UNUSED = \n    CCTK_GFINDEX3D(cctkGH,0,1,0) - CCTK_GFINDEX3D(cctkGH,0,0,0);\n  const ptrdiff_t dk CCTK_ATTRIBUTE_UNUSED = \n    CCTK_GFINDEX3D(cctkGH,0,0,1) - CCTK_GFINDEX3D(cctkGH,0,0,0);\n  const ptrdiff_t cdi CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL) * di;\n  const ptrdiff_t cdj CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL) * dj;\n  const ptrdiff_t cdk CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL) * dk;\n  const ptrdiff_t cctkLbnd1 CCTK_ATTRIBUTE_UNUSED = cctk_lbnd[0];\n  const ptrdiff_t cctkLbnd2 CCTK_ATTRIBUTE_UNUSED = cctk_lbnd[1];\n  const ptrdiff_t cctkLbnd3 CCTK_ATTRIBUTE_UNUSED = cctk_lbnd[2];\n  const CCTK_REAL t CCTK_ATTRIBUTE_UNUSED = cctk_time;\n  const CCTK_REAL cctkOriginSpace1 CCTK_ATTRIBUTE_UNUSED = \n    CCTK_ORIGIN_SPACE(0);\n  const CCTK_REAL cctkOriginSpace2 CCTK_ATTRIBUTE_UNUSED = \n    CCTK_ORIGIN_SPACE(1);\n  const CCTK_REAL cctkOriginSpace3 CCTK_ATTRIBUTE_UNUSED = \n    CCTK_ORIGIN_SPACE(2);\n  const CCTK_REAL dt CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_TIME;\n  const CCTK_REAL dx CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_SPACE(0);\n  const CCTK_REAL dy CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_SPACE(1);\n  const CCTK_REAL dz CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_SPACE(2);\n  const CCTK_REAL dxi CCTK_ATTRIBUTE_UNUSED = pow(dx,-1);\n  const CCTK_REAL dyi CCTK_ATTRIBUTE_UNUSED = pow(dy,-1);\n  const CCTK_REAL dzi CCTK_ATTRIBUTE_UNUSED = pow(dz,-1);\n  const CCTK_REAL khalf CCTK_ATTRIBUTE_UNUSED = 0.5;\n  const CCTK_REAL kthird CCTK_ATTRIBUTE_UNUSED = \n    0.333333333333333333333333333333;\n  const CCTK_REAL ktwothird CCTK_ATTRIBUTE_UNUSED = \n    0.666666666666666666666666666667;\n  const CCTK_REAL kfourthird CCTK_ATTRIBUTE_UNUSED = \n    1.33333333333333333333333333333;\n  const CCTK_REAL hdxi CCTK_ATTRIBUTE_UNUSED = 0.5*dxi;\n  const CCTK_REAL hdyi CCTK_ATTRIBUTE_UNUSED = 0.5*dyi;\n  const CCTK_REAL hdzi CCTK_ATTRIBUTE_UNUSED = 0.5*dzi;\n  /* Initialize predefined quantities */\n  const CCTK_REAL p1o12dx CCTK_ATTRIBUTE_UNUSED = 0.0833333333333333333333333333333*pow(dx,-1);\n  const CCTK_REAL p1o12dy CCTK_ATTRIBUTE_UNUSED = 0.0833333333333333333333333333333*pow(dy,-1);\n  const CCTK_REAL p1o12dz CCTK_ATTRIBUTE_UNUSED = 0.0833333333333333333333333333333*pow(dz,-1);\n  const CCTK_REAL p1o144dxdy CCTK_ATTRIBUTE_UNUSED = 0.00694444444444444444444444444444*pow(dx,-1)*pow(dy,-1);\n  const CCTK_REAL p1o144dxdz CCTK_ATTRIBUTE_UNUSED = 0.00694444444444444444444444444444*pow(dx,-1)*pow(dz,-1);\n  const CCTK_REAL p1o144dydz CCTK_ATTRIBUTE_UNUSED = 0.00694444444444444444444444444444*pow(dy,-1)*pow(dz,-1);\n  const CCTK_REAL pm1o12dx2 CCTK_ATTRIBUTE_UNUSED = -0.0833333333333333333333333333333*pow(dx,-2);\n  const CCTK_REAL pm1o12dy2 CCTK_ATTRIBUTE_UNUSED = -0.0833333333333333333333333333333*pow(dy,-2);\n  const CCTK_REAL pm1o12dz2 CCTK_ATTRIBUTE_UNUSED = -0.0833333333333333333333333333333*pow(dz,-2);\n  /* Assign local copies of arrays functions */\n  \n  \n  /* Calculate temporaries and arrays functions */\n  /* Copy local copies back to grid functions */\n  /* Loop over the grid points */\n  const int imin0=imin[0];\n  const int imin1=imin[1];\n  const int imin2=imin[2];\n  const int imax0=imax[0];\n  const int imax1=imax[1];\n  const int imax2=imax[2];\n  #pragma omp parallel\n  CCTK_LOOP3(CT_Analytic_ExpandingLattice_Calc,\n    i,j,k, imin0,imin1,imin2, imax0,imax1,imax2,\n    cctk_ash[0],cctk_ash[1],cctk_ash[2])\n  {\n    const ptrdiff_t index CCTK_ATTRIBUTE_UNUSED = di*i + dj*j + dk*k;\n    /* Assign local copies of grid functions */\n    \n    CCTK_REAL rL CCTK_ATTRIBUTE_UNUSED = r[index];\n    CCTK_REAL xL CCTK_ATTRIBUTE_UNUSED = x[index];\n    CCTK_REAL yL CCTK_ATTRIBUTE_UNUSED = y[index];\n    CCTK_REAL zL CCTK_ATTRIBUTE_UNUSED = z[index];\n    \n    /* Include user supplied include files */\n    /* Precompute derivatives */\n    /* Calculate temporaries and grid functions */\n    CCTK_REAL d2mW CCTK_ATTRIBUTE_UNUSED = 0.25*(1 + isgn(rL - l))*(1 + \n      isgn(-rL + l + sigma))*pow(pow(rL,2) + \n      pow(eps,2),-1)*(pow(rL,2)*(0.5*pow(-1 + pow(rL - l - \n      sigma,6)*pow(sigma,-6),6)*(0.75*massa*pow(1.154700538379251529018297561004*(0.577350269189625764509148780502*rL \n      - xa) + \n      1.154700538379251529018297561004*(0.577350269189625764509148780502*rL - \n      ya) + \n      1.154700538379251529018297561004*(0.577350269189625764509148780502*rL - \n      za),2)*pow(pow(eps,2) + pow(0.577350269189625764509148780502*rL - xa,2) \n      + pow(0.577350269189625764509148780502*rL - ya,2) + \n      pow(0.577350269189625764509148780502*rL - za,2),-2.5) - \n      massa*pow(pow(eps,2) + pow(0.577350269189625764509148780502*rL - xa,2) \n      + pow(0.577350269189625764509148780502*rL - ya,2) + \n      pow(0.577350269189625764509148780502*rL - za,2),-1.5) + \n      0.75*massb*pow(1.154700538379251529018297561004*(0.577350269189625764509148780502*rL \n      - xb) + \n      1.154700538379251529018297561004*(0.577350269189625764509148780502*rL - \n      yb) + \n      1.154700538379251529018297561004*(0.577350269189625764509148780502*rL - \n      zb),2)*pow(pow(eps,2) + pow(0.577350269189625764509148780502*rL - xb,2) \n      + pow(0.577350269189625764509148780502*rL - yb,2) + \n      pow(0.577350269189625764509148780502*rL - zb,2),-2.5) - \n      massb*pow(pow(eps,2) + pow(0.577350269189625764509148780502*rL - xb,2) \n      + pow(0.577350269189625764509148780502*rL - yb,2) + \n      pow(0.577350269189625764509148780502*rL - zb,2),-1.5)) + 36.*pow(rL - l \n      - sigma,5)*pow(sigma,-6)*pow(-1 + pow(rL - l - \n      sigma,6)*pow(sigma,-6),5)*(-0.5*massa*(1.154700538379251529018297561004*(0.577350269189625764509148780502*rL \n      - xa) + \n      1.154700538379251529018297561004*(0.577350269189625764509148780502*rL - \n      ya) + \n      1.154700538379251529018297561004*(0.577350269189625764509148780502*rL - \n      za))*pow(pow(eps,2) + pow(0.577350269189625764509148780502*rL - xa,2) + \n      pow(0.577350269189625764509148780502*rL - ya,2) + \n      pow(0.577350269189625764509148780502*rL - za,2),-1.5) - \n      0.5*massb*(1.154700538379251529018297561004*(0.577350269189625764509148780502*rL \n      - xb) + \n      1.154700538379251529018297561004*(0.577350269189625764509148780502*rL - \n      yb) + \n      1.154700538379251529018297561004*(0.577350269189625764509148780502*rL - \n      zb))*pow(pow(eps,2) + pow(0.577350269189625764509148780502*rL - xb,2) + \n      pow(0.577350269189625764509148780502*rL - yb,2) + \n      pow(0.577350269189625764509148780502*rL - zb,2),-1.5)) + 540.*pow(rL - \n      l - sigma,10)*pow(sigma,-12)*pow(-1 + pow(rL - l - \n      sigma,6)*pow(sigma,-6),4)*(massa*pow(pow(eps,2) + \n      pow(0.577350269189625764509148780502*rL - xa,2) + \n      pow(0.577350269189625764509148780502*rL - ya,2) + \n      pow(0.577350269189625764509148780502*rL - za,2),-0.5) + \n      massb*pow(pow(eps,2) + pow(0.577350269189625764509148780502*rL - xb,2) \n      + pow(0.577350269189625764509148780502*rL - yb,2) + \n      pow(0.577350269189625764509148780502*rL - zb,2),-0.5)) + 90.*pow(rL - l \n      - sigma,4)*pow(sigma,-6)*pow(-1 + pow(rL - l - \n      sigma,6)*pow(sigma,-6),5)*(massa*pow(pow(eps,2) + \n      pow(0.577350269189625764509148780502*rL - xa,2) + \n      pow(0.577350269189625764509148780502*rL - ya,2) + \n      pow(0.577350269189625764509148780502*rL - za,2),-0.5) + \n      massb*pow(pow(eps,2) + pow(0.577350269189625764509148780502*rL - xb,2) \n      + pow(0.577350269189625764509148780502*rL - yb,2) + \n      pow(0.577350269189625764509148780502*rL - zb,2),-0.5))) + \n      2*rL*(0.5*pow(-1 + pow(rL - l - \n      sigma,6)*pow(sigma,-6),6)*(-0.5*massa*(1.154700538379251529018297561004*(0.577350269189625764509148780502*rL \n      - xa) + \n      1.154700538379251529018297561004*(0.577350269189625764509148780502*rL - \n      ya) + \n      1.154700538379251529018297561004*(0.577350269189625764509148780502*rL - \n      za))*pow(pow(eps,2) + pow(0.577350269189625764509148780502*rL - xa,2) + \n      pow(0.577350269189625764509148780502*rL - ya,2) + \n      pow(0.577350269189625764509148780502*rL - za,2),-1.5) - \n      0.5*massb*(1.154700538379251529018297561004*(0.577350269189625764509148780502*rL \n      - xb) + \n      1.154700538379251529018297561004*(0.577350269189625764509148780502*rL - \n      yb) + \n      1.154700538379251529018297561004*(0.577350269189625764509148780502*rL - \n      zb))*pow(pow(eps,2) + pow(0.577350269189625764509148780502*rL - xb,2) + \n      pow(0.577350269189625764509148780502*rL - yb,2) + \n      pow(0.577350269189625764509148780502*rL - zb,2),-1.5)) + 18.*pow(rL - l \n      - sigma,5)*pow(sigma,-6)*pow(-1 + pow(rL - l - \n      sigma,6)*pow(sigma,-6),5)*(massa*pow(pow(eps,2) + \n      pow(0.577350269189625764509148780502*rL - xa,2) + \n      pow(0.577350269189625764509148780502*rL - ya,2) + \n      pow(0.577350269189625764509148780502*rL - za,2),-0.5) + \n      massb*pow(pow(eps,2) + pow(0.577350269189625764509148780502*rL - xb,2) \n      + pow(0.577350269189625764509148780502*rL - yb,2) + \n      pow(0.577350269189625764509148780502*rL - zb,2),-0.5))));\n    \n    CCTK_REAL testinipsiL CCTK_ATTRIBUTE_UNUSED = ampI;\n    \n    CCTK_REAL epsiL CCTK_ATTRIBUTE_UNUSED = 1;\n    \n    CCTK_REAL testcxxL CCTK_ATTRIBUTE_UNUSED = 1;\n    \n    CCTK_REAL testcyyL CCTK_ATTRIBUTE_UNUSED = 1;\n    \n    CCTK_REAL testczzL CCTK_ATTRIBUTE_UNUSED = 1;\n    \n    CCTK_REAL testc0L CCTK_ATTRIBUTE_UNUSED = -d2mW;\n    \n    CCTK_REAL testc1L CCTK_ATTRIBUTE_UNUSED = \n      -0.0833333333333333333333333333333*pow(Kc,2)*pow(0.5*(1 + isgn(rL + eps \n      - l - sigma)) + 0.25*(1 + isgn(rL - l))*(1 + isgn(-rL - eps + l + \n      sigma))*pow(-1 + pow(rL - l - sigma,6)*pow(sigma,-6),6),2);\n    \n    CCTK_REAL testc2L CCTK_ATTRIBUTE_UNUSED = Kc;\n    \n    CCTK_REAL testc3L CCTK_ATTRIBUTE_UNUSED = 0.25*(1 + isgn(rL - l))*(1 + \n      isgn(-rL + l + sigma))*pow(pow(rL,2) + \n      pow(eps,2),-1)*(1080*pow(rL,2)*pow(rL - l - \n      sigma,10)*pow(sigma,-12)*pow(-1 + pow(rL - l - \n      sigma,6)*pow(sigma,-6),4) + 180*pow(rL,2)*pow(rL - l - \n      sigma,4)*pow(sigma,-6)*pow(-1 + pow(rL - l - sigma,6)*pow(sigma,-6),5) \n      + 72*rL*pow(rL - l - sigma,5)*pow(sigma,-6)*pow(-1 + pow(rL - l - \n      sigma,6)*pow(sigma,-6),5));\n    \n    CCTK_REAL testa0L CCTK_ATTRIBUTE_UNUSED = 0.5*(1 + 0.5*(-1 - isgn(rL + \n      eps - l - sigma)) - 0.25*(1 + isgn(rL - l))*(1 + isgn(-rL - eps + l + \n      sigma))*pow(-1 + pow(rL - l - \n      sigma,6)*pow(sigma,-6),6))*(massa*pow(pow(eps,2) + \n      pow(0.577350269189625764509148780502*rL - xa,2) + \n      pow(0.577350269189625764509148780502*rL - ya,2) + \n      pow(0.577350269189625764509148780502*rL - za,2),-0.5) + \n      massb*pow(pow(eps,2) + pow(0.577350269189625764509148780502*rL - xb,2) \n      + pow(0.577350269189625764509148780502*rL - yb,2) + \n      pow(0.577350269189625764509148780502*rL - zb,2),-0.5));\n    \n    CCTK_REAL testWL CCTK_ATTRIBUTE_UNUSED = 0.5*(1 + isgn(rL + eps - l - \n      sigma)) + 0.25*(1 + isgn(rL - l))*(1 + isgn(-rL - eps + l + \n      sigma))*pow(-1 + pow(rL - l - sigma,6)*pow(sigma,-6),6);\n    \n    CCTK_REAL testKL CCTK_ATTRIBUTE_UNUSED = Kc*(0.5*(1 + isgn(rL + eps - \n      l - sigma)) + 0.25*(1 + isgn(rL - l))*(1 + isgn(-rL - eps + l + \n      sigma))*pow(-1 + pow(rL - l - sigma,6)*pow(sigma,-6),6));\n    \n    CCTK_REAL testdxKL CCTK_ATTRIBUTE_UNUSED = 9*xL*Kc*(1 + isgn(l + sigma \n      - pow(pow(xL,2) + pow(yL,2) + pow(zL,2) + pow(eps,2),0.5)))*(1 + \n      isgn(-l + pow(pow(xL,2) + pow(yL,2) + pow(zL,2) + \n      pow(eps,2),0.5)))*pow(sigma,-6)*pow(pow(xL,2) + pow(yL,2) + pow(zL,2) + \n      pow(eps,2),-0.5)*pow(-l - sigma + pow(pow(xL,2) + pow(yL,2) + pow(zL,2) \n      + pow(eps,2),0.5),5)*pow(-1 + pow(sigma,-6)*pow(-l - sigma + \n      pow(pow(xL,2) + pow(yL,2) + pow(zL,2) + pow(eps,2),0.5),6),5);\n    \n    CCTK_REAL testdyKL CCTK_ATTRIBUTE_UNUSED = 9*yL*Kc*(1 + isgn(l + sigma \n      - pow(pow(xL,2) + pow(yL,2) + pow(zL,2) + pow(eps,2),0.5)))*(1 + \n      isgn(-l + pow(pow(xL,2) + pow(yL,2) + pow(zL,2) + \n      pow(eps,2),0.5)))*pow(sigma,-6)*pow(pow(xL,2) + pow(yL,2) + pow(zL,2) + \n      pow(eps,2),-0.5)*pow(-l - sigma + pow(pow(xL,2) + pow(yL,2) + pow(zL,2) \n      + pow(eps,2),0.5),5)*pow(-1 + pow(sigma,-6)*pow(-l - sigma + \n      pow(pow(xL,2) + pow(yL,2) + pow(zL,2) + pow(eps,2),0.5),6),5);\n    \n    CCTK_REAL testdzKL CCTK_ATTRIBUTE_UNUSED = 9*zL*Kc*(1 + isgn(l + sigma \n      - pow(pow(xL,2) + pow(yL,2) + pow(zL,2) + pow(eps,2),0.5)))*(1 + \n      isgn(-l + pow(pow(xL,2) + pow(yL,2) + pow(zL,2) + \n      pow(eps,2),0.5)))*pow(sigma,-6)*pow(pow(xL,2) + pow(yL,2) + pow(zL,2) + \n      pow(eps,2),-0.5)*pow(-l - sigma + pow(pow(xL,2) + pow(yL,2) + pow(zL,2) \n      + pow(eps,2),0.5),5)*pow(-1 + pow(sigma,-6)*pow(-l - sigma + \n      pow(pow(xL,2) + pow(yL,2) + pow(zL,2) + pow(eps,2),0.5),6),5);\n    \n    CCTK_REAL testXxL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testXyL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testXzL CCTK_ATTRIBUTE_UNUSED = 0;\n    /* Copy local copies back to grid functions */\n    epsi[index] = epsiL;\n    testa0[index] = testa0L;\n    testc0[index] = testc0L;\n    testc1[index] = testc1L;\n    testc2[index] = testc2L;\n    testc3[index] = testc3L;\n    testcxx[index] = testcxxL;\n    testcyy[index] = testcyyL;\n    testczz[index] = testczzL;\n    testdxK[index] = testdxKL;\n    testdyK[index] = testdyKL;\n    testdzK[index] = testdzKL;\n    testinipsi[index] = testinipsiL;\n    testK[index] = testKL;\n    testW[index] = testWL;\n    testXx[index] = testXxL;\n    testXy[index] = testXyL;\n    testXz[index] = testXzL;\n  }\n  CCTK_ENDLOOP3(CT_Analytic_ExpandingLattice_Calc);\n}\nextern \"C\" void CT_Analytic_ExpandingLattice_Calc(CCTK_ARGUMENTS)\n{\n  #ifdef DECLARE_CCTK_ARGUMENTS_CT_Analytic_ExpandingLattice_Calc\n  DECLARE_CCTK_ARGUMENTS_CHECKED(CT_Analytic_ExpandingLattice_Calc);\n  #else\n  DECLARE_CCTK_ARGUMENTS;\n  #endif\n  DECLARE_CCTK_PARAMETERS;\n  \n  if (verbose > 1)\n  {\n    CCTK_VInfo(CCTK_THORNSTRING,\"Entering CT_Analytic_ExpandingLattice_Calc_Body\");\n  }\n  if (cctk_iteration % CT_Analytic_ExpandingLattice_Calc_calc_every != CT_Analytic_ExpandingLattice_Calc_calc_offset)\n  {\n    return;\n  }\n  \n  const char* const groups[] = {\n    \"CT_Analytic::CT_epsi\",\n    \"CT_Analytic::CT_testa0\",\n    \"CT_Analytic::CT_testc0\",\n    \"CT_Analytic::CT_testc1\",\n    \"CT_Analytic::CT_testc2\",\n    \"CT_Analytic::CT_testc3\",\n    \"CT_Analytic::CT_testcxx\",\n    \"CT_Analytic::CT_testcyy\",\n    \"CT_Analytic::CT_testczz\",\n    \"CT_Analytic::CT_testdxK\",\n    \"CT_Analytic::CT_testdyK\",\n    \"CT_Analytic::CT_testdzK\",\n    \"CT_Analytic::CT_testinipsi\",\n    \"CT_Analytic::CT_testK\",\n    \"CT_Analytic::CT_testW\",\n    \"CT_Analytic::CT_testXx\",\n    \"CT_Analytic::CT_testXy\",\n    \"CT_Analytic::CT_testXz\",\n    \"grid::coordinates\"};\n  AssertGroupStorage(cctkGH, \"CT_Analytic_ExpandingLattice_Calc\", 19, groups);\n  \n  \n  LoopOverEverything(cctkGH, CT_Analytic_ExpandingLattice_Calc_Body);\n  if (verbose > 1)\n  {\n    CCTK_VInfo(CCTK_THORNSTRING,\"Leaving CT_Analytic_ExpandingLattice_Calc_Body\");\n  }\n}\n\n} // namespace CT_Analytic\n",
    "Kranc.hh": "#ifndef KRANC_HH\n#define KRANC_HH\n\n#include <cmath>\n#include <math.h>\n#include <sys/time.h>\n\n#include <cctk.h>\n\nnamespace CT_Analytic {\n\n/*********************************************************************\n * Types\n *********************************************************************/\n\nstruct KrancData\n{\n  // Actual loop bounds\n  int imin[3];\n  int imax[3];\n  // Region covered by this tile\n  int tile_imin[3];\n  int tile_imax[3];\n  // Boundary information\n  int dir;\n  int face;\n  CCTK_REAL normal[3];\n  CCTK_REAL tangentA[3];\n  CCTK_REAL tangentB[3];\n};\n\ntypedef void(*Kranc_Calculation)(cGH const * restrict cctkGH,\n                                 int eir,\n                                 int face,\n                                 CCTK_REAL const normal[3],\n                                 CCTK_REAL const tangentA[3],\n                                 CCTK_REAL const tangentB[3],\n                                 int const min[3],\n                                 int const max[3], \n                                 int n_subblock_gfs, \n                                 CCTK_REAL * restrict const subblock_gfs[]);\n\n/*********************************************************************\n * Function declarations\n *********************************************************************/\n\n// Boundary information\n\nCCTK_ATTRIBUTE_UNUSED\nstatic CCTK_INT KrancBdy_SelectVarForBC(\n    const CCTK_POINTER_TO_CONST cctkGH_,\n    const CCTK_INT faces,\n    const CCTK_INT width,\n    const CCTK_INT table_handle,\n    const CCTK_STRING var_name,\n    const CCTK_STRING bc_name) {\n\n    static bool is_aliased = CCTK_IsFunctionAliased(\"Driver_SelectGroupForBC\");\n\n    int ierr = 0;\n\n    ierr = Boundary_SelectVarForBC(cctkGH_,faces,width,table_handle,var_name,bc_name);\n\n    if(ierr == 0 && is_aliased)\n        ierr = Driver_SelectVarForBC(cctkGH_,faces,width,table_handle,var_name,bc_name);\n\n    return ierr;\n}\n\nCCTK_ATTRIBUTE_UNUSED\nstatic CCTK_INT KrancBdy_SelectGroupForBC(\n    const CCTK_POINTER_TO_CONST cctkGH_,\n    const CCTK_INT faces,\n    const CCTK_INT width,\n    const CCTK_INT table_handle,\n    const CCTK_STRING group_name,\n    const CCTK_STRING bc_name) {\n\n    static bool is_aliased = CCTK_IsFunctionAliased(\"Driver_SelectGroupForBC\");\n\n    int ierr;\n\n    ierr = Boundary_SelectGroupForBC(cctkGH_,faces,width,table_handle,group_name,bc_name);\n\n    if(ierr == 0 && is_aliased)\n        ierr = Driver_SelectGroupForBC(cctkGH_,faces,width,table_handle,group_name,bc_name);\n\n    return ierr;\n}\n\nint GetBoundaryWidth(cGH const * restrict const cctkGH);\n\nvoid GetBoundaryInfo(cGH const * restrict cctkGH,\n                                  int const * restrict cctk_ash,\n                                  int const * restrict cctk_lsh,\n                                  int const * restrict cctk_bbox,\n                                  int const * restrict cctk_nghostzones,\n                                  int * restrict imin, \n                                  int * restrict imax,\n                                  int * restrict is_symbnd, \n                                  int * restrict is_physbnd,\n                                  int * restrict is_ipbnd);\n\n// Looping\n\nvoid LoopOverEverything(cGH const * restrict cctkGH,\n                                     Kranc_Calculation calc);\nvoid LoopOverBoundary(cGH const * restrict cctkGH,\n                                   Kranc_Calculation calc);\nvoid LoopOverBoundaryWithGhosts(cGH const * restrict cctkGH,\n                                             Kranc_Calculation calc);\nvoid LoopOverInterior(cGH const * restrict cctkGH,\n                                   Kranc_Calculation calc);\n\n// Tiled looping\n\nvoid TiledLoop(\n  cGH const * restrict const cctkGH,\n  const KrancData & restrict kd_coarse,\n  void (calc)(const cGH* restrict const cctkGH,\n              const KrancData & restrict kd));\n\nvoid TiledLoopOverEverything(\n  cGH const * restrict const cctkGH,\n  void (calc)(const cGH* restrict const cctkGH,\n              const KrancData & restrict kd));\n\nvoid TiledLoopOverInterior(\n  cGH const * restrict const cctkGH,\n  void (calc)(const cGH* restrict const cctkGH,\n              const KrancData & restrict kd));\n\n// void TiledLoopOverBoundary(\n//   cGH const * restrict const cctkGH,\n//   void (calc)(const cGH* restrict const cctkGH,\n//               const KrancData & restrict kd));\n\n// Runtime checks\n\nvoid EnsureStencilFits(cGH const * restrict const cctkGH,\n                                    const char *calc, int ni, int nj, int nk);\nvoid GroupDataPointers(cGH const * restrict const cctkGH,\n                                    const char *group_name, int nvars,\n                                    CCTK_REAL const *restrict *ptrs);\nvoid AssertGroupStorage(cGH const * restrict const cctkGH,\n                                     const char *calc, int ngroups,\n                                     const char *const group_names[]);\n\n\n/*********************************************************************\n * Gridfunction access macros\n *********************************************************************/\n\n  /* Grid function access */\n  /* var is a pointer to a grid point, i,j,k are offsets with respect\n     to that point.\n     For example: KRANC_GFINDEX3D_OFFSET(&u[ind3d],-1,-1,0) */\n  /* simple implementation */\n  /* #define KRANC_GFOFFSET3D(var,i,j,k) ((var)[di*(i)+dj*(j)+dk*(k)]) */\n  /* more efficient implementation for some compilers */\n#define KRANC_GFOFFSET3D(var,i,j,k)                                     \\\n  (*(CCTK_REAL const*)&((char const*)(var))[cdi*(i)+cdj*(j)+cdk*(k)])\n\n#define GFOffset(u,di,dj,dk) KRANC_GFOFFSET3D(&(u)[index],di,dj,dk)\n\n/*********************************************************************\n * Macros used in Kranc expressions\n *********************************************************************/\n\n#define IfThen(x,y,z) ((x) ? (y) : (z))\n#define MinMod(x, y)  ((x) * (y) < 0 ? 0 : (fabs((x)) < fabs((y)) ? (x) : (y)))\n#define VanLeer(x, y)  ((x) * (y) < 0 ? 0 : (Min3(2*fabs(x),2*fabs(y),0.5*(fabs(x)+fabs(y)))*Sign((x)+(y))))\n#define StepFunction(x) ((x)>0)\n\n/*********************************************************************\n * Numerical constants not defined in C++\n *********************************************************************/\n\n#define E           M_E\n#define Pi          M_PI\n\n/*********************************************************************\n * Declare functions on the device if compiled for CUDA\n *********************************************************************/\n\n#ifdef __CUDACC__\n#define KRANC_WHERE __device__\n#else\n#define KRANC_WHERE\n#endif\n\n/*********************************************************************\n * Implement the signum function, used for Mathematica's Sign function\n *********************************************************************/\n\nKRANC_WHERE static inline CCTK_REAL sgn(CCTK_REAL x)\n{\n#ifdef __cplusplus\n  using namespace std;\n#endif\n  return x==(CCTK_REAL)0.0 ? (CCTK_REAL)0.0 : copysign((CCTK_REAL)1.0, x);\n}\n\nKRANC_WHERE static inline int isgn(CCTK_REAL x)\n{\n  if (x == (CCTK_REAL)0.0) return 0;\n#ifdef __cplusplus\n  using namespace std;\n  int s = signbit(x);\n#else\n  int s = signbit(x);\n#endif\n  return s ? -1 : +1;\n}\n\n} // namespace CT_Analytic\n\nusing CT_Analytic::KrancBdy_SelectVarForBC;\nusing CT_Analytic::KrancBdy_SelectGroupForBC;\n\n#endif  // #ifndef KRANC_HH",
    "CT_Analytic_Lump_Calc.cc": "/*  File produced by Kranc */\n\n#define KRANC_C\n\n#include <algorithm>\n#include <assert.h>\n#include <math.h>\n#include <stdio.h>\n#include <stdlib.h>\n#include <string.h>\n#include \"cctk.h\"\n#include \"cctk_Arguments.h\"\n#include \"cctk_Parameters.h\"\n#include \"Kranc.hh\"\n#include \"Differencing.h\"\n#include \"loopcontrol.h\"\n\nnamespace CT_Analytic {\n\n\nstatic void CT_Analytic_Lump_Calc_Body(const cGH* restrict const cctkGH, const int dir, const int face, const CCTK_REAL normal[3], const CCTK_REAL tangentA[3], const CCTK_REAL tangentB[3], const int imin[3], const int imax[3], const int n_subblock_gfs, CCTK_REAL* restrict const subblock_gfs[])\n{\n  DECLARE_CCTK_ARGUMENTS;\n  DECLARE_CCTK_PARAMETERS;\n  \n  /* Include user-supplied include files */\n  /* Initialise finite differencing variables */\n  const ptrdiff_t di CCTK_ATTRIBUTE_UNUSED = 1;\n  const ptrdiff_t dj CCTK_ATTRIBUTE_UNUSED = \n    CCTK_GFINDEX3D(cctkGH,0,1,0) - CCTK_GFINDEX3D(cctkGH,0,0,0);\n  const ptrdiff_t dk CCTK_ATTRIBUTE_UNUSED = \n    CCTK_GFINDEX3D(cctkGH,0,0,1) - CCTK_GFINDEX3D(cctkGH,0,0,0);\n  const ptrdiff_t cdi CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL) * di;\n  const ptrdiff_t cdj CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL) * dj;\n  const ptrdiff_t cdk CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL) * dk;\n  const ptrdiff_t cctkLbnd1 CCTK_ATTRIBUTE_UNUSED = cctk_lbnd[0];\n  const ptrdiff_t cctkLbnd2 CCTK_ATTRIBUTE_UNUSED = cctk_lbnd[1];\n  const ptrdiff_t cctkLbnd3 CCTK_ATTRIBUTE_UNUSED = cctk_lbnd[2];\n  const CCTK_REAL t CCTK_ATTRIBUTE_UNUSED = cctk_time;\n  const CCTK_REAL cctkOriginSpace1 CCTK_ATTRIBUTE_UNUSED = \n    CCTK_ORIGIN_SPACE(0);\n  const CCTK_REAL cctkOriginSpace2 CCTK_ATTRIBUTE_UNUSED = \n    CCTK_ORIGIN_SPACE(1);\n  const CCTK_REAL cctkOriginSpace3 CCTK_ATTRIBUTE_UNUSED = \n    CCTK_ORIGIN_SPACE(2);\n  const CCTK_REAL dt CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_TIME;\n  const CCTK_REAL dx CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_SPACE(0);\n  const CCTK_REAL dy CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_SPACE(1);\n  const CCTK_REAL dz CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_SPACE(2);\n  const CCTK_REAL dxi CCTK_ATTRIBUTE_UNUSED = pow(dx,-1);\n  const CCTK_REAL dyi CCTK_ATTRIBUTE_UNUSED = pow(dy,-1);\n  const CCTK_REAL dzi CCTK_ATTRIBUTE_UNUSED = pow(dz,-1);\n  const CCTK_REAL khalf CCTK_ATTRIBUTE_UNUSED = 0.5;\n  const CCTK_REAL kthird CCTK_ATTRIBUTE_UNUSED = \n    0.333333333333333333333333333333;\n  const CCTK_REAL ktwothird CCTK_ATTRIBUTE_UNUSED = \n    0.666666666666666666666666666667;\n  const CCTK_REAL kfourthird CCTK_ATTRIBUTE_UNUSED = \n    1.33333333333333333333333333333;\n  const CCTK_REAL hdxi CCTK_ATTRIBUTE_UNUSED = 0.5*dxi;\n  const CCTK_REAL hdyi CCTK_ATTRIBUTE_UNUSED = 0.5*dyi;\n  const CCTK_REAL hdzi CCTK_ATTRIBUTE_UNUSED = 0.5*dzi;\n  /* Initialize predefined quantities */\n  const CCTK_REAL p1o12dx CCTK_ATTRIBUTE_UNUSED = 0.0833333333333333333333333333333*pow(dx,-1);\n  const CCTK_REAL p1o12dy CCTK_ATTRIBUTE_UNUSED = 0.0833333333333333333333333333333*pow(dy,-1);\n  const CCTK_REAL p1o12dz CCTK_ATTRIBUTE_UNUSED = 0.0833333333333333333333333333333*pow(dz,-1);\n  const CCTK_REAL p1o144dxdy CCTK_ATTRIBUTE_UNUSED = 0.00694444444444444444444444444444*pow(dx,-1)*pow(dy,-1);\n  const CCTK_REAL p1o144dxdz CCTK_ATTRIBUTE_UNUSED = 0.00694444444444444444444444444444*pow(dx,-1)*pow(dz,-1);\n  const CCTK_REAL p1o144dydz CCTK_ATTRIBUTE_UNUSED = 0.00694444444444444444444444444444*pow(dy,-1)*pow(dz,-1);\n  const CCTK_REAL pm1o12dx2 CCTK_ATTRIBUTE_UNUSED = -0.0833333333333333333333333333333*pow(dx,-2);\n  const CCTK_REAL pm1o12dy2 CCTK_ATTRIBUTE_UNUSED = -0.0833333333333333333333333333333*pow(dy,-2);\n  const CCTK_REAL pm1o12dz2 CCTK_ATTRIBUTE_UNUSED = -0.0833333333333333333333333333333*pow(dz,-2);\n  /* Assign local copies of arrays functions */\n  \n  \n  /* Calculate temporaries and arrays functions */\n  /* Copy local copies back to grid functions */\n  /* Loop over the grid points */\n  const int imin0=imin[0];\n  const int imin1=imin[1];\n  const int imin2=imin[2];\n  const int imax0=imax[0];\n  const int imax1=imax[1];\n  const int imax2=imax[2];\n  #pragma omp parallel\n  CCTK_LOOP3(CT_Analytic_Lump_Calc,\n    i,j,k, imin0,imin1,imin2, imax0,imax1,imax2,\n    cctk_ash[0],cctk_ash[1],cctk_ash[2])\n  {\n    const ptrdiff_t index CCTK_ATTRIBUTE_UNUSED = di*i + dj*j + dk*k;\n    /* Assign local copies of grid functions */\n    \n    CCTK_REAL xL CCTK_ATTRIBUTE_UNUSED = x[index];\n    CCTK_REAL yL CCTK_ATTRIBUTE_UNUSED = y[index];\n    CCTK_REAL zL CCTK_ATTRIBUTE_UNUSED = z[index];\n    \n    /* Include user supplied include files */\n    /* Precompute derivatives */\n    /* Calculate temporaries and grid functions */\n    CCTK_REAL d2soln CCTK_ATTRIBUTE_UNUSED = \n      ampG*((amp[0])*(-(exp(-0.5*pow((sigmax[0]),-2)*pow(-(x0[0]) + xL,2) - \n      0.5*pow((sigmay[0]),-2)*pow(-(y0[0]) + yL,2) - \n      0.5*pow((sigmaz[0]),-2)*pow(-(z0[0]) + zL,2))*pow((sigmax[0]),-2)) + \n      exp(-0.5*pow((sigmax[0]),-2)*pow(-(x0[0]) + xL,2) - \n      0.5*pow((sigmay[0]),-2)*pow(-(y0[0]) + yL,2) - \n      0.5*pow((sigmaz[0]),-2)*pow(-(z0[0]) + \n      zL,2))*pow((sigmax[0]),-4)*pow(-(x0[0]) + xL,2)) + \n      (amp[1])*(-(exp(-0.5*pow((sigmax[1]),-2)*pow(-(x0[1]) + xL,2) - \n      0.5*pow((sigmay[1]),-2)*pow(-(y0[1]) + yL,2) - \n      0.5*pow((sigmaz[1]),-2)*pow(-(z0[1]) + zL,2))*pow((sigmax[1]),-2)) + \n      exp(-0.5*pow((sigmax[1]),-2)*pow(-(x0[1]) + xL,2) - \n      0.5*pow((sigmay[1]),-2)*pow(-(y0[1]) + yL,2) - \n      0.5*pow((sigmaz[1]),-2)*pow(-(z0[1]) + \n      zL,2))*pow((sigmax[1]),-4)*pow(-(x0[1]) + xL,2)) + \n      (amp[2])*(-(exp(-0.5*pow((sigmax[2]),-2)*pow(-(x0[2]) + xL,2) - \n      0.5*pow((sigmay[2]),-2)*pow(-(y0[2]) + yL,2) - \n      0.5*pow((sigmaz[2]),-2)*pow(-(z0[2]) + zL,2))*pow((sigmax[2]),-2)) + \n      exp(-0.5*pow((sigmax[2]),-2)*pow(-(x0[2]) + xL,2) - \n      0.5*pow((sigmay[2]),-2)*pow(-(y0[2]) + yL,2) - \n      0.5*pow((sigmaz[2]),-2)*pow(-(z0[2]) + \n      zL,2))*pow((sigmax[2]),-4)*pow(-(x0[2]) + xL,2)) + \n      (amp[3])*(-(exp(-0.5*pow((sigmax[3]),-2)*pow(-(x0[3]) + xL,2) - \n      0.5*pow((sigmay[3]),-2)*pow(-(y0[3]) + yL,2) - \n      0.5*pow((sigmaz[3]),-2)*pow(-(z0[3]) + zL,2))*pow((sigmax[3]),-2)) + \n      exp(-0.5*pow((sigmax[3]),-2)*pow(-(x0[3]) + xL,2) - \n      0.5*pow((sigmay[3]),-2)*pow(-(y0[3]) + yL,2) - \n      0.5*pow((sigmaz[3]),-2)*pow(-(z0[3]) + \n      zL,2))*pow((sigmax[3]),-4)*pow(-(x0[3]) + xL,2)) + \n      (amp[4])*(-(exp(-0.5*pow((sigmax[4]),-2)*pow(-(x0[4]) + xL,2) - \n      0.5*pow((sigmay[4]),-2)*pow(-(y0[4]) + yL,2) - \n      0.5*pow((sigmaz[4]),-2)*pow(-(z0[4]) + zL,2))*pow((sigmax[4]),-2)) + \n      exp(-0.5*pow((sigmax[4]),-2)*pow(-(x0[4]) + xL,2) - \n      0.5*pow((sigmay[4]),-2)*pow(-(y0[4]) + yL,2) - \n      0.5*pow((sigmaz[4]),-2)*pow(-(z0[4]) + \n      zL,2))*pow((sigmax[4]),-4)*pow(-(x0[4]) + xL,2))) + \n      ampG*((amp[0])*(-(exp(-0.5*pow((sigmax[0]),-2)*pow(-(x0[0]) + xL,2) - \n      0.5*pow((sigmay[0]),-2)*pow(-(y0[0]) + yL,2) - \n      0.5*pow((sigmaz[0]),-2)*pow(-(z0[0]) + zL,2))*pow((sigmay[0]),-2)) + \n      exp(-0.5*pow((sigmax[0]),-2)*pow(-(x0[0]) + xL,2) - \n      0.5*pow((sigmay[0]),-2)*pow(-(y0[0]) + yL,2) - \n      0.5*pow((sigmaz[0]),-2)*pow(-(z0[0]) + \n      zL,2))*pow((sigmay[0]),-4)*pow(-(y0[0]) + yL,2)) + \n      (amp[1])*(-(exp(-0.5*pow((sigmax[1]),-2)*pow(-(x0[1]) + xL,2) - \n      0.5*pow((sigmay[1]),-2)*pow(-(y0[1]) + yL,2) - \n      0.5*pow((sigmaz[1]),-2)*pow(-(z0[1]) + zL,2))*pow((sigmay[1]),-2)) + \n      exp(-0.5*pow((sigmax[1]),-2)*pow(-(x0[1]) + xL,2) - \n      0.5*pow((sigmay[1]),-2)*pow(-(y0[1]) + yL,2) - \n      0.5*pow((sigmaz[1]),-2)*pow(-(z0[1]) + \n      zL,2))*pow((sigmay[1]),-4)*pow(-(y0[1]) + yL,2)) + \n      (amp[2])*(-(exp(-0.5*pow((sigmax[2]),-2)*pow(-(x0[2]) + xL,2) - \n      0.5*pow((sigmay[2]),-2)*pow(-(y0[2]) + yL,2) - \n      0.5*pow((sigmaz[2]),-2)*pow(-(z0[2]) + zL,2))*pow((sigmay[2]),-2)) + \n      exp(-0.5*pow((sigmax[2]),-2)*pow(-(x0[2]) + xL,2) - \n      0.5*pow((sigmay[2]),-2)*pow(-(y0[2]) + yL,2) - \n      0.5*pow((sigmaz[2]),-2)*pow(-(z0[2]) + \n      zL,2))*pow((sigmay[2]),-4)*pow(-(y0[2]) + yL,2)) + \n      (amp[3])*(-(exp(-0.5*pow((sigmax[3]),-2)*pow(-(x0[3]) + xL,2) - \n      0.5*pow((sigmay[3]),-2)*pow(-(y0[3]) + yL,2) - \n      0.5*pow((sigmaz[3]),-2)*pow(-(z0[3]) + zL,2))*pow((sigmay[3]),-2)) + \n      exp(-0.5*pow((sigmax[3]),-2)*pow(-(x0[3]) + xL,2) - \n      0.5*pow((sigmay[3]),-2)*pow(-(y0[3]) + yL,2) - \n      0.5*pow((sigmaz[3]),-2)*pow(-(z0[3]) + \n      zL,2))*pow((sigmay[3]),-4)*pow(-(y0[3]) + yL,2)) + \n      (amp[4])*(-(exp(-0.5*pow((sigmax[4]),-2)*pow(-(x0[4]) + xL,2) - \n      0.5*pow((sigmay[4]),-2)*pow(-(y0[4]) + yL,2) - \n      0.5*pow((sigmaz[4]),-2)*pow(-(z0[4]) + zL,2))*pow((sigmay[4]),-2)) + \n      exp(-0.5*pow((sigmax[4]),-2)*pow(-(x0[4]) + xL,2) - \n      0.5*pow((sigmay[4]),-2)*pow(-(y0[4]) + yL,2) - \n      0.5*pow((sigmaz[4]),-2)*pow(-(z0[4]) + \n      zL,2))*pow((sigmay[4]),-4)*pow(-(y0[4]) + yL,2))) + \n      ampG*((amp[0])*(-(exp(-0.5*pow((sigmax[0]),-2)*pow(-(x0[0]) + xL,2) - \n      0.5*pow((sigmay[0]),-2)*pow(-(y0[0]) + yL,2) - \n      0.5*pow((sigmaz[0]),-2)*pow(-(z0[0]) + zL,2))*pow((sigmaz[0]),-2)) + \n      exp(-0.5*pow((sigmax[0]),-2)*pow(-(x0[0]) + xL,2) - \n      0.5*pow((sigmay[0]),-2)*pow(-(y0[0]) + yL,2) - \n      0.5*pow((sigmaz[0]),-2)*pow(-(z0[0]) + \n      zL,2))*pow((sigmaz[0]),-4)*pow(-(z0[0]) + zL,2)) + \n      (amp[1])*(-(exp(-0.5*pow((sigmax[1]),-2)*pow(-(x0[1]) + xL,2) - \n      0.5*pow((sigmay[1]),-2)*pow(-(y0[1]) + yL,2) - \n      0.5*pow((sigmaz[1]),-2)*pow(-(z0[1]) + zL,2))*pow((sigmaz[1]),-2)) + \n      exp(-0.5*pow((sigmax[1]),-2)*pow(-(x0[1]) + xL,2) - \n      0.5*pow((sigmay[1]),-2)*pow(-(y0[1]) + yL,2) - \n      0.5*pow((sigmaz[1]),-2)*pow(-(z0[1]) + \n      zL,2))*pow((sigmaz[1]),-4)*pow(-(z0[1]) + zL,2)) + \n      (amp[2])*(-(exp(-0.5*pow((sigmax[2]),-2)*pow(-(x0[2]) + xL,2) - \n      0.5*pow((sigmay[2]),-2)*pow(-(y0[2]) + yL,2) - \n      0.5*pow((sigmaz[2]),-2)*pow(-(z0[2]) + zL,2))*pow((sigmaz[2]),-2)) + \n      exp(-0.5*pow((sigmax[2]),-2)*pow(-(x0[2]) + xL,2) - \n      0.5*pow((sigmay[2]),-2)*pow(-(y0[2]) + yL,2) - \n      0.5*pow((sigmaz[2]),-2)*pow(-(z0[2]) + \n      zL,2))*pow((sigmaz[2]),-4)*pow(-(z0[2]) + zL,2)) + \n      (amp[3])*(-(exp(-0.5*pow((sigmax[3]),-2)*pow(-(x0[3]) + xL,2) - \n      0.5*pow((sigmay[3]),-2)*pow(-(y0[3]) + yL,2) - \n      0.5*pow((sigmaz[3]),-2)*pow(-(z0[3]) + zL,2))*pow((sigmaz[3]),-2)) + \n      exp(-0.5*pow((sigmax[3]),-2)*pow(-(x0[3]) + xL,2) - \n      0.5*pow((sigmay[3]),-2)*pow(-(y0[3]) + yL,2) - \n      0.5*pow((sigmaz[3]),-2)*pow(-(z0[3]) + \n      zL,2))*pow((sigmaz[3]),-4)*pow(-(z0[3]) + zL,2)) + \n      (amp[4])*(-(exp(-0.5*pow((sigmax[4]),-2)*pow(-(x0[4]) + xL,2) - \n      0.5*pow((sigmay[4]),-2)*pow(-(y0[4]) + yL,2) - \n      0.5*pow((sigmaz[4]),-2)*pow(-(z0[4]) + zL,2))*pow((sigmaz[4]),-2)) + \n      exp(-0.5*pow((sigmax[4]),-2)*pow(-(x0[4]) + xL,2) - \n      0.5*pow((sigmay[4]),-2)*pow(-(y0[4]) + yL,2) - \n      0.5*pow((sigmaz[4]),-2)*pow(-(z0[4]) + \n      zL,2))*pow((sigmaz[4]),-4)*pow(-(z0[4]) + zL,2))) - \n      39.47841760435743447533796399950460454125*ampS*pow(kx,2)*sin(6.283185307179586476925286766559005768394*(xL*kx \n      + phasex))*sin(6.283185307179586476925286766559005768394*(yL*ky + \n      phasey))*sin(6.283185307179586476925286766559005768394*(zL*kz + \n      phasez)) - \n      39.47841760435743447533796399950460454125*ampS*pow(ky,2)*sin(6.283185307179586476925286766559005768394*(xL*kx \n      + phasex))*sin(6.283185307179586476925286766559005768394*(yL*ky + \n      phasey))*sin(6.283185307179586476925286766559005768394*(zL*kz + \n      phasez)) - \n      39.47841760435743447533796399950460454125*ampS*pow(kz,2)*sin(6.283185307179586476925286766559005768394*(xL*kx \n      + phasex))*sin(6.283185307179586476925286766559005768394*(yL*ky + \n      phasey))*sin(6.283185307179586476925286766559005768394*(zL*kz + \n      phasez));\n    \n    CCTK_REAL d2solnXx CCTK_ATTRIBUTE_UNUSED = \n      ampVG*(exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + pow(xL - \n      vecA,2)))*pow(yL,2)*pow(sigma,-4) - exp(-0.5*pow(sigma,-2)*(pow(yL,2) + \n      pow(zL,2) + pow(xL + vecA,2)))*pow(yL,2)*pow(sigma,-4) - \n      exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + pow(xL - \n      vecA,2)))*pow(sigma,-2) + exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) \n      + pow(xL + vecA,2)))*pow(sigma,-2)) + \n      ampVG*(exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + pow(xL - \n      vecA,2)))*pow(zL,2)*pow(sigma,-4) - exp(-0.5*pow(sigma,-2)*(pow(yL,2) + \n      pow(zL,2) + pow(xL + vecA,2)))*pow(zL,2)*pow(sigma,-4) - \n      exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + pow(xL - \n      vecA,2)))*pow(sigma,-2) + exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) \n      + pow(xL + vecA,2)))*pow(sigma,-2)) + \n      ampVG*(-(exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + pow(xL - \n      vecA,2)))*pow(sigma,-2)) + exp(-0.5*pow(sigma,-2)*(pow(yL,2) + \n      pow(zL,2) + pow(xL + vecA,2)))*pow(sigma,-2) + \n      exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + pow(xL - \n      vecA,2)))*pow(sigma,-4)*pow(xL - vecA,2) - \n      exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + pow(xL + \n      vecA,2)))*pow(sigma,-4)*pow(xL + vecA,2)) - \n      39.47841760435743447533796399950460454125*ampV*pow(kx,2)*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*zL*kz) \n      - \n      39.47841760435743447533796399950460454125*ampV*pow(ky,2)*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*zL*kz) \n      - \n      39.47841760435743447533796399950460454125*ampV*pow(kz,2)*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*zL*kz);\n    \n    CCTK_REAL d2solnXy CCTK_ATTRIBUTE_UNUSED = \n      ampVG*(exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) + pow(yL - \n      vecA,2)))*pow(xL,2)*pow(sigma,-4) - exp(-0.5*pow(sigma,-2)*(pow(xL,2) + \n      pow(zL,2) + pow(yL + vecA,2)))*pow(xL,2)*pow(sigma,-4) - \n      exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) + pow(yL - \n      vecA,2)))*pow(sigma,-2) + exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) \n      + pow(yL + vecA,2)))*pow(sigma,-2)) + \n      ampVG*(exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) + pow(yL - \n      vecA,2)))*pow(zL,2)*pow(sigma,-4) - exp(-0.5*pow(sigma,-2)*(pow(xL,2) + \n      pow(zL,2) + pow(yL + vecA,2)))*pow(zL,2)*pow(sigma,-4) - \n      exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) + pow(yL - \n      vecA,2)))*pow(sigma,-2) + exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) \n      + pow(yL + vecA,2)))*pow(sigma,-2)) + \n      ampVG*(-(exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) + pow(yL - \n      vecA,2)))*pow(sigma,-2)) + exp(-0.5*pow(sigma,-2)*(pow(xL,2) + \n      pow(zL,2) + pow(yL + vecA,2)))*pow(sigma,-2) + \n      exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) + pow(yL - \n      vecA,2)))*pow(sigma,-4)*pow(yL - vecA,2) - \n      exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) + pow(yL + \n      vecA,2)))*pow(sigma,-4)*pow(yL + vecA,2)) - \n      39.47841760435743447533796399950460454125*ampV*pow(kx,2)*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*zL*kz) \n      - \n      39.47841760435743447533796399950460454125*ampV*pow(ky,2)*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*zL*kz) \n      - \n      39.47841760435743447533796399950460454125*ampV*pow(kz,2)*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*zL*kz);\n    \n    CCTK_REAL d2solnXz CCTK_ATTRIBUTE_UNUSED = \n      ampVG*(exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) + pow(zL - \n      vecA,2)))*pow(xL,2)*pow(sigma,-4) - exp(-0.5*pow(sigma,-2)*(pow(xL,2) + \n      pow(yL,2) + pow(zL + vecA,2)))*pow(xL,2)*pow(sigma,-4) - \n      exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) + pow(zL - \n      vecA,2)))*pow(sigma,-2) + exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) \n      + pow(zL + vecA,2)))*pow(sigma,-2)) + \n      ampVG*(exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) + pow(zL - \n      vecA,2)))*pow(yL,2)*pow(sigma,-4) - exp(-0.5*pow(sigma,-2)*(pow(xL,2) + \n      pow(yL,2) + pow(zL + vecA,2)))*pow(yL,2)*pow(sigma,-4) - \n      exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) + pow(zL - \n      vecA,2)))*pow(sigma,-2) + exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) \n      + pow(zL + vecA,2)))*pow(sigma,-2)) + \n      ampVG*(-(exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) + pow(zL - \n      vecA,2)))*pow(sigma,-2)) + exp(-0.5*pow(sigma,-2)*(pow(xL,2) + \n      pow(yL,2) + pow(zL + vecA,2)))*pow(sigma,-2) + \n      exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) + pow(zL - \n      vecA,2)))*pow(sigma,-4)*pow(zL - vecA,2) - \n      exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) + pow(zL + \n      vecA,2)))*pow(sigma,-4)*pow(zL + vecA,2)) - \n      39.47841760435743447533796399950460454125*ampV*pow(kx,2)*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*zL*kz) \n      - \n      39.47841760435743447533796399950460454125*ampV*pow(ky,2)*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*zL*kz) \n      - \n      39.47841760435743447533796399950460454125*ampV*pow(kz,2)*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*zL*kz);\n    \n    CCTK_REAL epsiL CCTK_ATTRIBUTE_UNUSED = ampC + \n      ampG*((amp[0])*exp(-0.5*pow((sigmax[0]),-2)*pow(-(x0[0]) + xL,2) - \n      0.5*pow((sigmay[0]),-2)*pow(-(y0[0]) + yL,2) - \n      0.5*pow((sigmaz[0]),-2)*pow(-(z0[0]) + zL,2)) + \n      (amp[1])*exp(-0.5*pow((sigmax[1]),-2)*pow(-(x0[1]) + xL,2) - \n      0.5*pow((sigmay[1]),-2)*pow(-(y0[1]) + yL,2) - \n      0.5*pow((sigmaz[1]),-2)*pow(-(z0[1]) + zL,2)) + \n      (amp[2])*exp(-0.5*pow((sigmax[2]),-2)*pow(-(x0[2]) + xL,2) - \n      0.5*pow((sigmay[2]),-2)*pow(-(y0[2]) + yL,2) - \n      0.5*pow((sigmaz[2]),-2)*pow(-(z0[2]) + zL,2)) + \n      (amp[3])*exp(-0.5*pow((sigmax[3]),-2)*pow(-(x0[3]) + xL,2) - \n      0.5*pow((sigmay[3]),-2)*pow(-(y0[3]) + yL,2) - \n      0.5*pow((sigmaz[3]),-2)*pow(-(z0[3]) + zL,2)) + \n      (amp[4])*exp(-0.5*pow((sigmax[4]),-2)*pow(-(x0[4]) + xL,2) - \n      0.5*pow((sigmay[4]),-2)*pow(-(y0[4]) + yL,2) - \n      0.5*pow((sigmaz[4]),-2)*pow(-(z0[4]) + zL,2))) + \n      ampS*sin(6.283185307179586476925286766559005768394*(xL*kx + \n      phasex))*sin(6.283185307179586476925286766559005768394*(yL*ky + \n      phasey))*sin(6.283185307179586476925286766559005768394*(zL*kz + \n      phasez));\n    \n    CCTK_REAL elaplacianL CCTK_ATTRIBUTE_UNUSED = d2soln;\n    \n    CCTK_REAL testinipsiL CCTK_ATTRIBUTE_UNUSED = ampI;\n    \n    CCTK_REAL testinixxL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testinixyL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testinixzL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testa0L CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testcxxL CCTK_ATTRIBUTE_UNUSED = 1;\n    \n    CCTK_REAL testcxyL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testcxzL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testcyyL CCTK_ATTRIBUTE_UNUSED = 1;\n    \n    CCTK_REAL testcyzL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testczzL CCTK_ATTRIBUTE_UNUSED = 1;\n    \n    CCTK_REAL testcxL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testcyL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testczL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testc0L CCTK_ATTRIBUTE_UNUSED = \n      -0.0833333333333333333333333333333*pow(Kc,2);\n    \n    CCTK_REAL testc1L CCTK_ATTRIBUTE_UNUSED = -d2soln - \n      0.125*(2*pow(ampVG*(-(zL*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) \n      + pow(yL - vecA,2)))*pow(sigma,-2)) + \n      zL*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) + pow(yL + \n      vecA,2)))*pow(sigma,-2)) + \n      ampVG*(-(yL*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) + pow(zL - \n      vecA,2)))*pow(sigma,-2)) + yL*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + \n      pow(yL,2) + pow(zL + vecA,2)))*pow(sigma,-2)) + \n      6.283185307179586476925286766559005768394*ampV*kz*cos(6.283185307179586476925286766559005768394*zL*kz)*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky) \n      + \n      6.283185307179586476925286766559005768394*ampV*ky*cos(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*zL*kz),2) \n      + 2*pow(ampVG*(-(zL*exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + \n      pow(xL - vecA,2)))*pow(sigma,-2)) + \n      zL*exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + pow(xL + \n      vecA,2)))*pow(sigma,-2)) + \n      ampVG*(-(xL*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) + pow(zL - \n      vecA,2)))*pow(sigma,-2)) + xL*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + \n      pow(yL,2) + pow(zL + vecA,2)))*pow(sigma,-2)) + \n      6.283185307179586476925286766559005768394*ampV*kz*cos(6.283185307179586476925286766559005768394*zL*kz)*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky) \n      + \n      6.283185307179586476925286766559005768394*ampV*kx*cos(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*zL*kz),2) \n      + 2*pow(ampVG*(-(yL*exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + \n      pow(xL - vecA,2)))*pow(sigma,-2)) + \n      yL*exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + pow(xL + \n      vecA,2)))*pow(sigma,-2)) + \n      ampVG*(-(xL*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) + pow(yL - \n      vecA,2)))*pow(sigma,-2)) + xL*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + \n      pow(zL,2) + pow(yL + vecA,2)))*pow(sigma,-2)) + \n      6.283185307179586476925286766559005768394*ampV*ky*cos(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*zL*kz) \n      + \n      6.283185307179586476925286766559005768394*ampV*kx*cos(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*zL*kz),2) \n      + pow(2*(ampVG*(-((zL - vecA)*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + \n      pow(yL,2) + pow(zL - vecA,2)))*pow(sigma,-2)) + (zL + \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) + pow(zL + \n      vecA,2)))*pow(sigma,-2)) + \n      6.283185307179586476925286766559005768394*ampV*kz*cos(6.283185307179586476925286766559005768394*zL*kz)*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky)) \n      - 0.666666666666666666666666666667*(ampVG*(-((xL - \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + pow(xL - \n      vecA,2)))*pow(sigma,-2)) + (xL + \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + pow(xL + \n      vecA,2)))*pow(sigma,-2)) + ampVG*(-((yL - \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) + pow(yL - \n      vecA,2)))*pow(sigma,-2)) + (yL + \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) + pow(yL + \n      vecA,2)))*pow(sigma,-2)) + ampVG*(-((zL - \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) + pow(zL - \n      vecA,2)))*pow(sigma,-2)) + (zL + \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) + pow(zL + \n      vecA,2)))*pow(sigma,-2)) + \n      6.283185307179586476925286766559005768394*ampV*kz*cos(6.283185307179586476925286766559005768394*zL*kz)*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky) \n      + \n      6.283185307179586476925286766559005768394*ampV*ky*cos(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*zL*kz) \n      + \n      6.283185307179586476925286766559005768394*ampV*kx*cos(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*zL*kz)),2) \n      + pow(2*(ampVG*(-((yL - vecA)*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + \n      pow(zL,2) + pow(yL - vecA,2)))*pow(sigma,-2)) + (yL + \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) + pow(yL + \n      vecA,2)))*pow(sigma,-2)) + \n      6.283185307179586476925286766559005768394*ampV*ky*cos(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*zL*kz)) \n      - 0.666666666666666666666666666667*(ampVG*(-((xL - \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + pow(xL - \n      vecA,2)))*pow(sigma,-2)) + (xL + \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + pow(xL + \n      vecA,2)))*pow(sigma,-2)) + ampVG*(-((yL - \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) + pow(yL - \n      vecA,2)))*pow(sigma,-2)) + (yL + \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) + pow(yL + \n      vecA,2)))*pow(sigma,-2)) + ampVG*(-((zL - \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) + pow(zL - \n      vecA,2)))*pow(sigma,-2)) + (zL + \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) + pow(zL + \n      vecA,2)))*pow(sigma,-2)) + \n      6.283185307179586476925286766559005768394*ampV*kz*cos(6.283185307179586476925286766559005768394*zL*kz)*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky) \n      + \n      6.283185307179586476925286766559005768394*ampV*ky*cos(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*zL*kz) \n      + \n      6.283185307179586476925286766559005768394*ampV*kx*cos(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*zL*kz)),2) \n      + pow(2*(ampVG*(-((xL - vecA)*exp(-0.5*pow(sigma,-2)*(pow(yL,2) + \n      pow(zL,2) + pow(xL - vecA,2)))*pow(sigma,-2)) + (xL + \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + pow(xL + \n      vecA,2)))*pow(sigma,-2)) + \n      6.283185307179586476925286766559005768394*ampV*kx*cos(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*zL*kz)) \n      - 0.666666666666666666666666666667*(ampVG*(-((xL - \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + pow(xL - \n      vecA,2)))*pow(sigma,-2)) + (xL + \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + pow(xL + \n      vecA,2)))*pow(sigma,-2)) + ampVG*(-((yL - \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) + pow(yL - \n      vecA,2)))*pow(sigma,-2)) + (yL + \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) + pow(yL + \n      vecA,2)))*pow(sigma,-2)) + ampVG*(-((zL - \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) + pow(zL - \n      vecA,2)))*pow(sigma,-2)) + (zL + \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) + pow(zL + \n      vecA,2)))*pow(sigma,-2)) + \n      6.283185307179586476925286766559005768394*ampV*kz*cos(6.283185307179586476925286766559005768394*zL*kz)*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky) \n      + \n      6.283185307179586476925286766559005768394*ampV*ky*cos(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*zL*kz) \n      + \n      6.283185307179586476925286766559005768394*ampV*kx*cos(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*zL*kz)),2))*pow(ampC \n      + ampG*((amp[0])*exp(-0.5*pow((sigmax[0]),-2)*pow(-(x0[0]) + xL,2) - \n      0.5*pow((sigmay[0]),-2)*pow(-(y0[0]) + yL,2) - \n      0.5*pow((sigmaz[0]),-2)*pow(-(z0[0]) + zL,2)) + \n      (amp[1])*exp(-0.5*pow((sigmax[1]),-2)*pow(-(x0[1]) + xL,2) - \n      0.5*pow((sigmay[1]),-2)*pow(-(y0[1]) + yL,2) - \n      0.5*pow((sigmaz[1]),-2)*pow(-(z0[1]) + zL,2)) + \n      (amp[2])*exp(-0.5*pow((sigmax[2]),-2)*pow(-(x0[2]) + xL,2) - \n      0.5*pow((sigmay[2]),-2)*pow(-(y0[2]) + yL,2) - \n      0.5*pow((sigmaz[2]),-2)*pow(-(z0[2]) + zL,2)) + \n      (amp[3])*exp(-0.5*pow((sigmax[3]),-2)*pow(-(x0[3]) + xL,2) - \n      0.5*pow((sigmay[3]),-2)*pow(-(y0[3]) + yL,2) - \n      0.5*pow((sigmaz[3]),-2)*pow(-(z0[3]) + zL,2)) + \n      (amp[4])*exp(-0.5*pow((sigmax[4]),-2)*pow(-(x0[4]) + xL,2) - \n      0.5*pow((sigmay[4]),-2)*pow(-(y0[4]) + yL,2) - \n      0.5*pow((sigmaz[4]),-2)*pow(-(z0[4]) + zL,2))) + \n      ampS*sin(6.283185307179586476925286766559005768394*(xL*kx + \n      phasex))*sin(6.283185307179586476925286766559005768394*(yL*ky + \n      phasey))*sin(6.283185307179586476925286766559005768394*(zL*kz + \n      phasez)),-7) + 0.0833333333333333333333333333333*pow(Ke,2)*pow(ampC + \n      ampG*((amp[0])*exp(-0.5*pow((sigmax[0]),-2)*pow(-(x0[0]) + xL,2) - \n      0.5*pow((sigmay[0]),-2)*pow(-(y0[0]) + yL,2) - \n      0.5*pow((sigmaz[0]),-2)*pow(-(z0[0]) + zL,2)) + \n      (amp[1])*exp(-0.5*pow((sigmax[1]),-2)*pow(-(x0[1]) + xL,2) - \n      0.5*pow((sigmay[1]),-2)*pow(-(y0[1]) + yL,2) - \n      0.5*pow((sigmaz[1]),-2)*pow(-(z0[1]) + zL,2)) + \n      (amp[2])*exp(-0.5*pow((sigmax[2]),-2)*pow(-(x0[2]) + xL,2) - \n      0.5*pow((sigmay[2]),-2)*pow(-(y0[2]) + yL,2) - \n      0.5*pow((sigmaz[2]),-2)*pow(-(z0[2]) + zL,2)) + \n      (amp[3])*exp(-0.5*pow((sigmax[3]),-2)*pow(-(x0[3]) + xL,2) - \n      0.5*pow((sigmay[3]),-2)*pow(-(y0[3]) + yL,2) - \n      0.5*pow((sigmaz[3]),-2)*pow(-(z0[3]) + zL,2)) + \n      (amp[4])*exp(-0.5*pow((sigmax[4]),-2)*pow(-(x0[4]) + xL,2) - \n      0.5*pow((sigmay[4]),-2)*pow(-(y0[4]) + yL,2) - \n      0.5*pow((sigmaz[4]),-2)*pow(-(z0[4]) + zL,2))) + \n      ampS*sin(6.283185307179586476925286766559005768394*(xL*kx + \n      phasex))*sin(6.283185307179586476925286766559005768394*(yL*ky + \n      phasey))*sin(6.283185307179586476925286766559005768394*(zL*kz + \n      phasez)),5);\n    \n    CCTK_REAL testc2L CCTK_ATTRIBUTE_UNUSED = -d2solnXx + \n      0.333333333333333333333333333333*(-(ampVG*(xL*(yL - \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) + pow(yL - \n      vecA,2)))*pow(sigma,-4) - xL*(yL + \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) + pow(yL + \n      vecA,2)))*pow(sigma,-4))) - ampVG*(xL*(zL - \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) + pow(zL - \n      vecA,2)))*pow(sigma,-4) - xL*(zL + \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) + pow(zL + \n      vecA,2)))*pow(sigma,-4)) - ampVG*(-(exp(-0.5*pow(sigma,-2)*(pow(yL,2) + \n      pow(zL,2) + pow(xL - vecA,2)))*pow(sigma,-2)) + \n      exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + pow(xL + \n      vecA,2)))*pow(sigma,-2) + exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) \n      + pow(xL - vecA,2)))*pow(sigma,-4)*pow(xL - vecA,2) - \n      exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + pow(xL + \n      vecA,2)))*pow(sigma,-4)*pow(xL + vecA,2)) - \n      39.47841760435743447533796399950460454125*ampV*kx*kz*cos(6.283185307179586476925286766559005768394*xL*kx)*cos(6.283185307179586476925286766559005768394*zL*kz)*sin(6.283185307179586476925286766559005768394*yL*ky) \n      - \n      39.47841760435743447533796399950460454125*ampV*kx*ky*cos(6.283185307179586476925286766559005768394*xL*kx)*cos(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*zL*kz) \n      + \n      39.47841760435743447533796399950460454125*ampV*pow(kx,2)*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*zL*kz));\n    \n    CCTK_REAL testc3L CCTK_ATTRIBUTE_UNUSED = -d2solnXy + \n      0.333333333333333333333333333333*(-(ampVG*(yL*(xL - \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + pow(xL - \n      vecA,2)))*pow(sigma,-4) - yL*(xL + \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + pow(xL + \n      vecA,2)))*pow(sigma,-4))) - ampVG*(yL*(zL - \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) + pow(zL - \n      vecA,2)))*pow(sigma,-4) - yL*(zL + \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) + pow(zL + \n      vecA,2)))*pow(sigma,-4)) - ampVG*(-(exp(-0.5*pow(sigma,-2)*(pow(xL,2) + \n      pow(zL,2) + pow(yL - vecA,2)))*pow(sigma,-2)) + \n      exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) + pow(yL + \n      vecA,2)))*pow(sigma,-2) + exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) \n      + pow(yL - vecA,2)))*pow(sigma,-4)*pow(yL - vecA,2) - \n      exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) + pow(yL + \n      vecA,2)))*pow(sigma,-4)*pow(yL + vecA,2)) - \n      39.47841760435743447533796399950460454125*ampV*ky*kz*cos(6.283185307179586476925286766559005768394*yL*ky)*cos(6.283185307179586476925286766559005768394*zL*kz)*sin(6.283185307179586476925286766559005768394*xL*kx) \n      - \n      39.47841760435743447533796399950460454125*ampV*kx*ky*cos(6.283185307179586476925286766559005768394*xL*kx)*cos(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*zL*kz) \n      + \n      39.47841760435743447533796399950460454125*ampV*pow(ky,2)*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*zL*kz));\n    \n    CCTK_REAL testc4L CCTK_ATTRIBUTE_UNUSED = -d2solnXz + \n      0.333333333333333333333333333333*(-(ampVG*(zL*(xL - \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + pow(xL - \n      vecA,2)))*pow(sigma,-4) - zL*(xL + \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + pow(xL + \n      vecA,2)))*pow(sigma,-4))) - ampVG*(zL*(yL - \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) + pow(yL - \n      vecA,2)))*pow(sigma,-4) - zL*(yL + \n      vecA)*exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) + pow(yL + \n      vecA,2)))*pow(sigma,-4)) - ampVG*(-(exp(-0.5*pow(sigma,-2)*(pow(xL,2) + \n      pow(yL,2) + pow(zL - vecA,2)))*pow(sigma,-2)) + \n      exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) + pow(zL + \n      vecA,2)))*pow(sigma,-2) + exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) \n      + pow(zL - vecA,2)))*pow(sigma,-4)*pow(zL - vecA,2) - \n      exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) + pow(zL + \n      vecA,2)))*pow(sigma,-4)*pow(zL + vecA,2)) - \n      39.47841760435743447533796399950460454125*ampV*ky*kz*cos(6.283185307179586476925286766559005768394*yL*ky)*cos(6.283185307179586476925286766559005768394*zL*kz)*sin(6.283185307179586476925286766559005768394*xL*kx) \n      - \n      39.47841760435743447533796399950460454125*ampV*kx*kz*cos(6.283185307179586476925286766559005768394*xL*kx)*cos(6.283185307179586476925286766559005768394*zL*kz)*sin(6.283185307179586476925286766559005768394*yL*ky) \n      + \n      39.47841760435743447533796399950460454125*ampV*pow(kz,2)*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*zL*kz));\n    \n    CCTK_REAL testXxL CCTK_ATTRIBUTE_UNUSED = \n      ampVG*(exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + pow(xL - \n      vecA,2))) - exp(-0.5*pow(sigma,-2)*(pow(yL,2) + pow(zL,2) + pow(xL + \n      vecA,2)))) + \n      ampV*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*zL*kz);\n    \n    CCTK_REAL testXyL CCTK_ATTRIBUTE_UNUSED = \n      ampVG*(exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) + pow(yL - \n      vecA,2))) - exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(zL,2) + pow(yL + \n      vecA,2)))) + \n      ampV*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*zL*kz);\n    \n    CCTK_REAL testXzL CCTK_ATTRIBUTE_UNUSED = \n      ampVG*(exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) + pow(zL - \n      vecA,2))) - exp(-0.5*pow(sigma,-2)*(pow(xL,2) + pow(yL,2) + pow(zL + \n      vecA,2)))) + \n      ampV*sin(6.283185307179586476925286766559005768394*xL*kx)*sin(6.283185307179586476925286766559005768394*yL*ky)*sin(6.283185307179586476925286766559005768394*zL*kz);\n    \n    CCTK_REAL testKL CCTK_ATTRIBUTE_UNUSED = Kc;\n    \n    CCTK_REAL testdxKL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testdyKL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testdzKL CCTK_ATTRIBUTE_UNUSED = 0;\n    /* Copy local copies back to grid functions */\n    elaplacian[index] = elaplacianL;\n    epsi[index] = epsiL;\n    testa0[index] = testa0L;\n    testc0[index] = testc0L;\n    testc1[index] = testc1L;\n    testc2[index] = testc2L;\n    testc3[index] = testc3L;\n    testc4[index] = testc4L;\n    testcx[index] = testcxL;\n    testcxx[index] = testcxxL;\n    testcxy[index] = testcxyL;\n    testcxz[index] = testcxzL;\n    testcy[index] = testcyL;\n    testcyy[index] = testcyyL;\n    testcyz[index] = testcyzL;\n    testcz[index] = testczL;\n    testczz[index] = testczzL;\n    testdxK[index] = testdxKL;\n    testdyK[index] = testdyKL;\n    testdzK[index] = testdzKL;\n    testinipsi[index] = testinipsiL;\n    testinixx[index] = testinixxL;\n    testinixy[index] = testinixyL;\n    testinixz[index] = testinixzL;\n    testK[index] = testKL;\n    testXx[index] = testXxL;\n    testXy[index] = testXyL;\n    testXz[index] = testXzL;\n  }\n  CCTK_ENDLOOP3(CT_Analytic_Lump_Calc);\n}\nextern \"C\" void CT_Analytic_Lump_Calc(CCTK_ARGUMENTS)\n{\n  #ifdef DECLARE_CCTK_ARGUMENTS_CT_Analytic_Lump_Calc\n  DECLARE_CCTK_ARGUMENTS_CHECKED(CT_Analytic_Lump_Calc);\n  #else\n  DECLARE_CCTK_ARGUMENTS;\n  #endif\n  DECLARE_CCTK_PARAMETERS;\n  \n  if (verbose > 1)\n  {\n    CCTK_VInfo(CCTK_THORNSTRING,\"Entering CT_Analytic_Lump_Calc_Body\");\n  }\n  if (cctk_iteration % CT_Analytic_Lump_Calc_calc_every != CT_Analytic_Lump_Calc_calc_offset)\n  {\n    return;\n  }\n  \n  const char* const groups[] = {\n    \"CT_Analytic::CT_elaplacian\",\n    \"CT_Analytic::CT_epsi\",\n    \"CT_Analytic::CT_testa0\",\n    \"CT_Analytic::CT_testc0\",\n    \"CT_Analytic::CT_testc1\",\n    \"CT_Analytic::CT_testc2\",\n    \"CT_Analytic::CT_testc3\",\n    \"CT_Analytic::CT_testc4\",\n    \"CT_Analytic::CT_testcx\",\n    \"CT_Analytic::CT_testcxx\",\n    \"CT_Analytic::CT_testcxy\",\n    \"CT_Analytic::CT_testcxz\",\n    \"CT_Analytic::CT_testcy\",\n    \"CT_Analytic::CT_testcyy\",\n    \"CT_Analytic::CT_testcyz\",\n    \"CT_Analytic::CT_testcz\",\n    \"CT_Analytic::CT_testczz\",\n    \"CT_Analytic::CT_testdxK\",\n    \"CT_Analytic::CT_testdyK\",\n    \"CT_Analytic::CT_testdzK\",\n    \"CT_Analytic::CT_testinipsi\",\n    \"CT_Analytic::CT_testinixx\",\n    \"CT_Analytic::CT_testinixy\",\n    \"CT_Analytic::CT_testinixz\",\n    \"CT_Analytic::CT_testK\",\n    \"CT_Analytic::CT_testXx\",\n    \"CT_Analytic::CT_testXy\",\n    \"CT_Analytic::CT_testXz\",\n    \"grid::coordinates\"};\n  AssertGroupStorage(cctkGH, \"CT_Analytic_Lump_Calc\", 29, groups);\n  \n  \n  LoopOverEverything(cctkGH, CT_Analytic_Lump_Calc_Body);\n  if (verbose > 1)\n  {\n    CCTK_VInfo(CCTK_THORNSTRING,\"Leaving CT_Analytic_Lump_Calc_Body\");\n  }\n}\n\n} // namespace CT_Analytic\n",
    "CT_Analytic_ExactBoundary.cc": "/*  File produced by Kranc */\n\n#define KRANC_C\n\n#include <algorithm>\n#include <assert.h>\n#include <math.h>\n#include <stdio.h>\n#include <stdlib.h>\n#include <string.h>\n#include \"cctk.h\"\n#include \"cctk_Arguments.h\"\n#include \"cctk_Parameters.h\"\n#include \"Kranc.hh\"\n#include \"Differencing.h\"\n#include \"loopcontrol.h\"\n\nnamespace CT_Analytic {\n\nextern \"C\" void CT_Analytic_ExactBoundary_SelectBCs(CCTK_ARGUMENTS)\n{\n  #ifdef DECLARE_CCTK_ARGUMENTS_CT_Analytic_ExactBoundary_SelectBCs\n  DECLARE_CCTK_ARGUMENTS_CHECKED(CT_Analytic_ExactBoundary_SelectBCs);\n  #else\n  DECLARE_CCTK_ARGUMENTS;\n  #endif\n  DECLARE_CCTK_PARAMETERS;\n  \n  if (cctk_iteration % CT_Analytic_ExactBoundary_calc_every != CT_Analytic_ExactBoundary_calc_offset)\n    return;\n  CCTK_INT ierr CCTK_ATTRIBUTE_UNUSED = 0;\n  ierr = KrancBdy_SelectGroupForBC(cctkGH, CCTK_ALL_FACES, GetBoundaryWidth(cctkGH), -1 /* no table */, \"CT_Analytic::CT_testinipsi\",\"flat\");\n  if (ierr < 0)\n    CCTK_WARN(CCTK_WARN_ALERT, \"Failed to register flat BC for CT_Analytic::CT_testinipsi.\");\n  return;\n}\n\nstatic void CT_Analytic_ExactBoundary_Body(const cGH* restrict const cctkGH, const int dir, const int face, const CCTK_REAL normal[3], const CCTK_REAL tangentA[3], const CCTK_REAL tangentB[3], const int imin[3], const int imax[3], const int n_subblock_gfs, CCTK_REAL* restrict const subblock_gfs[])\n{\n  DECLARE_CCTK_ARGUMENTS;\n  DECLARE_CCTK_PARAMETERS;\n  \n  /* Include user-supplied include files */\n  /* Initialise finite differencing variables */\n  const ptrdiff_t di CCTK_ATTRIBUTE_UNUSED = 1;\n  const ptrdiff_t dj CCTK_ATTRIBUTE_UNUSED = \n    CCTK_GFINDEX3D(cctkGH,0,1,0) - CCTK_GFINDEX3D(cctkGH,0,0,0);\n  const ptrdiff_t dk CCTK_ATTRIBUTE_UNUSED = \n    CCTK_GFINDEX3D(cctkGH,0,0,1) - CCTK_GFINDEX3D(cctkGH,0,0,0);\n  const ptrdiff_t cdi CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL) * di;\n  const ptrdiff_t cdj CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL) * dj;\n  const ptrdiff_t cdk CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL) * dk;\n  const ptrdiff_t cctkLbnd1 CCTK_ATTRIBUTE_UNUSED = cctk_lbnd[0];\n  const ptrdiff_t cctkLbnd2 CCTK_ATTRIBUTE_UNUSED = cctk_lbnd[1];\n  const ptrdiff_t cctkLbnd3 CCTK_ATTRIBUTE_UNUSED = cctk_lbnd[2];\n  const CCTK_REAL t CCTK_ATTRIBUTE_UNUSED = cctk_time;\n  const CCTK_REAL cctkOriginSpace1 CCTK_ATTRIBUTE_UNUSED = \n    CCTK_ORIGIN_SPACE(0);\n  const CCTK_REAL cctkOriginSpace2 CCTK_ATTRIBUTE_UNUSED = \n    CCTK_ORIGIN_SPACE(1);\n  const CCTK_REAL cctkOriginSpace3 CCTK_ATTRIBUTE_UNUSED = \n    CCTK_ORIGIN_SPACE(2);\n  const CCTK_REAL dt CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_TIME;\n  const CCTK_REAL dx CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_SPACE(0);\n  const CCTK_REAL dy CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_SPACE(1);\n  const CCTK_REAL dz CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_SPACE(2);\n  const CCTK_REAL dxi CCTK_ATTRIBUTE_UNUSED = pow(dx,-1);\n  const CCTK_REAL dyi CCTK_ATTRIBUTE_UNUSED = pow(dy,-1);\n  const CCTK_REAL dzi CCTK_ATTRIBUTE_UNUSED = pow(dz,-1);\n  const CCTK_REAL khalf CCTK_ATTRIBUTE_UNUSED = 0.5;\n  const CCTK_REAL kthird CCTK_ATTRIBUTE_UNUSED = \n    0.333333333333333333333333333333;\n  const CCTK_REAL ktwothird CCTK_ATTRIBUTE_UNUSED = \n    0.666666666666666666666666666667;\n  const CCTK_REAL kfourthird CCTK_ATTRIBUTE_UNUSED = \n    1.33333333333333333333333333333;\n  const CCTK_REAL hdxi CCTK_ATTRIBUTE_UNUSED = 0.5*dxi;\n  const CCTK_REAL hdyi CCTK_ATTRIBUTE_UNUSED = 0.5*dyi;\n  const CCTK_REAL hdzi CCTK_ATTRIBUTE_UNUSED = 0.5*dzi;\n  /* Initialize predefined quantities */\n  const CCTK_REAL p1o12dx CCTK_ATTRIBUTE_UNUSED = 0.0833333333333333333333333333333*pow(dx,-1);\n  const CCTK_REAL p1o12dy CCTK_ATTRIBUTE_UNUSED = 0.0833333333333333333333333333333*pow(dy,-1);\n  const CCTK_REAL p1o12dz CCTK_ATTRIBUTE_UNUSED = 0.0833333333333333333333333333333*pow(dz,-1);\n  const CCTK_REAL p1o144dxdy CCTK_ATTRIBUTE_UNUSED = 0.00694444444444444444444444444444*pow(dx,-1)*pow(dy,-1);\n  const CCTK_REAL p1o144dxdz CCTK_ATTRIBUTE_UNUSED = 0.00694444444444444444444444444444*pow(dx,-1)*pow(dz,-1);\n  const CCTK_REAL p1o144dydz CCTK_ATTRIBUTE_UNUSED = 0.00694444444444444444444444444444*pow(dy,-1)*pow(dz,-1);\n  const CCTK_REAL pm1o12dx2 CCTK_ATTRIBUTE_UNUSED = -0.0833333333333333333333333333333*pow(dx,-2);\n  const CCTK_REAL pm1o12dy2 CCTK_ATTRIBUTE_UNUSED = -0.0833333333333333333333333333333*pow(dy,-2);\n  const CCTK_REAL pm1o12dz2 CCTK_ATTRIBUTE_UNUSED = -0.0833333333333333333333333333333*pow(dz,-2);\n  /* Assign local copies of arrays functions */\n  \n  \n  /* Calculate temporaries and arrays functions */\n  /* Copy local copies back to grid functions */\n  /* Loop over the grid points */\n  const int imin0=imin[0];\n  const int imin1=imin[1];\n  const int imin2=imin[2];\n  const int imax0=imax[0];\n  const int imax1=imax[1];\n  const int imax2=imax[2];\n  #pragma omp parallel\n  CCTK_LOOP3(CT_Analytic_ExactBoundary,\n    i,j,k, imin0,imin1,imin2, imax0,imax1,imax2,\n    cctk_ash[0],cctk_ash[1],cctk_ash[2])\n  {\n    const ptrdiff_t index CCTK_ATTRIBUTE_UNUSED = di*i + dj*j + dk*k;\n    /* Assign local copies of grid functions */\n    \n    CCTK_REAL xL CCTK_ATTRIBUTE_UNUSED = x[index];\n    CCTK_REAL yL CCTK_ATTRIBUTE_UNUSED = y[index];\n    CCTK_REAL zL CCTK_ATTRIBUTE_UNUSED = z[index];\n    \n    /* Include user supplied include files */\n    /* Precompute derivatives */\n    /* Calculate temporaries and grid functions */\n    CCTK_REAL testinipsiL CCTK_ATTRIBUTE_UNUSED = ampC + \n      ampG*((amp[0])*exp(-0.5*pow((sigmax[0]),-2)*pow(-(x0[0]) + xL,2) - \n      0.5*pow((sigmay[0]),-2)*pow(-(y0[0]) + yL,2) - \n      0.5*pow((sigmaz[0]),-2)*pow(-(z0[0]) + zL,2)) + \n      (amp[1])*exp(-0.5*pow((sigmax[1]),-2)*pow(-(x0[1]) + xL,2) - \n      0.5*pow((sigmay[1]),-2)*pow(-(y0[1]) + yL,2) - \n      0.5*pow((sigmaz[1]),-2)*pow(-(z0[1]) + zL,2)) + \n      (amp[2])*exp(-0.5*pow((sigmax[2]),-2)*pow(-(x0[2]) + xL,2) - \n      0.5*pow((sigmay[2]),-2)*pow(-(y0[2]) + yL,2) - \n      0.5*pow((sigmaz[2]),-2)*pow(-(z0[2]) + zL,2)) + \n      (amp[3])*exp(-0.5*pow((sigmax[3]),-2)*pow(-(x0[3]) + xL,2) - \n      0.5*pow((sigmay[3]),-2)*pow(-(y0[3]) + yL,2) - \n      0.5*pow((sigmaz[3]),-2)*pow(-(z0[3]) + zL,2)) + \n      (amp[4])*exp(-0.5*pow((sigmax[4]),-2)*pow(-(x0[4]) + xL,2) - \n      0.5*pow((sigmay[4]),-2)*pow(-(y0[4]) + yL,2) - \n      0.5*pow((sigmaz[4]),-2)*pow(-(z0[4]) + zL,2))) + \n      0.5*ampSg*(massa*pow(pow(eps,2) + pow(xL - xa,2) + pow(yL - ya,2) + \n      pow(zL - za,2),-0.5) + massb*pow(pow(eps,2) + pow(xL - xb,2) + pow(yL - \n      yb,2) + pow(zL - zb,2),-0.5)) + \n      ampS*sin(6.283185307179586476925286766559005768394*(xL*kx + \n      phasex))*sin(6.283185307179586476925286766559005768394*(yL*ky + \n      phasey))*sin(6.283185307179586476925286766559005768394*(zL*kz + \n      phasez));\n    /* Copy local copies back to grid functions */\n    testinipsi[index] = testinipsiL;\n  }\n  CCTK_ENDLOOP3(CT_Analytic_ExactBoundary);\n}\nextern \"C\" void CT_Analytic_ExactBoundary(CCTK_ARGUMENTS)\n{\n  #ifdef DECLARE_CCTK_ARGUMENTS_CT_Analytic_ExactBoundary\n  DECLARE_CCTK_ARGUMENTS_CHECKED(CT_Analytic_ExactBoundary);\n  #else\n  DECLARE_CCTK_ARGUMENTS;\n  #endif\n  DECLARE_CCTK_PARAMETERS;\n  \n  if (verbose > 1)\n  {\n    CCTK_VInfo(CCTK_THORNSTRING,\"Entering CT_Analytic_ExactBoundary_Body\");\n  }\n  if (cctk_iteration % CT_Analytic_ExactBoundary_calc_every != CT_Analytic_ExactBoundary_calc_offset)\n  {\n    return;\n  }\n  \n  const char* const groups[] = {\n    \"CT_Analytic::CT_testinipsi\",\n    \"grid::coordinates\"};\n  AssertGroupStorage(cctkGH, \"CT_Analytic_ExactBoundary\", 2, groups);\n  \n  \n  LoopOverBoundary(cctkGH, CT_Analytic_ExactBoundary_Body);\n  if (verbose > 1)\n  {\n    CCTK_VInfo(CCTK_THORNSTRING,\"Leaving CT_Analytic_ExactBoundary_Body\");\n  }\n}\n\n} // namespace CT_Analytic\n",
    "Startup.cc": "/*  File produced by Kranc */\n\n#include \"cctk.h\"\n\nextern \"C\" int CT_Analytic_Startup(void)\n{\n  const char* banner CCTK_ATTRIBUTE_UNUSED = \"CT_Analytic\";\n  CCTK_RegisterBanner(banner);\n  return 0;\n}\n",
    "Boundaries.cc": "/*  File produced by Kranc */\n\n#include \"cctk.h\"\n#include \"cctk_Arguments.h\"\n#include \"cctk_Parameters.h\"\n#include \"cctk_Faces.h\"\n#include \"util_Table.h\"\n#include \"Symmetry.h\"\n#include \"Kranc.hh\"\n\n\n/* the boundary treatment is split into 3 steps:    */\n/* 1. excision                                      */\n/* 2. symmetries                                    */\n/* 3. \"other\" boundary conditions, e.g. radiative */\n\n/* to simplify scheduling and testing, the 3 steps  */\n/* are currently applied in separate functions      */\n\n\nextern \"C\" void CT_Analytic_CheckBoundaries(CCTK_ARGUMENTS)\n{\n#ifdef DECLARE_CCTK_ARGUMENTS_CT_Analytic_CheckBoundaries\n  DECLARE_CCTK_ARGUMENTS_CHECKED(CT_Analytic_CheckBoundaries);\n#else\n  DECLARE_CCTK_ARGUMENTS;\n#endif\n  DECLARE_CCTK_PARAMETERS;\n  \n  return;\n}\n\nextern \"C\" void CT_Analytic_SelectBoundConds(CCTK_ARGUMENTS)\n{\n#ifdef DECLARE_CCTK_ARGUMENTS_CT_Analytic_SelectBoundConds\n  DECLARE_CCTK_ARGUMENTS_CHECKED(CT_Analytic_SelectBoundConds);\n#else\n  DECLARE_CCTK_ARGUMENTS;\n#endif\n  DECLARE_CCTK_PARAMETERS;\n  \n  CCTK_INT ierr CCTK_ATTRIBUTE_UNUSED = 0;\n  return;\n}\n\n\n\n/* template for entries in parameter file:\n*/\n\n",
    "CT_Analytic_Exact_Calc.cc": "/*  File produced by Kranc */\n\n#define KRANC_C\n\n#include <algorithm>\n#include <assert.h>\n#include <math.h>\n#include <stdio.h>\n#include <stdlib.h>\n#include <string.h>\n#include \"cctk.h\"\n#include \"cctk_Arguments.h\"\n#include \"cctk_Parameters.h\"\n#include \"Kranc.hh\"\n#include \"Differencing.h\"\n#include \"loopcontrol.h\"\n\nnamespace CT_Analytic {\n\n\nstatic void CT_Analytic_Exact_Calc_Body(const cGH* restrict const cctkGH, const int dir, const int face, const CCTK_REAL normal[3], const CCTK_REAL tangentA[3], const CCTK_REAL tangentB[3], const int imin[3], const int imax[3], const int n_subblock_gfs, CCTK_REAL* restrict const subblock_gfs[])\n{\n  DECLARE_CCTK_ARGUMENTS;\n  DECLARE_CCTK_PARAMETERS;\n  \n  /* Include user-supplied include files */\n  /* Initialise finite differencing variables */\n  const ptrdiff_t di CCTK_ATTRIBUTE_UNUSED = 1;\n  const ptrdiff_t dj CCTK_ATTRIBUTE_UNUSED = \n    CCTK_GFINDEX3D(cctkGH,0,1,0) - CCTK_GFINDEX3D(cctkGH,0,0,0);\n  const ptrdiff_t dk CCTK_ATTRIBUTE_UNUSED = \n    CCTK_GFINDEX3D(cctkGH,0,0,1) - CCTK_GFINDEX3D(cctkGH,0,0,0);\n  const ptrdiff_t cdi CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL) * di;\n  const ptrdiff_t cdj CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL) * dj;\n  const ptrdiff_t cdk CCTK_ATTRIBUTE_UNUSED = sizeof(CCTK_REAL) * dk;\n  const ptrdiff_t cctkLbnd1 CCTK_ATTRIBUTE_UNUSED = cctk_lbnd[0];\n  const ptrdiff_t cctkLbnd2 CCTK_ATTRIBUTE_UNUSED = cctk_lbnd[1];\n  const ptrdiff_t cctkLbnd3 CCTK_ATTRIBUTE_UNUSED = cctk_lbnd[2];\n  const CCTK_REAL t CCTK_ATTRIBUTE_UNUSED = cctk_time;\n  const CCTK_REAL cctkOriginSpace1 CCTK_ATTRIBUTE_UNUSED = \n    CCTK_ORIGIN_SPACE(0);\n  const CCTK_REAL cctkOriginSpace2 CCTK_ATTRIBUTE_UNUSED = \n    CCTK_ORIGIN_SPACE(1);\n  const CCTK_REAL cctkOriginSpace3 CCTK_ATTRIBUTE_UNUSED = \n    CCTK_ORIGIN_SPACE(2);\n  const CCTK_REAL dt CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_TIME;\n  const CCTK_REAL dx CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_SPACE(0);\n  const CCTK_REAL dy CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_SPACE(1);\n  const CCTK_REAL dz CCTK_ATTRIBUTE_UNUSED = CCTK_DELTA_SPACE(2);\n  const CCTK_REAL dxi CCTK_ATTRIBUTE_UNUSED = pow(dx,-1);\n  const CCTK_REAL dyi CCTK_ATTRIBUTE_UNUSED = pow(dy,-1);\n  const CCTK_REAL dzi CCTK_ATTRIBUTE_UNUSED = pow(dz,-1);\n  const CCTK_REAL khalf CCTK_ATTRIBUTE_UNUSED = 0.5;\n  const CCTK_REAL kthird CCTK_ATTRIBUTE_UNUSED = \n    0.333333333333333333333333333333;\n  const CCTK_REAL ktwothird CCTK_ATTRIBUTE_UNUSED = \n    0.666666666666666666666666666667;\n  const CCTK_REAL kfourthird CCTK_ATTRIBUTE_UNUSED = \n    1.33333333333333333333333333333;\n  const CCTK_REAL hdxi CCTK_ATTRIBUTE_UNUSED = 0.5*dxi;\n  const CCTK_REAL hdyi CCTK_ATTRIBUTE_UNUSED = 0.5*dyi;\n  const CCTK_REAL hdzi CCTK_ATTRIBUTE_UNUSED = 0.5*dzi;\n  /* Initialize predefined quantities */\n  const CCTK_REAL p1o12dx CCTK_ATTRIBUTE_UNUSED = 0.0833333333333333333333333333333*pow(dx,-1);\n  const CCTK_REAL p1o12dy CCTK_ATTRIBUTE_UNUSED = 0.0833333333333333333333333333333*pow(dy,-1);\n  const CCTK_REAL p1o12dz CCTK_ATTRIBUTE_UNUSED = 0.0833333333333333333333333333333*pow(dz,-1);\n  const CCTK_REAL p1o144dxdy CCTK_ATTRIBUTE_UNUSED = 0.00694444444444444444444444444444*pow(dx,-1)*pow(dy,-1);\n  const CCTK_REAL p1o144dxdz CCTK_ATTRIBUTE_UNUSED = 0.00694444444444444444444444444444*pow(dx,-1)*pow(dz,-1);\n  const CCTK_REAL p1o144dydz CCTK_ATTRIBUTE_UNUSED = 0.00694444444444444444444444444444*pow(dy,-1)*pow(dz,-1);\n  const CCTK_REAL pm1o12dx2 CCTK_ATTRIBUTE_UNUSED = -0.0833333333333333333333333333333*pow(dx,-2);\n  const CCTK_REAL pm1o12dy2 CCTK_ATTRIBUTE_UNUSED = -0.0833333333333333333333333333333*pow(dy,-2);\n  const CCTK_REAL pm1o12dz2 CCTK_ATTRIBUTE_UNUSED = -0.0833333333333333333333333333333*pow(dz,-2);\n  /* Assign local copies of arrays functions */\n  \n  \n  /* Calculate temporaries and arrays functions */\n  /* Copy local copies back to grid functions */\n  /* Loop over the grid points */\n  const int imin0=imin[0];\n  const int imin1=imin[1];\n  const int imin2=imin[2];\n  const int imax0=imax[0];\n  const int imax1=imax[1];\n  const int imax2=imax[2];\n  #pragma omp parallel\n  CCTK_LOOP3(CT_Analytic_Exact_Calc,\n    i,j,k, imin0,imin1,imin2, imax0,imax1,imax2,\n    cctk_ash[0],cctk_ash[1],cctk_ash[2])\n  {\n    const ptrdiff_t index CCTK_ATTRIBUTE_UNUSED = di*i + dj*j + dk*k;\n    /* Assign local copies of grid functions */\n    \n    CCTK_REAL testc1L CCTK_ATTRIBUTE_UNUSED = testc1[index];\n    CCTK_REAL testc2L CCTK_ATTRIBUTE_UNUSED = testc2[index];\n    CCTK_REAL xL CCTK_ATTRIBUTE_UNUSED = x[index];\n    CCTK_REAL yL CCTK_ATTRIBUTE_UNUSED = y[index];\n    CCTK_REAL zL CCTK_ATTRIBUTE_UNUSED = z[index];\n    \n    /* Include user supplied include files */\n    /* Precompute derivatives */\n    /* Calculate temporaries and grid functions */\n    CCTK_REAL d2soln CCTK_ATTRIBUTE_UNUSED = \n      ampG*((amp[0])*(-(exp(-0.5*pow((sigmax[0]),-2)*pow(-(x0[0]) + xL,2) - \n      0.5*pow((sigmay[0]),-2)*pow(-(y0[0]) + yL,2) - \n      0.5*pow((sigmaz[0]),-2)*pow(-(z0[0]) + zL,2))*pow((sigmax[0]),-2)) + \n      exp(-0.5*pow((sigmax[0]),-2)*pow(-(x0[0]) + xL,2) - \n      0.5*pow((sigmay[0]),-2)*pow(-(y0[0]) + yL,2) - \n      0.5*pow((sigmaz[0]),-2)*pow(-(z0[0]) + \n      zL,2))*pow((sigmax[0]),-4)*pow(-(x0[0]) + xL,2)) + \n      (amp[1])*(-(exp(-0.5*pow((sigmax[1]),-2)*pow(-(x0[1]) + xL,2) - \n      0.5*pow((sigmay[1]),-2)*pow(-(y0[1]) + yL,2) - \n      0.5*pow((sigmaz[1]),-2)*pow(-(z0[1]) + zL,2))*pow((sigmax[1]),-2)) + \n      exp(-0.5*pow((sigmax[1]),-2)*pow(-(x0[1]) + xL,2) - \n      0.5*pow((sigmay[1]),-2)*pow(-(y0[1]) + yL,2) - \n      0.5*pow((sigmaz[1]),-2)*pow(-(z0[1]) + \n      zL,2))*pow((sigmax[1]),-4)*pow(-(x0[1]) + xL,2)) + \n      (amp[2])*(-(exp(-0.5*pow((sigmax[2]),-2)*pow(-(x0[2]) + xL,2) - \n      0.5*pow((sigmay[2]),-2)*pow(-(y0[2]) + yL,2) - \n      0.5*pow((sigmaz[2]),-2)*pow(-(z0[2]) + zL,2))*pow((sigmax[2]),-2)) + \n      exp(-0.5*pow((sigmax[2]),-2)*pow(-(x0[2]) + xL,2) - \n      0.5*pow((sigmay[2]),-2)*pow(-(y0[2]) + yL,2) - \n      0.5*pow((sigmaz[2]),-2)*pow(-(z0[2]) + \n      zL,2))*pow((sigmax[2]),-4)*pow(-(x0[2]) + xL,2)) + \n      (amp[3])*(-(exp(-0.5*pow((sigmax[3]),-2)*pow(-(x0[3]) + xL,2) - \n      0.5*pow((sigmay[3]),-2)*pow(-(y0[3]) + yL,2) - \n      0.5*pow((sigmaz[3]),-2)*pow(-(z0[3]) + zL,2))*pow((sigmax[3]),-2)) + \n      exp(-0.5*pow((sigmax[3]),-2)*pow(-(x0[3]) + xL,2) - \n      0.5*pow((sigmay[3]),-2)*pow(-(y0[3]) + yL,2) - \n      0.5*pow((sigmaz[3]),-2)*pow(-(z0[3]) + \n      zL,2))*pow((sigmax[3]),-4)*pow(-(x0[3]) + xL,2)) + \n      (amp[4])*(-(exp(-0.5*pow((sigmax[4]),-2)*pow(-(x0[4]) + xL,2) - \n      0.5*pow((sigmay[4]),-2)*pow(-(y0[4]) + yL,2) - \n      0.5*pow((sigmaz[4]),-2)*pow(-(z0[4]) + zL,2))*pow((sigmax[4]),-2)) + \n      exp(-0.5*pow((sigmax[4]),-2)*pow(-(x0[4]) + xL,2) - \n      0.5*pow((sigmay[4]),-2)*pow(-(y0[4]) + yL,2) - \n      0.5*pow((sigmaz[4]),-2)*pow(-(z0[4]) + \n      zL,2))*pow((sigmax[4]),-4)*pow(-(x0[4]) + xL,2))) + \n      ampG*((amp[0])*(-(exp(-0.5*pow((sigmax[0]),-2)*pow(-(x0[0]) + xL,2) - \n      0.5*pow((sigmay[0]),-2)*pow(-(y0[0]) + yL,2) - \n      0.5*pow((sigmaz[0]),-2)*pow(-(z0[0]) + zL,2))*pow((sigmay[0]),-2)) + \n      exp(-0.5*pow((sigmax[0]),-2)*pow(-(x0[0]) + xL,2) - \n      0.5*pow((sigmay[0]),-2)*pow(-(y0[0]) + yL,2) - \n      0.5*pow((sigmaz[0]),-2)*pow(-(z0[0]) + \n      zL,2))*pow((sigmay[0]),-4)*pow(-(y0[0]) + yL,2)) + \n      (amp[1])*(-(exp(-0.5*pow((sigmax[1]),-2)*pow(-(x0[1]) + xL,2) - \n      0.5*pow((sigmay[1]),-2)*pow(-(y0[1]) + yL,2) - \n      0.5*pow((sigmaz[1]),-2)*pow(-(z0[1]) + zL,2))*pow((sigmay[1]),-2)) + \n      exp(-0.5*pow((sigmax[1]),-2)*pow(-(x0[1]) + xL,2) - \n      0.5*pow((sigmay[1]),-2)*pow(-(y0[1]) + yL,2) - \n      0.5*pow((sigmaz[1]),-2)*pow(-(z0[1]) + \n      zL,2))*pow((sigmay[1]),-4)*pow(-(y0[1]) + yL,2)) + \n      (amp[2])*(-(exp(-0.5*pow((sigmax[2]),-2)*pow(-(x0[2]) + xL,2) - \n      0.5*pow((sigmay[2]),-2)*pow(-(y0[2]) + yL,2) - \n      0.5*pow((sigmaz[2]),-2)*pow(-(z0[2]) + zL,2))*pow((sigmay[2]),-2)) + \n      exp(-0.5*pow((sigmax[2]),-2)*pow(-(x0[2]) + xL,2) - \n      0.5*pow((sigmay[2]),-2)*pow(-(y0[2]) + yL,2) - \n      0.5*pow((sigmaz[2]),-2)*pow(-(z0[2]) + \n      zL,2))*pow((sigmay[2]),-4)*pow(-(y0[2]) + yL,2)) + \n      (amp[3])*(-(exp(-0.5*pow((sigmax[3]),-2)*pow(-(x0[3]) + xL,2) - \n      0.5*pow((sigmay[3]),-2)*pow(-(y0[3]) + yL,2) - \n      0.5*pow((sigmaz[3]),-2)*pow(-(z0[3]) + zL,2))*pow((sigmay[3]),-2)) + \n      exp(-0.5*pow((sigmax[3]),-2)*pow(-(x0[3]) + xL,2) - \n      0.5*pow((sigmay[3]),-2)*pow(-(y0[3]) + yL,2) - \n      0.5*pow((sigmaz[3]),-2)*pow(-(z0[3]) + \n      zL,2))*pow((sigmay[3]),-4)*pow(-(y0[3]) + yL,2)) + \n      (amp[4])*(-(exp(-0.5*pow((sigmax[4]),-2)*pow(-(x0[4]) + xL,2) - \n      0.5*pow((sigmay[4]),-2)*pow(-(y0[4]) + yL,2) - \n      0.5*pow((sigmaz[4]),-2)*pow(-(z0[4]) + zL,2))*pow((sigmay[4]),-2)) + \n      exp(-0.5*pow((sigmax[4]),-2)*pow(-(x0[4]) + xL,2) - \n      0.5*pow((sigmay[4]),-2)*pow(-(y0[4]) + yL,2) - \n      0.5*pow((sigmaz[4]),-2)*pow(-(z0[4]) + \n      zL,2))*pow((sigmay[4]),-4)*pow(-(y0[4]) + yL,2))) + \n      ampG*((amp[0])*(-(exp(-0.5*pow((sigmax[0]),-2)*pow(-(x0[0]) + xL,2) - \n      0.5*pow((sigmay[0]),-2)*pow(-(y0[0]) + yL,2) - \n      0.5*pow((sigmaz[0]),-2)*pow(-(z0[0]) + zL,2))*pow((sigmaz[0]),-2)) + \n      exp(-0.5*pow((sigmax[0]),-2)*pow(-(x0[0]) + xL,2) - \n      0.5*pow((sigmay[0]),-2)*pow(-(y0[0]) + yL,2) - \n      0.5*pow((sigmaz[0]),-2)*pow(-(z0[0]) + \n      zL,2))*pow((sigmaz[0]),-4)*pow(-(z0[0]) + zL,2)) + \n      (amp[1])*(-(exp(-0.5*pow((sigmax[1]),-2)*pow(-(x0[1]) + xL,2) - \n      0.5*pow((sigmay[1]),-2)*pow(-(y0[1]) + yL,2) - \n      0.5*pow((sigmaz[1]),-2)*pow(-(z0[1]) + zL,2))*pow((sigmaz[1]),-2)) + \n      exp(-0.5*pow((sigmax[1]),-2)*pow(-(x0[1]) + xL,2) - \n      0.5*pow((sigmay[1]),-2)*pow(-(y0[1]) + yL,2) - \n      0.5*pow((sigmaz[1]),-2)*pow(-(z0[1]) + \n      zL,2))*pow((sigmaz[1]),-4)*pow(-(z0[1]) + zL,2)) + \n      (amp[2])*(-(exp(-0.5*pow((sigmax[2]),-2)*pow(-(x0[2]) + xL,2) - \n      0.5*pow((sigmay[2]),-2)*pow(-(y0[2]) + yL,2) - \n      0.5*pow((sigmaz[2]),-2)*pow(-(z0[2]) + zL,2))*pow((sigmaz[2]),-2)) + \n      exp(-0.5*pow((sigmax[2]),-2)*pow(-(x0[2]) + xL,2) - \n      0.5*pow((sigmay[2]),-2)*pow(-(y0[2]) + yL,2) - \n      0.5*pow((sigmaz[2]),-2)*pow(-(z0[2]) + \n      zL,2))*pow((sigmaz[2]),-4)*pow(-(z0[2]) + zL,2)) + \n      (amp[3])*(-(exp(-0.5*pow((sigmax[3]),-2)*pow(-(x0[3]) + xL,2) - \n      0.5*pow((sigmay[3]),-2)*pow(-(y0[3]) + yL,2) - \n      0.5*pow((sigmaz[3]),-2)*pow(-(z0[3]) + zL,2))*pow((sigmaz[3]),-2)) + \n      exp(-0.5*pow((sigmax[3]),-2)*pow(-(x0[3]) + xL,2) - \n      0.5*pow((sigmay[3]),-2)*pow(-(y0[3]) + yL,2) - \n      0.5*pow((sigmaz[3]),-2)*pow(-(z0[3]) + \n      zL,2))*pow((sigmaz[3]),-4)*pow(-(z0[3]) + zL,2)) + \n      (amp[4])*(-(exp(-0.5*pow((sigmax[4]),-2)*pow(-(x0[4]) + xL,2) - \n      0.5*pow((sigmay[4]),-2)*pow(-(y0[4]) + yL,2) - \n      0.5*pow((sigmaz[4]),-2)*pow(-(z0[4]) + zL,2))*pow((sigmaz[4]),-2)) + \n      exp(-0.5*pow((sigmax[4]),-2)*pow(-(x0[4]) + xL,2) - \n      0.5*pow((sigmay[4]),-2)*pow(-(y0[4]) + yL,2) - \n      0.5*pow((sigmaz[4]),-2)*pow(-(z0[4]) + \n      zL,2))*pow((sigmaz[4]),-4)*pow(-(z0[4]) + zL,2))) + \n      0.5*ampSg*(massa*(3*pow(xL - xa,2)*pow(pow(eps,2) + pow(xL - xa,2) + \n      pow(yL - ya,2) + pow(zL - za,2),-2.5) - pow(pow(eps,2) + pow(xL - xa,2) \n      + pow(yL - ya,2) + pow(zL - za,2),-1.5)) + massb*(3*pow(xL - \n      xb,2)*pow(pow(eps,2) + pow(xL - xb,2) + pow(yL - yb,2) + pow(zL - \n      zb,2),-2.5) - pow(pow(eps,2) + pow(xL - xb,2) + pow(yL - yb,2) + pow(zL \n      - zb,2),-1.5))) + 0.5*ampSg*(massa*(3*pow(yL - ya,2)*pow(pow(eps,2) + \n      pow(xL - xa,2) + pow(yL - ya,2) + pow(zL - za,2),-2.5) - pow(pow(eps,2) \n      + pow(xL - xa,2) + pow(yL - ya,2) + pow(zL - za,2),-1.5)) + \n      massb*(3*pow(yL - yb,2)*pow(pow(eps,2) + pow(xL - xb,2) + pow(yL - \n      yb,2) + pow(zL - zb,2),-2.5) - pow(pow(eps,2) + pow(xL - xb,2) + pow(yL \n      - yb,2) + pow(zL - zb,2),-1.5))) + 0.5*ampSg*(massa*(3*pow(zL - \n      za,2)*pow(pow(eps,2) + pow(xL - xa,2) + pow(yL - ya,2) + pow(zL - \n      za,2),-2.5) - pow(pow(eps,2) + pow(xL - xa,2) + pow(yL - ya,2) + pow(zL \n      - za,2),-1.5)) + massb*(3*pow(zL - zb,2)*pow(pow(eps,2) + pow(xL - \n      xb,2) + pow(yL - yb,2) + pow(zL - zb,2),-2.5) - pow(pow(eps,2) + pow(xL \n      - xb,2) + pow(yL - yb,2) + pow(zL - zb,2),-1.5))) - \n      39.47841760435743447533796399950460454125*ampS*pow(kx,2)*sin(6.283185307179586476925286766559005768394*(xL*kx \n      + phasex))*sin(6.283185307179586476925286766559005768394*(yL*ky + \n      phasey))*sin(6.283185307179586476925286766559005768394*(zL*kz + \n      phasez)) - \n      39.47841760435743447533796399950460454125*ampS*pow(ky,2)*sin(6.283185307179586476925286766559005768394*(xL*kx \n      + phasex))*sin(6.283185307179586476925286766559005768394*(yL*ky + \n      phasey))*sin(6.283185307179586476925286766559005768394*(zL*kz + \n      phasez)) - \n      39.47841760435743447533796399950460454125*ampS*pow(kz,2)*sin(6.283185307179586476925286766559005768394*(xL*kx \n      + phasex))*sin(6.283185307179586476925286766559005768394*(yL*ky + \n      phasey))*sin(6.283185307179586476925286766559005768394*(zL*kz + \n      phasez));\n    \n    CCTK_REAL epsiL CCTK_ATTRIBUTE_UNUSED = ampC + \n      ampG*((amp[0])*exp(-0.5*pow((sigmax[0]),-2)*pow(-(x0[0]) + xL,2) - \n      0.5*pow((sigmay[0]),-2)*pow(-(y0[0]) + yL,2) - \n      0.5*pow((sigmaz[0]),-2)*pow(-(z0[0]) + zL,2)) + \n      (amp[1])*exp(-0.5*pow((sigmax[1]),-2)*pow(-(x0[1]) + xL,2) - \n      0.5*pow((sigmay[1]),-2)*pow(-(y0[1]) + yL,2) - \n      0.5*pow((sigmaz[1]),-2)*pow(-(z0[1]) + zL,2)) + \n      (amp[2])*exp(-0.5*pow((sigmax[2]),-2)*pow(-(x0[2]) + xL,2) - \n      0.5*pow((sigmay[2]),-2)*pow(-(y0[2]) + yL,2) - \n      0.5*pow((sigmaz[2]),-2)*pow(-(z0[2]) + zL,2)) + \n      (amp[3])*exp(-0.5*pow((sigmax[3]),-2)*pow(-(x0[3]) + xL,2) - \n      0.5*pow((sigmay[3]),-2)*pow(-(y0[3]) + yL,2) - \n      0.5*pow((sigmaz[3]),-2)*pow(-(z0[3]) + zL,2)) + \n      (amp[4])*exp(-0.5*pow((sigmax[4]),-2)*pow(-(x0[4]) + xL,2) - \n      0.5*pow((sigmay[4]),-2)*pow(-(y0[4]) + yL,2) - \n      0.5*pow((sigmaz[4]),-2)*pow(-(z0[4]) + zL,2))) + \n      0.5*ampSg*(massa*pow(pow(eps,2) + pow(xL - xa,2) + pow(yL - ya,2) + \n      pow(zL - za,2),-0.5) + massb*pow(pow(eps,2) + pow(xL - xb,2) + pow(yL - \n      yb,2) + pow(zL - zb,2),-0.5)) + \n      ampS*sin(6.283185307179586476925286766559005768394*(xL*kx + \n      phasex))*sin(6.283185307179586476925286766559005768394*(yL*ky + \n      phasey))*sin(6.283185307179586476925286766559005768394*(zL*kz + \n      phasez));\n    \n    CCTK_REAL elaplacianL CCTK_ATTRIBUTE_UNUSED = d2soln;\n    \n    CCTK_REAL testinipsiL CCTK_ATTRIBUTE_UNUSED = ampI*(ampC + \n      ampG*((amp[0])*exp(-0.5*pow((sigmax[0]),-2)*pow(-(x0[0]) + xL,2) - \n      0.5*pow((sigmay[0]),-2)*pow(-(y0[0]) + yL,2) - \n      0.5*pow((sigmaz[0]),-2)*pow(-(z0[0]) + zL,2)) + \n      (amp[1])*exp(-0.5*pow((sigmax[1]),-2)*pow(-(x0[1]) + xL,2) - \n      0.5*pow((sigmay[1]),-2)*pow(-(y0[1]) + yL,2) - \n      0.5*pow((sigmaz[1]),-2)*pow(-(z0[1]) + zL,2)) + \n      (amp[2])*exp(-0.5*pow((sigmax[2]),-2)*pow(-(x0[2]) + xL,2) - \n      0.5*pow((sigmay[2]),-2)*pow(-(y0[2]) + yL,2) - \n      0.5*pow((sigmaz[2]),-2)*pow(-(z0[2]) + zL,2)) + \n      (amp[3])*exp(-0.5*pow((sigmax[3]),-2)*pow(-(x0[3]) + xL,2) - \n      0.5*pow((sigmay[3]),-2)*pow(-(y0[3]) + yL,2) - \n      0.5*pow((sigmaz[3]),-2)*pow(-(z0[3]) + zL,2)) + \n      (amp[4])*exp(-0.5*pow((sigmax[4]),-2)*pow(-(x0[4]) + xL,2) - \n      0.5*pow((sigmay[4]),-2)*pow(-(y0[4]) + yL,2) - \n      0.5*pow((sigmaz[4]),-2)*pow(-(z0[4]) + zL,2))) + \n      0.5*ampSg*(massa*pow(pow(eps,2) + pow(xL - xa,2) + pow(yL - ya,2) + \n      pow(zL - za,2),-0.5) + massb*pow(pow(eps,2) + pow(xL - xb,2) + pow(yL - \n      yb,2) + pow(zL - zb,2),-0.5)) + \n      ampS*sin(6.283185307179586476925286766559005768394*(xL*kx + \n      phasex))*sin(6.283185307179586476925286766559005768394*(yL*ky + \n      phasey))*sin(6.283185307179586476925286766559005768394*(zL*kz + \n      phasez)));\n    \n    CCTK_REAL testcxxL CCTK_ATTRIBUTE_UNUSED = 1;\n    \n    CCTK_REAL testcxyL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testcxzL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testcyyL CCTK_ATTRIBUTE_UNUSED = 1;\n    \n    CCTK_REAL testcyzL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testczzL CCTK_ATTRIBUTE_UNUSED = 1;\n    \n    CCTK_REAL testcxL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testcyL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testczL CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    testc1L = ampC1;\n    \n    testc2L = 0;\n    \n    CCTK_REAL testc3L CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testc4L CCTK_ATTRIBUTE_UNUSED = 0;\n    \n    CCTK_REAL testc0L CCTK_ATTRIBUTE_UNUSED = -d2soln - testc2L*pow(ampC + \n      ampG*((amp[0])*exp(-0.5*pow((sigmax[0]),-2)*pow(-(x0[0]) + xL,2) - \n      0.5*pow((sigmay[0]),-2)*pow(-(y0[0]) + yL,2) - \n      0.5*pow((sigmaz[0]),-2)*pow(-(z0[0]) + zL,2)) + \n      (amp[1])*exp(-0.5*pow((sigmax[1]),-2)*pow(-(x0[1]) + xL,2) - \n      0.5*pow((sigmay[1]),-2)*pow(-(y0[1]) + yL,2) - \n      0.5*pow((sigmaz[1]),-2)*pow(-(z0[1]) + zL,2)) + \n      (amp[2])*exp(-0.5*pow((sigmax[2]),-2)*pow(-(x0[2]) + xL,2) - \n      0.5*pow((sigmay[2]),-2)*pow(-(y0[2]) + yL,2) - \n      0.5*pow((sigmaz[2]),-2)*pow(-(z0[2]) + zL,2)) + \n      (amp[3])*exp(-0.5*pow((sigmax[3]),-2)*pow(-(x0[3]) + xL,2) - \n      0.5*pow((sigmay[3]),-2)*pow(-(y0[3]) + yL,2) - \n      0.5*pow((sigmaz[3]),-2)*pow(-(z0[3]) + zL,2)) + \n      (amp[4])*exp(-0.5*pow((sigmax[4]),-2)*pow(-(x0[4]) + xL,2) - \n      0.5*pow((sigmay[4]),-2)*pow(-(y0[4]) + yL,2) - \n      0.5*pow((sigmaz[4]),-2)*pow(-(z0[4]) + zL,2))) + \n      0.5*ampSg*(massa*pow(pow(eps,2) + pow(xL - xa,2) + pow(yL - ya,2) + \n      pow(zL - za,2),-0.5) + massb*pow(pow(eps,2) + pow(xL - xb,2) + pow(yL - \n      yb,2) + pow(zL - zb,2),-0.5)) + \n      ampS*sin(6.283185307179586476925286766559005768394*(xL*kx + \n      phasex))*sin(6.283185307179586476925286766559005768394*(yL*ky + \n      phasey))*sin(6.283185307179586476925286766559005768394*(zL*kz + \n      phasez)),2) - testc1L*(ampC + \n      ampG*((amp[0])*exp(-0.5*pow((sigmax[0]),-2)*pow(-(x0[0]) + xL,2) - \n      0.5*pow((sigmay[0]),-2)*pow(-(y0[0]) + yL,2) - \n      0.5*pow((sigmaz[0]),-2)*pow(-(z0[0]) + zL,2)) + \n      (amp[1])*exp(-0.5*pow((sigmax[1]),-2)*pow(-(x0[1]) + xL,2) - \n      0.5*pow((sigmay[1]),-2)*pow(-(y0[1]) + yL,2) - \n      0.5*pow((sigmaz[1]),-2)*pow(-(z0[1]) + zL,2)) + \n      (amp[2])*exp(-0.5*pow((sigmax[2]),-2)*pow(-(x0[2]) + xL,2) - \n      0.5*pow((sigmay[2]),-2)*pow(-(y0[2]) + yL,2) - \n      0.5*pow((sigmaz[2]),-2)*pow(-(z0[2]) + zL,2)) + \n      (amp[3])*exp(-0.5*pow((sigmax[3]),-2)*pow(-(x0[3]) + xL,2) - \n      0.5*pow((sigmay[3]),-2)*pow(-(y0[3]) + yL,2) - \n      0.5*pow((sigmaz[3]),-2)*pow(-(z0[3]) + zL,2)) + \n      (amp[4])*exp(-0.5*pow((sigmax[4]),-2)*pow(-(x0[4]) + xL,2) - \n      0.5*pow((sigmay[4]),-2)*pow(-(y0[4]) + yL,2) - \n      0.5*pow((sigmaz[4]),-2)*pow(-(z0[4]) + zL,2))) + \n      0.5*ampSg*(massa*pow(pow(eps,2) + pow(xL - xa,2) + pow(yL - ya,2) + \n      pow(zL - za,2),-0.5) + massb*pow(pow(eps,2) + pow(xL - xb,2) + pow(yL - \n      yb,2) + pow(zL - zb,2),-0.5)) + \n      ampS*sin(6.283185307179586476925286766559005768394*(xL*kx + \n      phasex))*sin(6.283185307179586476925286766559005768394*(yL*ky + \n      phasey))*sin(6.283185307179586476925286766559005768394*(zL*kz + \n      phasez)));\n    \n    testc1L = ampC1;\n    /* Copy local copies back to grid functions */\n    elaplacian[index] = elaplacianL;\n    epsi[index] = epsiL;\n    testc0[index] = testc0L;\n    testc1[index] = testc1L;\n    testc2[index] = testc2L;\n    testc3[index] = testc3L;\n    testc4[index] = testc4L;\n    testcx[index] = testcxL;\n    testcxx[index] = testcxxL;\n    testcxy[index] = testcxyL;\n    testcxz[index] = testcxzL;\n    testcy[index] = testcyL;\n    testcyy[index] = testcyyL;\n    testcyz[index] = testcyzL;\n    testcz[index] = testczL;\n    testczz[index] = testczzL;\n    testinipsi[index] = testinipsiL;\n  }\n  CCTK_ENDLOOP3(CT_Analytic_Exact_Calc);\n}\nextern \"C\" void CT_Analytic_Exact_Calc(CCTK_ARGUMENTS)\n{\n  #ifdef DECLARE_CCTK_ARGUMENTS_CT_Analytic_Exact_Calc\n  DECLARE_CCTK_ARGUMENTS_CHECKED(CT_Analytic_Exact_Calc);\n  #else\n  DECLARE_CCTK_ARGUMENTS;\n  #endif\n  DECLARE_CCTK_PARAMETERS;\n  \n  if (verbose > 1)\n  {\n    CCTK_VInfo(CCTK_THORNSTRING,\"Entering CT_Analytic_Exact_Calc_Body\");\n  }\n  if (cctk_iteration % CT_Analytic_Exact_Calc_calc_every != CT_Analytic_Exact_Calc_calc_offset)\n  {\n    return;\n  }\n  \n  const char* const groups[] = {\n    \"CT_Analytic::CT_elaplacian\",\n    \"CT_Analytic::CT_epsi\",\n    \"CT_Analytic::CT_testc0\",\n    \"CT_Analytic::CT_testc1\",\n    \"CT_Analytic::CT_testc2\",\n    \"CT_Analytic::CT_testc3\",\n    \"CT_Analytic::CT_testc4\",\n    \"CT_Analytic::CT_testcx\",\n    \"CT_Analytic::CT_testcxx\",\n    \"CT_Analytic::CT_testcxy\",\n    \"CT_Analytic::CT_testcxz\",\n    \"CT_Analytic::CT_testcy\",\n    \"CT_Analytic::CT_testcyy\",\n    \"CT_Analytic::CT_testcyz\",\n    \"CT_Analytic::CT_testcz\",\n    \"CT_Analytic::CT_testczz\",\n    \"CT_Analytic::CT_testinipsi\",\n    \"grid::coordinates\"};\n  AssertGroupStorage(cctkGH, \"CT_Analytic_Exact_Calc\", 18, groups);\n  \n  \n  LoopOverEverything(cctkGH, CT_Analytic_Exact_Calc_Body);\n  if (verbose > 1)\n  {\n    CCTK_VInfo(CCTK_THORNSTRING,\"Leaving CT_Analytic_Exact_Calc_Body\");\n  }\n}\n\n} // namespace CT_Analytic\n",
    "RegisterSymmetries.cc": "/*  File produced by Kranc */\n\n#include \"cctk.h\"\n#include \"cctk_Arguments.h\"\n#include \"cctk_Parameters.h\"\n#include \"Symmetry.h\"\n\nextern \"C\" void CT_Analytic_RegisterSymmetries(CCTK_ARGUMENTS)\n{\n  #ifdef DECLARE_CCTK_ARGUMENTS_CT_Analytic_RegisterSymmetries\n  DECLARE_CCTK_ARGUMENTS_CHECKED(CT_Analytic_RegisterSymmetries);\n  #else\n  DECLARE_CCTK_ARGUMENTS;\n  #endif\n  DECLARE_CCTK_PARAMETERS;\n  \n  /* array holding symmetry definitions */\n  int sym[3];\n  \n  /* Register symmetries of grid functions */\n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testinipsi\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testinixx\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testinixy\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testinixz\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::epsi\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::elaplacian\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testcxx\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testcxy\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testcxz\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testcyy\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testcyz\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testczz\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testcx\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testcy\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testcz\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testc0\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testc1\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testc2\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testc3\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testc4\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testa0\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testa1\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testa2\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testa3\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testa4\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testW\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testK\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testdxK\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testdyK\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testdzK\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testXx\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testXy\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testXz\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testZ\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testAxx\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testAxy\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testAxz\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testAyy\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testAyz\");\n  \n  sym[0] = 1;\n  sym[1] = 1;\n  sym[2] = 1;\n  SetCartSymVN(cctkGH, sym, \"CT_Analytic::testAzz\");\n  \n}\n"
  },
  "test": {},
  "doc": {}
}