Wed 28 Aug 21:38:52 CEST 2024
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src/SimNDT/engine/efit2d.py
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575
src/SimNDT/engine/efit2d.py
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from SimNDT.engine.engineBase import EngineBase
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try:
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import SimNDT.engine.efit2dcython as EFIT2DCython
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except:
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print("error in importation for Serial EFIT2D")
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from SimNDT.core.material import Material
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from SimNDT.core.constants import BC
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import copy
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import numpy as np
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global ErrorImportCL
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try:
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import pyopencl as cl
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ErrorImportCL = False
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except ImportError:
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ErrorImportCL = True
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c11 = 4350 * 4350 * 7750
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c12 = 4350 * 4350 * 7750 - 2260 * 2260 * 7750
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c22 = c11
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c44 = 2260 * 2260 * 7750
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pzt = Material("pzt", 7750.0, c11, c12, c22, c44)
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class EFIT2D(EngineBase):
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def __init__(self, simPack, Platform):
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EngineBase.__init__(self, simPack, Platform)
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self.max_value = 0.0
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self._Receiver = False
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def setup_CL(self):
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if self.Platform == "OpenCL":
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self.initFieldsCL()
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def materialSetup(self):
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Materials = copy.deepcopy(self.simPack.Materials)
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MRI, NRI = np.shape(self.simPack.Simulation.Im)
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# Condicion de vacio si uno de los materiales es aire
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for n in range(len(Materials)):
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if Materials[n].Rho < 2.0:
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Materials[n].Rho = 10e23
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Materials[n].C11 = 1e-20
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Materials[n].C12 = 1e-20
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Materials[n].C22 = 1e-20
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Materials[n].C44 = 1e-20
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Materials[n].Eta_v = 1e-20
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Materials[n].Eta_s = 1e-20
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# verificar que no sea cero exactamente
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if Materials[n].C44 == 0:
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Materials[n].C44 = 1e-30
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if Materials[n].Eta_s == 0:
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Materials[n].Eta_s = 1e-30
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self.Rho = np.zeros((MRI, NRI), dtype=np.float32)
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self.C11 = np.zeros((MRI, NRI), dtype=np.float32)
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self.C12 = np.zeros((MRI, NRI), dtype=np.float32)
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self.C22 = np.zeros((MRI, NRI), dtype=np.float32)
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self.C44 = np.ones((MRI, NRI), dtype=np.float32) * 1e-30
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self.Eta_v = np.zeros((MRI, NRI), dtype=np.float32)
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self.Eta_s = np.zeros((MRI, NRI), dtype=np.float32)
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for n in range(len(Materials)):
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ind = np.nonzero(self.simPack.Simulation.Im == Materials[n].Label)
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self.Rho[ind] = Materials[n].Rho
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self.C11[ind] = Materials[n].C11
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self.C12[ind] = Materials[n].C12
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self.C22[ind] = Materials[n].C22
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self.C44[ind] = Materials[n].C44
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self.Eta_v[ind] = Materials[n].Eta_v
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self.Eta_s[ind] = Materials[n].Eta_s
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# Find the base materials
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for i, item in enumerate(Materials):
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if item.Label == 0:
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base_material = i
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# Set material in boundaries
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ind = np.nonzero(self.simPack.Simulation.Im == 255.0)
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self.Rho[ind] = Materials[base_material].Rho
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self.C11[ind] = Materials[base_material].C11
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self.C12[ind] = Materials[base_material].C12
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self.C22[ind] = Materials[base_material].C22
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self.C44[ind] = Materials[base_material].C44
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self.Eta_v[ind] = Materials[base_material].Eta_v
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self.Eta_s[ind] = Materials[base_material].Eta_s
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def initFields(self):
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MRI, NRI = np.shape(self.simPack.Simulation.Im)
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Signal = self.simPack.Signal
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t = self.simPack.Simulation.t
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self.source = Signal.generate(t)
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self.Vx = np.zeros((MRI, NRI), dtype=np.float32)
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self.Vy = np.zeros((MRI, NRI), dtype=np.float32)
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self.Txx = np.zeros((MRI, NRI), dtype=np.float32)
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self.Txy = np.zeros((MRI, NRI), dtype=np.float32)
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self.Tyy = np.zeros((MRI, NRI), dtype=np.float32)
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self.DVx = np.zeros((MRI, NRI), dtype=np.float32)
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self.DVy = np.zeros((MRI, NRI), dtype=np.float32)
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self.ABS = np.ones((MRI, NRI), dtype=np.float32)
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self.SV = np.zeros((MRI, NRI), dtype=np.float32)
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def staggeredProp(self):
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MRI, NRI = np.shape(self.simPack.Simulation.Im)
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BXtemp = np.zeros((MRI, NRI), dtype=np.float32)
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BYtemp = np.zeros((MRI, NRI), dtype=np.float32)
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self.BX = np.zeros((MRI, NRI), dtype=np.float32)
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self.BY = np.zeros((MRI, NRI), dtype=np.float32)
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self.C44_Eff = np.zeros((MRI, NRI), dtype=np.float32)
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BXtemp[:, :] = 1.0 / self.Rho[:, :]
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BYtemp[:, :] = 1.0 / self.Rho[:, :]
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self.BX[:-2, :] = 0.5 * (BXtemp[1:-1, :] + BXtemp[:-2, :])
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self.BX[-2, :] = np.copy(BXtemp[-2, :])
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self.BY[:, :-2] = 0.5 * (BYtemp[:, 1:-1] + BYtemp[:, :-2])
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self.BY[:, -2] = np.copy(BYtemp[:, -2])
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self.C44_Eff[:-2, :-2] = 4. / (
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(1. / self.C44[:-2, :-2]) + (1. / self.C44[1:-1, :-2]) + (1. / self.C44[:-2, 1:-1]) + (
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1. / self.C44[1:-1, 1:-1]))
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self.Eta_vs = np.zeros((MRI, NRI), dtype=np.float32)
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self.Eta_ss = np.zeros((MRI, NRI), dtype=np.float32)
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self.Eta_vs = self.Eta_v + 2 * self.Eta_s
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self.Eta_ss[:-2, :-2] = 4. / (
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(1. / self.Eta_s[:-2, :-2]) + (1. / self.Eta_s[1:-1, :-2]) + (1. / self.Eta_s[:-2, 1:-1]) + (
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1. / self.Eta_s[1:-1, 1:-1]))
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def applyBoundaries(self):
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Materials = copy.deepcopy(self.simPack.Materials)
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MRI, NRI = np.shape(self.simPack.Simulation.Im)
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APARA = 0.015
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Top = int(self.simPack.Simulation.TapGrid[0])
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Bottom = int(self.simPack.Simulation.TapGrid[1])
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Left = int(self.simPack.Simulation.TapGrid[2])
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Right = int(self.simPack.Simulation.TapGrid[3])
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_Top = Top - np.arange(0, Top)
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_Bottom = np.arange(MRI - Bottom + 1, MRI) - MRI + Bottom - 1
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_Left = Left - np.arange(0, Left)
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_Right = np.arange(NRI - Right + 1, NRI) - NRI + Right - 1
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Boundaries = self.simPack.Boundary
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for boundary in Boundaries:
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if boundary.Name == "Top" and boundary.BC == BC.AirLayer:
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self.BX[0:Top, :] = 0.0
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self.BY[0:Top, :] = 0.0
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self.C11[0:Top, :] = 0.0
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self.C12[0:Top, :] = 0.0
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self.C22[0:Top, :] = 0.0
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self.C44_Eff[0:Top, :] = 0.0
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self.Eta_vs[0:Top, :] = 0.0
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self.Eta_ss[0:Top, :] = 0.0
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if boundary.Name == "Bottom" and boundary.BC == BC.AirLayer:
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self.BX[MRI - Bottom:, :] = 0.0
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self.BY[MRI - Bottom:, :] = 0.0
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self.C11[MRI - Bottom:, :] = 0.0
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self.C12[MRI - Bottom:, :] = 0.0
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self.C22[MRI - Bottom:, :] = 0.0
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self.C44_Eff[MRI - Bottom:, :] = 0.0
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self.Eta_vs[MRI - Bottom:, :] = 0.0
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self.Eta_ss[MRI - Bottom:, :] = 0.0
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if boundary.Name == "Left" and boundary.BC == BC.AirLayer:
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self.BX[:, 0:Left] = 0.0
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self.BY[:, 0:Left] = 0.0
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self.C11[:, 0:Left] = 0.0
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self.C12[:, 0:Left] = 0.0
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self.C22[:, 0:Left] = 0.0
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self.C44_Eff[:, 0:Left] = 0.0
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self.Eta_vs[:, 0:Left] = 0.0
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self.Eta_ss[:, 0:Left] = 0.0
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if boundary.Name == "Right" and boundary.BC == BC.AirLayer:
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self.BX[:, NRI - Right:] = 0.0
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self.BY[:, NRI - Right:] = 0.0
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self.C11[:, NRI - Right:] = 0.0
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self.C12[:, NRI - Right:] = 0.0
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self.C22[:, NRI - Right:] = 0.0
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self.C44_Eff[:, NRI - Right:] = 0.0
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self.Eta_vs[:, NRI - Right:] = 0.0
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self.Eta_ss[:, NRI - Right:] = 0.0
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for j in range(0, NRI):
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self.ABS[0:Top, j] = np.exp(- ((APARA * _Top) ** 2))
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self.ABS[MRI - Bottom + 1:, j] = np.exp(- ((APARA * _Bottom) ** 2))
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for i in range(0, MRI):
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self.ABS[i, 0:Left] = np.exp(- ((APARA * _Left) ** 2))
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self.ABS[i, NRI - Right + 1:] = np.exp(- ((APARA * _Right) ** 2))
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def sourceSetup(self):
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longitudinal = self.simPack.Source.Longitudinal
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shear = self.simPack.Source.Shear
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Pressure = self.simPack.Source.Pressure
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Displacement = self.simPack.Source.Displacement
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if Pressure and not Displacement:
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self.typeSource = 0
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elif not Pressure and Displacement:
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self.typeSource = 1
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elif Pressure and Displacement:
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self.typeSource = 2
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else:
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self.typeSource = 0
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if longitudinal and not shear:
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self.typeWave = np.int32(0)
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elif not longitudinal and shear:
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self.typeWave = np.int32(1)
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elif longitudinal and shear:
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self.typeWave = np.int32(2)
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else:
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self.typeWave = np.int32(0)
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self.Amplitude = self.simPack.Signal.Amplitude
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XL = self.simPack.Inspection.XL
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YL = self.simPack.Inspection.YL
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NX = np.size(XL, 0)
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IsPZT = self.simPack.Transducers[0].PZT
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size1 = int((self.simPack.Simulation.TapGrid[0]))
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size2 = int((self.simPack.Simulation.TapGrid[1]))
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for IT in range(-size1, 0):
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for m in range(0, NX):
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xl = int(XL[m, 0])
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yl = int(YL[m, 0])
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self.BX[xl + IT, yl] = 1.0 / pzt.Rho if IsPZT else 0
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self.BY[xl + IT, yl] = 1.0 / pzt.Rho if IsPZT else 0
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self.C11[xl + IT, yl] = pzt.C11 if IsPZT else 0
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self.C12[xl + IT, yl] = pzt.C12 if IsPZT else 0
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self.C22[xl + IT, yl] = pzt.C22 if IsPZT else 0
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self.C44[xl + IT, yl] = pzt.C44 if IsPZT else 0
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if self.simPack.Inspection.Name == "Transmission":
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for IT in range(1, size2):
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for m in range(0, NX):
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xl = int(XL[m, 1])
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yl = int(YL[m, 1])
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self.BX[xl + IT, yl] = 1.0 / pzt.Rho if IsPZT else 0
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self.BY[xl + IT, yl] = 1.0 / pzt.Rho if IsPZT else 0
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self.C11[xl + IT, yl] = pzt.C11 if IsPZT else 0
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self.C12[xl + IT, yl] = pzt.C12 if IsPZT else 0
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self.C22[xl + IT, yl] = pzt.C22 if IsPZT else 0
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self.C44[xl + IT, yl] = pzt.C44 if IsPZT else 0
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def simSetup(self):
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self.MRI, self.NRI = np.shape(self.simPack.Simulation.Im)
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XL = self.simPack.Inspection.XL
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YL = self.simPack.Inspection.YL
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self.NX = np.size(XL, 0)
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self.XL = np.copy(np.int32(XL[:, 0]))
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self.YL = np.copy(np.int32(YL[:, 0]))
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if self.simPack.Transducers[0].Window and not self.simPack.Transducers[0].PointSource:
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self.win = np.float32(1.0 - np.cos(2 * np.pi * np.arange(0, self.NX) / (self.NX + 1)))
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else:
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self.win = np.ones((self.NX,), dtype=np.float32)
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def initFieldsCL(self):
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self.Txx_buf = cl.Buffer(self.ctx, self.mf.READ_WRITE | self.mf.COPY_HOST_PTR, hostbuf=self.Txx)
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self.Tyy_buf = cl.Buffer(self.ctx, self.mf.READ_WRITE | self.mf.COPY_HOST_PTR, hostbuf=self.Tyy)
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self.Txy_buf = cl.Buffer(self.ctx, self.mf.READ_WRITE | self.mf.COPY_HOST_PTR, hostbuf=self.Txy)
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self.Vx_buf = cl.Buffer(self.ctx, self.mf.READ_WRITE | self.mf.COPY_HOST_PTR, hostbuf=self.Vx)
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self.Vy_buf = cl.Buffer(self.ctx, self.mf.READ_WRITE | self.mf.COPY_HOST_PTR, hostbuf=self.Vy)
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self.DVx_buf = cl.Buffer(self.ctx, self.mf.READ_WRITE | self.mf.COPY_HOST_PTR, hostbuf=self.DVx)
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self.DVy_buf = cl.Buffer(self.ctx, self.mf.READ_WRITE | self.mf.COPY_HOST_PTR, hostbuf=self.DVy)
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self.ABS_buf = cl.Buffer(self.ctx, self.mf.READ_ONLY | self.mf.COPY_HOST_PTR, hostbuf=self.ABS)
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self.BX_buf = cl.Buffer(self.ctx, self.mf.READ_ONLY | self.mf.COPY_HOST_PTR, hostbuf=self.BX)
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self.BY_buf = cl.Buffer(self.ctx, self.mf.READ_ONLY | self.mf.COPY_HOST_PTR, hostbuf=self.BY)
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self.C11_buf = cl.Buffer(self.ctx, self.mf.READ_ONLY | self.mf.COPY_HOST_PTR, hostbuf=self.C11)
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self.C12_buf = cl.Buffer(self.ctx, self.mf.READ_ONLY | self.mf.COPY_HOST_PTR, hostbuf=self.C12)
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self.C44_buf = cl.Buffer(self.ctx, self.mf.READ_ONLY | self.mf.COPY_HOST_PTR, hostbuf=self.C44_Eff)
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self.ETA_vs_buf = cl.Buffer(self.ctx, self.mf.READ_ONLY | self.mf.COPY_HOST_PTR, hostbuf=self.Eta_vs)
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self.ETA_s_buf = cl.Buffer(self.ctx, self.mf.READ_ONLY | self.mf.COPY_HOST_PTR, hostbuf=self.Eta_s)
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self.ETA_ss_buf = cl.Buffer(self.ctx, self.mf.READ_ONLY | self.mf.COPY_HOST_PTR, hostbuf=self.Eta_ss)
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self.XL_buf = cl.Buffer(self.ctx, self.mf.READ_ONLY | self.mf.COPY_HOST_PTR, hostbuf=self.XL)
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self.YL_buf = cl.Buffer(self.ctx, self.mf.READ_ONLY | self.mf.COPY_HOST_PTR, hostbuf=self.YL)
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self.WIN_buf = cl.Buffer(self.ctx, self.mf.READ_ONLY | self.mf.COPY_HOST_PTR, hostbuf=self.win)
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if not self.simPack.Inspection.Name == "Tomography":
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self._Receiver = True
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XL = self.simPack.Inspection.XL
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YL = self.simPack.Inspection.YL
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self.receiver_buf = cl.Buffer(self.ctx, self.mf.WRITE_ONLY | self.mf.COPY_HOST_PTR,
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hostbuf=self.receiver_signals)
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self.XXL = np.copy(np.int32(XL[:, 1]))
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self.YYL = np.copy(np.int32(YL[:, 1]))
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self.XXL_buf = cl.Buffer(self.ctx, self.mf.READ_ONLY | self.mf.COPY_HOST_PTR, hostbuf=self.XXL)
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self.YYL_buf = cl.Buffer(self.ctx, self.mf.READ_ONLY | self.mf.COPY_HOST_PTR, hostbuf=self.YYL)
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self.program = cl.Program(self.ctx, self.kernel()).build()
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def receiverSetup(self):
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TimeSteps = int(self.simPack.Simulation.TimeSteps)
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N_IR = np.size(self.simPack.Inspection.IR, 1)
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self.receiver_signals = np.zeros((TimeSteps, N_IR - 1), dtype=np.float32)
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# @blab+
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def clEnqueue(self, Var, Var_buf):
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# external access to Txx .. for snapshoting needs enqueueing of CL buffers
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cl.enqueue_copy(self.queue, Var, Var_buf)
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def receivers(self, Var, Var_buf):
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if self._Receiver:
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self.program.Receiver_EFIT2D(self.queue, (self.NX,), None, self.Txx_buf, self.receiver_buf,
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np.int32(self.n),
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self.XXL_buf, self.YYL_buf).wait()
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else:
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cl.enqueue_copy(self.queue, Var, Var_buf)
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self.receiver_signals[self.n, :] = self.simPack.Inspection.getReceivers(Var)
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def saveOutput(self):
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if self._Receiver:
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cl.enqueue_copy(self.queue, self.receiver_signals, self.receiver_buf).wait()
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def receiversSerial(self, Var):
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self.receiver_signals[self.n, :] = self.simPack.Inspection.getReceivers(Var)
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def run(self):
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y = np.float32(self.source[self.n])
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self.program.Velocity_EFIT2D_Voigt(self.queue, (self.NRI, self.MRI,), None,
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self.Txx_buf, self.Txy_buf, self.Tyy_buf,
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self.Vx_buf, self.Vy_buf, self.DVx_buf, self.DVy_buf,
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self.BX_buf, self.BY_buf, self.ABS_buf, self.ddx).wait()
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if self.typeSource == 1 or self.typeSource == 2:
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self.program.Source_Vel_EFIT2D(self.queue, (self.NX,), None,
|
||||
self.Vx_buf,
|
||||
self.Vy_buf,
|
||||
self.XL_buf,
|
||||
self.YL_buf,
|
||||
y, self.typeWave, self.WIN_buf).wait()
|
||||
|
||||
self.program.Stress_EFIT2D_Voigt(self.queue, (self.NRI, self.MRI,), None,
|
||||
self.Txx_buf, self.Txy_buf, self.Tyy_buf,
|
||||
self.Vx_buf, self.Vy_buf, self.DVx_buf, self.DVy_buf,
|
||||
self.C11_buf, self.C12_buf, self.C44_buf, self.ETA_vs_buf,
|
||||
self.ETA_s_buf, self.ETA_ss_buf, self.ABS_buf).wait()
|
||||
|
||||
if self.typeSource == 0 or self.typeSource == 2:
|
||||
self.program.Source_EFIT2D(self.queue, (self.NX,), None,
|
||||
self.Txx_buf,
|
||||
self.Tyy_buf,
|
||||
self.Txy_buf,
|
||||
self.XL_buf,
|
||||
self.YL_buf,
|
||||
y, self.typeWave, self.WIN_buf).wait()
|
||||
|
||||
self.receivers(self.Txx, self.Txx_buf)
|
||||
|
||||
def runGL(self):
|
||||
cl.enqueue_copy(self.queue, self.Vx, self.Vx_buf)
|
||||
cl.enqueue_copy(self.queue, self.Vy, self.Vy_buf)
|
||||
self.SV = np.sqrt(self.Vx ** 2 + self.Vy ** 2)
|
||||
value = np.max(np.abs(self.SV))
|
||||
self.max_value = self.max_value if self.max_value >= value else value
|
||||
self.SV = 20. * np.log10(np.abs(self.SV) / self.max_value + 1e-40)
|
||||
|
||||
def runGLSerial(self, step=50):
|
||||
|
||||
vx = np.copy(self.Vx)
|
||||
vy = np.copy(self.Vy)
|
||||
|
||||
self.SV = np.sqrt(vx ** 2 + vy ** 2)
|
||||
value = np.max(np.abs(self.SV))
|
||||
self.max_value = self.max_value if self.max_value >= value else value
|
||||
self.SV = 20. * np.log10(np.abs(self.SV) / self.max_value + 1e-40)
|
||||
|
||||
def runSerial(self):
|
||||
|
||||
y = np.float32(self.source[self.n])
|
||||
|
||||
self.Vx, self.Vy, self.DVx, self.DVy = EFIT2DCython.velocityVoigt(self.Txx, self.Txy, self.Tyy,
|
||||
self.Vx, self.Vy, self.DVx, self.DVy,
|
||||
self.BX, self.BY, self.ABS, self.ddx,
|
||||
self.dt)
|
||||
|
||||
if self.typeSource == 1 or self.typeSource == 2:
|
||||
self.Vx, self.Vy = EFIT2DCython.sourceVel(self.Vx, self.Vy, self.XL, self.YL, y, self.typeWave, self.win,
|
||||
self.dtdxx)
|
||||
|
||||
self.Txx, self.Tyy, self.Txy = EFIT2DCython.stressVoigt(self.Txx, self.Txy, self.Tyy,
|
||||
self.Vx, self.Vy, self.DVx, self.DVy,
|
||||
self.C11, self.C12, self.C44_Eff,
|
||||
self.Eta_vs, self.Eta_s, self.Eta_ss, self.ABS,
|
||||
self.dtx)
|
||||
|
||||
if self.typeSource == 0 or self.typeSource == 2:
|
||||
self.Txx, self.Tyy = EFIT2DCython.sourceStress(self.Txx, self.Tyy, self.XL, self.YL, y, self.typeWave,
|
||||
self.win, self.dtdxx)
|
||||
|
||||
self.receiversSerial(self.Txx)
|
||||
|
||||
def kernel(self):
|
||||
|
||||
macro = """
|
||||
#define MRI %s
|
||||
#define NRI %s
|
||||
#define ind(i, j) ( ( (i)*NRI) + (j) )
|
||||
#define dtx %gf
|
||||
#define dtdxx %gf
|
||||
#define Stencil 2
|
||||
#define NX %s
|
||||
#define dt %gf
|
||||
|
||||
|
||||
|
||||
""" % (str(self.MRI), str(self.NRI), self.dtx, self.dtdxx,
|
||||
str(self.NX), self.dt)
|
||||
|
||||
return macro + """
|
||||
|
||||
|
||||
__kernel void Receiver_EFIT2D(__global float *Buffer, __global float *receiver, const int t,
|
||||
__global const int *XXL, __global const int *YYL){
|
||||
|
||||
|
||||
__private float _tmp = 0.0f;
|
||||
|
||||
|
||||
for (int i=0; i<get_global_size(0); ++i)
|
||||
{
|
||||
_tmp += Buffer[ind(XXL[i],YYL[i])];
|
||||
}
|
||||
receiver[t] = _tmp/(float)get_global_size(0);
|
||||
}
|
||||
|
||||
|
||||
|
||||
__kernel void Source_Vel_EFIT2D(__global float *Vx, __global float *Vy,
|
||||
__global const int *XL, __global const int *YL,
|
||||
const float source, const int Stype, __global const float *win){
|
||||
|
||||
uint m = get_global_id(0);
|
||||
|
||||
int ix = XL[m];
|
||||
int iy = YL[m];
|
||||
if (Stype ==0){
|
||||
Vx[ind(ix,iy)] -= (source*dtdxx)*win[m];
|
||||
}
|
||||
else if (Stype ==1){
|
||||
Vy[ind(ix,iy)] -= (source*dtdxx)*win[m];
|
||||
}
|
||||
else if (Stype ==2){
|
||||
Vx[ind(ix,iy)] -= (source*dtdxx)*win[m];
|
||||
Vy[ind(ix,iy)] -= (source*dtdxx)*win[m];
|
||||
}
|
||||
|
||||
}
|
||||
|
||||
|
||||
|
||||
__kernel void Source_EFIT2D(__global float *Txx, __global float *Tyy, __global float *Txy,
|
||||
__global const int *XL, __global const int *YL,
|
||||
const float source, const int Stype,__global const float *win){
|
||||
|
||||
uint m = get_global_id(0);
|
||||
|
||||
int ix = XL[m];
|
||||
int iy = YL[m];
|
||||
if (Stype ==0){
|
||||
Txx[ind(ix,iy)] -= (source*dtdxx)*win[m];
|
||||
//Txy[ind(ix,iy)] = 0;
|
||||
}
|
||||
else if (Stype ==1){
|
||||
Tyy[ind(ix,iy)] -= (source*dtdxx)*win[m];
|
||||
//Txy[ind(ix,iy)] = 0;
|
||||
}
|
||||
else if (Stype ==2){
|
||||
Txx[ind(ix,iy)] -= (source*dtdxx)*win[m];
|
||||
Tyy[ind(ix,iy)] -= (source*dtdxx)*win[m];
|
||||
//Txy[ind(ix,iy)] = 0;
|
||||
}
|
||||
|
||||
}
|
||||
|
||||
|
||||
__kernel void Velocity_EFIT2D_Voigt( __global float *Txx, __global float *Txy, __global float *Tyy,
|
||||
__global float *vx, __global float *vy,
|
||||
__global float *dvx, __global float *dvy,
|
||||
__global const float *BX, __global const float *BY,
|
||||
__global const float *ABS, const float ddx){
|
||||
|
||||
int j = get_global_id(0);
|
||||
int i = get_global_id(1);
|
||||
|
||||
|
||||
if (i < MRI-1 && j>0){
|
||||
dvx[ind(i,j)] = (BX[ind(i,j)]*ddx)*( Txx[ind(i+1,j)] - Txx[ind(i,j)] + Txy[ind(i,j)] - Txy[ind(i,j-1)] );
|
||||
vx[ind(i,j)] += dt*dvx[ind(i,j)];
|
||||
}
|
||||
|
||||
if (i > 0 && j< NRI-1){
|
||||
dvy[ind(i,j)] = (BY[ind(i,j)]*ddx)*( Txy[ind(i,j)] - Txy[ind(i-1,j)] + Tyy[ind(i,j+1)] - Tyy[ind(i,j)] );
|
||||
vy[ind(i,j)] += dt*dvy[ind(i,j)];
|
||||
|
||||
}
|
||||
|
||||
barrier(CLK_GLOBAL_MEM_FENCE);
|
||||
// Apply absorbing boundary conditions
|
||||
vx[ind(i,j)] *= ABS[ind(i,j)];
|
||||
vy[ind(i,j)] *= ABS[ind(i,j)];
|
||||
|
||||
|
||||
}
|
||||
|
||||
|
||||
__kernel void Stress_EFIT2D_Voigt(__global float *Txx, __global float *Txy, __global float *Tyy,
|
||||
__global float *vx, __global float *vy,
|
||||
__global float *dvx, __global float *dvy,
|
||||
__global const float *C11, __global const float *C12, __global const float *C44,
|
||||
__global const float *ETA_VS, __global const float *ETA_S, __global const float *ETA_SS,
|
||||
__global const float *ABS) {
|
||||
|
||||
|
||||
int j = get_global_id(0);
|
||||
int i = get_global_id(1);
|
||||
|
||||
|
||||
if (i>0 && j>0 ){
|
||||
Txx[ind(i,j)] += ( ( C11[ind(i,j)]* dtx )*(vx[ind(i,j)] - vx[ind(i-1,j)]) +
|
||||
( C12[ind(i,j)]* dtx )*(vy[ind(i,j)] - vy[ind(i,j-1)]) +
|
||||
( (ETA_VS[ind(i,j)])*dtx) * (dvx[ind(i,j)] - dvx[ind(i-1,j)]) +
|
||||
( (ETA_S [ind(i,j)])*dtx) * (dvy[ind(i,j)] - dvy[ind(i,j-1)]) );
|
||||
|
||||
Tyy[ind(i,j)] += ( ( C12[ind(i,j)]* dtx )*(vx[ind(i,j)] - vx[ind(i-1,j)]) +
|
||||
( C11[ind(i,j)]* dtx )*(vy[ind(i,j)] - vy[ind(i,j-1)]) +
|
||||
( (ETA_VS[ind(i,j)])*dtx) *(dvy[ind(i,j)] - dvy[ind(i,j-1)]) +
|
||||
( (ETA_S [ind(i,j)])*dtx) * (dvx[ind(i,j)] - dvx[ind(i-1,j)]) );
|
||||
}
|
||||
|
||||
if (i<MRI-1 && j<NRI-1){
|
||||
Txy[ind(i,j)] += ( ( C44[ind(i,j)] * dtx )*(vx[ind(i,j+1)] - vx[ind(i,j)] + vy[ind(i+1,j)] - vy[ind(i,j)]) +
|
||||
( ETA_SS[ind(i,j)] * dtx )*(dvx[ind(i,j+1)] - dvx[ind(i,j)] + dvy[ind(i+1,j)] - dvy[ind(i,j)] ) );
|
||||
}
|
||||
|
||||
barrier(CLK_GLOBAL_MEM_FENCE);
|
||||
|
||||
Txx[ind(i,j)] *= ABS[ind(i,j)];
|
||||
Tyy[ind(i,j)] *= ABS[ind(i,j)];
|
||||
Txy[ind(i,j)] *= ABS[ind(i,j)];
|
||||
|
||||
|
||||
}
|
||||
|
||||
|
||||
|
||||
"""
|
||||
Loading…
Reference in New Issue
Block a user