def staggeredPatternType2(lIndX, lIndY, indZ):
'''return a list of grid ranges that delimit a set of staggered
patterned surfaces, i.e. in a floor of a buildin from the following parameters:
:parameter lIndX: list of X-index that point to the X-coordinates of the strips edges.
:parameter lIndY: list of Y-index that point to the Y-coordinates of the strips edges.
:parameter indZ: Z-index that points to the Z-coordinate of all the surfaces
The first vertex considered is (lIndX[0],lIndY[1],indZ)
'''
indSupPatt = []
for i in range(0, len(lIndX) - 1, 2):
for j in range(1, len(lIndY) - 1, 2):
inds = gm.IJKRange([lIndX[i], lIndY[j], indZ],
[lIndX[i + 1], lIndY[j + 1], indZ])
indSupPatt.append(inds)
for i in range(1, len(lIndX) - 1, 2):
for j in range(0, len(lIndY) - 1, 2):
inds = gm.IJKRange([lIndX[i], lIndY[j], indZ],
[lIndX[i + 1], lIndY[j + 1], indZ])
indSupPatt.append(inds)
return indSupPatt
def def_rg_cooLim(XYZLists,Xcoo,Ycoo,Zcoo):
'''Return an XYZ range given the three lists of coordinates of the grid
and the limit coordinates.
:param XYZList: (xList,yList,zList)
:param Xcoo: (xmin,xmax)
:param Ycoo: (ymin,ymax)
:param Zcoo: (zmin,zmax)
'''
xLst=XYZLists[0]
yLst=XYZLists[1]
zLst=XYZLists[2]
rg=gm.IJKRange((xLst.index(Xcoo[0]),yLst.index(Ycoo[0]),zLst.index(Zcoo[0])),(xLst.index(Xcoo[1]),yLst.index(Ycoo[1]),zLst.index(Zcoo[1])))
return rg
# z_scaled=zOrig+scale*(z_inic-zOrig)
#syntax: scaleCoorZPointsRange(ijkRange,zOrig,scale)
# ijkRange: range for the search.
# zOrig: origin Z to apply scale (point in axis Z=zOrig)
# are not affected by the transformation
# scale: scale to apply to Z coordinate
#Ranges for lines and surfaces
# extractIncludedIJranges(step): subranges index K=constant (default step=1)
# extractIncludedIKranges((step): subranges index J=constant (default step=1)
# extractIncludedJKranges((step): subranges index I=constant (default step=1)
# extractIncludedIranges(stepJ,stepK): subranges indexes J,K=constant (default
# stpes= 1)
# idem for J and K ranges
beamXconcr_rg = gm.IJKRange(
(0, 1, lastZpos),
(lastXpos, lastYpos, lastZpos)).extractIncludedIranges(stepJ=2, stepK=1)
beamY_rg = gm.IJKRange(
(0, 1, lastZpos),
(lastXpos, lastYpos, lastZpos)).extractIncludedJranges(stepI=2, stepK=1)
columnZconcr_rg = gm.IJKRange(
(0, 1, 0), (lastXpos, 1, lastZpos)).extractIncludedKranges(stepI=2)
columnZsteel_rg = gm.IJKRange(
(0, lastYpos, 0), (lastXpos, lastYpos, lastZpos)).extractIncludedJKranges(
step=2) + [gm.IJKRange((1, lastYpos, 0), (1, lastYpos, 1))]
decklv1_rg = gm.IJKRange(
(0, 1, 1), (lastXpos, lastYpos, lastZpos)).extractIncludedIJranges(step=2)
foot_rg = [
gut.def_rg_cooLim(XYZLists=(xList, yList, zList),
Xcoo=(0, LbeamX),
Ycoo=(-Wfoot / 2., Wfoot / 2.),
#Only Z coordinate of points is modified in the following way: # z_scaled=zOrig+scale*(z_inic-zOrig) #syntax: scaleCoorZPointsRange(ijkRange,zOrig,scale) # ijkRange: range for the search. # zOrig: origin Z to apply scale (point in axis Z=zOrig) # are not affected by the transformation # scale: scale to apply to Z coordinate #Ranges for lines and surfaces # extractIncludedIJranges(step): subranges index K=constant (default step=1) # extractIncludedIKranges((step): subranges index J=constant (default step=1) # extractIncludedJKranges((step): subranges index I=constant (default step=1) # extractIncludedIranges(stepJ,stepK): subranges indexes J,K=constant (default # stpes= 1) # idem for J and K ranges beamX_rg=gm.IJKRange((0,1,lastZpos),(lastXpos,lastYpos,lastZpos)).extractIncludedIranges(stepJ=1,stepK=1) beamY_rg=gm.IJKRange((0,1,lastZpos),(lastXpos,lastYpos,lastZpos)).extractIncludedJranges(stepI=2,stepK=1) columnZ_rg=gm.IJKRange((0,1,0),(lastXpos,lastYpos,lastZpos)).extractIncludedKranges(stepI=2,stepJ=2)+[gm.IJKRange((1,lastYpos,0),(1,lastYpos,1))] decklv1_rg=gm.IJKRange((0,1,1),(lastXpos,lastYpos,lastZpos)).extractIncludedIJranges(step=2) decklv2_rg=gm.IJKRange((0,lastYpos-1,lastZpos),(1,lastYpos,lastZpos)) wall_rg=gm.IJKRange((0,1,0),(lastXpos,1,1)) #foot_rg=[gm.IJKRange((0,0,0),(lastXpos,2,0))] foot_rg=[gut.def_rg_cooLim(XYZLists=(xList,yList,zList),Xcoo=(0,LbeamX),Ycoo=(-Wfoot/2.,Wfoot/2.),Zcoo=(0,0))] #Lines generation beamX=gridGeom.genLinMultiRegion(lstIJKRange=beamX_rg,nameSet='beamX') beamY=gridGeom.genLinMultiRegion(lstIJKRange=beamY_rg,nameSet='beamY') columnZ=gridGeom.genLinMultiRegion(lstIJKRange=columnZ_rg,nameSet='columnZ') #Surfaces generation decklv1=gridGeom.genSurfMultiRegion(lstIJKRange=decklv1_rg,nameSet='decklv1') decklv2=gridGeom.genSurfOneRegion(ijkRange=decklv2_rg,nameSet='decklv2') wall=gridGeom.genSurfOneRegion(ijkRange=wall_rg,nameSet='wall')
# *** GEOMETRY ***
# coordinates in global X,Y,Z axes for the generation of grid
xList = [i for i in range(11)]
yList = [i for i in range(21)]
zList = [i for i in range(6)]
#Points' generation
gridGeom = gm.GridModel(prep, xList, yList, zList)
gridGeom.generatePoints()
# Parameters
# Ranges to be used lately
floor1_rg = gm.IJKRange((2, 5, 2), (8, 15, 2))
# Surfaces' generation
floor1 = gridGeom.genSurfOneRegion(ijkRange=floor1_rg, setName='floor1')
# for s in floor1.getSurfaces:
# print(s.name, s.tag, s, s.getKPoints())
floor1.fillDownwards()
sz = floor1.getLines.size
# print('Lines in set floor1: ', sz)
# for l in floor1.getLines:
# print(l.name, l.tag, l.getKPoints(), l)
import os
from misc_utils import log_messages as lmsg
yList = [i * incr for i in range(ndiv + 1)] #angular coordinate
zList = [zBaseCyl, zBaseCyl + height] #level coordinate
#auxiliary data
lastXpos = len(xList) - 1
lastYpos = len(yList) - 1
lastZpos = len(zList) - 1
# grid model definition
gridGeom = gm.GridModel(prep, xList, yList, zList)
# Grid geometric entities definition (points, lines, surfaces)
# Points' generation
gridGeom.generateCylZPoints(xCent=0, yCent=0)
# ranges
tankwall_rg = [gm.IJKRange((0, 0, 0), (lastXpos, lastYpos, lastZpos))]
#Surfaces generation
tankwall = gridGeom.genSurfMultiRegion(lstIJKRange=tankwall_rg,
setName='tankwall')
'''
tankwall.description='Cylindrical wall'
tankwall.color=cfg.colors['purple02']
'''
# *** MATERIALS ***
steelProp = tm.MaterialData(name='steelProp',
E=steel.E,
nu=steel.nu,
rho=steel.rho)
# Isotropic elastic section-material appropiate for plate and shell analysis
# coordinates in global X,Y,Z axes for the generation of grid
xList = [i for i in range(11)]
yList = [i for i in range(21)]
zList = [i for i in range(6)]
#Points' generation
gridGeom = gm.GridModel(prep, xList, yList, zList)
gridGeom.generatePoints()
floor1 = gridGeom.genSurfOneXYZRegion(xyzRange=((2, 5, 2), (8, 15, 2)),
setName='floor1')
#out.displayBlocks()
floor2 = gridGeom.genSurfOneXYZRegion(xyzRange=((0, 0, 4), (10, 20, 4)),
setName='floor2')
#out.displayBlocks()
columns_rg = gm.IJKRange((2, 5, 0), (8, 15, 4)).extractIncludedKranges(stepI=2,
stepJ=3)
columns = gridGeom.genLinMultiRegion(lstIJKRange=columns_rg, setName='columns')
#out.displayBlocks()
# *** MATERIALS (constitutive models) ***
mat_slabs = tm.MaterialData(name='mat_slabs', E=2.55e15, nu=0.2, rho=2500)
mat_walls = tm.MaterialData(name='mat_walls', E=2.55e15, nu=0.2, rho=2500)
mat_cols = tm.MaterialData(name='mat_cols', E=2.55e15, nu=0.2, rho=2500)
# Isotropic elastic section-material appropiate for plate and shell analysis
deck_mat = tm.DeckMaterialData(name='deck_mat',
thickness=0.25,
material=mat_slabs)
deck_mat.setupElasticSection(preprocessor=prep) #creates de section-material
wall_mat = tm.DeckMaterialData(name='wall_mat',
thickness=0.15,
material=mat_walls)
# grid model definition gridGeom= gm.GridModel(prep,xList,yList,zList) # Grid geometric entities definition (points, lines, surfaces) # Points' generation gridGeom.generatePoints() #Ranges for lines and surfaces # extractIncludedIJranges(step): subranges index K=constant (default step=1) # extractIncludedIKranges((step): subranges index J=constant (default step=1) # extractIncludedJKranges((step): subranges index I=constant (default step=1) # extractIncludedIranges(stepJ,stepK): subranges indexes J,K=constant (default # stpes= 1) # idem for J and K ranges beamY_rg=gm.IJKRange((0,0,0),(0,lastYpos,0)) #Lines generation beamY=gridGeom.genLinOneRegion(ijkRange=beamY_rg,setName='beamY') # *** MATERIALS *** S235JR= EC3_materials.S235JR S235JR.gammaM= 1.00 # Steel material-section appropiate for 3D beam analysis, including shear # deformations. # Attributes: # steel: steel material ( # name: name of the standard steel profile. Types: IPEShape, HEShape, # UPNShape, AUShape, CHSShape # (defined in materials.sections.structural_shapes.arcelor_metric_shapes)
0, 0.2 * totalHeightCrochy, 0.8 * totalHeightCrochy, totalHeightCrochy
]
#auxiliary data
lastXpos = len(xList) - 1
lastYpos = len(yList) - 1
lastZpos = len(zList) - 1
# grid model definition
gridGeom = gm.GridModel(prep, xList, yList, zList)
# Grid geometric entities definition (points, lines, surfaces)
# Points' generation
gridGeom.generatePoints()
#Displacements of the grid points in a range
for i in range(1, len(xList)):
r = gm.IJKRange((i, 0, lastZpos), (i, lastYpos, lastZpos))
gridGeom.movePointsRange(r, xc.Vector([0.0, 0.0, -trSlope * xList[i]]))
for j in range(1, len(yList)):
r = gm.IJKRange((0, j, 0), (lastXpos, j, 0))
gridGeom.movePointsRange(r, xc.Vector([0.0, 0.0, lnSlope * yList[j]]))
#Ranges for lines and surfaces
foundExtSlab_rg = [
gm.IJKRange([0, 0, 0], [1, lastYpos, 0]),
gm.IJKRange([2, 0, 0], [lastXpos, lastYpos, 0])
]
foundIntSlab_rg = [gm.IJKRange([1, 0, 0], [2, lastYpos, 0])]
leftWall_rg = [gm.IJKRange([0, 0, 0], [0, lastYpos, lastZpos])]
rightWall_rg = [gm.IJKRange([lastXpos, 0, 0], [lastXpos, lastYpos, lastZpos])]
deckExtSlab_rg = [
gridGeom.movePointsRange(r,xc.Vector([0.0,0.0,lnSlope*yList[j]])) #Slope (in X direction, Y direction or both) the grid points in a range #syntax: slopePointsRange(ijkRange,slopeX,xZeroSlope,slopeY,yZeroSlope) # ijkRange: range for the search. # slopeX: slope in X direction, expressed as deltaZ/deltaX # (defaults to 0 = no slope applied) # xZeroSlope: coordinate X of the "rotation axis". # slopeY: slope in Y direction, expressed as deltaZ/deltaY) # (defaults to 0 = no slope applied) # yZeroSlope: coordinate Y of the "rotation axis". ''' #Ranges for lines and surfaces losCimExt_rg= [ gm.IJKRange((0,0,0),(lastXpos,pyhast1+1,0)), gm.IJKRange((0,pyhast2-1,0),(lastXpos,lastYpos,0)) ] losCimCent_rg= [ gm.IJKRange((0,pyhast1+1,0),(lastXpos,pyhast2-1,0))] hastIzqInf_rg= [ gm.IJKRange((0,pyhast1,0),(lastXpos,pyhast1,1))] hastIzqCent_rg= [ gm.IJKRange((0,pyhast1,1),(lastXpos,pyhast1,2))] hastIzqSup_rg= [ gm.IJKRange((0,pyhast1,2),(lastXpos,pyhast1,lastZpos))] hastDerInf_rg= [ gm.IJKRange((0,pyhast2,0),(lastXpos,pyhast2,1))] hastDerCent_rg= [ gm.IJKRange((0,pyhast2,1),(lastXpos,pyhast2,2))] hastDerSup_rg= [ gm.IJKRange((0,pyhast2,2),(lastXpos,pyhast2,lastZpos))] dintExt_rg= [ gm.IJKRange((0,pyhast1,lastZpos),(lastXpos,pyhast1+1,lastZpos)), gm.IJKRange((0,pyhast2-1,lastZpos),(lastXpos,pyhast2,lastZpos)) ] dintCent_rg= [ gm.IJKRange((0,pyhast1+1,lastZpos),(lastXpos,pyhast2-1,lastZpos))] murete_i_rg=[gm.IJKRange((0,pyhast1,lastZpos),(0,pyhast2,lastZpos))] murete_d_rg=[gm.IJKRange((lastXpos,pyhast1,lastZpos),(lastXpos,pyhast2,lastZpos))] #Surfaces generation
# for i in range(1,len(xList)):
# r= gm.IJKRange((i,0,lastZpos),(i,lastYpos,lastZpos))
# gridGeom.movePointsRange(r,xc.Vector([0.0,0.0,-trSlope*xList[i]]))
#Scale in X with origin xOrig (fixed axis: X=xOrig) to the points in a range
#Only X coordinate of points is modified in the following way:
# x_scaled=xOrig+scale*(x_inic-xOrig)
#syntax: scaleCoorXPointsRange(ijkRange,xOrig,scale)
# ijkRange: range for the search.
# xOrig: origin X to apply scale (point in axis X=xOrig)
# are not affected by the transformation
# scale: scale to apply to X coordinate
scaleX = (xArranqVoladz - xAlmasAlig[1] - ladoCartab) / (xArranqVoladz -
xAlmasAlig[1])
gridTabl.scaleCoorXPointsRange(ijkRange=gm.IJKRange(
(xListTabl.index(-xArranqVoladz), 0, zListTabl.index(zLosInf)),
(xListTabl.index(-xAlmasAlig[1]), len(yListTabl) - 1,
zListTabl.index(zLosInf))),
xOrig=-xAlmasAlig[1],
scale=scaleX)
gridTabl.scaleCoorXPointsRange(ijkRange=gm.IJKRange(
(xListTabl.index(xAlmasAlig[1]), 0, zListTabl.index(zLosInf)),
(xListTabl.index(xArranqVoladz), len(yListTabl) - 1,
zListTabl.index(zLosInf))),
xOrig=xAlmasAlig[1],
scale=scaleX)
scaleX = (xArranqVoladz - xAlmasAlig[1] -
2 * ladoCartab / 3.) / (xArranqVoladz - xAlmasAlig[1])
gridTabl.scaleCoorXPointsRange(ijkRange=gm.IJKRange(
(xListTabl.index(-xArranqVoladz), 0, zListTabl.index(zinterm1)),
(xListTabl.index(-xAlmasAlig[1]), len(yListTabl) - 1,
# coordinates in global X,Y,Z axes for the grid generation
xList = [0]
yList = [0, 1, 3, 6, 7]
zList = [0]
lastYpos = len(yList) - 1
eSize = 0.2 #length of elements
# grid model definition
gridGeom = gm.GridModel(prep, xList, yList, zList)
# Grid geometric entities definition (points, lines, surfaces)
# Points' generation
gridGeom.generatePoints()
gridGeom.movePointsRange(gm.IJKRange((0, 1, 0), (0, 1, 0)),
xc.Vector([0.0, 0, 1.0]))
gridGeom.movePointsRange(gm.IJKRange((0, 2, 0), (0, 3, 0)),
xc.Vector([0.0, 0, 1.5]))
beamY_rg = gm.IJKRange((0, 0, 0), (0, lastYpos, 0))
beamY = gridGeom.genLinOneRegion(ijkRange=beamY_rg, setName='beamY')
# *** MATERIALS ***
S235JR = EC3_materials.S235JR
S235JR.gammaM = 1.00
# Steel material-section appropiate for 3D beam analysis, including shear
# deformations.
# Attributes:
# steel: steel material (
# name: name of the standard steel profile. Types: IPEShape, HEShape,
# grid model definition
gridGeom = gm.GridModel(prep, xList, yList, zList)
#Displacements of the grid points in a range
# for i in range(1,len(xList)):
# r= ijkGrid.IJKRange([i,0,lastZpos],[i,lastYpos,lastZpos])
# mr= ijkGrid.moveRange(r,[0.0,0.0,trSlope*xList[i]])
# rejXYZ.rangesToMove.append(mr)
# Grid geometric entities definition (points, lines, surfaces)
# Points' generation
gridGeom.generatePoints()
#Displacements of the grid points in a range
for i in range(1, len(xList)):
r = gm.IJKRange((i, 0, lastZpos), (i, lastYpos, lastZpos))
gridGeom.movePointsRange(r, xc.Vector([0.0, 0.0, trSlope * xList[i]]))
#Ranges for lines and surfaces
foundExtSlab_rg = [
gm.IJKRange([0, 0, 0], [1, lastYpos, 0]),
gm.IJKRange([2, 0, 0], [lastXpos, lastYpos, 0])
]
foundIntSlab_rg = [gm.IJKRange([1, 0, 0], [2, lastYpos, 0])]
leftWall_rg = [gm.IJKRange([0, 0, 0], [0, lastYpos, lastZpos])]
rightWall_rg = [gm.IJKRange([lastXpos, 0, 0], [lastXpos, lastYpos, lastZpos])]
deckExtSlab_rg = [
gm.IJKRange([0, 0, lastZpos], [1, lastYpos, lastZpos]),
gm.IJKRange([2, 0, lastZpos], [lastXpos, lastYpos, lastZpos])
]
deckIntSlab_rg = [gm.IJKRange([1, 0, lastZpos], [2, lastYpos, lastZpos])]
gridGeom= gm.GridModel(prep,xList,yList,zList) # Grid geometric entities definition (points, lines, surfaces) # Points' generation gridGeom.generatePoints() #Slope (in X direction, Y direction or both) the grid points in a range #syntax: slopePointsRange(ijkRange,slopeX,xZeroSlope,slopeY,yZeroSlope) # ijkRange: range for the search. # slopeX: slope in X direction, expressed as deltaZ/deltaX # (defaults to 0 = no slope applied) # xZeroSlope: coordinate X of the "rotation axis". # slopeY: slope in Y direction, expressed as deltaZ/deltaY) # (defaults to 0 = no slope applied) # yZeroSlope: coordinate Y of the "rotation axis". r=gm.IJKRange((0,0,lastZpos),(lastXpos,0,lastZpos)) gridGeom.slopePointsRange(ijkRange=r,slopeX=deltaH/Lx,xZeroSlope=0) r=gm.IJKRange((0,lastYpos,lastZpos),(lastXpos,lastYpos,lastZpos)) gridGeom.slopePointsRange(ijkRange=r,slopeX=-deltaH/Lx,xZeroSlope=Lx) # ranges roof_rg=[gm.IJKRange((0,0,lastZpos),(lastXpos,lastYpos,lastZpos))] #Surfaces generation roof=gridGeom.genSurfMultiRegion(lstIJKRange=roof_rg,setName='roof') roof.description='Roof' roof.color=cfg.colors['purple01'] # *** MATERIALS *** concrProp=tm.MaterialData(name='concrProp',E=concrete.Ecm(),nu=concrete.nuc,rho=concrete.density())
# Grid geometric entities definition (points, lines, surfaces)
# Points' generation
gridGeom.generatePoints()
#Slope (in X direction, Y direction or both) the grid points in a range
#syntax: slopePointsRange(ijkRange,slopeX,xZeroSlope,slopeY,yZeroSlope)
# ijkRange: range for the search.
# slopeX: slope in X direction, expressed as deltaZ/deltaX
# (defaults to 0 = no slope applied)
# xZeroSlope: coordinate X of the "rotation axis".
# slopeY: slope in Y direction, expressed as deltaZ/deltaY)
# (defaults to 0 = no slope applied)
# yZeroSlope: coordinate Y of the "rotation axis".
r = gm.IJKRange((0, 0, 0), (lastXpos, 4, lastZpos))
deltZ = 1.5 / 2.0 - 0.6 / 2.0
deltY = yList[0] - yList[4]
gridGeom.slopePointsRange(ijkRange=r,
slopeY=deltZ / deltY,
yZeroSlope=yList[4])
r = gm.IJKRange((0, 15, 0), (lastXpos, lastYpos, lastZpos))
deltZ = 1.5 / 2.0 - 0.6 / 2.0
deltY = yList[lastYpos] - yList[15]
gridGeom.slopePointsRange(ijkRange=r,
slopeY=deltZ / deltY,
yZeroSlope=yList[15])
#Ranges for lines and surfaces
slab_unif_rg = gm.IJKRange((0, 0, lastZpos), (lastXpos, lastYpos, lastZpos))
gA_nbPoints=gridA.pointCounter ratio0=gA_nbPoints-len(xListA)*len(yList)*len(zList) # print(ratio0) # grid B is = grid A moved 10 units in X direction xListB=[i+10 for i in range(6)] gridB=gm.GridModel(prep,xListB,yList,zList) gridB.generatePoints() gB_nbPoints=gridB.pointCounter ratio1=gB_nbPoints-len(xListB)*len(yList)*len(zList) # print(ratio1) # Ranges to be used lately planesXY_2_3level=gm.IJKRange((0,0,2),(lastXpos,lastYpos,3)).extractIncludedIJranges() planesYZ_1_4level=gm.IJKRange((0,0,0),(lastXpos,lastYpos,4)).extractIncludedJKranges(step=3) planesXZ_0_floor=gm.IJKRange((0,0,0),(lastXpos,lastYpos,1)).extractIncludedIKranges(step=1) planesYZ_3_floor=gm.IJKRange((0,0,3),(lastXpos,lastYpos,4)).extractIncludedJKranges(step=3) beams_3_4_floor=gm.IJKRange((0,0,3),(lastXpos,lastYpos,4)).extractIncludedIranges(stepJ=2,stepK=1) beams_2_3_floor=gm.IJKRange((0,0,2),(lastXpos,lastYpos,3)).extractIncludedJranges(stepI=2,stepK=1) colums_1_4_floor=gm.IJKRange((0,0,0),(lastXpos,lastYpos,lastZpos)).extractIncludedKranges(stepI=2,stepJ=3) #Surfaces and lines' generation gridA set01=gridA.genSurfMultiRegion(lstIJKRange=planesXY_2_3level,setName='set01') set_planesXY_2_3level=gridA.getSetSurfMultiRegion(lstIJKRange=planesXY_2_3level,setName='set_planesXY_2_3level') nsurf01=(set_planesXY_2_3level.getSurfaces.size+set01.getSurfaces.size)/2 ratio2=nsurf01-(len(xListA)-1)*(len(yList)-1)*2 # print(ratio2) set02=gridA.genSurfMultiRegion(lstIJKRange=planesYZ_1_4level,setName='set02')
# *** GEOMETRY ***
# coordinates in global X,Y,Z axes for the generation of grid
xList = [i for i in range(11)]
yList = [i for i in range(21)]
zList = [i for i in range(6)]
#Points' generation
gridGeom = gm.GridModel(prep, xList, yList, zList)
gridGeom.generatePoints()
# Parameters
# Ranges to be used lately
floor1_rg = gm.IJKRange((2, 5, 2), (8, 15, 2))
floor2_rg = [gm.IJKRange((0, 0, 4), (10, 20, 4))]
wall_rg = gm.IJKRange((2, 10, 2), (8, 10, 5))
columns_rg = gm.IJKRange((2, 5, 0),
(8, 15, 4)).extractIncludedKranges(stepI=6, stepJ=10)
#Surfaces' generation
floor1 = gridGeom.genSurfOneRegion(ijkRange=floor1_rg, nameSet='floor1')
floor1.description = 'Floor 1'
floor2 = gridGeom.genSurfMultiRegion(lstIJKRange=floor2_rg, nameSet='floor2')
floor2.description = 'Floor 2'
wall = gridGeom.genSurfOneRegion(ijkRange=wall_rg, nameSet='wall')
wall.description = 'Wall'
#Lines' generation
columns = gridGeom.genLinMultiRegion(lstIJKRange=columns_rg, nameSet='columns')
lastXpos = len(xList) - 1
lastYpos = len(yList) - 1
lastZpos = len(zList) - 1
# grid model definition
gridGeom = gm.GridModel(prep, xList, yList, zList)
# grid model definition
gridGeom = gm.GridModel(prep, xList, yList, zList)
# Points' generation
gridGeom.generatePoints()
#Displacements of the grid points in a range
for i in range(1, len(xList)):
r = gm.IJKRange((i, 0, 0), (i, lastYpos, lastZpos))
gridGeom.movePointsRange(
r, xc.Vector([0.0, xList[i] / math.tan(fleetAngle), 0.0]))
#Ranges for lines and surfaces
foundExtSlab_rg = [
gm.IJKRange([0, 0, 0], [1, lastYpos, 0]),
gm.IJKRange([2, 0, 0], [lastXpos, lastYpos, 0])
]
foundIntSlab_rg = [gm.IJKRange([1, 0, 0], [2, lastYpos, 0])]
leftDownWall_rg = [gm.IJKRange([0, 0, 0], [0, lastYpos, 3])]
leftUpWall_rg = [gm.IJKRange([0, 5, 3], [0, lastYpos, lastZpos])]
rightDownWall_rg = [gm.IJKRange([lastXpos, 0, 0], [lastXpos, lastYpos, 3])]
rightUpWall_rg = [
gm.IJKRange([lastXpos, 5, 3], [lastXpos, lastYpos, lastZpos])
]
# vDisp: xc vector displacement
# for i in range(1,len(xList)):
# r= gm.IJKRange((i,0,lastZpos),(i,lastYpos,lastZpos))
# gridGeom.movePointsRange(r,xc.Vector([0.0,0.0,-trSlope*xList[i]]))
#Scale in X with origin xOrig (fixed axis: X=xOrig) to the points in a range
#Only X coordinate of points is modified in the following way:
# x_scaled=xOrig+scale*(x_inic-xOrig)
#syntax: scaleCoorXPointsRange(ijkRange,xOrig,scale)
# ijkRange: range for the search.
# xOrig: origin X to apply scale (point in axis X=xOrig)
# are not affected by the transformation
# scale: scale to apply to X coordinate
scaleX = (xArranqVoladz - xAlig2 - ladoCartab) / (xArranqVoladz - xAlig2)
gridGeom.scaleCoorXPointsRange(ijkRange=gm.IJKRange(
(xList.index(-xArranqVoladz), 0, zList.index(zLosInf)),
(xList.index(-xAlig2), lastYpos, zList.index(zLosInf))),
xOrig=-xAlig2,
scale=scaleX)
gridGeom.scaleCoorXPointsRange(ijkRange=gm.IJKRange(
(xList.index(xAlig2), 0, zList.index(zLosInf)),
(xList.index(xArranqVoladz), lastYpos, zList.index(zLosInf))),
xOrig=xAlig2,
scale=scaleX)
scaleX = (xArranqVoladz - xAlig2 - 2 * ladoCartab / 3.) / (xArranqVoladz -
xAlig2)
gridGeom.scaleCoorXPointsRange(ijkRange=gm.IJKRange(
(xList.index(-xArranqVoladz), 0, zList.index(zinterm1)),
(xList.index(-xAlig2), lastYpos, zList.index(zinterm1))),
xOrig=-xAlig2,
gridGeom.movePointsRange(r,xc.Vector([0.0,0.0,lnSlope*yList[j]])) #Slope (in X direction, Y direction or both) the grid points in a range #syntax: slopePointsRange(ijkRange,slopeX,xZeroSlope,slopeY,yZeroSlope) # ijkRange: range for the search. # slopeX: slope in X direction, expressed as deltaZ/deltaX # (defaults to 0 = no slope applied) # xZeroSlope: coordinate X of the "rotation axis". # slopeY: slope in Y direction, expressed as deltaZ/deltaY) # (defaults to 0 = no slope applied) # yZeroSlope: coordinate Y of the "rotation axis". ''' #Ranges for lines and surfaces losCimExt_M1_rg= [ gm.IJKRange((0,0,0),(pxmn_M2-1,pyhast1+1,0)), gm.IJKRange((0,pyhast2-1,0),(pxmn_M2-1,lastYpos,0)) ] losCimExt_M2_rg= [ gm.IJKRange((pxmn_M2,0,0),(pxmx_M2,pyhast1+1,0)), gm.IJKRange((pxmn_M2,pyhast2-1,0),(pxmx_M2,lastYpos,0)) ] losCimExt_M3_rg= [ gm.IJKRange((pxmx_M2+1,0,0),(lastXpos,pyhast1+1,0)), gm.IJKRange((pxmx_M2+1,pyhast2-1,0),(lastXpos,lastYpos,0)) ] losCimCent_M1_rg= [ gm.IJKRange((0,pyhast1+1,0),(pxmn_M2-1,pyhast2-1,0))] losCimCent_M2_rg= [ gm.IJKRange((pxmn_M2,pyhast1+1,0),(pxmx_M2,pyhast2-1,0))] losCimCent_M3_rg= [ gm.IJKRange((pxmx_M2+1,pyhast1+1,0),(lastXpos,pyhast2-1,0))] hastIzq_M1_rg= [ gm.IJKRange((0,pyhast1,0),(pxmn_M2-1,pyhast1,lastZpos))] hastIzq_M2_rg= [ gm.IJKRange((pxmn_M2,pyhast1,0),(pxmx_M2,pyhast1,lastZpos))] hastIzq_M3_rg= [ gm.IJKRange((pxmx_M2+1,pyhast1,0),(lastXpos,pyhast1,lastZpos))] hastDer_M1_rg= [ gm.IJKRange((0,pyhast2,0),(pxmn_M2-1,pyhast2,lastZpos))] hastDer_M2_rg= [ gm.IJKRange((pxmn_M2,pyhast2,0),(pxmx_M2,pyhast2,lastZpos))] hastDer_M3_rg= [ gm.IJKRange((pxmx_M2+1,pyhast2,0),(lastXpos,pyhast2,lastZpos))]
zList_deck = [0, 0.4]
#auxiliary data
lastXpos = len(xList_deck) - 1
lastYpos = len(yList_deck) - 1
lastZpos = len(zList_deck) - 1
# grid model definition
gridDeck = gm.GridModel(prep, xList_deck, yList_deck, zList_deck)
# Grid geometric entities definition (points, lines, surfaces)
# Points' generation
gridDeck.generatePoints()
#Displacements of the grid points in a range
# deltZ_max=L_long_side_Y*math.tan(alpha)
r = gm.IJKRange((0, 0, 0), (1, 0, lastZpos))
gridDeck.movePointsRange(r,
xc.Vector([0.0, delta_Y, delta_Y * math.tan(alpha)]))
r = gm.IJKRange((0, lastYpos, 0), (1, lastYpos, lastZpos))
gridDeck.movePointsRange(
r, xc.Vector([0.0, -delta_Y, (L_long_side_Y - delta_Y) * math.tan(alpha)]))
for i in range(1, lastYpos):
deltZ = yList_deck[i] * math.tan(alpha)
r = gm.IJKRange((0, i, 0), (lastXpos, i, lastZpos))
gridDeck.movePointsRange(r, xc.Vector([0.0, 0, deltZ]))
r = gm.IJKRange((2, lastYpos, 0), (lastXpos, lastYpos, lastZpos))
gridDeck.movePointsRange(
r, xc.Vector([0.0, 0, yList_deck[lastYpos] * math.tan(alpha)]))
r = gm.IJKRange((lastXpos, 0, 0), (lastXpos, lastYpos, lastZpos))
yCentCoo=yCent,
semiYellipList=semiAxisYList)
grid.generateEllipZPoints()
pCent = geom.Pos3d(xCent, yCent, 0)
pnt0 = grid.getPntXYZ((semi_x0, 0, 0))
ratio0 = pnt0.getPos.dist(pCent) - semi_x0
pnt90 = grid.getPntXYZ((semi_x0, 90, 0))
ratio1 = pnt90.getPos.dist(pCent) - semi_y0
pnt180 = grid.getPntXYZ((semi_x0, 180, 0))
ratio2 = pnt180.getPos.dist(pCent) - semi_x0
pnt270 = grid.getPntXYZ((semi_x0, 270, 0))
ratio3 = pnt270.getPos.dist(pCent) - semi_y0
grid.movePointsEllipse(ijkRange=gm.IJKRange((0, 0, 0),
(0, len(angList) - 1, 0)),
semiAxX=semi_x1,
semiAXY=semi_y1)
pnt0 = grid.getPntXYZ((semi_x0, 0, 0))
ratio4 = pnt0.getPos.dist(pCent) - semi_x1
pnt90 = grid.getPntXYZ((semi_x0, 90, 0))
ratio5 = pnt90.getPos.dist(pCent) - semi_y1
pnt180 = grid.getPntXYZ((semi_x0, 180, 0))
ratio6 = pnt180.getPos.dist(pCent) - semi_x1
pnt270 = grid.getPntXYZ((semi_x0, 270, 0))
ratio7 = pnt270.getPos.dist(pCent) - semi_y1
ratio8 = 0
for ang in angList:
p = grid.getPntXYZ((semi_x0, ang, 0)).getPos
ratio8 += (p.x - xCent)**2 / semi_x1**2 + (p.y - yCent)**2 / semi_y1**2 - 1
lastZpos = len(zList) - 1
# grid model definition
gridGeom = gm.GridModel(prep, xList, yList, zList)
# Grid geometric entities definition (points, lines, surfaces)
# Points' generation
gridGeom.generatePoints()
#Displacements of the grid points in a range to make them belong to
#a vertical axis cylinder
#syntax: movePointsRangeToZcylinder(ijkRange,xCent,yCent,R)
# ijkRange: range for the search
# R: cylinder radius
# xCent,yCent: coordinates of the cylinder axis
r = gm.IJKRange((1, 0, 0), (lastXpos - 1, 0, 2))
gridGeom.movePointsRangeToZcylinder(ijkRange=r,
xCent=4,
yCent=4 * math.cos(math.asin(2 / 4.)),
R=4)
#Displacements of the grid points in a range to make them belong to
#a cylinder with axis parallel to X
#syntax: movePointsRangeToXcylinder(ijkRange,yCent,zCent,R)
# ijkRange: range for the search
# R: cylinder radius
# yCent,zCent: coordinates of the cylinder axis
r = gm.IJKRange((0, 1, lastZpos), (lastXpos, lastYpos - 1, lastZpos))
gridGeom.movePointsRangeToXcylinder(ijkRange=r,
yCent=3,
zCent=zList[lastZpos] - 1,
zList = [0, baseSlabTh / 2 + GV + deckTh / 2]
#auxiliary data
lastXpos = len(xList) - 1
lastYpos = len(yList) - 1
lastZpos = len(zList) - 1
# grid model definition
gridGeom = gm.GridModel(prep, xList, yList, zList)
# Grid geometric entities definition (points, lines, surfaces)
# Points' generation
gridGeom.generatePoints()
#Ranges for lines and surfaces
losCim_rg = [gm.IJKRange((0, 0, 0), (lastXpos, lastYpos, 0))]
hastiales_rg = [
gm.IJKRange((0, 0, 0), (lastXpos, 0, lastZpos)),
gm.IJKRange((0, lastYpos, 0), (lastXpos, lastYpos, lastZpos))
]
dintel_rg = [gm.IJKRange((0, 0, lastZpos), (lastXpos, lastYpos, lastZpos))]
murete_i_rg = [gm.IJKRange((0, 0, lastZpos), (0, lastYpos, lastZpos))]
murete_d_rg = [
gm.IJKRange((lastXpos, 0, lastZpos), (lastXpos, lastYpos, lastZpos))
]
#Surfaces generation
losCim = gridGeom.genSurfMultiRegion(lstIJKRange=losCim_rg, setName='losCim')
hastiales = gridGeom.genSurfMultiRegion(lstIJKRange=hastiales_rg,
setName='hastiales')
dintel = gridGeom.genSurfMultiRegion(lstIJKRange=dintel_rg, setName='dintel')
# Problem type modelSpace= predefined_spaces.StructuralMechanics3D(nodes) #Defines the # dimension of the space: nodes by three coordinates (x,y,z) and # six DOF for each node (Ux,Uy,Uz,thetaX,thetaY,thetaZ) # coordinates in global X,Y,Z axes for the grid generation xList=[0] yList=[0] zList=[-Lpile,0] # grid model definition gridGeom= gm.GridModel(prep,xList,yList,zList) # Grid geometric entities definition (points, lines, surfaces) # Points' generation gridGeom.generatePoints() #Lines generation pile_rg=gm.IJKRange((0,0,0),(0,0,1)) pile=gridGeom.genLinOneRegion(ijkRange=pile_rg,setName='pile') # *** MATERIALS *** concrProp=tm.MaterialData(name='concrProp',E=concrete.Ecm(),nu=concrete.nuc,rho=concrete.density()) #Geometric sections #rectangular sections from materials.sections import section_properties as sectpr geomSectPile=sectpr.RectangularSection(name='geomSectPile',b=LeqPile,h=LeqPile) # Elastic material-section pile_mat=tm.BeamMaterialData(name='pile_mat', section=geomSectPile, material=concrProp) pile_mat.setupElasticShear3DSection(preprocessor=prep) # ***FE model - MESH*** pile_mesh=fem.LinSetToMesh(linSet=pile,matSect=pile_mat,elemSize=eSize,vDirLAxZ=xc.Vector([0,1,0]),elemType='ElasticBeam3d',dimElemSpace=3,coordTransfType='linear') fem.multi_mesh(preprocessor=prep,lstMeshSets=[pile_mesh])
# Grid geometric entities definition (points, lines, surfaces)
# Points' generation
gridGeom.generatePoints()
#Slope (in X direction, Y direction or both) the grid points in a range
#syntax: slopePointsRange(ijkRange,slopeX,xZeroSlope,slopeY,yZeroSlope)
# ijkRange: range for the search.
# slopeX: slope in X direction, expressed as deltaZ/deltaX
# (defaults to 0 = no slope applied)
# xZeroSlope: coordinate X of the "rotation axis".
# slopeY: slope in Y direction, expressed as deltaZ/deltaY)
# (defaults to 0 = no slope applied)
# yZeroSlope: coordinate Y of the "rotation axis".
r = gm.IJKRange((0, 0, 0), (lastXpos, 4, lastZpos))
deltZ = 1.5 / 2.0 - 0.6 / 2.0
deltY = yList[0] - yList[4]
gridGeom.slopePointsRange(ijkRange=r,
slopeY=deltZ / deltY,
yZeroSlope=yList[4])
r = gm.IJKRange((0, 15, 0), (lastXpos, lastYpos, lastZpos))
deltZ = 1.5 / 2.0 - 0.6 / 2.0
deltY = yList[lastYpos] - yList[15]
gridGeom.slopePointsRange(ijkRange=r,
slopeY=deltZ / deltY,
yZeroSlope=yList[15])
#Ranges for lines and surfaces
slab_unif_rg = gm.IJKRange((0, 0, lastZpos), (lastXpos, lastYpos, lastZpos))
# coordinates in global X,Y,Z axes for the grid generation xList=[0] yList=[0,1,3,6,7] zList=[0] lastYpos=len(yList)-1 eSize= 0.2 #length of elements # grid model definition gridGeom= gm.GridModel(prep,xList,yList,zList) # Grid geometric entities definition (points, lines, surfaces) # Points' generation gridGeom.generatePoints() gridGeom.movePointsRange(gm.IJKRange((0,1,0),(0,1,0)),xc.Vector([0.0,0,1.0])) gridGeom.movePointsRange(gm.IJKRange((0,2,0),(0,3,0)),xc.Vector([0.0,0,1.5])) beamY_rg=gm.IJKRange((0,0,0),(0,lastYpos,0)) beamY=gridGeom.genLinOneRegion(ijkRange=beamY_rg,setName='beamY') # *** MATERIALS *** S235JR= EC3_materials.S235JR S235JR.gammaM= 1.00 # Steel material-section appropiate for 3D beam analysis, including shear # deformations. # Attributes: # steel: steel material ( # name: name of the standard steel profile. Types: IPEShape, HEShape, # UPNShape, AUShape, CHSShape
zList_deck = [0, 0.4]
#auxiliary data
lastXpos = len(xList_deck) - 1
lastYpos = len(yList_deck) - 1
lastZpos = len(zList_deck) - 1
# grid model definition
gridDeck = gm.GridModel(prep, xList_deck, yList_deck, zList_deck)
# Grid geometric entities definition (points, lines, surfaces)
# Points' generation
gridDeck.generatePoints()
#Displacements of the grid points in a range
# deltZ_max=L_long_side_Y*math.tan(alpha)
r = gm.IJKRange((0, 0, 0), (1, 0, lastZpos))
gridDeck.movePointsRange(r,
xc.Vector([0.0, delta_Y, delta_Y * math.tan(alpha)]))
r = gm.IJKRange((0, lastYpos, 0), (1, lastYpos, lastZpos))
gridDeck.movePointsRange(
r, xc.Vector([0.0, -delta_Y, (L_long_side_Y - delta_Y) * math.tan(alpha)]))
r = gm.IJKRange((0, 1, 0), (lastXpos, 1, lastZpos))
gridDeck.movePointsRange(r,
xc.Vector([0.0, 0, yList_deck[1] * math.tan(alpha)]))
r = gm.IJKRange((0, 2, 0), (lastXpos, 2, lastZpos))
gridDeck.movePointsRange(r,
xc.Vector([0.0, 0, yList_deck[2] * math.tan(alpha)]))
r = gm.IJKRange((2, lastYpos, 0), (lastXpos, lastYpos, lastZpos))
gridDeck.movePointsRange(
