def intersect(self):
if not self.found_intersection:
self._geo_int = None
return None
geo_out = cad_geometry()
list_t = asarray(self.list_t); list_t.sort()
list_s = asarray(self.list_s); list_s.sort()
axis = 0
geo = cad_geometry()
geo.append(self.wall)
for i,t in enumerate(list_t):
geo.split(i,t,axis)
for i_nrb in range(0, geo.npatchs):
geo_out.append(geo[i_nrb])
geo = cad_geometry()
geo.append(self.flux)
for i,s in enumerate(list_s):
geo.split(i,s,axis)
for i_nrb in range(0, geo.npatchs):
geo_out.append(geo[i_nrb])
self._geo_int = geo_out
return geo_out
def open(self, filename):
from caid.cad_geometry import cad_geometry
from caid.io import XML
io = XML()
from xml.dom.minidom import parse
doc = parse(filename)
rootElt = doc.documentElement
# read attributs
# get camera attributs
# eye = strtoArray(rootElt.getAttribute("eye"))
# self.viewer.lookAt.SetEye(eye)
# geometry
geoElt = rootElt.getElementsByTagName("geometry")[0]
geo = cad_geometry()
io.xmltogeo(geo, doc, geoElt)
# ... values
valuesElt = rootElt.getElementsByTagName("values")[0]
values = cad_geometry()
io.xmltogeo(values, doc, valuesElt)
self.set_geometry(geo)
self.set_values(values)
def open(self, filename):
from caid.cad_geometry import cad_geometry
from caid.io import XML
io = XML()
from xml.dom.minidom import parse
doc = parse(filename)
rootElt = doc.documentElement
# read attributs
# get camera attributs
# eye = strtoArray(rootElt.getAttribute("eye"))
# self.viewer.lookAt.SetEye(eye)
# geometry
geoElt = rootElt.getElementsByTagName("geometry")[0]
geo = cad_geometry()
io.xmltogeo(geo, doc, geoElt)
# ... values
valuesElt = rootElt.getElementsByTagName("values")[0]
values = cad_geometry()
io.xmltogeo(values, doc, valuesElt)
self.set_geometry(geo)
self.set_values(values)
def cutCurve(self):
wk = self.workGroup
try:
list_patchs = []
for item in wk.inspector.tree.selectionsItems:
patch = wk.inspector.tree.GetItemData(item)
if patch.dim > 1:
print("cut curves algorithm only works with curves")
return
list_patchs.append(patch)
if len(list_patchs) > 1:
print(("cut curves algorithm needs 1 curve, but "\
, len(list_patchs), " curves were given"))
return
from caid.utils.intersect import intersect_crv
c0 = list_patchs[0]
geo0 = cad_geometry()
geo0.append(c0)
freq = wk.viewer.cutCurveFreq
list_P = wk.viewer.CutCurvePoints[::freq]
x, y, z = list(zip(*list_P))
x = np.asarray(x)
y = np.asarray(y)
z = np.asarray(z)
from scipy import interpolate
smooth = 0.
degree = 3
tck, u = interpolate.splprep([x, y], s=smooth, k=degree)
knots = tck[0]
Px = tck[1][0]
Py = tck[1][1]
C = np.zeros((len(Px), 3))
C[:, 0] = array(Px)
C[:, 1] = array(Py)
c1 = cad_nurbs([knots], C)
geo1 = cad_geometry()
geo1.append(c1)
list_P, list_t, list_s, ierr = intersect_crv(c0, c1)
list_t = np.asarray(list_t)
list_t.sort()
axis = 0
for i, t in enumerate(list_t):
geo0.split(i, t, axis)
wk.add_geometry(geometry(geo0))
wk.Refresh()
except:
self.statusbar.SetStatusText(
'Cannot use cut Curve. Check that a patch is selected on the inspector'
)
def cutCurve(self):
wk = self.workGroup
try:
list_patchs = []
for item in wk.inspector.tree.selectionsItems:
patch = wk.inspector.tree.GetPyData(item)
if patch.dim > 1:
print("cut curves algorithm only works with curves")
return
list_patchs.append(patch)
if len(list_patchs) > 1:
print(("cut curves algorithm needs 1 curve, but ", len(list_patchs), " curves were given"))
return
from caid.utils.intersect import intersect_crv
c0 = list_patchs[0]
geo0 = cad_geometry()
geo0.append(c0)
freq = wk.viewer.cutCurveFreq
list_P = wk.viewer.CutCurvePoints[::freq]
x, y, z = list(zip(*list_P))
x = np.asarray(x)
y = np.asarray(y)
z = np.asarray(z)
from scipy import interpolate
smooth = 0.0
degree = 3
tck, u = interpolate.splprep([x, y], s=smooth, k=degree)
knots = tck[0]
Px = tck[1][0]
Py = tck[1][1]
C = np.zeros((len(Px), 3))
C[:, 0] = array(Px)
C[:, 1] = array(Py)
c1 = cad_nurbs([knots], C)
geo1 = cad_geometry()
geo1.append(c1)
list_P, list_t, list_s, ierr = intersect_crv(c0, c1)
list_t = np.asarray(list_t)
list_t.sort()
axis = 0
for i, t in enumerate(list_t):
geo0.split(i, t, axis)
wk.add_geometry(geometry(geo0))
wk.Refresh()
except:
self.statusbar.SetStatusText("Cannot use cut Curve. Check that a patch is selected on the inspector")
def test3():
from . import fem as fem
from caid.cad_geometry import line, circle, bilinear
import caid.cad_geometry as cg
fe = fem.fem()
geo1 = cg.cad_geometry(geo=line())
geo2 = cg.cad_geometry(geo=circle())
geo3 = cg.cad_geometry(geo=bilinear())
PDE1 = pigasus(fem=fe, geometry=geo1)
PDE2 = pigasus(fem=fe, geometry=geo2)
PDE3 = pigasus(fem=fe, geometry=geo3)
def createBilinear(self):
wk = self.workGroup
list_P = wk.viewer.MarkerPoints
if len(list_P) != 4:
print("You have to specify 4 markers.")
return
A = list_P[0]
B = list_P[1]
C = list_P[2]
D = list_P[3]
points = np.zeros((2, 2, 3))
points[0, 0, :] = A[:3]
points[1, 0, :] = B[:3]
points[0, 1, :] = C[:3]
points[1, 1, :] = D[:3]
# weights[0,0] = A[3]
# weights[1,0] = B[3]
# weights[0,1] = C[3]
# weights[1,1] = D[3]
from caid.cad_geometry import bilinear
nrb = bilinear(points=points)[0]
wk.viewer.CleanMarkerPoints()
geo = cad_geometry()
geo.append(nrb)
wk.add_geometry(geometry(geo))
wk.Refresh()
def construct(self, xyzk, uvk=None, exportGeometry=True):
cxyz = self.fit(xyzk, uvk=uvk)
U = self.PDE.unknown
geo_ini = self.geometry
if exportGeometry:
geo_f = cad_geometry()
else:
list_nrb = []
for patch_id in range(0, self.geometry.npatchs):
nrb = self.geometry[patch_id]
C = np.zeros(list(nrb.shape) + [3])
for i, cx in enumerate(cxyz):
U.set(cx)
C[..., i] = U.tomatrix(patch_id).reshape(nrb.shape)
if exportGeometry:
srf = cad_nurbs(nrb.knots, C, weights=nrb.weights)
srf.orientation = nrb.orientation
srf.rational = nrb.rational
geo_f.append(srf)
else:
srf = cad_nurbs(nrb.knots, C, weights=nrb.weights)
list_nrb.append(srf)
if exportGeometry:
geo_f.set_internal_faces(geo_ini.internal_faces)
geo_f.set_external_faces(geo_ini.external_faces)
geo_f.set_connectivity(geo_ini.connectivity)
return geo_f
else:
return list_nrb
def refine(geo, n=None, p=None):
if n is None:
n = np.zeros(geo.dim, dtype=np.int)
if p is None:
p = np.zeros(geo.dim, dtype=np.int)
n = np.asarray(n)
p = np.asarray(p)
geo_t = cg.cad_geometry()
nrb = geo[0]
geo_t.append(nrb)
# ... refinement
list_t = None
if n.sum() > 0:
list_t = []
for axis in range(0,nrb.dim):
ub = nrb.knots[axis][0]
ue = nrb.knots[axis][-1]
t = []
if n[axis] > 0:
t = np.linspace(ub,ue,n[axis]+2)[1:-1]
list_t.append(t)
list_p = None
if p.sum() > 0:
list_p = []
for axis in range(0,nrb.dim):
list_p.append(np.max(p[axis] - nrb.degree[axis], 0))
geo_t.refine(list_t=list_t, list_p=list_p)
return geo_t
def transferSolution(self, geo_H, U_H, geo_h, U_h):
patch_id = 0
nrb_H = geo_H[patch_id]
nrb_h = geo_h[patch_id]
# degrees of the input surface
px_in = nrb_H.degree[0]
py_in = nrb_H.degree[1]
# degrees of the output surface
px = nrb_h.degree[0]
py = nrb_h.degree[1]
C = np.zeros_like(nrb_H.points)
shape = list(nrb_H.shape)
C = np.zeros(shape+[3])
_C = U_H.tomatrix(patch_id)
C[...,0] = _C
srf = cad_nurbs(nrb_H.knots, C, weights= nrb_H.weights)
geo_f = cad_geometry()
geo_f.append(srf)
list_t = []
for axis in range(0, nrb_H.dim):
tx = [t for t in nrb_h.knots[axis] if t not in nrb_H.knots[axis]]
list_t.append(tx)
geo_f.refine(list_t = list_t, list_p=[px-px_in, py-py_in])
uh = geo_f[0].points[...,0]
U_h.frommatrix(patch_id, uh)
def refine(geo, n=None, p=None):
if n is None:
n = np.zeros(geo.dim, dtype=np.int)
if p is None:
p = np.zeros(geo.dim, dtype=np.int)
n = np.asarray(n)
p = np.asarray(p)
geo_t = cg.cad_geometry()
nrb = geo[0]
geo_t.append(nrb)
# ... refinement
list_t = None
if n.sum() > 0:
list_t = []
for axis in range(0, nrb.dim):
ub = nrb.knots[axis][0]
ue = nrb.knots[axis][-1]
t = []
if n[axis] > 0:
t = np.linspace(ub, ue, n[axis] + 2)[1:-1]
list_t.append(t)
list_p = None
if p.sum() > 0:
list_p = []
for axis in range(0, nrb.dim):
list_p.append(np.max(p[axis] - nrb.degree[axis], 0))
geo_t.refine(list_t=list_t, list_p=list_p)
return geo_t
def createBilinear(self):
wk = self.workGroup
list_P = wk.viewer.MarkerPoints
if len(list_P) != 4 :
print("You have to specify 4 markers.")
return
A = list_P[0]
B = list_P[1]
C = list_P[2]
D = list_P[3]
points = np.zeros((2,2,3))
points[0,0,:] = A[:3]
points[1,0,:] = B[:3]
points[0,1,:] = C[:3]
points[1,1,:] = D[:3]
# weights[0,0] = A[3]
# weights[1,0] = B[3]
# weights[0,1] = C[3]
# weights[1,1] = D[3]
from caid.cad_geometry import bilinear
nrb = bilinear(points=points)[0]
wk.viewer.CleanMarkerPoints()
geo = cad_geometry()
geo.append(nrb)
wk.add_geometry(geometry(geo))
wk.Refresh()
def genGeometry(self):
from caid.op_nurbs import opNURBS, grad
from caid.cad_geometry import cad_geometry, cad_grad_nurbs, cad_nurbs
geo = self.geo_h
PDE = self.PDE_h
if PDE.Dirichlet:
U = PDE.unknown_dirichlet
else:
U = PDE.unknown
geo_f = cad_geometry()
for patch_id in range(0, geo.npatchs):
met = geo[patch_id]
_C = U.tomatrix(patch_id)
C = np.zeros_like(met.points)
C[..., :2] = met.points[..., :2]
C[..., 2] = _C
srf = cad_nurbs(met.knots, C, weights=met.weights)
gsrf = grad(srf)
grad_nrb = cad_grad_nurbs(gsrf)
print("name ", grad_nrb.__class__.__name__)
geo_f.append(grad_nrb)
geo_f[-1].set_orientation(met.orientation)
geo_f[-1].set_rational(met.rational)
geo_f.set_internal_faces(geo.internal_faces)
geo_f.set_external_faces(geo.external_faces)
geo_f.set_connectivity(geo.connectivity)
return geo_f
def construct(self, xyzk, uk=None):
cxyz = self.fit(xyzk, uk=uk)
U = self.PDE.unknown
geo_ini = self.geometry
geo_f = cad_geometry()
for patch_id in range(0, self.geometry.npatchs):
nrb = self.geometry[patch_id]
C = np.zeros(list(nrb.shape) + [3])
for i, cx in enumerate(cxyz):
U.set(cx)
C[..., i] = U.tomatrix(patch_id).reshape(nrb.shape)
srf = cad_nurbs(nrb.knots, C, weights=nrb.weights)
srf.orientation = nrb.orientation
srf.rational = nrb.rational
geo_f.append(srf)
geo_f._internal_faces = geo_ini._internal_faces
geo_f._external_faces = geo_ini._external_faces
geo_f._connectivity = geo_ini._connectivity
return geo_f
def open(self, filename=None):
if filename is not None:
self.filename = filename
else:
from global_vars import CAIDWorkGroupwildcard
# Create an open file dialog
dialog = wx.FileDialog(None\
, style = wx.OPEN\
, wildcard=CAIDWorkGroupwildcard)
# Show the dialog and get user input
if dialog.ShowModal() == wx.ID_OK:
self.filename = dialog.GetPath()
# The user did not select anything
else:
print('Nothing was selected.')
# Destroy the dialog
dialog.Destroy()
from caid.cad_geometry import cad_geometry
from caid.io import XML
from geometry import geometry
io = XML()
from xml.dom.minidom import parse
doc = parse(self.filename)
rootElt = doc.documentElement
# read attributs
# get camera attributs
eye = strtoArray(rootElt.getAttribute("eye"))
self.viewer.lookAt.SetEye(eye)
center = strtoArray(rootElt.getAttribute("center"))
self.viewer.lookAt.SetCenter(center)
up = strtoArray(rootElt.getAttribute("up"))
self.viewer.lookAt.SetUp(up)
# get colors attributs
# ...
try:
self.viewer.theme.load(rootElt=rootElt)
except:
print("Theme can not be loaded. Dark theme will be used.")
self.viewer.theme.set_theme("dark")
# ...
for geoElt in rootElt.getElementsByTagName("geometry"):
geo = cad_geometry()
io.xmltogeo(geo, doc, geoElt)
_geo = geometry(geo)
_geo.load_attributs()
self.add_geometry(_geo)
self.Refresh()
# sets the temporary file for auto-save
tmp = self.filename.split('/')[-1]
basedir = self.filename.split(tmp)[0]
self.tmp_filename = basedir+"~"+tmp
def open(self, filename=None):
if filename is not None:
self.filename = filename
else:
from global_vars import CAIDWorkGroupwildcard
# Create an open file dialog
dialog = wx.FileDialog(None\
, style = wx.OPEN\
, wildcard=CAIDWorkGroupwildcard)
# Show the dialog and get user input
if dialog.ShowModal() == wx.ID_OK:
self.filename = dialog.GetPath()
# The user did not select anything
else:
print('Nothing was selected.')
# Destroy the dialog
dialog.Destroy()
from caid.cad_geometry import cad_geometry
from caid.io import XML
from geometry import geometry
io = XML()
from xml.dom.minidom import parse
doc = parse(self.filename)
rootElt = doc.documentElement
# read attributs
# get camera attributs
eye = strtoArray(rootElt.getAttribute("eye"))
self.viewer.lookAt.SetEye(eye)
center = strtoArray(rootElt.getAttribute("center"))
self.viewer.lookAt.SetCenter(center)
up = strtoArray(rootElt.getAttribute("up"))
self.viewer.lookAt.SetUp(up)
# get colors attributs
# ...
try:
self.viewer.theme.load(rootElt=rootElt)
except:
print("Theme can not be loaded. Dark theme will be used.")
self.viewer.theme.set_theme("dark")
# ...
for geoElt in rootElt.getElementsByTagName("geometry"):
geo = cad_geometry()
io.xmltogeo(geo, doc, geoElt)
_geo = geometry(geo)
_geo.load_attributs()
self.add_geometry(_geo)
self.Refresh()
# sets the temporary file for auto-save
tmp = self.filename.split('/')[-1]
basedir = self.filename.split(tmp)[0]
self.tmp_filename = basedir + "~" + tmp
def geometry_1D(nx, px):
# ...
nrb = line(p0=(0, 0), p1=(1, 0))
geo = cg.cad_geometry(geo=nrb)
geo.refine(id=0, list_p=[px - 1])
tx = np.linspace(0., 1., nx + 2)[1:-1]
geo.refine(id=0, list_t=[tx])
# ...
return geo
def get_geometry(domain):
""" Reads a geometry from a file.
Args:
domain(str) : type of domain to open."""
if (domain == 0):
ls_domain = "domains/2squares_inv.xml"
import caid.cad_geometry as cg
geo = cg.cad_geometry(ls_domain)
elif (domain == 1):
ls_domain = "domains/disk_100100.xml"
import caid.cad_geometry as cg
geo = cg.cad_geometry(ls_domain)
# from caid.cad_geometry import circle
# geo = circle()
elif (domain == 2):
ls_domain = "domains/disk_5mp_n64x64_p3x3.xml"
import caid.cad_geometry as cg
geo = cg.cad_geometry(ls_domain)
elif (domain == 3):
ls_domain = "domains/pinched_disk_5mp_eps09.xml"
import caid.cad_geometry as cg
geo = cg.cad_geometry(ls_domain)
elif (domain == 4):
ls_domain = "domains/4squares.xml"
import caid.cad_geometry as cg
geo = cg.cad_geometry(ls_domain)
elif (domain == 5):
ls_domain = "domains/annulus.xml"
import caid.cad_geometry as cg
geo = cg.cad_geometry(ls_domain)
elif (domain == 6):
ls_domain = "domains/2squares_C0.xml"
import caid.cad_geometry as cg
geo = cg.cad_geometry(ls_domain)
elif (domain == 7):
ls_domain = "domains/1square.xml"
import caid.cad_geometry as cg
geo = cg.cad_geometry(ls_domain)
elif (domain == 8):
ls_domain = "domains/quart_annulus_1mp.xml"
import caid.cad_geometry as cg
geo = cg.cad_geometry(ls_domain)
else:
raise SystemExit("ERROR in globals_variables:" \
+ " no domain associated to that number")
return geo
def geometry_2D(nx, ny, px, py):
# ...
# points = np.asarray([[[0.,0.],[0.,1.]],[[1.,0.],[1.,1.]]])
points = np.asarray([[[0., 0.], [0., 1.]], [[2., 0.], [1., 1.]]])
nrb = bilinear(points)
geo = cg.cad_geometry(geo=nrb)
geo.refine(id=0, list_p=[px - 1, py - 1])
tx = np.linspace(0., 1., nx + 2)[1:-1]
ty = np.linspace(0., 1., ny + 2)[1:-1]
geo.refine(id=0, list_t=[tx, ty])
# ...
return geo
def __init__(self, nrb):
geometry = cad_geometry()
geometry.append(nrb)
geo_ref, list_lmatrices = geometry.bezier_extract()
nrb_ref = geo_ref[0]
list_lmatrices = list_lmatrices[0]
npatchs = len(list_lmatrices)
shape = list(list_lmatrices[0].shape)
print(npatchs)
print(shape)
shape = [npatchs] + [3 + 1 + 1] + shape
self._array = np.zeros(shape)
for patch_id in range(0, npatchs):
self._array[patch_id, 3, ...] = list_lmatrices[patch_id]
def __init__(self, nrb):
geometry = cad_geometry()
geometry.append(nrb)
geo_ref, list_lmatrices = geometry.bezier_extract()
nrb_ref = geo_ref[0]
list_lmatrices = list_lmatrices[0]
npatchs = len(list_lmatrices)
shape = list(list_lmatrices[0].shape)
print(npatchs)
print(shape)
shape = [npatchs] + [3 + 1 + 1] + shape
self._array = np.zeros(shape)
for patch_id in range(0, npatchs):
self._array[patch_id, 3, ...] = list_lmatrices[patch_id]
def export(self, filename):
from caid.cad_geometry import cad_geometry, cad_nurbs
from caid.field import field as iga_field
U = self
geo = U.space.geometry
geo_c = cad_geometry()
for i in range(0, geo.npatchs):
nrb = geo[i]
C = zeros_like(nrb.points)
_C = U.tomatrix(i)
shape = list(nrb.shape)
C = zeros(shape+[3])
C[...,0] = _C
srf = cad_nurbs(nrb.knots, C, weights= nrb.weights)
geo_c.append(srf)
F = iga_field(geo, geo_c)
F.save(filename)
def points_to_geo_interp(x, y, z=None, p=3):
if z is None:
z = np.zeros_like(x)
tck, u = splprep([x,y], s=0, k=p)
#-----------------------------------
geo = cad_geometry()
knots = [tck[0]]
Px = tck[1][0]
Py = tck[1][1]
P = np.zeros((len(Px),3))
P[:,0] = Px
P[:,1] = Py
nrb = cad_nurbs(knots, P)
geo.append(nrb)
#-----------------------------------
return geo
def load(self, filename):
geo = cad_geometry(filename)
self._geo_int = geo
self._nt = int(geo.get_attribut("n_intersection"))
self._list_P = []
for j in range(0, self.n_intersect):
P_str = geo.get_attribut('intersection_P'+str(j))
P = [float(x) for x in P_str.split(',')]
t = geo.get_attribut('intersection_t'+str(j))
s = geo.get_attribut('intersection_s'+str(j))
P = asarray(P)
t = float(t)
s = float(s)
self._list_P.append(P)
self._list_t.append(t)
self._list_s.append(s)
def create_wall(R_wall, Z_wall):
zz = np.zeros_like(R_wall)
list_P = list(zip(R_wall, Z_wall, zz))
list_crv = []
for P,Q in zip(list_P[:-1], list_P[1:]):
points = np.zeros((2,2))
points[0,0] = P[0] ; points[0,1] = P[1]
points[1,0] = Q[0] ; points[1,1] = Q[1]
crv = linear(points = points)[0]
list_crv.append(crv)
nrb = list_crv[0]
axis = 0
for crv in list_crv[1:]:
nrb = join(nrb, crv, axis)
nrb = cad_nurbs(nrb.knots, nrb.points, weights=nrb.weights)
geo = cad_geometry()
geo.append(nrb)
return geo
def createLines(self):
wk = self.workGroup
list_P = wk.viewer.MarkerPoints
list_crv = []
for P,Q in zip(list_P[:-1], list_P[1:]):
points = np.zeros((2,2))
points[0,0] = P[0] ; points[0,1] = P[1]
points[1,0] = Q[0] ; points[1,1] = Q[1]
crv = linear(points = points)[0]
list_crv.append(crv)
nrb = list_crv[0]
axis = 0
for crv in list_crv[1:]:
nrb = join(nrb, crv, axis)
wk.viewer.CleanMarkerPoints()
geo = cad_geometry()
geo.append(nrb)
wk.add_geometry(geometry(geo))
wk.Refresh()
def createLines(self):
wk = self.workGroup
list_P = wk.viewer.MarkerPoints
list_crv = []
for P, Q in zip(list_P[:-1], list_P[1:]):
points = np.zeros((2, 2))
points[0, 0] = P[0]
points[0, 1] = P[1]
points[1, 0] = Q[0]
points[1, 1] = Q[1]
crv = linear(points=points)[0]
list_crv.append(crv)
nrb = list_crv[0]
axis = 0
for crv in list_crv[1:]:
nrb = join(nrb, crv, axis)
wk.viewer.CleanMarkerPoints()
geo = cad_geometry()
geo.append(nrb)
wk.add_geometry(geometry(geo))
wk.Refresh()
def createArc(self):
wk = self.workGroup
list_P = wk.viewer.MarkerPoints
if len(list_P) != 3:
print("You have to specify 3 markers.")
return
dlg = edtTxtDialog(None, title="Edit Angle")
dlg.ShowModal()
ls_text = dlg.getValue()
try:
lr_degree = float(ls_text)
except:
lr_degree = 0.0
theta = lr_degree * pi / 180
dlg.Destroy()
A0 = list_P[0]
A1 = list_P[1]
A2 = list_P[2]
knots = [0., 0., 0., 1., 1., 1.]
C = np.zeros((3, 3))
C[0, :] = A0[:3]
C[1, :] = A1[:3]
C[2, :] = A2[:3]
weights = [1., cos(theta), 1.]
nrb = cad_nurbs([knots], C, weights=weights)
wk.viewer.CleanMarkerPoints()
geo = cad_geometry()
geo.append(nrb)
wk.add_geometry(geometry(geo))
wk.Refresh()
def createArc(self):
wk = self.workGroup
list_P = wk.viewer.MarkerPoints
if len(list_P) != 3 :
print("You have to specify 3 markers.")
return
dlg = edtTxtDialog(None, title="Edit Angle")
dlg.ShowModal()
ls_text = dlg.getValue()
try:
lr_degree = float(ls_text)
except:
lr_degree = 0.0
theta = lr_degree * pi / 180
dlg.Destroy()
A0 = list_P[0]
A1 = list_P[1]
A2 = list_P[2]
knots = [0.,0.,0.,1.,1.,1.]
C = np.zeros((3,3))
C[0,:] = A0[:3]
C[1,:] = A1[:3]
C[2,:] = A2[:3]
weights = [1.,cos(theta),1.]
nrb = cad_nurbs([knots], C, weights=weights)
wk.viewer.CleanMarkerPoints()
geo = cad_geometry()
geo.append(nrb)
wk.add_geometry(geometry(geo))
wk.Refresh()
[ 1.,-2., 0.],
[ 1., 0., 0.],
[ 1., 1., 0.],
[ 0., 1., 0.],
[-1., 1., 0.],
[-1., 0., 0.],
[-1.,-2., 0.],
[ 0.,-2., 0.],]
crv = cad_nurbs([T], C)
return crv
# ...
# ... create a 3D curve
crv0 = make_curve()
geo = cad_geometry()
geo.append(crv0)
geo.plotMesh(MeshResolution=20)
plt.savefig("polar_extrude_ex1_original.png")
plt.clf()
# ...
# ... polar extrude
geo_1 = geo.polarExtrude()
U = np.linspace(0., 1., 9)[1:-1]
V = np.linspace(0., 1., 17)[1:-1]
V = [v for v in V if v not in crv0.knots[0]]
geo_1.refine(list_t=[U, V])
geo_1.plotMesh()
plt.savefig("polar_extrude_ex1_geo1.png")
plt.clf()
def OnClick(self, event):
# inspector = self.parent
wk = self.parent.WorkGroup
ID = event.GetId()
if ID == self.BCK_ID:
self.parent.ShowAction(self.parent.geometryActions)
if ID == self.EMP_ID:
geo = cad_geometry()
wk.add_geometry(geometry(geo))
if wk.macroRecording:
macro_script = wk.macro_script
macro_script.new_line()
macro_script.append("# ... create object")
macro_script.append("_geo = cad_geometry()")
macro_script.append("wk.add_geometry(geometry(_geo))")
macro_script.append("# ...")
if ID == self.LIN_ID:
from caid.cad_geometry import line as domain
geo = domain()
wk.add_geometry(geometry(geo))
if wk.macroRecording:
macro_script = wk.macro_script
macro_script.new_line()
macro_script.append("# ... create object")
macro_script.append("_geo = line()")
macro_script.append("wk.add_geometry(geometry(_geo))")
macro_script.append("# ...")
if ID == self.LNR_ID:
self.parent.objectActionsCreateLinear.asGeometry()
self.parent.ShowAction(self.parent.objectActionsCreateLinear)
if ID == self.ARC_ID:
self.parent.objectActionsCreateArc.asGeometry()
self.parent.ShowAction(self.parent.objectActionsCreateArc)
if ID == self.CRV_ID:
self.parent.objectActionsCurve.asGeometry()
self.parent.ShowAction(self.parent.objectActionsCurve)
if ID == self.SQR_ID:
from caid.cad_geometry import square as domain
geo = domain()
wk.add_geometry(geometry(geo))
# macro recording
if wk.macroRecording:
macro_script = wk.macro_script
macro_script.new_line()
macro_script.append("# ... create object")
macro_script.append("_geo = square()")
macro_script.append("wk.add_geometry(geometry(_geo))")
macro_script.append("# ...")
if ID == self.BIL_ID:
self.parent.objectActionsCreateBilinear.asGeometry()
self.parent.ShowAction(self.parent.objectActionsCreateBilinear)
if ID == self.CRC_ID:
self.parent.objectActionsCreateCircle.asGeometry()
self.parent.ShowAction(self.parent.objectActionsCreateCircle)
if ID == self.QCR_ID:
self.parent.objectActionsCreateQuartCircle.asGeometry()
self.parent.ShowAction(self.parent.objectActionsCreateQuartCircle)
if ID == self.ANL_ID:
self.parent.objectActionsCreateAnnulus.asGeometry()
self.parent.ShowAction(self.parent.objectActionsCreateAnnulus)
if ID == self.CR5_ID:
self.parent.objectActionsCreateCircle_5mp.asGeometry()
self.parent.ShowAction(self.parent.objectActionsCreateCircle_5mp)
if ID == self.TRL_ID:
self.parent.objectActionsCreateTriangle.asGeometry()
self.parent.ShowAction(self.parent.objectActionsCreateTriangle)
if __name__ == "__main__":
from pigasus.gallery.basicPDE import *
from caid.cad_geometry import cad_geometry
from scipy.io import mmwrite
from scipy.sparse import csr_matrix
#-----------------------------------
t = 0.5
# nx = 2 ; px = 1
nx = N - (p - 1)
px = p
nlevel = 1
#-----------------------------------
geo = cad_geometry("iter_inner.xml")
nrb = geo[0]
#-----------------------------------
# # ...
# def a_ext(s):
# S = nrb(s)
# return S[:,0]
# # ...
# # ...
# def b_ext(s):
# S = nrb(s)
# return S[:,1]
# # ...
# # ...
# def ads_ext(s):
def OnClick(self, event):
ID = event.GetId()
if ID == self.NEW_ID:
self.parent.ShowAction(self.parent.geometryActionsNew)
if ID == self.ADD_ID:
self.parent.ShowAction(self.parent.geometryActionsAdd)
if ID == self.DEL_ID:
# inspector = self.parent
wk = self.parent.WorkGroup
geo = wk.inspector.currentGeometry
geoItem = wk.inspector.currentGeometryItem
geo_id = wk.list_geo.index(geo)
wk.remove_geometry(geoItem, geo)
# macro recording
if wk.macroRecording:
macro_script = wk.macro_script
macro_script.new_line()
macro_script.append("# ... delete geometry")
macro_script.append("geo_id = "+str(geo_id))
macro_script.append("geo = geometries[geo_id]")
macro_script.append("geoItem = geo.treeItem")
macro_script.append("wk.remove_geometry(geoItem, geo)")
macro_script.append("# ...")
if ID == self.DUP_ID:
# inspector = self.parent
wk = self.parent.WorkGroup
geo_new = wk.inspector.currentGeometry.copy()
geo_newItem = wk.add_geometry(geo_new)
# macro recording
if wk.macroRecording:
macro_script = wk.macro_script
macro_script.new_line()
macro_script.append("# ... copy geometry")
geo_id = wk.list_geo.index(geo)
macro_script.append("geo_id = "+str(geo_id))
macro_script.append("geo = geometries[geo_id]")
macro_script.append("_geo = geo.copy()")
macro_script.append("wk.add_geometry(geometry(_geo))")
macro_script.append("# ...")
if ID == self.PLJ_ID:
# inspector = self.parent
wk = self.parent.WorkGroup
geo = wk.inspector.currentGeometry
import matplotlib.pyplot as plt
try:
MeshResolution = geo.list_patchInfo[0].steps[0]
except:
MeshResolution = 10
geo.plotJacobians(MeshResolution=MeshResolution)
plt.colorbar()
plt.show()
if ID == self.PLM_ID:
# inspector = self.parent
wk = self.parent.WorkGroup
geo = wk.inspector.currentGeometry
import matplotlib.pyplot as plt
MeshResolution = geo.list_patchInfo[0].steps[0]
geo.plotMesh(MeshResolution=MeshResolution)
plt.show()
if ID == self.EXP_ID:
from global_vars import CAIDwildcard
# Create a save file dialog
dialog = wx.FileDialog ( None, style = wx.SAVE | wx.OVERWRITE_PROMPT
, wildcard=CAIDwildcard)
# Show the dialog and get user input
if dialog.ShowModal() == wx.ID_OK:
ls_file = dialog.GetPath()
wk = self.parent.WorkGroup
geo = wk.inspector.currentGeometry
geo.save(ls_file)
# macro recording
if wk.macroRecording:
macro_script = wk.macro_script
macro_script.new_line()
macro_script.append("# ... export geometry")
geo_id = wk.list_geo.index(geo)
macro_script.append("geo_id = "+str(geo_id))
macro_script.append("geo = geometries[geo_id]")
macro_script.append("filename = \""+ls_file+"\"")
macro_script.append("geo.save(filename)")
macro_script.append("# ...")
# Destroy the dialog
dialog.Destroy()
if ID == self.EDT_ID:
from Editor import Editor
# inspector = self.parent
wk = self.parent.WorkGroup
geo = wk.inspector.currentGeometry
edt = Editor(wk.parent, -1, 'Editor')
filename = edt.DoOpenGeometryAsFile(geo)
# wait until the editor is closed
createNewGeo = False
while edt:
if edt.modify:
createNewGeo = True
wx.MilliSleep(10)
wx.GetApp().Yield()
if createNewGeo:
newgeo = cad_geometry(filename)
geo_new = geometry(newgeo)
geo_newItem = wk.add_geometry(geo_new)
try:
os.remove(filename)
except:
pass
if ID == self.TRS_ID:
self.parent.objectActionsTranslate.asGeometry()
self.parent.ShowAction(self.parent.objectActionsTranslate)
if ID == self.ROT_ID:
self.parent.objectActionsRotate.asGeometry()
self.parent.ShowAction(self.parent.objectActionsRotate)
if ID == self.SCL_ID:
self.parent.objectActionsScale.asGeometry()
self.parent.ShowAction(self.parent.objectActionsScale)
if ID == self.REF_ID:
self.parent.ShowAction(self.parent.geometryActionsRefine)
if ID == self.PEX_ID:
self.parent.objectActionsPolarExtrude.asGeometry()
self.parent.ShowAction(self.parent.objectActionsPolarExtrude)
if ID == self.EXD_ID:
# inspector = self.parent
wk = self.parent.WorkGroup
geo = wk.inspector.currentGeometry
geoItem = wk.inspector.currentGeometryItem
list_geo = geo.expand()
for _geo in list_geo:
geo_new = geometry(_geo)
geo_newItem = wk.add_geometry(geo_new)
# macro recording
if wk.macroRecording:
macro_script = wk.macro_script
macro_script.new_line()
macro_script.append("# ... expand geometry")
geo_id = wk.list_geo.index(geo)
macro_script.append("geo_id = "+str(geo_id))
macro_script.append("geo = geometries[geo_id]")
macro_script.append("list_geo = geo.expand()")
macro_script.append("for _geo in list_geo:")
macro_script.append("\twk.add_geometry(geometry(_geo))")
macro_script.append("# ...")
if ID == self.IMP_ID:
# Create an open file dialog
dialog = wx.FileDialog(None, style = wx.OPEN)
# Show the dialog and get user input
if dialog.ShowModal() == wx.ID_OK:
filename = dialog.GetPath()
# TODO update recent files
# self.UpdateRecentFiles(filename)
geo = cad_geometry(filename)
wk = self.parent.WorkGroup
wk.add_geometry(geometry(geo))
# macro recording
if wk.macroRecording:
macro_script = wk.macro_script
macro_script.new_line()
macro_script.append("# ... import geometry")
macro_script.append("filename = \""+filename+"\"")
macro_script.append("_geo = cad_geometry(filename)")
macro_script.append("wk.add_geometry(geometry(_geo))")
macro_script.append("# ...")
# Destroy the dialog
dialog.Destroy()
if ID == self.REI_ID:
# inspector = self.parent
wk = self.parent.WorkGroup
geo = wk.inspector.currentGeometry
geoItem = wk.inspector.currentGeometryItem
geo.initialize_info()
# macro recording
if wk.macroRecording:
macro_script = wk.macro_script
macro_script.new_line()
macro_script.append("# ... initialize info geometry")
geo_id = wk.list_geo.index(geo)
macro_script.append("geo_id = "+str(geo_id))
macro_script.append("geo = geometries[geo_id]")
macro_script.append("geo.initialize_info()")
macro_script.append("wk.Refresh(inspector=True)")
macro_script.append("# ...")
wk.Refresh(inspector=True)
if ID == self.UPI_ID:
# inspector = self.parent
wk = self.parent.WorkGroup
geo = wk.inspector.currentGeometry
geoItem = wk.inspector.currentGeometryItem
geo.update()
# macro recording
if wk.macroRecording:
macro_script = wk.macro_script
macro_script.new_line()
macro_script.append("# ... update geometry")
geo_id = wk.list_geo.index(geo)
macro_script.append("geo_id = "+str(geo_id))
macro_script.append("geo = geometries[geo_id]")
macro_script.append("geo.update()")
macro_script.append("wk.Refresh(inspector=True)")
macro_script.append("# ...")
wk.Refresh(inspector=True)
if ID == self.T5P_ID:
# inspector = self.parent
wk = self.parent.WorkGroup
item = wk.inspector.tree.GetSelection()
geo_bnd = wk.inspector.tree.GetPyData(item)
face = geo_bnd.face
faceItem = wk.inspector.tree.GetItemParent(item)
patchItem = wk.inspector.tree.GetItemParent(faceItem)
geoItem = wk.inspector.tree.GetItemParent(patchItem)
geo = wk.inspector.tree.GetPyData(geoItem)
_geo = cad_geometry()
_geo.append(geo[0])
geo_new = geometry(_geo.to5patchs(face))
geo_newItem = wk.add_geometry(geo_new)
# macro recording
if wk.macroRecording:
macro_script = wk.macro_script
macro_script.new_line()
macro_script.append("# ... to-5-patchs geometry")
geo_id = wk.list_geo.index(geo)
macro_script.append("geo_id = "+str(geo_id))
macro_script.append("geo = geometries[geo_id]")
macro_script.append("_geo = cad_geometry()")
macro_script.append("_geo.append(geo[0])")
macro_script.append("face = "+str(face))
macro_script.append("_geo = _geo.to5patchs(face)")
macro_script.append("wk.add_geometry(geometry(_geo))")
macro_script.append("wk.Refresh()")
macro_script.append("# ...")
wk.Refresh()
nx = int(sys.argv[1])
ny = int(sys.argv[2])
px = int(sys.argv[3])
py = int(sys.argv[4])
mx = int(sys.argv[5])
my = int(sys.argv[6])
file_in = sys.argv[7]
file_out = sys.argv[8]
if (mx > px) or (my > py):
raise ("the multiplicity must be less than the final degree")
geo = cg.cad_geometry(file_in)
for i in range(0, geo.npatchs):
list_p = geo[i].degree
geo.refine(id=i, list_p=[px - list_p[0], py - list_p[1]])
ux = np.linspace(0., 1., nx + 2)[1:-1]
uy = np.linspace(0., 1., ny + 2)[1:-1]
tx = []
for x in ux:
for j in range(0, mx):
tx.append(x)
ty = []
for y in uy:
for j in range(0, my):
ty.append(y)
def OnClick(self, event):
ID = event.GetId()
if ID == self.BCK_ID:
self.parent.ShowAction(self.parent.geometryActions)
if ID == self.GO_ID:
# inspector = self.parent
wk = self.parent.WorkGroup
geo = wk.inspector.currentGeometry
geoItem = wk.inspector.currentGeometryItem
_geo = cad_geometry()
for nrb in geo:
geo_t = cad_geometry()
geo_t.append(nrb)
# ... refinement
list_t = None
if self.n.sum() > 0:
list_t = []
for axis in range(0,nrb.dim):
ub = nrb.knots[axis][0]
ue = nrb.knots[axis][-1]
t = []
if self.n[axis] > 0:
t = np.linspace(ub,ue,self.n[axis]+2)[1:-1]
list_t.append(t)
list_p = None
if self.p.sum() > 0:
list_p = []
for axis in range(0,nrb.dim):
list_p.append(np.max(self.p[axis] - nrb.degree[axis], 0))
list_m = None
if self.m.sum() > 0:
list_m = []
for axis in range(0,nrb.dim):
list_m.append(self.m[axis])
geo_t.refine(list_t=list_t, list_p=list_p, list_m=list_m)
_geo.append(geo_t[0])
# macro recording
if wk.macroRecording:
macro_script = wk.macro_script
macro_script.new_line()
macro_script.append("# ... refine geometry")
macro_script.append("_geo = cad_geometry()")
geo_id = wk.list_geo.index(geo)
macro_script.append("geo_id = "+str(geo_id))
macro_script.append("geo = geometries[geo_id]")
macro_script.append("for nrb in geo:")
macro_script.append("\tgeo_t = cad_geometry()")
macro_script.append("\tgeo_t.append(nrb)")
str_list_t = [list(ts) for ts in list_t]
macro_script.append("\tlist_t = "+ str(str_list_t))
macro_script.append("\tlist_p = "+ str(list_p))
macro_script.append("\tlist_m = "+ str(list_m))
macro_script.append("\tgeo_t.refine(list_t=list_t, list_p=list_p, list_m=list_m)")
macro_script.append("\t_geo.append(geo_t[0])")
macro_script.append("wk.add_geometry(geometry(_geo))")
macro_script.append("# ...")
# ...
_geo.set_internal_faces(geo.internal_faces)
_geo.set_external_faces(geo.external_faces)
_geo.set_connectivity(geo.connectivity)
geo_new = geometry(_geo)
geo_newItem = wk.add_geometry(geo_new)
def __init__(self, nrb, check=False, verbose=False):
self._matrices = []
self._lmatrices = []
self._nrb = nrb
self._nrb_ref = None
from caid.cad_geometry import cad_geometry
# ...
spl = splineRefMat(1)
geo = cad_geometry()
geo.append(nrb)
if verbose:
print("== shape before ", nrb.shape)
print(nrb.knots)
list_t = []
for axis in range(0, nrb.dim):
brk, mult = nrb.breaks(axis=axis, mults=True)
# print ">> axis ", axis
# print brk
# print mult
nbrk = len(mult)
mult = np.asarray(mult)
times = nrb.degree[axis] * np.ones(nbrk, dtype=np.int) - mult
# print ">> spans ", nrb.spans(axis=axis)
list_r = []
for t,k in zip(brk, times):
for i in range(0, k):
list_r.append(t)
list_t.append(list_r)
knots = nrb.knots[axis]
n = nrb.shape[axis]
p = nrb.degree[axis]
P = nrb.points
dim = P.shape[1]
# print "%%%%%%%%%%%%"
# print list_r
# print p
# print n
# print knots
# print "%%%%%%%%%%%%"
M = spl.construct(list_r, p, n, knots)
# ...
if check:
if nrb.dim == 1:
if verbose:
print("matrix shape ", M.shape)
R = M.dot(nrb.points[:,0])
# geo.refine(id=0, list_t=[list_r])
nrb = geo[0]
if verbose:
print("== shape after ", nrb.shape)
print(nrb.knots)
P = np.asarray(nrb.points[:,0])
assert(np.allclose(P,R))
if verbose:
print("check: OK")
# ...
self._matrices.append(M)
geo.refine(id=0, list_t=list_t)
self._nrb_ref = geo[0]
# -*- coding: UTF-8 -*-
#! /usr/bin/python
import numpy as np
from matplotlib import pyplot as plt
from caid.io import geopdes
from caid.cad_geometry import cad_geometry
geo = cad_geometry()
filename = "/home/macahr/Téléchargements/geopdes_geometries/geo_Lshaped_mp.txt"
#filename = "geo_Lshaped_mp_b.txt"
IO = geopdes()
IO.read(filename, geo)
fig = plt.figure()
geo.plotMesh()
plt.xlim(-1.1, 1.1)
plt.ylim(-1.1, 1.1)
plt.show()
#geo.save(filename.split(".")[0]+".xml")
#nml_io.write('domain_selalib.nml',geo)
# ...
# ...
kx = 2. * pi
ky = 2. * pi
# ... exact solution
u = lambda x,y : [sin ( kx * x ) * sin ( ky * y )]
# ... rhs
f = lambda x,y : [( kx**2 + ky**2 ) * sin ( kx * x ) * sin ( ky * y )]
AllDirichlet = True
nx=15; ny = 15; px = 2; py = 2
geo = domain(n=[nx,ny],p=[px,py])
PDE = poisson(geometry=geo, AllDirichlet=AllDirichlet)
PDE.assembly(f=f)
PDE.solve()
# ...
# ...
normU = PDE.norm(exact=u)
print(("norm U = ", normU))
U = PDE.unknown
u = U.tomatrix(0)
from caid.cad_geometry import cad_nurbs
nrb = geo[0]
C = np.zeros_like(nrb.points)
C[...,0]=u
nrb_f = cad_nurbs(nrb.knots, C, weights=nrb.weights)
from caid.cad_geometry import cad_geometry
geo_f = cad_geometry()
geo_f.append(nrb_f)
geo_f.save("u.xml")
geo.save("geo.xml")
# ...
u = lambda x,y : sin ( kx * x ) * sin ( ky * y )
testcase['u'] = u
# ...
# ...
# rhs
# ...
f = lambda x,y : ( kx**2 + ky**2 ) * sin ( kx * x ) * sin ( ky * y )
testcase['f'] = f
# ...
# ...
points = np.asarray([[[0.,0.],[0.,1.]],[[1.,0.],[1.,1.]]])
nrb = bilinear(points)
geo = cg.cad_geometry(geo=nrb)
geo.refine(id=0,list_p=[2, 2])
tx = np.linspace(0.,1.,7)[1:-1]
ty = np.linspace(0.,1.,7)[1:-1]
geo.refine(id=0, list_t=[tx, ty])
# ...
PDE = EllipticPDE(geometry=geo, testcase=testcase)
PDE.assembly()
# ...
sl = spsolve(matrix=PDE.S_V)
print(sl)
size = PDE.V.size
def OnClick(self, event):
ID = event.GetId()
if ID == self.BCK_ID:
self.parent.ShowAction(self.parent.geometryActions)
if ID == self.GO_ID:
# inspector = self.parent
wk = self.parent.WorkGroup
geo = wk.inspector.currentGeometry
geoItem = wk.inspector.currentGeometryItem
_geo = cad_geometry()
for nrb in geo:
geo_t = cad_geometry()
geo_t.append(nrb)
# ... refinement
list_t = None
if self.n.sum() > 0:
list_t = []
for axis in range(0, nrb.dim):
ub = nrb.knots[axis][0]
ue = nrb.knots[axis][-1]
t = []
if self.n[axis] > 0:
t = np.linspace(ub, ue, self.n[axis] + 2)[1:-1]
list_t.append(t)
list_p = None
if self.p.sum() > 0:
list_p = []
for axis in range(0, nrb.dim):
list_p.append(
np.max(self.p[axis] - nrb.degree[axis], 0))
list_m = None
if self.m.sum() > 0:
list_m = []
for axis in range(0, nrb.dim):
list_m.append(self.m[axis])
geo_t.refine(list_t=list_t, list_p=list_p, list_m=list_m)
_geo.append(geo_t[0])
# macro recording
if wk.macroRecording:
macro_script = wk.macro_script
macro_script.new_line()
macro_script.append("# ... refine geometry")
macro_script.append("_geo = cad_geometry()")
geo_id = wk.list_geo.index(geo)
macro_script.append("geo_id = " + str(geo_id))
macro_script.append("geo = geometries[geo_id]")
macro_script.append("for nrb in geo:")
macro_script.append("\tgeo_t = cad_geometry()")
macro_script.append("\tgeo_t.append(nrb)")
str_list_t = [list(ts) for ts in list_t]
macro_script.append("\tlist_t = " + str(str_list_t))
macro_script.append("\tlist_p = " + str(list_p))
macro_script.append("\tlist_m = " + str(list_m))
macro_script.append(
"\tgeo_t.refine(list_t=list_t, list_p=list_p, list_m=list_m)"
)
macro_script.append("\t_geo.append(geo_t[0])")
macro_script.append("wk.add_geometry(geometry(_geo))")
macro_script.append("# ...")
# ...
_geo.set_internal_faces(geo.internal_faces)
_geo.set_external_faces(geo.external_faces)
_geo.set_connectivity(geo.connectivity)
geo_new = geometry(_geo)
geo_newItem = wk.add_geometry(geo_new)
def OnClick(self, event):
ID = event.GetId()
if ID == self.NEW_ID:
self.parent.ShowAction(self.parent.geometryActionsNew)
if ID == self.ADD_ID:
self.parent.ShowAction(self.parent.geometryActionsAdd)
if ID == self.DEL_ID:
# inspector = self.parent
wk = self.parent.WorkGroup
geo = wk.inspector.currentGeometry
geoItem = wk.inspector.currentGeometryItem
geo_id = wk.list_geo.index(geo)
wk.remove_geometry(geoItem, geo)
# macro recording
if wk.macroRecording:
macro_script = wk.macro_script
macro_script.new_line()
macro_script.append("# ... delete geometry")
macro_script.append("geo_id = " + str(geo_id))
macro_script.append("geo = geometries[geo_id]")
macro_script.append("geoItem = geo.treeItem")
macro_script.append("wk.remove_geometry(geoItem, geo)")
macro_script.append("# ...")
if ID == self.DUP_ID:
# inspector = self.parent
wk = self.parent.WorkGroup
geo = wk.inspector.currentGeometry
geo_new = wk.inspector.currentGeometry.copy()
geo_newItem = wk.add_geometry(geo_new)
# macro recording
if wk.macroRecording:
macro_script = wk.macro_script
macro_script.new_line()
macro_script.append("# ... copy geometry")
geo_id = wk.list_geo.index(geo)
macro_script.append("geo_id = " + str(geo_id))
macro_script.append("geo = geometries[geo_id]")
macro_script.append("_geo = geo.copy()")
macro_script.append("wk.add_geometry(geometry(_geo))")
macro_script.append("# ...")
if ID == self.PLJ_ID:
# inspector = self.parent
wk = self.parent.WorkGroup
geo = wk.inspector.currentGeometry
import matplotlib.pyplot as plt
try:
MeshResolution = geo.list_patchInfo[0].steps[0]
except:
MeshResolution = 10
geo.plotJacobians(MeshResolution=MeshResolution)
plt.colorbar()
plt.show()
if ID == self.PLM_ID:
# inspector = self.parent
wk = self.parent.WorkGroup
geo = wk.inspector.currentGeometry
import matplotlib.pyplot as plt
MeshResolution = geo.list_patchInfo[0].steps[0]
geo.plotMesh(MeshResolution=MeshResolution)
plt.show()
if ID == self.EXP_ID:
from global_vars import CAIDwildcard
# Create a save file dialog
dialog = wx.FileDialog(None,
style=wx.FD_SAVE | wx.FD_OVERWRITE_PROMPT,
wildcard=CAIDwildcard)
# Show the dialog and get user input
if dialog.ShowModal() == wx.ID_OK:
ls_file = dialog.GetPath()
wk = self.parent.WorkGroup
geo = wk.inspector.currentGeometry
geo.save(ls_file)
# macro recording
if wk.macroRecording:
macro_script = wk.macro_script
macro_script.new_line()
macro_script.append("# ... export geometry")
geo_id = wk.list_geo.index(geo)
macro_script.append("geo_id = " + str(geo_id))
macro_script.append("geo = geometries[geo_id]")
macro_script.append("filename = \"" + ls_file + "\"")
macro_script.append("geo.save(filename)")
macro_script.append("# ...")
# Destroy the dialog
dialog.Destroy()
if ID == self.EDT_ID:
from Editor import Editor
# inspector = self.parent
wk = self.parent.WorkGroup
geo = wk.inspector.currentGeometry
edt = Editor(wk.parent, -1, 'Editor')
filename = edt.DoOpenGeometryAsFile(geo)
# wait until the editor is closed
createNewGeo = False
while edt:
if edt.modify:
createNewGeo = True
wx.MilliSleep(10)
wx.GetApp().Yield()
if createNewGeo:
newgeo = cad_geometry(filename)
geo_new = geometry(newgeo)
geo_newItem = wk.add_geometry(geo_new)
try:
os.remove(filename)
except:
pass
if ID == self.TRS_ID:
self.parent.objectActionsTranslate.asGeometry()
self.parent.ShowAction(self.parent.objectActionsTranslate)
if ID == self.ROT_ID:
self.parent.objectActionsRotate.asGeometry()
self.parent.ShowAction(self.parent.objectActionsRotate)
if ID == self.SCL_ID:
self.parent.objectActionsScale.asGeometry()
self.parent.ShowAction(self.parent.objectActionsScale)
if ID == self.REF_ID:
self.parent.ShowAction(self.parent.geometryActionsRefine)
if ID == self.PEX_ID:
self.parent.objectActionsPolarExtrude.asGeometry()
self.parent.ShowAction(self.parent.objectActionsPolarExtrude)
if ID == self.EXD_ID:
# inspector = self.parent
wk = self.parent.WorkGroup
geo = wk.inspector.currentGeometry
geoItem = wk.inspector.currentGeometryItem
list_geo = geo.expand()
for _geo in list_geo:
geo_new = geometry(_geo)
geo_newItem = wk.add_geometry(geo_new)
# macro recording
if wk.macroRecording:
macro_script = wk.macro_script
macro_script.new_line()
macro_script.append("# ... expand geometry")
geo_id = wk.list_geo.index(geo)
macro_script.append("geo_id = " + str(geo_id))
macro_script.append("geo = geometries[geo_id]")
macro_script.append("list_geo = geo.expand()")
macro_script.append("for _geo in list_geo:")
macro_script.append("\twk.add_geometry(geometry(_geo))")
macro_script.append("# ...")
if ID == self.IMP_ID:
# Create an open file dialog
dialog = wx.FileDialog(None, style=wx.FD_OPEN)
# Show the dialog and get user input
if dialog.ShowModal() == wx.ID_OK:
filename = dialog.GetPath()
# TODO update recent files
# self.UpdateRecentFiles(filename)
geo = cad_geometry(filename)
wk = self.parent.WorkGroup
wk.add_geometry(geometry(geo))
# macro recording
if wk.macroRecording:
macro_script = wk.macro_script
macro_script.new_line()
macro_script.append("# ... import geometry")
macro_script.append("filename = \"" + filename + "\"")
macro_script.append("_geo = cad_geometry(filename)")
macro_script.append("wk.add_geometry(geometry(_geo))")
macro_script.append("# ...")
# Destroy the dialog
dialog.Destroy()
if ID == self.REI_ID:
# inspector = self.parent
wk = self.parent.WorkGroup
geo = wk.inspector.currentGeometry
geoItem = wk.inspector.currentGeometryItem
geo.initialize_info()
# macro recording
if wk.macroRecording:
macro_script = wk.macro_script
macro_script.new_line()
macro_script.append("# ... initialize info geometry")
geo_id = wk.list_geo.index(geo)
macro_script.append("geo_id = " + str(geo_id))
macro_script.append("geo = geometries[geo_id]")
macro_script.append("geo.initialize_info()")
macro_script.append("wk.Refresh(inspector=True)")
macro_script.append("# ...")
wk.Refresh(inspector=True)
if ID == self.UPI_ID:
# inspector = self.parent
wk = self.parent.WorkGroup
geo = wk.inspector.currentGeometry
geoItem = wk.inspector.currentGeometryItem
geo.update()
# macro recording
if wk.macroRecording:
macro_script = wk.macro_script
macro_script.new_line()
macro_script.append("# ... update geometry")
geo_id = wk.list_geo.index(geo)
macro_script.append("geo_id = " + str(geo_id))
macro_script.append("geo = geometries[geo_id]")
macro_script.append("geo.update()")
macro_script.append("wk.Refresh(inspector=True)")
macro_script.append("# ...")
wk.Refresh(inspector=True)
if ID == self.T5P_ID:
# inspector = self.parent
wk = self.parent.WorkGroup
item = wk.inspector.tree.GetSelection()
geo_bnd = wk.inspector.tree.GetItemData(item)
face = geo_bnd.face
faceItem = wk.inspector.tree.GetItemParent(item)
patchItem = wk.inspector.tree.GetItemParent(faceItem)
geoItem = wk.inspector.tree.GetItemParent(patchItem)
geo = wk.inspector.tree.GetItemData(geoItem)
_geo = cad_geometry()
_geo.append(geo[0])
geo_new = geometry(_geo.to5patchs(face))
geo_newItem = wk.add_geometry(geo_new)
# macro recording
if wk.macroRecording:
macro_script = wk.macro_script
macro_script.new_line()
macro_script.append("# ... to-5-patchs geometry")
geo_id = wk.list_geo.index(geo)
macro_script.append("geo_id = " + str(geo_id))
macro_script.append("geo = geometries[geo_id]")
macro_script.append("_geo = cad_geometry()")
macro_script.append("_geo.append(geo[0])")
macro_script.append("face = " + str(face))
macro_script.append("_geo = _geo.to5patchs(face)")
macro_script.append("wk.add_geometry(geometry(_geo))")
macro_script.append("wk.Refresh()")
macro_script.append("# ...")
wk.Refresh()
def OnClick(self, event):
# inspector = self.parent
wk = self.parent.WorkGroup
ID = event.GetId()
if ID == self.BCK_ID:
self.parent.ShowAction(self.parent.geometryActions)
if ID == self.EMP_ID:
geo = cad_geometry()
wk.add_geometry(geometry(geo))
if wk.macroRecording:
macro_script = wk.macro_script
macro_script.new_line()
macro_script.append("# ... create object")
macro_script.append("_geo = cad_geometry()")
macro_script.append("wk.add_geometry(geometry(_geo))")
macro_script.append("# ...")
if ID == self.LIN_ID:
from caid.cad_geometry import line as domain
geo = domain()
wk.add_geometry(geometry(geo))
if wk.macroRecording:
macro_script = wk.macro_script
macro_script.new_line()
macro_script.append("# ... create object")
macro_script.append("_geo = line()")
macro_script.append("wk.add_geometry(geometry(_geo))")
macro_script.append("# ...")
if ID == self.LNR_ID:
self.parent.objectActionsCreateLinear.asGeometry()
self.parent.ShowAction(self.parent.objectActionsCreateLinear)
if ID == self.ARC_ID:
self.parent.objectActionsCreateArc.asGeometry()
self.parent.ShowAction(self.parent.objectActionsCreateArc)
if ID == self.CRV_ID:
self.parent.objectActionsCurve.asGeometry()
self.parent.ShowAction(self.parent.objectActionsCurve)
if ID == self.SQR_ID:
from caid.cad_geometry import square as domain
geo = domain()
wk.add_geometry(geometry(geo))
# macro recording
if wk.macroRecording:
macro_script = wk.macro_script
macro_script.new_line()
macro_script.append("# ... create object")
macro_script.append("_geo = square()")
macro_script.append("wk.add_geometry(geometry(_geo))")
macro_script.append("# ...")
if ID == self.BIL_ID:
self.parent.objectActionsCreateBilinear.asGeometry()
self.parent.ShowAction(self.parent.objectActionsCreateBilinear)
if ID == self.CRC_ID:
self.parent.objectActionsCreateCircle.asGeometry()
self.parent.ShowAction(self.parent.objectActionsCreateCircle)
if ID == self.QCR_ID:
self.parent.objectActionsCreateQuartCircle.asGeometry()
self.parent.ShowAction(self.parent.objectActionsCreateQuartCircle)
if ID == self.ANL_ID:
self.parent.objectActionsCreateAnnulus.asGeometry()
self.parent.ShowAction(self.parent.objectActionsCreateAnnulus)
if ID == self.CR5_ID:
self.parent.objectActionsCreateCircle_5mp.asGeometry()
self.parent.ShowAction(self.parent.objectActionsCreateCircle_5mp)
if ID == self.PC5_ID:
self.parent.objectActionsCreatePinched_Circle_5mp.asGeometry()
self.parent.ShowAction(
self.parent.objectActionsCreatePinched_Circle_5mp)
if ID == self.TRL_ID:
self.parent.objectActionsCreateTriangle.asGeometry()
self.parent.ShowAction(self.parent.objectActionsCreateTriangle)
if ID == self.CUB_ID:
# from caid.cad_geometry import cube as domain
from caid.cad_geometry import trilinear as domain
geo = domain()
wk.add_geometry(geometry(geo))
nx = 2 * nx + 1
for i in range(0, nstagey):
ny = 2 * ny + 1
geo = domain(n=[nx_in, ny_in], p=[px_in, py_in])
nrb = geo[0]
C = np.zeros_like(nrb.points)
# import the solution
_C = np.genfromtxt("u.txt")
shape = list(nrb.shape)
C = np.zeros(shape + [3])
C[..., 0] = _C
srf = cad_nurbs(nrb.knots, C, weights=nrb.weights)
geo_f = cad_geometry()
geo_f.append(srf)
geo_tmp = domain(n=[nx, ny], p=[px, py])
tx = [t for t in geo_tmp[0].knots[0] if t not in geo[0].knots[0]]
ty = [t for t in geo_tmp[0].knots[1] if t not in geo[0].knots[1]]
geo_f.refine(list_t=[tx, ty], list_p=[px - px_in, py - py_in])
u = geo_f[0].points[..., 0]
import pylab as pl
pl.contourf(u)
pl.colorbar()
pl.show()
print(u.shape)
np.savetxt("u_ini.txt", u)
# -*- coding: UTF-8 -*-
import sys
import numpy as np
import caid.cad_geometry as cg
# ...
try:
ls_file_in = sys.argv[1]
except:
print("You must specify a domain description file.")
sys.exit(0)
# ...
# ...
geo = cg.cad_geometry(ls_file_in)
dim = geo.dim
# ...
# ...
if dim == 1:
try:
nin = [int(sys.argv[2])]
pin = [int(sys.argv[3])]
except:
print("Incompatible data. The script will stop!")
sys.exit(0)
try:
ls_file_out = sys.argv[4]
except:
ls_file_out = "domain.xml"