def btn_addMultiPropOnButtonClick( self, event ):
# 默认第一个是放进Outer的，后面来的就放在inner里
if len(self.MP.outerLoop) == 0 :
_args = self.point_list
self.MP.setOuterLoop(*_args)
else:
_args = self.point_list
self.MP.addInnerLoop(*_args)
# procedure -- remove all items of list，as well as the data of point list
self.m_listBox2.Clear()
self.point_list = []
Path = DrawGeometry(self.MP)
Path.Draw()
self.plotpanel.clear()
for i in Path._paths:
m,n=zip(*i)
self.plotpanel.oplot(m,n,fullbox=False,axes_style='open')
for i in Path._dimen:
m, n = zip(*i)
self.plotpanel.oplot(m,n,fullbox=False,axes_style='open', linewidth=1, color='green')
# 遍历字典，画上标注
for key, value in Path._text.items():
x = key[0]
y = key[1]
self.plotpanel.add_text(str(value), x, y, size=4)
def btn_genCompOnButtonClick( self, event ):
# 如果有2个复连通的话就把他们同时画出来。然后直接计算，边上再添加一个数据清空的btn
self.ShowResult(self.Comp)
Comp_Path = DrawGeometry(self.Comp)
Comp_Path.Draw()
self.plotpanel.clear()
for i in Comp_Path._paths:
m,n=zip(*i)
self.plotpanel.oplot(m,n,fullbox=False,axes_style='open')
for i in Comp_Path._dimen:
m, n = zip(*i)
self.plotpanel.oplot(m,n,fullbox=False,axes_style='open', linewidth=1, color='green')
# 遍历字典，画上标注
for key, value in Comp_Path._text.items():
x = key[0]
y = key[1]
self.plotpanel.add_text(str(value), x, y, size=4)
def showItemOnDClick( self, event ):
print 'double _click'
n = self.m_listBox3.GetSelection()
multisection = self.Comp.dataResource[n]
self.ShowResult(multisection)
Path = DrawGeometry(multisection)
Path.Draw()
self.plotpanel.clear()
for i in Path._paths:
m,n=zip(*i)
self.plotpanel.oplot(m,n,fullbox=False,axes_style='open')
for i in Path._dimen:
m, n = zip(*i)
self.plotpanel.oplot(m,n,fullbox=False,axes_style='open', linewidth=1, color='green')
# 遍历字典，画上标注
for key, value in Path._text.items():
x = key[0]
y = key[1]
self.plotpanel.add_text(str(value), x, y, size=4)
from ABKSectionPoint import *
from DrawSection import DrawGeometry
from wxmplot import PlotApp
if __name__ == "__main__":
Tsec = NshapeSection(30,12,20,80,5,5,5)
geo = GeoCalculator(Tsec)
geo.Solve()
print geo.Area()
p = geo.Centroid()
alfa = geo.tan_alfa()
print p
print "a=" + str(alfa)
app = PlotApp()
Path = DrawGeometry(Tsec)
Path.Draw()
#newIsec = Isec.moveCoor(-p[0], -p[1])
#origin = Point(0,0)
#newIsec = Isec.rotate(pi/4, p)
#newIsec = Isec.transform(-p[0],-p[1],-alfa, origin)
#geo1 = GeoCalculator(newIsec)
#geo1.Solve()
#print geo1.Area()
#print geo1.Centroid()
for i in Path._paths:
m,n=zip(*i)
def m_btn_calculationOnButtonClick(self, event):
# µã»÷btnÖ®ºó£¬»ñµÃ´«ÈëµÄ²ÎÊý¡£
# ͨ¹ý»ñµÃµÄ²ÎÊýÉú³É³ö½ØÃæ¶ÔÏó¡£
# ͨ¹ý½ØÃæ¼ÆË㣬µÃµ½¼¸ºÎÊýÖµ
# ͨ¹ýDraw¶ÔÏó»Í¼£¬»³ö¼¸ºÎͼÏñ¡£
_args = list()
for num in range(len(self.grid_value[self._section_type])):
_args.append(float(self.m_grid_params_defs.GetCellValue(num, 1)))
sectionType = self._section_type
if sectionType == u"¹¤×Ö¸Ö":
section = ISection(*_args)
elif sectionType == u"Ö±½Ç¸Ö":
section = rightAngleSection(*_args)
elif sectionType == u"²Û¸Ö":
section = grooveSection(*_args)
#elif sectionType == u"CÐ͸Ö":
#pass
elif sectionType == u"TÐ͸Ö":
section = TshapeSection(*_args)
elif sectionType == u"JÐ͸Ö":
section = JshapeSection(*_args)
elif sectionType == u"ñÐ͸Ö":
section = NshapeSection(*_args)
geo = GeoCalculator(section)
geo.Solve()
self._args = geo._args
if "Area" in self._args:
if self._args['Area'] < 0.0000001:
res = 0
else:
res = self._args['Area']
self.m_propertyGridItem2.SetValue(str(res))
if "Sx" in self._args:
if self._args['Sx'] < 0.0000001:
res = 0
else:
res = self._args['Sx']
self.m_propertyGridItem3.SetValue(str(res))
if "Sy" in self._args:
if self._args['Sy'] < 0.0000001:
res = 0
else:
res = self._args['Sy']
self.m_propertyGridItem42.SetValue(str(res))
if "Ix" in self._args:
if self._args['Ix'] < 0.0000001:
res = 0
else:
res = self._args['Ix']
self.m_propertyGridItem4.SetValue(str(res))
if "Iy" in self._args:
if self._args['Iy'] < 0.0000001:
res = 0
else:
res = self._args['Iy']
self.m_propertyGridItem5.SetValue(str(res))
if "Ixy" in self._args:
if self._args['Ixy'] < 0.0000001:
res = 0
else:
res = self._args['Ixy']
self.m_propertyGridItem7.SetValue(str(res))
if "centroid" in self._args:
res = self._args['centroid']
if res[0] < 0.0000001:
res = [0, res[1]]
if res[1] < 0.0000001:
res = [res[0], 0]
self.m_propertyGridItem8.SetValue(str(res))
if "tan_alfa" in self._args:
if self._args['tan_alfa'] < 0.0000001:
res = 0
else:
res = self._args['tan_alfa']
self.m_propertyGridItem9.SetValue(str(res))
if "ix" in self._args:
if self._args['ix'] < 0.0000001:
res = 0
else:
res = self._args['ix']
self.m_propertyGridItem61.SetValue(str(res))
if "iy" in self._args:
if self._args['iy'] < 0.0000001:
res = 0
else:
res = self._args['iy']
self.m_propertyGridItem62.SetValue(str(res))
Path = DrawGeometry(section)
Path.Draw()
self.plotpanel.clear()
for i in Path._paths:
m, n = zip(*i)
self.plotpanel.oplot(m, n, fullbox=False, axes_style='open')
for i in Path._dimen:
m, n = zip(*i)
self.plotpanel.oplot(m,
n,
fullbox=False,
axes_style='open',
linewidth=1,
color='green')
# ±éÀú×ֵ䣬»Éϱê×¢
for key, value in Path._text.items():
x = key[0]
y = key[1]
self.plotpanel.add_text(str(value), x, y, size=4)
## -*- coding: utf-8 -*-
from DrawSection import DrawGeometry
from wxmplot import PlotApp
from ABKSectionPoint import *
if __name__ == "__main__":
rightAngle = rightAngleSection(25, 25, 4, 4, 3.5)
# a = rightAngle.cen_ArcPoint
geo = GeoCalculator(rightAngle)
geo.Solve()
print geo.Area()
p = geo.Centroid()
alfa = geo.tan_alfa()
app = PlotApp()
Path = DrawGeometry(rightAngle)
Path.Draw()
# 不应许修改的，那就新生产一个对象
#newrightAngle = rightAngle.moveCoor(-p[0], -p[1])
origin = Point(0, 0)
#newrightAngle = rightAngle.rotate(pi/4, p)
newrightAngle = rightAngle.transform(-p[0], -p[1], -alfa, origin)
geo1 = GeoCalculator(newrightAngle)
geo1.Solve()
print geo1.Area()
print geo1.Centroid()
Q = Polygon(p9,p10,p11)
MP = MultiConnectPoly()
#MP.setOuterLoop(p5,p6,p7,p8)
MP.setOuterLoop(Q)
#MP.addInnerLoop(p1,p2,p3,p4)
MP.addInnerLoop(p5,p6,p7,p8)
MP.addInnerLoop(p)
MP.addInnerLoop(R)
MP.addInnerLoop(p5,p6,p7,p8)
print MP.getpolylist()
geo = GeoCalculator(MP)
geo.Solve()
print geo.Area()
print "~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~"
app = PlotApp()
Path = DrawGeometry(MP)
Path.Draw()
for i in Path._paths:
m,n=zip(*i)
app.oplot(m,n,title='Example PlotApp', label='a',
ylabel=r'$k^2\chi(k) $',
xlabel=r'$ k \ (\AA^{-1}) $')
app.write_message('Try Help->Quick Reference')
app.run()
p8 = Point(0, 2)
T = Polygon(p5, p6, p7, p8)
Mpt = MultiConnectPoly()
Mpt.setOuterLoop(T)
comSec.addToSections(Mp)
comSec.addToSections(Mpt)
geo = GeoCalculator(comSec)
geo.Solve()
print geo.Area()
print "a"
app = PlotApp()
Path = DrawGeometry(comSec)
Path.Draw()
for i in Path._paths:
m, n = zip(*i)
app.oplot(m,
n,
title='Example PlotApp',
label='a',
ylabel=r'$k^2\chi(k) $',
xlabel=r'$ k \ (\AA^{-1}) $')
app.write_message('Try Help->Quick Reference')
app.run()