def plot_data(self):
hatching = plot_data.HatchingSet(0.5, 3)
edge_style = plot_data.EdgeStyle(line_width=1,
color_stroke=BLUE,
dashline=[])
surface_style = plot_data.SurfaceStyle(color_fill=WHITE,
opacity=1,
hatching=hatching)
pt1 = vm.Point2D(0, 0)
pt2 = vm.Point2D(0, self.ly)
pt3 = vm.Point2D(self.lx, self.ly)
pt4 = vm.Point2D(self.lx, 0)
c1 = vm.wires.Contour2D([
vm.edges.LineSegment2D(pt1, pt2),
vm.edges.LineSegment2D(pt2, pt3),
vm.edges.LineSegment2D(pt3, pt4),
vm.edges.LineSegment2D(pt4, pt1)
])
contours = [c1]
for i in range(5):
vector = vm.Vector2D(random.uniform(0, 2), random.uniform(0, 2))
c2 = c1.translation(vector, copy=True)
contours.append(c2)
plot_datas = [
c.plot_data(edge_style=edge_style, surface_style=surface_style)
for c in contours
]
return plot_data.PrimitiveGroup(primitives=plot_datas)
def plot_data(self):
hatching = plot_data.HatchingSet(0.1)
edge_style = plot_data.EdgeStyle(line_width=1)
surface_style = plot_data.SurfaceStyle(hatching=hatching)
contour = self.contour()
plot_datas = contour.plot_data(edge_style=edge_style, surface_style=surface_style)
return [plot_data.PrimitiveGroup(primitives=[plot_datas])]
def plot_data(self):
edge_style = plot_data.EdgeStyle()
rgbs = [[192, 11, 11], [14, 192, 11], [11, 11, 192]]
return plot_data.ParallelPlot(elements=self.points,
edge_style=edge_style,
disposition='vertical',
axes=['x', 'y', 'z', 'm'],
rgbs=rgbs)
def plot_data(self, full_contour=True):
hatching = plot_data.HatchingSet(0.1)
edge_style = plot_data.EdgeStyle(line_width=1)
surface_style = plot_data.SurfaceStyle(hatching=hatching)
contour = self.contour(full_contour=full_contour)
contour_data = contour.plot_data(edge_style=edge_style,
surface_style=surface_style)
return [plot_data.PrimitiveGroup(primitives=[contour_data])]
def plot_data(self):
plot_datas = []
hatching = plot_data.HatchingSet(0.1)
edge_style = plot_data.EdgeStyle(line_width=1)
surface_style = plot_data.SurfaceStyle(hatching=hatching)
for panel, grid in zip(self.panels, self.grids):
c = panel.contour()
contour = c.translation(grid, copy=True)
plot_datas.append(contour.plot_data(edge_style=edge_style, surface_style=surface_style))
contour_inter = self.intersection_area()
plot_datas.append(contour_inter.plot_data(edge_style=edge_style, surface_style=plot_data.SurfaceStyle()))
return plot_datas
def data_set1(self):
attributes = ['x', 'y']
tooltip = plot_data.Tooltip(attributes=attributes)
point_style = plot_data.PointStyle(color_fill=RED, color_stroke=BLACK)
edge_style = plot_data.EdgeStyle(color_stroke=BLUE, dashline=[10, 5])
elements = []
for x, y in zip(self.x, self.y1):
elements.append({'x': x, 'y': y})
return plot_data.Dataset(elements=elements,
name='y = sin(x)',
tooltip=tooltip,
point_style=point_style,
edge_style=edge_style)
def plot_data(self):
color_fill = LIGHTBLUE
color_stroke = GREY
point_style = plot_data.PointStyle(color_fill=color_fill,
color_stroke=color_stroke)
axis = plot_data.Axis()
attributes = ['x', 'y']
tooltip = plot_data.Tooltip(attributes=attributes)
objects = [
plot_data.Scatter(tooltip=tooltip,
x_variable=attributes[0],
y_variable=attributes[1],
point_style=point_style,
elements=self.points,
axis=axis)
]
edge_style = plot_data.EdgeStyle()
rgbs = [[192, 11, 11], [14, 192, 11], [11, 11, 192]]
objects.append(
plot_data.ParallelPlot(elements=self.points,
edge_style=edge_style,
disposition='vertical',
axes=['x', 'y', 'z', 'm'],
rgbs=rgbs))
coords = [(0, 0), (500, 0)]
sizes = [
plot_data.Window(width=500, height=500),
plot_data.Window(width=500, height=500)
]
return plot_data.MultiplePlots(elements=self.points,
plots=objects,
sizes=sizes,
coords=coords)
def plot_data(self):
edge_style = plot_data.EdgeStyle(line_width=1, color_stroke=RED)
plot_datas = self.panel_combination.plot_data()
circles = self.contour()
plot_datas.extend([c.plot_data(edge_style=edge_style) for c in circles])
return [plot_data.PrimitiveGroup(primitives=plot_datas)]
