def __resize_fired(self, sender, args):
''' This method is called whenever this panel is resized. '''
# adjust the size of our PictureBox as needed to fulfill our contract
panel_bds = self.Bounds
a = Rectangle(panel_bds.X, panel_bds.Y,\
self.Size.Width, self.Size.Width / self._ratio)
b = Rectangle(panel_bds.X, panel_bds.Y,\
self.Size.Height * self._ratio, self.Size.Height)
if panel_bds.Contains(a):
self._picbox.Size = a.Size
self._picbox.Location = Point(0, (self.Size.Height - a.Height) / 2)
else:
self._picbox.Size = b.Size
self._picbox.Location = Point((self.Size.Width - b.Width) / 2, 0)
def __install_persistent_bounds(self, a, b):
"""
Called when this Form is just about to be displayed. This method tries to
restore the previously used location/size settings, and it also checks
them to make sure that they are still valid on the current monitor
configuration (and fixes them if they are not!)
"""
self.__load_bounds()
# compute the center of our current bounding rectangle
b = self.Bounds
center = Point(b.X+b.Width/2, b.Y+b.Height/2)
# if the center of this window is not onscreen, make it so that it is
screens = Screen.AllScreens
screen_bounds = screens[0].Bounds
for screen in screens:
screen_bounds = Rectangle.Union(screen_bounds, screen.Bounds)
if not screen_bounds.Contains(center):
log.debug("WARNING: form's location was offscreen; adjusted it")
self.CenterToScreen()
self.__bounds_changed = True
else:
self.__bounds_changed = False
def average_hash_and_sizes(self):
height = 0
width = 0
if isJython():
image = ImageIO.read(File(self.image_path))
height = image.getHeight()
width = image.getWidth()
newImage = BufferedImage(self.hash_size, self.hash_size,
BufferedImage.TYPE_INT_ARGB)
g = newImage.createGraphics()
g.setRenderingHint(RenderingHints.KEY_INTERPOLATION,
RenderingHints.VALUE_INTERPOLATION_BICUBIC)
g.setRenderingHint(RenderingHints.KEY_RENDERING,
RenderingHints.VALUE_RENDER_QUALITY)
g.setRenderingHint(RenderingHints.KEY_ANTIALIASING,
RenderingHints.VALUE_ANTIALIAS_ON)
g.drawImage(image, 0, 0, self.hash_size, self.hash_size, None)
g.dispose()
allchannelpixels = [[], [], [], []]
for i in range(self.hash_size):
for j in range(self.hash_size):
pixel = int(newImage.getRGB(i, j))
allchannelpixels[0].append((pixel >> 16) & 0xFF)
allchannelpixels[1].append((pixel >> 8) & 0xFF)
allchannelpixels[2].append((pixel) & 0xFF)
allchannelpixels[3].append((pixel >> 24) & 0xFF)
elif isIronPython():
srcImage = Bitmap(self.image_path)
height = srcImage.Height
width = srcImage.Width
newImage = Bitmap(self.hash_size, self.hash_size)
gr = Graphics.FromImage(newImage)
gr.SmoothingMode = Drawing2D.SmoothingMode.AntiAlias
gr.InterpolationMode = Drawing2D.InterpolationMode.HighQualityBicubic
gr.PixelOffsetMode = Drawing2D.PixelOffsetMode.HighQuality
gr.DrawImage(srcImage,
Rectangle(0, 0, self.hash_size, self.hash_size))
allchannelpixels = [[], [], [], []]
for i in range(self.hash_size):
for j in range(self.hash_size):
pixel = newImage.GetPixel(i, j)
allchannelpixels[0].append(int(pixel.R))
allchannelpixels[1].append(int(pixel.G))
allchannelpixels[2].append(int(pixel.B))
allchannelpixels[3].append(int(pixel.A))
else:
self.image = Image.open(self.image_path)
width, height = self.image.size
image = self.image.resize((self.hash_size, self.hash_size),
Image.ANTIALIAS)
# image.show()
allchannelpixels = [
list(channel.getdata()) for channel in image.split()
]
bits = []
for pixels in allchannelpixels:
bits.append(self.getBitString(pixels))
return bits, width, height
def OnMouseMove(self, sender, e):
if self.mouse_down and self.snip_enabled:
x1 = Math.Min(e.X, self.mouse_down.X)
y1 = Math.Min(e.Y, self.mouse_down.Y)
x2 = Math.Max(e.X, self.mouse_down.X)
y2 = Math.Max(e.Y, self.mouse_down.Y)
self.snip_rectangle = Rectangle(x1, y1, x2 - x1, y2 - y1)
self.Invalidate()
def on_mouse_move(self, sender, e):
if self.mouse_down and self.snip_enabled:
x1 = int(min(e.X, self.mouse_down.X))
y1 = int(min(e.Y, self.mouse_down.Y))
x2 = int(max(e.X, self.mouse_down.X))
y2 = int(max(e.Y, self.mouse_down.Y))
self.snip_rectangle = Rectangle(x1, y1, x2 - x1, y2 - y1)
self.Invalidate()
def on_paint(self, sender, e):
if self.snip_enabled and self.snip_rectangle is not None:
br = SolidBrush(Color.FromArgb(120, Color.White))
rc = self.snip_rectangle
pen = Pen(Color.Red, 3.0)
x1 = rc.X
x2 = rc.X + rc.Width
y1 = rc.Y
y2 = rc.Y + rc.Height
e.Graphics.FillRectangle(br, Rectangle(0, 0, x1, self.Height))
e.Graphics.FillRectangle(
br, Rectangle(x2, 0, self.Width - x2, self.Height))
e.Graphics.FillRectangle(br, Rectangle(x1, 0, x2 - x1, y1))
e.Graphics.FillRectangle(
br, Rectangle(x1, y2, x2 - x1, self.Height - y2))
e.Graphics.DrawRectangle(pen, rc)
def pick(snip=False):
snipper = PickSnipTool(PickSnipTool.take_screenshot(), snip=snip)
while True:
result = snipper.ShowDialog()
if result in [DialogResult.OK, DialogResult.Cancel]:
break
if snipper.mouse_down_seconds == 1:
Mouse.Instance.Click(snipper.mouse_down)
time.sleep(0.5)
snipper.BackgroundImage = PickSnipTool.take_screenshot()
if result == DialogResult.OK and snip:
if snipper.snip_rectangle.Width and snipper.snip_rectangle.Height:
img = Bitmap(
snipper.snip_rectangle.Width,
snipper.snip_rectangle.Height,
)
gr = Graphics.FromImage(img)
gr.DrawImage(
snipper.BackgroundImage,
Rectangle(0, 0, img.Width, img.Height),
snipper.snip_rectangle,
GraphicsUnit.Pixel,
)
fp = MemoryStream()
img.Save(fp, ImageFormat.Png)
return {
'bytes': bytes(bytearray(fp.ToArray())),
}
return {}
elif result == DialogResult.OK:
if (snipper.mouse_down_seconds
and snipper.mouse_down_seconds <= snipper.click_timeout):
Mouse.Instance.Click(snipper.mouse_down)
time.sleep(0.5)
el = AutomationElement.FromPoint(snipper.mouse_up)
result = {
prop.ProgrammaticName.split('.', 1)[-1]:
el.GetCurrentPropertyValue(prop)
for prop in el.GetSupportedProperties()
}
result.update({
'NameProperty':
el.GetCurrentPropertyValue(el.NameProperty),
'ControlTypeProperty':
el.GetCurrentPropertyValue(
el.ControlTypeProperty, ).ProgrammaticName.split('.',
1)[-1],
'AutomationIdProperty':
el.GetCurrentPropertyValue(el.AutomationIdProperty, ),
})
return result
else:
return {}
def OnMouseDown(self, sender, e):
self.mouse_down = Point(e.Location.X, e.Location.Y)
self.mouse_down_button = e.Button
self.mouse_down_seconds = 0
if not self.snip_enabled:
self.mouse_down_timer = Timer()
self.mouse_down_timer.Interval = 1000
self.mouse_down_timer.Tick += self.OnTimerTick
self.mouse_down_timer.Start()
self.snip_rectangle = Rectangle(e.Location, Size(0, 0))
def __drawFolderThumbnail(self, parent):
size = ThumbnailSize
# create new image
newImage = Bitmap(size, size)
g = Graphics.FromImage(newImage)
g.InterpolationMode = InterpolationMode.HighQualityBicubic
# draw background
if parent: bc = ParentFolderColor
else: bc = ChildFolderColor
b = LinearGradientBrush(Point(0, 0), Point(size, size), bc,
Color.GhostWhite)
g.FillRectangle(b, 0, 0, size, size)
b.Dispose()
g.DrawRectangle(Pens.LightGray, 0, 0, size - 1, size - 1)
# draw up to 4 subitems
folderItems = self.GetFirstFolderItems(4)
delta = 10
side = (size - 3 * delta) / 2 - 1
rects = (Rectangle(delta + 3, delta + 12, side, side),
Rectangle(size / 2 + delta / 2 - 3, delta + 12, side, side),
Rectangle(delta + 3, size / 2 + delta / 2 + 6, side, side),
Rectangle(size / 2 + delta / 2 - 3, size / 2 + delta / 2 + 6,
side, side))
for rect, item in zip(rects, folderItems):
subImage = Bitmap.FromStream(MemoryStream(item.thumbnail()), False)
g.DrawImage(subImage, rect)
subImage.Dispose()
for rect in rects:
g.DrawRectangle(Pens.LightGray, rect)
# draw folder name
if parent: name = '[..]'
else: name = Path.GetFileName(self.path)
f = Font('Arial', 10)
g.DrawString(name, f, Brushes.Black,
RectangleF(2, 2, size - 2, size - 2))
f.Dispose()
# get the bytes of the image
imageBytes = BitmapToBytes(newImage)
# cleanup
g.Dispose()
newImage.Dispose()
return imageBytes
def __copy_transparent(self, image):
''' Creates a semi-transparent copy of the given image '''
b = Bitmap( image.Width, image.Height )
g = Graphics.FromImage(b)
cm = ColorMatrix()
cm.Matrix33 = 0.3
ia = ImageAttributes()
ia.SetColorMatrix(cm)
g.DrawImage(image, Rectangle(0,0, image.Width, image.Height), 0,0,\
image.Width, image.Height, GraphicsUnit.Pixel, ia)
return b
def draw2d(game, time, batch):
animator_fireball.Draw(time, batch)
if walking:
animator_character_walk.Draw(time, batch)
else:
batch.Draw(
animator_character_walk.Sheet.Texture,
Rectangle(animator_character_walk.Sheet[0].X,
animator_character_walk.Sheet[0].Y,
animator_character_walk.Sheet[0].Width,
animator_character_walk.Sheet[0].Height),
animator_character_walk.Position, Color4.White)
def crop(self, left=0, top=0, right=0, bottom=0):
width = self._bitmap.Width - right
height = self._bitmap.Height - bottom
r = Rectangle(left, top, width, height)
try:
cropImage = self._bitmap.Clone(r, self._bitmap.PixelFormat)
except:
print "retrying rectangle=%s" % str(r)
self.resize(self._bitmap.Width + 10, self._bitmap.Height + 10)
try:
cropImage = self._bitmap.Clone(r, self._bitmap.PixelFormat)
except Exception, e:
print "Error in crop: %s" % str(e)
return
def __perceptual_hash(image):
''' Returns a 'perceptual' image hash for the given Image. '''
if image is not None:
SIZE = 8
# create ImageAttributes for converting image to greyscale
# see: http://tech.pro/tutorial/660/
# csharp-tutorial-convert-a-color-image-to-grayscale
attr = ImageAttributes()
attr.SetColorMatrix(
ColorMatrix(Array[Array[Single]](( \
(0.3, 0.3, 0.3, 0.0, 0.0),
(.59, .59, .59, 0.0, 0.0),
(.11, .11, .11, 0.0, 0.0),
(0.0, 0.0, 0.0, 1.0, 0.0),
(0.0, 0.0, 0.0, 0.0, 1.0)
)))
)
with Bitmap(SIZE, SIZE, PixelFormat.Format64bppArgb) as small_image:
with Graphics.FromImage(small_image) as g:
# draw image in greyscale in a tiny square
# see: https://www.memonic.com/user/aengus/folder/coding/id/1qVeq
g.CompositingQuality = CompositingQuality.HighQuality
g.SmoothingMode = SmoothingMode.HighQuality
g.InterpolationMode = InterpolationMode.HighQualityBicubic
g.DrawImage(image, Rectangle(0, 0, SIZE,
SIZE), 0, 0, image.Width,
image.Height, GraphicsUnit.Pixel, attr)
# convert image pixels into bits, where 1 means pixel is greater
# than image average, and 0 means pixel is less than average.
# return bits as a single long value
pixels = [
small_image.GetPixel(x, y).R for x in range(SIZE)
for y in range(SIZE)
]
average = reduce(lambda x, y: x + y, pixels) / float(
len(pixels))
bits = map(lambda x: 1 if x > average else 0, pixels)
return reduce(lambda x, (i, val): x | (val << i),
enumerate(bits), 0)
else:
return long(0)
def updateThumb(self):
hwnd = None
if self.locked:
hwnd = MaxPlus.ViewportManager.GetViewportByID(
self.locked_id).GetHWnd()
else:
hwnd = MaxPlus.ViewportManager.GetActiveViewport().GetHWnd()
r = Win32.GetWindowsRectangle(hwnd)
r2 = Win32.GetWindowsRectangle(MaxPlus.Core.GetWindowHandle())
r.X = r.X - r2.X
r.Y = r.Y - r2.Y
r.Width = r.Width - r2.X
r.Height = r.Height - r2.Y
self.thumb.SetDestinationRectangle(
Rectangle(0, 0, self.Width - 15, self.Height - 20))
self.thumb.SetSourceRectangle(r)
def test_system_drawing():
clr.AddReferenceByPartialName("System.Drawing")
from System.Drawing import Rectangle
r = Rectangle(0, 0, 3, 7)
s = Rectangle(3, 0, 8, 14)
# calling the static method
i = Rectangle.Intersect(r, s)
AreEqual(i, Rectangle(3, 0, 0, 7))
AreEqual(r, Rectangle(0, 0, 3, 7))
AreEqual(s, Rectangle(3, 0, 8, 14))
# calling the instance
i = r.Intersect(s)
AreEqual(i, None)
AreEqual(r, Rectangle(3, 0, 0, 7))
AreEqual(s, Rectangle(3, 0, 8, 14))
# calling instance w/ StrongBox
r = Rectangle(0, 0, 3, 7)
box = clr.StrongBox[Rectangle](r)
i = box.Intersect(s)
AreEqual(i, None)
AreEqual(box.Value, Rectangle(3, 0, 0, 7))
AreEqual(s, Rectangle(3, 0, 8, 14))
# should be able to access properties through the box
AreEqual(box.X, 3)
# multiple sites should produce the same function
i = box.Intersect
j = box.Intersect
def test_sys_drawing(self):
from IronPythonTest import DaysInt, DaysShort, DaysLong, DaysSByte, DaysByte, DaysUShort, DaysUInt, DaysULong
from System.Drawing import Point, Size, PointF, SizeF, Rectangle, RectangleF
x = Point()
self.assertTrue(x == Point(0, 0))
x = Size()
self.assertTrue(x == Size(0, 0))
x = PointF()
self.assertTrue(x == PointF(0, 0))
x = SizeF()
self.assertTrue(x == SizeF(0, 0))
x = Rectangle()
self.assertTrue(x == Rectangle(0, 0, 0, 0))
x = RectangleF()
self.assertTrue(x == RectangleF(0, 0, 0, 0))
p = Point(3, 4)
s = Size(2, 9)
q = p + s
self.assertTrue(q == Point(5, 13))
self.assertTrue(q != Point(13, 5))
q = p - s
self.assertTrue(q == Point(1, -5))
self.assertTrue(q != Point(0, 4))
q += s
self.assertTrue(q == Point(3, 4))
self.assertTrue(q != Point(2, 4))
q -= Size(1, 2)
self.assertTrue(q == Point(2, 2))
self.assertTrue(q != Point(1))
t = s
self.assertTrue(t == s)
self.assertTrue(t != s - Size(1, 0))
t += Size(3, 1)
self.assertTrue(t == Size(5, 10))
self.assertTrue(t != Size(5, 0))
t -= Size(2, 8)
self.assertTrue(t == Size(3, 2))
self.assertTrue(t != Size(0, 2))
t = s + Size(-1, -2)
self.assertTrue(t == Size(1, 7))
self.assertTrue(t != Size(1, 5))
t = s - Size(1, 2)
self.assertTrue(t == Size(1, 7))
self.assertTrue(t != Size(1, 3))
def weekdays(enum):
return enum.Mon | enum.Tue | enum.Wed | enum.Thu | enum.Fri
def weekend(enum):
return enum.Sat | enum.Sun
def enum_helper(enum):
days = [
enum.Mon, enum.Tue, enum.Wed, enum.Thu, enum.Fri, enum.Sat,
enum.Sun
]
x = enum.Mon | enum.Tue | enum.Wed | enum.Thu | enum.Fri | enum.Sat | enum.Sun
y = enum.Mon
for day in days:
y |= day
self.assertTrue(x == y)
self.assertFalse(x != y)
if x == y: # EqualRetBool
b = True
else:
b = False
self.assertTrue(b)
self.assertTrue(x == weekdays(enum) | weekend(enum))
self.assertTrue(x == (weekdays(enum) ^ weekend(enum)))
self.assertTrue((weekdays(enum) & weekend(enum)) == enum["None"])
self.assertTrue(weekdays(enum) == enum.Weekdays)
self.assertTrue(weekend(enum) == enum.Weekend)
self.assertTrue(weekdays(enum) != enum.Weekend)
self.assertTrue(weekdays(enum) != weekend(enum))
for e in [
DaysInt, DaysShort, DaysLong, DaysSByte, DaysByte, DaysUShort,
DaysUInt, DaysULong
]:
enum_helper(e)
for e in [DaysInt, DaysShort, DaysLong, DaysSByte]:
z = operator.inv(e.Mon)
self.assertEqual(type(z), e)
self.assertEqual(z.ToString(), "-2")
for (e, v) in [(DaysByte, 254), (DaysUShort, 65534),
(DaysUInt, 4294967294),
(DaysULong, 18446744073709551614)]:
z = operator.inv(e.Mon)
self.assertEqual(type(z), e)
self.assertEqual(z.ToString(), str(v))
self.assertRaises(ValueError, lambda: DaysInt.Mon & DaysShort.Mon)
self.assertRaises(ValueError, lambda: DaysInt.Mon | DaysShort.Mon)
self.assertRaises(ValueError, lambda: DaysInt.Mon ^ DaysShort.Mon)
self.assertRaises(ValueError, lambda: DaysInt.Mon & 1)
self.assertRaises(ValueError, lambda: DaysInt.Mon | 1)
self.assertRaises(ValueError, lambda: DaysInt.Mon ^ 1)
def f():
if DaysInt.Mon == DaysShort.Mon: return True
return False
self.assertEqual(f(), False)
self.assertTrue(not DaysInt.Mon == None)
self.assertTrue(DaysInt.Mon != None)
def __pbox_painted(self, picbox, args):
''' Called after the picturebox paints itself. '''
# this method adds two arrows (left and right) to the PictureBox,
# painted on top of it's regular graphcis.
left_arrow = self.__left_arrow
full_left_arrow = self.__full_left_arrow
right_arrow = self.__right_arrow
full_right_arrow = self.__full_right_arrow
if left_arrow.Width != right_arrow.Width or \
full_left_arrow.Width != right_arrow.Width or \
full_right_arrow.Width != right_arrow.Width or \
left_arrow.Height != right_arrow.Height or \
full_left_arrow.Height != right_arrow.Height or \
full_right_arrow.Height != right_arrow.Height:
raise Exception("arrows must be identical dimensions")
# 1. compute scaled widths and heights for the arrow images
old_width = float(right_arrow.Width)
scaled_width = min(picbox.Width * 0.15, old_width)
old_height = float(right_arrow.Height)
scaled_height = old_height * scaled_width / old_width
# 2. compute the proper location for the full arrow images
y = picbox.Height / 2 - scaled_height / 2
xoffset = picbox.Width * 0.01
f_leftx = xoffset
f_rightx = picbox.Width - xoffset - scaled_width
# 3. compute the proper location for the arrow images
leftx = f_leftx + scaled_width
rightx = f_rightx - scaled_width
# 4. keep track of the right edges of the left and right clickable
# column, so we'll be able to tell which icon the user clicks on.
self.__left_bound = leftx
self.__right_bound = f_rightx
if self.Parent != None:
# 5. paint each arrow if it is possible to "turn the page" in that
# direction. alpha-blend the inactive arrow (the one on the half
# of the pbox that the mouse ISN'T hovering over.)
g = args.Graphics
mouse_hovered = self.__mouse_hovered_state
can_go_left = self.Parent._can_change_page(False)
can_go_right = self.Parent._can_change_page(True)
# 5a. draw the full left and left arrows if they are active
if mouse_hovered and can_go_left:
image_atts = self.__hovered_image_atts if mouse_hovered == 'FL' \
else self.__normal_image_atts
dest_rect = Rectangle(f_leftx, y, scaled_width, scaled_height)
g.DrawImage(full_left_arrow, dest_rect, 0, 0, old_width,
old_height, GraphicsUnit.Pixel, image_atts)
image_atts = self.__hovered_image_atts if mouse_hovered == 'L' \
else self.__normal_image_atts
dest_rect = Rectangle(leftx, y, scaled_width, scaled_height)
g.DrawImage(left_arrow, dest_rect, 0, 0, old_width, old_height,
GraphicsUnit.Pixel, image_atts)
# 5b. draw the right and full right arrows if they are active
if mouse_hovered and can_go_right:
image_atts = self.__hovered_image_atts if mouse_hovered == 'R' \
else self.__normal_image_atts
dest_rect = Rectangle(rightx, y, scaled_width, scaled_height)
g.DrawImage(right_arrow, dest_rect, 0, 0, old_width,
old_height, GraphicsUnit.Pixel, image_atts)
image_atts = self.__hovered_image_atts if mouse_hovered == 'FR' \
else self.__normal_image_atts
dest_rect = Rectangle(f_rightx, y, scaled_width, scaled_height)
g.DrawImage(full_right_arrow, dest_rect, 0, 0, old_width,
old_height, GraphicsUnit.Pixel, image_atts)
obj = rs.GetObject("Select object for prediction")
orbitRes = rs.GetReal("Number of images per revolution", number=10)
vertRes = rs.GetReal("Number of revolutions", number=5)
distMult = rs.GetReal("Distance from object", number=5)
sc.doc.Objects.Select(obj)
rs.Command("_Invert")
rs.Command("_Hide")
w = 64
h = 64
rView = Rhino.RhinoDoc.ActiveDoc.Views.Add(
"view", Rhino.Display.DefinedViewportProjection.Perspective,
Rectangle(Point(100, 100), Size(w, h)), True)
# http://developer.rhino3d.com/api/RhinoCommon/html/T_Rhino_Display_RhinoViewport.htm
rView.TitleVisible = False
rView.MainViewport.ConstructionGridVisible = False
rView.MainViewport.ConstructionAxesVisible = False
rView.MainViewport.WorldAxesVisible = False
Rhino.ApplicationSettings.AppearanceSettings.ViewportBackgroundColor = Color.White
shaded = Rhino.Display.DisplayModeDescription.FindByName("Shaded")
rView.ActiveViewport.DisplayMode = shaded
tar = rs.SurfaceVolumeCentroid(obj)[0]
#http://4.rhino3d.com/5/rhinoscript/geometry_methods/boundingbox.htm
bb = rs.BoundingBox(obj)
# Relative Origin for Cropping
crop_pt_x_ft = up_left_crop_pt.X
crop_pt_y_ft = img_height - up_left_crop_pt.Y
# Multiplier to convert from Ft Coordinate to Pixel
x_ft_to_px_scale = img_width_px / img_width
y_ft_to_px_scale = img_height_px / img_height
# Convert ft space to pixel space
crop_pt_x_px = crop_pt_x_ft * x_ft_to_px_scale
crop_pt_y_px = crop_pt_y_ft * y_ft_to_px_scale
cropbox_width_px = cropbox_width_ft * x_ft_to_px_scale
cropbox_height_px = cropbox_height_ft * y_ft_to_px_scale
rectangle_crop = Rectangle(crop_pt_x_px, crop_pt_y_px, cropbox_width_px,
cropbox_height_px)
new_img_path = crop_image(img_path, rectangle_crop)
# New Image Options
import_options = ImageImportOptions()
import_options.Placement = BoxPlacement.Center
import_options.RefPoint = get_bbox_center_pt(fregion_bbox)
import_options.Resolution = img_resolution
# Create New Image in Revit
t = Transaction(doc, 'Crop Image')
t.Start()
new_img_element = StrongBox[Element]()
doc.Import(new_img_path, import_options, doc.ActiveView, new_img_element)
new_img_width = new_img_element.get_Parameter(bip_width_ft)
new_img_width.Set(cropbox_width_ft)
def LocateRect(self):
x = (self.ClientSize.Width - RECT_WIDTH) / 2
y = (self.ClientSize.Height - RECT_HEIGHT) / 2
self.r = Rectangle(x, y, RECT_WIDTH, RECT_HEIGHT)
found = True
break
else:
continue
#Create Window sizing and positioning based on display selected
width = int(displayBounds.Width / 2) + COMPENSATION_WIDTH
height = displayBounds.Height + COMPENSATION_HEIGHT
y = displayBounds.Y + COMPENSATION_Y
xleft = displayBounds.X + COMPENSATION_X_LEFT
xright = displayBounds.X + width + COMPENSATION_X_RIGHT
#Create the new Rhino views and capture their RhinoView instances
leftEye_View = scriptcontext.doc.Views.Add(
"LeftEye", DefinedViewportProjection.Perspective,
Rectangle(xleft, y, width, height), True)
rightEye_View = scriptcontext.doc.Views.Add(
"RightEye", DefinedViewportProjection.Perspective,
Rectangle(xright, y, width, height), True)
leftEye = leftEye_View.ActiveViewport
rightEye = rightEye_View.ActiveViewport
leftEye.SetCameraLocation(
leftEye.CameraLocation - leftEye.CameraX * INTEROCULAR_DISTANCE / 2.0,
False)
rightEye.SetCameraLocation(
rightEye.CameraLocation - rightEye.CameraX * INTEROCULAR_DISTANCE / 2.0,
False)
#Get Position and look at vector from external
#Expected response like: {"pos":[3,2,1], "lookAt":[1,2,3]}