def setType(self, type):
#Delete old panels
for i in self.GetChildren():
if i.GetName() in ["imagePanel", "customPanel", "colorPanel", "rotationPanel", "textPanel", "vartextPanel"]:
i.Destroy()
if type == "color":
self.color = color(self)
self.customSizer.Add(self.color, 1, wx.EXPAND|wx.ALL, 4)
if type == "image":
self.image = image(self)
self.customSizer.Add(self.image, 1, wx.EXPAND|wx.ALL, 4)
if type == "text":
self.rotation = rotation(self)
self.customSizer.Add(self.rotation, 0, wx.EXPAND|wx.ALL, 4)
self.text = text(self)
self.customSizer.Add(self.text, 1, wx.EXPAND|wx.ALL, 4)
if type == "vartext":
self.rotation = rotation(self)
self.customSizer.Add(self.rotation, 0, wx.EXPAND|wx.ALL, 4)
self.vartext = vartext(self)
self.customSizer.Add(self.vartext, 1, wx.EXPAND|wx.ALL, 4)
self.SetSizerAndFit(self.sizer)
self.Layout()
self.parent.Layout()
self.parent.propertiesPanel.Layout()
def setType(self, type):
#Delete old panels
for i in self.GetChildren():
if i.GetName() in [
"imagePanel", "customPanel", "colorPanel", "rotationPanel",
"textPanel", "vartextPanel"
]:
i.Destroy()
if type == "color":
self.color = color(self)
self.customSizer.Add(self.color, 1, wx.EXPAND | wx.ALL, 4)
if type == "image":
self.image = image(self)
self.customSizer.Add(self.image, 1, wx.EXPAND | wx.ALL, 4)
if type == "text":
self.rotation = rotation(self)
self.customSizer.Add(self.rotation, 0, wx.EXPAND | wx.ALL, 4)
self.text = text(self)
self.customSizer.Add(self.text, 1, wx.EXPAND | wx.ALL, 4)
if type == "vartext":
self.rotation = rotation(self)
self.customSizer.Add(self.rotation, 0, wx.EXPAND | wx.ALL, 4)
self.vartext = vartext(self)
self.customSizer.Add(self.vartext, 1, wx.EXPAND | wx.ALL, 4)
self.SetSizerAndFit(self.sizer)
self.Layout()
self.parent.Layout()
self.parent.propertiesPanel.Layout()
def great_circle(strike, dip):
'''
great_circle computes the great circle path of a plane in spherical coordinate system
pole_trd, pole_plg - pole of the plane
Python function translated from the Matlab function
GreatCircle in Allmendinger et al. (2012)
'''
pole_trd, pole_plg = pole_from_plane(strike, dip)
# This vector will trace great circle from South to North pole
v = np.array(sph_to_cart(strike, 0.0))
n = 181 # number of angles from 0 to 180
NED = np.zeros((3, n))
# To make the great circle, rotate the North vector 180 degrees
# in increments of 1 degree
for i in range(0, n):
rad = np.radians(i)
R = rotation(pole_trd, pole_plg, rad)
NED[:, i] = np.dot(R,
v) # write result to ith column of the NED matrix
# there could be vectors with negative plunge due to imprecise calcualtions
# have a look at an example https://github.com/rzaitov/compGeo/blob/master/source/notebooks/Unstable_Rotate.ipynb
mask = NED[2, :] < 0
NED[2, mask] = 0
return cart_to_sph(NED[0, :], NED[1, :], NED[2, :])
def small_circle(axis_trd, axis_plg, cone_angle):
'''
small_circle computes the paths of a small circle defined
by its axis and cone angle
axis_trd = trend of axis
axis_plg = plunge of axis
cone_angle = cone angle
Python function translated from the Matlab function
SmallCircle in Allmendinger et al. (2012)
'''
v = np.array(sph_to_cart(axis_trd,
axis_plg - cone_angle)) # vector to rotate
# To make the small circle, rotate the starting line
# 360 degrees in increments of 1 degree
n = 361 # number of angles from 0 to 360
NED = np.zeros((3, n))
for i in range(n):
rot = np.radians(i)
R = rotation(axis_trd, axis_plg, rot)
NED[:, i] = np.dot(R, v)
# select vectors with non-negative plunge
mask = NED[2, :] >= 0
NED = NED[:, mask]
return cart_to_sph(NED[0, :], NED[1, :], NED[2, :])
def draw_oscillating_sphere(save_dir, number_of_circles, line_thickness):
# Craete total 60 images
for i in np.arange(60):
# 2.5 is an angle of Z axis
# pi * sin(k) is an oscillating factor
r = rotation.rotation(
3,
2.5 + np.pi * np.sin(i / 10.0) * np.random.uniform(0.75, 1) / 20.0)
# Create the canvas size of (500, 500)
im = Image.new("RGB", (500, 500), (1, 1, 1))
draw = ImageDraw.Draw(im, 'RGBA')
# Sphere's center is np.array([0,0,0])
# The vector that passes through the center is np.array([0,0,1])
# Radius is oscillating randomly: 1 * np.random.uniform(0.75,1) + 0.4 * np.sin(np.pi/10.0*i)
circle.draw_sphere(draw,
np.array([0, 0, 0]),
np.array([0, 0, 1]),
1 * np.random.uniform(0.75, 1) +
0.4 * np.sin(np.pi / 10.0 * i),
r,
num_circle=number_of_circles,
rgba=(182, 183, 186, 255),
width=line_thickness)
file_name = save_dir + str(i) + '.png'
im.save(file_name)
def draw_wavy_sphere_acceleration_wrapper(save_dir, number_of_circles,
line_thickness):
# Create n images (frames) where n = number_of_circles
for i in np.arange(number_of_circles):
wavy_index = i % number_of_circles
if (wavy_index > 0.65 * number_of_circles and wavy_index % 2 != 0):
pass
else:
# 2.52 is an angle of Z axis (Why do I choose 2.52? For an aesthetic reason:))
r = rotation.rotation(
3, 2.50 +
np.pi * np.sin(i / 10.0) * np.random.uniform(0.8, 1) / 30.0)
# Create the canvas size of (500, 500)
im = Image.new("RGB", (500, 500), (1, 1, 1))
draw = ImageDraw.Draw(im, 'RGBA')
# Sphere's center is np.array([0,0,0])
# The vector that passes through the center is np.array([0,0,1])
# Radius is oscillating randomly
circle.draw_sphere2(draw,
np.array([0, 0, 0]),
np.array([0, 0, 1]),
1,
r,
wavy_index=wavy_index,
num_circle=number_of_circles,
rgba=(182, 183, 186, 255),
width=line_thickness)
file_name = save_dir + str(i) + '.png'
im.save(file_name)
def test_rotation_360(self):
"""
Rotating by 360 degrees should preserve the vector.
"""
r = rotation(3, np.pi * 2)
vec = np.random.uniform(size=3)
vec_rot = np.dot(r, vec)
self.assertTrue(sum(abs(vec - vec_rot) / vec) < 1e-5)
def draw_rotating_sphere(save_dir, number_of_circles, line_thickness):
# Craete total 30 images
for i in np.arange(30):
# We'll rotate the sphere by 18 degrees (18 = pi/10)
r = rotation.rotation(3, np.pi*i / 100.0)
# Create the canvas size of (500, 500)
im = Image.new("RGB", (500, 500), (1, 1, 1))
draw = ImageDraw.Draw(im, 'RGBA')
circle.draw_sphere(draw, np.array([0,0,0]), np.array([0,0,1]), 1, r, num_circle = number_of_circles, rgba=(182, 183, 186, 255), width = line_thickness)
# Save
file_name = save_dir + str(i) + '.png'
im.save(file_name)
def draw_tetartoid(basedir=".\\"):
"""
@MoneyShot
Draws out a Tetartoid.
args:
basedir:The directory where the images are to be saved.
In the main pyray repo, basedir is ..\\images\\RotatingCube\\
"""
for i in range(0, 31):
im = Image.new("RGB", (2048, 2048), (1, 1, 1))
draw = ImageDraw.Draw(im, 'RGBA')
r = np.transpose(rotation(3, np.pi * (9 + i) / 15)) #i=9
tetartoid(draw, r, t=0.1)
im.save(basedir + "im" + str(i) + ".png")
def platonic_solids(basedir=".\\"):
"""
@MoneyShot
Draws out an Icosahedron and Dodecahedron.
args:
basedir:The directory where the images are to be saved.
In the main pyray repo, basedir is ..\\images\\RotatingCube\\
"""
for i in range(0, 31):
im = Image.new("RGB", (2048, 2048), (1, 1, 1))
draw = ImageDraw.Draw(im, 'RGBA')
r = np.transpose(rotation(3, np.pi * (9 + i) / 15)) #i=9
#dodecahedron(draw, r, shift = np.array([370, 1270, 0]), scale = 150)
#icosahedron(draw, r, shift = np.array([1470, 1270, 0]), scale = 150)
tetartoid(draw, r, t=0.1)
im.save(basedir + "im" + str(i) + ".png")
def __init__(self, a=1., b=1., g=1.):
#sets beta, the velocity = p/E
self.m = np.matrix(np.identity(4))
if isinstance(a, FourVector):
x = -a.x / a.E
y = -a.y / a.E
z = -a.z / a.E
_beta = ThreeVector(x, y, z)
self.setBeta(_beta)
if type(a) == np.matrix:
self.m = a
elif type(a) == float: #alpha beta and gamma should all be floats
self.alpha = a
self.beta = b
self.gamma = g
rot = rotation(self.alpha, self.beta, self.gamma)
self.setrot(rot)
def __init__(self, a = 1., b = 1., g = 1.):
#sets beta, the velocity = p/E
self.m = np.matrix(np.identity(4))
if isinstance(a, FourVector):
x = -a.x / a.E
y = -a.y / a.E
z = -a.z / a.E
_beta = ThreeVector(x, y, z)
self.setBeta(_beta)
if type(a) == np.matrix:
self.m = a
elif type(a) == float: #alpha beta and gamma should all be floats
self.alpha = a
self.beta = b
self.gamma = g
rot = rotation(self.alpha, self.beta, self.gamma)
self.setrot(rot)
def plot_faces(self, r=None, j=0, body_indice=None):
"""
Plots all the 2d faces of the hypercube.
"""
if r is None:
r = rotation(self.dim)
im = Image.new("RGB", (2048, 2048), "black")
draw = ImageDraw.Draw(im, 'RGBA')
for f in self.faces:
f.plot(r, draw, (255, 55, 0, 22))
for edge in self.edges:
edge.plot(r, draw, (255, 131, 0))
if body_indice is not None:
indx = 0
for bi in body_indice:
j = j + bi * 10**indx + 1
body = self.bodies[bi]
body.plot(r, draw, colors[bi])
indx = indx + 1
im.save('Images\\RotatingCube\\im' + str(j) + '.png')
def plot_edges2(self,
draw,
r=None,
seq=False,
offset=None,
fill=(255, 165, 5),
scale=500,
shift=np.array([1000, 1000, 0, 0])):
"""
Same as plot_edges, but allows for an offset.
"""
if offset is None:
offset = np.zeros(self.dim)
if r is None:
r = rotation(self.dim)
if seq:
self.generate_sequential_edges()
edges = self.sequential_edges
else:
edges = self.edges
for edge in edges:
if edge.vertice1.index == 0:
[v1, v2] = [
np.dot(r, edge.vertice1.binary + offset),
np.dot(r, edge.vertice2.binary + offset)
]
elif edge.vertice2.index == 2**(self.dim) - 1:
[v1, v2] = [
np.dot(r, edge.vertice1.binary - offset),
np.dot(r, edge.vertice2.binary - offset)
]
else:
[v1, v2] = [
np.dot(r, edge.vertice1.binary),
np.dot(r, edge.vertice2.binary)
]
[v1x, v1y] = (shift[:self.dim] + scale * v1)[0:2]
[v2x, v2y] = (shift[:self.dim] + scale * v2)[0:2]
draw.line((v1x, v1y, v2x, v2y), fill=fill, width=4)
def plot_edges(self, r=None, seq=False, j=0):
"""
Plots all the edges of the hypercube.
"""
if r is None:
r = rotation(self.dim)
im = Image.new("RGB", (2048, 2048), (1, 1, 1))
draw = ImageDraw.Draw(im, 'RGBA')
if seq:
self.generate_sequential_edges()
edges = self.sequential_edges
else:
edges = self.edges
for edge in edges:
[v1, v2] = [
np.dot(r, edge.vertice1.binary),
np.dot(r, edge.vertice2.binary)
]
[v1x, v1y] = (shift[:self.dim] + scale * v1)[0:2]
[v2x, v2y] = (shift[:self.dim] + scale * v2)[0:2]
draw.line((v1x, v1y, v2x, v2y), fill=(255, 165, 0), width=2)
return [im, draw]
def cube_with_cuttingplanes(numTerms,
im_ind=0,
pos=[300, 700, 0],
draw1=None,
scale=100,
popup=False,
baseLocn='.\\im'):
"""
@MoneyShot
Generates larger and larger cubes showing their cutting planes
representing polynomial terms.
args:
numTerms: The number of values each dimension can take.
im_ind: The index of the image in the video
(will affect file name of dumped image).
pos: The position on the image where the leftmost edge of the cube
should be.
draw1: The draw object of the image. If not provided,
new images are created.
"""
for j in range(30, 31):
if draw1 is None:
im = Image.new("RGB", (2048, 2048), "black")
draw = ImageDraw.Draw(im, 'RGBA')
else:
draw = draw1
r = rotation(3, j / 80.0 * np.pi * 2)
# Vertices
vertices = [general_base(i, numTerms, 3) for i in range(numTerms**3)]
rotated_vertices = (
np.transpose(np.dot(r, np.transpose(vertices))) * scale + pos)
# Draw edges.
for i in range(len(vertices)):
for dim in range(3):
if (vertices[i][dim] < (numTerms - 1)
and i + numTerms**dim <= len(vertices) - 1):
v1 = rotated_vertices[i]
v2 = rotated_vertices[i + numTerms**dim]
draw.line((v1[0], v1[1], v2[0], v2[1]),
fill="yellow",
width=2)
for v in rotated_vertices:
draw.ellipse((v[0] - 5, v[1] - 5, v[0] + 5, v[1] + 5),
fill='red',
outline='red')
for power in range(1, (numTerms - 1) * 3):
rgb = colors[(power - 1) % 14]
rgba = colors[(power - 1) % 14] + (100, )
sqr1 = rotated_vertices[np.array(range(len(vertices)))[np.array(
[sum(i) == power for i in vertices])]]
hull = ConvexHull([i[:2] for i in sqr1]).vertices
poly = [(sqr1[i][0], sqr1[i][1]) for i in hull]
draw.polygon(poly, rgba)
for vv in sqr1:
[vx, vy] = vv[:2]
draw.ellipse((vx - 11, vy - 11, vx + 11, vy + 11),
fill=rgb,
outline=rgb)
if draw1 is None:
if popup:
im.show()
im.save(baseLocn + str(im_ind) + '.png')
#! /usr/bin/env python
# -*- coding:utf8-*-
import managerPlateau
import rotation
import alignement
from random import randint
if __name__ == "__main__":
plateauT = managerPlateau.initPlateau(6)
managerPlateau.affichplateau(plateauT)
alignement.ensemble(6, plateauT, 5, 1)
rotation.rotation(6, plateauT, 3, True)
managerPlateau.affichplateau(plateauT)
def treatment(num_animals, n_pastures, pasture_size_ha, outdir):
"""Run "smart" rotation."""
forage_args = default_forage_args()
rotation.rotation(forage_args, n_pastures, pasture_size_ha, num_animals,
outdir)
c2 = int(
input(
"\nEnter 1 for clockwise rotation\nEnter 2 for anticlockwise rotation\n\nINPUT : "
))
if (c2 == 1):
theta = float(input("\nEnter the angle of clockwise rotation: "))
x_fixed = float(
input(
"Enter the abscissa of the pivot point(Enter 0 in case of origin): "
))
y_fixed = float(
input(
"Enter the ordinate of the pivot point(Enter 0 in case of origin): "
))
temp_list = mm.matrix_mul(
rot.rotation(c2, x_fixed, y_fixed, theta), temp_list)
elif (c2 == 2):
theta = float(
input("\nEnter the angle of anticlockwise rotation: "))
x_fixed = float(
input(
"Enter the abscissa of the pivot point(Enter 0 in case of origin): "
))
y_fixed = float(
input(
"Enter the ordinate of the pivot point(Enter 0 in case of origin): "
))
temp_list = mm.matrix_mul(
rot.rotation(c2, x_fixed, y_fixed, theta), temp_list)
else:
print("\nWrong choice. Please enter correct details.")
def __init__(self):
# Manually set up our ROI for grabbing the hand.
# Feel free to change these. I just chose the top right corner for filming.
roi_top = 20
roi_bottom = 140
roi_right = 260
roi_left = 380
# ROI 2
roi_top2 = 340
roi_bottom2 = 460
cam = cv2.VideoCapture(0)
cam.set(3, 640)
cam.set(4, 480)
# Intialize a frame count
num_frames = 0
# background calc in real time
# Start with a halfway point between 0 and 1 of accumulated weight
accumulated_weight = 0.7
accumulated_weight2 = 0.7
accumulated_weight3 = 0.7
background_calc = calc_accum()
while True:
# get the current frame
ret, frame = cam.read()
# flip the frame so that it is not the mirror view
frame = cv2.flip(frame, 1)
# clone the frame
frame_copy = frame.copy()
# object detection.
height = frame_copy.shape[0]
object_roi_top = height / 2
object_roi_bottom = 640
object_detect = frame[object_roi_top:object_roi_bottom, :]
object_gray = cv2.cvtColor(object_detect, cv2.COLOR_BGR2GRAY)
object_gray = cv2.GaussianBlur(object_gray, (5, 5), 0)
# ROI 1
# Grab the ROI from the frame(1)
roi = frame[roi_top:roi_bottom, roi_right:roi_left]
gray = cv2.cvtColor(roi, cv2.COLOR_BGR2GRAY)
# Apply grayscale and blur to ROI
gray = cv2.GaussianBlur(gray, (5, 5), 0)
# ROI 2
roi2 = frame[roi_top2:roi_bottom2, roi_right:roi_left]
gray2 = cv2.cvtColor(roi2, cv2.COLOR_BGR2GRAY)
gray2 = cv2.GaussianBlur(gray2, (5, 5), 0)
# For the first 60 frames we will calculate the average of the background.
if num_frames < 60:
background_calc.calc_accum_avg(gray, accumulated_weight)
background_calc.calc_accum_avg2(gray2, accumulated_weight2)
background_calc.calc_accum_avg3(object_gray,
accumulated_weight3)
if num_frames <= 59:
cv2.putText(frame_copy, "WAIT! GETTING BACKGROUND AVG.",
(1, 470), cv2.FONT_HERSHEY_SIMPLEX, 0.5,
(0, 0, 255), 1)
cv2.imshow("Vision", frame_copy)
else:
# shape detect upper
upper_shape = segment(gray)
if upper_shape is not None:
upper_thresh, upper_contour, upper_segment, upper_cnts = upper_shape
upper_shape_detect = detect(upper_contour)
# Apply hough transform on the image
(upper_cX, upper_cY, upper_c) = centroid(upper_cnts)
cv2.drawContours(frame_copy,
[upper_segment + (roi_right, roi_top)],
-1, (255, 0, 0), 1)
cv2.circle(frame_copy,
(upper_cX + roi_right, roi_top + upper_cY), 7,
(255, 0, 0), -1)
cv2.putText(frame_copy,
"upper_shape : " + str(upper_shape_detect),
(1, 440), cv2.FONT_HERSHEY_SIMPLEX, 0.5,
(0, 0, 255), 1)
cv2.imshow("upper_threshold", upper_thresh)
# shape detect bottom
bottom_shape = segment(gray2)
if bottom_shape is not None:
bottom_thresh, bottom_contour, bottom_segment, bottom_cnts = bottom_shape
bottom_shape_detect = detect(bottom_contour)
(bottom_cX, bottom_cY, bottom_c) = centroid(bottom_cnts)
cv2.drawContours(frame_copy,
[bottom_segment + (roi_right, roi_top2)],
-1, (255, 0, 0), 1)
cv2.putText(frame_copy,
"bottom_shape : " + str(bottom_shape_detect),
(1, 460), cv2.FONT_HERSHEY_SIMPLEX, 0.5,
(0, 0, 255), 1)
cv2.circle(frame_copy,
(bottom_cX + roi_right, roi_top2 + bottom_cY),
7, (255, 0, 0), -1)
cv2.imshow("bottom_threshold", bottom_thresh)
# distance
upper_c = (upper_cX + roi_right, roi_top + upper_cY)
bottom_c = (bottom_cX + roi_right, roi_top2 + bottom_cY)
roi_distance = distance(upper_c, bottom_c)
cv2.putText(frame_copy,
"ROI DISTANCE={} ".format(roi_distance), (1, 400),
cv2.FONT_HERSHEY_SIMPLEX, 0.5, (0, 0, 255), 1)
if upper_shape_detect == "square" or "rectangle" and bottom_shape_detect == "square" or "rectangle":
angles = rotation(bottom_c, upper_c)
cv2.putText(frame_copy, "difference ={}".format(angles),
(1, 420), cv2.FONT_HERSHEY_SIMPLEX, 0.5,
(0, 0, 255), 1)
object_detect = segment(object_gray)
if object_detect is not None:
object_thresh, object_contour, object_segment, object_cnts = object_detect
multi_obejct_detect = multi_detect()
multi_obejct_detect.detect(
frame_copy[object_roi_top:object_roi_bottom, :],
object_contour)
# Draw ROI Rectangle on frame copy
cv2.rectangle(frame_copy, (roi_left, roi_top),
(roi_right, roi_bottom), (0, 0, 255), 5)
cv2.rectangle(frame_copy, (roi_left, roi_top2),
(roi_right, roi_bottom2), (0, 0, 255), 5)
# increment the number of frames for tracking
num_frames += 1
#print(distance(upper_c,bottom_c))
# Display the frame with segmented hand
cv2.imshow("Vision", frame_copy)
# Close windows with Esc
k = cv2.waitKey(1) & 0xFF
if k == 27:
break
cam.release()
cv2.destroyAllWindows()
def teserract_body_diagonal2(im_ind=70,
width=15,
scale=500,
shift1=np.array([1000, 1000, 0, 0, 0]),
move=0.0):
'''
@MoneyShot
Draws a four dimensional teserract with two tetrahedral and one
octahedral planes visible.
'''
c1 = Cube(4)
r = np.eye(4)
r[:3, :3] = rotation(3, np.pi * 2 * (27.0 - im_ind) / 80.0)
newr = general_rotation(np.array(
[1, -1, 0]), (np.pi / 2 + np.arccos(np.sqrt(0.666666))) * 4.35 / 10.0)
oldr = rotation(3, np.pi * 2 * (27.0) / 80.0)
r[:3, :3] = oldr
im = Image.new("RGB", (2048, 2048), (1, 1, 1))
draw = ImageDraw.Draw(im, 'RGBA')
rotated_vertices = np.transpose(np.dot(r, np.transpose(
c1.vertice_matrix))) * scale + shift1[:4]
body_diag = (c1.vertices[0].to_binary() - c1.vertices[15].to_binary())
frst = [1, 2, 4]
scnd = [3, 5, 6]
for e in c1.edges:
if e.vertice1.index == 0 and e.vertice2.index in frst:
pt1 = rotated_vertices[e.vertice1.index]
pt2 = rotated_vertices[e.vertice2.index]
center = (pt1 + pt2) / 2.0
p = im_ind / 10.0
pp1 = (1 - p) * pt1 + p * pt2
p = p + 0.08
pp2 = (1 - p) * pt1 + p * pt2
draw.line((pp1[0], pp1[1], pp2[0], pp2[1]),
fill=(200, 220, 5),
width=10)
tri = []
for j in frst:
tri.append((rotated_vertices[j][0], rotated_vertices[j][1]))
sqr1 = rotated_vertices[[
i.index for i in c1.vertices[c1.vertice_coordinate_sums == 3]
]] + (rotated_vertices[0] - rotated_vertices[15]) * -move
sqr1_orig = rotated_vertices[[
i.index for i in c1.vertices[c1.vertice_coordinate_sums == 3]
]]
draw.polygon(jarvis_convex_hull(sqr1), (255, 0, 0, int(65)))
i = 0
a = list(range(4))
a.pop(i)
tri = []
tri_orig = []
for j in a:
tri.append((sqr1[j][0], sqr1[j][1]))
tri_orig.append((sqr1_orig[j][0], sqr1_orig[j][1]))
for ver in c1.vertices[c1.vertice_coordinate_sums == 3]:
ver.plot(r,
draw, (255, 0, 0),
10,
offset=-body_diag * move,
scale=scale,
shift=shift1)
for ver1 in c1.vertices[c1.vertice_coordinate_sums == 3]:
e = Edge(ver, ver1)
e.plot(r,
draw, (255, 0, 0),
width=2,
offset=-body_diag * move,
scale=scale,
shift=shift1)
hexag = rotated_vertices[[
i.index for i in c1.vertices[c1.vertice_coordinate_sums == 2]
]]
for ed in [(5, 3), (5, 6), (5, 9), (5, 12), (10, 3), (10, 6), (10, 9),
(10, 12), (3, 6), (3, 9), (12, 6), (12, 9)]:
v1 = rotated_vertices[ed[0]]
v2 = rotated_vertices[ed[1]]
draw.line((v1[0], v1[1], v2[0], v2[1]), fill=(0, 255, 0), width=4)
#draw.line((v1[0], v1[1], v2[0], v2[1]), fill = (255-im_ind*10,165+im_ind,0), width=4)
for ver in c1.vertices[c1.vertice_coordinate_sums == 2]:
ver.plot(r, draw, (0, 255, 0), 10, scale=scale, shift=shift1)
#ver.plot(r, draw, (255-im_ind*25,im_ind*25,0), 10, scale=scale1, shift=shift1)
draw.polygon(jarvis_convex_hull(hexag), (0, 255, 0, int(65)))
for ver in c1.vertices[c1.vertice_coordinate_sums == 1]:
#ver.plot(r, draw, (0,0,255), 10, offset = body_diag * move)
ver.plot(r,
draw, (255, 0, 0),
10,
offset=body_diag * move,
scale=scale,
shift=shift1)
#ver.plot(r, draw, (0,0,255), 10)
for ver1 in c1.vertices[c1.vertice_coordinate_sums == 1]:
e = Edge(ver, ver1)
e.plot(r,
draw, (0, 0, 255),
offset=body_diag * move,
scale=scale,
shift=shift1)
#e.plot(r,draw,(255-im_ind*16,165-im_ind*13,im_ind*25), offset = body_diag * move,scale=scale1, shift=shift1)
sqr2 = rotated_vertices[[
i.index for i in c1.vertices[c1.vertice_coordinate_sums == 1]
]] + (rotated_vertices[0] - rotated_vertices[15]) * move
sqr2_orig = rotated_vertices[[
i.index for i in c1.vertices[c1.vertice_coordinate_sums == 1]
]]
draw.polygon(jarvis_convex_hull(sqr2), (0, 0, 255, int(65)))
i = 3
a = list(range(4))
a.pop(i)
tri = []
tri_orig = []
for j in a:
tri.append((sqr2[j][0], sqr2[j][1]))
tri_orig.append((sqr2_orig[j][0], sqr2_orig[j][1]))
v1 = rotated_vertices[0]
v2 = rotated_vertices[15]
im.save('Images\\RotatingCube\\im' + str(im_ind) + '.png')
print("%s seconds" % (time.time() - start_time))
count = 0
while count < num_proj:
count += 1
nnx = np.random.uniform(0, 10)
nny = np.random.uniform(0, 10)
nnz = np.random.uniform(0, 10)
theta = np.random.uniform(0, 2 * np.pi)
nx = 1 / np.sqrt(nnx**2 + nny**2 + nnz**2) * nnx
ny = 1 / np.sqrt(nnx**2 + nny**2 + nnz**2) * nny
nz = 1 / np.sqrt(nnx**2 + nny**2 + nnz**2) * nnz
R = rotation(nx, ny, nz, theta)
subcat['Position'] = da.transpose(
da.dot(R, da.transpose(subcat['Position'])))
mesh = subcat.to_mesh(Nmesh=nmesh, BoxSize=bs)
proj1 = np.fft.fftshift(mesh.preview(axes=[0, 1], Nmesh=nmesh))
proj2 = np.fft.fftshift(mesh.preview(axes=[0, 2], Nmesh=nmesh))
proj3 = np.fft.fftshift(mesh.preview(axes=[1, 2], Nmesh=nmesh))
np.save(
'/n/dvorkin_lab/anadr/%s_proj/%s/hbugfix/%s_%s_projxy_%s_%s' %
(name, numb, name, numb, count, item), proj1)
np.save(
'/n/dvorkin_lab/anadr/%s_proj/%s/hbugfix/%s_%s_projxz_%s_%s' %
def update_view(angle, data ):
"""Updates the view of a sample.
Takes the angle (an int, from 0 to 359) and the list of four bytes of data in the order they arrived.
"""
global offset, scan
# unpack data using the denomination used during the discussions
x = data[0]
x1= data[1]
x2= data[2]
x3= data[3]
angle_rad = angle * math.pi / 180.0
c = math.cos(angle_rad)
s = -math.sin(angle_rad)
dist_mm = x | (( x1 & 0x3f) << 8) # distance is coded on 13 bits ? 14 bits ?
quality = x2 | (x3 << 8) # quality is on 16 bits
lidarData[angle] = [dist_mm,quality]
# Modified for 3D vectors
raw_dist_x = dist_mm*c
raw_dist_y = dist_mm*s
dist_x, dist_y, dist_z = rot.rotation(raw_dist_x, raw_dist_y, 0, yaw_angle, pitch_angle)
dist_z = -dist_z
if visualization:
#reset the point display
point.pos[angle+(360*loc)] = vector( 0, 0, 0 )
pointb.pos[angle+(360*loc)] = vector( 0, 0, 0 )
if not use_lines : lines[angle+(360*loc)].pos[1]=(offset*c,0,offset*s)
if not use_outer_line :
outer_line.pos[angle+(360*loc)]=(offset*c,0,offset*s)
outer_line.color[angle+(360*loc)] = (0.1, 0.1, 0.2)
# display the sample
if x1 & 0x80: # is the flag for "bad data" set?
# yes it's bad data
lines[angle+(360*loc)].pos[1]=(offset*c,0,offset*s)
outer_line.pos[angle+(360*loc)]=(offset*c,0,offset*s)
outer_line.color[angle+(360*loc)] = (0.1, 0.1, 0.2)
else:
# no, it's cool
if not x1 & 0x40:
# X+1:6 not set : quality is OK
if use_intensity or use_height:
if use_height:
if dist_z <= -10:
point.color[angle+(360*loc)] = (1.,0.6,0.) # orange
elif dist_z <= 200:
point.color[angle+(360*loc)] = (1.,1,0.) # yellow
elif dist_z <= 500:
point.color[angle+(360*loc)] = (0.,1,0.) # green
else:
point.color[angle+(360*loc)] = (0.,0.,1.) # blue
if use_intensity:
if quality < 25:
point.color[angle+(360*loc)] = (1.,0.6,0.)
print "orange"
elif quality < 50:
point.color[angle+(360*loc)] = (1.,1.,0.)
print "yellow"
elif quality < 80:
point.color[angle+(360*loc)] = (0.,0.,1.)
print "blue"
if use_points and dist_z > -10:
point.pos[angle+(360*loc)] = vector( dist_x, dist_z, dist_y)
if storing == True:
lidar_df.loc[angle+(360*loc)] = [dist_x, dist_y, dist_z, quality, 0]
if use_lines : lines[angle+(360*loc)].color[1] = (1,0,0)
if use_outer_line : outer_line.color[angle+(360*loc)] = (1,0,0)
else:
# X+1:6 set : Warning, the quality is not as good as expected
if use_points and dist_z > -10:
pointb.pos[angle+(360*loc)] = vector( dist_x,dist_z, dist_y)
if storing == True:
lidar_df.loc[angle+(360*loc)] = [dist_x, dist_y, dist_z, quality, 1]
if use_lines : lines[angle+(360*loc)].color[1] = (0.4,0,0)
if use_outer_line : outer_line.color[angle+(360*loc)] = (0.4,0,0)
if use_lines : lines[angle+(360*loc)].pos[1]=( dist_x, dist_z, dist_y)
if use_outer_line : outer_line.pos[angle+(360*loc)]=( dist_x, dist_z, dist_y)
letternames= os.listdir(path_original_letters)
for letter in letternames:
letterpath = path_original_letters + '/' + letter
newletterpath = path_new_letters + '/' + letter + '/'
if not os.path.exists(newletterpath):
os.mkdir(newletterpath)
imagenames = os.listdir(letterpath)
for imagename in imagenames[0:5]:
imagepath = letterpath + '/' + imagename
image = cv2.imread(imagepath,0) #read as grayscale image
#print(newletterpath)
#Now we will do the follow with all images:
rotation(image, newletterpath + imagename[0:-4], [5,10,15,20,25,30])
noise(image, newletterpath + imagename[0:-4], [1.2,1.4,1.6,1.8,2])
translation(image, newletterpath + imagename[0:-4],[3,5])
shearing(image, newletterpath + imagename[0:-4],[0,0.5,0.8,1.2])
def teserract_body_diagonal(width=15,
im_ind=70,
scale=500,
shift=np.array([1000, 1000, 0, 0, 0]),
basepath='.\\'):
"""
@MoneyShot
basepath in main repo: images\\RotatingCube\\
Draws a four dimensional teserract with two tetrahedral
and one octahedral planes visible.
"""
c1 = Cube(4)
r = np.eye(4)
r[:3, :3] = rotation(3, np.pi * 2 * 27 / 80.0)
r1 = rotation(4, np.pi * 2 * im_ind / 80.0)
r = np.dot(r, r1)
[im, draw] = c1.plot_edges(r)
rotated_vertices = np.transpose(np.dot(r, np.transpose(
c1.vertice_matrix))) * scale + shift[:4]
hexag = rotated_vertices[[
i.index for i in c1.vertices[c1.vertice_coordinate_sums == 2]
]]
sqr1 = rotated_vertices[[
i.index for i in c1.vertices[c1.vertice_coordinate_sums == 3]
]]
try:
draw.polygon(jarvis_convex_hull(sqr1), (255, 0, 0, 60))
except:
print("err")
for ver in c1.vertices[c1.vertice_coordinate_sums == 3]:
ver.plot(r, draw, (255, 0, 0), 10)
for ver1 in c1.vertices[c1.vertice_coordinate_sums == 3]:
e = Edge(ver, ver1)
e.plot(r, draw, (255, 0, 0), width=2)
try:
draw.polygon(jarvis_convex_hull(hexag), (0, 255, 0, 30))
except:
print("err")
for ver in c1.vertices[c1.vertice_coordinate_sums == 1]:
ver.plot(r, draw, (0, 0, 255), 10)
for ver1 in c1.vertices[c1.vertice_coordinate_sums == 1]:
e = Edge(ver, ver1)
e.plot(r, draw, (0, 0, 255))
for ed in [(5, 3), (5, 6), (5, 9), (5, 12), (10, 3), (10, 6), (10, 9),
(10, 12), (3, 6), (3, 9), (12, 6), (12, 9)]:
v1 = rotated_vertices[ed[0]]
v2 = rotated_vertices[ed[1]]
draw.line((v1[0], v1[1], v2[0], v2[1]), fill=(0, 255, 0), width=4)
for ver in c1.vertices[c1.vertice_coordinate_sums == 2]:
ver.plot(r, draw, (0, 255, 0), 10)
sqr2 = rotated_vertices[[
i.index for i in c1.vertices[c1.vertice_coordinate_sums == 1]
]]
try:
draw.polygon(jarvis_convex_hull(sqr2), (0, 0, 255, 60))
except:
print("err")
v1 = rotated_vertices[0]
v2 = rotated_vertices[15]
draw.line((v1[0], v1[1], v2[0], v2[1]), fill=(255, 255, 255), width=2)
im.save(basepath + 'im' + str(im_ind) + '.png')
def best_direction(j=19.5,
im_ind=0,
scale=250,
shift=np.array([1200, 580, 0]),
draw1=None):
font = ImageFont.truetype("arial.ttf", 75)
# For the axes.
[a, b, c] = np.array([2.5, 2.5, -2.5]) * 410 / 200
## Rotation matrices.
r = rotation(3, 2 * np.pi * j / 30.0)
r1 = np.eye(4)
r1[:3, :3] = r
## Image objects.
if draw1 is None:
im = Image.new("RGB", (2048, 2048), "black")
draw = ImageDraw.Draw(im, 'RGBA')
else:
draw = draw1
## Create the axes.
render_scene_4d_axis(draw, r1, 4, scale=scale, shift=shift)
pt1 = np.dot(r, np.array([a, 0, 0])) * scale + shift[:3]
pt2 = np.dot(r, np.array([0, b, 0])) * scale + shift[:3]
pt3 = np.dot(r, np.array([0, 0, c])) * scale + shift[:3]
## The point where this plane extends.
pt4 = np.dot(r, np.array([a, b, -c])) * scale + shift[:3]
draw.line((pt1[0], pt1[1], pt2[0], pt2[1]), fill=(200, 80, 100), width=3)
draw.line((pt1[0], pt1[1], pt2[0], pt2[1]), fill='orange', width=3)
draw.polygon([(pt1[0], pt1[1]), (pt3[0], pt3[1]), (pt2[0], pt2[1])],
(200, 80, 100, 100))
draw.polygon([(pt1[0], pt1[1]), (pt4[0], pt4[1]), (pt2[0], pt2[1])],
(200, 80, 100, 120))
draw.line((shift[0], shift[1], pt3[0], pt3[1]), fill="yellow", width=7)
draw.line((shift[0], shift[1], pt1[0], pt1[1]), fill="yellow", width=7)
draw.line((shift[0], shift[1], pt2[0], pt2[1]), fill="yellow", width=7)
## Draw the x-y grid.
drawXYGrid(draw, r, 1.25, scale=scale, shift=shift)
## We start at 45 degrees and trace a circular arc from there.
pt_1 = np.array([a / 2.0, b / 2.0, 0])
arxExt = int(180 * im_ind / 10.0)
draw_circle_x_y(draw=draw,
r=r,
center=pt_1[:2],
radius=1,
start=np.array([1 / np.sqrt(2), 1 / np.sqrt(2), 0]),
arcExtent=arxExt,
scale=scale,
shift=shift)
project_circle_on_plane(draw=draw,
r=r,
center=pt_1[:2],
radius=1,
plane=np.array([a, b, c]),
start=np.array([1 / np.sqrt(2), 1 / np.sqrt(2),
0]),
arcExtent=arxExt,
scale=scale,
shift=shift)
## Draw a point right at the center of the orange line.
pt = np.dot(r, pt_1) * scale + shift[:3]
width = 10
draw.ellipse((pt[0] - width, pt[1] - width, pt[0] + width, pt[1] + width),
fill=(102, 255, 51))
# We start at 45 degrees and trace a circular arc from there.
theta = np.arctan(a / b) + np.pi * im_ind / 10.0
pt_2 = pt_1 + 1.0 * np.array([np.cos(theta), np.sin(theta), 0])
arrowV1(draw, r, pt_1, pt_2, scale=scale, shift=shift)
## Draw a pink triangle with vertices: head of arrow, tail of arrow, projection on plane.
arrow_w_projection(im, draw, r, pt_1, pt_2, plane=np.array([a, b, c]))
## If you didn't provide the draw object, we will save the image.
if draw1 is None:
im.save('.\\im' + str(im_ind) + '.png')
