def update(self):
gx, gy = motion.get_gravity()[:2]
self.physics_gravity = (gx * 10, gy * 10)
time_str = time.strftime('%H:%M:%S')
if time_str == self.time_str:
return
for i, c in enumerate(time_str):
if c != self.time_str[i]:
# Digit has changed, replace it with a new sprite...
old = self.clock_nodes[i]
sprite = sk.SpriteNode(self.textures[c])
sprite.position += old.position.x, old.position.y + s * 2
sprite.alpha = 0.0
sprite.run_action(sk.Action.fade_in(0.7))
move = sk.Action.move_by(0, -s * 2, 0.85)
move.timing_mode = sk.TIMING_EASE_OUT
sprite.run_action(move)
self.clock_nodes[i] = sprite
self.add_child(sprite)
# Make the old sprite drop by assigning a physics body:
b = sk.PhysicsBody.from_texture(old.texture)
b.restitution = 0.25
old.physics_body = b
self.dropped_sprites.add(old)
# Remove sprites that are no longer visible:
offscreen = {
s
for s in self.dropped_sprites if s.position[1] < 0
}
map(sk.Node.remove_from_parent, offscreen)
self.dropped_sprites -= offscreen
self.time_str = time_str
def main():
console.alert(
'Motion Plot',
'When you tap Continue, accelerometer (motion) data will be recorded for 5 seconds.',
'Continue')
motion.start_updates()
sleep(0.2)
print('Capturing motion data...')
num_samples = 100
data = []
for i in range(num_samples):
sleep(0.05)
g = motion.get_gravity()
data.append(g)
motion.stop_updates()
print('Capture finished, plotting...')
x_values = [x * 0.05 for x in range(num_samples)]
for i, color, label in zip(range(3), 'rgb', 'XYZ'):
plt.plot(x_values, [g[i] for g in data], color, label=label, lw=2)
plt.grid(True)
plt.xlabel('t')
plt.ylabel('G')
plt.gca().set_ylim([-1.0, 1.0])
plt.legend()
plt.show()
def main():
console.alert('Motion Experiment 2', 'yo gang gang, we gonna measure this motion', 'Continue')
motion.start_updates()
sleep(0.2)
print('Capturing motion data...')
w = 1000
h = 1200
while True:
sleep(0.01)
current = motion.get_gravity()
newMotion = [0,0,0]
for i in range(len(current)):
newMotion[i] = (current[i]*(10**3))//1
#print(newMotion)
x = newMotion[0]+500
y = newMotion[1]+500
z = newMotion[2]+1000
goalX = w/2
goalY = h/2
canvas.set_size(w, h)
canvas.set_fill_color(0, 0, 0)
canvas.fill_ellipse(goalX, goalY, 30, 30)
if (abs(goalX-x) < 10 and abs(goalY-y) < 10):
canvas.set_fill_color(0, 1, 0)
canvas.fill_ellipse(x, y, 30, 30)
else:
canvas.set_fill_color(1, 0, 0)
canvas.fill_ellipse(x, y, 30, 30)
motion.stop_updates()
print('Capture finished, plotting...')
def main():
console.alert('Motion Experiment 2',
'yo gang gang, we gonna measure this motion', 'Continue')
motion.start_updates()
sleep(0.2)
print('Capturing motion data...')
w = 512
h = 512
while True:
sleep(0.1)
current = motion.get_gravity()
newMotion = [0, 0, 0]
for i in range(len(current)):
newMotion[i] = (current[i] * (10**3)) // 1
#print(newMotion)
if newMotion[0] < 1001 and newMotion[0] > 900 and newMotion[
1] > -50 and newMotion[1] < 50 and newMotion[
2] > -50 and newMotion[2] < 50:
canvas.set_size(w, h)
canvas.set_fill_color(1, 0, 0)
canvas.fill_ellipse(0, 0, w, h)
if newMotion[0] > -1001 and newMotion[0] < -900 and newMotion[
1] > -50 and newMotion[1] < 50 and newMotion[
2] > -50 and newMotion[2] < 50:
canvas.set_size(w, h)
canvas.set_fill_color(0, 1, 0)
canvas.fill_ellipse(0, 0, w, h)
if newMotion[0] > -50 and newMotion[0] < 50 and newMotion[
1] > -50 and newMotion[1] < 50 and newMotion[
2] > -1001 and newMotion[2] < -900:
canvas.set_size(w, h)
canvas.set_fill_color(0, 0, 1)
canvas.fill_ellipse(0, 0, w, h)
motion.stop_updates()
print('Capture finished, plotting...')
def environ_data(sender):
import motion
import location
motion.start_updates()
location.start_updates()
x = motion.get_attitude()
environ['att'].text = str(x) + '\n' + environ['att'].text
x = motion.get_gravity()
environ['grav'].text = str(x) + '\n' + environ['grav'].text
x = motion.get_user_acceleration()
environ['acc'].text = str(x) + '\n' + environ['acc'].text
x = motion.get_magnetic_field()
environ['mag'].text = str(x) + '\n' + environ['mag'].text
x = location.get_location()
coord = {'latitude': x['latitude'], 'longitude': x['longitude']}
print(coord)
y = location.reverse_geocode(coord)
print(y)
environ['geo'].text = str(x)
motion.stop_updates()
location.stop_updates()
def update(self):
self.text.text = str(len(self.particles))
(x, y, z) = motion.get_gravity()
gravity = (-y / 10, x / 10)
for particle in self.particles:
particle.update(self.size, gravity)
self.addParticle()
def settilt(self):
'''Reset ball position to the center of the box.'''
global tilt
gy, gx, gz = motion.get_gravity()
tilt = gy
tvx, tvy, tvw, tvh = self.frame
self.ball.x = int(tvw / 2) - (self.ball.bounds[2] / 2) + tvx
self.ball.y = int(tvh / 2) - (self.ball.bounds[3] / 2) + tvy
def settilt(self): '''Reset ball position to the center of the box.''' global tilt gy, gx, gz = motion.get_gravity() tilt = gy tvx, tvy, tvw, tvh = self.frame self.ball.x = int(tvw / 2) - (self.ball.bounds[2] / 2) + tvx self.ball.y = int(tvh / 2) - (self.ball.bounds[3] / 2) + tvy
def draw(self):
global box_node, box
global pitch, roll, yaw, ax, ay, az, gx, gy, gz
global main_view
global ax1, fig
#処理が追い付かないのでタイマーをいれる
#time.sleep(0.01)
#加速度、ジャイロの値を更新
ax, ay, az = motion.get_user_acceleration()
gx, gy, gz = motion.get_gravity()
gravity_vectors = motion.get_attitude()
mgx, mgy, mgz, mga = motion.get_magnetic_field()
pitch, roll, yaw = [x for x in gravity_vectors]
# ラジアン→度へ変換
pitch = -pitch * 180 / 3.1415926
roll = roll * 180 / 3.1415926
yaw = -yaw * 180 / 3.1415926
#再描画
box_node.runAction_(
SCNAction.rotateToX_y_z_duration_(math.pi * pitch / 180,
math.pi * roll / 180,
-math.pi * yaw / 180, 0))
#加速度、ジャイロ、地磁気センサーの値を表示
main_view['ax'].text = str(round(ax, 2))
main_view['ay'].text = str(round(ay, 2))
main_view['az'].text = str(round(az, 2))
main_view['gx'].text = str(round(gx, 2))
main_view['gy'].text = str(round(gy, 2))
main_view['gz'].text = str(round(gz, 2))
main_view['mx'].text = str(round(mgx, 2))
main_view['my'].text = str(round(mgy, 2))
main_view['mz'].text = str(round(mgz, 2))
# graphics
self.py.pop(0)
self.ry.pop(0)
self.yy.pop(0) # left
self.py.append(pitch)
self.ry.append(roll)
self.yy.append(yaw) # add data
ax1.plot(self.xl, self.py, color='lightgreen', lw='1') # pitch graph
ax1.plot(self.xl, self.ry, color='red', lw='1') # roll graph
ax1.plot(self.xl, self.yy, color='skyblue', lw='1') # yaw graph
plt.savefig('rt.png') # save the graph on the consolen
main_view['imageview1'].image = ui.Image.named('rt.png') # imageview
plt.cla() # clear graph
plt.close() # close graph
fig = plt.figure() #
ax1 = fig.add_subplot(111) #
ax1.grid(True)
ymin = -180
ymax = 180
plt.ylim(ymin, ymax)
def update(self):
x, y, z = motion.get_gravity()
if abs(x) > abs(y):
if x > 0:
self.label_node.text = 'LANDSCAPE, RIGHT'
else:
self.label_node.text = 'LANDSCAPE, LEFT'
else:
if y < 0:
self.label_node.text = 'PORTRAIT'
def update(self):
x, y, z = motion.get_gravity()
if abs(x) > abs(y):
if x > 0:
self.label_node.text = 'LANDSCAPE, RIGHT'
else:
self.label_node.text = 'LANDSCAPE, LEFT'
else:
if y < 0:
self.label_node.text = 'PORTRAIT'
def update(self):
motion.start_updates()
time.sleep(0.3)
g3 = motion.get_gravity()
motion.stop_updates()
# for g in g3:
# print(round(g, 3), end = '\t')
# print()
self.isProne = g3[2] > 0.3
self.isLowBattery = self.device.batteryLevel() < 0.05
def _take_photo(self,size):
while size == self._que.qsize():
pass
self.whiteWaiter.submit(self._whiteWaiter)
self.savingPhotoView.alpha = 0.5
# motion.start_updates()
motionData = motion.get_gravity()
# motion.stop_updates()
if motionData[0] >= 0.5:
rot = 1
elif motionData[0] <= -0.5:
rot = 0
else:
rot = 3
# delta = time.time() - self.shoot
# print('shooted time:{}'.format(delta))
ciimage = self._que.get()
uiImg = UIImage.imageWithCIImage_scale_orientation_(
ciimage, 1.0, rot)
if self._fileformat == 'PNG':
data = ObjCInstance(c.UIImagePNGRepresentation(uiImg.ptr))
fmt = 'png'
elif self._fileformat == 'CIImage':
data = uiImg.CIImage()
elif self._fileformat == 'UIImage':
data = uiImg
else:
quality = 0.8
data = ObjCInstance(
c.UIImageJPEGRepresentation(uiImg.ptr, quality))
fmt = 'jpg'
if self._saveAlbum:
temppath = self._saveData2temp(data,fmt)
photos.create_image_asset(temppath)
if self._fileformat == 'PIL':
temppath = self._saveData2temp(data,'pil')
data = self._temp2pil(temppath)
self._que.task_done()
if self._autoclose:
self.data = data
time.sleep(1)
self.close()
if self._que.all_tasks_done:
self.latestPhotoView.image = self._get_latest_photo_from_path(temppath)
self.savingPhotoView.alpha = 0.0
def _rotateViewsAnimation(self):
motionData = motion.get_gravity()
# print(motionData)
if motionData[0] >= 0.5:
rad = math.pi/2*-1
elif motionData[0] <= -0.5:
rad = math.pi/2
else:
rad = 0
def animation():
self.zoomView.transform = ui.Transform.rotation(rad)
self.latestPhotoView.transform = ui.Transform.rotation(rad)
ui.animate(animation, duration=0.3)
def ios(rate=quantity(1, units.second)):
"""Retrieve motion information from an iOS device.
This component requires the `motion` module provided by Pythonista.
Parameters
----------
rate: time quantity, required
Rate at which motion data will be retrieved.
Yields
------
records: dict
Records will contain information including the current acceleration due to gravity and the user, along with device attitude.
"""
import time
import motion # pylint: disable=import-error
rate = rate.to(units.seconds).magnitude
motion.start_updates()
try:
while True:
gravity = quantity(motion.get_gravity(), units.meters * units.seconds * units.seconds)
acceleration = quantity(motion.get_user_acceleration(), units.meters * units.seconds * units.seconds)
attitude = quantity(motion.get_attitude(), units.radians)
record = dict()
add_field(record, ("gravity", "x"), gravity[0])
add_field(record, ("gravity", "y"), gravity[1])
add_field(record, ("gravity", "z"), gravity[2])
add_field(record, ("acceleration", "x"), acceleration[0])
add_field(record, ("acceleration", "y"), acceleration[1])
add_field(record, ("acceleration", "z"), acceleration[2])
add_field(record, ("attitude", "roll"), attitude[0])
add_field(record, ("attitude", "pitch"), attitude[1])
add_field(record, ("attitude", "yaw"), attitude[2])
yield record
time.sleep(rate)
except GeneratorExit:
motion.stop_updates()
def update(self):
m = motion.get_magnetic_field()
self.mf.text = '{:.1f} {:.1f} {:.1f} {:.3f}'.format(
m[0], m[1], m[2], m[3])
acc = motion.get_user_acceleration()
self.acc.text = '{:.3f} {:.3f} {:.3f}'.format(acc[0], acc[1], acc[2])
grav = motion.get_gravity()
self.grav.text = '{:.3f} {:.3f} {:.3f}'.format(grav[0], grav[1],
grav[2])
#determine screen orientation. Portrait modes flip 180 deg if the device is face down. Use local z gravity to detect.
orient = int(self.wv.eval_js('window.orientation'))
if (orient == 0):
#portrait, home button on bottom
if grav[2] <= 0.:
init_angle = -90
else:
init_angle = 90
elif (orient == 90):
#landscape, home button on right
init_angle = 0
elif (orient == -90):
#landscape, home button on right
init_angle = 180
else:
#portrait, home button on top
if grav[2] <= 0.:
init_angle = 90
else:
init_angle = -90
self.ori.text = str(orient)
att = motion.get_attitude()
self.att.text = '{:.3f} {:.3f} {:.3f}'.format(att[0], att[1], att[2])
ang = (init_angle - int(math.degrees(att[2]))) % 360
self.ang.text = str(ang)
def main():
console.alert('Motion Experiment 2',
'yo gang gang, we gonna measure this motion', 'Continue')
motion.start_updates()
sleep(0.2)
print('Capturing motion data...')
while True:
sleep(0.05)
current = motion.get_gravity()
newMotion = [0, 0, 0]
for i in range(len(current)):
newMotion[i] = (current[i] * (10**2)) // 1
x = newMotion[0] + 100
y = newMotion[1] + 100
z = newMotion[2] + 100
print(x, y, z)
motion.stop_updates()
print('Capture finished, plotting...')
def waitForLandscapeMode():
msg = 'Please, hold your phone in landscape mode'
console.hud_alert(msg, duration=3)
motion.start_updates()
try:
count = 0
while True:
x, y, z = motion.get_gravity()
count += 1
if count > 2:
if abs(x) > abs(y):
break
else:
console.hud_alert(msg, duration=2)
time.sleep(0.5)
finally:
motion.stop_updates()
time.sleep(1)
def draw(self):
'''Update the ball position based on gravity.'''
if self.ball == None : return
m = Point(0,0)
gy, gx, gz = motion.get_gravity()
gy -= tilt
if abs(gx) >= gravsense:
m.x = mrate * sgn(gx)
if abs(gy) >= gravsense:
m.y = mrate * sgn(gy)
#If movement in x or y then update.
if m.x or m.y:
tvx, tvy, tvw, tvh = self.frame
tvmaxx = tvx + tvw - self.ball.bounds[2]
tvmaxy = tvy + tvh - self.ball.bounds[3]
self.ball.x = max(tvx, min(tvmaxx, self.ball.x + m.x)) #Clamp values within box.
self.ball.y = max(tvy, min(tvmaxy, self.ball.y + m.y))
self.ball.set_needs_display()
async def gravity(self, instance, async_lib):
motion.start_updates()
try:
while True:
timestamp = time.time()
gravity = motion.get_gravity()
user_acceleration = motion.get_user_acceleration()
attitude = motion.get_attitude()
magnetic_field = motion.get_magnetic_field()
await self.gravity.write(value=gravity, timestamp=timestamp)
await self.user_acceleration.write(value=user_acceleration,
timestamp=timestamp)
await self.attitude.write(value=attitude, timestamp=timestamp)
await self.magnetic_field.write(value=magnetic_field,
timestamp=timestamp)
await async_lib.library.sleep(0.01)
finally:
# TODO: put in @gravity.shutdown when in released version
motion.stop_updates()
def draw(self):
'''Update the ball position based on gravity.'''
if self.ball == None: return
m = Point(0, 0)
gy, gx, gz = motion.get_gravity()
gy -= tilt
if abs(gx) >= gravsense:
m.x = mrate * sgn(gx)
if abs(gy) >= gravsense:
m.y = mrate * sgn(gy)
#If movement in x or y then update.
if m.x or m.y:
tvx, tvy, tvw, tvh = self.frame
tvmaxx = tvx + tvw - self.ball.bounds[2]
tvmaxy = tvy + tvh - self.ball.bounds[3]
self.ball.x = max(tvx, min(tvmaxx, self.ball.x +
m.x)) #Clamp values within box.
self.ball.y = max(tvy, min(tvmaxy, self.ball.y + m.y))
self.ball.set_needs_display()
def Main(socket):
print('Server Started')
s.listen(1)
c, addr = s.accept()
print('Connection From: ' + str(addr))
motion.start_updates()
while True:
xaccel, yaccel, zaccel= motion.get_gravity()
xrot, yrot, zrot= motion.get_attitude()
message= str(xaccel)[:6] + ',' + str(yaccel)[:6] + ',' + str(zaccel)[:6] + ','+ str(xrot)[:6] + ',' + str(yrot)[:6] + ',' + str(zrot)[:6]
print(message)
try:
c.send(str(message))
time.sleep(0.05)
except:
break
c.close()
Main(socket)
def main():
console.alert('Motion Experiment 2', 'yo gang gang, we gonna measure this motion', 'Continue')
motion.start_updates()
sleep(0.2)
print('Capturing motion data...')
num_samples = 100
w = 512
h = 512
for nums in range(num_samples):
canvas.set_size(w, h)
sleep(0.05)
current = motion.get_gravity()
newMotion = [0,0,0]
for i in range(len(current)):
newMotion[i] = (current[i]*(10**3))//1
print(newMotion)
canvas.set_fill_color(1, 0, 0)
canvas.fill_ellipse(0, 0, newMotion[1], newMotion[2])
motion.stop_updates()
print('Capture finished, plotting...')
def main():
console.alert('Motion Experiment 2', 'yo gang gang, we gonna measure this motion', 'Continue')
motion.start_updates()
sleep(0.2)
print('Capturing motion data...')
while True:
sleep(0.05)
current = motion.get_gravity()
newMotion = [0,0,0]
for i in range(len(current)):
newMotion[i] = (current[i]*(10**3))//1
#print(newMotion)
if newMotion[0] < 1001 and newMotion[0] > 900 and newMotion[1] > -50 and newMotion[1] < 50 and newMotion[2] > -50 and newMotion[2] < 50:
print("Position: Landscape Right")
if newMotion[0] > -1001 and newMotion[0] < -900 and newMotion[1] > -50 and newMotion[1] < 50 and newMotion[2] > -50 and newMotion[2] < 50:
print("Position: Landscape Left")
if newMotion[0] > -50 and newMotion[0] < 50 and newMotion[1] > -50 and newMotion[1] < 50 and newMotion[2] > -1001 and newMotion[2] < -900:
print("Position: Flat")
motion.stop_updates()
print('Capture finished, plotting...')
def main():
console.alert('Motion Experiment 2',
'yo gang gang, we gonna measure this motion', 'Continue')
motion.start_updates()
sleep(0.2)
print('Capturing motion data...')
w = 1000
h = 1200
goalX = w / 2
goalY = h / 2
moalX = w / 2 - 100
moalY = h / 2 - 100
while True:
sleep(0.01)
current = motion.get_gravity()
newMotion = [0, 0, 0]
for i in range(len(current)):
newMotion[i] = (current[i] * (10**2)) // 1
#print(newMotion)
x = newMotion[0] + 100
y = newMotion[1] + 100
z = newMotion[2] + 100
goalX += (x - 100)
goalY += (y - 100)
moalX += (x - 102) * 2
moalY += (y - 102) * 2
if goalX <= 0 or goalY <= 0 or goalX >= w or goalY >= h:
goalX -= (x - 100)
goalY -= (y - 100)
if moalX <= 0 or moalY <= 0 or moalX >= w or moalY >= h:
moalX -= (x - 102) * 2
moalY -= (y - 102) * 2
canvas.set_size(w, h)
canvas.set_fill_color(0, 0, 0)
canvas.fill_ellipse(goalX, goalY, 30, 30)
canvas.set_fill_color(0, 0, 1)
canvas.fill_ellipse(moalX, moalY, 30, 30)
motion.stop_updates()
print('Capture finished, plotting...')
def main():
console.alert('Motion Plot', 'When you tap Continue, accelerometer (motion) data will be recorded for 5 seconds.', 'Continue')
motion.start_updates()
sleep(0.2)
print 'Capturing motion data...'
num_samples = 100
data = []
for i in xrange(num_samples):
sleep(0.05)
g = motion.get_gravity()
data.append(g)
motion.stop_updates()
print 'Capture finished, plotting...'
x_values = [x*0.05 for x in xrange(num_samples)]
for i, color, label in zip(range(3), 'rgb', 'XYZ'):
plt.plot(x_values, [g[i] for g in data], color, label=label, lw=2)
plt.grid(True)
plt.xlabel('t')
plt.ylabel('G')
plt.gca().set_ylim([-1.0, 1.0])
plt.legend()
plt.show()
def draw(self):
#Center scaling
self.centerX = self.size.w / 2
self.centerY = self.size.h / 2
self.centerX2 = self.size.w / 2
self.centerY2 = self.size.h * (1 / 2) - scale * 3.5
time.sleep(0.1) #time between each redraw
self.timerCount += 1 #add to the timer to animate and do things
#Title Text
tint(0, 0, 0, 1)
text('Thread 1.0',
font_name='Courier',
font_size=16.0,
x=self.centerX2,
y=self.centerY2 + self.radius + 400,
alignment=5)
#Locations recorded count
tint(0.4, 0.4, 0.4, 1)
locationCountText = "Locations: " + str(len(self.locations))
text(locationCountText,
font_name='Verdana',
font_size=10,
x=50,
y=self.centerY2 + self.radius + 400,
alignment=5)
if self.checkedOnce == 4:
locationLeftText = "Left: " + str(len(self.locationsLeft))
text(locationLeftText,
font_name='Verdana',
font_size=10,
x=self.size.x - 60,
y=self.centerY2 + self.radius + 400,
alignment=5)
#motion
gravX, gravY, gravZ = motion.get_gravity()
gravity_vectors = motion.get_attitude()
yaw = gravity_vectors[2]
#convert yaw to degrees
yaw = -yaw * 180 / math.pi
############# redraw screen ############
#Reset Button
fill(0.9, 0.9, 0.9)
stroke_weight(0)
ellipse(self.centerX2 - scale * 3 - self.radius,
self.centerY2 - self.radius - 130, self.radius * 2,
self.radius * 2)
tint(0.4, 0.4, 0.4, 1)
text('Reset',
font_name='Verdana',
font_size=12.0,
x=self.centerX2 - 112,
y=self.centerY2 + self.radius - 167,
alignment=5)
#SOS Button and
fill(0.95, 0.6, 0.6)
tint(1, 1, 1, 1)
if self.MoreState == True:
#SOS Button
fill(0.95, 0.6, 0.6)
tint(1, 1, 1, 1)
ellipse(self.centerX2 - 0.0 - self.radius,
self.centerY2 - self.radius - 130, self.radius * 2,
self.radius * 2)
text('SOS',
font_name='Verdana',
font_size=12.0,
x=self.centerX2,
y=self.centerY2 + self.radius - 167,
alignment=5)
#MAP Button
if len(self.locations) >= 2:
fill(0.6, 0.6, 0.95)
tint(1, 1, 1, 1)
ellipse(self.centerX2 - scale * 3 - self.radius,
self.centerY2 - self.radius - 20, self.radius * 2,
self.radius * 2)
text('Map View',
font_name='Verdana',
font_size=12.0,
x=self.centerX2 - 112,
y=self.centerY2 + self.radius - 57,
alignment=5)
#SOS Button
fill(0.95, 0.6, 0.6)
tint(1, 1, 1, 1)
ellipse(self.centerX2 - 0.0 - self.radius,
self.centerY2 - self.radius - 130, self.radius * 2,
self.radius * 2)
text('SOS',
font_name='Verdana',
font_size=12.0,
x=self.centerX2,
y=self.centerY2 + self.radius - 167,
alignment=5)
#More button at the bottom of screen
elif self.MoreState == False:
ellipse(self.size.x / 2 - self.radius / 2, 0 - self.radius / 2 - 5,
self.radius, self.radius)
#compass draw
tint(0.4, 0.4, 0.4, 1)
stroke(0.4, 0.4, 0.4)
stroke_weight(0)
fill(0.9, 0.9, 0.9)
ellipse(self.centerX2 + scale * 3 - self.radius,
self.centerY2 - self.radius - 130, self.radius * 2,
self.radius * 2)
stroke_weight(0)
ellipse(self.centerX2 + scale * 3 - self.radius + 3,
self.centerY2 - self.radius - 127, self.radius * 1.85,
self.radius * 1.85)
ellipse(self.centerX2 + scale * 3 - self.radius + 6,
self.centerY2 - self.radius - 124, self.radius * 1.7,
self.radius * 1.7)
yawSin = math.sin(math.radians(yaw))
yawCos = math.cos(math.radians(yaw))
stroke(0.4, 0.4, 0.4)
stroke_weight(2)
line(self.centerX2 - yawCos * self.radius + scale * 3,
self.centerY2 - yawSin * self.radius - 130,
self.centerX2 + yawCos * self.radius + scale * 3,
self.centerY2 + yawSin * self.radius - 130)
stroke(1, 0.3, 0.3)
line(300, 72.5, self.centerX2 + yawCos * self.radius + scale * 3,
self.centerY2 + yawSin * self.radius - 130)
#circle on top of compass
stroke_weight(0)
stroke(0.4, 0.4, 0.4)
fill(1, 1, 1)
ellipse(self.centerX2 + scale * 3 - self.radius + 9.5,
self.centerY2 - self.radius - 120.5, self.radius * 1.5,
self.radius * 1.5)
#derive the direction (NSEW)
def directionText(yaw):
directionSym = ''
#Direction
if yaw > 60 and yaw <= 120:
directionSym = 'N'
elif yaw > 120 and yaw <= 150:
directionSym = 'NE'
elif (yaw > 150 and yaw <= 180) or (yaw >= -180 and yaw <= -150):
directionSym = 'E'
elif yaw > -150 and yaw <= -120:
directionSym = 'SE'
elif yaw > -120 and yaw <= -60:
directionSym = 'S'
elif yaw > -60 and yaw <= -30:
directionSym = 'SW'
elif yaw > -30 and yaw <= 30:
directionSym = 'W'
elif yaw > 30 and yaw <= 60:
directionSym = 'NW'
else:
directionSym = ''
return directionSym
#compass text
tint(0.4, 0.4, 0.4, 1)
if self.compassStat == False:
text(directionText(yaw),
font_name='Verdana',
font_size=10.0,
x=self.centerX2 + scale * 3,
y=self.centerY2 + self.radius - 167,
alignment=5)
else:
tempYaw = yaw + 180 + 90
if tempYaw > 360:
tempYaw = tempYaw % 360
yawString = str(int(round(tempYaw, 0))) + chr(186)
text(yawString,
font_name='Verdana',
font_size=10.0,
x=self.centerX2 + scale * 3,
y=self.centerY2 + self.radius - 167,
alignment=5)
#Center Screen Text
tint(0.4, 0.4, 0.4, 1)
if self.measuringOn == False and self.checkedOnce == 0:
text('Tap to Start',
font_name='Verdana',
font_size=16.0,
x=self.centerX2,
y=self.centerY2 + self.radius + 150,
alignment=5)
elif self.measuringOn == True and self.checkedOnce == 1:
if self.timerCount // 10 % 3 == 0:
text('Measuring.',
font_name='Verdana',
font_size=16.0,
x=self.centerX2,
y=self.centerY2 + self.radius + 150,
alignment=5)
elif self.timerCount // 10 % 3 == 1:
text('Measuring..',
font_name='Verdana',
font_size=16.0,
x=self.centerX2,
y=self.centerY2 + self.radius + 150,
alignment=5)
elif self.timerCount // 10 % 3 == 2:
text('Measuring...',
font_name='Verdana',
font_size=16.0,
x=self.centerX2,
y=self.centerY2 + self.radius + 150,
alignment=5)
text('Tap to Stop',
font_name='Verdana',
font_size=16.0,
x=self.centerX2,
y=self.centerY2 + self.radius + 120,
alignment=5)
elif self.measuringOn == False and self.checkedOnce == 2:
text('Calculating',
font_name='Verdana',
font_size=16.0,
x=self.centerX2,
y=self.centerY2 + self.radius + 150,
alignment=5)
#When measuring is on record locations and put into array
if self.measuringOn == True:
current = location.get_location()
latLong = (round(current['latitude'],
4), round(current['longitude'], 4)
) #solved the close points problem using rounding
if latLong not in self.locations:
self.locations += [latLong]
#after measuring is off, setup array to use (states Calculating)
elif self.checkedOnce == 2 and len(self.locations) > 2:
#the first and last locations are usually off so pop them off
# self.locations.pop(0)
# self.locations.pop()
self.locationsReversed = copy.deepcopy(self.locations)
self.locationsReversed.reverse()
self.locationsLeft = copy.deepcopy(self.locations)
#do this to avoid tapping too early
self.checkedOnce += 1
#after the array set up, tap to get back to where you were
elif self.checkedOnce == 3:
text('Tap to return to start',
font_name='Verdana',
font_size=16.0,
x=self.centerX2,
y=self.centerY2 + self.radius + 150,
alignment=5)
# locationList = str(self.locations[0]) + ' ' + str(self.locations[-1])
# text(locationList, font_name='Verdana', font_size=5.0, x=self.centerX2, y=self.centerY2+self.radius+80, alignment=5)
# locationListReversed = str(self.locationsReversed[0]) + ' ' + str(self.locationsReversed[-1])
# text(locationListReversed, font_name='Verdana', font_size=5.0, x=self.centerX2, y=self.centerY2+self.radius+60, alignment=5)
#The return back..
elif self.checkedOnce == 4:
x, y = self.locations[-1]
x = round(x, 10)
y = round(y, 10)
loc = "[" + str(x) + ", " + str(y) + "]"
fill(0.9, 0.9, 0.9)
stroke(0, 0, 0)
stroke_weight(0)
rect(0, 560, self.size.w, 50)
# text('Destination:', font_name='Verdana', font_size=12.0, x=70, y=550, alignment=5)
# text(loc, font_name='Verdana', font_size=12.0, x=230, y=550, alignment=5)
totalDistanceTraveled = 0
for i in range(len(self.locations) - 1):
firstPosX, firstPosY = self.locations[i]
nextPosX, nextPosY = self.locations[i + 1]
dist = ((nextPosX - firstPosX)**2 +
(nextPosY - firstPosY)**2)**0.5
totalDistanceTraveled += dist
text('Distance Traveled:',
font_name='Verdana',
font_size=12.0,
x=70,
y=585,
alignment=5)
text(str(totalDistanceTraveled),
font_name='Verdana',
font_size=12.0,
x=230,
y=585,
alignment=5)
textPosX = self.size.x / 2
textPosY = self.size.y / 2
if (len(self.locationsLeft) > 1):
currPosX, currPosY = self.locations[-1]
nextPosX, nextPosY = self.locations[-2]
#differenceX = nextPosX - currPosX
#differenceY = nextPosY - currPosY
differenceX = 1
differenceY = 1
directionAngle = math.atan(differenceY / differenceX)
degreeAngle = math.degrees(directionAngle)
#point in right direction
if (currPosX <= nextPosX and currPosY <= nextPosY):
text(str(round(degreeAngle, 4)),
font_name='Verdana',
font_size=16.0,
x=textPosX,
y=textPosY,
alignment=5)
elif (currPosX <= nextPosX and currPosY >= nextPosY):
text(str(round(degreeAngle, 4) + 180),
font_name='Verdana',
font_size=16.0,
x=textPosX,
y=textPosY,
alignment=5)
elif (currPosX >= nextPosX and currPosY >= nextPosY):
text(str(round(degreeAngle, 4) + 180),
font_name='Verdana',
font_size=16.0,
x=textPosX,
y=textPosY,
alignment=5)
elif (currPosX >= nextPosX and currPosY <= nextPosY):
text(str(round(degreeAngle, 4) + 360),
font_name='Verdana',
font_size=16.0,
x=textPosX,
y=textPosY,
alignment=5)
#tracing back steps
current = location.get_location()
latLong = (round(current['latitude'],
4), round(current['longitude'], 4)
) #solved the close points problem using rounding
if latLong in self.locationsLeft:
loc = self.locationsLeft.index(latLong)
# self.locationsLeft.remove(latLong)
self.locationsLeft = self.locationsLeft[0:loc]
else:
text("Welcome Back.",
font_name='Verdana',
font_size=16.0,
x=textPosX,
y=textPosY,
alignment=5)
def draw(self):
time.sleep(0.1) #time between each redraw
self.timerCount += 1 #add to the timer to animate and do things
#Title Text
tint(self.theme["titleColor"])
text('Thread 1.0',
font_name='Courier',
font_size=16.0,
x=self.centerX2,
y=self.centerY2 + self.scale + 400,
alignment=5)
#Locations recorded count
tint(self.theme["locationCount"])
locationCountText = "Locations: " + str(len(self.locations))
text(locationCountText,
font_name='Verdana',
font_size=10,
x=50,
y=self.centerY2 + self.scale + 400,
alignment=5)
if self.checkedOnce == 4:
locationLeftText = "Left: " + str(len(self.locationsLeft))
text(locationLeftText,
font_name='Verdana',
font_size=10,
x=self.size.x - 60,
y=self.centerY2 + self.scale + 400,
alignment=5)
#motion
gravX, gravY, gravZ = motion.get_gravity()
gravity_vectors = motion.get_attitude()
pitch = gravity_vectors[0]
roll = gravity_vectors[1]
yaw = gravity_vectors[2]
#convert yaw to degrees
yaw = -yaw * 180 / math.pi
pitch = -pitch * 180 / math.pi
roll = -roll * 180 / math.pi
############# redraw screen ############
#Reset Button
fill(self.theme["buttonFill"])
stroke_weight(0)
ellipse(self.centerX2 - self.scale * 3 - self.scale,
self.centerY2 - self.scale - 130, self.scale * 2,
self.scale * 2)
tint(self.theme["buttonText"])
text('Reset',
font_name='Verdana',
font_size=12.0,
x=self.centerX2 - 112,
y=self.centerY2 + self.scale - 167,
alignment=5)
#LOCATION GET
current = location.get_location()
latLong = (round(current['latitude'],
4), round(current['longitude'], 4)
) #solved the close points problem using rounding
picTaken = latLong in self.photoLocations
#orientation calculation
yawSin = math.sin(math.radians(yaw))
yawCos = math.cos(math.radians(yaw))
rollSin = math.sin(math.radians(roll))
rollCos = math.cos(math.radians(roll))
pitchSin = math.sin(math.radians(pitch))
pitchCos = math.cos(math.radians(pitch))
#compass draw
tint(self.theme["compassTint"])
stroke(self.theme["compassStroke"])
stroke_weight(0)
fill(self.theme["compassFill1"])
ellipse(self.centerX2 + self.scale * 3 - self.scale,
self.centerY2 - self.scale - 130, self.scale * 2,
self.scale * 2)
stroke_weight(0)
ellipse(self.centerX2 + self.scale * 3 - self.scale + 3,
self.centerY2 - self.scale - 127, self.scale * 1.85,
self.scale * 1.85)
ellipse(self.centerX2 + self.scale * 3 - self.scale + 6,
self.centerY2 - self.scale - 124, self.scale * 1.7,
self.scale * 1.7)
stroke_weight(2)
stroke(self.theme["compassStrokeSouth"])
line(self.centerX2 - yawCos * self.scale + self.scale * 3,
self.centerY2 - yawSin * self.scale - 130,
self.centerX2 + yawCos * self.scale + self.scale * 3,
self.centerY2 + yawSin * self.scale - 130)
stroke(self.theme["compassStroke2"])
line(300, 72.5, self.centerX2 + yawCos * self.scale + self.scale * 3,
self.centerY2 + yawSin * self.scale - 130)
#circle on top of compass
stroke_weight(0)
stroke(self.theme["compassStroke"])
fill(self.theme["compassTopFill"])
ellipse(self.centerX2 + self.scale * 3 - self.scale + 9.5,
self.centerY2 - self.scale - 120.5, self.scale * 1.5,
self.scale * 1.5)
#derive the direction (NSEW)
def directionText(yaw):
directionSym = ''
#Direction
if yaw > 60 and yaw <= 120:
directionSym = 'N'
elif yaw > 120 and yaw <= 150:
directionSym = 'NE'
elif (yaw > 150 and yaw <= 180) or (yaw >= -180 and yaw <= -150):
directionSym = 'E'
elif yaw > -150 and yaw <= -120:
directionSym = 'SE'
elif yaw > -120 and yaw <= -60:
directionSym = 'S'
elif yaw > -60 and yaw <= -30:
directionSym = 'SW'
elif yaw > -30 and yaw <= 30:
directionSym = 'W'
elif yaw > 30 and yaw <= 60:
directionSym = 'NW'
else:
directionSym = ''
return directionSym
#compass text
tint(self.theme["buttonText"])
if self.compassStat == False:
text(directionText(yaw),
font_name='Verdana',
font_size=10.0,
x=self.centerX2 + self.scale * 3,
y=self.centerY2 + self.scale - 167,
alignment=5)
else:
tempYaw = yaw + 180 + 90
if tempYaw > 360:
tempYaw = tempYaw % 360
yawString = str(int(round(tempYaw, 0))) + chr(186)
text(yawString,
font_name='Verdana',
font_size=10.0,
x=self.centerX2 + self.scale * 3,
y=self.centerY2 + self.scale - 167,
alignment=5)
#Center Screen Text
tint(self.theme["buttonText"])
if self.measuringOn == False and self.checkedOnce == 0:
text('Tap to Start',
font_name='Verdana',
font_size=16.0,
x=self.centerX2,
y=self.centerY2 + self.scale + 150,
alignment=5)
elif self.measuringOn == True and self.checkedOnce == 1:
if self.timerCount // 10 % 3 == 0:
text('Measuring.',
font_name='Verdana',
font_size=16.0,
x=self.centerX2,
y=self.centerY2 + self.scale + 150,
alignment=5)
elif self.timerCount // 10 % 3 == 1:
text('Measuring..',
font_name='Verdana',
font_size=16.0,
x=self.centerX2,
y=self.centerY2 + self.scale + 150,
alignment=5)
elif self.timerCount // 10 % 3 == 2:
text('Measuring...',
font_name='Verdana',
font_size=16.0,
x=self.centerX2,
y=self.centerY2 + self.scale + 150,
alignment=5)
text('Tap to Stop',
font_name='Verdana',
font_size=16.0,
x=self.centerX2,
y=self.centerY2 + self.scale + 120,
alignment=5)
elif self.measuringOn == False and self.checkedOnce == 2:
text('Calculating',
font_name='Verdana',
font_size=16.0,
x=self.centerX2,
y=self.centerY2 + self.scale + 150,
alignment=5)
#if not enough values are recorded
tint(self.theme["needMoreText"])
if self.needMore == True:
text("Need to record more locations.",
font_name='Verdana',
font_size=16.0,
x=self.size.x / 2,
y=self.size.y / 2 - 20,
alignment=5)
tint(self.theme["buttonText"])
#When measuring is on record locations and put into array
if self.measuringOn == True:
if picTaken == False:
#camera mode
stroke_weight(0)
fill(self.theme["buttonFill"])
tint(self.theme["buttonText"])
ellipse(self.size.x / 2 - self.scale / 2,
0 - self.scale / 2 + 72, self.scale, self.scale)
text('Snap',
font_name='Verdana',
font_size=8.0,
x=self.centerX2,
y=self.centerY2 + self.scale - 167,
alignment=5)
if latLong not in self.locations:
self.locations += [latLong]
if self.activator == True:
self.activator = False
self.loopPromptState = 0
elif latLong in self.locations[0:-5] and self.activator == False:
#sound.play_effect('arcade:Laser_1')
self.loopPrompt = True
self.activator = True
if self.loopPromptState == 1:
if self.currentLoc != latLong:
self.currentLoc = latLong
self.locations += [latLong]
elif self.loopPromptState == 2:
loc = self.locations.index(latLong)
self.locations = self.locations[0:loc]
self.loopPromptState = 0
#after measuring is off, setup array to use (states Calculating)
elif self.checkedOnce == 2 and len(self.locations) > 3:
self.locationsLeft = copy.deepcopy(self.locations)
#do this to avoid tapping too early
self.checkedOnce += 1
#after the array set up, tap to get back to where you were
elif self.checkedOnce == 3:
text('Tap to return to start',
font_name='Verdana',
font_size=16.0,
x=self.centerX2,
y=self.centerY2 + self.scale + 150,
alignment=5)
#The return back..
elif self.checkedOnce == 4:
x, y = self.locations[-1]
x = round(x, 10)
y = round(y, 10)
loc = "[" + str(x) + ", " + str(y) + "]"
fill(self.theme["buttonFill"])
stroke(self.theme["titleColor"])
stroke_weight(0)
# rect(0,560,self.size.w,50)
# # text('Destination:', font_name='Verdana', font_size=12.0, x=70, y=550, alignment=5)
# # text(loc, font_name='Verdana', font_size=12.0, x=230, y=550, alignment=5)
totalDistanceTraveled = 0
for i in range(len(self.locations) - 1):
firstPosX, firstPosY = self.locations[i]
nextPosX, nextPosY = self.locations[i + 1]
dist = ((nextPosX - firstPosX)**2 +
(nextPosY - firstPosY)**2)**0.5
totalDistanceTraveled += dist
# text('Distance Traveled:', font_name='Verdana', font_size=12.0, x=70, y=585, alignment=5)
# text(str(totalDistanceTraveled), font_name='Verdana', font_size=12.0, x=230, y=585, alignment=5)
textPosX = self.size.x / 2
textPosY = self.size.y / 2
if (len(self.locationsLeft) > 1):
if (len(self.locationsLeft) > 3):
currPosX, currPosY = self.locationsLeft[-1]
nextPosX, nextPosY = self.locationsLeft[-2]
secondPosX, secondPosY = self.locationsLeft[-3]
thirdPosX, thirdPosY = self.locationsLeft[-4]
xNextAverage = (nextPosX + secondPosX + thirdPosX) / 3
yNextAverage = (nextPosY + secondPosY + thirdPosY) / 3
elif (len(self.locationsLeft) > 2):
currPosX, currPosY = self.locationsLeft[-1]
nextPosX, nextPosY = self.locationsLeft[-2]
secondPosX, secondPosY = self.locationsLeft[-3]
xNextAverage = (nextPosX + secondPosX) / 2
yNextAverage = (nextPosY + secondPosY) / 2
elif (len(self.locationsLeft) > 1):
currPosX, currPosY = self.locationsLeft[-1]
nextPosX, nextPosY = self.locationsLeft[-2]
xNextAverage = (nextPosX) / 1
yNextAverage = (nextPosY) / 1
xVal3 = math.cos(math.radians(xNextAverage)) * math.sin(
math.radians(currPosY - yNextAverage))
yVal3 = math.cos(math.radians(currPosX)) * math.sin(
math.radians(xNextAverage)) - math.sin(
math.radians(currPosX)) * math.cos(
math.radians(xNextAverage)) * math.cos(
math.radians(currPosY - yNextAverage))
radianAngle3 = (math.atan2(xVal3, yVal3))
degreeAngle3 = math.degrees(radianAngle3)
if degreeAngle3 < 0:
degreeAngle3 = 360 + degreeAngle3
#take the average of the next 3 points to get a good direction.
# trueDegree = (degreeAngle1 + degreeAngle2 + degreeAngle3)/3
trueDegree = degreeAngle3
#draw directing arrow
tempYaw1 = -(360 - yaw + trueDegree)
trueDegreeSin = math.sin(math.radians(tempYaw1))
trueDegreeCos = math.cos(math.radians(tempYaw1))
# text(str(trueDegree), font_name='Verdana', font_size=16.0, x=self.centerX2, y=self.centerY2+self.scale+150, alignment=5)
#experimental point on arrow. Works well! but code is ugly. Will implement for loop later
def pointMaker(self, roll, pitch, yaw):
stroke_weight(20)
stroke(self.theme["titleColor"])
line(self.centerX2 - trueDegreeCos * 100,
self.centerY - trueDegreeSin * 100,
self.centerX2 + trueDegreeCos * 100,
self.centerY + trueDegreeSin * 100)
stroke(self.theme["compassStroke2"])
line(self.centerX2 + trueDegreeCos * 100,
self.centerY + trueDegreeSin * 100, self.centerX2,
self.centerY)
stroke_weight(19)
line(self.centerX2 + trueDegreeCos * 102,
self.centerY + trueDegreeSin * 102, self.centerX2,
self.centerY)
stroke_weight(18)
line(self.centerX2 + trueDegreeCos * 104,
self.centerY + trueDegreeSin * 104, self.centerX2,
self.centerY)
stroke_weight(17)
line(self.centerX2 + trueDegreeCos * 106,
self.centerY + trueDegreeSin * 106, self.centerX2,
self.centerY)
stroke_weight(16)
line(self.centerX2 + trueDegreeCos * 108,
self.centerY + trueDegreeSin * 108, self.centerX2,
self.centerY)
stroke_weight(15)
line(self.centerX2 + trueDegreeCos * 110,
self.centerY + trueDegreeSin * 110, self.centerX2,
self.centerY)
stroke_weight(14)
line(self.centerX2 + trueDegreeCos * 112,
self.centerY + trueDegreeSin * 112, self.centerX2,
self.centerY)
stroke_weight(13)
line(self.centerX2 + trueDegreeCos * 114,
self.centerY + trueDegreeSin * 114, self.centerX2,
self.centerY)
stroke_weight(12)
line(self.centerX2 + trueDegreeCos * 116,
self.centerY + trueDegreeSin * 116, self.centerX2,
self.centerY)
stroke_weight(11)
line(self.centerX2 + trueDegreeCos * 118,
self.centerY + trueDegreeSin * 118, self.centerX2,
self.centerY)
stroke_weight(10)
line(self.centerX2 + trueDegreeCos * 120,
self.centerY + trueDegreeSin * 120, self.centerX2,
self.centerY)
stroke_weight(9)
line(self.centerX2 + trueDegreeCos * 122,
self.centerY + trueDegreeSin * 122, self.centerX2,
self.centerY)
stroke_weight(8)
line(self.centerX2 + trueDegreeCos * 124,
self.centerY + trueDegreeSin * 124, self.centerX2,
self.centerY)
stroke_weight(7)
line(self.centerX2 + trueDegreeCos * 126,
self.centerY + trueDegreeSin * 126, self.centerX2,
self.centerY)
stroke_weight(6)
line(self.centerX2 + trueDegreeCos * 128,
self.centerY + trueDegreeSin * 128, self.centerX2,
self.centerY)
stroke_weight(5)
line(self.centerX2 + trueDegreeCos * 130,
self.centerY + trueDegreeSin * 130, self.centerX2,
self.centerY)
stroke_weight(4)
line(self.centerX2 + trueDegreeCos * 132,
self.centerY + trueDegreeSin * 132, self.centerX2,
self.centerY)
stroke_weight(3)
line(self.centerX2 + trueDegreeCos * 134,
self.centerY + trueDegreeSin * 134, self.centerX2,
self.centerY)
stroke_weight(2)
line(self.centerX2 + trueDegreeCos * 136,
self.centerY + trueDegreeSin * 136, self.centerX2,
self.centerY)
pointMaker(self, roll, pitch, yaw)
stroke_weight(0)
#tracing back steps
if latLong in self.locationsLeft:
loc = self.locationsLeft.index(latLong)
# self.locationsLeft.remove(latLong)
self.locationsLeft = self.locationsLeft[0:loc]
#images on the trip back
if latLong in self.photoLocations:
photoLoc = len(self.photoLocations
) - self.photoLocations.index(latLong)
self.imageMode = True
tint(self.theme["textColor2"])
fill(self.theme["notificationColor"])
stroke(self.theme["notificationColor"])
rect(0, 150, self.size.w, 50)
text("Landmark! Tap here to see!",
font_name='Courier',
font_size=16.0,
x=self.centerX2,
y=150 + 25,
alignment=5)
self.currentImage = self.photoLibrary.assets[-photoLoc]
self.photoWidth = self.currentImage.pixel_width
self.photoHeight = self.currentImage.pixel_height
self.ui_image = self.currentImage.get_ui_image()
else:
text("Welcome Back.",
font_name='Verdana',
font_size=16.0,
x=textPosX,
y=textPosY,
alignment=5)
#SOS Button and
fill(self.theme["needMoreText"])
tint(self.theme["textColor2"])
if self.MoreState == True:
#to seperate the active buttons from the non active ones
fill(self.theme["transparentFill"])
rect(0, 0, self.size.x, self.size.y)
#SOS Button
fill(self.theme["needMoreText"])
tint(self.theme["textColor2"])
ellipse(self.centerX2 - 0.0 - self.scale,
self.centerY2 - self.scale - 130, self.scale * 2,
self.scale * 2)
text('SOS',
font_name='Verdana',
font_size=12.0,
x=self.centerX2,
y=self.centerY2 + self.scale - 167,
alignment=5)
#MAP Button
if len(self.locations) >= 2:
fill(0.6, 0.6, 0.95)
tint(1, 1, 1, 1)
ellipse(self.centerX2 - self.scale * 3 - self.scale,
self.centerY2 - self.scale - 20, self.scale * 2,
self.scale * 2)
text('Map View',
font_name='Verdana',
font_size=12.0,
x=self.centerX2 - 112,
y=self.centerY2 + self.scale - 57,
alignment=5)
fill(247 / 255, 170 / 255, 103 / 255)
tint(1, 1, 1, 1)
ellipse(self.centerX2 - self.scale,
self.centerY2 - self.scale - 20, self.scale * 2,
self.scale * 2)
text('Share',
font_name='Verdana',
font_size=12.0,
x=self.centerX2,
y=self.centerY2 + self.scale - 57,
alignment=5)
tint(0.7, 0.7, 0.7, 1)
if self.clipState == True:
text('Copied to Clipboard',
font_name='Verdana',
font_size=16.0,
x=self.size.x / 2,
y=self.size.y / 2 - 65,
alignment=5)
fill(118 / 255, 191 / 255, 247 / 255)
tint(1, 1, 1, 1)
ellipse(self.centerX2 + self.scale * 3 - self.scale,
self.centerY2 - self.scale - 20, self.scale * 2,
self.scale * 2)
text('Trace',
font_name='Verdana',
font_size=12.0,
x=self.centerX2 + 112,
y=self.centerY2 + self.scale - 57,
alignment=5)
#SOS Button
fill(0.95, 0.6, 0.6)
tint(1, 1, 1, 1)
ellipse(self.centerX2 - 0.0 - self.scale,
self.centerY2 - self.scale - 130, self.scale * 2,
self.scale * 2)
text('SOS',
font_name='Verdana',
font_size=12.0,
x=self.centerX2,
y=self.centerY2 + self.scale - 167,
alignment=5)
#More button at the bottom of screen
elif self.MoreState == False:
ellipse(self.size.x / 2 - self.scale / 2, 0 - self.scale / 2 - 5,
self.scale, self.scale)
if self.imageModeOpen == True:
fill(0, 0, 0, 0.5)
rect(0, 0, self.size.x, self.size.y)
fill(0.2, 0.2, 0.2)
rect(0, self.halfScreenFrame, self.widthFrame, self.heightFrame)
#-----------Draw Path State---------------------------------------------------
if self.pathState == True and len(self.locations) > 0:
fill(0.7, 0.7, 0.7)
rect(14, self.size.y / 2 - 55, self.size.x - 28,
self.size.y / 3 + 12)
fill(1, 1, 1)
rect(19, self.size.y / 2 - 50, self.size.x - 38,
self.size.y / 3 + 2)
tint(1, 0, 0, 1)
fill(1, 0, 0)
stroke(1, 0, 0, 1)
stroke_weight(2)
iPointX, iPointY = self.locations[0]
newLocs = [(0, 0)]
maxDiffX = 0
maxDiffY = 0
xSepVals = []
ySepVals = []
for loc in self.locations[1:]:
nPointX, nPointY = loc
dataX = (iPointX - nPointX) * 100000
dataY = (iPointY - nPointY) * 100000
newLocs += [(dataX, dataY)]
for loc in newLocs:
xSepVals += [loc[0]]
ySepVals += [loc[1]]
maxDiffX = (max(xSepVals) - min(xSepVals))
maxDiffY = (max(ySepVals) - min(ySepVals))
generalMaxDiff = max(maxDiffX, maxDiffY)
miniX = min(xSepVals)
jumpX = 0 - miniX
evenedLocsX = []
for val in xSepVals:
evenedLocsX += [val + jumpX]
miniY = min(ySepVals)
jumpY = 0 - miniY
evenedLocsY = []
for val in ySepVals:
evenedLocsY += [val + jumpY]
xCenter = self.size.x / 2
yCenter = self.size.y / 2 - 50 + 2
colorCount = len(newLocs)
for i in range(len(newLocs) - 1):
xLoc1, yLoc1 = evenedLocsX[i], evenedLocsY[i]
xLoc2, yLoc2 = evenedLocsX[i + 1], evenedLocsY[i + 1]
stroke(((255 / colorCount) * i) / 255, 0, 0)
fill(((255 / colorCount) * i) / 255, 0, 0)
#text(str(i),font_name='Verdana', font_size=4.0, x=(335/generalMaxDiff)*xLoc1+20, y=(222/generalMaxDiff)*yLoc1+yCenter+5, alignment=5)
#line(xCenter + xLoc1, yCenter + yLoc1, xCenter + xLoc2, yCenter + yLoc2)
line((335 / generalMaxDiff) * xLoc1 + 20,
(222 / generalMaxDiff) * yLoc1 + yCenter,
(335 / generalMaxDiff) * xLoc2 + 20,
(222 / generalMaxDiff) * yLoc2 + yCenter)
ellipse((335 / generalMaxDiff) * xLoc1 + 20 - 2,
(222 / generalMaxDiff) * yLoc1 + yCenter - 2, 4, 4)
ellipse((335 / generalMaxDiff) * evenedLocsX[-1] + 20 - 2,
(222 / generalMaxDiff) * evenedLocsY[-1] + yCenter - 2, 4,
4)
#-----------END OF PATHSTATE---------------------------------------------------
#prompt when the user goes in a loop or crosses paths with the recorded path
if self.loopPrompt == True:
fill(0, 0, 0)
stroke_weight(0)
#prompt for the loop
rect(50, self.size.y / 2 - 50, self.size.x - 100,
self.size.y / 6 + 40)
tint(1, 1, 1, 1)
text("Stop Moving!",
font_name='Verdana',
font_size=18.0,
x=self.size.x / 2,
y=self.size.y / 2 + 65,
alignment=5)
text("Looks like you\'ve made a loop",
font_name='Verdana',
font_size=13.0,
x=self.size.x / 2,
y=self.size.y / 2 + 38,
alignment=5)
stroke(1, 1, 1, 1)
stroke_weight(3)
line(50, self.size.y / 2, self.size.x - 50, self.size.y / 2)
line(self.size.x / 2, self.size.y / 2 - 50, self.size.x / 2,
self.size.y / 2)
text("Continue",
font_name='Verdana',
font_size=15.0,
x=self.size.x / 2 - 70,
y=self.size.y / 2 - 25,
alignment=5)
text("Break",
font_name='Verdana',
font_size=15.0,
x=self.size.x / 2 + 70,
y=self.size.y / 2 - 25,
alignment=5)
def draw(self):
#Center scaling
self.centerX = self.size.w/2
self.centerY = self.size.h/2
self.centerX2 = self.size.w/2
self.centerY2 = self.size.h * (1/2)-scale*3.5
time.sleep(0.1) #time between each redraw
self.timerCount += 1 #add to the timer to animate and do things
#Title Text
tint(0,0,0,1)
text('Thread 1.0', font_name='Courier', font_size=16.0, x=self.centerX2, y=self.centerY2+self.radius+400, alignment=5)
#Locations recorded count
tint(0.4,0.4,0.4,1)
locationCountText = "Locations: " + str(len(self.locations))
text(locationCountText, font_name='Verdana', font_size=10, x=50, y=self.centerY2+self.radius+400, alignment=5)
if self.checkedOnce == 4:
locationLeftText = "Left: " + str(len(self.locationsLeft))
text(locationLeftText, font_name='Verdana', font_size=10, x=self.size.x-60, y=self.centerY2+self.radius+400, alignment=5)
#motion
gravX,gravY,gravZ= motion.get_gravity()
gravity_vectors=motion.get_attitude()
pitch = gravity_vectors[0]
roll = gravity_vectors[1]
yaw = gravity_vectors[2]
#convert yaw to degrees
yaw = -yaw*180/math.pi
pitch = -pitch*180/math.pi
############# redraw screen ############
#Reset Button
fill(0.9,0.9,0.9)
stroke_weight(0)
ellipse(self.centerX2-scale*3-self.radius,self.centerY2-self.radius-130,self.radius*2,self.radius*2)
tint(0.4,0.4,0.4,1)
text('Reset', font_name='Verdana', font_size=12.0, x=self.centerX2-112, y=self.centerY2+self.radius-167, alignment=5)
#compass draw
tint(0.4,0.4,0.4,1)
stroke(0.4,0.4,0.4)
stroke_weight(0)
fill(0.9,0.9,0.9)
ellipse(self.centerX2+scale*3-self.radius,self.centerY2-self.radius-130,self.radius*2,self.radius*2)
stroke_weight(0)
ellipse(self.centerX2+scale*3-self.radius+3,self.centerY2-self.radius-127,self.radius*1.85,self.radius*1.85)
ellipse(self.centerX2+scale*3-self.radius+6,self.centerY2-self.radius-124,self.radius*1.7,self.radius*1.7)
yawSin = math.sin(math.radians(yaw))
yawCos = math.cos(math.radians(yaw))
stroke(0.4,0.4,0.4)
stroke_weight(2)
line(self.centerX2-yawCos*self.radius+scale*3,self.centerY2-yawSin*self.radius-130,self.centerX2+yawCos*self.radius+scale*3,self.centerY2+yawSin*self.radius-130)
stroke(1,0.3,0.3)
line(300,72.5,self.centerX2+yawCos*self.radius+scale*3,self.centerY2+yawSin*self.radius-130)
#circle on top of compass
stroke_weight(0)
stroke(0.4,0.4,0.4)
fill(1,1,1)
ellipse(self.centerX2+scale*3-self.radius+9.5,self.centerY2-self.radius-120.5,self.radius*1.5,self.radius*1.5)
#derive the direction (NSEW)
def directionText(yaw):
directionSym = ''
#Direction
if yaw > 60 and yaw <= 120:
directionSym = 'N'
elif yaw > 120 and yaw <= 150:
directionSym = 'NE'
elif (yaw > 150 and yaw <= 180) or (yaw >= -180 and yaw <= -150):
directionSym = 'E'
elif yaw > -150 and yaw <= -120:
directionSym = 'SE'
elif yaw > -120 and yaw <= -60:
directionSym = 'S'
elif yaw > -60 and yaw <= -30:
directionSym = 'SW'
elif yaw > -30 and yaw <= 30:
directionSym = 'W'
elif yaw > 30 and yaw <= 60:
directionSym = 'NW'
else:
directionSym = ''
return directionSym
#compass text
tint(0.4,0.4,0.4,1)
if self.compassStat == False:
text(directionText(yaw), font_name='Verdana', font_size=10.0, x=self.centerX2+scale*3, y=self.centerY2+self.radius-167, alignment=5)
else:
tempYaw = yaw+180+90
if tempYaw > 360:
tempYaw = tempYaw % 360
yawString = str(int(round(tempYaw,0))) + chr(186)
text(yawString, font_name='Verdana', font_size=10.0, x=self.centerX2+scale*3, y=self.centerY2+self.radius-167, alignment=5)
#Center Screen Text
tint(0.4,0.4,0.4,1)
if self.measuringOn == False and self.checkedOnce == 0:
text('Tap to Start', font_name='Verdana', font_size=16.0, x=self.centerX2, y=self.centerY2+self.radius+150, alignment=5)
elif self.measuringOn == True and self.checkedOnce == 1:
if self.timerCount//10 % 3 == 0:
text('Measuring.', font_name='Verdana', font_size=16.0, x=self.centerX2, y=self.centerY2+self.radius+150, alignment=5)
elif self.timerCount//10 % 3 == 1:
text('Measuring..', font_name='Verdana', font_size=16.0, x=self.centerX2, y=self.centerY2+self.radius+150, alignment=5)
elif self.timerCount//10 % 3 == 2:
text('Measuring...', font_name='Verdana', font_size=16.0, x=self.centerX2, y=self.centerY2+self.radius+150, alignment=5)
text('Tap to Stop', font_name='Verdana', font_size=16.0, x=self.centerX2, y=self.centerY2+self.radius+120, alignment=5)
elif self.measuringOn == False and self.checkedOnce == 2:
text('Calculating', font_name='Verdana', font_size=16.0, x=self.centerX2, y=self.centerY2+self.radius+150, alignment=5)
#if not enough values are recorded
tint(0.95,0.6,0.6,1)
if self.needMore == True:
text("Need to record more locations.", font_name='Verdana', font_size=16.0, x=self.size.x/2, y=self.size.y/2-20, alignment=5)
tint(0.4,0.4,0.4,1)
#When measuring is on record locations and put into array
if self.measuringOn == True:
current = location.get_location()
latLong = (round(current['latitude'],4), round(current['longitude'],4)) #solved the close points problem using rounding
if latLong not in self.locations:
self.locations += [latLong]
if self.activator == True:
self.activator = False
self.loopPromptState = 0
elif latLong in self.locations[0:-5] and self.activator == False:
#sound.play_effect('arcade:Laser_1')
self.loopPrompt = True
self.activator = True
if self.loopPromptState == 1:
if self.currentLoc != latLong:
self.currentLoc = latLong
self.locations += [latLong]
elif self.loopPromptState == 2:
loc = self.locations.index(latLong)
self.locations = self.locations[0:loc]
self.loopPromptState = 0
#---------------------------------------------------------
#---------------------------------------------------------
#-----Loop Prompt Works? Test it.----------
#---------------------------------------------------------
#---------------------------------------------------------
#---------------------------------------------------------
#---------------------------------------------------------
#---------------------------------------------------------
#---------------------------------------------------------
#---------------------------------------------------------
#---------------------------------------------------------
#after measuring is off, setup array to use (states Calculating)
elif self.checkedOnce == 2 and len(self.locations) > 0:
self.locationsLeft = copy.deepcopy(self.locations)
#do this to avoid tapping too early
self.checkedOnce += 1
#after the array set up, tap to get back to where you were
elif self.checkedOnce == 3:
text('Tap to return to start', font_name='Verdana', font_size=16.0, x=self.centerX2, y=self.centerY2+self.radius+150, alignment=5)
#The return back..
elif self.checkedOnce == 4:
x,y = self.locations[-1]
x = round(x,10)
y = round(y,10)
loc = "[" + str(x) + ", " + str(y) + "]"
fill(0.9,0.9,0.9)
stroke(0,0,0)
stroke_weight(0)
# rect(0,560,self.size.w,50)
# # text('Destination:', font_name='Verdana', font_size=12.0, x=70, y=550, alignment=5)
# # text(loc, font_name='Verdana', font_size=12.0, x=230, y=550, alignment=5)
totalDistanceTraveled = 0
for i in range(len(self.locations)-1):
firstPosX, firstPosY = self.locations[i]
nextPosX, nextPosY = self.locations[i+1]
dist = ((nextPosX - firstPosX)**2 + (nextPosY - firstPosY)**2)**0.5
totalDistanceTraveled += dist
text('Distance Traveled:', font_name='Verdana', font_size=12.0, x=70, y=585, alignment=5)
text(str(totalDistanceTraveled), font_name='Verdana', font_size=12.0, x=230, y=585, alignment=5)
textPosX = self.size.x/2
textPosY = self.size.y/2
if (len(self.locationsLeft) > 0):
# currPosX, currPosY = self.locationsLeft[-1]
# nextPosX, nextPosY = self.locationsLeft[-2]
# secondPosX, secondPosY = self.locationsLeft[-3]
# thirdPosX, thirdPosY = self.locationsLeft[-4]
currPosX, currPosY = [40.4465, 79.9427]
nextPosX, nextPosY = [40.4465, 79.9428]
secondPosX, secondPosY = [40.4466, 79.9428]
thirdPosX, thirdPosY = [40.4466, 79.9429]
differenceX1 = nextPosX - currPosX
differenceY1 = nextPosY - currPosY
differenceX2 = secondPosX - currPosX
differenceY2 = secondPosY - currPosY
differenceX3 = thirdPosX - currPosX
differenceY3 = thirdPosY - currPosY
degreeAngle1 = 0
degreeAngle2 = 0
degreeAngle3 = 0
if differenceX1 == 0:
if currPosX > nextPosX:
degreeAngle1 = 180.0
else:
degreeAngle1 = 0.0
else:
directionAngle1 = math.atan(differenceY1/differenceX1)
degreeAngle1 = math.degrees(directionAngle1)
#point in right direction
if (currPosX <= nextPosX and currPosY < nextPosY):
degreeAngle1 = 90 - round(degreeAngle1, 4)
elif (currPosX <= nextPosX and currPosY >= nextPosY):
degreeAngle1 = 90 - round(degreeAngle1, 4)
elif (currPosX >= nextPosX and currPosY >= nextPosY):
degreeAngle1 = round(degreeAngle1, 4) + 180
elif (currPosX >= nextPosX and currPosY <= nextPosY):
degreeAngle1 = round(degreeAngle1, 4) + 180
if differenceX2 == 0:
if currPosX > secondPosX:
degreeAngle2 = 180.0
else:
degreeAngle2 = 0.0
else:
directionAngle2 = math.atan(differenceY2/differenceX2)
degreeAngle2 = math.degrees(directionAngle2)
#point in right direction
if (currPosX <= secondPosX and currPosY <= secondPosY):
degreeAngle2 = round(degreeAngle2, 4)
elif (currPosX <= secondPosX and currPosY >= secondPosY):
degreeAngle2 = round(degreeAngle2, 4) + 180
elif (currPosX >= secondPosX and currPosY >= secondPosY):
degreeAngle2 = round(degreeAngle2, 4) + 180
elif (currPosX >= secondPosX and currPosY <= secondPosY):
degreeAngle2 = round(degreeAngle2, 4) + 360
if differenceX3 == 0:
if currPosX > thirdPosX:
degreeAngle3 = 180.0
else:
degreeAngle3 = 0.0
else:
directionAngle3 = math.atan(differenceY3/differenceX3)
degreeAngle3 = math.degrees(directionAngle3)
#point in right direction
if (currPosX <= thirdPosX and currPosY <= thirdPosY):
degreeAngle3 = round(degreeAngle3, 4)
elif (currPosX <= thirdPosX and currPosY >= thirdPosY):
degreeAngle3 = round(degreeAngle3, 4) + 180
elif (currPosX >= thirdPosX and currPosY >= thirdPosY):
degreeAngle3 = round(degreeAngle3, 4) + 180
elif (currPosX >= thirdPosX and currPosY <= thirdPosY):
degreeAngle3 = round(degreeAngle3, 4) + 360
trueDegree = (degreeAngle1 + degreeAngle2 + degreeAngle3)/3
text(str(trueDegree), font_name='Verdana', font_size=16.0, x=textPosX, y=textPosY, alignment=5)
text(str(degreeAngle1), font_name='Verdana', font_size=16.0, x=textPosX, y=textPosY-20, alignment=5)
text(str(degreeAngle2), font_name='Verdana', font_size=16.0, x=textPosX, y=textPosY-40, alignment=5)
text(str(degreeAngle3), font_name='Verdana', font_size=16.0, x=textPosX, y=textPosY-60, alignment=5)
# #tracing back steps
# current = location.get_location()
# latLong = (round(current['latitude'],4), round(current['longitude'],4)) #solved the close points problem using rounding
# if latLong in self.locationsLeft:
# loc = self.locationsLeft.index(latLong)
# # self.locationsLeft.remove(latLong)
# self.locationsLeft = self.locationsLeft[0:loc]
else:
text("Welcome Back.", font_name='Verdana', font_size=16.0, x=textPosX, y=textPosY, alignment=5)
#SOS Button and
fill(0.95,0.6,0.6)
tint(1,1,1,1)
if self.MoreState == True:
#to seperate the active buttons from the non active ones
fill(0,0,0,0.5)
rect(0,0,self.size.x,self.size.y)
#SOS Button
fill(0.95,0.6,0.6,1)
tint(1,1,1,1)
ellipse(self.centerX2-0.0-self.radius,self.centerY2-self.radius-130,self.radius*2,self.radius*2)
text('SOS', font_name='Verdana', font_size=12.0, x=self.centerX2, y=self.centerY2+self.radius-167, alignment=5)
#MAP Button
if len(self.locations) >= 2:
fill(0.6,0.6,0.95)
tint(1,1,1,1)
ellipse(self.centerX2-scale*3-self.radius,self.centerY2-self.radius-20,self.radius*2,self.radius*2)
text('Map View', font_name='Verdana', font_size=12.0, x=self.centerX2-112, y=self.centerY2+self.radius-57, alignment=5)
#SOS Button
fill(0.95,0.6,0.6)
tint(1,1,1,1)
ellipse(self.centerX2-0.0-self.radius,self.centerY2-self.radius-130,self.radius*2,self.radius*2)
text('SOS', font_name='Verdana', font_size=12.0, x=self.centerX2, y=self.centerY2+self.radius-167, alignment=5)
#More button at the bottom of screen
elif self.MoreState == False:
ellipse(self.size.x/2-self.radius/2,0-self.radius/2-5,self.radius,self.radius)
if self.loopPrompt == True:
fill(0,0,0)
#prompt for the loop
rect(50,self.size.y/2-50,self.size.x-100,self.size.y/6+40)
tint(1,1,1,1)
text("Stop Moving!", font_name='Verdana', font_size=18.0, x=self.size.x/2, y=self.size.y/2+65, alignment=5)
text("Looks like you\'ve made a loop", font_name='Verdana', font_size=13.0, x=self.size.x/2, y=self.size.y/2+38, alignment=5)
stroke(1,1,1,1)
stroke_weight(3)
line(50, self.size.y/2, self.size.x-50, self.size.y/2)
line(self.size.x/2, self.size.y/2-50, self.size.x/2, self.size.y/2)
text("Continue", font_name='Verdana', font_size=15.0, x=self.size.x/2-70, y=self.size.y/2-25, alignment=5)
text("Break", font_name='Verdana', font_size=15.0, x=self.size.x/2+70, y=self.size.y/2-25, alignment=5)
def draw(self):
#Center scaling
self.centerX = self.size.w / 2
self.centerY = self.size.h / 2
self.centerX2 = self.size.w / 2
self.centerY2 = self.size.h * (1 / 2) - scale * 3.5
time.sleep(0.1) #time between each redraw
self.timerCount += 1 #add to the timer to animate and do things
#Title Text
tint(0, 0, 0, 1)
text('Thread 1.0',
font_name='Courier',
font_size=16.0,
x=self.centerX2,
y=self.centerY2 + self.radius + 400,
alignment=5)
#Locations recorded count
tint(0.4, 0.4, 0.4, 1)
locationCountText = "Locations: " + str(len(self.locations))
text(locationCountText,
font_name='Verdana',
font_size=10,
x=50,
y=self.centerY2 + self.radius + 400,
alignment=5)
if self.checkedOnce == 4:
locationLeftText = "Left: " + str(len(self.locationsLeft))
text(locationLeftText,
font_name='Verdana',
font_size=10,
x=self.size.x - 60,
y=self.centerY2 + self.radius + 400,
alignment=5)
#motion
gravX, gravY, gravZ = motion.get_gravity()
gravity_vectors = motion.get_attitude()
pitch = gravity_vectors[0]
roll = gravity_vectors[1]
yaw = gravity_vectors[2]
#convert yaw to degrees
yaw = -yaw * 180 / math.pi
pitch = -pitch * 180 / math.pi
roll = -roll * 180 / math.pi
############# redraw screen ############
#Reset Button
fill(0.9, 0.9, 0.9)
stroke_weight(0)
ellipse(self.centerX2 - scale * 3 - self.radius,
self.centerY2 - self.radius - 130, self.radius * 2,
self.radius * 2)
tint(0.4, 0.4, 0.4, 1)
text('Reset',
font_name='Verdana',
font_size=12.0,
x=self.centerX2 - 112,
y=self.centerY2 + self.radius - 167,
alignment=5)
current = location.get_location()
latLong = (round(current['latitude'],
4), round(current['longitude'], 4)
) #solved the close points problem using rounding
picTaken = latLong in self.photoLocations
if self.measuringOn == True and picTaken == False:
#camera mode
stroke_weight(0)
fill(0.9, 0.9, 0.9)
tint(0.4, 0.4, 0.4, 1)
ellipse(self.size.x / 2 - self.radius / 2,
0 - self.radius / 2 + 72, self.radius, self.radius)
text('Snap',
font_name='Verdana',
font_size=8.0,
x=self.centerX2,
y=self.centerY2 + self.radius - 167,
alignment=5)
#compass draw
tint(0.4, 0.4, 0.4, 1)
stroke(0.4, 0.4, 0.4)
stroke_weight(0)
fill(0.9, 0.9, 0.9)
ellipse(self.centerX2 + scale * 3 - self.radius,
self.centerY2 - self.radius - 130, self.radius * 2,
self.radius * 2)
stroke_weight(0)
ellipse(self.centerX2 + scale * 3 - self.radius + 3,
self.centerY2 - self.radius - 127, self.radius * 1.85,
self.radius * 1.85)
ellipse(self.centerX2 + scale * 3 - self.radius + 6,
self.centerY2 - self.radius - 124, self.radius * 1.7,
self.radius * 1.7)
yawSin = math.sin(math.radians(yaw))
yawCos = math.cos(math.radians(yaw))
rollSin = math.sin(math.radians(roll))
rollCos = math.cos(math.radians(roll))
pitchSin = math.sin(math.radians(pitch))
pitchCos = math.cos(math.radians(pitch))
stroke(0.4, 0.4, 0.4)
stroke_weight(2)
#line(self.centerX2-yawCos*self.radius+scale*3,self.centerY2-yawSin*self.radius-50,self.centerX2+yawCos*self.radius+scale*3,self.centerY2+yawSin*self.radius-50)
#line(self.centerX2-pitchCos*self.radius-0,self.centerY2-pitchSin*self.radius,self.centerX2+pitchCos*self.radius-0,self.centerY2+pitchSin*self.radius)
#line(self.centerX2-rollCos*self.radius-scale*3,self.centerY2-rollSin*self.radius,self.centerX2+rollCos*self.radius-scale*3,self.centerY2+rollSin*self.radius)
stroke(0.4, 0.4, 0.4)
line(self.centerX2 - yawCos * self.radius + scale * 3,
self.centerY2 - yawSin * self.radius - 130,
self.centerX2 + yawCos * self.radius + scale * 3,
self.centerY2 + yawSin * self.radius - 130)
stroke(1, 0.3, 0.3)
line(300, 72.5, self.centerX2 + yawCos * self.radius + scale * 3,
self.centerY2 + yawSin * self.radius - 130)
#circle on top of compass
stroke_weight(0)
stroke(0.4, 0.4, 0.4)
fill(1, 1, 1)
ellipse(self.centerX2 + scale * 3 - self.radius + 9.5,
self.centerY2 - self.radius - 120.5, self.radius * 1.5,
self.radius * 1.5)
#derive the direction (NSEW)
def directionText(yaw):
directionSym = ''
#Direction
if yaw > 60 and yaw <= 120:
directionSym = 'N'
elif yaw > 120 and yaw <= 150:
directionSym = 'NE'
elif (yaw > 150 and yaw <= 180) or (yaw >= -180 and yaw <= -150):
directionSym = 'E'
elif yaw > -150 and yaw <= -120:
directionSym = 'SE'
elif yaw > -120 and yaw <= -60:
directionSym = 'S'
elif yaw > -60 and yaw <= -30:
directionSym = 'SW'
elif yaw > -30 and yaw <= 30:
directionSym = 'W'
elif yaw > 30 and yaw <= 60:
directionSym = 'NW'
else:
directionSym = ''
return directionSym
#compass text
tint(0.4, 0.4, 0.4, 1)
if self.compassStat == False:
text(directionText(yaw),
font_name='Verdana',
font_size=10.0,
x=self.centerX2 + scale * 3,
y=self.centerY2 + self.radius - 167,
alignment=5)
else:
tempYaw = yaw + 180 + 90
if tempYaw > 360:
tempYaw = tempYaw % 360
yawString = str(int(round(tempYaw, 0))) + chr(186)
text(yawString,
font_name='Verdana',
font_size=10.0,
x=self.centerX2 + scale * 3,
y=self.centerY2 + self.radius - 167,
alignment=5)
#Center Screen Text
tint(0.4, 0.4, 0.4, 1)
if self.measuringOn == False and self.checkedOnce == 0:
text('Tap to Start',
font_name='Verdana',
font_size=16.0,
x=self.centerX2,
y=self.centerY2 + self.radius + 150,
alignment=5)
elif self.measuringOn == True and self.checkedOnce == 1:
if self.timerCount // 10 % 3 == 0:
text('Measuring.',
font_name='Verdana',
font_size=16.0,
x=self.centerX2,
y=self.centerY2 + self.radius + 150,
alignment=5)
elif self.timerCount // 10 % 3 == 1:
text('Measuring..',
font_name='Verdana',
font_size=16.0,
x=self.centerX2,
y=self.centerY2 + self.radius + 150,
alignment=5)
elif self.timerCount // 10 % 3 == 2:
text('Measuring...',
font_name='Verdana',
font_size=16.0,
x=self.centerX2,
y=self.centerY2 + self.radius + 150,
alignment=5)
text('Tap to Stop',
font_name='Verdana',
font_size=16.0,
x=self.centerX2,
y=self.centerY2 + self.radius + 120,
alignment=5)
elif self.measuringOn == False and self.checkedOnce == 2:
text('Calculating',
font_name='Verdana',
font_size=16.0,
x=self.centerX2,
y=self.centerY2 + self.radius + 150,
alignment=5)
#if not enough values are recorded
tint(0.95, 0.6, 0.6, 1)
if self.needMore == True:
text("Need to record more locations.",
font_name='Verdana',
font_size=16.0,
x=self.size.x / 2,
y=self.size.y / 2 - 20,
alignment=5)
tint(0.4, 0.4, 0.4, 1)
#When measuring is on record locations and put into array
if self.measuringOn == True:
current = location.get_location()
latLong = (round(current['latitude'],
4), round(current['longitude'], 4)
) #solved the close points problem using rounding
if latLong not in self.locations:
self.locations += [latLong]
if self.activator == True:
self.activator = False
self.loopPromptState = 0
elif latLong in self.locations[0:-5] and self.activator == False:
#sound.play_effect('arcade:Laser_1')
self.loopPrompt = True
self.activator = True
if self.loopPromptState == 1:
if self.currentLoc != latLong:
self.currentLoc = latLong
self.locations += [latLong]
elif self.loopPromptState == 2:
loc = self.locations.index(latLong)
self.locations = self.locations[0:loc]
self.loopPromptState = 0
#after measuring is off, setup array to use (states Calculating)
elif self.checkedOnce == 2 and len(self.locations) > 3:
self.locationsLeft = copy.deepcopy(self.locations)
#do this to avoid tapping too early
self.checkedOnce += 1
#after the array set up, tap to get back to where you were
elif self.checkedOnce == 3:
text('Tap to return to start',
font_name='Verdana',
font_size=16.0,
x=self.centerX2,
y=self.centerY2 + self.radius + 150,
alignment=5)
#The return back..
elif self.checkedOnce == 4:
x, y = self.locations[-1]
x = round(x, 10)
y = round(y, 10)
loc = "[" + str(x) + ", " + str(y) + "]"
fill(0.9, 0.9, 0.9)
stroke(0, 0, 0)
stroke_weight(0)
# rect(0,560,self.size.w,50)
# # text('Destination:', font_name='Verdana', font_size=12.0, x=70, y=550, alignment=5)
# # text(loc, font_name='Verdana', font_size=12.0, x=230, y=550, alignment=5)
totalDistanceTraveled = 0
for i in range(len(self.locations) - 1):
firstPosX, firstPosY = self.locations[i]
nextPosX, nextPosY = self.locations[i + 1]
dist = ((nextPosX - firstPosX)**2 +
(nextPosY - firstPosY)**2)**0.5
totalDistanceTraveled += dist
text('Distance Traveled:',
font_name='Verdana',
font_size=12.0,
x=70,
y=585,
alignment=5)
text(str(totalDistanceTraveled),
font_name='Verdana',
font_size=12.0,
x=230,
y=585,
alignment=5)
textPosX = self.size.x / 2
textPosY = self.size.y / 2
if (len(self.locationsLeft) > 3):
currPosX, currPosY = self.locationsLeft[-1]
nextPosX, nextPosY = self.locationsLeft[-2]
secondPosX, secondPosY = self.locationsLeft[-3]
thirdPosX, thirdPosY = self.locationsLeft[-4]
# currPosX, currPosY = [40.4465, 79.9427]
# nextPosX, nextPosY = [40.4465, 79.9428]
# secondPosX, secondPosY = [40.4466, 79.9428]
# thirdPosX, thirdPosY = [40.4466, 79.9429]
xVal = math.cos(math.radians(nextPosX)) * math.sin(
math.radians(abs(currPosY - nextPosY)))
yVal = math.cos(math.radians(currPosX)) * math.sin(
math.radians(nextPosX)) - math.sin(
math.radians(currPosX)) * math.cos(
math.radians(nextPosX)) * math.cos(
math.radians(abs(currPosY - nextPosY)))
radianAngle1 = (math.atan2(xVal, yVal))
degreeAngle1 = math.degrees(radianAngle1)
if nextPosY < currPosY:
degreeAngle1 = 180 + (180 - degreeAngle1)
xVal2 = math.cos(math.radians(secondPosX)) * math.sin(
math.radians(abs(currPosY - secondPosY)))
yVal2 = math.cos(math.radians(currPosX)) * math.sin(
math.radians(secondPosX)) - math.sin(
math.radians(currPosX)) * math.cos(
math.radians(secondPosX)) * math.cos(
math.radians(abs(currPosY - secondPosY)))
radianAngle2 = (math.atan2(xVal2, yVal2))
degreeAngle2 = math.degrees(radianAngle2)
if secondPosY < currPosY:
degreeAngle2 = 180 + (180 - degreeAngle2)
xVal3 = math.cos(math.radians(thirdPosX)) * math.sin(
math.radians(abs(currPosY - thirdPosY)))
yVal3 = math.cos(math.radians(currPosX)) * math.sin(
math.radians(thirdPosX)) - math.sin(
math.radians(currPosX)) * math.cos(
math.radians(thirdPosX)) * math.cos(
math.radians(abs(currPosY - thirdPosY)))
radianAngle3 = (math.atan2(xVal3, yVal3))
degreeAngle3 = math.degrees(radianAngle3)
if thirdPosY < currPosY:
degreeAngle3 = 180 + (180 - degreeAngle3)
#take the average of the next 3 points to get a good direction.
trueDegree = (degreeAngle1 + degreeAngle2 + degreeAngle3) / 3
#draw directing arrow
tempYaw1 = -(360 - yaw + trueDegree)
trueDegreeSin = math.sin(math.radians(tempYaw1))
trueDegreeCos = math.cos(math.radians(tempYaw1))
text(str(trueDegree),
font_name='Verdana',
font_size=16.0,
x=self.centerX2,
y=self.centerY2 + self.radius + 150,
alignment=5)
text(str(degreeAngle1),
font_name='Verdana',
font_size=16.0,
x=textPosX,
y=textPosY - 20,
alignment=5)
text(str(degreeAngle2),
font_name='Verdana',
font_size=16.0,
x=textPosX,
y=textPosY - 40,
alignment=5)
text(str(degreeAngle3),
font_name='Verdana',
font_size=16.0,
x=textPosX,
y=textPosY - 60,
alignment=5)
#experimental point on arrow. Works well! but code is ugly. Will implement for loop later
def pointMaker(self, roll, pitch, yaw):
stroke_weight(20)
line(self.centerX2 - trueDegreeCos * 100 - pitch * 3,
self.centerY - trueDegreeSin * 100 + roll * 3,
self.centerX2 + trueDegreeCos * 100 - pitch * 3,
self.centerY + trueDegreeSin * 100 + roll * 3)
stroke(1, 0.3, 0.3)
line(self.centerX2 + trueDegreeCos * 100 - pitch * 3,
self.centerY + trueDegreeSin * 100 + roll * 3,
self.centerX2 - pitch * 3, self.centerY + roll * 3)
stroke_weight(19)
line(self.centerX2 + trueDegreeCos * 102 - pitch * 3,
self.centerY + trueDegreeSin * 102 + roll * 3,
self.centerX2 - pitch * 3, self.centerY + roll * 3)
stroke_weight(18)
line(self.centerX2 + trueDegreeCos * 104 - pitch * 3,
self.centerY + trueDegreeSin * 104 + roll * 3,
self.centerX2 - pitch * 3, self.centerY + roll * 3)
stroke_weight(17)
line(self.centerX2 + trueDegreeCos * 106 - pitch * 3,
self.centerY + trueDegreeSin * 106 + roll * 3,
self.centerX2 - pitch * 3, self.centerY + roll * 3)
stroke_weight(16)
line(self.centerX2 + trueDegreeCos * 108 - pitch * 3,
self.centerY + trueDegreeSin * 108 + roll * 3,
self.centerX2 - pitch * 3, self.centerY + roll * 3)
stroke_weight(15)
line(self.centerX2 + trueDegreeCos * 110 - pitch * 3,
self.centerY + trueDegreeSin * 110 + roll * 3,
self.centerX2 - pitch * 3, self.centerY + roll * 3)
stroke_weight(14)
line(self.centerX2 + trueDegreeCos * 112 - pitch * 3,
self.centerY + trueDegreeSin * 112 + roll * 3,
self.centerX2 - pitch * 3, self.centerY + roll * 3)
stroke_weight(13)
line(self.centerX2 + trueDegreeCos * 114 - pitch * 3,
self.centerY + trueDegreeSin * 114 + roll * 3,
self.centerX2 - pitch * 3, self.centerY + roll * 3)
stroke_weight(12)
line(self.centerX2 + trueDegreeCos * 116 - pitch * 3,
self.centerY + trueDegreeSin * 116 + roll * 3,
self.centerX2 - pitch * 3, self.centerY + roll * 3)
stroke_weight(11)
line(self.centerX2 + trueDegreeCos * 118 - pitch * 3,
self.centerY + trueDegreeSin * 118 + roll * 3,
self.centerX2 - pitch * 3, self.centerY + roll * 3)
stroke_weight(10)
line(self.centerX2 + trueDegreeCos * 120 - pitch * 3,
self.centerY + trueDegreeSin * 120 + roll * 3,
self.centerX2 - pitch * 3, self.centerY + roll * 3)
stroke_weight(9)
line(self.centerX2 + trueDegreeCos * 122 - pitch * 3,
self.centerY + trueDegreeSin * 122 + roll * 3,
self.centerX2 - pitch * 3, self.centerY + roll * 3)
stroke_weight(8)
line(self.centerX2 + trueDegreeCos * 124 - pitch * 3,
self.centerY + trueDegreeSin * 124 + roll * 3,
self.centerX2 - pitch * 3, self.centerY + roll * 3)
stroke_weight(7)
line(self.centerX2 + trueDegreeCos * 126 - pitch * 3,
self.centerY + trueDegreeSin * 126 + roll * 3,
self.centerX2 - pitch * 3, self.centerY + roll * 3)
stroke_weight(6)
line(self.centerX2 + trueDegreeCos * 128 - pitch * 3,
self.centerY + trueDegreeSin * 128 + roll * 3,
self.centerX2 - pitch * 3, self.centerY + roll * 3)
stroke_weight(5)
line(self.centerX2 + trueDegreeCos * 130 - pitch * 3,
self.centerY + trueDegreeSin * 130 + roll * 3,
self.centerX2 - pitch * 3, self.centerY + roll * 3)
stroke_weight(4)
line(self.centerX2 + trueDegreeCos * 132 - pitch * 3,
self.centerY + trueDegreeSin * 132 + roll * 3,
self.centerX2 - pitch * 3, self.centerY + roll * 3)
stroke_weight(3)
line(self.centerX2 + trueDegreeCos * 134 - pitch * 3,
self.centerY + trueDegreeSin * 134 + roll * 3,
self.centerX2 - pitch * 3, self.centerY + roll * 3)
stroke_weight(2)
line(self.centerX2 + trueDegreeCos * 136 - pitch * 3,
self.centerY + trueDegreeSin * 136 + roll * 3,
self.centerX2 - pitch * 3, self.centerY + roll * 3)
pointMaker(self, roll, pitch, yaw)
stroke_weight(0)
#tracing back steps
current = location.get_location()
latLong = (round(current['latitude'],
4), round(current['longitude'], 4)
) #solved the close points problem using rounding
if latLong in self.locationsLeft:
loc = self.locationsLeft.index(latLong)
# self.locationsLeft.remove(latLong)
self.locationsLeft = self.locationsLeft[0:loc]
#images on the trip back
if latLong in self.photoLocations:
loc = self.photoLocations.index(latLong)
self.imageMode = True
tint(1, 1, 1)
fill(0, 0, 0)
stroke(0, 0, 0)
if self.imageMode == True:
rect(0, 150, self.size.w, 50)
text("Landmark! Tap here to see!",
font_name='Courier',
font_size=16.0,
x=self.centerX2,
y=150 + 25,
alignment=5)
self.layer.image = "Dog_Face"
self.add_layer(self.layer)
self.root_layer.update(self.dt)
self.root_layer.draw()
else:
text("Welcome Back.",
font_name='Verdana',
font_size=16.0,
x=textPosX,
y=textPosY,
alignment=5)
#SOS Button and
fill(0.95, 0.6, 0.6)
tint(1, 1, 1, 1)
if self.MoreState == True:
#to seperate the active buttons from the non active ones
fill(0, 0, 0, 0.5)
rect(0, 0, self.size.x, self.size.y)
#SOS Button
fill(0.95, 0.6, 0.6, 1)
tint(1, 1, 1, 1)
ellipse(self.centerX2 - 0.0 - self.radius,
self.centerY2 - self.radius - 130, self.radius * 2,
self.radius * 2)
text('SOS',
font_name='Verdana',
font_size=12.0,
x=self.centerX2,
y=self.centerY2 + self.radius - 167,
alignment=5)
#MAP Button
if len(self.locations) >= 2:
fill(0.6, 0.6, 0.95)
tint(1, 1, 1, 1)
ellipse(self.centerX2 - scale * 3 - self.radius,
self.centerY2 - self.radius - 20, self.radius * 2,
self.radius * 2)
text('Map View',
font_name='Verdana',
font_size=12.0,
x=self.centerX2 - 112,
y=self.centerY2 + self.radius - 57,
alignment=5)
fill(247 / 255, 170 / 255, 103 / 255)
tint(1, 1, 1, 1)
ellipse(self.centerX2 - self.radius,
self.centerY2 - self.radius - 20, self.radius * 2,
self.radius * 2)
text('Share',
font_name='Verdana',
font_size=12.0,
x=self.centerX2,
y=self.centerY2 + self.radius - 57,
alignment=5)
tint(0.7, 0.7, 0.7, 1)
if self.clipState == True:
text('Copied to Clipboard',
font_name='Verdana',
font_size=16.0,
x=self.size.x / 2,
y=self.size.y / 2 - 65,
alignment=5)
fill(118 / 255, 191 / 255, 247 / 255)
tint(1, 1, 1, 1)
ellipse(self.centerX2 + scale * 3 - self.radius,
self.centerY2 - self.radius - 20, self.radius * 2,
self.radius * 2)
text('Trace',
font_name='Verdana',
font_size=12.0,
x=self.centerX2 + 112,
y=self.centerY2 + self.radius - 57,
alignment=5)
#SOS Button
fill(0.95, 0.6, 0.6)
tint(1, 1, 1, 1)
ellipse(self.centerX2 - 0.0 - self.radius,
self.centerY2 - self.radius - 130, self.radius * 2,
self.radius * 2)
text('SOS',
font_name='Verdana',
font_size=12.0,
x=self.centerX2,
y=self.centerY2 + self.radius - 167,
alignment=5)
#More button at the bottom of screen
elif self.MoreState == False:
ellipse(self.size.x / 2 - self.radius / 2, 0 - self.radius / 2 - 5,
self.radius, self.radius)
#-----------PATHSTATE---------------------------------------------------
if self.pathState == True and len(self.locations) > 0:
fill(0.7, 0.7, 0.7)
rect(20, self.size.y / 2 - 50, self.size.x - 40, self.size.y / 3)
fill(1, 1, 1)
rect(25, self.size.y / 2 - 45, self.size.x - 50,
self.size.y / 3 - 10)
tint(1, 0, 0, 1)
fill(1, 0, 0)
stroke(1, 0, 0, 1)
stroke_weight(2)
#line(self.size.x/2, self.size.y/2, self.size.x/2 + 10, self.size.y/2 + 10)
iPointX, iPointY = self.locations[0]
newLocs = [(0, 0)]
maxDiffX = 0
maxDiffY = 0
xSepVals = []
ySepVals = []
# for loc in self.locations:
# xSepVals += [loc[0]]
# ySepVals += [loc[1]]
#
# maxDiffX = (max(xSepVals) - min(xSepVals))* 100000
# maxDiffY = (max(ySepVals) - min(ySepVals))* 100000
for loc in self.locations[1:]:
nPointX, nPointY = loc
dataX = (iPointX - nPointX) * 100000
dataY = (iPointY - nPointY) * 100000
newLocs += [(dataX, dataY)]
for loc in newLocs:
xSepVals += [loc[0]]
ySepVals += [loc[1]]
maxDiffX = (max(xSepVals) - min(xSepVals))
maxDiffY = (max(ySepVals) - min(ySepVals))
generalMaxDiff = max(maxDiffX, maxDiffY)
miniX = min(xSepVals)
miniY = min(ySepVals)
generalMini = min(miniX, miniY)
jumpG = 0 - generalMini
evenedLocsX = []
evenedLocsY = []
for i in range(len(xSepVals)):
evenedLocsX += [xSepVals[i] + jumpG]
evenedLocsY += [ySepVals[i] + jumpG]
xCenter = self.size.x / 2
yCenter = self.size.y / 2 - 50 + 2
colorCount = len(newLocs)
for i in range(len(newLocs) - 1):
xLoc1, yLoc1 = evenedLocsX[i], evenedLocsY[i]
xLoc2, yLoc2 = evenedLocsX[i + 1], evenedLocsY[i + 1]
stroke(((255 / colorCount) * i) / 255, 0, 0)
fill((255 - (i * 10)) / 255, 0, 0)
text(str(i),
font_name='Verdana',
font_size=4.0,
x=xCenter + xLoc1,
y=yCenter + yLoc1 + 20,
alignment=5)
line((335 / generalMaxDiff) * xLoc1 + 20,
(222 / generalMaxDiff) * yLoc1 + yCenter,
(335 / generalMaxDiff) * xLoc2 + 20,
(222 / generalMaxDiff) * yLoc2 + yCenter)
ellipse(xCenter - 2 + xLoc1, yCenter - 2 + yLoc1, 4, 4)
#-----------END OF PATHSTATE---------------------------------------------------
if self.loopPrompt == True:
fill(0, 0, 0)
stroke_weight(0)
#prompt for the loop
rect(50, self.size.y / 2 - 50, self.size.x - 100,
self.size.y / 6 + 40)
tint(1, 1, 1, 1)
text("Stop Moving!",
font_name='Verdana',
font_size=18.0,
x=self.size.x / 2,
y=self.size.y / 2 + 65,
alignment=5)
text("Looks like you\'ve made a loop",
font_name='Verdana',
font_size=13.0,
x=self.size.x / 2,
y=self.size.y / 2 + 38,
alignment=5)
stroke(1, 1, 1, 1)
stroke_weight(3)
line(50, self.size.y / 2, self.size.x - 50, self.size.y / 2)
line(self.size.x / 2, self.size.y / 2 - 50, self.size.x / 2,
self.size.y / 2)
text("Continue",
font_name='Verdana',
font_size=15.0,
x=self.size.x / 2 - 70,
y=self.size.y / 2 - 25,
alignment=5)
text("Break",
font_name='Verdana',
font_size=15.0,
x=self.size.x / 2 + 70,
y=self.size.y / 2 - 25,
alignment=5)
def update(self): motion.start_updates() px = motion.get_gravity() gx = px[0] * 50 self.x = min(max(self.x + gx, 20), self.scene.size.w - 20)
def update(self): motion.start_updates() gx = motion.get_gravity()[0] * 50 self.x = min(max(self.x + gx, 20), self.scene.size.w - (20 + image_width))
def draw(self):
#set the background color to the theme's background color
self.background_color = self.theme["backgroundColor"]
time.sleep(0.05) #time between each redraw
self.timerCount += 1 #add to the timer to animate and do things
#Title Text
tint(self.theme["titleColor"])
# text('Thread', font_name='Courier', font_size=16.0, x=self.centerX2, y=self.centerY2+self.scale+400, alignment=5)
#Locations recorded count
tint(self.theme["locationCount"])
locationCountText = "Locations: " + str(len(self.locations))
text(locationCountText, font_name='Verdana', font_size=10, x=50, \
y=self.centerY2+self.scale+400, alignment=5)
#print the amount of locations left on the journey
def remainingText(self):
locationLeftText = "Remaining: " + str(len(self.locationsLeft))
text(locationLeftText, font_name='Verdana', font_size=10, \
x=self.size.x-60, y=self.centerY2+self.scale+400, alignment=5)
if self.functionState == 4:
remainingText(self)
#motion vectors
gravX, gravY, gravZ = motion.get_gravity()
gravityVectors = motion.get_attitude()
pitch = gravityVectors[0]
roll = gravityVectors[1]
yaw = gravityVectors[2]
#convert yaw to degrees
yaw = -yaw * 180 / math.pi
pitch = -pitch * 180 / math.pi
roll = -roll * 180 / math.pi
#draw Reset Button
def makeResetButton(self):
fill(self.theme["buttonFill"])
stroke_weight(0)
ellipse(self.centerX2-self.scale*3-self.scale,\
self.centerY2-self.scale-130,self.scale*2,self.scale*2)
tint(self.theme["buttonText"])
text('Reset', font_name='Verdana', font_size=12.0, \
x=self.centerX2-112, y=self.centerY2+self.scale-167, alignment=5)
#LOCATION GET
current = location.get_location()
#latLong will be the location used through every redraw
latLong = (round(current['latitude'],
4), round(current['longitude'], 4))
#solved the close points problem using rounding
picTaken = latLong in self.photoLocations
#orientation calculation
yawSin = math.sin(math.radians(yaw))
yawCos = math.cos(math.radians(yaw))
#derive the direction (NSEW) from the degrees
def directionText(yaw):
directionSym = ''
#Direction
if yaw > 60 and yaw <= 120:
directionSym = 'N'
elif yaw > 120 and yaw <= 150:
directionSym = 'NE'
elif (yaw > 150 and yaw <= 180) or (yaw >= -180 and yaw <= -150):
directionSym = 'E'
elif yaw > -150 and yaw <= -120:
directionSym = 'SE'
elif yaw > -120 and yaw <= -60:
directionSym = 'S'
elif yaw > -60 and yaw <= -30:
directionSym = 'SW'
elif yaw > -30 and yaw <= 30:
directionSym = 'W'
elif yaw > 30 and yaw <= 60:
directionSym = 'NW'
else:
directionSym = ''
return directionSym
#draw the compass on the bottom right and make it work
def drawCompass(self):
#compass draw
tint(self.theme["compassTint"])
stroke(self.theme["compassStroke"])
stroke_weight(0)
fill(self.theme["compassFill1"])
ellipse(self.centerX2+self.scale*3-self.scale,self.centerY2-\
self.scale-130,self.scale*2,self.scale*2)
stroke_weight(0)
ellipse(self.centerX2+self.scale*3-self.scale+3,self.centerY2-\
self.scale-127,self.scale*1.85,self.scale*1.85)
ellipse(self.centerX2+self.scale*3-self.scale+6,self.centerY2-\
self.scale-124,self.scale*1.7,self.scale*1.7)
stroke_weight(2)
stroke(self.theme["compassStrokeSouth"])
line(self.centerX2-yawCos*self.scale+self.scale*3,self.centerY2-\
yawSin*self.scale-130,self.centerX2+yawCos*self.scale+\
self.scale*3,self.centerY2+yawSin*self.scale-130)
stroke(self.theme["compassStrokeNorth"])
line(300,72.5,self.centerX2+yawCos*self.scale+self.scale*3,\
self.centerY2+yawSin*self.scale-130)
#circle on top of compass
stroke_weight(0)
stroke(self.theme["compassStroke"])
fill(self.theme["compassTopFill"])
ellipse(self.centerX2+self.scale*3-self.scale+9.5,\
self.centerY2-self.scale-120.5,self.scale*1.5,self.scale*1.5)
#compass text
tint(self.theme["buttonText"])
if self.compassStat == False:
text(directionText(yaw), font_name='Verdana', font_size=10.0, \
x=self.centerX2+self.scale*3, y=self.centerY2+self.scale-167, \
alignment=5)
else:
tempYaw = yaw + 180 + 90
if tempYaw > 360:
tempYaw = tempYaw % 360
yawString = str(int(round(tempYaw, 0))) + chr(186)
text(yawString, font_name='Verdana', font_size=10.0, \
x=self.centerX2+self.scale*3, y=self.centerY2+self.scale-167, \
alignment=5)
#Center Screen Text (decide what is being displayed)
def centerScreenText(self):
tint(self.theme["mainTextColor"])
if self.measuringOn == False and self.functionState == 0:
text('Tap to Start', font_name='Verdana', font_size=16.0, \
x=self.centerX2, y=self.centerY2+self.scale+150, alignment=5)
elif self.measuringOn == True and self.functionState == 1:
if self.timerCount // 20 % 3 == 0:
text('Recording Journey.', font_name='Verdana', \
font_size=16.0, x=self.centerX2, \
y=self.centerY2+self.scale+150, alignment=5)
elif self.timerCount // 20 % 3 == 1:
text('Recording Journey..', font_name='Verdana', \
font_size=16.0, x=self.centerX2, \
y=self.centerY2+self.scale+150, alignment=5)
elif self.timerCount // 20 % 3 == 2:
text('Recording Journey...', font_name='Verdana', \
font_size=16.0, x=self.centerX2, \
y=self.centerY2+self.scale+150, alignment=5)
text('Tap to Stop', font_name='Verdana', font_size=16.0, \
x=self.centerX2, y=self.centerY2+self.scale+120, alignment=5)
elif self.measuringOn == False and self.functionState == 2:
text('Calculating', font_name='Verdana', font_size=16.0, \
x=self.centerX2, y=self.centerY2+self.scale+150, alignment=5)
#if not enough values are recorded, say that they need more
tint(self.theme["needMoreText"])
if self.needMore == True:
text("Need to record more locations.", font_name='Verdana', \
font_size=16.0, x=self.size.x/2, y=self.size.y/2-20, \
alignment=5)
makeResetButton(self)
drawCompass(self)
centerScreenText(self)
#When measuring is on record locations and put into array of locations
def measuring(self):
tint(self.theme["buttonText"])
if picTaken == False:
#camera mode
stroke_weight(0)
fill(self.theme["buttonFill"])
tint(self.theme["buttonText"])
ellipse(self.size.x/2-self.scale/2,0-self.scale/2+72,\
self.scale,self.scale)
text('Snap', font_name='Verdana', font_size=8.0, \
x=self.centerX2, y=self.centerY2+self.scale-167, alignment=5)
#to avoid repeats, only add if the location is not in the list
if latLong not in self.locations:
self.locations += [latLong]
if self.activator == True:
self.activator = False
self.loopPromptState = 0
#if you travel in a loop ask the user if they want to keep the loop
#or break it and get rid of the points in the loop from the path
elif latLong in self.locations[0:-5] and self.activator == False:
#sound.play_effect('arcade:Laser_1')
self.loopPrompt = True
self.activator = True
#if you say tes to continuing, then you it will keep Recording
#repeated points until you reach a point not in the list.
if self.loopPromptState == 1:
if self.currentLoc != latLong:
self.currentLoc = latLong
self.locations += [latLong]
#if they say yes to breaking the loop, remove everything from the
#end til that point in the list
elif self.loopPromptState == 2:
loc = self.locations.index(latLong)
self.locations = self.locations[0:loc]
self.loopPromptState = 0
#when its in measuring state, measure.
if self.measuringOn == True:
measuring(self)
#after measuring is off, setup array to use on the way back
elif self.functionState == 2 and len(self.locations) > 3:
self.locationsLeft = copy.deepcopy(self.locations)
#do this to avoid tapping too early
self.functionState += 1
#after the array set up, tap to get back to where you were
elif self.functionState == 3:
tint(self.theme["mainTextColor"])
text('Tap to return to start', font_name='Verdana', \
font_size=16.0, x=self.centerX2, \
y=self.centerY2+self.scale+150, alignment=5)
#function state 4 is about getting back to the original location
elif self.functionState == 4:
#tracing back steps
if latLong in self.locationsLeft:
loc = self.locationsLeft.index(latLong)
#chopping off everything til the point that it recognizes in
#the list is way better than using .remove because now if I
#loop into the list or the location sensor picks up late, I
#can subvert those problems and allow Thread to work seamlessly
# self.locationsLeft.remove(latLong) #dont use this
self.locationsLeft = self.locationsLeft[0:loc]
#pull the last location, that is the destination
x, y = self.locations[0]
x = round(x, 10)
y = round(y, 10)
loc = "[" + str(x) + ", " + str(y) + "]"
fill(self.theme["buttonFill"])
stroke(self.theme["titleColor"])
stroke_weight(0)
# rect(0,560,self.size.w,50)
# # text('Destination:', font_name='Verdana', font_size=12.0, x=70, y=550, alignment=5)
# # text(loc, font_name='Verdana', font_size=12.0, x=230, y=550, alignment=5)
#calculate total distance traveled by using the distance formula
totalDistanceTraveled = 0
for i in range(len(self.locations) - 1):
firstPosX, firstPosY = self.locations[i]
nextPosX, nextPosY = self.locations[i + 1]
dist = ((nextPosX - firstPosX)**2 + \
(nextPosY - firstPosY)**2)**0.5
totalDistanceTraveled += dist
#not displaying the distance traveled because it is unnecessary
#and usually incorrect because of the nature of the data
# text('Distance Traveled:', font_name='Verdana', font_size=12.0, \
# x=70, y=585, alignment=5)
# text(str(totalDistanceTraveled), font_name='Verdana', \
# font_size=12.0, x=230, y=585, alignment=5)
#formatting
textPosX = self.size.x / 2
textPosY = self.size.y / 2
#displaying the arrow that guides you back
#if you have more than one, an arrow will point you back
#if not it will say "Welcome Back."
if (len(self.locationsLeft) > 1):
#if you have more than 5 points left, use the average location
#of the next 4 points on the path to get an accurate direction
#back because points are recorded on a grid, so going from
#point to point will be either left right forward or backward
#and nothing in between.
if (len(self.locationsLeft) > 4):
currPosX, currPosY = latLong
# currPosX, currPosY = self.locationsLeft[-1]
nextPosX, nextPosY = self.locationsLeft[-2]
secondPosX, secondPosY = self.locationsLeft[-3]
thirdPosX, thirdPosY = self.locationsLeft[-4]
fourthPosX, fourthPosY = self.locationsLeft[-5]
#use the average location to get a good direction
xNextAverage = (nextPosX + secondPosX + \
thirdPosX + fourthPosX)/4
yNextAverage = (nextPosY + secondPosY + \
thirdPosY + fourthPosY)/4
#if there are 3 or 2 points left then just use what's left
elif (len(self.locationsLeft) > 2):
currPosX, currPosY = self.locationsLeft[-1]
nextPosX, nextPosY = self.locationsLeft[-2]
secondPosX, secondPosY = self.locationsLeft[-3]
xNextAverage = (nextPosX + secondPosX) / 2
yNextAverage = (nextPosY + secondPosY) / 2
elif (len(self.locationsLeft) > 1):
currPosX, currPosY = self.locationsLeft[-1]
nextPosX, nextPosY = self.locationsLeft[-2]
xNextAverage = (nextPosX) / 1
yNextAverage = (nextPosY) / 1
#this formula was from: "https://www.igismap.com/formula
#-to-find-bearing-or-heading-angle-between-two-points-
#latitude-longitude/"
xVal = math.cos(math.radians(xNextAverage))*\
math.sin(math.radians(yNextAverage-currPosY))
yVal = math.cos(math.radians(currPosX))*\
math.sin(math.radians(xNextAverage))-\
math.sin(math.radians(currPosX))*\
math.cos(math.radians(xNextAverage))*\
math.cos(math.radians(yNextAverage-currPosY))
radianAngle = (math.atan2(xVal, yVal))
degreeAngle = math.degrees(radianAngle)
#had to derive this method on my own
if degreeAngle < 0:
degreeAngle = 360 + degreeAngle
trueDegree = degreeAngle
#draw directing arrow: have to use this formula
#it allow you to spin the phone and it will still point you in
#the right direction
tempYaw1 = -(360 - yaw + trueDegree)
trueDegreeSin = math.sin(math.radians(tempYaw1))
trueDegreeCos = math.cos(math.radians(tempYaw1))
#draw the arrow that points you back
def pointMaker(self, roll, pitch, yaw):
stroke_weight(20)
stroke(self.theme["guiderBack"])
line(self.centerX2-trueDegreeCos*130, \
self.centerY-trueDegreeSin*130, \
self.centerX2+trueDegreeCos*130, \
self.centerY+trueDegreeSin*130 )
stroke(self.theme["compassStrokeNorth"])
#make the point by increasing length
#and reducing stroke weight (thickness)
for i in range(20):
stroke_weight(20 - i)
line(self.centerX2+trueDegreeCos*(130+(i*2)), \
self.centerY+trueDegreeSin*(130+(i*2)), \
self.centerX2 ,self.centerY )
#draw the point
pointMaker(self, roll, pitch, yaw)
stroke_weight(0)
#display images when you are in the location that
#an image is in
if latLong in self.photoLocations \
and self.imageModeOpen == False:
photoLoc = len(self.photoLocations) - \
self.photoLocations.index(latLong)
self.imageMode = True
tint(self.theme["textColor2"])
fill(self.theme["notificationColor"])
stroke(self.theme["notificationColor"])
#display a banner that says there is a landmark here!
rect(0, 150, self.size.w, 50)
text("Landmark! Tap here to see!", font_name='Verdana', \
font_size=16.0, x=self.centerX2, y=150+25, alignment=5)
self.currentImage = self.photoLibrary.assets[-photoLoc]
self.photoWidth = self.currentImage.pixel_width
self.photoHeight = self.currentImage.pixel_height
#get the image ready for display when the banner is tapped
self.ui_image = self.currentImage.get_ui_image()
else:
#when there are no locations left display Welcome Back.
text("Welcome Back.", font_name='Verdana', font_size=16.0, \
x=textPosX, y=textPosY, alignment=5)
#the more state buttons to be displayed
fill(self.theme["needMoreText"])
tint(self.theme["textColor2"])
if self.MoreState == True:
#to seperate the active buttons from the non active ones
fill(self.theme["transparentFill"])
rect(0, 0, self.size.x, self.size.y)
#SOS Button draw
fill(self.theme["needMoreText"])
tint(self.theme["textColor2"])
ellipse(self.centerX2-0.0-self.scale,self.centerY2-self.scale-130,\
self.scale*2,self.scale*2)
text('SOS', font_name='Verdana', font_size=12.0, x=self.centerX2, \
y=self.centerY2+self.scale-167, alignment=5)
#only display certain buttons when it is over an amount of points
if len(self.locations) >= 2:
#MAP Button draw
fill(self.theme["mapButton"])
tint(self.theme["otherButtonTexts"])
ellipse(self.centerX2-self.scale*3-self.scale,\
self.centerY2-self.scale-20,self.scale*2,self.scale*2)
text('Map View', font_name='Verdana', font_size=12.0, \
x=self.centerX2-112, y=self.centerY2+self.scale-57,alignment=5)
#Share Button Draw
fill(self.theme["shareButton"])
tint(self.theme["otherButtonTexts"])
ellipse(self.centerX2-self.scale,self.centerY2-self.scale-20,\
self.scale*2,self.scale*2)
text('Share', font_name='Verdana', font_size=12.0, \
x=self.centerX2, y=self.centerY2+self.scale-57, alignment=5)
#let user know the text was copied after pressing share
tint(self.theme["copiedText"])
if self.clipState == True:
text('Copied to Clipboard', font_name='Verdana', \
font_size=16.0, x=self.size.x/2, y=self.size.y/2-65, \
alignment=5)
#trace button draw
fill(self.theme["traceButton"])
tint(self.theme["otherButtonTexts"])
ellipse(self.centerX2+self.scale*3-self.scale,\
self.centerY2-self.scale-20,self.scale*2,self.scale*2)
text('Trace', font_name='Verdana', font_size=12.0, \
x=self.centerX2+112, y=self.centerY2+self.scale-57, alignment=5)
#SOS Button Draw
fill(self.theme["SOScolor"])
tint(self.theme["otherButtonTexts"])
ellipse(self.centerX2-0.0-self.scale,\
self.centerY2-self.scale-130,self.scale*2,self.scale*2)
text('SOS', font_name='Verdana', font_size=12.0, \
x=self.centerX2, y=self.centerY2+self.scale-167, alignment=5)
#Theme switching button draw
fill(self.theme["themeButton"])
tint(self.theme["themeText"])
ellipse(self.centerX2-self.scale,self.size.y-115,\
self.scale*2,self.scale*2)
text('Theme', font_name='Verdana', font_size=12.0, \
x=self.centerX2, y=self.size.y-77, alignment=5)
#More button at the bottom of screen
elif self.MoreState == False:
fill(self.theme["moreColor"])
ellipse(self.size.x/2-self.scale/2,0-self.scale/2-5,\
self.scale,self.scale)
#photo border when the photo is displayed
if self.imageModeOpen == True:
fill(0, 0, 0, 0.5)
rect(0, 0, self.size.x, self.size.y)
fill(self.theme["photoBorder"])
rect(5, self.halfScreenFrame, self.widthFrame, self.heightFrame)
#this function draws the path out in the frame that you can access
#after pressing the trace button.
def drawPath(self):
fill(self.theme["pathBorder"])
rect(14, self.size.y / 2 - 55, self.size.x - 28,
self.size.y / 3 + 12)
fill(self.theme["pathScreenFill"])
rect(19, self.size.y / 2 - 50, self.size.x - 38,
self.size.y / 3 + 2)
tint(self.theme["pathEndColor"])
fill(self.theme["pathEndColor"])
stroke(self.theme["pathEndColor"])
stroke_weight(2)
iPointX, iPointY = self.locations[0]
newLocs = [(0, 0)]
maxDiffX = 0
maxDiffY = 0
xSepVals = []
ySepVals = []
#take the differences between the latLong points and essentially
#simplify the data
for loc in self.locations[1:]:
nPointX, nPointY = loc
dataX = (iPointX - nPointX) * 100000
dataY = (iPointY - nPointY) * 100000
newLocs += [(dataX, dataY)]
#split up x and y values
for loc in newLocs:
xSepVals += [loc[0]]
ySepVals += [loc[1]]
#look for the maximum difference between the x vals and y values
maxDiffX = (max(xSepVals) - min(xSepVals))
maxDiffY = (max(ySepVals) - min(ySepVals))
#scale it based on the maximum difference so the graph looks scaled
#properly and one axis isn't many times smaller than the other
generalMaxDiff = max(maxDiffX, maxDiffY)
#make everything positive
miniX = min(xSepVals)
jumpX = 0 - miniX
evenedLocsX = []
for val in xSepVals:
evenedLocsX += [val + jumpX]
miniY = min(ySepVals)
jumpY = 0 - miniY
evenedLocsY = []
for val in ySepVals:
evenedLocsY += [val + jumpY]
#start drawing in the frame
#the color changes from red to black as you go farther from your
#current location
#changes from red to blue in dark mode
xCenter = self.size.x / 2
yCenter = self.size.y / 2 - 50 + 2
colorCount = len(newLocs)
for i in range(len(newLocs) - 1):
xLoc1, yLoc1 = evenedLocsX[i], evenedLocsY[i]
xLoc2, yLoc2 = evenedLocsX[i + 1], evenedLocsY[i + 1]
#add if statements
if self.theme == self.darkMode:
stroke(((255 / colorCount) * i) / 255, 0, 0.15)
fill(((255 / colorCount) * i) / 255, 0, 0.15)
elif self.theme == self.lightMode:
stroke(((255 / colorCount) * i) / 255, 0, 0)
fill(((255 / colorCount) * i) / 255, 0, 0)
#draw lines between points
line((335/generalMaxDiff)*xLoc1+20,(222/generalMaxDiff)*\
yLoc1+yCenter, (335/generalMaxDiff)*xLoc2+20,\
(222/generalMaxDiff)*yLoc2+yCenter)
#draw points, but they will be one shade lighter than the
#line they are between because it looks cooler and stands out
if len(self.locations) > 20:
ellipse((335/generalMaxDiff)*xLoc1+20-1,\
(222/generalMaxDiff)*yLoc1+yCenter-1,2,2)
else:
ellipse((335/generalMaxDiff)*xLoc1+20-2,\
(222/generalMaxDiff)*yLoc1+yCenter-2,4,4)
ellipse((335/generalMaxDiff)*evenedLocsX[-1]+20-2,\
(222/generalMaxDiff)*evenedLocsY[-1]+yCenter-2,4,4)
#if you push the trace button and you have locations, reveal the path
if self.pathState == True and len(self.locations) > 0:
drawPath(self)
#when someone walks in a circle, prompt the user to decide what to do:
#delete the looped area, or keep that path of travel.
def loopPromptBox(self):
fill(self.theme["loopPromptColor"])
stroke_weight(0)
#prompt for the loop
rect(50, self.size.y / 2 - 50, self.size.x - 100,
self.size.y / 6 + 40)
tint(self.theme["loopPromptTextColor"])
text("Stop Moving!", font_name='Verdana', font_size=18.0, \
x=self.size.x/2, y=self.size.y/2+65, alignment=5)
text("Looks like you\'ve made a loop", font_name='Verdana', \
font_size=13.0, x=self.size.x/2, y=self.size.y/2+38, alignment=5)
stroke(self.theme["loopPromptTextColor"])
stroke_weight(3)
line(50, self.size.y / 2, self.size.x - 50, self.size.y / 2)
line(self.size.x / 2, self.size.y / 2 - 50, self.size.x / 2,
self.size.y / 2)
text("Continue", font_name='Verdana', font_size=15.0, \
x=self.size.x/2-70, y=self.size.y/2-25, alignment=5)
text("Break", font_name='Verdana', font_size=15.0, \
x=self.size.x/2+70, y=self.size.y/2-25, alignment=5)
#prompt when the user goes in a loop/crosses paths with recorded path
if self.loopPrompt == True:
loopPromptBox(self)
def update(self):
motion.start_updates()
gx = motion.get_gravity()[0] * 50
self.x = min(max(self.x + gx, 20),
self.scene.size.w - (20 + image_width))
def draw(self):
#Box
self.cx = self.size.w * 0.5
self.cy = self.size.h * 0.5
#pitch,roll,yaw
self.cx2 = self.size.w * 0.5
self.cy2 = self.size.h * 0.5 - scale * 3.5
time.sleep(0.1)
#motion
ax, ay, az = motion.get_user_acceleration()
gx, gy, gz = motion.get_gravity()
gravity_vectors = motion.get_attitude()
mx, my, mz, ma = motion.get_magnetic_field()
pitch, roll, yaw = [x for x in gravity_vectors]
pitch = -pitch * 180 / math.pi
roll = roll * 180 / math.pi
yaw = -yaw * 180 / math.pi
#redraw screen
background(1, 1, 1)
fill(1, 1, 1)
stroke_weight(1)
#pitch,roll,yaw描画
# ellipse(self.cx2-scale*3-self.R,self.cy2-self.R,self.R*2,self.R*2)
# ellipse(self.cx2-0.0-self.R,self.cy2-self.R,self.R*2,self.R*2)
ellipse(self.cx2 + scale * 3 - self.R, self.cy2 - self.R - 130,
self.R * 2, self.R * 2)
roll_sin = math.sin(math.radians(roll))
roll_cos = math.cos(math.radians(roll))
pitch_sin = math.sin(math.radians(pitch))
pitch_cos = math.cos(math.radians(pitch))
yaw_sin = math.sin(math.radians(yaw))
yaw_cos = math.cos(math.radians(yaw))
# line(self.cx2-roll_cos*self.R-scale*3,self.cy2-roll_sin*self.R,self.cx2+roll_cos*self.R-scale*3,self.cy2+roll_sin*self.R)
# line(self.cx2-pitch_cos*self.R-0,self.cy2-pitch_sin*self.R,self.cx2+pitch_cos*self.R-0,self.cy2+pitch_sin*self.R)
line(self.cx2 - yaw_cos * self.R + scale * 3,
self.cy2 - yaw_sin * self.R - 130,
self.cx2 + yaw_cos * self.R + scale * 3,
self.cy2 + yaw_sin * self.R - 130)
yawMatrix = np.matrix([[yaw_cos, -yaw_sin, 0], [yaw_sin, yaw_cos, 0],
[0, 0, 1]])
pitchMatrix = np.matrix([[pitch_cos, 0, pitch_sin], [0, 1, 0],
[-pitch_sin, 0, pitch_cos]])
rollMatrix = np.matrix([[1, 0, 0], [0, roll_cos, -roll_sin],
[0, roll_sin, roll_cos]])
R = yawMatrix * pitchMatrix * rollMatrix
R = np.array(R)
x_3d, y_3d, z_3d = np.transpose(np.dot(self.Box, R), (2, 0, 1))
zmin = np.argmin(z_3d)
#derive the direction (NSEW)
def directionText(yaw):
directionSym = ''
#Direction
if yaw > 60 and yaw <= 120:
directionSym = 'N'
elif yaw > 120 and yaw <= 150:
directionSym = 'NE'
elif (yaw > 150 and yaw <= 180) or (yaw >= -180 and yaw <= -150):
directionSym = 'E'
elif yaw > -150 and yaw <= -120:
directionSym = 'SE'
elif yaw > -120 and yaw <= -60:
directionSym = 'S'
elif yaw > -60 and yaw <= -30:
directionSym = 'SW'
elif yaw > -30 and yaw <= 30:
directionSym = 'W'
elif yaw > 30 and yaw <= 60:
directionSym = 'NW'
else:
directionSym = ''
return directionSym
#text
tint(0, 0, 0, 1)
#text('Direction:', font_name='Helvetica', font_size=16.0, x=self.cx2+scale*3, y=self.cy2+self.R-80, alignment=5)
text(directionText(yaw),
font_name='Helvetica',
font_size=10.0,
x=self.cx2 + scale * 3,
y=self.cy2 + self.R - 100,
alignment=5)
delta = newtime - oldtime
if delta != 0:
ips = int((iters - olditers) / delta)
maxips = max(maxips, ips)
oldtime = newtime
olditers = iters
moonunits = d2e / moondistance
velocity = math.hypot(shipvx, shipvy)
escapevelocity = math.sqrt(-2.0 * (earthgrav + moongrav) / d2e)
if (velocity > escapevelocity) and (d2e > offscreen):
show_earth(0, 1, 0) # show green Earth then quit
print("\n+++++++ Escape velocity ! +++++++")
break
gravx, gravy, gravz = motion.get_gravity() # device orientation
if gravz > 0.3: # quit if user turns device screen downwards
show_earth(1, 1, 0) # show yellow Earth
break
if gravx > 0.8: # output info if tipped to landscape
print(f"{moonunits:6.2f} moonu @ {velocity:7.0f} mps")
simtime += dtime
iters += 1
motion.stop_updates()
logfile.close()
stoptime = time.process_time()
def draw(self):
#Box
self.cx = self.size.w * 0.5
self.cy = self.size.h * 0.5
#pitch,roll,yaw
self.cx2 = self.size.w * 0.5
self.cy2 = self.size.h * 0.5 - scale * 3.5
time.sleep(0.1)
#motion
ax, ay, az = motion.get_user_acceleration()
gx, gy, gz = motion.get_gravity()
gravity_vectors = motion.get_attitude()
mx, my, mz, ma = motion.get_magnetic_field()
pitch, roll, yaw = [x for x in gravity_vectors]
pitch = -pitch * 180 / math.pi
roll = roll * 180 / math.pi
yaw = -yaw * 180 / math.pi
#redraw screen
fill(0.5, 0.5, 0.5)
stroke_weight(2)
#pitch,roll,yaw
# ellipse(self.cx2-scale*3-self.R,self.cy2-self.R,self.R*2,self.R*2)
# ellipse(self.cx2-0.0-self.R,self.cy2-self.R,self.R*2,self.R*2)
ellipse(self.cx2 + scale * 3 - self.R, self.cy2 - self.R - 130,
self.R * 2, self.R * 2)
fill(0.7, 0.7, 0.7)
no_stroke()
ellipse(self.cx2 + scale * 3 - self.R + 3, self.cy2 - self.R - 127,
self.R * 1.85, self.R * 1.85)
fill(0.8, 0.8, 0.8)
ellipse(self.cx2 + scale * 3 - self.R + 6, self.cy2 - self.R - 124,
self.R * 1.7, self.R * 1.7)
fill(0.9, 0.9, 0.9)
ellipse(self.cx2 + scale * 3 - self.R + 9.5, self.cy2 - self.R - 120.5,
self.R * 1.5, self.R * 1.5)
roll_sin = math.sin(math.radians(roll))
roll_cos = math.cos(math.radians(roll))
pitch_sin = math.sin(math.radians(pitch))
pitch_cos = math.cos(math.radians(pitch))
yaw_sin = math.sin(math.radians(yaw))
yaw_cos = math.cos(math.radians(yaw))
# line(self.cx2-roll_cos*self.R-scale*3,self.cy2-roll_sin*self.R,self.cx2+roll_cos*self.R-scale*3,self.cy2+roll_sin*self.R)
# line(self.cx2-pitch_cos*self.R-0,self.cy2-pitch_sin*self.R,self.cx2+pitch_cos*self.R-0,self.cy2+pitch_sin*self.R)
stroke(0, 0, 0)
stroke_weight(2)
line(self.cx2 - yaw_cos * self.R + scale * 3,
self.cy2 - yaw_sin * self.R - 130,
self.cx2 + yaw_cos * self.R + scale * 3,
self.cy2 + yaw_sin * self.R - 130)
stroke(1, 0, 0)
line(300, 72.5, self.cx2 + yaw_cos * self.R + scale * 3,
self.cy2 + yaw_sin * self.R - 130)
yawMatrix = np.matrix([[yaw_cos, -yaw_sin, 0], [yaw_sin, yaw_cos, 0],
[0, 0, 1]])
pitchMatrix = np.matrix([[pitch_cos, 0, pitch_sin], [0, 1, 0],
[-pitch_sin, 0, pitch_cos]])
rollMatrix = np.matrix([[1, 0, 0], [0, roll_cos, -roll_sin],
[0, roll_sin, roll_cos]])
R = yawMatrix * pitchMatrix * rollMatrix
R = np.array(R)
#x_3d,y_3d,z_3d = np.transpose(np.dot(self.Box,R),(2,0,1))
#zmin = np.argmin(z_3d)
#derive the direction (NSEW)
def directionText(yaw):
directionSym = ''
#Direction
if yaw > 60 and yaw <= 120:
directionSym = 'N'
elif yaw > 120 and yaw <= 150:
directionSym = 'NE'
elif (yaw > 150 and yaw <= 180) or (yaw >= -180 and yaw <= -150):
directionSym = 'E'
elif yaw > -150 and yaw <= -120:
directionSym = 'SE'
elif yaw > -120 and yaw <= -60:
directionSym = 'S'
elif yaw > -60 and yaw <= -30:
directionSym = 'SW'
elif yaw > -30 and yaw <= 30:
directionSym = 'W'
elif yaw > 30 and yaw <= 60:
directionSym = 'NW'
else:
directionSym = ''
return directionSym
#text
tint(0, 0, 0, 1)
text('Thread 1.0',
font_name='Courier',
font_size=16.0,
x=self.cx2,
y=self.cy2 + self.R + 400,
alignment=5)
if self.measuringOn == False and self.checkedOnce == 0:
text('Tap to Start',
font_name='Helvetica',
font_size=16.0,
x=self.cx2,
y=self.cy2 + self.R + 150,
alignment=5)
elif self.measuringOn == True and self.checkedOnce == 1:
if self.testCounter % 3 == 0:
text('Measuring.',
font_name='Helvetica',
font_size=16.0,
x=self.cx2,
y=self.cy2 + self.R + 150,
alignment=5)
elif self.testCounter % 3 == 1:
text('Measuring..',
font_name='Helvetica',
font_size=16.0,
x=self.cx2,
y=self.cy2 + self.R + 150,
alignment=5)
elif self.testCounter % 3 == 2:
text('Measuring...',
font_name='Helvetica',
font_size=16.0,
x=self.cx2,
y=self.cy2 + self.R + 150,
alignment=5)
text('Tap to Stop',
font_name='Helvetica',
font_size=16.0,
x=self.cx2,
y=self.cy2 + self.R + 120,
alignment=5)
elif self.measuringOn == False and self.checkedOnce == 2:
text('Calculating',
font_name='Helvetica',
font_size=16.0,
x=self.cx2,
y=self.cy2 + self.R + 120,
alignment=5)
#compass text
text(directionText(yaw),
font_name='Helvetica',
font_size=10.0,
x=self.cx2 + scale * 3,
y=self.cy2 + self.R - 100,
alignment=5)
if self.measuringOn == True:
time.sleep(0.2)
current = location.get_location()
latLong = (current['latitude'], current['longitude'])
self.locations += [latLong]
self.testCounter += 1
#sound.play_effect('arcade:Laser_2')
elif self.checkedOnce == 2:
self.locationsReversed = copy.deepcopy(self.locations)
self.locationsReversed.reverse()
#now use the locations and map it onto a map so you know the direciton between points (NWSE)
#start saying stuff like "Point North and Move Forward"
#Now it makes sense why we use the compass.
#test texts
self.checkedOnce += 1
elif self.checkedOnce == 3 or self.checkedOnce == 4:
locationList = str(self.locations[0]) + ' ' + str(
self.locations[-1])
text(locationList,
font_name='Helvetica',
font_size=5.0,
x=self.cx2,
y=self.cy2 + self.R + 80,
alignment=5)
locationListReversed = str(self.locationsReversed[0]) + ' ' + str(
self.locationsReversed[-1])
text(locationListReversed,
font_name='Helvetica',
font_size=5.0,
x=self.cx2,
y=self.cy2 + self.R + 60,
alignment=5)
# coding: utf-8
# https://forum.omz-software.com/topic/2469/scene-gravity-and-orientation/3
# scene.gravity is deprecated - you should use motion.get_gravity instead, which is independent of the scene module.
# Basic usage looks like this:
import motion
motion.start_updates()
print(motion.get_gravity())
motion.stop_updates()
# All code that makes use of motion data needs to go between start_updates and stop_updates. If the code inside might raise an exception, you should put the entire thing in a try-finally block to make sure that motion updates are stopped so your battery doesn't drain too quickly.
import motion
motion.start_updates()
try:
pass # Do motion things
finally:
motion.stop_updates()
# The try block will not catch any exceptions, it only ensures that the finally block is run whether an exception is raised or not.
import scene
import motion
class MyScene (scene.Scene):
