def test_canvas_flip_horizontally():
canvas = Canvas(2, 1)
canvas.paint_pixel(0, 0, red)
canvas.paint_pixel(1, 0, blue)
canvas.select(0, 0, 1, 0)
canvas.flip_horizontally()
assert canvas.pixels[0][0] == blue
def _import_txt_triggered(self):
path = QFileDialog.getOpenFileName(self)[0]
self._mesh = FileHandler.load_mesh(path)
self._width.setText(str(self._mesh.get_size().width()))
self._height.setText(str(self._mesh.get_size().height()))
self._canvas = Canvas(self.get_canvas__geometry(), self._mesh)
self._canvas.show()
def test_canvas_flip_vertically():
canvas = Canvas(1, 2)
canvas.paint_pixel(0, 0, red)
canvas.paint_pixel(0, 1, blue)
canvas.select(0, 0, 0, 1)
canvas.flip_vertically()
assert canvas.pixels[0][0] == blue
def test_adjust_axes_2(self):
'''
load 'clt.nc', load 'u' variable, load 'v' variable, adjust sliders, load, and plot.
'''
print("\n\n...test_adjust_axes_2...")
left_side_bar = self.load_data_file("clt.nc")
load_variable_pop_up = LoadVariablePopUp(self.driver)
load_variable_pop_up.click_on_var('u')
load_variable_pop_up.click_on_var_axes('u')
# adjust the min slider by 20 percent and max slider by 20 percent.
load_variable_pop_up.adjust_var_axes_slider('u', 'longitude1', 20, -20)
load_variable_pop_up.click_on_var('v')
load_variable_pop_up.click_on_var_axes('v')
# adjust the min slider by 20 percent and max slider by 20 percent.
load_variable_pop_up.adjust_var_axes_slider('v', 'longitude2', 20, -20)
load_variable_pop_up.load()
left_side_bar.select_plot_type("streamline (default)")
left_side_bar.click_on_plot()
canvas = Canvas(self.driver)
canvas.check_plot()
def test_canvas_rect():
print(inspect.currentframe().f_code.co_name)
c = Canvas(10, 10, 0)
blue = Color(0, 0, 255)
c.draw_rect(2, 2, 4, 4, blue)
print(repr(c))
def _gen_space_btn_clicked(self):
width = int(self._width.text())
height = int(self._height.text())
if self._canvas:
self._canvas.close()
self._mesh = Mesh(width, height, PROB)
self._canvas = Canvas(self.get_canvas__geometry(), self._mesh)
self._canvas.show()
def draw(self, canvas: Canvas):
if self.client_data is not None:
for x in range(0, canvas.width):
for y in range(0, canvas.height):
color = Color(self.client_data[x][y][0],
self.client_data[x][y][1],
self.client_data[x][y][2])
canvas.draw_pixel(x, y, color)
def __init__(self):
self.canvas = Canvas(self)
self.p1 = Circle(pos=[0, 0.8, 0], radius=0.2, color=[1, 0, 0])
self.p2 = Circle(pos=[0, -0.8, 0], radius=0.2, color=[0, 0, 1])
self.ball = Circle(pos=[0, 0, 0], radius=0.1, color=[0, 1, 1])
# self.canvas = canvas
self.movePuck = False
self.deg = 0
def test_turn_right():
canvas = Canvas(3, 3)
canvas.paint_pixel(1, 0)
canvas.paint_pixel(1, 1)
canvas.paint_pixel(1, 2)
canvas.select(0, 0, 2, 2)
canvas.turn_selection_right()
assert canvas.pixels[0][1] == canvas.current_color
def draw(self, canvas: Canvas):
for x in range(0, canvas.width):
for y in range(0, canvas.height):
if self.game_board[x][y] is True:
c = Color(self.colorboard[x][y][0],
self.colorboard[x][y][1],
self.colorboard[x][y][2])
canvas.draw_pixel(x, y, c)
class CryptoExchangeGraph(QWidget):
def __init__(self, defaultCrypto='BTC', defaultExchange='USD'):
super().__init__()
self.setAutoFillBackground(True)
fontSize = 10
cryptoX = 320
cryptoY = 30
cryptoWidth = 70
cryptoHeight = 25
horizontalTextBoxSpace = 30
exchangeX = cryptoX + cryptoWidth + horizontalTextBoxSpace
exchangeY = cryptoY + cryptoHeight + 25
exchangeWidth = cryptoWidth
exchangeHeight = cryptoHeight
self.canvas = Canvas(self)
self.canvas.move(0, 0)
self.canvas.resize(315, 300)
labelWidth = 30
labelCrypto = QLabel(self)
labelCrypto.setText('Crypto')
labelCrypto.move(cryptoX + (cryptoWidth - labelWidth) / 2.5,
cryptoY - 20)
labelExchange = QLabel(self)
labelExchange.setText('Exchange')
labelExchange.move(cryptoX + (cryptoWidth - labelWidth) / 2.5 - 2,
exchangeY - 20)
self.cryptoTextBox = TextBox(self,
defaultText=defaultCrypto,
placeholder='Crypto',
fontSize=fontSize,
x=cryptoX,
y=cryptoY,
width=cryptoWidth,
height=cryptoHeight)
self.exchangeTextBox = TextBox(self,
defaultText=defaultExchange,
placeholder='Exchange',
fontSize=fontSize,
x=cryptoX,
y=exchangeY,
width=cryptoWidth,
height=exchangeHeight)
buttonGo = QPushButton('Go', self)
buttonGo.move(cryptoX - 2, exchangeY + exchangeHeight + 20)
buttonGo.clicked.connect(self.updateGraph)
def updateGraph(self):
print('ohayo')
def test_canvas_pixel_line():
print(inspect.currentframe().f_code.co_name)
c = Canvas(10, 10, 0)
blue = Color(0, 0, 255)
for i in range(c.width - 1, 0 - 1, -1):
c.draw_pixel(9 - i, i, blue)
print(repr(c))
def clear_btn_clicked(self):
width = int(self._width.text())
height = int(self._height.text())
prob_rule4 = int(self._prob_rule4.text())
self._mesh = Mesh(width, height, prob_rule4)
self._canvas.close()
self._canvas = Canvas(self.get_canvas__geometry(), self._mesh)
self._canvas.show()
self._canvas.repaint()
def generate(
course_name, quiz_number, output_dir, template_file, recipients_file, token_file, s
):
"""Driver/interface function for generating a report.
"""
# Create directories if needed
figures_dir = Path(output_dir / "figures")
for d in [output_dir, figures_dir]:
export.create_dir(d)
# Use a stale dataset, or grab a fresh one
if s is True:
print("Loading contents from file...")
with open("contents.json", "r") as f:
contents = json.load(f)
else:
print("Fetching data from Canvas...")
with token_file.open("r") as f:
token = f.read()
c = Canvas("asu.instructure.com", "v1", token)
report_df = c.get_quiz_report(course_name, quiz_number)
print("Fetch complete.")
contents = data_processing.generate_report_contents(
c, report_df, quiz_number, figures_dir, recipients_file
)
with open("contents.json", "w+") as f:
json.dump(contents, f)
# Render LaTeX template
print("Rendering LaTeX Template...")
env = make_env(loader=FileSystemLoader(str(template_file.parent)))
tpl = env.get_template(str(template_file.name))
rendered_latex = tpl.render(contents=contents)
print("Render complete.")
# Typeset PDF
print("Typesetting PDF...")
base_filename = f"muddy_points_{contents.get('quiz_number')}"
pdf_filename = Path(output_dir / f"{base_filename}.pdf")
pdf = build_pdf(rendered_latex, texinputs=[str(Path.cwd()), ""])
pdf.save_to(str(pdf_filename))
print("Typesetting complete.")
# Export to Microsoft Word and LaTeX formats for further editing
docx_filename = Path(output_dir / f"{base_filename}.docx")
latex_filename = Path(output_dir / f"{base_filename}.tex")
export.make_texfile(rendered_latex, latex_filename)
export.make_docx(latex_filename, docx_filename)
# Create archive
print("Creating archive...")
zip_filename = Path(output_dir / f"{base_filename}.zip")
export.make_archive(
zip_filename, [pdf_filename, docx_filename, latex_filename], figures_dir
)
print(f"Created archive: {zip_filename}")
def open(self):
fileName, _ = QFileDialog.getOpenFileName(self, "Open Geotiff File",
QDir.currentPath(),"tif (*.tif*);;TIFF (*.TIF*)")
if fileName:
dsr = gdal.Open(fileName)
np_array = np.array(dsr.ReadAsArray())
if np_array.shape[0]==4:
np_array=np_array[0]
np_array_uint8 = (np_array).astype(np.uint8)
self.geotiffScale=dsr.GetGeoTransform()[1]
print(self.geotiffScale)
self.setToAllBt(True)
width,height=dsr.RasterXSize,dsr.RasterYSize
self.aspect=Decimal(float(height)/float(width))
minabs=100
if width>height:
minh=3450
for i in range(3450,3550,1):
if abs(Decimal(i*self.aspect)-int(i*self.aspect))<minabs:
minabs=abs(Decimal(i*self.aspect)-int(i*self.aspect))
minh=i
newHeight=minh
newWidth=Decimal(newHeight*self.aspect)
else:
minw=3450
for i in range(3450,3550,1):
if abs(Decimal(i*self.aspect)-int(i*self.aspect))<minabs:
minabs=abs(Decimal(i*self.aspect)-int(i*self.aspect))
minw=i
newWidth=minw
newHeight=Decimal(newWidth*self.aspect)
self.resizeFactorWidth=Decimal(width/newWidth)
self.resizeFactorHeight=Decimal(height/newHeight)
self.imageLabel =Canvas(np_array_uint8,newWidth,newHeight,self.resizeFactorWidth,self.resizeFactorHeight,self.geotiffScale)
self.imageLabel.setScale(1)
self.imageLabel.setMouseTracking(True)
widget = QWidget(self)
layout = QHBoxLayout(widget)
self.leftScroll = Pane(
Qt.AlignTop | Qt.AlignLeft, self)
self.leftScroll.setWidgetResizable(True)
self.scrollBars = {
Qt.Vertical: self.leftScroll.verticalScrollBar(),
Qt.Horizontal: self.leftScroll.horizontalScrollBar()
}
self.leftScroll.addWidget(self.imageLabel)
self.scaleFactor = 1.0
layout.addWidget(self.leftScroll)
self.setCentralWidget(widget)
self.imageLabel.update()
self.ruler.setEnabled(True)
def __init__(self, parent, ID):
Canvas.__init__(self, parent, ID)
self._importer = edef.Importer()
self._selected_object = None
self.Bind( Events.EVT_CAN_RCLICK, self.OnConRightClick)
self.Bind( Events.EVT_CAN_RCLICK, self.OnModRightClick)
self.Bind( Events.EVT_CAN_CONNECT, self.OnCanConnect)
def test_canvas_draw_pixel_line(serial):
print(inspect.currentframe().f_code.co_name)
c = Canvas(156, 1, 0)
blue = Color(0, 0, 255)
while True:
for i in range(c.width):
c.draw_pixel(i, 0, blue)
serial.update(c.get_buffer_for_arduino())
def __init__(self, master=None):
super().__init__(master)
self.master = master
self.pack()
self.interface = Canvas(self)
# Basic parameters.
self.room_height = 0
self.room_width = 0
# Draw_surface
self.draw_interface()
# Generate room
self.generate_room()
def delObject(self, obj):
if isinstance(obj, emModule):
self._logger.debug("Delete module: %s"%id(obj))
cons = self.getConnectionsFrom(obj)
for con in self.getConnectionsTo(obj):
if not con in cons: cons.append(con)
for con in cons: self.delObject( con )
else:
self._logger.debug("Delete non-module: %s"%id(obj))
Canvas.delObject( self, obj )
self.OnModified() #
def __init__(self, app):
super().__init__()
self._app = app
MainWindow.geometry = QRect(app.desktop().screenGeometry().width() - MENU_WIDTH, 300, MENU_WIDTH, MENU_HEIGHT)
self._init_ui()
self._started = False
self._mesh = Mesh(DEF_POINTS_SIZE.width(), DEF_POINTS_SIZE.height(), PROB)
self._canvas = Canvas(self.get_canvas__geometry(), self._mesh)
self._nhood = NHOODS[0]
self._periodic = False
self._canvas.show()
self._thread = None
def __init__(self):
Canvas.__init__(self, 300, 300)
self.sun = CanvasImage('images/sun.png')
self.moon = CanvasImage('images/moon.png')
self.earth = CanvasImage('images/earth.png')
self.loader = ImageLoadListener()
self.loader.add(self.sun)
self.loader.add(self.moon)
self.loader.add(self.earth)
self.isActive = True
self.onTimer()
def __init__(self):
Canvas.__init__(self, 300, 300)
self.sun = CanvasImage('images/sun.png')
self.moon = CanvasImage('images/moon.png')
self.earth = CanvasImage('images/earth.png')
self.loader = ImageLoadListener()
self.loader.add(self.sun)
self.loader.add(self.moon)
self.loader.add(self.earth)
self.isActive = True
self.onTimer()
def draw(self, canvas: Canvas, clear: bool = False):
"""
Draw the font pixels to the screen.
:param canvas: the canvas to be drawn to
:param clear: if True, the canvas will be cleared before drawing the font
"""
if clear:
canvas.clear()
if self.rendered_text is not None:
self.current_text_width = canvas.draw_text(self.rendered_text,
int(self.current_x),
int(self.current_y),
self.current_color)
class WormArea(object):
def __init__(self, game, surface):
self.game = game
self.surface = surface
slot_length = self.game.net_config.DIAMETER*4
self.canvas = Canvas(config.WORM_AREA_SIZE, (slot_length, slot_length))
self.clear()
self.differential_draw_allowed = False
def clear(self):
self.canvas.clear()
self.surface.fill(config.CLEAR_COLOR)
def draw_circle(self, color, position, diameter):
x, y = position
pygame.draw.circle(self.surface, color, map(int, position), diameter/2)
def undraw_circle(self, position, diameter):
self.draw_circle(config.CLEAR_COLOR, position, diameter)
def show_circle(self, sqr_distance, circle):
if circle in self.min_circles_sqr_distance:
if sqr_distance >= self.min_circles_sqr_distance[circle]:
return
self.min_circles_sqr_distance[circle] = sqr_distance
def draw(self):
if self.game.net_config.FOG_ENABLED:
self.min_circles_sqr_distance = {}
self.surface.fill(config.CLEAR_COLOR)
for player in self.game.all_players():
player.worm.show()
sqr_fog_radius = (self.game.net_config.FOG_VISION_DIAMETER/2)**2
for circle, sqr_distance in self.min_circles_sqr_distance.iteritems():
relative_distance = min(1.0, (1.0*sqr_distance/sqr_fog_radius))
fade_color = [c*(1.0-relative_distance)
for c in circle.worm().color]
self.draw_circle(fade_color, circle.position, circle.diameter)
del self.min_circles_sqr_distance
self.differential_draw_allowed = False
else:
if self.differential_draw_allowed:
for player in self.game.all_players():
player.worm.draw_differentially()
else:
for player in self.game.all_players():
player.worm.draw_full()
self.differential_draw_allowed = True
def __init__(self, game, surface):
self.game = game
self.surface = surface
slot_length = self.game.net_config.DIAMETER*4
self.canvas = Canvas(config.WORM_AREA_SIZE, (slot_length, slot_length))
self.clear()
self.differential_draw_allowed = False
def main():
robot = Robot()
canvas = Canvas()
navigator = WaypointNavigator(robot);
while True:
navigator.navigateToWaypoint(*getWayPoint())
def _removeAsset(self, idx):
del self.canvasList[idx]
self.listView.DeleteItem(idx)
itemCount = self.listView.GetItemCount()
if itemCount > 0:
self.listView.Select(self.currentIndex, on=0)
for numCanvas in [
n for n in sorted(self.canvasList.keys()) if n >= idx
]:
self.canvasList[numCanvas - 1] = self.canvasList[numCanvas]
del self.canvasList[numCanvas]
[
self.listView.SetColumnWidth(col, wx.LIST_AUTOSIZE)
for col in (0, 1)
]
if (idx == 0) or (idx >= itemCount):
idx = 0 if itemCount > 0 else None
else:
idx = idx if idx < itemCount else None
self.currentIndex = idx
if self.currentIndex != None:
self.listView.Select(self.currentIndex, on=1)
self.drawCanvas(self.canvasList[self.currentIndex][0])
else:
self.currentIndex = None
[
self.listView.SetColumnWidth(col, wx.LIST_AUTOSIZE_USEHEADER)
for col in (0, 1)
]
self.drawCanvas(Canvas((0, 0)))
return self.currentIndex
def test_plot_variable_2(self):
'''
load 'clt.nc', load 'u' variable, load 'v' variable, load and plot.
'''
print("\n\n...test_plot_variable_2...")
left_side_bar = self.load_data_file("clt.nc")
load_variable_pop_up = LoadVariablePopUp(self.driver)
load_variable_pop_up.click_on_var('u')
load_variable_pop_up.click_on_var('v')
load_variable_pop_up.load()
left_side_bar.click_on_plot()
canvas = Canvas(self.driver)
canvas.check_plot()
def main(argv):
print('Start Working...')
LabelID = LoadLabelsFromFile(argv[-3])
SubLabelID = LoadLabelsFromFile(argv[-2])
cv2.namedWindow(winName, cv2.WINDOW_AUTOSIZE)
caps = []
for v in argv[:-4]:
caps.append(LoadVideo(v))
recordsList = ReadAllRecordsIntoList(argv[-4])
start = 0
if len(recordsList) != 0:
start = recordsList[-1][0] + 1
updateFramesFlag = False
canvas = Canvas(2150, 900, caps, 30, 2, winName, LabelID, SubLabelID,
updateFramesFlag)
canvas.DumpRecordsToFrames(recordsList)
canvas.LoadVideos()
test = canvas.GetFrames()
canvas.TestFrames()
#while start < len(test):
#for t in test:
# tuplet = test[start].constructTuple()
# recordsList.append(tuplet)
# start+=1
recordsList = canvas.ConvertFramesToSimpleList()
if updateFramesFlag:
WriteToFile(recordsList, argv[-4], updateFramesFlag)
else:
WriteToFile(recordsList, argv[-1], updateFramesFlag)
def __init__(self, wavelength=6):
global IMAGE_SIZE
IMAGE_SIZE = (700, 300)
self.im_size = np.array((700, 300))
self.canvas = Canvas(*self.im_size)
self.im_domain = self.canvas.getDomain()
self.wall_pos = 20
self.wall_width = 4
self.slit_width = 6
self.slit_sep = 100
# self.slit_pos_top = (self.wall_pos, (self.im_size[1] / 2) - (self.slit_sep / 2))
# self.slit_pos_mid = (self.wall_pos, (self.im_size[1] / 2))
# self.slit_pos_bot = (self.wall_pos, (self.im_size[1] / 2) + (self.slit_sep / 2))
self.num_sources = 10
self.low_threshold = 0
self.high_threshold = 1
self.wavelength = wavelength
self.amplitude = 1
self.image_domain = Domain(0, 0, *self.im_size)
self.incoming_domain, self.interference_domain = self.image_domain.split_vertical(
self.wall_pos)
self.plane_wave = PlaneWave(self.wavelength, self.amplitude,
self.incoming_domain, np.array([1.0, 0.0]))
self.barrier = Barrier(
Domain(self.wall_pos, 0, self.wall_pos + self.wall_width,
IMAGE_SIZE[1]))
self.barrier.setSlits(2, self.slit_width, self.slit_sep,
self.interference_domain)
self.wave_drawer = GenericWaveDrawer()
def test_gui_canvas_display_by_line():
print(inspect.currentframe().f_code.co_name)
print("should print blue line bottom left to top right")
try:
from MatrixGraphicalDisplay import MatrixGraphicalDisplay
c = Canvas(15, 10, 0)
gui = MatrixGraphicalDisplay(15, 10, 0)
blue = Color(0, 0, 255)
for i in range(c.width - 1, 0 - 1 + (c.width - c.height), -1):
c.draw_pixel(c.width - 1 - i, i - (c.width - c.height), blue)
gui.update_with_canvas(c)
time.sleep(.4)
except ImportError:
print("could not import tkinter, probably")
def test_gui_canvas_display_pixel_counter_up():
print(inspect.currentframe().f_code.co_name)
print("should print blue line from pixel 0 to 41")
try:
from MatrixGraphicalDisplay import MatrixGraphicalDisplay
c = Canvas(42, 1, 0)
gui = MatrixGraphicalDisplay(42, 1, 0, test_gui_canvas_display_by_line)
blue = Color(0, 0, 255)
for i in range(42):
c.draw_pixel(i, 0, blue)
gui.update_with_canvas(c)
time.sleep(0.6)
except ImportError:
print("could not import tkinter, probably")
def test_adjust_axes_1(self):
'''
load 'clt.nc', load 'u' variable, adjust slider, load, and plot.
'''
print("\n\n...test_adjust_axes_1...")
left_side_bar = self.load_data_file("clt.nc")
load_variable_pop_up = LoadVariablePopUp(self.driver)
load_variable_pop_up.click_on_var('u')
load_variable_pop_up.click_on_var_axes('u')
# adjust the min slider by 20 percent and max slider by 20 percent.
load_variable_pop_up.adjust_var_axes_slider('u', 'latitude1', 20, -20)
load_variable_pop_up.load()
left_side_bar.click_on_plot()
canvas = Canvas(self.driver)
canvas.check_plot()
def navigateThroughWaypoints(wpts):
# myLoc = wpts[0]
canvas = Canvas()
r = robot(wpts, canvas)
startingLoc = r.getStartingLocation()
n_wpts = len(wpts)
for wp in wpts:
canvas.drawWaypoint(wp)
for i in range(n_wpts):
myLoc = r.navigateToWaypoint(wpts[(i + 1 + startingLoc) % n_wpts])
# myLoc = r.navigateToWaypoint_rt(wpts[(i + 1 + startingLoc) % n_wpts])
print("At location: {0}".format(myLoc))
time.sleep(1)
print '\a'
def __init__(self, map_height=12, map_width=12, num_of_cheese=3):
self.map_height = map_height
self.map_width = map_width
self.num_of_cheese = num_of_cheese
self.visited_cheese_pos = []
self.visited_mouse_pos = []
self.visited_cat_pos = []
self.game_states = []
self.mouse_path = []
self.mouse_initial_pos = []
self.random_coordinates = []
self.generate_resources()
self.cheese_pos.sort(key=self.compare_by_distance)
self.game_state = GameState.BasicGameState(self.mouse.current_pos,
self.cat.current_pos,
self.cheese_pos)
self.game_states.append(self.game_state)
self.game_map = GameMap(self.game_state, map_height, map_width)
self.canvas = Canvas(self.game_map)
def die(self):
self.game.state = 2
if not self.dead:
self.progress = 0
self.game.finalscore = self.game.score
self.game.finalcounts = self.game.counts[:]
self.game.stars.append(
Canvas(self.game, "EmptySplash", (self.game.x / 2, 0)))
self.dead = True
self.game.playMusic("Partners_in_Crimefighting.wav")
def __init__(self, drawing):
Canvas.__init__(self)
self.drawing = drawing
def __init__(self):
Canvas.__init__(self, 150, 150)
self.draw()
def __init__(self):
Canvas.__init__(self, 150, 150)
self.context.translate(75,75)
self.draw()
import sys
from Canvas import Canvas
# SET PARAMETERS
# INITIALIZE STUFF
canvas = Canvas()
message = 0
# USER MESSAGES
def printHelp () :
print( "Flags:" )
print( "-box :: must enter four values corresponding to the x and y coordinates of the top left and bottom right vertices, respectively" )
print( "-row :: enter the row number to be filled " )
print( "-col :: enter the col number to be filled " )
print( "-coord :: enter the coordinates of the pixel to be colored " )
print( "-color :: enter the ascii character to be colored in with " )
def indexErrorMessage () :
print( "ERROR -- USER IS A DUMBASS" )
def valueErrorMessage () :
print( "ERROR -- BAD VALUE " )
# MAIN LOOP
while True:
# DRAWING
canvas.draw()
def __init__(self):
Canvas.__init__(self, 300, 300)
self.draw()
def __init__(self):
Canvas.__init__(self, 150, 150)
self.img = CanvasImage('images/wallpaper.png', self)
