def adjoining_cuts(cuts, bit, board):
'''
Given the cuts on an edge, computes the cuts on the adjoining edge.
cuts: An array of Cut objects
bit: A Router_Bit object
board: A Board object
Returns an array of Cut objects
'''
nc = len(cuts)
adjCuts = []
# if the left-most input cut does not include the left edge, add an
# adjoining cut that includes the left edge
if cuts[0].xmin > 0:
left = 0
right = my_round(cuts[0].xmin + bit.offset) - board.dheight
if right - left >= board.dheight:
adjCuts.append(Cut(left, right))
# loop through the input cuts and form an adjoining cut, formed
# by looking where the previous cut ended and the current cut starts
for i in lrange(1, nc):
left = my_round(cuts[i-1].xmax - bit.offset + board.dheight)
right = max(left + bit.width, my_round(cuts[i].xmin + bit.offset) - board.dheight)
adjCuts.append(Cut(left, right))
# if the right-most input cut does not include the right edge, add an
# adjoining cut that includes this edge
if cuts[-1].xmax < board.width:
left = my_round(cuts[-1].xmax - bit.offset) + board.dheight
right = board.width
if right - left >= board.dheight:
adjCuts.append(Cut(left, right))
return adjCuts
def adjoining_cuts(cuts, bit, board):
'''
Given the cuts on an edge, computes the cuts on the adjoining edge.
cuts: An array of Cut objects
bit: A Router_Bit object
board: A Board object
Returns an array of Cut objects
'''
nc = len(cuts)
adjCuts = []
# if the left-most input cut does not include the left edge, add an
# adjoining cut that includes the left edge
if cuts[0].xmin > 0:
left = 0
right = my_round(cuts[0].xmin + bit.offset) - board.dheight
if right - left >= board.dheight:
adjCuts.append(Cut(left, right))
# loop through the input cuts and form an adjoining cut, formed
# by looking where the previous cut ended and the current cut starts
for i in lrange(1, nc):
left = my_round(cuts[i - 1].xmax - bit.offset + board.dheight)
right = max(left + bit.width,
my_round(cuts[i].xmin + bit.offset) - board.dheight)
adjCuts.append(Cut(left, right))
# if the right-most input cut does not include the right edge, add an
# adjoining cut that includes this edge
if cuts[-1].xmax < board.width:
left = my_round(cuts[-1].xmax - bit.offset) + board.dheight
right = board.width
if right - left >= board.dheight:
adjCuts.append(Cut(left, right))
return adjCuts
def set_cuts(self):
'''
Sets the cuts to make the joint
'''
spacing = self.params['Spacing'].v - 2 * self.dhtot
width = self.params['Width'].v
centered = self.params['Centered'].v
board_width = self.boards[0].width
units = self.bit.units
label = units.increments_to_string(spacing, True)
self.labels = self.keys[:]
self.labels[0] += ': ' + label
self.labels[1] += ': ' + units.increments_to_string(width, True)
self.description = 'Equally spaced (' + self.labels[0] + \
', ' + self.labels[1] + ')'
self.cuts = [] # return value
neck_width = utils.my_round(self.bit.neck + width - self.bit.width + spacing)
if neck_width < 1:
raise Spacing_Exception('Specified bit paramters give a zero'
' or negative cut width (%d increments) at'
' the surface! Please change the'
' bit parameters width, depth, or angle.' % neck_width)
# put a cut at the center of the board
xMid = board_width // 2
if centered or \
self.bit.angle > 0: # always symm. for dovetail
left = max(0, xMid - width // 2)
else:
left = max(0, (xMid // width) * width)
right = min(board_width, left + width)
self.cuts.append(router.Cut(left, right))
# do left side of board
i = left - neck_width
min_interior = utils.my_round(self.dhtot + self.bit.offset)
while i > 0:
li = max(i - width, 0)
if i - li > self.config.min_finger_width and i > min_interior:
self.cuts.append(router.Cut(li, i))
i = li - neck_width
# do right side of board
i = right + neck_width
while i < board_width:
ri = min(i + width, board_width)
if ri - i > self.config.min_finger_width and board_width - i > min_interior:
self.cuts.append(router.Cut(i, ri))
i = ri + neck_width
# If we have only one cut the entire width of the board, then
# the board width is too small for the bit
if self.cuts[0].xmin == 0 and self.cuts[0].xmax == board_width:
raise Spacing_Exception('Unable to compute a equally-spaced'\
' joint for the board and bit parameters'\
' specified. This is likely because'\
' the board width is too small for the'\
' bit width specified.')
# sort the cuts in increasing x
self.cuts = sorted(self.cuts, key=attrgetter('xmin'))
if self.config.debug:
print('e-s cuts:')
dump_cuts(self.cuts)
def dovetail_correction(self):
'''
Correction for rounding the offset
'''
if utils.my_round(self.neck) + 2 * utils.my_round(self.offset) < self.width:
return 1
else:
return 0
def change_units(self, new_units):
'''Changes units to new_units'''
s = self.units.get_scaling(new_units)
if s == 1:
return
self.width = my_round(self.width * s)
self.height = my_round(self.height * s)
self.thickness = my_round(self.thickness * s)
self.units = new_units
def change_units(self, new_units):
'''Changes units to new_units'''
s = self.units.get_scaling(new_units)
if s == 1:
return
self.width = my_round(self.width * s)
self.height = my_round(self.height * s)
self.thickness = my_round(self.thickness * s)
self.units = new_units
def change_units(self, new_units):
'''Changes units to new_units'''
s = self.units.get_scaling(new_units)
if s == 1:
return
self.width = my_round(self.width * s)
self.width += self.width % 2 # ensure even
self.depth = my_round(self.depth * s)
self.units = new_units
self.reinit()
def change_units(self, new_units):
'''Changes units to new_units'''
s = self.units.get_scaling(new_units)
if s == 1:
return
self.width = my_round(self.width * s)
self.width += self.width % 2 # ensure even
self.depth = my_round(self.depth * s)
self.units = new_units
self.reinit()
def paint_all(self, painter, dpi=None):
'''
Paints all the objects.
painter: A QPainter object
dpi: The resolution of the painter, in dots-per-inch. If None, then
the image is maximized in the window, but maintaining aspect ratio.
'''
rw = painter.window()
window_width = rw.width()
window_height = rw.height()
units = self.geom.bit.units
if dpi is None:
# transform the painter to maintain the figure aspect ratio in the current
# window
window_ar = float(window_width) / window_height
fig_ar = float(self.fig_width) / self.fig_height
if fig_ar < window_ar:
w = utils.my_round(fig_ar * window_height)
painter.translate((window_width - w) // 2, window_height)
scale = float(window_height) / self.fig_height
else:
h = utils.my_round(window_width / fig_ar)
painter.translate(0, (window_height + h) // 2)
scale = float(window_width) / self.fig_width
else:
# Scale so that the image is the correct size on the page
painter.translate(0, window_height)
scale = float(dpi) / units.increments_per_inch
painter.scale(scale, -scale)
# Save the inverse of the un-zoomed transform
(self.base_transform,
dummy_invertable) = painter.transform().inverted()
# Apply the zoom, zooming on the current figure center
painter.scale(self.scaling, self.scaling)
factor = 0.5 - 0.5 / self.scaling
x = self.translate[0] - self.fig_width * factor
y = self.translate[1] - self.fig_height * factor
painter.translate(x, y)
self.transform = painter.transform()
# draw the objects
self.draw_boards(painter)
self.draw_template(painter)
self.draw_title(painter)
# self.draw_finger_sizes(painter)
if self.config.show_finger_widths:
self.draw_finger_sizes(painter)
return (window_width, window_height)
def paint_all(self, painter, dpi=None):
'''
Paints all the objects.
painter: A QPainter object
dpi: The resolution of the painter, in dots-per-inch. If None, then
the image is maximized in the window, but maintaining aspect ratio.
'''
rw = painter.window()
window_width = rw.width()
window_height = rw.height()
units = self.geom.bit.units
if dpi is None:
# transform the painter to maintain the figure aspect ratio in the current
# window
window_ar = float(window_width) / window_height
fig_ar = float(self.fig_width) / self.fig_height
if fig_ar < window_ar:
w = utils.my_round(fig_ar * window_height)
painter.translate((window_width - w) // 2, window_height)
scale = float(window_height) / self.fig_height
else:
h = utils.my_round(window_width / fig_ar)
painter.translate(0, (window_height + h) // 2)
scale = float(window_width) / self.fig_width
else:
# Scale so that the image is the correct size on the page
painter.translate(0, window_height)
scale = float(dpi) / units.increments_per_inch
painter.scale(scale, -scale)
# Save the inverse of the un-zoomed transform
(self.base_transform, invertable) = painter.transform().inverted()
# Apply the zoom, zooming on the current figure center
painter.scale(self.scaling, self.scaling)
factor = 0.5 - 0.5 / self.scaling
x = self.translate[0] - self.fig_width * factor
y = self.translate[1] - self.fig_height * factor
painter.translate(x, y)
self.transform = painter.transform()
# draw the objects
self.draw_boards(painter)
self.draw_template(painter)
self.draw_title(painter)
if self.config.show_finger_widths:
self.draw_finger_sizes(painter)
return (window_width, window_height)
def image_fig(self, template, boards, bit, spacing, woods, min_width):
'''
Prints the figure to a QImage object
'''
self.woods = woods
self.set_fig_dimensions(template, boards)
self.geom = router.Joint_Geometry(template, boards, bit, spacing, self.margins,\
self.config.caul_trim)
self.current_background = self.background
s = self.size()
window_ar = float(s.width()) / s.height()
fig_ar = float(self.fig_width) / self.fig_height
if window_ar < fig_ar:
w = max(min_width, s.width())
else:
w = max(min_width, int(s.height() * fig_ar))
h = utils.my_round(w / fig_ar)
sNew = QtCore.QSize(w, h)
image = QtGui.QImage(sNew, QtGui.QImage.Format_RGB32)
painter = QtGui.QPainter()
painter.begin(image)
size = image.size()
painter.fillRect(0, 0, size.width(), size.height(), self.background)
self.paint_all(painter)
painter.end()
return image
def image(self, template, boards, bit, spacing, woods, description):
'''
Prints the figure to a QImage object
'''
self.woods = woods
self.description = description
self.set_fig_dimensions(template, boards)
self.geom = router.Joint_Geometry(template, boards, bit, spacing, self.margins,
self.config)
self.set_colors(True)
s = self.size()
window_ar = float(s.width()) / s.height()
fig_ar = float(self.fig_width) / self.fig_height
if window_ar < fig_ar:
w = s.width()
else:
w = int(s.height() * fig_ar)
w = max(self.config.min_image_width, min(self.config.max_image_width, w))
h = utils.my_round(w / fig_ar)
sNew = QtCore.QSize(w, h)
im = QtGui.QImage(sNew, QtGui.QImage.Format_RGB32)
painter = QtGui.QPainter()
painter.begin(im)
size = im.size()
if self.colors['canvas_background'] is not None:
b = QtGui.QBrush(self.colors['canvas_background'])
painter.fillRect(0, 0, size.width(), size.height(), b)
self.paint_all(painter)
painter.end()
return im
def image(self, template, boards, bit, spacing, woods, description):
'''
Prints the figure to a QImage object
'''
self.woods = woods
self.description = description
self.set_fig_dimensions(template, boards)
self.geom = router.Joint_Geometry(template, boards, bit, spacing,
self.margins, self.config)
self.set_colors(True)
s = self.size()
window_ar = float(s.width()) / s.height()
fig_ar = float(self.fig_width) / self.fig_height
if window_ar < fig_ar:
w = s.width()
else:
w = int(s.height() * fig_ar)
w = max(self.config.min_image_width, min(self.config.max_image_width,
w))
h = utils.my_round(w / fig_ar)
sNew = QtCore.QSize(w, h)
im = QtGui.QImage(sNew, QtGui.QImage.Format_RGB32)
painter = QtGui.QPainter()
painter.begin(im)
size = im.size()
if self.colors['canvas_background'] is not None:
b = QtGui.QBrush(self.colors['canvas_background'])
painter.fillRect(0, 0, size.width(), size.height(), b)
self.paint_all(painter)
painter.end()
return im
def image_fig(self, template, boards, bit, spacing, woods, min_width):
'''
Prints the figure to a QImage object
'''
self.woods = woods
self.set_fig_dimensions(template, boards)
self.geom = router.Joint_Geometry(template, boards, bit, spacing, self.margins,\
self.config.caul_trim)
self.current_background = self.background
s = self.size()
window_ar = float(s.width()) / s.height()
fig_ar = float(self.fig_width) / self.fig_height
if window_ar < fig_ar:
w = max(min_width, s.width())
else:
w = max(min_width, int(s.height() * fig_ar))
h = utils.my_round(w / fig_ar)
sNew = QtCore.QSize(w, h)
image = QtGui.QImage(sNew, QtGui.QImage.Format_RGB32)
painter = QtGui.QPainter()
painter.begin(image)
size = image.size()
painter.fillRect(0, 0, size.width(), size.height(), self.background)
self.paint_all(painter)
painter.end()
return image
def __str__(self):
result = ['ellipsoid:']
#result.append('lengths measured in meters')
for (k, v) in sorted(self.__dict__.items()):
if k == 'phi_0':
continue
result.append(' ' + k + ' = ' + str(my_round(v, 15)))
return "\n".join(result)
def __str__(self):
result = ['ellipsoid:']
#result.append('lengths measured in meters')
for (k, v) in sorted(self.__dict__.items()):
if k == 'phi_0':
continue
result.append(' ' + k + ' = ' + str(my_round(v, 15)))
return "\n".join(result)
def set_font_size(self, painter, param):
'''
Sets the font size for type param
'''
font_inches = self.font_size[param] / 32.0 * self.geom.bit.units.increments_per_inch
font = painter.font()
xx = self.transform.map(font_inches, 0)[0] - self.transform.dx()
font.setPixelSize(utils.my_round(xx))
painter.setFont(font)
def set_font_size(self, painter, param):
'''
Sets the font size for type param
'''
font_inches = self.font_size[
param] / 32.0 * self.geom.bit.units.increments_per_inch
font = painter.font()
xx = self.transform.map(font_inches, 0)[0] - self.transform.dx()
font.setPixelSize(utils.my_round(xx))
painter.setFont(font)
def __init__(self, bit, boards, config):
Base_Spacing.__init__(self, bit, boards, config)
# eff_width is the effective width, an average of the bit width
# and the neck width
self.eff_width = utils.my_round(0.5 * (self.bit.width + self.bit.neck)) + 2 * self.dhtot
self.wb = self.boards[0].width // self.eff_width
self.alpha = (self.wb + 1) % 2
# min and max number of fingers
self.mMin = max(3 - self.alpha, utils.my_round(math.ceil(math.sqrt(self.wb))))
self.mMax = utils.my_round((self.wb - 1.0 + self.alpha) // 2)
if self.mMax < self.mMin:
raise Spacing_Exception('Unable to compute a variable-spaced'\
' joint for the board and bit parameters'\
' specified. This is likely because'\
' the board width is too small for the'\
' bit width specified.')
self.mDefault = (self.mMin + self.mMax) // 2
self.params = {'Fingers':Spacing_Param(self.mMin, self.mMax, self.mDefault)}
def paint_all(self, painter, dpi=None):
'''
Paints all the objects.
painter: A QPainter object
dpi: The resolution of the painter, in dots-per-inch. If None, then
the image is maximized in the window, but maintaining aspect ratio.
'''
rw = painter.window()
window_width = rw.width()
window_height = rw.height()
units = self.geom.bit.units
if dpi is None:
# transform the painter to maintain the figure aspect ratio in the current
# window
window_ar = float(window_width) / window_height
fig_ar = float(self.fig_width) / self.fig_height
if fig_ar < window_ar:
w = utils.my_round(fig_ar * window_height)
painter.translate((window_width - w) // 2, window_height)
scale = float(window_height) / self.fig_height
else:
h = utils.my_round(window_width / fig_ar)
painter.translate(0, (window_height + h) // 2)
scale = float(window_width) / self.fig_width
else:
# Scale so that the image is the correct size on the page
painter.translate(0, window_height)
scale = float(dpi) / units.increments_per_inch
painter.scale(scale, -scale)
self.transform = painter.transform()
painter.setPen(QtCore.Qt.black)
# draw the objects
self.draw_boards(painter)
self.draw_template(painter)
self.draw_title(painter)
self.draw_cut_sizes(painter)
return (window_width, window_height)
def paint_all(self, painter, dpi=None):
'''
Paints all the objects.
painter: A QPainter object
dpi: The resolution of the painter, in dots-per-inch. If None, then
the image is maximized in the window, but maintaining aspect ratio.
'''
rw = painter.window()
window_width = rw.width()
window_height = rw.height()
units = self.geom.bit.units
if dpi is None:
# transform the painter to maintain the figure aspect ratio in the current
# window
window_ar = float(window_width) / window_height
fig_ar = float(self.fig_width) / self.fig_height
if fig_ar < window_ar:
w = utils.my_round(fig_ar * window_height)
painter.translate((window_width - w) // 2, window_height)
scale = float(window_height) / self.fig_height
else:
h = utils.my_round(window_width / fig_ar)
painter.translate(0, (window_height + h) // 2)
scale = float(window_width) / self.fig_width
else:
# Scale so that the image is the correct size on the page
painter.translate(0, window_height)
scale = float(dpi) / units.increments_per_inch
painter.scale(scale, -scale)
self.transform = painter.transform()
painter.setPen(QtCore.Qt.black)
# draw the objects
self.draw_boards(painter)
self.draw_template(painter)
self.draw_title(painter)
self.draw_cut_sizes(painter)
return (window_width, window_height)
def get_limits(self, f):
'''
Returns the x-coordinate limits of the cut index f
'''
xmin = 0
xmax = self.boards[0].width
neck_width = utils.my_round(self.bit.neck)
if f > 0:
xmin = self.cuts[f - 1].xmax + neck_width
if f < len(self.cuts) - 1:
xmax = self.cuts[f + 1].xmin - neck_width
return (xmin, xmax)
def get_limits(self, f):
"""
Returns the x-coordinate limits of the cut index f
"""
xmin = 0
xmax = self.boards[0].width
neck_width = utils.my_round(self.bit.neck)
if f > 0:
xmin = self.cuts[f - 1].xmax + neck_width
if f < len(self.cuts) - 1:
xmax = self.cuts[f + 1].xmin - neck_width
return (xmin, xmax)
def upgrade(self):
eff_width = self.bit.midline + self.dhtot * 2
wb = self.boards[0].width // eff_width
alpha = (wb + 1) % 2
m = self.params['Fingers'].v
c = eff_width * ((m - 1) * wb - m *
(m + 1) + alpha * m) / D(m * m - 2 * m - 1 + alpha)
d = utils.my_round((c - eff_width) / (m - 1))
self.params[Variable_Spaced.keys[1]] = Spacing_Param(0, d, d)
self.params[Variable_Spaced.keys[2]] = Spacing_Param(
0, 0, False) # No inverse in previous version
def set_height(self, bit, dheight=None):
'''
Sets the height from the router bit depth of cut
'''
if dheight is None:
if self.dheight > 0:
h = self.dheight
else:
h = my_round(0.5 * bit.depth)
else:
self.dheight = dheight
h = dheight
self.height = bit.depth + h
def get_limits(self, f):
'''
Returns the x-coordinate limits of the cut index f
'''
xmin = 0
xmax = self.boards[0].width
midline = utils.my_round(self.bit.midline)
overhang = self.bit.overhang
if f > 0:
xmin = self.cuts[f - 1].xmax + midline - overhang * 2
if f < len(self.cuts) - 1:
xmax = self.cuts[f + 1].xmin - midline + overhang * 2
return (xmin, xmax)
def set_height(self, bit, dheight=None):
'''
Sets the height from the router bit depth of cut
'''
if dheight is None:
if self.dheight > 0:
h = self.dheight
else:
h = my_round(0.5 * bit.depth)
else:
self.dheight = dheight
h = dheight
self.height = bit.depth + h
def __init__(self, bit, boards, config):
Base_Spacing.__init__(self, bit, boards, config)
# eff_width is the effective width, an average of the bit width
# and the neck width
self.eff_width = utils.my_round(
0.5 * (self.bit.width + self.bit.neck)) + 2 * self.dhtot
self.wb = self.boards[0].width // self.eff_width
self.alpha = (self.wb + 1) % 2
# min and max number of fingers
self.mMin = max(3 - self.alpha,
utils.my_round(math.ceil(math.sqrt(self.wb))))
self.mMax = utils.my_round((self.wb - 1.0 + self.alpha) // 2)
if self.mMax < self.mMin:
raise Spacing_Exception('Unable to compute a variable-spaced'\
' joint for the board and bit parameters'\
' specified. This is likely because'\
' the board width is too small for the'\
' bit width specified.')
self.mDefault = (self.mMin + self.mMax) // 2
self.params = {
'Fingers': Spacing_Param(self.mMin, self.mMax, self.mDefault)
}
def cut_add(self):
'''
Adds a cut to the first location possible, searching from the left.
The active cut is set the the new cut.
'''
neck_width = utils.my_round(self.bit.neck)
index = None
cuts_save = copy.deepcopy(self.cuts)
if self.cuts[0].xmin > self.bit.neck:
if self.config.debug:
print('add at left')
index = 0
xmin = 0
xmax = self.cuts[0].xmin - neck_width
wadd = 2 * self.bit.width + neck_width
wdelta = self.bit.width - neck_width
for i in lrange(1, len(self.cuts)):
if self.cuts[i].xmin - self.cuts[i - 1].xmax + wdelta >= wadd:
if self.config.debug:
print('add in cut')
index = i
xmin = self.cuts[i - 1].xmax + neck_width
xmax = xmin + self.bit.width
break
elif self.cuts[i].xmax - self.cuts[i].xmin >= wadd:
if self.config.debug:
print('add in cut')
index = i + 1
xmin = self.cuts[i].xmax - self.bit.width
xmax = self.cuts[i].xmax
self.cuts[i].xmax = self.cuts[i].xmin + self.bit.width
break
if index is None and \
self.cuts[-1].xmax < self.boards[0].width - self.bit.neck:
if self.config.debug:
print('add at right')
index = len(self.cuts)
xmax = self.boards[0].width
xmin = self.cuts[-1].xmax + neck_width
if index is None:
return 'Unable to add cut'
self.undo_cuts.append(cuts_save)
c = self.cuts[0:index]
c.append(router.Cut(xmin, xmax))
c.extend(self.cuts[index:])
self.cuts = c
self.cursor_cut = index
self.active_cuts = [index]
return 'Added cut'
def cut_add(self):
'''
Adds a cut to the first location possible, searching from the left.
The active cut is set the the new cut.
'''
neck_width = utils.my_round(self.bit.neck)
index = None
cuts_save = copy.deepcopy(self.cuts)
if self.cuts[0].xmin > self.bit.neck:
if self.config.debug:
print('add at left')
index = 0
xmin = 0
xmax = self.cuts[0].xmin - neck_width
wadd = 2 * self.bit.width + neck_width
wdelta = self.bit.width - neck_width
for i in lrange(1, len(self.cuts)):
if self.cuts[i].xmin - self.cuts[i - 1].xmax + wdelta >= wadd:
if self.config.debug:
print('add in cut')
index = i
xmin = self.cuts[i - 1].xmax + neck_width
xmax = xmin + self.bit.width
break
elif self.cuts[i].xmax - self.cuts[i].xmin >= wadd:
if self.config.debug:
print('add in cut')
index = i + 1
xmin = self.cuts[i].xmax - self.bit.width
xmax = self.cuts[i].xmax
self.cuts[i].xmax = self.cuts[i].xmin + self.bit.width
break
if index is None and \
self.cuts[-1].xmax < self.boards[0].width - self.bit.neck:
if self.config.debug:
print('add at right')
index = len(self.cuts)
xmax = self.boards[0].width
xmin = self.cuts[-1].xmax + neck_width
if index is None:
return 'Unable to add cut'
self.undo_cuts.append(cuts_save)
c = self.cuts[0:index]
c.append(router.Cut(xmin, xmax))
c.extend(self.cuts[index:])
self.cuts = c
self.cursor_cut = index
self.active_cuts = [index]
return 'Added cut'
def set_cuts(self):
'''
Sets the cuts to make the joint
'''
# on local variables init
# we have to care about imperial values and convert them to increments before use
spacing = self.params['Spacing'].v
width = Decimal(math.floor(self.params['Width'].v))
if not self.bit.units.metric and width < 1.:
spacing = self.bit.units.inches_to_increments(self.params['Spacing'].v)
width = Decimal(math.floor(self.bit.units.inches_to_increments(self.params['Width'].v)))
shift = Decimal(self.bit.midline % 2) / 2 # offset to keep cut center mm count
centered = self.params['Centered'].v
neck_width = width + spacing
overhang = self.bit.overhang
board_width = self.boards[0].width
units = self.bit.units
label = units.increments_to_string(spacing, True)
min_interior = utils.my_round(self.dhtot + self.bit.overhang)
# min_finger_width means most thin wood at the corner
min_finger_width = max(1, units.abstract_to_increments(self.config.min_finger_width))
if centered or \
self.bit.angle > 0: # always symm. for dovetail
# put a cut at the center of the board with half of inctrmrnt prec.
xMid = Decimal(board_width // 2) - shift + (width % 2) / 2
left = Decimal(max(0, xMid - width / 2))
else:
# keep corner finger and groove equality on the board edges
left = (board_width % (width + neck_width)) // 2
if (left - overhang) < min_finger_width:
left = 0
# Note the Width slider measures "midline" but indicates the actual cut space
# show actual maximum cut with for dovetails
self.labels = self.keys[:]
l0 = self.transl.tr(self.labels[0])
l1 = self.transl.tr(self.labels[1])
self.labels[2] = self.transl.tr(self.labels[2])
self.labels[0] = l0 +': ' + label
self.labels[1] = l1 +': ' + units.increments_to_string(width + overhang * 2, True)
self.description = self.transl.tr('Equally spaced ')+' (' + self.labels[0] + \
', ' + self.labels[1] + ')'
self.cuts = [] # return value
right = Decimal(min(board_width, left + width))
self.cuts.append(router.Cut(left - overhang, right + overhang))
# do left side of board
i = left
while left > 0:
i -= neck_width
left = i - width
# prevent thin first cut
if left < min_finger_width:
left = 0
if (i - overhang) > min_finger_width and (i - left - overhang * 2) > min_interior:
self.cuts.append(router.Cut(max(0, left - overhang), i + overhang))
i = left
# do right side of board
i = right
while right < board_width:
i += neck_width
right = i + width
# prevent thin last cut
# devetail may cut off corner finger
if (board_width - right) < min_finger_width:
right = board_width
if (board_width - i + overhang) > min_finger_width and\
(right - i - overhang * 2) > min_interior:
self.cuts.append(router.Cut(i - overhang, min(board_width, right + overhang)))
i = right
# If we have only one cut the entire width of the board, then
# the board width is too small for the bit
if self.cuts[0].xmin == 0 and self.cuts[0].xmax == board_width:
raise Spacing_Exception(self.transl.tr(Equally_Spaced.msg))
# sort the cuts in increasing x
self.cuts = sorted(self.cuts, key=attrgetter('xmin'))
if self.config.debug:
print('e-s cuts:')
dump_cuts(self.cuts)
def distortion_stats(T, sample, my_round_numbers=3):
r"""
Return the sample minimum, sample maximum, sample median, sample mean,
and sample standard deviation of the maximum angular distortion, linear
distortion, and area distortion functions
for the map projection `T`
(an projection_tools.Proj or projection_tools.Proj4 instance)
of the list `sample` of longitude-latitude
points chosen from the surface `T.ellipsoid`.
Most likely you will want sample to comprise points sampled uniformly
at random from the surface of `T.ellipsoid` (and not simply sampled
uniformly at random from the rectangle (-pi, pi) x (-pi/2, pi/2)).
OUTPUT:
(distortions, stats), where
distortions is a list of distortion() outputs for each longitude-
latitude point sampled;
stats is the list of lists [maximum angular distortion stats,
linear distortion stats, area distortion stats], where each stats sublist
is of the form [sample mean, sample standard deviation, sample minimum,
sample maximum, sample median].
EXAMPLES::
>>> from projection_wrapper import Proj
>>> from ellipsoids import WGS84_ELLIPSOID_RADIANS
>>> E = WGS84_ELLIPSOID_RADIANS
>>> f = Proj(ellipsoid=E, proj='healpix')
>>> sample = [E.random_point() for i in range(100)]
>>> print(distortion_stats(f, sample)[1]) # doctest: +SKIP
[[0.309, 0.238, 0.001, 0.838, 0.178], [1.41, 0.375, 1.001, 2.372, 1.195], [1.178, 0.0, 1.178, 1.178, 1.178]]
"""
distortions = []
distortions_slice = []
k = len(distortion(T, 0, 0)) - 1
sample_sum = array([0.0 for i in range(k)])
sample_min = array([float('inf') for i in range(k)])
sample_max = array([float('-inf') for i in range(k)])
N = len(sample)
for (lam, phi) in sample:
d = distortion(T, lam, phi)
distortions.append(d)
distortions_slice.append(d[1:])
for i in range(k):
if d[1 + i] < sample_min[i]:
sample_min[i] = d[1 + i]
if d[1 + i] > sample_max[i]:
sample_max[i] = d[1 + i]
sample_sum += array(d[1:])
distortions_slice = array(distortions_slice)
sample_median = median(distortions_slice, axis=0)
sample_mean = sample_sum/N
sample_var = sum(((d - sample_mean)**2 for d in distortions_slice))/(N - 1)
sample_std = sqrt(sample_var)
#sample_mean_error = sample_std/sqrt(N)
# Zero until i find an appropriate estimate:
#sample_std_error = [0 for i in range(k)]
# Compile stats.
stats = [sample_mean, sample_std, sample_min, sample_max, sample_median]
#errors = [sample_mean_error, sample_std_error]
# Reorder to have ld stuff followed by ad stuff.
stats = list(zip(*stats))
#errors = zip(*errors)
## Compile result
#stats = [stats[0], errors[0], stats[1], errors[1]]
# Round stats if desired.
if my_round_numbers:
new_stats = []
for x in stats:
new_stats.append([my_round(xx, my_round_numbers) for xx in x])
stats = new_stats
return distortions, stats
def set_cuts(self):
"""
Sets the cuts to make the joint
"""
board_width = self.boards[0].width
m = self.params["Fingers"].v
self.labels = [self.keys[0] + ":"]
self.description = "Variable Spaced (" + self.keys[0] + ": {})".format(m)
# c is the ideal center-cut width
c = (
self.eff_width
* ((m - 1.0) * self.wb - m * (m + 1.0) + self.alpha * m)
/ (m * m - 2.0 * m - 1.0 + self.alpha)
)
# d is the ideal decrease in finger width for each finger away from center finger
d = (c - self.eff_width) / (m - 1.0)
# compute fingers on one side of the center and the center and store them
# in increments. Keep a running total of sizes.
increments = [0] * (m + 1)
ivals = 0
for i in lrange(1, m + 1):
increments[i] = max(self.bit.width, int(c - d * i))
ivals += 2 * increments[i]
# Set the center increment. This takes up the slop in the rounding and increment
# resolution.
increments[0] = board_width - ivals
if increments[0] < increments[1]:
# The center increment is narrower than the adjacent increment,
# so reset it to the adjacent increment and get rid of a finger.
increments[0] = increments[1]
m -= 1
if self.config.debug:
print("v-s increments", increments)
# Adjustments for dovetails
deltaP = self.bit.width + 2 * self.dhtot - self.eff_width
deltaM = utils.my_round(self.eff_width - self.bit.neck - 2 * self.dhtot) - self.bit.dovetail_correction()
# put a cut at the center of the board
xMid = board_width // 2
width = increments[0] + deltaP
left = max(0, xMid - width // 2)
right = min(board_width, left + width)
self.cuts = [router.Cut(left, right)]
# do the remaining cuts
do_cut = False
for i in lrange(1, m + 1):
if do_cut:
width = increments[i] + deltaP
farLeft = max(0, left - width)
self.cuts.append(router.Cut(farLeft, left))
farRight = min(board_width, right + width)
self.cuts.append(router.Cut(right, farRight))
else:
width = increments[i] - deltaM
farLeft = max(0, left - width)
farRight = min(board_width, right + width)
left = farLeft
right = farRight
do_cut = not do_cut
# sort the cuts in increasing x
self.cuts = sorted(self.cuts, key=attrgetter("xmin"))
if self.config.debug:
print("v-s cuts:")
dump_cuts(self.cuts)
def test_calculator():
resolver = ExpressionResolver(verbose=False)
# Simple test
ret = resolver.solve(expression="5 * 5^0")
assert ret == "5.0"
# Simple test exponential
ret = resolver.solve(expression="5 * 5^10")
assert ret == "48828125.0"
# Simple test with priority
ret = resolver.solve(expression="5 * 5 + 10")
assert ret == "35.0"
# Simple test with float
ret = resolver.solve(expression="5.3 * 5.2 + 10.8")
assert ret == "38.36"
# Test with parenthesis
ret = resolver.solve(expression="5 * (5 + 10)")
assert ret == "75.0"
# Test with multiple parenthesis
ret = resolver.solve(expression="5 * (5 + (10 * 50 + 2))")
assert ret == "2535.0"
# Test with multiple useless parenthesis
ret = resolver.solve(expression="((((5 * (5 + (10 * 50 + 2))))))")
assert ret == "2535.0"
# Hard test with multiple parenthesis
ret = resolver.solve(
expression=
"5 * (5 + (10 * 50 + 24.15) * 50 * 18 *(12 + 52)) * (18 - (5 + 2))")
assert ret == "1660507475.0"
# Hard test with float
ret = resolver.solve(
expression="545875785748.34444444478 * 5.2542 + 10456.81212")
assert my_round(float(ret), 2) == my_round(2868140563935.763, 2)
# Implicit multiplication with open parenthesis
ret = resolver.solve(expression="25(5 + 2)")
assert ret == "175.0"
# Implicit multiplication with closing parenthesis
ret = resolver.solve(expression="(5 + 2)25")
assert ret == "175.0"
# Test different parenthesis
ret = resolver.solve(expression="(5 + 2]25")
assert ret == "175.0"
# Test different parenthesis
ret = resolver.solve(expression="[5 + 2]25")
assert ret == "175.0"
# Test different parenthesis
ret = resolver.solve(expression="[5 + 2}25")
assert ret == "175.0"
# Test multiplying by a signed number
ret = resolver.solve(expression="5 * -10 + 599")
assert ret == "549.0"
# Test multiplying by a signed number
ret = resolver.solve(expression="5 * +10")
assert ret == "50.0"
# Test multiplying by a signed number in parenthesis
ret = resolver.solve(expression="5 * (+10)")
assert ret == "50.0"
# Test multiplying by a signed number in parenthesis
ret = resolver.solve(expression="(+10)10")
assert ret == "100.0"
# Test substract by a signed number in parenthesis
ret = resolver.solve(expression="(-10)-10")
assert ret == "-20.0"
# Test substract by a signed number in parenthesis
ret = resolver.solve(expression="(-10)(-10)")
assert ret == "100.0"
# Test multiplying by a signed float
ret = resolver.solve(expression="5 * -10.35843958432134 + 599")
assert my_round(float(ret), 2) == my_round(547.2078020783933, 2)
# Test sign before first number
ret = resolver.solve(expression="-42-2")
assert ret == "-44.0"
# Test one var with parenthesis in calculator
ret = resolver.solve(expression="5 * x(5 + 10)")
assert ret == "75.0*X"
def scale(self, s):
'''Scales dimensions by the factor s'''
self.width = my_round(self.width * s)
self.width += self.width % 2 # ensure even
self.depth = my_round(self.depth * s)
self.reinit()
def set_cuts(self):
"""
Sets the cuts to make the joint
"""
spacing = self.params["Spacing"].v - 2 * self.dhtot
width = self.params["Width"].v
centered = self.params["Centered"].v
board_width = self.boards[0].width
units = self.bit.units
label = units.increments_to_string(spacing, True)
self.labels = self.keys[:]
self.labels[0] += ": " + label
self.labels[1] += ": " + units.increments_to_string(width, True)
self.description = "Equally spaced (" + self.labels[0] + ", " + self.labels[1] + ")"
self.cuts = [] # return value
neck_width = width + spacing - 2 * utils.my_round(self.bit.offset)
if neck_width < 1:
raise Spacing_Exception(
"Specified bit paramters give a zero"
" or negative cut width (%d increments) at"
" the surface! Please change the"
" bit parameters width, depth, or angle." % neck_width
)
# put a cut at the center of the board
xMid = board_width // 2
if centered or self.bit.angle > 0: # always symm. for dovetail
left = max(0, xMid - width // 2)
else:
left = max(0, (xMid // width) * width)
right = min(board_width, left + width)
self.cuts.append(router.Cut(left, right))
# do left side of board
i = left - neck_width
min_interior = utils.my_round(self.dhtot + self.bit.offset)
min_finger_width = max(1, units.abstract_to_increments(self.config.min_finger_width))
while i > 0:
li = max(i - width, 0)
if i - li > min_finger_width and i > min_interior:
self.cuts.append(router.Cut(li, i))
i = li - neck_width
# do right side of board
i = right + neck_width
while i < board_width:
ri = min(i + width, board_width)
if ri - i > min_finger_width and board_width - i > min_interior:
self.cuts.append(router.Cut(i, ri))
i = ri + neck_width
# If we have only one cut the entire width of the board, then
# the board width is too small for the bit
if self.cuts[0].xmin == 0 and self.cuts[0].xmax == board_width:
raise Spacing_Exception(
"Unable to compute a equally-spaced"
" joint for the board and bit parameters"
" specified. This is likely because"
" the board width is too small for the"
" bit width specified."
)
# sort the cuts in increasing x
self.cuts = sorted(self.cuts, key=attrgetter("xmin"))
if self.config.debug:
print("e-s cuts:")
dump_cuts(self.cuts)
def set_cuts(self):
'''
Sets the cuts to make the joint
'''
board_width = self.boards[0].width
m = self.params['Fingers'].v
self.labels = [self.keys[0] + ': %d' % m]
self.description = 'Variable Spaced (' + self.labels[0] + ')'
# c is the ideal center-cut width
c = self.eff_width * ((m - 1.0) * self.wb - \
m * (m + 1.0) + self.alpha * m) /\
(m * m - 2.0 * m - 1.0 + self.alpha)
# d is the ideal decrease in finger width for each finger away from center finger
d = (c - self.eff_width) / (m - 1.0)
# compute fingers on one side of the center and the center and store them
# in increments. Keep a running total of sizes.
increments = [0] * (m + 1)
ivals = 0
for i in lrange(1, m + 1):
increments[i] = max(2, int(c - d * i))
ivals += 2 * increments[i]
# Set the center increment. This takes up the slop in the rounding and increment
# resolution.
increments[0] = board_width - ivals
if increments[0] < increments[1]:
# The center increment is narrower than the adjacent increment,
# so reset it to the adjacent increment and get rid of a finger.
increments[0] = increments[1]
m -= 1
if self.config.debug:
print('v-s increments', increments)
# Adjustments for dovetails
deltaP = self.bit.width + 2 * self.dhtot - self.eff_width
deltaM = utils.my_round(self.eff_width - self.bit.neck -
2 * self.dhtot)
# put a cut at the center of the board
xMid = board_width // 2
width = increments[0] + deltaP
left = max(0, xMid - width // 2)
right = min(board_width, left + width)
self.cuts = [router.Cut(left, right)]
# do the remaining cuts
do_cut = False
for i in lrange(1, m + 1):
if do_cut:
width = increments[i] + deltaP
farLeft = max(0, left - width)
self.cuts.append(router.Cut(farLeft, left))
farRight = min(board_width, right + width)
self.cuts.append(router.Cut(right, farRight))
else:
width = increments[i] - deltaM
farLeft = max(0, left - width)
farRight = min(board_width, right + width)
left = farLeft
right = farRight
do_cut = (not do_cut)
# sort the cuts in increasing x
self.cuts = sorted(self.cuts, key=attrgetter('xmin'))
if self.config.debug:
print('v-s cuts:')
dump_cuts(self.cuts)
def resolve_npi(self, npi_list) -> str:
stack = []
c = 0.0
var_is_present = True if self.var_name else False
for elem in npi_list:
if is_number(elem) or (var_is_present and elem in self.var_name):
stack.append(elem)
else:
last_two_in_stack = stack[-2:]
del stack[-2:]
if len(last_two_in_stack) < 2:
raise IndexError(
"There is a problem in the npi resolver, the npi_list isn't well formated."
)
# Doing var calc if there is a var
if var_is_present and (
self._check_have_var(str(last_two_in_stack[0]))
or self._check_have_var(str(last_two_in_stack[1]))
):
# - or + operator, adding to c
if elem in _SIGN:
if not self._check_have_var(str(last_two_in_stack[0])):
if elem == "-":
c = my_round(c + float(last_two_in_stack[0]))
# Inverting the sign of the var because it is the second element.
result = self._multiply_a_var("-1", str(last_two_in_stack[1]))
else:
c = my_round(c + float(last_two_in_stack[0]))
result = str(last_two_in_stack[1])
elif not self._check_have_var(str(last_two_in_stack[1])):
if elem == "-":
c = my_round(c - float(last_two_in_stack[1]))
else:
c = my_round(c + float(last_two_in_stack[1]))
result = str(last_two_in_stack[0])
else:
# Adding var to var
result = self._add_or_substract_var_to_var(
operator=elem,
first_var=str(last_two_in_stack[0]),
second_var=str(last_two_in_stack[1]),
)
elif elem == "*":
result = self._multiply_a_var(
str(last_two_in_stack[0]), str(last_two_in_stack[1])
)
elif elem == "/":
result = self._divide_a_var(
str(last_two_in_stack[0]), str(last_two_in_stack[1])
)
elif elem == "^":
result = self._power_a_var(
str(last_two_in_stack[0]), str(last_two_in_stack[1])
)
else:
raise NotImplementedError(
"This type of operation with vars is not accepted for the moment."
)
# Doing usual calc
elif elem == "^":
result = my_round(
my_power(float(last_two_in_stack[0]), float(last_two_in_stack[1]))
)
elif elem == "*":
result = my_round(float(last_two_in_stack[0]) * float(last_two_in_stack[1]))
elif elem == "/":
if float(last_two_in_stack[1]) == 0.0:
raise ValueError(
"The expression lead to a division by zero : ",
float(last_two_in_stack[0]),
" / ",
float(last_two_in_stack[1]),
)
result = my_round(float(last_two_in_stack[0]) / float(last_two_in_stack[1]))
elif elem == "%":
if float(last_two_in_stack[1]) == 0.0:
raise ValueError(
"The expression lead to a modulo zero : ",
float(last_two_in_stack[0]),
" % ",
float(last_two_in_stack[1]),
)
result = my_round(float(last_two_in_stack[0]) % float(last_two_in_stack[1]))
elif elem == "+":
result = my_round(float(last_two_in_stack[0]) + float(last_two_in_stack[1]))
elif elem == "-":
result = my_round(float(last_two_in_stack[0]) - float(last_two_in_stack[1]), 6)
stack.append(result)
if len(stack) > 1:
raise Exception(
"Unexpected error when trying to resolve npi. Maybe your input format is not accepted?"
)
if var_is_present:
if c != 0.0:
# Parse sign because could have duplicate sign with the add of the +
return parse_sign(str(c) + "+" + str(stack[0]))
else:
return str(stack[0])
else:
return str(stack[0])
def _solve_polynom_degree_two(self):
try:
a = get_var_multiplier(self._polynom_dict_left["a"], var_name=self.var_name)
except:
a = 0.0
try:
b = get_var_multiplier(self._polynom_dict_left["b"], var_name=self.var_name)
except:
b = 0.0
try:
c = float(self._polynom_dict_left["c"])
except:
c = 0.0
print("a = ", a, " b = ", b, " c = ", c) if self._verbose is True else None
discriminant = self._get_discriminant(a, b, c)
if discriminant > 0:
print("The discriminant is strictly positive.")
elif discriminant == 0:
print("The discriminant is exactly zero.")
else:
print("The discriminant is strictly negative.")
print("discriminant = ", discriminant)
if discriminant > 0:
self.solution = []
if a == 0:
raise ValueError(
"The expression lead to a division by zero : ",
float(str((-b + my_sqrt(discriminant)))),
" / ",
a,
)
solution_one = str((-b + my_sqrt(discriminant)) / (2 * a))
solution_two = str((-b - my_sqrt(discriminant)) / (2 * a))
if solution_one == "-0.0":
solution_one = "0.0"
if solution_two == "-0.0":
solution_two = "0.0"
self.solution.append(str(my_round(float(solution_one), 6)))
self.solution.append(str(my_round(float(solution_two), 6)))
elif discriminant == 0:
if a == 0:
raise ValueError(
"The expression lead to a division by zero : ",
float(str((-b + my_sqrt(discriminant)))),
" / ",
a,
)
self.solution = str((-b) / (2 * a))
if self.solution == "-0.0":
self.solution = "0.0"
else:
print("There is two solutions in complex number.")
self.solution = []
discriminant = -discriminant
solution_one = convert_signed_number(
f"{-b} / (2 * {a}) + i * {my_sqrt(discriminant)} / (2 * {a})".replace(" ", "")
)
tokens = convert_to_tokens(
convert_signed_number(parse_sign(solution_one), accept_var=True)
)
self.solution.append(
self._calculator.solve(tokens=tokens, verbose=self._force_calculator_verbose)
)
solution_two = f"{-b} / (2 * {a}) - i * {my_sqrt(discriminant)} / (2 * {a})".replace(
" ", ""
)
tokens = convert_to_tokens(
convert_signed_number(parse_sign(solution_two), accept_var=True)
)
self.solution.append(
self._calculator.solve(tokens=tokens, verbose=self._force_calculator_verbose)
)
def scale(self, s):
'''Scales dimensions by the factor s'''
self.width = my_round(self.width * s)
self.width += self.width % 2 # ensure even
self.depth = my_round(self.depth * s)
self.reinit()
def main(inp, method, training_size, epoch):
sample_func, data = sampling_methods[method]
if data[-4:] == '.pth':
data = torch.load(data)
device = torch.device('cpu')
batch_size = 128
budget = epoch
config = {
'ndim': 250,
'sdim': 56,
'num_gnn_layers': 2,
'g_aggr': 'gsum',
'num_acc_layers': 4,
'lr': 0.00001,
}
t0 = time()
test_dataset = fetch_data('data/test_data_20.pth')
logging.info('Loaded test graphs in {} sec.'.format(round(time() - t0, 2)))
t0 = time()
val_dataset = fetch_data('data/validation_data_10.pth')
logging.info('Loaded validation graphs model in {} sec.'.format(
round(time() - t0, 2)))
test_loader = DataLoader(test_dataset, batch_size=2048, shuffle=False)
val_loader = DataLoader(val_dataset, batch_size=2048, shuffle=False)
criterion = nn.MSELoss()
for num in [training_size]:
ratio = np.round(num / 100, 2)
run_name = '{}{}'.format(method, num)
rmse_list = list()
all_loss = list()
best_rmse_list = []
for step in range(5):
logger.info('sampling')
sampled_dataset = sample_func(ratio, data)
train_loader = DataLoader(sampled_dataset,
batch_size=batch_size,
shuffle=True)
logger.info('start run {}_{} with {}% ({} graphs) '.format(
run_name, step + 1, num, len(sampled_dataset)))
model = GNNpred(config['ndim'], config['sdim']).to(device)
optimizer = torch.optim.Adam(model.parameters(), lr=config['lr'])
best_val = np.inf
best_test = np.inf
for epoch in range(int(budget)):
loss = 0
model.train()
running_loss = torch.Tensor().to(device)
for i, graph_batch in enumerate(train_loader):
graph_batch = graph_batch.to(device)
optimizer.zero_grad()
output = model(graph_batch.edge_index,
graph_batch.node_atts,
graph_batch.batch.to(device))
loss = criterion(output.view(-1), graph_batch.acc)
running_loss = torch.cat([running_loss, loss.view(-1)])
loss.backward()
optimizer.step()
loss = torch.sqrt(torch.mean(running_loss)).item()
all_loss.append(loss)
logger.info('epoch {}:\tloss = {}'.format(
epoch, my_round(loss, 4)))
val_rmse, _, val_acc = evaluate(model, val_loader, device)
logger.info('epoch {}:\tval_rmse = {}'.format(
epoch, my_round(val_rmse, 4)))
test_rmse, test_mae, _ = evaluate(model, test_loader, device)
logger.info('epoch {}:\ttest_rmse = {}'.format(
epoch, my_round(test_rmse, 4)))
logger.info('epoch {}:\ttest_mae = {}'.format(
epoch, my_round(test_mae, 4)))
if val_rmse < best_val:
best_val = val_rmse
best_test = test_rmse
# save(model, run_name)
rmse_list.append(best_val)
best_rmse_list.append(best_val)
logger.info('step {}:\tbest_test = {}'.format(
step + 1, my_round(best_test, 4)))
torch.save(rmse_list,
path_results + '/{}_all_rmse.pth'.format(run_name))
logger.info('Saved all validation rmse to {}'.format(path_results))
torch.save(best_rmse_list,
path_results + '/{}_best_rmse.pth'.format(run_name))
logger.info('Saved best validation rmse of each run to {}'.format(
path_results))
torch.save(all_loss,
path_results + '/{}_loss.pth'.format(run_name))
logger.info('Saved trainings loss to {}'.format(path_results))
torch.save(val_acc,
path_saved_acc + '/{}_val_acc.pth'.format(run_name))
logger.info(
'Saved true and predicted accuracy of validation set to {}'.
format(path_saved_acc))
_, _, train_acc = evaluate(model, train_loader, device)
torch.save(train_acc,
path_saved_acc + '/{}_train_acc.pth'.format(run_name))
logger.info(
'Saved true and predicted accuracy of training set to {}'.
format(path_saved_acc))
logger.info('epoch {}:\ttest_rmse = {}'.format(
epoch, my_round(test_rmse, 4)))
return loss, val_rmse, test_rmse, test_mae, model.number_of_parameters()
def set_cuts(self):
'''
Sets the cuts to make the joint
'''
spacing = self.params['Spacing'].v - 2 * self.dhtot
width = self.params['Width'].v
centered = self.params['Centered'].v
board_width = self.boards[0].width
units = self.bit.units
label = units.increments_to_string(spacing, True)
self.labels = self.keys[:]
self.labels[0] += ': ' + label
self.labels[1] += ': ' + units.increments_to_string(width, True)
self.description = 'Equally spaced (' + self.labels[0] + \
', ' + self.labels[1] + ')'
self.cuts = [] # return value
neck_width = utils.my_round(self.bit.neck + width - self.bit.width +
spacing)
if neck_width < 1:
raise Spacing_Exception('Specified bit paramters give a zero'
' or negative cut width (%d increments) at'
' the surface! Please change the'
' bit parameters width, depth, or angle.' %
neck_width)
# put a cut at the center of the board
xMid = board_width // 2
if centered or \
self.bit.angle > 0: # always symm. for dovetail
left = max(0, xMid - width // 2)
else:
left = max(0, (xMid // width) * width)
right = min(board_width, left + width)
self.cuts.append(router.Cut(left, right))
# do left side of board
i = left - neck_width
min_interior = utils.my_round(self.dhtot + self.bit.offset)
while i > 0:
li = max(i - width, 0)
if i - li > self.config.min_finger_width and i > min_interior:
self.cuts.append(router.Cut(li, i))
i = li - neck_width
# do right side of board
i = right + neck_width
while i < board_width:
ri = min(i + width, board_width)
if ri - i > self.config.min_finger_width and board_width - i > min_interior:
self.cuts.append(router.Cut(i, ri))
i = ri + neck_width
# If we have only one cut the entire width of the board, then
# the board width is too small for the bit
if self.cuts[0].xmin == 0 and self.cuts[0].xmax == board_width:
raise Spacing_Exception('Unable to compute a equally-spaced'\
' joint for the board and bit parameters'\
' specified. This is likely because'\
' the board width is too small for the'\
' bit width specified.')
# sort the cuts in increasing x
self.cuts = sorted(self.cuts, key=attrgetter('xmin'))
if self.config.debug:
print('e-s cuts:')
dump_cuts(self.cuts)
def test_my_round():
# Test round up
assert my_round(10.025, 2) == 10.03
# Test multiple round up
assert my_round(19.9951, 2) == 20.00
assert my_round(10, 2) == 10
with pytest.raises(ValueError) as e:
my_round(10, 200000000) == 10
assert str(e.value) == "Precision should be between 0 and 20"
assert my_round(10, 20) == 10
assert my_round(10, 0) == 10
assert my_round(10.01234567891011121314555555555, 20) == 10.01234567891011121314555555555
assert my_round(10.01234567891011121314555555555, 18) == 10.01234567891011121314555555555
assert my_round(10.025, 10) == 10.025
assert my_round(10.025454555557885454242, 10) == 10.0254545556
assert my_round(10.025, 20) == 10.025
assert my_round(10.025454555557885454242, 20) == 10.025454555557885454242
assert my_round(10.0254545555578854542424444447585876545645, 20) == 10.025454555557885454242
assert my_round(0.00000000000000000000000009, 20) == 0
assert my_round(1.11111115e2, 1) == 111.1
# Big round
assert my_round(99999999999999999999999999999999999999, 20) == 1e38
assert my_round(1e10, 5) == 10000000000.0
# small round
assert my_round(1e-100000, 20) == 0
# Negative round
assert my_round(-1.045754345454242, 6) == -1.045754
assert my_round(-0.47513146390886934, 6) == -0.475131
