def get_render_to_mat(self, rect: Rect) -> 'npt.NDArray[numpy.float64]':
actual_scale = self.get_actual_scale(rect)
cx: Vec2 = self.__rect.center
cx *= actual_scale
return translate(rect.center.x - cx.x, rect.center.y - cx.y).dot(
scale(actual_scale)) # type:ignore
def get_render_to_mat(self, rect):
hscale = rect.width / self.__rect.width
vscale = rect.height / self.__rect.height
actual_scale = min(hscale, vscale)
cx = self.__rect.center
cx *= actual_scale
return translate(rect.center.x - cx.x, rect.center.y - cx.y).dot(scale(actual_scale))
def wheelEvent(self, event):
"""
:param event:
:type event: QtGui.MouseWheelEvent
:return:
"""
if not event.modifiers():
step = event.delta()/120.0
sf = 1.1 ** step
fixed_center_dot(self.viewState, M.scale(sf), QPoint_to_pair(event.pos()))
else:
if self.interactionDelegate:
self.interactionDelegate.mouseWheelEvent(event)
def wheelEvent(self, event):
"""
:param event:
:type event: QtGui.MouseWheelEvent
:return:
"""
if not event.modifiers():
step = event.delta()/120.0
sf = 1.1 ** step
fixed_center_dot(self.viewState, M.scale(sf), QPoint_to_pair(event.pos()))
else:
if self.interactionDelegate:
self.interactionDelegate.mouseWheelEvent(event)
def __update(self, suppress=False) -> None:
# Elements of the world transform
scale = M.scale(self.__scale)
translate = M.translate(-self.__center_point.x, -self.__center_point.y)
# Calculate the world transform
self.__transform = scale @ self.__rotate_flip @ translate
self.__w2v = self.__n2v @ self.transform
self.__v2w = numpy.linalg.inv(self.__w2v) # type:ignore
if not suppress:
self.changed.emit()
def __init__(self, vis_model, il, model):
BaseViewWidget.__init__(self)
self.il = il
self.iv = ImageView(il)
self.model = model
self.vis_model = vis_model
self.overlays = set()
self.active_overlays = set()
self.setFocusPolicy(QtCore.Qt.StrongFocus)
self.viewState.transform = scale(0.80)
self.originView = OriginView()
self.text_batch = TextBatcher(self.gls.text)
def render(self, vs: 'ViewPort') -> None:
self.vs = vs
# Standard alpha-blending. We emit alpha=1 or alpha=0 (no real blending),
# but the text rendering needs transparency for font rendering
GL.glBlendFunc(GL.GL_SRC_ALPHA, GL.GL_ONE_MINUS_SRC_ALPHA)
# transform from center of keypoint to edge-of-text
tmove = translate(-self.d1 + 2, -self.d1 - 3).dot(scale(14, -14))
count = len(self.model.kp.keypoints)
for n, kp in enumerate(self.model.kp.keypoints):
# In unaligned view mode we don't need to show any keypoints that aren't in use
if not self.model.view_mode.is_aligned() and not kp.use:
continue
# Generate a number of colors, separated by as far in hue-space as possible
color = colorsys.hsv_to_rgb(float(n) / count, 1, 0.8) + (1, )
# use colors based on current selection
selected = n == self.model.kp.selected_idx
frame_color = [1, 1, 1, 1] if selected else color
text_color = [0, 0, 0, 1] if selected else [1, 1, 1, 1]
p = self.get_keypoint_viewport_center(kp)
# Coordinates in view-space
center_point = vs.glWMatrix.dot(translate(p.x, p.y))
text_point = center_point.dot(tmove)
with self.prog.program, self.handle_vao:
GL.glUniformMatrix3fv(self.prog.uniforms.mat, 1, True,
center_point.astype(numpy.float32))
GL.glUniform4f(self.prog.uniforms.color, *frame_color)
# Render the frame
GL.glDrawArrays(GL.GL_LINES, 0, 12)
# and the text flag background
GL.glDrawArrays(GL.GL_TRIANGLE_STRIP, 12, 4)
# Render the text for the flag
s = self._parent.view.text_batch.get_string("%d" % (n + 1))
self._parent.view.text_batch.submit(s, text_point, text_color)
def render(self, vs):
self.vs = vs
# Standard alpha-blending. We emit alpha=1 or alpha=0 (no real blending),
# but the text rendering needs transparency for font rendering
GL.glBlendFunc(GL.GL_SRC_ALPHA, GL.GL_ONE_MINUS_SRC_ALPHA)
# transform from center of keypoint to edge-of-text
tmove = translate(-self.d1 + 2, -self.d1 - 3).dot(scale(14, -14))
count = len(self.model.kp.keypoints)
for n, kp in enumerate(self.model.kp.keypoints):
# In unaligned view mode we don't need to show any keypoints that aren't in use
if self.model.view_mode == 0 and not kp.use:
continue
# Generate a number of colors, separated by as far in hue-space as possible
color = colorsys.hsv_to_rgb(float(n) / count, 1,0.8) + (1,)
# use colors based on current selection
selected = n == self.model.kp.selected_idx
frame_color = [1,1,1,1] if selected else color
text_color = [0,0,0,1] if selected else [1,1,1,1]
p = self.get_keypoint_viewport_center(kp)
# Coordinates in view-space
center_point = vs.glWMatrix.dot(translate(p.x, p.y))
text_point = center_point.dot(tmove)
with self.prog, self.handle_vao:
GL.glUniformMatrix3fv(self.prog.uniforms.mat, 1, True, center_point.astype(numpy.float32))
GL.glUniform4f(self.prog.uniforms.color, *frame_color)
# Render the frame
GL.glDrawArrays(GL.GL_LINES, 0, 12)
# and the text flag background
GL.glDrawArrays(GL.GL_TRIANGLE_STRIP, 12, 4)
# Render the text for the flag
s = self._parent.view.text_batch.get_string("%d" % (n+1))
self._parent.view.text_batch.submit(s, text_point, text_color)
def __init__(self, project):
BaseViewWidget.__init__(self)
self.project = project
self.image_view_cache = { }
self.pad_renderer = PadRender(self)
self.dip_renderer = DIPRender(self)
self.smd_renderer = SMDRender(self)
self.trace_renderer = TraceRender(self)
self.via_renderer = THRenderer(self)
self.text_batch = TextBatcher(self.gls.text)
self.poly_renderer = CachedPolygonRenderer(self)
self.hairline_renderer = HairlineRenderer(self)
self.passive_renderer = PassiveRender(self)
# Initial view is a normalized 1-1-1 area.
# Shift to be 10cm max
self.viewState.transform = translate(-0.9, -0.9).dot(scale(1./100000))
def __init__(self, project):
BaseViewWidget.__init__(self)
self.project = project
self.image_view_cache = { }
self.pad_renderer = PadRender(self)
self.dip_renderer = DIPRender(self)
self.smd_renderer = SMDRender(self)
self.trace_renderer = TraceRender(self)
self.via_renderer = THRenderer(self)
self.text_batch = TextBatcher(self.gls.text)
self.poly_renderer = CachedPolygonRenderer(self)
self.hairline_renderer = HairlineRenderer(self)
self.passive_renderer = PassiveRender(self)
# Initial view is a normalized 1-1-1 area.
# Shift to be 10cm max
self.viewState.transform = translate(-0.9, -0.9).dot(scale(1./100000))
def update_matricies(self):
# Build compatible arrays for cv2.getPerspectiveTransform
src = numpy.ones((4,2), dtype=numpy.float32)
dst = numpy.ones((4,2), dtype=numpy.float32)
src[:, :2] = self.align_handles[:4]
dst[:, :2] = corners
# And update the perspective transform
self.persp_matrix = cv2.getPerspectiveTransform(src, dst)
# Now, calculate the scale factor
da = self.dim_handles[1] - self.dim_handles[0]
db = self.dim_handles[3] - self.dim_handles[2]
ma = da.mag()
mb = db.mag()
sf = 100.0/max(ma, mb)
self.placeholder_dim_values[0] = sf * ma
self.placeholder_dim_values[1] = sf * mb
dims = self.dim_values
if None in self.dim_values:
dims = self.placeholder_dim_values
# Perspective transform handles - convert to
handles_pp = []
for handle in self.dim_handles:
p1 = self.persp_matrix.dot(handle.homol())
p1 /= p1[2]
handles_pp.append(p1[:2])
da = handles_pp[1] - handles_pp[0]
db = handles_pp[3] - handles_pp[2]
A = numpy.vstack([da**2, db**2])
B = numpy.array(dims) ** 2
res = numpy.abs(numpy.linalg.solve(A, B)) ** .5
self.scale_matrix = scale(res[0], res[1])
def update_matricies(self) -> None:
# Build compatible arrays for cv2.getPerspectiveTransform
src = numpy.ones((4, 2), dtype=numpy.float32)
dst = numpy.ones((4, 2), dtype=numpy.float32)
src[:, :2] = self.align_handles[:4]
dst[:, :2] = corners
# And update the perspective transform
self.persp_matrix = cv2.getPerspectiveTransform(src, dst)
# Now, calculate the scale factor
da = self.dim_handles[1] - self.dim_handles[0]
db = self.dim_handles[3] - self.dim_handles[2]
ma = da.mag()
mb = db.mag()
sf = 100.0 / max(ma, mb)
self.__placeholder_dim_values[0] = sf * ma * MM
self.__placeholder_dim_values[1] = sf * mb * MM
dims = self.__active_dims()
# Perspective transform handles - convert to
handles_pp = []
for handle in self.dim_handles:
p1 = self.persp_matrix.dot(handle.homol())
p1 /= p1[2]
handles_pp.append(p1[:2])
da = handles_pp[1] - handles_pp[0]
db = handles_pp[3] - handles_pp[2]
A = numpy.vstack([da ** 2, db ** 2])
B = numpy.array(dims) ** 2
res = numpy.abs(numpy.linalg.solve(A, B)) ** .5
self.scale_matrix = scale(res[0], res[1])
def flip_rotate_matrix(self) -> 'npt.NDArray[numpy.float64]':
return cast('npt.NDArray[numpy.float64]',
rotate(self.rotate_theta).dot(scale(-1 if self.flip_x else 1, -1 if self.flip_y else 1))
)
def flip_rotate_matrix(self):
return rotate(self.rotate_theta).dot(scale(-1 if self.flip_x else 1, -1 if self.flip_y else 1))
def __init__(self, parent, project, il):
QtGui.QDialog.__init__(self, parent)
self.resize(800,600)
self.setSizeGripEnabled(True)
self.project = project
self.il = il
self.model = AlignmentViewModel(self.il)
# Build the treeView model for layer visibility
self.buildVisibilityModel()
# Always align keypoint-based load. Works with unaligned images
self.model.kp.load(self.project)
# Keypoint-align, initialize from existing align project and align data
if isinstance(il.alignment, KeyPointAlignment):
self.model.align_by = ALIGN_BY_KEYPOINTS
elif isinstance(il.alignment, RectAlignment):
self.model.ra.load(self.project)
self.model.align_by = ALIGN_BY_DIMENSIONS
# Dialog is two areas, the view, and the controls for the view
hlayout = QtGui.QHBoxLayout()
self.setLayout(hlayout)
view_layout = QtGui.QVBoxLayout()
self.view_tabs = QtGui.QTabBar()
self.view_tabs.currentChanged.connect(self.set_view_type)
self.update_tabs()
view_layout.addWidget(self.view_tabs)
self.view = AlignmentViewWidget(self.vis_model, self.il, self.model)
self.ra_id = RectAlignmentControllerView(self, self.model)
self.kp_id = KeypointAlignmentControllerView(self, self.model)
self.view.overlays.add(self.ra_id)
self.view.overlays.add(self.kp_id)
view_layout.addWidget(self.view, 1)
self.directions_label = QtGui.QLabel("")
view_layout.addWidget(self.directions_label, 0)
hlayout.addLayout(view_layout, 1)
# Align Controls
control_layout = QtGui.QFormLayout()
rect_align_controls = RectAlignSettingsWidget(self, self.model.ra)
keypoint_align_controls = KeypointAlignmentWidget(self, self.model.kp)
# Alignment selection
self.align_selection = QtGui.QComboBox()
self.align_selection.addItem("Perimeter + Dimensions")
self.align_selection.addItem("Keypoints")
self.align_selection.activated.connect(self.align_selection_cb_changed)
control_layout.addRow("Align By:", self.align_selection)
# And the widget stack to drive that
self.stacked_layout = QtGui.QStackedLayout()
self.stacked_layout.addWidget(rect_align_controls)
self.stacked_layout.addWidget(keypoint_align_controls)
# right pane layout
control_buttons_layout = QtGui.QVBoxLayout()
control_buttons_layout.addLayout(control_layout)
control_buttons_layout.addLayout(self.stacked_layout)
# Visbox
vis_gb = QtGui.QGroupBox("Visible Layers")
self.vis_widget = VisibilityTree(self.vis_model)
vis_gb_layout = QtGui.QVBoxLayout()
vis_gb.setLayout(vis_gb_layout)
vis_gb_layout.addWidget(self.vis_widget)
control_buttons_layout.addWidget(vis_gb)
bbox = QtGui.QDialogButtonBox(QtGui.QDialogButtonBox.Save | QtGui.QDialogButtonBox.Cancel)
bbox.accepted.connect(self.accept)
bbox.rejected.connect(self.reject)
control_buttons_layout.addWidget(bbox)
hlayout.addLayout(control_buttons_layout, 0)
# Explicitly disconnect child-events for the rect-align model
# We (mostly) don't care about changes to the perimeter
self.model.ra.changed.disconnect(self.model.change)
self.model.changed.connect(self.view.update)
self.vis_model.changed.connect(self.view.update)
self.model.changed.connect(self.update_controls)
self._selected_view = None
self._saved_transforms = [
scale(0.8), scale(0.8)
]
# Undo stack
self.undoStack = UndoStack()
self.undoStack.setup_actions(self)
self.update_controls()
def flip_rotate_matrix(self):
return rotate(self.rotate_theta).dot(scale(-1 if self.flip_x else 1, -1 if self.flip_y else 1))
