class CanvasState:
"""The current global state of the canvas.
Attributes:
scale: The zoom scale of the canvas.
multi_select: Whether the user is pressing the keys that signify multiple selection of
items.
"""
scale: float = 1
bounds: Rect = Rect(Vec2(), Vec2())
input_mode_changed: Callable[[InputMode], None] = lambda _: None
_input_mode: InputMode = InputMode.SELECT
arrow_tip: ArrowTip = ArrowTip(copy.copy(DEFAULT_ARROW_TIP))
@property
def input_mode(self):
return self._input_mode
@input_mode.setter
def input_mode(self, mode: InputMode):
self._input_mode = mode
self.input_mode_changed(mode)
@property
def multi_select(self):
return wx.GetKeyState(wx.WXK_CONTROL) or wx.GetKeyState(wx.WXK_SHIFT)
def test_clamp_rect_pos(self):
clamped = Rect(Vec2(-23, -44), Vec2(5, 0.4))
clamped_copy = copy.copy(clamped)
bounds = Rect(Vec2(), Vec2(12, 44))
self.assertEqual(clamp_rect_pos(clamped, bounds), Vec2(0, 0))
self.assertEqual(clamped, clamped_copy, "clamped rect was modified!")
clamped = Rect(Vec2(15, 700), Vec2(4, 32))
bounds = Rect(Vec2(10, 3), Vec2(20, 60))
self.assertEqual(clamp_rect_pos(clamped, bounds), Vec2(15, 31))
def auto_compartment(id_: str, neti: int) -> Compartment:
return Compartment(
id=id_,
net_index=neti,
nodes=list(),
position=Vec2(400, 400),
size=Vec2(200, 200),
fill=wx.BLUE,
border=wx.GREEN,
border_width=2,
volume=1,
)
def test_default_shape(self):
'''Make sure the default shape is a single rectangle primitive'''
api.add_node(0, 'foo')
foo = api.get_node_by_index(0, 0)
self.assertEqual(0, foo.shape_index)
self.assertTrue(isinstance(foo.shape, CompositeShape))
self.assertEqual(1, len(foo.shape.items))
primitive, transform = foo.shape.items[0]
self.assertTrue(isinstance(primitive, RectanglePrim))
self.assertEqual(transform.scale, Vec2(1, 1))
self.assertEqual(transform.translation, Vec2(0, 0))
def test_within_rect(self):
pos = Vec2(50, 50)
rect = Rect(Vec2(40, 40), Vec2(20, 65.0))
self.assertTrue(within_rect(pos, rect))
rect = Rect(Vec2(50, 45), Vec2(21, 716.0))
self.assertTrue(within_rect(pos, rect))
rect = Rect(Vec2(50, 50), Vec2(0, 0))
self.assertTrue(within_rect(pos, rect))
pos = Vec2(-12, -37)
rect = Rect(Vec2(-40, -39), Vec2(28, 2))
self.assertTrue(within_rect(pos, rect))
def test_rects_overlap(self):
rect1 = Rect(Vec2(102, 200), Vec2(50, 43))
rect2 = Rect(Vec2(97, 88), Vec2(8, 155))
self.assertTrue(rects_overlap(rect1, rect2))
# rect is long and flat, and neither rect has vertices within the other.
rect2 = Rect(Vec2(80, 210), Vec2(401, 10.2))
self.assertTrue(rects_overlap(rect1, rect2))
# the rects are touching
rect2 = Rect(Vec2(92, 70), Vec2(10, 175))
self.assertTrue(rects_overlap(rect1, rect2))
def auto_reaction(id_: str, neti: int, sources: List[int], targets: List[int]) -> Reaction:
return Reaction(
id=id_,
net_index=neti,
sources=sources,
targets=targets,
handle_positions=[Vec2() for _ in range(len(sources) + len(targets) + 1)],
fill_color=wx.RED,
line_thickness=2,
rate_law=''
)
def test_not_within_rect(self):
pos = Vec2(40, 40)
rect = Rect(Vec2(15, 20), Vec2(50, 12))
self.assertFalse(within_rect(pos, rect))
rect = Rect(Vec2(30, 12), Vec2(4, 0.53))
self.assertFalse(within_rect(pos, rect))
rect = Rect(Vec2(41, 20), Vec2(104134, 41414))
self.assertFalse(within_rect(pos, rect))
def test_rects_not_overlap(self):
rect1 = Rect(Vec2(43, 11), Vec2(40, 88))
rect2 = Rect(Vec2(30, 8), Vec2(20, 0.5))
self.assertFalse(rects_overlap(rect1, rect2))
rect2 = Rect(Vec2(84, 99.41431), Vec2(4, 0.003))
self.assertFalse(rects_overlap(rect1, rect2))
def test_clamp_rect_pos_exception(self):
clamped = Rect(Vec2(43, 13), Vec2(6, 155))
bounds = Rect(Vec2(), Vec2(12, 44))
with self.assertRaises(ValueError):
clamp_rect_pos(clamped, bounds)
bounds = Rect(Vec2(179, 13), Vec2(8, 200))
with self.assertRaises(ValueError):
clamp_rect_pos(clamped, bounds, padding=2)
def test_get_bounding_rect(self):
data = [
((12, 30), (14, 50)),
((27, -15), (0.4, 23)),
((-154, -13.311), (166, 51)),
((33.2, 43), (17.24, 0.1)),
]
rects = [Rect(Vec2(p), Vec2(s)) for p, s in data]
bound = get_bounding_rect(rects)
self.assertEqual(bound.position, Vec2(-154, -15))
self.assertEqual(bound.size, Vec2(204.44, 95))
bound = get_bounding_rect(rects, padding=10)
self.assertEqual(bound.position, Vec2(-164, -25))
self.assertEqual(bound.size, Vec2(224.44, 115))
# using ribbon style for notebooks, so no need for this
# active_tab_bg = ColorField(missing=Color(100, 100, 100))
# panel_font = FontField(missing=Font(pointSize=))
class RootSchema(Schema):
"""The overall root schema.
Attributes:
theme: The theme settings (i.e. colors and dimensions) of the application.
"""
theme = fields.Nested(ThemeSchema, missing=ThemeSchema().load({}))
# TODO put this in the schema somewhere
DEFAULT_ARROW_TIP = [Vec2(1, 15), Vec2(4, 8), Vec2(1, 1), Vec2(21, 8)]
# These settings are not meant to be modifiable by the user
BUILTIN_SETTINGS = {
"init_zoom": 1,
"status_fields": [
("mode", 100),
("cursor", 100),
("zoom", 100),
("fps", 100),
], # first element: status field identifier; second element: field width
"decimal_precision": 2,
"min_node_width": 20,
"min_node_height": 15,
"min_comp_width": 350,
def test_clamp_point(self):
pos = Vec2(-17.2, 108)
bounds = Rect(Vec2(10, 27), Vec2(178, 32.4123))
self.assertEqual(clamp_point(pos, bounds), Vec2(10, 59.4123))
def test_clamp_rect_pos_zero(self):
bounds_pos = Vec2(100, 1722)
clamped = Rect(Vec2(), Vec2(10, 10))
bounds = Rect(bounds_pos, Vec2(10, 10))
self.assertEqual(clamp_rect_pos(clamped, bounds), bounds_pos)
def auto_node(id_: str, neti: int) -> Node:
return Node(id_, neti, pos=Vec2(550, 450), size=Vec2(50, 30))
def test_clamp_rect_pos_padding(self):
clamped = Rect(Vec2(-23, -44), Vec2(5, 0.4))
bounds = Rect(Vec2(10, 32.67), Vec2(34, 71))
self.assertEqual(clamp_rect_pos(clamped, bounds, padding=10),
Vec2(20, 42.67))
def _deserialize(self, value, attr, data, **kwargs):
self._validate(value)
return Vec2(value)
