def gen_layer_image(lottie, layer, idx):
"""
Generates the dictionary corresponding to layers/image.json
Args:
lottie (dict) : Lottie generated image stored here
layer (lxml.etree._Element): Synfig format image layer
idx (int) : Stores the index(number of) of image layer
Returns:
(None)
"""
group.update_layer(layer)
lottie["ddd"] = settings.DEFAULT_3D
lottie["ind"] = idx
lottie["ty"] = settings.LAYER_IMAGE_TYPE
set_layer_desc(layer, settings.LAYER_IMAGE_NAME + str(idx), lottie)
lottie["sr"] = settings.LAYER_DEFAULT_STRETCH
lottie["ks"] = {} # Transform properties to be filled
settings.lottie_format["assets"].append({})
st = add_image_asset(settings.lottie_format["assets"][-1], layer)
asset = settings.lottie_format["assets"][-1]
# setting class (jpg, png)
lottie["cl"] = asset["p"].split(".")[-1]
# setting the reference id
lottie["refId"] = asset["id"]
pos1_animate = is_animated(st["tl"][0])
pos2_animate = is_animated(st["br"][0])
# If pos1 is not animated
if pos1_animate in {0, 1}:
st["tl"] = gen_dummy_waypoint(st["tl"], "param", "vector")
# If pos2 is not animated
if pos2_animate in {0, 1}:
st["br"] = gen_dummy_waypoint(st["br"], "param", "vector")
st["scale"] = gen_image_scale(st["tl"][0], st["br"][0], asset["w"],
asset["h"])
anchor = settings.DEFAULT_ANCHOR
rotation = settings.DEFAULT_ROTATION
# Setting opacity in transform
for chld in layer:
if chld.tag == "param" and chld.attrib["name"] == "amount":
opacity = chld
gen_helpers_transform(lottie["ks"], layer, st["tl"][0], anchor,
st["scale"][0], rotation, opacity[0])
lottie["ao"] = settings.LAYER_DEFAULT_AUTO_ORIENT
lottie["ip"] = settings.lottie_format["ip"]
lottie["op"] = settings.lottie_format["op"]
lottie["st"] = 0 # Don't know yet
get_blend(lottie, layer)
def gen_shapes_fill(lottie, layer):
"""
Generates the dictionary corresponding to shapes/fill.json
Args:
lottie (dict) : The lottie generated fill layer will be stored in it
layer (lxml.etree._Element): Synfig format fill (can be shape/solid anything, we
only need color and opacity part from it) layer
Returns:
(None)
"""
index = Count()
lottie["ty"] = "fl" # Type if fill
lottie["c"] = {} # Color
lottie["o"] = {} # Opacity of the fill layer
for child in layer:
if child.tag == "param":
if child.attrib["name"] == "color":
is_animate = is_animated(child[0])
if is_animate == 2:
gen_value_Keyframed(lottie["c"], child[0], index.inc())
else:
if is_animate == 0:
val = child[0]
else:
val = child[0][0][0]
red = float(val[0].text)
green = float(val[1].text)
blue = float(val[2].text)
red, green, blue = red ** (1/settings.GAMMA), green **\
(1/settings.GAMMA), blue ** (1/ settings.GAMMA)
alpha = float(val[3].text)
gen_properties_value(lottie["c"],
[red, green, blue, alpha],
index.inc(),
settings.DEFAULT_ANIMATED,
settings.NO_INFO)
elif child.attrib["name"] == "amount":
is_animate = is_animated(child[0])
if is_animate == 2:
# Telling the function that this is for opacity
child[0].attrib['type'] = 'opacity'
gen_value_Keyframed(lottie["o"], child[0], index.inc())
else:
if is_animate == 0:
val = float(child[0].attrib["value"]
) * settings.OPACITY_CONSTANT
else:
val = float(child[0][0][0].attrib["value"]
) * settings.OPACITY_CONSTANT
gen_properties_value(lottie["o"], val, index.inc(),
settings.DEFAULT_ANIMATED,
settings.NO_INFO)
def gen_shapes_fill(lottie, layer):
"""
Generates the dictionary corresponding to shapes/fill.json
Args:
lottie (dict) : The lottie generated fill layer will be stored in it
layer (common.Layer.Layer) : Synfig format fill (can be shape/solid anything, we
only need color and opacity part from it) layer
Returns:
(None)
"""
index = Count()
lottie["ty"] = "fl" # Type if fill
lottie["c"] = {} # Color
lottie["o"] = {} # Opacity of the fill layer
# Color
color = layer.get_param("color").get()
is_animate = is_animated(color[0])
if is_animate == settings.ANIMATED:
gen_value_Keyframed(lottie["c"], color[0], index.inc())
else:
if is_animate == settings.NOT_ANIMATED:
val = color[0]
else:
val = color[0][0][0]
red = float(val[0].text)
green = float(val[1].text)
blue = float(val[2].text)
red, green, blue = red**(1 / settings.GAMMA[0]), green**(
1 / settings.GAMMA[1]), blue**(1 / settings.GAMMA[2])
alpha = float(val[3].text)
gen_properties_value(lottie["c"], [red, green, blue, alpha],
index.inc(), settings.DEFAULT_ANIMATED,
settings.NO_INFO)
# Color Opacity
opacity = layer.get_param("amount").get()
is_animate = is_animated(opacity[0])
if is_animate == settings.ANIMATED:
# Telling the function that this is for opacity
opacity[0].attrib['type'] = 'opacity'
gen_value_Keyframed(lottie["o"], opacity[0], index.inc())
else:
if is_animate == settings.NOT_ANIMATED:
val = float(opacity[0].attrib["value"]) * settings.OPACITY_CONSTANT
else:
val = float(
opacity[0][0][0].attrib["value"]) * settings.OPACITY_CONSTANT
gen_properties_value(lottie["o"], val, index.inc(),
settings.DEFAULT_ANIMATED, settings.NO_INFO)
def gen_effects_opacity(lottie, layer, idx):
"""
Generates the dictionary corresponding to effects/opacity.json
Args:
lottie (dict) : Lottie format effects stored in this
layer (lxml.etree._Element) : Synfig format layer
idx (int) : Index/Count of effect
Returns:
(None)
"""
index = Count()
lottie["ty"] = settings.EFFECTS_OPACITY # Effect type
lottie["nm"] = "Opacity" # Name
lottie["ix"] = idx # Index
lottie["v"] = {} # Value of opacity
for child in layer:
if child.attrib["name"] == "amount":
is_animate = is_animated(child[0])
if is_animate == 2:
# Telling the function that this is for opacity
child[0].attrib['type'] = 'effects_opacity'
gen_value_Keyframed(lottie["v"], child[0], index.inc())
else:
if is_animate == 0:
val = float(child[0].attrib["value"])
else:
val = float(child[0][0][0].attrib["value"])
gen_properties_value(lottie["v"], val, index.inc(),
settings.DEFAULT_ANIMATED,
settings.NO_INFO)
def gen_linear_gradient(lottie, layer, idx):
"""
Generates the dictionary corresponding to shapes/gFill.json but with linear gradient
Args:
"""
index = Count()
lottie["ty"] = "gf"
lottie["r"] = 1 # Don't know it's meaning yet, but works without this also
lottie["o"] = {} # Opacity of the gradient layer
lottie["nm"] = layer.get_description()
lottie["t"] = 1 # 1 means linear gradient layer
lottie["s"] = {} # Starting point of gradient
lottie["e"] = {} # Ending point of gradient
lottie["g"] = {} # Gradient information is stored here
# Color Opacity
opacity = layer.get_param("amount").get()
is_animate = is_animated(opacity[0])
if is_animate == settings.ANIMATED:
# Telling the function that this is for opacity
opacity[0].attrib['type'] = 'opacity'
gen_value_Keyframed(lottie["o"], opacity[0], index.inc())
else:
if is_animate == settings.NOT_ANIMATED:
val = float(opacity[0].attrib["value"]) * settings.OPACITY_CONSTANT
else:
val = float(
opacity[0][0][0].attrib["value"]) * settings.OPACITY_CONSTANT
gen_properties_value(lottie["o"], val, index.inc(),
settings.DEFAULT_ANIMATED, settings.NO_INFO)
# Starting point
p1 = layer.get_param("p1")
p1.animate("vector")
p1.fill_path(lottie, "s")
# Ending point
p2 = layer.get_param("p2")
p2.animate("vector")
p2.fill_path(lottie, "e")
# Gradient colors
lottie["g"]["k"] = {}
lottie["g"]["ix"] = index.inc()
gradient = layer.get_param("gradient")
modify_gradient(gradient)
gradient.animate(
"gradient") # To find the lottie path of the modified gradient
lottie["g"]["p"] = len(gradient.get()[0][0][0])
gradient.fill_path(lottie["g"], "k")
modify_gradient_according_to_latest_version(lottie["g"]["k"])
def gen_dummy_waypoint(non_animated,
animated_tag,
anim_type,
animated_name="anything"):
"""
Makes a non animated parameter to animated parameter by creating a new dummy
waypoint with constant animation
Args:
non_animated (lxml.etree._Element): Holds the non-animated parameter in Synfig xml format
animated_tag(str) : Decides the tag of the animation
anim_type (str) : Decides the animation type
Returns:
(lxml.etree._Element) : Updated non-animated parameter, which is now animated
"""
is_animate = is_animated(non_animated[0])
if is_animate == settings.ANIMATED:
# If already animated, no need to add waypoints
# Forcibly set it's animation type to the given anim_type :needed in:->
# properties/shapePropKeyframe.py #31
non_animated[0].attrib["type"] = anim_type
return non_animated
elif is_animate == settings.NOT_ANIMATED:
st = '<{animated_tag} name="{animated_name}"><animated type="{anim_type}"><waypoint time="0s" before="constant" after="constant"></waypoint></animated></{animated_tag}>'
st = st.format(anim_type=anim_type,
animated_name=animated_name,
animated_tag=animated_tag)
root = etree.fromstring(st)
root[0][0].append(copy.deepcopy(non_animated[0]))
non_animated = root
elif is_animate == settings.SINGLE_WAYPOINT:
# Forcibly set it's animation type to the given anim_type
non_animated[0].attrib["type"] = anim_type
non_animated[0][0].attrib["before"] = non_animated[0][0].attrib[
"after"] = "constant"
new_waypoint = copy.deepcopy(non_animated[0][0])
frame = get_frame(non_animated[0][0])
frame += 1
time = frame / settings.lottie_format["fr"]
time = str(time) + "s"
new_waypoint.attrib["time"] = time
non_animated[0].insert(1, new_waypoint)
return non_animated
def update_pos(origin):
"""
Updates the position of parameter in Synfig format
Args:
origin (lxml.etree._Element) : Stores the position of element
Returns:
(None)
"""
offset = get_offset()
is_animate = is_animated(origin[0])
if is_animate == 0:
add(origin[0], offset)
else:
for waypoint in origin[0]:
add(waypoint[0], offset)
def update_frame_window(node, window):
"""
Given an animation, finds the minimum and maximum frame at which the
waypoints are located
Args:
node (lxml.etree._Element) : Animation to be searched in
window (dict) : max and min frame will be stored in this
Returns:
(None)
"""
if is_animated(node) == 2:
for waypoint in node:
fr = get_frame(waypoint)
if fr > window["last"]:
window["last"] = fr
if fr < window["first"]:
window["first"] = fr
def get_animated_time_list(child, time_list):
"""
Appends all the frames corresponding to the waypoints in the
animated(child[0]) list, in time_list
Args:
child (lxml.etree._Element) : Parent Element of animation
time_list (set) : Will store all the frames at which waypoints are present
Returns:
(None)
"""
animated = child[0]
is_animate = is_animated(animated)
if is_animate in {settings.NOT_ANIMATED, settings.SINGLE_WAYPOINT}:
return
for waypoint in animated:
frame = get_frame(waypoint)
time_list.add(frame)
def gen_effects_color(lottie, layer, idx):
"""
Generates the dictionary corresponding to effects/color.json
Args:
lottie (dict) : Lottie format effects stored in this
layer (lxml.etree._Element) : Synfig format layer
idx (int) : Index/Count of effect
Returns:
(None)
"""
index = Count()
lottie["ty"] = settings.EFFECTS_COLOR # Effect type
lottie["nm"] = "Color" # Name
lottie["ix"] = idx # Index
lottie["v"] = {} # Value of color
for child in layer:
if child.tag == "param":
if child.attrib["name"] == "color":
is_animate = is_animated(child[0])
if is_animate == 2:
gen_value_Keyframed(lottie["v"], child[0], index.inc())
else:
if is_animate == 0:
val = child[0]
else:
val = child[0][0][0]
red = float(val[0].text)
green = float(val[1].text)
blue = float(val[2].text)
red, green, blue = red ** (1/settings.GAMMA), green **\
(1/settings.GAMMA), blue ** (1/ settings.GAMMA)
alpha = float(val[3].text)
gen_properties_value(lottie["v"],
[red, green, blue, alpha],
index.inc(),
settings.DEFAULT_ANIMATED,
settings.NO_INFO)
def blurriness(lottie, parameter, idx, direction):
"""
This function will be called for blur layer direction to create the blurriness
value dictionary
Args:
lottie (dict) : Lottie Dictionary for blurriness
parameter (common.Param.Param) : Synfig format param for blur size
idx (int) : Stores the index(number of) of blurriness
direction (string) : Indicates the direction of blurring
Returns:
(None)
"""
lottie["ty"] = 0
lottie["nm"] = "Blurriness"
lottie["mn"] = "Gaussian Blur 1"
lottie["ix"] = idx
lottie["v"] = {}
is_animate = is_animated(parameter[0])
if is_animate == settings.ANIMATED:
if direction == "horizontal":
parameter[0].attrib['type'] = 'blur_anim_x'
gen_value_Keyframed(lottie["v"], parameter[0], 1)
else:
parameter[0].attrib['type'] = 'blur_anim_y'
gen_value_Keyframed(lottie["v"], parameter[0], 1)
else:
if is_animate == settings.NOT_ANIMATED:
if direction == "horizontal":
val = float(parameter[0][0].text) * 100
else:
val = float(parameter[0][1].text) * 100
else:
if direction == "horizontal":
val = float(parameter[0][0][0].text) * 100
else:
val = float(parameter[0][0][1].text) * 100
gen_properties_value(lottie["v"], val, 1, settings.DEFAULT_ANIMATED,
settings.NO_INFO)
def gen_radial_gradient(lottie, layer, idx):
"""
Generates the dictionary correspnding to shapes/gFill.json but with radial gradient
Args:
"""
index = Count()
lottie["ty"] = "gf"
lottie["r"] = 1 # Don't know it's meaning yet, but works without this also
lottie["o"] = {} # Opacity of the gradient layer
lottie["nm"] = layer.get_description()
lottie["t"] = 2 # 2 means radial gradient layer
lottie["s"] = {} # Starting point of gradient
lottie["e"] = {} # Ending point of gradient
lottie["g"] = {} # Gradient information is stored here
# Color Opacity
opacity = layer.get_param("amount").get()
is_animate = is_animated(opacity[0])
if is_animate == settings.ANIMATED:
# Telling the function that this is for opacity
opacity[0].attrib['type'] = 'opacity'
gen_value_Keyframed(lottie["o"], opacity[0], index.inc())
else:
if is_animate == settings.NOT_ANIMATED:
val = float(opacity[0].attrib["value"]) * settings.OPACITY_CONSTANT
else:
val = float(
opacity[0][0][0].attrib["value"]) * settings.OPACITY_CONSTANT
gen_properties_value(lottie["o"], val, index.inc(),
settings.DEFAULT_ANIMATED, settings.NO_INFO)
# Gradient colors
lottie["g"]["k"] = {}
lottie["g"]["ix"] = index.inc()
gradient = layer.get_param("gradient")
modify_gradient(gradient)
gradient.animate(
"gradient") # To find the lottie path of the modified gradient
lottie["g"]["p"] = len(gradient.get()[0][0][0])
gradient.fill_path(lottie["g"], "k")
modify_gradient_according_to_latest_version(lottie["g"]["k"])
# Starting point and Ending points need to be retrieved from center and radius
center = layer.get_param("center")
center.animate("vector")
center.fill_path(lottie, "s")
radius = layer.get_param("radius")
radius.animate("real")
# Ending point will be (start[0] + radius, start[1])
# Below is just a modification of fill_path function
expression = "var $bm_rt; $bm_rt = {expr}"
x_expr = "sum(" + center.expression + "[0], " + radius.expression + ")"
y_expr = center.expression + "[1]"
expr = "[" + x_expr + ", " + y_expr + "]"
expression = expression.format(expr=expr)
gen_properties_value(lottie["e"], [1, 1], 0, 0, expression)
if "ef" not in center.get_layer().get_lottie_layer().keys():
center.get_layer().get_lottie_layer()["ef"] = []
# If center has any expression controllers, then they would have been pushed earlier by fill_path, hence no need
# center.get_layer().get_lottie_layer()["ef"].extend(center.expression_controllers)
center.get_layer().get_lottie_layer()["ef"].extend(
radius.expression_controllers)
def gen_helpers_transform(lottie,
layer,
pos=settings.DEFAULT_POSITION,
anchor=settings.DEFAULT_ANCHOR,
scale=settings.DEFAULT_SCALE,
rotation=settings.DEFAULT_ROTATION,
opacity=settings.DEFAULT_OPACITY):
"""
Generates the dictionary corresponding to helpers/transform.json
Args:
lottie (dict) : Lottie format layer
layer (lxml.etree._Element) : Synfig format layer
pos (:obj: `list | lxml.etree._Element`, optional) : position of layer
anchor (:obj: `list | lxml.etree._Element`, optional) : anchor point of layer
scale (:obj: `list | lxml.etree._Element`, optional) : scale of layer
rotation (:obj: `float | lxml.etree._Element`, optional) : rotation of layer
opacity (:obj: `float | lxml.etree._Element`, optional) : Opacity of layer
Returns:
(None)
"""
index = Count()
lottie["o"] = {} # opacity/Amount
lottie["r"] = {} # Rotation of the layer
lottie["p"] = {} # Position of the layer
lottie["a"] = {} # Anchor point of the layer
lottie["s"] = {} # Scale of the layer
# setting the position
if isinstance(pos, list):
gen_properties_value(lottie["p"], pos, index.inc(),
settings.DEFAULT_ANIMATED, settings.NO_INFO)
else:
is_animate = is_animated(pos)
if is_animate == 2:
gen_properties_multi_dimensional_keyframed(lottie["p"], pos,
index.inc())
else:
x_val, y_val = 0, 0
if is_animate == 0:
x_val = float(pos[0].text) * settings.PIX_PER_UNIT
y_val = float(pos[1].text) * settings.PIX_PER_UNIT
else:
x_val = float(pos[0][0][0].text) * settings.PIX_PER_UNIT
y_val = float(pos[0][0][1].text) * settings.PIX_PER_UNIT
gen_properties_value(lottie["p"], change_axis(x_val, y_val, True),
index.inc(), settings.DEFAULT_ANIMATED,
settings.NO_INFO)
# setting the opacity
if isinstance(opacity, (float, int)):
gen_properties_value(lottie["o"], opacity, index.inc(),
settings.DEFAULT_ANIMATED, settings.NO_INFO)
else:
is_animate = is_animated(opacity)
if is_animate == 2:
opacity.attrib["type"] = "opacity"
gen_value_Keyframed(lottie["o"], opacity, index.inc())
else:
if is_animate == 0:
val = float(
opacity.attrib["value"]) * settings.OPACITY_CONSTANT
else:
val = float(
opacity[0][0].attrib["value"]) * settings.OPACITY_CONSTANT
gen_properties_value(lottie["o"], val, index.inc(),
settings.DEFAULT_ANIMATED, settings.NO_INFO)
# setting the rotation
if isinstance(rotation, (float, int)):
gen_properties_value(lottie["r"], rotation, index.inc(),
settings.DEFAULT_ANIMATED, settings.NO_INFO)
else:
is_animate = is_animated(rotation)
if is_animate == 2:
gen_value_Keyframed(lottie["r"], rotation, index.inc())
else:
theta = 0 # default rotation
if is_animate == 0:
theta = (float(rotation.attrib["value"]))
else:
theta = (float(rotation[0][0].attrib["value"]))
gen_properties_value(lottie["r"], theta, index.inc(),
settings.DEFAULT_ANIMATED, settings.NO_INFO)
# setting the anchor point
if isinstance(anchor, list):
gen_properties_value(lottie["a"], anchor, index.inc(),
settings.DEFAULT_ANIMATED, settings.NO_INFO)
else:
is_animate = is_animated(anchor)
if is_animate == 2:
gen_properties_multi_dimensional_keyframed(lottie["a"], anchor,
index.inc())
else:
x_val, y_val = 0, 0
if is_animate == 0:
x_val = float(anchor[0].text) * settings.PIX_PER_UNIT
y_val = float(anchor[1].text) * settings.PIX_PER_UNIT
else:
x_val = float(anchor[0][0][0].text) * settings.PIX_PER_UNIT
y_val = float(anchor[0][0][1].text) * settings.PIX_PER_UNIT
gen_properties_value(lottie["a"], change_axis(x_val, y_val, True),
index.inc(), settings.DEFAULT_ANIMATED,
settings.NO_INFO)
# setting the scale
if isinstance(scale, list):
gen_properties_value(lottie["s"], scale, index.inc(),
settings.DEFAULT_ANIMATED, settings.NO_INFO)
# This means scale parameter is animated
else:
is_animate = is_animated(scale)
if is_animate == 2:
gen_value_Keyframed(lottie["s"], scale, index.inc())
else:
zoom = 0
if is_animate == 0:
zoom = float(scale.attrib["value"])
else:
zoom = float(scale[0][0].attrib["value"])
zoom = (math.e**zoom) * 100
gen_properties_value(lottie["s"], [zoom, zoom], index.inc(),
settings.DEFAULT_ANIMATED, settings.NO_INFO)
def gen_bline_outline_constant(lottie, bline_point, layer, transformation, idx):
"""
"""
index = Count()
lottie["ty"] = "gr"
lottie["nm"] = "Shape "+ str(idx)
lottie["np"] = 3
lottie["cix"] = 2
lottie["bm"] = 0
lottie["ix"] = idx
lottie["mn"] = "ADBE Vector Group " +str(idx)
lottie["hd"] = "false"
lottie["it"] = []
lottie["it"].append({})
lottie["it"].append({})
lottie["it"].append({})
bline = Bline(bline_point[0], bline_point)
#Creating transformation dictionary
lottie["it"][2]["ty"] = "tr"
lottie["it"][2]["nm"] = "Transform"
lottie["it"][2].update(transformation)
#Creating stroke dictionary
lottie["it"][1]["ty"] = "st"
lottie["it"][1]["lc"] = 2
lottie["it"][1]["lj"] = 1
lottie["it"][1]["ml"] = 37
lottie["it"][1]["bm"] = 0
lottie["it"][1]["nm"] = "Stroke " + str(idx)
lottie["it"][1]["mn"] = "ADBE Vector Graphic - Stroke " +str(idx)
lottie["it"][1]["hd"] = "false"
lottie["it"][1]["c"] = {}
lottie["it"][1]["o"] = {}
lottie["it"][1]["w"] = {}
#Color
color = layer.get_param("color").get()
is_animate = is_animated(color[0])
if is_animate == settings.ANIMATED:
gen_value_Keyframed(lottie["it"][1]["c"], color[0], index.inc())
else:
if is_animate == settings.NOT_ANIMATED:
val = color[0]
else:
val = color[0][0][0]
red = float(val[0].text)
green = float(val[1].text)
blue = float(val[2].text)
red, green, blue = red ** (1/settings.GAMMA[0]), green ** (1/settings.GAMMA[1]), blue ** (1/ settings.GAMMA[2])
alpha = float(val[3].text)
gen_properties_value(lottie["it"][1]["c"],
[red, green, blue, alpha],
index.inc(),
settings.DEFAULT_ANIMATED,
settings.NO_INFO)
#Opacity
opacity = layer.get_param("amount")
opacity.animate("opacity")
opacity.fill_path(lottie["it"][1],"o")
#Constant width
loop = bline.get_loop()
width = layer.get_param("width")
width.scale_convert_link(1)
width.animate("real")
width.fill_path(lottie["it"][1],"w")
#Creating shape dictionary
lottie["it"][0]["ind"] = 0
lottie["it"][0]["ty"] = "sh"
lottie["it"][0]["ix"] = 1
lottie["it"][0]["ks"] = {}
lottie["it"][0]["nm"] = "Path 1"
lottie["it"][0]["mn"] = "ADBE Vector Shape - Group"
lottie["it"][0]["hd"] = "false"
lottie["it"][0]["ks"]["a"] = 1
lottie["it"][0]["ks"]["ix"] = lottie["it"][0]["ix"] + 1
lottie["it"][0]["ks"]["k"] = []
window = {}
window["first"] = sys.maxsize
window["last"] = -1
for entry in bline.get_entry_list():
pos = entry["point"]
width = entry["width"]
t1 = entry["t1"]
t2 = entry["t2"]
split_r = entry["split_radius"]
split_a = entry["split_angle"]
pos.update_frame_window(window)
# Empty the pos and fill in the new animated pos
pos.animate("vector")
width.update_frame_window(window)
width.animate("real")
split_r.update_frame_window(window)
split_r.animate_without_path("bool")
split_a.update_frame_window(window)
split_a.animate_without_path("bool")
animate_tangents(t1, window)
animate_tangents(t2, window)
outer_width = layer.get_param("width")
sharp_cusps = layer.get_param("sharp_cusps")
expand = layer.get_param("expand")
r_tip0 = layer.get_param("round_tip[0]")
r_tip1 = layer.get_param("round_tip[1]")
homo_width = layer.get_param("homogeneous_width")
origin = layer.get_param("origin")
# Animating the origin
origin.update_frame_window(window)
origin.animate("vector")
# Animating the outer width
outer_width.update_frame_window(window)
outer_width.animate("real")
# Animating the sharp_cusps
sharp_cusps.update_frame_window(window)
sharp_cusps.animate_without_path("bool")
# Animating the expand param
expand.update_frame_window(window)
expand.animate("real")
# Animating the round tip 0
r_tip0.update_frame_window(window)
r_tip0.animate_without_path("bool")
# Animating the round tip 1
r_tip1.update_frame_window(window)
r_tip1.animate_without_path("bool")
# Animating the homogeneous width
homo_width.update_frame_window(window)
homo_width.animate_without_path("bool")
# Minimizing the window size
if window["first"] == sys.maxsize and window["last"] == -1:
window["first"] = window["last"] = 0
frames = list(set(settings.WAYPOINTS_LIST))
length = bline.get_len()
flag = False
if loop:
flag = True
for fr in frames:
if fr!=1:
st_val = insert_dict_at(lottie["it"][0]["ks"]["k"], -1, fr, flag,True)
cur_origin = origin.get_value(fr)
for point in range(0,length):
pos_ret, width, t1, t2, split_r_val, split_a_val = get_outline_param_at_frame(bline[point],fr)
cubic_to(pos_ret,t1,t2,st_val,cur_origin,False,True)
def gen_shapes_star(lottie, layer, idx):
"""
Generates the dictionary corresponding to shapes/star.json
Args:
lottie (dict) : The lottie generated star layer will be stored in it
layer (common.Layer.Layer) : Synfig format star layer
idx (int) : Stores the index of the star layer
Returns:
(None)
"""
index = Count()
lottie["ty"] = "sr" # Type: star
lottie["pt"] = {} # Number of points on the star
lottie["p"] = {} # Position of star
lottie["r"] = {} # Angle / Star's rotation
lottie["ir"] = {} # Inner radius
lottie["or"] = {} # Outer radius
lottie["is"] = {} # Inner roundness of the star
lottie["os"] = {} # Outer roundness of the star
regular_polygon = {"prop": "false"}
# Regular polygon
rp = layer.get_param("regular_polygon").get()
is_animate = is_animated(rp[0])
if is_animate == 2:
regular_polygon["prop"] = "changing"
regular_polygon["animated"] = rp[0]
elif is_animate == 1:
regular_polygon["prop"] = rp[0][0][0].attrib["value"]
else:
regular_polygon["prop"] = rp[0].attrib["value"]
regular_polygon["animate"] = is_animate
# Points
points = layer.get_param("points").get()
is_animate = is_animated(points[0])
if is_animate == 2:
# To uniquely identify the points, attribute type is changed
points[0].attrib['type'] = 'points'
gen_value_Keyframed(lottie["pt"], points[0], index.inc())
else:
num_points = 3 # default number of points
if is_animate == 0:
num_points = int(points[0].attrib["value"])
else:
num_points = int(points[0][0][0].attrib["value"])
gen_properties_value(lottie["pt"], num_points, index.inc(),
settings.DEFAULT_ANIMATED, settings.NO_INFO)
# Angle
angle = layer.get_param("angle").get()
is_animate = is_animated(angle[0])
if is_animate == 2:
gen_value_Keyframed(lottie["r"], angle[0], index.inc())
else:
theta = 0 # default angle for the star
if is_animate == 0:
theta = get_angle(float(angle[0].attrib["value"]))
else:
theta = get_angle(float(angle[0][0][0].attrib["value"]))
gen_properties_value(lottie["r"], theta, index.inc(),
settings.DEFAULT_ANIMATED, settings.NO_INFO)
# Radius1
radius1 = layer.get_param("radius1").get()
is_animate = is_animated(radius1[0])
if is_animate == 2:
gen_value_Keyframed(lottie["or"], radius1[0], index.inc())
else:
r_outer = 0 # default value for outer radius
if is_animate == 0:
r_outer = float(radius1[0].attrib["value"])
else:
r_outer = float(radius1[0][0][0].attrib["value"])
gen_properties_value(lottie["or"],
int(settings.PIX_PER_UNIT * r_outer), index.inc(),
settings.DEFAULT_ANIMATED, settings.NO_INFO)
# Radius2
radius2 = layer.get_param("radius2").get()
is_animate = is_animated(radius2[0])
if is_animate == 2:
gen_value_Keyframed(lottie["ir"], radius2[0], index.inc())
else:
r_inner = 0 # default value for inner radius
if is_animate == 0:
r_inner = float(radius2[0].attrib["value"])
else:
r_inner = float(radius2[0][0][0].attrib["value"])
gen_properties_value(lottie["ir"],
int(settings.PIX_PER_UNIT * r_inner), index.inc(),
settings.DEFAULT_ANIMATED, settings.NO_INFO)
# Origin
origin = layer.get_param("origin").get()
is_animate = is_animated(origin[0])
if is_animate == 2:
gen_properties_multi_dimensional_keyframed(lottie["p"], origin[0],
index.inc())
else:
x_val, y_val = 0, 0
if is_animate == 0:
x_val = float(origin[0][0].text) * settings.PIX_PER_UNIT
y_val = float(origin[0][1].text) * settings.PIX_PER_UNIT
else:
x_val = float(origin[0][0][0][0].text) * settings.PIX_PER_UNIT
y_val = float(origin[0][0][0][1].text) * settings.PIX_PER_UNIT
gen_properties_value(lottie["p"], change_axis(x_val,
y_val), index.inc(),
settings.DEFAULT_ANIMATED, settings.NO_INFO)
# If not animated, then go to if, else
if regular_polygon["animate"] in {0, 1}:
if regular_polygon["prop"] == "false":
lottie["sy"] = 1 # Star Type
# inner property is only needed if type is star
gen_properties_value(lottie["is"], 0, index.inc(),
settings.DEFAULT_ANIMATED, settings.NO_INFO)
else:
lottie["sy"] = 2 # Polygon Type
# for polygon type, "ir" and "is" must not be present
del lottie["ir"]
# If animated, it will always be of type star
else:
lottie["sy"] = 1
gen_properties_value(lottie["is"], 0, index.inc(),
settings.DEFAULT_ANIMATED, settings.NO_INFO)
gen_properties_value(lottie["os"], 0, index.inc(),
settings.DEFAULT_ANIMATED, settings.NO_INFO)
lottie["ix"] = idx
def gen_shapes_rectangle(lottie, layer, idx):
"""
Generates the dictionary corresponding to shapes/rect.json
Args:
lottie (dict) : The lottie generated rectangle layer will be stored in it
layer (lxml.etree._Element): Synfig format rectangle layer
idx (int) : Stores the index of the rectangle layer
Returns:
(None)
"""
index = Count()
lottie["ty"] = "rc" # Type: rectangle
lottie["p"] = {} # Position of rectangle
lottie["d"] = settings.DEFAULT_DIRECTION
lottie["s"] = {} # Size of rectangle
lottie["ix"] = idx # setting the index
lottie["r"] = {} # Rounded corners of rectangle
points = {}
bevel_found = False
expand_found = False # For filled rectangle layers
for child in layer:
if child.tag == "param":
if child.attrib["name"] == "point1":
points["1"] = child # Store address of child here
elif child.attrib["name"] == "point2":
points["2"] = child # Store address of child here
elif child.attrib["name"] == "expand":
expand_found = True
param_expand = child
elif child.attrib["name"] == "bevel":
bevel_found = True
is_animate = is_animated(child[0])
if is_animate == 2:
gen_value_Keyframed(lottie["r"], child[0], index.inc())
else:
bevel = get_child_value(is_animate, child, "value")
bevel *= settings.PIX_PER_UNIT
gen_properties_value(lottie["r"], bevel, index.inc(),
settings.DEFAULT_ANIMATED,
settings.NO_INFO)
if not bevel_found: # For rectangle layer in stable version 1.2.2
bevel = 0
gen_properties_value(lottie["r"], bevel, index.inc(),
settings.DEFAULT_ANIMATED, settings.NO_INFO)
if not expand_found: # Means filled rectangle layer, gen expand param
st = "<param name='expand'><real value='0.0'/></param>"
param_expand = etree.fromstring(st)
# If expand parameter is not animated
param_expand = gen_dummy_waypoint(param_expand, "param", "real")
# expand parameter needs to be positive: required by Synfig
make_positive_valued(param_expand)
# If p1 not animated
points["1"] = gen_dummy_waypoint(points["1"], "param", "vector")
# If p2 not animated
points["2"] = gen_dummy_waypoint(points["2"], "param", "vector")
both_points_animated(points["1"], points["2"], param_expand, lottie, index)
def gen_layer_shape_solid(lottie, layer, idx):
"""
Generates the dictionary corresponding to layers/shapes.json
Args:
lottie (dict) : Lottie generated solid layer stored here
layer (lxml.etree._Element): Synfig format solid layer
idx (int) : Stores the index(number of) of solid layer
Returns:
(None)
"""
update_layer(layer)
# Setting the solid layer which will be masked
index = Count()
lottie["ddd"] = settings.DEFAULT_3D
lottie["ind"] = idx
lottie["ty"] = settings.LAYER_SOLID_TYPE
set_layer_desc(layer, settings.LAYER_SOLID_NAME + str(idx), lottie)
lottie["sr"] = settings.LAYER_DEFAULT_STRETCH
lottie["ks"] = {} # Transform properties to be filled
lottie["ef"] = [] # Stores the effects
pos = [
settings.lottie_format["w"] / 2 + get_additional_width() / 2,
settings.lottie_format["h"] / 2 + get_additional_height() / 2
]
anchor = pos
gen_helpers_transform(lottie["ks"], layer, pos, anchor)
lottie["ef"].append({})
gen_effects_fill(lottie["ef"][-1], layer, index.inc())
lottie["ao"] = settings.LAYER_DEFAULT_AUTO_ORIENT
lottie["sw"] = settings.lottie_format["w"] + get_additional_width(
) # Solid Width
lottie["sh"] = settings.lottie_format["h"] + get_additional_height(
) # Solid Height
invert = False
for chld in layer:
if chld.tag == "param":
if chld.attrib["name"] == "color":
lottie["sc"] = get_color_hex(chld[0]) # Solid Color
elif chld.attrib["name"] == "invert":
is_animate = is_animated(chld[0])
if is_animate == 0:
val = chld[0].attrib["value"]
elif is_animate == 1:
val = chld[0][0][0].attrib["value"]
else:
# If animated, always set invert to false
val = "false"
if val == "true":
invert = True
elif chld.attrib["name"] in {"bline", "vector_list"}:
bline_point = chld[0]
lottie["ip"] = settings.lottie_format["ip"]
lottie["op"] = settings.lottie_format["op"]
lottie["st"] = 0 # Don't know yet
get_blend(lottie, layer)
hasMask = True
lottie["hasMask"] = hasMask
lottie["masksProperties"] = []
lottie["masksProperties"].append({})
if layer.attrib["type"] in {
"star", "circle", "rectangle", "filled_rectangle"
}:
bline_point = layer
gen_mask(lottie["masksProperties"][0], invert, bline_point, index.inc())
def gen_layer_shape_solid(lottie, layer, idx):
"""
Generates the dictionary corresponding to layers/shapes.json
Args:
lottie (dict) : Lottie generated solid layer stored here
layer (common.Layer.Layer) : Synfig format solid layer
idx (int) : Stores the index(number of) of solid layer
Returns:
(None)
"""
layer.add_offset()
# Setting the solid layer which will be masked
index = Count()
lottie["ddd"] = settings.DEFAULT_3D
lottie["ind"] = idx
lottie["ty"] = settings.LAYER_SOLID_TYPE
lottie["nm"] = layer.get_description()
lottie["sr"] = settings.LAYER_DEFAULT_STRETCH
lottie["ks"] = {} # Transform properties to be filled
lottie["ef"] = [] # Stores the effects
pos = [
settings.lottie_format["w"] / 2 + get_additional_width() / 2,
settings.lottie_format["h"] / 2 + get_additional_height() / 2
]
anchor = pos
gen_helpers_transform(lottie["ks"], pos, anchor)
lottie["ef"].append({})
gen_effects_fill(lottie["ef"][-1], layer, index.inc())
lottie["ao"] = settings.LAYER_DEFAULT_AUTO_ORIENT
lottie["sw"] = settings.lottie_format["w"] + get_additional_width(
) # Solid Width
lottie["sh"] = settings.lottie_format["h"] + get_additional_height(
) # Solid Height
lottie["sc"] = get_color_hex(layer.get_param("color").get()[0])
invert = False
Inv = layer.get_param("invert").get()
flag = False
#So far only 'not' convert method seems to be supported for invert param in circle, will add more subsequently.
if Inv is not None:
if "bool" not in str(Inv[0]) and "animated" not in str(Inv[0]):
is_animate = is_animated(Inv[0][0][0])
flag = True
else:
is_animate = is_animated(Inv[0])
if is_animate == settings.NOT_ANIMATED:
if flag:
val = "false"
if Inv[0][0][0].attrib["value"] == "false":
val = "true"
else:
val = Inv[0].attrib["value"]
elif is_animate == settings.SINGLE_WAYPOINT:
if flag:
val = "false"
if Inv[0][0][0][0][0].attrib["value"] == "false":
val = "true"
else:
val = Inv[0][0][0].attrib["value"]
else:
# If animated, always set invert to false
val = "false"
if val == "true":
invert = True
lottie["ip"] = settings.lottie_format["ip"]
lottie["op"] = settings.lottie_format["op"]
lottie["st"] = 0 # Don't know yet
get_blend(lottie, layer)
hasMask = True
lottie["hasMask"] = hasMask
lottie["masksProperties"] = []
lottie["masksProperties"].append({})
if layer.get_type() in {"star", "circle", "rectangle", "filled_rectangle"}:
bline_point = layer
else:
bline_point = layer.get_param("bline", "vector_list")
gen_mask(lottie["masksProperties"][0], invert, bline_point, index.inc())
def gen_shapes_circle(lottie, layer, idx):
"""
Generates the dictionary corresponding to shapes/ellipse.json where ellipse
will always be considered as circle
Args:
lottie (dict) : The lottie generated circle layer will be stored in it
layer (lxml.etree._Element): Synfig format circle layer
idx (int) : Stores the index of the circle layer
Returns:
(None)
"""
index = Count()
lottie["ty"] = "el" # Type: circle
lottie["p"] = {} # Position of circle
lottie["d"] = settings.DEFAULT_DIRECTION
lottie["s"] = {} # Size of circle
lottie["ix"] = idx # setting the index
for child in layer:
if child.tag == "param":
if child.attrib["name"] in {"origin", "center"}:
is_animate = is_animated(child[0])
if is_animate == 2:
gen_properties_multi_dimensional_keyframed(
lottie["p"], child[0], index.inc())
else:
x_val, y_val = 0, 0
if is_animate == 0:
x_val = float(child[0][0].text) * settings.PIX_PER_UNIT
y_val = float(child[0][1].text) * settings.PIX_PER_UNIT
else:
x_val = float(
child[0][0][0][0].text) * settings.PIX_PER_UNIT
y_val = float(
child[0][0][0][1].text) * settings.PIX_PER_UNIT
gen_properties_value(lottie["p"],
change_axis(x_val,
y_val), index.inc(),
settings.DEFAULT_ANIMATED,
settings.NO_INFO)
# This will be exported as size of ellipse in lottie format
elif child.attrib["name"] == "radius":
is_animate = is_animated(child[0])
if is_animate == 2:
child[0].attrib['type'] = "circle_radius"
gen_value_Keyframed(lottie["s"], child[0], index.inc())
else:
radius = 0 # default value for radius
if is_animate == 0:
radius = float(child[0].attrib["value"])
else:
radius = float(child[0][0][0].attrib["value"])
radius_pix = int(settings.PIX_PER_UNIT) * radius
diam = radius_pix * 2
gen_properties_value(lottie["s"], [diam, diam],
index.inc(),
settings.DEFAULT_ANIMATED,
settings.NO_INFO)
