Merge pull request #375 from specklesystems/dogukan/test_migration

fix: migration of existing tests
This commit is contained in:
Dogukan Karatas
2025-01-24 15:34:54 +01:00
committed by GitHub
35 changed files with 36 additions and 4179 deletions
+9
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@@ -0,0 +1,9 @@
from specklepy.objects.geometry import Point, Line
from specklepy.objects.models.units import Units
p_1 = Point(x=0, y=0, z=0, units=Units.m)
p_2 = Point(x=3, y=0, z=0, units=Units.m)
line = Line(start=p_1, end=p_2, units=Units.m)
line.length = line.calculate_length()
print(line.length)
-15
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@@ -1,15 +0,0 @@
from typing import Optional
from specklepy.objects.base import Base
class CRS(Base, speckle_type="Objects.GIS.CRS"):
"""A Coordinate Reference System stored in wkt format"""
name: Optional[str] = None
authority_id: Optional[str] = None
wkt: Optional[str] = None
units_native: Optional[str] = None
offset_x: Optional[float] = None
offset_y: Optional[float] = None
rotation: Optional[float] = None
-24
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@@ -1,24 +0,0 @@
"""Builtin Speckle object kit."""
from specklepy.objects.GIS.CRS import CRS
from specklepy.objects.GIS.geometry import (
GisLineElement,
GisPointElement,
GisPolygonElement,
GisPolygonGeometry,
GisRasterElement,
PolygonGeometry,
)
from specklepy.objects.GIS.layers import RasterLayer, VectorLayer
__all__ = [
"VectorLayer",
"RasterLayer",
"GisPolygonGeometry",
"PolygonGeometry",
"GisPolygonElement",
"GisLineElement",
"GisPointElement",
"GisRasterElement",
"CRS",
]
-74
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@@ -1,74 +0,0 @@
from typing import List, Optional, Union
from specklepy.objects.base import Base
from specklepy.objects.geometry import (
Arc,
Circle,
Line,
Mesh,
Point,
Polycurve,
Polyline,
)
class PolygonGeometry(Base, speckle_type="Objects.GIS.PolygonGeometry"):
"""GIS Polygon Geometry"""
boundary: Optional[Polyline]
voids: Optional[List[Polyline]]
GisPolygonGeometry = PolygonGeometry
class GisPolygonElement(Base, speckle_type="Objects.GIS.PolygonElement"):
"""GIS Polygon element"""
geometry: Optional[List[GisPolygonGeometry]] = None
attributes: Optional[Base] = None
class GisLineElement(Base, speckle_type="Objects.GIS.LineElement"):
"""GIS Polyline element"""
geometry: Optional[List[Union[Polyline, Arc, Line, Circle, Polycurve]]] = None
attributes: Optional[Base] = None
class GisPointElement(Base, speckle_type="Objects.GIS.PointElement"):
"""GIS Point element"""
geometry: Optional[List[Point]] = None
attributes: Optional[Base] = None
class GisRasterElement(
Base, speckle_type="Objects.GIS.RasterElement", detachable={"displayValue"}
):
"""GIS Raster element"""
band_count: Optional[int] = None
band_names: Optional[List[str]] = None
x_origin: Optional[float] = None
y_origin: Optional[float] = None
x_size: Optional[int] = None
y_size: Optional[int] = None
x_resolution: Optional[float] = None
y_resolution: Optional[float] = None
noDataValue: Optional[List[float]] = None
displayValue: Optional[List[Mesh]] = None
class GisTopography(
GisRasterElement,
speckle_type="Objects.GIS.GisTopography",
detachable={"displayValue"},
):
"""GIS Raster element with 3d Topography representation"""
class GisNonGeometryElement(Base, speckle_type="Objects.GIS.NonGeometryElement"):
"""GIS Table feature"""
attributes: Optional[Base] = None
-142
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@@ -1,142 +0,0 @@
from typing import Any, Dict, List, Optional, Union
from deprecated import deprecated
from specklepy.objects.base import Base
from specklepy.objects.GIS.CRS import CRS
from specklepy.objects.other import Collection
@deprecated(version="2.15", reason="Use VectorLayer or RasterLayer instead")
class Layer(Base, detachable={"features"}):
"""A GIS Layer"""
def __init__(
self,
name: Optional[str] = None,
crs: Optional[CRS] = None,
units: str = "m",
features: Optional[List[Base]] = None,
layerType: str = "None",
geomType: str = "None",
renderer: Optional[Dict[str, Any]] = None,
**kwargs,
) -> None:
super().__init__(**kwargs)
self.name = name
self.crs = crs
self.units = units
self.type = layerType
self.features = features or []
self.geomType = geomType
self.renderer = renderer or {}
@deprecated(version="2.16", reason="Use VectorLayer or RasterLayer instead")
class VectorLayer(
Collection,
detachable={"elements"},
speckle_type="VectorLayer",
serialize_ignore={"features"},
):
"""GIS Vector Layer"""
name: Optional[str] = None
crs: Optional[Union[CRS, Base]] = None
units: Optional[str] = None
elements: Optional[List[Base]] = None
attributes: Optional[Base] = None
geomType: Optional[str] = "None"
renderer: Optional[Dict[str, Any]] = None
collectionType = "VectorLayer"
@property
@deprecated(version="2.14", reason="Use elements")
def features(self) -> Optional[List[Base]]:
return self.elements
@features.setter
def features(self, value: Optional[List[Base]]) -> None:
self.elements = value
@deprecated(version="2.16", reason="Use VectorLayer or RasterLayer instead")
class RasterLayer(
Collection,
detachable={"elements"},
speckle_type="RasterLayer",
serialize_ignore={"features"},
):
"""GIS Raster Layer"""
name: Optional[str] = None
crs: Optional[Union[CRS, Base]] = None
units: Optional[str] = None
rasterCrs: Optional[Union[CRS, Base]] = None
elements: Optional[List[Base]] = None
geomType: Optional[str] = "None"
renderer: Optional[Dict[str, Any]] = None
collectionType = "RasterLayer"
@property
@deprecated(version="2.14", reason="Use elements")
def features(self) -> Optional[List[Base]]:
return self.elements
@features.setter
def features(self, value: Optional[List[Base]]) -> None:
self.elements = value
class VectorLayer( # noqa: F811
Collection,
detachable={"elements"},
speckle_type="Objects.GIS.VectorLayer",
serialize_ignore={"features"},
):
"""GIS Vector Layer"""
name: Optional[str] = None
crs: Optional[Union[CRS, Base]] = None
units: Optional[str] = None
elements: Optional[List[Base]] = None
attributes: Optional[Base] = None
geomType: Optional[str] = "None"
renderer: Optional[Dict[str, Any]] = None
collectionType = "VectorLayer"
@property
@deprecated(version="2.14", reason="Use elements")
def features(self) -> Optional[List[Base]]:
return self.elements
@features.setter
def features(self, value: Optional[List[Base]]) -> None:
self.elements = value
class RasterLayer( # noqa: F811
Collection,
detachable={"elements"},
speckle_type="Objects.GIS.RasterLayer",
serialize_ignore={"features"},
):
"""GIS Raster Layer"""
name: Optional[str] = None
crs: Optional[Union[CRS, Base]] = None
units: Optional[str] = None
rasterCrs: Optional[Union[CRS, Base]] = None
elements: Optional[List[Base]] = None
geomType: Optional[str] = "None"
renderer: Optional[Dict[str, Any]] = None
collectionType = "RasterLayer"
@property
@deprecated(version="2.14", reason="Use elements")
def features(self) -> Optional[List[Base]]:
return self.elements
@features.setter
def features(self, value: Optional[List[Base]]) -> None:
self.elements = value
-23
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@@ -1,23 +0,0 @@
"""Builtin Speckle object kit."""
# from specklepy.objects import (
# GIS,
# encoding,
# geometry,
# other,
# primitive,
# structural,
# units,
# )
from specklepy.objects.base import Base
__all__ = [
"Base",
# "encoding",
# "geometry",
# "other",
# "units",
# "structural",
# "primitive",
# "GIS",
]
-595
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@@ -1,595 +0,0 @@
import contextlib
from enum import Enum
from inspect import isclass
from typing import (
Any,
ClassVar,
Dict,
ForwardRef,
List,
Optional,
Set,
Tuple,
Type,
Union,
get_type_hints,
)
from warnings import warn
from stringcase import pascalcase
from specklepy.logging.exceptions import SpeckleException, SpeckleInvalidUnitException
from specklepy.objects_v2.units import Units
from specklepy.transports.memory import MemoryTransport
PRIMITIVES = (int, float, str, bool)
# to remove from dir() when calling get_member_names()
REMOVE_FROM_DIR = {
"Config",
"_Base__dict_helper",
"__annotations__",
"__class__",
"__delattr__",
"__dict__",
"__dir__",
"__doc__",
"__eq__",
"__format__",
"__ge__",
"__getattribute__",
"__getitem__",
"__gt__",
"__hash__",
"__init__",
"__init_subclass__",
"__le__",
"__lt__",
"__module__",
"__ne__",
"__new__",
"__reduce__",
"__reduce_ex__",
"__repr__",
"__setattr__",
"__setitem__",
"__sizeof__",
"__str__",
"__subclasshook__",
"__weakref__",
"_chunk_size_default",
"_chunkable",
"_count_descendants",
"_attr_types",
"_detachable",
"_handle_object_count",
"_type_check",
"_type_registry",
"_units",
"add_chunkable_attrs",
"add_detachable_attrs",
"get_children_count",
"get_dynamic_member_names",
"get_id",
"get_member_names",
"get_registered_type",
"get_typed_member_names",
"to_dict",
"update_forward_refs",
"validate_prop_name",
"from_list",
"to_list",
}
class _RegisteringBase:
"""
Private Base model for Speckle types.
This is an implementation detail, please do not use this outside this module.
This class provides automatic registration of `speckle_type` into a global,
(class level) registry for each subclassing type.
The type registry is a base for accurate type based (de)serialization.
"""
speckle_type: ClassVar[str]
_speckle_type_override: ClassVar[Optional[str]] = None
_speckle_namespace: ClassVar[Optional[str]] = None
_type_registry: ClassVar[Dict[str, Type["Base"]]] = {}
_attr_types: ClassVar[Dict[str, Type]] = {}
# dict of chunkable props and their max chunk size
_chunkable: Dict[str, int] = {}
_chunk_size_default: int = 1000
_detachable: Set[str] = set() # list of defined detachable props
_serialize_ignore: Set[str] = set()
@classmethod
def get_registered_type(cls, speckle_type: str) -> Optional[Type["Base"]]:
"""Get the registered type from the protected mapping via the `speckle_type`"""
for full_name in reversed(speckle_type.split(":")):
maybe_type = cls._type_registry.get(full_name, None)
if maybe_type:
return maybe_type
return None
@classmethod
def _determine_speckle_type(cls) -> str:
"""
This method brings the speckle_type construction in par with Speckle-sharp/Core.
The implementation differs, because in Core the basis of the speckle_type if
type.FullName, which includes the dotnet namespace name too.
Copying that behavior is hard in python, where the concept of namespaces
means something entirely different.
So we enabled a speckle_type override mechanism, that enables
"""
base_name = "Base"
if cls.__name__ == base_name:
return base_name
bases = [
b._full_name()
for b in reversed(cls.mro())
if issubclass(b, Base) and b.__name__ != base_name
]
return ":".join(bases)
@classmethod
def _full_name(cls) -> str:
base_name = "Base"
if cls.__name__ == base_name:
return base_name
if cls._speckle_type_override:
return cls._speckle_type_override
# convert the module names to PascalCase to match c# namespace naming convention
# also drop specklepy from the beginning
namespace = ".".join(
pascalcase(m)
for m in filter(lambda name: name != "specklepy", cls.__module__.split("."))
)
return f"{namespace}.{cls.__name__}"
def __init_subclass__(
cls,
speckle_type: Optional[str] = None,
chunkable: Optional[Dict[str, int]] = None,
detachable: Optional[Set[str]] = None,
serialize_ignore: Optional[Set[str]] = None,
**kwargs: Dict[str, Any],
):
"""
Hook into subclass type creation.
This is provides a mechanism to hook into the event of the subclass type object
initialization. This is reused to register each subclassing type into a class
level dictionary.
"""
# if not speckle_type:
# raise Exception("no type")
cls._speckle_type_override = speckle_type
cls.speckle_type = cls._determine_speckle_type()
# cls.speckle_type = speckle_type
if cls._full_name() in cls._type_registry:
raise ValueError(
f"The speckle_type: {speckle_type} is already registered for type: "
f"{cls._type_registry[cls._full_name()].__name__}. "
"Please choose a different type name."
)
cls._type_registry[cls._full_name()] = cls # type: ignore
try:
cls._attr_types = get_type_hints(cls)
except Exception:
cls._attr_types = getattr(cls, "__annotations__", {})
if chunkable:
chunkable = {k: v for k, v in chunkable.items() if isinstance(v, int)}
cls._chunkable = dict(cls._chunkable, **chunkable)
if detachable:
cls._detachable = cls._detachable.union(detachable)
if serialize_ignore:
cls._serialize_ignore = cls._serialize_ignore.union(serialize_ignore)
# we know, that the super here is object, that takes no args on init subclass
return super().__init_subclass__()
# T = TypeVar("T")
# how i wish the code below would be correct, but we're also parsing into floats
# and converting into strings if the original type is string, but the value isn't
# def _validate_type(t: type, value: T) -> Tuple[bool, T]:
def _validate_type(t: Optional[type], value: Any) -> Tuple[bool, Any]:
# this should be reworked. Its only ok to return null for Optionals...
# if t is None and value is None:
if value is None:
return True, value
# after fixing the None t above, this should be
# if t is Any:
# if t is None:
if t is None or t is Any:
return True, value
if isclass(t) and issubclass(t, Enum):
if isinstance(value, t):
return True, value
if value in t._value2member_map_:
return True, t(value)
if getattr(t, "__module__", None) == "typing":
if isinstance(t, ForwardRef):
return True, value
origin = t.__origin__
# below is what in nicer for >= py38
# origin = get_origin(t)
# recursive validation for Unions on both types preferring the fist type
if origin is Union:
# below is what in nicer for >= py38
# t_1, t_2 = get_args(t)
args = t.__args__ # type: ignore
for arg_t in args:
t_success, t_value = _validate_type(arg_t, value)
if t_success:
return True, t_value
return False, value
if origin is dict:
if not isinstance(value, dict):
return False, value
if value == {}:
return True, value
if not getattr(t, "__args__", None):
return True, value
t_key, t_value = t.__args__ # type: ignore
if (
getattr(t_key, "__name__", None),
getattr(t_value, "__name__", None),
) == ("KT", "VT"):
return True, value
# we're only checking the first item, but the for loop and return after
# evaluating the first item is the fastest way
for dict_key, dict_value in value.items():
valid_key, _ = _validate_type(t_key, dict_key)
valid_value, _ = _validate_type(t_value, dict_value)
if valid_key and valid_value:
return True, value
return False, value
if origin is list:
if not isinstance(value, list):
return False, value
if value == []:
return True, value
if not hasattr(t, "__args__"):
return True, value
t_items = t.__args__[0] # type: ignore
if getattr(t_items, "__name__", None) == "T":
return True, value
first_item_valid, _ = _validate_type(t_items, value[0])
if first_item_valid:
return True, value
return False, value
if origin is tuple:
if not isinstance(value, tuple):
return False, value
if not hasattr(t, "__args__"):
return True, value
args = t.__args__ # type: ignore
if args == tuple():
return True, value
# we're not checking for empty tuple, cause tuple lengths must match
if len(args) != len(value):
return False, value
values = []
for t_item, v_item in zip(args, value, strict=True):
item_valid, item_value = _validate_type(t_item, v_item)
if not item_valid:
return False, value
values.append(item_value)
return True, tuple(values)
if origin is set:
if not isinstance(value, set):
return False, value
if not hasattr(t, "__args__"):
return True, value
t_items = t.__args__[0] # type: ignore
first_item_valid, _ = _validate_type(t_items, next(iter(value)))
if first_item_valid:
return True, value
return False, value
if isinstance(value, t):
return True, value
with contextlib.suppress(ValueError, TypeError):
if t is float and value is not None:
return True, float(value)
# TODO: dafuq, i had to add this not list check
# but it would also fail for objects and other complex values
if t is str and value and not isinstance(value, list):
return True, str(value)
return False, value
class Base(_RegisteringBase, speckle_type="Base"):
# id: Union[str, None] = None
# totalChildrenCount: Union[int, None] = None
# applicationId: Union[str, None] = None
_units: Union[None, str] = None
def __init__(
self,
id: str | None = None,
# totalChildrenCount: Union[int, None] = None,
applicationId: str | None = None,
**kwargs,
) -> None:
self.id = id
# self.totalChildrenCount = totalChildrenCount
self.applicationId = applicationId
super().__init__()
for k, v in kwargs.items():
self.__setattr__(k, v)
def __repr__(self) -> str:
return (
f"{self.__class__.__name__}(id: {self.id}, "
f"speckle_type: {self.speckle_type}, "
# f"totalChildrenCount: {self.totalChildrenCount})"
)
def __str__(self) -> str:
return self.__repr__()
@classmethod
def of_type(cls, speckle_type: str, **kwargs) -> "Base":
"""
Get a plain Base object with a specified speckle_type.
The speckle_type is protected and cannot be overwritten on a class instance.
This is to prevent problems with receiving in other platforms or connectors.
However, if you really need a base with a different type, here is a helper
to do that for you.
This is used in the deserialisation of unknown types so their speckle_type
can be preserved.
"""
b = cls(**kwargs)
b.__dict__.update(speckle_type=speckle_type)
return b
def __setitem__(self, name: str, value: Any) -> None:
self.validate_prop_name(name)
self.__dict__[name] = value
def __getitem__(self, name: str) -> Any:
return self.__dict__[name]
def __setattr__(self, name: str, value: Any) -> None:
"""
Type checking, guard attribute, and property set mechanism.
The `speckle_type` is a protected class attribute it must not be overridden.
This also performs a type check if the attribute is type hinted.
"""
if name == "speckle_type":
# not sure if we should raise an exception here??
# raise SpeckleException(
# "Cannot override the `speckle_type`."
# "This is set manually by the class or on deserialisation"
# )
return
# if value is not None:
value = self._type_check(name, value)
attr = getattr(self.__class__, name, None)
if isinstance(attr, property):
try:
attr.__set__(self, value)
except AttributeError:
return # the prop probably doesn't have a setter
super().__setattr__(name, value)
@classmethod
def update_forward_refs(cls) -> None:
"""
Attempts to populate the internal defined types dict for type checking
sometime after defining the class.
This is already done when defining the class, but can be called
again if references to undefined types were
included.
See `objects.geometry` for an example of how this is used with
the Brep class definitions.
"""
try:
cls._attr_types = get_type_hints(cls)
except Exception as e:
warn(
f"Could not update forward refs for class {cls.__name__}: {e}",
stacklevel=2,
)
@classmethod
def validate_prop_name(cls, name: str) -> None:
"""Validator for dynamic attribute names."""
if name in {"", "@"}:
raise ValueError("Invalid Name: Base member names cannot be empty strings")
if name.startswith("@@"):
raise ValueError(
"Invalid Name: Base member names cannot start with more than one '@'",
)
if "." in name or "/" in name:
raise ValueError(
"Invalid Name: Base member names cannot contain characters '.' or '/'",
)
def _type_check(self, name: str, value: Any) -> Any:
"""
Lightweight type checking of values before setting them
NOTE: Does not check subscripted types within generics as the performance hit
of checking each item within a given collection isn't worth it.
Eg if you have a type Dict[str, float],
we will only check if the value you're trying to set is a dict.
"""
types = getattr(self, "_attr_types", {})
t = types.get(name, None)
valid, checked_value = _validate_type(t, value)
if valid:
return checked_value
raise SpeckleException(
f"Cannot set '{self.__class__.__name__}.{name}':"
f"it expects type '{str(t)}',"
f"but received type '{type(value).__name__}'"
)
def add_chunkable_attrs(self, **kwargs: int) -> None:
"""
Mark defined attributes as chunkable for serialisation
Arguments:
kwargs {int} -- the name of the attribute as the keyword
and the chunk size as the arg
"""
chunkable = {k: v for k, v in kwargs.items() if isinstance(v, int)}
self._chunkable = dict(self._chunkable, **chunkable)
def add_detachable_attrs(self, names: Set[str]) -> None:
"""
Mark defined attributes as detachable for serialisation
Arguments:
names {Set[str]} -- the names of the attributes to detach as a set of string
"""
self._detachable = self._detachable.union(names)
@property
def units(self) -> Union[str, None]:
return self._units
@units.setter
def units(self, value: Union[str, Units, None]):
"""
While this property accepts any string value,
geometry expects units to be specific strings (see Units enum)
"""
if isinstance(value, str) or value is None:
self._units = value
elif isinstance(value, Units):
self._units = value.value
else:
raise SpeckleInvalidUnitException(
f"Unknown type {type(value)} received for units"
)
def get_member_names(self) -> List[str]:
"""Get all of the property names on this object, dynamic or not"""
attr_dir = list(set(dir(self)) - REMOVE_FROM_DIR)
return [
name
for name in attr_dir
if not name.startswith("_") and not callable(getattr(self, name))
]
def get_serializable_attributes(self) -> List[str]:
"""Get the attributes that should be serialized"""
return sorted(list(set(self.get_member_names()) - self._serialize_ignore))
def get_typed_member_names(self) -> List[str]:
"""Get all of the names of the defined (typed) properties of this object"""
return list(self._attr_types.keys())
def get_dynamic_member_names(self) -> List[str]:
"""Get all of the names of the dynamic properties of this object"""
return list(set(self.__dict__.keys()) - set(self._attr_types.keys()))
def get_children_count(self) -> int:
"""Get the total count of children Base objects"""
parsed = []
return 1 + self._count_descendants(self, parsed)
def get_id(self, decompose: bool = False) -> str:
"""
Gets the id (a unique hash) of this object.
⚠️ This method fully serializes the object which,
in the case of large objects (with many sub-objects), has a tangible cost.
Avoid using it!
Note: the hash of a decomposed object differs from that of a
non-decomposed object
Arguments:
decompose {bool} -- if True, will decompose the object in
the process of hashing it
Returns:
str -- the hash (id) of the fully serialized object
"""
from specklepy.serialization.base_object_serializer import BaseObjectSerializer
serializer = BaseObjectSerializer()
if decompose:
serializer.write_transports = [MemoryTransport()]
return serializer.traverse_base(self)[0]
def _count_descendants(self, base: "Base", parsed: List) -> int:
if base in parsed:
return 0
parsed.append(base)
return sum(
self._handle_object_count(value, parsed)
for name, value in base.get_member_names()
if not name.startswith("@")
)
def _handle_object_count(self, obj: Any, parsed: List) -> int:
# pylint: disable=isinstance-second-argument-not-valid-type
count = 0
if obj is None:
return count
if isinstance(obj, "Base"):
count += 1
count += self._count_descendants(obj, parsed)
return count
elif isinstance(obj, list):
for item in obj:
if isinstance(item, "Base"):
count += 1
count += self._count_descendants(item, parsed)
else:
count += self._handle_object_count(item, parsed)
elif isinstance(obj, dict):
for _, value in obj.items():
if isinstance(value, "Base"):
count += 1
count += self._count_descendants(value, parsed)
else:
count += self._handle_object_count(value, parsed)
return count
Base.update_forward_refs()
class DataChunk(Base, speckle_type="Speckle.Core.Models.DataChunk"):
data: Union[List[Any], None] = None
def __init__(self) -> None:
super().__init__()
self.data = []
-131
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from enum import Enum
from typing import Any, Callable, Dict, List, Optional, Type
from specklepy.logging.exceptions import SpeckleException
from specklepy.objects.base import Base
class CurveTypeEncoding(int, Enum):
Arc = 0
Circle = 1
Curve = 2
Ellipse = 3
Line = 4
Polyline = 5
Polycurve = 6
@property
def object_class(self) -> Type:
from . import geometry
if self == self.Arc:
return geometry.Arc
elif self == self.Circle:
return geometry.Circle
elif self == self.Curve:
return geometry.Curve
elif self == self.Ellipse:
return geometry.Ellipse
elif self == self.Line:
return geometry.Line
elif self == self.Polyline:
return geometry.Polyline
elif self == self.Polycurve:
return geometry.Polycurve
raise SpeckleException(
f"No corresponding object class for CurveTypeEncoding: {self}"
)
def curve_from_list(args: List[float]):
curve_type = CurveTypeEncoding(args[0])
return curve_type.object_class.from_list(args)
class ObjectArray:
def __init__(self, data: Optional[list] = None) -> None:
self.data = data or []
@classmethod
def from_objects(cls, objects: List[Base]) -> "ObjectArray":
data_list = cls()
if not objects:
return data_list
speckle_type = objects[0].speckle_type
for obj in objects:
if speckle_type != obj.speckle_type:
raise SpeckleException(
"All objects in chunk should have the same speckle_type. "
f"Found {speckle_type} and {obj.speckle_type}"
)
data_list.encode_object(obj=obj)
return data_list
@staticmethod
def decode_data(
data: List[Any], decoder: Callable[[List[Any]], Base], **kwargs: Dict[str, Any]
) -> List[Base]:
bases: List[Base] = []
if not data:
return bases
index = 0
while index < len(data):
item_length = int(data[index])
item_start = index + 1
item_end = item_start + item_length
item_data = data[item_start:item_end]
index = item_end
decoded_data = decoder(item_data, **kwargs)
bases.append(decoded_data)
return bases
def decode(self, decoder: Callable[[List[Any]], Any], **kwargs: Dict[str, Any]):
return self.decode_data(data=self.data, decoder=decoder, **kwargs)
def encode_object(self, obj: Base):
encoded = obj.to_list()
encoded.insert(0, len(encoded))
self.data.extend(encoded)
class CurveArray(ObjectArray):
@classmethod
def from_curve(cls, curve: Base) -> "CurveArray":
crv_array = cls()
crv_array.data = curve.to_list()
return crv_array
@classmethod
def from_curves(cls, curves: List[Base]) -> "CurveArray":
data = []
for curve in curves:
curve_list = curve.to_list()
curve_list.insert(0, len(curve_list))
data.extend(curve_list)
crv_array = cls()
crv_array.data = data
return crv_array
@staticmethod
def curve_from_list(args: List[float]) -> Base:
curve_type = CurveTypeEncoding(args[0])
return curve_type.object_class.from_list(args)
@property
def type(self) -> CurveTypeEncoding:
return CurveTypeEncoding(self.data[0])
def to_curve(self) -> Base:
return self.type.object_class.from_list(self.data)
@classmethod
def _curve_decoder(cls, data: List[float]) -> Base:
crv_array = cls(data)
return crv_array.to_curve()
def to_curves(self) -> List[Base]:
return self.decode(decoder=self._curve_decoder)
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from enum import Enum
from typing import Any, List, Optional
from specklepy.objects_v2.base import Base
from specklepy.objects_v2.encoding import CurveArray, CurveTypeEncoding, ObjectArray
from specklepy.objects_v2.primitive import Interval
from specklepy.objects_v2.units import get_encoding_from_units, get_units_from_encoding
GEOMETRY = "Objects.Geometry."
class Point(Base, speckle_type=GEOMETRY + "Point"):
x: float = 0.0
y: float = 0.0
z: float = 0.0
def __repr__(self) -> str:
return (
f"{self.__class__.__name__}(x: {self.x}, y: {self.y}, z: {self.z}, id:"
f" {self.id}, speckle_type: {self.speckle_type})"
)
@classmethod
def from_list(cls, args: List[float]) -> "Point":
"""
Create a new Point from a list of three floats
representing the x, y, and z coordinates
"""
return cls(x=args[0], y=args[1], z=args[2])
def to_list(self) -> List[Any]:
return [self.x, self.y, self.z]
@classmethod
def from_coords(cls, x: float = 0.0, y: float = 0.0, z: float = 0.0):
"""Create a new Point from x, y, and z values"""
pt = Point()
pt.x, pt.y, pt.z = x, y, z
return pt
class Pointcloud(
Base,
speckle_type=GEOMETRY + "Pointcloud",
chunkable={"points": 31250, "colors": 62500, "sizes": 62500},
):
points: Optional[List[float]] = None
colors: Optional[List[int]] = None
sizes: Optional[List[float]] = None
bbox: Optional["Box"] = None
class Vector(Base, speckle_type=GEOMETRY + "Vector"):
x: float = 0.0
y: float = 0.0
z: float = 0.0
applicationId: Optional[str] = None
def __repr__(self) -> str:
return (
f"{self.__class__.__name__} "
"(x: {self.x}, y: {self.y}, z: {self.z}, id: {self.id}, "
"speckle_type: {self.speckle_type})"
)
@classmethod
def from_list(cls, args: List[float]) -> "Vector":
"""
Create from a list of three floats representing the x, y, and z coordinates.
"""
return cls(x=args[0], y=args[1], z=args[2])
def to_list(self) -> List[float]:
return [self.x, self.y, self.z]
@classmethod
def from_coords(cls, x: float = 0.0, y: float = 0.0, z: float = 0.0) -> "Vector":
"""Create a new Point from x, y, and z values"""
v = Vector()
v.x, v.y, v.z = x, y, z
return v
class ControlPoint(Point, speckle_type=GEOMETRY + "ControlPoint"):
weight: Optional[float] = None
class Plane(Base, speckle_type=GEOMETRY + "Plane"):
origin: Point = Point()
normal: Vector = Vector()
xdir: Vector = Vector()
ydir: Vector = Vector()
@classmethod
def from_list(cls, args: List[Any]) -> "Plane":
return cls(
origin=Point.from_list(args[:3]),
normal=Vector.from_list(args[3:6]),
xdir=Vector.from_list(args[6:9]),
ydir=Vector.from_list(args[9:12]),
units=get_units_from_encoding(args[-1]),
)
def to_list(self) -> List[Any]:
return [
*self.origin.to_list(),
*self.normal.to_list(),
*self.xdir.to_list(),
*self.ydir.to_list(),
get_encoding_from_units(self._units),
]
class Box(Base, speckle_type=GEOMETRY + "Box"):
basePlane: Plane = Plane()
xSize: Interval = Interval()
ySize: Interval = Interval()
zSize: Interval = Interval()
area: Optional[float] = None
volume: Optional[float] = None
class Line(Base, speckle_type=GEOMETRY + "Line"):
start: Point = Point()
end: Optional[Point] = None
domain: Optional[Interval] = None
bbox: Optional[Box] = None
length: Optional[float] = None
@classmethod
def from_list(cls, args: List[Any]) -> "Line":
return cls(
start=Point.from_list(args[1:4]),
end=Point.from_list(args[4:7]),
domain=Interval.from_list(args[7:10]),
units=get_units_from_encoding(args[-1]),
)
def to_list(self) -> List[Any]:
domain = self.domain.to_list() if self.domain else [0, 1]
return [
CurveTypeEncoding.Line.value,
*self.start.to_list(),
*self.end.to_list(),
*domain,
get_encoding_from_units(self._units),
]
class Arc(Base, speckle_type=GEOMETRY + "Arc"):
radius: Optional[float] = None
startAngle: Optional[float] = None
endAngle: Optional[float] = None
angleRadians: Optional[float] = None
plane: Optional[Plane] = None
domain: Optional[Interval] = None
startPoint: Optional[Point] = None
midPoint: Optional[Point] = None
endPoint: Optional[Point] = None
bbox: Optional[Box] = None
area: Optional[float] = None
length: Optional[float] = None
@classmethod
def from_list(cls, args: List[Any]) -> "Arc":
return cls(
radius=args[1],
startAngle=args[2],
endAngle=args[3],
angleRadians=args[4],
domain=Interval.from_list(args[5:7]),
plane=Plane.from_list(args[7:20]),
startPoint=Point.from_list(args[20:23]),
midPoint=Point.from_list(args[23:26]),
endPoint=Point.from_list(args[26:29]),
units=get_units_from_encoding(args[-1]),
)
def to_list(self) -> List[Any]:
return [
CurveTypeEncoding.Arc.value,
self.radius,
self.startAngle,
self.endAngle,
self.angleRadians,
*self.domain.to_list(),
*self.plane.to_list(),
*self.startPoint.to_list(),
*self.midPoint.to_list(),
*self.endPoint.to_list(),
get_encoding_from_units(self._units),
]
class Circle(Base, speckle_type=GEOMETRY + "Circle"):
radius: Optional[float] = None
plane: Optional[Plane] = None
domain: Optional[Interval] = None
bbox: Optional[Box] = None
area: Optional[float] = None
length: Optional[float] = None
@classmethod
def from_list(cls, args: List[Any]) -> "Circle":
return cls(
radius=args[1],
domain=Interval.from_list(args[2:4]),
plane=Plane.from_list(args[4:17]),
units=get_units_from_encoding(args[-1]),
)
def to_list(self) -> List[Any]:
return [
CurveTypeEncoding.Circle.value,
self.radius,
*self.domain.to_list(),
*self.plane.to_list(),
get_encoding_from_units(self._units),
]
class Ellipse(Base, speckle_type=GEOMETRY + "Ellipse"):
firstRadius: Optional[float] = None
secondRadius: Optional[float] = None
plane: Optional[Plane] = None
domain: Optional[Interval] = None
trimDomain: Optional[Interval] = None
bbox: Optional[Box] = None
area: Optional[float] = None
length: Optional[float] = None
@classmethod
def from_list(cls, args: List[Any]) -> "Ellipse":
return cls(
firstRadius=args[1],
secondRadius=args[2],
domain=Interval.from_list(args[3:5]),
plane=Plane.from_list(args[5:18]),
units=get_units_from_encoding(args[-1]),
)
def to_list(self) -> List[Any]:
return [
CurveTypeEncoding.Ellipse.value,
self.firstRadius,
self.secondRadius,
*self.domain.to_list(),
*self.plane.to_list(),
get_encoding_from_units(self._units),
]
class Polyline(Base, speckle_type=GEOMETRY + "Polyline", chunkable={"value": 20000}):
value: Optional[List[float]] = None
closed: Optional[bool] = None
domain: Optional[Interval] = None
bbox: Optional[Box] = None
area: Optional[float] = None
length: Optional[float] = None
@classmethod
def from_points(cls, points: List[Point]):
"""Create a new Polyline from a list of Points"""
polyline = cls()
polyline.units = points[0].units
polyline.value = []
for point in points:
polyline.value.extend([point.x, point.y, point.z])
return polyline
@classmethod
def from_list(cls, args: List[Any]) -> "Polyline":
point_count = args[4]
return cls(
closed=bool(args[1]),
domain=Interval.from_list(args[2:4]),
value=args[5 : 5 + point_count],
units=get_units_from_encoding(args[-1]),
)
def to_list(self) -> List[Any]:
return [
CurveTypeEncoding.Polyline.value,
int(self.closed),
*self.domain.to_list(),
len(self.value),
*self.value,
get_encoding_from_units(self._units),
]
def as_points(self) -> List[Point]:
"""Converts the `value` attribute to a list of Points"""
if not self.value:
return
if len(self.value) % 3:
raise ValueError("Points array malformed: length%3 != 0.")
values = iter(self.value)
return [
Point(x=v, y=next(values), z=next(values), units=self.units) for v in values
]
class SpiralType(Enum):
Biquadratic = 0
BiquadraticParabola = 1
Bloss = 2
Clothoid = 3
Cosine = 4
Cubic = 5
CubicParabola = 6
Radioid = 7
Sinusoid = 8
Unknown = 9
class Spiral(Base, speckle_type=GEOMETRY + "Spiral", detachable={"displayValue"}):
startPoint: Optional[Point] = None
endPoint: Optional[Point]
plane: Optional[Plane]
turns: Optional[float]
pitchAxis: Optional[Vector] = Vector()
pitch: float = 0
spiralType: Optional[SpiralType] = None
displayValue: Optional[Polyline] = None
bbox: Optional[Box] = None
length: Optional[float] = None
domain: Optional[Interval] = None
class Curve(
Base,
speckle_type=GEOMETRY + "Curve",
chunkable={"points": 20000, "weights": 20000, "knots": 20000},
):
degree: Optional[int] = None
periodic: Optional[bool] = None
rational: Optional[bool] = None
points: Optional[List[float]] = None
weights: Optional[List[float]] = None
knots: Optional[List[float]] = None
domain: Optional[Interval] = None
displayValue: Optional[Polyline] = None
closed: Optional[bool] = None
bbox: Optional[Box] = None
area: Optional[float] = None
length: Optional[float] = None
def as_points(self) -> List[Point]:
"""Converts the `value` attribute to a list of Points"""
if not self.points:
return
if len(self.points) % 3:
raise ValueError("Points array malformed: length%3 != 0.")
values = iter(self.points)
return [
Point(x=v, y=next(values), z=next(values), units=self.units) for v in values
]
@classmethod
def from_list(cls, args: List[Any]) -> "Curve":
point_count = int(args[7])
weights_count = int(args[8])
knots_count = int(args[9])
points_start = 10
weights_start = 10 + point_count
knots_start = weights_start + weights_count
knots_end = knots_start + knots_count
return cls(
degree=int(args[1]),
periodic=bool(args[2]),
rational=bool(args[3]),
closed=bool(args[4]),
domain=Interval.from_list(args[5:7]),
points=args[points_start:weights_start],
weights=args[weights_start:knots_start],
knots=args[knots_start:knots_end],
units=get_units_from_encoding(args[-1]),
)
def to_list(self) -> List[Any]:
return [
CurveTypeEncoding.Curve.value,
self.degree,
int(self.periodic),
int(self.rational),
int(self.closed),
*self.domain.to_list(),
len(self.points),
len(self.weights),
len(self.knots),
*self.points,
*self.weights,
*self.knots,
get_encoding_from_units(self._units),
]
class Polycurve(Base, speckle_type=GEOMETRY + "Polycurve"):
segments: Optional[List[Base]] = None
domain: Optional[Interval] = None
closed: Optional[bool] = None
bbox: Optional[Box] = None
area: Optional[float] = None
length: Optional[float] = None
@classmethod
def from_list(cls, args: List[Any]) -> "Polycurve":
curve_arrays = CurveArray(args[5:-1])
return cls(
closed=bool(args[1]),
domain=Interval.from_list(args[2:4]),
segments=curve_arrays.to_curves(),
units=get_units_from_encoding(args[-1]),
)
def to_list(self) -> List[Any]:
curve_array = CurveArray.from_curves(self.segments).data
return [
CurveTypeEncoding.Polycurve.value,
int(self.closed),
*self.domain.to_list(),
len(curve_array),
*curve_array,
get_encoding_from_units(self._units),
]
class Extrusion(Base, speckle_type=GEOMETRY + "Extrusion"):
capped: Optional[bool] = None
profile: Optional[Base] = None
pathStart: Optional[Point] = None
pathEnd: Optional[Point] = None
pathCurve: Optional[Base] = None
pathTangent: Optional[Base] = None
profiles: Optional[List[Base]] = None
length: Optional[float] = None
area: Optional[float] = None
volume: Optional[float] = None
bbox: Optional[Box] = None
class Mesh(
Base,
speckle_type=GEOMETRY + "Mesh",
chunkable={
"vertices": 2000,
"faces": 2000,
"colors": 2000,
"textureCoordinates": 2000,
},
):
vertices: Optional[List[float]] = None
faces: Optional[List[int]] = None
colors: Optional[List[int]] = None
textureCoordinates: Optional[List[float]] = None
bbox: Optional[Box] = None
area: Optional[float] = None
volume: Optional[float] = None
@classmethod
def create(
cls,
vertices: List[float],
faces: List[int],
colors: Optional[List[int]] = None,
texture_coordinates: Optional[List[float]] = None,
) -> "Mesh":
"""
Create a new Mesh from lists representing its vertices, faces,
colors (optional), and texture coordinates (optional).
This will initialise empty lists for colors and texture coordinates
if you do not provide any.
"""
return cls(
vertices=vertices,
faces=faces,
colors=colors or [],
textureCoordinates=texture_coordinates or [],
)
class Surface(Base, speckle_type=GEOMETRY + "Surface"):
degreeU: Optional[int] = None
degreeV: Optional[int] = None
rational: Optional[bool] = None
area: Optional[float] = None
pointData: Optional[List[float]] = None
countU: Optional[int] = None
countV: Optional[int] = None
bbox: Optional[Box] = None
closedU: Optional[bool] = None
closedV: Optional[bool] = None
domainU: Optional[Interval] = None
domainV: Optional[Interval] = None
knotsU: Optional[List[float]] = None
knotsV: Optional[List[float]] = None
@classmethod
def from_list(cls, args: List[Any]) -> "Surface":
point_count = int(args[11])
knots_u_count = int(args[12])
knots_v_count = int(args[13])
start_point_data = 14
start_knots_u = start_point_data + point_count
start_knots_v = start_knots_u + knots_u_count
return cls(
degreeU=int(args[0]),
degreeV=int(args[1]),
countU=int(args[2]),
countV=int(args[3]),
rational=bool(args[4]),
closedU=bool(args[5]),
closedV=bool(args[6]),
domainU=Interval(start=args[7], end=args[8]),
domainV=Interval(start=args[9], end=args[10]),
pointData=args[start_point_data:start_knots_u],
knotsU=args[start_knots_u:start_knots_v],
knotsV=args[start_knots_v : start_knots_v + knots_v_count],
units=get_units_from_encoding(args[-1]),
)
def to_list(self) -> List[Any]:
return [
self.degreeU,
self.degreeV,
self.countU,
self.countV,
int(self.rational),
int(self.closedU),
int(self.closedV),
*self.domainU.to_list(),
*self.domainV.to_list(),
len(self.pointData),
len(self.knotsU),
len(self.knotsV),
*self.pointData,
*self.knotsU,
*self.knotsV,
get_encoding_from_units(self._units),
]
class BrepFace(Base, speckle_type=GEOMETRY + "BrepFace"):
_Brep: Optional["Brep"] = None
SurfaceIndex: Optional[int] = None
OuterLoopIndex: Optional[int] = None
OrientationReversed: Optional[bool] = None
LoopIndices: Optional[List[int]] = None
@property
def _outer_loop(self):
return self._Brep.Loops[self.OuterLoopIndex] # pylint: disable=no-member
@property
def _surface(self):
return self._Brep.Surfaces[self.SurfaceIndex] # pylint: disable=no-member
@property
def _loops(self):
if self.LoopIndices:
# pylint: disable=not-an-iterable, no-member
return [self._Brep.Loops[i] for i in self.LoopIndices]
@classmethod
def from_list(cls, args: List[Any], brep: "Brep" = None) -> "BrepFace":
return cls(
_Brep=brep,
SurfaceIndex=args[0],
OuterLoopIndex=args[1],
OrientationReversed=bool(args[2]),
LoopIndices=args[3:],
)
def to_list(self) -> List[Any]:
return [
self.SurfaceIndex,
self.OuterLoopIndex,
int(self.OrientationReversed),
*self.LoopIndices,
]
class BrepEdge(Base, speckle_type=GEOMETRY + "BrepEdge"):
_Brep: Optional["Brep"] = None
Curve3dIndex: Optional[int] = None
TrimIndices: Optional[List[int]] = None
StartIndex: Optional[int] = None
EndIndex: Optional[int] = None
ProxyCurveIsReversed: Optional[bool] = None
Domain: Optional[Interval] = None
@property
def _start_vertex(self):
return self._Brep.Vertices[self.StartIndex]
@property
def _end_vertex(self):
return self._Brep.Vertices[self.EndIndex]
@property
def _trims(self):
if self.TrimIndices:
# pylint: disable=not-an-iterable
return [self._Brep.Trims[i] for i in self.TrimIndices]
@property
def _curve(self):
return self._Brep.Curve3D[self.Curve3dIndex]
@classmethod
def from_list(cls, args: List[Any], brep: "Brep" = None) -> "BrepEdge":
domain_start = args[4]
domain_end = args[5]
domain = (
Interval(start=domain_start, end=domain_end)
if None not in (domain_start, domain_end)
else None
)
return cls(
_Brep=brep,
Curve3dIndex=int(args[0]),
TrimIndices=[int(t) for t in args[6:]],
StartIndex=int(args[1]),
EndIndex=int(args[2]),
ProxyCurveIsReversed=bool(args[3]),
Domain=domain,
)
def to_list(self) -> List[Any]:
return [
self.Curve3dIndex,
self.StartIndex,
self.EndIndex,
int(self.ProxyCurveIsReversed),
self.Domain.start,
self.Domain.end,
*self.TrimIndices,
]
class BrepLoopType(int, Enum):
Unknown = 0
Outer = 1
Inner = 2
Slit = 3
CurveOnSurface = 4
PointOnSurface = 5
class BrepLoop(Base, speckle_type=GEOMETRY + "BrepLoop"):
_Brep: Optional["Brep"] = None
FaceIndex: Optional[Optional[int]] = None
TrimIndices: Optional[List[int]] = None
Type: Optional[BrepLoopType] = None
@property
def _face(self):
return self._Brep.Faces[self.FaceIndex]
@property
def _trims(self):
if self.TrimIndices:
# pylint: disable=not-an-iterable
return [self._Brep.Trims[i] for i in self.TrimIndices]
@classmethod
def from_list(cls, args: List[any], brep: "Brep" = None):
return cls(
_Brep=brep,
FaceIndex=args[0],
Type=BrepLoopType(args[1]),
TrimIndices=args[2:],
)
def to_list(self) -> List[int]:
return [
self.FaceIndex,
self.Type.value,
*self.TrimIndices,
]
class BrepTrimType(int, Enum):
Unknown = 0
Boundary = 1
Mated = 2
Seam = 3
Singular = 4
CurveOnSurface = 5
PointOnSurface = 6
Slit = 7
class BrepTrim(Base, speckle_type=GEOMETRY + "BrepTrim"):
_Brep: Optional["Brep"] = None
EdgeIndex: Optional[int] = None
StartIndex: Optional[int] = None
EndIndex: Optional[int] = None
FaceIndex: Optional[int] = None
LoopIndex: Optional[int] = None
CurveIndex: Optional[int] = None
IsoStatus: Optional[int] = None
TrimType: Optional[BrepTrimType] = None
IsReversed: Optional[bool] = None
Domain: Optional[Interval] = None
@property
def _face(self):
if self._Brep:
return self._Brep.Faces[self.FaceIndex] # pylint: disable=no-member
@property
def _loop(self):
if self._Brep:
return self._Brep.Loops[self.LoopIndex] # pylint: disable=no-member
@property
def _edge(self):
if self._Brep:
# pylint: disable=no-member
return self._Brep.Edges[self.EdgeIndex] if self.EdgeIndex != -1 else None
@property
def _curve_2d(self):
if self._Brep:
return self._Brep.Curve2D[self.CurveIndex] # pylint: disable=no-member
@classmethod
def from_list(cls, args: List[Any], brep: "Brep" = None) -> "BrepTrim":
return cls(
_Brep=brep,
EdgeIndex=args[0],
StartIndex=args[1],
EndIndex=args[2],
FaceIndex=args[3],
LoopIndex=args[4],
CurveIndex=args[5],
IsoStatus=args[6],
TrimType=BrepTrimType(args[7]),
IsReversed=bool(args[8]),
)
def to_list(self) -> List[Any]:
return [
self.EdgeIndex,
self.StartIndex,
self.EndIndex,
self.FaceIndex,
self.LoopIndex,
self.CurveIndex,
self.IsoStatus,
self.TrimType.value,
int(self.IsReversed),
]
class Brep(
Base,
speckle_type=GEOMETRY + "Brep",
chunkable={
"SurfacesValue": 31250,
"Curve3DValues": 31250,
"Curve2DValues": 31250,
"VerticesValue": 31250,
"EdgesValue": 62500,
"LoopsValue": 62500,
"FacesValue": 62500,
"TrimsValue": 62500,
},
detachable={"displayValue"},
serialize_ignore={
"Surfaces",
"Curve3D",
"Curve2D",
"Vertices",
"Trims",
"Edges",
"Loops",
"Faces",
},
):
provenance: Optional[str] = None
bbox: Optional[Box] = None
area: Optional[float] = None
volume: Optional[float] = None
_displayValue: Optional[List[Mesh]] = None
Surfaces: Optional[List[Surface]] = None
Curve3D: Optional[List[Base]] = None
Curve2D: Optional[List[Base]] = None
Vertices: Optional[List[Point]] = None
Edges: Optional[List[BrepEdge]] = None
Loops: Optional[List[BrepLoop]] = None
Faces: Optional[List[BrepFace]] = None
Trims: Optional[List[BrepTrim]] = None
IsClosed: Optional[bool] = None
Orientation: Optional[int] = None
def _inject_self_into_children(self, children: Optional[List[Base]]) -> List[Base]:
if children is None:
return children
for child in children:
child._Brep = self # pylint: disable=protected-access
return children
# set as prop for now for backwards compatibility
@property
def displayValue(self) -> List[Mesh]:
return self._displayValue
@displayValue.setter
def displayValue(self, value):
if isinstance(value, Mesh):
self._displayValue = [value]
elif isinstance(value, list):
self._displayValue = value
@property
def EdgesValue(self) -> List[BrepEdge]:
return None if self.Edges is None else ObjectArray.from_objects(self.Edges).data
@EdgesValue.setter
def EdgesValue(self, value: List[float]):
if not value:
return
self.Edges = ObjectArray.decode_data(value, BrepEdge.from_list, brep=self)
@property
def LoopsValue(self) -> List[BrepLoop]:
return None if self.Loops is None else ObjectArray.from_objects(self.Loops).data
@LoopsValue.setter
def LoopsValue(self, value: List[int]):
if not value:
return
self.Loops = ObjectArray.decode_data(value, BrepLoop.from_list, brep=self)
@property
def FacesValue(self) -> List[int]:
return None if self.Faces is None else ObjectArray.from_objects(self.Faces).data
@FacesValue.setter
def FacesValue(self, value: List[int]):
if not value:
return
self.Faces = ObjectArray.decode_data(value, BrepFace.from_list, brep=self)
@property
def SurfacesValue(self) -> List[float]:
return (
None
if self.Surfaces is None
else ObjectArray.from_objects(self.Surfaces).data
)
@SurfacesValue.setter
def SurfacesValue(self, value: List[float]):
if not value:
return
self.Surfaces = ObjectArray.decode_data(value, Surface.from_list)
@property
def Curve3DValues(self) -> List[float]:
return (
None if self.Curve3D is None else CurveArray.from_curves(self.Curve3D).data
)
@Curve3DValues.setter
def Curve3DValues(self, value: List[float]):
crv_array = CurveArray(value)
self.Curve3D = crv_array.to_curves()
@property
def Curve2DValues(self) -> List[Base]:
return (
None if self.Curve2D is None else CurveArray.from_curves(self.Curve2D).data
)
@Curve2DValues.setter
def Curve2DValues(self, value: List[float]):
crv_array = CurveArray(value)
self.Curve2D = crv_array.to_curves()
@property
def VerticesValue(self) -> List[Point]:
if self.Vertices is None:
return None
encoded_unit = get_encoding_from_units(self.Vertices[0].units)
values = [encoded_unit]
for vertex in self.Vertices:
values.extend(vertex.to_list())
return values
@VerticesValue.setter
def VerticesValue(self, value: List[float]):
value = value.copy()
units = get_units_from_encoding(value.pop(0))
vertices = []
for i in range(0, len(value), 3):
vertex = Point.from_list(value[i : i + 3])
vertex.units = units
vertices.append(vertex)
self.Vertices = vertices
# TODO: can this be consistent with loops, edges, faces, curves,
# etc and prepend with the chunk list? needs to happen in sharp first
@property
def TrimsValue(self) -> List[float]:
# return None if self.Trims is None else
# ObjectArray.from_objects(self.Trims).data
if not self.Trims:
return
value = []
for trim in self.Trims:
value.extend(trim.to_list())
return value
@TrimsValue.setter
def TrimsValue(self, value: List[float]):
if not value:
return
# self.Trims = ObjectArray.decode_data(value, BrepTrim.from_list, brep=self)
self.Trims = [
BrepTrim.from_list(value[i : i + 9], self) for i in range(0, len(value), 9)
]
BrepEdge.update_forward_refs()
BrepLoop.update_forward_refs()
BrepTrim.update_forward_refs()
BrepFace.update_forward_refs()
-311
View File
@@ -1,311 +0,0 @@
from typing import Any, List, Optional
from deprecated import deprecated
from specklepy.objects.geometry import Plane, Point, Polyline, Vector
from .base import Base
OTHER = "Objects.Other."
OTHER_REVIT = OTHER + "Revit."
IDENTITY_TRANSFORM = [
1.0,
0.0,
0.0,
0.0,
0.0,
1.0,
0.0,
0.0,
0.0,
0.0,
1.0,
0.0,
0.0,
0.0,
0.0,
1.0,
]
class Material(Base, speckle_type=OTHER + "Material"):
"""Generic class for materials containing generic parameters."""
name: Optional[str] = None
class RevitMaterial(Material, speckle_type="Objects.Other.Revit." + "RevitMaterial"):
materialCategory: Optional[str] = None
materialClass: Optional[str] = None
shininess: Optional[int] = None
smoothness: Optional[int] = None
transparency: Optional[int] = None
parameters: Optional[Base] = None
class RenderMaterial(Base, speckle_type=OTHER + "RenderMaterial"):
name: Optional[str] = None
opacity: float = 1
metalness: float = 0
roughness: float = 1
diffuse: int = -2894893 # light gray arbg
emissive: int = -16777216 # black arbg
class MaterialQuantity(Base, speckle_type=OTHER + "MaterialQuantity"):
material: Optional[Material] = None
volume: Optional[float] = None
area: Optional[float] = None
class DisplayStyle(Base, speckle_type=OTHER + "DisplayStyle"):
"""
Minimal display style class.
Developed primarily for display styles in Rhino and AutoCAD.
Rhino object attributes uses OpenNURBS definition for linetypes and lineweights.
"""
name: Optional[str] = None
color: int = -2894893 # light gray arbg
linetype: Optional[str] = None
lineweight: float = 0
class Text(Base, speckle_type=OTHER + "Text"):
"""
Text object to render it on viewer.
"""
plane: Plane
value: str
height: float
rotation: float
displayValue: Optional[List[Polyline]] = None
richText: Optional[str] = None
class Transform(
Base,
speckle_type=OTHER + "Transform",
serialize_ignore={"translation", "scaling", "is_identity", "value"},
):
"""The 4x4 transformation matrix
The 3x3 sub-matrix determines scaling.
The 4th column defines translation,
where the last value is a divisor (usually equal to 1).
"""
_value: Optional[List[float]] = None
@property
@deprecated(version="2.12", reason="Use matrix")
def value(self) -> List[float]:
return self._value
@value.setter
def value(self, value: List[float]) -> None:
self.matrix = value
@property
def matrix(self) -> List[float]:
"""The transform matrix represented as a flat list of 16 floats"""
return self._value
@matrix.setter
def matrix(self, value: List[float]) -> None:
try:
value = [float(x) for x in value]
except (ValueError, TypeError) as error:
raise ValueError(
"Could not create a Transform object with the requested value. Input"
f" must be a 16 element list of numbers. Value provided: {value}"
) from error
if len(value) != 16:
raise ValueError(
"Could not create a Transform object: input list should be 16 floats"
f" long, but was {len(value)} long"
)
self._value = value
@property
def translation(self) -> List[float]:
"""The final column of the matrix which defines the translation"""
return [self._value[i] for i in (3, 7, 11, 15)]
@property
def scaling(self) -> List[float]:
"""The 3x3 scaling sub-matrix"""
return [self._value[i] for i in (0, 1, 2, 4, 5, 6, 8, 9, 10)]
@property
def is_identity(self) -> bool:
return self._value == IDENTITY_TRANSFORM
def apply_to_point(self, point: Point) -> Point:
"""Transform a single speckle Point
Arguments:
point {Point} -- the speckle Point to transform
Returns:
Point -- a new transformed point
"""
coords = self.apply_to_point_value([point.x, point.y, point.z])
return Point(x=coords[0], y=coords[1], z=coords[2], units=point.units)
def apply_to_point_value(self, point_value: List[float]) -> List[float]:
"""Transform a list of three floats representing a point
Arguments:
point_value {List[float]} -- a list of 3 floats
Returns:
List[float] -- the list with the transform applied
"""
transformed = [
point_value[0] * self._value[i]
+ point_value[1] * self._value[i + 1]
+ point_value[2] * self._value[i + 2]
+ self._value[i + 3]
for i in range(0, 15, 4)
]
return [transformed[i] / transformed[3] for i in range(3)]
def apply_to_points(self, points: List[Point]) -> List[Point]:
"""Transform a list of speckle Points
Arguments:
points {List[Point]} -- the list of speckle Points to transform
Returns:
List[Point] -- a new list of transformed points
"""
return [self.apply_to_point(point) for point in points]
def apply_to_points_values(self, points_value: List[float]) -> List[float]:
"""Transform a list of speckle Points
Arguments:
points {List[float]}
-- a flat list of floats representing points to transform
Returns:
List[float] -- a new transformed list
"""
if len(points_value) % 3 != 0:
raise ValueError(
"Cannot apply transform as the points list is malformed: expected"
" length to be multiple of 3"
)
transformed = []
for i in range(0, len(points_value), 3):
transformed.extend(self.apply_to_point_value(points_value[i : i + 3]))
return transformed
def apply_to_vector(self, vector: Vector) -> Vector:
"""Transform a single speckle Vector
Arguments:
point {Vector} -- the speckle Vector to transform
Returns:
Vector -- a new transformed point
"""
coords = self.apply_to_vector_value([vector.x, vector.y, vector.z])
return Vector(x=coords[0], y=coords[1], z=coords[2], units=vector.units)
def apply_to_vector_value(self, vector_value: List[float]) -> List[float]:
"""Transform a list of three floats representing a vector
Arguments:
vector_value {List[float]} -- a list of 3 floats
Returns:
List[float] -- the list with the transform applied
"""
return [
vector_value[0] * self._value[i]
+ vector_value[1] * self._value[i + 1]
+ vector_value[2] * self._value[i + 2]
for i in range(0, 15, 4)
][:3]
@classmethod
def from_list(cls, value: Optional[List[float]] = None) -> "Transform":
"""Returns a Transform object from a list of 16 numbers.
If no value is provided, an identity transform will be returned.
Arguments:
value {List[float]} -- the matrix as a flat list of 16 numbers
(defaults to the identity transform)
Returns:
Transform -- a complete transform object
"""
if not value:
value = IDENTITY_TRANSFORM
return cls(value=value)
class BlockDefinition(
Base, speckle_type=OTHER + "BlockDefinition", detachable={"geometry"}
):
name: Optional[str] = None
basePoint: Optional[Point] = None
geometry: Optional[List[Base]] = None
class Instance(Base, speckle_type=OTHER + "Instance", detachable={"definition"}):
transform: Optional[Transform] = None
definition: Optional[Base] = None
class BlockInstance(
Instance, speckle_type=OTHER + "BlockInstance", serialize_ignore={"blockDefinition"}
):
@property
@deprecated(version="2.13", reason="Use definition")
def blockDefinition(self) -> Optional[BlockDefinition]:
if isinstance(self.definition, BlockDefinition):
return self.definition
return None
@blockDefinition.setter
def blockDefinition(self, value: Optional[BlockDefinition]) -> None:
self.definition = value
class RevitInstance(Instance, speckle_type=OTHER_REVIT + "RevitInstance"):
level: Optional[Base] = None
facingFlipped: bool
handFlipped: bool
parameters: Optional[Base] = None
elementId: Optional[str]
# TODO: prob move this into a built elements module, but just trialling this for now
class RevitParameter(Base, speckle_type="Objects.BuiltElements.Revit.Parameter"):
name: Optional[str] = None
value: Any = None
applicationUnitType: Optional[str] = None # eg UnitType UT_Length
applicationUnit: Optional[str] = None # DisplayUnitType eg DUT_MILLIMITERS
applicationInternalName: Optional[str] = (
None # BuiltInParameterName or GUID for shared parameter
)
isShared: bool = False
isReadOnly: bool = False
isTypeParameter: bool = False
class Collection(
Base, speckle_type="Speckle.Core.Models.Collection", detachable={"elements"}
):
name: Optional[str] = None
collectionType: Optional[str] = None
elements: Optional[List[Base]] = None
-25
View File
@@ -1,25 +0,0 @@
from typing import Any, List
from specklepy.objects.base import Base
NAMESPACE = "Objects.Primitive"
class Interval(Base, speckle_type=f"{NAMESPACE}.Interval"):
start: float = 0.0
end: float = 0.0
def length(self):
return abs(self.start - self.end)
@classmethod
def from_list(cls, args: List[Any]) -> "Interval":
return cls(start=args[0], end=args[1])
def to_list(self) -> List[Any]:
return [self.start, self.end]
class Interval2d(Base, speckle_type=f"{NAMESPACE}.Interval2d"):
u: Interval
v: Interval
@@ -1,142 +0,0 @@
"""Builtin Speckle object kit."""
from specklepy.objects.structural.analysis import (
Model,
ModelInfo,
ModelSettings,
ModelUnits,
)
from specklepy.objects.structural.axis import Axis, AxisType
from specklepy.objects.structural.geometry import (
Element1D,
Element2D,
Element3D,
ElementType1D,
ElementType2D,
ElementType3D,
Node,
Restraint,
)
from specklepy.objects.structural.loading import (
ActionType,
BeamLoadType,
CombinationType,
FaceLoadType,
Load,
LoadAxisType,
LoadBeam,
LoadCase,
LoadCombinations,
LoadDirection,
LoadDirection2D,
LoadFace,
LoadGravity,
LoadNode,
LoadType,
)
from specklepy.objects.structural.materials import (
Concrete,
MaterialType,
Steel,
StructuralMaterial,
Timber,
)
from specklepy.objects.structural.properties import (
BaseReferencePoint,
MemberType,
Property,
Property1D,
Property2D,
Property3D,
PropertyDamper,
PropertyMass,
PropertySpring,
PropertyType2D,
PropertyType3D,
PropertyTypeDamper,
PropertyTypeSpring,
ReferenceSurface,
ReferenceSurfaceEnum,
SectionProfile,
ShapeType,
shapeType,
)
from specklepy.objects.structural.results import (
Result,
Result1D,
Result2D,
Result3D,
ResultGlobal,
ResultNode,
ResultSet1D,
ResultSet2D,
ResultSet3D,
ResultSetAll,
ResultSetNode,
)
__all__ = [
"Element1D",
"Element2D",
"Element3D",
"ElementType1D",
"ElementType2D",
"ElementType3D",
"AxisType",
"Axis",
"Node",
"Restraint",
"Load",
"LoadType",
"ActionType",
"BeamLoadType",
"FaceLoadType",
"LoadDirection",
"LoadDirection2D",
"LoadAxisType",
"CombinationType",
"LoadBeam",
"LoadCase",
"LoadCombinations",
"LoadFace",
"LoadGravity",
"LoadNode",
"Model",
"ModelInfo",
"ModelSettings",
"ModelUnits",
"MaterialType",
"Concrete",
"StructuralMaterial",
"Steel",
"Timber",
"Property",
"Property1D",
"Property2D",
"Property3D",
"PropertyDamper",
"PropertyMass",
"PropertySpring",
"SectionProfile",
"MemberType",
"BaseReferencePoint",
"ReferenceSurface",
"PropertyType2D",
"PropertyType3D",
"ShapeType",
"PropertyTypeSpring",
"PropertyTypeDamper",
"ReferenceSurfaceEnum",
"shapeType",
"Result",
"Result1D",
"ResultSet1D",
"Result2D",
"ResultSet2D",
"Result3D",
"ResultSet3D",
"ResultGlobal",
"ResultSetNode",
"ResultNode",
"ResultSetAll",
]
@@ -1,49 +0,0 @@
from typing import List, Optional
from specklepy.objects.base import Base
STRUCTURAL_ANALYSIS = "Objects.Structural.Analysis."
class ModelUnits(Base, speckle_type=STRUCTURAL_ANALYSIS + "ModelUnits"):
length: Optional[str] = None
sections: Optional[str] = None
displacements: Optional[str] = None
stress: Optional[str] = None
force: Optional[str] = None
mass: Optional[str] = None
time: Optional[str] = None
temperature: Optional[str] = None
velocity: Optional[str] = None
acceleration: Optional[str] = None
energy: Optional[str] = None
angle: Optional[str] = None
strain: Optional[str] = None
class ModelSettings(Base, speckle_type=STRUCTURAL_ANALYSIS + "ModelSettings"):
modelUnits: Optional[ModelUnits] = None
steelCode: Optional[str] = None
concreteCode: Optional[str] = None
coincidenceTolerance: float = 0.0
class ModelInfo(Base, speckle_type=STRUCTURAL_ANALYSIS + "ModelInfo"):
name: Optional[str] = None
description: Optional[str] = None
projectNumber: Optional[str] = None
projectName: Optional[str] = None
settings: Optional[ModelSettings] = None
initials: Optional[str] = None
application: Optional[str] = None
class Model(Base, speckle_type=STRUCTURAL_ANALYSIS + "Model"):
specs: Optional[ModelInfo] = None
nodes: Optional[List] = None
elements: Optional[List] = None
loads: Optional[List] = None
restraints: Optional[List] = None
properties: Optional[List] = None
materials: Optional[List] = None
layerDescription: Optional[str] = None
@@ -1,17 +0,0 @@
from enum import Enum
from typing import Optional
from specklepy.objects.base import Base
from specklepy.objects.geometry import Plane
class AxisType(int, Enum):
Cartesian = 0
Cylindrical = 1
Spherical = 2
class Axis(Base, speckle_type="Objects.Structural.Geometry.Axis"):
name: Optional[str] = None
axisType: Optional[AxisType] = None
plane: Optional[Plane] = None
@@ -1,110 +0,0 @@
from enum import Enum
from typing import List, Optional
from specklepy.objects.base import Base
from specklepy.objects.geometry import Line, Mesh, Plane, Point, Vector
from specklepy.objects.structural.axis import Axis
from specklepy.objects.structural.properties import (
Property1D,
Property2D,
Property3D,
PropertyDamper,
PropertyMass,
PropertySpring,
)
STRUCTURAL_GEOMETRY = "Objects.Structural.Geometry"
class ElementType1D(int, Enum):
Beam = 0
Brace = 1
Bar = 2
Column = 3
Rod = 4
Spring = 5
Tie = 6
Strut = 7
Link = 8
Damper = 9
Cable = 10
Spacer = 11
Other = 12
Null = 13
class ElementType2D(int, Enum):
Quad4 = 0
Quad8 = 1
Triangle3 = 2
Triangle6 = 3
class ElementType3D(int, Enum):
Brick8 = 0
Wedge6 = 1
Pyramid5 = 2
Tetra4 = 3
class Restraint(Base, speckle_type=STRUCTURAL_GEOMETRY + ".Restraint"):
code: Optional[str] = None
stiffnessX: float = 0.0
stiffnessY: float = 0.0
stiffnessZ: float = 0.0
stiffnessXX: float = 0.0
stiffnessYY: float = 0.0
stiffnessZZ: float = 0.0
class Node(Base, speckle_type=STRUCTURAL_GEOMETRY + ".Node"):
name: Optional[str] = None
basePoint: Optional[Point] = None
constraintAxis: Optional[Axis] = None
restraint: Optional[Restraint] = None
springProperty: Optional[PropertySpring] = None
massProperty: Optional[PropertyMass] = None
damperProperty: Optional[PropertyDamper] = None
class Element1D(Base, speckle_type=STRUCTURAL_GEOMETRY + ".Element1D"):
name: Optional[str] = None
baseLine: Optional[Line] = None
property: Optional[Property1D] = None
type: Optional[ElementType1D] = None
end1Releases: Optional[Restraint] = None
end2Releases: Optional[Restraint] = None
end1Offset: Optional[Vector] = None
end2Offset: Optional[Vector] = None
orientationNode: Optional[Node] = None
orinetationAngle: float = 0.0
localAxis: Optional[Plane] = None
parent: Optional[Base] = None
end1Node: Optional[Node] = None
end2Node: Optional[Node] = None
topology: Optional[List] = None
displayMesh: Optional[Mesh] = None
class Element2D(Base, speckle_type=STRUCTURAL_GEOMETRY + ".Element2D"):
name: Optional[str] = None
property: Optional[Property2D] = None
type: Optional[ElementType2D] = None
offset: float = 0.0
orientationAngle: float = 0.0
parent: Optional[Base] = None
topology: Optional[List] = None
displayMesh: Optional[Mesh] = None
class Element3D(Base, speckle_type=STRUCTURAL_GEOMETRY + ".Element3D"):
name: Optional[str] = None
baseMesh: Optional[Mesh] = None
property: Optional[Property3D] = None
type: Optional[ElementType3D] = None
orientationAngle: float = 0.0
parent: Optional[Base] = None
topology: List
# class Storey needs ependency on built elements first
@@ -1,137 +0,0 @@
from enum import Enum
from typing import List, Optional
from specklepy.objects.base import Base
from specklepy.objects.geometry import Vector
from specklepy.objects.structural.axis import Axis
STRUCTURAL_LOADING = "Objects.Structural.Loading."
class LoadType(int, Enum):
none = 0
Dead = 1
SuperDead = 2
Soil = 3
Live = 4
LiveRoof = 5
ReducibleLive = 6
Wind = 7
Snow = 8
Rain = 9
Thermal = 10
Notional = 11
Prestress = 12
Equivalent = 13
Accidental = 14
SeismicRSA = 15
SeismicAccTorsion = 16
SeismicStatic = 17
Other = 18
class ActionType(int, Enum):
none = 0
Permanent = 1
Variable = 2
Accidental = 3
class BeamLoadType(int, Enum):
Point = 0
Uniform = 1
Linear = 2
Patch = 3
TriLinear = 4
class FaceLoadType(int, Enum):
Constant = 0
Variable = 1
Point = 2
class LoadDirection2D(int, Enum):
X = 0
Y = 1
Z = 2
class LoadDirection(int, Enum):
X = 0
Y = 1
Z = 2
XX = 3
YY = 4
ZZ = 5
class LoadAxisType(int, Enum):
Global = 0
Local = 1 # local element axes
DeformedLocal = (
2 # element local axis that is embedded in the element as it deforms
)
class CombinationType(int, Enum):
LinearAdd = 0
Envelope = 1
AbsoluteAdd = 2
SRSS = 3
RangeAdd = 4
class LoadCase(Base, speckle_type=STRUCTURAL_LOADING + "LoadCase"):
name: Optional[str] = None
loadType: Optional[LoadType] = None
group: Optional[str] = None
actionType: Optional[ActionType] = None
description: Optional[str] = None
class Load(Base, speckle_type=STRUCTURAL_LOADING + "Load"):
name: Optional[str] = None
loadCase: Optional[LoadCase] = None
class LoadBeam(Load, speckle_type=STRUCTURAL_LOADING + "LoadBeam"):
elements: Optional[List] = None
loadType: Optional[BeamLoadType] = None
direction: Optional[LoadDirection] = None
loadAxis: Optional[Axis] = None
loadAxisType: Optional[LoadAxisType] = None
isProjected: Optional[bool] = None
values: Optional[List] = None
positions: Optional[List] = None
class LoadCombinations(Base, speckle_type=STRUCTURAL_LOADING + "LoadCombination"):
name: Optional[str] = None
loadCases: List
loadFactors: List
combinationType: CombinationType
class LoadFace(Load, speckle_type=STRUCTURAL_LOADING + "LoadFace"):
elements: Optional[List] = None
loadType: Optional[FaceLoadType] = None
direction: Optional[LoadDirection2D] = None
loadAxis: Optional[Axis] = None
loadAxisType: Optional[LoadAxisType] = None
isProjected: Optional[bool] = None
values: Optional[List] = None
positions: Optional[List] = None
class LoadGravity(Load, speckle_type=STRUCTURAL_LOADING + "LoadGravity"):
elements: Optional[List] = None
nodes: Optional[List] = None
gravityFactors: Optional[Vector] = None
class LoadNode(Load, speckle_type=STRUCTURAL_LOADING + "LoadNode"):
nodes: Optional[List] = None
loadAxis: Optional[Axis] = None
direction: Optional[LoadDirection] = None
value: float = 0.0
@@ -1,61 +0,0 @@
from enum import Enum
from typing import Optional
from specklepy.objects.base import Base
STRUCTURAL_MATERIALS = "Objects.Structural.Materials"
class MaterialType(int, Enum):
Concrete = 0
Steel = 1
Timber = 2
Aluminium = 3
Masonry = 4
FRP = 5
Glass = 6
Fabric = 7
Rebar = 8
Tendon = 9
ColdFormed = 10
Other = 11
class StructuralMaterial(
Base, speckle_type=STRUCTURAL_MATERIALS + ".StructuralMaterial"
):
name: Optional[str] = None
grade: Optional[str] = None
materialType: Optional[MaterialType] = None
designCode: Optional[str] = None
codeYear: Optional[str] = None
strength: float = 0.0
elasticModulus: float = 0.0
poissonsRatio: float = 0.0
shearModulus: float = 0.0
density: float = 0.0
thermalExpansivity: float = 0.0
dampingRatio: float = 0.0
cost: float = 0.0
materialSafetyFactor: float = 0.0
class Concrete(StructuralMaterial):
compressiveStrength: float = 0.0
tensileStrength: float = 0.0
flexuralStrength: float = 0.0
maxCompressiveStrain: float = 0.0
maxTensileStrain: float = 0.0
maxAggregateSize: float = 0.0
lightweight: Optional[bool] = None
class Steel(StructuralMaterial, speckle_type=STRUCTURAL_MATERIALS + ".Steel"):
yieldStrength: float = 0.0
ultimateStrength: float = 0.0
maxStrain: float = 0.0
strainHardeningModulus: float = 0.0
class Timber(StructuralMaterial, speckle_type=STRUCTURAL_MATERIALS + ".Timber"):
species: Optional[str] = None
@@ -1,212 +0,0 @@
from enum import Enum
from typing import Optional
from specklepy.objects.base import Base
from specklepy.objects.structural.axis import Axis
from specklepy.objects.structural.materials import StructuralMaterial
STRUCTURAL_PROPERTY = "Objects.Structural.Properties"
class MemberType(int, Enum):
Beam = 0
Column = 1
Generic1D = 2
Slab = 3
Wall = 4
Generic2D = 5
VoidCutter1D = 6
VoidCutter2D = 7
class BaseReferencePoint(int, Enum):
Centroid = 0
TopLeft = 1
TopCentre = 2
TopRight = 3
MidLeft = 4
MidRight = 5
BotLeft = 6
BotCentre = 7
BotRight = 8
class ReferenceSurface(int, Enum):
Top = 0
Middle = 1
Bottom = 2
class PropertyType2D(int, Enum):
Stress = 0
Fabric = 1
Plate = 2
Shell = 3
Curved = 4
Wall = 5
Strain = 6
Axi = 7
Load = 8
class PropertyType3D(int, Enum):
Solid = 0
Infinite = 1
class ShapeType(int, Enum):
Rectangular = 0
Circular = 1
I = 2 # noqa: E741
Tee = 3
Angle = 4
Channel = 5
Perimeter = 6
Box = 7
Catalogue = 8
Explicit = 9
Undefined = 10
class PropertyTypeSpring(int, Enum):
Axial = 0
Torsional = 1
General = 2
Matrix = 3
TensionOnly = 4
CompressionOnly = 5
Connector = 6
LockUp = 7
Gap = 8
Friction = 9
class PropertyTypeDamper(int, Enum):
Axial = 0
Torsional = 1
General = 2
class Property(Base, speckle_type=STRUCTURAL_PROPERTY):
name: Optional[str] = None
class SectionProfile(
Base, speckle_type=STRUCTURAL_PROPERTY + ".Profiles.SectionProfile"
):
name: Optional[str] = None
shapeType: Optional[ShapeType] = None
area: float = 0.0
Iyy: float = 0.0
Izz: float = 0.0
J: float = 0.0
Ky: float = 0.0
weight: float = 0.0
class Property1D(Property, speckle_type=STRUCTURAL_PROPERTY + ".Property1D"):
memberType: Optional[MemberType] = None
material: Optional[StructuralMaterial] = None
profile: Optional[SectionProfile] = None
referencePoint: Optional[BaseReferencePoint] = None
offsetY: float = 0.0
offsetZ: float = 0.0
class Property2D(Property, speckle_type=STRUCTURAL_PROPERTY + ".Property2D"):
type: Optional[PropertyType2D] = None
thickness: float = 0.0
material: Optional[StructuralMaterial] = None
orientationAxis: Optional[Axis] = None
refSurface: Optional[ReferenceSurface] = None
zOffset: float = 0.0
modifierInPlane: float = 0.0
modifierBending: float = 0.0
modifierShear: float = 0.0
modifierVolume: float = 0.0
class Property3D(Property, speckle_type=STRUCTURAL_PROPERTY + ".Property3D"):
type: Optional[PropertyType3D] = None
material: Optional[StructuralMaterial] = None
orientationAxis: Optional[Axis] = None
class PropertyDamper(Property, speckle_type=STRUCTURAL_PROPERTY + ".PropertyDamper"):
damperType: Optional[PropertyTypeDamper] = None
dampingX: float = 0.0
dampingY: float = 0.0
dampingZ: float = 0.0
dampingXX: float = 0.0
dampingYY: float = 0.0
dampingZZ: float = 0.0
class PropertyMass(Property, speckle_type=STRUCTURAL_PROPERTY + ".PropertyMass"):
mass: float = 0.0
inertiaXX: float = 0.0
inertiaYY: float = 0.0
inertiaZZ: float = 0.0
inertiaXY: float = 0.0
inertiaYZ: float = 0.0
inertiaZX: float = 0.0
massModified: Optional[bool] = None
massModifierX: float = 0.0
massModifierY: float = 0.0
massModifierZ: float = 0.0
class PropertySpring(Property, speckle_type=STRUCTURAL_PROPERTY + ".PropertySpring"):
springType: Optional[PropertyTypeSpring] = None
springCurveX: float = 0.0
stiffnessX: float = 0.0
springCurveY: float = 0.0
stiffnessY: float = 0.0
springCurveZ: float = 0.0
stiffnessZ: float = 0.0
springCurveXX: float = 0.0
stiffnessXX: float = 0.0
springCurveYY: float = 0.0
stiffnessYY: float = 0.0
springCurveZZ: float = 0.0
stiffnessZZ: float = 0.0
dampingRatio: float = 0.0
dampingX: float = 0.0
dampingY: float = 0.0
dampingZ: float = 0.0
dampingXX: float = 0.0
dampingYY: float = 0.0
dampingZZ: float = 0.0
matrix: float = 0.0
postiveLockup: float = 0.0
frictionCoefficient: float = 0.0
class ReferenceSurfaceEnum(int, Enum):
Concrete = 0
Steel = 1
Timber = 2
Aluminium = 3
Masonry = 4
FRP = 5
Glass = 6
Fabric = 7
Rebar = 8
Tendon = 9
ColdFormed = 10
Other = 11
class shapeType(int, Enum):
Concrete = 0
Steel = 1
Timber = 2
Aluminium = 3
Masonry = 4
FRP = 5
Glass = 6
Fabric = 7
Rebar = 8
Tendon = 9
ColdFormed = 10
Other = 11
@@ -1,172 +0,0 @@
from typing import List, Optional
from specklepy.objects.base import Base
from specklepy.objects.structural.analysis import Model
from specklepy.objects.structural.geometry import Element1D, Element2D, Element3D, Node
STRUCTURAL_RESULTS = "Objects.Structural.Results."
class Result(Base, speckle_type=STRUCTURAL_RESULTS + "Result"):
resultCase: Optional[Base] = None
permutation: Optional[str] = None
description: Optional[str] = None
class ResultSet1D(Result, speckle_type=STRUCTURAL_RESULTS + "ResultSet1D"):
results1D: List
class Result1D(Result, speckle_type=STRUCTURAL_RESULTS + "Result1D"):
element: Optional[Element1D] = None
position: Optional[float] = None
dispX: Optional[float] = None
dispY: Optional[float] = None
dispZ: Optional[float] = None
rotXX: Optional[float] = None
rotYY: Optional[float] = None
rotZZ: Optional[float] = None
forceX: Optional[float] = None
forceY: Optional[float] = None
forceZ: Optional[float] = None
momentXX: Optional[float] = None
momentYY: Optional[float] = None
momentZZ: Optional[float] = None
axialStress: Optional[float] = None
shearStressY: Optional[float] = None
shearStressZ: Optional[float] = None
bendingStressYPos: Optional[float] = None
bendingStressYNeg: Optional[float] = None
bendingStressZPos: Optional[float] = None
bendingStressZNeg: Optional[float] = None
combinedStressMax: Optional[float] = None
combinedStressMin: Optional[float] = None
class ResultSet2D(Result, speckle_type=STRUCTURAL_RESULTS + "ResultSet2D"):
results2D: List
class Result2D(Result, speckle_type=STRUCTURAL_RESULTS + "Result2D"):
element: Optional[Element2D] = None
position: List
dispX: Optional[float] = None
dispY: Optional[float] = None
dispZ: Optional[float] = None
forceXX: Optional[float] = None
forceYY: Optional[float] = None
forceXY: Optional[float] = None
momentXX: Optional[float] = None
momentYY: Optional[float] = None
momentXY: Optional[float] = None
shearX: Optional[float] = None
shearY: Optional[float] = None
stressTopXX: Optional[float] = None
stressTopYY: Optional[float] = None
stressTopZZ: Optional[float] = None
stressTopXY: Optional[float] = None
stressTopYZ: Optional[float] = None
stressTopZX: Optional[float] = None
stressMidXX: Optional[float] = None
stressMidYY: Optional[float] = None
stressMidZZ: Optional[float] = None
stressMidXY: Optional[float] = None
stressMidYZ: Optional[float] = None
stressMidZX: Optional[float] = None
stressBotXX: Optional[float] = None
stressBotYY: Optional[float] = None
stressBotZZ: Optional[float] = None
stressBotXY: Optional[float] = None
stressBotYZ: Optional[float] = None
stressBotZX: Optional[float] = None
class ResultSet3D(Result, speckle_type=STRUCTURAL_RESULTS + "ResultSet3D"):
results3D: List
class Result3D(Result, speckle_type=STRUCTURAL_RESULTS + "Result3D"):
element: Optional[Element3D] = None
position: List
dispX: Optional[float] = None
dispY: Optional[float] = None
dispZ: Optional[float] = None
stressXX: Optional[float] = None
stressYY: Optional[float] = None
stressZZ: Optional[float] = None
stressXY: Optional[float] = None
stressYZ: Optional[float] = None
stressZX: Optional[float] = None
class ResultGlobal(Result, speckle_type=STRUCTURAL_RESULTS + "ResultGlobal"):
model: Optional[Model] = None
loadX: Optional[float] = None
loadY: Optional[float] = None
loadZ: Optional[float] = None
loadXX: Optional[float] = None
loadYY: Optional[float] = None
loadZZ: Optional[float] = None
reactionX: Optional[float] = None
reactionY: Optional[float] = None
reactionZ: Optional[float] = None
reactionXX: Optional[float] = None
reactionYY: Optional[float] = None
reactionZZ: Optional[float] = None
mode: Optional[float] = None
frequency: Optional[float] = None
loadFactor: Optional[float] = None
modalStiffness: Optional[float] = None
modalGeoStiffness: Optional[float] = None
effMassX: Optional[float] = None
effMassY: Optional[float] = None
effMassZ: Optional[float] = None
effMassXX: Optional[float] = None
effMassYY: Optional[float] = None
effMassZZ: Optional[float] = None
class ResultSetNode(Result, speckle_type=STRUCTURAL_RESULTS + "ResultSetNode"):
resultsNode: List
class ResultNode(Result, speckle_type=STRUCTURAL_RESULTS + " ResultNode"):
node: Optional[Node] = None
dispX: Optional[float] = None
dispY: Optional[float] = None
dispZ: Optional[float] = None
rotXX: Optional[float] = None
rotYY: Optional[float] = None
rotZZ: Optional[float] = None
reactionX: Optional[float] = None
reactionY: Optional[float] = None
reactionZ: Optional[float] = None
reactionXX: Optional[float] = None
reactionYY: Optional[float] = None
reactionZZ: Optional[float] = None
constraintX: Optional[float] = None
constraintY: Optional[float] = None
constraintZ: Optional[float] = None
constraintXX: Optional[float] = None
constraintYY: Optional[float] = None
constraintZZ: Optional[float] = None
velX: Optional[float] = None
velY: Optional[float] = None
velZ: Optional[float] = None
velXX: Optional[float] = None
velYY: Optional[float] = None
velZZ: Optional[float] = None
accX: Optional[float] = None
accY: Optional[float] = None
accZ: Optional[float] = None
accXX: Optional[float] = None
accYY: Optional[float] = None
accZZ: Optional[float] = None
class ResultSetAll(Base, speckle_type=None):
resultSet1D: Optional[ResultSet1D] = None
resultSet2D: Optional[ResultSet2D] = None
resultSet3D: Optional[ResultSet3D] = None
resultsGlobal: Optional[ResultGlobal] = None
resultsNode: Optional[ResultSetNode] = None
-124
View File
@@ -1,124 +0,0 @@
from enum import Enum
from typing import Union
from specklepy.logging.exceptions import SpeckleException, SpeckleInvalidUnitException
__all__ = [
"Units",
"get_encoding_from_units",
"get_units_from_encoding",
"get_units_from_string",
]
class Units(Enum):
mm = "mm"
cm = "cm"
m = "m"
km = "km"
inches = "in"
feet = "ft"
yards = "yd"
miles = "mi"
none = "none"
UNITS_STRINGS = {
Units.mm: ["mm", "mil", "millimeters", "millimetres"],
Units.cm: ["cm", "centimetre", "centimeter", "centimetres", "centimeters"],
Units.m: ["m", "meter", "meters", "metre", "metres"],
Units.km: ["km", "kilometer", "kilometre", "kilometers", "kilometres"],
Units.inches: ["in", "inch", "inches"],
Units.feet: ["ft", "foot", "feet"],
Units.yards: ["yd", "yard", "yards"],
Units.miles: ["mi", "mile", "miles"],
Units.none: ["none", "null"],
}
UNITS_ENCODINGS = {
Units.none: 0,
None: 0,
Units.mm: 1,
Units.cm: 2,
Units.m: 3,
Units.km: 4,
Units.inches: 5,
Units.feet: 6,
Units.yards: 7,
Units.miles: 8,
}
UNIT_SCALE = {
Units.none: 1,
Units.mm: 0.001,
Units.cm: 0.01,
Units.m: 1.0,
Units.km: 1000.0,
Units.inches: 0.0254,
Units.feet: 0.3048,
Units.yards: 0.9144,
Units.miles: 1609.340,
}
"""Unit scaling factor to meters"""
def get_units_from_string(unit: str) -> Units:
if not isinstance(unit, str):
raise SpeckleInvalidUnitException(unit)
unit = str.lower(unit)
for name, alternates in UNITS_STRINGS.items():
if unit in alternates:
return name
raise SpeckleInvalidUnitException(unit)
def get_units_from_encoding(unit: int) -> Units:
for name, encoding in UNITS_ENCODINGS.items():
if unit == encoding:
return name or Units.none
raise SpeckleException(
message=(
f"Could not understand what unit {unit} is referring to."
f"Please enter a valid unit encoding (eg {UNITS_ENCODINGS})."
)
)
def get_encoding_from_units(unit: Union[Units, str, None]):
maybe_sanitized_unit = unit
if isinstance(unit, str):
for unit_enum, aliases in UNITS_STRINGS.items():
if unit in aliases:
maybe_sanitized_unit = unit_enum
try:
return UNITS_ENCODINGS[maybe_sanitized_unit]
except KeyError as e:
raise SpeckleException(
message=(
f"No encoding exists for unit {maybe_sanitized_unit}."
f"Please enter a valid unit to encode (eg {UNITS_ENCODINGS})."
)
) from e
def get_scale_factor_from_string(fromUnits: str, toUnits: str) -> float:
"""Returns a scalar to convert distance values from one unit system to another"""
return get_scale_factor(
get_units_from_string(fromUnits), get_units_from_string(toUnits)
)
def get_scale_factor(fromUnits: Units, toUnits: Units) -> float:
"""Returns a scalar to convert distance values from one unit system to another"""
return get_scale_factor_to_meters(fromUnits) / get_scale_factor_to_meters(toUnits)
def get_scale_factor_to_meters(fromUnits: Units) -> float:
"""Returns a scalar to convert distance values from one unit system to meters"""
if fromUnits not in UNIT_SCALE:
raise ValueError(f"Invalid units provided: {fromUnits}")
return UNIT_SCALE[fromUnits]
@@ -1,47 +0,0 @@
import pytest
from specklepy.api.models import Stream
from specklepy.objects import Base
from specklepy.objects.encoding import ObjectArray
from specklepy.serialization.base_object_serializer import BaseObjectSerializer
from specklepy.transports.sqlite import SQLiteTransport
class TestObject:
@pytest.fixture(scope="module")
def stream(self, client):
stream = Stream(
name="a sample stream for testing",
description="a stream created for testing",
isPublic=True,
)
stream.id = client.stream.create(
stream.name, stream.description, stream.isPublic
)
return stream
def test_object_create(self, client, stream, base):
transport = SQLiteTransport()
s = BaseObjectSerializer(write_transports=[transport], read_transport=transport)
_, base_dict = s.traverse_base(base)
obj_id = client.object.create(stream_id=stream.id, objects=[base_dict])[0]
assert isinstance(obj_id, str)
assert base_dict["@detach"]["speckle_type"] == "reference"
assert obj_id == base.get_id(True)
def test_object_get(self, client, stream, base):
fetched_base = client.object.get(
stream_id=stream.id, object_id=base.get_id(True)
)
assert isinstance(fetched_base, Base)
assert fetched_base.name == base.name
assert isinstance(fetched_base.vertices, list)
# assert fetched_base["@detach"]["speckle_type"] == "reference"
def test_object_array_decoder(self):
array = ObjectArray()
array.data = [5, 1, 1, 1, 1, 1, 4, 1, 1, 1, 1, 3, 1, 1, 1, 2, 1, 1, 1, 1]
assert array.decode(decoder=sum) == [5, 4, 3, 2, 1]
+5 -3
View File
@@ -12,7 +12,7 @@ from specklepy.core.api.inputs.version_inputs import CreateVersionInput
from specklepy.core.api.models import Stream, Version
from specklepy.logging import metrics
from specklepy.objects.base import Base
from specklepy.objects.fakemesh import FakeDirection, FakeMesh
from .fakemesh import FakeMesh, FakeDirection
from specklepy.objects.geometry import Point
from specklepy.transports.server.server import ServerTransport
@@ -44,7 +44,8 @@ def seed_user(host: str) -> Dict[str, str]:
if not r.ok:
raise Exception(f"Cannot seed user: {r.reason}")
redirect_url = urlparse(r.headers.get("location"))
access_code = parse_qs(redirect_url.query)["access_code"][0] # type: ignore
access_code = parse_qs(redirect_url.query)[
"access_code"][0] # type: ignore
r_tokens = requests.post(
url=f"http://{host}/auth/token",
@@ -113,7 +114,8 @@ def sample_stream(client: SpeckleClient) -> Stream:
description="a stream created for testing",
isPublic=True,
)
stream.id = client.stream.create(stream.name, stream.description, stream.isPublic)
stream.id = client.stream.create(
stream.name, stream.description, stream.isPublic)
return stream
@@ -3,7 +3,7 @@ from typing import List, Optional
from specklepy.objects.geometry import Point
from .base import Base
from specklepy.objects.base import Base
CHUNKABLE_PROPS = {
"vertices": 100,
+2 -2
View File
@@ -3,8 +3,8 @@ import json
import pytest
from specklepy.api import operations
from specklepy.objects import Base
from specklepy.objects.fakemesh import FakeMesh
from specklepy.objects.base import Base
from .fakemesh import FakeMesh
from specklepy.objects.geometry import Point
from specklepy.transports.memory import MemoryTransport
from specklepy.transports.server import ServerTransport
+2 -2
View File
@@ -6,8 +6,8 @@ import pytest
from specklepy.api import operations
from specklepy.logging.exceptions import SpeckleException, SpeckleInvalidUnitException
from specklepy.objects_v2.base import Base
from specklepy.objects_v2.units import Units
from specklepy.objects.base import Base
from specklepy.objects.models.units import Units
@pytest.mark.parametrize(
-523
View File
@@ -1,523 +0,0 @@
# pylint: disable=redefined-outer-name
import json
import pytest
from specklepy.api import operations
from specklepy.logging.exceptions import SpeckleException
from specklepy.objects.base import Base
from specklepy.objects_v2.encoding import CurveArray, ObjectArray
from specklepy.objects_v2.geometry import (
Arc,
Box,
Brep,
BrepEdge,
BrepFace,
BrepLoop,
BrepLoopType,
BrepTrim,
BrepTrimType,
Circle,
Curve,
Ellipse,
Interval,
Line,
Mesh,
Plane,
Point,
Polycurve,
Polyline,
Surface,
Vector,
)
from specklepy.objects_v2.units import Units
from specklepy.transports.memory import MemoryTransport
@pytest.fixture()
def interval():
return Interval(start=0, end=5)
@pytest.fixture()
def point():
return Point(x=1, y=10, z=0)
@pytest.fixture()
def vector():
return Vector(x=1, y=32, z=10)
@pytest.fixture()
def plane(point, vector):
return Plane(origin=point, normal=vector, xdir=vector, ydir=vector, units="m")
@pytest.fixture()
def box(plane, interval):
return Box(
basePlane=plane,
ySize=interval,
zSize=interval,
xSize=interval,
area=20.4,
volume=44.2,
)
@pytest.fixture()
def line(point, interval):
return Line(
start=point,
end=point,
domain=interval,
units="none",
# These attributes are not handled in C#
# bbox=None,
# length=None
)
@pytest.fixture()
def arc(plane, interval, point):
return Arc(
radius=2.3,
startAngle=22.1,
endAngle=44.5,
angleRadians=33,
plane=plane,
domain=interval,
units="m",
startPoint=point,
midPoint=point,
endPoint=point,
# These attributes are not handled in C#
# bbox=None,
# area=None,
# length=None,
)
@pytest.fixture()
def circle(plane, interval):
return Circle(
radius=22,
plane=plane,
domain=interval,
units="m",
# These attributes are not handled in C#
# bbox=None,
# area=None,
# length=None,
)
@pytest.fixture()
def ellipse(plane, interval):
return Ellipse(
firstRadius=34,
secondRadius=22,
plane=plane,
domain=interval,
units="m",
# These attributes are not handled in C#
# trimDomain=None,
# bbox=None,
# area=None,
# length=None,
)
@pytest.fixture()
def polyline(interval):
return Polyline(
value=[22, 44, 54.3, 99, 232, 21],
closed=True,
domain=interval,
units="m",
# These attributes are not handled in C#
# bbox=None,
# area=None,
# length=None,
)
@pytest.fixture()
def curve(interval):
return Curve(
degree=90,
periodic=True,
rational=False,
closed=True,
domain=interval,
points=[23, 21, 44, 43, 56, 76, 1, 3, 2],
weights=[23, 11, 23],
knots=[22, 45, 76, 11],
units="m",
# These attributes are not handled in C#
# displayValue=None,
# bbox=None,
# area=None,
# length=None,
)
@pytest.fixture()
def polycurve(interval, curve, polyline):
return Polycurve(
segments=[curve, polyline],
domain=interval,
closed=True,
units="m",
# These attributes are not handled in C#
# bbox=None,
# area=None,
# length=None
)
@pytest.fixture()
def mesh(box):
return Mesh(
vertices=[2, 1, 2, 4, 77.3, 5, 33, 4, 2],
faces=[1, 2, 3, 4, 5, 6, 7],
colors=[111, 222, 333, 444, 555, 666, 777],
bbox=box,
area=233,
volume=232.2,
)
@pytest.fixture()
def surface(interval):
return Surface(
degreeU=33,
degreeV=44,
rational=True,
pointData=[1, 2.2, 3, 4, 5, 6, 7, 8, 9],
countU=3,
countV=4,
closedU=True,
closedV=False,
domainU=interval,
domainV=interval,
knotsU=[1.1, 2.2, 3.3, 4.4],
knotsV=[9, 8, 7, 6, 5, 4.4],
units="m",
# These attributes are not handled in C#
# bbox=None,
# area=None,
)
@pytest.fixture()
def brep_face():
return BrepFace(
SurfaceIndex=3,
LoopIndices=[1, 2, 3, 4],
OuterLoopIndex=2,
OrientationReversed=False,
)
@pytest.fixture()
def brep_edge(interval):
return BrepEdge(
Curve3dIndex=2,
TrimIndices=[4, 5, 6, 7],
StartIndex=2,
EndIndex=6,
ProxyCurveIsReversed=True,
Domain=interval,
)
@pytest.fixture()
def brep_loop():
return BrepLoop(FaceIndex=5, TrimIndices=[3, 4, 5], Type=BrepLoopType.Unknown)
@pytest.fixture()
def brep_trim():
return BrepTrim(
EdgeIndex=3,
StartIndex=4,
EndIndex=6,
FaceIndex=1,
LoopIndex=4,
CurveIndex=7,
IsoStatus=6,
TrimType=BrepTrimType.Mated,
IsReversed=False,
# These attributes are not handled in C#
# Domain=None,
)
@pytest.fixture
def brep(
mesh,
box,
surface,
curve,
polyline,
circle,
point,
brep_edge,
brep_loop,
brep_trim,
brep_face,
):
return Brep(
provenance="pytest",
bbox=box,
area=32,
volume=54,
displayValue=mesh,
Surfaces=[surface, surface, surface],
Curve3D=[curve, polyline],
Curve2D=[circle],
Vertices=[point, point, point, point],
Edges=[brep_edge],
Loops=[brep_loop, brep_loop],
Trims=[brep_trim],
Faces=[brep_face, brep_face],
IsClosed=False,
Orientation=3,
)
@pytest.fixture
def geometry_objects_dict(
point,
vector,
plane,
line,
arc,
circle,
ellipse,
polyline,
curve,
polycurve,
surface,
brep_trim,
):
return {
"point": point,
"vector": vector,
"plane": plane,
"line": line,
"arc": arc,
"circle": circle,
"ellipse": ellipse,
"polyline": polyline,
"curve": curve,
"polycurve": polycurve,
"surface": surface,
"brep_trim": brep_trim,
}
@pytest.mark.parametrize(
"object_name",
[
"point",
"vector",
"plane",
"line",
"arc",
"circle",
"ellipse",
"polyline",
"curve",
"polycurve",
"surface",
"brep_trim",
],
)
def test_to_and_from_list(object_name: str, geometry_objects_dict):
obj = geometry_objects_dict[object_name]
assert hasattr(obj, "to_list")
assert hasattr(obj, "from_list")
chunks = obj.to_list()
assert isinstance(chunks, list)
object_class = obj.__class__
decoded_object: Base = object_class.from_list(chunks)
assert decoded_object.get_id() == obj.get_id()
def test_brep_surfaces_value_serialization(surface):
brep = Brep()
assert brep.Surfaces is None
assert brep.SurfacesValue is None
brep.Surfaces = [surface, surface]
assert brep.SurfacesValue == ObjectArray.from_objects([surface, surface]).data
brep.SurfacesValue = ObjectArray.from_objects([surface]).data
assert len(brep.Surfaces) == 1
assert brep.Surfaces[0].get_id() == surface.get_id()
def test_brep_curve2d_values_serialization(curve, polyline, circle):
brep = Brep()
assert brep.Curve2D is None
assert brep.Curve2DValues is None
brep.Curve2D = [curve, polyline]
assert brep.Curve2DValues == CurveArray.from_curves([curve, polyline]).data
brep.Curve2DValues = CurveArray.from_curves([circle]).data
assert len(brep.Curve2D) == 1
assert brep.Curve2D[0].get_id() == circle.get_id()
def test_brep_curve3d_values_serialization(curve, polyline, circle):
brep = Brep()
assert brep.Curve3D is None
assert brep.Curve3DValues is None
brep.Curve3D = [curve, polyline]
assert brep.Curve3DValues == CurveArray.from_curves([curve, polyline]).data
brep.Curve3DValues = CurveArray.from_curves([circle]).data
assert len(brep.Curve3D) == 1
assert brep.Curve3D[0].get_id() == circle.get_id()
def test_brep_vertices_values_serialization():
brep = Brep()
brep.VerticesValue = [1, 1, 1, 1, 2, 2, 2, 3, 3, 3]
assert brep.Vertices[0].get_id() == Point(x=1, y=1, z=1, units=Units.mm).get_id()
assert brep.Vertices[1].get_id() == Point(x=2, y=2, z=2, units=Units.mm).get_id()
assert brep.Vertices[2].get_id() == Point(x=3, y=3, z=3, units=Units.mm).get_id()
def test_trims_value_serialization():
brep = Brep()
brep.TrimsValue = [
0,
0,
0,
0,
0,
0,
1,
1,
0,
1,
0,
0,
0,
0,
1,
2,
1,
1,
]
assert (
brep.Trims[0].get_id()
== BrepTrim(
EdgeIndex=0,
StartIndex=0,
EndIndex=0,
FaceIndex=0,
LoopIndex=0,
CurveIndex=0,
IsoStatus=1,
TrimType=BrepTrimType.Boundary,
IsReversed=False,
).get_id()
)
assert (
brep.Trims[1].get_id()
== BrepTrim(
EdgeIndex=1,
StartIndex=0,
EndIndex=0,
FaceIndex=0,
LoopIndex=0,
CurveIndex=1,
IsoStatus=2,
TrimType=BrepTrimType.Boundary,
IsReversed=True,
).get_id()
)
def test_loops_value_serialization():
brep = Brep()
brep.LoopsValue = [6, 0, 1, 0, 1, 2, 3]
assert brep == brep.Loops[0]._Brep # pylint: disable=protected-access
assert (
brep.Loops[0].get_id()
== BrepLoop(
FaceIndex=0, Type=BrepLoopType(1), TrimIndices=[0, 1, 2, 3]
).get_id()
)
def test_edges_value_serialization():
brep = Brep()
brep.EdgesValue = [8, 0, 0, 1, 0, -8.13345756858629, 8.13345756858629, 1, 3]
assert brep == brep.Edges[0]._Brep # pylint: disable=protected-access
assert (
brep.Edges[0].get_id()
== BrepEdge(
Curve3dIndex=0,
StartIndex=0,
EndIndex=1,
ProxyCurveIsReversed=False,
Domain=Interval(start=-8.13345756858629, end=8.13345756858629),
TrimIndices=[1, 3],
).get_id()
)
def test_faces_value_serialization():
brep = Brep()
brep.FacesValue = [4, 0, 0, 1, 0]
assert brep == brep.Faces[0]._Brep # pylint: disable=protected-access
assert (
brep.Faces[0].get_id()
== BrepFace(
SurfaceIndex=0, OuterLoopIndex=0, OrientationReversed=True, LoopIndices=[0]
).get_id()
)
def test_serialized_brep_attributes(brep: Brep):
transport = MemoryTransport()
serialized = operations.serialize(brep, [transport])
serialized_dict = json.loads(serialized)
removed_keys = [
"Surfaces",
"Curve3D",
"Curve2D",
"Vertices",
"Trims",
"Loops",
"Edges",
"Faces",
]
for k in removed_keys:
assert k not in serialized_dict
def test_mesh_create():
vertices = [2, 1, 2, 4, 77.3, 5, 33, 4, 2]
faces = [1, 2, 3, 4, 5, 6, 7]
mesh = Mesh.create(vertices, faces)
with pytest.raises(SpeckleException):
bad_mesh = Mesh.create(vertices=7, faces=faces) # noqa: F841
assert mesh.vertices == vertices
assert mesh.textureCoordinates == []
+4 -3
View File
@@ -2,8 +2,8 @@ from dataclasses import dataclass
from typing import Dict, List, Optional
from unittest import TestCase
from specklepy.objects_v2 import Base
from specklepy.objects_v2.graph_traversal.traversal import GraphTraversal, TraversalRule
from specklepy.objects.base import Base
from specklepy.objects.graph_traversal.traversal import GraphTraversal, TraversalRule
@dataclass()
@@ -100,6 +100,7 @@ class GraphTraversalTests(TestCase):
for context in GraphTraversal([traverse_lists_rule]).traverse(test_case)
]
self.assertCountEqual(ret, [test_case, expected_traverse, expected_traverse])
self.assertCountEqual(
ret, [test_case, expected_traverse, expected_traverse])
self.assertNotIn(expected_ignore, ret)
self.assertEqual(len(ret), 3)
+1 -7
View File
@@ -2,8 +2,7 @@ from typing import Type
import pytest
from specklepy.objects_v2.base import Base
from specklepy.objects_v2.structural import Concrete
from specklepy.objects.base import Base
class Foo(Base):
@@ -28,10 +27,6 @@ class Baz(Bar):
Baz,
"Tests.Unit.TestRegisteringBase.Foo:Custom.Bar:Tests.Unit.TestRegisteringBase.Baz",
),
(
Concrete,
"Objects.Structural.Materials.StructuralMaterial:Objects.Structural.Materials.Concrete",
),
],
)
def test_determine_speckle_type(klass: Type[Base], speckle_type: str):
@@ -43,7 +38,6 @@ def test_determine_speckle_type(klass: Type[Base], speckle_type: str):
[
(Base, "Base"),
(Foo, "Tests.Unit.TestRegisteringBase.Foo"),
(Concrete, "Objects.Structural.Materials.Concrete"),
],
)
def test_full_name(klass: Type[Base], fully_qualified_name: str):
-143
View File
@@ -1,143 +0,0 @@
import pytest
from specklepy.objects_v2.geometry import Line, Mesh, Point, Vector
from specklepy.objects_v2.structural.analysis import Model
from specklepy.objects_v2.structural.geometry import (
Element1D,
Element2D,
ElementType1D,
ElementType2D,
Node,
Restraint,
)
from specklepy.objects_v2.structural.loading import LoadGravity
from specklepy.objects_v2.structural.materials import StructuralMaterial
from specklepy.objects_v2.structural.properties import (
MemberType,
Property1D,
Property2D,
SectionProfile,
ShapeType,
)
@pytest.fixture()
def point():
return Point(x=1, y=10, z=0)
@pytest.fixture()
def vector():
return Vector(x=0, y=0, z=-1)
@pytest.fixture()
def line(point, interval):
return Line(
start=point,
end=point,
domain=interval,
# These attributes are not handled in C#
# bbox=None,
# length=None
)
@pytest.fixture()
def mesh(box):
return Mesh(
vertices=[2, 1, 2, 4, 77.3, 5, 33, 4, 2],
faces=[1, 2, 3, 4, 5, 6, 7],
colors=[111, 222, 333, 444, 555, 666, 777],
bbox=box,
area=233,
volume=232.2,
)
@pytest.fixture()
def restraint():
return Restraint(code="FFFFFF")
@pytest.fixture()
def node(restraint, point):
return Node(basePoint=point, restraint=restraint, name="node1")
@pytest.fixture()
def material():
return StructuralMaterial(name="TestMaterial")
@pytest.fixture()
def memberType():
return MemberType(0)
@pytest.fixture()
def shapeType():
return ShapeType(8)
@pytest.fixture()
def sectionProfile(shapeType):
return SectionProfile(name="Test", shapeType=shapeType)
@pytest.fixture()
def property1D(memberType, sectionProfile, material):
return Property1D(
Material=material,
SectionProfile=sectionProfile,
memberType=memberType,
)
@pytest.fixture()
def elementType1D():
return ElementType1D(0)
@pytest.fixture()
def element1D(line, restraint, elementType1D, property1D):
return Element1D(
baseLine=line,
end1Releases=restraint,
end2Releases=restraint,
type=elementType1D,
property=property1D,
)
@pytest.fixture()
def property2D(material):
return Property2D(Material=material)
@pytest.fixture()
def elementType2D():
return ElementType2D(0)
@pytest.fixture()
def element2D(point, elementType2D):
return Element2D(
topology=[point],
type=elementType2D,
)
@pytest.fixture()
def loadGravity(element1D, element2D, vector):
return LoadGravity(elements=[element1D, element2D], gravityFactors=vector)
@pytest.fixture()
def model(loadGravity, element1D, element2D, material, property1D, property2D):
return Model(
loads=[loadGravity],
elements=[element1D, element2D],
materials=[material],
properties=[property1D, property2D],
)
-129
View File
@@ -1,129 +0,0 @@
from typing import List
import pytest
from specklepy.api import operations
from specklepy.objects_v2.geometry import Point, Vector
from specklepy.objects_v2.other import Transform
@pytest.fixture()
def point():
return Point(x=1, y=10, z=2)
@pytest.fixture()
def points():
return [Point(x=1 + i, y=10 + i, z=2 + i) for i in range(5)]
@pytest.fixture()
def point_value():
return [1, 10, 2]
@pytest.fixture()
def points_values():
coords = []
for i in range(5):
coords.extend([1 + i, 10 + i, 2 + 1])
return coords
@pytest.fixture()
def vector():
return Vector(x=1, y=10, z=2)
@pytest.fixture()
def vector_value():
return [1, 1, 2]
@pytest.fixture()
def transform():
"""Translates to [1, 2, 0] and scales z by 0.5"""
return Transform.from_list(
[
1.0,
0.0,
0.0,
1.0,
0.0,
1.0,
0.0,
2.0,
0.0,
0.0,
0.5,
0.0,
0.0,
0.0,
0.0,
1.0,
]
)
def test_point_transform(point: Point, transform: Transform):
new_point = transform.apply_to_point(point)
assert new_point.x == point.x + 1
assert new_point.y == point.y + 2
assert new_point.z == point.z * 0.5
def test_points_transform(points: List[Point], transform: Transform):
new_points = transform.apply_to_points(points)
for i, new_point in enumerate(new_points):
assert new_point.x == points[i].x + 1
assert new_point.y == points[i].y + 2
assert new_point.z == points[i].z * 0.5
def test_point_value_transform(point_value: List[float], transform: Transform):
new_coords = transform.apply_to_point_value(point_value)
assert new_coords[0] == point_value[0] + 1
assert new_coords[1] == point_value[1] + 2
assert new_coords[2] == point_value[2] * 0.5
def test_points_values_transform(points_values: List[float], transform: Transform):
new_coords = transform.apply_to_points_values(points_values)
for i in range(0, len(points_values), 3):
assert new_coords[i] == points_values[i] + 1
assert new_coords[i + 1] == points_values[i + 1] + 2
assert new_coords[i + 2] == points_values[i + 2] * 0.5
def test_vector_transform(vector: Vector, transform: Transform):
new_vector = transform.apply_to_vector(vector)
assert new_vector.x == vector.x
assert new_vector.y == vector.y
assert new_vector.z == vector.z * 0.5
def test_vector_value_transform(vector_value: List[float], transform: Transform):
new_coords = transform.apply_to_vector_value(vector_value)
assert new_coords[0] == vector_value[0]
assert new_coords[1] == vector_value[1]
assert new_coords[2] == vector_value[2] * 0.5
def test_transform_fails_with_malformed_value():
with pytest.raises(ValueError):
Transform.from_list("asdf")
with pytest.raises(ValueError):
Transform.from_list([7, 8, 9])
def test_transform_serialisation(transform: Transform):
serialized = operations.serialize(transform)
deserialized = operations.deserialize(serialized)
assert transform.get_id() == deserialized.get_id()
+3 -1
View File
@@ -1,9 +1,11 @@
from typing import List
from dataclasses import dataclass
from specklepy.objects_v2.base import Base
from specklepy.objects.base import Base
from specklepy.serialization.base_object_serializer import BaseObjectSerializer
@dataclass(kw_only=True)
class FakeBase(Base):
foo: List[str]
bar: int
+8 -5
View File
@@ -3,8 +3,8 @@ from typing import Any, Dict, List, Optional, Set, Tuple, Union
import pytest
from specklepy.objects_v2.base import Base, _validate_type
from specklepy.objects_v2.primitive import Interval
from specklepy.objects.base import Base, _validate_type
from specklepy.objects.primitive import Interval
test_base = Base()
@@ -87,7 +87,8 @@ fake_bases = [FakeBase("foo"), FakeBase("bar")]
(Tuple, (1, "foo", "bar"), True, (1, "foo", "bar")),
# given our current rules, this is the reality. Its just sad...
(Tuple[str, str, str], (1, "foo", "bar"), True, ("1", "foo", "bar")),
(Tuple[str, Optional[str], str], (1, None, "bar"), True, ("1", None, "bar")),
(Tuple[str, Optional[str], str],
(1, None, "bar"), True, ("1", None, "bar")),
(Set[bool], set([1, 2]), False, set([1, 2])),
(Set[int], set([1, 2]), True, set([1, 2])),
(Set[int], set([None, 2]), True, set([None, 2])),
@@ -99,7 +100,8 @@ fake_bases = [FakeBase("foo"), FakeBase("bar")]
(Optional[Union[List[int], List[FakeBase]]], None, True, None),
(Optional[Union[List[int], List[FakeBase]]], "foo", False, "foo"),
(Union[List[int], List[FakeBase], None], "foo", False, "foo"),
(Optional[Union[List[int], List[FakeBase]]], [1, 2, 3], True, [1, 2, 3]),
(Optional[Union[List[int], List[FakeBase]]],
[1, 2, 3], True, [1, 2, 3]),
(
Optional[Union[List[int], List[FakeBase]]],
fake_bases,
@@ -113,7 +115,8 @@ fake_bases = [FakeBase("foo"), FakeBase("bar")]
True,
{"foo": 1.0, "bar": 2.0},
),
(Union[float, Dict[str, float]], {"foo": "bar"}, False, {"foo": "bar"}),
(Union[float, Dict[str, float]], {
"foo": "bar"}, False, {"foo": "bar"}),
],
)
def test_validate_type(
+1 -1
View File
@@ -1,6 +1,6 @@
import pytest
from specklepy.objects_v2.units import Units, get_scale_factor
from specklepy.objects.models.units import Units, get_scale_factor
@pytest.mark.parametrize(