(&hTdZddlZddlmZddlZddlZddlmZddl m Z m Z ddl m Z ddlmZddlmZmZmZgd Zejd kZdd Zd Zd ZGddZGddZGddejZGddeZGddZGddeZ dS)aBase geometry class and utilities. Note: a third, z, coordinate value may be used when constructing geometry objects, but has no effect on geometric analysis. All operations are performed in the x-y plane. Thus, geometries with different z values may intersect or be equal. N)warn) _geom_factory)BufferCapStyleBufferJoinStyle)CoordinateSequence)deprecate_positional)GeometryTypeError GEOSExceptionShapelyDeprecationWarning)Point LineString LinearRingPolygon MultiPointMultiLineString MultiPolygonGeometryCollection) rcNtdtdt|S)aCreate a Shapely geometry instance from a pointer to a GEOS geometry. .. warning:: The GEOS library used to create the the GEOS geometry pointer and the GEOS library used by Shapely must be exactly the same, or unexpected results or segfaults may occur. .. deprecated:: 2.0 Deprecated in Shapely 2.0, and will be removed in a future version. zaThe 'geom_factory' function is deprecated in Shapely 2.0, and will be removed in a future version stacklevel)r FutureWarningr)gparents P/var/www/html/reinick/venv/lib/python3.11/site-packages/shapely/geometry/base.py geom_factoryr#s6  &    ct|tstd|jjz|jdvr|jddS|jdkr&|jjddd|jDzS|j ds |jdkrd|j DStd t|jz) zADump coordinates of a geometry in the same order as data packing.z,Must be instance of a geometry class; found )r r rNrc,g|]}|jddSN)coords).0is r zdump_coords..@s")N)N)N!!(111+)N)N)NrMultirc,g|]}t|S) dump_coords)r$parts rr&zdump_coords..Cs 999d D!!999rzUnhandled geometry type: ) isinstance BaseGeometry ValueError __class____name__ geom_typer#exterior interiors startswithgeomsr repr)geoms rr*r*7s dL ) ) T :T^=T T    @ @ @{111~ 9 $ $}#AAA&)N)Nt~)N)N)NNN  " "7 + +Tt~AU/U/U99dj9999 ;d4>>R>R RSSSrcD|jdkr|S|S)Nr)ndimitem)results r _maybe_unpackr<Hs$ {a{{}} rc<eZdZdZejZejZejZdS) CAP_STYLEzBuffer cap styles.N)r0 __module__ __qualname____doc__rroundflatsquarer)rrr>r>Qs,  E  D  "FFFrr>c<eZdZdZejZejZejZdS) JOIN_STYLEzBuffer join styles.N)r0r?r@rArrBmitrebevelr)rrrFrFYs,  !E  !E  !EEErrFc*eZdZdZgZdZedZdZdZ dZ fdZ dZ d Z d Zd Zd Zd ZedZedZedZdZedZedZedZedZdXdZdZedZedZdZdZedZ edZ!edZ"ed Z#ed!Z$d"Z%d#Z&ed$Z'ed%Z(ed&Z)ed'Z*e+gd(e,) dYd.Z-e+d/ge,)dZd1Z.d2Z/e+d3ge,)d[d5Z0e+d3ge,)d[d6Z1e+d3ge,)d[d7Z2e+d3ge,)d[d8Z3ed9Z4ed:Z5ed;Z6ed<Z7ed=Z8ed>Z9ed?Z:d@Z;dAZdDZ?dEZ@dFZAdGZBdHZCdIZDdJZEdKZFdLZGd\d-dNdOZHdPZIe+dQge,)d]dRZJe+dQge,)d]dSZKe+dQge,)d]dTZLe+dQge,)d]dUZMdVZNdWZOxZPS)^r-z[0-9]+))?(?P[fFgGxX]?)Nzinvalid format specifier: r)rG)rbtrim)fFF)rcrfz-hex representation does not specify precisionzunhandled fmt_code: ) rMto_wktto_wkblowerre fullmatchr.groupsintNotImplementedErrorisupperupper)rP format_specformat_spec_regexpmatchprecfmt_coderess r __format__zBaseGeometry.__format__s "  >$2>>> > C  >$D1117799 9 C  >$D111 1 &   /== =G+GGHH Hh  t99DDD H z ! !.$TJJJCC  # #.$UKKKCC  # #LMM M%&GX&G&GHH H      99;; Jrc t}n'#ttf$rd|jjdcYSwxYwd}t ||krd|d|dz dSd|dS) /Return a string representation of the geometry.z N>)super__str__r r.r/r0len)rPwkt max_lengthr/s r__repr__zBaseGeometry.__repr__s R''//##CCz* R R RQt~6QQQ Q Q Q R  s88j 2s+Z!^+,222 23zzzs $!AAc|jS)r})rrOs rrzBaseGeometry.__str__s xrcHtjtj|dffS)zPickle support.T) include_srid)rMfrom_wkbrlrOs r __reduce__zBaseGeometry.__reduce__s" 7>$T#J#J#J"LMMrc,||S)z*Return the intersection of the geometries.) intersectionrPothers r__and__zBaseGeometry.__and__s  '''rc,||S)z#Return the union of the geometries.)unionrs r__or__zBaseGeometry.__or__szz%   rc,||S)z(Return the difference of the geometries.) differencers r__sub__zBaseGeometry.__sub__su%%%rc,||S)z2Return the symmetric difference of the geometries.)symmetric_differencers r__xor__zBaseGeometry.__xor__s((///rc||j}tr|jnd}tj|||}t |S)z6Access to geometry's coordinates (CoordinateSequence).F) include_z include_m)has_z _geos_ge_312has_mrMget_coordinatesr)rPrr coords_arrays rr#zBaseGeometry.coordssA *5 .tuPUVVV !,///rct)z-Separate arrays of X and Y coordinate values.rrrOs rxyzBaseGeometry.xy "!rct)z*Dictionary representation of the geometry.rrOs r__geo_interface__zBaseGeometry.__geo_interface__rrc>tdtd|jS)Get the geometry type (deprecated). .. deprecated:: 2.0 Use the :py:attr:`geom_type` attribute instead. z|The 'GeometryType()' method is deprecated, and will be removed in the future. You can use the 'geom_type' attribute instead.rrrr r1rOs r geometryTypezBaseGeometry.geometryTypes1  I %     ~rc>tdtd|jS)rzuThe 'type' attribute is deprecated, and will be removed in the future. You can use the 'geom_type' attribute instead.rrrrOs rtypezBaseGeometry.types1  I %     ~rc.tj|dS)z#WKT representation of the geometry.r`ra)rMrkrOs rrzBaseGeometry.wkts~dr::::rc*tj|S)z#WKB representation of the geometry.rMrlrOs rwkbzBaseGeometry.wkbs~d###rc.tj|dS)z'WKB hex representation of the geometry.TrdrrOs rwkb_hexzBaseGeometry.wkb_hexs~d----r?c t)zRaise NotImplementedError.r)rP scale_factorkwargss rsvgzBaseGeometry.svgs!!rc nd}|jr|dzS|j\}}}}||kr&||kr |dj\}}}}n2d}t||z ||z g}||z}||z}||z}||z }||z }||z } ||z } t td| gdg} t td| gdg} t| | gt| | gz } n#t $rd} YnwxYw|d|d| d| }d ||zd }|d | d | d |d|d|| d S)z(SVG representation for iPython notebook.zSg{Gz?gY@i,r zmatrix(1,0,0,-1,0,)zwidth="z " height="z " viewBox="z4" preserveAspectRatio="xMinYMin meet">z )rYboundsbuffermaxminZeroDivisionErrorr)rPsvg_topxminyminxmaxymaxexpand widest_part expand_amountdxdywidthheightrview_box transforms r _repr_svg_zBaseGeometry._repr_svg_#s :  = T> !&*[ "D$dt|| )-Q)>&dD$$!4$;t "<== +f 4  % % % %BBeR[))3/00E#ubk**C011F #"B8}}sE6?/C/CC $ # # #"  #111111R11H;TD[;;;IQQ5QQFQQxQQ!*QQ.2hh|.D.DQQQ s#C(( C76C7c@ttj|S)z-Name of the geometry's type, such as 'Point'.)GEOMETRY_TYPESrM get_type_idrOs rr1zBaseGeometry.geom_typeJsg1$7788rcDttj|S)z&Unitless area of the geometry (float).)floatrMarearOs rrzBaseGeometry.areaRsW\$''(((rcFttj||S)z,Unitless distance to other geometry (float).)r<rMdistancers rrzBaseGeometry.distanceWW-dE::;;;rcFttj||S)z6Unitless hausdorff distance to other geometry (float).)r<rMhausdorff_distancers rrzBaseGeometry.hausdorff_distance[sW7eDDEEErcDttj|S)z(Unitless length of the geometry (float).)rrMlengthrOs rrzBaseGeometry.length_sW^D))***rcDttj|S)zMUnitless distance a node can be moved to produce an invalid geometry (float).)rrMminimum_clearancerOs rrzBaseGeometry.minimum_clearancedsW.t44555rc*tj|S)zReturn a lower dimension geometry that bounds the object. The boundary of a polygon is a line, the boundary of a line is a collection of points. The boundary of a point is an empty (null) collection. )rMboundaryrOs rrzBaseGeometry.boundaryls%%%rchttj|S)z8Return minimum bounding region (minx, miny, maxx, maxy).)tuplerMrtolistrOs rrzBaseGeometry.boundsvs(W^D))0022333rc*tj|S)z*Return the geometric center of the object.)rMcentroidrOs rrzBaseGeometry.centroid{%%%rc*tj|S)znReturn a point guaranteed to be within the object, cheaply. Alias of `representative_point`. rMpoint_on_surfacerOs rrzBaseGeometry.point_on_surface '---rc*tj|S)zjReturn a point guaranteed to be within the object, cheaply. Alias of `point_on_surface`. rrOs rrepresentative_pointz!BaseGeometry.representative_pointrrc*tj|S)aReturn the convex hull of the geometry. Imagine an elastic band stretched around the geometry: that's a convex hull, more or less. The convex hull of a three member multipoint, for example, is a triangular polygon. )rM convex_hullrOs rrzBaseGeometry.convex_hulls"4(((rc*tj|S)z%A figure that envelopes the geometry.)rMenveloperOs rrzBaseGeometry.enveloperrc*tj|S)aReturn the oriented envelope (minimum rotated rectangle) of a geometry. The oriented envelope encloses an input geometry, such that the resulting rectangle has minimum area. Unlike envelope this rectangle is not constrained to be parallel to the coordinate axes. If the convex hull of the object is a degenerate (line or point) this degenerate is returned. The starting point of the rectangle is not fixed. You can use :func:`~shapely.normalize` to reorganize the rectangle to :ref:`strict canonical form ` so the starting point is always the lower left point. Alias of `minimum_rotated_rectangle`. rMoriented_enveloperOs rrzBaseGeometry.oriented_envelope$(...rc*tj|S)aReturn the oriented envelope (minimum rotated rectangle) of the geometry. The oriented envelope encloses an input geometry, such that the resulting rectangle has minimum area. Unlike `envelope` this rectangle is not constrained to be parallel to the coordinate axes. If the convex hull of the object is a degenerate (line or point) this degenerate is returned. The starting point of the rectangle is not fixed. You can use :func:`~shapely.normalize` to reorganize the rectangle to :ref:`strict canonical form ` so the starting point is always the lower left point. Alias of `oriented_envelope`. rrOs rminimum_rotated_rectanglez&BaseGeometry.minimum_rotated_rectanglerr) cap_style join_style mitre_limit single_sided)categoryrB@Fc |dd}|tdtd|}|dd} | tdtd| }|r:t |d} t d | d |d krtd tj | std tj |||||||S)aGet a geometry that represents all points within a distance of this geometry. A positive distance produces a dilation, a negative distance an erosion. A very small or zero distance may sometimes be used to "tidy" a polygon. Parameters ---------- distance : float The distance to buffer around the object. quad_segs : int, optional Sets the number of line segments used to approximate an angle fillet. cap_style : shapely.BufferCapStyle or {'round', 'square', 'flat'}, default 'round' Specifies the shape of buffered line endings. BufferCapStyle.round ('round') results in circular line endings (see ``quad_segs``). Both BufferCapStyle.square ('square') and BufferCapStyle.flat ('flat') result in rectangular line endings, only BufferCapStyle.flat ('flat') will end at the original vertex, while BufferCapStyle.square ('square') involves adding the buffer width. join_style : shapely.BufferJoinStyle or {'round', 'mitre', 'bevel'}, default 'round' Specifies the shape of buffered line midpoints. BufferJoinStyle.ROUND ('round') results in rounded shapes. BufferJoinStyle.bevel ('bevel') results in a beveled edge that touches the original vertex. BufferJoinStyle.mitre ('mitre') results in a single vertex that is beveled depending on the ``mitre_limit`` parameter. mitre_limit : float, optional The mitre limit ratio is used for very sharp corners. The mitre ratio is the ratio of the distance from the corner to the end of the mitred offset corner. When two line segments meet at a sharp angle, a miter join will extend the original geometry. To prevent unreasonable geometry, the mitre limit allows controlling the maximum length of the join corner. Corners with a ratio which exceed the limit will be beveled. single_sided : bool, optional The side used is determined by the sign of the buffer distance: a positive distance indicates the left-hand side a negative distance indicates the right-hand side The single-sided buffer of point geometries is the same as the regular buffer. The End Cap Style for single-sided buffers is always ignored, and forced to the equivalent of CAP_FLAT. quadsegs, resolution : int, optional Deprecated aliases for `quad_segs`. **kwargs : dict, optional For backwards compatibility of renamed parameters. If an unsupported kwarg is passed, a `ValueError` will be raised. Returns ------- Geometry Notes ----- The return value is a strictly two-dimensional geometry. All Z coordinates of the original geometry will be ignored. .. deprecated:: 2.1.0 A deprecation warning is shown if ``quad_segs``, ``cap_style``, ``join_style``, ``mitre_limit`` or ``single_sided`` are specified as positional arguments. In a future release, these will need to be specified as keyword arguments. Examples -------- >>> from shapely import BufferCapStyle >>> from shapely.wkt import loads >>> g = loads('POINT (0.0 0.0)') 16-gon approx of a unit radius circle: >>> g.buffer(1.0).area 3.1365484905459398 128-gon approximation: >>> g.buffer(1.0, 128).area 3.1415138011443013 triangle approximation: >>> g.buffer(1.0, 3).area 3.0 >>> list(g.buffer(1.0, cap_style=BufferCapStyle.square).exterior.coords) [(1.0, 1.0), (1.0, -1.0), (-1.0, -1.0), (-1.0, 1.0), (1.0, 1.0)] >>> g.buffer(1.0, cap_style=BufferCapStyle.square).area 4.0 quadsegsNz?The `quadsegs` argument is deprecated. Use `quad_segs` instead.rr resolutionz@The 'resolution' argument is deprecated. Use 'quad_segs' insteadrz-buffer() got an unexpected keyword argument ''z3Cannot compute offset from zero-length line segmentzbuffer distance must be finite) quad_segsrrrr) poprrDeprecationWarninglistkeys TypeErrorr.npisfiniteallrMr) rPrrrrrrrrrkwargs rrzBaseGeometry.buffers7V::j$//   Q     !IZZ d33  ! R"     #I  V''*ETETTTUU U #  RSS SX&&**,, ?=>> >~  !#%    rpreserve_topologyTc0tj|||S)aSReturn a simplified geometry produced by the Douglas-Peucker algorithm. Coordinates of the simplified geometry will be no more than the tolerance distance from the original. Unless the topology preserving option is used, the algorithm may produce self-intersecting or otherwise invalid geometries. )r)rMsimplify)rP tolerancers rrzBaseGeometry.simplifyesiCTUUUUrc*tj|S)aConvert geometry to normal form (or canonical form). This method orders the coordinates, rings of a polygon and parts of multi geometries consistently. Typically useful for testing purposes (for example in combination with `equals_exact`). Examples -------- >>> from shapely import MultiLineString >>> line = MultiLineString([[(0, 0), (1, 1)], [(3, 3), (2, 2)]]) >>> line.normalize() )rM normalizerOs rrzBaseGeometry.normalizeps &&&r grid_sizeNc0tj|||S)zpReturn the difference of the geometries. Refer to `shapely.difference` for full documentation. r)rMrrPrrs rrzBaseGeometry.differences !$CCCCrc0tj|||S)ztReturn the intersection of the geometries. Refer to `shapely.intersection` for full documentation. r)rMrrs rrzBaseGeometry.intersections #D%9EEEErc0tj|||S)zReturn the symmetric difference of the geometries. Refer to `shapely.symmetric_difference` for full documentation. r)rMrrs rrz!BaseGeometry.symmetric_differences +D%9MMMMrc0tj|||S)zfReturn the union of the geometries. Refer to `shapely.union` for full documentation. r)rMrrs rrzBaseGeometry.unions }T5I>>>>rcDttj|S)z\ ) )4G%d++,,,rcDttj|S)zwTrue if the geometry is simple. Simple means that any self-intersections are only at boundary points. )rrM is_simplerOs rr%zBaseGeometry.is_simples G%d++,,,rcDttj|S)zUTrue if the geometry is valid. The definition depends on sub-class. )rrMis_validrOs rr'zBaseGeometry.is_valids G$T**+++rc,tj||S)zFReturn the DE-9IM intersection matrix for the two geometries (string).)rMrelaters rr)zBaseGeometry.relates~dE***rcFttj||S)z9Return True if the geometry covers the other, else False.)r<rMcoversrs rr+zBaseGeometry.coversW^D%88999rcFttj||S)z@Return True if the geometry is covered by the other, else False.)r<rM covered_byrs rr.zBaseGeometry.covered_byW/e<<===rcFttj||S)z;Return True if the geometry contains the other, else False.)r<rMcontainsrs rr1zBaseGeometry.containsrrcFttj||S)zReturn True if the geometry completely contains the other. There should be no common boundary points. Refer to `shapely.contains_properly` for full documentation. )r<rMcontains_properlyrs rr3zBaseGeometry.contains_properlysW6tUCCDDDrcFttj||S)z0Return True if the geometries cross, else False.)r<rMcrossesrs rr5zBaseGeometry.crossesW_T599:::rcFttj||S)z3Return True if geometries are disjoint, else False.)r<rMdisjointrs rr8zBaseGeometry.disjointrrcFttj||S)aReturn True if geometries are equal, else False. This method considers point-set equality (or topological equality), and is equivalent to (self.within(other) & self.contains(other)). Examples -------- >>> from shapely import LineString >>> LineString( ... [(0, 0), (2, 2)] ... ).equals( ... LineString([(0, 0), (1, 1), (2, 2)]) ... ) True Returns ------- bool )r<rMequalsrs rr:zBaseGeometry.equalss,W^D%88999rcFttj||S)z0Return True if geometries intersect, else False.)r<rM intersectsrs rr<zBaseGeometry.intersects1r/rcFttj||S)z.Return True if geometries overlap, else False.)r<rMoverlapsrs rr>zBaseGeometry.overlaps5rrcFttj||S)z,Return True if geometries touch, else False.)r<rMtouchesrs rr@zBaseGeometry.touches9r6rcFttj||S)z8Return True if geometry is within the other, else False.)r<rMwithinrs rrBzBaseGeometry.within=r,rcHttj|||S)zReturn True if geometry is within a given distance from the other. Refer to `shapely.dwithin` for full documentation. )r<rMdwithin)rPrrs rrDzBaseGeometry.dwithinAs W_T5(CCDDDrrrcLttj||||S)aReturn True if the geometries are equivalent within the tolerance. Refer to :func:`~shapely.equals_exact` for full documentation. Parameters ---------- other : BaseGeometry The other geometry object in this comparison. tolerance : float, optional (default: 0.) Absolute tolerance in the same units as coordinates. normalize : bool, optional (default: False) If True, normalize the two geometries so that the coordinates are in the same order. .. versionadded:: 2.1.0 Examples -------- >>> from shapely import LineString >>> LineString( ... [(0, 0), (2, 2)] ... ).equals_exact( ... LineString([(0, 0), (1, 1), (2, 2)]), ... 1e-6 ... ) False Returns ------- bool rE)r<rM equals_exact)rPrrrs rrGzBaseGeometry.equals_exactHs.B  ui9 M M M   rcHttj|||S)zBReturn True if the DE-9IM relationship code satisfies the pattern.)r<rMrelate_pattern)rPrpatterns rrIzBaseGeometry.relate_patternmsW3D%IIJJJr normalizedcJttj|||S)zReturn the distance of this geometry to a point nearest the specified point. If the normalized arg is True, return the distance normalized to the length of the linear geometry. Alias of `project`. rKr<rMline_locate_pointrPrrKs rrOzBaseGeometry.line_locate_point|+  %dEj I I I   rcJttj|||S)zReturn the distance of geometry to a point nearest the specified point. If the normalized arg is True, return the distance normalized to the length of the linear geometry. Alias of `line_locate_point`. rMrNrPs rprojectzBaseGeometry.projectrQrc0tj|||S)aReturn a point at the specified distance along a linear geometry. Negative length values are taken as measured in the reverse direction from the end of the geometry. Out-of-range index values are handled by clamping them to the valid range of values. If the normalized arg is True, the distance will be interpreted as a fraction of the geometry's length. Alias of `interpolate`. rMrMline_interpolate_pointrPrrKs rrVz#BaseGeometry.line_interpolate_point-dHTTTTrc0tj|||S)aReturn a point at the specified distance along a linear geometry. Negative length values are taken as measured in the reverse direction from the end of the geometry. Out-of-range index values are handled by clamping them to the valid range of values. If the normalized arg is True, the distance will be interpreted as a fraction of the geometry's length. Alias of `line_interpolate_point`. rMrUrWs r interpolatezBaseGeometry.interpolaterXrc,tj||S)aAdd vertices to line segments based on maximum segment length. Additional vertices will be added to every line segment in an input geometry so that segments are no longer than the provided maximum segment length. New vertices will evenly subdivide each segment. Only linear components of input geometries are densified; other geometries are returned unmodified. Parameters ---------- max_segment_length : float or array_like Additional vertices will be added so that all line segments are no longer this value. Must be greater than 0. Examples -------- >>> from shapely import LineString, Polygon >>> LineString([(0, 0), (0, 10)]).segmentize(max_segment_length=5) >>> Polygon([(0, 0), (10, 0), (10, 10), (0, 10), (0, 0)]).segmentize(max_segment_length=5) )rM segmentize)rPmax_segment_lengths rr\zBaseGeometry.segmentizes2!$(:;;;rc*tj|S)aOReturn a copy of this geometry with the order of coordinates reversed. If the geometry is a polygon with interior rings, the interior rings are also reversed. Points are unchanged. See Also -------- is_ccw : Checks if a geometry is clockwise. Examples -------- >>> from shapely import LineString, Polygon >>> LineString([(0, 0), (1, 2)]).reverse() >>> Polygon([(0, 0), (1, 0), (1, 1), (0, 1), (0, 0)]).reverse() )rMreverserOs rr_zBaseGeometry.reverses*t$$$r)r)rrBrBrF)Tr")r)F)Qr0r?r@rA __slots__rQpropertyrTrZr]r{rrrrrrrr#rrrrrrrrrr1rrrrrrrrrrrrrrrrrrrrrrrrrrYr!r#r%r'r)r+r.r1r3r5r8r:r<r>r@rBrDrGrIrOrSrVrZr\r_ __classcell__r/s@rr-r-asFFI < < <66X6&&&+++Z     NNN(((!!!&&&00000X0""X" ""X"     X ;;X; $$X$..X.""""%%%N99X9))X)<<<FFF++X+66X6&&X&44X4&&X&...... ) )X )&&X&//X/&//X/4BBB#I I I I f./:LMMMVVVNMV'''8;-2DEEEDDDFED;-2DEEEFFFFEF;-2DEEENNNFEN;-2DEEE???FE?))X)))X),,X,++X+--X---X-,,X,+++:::>>><<<EEE;;;<<<:::0>>><<<;;;:::EEE# e# # # # # JKKK<.3EFFF    GF  (<.3EFFF    GF  (<.3EFFF U U UGF U*<.3EFFF U U UGF U<<<6%%%%%%%rr-cfeZdZdZgZedZedZdZdZ fdZ d d Z xZ S) BaseMultipartGeometryz2Base class for collections of multiple geometries.c td)zzNot implemented. Sub-geometries may have coordinate sequences, but multi-part geometries do not. zNSub-geometries may have coordinate sequences, but multi-part geometries do notrrOs rr#zBaseMultipartGeometry.coordss" /   rc t|S)z#Access to the contained geometries.)GeometrySequencerOs rr5zBaseMultipartGeometry.geomss %%%rc|jduSrVrXrOs rrZzBaseMultipartGeometry.__bool__r[rc,t|tstSt|t|uoZt |jt |jko0t dt|j|jDS)z0Return True if geometries are equal, else False.c3(K|] \}}||kVdSr"r))r$abs r z/BaseMultipartGeometry.__eq__..s*DDtq!AFDDDDDDr)r,r-NotImplementedrrr5r ziprs r__eq__zBaseMultipartGeometry.__eq__s%.. "! ! KK4:: % EDJ3u{#3#33 EDDs4:u{'C'CDDDDD rcDtS)z&Return the hash value of the geometry.)r__hash__)rPr/s rrszBaseMultipartGeometry.__hash__!sww!!!rrNc|jrdS |jrdndddfd|jDzdzS) azReturn a group of SVG elements for the multipart geometry. Parameters ---------- scale_factor : float Multiplication factor for the SVG stroke-width. Default is 1. color : str, optional Hex string for stroke or fill color. 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E45$// 3 3 4..q112222%4 %%ckT22 2;<< rFGeometryr-rerhrr)rrrs 333333@@@@@@@@------333333VVVVVVVVVV   #z1 (TTT"########""""""""Y%Y%Y%Y%Y%7#Y%Y%Y%x8X8X8X8X8XL8X8X8Xv+=+=+=+=+=+=+=+=\ < < < <