grthtrhthjhtyjytjytkergtrhtrjytjerhrfh4:24 29/09/2026+ '¦«šö™ã óv€Rt^RIHtHt^RIt^RIHt^RIt^RIt^RIt^RI t ^RI t ^RI t ^RI H t ^RI HtHtHtHtHtHtHtHtHtHt.RNRNRNR NR NR NR NR NRNRNRNRNRNRNRNRNRNRNRNRNRNRNRNRNRNRNR NR!NR"NR#NR$NR%NR&NR'NR(NR)NR*NR+NR,NR-NR.NR/NR0NR1NR2NR3NR4NR5NR6NR7NR8NR9NR:NR;NRNR?NR@NRANRBNRCNRDNRENRFNRGNRHNRINRJNRKNRLNRMNRNNRONRPNRQNRRNRSNRTNRUNRVNRWNRXNRYNRZNR[NR\NR]NR^NR_NR`NRaNRbNRcNRdNReNRfNRgNRhNRiNRjNRkNRlNRmNRnNt!RoRp4t]!4sER>RqRrRsR/RtlltER?RqRrRsR/RvlltRwtRxtRytRzRu/R{R|llt R}t!R~t"RRr/R€lt#R�t$.t%/t&ER>R‚Rr/Rƒllt'R„R…lt(!R†R‡4t)])!4t*]*3Rˆ]+!4R‰RRsRRŠRR‹Rr/RŒllt,!R�RŽ4t-!R�R�4t.!R‘R’]-].RuR“7t/!R”R•]/RuR“7t0!R–R—]14t2!R˜R]2R™7t3]/Rš4t4]/R›4t5]/Rœ4t6]/R�4t7]/Rž4t8]/RŸ4t9]/R 4t:]0]'!RuR¡7R¢44t;]/R£4t<]/R¤4t=]/R¥4t>]/R¦4t?RŠR/R§lt@RsRR¨RR©RRªRR‰RR«]+!4/R¬ltAR­R®ltBR¯R°ltCR±tDR²tER³tFR´tG]'Rµ4tHR¶tIR·tJ!R¸R¹]-RuR“7tK!RºR»]KRuR“7tL!R¼R½].]KRuR“7tM!R¾R¿]MRuR“7tN!RÀRÁ].]LRuR“7tO!RÂRÃ]MRuR“7tP!RÄRÅ]MRuR“7tQ!RÆRÇ]14tR!RÈRÉ]RR™7tSRÊtT!RËRÌ]LRuR“7tU!RÍRÎ]LRuR“7tV]/RÏ4tW!RÐRÑ]LRuR“7tX!RÒRÓ4tY]+!0ER@m4tZ]+!0ERAm4t[]Z][,RÔ0,t\RÕt]RÖt^ERBR×lt_ERCRØlt`RÙ.ERDORÚRÛRÜ.RÝRÞRß.RàRá./ta]PÄRâ4tc]%PÉ]cPÊ4Rãtf]PÎ!]]f4Räth]PÎ!]]h4AfAh]PÒtj]PÖtlRåtm!RæRç]4tn]oRè4tp!RéR]]nR™7tq!RêRë].]LRuR“7tr]0]'!RuR¡7Rì44tsRíttRîtuRïtvERER‰R/RðlltwRñtxRòtyRótzRôt{Rõt|^dt}RöR÷lt~RøtRùt€Rút�]!]EP!]]ƒ44t„Rût…Rüt†Rýt‡Rþtˆ]!Rÿ4t‰]!ER4tŠ]!ER4t‹]!ERRuER7tŒ]!ERRuER7t�]!ERRuER7tŽ]!ERRuER7t�]!ERRu]1ER 7t�]!RH]‘]’4t“]Mt”]”!]PEP*^4t•]”!]PEP,^4t–]”!]PEP.^4t—]”!]PEP0^4t˜]”!]PEP2^4t™]”!]PEP4^4tš]”!]PEP6^4t›]”!]PEP8^4tœ]”!]PEP:^4t�]”!]PEP<^4tž]”!]PEP>^4tŸ]P!]PEP@^4t ER ] n]”!]PEPB^RER 7t¢]”!]PEPF^4t£]”!]PEPH^4t¤]”!]PEPJ^4t¥]”!]PEPL^4t¦]”!]PEPN^4t§]N!]PEPP^ERFER 7t¨]Q!]©ERGRrRER 7tªER]ªn]”!]«^RrRER 7t¡]”!]+^RrR?ER 7t°]”!]PEPb^4t±]”!]PEPd^4t²]”!]PEPf^4t³]”!]PEPh^4t´]”!]ƒ^RrR:ER 7tµ]”!]P ^R;ER 7t¶]”!]EPn^4t·]”!]EPp^4t¸]”!]EPr^4t¹]”!]PEPt^] EPv] EPv3ER7tº]”!]PEPx^] EPv3ER7t¼]”!]1^RrRER 7t½ER]½n]t!ERR5]q44t¾]t!ERR3]q44t¿]t!ERR2]q44tÀ]t!ERR1]q44tÁ]t!ERR4]q44tÂ]tER!44tÃ]tER!44tÄERIERltÅERtÆ]+!0ERJm4tÇ]+!0ERKm4tÈ!ERER]14tÉ]*3ERltÊ]1EP—]ÉR@ERH/4tÌERtÍ]Í]ÊnÎERtÏ!ERER ]14tÐ]*3ER!Ru/ER"lltÑ]1EP—]ÐRAERH/4tÒER#]ÑnÎ]/ER$4tÓ]/ER%4tÔ]/ER&4tÕ!ER'RY4tÖ]’t×RrtØ!ER(RD]]“,4tÙ!ER)RC]Ù]‘,4tÚ!ER*RG]Ù]’,4tÛER+!4tÜ!ER,ER-]q4tÝER.RuER/RrER0RrER1RrER2ERH/ER3ER4lltÞER5RER6ER7l35 tßER8!4tàER9ER:ltáER;ER<ltâER=tãR#(La¾ The typing module: Support for gradual typing as defined by PEP 484 and subsequent PEPs. Among other things, the module includes the following: * Generic, Protocol, and internal machinery to support generic aliases. All subscripted types like X[int], Union[int, str] are generic aliases. * Various "special forms" that have unique meanings in type annotations: Any, Never, ClassVar, Self, Concatenate, Unpack, and others. * Classes whose instances can be type arguments to generic classes and functions: TypeVar, ParamSpec, TypeVarTuple. * Public helper functions: get_type_hints, overload, cast, final, and others. * Several protocols to support duck-typing: SupportsFloat, SupportsIndex, SupportsAbs, and others. * Special types: NewType, NamedTuple, TypedDict. * Deprecated aliases for builtin types and collections.abc ABCs. Any name not present in __all__ is an implementation detail that may be changed without notice. Use at your own risk! )ÚabstractmethodÚABCMetaN)Ú defaultdict)Ú GenericAlias) Ú_idfuncÚTypeVarÚ ParamSpecÚ TypeVarTupleÚ ParamSpecArgsÚParamSpecKwargsÚ TypeAliasTypeÚGenericÚUnionÚ NoDefaultÚ AnnotatedÚAnyÚCallableÚClassVarÚ ConcatenateÚFinalÚ ForwardRefr ÚLiteralÚOptionalrÚProtocolÚTupleÚTyperr rÚ AbstractSetÚ ByteStringÚ ContainerÚContextManagerÚHashableÚ ItemsViewÚIterableÚIteratorÚKeysViewÚMappingÚ MappingViewÚMutableMappingÚMutableSequenceÚ MutableSetÚSequenceÚSizedÚ ValuesViewÚ AwaitableÚ AsyncIteratorÚ AsyncIterableÚ CoroutineÚ CollectionÚAsyncGeneratorÚAsyncContextManagerÚ ReversibleÚ SupportsAbsÚ SupportsBytesÚSupportsComplexÚ SupportsFloatÚ SupportsIndexÚ SupportsIntÚ SupportsRoundÚChainMapÚCounterÚDequeÚDictÚ DefaultDictÚListÚ OrderedDictÚSetÚ FrozenSetÚ NamedTupleÚ TypedDictÚ GeneratorÚBinaryIOÚIOÚMatchÚPatternÚTextIOÚAnyStrÚ assert_typeÚ assert_neverÚcastÚclear_overloadsÚdataclass_transformÚevaluate_forward_refÚfinalÚget_argsÚ get_originÚ get_overloadsÚget_protocol_membersÚget_type_hintsÚ is_protocolÚ is_typeddictÚ LiteralStringÚNeverÚNewTypeÚ no_type_checkÚno_type_check_decoratorrÚNoReturnÚ NotRequiredÚoverloadÚoverrider r ÚReadOnlyÚRequiredÚ reveal_typeÚruntime_checkableÚSelfÚTextÚ TYPE_CHECKINGÚ TypeAliasÚ TypeGuardÚTypeIsr ÚUnpackcó&a€]tRt^¥toRtRtVtR#)Ú_LazyAnnotationLibcó$€^RIpVs\W!4#)éN)Ú annotationlibÚ_lazy_annotationlibÚgetattr)ÚselfÚattrrts&& Ú-/opt/alt/python314/lib64/python3.14/typing.pyÚ __getattr__Ú_LazyAnnotationLib.__getattr__¦s€ãØ+ÐÜ�}Ó+Ð+ó©N)Ú__name__Ú __module__Ú __qualname__Ú__firstlineno__rzÚ__static_attributes__Ú__classdictcell__©Ú __classdict__s@ryrqrq¥sø‡€÷,ð,r|rqÚallow_special_formsFÚownercój€Vf \R4#\V\4'd\WW#R7#V#)z=For converting None to type(None), and strings to ForwardRef.N)ÚmoduleÚis_classr‡)ÚtypeÚ isinstanceÚstrÚ_make_forward_ref)Úargr‰r†r‡s&&$$ryÚ _type_convertr�¯s1€à ‚{Ü�D‹zÐÜ�#”s×ÒÜ  Ð>QÔ_Ð_Ø €Jr|Tcó6€\\3pV'g%V\3, pV'dV\3, p\ WWER7p\ V\ 4'd VPV9d\V R24hV\\\\\\39dV#V'dV\\39dV#\ V\4'gV\\39d\RV R24h\!V4\"Jd\V RV:R R24hV#)aØCheck that the argument is a type, and return it (internal helper). 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We append the repr() of the actual value (truncated to 100 chars). )r‰r†r‡ú is not valid as type argumentzPlain z Got z.100Ú.)r rrrr�rŒÚ _GenericAliasÚ __origin__Ú TypeErrorrr\rar]rirlÚ _SpecialFormr‹Útuple)r�ÚmsgÚ is_argumentr‰r†r‡Úinvalid_generic_formss&&&&$$ ryÚ _type_checkrœ¸sò€ô%¤hÐ/Ðß Ø¤( Õ,Ðß Ø !¤e XÕ -Ð !ä ˜Ð@SÔ a€CÜ�3œ ×&Ò&Ø �N‰NÐ3Ô 3ܘ3˜%Ð=Ð>Ó?Ð?Ø Œs”M¤8¬U´D¼)ÐDÔD؈ ߘs¤x´Ð&7Ô7؈ Ü�#”|×$Ò$¨´¼Ð/BÔ(Bܘ&  Ð%CÐDÓEÐEÜ ˆCƒy”EÓܘ3˜%˜u S L¨4 L°Ð2Ó3Ð3Ø €Jr|cóZ€VRJ;'g!\V\\\\34#).)rŒr˜ÚlistrÚ_ConcatenateGenericAlias©r�s&ryÚ_is_param_exprr¡Ùs2€Ø �#ˆ:÷ @ð @œ CÜ ”Dœ)Ô%=Ð >ó@ð@r|có¸€VP\PPJ;'d.\ V4^8H;'d\ V^,4'*#)aInternal helper for munging collections.abc.Callable's __args__. The canonical representation for a Callable's __args__ flattens the argument types, see https://github.com/python/cpython/issues/86361. For example:: >>> import collections.abc >>> P = ParamSpec('P') >>> collections.abc.Callable[[int, int], str].__args__ == (int, int, str) True >>> collections.abc.Callable[P, str].__args__ == (P, str) True As a result, if we need to reconstruct the Callable from its __args__, we need to unflatten it. )r•Ú collectionsÚabcrÚlenr¡)ÚtypÚargss&&ryÚ_should_unflatten_callable_argsr¨ÞsH€ð& �‰œ+Ÿ/™/×2Ñ2Ð2÷ =ð =Ü�T“˜a‘×;Ð;¤N°4¸µ7Ó$;Ô <ðr|có¤€\V\4'd'RRPRV44,R,#\P V4#)a'Return the repr() of an object, special-casing types (internal helper). If obj is a type, we return a shorter version than the default type.__repr__, based on the module and qualified name, which is typically enough to uniquely identify a type. For everything else, we fall back on repr(obj). 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Nr})r~rr€r�rArÚ__iter__r‚r}r|ryrCrCús†ñ ð€IØ„Hr|rCcópa€]tRtRtoRtRtRtRtRtRt Rt Rt R t R t R t]R 4tR tVtR#)r—icóV€WnVPVnVPVnR#r­)Ú_getitemr~Ú_namerA)rwÚgetitems&&ryÚ__init__Ú_SpecialForm.__init__s€ØŒ Ø×%Ñ%ˆŒ Ø—‘ˆŽ r|có>€VR9d VP#\V4h)r~>r~r€)rHÚAttributeError)rwÚitems&&ryrzÚ_SpecialForm.__getattr__s €Ø Ð/Ô /Ø—:‘:Ð ä˜TÓ"Ð"r|có €\RV: 24h)úCannot subclass r=©rwÚbasess&&ryÚ__mro_entries__Ú_SpecialForm.__mro_entries__s€ÜÐ*¨4©(Ð3Ó4Ð4r|có(€RVP,#©útyping.©rHrs&ryrÚ_SpecialForm.__repr__ó€Ø˜4Ÿ:™:Õ%Ð%r|có€VP#r­rYrs&ryÚ __reduce__Ú_SpecialForm.__reduce__"ó €Ø�z‰zÐr|có €\RV: 24h)zCannot instantiate r=)rwr§rùs&*,ryÚ__call__Ú_SpecialForm.__call__%s€ÜÐ-¨d©XÐ6Ó7Ð7r|có€\W3,#r­©r©rwÚothers&&ryÚ__or__Ú_SpecialForm.__or__(ó€Ü�T�[Õ!Ð!r|có€\W3,#r­rdres&&ryÚ__ror__Ú_SpecialForm.__ror__+ó€Ü�U�[Õ!Ð!r|có€\V R24h)z! cannot be used with isinstance()r=©rwr¸s&&ryÚ__instancecheck__Ú_SpecialForm.__instancecheck__.ó€Ü˜4˜&Ð AÐBÓCÐCr|có€\V R24h)z! cannot be used with issubclass()r=©rwrÛs&&ryÚ__subclasscheck__Ú_SpecialForm.__subclasscheck__1rrr|có$€VPW4#r­)rG©rwrÊs&&ryÚ __getitem__Ú_SpecialForm.__getitem__4s€à�}‰}˜TÓ.Ð.r|)rArGrHN)rHrArG)r~rr€r�rrJrzrTrr]rargrkrprurryr‚rƒr„s@ryr—r—sRø‡€Ø0€Iò'ò #ò 5ò&òò8ò"ò"òDòDðñ/óö/r|r—)r<có&a€]tRtRtoRtRtVtR#)Ú_TypedCacheSpecialFormi9có\€\V\4'gV3pVP!V.VO5!#r­)rŒr˜rGrxs&&ryryÚ"_TypedCacheSpecialForm.__getitem__:s*€Ü˜*¤e×,Ò,Ø$˜ˆJØ�}Š}˜TÐ/ JÓ/Ð/r|r}N)r~rr€r�ryr‚rƒr„s@ryr|r|9sø‡€÷0ð0r|r|có>aa€]tRtRtoV3RltV3RltRtVtV;t#)Ú_AnyMetai@cóL<€V\Jd \R4h\SV` V4#)z+typing.Any cannot be used with isinstance())rr–Úsuperrp)rwr¸Ú __class__s&&€ryrpÚ_AnyMeta.__instancecheck__As&ø€Ø ”3‹;ÜÐIÓJÐ J܉wÑ(¨Ó-Ð-r|có8<€V\JdR#\SV` 4#)z typing.Any)rr‚r)rwrƒs&€ryrÚ_AnyMeta.__repr__Fsø€Ø ”3‹;Ù܉wÑÓ!Ð!r|r}) r~rr€r�rprr‚rƒÚ __classcell__©rƒr…s@@ryr€r€@sù‡€õ.÷ "õ"r|r€có6aa€]tRtRtoRtV3RltRtVtV;t#)riLa;Special type indicating an unconstrained type. - Any is assignable to every type. - Any assumed to have all methods and attributes. - All values are assignable to Any. Note that all the above statements are true from the point of view of static type checkers. At runtime, Any cannot be used with instance checks. cóL<€V\Jd \R4h\SV` V4#)zAny cannot be instantiated)rr–r‚Ú__new__©rÛr§Úkwargsrƒs&*,€ryr‹Ú Any.__new__Xs%ø€Ø ”#‹:ÜÐ8Ó9Ð 9܉w‰˜sÓ#Ð#r|r}) r~rr€r�rAr‹r‚rƒr‡rˆs@@ryrrLsù‡€ñ ÷$õ$r|)Ú metaclasscó€\V R24h)ajSpecial type indicating functions that never return. Example:: from typing import NoReturn def stop() -> NoReturn: raise Exception('no way') NoReturn can also be used as a bottom type, a type that has no values. Starting in Python 3.11, the Never type should be used for this concept instead. Type checkers should treat the two equivalently. ú is not subscriptabler=rxs&&ryrara^s€ô �t�fÐ1Ð2Ó 3Ð3r|có€\V R24h)a(The bottom type, a type that has no members. This can be used to define a function that should never be called, or a function that never returns:: from typing import Never def never_call_me(arg: Never) -> None: pass def int_or_str(arg: int | str) -> None: never_call_me(arg) # type checker error match arg: case int(): print("It's an int") case str(): print("It's a str") case _: never_call_me(arg) # OK, arg is of type Never r‘r=rxs&&ryr]r]ss€ô, �t�fÐ1Ð2Ó 3Ð3r|có€\V R24h)aKUsed to spell the type of "self" in classes. Example:: from typing import Self class Foo: def return_self(self) -> Self: ... return self This is especially useful for: - classmethods that are used as alternative constructors - annotating an `__enter__` method which returns self r‘r=rxs&&ryririŒs€ô" �t�fÐ1Ð2Ó 3Ð3r|có€\V R24h)aÊRepresents an arbitrary literal string. Example:: from typing import LiteralString def run_query(sql: LiteralString) -> None: ... def caller(arbitrary_string: str, literal_string: LiteralString) -> None: run_query("SELECT * FROM students") # OK run_query(literal_string) # OK run_query("SELECT * FROM " + literal_string) # OK run_query(arbitrary_string) # type checker error run_query( # type checker error f"SELECT * FROM students WHERE name = {arbitrary_string}" ) Only string literals and other LiteralStrings are compatible with LiteralString. This provides a tool to help prevent security issues such as SQL injection. r‘r=rxs&&ryr\r\ s€ô0 �t�fÐ1Ð2Ó 3Ð3r|có:€\W R2RR7p\W34#)aSpecial type construct to mark class variables. An annotation wrapped in ClassVar indicates that a given attribute is intended to be used as a class variable and should not be set on instances of that class. Usage:: class Starship: stats: ClassVar[dict[str, int]] = {} # class variable damage: int = 10 # instance variable ClassVar accepts only types and cannot be further subscribed. Note that ClassVar is not a class itself, and cannot be used with isinstance() or issubclass(). ú accepts only single type.T©r†©rœr”©rwrÊrNs&& ryrr»ó&€ô& �z VÐ+EÐ#FÐ\`Ô a€DÜ ˜˜wÓ 'Ð'r|có:€\W R2RR7p\W34#)aªSpecial typing construct to indicate final names to type checkers. A final name cannot be re-assigned or overridden in a subclass. For example:: MAX_SIZE: Final = 9000 MAX_SIZE += 1 # Error reported by type checker class Connection: TIMEOUT: Final[int] = 10 class FastConnector(Connection): TIMEOUT = 1 # Error reported by type checker There is no runtime checking of these properties. r–Tr—r˜r™s&& ryrrÑršr|cóN€\W R24p\V\R43,#)z&Optional[X] is equivalent to X | None.z requires a single type.N)rœrr‹)rwrÊr�s&& ryrrçs)€ô �j FÐ*BÐ"CÓ D€CÜ �”d˜4“j�Õ !Ð!r|röcóÚ€\V4p\\V44p\;QJd.R\ VRR74FNK 5M!R\ VRR744p\ W4#)aÐSpecial typing form to define literal types (a.k.a. value types). This form can be used to indicate to type checkers that the corresponding variable or function parameter has a value equivalent to the provided literal (or one of several literals):: def validate_simple(data: Any) -> Literal[True]: # always returns True ... MODE = Literal['r', 'rb', 'w', 'wb'] def open_helper(file: str, mode: MODE) -> str: ... open_helper('/some/path', 'r') # Passes type check open_helper('/other/path', 'typo') # Error in type checker Literal[...] cannot be subclassed. At runtime, an arbitrary value is allowed as type argument to Literal[...], but type checkers may impose restrictions. c3ó*"€TF wrVx€K R#5ir­r})r¯rÑÚ_s& ryr±ÚLiteral..sé€ð$ñ ‰DˆAõ ó ùs‚T)rè)ròržÚ_value_and_type_iterr˜rîrð)rwrÊÚvalue_and_type_parametersÚdeduplicated_parameterss&* ryrrísm€ô2)¨Ó4€JÜ $Ô%9¸*Ó%EÓ FÐß#œeñ$ä Ø %Ø $õ ó$Ÿe™eñ$ä Ø %Ø $õ ó$óÐô  Ó >Ð>r|có€\V R24h)a&Special form for marking type aliases. TypeAlias can be used to indicate that an assignment should be recognized as a proper type alias definition by type checkers. For example:: Predicate: TypeAlias = Callable[..., bool] It's invalid when used anywhere except as in the example above. r‘r=rxs&&ryrlrls€ô �t�fÐ1Ð2Ó 3Ð3r|cóa€VR8Xd \R4h\V\4'gV3pVR,RJg)\VR,\4'g \R4hRo.V3RlVRR4OVR,N5p\ W4#) aGSpecial form for annotating higher-order functions. ``Concatenate`` can be used in conjunction with ``ParamSpec`` and ``Callable`` to represent a higher-order function which adds, removes or transforms the parameters of a callable. For example:: Callable[Concatenate[int, P], int] See PEP 612 for detailed information. z&Cannot take a Concatenate of no types..zMThe last parameter to Concatenate should be a ParamSpec variable or ellipsis.z/Concatenate[arg, ...]: each arg must be a type.c3ó<<"€TFp\VS4x€K R#5ir­©rœ©r¯rÑr™s& €ryr±ÚConcatenate..:søé€ÐA±¨A”K  3×'Ð'³ùóƒNr}rã)r–rŒr˜rrŸ)rwrÊr™s&&@ryrr$sŠø€ð�RÔÜÐ@ÓAÐAÜ �j¤%× (Ò (Ø �]ˆ Ø �r�N˜cÓ !¤Z° ¸2µÄ ×%JÒ%JÜð:ó;ð ;à ;€CØRÔA°¸C¸R±ÓAÐRÀ:ÈbÅ>ÑR€JÜ # DÓ 5Ð5r|có6€\W R24p\W34#)a Special typing construct for marking user-defined type predicate functions. ``TypeGuard`` can be used to annotate the return type of a user-defined type predicate function. ``TypeGuard`` only accepts a single type argument. At runtime, functions marked this way should return a boolean. ``TypeGuard`` aims to benefit *type narrowing* -- a technique used by static type checkers to determine a more precise type of an expression within a program's code flow. Usually type narrowing is done by analyzing conditional code flow and applying the narrowing to a block of code. The conditional expression here is sometimes referred to as a "type predicate". Sometimes it would be convenient to use a user-defined boolean function as a type predicate. Such a function should use ``TypeGuard[...]`` or ``TypeIs[...]`` as its return type to alert static type checkers to this intention. ``TypeGuard`` should be used over ``TypeIs`` when narrowing from an incompatible type (e.g., ``list[object]`` to ``list[int]``) or when the function does not return ``True`` for all instances of the narrowed type. Using ``-> TypeGuard[NarrowedType]`` tells the static type checker that for a given function: 1. The return value is a boolean. 2. If the return value is ``True``, the type of its argument is ``NarrowedType``. For example:: def is_str_list(val: list[object]) -> TypeGuard[list[str]]: '''Determines whether all objects in the list are strings''' return all(isinstance(x, str) for x in val) def func1(val: list[object]): if is_str_list(val): # Type of ``val`` is narrowed to ``list[str]``. print(" ".join(val)) else: # Type of ``val`` remains as ``list[object]``. print("Not a list of strings!") Strict type narrowing is not enforced -- ``TypeB`` need not be a narrower form of ``TypeA`` (it can even be a wider form) and this may lead to type-unsafe results. The main reason is to allow for things like narrowing ``list[object]`` to ``list[str]`` even though the latter is not a subtype of the former, since ``list`` is invariant. The responsibility of writing type-safe type predicates is left to the user. ``TypeGuard`` also works with type variables. For more information, see PEP 647 (User-Defined Type Guards). r–r˜r™s&& ryrmrm>s$€ôh �z VÐ+EÐ#FÓ G€DÜ ˜˜wÓ 'Ð'r|có6€\W R24p\W34#)aV Special typing construct for marking user-defined type predicate functions. ``TypeIs`` can be used to annotate the return type of a user-defined type predicate function. ``TypeIs`` only accepts a single type argument. At runtime, functions marked this way should return a boolean and accept at least one argument. ``TypeIs`` aims to benefit *type narrowing* -- a technique used by static type checkers to determine a more precise type of an expression within a program's code flow. Usually type narrowing is done by analyzing conditional code flow and applying the narrowing to a block of code. The conditional expression here is sometimes referred to as a "type predicate". Sometimes it would be convenient to use a user-defined boolean function as a type predicate. Such a function should use ``TypeIs[...]`` or ``TypeGuard[...]`` as its return type to alert static type checkers to this intention. ``TypeIs`` usually has more intuitive behavior than ``TypeGuard``, but it cannot be used when the input and output types are incompatible (e.g., ``list[object]`` to ``list[int]``) or when the function does not return ``True`` for all instances of the narrowed type. Using ``-> TypeIs[NarrowedType]`` tells the static type checker that for a given function: 1. The return value is a boolean. 2. If the return value is ``True``, the type of its argument is the intersection of the argument's original type and ``NarrowedType``. 3. If the return value is ``False``, the type of its argument is narrowed to exclude ``NarrowedType``. For example:: from typing import assert_type, final, TypeIs class Parent: pass class Child(Parent): pass @final class Unrelated: pass def is_parent(val: object) -> TypeIs[Parent]: return isinstance(val, Parent) def run(arg: Child | Unrelated): if is_parent(arg): # Type of ``arg`` is narrowed to the intersection # of ``Parent`` and ``Child``, which is equivalent to # ``Child``. assert_type(arg, Child) else: # Type of ``arg`` is narrowed to exclude ``Parent``, # so only ``Unrelated`` is left. assert_type(arg, Unrelated) The type inside ``TypeIs`` must be consistent with the type of the function's argument; if it is not, static type checkers will raise an error. An incorrectly written ``TypeIs`` function can lead to unsound behavior in the type system; it is the user's responsibility to write such functions in a type-safe manner. ``TypeIs`` also works with type variables. For more information, see PEP 742 (Narrowing types with ``TypeIs``). r–r˜r™s&& ryrnrnvs$€ôB �z VÐ+EÐ#FÓ G€DÜ ˜˜wÓ 'Ð'r|c óÈ€Ve;VPeVPVR&VPeVPVR&\P!V3/VBpVPV#)Nr‰r‡)r,Ú __owner__rurÚ__forward_code__)Úcoderr�Ú forward_refs&$, ryrŽrŽ»sc€ØÒ Ø × +Ñ +Ò 7Ø,×?Ñ?ˆF�8Ñ Ø × "Ñ "Ò .Ø+×5Ñ5ˆF�7‰OÜ%×0Ò0°Ñ@¸Ñ@€Kà× Ò Ø Ðr|r r!r"r#c óz€V\PP8Xd VP#VPV9dV#Vf\PP pVP W#WAVR7p\V\P4'd"V\PP8XdV#\V\4'dB\YpPT;'g VPVPVPR7pVf VPp\!VVVVW`P0,VVVR7#)aÇEvaluate a forward reference as a type hint. This is similar to calling the ForwardRef.evaluate() method, but unlike that method, evaluate_forward_ref() also recursively evaluates forward references nested within the type hint. *forward_ref* must be an instance of ForwardRef. *owner*, if given, should be the object that holds the annotations that the forward reference derived from, such as a module, class object, or function. It is used to infer the namespaces to use for looking up names. *globals* and *locals* can also be explicitly given to provide the global and local namespaces. *type_params* is a tuple of type parameters that are in scope when evaluating the forward reference. This parameter should be provided (though it may be an empty tuple) if *owner* is not given and the forward reference does not already have an owner set. *format* specifies the format of the annotation and is a member of the annotationlib.Format enum, defaulting to VALUE. )r r!r"r‡r¾)r‰r‡ršrŠ)rr¾r‡r)ruÚFormatÚSTRINGÚ__resolved_str__Ú__forward_arg__ÚVALUEÚevaluaterŒrÚ FORWARDREFr�rŽr,r®Ú__forward_is_argument__Ú__forward_is_class__r')r±r‡r r!r"r¾r#Úvalues&$$$$$$ ryrSrSÇs#€ð:Ô$×+Ñ+×2Ñ2Ô2Ø×+Ñ+Ð+Ø×"Ñ"Ð&6Ô6ØÐà ‚~Ü$×+Ñ+×1Ñ1ˆØ × Ñ ¨Ø-8Èfð !ó V€Eô �5Ô-×8Ñ8×9Ò9ØÔ-×4Ñ4×?Ñ?Ô?؈ ä�%œ×ÒÜ! %×0NÑ0NØ(-×(FÐ(F°×1FÑ1FØ.9×.QÑ.QØ+6×+KÑ+KôMˆð ‚}Ø×%Ñ%ˆÜ Ø ØØØØ(×,GÑ,GÐ+HÕHØØØ!ô ð r|có0€V^8„dQhR\R\/#©r»rËr©rr½)r¾s"ryr¿r¿s€÷NñN¤ðN¬ñNr|cóZ€\V\4'*;'d\VRR4RJ#)Ú#__typing_is_unpacked_typevartuple__FT)rŒr‹rv©rËs&ryrÇrÇs5€ô˜AœtÓ$Ô $÷ Mð MÜ �AÐ<¸eÓ DÈÐ LðNr|có0€V^8„dQhR\R\/#r¾r¿)r¾s"ryr¿r¿ s€÷OñOœðO¤ñOr|cóT€\V\\34;'g \V4#r­)rŒrrrÇrÂs&ryÚ_is_typevar_likerÅ s"€Ü �aœ'¤9Ð-Ó .× NÐ NÔ2KÈAÓ2NÐNr|cóæ€Rp\WRR7p\V\4'dVP\Jg*\V\ 4'd"\ VRR4'd\V R24hV#)ú*Parameters to generic types must be types.T)ršr0Fr’)rœrŒr”r•rorrvr–)rwr�r™s&& ryÚ_typevar_substrÈs^€Ø 6€CÜ �c¨DÔ 1€CÜ �Cœ× 'Ò '¨C¯N©N¼fÓ,DÜ �Cœ× &Ò &¬7°3¸È×+NÒ+Nܘ3˜%Ð=Ð>Ó?Ð?Ø €Jr|c ó¶€VPpVPV4pW4^,RF'p\V\4'gK\ RV 24h \ V4p\ V4pTpWt, ^, p Rp Rp \ V4FowrÍ\V \4'dK\V RR4pV'gK4\ V4^8XgKFVR ,RJgKUV e \ R4hT p V^,p Kq V e&\WŠ4p\W–V , ^, 4p M(W‰,V8”d\ RV RV RV^, 24hW†V , 8Xd-VP4'd\VP4pM W(Wi, p.VRVOV .WH, ,OVNV .Wy, V, V, ^, ,OW&V , RO5#) éNz(More than one TypeVarTuple parameter in râ.z6More than one unpacked arbitrary-length tuple argumentúToo few arguments for rØz, expected at least rã) rÂÚindexrŒr r–r¥Ú enumerater‹rvÚminrÆrçÚ __default__)rwÚaliasr§rìÚtypevartuple_indexÚparamÚalenÚplenÚleftÚrightÚvar_tuple_indexÚfillargÚkr�ræÚ replacements&&& ryÚ_typevartuple_prepare_substrÛsè€Ø × !Ñ !€FØŸ™ dÓ+ÐØ¨QÕ.Ð/Ó0ˆÜ �eœ\× *Ô *ÜÐFÀuÀgÐNÓOÐ Oñ1ô ˆt‹9€DÜ ˆv‹;€DØ €DØ Õ %¨Õ )€EØ€OØ€GܘD–/‰ˆÜ˜#œt×$Ô$ܘcÐ#CÀTÓJˆG߉wœ3˜w›<¨1Ö,°¸µÀÕ1CØ"Ò.Ü#Ð$\Ó]Ð]Ø"#�Ø! !�*’ñ"ðÒ"Ü�4Ó)ˆÜ�E /Õ1°AÕ5Ó6‰Ø �˜Ô ÜÐ0°°ð8#Ø#' &Ð(<¸TÀ!½V¸HðFóGð Gà �e�|Ô × 0Ñ 0× 2Ò 2Ü" 4×#3Ñ#3Ó4‰ à ¥Ð.ˆ ð Ø ˆeˆtˆð à ˆ)Ð'Õ.Õ /ð ð ð ð ˆ)�T•\ DÕ(Ð+=Õ=ÀÕAÕ Bð  ð �U�lˆmÐ ñ  ðr|cóÜ€\V\\34'd1\;QJd.RV4FNK 5pV#!RV44pV#\V4'g\ RV 24hV#)c3ó:"€TFp\VR4x€K R#5i)zExpected a type.Nr§©r¯r(s& ryr±Ú#_paramspec_subst..Dsé€ÐDÁ¸1”K Ð#5×6Ð6Ãùó‚zFExpected a list of types, an ellipsis, ParamSpec, or Concatenate. Got )rŒržr˜r¡r–©rwr�s&&ryÚ_paramspec_substrâBsu€Ü�#œœe�}×%Ò%ߌeÑDÁÓD�eˆð €Jð ÑDÁÓDÓDˆð €Jô˜C× Ò Üð:Ø:=¸ð@óAð Aà €Jr|cóÖ€VPpVPV4pV\V48Xd(VP4'd.VOVPN5pV\V48¼d\ RV 24h\V4^8Xd'\ V^,4'gV^8XgQhV3pV#\W$,\4'd%.VRVO\W$,4NW$^,RO5pV#)rËN) rÂrÌr¥rÆrÏr–r¡rŒržr˜)rwrÐr§rìÚis&&& ryÚ_paramspec_prepare_substråKsØ€Ø × !Ñ !€FØ� ‰ �TÓ€AØŒC�‹I„~˜$×*Ñ*×,Ò,Ø(�Ð(�t×'Ñ'Ñ(ˆØŒC�‹I„~ÜÐ0°°Ð8Ó9Ð9ä ˆ6ƒ{�aÔ¤¨t°A­w× 7Ò 7Ø�AŒvˆ ˆv؈wˆð €Kô �D•GœT× "Ò "Ø7��b�q�Ð7œ5 ¥›>Ð7¨D°1µ°¨JÑ7ˆØ €Kr|có€\V\4'gV3p\;QJd.RV4FNK 5M !RV44pV\\39pV'd±V'g\ RVP R24h\ ;QJdRV4F 'dK RM RM !RV44'g\ RVP R24h\\V44\V48wd\ RVP R 24hM—VPpTFp\TRR 4pTfKT!Y4pK \Y4.p\!Y14F?wri\T\"4'dTP%T 4K.TP'T 4KA \T4p\)W4# \dKp\TR R 4pTR \P09d!TPR TP : R 24hR p?ii;i)ajParameterizes a generic class. At least, parameterizing a generic class is the *main* thing this method does. For example, for some generic class `Foo`, this is called when we do `Foo[int]` - there, with `cls=Foo` and `args=int`. However, note that this method is also called when defining generic classes in the first place with `class Foo(Generic[T]): ...`. c3ó8"€TFp\V4x€K R#5ir­©r�rÐs& ryr±Ú)_generic_class_getitem..jsé€Ð0©4 a”˜q×!Ð!«4ùr³zParameter list to z[...] cannot be emptyc3ó8"€TFp\V4x€K R#5ir­)rÅrÐs& ryr±réssé€Ð5±¨1Ô# A×&Ð&³ùr³FTzParameters to zF[...] must all be type variables or parameter specification variables.z[...] must all be uniquer>Nz-Note: this exception may have been caused by z^ (or the '__init_subclass__' method on a superclass) not calling 'super().__init_subclass__()'Ú__typing_prepare_subst__)rŒr˜r rr–r€Úallr~r¥ÚsetrÂrMrvr>Úadd_noteràÚzipr rärÄr”) rÛr§Úis_generic_or_protocolrÊÚeÚ init_subclassrÒÚprepareÚnew_argsÚnew_args && ryÚ_generic_class_getitemrö\sá€ô �dœE× "Ò "؈wˆç Œ5Ñ0©4Ó0�5‰5Ñ0©4Ó0Ó 0€DØ ¤W¬hÐ$7Ñ7ÐççÜØ$ S×%5Ñ%5Ð$6Ð6KÐLóð ÷‹sÑ5±Ó5�s�sŠsÑ5±Ó5×5Ò5ÜØ  §¡ ð/8ð9ó:ð :ô Œs�4‹y‹>œS ›YÔ &ÜØ  §¡ Ð.FÐGóIð Ið 'ð Ø×+Ñ+ˆJó ˆEܘeÐ%?ÀÓFˆGØÔ"Ù˜sÓ)’ñ ô & cÔ0àˆÜ! *Ö3‰NˆEܘ%¤×.Ò.Ø—‘ Ö(à—‘ Ö(ñ 4ô �X‹ˆä ˜Ó #Ð#øô1ô Ü# CÐ)<¸dÓCˆMØ T¬7×+DÑ+DÐ$EÔEØ— ‘ ØCØ$×1Ñ1Ñ4ð5<ð=ôð ûð úsÄ F/Æ/ HÆ:AG?Ç?Hcó$a €\\V` !V/VB.pRVP9d\VP9pMD\VP 9;'d*VP R8g;'d\V4\8gpV'd \R4hRVP9dÜ\VP4pRpVPFLp\V\4'gKVP\JgK1Ve \R4hVPpKN Vee\V4p\V4o VS 8:gFRP!V 3RlV44pRP!RV44p \RV R V R 24hTp\#V4VnR#) Ú__orig_bases__rz!Cannot inherit from plain GenericNz0Cannot inherit from Generic[...] multiple times.r«c3óJ<"€TFqS9gK \V4x€K R#5ir­r )r¯r°Úgvarsets& €ryr±Ú)_generic_init_subclass..·søé€Ð"M±5¨aÀWÑrrøÚ __bases__r~r‹Ú_TypedDictMetar–rÃrŒr”r•rÂrírµr˜) rÛr§r�ÚtvarsÚerrorÚgvarsÚbaseÚtvarsetÚs_varsÚs_argsrús &*, @ryÚ_generic_init_subclassr™syø€Ü Œ'�3Ò)¨4Ð:°6Ò:Ø €Eؘ3Ÿ<™<Ô'ܘ3×-Ñ-Ñ-‰ä˜CŸM™MÑ)÷0ð0Ø—L‘L JÑ.÷0ð0䘓I¤Ñ/ð ÷ ÜÐ;Ó<Ð<ؘ3Ÿ<™<Ô'Ü(¨×);Ñ);Ó<ˆð ˆØ×&Ô&ˆDܘ4¤×/Ô/Ø—O‘O¤wÕ.ØÒ$Ü#ØJóLðLà×+Ñ+’ñ 'ð Ò Ü˜%“jˆGܘ%“jˆGؘgÔ%ØŸ™Ô"M±5Ó"MÓM�ØŸ™Ñ"9±5Ó"9Ó9�ÜÐ"7¸°xð@:Ø:@¸Àð!DóEðEàˆEܘu›€CÖr|cóV€VPR4;'dVPR4#)Ú__)Ú startswithÚendswith)rxs&ryÚ _is_dunderr ¿s"€Ø �?‰?˜4Ó × 8Ð 8 T§]¡]°4Ó%8Ð8r|córaa€]tRtRtoRtRRRR/RltRtR tR tV3R lt R t R t V3Rlt Rt VtV;t#)Ú_BaseGenericAliasiÂaœThe central part of the internal API. This represents a generic version of type 'origin' with type arguments 'params'. There are two kind of these aliases: user defined and special. The special ones are wrappers around builtin collections and ABCs in collections.abc. These must have 'name' always set. If 'inst' is False, then the alias can't be instantiated; this is used by e.g. typing.List and typing.Dict. ÚinstTÚnameNcó8€W nW0nWnRVnR#r­)Ú_instrHr•r)rwÚoriginrrs&&$$ryrJÚ_BaseGenericAlias.__init__Ìs€ØŒ ØŒ Ø ŒØˆŽr|cóà€VP'g1\RVP RVPP R24hVP!V/VBpWnV# \ dT#i;i)zType z cannot be instantiated; use z () instead)rr–rHr•r~Ú__orig_class__Ú Exception)rwr§r�Úresults&*, ryraÚ_BaseGenericAlias.__call__Òs€Ø�z�zˆzܘe D§J¡J <ð0#Ø#'§?¡?×#;Ñ#;Ð"<¸JðHóIð Ià—’ $Ð1¨&Ñ1ˆð Ø$(Ô !ð ˆ øôô Ø Øˆ ð úsÁAÁ A-Á,A-cóZ€.pVPV9dVPVP4VPV4pW^,RF¾p\V\4'dM¼\V\ 4'gv\ VRR4pV'd V!V4MRp\V\4'd?\;QJdRV4F 'gK RM RM !RV44'dM5K¤K¦\V\4'gK¾M VP\4\V4#)rÊNrTc3ór"€TF-p\V\4;'d\V\4x€K/ R#5ir­)rŒr‹Ú issubclassr )r¯Úb2s& ryr±Ú4_BaseGenericAlias.__mro_entries__..ós0é€ðá"+˜Bô# 2¤tÓ,×HÐH´¸BÄÓ1HÔHÛ"+ùs‚7ž7TF) r•rÄrÌrŒrr‹rvr˜Úanyrr )rwrSÚresräÚbÚmethÚ new_basess&& ryrTÚ!_BaseGenericAlias.__mro_entries__ßsô€ØˆØ �?‰? %Ô 'Ø �J‰J�t—‘Ô 'ð �K‰K˜Ó ˆØ˜•s�t“ˆAܘ!Ô.×/Ò/Ùܘa¤×&Ò&ܘqÐ"3°TÓ:�ß+/™D œK°T� ä˜y¬%×0Ò0ß“Cñá"+ó—C—C’Cñá"+ó÷òñ ñ ñ1ô˜Aœw×'Ô'Ùñð" �J‰J”wÔ Ü�S‹zÐr|cóê€VR9d+VP;'gVPP#RVP9d(\ V4'g\ VPV4#\ V4h)r~r•>r~r€)rHr•r~rr rvrM)rwrxs&&ryrzÚ_BaseGenericAlias.__getattr__ÿs[€Ø Ð/Ô /Ø—:‘:×9Ð9 §¡×!9Ñ!9Ð 9ð ˜4Ÿ=™=Ô (´¸D×1AÒ1Aܘ4Ÿ?™?¨DÓ1Ð 1ܘTÓ"Ð"r|có†<€\V4'gVR9d\SV` W4R#\VPW4R#)rHN>rrHÚ_nparamsÚ _defaults)r r‚Ú __setattr__Úsetattrr•)rwrxÚvalrƒs&&&€ryr*Ú_BaseGenericAlias.__setattr__ s1ø€Ü �d× Ò ˜tÐ'RÔRÜ ‰GÑ  Ö *ä �D—O‘O TÖ /r|có6€VP\V44#r­)rur‹ros&&ryrpÚ#_BaseGenericAlias.__instancecheck__s€Ø×%Ñ%¤d¨3£iÓ0Ð0r|có€\R4h)zBSubscripted generics cannot be used with class and instance checksr=rts&&ryruÚ#_BaseGenericAlias.__subclasscheck__s€Üð5ó6ð 6r|c óÈ<€\\\SV` 4\ VP 4Uu.uFp\ V4'dKVNK up,44#uupir­)ržrír‚Ú__dir__Údirr•r ©rwrxrƒs& €ryr3Ú_BaseGenericAlias.__dir__sRø€Ü”Cœ™™Ó)Ü$'¨¯©Ô$8ÓQÑ$8˜DÄ È4×@P—4�4Ñ$8ÑQõRóSóTð TùÚQs °AÁA)r•rrrH)r~rr€r�rArJrarTrzr*rprur3r‚rƒr‡rˆs@@ryrrÂsHù‡€ñð tð°$ôò òò@#õ0ò 1ò6÷TõTr|rcóšaa€]tRtRtoRtRRRR/V3RlltRtR tR tR t ] R 4t R t Rt RtRtRtV3RltRtRtVtV;t#)r”i&aôThe type of parameterized generics. That is, for example, `type(List[int])` is `_GenericAlias`. Objects which are instances of this class include: * Parameterized container types, e.g. `Tuple[int]`, `List[int]`. * Note that native container types, e.g. `tuple`, `list`, use `types.GenericAlias` instead. * Parameterized classes: class C[T]: pass # C[int] is a _GenericAlias * `Callable` aliases, generic `Callable` aliases, and parameterized `Callable` aliases: T = TypeVar('T') # _CallableGenericAlias inherits from _GenericAlias. A = Callable[[], None] # _CallableGenericAlias B = Callable[[T], None] # _CallableGenericAlias C = B[int] # _CallableGenericAlias * Parameterized `Final`, `ClassVar`, `TypeForm`, `TypeGuard`, and `TypeIs`: # All _GenericAlias Final[int] ClassVar[float] TypeForm[bytearray] TypeGuard[bool] TypeIs[range] Note that instances of this class are not classes (e.g by `inspect.isclass`), even though they behave like them. rTrNcó6<€\SV`WVR7\V\4'gV3p\;QJd.RV4FNK 5M !RV44VnV\ \ 39p\VVR7VnV'gVPVn R#R#)©rrc3ó>"€TFpV\JdRMTx€K R#5i).N)Ú_TypingEllipsisrÞs& ryr±Ú)_GenericAlias.__init__..Hs&é€ð/Ù)- Að&'¬/Ó%9™cØô Û)-ùs‚)r¹N) r‚rJrŒr˜rñr rrÃrÂr)rwrr§rrr¹rƒs&&&$$ €ryrJÚ_GenericAlias.__init__Ds�ø€Ü ‰Ñ˜°ÐÔ6ܘ$¤×&Ò&Ø�7ˆDßœñ/Ù)-ó/Ÿ™ñ/Ù)-ó/ó/ˆŒ à#)¬g´xÐ-@Ñ#@Ð Ü6Ø Ø%=ô ˆÔ÷Ø$×/Ñ/ˆDŽOñr|có®€\V\4'g\#VPVP8H;'dVPVP8H#r­)rŒr”ÚNotImplementedr•rñres&&ryÚ__eq__Ú_GenericAlias.__eq__RsF€Ü˜%¤×/Ò/Ü!Ð !Ø—‘ 5×#3Ñ#3Ñ3÷4ð4Ø—M‘M U§^¡^Ñ3ð 5r|cóD€\VPVP34#r­)Úhashr•rñrs&ryÚ__hash__Ú_GenericAlias.__hash__Xs€Ü�T—_‘_ d§m¡mÐ4Ó5Ð5r|có€\W3,#r­rd©rwrÖs&&ryrgÚ_GenericAlias.__or__[rir|có€\W3,#r­rd©rwrÕs&&ryrkÚ_GenericAlias.__ror__^ó€Ü�T�ZÕ Ð r|c ó.€VP\\39d\RV 24hVP'g\V R24h\ V\ 4'gV3p\RV4!pVPV4pVPV4pV#)a³Parameterizes an already-parameterized object. For example, we arrive here doing something like: T1 = TypeVar('T1') T2 = TypeVar('T2') T3 = TypeVar('T3') class A(Generic[T1]): pass B = A[T2] # B is a _GenericAlias C = B[T3] # Invokes _GenericAlias.__getitem__ We also arrive here when parameterizing a generic `Callable` alias: T = TypeVar('T') C = Callable[[T], None] C[int] # Invokes _GenericAlias.__getitem__ z%Cannot subscript already-subscripted rÎc3ó8"€TFp\V4x€K R#5ir­rèrÐs& ryr±Ú,_GenericAlias.__getitem__..|sé€Ð=¹°1œm¨A×.Ð.»ùr³) r•r rr–rÂrŒr˜rçÚ_determine_new_argsr4)rwr§rôÚrs&& ryryÚ_GenericAlias.__getitem__as�€ð$ �?‰?œw¬Ð1Ô 1äÐCÀDÀ6ÐJÓKÐ KØ×"×"Ð"ܘt˜fÐ$;Ð<Ó=Ð =ô˜$¤×&Ò&Ø�7ˆDÜÑ=¹Ó=Ñ>ˆØ×+Ñ+¨DÓ1ˆØ �N‰N˜8Ó $ˆØˆr|c  óJ€VPpVFp\VRR4pVfKV!W4pK \V4p\V4pWV8wd \RWV8”dRMR RV RV RV 24h\ \ W!44p\ VPVPV44#) a—Determines new __args__ for __getitem__. For example, suppose we had: T1 = TypeVar('T1') T2 = TypeVar('T2') class A(Generic[T1, T2]): pass T3 = TypeVar('T3') B = A[int, T3] C = B[str] `B.__args__` is `(int, T3)`, so `C.__args__` should be `(int, str)`. Unfortunately, this is harder than it looks, because if `T3` is anything more exotic than a plain `TypeVar`, we need to consider edge cases. rëNrÔrÕrÖr×rØrÙ) rÂrvr¥r–rêrïr˜Ú_make_substitutionrñ)rwr§rìrÒrórÓrÔÚnew_arg_by_params&& ryrPÚ!_GenericAlias._determine_new_args�s¸€ð×$Ñ$ˆãˆEܘeÐ%?ÀÓFˆGØÔ"Ù˜tÓ*’ñô�4‹yˆÜ�6‹{ˆØ Œ<ܘd¨T¬[¡6¸eÐ"DÀOÐTXÐSYðZ'Ø'+ f¨K¸°vð?ó@ð @䤠FÓ 1Ó2ÐÜ�T×,Ñ,¨T¯]©]Бä# GÐ-=¸rÓB� ß Ø%‘Gà �GÛ&˜Ü% a¬×6Ò6Ø#ŸN™NÐ+;Õ+>Ö?à#ŸN™NÐ+;Õ+>Ö?ñ 'ð &¤e¨G£nÕ5�Gà�‰¤+§/¡/×":Ñ":Ô:¼zÈ'ÔSX×?YÒ?Yð—‘ ×(Ü*¨7×3Ò3ð—‘ ×(ܘG¤U×+Ò+ð—‘ܘ$×1Ñ1°'ÓLÓM÷ð—‘ ×(ñqðrˆr|cóf€VPVPWPVPR7#©)rr)rƒr•rHr©rwr§s&&ryr4Ú_GenericAlias.copy_withÜs#€Ø�~‰~˜dŸo™o¨t¿*¹*È4Ï:É:ˆ~ÓVÐVr|có$€VP'dRVP,pM\VP4pVP'd6RP VPUu.uFp\V4NK up4pMRpV RV R2#uupi)rXr«z()rªr´)rHr®r•rñrµ)rwrr(r§s& ryrÚ_GenericAlias.__repr__ßsu€Ø �:�:ˆ:ؘtŸz™zÕ)‰Dä˜dŸo™oÓ.ˆDØ �=�=ˆ=Ø—9‘9°T·]²]ÓC±]°œj¨žm±]ÑCÓD‰DðˆDØ��q˜˜˜aÐ Ð ùò DsÁ'B có(€VP'd\4VP,pM VPp\VP4p\ V4^8Xd"\ V^,\4'gVwp\PW33#©rÊ) rHr r•r˜rñr¥rŒr2rI)rwrr§s& ryr]Ú_GenericAlias.__reduce__ësg€Ø �:�:ˆ:Ü“Y˜tŸz™zÕ*‰Fà—_‘_ˆFÜ�T—]‘]Ó#ˆÜ ˆt‹9˜Œ>¤*¨T°!­W´e×"<Ò"<؉EˆDÜ×Ñ & Ð/Ð/r|cóˆ<€\VP\4'd\RV: 24hVP'd\ SV`V4#VP\JdR\V9dR#VPV4pW^,RF$p\V\4'gKW0JgK"Ru# VP3#)rQNr}) rŒr•r—r–rHr‚rTr rrÌr)rwrSrär!rƒs&& €ryrTÚ_GenericAlias.__mro_entries__õsŸø€Ü �d—o‘o¤|× 4Ò 4ÜÐ.¨t©hÐ7Ó8Ð 8à �:�:ˆ:Ü‘7Ñ*¨5Ó1Ð 1Ø �?‰?œgÓ %ܘ5Ô Ø� Ø— ‘ ˜DÓ!ˆAؘQ�3˜4“[�ܘaÔ!2×3Ô3¸½ Ø’Iñ!ð—‘Ð!Ð!r|c#ó,"€\V,x€R#5ir­)rors&ryrDÚ_GenericAlias.__iter__sé€Ü�T�lÔùs‚)rñrrÂ)r~rr€r�rArJr@rDrgrkrryrPrTr4rr]rTrDr‚rƒr‡rˆs@@ryr”r”&spù‡€ñð: 0¨Tð 0¸÷ 0ò5ò 6ò"ò!ðñóðò>Oò:<ò|Wò !ò0õ "÷òr|r”có|aa€]tRtRtoRRRRRR/V3Rllt]R4tR tR tV3R lt R t R t Rt Rt VtV;t#)Ú_SpecialGenericAliasi rTrNÚdefaultscóö<€Vf VPp\SV` WVR7W nWPnVP R8XdRVP R2VnR#RVP RVP R2VnR#)Nr9ÚbuiltinszDeprecated alias to r“)r~r‚rJr(r)rr€rA)rwrÚnparamsrrrkrƒs&&&$$$€ryrJÚ_SpecialGenericAlias.__init__ swø€Ø Š<Ø—?‘?ˆDÜ ‰Ñ˜°ÐÔ6ØŒ Ø!ŒØ × Ñ   Ô *Ø1°&×2EÑ2EÐ1FÀaÐHˆDŽLà1°&×2CÑ2CÐ1DÀAÀf×FYÑFYÐEZÐZ[Ð\ˆDŽLr|c óFa€\V\4'gV3pRo\;QJd.V3RlV4FNK 5M!V3RlV44pVP'd}\V4VP8dc\V4\VP4,VP8¼d/.VOVP\V4VP, RO5p\V4pW P8wd›VP'd+RVP\VP4, 2pM\ VP4pVP'g\ V R24h\ RW P8”dRMR RV R V R V 24hVPV4#) rÇc3ó<<"€TFp\VS4x€K R#5ir­r§r¨s& €ryr±Ú3_SpecialGenericAlias.__getitem__..óøé€Ð;±F¨q”{ 1 c×*Ð*³FùrªNrÓrÎrÔrÕrÖr×rØrÙ)rŒr˜r)r¥r(r�r–r4)rwrìrÞÚexpectedr™s&& @ryryÚ _SpecialGenericAlias.__getitem__sNø€ä˜&¤%×(Ò(Ø�YˆFØ:ˆß”Ô;±FÓ;—‘Ô;±FÓ;Ó;ˆØ �N�NˆNÜ�F“ ˜dŸm™mÔ+Ü�F“ œc $§.¡.Ó1Õ1°T·]±]ÔBàM�vÐM §¡¬s°6«{¸T¿]¹]Õ/JÐ/KÐ LÑMˆFܘ“[ˆ à Ÿ™Ô &Ø�~�~ˆ~Ø& t§}¡}´s¸4¿>¹>Ó7JÕ'JÐ&KÐL‘ä˜tŸ}™}Ó-�Ø—=—=�=Ü 4 &Ð(?Ð @ÓAÐAܘd¨Z¿-¹-Ô-G¡6ÈUÐ"SÐSbÐcgÐbhði'Ø'1 l°+¸h¸ZðIóJð Jà�~‰~˜fÓ%Ð%r|có\€\VPVVPVPR7#r])r”r•rHr©rwrìs&&ryr4Ú_SpecialGenericAlias.copy_with0s$€Ü˜TŸ_™_¨fØ"&§*¡*°4·:±:ô?ð ?r|có(€RVP,#rWrYrs&ryrÚ_SpecialGenericAlias.__repr__4r[r|cóä<€\V\4'd!\VPVP4#\V\4'g\WP4#\ SV`V4#r­)rŒrjrr•r”r‚ru)rwrÛrƒs&&€ryruÚ&_SpecialGenericAlias.__subclasscheck__7sRø€Ü �cÔ/× 0Ò 0ܘcŸn™n¨d¯o©oÓ>Ð >ܘ#œ}×-Ò-ܘc§?¡?Ó3Ð 3܉wÑ(¨Ó-Ð-r|có€VP#r­rYrs&ryr]Ú_SpecialGenericAlias.__reduce__>r_r|có€\W3,#r­rdrGs&&ryrgÚ_SpecialGenericAlias.__or__Arir|có€\W3,#r­rdrJs&&ryrkÚ_SpecialGenericAlias.__ror__DrLr|)rAr)r(r})r~rr€r�rJrryr4rrur]rgrkr‚rƒr‡rˆs@@ryrjrj sZù‡€ð ]°ð ]¸4ð ]È"÷ ]ðñ&óð&ò.?ò&õ.òò"÷!ò!r|rjcóJaa€]tRtRtoRRRR/V3RlltV3RltRtVtV;t#) Ú_DeprecatedGenericAliasiHrTrNcó6<€\SV`WWER7W0nR#)r9N)r‚rJÚ_removal_version)rwrrnÚremoval_versionrrrƒs&&&$$$€ryrJÚ _DeprecatedGenericAlias.__init__Isø€ô ‰Ñ˜¨tÐÔ?Ø /Ör|có–<€^RIpVPVP RVP 2VPR7\ SV`V4#)rsNr“©Úremove)rÚ _deprecatedrrHr†r‚rp)rwrrrƒs&& €ryrpÚ)_DeprecatedGenericAlias.__instancecheck__OsJø€ÛØ×ÑØ�‰Ð˜q §¡  Ð -°d×6KÑ6Kð ô ô‰wÑ(¨Ó.Ð.r|)r†) r~rr€r�rJrpr‚rƒr‡rˆs@@ryr„r„Hs$ù‡€ð0Ø8<ð0ØCG÷0÷ /õ/r|r„có8aa€]tRtRtoV3RltRtRtVtV;t#)Ú_CallableGenericAliasiWc ó@<€VPR8XgQhVPp\V4^8Xd'\V^,4'd\SV`4#RRP VRRUu.uFp\V4NK up4 R\VR,4 R2#uupi)rztyping.Callable[[r«Nz], r´rã)rHrñr¥r¡r‚rrµr®)rwr§r(rƒs& €ryrÚ_CallableGenericAlias.__repr__Xs’ø€Ø�z‰z˜ZÔ'Ð'Ð'Ø�}‰}ˆÜ ˆt‹9˜Œ>œn¨T°!­W×5Ò5Ü‘7Ñ#Ó%Ð %ðØ—Y‘Y°t¸C¸R±yÓA±y°!¤ ¨1¦ ±yÑAÓBÐCÀ3ܘd 2�hÓ'Ð(¨ð+ð ,ùÚAsÁ*B cóÈ€VPp\V4^8Xd\V^,4'g\VRR4VR,3p\P \ V33#)r»Nrã)rñr¥r¡ržr2rIrr^s& ryr]Ú _CallableGenericAlias.__reduce__asR€Ø�}‰}ˆÜ�D“ ˜Q”¤>°$°qµ'×#:Ò#:ܘ˜S˜b˜ “? D¨¥HÐ,ˆDÜ×Ѥ(¨DÐ!1Ð1Ð1r|r}) r~rr€r�rr]r‚rƒr‡rˆs@@ryr�r�Wsù‡€õ,÷2ò2r|r�có<a€]tRtRtoRtRt]R4tRtVt R#)Ú _CallableTypeihcó\€\VPVVPVPR7#r])r�r•rHrrws&&ryr4Ú_CallableType.copy_withis&€Ü$ T§_¡_°fØ*.¯*©*¸4¿:¹:ôGð Gr|cóÜ€\V\4'd\V4^8wd \R4hVwr#\V\4'd\V4V3pMW#3pVP V4#)r»z6Callable must be used as Callable[[arg, ...], result].)rŒr˜r¥r–ržÚ__getitem_inner__)rwrìr§rs&& ryryÚ_CallableType.__getitem__msh€Ü˜&¤%×(Ò(¬C°«K¸1Ô,<Üð<ó=ð =à‰ ˆô �dœD× !Ò !ܘD“k 6Ð*‰Fà�^ˆFØ×%Ñ% fÓ-Ð-r|có$€Vwr#Rp\W44pV\JdVP\V34#\ V\ 4'gV3p\ ;QJd.RV4FNK 5M !RV44pW#3,pVPV4#)z.Callable[args, result]: result must be a type.c3ó8"€TFp\V4x€K R#5ir­rè)r¯r�s& ryr±Ú2_CallableType.__getitem_inner__..„sé€Ð8±4¨C”] 3×'Ð'³4ùr³)rœÚEllipsisr4r;rŒr˜)rwrìr§rr™s&& ryr™Ú_CallableType.__getitem_inner__{s€à‰ ˆØ>ˆÜ˜VÓ)ˆØ ”8Ó Ø—>‘>¤?°FÐ";Ó<Ð <ܘ$¤×&Ò&Ø�7ˆDߌuÑ8±4Ó8�u‰uÑ8±4Ó8Ó8ˆØ˜ Õ!ˆØ�~‰~˜fÓ%Ð%r|r}N) r~rr€r�r4ryrr™r‚rƒr„s@ryr•r•hs$ø‡€òGò .ðñ &óö &r|r•có0a€]tRtRto]R4tRtVtR#)Ú _TupleTypei‰có¢a€\V\4'gV3p\V4^8¼dbVR,RJdURo\;QJd.V3RlVRR4FNK 5M!V3RlVRR44pVP.VO\N54#Ro\;QJd.V3RlV4FNK 5M!V3RlV44pVPV4#)r».z Tuple[t, ...]: t must be a type.c3ó<<"€TFp\VS4x€K R#5ir­r§r¨s& €ryr±Ú)_TupleType.__getitem__..�søé€ÐD¹ °1œ; q¨#×.Ð.» ùrªNz*Tuple[t0, t1, ...]: each t must be a type.c3ó<<"€TFp\VS4x€K R#5ir­r§r¨s& €ryr±r¤“rsrªrã)rŒr˜r¥r4r;)rwrìr™s&&@ryryÚ_TupleType.__getitem__Šs©ø€ä˜&¤%×(Ò(Ø�YˆFÜ ˆv‹;˜!Ô   r¥ ¨cÓ 1Ø4ˆCß”UÔD¸¸sÀ¹ ÓD—U‘UÔD¸¸sÀ¹ ÓDÓDˆFØ—>‘>Ð"< FÐ"<¬OÑ"<Ó=Ð =Ø:ˆß”Ô;±FÓ;—‘Ô;±FÓ;Ó;ˆØ�~‰~˜fÓ%Ð%r|r}N)r~rr€r�rryr‚rƒr„s@ryr¡r¡‰sø‡€Øñ &óö &r|r¡cóPa€]tRtRtoV3RlRltV3RlRltRtRtRtVt R #) Ú_UnionGenericAliasMetai—có&<€V^8„dQhRS[RS[/#©r»rr)Úobjectr½)r¾r…s"€ryr¿Ú#_UnionGenericAliasMeta.__annotate__˜sø€÷'ñ'¡fð'±ñ'r|cóP€^RIpVPRRR7\V\4#©rsNÚ_UnionGenericAliasrŠ©éé)rrŒrŒr©rwrrs&& ryrpÚ(_UnionGenericAliasMeta.__instancecheck__˜ó&€ÛØ×ÑÐ1¸'ÐÔBܘ$¤Ó&Ð&r|có&<€V^8„dQhRS[RS[/#rª©r‹r½)r¾r…s"€ryr¿r¬�sø€÷'ñ'¡dð'©tñ'r|cóP€^RIpVPRRR7\V\4#r®)rrŒrrr³s&& ryruÚ(_UnionGenericAliasMeta.__subclasscheck__�rµr|cóh€^RIpVPRRR7V\Jg V\JdR#\#)rsNr¯rŠTr°)rrŒr¯rr?)rwrfrs&& ryr@Ú_UnionGenericAliasMeta.__eq__¢s1€ÛØ×ÑÐ1¸'ÐÔBØ Ô&Ó &¨%´5«.ÙÜÐr|có €\\4#r­)rCrrs&ryrDÚ_UnionGenericAliasMeta.__hash__©s €Ü”E‹{Ðr|r}N) r~rr€r�rprur@rDr‚rƒr„s@ryr¨r¨—s(ø‡€÷'ð'÷ 'ð'ò ÷ðr|r¨có2a€]tRtRtoRtRR/RltRtVtR#)r¯i­zÚCompatibility hack. A class named _UnionGenericAlias used to be used to implement typing.Union. This class exists to serve as a shim to preserve the meaning of some code that used to use _UnionGenericAlias directly. rNcóJ€^RIpVPRRR7\V,#r®)rrŒr)rÛÚself_clsrÊrrs"""$ ryr‹Ú_UnionGenericAlias.__new__¶s$€ÛØ×ÑÐ1¸'ÐÔBÜ�ZÕ Ð r|r})r~rr€r�rAr‹r‚rƒr„s@ryr¯r¯­sø‡€ñð!°d÷!ò!r|r¯có€RV4#)c3ó:"€TFq\V43x€K R#5ir­)r‹rÐs& ryr±Ú'_value_and_type_iter..½sé€Ð -¡*˜Q”�Q“�L£*ùràr})rÊs&ryr¡r¡¼s €Ù -¡*Ó -Ð-r|có,a€]tRtRtoRtRtRtVtR#)rðiÀcó´€\V\4'g\#\\ VP 44\\ VP 448H#r­)rŒrðr?rír¡rñres&&ryr@Ú_LiteralGenericAlias.__eq__ÁsB€Ü˜%Ô!5×6Ò6Ü!Ð !äÔ'¨¯ © Ó6Ó7¼3Ô?SÐTY×TbÑTbÓ?cÓ;dÑdÐdr|cóP€\\\VP444#r­)rCÚ frozensetr¡rñrs&ryrDÚ_LiteralGenericAlias.__hash__Çs€Ü”IÔ2°4·=±=ÓAÓBÓCÐCr|r}N)r~rr€r�r@rDr‚rƒr„s@ryrðrðÀsø‡€òe÷ DðDr|rðcó2aa€]tRtRtoV3RltRtVtV;t#)rŸiËcóú<€\VR,\\34'd.VRROVR,O5#\VR,\4'd.VRROVR,PO5p\ SV`V4#)rÊNrã)rŒržr˜rŸrñr‚r4)rwrìrƒs&&€ryr4Ú"_ConcatenateGenericAlias.copy_withÌssø€Ü �f˜R•j¤4¬ -× 0Ò 0Ø.�V˜C˜R�[Ð. 6¨"¥:Ñ.Ð .Ü �f˜R•jÔ":× ;Ò ;Ø9�v˜c˜r�{Ð9 V¨B¥Z×%8Ñ%8Ñ9ˆF܉wÑ  Ó(Ð(r|r})r~rr€r�r4r‚rƒr‡rˆs@@ryrŸrŸËsù‡€÷)õ)r|rŸcó8€\W R24p\W3R7#)amType unpack operator. The type unpack operator takes the child types from some container type, such as `tuple[int, str]` or a `TypeVarTuple`, and 'pulls them out'. For example:: # For some generic class `Foo`: Foo[Unpack[tuple[int, str]]] # Equivalent to Foo[int, str] Ts = TypeVarTuple('Ts') # Specifies that `Bar` is generic in an arbitrary number of types. # (Think of `Ts` as a tuple of an arbitrary number of individual # `TypeVar`s, which the `Unpack` is 'pulling out' directly into the # `Generic[]`.) class Bar(Generic[Unpack[Ts]]): ... Bar[int] # Valid Bar[int, str] # Also valid From Python 3.11, this can also be done using the `*` operator:: Foo[*tuple[int, str]] class Bar(Generic[*Ts]): ... And from Python 3.12, it can be done using built-in syntax for generics:: Foo[*tuple[int, str]] class Bar[*Ts]: ... The operator can also be used along with a `TypedDict` to annotate `**kwargs` in a function signature:: class Movie(TypedDict): name: str year: int # This function expects two keyword arguments - *name* of type `str` and # *year* of type `int`. def foo(**kwargs: Unpack[Movie]): ... Note that there is only some runtime checking of this operator. Not everything the runtime allows is accepted by static type checkers. For more information, see PEPs 646 and 692. r–)rr§)rœÚ_UnpackGenericAliasr™s&& ryroroÔs$€ô^ �z VÐ+EÐ#FÓ G€DÜ  d°Ô 9Ð9r|cóXaa€]tRtRtoRtV3Rlt]R4t]R4tRt Vt V;t #)rÏicóB€R\VP^,4 R2#)ztyping.Unpack[r´)r®rñrs&ryrÚ_UnpackGenericAlias.__repr__s"€ð ¤ ¨4¯=©=¸Õ+;Ó <Ð=¸QÐ?Ð?r|cóJ<€VP'dV#\SV` V4#r­)rÁr‚ry)rwr§rƒs&&€ryryÚ_UnpackGenericAlias.__getitem__ s$ø€Ø × 3× 3Ð 3؈K܉wÑ" 4Ó(Ð(r|có(€VP\JgQh\VP4^8XgQhVPwp\ V\ \ P34'd,VP\Jd \R4hVP#R#)rÊz*Unpack[...] must be used with a tuple typeN) r•ror¥rñrŒr”Útypesrr˜r–rás& ryrâÚ2_UnpackGenericAlias.__typing_unpacked_tuple_args__ss€à�‰¤&Ó(Ð(Ð(Ü�4—=‘=Ó! QÔ&Ð&Ð&Ø�}‰}‰ˆÜ �cœM¬5×+=Ñ+=Ð>× ?Ò ?Ø�~‰~¤UÓ*ÜÐ LÓMÐMØ—<‘<Ð Ùr|có¨€VP\JgQh\VP4^8XgQh\ VP^,\ 4#rc)r•ror¥rñrŒr rs&ryrÁÚ7_UnpackGenericAlias.__typing_is_unpacked_typevartuple__sA€à�‰¤&Ó(Ð(Ð(Ü�4—=‘=Ó! QÔ&Ð&Ð&ܘ$Ÿ-™-¨Õ*¬LÓ9Ð9r|r}) r~rr€r�rryÚpropertyrârÁr‚rƒr‡rˆs@@ryrÏrÏs=ù‡€ò@õ )ð ñóððñ:ó÷:ð:r|rÏcó€]tRtRtRtRtR#)r;i$z(Internal placeholder for ... (ellipsis).r}N)r~rr€r�rAr‚r}r|ryr;r;$s†Ý2r|r;Ú_MutableMapping__markercó¢€\4pVPRRFqpVPR9dKVPp.VPOVOF:pVPR4'dKV\9gK)VPV4K< Ks V# \d3\ P T\ PPR7pL�i;i)zÇCollect protocol members from a protocol class objects. This includes names actually defined in the class dictionary, as well as names that appear in annotations. Special names (above) are skipped. N©r¾Ú_abc_rã>r r) ríÚ__mro__r~Ú__annotations__rruÚget_annotationsr³r¹rr ÚEXCLUDED_ATTRIBUTESÚadd)rÛÚattrsrÚ annotationsrxs& ryÚ_get_protocol_attrsrç:s»€ô ‹E€EØ— ‘ ˜C˜RÓ ˆØ �=‰=Ð3Ô 3Ù ð Ø×.Ñ.ˆKð 3�d—m‘mÐ2 kÓ2ˆDØ—?‘? 7×+Ô+°ÔóŠKð ús± BÂ:Cà Ccób€\V4pVP'd \R4hVP\JdR#VP F5pVP PR\4pV\JgK/WSnM \PVnVP!V.VO5/VBR#)z Protocols cannot be instantiatedNrJ) r‹Ú _is_protocolr–rJÚ_no_init_or_replace_initràrr/r«)rwr§r�rÛrÚinits&*, ryrêrêQs�€Ü ˆt‹*€Cà ××ÐÜÐ:Ó;Ð;ð ‡|�|Ô3Ó3Ùð— ” ˆØ�}‰}× Ñ  Ô-EÓFˆØ Ô/Õ /ØŒLÙ ñ ô—‘ˆŒ à‡L‚L�Ð'˜Ò' Ô'r|có€\P!V^,4;'gT# \dMi;i\P!T^,4PP RT4# \\ 3dR#i;i)rÊr~N)r-Ú_getframemodulenamerMÚ _getframeÚ f_globalsr/Ú ValueError)ÚdepthÚdefaults&&ryÚ_callerróns{€ð Ü×&Ò& u¨q¥yÓ1×<Ð<°WÐ<øÜ ô Ù ð úð Ü�}Š}˜U Q�YÓ'×1Ñ1×5Ñ5°jÀ'ÓJÐJøÜ œJÐ 'ô Ø Ù ð ús!‚#)¦)© 7¶7»6A2Á2BÂBcó€\V4R9#)zÎAllow instance and class checks for special stdlib modules. The abc and functools modules indiscriminately call isinstance() and issubclass() on the whole MRO of a user class, which may contain protocols. >Nr¤rý)ró)rñs&ryÚ_allow_reckless_class_checksrõys€ô �5‹>Ð7Ñ 7Ð7r|zcollections.abcÚ contextlibÚAbstractContextManagerÚAbstractAsyncContextManagerÚioÚReaderÚWriterÚosÚPathLikecó€^RIHpV#)rs©Úgetattr_static)Úinspectrrÿs ryÚ_lazy_load_getattr_staticrŽs €õ'Ø Ðr|có(€\VP33#r­)r r•)Úpsargss&ryÚ_pickle_psargsr˜s€Ü ˜6×,Ñ,Ð.Ð .Ð.r|có(€\VP33#r­)r r•)Úpskwargss&ryÚ_pickle_pskwargsr�s€Ü ˜X×0Ñ0Ð2Ð 2Ð2r|cóH€\V\4'g \R4hR#)a»Raise TypeError if `arg` is not an instance of `type` in `issubclass(arg, )`. In most cases, this is verified by type.__subclasscheck__. Checking it again unnecessarily would slow down issubclass() checks, so, we don't perform this check unless we absolutely have to. For various error paths, however, we want to ensure that *this* error message is shown to the user where relevant, rather than a typing.py-specific error message. z"issubclass() arg 1 must be a classN)rŒr‹r–r s&ryÚ_type_check_issubclass_arg_1r ­s"€ô �cœ4× Ò äÐ<Ó=Ð=ñ !r|cóJaa€]tRtRtoV3RltV3RltRtRtRtVt V;t #)Ú _ProtocolMetai¾c óp<€VR8XdV\38XdM�\V9d†VFpV\\09dKVP\P VP .49dKG\V\4'd\VRR4'dKr\RV: 24h \SV`,!WW#3/VB#)rréFz5Protocols can only inherit from other protocols, got ) r rr«r~Ú_PROTO_ALLOWLISTr/rrrvr–r‚r‹)ÚmclsrrSÚ namespacer�rrƒs"""", €ryr‹Ú_ProtocolMeta.__new__Ás¦ø€Ø �:Ô  %¬G¨:Ô"5Ø Ü ˜Ô Û�àœV¤WÐ-Ö-Ø—}‘}Ô(8×(<Ñ(<¸T¿_¹_ÈbÓ(QÖQä" 4¬×1Ò1Ü# D¨.¸%×@Ô@ô$ðØ#™hð(óðñô‰wŠ˜t¨5ÑF¸vÑFÐFr|cór<€\SV`!V/VB\VRR4'd\V4VnR#R#)réFN)r‚rJrvrçÚ__protocol_attrs__rŒs&*,€ryrJÚ_ProtocolMeta.__init__Ôs6ø€Ü ‰Ò˜$Ð) &Ò)Ü �3˜¨× .Ò .Ü%8¸Ó%=ˆCÖ "ñ /r|có΀V\Jd\PW4#\VRR4'dª\ 4'gš\VRR4'g\ V4\ R4hVP'd_VPPR4\Jd<\ V4\VP4p\ R\V4^R R24h\W4#)réFÚ_is_runtime_protocolúLInstance and class checks can only be used with @runtime_checkable protocolsÚ__subclasshook__zRProtocols with non-method members don't support issubclass(). Non-method members: r“rã)rr‹rurvrõr r–Ú__non_callable_proto_members__rr/Ú _proto_hookÚsortedr�Ú_abc_subclasscheck)rÛrfÚnon_method_attrss&& ryruÚ_ProtocolMeta.__subclasscheck__ÙsÕ€Ø ”(‹?Ü×)Ñ)¨#Ó5Ð 5ä �C˜¨× /Ò /Ü0×2Ò2ä˜3Ð 6¸×>Ò>Ü,¨UÔ3Üð3óðð ×2×2Ð2Ø—L‘L×$Ñ$Ð%7Ó8¼KÓGä,¨UÔ3Ü#)¨#×*LÑ*LÓ#MÐ Üð,Ü,/Ð0@Ó,AÀ!ÀBÐ,GÐ+HÈðKóðô" #Ó-Ð-r|có¦€V\Jd\PW4#\VRR4'g \ W4#\VRR4'g\ 4'g \ R4h\ W4'dR#\4pVPF%pV!W4pTeKY0P9gK$R# R# \dR#i;i)réFrrT) rr‹rprvÚ_abc_instancecheckrõr–rrrMr)rÛÚinstancerrxr,s&& ryrpÚ_ProtocolMeta.__instancecheck__ósÒ€ð ”(‹?Ü×)Ñ)¨#Ó8Ð 8Ü�s˜N¨E×2Ò2ä% cÓ4Ð 4ô˜Ð3°U×;Ò;Ü,×.Ò.äð<ó=ð =ô ˜c× ,Ò ,Ùä2Ó4ˆØ×*Ô*ˆDð Ù$ XÓ4�ðŒ{˜t×+MÑ+MÖMØññ+ñøô "ô Ùñð úsÂCà CÃCr}) r~rr€r�r‹rJrurpr‚rƒr‡rˆs@@ryr r ¾sù‡€õGõ&>ò .÷4òr|r có€VPPRR4'g\#VPF‘pVPFxpW#P9d#VPV,f \uu#KD\ V\ 4'gKM\VRR4'gKbVPpW$9gKwK‰ \u# R# \d3\PT\PPR7pLUi;i)réFrÞT)rr/r?rràrr rvrárrurâr³r¹)rÛrfrxrÚannoss&& ryrrsÜ€à �<‰<× Ñ ˜N¨E× 2Ò 2ÜÐà×&Ô&ˆØ—M”MˆDà—}‘}Ô$Ø—=‘= Õ&Ò.Ü)Ô)Úô˜%¤×)Ô)¬g°e¸^ÈU×.SÔ.SðØ ×0Ñ0�Eð –=Úñ%"ô("Ò !ñ+'ñ, øô!ôÜ/×?Ñ?ØÔ%8×%?Ñ%?×%JÑ%Jð@ó’EðúsÂ' C à :D ÄD cóBaa€]tRtRtoRtRtRtRtV3RltRt Vt V;t #)ri3a Base class for protocol classes. Protocol classes are defined as:: class Proto(Protocol): def meth(self) -> int: ... Such classes are primarily used with static type checkers that recognize structural subtyping (static duck-typing). For example:: class C: def meth(self) -> int: return 0 def func(x: Proto) -> int: return x.meth() func(C()) # Passes static type check See PEP 544 for details. Protocol classes decorated with @typing.runtime_checkable act as simple-minded runtime protocols that check only the presence of given attributes, ignoring their type signatures. Protocol classes can be generic, they are defined as:: class GenProto[T](Protocol): def meth(self) -> T: ... TFcó¼<€\SV`!V/VBVPPRR4'gN\;QJd&RVP 4F 'gK RM RM!RVP 44VnRVP9d \VnVP 'd.VP\PJd\Vn R#R#R#)réFc3ó0"€TF q\Jx€K R#5ir­©r©r¯r!s& ryr±Ú-Protocol.__init_subclass__..]sé€Ð"H¹-°Q¬¥=»-ùs‚TrN) r‚r>rr/rrþrérrrJrrêrŒs&*,€ryr>ÚProtocol.__init_subclass__Xsžø€Ü ‰Ò! 4Ð2¨6Ò2ð�|‰|×Ñ °×6Ò6ß"›sÑ"H¸#¿-º-Ó"HŸsŸsšsÑ"H¸#¿-º-Ó"HÓHˆCÔ ð  S§\¡\Ô 1Ü#.ˆCÔ ð × × Ð  § ¡ ´×0AÑ0AÓ AÜ3ˆCŽLñ!BÑ r|r}) r~rr€r�rArrérr>r‚rƒr‡rˆs@@ryrr3s'ù‡€ñð@€IØ€LØ Ð÷ 4õ 4r|cófaa€]tRtRtoRtV3RltRtRtRtRt Rt V3R lt R t R t VtV;t#) Ú_AnnotatedAliasihaiRuntime representation of an annotated type. At its core 'Annotated[t, dec1, dec2, ...]' is an alias for the type 't' with extra metadata. The alias behaves like a normal typing alias. Instantiating is the same as instantiating the underlying type; binding it to types is also the same. The metadata itself is stored in a '__metadata__' attribute as a tuple. có <€\V\4'd VPV,pVPp\SV`WRR7W nR#)r©rN)rŒr-Ú __metadata__r•r‚rJ)rwrÚmetadatarƒs&&&€ryrJÚ_AnnotatedAlias.__init__ssCø€Ü �fœo× .Ò .Ø×*Ñ*¨XÕ5ˆHØ×&Ñ&ˆFÜ ‰Ñ˜¨kÐÔ:Ø$Ör|cób€\V4^8XgQhV^,p\W P4#rc)r¥r-r0)rwrìÚnew_types&& ryr4Ú_AnnotatedAlias.copy_withzs.€Ü�6‹{˜aÔÐÐØ˜!•9ˆÜ˜x×):Ñ):Ó;Ð;r|cóŒ€RP\VP4RPRVP444#)ztyping.Annotated[{}, {}]r«c3ó8"€TFp\V4x€K R#5ir­)ÚreprrÞs& ryr±Ú+_AnnotatedAlias.__repr__..‚sé€Ð9Ñ'8 !”d˜1—g�gÓ'8ùr³)r¾r®r•rµr0rs&ryrÚ_AnnotatedAlias.__repr__s9€Ø)×0Ñ0Ü �t—‘Ó 'Ø �I‰IÑ9 t×'8Ò'8Ó9Ó 9ó ð r|cój€\P\VP3VP,33#r­)r2rIrr•r0rs&ryr]Ú_AnnotatedAlias.__reduce__…s1€Ü×ÑÜ ˜Ÿ™Ð)¨D×,=Ñ,=Õ=ð" ð ð r|có®€\V\4'g\#VPVP8H;'dVPVP8H#r­)rŒr-r?r•r0res&&ryr@Ú_AnnotatedAlias.__eq__ŠsJ€Ü˜%¤×1Ò1Ü!Ð !Ø—‘ 5×#3Ñ#3Ñ3÷<ð<Ø×%Ñ%¨×);Ñ);Ñ;ð =r|cóD€\VPVP34#r­)rCr•r0rs&ryrDÚ_AnnotatedAlias.__hash__�s€Ü�T—_‘_ d×&7Ñ&7Ð8Ó9Ð9r|có4<€VR9dR#\SV`V4#)r~r>r~r€)r‚rzr5s&&€ryrzÚ_AnnotatedAlias.__getattr__“sø€Ø Ð/Ô /Ù܉wÑ" 4Ó(Ð(r|có€VP3#r­)r•rRs&&ryrTÚ_AnnotatedAlias.__mro_entries__˜s€Ø—‘Ð!Ð!r|)r0)r~rr€r�rArJr4rr]r@rDrzrTr‚rƒr‡rˆs@@ryr-r-hs7ù‡€ñõ%ò<ò  ò  ò =ò :õ)÷ "ò"r|r-cóæ€\V4^8d \R4h\V^,4'd \R4hRp\V^,VRR7p\ VR,4p\ W44#)a»Add context-specific metadata to a type. Example: Annotated[int, runtime_check.Unsigned] indicates to the hypothetical runtime_check module that this type is an unsigned int. Every other consumer of this type can ignore this metadata and treat this type as int. The first argument to Annotated must be a valid type. Details: - It's an error to call `Annotated` with less than two arguments. - Access the metadata via the ``__metadata__`` attribute:: assert Annotated[int, '$'].__metadata__ == ('$',) - Nested Annotated types are flattened:: assert Annotated[Annotated[T, Ann1, Ann2], Ann3] == Annotated[T, Ann1, Ann2, Ann3] - Instantiating an annotated type is equivalent to instantiating the underlying type:: assert Annotated[C, Ann1](5) == C(5) - Annotated can be used as a generic type alias:: type Optimized[T] = Annotated[T, runtime.Optimize()] # type checker will treat Optimized[int] # as equivalent to Annotated[int, runtime.Optimize()] type OptimizedList[T] = Annotated[list[T], runtime.Optimize()] # type checker will treat OptimizedList[int] # as equivalent to Annotated[list[int], runtime.Optimize()] - Annotated cannot be used with an unpacked TypeVarTuple:: type Variadic[*Ts] = Annotated[*Ts, Ann1] # NOT valid This would be equivalent to:: Annotated[T1, T2, T3, ..., Ann1] where T1, T2 etc. are TypeVars, which would be invalid, because only one type should be passed to Annotated. zUAnnotated[...] should be used with at least two arguments (a type and an annotation).z?Annotated[...] should not be used with an unpacked TypeVarTuplez$Annotated[t, ...]: t must be a type.Tr—:rÊNN)r¥r–rÇrœr˜r-)rwrìr™rr1s&* ryrrœsu€ôb ˆ6ƒ{�Q„Üð'ó(ð (ô! ¨¥×+Ò+Üð0ó1ð 1à 0€CÜ ˜ � C¸TÔ B€FÜ�V˜B•ZÓ €HÜ ˜6Ó ,Ð,r|cóŒ€\V\4'd\VRR4'g\RV,4hRVn\ 4VnVPF>p\\WR44pV'gVP PV4K>K@ V# \dp\RT: R24ThRp?ii;i)a Mark a protocol class as a runtime protocol. Such protocol can be used with isinstance() and issubclass(). Raise TypeError if applied to a non-protocol class. This allows a simple-minded structural check very similar to one-trick ponies in collections.abc such as Iterable. For example:: @runtime_checkable class Closable(Protocol): def close(self): ... assert isinstance(open('/some/file'), Closable) Warning: this will check only the presence of the required methods, not their type signatures! réFzB@runtime_checkable can be only applied to protocol classes, got %rTNz,Failed to determine whether protocol member z is a method member) rr rvr–rrírrÚcallablerär)rÛrxÚ is_callablerñs& ryrhrhÚs΀ô& �cœ7× #Ò #¬7°3¸È×+NÒ+NÜð"Ø$'õ(ó)ð )à#€CÔô *-«€CÔ&Ø×&Ô&ˆð =Ü"¤7¨3°dÓ#;Ó<ˆK÷Ø×2Ñ2×6Ñ6°tÖ<ññ'ð €Jøôô ÜØ>¸t¹hðG%ð%óðð ûð úsÁ"B"Â" CÂ-B>Â>Ccó€V#)zëCast a value to a type. This returns the value unchanged. To the type checker this signals that the return value has the designated type, but at runtime we intentionally don't check anything (we want this to be as fast as possible). r})r¦r,s&&ryrPrP s €ð €Jr|có€V#)a×Ask a static type checker to confirm that the value is of the given type. At runtime this does nothing: it returns the first argument unchanged with no checks or side effects, no matter the actual type of the argument. When a static type checker encounters a call to assert_type(), it emits an error if the value is not of the specified type:: def greet(name: str) -> None: assert_type(name, str) # OK assert_type(name, int) # type checker error r})r,r¦s""ryrNrN s €ð €Jr|c óØ€\VRR4'd/#\PpVf VPp\ V\ 4'Ed}/p\ VP4EFp\PWtR7pWEP8XdVPV4K=Vf7\\PPVPR4R/4p MTp Vf\\!V44MTp VfVfY©r©VP"p \%W¹V R4wršVP'4FLwrÍ\ V \(4'd\+V RRR7p \-WÙV RW@RR7p V f \ R4p WÖV &KN EK V'gWEP8XdV#VP'4UUu/uFwrïV\/V4bK upp#\PWR7pV'ge\ V\0P24'gE\5V4'g4\7VR 4'g"\7VR 4'g\9V: R 24hWEP8XdV#Vf©\ V\0P24'dVP:pMtTp\=V40p\7VR 4'dHVP>p\=V4V9d\AR V: 24hVPC\=V44KY\VR/4pVfTpMVfTp\VRR4p \%W±VR4wrVP'4FiwrÍ\ V \(4'd,\+V \ V\0P24'*RR7p \-WÑVRW@RR7p V f \ R4p WÖV &Kk V'dV#VP'4UUu/uFwrïV\/V4bK upp#uuppiuuppi)aØReturn type hints for an object. This is often the same as annotationlib.get_annotations(obj) or obj.__annotations__, but it handles forward references encoded as string literals and recursively replaces all 'Annotated[T, ...]' with 'T' (unless 'include_extras=True'). The argument may be a module, class, method, or function. The annotations are returned as a dictionary. For classes, annotations include also inherited members. TypeError is raised if the argument is not of a type that can contain annotations, and an empty dictionary is returned if no annotations are present. BEWARE -- the behavior of globalns and localns is counterintuitive (unless you are familiar with how eval() and exec() work). The search order is locals first, then globals. - If no dict arguments are passed, an attempt is made to use the globals from obj (or the respective module's globals for classes), and these are also used as the locals. If the object does not appear to have globals, an empty dictionary is used. For classes, the search order is globals first then locals. - If one dict argument is passed, it is used for both globals and locals. - If two dict arguments are passed, they specify globals and locals, respectively. 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This supports generic types, Callable, Tuple, Union, Literal, Final, ClassVar, Annotated, and others. Return None for unsupported types. Examples:: >>> P = ParamSpec('P') >>> assert get_origin(Literal[42]) is Literal >>> assert get_origin(int) is None >>> assert get_origin(ClassVar[int]) is ClassVar >>> assert get_origin(Generic) is Generic >>> assert get_origin(Generic[T]) is Generic >>> assert get_origin(Union[T, int]) is Union >>> assert get_origin(List[Tuple[T, T]][int]) is list >>> assert get_origin(P.args) is P N) rŒr-rrrr r r•r r©Útps&ryrVrV¿ s`€ô$�"”o×&Ò&ÜÐÜ�"Ô(¬,Ü$¤oð7÷8ò8à�}‰}ÐØ ŒWƒ}܈Ü�"”e×Ò܈ Ù r|cóV€\V\4'dVP3VP,#\V\\ 34'd7VP p\W4'd\VRR4VR,3pV#\V\4'd VP #R#)aØGet type arguments with all substitutions performed. For unions, basic simplifications used by Union constructor are performed. 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‰HˆCØ”kÔ!Ü$Ð%MÐPSÕ%SÓTÐTØœHÖ$ØŸn™nÔ,ܘF¨Ô-ð Ü# C›y×5Ñ5�HðÙ  ¨cÖ2ñ#ô( �eÔ Ø × $Ñ $Ô &؈ ùò;)Gøô()ôØŸ ™ Ø<¼TÀ#»Y×=OÑ=OѰ(±¸VÐDˆGð,ðõ ð õ ‰Oð Šß ÜðBóð ð JРؘ(˜ >°(±¸VÐDˆGð,ðõ ð õ ‰O÷ ÜðCóDð Dà ”Ó˜fšnÛØ×ÑÐ-°ÈwÐÔWØ—‘“ˆáô !Ù‘�ð” ˜A ¨ sÐ*DÐEÓFÒ FÙð ñ !á!'Ô(¡™˜“1¡€KÑ(ä �xÔ.BÀ5Ó.IÔRYÓR[Ô \€BÜ#˜ €BÔØ €Iùó  !ùã(s Â7Dà Dcó*€\V9gQh\3#r­)rEré©rSs&ryÚ_namedtuple_mro_entriesr0 s€Ü ˜Ô ÐÐ Ü ˆ>Ðr|c#ó@"€\V4pV\Jd!\V4pV'd V^,pK4R#V\Jd\x€\V4wpKWV\Jd\x€\V4wpKxV\ Jd\ x€\V4wpK™R#5i©TN)rVrrUrfrbre)Úannotation_typeÚannotation_originÚannotation_argss& ryÚ_get_typeddict_qualifiersr7 s‡é€Ø Ü& Ó7ÐØ ¤ Ó )Ü& Ó7ˆOߨ"1°!Õ"4’áØ ¤(Ó *ÜŠNÜ!)¨/Ó!:Ñ Š_Ø ¤+Ó -ÜÒ Ü!)¨/Ó!:Ñ Š_Ø ¤(Ó *ÜŠNÜ!)¨/Ó!:Ñ Š_á ùs‚BBcó8a€]tRtRtoRRlt]tRt]tRt Vt R#)rÿiM c  ó˜aaaaaa€SF-p\V4\JgKV\JgK$\R4h \;QJdRS4F 'gK RM RM !RS44'd \3pMRpVP RR4p\P \V.VO\N5V4o\SR4'gSSn VeRoVoMN\PV4;oe2\PS\PPSR7oMRo/oR oSP4UU u/uFwr‰V\!V SSSP"R 7bK! up po\%4p \%4p \%4p \%4p SFÁpVP&P)R \%44pW®,p W¾,p VP&P)R \%44pW¯,p W¿,p V P+VP&P)R R44V P+VP&P)RR44Kà SP4FÜwpp\%\-V44p\.V9dRpM\0V9dRpMTpV'd$V P3V4V P5V4M"V P3V4V P5V4\6V9d+VV 9d\RV: R24hV P3V4KºV P3V4V P5V4KÞ V P9V 4'gQRV RV : RV : 24hVVVVVV3RlpVSn\=V 4Sn\=V 4Sn \=V 4Sn!\=V 4Sn"VSn#S#uup pi)aCreate a new typed dict class object. This method is called when TypedDict is subclassed, or when TypedDict is instantiated. This way TypedDict classes can be created through both class-based and functional syntax. Subclasses and instances of TypedDict return actual dictionaries. zHcannot inherit from both a TypedDict type and a non-TypedDict base classc3óB"€TFp\V\4x€K R#5ir­)rr r)s& ryr±Ú)_TypedDictMeta.__new__..[ sé€Ð5©u¨!Œz˜!œW×%Ð%«uùs‚TFráNrø©r‡z?TypedDict('Name', {f0: t0, f1: t1, ...}); each t must be a type)r‡r‰Ú__required_keys__Ú__optional_keys__Ú__readonly_keys__Ú__mutable_keys__zCannot override mutable key z with read-only keyz,Required keys overlap with optional keys in z: required_keys=z, optional_keys=c ó¼<€/pSFIpV\JdKVPpVfK!\PW0VR7pVP V4KK S es\PS VS R7pV\P P 8wd;VP4UUu/uFwrgV\VS S PR7bK pppM|V\P P 8Xd\PS 4pMGV\P P\P P39dS pM \V4hVP V4V#uuppi)Nrr )r r¿rurìrPr³r´rSrœrràr¹r·r~)r¾r$rÚ base_annotateÚ base_annosÚownrrjrSr™Ú own_annotateÚown_annotationsÚown_checked_annotationsÚtp_dicts& €€€€€€ryr¿Ú,_TypedDictMeta.__new__..__annotate__§ sDø€ØˆEÛ�Øœ7“?ÙØ $× 1Ñ 1� Ø Ò(ÙÜ0×GÑGØ!°ðHó7� à— ‘ ˜ZÖ(ñðÒ'Ü)×@Ñ@Ø  &°ðAó9�àÔ0×7Ñ7×>Ñ>Ô>ð&)§Y¡Y¤[ôá%0™E˜Aðœ; r¨3°w×7IÑ7IÔJÒJÙ%0ðñøðÔ.×5Ñ5×<Ñ<Ô<Ü)×?Ñ?ÀÓP‘ØÔ/×6Ñ6×AÑAÔCV×C]ÑC]×CcÑCcÐdÔdØ-‘ä)¨&Ó1Ð1Ø �L‰L˜Ô ؈LùósÂ!$Er})$r‹rÿr r–rr_r‹rêrÅrørurõrìr³r¹rSrœrrírr/rPrrfrbräÚdiscardreÚ isdisjointr¿rÉrr r!r"Ú __total__)rÛrrSrþÚtotalrÚ generic_baseÚns_annotationsrrjÚ required_keysÚ optional_keysÚ readonly_keysÚ mutable_keysÚ base_requiredÚ base_optionalÚannotation_keyrÚ qualifiersÚ is_requiredr¿r™r'r(r)r*s&&f&& @@@@@ryr‹Ú_TypedDictMeta.__new__N sƒý€óˆDÜ�D‹z¤Õ/°DÄÕ4GÜð!AóBðBñ÷ ‹3Ñ5©uÓ5�3�3Š3Ñ5©uÓ5× 5Ò 5Ü#˜:‰LàˆLàŸ™Ð 1°4Ó8ˆä—,‘,œ~¨tÐ5J°|Ð5JÄTÑ5JÈBÓOˆä�wÐ 0×1Ò1Ø%*ˆGÔ "à Ò %؈LØ,‰OÜ1×SÑSÐTVÓWÐWˆlÒ dÜ1×HÑHØÔ1×8Ñ8×CÑCÈ7ðIó‰Oð ˆLØ ˆOØOˆð)×.Ñ.Ô0ô# á0‘�ð Œ{˜2˜s¨'¸'×:LÑ:LÔMÒ MÙ0ò# Ðô›ˆ Ü›ˆ Ü›ˆ Ü“uˆ ãˆDØ ŸM™M×-Ñ-Ð.AÄ3Ã5ÓIˆMØ Õ *ˆMØ Õ *ˆMà ŸM™M×-Ñ-Ð.AÄ3Ã5ÓIˆMØ Õ *ˆMØ Õ *ˆMà × Ñ  §¡×!2Ñ!2Ð3FÈÓ!KÔ LØ × Ñ  § ¡ × 1Ñ 1Ð2DÀbÓ IÖ Jñð0G×/LÑ/LÖ/NÑ +ˆN˜OÜÔ6°ÓGÓHˆJܘ:Ô%Ø"‘ Ü  Ô*Ø#‘ à#� çØ×!Ñ! .Ô1Ø×%Ñ% nÕ5à×!Ñ! .Ô1Ø×%Ñ% nÔ5ä˜:Ô%Ø! \Ô1Ü#Ø6°~Ñ6HØ-ð.óðð×!Ñ! .Ö1à× Ñ  Ô0Ø×%Ñ% nÖ5ñ30Oð6×'Ñ'¨ ×6Ò6ð Ø:¸4¸&ðAØÑÐ0 -Ñ!1ð 3ó Ð6÷  ò ð8 ,ˆÔÜ$-¨mÓ$<ˆÔ!Ü$-¨mÓ$<ˆÔ!Ü$-¨mÓ$<ˆÔ!Ü#,¨\Ó#:ˆÔ Ø!ˆÔ؈ùóo# sÄ:%Ocó€\R4h)z4TypedDict does not support instance and class checksr=)rÛrfs&&ryruÚ _TypedDictMeta.__subclasscheck__Í s€äÐNÓOÐOr|r}N)T) r~rr€r�r‹rêrarurpr‚rƒr„s@ryrÿrÿM s!ø‡€ô{ðz€HòPð*Ör|rÿr/có€V\JgVfC^RIpV\JdRpMRpRV RV: R2pRV,R,pVPWFR R 7/pR \V4/p\ 4pVeW‡R &\ VRWrR 7p \ 3V nV #)aßA simple typed namespace. At runtime it is equivalent to a plain dict. TypedDict creates a dictionary type such that a type checker will expect all instances to have a certain set of keys, where each key is associated with a value of a consistent type. This expectation is not checked at runtime. Usage:: >>> class Point2D(TypedDict): ... x: int ... y: int ... label: str ... >>> a: Point2D = {'x': 1, 'y': 2, 'label': 'good'} # OK >>> b: Point2D = {'z': 3, 'label': 'bad'} # Fails type check >>> Point2D(x=1, y=2, label='first') == dict(x=1, y=2, label='first') True The type info can be accessed by calling annotationlib.get_annotations(Point2D), and via the Point2D.__required_keys__ and Point2D.__optional_keys__ frozensets. TypedDict supports an additional equivalent form:: Point2D = TypedDict('Point2D', {'x': int, 'y': int, 'label': str}) By default, all keys must be present in a TypedDict. It is possible to override this by using the NotRequired and Required special forms:: class Point2D(TypedDict): x: int # the "x" key must always be present (Required is the default) y: NotRequired[int] # the "y" key can be omitted This means that a Point2D TypedDict can have the "y" key omitted, but the "x" key must be present. Items are required by default, so the Required special form is not necessary in this example. In addition, the total argument to the TypedDict function can be used to make all items not required:: class Point2D(TypedDict, total=False): x: int y: int This means that a Point2D TypedDict can have any of the keys omitted. A type checker is only expected to support a literal False or True as the value of the total argument. True is the default, and makes all items defined in the class body be required. The Required special form can be used to mark individual keys as required in a total=False TypedDict. The ReadOnly special form can be used to mark individual keys as immutable for type checkers:: class DatabaseUser(TypedDict): id: ReadOnly[int] # the "id" key must not be modified username: str # the "username" key can be changed See PEPs 589, 655, and 705 for more information. Nrr rz = TypedDict(z, {{}})`z¦{name} is deprecated and will be disallowed in Python {remove}. To create a TypedDict class with 0 fields using the functional syntax, pass an empty dictionary, e.g. r“r rár)r/r{r})r+rrŒrêrórÿrFrø) rýrØr/rr rrrþr‰Útds ""$ ryrFrFÔ s²€ðp”Ó˜fšnÛà ”YÓ ØSÑ àIÐ à�h�Z˜}¨X©L¸ ÐEˆð .ð õ ð õ ˆð ×ÑÐ-ÈwÐÔWØˆà œT &›\Ð *€BÜ ‹Y€FØ Òà!ˆ<Ñä ˜ " bÔ 6€BÜ"˜ €BÔØ €Ir|có€\3#r­)Ú _TypedDictrs&ryrðrð) s€¬:©-r|cóJ€\WP R24p\W34#)aµSpecial typing construct to mark a TypedDict key as required. This is mainly useful for total=False TypedDicts. For example:: class Movie(TypedDict, total=False): title: Required[str] year: int m = Movie( title='The Matrix', # type checker error if key is omitted year=1999, ) There is no runtime checking that a required key is actually provided when instantiating a related TypedDict. ú accepts only a single type.©rœrHr”r™s&& ryrfrf, s'€ô( �z§j¡j \Ð1MÐ#NÓ O€DÜ ˜˜wÓ 'Ð'r|cóJ€\WP R24p\W34#)aSpecial typing construct to mark a TypedDict key as potentially missing. For example:: class Movie(TypedDict): title: str year: NotRequired[int] m = Movie( title='The Matrix', # type checker error if key is omitted year=1999, ) rCrDr™s&& ryrbrbD s'€ô �z§j¡j \Ð1MÐ#NÓ O€DÜ ˜˜wÓ 'Ð'r|cóJ€\WP R24p\W34#)aYA special typing construct to mark an item of a TypedDict as read-only. For example:: class Movie(TypedDict): title: ReadOnly[str] year: int def mutate_movie(m: Movie) -> None: m["year"] = 1992 # allowed m["title"] = "The Matrix" # type checker error There is no runtime checking for this property. rCrDr™s&& ryrereW s'€ô �z§j¡j \Ð1MÐ#NÓ O€DÜ ˜˜wÓ 'Ð'r|cóLa€]tRtRtoRt]tRtRtRt Rt Rt Rt R t VtR #) r^ik aûNewType creates simple unique types with almost zero runtime overhead. NewType(name, tp) is considered a subtype of tp by static type checkers. At runtime, NewType(name, tp) returns a dummy callable that simply returns its argument. Usage:: UserId = NewType('UserId', int) def name_by_id(user_id: UserId) -> str: ... UserId('user') # Fails type check name_by_id(42) # Fails type check name_by_id(UserId(42)) # OK num = UserId(5) + 1 # type: int cóš€WnRV9dVPR4R,pWnW n\ 4pVR8wd W0nR#R#)r“ÚtypingNrã)r€Ú rpartitionr~Ú __supertype__rór)rwrrjÚdef_mods&&& ryrJÚNewType.__init__ƒ sF€Ø ÔØ �$Œ;Ø—?‘? 3Ó'¨Õ+ˆDØŒ ØÔÜ“)ˆØ �hÔ Ø%ŽOñ r|có<a€VPo!V3RlR4pV3#)có.<a€]tRtRtoV3RltRtVtR#)Ú&NewType.__mro_entries__..Dummyi’ c óH<€VPp\RV RV: RS R24h)zGCannot subclass an instance of NewType. Perhaps you were looking for: `z = NewType(r«z)`)r~r–)rÛÚ subclass_nameÚsuperclass_names& €ryr>Ú8NewType.__mro_entries__..Dummy.__init_subclass__“ s:ø€Ø #§ ¡ � ÜðØ%� k°-Ñ1BÀ"À_ÐDUÐUWðYóðr|r}N)r~rr€r�r>r‚rƒ)r…rSs@€ryÚDummyrP’ sù‡€÷ ó r|rU)r~)rwrSrUrSs&& @ryrTÚNewType.__mro_entries__� s!ø€ðŸ-™-ˆ÷ ô ðˆxˆr|có8€VP RVP 2#)r“)rr€rs&ryrÚNewType.__repr__œ s€Ø—/‘/Ð" ! D×$5Ñ$5Ð#6Ð7Ð7r|có€VP#r­)r€rs&ryr]ÚNewType.__reduce__Ÿ s€Ø× Ñ Ð r|có€\W3,#r­rdres&&ryrgÚNewType.__or__¢ rir|có€\W3,#r­rdres&&ryrkÚNewType.__ror__¥ rmr|)rr~r€rKN)r~rr€r�rArrarJrTrr]rgrkr‚rƒr„s@ryr^r^k s4ø‡€ñð*€Hò&ò ò8ò!ò"÷"ð"r|cóŠa€]tRtRtoRtR,t]]V3RlRl44t]]V3RlRl44t ]V3RlRl4t ]]V3R lR l44t ]V3R lR l4t ]V3R lRl4t ]V3RlRl4t]R-V3RlRll4t]V3RlRl4t]R-V3RlRll4t]R-V3RlRll4t]R.V3RlRll4t]V3RlRl4t]V3RlRl4t]R/V3R lR!ll4t]V3R"lR#l4t]V3R$lR%l4t]V3R&lR'l4t]V3R(lR)l4t]V3R*lR+l4tR,tVtR#)0rIi± a±Generic base class for TextIO and BinaryIO. This is an abstract, generic version of the return of open(). NOTE: This does not distinguish between the different possible classes (text vs. binary, read vs. write vs. read/write, append-only, unbuffered). The TextIO and BinaryIO subclasses below capture the distinctions between text vs. binary, which is pervasive in the interface. For more precise types, define a custom Protocol. có <€V^8„dQhRS[/#ršr )r¾r…s"€ryr¿ÚIO.__annotate__ óø€÷ ñ ‘cñ r|có€R#r­r}rs&ryÚmodeÚIO.modeÀ ó€ñ r|có <€V^8„dQhRS[/#ršr )r¾r…s"€ryr¿raÇ rbr|có€R#r­r}rs&ryrÚIO.nameÅ rfr|có<€V^8„dQhRR/#©r»rNr})r¾r…s"€ryr¿raË óø€÷ ñ �tñ r|có€R#r­r}rs&ryÚcloseÚIO.closeÊ r¡r|có <€V^8„dQhRS[/#ršr¼)r¾r…s"€ryr¿raÐ óø€÷ ñ ™ñ r|có€R#r­r}rs&ryÚclosedÚ IO.closedÎ rfr|có <€V^8„dQhRS[/#ršr›)r¾r…s"€ryr¿raÔ sø€÷ ñ ™ñ r|có€R#r­r}rs&ryÚfilenoÚ IO.filenoÓ r¡r|có<€V^8„dQhRR/#rkr})r¾r…s"€ryr¿raØ rlr|có€R#r­r}rs&ryÚflushÚIO.flush× r¡r|có <€V^8„dQhRS[/#ršr¼)r¾r…s"€ryr¿raÜ rqr|có€R#r­r}rs&ryÚisattyÚ IO.isattyÛ r¡r|có&<€V^8„dQhRS[RS[/#)r»rr©rœrM)r¾r…s"€ryr¿raà sø€÷ ñ ‘cð ¡6ñ r|có€R#r­r})rwrs&&ryÚreadÚIO.readß r¡r|có <€V^8„dQhRS[/#ršr¼)r¾r…s"€ryr¿raä óø€÷ ñ ™$ñ r|có€R#r­r}rs&ryÚreadableÚ IO.readableã r¡r|có&<€V^8„dQhRS[RS[/#)r»Úlimitrr‚)r¾r…s"€ryr¿raè sø€÷ ñ ™cð ©6ñ r|có€R#r­r})rwrŒs&&ryÚreadlineÚ IO.readlineç r¡r|có6<€V^8„dQhRS[RS[S[,/#)r»Úhintr)rœržrM)r¾r…s"€ryr¿raì sø€÷ ñ ™cð ©4±­<ñ r|có€R#r­r})rwr‘s&&ryÚ readlinesÚ IO.readlinesë r¡r|có,<€V^8„dQhRS[RS[RS[/#)r»ÚoffsetÚwhencerr›)r¾r…s"€ryr¿rað s"ø€÷ ñ ™3ð ©ð ±Cñ r|có€R#r­r})rwr–r—s&&&ryÚseekÚIO.seekï r¡r|có <€V^8„dQhRS[/#ršr¼)r¾r…s"€ryr¿raô r‡r|có€R#r­r}rs&ryÚseekableÚ IO.seekableó r¡r|có <€V^8„dQhRS[/#ršr›)r¾r…s"€ryr¿raø rbr|có€R#r­r}rs&ryÚtellÚIO.tell÷ r¡r|Ncó4<€V^8„dQhRS[R,RS[/#)r»ÚsizeNrr›)r¾r…s"€ryr¿raü sø€÷ ñ ™S 4�Zð ±3ñ r|có€R#r­r})rwr¤s&&ryÚtruncateÚ IO.truncateû r¡r|có <€V^8„dQhRS[/#ršr¼)r¾r…s"€ryr¿rar‡r|có€R#r­r}rs&ryÚwritableÚ IO.writableÿ r¡r|có&<€V^8„dQhRS[RS[/#©r»ròr)rMrœ)r¾r…s"€ryr¿rasø€÷ ñ ‘vð ¡#ñ r|có€R#r­r}©rwròs&&ryÚwriteÚIO.writer¡r|có4<€V^8„dQhRS[S[,RR/#)r»ÚlinesrN)ržrM)r¾r…s"€ryr¿rasø€÷ ñ ¡¡V¥ ð °ñ r|có€R#r­r})rwr³s&&ryÚ writelinesÚ IO.writelinesr¡r|có0<€V^8„dQhRS[S[,/#rš)rIrM)r¾r…s"€ryr¿ra sø€÷ ñ ™2™f�:ñ r|có€R#r­r}rs&ryÚ __enter__Ú IO.__enter__ r¡r|có<€V^8„dQhRR/#rkr})r¾r…s"€ryr¿rasø€÷ ñ °$ñ r|có€R#r­r})rwr‹r¼Ú tracebacks&&&&ryÚ__exit__Ú IO.__exit__r¡r|r})rãrÓr­)r~rr€r�rArrÚrrdrrnrsrwr{rr„r‰rŽr“r™r�r¡r¦rªr°rµr¹r¾r‚rƒr„s@ryrIrI± sÐø‡€ñ ð€Ià Ø÷ óóð ðØ÷ óóð ð÷ óð ðØ÷ óóð ð÷ óð ð÷ óð ð÷ óð ð÷ ñ óð ð÷ óð ð÷ ñ óð ð÷ ñ óð ð÷ ñ óð ð÷ óð ð÷ óð ð÷ ñ óð ð÷ óð ð÷ óð ð÷ óð ð÷ óð ð÷ óö r|có`a€]tRtRtoRtRt]V3RlRl4t]V3RlRl4tRt Vt R#) rHiz;Typed approximation of the return of open() in binary mode.có6<€V^8„dQhRS[S[,RS[/#r­)r´Ú bytearrayrœ)r¾r…s"€ryr¿ÚBinaryIO.__annotate__s ø€÷ ñ ‘u™yÕ(ð ©Sñ r|có€R#r­r}r¯s&&ryr°ÚBinaryIO.writer¡r|có <€V^8„dQhRS[/#rš©rH)r¾r…s"€ryr¿rÃsø€÷ ñ ™8ñ r|có€R#r­r}rs&ryr¹ÚBinaryIO.__enter__r¡r|r}N) r~rr€r�rArrr°r¹r‚rƒr„s@ryrHrHs3ø‡€ÙEà€Ià÷ óð ð÷ óö r|cóa€]tRtRtoRtRt]]V3RlRl44t]]V3RlRl44t ]]V3RlRl44t ]]V3R lR l44t ]]V3R lR l44t ]V3R lRl4t RtVtR#)rLi"z9Typed approximation of the return of open() in text mode.có <€V^8„dQhRS[/#ršrÇ)r¾r…s"€ryr¿ÚTextIO.__annotate__)sø€÷ ñ ™ñ r|có€R#r­r}rs&ryÚbufferÚ TextIO.buffer'rfr|có <€V^8„dQhRS[/#ršr )r¾r…s"€ryr¿rÌ.óø€÷ ñ ™#ñ r|có€R#r­r}rs&ryÚencodingÚTextIO.encoding,rfr|có.<€V^8„dQhRS[R,/#rkr )r¾r…s"€ryr¿rÌ3sø€÷ ñ ™˜d� ñ r|có€R#r­r}rs&ryÚerrorsÚ TextIO.errors1rfr|có <€V^8„dQhRS[/#ršr¼)r¾r…s"€ryr¿rÌ8sø€÷ ñ ¡ñ r|có€R#r­r}rs&ryÚline_bufferingÚTextIO.line_buffering6rfr|có <€V^8„dQhRS[/#rš)r)r¾r…s"€ryr¿rÌ=rÑr|có€R#r­r}rs&ryÚnewlinesÚTextIO.newlines;rfr|có <€V^8„dQhRS[/#rš)rL)r¾r…s"€ryr¿rÌAsø€÷ ñ ™6ñ r|có€R#r­r}rs&ryr¹ÚTextIO.__enter__@r¡r|r}N)r~rr€r�rArrÚrrÎrÓr×rÛrßr¹r‚rƒr„s@ryrLrL"s«ø‡€ÙCà€Ià Ø÷ óóð ðØ÷ óóð ðØ÷ óóð ðØ÷ óóð ðØ÷ óóð ð÷ óö r|có$a€R5;o3V3RlRlu6#)r�có"<€V^8„dQhRSRS/#)r»r¸rr})r¾r�s"€ryr¿r¿Esø€÷ñ˜ð ñr|cój€\R\V4P: 2\PR7V#)aÄAsk a static type checker to reveal the inferred type of an expression. When a static type checker encounters a call to ``reveal_type()``, it will emit the inferred type of the argument:: x: int = 1 reveal_type(x) Running a static type checker (e.g., mypy) on this example will produce output similar to 'Revealed type is "builtins.int"'. At runtime, the function prints the runtime type of the argument and returns the argument unchanged. zRuntime type is )Úfile)Úprintr‹r~r-Ústderrr·s"ryrgrgEs*€ô Ð œT #›Y×/Ñ/Ñ2Ð 3¼#¿*¹*ÕEØ €Jr|r})Ú .defaultsr�s @ryÚ#rëEsø€”÷òr|có6a€]tRtRtoV3Rl!4tRtVtR#)Ú_IdentityCallableiXcó(<a€R5;o3VV3RlRlu6#)r�có&<€V^8„dQhRSZRSZ/#rnr})r¾r�r…s"€€ryr¿Ú_IdentityCallable.__annotate__Ysø€÷ ñ ™qð ©ñ r|có€R#r­r}rás""ryraÚ_IdentityCallable.__call__Ys€Ù r|r})rêr�r…s @€ryÚ Ú2_IdentityCallable.Ysù€”÷ ó r|r}N)r~rr€r�rar‚rƒr„s@ryríríXsø‡€÷ ÷ ð r|ríÚ eq_defaultÚ order_defaultÚkw_only_defaultÚfrozen_defaultÚfield_specifierscóÌ€V^8„dQhR\R\R\R\R\\\,\R\3,,R3,R\R\ /#) r»rõrör÷rørù.r�r)r½r˜r‹rrrí)r¾s"ryr¿r¿]su€÷QñQäðQôðQôð Qô ð Qô œD¤�I¬°´c°Õ(:Õ:¸CÐ?Õ@ð QôðQôñQr|c ó(aaaaaa€VVVVVV3RlpV#)aºDecorator to mark an object as providing dataclass-like behavior. The decorator can be applied to a function, class, or metaclass. Example usage with a decorator function:: @dataclass_transform() def create_model[T](cls: type[T]) -> type[T]: ... return cls @create_model class CustomerModel: id: int name: str On a base class:: @dataclass_transform() class ModelBase: ... class CustomerModel(ModelBase): id: int name: str On a metaclass:: @dataclass_transform() class ModelMeta(type): ... class ModelBase(metaclass=ModelMeta): ... class CustomerModel(ModelBase): id: int name: str The ``CustomerModel`` classes defined above will be treated by type checkers similarly to classes created with ``@dataclasses.dataclass``. For example, type checkers will assume these classes have ``__init__`` methods that accept ``id`` and ``name``. The arguments to this decorator can be used to customize this behavior: - ``eq_default`` indicates whether the ``eq`` parameter is assumed to be ``True`` or ``False`` if it is omitted by the caller. - ``order_default`` indicates whether the ``order`` parameter is assumed to be True or False if it is omitted by the caller. - ``kw_only_default`` indicates whether the ``kw_only`` parameter is assumed to be True or False if it is omitted by the caller. - ``frozen_default`` indicates whether the ``frozen`` parameter is assumed to be True or False if it is omitted by the caller. - ``field_specifiers`` specifies a static list of supported classes or functions that describe fields, similar to ``dataclasses.field()``. - Arbitrary other keyword arguments are accepted in order to allow for possible future extensions. At runtime, this decorator records its arguments in the ``__dataclass_transform__`` attribute on the decorated object. It has no other runtime effect. See PEP 681 for more details. c ó.<€RSRSRSRSRSRS/VnV#)rõrör÷rørùr�)Ú__dataclass_transform__)Ú cls_or_fnrõrùrør÷r�rös&€€€€€€ryrÚ&dataclass_transform..decorator¤s4ø€à ˜*Ø ˜]Ø ˜Ø ˜nØ Ð 0Ø �fð - ˆ Ô)ðÐr|r})rõrör÷rørùr�rsdddddl ryrRrR]sý€÷N ò ð Ðr|Ú_Funcrccó:€V^8„dQh\R\3,#)r».)rr©Ú.formats"ryrr±s€×ÐŒX�cœ3�hÕ Ðr|có,a€RRRl6;o3V3RlRlu6#)ÚFrccó €V^8„dQh\#©r»)rrs"ryrr´s€—–r|có"<€V^8„dQhRSRS/#)r»Úmethodrr})r¾rs"€ryr¿r¿´sø€÷ ñ ˜qð ¨ñ r|cóF€RVnV# \\3dT#i;i)aÖIndicate that a method is intended to override a method in a base class. Usage:: class Base: def method(self) -> None: pass class Child(Base): @override def method(self) -> None: super().method() When this decorator is applied to a method, the type checker will validate that it overrides a method or attribute with the same name on a base class. This helps prevent bugs that may occur when a base class is changed without an equivalent change to a child class. There is no runtime checking of this property. The decorator attempts to set the ``__override__`` attribute to ``True`` on the decorated object to allow runtime introspection. See PEP 698 for details. T)Ú __override__rMr–)r s"ryrdrd´s6€ð2 Ø"ˆÔð €Møô œIÐ &ô ð Ø €Mð  úrŒr})rêrs @ryÚ r ´sø€ˆX“‹X÷ ò r|có0€V^8„dQhR\R\/#©r»rjrr·)r¾s"ryr¿r¿×s€÷ñ”Dð¤ñr|cón€\V\4;'d\VRR4;'d V\8g#)zÿReturn True if the given type is a Protocol. Example:: >>> from typing import Protocol, is_protocol >>> class P(Protocol): ... def a(self) -> str: ... ... b: int >>> is_protocol(P) True >>> is_protocol(int) False réF)rŒr‹rvrris"ryrZrZ×s:€ô �2”tÓ÷ ð Ü �B˜¨Ó .÷ ð à ”(‰Nðr|cóF€V^8„dQhR\R\\,/#r)r‹rÉr�)r¾s"ryr¿r¿ìs€÷,ñ,œTð,¬´3­ñ,r|cól€\V4'g\V: R24h\VP4#)aDReturn the set of members defined in a Protocol. Example:: >>> from typing import Protocol, get_protocol_members >>> class P(Protocol): ... def a(self) -> str: ... ... b: int >>> get_protocol_members(P) == frozenset({'a', 'b'}) True Raise a TypeError for arguments that are not Protocols. z is not a Protocol)rZr–rÉrris"ryrXrXìs1€ô �r�?Š?ܘ2™&Ð 2Ð3Ó4Ð4Ü �R×*Ñ*Ó +Ð+r|có€€VR8Xd\PpM˜VR 9d^RIp\\ W 4^4pMwVR 9d.^RIp\\ VRV 24^V\ R,3R7pMCVR8Xd&^RIpRpVPV\^R7\pM\R\: R V: 24hV\4V&V#) zƒImprove the import time of the typing module. Soft-deprecated objects which are costly to create are only created on-demand here. rNÚAbstract)rrkÚ_collect_parametersz²The private _collect_parameters function is deprecated and will be removed in a future version of Python. 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