PNG  IHDRxsBIT|d pHYs+tEXtSoftwarewww.inkscape.org<,tEXtComment File Manager

File Manager

Path: /opt/cloudlinux/venv/lib64/python3.11/site-packages/wrapt/

Viewing File: decorators.py

"""This module implements decorators for implementing other decorators
as well as some commonly used decorators.

"""

import sys

PY2 = sys.version_info[0] == 2

if PY2:
    string_types = basestring,

    def exec_(_code_, _globs_=None, _locs_=None):
        """Execute code in a namespace."""
        if _globs_ is None:
            frame = sys._getframe(1)
            _globs_ = frame.f_globals
            if _locs_ is None:
                _locs_ = frame.f_locals
            del frame
        elif _locs_ is None:
            _locs_ = _globs_
        exec("""exec _code_ in _globs_, _locs_""")

else:
    string_types = str,

    import builtins

    exec_ = getattr(builtins, "exec")
    del builtins

from functools import partial
from inspect import isclass
from threading import Lock, RLock

from .arguments import formatargspec

try:
    from inspect import signature
except ImportError:
    pass

from .wrappers import (FunctionWrapper, BoundFunctionWrapper, ObjectProxy,
    CallableObjectProxy)

# Adapter wrapper for the wrapped function which will overlay certain
# properties from the adapter function onto the wrapped function so that
# functions such as inspect.getargspec(), inspect.getfullargspec(),
# inspect.signature() and inspect.getsource() return the correct results
# one would expect.

class _AdapterFunctionCode(CallableObjectProxy):

    def __init__(self, wrapped_code, adapter_code):
        super(_AdapterFunctionCode, self).__init__(wrapped_code)
        self._self_adapter_code = adapter_code

    @property
    def co_argcount(self):
        return self._self_adapter_code.co_argcount

    @property
    def co_code(self):
        return self._self_adapter_code.co_code

    @property
    def co_flags(self):
        return self._self_adapter_code.co_flags

    @property
    def co_kwonlyargcount(self):
        return self._self_adapter_code.co_kwonlyargcount

    @property
    def co_varnames(self):
        return self._self_adapter_code.co_varnames

class _AdapterFunctionSurrogate(CallableObjectProxy):

    def __init__(self, wrapped, adapter):
        super(_AdapterFunctionSurrogate, self).__init__(wrapped)
        self._self_adapter = adapter

    @property
    def __code__(self):
        return _AdapterFunctionCode(self.__wrapped__.__code__,
                self._self_adapter.__code__)

    @property
    def __defaults__(self):
        return self._self_adapter.__defaults__

    @property
    def __kwdefaults__(self):
        return self._self_adapter.__kwdefaults__

    @property
    def __signature__(self):
        if 'signature' not in globals():
            return self._self_adapter.__signature__
        else:
            return signature(self._self_adapter)

    if PY2:
        func_code = __code__
        func_defaults = __defaults__

class _BoundAdapterWrapper(BoundFunctionWrapper):

    @property
    def __func__(self):
        return _AdapterFunctionSurrogate(self.__wrapped__.__func__,
                self._self_parent._self_adapter)

    @property
    def __signature__(self):
        if 'signature' not in globals():
            return self.__wrapped__.__signature__
        else:
            return signature(self._self_parent._self_adapter)

    if PY2:
        im_func = __func__

class AdapterWrapper(FunctionWrapper):

    __bound_function_wrapper__ = _BoundAdapterWrapper

    def __init__(self, *args, **kwargs):
        adapter = kwargs.pop('adapter')
        super(AdapterWrapper, self).__init__(*args, **kwargs)
        self._self_surrogate = _AdapterFunctionSurrogate(
                self.__wrapped__, adapter)
        self._self_adapter = adapter

    @property
    def __code__(self):
        return self._self_surrogate.__code__

    @property
    def __defaults__(self):
        return self._self_surrogate.__defaults__

    @property
    def __kwdefaults__(self):
        return self._self_surrogate.__kwdefaults__

    if PY2:
        func_code = __code__
        func_defaults = __defaults__

    @property
    def __signature__(self):
        return self._self_surrogate.__signature__

class AdapterFactory(object):
    def __call__(self, wrapped):
        raise NotImplementedError()

class DelegatedAdapterFactory(AdapterFactory):
    def __init__(self, factory):
        super(DelegatedAdapterFactory, self).__init__()
        self.factory = factory
    def __call__(self, wrapped):
        return self.factory(wrapped)

adapter_factory = DelegatedAdapterFactory

# Decorator for creating other decorators. This decorator and the
# wrappers which they use are designed to properly preserve any name
# attributes, function signatures etc, in addition to the wrappers
# themselves acting like a transparent proxy for the original wrapped
# function so the wrapper is effectively indistinguishable from the
# original wrapped function.

def decorator(wrapper=None, enabled=None, adapter=None, proxy=FunctionWrapper):
    # The decorator should be supplied with a single positional argument
    # which is the wrapper function to be used to implement the
    # decorator. This may be preceded by a step whereby the keyword
    # arguments are supplied to customise the behaviour of the
    # decorator. The 'adapter' argument is used to optionally denote a
    # separate function which is notionally used by an adapter
    # decorator. In that case parts of the function '__code__' and
    # '__defaults__' attributes are used from the adapter function
    # rather than those of the wrapped function. This allows for the
    # argument specification from inspect.getfullargspec() and similar
    # functions to be overridden with a prototype for a different
    # function than what was wrapped. The 'enabled' argument provides a
    # way to enable/disable the use of the decorator. If the type of
    # 'enabled' is a boolean, then it is evaluated immediately and the
    # wrapper not even applied if it is False. If not a boolean, it will
    # be evaluated when the wrapper is called for an unbound wrapper,
    # and when binding occurs for a bound wrapper. When being evaluated,
    # if 'enabled' is callable it will be called to obtain the value to
    # be checked. If False, the wrapper will not be called and instead
    # the original wrapped function will be called directly instead.
    # The 'proxy' argument provides a way of passing a custom version of
    # the FunctionWrapper class used in decorating the function.

    if wrapper is not None:
        # Helper function for creating wrapper of the appropriate
        # time when we need it down below.

        def _build(wrapped, wrapper, enabled=None, adapter=None):
            if adapter:
                if isinstance(adapter, AdapterFactory):
                    adapter = adapter(wrapped)

                if not callable(adapter):
                    ns = {}

                    # Check if the signature argument specification has
                    # annotations. If it does then we need to remember
                    # it but also drop it when attempting to manufacture
                    # a standin adapter function. This is necessary else
                    # it will try and look up any types referenced in
                    # the annotations in the empty namespace we use,
                    # which will fail.

                    annotations = {}

                    if not isinstance(adapter, string_types):
                        if len(adapter) == 7:
                            annotations = adapter[-1]
                            adapter = adapter[:-1]
                        adapter = formatargspec(*adapter)

                    exec_('def adapter{}: pass'.format(adapter), ns, ns)
                    adapter = ns['adapter']

                    # Override the annotations for the manufactured
                    # adapter function so they match the original
                    # adapter signature argument specification.

                    if annotations:
                        adapter.__annotations__ = annotations

                return AdapterWrapper(wrapped=wrapped, wrapper=wrapper,
                        enabled=enabled, adapter=adapter)

            return proxy(wrapped=wrapped, wrapper=wrapper, enabled=enabled)

        # The wrapper has been provided so return the final decorator.
        # The decorator is itself one of our function wrappers so we
        # can determine when it is applied to functions, instance methods
        # or class methods. This allows us to bind the instance or class
        # method so the appropriate self or cls attribute is supplied
        # when it is finally called.

        def _wrapper(wrapped, instance, args, kwargs):
            # We first check for the case where the decorator was applied
            # to a class type.
            #
            #     @decorator
            #     class mydecoratorclass(object):
            #         def __init__(self, arg=None):
            #             self.arg = arg
            #         def __call__(self, wrapped, instance, args, kwargs):
            #             return wrapped(*args, **kwargs)
            #
            #     @mydecoratorclass(arg=1)
            #     def function():
            #         pass
            #
            # In this case an instance of the class is to be used as the
            # decorator wrapper function. If args was empty at this point,
            # then it means that there were optional keyword arguments
            # supplied to be used when creating an instance of the class
            # to be used as the wrapper function.

            if instance is None and isclass(wrapped) and not args:
                # We still need to be passed the target function to be
                # wrapped as yet, so we need to return a further function
                # to be able to capture it.

                def _capture(target_wrapped):
                    # Now have the target function to be wrapped and need
                    # to create an instance of the class which is to act
                    # as the decorator wrapper function. Before we do that,
                    # we need to first check that use of the decorator
                    # hadn't been disabled by a simple boolean. If it was,
                    # the target function to be wrapped is returned instead.

                    _enabled = enabled
                    if type(_enabled) is bool:
                        if not _enabled:
                            return target_wrapped
                        _enabled = None

                    # Now create an instance of the class which is to act
                    # as the decorator wrapper function. Any arguments had
                    # to be supplied as keyword only arguments so that is
                    # all we pass when creating it.

                    target_wrapper = wrapped(**kwargs)

                    # Finally build the wrapper itself and return it.

                    return _build(target_wrapped, target_wrapper,
                            _enabled, adapter)

                return _capture

            # We should always have the target function to be wrapped at
            # this point as the first (and only) value in args.

            target_wrapped = args[0]

            # Need to now check that use of the decorator hadn't been
            # disabled by a simple boolean. If it was, then target
            # function to be wrapped is returned instead.

            _enabled = enabled
            if type(_enabled) is bool:
                if not _enabled:
                    return target_wrapped
                _enabled = None

            # We now need to build the wrapper, but there are a couple of
            # different cases we need to consider.

            if instance is None:
                if isclass(wrapped):
                    # In this case the decorator was applied to a class
                    # type but optional keyword arguments were not supplied
                    # for initialising an instance of the class to be used
                    # as the decorator wrapper function.
                    #
                    #     @decorator
                    #     class mydecoratorclass(object):
                    #         def __init__(self, arg=None):
                    #             self.arg = arg
                    #         def __call__(self, wrapped, instance,
                    #                 args, kwargs):
                    #             return wrapped(*args, **kwargs)
                    #
                    #     @mydecoratorclass
                    #     def function():
                    #         pass
                    #
                    # We still need to create an instance of the class to
                    # be used as the decorator wrapper function, but no
                    # arguments are pass.

                    target_wrapper = wrapped()

                else:
                    # In this case the decorator was applied to a normal
                    # function, or possibly a static method of a class.
                    #
                    #     @decorator
                    #     def mydecoratorfuntion(wrapped, instance,
                    #             args, kwargs):
                    #         return wrapped(*args, **kwargs)
                    #
                    #     @mydecoratorfunction
                    #     def function():
                    #         pass
                    #
                    # That normal function becomes the decorator wrapper
                    # function.

                    target_wrapper = wrapper

            else:
                if isclass(instance):
                    # In this case the decorator was applied to a class
                    # method.
                    #
                    #     class myclass(object):
                    #         @decorator
                    #         @classmethod
                    #         def decoratorclassmethod(cls, wrapped,
                    #                 instance, args, kwargs):
                    #             return wrapped(*args, **kwargs)
                    #
                    #     instance = myclass()
                    #
                    #     @instance.decoratorclassmethod
                    #     def function():
                    #         pass
                    #
                    # This one is a bit strange because binding was actually
                    # performed on the wrapper created by our decorator
                    # factory. We need to apply that binding to the decorator
                    # wrapper function that the decorator factory
                    # was applied to.

                    target_wrapper = wrapper.__get__(None, instance)

                else:
                    # In this case the decorator was applied to an instance
                    # method.
                    #
                    #     class myclass(object):
                    #         @decorator
                    #         def decoratorclassmethod(self, wrapped,
                    #                 instance, args, kwargs):
                    #             return wrapped(*args, **kwargs)
                    #
                    #     instance = myclass()
                    #
                    #     @instance.decoratorclassmethod
                    #     def function():
                    #         pass
                    #
                    # This one is a bit strange because binding was actually
                    # performed on the wrapper created by our decorator
                    # factory. We need to apply that binding to the decorator
                    # wrapper function that the decorator factory
                    # was applied to.

                    target_wrapper = wrapper.__get__(instance, type(instance))

            # Finally build the wrapper itself and return it.

            return _build(target_wrapped, target_wrapper, _enabled, adapter)

        # We first return our magic function wrapper here so we can
        # determine in what context the decorator factory was used. In
        # other words, it is itself a universal decorator. The decorator
        # function is used as the adapter so that linters see a signature
        # corresponding to the decorator and not the wrapper it is being
        # applied to.

        return _build(wrapper, _wrapper, adapter=decorator)

    else:
        # The wrapper still has not been provided, so we are just
        # collecting the optional keyword arguments. Return the
        # decorator again wrapped in a partial using the collected
        # arguments.

        return partial(decorator, enabled=enabled, adapter=adapter,
                proxy=proxy)

# Decorator for implementing thread synchronization. It can be used as a
# decorator, in which case the synchronization context is determined by
# what type of function is wrapped, or it can also be used as a context
# manager, where the user needs to supply the correct synchronization
# context. It is also possible to supply an object which appears to be a
# synchronization primitive of some sort, by virtue of having release()
# and acquire() methods. In that case that will be used directly as the
# synchronization primitive without creating a separate lock against the
# derived or supplied context.

def synchronized(wrapped):
    # Determine if being passed an object which is a synchronization
    # primitive. We can't check by type for Lock, RLock, Semaphore etc,
    # as the means of creating them isn't the type. Therefore use the
    # existence of acquire() and release() methods. This is more
    # extensible anyway as it allows custom synchronization mechanisms.

    if hasattr(wrapped, 'acquire') and hasattr(wrapped, 'release'):
        # We remember what the original lock is and then return a new
        # decorator which accesses and locks it. When returning the new
        # decorator we wrap it with an object proxy so we can override
        # the context manager methods in case it is being used to wrap
        # synchronized statements with a 'with' statement.

        lock = wrapped

        @decorator
        def _synchronized(wrapped, instance, args, kwargs):
            # Execute the wrapped function while the original supplied
            # lock is held.

            with lock:
                return wrapped(*args, **kwargs)

        class _PartialDecorator(CallableObjectProxy):

            def __enter__(self):
                lock.acquire()
                return lock

            def __exit__(self, *args):
                lock.release()

        return _PartialDecorator(wrapped=_synchronized)

    # Following only apply when the lock is being created automatically
    # based on the context of what was supplied. In this case we supply
    # a final decorator, but need to use FunctionWrapper directly as we
    # want to derive from it to add context manager methods in case it is
    # being used to wrap synchronized statements with a 'with' statement.

    def _synchronized_lock(context):
        # Attempt to retrieve the lock for the specific context.

        lock = vars(context).get('_synchronized_lock', None)

        if lock is None:
            # There is no existing lock defined for the context we
            # are dealing with so we need to create one. This needs
            # to be done in a way to guarantee there is only one
            # created, even if multiple threads try and create it at
            # the same time. We can't always use the setdefault()
            # method on the __dict__ for the context. This is the
            # case where the context is a class, as __dict__ is
            # actually a dictproxy. What we therefore do is use a
            # meta lock on this wrapper itself, to control the
            # creation and assignment of the lock attribute against
            # the context.

            with synchronized._synchronized_meta_lock:
                # We need to check again for whether the lock we want
                # exists in case two threads were trying to create it
                # at the same time and were competing to create the
                # meta lock.

                lock = vars(context).get('_synchronized_lock', None)

                if lock is None:
                    lock = RLock()
                    setattr(context, '_synchronized_lock', lock)

        return lock

    def _synchronized_wrapper(wrapped, instance, args, kwargs):
        # Execute the wrapped function while the lock for the
        # desired context is held. If instance is None then the
        # wrapped function is used as the context.

        with _synchronized_lock(instance if instance is not None else wrapped):
            return wrapped(*args, **kwargs)

    class _FinalDecorator(FunctionWrapper):

        def __enter__(self):
            self._self_lock = _synchronized_lock(self.__wrapped__)
            self._self_lock.acquire()
            return self._self_lock

        def __exit__(self, *args):
            self._self_lock.release()

    return _FinalDecorator(wrapped=wrapped, wrapper=_synchronized_wrapper)

synchronized._synchronized_meta_lock = Lock()
b IDATxytVսϓ22 A@IR :hCiZ[v*E:WũZA ^dQeQ @ !jZ'>gsV仿$|?g)&x-EIENT ;@xT.i%-X}SvS5.r/UHz^_$-W"w)Ɗ/@Z &IoX P$K}JzX:;` &, ŋui,e6mX ԵrKb1ԗ)DADADADADADADADADADADADADADADADADADADADADADADADADADADADADADADADADADADADADADADADADADA݀!I*]R;I2$eZ#ORZSrr6mteffu*((Pu'v{DIߔ4^pIm'77WEEE;vƎ4-$]'RI{\I&G :IHJ DWBB=\WR޽m o$K(V9ABB.}jѢv`^?IOȅ} ڶmG}T#FJ`56$-ھ}FI&v;0(h;Б38CӧOWf!;A i:F_m9s&|q%=#wZprrrla A &P\\СC[A#! {olF} `E2}MK/vV)i{4BffV\|ۭX`b@kɶ@%i$K z5zhmX[IXZ` 'b%$r5M4º/l ԃߖxhʔ)[@=} K6IM}^5k㏷݆z ΗÿO:gdGBmyT/@+Vɶ纽z񕏵l.y޴it뭷zV0[Y^>Wsqs}\/@$(T7f.InݺiR$푔n.~?H))\ZRW'Mo~v Ov6oԃxz! S,&xm/yɞԟ?'uaSѽb,8GלKboi&3t7Y,)JJ c[nzӳdE&KsZLӄ I?@&%ӟ۶mSMMњ0iؐSZ,|J+N ~,0A0!5%Q-YQQa3}$_vVrf9f?S8`zDADADADADADADADADAdqP,تmMmg1V?rSI꒟]u|l RCyEf٢9 jURbztѰ!m5~tGj2DhG*{H9)꒟ר3:(+3\?/;TUݭʴ~S6lڧUJ*i$d(#=Yݺd{,p|3B))q:vN0Y.jkק6;SɶVzHJJЀ-utѹսk>QUU\޲~]fFnK?&ߡ5b=z9)^|u_k-[y%ZNU6 7Mi:]ۦtk[n X(e6Bb."8cۭ|~teuuw|ήI-5"~Uk;ZicEmN/:]M> cQ^uiƞ??Ңpc#TUU3UakNwA`:Y_V-8.KKfRitv޲* 9S6ֿj,ՃNOMߤ]z^fOh|<>@Å5 _/Iu?{SY4hK/2]4%it5q]GGe2%iR| W&f*^]??vq[LgE_3f}Fxu~}qd-ږFxu~I N>\;͗O֊:̗WJ@BhW=y|GgwܷH_NY?)Tdi'?խwhlmQi !SUUsw4kӺe4rfxu-[nHtMFj}H_u~w>)oV}(T'ebʒv3_[+vn@Ȭ\S}ot}w=kHFnxg S 0eޢm~l}uqZfFoZuuEg `zt~? b;t%>WTkķh[2eG8LIWx,^\thrl^Ϊ{=dž<}qV@ ⠨Wy^LF_>0UkDuʫuCs$)Iv:IK;6ֲ4{^6եm+l3>݆uM 9u?>Zc }g~qhKwڭeFMM~pМuqǿz6Tb@8@Y|jx](^]gf}M"tG -w.@vOqh~/HII`S[l.6nØXL9vUcOoB\xoǤ'T&IǍQw_wpv[kmO{w~>#=P1Pɞa-we:iǏlHo׈꒟f9SzH?+shk%Fs:qVhqY`jvO'ρ?PyX3lх]˾uV{ݞ]1,MzYNW~̈́ joYn}ȚF߾׮mS]F z+EDxm/d{F{-W-4wY듏:??_gPf ^3ecg ҵs8R2מz@TANGj)}CNi/R~}c:5{!ZHӋӾ6}T]G]7W6^n 9*,YqOZj:P?Q DFL|?-^.Ɵ7}fFh׶xe2Pscz1&5\cn[=Vn[ĶE鎀uˌd3GII k;lNmشOuuRVfBE]ۣeӶu :X-[(er4~LHi6:Ѻ@ԅrST0trk%$Č0ez" *z"T/X9|8.C5Feg}CQ%͞ˣJvL/?j^h&9xF`њZ(&yF&Iݻfg#W;3^{Wo^4'vV[[K';+mӍִ]AC@W?1^{එyh +^]fm~iԵ]AB@WTk̏t uR?l.OIHiYyԶ]Aˀ7c:q}ힽaf6Z~қm(+sK4{^6}T*UUu]n.:kx{:2 _m=sAߤU@?Z-Vކеz왍Nэ{|5 pڶn b p-@sPg]0G7fy-M{GCF'%{4`=$-Ge\ eU:m+Zt'WjO!OAF@ik&t݆ϥ_ e}=]"Wz_.͜E3leWFih|t-wZۍ-uw=6YN{6|} |*={Ѽn.S.z1zjۻTH]흾 DuDvmvK.`V]yY~sI@t?/ϓ. m&["+P?MzovVЫG3-GRR[(!!\_,^%?v@ҵő m`Y)tem8GMx.))A]Y i`ViW`?^~!S#^+ѽGZj?Vģ0.))A꨷lzL*]OXrY`DBBLOj{-MH'ii-ϰ ok7^ )쭡b]UXSְmռY|5*cֽk0B7镹%ڽP#8nȎq}mJr23_>lE5$iwui+ H~F`IjƵ@q \ @#qG0".0" l`„.0! ,AQHN6qzkKJ#o;`Xv2>,tێJJ7Z/*A .@fفjMzkg @TvZH3Zxu6Ra'%O?/dQ5xYkU]Rֽkق@DaS^RSּ5|BeHNN͘p HvcYcC5:y #`οb;z2.!kr}gUWkyZn=f Pvsn3p~;4p˚=ē~NmI] ¾ 0lH[_L hsh_ғߤc_њec)g7VIZ5yrgk̞W#IjӪv>՞y睝M8[|]\շ8M6%|@PZڨI-m>=k='aiRo-x?>Q.}`Ȏ:Wsmu u > .@,&;+!!˱tﭧDQwRW\vF\~Q7>spYw$%A~;~}6¾ g&if_=j,v+UL1(tWake:@Ș>j$Gq2t7S?vL|]u/ .(0E6Mk6hiۺzښOrifޱxm/Gx> Lal%%~{lBsR4*}{0Z/tNIɚpV^#Lf:u@k#RSu =S^ZyuR/.@n&΃z~B=0eg뺆#,Þ[B/?H uUf7y Wy}Bwegל`Wh(||`l`.;Ws?V@"c:iɍL֯PGv6zctM̠':wuW;d=;EveD}9J@B(0iհ bvP1{\P&G7D޴Iy_$-Qjm~Yrr&]CDv%bh|Yzni_ˆR;kg}nJOIIwyuL}{ЌNj}:+3Y?:WJ/N+Rzd=hb;dj͒suݔ@NKMԄ jqzC5@y°hL m;*5ezᕏ=ep XL n?מ:r`۵tŤZ|1v`V뽧_csج'ߤ%oTuumk%%%h)uy]Nk[n 'b2 l.=͜E%gf$[c;s:V-͞WߤWh-j7]4=F-X]>ZLSi[Y*We;Zan(ӇW|e(HNNP5[= r4tP &0<pc#`vTNV GFqvTi*Tyam$ߏWyE*VJKMTfFw>'$-ؽ.Ho.8c"@DADADADADADADADADA~j*֘,N;Pi3599h=goضLgiJ5փy~}&Zd9p֚ e:|hL``b/d9p? fgg+%%hMgXosج, ΩOl0Zh=xdjLmhݻoO[g_l,8a]٭+ӧ0$I]c]:粹:Teꢢ"5a^Kgh,&= =՟^߶“ߢE ܹS J}I%:8 IDAT~,9/ʃPW'Mo}zNƍ쨓zPbNZ~^z=4mswg;5 Y~SVMRXUյڱRf?s:w ;6H:ºi5-maM&O3;1IKeamZh͛7+##v+c ~u~ca]GnF'ټL~PPPbn voC4R,ӟgg %hq}@#M4IÇ Oy^xMZx ) yOw@HkN˖-Sǎmb]X@n+i͖!++K3gd\$mt$^YfJ\8PRF)77Wא!Cl$i:@@_oG I{$# 8磌ŋ91A (Im7֭>}ߴJq7ޗt^ -[ԩSj*}%]&' -ɓ'ꫯVzzvB#;a 7@GxI{j޼ƌ.LÇWBB7`O"I$/@R @eee@۷>}0,ɒ2$53Xs|cS~rpTYYY} kHc %&k.], @ADADADADADADADADA@lT<%''*Lo^={رc5h %$+CnܸQ3fҥK}vUVVs9G R,_{xˇ3o߾;TTTd}馛]uuuG~iԩ@4bnvmvfϞ /Peeeq}}za I~,誫{UWW뮻}_~YƍSMMMYχ֝waw\ďcxꩧtEƍկ_?۷5@u?1kNׯWzz/wy>}zj3 k(ٺuq_Zvf̘:~ ABQ&r|!%KҥKgԞ={<_X-z !CyFUUz~ ABQIIIjݺW$UXXDٳZ~ ABQƍecW$<(~<RSSvZujjjԧOZQu@4 8m&&&jԩg$ď1h ͟?_{768@g =@`)))5o6m3)ѣƌJ;wҿUTT /KZR{~a=@0o<*狔iFɶ[ˎ;T]]OX@?K.ۈxN pppppppppppppppppPfl߾] ,{ァk۶mڿo5BTӦMӴiӴ|r DB2e|An!Dy'tkΝ[A $***t5' "!駟oaDnΝ:t֭[gDШQ06qD;@ x M6v(PiizmZ4ew"@̴ixf [~-Fٱc&IZ2|n!?$@{[HTɏ#@hȎI# _m(F /6Z3z'\r,r!;w2Z3j=~GY7"I$iI.p_"?pN`y DD?: _  Gÿab7J !Bx@0 Bo cG@`1C[@0G @`0C_u V1 aCX>W ` | `!<S `"<. `#c`?cAC4 ?c p#~@0?:08&_MQ1J h#?/`7;I  q 7a wQ A 1 Hp !#<8/#@1Ul7=S=K.4Z?E_$i@!1!E4?`P_  @Bă10#: "aU,xbFY1 [n|n #'vEH:`xb #vD4Y hi.i&EΖv#O H4IŶ}:Ikh @tZRF#(tXҙzZ ?I3l7q@õ|ۍ1,GpuY Ꮿ@hJv#xxk$ v#9 5 }_$c S#=+"K{F*m7`#%H:NRSp6I?sIՖ{Ap$I$I:QRv2$Z @UJ*$]<FO4IENDB`