path: root/bench_data/numerous_macro_rules

macro_rules! __ra_macro_fixture0 {($T :  ident )=>( int_module ! ($T , # [ stable ( feature =  "rust1" ,  since =  "1.0.0" )]);); ($T :  ident , # [$attr :  meta ])=>( doc_comment ! { concat ! ( "The smallest value that can be represented by this integer type.\nUse [`" ,  stringify ! ($T ),  "::MIN" ,  "`](../../std/primitive." ,  stringify ! ($T ),  ".html#associatedconstant.MIN) instead.\n\n# Examples\n\n```rust\n// deprecated way\nlet min = std::" ,  stringify ! ($T ),  "::MIN;\n\n// intended way\nlet min = " ,  stringify ! ($T ),  "::MIN;\n```\n" ), # [$attr ] pub  const  MIN : $T = $T ::  MIN ; } doc_comment ! { concat ! ( "The largest value that can be represented by this integer type.\nUse [`" ,  stringify ! ($T ),  "::MAX" ,  "`](../../std/primitive." ,  stringify ! ($T ),  ".html#associatedconstant.MAX) instead.\n\n# Examples\n\n```rust\n// deprecated way\nlet max = std::" ,  stringify ! ($T ),  "::MAX;\n\n// intended way\nlet max = " ,  stringify ! ($T ),  "::MAX;\n```\n" ), # [$attr ] pub  const  MAX : $T = $T ::  MAX ; })}
macro_rules! __ra_macro_fixture1 {($($ty :  ty :  add ($addfn :  path ),  mul /  div ($bigty :  ident );)*)=>($(impl  FullOps  for $ty { fn  full_add ( self ,  other : $ty ,  carry :  bool )-> ( bool , $ty ){ let ( v ,  carry1 )=  intrinsics ::  add_with_overflow ( self ,  other );  let ( v ,  carry2 )=  intrinsics ::  add_with_overflow ( v ,  if  carry { 1 } else { 0 }); ( carry1 ||  carry2 ,  v )} fn  full_mul ( self ,  other : $ty ,  carry : $ty )-> ($ty , $ty ){ let  v = ( self  as $bigty )* ( other  as $bigty )+ ( carry  as $bigty ); (( v >> <$ty >::  BITS ) as $ty ,  v  as $ty )} fn  full_mul_add ( self ,  other : $ty ,  other2 : $ty ,  carry : $ty )-> ($ty , $ty ){ let  v = ( self  as $bigty )* ( other  as $bigty )+ ( other2  as $bigty )+ ( carry  as $bigty ); (( v >> <$ty >::  BITS ) as $ty ,  v  as $ty )} fn  full_div_rem ( self ,  other : $ty ,  borrow : $ty )-> ($ty , $ty ){ debug_assert ! ( borrow <  other );  let  lhs = (( borrow  as $bigty )<< <$ty >::  BITS )| ( self  as $bigty );  let  rhs =  other  as $bigty ; (( lhs /  rhs ) as $ty , ( lhs %  rhs ) as $ty )}})* )}
macro_rules! __ra_macro_fixture2 {($name :  ident :  type =$ty :  ty ,  n =$n :  expr )=>{# [ doc =  " Stack-allocated arbitrary-precision (up to certain limit) integer." ]# [ doc =  "" ]# [ doc =  " This is backed by a fixed-size array of given type (\\\"digit\\\")." ]# [ doc =  " While the array is not very large (normally some hundred bytes)," ]# [ doc =  " copying it recklessly may result in the performance hit." ]# [ doc =  " Thus this is intentionally not `Copy`." ]# [ doc =  "" ]# [ doc =  " All operations available to bignums panic in the case of overflows." ]# [ doc =  " The caller is responsible to use large enough bignum types." ] pub  struct $name {# [ doc =  " One plus the offset to the maximum \\\"digit\\\" in use." ]# [ doc =  " This does not decrease, so be aware of the computation order." ]# [ doc =  " `base[size..]` should be zero." ] size :  usize , # [ doc =  " Digits. `[a, b, c, ...]` represents `a + b*2^W + c*2^(2W) + ...`" ]# [ doc =  " where `W` is the number of bits in the digit type." ] base : [$ty ; $n ], } impl $name {# [ doc =  " Makes a bignum from one digit." ] pub  fn  from_small ( v : $ty )-> $name { let  mut  base = [ 0 ; $n ];  base [ 0 ]=  v ; $name { size :  1 ,  base :  base }}# [ doc =  " Makes a bignum from `u64` value." ] pub  fn  from_u64 ( mut  v :  u64 )-> $name { let  mut  base = [ 0 ; $n ];  let  mut  sz =  0 ;  while  v >  0 { base [ sz ]=  v  as $ty ;  v >>= <$ty >::  BITS ;  sz +=  1 ; }$name { size :  sz ,  base :  base }}# [ doc =  " Returns the internal digits as a slice `[a, b, c, ...]` such that the numeric" ]# [ doc =  " value is `a + b * 2^W + c * 2^(2W) + ...` where `W` is the number of bits in" ]# [ doc =  " the digit type." ] pub  fn  digits (&  self )-> & [$ty ]{&  self .  base [..  self .  size ]}# [ doc =  " Returns the `i`-th bit where bit 0 is the least significant one." ]# [ doc =  " In other words, the bit with weight `2^i`." ] pub  fn  get_bit (&  self ,  i :  usize )->  u8 { let  digitbits = <$ty >::  BITS  as  usize ;  let  d =  i /  digitbits ;  let  b =  i %  digitbits ; (( self .  base [ d ]>>  b )&  1 ) as  u8 }# [ doc =  " Returns `true` if the bignum is zero." ] pub  fn  is_zero (&  self )->  bool { self .  digits ().  iter ().  all (|&  v |  v ==  0 )}# [ doc =  " Returns the number of bits necessary to represent this value. Note that zero" ]# [ doc =  " is considered to need 0 bits." ] pub  fn  bit_length (&  self )->  usize { let  digits =  self .  digits ();  let  zeros =  digits .  iter ().  rev ().  take_while (|&&  x |  x ==  0 ).  count ();  let  end =  digits .  len ()-  zeros ;  let  nonzero = &  digits [..  end ];  if  nonzero .  is_empty (){ return  0 ; } let  digitbits = <$ty >::  BITS  as  usize ;  let  mut  i =  nonzero .  len ()*  digitbits -  1 ;  while  self .  get_bit ( i )==  0 { i -=  1 ; } i +  1 }# [ doc =  " Adds `other` to itself and returns its own mutable reference." ] pub  fn  add < 'a > (& 'a  mut  self ,  other : &$name )-> & 'a  mut $name { use  crate ::  cmp ;  use  crate ::  num ::  bignum ::  FullOps ;  let  mut  sz =  cmp ::  max ( self .  size ,  other .  size );  let  mut  carry =  false ;  for ( a ,  b ) in  self .  base [..  sz ].  iter_mut ().  zip (&  other .  base [..  sz ]){ let ( c ,  v )= (*  a ).  full_add (*  b ,  carry ); *  a =  v ;  carry =  c ; } if  carry { self .  base [ sz ]=  1 ;  sz +=  1 ; } self .  size =  sz ;  self } pub  fn  add_small (&  mut  self ,  other : $ty )-> &  mut $name { use  crate ::  num ::  bignum ::  FullOps ;  let ( mut  carry ,  v )=  self .  base [ 0 ].  full_add ( other ,  false );  self .  base [ 0 ]=  v ;  let  mut  i =  1 ;  while  carry { let ( c ,  v )=  self .  base [ i ].  full_add ( 0 ,  carry );  self .  base [ i ]=  v ;  carry =  c ;  i +=  1 ; } if  i >  self .  size { self .  size =  i ; } self }# [ doc =  " Subtracts `other` from itself and returns its own mutable reference." ] pub  fn  sub < 'a > (& 'a  mut  self ,  other : &$name )-> & 'a  mut $name { use  crate ::  cmp ;  use  crate ::  num ::  bignum ::  FullOps ;  let  sz =  cmp ::  max ( self .  size ,  other .  size );  let  mut  noborrow =  true ;  for ( a ,  b ) in  self .  base [..  sz ].  iter_mut ().  zip (&  other .  base [..  sz ]){ let ( c ,  v )= (*  a ).  full_add (!*  b ,  noborrow ); *  a =  v ;  noborrow =  c ; } assert ! ( noborrow );  self .  size =  sz ;  self }# [ doc =  " Multiplies itself by a digit-sized `other` and returns its own" ]# [ doc =  " mutable reference." ] pub  fn  mul_small (&  mut  self ,  other : $ty )-> &  mut $name { use  crate ::  num ::  bignum ::  FullOps ;  let  mut  sz =  self .  size ;  let  mut  carry =  0 ;  for  a  in &  mut  self .  base [..  sz ]{ let ( c ,  v )= (*  a ).  full_mul ( other ,  carry ); *  a =  v ;  carry =  c ; } if  carry >  0 { self .  base [ sz ]=  carry ;  sz +=  1 ; } self .  size =  sz ;  self }# [ doc =  " Multiplies itself by `2^bits` and returns its own mutable reference." ] pub  fn  mul_pow2 (&  mut  self ,  bits :  usize )-> &  mut $name { let  digitbits = <$ty >::  BITS  as  usize ;  let  digits =  bits /  digitbits ;  let  bits =  bits %  digitbits ;  assert ! ( digits < $n );  debug_assert ! ( self .  base [$n -  digits ..].  iter ().  all (|&  v |  v ==  0 ));  debug_assert ! ( bits ==  0 || ( self .  base [$n -  digits -  1 ]>> ( digitbits -  bits ))==  0 );  for  i  in ( 0 ..  self .  size ).  rev (){ self .  base [ i +  digits ]=  self .  base [ i ]; } for  i  in  0 ..  digits { self .  base [ i ]=  0 ; } let  mut  sz =  self .  size +  digits ;  if  bits >  0 { let  last =  sz ;  let  overflow =  self .  base [ last -  1 ]>> ( digitbits -  bits );  if  overflow >  0 { self .  base [ last ]=  overflow ;  sz +=  1 ; } for  i  in ( digits +  1 ..  last ).  rev (){ self .  base [ i ]= ( self .  base [ i ]<<  bits )| ( self .  base [ i -  1 ]>> ( digitbits -  bits )); } self .  base [ digits ]<<=  bits ; } self .  size =  sz ;  self }# [ doc =  " Multiplies itself by `5^e` and returns its own mutable reference." ] pub  fn  mul_pow5 (&  mut  self ,  mut  e :  usize )-> &  mut $name { use  crate ::  mem ;  use  crate ::  num ::  bignum ::  SMALL_POW5 ;  let  table_index =  mem ::  size_of ::<$ty > ().  trailing_zeros () as  usize ;  let ( small_power ,  small_e )=  SMALL_POW5 [ table_index ];  let  small_power =  small_power  as $ty ;  while  e >=  small_e { self .  mul_small ( small_power );  e -=  small_e ; } let  mut  rest_power =  1 ;  for _  in  0 ..  e { rest_power *=  5 ; } self .  mul_small ( rest_power );  self }# [ doc =  " Multiplies itself by a number described by `other[0] + other[1] * 2^W +" ]# [ doc =  " other[2] * 2^(2W) + ...` (where `W` is the number of bits in the digit type)" ]# [ doc =  " and returns its own mutable reference." ] pub  fn  mul_digits < 'a > (& 'a  mut  self ,  other : & [$ty ])-> & 'a  mut $name { fn  mul_inner ( ret : &  mut [$ty ; $n ],  aa : & [$ty ],  bb : & [$ty ])->  usize { use  crate ::  num ::  bignum ::  FullOps ;  let  mut  retsz =  0 ;  for ( i , &  a ) in  aa .  iter ().  enumerate (){ if  a ==  0 { continue ; } let  mut  sz =  bb .  len ();  let  mut  carry =  0 ;  for ( j , &  b ) in  bb .  iter ().  enumerate (){ let ( c ,  v )=  a .  full_mul_add ( b ,  ret [ i +  j ],  carry );  ret [ i +  j ]=  v ;  carry =  c ; } if  carry >  0 { ret [ i +  sz ]=  carry ;  sz +=  1 ; } if  retsz <  i +  sz { retsz =  i +  sz ; }} retsz } let  mut  ret = [ 0 ; $n ];  let  retsz =  if  self .  size <  other .  len (){ mul_inner (&  mut  ret , &  self .  digits (),  other )} else { mul_inner (&  mut  ret ,  other , &  self .  digits ())};  self .  base =  ret ;  self .  size =  retsz ;  self }# [ doc =  " Divides itself by a digit-sized `other` and returns its own" ]# [ doc =  " mutable reference *and* the remainder." ] pub  fn  div_rem_small (&  mut  self ,  other : $ty )-> (&  mut $name , $ty ){ use  crate ::  num ::  bignum ::  FullOps ;  assert ! ( other >  0 );  let  sz =  self .  size ;  let  mut  borrow =  0 ;  for  a  in  self .  base [..  sz ].  iter_mut ().  rev (){ let ( q ,  r )= (*  a ).  full_div_rem ( other ,  borrow ); *  a =  q ;  borrow =  r ; }( self ,  borrow )}# [ doc =  " Divide self by another bignum, overwriting `q` with the quotient and `r` with the" ]# [ doc =  " remainder." ] pub  fn  div_rem (&  self ,  d : &$name ,  q : &  mut $name ,  r : &  mut $name ){ assert ! (!  d .  is_zero ());  let  digitbits = <$ty >::  BITS  as  usize ;  for  digit  in &  mut  q .  base [..]{*  digit =  0 ; } for  digit  in &  mut  r .  base [..]{*  digit =  0 ; } r .  size =  d .  size ;  q .  size =  1 ;  let  mut  q_is_zero =  true ;  let  end =  self .  bit_length ();  for  i  in ( 0 ..  end ).  rev (){ r .  mul_pow2 ( 1 );  r .  base [ 0 ]|=  self .  get_bit ( i ) as $ty ;  if &*  r >=  d { r .  sub ( d );  let  digit_idx =  i /  digitbits ;  let  bit_idx =  i %  digitbits ;  if  q_is_zero { q .  size =  digit_idx +  1 ;  q_is_zero =  false ; } q .  base [ digit_idx ]|=  1 <<  bit_idx ; }} debug_assert ! ( q .  base [ q .  size ..].  iter ().  all (|&  d |  d ==  0 ));  debug_assert ! ( r .  base [ r .  size ..].  iter ().  all (|&  d |  d ==  0 )); }} impl  crate ::  cmp ::  PartialEq  for $name { fn  eq (&  self ,  other : &$name )->  bool { self .  base [..]==  other .  base [..]}} impl  crate ::  cmp ::  Eq  for $name {} impl  crate ::  cmp ::  PartialOrd  for $name { fn  partial_cmp (&  self ,  other : &$name )->  crate ::  option ::  Option <  crate ::  cmp ::  Ordering > { crate ::  option ::  Option ::  Some ( self .  cmp ( other ))}} impl  crate ::  cmp ::  Ord  for $name { fn  cmp (&  self ,  other : &$name )->  crate ::  cmp ::  Ordering { use  crate ::  cmp ::  max ;  let  sz =  max ( self .  size ,  other .  size );  let  lhs =  self .  base [..  sz ].  iter ().  cloned ().  rev ();  let  rhs =  other .  base [..  sz ].  iter ().  cloned ().  rev ();  lhs .  cmp ( rhs )}} impl  crate ::  clone ::  Clone  for $name { fn  clone (&  self )->  Self { Self { size :  self .  size ,  base :  self .  base }}} impl  crate ::  fmt ::  Debug  for $name { fn  fmt (&  self ,  f : &  mut  crate ::  fmt ::  Formatter < '_ >)->  crate ::  fmt ::  Result { let  sz =  if  self .  size <  1 { 1 } else { self .  size };  let  digitlen = <$ty >::  BITS  as  usize /  4 ;  write ! ( f ,  "{:#x}" ,  self .  base [ sz -  1 ])?;  for &  v  in  self .  base [..  sz -  1 ].  iter ().  rev (){ write ! ( f ,  "_{:01$x}" ,  v ,  digitlen )?; } crate ::  result ::  Result ::  Ok (())}}}; }
macro_rules! __ra_macro_fixture3 {($t :  ty )=>{# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  FromStr  for $t { type  Err =  ParseFloatError ; # [ doc =  " Converts a string in base 10 to a float." ]# [ doc =  " Accepts an optional decimal exponent." ]# [ doc =  "" ]# [ doc =  " This function accepts strings such as" ]# [ doc =  "" ]# [ doc =  " * \\\'3.14\\\'" ]# [ doc =  " * \\\'-3.14\\\'" ]# [ doc =  " * \\\'2.5E10\\\', or equivalently, \\\'2.5e10\\\'" ]# [ doc =  " * \\\'2.5E-10\\\'" ]# [ doc =  " * \\\'5.\\\'" ]# [ doc =  " * \\\'.5\\\', or, equivalently, \\\'0.5\\\'" ]# [ doc =  " * \\\'inf\\\', \\\'-inf\\\', \\\'NaN\\\'" ]# [ doc =  "" ]# [ doc =  " Leading and trailing whitespace represent an error." ]# [ doc =  "" ]# [ doc =  " # Grammar" ]# [ doc =  "" ]# [ doc =  " All strings that adhere to the following [EBNF] grammar" ]# [ doc =  " will result in an [`Ok`] being returned:" ]# [ doc =  "" ]# [ doc =  " ```txt" ]# [ doc =  " Float  ::= Sign? ( \\\'inf\\\' | \\\'NaN\\\' | Number )" ]# [ doc =  " Number ::= ( Digit+ |" ]# [ doc =  "              Digit+ \\\'.\\\' Digit* |" ]# [ doc =  "              Digit* \\\'.\\\' Digit+ ) Exp?" ]# [ doc =  " Exp    ::= [eE] Sign? Digit+" ]# [ doc =  " Sign   ::= [+-]" ]# [ doc =  " Digit  ::= [0-9]" ]# [ doc =  " ```" ]# [ doc =  "" ]# [ doc =  " [EBNF]: https://www.w3.org/TR/REC-xml/#sec-notation" ]# [ doc =  "" ]# [ doc =  " # Known bugs" ]# [ doc =  "" ]# [ doc =  " In some situations, some strings that should create a valid float" ]# [ doc =  " instead return an error. See [issue #31407] for details." ]# [ doc =  "" ]# [ doc =  " [issue #31407]: https://github.com/rust-lang/rust/issues/31407" ]# [ doc =  "" ]# [ doc =  " # Arguments" ]# [ doc =  "" ]# [ doc =  " * src - A string" ]# [ doc =  "" ]# [ doc =  " # Return value" ]# [ doc =  "" ]# [ doc =  " `Err(ParseFloatError)` if the string did not represent a valid" ]# [ doc =  " number. Otherwise, `Ok(n)` where `n` is the floating-point" ]# [ doc =  " number represented by `src`." ]# [ inline ] fn  from_str ( src : &  str )->  Result <  Self ,  ParseFloatError > { dec2flt ( src )}}}; }
macro_rules! __ra_macro_fixture4 {($(# [$stability :  meta ]$Ty :  ident ($Int :  ty ); )+ )=>{$(doc_comment ! { concat ! ( "An integer that is known not to equal zero.\n\nThis enables some memory layout optimization.\nFor example, `Option<" ,  stringify ! ($Ty ),  ">` is the same size as `" ,  stringify ! ($Int ),  "`:\n\n```rust\nuse std::mem::size_of;\nassert_eq!(size_of::<Option<core::num::" ,  stringify ! ($Ty ),  ">>(), size_of::<" ,  stringify ! ($Int ),  ">());\n```" ), # [$stability ]# [ derive ( Copy ,  Clone ,  Eq ,  PartialEq ,  Ord ,  PartialOrd ,  Hash )]# [ repr ( transparent )]# [ rustc_layout_scalar_valid_range_start ( 1 )]# [ rustc_nonnull_optimization_guaranteed ] pub  struct $Ty ($Int ); } impl $Ty {# [ doc =  " Creates a non-zero without checking the value." ]# [ doc =  "" ]# [ doc =  " # Safety" ]# [ doc =  "" ]# [ doc =  " The value must not be zero." ]# [$stability ]# [ rustc_const_stable ( feature =  "nonzero" ,  since =  "1.34.0" )]# [ inline ] pub  const  unsafe  fn  new_unchecked ( n : $Int )->  Self { unsafe { Self ( n )}}# [ doc =  " Creates a non-zero if the given value is not zero." ]# [$stability ]# [ rustc_const_stable ( feature =  "const_nonzero_int_methods" ,  since =  "1.47.0" )]# [ inline ] pub  const  fn  new ( n : $Int )->  Option <  Self > { if  n !=  0 { Some ( unsafe { Self ( n )})} else { None }}# [ doc =  " Returns the value as a primitive type." ]# [$stability ]# [ inline ]# [ rustc_const_stable ( feature =  "nonzero" ,  since =  "1.34.0" )] pub  const  fn  get ( self )-> $Int { self .  0 }}# [ stable ( feature =  "from_nonzero" ,  since =  "1.31.0" )] impl  From <$Ty >  for $Int { doc_comment ! { concat ! ( "Converts a `" ,  stringify ! ($Ty ),  "` into an `" ,  stringify ! ($Int ),  "`" ), # [ inline ] fn  from ( nonzero : $Ty )->  Self { nonzero .  0 }}}# [ stable ( feature =  "nonzero_bitor" ,  since =  "1.45.0" )] impl  BitOr  for $Ty { type  Output =  Self ; # [ inline ] fn  bitor ( self ,  rhs :  Self )->  Self ::  Output { unsafe {$Ty ::  new_unchecked ( self .  get ()|  rhs .  get ())}}}# [ stable ( feature =  "nonzero_bitor" ,  since =  "1.45.0" )] impl  BitOr <$Int >  for $Ty { type  Output =  Self ; # [ inline ] fn  bitor ( self ,  rhs : $Int )->  Self ::  Output { unsafe {$Ty ::  new_unchecked ( self .  get ()|  rhs )}}}# [ stable ( feature =  "nonzero_bitor" ,  since =  "1.45.0" )] impl  BitOr <$Ty >  for $Int { type  Output = $Ty ; # [ inline ] fn  bitor ( self ,  rhs : $Ty )->  Self ::  Output { unsafe {$Ty ::  new_unchecked ( self |  rhs .  get ())}}}# [ stable ( feature =  "nonzero_bitor" ,  since =  "1.45.0" )] impl  BitOrAssign  for $Ty {# [ inline ] fn  bitor_assign (&  mut  self ,  rhs :  Self ){*  self = *  self |  rhs ; }}# [ stable ( feature =  "nonzero_bitor" ,  since =  "1.45.0" )] impl  BitOrAssign <$Int >  for $Ty {# [ inline ] fn  bitor_assign (&  mut  self ,  rhs : $Int ){*  self = *  self |  rhs ; }} impl_nonzero_fmt ! {# [$stability ]( Debug ,  Display ,  Binary ,  Octal ,  LowerHex ,  UpperHex ) for $Ty })+ }}
macro_rules! __ra_macro_fixture5 {($($t :  ty )*)=>{$(# [ stable ( feature =  "nonzero_parse" ,  since =  "1.35.0" )] impl  FromStr  for $t { type  Err =  ParseIntError ;  fn  from_str ( src : &  str )->  Result <  Self ,  Self ::  Err > { Self ::  new ( from_str_radix ( src ,  10 )?).  ok_or ( ParseIntError { kind :  IntErrorKind ::  Zero })}})*}}
macro_rules! __ra_macro_fixture6 {($($t :  ident )*)=>($(sh_impl_unsigned ! {$t ,  usize })*)}
macro_rules! __ra_macro_fixture7 {($($t :  ty )*)=>($(# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  Add  for  Wrapping <$t > { type  Output =  Wrapping <$t >; # [ inline ] fn  add ( self ,  other :  Wrapping <$t >)->  Wrapping <$t > { Wrapping ( self .  0 .  wrapping_add ( other .  0 ))}} forward_ref_binop ! { impl  Add ,  add  for  Wrapping <$t >,  Wrapping <$t >, # [ stable ( feature =  "wrapping_ref" ,  since =  "1.14.0" )]}# [ stable ( feature =  "op_assign_traits" ,  since =  "1.8.0" )] impl  AddAssign  for  Wrapping <$t > {# [ inline ] fn  add_assign (&  mut  self ,  other :  Wrapping <$t >){*  self = *  self +  other ; }} forward_ref_op_assign ! { impl  AddAssign ,  add_assign  for  Wrapping <$t >,  Wrapping <$t > }# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  Sub  for  Wrapping <$t > { type  Output =  Wrapping <$t >; # [ inline ] fn  sub ( self ,  other :  Wrapping <$t >)->  Wrapping <$t > { Wrapping ( self .  0 .  wrapping_sub ( other .  0 ))}} forward_ref_binop ! { impl  Sub ,  sub  for  Wrapping <$t >,  Wrapping <$t >, # [ stable ( feature =  "wrapping_ref" ,  since =  "1.14.0" )]}# [ stable ( feature =  "op_assign_traits" ,  since =  "1.8.0" )] impl  SubAssign  for  Wrapping <$t > {# [ inline ] fn  sub_assign (&  mut  self ,  other :  Wrapping <$t >){*  self = *  self -  other ; }} forward_ref_op_assign ! { impl  SubAssign ,  sub_assign  for  Wrapping <$t >,  Wrapping <$t > }# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  Mul  for  Wrapping <$t > { type  Output =  Wrapping <$t >; # [ inline ] fn  mul ( self ,  other :  Wrapping <$t >)->  Wrapping <$t > { Wrapping ( self .  0 .  wrapping_mul ( other .  0 ))}} forward_ref_binop ! { impl  Mul ,  mul  for  Wrapping <$t >,  Wrapping <$t >, # [ stable ( feature =  "wrapping_ref" ,  since =  "1.14.0" )]}# [ stable ( feature =  "op_assign_traits" ,  since =  "1.8.0" )] impl  MulAssign  for  Wrapping <$t > {# [ inline ] fn  mul_assign (&  mut  self ,  other :  Wrapping <$t >){*  self = *  self *  other ; }} forward_ref_op_assign ! { impl  MulAssign ,  mul_assign  for  Wrapping <$t >,  Wrapping <$t > }# [ stable ( feature =  "wrapping_div" ,  since =  "1.3.0" )] impl  Div  for  Wrapping <$t > { type  Output =  Wrapping <$t >; # [ inline ] fn  div ( self ,  other :  Wrapping <$t >)->  Wrapping <$t > { Wrapping ( self .  0 .  wrapping_div ( other .  0 ))}} forward_ref_binop ! { impl  Div ,  div  for  Wrapping <$t >,  Wrapping <$t >, # [ stable ( feature =  "wrapping_ref" ,  since =  "1.14.0" )]}# [ stable ( feature =  "op_assign_traits" ,  since =  "1.8.0" )] impl  DivAssign  for  Wrapping <$t > {# [ inline ] fn  div_assign (&  mut  self ,  other :  Wrapping <$t >){*  self = *  self /  other ; }} forward_ref_op_assign ! { impl  DivAssign ,  div_assign  for  Wrapping <$t >,  Wrapping <$t > }# [ stable ( feature =  "wrapping_impls" ,  since =  "1.7.0" )] impl  Rem  for  Wrapping <$t > { type  Output =  Wrapping <$t >; # [ inline ] fn  rem ( self ,  other :  Wrapping <$t >)->  Wrapping <$t > { Wrapping ( self .  0 .  wrapping_rem ( other .  0 ))}} forward_ref_binop ! { impl  Rem ,  rem  for  Wrapping <$t >,  Wrapping <$t >, # [ stable ( feature =  "wrapping_ref" ,  since =  "1.14.0" )]}# [ stable ( feature =  "op_assign_traits" ,  since =  "1.8.0" )] impl  RemAssign  for  Wrapping <$t > {# [ inline ] fn  rem_assign (&  mut  self ,  other :  Wrapping <$t >){*  self = *  self %  other ; }} forward_ref_op_assign ! { impl  RemAssign ,  rem_assign  for  Wrapping <$t >,  Wrapping <$t > }# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  Not  for  Wrapping <$t > { type  Output =  Wrapping <$t >; # [ inline ] fn  not ( self )->  Wrapping <$t > { Wrapping (!  self .  0 )}} forward_ref_unop ! { impl  Not ,  not  for  Wrapping <$t >, # [ stable ( feature =  "wrapping_ref" ,  since =  "1.14.0" )]}# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  BitXor  for  Wrapping <$t > { type  Output =  Wrapping <$t >; # [ inline ] fn  bitxor ( self ,  other :  Wrapping <$t >)->  Wrapping <$t > { Wrapping ( self .  0 ^  other .  0 )}} forward_ref_binop ! { impl  BitXor ,  bitxor  for  Wrapping <$t >,  Wrapping <$t >, # [ stable ( feature =  "wrapping_ref" ,  since =  "1.14.0" )]}# [ stable ( feature =  "op_assign_traits" ,  since =  "1.8.0" )] impl  BitXorAssign  for  Wrapping <$t > {# [ inline ] fn  bitxor_assign (&  mut  self ,  other :  Wrapping <$t >){*  self = *  self ^  other ; }} forward_ref_op_assign ! { impl  BitXorAssign ,  bitxor_assign  for  Wrapping <$t >,  Wrapping <$t > }# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  BitOr  for  Wrapping <$t > { type  Output =  Wrapping <$t >; # [ inline ] fn  bitor ( self ,  other :  Wrapping <$t >)->  Wrapping <$t > { Wrapping ( self .  0 |  other .  0 )}} forward_ref_binop ! { impl  BitOr ,  bitor  for  Wrapping <$t >,  Wrapping <$t >, # [ stable ( feature =  "wrapping_ref" ,  since =  "1.14.0" )]}# [ stable ( feature =  "op_assign_traits" ,  since =  "1.8.0" )] impl  BitOrAssign  for  Wrapping <$t > {# [ inline ] fn  bitor_assign (&  mut  self ,  other :  Wrapping <$t >){*  self = *  self |  other ; }} forward_ref_op_assign ! { impl  BitOrAssign ,  bitor_assign  for  Wrapping <$t >,  Wrapping <$t > }# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  BitAnd  for  Wrapping <$t > { type  Output =  Wrapping <$t >; # [ inline ] fn  bitand ( self ,  other :  Wrapping <$t >)->  Wrapping <$t > { Wrapping ( self .  0 &  other .  0 )}} forward_ref_binop ! { impl  BitAnd ,  bitand  for  Wrapping <$t >,  Wrapping <$t >, # [ stable ( feature =  "wrapping_ref" ,  since =  "1.14.0" )]}# [ stable ( feature =  "op_assign_traits" ,  since =  "1.8.0" )] impl  BitAndAssign  for  Wrapping <$t > {# [ inline ] fn  bitand_assign (&  mut  self ,  other :  Wrapping <$t >){*  self = *  self &  other ; }} forward_ref_op_assign ! { impl  BitAndAssign ,  bitand_assign  for  Wrapping <$t >,  Wrapping <$t > }# [ stable ( feature =  "wrapping_neg" ,  since =  "1.10.0" )] impl  Neg  for  Wrapping <$t > { type  Output =  Self ; # [ inline ] fn  neg ( self )->  Self { Wrapping ( 0 )-  self }} forward_ref_unop ! { impl  Neg ,  neg  for  Wrapping <$t >, # [ stable ( feature =  "wrapping_ref" ,  since =  "1.14.0" )]})*)}
macro_rules! __ra_macro_fixture8 {($($t :  ty )*)=>($(impl  Wrapping <$t > { doc_comment ! { concat ! ( "Returns the smallest value that can be represented by this integer type.\n\n# Examples\n\nBasic usage:\n\n```\n#![feature(wrapping_int_impl)]\nuse std::num::Wrapping;\n\nassert_eq!(<Wrapping<" ,  stringify ! ($t ),  ">>::MIN, Wrapping(" ,  stringify ! ($t ),  "::MIN));\n```" ), # [ unstable ( feature =  "wrapping_int_impl" ,  issue =  "32463" )] pub  const  MIN :  Self =  Self (<$t >::  MIN ); } doc_comment ! { concat ! ( "Returns the largest value that can be represented by this integer type.\n\n# Examples\n\nBasic usage:\n\n```\n#![feature(wrapping_int_impl)]\nuse std::num::Wrapping;\n\nassert_eq!(<Wrapping<" ,  stringify ! ($t ),  ">>::MAX, Wrapping(" ,  stringify ! ($t ),  "::MAX));\n```" ), # [ unstable ( feature =  "wrapping_int_impl" ,  issue =  "32463" )] pub  const  MAX :  Self =  Self (<$t >::  MAX ); } doc_comment ! { concat ! ( "Returns the number of ones in the binary representation of `self`.\n\n# Examples\n\nBasic usage:\n\n```\n#![feature(wrapping_int_impl)]\nuse std::num::Wrapping;\n\nlet n = Wrapping(0b01001100" ,  stringify ! ($t ),  ");\n\nassert_eq!(n.count_ones(), 3);\n```" ), # [ inline ]# [ unstable ( feature =  "wrapping_int_impl" ,  issue =  "32463" )] pub  const  fn  count_ones ( self )->  u32 { self .  0 .  count_ones ()}} doc_comment ! { concat ! ( "Returns the number of zeros in the binary representation of `self`.\n\n# Examples\n\nBasic usage:\n\n```\n#![feature(wrapping_int_impl)]\nuse std::num::Wrapping;\n\nassert_eq!(Wrapping(!0" ,  stringify ! ($t ),  ").count_zeros(), 0);\n```" ), # [ inline ]# [ unstable ( feature =  "wrapping_int_impl" ,  issue =  "32463" )] pub  const  fn  count_zeros ( self )->  u32 { self .  0 .  count_zeros ()}} doc_comment ! { concat ! ( "Returns the number of trailing zeros in the binary representation\nof `self`.\n\n# Examples\n\nBasic usage:\n\n```\n#![feature(wrapping_int_impl)]\nuse std::num::Wrapping;\n\nlet n = Wrapping(0b0101000" ,  stringify ! ($t ),  ");\n\nassert_eq!(n.trailing_zeros(), 3);\n```" ), # [ inline ]# [ unstable ( feature =  "wrapping_int_impl" ,  issue =  "32463" )] pub  const  fn  trailing_zeros ( self )->  u32 { self .  0 .  trailing_zeros ()}}# [ doc =  " Shifts the bits to the left by a specified amount, `n`," ]# [ doc =  " wrapping the truncated bits to the end of the resulting" ]# [ doc =  " integer." ]# [ doc =  "" ]# [ doc =  " Please note this isn\\\'t the same operation as the `<<` shifting" ]# [ doc =  " operator!" ]# [ doc =  "" ]# [ doc =  " # Examples" ]# [ doc =  "" ]# [ doc =  " Basic usage:" ]# [ doc =  "" ]# [ doc =  " ```" ]# [ doc =  " #![feature(wrapping_int_impl)]" ]# [ doc =  " use std::num::Wrapping;" ]# [ doc =  "" ]# [ doc =  " let n: Wrapping<i64> = Wrapping(0x0123456789ABCDEF);" ]# [ doc =  " let m: Wrapping<i64> = Wrapping(-0x76543210FEDCBA99);" ]# [ doc =  "" ]# [ doc =  " assert_eq!(n.rotate_left(32), m);" ]# [ doc =  " ```" ]# [ inline ]# [ unstable ( feature =  "wrapping_int_impl" ,  issue =  "32463" )] pub  const  fn  rotate_left ( self ,  n :  u32 )->  Self { Wrapping ( self .  0 .  rotate_left ( n ))}# [ doc =  " Shifts the bits to the right by a specified amount, `n`," ]# [ doc =  " wrapping the truncated bits to the beginning of the resulting" ]# [ doc =  " integer." ]# [ doc =  "" ]# [ doc =  " Please note this isn\\\'t the same operation as the `>>` shifting" ]# [ doc =  " operator!" ]# [ doc =  "" ]# [ doc =  " # Examples" ]# [ doc =  "" ]# [ doc =  " Basic usage:" ]# [ doc =  "" ]# [ doc =  " ```" ]# [ doc =  " #![feature(wrapping_int_impl)]" ]# [ doc =  " use std::num::Wrapping;" ]# [ doc =  "" ]# [ doc =  " let n: Wrapping<i64> = Wrapping(0x0123456789ABCDEF);" ]# [ doc =  " let m: Wrapping<i64> = Wrapping(-0xFEDCBA987654322);" ]# [ doc =  "" ]# [ doc =  " assert_eq!(n.rotate_right(4), m);" ]# [ doc =  " ```" ]# [ inline ]# [ unstable ( feature =  "wrapping_int_impl" ,  issue =  "32463" )] pub  const  fn  rotate_right ( self ,  n :  u32 )->  Self { Wrapping ( self .  0 .  rotate_right ( n ))}# [ doc =  " Reverses the byte order of the integer." ]# [ doc =  "" ]# [ doc =  " # Examples" ]# [ doc =  "" ]# [ doc =  " Basic usage:" ]# [ doc =  "" ]# [ doc =  " ```" ]# [ doc =  " #![feature(wrapping_int_impl)]" ]# [ doc =  " use std::num::Wrapping;" ]# [ doc =  "" ]# [ doc =  " let n: Wrapping<i16> = Wrapping(0b0000000_01010101);" ]# [ doc =  " assert_eq!(n, Wrapping(85));" ]# [ doc =  "" ]# [ doc =  " let m = n.swap_bytes();" ]# [ doc =  "" ]# [ doc =  " assert_eq!(m, Wrapping(0b01010101_00000000));" ]# [ doc =  " assert_eq!(m, Wrapping(21760));" ]# [ doc =  " ```" ]# [ inline ]# [ unstable ( feature =  "wrapping_int_impl" ,  issue =  "32463" )] pub  const  fn  swap_bytes ( self )->  Self { Wrapping ( self .  0 .  swap_bytes ())}# [ doc =  " Reverses the bit pattern of the integer." ]# [ doc =  "" ]# [ doc =  " # Examples" ]# [ doc =  "" ]# [ doc =  " Please note that this example is shared between integer types." ]# [ doc =  " Which explains why `i16` is used here." ]# [ doc =  "" ]# [ doc =  " Basic usage:" ]# [ doc =  "" ]# [ doc =  " ```" ]# [ doc =  " use std::num::Wrapping;" ]# [ doc =  "" ]# [ doc =  " let n = Wrapping(0b0000000_01010101i16);" ]# [ doc =  " assert_eq!(n, Wrapping(85));" ]# [ doc =  "" ]# [ doc =  " let m = n.reverse_bits();" ]# [ doc =  "" ]# [ doc =  " assert_eq!(m.0 as u16, 0b10101010_00000000);" ]# [ doc =  " assert_eq!(m, Wrapping(-22016));" ]# [ doc =  " ```" ]# [ stable ( feature =  "reverse_bits" ,  since =  "1.37.0" )]# [ rustc_const_stable ( feature =  "const_reverse_bits" ,  since =  "1.37.0" )]# [ inline ]# [ must_use ] pub  const  fn  reverse_bits ( self )->  Self { Wrapping ( self .  0 .  reverse_bits ())} doc_comment ! { concat ! ( "Converts an integer from big endian to the target's endianness.\n\nOn big endian this is a no-op. On little endian the bytes are\nswapped.\n\n# Examples\n\nBasic usage:\n\n```\n#![feature(wrapping_int_impl)]\nuse std::num::Wrapping;\n\nlet n = Wrapping(0x1A" ,  stringify ! ($t ),  ");\n\nif cfg!(target_endian = \"big\") {\n    assert_eq!(<Wrapping<" ,  stringify ! ($t ),  ">>::from_be(n), n)\n} else {\n    assert_eq!(<Wrapping<" ,  stringify ! ($t ),  ">>::from_be(n), n.swap_bytes())\n}\n```" ), # [ inline ]# [ unstable ( feature =  "wrapping_int_impl" ,  issue =  "32463" )] pub  const  fn  from_be ( x :  Self )->  Self { Wrapping (<$t >::  from_be ( x .  0 ))}} doc_comment ! { concat ! ( "Converts an integer from little endian to the target's endianness.\n\nOn little endian this is a no-op. On big endian the bytes are\nswapped.\n\n# Examples\n\nBasic usage:\n\n```\n#![feature(wrapping_int_impl)]\nuse std::num::Wrapping;\n\nlet n = Wrapping(0x1A" ,  stringify ! ($t ),  ");\n\nif cfg!(target_endian = \"little\") {\n    assert_eq!(<Wrapping<" ,  stringify ! ($t ),  ">>::from_le(n), n)\n} else {\n    assert_eq!(<Wrapping<" ,  stringify ! ($t ),  ">>::from_le(n), n.swap_bytes())\n}\n```" ), # [ inline ]# [ unstable ( feature =  "wrapping_int_impl" ,  issue =  "32463" )] pub  const  fn  from_le ( x :  Self )->  Self { Wrapping (<$t >::  from_le ( x .  0 ))}} doc_comment ! { concat ! ( "Converts `self` to big endian from the target's endianness.\n\nOn big endian this is a no-op. On little endian the bytes are\nswapped.\n\n# Examples\n\nBasic usage:\n\n```\n#![feature(wrapping_int_impl)]\nuse std::num::Wrapping;\n\nlet n = Wrapping(0x1A" ,  stringify ! ($t ),  ");\n\nif cfg!(target_endian = \"big\") {\n    assert_eq!(n.to_be(), n)\n} else {\n    assert_eq!(n.to_be(), n.swap_bytes())\n}\n```" ), # [ inline ]# [ unstable ( feature =  "wrapping_int_impl" ,  issue =  "32463" )] pub  const  fn  to_be ( self )->  Self { Wrapping ( self .  0 .  to_be ())}} doc_comment ! { concat ! ( "Converts `self` to little endian from the target's endianness.\n\nOn little endian this is a no-op. On big endian the bytes are\nswapped.\n\n# Examples\n\nBasic usage:\n\n```\n#![feature(wrapping_int_impl)]\nuse std::num::Wrapping;\n\nlet n = Wrapping(0x1A" ,  stringify ! ($t ),  ");\n\nif cfg!(target_endian = \"little\") {\n    assert_eq!(n.to_le(), n)\n} else {\n    assert_eq!(n.to_le(), n.swap_bytes())\n}\n```" ), # [ inline ]# [ unstable ( feature =  "wrapping_int_impl" ,  issue =  "32463" )] pub  const  fn  to_le ( self )->  Self { Wrapping ( self .  0 .  to_le ())}} doc_comment ! { concat ! ( "Raises self to the power of `exp`, using exponentiation by squaring.\n\n# Examples\n\nBasic usage:\n\n```\n#![feature(wrapping_int_impl)]\nuse std::num::Wrapping;\n\nassert_eq!(Wrapping(3" ,  stringify ! ($t ),  ").pow(4), Wrapping(81));\n```\n\nResults that are too large are wrapped:\n\n```\n#![feature(wrapping_int_impl)]\nuse std::num::Wrapping;\n\nassert_eq!(Wrapping(3i8).pow(5), Wrapping(-13));\nassert_eq!(Wrapping(3i8).pow(6), Wrapping(-39));\n```" ), # [ inline ]# [ unstable ( feature =  "wrapping_int_impl" ,  issue =  "32463" )] pub  fn  pow ( self ,  exp :  u32 )->  Self { Wrapping ( self .  0 .  wrapping_pow ( exp ))}}})*)}
macro_rules! __ra_macro_fixture9 {($($t :  ty )*)=>($(impl  Wrapping <$t > { doc_comment ! { concat ! ( "Returns the number of leading zeros in the binary representation of `self`.\n\n# Examples\n\nBasic usage:\n\n```\n#![feature(wrapping_int_impl)]\nuse std::num::Wrapping;\n\nlet n = Wrapping(" ,  stringify ! ($t ),  "::MAX) >> 2;\n\nassert_eq!(n.leading_zeros(), 3);\n```" ), # [ inline ]# [ unstable ( feature =  "wrapping_int_impl" ,  issue =  "32463" )] pub  const  fn  leading_zeros ( self )->  u32 { self .  0 .  leading_zeros ()}} doc_comment ! { concat ! ( "Computes the absolute value of `self`, wrapping around at\nthe boundary of the type.\n\nThe only case where such wrapping can occur is when one takes the absolute value of the negative\nminimal value for the type this is a positive value that is too large to represent in the type. In\nsuch a case, this function returns `MIN` itself.\n\n# Examples\n\nBasic usage:\n\n```\n#![feature(wrapping_int_impl)]\nuse std::num::Wrapping;\n\nassert_eq!(Wrapping(100" ,  stringify ! ($t ),  ").abs(), Wrapping(100));\nassert_eq!(Wrapping(-100" ,  stringify ! ($t ),  ").abs(), Wrapping(100));\nassert_eq!(Wrapping(" ,  stringify ! ($t ),  "::MIN).abs(), Wrapping(" ,  stringify ! ($t ),  "::MIN));\nassert_eq!(Wrapping(-128i8).abs().0 as u8, 128u8);\n```" ), # [ inline ]# [ unstable ( feature =  "wrapping_int_impl" ,  issue =  "32463" )] pub  fn  abs ( self )->  Wrapping <$t > { Wrapping ( self .  0 .  wrapping_abs ())}} doc_comment ! { concat ! ( "Returns a number representing sign of `self`.\n\n - `0` if the number is zero\n - `1` if the number is positive\n - `-1` if the number is negative\n\n# Examples\n\nBasic usage:\n\n```\n#![feature(wrapping_int_impl)]\nuse std::num::Wrapping;\n\nassert_eq!(Wrapping(10" ,  stringify ! ($t ),  ").signum(), Wrapping(1));\nassert_eq!(Wrapping(0" ,  stringify ! ($t ),  ").signum(), Wrapping(0));\nassert_eq!(Wrapping(-10" ,  stringify ! ($t ),  ").signum(), Wrapping(-1));\n```" ), # [ inline ]# [ unstable ( feature =  "wrapping_int_impl" ,  issue =  "32463" )] pub  fn  signum ( self )->  Wrapping <$t > { Wrapping ( self .  0 .  signum ())}} doc_comment ! { concat ! ( "Returns `true` if `self` is positive and `false` if the number is zero or\nnegative.\n\n# Examples\n\nBasic usage:\n\n```\n#![feature(wrapping_int_impl)]\nuse std::num::Wrapping;\n\nassert!(Wrapping(10" ,  stringify ! ($t ),  ").is_positive());\nassert!(!Wrapping(-10" ,  stringify ! ($t ),  ").is_positive());\n```" ), # [ inline ]# [ unstable ( feature =  "wrapping_int_impl" ,  issue =  "32463" )] pub  const  fn  is_positive ( self )->  bool { self .  0 .  is_positive ()}} doc_comment ! { concat ! ( "Returns `true` if `self` is negative and `false` if the number is zero or\npositive.\n\n# Examples\n\nBasic usage:\n\n```\n#![feature(wrapping_int_impl)]\nuse std::num::Wrapping;\n\nassert!(Wrapping(-10" ,  stringify ! ($t ),  ").is_negative());\nassert!(!Wrapping(10" ,  stringify ! ($t ),  ").is_negative());\n```" ), # [ inline ]# [ unstable ( feature =  "wrapping_int_impl" ,  issue =  "32463" )] pub  const  fn  is_negative ( self )->  bool { self .  0 .  is_negative ()}}})*)}
macro_rules! __ra_macro_fixture10 {($($t :  ty )*)=>($(impl  Wrapping <$t > { doc_comment ! { concat ! ( "Returns the number of leading zeros in the binary representation of `self`.\n\n# Examples\n\nBasic usage:\n\n```\n#![feature(wrapping_int_impl)]\nuse std::num::Wrapping;\n\nlet n = Wrapping(" ,  stringify ! ($t ),  "::MAX) >> 2;\n\nassert_eq!(n.leading_zeros(), 2);\n```" ), # [ inline ]# [ unstable ( feature =  "wrapping_int_impl" ,  issue =  "32463" )] pub  const  fn  leading_zeros ( self )->  u32 { self .  0 .  leading_zeros ()}} doc_comment ! { concat ! ( "Returns `true` if and only if `self == 2^k` for some `k`.\n\n# Examples\n\nBasic usage:\n\n```\n#![feature(wrapping_int_impl)]\nuse std::num::Wrapping;\n\nassert!(Wrapping(16" ,  stringify ! ($t ),  ").is_power_of_two());\nassert!(!Wrapping(10" ,  stringify ! ($t ),  ").is_power_of_two());\n```" ), # [ inline ]# [ unstable ( feature =  "wrapping_int_impl" ,  issue =  "32463" )] pub  fn  is_power_of_two ( self )->  bool { self .  0 .  is_power_of_two ()}} doc_comment ! { concat ! ( "Returns the smallest power of two greater than or equal to `self`.\n\nWhen return value overflows (i.e., `self > (1 << (N-1))` for type\n`uN`), overflows to `2^N = 0`.\n\n# Examples\n\nBasic usage:\n\n```\n#![feature(wrapping_next_power_of_two)]\nuse std::num::Wrapping;\n\nassert_eq!(Wrapping(2" ,  stringify ! ($t ),  ").next_power_of_two(), Wrapping(2));\nassert_eq!(Wrapping(3" ,  stringify ! ($t ),  ").next_power_of_two(), Wrapping(4));\nassert_eq!(Wrapping(200_u8).next_power_of_two(), Wrapping(0));\n```" ), # [ inline ]# [ unstable ( feature =  "wrapping_next_power_of_two" ,  issue =  "32463" ,  reason =  "needs decision on wrapping behaviour" )] pub  fn  next_power_of_two ( self )->  Self { Wrapping ( self .  0 .  wrapping_next_power_of_two ())}}})*)}
macro_rules! __ra_macro_fixture11 {($($t :  ty )*)=>{$(# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  FromStr  for $t { type  Err =  ParseIntError ;  fn  from_str ( src : &  str )->  Result <  Self ,  ParseIntError > { from_str_radix ( src ,  10 )}})*}}
macro_rules! __ra_macro_fixture12 {($($t :  ty )*)=>($(impl  FromStrRadixHelper  for $t {# [ inline ] fn  min_value ()->  Self { Self ::  MIN }# [ inline ] fn  max_value ()->  Self { Self ::  MAX }# [ inline ] fn  from_u32 ( u :  u32 )->  Self { u  as  Self }# [ inline ] fn  checked_mul (&  self ,  other :  u32 )->  Option <  Self > { Self ::  checked_mul (*  self ,  other  as  Self )}# [ inline ] fn  checked_sub (&  self ,  other :  u32 )->  Option <  Self > { Self ::  checked_sub (*  self ,  other  as  Self )}# [ inline ] fn  checked_add (&  self ,  other :  u32 )->  Option <  Self > { Self ::  checked_add (*  self ,  other  as  Self )}})*)}
macro_rules! __ra_macro_fixture13 {($($Arg :  ident ),+)=>{ fnptr_impls_safety_abi ! { extern  "Rust"  fn ($($Arg ),+)->  Ret , $($Arg ),+ } fnptr_impls_safety_abi ! { extern  "C"  fn ($($Arg ),+)->  Ret , $($Arg ),+ } fnptr_impls_safety_abi ! { extern  "C"  fn ($($Arg ),+ , ...)->  Ret , $($Arg ),+ } fnptr_impls_safety_abi ! { unsafe  extern  "Rust"  fn ($($Arg ),+)->  Ret , $($Arg ),+ } fnptr_impls_safety_abi ! { unsafe  extern  "C"  fn ($($Arg ),+)->  Ret , $($Arg ),+ } fnptr_impls_safety_abi ! { unsafe  extern  "C"  fn ($($Arg ),+ , ...)->  Ret , $($Arg ),+ }}; ()=>{ fnptr_impls_safety_abi ! { extern  "Rust"  fn ()->  Ret , } fnptr_impls_safety_abi ! { extern  "C"  fn ()->  Ret , } fnptr_impls_safety_abi ! { unsafe  extern  "Rust"  fn ()->  Ret , } fnptr_impls_safety_abi ! { unsafe  extern  "C"  fn ()->  Ret , }}; }
macro_rules! __ra_macro_fixture14 {($($t :  ty )*)=>{$(# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  Clone  for $t {# [ inline ] fn  clone (&  self )->  Self {*  self }})* }}
macro_rules! __ra_macro_fixture15 {($($t :  ty )*)=>($(# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  PartialEq  for $t {# [ inline ] fn  eq (&  self ,  other : &$t )->  bool {(*  self )== (*  other )}# [ inline ] fn  ne (&  self ,  other : &$t )->  bool {(*  self )!= (*  other )}})*)}
macro_rules! __ra_macro_fixture16 {($($t :  ty )*)=>($(# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  Eq  for $t {})*)}
macro_rules! __ra_macro_fixture17 {($($t :  ty )*)=>($(# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  PartialOrd  for $t {# [ inline ] fn  partial_cmp (&  self ,  other : &$t )->  Option <  Ordering > { match ( self <=  other ,  self >=  other ){( false ,  false )=> None , ( false ,  true )=> Some ( Greater ), ( true ,  false )=> Some ( Less ), ( true ,  true )=> Some ( Equal ), }}# [ inline ] fn  lt (&  self ,  other : &$t )->  bool {(*  self )< (*  other )}# [ inline ] fn  le (&  self ,  other : &$t )->  bool {(*  self )<= (*  other )}# [ inline ] fn  ge (&  self ,  other : &$t )->  bool {(*  self )>= (*  other )}# [ inline ] fn  gt (&  self ,  other : &$t )->  bool {(*  self )> (*  other )}})*)}
macro_rules! __ra_macro_fixture18 {($($t :  ty )*)=>($(# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  PartialOrd  for $t {# [ inline ] fn  partial_cmp (&  self ,  other : &$t )->  Option <  Ordering > { Some ( self .  cmp ( other ))}# [ inline ] fn  lt (&  self ,  other : &$t )->  bool {(*  self )< (*  other )}# [ inline ] fn  le (&  self ,  other : &$t )->  bool {(*  self )<= (*  other )}# [ inline ] fn  ge (&  self ,  other : &$t )->  bool {(*  self )>= (*  other )}# [ inline ] fn  gt (&  self ,  other : &$t )->  bool {(*  self )> (*  other )}}# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  Ord  for $t {# [ inline ] fn  cmp (&  self ,  other : &$t )->  Ordering { if *  self < *  other { Less } else  if *  self == *  other { Equal } else { Greater }}})*)}
macro_rules! __ra_macro_fixture19 {($Float :  ident =>$($Int :  ident )+ )=>{# [ unstable ( feature =  "convert_float_to_int" ,  issue =  "67057" )] impl  private ::  Sealed  for $Float {}$(# [ unstable ( feature =  "convert_float_to_int" ,  issue =  "67057" )] impl  FloatToInt <$Int >  for $Float {# [ doc ( hidden )]# [ inline ] unsafe  fn  to_int_unchecked ( self )-> $Int { unsafe { crate ::  intrinsics ::  float_to_int_unchecked ( self )}}})+ }}
macro_rules! __ra_macro_fixture20 {($target :  ty , # [$attr :  meta ])=>{ impl_from ! ( bool , $target , # [$attr ],  concat ! ( "Converts a `bool` to a `" ,  stringify ! ($target ),  "`. The resulting value is `0` for `false` and `1` for `true`\nvalues.\n\n# Examples\n\n```\nassert_eq!(" ,  stringify ! ($target ),  "::from(true), 1);\nassert_eq!(" ,  stringify ! ($target ),  "::from(false), 0);\n```" )); }; }
macro_rules! __ra_macro_fixture21 {($Small :  ty , $Large :  ty , # [$attr :  meta ], $doc :  expr )=>{# [$attr ]# [ doc = $doc ] impl  From <$Small >  for $Large {# [ inline ] fn  from ( small : $Small )->  Self { small  as  Self }}}; ($Small :  ty , $Large :  ty , # [$attr :  meta ])=>{ impl_from ! ($Small , $Large , # [$attr ],  concat ! ( "Converts `" ,  stringify ! ($Small ),  "` to `" ,  stringify ! ($Large ),  "` losslessly." )); }}
macro_rules! __ra_macro_fixture22 {($source :  ty , $($target :  ty ),*)=>{$(# [ stable ( feature =  "try_from" ,  since =  "1.34.0" )] impl  TryFrom <$source >  for $target { type  Error =  TryFromIntError ; # [ doc =  " Try to create the target number type from a source" ]# [ doc =  " number type. This returns an error if the source value" ]# [ doc =  " is outside of the range of the target type." ]# [ inline ] fn  try_from ( u : $source )->  Result <  Self ,  Self ::  Error > { if  u > ( Self ::  MAX  as $source ){ Err ( TryFromIntError (()))} else { Ok ( u  as  Self )}}})*}}
macro_rules! __ra_macro_fixture23 {($source :  ty , $($target :  ty ),*)=>{$(# [ stable ( feature =  "try_from" ,  since =  "1.34.0" )] impl  TryFrom <$source >  for $target { type  Error =  TryFromIntError ; # [ doc =  " Try to create the target number type from a source" ]# [ doc =  " number type. This returns an error if the source value" ]# [ doc =  " is outside of the range of the target type." ]# [ inline ] fn  try_from ( u : $source )->  Result <  Self ,  Self ::  Error > { let  min =  Self ::  MIN  as $source ;  let  max =  Self ::  MAX  as $source ;  if  u <  min ||  u >  max { Err ( TryFromIntError (()))} else { Ok ( u  as  Self )}}})*}}
macro_rules! __ra_macro_fixture24 {($source :  ty , $($target :  ty ),*)=>{$(# [ stable ( feature =  "try_from" ,  since =  "1.34.0" )] impl  TryFrom <$source >  for $target { type  Error =  TryFromIntError ; # [ doc =  " Try to create the target number type from a source" ]# [ doc =  " number type. This returns an error if the source value" ]# [ doc =  " is outside of the range of the target type." ]# [ inline ] fn  try_from ( u : $source )->  Result <  Self ,  Self ::  Error > { if  u >=  0 { Ok ( u  as  Self )} else { Err ( TryFromIntError (()))}}})*}}
macro_rules! __ra_macro_fixture25 {($source :  ty , $($target :  ty ),*)=>{$(# [ stable ( feature =  "try_from" ,  since =  "1.34.0" )] impl  TryFrom <$source >  for $target { type  Error =  TryFromIntError ; # [ doc =  " Try to create the target number type from a source" ]# [ doc =  " number type. This returns an error if the source value" ]# [ doc =  " is outside of the range of the target type." ]# [ inline ] fn  try_from ( value : $source )->  Result <  Self ,  Self ::  Error > { Ok ( value  as  Self )}})*}}
macro_rules! __ra_macro_fixture26 {($mac :  ident , $source :  ty , $($target :  ty ),*)=>{$($mac ! ($target , $source ); )*}}
macro_rules! __ra_macro_fixture27 {($Small :  ty , $Large :  ty , # [$attr :  meta ], $doc :  expr )=>{# [$attr ]# [ doc = $doc ] impl  From <$Small >  for $Large {# [ inline ] fn  from ( small : $Small )->  Self { unsafe { Self ::  new_unchecked ( small .  get ().  into ())}}}}; ($Small :  ty , $Large :  ty , # [$attr :  meta ])=>{ nzint_impl_from ! ($Small , $Large , # [$attr ],  concat ! ( "Converts `" ,  stringify ! ($Small ),  "` to `" ,  stringify ! ($Large ),  "` losslessly." )); }}
macro_rules! __ra_macro_fixture28 {($Int :  ty , $NonZeroInt :  ty , # [$attr :  meta ], $doc :  expr )=>{# [$attr ]# [ doc = $doc ] impl  TryFrom <$Int >  for $NonZeroInt { type  Error =  TryFromIntError ; # [ inline ] fn  try_from ( value : $Int )->  Result <  Self ,  Self ::  Error > { Self ::  new ( value ).  ok_or ( TryFromIntError (()))}}}; ($Int :  ty , $NonZeroInt :  ty , # [$attr :  meta ])=>{ nzint_impl_try_from_int ! ($Int , $NonZeroInt , # [$attr ],  concat ! ( "Attempts to convert `" ,  stringify ! ($Int ),  "` to `" ,  stringify ! ($NonZeroInt ),  "`." )); }}
macro_rules! __ra_macro_fixture29 {($From :  ty =>$To :  ty , $doc :  expr )=>{# [ stable ( feature =  "nzint_try_from_nzint_conv" ,  since =  "1.49.0" )]# [ doc = $doc ] impl  TryFrom <$From >  for $To { type  Error =  TryFromIntError ; # [ inline ] fn  try_from ( value : $From )->  Result <  Self ,  Self ::  Error > { TryFrom ::  try_from ( value .  get ()).  map (|  v | { unsafe { Self ::  new_unchecked ( v )}})}}}; ($To :  ty : $($From :  ty ),*)=>{$(nzint_impl_try_from_nzint ! ($From =>$To ,  concat ! ( "Attempts to convert `" ,  stringify ! ($From ),  "` to `" ,  stringify ! ($To ),  "`." , )); )*}; }
macro_rules! __ra_macro_fixture30 {($t :  ty , $v :  expr , $doc :  tt )=>{# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  Default  for $t {# [ inline ]# [ doc = $doc ] fn  default ()-> $t {$v }}}}
macro_rules! __ra_macro_fixture31 {($t :  ident )=>{# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl <  T : ?  Sized >  Hash  for $t <  T > {# [ inline ] fn  hash <  H :  Hasher > (&  self , _: &  mut  H ){}}# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl <  T : ?  Sized >  cmp ::  PartialEq  for $t <  T > { fn  eq (&  self ,  _other : &$t <  T >)->  bool { true }}# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl <  T : ?  Sized >  cmp ::  Eq  for $t <  T > {}# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl <  T : ?  Sized >  cmp ::  PartialOrd  for $t <  T > { fn  partial_cmp (&  self ,  _other : &$t <  T >)->  Option <  cmp ::  Ordering > { Option ::  Some ( cmp ::  Ordering ::  Equal )}}# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl <  T : ?  Sized >  cmp ::  Ord  for $t <  T > { fn  cmp (&  self ,  _other : &$t <  T >)->  cmp ::  Ordering { cmp ::  Ordering ::  Equal }}# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl <  T : ?  Sized >  Copy  for $t <  T > {}# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl <  T : ?  Sized >  Clone  for $t <  T > { fn  clone (&  self )->  Self { Self }}# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl <  T : ?  Sized >  Default  for $t <  T > { fn  default ()->  Self { Self }}# [ unstable ( feature =  "structural_match" ,  issue =  "31434" )] impl <  T : ?  Sized >  StructuralPartialEq  for $t <  T > {}# [ unstable ( feature =  "structural_match" ,  issue =  "31434" )] impl <  T : ?  Sized >  StructuralEq  for $t <  T > {}}; }
macro_rules! __ra_macro_fixture32 {($($t :  ty )*)=>{$(# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  Copy  for $t {})* }}
macro_rules! __ra_macro_fixture33 {($($t :  ty )*)=>($(# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  Add  for $t { type  Output = $t ; # [ inline ]# [ rustc_inherit_overflow_checks ] fn  add ( self ,  other : $t )-> $t { self +  other }} forward_ref_binop ! { impl  Add ,  add  for $t , $t })*)}
macro_rules! __ra_macro_fixture34 {($($t :  ty )*)=>($(# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  Sub  for $t { type  Output = $t ; # [ inline ]# [ rustc_inherit_overflow_checks ] fn  sub ( self ,  other : $t )-> $t { self -  other }} forward_ref_binop ! { impl  Sub ,  sub  for $t , $t })*)}
macro_rules! __ra_macro_fixture35 {($($t :  ty )*)=>($(# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  Mul  for $t { type  Output = $t ; # [ inline ]# [ rustc_inherit_overflow_checks ] fn  mul ( self ,  other : $t )-> $t { self *  other }} forward_ref_binop ! { impl  Mul ,  mul  for $t , $t })*)}
macro_rules! __ra_macro_fixture36 {($($t :  ty )*)=>($(# [ doc =  " This operation rounds towards zero, truncating any" ]# [ doc =  " fractional part of the exact result." ]# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  Div  for $t { type  Output = $t ; # [ inline ] fn  div ( self ,  other : $t )-> $t { self /  other }} forward_ref_binop ! { impl  Div ,  div  for $t , $t })*)}
macro_rules! __ra_macro_fixture37 {($($t :  ty )*)=>($(# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  Div  for $t { type  Output = $t ; # [ inline ] fn  div ( self ,  other : $t )-> $t { self /  other }} forward_ref_binop ! { impl  Div ,  div  for $t , $t })*)}
macro_rules! __ra_macro_fixture38 {($($t :  ty )*)=>($(# [ doc =  " This operation satisfies `n % d == n - (n / d) * d`. The" ]# [ doc =  " result has the same sign as the left operand." ]# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  Rem  for $t { type  Output = $t ; # [ inline ] fn  rem ( self ,  other : $t )-> $t { self %  other }} forward_ref_binop ! { impl  Rem ,  rem  for $t , $t })*)}
macro_rules! __ra_macro_fixture39 {($($t :  ty )*)=>($(# [ doc =  " The remainder from the division of two floats." ]# [ doc =  "" ]# [ doc =  " The remainder has the same sign as the dividend and is computed as:" ]# [ doc =  " `x - (x / y).trunc() * y`." ]# [ doc =  "" ]# [ doc =  " # Examples" ]# [ doc =  " ```" ]# [ doc =  " let x: f32 = 50.50;" ]# [ doc =  " let y: f32 = 8.125;" ]# [ doc =  " let remainder = x - (x / y).trunc() * y;" ]# [ doc =  "" ]# [ doc =  " // The answer to both operations is 1.75" ]# [ doc =  " assert_eq!(x % y, remainder);" ]# [ doc =  " ```" ]# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  Rem  for $t { type  Output = $t ; # [ inline ] fn  rem ( self ,  other : $t )-> $t { self %  other }} forward_ref_binop ! { impl  Rem ,  rem  for $t , $t })*)}
macro_rules! __ra_macro_fixture40 {($($t :  ty )*)=>($(# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  Neg  for $t { type  Output = $t ; # [ inline ]# [ rustc_inherit_overflow_checks ] fn  neg ( self )-> $t {-  self }} forward_ref_unop ! { impl  Neg ,  neg  for $t })*)}
macro_rules! __ra_macro_fixture41 {($($t :  ty )+)=>($(# [ stable ( feature =  "op_assign_traits" ,  since =  "1.8.0" )] impl  AddAssign  for $t {# [ inline ]# [ rustc_inherit_overflow_checks ] fn  add_assign (&  mut  self ,  other : $t ){*  self +=  other }} forward_ref_op_assign ! { impl  AddAssign ,  add_assign  for $t , $t })+)}
macro_rules! __ra_macro_fixture42 {($($t :  ty )+)=>($(# [ stable ( feature =  "op_assign_traits" ,  since =  "1.8.0" )] impl  SubAssign  for $t {# [ inline ]# [ rustc_inherit_overflow_checks ] fn  sub_assign (&  mut  self ,  other : $t ){*  self -=  other }} forward_ref_op_assign ! { impl  SubAssign ,  sub_assign  for $t , $t })+)}
macro_rules! __ra_macro_fixture43 {($($t :  ty )+)=>($(# [ stable ( feature =  "op_assign_traits" ,  since =  "1.8.0" )] impl  MulAssign  for $t {# [ inline ]# [ rustc_inherit_overflow_checks ] fn  mul_assign (&  mut  self ,  other : $t ){*  self *=  other }} forward_ref_op_assign ! { impl  MulAssign ,  mul_assign  for $t , $t })+)}
macro_rules! __ra_macro_fixture44 {($($t :  ty )+)=>($(# [ stable ( feature =  "op_assign_traits" ,  since =  "1.8.0" )] impl  DivAssign  for $t {# [ inline ] fn  div_assign (&  mut  self ,  other : $t ){*  self /=  other }} forward_ref_op_assign ! { impl  DivAssign ,  div_assign  for $t , $t })+)}
macro_rules! __ra_macro_fixture45 {($($t :  ty )+)=>($(# [ stable ( feature =  "op_assign_traits" ,  since =  "1.8.0" )] impl  RemAssign  for $t {# [ inline ] fn  rem_assign (&  mut  self ,  other : $t ){*  self %=  other }} forward_ref_op_assign ! { impl  RemAssign ,  rem_assign  for $t , $t })+)}
macro_rules! __ra_macro_fixture46 {($($t :  ty )*)=>($(# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  Not  for $t { type  Output = $t ; # [ inline ] fn  not ( self )-> $t {!  self }} forward_ref_unop ! { impl  Not ,  not  for $t })*)}
macro_rules! __ra_macro_fixture47 {($($t :  ty )*)=>($(# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  BitAnd  for $t { type  Output = $t ; # [ inline ] fn  bitand ( self ,  rhs : $t )-> $t { self &  rhs }} forward_ref_binop ! { impl  BitAnd ,  bitand  for $t , $t })*)}
macro_rules! __ra_macro_fixture48 {($($t :  ty )*)=>($(# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  BitOr  for $t { type  Output = $t ; # [ inline ] fn  bitor ( self ,  rhs : $t )-> $t { self |  rhs }} forward_ref_binop ! { impl  BitOr ,  bitor  for $t , $t })*)}
macro_rules! __ra_macro_fixture49 {($($t :  ty )*)=>($(# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  BitXor  for $t { type  Output = $t ; # [ inline ] fn  bitxor ( self ,  other : $t )-> $t { self ^  other }} forward_ref_binop ! { impl  BitXor ,  bitxor  for $t , $t })*)}
macro_rules! __ra_macro_fixture50 {($($t :  ty )*)=>($(shl_impl ! {$t ,  u8 } shl_impl ! {$t ,  u16 } shl_impl ! {$t ,  u32 } shl_impl ! {$t ,  u64 } shl_impl ! {$t ,  u128 } shl_impl ! {$t ,  usize } shl_impl ! {$t ,  i8 } shl_impl ! {$t ,  i16 } shl_impl ! {$t ,  i32 } shl_impl ! {$t ,  i64 } shl_impl ! {$t ,  i128 } shl_impl ! {$t ,  isize })*)}
macro_rules! __ra_macro_fixture51 {($($t :  ty )*)=>($(shr_impl ! {$t ,  u8 } shr_impl ! {$t ,  u16 } shr_impl ! {$t ,  u32 } shr_impl ! {$t ,  u64 } shr_impl ! {$t ,  u128 } shr_impl ! {$t ,  usize } shr_impl ! {$t ,  i8 } shr_impl ! {$t ,  i16 } shr_impl ! {$t ,  i32 } shr_impl ! {$t ,  i64 } shr_impl ! {$t ,  i128 } shr_impl ! {$t ,  isize })*)}
macro_rules! __ra_macro_fixture52 {($($t :  ty )+)=>($(# [ stable ( feature =  "op_assign_traits" ,  since =  "1.8.0" )] impl  BitAndAssign  for $t {# [ inline ] fn  bitand_assign (&  mut  self ,  other : $t ){*  self &=  other }} forward_ref_op_assign ! { impl  BitAndAssign ,  bitand_assign  for $t , $t })+)}
macro_rules! __ra_macro_fixture53 {($($t :  ty )+)=>($(# [ stable ( feature =  "op_assign_traits" ,  since =  "1.8.0" )] impl  BitOrAssign  for $t {# [ inline ] fn  bitor_assign (&  mut  self ,  other : $t ){*  self |=  other }} forward_ref_op_assign ! { impl  BitOrAssign ,  bitor_assign  for $t , $t })+)}
macro_rules! __ra_macro_fixture54 {($($t :  ty )+)=>($(# [ stable ( feature =  "op_assign_traits" ,  since =  "1.8.0" )] impl  BitXorAssign  for $t {# [ inline ] fn  bitxor_assign (&  mut  self ,  other : $t ){*  self ^=  other }} forward_ref_op_assign ! { impl  BitXorAssign ,  bitxor_assign  for $t , $t })+)}
macro_rules! __ra_macro_fixture55 {($($t :  ty )*)=>($(shl_assign_impl ! {$t ,  u8 } shl_assign_impl ! {$t ,  u16 } shl_assign_impl ! {$t ,  u32 } shl_assign_impl ! {$t ,  u64 } shl_assign_impl ! {$t ,  u128 } shl_assign_impl ! {$t ,  usize } shl_assign_impl ! {$t ,  i8 } shl_assign_impl ! {$t ,  i16 } shl_assign_impl ! {$t ,  i32 } shl_assign_impl ! {$t ,  i64 } shl_assign_impl ! {$t ,  i128 } shl_assign_impl ! {$t ,  isize })*)}
macro_rules! __ra_macro_fixture56 {($($t :  ty )*)=>($(shr_assign_impl ! {$t ,  u8 } shr_assign_impl ! {$t ,  u16 } shr_assign_impl ! {$t ,  u32 } shr_assign_impl ! {$t ,  u64 } shr_assign_impl ! {$t ,  u128 } shr_assign_impl ! {$t ,  usize } shr_assign_impl ! {$t ,  i8 } shr_assign_impl ! {$t ,  i16 } shr_assign_impl ! {$t ,  i32 } shr_assign_impl ! {$t ,  i64 } shr_assign_impl ! {$t ,  i128 } shr_assign_impl ! {$t ,  isize })*)}
macro_rules! __ra_macro_fixture57 {{$n :  expr , $t :  ident $($ts :  ident )*}=>{# [ stable ( since =  "1.4.0" ,  feature =  "array_default" )] impl <  T >  Default  for [ T ; $n ] where  T :  Default { fn  default ()-> [ T ; $n ]{[$t ::  default (), $($ts ::  default ()),*]}} array_impl_default ! {($n -  1 ), $($ts )*}}; {$n :  expr ,}=>{# [ stable ( since =  "1.4.0" ,  feature =  "array_default" )] impl <  T >  Default  for [ T ; $n ]{ fn  default ()-> [ T ; $n ]{[]}}}; }
macro_rules! __ra_macro_fixture58 {($($t :  ty ),+)=>{$(# [ unstable ( feature =  "c_variadic" ,  reason =  "the `c_variadic` feature has not been properly tested on \\n                                 all supported platforms" ,  issue =  "44930" )] impl  sealed_trait ::  VaArgSafe  for $t {})+ }}
macro_rules! __ra_macro_fixture59 {{ narrower  than  or  same  width  as  usize : $([$u_narrower :  ident $i_narrower :  ident ]),+;  wider  than  usize : $([$u_wider :  ident $i_wider :  ident ]),+; }=>{$(# [ allow ( unreachable_patterns )]# [ unstable ( feature =  "step_trait" ,  reason =  "recently redesigned" ,  issue =  "42168" )] unsafe  impl  Step  for $u_narrower { step_identical_methods ! (); # [ inline ] fn  steps_between ( start : &  Self ,  end : &  Self )->  Option <  usize > { if *  start <= *  end { Some ((*  end - *  start ) as  usize )} else { None }}# [ inline ] fn  forward_checked ( start :  Self ,  n :  usize )->  Option <  Self > { match  Self ::  try_from ( n ){ Ok ( n )=> start .  checked_add ( n ),  Err (_)=> None , }}# [ inline ] fn  backward_checked ( start :  Self ,  n :  usize )->  Option <  Self > { match  Self ::  try_from ( n ){ Ok ( n )=> start .  checked_sub ( n ),  Err (_)=> None , }}}# [ allow ( unreachable_patterns )]# [ unstable ( feature =  "step_trait" ,  reason =  "recently redesigned" ,  issue =  "42168" )] unsafe  impl  Step  for $i_narrower { step_identical_methods ! (); # [ inline ] fn  steps_between ( start : &  Self ,  end : &  Self )->  Option <  usize > { if *  start <= *  end { Some ((*  end  as  isize ).  wrapping_sub (*  start  as  isize ) as  usize )} else { None }}# [ inline ] fn  forward_checked ( start :  Self ,  n :  usize )->  Option <  Self > { match $u_narrower ::  try_from ( n ){ Ok ( n )=>{ let  wrapped =  start .  wrapping_add ( n  as  Self );  if  wrapped >=  start { Some ( wrapped )} else { None }} Err (_)=> None , }}# [ inline ] fn  backward_checked ( start :  Self ,  n :  usize )->  Option <  Self > { match $u_narrower ::  try_from ( n ){ Ok ( n )=>{ let  wrapped =  start .  wrapping_sub ( n  as  Self );  if  wrapped <=  start { Some ( wrapped )} else { None }} Err (_)=> None , }}})+ $(# [ allow ( unreachable_patterns )]# [ unstable ( feature =  "step_trait" ,  reason =  "recently redesigned" ,  issue =  "42168" )] unsafe  impl  Step  for $u_wider { step_identical_methods ! (); # [ inline ] fn  steps_between ( start : &  Self ,  end : &  Self )->  Option <  usize > { if *  start <= *  end { usize ::  try_from (*  end - *  start ).  ok ()} else { None }}# [ inline ] fn  forward_checked ( start :  Self ,  n :  usize )->  Option <  Self > { start .  checked_add ( n  as  Self )}# [ inline ] fn  backward_checked ( start :  Self ,  n :  usize )->  Option <  Self > { start .  checked_sub ( n  as  Self )}}# [ allow ( unreachable_patterns )]# [ unstable ( feature =  "step_trait" ,  reason =  "recently redesigned" ,  issue =  "42168" )] unsafe  impl  Step  for $i_wider { step_identical_methods ! (); # [ inline ] fn  steps_between ( start : &  Self ,  end : &  Self )->  Option <  usize > { if *  start <= *  end { match  end .  checked_sub (*  start ){ Some ( result )=> usize ::  try_from ( result ).  ok (),  None => None , }} else { None }}# [ inline ] fn  forward_checked ( start :  Self ,  n :  usize )->  Option <  Self > { start .  checked_add ( n  as  Self )}# [ inline ] fn  backward_checked ( start :  Self ,  n :  usize )->  Option <  Self > { start .  checked_sub ( n  as  Self )}})+ }; }
macro_rules! __ra_macro_fixture60 {($($t :  ty )*)=>($(# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  ExactSizeIterator  for  ops ::  Range <$t > {})*)}
macro_rules! __ra_macro_fixture61 {($($t :  ty )*)=>($(# [ stable ( feature =  "inclusive_range" ,  since =  "1.26.0" )] impl  ExactSizeIterator  for  ops ::  RangeInclusive <$t > {})*)}
macro_rules! __ra_macro_fixture62 {(@  impls $zero :  expr , $one :  expr , # [$attr :  meta ], $($a :  ty )*)=>($(# [$attr ] impl  Sum  for $a { fn  sum <  I :  Iterator <  Item =  Self >> ( iter :  I )->  Self { iter .  fold ($zero ,  Add ::  add )}}# [$attr ] impl  Product  for $a { fn  product <  I :  Iterator <  Item =  Self >> ( iter :  I )->  Self { iter .  fold ($one ,  Mul ::  mul )}}# [$attr ] impl < 'a >  Sum <& 'a $a >  for $a { fn  sum <  I :  Iterator <  Item =& 'a  Self >> ( iter :  I )->  Self { iter .  fold ($zero ,  Add ::  add )}}# [$attr ] impl < 'a >  Product <& 'a $a >  for $a { fn  product <  I :  Iterator <  Item =& 'a  Self >> ( iter :  I )->  Self { iter .  fold ($one ,  Mul ::  mul )}})*); ($($a :  ty )*)=>( integer_sum_product ! (@  impls  0 ,  1 , # [ stable ( feature =  "iter_arith_traits" ,  since =  "1.12.0" )], $($a )*);  integer_sum_product ! (@  impls  Wrapping ( 0 ),  Wrapping ( 1 ), # [ stable ( feature =  "wrapping_iter_arith" ,  since =  "1.14.0" )], $(Wrapping <$a >)*); ); }
macro_rules! __ra_macro_fixture63 {($($a :  ident )*)=>($(# [ stable ( feature =  "iter_arith_traits" ,  since =  "1.12.0" )] impl  Sum  for $a { fn  sum <  I :  Iterator <  Item =  Self >> ( iter :  I )->  Self { iter .  fold ( 0.0 ,  Add ::  add )}}# [ stable ( feature =  "iter_arith_traits" ,  since =  "1.12.0" )] impl  Product  for $a { fn  product <  I :  Iterator <  Item =  Self >> ( iter :  I )->  Self { iter .  fold ( 1.0 ,  Mul ::  mul )}}# [ stable ( feature =  "iter_arith_traits" ,  since =  "1.12.0" )] impl < 'a >  Sum <& 'a $a >  for $a { fn  sum <  I :  Iterator <  Item =& 'a  Self >> ( iter :  I )->  Self { iter .  fold ( 0.0 ,  Add ::  add )}}# [ stable ( feature =  "iter_arith_traits" ,  since =  "1.12.0" )] impl < 'a >  Product <& 'a $a >  for $a { fn  product <  I :  Iterator <  Item =& 'a  Self >> ( iter :  I )->  Self { iter .  fold ( 1.0 ,  Mul ::  mul )}})*)}
macro_rules! __ra_macro_fixture64 {($cfg_cas :  meta , $cfg_align :  meta , $stable :  meta , $stable_cxchg :  meta , $stable_debug :  meta , $stable_access :  meta , $stable_from :  meta , $stable_nand :  meta , $const_stable :  meta , $stable_init_const :  meta , $s_int_type :  literal , $int_ref :  expr , $extra_feature :  expr , $min_fn :  ident , $max_fn :  ident , $align :  expr , $atomic_new :  expr , $int_type :  ident $atomic_type :  ident $atomic_init :  ident )=>{# [ doc =  " An integer type which can be safely shared between threads." ]# [ doc =  "" ]# [ doc =  " This type has the same in-memory representation as the underlying" ]# [ doc =  " integer type, [`" ]# [ doc = $s_int_type ]# [ doc =  " `](" ]# [ doc = $int_ref ]# [ doc =  " ). For more about the differences between atomic types and" ]# [ doc =  " non-atomic types as well as information about the portability of" ]# [ doc =  " this type, please see the [module-level documentation]." ]# [ doc =  "" ]# [ doc =  " **Note:** This type is only available on platforms that support" ]# [ doc =  " atomic loads and stores of [`" ]# [ doc = $s_int_type ]# [ doc =  " `](" ]# [ doc = $int_ref ]# [ doc =  " )." ]# [ doc =  "" ]# [ doc =  " [module-level documentation]: crate::sync::atomic" ]# [$stable ]# [ repr ( C ,  align ($align ))] pub  struct $atomic_type { v :  UnsafeCell <$int_type >, }# [ doc =  " An atomic integer initialized to `0`." ]# [$stable_init_const ]# [ rustc_deprecated ( since =  "1.34.0" ,  reason =  "the `new` function is now preferred" ,  suggestion = $atomic_new , )] pub  const $atomic_init : $atomic_type = $atomic_type ::  new ( 0 ); # [$stable ] impl  Default  for $atomic_type {# [ inline ] fn  default ()->  Self { Self ::  new ( Default ::  default ())}}# [$stable_from ] impl  From <$int_type >  for $atomic_type { doc_comment ! { concat ! ( "Converts an `" ,  stringify ! ($int_type ),  "` into an `" ,  stringify ! ($atomic_type ),  "`." ), # [ inline ] fn  from ( v : $int_type )->  Self { Self ::  new ( v )}}}# [$stable_debug ] impl  fmt ::  Debug  for $atomic_type { fn  fmt (&  self ,  f : &  mut  fmt ::  Formatter < '_ >)->  fmt ::  Result { fmt ::  Debug ::  fmt (&  self .  load ( Ordering ::  SeqCst ),  f )}}# [$stable ] unsafe  impl  Sync  for $atomic_type {} impl $atomic_type { doc_comment ! { concat ! ( "Creates a new atomic integer.\n\n# Examples\n\n```\n" , $extra_feature ,  "use std::sync::atomic::" ,  stringify ! ($atomic_type ),  ";\n\nlet atomic_forty_two = " ,  stringify ! ($atomic_type ),  "::new(42);\n```" ), # [ inline ]# [$stable ]# [$const_stable ] pub  const  fn  new ( v : $int_type )->  Self { Self { v :  UnsafeCell ::  new ( v )}}} doc_comment ! { concat ! ( "Returns a mutable reference to the underlying integer.\n\nThis is safe because the mutable reference guarantees that no other threads are\nconcurrently accessing the atomic data.\n\n# Examples\n\n```\n" , $extra_feature ,  "use std::sync::atomic::{" ,  stringify ! ($atomic_type ),  ", Ordering};\n\nlet mut some_var = " ,  stringify ! ($atomic_type ),  "::new(10);\nassert_eq!(*some_var.get_mut(), 10);\n*some_var.get_mut() = 5;\nassert_eq!(some_var.load(Ordering::SeqCst), 5);\n```" ), # [ inline ]# [$stable_access ] pub  fn  get_mut (&  mut  self )-> &  mut $int_type { self .  v .  get_mut ()}} doc_comment ! { concat ! ( "Get atomic access to a `&mut " ,  stringify ! ($int_type ),  "`.\n\n" ,  if_not_8_bit ! {$int_type ,  concat ! ( "**Note:** This function is only available on targets where `" ,  stringify ! ($int_type ),  "` has an alignment of " , $align ,  " bytes." )},  "\n\n# Examples\n\n```\n#![feature(atomic_from_mut)]\n" , $extra_feature ,  "use std::sync::atomic::{" ,  stringify ! ($atomic_type ),  ", Ordering};\n\nlet mut some_int = 123;\nlet a = " ,  stringify ! ($atomic_type ),  "::from_mut(&mut some_int);\na.store(100, Ordering::Relaxed);\nassert_eq!(some_int, 100);\n```\n                " ), # [ inline ]# [$cfg_align ]# [ unstable ( feature =  "atomic_from_mut" ,  issue =  "76314" )] pub  fn  from_mut ( v : &  mut $int_type )-> &  Self { use  crate ::  mem ::  align_of ;  let []= [();  align_of ::<  Self > ()-  align_of ::<$int_type > ()];  unsafe {&* ( v  as *  mut $int_type  as *  mut  Self )}}} doc_comment ! { concat ! ( "Consumes the atomic and returns the contained value.\n\nThis is safe because passing `self` by value guarantees that no other threads are\nconcurrently accessing the atomic data.\n\n# Examples\n\n```\n" , $extra_feature ,  "use std::sync::atomic::" ,  stringify ! ($atomic_type ),  ";\n\nlet some_var = " ,  stringify ! ($atomic_type ),  "::new(5);\nassert_eq!(some_var.into_inner(), 5);\n```" ), # [ inline ]# [$stable_access ]# [ rustc_const_unstable ( feature =  "const_cell_into_inner" ,  issue =  "78729" )] pub  const  fn  into_inner ( self )-> $int_type { self .  v .  into_inner ()}} doc_comment ! { concat ! ( "Loads a value from the atomic integer.\n\n`load` takes an [`Ordering`] argument which describes the memory ordering of this operation.\nPossible values are [`SeqCst`], [`Acquire`] and [`Relaxed`].\n\n# Panics\n\nPanics if `order` is [`Release`] or [`AcqRel`].\n\n# Examples\n\n```\n" , $extra_feature ,  "use std::sync::atomic::{" ,  stringify ! ($atomic_type ),  ", Ordering};\n\nlet some_var = " ,  stringify ! ($atomic_type ),  "::new(5);\n\nassert_eq!(some_var.load(Ordering::Relaxed), 5);\n```" ), # [ inline ]# [$stable ] pub  fn  load (&  self ,  order :  Ordering )-> $int_type { unsafe { atomic_load ( self .  v .  get (),  order )}}} doc_comment ! { concat ! ( "Stores a value into the atomic integer.\n\n`store` takes an [`Ordering`] argument which describes the memory ordering of this operation.\n Possible values are [`SeqCst`], [`Release`] and [`Relaxed`].\n\n# Panics\n\nPanics if `order` is [`Acquire`] or [`AcqRel`].\n\n# Examples\n\n```\n" , $extra_feature ,  "use std::sync::atomic::{" ,  stringify ! ($atomic_type ),  ", Ordering};\n\nlet some_var = " ,  stringify ! ($atomic_type ),  "::new(5);\n\nsome_var.store(10, Ordering::Relaxed);\nassert_eq!(some_var.load(Ordering::Relaxed), 10);\n```" ), # [ inline ]# [$stable ] pub  fn  store (&  self ,  val : $int_type ,  order :  Ordering ){ unsafe { atomic_store ( self .  v .  get (),  val ,  order ); }}} doc_comment ! { concat ! ( "Stores a value into the atomic integer, returning the previous value.\n\n`swap` takes an [`Ordering`] argument which describes the memory ordering\nof this operation. All ordering modes are possible. Note that using\n[`Acquire`] makes the store part of this operation [`Relaxed`], and\nusing [`Release`] makes the load part [`Relaxed`].\n\n**Note**: This method is only available on platforms that support atomic\noperations on [`" , $s_int_type ,  "`](" , $int_ref ,  ").\n\n# Examples\n\n```\n" , $extra_feature ,  "use std::sync::atomic::{" ,  stringify ! ($atomic_type ),  ", Ordering};\n\nlet some_var = " ,  stringify ! ($atomic_type ),  "::new(5);\n\nassert_eq!(some_var.swap(10, Ordering::Relaxed), 5);\n```" ), # [ inline ]# [$stable ]# [$cfg_cas ] pub  fn  swap (&  self ,  val : $int_type ,  order :  Ordering )-> $int_type { unsafe { atomic_swap ( self .  v .  get (),  val ,  order )}}} doc_comment ! { concat ! ( "Stores a value into the atomic integer if the current value is the same as\nthe `current` value.\n\nThe return value is always the previous value. If it is equal to `current`, then the\nvalue was updated.\n\n`compare_and_swap` also takes an [`Ordering`] argument which describes the memory\nordering of this operation. Notice that even when using [`AcqRel`], the operation\nmight fail and hence just perform an `Acquire` load, but not have `Release` semantics.\nUsing [`Acquire`] makes the store part of this operation [`Relaxed`] if it\nhappens, and using [`Release`] makes the load part [`Relaxed`].\n\n**Note**: This method is only available on platforms that support atomic\noperations on [`" , $s_int_type ,  "`](" , $int_ref ,  ").\n\n# Examples\n\n```\n" , $extra_feature ,  "use std::sync::atomic::{" ,  stringify ! ($atomic_type ),  ", Ordering};\n\nlet some_var = " ,  stringify ! ($atomic_type ),  "::new(5);\n\nassert_eq!(some_var.compare_and_swap(5, 10, Ordering::Relaxed), 5);\nassert_eq!(some_var.load(Ordering::Relaxed), 10);\n\nassert_eq!(some_var.compare_and_swap(6, 12, Ordering::Relaxed), 10);\nassert_eq!(some_var.load(Ordering::Relaxed), 10);\n```" ), # [ inline ]# [$stable ]# [$cfg_cas ] pub  fn  compare_and_swap (&  self ,  current : $int_type ,  new : $int_type ,  order :  Ordering )-> $int_type { match  self .  compare_exchange ( current ,  new ,  order ,  strongest_failure_ordering ( order )){ Ok ( x )=> x ,  Err ( x )=> x , }}} doc_comment ! { concat ! ( "Stores a value into the atomic integer if the current value is the same as\nthe `current` value.\n\nThe return value is a result indicating whether the new value was written and\ncontaining the previous value. On success this value is guaranteed to be equal to\n`current`.\n\n`compare_exchange` takes two [`Ordering`] arguments to describe the memory\nordering of this operation. The first describes the required ordering if the\noperation succeeds while the second describes the required ordering when the\noperation fails. Using [`Acquire`] as success ordering makes the store part\nof this operation [`Relaxed`], and using [`Release`] makes the successful load\n[`Relaxed`]. The failure ordering can only be [`SeqCst`], [`Acquire`] or [`Relaxed`]\nand must be equivalent to or weaker than the success ordering.\n\n**Note**: This method is only available on platforms that support atomic\noperations on [`" , $s_int_type ,  "`](" , $int_ref ,  ").\n\n# Examples\n\n```\n" , $extra_feature ,  "use std::sync::atomic::{" ,  stringify ! ($atomic_type ),  ", Ordering};\n\nlet some_var = " ,  stringify ! ($atomic_type ),  "::new(5);\n\nassert_eq!(some_var.compare_exchange(5, 10,\n                                     Ordering::Acquire,\n                                     Ordering::Relaxed),\n           Ok(5));\nassert_eq!(some_var.load(Ordering::Relaxed), 10);\n\nassert_eq!(some_var.compare_exchange(6, 12,\n                                     Ordering::SeqCst,\n                                     Ordering::Acquire),\n           Err(10));\nassert_eq!(some_var.load(Ordering::Relaxed), 10);\n```" ), # [ inline ]# [$stable_cxchg ]# [$cfg_cas ] pub  fn  compare_exchange (&  self ,  current : $int_type ,  new : $int_type ,  success :  Ordering ,  failure :  Ordering )->  Result <$int_type , $int_type > { unsafe { atomic_compare_exchange ( self .  v .  get (),  current ,  new ,  success ,  failure )}}} doc_comment ! { concat ! ( "Stores a value into the atomic integer if the current value is the same as\nthe `current` value.\n\nUnlike [`" ,  stringify ! ($atomic_type ),  "::compare_exchange`], this function is allowed to spuriously fail even\nwhen the comparison succeeds, which can result in more efficient code on some\nplatforms. The return value is a result indicating whether the new value was\nwritten and containing the previous value.\n\n`compare_exchange_weak` takes two [`Ordering`] arguments to describe the memory\nordering of this operation. The first describes the required ordering if the\noperation succeeds while the second describes the required ordering when the\noperation fails. Using [`Acquire`] as success ordering makes the store part\nof this operation [`Relaxed`], and using [`Release`] makes the successful load\n[`Relaxed`]. The failure ordering can only be [`SeqCst`], [`Acquire`] or [`Relaxed`]\nand must be equivalent to or weaker than the success ordering.\n\n**Note**: This method is only available on platforms that support atomic\noperations on [`" , $s_int_type ,  "`](" , $int_ref ,  ").\n\n# Examples\n\n```\n" , $extra_feature ,  "use std::sync::atomic::{" ,  stringify ! ($atomic_type ),  ", Ordering};\n\nlet val = " ,  stringify ! ($atomic_type ),  "::new(4);\n\nlet mut old = val.load(Ordering::Relaxed);\nloop {\n    let new = old * 2;\n    match val.compare_exchange_weak(old, new, Ordering::SeqCst, Ordering::Relaxed) {\n        Ok(_) => break,\n        Err(x) => old = x,\n    }\n}\n```" ), # [ inline ]# [$stable_cxchg ]# [$cfg_cas ] pub  fn  compare_exchange_weak (&  self ,  current : $int_type ,  new : $int_type ,  success :  Ordering ,  failure :  Ordering )->  Result <$int_type , $int_type > { unsafe { atomic_compare_exchange_weak ( self .  v .  get (),  current ,  new ,  success ,  failure )}}} doc_comment ! { concat ! ( "Adds to the current value, returning the previous value.\n\nThis operation wraps around on overflow.\n\n`fetch_add` takes an [`Ordering`] argument which describes the memory ordering\nof this operation. All ordering modes are possible. Note that using\n[`Acquire`] makes the store part of this operation [`Relaxed`], and\nusing [`Release`] makes the load part [`Relaxed`].\n\n**Note**: This method is only available on platforms that support atomic\noperations on [`" , $s_int_type ,  "`](" , $int_ref ,  ").\n\n# Examples\n\n```\n" , $extra_feature ,  "use std::sync::atomic::{" ,  stringify ! ($atomic_type ),  ", Ordering};\n\nlet foo = " ,  stringify ! ($atomic_type ),  "::new(0);\nassert_eq!(foo.fetch_add(10, Ordering::SeqCst), 0);\nassert_eq!(foo.load(Ordering::SeqCst), 10);\n```" ), # [ inline ]# [$stable ]# [$cfg_cas ] pub  fn  fetch_add (&  self ,  val : $int_type ,  order :  Ordering )-> $int_type { unsafe { atomic_add ( self .  v .  get (),  val ,  order )}}} doc_comment ! { concat ! ( "Subtracts from the current value, returning the previous value.\n\nThis operation wraps around on overflow.\n\n`fetch_sub` takes an [`Ordering`] argument which describes the memory ordering\nof this operation. All ordering modes are possible. Note that using\n[`Acquire`] makes the store part of this operation [`Relaxed`], and\nusing [`Release`] makes the load part [`Relaxed`].\n\n**Note**: This method is only available on platforms that support atomic\noperations on [`" , $s_int_type ,  "`](" , $int_ref ,  ").\n\n# Examples\n\n```\n" , $extra_feature ,  "use std::sync::atomic::{" ,  stringify ! ($atomic_type ),  ", Ordering};\n\nlet foo = " ,  stringify ! ($atomic_type ),  "::new(20);\nassert_eq!(foo.fetch_sub(10, Ordering::SeqCst), 20);\nassert_eq!(foo.load(Ordering::SeqCst), 10);\n```" ), # [ inline ]# [$stable ]# [$cfg_cas ] pub  fn  fetch_sub (&  self ,  val : $int_type ,  order :  Ordering )-> $int_type { unsafe { atomic_sub ( self .  v .  get (),  val ,  order )}}} doc_comment ! { concat ! ( "Bitwise \"and\" with the current value.\n\nPerforms a bitwise \"and\" operation on the current value and the argument `val`, and\nsets the new value to the result.\n\nReturns the previous value.\n\n`fetch_and` takes an [`Ordering`] argument which describes the memory ordering\nof this operation. All ordering modes are possible. Note that using\n[`Acquire`] makes the store part of this operation [`Relaxed`], and\nusing [`Release`] makes the load part [`Relaxed`].\n\n**Note**: This method is only available on platforms that support atomic\noperations on [`" , $s_int_type ,  "`](" , $int_ref ,  ").\n\n# Examples\n\n```\n" , $extra_feature ,  "use std::sync::atomic::{" ,  stringify ! ($atomic_type ),  ", Ordering};\n\nlet foo = " ,  stringify ! ($atomic_type ),  "::new(0b101101);\nassert_eq!(foo.fetch_and(0b110011, Ordering::SeqCst), 0b101101);\nassert_eq!(foo.load(Ordering::SeqCst), 0b100001);\n```" ), # [ inline ]# [$stable ]# [$cfg_cas ] pub  fn  fetch_and (&  self ,  val : $int_type ,  order :  Ordering )-> $int_type { unsafe { atomic_and ( self .  v .  get (),  val ,  order )}}} doc_comment ! { concat ! ( "Bitwise \"nand\" with the current value.\n\nPerforms a bitwise \"nand\" operation on the current value and the argument `val`, and\nsets the new value to the result.\n\nReturns the previous value.\n\n`fetch_nand` takes an [`Ordering`] argument which describes the memory ordering\nof this operation. All ordering modes are possible. Note that using\n[`Acquire`] makes the store part of this operation [`Relaxed`], and\nusing [`Release`] makes the load part [`Relaxed`].\n\n**Note**: This method is only available on platforms that support atomic\noperations on [`" , $s_int_type ,  "`](" , $int_ref ,  ").\n\n# Examples\n\n```\n" , $extra_feature ,  "\nuse std::sync::atomic::{" ,  stringify ! ($atomic_type ),  ", Ordering};\n\nlet foo = " ,  stringify ! ($atomic_type ),  "::new(0x13);\nassert_eq!(foo.fetch_nand(0x31, Ordering::SeqCst), 0x13);\nassert_eq!(foo.load(Ordering::SeqCst), !(0x13 & 0x31));\n```" ), # [ inline ]# [$stable_nand ]# [$cfg_cas ] pub  fn  fetch_nand (&  self ,  val : $int_type ,  order :  Ordering )-> $int_type { unsafe { atomic_nand ( self .  v .  get (),  val ,  order )}}} doc_comment ! { concat ! ( "Bitwise \"or\" with the current value.\n\nPerforms a bitwise \"or\" operation on the current value and the argument `val`, and\nsets the new value to the result.\n\nReturns the previous value.\n\n`fetch_or` takes an [`Ordering`] argument which describes the memory ordering\nof this operation. All ordering modes are possible. Note that using\n[`Acquire`] makes the store part of this operation [`Relaxed`], and\nusing [`Release`] makes the load part [`Relaxed`].\n\n**Note**: This method is only available on platforms that support atomic\noperations on [`" , $s_int_type ,  "`](" , $int_ref ,  ").\n\n# Examples\n\n```\n" , $extra_feature ,  "use std::sync::atomic::{" ,  stringify ! ($atomic_type ),  ", Ordering};\n\nlet foo = " ,  stringify ! ($atomic_type ),  "::new(0b101101);\nassert_eq!(foo.fetch_or(0b110011, Ordering::SeqCst), 0b101101);\nassert_eq!(foo.load(Ordering::SeqCst), 0b111111);\n```" ), # [ inline ]# [$stable ]# [$cfg_cas ] pub  fn  fetch_or (&  self ,  val : $int_type ,  order :  Ordering )-> $int_type { unsafe { atomic_or ( self .  v .  get (),  val ,  order )}}} doc_comment ! { concat ! ( "Bitwise \"xor\" with the current value.\n\nPerforms a bitwise \"xor\" operation on the current value and the argument `val`, and\nsets the new value to the result.\n\nReturns the previous value.\n\n`fetch_xor` takes an [`Ordering`] argument which describes the memory ordering\nof this operation. All ordering modes are possible. Note that using\n[`Acquire`] makes the store part of this operation [`Relaxed`], and\nusing [`Release`] makes the load part [`Relaxed`].\n\n**Note**: This method is only available on platforms that support atomic\noperations on [`" , $s_int_type ,  "`](" , $int_ref ,  ").\n\n# Examples\n\n```\n" , $extra_feature ,  "use std::sync::atomic::{" ,  stringify ! ($atomic_type ),  ", Ordering};\n\nlet foo = " ,  stringify ! ($atomic_type ),  "::new(0b101101);\nassert_eq!(foo.fetch_xor(0b110011, Ordering::SeqCst), 0b101101);\nassert_eq!(foo.load(Ordering::SeqCst), 0b011110);\n```" ), # [ inline ]# [$stable ]# [$cfg_cas ] pub  fn  fetch_xor (&  self ,  val : $int_type ,  order :  Ordering )-> $int_type { unsafe { atomic_xor ( self .  v .  get (),  val ,  order )}}} doc_comment ! { concat ! ( "Fetches the value, and applies a function to it that returns an optional\nnew value. Returns a `Result` of `Ok(previous_value)` if the function returned `Some(_)`, else\n`Err(previous_value)`.\n\nNote: This may call the function multiple times if the value has been changed from other threads in\nthe meantime, as long as the function returns `Some(_)`, but the function will have been applied\nonly once to the stored value.\n\n`fetch_update` takes two [`Ordering`] arguments to describe the memory ordering of this operation.\nThe first describes the required ordering for when the operation finally succeeds while the second\ndescribes the required ordering for loads. These correspond to the success and failure orderings of\n[`" ,  stringify ! ($atomic_type ),  "::compare_exchange`] respectively.\n\nUsing [`Acquire`] as success ordering makes the store part\nof this operation [`Relaxed`], and using [`Release`] makes the final successful load\n[`Relaxed`]. The (failed) load ordering can only be [`SeqCst`], [`Acquire`] or [`Relaxed`]\nand must be equivalent to or weaker than the success ordering.\n\n**Note**: This method is only available on platforms that support atomic\noperations on [`" , $s_int_type ,  "`](" , $int_ref ,  ").\n\n# Examples\n\n```rust\n" , $extra_feature ,  "use std::sync::atomic::{" ,  stringify ! ($atomic_type ),  ", Ordering};\n\nlet x = " ,  stringify ! ($atomic_type ),  "::new(7);\nassert_eq!(x.fetch_update(Ordering::SeqCst, Ordering::SeqCst, |_| None), Err(7));\nassert_eq!(x.fetch_update(Ordering::SeqCst, Ordering::SeqCst, |x| Some(x + 1)), Ok(7));\nassert_eq!(x.fetch_update(Ordering::SeqCst, Ordering::SeqCst, |x| Some(x + 1)), Ok(8));\nassert_eq!(x.load(Ordering::SeqCst), 9);\n```" ), # [ inline ]# [ stable ( feature =  "no_more_cas" ,  since =  "1.45.0" )]# [$cfg_cas ] pub  fn  fetch_update <  F > (&  self ,  set_order :  Ordering ,  fetch_order :  Ordering ,  mut  f :  F )->  Result <$int_type , $int_type >  where  F :  FnMut ($int_type )->  Option <$int_type > { let  mut  prev =  self .  load ( fetch_order );  while  let  Some ( next )=  f ( prev ){ match  self .  compare_exchange_weak ( prev ,  next ,  set_order ,  fetch_order ){ x @  Ok (_)=> return  x ,  Err ( next_prev )=> prev =  next_prev }} Err ( prev )}} doc_comment ! { concat ! ( "Maximum with the current value.\n\nFinds the maximum of the current value and the argument `val`, and\nsets the new value to the result.\n\nReturns the previous value.\n\n`fetch_max` takes an [`Ordering`] argument which describes the memory ordering\nof this operation. All ordering modes are possible. Note that using\n[`Acquire`] makes the store part of this operation [`Relaxed`], and\nusing [`Release`] makes the load part [`Relaxed`].\n\n**Note**: This method is only available on platforms that support atomic\noperations on [`" , $s_int_type ,  "`](" , $int_ref ,  ").\n\n# Examples\n\n```\n" , $extra_feature ,  "use std::sync::atomic::{" ,  stringify ! ($atomic_type ),  ", Ordering};\n\nlet foo = " ,  stringify ! ($atomic_type ),  "::new(23);\nassert_eq!(foo.fetch_max(42, Ordering::SeqCst), 23);\nassert_eq!(foo.load(Ordering::SeqCst), 42);\n```\n\nIf you want to obtain the maximum value in one step, you can use the following:\n\n```\n" , $extra_feature ,  "use std::sync::atomic::{" ,  stringify ! ($atomic_type ),  ", Ordering};\n\nlet foo = " ,  stringify ! ($atomic_type ),  "::new(23);\nlet bar = 42;\nlet max_foo = foo.fetch_max(bar, Ordering::SeqCst).max(bar);\nassert!(max_foo == 42);\n```" ), # [ inline ]# [ stable ( feature =  "atomic_min_max" ,  since =  "1.45.0" )]# [$cfg_cas ] pub  fn  fetch_max (&  self ,  val : $int_type ,  order :  Ordering )-> $int_type { unsafe {$max_fn ( self .  v .  get (),  val ,  order )}}} doc_comment ! { concat ! ( "Minimum with the current value.\n\nFinds the minimum of the current value and the argument `val`, and\nsets the new value to the result.\n\nReturns the previous value.\n\n`fetch_min` takes an [`Ordering`] argument which describes the memory ordering\nof this operation. All ordering modes are possible. Note that using\n[`Acquire`] makes the store part of this operation [`Relaxed`], and\nusing [`Release`] makes the load part [`Relaxed`].\n\n**Note**: This method is only available on platforms that support atomic\noperations on [`" , $s_int_type ,  "`](" , $int_ref ,  ").\n\n# Examples\n\n```\n" , $extra_feature ,  "use std::sync::atomic::{" ,  stringify ! ($atomic_type ),  ", Ordering};\n\nlet foo = " ,  stringify ! ($atomic_type ),  "::new(23);\nassert_eq!(foo.fetch_min(42, Ordering::Relaxed), 23);\nassert_eq!(foo.load(Ordering::Relaxed), 23);\nassert_eq!(foo.fetch_min(22, Ordering::Relaxed), 23);\nassert_eq!(foo.load(Ordering::Relaxed), 22);\n```\n\nIf you want to obtain the minimum value in one step, you can use the following:\n\n```\n" , $extra_feature ,  "use std::sync::atomic::{" ,  stringify ! ($atomic_type ),  ", Ordering};\n\nlet foo = " ,  stringify ! ($atomic_type ),  "::new(23);\nlet bar = 12;\nlet min_foo = foo.fetch_min(bar, Ordering::SeqCst).min(bar);\nassert_eq!(min_foo, 12);\n```" ), # [ inline ]# [ stable ( feature =  "atomic_min_max" ,  since =  "1.45.0" )]# [$cfg_cas ] pub  fn  fetch_min (&  self ,  val : $int_type ,  order :  Ordering )-> $int_type { unsafe {$min_fn ( self .  v .  get (),  val ,  order )}}} doc_comment ! { concat ! ( "Returns a mutable pointer to the underlying integer.\n\nDoing non-atomic reads and writes on the resulting integer can be a data race.\nThis method is mostly useful for FFI, where the function signature may use\n`*mut " ,  stringify ! ($int_type ),  "` instead of `&" ,  stringify ! ($atomic_type ),  "`.\n\nReturning an `*mut` pointer from a shared reference to this atomic is safe because the\natomic types work with interior mutability. All modifications of an atomic change the value\nthrough a shared reference, and can do so safely as long as they use atomic operations. Any\nuse of the returned raw pointer requires an `unsafe` block and still has to uphold the same\nrestriction: operations on it must be atomic.\n\n# Examples\n\n```ignore (extern-declaration)\n# fn main() {\n" , $extra_feature ,  "use std::sync::atomic::" ,  stringify ! ($atomic_type ),  ";\n\nextern {\n    fn my_atomic_op(arg: *mut " ,  stringify ! ($int_type ),  ");\n}\n\nlet mut atomic = " ,  stringify ! ($atomic_type ),  "::new(1);\n" ,  "unsafe {\n    my_atomic_op(atomic.as_mut_ptr());\n}\n# }\n```" ), # [ inline ]# [ unstable ( feature =  "atomic_mut_ptr" ,  reason =  "recently added" ,  issue =  "66893" )] pub  fn  as_mut_ptr (&  self )-> *  mut $int_type { self .  v .  get ()}}}}}
macro_rules! __ra_macro_fixture65 {($($target_pointer_width :  literal $align :  literal )* )=>{$(# [ cfg ( target_has_atomic_load_store =  "ptr" )]# [ cfg ( target_pointer_width = $target_pointer_width )] atomic_int ! { cfg ( target_has_atomic =  "ptr" ),  cfg ( target_has_atomic_equal_alignment =  "ptr" ),  stable ( feature =  "rust1" ,  since =  "1.0.0" ),  stable ( feature =  "extended_compare_and_swap" ,  since =  "1.10.0" ),  stable ( feature =  "atomic_debug" ,  since =  "1.3.0" ),  stable ( feature =  "atomic_access" ,  since =  "1.15.0" ),  stable ( feature =  "atomic_from" ,  since =  "1.23.0" ),  stable ( feature =  "atomic_nand" ,  since =  "1.27.0" ),  rustc_const_stable ( feature =  "const_integer_atomics" ,  since =  "1.34.0" ),  stable ( feature =  "rust1" ,  since =  "1.0.0" ),  "isize" ,  "../../../std/primitive.isize.html" ,  "" ,  atomic_min ,  atomic_max , $align ,  "AtomicIsize::new(0)" ,  isize  AtomicIsize  ATOMIC_ISIZE_INIT }# [ cfg ( target_has_atomic_load_store =  "ptr" )]# [ cfg ( target_pointer_width = $target_pointer_width )] atomic_int ! { cfg ( target_has_atomic =  "ptr" ),  cfg ( target_has_atomic_equal_alignment =  "ptr" ),  stable ( feature =  "rust1" ,  since =  "1.0.0" ),  stable ( feature =  "extended_compare_and_swap" ,  since =  "1.10.0" ),  stable ( feature =  "atomic_debug" ,  since =  "1.3.0" ),  stable ( feature =  "atomic_access" ,  since =  "1.15.0" ),  stable ( feature =  "atomic_from" ,  since =  "1.23.0" ),  stable ( feature =  "atomic_nand" ,  since =  "1.27.0" ),  rustc_const_stable ( feature =  "const_integer_atomics" ,  since =  "1.34.0" ),  stable ( feature =  "rust1" ,  since =  "1.0.0" ),  "usize" ,  "../../../std/primitive.usize.html" ,  "" ,  atomic_umin ,  atomic_umax , $align ,  "AtomicUsize::new(0)" ,  usize  AtomicUsize  ATOMIC_USIZE_INIT })* }; }
macro_rules! __ra_macro_fixture66 {($ty :  ident )=>{# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  Debug  for $ty { fn  fmt (&  self ,  fmt : &  mut  Formatter < '_ >)->  Result { float_to_decimal_common ( fmt ,  self ,  true ,  1 )}}# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  Display  for $ty { fn  fmt (&  self ,  fmt : &  mut  Formatter < '_ >)->  Result { float_to_decimal_common ( fmt ,  self ,  false ,  0 )}}# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  LowerExp  for $ty { fn  fmt (&  self ,  fmt : &  mut  Formatter < '_ >)->  Result { float_to_exponential_common ( fmt ,  self ,  false )}}# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  UpperExp  for $ty { fn  fmt (&  self ,  fmt : &  mut  Formatter < '_ >)->  Result { float_to_exponential_common ( fmt ,  self ,  true )}}}; }
macro_rules! __ra_macro_fixture67 {($($t :  ident )*)=>($(impl  DisplayInt  for $t { fn  zero ()->  Self { 0 } fn  from_u8 ( u :  u8 )->  Self { u  as  Self } fn  to_u8 (&  self )->  u8 {*  self  as  u8 } fn  to_u16 (&  self )->  u16 {*  self  as  u16 } fn  to_u32 (&  self )->  u32 {*  self  as  u32 } fn  to_u64 (&  self )->  u64 {*  self  as  u64 } fn  to_u128 (&  self )->  u128 {*  self  as  u128 }})* )}
macro_rules! __ra_macro_fixture68 {($($t :  ident )*)=>($(impl  DisplayInt  for $t { fn  zero ()->  Self { 0 } fn  from_u8 ( u :  u8 )->  Self { u  as  Self } fn  to_u8 (&  self )->  u8 {*  self  as  u8 } fn  to_u16 (&  self )->  u16 {*  self  as  u16 } fn  to_u32 (&  self )->  u32 {*  self  as  u32 } fn  to_u64 (&  self )->  u64 {*  self  as  u64 } fn  to_u128 (&  self )->  u128 {*  self  as  u128 }})* )}
macro_rules! __ra_macro_fixture69 {($T :  ident , $base :  expr , $prefix :  expr , $($x :  pat =>$conv :  expr ),+)=>{ impl  GenericRadix  for $T { const  BASE :  u8 = $base ;  const  PREFIX : & 'static  str = $prefix ;  fn  digit ( x :  u8 )->  u8 { match  x {$($x =>$conv ,)+  x => panic ! ( "number not in the range 0..={}: {}" ,  Self ::  BASE -  1 ,  x ), }}}}}
macro_rules! __ra_macro_fixture70 {($Int :  ident , $Uint :  ident )=>{ int_base ! { fmt ::  Binary  for $Int  as $Uint ->  Binary } int_base ! { fmt ::  Octal  for $Int  as $Uint ->  Octal } int_base ! { fmt ::  LowerHex  for $Int  as $Uint ->  LowerHex } int_base ! { fmt ::  UpperHex  for $Int  as $Uint ->  UpperHex } int_base ! { fmt ::  Binary  for $Uint  as $Uint ->  Binary } int_base ! { fmt ::  Octal  for $Uint  as $Uint ->  Octal } int_base ! { fmt ::  LowerHex  for $Uint  as $Uint ->  LowerHex } int_base ! { fmt ::  UpperHex  for $Uint  as $Uint ->  UpperHex }}; }
macro_rules! __ra_macro_fixture71 {($($T :  ident )*)=>{$(# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  fmt ::  Debug  for $T {# [ inline ] fn  fmt (&  self ,  f : &  mut  fmt ::  Formatter < '_ >)->  fmt ::  Result { if  f .  debug_lower_hex (){ fmt ::  LowerHex ::  fmt ( self ,  f )} else  if  f .  debug_upper_hex (){ fmt ::  UpperHex ::  fmt ( self ,  f )} else { fmt ::  Display ::  fmt ( self ,  f )}}})*}; }
macro_rules! __ra_macro_fixture72 {($($t :  ident ),*  as $u :  ident  via $conv_fn :  ident  named $name :  ident )=>{ fn $name ( mut  n : $u ,  is_nonnegative :  bool ,  f : &  mut  fmt ::  Formatter < '_ >)->  fmt ::  Result { let  mut  buf = [ MaybeUninit ::<  u8 >::  uninit ();  39 ];  let  mut  curr =  buf .  len () as  isize ;  let  buf_ptr =  MaybeUninit ::  slice_as_mut_ptr (&  mut  buf );  let  lut_ptr =  DEC_DIGITS_LUT .  as_ptr ();  unsafe { assert ! ( crate ::  mem ::  size_of ::<$u > ()>=  2 );  while  n >=  10000 { let  rem = ( n %  10000 ) as  isize ;  n /=  10000 ;  let  d1 = ( rem /  100 )<<  1 ;  let  d2 = ( rem %  100 )<<  1 ;  curr -=  4 ;  ptr ::  copy_nonoverlapping ( lut_ptr .  offset ( d1 ),  buf_ptr .  offset ( curr ),  2 );  ptr ::  copy_nonoverlapping ( lut_ptr .  offset ( d2 ),  buf_ptr .  offset ( curr +  2 ),  2 ); } let  mut  n =  n  as  isize ;  if  n >=  100 { let  d1 = ( n %  100 )<<  1 ;  n /=  100 ;  curr -=  2 ;  ptr ::  copy_nonoverlapping ( lut_ptr .  offset ( d1 ),  buf_ptr .  offset ( curr ),  2 ); } if  n <  10 { curr -=  1 ; *  buf_ptr .  offset ( curr )= ( n  as  u8 )+  b'0' ; } else { let  d1 =  n <<  1 ;  curr -=  2 ;  ptr ::  copy_nonoverlapping ( lut_ptr .  offset ( d1 ),  buf_ptr .  offset ( curr ),  2 ); }} let  buf_slice =  unsafe { str ::  from_utf8_unchecked ( slice ::  from_raw_parts ( buf_ptr .  offset ( curr ),  buf .  len ()-  curr  as  usize ))};  f .  pad_integral ( is_nonnegative ,  "" ,  buf_slice )}$(# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  fmt ::  Display  for $t {# [ allow ( unused_comparisons )] fn  fmt (&  self ,  f : &  mut  fmt ::  Formatter < '_ >)->  fmt ::  Result { let  is_nonnegative = *  self >=  0 ;  let  n =  if  is_nonnegative { self .$conv_fn ()} else {(!  self .$conv_fn ()).  wrapping_add ( 1 )}; $name ( n ,  is_nonnegative ,  f )}})* }; }
macro_rules! __ra_macro_fixture73 {($($t :  ident ),*  as $u :  ident  via $conv_fn :  ident  named $name :  ident )=>{ fn $name ( mut  n : $u ,  is_nonnegative :  bool ,  upper :  bool ,  f : &  mut  fmt ::  Formatter < '_ > )->  fmt ::  Result { let ( mut  n ,  mut  exponent ,  trailing_zeros ,  added_precision )= { let  mut  exponent =  0 ;  while  n %  10 ==  0 &&  n >=  10 { n /=  10 ;  exponent +=  1 ; } let  trailing_zeros =  exponent ;  let ( added_precision ,  subtracted_precision )=  match  f .  precision (){ Some ( fmt_prec )=>{ let  mut  tmp =  n ;  let  mut  prec =  0 ;  while  tmp >=  10 { tmp /=  10 ;  prec +=  1 ; }( fmt_prec .  saturating_sub ( prec ),  prec .  saturating_sub ( fmt_prec ))} None =>( 0 ,  0 )};  for _  in  1 ..  subtracted_precision { n /=  10 ;  exponent +=  1 ; } if  subtracted_precision !=  0 { let  rem =  n %  10 ;  n /=  10 ;  exponent +=  1 ;  if  rem >=  5 { n +=  1 ; }}( n ,  exponent ,  trailing_zeros ,  added_precision )};  let  mut  buf = [ MaybeUninit ::<  u8 >::  uninit ();  40 ];  let  mut  curr =  buf .  len () as  isize ;  let  buf_ptr =  MaybeUninit ::  slice_as_mut_ptr (&  mut  buf );  let  lut_ptr =  DEC_DIGITS_LUT .  as_ptr ();  while  n >=  100 { let  d1 = (( n %  100 ) as  isize )<<  1 ;  curr -=  2 ;  unsafe { ptr ::  copy_nonoverlapping ( lut_ptr .  offset ( d1 ),  buf_ptr .  offset ( curr ),  2 ); } n /=  100 ;  exponent +=  2 ; } let  mut  n =  n  as  isize ;  if  n >=  10 { curr -=  1 ;  unsafe {*  buf_ptr .  offset ( curr )= ( n  as  u8 %  10_u8 )+  b'0' ; } n /=  10 ;  exponent +=  1 ; } if  exponent !=  trailing_zeros ||  added_precision !=  0 { curr -=  1 ;  unsafe {*  buf_ptr .  offset ( curr )=  b'.' ; }} let  buf_slice =  unsafe { curr -=  1 ; *  buf_ptr .  offset ( curr )= ( n  as  u8 )+  b'0' ;  let  len =  buf .  len ()-  curr  as  usize ;  slice ::  from_raw_parts ( buf_ptr .  offset ( curr ),  len )};  let  mut  exp_buf = [ MaybeUninit ::<  u8 >::  uninit ();  3 ];  let  exp_ptr =  MaybeUninit ::  slice_as_mut_ptr (&  mut  exp_buf );  let  exp_slice =  unsafe {*  exp_ptr .  offset ( 0 )=  if  upper { b'E' } else { b'e' };  let  len =  if  exponent <  10 {*  exp_ptr .  offset ( 1 )= ( exponent  as  u8 )+  b'0' ;  2 } else { let  off =  exponent <<  1 ;  ptr ::  copy_nonoverlapping ( lut_ptr .  offset ( off ),  exp_ptr .  offset ( 1 ),  2 );  3 };  slice ::  from_raw_parts ( exp_ptr ,  len )};  let  parts = & [ flt2dec ::  Part ::  Copy ( buf_slice ),  flt2dec ::  Part ::  Zero ( added_precision ),  flt2dec ::  Part ::  Copy ( exp_slice )];  let  sign =  if !  is_nonnegative { "-" } else  if  f .  sign_plus (){ "+" } else { "" };  let  formatted =  flt2dec ::  Formatted { sign ,  parts };  f .  pad_formatted_parts (&  formatted )}$(# [ stable ( feature =  "integer_exp_format" ,  since =  "1.42.0" )] impl  fmt ::  LowerExp  for $t {# [ allow ( unused_comparisons )] fn  fmt (&  self ,  f : &  mut  fmt ::  Formatter < '_ >)->  fmt ::  Result { let  is_nonnegative = *  self >=  0 ;  let  n =  if  is_nonnegative { self .$conv_fn ()} else {(!  self .$conv_fn ()).  wrapping_add ( 1 )}; $name ( n ,  is_nonnegative ,  false ,  f )}})* $(# [ stable ( feature =  "integer_exp_format" ,  since =  "1.42.0" )] impl  fmt ::  UpperExp  for $t {# [ allow ( unused_comparisons )] fn  fmt (&  self ,  f : &  mut  fmt ::  Formatter < '_ >)->  fmt ::  Result { let  is_nonnegative = *  self >=  0 ;  let  n =  if  is_nonnegative { self .$conv_fn ()} else {(!  self .$conv_fn ()).  wrapping_add ( 1 )}; $name ( n ,  is_nonnegative ,  true ,  f )}})* }; }
macro_rules! __ra_macro_fixture74 {($($tr :  ident ),*)=>{$(# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl <  T : ?  Sized + $tr > $tr  for &  T { fn  fmt (&  self ,  f : &  mut  Formatter < '_ >)->  Result {$tr ::  fmt (&**  self ,  f )}}# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl <  T : ?  Sized + $tr > $tr  for &  mut  T { fn  fmt (&  self ,  f : &  mut  Formatter < '_ >)->  Result {$tr ::  fmt (&**  self ,  f )}})* }}
macro_rules! __ra_macro_fixture75 {()=>(); ($($name :  ident ,)+ )=>(# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl <$($name :  Debug ),+>  Debug  for ($($name ,)+) where  last_type ! ($($name ,)+): ?  Sized {# [ allow ( non_snake_case ,  unused_assignments )] fn  fmt (&  self ,  f : &  mut  Formatter < '_ >)->  Result { let  mut  builder =  f .  debug_tuple ( "" );  let ($(ref $name ,)+)= *  self ; $(builder .  field (&$name ); )+  builder .  finish ()}} peel ! {$($name ,)+ })}
macro_rules! __ra_macro_fixture76 {($(($ty :  ident , $meth :  ident ),)*)=>{$(# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  Hash  for $ty { fn  hash <  H :  Hasher > (&  self ,  state : &  mut  H ){ state .$meth (*  self )} fn  hash_slice <  H :  Hasher > ( data : & [$ty ],  state : &  mut  H ){ let  newlen =  data .  len ()*  mem ::  size_of ::<$ty > ();  let  ptr =  data .  as_ptr () as *  const  u8 ;  state .  write ( unsafe { slice ::  from_raw_parts ( ptr ,  newlen )})}})*}}
macro_rules! __ra_macro_fixture77 {()=>(# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  Hash  for (){ fn  hash <  H :  Hasher > (&  self ,  _state : &  mut  H ){}}); ($($name :  ident )+)=>(# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl <$($name :  Hash ),+>  Hash  for ($($name ,)+) where  last_type ! ($($name ,)+): ?  Sized {# [ allow ( non_snake_case )] fn  hash <  S :  Hasher > (&  self ,  state : &  mut  S ){ let ($(ref $name ,)+)= *  self ; $($name .  hash ( state );)+ }}); }
macro_rules! __ra_macro_fixture78 {($([$($p :  tt )*]$t :  ty ,)*)=>{$(impl <$($p )*>  AlwaysApplicableOrd  for $t {})* }}
macro_rules! __ra_macro_fixture79 {($traitname :  ident , $($ty :  ty )*)=>{$(impl $traitname <$ty >  for $ty {})* }}
macro_rules! __ra_macro_fixture80 {( struct $name :  ident -> $ptr :  ty , $elem :  ty , $raw_mut :  tt , {$($mut_ :  tt )?}, {$($extra :  tt )*})=>{ macro_rules !  next_unchecked {($self :  ident )=>{& $($mut_ )? *$self .  post_inc_start ( 1 )}} macro_rules !  next_back_unchecked {($self :  ident )=>{& $($mut_ )? *$self .  pre_dec_end ( 1 )}} macro_rules !  zst_shrink {($self :  ident , $n :  ident )=>{$self .  end = ($self .  end  as * $raw_mut  u8 ).  wrapping_offset (-$n ) as * $raw_mut  T ; }} impl < 'a ,  T > $name < 'a ,  T > {# [ inline ( always )] fn  make_slice (&  self )-> & 'a [ T ]{ unsafe { from_raw_parts ( self .  ptr .  as_ptr (),  len ! ( self ))}}# [ inline ( always )] unsafe  fn  post_inc_start (&  mut  self ,  offset :  isize )-> * $raw_mut  T { if  mem ::  size_of ::<  T > ()==  0 { zst_shrink ! ( self ,  offset );  self .  ptr .  as_ptr ()} else { let  old =  self .  ptr .  as_ptr ();  self .  ptr =  unsafe { NonNull ::  new_unchecked ( self .  ptr .  as_ptr ().  offset ( offset ))};  old }}# [ inline ( always )] unsafe  fn  pre_dec_end (&  mut  self ,  offset :  isize )-> * $raw_mut  T { if  mem ::  size_of ::<  T > ()==  0 { zst_shrink ! ( self ,  offset );  self .  ptr .  as_ptr ()} else { self .  end =  unsafe { self .  end .  offset (-  offset )};  self .  end }}}# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl <  T >  ExactSizeIterator  for $name < '_ ,  T > {# [ inline ( always )] fn  len (&  self )->  usize { len ! ( self )}# [ inline ( always )] fn  is_empty (&  self )->  bool { is_empty ! ( self )}}# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl < 'a ,  T >  Iterator  for $name < 'a ,  T > { type  Item = $elem ; # [ inline ] fn  next (&  mut  self )->  Option <$elem > { unsafe { assume (!  self .  ptr .  as_ptr ().  is_null ());  if  mem ::  size_of ::<  T > ()!=  0 { assume (!  self .  end .  is_null ()); } if  is_empty ! ( self ){ None } else { Some ( next_unchecked ! ( self ))}}}# [ inline ] fn  size_hint (&  self )-> ( usize ,  Option <  usize >){ let  exact =  len ! ( self ); ( exact ,  Some ( exact ))}# [ inline ] fn  count ( self )->  usize { len ! ( self )}# [ inline ] fn  nth (&  mut  self ,  n :  usize )->  Option <$elem > { if  n >=  len ! ( self ){ if  mem ::  size_of ::<  T > ()==  0 { self .  end =  self .  ptr .  as_ptr (); } else { unsafe { self .  ptr =  NonNull ::  new_unchecked ( self .  end  as *  mut  T ); }} return  None ; } unsafe { self .  post_inc_start ( n  as  isize );  Some ( next_unchecked ! ( self ))}}# [ inline ] fn  last ( mut  self )->  Option <$elem > { self .  next_back ()}# [ inline ] fn  for_each <  F > ( mut  self ,  mut  f :  F ) where  Self :  Sized ,  F :  FnMut ( Self ::  Item ), { while  let  Some ( x )=  self .  next (){ f ( x ); }}# [ inline ] fn  all <  F > (&  mut  self ,  mut  f :  F )->  bool  where  Self :  Sized ,  F :  FnMut ( Self ::  Item )->  bool , { while  let  Some ( x )=  self .  next (){ if !  f ( x ){ return  false ; }} true }# [ inline ] fn  any <  F > (&  mut  self ,  mut  f :  F )->  bool  where  Self :  Sized ,  F :  FnMut ( Self ::  Item )->  bool , { while  let  Some ( x )=  self .  next (){ if  f ( x ){ return  true ; }} false }# [ inline ] fn  find <  P > (&  mut  self ,  mut  predicate :  P )->  Option <  Self ::  Item >  where  Self :  Sized ,  P :  FnMut (&  Self ::  Item )->  bool , { while  let  Some ( x )=  self .  next (){ if  predicate (&  x ){ return  Some ( x ); }} None }# [ inline ] fn  find_map <  B ,  F > (&  mut  self ,  mut  f :  F )->  Option <  B >  where  Self :  Sized ,  F :  FnMut ( Self ::  Item )->  Option <  B >, { while  let  Some ( x )=  self .  next (){ if  let  Some ( y )=  f ( x ){ return  Some ( y ); }} None }# [ inline ]# [ rustc_inherit_overflow_checks ] fn  position <  P > (&  mut  self ,  mut  predicate :  P )->  Option <  usize >  where  Self :  Sized ,  P :  FnMut ( Self ::  Item )->  bool , { let  n =  len ! ( self );  let  mut  i =  0 ;  while  let  Some ( x )=  self .  next (){ if  predicate ( x ){ unsafe { assume ( i <  n )};  return  Some ( i ); } i +=  1 ; } None }# [ inline ] fn  rposition <  P > (&  mut  self ,  mut  predicate :  P )->  Option <  usize >  where  P :  FnMut ( Self ::  Item )->  bool ,  Self :  Sized +  ExactSizeIterator +  DoubleEndedIterator { let  n =  len ! ( self );  let  mut  i =  n ;  while  let  Some ( x )=  self .  next_back (){ i -=  1 ;  if  predicate ( x ){ unsafe { assume ( i <  n )};  return  Some ( i ); }} None }# [ doc ( hidden )] unsafe  fn  __iterator_get_unchecked (&  mut  self ,  idx :  usize )->  Self ::  Item { unsafe {& $($mut_ )? *  self .  ptr .  as_ptr ().  add ( idx )}}$($extra )* }# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl < 'a ,  T >  DoubleEndedIterator  for $name < 'a ,  T > {# [ inline ] fn  next_back (&  mut  self )->  Option <$elem > { unsafe { assume (!  self .  ptr .  as_ptr ().  is_null ());  if  mem ::  size_of ::<  T > ()!=  0 { assume (!  self .  end .  is_null ()); } if  is_empty ! ( self ){ None } else { Some ( next_back_unchecked ! ( self ))}}}# [ inline ] fn  nth_back (&  mut  self ,  n :  usize )->  Option <$elem > { if  n >=  len ! ( self ){ self .  end =  self .  ptr .  as_ptr ();  return  None ; } unsafe { self .  pre_dec_end ( n  as  isize );  Some ( next_back_unchecked ! ( self ))}}}# [ stable ( feature =  "fused" ,  since =  "1.26.0" )] impl <  T >  FusedIterator  for $name < '_ ,  T > {}# [ unstable ( feature =  "trusted_len" ,  issue =  "37572" )] unsafe  impl <  T >  TrustedLen  for $name < '_ ,  T > {}}}
macro_rules! __ra_macro_fixture81 {($name :  ident : $elem :  ident , $iter_of :  ty )=>{# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl < 'a , $elem ,  P >  Iterator  for $name < 'a , $elem ,  P >  where  P :  FnMut (&  T )->  bool , { type  Item = $iter_of ; # [ inline ] fn  next (&  mut  self )->  Option <$iter_of > { self .  inner .  next ()}# [ inline ] fn  size_hint (&  self )-> ( usize ,  Option <  usize >){ self .  inner .  size_hint ()}}# [ stable ( feature =  "fused" ,  since =  "1.26.0" )] impl < 'a , $elem ,  P >  FusedIterator  for $name < 'a , $elem ,  P >  where  P :  FnMut (&  T )->  bool {}}; }
macro_rules! __ra_macro_fixture82 {( clone $t :  ident  with |$s :  ident | $e :  expr )=>{ impl < 'a ,  P >  Clone  for $t < 'a ,  P >  where  P :  Pattern < 'a ,  Searcher :  Clone >, { fn  clone (&  self )->  Self { let $s =  self ; $e }}}; }
macro_rules! __ra_macro_fixture83 {{ forward : $(# [$forward_iterator_attribute :  meta ])*  struct $forward_iterator :  ident ;  reverse : $(# [$reverse_iterator_attribute :  meta ])*  struct $reverse_iterator :  ident ;  stability : $(# [$common_stability_attribute :  meta ])*  internal : $internal_iterator :  ident  yielding ($iterty :  ty );  delegate $($t :  tt )* }=>{$(# [$forward_iterator_attribute ])* $(# [$common_stability_attribute ])*  pub  struct $forward_iterator < 'a ,  P :  Pattern < 'a >> ( pub ( super )$internal_iterator < 'a ,  P >); $(# [$common_stability_attribute ])*  impl < 'a ,  P >  fmt ::  Debug  for $forward_iterator < 'a ,  P >  where  P :  Pattern < 'a ,  Searcher :  fmt ::  Debug >, { fn  fmt (&  self ,  f : &  mut  fmt ::  Formatter < '_ >)->  fmt ::  Result { f .  debug_tuple ( stringify ! ($forward_iterator )).  field (&  self .  0 ).  finish ()}}$(# [$common_stability_attribute ])*  impl < 'a ,  P :  Pattern < 'a >>  Iterator  for $forward_iterator < 'a ,  P > { type  Item = $iterty ; # [ inline ] fn  next (&  mut  self )->  Option <$iterty > { self .  0 .  next ()}}$(# [$common_stability_attribute ])*  impl < 'a ,  P >  Clone  for $forward_iterator < 'a ,  P >  where  P :  Pattern < 'a ,  Searcher :  Clone >, { fn  clone (&  self )->  Self {$forward_iterator ( self .  0 .  clone ())}}$(# [$reverse_iterator_attribute ])* $(# [$common_stability_attribute ])*  pub  struct $reverse_iterator < 'a ,  P :  Pattern < 'a >> ( pub ( super )$internal_iterator < 'a ,  P >); $(# [$common_stability_attribute ])*  impl < 'a ,  P >  fmt ::  Debug  for $reverse_iterator < 'a ,  P >  where  P :  Pattern < 'a ,  Searcher :  fmt ::  Debug >, { fn  fmt (&  self ,  f : &  mut  fmt ::  Formatter < '_ >)->  fmt ::  Result { f .  debug_tuple ( stringify ! ($reverse_iterator )).  field (&  self .  0 ).  finish ()}}$(# [$common_stability_attribute ])*  impl < 'a ,  P >  Iterator  for $reverse_iterator < 'a ,  P >  where  P :  Pattern < 'a ,  Searcher :  ReverseSearcher < 'a >>, { type  Item = $iterty ; # [ inline ] fn  next (&  mut  self )->  Option <$iterty > { self .  0 .  next_back ()}}$(# [$common_stability_attribute ])*  impl < 'a ,  P >  Clone  for $reverse_iterator < 'a ,  P >  where  P :  Pattern < 'a ,  Searcher :  Clone >, { fn  clone (&  self )->  Self {$reverse_iterator ( self .  0 .  clone ())}}# [ stable ( feature =  "fused" ,  since =  "1.26.0" )] impl < 'a ,  P :  Pattern < 'a >>  FusedIterator  for $forward_iterator < 'a ,  P > {}# [ stable ( feature =  "fused" ,  since =  "1.26.0" )] impl < 'a ,  P >  FusedIterator  for $reverse_iterator < 'a ,  P >  where  P :  Pattern < 'a ,  Searcher :  ReverseSearcher < 'a >>, {} generate_pattern_iterators ! ($($t )*  with $(# [$common_stability_attribute ])*, $forward_iterator , $reverse_iterator , $iterty ); }; { double  ended ;  with $(# [$common_stability_attribute :  meta ])*, $forward_iterator :  ident , $reverse_iterator :  ident , $iterty :  ty }=>{$(# [$common_stability_attribute ])*  impl < 'a ,  P >  DoubleEndedIterator  for $forward_iterator < 'a ,  P >  where  P :  Pattern < 'a ,  Searcher :  DoubleEndedSearcher < 'a >>, {# [ inline ] fn  next_back (&  mut  self )->  Option <$iterty > { self .  0 .  next_back ()}}$(# [$common_stability_attribute ])*  impl < 'a ,  P >  DoubleEndedIterator  for $reverse_iterator < 'a ,  P >  where  P :  Pattern < 'a ,  Searcher :  DoubleEndedSearcher < 'a >>, {# [ inline ] fn  next_back (&  mut  self )->  Option <$iterty > { self .  0 .  next ()}}}; { single  ended ;  with $(# [$common_stability_attribute :  meta ])*, $forward_iterator :  ident , $reverse_iterator :  ident , $iterty :  ty }=>{}}
macro_rules! __ra_macro_fixture84 {($($Name :  ident ),+)=>{$(# [ stable ( feature =  "str_escape" ,  since =  "1.34.0" )] impl < 'a >  fmt ::  Display  for $Name < 'a > { fn  fmt (&  self ,  f : &  mut  fmt ::  Formatter < '_ >)->  fmt ::  Result { self .  clone ().  try_for_each (|  c |  f .  write_char ( c ))}}# [ stable ( feature =  "str_escape" ,  since =  "1.34.0" )] impl < 'a >  Iterator  for $Name < 'a > { type  Item =  char ; # [ inline ] fn  next (&  mut  self )->  Option <  char > { self .  inner .  next ()}# [ inline ] fn  size_hint (&  self )-> ( usize ,  Option <  usize >){ self .  inner .  size_hint ()}# [ inline ] fn  try_fold <  Acc ,  Fold ,  R > (&  mut  self ,  init :  Acc ,  fold :  Fold )->  R  where  Self :  Sized ,  Fold :  FnMut ( Acc ,  Self ::  Item )->  R ,  R :  Try <  Ok =  Acc >{ self .  inner .  try_fold ( init ,  fold )}# [ inline ] fn  fold <  Acc ,  Fold > ( self ,  init :  Acc ,  fold :  Fold )->  Acc  where  Fold :  FnMut ( Acc ,  Self ::  Item )->  Acc , { self .  inner .  fold ( init ,  fold )}}# [ stable ( feature =  "str_escape" ,  since =  "1.34.0" )] impl < 'a >  FusedIterator  for $Name < 'a > {})+}}
macro_rules! __ra_macro_fixture85 {($($(# [$attr :  meta ])*  struct $Name :  ident  impl $(<$($lifetime :  lifetime ),+> )?  Fn = |$($arg :  ident : $ArgTy :  ty ),*| -> $ReturnTy :  ty $body :  block ; )+)=>{$($(# [$attr ])*  struct $Name ;  impl $(<$($lifetime ),+> )?  Fn < ($($ArgTy , )*)>  for $Name {# [ inline ] extern  "rust-call"  fn  call (&  self , ($($arg , )*): ($($ArgTy , )*))-> $ReturnTy {$body }} impl $(<$($lifetime ),+> )?  FnMut < ($($ArgTy , )*)>  for $Name {# [ inline ] extern  "rust-call"  fn  call_mut (&  mut  self , ($($arg , )*): ($($ArgTy , )*))-> $ReturnTy { Fn ::  call (&*  self , ($($arg , )*))}} impl $(<$($lifetime ),+> )?  FnOnce < ($($ArgTy , )*)>  for $Name { type  Output = $ReturnTy ; # [ inline ] extern  "rust-call"  fn  call_once ( self , ($($arg , )*): ($($ArgTy , )*))-> $ReturnTy { Fn ::  call (&  self , ($($arg , )*))}})+ }}
macro_rules! __ra_macro_fixture86 {($($Tuple :  ident {$(($idx :  tt )-> $T :  ident )+ })+)=>{$(# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl <$($T :  PartialEq ),+>  PartialEq  for ($($T ,)+) where  last_type ! ($($T ,)+): ?  Sized {# [ inline ] fn  eq (&  self ,  other : & ($($T ,)+))->  bool {$(self .$idx ==  other .$idx )&&+ }# [ inline ] fn  ne (&  self ,  other : & ($($T ,)+))->  bool {$(self .$idx !=  other .$idx )||+ }}# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl <$($T :  Eq ),+>  Eq  for ($($T ,)+) where  last_type ! ($($T ,)+): ?  Sized {}# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl <$($T :  PartialOrd +  PartialEq ),+>  PartialOrd  for ($($T ,)+) where  last_type ! ($($T ,)+): ?  Sized {# [ inline ] fn  partial_cmp (&  self ,  other : & ($($T ,)+))->  Option <  Ordering > { lexical_partial_cmp ! ($(self .$idx ,  other .$idx ),+)}# [ inline ] fn  lt (&  self ,  other : & ($($T ,)+))->  bool { lexical_ord ! ( lt , $(self .$idx ,  other .$idx ),+)}# [ inline ] fn  le (&  self ,  other : & ($($T ,)+))->  bool { lexical_ord ! ( le , $(self .$idx ,  other .$idx ),+)}# [ inline ] fn  ge (&  self ,  other : & ($($T ,)+))->  bool { lexical_ord ! ( ge , $(self .$idx ,  other .$idx ),+)}# [ inline ] fn  gt (&  self ,  other : & ($($T ,)+))->  bool { lexical_ord ! ( gt , $(self .$idx ,  other .$idx ),+)}}# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl <$($T :  Ord ),+>  Ord  for ($($T ,)+) where  last_type ! ($($T ,)+): ?  Sized {# [ inline ] fn  cmp (&  self ,  other : & ($($T ,)+))->  Ordering { lexical_cmp ! ($(self .$idx ,  other .$idx ),+)}}# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl <$($T :  Default ),+>  Default  for ($($T ,)+){# [ inline ] fn  default ()-> ($($T ,)+){($({let  x : $T =  Default ::  default ();  x },)+)}})+ }}
macro_rules! __ra_macro_fixture87 {($x :  expr , $($tt :  tt )*)=>{# [ doc = $x ]$($tt )* }; }
macro_rules! __ra_macro_fixture88 {($x :  expr , $($tt :  tt )*)=>{# [ doc = $x ]$($tt )* }; }
macro_rules! __ra_macro_fixture89 {(# [$stability :  meta ]($($Trait :  ident ),+ ) for $Ty :  ident )=>{$(# [$stability ] impl  fmt ::$Trait  for $Ty {# [ inline ] fn  fmt (&  self ,  f : &  mut  fmt ::  Formatter < '_ >)->  fmt ::  Result { self .  get ().  fmt ( f )}})+ }}
macro_rules! __ra_macro_fixture90 {($t :  ident , $f :  ident )=>{# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  Shl <$f >  for  Wrapping <$t > { type  Output =  Wrapping <$t >; # [ inline ] fn  shl ( self ,  other : $f )->  Wrapping <$t > { Wrapping ( self .  0 .  wrapping_shl (( other &  self ::  shift_max ::$t  as $f ) as  u32 ))}} forward_ref_binop ! { impl  Shl ,  shl  for  Wrapping <$t >, $f , # [ stable ( feature =  "wrapping_ref_ops" ,  since =  "1.39.0" )]}# [ stable ( feature =  "op_assign_traits" ,  since =  "1.8.0" )] impl  ShlAssign <$f >  for  Wrapping <$t > {# [ inline ] fn  shl_assign (&  mut  self ,  other : $f ){*  self = *  self <<  other ; }} forward_ref_op_assign ! { impl  ShlAssign ,  shl_assign  for  Wrapping <$t >, $f }# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  Shr <$f >  for  Wrapping <$t > { type  Output =  Wrapping <$t >; # [ inline ] fn  shr ( self ,  other : $f )->  Wrapping <$t > { Wrapping ( self .  0 .  wrapping_shr (( other &  self ::  shift_max ::$t  as $f ) as  u32 ))}} forward_ref_binop ! { impl  Shr ,  shr  for  Wrapping <$t >, $f , # [ stable ( feature =  "wrapping_ref_ops" ,  since =  "1.39.0" )]}# [ stable ( feature =  "op_assign_traits" ,  since =  "1.8.0" )] impl  ShrAssign <$f >  for  Wrapping <$t > {# [ inline ] fn  shr_assign (&  mut  self ,  other : $f ){*  self = *  self >>  other ; }} forward_ref_op_assign ! { impl  ShrAssign ,  shr_assign  for  Wrapping <$t >, $f }}; }
macro_rules! __ra_macro_fixture91 {( impl $imp :  ident , $method :  ident  for $t :  ty , $u :  ty )=>{ forward_ref_binop ! ( impl $imp , $method  for $t , $u , # [ stable ( feature =  "rust1" ,  since =  "1.0.0" )]); }; ( impl $imp :  ident , $method :  ident  for $t :  ty , $u :  ty , # [$attr :  meta ])=>{# [$attr ] impl < 'a > $imp <$u >  for & 'a $t { type  Output = <$t  as $imp <$u >>::  Output ; # [ inline ] fn $method ( self ,  other : $u )-> <$t  as $imp <$u >>::  Output {$imp ::$method (*  self ,  other )}}# [$attr ] impl $imp <&$u >  for $t { type  Output = <$t  as $imp <$u >>::  Output ; # [ inline ] fn $method ( self ,  other : &$u )-> <$t  as $imp <$u >>::  Output {$imp ::$method ( self , *  other )}}# [$attr ] impl $imp <&$u >  for &$t { type  Output = <$t  as $imp <$u >>::  Output ; # [ inline ] fn $method ( self ,  other : &$u )-> <$t  as $imp <$u >>::  Output {$imp ::$method (*  self , *  other )}}}}
macro_rules! __ra_macro_fixture92 {( impl $imp :  ident , $method :  ident  for $t :  ty , $u :  ty )=>{ forward_ref_op_assign ! ( impl $imp , $method  for $t , $u , # [ stable ( feature =  "op_assign_builtins_by_ref" ,  since =  "1.22.0" )]); }; ( impl $imp :  ident , $method :  ident  for $t :  ty , $u :  ty , # [$attr :  meta ])=>{# [$attr ] impl $imp <&$u >  for $t {# [ inline ] fn $method (&  mut  self ,  other : &$u ){$imp ::$method ( self , *  other ); }}}}
macro_rules! __ra_macro_fixture93 {( impl $imp :  ident , $method :  ident  for $t :  ty )=>{ forward_ref_unop ! ( impl $imp , $method  for $t , # [ stable ( feature =  "rust1" ,  since =  "1.0.0" )]); }; ( impl $imp :  ident , $method :  ident  for $t :  ty , # [$attr :  meta ])=>{# [$attr ] impl $imp  for &$t { type  Output = <$t  as $imp >::  Output ; # [ inline ] fn $method ( self )-> <$t  as $imp >::  Output {$imp ::$method (*  self )}}}}
macro_rules! __ra_macro_fixture94 {($FnTy :  ty , $($Arg :  ident ),*)=>{# [ stable ( feature =  "fnptr_impls" ,  since =  "1.4.0" )] impl <  Ret , $($Arg ),*>  PartialEq  for $FnTy {# [ inline ] fn  eq (&  self ,  other : &  Self )->  bool {*  self  as  usize == *  other  as  usize }}# [ stable ( feature =  "fnptr_impls" ,  since =  "1.4.0" )] impl <  Ret , $($Arg ),*>  Eq  for $FnTy {}# [ stable ( feature =  "fnptr_impls" ,  since =  "1.4.0" )] impl <  Ret , $($Arg ),*>  PartialOrd  for $FnTy {# [ inline ] fn  partial_cmp (&  self ,  other : &  Self )->  Option <  Ordering > {(*  self  as  usize ).  partial_cmp (& (*  other  as  usize ))}}# [ stable ( feature =  "fnptr_impls" ,  since =  "1.4.0" )] impl <  Ret , $($Arg ),*>  Ord  for $FnTy {# [ inline ] fn  cmp (&  self ,  other : &  Self )->  Ordering {(*  self  as  usize ).  cmp (& (*  other  as  usize ))}}# [ stable ( feature =  "fnptr_impls" ,  since =  "1.4.0" )] impl <  Ret , $($Arg ),*>  hash ::  Hash  for $FnTy { fn  hash <  HH :  hash ::  Hasher > (&  self ,  state : &  mut  HH ){ state .  write_usize (*  self  as  usize )}}# [ stable ( feature =  "fnptr_impls" ,  since =  "1.4.0" )] impl <  Ret , $($Arg ),*>  fmt ::  Pointer  for $FnTy { fn  fmt (&  self ,  f : &  mut  fmt ::  Formatter < '_ >)->  fmt ::  Result { fmt ::  Pointer ::  fmt (& (*  self  as  usize  as *  const ()),  f )}}# [ stable ( feature =  "fnptr_impls" ,  since =  "1.4.0" )] impl <  Ret , $($Arg ),*>  fmt ::  Debug  for $FnTy { fn  fmt (&  self ,  f : &  mut  fmt ::  Formatter < '_ >)->  fmt ::  Result { fmt ::  Pointer ::  fmt (& (*  self  as  usize  as *  const ()),  f )}}}}
macro_rules! __ra_macro_fixture95 {($t :  ty , $f :  ty )=>{# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  Shl <$f >  for $t { type  Output = $t ; # [ inline ]# [ rustc_inherit_overflow_checks ] fn  shl ( self ,  other : $f )-> $t { self <<  other }} forward_ref_binop ! { impl  Shl ,  shl  for $t , $f }}; }
macro_rules! __ra_macro_fixture96 {($t :  ty , $f :  ty )=>{# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  Shr <$f >  for $t { type  Output = $t ; # [ inline ]# [ rustc_inherit_overflow_checks ] fn  shr ( self ,  other : $f )-> $t { self >>  other }} forward_ref_binop ! { impl  Shr ,  shr  for $t , $f }}; }
macro_rules! __ra_macro_fixture97 {($t :  ty , $f :  ty )=>{# [ stable ( feature =  "op_assign_traits" ,  since =  "1.8.0" )] impl  ShlAssign <$f >  for $t {# [ inline ]# [ rustc_inherit_overflow_checks ] fn  shl_assign (&  mut  self ,  other : $f ){*  self <<=  other }} forward_ref_op_assign ! { impl  ShlAssign ,  shl_assign  for $t , $f }}; }
macro_rules! __ra_macro_fixture98 {($t :  ty , $f :  ty )=>{# [ stable ( feature =  "op_assign_traits" ,  since =  "1.8.0" )] impl  ShrAssign <$f >  for $t {# [ inline ]# [ rustc_inherit_overflow_checks ] fn  shr_assign (&  mut  self ,  other : $f ){*  self >>=  other }} forward_ref_op_assign ! { impl  ShrAssign ,  shr_assign  for $t , $f }}; }
macro_rules! __ra_macro_fixture99 {( fmt ::$Trait :  ident  for $T :  ident  as $U :  ident -> $Radix :  ident )=>{# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )] impl  fmt ::$Trait  for $T { fn  fmt (&  self ,  f : &  mut  fmt ::  Formatter < '_ >)->  fmt ::  Result {$Radix .  fmt_int (*  self  as $U ,  f )}}}; }
macro_rules! __ra_macro_fixture100 {($name :  ident , $($other :  ident ,)*)=>( tuple ! {$($other ,)* })}
macro_rules! __ra_macro_fixture101 {{ unsafe  fn $name :  ident : $adjacent_kv :  ident }=>{# [ doc =  " Given a leaf edge handle into an owned tree, returns a handle to the next KV," ]# [ doc =  " while deallocating any node left behind yet leaving the corresponding edge" ]# [ doc =  " in its parent node dangling." ]# [ doc =  "" ]# [ doc =  " # Safety" ]# [ doc =  " - The leaf edge must not be the last one in the direction travelled." ]# [ doc =  " - The node carrying the next KV returned must not have been deallocated by a" ]# [ doc =  "   previous call on any handle obtained for this tree." ] unsafe  fn $name <  K ,  V > ( leaf_edge :  Handle <  NodeRef <  marker ::  Owned ,  K ,  V ,  marker ::  Leaf >,  marker ::  Edge >, )->  Handle <  NodeRef <  marker ::  Owned ,  K ,  V ,  marker ::  LeafOrInternal >,  marker ::  KV > { let  mut  edge =  leaf_edge .  forget_node_type ();  loop { edge =  match  edge .$adjacent_kv (){ Ok ( internal_kv )=> return  internal_kv ,  Err ( last_edge )=>{ unsafe { let  parent_edge =  last_edge .  into_node ().  deallocate_and_ascend ();  unwrap_unchecked ( parent_edge ).  forget_node_type ()}}}}}}; }
macro_rules! __ra_macro_fixture102 {([$($vars :  tt )*]$lhs :  ty , $rhs :  ty , $($constraints :  tt )*)=>{# [ stable ( feature =  "vec_deque_partial_eq_slice" ,  since =  "1.17.0" )] impl <  A ,  B , $($vars )*>  PartialEq <$rhs >  for $lhs  where  A :  PartialEq <  B >, $($constraints )* { fn  eq (&  self ,  other : &$rhs )->  bool { if  self .  len ()!=  other .  len (){ return  false ; } let ( sa ,  sb )=  self .  as_slices ();  let ( oa ,  ob )=  other [..].  split_at ( sa .  len ());  sa ==  oa &&  sb ==  ob }}}}
macro_rules! __ra_macro_fixture103 {($lhs :  ty , $rhs :  ty )=>{# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )]# [ allow ( unused_lifetimes )] impl < 'a , 'b >  PartialEq <$rhs >  for $lhs {# [ inline ] fn  eq (&  self ,  other : &$rhs )->  bool { PartialEq ::  eq (&  self [..], &  other [..])}# [ inline ] fn  ne (&  self ,  other : &$rhs )->  bool { PartialEq ::  ne (&  self [..], &  other [..])}}# [ stable ( feature =  "rust1" ,  since =  "1.0.0" )]# [ allow ( unused_lifetimes )] impl < 'a , 'b >  PartialEq <$lhs >  for $rhs {# [ inline ] fn  eq (&  self ,  other : &$lhs )->  bool { PartialEq ::  eq (&  self [..], &  other [..])}# [ inline ] fn  ne (&  self ,  other : &$lhs )->  bool { PartialEq ::  ne (&  self [..], &  other [..])}}}; }
macro_rules! __ra_macro_fixture104 {($t :  ty , $is_zero :  expr )=>{ unsafe  impl  IsZero  for $t {# [ inline ] fn  is_zero (&  self )->  bool {$is_zero (*  self )}}}; }
macro_rules! __ra_macro_fixture105 {([$($vars :  tt )*]$lhs :  ty , $rhs :  ty $(where $ty :  ty : $bound :  ident )?, # [$stability :  meta ])=>{# [$stability ] impl <  A ,  B , $($vars )*>  PartialEq <$rhs >  for $lhs  where  A :  PartialEq <  B >, $($ty : $bound )? {# [ inline ] fn  eq (&  self ,  other : &$rhs )->  bool { self [..]==  other [..]}# [ inline ] fn  ne (&  self ,  other : &$rhs )->  bool { self [..]!=  other [..]}}}}
macro_rules! __ra_macro_fixture106 {('owned : $($oty :  ident ,)* 'interned : $($ity :  ident ,)* )=>{# [ repr ( C )]# [ allow ( non_snake_case )] pub  struct  HandleCounters {$($oty :  AtomicUsize ,)* $($ity :  AtomicUsize ,)* } impl  HandleCounters { extern  "C"  fn  get ()-> & 'static  Self { static  COUNTERS :  HandleCounters =  HandleCounters {$($oty :  AtomicUsize ::  new ( 1 ),)* $($ity :  AtomicUsize ::  new ( 1 ),)* }; &  COUNTERS }}# [ repr ( C )]# [ allow ( non_snake_case )] pub ( super ) struct  HandleStore <  S :  server ::  Types > {$($oty :  handle ::  OwnedStore <  S ::$oty >,)* $($ity :  handle ::  InternedStore <  S ::$ity >,)* } impl <  S :  server ::  Types >  HandleStore <  S > { pub ( super ) fn  new ( handle_counters : & 'static  HandleCounters )->  Self { HandleStore {$($oty :  handle ::  OwnedStore ::  new (&  handle_counters .$oty ),)* $($ity :  handle ::  InternedStore ::  new (&  handle_counters .$ity ),)* }}}$(# [ repr ( C )] pub ( crate ) struct $oty ( handle ::  Handle );  impl !  Send  for $oty {} impl !  Sync  for $oty {} impl  Drop  for $oty { fn  drop (&  mut  self ){$oty ( self .  0 ).  drop (); }} impl <  S >  Encode <  S >  for $oty { fn  encode ( self ,  w : &  mut  Writer ,  s : &  mut  S ){ let  handle =  self .  0 ;  mem ::  forget ( self );  handle .  encode ( w ,  s ); }} impl <  S :  server ::  Types >  DecodeMut < '_ , '_ ,  HandleStore <  server ::  MarkedTypes <  S >>>  for  Marked <  S ::$oty , $oty > { fn  decode ( r : &  mut  Reader < '_ >,  s : &  mut  HandleStore <  server ::  MarkedTypes <  S >>)->  Self { s .$oty .  take ( handle ::  Handle ::  decode ( r , &  mut ()))}} impl <  S >  Encode <  S >  for &$oty { fn  encode ( self ,  w : &  mut  Writer ,  s : &  mut  S ){ self .  0 .  encode ( w ,  s ); }} impl <  S :  server ::  Types >  Decode < '_ , 's ,  HandleStore <  server ::  MarkedTypes <  S >>>  for & 's  Marked <  S ::$oty , $oty > { fn  decode ( r : &  mut  Reader < '_ >,  s : & 's  HandleStore <  server ::  MarkedTypes <  S >>)->  Self {&  s .$oty [ handle ::  Handle ::  decode ( r , &  mut ())]}} impl <  S >  Encode <  S >  for &  mut $oty { fn  encode ( self ,  w : &  mut  Writer ,  s : &  mut  S ){ self .  0 .  encode ( w ,  s ); }} impl <  S :  server ::  Types >  DecodeMut < '_ , 's ,  HandleStore <  server ::  MarkedTypes <  S >>>  for & 's  mut  Marked <  S ::$oty , $oty > { fn  decode ( r : &  mut  Reader < '_ >,  s : & 's  mut  HandleStore <  server ::  MarkedTypes <  S >> )->  Self {&  mut  s .$oty [ handle ::  Handle ::  decode ( r , &  mut ())]}} impl <  S :  server ::  Types >  Encode <  HandleStore <  server ::  MarkedTypes <  S >>>  for  Marked <  S ::$oty , $oty > { fn  encode ( self ,  w : &  mut  Writer ,  s : &  mut  HandleStore <  server ::  MarkedTypes <  S >>){ s .$oty .  alloc ( self ).  encode ( w ,  s ); }} impl <  S >  DecodeMut < '_ , '_ ,  S >  for $oty { fn  decode ( r : &  mut  Reader < '_ >,  s : &  mut  S )->  Self {$oty ( handle ::  Handle ::  decode ( r ,  s ))}})* $(# [ repr ( C )]# [ derive ( Copy ,  Clone ,  PartialEq ,  Eq ,  Hash )] pub ( crate ) struct $ity ( handle ::  Handle );  impl !  Send  for $ity {} impl !  Sync  for $ity {} impl <  S >  Encode <  S >  for $ity { fn  encode ( self ,  w : &  mut  Writer ,  s : &  mut  S ){ self .  0 .  encode ( w ,  s ); }} impl <  S :  server ::  Types >  DecodeMut < '_ , '_ ,  HandleStore <  server ::  MarkedTypes <  S >>>  for  Marked <  S ::$ity , $ity > { fn  decode ( r : &  mut  Reader < '_ >,  s : &  mut  HandleStore <  server ::  MarkedTypes <  S >>)->  Self { s .$ity .  copy ( handle ::  Handle ::  decode ( r , &  mut ()))}} impl <  S :  server ::  Types >  Encode <  HandleStore <  server ::  MarkedTypes <  S >>>  for  Marked <  S ::$ity , $ity > { fn  encode ( self ,  w : &  mut  Writer ,  s : &  mut  HandleStore <  server ::  MarkedTypes <  S >>){ s .$ity .  alloc ( self ).  encode ( w ,  s ); }} impl <  S >  DecodeMut < '_ , '_ ,  S >  for $ity { fn  decode ( r : &  mut  Reader < '_ >,  s : &  mut  S )->  Self {$ity ( handle ::  Handle ::  decode ( r ,  s ))}})* }}
macro_rules! __ra_macro_fixture107 {($S :  ident , $self :  ident , $m :  ident )=>{$m ! { FreeFunctions { fn  drop ($self : $S ::  FreeFunctions );  fn  track_env_var ( var : &  str ,  value :  Option <&  str >); },  TokenStream { fn  drop ($self : $S ::  TokenStream );  fn  clone ($self : &$S ::  TokenStream )-> $S ::  TokenStream ;  fn  new ()-> $S ::  TokenStream ;  fn  is_empty ($self : &$S ::  TokenStream )->  bool ;  fn  from_str ( src : &  str )-> $S ::  TokenStream ;  fn  to_string ($self : &$S ::  TokenStream )->  String ;  fn  from_token_tree ( tree :  TokenTree <$S ::  Group , $S ::  Punct , $S ::  Ident , $S ::  Literal >, )-> $S ::  TokenStream ;  fn  into_iter ($self : $S ::  TokenStream )-> $S ::  TokenStreamIter ; },  TokenStreamBuilder { fn  drop ($self : $S ::  TokenStreamBuilder );  fn  new ()-> $S ::  TokenStreamBuilder ;  fn  push ($self : &  mut $S ::  TokenStreamBuilder ,  stream : $S ::  TokenStream );  fn  build ($self : $S ::  TokenStreamBuilder )-> $S ::  TokenStream ; },  TokenStreamIter { fn  drop ($self : $S ::  TokenStreamIter );  fn  clone ($self : &$S ::  TokenStreamIter )-> $S ::  TokenStreamIter ;  fn  next ($self : &  mut $S ::  TokenStreamIter , )->  Option <  TokenTree <$S ::  Group , $S ::  Punct , $S ::  Ident , $S ::  Literal >>; },  Group { fn  drop ($self : $S ::  Group );  fn  clone ($self : &$S ::  Group )-> $S ::  Group ;  fn  new ( delimiter :  Delimiter ,  stream : $S ::  TokenStream )-> $S ::  Group ;  fn  delimiter ($self : &$S ::  Group )->  Delimiter ;  fn  stream ($self : &$S ::  Group )-> $S ::  TokenStream ;  fn  span ($self : &$S ::  Group )-> $S ::  Span ;  fn  span_open ($self : &$S ::  Group )-> $S ::  Span ;  fn  span_close ($self : &$S ::  Group )-> $S ::  Span ;  fn  set_span ($self : &  mut $S ::  Group ,  span : $S ::  Span ); },  Punct { fn  new ( ch :  char ,  spacing :  Spacing )-> $S ::  Punct ;  fn  as_char ($self : $S ::  Punct )->  char ;  fn  spacing ($self : $S ::  Punct )->  Spacing ;  fn  span ($self : $S ::  Punct )-> $S ::  Span ;  fn  with_span ($self : $S ::  Punct ,  span : $S ::  Span )-> $S ::  Punct ; },  Ident { fn  new ( string : &  str ,  span : $S ::  Span ,  is_raw :  bool )-> $S ::  Ident ;  fn  span ($self : $S ::  Ident )-> $S ::  Span ;  fn  with_span ($self : $S ::  Ident ,  span : $S ::  Span )-> $S ::  Ident ; },  Literal { fn  drop ($self : $S ::  Literal );  fn  clone ($self : &$S ::  Literal )-> $S ::  Literal ;  fn  debug_kind ($self : &$S ::  Literal )->  String ;  fn  symbol ($self : &$S ::  Literal )->  String ;  fn  suffix ($self : &$S ::  Literal )->  Option <  String >;  fn  integer ( n : &  str )-> $S ::  Literal ;  fn  typed_integer ( n : &  str ,  kind : &  str )-> $S ::  Literal ;  fn  float ( n : &  str )-> $S ::  Literal ;  fn  f32 ( n : &  str )-> $S ::  Literal ;  fn  f64 ( n : &  str )-> $S ::  Literal ;  fn  string ( string : &  str )-> $S ::  Literal ;  fn  character ( ch :  char )-> $S ::  Literal ;  fn  byte_string ( bytes : & [ u8 ])-> $S ::  Literal ;  fn  span ($self : &$S ::  Literal )-> $S ::  Span ;  fn  set_span ($self : &  mut $S ::  Literal ,  span : $S ::  Span );  fn  subspan ($self : &$S ::  Literal ,  start :  Bound <  usize >,  end :  Bound <  usize >, )->  Option <$S ::  Span >; },  SourceFile { fn  drop ($self : $S ::  SourceFile );  fn  clone ($self : &$S ::  SourceFile )-> $S ::  SourceFile ;  fn  eq ($self : &$S ::  SourceFile ,  other : &$S ::  SourceFile )->  bool ;  fn  path ($self : &$S ::  SourceFile )->  String ;  fn  is_real ($self : &$S ::  SourceFile )->  bool ; },  MultiSpan { fn  drop ($self : $S ::  MultiSpan );  fn  new ()-> $S ::  MultiSpan ;  fn  push ($self : &  mut $S ::  MultiSpan ,  span : $S ::  Span ); },  Diagnostic { fn  drop ($self : $S ::  Diagnostic );  fn  new ( level :  Level ,  msg : &  str ,  span : $S ::  MultiSpan )-> $S ::  Diagnostic ;  fn  sub ($self : &  mut $S ::  Diagnostic ,  level :  Level ,  msg : &  str ,  span : $S ::  MultiSpan , );  fn  emit ($self : $S ::  Diagnostic ); },  Span { fn  debug ($self : $S ::  Span )->  String ;  fn  def_site ()-> $S ::  Span ;  fn  call_site ()-> $S ::  Span ;  fn  mixed_site ()-> $S ::  Span ;  fn  source_file ($self : $S ::  Span )-> $S ::  SourceFile ;  fn  parent ($self : $S ::  Span )->  Option <$S ::  Span >;  fn  source ($self : $S ::  Span )-> $S ::  Span ;  fn  start ($self : $S ::  Span )->  LineColumn ;  fn  end ($self : $S ::  Span )->  LineColumn ;  fn  join ($self : $S ::  Span ,  other : $S ::  Span )->  Option <$S ::  Span >;  fn  resolved_at ($self : $S ::  Span ,  at : $S ::  Span )-> $S ::  Span ;  fn  source_text ($self : $S ::  Span )->  Option <  String >; }, }}; }
macro_rules! __ra_macro_fixture108 {( le $ty :  ty )=>{ impl <  S >  Encode <  S >  for $ty { fn  encode ( self ,  w : &  mut  Writer , _: &  mut  S ){ w .  write_all (&  self .  to_le_bytes ()).  unwrap (); }} impl <  S >  DecodeMut < '_ , '_ ,  S >  for $ty { fn  decode ( r : &  mut  Reader < '_ >, _: &  mut  S )->  Self { const  N :  usize = ::  std ::  mem ::  size_of ::<$ty > ();  let  mut  bytes = [ 0 ;  N ];  bytes .  copy_from_slice (&  r [..  N ]); *  r = &  r [ N ..];  Self ::  from_le_bytes ( bytes )}}}; ( struct $name :  ident {$($field :  ident ),* $(,)? })=>{ impl <  S >  Encode <  S >  for $name { fn  encode ( self ,  w : &  mut  Writer ,  s : &  mut  S ){$(self .$field .  encode ( w ,  s );)* }} impl <  S >  DecodeMut < '_ , '_ ,  S >  for $name { fn  decode ( r : &  mut  Reader < '_ >,  s : &  mut  S )->  Self {$name {$($field :  DecodeMut ::  decode ( r ,  s )),* }}}}; ( enum $name :  ident $(<$($T :  ident ),+>)? {$($variant :  ident $(($field :  ident ))*),* $(,)? })=>{ impl <  S , $($($T :  Encode <  S >),+)?>  Encode <  S >  for $name $(<$($T ),+>)? { fn  encode ( self ,  w : &  mut  Writer ,  s : &  mut  S ){# [ allow ( non_upper_case_globals )] mod  tag {# [ repr ( u8 )] enum  Tag {$($variant ),* }$(pub  const $variant :  u8 =  Tag ::$variant  as  u8 ;)* } match  self {$($name ::$variant $(($field ))* =>{ tag ::$variant .  encode ( w ,  s ); $($field .  encode ( w ,  s );)* })* }}} impl <  S , $($($T :  for < 's >  DecodeMut < 'a , 's ,  S >),+)?>  DecodeMut < 'a , '_ ,  S >  for $name $(<$($T ),+>)? { fn  decode ( r : &  mut  Reader < 'a >,  s : &  mut  S )->  Self {# [ allow ( non_upper_case_globals )] mod  tag {# [ repr ( u8 )] enum  Tag {$($variant ),* }$(pub  const $variant :  u8 =  Tag ::$variant  as  u8 ;)* } match  u8 ::  decode ( r ,  s ){$(tag ::$variant =>{$(let $field =  DecodeMut ::  decode ( r ,  s );)* $name ::$variant $(($field ))* })* _ => unreachable ! (), }}}}}
macro_rules! __ra_macro_fixture109 {($($ty :  ty ),* $(,)?)=>{$(impl  Mark  for $ty { type  Unmarked =  Self ;  fn  mark ( unmarked :  Self ::  Unmarked )->  Self { unmarked }} impl  Unmark  for $ty { type  Unmarked =  Self ;  fn  unmark ( self )->  Self ::  Unmarked { self }})* }}
macro_rules! __ra_macro_fixture110 {($($name :  ident {$(fn $method :  ident ($($arg :  ident : $arg_ty :  ty ),* $(,)?)$(-> $ret_ty :  ty )*;)* }),* $(,)?)=>{$(impl $name {$(pub ( crate ) fn $method ($($arg : $arg_ty ),*)$(-> $ret_ty )* { Bridge ::  with (|  bridge | { let  mut  b =  bridge .  cached_buffer .  take ();  b .  clear ();  api_tags ::  Method ::$name ( api_tags ::$name ::$method ).  encode (&  mut  b , &  mut ());  reverse_encode ! ( b ; $($arg ),*);  b =  bridge .  dispatch .  call ( b );  let  r =  Result ::<_,  PanicMessage >::  decode (&  mut &  b [..], &  mut ());  bridge .  cached_buffer =  b ;  r .  unwrap_or_else (|  e |  panic ::  resume_unwind ( e .  into ()))})})* })* }}
macro_rules! __ra_macro_fixture111 {($($name :  ident {$(fn $method :  ident ($($arg :  ident : $arg_ty :  ty ),* $(,)?)$(-> $ret_ty :  ty )?;)* }),* $(,)?)=>{ pub  trait  Types {$(associated_item ! ( type $name );)* }$(pub  trait $name :  Types {$(associated_item ! ( fn $method (&  mut  self , $($arg : $arg_ty ),*)$(-> $ret_ty )?);)* })*  pub  trait  Server :  Types $(+ $name )* {} impl <  S :  Types $(+ $name )*>  Server  for  S {}}}
macro_rules! __ra_macro_fixture112 {($($name :  ident {$(fn $method :  ident ($($arg :  ident : $arg_ty :  ty ),* $(,)?)$(-> $ret_ty :  ty )?;)* }),* $(,)?)=>{ impl <  S :  Types >  Types  for  MarkedTypes <  S > {$(type $name =  Marked <  S ::$name ,  client ::$name >;)* }$(impl <  S : $name > $name  for  MarkedTypes <  S > {$(fn $method (&  mut  self , $($arg : $arg_ty ),*)$(-> $ret_ty )? {<_>::  mark ($name ::$method (&  mut  self .  0 , $($arg .  unmark ()),*))})* })* }}
macro_rules! __ra_macro_fixture113 {($($name :  ident {$(fn $method :  ident ($($arg :  ident : $arg_ty :  ty ),* $(,)?)$(-> $ret_ty :  ty )?;)* }),* $(,)?)=>{ pub  trait  DispatcherTrait {$(type $name ;)*  fn  dispatch (&  mut  self ,  b :  Buffer <  u8 >)->  Buffer <  u8 >; } impl <  S :  Server >  DispatcherTrait  for  Dispatcher <  MarkedTypes <  S >> {$(type $name = <  MarkedTypes <  S >  as  Types >::$name ;)*  fn  dispatch (&  mut  self ,  mut  b :  Buffer <  u8 >)->  Buffer <  u8 > { let  Dispatcher { handle_store ,  server }=  self ;  let  mut  reader = &  b [..];  match  api_tags ::  Method ::  decode (&  mut  reader , &  mut ()){$(api_tags ::  Method ::$name ( m )=> match  m {$(api_tags ::$name ::$method =>{ let  mut  call_method = || { reverse_decode ! ( reader ,  handle_store ; $($arg : $arg_ty ),*); $name ::$method ( server , $($arg ),*)};  let  r =  if  thread ::  panicking (){ Ok ( call_method ())} else { panic ::  catch_unwind ( panic ::  AssertUnwindSafe ( call_method )).  map_err ( PanicMessage ::  from )};  b .  clear ();  r .  encode (&  mut  b ,  handle_store ); })* }),* } b }}}}
macro_rules! __ra_macro_fixture114 {($($name :  ident {$(fn $method :  ident ($($arg :  ident : $arg_ty :  ty ),* $(,)?)$(-> $ret_ty :  ty )*;)* }),* $(,)?)=>{$(pub ( super ) enum $name {$($method ),* } rpc_encode_decode ! ( enum $name {$($method ),* }); )*  pub ( super ) enum  Method {$($name ($name )),* } rpc_encode_decode ! ( enum  Method {$($name ( m )),* }); }}
macro_rules! __ra_macro_fixture115 {($(if # [ cfg ($meta :  meta )]{$($tokens :  tt )* }) else *  else {$($tokens2 :  tt )* })=>{$crate ::  cfg_if ! {@  __items (); $((($meta )($($tokens )*)), )* (()($($tokens2 )*)), }}; ( if # [ cfg ($i_met :  meta )]{$($i_tokens :  tt )* }$(else  if # [ cfg ($e_met :  meta )]{$($e_tokens :  tt )* })* )=>{$crate ::  cfg_if ! {@  __items (); (($i_met )($($i_tokens )*)), $((($e_met )($($e_tokens )*)), )* (()()), }}; (@  __items ($($not :  meta ,)*); )=>{}; (@  __items ($($not :  meta ,)*); (($($m :  meta ),*)($($tokens :  tt )*)), $($rest :  tt )*)=>{# [ cfg ( all ($($m ,)*  not ( any ($($not ),*))))]$crate ::  cfg_if ! {@  __identity $($tokens )* }$crate ::  cfg_if ! {@  __items ($($not ,)* $($m ,)*); $($rest )* }}; (@  __identity $($tokens :  tt )*)=>{$($tokens )* }; }
macro_rules! __ra_macro_fixture116 {($lhs :  ty , $rhs :  ty )=>{# [ stable ( feature =  "cmp_os_str" ,  since =  "1.8.0" )] impl < 'a , 'b >  PartialEq <$rhs >  for $lhs {# [ inline ] fn  eq (&  self ,  other : &$rhs )->  bool {<  OsStr  as  PartialEq >::  eq ( self ,  other )}}# [ stable ( feature =  "cmp_os_str" ,  since =  "1.8.0" )] impl < 'a , 'b >  PartialEq <$lhs >  for $rhs {# [ inline ] fn  eq (&  self ,  other : &$lhs )->  bool {<  OsStr  as  PartialEq >::  eq ( self ,  other )}}# [ stable ( feature =  "cmp_os_str" ,  since =  "1.8.0" )] impl < 'a , 'b >  PartialOrd <$rhs >  for $lhs {# [ inline ] fn  partial_cmp (&  self ,  other : &$rhs )->  Option <  cmp ::  Ordering > {<  OsStr  as  PartialOrd >::  partial_cmp ( self ,  other )}}# [ stable ( feature =  "cmp_os_str" ,  since =  "1.8.0" )] impl < 'a , 'b >  PartialOrd <$lhs >  for $rhs {# [ inline ] fn  partial_cmp (&  self ,  other : &$lhs )->  Option <  cmp ::  Ordering > {<  OsStr  as  PartialOrd >::  partial_cmp ( self ,  other )}}}; }
macro_rules! __ra_macro_fixture117 {()=>{}; ($(# [$attr :  meta ])* $vis :  vis  static $name :  ident : $t :  ty = $init :  expr ; $($rest :  tt )*)=>($crate ::  __thread_local_inner ! ($(# [$attr ])* $vis $name , $t , $init ); $crate ::  thread_local ! ($($rest )*); ); ($(# [$attr :  meta ])* $vis :  vis  static $name :  ident : $t :  ty = $init :  expr )=>($crate ::  __thread_local_inner ! ($(# [$attr ])* $vis $name , $t , $init ); ); }
macro_rules! __ra_macro_fixture118 {($($t :  ty )*)=>($(impl  ReadNumberHelper  for $t { const  ZERO :  Self =  0 ; # [ inline ] fn  checked_mul (&  self ,  other :  u32 )->  Option <  Self > { Self ::  checked_mul (*  self ,  other .  try_into ().  ok ()?)}# [ inline ] fn  checked_add (&  self ,  other :  u32 )->  Option <  Self > { Self ::  checked_add (*  self ,  other .  try_into ().  ok ()?)}})*)}
macro_rules! __ra_macro_fixture119 {($lhs :  ty , $rhs :  ty )=>{# [ stable ( feature =  "partialeq_path" ,  since =  "1.6.0" )] impl < 'a , 'b >  PartialEq <$rhs >  for $lhs {# [ inline ] fn  eq (&  self ,  other : &$rhs )->  bool {<  Path  as  PartialEq >::  eq ( self ,  other )}}# [ stable ( feature =  "partialeq_path" ,  since =  "1.6.0" )] impl < 'a , 'b >  PartialEq <$lhs >  for $rhs {# [ inline ] fn  eq (&  self ,  other : &$lhs )->  bool {<  Path  as  PartialEq >::  eq ( self ,  other )}}# [ stable ( feature =  "cmp_path" ,  since =  "1.8.0" )] impl < 'a , 'b >  PartialOrd <$rhs >  for $lhs {# [ inline ] fn  partial_cmp (&  self ,  other : &$rhs )->  Option <  cmp ::  Ordering > {<  Path  as  PartialOrd >::  partial_cmp ( self ,  other )}}# [ stable ( feature =  "cmp_path" ,  since =  "1.8.0" )] impl < 'a , 'b >  PartialOrd <$lhs >  for $rhs {# [ inline ] fn  partial_cmp (&  self ,  other : &$lhs )->  Option <  cmp ::  Ordering > {<  Path  as  PartialOrd >::  partial_cmp ( self ,  other )}}}; }
macro_rules! __ra_macro_fixture120 {($lhs :  ty , $rhs :  ty )=>{# [ stable ( feature =  "cmp_path" ,  since =  "1.8.0" )] impl < 'a , 'b >  PartialEq <$rhs >  for $lhs {# [ inline ] fn  eq (&  self ,  other : &$rhs )->  bool {<  Path  as  PartialEq >::  eq ( self ,  other .  as_ref ())}}# [ stable ( feature =  "cmp_path" ,  since =  "1.8.0" )] impl < 'a , 'b >  PartialEq <$lhs >  for $rhs {# [ inline ] fn  eq (&  self ,  other : &$lhs )->  bool {<  Path  as  PartialEq >::  eq ( self .  as_ref (),  other )}}# [ stable ( feature =  "cmp_path" ,  since =  "1.8.0" )] impl < 'a , 'b >  PartialOrd <$rhs >  for $lhs {# [ inline ] fn  partial_cmp (&  self ,  other : &$rhs )->  Option <  cmp ::  Ordering > {<  Path  as  PartialOrd >::  partial_cmp ( self ,  other .  as_ref ())}}# [ stable ( feature =  "cmp_path" ,  since =  "1.8.0" )] impl < 'a , 'b >  PartialOrd <$lhs >  for $rhs {# [ inline ] fn  partial_cmp (&  self ,  other : &$lhs )->  Option <  cmp ::  Ordering > {<  Path  as  PartialOrd >::  partial_cmp ( self .  as_ref (),  other )}}}; }
macro_rules! __ra_macro_fixture121 {(@  key $t :  ty , $init :  expr )=>{{# [ inline ] fn  __init ()-> $t {$init } unsafe  fn  __getit ()-> $crate ::  option ::  Option <& 'static $t > {# [ cfg ( all ( target_arch =  "wasm32" ,  not ( target_feature =  "atomics" )))] static  __KEY : $crate ::  thread ::  __StaticLocalKeyInner <$t > = $crate ::  thread ::  __StaticLocalKeyInner ::  new (); # [ thread_local ]# [ cfg ( all ( target_thread_local ,  not ( all ( target_arch =  "wasm32" ,  not ( target_feature =  "atomics" ))), ))] static  __KEY : $crate ::  thread ::  __FastLocalKeyInner <$t > = $crate ::  thread ::  __FastLocalKeyInner ::  new (); # [ cfg ( all ( not ( target_thread_local ),  not ( all ( target_arch =  "wasm32" ,  not ( target_feature =  "atomics" ))), ))] static  __KEY : $crate ::  thread ::  __OsLocalKeyInner <$t > = $crate ::  thread ::  __OsLocalKeyInner ::  new (); # [ allow ( unused_unsafe )] unsafe { __KEY .  get ( __init )}} unsafe {$crate ::  thread ::  LocalKey ::  new ( __getit )}}}; ($(# [$attr :  meta ])* $vis :  vis $name :  ident , $t :  ty , $init :  expr )=>{$(# [$attr ])* $vis  const $name : $crate ::  thread ::  LocalKey <$t > = $crate ::  __thread_local_inner ! (@  key $t , $init ); }}
macro_rules! __ra_macro_fixture122 {({$($then_tt :  tt )* } else {$($else_tt :  tt )* })=>{ cfg_if ::  cfg_if ! { if # [ cfg ( all ( target_os =  "linux" ,  target_env =  "gnu" ))]{$($then_tt )* } else {$($else_tt )* }}}; ($($block_inner :  tt )*)=>{# [ cfg ( all ( target_os =  "linux" ,  target_env =  "gnu" ))]{$($block_inner )* }}; }
macro_rules! __ra_macro_fixture123 {($($t :  ident )*)=>($(impl  IsMinusOne  for $t { fn  is_minus_one (&  self )->  bool {*  self == -  1 }})*)}
macro_rules! __ra_macro_fixture124 {($(if # [ cfg ($($meta :  meta ),*)]{$($it :  item )* }) else *  else {$($it2 :  item )* })=>{ cfg_if ! {@  __items (); $((($($meta ),*)($($it )*)), )* (()($($it2 )*)), }}; ( if # [ cfg ($($i_met :  meta ),*)]{$($i_it :  item )* }$(else  if # [ cfg ($($e_met :  meta ),*)]{$($e_it :  item )* })* )=>{ cfg_if ! {@  __items (); (($($i_met ),*)($($i_it )*)), $((($($e_met ),*)($($e_it )*)), )* (()()), }}; (@  __items ($($not :  meta ,)*); )=>{}; (@  __items ($($not :  meta ,)*); (($($m :  meta ),*)($($it :  item )*)), $($rest :  tt )*)=>{ cfg_if ! {@  __apply  cfg ( all ($($m ,)*  not ( any ($($not ),*)))), $($it )* } cfg_if ! {@  __items ($($not ,)* $($m ,)*); $($rest )* }}; (@  __apply $m :  meta , $($it :  item )*)=>{$(# [$m ]$it )* }; }
macro_rules! __ra_macro_fixture125 {($bench_macro :  ident , $bench_ahash_serial :  ident , $bench_std_serial :  ident , $bench_ahash_highbits :  ident , $bench_std_highbits :  ident , $bench_ahash_random :  ident , $bench_std_random :  ident )=>{$bench_macro ! ($bench_ahash_serial ,  AHashMap ,  0 ..); $bench_macro ! ($bench_std_serial ,  StdHashMap ,  0 ..); $bench_macro ! ($bench_ahash_highbits ,  AHashMap , ( 0 ..).  map ( usize ::  swap_bytes )); $bench_macro ! ($bench_std_highbits ,  StdHashMap , ( 0 ..).  map ( usize ::  swap_bytes )); $bench_macro ! ($bench_ahash_random ,  AHashMap ,  RandomKeys ::  new ()); $bench_macro ! ($bench_std_random ,  StdHashMap ,  RandomKeys ::  new ()); }; }
macro_rules! __ra_macro_fixture126 {($name :  ident , $maptype :  ident , $keydist :  expr )=>{# [ bench ] fn $name ( b : &  mut  Bencher ){ let  mut  m = $maptype ::  with_capacity_and_hasher ( SIZE ,  Default ::  default ());  b .  iter (|| { m .  clear ();  for  i  in ($keydist ).  take ( SIZE ){ m .  insert ( i ,  i ); } black_box (&  mut  m ); })}}; }
macro_rules! __ra_macro_fixture127 {($name :  ident , $maptype :  ident , $keydist :  expr )=>{# [ bench ] fn $name ( b : &  mut  Bencher ){ let  mut  base = $maptype ::  default ();  for  i  in ($keydist ).  take ( SIZE ){ base .  insert ( i ,  i ); } let  skip = $keydist .  skip ( SIZE );  b .  iter (|| { let  mut  m =  base .  clone ();  let  mut  add_iter =  skip .  clone ();  let  mut  remove_iter = $keydist ;  for ( add ,  remove ) in (&  mut  add_iter ).  zip (&  mut  remove_iter ).  take ( SIZE ){ m .  insert ( add ,  add );  black_box ( m .  remove (&  remove )); } black_box ( m ); })}}; }
macro_rules! __ra_macro_fixture128 {($name :  ident , $maptype :  ident , $keydist :  expr )=>{# [ bench ] fn $name ( b : &  mut  Bencher ){ let  mut  m = $maptype ::  default ();  for  i  in $keydist .  take ( SIZE ){ m .  insert ( i ,  i ); } b .  iter (|| { for  i  in $keydist .  take ( SIZE ){ black_box ( m .  get (&  i )); }})}}; }
macro_rules! __ra_macro_fixture129 {($name :  ident , $maptype :  ident , $keydist :  expr )=>{# [ bench ] fn $name ( b : &  mut  Bencher ){ let  mut  m = $maptype ::  default ();  let  mut  iter = $keydist ;  for  i  in (&  mut  iter ).  take ( SIZE ){ m .  insert ( i ,  i ); } b .  iter (|| { for  i  in (&  mut  iter ).  take ( SIZE ){ black_box ( m .  get (&  i )); }})}}; }
macro_rules! __ra_macro_fixture130 {($name :  ident , $maptype :  ident , $keydist :  expr )=>{# [ bench ] fn $name ( b : &  mut  Bencher ){ let  mut  m = $maptype ::  default ();  for  i  in ($keydist ).  take ( SIZE ){ m .  insert ( i ,  i ); } b .  iter (|| { for  i  in &  m { black_box ( i ); }})}}; }
macro_rules! __ra_macro_fixture131 {($(if # [ cfg ($($meta :  meta ),*)]{$($it :  item )* }) else *  else {$($it2 :  item )* })=>{ cfg_if ! {@  __items (); $((($($meta ),*)($($it )*)), )* (()($($it2 )*)), }}; ( if # [ cfg ($($i_met :  meta ),*)]{$($i_it :  item )* }$(else  if # [ cfg ($($e_met :  meta ),*)]{$($e_it :  item )* })* )=>{ cfg_if ! {@  __items (); (($($i_met ),*)($($i_it )*)), $((($($e_met ),*)($($e_it )*)), )* (()()), }}; (@  __items ($($not :  meta ,)*); )=>{}; (@  __items ($($not :  meta ,)*); (($($m :  meta ),*)($($it :  item )*)), $($rest :  tt )*)=>{ cfg_if ! {@  __apply  cfg ( all ($($m ,)*  not ( any ($($not ),*)))), $($it )* } cfg_if ! {@  __items ($($not ,)* $($m ,)*); $($rest )* }}; (@  __apply $m :  meta , $($it :  item )*)=>{$(# [$m ]$it )* }; }
macro_rules! __ra_macro_fixture132 {($($(# [$attr :  meta ])*  pub $t :  ident $i :  ident {$($field :  tt )* })*)=>($(s ! ( it : $(# [$attr ])*  pub $t $i {$($field )* }); )*); ( it : $(# [$attr :  meta ])*  pub  union $i :  ident {$($field :  tt )* })=>( compile_error ! ( "unions cannot derive extra traits, use s_no_extra_traits instead" ); ); ( it : $(# [$attr :  meta ])*  pub  struct $i :  ident {$($field :  tt )* })=>( __item ! {# [ repr ( C )]# [ cfg_attr ( feature =  "extra_traits" ,  derive ( Debug ,  Eq ,  Hash ,  PartialEq ))]# [ allow ( deprecated )]$(# [$attr ])*  pub  struct $i {$($field )* }}# [ allow ( deprecated )] impl ::  Copy  for $i {}# [ allow ( deprecated )] impl ::  Clone  for $i { fn  clone (&  self )-> $i {*  self }}); }
macro_rules! __ra_macro_fixture133 {($i :  item )=>{$i }; }
macro_rules! __ra_macro_fixture134 {($($(# [$attr :  meta ])*  pub $t :  ident $i :  ident {$($field :  tt )* })*)=>($(s_no_extra_traits ! ( it : $(# [$attr ])*  pub $t $i {$($field )* }); )*); ( it : $(# [$attr :  meta ])*  pub  union $i :  ident {$($field :  tt )* })=>( cfg_if ! { if # [ cfg ( libc_union )]{ __item ! {# [ repr ( C )]$(# [$attr ])*  pub  union $i {$($field )* }} impl ::  Copy  for $i {} impl ::  Clone  for $i { fn  clone (&  self )-> $i {*  self }}}}); ( it : $(# [$attr :  meta ])*  pub  struct $i :  ident {$($field :  tt )* })=>( __item ! {# [ repr ( C )]$(# [$attr ])*  pub  struct $i {$($field )* }}# [ allow ( deprecated )] impl ::  Copy  for $i {}# [ allow ( deprecated )] impl ::  Clone  for $i { fn  clone (&  self )-> $i {*  self }}); }
macro_rules! __ra_macro_fixture135 {($($(# [$attr :  meta ])*  pub  const $name :  ident : $t1 :  ty = $t2 :  ident {$($field :  tt )* };)*)=>($(# [ cfg ( libc_align )]$(# [$attr ])*  pub  const $name : $t1 = $t2 {$($field )* }; # [ cfg ( not ( libc_align ))]$(# [$attr ])*  pub  const $name : $t1 = $t2 {$($field )*  __align : [], }; )*)}
macro_rules! __ra_macro_fixture136 {($($args :  tt )* )=>{$(define_ioctl ! ($args ); )* }}
macro_rules! __ra_macro_fixture137 {({$name :  ident , $ioctl :  ident , $arg_type :  ty })=>{ pub  unsafe  fn $name ( fd :  c_int ,  arg : $arg_type )->  c_int { untyped_ioctl ( fd ,  bindings ::$ioctl ,  arg )}}; }
macro_rules! __ra_macro_fixture138 {($($T :  ty ),*)=>{$(impl  IdentFragment  for $T { fn  fmt (&  self ,  f : &  mut  fmt ::  Formatter )->  fmt ::  Result { fmt ::  Display ::  fmt ( self ,  f )}})* }}
macro_rules! __ra_macro_fixture139 {($($t :  ident =>$name :  ident )*)=>($(impl  ToTokens  for $t { fn  to_tokens (&  self ,  tokens : &  mut  TokenStream ){ tokens .  append ( Literal ::$name (*  self )); }})*)}
macro_rules! __ra_macro_fixture140 {($($l :  tt )*)=>{$(impl < 'q ,  T : 'q >  RepAsIteratorExt < 'q >  for [ T ; $l ]{ type  Iter =  slice ::  Iter < 'q ,  T >;  fn  quote_into_iter (& 'q  self )-> ( Self ::  Iter ,  HasIter ){( self .  iter (),  HasIter )}})* }}
macro_rules! __ra_macro_fixture141 {($name :  ident $spanned :  ident $char1 :  tt )=>{ pub  fn $name ( tokens : &  mut  TokenStream ){ tokens .  append ( Punct ::  new ($char1 ,  Spacing ::  Alone )); } pub  fn $spanned ( tokens : &  mut  TokenStream ,  span :  Span ){ let  mut  punct =  Punct ::  new ($char1 ,  Spacing ::  Alone );  punct .  set_span ( span );  tokens .  append ( punct ); }}; ($name :  ident $spanned :  ident $char1 :  tt $char2 :  tt )=>{ pub  fn $name ( tokens : &  mut  TokenStream ){ tokens .  append ( Punct ::  new ($char1 ,  Spacing ::  Joint ));  tokens .  append ( Punct ::  new ($char2 ,  Spacing ::  Alone )); } pub  fn $spanned ( tokens : &  mut  TokenStream ,  span :  Span ){ let  mut  punct =  Punct ::  new ($char1 ,  Spacing ::  Joint );  punct .  set_span ( span );  tokens .  append ( punct );  let  mut  punct =  Punct ::  new ($char2 ,  Spacing ::  Alone );  punct .  set_span ( span );  tokens .  append ( punct ); }}; ($name :  ident $spanned :  ident $char1 :  tt $char2 :  tt $char3 :  tt )=>{ pub  fn $name ( tokens : &  mut  TokenStream ){ tokens .  append ( Punct ::  new ($char1 ,  Spacing ::  Joint ));  tokens .  append ( Punct ::  new ($char2 ,  Spacing ::  Joint ));  tokens .  append ( Punct ::  new ($char3 ,  Spacing ::  Alone )); } pub  fn $spanned ( tokens : &  mut  TokenStream ,  span :  Span ){ let  mut  punct =  Punct ::  new ($char1 ,  Spacing ::  Joint );  punct .  set_span ( span );  tokens .  append ( punct );  let  mut  punct =  Punct ::  new ($char2 ,  Spacing ::  Joint );  punct .  set_span ( span );  tokens .  append ( punct );  let  mut  punct =  Punct ::  new ($char3 ,  Spacing ::  Alone );  punct .  set_span ( span );  tokens .  append ( punct ); }}; }
macro_rules! __ra_macro_fixture142 {($display :  tt $name :  ty )=>{# [ cfg ( feature =  "parsing" )] impl  Token  for $name { fn  peek ( cursor :  Cursor )->  bool { fn  peek ( input :  ParseStream )->  bool {<$name  as  Parse >::  parse ( input ).  is_ok ()} peek_impl ( cursor ,  peek )} fn  display ()-> & 'static  str {$display }}# [ cfg ( feature =  "parsing" )] impl  private ::  Sealed  for $name {}}; }
macro_rules! __ra_macro_fixture143 {($display :  tt $ty :  ident $get :  ident )=>{# [ cfg ( feature =  "parsing" )] impl  Token  for $ty { fn  peek ( cursor :  Cursor )->  bool { cursor .$get ().  is_some ()} fn  display ()-> & 'static  str {$display }}# [ cfg ( feature =  "parsing" )] impl  private ::  Sealed  for $ty {}}; }
macro_rules! __ra_macro_fixture144 {($($token :  tt  pub  struct $name :  ident /$len :  tt # [$doc :  meta ])*)=>{$(# [ repr ( C )]# [$doc ]# [ doc =  "" ]# [ doc =  " Don\\\'t try to remember the name of this type &mdash; use the" ]# [ doc =  " [`Token!`] macro instead." ]# [ doc =  "" ]# [ doc =  " [`Token!`]: crate::token" ] pub  struct $name { pub  spans : [ Span ; $len ], }# [ doc ( hidden )]# [ allow ( non_snake_case )] pub  fn $name <  S :  IntoSpans < [ Span ; $len ]>> ( spans :  S )-> $name {$name { spans :  spans .  into_spans (), }} impl  std ::  default ::  Default  for $name { fn  default ()->  Self {$name { spans : [ Span ::  call_site (); $len ], }}}# [ cfg ( feature =  "clone-impls" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "clone-impls" )))] impl  Copy  for $name {}# [ cfg ( feature =  "clone-impls" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "clone-impls" )))] impl  Clone  for $name { fn  clone (&  self )->  Self {*  self }}# [ cfg ( feature =  "extra-traits" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "extra-traits" )))] impl  Debug  for $name { fn  fmt (&  self ,  f : &  mut  fmt ::  Formatter )->  fmt ::  Result { f .  write_str ( stringify ! ($name ))}}# [ cfg ( feature =  "extra-traits" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "extra-traits" )))] impl  cmp ::  Eq  for $name {}# [ cfg ( feature =  "extra-traits" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "extra-traits" )))] impl  PartialEq  for $name { fn  eq (&  self ,  _other : &$name )->  bool { true }}# [ cfg ( feature =  "extra-traits" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "extra-traits" )))] impl  Hash  for $name { fn  hash <  H :  Hasher > (&  self ,  _state : &  mut  H ){}} impl_deref_if_len_is_1 ! ($name /$len ); )* }; }
macro_rules! __ra_macro_fixture145 {($($token :  tt  pub  struct $name :  ident # [$doc :  meta ])*)=>{$(# [$doc ]# [ doc =  "" ]# [ doc =  " Don\\\'t try to remember the name of this type &mdash; use the" ]# [ doc =  " [`Token!`] macro instead." ]# [ doc =  "" ]# [ doc =  " [`Token!`]: crate::token" ] pub  struct $name { pub  span :  Span , }# [ doc ( hidden )]# [ allow ( non_snake_case )] pub  fn $name <  S :  IntoSpans < [ Span ;  1 ]>> ( span :  S )-> $name {$name { span :  span .  into_spans ()[ 0 ], }} impl  std ::  default ::  Default  for $name { fn  default ()->  Self {$name { span :  Span ::  call_site (), }}}# [ cfg ( feature =  "clone-impls" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "clone-impls" )))] impl  Copy  for $name {}# [ cfg ( feature =  "clone-impls" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "clone-impls" )))] impl  Clone  for $name { fn  clone (&  self )->  Self {*  self }}# [ cfg ( feature =  "extra-traits" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "extra-traits" )))] impl  Debug  for $name { fn  fmt (&  self ,  f : &  mut  fmt ::  Formatter )->  fmt ::  Result { f .  write_str ( stringify ! ($name ))}}# [ cfg ( feature =  "extra-traits" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "extra-traits" )))] impl  cmp ::  Eq  for $name {}# [ cfg ( feature =  "extra-traits" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "extra-traits" )))] impl  PartialEq  for $name { fn  eq (&  self ,  _other : &$name )->  bool { true }}# [ cfg ( feature =  "extra-traits" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "extra-traits" )))] impl  Hash  for $name { fn  hash <  H :  Hasher > (&  self ,  _state : &  mut  H ){}}# [ cfg ( feature =  "printing" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "printing" )))] impl  ToTokens  for $name { fn  to_tokens (&  self ,  tokens : &  mut  TokenStream ){ printing ::  keyword ($token ,  self .  span ,  tokens ); }}# [ cfg ( feature =  "parsing" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "parsing" )))] impl  Parse  for $name { fn  parse ( input :  ParseStream )->  Result <  Self > { Ok ($name { span :  parsing ::  keyword ( input , $token )?, })}}# [ cfg ( feature =  "parsing" )] impl  Token  for $name { fn  peek ( cursor :  Cursor )->  bool { parsing ::  peek_keyword ( cursor , $token )} fn  display ()-> & 'static  str { concat ! ( "`" , $token ,  "`" )}}# [ cfg ( feature =  "parsing" )] impl  private ::  Sealed  for $name {})* }; }
macro_rules! __ra_macro_fixture146 {($($token :  tt  pub  struct $name :  ident /$len :  tt # [$doc :  meta ])*)=>{$(define_punctuation_structs ! {$token  pub  struct $name /$len # [$doc ]}# [ cfg ( feature =  "printing" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "printing" )))] impl  ToTokens  for $name { fn  to_tokens (&  self ,  tokens : &  mut  TokenStream ){ printing ::  punct ($token , &  self .  spans ,  tokens ); }}# [ cfg ( feature =  "parsing" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "parsing" )))] impl  Parse  for $name { fn  parse ( input :  ParseStream )->  Result <  Self > { Ok ($name { spans :  parsing ::  punct ( input , $token )?, })}}# [ cfg ( feature =  "parsing" )] impl  Token  for $name { fn  peek ( cursor :  Cursor )->  bool { parsing ::  peek_punct ( cursor , $token )} fn  display ()-> & 'static  str { concat ! ( "`" , $token ,  "`" )}}# [ cfg ( feature =  "parsing" )] impl  private ::  Sealed  for $name {})* }; }
macro_rules! __ra_macro_fixture147 {($($token :  tt  pub  struct $name :  ident # [$doc :  meta ])*)=>{$(# [$doc ] pub  struct $name { pub  span :  Span , }# [ doc ( hidden )]# [ allow ( non_snake_case )] pub  fn $name <  S :  IntoSpans < [ Span ;  1 ]>> ( span :  S )-> $name {$name { span :  span .  into_spans ()[ 0 ], }} impl  std ::  default ::  Default  for $name { fn  default ()->  Self {$name { span :  Span ::  call_site (), }}}# [ cfg ( feature =  "clone-impls" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "clone-impls" )))] impl  Copy  for $name {}# [ cfg ( feature =  "clone-impls" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "clone-impls" )))] impl  Clone  for $name { fn  clone (&  self )->  Self {*  self }}# [ cfg ( feature =  "extra-traits" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "extra-traits" )))] impl  Debug  for $name { fn  fmt (&  self ,  f : &  mut  fmt ::  Formatter )->  fmt ::  Result { f .  write_str ( stringify ! ($name ))}}# [ cfg ( feature =  "extra-traits" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "extra-traits" )))] impl  cmp ::  Eq  for $name {}# [ cfg ( feature =  "extra-traits" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "extra-traits" )))] impl  PartialEq  for $name { fn  eq (&  self ,  _other : &$name )->  bool { true }}# [ cfg ( feature =  "extra-traits" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "extra-traits" )))] impl  Hash  for $name { fn  hash <  H :  Hasher > (&  self ,  _state : &  mut  H ){}} impl $name {# [ cfg ( feature =  "printing" )] pub  fn  surround <  F > (&  self ,  tokens : &  mut  TokenStream ,  f :  F ) where  F :  FnOnce (&  mut  TokenStream ), { printing ::  delim ($token ,  self .  span ,  tokens ,  f ); }}# [ cfg ( feature =  "parsing" )] impl  private ::  Sealed  for $name {})* }; }
macro_rules! __ra_macro_fixture148 {($token :  ident )=>{ impl  From <  Token ! [$token ]>  for  Ident { fn  from ( token :  Token ! [$token ])->  Ident { Ident ::  new ( stringify ! ($token ),  token .  span )}}}; }
macro_rules! __ra_macro_fixture149 {([$($attrs_pub :  tt )*] struct $name :  ident #  full $($rest :  tt )* )=>{# [ cfg ( feature =  "full" )]$($attrs_pub )*  struct $name $($rest )* # [ cfg ( not ( feature =  "full" ))]$($attrs_pub )*  struct $name { _noconstruct : ::  std ::  marker ::  PhantomData <::  proc_macro2 ::  Span >, }# [ cfg ( all ( not ( feature =  "full" ),  feature =  "printing" ))] impl ::  quote ::  ToTokens  for $name { fn  to_tokens (&  self , _: &  mut ::  proc_macro2 ::  TokenStream ){ unreachable ! ()}}}; ([$($attrs_pub :  tt )*] struct $name :  ident $($rest :  tt )* )=>{$($attrs_pub )*  struct $name $($rest )* }; ($($t :  tt )*)=>{ strip_attrs_pub ! ( ast_struct ! ($($t )*)); }; }
macro_rules! __ra_macro_fixture150 {([$($attrs_pub :  tt )*] enum $name :  ident #  no_visit $($rest :  tt )* )=>( ast_enum ! ([$($attrs_pub )*] enum $name $($rest )*); ); ([$($attrs_pub :  tt )*] enum $name :  ident $($rest :  tt )* )=>($($attrs_pub )*  enum $name $($rest )* ); ($($t :  tt )*)=>{ strip_attrs_pub ! ( ast_enum ! ($($t )*)); }; }
macro_rules! __ra_macro_fixture151 {($(# [$enum_attr :  meta ])* $pub :  ident $enum :  ident $name :  ident #$tag :  ident $body :  tt $($remaining :  tt )* )=>{ ast_enum ! ($(# [$enum_attr ])* $pub $enum $name #$tag $body );  ast_enum_of_structs_impl ! ($pub $enum $name $body $($remaining )*); }; ($(# [$enum_attr :  meta ])* $pub :  ident $enum :  ident $name :  ident $body :  tt $($remaining :  tt )* )=>{ ast_enum ! ($(# [$enum_attr ])* $pub $enum $name $body );  ast_enum_of_structs_impl ! ($pub $enum $name $body $($remaining )*); }; }
macro_rules! __ra_macro_fixture152 {($ident :  ident )=>{# [ allow ( non_camel_case_types )] pub  struct $ident { pub  span : $crate ::  __private ::  Span , }# [ doc ( hidden )]# [ allow ( dead_code ,  non_snake_case )] pub  fn $ident <  __S : $crate ::  __private ::  IntoSpans < [$crate ::  __private ::  Span ;  1 ]>> ( span :  __S , )-> $ident {$ident { span : $crate ::  __private ::  IntoSpans ::  into_spans ( span )[ 0 ], }} impl $crate ::  __private ::  Default  for $ident { fn  default ()->  Self {$ident { span : $crate ::  __private ::  Span ::  call_site (), }}}$crate ::  impl_parse_for_custom_keyword ! ($ident ); $crate ::  impl_to_tokens_for_custom_keyword ! ($ident ); $crate ::  impl_clone_for_custom_keyword ! ($ident ); $crate ::  impl_extra_traits_for_custom_keyword ! ($ident ); }; }
macro_rules! __ra_macro_fixture153 {($($expr_type :  ty , $variant :  ident , $msg :  expr , )* )=>{$(# [ cfg ( all ( feature =  "full" ,  feature =  "printing" ))]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "parsing" )))] impl  Parse  for $expr_type { fn  parse ( input :  ParseStream )->  Result <  Self > { let  mut  expr :  Expr =  input .  parse ()?;  loop { match  expr { Expr ::$variant ( inner )=> return  Ok ( inner ),  Expr ::  Group ( next )=> expr = *  next .  expr , _ => return  Err ( Error ::  new_spanned ( expr , $msg )), }}}})* }; }
macro_rules! __ra_macro_fixture154 {($ty :  ident )=>{# [ cfg ( feature =  "clone-impls" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "clone-impls" )))] impl < 'a >  Clone  for $ty < 'a > { fn  clone (&  self )->  Self {$ty ( self .  0 )}}# [ cfg ( feature =  "extra-traits" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "extra-traits" )))] impl < 'a >  Debug  for $ty < 'a > { fn  fmt (&  self ,  formatter : &  mut  fmt ::  Formatter )->  fmt ::  Result { formatter .  debug_tuple ( stringify ! ($ty )).  field ( self .  0 ).  finish ()}}# [ cfg ( feature =  "extra-traits" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "extra-traits" )))] impl < 'a >  Eq  for $ty < 'a > {}# [ cfg ( feature =  "extra-traits" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "extra-traits" )))] impl < 'a >  PartialEq  for $ty < 'a > { fn  eq (&  self ,  other : &  Self )->  bool { self .  0 ==  other .  0 }}# [ cfg ( feature =  "extra-traits" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "extra-traits" )))] impl < 'a >  Hash  for $ty < 'a > { fn  hash <  H :  Hasher > (&  self ,  state : &  mut  H ){ self .  0 .  hash ( state ); }}}; }
macro_rules! __ra_macro_fixture155 {($ty :  ident )=>{# [ cfg ( feature =  "clone-impls" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "clone-impls" )))] impl  Clone  for $ty { fn  clone (&  self )->  Self {$ty { repr :  self .  repr .  clone (), }}}# [ cfg ( feature =  "extra-traits" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "extra-traits" )))] impl  PartialEq  for $ty { fn  eq (&  self ,  other : &  Self )->  bool { self .  repr .  token .  to_string ()==  other .  repr .  token .  to_string ()}}# [ cfg ( feature =  "extra-traits" )]# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "extra-traits" )))] impl  Hash  for $ty { fn  hash <  H > (&  self ,  state : &  mut  H ) where  H :  Hasher , { self .  repr .  token .  to_string ().  hash ( state ); }}# [ cfg ( feature =  "parsing" )]# [ doc ( hidden )]# [ allow ( non_snake_case )] pub  fn $ty ( marker :  lookahead ::  TokenMarker )-> $ty { match  marker {}}}; }
macro_rules! __ra_macro_fixture156 {($name :  ident /  1 )=>{ impl  Deref  for $name { type  Target =  WithSpan ;  fn  deref (&  self )-> &  Self ::  Target { unsafe {&* ( self  as *  const  Self  as *  const  WithSpan )}}} impl  DerefMut  for $name { fn  deref_mut (&  mut  self )-> &  mut  Self ::  Target { unsafe {&  mut * ( self  as *  mut  Self  as *  mut  WithSpan )}}}}; ($name :  ident /$len :  tt )=>{}; }
macro_rules! __ra_macro_fixture157 {($($await_rule :  tt )*)=>{# [ doc =  " A type-macro that expands to the name of the Rust type representation of a" ]# [ doc =  " given token." ]# [ doc =  "" ]# [ doc =  " See the [token module] documentation for details and examples." ]# [ doc =  "" ]# [ doc =  " [token module]: crate::token" ]# [ macro_export ] macro_rules !  Token {[ abstract ]=>{$crate ::  token ::  Abstract }; [ as ]=>{$crate ::  token ::  As }; [ async ]=>{$crate ::  token ::  Async }; [ auto ]=>{$crate ::  token ::  Auto }; $($await_rule =>{$crate ::  token ::  Await };)* [ become ]=>{$crate ::  token ::  Become }; [ box ]=>{$crate ::  token ::  Box }; [ break ]=>{$crate ::  token ::  Break }; [ const ]=>{$crate ::  token ::  Const }; [ continue ]=>{$crate ::  token ::  Continue }; [ crate ]=>{$crate ::  token ::  Crate }; [ default ]=>{$crate ::  token ::  Default }; [ do ]=>{$crate ::  token ::  Do }; [ dyn ]=>{$crate ::  token ::  Dyn }; [ else ]=>{$crate ::  token ::  Else }; [ enum ]=>{$crate ::  token ::  Enum }; [ extern ]=>{$crate ::  token ::  Extern }; [ final ]=>{$crate ::  token ::  Final }; [ fn ]=>{$crate ::  token ::  Fn }; [ for ]=>{$crate ::  token ::  For }; [ if ]=>{$crate ::  token ::  If }; [ impl ]=>{$crate ::  token ::  Impl }; [ in ]=>{$crate ::  token ::  In }; [ let ]=>{$crate ::  token ::  Let }; [ loop ]=>{$crate ::  token ::  Loop }; [ macro ]=>{$crate ::  token ::  Macro }; [ match ]=>{$crate ::  token ::  Match }; [ mod ]=>{$crate ::  token ::  Mod }; [ move ]=>{$crate ::  token ::  Move }; [ mut ]=>{$crate ::  token ::  Mut }; [ override ]=>{$crate ::  token ::  Override }; [ priv ]=>{$crate ::  token ::  Priv }; [ pub ]=>{$crate ::  token ::  Pub }; [ ref ]=>{$crate ::  token ::  Ref }; [ return ]=>{$crate ::  token ::  Return }; [ Self ]=>{$crate ::  token ::  SelfType }; [ self ]=>{$crate ::  token ::  SelfValue }; [ static ]=>{$crate ::  token ::  Static }; [ struct ]=>{$crate ::  token ::  Struct }; [ super ]=>{$crate ::  token ::  Super }; [ trait ]=>{$crate ::  token ::  Trait }; [ try ]=>{$crate ::  token ::  Try }; [ type ]=>{$crate ::  token ::  Type }; [ typeof ]=>{$crate ::  token ::  Typeof }; [ union ]=>{$crate ::  token ::  Union }; [ unsafe ]=>{$crate ::  token ::  Unsafe }; [ unsized ]=>{$crate ::  token ::  Unsized }; [ use ]=>{$crate ::  token ::  Use }; [ virtual ]=>{$crate ::  token ::  Virtual }; [ where ]=>{$crate ::  token ::  Where }; [ while ]=>{$crate ::  token ::  While }; [ yield ]=>{$crate ::  token ::  Yield }; [+]=>{$crate ::  token ::  Add }; [+=]=>{$crate ::  token ::  AddEq }; [&]=>{$crate ::  token ::  And }; [&&]=>{$crate ::  token ::  AndAnd }; [&=]=>{$crate ::  token ::  AndEq }; [@]=>{$crate ::  token ::  At }; [!]=>{$crate ::  token ::  Bang }; [^]=>{$crate ::  token ::  Caret }; [^=]=>{$crate ::  token ::  CaretEq }; [:]=>{$crate ::  token ::  Colon }; [::]=>{$crate ::  token ::  Colon2 }; [,]=>{$crate ::  token ::  Comma }; [/]=>{$crate ::  token ::  Div }; [/=]=>{$crate ::  token ::  DivEq }; [$]=>{$crate ::  token ::  Dollar }; [.]=>{$crate ::  token ::  Dot }; [..]=>{$crate ::  token ::  Dot2 }; [...]=>{$crate ::  token ::  Dot3 }; [..=]=>{$crate ::  token ::  DotDotEq }; [=]=>{$crate ::  token ::  Eq }; [==]=>{$crate ::  token ::  EqEq }; [>=]=>{$crate ::  token ::  Ge }; [>]=>{$crate ::  token ::  Gt }; [<=]=>{$crate ::  token ::  Le }; [<]=>{$crate ::  token ::  Lt }; [*=]=>{$crate ::  token ::  MulEq }; [!=]=>{$crate ::  token ::  Ne }; [|]=>{$crate ::  token ::  Or }; [|=]=>{$crate ::  token ::  OrEq }; [||]=>{$crate ::  token ::  OrOr }; [#]=>{$crate ::  token ::  Pound }; [?]=>{$crate ::  token ::  Question }; [->]=>{$crate ::  token ::  RArrow }; [<-]=>{$crate ::  token ::  LArrow }; [%]=>{$crate ::  token ::  Rem }; [%=]=>{$crate ::  token ::  RemEq }; [=>]=>{$crate ::  token ::  FatArrow }; [;]=>{$crate ::  token ::  Semi }; [<<]=>{$crate ::  token ::  Shl }; [<<=]=>{$crate ::  token ::  ShlEq }; [>>]=>{$crate ::  token ::  Shr }; [>>=]=>{$crate ::  token ::  ShrEq }; [*]=>{$crate ::  token ::  Star }; [-]=>{$crate ::  token ::  Sub }; [-=]=>{$crate ::  token ::  SubEq }; [~]=>{$crate ::  token ::  Tilde }; [_]=>{$crate ::  token ::  Underscore }; }}; }
macro_rules! __ra_macro_fixture158 {($mac :  ident ! ($(# [$m :  meta ])* $pub :  ident $($t :  tt )*))=>{ check_keyword_matches ! ( pub $pub ); $mac ! ([$(# [$m ])* $pub ]$($t )*); }; }
macro_rules! __ra_macro_fixture159 {($pub :  ident $enum :  ident $name :  ident {$($(# [$variant_attr :  meta ])* $variant :  ident $(($($member :  ident )::+))*, )* }$($remaining :  tt )* )=>{ check_keyword_matches ! ( pub $pub );  check_keyword_matches ! ( enum $enum ); $($(ast_enum_from_struct ! ($name ::$variant , $($member )::+); )*)* # [ cfg ( feature =  "printing" )] generate_to_tokens ! {$($remaining )* () tokens $name {$($variant $($($member )::+)*,)* }}}; }
macro_rules! __ra_macro_fixture160 {($ident :  ident )=>{ impl $crate ::  token ::  CustomToken  for $ident { fn  peek ( cursor : $crate ::  buffer ::  Cursor )-> $crate ::  __private ::  bool { if  let  Some (( ident ,  _rest ))=  cursor .  ident (){ ident ==  stringify ! ($ident )} else { false }} fn  display ()-> & 'static $crate ::  __private ::  str { concat ! ( "`" ,  stringify ! ($ident ),  "`" )}} impl $crate ::  parse ::  Parse  for $ident { fn  parse ( input : $crate ::  parse ::  ParseStream )-> $crate ::  parse ::  Result <$ident > { input .  step (|  cursor | { if  let $crate ::  __private ::  Some (( ident ,  rest ))=  cursor .  ident (){ if  ident ==  stringify ! ($ident ){ return $crate ::  __private ::  Ok (($ident { span :  ident .  span ()},  rest )); }}$crate ::  __private ::  Err ( cursor .  error ( concat ! ( "expected `" ,  stringify ! ($ident ),  "`" )))})}}}; }
macro_rules! __ra_macro_fixture161 {($ident :  ident )=>{ impl $crate ::  __private ::  ToTokens  for $ident { fn  to_tokens (&  self ,  tokens : &  mut $crate ::  __private ::  TokenStream2 ){ let  ident = $crate ::  Ident ::  new ( stringify ! ($ident ),  self .  span ); $crate ::  __private ::  TokenStreamExt ::  append ( tokens ,  ident ); }}}; }
macro_rules! __ra_macro_fixture162 {($ident :  ident )=>{ impl $crate ::  __private ::  Copy  for $ident {} impl $crate ::  __private ::  Clone  for $ident { fn  clone (&  self )->  Self {*  self }}}; }
macro_rules! __ra_macro_fixture163 {($ident :  ident )=>{ impl $crate ::  __private ::  Debug  for $ident { fn  fmt (&  self ,  f : &  mut $crate ::  __private ::  Formatter )-> $crate ::  __private ::  fmt ::  Result {$crate ::  __private ::  Formatter ::  write_str ( f ,  concat ! ( "Keyword [" ,  stringify ! ($ident ),  "]" ), )}} impl $crate ::  __private ::  Eq  for $ident {} impl $crate ::  __private ::  PartialEq  for $ident { fn  eq (&  self ,  _other : &  Self )-> $crate ::  __private ::  bool { true }} impl $crate ::  __private ::  Hash  for $ident { fn  hash <  __H : $crate ::  __private ::  Hasher > (&  self ,  _state : &  mut  __H ){}}}; }
macro_rules! __ra_macro_fixture164 {( struct  struct )=>{}; ( enum  enum )=>{}; ( pub  pub )=>{}; }
macro_rules! __ra_macro_fixture165 {($name :  ident ::  Verbatim , $member :  ident )=>{}; ($name :  ident ::$variant :  ident ,  crate ::  private )=>{}; ($name :  ident ::$variant :  ident , $member :  ident )=>{ impl  From <$member >  for $name { fn  from ( e : $member )-> $name {$name ::$variant ( e )}}}; }
macro_rules! __ra_macro_fixture166 {( do_not_generate_to_tokens $($foo :  tt )*)=>(); (($($arms :  tt )*)$tokens :  ident $name :  ident {$variant :  ident , $($next :  tt )*})=>{ generate_to_tokens ! (($($arms )* $name ::$variant =>{})$tokens $name {$($next )* }); }; (($($arms :  tt )*)$tokens :  ident $name :  ident {$variant :  ident $member :  ident , $($next :  tt )*})=>{ generate_to_tokens ! (($($arms )* $name ::$variant ( _e )=> _e .  to_tokens ($tokens ),)$tokens $name {$($next )* }); }; (($($arms :  tt )*)$tokens :  ident $name :  ident {$variant :  ident  crate ::  private , $($next :  tt )*})=>{ generate_to_tokens ! (($($arms )* $name ::$variant (_)=> unreachable ! (),)$tokens $name {$($next )* }); }; (($($arms :  tt )*)$tokens :  ident $name :  ident {})=>{# [ cfg_attr ( doc_cfg ,  doc ( cfg ( feature =  "printing" )))] impl ::  quote ::  ToTokens  for $name { fn  to_tokens (&  self , $tokens : &  mut ::  proc_macro2 ::  TokenStream ){ match  self {$($arms )* }}}}; }
macro_rules! __ra_macro_fixture167 {($(# [$attr :  meta ])*  static  ref $N :  ident : $T :  ty = $e :  expr ; $($t :  tt )*)=>{ __lazy_static_internal ! ($(# [$attr ])* () static  ref $N : $T = $e ; $($t )*); }; ($(# [$attr :  meta ])*  pub  static  ref $N :  ident : $T :  ty = $e :  expr ; $($t :  tt )*)=>{ __lazy_static_internal ! ($(# [$attr ])* ( pub ) static  ref $N : $T = $e ; $($t )*); }; ($(# [$attr :  meta ])*  pub ($($vis :  tt )+) static  ref $N :  ident : $T :  ty = $e :  expr ; $($t :  tt )*)=>{ __lazy_static_internal ! ($(# [$attr ])* ( pub ($($vis )+)) static  ref $N : $T = $e ; $($t )*); }; ()=>()}
macro_rules! __ra_macro_fixture168 {($($record :  ident ($($whatever :  tt )+ )),+ )=>{$(impl_value ! {$record ($($whatever )+ )})+ }}
macro_rules! __ra_macro_fixture169 {($($len :  tt ),+ )=>{$(impl < 'a >  private ::  ValidLen < 'a >  for [(& 'a  Field ,  Option <& 'a ( dyn  Value + 'a )>); $len ]{})+ }}
macro_rules! __ra_macro_fixture170 {($(# [$attr :  meta ])* ($($vis :  tt )*) static  ref $N :  ident : $T :  ty = $e :  expr ; $($t :  tt )*)=>{ __lazy_static_internal ! (@  MAKE  TY , $(# [$attr ])*, ($($vis )*), $N );  __lazy_static_internal ! (@  TAIL , $N : $T = $e );  lazy_static ! ($($t )*); }; (@  TAIL , $N :  ident : $T :  ty = $e :  expr )=>{ impl $crate ::  __Deref  for $N { type  Target = $T ;  fn  deref (&  self )-> &$T {# [ inline ( always )] fn  __static_ref_initialize ()-> $T {$e }# [ inline ( always )] fn  __stability ()-> & 'static $T { __lazy_static_create ! ( LAZY , $T );  LAZY .  get ( __static_ref_initialize )} __stability ()}} impl $crate ::  LazyStatic  for $N { fn  initialize ( lazy : &  Self ){ let _ = &**  lazy ; }}}; (@  MAKE  TY , $(# [$attr :  meta ])*, ($($vis :  tt )*), $N :  ident )=>{# [ allow ( missing_copy_implementations )]# [ allow ( non_camel_case_types )]# [ allow ( dead_code )]$(# [$attr ])* $($vis )*  struct $N { __private_field : ()}# [ doc ( hidden )]$($vis )*  static $N : $N = $N { __private_field : ()}; }; ()=>()}
macro_rules! __ra_macro_fixture171 {($record :  ident ($($value_ty :  tt ),+ ))=>{$(impl_one_value ! ($value_ty , |  this : $value_ty |  this , $record ); )+ }; ($record :  ident ($($value_ty :  tt ),+  as $as_ty :  ty ))=>{$(impl_one_value ! ($value_ty , |  this : $value_ty |  this  as $as_ty , $record ); )+ }; }
macro_rules! __ra_macro_fixture172 {( bool , $op :  expr , $record :  ident )=>{ impl_one_value ! ( normal ,  bool , $op , $record ); }; ($value_ty :  tt , $op :  expr , $record :  ident )=>{ impl_one_value ! ( normal , $value_ty , $op , $record );  impl_one_value ! ( nonzero , $value_ty , $op , $record ); }; ( normal , $value_ty :  tt , $op :  expr , $record :  ident )=>{ impl $crate ::  sealed ::  Sealed  for $value_ty {} impl $crate ::  field ::  Value  for $value_ty { fn  record (&  self ,  key : &$crate ::  field ::  Field ,  visitor : &  mut  dyn $crate ::  field ::  Visit ){ visitor .$record ( key , $op (*  self ))}}}; ( nonzero , $value_ty :  tt , $op :  expr , $record :  ident )=>{# [ allow ( clippy ::  useless_attribute ,  unused )] use  num ::*;  impl $crate ::  sealed ::  Sealed  for  ty_to_nonzero ! ($value_ty ){} impl $crate ::  field ::  Value  for  ty_to_nonzero ! ($value_ty ){ fn  record (&  self ,  key : &$crate ::  field ::  Field ,  visitor : &  mut  dyn $crate ::  field ::  Visit ){ visitor .$record ( key , $op ( self .  get ()))}}}; }
macro_rules! __ra_macro_fixture173 {($(# [ doc $($doc :  tt )*])* # [ project = $proj_mut_ident :  ident ]# [ project_ref = $proj_ref_ident :  ident ]# [ project_replace = $proj_replace_ident :  ident ]$($tt :  tt )* )=>{$crate ::  __pin_project_internal ! {[$proj_mut_ident ][$proj_ref_ident ][$proj_replace_ident ]$(# [ doc $($doc )*])* $($tt )* }}; ($(# [ doc $($doc :  tt )*])* # [ project = $proj_mut_ident :  ident ]# [ project_ref = $proj_ref_ident :  ident ]$($tt :  tt )* )=>{$crate ::  __pin_project_internal ! {[$proj_mut_ident ][$proj_ref_ident ][]$(# [ doc $($doc )*])* $($tt )* }}; ($(# [ doc $($doc :  tt )*])* # [ project = $proj_mut_ident :  ident ]# [ project_replace = $proj_replace_ident :  ident ]$($tt :  tt )* )=>{$crate ::  __pin_project_internal ! {[$proj_mut_ident ][][$proj_replace_ident ]$(# [ doc $($doc )*])* $($tt )* }}; ($(# [ doc $($doc :  tt )*])* # [ project_ref = $proj_ref_ident :  ident ]# [ project_replace = $proj_replace_ident :  ident ]$($tt :  tt )* )=>{$crate ::  __pin_project_internal ! {[][$proj_ref_ident ][$proj_replace_ident ]$(# [ doc $($doc )*])* $($tt )* }}; ($(# [ doc $($doc :  tt )*])* # [ project = $proj_mut_ident :  ident ]$($tt :  tt )* )=>{$crate ::  __pin_project_internal ! {[$proj_mut_ident ][][]$(# [ doc $($doc )*])* $($tt )* }}; ($(# [ doc $($doc :  tt )*])* # [ project_ref = $proj_ref_ident :  ident ]$($tt :  tt )* )=>{$crate ::  __pin_project_internal ! {[][$proj_ref_ident ][]$(# [ doc $($doc )*])* $($tt )* }}; ($(# [ doc $($doc :  tt )*])* # [ project_replace = $proj_replace_ident :  ident ]$($tt :  tt )* )=>{$crate ::  __pin_project_internal ! {[][][$proj_replace_ident ]$(# [ doc $($doc )*])* $($tt )* }}; ($($tt :  tt )* )=>{$crate ::  __pin_project_internal ! {[][][]$($tt )* }}; }
macro_rules! __ra_macro_fixture174 {(@  struct => internal ; [$($proj_mut_ident :  ident )?][$($proj_ref_ident :  ident )?][$($proj_replace_ident :  ident )?][$proj_vis :  vis ][$(# [$attrs :  meta ])* $vis :  vis  struct $ident :  ident ][$($def_generics :  tt )*][$($impl_generics :  tt )*][$($ty_generics :  tt )*][$(where $($where_clause :  tt )*)?]{$($(# [$pin :  ident ])? $field_vis :  vis $field :  ident : $field_ty :  ty ),+ })=>{$(# [$attrs ])* $vis  struct $ident $($def_generics )* $(where $($where_clause )*)? {$($field_vis $field : $field_ty ),+ }$crate ::  __pin_project_internal ! {@  struct => make_proj_ty => named ; [$proj_vis ][$($proj_mut_ident )?][ make_proj_field_mut ][$ident ][$($impl_generics )*][$($ty_generics )*][$(where $($where_clause )*)?]{$($(# [$pin ])? $field_vis $field : $field_ty ),+ }}$crate ::  __pin_project_internal ! {@  struct => make_proj_ty => named ; [$proj_vis ][$($proj_ref_ident )?][ make_proj_field_ref ][$ident ][$($impl_generics )*][$($ty_generics )*][$(where $($where_clause )*)?]{$($(# [$pin ])? $field_vis $field : $field_ty ),+ }}$crate ::  __pin_project_internal ! {@  struct => make_proj_replace_ty => named ; [$proj_vis ][$($proj_replace_ident )?][ make_proj_field_replace ][$ident ][$($impl_generics )*][$($ty_generics )*][$(where $($where_clause )*)?]{$($(# [$pin ])? $field_vis $field : $field_ty ),+ }}# [ allow ( explicit_outlives_requirements )]# [ allow ( single_use_lifetimes )]# [ allow ( clippy ::  unknown_clippy_lints )]# [ allow ( clippy ::  redundant_pub_crate )]# [ allow ( clippy ::  used_underscore_binding )] const _: ()= {$crate ::  __pin_project_internal ! {@  struct => make_proj_ty => unnamed ; [$proj_vis ][$($proj_mut_ident )?][ Projection ][ make_proj_field_mut ][$ident ][$($impl_generics )*][$($ty_generics )*][$(where $($where_clause )*)?]{$($(# [$pin ])? $field_vis $field : $field_ty ),+ }}$crate ::  __pin_project_internal ! {@  struct => make_proj_ty => unnamed ; [$proj_vis ][$($proj_ref_ident )?][ ProjectionRef ][ make_proj_field_ref ][$ident ][$($impl_generics )*][$($ty_generics )*][$(where $($where_clause )*)?]{$($(# [$pin ])? $field_vis $field : $field_ty ),+ }}$crate ::  __pin_project_internal ! {@  struct => make_proj_replace_ty => unnamed ; [$proj_vis ][$($proj_replace_ident )?][ ProjectionReplace ][ make_proj_field_replace ][$ident ][$($impl_generics )*][$($ty_generics )*][$(where $($where_clause )*)?]{$($(# [$pin ])? $field_vis $field : $field_ty ),+ }} impl <$($impl_generics )*> $ident <$($ty_generics )*> $(where $($where_clause )*)? {$crate ::  __pin_project_internal ! {@  struct => make_proj_method ; [$proj_vis ][$($proj_mut_ident )?][ Projection ][ project  get_unchecked_mut  mut ][$($ty_generics )*]{$($(# [$pin ])? $field_vis $field ),+ }}$crate ::  __pin_project_internal ! {@  struct => make_proj_method ; [$proj_vis ][$($proj_ref_ident )?][ ProjectionRef ][ project_ref  get_ref ][$($ty_generics )*]{$($(# [$pin ])? $field_vis $field ),+ }}$crate ::  __pin_project_internal ! {@  struct => make_proj_replace_method ; [$proj_vis ][$($proj_replace_ident )?][ ProjectionReplace ][$($ty_generics )*]{$($(# [$pin ])? $field_vis $field ),+ }}}$crate ::  __pin_project_internal ! {@  make_unpin_impl ; [$vis $ident ][$($impl_generics )*][$($ty_generics )*][$(where $($where_clause )*)?]$($field : $crate ::  __pin_project_internal ! (@  make_unpin_bound ; $(# [$pin ])? $field_ty )),+ }$crate ::  __pin_project_internal ! {@  make_drop_impl ; [$ident ][$($impl_generics )*][$($ty_generics )*][$(where $($where_clause )*)?]}# [ forbid ( safe_packed_borrows )] fn  __assert_not_repr_packed <$($impl_generics )*> ( this : &$ident <$($ty_generics )*>)$(where $($where_clause )*)? {$(let _ = &  this .$field ; )+ }}; }; (@  enum => internal ; [$($proj_mut_ident :  ident )?][$($proj_ref_ident :  ident )?][$($proj_replace_ident :  ident )?][$proj_vis :  vis ][$(# [$attrs :  meta ])* $vis :  vis  enum $ident :  ident ][$($def_generics :  tt )*][$($impl_generics :  tt )*][$($ty_generics :  tt )*][$(where $($where_clause :  tt )*)?]{$($(# [$variant_attrs :  meta ])* $variant :  ident $({$($(# [$pin :  ident ])? $field :  ident : $field_ty :  ty ),+ })? ),+ })=>{$(# [$attrs ])* $vis  enum $ident $($def_generics )* $(where $($where_clause )*)? {$($(# [$variant_attrs ])* $variant $({$($field : $field_ty ),+ })? ),+ }$crate ::  __pin_project_internal ! {@  enum => make_proj_ty ; [$proj_vis ][$($proj_mut_ident )?][ make_proj_field_mut ][$ident ][$($impl_generics )*][$($ty_generics )*][$(where $($where_clause )*)?]{$($variant $({$($(# [$pin ])? $field : $field_ty ),+ })? ),+ }}$crate ::  __pin_project_internal ! {@  enum => make_proj_ty ; [$proj_vis ][$($proj_ref_ident )?][ make_proj_field_ref ][$ident ][$($impl_generics )*][$($ty_generics )*][$(where $($where_clause )*)?]{$($variant $({$($(# [$pin ])? $field : $field_ty ),+ })? ),+ }}$crate ::  __pin_project_internal ! {@  enum => make_proj_replace_ty ; [$proj_vis ][$($proj_replace_ident )?][ make_proj_field_replace ][$ident ][$($impl_generics )*][$($ty_generics )*][$(where $($where_clause )*)?]{$($variant $({$($(# [$pin ])? $field : $field_ty ),+ })? ),+ }}# [ allow ( single_use_lifetimes )]# [ allow ( clippy ::  unknown_clippy_lints )]# [ allow ( clippy ::  used_underscore_binding )] const _: ()= { impl <$($impl_generics )*> $ident <$($ty_generics )*> $(where $($where_clause )*)? {$crate ::  __pin_project_internal ! {@  enum => make_proj_method ; [$proj_vis ][$($proj_mut_ident )?][ project  get_unchecked_mut  mut ][$($ty_generics )*]{$($variant $({$($(# [$pin ])? $field ),+ })? ),+ }}$crate ::  __pin_project_internal ! {@  enum => make_proj_method ; [$proj_vis ][$($proj_ref_ident )?][ project_ref  get_ref ][$($ty_generics )*]{$($variant $({$($(# [$pin ])? $field ),+ })? ),+ }}$crate ::  __pin_project_internal ! {@  enum => make_proj_replace_method ; [$proj_vis ][$($proj_replace_ident )?][$($ty_generics )*]{$($variant $({$($(# [$pin ])? $field ),+ })? ),+ }}}$crate ::  __pin_project_internal ! {@  make_unpin_impl ; [$vis $ident ][$($impl_generics )*][$($ty_generics )*][$(where $($where_clause )*)?]$($variant : ($($($crate ::  __pin_project_internal ! (@  make_unpin_bound ; $(# [$pin ])? $field_ty )),+ )?)),+ }$crate ::  __pin_project_internal ! {@  make_drop_impl ; [$ident ][$($impl_generics )*][$($ty_generics )*][$(where $($where_clause )*)?]}}; }; (@  struct => make_proj_ty => unnamed ; [$proj_vis :  vis ][$_proj_ty_ident :  ident ][$proj_ty_ident :  ident ][$make_proj_field :  ident ][$ident :  ident ][$($impl_generics :  tt )*][$($ty_generics :  tt )*][$(where $($where_clause :  tt )* )?]$($field :  tt )* )=>{}; (@  struct => make_proj_ty => unnamed ; [$proj_vis :  vis ][][$proj_ty_ident :  ident ][$make_proj_field :  ident ][$ident :  ident ][$($impl_generics :  tt )*][$($ty_generics :  tt )*][$(where $($where_clause :  tt )* )?]$($field :  tt )* )=>{$crate ::  __pin_project_internal ! {@  struct => make_proj_ty => named ; [$proj_vis ][$proj_ty_ident ][$make_proj_field ][$ident ][$($impl_generics )*][$($ty_generics )*][$(where $($where_clause )*)?]$($field )* }}; (@  struct => make_proj_ty => named ; [$proj_vis :  vis ][$proj_ty_ident :  ident ][$make_proj_field :  ident ][$ident :  ident ][$($impl_generics :  tt )*][$($ty_generics :  tt )*][$(where $($where_clause :  tt )* )?]{$($(# [$pin :  ident ])? $field_vis :  vis $field :  ident : $field_ty :  ty ),+ })=>{# [ allow ( dead_code )]# [ allow ( single_use_lifetimes )]# [ allow ( clippy ::  unknown_clippy_lints )]# [ allow ( clippy ::  mut_mut )]# [ allow ( clippy ::  redundant_pub_crate )]# [ allow ( clippy ::  ref_option_ref )]# [ allow ( clippy ::  type_repetition_in_bounds )]$proj_vis  struct $proj_ty_ident < '__pin , $($impl_generics )*>  where $ident <$($ty_generics )*>: '__pin $(, $($where_clause )*)? {$($field_vis $field : $crate ::  __pin_project_internal ! (@$make_proj_field ; $(# [$pin ])? $field_ty )),+ }}; (@  struct => make_proj_ty => named ; [$proj_vis :  vis ][][$make_proj_field :  ident ][$ident :  ident ][$($impl_generics :  tt )*][$($ty_generics :  tt )*][$(where $($where_clause :  tt )* )?]$($field :  tt )* )=>{}; (@  struct => make_proj_replace_ty => unnamed ; [$proj_vis :  vis ][$_proj_ty_ident :  ident ][$proj_ty_ident :  ident ][$make_proj_field :  ident ][$ident :  ident ][$($impl_generics :  tt )*][$($ty_generics :  tt )*][$(where $($where_clause :  tt )* )?]$($field :  tt )* )=>{}; (@  struct => make_proj_replace_ty => unnamed ; [$proj_vis :  vis ][][$proj_ty_ident :  ident ][$make_proj_field :  ident ][$ident :  ident ][$($impl_generics :  tt )*][$($ty_generics :  tt )*][$(where $($where_clause :  tt )* )?]$($field :  tt )* )=>{}; (@  struct => make_proj_replace_ty => named ; [$proj_vis :  vis ][$proj_ty_ident :  ident ][$make_proj_field :  ident ][$ident :  ident ][$($impl_generics :  tt )*][$($ty_generics :  tt )*][$(where $($where_clause :  tt )* )?]{$($(# [$pin :  ident ])? $field_vis :  vis $field :  ident : $field_ty :  ty ),+ })=>{# [ allow ( dead_code )]# [ allow ( single_use_lifetimes )]# [ allow ( clippy ::  mut_mut )]# [ allow ( clippy ::  redundant_pub_crate )]# [ allow ( clippy ::  type_repetition_in_bounds )]$proj_vis  struct $proj_ty_ident <$($impl_generics )*>  where $($($where_clause )*)? {$($field_vis $field : $crate ::  __pin_project_internal ! (@$make_proj_field ; $(# [$pin ])? $field_ty )),+ }}; (@  struct => make_proj_replace_ty => named ; [$proj_vis :  vis ][][$make_proj_field :  ident ][$ident :  ident ][$($impl_generics :  tt )*][$($ty_generics :  tt )*][$(where $($where_clause :  tt )* )?]$($field :  tt )* )=>{}; (@  enum => make_proj_ty ; [$proj_vis :  vis ][$proj_ty_ident :  ident ][$make_proj_field :  ident ][$ident :  ident ][$($impl_generics :  tt )*][$($ty_generics :  tt )*][$(where $($where_clause :  tt )* )?]{$($variant :  ident $({$($(# [$pin :  ident ])? $field :  ident : $field_ty :  ty ),+ })? ),+ })=>{# [ allow ( dead_code )]# [ allow ( single_use_lifetimes )]# [ allow ( clippy ::  unknown_clippy_lints )]# [ allow ( clippy ::  mut_mut )]# [ allow ( clippy ::  redundant_pub_crate )]# [ allow ( clippy ::  ref_option_ref )]# [ allow ( clippy ::  type_repetition_in_bounds )]$proj_vis  enum $proj_ty_ident < '__pin , $($impl_generics )*>  where $ident <$($ty_generics )*>: '__pin $(, $($where_clause )*)? {$($variant $({$($field : $crate ::  __pin_project_internal ! (@$make_proj_field ; $(# [$pin ])? $field_ty )),+ })? ),+ }}; (@  enum => make_proj_ty ; [$proj_vis :  vis ][][$make_proj_field :  ident ][$ident :  ident ][$($impl_generics :  tt )*][$($ty_generics :  tt )*][$(where $($where_clause :  tt )* )?]$($variant :  tt )* )=>{}; (@  enum => make_proj_replace_ty ; [$proj_vis :  vis ][$proj_ty_ident :  ident ][$make_proj_field :  ident ][$ident :  ident ][$($impl_generics :  tt )*][$($ty_generics :  tt )*][$(where $($where_clause :  tt )* )?]{$($variant :  ident $({$($(# [$pin :  ident ])? $field :  ident : $field_ty :  ty ),+ })? ),+ })=>{# [ allow ( dead_code )]# [ allow ( single_use_lifetimes )]# [ allow ( clippy ::  mut_mut )]# [ allow ( clippy ::  redundant_pub_crate )]# [ allow ( clippy ::  type_repetition_in_bounds )]$proj_vis  enum $proj_ty_ident <$($impl_generics )*>  where $($($where_clause )*)? {$($variant $({$($field : $crate ::  __pin_project_internal ! (@$make_proj_field ; $(# [$pin ])? $field_ty )),+ })? ),+ }}; (@  enum => make_proj_replace_ty ; [$proj_vis :  vis ][][$make_proj_field :  ident ][$ident :  ident ][$($impl_generics :  tt )*][$($ty_generics :  tt )*][$(where $($where_clause :  tt )* )?]$($variant :  tt )* )=>{}; (@  make_proj_replace_block ; [$($proj_path :  tt )+]{$($(# [$pin :  ident ])? $field_vis :  vis $field :  ident ),+ })=>{ let  result = $($proj_path )* {$($field : $crate ::  __pin_project_internal ! (@  make_replace_field_proj ; $(# [$pin ])? $field )),+ }; {($($crate ::  __pin_project_internal ! (@  make_unsafe_drop_in_place_guard ; $(# [$pin ])? $field ), )* ); } result }; (@  make_proj_replace_block ; [$($proj_path :  tt )+])=>{$($proj_path )* }; (@  struct => make_proj_method ; [$proj_vis :  vis ][$proj_ty_ident :  ident ][$_proj_ty_ident :  ident ][$method_ident :  ident $get_method :  ident $($mut :  ident )?][$($ty_generics :  tt )*]{$($(# [$pin :  ident ])? $field_vis :  vis $field :  ident ),+ })=>{$proj_vis  fn $method_ident < '__pin > ( self : $crate ::  __private ::  Pin <& '__pin $($mut )?  Self >, )-> $proj_ty_ident < '__pin , $($ty_generics )*> { unsafe { let  Self {$($field ),* }=  self .$get_method (); $proj_ty_ident {$($field : $crate ::  __pin_project_internal ! (@  make_unsafe_field_proj ; $(# [$pin ])? $field )),+ }}}}; (@  struct => make_proj_method ; [$proj_vis :  vis ][][$proj_ty_ident :  ident ][$method_ident :  ident $get_method :  ident $($mut :  ident )?][$($ty_generics :  tt )*]$($variant :  tt )* )=>{$crate ::  __pin_project_internal ! {@  struct => make_proj_method ; [$proj_vis ][$proj_ty_ident ][$proj_ty_ident ][$method_ident $get_method $($mut )?][$($ty_generics )*]$($variant )* }}; (@  struct => make_proj_replace_method ; [$proj_vis :  vis ][$proj_ty_ident :  ident ][$_proj_ty_ident :  ident ][$($ty_generics :  tt )*]{$($(# [$pin :  ident ])? $field_vis :  vis $field :  ident ),+ })=>{$proj_vis  fn  project_replace ( self : $crate ::  __private ::  Pin <&  mut  Self >,  replacement :  Self , )-> $proj_ty_ident <$($ty_generics )*> { unsafe { let  __self_ptr : *  mut  Self =  self .  get_unchecked_mut ();  let  __guard = $crate ::  __private ::  UnsafeOverwriteGuard { target :  __self_ptr ,  value : $crate ::  __private ::  ManuallyDrop ::  new ( replacement ), };  let  Self {$($field ),* }= &  mut *  __self_ptr ; $crate ::  __pin_project_internal ! {@  make_proj_replace_block ; [$proj_ty_ident ]{$($(# [$pin ])? $field ),+ }}}}}; (@  struct => make_proj_replace_method ; [$proj_vis :  vis ][][$proj_ty_ident :  ident ][$($ty_generics :  tt )*]$($variant :  tt )* )=>{}; (@  enum => make_proj_method ; [$proj_vis :  vis ][$proj_ty_ident :  ident ][$method_ident :  ident $get_method :  ident $($mut :  ident )?][$($ty_generics :  tt )*]{$($variant :  ident $({$($(# [$pin :  ident ])? $field :  ident ),+ })? ),+ })=>{$proj_vis  fn $method_ident < '__pin > ( self : $crate ::  __private ::  Pin <& '__pin $($mut )?  Self >, )-> $proj_ty_ident < '__pin , $($ty_generics )*> { unsafe { match  self .$get_method (){$(Self ::$variant $({$($field ),+ })? =>{$proj_ty_ident ::$variant $({$($field : $crate ::  __pin_project_internal ! (@  make_unsafe_field_proj ; $(# [$pin ])? $field )),+ })? }),+ }}}}; (@  enum => make_proj_method ; [$proj_vis :  vis ][][$method_ident :  ident $get_method :  ident $($mut :  ident )?][$($ty_generics :  tt )*]$($variant :  tt )* )=>{}; (@  enum => make_proj_replace_method ; [$proj_vis :  vis ][$proj_ty_ident :  ident ][$($ty_generics :  tt )*]{$($variant :  ident $({$($(# [$pin :  ident ])? $field :  ident ),+ })? ),+ })=>{$proj_vis  fn  project_replace ( self : $crate ::  __private ::  Pin <&  mut  Self >,  replacement :  Self , )-> $proj_ty_ident <$($ty_generics )*> { unsafe { let  __self_ptr : *  mut  Self =  self .  get_unchecked_mut ();  let  __guard = $crate ::  __private ::  UnsafeOverwriteGuard { target :  __self_ptr ,  value : $crate ::  __private ::  ManuallyDrop ::  new ( replacement ), };  match &  mut *  __self_ptr {$(Self ::$variant $({$($field ),+ })? =>{$crate ::  __pin_project_internal ! {@  make_proj_replace_block ; [$proj_ty_ident :: $variant ]$({$($(# [$pin ])? $field ),+ })? }}),+ }}}}; (@  enum => make_proj_replace_method ; [$proj_vis :  vis ][][$($ty_generics :  tt )*]$($variant :  tt )* )=>{}; (@  make_unpin_impl ; [$vis :  vis $ident :  ident ][$($impl_generics :  tt )*][$($ty_generics :  tt )*][$(where $($where_clause :  tt )* )?]$($field :  tt )* )=>{# [ allow ( non_snake_case )]$vis  struct  __Origin < '__pin , $($impl_generics )*> $(where $($where_clause )*)? { __dummy_lifetime : $crate ::  __private ::  PhantomData <& '__pin ()>, $($field )* } impl < '__pin , $($impl_generics )*> $crate ::  __private ::  Unpin  for $ident <$($ty_generics )*>  where  __Origin < '__pin , $($ty_generics )*>: $crate ::  __private ::  Unpin $(, $($where_clause )*)? {}}; (@  make_drop_impl ; [$ident :  ident ][$($impl_generics :  tt )*][$($ty_generics :  tt )*][$(where $($where_clause :  tt )* )?])=>{ trait  MustNotImplDrop {}# [ allow ( clippy ::  drop_bounds ,  drop_bounds )] impl <  T : $crate ::  __private ::  Drop >  MustNotImplDrop  for  T {} impl <$($impl_generics )*>  MustNotImplDrop  for $ident <$($ty_generics )*> $(where $($where_clause )*)? {}}; (@  make_unpin_bound ; # [ pin ]$field_ty :  ty )=>{$field_ty }; (@  make_unpin_bound ; $field_ty :  ty )=>{$crate ::  __private ::  AlwaysUnpin <$field_ty > }; (@  make_unsafe_field_proj ; # [ pin ]$field :  ident )=>{$crate ::  __private ::  Pin ::  new_unchecked ($field )}; (@  make_unsafe_field_proj ; $field :  ident )=>{$field }; (@  make_replace_field_proj ; # [ pin ]$field :  ident )=>{$crate ::  __private ::  PhantomData }; (@  make_replace_field_proj ; $field :  ident )=>{$crate ::  __private ::  ptr ::  read ($field )}; (@  make_unsafe_drop_in_place_guard ; # [ pin ]$field :  ident )=>{$crate ::  __private ::  UnsafeDropInPlaceGuard ($field )}; (@  make_unsafe_drop_in_place_guard ; $field :  ident )=>{()}; (@  make_proj_field_mut ; # [ pin ]$field_ty :  ty )=>{$crate ::  __private ::  Pin <& '__pin  mut ($field_ty )> }; (@  make_proj_field_mut ; $field_ty :  ty )=>{& '__pin  mut ($field_ty )}; (@  make_proj_field_ref ; # [ pin ]$field_ty :  ty )=>{$crate ::  __private ::  Pin <& '__pin ($field_ty )> }; (@  make_proj_field_ref ; $field_ty :  ty )=>{& '__pin ($field_ty )}; (@  make_proj_field_replace ; # [ pin ]$field_ty :  ty )=>{$crate ::  __private ::  PhantomData <$field_ty > }; (@  make_proj_field_replace ; $field_ty :  ty )=>{$field_ty }; ([$($proj_mut_ident :  ident )?][$($proj_ref_ident :  ident )?][$($proj_replace_ident :  ident )?]$(# [$attrs :  meta ])*  pub  struct $ident :  ident $(< $($lifetime :  lifetime $(: $lifetime_bound :  lifetime )? ),* $(,)? $($generics :  ident $(: $generics_bound :  path )? $(: ?$generics_unsized_bound :  path )? $(: $generics_lifetime_bound :  lifetime )? $(= $generics_default :  ty )? ),* $(,)? >)? $(where $($where_clause_ty :  ty $(: $where_clause_bound :  path )? $(: ?$where_clause_unsized_bound :  path )? $(: $where_clause_lifetime_bound :  lifetime )? ),* $(,)? )? {$($(# [$pin :  ident ])? $field_vis :  vis $field :  ident : $field_ty :  ty ),+ $(,)? })=>{$crate ::  __pin_project_internal ! {@  struct => internal ; [$($proj_mut_ident )?][$($proj_ref_ident )?][$($proj_replace_ident )?][ pub ( crate )][$(# [$attrs ])*  pub  struct $ident ][$(< $($lifetime $(: $lifetime_bound )? ,)* $($generics $(: $generics_bound )? $(: ?$generics_unsized_bound )? $(: $generics_lifetime_bound )? $(= $generics_default )? ),* >)?][$($($lifetime $(: $lifetime_bound )? ,)* $($generics $(: $generics_bound )? $(: ?$generics_unsized_bound )? $(: $generics_lifetime_bound )? ),* )?][$($($lifetime ,)* $($generics ),* )?][$(where $($where_clause_ty $(: $where_clause_bound )? $(: ?$where_clause_unsized_bound )? $(: $where_clause_lifetime_bound )? ),* )?]{$($(# [$pin ])? $field_vis $field : $field_ty ),+ }}}; ([$($proj_mut_ident :  ident )?][$($proj_ref_ident :  ident )?][$($proj_replace_ident :  ident )?]$(# [$attrs :  meta ])* $vis :  vis  struct $ident :  ident $(< $($lifetime :  lifetime $(: $lifetime_bound :  lifetime )? ),* $(,)? $($generics :  ident $(: $generics_bound :  path )? $(: ?$generics_unsized_bound :  path )? $(: $generics_lifetime_bound :  lifetime )? $(= $generics_default :  ty )? ),* $(,)? >)? $(where $($where_clause_ty :  ty $(: $where_clause_bound :  path )? $(: ?$where_clause_unsized_bound :  path )? $(: $where_clause_lifetime_bound :  lifetime )? ),* $(,)? )? {$($(# [$pin :  ident ])? $field_vis :  vis $field :  ident : $field_ty :  ty ),+ $(,)? })=>{$crate ::  __pin_project_internal ! {@  struct => internal ; [$($proj_mut_ident )?][$($proj_ref_ident )?][$($proj_replace_ident )?][$vis ][$(# [$attrs ])* $vis  struct $ident ][$(< $($lifetime $(: $lifetime_bound )? ,)* $($generics $(: $generics_bound )? $(: ?$generics_unsized_bound )? $(: $generics_lifetime_bound )? $(= $generics_default )? ),* >)?][$($($lifetime $(: $lifetime_bound )? ,)* $($generics $(: $generics_bound )? $(: ?$generics_unsized_bound )? $(: $generics_lifetime_bound )? ),* )?][$($($lifetime ,)* $($generics ),* )?][$(where $($where_clause_ty $(: $where_clause_bound )? $(: ?$where_clause_unsized_bound )? $(: $where_clause_lifetime_bound )? ),* )?]{$($(# [$pin ])? $field_vis $field : $field_ty ),+ }}}; ([$($proj_mut_ident :  ident )?][$($proj_ref_ident :  ident )?][$($proj_replace_ident :  ident )?]$(# [$attrs :  meta ])*  pub  enum $ident :  ident $(< $($lifetime :  lifetime $(: $lifetime_bound :  lifetime )? ),* $(,)? $($generics :  ident $(: $generics_bound :  path )? $(: ?$generics_unsized_bound :  path )? $(: $generics_lifetime_bound :  lifetime )? $(= $generics_default :  ty )? ),* $(,)? >)? $(where $($where_clause_ty :  ty $(: $where_clause_bound :  path )? $(: ?$where_clause_unsized_bound :  path )? $(: $where_clause_lifetime_bound :  lifetime )? ),* $(,)? )? {$($(# [$variant_attrs :  meta ])* $variant :  ident $({$($(# [$pin :  ident ])? $field :  ident : $field_ty :  ty ),+ $(,)? })? ),+ $(,)? })=>{$crate ::  __pin_project_internal ! {@  enum => internal ; [$($proj_mut_ident )?][$($proj_ref_ident )?][$($proj_replace_ident )?][ pub ( crate )][$(# [$attrs ])*  pub  enum $ident ][$(< $($lifetime $(: $lifetime_bound )? ,)* $($generics $(: $generics_bound )? $(: ?$generics_unsized_bound )? $(: $generics_lifetime_bound )? $(= $generics_default )? ),* >)?][$($($lifetime $(: $lifetime_bound )? ,)* $($generics $(: $generics_bound )? $(: ?$generics_unsized_bound )? $(: $generics_lifetime_bound )? ),* )?][$($($lifetime ,)* $($generics ),* )?][$(where $($where_clause_ty $(: $where_clause_bound )? $(: ?$where_clause_unsized_bound )? $(: $where_clause_lifetime_bound )? ),* )?]{$($(# [$variant_attrs ])* $variant $({$($(# [$pin ])? $field : $field_ty ),+ })? ),+ }}}; ([$($proj_mut_ident :  ident )?][$($proj_ref_ident :  ident )?][$($proj_replace_ident :  ident )?]$(# [$attrs :  meta ])* $vis :  vis  enum $ident :  ident $(< $($lifetime :  lifetime $(: $lifetime_bound :  lifetime )? ),* $(,)? $($generics :  ident $(: $generics_bound :  path )? $(: ?$generics_unsized_bound :  path )? $(: $generics_lifetime_bound :  lifetime )? $(= $generics_default :  ty )? ),* $(,)? >)? $(where $($where_clause_ty :  ty $(: $where_clause_bound :  path )? $(: ?$where_clause_unsized_bound :  path )? $(: $where_clause_lifetime_bound :  lifetime )? ),* $(,)? )? {$($(# [$variant_attrs :  meta ])* $variant :  ident $({$($(# [$pin :  ident ])? $field :  ident : $field_ty :  ty ),+ $(,)? })? ),+ $(,)? })=>{$crate ::  __pin_project_internal ! {@  enum => internal ; [$($proj_mut_ident )?][$($proj_ref_ident )?][$($proj_replace_ident )?][$vis ][$(# [$attrs ])* $vis  enum $ident ][$(< $($lifetime $(: $lifetime_bound )? ,)* $($generics $(: $generics_bound )? $(: ?$generics_unsized_bound )? $(: $generics_lifetime_bound )? $(= $generics_default )? ),* >)?][$($($lifetime $(: $lifetime_bound )? ,)* $($generics $(: $generics_bound )? $(: ?$generics_unsized_bound )? $(: $generics_lifetime_bound )? ),* )?][$($($lifetime ,)* $($generics ),* )?][$(where $($where_clause_ty $(: $where_clause_bound )? $(: ?$where_clause_unsized_bound )? $(: $where_clause_lifetime_bound )? ),* )?]{$($(# [$variant_attrs ])* $variant $({$($(# [$pin ])? $field : $field_ty ),+ })? ),+ }}}; }
macro_rules! __ra_macro_fixture175 {($t :  ty , $example :  tt )=>{ impl  AtomicCell <$t > {# [ doc =  " Increments the current value by `val` and returns the previous value." ]# [ doc =  "" ]# [ doc =  " The addition wraps on overflow." ]# [ doc =  "" ]# [ doc =  " # Examples" ]# [ doc =  "" ]# [ doc =  " ```" ]# [ doc =  " use crossbeam_utils::atomic::AtomicCell;" ]# [ doc =  "" ]# [ doc = $example ]# [ doc =  "" ]# [ doc =  " assert_eq!(a.fetch_add(3), 7);" ]# [ doc =  " assert_eq!(a.load(), 10);" ]# [ doc =  " ```" ]# [ inline ] pub  fn  fetch_add (&  self ,  val : $t )-> $t { if  can_transmute ::<$t ,  atomic ::  AtomicUsize > (){ let  a =  unsafe {&* ( self .  value .  get () as *  const  atomic ::  AtomicUsize )};  a .  fetch_add ( val  as  usize ,  Ordering ::  AcqRel ) as $t } else { let  _guard =  lock ( self .  value .  get () as  usize ).  write ();  let  value =  unsafe {&  mut * ( self .  value .  get ())};  let  old = *  value ; *  value =  value .  wrapping_add ( val );  old }}# [ doc =  " Decrements the current value by `val` and returns the previous value." ]# [ doc =  "" ]# [ doc =  " The subtraction wraps on overflow." ]# [ doc =  "" ]# [ doc =  " # Examples" ]# [ doc =  "" ]# [ doc =  " ```" ]# [ doc =  " use crossbeam_utils::atomic::AtomicCell;" ]# [ doc =  "" ]# [ doc = $example ]# [ doc =  "" ]# [ doc =  " assert_eq!(a.fetch_sub(3), 7);" ]# [ doc =  " assert_eq!(a.load(), 4);" ]# [ doc =  " ```" ]# [ inline ] pub  fn  fetch_sub (&  self ,  val : $t )-> $t { if  can_transmute ::<$t ,  atomic ::  AtomicUsize > (){ let  a =  unsafe {&* ( self .  value .  get () as *  const  atomic ::  AtomicUsize )};  a .  fetch_sub ( val  as  usize ,  Ordering ::  AcqRel ) as $t } else { let  _guard =  lock ( self .  value .  get () as  usize ).  write ();  let  value =  unsafe {&  mut * ( self .  value .  get ())};  let  old = *  value ; *  value =  value .  wrapping_sub ( val );  old }}# [ doc =  " Applies bitwise \\\"and\\\" to the current value and returns the previous value." ]# [ doc =  "" ]# [ doc =  " # Examples" ]# [ doc =  "" ]# [ doc =  " ```" ]# [ doc =  " use crossbeam_utils::atomic::AtomicCell;" ]# [ doc =  "" ]# [ doc = $example ]# [ doc =  "" ]# [ doc =  " assert_eq!(a.fetch_and(3), 7);" ]# [ doc =  " assert_eq!(a.load(), 3);" ]# [ doc =  " ```" ]# [ inline ] pub  fn  fetch_and (&  self ,  val : $t )-> $t { if  can_transmute ::<$t ,  atomic ::  AtomicUsize > (){ let  a =  unsafe {&* ( self .  value .  get () as *  const  atomic ::  AtomicUsize )};  a .  fetch_and ( val  as  usize ,  Ordering ::  AcqRel ) as $t } else { let  _guard =  lock ( self .  value .  get () as  usize ).  write ();  let  value =  unsafe {&  mut * ( self .  value .  get ())};  let  old = *  value ; *  value &=  val ;  old }}# [ doc =  " Applies bitwise \\\"or\\\" to the current value and returns the previous value." ]# [ doc =  "" ]# [ doc =  " # Examples" ]# [ doc =  "" ]# [ doc =  " ```" ]# [ doc =  " use crossbeam_utils::atomic::AtomicCell;" ]# [ doc =  "" ]# [ doc = $example ]# [ doc =  "" ]# [ doc =  " assert_eq!(a.fetch_or(16), 7);" ]# [ doc =  " assert_eq!(a.load(), 23);" ]# [ doc =  " ```" ]# [ inline ] pub  fn  fetch_or (&  self ,  val : $t )-> $t { if  can_transmute ::<$t ,  atomic ::  AtomicUsize > (){ let  a =  unsafe {&* ( self .  value .  get () as *  const  atomic ::  AtomicUsize )};  a .  fetch_or ( val  as  usize ,  Ordering ::  AcqRel ) as $t } else { let  _guard =  lock ( self .  value .  get () as  usize ).  write ();  let  value =  unsafe {&  mut * ( self .  value .  get ())};  let  old = *  value ; *  value |=  val ;  old }}# [ doc =  " Applies bitwise \\\"xor\\\" to the current value and returns the previous value." ]# [ doc =  "" ]# [ doc =  " # Examples" ]# [ doc =  "" ]# [ doc =  " ```" ]# [ doc =  " use crossbeam_utils::atomic::AtomicCell;" ]# [ doc =  "" ]# [ doc = $example ]# [ doc =  "" ]# [ doc =  " assert_eq!(a.fetch_xor(2), 7);" ]# [ doc =  " assert_eq!(a.load(), 5);" ]# [ doc =  " ```" ]# [ inline ] pub  fn  fetch_xor (&  self ,  val : $t )-> $t { if  can_transmute ::<$t ,  atomic ::  AtomicUsize > (){ let  a =  unsafe {&* ( self .  value .  get () as *  const  atomic ::  AtomicUsize )};  a .  fetch_xor ( val  as  usize ,  Ordering ::  AcqRel ) as $t } else { let  _guard =  lock ( self .  value .  get () as  usize ).  write ();  let  value =  unsafe {&  mut * ( self .  value .  get ())};  let  old = *  value ; *  value ^=  val ;  old }}}}; ($t :  ty , $atomic :  ty , $example :  tt )=>{ impl  AtomicCell <$t > {# [ doc =  " Increments the current value by `val` and returns the previous value." ]# [ doc =  "" ]# [ doc =  " The addition wraps on overflow." ]# [ doc =  "" ]# [ doc =  " # Examples" ]# [ doc =  "" ]# [ doc =  " ```" ]# [ doc =  " use crossbeam_utils::atomic::AtomicCell;" ]# [ doc =  "" ]# [ doc = $example ]# [ doc =  "" ]# [ doc =  " assert_eq!(a.fetch_add(3), 7);" ]# [ doc =  " assert_eq!(a.load(), 10);" ]# [ doc =  " ```" ]# [ inline ] pub  fn  fetch_add (&  self ,  val : $t )-> $t { let  a =  unsafe {&* ( self .  value .  get () as *  const $atomic )};  a .  fetch_add ( val ,  Ordering ::  AcqRel )}# [ doc =  " Decrements the current value by `val` and returns the previous value." ]# [ doc =  "" ]# [ doc =  " The subtraction wraps on overflow." ]# [ doc =  "" ]# [ doc =  " # Examples" ]# [ doc =  "" ]# [ doc =  " ```" ]# [ doc =  " use crossbeam_utils::atomic::AtomicCell;" ]# [ doc =  "" ]# [ doc = $example ]# [ doc =  "" ]# [ doc =  " assert_eq!(a.fetch_sub(3), 7);" ]# [ doc =  " assert_eq!(a.load(), 4);" ]# [ doc =  " ```" ]# [ inline ] pub  fn  fetch_sub (&  self ,  val : $t )-> $t { let  a =  unsafe {&* ( self .  value .  get () as *  const $atomic )};  a .  fetch_sub ( val ,  Ordering ::  AcqRel )}# [ doc =  " Applies bitwise \\\"and\\\" to the current value and returns the previous value." ]# [ doc =  "" ]# [ doc =  " # Examples" ]# [ doc =  "" ]# [ doc =  " ```" ]# [ doc =  " use crossbeam_utils::atomic::AtomicCell;" ]# [ doc =  "" ]# [ doc = $example ]# [ doc =  "" ]# [ doc =  " assert_eq!(a.fetch_and(3), 7);" ]# [ doc =  " assert_eq!(a.load(), 3);" ]# [ doc =  " ```" ]# [ inline ] pub  fn  fetch_and (&  self ,  val : $t )-> $t { let  a =  unsafe {&* ( self .  value .  get () as *  const $atomic )};  a .  fetch_and ( val ,  Ordering ::  AcqRel )}# [ doc =  " Applies bitwise \\\"or\\\" to the current value and returns the previous value." ]# [ doc =  "" ]# [ doc =  " # Examples" ]# [ doc =  "" ]# [ doc =  " ```" ]# [ doc =  " use crossbeam_utils::atomic::AtomicCell;" ]# [ doc =  "" ]# [ doc = $example ]# [ doc =  "" ]# [ doc =  " assert_eq!(a.fetch_or(16), 7);" ]# [ doc =  " assert_eq!(a.load(), 23);" ]# [ doc =  " ```" ]# [ inline ] pub  fn  fetch_or (&  self ,  val : $t )-> $t { let  a =  unsafe {&* ( self .  value .  get () as *  const $atomic )};  a .  fetch_or ( val ,  Ordering ::  AcqRel )}# [ doc =  " Applies bitwise \\\"xor\\\" to the current value and returns the previous value." ]# [ doc =  "" ]# [ doc =  " # Examples" ]# [ doc =  "" ]# [ doc =  " ```" ]# [ doc =  " use crossbeam_utils::atomic::AtomicCell;" ]# [ doc =  "" ]# [ doc = $example ]# [ doc =  "" ]# [ doc =  " assert_eq!(a.fetch_xor(2), 7);" ]# [ doc =  " assert_eq!(a.load(), 5);" ]# [ doc =  " ```" ]# [ inline ] pub  fn  fetch_xor (&  self ,  val : $t )-> $t { let  a =  unsafe {&* ( self .  value .  get () as *  const $atomic )};  a .  fetch_xor ( val ,  Ordering ::  AcqRel )}}}; }
macro_rules! __ra_macro_fixture176 {($atomic :  ident , $val :  ty )=>{ impl  AtomicConsume  for ::  core ::  sync ::  atomic ::$atomic { type  Val = $val ;  impl_consume ! (); }}; }
macro_rules! __ra_macro_fixture177 {($t :  ty , $min :  expr , $max :  expr )=>{ impl  Bounded  for $t {# [ inline ] fn  min_value ()-> $t {$min }# [ inline ] fn  max_value ()-> $t {$max }}}; }
macro_rules! __ra_macro_fixture178 {($m :  ident )=>{ for_each_tuple_ ! {$m !!  A ,  B ,  C ,  D ,  E ,  F ,  G ,  H ,  I ,  J ,  K ,  L ,  M ,  N ,  O ,  P ,  Q ,  R ,  S ,  T , }}; }
macro_rules! __ra_macro_fixture179 {($T :  ident )=>{ impl  ToPrimitive  for $T { impl_to_primitive_int_to_int ! {$T :  fn  to_isize ->  isize ;  fn  to_i8 ->  i8 ;  fn  to_i16 ->  i16 ;  fn  to_i32 ->  i32 ;  fn  to_i64 ->  i64 ; # [ cfg ( has_i128 )] fn  to_i128 ->  i128 ; } impl_to_primitive_int_to_uint ! {$T :  fn  to_usize ->  usize ;  fn  to_u8 ->  u8 ;  fn  to_u16 ->  u16 ;  fn  to_u32 ->  u32 ;  fn  to_u64 ->  u64 ; # [ cfg ( has_i128 )] fn  to_u128 ->  u128 ; }# [ inline ] fn  to_f32 (&  self )->  Option <  f32 > { Some (*  self  as  f32 )}# [ inline ] fn  to_f64 (&  self )->  Option <  f64 > { Some (*  self  as  f64 )}}}; }
macro_rules! __ra_macro_fixture180 {($T :  ident )=>{ impl  ToPrimitive  for $T { impl_to_primitive_uint_to_int ! {$T :  fn  to_isize ->  isize ;  fn  to_i8 ->  i8 ;  fn  to_i16 ->  i16 ;  fn  to_i32 ->  i32 ;  fn  to_i64 ->  i64 ; # [ cfg ( has_i128 )] fn  to_i128 ->  i128 ; } impl_to_primitive_uint_to_uint ! {$T :  fn  to_usize ->  usize ;  fn  to_u8 ->  u8 ;  fn  to_u16 ->  u16 ;  fn  to_u32 ->  u32 ;  fn  to_u64 ->  u64 ; # [ cfg ( has_i128 )] fn  to_u128 ->  u128 ; }# [ inline ] fn  to_f32 (&  self )->  Option <  f32 > { Some (*  self  as  f32 )}# [ inline ] fn  to_f64 (&  self )->  Option <  f64 > { Some (*  self  as  f64 )}}}; }
macro_rules! __ra_macro_fixture181 {($T :  ident )=>{ impl  ToPrimitive  for $T { impl_to_primitive_float_to_signed_int ! {$T :  fn  to_isize ->  isize ;  fn  to_i8 ->  i8 ;  fn  to_i16 ->  i16 ;  fn  to_i32 ->  i32 ;  fn  to_i64 ->  i64 ; # [ cfg ( has_i128 )] fn  to_i128 ->  i128 ; } impl_to_primitive_float_to_unsigned_int ! {$T :  fn  to_usize ->  usize ;  fn  to_u8 ->  u8 ;  fn  to_u16 ->  u16 ;  fn  to_u32 ->  u32 ;  fn  to_u64 ->  u64 ; # [ cfg ( has_i128 )] fn  to_u128 ->  u128 ; } impl_to_primitive_float_to_float ! {$T :  fn  to_f32 ->  f32 ;  fn  to_f64 ->  f64 ; }}}; }
macro_rules! __ra_macro_fixture182 {($T :  ty , $to_ty :  ident )=>{# [ allow ( deprecated )] impl  FromPrimitive  for $T {# [ inline ] fn  from_isize ( n :  isize )->  Option <$T > { n .$to_ty ()}# [ inline ] fn  from_i8 ( n :  i8 )->  Option <$T > { n .$to_ty ()}# [ inline ] fn  from_i16 ( n :  i16 )->  Option <$T > { n .$to_ty ()}# [ inline ] fn  from_i32 ( n :  i32 )->  Option <$T > { n .$to_ty ()}# [ inline ] fn  from_i64 ( n :  i64 )->  Option <$T > { n .$to_ty ()}# [ cfg ( has_i128 )]# [ inline ] fn  from_i128 ( n :  i128 )->  Option <$T > { n .$to_ty ()}# [ inline ] fn  from_usize ( n :  usize )->  Option <$T > { n .$to_ty ()}# [ inline ] fn  from_u8 ( n :  u8 )->  Option <$T > { n .$to_ty ()}# [ inline ] fn  from_u16 ( n :  u16 )->  Option <$T > { n .$to_ty ()}# [ inline ] fn  from_u32 ( n :  u32 )->  Option <$T > { n .$to_ty ()}# [ inline ] fn  from_u64 ( n :  u64 )->  Option <$T > { n .$to_ty ()}# [ cfg ( has_i128 )]# [ inline ] fn  from_u128 ( n :  u128 )->  Option <$T > { n .$to_ty ()}# [ inline ] fn  from_f32 ( n :  f32 )->  Option <$T > { n .$to_ty ()}# [ inline ] fn  from_f64 ( n :  f64 )->  Option <$T > { n .$to_ty ()}}}; }
macro_rules! __ra_macro_fixture183 {($T :  ty , $conv :  ident )=>{ impl  NumCast  for $T {# [ inline ]# [ allow ( deprecated )] fn  from <  N :  ToPrimitive > ( n :  N )->  Option <$T > { n .$conv ()}}}; }
macro_rules! __ra_macro_fixture184 {(@ $T :  ty =>$(# [$cfg :  meta ])*  impl $U :  ty )=>{$(# [$cfg ])*  impl  AsPrimitive <$U >  for $T {# [ inline ] fn  as_ ( self )-> $U { self  as $U }}}; (@ $T :  ty =>{$($U :  ty ),* })=>{$(impl_as_primitive ! (@ $T => impl $U ); )*}; ($T :  ty =>{$($U :  ty ),* })=>{ impl_as_primitive ! (@ $T =>{$($U ),* });  impl_as_primitive ! (@ $T =>{ u8 ,  u16 ,  u32 ,  u64 ,  usize });  impl_as_primitive ! (@ $T =># [ cfg ( has_i128 )] impl  u128 );  impl_as_primitive ! (@ $T =>{ i8 ,  i16 ,  i32 ,  i64 ,  isize });  impl_as_primitive ! (@ $T =># [ cfg ( has_i128 )] impl  i128 ); }; }
macro_rules! __ra_macro_fixture185 {($(# [$doc :  meta ]$constant :  ident ,)+)=>(# [ allow ( non_snake_case )] pub  trait  FloatConst {$(# [$doc ] fn $constant ()->  Self ;)+ # [ doc =  "Return the full circle constant `τ`." ]# [ inline ] fn  TAU ()->  Self  where  Self :  Sized +  Add <  Self ,  Output =  Self >{ Self ::  PI ()+  Self ::  PI ()}# [ doc =  "Return `log10(2.0)`." ]# [ inline ] fn  LOG10_2 ()->  Self  where  Self :  Sized +  Div <  Self ,  Output =  Self >{ Self ::  LN_2 ()/  Self ::  LN_10 ()}# [ doc =  "Return `log2(10.0)`." ]# [ inline ] fn  LOG2_10 ()->  Self  where  Self :  Sized +  Div <  Self ,  Output =  Self >{ Self ::  LN_10 ()/  Self ::  LN_2 ()}} float_const_impl ! {@  float  f32 , $($constant ,)+ } float_const_impl ! {@  float  f64 , $($constant ,)+ }); (@  float $T :  ident , $($constant :  ident ,)+)=>( impl  FloatConst  for $T { constant ! {$($constant ()-> $T ::  consts ::$constant ; )+  TAU ()->  6.28318530717958647692528676655900577 ;  LOG10_2 ()->  0.301029995663981195213738894724493027 ;  LOG2_10 ()->  3.32192809488736234787031942948939018 ; }}); }
macro_rules! __ra_macro_fixture186 {($t :  ty , $v :  expr )=>{ impl  Zero  for $t {# [ inline ] fn  zero ()-> $t {$v }# [ inline ] fn  is_zero (&  self )->  bool {*  self == $v }}}; }
macro_rules! __ra_macro_fixture187 {($t :  ty , $v :  expr )=>{ impl  One  for $t {# [ inline ] fn  one ()-> $t {$v }# [ inline ] fn  is_one (&  self )->  bool {*  self == $v }}}; }
macro_rules! __ra_macro_fixture188 {($T :  ty , $S :  ty , $U :  ty )=>{ impl  PrimInt  for $T {# [ inline ] fn  count_ones ( self )->  u32 {<$T >::  count_ones ( self )}# [ inline ] fn  count_zeros ( self )->  u32 {<$T >::  count_zeros ( self )}# [ inline ] fn  leading_zeros ( self )->  u32 {<$T >::  leading_zeros ( self )}# [ inline ] fn  trailing_zeros ( self )->  u32 {<$T >::  trailing_zeros ( self )}# [ inline ] fn  rotate_left ( self ,  n :  u32 )->  Self {<$T >::  rotate_left ( self ,  n )}# [ inline ] fn  rotate_right ( self ,  n :  u32 )->  Self {<$T >::  rotate_right ( self ,  n )}# [ inline ] fn  signed_shl ( self ,  n :  u32 )->  Self {(( self  as $S )<<  n ) as $T }# [ inline ] fn  signed_shr ( self ,  n :  u32 )->  Self {(( self  as $S )>>  n ) as $T }# [ inline ] fn  unsigned_shl ( self ,  n :  u32 )->  Self {(( self  as $U )<<  n ) as $T }# [ inline ] fn  unsigned_shr ( self ,  n :  u32 )->  Self {(( self  as $U )>>  n ) as $T }# [ inline ] fn  swap_bytes ( self )->  Self {<$T >::  swap_bytes ( self )}# [ inline ] fn  from_be ( x :  Self )->  Self {<$T >::  from_be ( x )}# [ inline ] fn  from_le ( x :  Self )->  Self {<$T >::  from_le ( x )}# [ inline ] fn  to_be ( self )->  Self {<$T >::  to_be ( self )}# [ inline ] fn  to_le ( self )->  Self {<$T >::  to_le ( self )}# [ inline ] fn  pow ( self ,  exp :  u32 )->  Self {<$T >::  pow ( self ,  exp )}}}; }
macro_rules! __ra_macro_fixture189 {($trait_name :  ident , $method :  ident , $t :  ty )=>{ impl $trait_name  for $t {# [ inline ] fn $method (&  self ,  v : &$t )->  Option <$t > {<$t >::$method (*  self , *  v )}}}; }
macro_rules! __ra_macro_fixture190 {($trait_name :  ident , $method :  ident , $t :  ty )=>{ impl $trait_name  for $t {# [ inline ] fn $method (&  self )->  Option <$t > {<$t >::$method (*  self )}}}; }
macro_rules! __ra_macro_fixture191 {($trait_name :  ident , $method :  ident , $t :  ty )=>{ impl $trait_name  for $t {# [ inline ] fn $method (&  self ,  rhs :  u32 )->  Option <$t > {<$t >::$method (*  self ,  rhs )}}}; }
macro_rules! __ra_macro_fixture192 {($trait_name :  ident  for $($t :  ty )*)=>{$(impl $trait_name  for $t { type  Output =  Self ; # [ inline ] fn  mul_add ( self ,  a :  Self ,  b :  Self )->  Self ::  Output {( self *  a )+  b }})*}}
macro_rules! __ra_macro_fixture193 {($trait_name :  ident  for $($t :  ty )*)=>{$(impl $trait_name  for $t {# [ inline ] fn  mul_add_assign (&  mut  self ,  a :  Self ,  b :  Self ){*  self = (*  self *  a )+  b }})*}}
macro_rules! __ra_macro_fixture194 {($trait_name :  ident , $method :  ident , $t :  ty )=>{ impl $trait_name  for $t {# [ inline ] fn $method (&  self ,  v : &  Self )-> ( Self ,  bool ){<$t >::$method (*  self , *  v )}}}; }
macro_rules! __ra_macro_fixture195 {($trait_name :  ident  for $($t :  ty )*)=>{$(impl $trait_name  for $t {# [ inline ] fn  saturating_add ( self ,  v :  Self )->  Self { Self ::  saturating_add ( self ,  v )}# [ inline ] fn  saturating_sub ( self ,  v :  Self )->  Self { Self ::  saturating_sub ( self ,  v )}})*}}
macro_rules! __ra_macro_fixture196 {($trait_name :  ident , $method :  ident , $t :  ty )=>{ impl $trait_name  for $t {# [ inline ] fn $method (&  self ,  v : &  Self )->  Self {<$t >::$method (*  self , *  v )}}}; }
macro_rules! __ra_macro_fixture197 {($trait_name :  ident , $method :  ident , $t :  ty )=>{ impl $trait_name  for $t {# [ inline ] fn $method (&  self ,  v : &  Self )->  Self {<$t >::$method (*  self , *  v )}}}; ($trait_name :  ident , $method :  ident , $t :  ty , $rhs :  ty )=>{ impl $trait_name <$rhs >  for $t {# [ inline ] fn $method (&  self ,  v : &$rhs )->  Self {<$t >::$method (*  self , *  v )}}}; }
macro_rules! __ra_macro_fixture198 {($trait_name :  ident , $method :  ident , $t :  ty )=>{ impl $trait_name  for $t {# [ inline ] fn $method (&  self )-> $t {<$t >::$method (*  self )}}}; }
macro_rules! __ra_macro_fixture199 {($trait_name :  ident , $method :  ident , $t :  ty )=>{ impl $trait_name  for $t {# [ inline ] fn $method (&  self ,  rhs :  u32 )-> $t {<$t >::$method (*  self ,  rhs )}}}; }
macro_rules! __ra_macro_fixture200 {($t :  ty )=>{ pow_impl ! ($t ,  u8 );  pow_impl ! ($t ,  usize ); }; ($t :  ty , $rhs :  ty )=>{ pow_impl ! ($t , $rhs ,  usize ,  pow ); }; ($t :  ty , $rhs :  ty , $desired_rhs :  ty , $method :  expr )=>{ impl  Pow <$rhs >  for $t { type  Output = $t ; # [ inline ] fn  pow ( self ,  rhs : $rhs )-> $t {($method )( self , <$desired_rhs >::  from ( rhs ))}} impl < 'a >  Pow <& 'a $rhs >  for $t { type  Output = $t ; # [ inline ] fn  pow ( self ,  rhs : & 'a $rhs )-> $t {($method )( self , <$desired_rhs >::  from (*  rhs ))}} impl < 'a >  Pow <$rhs >  for & 'a $t { type  Output = $t ; # [ inline ] fn  pow ( self ,  rhs : $rhs )-> $t {($method )(*  self , <$desired_rhs >::  from ( rhs ))}} impl < 'a , 'b >  Pow <& 'a $rhs >  for & 'b $t { type  Output = $t ; # [ inline ] fn  pow ( self ,  rhs : & 'a $rhs )-> $t {($method )(*  self , <$desired_rhs >::  from (*  rhs ))}}}; }
macro_rules! __ra_macro_fixture201 {($($t :  ty )*)=>($(impl  Signed  for $t {# [ inline ] fn  abs (&  self )-> $t { if  self .  is_negative (){-*  self } else {*  self }}# [ inline ] fn  abs_sub (&  self ,  other : &$t )-> $t { if *  self <= *  other { 0 } else {*  self - *  other }}# [ inline ] fn  signum (&  self )-> $t { match *  self { n  if  n >  0 => 1 ,  0 => 0 , _ =>-  1 , }}# [ inline ] fn  is_positive (&  self )->  bool {*  self >  0 }# [ inline ] fn  is_negative (&  self )->  bool {*  self <  0 }})*)}
macro_rules! __ra_macro_fixture202 {($t :  ty )=>{ impl  Signed  for $t {# [ doc =  " Computes the absolute value. Returns `NAN` if the number is `NAN`." ]# [ inline ] fn  abs (&  self )-> $t { FloatCore ::  abs (*  self )}# [ doc =  " The positive difference of two numbers. Returns `0.0` if the number is" ]# [ doc =  " less than or equal to `other`, otherwise the difference between`self`" ]# [ doc =  " and `other` is returned." ]# [ inline ] fn  abs_sub (&  self ,  other : &$t )-> $t { if *  self <= *  other { 0. } else {*  self - *  other }}# [ doc =  " # Returns" ]# [ doc =  "" ]# [ doc =  " - `1.0` if the number is positive, `+0.0` or `INFINITY`" ]# [ doc =  " - `-1.0` if the number is negative, `-0.0` or `NEG_INFINITY`" ]# [ doc =  " - `NAN` if the number is NaN" ]# [ inline ] fn  signum (&  self )-> $t { FloatCore ::  signum (*  self )}# [ doc =  " Returns `true` if the number is positive, including `+0.0` and `INFINITY`" ]# [ inline ] fn  is_positive (&  self )->  bool { FloatCore ::  is_sign_positive (*  self )}# [ doc =  " Returns `true` if the number is negative, including `-0.0` and `NEG_INFINITY`" ]# [ inline ] fn  is_negative (&  self )->  bool { FloatCore ::  is_sign_negative (*  self )}}}; }
macro_rules! __ra_macro_fixture203 {($name :  ident  for $($t :  ty )*)=>($(impl $name  for $t {})*)}
macro_rules! __ra_macro_fixture204 {($name :  ident  for $($t :  ty )*)=>($(impl $name  for $t { type  FromStrRadixErr = ::  core ::  num ::  ParseIntError ; # [ inline ] fn  from_str_radix ( s : &  str ,  radix :  u32 )->  Result <  Self , ::  core ::  num ::  ParseIntError > {<$t >::  from_str_radix ( s ,  radix )}})*)}
macro_rules! __ra_macro_fixture205 {($name :  ident  for $($t :  ident )*)=>($(impl $name  for $t { type  FromStrRadixErr =  ParseFloatError ;  fn  from_str_radix ( src : &  str ,  radix :  u32 )->  Result <  Self ,  Self ::  FromStrRadixErr > { use  self ::  FloatErrorKind ::*;  use  self ::  ParseFloatError  as  PFE ;  match  src { "inf" => return  Ok ( core ::$t ::  INFINITY ),  "-inf" => return  Ok ( core ::$t ::  NEG_INFINITY ),  "NaN" => return  Ok ( core ::$t ::  NAN ), _ =>{}, } fn  slice_shift_char ( src : &  str )->  Option < ( char , &  str )> { let  mut  chars =  src .  chars ();  if  let  Some ( ch )=  chars .  next (){ Some (( ch ,  chars .  as_str ()))} else { None }} let ( is_positive ,  src )=  match  slice_shift_char ( src ){ None => return  Err ( PFE { kind :  Empty }),  Some (( '-' ,  "" ))=> return  Err ( PFE { kind :  Empty }),  Some (( '-' ,  src ))=>( false ,  src ),  Some ((_, _))=>( true ,  src ), };  let  mut  sig =  if  is_positive { 0.0 } else {-  0.0 };  let  mut  prev_sig =  sig ;  let  mut  cs =  src .  chars ().  enumerate ();  let  mut  exp_info =  None ::< ( char ,  usize )>;  for ( i ,  c ) in  cs .  by_ref (){ match  c .  to_digit ( radix ){ Some ( digit )=>{ sig =  sig * ( radix  as $t );  if  is_positive { sig =  sig + (( digit  as  isize ) as $t ); } else { sig =  sig - (( digit  as  isize ) as $t ); } if  prev_sig !=  0.0 { if  is_positive &&  sig <=  prev_sig { return  Ok ( core ::$t ::  INFINITY ); } if !  is_positive &&  sig >=  prev_sig { return  Ok ( core ::$t ::  NEG_INFINITY ); } if  is_positive && ( prev_sig != ( sig -  digit  as $t )/  radix  as $t ){ return  Ok ( core ::$t ::  INFINITY ); } if !  is_positive && ( prev_sig != ( sig +  digit  as $t )/  radix  as $t ){ return  Ok ( core ::$t ::  NEG_INFINITY ); }} prev_sig =  sig ; },  None => match  c { 'e' |  'E' |  'p' |  'P' =>{ exp_info =  Some (( c ,  i +  1 ));  break ; },  '.' =>{ break ; }, _ =>{ return  Err ( PFE { kind :  Invalid }); }, }, }} if  exp_info .  is_none (){ let  mut  power =  1.0 ;  for ( i ,  c ) in  cs .  by_ref (){ match  c .  to_digit ( radix ){ Some ( digit )=>{ power =  power / ( radix  as $t );  sig =  if  is_positive { sig + ( digit  as $t )*  power } else { sig - ( digit  as $t )*  power };  if  is_positive &&  sig <  prev_sig { return  Ok ( core ::$t ::  INFINITY ); } if !  is_positive &&  sig >  prev_sig { return  Ok ( core ::$t ::  NEG_INFINITY ); } prev_sig =  sig ; },  None => match  c { 'e' |  'E' |  'p' |  'P' =>{ exp_info =  Some (( c ,  i +  1 ));  break ; }, _ =>{ return  Err ( PFE { kind :  Invalid }); }, }, }}} let  exp =  match  exp_info { Some (( c ,  offset ))=>{ let  base =  match  c { 'E' |  'e'  if  radix ==  10 => 10.0 ,  'P' |  'p'  if  radix ==  16 => 2.0 , _ => return  Err ( PFE { kind :  Invalid }), };  let  src = &  src [ offset ..];  let ( is_positive ,  exp )=  match  slice_shift_char ( src ){ Some (( '-' ,  src ))=>( false ,  src .  parse ::<  usize > ()),  Some (( '+' ,  src ))=>( true ,  src .  parse ::<  usize > ()),  Some ((_, _))=>( true ,  src .  parse ::<  usize > ()),  None => return  Err ( PFE { kind :  Invalid }), }; # [ cfg ( feature =  "std" )] fn  pow ( base : $t ,  exp :  usize )-> $t { Float ::  powi ( base ,  exp  as  i32 )} match ( is_positive ,  exp ){( true ,  Ok ( exp ))=> pow ( base ,  exp ), ( false ,  Ok ( exp ))=> 1.0 /  pow ( base ,  exp ), (_,  Err (_))=> return  Err ( PFE { kind :  Invalid }), }},  None => 1.0 , };  Ok ( sig *  exp )}})*)}
macro_rules! __ra_macro_fixture206 {($m :  ident !! )=>($m ! {}); ($m :  ident !! $h :  ident , $($t :  ident ,)* )=>($m ! {$h $($t )* } for_each_tuple_ ! {$m !! $($t ,)* }); }
macro_rules! __ra_macro_fixture207 {($($name :  ident )* )=>( impl <$($name :  Bounded ,)*>  Bounded  for ($($name ,)*){# [ inline ] fn  min_value ()->  Self {($($name ::  min_value (),)*)}# [ inline ] fn  max_value ()->  Self {($($name ::  max_value (),)*)}}); }
macro_rules! __ra_macro_fixture208 {($T :  ty , $U :  ty )=>{ impl  Roots  for $T {# [ inline ] fn  nth_root (&  self ,  n :  u32 )->  Self { if *  self >=  0 {(*  self  as $U ).  nth_root ( n ) as  Self } else { assert ! ( n .  is_odd (),  "even roots of a negative are imaginary" ); - (( self .  wrapping_neg () as $U ).  nth_root ( n ) as  Self )}}# [ inline ] fn  sqrt (&  self )->  Self { assert ! (*  self >=  0 ,  "the square root of a negative is imaginary" ); (*  self  as $U ).  sqrt () as  Self }# [ inline ] fn  cbrt (&  self )->  Self { if *  self >=  0 {(*  self  as $U ).  cbrt () as  Self } else {- (( self .  wrapping_neg () as $U ).  cbrt () as  Self )}}}}; }
macro_rules! __ra_macro_fixture209 {($T :  ident )=>{ impl  Roots  for $T {# [ inline ] fn  nth_root (&  self ,  n :  u32 )->  Self { fn  go ( a : $T ,  n :  u32 )-> $T { match  n { 0 => panic ! ( "can't find a root of degree 0!" ),  1 => return  a ,  2 => return  a .  sqrt (),  3 => return  a .  cbrt (), _ =>(), } if  bits ::<$T > ()<=  n ||  a < ( 1 <<  n ){ return ( a >  0 ) as $T ; } if  bits ::<$T > ()>  64 { return  if  a <=  core ::  u64 ::  MAX  as $T {( a  as  u64 ).  nth_root ( n ) as $T } else { let  lo = ( a >>  n ).  nth_root ( n )<<  1 ;  let  hi =  lo +  1 ;  if  hi .  next_power_of_two ().  trailing_zeros ()*  n >=  bits ::<$T > (){ match  checked_pow ( hi ,  n  as  usize ){ Some ( x ) if  x <=  a => hi , _ => lo , }} else { if  hi .  pow ( n )<=  a { hi } else { lo }}}; }# [ cfg ( feature =  "std" )]# [ inline ] fn  guess ( x : $T ,  n :  u32 )-> $T { if  bits ::<$T > ()<=  32 ||  x <=  core ::  u32 ::  MAX  as $T { 1 << (( log2 ( x )+  n -  1 )/  n )} else {(( x  as  f64 ).  ln ()/  f64 ::  from ( n )).  exp () as $T }}# [ cfg ( not ( feature =  "std" ))]# [ inline ] fn  guess ( x : $T ,  n :  u32 )-> $T { 1 << (( log2 ( x )+  n -  1 )/  n )} let  n1 =  n -  1 ;  let  next = |  x : $T | { let  y =  match  checked_pow ( x ,  n1  as  usize ){ Some ( ax )=> a /  ax ,  None => 0 , }; ( y +  x *  n1  as $T )/  n  as $T };  fixpoint ( guess ( a ,  n ),  next )} go (*  self ,  n )}# [ inline ] fn  sqrt (&  self )->  Self { fn  go ( a : $T )-> $T { if  bits ::<$T > ()>  64 { return  if  a <=  core ::  u64 ::  MAX  as $T {( a  as  u64 ).  sqrt () as $T } else { let  lo = ( a >>  2u32 ).  sqrt ()<<  1 ;  let  hi =  lo +  1 ;  if  hi *  hi <=  a { hi } else { lo }}; } if  a <  4 { return ( a >  0 ) as $T ; }# [ cfg ( feature =  "std" )]# [ inline ] fn  guess ( x : $T )-> $T {( x  as  f64 ).  sqrt () as $T }# [ cfg ( not ( feature =  "std" ))]# [ inline ] fn  guess ( x : $T )-> $T { 1 << (( log2 ( x )+  1 )/  2 )} let  next = |  x : $T | ( a /  x +  x )>>  1 ;  fixpoint ( guess ( a ),  next )} go (*  self )}# [ inline ] fn  cbrt (&  self )->  Self { fn  go ( a : $T )-> $T { if  bits ::<$T > ()>  64 { return  if  a <=  core ::  u64 ::  MAX  as $T {( a  as  u64 ).  cbrt () as $T } else { let  lo = ( a >>  3u32 ).  cbrt ()<<  1 ;  let  hi =  lo +  1 ;  if  hi *  hi *  hi <=  a { hi } else { lo }}; } if  bits ::<$T > ()<=  32 { let  mut  x =  a ;  let  mut  y2 =  0 ;  let  mut  y =  0 ;  let  smax =  bits ::<$T > ()/  3 ;  for  s  in ( 0 ..  smax +  1 ).  rev (){ let  s =  s *  3 ;  y2 *=  4 ;  y *=  2 ;  let  b =  3 * ( y2 +  y )+  1 ;  if  x >>  s >=  b { x -=  b <<  s ;  y2 +=  2 *  y +  1 ;  y +=  1 ; }} return  y ; } if  a <  8 { return ( a >  0 ) as $T ; } if  a <=  core ::  u32 ::  MAX  as $T { return ( a  as  u32 ).  cbrt () as $T ; }# [ cfg ( feature =  "std" )]# [ inline ] fn  guess ( x : $T )-> $T {( x  as  f64 ).  cbrt () as $T }# [ cfg ( not ( feature =  "std" ))]# [ inline ] fn  guess ( x : $T )-> $T { 1 << (( log2 ( x )+  2 )/  3 )} let  next = |  x : $T | ( a / ( x *  x )+  x *  2 )/  3 ;  fixpoint ( guess ( a ),  next )} go (*  self )}}}; }
macro_rules! __ra_macro_fixture210 {($T :  ty , $test_mod :  ident )=>{ impl  Integer  for $T {# [ doc =  " Floored integer division" ]# [ inline ] fn  div_floor (&  self ,  other : &  Self )->  Self { let ( d ,  r )=  self .  div_rem ( other );  if ( r >  0 && *  other <  0 )|| ( r <  0 && *  other >  0 ){ d -  1 } else { d }}# [ doc =  " Floored integer modulo" ]# [ inline ] fn  mod_floor (&  self ,  other : &  Self )->  Self { let  r = *  self % *  other ;  if ( r >  0 && *  other <  0 )|| ( r <  0 && *  other >  0 ){ r + *  other } else { r }}# [ doc =  " Calculates `div_floor` and `mod_floor` simultaneously" ]# [ inline ] fn  div_mod_floor (&  self ,  other : &  Self )-> ( Self ,  Self ){ let ( d ,  r )=  self .  div_rem ( other );  if ( r >  0 && *  other <  0 )|| ( r <  0 && *  other >  0 ){( d -  1 ,  r + *  other )} else {( d ,  r )}}# [ inline ] fn  div_ceil (&  self ,  other : &  Self )->  Self { let ( d ,  r )=  self .  div_rem ( other );  if ( r >  0 && *  other >  0 )|| ( r <  0 && *  other <  0 ){ d +  1 } else { d }}# [ doc =  " Calculates the Greatest Common Divisor (GCD) of the number and" ]# [ doc =  " `other`. The result is always positive." ]# [ inline ] fn  gcd (&  self ,  other : &  Self )->  Self { let  mut  m = *  self ;  let  mut  n = *  other ;  if  m ==  0 ||  n ==  0 { return ( m |  n ).  abs (); } let  shift = ( m |  n ).  trailing_zeros ();  if  m ==  Self ::  min_value ()||  n ==  Self ::  min_value (){ return ( 1 <<  shift ).  abs (); } m =  m .  abs ();  n =  n .  abs ();  m >>=  m .  trailing_zeros ();  n >>=  n .  trailing_zeros ();  while  m !=  n { if  m > n { m -=  n ;  m >>=  m .  trailing_zeros (); } else { n -=  m ;  n >>=  n .  trailing_zeros (); }} m <<  shift }# [ inline ] fn  extended_gcd_lcm (&  self ,  other : &  Self )-> ( ExtendedGcd <  Self >,  Self ){ let  egcd =  self .  extended_gcd ( other );  let  lcm =  if  egcd .  gcd .  is_zero (){ Self ::  zero ()} else {(*  self * (*  other /  egcd .  gcd )).  abs ()}; ( egcd ,  lcm )}# [ doc =  " Calculates the Lowest Common Multiple (LCM) of the number and" ]# [ doc =  " `other`." ]# [ inline ] fn  lcm (&  self ,  other : &  Self )->  Self { self .  gcd_lcm ( other ).  1 }# [ doc =  " Calculates the Greatest Common Divisor (GCD) and" ]# [ doc =  " Lowest Common Multiple (LCM) of the number and `other`." ]# [ inline ] fn  gcd_lcm (&  self ,  other : &  Self )-> ( Self ,  Self ){ if  self .  is_zero ()&&  other .  is_zero (){ return ( Self ::  zero (),  Self ::  zero ()); } let  gcd =  self .  gcd ( other );  let  lcm = (*  self * (*  other /  gcd )).  abs (); ( gcd ,  lcm )}# [ doc =  " Deprecated, use `is_multiple_of` instead." ]# [ inline ] fn  divides (&  self ,  other : &  Self )->  bool { self .  is_multiple_of ( other )}# [ doc =  " Returns `true` if the number is a multiple of `other`." ]# [ inline ] fn  is_multiple_of (&  self ,  other : &  Self )->  bool {*  self % *  other ==  0 }# [ doc =  " Returns `true` if the number is divisible by `2`" ]# [ inline ] fn  is_even (&  self )->  bool {(*  self )&  1 ==  0 }# [ doc =  " Returns `true` if the number is not divisible by `2`" ]# [ inline ] fn  is_odd (&  self )->  bool {!  self .  is_even ()}# [ doc =  " Simultaneous truncated integer division and modulus." ]# [ inline ] fn  div_rem (&  self ,  other : &  Self )-> ( Self ,  Self ){(*  self / *  other , *  self % *  other )}}# [ cfg ( test )] mod $test_mod { use  core ::  mem ;  use  Integer ; # [ doc =  " Checks that the division rule holds for:" ]# [ doc =  "" ]# [ doc =  " - `n`: numerator (dividend)" ]# [ doc =  " - `d`: denominator (divisor)" ]# [ doc =  " - `qr`: quotient and remainder" ]# [ cfg ( test )] fn  test_division_rule (( n ,  d ): ($T , $T ), ( q ,  r ): ($T , $T )){ assert_eq ! ( d *  q +  r ,  n ); }# [ test ] fn  test_div_rem (){ fn  test_nd_dr ( nd : ($T , $T ),  qr : ($T , $T )){ let ( n ,  d )=  nd ;  let  separate_div_rem = ( n /  d ,  n %  d );  let  combined_div_rem =  n .  div_rem (&  d );  assert_eq ! ( separate_div_rem ,  qr );  assert_eq ! ( combined_div_rem ,  qr );  test_division_rule ( nd ,  separate_div_rem );  test_division_rule ( nd ,  combined_div_rem ); } test_nd_dr (( 8 ,  3 ), ( 2 ,  2 ));  test_nd_dr (( 8 , -  3 ), (-  2 ,  2 ));  test_nd_dr ((-  8 ,  3 ), (-  2 , -  2 ));  test_nd_dr ((-  8 , -  3 ), ( 2 , -  2 ));  test_nd_dr (( 1 ,  2 ), ( 0 ,  1 ));  test_nd_dr (( 1 , -  2 ), ( 0 ,  1 ));  test_nd_dr ((-  1 ,  2 ), ( 0 , -  1 ));  test_nd_dr ((-  1 , -  2 ), ( 0 , -  1 )); }# [ test ] fn  test_div_mod_floor (){ fn  test_nd_dm ( nd : ($T , $T ),  dm : ($T , $T )){ let ( n ,  d )=  nd ;  let  separate_div_mod_floor = ( n .  div_floor (&  d ),  n .  mod_floor (&  d ));  let  combined_div_mod_floor =  n .  div_mod_floor (&  d );  assert_eq ! ( separate_div_mod_floor ,  dm );  assert_eq ! ( combined_div_mod_floor ,  dm );  test_division_rule ( nd ,  separate_div_mod_floor );  test_division_rule ( nd ,  combined_div_mod_floor ); } test_nd_dm (( 8 ,  3 ), ( 2 ,  2 ));  test_nd_dm (( 8 , -  3 ), (-  3 , -  1 ));  test_nd_dm ((-  8 ,  3 ), (-  3 ,  1 ));  test_nd_dm ((-  8 , -  3 ), ( 2 , -  2 ));  test_nd_dm (( 1 ,  2 ), ( 0 ,  1 ));  test_nd_dm (( 1 , -  2 ), (-  1 , -  1 ));  test_nd_dm ((-  1 ,  2 ), (-  1 ,  1 ));  test_nd_dm ((-  1 , -  2 ), ( 0 , -  1 )); }# [ test ] fn  test_gcd (){ assert_eq ! (( 10  as $T ).  gcd (&  2 ),  2  as $T );  assert_eq ! (( 10  as $T ).  gcd (&  3 ),  1  as $T );  assert_eq ! (( 0  as $T ).  gcd (&  3 ),  3  as $T );  assert_eq ! (( 3  as $T ).  gcd (&  3 ),  3  as $T );  assert_eq ! (( 56  as $T ).  gcd (&  42 ),  14  as $T );  assert_eq ! (( 3  as $T ).  gcd (&-  3 ),  3  as $T );  assert_eq ! ((-  6  as $T ).  gcd (&  3 ),  3  as $T );  assert_eq ! ((-  4  as $T ).  gcd (&-  2 ),  2  as $T ); }# [ test ] fn  test_gcd_cmp_with_euclidean (){ fn  euclidean_gcd ( mut  m : $T ,  mut  n : $T )-> $T { while  m !=  0 { mem ::  swap (&  mut  m , &  mut  n );  m %=  n ; } n .  abs ()} for  i  in -  127 ..  127 { for  j  in -  127 ..  127 { assert_eq ! ( euclidean_gcd ( i ,  j ),  i .  gcd (&  j )); }} let  i =  127 ;  for  j  in -  127 ..  127 { assert_eq ! ( euclidean_gcd ( i ,  j ),  i .  gcd (&  j )); } assert_eq ! ( 127 .  gcd (&  127 ),  127 ); }# [ test ] fn  test_gcd_min_val (){ let  min = <$T >::  min_value ();  let  max = <$T >::  max_value ();  let  max_pow2 =  max /  2 +  1 ;  assert_eq ! ( min .  gcd (&  max ),  1  as $T );  assert_eq ! ( max .  gcd (&  min ),  1  as $T );  assert_eq ! ( min .  gcd (&  max_pow2 ),  max_pow2 );  assert_eq ! ( max_pow2 .  gcd (&  min ),  max_pow2 );  assert_eq ! ( min .  gcd (&  42 ),  2  as $T );  assert_eq ! (( 42  as $T ).  gcd (&  min ),  2  as $T ); }# [ test ]# [ should_panic ] fn  test_gcd_min_val_min_val (){ let  min = <$T >::  min_value ();  assert ! ( min .  gcd (&  min )>=  0 ); }# [ test ]# [ should_panic ] fn  test_gcd_min_val_0 (){ let  min = <$T >::  min_value ();  assert ! ( min .  gcd (&  0 )>=  0 ); }# [ test ]# [ should_panic ] fn  test_gcd_0_min_val (){ let  min = <$T >::  min_value ();  assert ! (( 0  as $T ).  gcd (&  min )>=  0 ); }# [ test ] fn  test_lcm (){ assert_eq ! (( 1  as $T ).  lcm (&  0 ),  0  as $T );  assert_eq ! (( 0  as $T ).  lcm (&  1 ),  0  as $T );  assert_eq ! (( 1  as $T ).  lcm (&  1 ),  1  as $T );  assert_eq ! ((-  1  as $T ).  lcm (&  1 ),  1  as $T );  assert_eq ! (( 1  as $T ).  lcm (&-  1 ),  1  as $T );  assert_eq ! ((-  1  as $T ).  lcm (&-  1 ),  1  as $T );  assert_eq ! (( 8  as $T ).  lcm (&  9 ),  72  as $T );  assert_eq ! (( 11  as $T ).  lcm (&  5 ),  55  as $T ); }# [ test ] fn  test_gcd_lcm (){ use  core ::  iter ::  once ;  for  i  in  once ( 0 ).  chain (( 1 ..).  take ( 127 ).  flat_map (|  a |  once ( a ).  chain ( once (-  a )))).  chain ( once (-  128 )){ for  j  in  once ( 0 ).  chain (( 1 ..).  take ( 127 ).  flat_map (|  a |  once ( a ).  chain ( once (-  a )))).  chain ( once (-  128 )){ assert_eq ! ( i .  gcd_lcm (&  j ), ( i .  gcd (&  j ),  i .  lcm (&  j ))); }}}# [ test ] fn  test_extended_gcd_lcm (){ use  core ::  fmt ::  Debug ;  use  traits ::  NumAssign ;  use  ExtendedGcd ;  fn  check <  A :  Copy +  Debug +  Integer +  NumAssign > ( a :  A ,  b :  A ){ let  ExtendedGcd { gcd ,  x ,  y , .. }=  a .  extended_gcd (&  b );  assert_eq ! ( gcd ,  x *  a +  y *  b ); } use  core ::  iter ::  once ;  for  i  in  once ( 0 ).  chain (( 1 ..).  take ( 127 ).  flat_map (|  a |  once ( a ).  chain ( once (-  a )))).  chain ( once (-  128 )){ for  j  in  once ( 0 ).  chain (( 1 ..).  take ( 127 ).  flat_map (|  a |  once ( a ).  chain ( once (-  a )))).  chain ( once (-  128 )){ check ( i ,  j );  let ( ExtendedGcd { gcd , .. },  lcm )=  i .  extended_gcd_lcm (&  j );  assert_eq ! (( gcd ,  lcm ), ( i .  gcd (&  j ),  i .  lcm (&  j ))); }}}# [ test ] fn  test_even (){ assert_eq ! ((-  4  as $T ).  is_even (),  true );  assert_eq ! ((-  3  as $T ).  is_even (),  false );  assert_eq ! ((-  2  as $T ).  is_even (),  true );  assert_eq ! ((-  1  as $T ).  is_even (),  false );  assert_eq ! (( 0  as $T ).  is_even (),  true );  assert_eq ! (( 1  as $T ).  is_even (),  false );  assert_eq ! (( 2  as $T ).  is_even (),  true );  assert_eq ! (( 3  as $T ).  is_even (),  false );  assert_eq ! (( 4  as $T ).  is_even (),  true ); }# [ test ] fn  test_odd (){ assert_eq ! ((-  4  as $T ).  is_odd (),  false );  assert_eq ! ((-  3  as $T ).  is_odd (),  true );  assert_eq ! ((-  2  as $T ).  is_odd (),  false );  assert_eq ! ((-  1  as $T ).  is_odd (),  true );  assert_eq ! (( 0  as $T ).  is_odd (),  false );  assert_eq ! (( 1  as $T ).  is_odd (),  true );  assert_eq ! (( 2  as $T ).  is_odd (),  false );  assert_eq ! (( 3  as $T ).  is_odd (),  true );  assert_eq ! (( 4  as $T ).  is_odd (),  false ); }}}; }
macro_rules! __ra_macro_fixture211 {($T :  ty , $test_mod :  ident )=>{ impl  Integer  for $T {# [ doc =  " Unsigned integer division. Returns the same result as `div` (`/`)." ]# [ inline ] fn  div_floor (&  self ,  other : &  Self )->  Self {*  self / *  other }# [ doc =  " Unsigned integer modulo operation. Returns the same result as `rem` (`%`)." ]# [ inline ] fn  mod_floor (&  self ,  other : &  Self )->  Self {*  self % *  other }# [ inline ] fn  div_ceil (&  self ,  other : &  Self )->  Self {*  self / *  other + ( 0 != *  self % *  other ) as  Self }# [ doc =  " Calculates the Greatest Common Divisor (GCD) of the number and `other`" ]# [ inline ] fn  gcd (&  self ,  other : &  Self )->  Self { let  mut  m = *  self ;  let  mut  n = *  other ;  if  m ==  0 ||  n ==  0 { return  m |  n ; } let  shift = ( m |  n ).  trailing_zeros ();  m >>=  m .  trailing_zeros ();  n >>=  n .  trailing_zeros ();  while  m !=  n { if  m > n { m -=  n ;  m >>=  m .  trailing_zeros (); } else { n -=  m ;  n >>=  n .  trailing_zeros (); }} m <<  shift }# [ inline ] fn  extended_gcd_lcm (&  self ,  other : &  Self )-> ( ExtendedGcd <  Self >,  Self ){ let  egcd =  self .  extended_gcd ( other );  let  lcm =  if  egcd .  gcd .  is_zero (){ Self ::  zero ()} else {*  self * (*  other /  egcd .  gcd )}; ( egcd ,  lcm )}# [ doc =  " Calculates the Lowest Common Multiple (LCM) of the number and `other`." ]# [ inline ] fn  lcm (&  self ,  other : &  Self )->  Self { self .  gcd_lcm ( other ).  1 }# [ doc =  " Calculates the Greatest Common Divisor (GCD) and" ]# [ doc =  " Lowest Common Multiple (LCM) of the number and `other`." ]# [ inline ] fn  gcd_lcm (&  self ,  other : &  Self )-> ( Self ,  Self ){ if  self .  is_zero ()&&  other .  is_zero (){ return ( Self ::  zero (),  Self ::  zero ()); } let  gcd =  self .  gcd ( other );  let  lcm = *  self * (*  other /  gcd ); ( gcd ,  lcm )}# [ doc =  " Deprecated, use `is_multiple_of` instead." ]# [ inline ] fn  divides (&  self ,  other : &  Self )->  bool { self .  is_multiple_of ( other )}# [ doc =  " Returns `true` if the number is a multiple of `other`." ]# [ inline ] fn  is_multiple_of (&  self ,  other : &  Self )->  bool {*  self % *  other ==  0 }# [ doc =  " Returns `true` if the number is divisible by `2`." ]# [ inline ] fn  is_even (&  self )->  bool {*  self %  2 ==  0 }# [ doc =  " Returns `true` if the number is not divisible by `2`." ]# [ inline ] fn  is_odd (&  self )->  bool {!  self .  is_even ()}# [ doc =  " Simultaneous truncated integer division and modulus." ]# [ inline ] fn  div_rem (&  self ,  other : &  Self )-> ( Self ,  Self ){(*  self / *  other , *  self % *  other )}}# [ cfg ( test )] mod $test_mod { use  core ::  mem ;  use  Integer ; # [ test ] fn  test_div_mod_floor (){ assert_eq ! (( 10  as $T ).  div_floor (& ( 3  as $T )),  3  as $T );  assert_eq ! (( 10  as $T ).  mod_floor (& ( 3  as $T )),  1  as $T );  assert_eq ! (( 10  as $T ).  div_mod_floor (& ( 3  as $T )), ( 3  as $T ,  1  as $T ));  assert_eq ! (( 5  as $T ).  div_floor (& ( 5  as $T )),  1  as $T );  assert_eq ! (( 5  as $T ).  mod_floor (& ( 5  as $T )),  0  as $T );  assert_eq ! (( 5  as $T ).  div_mod_floor (& ( 5  as $T )), ( 1  as $T ,  0  as $T ));  assert_eq ! (( 3  as $T ).  div_floor (& ( 7  as $T )),  0  as $T );  assert_eq ! (( 3  as $T ).  mod_floor (& ( 7  as $T )),  3  as $T );  assert_eq ! (( 3  as $T ).  div_mod_floor (& ( 7  as $T )), ( 0  as $T ,  3  as $T )); }# [ test ] fn  test_gcd (){ assert_eq ! (( 10  as $T ).  gcd (&  2 ),  2  as $T );  assert_eq ! (( 10  as $T ).  gcd (&  3 ),  1  as $T );  assert_eq ! (( 0  as $T ).  gcd (&  3 ),  3  as $T );  assert_eq ! (( 3  as $T ).  gcd (&  3 ),  3  as $T );  assert_eq ! (( 56  as $T ).  gcd (&  42 ),  14  as $T ); }# [ test ] fn  test_gcd_cmp_with_euclidean (){ fn  euclidean_gcd ( mut  m : $T ,  mut  n : $T )-> $T { while  m !=  0 { mem ::  swap (&  mut  m , &  mut  n );  m %=  n ; } n } for  i  in  0 ..  255 { for  j  in  0 ..  255 { assert_eq ! ( euclidean_gcd ( i ,  j ),  i .  gcd (&  j )); }} let  i =  255 ;  for  j  in  0 ..  255 { assert_eq ! ( euclidean_gcd ( i ,  j ),  i .  gcd (&  j )); } assert_eq ! ( 255 .  gcd (&  255 ),  255 ); }# [ test ] fn  test_lcm (){ assert_eq ! (( 1  as $T ).  lcm (&  0 ),  0  as $T );  assert_eq ! (( 0  as $T ).  lcm (&  1 ),  0  as $T );  assert_eq ! (( 1  as $T ).  lcm (&  1 ),  1  as $T );  assert_eq ! (( 8  as $T ).  lcm (&  9 ),  72  as $T );  assert_eq ! (( 11  as $T ).  lcm (&  5 ),  55  as $T );  assert_eq ! (( 15  as $T ).  lcm (&  17 ),  255  as $T ); }# [ test ] fn  test_gcd_lcm (){ for  i  in ( 0 ..).  take ( 256 ){ for  j  in ( 0 ..).  take ( 256 ){ assert_eq ! ( i .  gcd_lcm (&  j ), ( i .  gcd (&  j ),  i .  lcm (&  j ))); }}}# [ test ] fn  test_is_multiple_of (){ assert ! (( 6  as $T ).  is_multiple_of (& ( 6  as $T )));  assert ! (( 6  as $T ).  is_multiple_of (& ( 3  as $T )));  assert ! (( 6  as $T ).  is_multiple_of (& ( 1  as $T ))); }# [ test ] fn  test_even (){ assert_eq ! (( 0  as $T ).  is_even (),  true );  assert_eq ! (( 1  as $T ).  is_even (),  false );  assert_eq ! (( 2  as $T ).  is_even (),  true );  assert_eq ! (( 3  as $T ).  is_even (),  false );  assert_eq ! (( 4  as $T ).  is_even (),  true ); }# [ test ] fn  test_odd (){ assert_eq ! (( 0  as $T ).  is_odd (),  false );  assert_eq ! (( 1  as $T ).  is_odd (),  true );  assert_eq ! (( 2  as $T ).  is_odd (),  false );  assert_eq ! (( 3  as $T ).  is_odd (),  true );  assert_eq ! (( 4  as $T ).  is_odd (),  false ); }}}; }
macro_rules! __ra_macro_fixture212 {($I :  ident , $U :  ident )=>{ mod $I { use  check ;  use  neg ;  use  num_integer ::  Roots ;  use  pos ;  use  std ::  mem ; # [ test ]# [ should_panic ] fn  zeroth_root (){( 123  as $I ).  nth_root ( 0 ); }# [ test ] fn  sqrt (){ check (&  pos ::<$I > (),  2 ); }# [ test ]# [ should_panic ] fn  sqrt_neg (){(-  123  as $I ).  sqrt (); }# [ test ] fn  cbrt (){ check (&  pos ::<$I > (),  3 ); }# [ test ] fn  cbrt_neg (){ check (&  neg ::<$I > (),  3 ); }# [ test ] fn  nth_root (){ let  bits =  8 *  mem ::  size_of ::<$I > () as  u32 -  1 ;  let  pos =  pos ::<$I > ();  for  n  in  4 ..  bits { check (&  pos ,  n ); }}# [ test ] fn  nth_root_neg (){ let  bits =  8 *  mem ::  size_of ::<$I > () as  u32 -  1 ;  let  neg =  neg ::<$I > ();  for  n  in  2 ..  bits /  2 { check (&  neg ,  2 *  n +  1 ); }}# [ test ] fn  bit_size (){ let  bits =  8 *  mem ::  size_of ::<$I > () as  u32 -  1 ;  assert_eq ! ($I ::  max_value ().  nth_root ( bits -  1 ),  2 );  assert_eq ! ($I ::  max_value ().  nth_root ( bits ),  1 );  assert_eq ! ($I ::  min_value ().  nth_root ( bits ), -  2 );  assert_eq ! (($I ::  min_value ()+  1 ).  nth_root ( bits ), -  1 ); }} mod $U { use  check ;  use  num_integer ::  Roots ;  use  pos ;  use  std ::  mem ; # [ test ]# [ should_panic ] fn  zeroth_root (){( 123  as $U ).  nth_root ( 0 ); }# [ test ] fn  sqrt (){ check (&  pos ::<$U > (),  2 ); }# [ test ] fn  cbrt (){ check (&  pos ::<$U > (),  3 ); }# [ test ] fn  nth_root (){ let  bits =  8 *  mem ::  size_of ::<$I > () as  u32 -  1 ;  let  pos =  pos ::<$I > ();  for  n  in  4 ..  bits { check (&  pos ,  n ); }}# [ test ] fn  bit_size (){ let  bits =  8 *  mem ::  size_of ::<$U > () as  u32 ;  assert_eq ! ($U ::  max_value ().  nth_root ( bits -  1 ),  2 );  assert_eq ! ($U ::  max_value ().  nth_root ( bits ),  1 ); }}}; }
macro_rules! __ra_macro_fixture213 {($name :  ident , $ranges :  ident )=>{# [ test ] fn $name (){ let  set =  ranges_to_set ( general_category ::$ranges );  let  hashset :  HashSet <  u32 > =  set .  iter ().  cloned ().  collect ();  let  trie =  TrieSetOwned ::  from_codepoints (&  set ).  unwrap ();  for  cp  in  0 ..  0x110000 { assert ! ( trie .  contains_u32 ( cp )==  hashset .  contains (&  cp )); } assert ! (!  trie .  contains_u32 ( 0x110000 ));  assert ! (!  hashset .  contains (&  0x110000 )); }}; }
macro_rules! __ra_macro_fixture214 {{$(mod $module :  ident ; [$($prop :  ident , )*]; )*}=>{$(# [ allow ( unused )] mod $module ; $(pub  fn $prop ( c :  char )->  bool { self ::$module ::$prop .  contains_char ( c )})* )*}; }
macro_rules! __ra_macro_fixture215 {($name :  ident : $input :  expr , $($x :  tt )* )=>{# [ test ] fn $name (){ let  expected_sets =  vec ! [$($x )*];  let  range_set :  RangeSet = $input .  parse ().  expect ( "parse failed" );  assert_eq ! ( range_set .  ranges .  len (),  expected_sets .  len ());  for  it  in  range_set .  ranges .  iter ().  zip ( expected_sets .  iter ()){ let ( ai ,  bi )=  it ;  assert_eq ! ( ai .  comparator_set .  len (), *  bi ); }}}; }
macro_rules! __ra_macro_fixture216 {($name :  ident : $input :  expr , $($x :  tt )* )=>{# [ test ] fn $name (){ let  expected_sets =  vec ! [$($x )*];  let  range_set =  RangeSet ::  parse ($input ,  Compat ::  Npm ).  expect ( "parse failed" );  assert_eq ! ( range_set .  ranges .  len (),  expected_sets .  len ());  for  it  in  range_set .  ranges .  iter ().  zip ( expected_sets .  iter ()){ let ( ai ,  bi )=  it ;  assert_eq ! ( ai .  comparator_set .  len (), *  bi ); }}}; }
macro_rules! __ra_macro_fixture217 {($($name :  ident : $value :  expr , )* )=>{$(# [ test ] fn $name (){ assert ! ($value .  parse ::<  RangeSet > ().  is_err ()); })* }; }
macro_rules! __ra_macro_fixture218 {($($name :  ident : $value :  expr , )* )=>{$(# [ test ] fn $name (){ let ( input ,  expected_range )= $value ;  let  parsed_range =  parse_range ( input );  let  range =  from_pair_iterator ( parsed_range ,  range_set ::  Compat ::  Cargo ).  expect ( "parsing failed" );  let  num_comparators =  range .  comparator_set .  len ();  let  expected_comparators =  expected_range .  comparator_set .  len ();  assert_eq ! ( expected_comparators ,  num_comparators ,  "expected number of comparators: {}, got: {}" ,  expected_comparators ,  num_comparators );  assert_eq ! ( range ,  expected_range ); })* }; }
macro_rules! __ra_macro_fixture219 {($($name :  ident : $value :  expr , )* )=>{$(# [ test ] fn $name (){ let ( input ,  expected_range )= $value ;  let  parsed_range =  parse_range ( input );  let  range =  from_pair_iterator ( parsed_range ,  range_set ::  Compat ::  Npm ).  expect ( "parsing failed" );  let  num_comparators =  range .  comparator_set .  len ();  let  expected_comparators =  expected_range .  comparator_set .  len ();  assert_eq ! ( expected_comparators ,  num_comparators ,  "expected number of comparators: {}, got: {}" ,  expected_comparators ,  num_comparators );  assert_eq ! ( range ,  expected_range ); })* }; }
macro_rules! __ra_macro_fixture220 {($ty :  ident $(<$lifetime :  tt >)*)=>{ impl <$($lifetime ,)*  E >  Copy  for $ty <$($lifetime ,)*  E > {} impl <$($lifetime ,)*  E >  Clone  for $ty <$($lifetime ,)*  E > { fn  clone (&  self )->  Self {*  self }}}; }
macro_rules! __ra_macro_fixture221 {($ty :  ty , $doc :  tt , $name :  ident , $method :  ident $($cast :  tt )*)=>{# [ doc =  "A deserializer holding" ]# [ doc = $doc ] pub  struct $name <  E > { value : $ty ,  marker :  PhantomData <  E > } impl_copy_clone ! ($name );  impl < 'de ,  E >  IntoDeserializer < 'de ,  E >  for $ty  where  E :  de ::  Error , { type  Deserializer = $name <  E >;  fn  into_deserializer ( self )-> $name <  E > {$name { value :  self ,  marker :  PhantomData , }}} impl < 'de ,  E >  de ::  Deserializer < 'de >  for $name <  E >  where  E :  de ::  Error , { type  Error =  E ;  forward_to_deserialize_any ! { bool  i8  i16  i32  i64  i128  u8  u16  u32  u64  u128  f32  f64  char  str  string  bytes  byte_buf  option  unit  unit_struct  newtype_struct  seq  tuple  tuple_struct  map  struct  enum  identifier  ignored_any } fn  deserialize_any <  V > ( self ,  visitor :  V )->  Result <  V ::  Value ,  Self ::  Error >  where  V :  de ::  Visitor < 'de >, { visitor .$method ( self .  value $($cast )*)}} impl <  E >  Debug  for $name <  E > { fn  fmt (&  self ,  formatter : &  mut  fmt ::  Formatter )->  fmt ::  Result { formatter .  debug_struct ( stringify ! ($name )).  field ( "value" , &  self .  value ).  finish ()}}}}
macro_rules! __ra_macro_fixture222 {($($tt :  tt )*)=>{}; }
macro_rules! __ra_macro_fixture223 {($ty :  ident , $deserialize :  ident $($methods :  tt )*)=>{ impl < 'de >  Deserialize < 'de >  for $ty {# [ inline ] fn  deserialize <  D > ( deserializer :  D )->  Result <  Self ,  D ::  Error >  where  D :  Deserializer < 'de >, { struct  PrimitiveVisitor ;  impl < 'de >  Visitor < 'de >  for  PrimitiveVisitor { type  Value = $ty ;  fn  expecting (&  self ,  formatter : &  mut  fmt ::  Formatter )->  fmt ::  Result { formatter .  write_str ( stringify ! ($ty ))}$($methods )* } deserializer .$deserialize ( PrimitiveVisitor )}}}; }
macro_rules! __ra_macro_fixture224 {($ty :  ident <  T $(: $tbound1 :  ident $(+ $tbound2 :  ident )*)* $(, $typaram :  ident : $bound1 :  ident $(+ $bound2 :  ident )*)* >, $access :  ident , $clear :  expr , $with_capacity :  expr , $reserve :  expr , $insert :  expr )=>{ impl < 'de ,  T $(, $typaram )*>  Deserialize < 'de >  for $ty <  T $(, $typaram )*>  where  T :  Deserialize < 'de > $(+ $tbound1 $(+ $tbound2 )*)*, $($typaram : $bound1 $(+ $bound2 )*,)* { fn  deserialize <  D > ( deserializer :  D )->  Result <  Self ,  D ::  Error >  where  D :  Deserializer < 'de >, { struct  SeqVisitor <  T $(, $typaram )*> { marker :  PhantomData <$ty <  T $(, $typaram )*>>, } impl < 'de ,  T $(, $typaram )*>  Visitor < 'de >  for  SeqVisitor <  T $(, $typaram )*>  where  T :  Deserialize < 'de > $(+ $tbound1 $(+ $tbound2 )*)*, $($typaram : $bound1 $(+ $bound2 )*,)* { type  Value = $ty <  T $(, $typaram )*>;  fn  expecting (&  self ,  formatter : &  mut  fmt ::  Formatter )->  fmt ::  Result { formatter .  write_str ( "a sequence" )}# [ inline ] fn  visit_seq <  A > ( self ,  mut $access :  A )->  Result <  Self ::  Value ,  A ::  Error >  where  A :  SeqAccess < 'de >, { let  mut  values = $with_capacity ;  while  let  Some ( value )=  try ! ($access .  next_element ()){$insert (&  mut  values ,  value ); } Ok ( values )}} let  visitor =  SeqVisitor { marker :  PhantomData };  deserializer .  deserialize_seq ( visitor )} fn  deserialize_in_place <  D > ( deserializer :  D ,  place : &  mut  Self )->  Result < (),  D ::  Error >  where  D :  Deserializer < 'de >, { struct  SeqInPlaceVisitor < 'a ,  T : 'a $(, $typaram : 'a )*> (& 'a  mut $ty <  T $(, $typaram )*>);  impl < 'a , 'de ,  T $(, $typaram )*>  Visitor < 'de >  for  SeqInPlaceVisitor < 'a ,  T $(, $typaram )*>  where  T :  Deserialize < 'de > $(+ $tbound1 $(+ $tbound2 )*)*, $($typaram : $bound1 $(+ $bound2 )*,)* { type  Value = ();  fn  expecting (&  self ,  formatter : &  mut  fmt ::  Formatter )->  fmt ::  Result { formatter .  write_str ( "a sequence" )}# [ inline ] fn  visit_seq <  A > ( mut  self ,  mut $access :  A )->  Result <  Self ::  Value ,  A ::  Error >  where  A :  SeqAccess < 'de >, {$clear (&  mut  self .  0 ); $reserve (&  mut  self .  0 ,  size_hint ::  cautious ($access .  size_hint ()));  while  let  Some ( value )=  try ! ($access .  next_element ()){$insert (&  mut  self .  0 ,  value ); } Ok (())}} deserializer .  deserialize_seq ( SeqInPlaceVisitor ( place ))}}}}
macro_rules! __ra_macro_fixture225 {($($len :  expr =>($($n :  tt )+))+)=>{$(impl < 'de ,  T >  Visitor < 'de >  for  ArrayVisitor < [ T ; $len ]>  where  T :  Deserialize < 'de >, { type  Value = [ T ; $len ];  fn  expecting (&  self ,  formatter : &  mut  fmt ::  Formatter )->  fmt ::  Result { formatter .  write_str ( concat ! ( "an array of length " , $len ))}# [ inline ] fn  visit_seq <  A > ( self ,  mut  seq :  A )->  Result <  Self ::  Value ,  A ::  Error >  where  A :  SeqAccess < 'de >, { Ok ([$(match  try ! ( seq .  next_element ()){ Some ( val )=> val ,  None => return  Err ( Error ::  invalid_length ($n , &  self )), }),+])}} impl < 'a , 'de ,  T >  Visitor < 'de >  for  ArrayInPlaceVisitor < 'a , [ T ; $len ]>  where  T :  Deserialize < 'de >, { type  Value = ();  fn  expecting (&  self ,  formatter : &  mut  fmt ::  Formatter )->  fmt ::  Result { formatter .  write_str ( concat ! ( "an array of length " , $len ))}# [ inline ] fn  visit_seq <  A > ( self ,  mut  seq :  A )->  Result <  Self ::  Value ,  A ::  Error >  where  A :  SeqAccess < 'de >, { let  mut  fail_idx =  None ;  for ( idx ,  dest ) in  self .  0 [..].  iter_mut ().  enumerate (){ if  try ! ( seq .  next_element_seed ( InPlaceSeed ( dest ))).  is_none (){ fail_idx =  Some ( idx );  break ; }} if  let  Some ( idx )=  fail_idx { return  Err ( Error ::  invalid_length ( idx , &  self )); } Ok (())}} impl < 'de ,  T >  Deserialize < 'de >  for [ T ; $len ] where  T :  Deserialize < 'de >, { fn  deserialize <  D > ( deserializer :  D )->  Result <  Self ,  D ::  Error >  where  D :  Deserializer < 'de >, { deserializer .  deserialize_tuple ($len ,  ArrayVisitor ::< [ T ; $len ]>::  new ())} fn  deserialize_in_place <  D > ( deserializer :  D ,  place : &  mut  Self )->  Result < (),  D ::  Error >  where  D :  Deserializer < 'de >, { deserializer .  deserialize_tuple ($len ,  ArrayInPlaceVisitor ( place ))}})+ }}
macro_rules! __ra_macro_fixture226 {($($len :  tt =>($($n :  tt $name :  ident )+))+)=>{$(impl < 'de , $($name :  Deserialize < 'de >),+>  Deserialize < 'de >  for ($($name ,)+){# [ inline ] fn  deserialize <  D > ( deserializer :  D )->  Result <  Self ,  D ::  Error >  where  D :  Deserializer < 'de >, { struct  TupleVisitor <$($name ,)+> { marker :  PhantomData < ($($name ,)+)>, } impl < 'de , $($name :  Deserialize < 'de >),+>  Visitor < 'de >  for  TupleVisitor <$($name ,)+> { type  Value = ($($name ,)+);  fn  expecting (&  self ,  formatter : &  mut  fmt ::  Formatter )->  fmt ::  Result { formatter .  write_str ( concat ! ( "a tuple of size " , $len ))}# [ inline ]# [ allow ( non_snake_case )] fn  visit_seq <  A > ( self ,  mut  seq :  A )->  Result <  Self ::  Value ,  A ::  Error >  where  A :  SeqAccess < 'de >, {$(let $name =  match  try ! ( seq .  next_element ()){ Some ( value )=> value ,  None => return  Err ( Error ::  invalid_length ($n , &  self )), }; )+  Ok (($($name ,)+))}} deserializer .  deserialize_tuple ($len ,  TupleVisitor { marker :  PhantomData })}# [ inline ] fn  deserialize_in_place <  D > ( deserializer :  D ,  place : &  mut  Self )->  Result < (),  D ::  Error >  where  D :  Deserializer < 'de >, { struct  TupleInPlaceVisitor < 'a , $($name : 'a ,)+> (& 'a  mut ($($name ,)+));  impl < 'a , 'de , $($name :  Deserialize < 'de >),+>  Visitor < 'de >  for  TupleInPlaceVisitor < 'a , $($name ,)+> { type  Value = ();  fn  expecting (&  self ,  formatter : &  mut  fmt ::  Formatter )->  fmt ::  Result { formatter .  write_str ( concat ! ( "a tuple of size " , $len ))}# [ inline ]# [ allow ( non_snake_case )] fn  visit_seq <  A > ( self ,  mut  seq :  A )->  Result <  Self ::  Value ,  A ::  Error >  where  A :  SeqAccess < 'de >, {$(if  try ! ( seq .  next_element_seed ( InPlaceSeed (&  mut ( self .  0 ).$n ))).  is_none (){ return  Err ( Error ::  invalid_length ($n , &  self )); })+  Ok (())}} deserializer .  deserialize_tuple ($len ,  TupleInPlaceVisitor ( place ))}})+ }}
macro_rules! __ra_macro_fixture227 {($ty :  ident <  K $(: $kbound1 :  ident $(+ $kbound2 :  ident )*)*,  V $(, $typaram :  ident : $bound1 :  ident $(+ $bound2 :  ident )*)* >, $access :  ident , $with_capacity :  expr )=>{ impl < 'de ,  K ,  V $(, $typaram )*>  Deserialize < 'de >  for $ty <  K ,  V $(, $typaram )*>  where  K :  Deserialize < 'de > $(+ $kbound1 $(+ $kbound2 )*)*,  V :  Deserialize < 'de >, $($typaram : $bound1 $(+ $bound2 )*),* { fn  deserialize <  D > ( deserializer :  D )->  Result <  Self ,  D ::  Error >  where  D :  Deserializer < 'de >, { struct  MapVisitor <  K ,  V $(, $typaram )*> { marker :  PhantomData <$ty <  K ,  V $(, $typaram )*>>, } impl < 'de ,  K ,  V $(, $typaram )*>  Visitor < 'de >  for  MapVisitor <  K ,  V $(, $typaram )*>  where  K :  Deserialize < 'de > $(+ $kbound1 $(+ $kbound2 )*)*,  V :  Deserialize < 'de >, $($typaram : $bound1 $(+ $bound2 )*),* { type  Value = $ty <  K ,  V $(, $typaram )*>;  fn  expecting (&  self ,  formatter : &  mut  fmt ::  Formatter )->  fmt ::  Result { formatter .  write_str ( "a map" )}# [ inline ] fn  visit_map <  A > ( self ,  mut $access :  A )->  Result <  Self ::  Value ,  A ::  Error >  where  A :  MapAccess < 'de >, { let  mut  values = $with_capacity ;  while  let  Some (( key ,  value ))=  try ! ($access .  next_entry ()){ values .  insert ( key ,  value ); } Ok ( values )}} let  visitor =  MapVisitor { marker :  PhantomData };  deserializer .  deserialize_map ( visitor )}}}}
macro_rules! __ra_macro_fixture228 {($expecting :  tt $ty :  ty ; $size :  tt )=>{ impl < 'de >  Deserialize < 'de >  for $ty { fn  deserialize <  D > ( deserializer :  D )->  Result <  Self ,  D ::  Error >  where  D :  Deserializer < 'de >, { if  deserializer .  is_human_readable (){ deserializer .  deserialize_str ( FromStrVisitor ::  new ($expecting ))} else {< [ u8 ; $size ]>::  deserialize ( deserializer ).  map (<$ty >::  from )}}}}; }
macro_rules! __ra_macro_fixture229 {($expecting :  tt $ty :  ty , $new :  expr )=>{ impl < 'de >  Deserialize < 'de >  for $ty { fn  deserialize <  D > ( deserializer :  D )->  Result <  Self ,  D ::  Error >  where  D :  Deserializer < 'de >, { if  deserializer .  is_human_readable (){ deserializer .  deserialize_str ( FromStrVisitor ::  new ($expecting ))} else {< (_,  u16 )>::  deserialize ( deserializer ).  map (| ( ip ,  port )| $new ( ip ,  port ))}}}}; }
macro_rules! __ra_macro_fixture230 {($name_kind :  ident ($($variant :  ident ; $bytes :  expr ; $index :  expr ),* )$expecting_message :  expr , $variants_name :  ident )=>{ enum $name_kind {$($variant ),* } static $variants_name : & 'static [& 'static  str ]= & [$(stringify ! ($variant )),*];  impl < 'de >  Deserialize < 'de >  for $name_kind { fn  deserialize <  D > ( deserializer :  D )->  Result <  Self ,  D ::  Error >  where  D :  Deserializer < 'de >, { struct  KindVisitor ;  impl < 'de >  Visitor < 'de >  for  KindVisitor { type  Value = $name_kind ;  fn  expecting (&  self ,  formatter : &  mut  fmt ::  Formatter )->  fmt ::  Result { formatter .  write_str ($expecting_message )} fn  visit_u64 <  E > ( self ,  value :  u64 )->  Result <  Self ::  Value ,  E >  where  E :  Error , { match  value {$($index => Ok ($name_kind :: $variant ), )* _ => Err ( Error ::  invalid_value ( Unexpected ::  Unsigned ( value ), &  self ),), }} fn  visit_str <  E > ( self ,  value : &  str )->  Result <  Self ::  Value ,  E >  where  E :  Error , { match  value {$(stringify ! ($variant )=> Ok ($name_kind :: $variant ), )* _ => Err ( Error ::  unknown_variant ( value , $variants_name )), }} fn  visit_bytes <  E > ( self ,  value : & [ u8 ])->  Result <  Self ::  Value ,  E >  where  E :  Error , { match  value {$($bytes => Ok ($name_kind :: $variant ), )* _ =>{ match  str ::  from_utf8 ( value ){ Ok ( value )=> Err ( Error ::  unknown_variant ( value , $variants_name )),  Err (_)=> Err ( Error ::  invalid_value ( Unexpected ::  Bytes ( value ), &  self )), }}}}} deserializer .  deserialize_identifier ( KindVisitor )}}}}
macro_rules! __ra_macro_fixture231 {($(# [ doc = $doc :  tt ])* ($($id :  ident ),* ), $ty :  ty , $func :  expr )=>{$(# [ doc = $doc ])*  impl < 'de $(, $id :  Deserialize < 'de >,)*>  Deserialize < 'de >  for $ty { fn  deserialize <  D > ( deserializer :  D )->  Result <  Self ,  D ::  Error >  where  D :  Deserializer < 'de >, { Deserialize ::  deserialize ( deserializer ).  map ($func )}}}}
macro_rules! __ra_macro_fixture232 {($($T :  ident , )+ )=>{$(# [ cfg ( num_nonzero )] impl < 'de >  Deserialize < 'de >  for  num ::$T { fn  deserialize <  D > ( deserializer :  D )->  Result <  Self ,  D ::  Error >  where  D :  Deserializer < 'de >, { let  value =  try ! ( Deserialize ::  deserialize ( deserializer ));  match <  num ::$T >::  new ( value ){ Some ( nonzero )=> Ok ( nonzero ),  None => Err ( Error ::  custom ( "expected a non-zero value" )), }}})+ }; }
macro_rules! __ra_macro_fixture233 {( Error :  Sized $(+ $($supertrait :  ident )::+)*)=>{# [ doc =  " The `Error` trait allows `Deserialize` implementations to create descriptive" ]# [ doc =  " error messages belonging to the `Deserializer` against which they are" ]# [ doc =  " currently running." ]# [ doc =  "" ]# [ doc =  " Every `Deserializer` declares an `Error` type that encompasses both" ]# [ doc =  " general-purpose deserialization errors as well as errors specific to the" ]# [ doc =  " particular deserialization format. For example the `Error` type of" ]# [ doc =  " `serde_json` can represent errors like an invalid JSON escape sequence or an" ]# [ doc =  " unterminated string literal, in addition to the error cases that are part of" ]# [ doc =  " this trait." ]# [ doc =  "" ]# [ doc =  " Most deserializers should only need to provide the `Error::custom` method" ]# [ doc =  " and inherit the default behavior for the other methods." ]# [ doc =  "" ]# [ doc =  " # Example implementation" ]# [ doc =  "" ]# [ doc =  " The [example data format] presented on the website shows an error" ]# [ doc =  " type appropriate for a basic JSON data format." ]# [ doc =  "" ]# [ doc =  " [example data format]: https://serde.rs/data-format.html" ] pub  trait  Error :  Sized $(+ $($supertrait )::+)* {# [ doc =  " Raised when there is general error when deserializing a type." ]# [ doc =  "" ]# [ doc =  " The message should not be capitalized and should not end with a period." ]# [ doc =  "" ]# [ doc =  " ```edition2018" ]# [ doc =  " # use std::str::FromStr;" ]# [ doc =  " #" ]# [ doc =  " # struct IpAddr;" ]# [ doc =  " #" ]# [ doc =  " # impl FromStr for IpAddr {" ]# [ doc =  " #     type Err = String;" ]# [ doc =  " #" ]# [ doc =  " #     fn from_str(_: &str) -> Result<Self, String> {" ]# [ doc =  " #         unimplemented!()" ]# [ doc =  " #     }" ]# [ doc =  " # }" ]# [ doc =  " #" ]# [ doc =  " use serde::de::{self, Deserialize, Deserializer};" ]# [ doc =  "" ]# [ doc =  " impl<\\\'de> Deserialize<\\\'de> for IpAddr {" ]# [ doc =  "     fn deserialize<D>(deserializer: D) -> Result<Self, D::Error>" ]# [ doc =  "     where" ]# [ doc =  "         D: Deserializer<\\\'de>," ]# [ doc =  "     {" ]# [ doc =  "         let s = String::deserialize(deserializer)?;" ]# [ doc =  "         s.parse().map_err(de::Error::custom)" ]# [ doc =  "     }" ]# [ doc =  " }" ]# [ doc =  " ```" ] fn  custom <  T > ( msg :  T )->  Self  where  T :  Display ; # [ doc =  " Raised when a `Deserialize` receives a type different from what it was" ]# [ doc =  " expecting." ]# [ doc =  "" ]# [ doc =  " The `unexp` argument provides information about what type was received." ]# [ doc =  " This is the type that was present in the input file or other source data" ]# [ doc =  " of the Deserializer." ]# [ doc =  "" ]# [ doc =  " The `exp` argument provides information about what type was being" ]# [ doc =  " expected. This is the type that is written in the program." ]# [ doc =  "" ]# [ doc =  " For example if we try to deserialize a String out of a JSON file" ]# [ doc =  " containing an integer, the unexpected type is the integer and the" ]# [ doc =  " expected type is the string." ]# [ cold ] fn  invalid_type ( unexp :  Unexpected ,  exp : &  Expected )->  Self { Error ::  custom ( format_args ! ( "invalid type: {}, expected {}" ,  unexp ,  exp ))}# [ doc =  " Raised when a `Deserialize` receives a value of the right type but that" ]# [ doc =  " is wrong for some other reason." ]# [ doc =  "" ]# [ doc =  " The `unexp` argument provides information about what value was received." ]# [ doc =  " This is the value that was present in the input file or other source" ]# [ doc =  " data of the Deserializer." ]# [ doc =  "" ]# [ doc =  " The `exp` argument provides information about what value was being" ]# [ doc =  " expected. This is the type that is written in the program." ]# [ doc =  "" ]# [ doc =  " For example if we try to deserialize a String out of some binary data" ]# [ doc =  " that is not valid UTF-8, the unexpected value is the bytes and the" ]# [ doc =  " expected value is a string." ]# [ cold ] fn  invalid_value ( unexp :  Unexpected ,  exp : &  Expected )->  Self { Error ::  custom ( format_args ! ( "invalid value: {}, expected {}" ,  unexp ,  exp ))}# [ doc =  " Raised when deserializing a sequence or map and the input data contains" ]# [ doc =  " too many or too few elements." ]# [ doc =  "" ]# [ doc =  " The `len` argument is the number of elements encountered. The sequence" ]# [ doc =  " or map may have expected more arguments or fewer arguments." ]# [ doc =  "" ]# [ doc =  " The `exp` argument provides information about what data was being" ]# [ doc =  " expected. For example `exp` might say that a tuple of size 6 was" ]# [ doc =  " expected." ]# [ cold ] fn  invalid_length ( len :  usize ,  exp : &  Expected )->  Self { Error ::  custom ( format_args ! ( "invalid length {}, expected {}" ,  len ,  exp ))}# [ doc =  " Raised when a `Deserialize` enum type received a variant with an" ]# [ doc =  " unrecognized name." ]# [ cold ] fn  unknown_variant ( variant : &  str ,  expected : & 'static [& 'static  str ])->  Self { if  expected .  is_empty (){ Error ::  custom ( format_args ! ( "unknown variant `{}`, there are no variants" ,  variant ))} else { Error ::  custom ( format_args ! ( "unknown variant `{}`, expected {}" ,  variant ,  OneOf { names :  expected }))}}# [ doc =  " Raised when a `Deserialize` struct type received a field with an" ]# [ doc =  " unrecognized name." ]# [ cold ] fn  unknown_field ( field : &  str ,  expected : & 'static [& 'static  str ])->  Self { if  expected .  is_empty (){ Error ::  custom ( format_args ! ( "unknown field `{}`, there are no fields" ,  field ))} else { Error ::  custom ( format_args ! ( "unknown field `{}`, expected {}" ,  field ,  OneOf { names :  expected }))}}# [ doc =  " Raised when a `Deserialize` struct type expected to receive a required" ]# [ doc =  " field with a particular name but that field was not present in the" ]# [ doc =  " input." ]# [ cold ] fn  missing_field ( field : & 'static  str )->  Self { Error ::  custom ( format_args ! ( "missing field `{}`" ,  field ))}# [ doc =  " Raised when a `Deserialize` struct type received more than one of the" ]# [ doc =  " same field." ]# [ cold ] fn  duplicate_field ( field : & 'static  str )->  Self { Error ::  custom ( format_args ! ( "duplicate field `{}`" ,  field ))}}}}
macro_rules! __ra_macro_fixture234 {($ty :  ident , $method :  ident $($cast :  tt )*)=>{ impl  Serialize  for $ty {# [ inline ] fn  serialize <  S > (&  self ,  serializer :  S )->  Result <  S ::  Ok ,  S ::  Error >  where  S :  Serializer , { serializer .$method (*  self $($cast )*)}}}}
macro_rules! __ra_macro_fixture235 {($($len :  tt )+)=>{$(impl <  T >  Serialize  for [ T ; $len ] where  T :  Serialize , {# [ inline ] fn  serialize <  S > (&  self ,  serializer :  S )->  Result <  S ::  Ok ,  S ::  Error >  where  S :  Serializer , { let  mut  seq =  try ! ( serializer .  serialize_tuple ($len ));  for  e  in  self { try ! ( seq .  serialize_element ( e )); } seq .  end ()}})+ }}
macro_rules! __ra_macro_fixture236 {($ty :  ident <  T $(: $tbound1 :  ident $(+ $tbound2 :  ident )*)* $(, $typaram :  ident : $bound :  ident )* >)=>{ impl <  T $(, $typaram )*>  Serialize  for $ty <  T $(, $typaram )*>  where  T :  Serialize $(+ $tbound1 $(+ $tbound2 )*)*, $($typaram : $bound ,)* {# [ inline ] fn  serialize <  S > (&  self ,  serializer :  S )->  Result <  S ::  Ok ,  S ::  Error >  where  S :  Serializer , { serializer .  collect_seq ( self )}}}}
macro_rules! __ra_macro_fixture237 {($($len :  expr =>($($n :  tt $name :  ident )+))+)=>{$(impl <$($name ),+>  Serialize  for ($($name ,)+) where $($name :  Serialize ,)+ {# [ inline ] fn  serialize <  S > (&  self ,  serializer :  S )->  Result <  S ::  Ok ,  S ::  Error >  where  S :  Serializer , { let  mut  tuple =  try ! ( serializer .  serialize_tuple ($len )); $(try ! ( tuple .  serialize_element (&  self .$n )); )+  tuple .  end ()}})+ }}
macro_rules! __ra_macro_fixture238 {($ty :  ident <  K $(: $kbound1 :  ident $(+ $kbound2 :  ident )*)*,  V $(, $typaram :  ident : $bound :  ident )* >)=>{ impl <  K ,  V $(, $typaram )*>  Serialize  for $ty <  K ,  V $(, $typaram )*>  where  K :  Serialize $(+ $kbound1 $(+ $kbound2 )*)*,  V :  Serialize , $($typaram : $bound ,)* {# [ inline ] fn  serialize <  S > (&  self ,  serializer :  S )->  Result <  S ::  Ok ,  S ::  Error >  where  S :  Serializer , { serializer .  collect_map ( self )}}}}
macro_rules! __ra_macro_fixture239 {($(# [ doc = $doc :  tt ])* <$($desc :  tt )+ )=>{$(# [ doc = $doc ])*  impl <$($desc )+ {# [ inline ] fn  serialize <  S > (&  self ,  serializer :  S )->  Result <  S ::  Ok ,  S ::  Error >  where  S :  Serializer , {(**  self ).  serialize ( serializer )}}}; }
macro_rules! __ra_macro_fixture240 {($($T :  ident , )+ )=>{$(# [ cfg ( num_nonzero )] impl  Serialize  for  num ::$T { fn  serialize <  S > (&  self ,  serializer :  S )->  Result <  S ::  Ok ,  S ::  Error >  where  S :  Serializer , { self .  get ().  serialize ( serializer )}})+ }}
macro_rules! __ra_macro_fixture241 {( Error :  Sized $(+ $($supertrait :  ident )::+)*)=>{# [ doc =  " Trait used by `Serialize` implementations to generically construct" ]# [ doc =  " errors belonging to the `Serializer` against which they are" ]# [ doc =  " currently running." ]# [ doc =  "" ]# [ doc =  " # Example implementation" ]# [ doc =  "" ]# [ doc =  " The [example data format] presented on the website shows an error" ]# [ doc =  " type appropriate for a basic JSON data format." ]# [ doc =  "" ]# [ doc =  " [example data format]: https://serde.rs/data-format.html" ] pub  trait  Error :  Sized $(+ $($supertrait )::+)* {# [ doc =  " Used when a [`Serialize`] implementation encounters any error" ]# [ doc =  " while serializing a type." ]# [ doc =  "" ]# [ doc =  " The message should not be capitalized and should not end with a" ]# [ doc =  " period." ]# [ doc =  "" ]# [ doc =  " For example, a filesystem [`Path`] may refuse to serialize" ]# [ doc =  " itself if it contains invalid UTF-8 data." ]# [ doc =  "" ]# [ doc =  " ```edition2018" ]# [ doc =  " # struct Path;" ]# [ doc =  " #" ]# [ doc =  " # impl Path {" ]# [ doc =  " #     fn to_str(&self) -> Option<&str> {" ]# [ doc =  " #         unimplemented!()" ]# [ doc =  " #     }" ]# [ doc =  " # }" ]# [ doc =  " #" ]# [ doc =  " use serde::ser::{self, Serialize, Serializer};" ]# [ doc =  "" ]# [ doc =  " impl Serialize for Path {" ]# [ doc =  "     fn serialize<S>(&self, serializer: S) -> Result<S::Ok, S::Error>" ]# [ doc =  "     where" ]# [ doc =  "         S: Serializer," ]# [ doc =  "     {" ]# [ doc =  "         match self.to_str() {" ]# [ doc =  "             Some(s) => serializer.serialize_str(s)," ]# [ doc =  "             None => Err(ser::Error::custom(\\\"path contains invalid UTF-8 characters\\\"))," ]# [ doc =  "         }" ]# [ doc =  "     }" ]# [ doc =  " }" ]# [ doc =  " ```" ]# [ doc =  "" ]# [ doc =  " [`Path`]: https://doc.rust-lang.org/std/path/struct.Path.html" ]# [ doc =  " [`Serialize`]: ../trait.Serialize.html" ] fn  custom <  T > ( msg :  T )->  Self  where  T :  Display ; }}}
macro_rules! __ra_macro_fixture242 {($t :  ty , $($attr :  meta ),* )=>{$(# [$attr ])*  impl <  L ,  R >  AsRef <$t >  for  Either <  L ,  R >  where  L :  AsRef <$t >,  R :  AsRef <$t > { fn  as_ref (&  self )-> &$t { either ! (*  self ,  ref  inner => inner .  as_ref ())}}$(# [$attr ])*  impl <  L ,  R >  AsMut <$t >  for  Either <  L ,  R >  where  L :  AsMut <$t >,  R :  AsMut <$t > { fn  as_mut (&  mut  self )-> &  mut $t { either ! (*  self ,  ref  mut  inner => inner .  as_mut ())}}}; }
macro_rules! __ra_macro_fixture243 {($C :  ident $P :  ident ; $A :  ident , $($I :  ident ),* ; $($X :  ident )*)=>(# [ derive ( Clone ,  Debug )] pub  struct $C <  I :  Iterator > { item :  Option <  I ::  Item >,  iter :  I ,  c : $P <  I >, } impl <  I :  Iterator +  Clone >  From <  I >  for $C <  I > { fn  from ( mut  iter :  I )->  Self {$C { item :  iter .  next (),  iter :  iter .  clone (),  c : $P ::  from ( iter ), }}} impl <  I :  Iterator +  Clone >  From <  I >  for $C <  Fuse <  I >> { fn  from ( iter :  I )->  Self { let  mut  iter =  iter .  fuse (); $C { item :  iter .  next (),  iter :  iter .  clone (),  c : $P ::  from ( iter ), }}} impl <  I , $A >  Iterator  for $C <  I >  where  I :  Iterator <  Item = $A > +  Clone ,  I ::  Item :  Clone { type  Item = ($($I ),*);  fn  next (&  mut  self )->  Option <  Self ::  Item > { if  let  Some (($($X ),*,))=  self .  c .  next (){ let  z =  self .  item .  clone ().  unwrap ();  Some (( z , $($X ),*))} else { self .  item =  self .  iter .  next ();  self .  item .  clone ().  and_then (|  z | { self .  c = $P ::  from ( self .  iter .  clone ());  self .  c .  next ().  map (| ($($X ),*,)| ( z , $($X ),*))})}}} impl <  I , $A >  HasCombination <  I >  for ($($I ),*) where  I :  Iterator <  Item = $A > +  Clone ,  I ::  Item :  Clone { type  Combination = $C <  Fuse <  I >>; })}
macro_rules! __ra_macro_fixture244 (($_A :  ident , $_B :  ident , )=>(); ($A :  ident , $($B :  ident ,)*)=>( impl_cons_iter ! ($($B ,)*); # [ allow ( non_snake_case )] impl <  X ,  Iter , $($B ),*>  Iterator  for  ConsTuples <  Iter , (($($B ,)*),  X )>  where  Iter :  Iterator <  Item = (($($B ,)*),  X )>, { type  Item = ($($B ,)*  X , );  fn  next (&  mut  self )->  Option <  Self ::  Item > { self .  iter .  next ().  map (| (($($B ,)*),  x )| ($($B ,)*  x , ))} fn  size_hint (&  self )-> ( usize ,  Option <  usize >){ self .  iter .  size_hint ()} fn  fold <  Acc ,  Fold > ( self ,  accum :  Acc ,  mut  f :  Fold )->  Acc  where  Fold :  FnMut ( Acc ,  Self ::  Item )->  Acc , { self .  iter .  fold ( accum ,  move |  acc , (($($B ,)*),  x )|  f ( acc , ($($B ,)*  x , )))}}# [ allow ( non_snake_case )] impl <  X ,  Iter , $($B ),*>  DoubleEndedIterator  for  ConsTuples <  Iter , (($($B ,)*),  X )>  where  Iter :  DoubleEndedIterator <  Item = (($($B ,)*),  X )>, { fn  next_back (&  mut  self )->  Option <  Self ::  Item > { self .  iter .  next ().  map (| (($($B ,)*),  x )| ($($B ,)*  x , ))}}); );
macro_rules! __ra_macro_fixture245 {($($fmt_trait :  ident )*)=>{$(impl < 'a ,  I >  fmt ::$fmt_trait  for  Format < 'a ,  I >  where  I :  Iterator ,  I ::  Item :  fmt ::$fmt_trait , { fn  fmt (&  self ,  f : &  mut  fmt ::  Formatter )->  fmt ::  Result { self .  format ( f ,  fmt ::$fmt_trait ::  fmt )}})* }}
macro_rules! __ra_macro_fixture246 {([$($typarm :  tt )*]$type_ :  ty )=>{ impl <$($typarm )*>  PeekingNext  for $type_ { fn  peeking_next <  F > (&  mut  self ,  accept :  F )->  Option <  Self ::  Item >  where  F :  FnOnce (&  Self ::  Item )->  bool { let  saved_state =  self .  clone ();  if  let  Some ( r )=  self .  next (){ if !  accept (&  r ){*  self =  saved_state ; } else { return  Some ( r )}} None }}}}
macro_rules! __ra_macro_fixture247 {($dummy :  ident ,)=>{}; ($dummy :  ident , $($Y :  ident ,)*)=>( impl_tuple_collect ! ($($Y ,)*);  impl <  A >  TupleCollect  for ($(ignore_ident ! ($Y ,  A ),)*){ type  Item =  A ;  type  Buffer = [ Option <  A >;  count_ident ! ($($Y ,)*)-  1 ]; # [ allow ( unused_assignments ,  unused_mut )] fn  collect_from_iter <  I > ( iter :  I ,  buf : &  mut  Self ::  Buffer )->  Option <  Self >  where  I :  IntoIterator <  Item =  A >{ let  mut  iter =  iter .  into_iter (); $(let  mut $Y =  None ; )*  loop {$($Y =  iter .  next ();  if $Y .  is_none (){ break })*  return  Some (($($Y .  unwrap ()),*,))} let  mut  i =  0 ;  let  mut  s =  buf .  as_mut (); $(if  i <  s .  len (){ s [ i ]= $Y ;  i +=  1 ; })*  return  None ; } fn  collect_from_iter_no_buf <  I > ( iter :  I )->  Option <  Self >  where  I :  IntoIterator <  Item =  A >{ let  mut  iter =  iter .  into_iter ();  Some (($({let $Y =  iter .  next ()?; $Y }, )*))} fn  num_items ()->  usize { count_ident ! ($($Y ,)*)} fn  left_shift_push (&  mut  self ,  mut  item :  A ){ use  std ::  mem ::  replace ;  let &  mut ($(ref  mut $Y ),*,)=  self ;  macro_rules !  replace_item {($i :  ident )=>{ item =  replace ($i ,  item ); }};  rev_for_each_ident ! ( replace_item , $($Y ,)*);  drop ( item ); }})}
macro_rules! __ra_macro_fixture248 {($($B :  ident ),*)=>(# [ allow ( non_snake_case )] impl <$($B :  IntoIterator ),*>  From < ($($B ,)*)>  for  Zip < ($($B ::  IntoIter ,)*)> { fn  from ( t : ($($B ,)*))->  Self { let ($($B ,)*)=  t ;  Zip { t : ($($B .  into_iter (),)*)}}}# [ allow ( non_snake_case )]# [ allow ( unused_assignments )] impl <$($B ),*>  Iterator  for  Zip < ($($B ,)*)>  where $($B :  Iterator , )* { type  Item = ($($B ::  Item ,)*);  fn  next (&  mut  self )->  Option <  Self ::  Item > { let ($(ref  mut $B ,)*)=  self .  t ; $(let $B =  match $B .  next (){ None => return  None ,  Some ( elt )=> elt }; )*  Some (($($B ,)*))} fn  size_hint (&  self )-> ( usize ,  Option <  usize >){ let  sh = (::  std ::  usize ::  MAX ,  None );  let ($(ref $B ,)*)=  self .  t ; $(let  sh =  size_hint ::  min ($B .  size_hint (),  sh ); )*  sh }}# [ allow ( non_snake_case )] impl <$($B ),*>  ExactSizeIterator  for  Zip < ($($B ,)*)>  where $($B :  ExactSizeIterator , )* {}# [ allow ( non_snake_case )] impl <$($B ),*>  DoubleEndedIterator  for  Zip < ($($B ,)*)>  where $($B :  DoubleEndedIterator +  ExactSizeIterator , )* {# [ inline ] fn  next_back (&  mut  self )->  Option <  Self ::  Item > { let ($(ref  mut $B ,)*)=  self .  t ;  let  size = * [$($B .  len (), )*].  iter ().  min ().  unwrap (); $(if $B .  len ()!=  size { for _  in  0 ..$B .  len ()-  size {$B .  next_back (); }})*  match ($($B .  next_back (),)*){($(Some ($B ),)*)=> Some (($($B ,)*)), _ => None , }}}); }
macro_rules! __ra_macro_fixture249 {($iter :  ty =>$item :  ty ,  impl $($args :  tt )* )=>{ delegate_iterator ! {$iter =>$item ,  impl $($args )* } impl $($args )*  IndexedParallelIterator  for $iter { fn  drive <  C > ( self ,  consumer :  C )->  C ::  Result  where  C :  Consumer <  Self ::  Item > { self .  inner .  drive ( consumer )} fn  len (&  self )->  usize { self .  inner .  len ()} fn  with_producer <  CB > ( self ,  callback :  CB )->  CB ::  Output  where  CB :  ProducerCallback <  Self ::  Item > { self .  inner .  with_producer ( callback )}}}}
macro_rules! __ra_macro_fixture250 {($t :  ty =>$iter :  ident <$($i :  tt ),*>,  impl $($args :  tt )*)=>{ impl $($args )*  IntoParallelIterator  for $t { type  Item = <$t  as  IntoIterator >::  Item ;  type  Iter = $iter <$($i ),*>;  fn  into_par_iter ( self )->  Self ::  Iter { use  std ::  iter ::  FromIterator ; $iter { inner :  Vec ::  from_iter ( self ).  into_par_iter ()}}}}; }
macro_rules! __ra_macro_fixture251 {($iter :  ty =>$item :  ty ,  impl $($args :  tt )* )=>{ impl $($args )*  ParallelIterator  for $iter { type  Item = $item ;  fn  drive_unindexed <  C > ( self ,  consumer :  C )->  C ::  Result  where  C :  UnindexedConsumer <  Self ::  Item > { self .  inner .  drive_unindexed ( consumer )} fn  opt_len (&  self )->  Option <  usize > { self .  inner .  opt_len ()}}}}
macro_rules! __ra_macro_fixture252 {($($Tuple :  ident {$(($idx :  tt )-> $T :  ident )+ })+)=>{$(impl <$($T , )+>  IntoParallelIterator  for ($($T , )+) where $($T :  IntoParallelIterator , $T ::  Iter :  IndexedParallelIterator , )+ { type  Item = ($($T ::  Item , )+);  type  Iter =  MultiZip < ($($T ::  Iter , )+)>;  fn  into_par_iter ( self )->  Self ::  Iter { MultiZip { tuple : ($(self .$idx .  into_par_iter (), )+ ), }}} impl < 'a , $($T , )+>  IntoParallelIterator  for & 'a ($($T , )+) where $($T :  IntoParallelRefIterator < 'a >, $T ::  Iter :  IndexedParallelIterator , )+ { type  Item = ($($T ::  Item , )+);  type  Iter =  MultiZip < ($($T ::  Iter , )+)>;  fn  into_par_iter ( self )->  Self ::  Iter { MultiZip { tuple : ($(self .$idx .  par_iter (), )+ ), }}} impl < 'a , $($T , )+>  IntoParallelIterator  for & 'a  mut ($($T , )+) where $($T :  IntoParallelRefMutIterator < 'a >, $T ::  Iter :  IndexedParallelIterator , )+ { type  Item = ($($T ::  Item , )+);  type  Iter =  MultiZip < ($($T ::  Iter , )+)>;  fn  into_par_iter ( self )->  Self ::  Iter { MultiZip { tuple : ($(self .$idx .  par_iter_mut (), )+ ), }}} impl <$($T , )+>  ParallelIterator  for  MultiZip < ($($T , )+)>  where $($T :  IndexedParallelIterator , )+ { type  Item = ($($T ::  Item , )+);  fn  drive_unindexed <  CONSUMER > ( self ,  consumer :  CONSUMER )->  CONSUMER ::  Result  where  CONSUMER :  UnindexedConsumer <  Self ::  Item >, { self .  drive ( consumer )} fn  opt_len (&  self )->  Option <  usize > { Some ( self .  len ())}} impl <$($T , )+>  IndexedParallelIterator  for  MultiZip < ($($T , )+)>  where $($T :  IndexedParallelIterator , )+ { fn  drive <  CONSUMER > ( self ,  consumer :  CONSUMER )->  CONSUMER ::  Result  where  CONSUMER :  Consumer <  Self ::  Item >, { reduce ! ($(self .  tuple .$idx ),+ => IndexedParallelIterator ::  zip ).  map ( flatten ! ($($T ),+)).  drive ( consumer )} fn  len (&  self )->  usize { reduce ! ($(self .  tuple .$idx .  len ()),+ => Ord ::  min )} fn  with_producer <  CB > ( self ,  callback :  CB )->  CB ::  Output  where  CB :  ProducerCallback <  Self ::  Item >, { reduce ! ($(self .  tuple .$idx ),+ => IndexedParallelIterator ::  zip ).  map ( flatten ! ($($T ),+)).  with_producer ( callback )}})+ }}
macro_rules! __ra_macro_fixture253 {($t :  ty )=>{ impl  ParallelIterator  for  Iter <$t > { type  Item = $t ;  fn  drive_unindexed <  C > ( self ,  consumer :  C )->  C ::  Result  where  C :  UnindexedConsumer <  Self ::  Item >, { bridge ( self ,  consumer )} fn  opt_len (&  self )->  Option <  usize > { Some ( self .  len ())}} impl  IndexedParallelIterator  for  Iter <$t > { fn  drive <  C > ( self ,  consumer :  C )->  C ::  Result  where  C :  Consumer <  Self ::  Item >, { bridge ( self ,  consumer )} fn  len (&  self )->  usize { self .  range .  len ()} fn  with_producer <  CB > ( self ,  callback :  CB )->  CB ::  Output  where  CB :  ProducerCallback <  Self ::  Item >, { callback .  callback ( IterProducer { range :  self .  range })}} impl  Producer  for  IterProducer <$t > { type  Item = <  Range <$t >  as  Iterator >::  Item ;  type  IntoIter =  Range <$t >;  fn  into_iter ( self )->  Self ::  IntoIter { self .  range } fn  split_at ( self ,  index :  usize )-> ( Self ,  Self ){ assert ! ( index <=  self .  range .  len ());  let  mid =  self .  range .  start .  wrapping_add ( index  as $t );  let  left =  self .  range .  start ..  mid ;  let  right =  mid ..  self .  range .  end ; ( IterProducer { range :  left },  IterProducer { range :  right })}}}; }
macro_rules! __ra_macro_fixture254 {($t :  ty , $len_t :  ty )=>{ impl  UnindexedRangeLen <$len_t >  for  Range <$t > { fn  len (&  self )-> $len_t { let &  Range { start ,  end }=  self ;  if  end >  start { end .  wrapping_sub ( start ) as $len_t } else { 0 }}} impl  ParallelIterator  for  Iter <$t > { type  Item = $t ;  fn  drive_unindexed <  C > ( self ,  consumer :  C )->  C ::  Result  where  C :  UnindexedConsumer <  Self ::  Item >, {# [ inline ] fn  offset ( start : $t )->  impl  Fn ( usize )-> $t { move |  i |  start .  wrapping_add ( i  as $t )} if  let  Some ( len )=  self .  opt_len (){( 0 ..  len ).  into_par_iter ().  map ( offset ( self .  range .  start )).  drive ( consumer )} else { bridge_unindexed ( IterProducer { range :  self .  range },  consumer )}} fn  opt_len (&  self )->  Option <  usize > { let  len =  self .  range .  len ();  if  len <=  usize ::  MAX  as $len_t { Some ( len  as  usize )} else { None }}} impl  UnindexedProducer  for  IterProducer <$t > { type  Item = $t ;  fn  split ( mut  self )-> ( Self ,  Option <  Self >){ let  index =  self .  range .  len ()/  2 ;  if  index >  0 { let  mid =  self .  range .  start .  wrapping_add ( index  as $t );  let  right =  mid ..  self .  range .  end ;  self .  range .  end =  mid ; ( self ,  Some ( IterProducer { range :  right }))} else {( self ,  None )}} fn  fold_with <  F > ( self ,  folder :  F )->  F  where  F :  Folder <  Self ::  Item >, { folder .  consume_iter ( self )}}}; }
macro_rules! __ra_macro_fixture255 {($t :  ty )=>{ parallel_range_impl ! {$t } impl  IndexedParallelIterator  for  Iter <$t > { fn  drive <  C > ( self ,  consumer :  C )->  C ::  Result  where  C :  Consumer <  Self ::  Item >, { convert ! ( self .  drive ( consumer ))} fn  len (&  self )->  usize { self .  range .  len ()} fn  with_producer <  CB > ( self ,  callback :  CB )->  CB ::  Output  where  CB :  ProducerCallback <  Self ::  Item >, { convert ! ( self .  with_producer ( callback ))}}}; }
macro_rules! __ra_macro_fixture256 {($t :  ty )=>{ impl  ParallelIterator  for  Iter <$t > { type  Item = $t ;  fn  drive_unindexed <  C > ( self ,  consumer :  C )->  C ::  Result  where  C :  UnindexedConsumer <  Self ::  Item >, { convert ! ( self .  drive_unindexed ( consumer ))} fn  opt_len (&  self )->  Option <  usize > { convert ! ( self .  opt_len ())}}}; }
macro_rules! __ra_macro_fixture257 {($f :  ident , $name :  ident )=>{# [ test ] fn $name (){ let  mut  rng =  thread_rng ();  for  len  in ( 0 ..  25 ).  chain ( 500 ..  501 ){ for &  modulus  in & [ 5 ,  10 ,  100 ]{ let  dist =  Uniform ::  new ( 0 ,  modulus );  for _  in  0 ..  100 { let  v :  Vec <  i32 > =  rng .  sample_iter (&  dist ).  take ( len ).  collect ();  let  mut  tmp =  v .  clone ();  tmp .$f (|  a ,  b |  a .  cmp ( b ));  assert ! ( tmp .  windows ( 2 ).  all (|  w |  w [ 0 ]<=  w [ 1 ]));  let  mut  tmp =  v .  clone ();  tmp .$f (|  a ,  b |  b .  cmp ( a ));  assert ! ( tmp .  windows ( 2 ).  all (|  w |  w [ 0 ]>=  w [ 1 ])); }}} for &  len  in & [ 1_000 ,  10_000 ,  100_000 ]{ for &  modulus  in & [ 5 ,  10 ,  100 ,  10_000 ]{ let  dist =  Uniform ::  new ( 0 ,  modulus );  let  mut  v :  Vec <  i32 > =  rng .  sample_iter (&  dist ).  take ( len ).  collect ();  v .$f (|  a ,  b |  a .  cmp ( b ));  assert ! ( v .  windows ( 2 ).  all (|  w |  w [ 0 ]<=  w [ 1 ])); }} for &  len  in & [ 1_000 ,  10_000 ,  100_000 ]{ let  len_dist =  Uniform ::  new ( 0 ,  len );  for &  modulus  in & [ 5 ,  10 ,  1000 ,  50_000 ]{ let  dist =  Uniform ::  new ( 0 ,  modulus );  let  mut  v :  Vec <  i32 > =  rng .  sample_iter (&  dist ).  take ( len ).  collect ();  v .  sort ();  v .  reverse ();  for _  in  0 ..  5 { let  a =  rng .  sample (&  len_dist );  let  b =  rng .  sample (&  len_dist );  if  a <  b { v [ a ..  b ].  reverse (); } else { v .  swap ( a ,  b ); }} v .$f (|  a ,  b |  a .  cmp ( b ));  assert ! ( v .  windows ( 2 ).  all (|  w |  w [ 0 ]<=  w [ 1 ])); }} let  mut  v :  Vec <_> = ( 0 ..  100 ).  collect ();  v .$f (|_, _| * [ Less ,  Equal ,  Greater ].  choose (&  mut  thread_rng ()).  unwrap ());  v .$f (|  a ,  b |  a .  cmp ( b ));  for  i  in  0 ..  v .  len (){ assert_eq ! ( v [ i ],  i ); }[ 0i32 ;  0 ].$f (|  a ,  b |  a .  cmp ( b )); [();  10 ].$f (|  a ,  b |  a .  cmp ( b )); [();  100 ].$f (|  a ,  b |  a .  cmp ( b ));  let  mut  v = [ 0xDEAD_BEEFu64 ];  v .$f (|  a ,  b |  a .  cmp ( b ));  assert ! ( v == [ 0xDEAD_BEEF ]); }}; }
macro_rules! __ra_macro_fixture258 {($($name :  ident # [$expr :  meta ])*)=>{$(# [ doc =  " First sanity check that the expression is OK." ]# [ doc =  "" ]# [ doc =  " ```" ]# [ doc =  " #![deny(unused_must_use)]" ]# [ doc =  "" ]# [ doc =  " use rayon::prelude::*;" ]# [ doc =  "" ]# [ doc =  " let v: Vec<_> = (0..100).map(Some).collect();" ]# [ doc =  " let _ =" ]# [$expr ]# [ doc =  " ```" ]# [ doc =  "" ]# [ doc =  " Now trigger the `must_use`." ]# [ doc =  "" ]# [ doc =  " ```compile_fail" ]# [ doc =  " #![deny(unused_must_use)]" ]# [ doc =  "" ]# [ doc =  " use rayon::prelude::*;" ]# [ doc =  "" ]# [ doc =  " let v: Vec<_> = (0..100).map(Some).collect();" ]# [$expr ]# [ doc =  " ```" ] mod $name {})*}}
macro_rules! __ra_macro_fixture259 {($name :  ident : $style :  expr ; $input :  expr =>$result :  expr )=>{# [ test ] fn $name (){ assert_eq ! ($style .  paint ($input ).  to_string (), $result .  to_string ());  let  mut  v =  Vec ::  new (); $style .  paint ($input .  as_bytes ()).  write_to (&  mut  v ).  unwrap ();  assert_eq ! ( v .  as_slice (), $result .  as_bytes ()); }}; }
macro_rules! __ra_macro_fixture260 {($name :  ident : $first :  expr ; $next :  expr =>$result :  expr )=>{# [ test ] fn $name (){ assert_eq ! ($result ,  Difference ::  between (&$first , &$next )); }}; }
macro_rules! __ra_macro_fixture261 {($name :  ident : $obj :  expr =>$result :  expr )=>{# [ test ] fn $name (){ assert_eq ! ($result ,  format ! ( "{:?}" , $obj )); }}; }
macro_rules! __ra_macro_fixture262 {($name :  ident , $ty_int :  ty , $max :  expr , $bytes :  expr , $read :  ident , $write :  ident )=>{ mod $name {# [ allow ( unused_imports )] use  super :: { qc_sized ,  Wi128 };  use  crate :: { BigEndian ,  ByteOrder ,  LittleEndian ,  NativeEndian , }; # [ test ] fn  big_endian (){ fn  prop ( n : $ty_int )->  bool { let  mut  buf = [ 0 ;  16 ];  BigEndian ::$write (&  mut  buf ,  n .  clone (), $bytes );  n ==  BigEndian ::$read (&  buf [..$bytes ], $bytes )} qc_sized ( prop  as  fn ($ty_int )->  bool , $max ); }# [ test ] fn  little_endian (){ fn  prop ( n : $ty_int )->  bool { let  mut  buf = [ 0 ;  16 ];  LittleEndian ::$write (&  mut  buf ,  n .  clone (), $bytes );  n ==  LittleEndian ::$read (&  buf [..$bytes ], $bytes )} qc_sized ( prop  as  fn ($ty_int )->  bool , $max ); }# [ test ] fn  native_endian (){ fn  prop ( n : $ty_int )->  bool { let  mut  buf = [ 0 ;  16 ];  NativeEndian ::$write (&  mut  buf ,  n .  clone (), $bytes );  n ==  NativeEndian ::$read (&  buf [..$bytes ], $bytes )} qc_sized ( prop  as  fn ($ty_int )->  bool , $max ); }}}; ($name :  ident , $ty_int :  ty , $max :  expr , $read :  ident , $write :  ident )=>{ mod $name {# [ allow ( unused_imports )] use  super :: { qc_sized ,  Wi128 };  use  crate :: { BigEndian ,  ByteOrder ,  LittleEndian ,  NativeEndian , };  use  core ::  mem ::  size_of ; # [ test ] fn  big_endian (){ fn  prop ( n : $ty_int )->  bool { let  bytes =  size_of ::<$ty_int > ();  let  mut  buf = [ 0 ;  16 ];  BigEndian ::$write (&  mut  buf [ 16 -  bytes ..],  n .  clone ());  n ==  BigEndian ::$read (&  buf [ 16 -  bytes ..])} qc_sized ( prop  as  fn ($ty_int )->  bool , $max -  1 ); }# [ test ] fn  little_endian (){ fn  prop ( n : $ty_int )->  bool { let  bytes =  size_of ::<$ty_int > ();  let  mut  buf = [ 0 ;  16 ];  LittleEndian ::$write (&  mut  buf [..  bytes ],  n .  clone ());  n ==  LittleEndian ::$read (&  buf [..  bytes ])} qc_sized ( prop  as  fn ($ty_int )->  bool , $max -  1 ); }# [ test ] fn  native_endian (){ fn  prop ( n : $ty_int )->  bool { let  bytes =  size_of ::<$ty_int > ();  let  mut  buf = [ 0 ;  16 ];  NativeEndian ::$write (&  mut  buf [..  bytes ],  n .  clone ());  n ==  NativeEndian ::$read (&  buf [..  bytes ])} qc_sized ( prop  as  fn ($ty_int )->  bool , $max -  1 ); }}}; }
macro_rules! __ra_macro_fixture263 {($name :  ident , $maximally_small :  expr , $zero :  expr , $read :  ident , $write :  ident )=>{ mod $name { use  crate :: { BigEndian ,  ByteOrder ,  LittleEndian ,  NativeEndian , }; # [ test ]# [ should_panic ] fn  read_big_endian (){ let  buf = [ 0 ; $maximally_small ];  BigEndian ::$read (&  buf ); }# [ test ]# [ should_panic ] fn  read_little_endian (){ let  buf = [ 0 ; $maximally_small ];  LittleEndian ::$read (&  buf ); }# [ test ]# [ should_panic ] fn  read_native_endian (){ let  buf = [ 0 ; $maximally_small ];  NativeEndian ::$read (&  buf ); }# [ test ]# [ should_panic ] fn  write_big_endian (){ let  mut  buf = [ 0 ; $maximally_small ];  BigEndian ::$write (&  mut  buf , $zero ); }# [ test ]# [ should_panic ] fn  write_little_endian (){ let  mut  buf = [ 0 ; $maximally_small ];  LittleEndian ::$write (&  mut  buf , $zero ); }# [ test ]# [ should_panic ] fn  write_native_endian (){ let  mut  buf = [ 0 ; $maximally_small ];  NativeEndian ::$write (&  mut  buf , $zero ); }}}; ($name :  ident , $maximally_small :  expr , $read :  ident )=>{ mod $name { use  crate :: { BigEndian ,  ByteOrder ,  LittleEndian ,  NativeEndian , }; # [ test ]# [ should_panic ] fn  read_big_endian (){ let  buf = [ 0 ; $maximally_small ];  BigEndian ::$read (&  buf , $maximally_small +  1 ); }# [ test ]# [ should_panic ] fn  read_little_endian (){ let  buf = [ 0 ; $maximally_small ];  LittleEndian ::$read (&  buf , $maximally_small +  1 ); }# [ test ]# [ should_panic ] fn  read_native_endian (){ let  buf = [ 0 ; $maximally_small ];  NativeEndian ::$read (&  buf , $maximally_small +  1 ); }}}; }
macro_rules! __ra_macro_fixture264 {($name :  ident , $read :  ident , $write :  ident , $num_bytes :  expr , $numbers :  expr )=>{ mod $name { use  crate :: { BigEndian ,  ByteOrder ,  LittleEndian ,  NativeEndian , }; # [ test ]# [ should_panic ] fn  read_big_endian (){ let  bytes = [ 0 ; $num_bytes ];  let  mut  numbers = $numbers ;  BigEndian ::$read (&  bytes , &  mut  numbers ); }# [ test ]# [ should_panic ] fn  read_little_endian (){ let  bytes = [ 0 ; $num_bytes ];  let  mut  numbers = $numbers ;  LittleEndian ::$read (&  bytes , &  mut  numbers ); }# [ test ]# [ should_panic ] fn  read_native_endian (){ let  bytes = [ 0 ; $num_bytes ];  let  mut  numbers = $numbers ;  NativeEndian ::$read (&  bytes , &  mut  numbers ); }# [ test ]# [ should_panic ] fn  write_big_endian (){ let  mut  bytes = [ 0 ; $num_bytes ];  let  numbers = $numbers ;  BigEndian ::$write (&  numbers , &  mut  bytes ); }# [ test ]# [ should_panic ] fn  write_little_endian (){ let  mut  bytes = [ 0 ; $num_bytes ];  let  numbers = $numbers ;  LittleEndian ::$write (&  numbers , &  mut  bytes ); }# [ test ]# [ should_panic ] fn  write_native_endian (){ let  mut  bytes = [ 0 ; $num_bytes ];  let  numbers = $numbers ;  NativeEndian ::$write (&  numbers , &  mut  bytes ); }}}; }
macro_rules! __ra_macro_fixture265 {($name :  ident , $which :  ident , $re :  expr )=>{ test_lit ! ($name , $which , $re ,); }; ($name :  ident , $which :  ident , $re :  expr , $($lit :  expr ),*)=>{# [ test ] fn $name (){ let  expr =  ParserBuilder ::  new ().  build ().  parse ($re ).  unwrap ();  let  lits =  Literals ::$which (&  expr );  assert_lit_eq ! ( Unicode ,  lits , $($lit ),*);  let  expr =  ParserBuilder ::  new ().  allow_invalid_utf8 ( true ).  unicode ( false ).  build ().  parse ($re ).  unwrap ();  let  lits =  Literals ::$which (&  expr );  assert_lit_eq ! ( Bytes ,  lits , $($lit ),*); }}; }
macro_rules! __ra_macro_fixture266 {($name :  ident , $which :  ident , $re :  expr )=>{ test_exhausted ! ($name , $which , $re ,); }; ($name :  ident , $which :  ident , $re :  expr , $($lit :  expr ),*)=>{# [ test ] fn $name (){ let  expr =  ParserBuilder ::  new ().  build ().  parse ($re ).  unwrap ();  let  mut  lits =  Literals ::  empty ();  lits .  set_limit_size ( 20 ).  set_limit_class ( 10 ); $which (&  mut  lits , &  expr );  assert_lit_eq ! ( Unicode ,  lits , $($lit ),*);  let  expr =  ParserBuilder ::  new ().  allow_invalid_utf8 ( true ).  unicode ( false ).  build ().  parse ($re ).  unwrap ();  let  mut  lits =  Literals ::  empty ();  lits .  set_limit_size ( 20 ).  set_limit_class ( 10 ); $which (&  mut  lits , &  expr );  assert_lit_eq ! ( Bytes ,  lits , $($lit ),*); }}; }
macro_rules! __ra_macro_fixture267 {($name :  ident , $given :  expr , $expected :  expr )=>{# [ test ] fn $name (){ let  given :  Vec <  Literal > = $given .  into_iter ().  map (|  ul | { let  cut =  ul .  is_cut ();  Literal { v :  ul .  v .  into_bytes (),  cut :  cut }}).  collect ();  let  lits =  create_lits ( given );  let  got =  lits .  unambiguous_prefixes ();  assert_eq ! ($expected ,  escape_lits ( got .  literals ())); }}; }
macro_rules! __ra_macro_fixture268 {($name :  ident , $trim :  expr , $given :  expr , $expected :  expr )=>{# [ test ] fn $name (){ let  given :  Vec <  Literal > = $given .  into_iter ().  map (|  ul | { let  cut =  ul .  is_cut ();  Literal { v :  ul .  v .  into_bytes (),  cut :  cut }}).  collect ();  let  lits =  create_lits ( given );  let  got =  lits .  trim_suffix ($trim ).  unwrap ();  assert_eq ! ($expected ,  escape_lits ( got .  literals ())); }}; }
macro_rules! __ra_macro_fixture269 {($name :  ident , $given :  expr , $expected :  expr )=>{# [ test ] fn $name (){ let  given :  Vec <  Literal > = $given .  into_iter ().  map (|  s : &  str |  Literal { v :  s .  to_owned ().  into_bytes (),  cut :  false , }).  collect ();  let  lits =  create_lits ( given );  let  got =  lits .  longest_common_prefix ();  assert_eq ! ($expected ,  escape_bytes ( got )); }}; }
macro_rules! __ra_macro_fixture270 {($name :  ident , $given :  expr , $expected :  expr )=>{# [ test ] fn $name (){ let  given :  Vec <  Literal > = $given .  into_iter ().  map (|  s : &  str |  Literal { v :  s .  to_owned ().  into_bytes (),  cut :  false , }).  collect ();  let  lits =  create_lits ( given );  let  got =  lits .  longest_common_suffix ();  assert_eq ! ($expected ,  escape_bytes ( got )); }}; }
macro_rules! __ra_macro_fixture271 {($name :  ident , $text :  expr )=>{# [ test ] fn $name (){ assert_eq ! ( None ,  find_cap_ref ($text .  as_bytes ())); }}; ($name :  ident , $text :  expr , $capref :  expr )=>{# [ test ] fn $name (){ assert_eq ! ( Some ($capref ),  find_cap_ref ($text .  as_bytes ())); }}; }
macro_rules! __ra_macro_fixture272 {($name :  ident , $regex_mod :  ident , $only_utf8 :  expr )=>{ pub  mod $name { use  super ::  RegexOptions ;  use  error ::  Error ;  use  exec ::  ExecBuilder ;  use $regex_mod ::  Regex ; # [ doc =  " A configurable builder for a regular expression." ]# [ doc =  "" ]# [ doc =  " A builder can be used to configure how the regex is built, for example, by" ]# [ doc =  " setting the default flags (which can be overridden in the expression" ]# [ doc =  " itself) or setting various limits." ]# [ derive ( Debug )] pub  struct  RegexBuilder ( RegexOptions );  impl  RegexBuilder {# [ doc =  " Create a new regular expression builder with the given pattern." ]# [ doc =  "" ]# [ doc =  " If the pattern is invalid, then an error will be returned when" ]# [ doc =  " `build` is called." ] pub  fn  new ( pattern : &  str )->  RegexBuilder { let  mut  builder =  RegexBuilder ( RegexOptions ::  default ());  builder .  0 .  pats .  push ( pattern .  to_owned ());  builder }# [ doc =  " Consume the builder and compile the regular expression." ]# [ doc =  "" ]# [ doc =  " Note that calling `as_str` on the resulting `Regex` will produce the" ]# [ doc =  " pattern given to `new` verbatim. Notably, it will not incorporate any" ]# [ doc =  " of the flags set on this builder." ] pub  fn  build (&  self )->  Result <  Regex ,  Error > { ExecBuilder ::  new_options ( self .  0 .  clone ()).  only_utf8 ($only_utf8 ).  build ().  map ( Regex ::  from )}# [ doc =  " Set the value for the case insensitive (`i`) flag." ]# [ doc =  "" ]# [ doc =  " When enabled, letters in the pattern will match both upper case and" ]# [ doc =  " lower case variants." ] pub  fn  case_insensitive (&  mut  self ,  yes :  bool , )-> &  mut  RegexBuilder { self .  0 .  case_insensitive =  yes ;  self }# [ doc =  " Set the value for the multi-line matching (`m`) flag." ]# [ doc =  "" ]# [ doc =  " When enabled, `^` matches the beginning of lines and `$` matches the" ]# [ doc =  " end of lines." ]# [ doc =  "" ]# [ doc =  " By default, they match beginning/end of the input." ] pub  fn  multi_line (&  mut  self ,  yes :  bool )-> &  mut  RegexBuilder { self .  0 .  multi_line =  yes ;  self }# [ doc =  " Set the value for the any character (`s`) flag, where in `.` matches" ]# [ doc =  " anything when `s` is set and matches anything except for new line when" ]# [ doc =  " it is not set (the default)." ]# [ doc =  "" ]# [ doc =  " N.B. \\\"matches anything\\\" means \\\"any byte\\\" when Unicode is disabled and" ]# [ doc =  " means \\\"any valid UTF-8 encoding of any Unicode scalar value\\\" when" ]# [ doc =  " Unicode is enabled." ] pub  fn  dot_matches_new_line (&  mut  self ,  yes :  bool , )-> &  mut  RegexBuilder { self .  0 .  dot_matches_new_line =  yes ;  self }# [ doc =  " Set the value for the greedy swap (`U`) flag." ]# [ doc =  "" ]# [ doc =  " When enabled, a pattern like `a*` is lazy (tries to find shortest" ]# [ doc =  " match) and `a*?` is greedy (tries to find longest match)." ]# [ doc =  "" ]# [ doc =  " By default, `a*` is greedy and `a*?` is lazy." ] pub  fn  swap_greed (&  mut  self ,  yes :  bool )-> &  mut  RegexBuilder { self .  0 .  swap_greed =  yes ;  self }# [ doc =  " Set the value for the ignore whitespace (`x`) flag." ]# [ doc =  "" ]# [ doc =  " When enabled, whitespace such as new lines and spaces will be ignored" ]# [ doc =  " between expressions of the pattern, and `#` can be used to start a" ]# [ doc =  " comment until the next new line." ] pub  fn  ignore_whitespace (&  mut  self ,  yes :  bool , )-> &  mut  RegexBuilder { self .  0 .  ignore_whitespace =  yes ;  self }# [ doc =  " Set the value for the Unicode (`u`) flag." ]# [ doc =  "" ]# [ doc =  " Enabled by default. When disabled, character classes such as `\\\\w` only" ]# [ doc =  " match ASCII word characters instead of all Unicode word characters." ] pub  fn  unicode (&  mut  self ,  yes :  bool )-> &  mut  RegexBuilder { self .  0 .  unicode =  yes ;  self }# [ doc =  " Whether to support octal syntax or not." ]# [ doc =  "" ]# [ doc =  " Octal syntax is a little-known way of uttering Unicode codepoints in" ]# [ doc =  " a regular expression. For example, `a`, `\\\\x61`, `\\\\u0061` and" ]# [ doc =  " `\\\\141` are all equivalent regular expressions, where the last example" ]# [ doc =  " shows octal syntax." ]# [ doc =  "" ]# [ doc =  " While supporting octal syntax isn\\\'t in and of itself a problem, it does" ]# [ doc =  " make good error messages harder. That is, in PCRE based regex engines," ]# [ doc =  " syntax like `\\\\0` invokes a backreference, which is explicitly" ]# [ doc =  " unsupported in Rust\\\'s regex engine. However, many users expect it to" ]# [ doc =  " be supported. Therefore, when octal support is disabled, the error" ]# [ doc =  " message will explicitly mention that backreferences aren\\\'t supported." ]# [ doc =  "" ]# [ doc =  " Octal syntax is disabled by default." ] pub  fn  octal (&  mut  self ,  yes :  bool )-> &  mut  RegexBuilder { self .  0 .  octal =  yes ;  self }# [ doc =  " Set the approximate size limit of the compiled regular expression." ]# [ doc =  "" ]# [ doc =  " This roughly corresponds to the number of bytes occupied by a single" ]# [ doc =  " compiled program. If the program exceeds this number, then a" ]# [ doc =  " compilation error is returned." ] pub  fn  size_limit (&  mut  self ,  limit :  usize , )-> &  mut  RegexBuilder { self .  0 .  size_limit =  limit ;  self }# [ doc =  " Set the approximate size of the cache used by the DFA." ]# [ doc =  "" ]# [ doc =  " This roughly corresponds to the number of bytes that the DFA will" ]# [ doc =  " use while searching." ]# [ doc =  "" ]# [ doc =  " Note that this is a *per thread* limit. There is no way to set a global" ]# [ doc =  " limit. In particular, if a regex is used from multiple threads" ]# [ doc =  " simultaneously, then each thread may use up to the number of bytes" ]# [ doc =  " specified here." ] pub  fn  dfa_size_limit (&  mut  self ,  limit :  usize , )-> &  mut  RegexBuilder { self .  0 .  dfa_size_limit =  limit ;  self }# [ doc =  " Set the nesting limit for this parser." ]# [ doc =  "" ]# [ doc =  " The nesting limit controls how deep the abstract syntax tree is allowed" ]# [ doc =  " to be. If the AST exceeds the given limit (e.g., with too many nested" ]# [ doc =  " groups), then an error is returned by the parser." ]# [ doc =  "" ]# [ doc =  " The purpose of this limit is to act as a heuristic to prevent stack" ]# [ doc =  " overflow for consumers that do structural induction on an `Ast` using" ]# [ doc =  " explicit recursion. While this crate never does this (instead using" ]# [ doc =  " constant stack space and moving the call stack to the heap), other" ]# [ doc =  " crates may." ]# [ doc =  "" ]# [ doc =  " This limit is not checked until the entire Ast is parsed. Therefore," ]# [ doc =  " if callers want to put a limit on the amount of heap space used, then" ]# [ doc =  " they should impose a limit on the length, in bytes, of the concrete" ]# [ doc =  " pattern string. In particular, this is viable since this parser" ]# [ doc =  " implementation will limit itself to heap space proportional to the" ]# [ doc =  " length of the pattern string." ]# [ doc =  "" ]# [ doc =  " Note that a nest limit of `0` will return a nest limit error for most" ]# [ doc =  " patterns but not all. For example, a nest limit of `0` permits `a` but" ]# [ doc =  " not `ab`, since `ab` requires a concatenation, which results in a nest" ]# [ doc =  " depth of `1`. In general, a nest limit is not something that manifests" ]# [ doc =  " in an obvious way in the concrete syntax, therefore, it should not be" ]# [ doc =  " used in a granular way." ] pub  fn  nest_limit (&  mut  self ,  limit :  u32 )-> &  mut  RegexBuilder { self .  0 .  nest_limit =  limit ;  self }}}}; }
macro_rules! __ra_macro_fixture273 {($name :  ident , $regex_mod :  ident , $only_utf8 :  expr )=>{ pub  mod $name { use  super ::  RegexOptions ;  use  error ::  Error ;  use  exec ::  ExecBuilder ;  use  re_set ::$regex_mod ::  RegexSet ; # [ doc =  " A configurable builder for a set of regular expressions." ]# [ doc =  "" ]# [ doc =  " A builder can be used to configure how the regexes are built, for example," ]# [ doc =  " by setting the default flags (which can be overridden in the expression" ]# [ doc =  " itself) or setting various limits." ]# [ derive ( Debug )] pub  struct  RegexSetBuilder ( RegexOptions );  impl  RegexSetBuilder {# [ doc =  " Create a new regular expression builder with the given pattern." ]# [ doc =  "" ]# [ doc =  " If the pattern is invalid, then an error will be returned when" ]# [ doc =  " `build` is called." ] pub  fn  new <  I ,  S > ( patterns :  I )->  RegexSetBuilder  where  S :  AsRef <  str >,  I :  IntoIterator <  Item =  S >, { let  mut  builder =  RegexSetBuilder ( RegexOptions ::  default ());  for  pat  in  patterns { builder .  0 .  pats .  push ( pat .  as_ref ().  to_owned ()); } builder }# [ doc =  " Consume the builder and compile the regular expressions into a set." ] pub  fn  build (&  self )->  Result <  RegexSet ,  Error > { ExecBuilder ::  new_options ( self .  0 .  clone ()).  only_utf8 ($only_utf8 ).  build ().  map ( RegexSet ::  from )}# [ doc =  " Set the value for the case insensitive (`i`) flag." ] pub  fn  case_insensitive (&  mut  self ,  yes :  bool , )-> &  mut  RegexSetBuilder { self .  0 .  case_insensitive =  yes ;  self }# [ doc =  " Set the value for the multi-line matching (`m`) flag." ] pub  fn  multi_line (&  mut  self ,  yes :  bool , )-> &  mut  RegexSetBuilder { self .  0 .  multi_line =  yes ;  self }# [ doc =  " Set the value for the any character (`s`) flag, where in `.` matches" ]# [ doc =  " anything when `s` is set and matches anything except for new line when" ]# [ doc =  " it is not set (the default)." ]# [ doc =  "" ]# [ doc =  " N.B. \\\"matches anything\\\" means \\\"any byte\\\" for `regex::bytes::RegexSet`" ]# [ doc =  " expressions and means \\\"any Unicode scalar value\\\" for `regex::RegexSet`" ]# [ doc =  " expressions." ] pub  fn  dot_matches_new_line (&  mut  self ,  yes :  bool , )-> &  mut  RegexSetBuilder { self .  0 .  dot_matches_new_line =  yes ;  self }# [ doc =  " Set the value for the greedy swap (`U`) flag." ] pub  fn  swap_greed (&  mut  self ,  yes :  bool , )-> &  mut  RegexSetBuilder { self .  0 .  swap_greed =  yes ;  self }# [ doc =  " Set the value for the ignore whitespace (`x`) flag." ] pub  fn  ignore_whitespace (&  mut  self ,  yes :  bool , )-> &  mut  RegexSetBuilder { self .  0 .  ignore_whitespace =  yes ;  self }# [ doc =  " Set the value for the Unicode (`u`) flag." ] pub  fn  unicode (&  mut  self ,  yes :  bool )-> &  mut  RegexSetBuilder { self .  0 .  unicode =  yes ;  self }# [ doc =  " Whether to support octal syntax or not." ]# [ doc =  "" ]# [ doc =  " Octal syntax is a little-known way of uttering Unicode codepoints in" ]# [ doc =  " a regular expression. For example, `a`, `\\\\x61`, `\\\\u0061` and" ]# [ doc =  " `\\\\141` are all equivalent regular expressions, where the last example" ]# [ doc =  " shows octal syntax." ]# [ doc =  "" ]# [ doc =  " While supporting octal syntax isn\\\'t in and of itself a problem, it does" ]# [ doc =  " make good error messages harder. That is, in PCRE based regex engines," ]# [ doc =  " syntax like `\\\\0` invokes a backreference, which is explicitly" ]# [ doc =  " unsupported in Rust\\\'s regex engine. However, many users expect it to" ]# [ doc =  " be supported. Therefore, when octal support is disabled, the error" ]# [ doc =  " message will explicitly mention that backreferences aren\\\'t supported." ]# [ doc =  "" ]# [ doc =  " Octal syntax is disabled by default." ] pub  fn  octal (&  mut  self ,  yes :  bool )-> &  mut  RegexSetBuilder { self .  0 .  octal =  yes ;  self }# [ doc =  " Set the approximate size limit of the compiled regular expression." ]# [ doc =  "" ]# [ doc =  " This roughly corresponds to the number of bytes occupied by a single" ]# [ doc =  " compiled program. If the program exceeds this number, then a" ]# [ doc =  " compilation error is returned." ] pub  fn  size_limit (&  mut  self ,  limit :  usize , )-> &  mut  RegexSetBuilder { self .  0 .  size_limit =  limit ;  self }# [ doc =  " Set the approximate size of the cache used by the DFA." ]# [ doc =  "" ]# [ doc =  " This roughly corresponds to the number of bytes that the DFA will" ]# [ doc =  " use while searching." ]# [ doc =  "" ]# [ doc =  " Note that this is a *per thread* limit. There is no way to set a global" ]# [ doc =  " limit. In particular, if a regex is used from multiple threads" ]# [ doc =  " simultaneously, then each thread may use up to the number of bytes" ]# [ doc =  " specified here." ] pub  fn  dfa_size_limit (&  mut  self ,  limit :  usize , )-> &  mut  RegexSetBuilder { self .  0 .  dfa_size_limit =  limit ;  self }# [ doc =  " Set the nesting limit for this parser." ]# [ doc =  "" ]# [ doc =  " The nesting limit controls how deep the abstract syntax tree is allowed" ]# [ doc =  " to be. If the AST exceeds the given limit (e.g., with too many nested" ]# [ doc =  " groups), then an error is returned by the parser." ]# [ doc =  "" ]# [ doc =  " The purpose of this limit is to act as a heuristic to prevent stack" ]# [ doc =  " overflow for consumers that do structural induction on an `Ast` using" ]# [ doc =  " explicit recursion. While this crate never does this (instead using" ]# [ doc =  " constant stack space and moving the call stack to the heap), other" ]# [ doc =  " crates may." ]# [ doc =  "" ]# [ doc =  " This limit is not checked until the entire Ast is parsed. Therefore," ]# [ doc =  " if callers want to put a limit on the amount of heap space used, then" ]# [ doc =  " they should impose a limit on the length, in bytes, of the concrete" ]# [ doc =  " pattern string. In particular, this is viable since this parser" ]# [ doc =  " implementation will limit itself to heap space proportional to the" ]# [ doc =  " length of the pattern string." ]# [ doc =  "" ]# [ doc =  " Note that a nest limit of `0` will return a nest limit error for most" ]# [ doc =  " patterns but not all. For example, a nest limit of `0` permits `a` but" ]# [ doc =  " not `ab`, since `ab` requires a concatenation, which results in a nest" ]# [ doc =  " depth of `1`. In general, a nest limit is not something that manifests" ]# [ doc =  " in an obvious way in the concrete syntax, therefore, it should not be" ]# [ doc =  " used in a granular way." ] pub  fn  nest_limit (&  mut  self ,  limit :  u32 , )-> &  mut  RegexSetBuilder { self .  0 .  nest_limit =  limit ;  self }}}}; }
macro_rules! __ra_macro_fixture274 {($name :  ident , $builder_mod :  ident , $text_ty :  ty , $as_bytes :  expr , $(# [$doc_regexset_example :  meta ])* )=>{ pub  mod $name { use  std ::  fmt ;  use  std ::  iter ;  use  std ::  slice ;  use  std ::  vec ;  use  error ::  Error ;  use  exec ::  Exec ;  use  re_builder ::$builder_mod ::  RegexSetBuilder ;  use  re_trait ::  RegularExpression ; # [ doc =  " Match multiple (possibly overlapping) regular expressions in a single scan." ]# [ doc =  "" ]# [ doc =  " A regex set corresponds to the union of two or more regular expressions." ]# [ doc =  " That is, a regex set will match text where at least one of its" ]# [ doc =  " constituent regular expressions matches. A regex set as its formulated here" ]# [ doc =  " provides a touch more power: it will also report *which* regular" ]# [ doc =  " expressions in the set match. Indeed, this is the key difference between" ]# [ doc =  " regex sets and a single `Regex` with many alternates, since only one" ]# [ doc =  " alternate can match at a time." ]# [ doc =  "" ]# [ doc =  " For example, consider regular expressions to match email addresses and" ]# [ doc =  " domains: `[a-z]+@[a-z]+\\\\.(com|org|net)` and `[a-z]+\\\\.(com|org|net)`. If a" ]# [ doc =  " regex set is constructed from those regexes, then searching the text" ]# [ doc =  " `[email protected]` will report both regexes as matching. Of course, one" ]# [ doc =  " could accomplish this by compiling each regex on its own and doing two" ]# [ doc =  " searches over the text. The key advantage of using a regex set is that it" ]# [ doc =  " will report the matching regexes using a *single pass through the text*." ]# [ doc =  " If one has hundreds or thousands of regexes to match repeatedly (like a URL" ]# [ doc =  " router for a complex web application or a user agent matcher), then a regex" ]# [ doc =  " set can realize huge performance gains." ]# [ doc =  "" ]# [ doc =  " # Example" ]# [ doc =  "" ]# [ doc =  " This shows how the above two regexes (for matching email addresses and" ]# [ doc =  " domains) might work:" ]# [ doc =  "" ]$(# [$doc_regexset_example ])* # [ doc =  "" ]# [ doc =  " Note that it would be possible to adapt the above example to using `Regex`" ]# [ doc =  " with an expression like:" ]# [ doc =  "" ]# [ doc =  " ```ignore" ]# [ doc =  " (?P<email>[a-z]+@(?P<email_domain>[a-z]+[.](com|org|net)))|(?P<domain>[a-z]+[.](com|org|net))" ]# [ doc =  " ```" ]# [ doc =  "" ]# [ doc =  " After a match, one could then inspect the capture groups to figure out" ]# [ doc =  " which alternates matched. The problem is that it is hard to make this" ]# [ doc =  " approach scale when there are many regexes since the overlap between each" ]# [ doc =  " alternate isn\\\'t always obvious to reason about." ]# [ doc =  "" ]# [ doc =  " # Limitations" ]# [ doc =  "" ]# [ doc =  " Regex sets are limited to answering the following two questions:" ]# [ doc =  "" ]# [ doc =  " 1. Does any regex in the set match?" ]# [ doc =  " 2. If so, which regexes in the set match?" ]# [ doc =  "" ]# [ doc =  " As with the main `Regex` type, it is cheaper to ask (1) instead of (2)" ]# [ doc =  " since the matching engines can stop after the first match is found." ]# [ doc =  "" ]# [ doc =  " Other features like finding the location of successive matches or their" ]# [ doc =  " sub-captures aren\\\'t supported. If you need this functionality, the" ]# [ doc =  " recommended approach is to compile each regex in the set independently and" ]# [ doc =  " selectively match them based on which regexes in the set matched." ]# [ doc =  "" ]# [ doc =  " # Performance" ]# [ doc =  "" ]# [ doc =  " A `RegexSet` has the same performance characteristics as `Regex`. Namely," ]# [ doc =  " search takes `O(mn)` time, where `m` is proportional to the size of the" ]# [ doc =  " regex set and `n` is proportional to the length of the search text." ]# [ derive ( Clone )] pub  struct  RegexSet ( Exec );  impl  RegexSet {# [ doc =  " Create a new regex set with the given regular expressions." ]# [ doc =  "" ]# [ doc =  " This takes an iterator of `S`, where `S` is something that can produce" ]# [ doc =  " a `&str`. If any of the strings in the iterator are not valid regular" ]# [ doc =  " expressions, then an error is returned." ]# [ doc =  "" ]# [ doc =  " # Example" ]# [ doc =  "" ]# [ doc =  " Create a new regex set from an iterator of strings:" ]# [ doc =  "" ]# [ doc =  " ```rust" ]# [ doc =  " # use regex::RegexSet;" ]# [ doc =  " let set = RegexSet::new(&[r\\\"\\\\w+\\\", r\\\"\\\\d+\\\"]).unwrap();" ]# [ doc =  " assert!(set.is_match(\\\"foo\\\"));" ]# [ doc =  " ```" ] pub  fn  new <  I ,  S > ( exprs :  I )->  Result <  RegexSet ,  Error >  where  S :  AsRef <  str >,  I :  IntoIterator <  Item =  S >{ RegexSetBuilder ::  new ( exprs ).  build ()}# [ doc =  " Create a new empty regex set." ]# [ doc =  "" ]# [ doc =  " # Example" ]# [ doc =  "" ]# [ doc =  " ```rust" ]# [ doc =  " # use regex::RegexSet;" ]# [ doc =  " let set = RegexSet::empty();" ]# [ doc =  " assert!(set.is_empty());" ]# [ doc =  " ```" ] pub  fn  empty ()->  RegexSet { RegexSetBuilder ::  new (& [ "" ;  0 ]).  build ().  unwrap ()}# [ doc =  " Returns true if and only if one of the regexes in this set matches" ]# [ doc =  " the text given." ]# [ doc =  "" ]# [ doc =  " This method should be preferred if you only need to test whether any" ]# [ doc =  " of the regexes in the set should match, but don\\\'t care about *which*" ]# [ doc =  " regexes matched. This is because the underlying matching engine will" ]# [ doc =  " quit immediately after seeing the first match instead of continuing to" ]# [ doc =  " find all matches." ]# [ doc =  "" ]# [ doc =  " Note that as with searches using `Regex`, the expression is unanchored" ]# [ doc =  " by default. That is, if the regex does not start with `^` or `\\\\A`, or" ]# [ doc =  " end with `$` or `\\\\z`, then it is permitted to match anywhere in the" ]# [ doc =  " text." ]# [ doc =  "" ]# [ doc =  " # Example" ]# [ doc =  "" ]# [ doc =  " Tests whether a set matches some text:" ]# [ doc =  "" ]# [ doc =  " ```rust" ]# [ doc =  " # use regex::RegexSet;" ]# [ doc =  " let set = RegexSet::new(&[r\\\"\\\\w+\\\", r\\\"\\\\d+\\\"]).unwrap();" ]# [ doc =  " assert!(set.is_match(\\\"foo\\\"));" ]# [ doc =  " assert!(!set.is_match(\\\"\\u{2603}\\\"));" ]# [ doc =  " ```" ] pub  fn  is_match (&  self ,  text : $text_ty )->  bool { self .  is_match_at ( text ,  0 )}# [ doc =  " Returns the same as is_match, but starts the search at the given" ]# [ doc =  " offset." ]# [ doc =  "" ]# [ doc =  " The significance of the starting point is that it takes the surrounding" ]# [ doc =  " context into consideration. For example, the `\\\\A` anchor can only" ]# [ doc =  " match when `start == 0`." ]# [ doc ( hidden )] pub  fn  is_match_at (&  self ,  text : $text_ty ,  start :  usize )->  bool { self .  0 .  searcher ().  is_match_at ($as_bytes ( text ),  start )}# [ doc =  " Returns the set of regular expressions that match in the given text." ]# [ doc =  "" ]# [ doc =  " The set returned contains the index of each regular expression that" ]# [ doc =  " matches in the given text. The index is in correspondence with the" ]# [ doc =  " order of regular expressions given to `RegexSet`\\\'s constructor." ]# [ doc =  "" ]# [ doc =  " The set can also be used to iterate over the matched indices." ]# [ doc =  "" ]# [ doc =  " Note that as with searches using `Regex`, the expression is unanchored" ]# [ doc =  " by default. That is, if the regex does not start with `^` or `\\\\A`, or" ]# [ doc =  " end with `$` or `\\\\z`, then it is permitted to match anywhere in the" ]# [ doc =  " text." ]# [ doc =  "" ]# [ doc =  " # Example" ]# [ doc =  "" ]# [ doc =  " Tests which regular expressions match the given text:" ]# [ doc =  "" ]# [ doc =  " ```rust" ]# [ doc =  " # use regex::RegexSet;" ]# [ doc =  " let set = RegexSet::new(&[" ]# [ doc =  "     r\\\"\\\\w+\\\"," ]# [ doc =  "     r\\\"\\\\d+\\\"," ]# [ doc =  "     r\\\"\\\\pL+\\\"," ]# [ doc =  "     r\\\"foo\\\"," ]# [ doc =  "     r\\\"bar\\\"," ]# [ doc =  "     r\\\"barfoo\\\"," ]# [ doc =  "     r\\\"foobar\\\"," ]# [ doc =  " ]).unwrap();" ]# [ doc =  " let matches: Vec<_> = set.matches(\\\"foobar\\\").into_iter().collect();" ]# [ doc =  " assert_eq!(matches, vec![0, 2, 3, 4, 6]);" ]# [ doc =  "" ]# [ doc =  " // You can also test whether a particular regex matched:" ]# [ doc =  " let matches = set.matches(\\\"foobar\\\");" ]# [ doc =  " assert!(!matches.matched(5));" ]# [ doc =  " assert!(matches.matched(6));" ]# [ doc =  " ```" ] pub  fn  matches (&  self ,  text : $text_ty )->  SetMatches { let  mut  matches =  vec ! [ false ;  self .  0 .  regex_strings ().  len ()];  let  any =  self .  read_matches_at (&  mut  matches ,  text ,  0 );  SetMatches { matched_any :  any ,  matches :  matches , }}# [ doc =  " Returns the same as matches, but starts the search at the given" ]# [ doc =  " offset and stores the matches into the slice given." ]# [ doc =  "" ]# [ doc =  " The significance of the starting point is that it takes the surrounding" ]# [ doc =  " context into consideration. For example, the `\\\\A` anchor can only" ]# [ doc =  " match when `start == 0`." ]# [ doc =  "" ]# [ doc =  " `matches` must have a length that is at least the number of regexes" ]# [ doc =  " in this set." ]# [ doc =  "" ]# [ doc =  " This method returns true if and only if at least one member of" ]# [ doc =  " `matches` is true after executing the set against `text`." ]# [ doc ( hidden )] pub  fn  read_matches_at (&  self ,  matches : &  mut [ bool ],  text : $text_ty ,  start :  usize , )->  bool { self .  0 .  searcher ().  many_matches_at ( matches , $as_bytes ( text ),  start )}# [ doc =  " Returns the total number of regular expressions in this set." ] pub  fn  len (&  self )->  usize { self .  0 .  regex_strings ().  len ()}# [ doc =  " Returns `true` if this set contains no regular expressions." ] pub  fn  is_empty (&  self )->  bool { self .  0 .  regex_strings ().  is_empty ()}# [ doc =  " Returns the patterns that this set will match on." ]# [ doc =  "" ]# [ doc =  " This function can be used to determine the pattern for a match. The" ]# [ doc =  " slice returned has exactly as many patterns givens to this regex set," ]# [ doc =  " and the order of the slice is the same as the order of the patterns" ]# [ doc =  " provided to the set." ]# [ doc =  "" ]# [ doc =  " # Example" ]# [ doc =  "" ]# [ doc =  " ```rust" ]# [ doc =  " # use regex::RegexSet;" ]# [ doc =  " let set = RegexSet::new(&[" ]# [ doc =  "     r\\\"\\\\w+\\\"," ]# [ doc =  "     r\\\"\\\\d+\\\"," ]# [ doc =  "     r\\\"\\\\pL+\\\"," ]# [ doc =  "     r\\\"foo\\\"," ]# [ doc =  "     r\\\"bar\\\"," ]# [ doc =  "     r\\\"barfoo\\\"," ]# [ doc =  "     r\\\"foobar\\\"," ]# [ doc =  " ]).unwrap();" ]# [ doc =  " let matches: Vec<_> = set" ]# [ doc =  "     .matches(\\\"foobar\\\")" ]# [ doc =  "     .into_iter()" ]# [ doc =  "     .map(|match_idx| &set.patterns()[match_idx])" ]# [ doc =  "     .collect();" ]# [ doc =  " assert_eq!(matches, vec![r\\\"\\\\w+\\\", r\\\"\\\\pL+\\\", r\\\"foo\\\", r\\\"bar\\\", r\\\"foobar\\\"]);" ]# [ doc =  " ```" ] pub  fn  patterns (&  self )-> & [ String ]{ self .  0 .  regex_strings ()}}# [ doc =  " A set of matches returned by a regex set." ]# [ derive ( Clone ,  Debug )] pub  struct  SetMatches { matched_any :  bool ,  matches :  Vec <  bool >, } impl  SetMatches {# [ doc =  " Whether this set contains any matches." ] pub  fn  matched_any (&  self )->  bool { se