[gcc.git] / gcc / ada / libgnat / a-ztfiio__128.adb

------------------------------------------------------------------------------
--                                                                          --
--                         GNAT RUN-TIME COMPONENTS                         --
--                                                                          --
--        A D A . W I D E _ W I D E _ T E X T _ I O . F I X E D _ I O       --
--                                                                          --
--                                 B o d y                                  --
--                                                                          --
--            Copyright (C) 2020, Free Software Foundation, Inc.            --
--                                                                          --
-- GNAT is free software;  you can  redistribute it  and/or modify it under --
-- terms of the  GNU General Public License as published  by the Free Soft- --
-- ware  Foundation;  either version 3,  or (at your option) any later ver- --
-- sion.  GNAT is distributed in the hope that it will be useful, but WITH- --
-- OUT ANY WARRANTY;  without even the  implied warranty of MERCHANTABILITY --
-- or FITNESS FOR A PARTICULAR PURPOSE.                                     --
--                                                                          --
-- As a special exception under Section 7 of GPL version 3, you are granted --
-- additional permissions described in the GCC Runtime Library Exception,   --
-- version 3.1, as published by the Free Software Foundation.               --
--                                                                          --
-- You should have received a copy of the GNU General Public License and    --
-- a copy of the GCC Runtime Library Exception along with this program;     --
-- see the files COPYING3 and COPYING.RUNTIME respectively.  If not, see    --
-- <http://www.gnu.org/licenses/>.                                          --
--                                                                          --
-- GNAT was originally developed  by the GNAT team at  New York University. --
-- Extensive contributions were provided by Ada Core Technologies Inc.      --
--                                                                          --
------------------------------------------------------------------------------

with Interfaces;
with Ada.Wide_Wide_Text_IO.Fixed_Aux;
with Ada.Wide_Wide_Text_IO.Float_Aux;
with System.Img_Fixed_32;  use System.Img_Fixed_32;
with System.Img_Fixed_64;  use System.Img_Fixed_64;
with System.Img_Fixed_128; use System.Img_Fixed_128;
with System.Val_Fixed_32;  use System.Val_Fixed_32;
with System.Val_Fixed_64;  use System.Val_Fixed_64;
with System.Val_Fixed_128; use System.Val_Fixed_128;
with System.WCh_Con;       use System.WCh_Con;
with System.WCh_WtS;       use System.WCh_WtS;

package body Ada.Wide_Wide_Text_IO.Fixed_IO is

   --  Note: we still use the floating-point I/O routines for types whose small
   --  is not the ratio of two sufficiently small integers. This will result in
   --  inaccuracies for fixed point types that require more precision than is
   --  available in Long_Long_Float.

   subtype Int32  is Interfaces.Integer_32;  use type Int32;
   subtype Int64  is Interfaces.Integer_64;  use type Int64;
   subtype Int128 is Interfaces.Integer_128; use type Int128;

   package Aux32 is new
     Ada.Wide_Wide_Text_IO.Fixed_Aux (Int32, Scan_Fixed32, Set_Image_Fixed32);

   package Aux64 is new
     Ada.Wide_Wide_Text_IO.Fixed_Aux (Int64, Scan_Fixed64, Set_Image_Fixed64);

   package Aux128 is new
     Ada.Wide_Wide_Text_IO.Fixed_Aux
      (Int128, Scan_Fixed128, Set_Image_Fixed128);

   --  Throughout this generic body, we distinguish between the case where type
   --  Int32 is OK, where type Int64 is OK and where type Int128 is OK. These
   --  boolean constants are used to test for this, such that only code for the
   --  relevant case is included in the instance; that's why the computation of
   --  their value must be fully static (although it is not a static expression
   --  in the RM sense).

   OK_Get_32 : constant Boolean :=
     Num'Object_Size <= 32
       and then
         ((Num'Small_Numerator = 1 and then Num'Small_Denominator <= 2**31)
           or else
          (Num'Small_Denominator = 1 and then Num'Small_Numerator <= 2**31)
           or else
          (Num'Small_Numerator <= 2**27
            and then Num'Small_Denominator <= 2**27));
   --  These conditions are derived from the prerequisites of System.Value_F

   OK_Put_32 : constant Boolean :=
     Num'Object_Size <= 32
       and then
         ((Num'Small_Numerator = 1 and then Num'Small_Denominator <= 2**31)
           or else
          (Num'Small_Denominator = 1 and then Num'Small_Numerator <= 2**31)
           or else
          (Num'Small_Numerator < Num'Small_Denominator
            and then Num'Small_Denominator <= 2**27)
           or else
          (Num'Small_Denominator < Num'Small_Numerator
            and then Num'Small_Numerator <= 2**25));
   --  These conditions are derived from the prerequisites of System.Image_F

   OK_Get_64 : constant Boolean :=
     Num'Object_Size <= 64
       and then
         ((Num'Small_Numerator = 1 and then Num'Small_Denominator <= 2**63)
           or else
          (Num'Small_Denominator = 1 and then Num'Small_Numerator <= 2**63)
           or else
          (Num'Small_Numerator <= 2**59
            and then Num'Small_Denominator <= 2**59));
   --  These conditions are derived from the prerequisites of System.Value_F

   OK_Put_64 : constant Boolean :=
     Num'Object_Size <= 64
       and then
         ((Num'Small_Numerator = 1 and then Num'Small_Denominator <= 2**63)
           or else
          (Num'Small_Denominator = 1 and then Num'Small_Numerator <= 2**63)
           or else
          (Num'Small_Numerator < Num'Small_Denominator
            and then Num'Small_Denominator <= 2**59)
           or else
          (Num'Small_Denominator < Num'Small_Numerator
            and then Num'Small_Numerator <= 2**53));
   --  These conditions are derived from the prerequisites of System.Image_F

   OK_Get_128 : constant Boolean :=
     Num'Object_Size <= 128
       and then
         ((Num'Small_Numerator = 1 and then Num'Small_Denominator <= 2**127)
           or else
          (Num'Small_Denominator = 1 and then Num'Small_Numerator <= 2**127)
           or else
          (Num'Small_Numerator <= 2**123
            and then Num'Small_Denominator <= 2**123));
   --  These conditions are derived from the prerequisites of System.Value_F

   OK_Put_128 : constant Boolean :=
     Num'Object_Size <= 128
       and then
         ((Num'Small_Numerator = 1 and then Num'Small_Denominator <= 2**127)
           or else
          (Num'Small_Denominator = 1 and then Num'Small_Numerator <= 2**127)
           or else
          (Num'Small_Numerator < Num'Small_Denominator
            and then Num'Small_Denominator <= 2**123)
           or else
          (Num'Small_Denominator < Num'Small_Numerator
            and then Num'Small_Numerator <= 2**122));
   --  These conditions are derived from the prerequisites of System.Image_F

   E : constant Natural :=
         127 - 64 * Boolean'Pos (OK_Put_64) - 32 * Boolean'Pos (OK_Put_32);
   --  T'Size - 1 for the selected Int{32,64,128}

   F0 : constant Natural := 0;
   F1 : constant Natural :=
          F0 + 38 * Boolean'Pos (2.0**E * Num'Small * 10.0**(-F0) >= 1.0E+38);
   F2 : constant Natural :=
          F1 + 19 * Boolean'Pos (2.0**E * Num'Small * 10.0**(-F1) >= 1.0E+19);
   F3 : constant Natural :=
          F2 +  9 * Boolean'Pos (2.0**E * Num'Small * 10.0**(-F2) >= 1.0E+9);
   F4 : constant Natural :=
          F3 +  5 * Boolean'Pos (2.0**E * Num'Small * 10.0**(-F3) >= 1.0E+5);
   F5 : constant Natural :=
          F4 +  3 * Boolean'Pos (2.0**E * Num'Small * 10.0**(-F4) >= 1.0E+3);
   F6 : constant Natural :=
          F5 +  2 * Boolean'Pos (2.0**E * Num'Small * 10.0**(-F5) >= 1.0E+2);
   F7 : constant Natural :=
          F6 +  1 * Boolean'Pos (2.0**E * Num'Small * 10.0**(-F6) >= 1.0E+1);
   --  Binary search for the number of digits - 1 before the decimal point of
   --  the product 2.0**E * Num'Small.

   For0 : constant Natural := 2 + F7;
   --  Fore value for the fixed point type whose mantissa is Int{32,64,128} and
   --  whose small is Num'Small.

   ---------
   -- Get --
   ---------

   procedure Get
     (File  : File_Type;
      Item  : out Num;
      Width : Field := 0)
   is
      pragma Unsuppress (Range_Check);

   begin
      if OK_Get_32 then
         Item := Num'Fixed_Value
                   (Aux32.Get (File, Width,
                               -Num'Small_Numerator,
                               -Num'Small_Denominator));
      elsif OK_Get_64 then
         Item := Num'Fixed_Value
                   (Aux64.Get (File, Width,
                               -Num'Small_Numerator,
                               -Num'Small_Denominator));
      elsif OK_Get_128 then
         Item := Num'Fixed_Value
                   (Aux128.Get (File, Width,
                                -Num'Small_Numerator,
                                -Num'Small_Denominator));
      else
         Float_Aux.Get (File, Long_Long_Float (Item), Width);
      end if;

   exception
      when Constraint_Error => raise Data_Error;
   end Get;

   procedure Get
     (Item  : out Num;
      Width : Field := 0)
   is
   begin
      Get (Current_Input, Item, Width);
   end Get;

   procedure Get
     (From : Wide_Wide_String;
      Item : out Num;
      Last : out Positive)
   is
      pragma Unsuppress (Range_Check);

      S : constant String := Wide_Wide_String_To_String (From, WCEM_Upper);
      --  String on which we do the actual conversion. Note that the method
      --  used for wide character encoding is irrelevant, since if there is
      --  a character outside the Standard.Character range then the call to
      --  Aux.Gets will raise Data_Error in any case.

   begin
      if OK_Get_32 then
         Item := Num'Fixed_Value
                   (Aux32.Gets (S, Last,
                                -Num'Small_Numerator,
                                -Num'Small_Denominator));
      elsif OK_Get_64 then
         Item := Num'Fixed_Value
                   (Aux64.Gets (S, Last,
                                -Num'Small_Numerator,
                                -Num'Small_Denominator));
      elsif OK_Get_128 then
         Item := Num'Fixed_Value
                   (Aux128.Gets (S, Last,
                                 -Num'Small_Numerator,
                                 -Num'Small_Denominator));
      else
         Float_Aux.Gets (S, Long_Long_Float (Item), Last);
      end if;

   exception
      when Constraint_Error => raise Data_Error;
   end Get;

   ---------
   -- Put --
   ---------

   procedure Put
     (File : File_Type;
      Item : Num;
      Fore : Field := Default_Fore;
      Aft  : Field := Default_Aft;
      Exp  : Field := Default_Exp)
   is
   begin
      if OK_Put_32 then
         Aux32.Put (File, Int32'Integer_Value (Item), Fore, Aft, Exp,
                    -Num'Small_Numerator, -Num'Small_Denominator,
                    For0, Num'Aft);
      elsif OK_Put_64 then
         Aux64.Put (File, Int64'Integer_Value (Item), Fore, Aft, Exp,
                    -Num'Small_Numerator, -Num'Small_Denominator,
                    For0, Num'Aft);
      elsif OK_Put_128 then
         Aux128.Put (File, Int128'Integer_Value (Item), Fore, Aft, Exp,
                     -Num'Small_Numerator, -Num'Small_Denominator,
                     For0, Num'Aft);
      else
         Float_Aux.Put (File, Long_Long_Float (Item), Fore, Aft, Exp);
      end if;
   end Put;

   procedure Put
     (Item : Num;
      Fore : Field := Default_Fore;
      Aft  : Field := Default_Aft;
      Exp  : Field := Default_Exp)
   is
   begin
      Put (Current_Output, Item, Fore, Aft, Exp);
   end Put;

   procedure Put
     (To   : out Wide_Wide_String;
      Item : Num;
      Aft  : Field := Default_Aft;
      Exp  : Field := Default_Exp)
   is
      S : String (To'First .. To'Last);

   begin
      if OK_Put_32 then
         Aux32.Puts (S, Int32'Integer_Value (Item), Aft, Exp,
                     -Num'Small_Numerator, -Num'Small_Denominator,
                     For0, Num'Aft);
      elsif OK_Put_64 then
         Aux64.Puts (S, Int64'Integer_Value (Item), Aft, Exp,
                     -Num'Small_Numerator, -Num'Small_Denominator,
                     For0, Num'Aft);
      elsif OK_Put_128 then
         Aux128.Puts (S, Int128'Integer_Value (Item), Aft, Exp,
                      -Num'Small_Numerator, -Num'Small_Denominator,
                      For0, Num'Aft);
      else
         Float_Aux.Puts (S, Long_Long_Float (Item), Aft, Exp);
      end if;

      for J in S'Range loop
         To (J) := Wide_Wide_Character'Val (Character'Pos (S (J)));
      end loop;
   end Put;

end Ada.Wide_Wide_Text_IO.Fixed_IO;
Commit	Line	Data
8d87bb8f EB	1	------------------------------------------------------------------------------
	2	-- --
	3	-- GNAT RUN-TIME COMPONENTS --
	4	-- --
	5	-- A D A . W I D E _ W I D E _ T E X T _ I O . F I X E D _ I O --
	6	-- --
	7	-- B o d y --
	8	-- --
	9	-- Copyright (C) 2020, Free Software Foundation, Inc. --
	10	-- --
	11	-- GNAT is free software; you can redistribute it and/or modify it under --
	12	-- terms of the GNU General Public License as published by the Free Soft- --
	13	-- ware Foundation; either version 3, or (at your option) any later ver- --
	14	-- sion. GNAT is distributed in the hope that it will be useful, but WITH- --
	15	-- OUT ANY WARRANTY; without even the implied warranty of MERCHANTABILITY --
	16	-- or FITNESS FOR A PARTICULAR PURPOSE. --
	17	-- --
	18	-- As a special exception under Section 7 of GPL version 3, you are granted --
	19	-- additional permissions described in the GCC Runtime Library Exception, --
	20	-- version 3.1, as published by the Free Software Foundation. --
	21	-- --
	22	-- You should have received a copy of the GNU General Public License and --
	23	-- a copy of the GCC Runtime Library Exception along with this program; --
	24	-- see the files COPYING3 and COPYING.RUNTIME respectively. If not, see --
	25	-- <http://www.gnu.org/licenses/>. --
	26	-- --
	27	-- GNAT was originally developed by the GNAT team at New York University. --
	28	-- Extensive contributions were provided by Ada Core Technologies Inc. --
	29	-- --
	30	------------------------------------------------------------------------------
	31
	32	with Interfaces;
	33	with Ada.Wide_Wide_Text_IO.Fixed_Aux;
	34	with Ada.Wide_Wide_Text_IO.Float_Aux;
	35	with System.Img_Fixed_32; use System.Img_Fixed_32;
	36	with System.Img_Fixed_64; use System.Img_Fixed_64;
	37	with System.Img_Fixed_128; use System.Img_Fixed_128;
	38	with System.Val_Fixed_32; use System.Val_Fixed_32;
	39	with System.Val_Fixed_64; use System.Val_Fixed_64;
	40	with System.Val_Fixed_128; use System.Val_Fixed_128;
	41	with System.WCh_Con; use System.WCh_Con;
	42	with System.WCh_WtS; use System.WCh_WtS;
	43
	44	package body Ada.Wide_Wide_Text_IO.Fixed_IO is
	45
	46	-- Note: we still use the floating-point I/O routines for types whose small
2bf891fa EB	47	-- is not the ratio of two sufficiently small integers. This will result in
	48	-- inaccuracies for fixed point types that require more precision than is
	49	-- available in Long_Long_Float.
8d87bb8f	50
2bf891fa EB	51	subtype Int32 is Interfaces.Integer_32; use type Int32;
	52	subtype Int64 is Interfaces.Integer_64; use type Int64;
	53	subtype Int128 is Interfaces.Integer_128; use type Int128;
8d87bb8f EB	54
	55	package Aux32 is new
	56	Ada.Wide_Wide_Text_IO.Fixed_Aux (Int32, Scan_Fixed32, Set_Image_Fixed32);
	57
	58	package Aux64 is new
	59	Ada.Wide_Wide_Text_IO.Fixed_Aux (Int64, Scan_Fixed64, Set_Image_Fixed64);
	60
	61	package Aux128 is new
	62	Ada.Wide_Wide_Text_IO.Fixed_Aux
	63	(Int128, Scan_Fixed128, Set_Image_Fixed128);
	64
2bf891fa EB	65	-- Throughout this generic body, we distinguish between the case where type
	66	-- Int32 is OK, where type Int64 is OK and where type Int128 is OK. These
	67	-- boolean constants are used to test for this, such that only code for the
	68	-- relevant case is included in the instance; that's why the computation of
	69	-- their value must be fully static (although it is not a static expression
	70	-- in the RM sense).
	71
	72	OK_Get_32 : constant Boolean :=
	73	Num'Object_Size <= 32
	74	and then
	75	((Num'Small_Numerator = 1 and then Num'Small_Denominator <= 2**31)
	76	or else
	77	(Num'Small_Denominator = 1 and then Num'Small_Numerator <= 2**31)
	78	or else
	79	(Num'Small_Numerator <= 2**27
	80	and then Num'Small_Denominator <= 2**27));
	81	-- These conditions are derived from the prerequisites of System.Value_F
	82
	83	OK_Put_32 : constant Boolean :=
	84	Num'Object_Size <= 32
	85	and then
	86	((Num'Small_Numerator = 1 and then Num'Small_Denominator <= 2**31)
	87	or else
	88	(Num'Small_Denominator = 1 and then Num'Small_Numerator <= 2**31)
	89	or else
	90	(Num'Small_Numerator < Num'Small_Denominator
	91	and then Num'Small_Denominator <= 2**27)
	92	or else
	93	(Num'Small_Denominator < Num'Small_Numerator
	94	and then Num'Small_Numerator <= 2**25));
	95	-- These conditions are derived from the prerequisites of System.Image_F
	96
	97	OK_Get_64 : constant Boolean :=
	98	Num'Object_Size <= 64
	99	and then
	100	((Num'Small_Numerator = 1 and then Num'Small_Denominator <= 2**63)
	101	or else
	102	(Num'Small_Denominator = 1 and then Num'Small_Numerator <= 2**63)
	103	or else
	104	(Num'Small_Numerator <= 2**59
	105	and then Num'Small_Denominator <= 2**59));
	106	-- These conditions are derived from the prerequisites of System.Value_F
	107
	108	OK_Put_64 : constant Boolean :=
	109	Num'Object_Size <= 64
	110	and then
	111	((Num'Small_Numerator = 1 and then Num'Small_Denominator <= 2**63)
	112	or else
	113	(Num'Small_Denominator = 1 and then Num'Small_Numerator <= 2**63)
	114	or else
	115	(Num'Small_Numerator < Num'Small_Denominator
	116	and then Num'Small_Denominator <= 2**59)
	117	or else
	118	(Num'Small_Denominator < Num'Small_Numerator
	119	and then Num'Small_Numerator <= 2**53));
	120	-- These conditions are derived from the prerequisites of System.Image_F
	121
	122	OK_Get_128 : constant Boolean :=
	123	Num'Object_Size <= 128
	124	and then
	125	((Num'Small_Numerator = 1 and then Num'Small_Denominator <= 2**127)
	126	or else
	127	(Num'Small_Denominator = 1 and then Num'Small_Numerator <= 2**127)
	128	or else
129	(Num'Small_Numerator <= 2**123
130	and then Num'Small_Denominator <= 2**123));
131	-- These conditions are derived from the prerequisites of System.Value_F
132
133	OK_Put_128 : constant Boolean :=
134	Num'Object_Size <= 128
135	and then
136	((Num'Small_Numerator = 1 and then Num'Small_Denominator <= 2**127)
137	or else
138	(Num'Small_Denominator = 1 and then Num'Small_Numerator <= 2**127)
139	or else
140	(Num'Small_Numerator < Num'Small_Denominator
141	and then Num'Small_Denominator <= 2**123)
142	or else
143	(Num'Small_Denominator < Num'Small_Numerator
144	and then Num'Small_Numerator <= 2**122));
145	-- These conditions are derived from the prerequisites of System.Image_F
8d87bb8f EB	146
8d87bb8f EB	147	E : constant Natural :=
2bf891fa	148	127 - 64 * Boolean'Pos (OK_Put_64) - 32 * Boolean'Pos (OK_Put_32);
8d87bb8f EB	149	-- T'Size - 1 for the selected Int{32,64,128}
	150
	151	F0 : constant Natural := 0;
	152	F1 : constant Natural :=
	153	F0 + 38 * Boolean'Pos (2.0*E Num'Small * 10.0**(-F0) >= 1.0E+38);
	154	F2 : constant Natural :=
	155	F1 + 19 * Boolean'Pos (2.0*E Num'Small * 10.0**(-F1) >= 1.0E+19);
	156	F3 : constant Natural :=
	157	F2 + 9 * Boolean'Pos (2.0*E Num'Small * 10.0**(-F2) >= 1.0E+9);
	158	F4 : constant Natural :=
	159	F3 + 5 * Boolean'Pos (2.0*E Num'Small * 10.0**(-F3) >= 1.0E+5);
	160	F5 : constant Natural :=
	161	F4 + 3 * Boolean'Pos (2.0*E Num'Small * 10.0**(-F4) >= 1.0E+3);
	162	F6 : constant Natural :=
	163	F5 + 2 * Boolean'Pos (2.0*E Num'Small * 10.0**(-F5) >= 1.0E+2);
	164	F7 : constant Natural :=
	165	F6 + 1 * Boolean'Pos (2.0*E Num'Small * 10.0**(-F6) >= 1.0E+1);
	166	-- Binary search for the number of digits - 1 before the decimal point of
	167	-- the product 2.0*E Num'Small.
	168
	169	For0 : constant Natural := 2 + F7;
	170	-- Fore value for the fixed point type whose mantissa is Int{32,64,128} and
	171	-- whose small is Num'Small.
	172
	173	---------
	174	-- Get --
	175	---------
	176
	177	procedure Get
	178	(File : File_Type;
	179	Item : out Num;
	180	Width : Field := 0)
	181	is
	182	pragma Unsuppress (Range_Check);
	183
	184	begin
2bf891fa	185	if OK_Get_32 then
8d87bb8f	186	Item := Num'Fixed_Value
2bf891fa EB	187	(Aux32.Get (File, Width,
	188	-Num'Small_Numerator,
	189	-Num'Small_Denominator));
	190	elsif OK_Get_64 then
8d87bb8f EB	191	Item := Num'Fixed_Value
8d87bb8f EB	192	(Aux64.Get (File, Width,
2bf891fa EB	193	-Num'Small_Numerator,
	194	-Num'Small_Denominator));
	195	elsif OK_Get_128 then
8d87bb8f	196	Item := Num'Fixed_Value
2bf891fa EB	197	(Aux128.Get (File, Width,
	198	-Num'Small_Numerator,
	199	-Num'Small_Denominator));
	200	else
	201	Float_Aux.Get (File, Long_Long_Float (Item), Width);
8d87bb8f EB	202	end if;
	203
	204	exception
	205	when Constraint_Error => raise Data_Error;
	206	end Get;
	207
	208	procedure Get
	209	(Item : out Num;
	210	Width : Field := 0)
	211	is
	212	begin
	213	Get (Current_Input, Item, Width);
	214	end Get;
	215
	216	procedure Get
	217	(From : Wide_Wide_String;
	218	Item : out Num;
	219	Last : out Positive)
	220	is
	221	pragma Unsuppress (Range_Check);
	222
	223	S : constant String := Wide_Wide_String_To_String (From, WCEM_Upper);
	224	-- String on which we do the actual conversion. Note that the method
	225	-- used for wide character encoding is irrelevant, since if there is
	226	-- a character outside the Standard.Character range then the call to
	227	-- Aux.Gets will raise Data_Error in any case.
	228
	229	begin
2bf891fa	230	if OK_Get_32 then
8d87bb8f	231	Item := Num'Fixed_Value
2bf891fa EB	232	(Aux32.Gets (S, Last,
	233	-Num'Small_Numerator,
	234	-Num'Small_Denominator));
	235	elsif OK_Get_64 then
8d87bb8f EB	236	Item := Num'Fixed_Value
8d87bb8f EB	237	(Aux64.Gets (S, Last,
2bf891fa EB	238	-Num'Small_Numerator,
	239	-Num'Small_Denominator));
	240	elsif OK_Get_128 then
8d87bb8f	241	Item := Num'Fixed_Value
2bf891fa EB	242	(Aux128.Gets (S, Last,
	243	-Num'Small_Numerator,
	244	-Num'Small_Denominator));
	245	else
	246	Float_Aux.Gets (S, Long_Long_Float (Item), Last);
8d87bb8f EB	247	end if;
	248
	249	exception
	250	when Constraint_Error => raise Data_Error;
	251	end Get;
	252
	253	---------
	254	-- Put --
	255	---------
	256
	257	procedure Put
	258	(File : File_Type;
	259	Item : Num;
	260	Fore : Field := Default_Fore;
	261	Aft : Field := Default_Aft;
	262	Exp : Field := Default_Exp)
	263	is
	264	begin
2bf891fa EB	265	if OK_Put_32 then
	266	Aux32.Put (File, Int32'Integer_Value (Item), Fore, Aft, Exp,
	267	-Num'Small_Numerator, -Num'Small_Denominator,
	268	For0, Num'Aft);
	269	elsif OK_Put_64 then
8d87bb8f	270	Aux64.Put (File, Int64'Integer_Value (Item), Fore, Aft, Exp,
2bf891fa	271	-Num'Small_Numerator, -Num'Small_Denominator,
8d87bb8f	272	For0, Num'Aft);
2bf891fa EB	273	elsif OK_Put_128 then
	274	Aux128.Put (File, Int128'Integer_Value (Item), Fore, Aft, Exp,
	275	-Num'Small_Numerator, -Num'Small_Denominator,
	276	For0, Num'Aft);
8d87bb8f	277	else
2bf891fa	278	Float_Aux.Put (File, Long_Long_Float (Item), Fore, Aft, Exp);
8d87bb8f EB	279	end if;
	280	end Put;
	281
	282	procedure Put
	283	(Item : Num;
	284	Fore : Field := Default_Fore;
	285	Aft : Field := Default_Aft;
	286	Exp : Field := Default_Exp)
	287	is
	288	begin
	289	Put (Current_Output, Item, Fore, Aft, Exp);
	290	end Put;
	291
	292	procedure Put
	293	(To : out Wide_Wide_String;
	294	Item : Num;
	295	Aft : Field := Default_Aft;
	296	Exp : Field := Default_Exp)
	297	is
	298	S : String (To'First .. To'Last);
	299
	300	begin
2bf891fa EB	301	if OK_Put_32 then
	302	Aux32.Puts (S, Int32'Integer_Value (Item), Aft, Exp,
	303	-Num'Small_Numerator, -Num'Small_Denominator,
	304	For0, Num'Aft);
	305	elsif OK_Put_64 then
8d87bb8f	306	Aux64.Puts (S, Int64'Integer_Value (Item), Aft, Exp,
2bf891fa	307	-Num'Small_Numerator, -Num'Small_Denominator,
8d87bb8f	308	For0, Num'Aft);
2bf891fa EB	309	elsif OK_Put_128 then
	310	Aux128.Puts (S, Int128'Integer_Value (Item), Aft, Exp,
	311	-Num'Small_Numerator, -Num'Small_Denominator,
	312	For0, Num'Aft);
8d87bb8f	313	else
2bf891fa	314	Float_Aux.Puts (S, Long_Long_Float (Item), Aft, Exp);
8d87bb8f EB	315	end if;
	316
	317	for J in S'Range loop
	318	To (J) := Wide_Wide_Character'Val (Character'Pos (S (J)));
	319	end loop;
	320	end Put;
	321
	322	end Ada.Wide_Wide_Text_IO.Fixed_IO;