From 554fd8c5195424bdbcabf5de30fdc183aba391bd Mon Sep 17 00:00:00 2001 From: upstream source tree Date: Sun, 15 Mar 2015 20:14:05 -0400 Subject: obtained gcc-4.6.4.tar.bz2 from upstream website; verified gcc-4.6.4.tar.bz2.sig; imported gcc-4.6.4 source tree from verified upstream tarball. downloading a git-generated archive based on the 'upstream' tag should provide you with a source tree that is binary identical to the one extracted from the above tarball. if you have obtained the source via the command 'git clone', however, do note that line-endings of files in your working directory might differ from line-endings of the respective files in the upstream repository. --- gcc/testsuite/ada/acats/tests/c4/c450001.a | 434 +++++++++++++++++++++++++++++ 1 file changed, 434 insertions(+) create mode 100644 gcc/testsuite/ada/acats/tests/c4/c450001.a (limited to 'gcc/testsuite/ada/acats/tests/c4/c450001.a') diff --git a/gcc/testsuite/ada/acats/tests/c4/c450001.a b/gcc/testsuite/ada/acats/tests/c4/c450001.a new file mode 100644 index 000000000..e398ffc63 --- /dev/null +++ b/gcc/testsuite/ada/acats/tests/c4/c450001.a @@ -0,0 +1,434 @@ +-- C450001.A +-- +-- Grant of Unlimited Rights +-- +-- Under contracts F33600-87-D-0337, F33600-84-D-0280, MDA903-79-C-0687, +-- F08630-91-C-0015, and DCA100-97-D-0025, the U.S. Government obtained +-- unlimited rights in the software and documentation contained herein. +-- Unlimited rights are defined in DFAR 252.227-7013(a)(19). By making +-- this public release, the Government intends to confer upon all +-- recipients unlimited rights equal to those held by the Government. +-- These rights include rights to use, duplicate, release or disclose the +-- released technical data and computer software in whole or in part, in +-- any manner and for any purpose whatsoever, and to have or permit others +-- to do so. +-- +-- DISCLAIMER +-- +-- ALL MATERIALS OR INFORMATION HEREIN RELEASED, MADE AVAILABLE OR +-- DISCLOSED ARE AS IS. THE GOVERNMENT MAKES NO EXPRESS OR IMPLIED +-- WARRANTY AS TO ANY MATTER WHATSOEVER, INCLUDING THE CONDITIONS OF THE +-- SOFTWARE, DOCUMENTATION OR OTHER INFORMATION RELEASED, MADE AVAILABLE +-- OR DISCLOSED, OR THE OWNERSHIP, MERCHANTABILITY, OR FITNESS FOR A +-- PARTICULAR PURPOSE OF SAID MATERIAL. +--* +-- +-- OBJECTIVE: +-- Check that operations on modular types perform correctly. +-- +-- Check that loops over the range of a modular type do not over or +-- under run the loop. +-- +-- TEST DESCRIPTION: +-- Check logical and arithmetic operations. +-- (Attributes are tested elsewhere) +-- Checks to make sure that: +-- for X in Mod_Type loop +-- doesn't do something silly like infinite loop. +-- +-- +-- CHANGE HISTORY: +-- 20 SEP 95 SAIC Initial version +-- 20 FEB 96 SAIC Added underrun cases for 2.1 +-- +--! + +----------------------------------------------------------------- C450001_0 + +package C450001_0 is + + type Unsigned_8_Bit is mod 2**8; + + Shy_By_One : constant := 2**8-1; + + Heavy_By_Two : constant := 2**8+2; + + type Unsigned_Edge_8 is mod Shy_By_One; + + type Unsigned_Over_8 is mod Heavy_By_Two; + + procedure Loop_Check; + + -- embed some calls to Report.Ident_Int: + + function ID( U8B: Unsigned_8_Bit ) return Unsigned_8_Bit; + function ID( UEB: Unsigned_Edge_8 ) return Unsigned_Edge_8; + function ID( UOB: Unsigned_Over_8 ) return Unsigned_Over_8; + +end C450001_0; + +-- -- -- -- -- -- -- -- -- -- -- -- -- -- -- -- -- -- -- -- -- -- -- -- -- + +with Report; +package body C450001_0 is + + procedure Loop_Check is + Counter_Check : Natural := 0; + begin + for Ever in Unsigned_8_Bit loop + Counter_Check := Report.Ident_Int(Counter_Check) + 1; + if Counter_Check > 2**8 then + Report.Failed("Unsigned_8_Bit loop overrun"); + exit; + end if; + end loop; + + if Counter_Check < 2**8 then + Report.Failed("Unsigned_8_Bit loop underrun"); + end if; + + Counter_Check := 0; + + for Never in Unsigned_Edge_8 loop + Counter_Check := Report.Ident_Int(Counter_Check) + 1; + if Counter_Check > Shy_By_One then + Report.Failed("Unsigned_Edge_8 loop overrun"); + exit; + end if; + end loop; + + if Counter_Check < Shy_By_One then + Report.Failed("Unsigned_Edge_8 loop underrun"); + end if; + + Counter_Check := 0; + + for Getful in reverse Unsigned_Over_8 loop + Counter_Check := Report.Ident_Int(Counter_Check) + 1; + if Counter_Check > Heavy_By_Two then + Report.Failed("Unsigned_Over_8 loop overrun"); + exit; + end if; + end loop; + + if Counter_Check < Heavy_By_Two then + Report.Failed("Unsigned_Over_8 loop underrun"); + end if; + + end Loop_Check; + + function ID( U8B: Unsigned_8_Bit ) return Unsigned_8_Bit is + begin + return Unsigned_8_Bit(Report.Ident_Int(Integer(U8B))); + end ID; + + function ID( UEB: Unsigned_Edge_8 ) return Unsigned_Edge_8 is + begin + return Unsigned_Edge_8(Report.Ident_Int(Integer(UEB))); + end ID; + + function ID( UOB: Unsigned_Over_8 ) return Unsigned_Over_8 is + begin + return Unsigned_Over_8(Report.Ident_Int(Integer(UOB))); + end ID; + +end C450001_0; + +------------------------------------------------------------------- C450001 + +with Report; +with C450001_0; +with TCTouch; +procedure C450001 is + use C450001_0; + + BR : constant String := " produced the wrong result"; + + procedure Is_T(B:Boolean;S:String) renames TCTouch.Assert; + procedure Is_F(B:Boolean;S:String) renames TCTouch.Assert_Not; + + Whole_8_A, Whole_8_B, Whole_8_C : C450001_0.Unsigned_8_Bit; + + Short_8_A, Short_8_B, Short_8_C : C450001_0.Unsigned_Edge_8; + + Over_8_A, Over_8_B, Over_8_C : C450001_0.Unsigned_Over_8; + +begin -- Main test procedure. C450001 + + Report.Test ("C450001", "Check that operations on modular types " & + "perform correctly." ); + + + -- the cases for the whole 8 bit type are pretty simple + + Whole_8_A := 2#00000000#; + Whole_8_B := 2#11111111#; + + Is_T((ID(Whole_8_A) and ID(Whole_8_B)) = 2#00000000#,"8 bit and" & BR); + Is_T((ID(Whole_8_A) or ID(Whole_8_B)) = 2#11111111#,"8 bit or" & BR); + Is_T((ID(Whole_8_A) xor ID(Whole_8_B)) = 2#11111111#,"8 bit xor" & BR); + + Whole_8_A := 2#00001111#; + Whole_8_B := 2#11111111#; + + Is_T((ID(Whole_8_A) and ID(Whole_8_B)) = 2#00001111#,"8 bit and" & BR); + Is_T((ID(Whole_8_A) or ID(Whole_8_B)) = 2#11111111#,"8 bit or" & BR); + Is_T((ID(Whole_8_A) xor ID(Whole_8_B)) = 2#11110000#,"8 bit xor" & BR); + + Whole_8_A := 2#10101010#; + Whole_8_B := 2#11110000#; + + Is_T((ID(Whole_8_A) and ID(Whole_8_B)) = 2#10100000#,"8 bit and" & BR); + Is_T((ID(Whole_8_A) or ID(Whole_8_B)) = 2#11111010#,"8 bit or" & BR); + Is_T((ID(Whole_8_A) xor ID(Whole_8_B)) = 2#01011010#,"8 bit xor" & BR); + + -- the cases for the partial 8 bit type involve subtracting the modulus + -- from results that exceed the modulus. + -- hence, any of the following operations that exceed 2#11111110# must + -- have 2#11111111# subtracted from the result; i.e. where you would + -- expect to see 2#11111111# as in the above operations, the correct + -- result will be 2#00000000#. Note that 2#11111111# is not a legal + -- value of type C450001_0.Unsigned_Edge_8. + + Short_8_A := 2#11100101#; + Short_8_B := 2#00011111#; + + Is_T((ID(Short_8_A) and ID(Short_8_B)) = 2#00000101#,"8 short and 1" & BR); + Is_T((ID(Short_8_A) or ID(Short_8_B)) = 2#00000000#,"8 short or 1" & BR); + Is_T((ID(Short_8_A) xor ID(Short_8_B)) = 2#11111010#,"8 short xor 1" & BR); + + Short_8_A := 2#11110000#; + Short_8_B := 2#11111110#; + + Is_T((ID(Short_8_A) and ID(Short_8_B)) = 2#11110000#,"8 short and 2" & BR); + Is_T((ID(Short_8_A) or ID(Short_8_B)) = 2#11111110#,"8 short or 2" & BR); + Is_T((ID(Short_8_A) xor ID(Short_8_B)) = 2#00001110#,"8 short xor 2" & BR); + + Short_8_A := 2#10101010#; + Short_8_B := 2#01010101#; + + Is_T((ID(Short_8_A) and ID(Short_8_B)) = 2#00000000#,"8 short and 3" & BR); + Is_T((ID(Short_8_A) or ID(Short_8_B)) = 2#00000000#,"8 short or 3" & BR); + Is_T((ID(Short_8_A) xor ID(Short_8_B)) = 2#00000000#,"8 short xor 3" & BR); + + Short_8_A := 2#10101010#; + Short_8_B := 2#11111110#; + + Is_T((ID(Short_8_A) and ID(Short_8_B)) = 2#10101010#,"8 short and 4" & BR); + Is_T((ID(Short_8_A) or ID(Short_8_B)) = 2#11111110#,"8 short or 4" & BR); + Is_T((ID(Short_8_A) xor ID(Short_8_B)) = 2#01010100#,"8 short xor 4" & BR); + + -- the cases for the over 8 bit type have similar issues to the short type + -- however the bit patterns are a little different. The rule is to subtract + -- the modulus (258) from any resulting value equal or greater than the + -- modulus -- note that 258 = 2#100000010# + + Over_8_A := 2#100000000#; + Over_8_B := 2#011111111#; + + Is_T((ID(Over_8_A) and ID(Over_8_B)) = 2#000000000#,"8 over and" & BR); + Is_T((ID(Over_8_A) or ID(Over_8_B)) = 2#011111101#,"8 over or" & BR); + Is_T((ID(Over_8_A) xor ID(Over_8_B)) = 2#011111101#,"8 over xor" & BR); + + Over_8_A := 2#100000001#; + Over_8_B := 2#011111111#; + + Is_T((ID(Over_8_A) and ID(Over_8_B)) = 2#000000001#,"8 over and" & BR); + Is_T((ID(Over_8_A) or ID(Over_8_B)) = 2#011111101#,"8 over or" & BR); + Is_T((ID(Over_8_A) xor ID(Over_8_B)) = 2#011111100#,"8 over xor" & BR); + + + + Whole_8_A := 128; + Whole_8_B := 255; + + Is_T(ID(Whole_8_A) /= ID(Whole_8_B), "8 /=" & BR); + Is_F(ID(Whole_8_A) = ID(Whole_8_B), "8 =" & BR); + + Is_T(ID(Whole_8_A) <= ID(Whole_8_B), "8 <=" & BR); + Is_T(ID(Whole_8_A) < ID(Whole_8_B), "8 < " & BR); + + Is_F(ID(Whole_8_A) >= ID(Whole_8_B), "8 >=" & BR); + Is_T(ID(Whole_8_A) > ID(Whole_8_B + 7), "8 > " & BR); + + Is_T(ID(Whole_8_A) in ID(100)..ID(200), "8 in" & BR); + Is_F(ID(Whole_8_A) not in ID(100)..ID(200), "8 not in" & BR); + + Is_F(ID(Whole_8_A) in ID(200)..ID(250), "8 in" & BR); + Is_T(ID(Whole_8_A) not in ID(200)..ID(250), "8 not in" & BR); + + Short_8_A := 127; + Short_8_B := 254; + + Is_T(ID(Short_8_A) /= ID(Short_8_B), "short 8 /=" & BR); + Is_F(ID(Short_8_A) = ID(Short_8_B), "short 8 =" & BR); + + Is_T(ID(Short_8_A) <= ID(Short_8_B), "short 8 <=" & BR); + Is_T(ID(Short_8_A) < ID(Short_8_B), "short 8 < " & BR); + + Is_F(ID(Short_8_A) >= ID(Short_8_B), "short 8 >=" & BR); + Is_F(ID(Short_8_A) > ID(Short_8_B), "short 8 > " & BR); + + Is_T(ID(Short_8_A) in ID(100)..ID(200), "8 in" & BR); + Is_F(ID(Short_8_A) not in ID(100)..ID(200), "8 not in" & BR); + + Is_F(ID(Short_8_A) in ID(200)..ID(250), "8 in" & BR); + Is_T(ID(Short_8_A) not in ID(200)..ID(250), "8 not in" & BR); + + + Whole_8_A := 1; + Whole_8_B := 254; + Short_8_A := 1; + Short_8_B := 2; + + Whole_8_C := ID(Whole_8_A) + ID(Whole_8_B); + Is_T(Whole_8_C = C450001_0.Unsigned_8_Bit'Last, "8 binary + 1" & BR); + + Whole_8_C := Whole_8_C + ID(Whole_8_A); + Is_T(Whole_8_C = C450001_0.Unsigned_8_Bit'First, "8 binary + 2" & BR); + + Whole_8_C := ID(Whole_8_A) - ID(Whole_8_A); + Is_T(Whole_8_C = 0, "8 binary -" & BR); + + Whole_8_C := Whole_8_C - ID(Whole_8_A); + Is_T(Whole_8_C = C450001_0.Unsigned_8_Bit'Last, "8 binary + 3" & BR); + + Short_8_C := ID(Short_8_A) + ID(C450001_0.Unsigned_Edge_8'Last); + Is_T(Short_8_C = C450001_0.Unsigned_Edge_8'First, "Short binary + 1" & BR); + + Short_8_C := Short_8_A + ID(Short_8_A); + Is_T(Short_8_C = ID(Short_8_B), "Short binary + 2" & BR); + + Short_8_C := ID(Short_8_A) - ID(Short_8_A); + Is_T(Short_8_C = 0, "Short 8 binary -" & BR); + + Short_8_C := Short_8_C - ID(Short_8_A); + Is_T(Short_8_C = C450001_0.Unsigned_Edge_8'Last, "Short binary + 3" & BR); + + + Whole_8_C := ( + ID(Whole_8_B) ); + Is_T(Whole_8_C = 254, "8 unary +" & BR); + + Whole_8_C := ( - ID(Whole_8_A) ); + Is_T(Whole_8_C = C450001_0.Unsigned_8_Bit'Last, "8 unary -" & BR); + + Whole_8_C := ( - ID(0) ); + Is_T(Whole_8_C = 0, "8 unary -0" & BR); + + Short_8_C := ( + ID(C450001_0.Unsigned_Edge_8'Last) ); + Is_T(Short_8_C = 254, "Short 8 unary +" & BR); + + Short_8_C := ( - ID(Short_8_A) ); + Is_T(Short_8_C = C450001_0.Unsigned_Edge_8'Last, "Short 8 unary -" & BR); + + + Whole_8_A := 20; + Whole_8_B := 255; + + Whole_8_C := ID(Whole_8_A) * ID(Whole_8_B); -- 5100 = 19*256 + 236 (256-20) + Is_T(Whole_8_C = 236, "8 *" & BR); + + Short_8_A := 9; + Short_8_B := 254; + + Short_8_C := ID(Short_8_A) * ID(Short_8_B); -- 2286 = 8*255 + 246 (255-9) + Is_T(Short_8_C = 246, "short 8 *" & BR); + + Over_8_A := 12; + Over_8_B := 86; + + Over_8_C := ID(Over_8_A) * ID(Over_8_B); -- 1032 = 4*258 + 0 + Is_T(Over_8_C = 0, "over 8 *" & BR); + + + Whole_8_A := 255; + Whole_8_B := 4; + + Whole_8_C := ID(Whole_8_A) / ID(Whole_8_B); + Is_T(Whole_8_C = 63, "8 /" & BR); + + Short_8_A := 253; + Short_8_B := 127; + + Short_8_C := ID(Short_8_A) / ID(Short_8_B); + Is_T(Short_8_C = 1, "short 8 / 1" & BR); + + Short_8_C := ID(Short_8_A) / ID(126); + Is_T(Short_8_C = 2, "short 8 / 2" & BR); + + + Whole_8_A := 255; + Whole_8_B := 254; + + Whole_8_C := ID(Whole_8_A) rem ID(Whole_8_B); + Is_T(Whole_8_C = 1, "8 rem" & BR); + + Short_8_A := 222; + Short_8_B := 111; + + Short_8_C := ID(Short_8_A) rem ID(Short_8_B); + Is_T(Short_8_C = 0, "short 8 rem" & BR); + + + Whole_8_A := 99; + Whole_8_B := 9; + + Whole_8_C := ID(Whole_8_A) mod ID(Whole_8_B); + Is_T(Whole_8_C = 0, "8 mod" & BR); + + Short_8_A := 254; + Short_8_B := 250; + + Short_8_C := ID(Short_8_A) mod ID(Short_8_B); + Is_T(Short_8_C = 4, "short 8 mod" & BR); + + + Whole_8_A := 99; + + Whole_8_C := abs Whole_8_A; + Is_T(Whole_8_C = ID(99), "8 abs" & BR); + + Short_8_A := 254; + + Short_8_C := ID( abs Short_8_A ); + Is_T(Short_8_C = 254, "short 8 abs" & BR); + + + Whole_8_B := 2#00001111#; + + Whole_8_C := not Whole_8_B; + Is_T(Whole_8_C = ID(2#11110000#), "8 not" & BR); + + Short_8_B := 2#00001111#; -- 15 + + Short_8_C := ID( not Short_8_B ); -- 254 - 15 + Is_T(Short_8_C = 2#11101111#, "short 8 not" & BR); -- 239 + + + Whole_8_A := 2; + + Whole_8_C := Whole_8_A ** 7; + Is_T(Whole_8_C = ID(128), "2 ** 7, whole 8" & BR); + + Whole_8_C := Whole_8_A ** 9; + Is_T(Whole_8_C = ID(0), "2 ** 9, whole 8" & BR); + + Short_8_A := 4; + + Short_8_C := ID( Short_8_A ) ** 4; + Is_T(Short_8_C = 1, "4 ** 4, short" & BR); + + Over_8_A := 4; + + Over_8_C := ID( Over_8_A ) ** 4; + Is_T(Over_8_C = 256, "4 ** 4, over" & BR); + + Over_8_C := ID( Over_8_A ) ** 5; -- 1024 = 3*258 + 250 + Is_T(Over_8_C = 250, "4 ** 5, over" & BR); + + + C450001_0.Loop_Check; + + Report.Result; + +end C450001; -- cgit v1.2.3