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| 1 ; RUN: llvm-as < %s | pnacl-freeze | pnacl-thaw | llvm-dis - | FileCheck %s |
| 2 ; RUN: llvm-as < %s | pnacl-freeze | pnacl-bcanalyzer -dump-records \ |
| 3 ; RUN: | FileCheck %s -check-prefix=BC |
| 4 |
| 5 ; Test that we generate appropriate bitcode values for global variables. |
| 6 |
| 7 ; Make sure that no struct/array/pointer types are generated by the |
| 8 ; global variables. |
| 9 ; BC: <TYPE_BLOCK_ID |
| 10 ; BC-NEXT: <NUMENTRY |
| 11 ; BC-NEXT: <VOID/> |
| 12 ; BC-NEXT: <FUNCTION |
| 13 ; BC-NEXT: </TYPE_BLOCK_ID> |
| 14 |
| 15 ; Make sure that the function declaration for function func (below) |
| 16 ; appears before the global variables block. |
| 17 ; BC: <FUNCTION op0=1 op1=0 op2=0 op3=0/> |
| 18 |
| 19 ; Make sure we begin the globals block after function declarations. |
| 20 ; BC-NEXT: <GLOBALVAR_BLOCK |
| 21 ; BC-NEXT: <COUNT op0=15/> |
| 22 |
| 23 @bytes = internal global [7 x i8] c"abcdefg" |
| 24 ; CHECK: @bytes = internal global [7 x i8] c"abcdefg" |
| 25 ; BC-NEXT: <VAR op0=0 op1=0/> |
| 26 ; BC-NEXT: <DATA op0=97 op1=98 op2=99 op3=100 op4=101 op5=102 op6=103/> |
| 27 |
| 28 |
| 29 @ptr_to_ptr = internal global i32 ptrtoint (i32* @ptr to i32) |
| 30 ; CHECK: @ptr_to_ptr = internal global i32 ptrtoint (i32* @ptr to i32) |
| 31 ; BC-NEXT: <VAR op0=0 op1=0/> |
| 32 ; BC-NEXT: <RELOC op0=5/> |
| 33 |
| 34 @ptr_to_func = internal global i32 ptrtoint (void ()* @func to i32) |
| 35 ; CHECK: @ptr_to_func = internal global i32 ptrtoint (void ()* @func to i32) |
| 36 ; BC-NEXT: <VAR op0=0 op1=0/> |
| 37 ; BC-NEXT: <RELOC op0=0/> |
| 38 |
| 39 @compound = internal global <{ [3 x i8], i32 }> <{ [3 x i8] c"foo", i32 ptrtoint
(void ()* @func to i32) }> |
| 40 ; CHECK: @compound = internal global <{ [3 x i8], i32 }> <{ [3 x i8] c"foo", i32
ptrtoint (void ()* @func to i32) }> |
| 41 ; BC-NEXT: <VAR op0=0 op1=0/> |
| 42 ; BC-NEXT: <COMPOUND op0=2/> |
| 43 ; BC-NEXT: <DATA op0=102 op1=111 op2=111/> |
| 44 ; BC-NEXT: <RELOC op0=0/> |
| 45 |
| 46 @ptr = internal global i32 ptrtoint ([7 x i8]* @bytes to i32) |
| 47 ; CHECK: @ptr = internal global i32 ptrtoint ([7 x i8]* @bytes to i32) |
| 48 ; BC-NEXT: <VAR op0=0 op1=0/> |
| 49 ; BC-NEXT: <RELOC op0=1/> |
| 50 |
| 51 @addend_ptr = internal global i32 add (i32 ptrtoint (i32* @ptr to i32), i32 1) |
| 52 ; CHECK: @addend_ptr = internal global i32 add (i32 ptrtoint (i32* @ptr to i32),
i32 1) |
| 53 ; BC-NEXT: <VAR op0=0 op1=0/> |
| 54 ; BC-NEXT: <RELOC op0=5 op1=1/> |
| 55 |
| 56 @addend_negative = internal global i32 add (i32 ptrtoint (i32* @ptr to i32), i32
-1) |
| 57 ; CHECK: @addend_negative = internal global i32 add (i32 ptrtoint (i32* @ptr to
i32), i32 -1) |
| 58 ; BC-NEXT: <VAR op0=0 op1=0/> |
| 59 ; BC-NEXT: <RELOC op0=5 op1=4294967295/> |
| 60 |
| 61 @addend_array1 = internal global i32 add (i32 ptrtoint ([7 x i8]* @bytes to i32)
, i32 1) |
| 62 ; CHECK: @addend_array1 = internal global i32 add (i32 ptrtoint ([7 x i8]* @byte
s to i32), i32 1) |
| 63 ; BC-NEXT: <VAR op0=0 op1=0/> |
| 64 ; BC-NEXT: <RELOC op0=1 op1=1/> |
| 65 |
| 66 @addend_array2 = internal global i32 add (i32 ptrtoint ([7 x i8]* @bytes to i32)
, i32 7) |
| 67 ; CHECK: @addend_array2 = internal global i32 add (i32 ptrtoint ([7 x i8]* @byte
s to i32), i32 7) |
| 68 ; BC-NEXT: <VAR op0=0 op1=0/> |
| 69 ; BC-NEXT: <RELOC op0=1 op1=7/> |
| 70 |
| 71 @addend_array3 = internal global i32 add (i32 ptrtoint ([7 x i8]* @bytes to i32)
, i32 9) |
| 72 ; CHECK: @addend_array3 = internal global i32 add (i32 ptrtoint ([7 x i8]* @byte
s to i32), i32 9) |
| 73 ; BC-NEXT: <VAR op0=0 op1=0/> |
| 74 ; BC-NEXT: <RELOC op0=1 op1=9/> |
| 75 |
| 76 @addend_struct1 = internal global i32 add (i32 ptrtoint (<{ [3 x i8], i32 }>* @c
ompound to i32), i32 1) |
| 77 ; CHECK: @addend_struct1 = internal global i32 add (i32 ptrtoint (<{ [3 x i8], i
32 }>* @compound to i32), i32 1) |
| 78 ; BC-NEXT: <VAR op0=0 op1=0/> |
| 79 ; BC-NEXT: <RELOC op0=4 op1=1/> |
| 80 |
| 81 @addend_struct2 = internal global i32 add (i32 ptrtoint (<{ [3 x i8], i32 }>* @c
ompound to i32), i32 4) |
| 82 ; CHECK: @addend_struct2 = internal global i32 add (i32 ptrtoint (<{ [3 x i8], i
32 }>* @compound to i32), i32 4) |
| 83 ; BC-NEXT: <VAR op0=0 op1=0/> |
| 84 ; BC-NEXT: <RELOC op0=4 op1=4/> |
| 85 |
| 86 @ptr_to_func_align = internal global i32 ptrtoint (void ()* @func to i32), align
8 |
| 87 ; CHECK: @ptr_to_func_align = internal global i32 ptrtoint (void ()* @func to i3
2), align 8 |
| 88 ; BC-NEXT: <VAR op0=4 op1=0/> |
| 89 ; BC-NEXT: <RELOC op0=0/> |
| 90 |
| 91 @char = internal constant [1 x i8] c"0" |
| 92 ; CHECK: @char = internal constant [1 x i8] c"0" |
| 93 ; BC-NEXT: <VAR op0=0 op1=1/> |
| 94 ; BC-NEXT: <DATA op0=48/> |
| 95 |
| 96 @short = internal constant [2 x i8] zeroinitializer |
| 97 ; CHECK: @short = internal constant [2 x i8] zeroinitializer |
| 98 ; BC-NEXT: <VAR op0=0 op1=1/> |
| 99 ; BC-NEXT: <ZEROFILL op0=2/> |
| 100 |
| 101 ; BC-NEXT: </GLOBALVAR_BLOCK> |
| 102 |
| 103 define void @func() { |
| 104 ret void |
| 105 } |
| 106 |
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