Justin Bogner c4898f3f22
[HLSL][DirectX] Use a padding type for HLSL buffers. (#167404)
This change drops the use of the "Layout" type and instead uses explicit
padding throughout the compiler to represent types in HLSL buffers.

There are a few parts to this, though it's difficult to split them up as
they're very interdependent:

1. Refactor HLSLBufferLayoutBuilder to allow us to calculate the padding
of arbitrary types.
2. Teach Clang CodeGen to use HLSL specific paths for cbuffers when
generating aggregate copies, array accesses, and structure accesses.
3. Simplify DXILCBufferAccesses such that it directly replaces accesses
with dx.resource.getpointer rather than recalculating the layout.
4. Basic infrastructure for SPIR-V handling, but the implementation
itself will need work in follow ups.

Fixes several issues, including #138996, #144573, and #156084.
Resolves #147352.
2025-11-18 13:38:43 -08:00

461 lines
19 KiB
HLSL

// RUN: %clang_cc1 -finclude-default-header -triple dxil-pc-shadermodel6.3-compute -fnative-half-type -fnative-int16-type -emit-llvm -disable-llvm-passes -o - %s | FileCheck %s
// CHECK: %__cblayout_CBScalars = type <{
// CHECK-SAME: float, target("dx.Padding", 4), double,
// CHECK-SAME: half, target("dx.Padding", 6), i64,
// CHECK-SAME: i32, i16, target("dx.Padding", 2), i32, target("dx.Padding", 4),
// CHECK-SAME: i64
// CHECK-SAME: }>
// CHECK: %__cblayout_CBVectors = type <{
// CHECK-SAME: <3 x float>, target("dx.Padding", 4),
// CHECK-SAME: <3 x double>, <2 x half>, target("dx.Padding", 4),
// CHECK-SAME: <3 x i64>, target("dx.Padding", 8),
// CHECK-SAME: <4 x i32>,
// CHECK-SAME: <3 x i16>, target("dx.Padding", 10),
// CHECK-SAME: <3 x i64>
// CHECK-SAME: }>
// CHECK: %__cblayout_CBArrays = type <{
// CHECK-SAME: <{ [2 x <{ float, target("dx.Padding", 12) }>], float }>, target("dx.Padding", 12),
// CHECK-SAME: <{ [1 x <{ <3 x double>, target("dx.Padding", 8) }>], <3 x double> }>, target("dx.Padding", 8),
// CHECK-SAME: <{ [1 x <{
// CHECK-SAME: <{ [1 x <{ half, target("dx.Padding", 14) }>], half }>, target("dx.Padding", 14) }>],
// CHECK-SAME: <{ [1 x <{ half, target("dx.Padding", 14) }>], half }>
// CHECK-SAME: }>, target("dx.Padding", 14),
// CHECK-SAME: <{ [2 x <{ i64, target("dx.Padding", 8) }>], i64 }>, target("dx.Padding", 8),
// CHECK-SAME: [2 x [3 x [4 x <4 x i32>]]]
// CHECK-SAME: [1 x i16], target("dx.Padding", 14),
// CHECK-SAME: <{ [1 x <{ i64, target("dx.Padding", 8) }>], i64 }>, target("dx.Padding", 8),
// CHECK-SAME: <{ [3 x <{ i32, target("dx.Padding", 12) }>], i32 }>
// CHECK-SAME: }>
// CHECK: %__cblayout_CBStructs = type <{
// CHECK-SAME: %A, target("dx.Padding", 8),
// TODO: We should have target("dx.Padding", 2) padding after %B, but we don't
// correctly handle 2- and 3-element vectors inside structs yet because of
// DataLayout rules. See https://github.com/llvm/llvm-project/issues/123968.
//
// CHECK-SAME: %B,
// CHECK-SAME: %C, target("dx.Padding", 8),
// CHECK-SAME: <{ [4 x <{ %A, target("dx.Padding", 8) }>], %A }>, target("dx.Padding", 8),
// CHECK-SAME: %__cblayout_D, half,
// CHECK-SAME: <3 x i16>
// CHECK-SAME: }>
// CHECK: %A = type <{ <2 x float> }>
// CHECK: %B = type <{ <2 x float>, <3 x i16> }>
// CHECK: %C = type <{ i32, target("dx.Padding", 12), %A }>
// CHECK: %__cblayout_D = type <{
// CHECK-SAME: <{ [1 x <{
// CHECK-SAME: <{ [2 x <{ %B, target("dx.Padding", 2) }>], %B }>, target("dx.Padding", 2)
// CHECK-SAME: }>],
// CHECK-SAME: <{ [2 x <{ %B, target("dx.Padding", 2) }>], %B }> }>
// CHECK-SAME: }>
// CHECK: %__cblayout_CBClasses = type <{
// CHECK-SAME: %K, target("dx.Padding", 12),
// CHECK-SAME: %L, target("dx.Padding", 8),
// CHECK-SAME: %M, target("dx.Padding", 12),
// CHECK-SAME: <{ [9 x <{ %K, target("dx.Padding", 12) }>], %K }>
// CHECK-SAME: }>
// CHECK: %K = type <{ float }>
// CHECK: %L = type <{ float, float }>
// CHECK: %M = type <{ <{ [4 x <{ %K, target("dx.Padding", 12) }>], %K }> }>
// CHECK: %__cblayout_CBMix = type <{
// CHECK-SAME: <{ [1 x <{ %Test, target("dx.Padding", 8) }>], %Test }>, float, target("dx.Padding", 4)
// CHECK-SAME: <{ [2 x <{
// CHECK-SAME: <{ [1 x <{ <2 x float>, target("dx.Padding", 8) }>], <2 x float> }>, target("dx.Padding", 8) }>],
// CHECK-SAME: <{ [1 x <{ <2 x float>, target("dx.Padding", 8) }>], <2 x float> }>
// CHECK-SAME: }>, float, target("dx.Padding", 4),
// CHECK-SAME: %anon, target("dx.Padding", 4), double,
// CHECK-SAME: %anon.0, float, target("dx.Padding", 4),
// CHECK-SAME: <1 x double>, i16
// CHECK-SAME: }>
// CHECK: %Test = type <{ float, float }>
// CHECK: %anon = type <{ float }>
// CHECK: %anon.0 = type <{ <2 x i32> }>
// CHECK: %__cblayout_CB_A = type <{
// CHECK-SAME: <{ [1 x <{ double, target("dx.Padding", 8) }>], double }>, target("dx.Padding", 8),
// CHECK-SAME: <{ [2 x <{ <3 x float>, target("dx.Padding", 4) }>], <3 x float> }>, float,
// CHECK-SAME: <{ [2 x <{ double, target("dx.Padding", 8) }>], double }>, half, target("dx.Padding", 6),
// CHECK-SAME: [1 x <2 x double>],
// CHECK-SAME: float, target("dx.Padding", 12),
// CHECK-SAME: <{ [1 x <{ <3 x half>, target("dx.Padding", 10) }>], <3 x half> }>, <3 x half>
// CHECK-SAME: }>
// CHECK: %__cblayout_CB_B = type <{
// CHECK-SAME: <{ [2 x <{ <3 x double>, target("dx.Padding", 8) }>], <3 x double> }>, <3 x half>
// CHECK-SAME: }>
// CHECK: %__cblayout_CB_C = type <{
// CHECK-SAME: i32, target("dx.Padding", 12),
// CHECK-SAME: %F,
// CHECK-SAME: half, target("dx.Padding", 14),
// CHECK-SAME: %G, target("dx.Padding", 6), double
// CHECK-SAME: }>
// CHECK: %F = type <{
// CHECK-SAME: double, target("dx.Padding", 8),
// CHECK-SAME: <3 x float>, float,
// CHECK-SAME: <3 x double>, half, target("dx.Padding", 6),
// CHECK-SAME: <2 x double>,
// CHECK-SAME: float, <3 x half>, <3 x half>
// CHECK-SAME: }>
// CHECK: %G = type <{
// CHECK-SAME: %E, target("dx.Padding", 12),
// CHECK-SAME: [1 x float], target("dx.Padding", 12),
// CHECK-SAME: [2 x %F],
// CHECK-SAME: half
// CHECK-SAME: }>
// CHECK: %E = type <{ float, target("dx.Padding", 4), double, float, half, i16, i64, i32 }>
cbuffer CBScalars : register(b1, space5) {
float a1;
double a2;
float16_t a3;
uint64_t a4;
int a5;
uint16_t a6;
bool a7;
int64_t a8;
}
// CHECK: @CBScalars.cb = global target("dx.CBuffer", %__cblayout_CBScalars)
// CHECK: @a1 = external hidden addrspace(2) global float, align 4
// CHECK: @a2 = external hidden addrspace(2) global double, align 8
// CHECK: @a3 = external hidden addrspace(2) global half, align 2
// CHECK: @a4 = external hidden addrspace(2) global i64, align 8
// CHECK: @a5 = external hidden addrspace(2) global i32, align 4
// CHECK: @a6 = external hidden addrspace(2) global i16, align 2
// CHECK: @a7 = external hidden addrspace(2) global i32, align 4
// CHECK: @a8 = external hidden addrspace(2) global i64, align 8
// CHECK: @CBScalars.str = private unnamed_addr constant [10 x i8] c"CBScalars\00", align 1
cbuffer CBVectors {
float3 b1;
double3 b2;
float16_t2 b3;
uint64_t3 b4;
int4 b5;
uint16_t3 b6;
int64_t3 b7;
// FIXME: add a bool vectors after llvm-project/llvm#91639 is added
}
// CHECK: @CBVectors.cb = global target("dx.CBuffer", %__cblayout_CBVectors)
// CHECK: @b1 = external hidden addrspace(2) global <3 x float>, align 16
// CHECK: @b2 = external hidden addrspace(2) global <3 x double>, align 32
// CHECK: @b3 = external hidden addrspace(2) global <2 x half>, align 4
// CHECK: @b4 = external hidden addrspace(2) global <3 x i64>, align 32
// CHECK: @b5 = external hidden addrspace(2) global <4 x i32>, align 16
// CHECK: @b6 = external hidden addrspace(2) global <3 x i16>, align 8
// CHECK: @b7 = external hidden addrspace(2) global <3 x i64>, align 32
// CHECK: @CBVectors.str = private unnamed_addr constant [10 x i8] c"CBVectors\00", align 1
cbuffer CBArrays : register(b2) {
float c1[3];
double3 c2[2];
float16_t c3[2][2];
uint64_t c4[3];
int4 c5[2][3][4];
uint16_t c6[1];
int64_t c7[2];
bool c8[4];
}
// CHECK: @CBArrays.cb = global target("dx.CBuffer", %__cblayout_CBArrays)
// CHECK: @c1 = external hidden addrspace(2) global <{ [2 x <{ float, target("dx.Padding", 12) }>], float }>, align 4
// CHECK: @c2 = external hidden addrspace(2) global <{ [1 x <{ <3 x double>, target("dx.Padding", 8) }>], <3 x double> }>, align 32
// CHECK: @c3 = external hidden addrspace(2) global <{ [1 x <{ <{ [1 x <{ half, target("dx.Padding", 14) }>], half }>, target("dx.Padding", 14) }>], <{ [1 x <{ half, target("dx.Padding", 14) }>], half }> }>, align 2
// CHECK: @c4 = external hidden addrspace(2) global <{ [2 x <{ i64, target("dx.Padding", 8) }>], i64 }>, align 8
// CHECK: @c5 = external hidden addrspace(2) global [2 x [3 x [4 x <4 x i32>]]], align 16
// CHECK: @c6 = external hidden addrspace(2) global [1 x i16], align 2
// CHECK: @c7 = external hidden addrspace(2) global <{ [1 x <{ i64, target("dx.Padding", 8) }>], i64 }>, align 8
// CHECK: @c8 = external hidden addrspace(2) global <{ [3 x <{ i32, target("dx.Padding", 12) }>], i32 }>, align 4
// CHECK: @CBArrays.str = private unnamed_addr constant [9 x i8] c"CBArrays\00", align 1
typedef uint32_t4 uint32_t8[2];
typedef uint4 T1;
typedef T1 T2[2]; // check a double typedef
cbuffer CBTypedefArray : register(space2) {
uint32_t8 t1[2];
T2 t2[2];
}
// CHECK: @CBTypedefArray.cb = global target("dx.CBuffer", %__cblayout_CBTypedefArray)
// CHECK: @t1 = external hidden addrspace(2) global [2 x [2 x <4 x i32>]], align 16
// CHECK: @t2 = external hidden addrspace(2) global [2 x [2 x <4 x i32>]], align 16
// CHECK: @CBTypedefArray.str = private unnamed_addr constant [15 x i8] c"CBTypedefArray\00", align 1
struct Empty {};
struct A {
float2 f1;
};
struct B : A {
uint16_t3 f2;
};
struct C {
int i;
A f3;
};
struct D {
B array_of_B[2][3];
Empty es;
};
// CHECK: @CBStructs.cb = global target("dx.CBuffer", %__cblayout_CBStructs)
// CHECK: @a = external hidden addrspace(2) global %A, align 1
// CHECK: @b = external hidden addrspace(2) global %B, align 1
// CHECK: @c = external hidden addrspace(2) global %C, align 1
// CHECK: @array_of_A = external hidden addrspace(2) global <{ [4 x <{ %A, target("dx.Padding", 8) }>], %A }>, align 1
// CHECK: @d = external hidden addrspace(2) global %__cblayout_D, align 1
// CHECK: @e = external hidden addrspace(2) global half, align 2
// CHECK: @f = external hidden addrspace(2) global <3 x i16>, align 8
// CHECK: @CBStructs.str = private unnamed_addr constant [10 x i8] c"CBStructs\00", align 1
cbuffer CBStructs {
A a;
B b;
C c;
A array_of_A[5];
D d;
half e;
uint16_t3 f;
};
class K {
float i;
};
class L : K {
float j;
};
class M {
K array[5];
};
cbuffer CBClasses {
K k;
L l;
M m;
K ka[10];
};
// CHECK: @CBClasses.cb = global target("dx.CBuffer", %__cblayout_CBClasses)
// CHECK: @k = external hidden addrspace(2) global %K, align 1
// CHECK: @l = external hidden addrspace(2) global %L, align 1
// CHECK: @m = external hidden addrspace(2) global %M, align 1
// CHECK: @ka = external hidden addrspace(2) global <{ [9 x <{ %K, target("dx.Padding", 12) }>], %K }>, align 1
// CHECK: @CBClasses.str = private unnamed_addr constant [10 x i8] c"CBClasses\00", align 1
struct Test {
float a, b;
};
// CHECK: @CBMix.cb = global target("dx.CBuffer", %__cblayout_CBMix)
// CHECK: @test = external hidden addrspace(2) global <{ [1 x <{ %Test, target("dx.Padding", 8) }>], %Test }>, align 1
// CHECK: @f1 = external hidden addrspace(2) global float, align 4
// CHECK: @f2 = external hidden addrspace(2) global <{ [2 x <{ <{ [1 x <{ <2 x float>, target("dx.Padding", 8) }>], <2 x float> }>, target("dx.Padding", 8) }>], <{ [1 x <{ <2 x float>, target("dx.Padding", 8) }>], <2 x float> }> }>, align 8
// CHECK: @f3 = external hidden addrspace(2) global float, align 4
// CHECK: @f4 = external hidden addrspace(2) global %anon, align 1
// CHECK: @f5 = external hidden addrspace(2) global double, align 8
// CHECK: @f6 = external hidden addrspace(2) global %anon.0, align 1
// CHECK: @f7 = external hidden addrspace(2) global float, align 4
// CHECK: @f8 = external hidden addrspace(2) global <1 x double>, align 8
// CHECK: @f9 = external hidden addrspace(2) global i16, align 2
// CHECK: @CBMix.str = private unnamed_addr constant [6 x i8] c"CBMix\00", align 1
cbuffer CBMix {
Test test[2];
float f1;
float2 f2[3][2];
float f3;
struct { float c; } f4;
double f5;
struct { int2 i; } f6;
float f7;
vector<double,1> f8;
uint16_t f9;
};
// CHECK: @CB_A.cb = global target("dx.CBuffer", %__cblayout_CB_A)
cbuffer CB_A {
double B0[2];
float3 B1[3];
float B2;
double B3[3];
half B4;
double2 B5[1];
float B6;
half3 B7[2];
half3 B8;
}
// CHECK: @CB_B.cb = global target("dx.CBuffer", %__cblayout_CB_B)
cbuffer CB_B {
double3 B9[3];
half3 B10;
}
struct E {
float A0;
double A1;
float A2;
half A3;
int16_t A4;
int64_t A5;
int A6;
};
struct F {
double B0;
float3 B1;
float B2;
double3 B3;
half B4;
double2 B5;
float B6;
half3 B7;
half3 B8;
};
struct G {
E C0;
float C1[1];
F C2[2];
half C3;
};
// CHECK: @CB_C.cb = global target("dx.CBuffer", %__cblayout_CB_C)
cbuffer CB_C {
int D0;
F D1;
half D2;
G D3;
double D4;
}
// CHECK: define internal void @_init_buffer_CBScalars.cb()
// CHECK-NEXT: entry:
// CHECK-NEXT: %CBScalars.cb_h = call target("dx.CBuffer", %__cblayout_CBScalars)
// CHECK-SAME: @llvm.dx.resource.handlefrombinding.tdx.CBuffer_s___cblayout_CBScalarsst(i32 5, i32 1, i32 1, i32 0, ptr @CBScalars.str)
// CHECK-NEXT: store target("dx.CBuffer", %__cblayout_CBScalars) %CBScalars.cb_h, ptr @CBScalars.cb, align 4
// CHECK: define internal void @_init_buffer_CBVectors.cb()
// CHECK-NEXT: entry:
// CHECK-NEXT: %CBVectors.cb_h = call target("dx.CBuffer", %__cblayout_CBVectors)
// CHECK-SAME: @llvm.dx.resource.handlefromimplicitbinding.tdx.CBuffer_s___cblayout_CBVectorsst(i32 0, i32 0, i32 1, i32 0, ptr @CBVectors.str)
// CHECK-NEXT: store target("dx.CBuffer", %__cblayout_CBVectors) %CBVectors.cb_h, ptr @CBVectors.cb, align 4
// CHECK: define internal void @_init_buffer_CBArrays.cb()
// CHECK-NEXT: entry:
// CHECK-NEXT: %CBArrays.cb_h = call target("dx.CBuffer", %__cblayout_CBArrays)
// CHECK-SAME: @llvm.dx.resource.handlefrombinding.tdx.CBuffer_s___cblayout_CBArraysst(i32 0, i32 2, i32 1, i32 0, ptr @CBArrays.str)
// CHECK-NEXT: store target("dx.CBuffer", %__cblayout_CBArrays) %CBArrays.cb_h, ptr @CBArrays.cb, align 4
// CHECK: define internal void @_init_buffer_CBTypedefArray.cb()
// CHECK-NEXT: entry:
// CHECK-NEXT: %CBTypedefArray.cb_h = call target("dx.CBuffer", %__cblayout_CBTypedefArray)
// CHECK-SAME: @llvm.dx.resource.handlefromimplicitbinding.tdx.CBuffer_s___cblayout_CBTypedefArrayst(i32 1, i32 2, i32 1, i32 0, ptr @CBTypedefArray.str)
// CHECK-NEXT: store target("dx.CBuffer", %__cblayout_CBTypedefArray) %CBTypedefArray.cb_h, ptr @CBTypedefArray.cb, align 4
// CHECK: define internal void @_init_buffer_CBStructs.cb()
// CHECK-NEXT: entry:
// CHECK-NEXT: %CBStructs.cb_h = call target("dx.CBuffer", %__cblayout_CBStructs)
// CHECK-SAME: @llvm.dx.resource.handlefromimplicitbinding.tdx.CBuffer_s___cblayout_CBStructsst(i32 2, i32 0, i32 1, i32 0, ptr @CBStructs.str)
// CHECK-NEXT: store target("dx.CBuffer", %__cblayout_CBStructs) %CBStructs.cb_h, ptr @CBStructs.cb, align 4
// CHECK: define internal void @_init_buffer_CBClasses.cb()
// CHECK-NEXT: entry:
// CHECK-NEXT: %CBClasses.cb_h = call target("dx.CBuffer", %__cblayout_CBClasses)
// CHECK-SAME: @llvm.dx.resource.handlefromimplicitbinding.tdx.CBuffer_s___cblayout_CBClassesst(i32 3, i32 0, i32 1, i32 0, ptr @CBClasses.str)
// CHECK-NEXT: store target("dx.CBuffer", %__cblayout_CBClasses) %CBClasses.cb_h, ptr @CBClasses.cb, align 4
// CHECK: define internal void @_init_buffer_CBMix.cb()
// CHECK-NEXT: entry:
// CHECK-NEXT: %CBMix.cb_h = call target("dx.CBuffer", %__cblayout_CBMix)
// CHECK-SAME: @llvm.dx.resource.handlefromimplicitbinding.tdx.CBuffer_s___cblayout_CBMixst(i32 4, i32 0, i32 1, i32 0, ptr @CBMix.str)
// CHECK-NEXT: store target("dx.CBuffer", %__cblayout_CBMix) %CBMix.cb_h, ptr @CBMix.cb, align 4
// CHECK: define internal void @_init_buffer_CB_A.cb()
// CHECK-NEXT: entry:
// CHECK-NEXT: %CB_A.cb_h = call target("dx.CBuffer", %__cblayout_CB_A)
// CHECK-SAME: @llvm.dx.resource.handlefromimplicitbinding.tdx.CBuffer_s___cblayout_CB_Ast(i32 5, i32 0, i32 1, i32 0, ptr @CB_A.str)
// CHECK-NEXT: store target("dx.CBuffer", %__cblayout_CB_A) %CB_A.cb_h, ptr @CB_A.cb, align 4
// CHECK: define internal void @_init_buffer_CB_B.cb()
// CHECK-NEXT: entry:
// CHECK-NEXT: %CB_B.cb_h = call target("dx.CBuffer", %__cblayout_CB_B)
// CHECK-SAME: @llvm.dx.resource.handlefromimplicitbinding.tdx.CBuffer_s___cblayout_CB_Bst(i32 6, i32 0, i32 1, i32 0, ptr @CB_B.str)
// CHECK-NEXT: store target("dx.CBuffer", %__cblayout_CB_B) %CB_B.cb_h, ptr @CB_B.cb, align 4
// CHECK: define internal void @_init_buffer_CB_C.cb()
// CHECK-NEXT: entry:
// CHECK-NEXT: %CB_C.cb_h = call target("dx.CBuffer", %__cblayout_CB_C)
// CHECK-SAME: @llvm.dx.resource.handlefromimplicitbinding.tdx.CBuffer_s___cblayout_CB_Cst(i32 7, i32 0, i32 1, i32 0, ptr @CB_C.str)
// CHECK-NEXT: store target("dx.CBuffer", %__cblayout_CB_C) %CB_C.cb_h, ptr @CB_C.cb, align 4
RWBuffer<float> Buf;
[numthreads(4,1,1)]
void main() {
Buf[0] = a1 + b1.z + c1[2] + a.f1.y + f1 + B1[0].x + ka[2].i + B10.z + D1.B2;
}
// CHECK: define internal void @_GLOBAL__sub_I_cbuffer.hlsl()
// CHECK-NEXT: entry:
// CHECK-NEXT: call void @_init_buffer_CBScalars.cb()
// CHECK-NEXT: call void @_init_buffer_CBVectors.cb()
// CHECK-NEXT: call void @_init_buffer_CBArrays.cb()
// CHECK-NEXT: call void @_init_buffer_CBTypedefArray.cb()
// CHECK-NEXT: call void @_init_buffer_CBStructs.cb()
// CHECK-NEXT: call void @_init_buffer_CBClasses.cb()
// CHECK-NEXT: call void @_init_buffer_CBMix.cb()
// CHECK-NEXT: call void @_init_buffer_CB_A.cb()
// CHECK: !hlsl.cbs = !{![[CBSCALARS:[0-9]+]], ![[CBVECTORS:[0-9]+]], ![[CBARRAYS:[0-9]+]], ![[CBTYPEDEFARRAY:[0-9]+]], ![[CBSTRUCTS:[0-9]+]], ![[CBCLASSES:[0-9]+]],
// CHECK-SAME: ![[CBMIX:[0-9]+]], ![[CB_A:[0-9]+]], ![[CB_B:[0-9]+]], ![[CB_C:[0-9]+]]}
// CHECK: ![[CBSCALARS]] = !{ptr @CBScalars.cb, ptr addrspace(2) @a1, ptr addrspace(2) @a2, ptr addrspace(2) @a3, ptr addrspace(2) @a4,
// CHECK-SAME: ptr addrspace(2) @a5, ptr addrspace(2) @a6, ptr addrspace(2) @a7, ptr addrspace(2) @a8}
// CHECK: ![[CBVECTORS]] = !{ptr @CBVectors.cb, ptr addrspace(2) @b1, ptr addrspace(2) @b2, ptr addrspace(2) @b3, ptr addrspace(2) @b4,
// CHECK-SAME: ptr addrspace(2) @b5, ptr addrspace(2) @b6, ptr addrspace(2) @b7}
// CHECK: ![[CBARRAYS]] = !{ptr @CBArrays.cb, ptr addrspace(2) @c1, ptr addrspace(2) @c2, ptr addrspace(2) @c3, ptr addrspace(2) @c4,
// CHECK-SAME: ptr addrspace(2) @c5, ptr addrspace(2) @c6, ptr addrspace(2) @c7, ptr addrspace(2) @c8}
// CHECK: ![[CBTYPEDEFARRAY]] = !{ptr @CBTypedefArray.cb, ptr addrspace(2) @t1, ptr addrspace(2) @t2}
// CHECK: ![[CBSTRUCTS]] = !{ptr @CBStructs.cb, ptr addrspace(2) @a, ptr addrspace(2) @b, ptr addrspace(2) @c, ptr addrspace(2) @array_of_A,
// CHECK-SAME: ptr addrspace(2) @d, ptr addrspace(2) @e, ptr addrspace(2) @f}
// CHECK: ![[CBCLASSES]] = !{ptr @CBClasses.cb, ptr addrspace(2) @k, ptr addrspace(2) @l, ptr addrspace(2) @m, ptr addrspace(2) @ka}
// CHECK: ![[CBMIX]] = !{ptr @CBMix.cb, ptr addrspace(2) @test, ptr addrspace(2) @f1, ptr addrspace(2) @f2, ptr addrspace(2) @f3,
// CHECK-SAME: ptr addrspace(2) @f4, ptr addrspace(2) @f5, ptr addrspace(2) @f6, ptr addrspace(2) @f7, ptr addrspace(2) @f8, ptr addrspace(2) @f9}
// CHECK: ![[CB_A]] = !{ptr @CB_A.cb, ptr addrspace(2) @B0, ptr addrspace(2) @B1, ptr addrspace(2) @B2, ptr addrspace(2) @B3, ptr addrspace(2) @B4,
// CHECK-SAME: ptr addrspace(2) @B5, ptr addrspace(2) @B6, ptr addrspace(2) @B7, ptr addrspace(2) @B8}
// CHECK: ![[CB_B]] = !{ptr @CB_B.cb, ptr addrspace(2) @B9, ptr addrspace(2) @B10}
// CHECK: ![[CB_C]] = !{ptr @CB_C.cb, ptr addrspace(2) @D0, ptr addrspace(2) @D1, ptr addrspace(2) @D2, ptr addrspace(2) @D3, ptr addrspace(2) @D4}