Files
RedBear-OS/local/recipes/dev/libclc/source/clang/test/CodeGen/mult-alt-x86.c
T
vasilito cb424d7448 build: static patch-sanity linter (shift-left the malformed-patch class)
verify-patch-sanity.py validates every active recipe .patch has internally-
consistent hunk line counts — catching the 'malformed patch at line N' failure
at commit/CI/preflight time instead of hours into a cook. This cycle hit that
class three times (qtwaylandscanner, sddm, xwayland), each only discovered when
cookbook tried to apply the patch.

Running it across the repo found 29 latent malformed patches (validated against
GNU patch: e.g. relibc/P3-sysv-ipc reproduces 'malformed patch at line 22').
They were harmless only because they sit in vendored recipes (baked, not re-
applied) — but would fail on any version-bump re-derivation. --fix recounts the
hunk headers (body untouched) and repaired all 29.

Wired into build-preflight.sh (Phase 1.0D) and redbear-ci.yml, with a unit test
(test-patch-sanity.sh). Skips archived/legacy trees and unvalidatable formats
(empty placeholders, bare-@@ git hunks).
2026-08-01 05:13:02 +03:00

379 lines
10 KiB
C

// RUN: %clang_cc1 -triple i686 -emit-llvm %s -o - | FileCheck %s
// RUN: %clang_cc1 -triple x86_64 -emit-llvm %s -o - | FileCheck %s
int mout0;
int min1;
int marray[2];
double dout0;
double din1;
// CHECK: @single_R
void single_R(void)
{
// CHECK: asm "foo $1,$0", "=R,R[[CLOBBERS:[a-zA-Z0-9@%{},~_ ]*\"]](i32 {{[a-zA-Z0-9@%]+}})
asm("foo %1,%0" : "=R" (mout0) : "R" (min1));
}
// CHECK: @single_q
void single_q(void)
{
// CHECK: asm "foo $1,$0", "=q,q[[CLOBBERS]](i32 {{[a-zA-Z0-9@%]+}})
asm("foo %1,%0" : "=q" (mout0) : "q" (min1));
}
// CHECK: @single_Q
void single_Q(void)
{
// CHECK: asm "foo $1,$0", "=Q,Q[[CLOBBERS]](i32 {{[a-zA-Z0-9@%]+}})
asm("foo %1,%0" : "=Q" (mout0) : "Q" (min1));
}
// CHECK: @single_a
void single_a(void)
{
// CHECK: asm "foo $1,$0", "={ax},{ax}[[CLOBBERS]](i32 {{[a-zA-Z0-9@%]+}})
asm("foo %1,%0" : "=a" (mout0) : "a" (min1));
}
// CHECK: @single_b
void single_b(void)
{
// CHECK: asm "foo $1,$0", "={bx},{bx}[[CLOBBERS]](i32 {{[a-zA-Z0-9@%]+}})
asm("foo %1,%0" : "=b" (mout0) : "b" (min1));
}
// CHECK: @single_c
void single_c(void)
{
// CHECK: asm "foo $1,$0", "={cx},{cx}[[CLOBBERS]](i32 {{[a-zA-Z0-9@%]+}})
asm("foo %1,%0" : "=c" (mout0) : "c" (min1));
}
// CHECK: @single_d
void single_d(void)
{
// CHECK: asm "foo $1,$0", "={dx},{dx}[[CLOBBERS]](i32 {{[a-zA-Z0-9@%]+}})
asm("foo %1,%0" : "=d" (mout0) : "d" (min1));
}
// CHECK: @single_S
void single_S(void)
{
// CHECK: asm "foo $1,$0", "={si},{si}[[CLOBBERS]](i32 {{[a-zA-Z0-9@%]+}})
asm("foo %1,%0" : "=S" (mout0) : "S" (min1));
}
// CHECK: @single_D
void single_D(void)
{
// CHECK: asm "foo $1,$0", "={di},{di}[[CLOBBERS]](i32 {{[a-zA-Z0-9@%]+}})
asm("foo %1,%0" : "=D" (mout0) : "D" (min1));
}
// CHECK: @single_A
void single_A(void)
{
// CHECK: asm "foo $1,$0", "=A,A[[CLOBBERS]](i32 {{[a-zA-Z0-9@%]+}})
asm("foo %1,%0" : "=A" (mout0) : "A" (min1));
}
// CHECK: @single_f
void single_f(void)
{
//FIXME: I don't know how to do an 80387 floating point stack register operation, which I think is fp80.
}
// CHECK: @single_t
void single_t(void)
{
//FIXME: I don't know how to do an 80387 floating point stack register operation, which I think is fp80.
}
// CHECK: @single_u
void single_u(void)
{
//FIXME: I don't know how to do an 80387 floating point stack register operation, which I think is fp80.
}
// CHECK: @single_y
void single_y(void)
{
// CHECK: call double asm "foo $1,$0", "=y,y[[CLOBBERS]](double {{[a-zA-Z0-9@%]+}})
asm("foo %1,%0" : "=y" (dout0) : "y" (din1));
}
// CHECK: @single_x
void single_x(void)
{
// CHECK: asm "foo $1,$0", "=x,x[[CLOBBERS]](double {{[a-zA-Z0-9@%]+}})
asm("foo %1,%0" : "=x" (dout0) : "x" (din1));
}
// CHECK: @single_Y
void single_Y(void)
{
// 'Y' constraint currently broken.
//asm("foo %1,%0" : "=Y0" (mout0) : "Y0" (min1));
//asm("foo %1,%0" : "=Yz" (mout0) : "Yz" (min1));
//asm("foo %1,%0" : "=Yt" (mout0) : "Yt" (min1));
//asm("foo %1,%0" : "=Yi" (mout0) : "Yi" (min1));
//asm("foo %1,%0" : "=Ym" (mout0) : "Ym" (min1));
}
// CHECK: @single_I
void single_I(void)
{
// CHECK: asm "foo $1,$0", "=*m,I[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 1)
asm("foo %1,%0" : "=m" (mout0) : "I" (1));
}
// CHECK: @single_J
void single_J(void)
{
// CHECK: asm "foo $1,$0", "=*m,J[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 1)
asm("foo %1,%0" : "=m" (mout0) : "J" (1));
}
// CHECK: @single_K
void single_K(void)
{
// CHECK: asm "foo $1,$0", "=*m,K[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 1)
asm("foo %1,%0" : "=m" (mout0) : "K" (1));
}
// CHECK: @single_L
void single_L(void)
{
// CHECK: asm "foo $1,$0", "=*m,L[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 255)
asm("foo %1,%0" : "=m" (mout0) : "L" (0xff));
// CHECK: asm "foo $1,$0", "=*m,L[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 65535)
asm("foo %1,%0" : "=m" (mout0) : "L" (0xffff));
// CHECK: asm "foo $1,$0", "=*m,L[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 -1)
asm("foo %1,%0" : "=m" (mout0) : "L" (0xffffffff));
}
// CHECK: @single_M
void single_M(void)
{
// CHECK: asm "foo $1,$0", "=*m,M[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 1)
asm("foo %1,%0" : "=m" (mout0) : "M" (1));
}
// CHECK: @single_N
void single_N(void)
{
// CHECK: asm "foo $1,$0", "=*m,N[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 1)
asm("foo %1,%0" : "=m" (mout0) : "N" (1));
}
// CHECK: @single_G
void single_G(void)
{
// CHECK: asm "foo $1,$0", "=*m,G[[CLOBBERS]](ptr elementtype(i32) @mout0, double {{1.[0]+e[+]*[0]+}})
asm("foo %1,%0" : "=m" (mout0) : "G" (1.0));
}
// CHECK: @single_C
void single_C(void)
{
// CHECK: asm "foo $1,$0", "=*m,C[[CLOBBERS]](ptr elementtype(i32) @mout0, double {{1.[0]+e[+]*[0]+}})
asm("foo %1,%0" : "=m" (mout0) : "C" (1.0));
}
// CHECK: @single_e
void single_e(void)
{
// CHECK: asm "foo $1,$0", "=*m,e[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 1)
asm("foo %1,%0" : "=m" (mout0) : "e" (1));
}
// CHECK: @single_Z
void single_Z(void)
{
// CHECK: asm "foo $1,$0", "=*m,Z[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 1)
asm("foo %1,%0" : "=m" (mout0) : "Z" (1));
}
// CHECK: @multi_R
void multi_R(void)
{
// CHECK: asm "foo $1,$0", "=*r|R|m,r|R|m[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 {{[a-zA-Z0-9@%]+}})
asm("foo %1,%0" : "=r,R,m" (mout0) : "r,R,m" (min1));
}
// CHECK: @multi_q
void multi_q(void)
{
// CHECK: asm "foo $1,$0", "=*r|q|m,r|q|m[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 {{[a-zA-Z0-9@%]+}})
asm("foo %1,%0" : "=r,q,m" (mout0) : "r,q,m" (min1));
}
// CHECK: @multi_Q
void multi_Q(void)
{
// CHECK: asm "foo $1,$0", "=*r|Q|m,r|Q|m[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 {{[a-zA-Z0-9@%]+}})
asm("foo %1,%0" : "=r,Q,m" (mout0) : "r,Q,m" (min1));
}
// CHECK: @multi_a
void multi_a(void)
{
// CHECK: asm "foo $1,$0", "=*r|{ax}|m,r|{ax}|m[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 {{[a-zA-Z0-9@%]+}})
asm("foo %1,%0" : "=r,a,m" (mout0) : "r,a,m" (min1));
}
// CHECK: @multi_b
void multi_b(void)
{
// CHECK: asm "foo $1,$0", "=*r|{bx}|m,r|{bx}|m[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 {{[a-zA-Z0-9@%]+}})
asm("foo %1,%0" : "=r,b,m" (mout0) : "r,b,m" (min1));
}
// CHECK: @multi_c
void multi_c(void)
{
// CHECK: asm "foo $1,$0", "=*r|{cx}|m,r|{cx}|m[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 {{[a-zA-Z0-9@%]+}})
asm("foo %1,%0" : "=r,c,m" (mout0) : "r,c,m" (min1));
}
// CHECK: @multi_d
void multi_d(void)
{
// CHECK: asm "foo $1,$0", "=*r|{dx}|m,r|{dx}|m[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 {{[a-zA-Z0-9@%]+}})
asm("foo %1,%0" : "=r,d,m" (mout0) : "r,d,m" (min1));
}
// CHECK: @multi_S
void multi_S(void)
{
// CHECK: asm "foo $1,$0", "=*r|{si}|m,r|{si}|m[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 {{[a-zA-Z0-9@%]+}})
asm("foo %1,%0" : "=r,S,m" (mout0) : "r,S,m" (min1));
}
// CHECK: @multi_D
void multi_D(void)
{
// CHECK: asm "foo $1,$0", "=*r|{di}|m,r|{di}|m[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 {{[a-zA-Z0-9@%]+}})
asm("foo %1,%0" : "=r,D,m" (mout0) : "r,D,m" (min1));
}
// CHECK: @multi_A
void multi_A(void)
{
// CHECK: asm "foo $1,$0", "=*r|A|m,r|A|m[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 {{[a-zA-Z0-9@%]+}})
asm("foo %1,%0" : "=r,A,m" (mout0) : "r,A,m" (min1));
}
// CHECK: @multi_f
void multi_f(void)
{
//FIXME: I don't know how to do an 80387 floating point stack register operation, which I think is fp80.
}
// CHECK: @multi_t
void multi_t(void)
{
//FIXME: I don't know how to do an 80387 floating point stack register operation, which I think is fp80.
}
// CHECK: @multi_u
void multi_u(void)
{
//FIXME: I don't know how to do an 80387 floating point stack register operation, which I think is fp80.
}
// CHECK: @multi_y
void multi_y(void)
{
// CHECK: asm "foo $1,$0", "=*r|y|m,r|y|m[[CLOBBERS]](ptr elementtype(double) @dout0, double {{[a-zA-Z0-9@%]+}})
asm("foo %1,%0" : "=r,y,m" (dout0) : "r,y,m" (din1));
}
// CHECK: @multi_x
void multi_x(void)
{
// CHECK: asm "foo $1,$0", "=*r|x|m,r|x|m[[CLOBBERS]](ptr elementtype(double) @dout0, double {{[a-zA-Z0-9@%]+}})
asm("foo %1,%0" : "=r,x,m" (dout0) : "r,x,m" (din1));
}
// CHECK: @multi_Y
void multi_Y0(void)
{
// Y constraint currently broken.
//asm("foo %1,%0" : "=r,Y0,m" (mout0) : "r,Y0,m" (min1));
//asm("foo %1,%0" : "=r,Yz,m" (mout0) : "r,Yz,m" (min1));
//asm("foo %1,%0" : "=r,Yt,m" (mout0) : "r,Yt,m" (min1));
//asm("foo %1,%0" : "=r,Yi,m" (mout0) : "r,Yi,m" (min1));
//asm("foo %1,%0" : "=r,Ym,m" (mout0) : "r,Ym,m" (min1));
}
// CHECK: @multi_I
void multi_I(void)
{
// CHECK: asm "foo $1,$0", "=*r|m|m,r|I|m[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 1)
asm("foo %1,%0" : "=r,m,m" (mout0) : "r,I,m" (1));
}
// CHECK: @multi_J
void multi_J(void)
{
// CHECK: asm "foo $1,$0", "=*r|m|m,r|J|m[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 1)
asm("foo %1,%0" : "=r,m,m" (mout0) : "r,J,m" (1));
}
// CHECK: @multi_K
void multi_K(void)
{
// CHECK: asm "foo $1,$0", "=*r|m|m,r|K|m[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 1)
asm("foo %1,%0" : "=r,m,m" (mout0) : "r,K,m" (1));
}
// CHECK: @multi_L
void multi_L(void)
{
// CHECK: asm "foo $1,$0", "=*r|m|m,r|L|m[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 1)
asm("foo %1,%0" : "=r,m,m" (mout0) : "r,L,m" (1));
}
// CHECK: @multi_M
void multi_M(void)
{
// CHECK: asm "foo $1,$0", "=*r|m|m,r|M|m[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 1)
asm("foo %1,%0" : "=r,m,m" (mout0) : "r,M,m" (1));
}
// CHECK: @multi_N
void multi_N(void)
{
// CHECK: asm "foo $1,$0", "=*r|m|m,r|N|m[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 1)
asm("foo %1,%0" : "=r,m,m" (mout0) : "r,N,m" (1));
}
// CHECK: @multi_G
void multi_G(void)
{
// CHECK: asm "foo $1,$0", "=*r|m|m,r|G|m[[CLOBBERS]](ptr elementtype(i32) @mout0, double {{1.[0]+e[+]*[0]+}})
asm("foo %1,%0" : "=r,m,m" (mout0) : "r,G,m" (1.0));
}
// CHECK: @multi_C
void multi_C(void)
{
// CHECK: asm "foo $1,$0", "=*r|m|m,r|C|m[[CLOBBERS]](ptr elementtype(i32) @mout0, double {{1.[0]+e[+]*[0]+}})
asm("foo %1,%0" : "=r,m,m" (mout0) : "r,C,m" (1.0));
}
// CHECK: @multi_e
void multi_e(void)
{
// CHECK: asm "foo $1,$0", "=*r|m|m,r|e|m[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 1)
asm("foo %1,%0" : "=r,m,m" (mout0) : "r,e,m" (1));
}
// CHECK: @multi_Z
void multi_Z(void)
{
// CHECK: asm "foo $1,$0", "=*r|m|m,r|Z|m[[CLOBBERS]](ptr elementtype(i32) @mout0, i32 1)
asm("foo %1,%0" : "=r,m,m" (mout0) : "r,Z,m" (1));
}