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libffi/src/x86/ffi.c
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Richard Henderson ef76205647 x86: Tidy ffi_abi 
The x86_64 unix port only handles one ABI; don't define all of the
other symbols.  The UNIX64 symbol retains the same value.

The i386 ports ought to have the same symbols, even if we can't yet
unify the values without incrementing the libffi soname.
2014-11-12 09:15:35 +01:00

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/* -----------------------------------------------------------------------
ffi.c - Copyright (c) 1996, 1998, 1999, 2001, 2007, 2008 Red Hat, Inc.
Copyright (c) 2002 Ranjit Mathew
Copyright (c) 2002 Bo Thorsen
Copyright (c) 2002 Roger Sayle
Copyright (C) 2008, 2010 Free Software Foundation, Inc.
x86 Foreign Function Interface
Permission is hereby granted, free of charge, to any person obtaining
a copy of this software and associated documentation files (the
``Software''), to deal in the Software without restriction, including
without limitation the rights to use, copy, modify, merge, publish,
distribute, sublicense, and/or sell copies of the Software, and to
permit persons to whom the Software is furnished to do so, subject to
the following conditions:
The above copyright notice and this permission notice shall be included
in all copies or substantial portions of the Software.
THE SOFTWARE IS PROVIDED ``AS IS'', WITHOUT WARRANTY OF ANY KIND,
EXPRESS OR IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF
MERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE AND
NONINFRINGEMENT. IN NO EVENT SHALL THE AUTHORS OR COPYRIGHT
HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER LIABILITY,
WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM,
OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER
DEALINGS IN THE SOFTWARE.
----------------------------------------------------------------------- */
#ifndef __x86_64__
#include <ffi.h>
#include <ffi_common.h>
#include <stdlib.h>
/* ffi_prep_args is called by the assembly routine once stack space
has been allocated for the function's arguments */
unsigned int ffi_prep_args(char *stack, extended_cif *ecif);
unsigned int ffi_prep_args(char *stack, extended_cif *ecif)
{
register unsigned int i;
register void **p_argv;
register char *argp;
register ffi_type **p_arg;
const int cabi = ecif->cif->abi;
const int dir = (cabi == FFI_PASCAL || cabi == FFI_REGISTER) ? -1 : +1;
unsigned int stack_args_count = 0;
void *p_stack_data[3];
char *argp2 = stack;
argp = stack;
if ((ecif->cif->flags == FFI_TYPE_STRUCT
|| ecif->cif->flags == FFI_TYPE_MS_STRUCT))
{
/* For fastcall/thiscall/register this is first register-passed
argument. */
if (cabi == FFI_THISCALL || cabi == FFI_FASTCALL || cabi == FFI_REGISTER)
{
p_stack_data[stack_args_count] = argp;
++stack_args_count;
}
*(void **) argp = ecif->rvalue;
argp += sizeof(void*);
}
p_arg = ecif->cif->arg_types;
p_argv = ecif->avalue;
if (dir < 0)
{
const int nargs = ecif->cif->nargs - 1;
if (nargs > 0)
{
p_arg += nargs;
p_argv += nargs;
}
}
for (i = ecif->cif->nargs;
i != 0;
i--, p_arg += dir, p_argv += dir)
{
/* Align if necessary */
if ((sizeof(void*) - 1) & (size_t) argp)
argp = (char *) ALIGN(argp, sizeof(void*));
size_t z = (*p_arg)->size;
if (z < FFI_SIZEOF_ARG)
{
z = FFI_SIZEOF_ARG;
switch ((*p_arg)->type)
{
case FFI_TYPE_SINT8:
*(ffi_sarg *) argp = (ffi_sarg)*(SINT8 *)(* p_argv);
break;
case FFI_TYPE_UINT8:
*(ffi_arg *) argp = (ffi_arg)*(UINT8 *)(* p_argv);
break;
case FFI_TYPE_SINT16:
*(ffi_sarg *) argp = (ffi_sarg)*(SINT16 *)(* p_argv);
break;
case FFI_TYPE_UINT16:
*(ffi_arg *) argp = (ffi_arg)*(UINT16 *)(* p_argv);
break;
case FFI_TYPE_SINT32:
*(ffi_sarg *) argp = (ffi_sarg)*(SINT32 *)(* p_argv);
break;
case FFI_TYPE_UINT32:
*(ffi_arg *) argp = (ffi_arg)*(UINT32 *)(* p_argv);
break;
case FFI_TYPE_STRUCT:
*(ffi_arg *) argp = *(ffi_arg *)(* p_argv);
break;
default:
FFI_ASSERT(0);
}
}
else
{
memcpy(argp, *p_argv, z);
}
/* For thiscall/fastcall/register convention register-passed arguments
are the first two none-floating-point arguments with a size
smaller or equal to sizeof (void*). */
if ((z == FFI_SIZEOF_ARG)
&& ((cabi == FFI_REGISTER)
|| (cabi == FFI_THISCALL && stack_args_count < 1)
|| (cabi == FFI_FASTCALL && stack_args_count < 2))
&& ((*p_arg)->type != FFI_TYPE_FLOAT && (*p_arg)->type != FFI_TYPE_STRUCT)
)
{
if (dir < 0 && stack_args_count > 2)
{
/* Iterating arguments backwards, so first register-passed argument
will be passed last. Shift temporary values to make place. */
p_stack_data[0] = p_stack_data[1];
p_stack_data[1] = p_stack_data[2];
stack_args_count = 2;
}
p_stack_data[stack_args_count] = argp;
++stack_args_count;
}
argp += z;
}
/* We need to move the register-passed arguments for thiscall,
fastcall, register on top of stack, so that those can be moved
to registers by call-handler. */
if (stack_args_count > 0)
{
if (dir < 0 && stack_args_count > 1)
{
/* Reverse order if iterating arguments backwards */
ffi_arg tmp = *(ffi_arg*) p_stack_data[0];
*(ffi_arg*) p_stack_data[0] = *(ffi_arg*) p_stack_data[stack_args_count - 1];
*(ffi_arg*) p_stack_data[stack_args_count - 1] = tmp;
}
int i;
for (i = 0; i < stack_args_count; i++)
{
if (p_stack_data[i] != argp2)
{
ffi_arg tmp = *(ffi_arg*) p_stack_data[i];
memmove (argp2 + FFI_SIZEOF_ARG, argp2, (size_t) ((char*) p_stack_data[i] - (char*)argp2));
*(ffi_arg *) argp2 = tmp;
}
argp2 += FFI_SIZEOF_ARG;
}
}
return stack_args_count;
return 0;
}
/* Perform machine dependent cif processing */
ffi_status ffi_prep_cif_machdep(ffi_cif *cif)
{
unsigned int i;
ffi_type **ptr;
/* Set the return type flag */
switch (cif->rtype->type)
{
case FFI_TYPE_VOID:
case FFI_TYPE_UINT8:
case FFI_TYPE_UINT16:
case FFI_TYPE_SINT8:
case FFI_TYPE_SINT16:
case FFI_TYPE_SINT64:
case FFI_TYPE_FLOAT:
case FFI_TYPE_DOUBLE:
#if FFI_TYPE_DOUBLE != FFI_TYPE_LONGDOUBLE
case FFI_TYPE_LONGDOUBLE:
#endif
cif->flags = (unsigned) cif->rtype->type;
break;
case FFI_TYPE_UINT64:
cif->flags = FFI_TYPE_SINT64;
break;
case FFI_TYPE_STRUCT:
#ifndef X86
if (cif->rtype->size == 1)
{
cif->flags = FFI_TYPE_SMALL_STRUCT_1B; /* same as char size */
}
else if (cif->rtype->size == 2)
{
cif->flags = FFI_TYPE_SMALL_STRUCT_2B; /* same as short size */
}
else if (cif->rtype->size == 4)
{
cif->flags = FFI_TYPE_INT; /* same as int type */
}
else if (cif->rtype->size == 8)
{
cif->flags = FFI_TYPE_SINT64; /* same as int64 type */
}
else
#endif
{
#ifdef X86_WIN32
if (cif->abi == FFI_MS_CDECL)
cif->flags = FFI_TYPE_MS_STRUCT;
else
#endif
cif->flags = FFI_TYPE_STRUCT;
/* allocate space for return value pointer */
cif->bytes += ALIGN(sizeof(void*), FFI_SIZEOF_ARG);
}
break;
default:
cif->flags = FFI_TYPE_INT;
break;
}
for (ptr = cif->arg_types, i = cif->nargs; i > 0; i--, ptr++)
{
if (((*ptr)->alignment - 1) & cif->bytes)
cif->bytes = ALIGN(cif->bytes, (*ptr)->alignment);
cif->bytes += (unsigned)ALIGN((*ptr)->size, FFI_SIZEOF_ARG);
}
#ifndef X86_WIN32
if (cif->abi == FFI_SYSV)
cif->bytes = (cif->bytes + 15) & ~0xF;
#endif
return FFI_OK;
}
extern void
ffi_call_win32(unsigned int (*)(char *, extended_cif *), extended_cif *,
unsigned, unsigned, unsigned, unsigned *, void (*fn)(void));
extern void ffi_call_SYSV(void (*)(char *, extended_cif *), extended_cif *,
unsigned, unsigned, unsigned *, void (*fn)(void));
void ffi_call(ffi_cif *cif, void (*fn)(void), void *rvalue, void **avalue)
{
extended_cif ecif;
ecif.cif = cif;
ecif.avalue = avalue;
/* If the return value is a struct and we don't have a return */
/* value address then we need to make one */
if (rvalue == NULL
&& (cif->flags == FFI_TYPE_STRUCT
|| cif->flags == FFI_TYPE_MS_STRUCT))
{
ecif.rvalue = alloca(cif->rtype->size);
}
else
ecif.rvalue = rvalue;
switch (cif->abi)
{
#ifndef X86_WIN32
case FFI_SYSV:
ffi_call_SYSV(ffi_prep_args, &ecif, cif->bytes, cif->flags, ecif.rvalue,
fn);
break;
#else
case FFI_SYSV:
case FFI_MS_CDECL:
#endif
case FFI_STDCALL:
case FFI_THISCALL:
case FFI_FASTCALL:
case FFI_PASCAL:
case FFI_REGISTER:
ffi_call_win32(ffi_prep_args, &ecif, cif->abi, cif->bytes, cif->flags,
ecif.rvalue, fn);
break;
default:
FFI_ASSERT(0);
break;
}
}
/** private members **/
/* The following __attribute__((regparm(1))) decorations will have no effect
on MSVC or SUNPRO_C -- standard conventions apply. */
static unsigned int ffi_prep_incoming_args (char *stack, void **ret,
void** args, ffi_cif* cif);
void FFI_HIDDEN ffi_closure_SYSV (ffi_closure *)
__attribute__ ((regparm(1)));
unsigned int FFI_HIDDEN ffi_closure_SYSV_inner (ffi_closure *, void **, void *)
__attribute__ ((regparm(1)));
unsigned int FFI_HIDDEN ffi_closure_WIN32_inner (ffi_closure *, void **, void *)
__attribute__ ((regparm(1)));
void FFI_HIDDEN ffi_closure_raw_SYSV (ffi_raw_closure *)
__attribute__ ((regparm(1)));
#ifdef X86_WIN32
void FFI_HIDDEN ffi_closure_raw_THISCALL (ffi_raw_closure *)
__attribute__ ((regparm(1)));
#endif
void FFI_HIDDEN ffi_closure_STDCALL (ffi_closure *);
void FFI_HIDDEN ffi_closure_THISCALL (ffi_closure *);
void FFI_HIDDEN ffi_closure_FASTCALL (ffi_closure *);
void FFI_HIDDEN ffi_closure_REGISTER (ffi_closure *);
/* This function is jumped to by the trampoline */
unsigned int FFI_HIDDEN __attribute__ ((regparm(1)))
ffi_closure_SYSV_inner (ffi_closure *closure, void **respp, void *args)
{
/* our various things... */
ffi_cif *cif;
void **arg_area;
cif = closure->cif;
arg_area = (void**) alloca (cif->nargs * sizeof (void*));
/* this call will initialize ARG_AREA, such that each
* element in that array points to the corresponding
* value on the stack; and if the function returns
* a structure, it will change RESP to point to the
* structure return address. */
ffi_prep_incoming_args(args, respp, arg_area, cif);
(closure->fun) (cif, *respp, arg_area, closure->user_data);
return cif->flags;
}
unsigned int FFI_HIDDEN __attribute__ ((regparm(1)))
ffi_closure_WIN32_inner (ffi_closure *closure, void **respp, void *args)
{
/* our various things... */
ffi_cif *cif;
void **arg_area;
unsigned int ret;
cif = closure->cif;
arg_area = (void**) alloca (cif->nargs * sizeof (void*));
/* this call will initialize ARG_AREA, such that each
* element in that array points to the corresponding
* value on the stack; and if the function returns
* a structure, it will change RESP to point to the
* structure return address. */
ret = ffi_prep_incoming_args(args, respp, arg_area, cif);
(closure->fun) (cif, *respp, arg_area, closure->user_data);
return ret;
}
static unsigned int
ffi_prep_incoming_args(char *stack, void **rvalue, void **avalue,
ffi_cif *cif)
{
register unsigned int i;
register void **p_argv;
register char *argp;
register ffi_type **p_arg;
const int cabi = cif->abi;
const int dir = (cabi == FFI_PASCAL || cabi == FFI_REGISTER) ? -1 : +1;
const unsigned int max_stack_count = (cabi == FFI_THISCALL) ? 1
: (cabi == FFI_FASTCALL) ? 2
: (cabi == FFI_REGISTER) ? 3
: 0;
unsigned int passed_regs = 0;
void *p_stack_data[3] = { stack - 1 };
argp = stack;
argp += max_stack_count * FFI_SIZEOF_ARG;
if ((cif->flags == FFI_TYPE_STRUCT
|| cif->flags == FFI_TYPE_MS_STRUCT))
{
if (passed_regs < max_stack_count)
{
*rvalue = *(void**) (stack + (passed_regs*FFI_SIZEOF_ARG));
++passed_regs;
}
else
{
*rvalue = *(void **) argp;
argp += sizeof(void *);
}
}
/* Do register arguments first */
for (i = 0, p_arg = cif->arg_types;
i < cif->nargs && passed_regs < max_stack_count;
i++, p_arg++)
{
if ((*p_arg)->type == FFI_TYPE_FLOAT
|| (*p_arg)->type == FFI_TYPE_STRUCT)
continue;
size_t sz = (*p_arg)->size;
if(sz == 0 || sz > FFI_SIZEOF_ARG)
continue;
p_stack_data[passed_regs] = avalue + i;
avalue[i] = stack + (passed_regs*FFI_SIZEOF_ARG);
++passed_regs;
}
p_arg = cif->arg_types;
p_argv = avalue;
if (dir < 0)
{
const int nargs = cif->nargs - 1;
if (nargs > 0)
{
p_arg += nargs;
p_argv += nargs;
}
}
for (i = cif->nargs;
i != 0;
i--, p_arg += dir, p_argv += dir)
{
/* Align if necessary */
if ((sizeof(void*) - 1) & (size_t) argp)
argp = (char *) ALIGN(argp, sizeof(void*));
size_t z = (*p_arg)->size;
if (passed_regs > 0
&& z <= FFI_SIZEOF_ARG
&& (p_argv == p_stack_data[0]
|| p_argv == p_stack_data[1]
|| p_argv == p_stack_data[2]))
{
/* Already assigned a register value */
continue;
}
else
{
/* because we're little endian, this is what it turns into. */
*p_argv = (void*) argp;
}
argp += z;
}
return (size_t)argp - (size_t)stack;
}
/* How to make a trampoline. Derived from gcc/config/i386/i386.c. */
#define FFI_INIT_TRAMPOLINE(TRAMP,FUN,CTX) \
{ unsigned char *__tramp = (unsigned char*)(TRAMP); \
unsigned int __fun = (unsigned int)(FUN); \
unsigned int __ctx = (unsigned int)(CTX); \
unsigned int __dis = __fun - (__ctx + 10); \
*(unsigned char*) &__tramp[0] = 0xb8; \
*(unsigned int*) &__tramp[1] = __ctx; /* movl __ctx, %eax */ \
*(unsigned char*) &__tramp[5] = 0xe9; \
*(unsigned int*) &__tramp[6] = __dis; /* jmp __fun */ \
}
#define FFI_INIT_TRAMPOLINE_RAW_THISCALL(TRAMP,FUN,CTX,SIZE) \
{ unsigned char *__tramp = (unsigned char*)(TRAMP); \
unsigned int __fun = (unsigned int)(FUN); \
unsigned int __ctx = (unsigned int)(CTX); \
unsigned int __dis = __fun - (__ctx + 49); \
unsigned short __size = (unsigned short)(SIZE); \
*(unsigned int *) &__tramp[0] = 0x8324048b; /* mov (%esp), %eax */ \
*(unsigned int *) &__tramp[4] = 0x4c890cec; /* sub $12, %esp */ \
*(unsigned int *) &__tramp[8] = 0x04890424; /* mov %ecx, 4(%esp) */ \
*(unsigned char*) &__tramp[12] = 0x24; /* mov %eax, (%esp) */ \
*(unsigned char*) &__tramp[13] = 0xb8; \
*(unsigned int *) &__tramp[14] = __size; /* mov __size, %eax */ \
*(unsigned int *) &__tramp[18] = 0x08244c8d; /* lea 8(%esp), %ecx */ \
*(unsigned int *) &__tramp[22] = 0x4802e8c1; /* shr $2, %eax ; dec %eax */ \
*(unsigned short*) &__tramp[26] = 0x0b74; /* jz 1f */ \
*(unsigned int *) &__tramp[28] = 0x8908518b; /* 2b: mov 8(%ecx), %edx */ \
*(unsigned int *) &__tramp[32] = 0x04c18311; /* mov %edx, (%ecx) ; add $4, %ecx */ \
*(unsigned char*) &__tramp[36] = 0x48; /* dec %eax */ \
*(unsigned short*) &__tramp[37] = 0xf575; /* jnz 2b ; 1f: */ \
*(unsigned char*) &__tramp[39] = 0xb8; \
*(unsigned int*) &__tramp[40] = __ctx; /* movl __ctx, %eax */ \
*(unsigned char *) &__tramp[44] = 0xe8; \
*(unsigned int*) &__tramp[45] = __dis; /* call __fun */ \
*(unsigned char*) &__tramp[49] = 0xc2; /* ret */ \
*(unsigned short*) &__tramp[50] = (__size + 8); /* ret (__size + 8) */ \
}
#define FFI_INIT_TRAMPOLINE_WIN32(TRAMP,FUN,CTX) \
{ unsigned char *__tramp = (unsigned char*)(TRAMP); \
unsigned int __fun = (unsigned int)(FUN); \
unsigned int __ctx = (unsigned int)(CTX); \
unsigned int __dis = __fun - (__ctx + 10); \
*(unsigned char*) &__tramp[0] = 0x68; \
*(unsigned int*) &__tramp[1] = __ctx; /* push __ctx */ \
*(unsigned char*) &__tramp[5] = 0xe9; \
*(unsigned int*) &__tramp[6] = __dis; /* jmp __fun */ \
}
/* the cif must already be prep'ed */
ffi_status
ffi_prep_closure_loc (ffi_closure* closure,
ffi_cif* cif,
void (*fun)(ffi_cif*,void*,void**,void*),
void *user_data,
void *codeloc)
{
if (cif->abi == FFI_SYSV)
{
FFI_INIT_TRAMPOLINE (&closure->tramp[0],
&ffi_closure_SYSV,
(void*)codeloc);
}
else if (cif->abi == FFI_REGISTER)
{
FFI_INIT_TRAMPOLINE_WIN32 (&closure->tramp[0],
&ffi_closure_REGISTER,
(void*)codeloc);
}
else if (cif->abi == FFI_FASTCALL)
{
FFI_INIT_TRAMPOLINE_WIN32 (&closure->tramp[0],
&ffi_closure_FASTCALL,
(void*)codeloc);
}
else if (cif->abi == FFI_THISCALL)
{
FFI_INIT_TRAMPOLINE_WIN32 (&closure->tramp[0],
&ffi_closure_THISCALL,
(void*)codeloc);
}
else if (cif->abi == FFI_STDCALL || cif->abi == FFI_PASCAL)
{
FFI_INIT_TRAMPOLINE_WIN32 (&closure->tramp[0],
&ffi_closure_STDCALL,
(void*)codeloc);
}
#ifdef X86_WIN32
else if (cif->abi == FFI_MS_CDECL)
{
FFI_INIT_TRAMPOLINE (&closure->tramp[0],
&ffi_closure_SYSV,
(void*)codeloc);
}
#endif /* X86_WIN32 */
else
{
return FFI_BAD_ABI;
}
closure->cif = cif;
closure->user_data = user_data;
closure->fun = fun;
return FFI_OK;
}
/* ------- Native raw API support -------------------------------- */
#if !FFI_NO_RAW_API
ffi_status
ffi_prep_raw_closure_loc (ffi_raw_closure* closure,
ffi_cif* cif,
void (*fun)(ffi_cif*,void*,ffi_raw*,void*),
void *user_data,
void *codeloc)
{
int i;
if (cif->abi != FFI_SYSV
#ifdef X86_WIN32
&& cif->abi != FFI_THISCALL
#endif
)
return FFI_BAD_ABI;
/* we currently don't support certain kinds of arguments for raw
closures. This should be implemented by a separate assembly
language routine, since it would require argument processing,
something we don't do now for performance. */
for (i = cif->nargs-1; i >= 0; i--)
{
FFI_ASSERT (cif->arg_types[i]->type != FFI_TYPE_STRUCT);
FFI_ASSERT (cif->arg_types[i]->type != FFI_TYPE_LONGDOUBLE);
}
#ifdef X86_WIN32
if (cif->abi == FFI_SYSV)
{
#endif
FFI_INIT_TRAMPOLINE (&closure->tramp[0], &ffi_closure_raw_SYSV,
codeloc);
#ifdef X86_WIN32
}
else if (cif->abi == FFI_THISCALL)
{
FFI_INIT_TRAMPOLINE_RAW_THISCALL (&closure->tramp[0], &ffi_closure_raw_THISCALL, codeloc, cif->bytes);
}
#endif
closure->cif = cif;
closure->user_data = user_data;
closure->fun = fun;
return FFI_OK;
}
static unsigned int
ffi_prep_args_raw(char *stack, extended_cif *ecif)
{
const ffi_cif *cif = ecif->cif;
unsigned int i, passed_regs = 0;
const unsigned int abi = cif->abi;
const unsigned int max_regs = (abi == FFI_THISCALL) ? 1
: (abi == FFI_FASTCALL) ? 2
: (abi == FFI_REGISTER) ? 3
: 0;
if (cif->flags == FFI_TYPE_STRUCT)
++passed_regs;
for (i = 0; i < cif->nargs && passed_regs <= max_regs; i++)
{
if (cif->arg_types[i]->type == FFI_TYPE_FLOAT
|| cif->arg_types[i]->type == FFI_TYPE_STRUCT)
continue;
size_t sz = cif->arg_types[i]->size;
if (sz == 0 || sz > FFI_SIZEOF_ARG)
continue;
++passed_regs;
}
memcpy (stack, ecif->avalue, cif->bytes);
return passed_regs;
}
/* we borrow this routine from libffi (it must be changed, though, to
* actually call the function passed in the first argument. as of
* libffi-1.20, this is not the case.)
*/
void
ffi_raw_call(ffi_cif *cif, void (*fn)(void), void *rvalue, ffi_raw *fake_avalue)
{
extended_cif ecif;
void **avalue = (void **)fake_avalue;
ecif.cif = cif;
ecif.avalue = avalue;
/* If the return value is a struct and we don't have a return */
/* value address then we need to make one */
if (rvalue == NULL
&& (cif->flags == FFI_TYPE_STRUCT
|| cif->flags == FFI_TYPE_MS_STRUCT))
{
ecif.rvalue = alloca(cif->rtype->size);
}
else
ecif.rvalue = rvalue;
switch (cif->abi)
{
#ifndef X86_WIN32
case FFI_SYSV:
ffi_call_SYSV(ffi_prep_args_raw, &ecif, cif->bytes, cif->flags,
ecif.rvalue, fn);
break;
#else
case FFI_SYSV:
case FFI_MS_CDECL:
#endif
case FFI_STDCALL:
case FFI_THISCALL:
case FFI_FASTCALL:
case FFI_PASCAL:
case FFI_REGISTER:
ffi_call_win32(ffi_prep_args_raw, &ecif, cif->abi, cif->bytes, cif->flags,
ecif.rvalue, fn);
break;
default:
FFI_ASSERT(0);
break;
}
}
#endif /* !FFI_NO_RAW_API */
#endif /* !__x86_64__ */
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