extern void Generate_Tlog(
const char* phase_name,
const char* trans_name,
SRCPOS srcpos,
const char* keyword,
const char* input_string,
const char* output_string,
const char* aux_info_string
)
{
if (Tlog_File==NULL)
return;
FmtAssert(phase_name!=NULL,("Null phase name !!"));
FmtAssert(trans_name!=NULL,("Null transformation name !!"));
if (keyword[0]=='\0')
keyword=dummy_word;
fprintf(Tlog_File, "\n%s %s %llu %s\n",
phase_name, trans_name, srcpos, keyword);
fprintf(Tlog_File, "{ %s }\n", input_string);
fprintf(Tlog_File, "{ %s }\n", output_string);
fprintf(Tlog_File, "{ %s }\n", aux_info_string);
}
/* =======================================================================
*
* PRQ_Top
*
* See interface description.
*
* =======================================================================
*/
void*
PRQ_Top( PRQ* prq )
{
FmtAssert(PRQ_size(prq) > 0,("Topping empty queue"));
return PRQ_Ith(prq,1);
}
/* =======================================================================
*
* PRQ_Upheap
*
* Sifts the heap_element at position 'index' in the heap (1-based) up to
* its appropriate position in the heap. If the heap element should not
* move closer to the root ("up"), it is not moved. The the new index of
* the heap_element is returned.
*
* =======================================================================
*/
static INT32
PRQ_Upheap(
PRQ* prq,
INT32 index
)
{
void* element;
FmtAssert(index <= PRQ_size(prq) && index > 0,
("PRQ_Upheap: index %d out of bounds %d",
index,PRQ_size(prq)));
element = PRQ_Ith(prq,index);
/* Note we do not perform a complete interchange in the body of the
* loop. We wait until we have found the correct position for
* 'element' before setting it.
*/
while ( index > 1 ) {
INT32 parent_index = index / 2;
void* parent = PRQ_Ith(prq,parent_index);
if ( ! PRQ_comparison_fn(prq)(element,parent) )
break;
PRQ_Set_Ith(prq,index,parent);
index = parent_index;
}
PRQ_Set_Ith(prq,index,element);
return index;
}
/* =======================================================================
*
* PRQ_Downheap
*
* Sifts the heap element at position 'index' in the heap (1-based) down
* to its appropriate position in the heap. If the heap element should
* not move further from the root ("down"), it is not moved. The the new
* index of the heap_element is returned.
*
* =======================================================================
*/
static INT32
PRQ_Downheap(
PRQ* prq,
INT32 index
)
{
void* element;
FmtAssert(index <= PRQ_size(prq) && index > 0,
("PRQ_down: index %d out of bounds %d",
index,PRQ_size(prq)));
element = PRQ_Ith(prq,index);
/* Note we do not perform a complete interchange in the body of the
* loop. We wait until we have found the correct position for
* 'element' before setting it.
*/
for(;;) {
void* left_child;
INT32 left_child_index = index * 2;
INT32 right_child_index = left_child_index + 1;
if ( left_child_index > PRQ_size(prq) ) break;
left_child = PRQ_Ith(prq,left_child_index);
/* If the right child is in the heap, and is "larger" than the left,
* try to interchange 'element' with the right child. If the
* interchange test fails, 'index' is the correct position for
* element.
*/
if ( right_child_index <= PRQ_size(prq)
&& PRQ_comparison_fn(prq)(PRQ_Ith(prq,right_child_index),
left_child)
) {
void* right_child = PRQ_Ith(prq,right_child_index);
if ( PRQ_comparison_fn(prq)(right_child,element) ) {
PRQ_Set_Ith(prq,index,right_child);
index = right_child_index;
}
else
break;
}
else if ( PRQ_comparison_fn(prq)(left_child,element) ) {
/* interchange with left child */
PRQ_Set_Ith(prq,index,left_child);
index = left_child_index;
}
else
break;
}
PRQ_Set_Ith(prq,index,element);
return index;
}
/* =======================================================================
*
* PRQ_DeleteTop
*
* See interface description.
*
* =======================================================================
*/
void*
PRQ_Delete_Top( PRQ* prq )
{
void* top_element;
FmtAssert(PRQ_size(prq) > 0,("Deleting from empty heap"));
top_element = PRQ_Ith(prq,1);
if ( PRQ_size(prq) == 1 )
PRQ_size(prq) = 0;
else {
/* Move the bottom element to the top nad sift it down to its proper
* position in the heap.
*/
void* bottom_element = PRQ_Ith(prq,PRQ_size(prq));
--PRQ_size(prq);
PRQ_Set_Ith(prq,1,bottom_element);
(void) PRQ_Downheap(prq,1);
}
return top_element;
}
BOOL
Validate_List ( LNK_LST *lst )
{
INT32 count = LST_Len(lst);
LST_ITM *p;
for ( p=LST_first(lst); p!=NULL; p=LST_next(p) ) {
if ( --count < 0 ) break;
}
if ( count != 0 ) {
if ( Get_Trace ( TKIND_INFO, TINFO_HARD, 0 ) ) {
fprintf ( TFile, "##### Validate_List: Invalid count #####\n" );
count = 10*LST_Len(lst);
for ( p=LST_first(lst); p!=NULL; p=LST_next(p) ) {
if ( --count < 0 ) break;
fprintf ( TFile, " 0x%08x: %d\n", p, LST_val(p) );
}
}
FmtAssert ( FALSE,
( "Validate_List: invalid count %d", LST_Len(lst) ) );
return FALSE;
}
return TRUE;
}
//*******************************************************
// Process the cc1 command line arguments.
//*******************************************************
void
Process_Cc1_Command_Line(gs_t arg_list)
{
INT i, j;
char *cp;
INT Src_Count = 0;
BOOL opt_set = FALSE;
INT argc = gs_length(arg_list);
char *argv;
// determine if it is C or C++ and set lang_cplus accordingly
argv = gs_s(gs_index(arg_list, 0));
char *command = Last_Pathname_Component(argv);
//printf("%s\n", command);
#ifdef FE_GNU_4_2_0
lang_cplus = !strcmp(command, "cc1plus42");
#else
lang_cplus = !strcmp(command, "cc1plus");
#endif
if (lang_cplus)
key_exceptions = 1;
for (i = 1; i < argc; i++) {
argv = gs_s(gs_index(arg_list, i));
// printf("%s\n", argv);
if ( *argv == '-' ) {
cp = argv+1; /* Pointer to next flag character */
switch ( *cp++ ) {
case 'a':
if (!strcmp( cp, "uxbase" ))
i++;
break;
case 'd':
if (!strcmp( cp, "umpbase" ))
{
i++;
Orig_Src_File_Name = gs_s(gs_index(arg_list, i));
}
break;
case 'e':
if (lang_cplus && !strcmp( cp, "xceptions" ))
key_exceptions = TRUE;
break;
case 'f':
if (!strcmp( cp, "no-exceptions" )) {
key_exceptions = FALSE;
}
else if (lang_cplus && !strcmp( cp, "exceptions" )) {
key_exceptions = TRUE;
}
else if (!strcmp( cp, "no-gnu-exceptions")) {
// GNU exceptions off, turn off exception here also.
key_exceptions = FALSE;
}
else if (!lang_cplus && !strcmp( cp, "no-c-omit-external")) {
c_omit_external = FALSE;
}
else if (!lang_cplus && !strcmp( cp, "c-omit-external")) {
c_omit_external = TRUE;
}
#ifdef FE_GNU_4_2_0
else if (!strcmp( cp, "no-cxx-openmp")) {
enable_cxx_openmp = FALSE;
}
else if (lang_cplus && !strcmp( cp, "cxx-openmp")) {
enable_cxx_openmp = TRUE;
}
#endif
break;
case 'g': /* Debug level: */
Debug_Level = Get_Numeric_Flag (&cp, 0, MAX_DEBUG_LEVEL, 2,
argv);
if (Debug_Level > 1 && !opt_set)
Opt_Level = 0;
break;
case 'i':
if (!strcmp( cp, "prefix" ))
i++;
break;
case 'm':
#ifndef TARG_MIPS
if (!strcmp( cp, "32" )) {
TARGET_64BIT = FALSE;
}
else if (!strcmp( cp, "64" )) {
TARGET_64BIT = TRUE;
}
else if (!strncmp( cp, "regparm=", 8 )) {
cp += 8;
Reg_Parm_Count = Get_Numeric_Flag (&cp, 0, 3, 0, argv );
}
else if (!strcmp( cp, "sseregparm" )) {
SSE_Reg_Parm = TRUE;
}
#else
// 11953: MIPS expects -mabi=n32 or -mabi=64
if (!strcmp( cp, "abi=n32" )) {
TARGET_64BIT = FALSE;
}
else if (!strcmp( cp, "abi=64" )) {
TARGET_64BIT = TRUE;
}
#endif
break;
case 'o':
if (*cp == 0)
i++;
break;
case 'p':
if (!strcmp( cp, "static_as_global" )) {
pstatic_as_global = TRUE;
}
break;
case 'O': /* Optimization level: */
Opt_Level = Get_Numeric_Flag (&cp, 0, MAX_OPT_LEVEL,
DEF_O_LEVEL, argv );
opt_set = TRUE;
break;
case 's':
if (!strcmp( cp, "pinfile" ))
i++;
break;
case 'v':
Show_Progress = TRUE;
break;
default: /* What's this? */
break;
}
} else if (argv != NULL) {
Src_Count++;
FmtAssert(Src_Count == 1,
("wgen passed more than one source file in command line"));
Src_File_Name = argv;
if (Orig_Src_File_Name == NULL)
Orig_Src_File_Name = argv;
}
}
}
/* ====================================================================
*
* TI_RES_RES_Resources_Relevant
*
* See interface description
*
* ====================================================================
*/
BOOL TI_RES_RES_Resources_Relevant(
TI_RES_RES *res,
TOP opcode1,
TOP opcode2,
INT offset
)
{
INT length1, length2, i;
const INT32 length = TI_RES_RES_length(res);
const SI_RESOURCE_ID_SET *const res_ids1
= TSI_II_Cycle_Resource_Ids_Used(opcode1,length);
const SI_RESOURCE_ID_SET *const res_ids2
= TSI_II_Cycle_Resource_Ids_Used(opcode2,length);
const INT rr1_length
= SI_RR_Length(TSI_II_Resource_Requirement(opcode1,length));
const INT rr2_length
= SI_RR_Length(TSI_II_Resource_Requirement(opcode2,length));
const INT offset_mod_ii = Cycle_Mod_II(offset,length);
const SI_RESOURCE_ID_SET *const uncommon_res_ids
= TI_RES_RES_uncommon_res_ids(res);
FmtAssert (TI_RES_RES_cyclic(res),
("TI_RES_RES_Resources_Relevant not applicable to non-cyclic schedules"));
/* Check from the start of rr2 until either the end of rr2 or the end of
* rr1 + offset (which cannot be greater than II-1.)
*/
length1 = rr1_length - offset_mod_ii;
if ( rr2_length < length1 ) length1 = rr2_length;
for ( i = 0; i < length1; ++i ) {
if ( SI_RESOURCE_ID_SET_Intersection4_Non_Empty(
res_ids1[i + offset_mod_ii],
uncommon_res_ids[i + offset_mod_ii],
res_ids2[i],
uncommon_res_ids[i] )
) {
return TRUE;
}
}
/* The resource requirements for opcode1 (rr1) and opcode2 (rr2)
* are already modulo the II. But we are comparing rr2 at an offset
* from rr1, therefore we may have some cycles and the end of rr2
* that wrap around to the beginning of rr1. If that is the case,
* check those cycles. Note that rr2 can only wrap once (because
* we have use the offset mod II), and some cycles in the middle
* of rr2 may not need to be checked against rr1 (because rr1 might
* consume no resource in those cycles).
*/
length2 = (rr2_length + offset_mod_ii) - length;
if ( length > 0 ) {
if ( rr1_length < length2 ) length2 = rr1_length;
for ( i = 0; i < length2; ++i ) {
if ( SI_RESOURCE_ID_SET_Intersection4_Non_Empty(
res_ids1[i],
uncommon_res_ids[i],
res_ids2[i + length - offset_mod_ii],
uncommon_res_ids[i + length - offset_mod_ii] )
) {
return TRUE;
}
}
}
return FALSE;
}
