util/romcc: Fix typos

Change-Id: Ia9f0f1f527476900e6c54c60508600e16bea786f
Signed-off-by: Elyes HAOUAS <ehaouas@noos.fr>
Reviewed-on: https://review.coreboot.org/28293
Tested-by: build bot (Jenkins) <no-reply@coreboot.org>
Reviewed-by: Martin Roth <martinroth@google.com>
This commit is contained in:
Elyes HAOUAS 2018-08-23 18:24:32 +02:00 committed by Martin Roth
parent 3db0198358
commit 8fda8f4ac3
6 changed files with 182 additions and 182 deletions

View File

@ -446,14 +446,14 @@ struct token {
#define OP_UEXTRACT 34 #define OP_UEXTRACT 34
/* OP_UEXTRACT extracts an unsigned bitfield from a pseudo register /* OP_UEXTRACT extracts an unsigned bitfield from a pseudo register
* RHS(0) holds the psuedo register to extract from * RHS(0) holds the pseudo register to extract from
* ->type holds the size of the bitfield. * ->type holds the size of the bitfield.
* ->u.bitfield.size holds the size of the bitfield. * ->u.bitfield.size holds the size of the bitfield.
* ->u.bitfield.offset holds the offset to extract from * ->u.bitfield.offset holds the offset to extract from
*/ */
#define OP_SEXTRACT 35 #define OP_SEXTRACT 35
/* OP_SEXTRACT extracts a signed bitfield from a pseudo register /* OP_SEXTRACT extracts a signed bitfield from a pseudo register
* RHS(0) holds the psuedo register to extract from * RHS(0) holds the pseudo register to extract from
* ->type holds the size of the bitfield. * ->type holds the size of the bitfield.
* ->u.bitfield.size holds the size of the bitfield. * ->u.bitfield.size holds the size of the bitfield.
* ->u.bitfield.offset holds the offset to extract from * ->u.bitfield.offset holds the offset to extract from
@ -495,7 +495,7 @@ struct token {
#define OP_WRITE 60 #define OP_WRITE 60
/* OP_WRITE moves one pseudo register to another. /* OP_WRITE moves one pseudo register to another.
* MISC(0) holds the destination pseudo register, which must be an OP_DECL. * MISC(0) holds the destination pseudo register, which must be an OP_DECL.
* RHS(0) holds the psuedo to move. * RHS(0) holds the pseudo to move.
*/ */
#define OP_READ 61 #define OP_READ 61
@ -926,13 +926,13 @@ struct triple_set {
#define MAX_MISC 3 #define MAX_MISC 3
#define MAX_TARG 1 #define MAX_TARG 1
struct occurance { struct occurrence {
int count; int count;
const char *filename; const char *filename;
const char *function; const char *function;
int line; int line;
int col; int col;
struct occurance *parent; struct occurrence *parent;
}; };
struct bitfield { struct bitfield {
ulong_t size : 8; ulong_t size : 8;
@ -967,7 +967,7 @@ struct triple {
#define TRIPLE_FLAG_LOCAL (1 << 26) #define TRIPLE_FLAG_LOCAL (1 << 26)
#define TRIPLE_FLAG_COPY TRIPLE_FLAG_VOLATILE #define TRIPLE_FLAG_COPY TRIPLE_FLAG_VOLATILE
struct occurance *occurance; struct occurrence *occurrence;
union { union {
ulong_t cval; ulong_t cval;
struct bitfield bitfield; struct bitfield bitfield;
@ -1081,7 +1081,7 @@ struct compile_state {
FILE *errout; FILE *errout;
FILE *dbgout; FILE *dbgout;
struct file_state *file; struct file_state *file;
struct occurance *last_occurance; struct occurrence *last_occurrence;
const char *function; const char *function;
int token_base; int token_base;
struct token token[6]; struct token token[6];
@ -1765,9 +1765,9 @@ static int get_col(struct file_state *file)
static void loc(FILE *fp, struct compile_state *state, struct triple *triple) static void loc(FILE *fp, struct compile_state *state, struct triple *triple)
{ {
int col; int col;
if (triple && triple->occurance) { if (triple && triple->occurrence) {
struct occurance *spot; struct occurrence *spot;
for(spot = triple->occurance; spot; spot = spot->parent) { for(spot = triple->occurrence; spot; spot = spot->parent) {
fprintf(fp, "%s:%d.%d: ", fprintf(fp, "%s:%d.%d: ",
spot->filename, spot->line, spot->col); spot->filename, spot->line, spot->col);
} }
@ -1944,30 +1944,30 @@ static void unuse_triple(struct triple *used, struct triple *unuser)
} }
} }
static void put_occurance(struct occurance *occurance) static void put_occurrence(struct occurrence *occurrence)
{ {
if (occurance) { if (occurrence) {
occurance->count -= 1; occurrence->count -= 1;
if (occurance->count <= 0) { if (occurrence->count <= 0) {
if (occurance->parent) { if (occurrence->parent) {
put_occurance(occurance->parent); put_occurrence(occurrence->parent);
} }
xfree(occurance); xfree(occurrence);
} }
} }
} }
static void get_occurance(struct occurance *occurance) static void get_occurrence(struct occurrence *occurrence)
{ {
if (occurance) { if (occurrence) {
occurance->count += 1; occurrence->count += 1;
} }
} }
static struct occurance *new_occurance(struct compile_state *state) static struct occurrence *new_occurrence(struct compile_state *state)
{ {
struct occurance *result, *last; struct occurrence *result, *last;
const char *filename; const char *filename;
const char *function; const char *function;
int line, col; int line, col;
@ -1984,7 +1984,7 @@ static struct occurance *new_occurance(struct compile_state *state)
if (state->function) { if (state->function) {
function = state->function; function = state->function;
} }
last = state->last_occurance; last = state->last_occurrence;
if (last && if (last &&
(last->col == col) && (last->col == col) &&
(last->line == line) && (last->line == line) &&
@ -1992,28 +1992,28 @@ static struct occurance *new_occurance(struct compile_state *state)
((last->filename == filename) || ((last->filename == filename) ||
(strcmp(last->filename, filename) == 0))) (strcmp(last->filename, filename) == 0)))
{ {
get_occurance(last); get_occurrence(last);
return last; return last;
} }
if (last) { if (last) {
state->last_occurance = 0; state->last_occurrence = 0;
put_occurance(last); put_occurrence(last);
} }
result = xmalloc(sizeof(*result), "occurance"); result = xmalloc(sizeof(*result), "occurrence");
result->count = 2; result->count = 2;
result->filename = filename; result->filename = filename;
result->function = function; result->function = function;
result->line = line; result->line = line;
result->col = col; result->col = col;
result->parent = 0; result->parent = 0;
state->last_occurance = result; state->last_occurrence = result;
return result; return result;
} }
static struct occurance *inline_occurance(struct compile_state *state, static struct occurrence *inline_occurrence(struct compile_state *state,
struct occurance *base, struct occurance *top) struct occurrence *base, struct occurrence *top)
{ {
struct occurance *result, *last; struct occurrence *result, *last;
if (top->parent) { if (top->parent) {
internal_error(state, 0, "inlining an already inlined function?"); internal_error(state, 0, "inlining an already inlined function?");
} }
@ -2025,36 +2025,36 @@ static struct occurance *inline_occurance(struct compile_state *state,
(base->filename[0] == '\0')) { (base->filename[0] == '\0')) {
base = 0; base = 0;
} }
/* See if I can reuse the last occurance I had */ /* See if I can reuse the last occurrence I had */
last = state->last_occurance; last = state->last_occurrence;
if (last && if (last &&
(last->parent == base) && (last->parent == base) &&
(last->col == top->col) && (last->col == top->col) &&
(last->line == top->line) && (last->line == top->line) &&
(last->function == top->function) && (last->function == top->function) &&
(last->filename == top->filename)) { (last->filename == top->filename)) {
get_occurance(last); get_occurrence(last);
return last; return last;
} }
/* I can't reuse the last occurance so free it */ /* I can't reuse the last occurrence so free it */
if (last) { if (last) {
state->last_occurance = 0; state->last_occurrence = 0;
put_occurance(last); put_occurrence(last);
} }
/* Generate a new occurance structure */ /* Generate a new occurrence structure */
get_occurance(base); get_occurrence(base);
result = xmalloc(sizeof(*result), "occurance"); result = xmalloc(sizeof(*result), "occurrence");
result->count = 2; result->count = 2;
result->filename = top->filename; result->filename = top->filename;
result->function = top->function; result->function = top->function;
result->line = top->line; result->line = top->line;
result->col = top->col; result->col = top->col;
result->parent = base; result->parent = base;
state->last_occurance = result; state->last_occurrence = result;
return result; return result;
} }
static struct occurance dummy_occurance = { static struct occurrence dummy_occurrence = {
.count = 2, .count = 2,
.filename = __FILE__, .filename = __FILE__,
.function = "", .function = "",
@ -2079,7 +2079,7 @@ static struct triple unknown_triple = {
.type = &unknown_type, .type = &unknown_type,
.id = -1, /* An invalid id */ .id = -1, /* An invalid id */
.u = { .cval = 0, }, .u = { .cval = 0, },
.occurance = &dummy_occurance, .occurrence = &dummy_occurrence,
.param = { [0] = 0, [1] = 0, }, .param = { [0] = 0, [1] = 0, },
}; };
@ -2088,13 +2088,13 @@ static size_t registers_of(struct compile_state *state, struct type *type);
static struct triple *alloc_triple(struct compile_state *state, static struct triple *alloc_triple(struct compile_state *state,
int op, struct type *type, int lhs_wanted, int rhs_wanted, int op, struct type *type, int lhs_wanted, int rhs_wanted,
struct occurance *occurance) struct occurrence *occurrence)
{ {
size_t size, extra_count, min_count; size_t size, extra_count, min_count;
int lhs, rhs, misc, targ; int lhs, rhs, misc, targ;
struct triple *ret, dummy; struct triple *ret, dummy;
dummy.op = op; dummy.op = op;
dummy.occurance = occurance; dummy.occurrence = occurrence;
valid_op(state, op); valid_op(state, op);
lhs = table_ops[op].lhs; lhs = table_ops[op].lhs;
rhs = table_ops[op].rhs; rhs = table_ops[op].rhs;
@ -2146,7 +2146,7 @@ static struct triple *alloc_triple(struct compile_state *state,
ret->type = type; ret->type = type;
ret->next = ret; ret->next = ret;
ret->prev = ret; ret->prev = ret;
ret->occurance = occurance; ret->occurrence = occurrence;
/* A simple sanity check */ /* A simple sanity check */
if ((ret->op != op) || if ((ret->op != op) ||
(ret->lhs != lhs) || (ret->lhs != lhs) ||
@ -2156,7 +2156,7 @@ static struct triple *alloc_triple(struct compile_state *state,
(ret->type != type) || (ret->type != type) ||
(ret->next != ret) || (ret->next != ret) ||
(ret->prev != ret) || (ret->prev != ret) ||
(ret->occurance != occurance)) { (ret->occurrence != occurrence)) {
internal_error(state, ret, "huh?"); internal_error(state, ret, "huh?");
} }
return ret; return ret;
@ -2169,9 +2169,9 @@ struct triple *dup_triple(struct compile_state *state, struct triple *src)
src_lhs = src->lhs; src_lhs = src->lhs;
src_rhs = src->rhs; src_rhs = src->rhs;
src_size = TRIPLE_SIZE(src); src_size = TRIPLE_SIZE(src);
get_occurance(src->occurance); get_occurrence(src->occurrence);
dup = alloc_triple(state, src->op, src->type, src_lhs, src_rhs, dup = alloc_triple(state, src->op, src->type, src_lhs, src_rhs,
src->occurance); src->occurrence);
memcpy(dup, src, sizeof(*src)); memcpy(dup, src, sizeof(*src));
memcpy(dup->param, src->param, src_size * sizeof(src->param[0])); memcpy(dup->param, src->param, src_size * sizeof(src->param[0]));
return dup; return dup;
@ -2190,19 +2190,19 @@ static struct triple *new_triple(struct compile_state *state,
int op, struct type *type, int lhs, int rhs) int op, struct type *type, int lhs, int rhs)
{ {
struct triple *ret; struct triple *ret;
struct occurance *occurance; struct occurrence *occurrence;
occurance = new_occurance(state); occurrence = new_occurrence(state);
ret = alloc_triple(state, op, type, lhs, rhs, occurance); ret = alloc_triple(state, op, type, lhs, rhs, occurrence);
return ret; return ret;
} }
static struct triple *build_triple(struct compile_state *state, static struct triple *build_triple(struct compile_state *state,
int op, struct type *type, struct triple *left, struct triple *right, int op, struct type *type, struct triple *left, struct triple *right,
struct occurance *occurance) struct occurrence *occurrence)
{ {
struct triple *ret; struct triple *ret;
size_t count; size_t count;
ret = alloc_triple(state, op, type, -1, -1, occurance); ret = alloc_triple(state, op, type, -1, -1, occurrence);
count = TRIPLE_SIZE(ret); count = TRIPLE_SIZE(ret);
if (count > 0) { if (count > 0) {
ret->param[0] = left; ret->param[0] = left;
@ -2314,8 +2314,8 @@ static struct triple *pre_triple(struct compile_state *state,
base = MISC(base, 0); base = MISC(base, 0);
} }
block = block_of_triple(state, base); block = block_of_triple(state, base);
get_occurance(base->occurance); get_occurrence(base->occurrence);
ret = build_triple(state, op, type, left, right, base->occurance); ret = build_triple(state, op, type, left, right, base->occurrence);
generate_lhs_pieces(state, ret); generate_lhs_pieces(state, ret);
if (triple_stores_block(state, ret)) { if (triple_stores_block(state, ret)) {
ret->u.block = block; ret->u.block = block;
@ -2352,8 +2352,8 @@ static struct triple *post_triple(struct compile_state *state,
} }
block = block_of_triple(state, base); block = block_of_triple(state, base);
get_occurance(base->occurance); get_occurrence(base->occurrence);
ret = build_triple(state, op, type, left, right, base->occurance); ret = build_triple(state, op, type, left, right, base->occurrence);
generate_lhs_pieces(state, ret); generate_lhs_pieces(state, ret);
if (triple_stores_block(state, ret)) { if (triple_stores_block(state, ret)) {
ret->u.block = block; ret->u.block = block;
@ -2385,7 +2385,7 @@ static void generate_lhs_piece(
{ {
struct type *piece_type; struct type *piece_type;
struct triple *piece; struct triple *piece;
get_occurance(ins->occurance); get_occurrence(ins->occurrence);
piece_type = reg_type(state, ins->type, index * REG_SIZEOF_REG); piece_type = reg_type(state, ins->type, index * REG_SIZEOF_REG);
if ((piece_type->type & TYPE_MASK) == TYPE_BITFIELD) { if ((piece_type->type & TYPE_MASK) == TYPE_BITFIELD) {
@ -2400,7 +2400,7 @@ static void generate_lhs_piece(
fprintf(fp, "\n"); fprintf(fp, "\n");
} }
#endif #endif
piece = alloc_triple(state, OP_PIECE, piece_type, -1, -1, ins->occurance); piece = alloc_triple(state, OP_PIECE, piece_type, -1, -1, ins->occurrence);
piece->u.cval = index; piece->u.cval = index;
LHS(ins, piece->u.cval) = piece; LHS(ins, piece->u.cval) = piece;
MISC(piece, 0) = ins; MISC(piece, 0) = ins;
@ -2447,7 +2447,7 @@ static struct triple *mkprog(struct compile_state *state, ...)
static void name_of(FILE *fp, struct type *type); static void name_of(FILE *fp, struct type *type);
static void display_triple(FILE *fp, struct triple *ins) static void display_triple(FILE *fp, struct triple *ins)
{ {
struct occurance *ptr; struct occurrence *ptr;
const char *reg; const char *reg;
char pre, post, vol; char pre, post, vol;
pre = post = vol = ' '; pre = post = vol = ' ';
@ -2519,7 +2519,7 @@ static void display_triple(FILE *fp, struct triple *ins)
fprintf(fp, " ]"); fprintf(fp, " ]");
#endif #endif
fprintf(fp, " @"); fprintf(fp, " @");
for(ptr = ins->occurance; ptr; ptr = ptr->parent) { for(ptr = ins->occurrence; ptr; ptr = ptr->parent) {
fprintf(fp, " %s,%s:%d.%d", fprintf(fp, " %s,%s:%d.%d",
ptr->function, ptr->function,
ptr->filename, ptr->filename,
@ -2548,7 +2548,7 @@ static void display_triple_changes(
orig_count * sizeof(orig->param[0])) != 0) || orig_count * sizeof(orig->param[0])) != 0) ||
(memcmp(&orig->u, &new->u, sizeof(orig->u)) != 0)) (memcmp(&orig->u, &new->u, sizeof(orig->u)) != 0))
{ {
struct occurance *ptr; struct occurrence *ptr;
int i, min_count, indent; int i, min_count, indent;
fprintf(fp, "(%p %p)", new, orig); fprintf(fp, "(%p %p)", new, orig);
if (orig->op == new->op) { if (orig->op == new->op) {
@ -2602,7 +2602,7 @@ static void display_triple_changes(
#endif #endif
fprintf(fp, " @"); fprintf(fp, " @");
for(ptr = orig->occurance; ptr; ptr = ptr->parent) { for(ptr = orig->occurrence; ptr; ptr = ptr->parent) {
fprintf(fp, " %s,%s:%d.%d", fprintf(fp, " %s,%s:%d.%d",
ptr->function, ptr->function,
ptr->filename, ptr->filename,
@ -2980,7 +2980,7 @@ static void free_triple(struct compile_state *state, struct triple *ptr)
if (ptr->use) { if (ptr->use) {
internal_error(state, ptr, "ptr->use != 0"); internal_error(state, ptr, "ptr->use != 0");
} }
put_occurance(ptr->occurance); put_occurrence(ptr->occurrence);
memset(ptr, -1, size); memset(ptr, -1, size);
xfree(ptr); xfree(ptr);
} }
@ -5534,7 +5534,7 @@ static void preprocess(struct compile_state *state, struct token *current_token)
break; break;
} }
case TOK_EOL: case TOK_EOL:
/* Ignore # without a follwing ident */ /* Ignore # without a following ident */
break; break;
default: default:
{ {
@ -8145,7 +8145,7 @@ static void replace_use(struct compile_state *state,
} }
} }
static void propogate_use(struct compile_state *state, static void propagate_use(struct compile_state *state,
struct triple *orig, struct triple *new) struct triple *orig, struct triple *new)
{ {
struct triple_set *user, *next; struct triple_set *user, *next;
@ -8158,7 +8158,7 @@ static void propogate_use(struct compile_state *state,
replace_use(state, orig, new, user->member); replace_use(state, orig, new, user->member);
} }
if (orig->use) { if (orig->use) {
internal_error(state, orig, "used after propogate_use"); internal_error(state, orig, "used after propagate_use");
} }
} }
@ -8786,7 +8786,7 @@ static struct triple *decompose_with_tuple(struct compile_state *state,
tuple = tmp; tuple = tmp;
} }
propogate_use(state, ins, tuple); propagate_use(state, ins, tuple);
release_triple(state, ins); release_triple(state, ins);
return next; return next;
@ -8805,18 +8805,18 @@ static struct triple *decompose_unknownval(struct compile_state *state,
fprintf(fp, "\n"); fprintf(fp, "\n");
#endif #endif
get_occurance(ins->occurance); get_occurrence(ins->occurrence);
tuple = alloc_triple(state, OP_TUPLE, ins->type, -1, -1, tuple = alloc_triple(state, OP_TUPLE, ins->type, -1, -1,
ins->occurance); ins->occurrence);
for(i = 0; i < tuple->lhs; i++) { for(i = 0; i < tuple->lhs; i++) {
struct type *piece_type; struct type *piece_type;
struct triple *unknown; struct triple *unknown;
piece_type = reg_type(state, ins->type, i * REG_SIZEOF_REG); piece_type = reg_type(state, ins->type, i * REG_SIZEOF_REG);
get_occurance(tuple->occurance); get_occurrence(tuple->occurrence);
unknown = alloc_triple(state, OP_UNKNOWNVAL, piece_type, 0, 0, unknown = alloc_triple(state, OP_UNKNOWNVAL, piece_type, 0, 0,
tuple->occurance); tuple->occurrence);
LHS(tuple, i) = unknown; LHS(tuple, i) = unknown;
} }
return decompose_with_tuple(state, ins, tuple); return decompose_with_tuple(state, ins, tuple);
@ -8834,9 +8834,9 @@ static struct triple *decompose_read(struct compile_state *state,
if (lval->op == OP_PIECE) { if (lval->op == OP_PIECE) {
return ins->next; return ins->next;
} }
get_occurance(ins->occurance); get_occurrence(ins->occurrence);
tuple = alloc_triple(state, OP_TUPLE, lval->type, -1, -1, tuple = alloc_triple(state, OP_TUPLE, lval->type, -1, -1,
ins->occurance); ins->occurrence);
if ((tuple->lhs != lval->lhs) && if ((tuple->lhs != lval->lhs) &&
(!triple_is_def(state, lval) || (tuple->lhs != 1))) (!triple_is_def(state, lval) || (tuple->lhs != 1)))
@ -8858,9 +8858,9 @@ static struct triple *decompose_read(struct compile_state *state,
piece = RHS(bitref, 0); piece = RHS(bitref, 0);
} }
get_occurance(tuple->occurance); get_occurrence(tuple->occurrence);
read = alloc_triple(state, OP_READ, piece->type, -1, -1, read = alloc_triple(state, OP_READ, piece->type, -1, -1,
tuple->occurance); tuple->occurrence);
RHS(read, 0) = piece; RHS(read, 0) = piece;
if (bitref) { if (bitref) {
@ -8871,9 +8871,9 @@ static struct triple *decompose_read(struct compile_state *state,
} else { } else {
op = OP_UEXTRACT; op = OP_UEXTRACT;
} }
get_occurance(tuple->occurance); get_occurrence(tuple->occurrence);
extract = alloc_triple(state, op, bitref->type, -1, -1, extract = alloc_triple(state, op, bitref->type, -1, -1,
tuple->occurance); tuple->occurrence);
RHS(extract, 0) = read; RHS(extract, 0) = read;
extract->u.bitfield.size = bitref->u.bitfield.size; extract->u.bitfield.size = bitref->u.bitfield.size;
extract->u.bitfield.offset = bitref->u.bitfield.offset; extract->u.bitfield.offset = bitref->u.bitfield.offset;
@ -8894,9 +8894,9 @@ static struct triple *decompose_write(struct compile_state *state,
lval = MISC(ins, 0); lval = MISC(ins, 0);
val = RHS(ins, 0); val = RHS(ins, 0);
get_occurance(ins->occurance); get_occurrence(ins->occurrence);
tuple = alloc_triple(state, OP_TUPLE, ins->type, -1, -1, tuple = alloc_triple(state, OP_TUPLE, ins->type, -1, -1,
ins->occurance); ins->occurrence);
if ((tuple->lhs != lval->lhs) && if ((tuple->lhs != lval->lhs) &&
(!triple_is_def(state, lval) || tuple->lhs != 1)) (!triple_is_def(state, lval) || tuple->lhs != 1))
@ -8928,15 +8928,15 @@ static struct triple *decompose_write(struct compile_state *state,
piece = RHS(bitref, 0); piece = RHS(bitref, 0);
/* Read the destination register */ /* Read the destination register */
get_occurance(tuple->occurance); get_occurrence(tuple->occurrence);
read = alloc_triple(state, OP_READ, piece->type, -1, -1, read = alloc_triple(state, OP_READ, piece->type, -1, -1,
tuple->occurance); tuple->occurrence);
RHS(read, 0) = piece; RHS(read, 0) = piece;
/* Deposit the new bitfield value */ /* Deposit the new bitfield value */
get_occurance(tuple->occurance); get_occurrence(tuple->occurrence);
deposit = alloc_triple(state, OP_DEPOSIT, piece->type, -1, -1, deposit = alloc_triple(state, OP_DEPOSIT, piece->type, -1, -1,
tuple->occurance); tuple->occurrence);
RHS(deposit, 0) = read; RHS(deposit, 0) = read;
RHS(deposit, 1) = pval; RHS(deposit, 1) = pval;
deposit->u.bitfield.size = bitref->u.bitfield.size; deposit->u.bitfield.size = bitref->u.bitfield.size;
@ -8946,9 +8946,9 @@ static struct triple *decompose_write(struct compile_state *state,
pval = deposit; pval = deposit;
} }
get_occurance(tuple->occurance); get_occurrence(tuple->occurrence);
write = alloc_triple(state, OP_WRITE, piece->type, -1, -1, write = alloc_triple(state, OP_WRITE, piece->type, -1, -1,
tuple->occurance); tuple->occurrence);
MISC(write, 0) = piece; MISC(write, 0) = piece;
RHS(write, 0) = pval; RHS(write, 0) = pval;
LHS(tuple, i) = write; LHS(tuple, i) = write;
@ -8957,7 +8957,7 @@ static struct triple *decompose_write(struct compile_state *state,
} }
struct decompose_load_info { struct decompose_load_info {
struct occurance *occurance; struct occurrence *occurrence;
struct triple *lval; struct triple *lval;
struct triple *tuple; struct triple *tuple;
}; };
@ -8970,8 +8970,8 @@ static void decompose_load_cb(struct compile_state *state,
if (reg_offset > info->tuple->lhs) { if (reg_offset > info->tuple->lhs) {
internal_error(state, info->tuple, "lhs to small?"); internal_error(state, info->tuple, "lhs to small?");
} }
get_occurance(info->occurance); get_occurrence(info->occurrence);
load = alloc_triple(state, OP_LOAD, type, -1, -1, info->occurance); load = alloc_triple(state, OP_LOAD, type, -1, -1, info->occurrence);
RHS(load, 0) = mk_addr_expr(state, info->lval, mem_offset); RHS(load, 0) = mk_addr_expr(state, info->lval, mem_offset);
LHS(info->tuple, reg_offset/REG_SIZEOF_REG) = load; LHS(info->tuple, reg_offset/REG_SIZEOF_REG) = load;
} }
@ -8985,11 +8985,11 @@ static struct triple *decompose_load(struct compile_state *state,
if (!is_compound_type(ins->type)) { if (!is_compound_type(ins->type)) {
return ins->next; return ins->next;
} }
get_occurance(ins->occurance); get_occurrence(ins->occurrence);
tuple = alloc_triple(state, OP_TUPLE, ins->type, -1, -1, tuple = alloc_triple(state, OP_TUPLE, ins->type, -1, -1,
ins->occurance); ins->occurrence);
info.occurance = ins->occurance; info.occurrence = ins->occurrence;
info.lval = RHS(ins, 0); info.lval = RHS(ins, 0);
info.tuple = tuple; info.tuple = tuple;
walk_type_fields(state, ins->type, 0, 0, decompose_load_cb, &info); walk_type_fields(state, ins->type, 0, 0, decompose_load_cb, &info);
@ -8999,7 +8999,7 @@ static struct triple *decompose_load(struct compile_state *state,
struct decompose_store_info { struct decompose_store_info {
struct occurance *occurance; struct occurrence *occurrence;
struct triple *lval; struct triple *lval;
struct triple *val; struct triple *val;
struct triple *tuple; struct triple *tuple;
@ -9013,8 +9013,8 @@ static void decompose_store_cb(struct compile_state *state,
if (reg_offset > info->tuple->lhs) { if (reg_offset > info->tuple->lhs) {
internal_error(state, info->tuple, "lhs to small?"); internal_error(state, info->tuple, "lhs to small?");
} }
get_occurance(info->occurance); get_occurrence(info->occurrence);
store = alloc_triple(state, OP_STORE, type, -1, -1, info->occurance); store = alloc_triple(state, OP_STORE, type, -1, -1, info->occurrence);
RHS(store, 0) = mk_addr_expr(state, info->lval, mem_offset); RHS(store, 0) = mk_addr_expr(state, info->lval, mem_offset);
RHS(store, 1) = LHS(info->val, reg_offset); RHS(store, 1) = LHS(info->val, reg_offset);
LHS(info->tuple, reg_offset/REG_SIZEOF_REG) = store; LHS(info->tuple, reg_offset/REG_SIZEOF_REG) = store;
@ -9029,11 +9029,11 @@ static struct triple *decompose_store(struct compile_state *state,
if (!is_compound_type(ins->type)) { if (!is_compound_type(ins->type)) {
return ins->next; return ins->next;
} }
get_occurance(ins->occurance); get_occurrence(ins->occurrence);
tuple = alloc_triple(state, OP_TUPLE, ins->type, -1, -1, tuple = alloc_triple(state, OP_TUPLE, ins->type, -1, -1,
ins->occurance); ins->occurrence);
info.occurance = ins->occurance; info.occurrence = ins->occurrence;
info.lval = RHS(ins, 0); info.lval = RHS(ins, 0);
info.val = RHS(ins, 1); info.val = RHS(ins, 1);
info.tuple = tuple; info.tuple = tuple;
@ -9063,9 +9063,9 @@ static struct triple *decompose_dot(struct compile_state *state,
} }
#endif #endif
get_occurance(ins->occurance); get_occurrence(ins->occurrence);
tuple = alloc_triple(state, OP_TUPLE, type, -1, -1, tuple = alloc_triple(state, OP_TUPLE, type, -1, -1,
ins->occurance); ins->occurrence);
if (((ins->type->type & TYPE_MASK) == TYPE_BITFIELD) && if (((ins->type->type & TYPE_MASK) == TYPE_BITFIELD) &&
(tuple->lhs != 1)) (tuple->lhs != 1))
@ -9092,9 +9092,9 @@ static struct triple *decompose_dot(struct compile_state *state,
/* Remember the offset of the bitfield */ /* Remember the offset of the bitfield */
if ((type->type & TYPE_MASK) == TYPE_BITFIELD) { if ((type->type & TYPE_MASK) == TYPE_BITFIELD) {
get_occurance(ins->occurance); get_occurrence(ins->occurrence);
piece = build_triple(state, OP_BITREF, type, piece, 0, piece = build_triple(state, OP_BITREF, type, piece, 0,
ins->occurance); ins->occurrence);
piece->u.bitfield.size = size_of(state, type); piece->u.bitfield.size = size_of(state, type);
piece->u.bitfield.offset = reg_offset % REG_SIZEOF_REG; piece->u.bitfield.offset = reg_offset % REG_SIZEOF_REG;
} }
@ -9128,9 +9128,9 @@ static struct triple *decompose_index(struct compile_state *state,
} }
#endif #endif
get_occurance(ins->occurance); get_occurrence(ins->occurrence);
tuple = alloc_triple(state, OP_TUPLE, type, -1, -1, tuple = alloc_triple(state, OP_TUPLE, type, -1, -1,
ins->occurance); ins->occurrence);
for(i = 0; i < tuple->lhs; i++, idx++) { for(i = 0; i < tuple->lhs; i++, idx++) {
struct triple *piece; struct triple *piece;
@ -11907,8 +11907,8 @@ static void labeled_statement(struct compile_state *state, struct triple *first)
ident = eat(state, TOK_IDENT)->ident; ident = eat(state, TOK_IDENT)->ident;
if (ident->sym_label && ident->sym_label->def) { if (ident->sym_label && ident->sym_label->def) {
ins = ident->sym_label->def; ins = ident->sym_label->def;
put_occurance(ins->occurance); put_occurrence(ins->occurrence);
ins->occurance = new_occurance(state); ins->occurrence = new_occurrence(state);
} }
else { else {
ins = label(state); ins = label(state);
@ -12029,8 +12029,8 @@ static void default_statement(struct compile_state *state, struct triple *first)
dest = label(state); dest = label(state);
/* Blame the branch on the default statement */ /* Blame the branch on the default statement */
put_occurance(dbranch->occurance); put_occurrence(dbranch->occurrence);
dbranch->occurance = new_occurance(state); dbranch->occurrence = new_occurrence(state);
/* Thread the pieces together */ /* Thread the pieces together */
TARG(dbranch, 0) = dest; TARG(dbranch, 0) = dest;
@ -13329,7 +13329,7 @@ static struct triple *function_definition(
} }
i++; i++;
if (((param->type & TYPE_MASK) != TYPE_VOID) && !param->field_ident) { if (((param->type & TYPE_MASK) != TYPE_VOID) && !param->field_ident) {
error(state, 0, "No identifier for paramter %d\n", i); error(state, 0, "No identifier for parameter %d\n", i);
} }
/* Get a list of statements for this function. */ /* Get a list of statements for this function. */
@ -13694,7 +13694,7 @@ static int local_triple(struct compile_state *state,
} }
struct triple *copy_func(struct compile_state *state, struct triple *ofunc, struct triple *copy_func(struct compile_state *state, struct triple *ofunc,
struct occurance *base_occurance) struct occurrence *base_occurrence)
{ {
struct triple *nfunc; struct triple *nfunc;
struct triple *nfirst, *ofirst; struct triple *nfirst, *ofirst;
@ -13715,16 +13715,16 @@ struct triple *copy_func(struct compile_state *state, struct triple *ofunc,
ofirst = old = RHS(ofunc, 0); ofirst = old = RHS(ofunc, 0);
do { do {
struct triple *new; struct triple *new;
struct occurance *occurance; struct occurrence *occurrence;
int old_lhs, old_rhs; int old_lhs, old_rhs;
old_lhs = old->lhs; old_lhs = old->lhs;
old_rhs = old->rhs; old_rhs = old->rhs;
occurance = inline_occurance(state, base_occurance, old->occurance); occurrence = inline_occurrence(state, base_occurrence, old->occurrence);
if (ofunc->u.cval && (old->op == OP_FCALL)) { if (ofunc->u.cval && (old->op == OP_FCALL)) {
MISC(old, 0)->u.cval += 1; MISC(old, 0)->u.cval += 1;
} }
new = alloc_triple(state, old->op, old->type, old_lhs, old_rhs, new = alloc_triple(state, old->op, old->type, old_lhs, old_rhs,
occurance); occurrence);
if (!triple_stores_block(state, new)) { if (!triple_stores_block(state, new)) {
memcpy(&new->u, &old->u, sizeof(new->u)); memcpy(&new->u, &old->u, sizeof(new->u));
} }
@ -13803,7 +13803,7 @@ static void expand_inline_call(
if (ofunc->op != OP_LIST) { if (ofunc->op != OP_LIST) {
internal_error(state, 0, "improper function"); internal_error(state, 0, "improper function");
} }
nfunc = copy_func(state, ofunc, fcall->occurance); nfunc = copy_func(state, ofunc, fcall->occurrence);
/* Prepend the parameter reading into the new function list */ /* Prepend the parameter reading into the new function list */
ptype = nfunc->type->right; ptype = nfunc->type->right;
pvals = fcall->rhs; pvals = fcall->rhs;
@ -13842,7 +13842,7 @@ static void expand_inline_call(
/* Remove the read of the return address */ /* Remove the read of the return address */
ins = RHS(nfunc, 0)->prev->prev; ins = RHS(nfunc, 0)->prev->prev;
if ((ins->op != OP_READ) || (RHS(ins, 0) != fretaddr(state, nfunc))) { if ((ins->op != OP_READ) || (RHS(ins, 0) != fretaddr(state, nfunc))) {
internal_error(state, ins, "Not return addres read?"); internal_error(state, ins, "Not return address read?");
} }
release_triple(state, ins); release_triple(state, ins);
/* Remove the return instruction */ /* Remove the return instruction */
@ -13884,7 +13884,7 @@ static void expand_inline_call(
/* Now the result reading code */ /* Now the result reading code */
if (result) { if (result) {
result = flatten(state, fcall, result); result = flatten(state, fcall, result);
propogate_use(state, fcall, result); propagate_use(state, fcall, result);
} }
/* Release the original fcall instruction */ /* Release the original fcall instruction */
@ -13971,7 +13971,7 @@ static int add_closure_type(struct compile_state *state,
} }
/* Point everyone at the new variable */ /* Point everyone at the new variable */
propogate_use(state, var, new_var); propagate_use(state, var, new_var);
/* Release the original variable */ /* Release the original variable */
for(i = 0; i < var->lhs; i++) { for(i = 0; i < var->lhs; i++) {
@ -14156,7 +14156,7 @@ static void compute_closure_variables(struct compile_state *state,
ins = ins->next; ins = ins->next;
} while(ins != first); } while(ins != first);
/* Allocate some memory to temorary hold the id info */ /* Allocate some memory to temporary hold the id info */
info = xcmalloc(sizeof(*info) * (count +1), "info"); info = xcmalloc(sizeof(*info) * (count +1), "info");
/* Mark the local function */ /* Mark the local function */
@ -14434,7 +14434,7 @@ static void expand_function_call(
read_expr(state, read_expr(state,
deref_index(state, fresult(state, func), 1))); deref_index(state, fresult(state, func), 1)));
propogate_use(state, fcall, result); propagate_use(state, fcall, result);
} }
/* Release the original fcall instruction */ /* Release the original fcall instruction */
@ -15501,7 +15501,7 @@ static int initialize_sdblock(struct sdom_block *sd,
return vertex; return vertex;
} }
vertex += 1; vertex += 1;
/* Renumber the blocks in a convinient fashion */ /* Renumber the blocks in a convenient fashion */
block->vertex = vertex; block->vertex = vertex;
sd[vertex].block = block; sd[vertex].block = block;
sd[vertex].sdom = &sd[vertex]; sd[vertex].sdom = &sd[vertex];
@ -15524,7 +15524,7 @@ static int initialize_spdblock(
return vertex; return vertex;
} }
vertex += 1; vertex += 1;
/* Renumber the blocks in a convinient fashion */ /* Renumber the blocks in a convenient fashion */
block->vertex = vertex; block->vertex = vertex;
sd[vertex].block = block; sd[vertex].block = block;
sd[vertex].sdom = &sd[vertex]; sd[vertex].sdom = &sd[vertex];
@ -15743,7 +15743,7 @@ static void compute_ipdom(struct compile_state *state,
*/ */
/* Theorem 3: /* Theorem 3:
* Let w != r and let u be a vertex for which sdom(u) is * Let w != r and let u be a vertex for which sdom(u) is
* minimum amoung vertices u satisfying sdom(w) -> u -> w. * minimum among vertices u satisfying sdom(w) -> u -> w.
* Then sdom(u) <= sdom(w) and idom(u) = idom(w). * Then sdom(u) <= sdom(w) and idom(u) = idom(w).
*/ */
/* Lemma 5: Let vertices v,w satisfy v -> w. /* Lemma 5: Let vertices v,w satisfy v -> w.
@ -15765,7 +15765,7 @@ static void find_immediate_dominators(struct compile_state *state,
*/ */
/* Corollary 1: /* Corollary 1:
* Let w != r and let u be a vertex for which sdom(u) is * Let w != r and let u be a vertex for which sdom(u) is
* minimum amoung vertices u satisfying sdom(w) -> u -> w. * minimum among vertices u satisfying sdom(w) -> u -> w.
* Then: * Then:
* { sdom(w) if sdom(w) = sdom(u), * { sdom(w) if sdom(w) = sdom(u),
* idom(w) = { * idom(w) = {
@ -15905,7 +15905,7 @@ static void print_dominated2(
{ {
struct block_set *user; struct block_set *user;
struct triple *ins; struct triple *ins;
struct occurance *ptr, *ptr2; struct occurrence *ptr, *ptr2;
const char *filename1, *filename2; const char *filename1, *filename2;
int equal_filenames; int equal_filenames;
int i; int i;
@ -15915,11 +15915,11 @@ static void print_dominated2(
fprintf(fp, "%3d: %p (%p - %p) @", fprintf(fp, "%3d: %p (%p - %p) @",
block->vertex, block, block->first, block->last); block->vertex, block, block->first, block->last);
ins = block->first; ins = block->first;
while(ins != block->last && (ins->occurance->line == 0)) { while(ins != block->last && (ins->occurrence->line == 0)) {
ins = ins->next; ins = ins->next;
} }
ptr = ins->occurance; ptr = ins->occurrence;
ptr2 = block->last->occurance; ptr2 = block->last->occurrence;
filename1 = ptr->filename? ptr->filename : ""; filename1 = ptr->filename? ptr->filename : "";
filename2 = ptr2->filename? ptr2->filename : ""; filename2 = ptr2->filename? ptr2->filename : "";
equal_filenames = (strcmp(filename1, filename2) == 0); equal_filenames = (strcmp(filename1, filename2) == 0);
@ -16166,10 +16166,10 @@ static void insert_phi_operations(struct compile_state *state)
/* Count how many edges flow into this block */ /* Count how many edges flow into this block */
in_edges = front->users; in_edges = front->users;
/* Insert a phi function for this variable */ /* Insert a phi function for this variable */
get_occurance(var->occurance); get_occurrence(var->occurrence);
phi = alloc_triple( phi = alloc_triple(
state, OP_PHI, var->type, -1, in_edges, state, OP_PHI, var->type, -1, in_edges,
var->occurance); var->occurrence);
phi->u.block = front; phi->u.block = front;
MISC(phi, 0) = var; MISC(phi, 0) = var;
use_triple(var, phi); use_triple(var, phi);
@ -16285,7 +16285,7 @@ static void pop_triple(struct stack *stacks, struct triple *var, struct triple *
if (set->member == oldval) { if (set->member == oldval) {
*ptr = set->next; *ptr = set->next;
xfree(set); xfree(set);
/* Only free one occurance from the stack */ /* Only free one occurrence from the stack */
return; return;
} }
else { else {
@ -16389,7 +16389,7 @@ static void rename_block_variables(
if ((val->op == OP_WRITE) || (val->op == OP_READ)) { if ((val->op == OP_WRITE) || (val->op == OP_READ)) {
internal_error(state, val, "bad value in read"); internal_error(state, val, "bad value in read");
} }
propogate_use(state, ptr, val); propagate_use(state, ptr, val);
release_triple(state, ptr); release_triple(state, ptr);
continue; continue;
} }
@ -16420,7 +16420,7 @@ static void rename_block_variables(
RHS(ptr, 0) = tval; RHS(ptr, 0) = tval;
use_triple(tval, ptr); use_triple(tval, ptr);
} }
propogate_use(state, ptr, tval); propagate_use(state, ptr, tval);
unuse_triple(var, ptr); unuse_triple(var, ptr);
/* Push OP_WRITE ptr->right onto a stack of variable uses */ /* Push OP_WRITE ptr->right onto a stack of variable uses */
push_triple(stacks, var, tval); push_triple(stacks, var, tval);
@ -16622,10 +16622,10 @@ static void prune_unused_phis(struct compile_state *state)
for(j = 0; j < zrhs; j++) { for(j = 0; j < zrhs; j++) {
if(!slot[j]) { if(!slot[j]) {
struct triple *unknown; struct triple *unknown;
get_occurance(phi->occurance); get_occurrence(phi->occurrence);
unknown = flatten(state, state->global_pool, unknown = flatten(state, state->global_pool,
alloc_triple(state, OP_UNKNOWNVAL, alloc_triple(state, OP_UNKNOWNVAL,
phi->type, 0, 0, phi->occurance)); phi->type, 0, 0, phi->occurrence));
slot[j] = unknown; slot[j] = unknown;
use_triple(unknown, phi); use_triple(unknown, phi);
transform_to_arch_instruction(state, unknown); transform_to_arch_instruction(state, unknown);
@ -16765,7 +16765,7 @@ static void transform_from_ssa_form(struct compile_state *state)
var = var->next; /* point at the var */ var = var->next; /* point at the var */
/* Replaces use of phi with var */ /* Replaces use of phi with var */
propogate_use(state, phi, var); propagate_use(state, phi, var);
/* Count the readers */ /* Count the readers */
readers = 0; readers = 0;
@ -17268,9 +17268,9 @@ static void insert_copies_to_phi(struct compile_state *state)
continue; continue;
} }
get_occurance(val->occurance); get_occurrence(val->occurrence);
move = build_triple(state, OP_COPY, val->type, val, 0, move = build_triple(state, OP_COPY, val->type, val, 0,
val->occurance); val->occurrence);
move->u.block = eblock; move->u.block = eblock;
move->id |= TRIPLE_FLAG_PRE_SPLIT; move->id |= TRIPLE_FLAG_PRE_SPLIT;
use_triple(val, move); use_triple(val, move);
@ -17400,7 +17400,7 @@ static int initialize_regblock(struct reg_block *blocks,
return vertex; return vertex;
} }
vertex += 1; vertex += 1;
/* Renumber the blocks in a convinient fashion */ /* Renumber the blocks in a convenient fashion */
block->vertex = vertex; block->vertex = vertex;
blocks[vertex].block = block; blocks[vertex].block = block;
blocks[vertex].vertex = vertex; blocks[vertex].vertex = vertex;
@ -18750,7 +18750,7 @@ static struct live_range *coalesce_ranges(
lr1->color = color; lr1->color = color;
lr1->classes = classes; lr1->classes = classes;
/* Keep the graph in sync by transfering the edges from lr2 to lr1 */ /* Keep the graph in sync by transferring the edges from lr2 to lr1 */
transfer_live_edges(rstate, lr1, lr2); transfer_live_edges(rstate, lr1, lr2);
return lr1; return lr1;
@ -18835,7 +18835,7 @@ static void initialize_live_ranges(
rstate->lrd[j].lr = &rstate->lr[0]; rstate->lrd[j].lr = &rstate->lr[0];
} }
/* Initalize the live_range_def */ /* Initialize the live_range_def */
rstate->lrd[j].next = &rstate->lrd[j]; rstate->lrd[j].next = &rstate->lrd[j];
rstate->lrd[j].prev = &rstate->lrd[j]; rstate->lrd[j].prev = &rstate->lrd[j];
rstate->lrd[j].def = ins; rstate->lrd[j].def = ins;
@ -18847,7 +18847,7 @@ static void initialize_live_ranges(
} while(ins != first); } while(ins != first);
rstate->ranges = i; rstate->ranges = i;
/* Make a second pass to handle achitecture specific register /* Make a second pass to handle architecture specific register
* constraints. * constraints.
*/ */
ins = first; ins = first;
@ -19541,7 +19541,7 @@ static int split_ranges(
* *
* So far I don't have a test case for this, the resolving * So far I don't have a test case for this, the resolving
* of mandatory constraints has solved all of my * of mandatory constraints has solved all of my
* know issues. So I have choosen not to write any * know issues. So I have chosen not to write any
* code until I cat get a better feel for cases where * code until I cat get a better feel for cases where
* it would be useful to have. * it would be useful to have.
* *
@ -20749,7 +20749,7 @@ static int compute_lnode_val(struct compile_state *state, struct scc_state *scc,
lnode->val = lnode->def; lnode->val = lnode->def;
} }
/* Only allow lattice high when all of my inputs /* Only allow lattice high when all of my inputs
* are also lattice high. Occassionally I can * are also lattice high. Occasionally I can
* have constants with a lattice low input, so * have constants with a lattice low input, so
* I do not need to check that case. * I do not need to check that case.
*/ */
@ -20779,7 +20779,7 @@ static int compute_lnode_val(struct compile_state *state, struct scc_state *scc,
!triple_is_cbranch(state, lnode->def)) || !triple_is_cbranch(state, lnode->def)) ||
(lnode->def->op == OP_PIECE))) { (lnode->def->op == OP_PIECE))) {
#if DEBUG_ROMCC_WARNINGS #if DEBUG_ROMCC_WARNINGS
#warning "FIXME constant propogate through expressions with multiple left hand sides" #warning "FIXME constant propagate through expressions with multiple left hand sides"
#endif #endif
if (changed) { if (changed) {
internal_warning(state, lnode->def, "non def changes value?"); internal_warning(state, lnode->def, "non def changes value?");
@ -21471,17 +21471,17 @@ static void verify_unknown(struct compile_state *state)
(unknown_triple.template_id != 0) || (unknown_triple.template_id != 0) ||
(unknown_triple.id != -1) || (unknown_triple.id != -1) ||
(unknown_triple.type != &unknown_type) || (unknown_triple.type != &unknown_type) ||
(unknown_triple.occurance != &dummy_occurance) || (unknown_triple.occurrence != &dummy_occurrence) ||
(unknown_triple.param[0] != 0) || (unknown_triple.param[0] != 0) ||
(unknown_triple.param[1] != 0)) { (unknown_triple.param[1] != 0)) {
internal_error(state, &unknown_triple, "unknown_triple corrupted!"); internal_error(state, &unknown_triple, "unknown_triple corrupted!");
} }
if ( (dummy_occurance.count != 2) || if ( (dummy_occurrence.count != 2) ||
(strcmp(dummy_occurance.filename, __FILE__) != 0) || (strcmp(dummy_occurrence.filename, __FILE__) != 0) ||
(strcmp(dummy_occurance.function, "") != 0) || (strcmp(dummy_occurrence.function, "") != 0) ||
(dummy_occurance.col != 0) || (dummy_occurrence.col != 0) ||
(dummy_occurance.parent != 0)) { (dummy_occurrence.parent != 0)) {
internal_error(state, &unknown_triple, "dummy_occurance corrupted!"); internal_error(state, &unknown_triple, "dummy_occurrence corrupted!");
} }
if ( (unknown_type.type != TYPE_UNKNOWN)) { if ( (unknown_type.type != TYPE_UNKNOWN)) {
internal_error(state, &unknown_triple, "unknown_type corrupted!"); internal_error(state, &unknown_triple, "unknown_type corrupted!");
@ -21604,7 +21604,7 @@ static void optimize(struct compile_state *state)
/* Do strength reduction and simple constant optimizations */ /* Do strength reduction and simple constant optimizations */
simplify_all(state); simplify_all(state);
verify_consistency(state); verify_consistency(state);
/* Propogate constants throughout the code */ /* Propagate constants throughout the code */
scc_transform(state); scc_transform(state);
verify_consistency(state); verify_consistency(state);
#if DEBUG_ROMCC_WARNINGS #if DEBUG_ROMCC_WARNINGS
@ -23181,7 +23181,7 @@ static struct triple *mod_div(struct compile_state *state,
use_triple(LHS(div, 1), div); use_triple(LHS(div, 1), div);
/* Replate uses of ins with the appropriate piece of the div */ /* Replate uses of ins with the appropriate piece of the div */
propogate_use(state, ins, LHS(div, index)); propagate_use(state, ins, LHS(div, index));
release_triple(state, ins); release_triple(state, ins);
/* Return the address of the next instruction */ /* Return the address of the next instruction */
@ -23258,7 +23258,7 @@ static struct triple *x86_deposit(struct compile_state *state, struct triple *in
use_triple(val_mask, new); use_triple(val_mask, new);
/* Move all of the users over to the new expression */ /* Move all of the users over to the new expression */
propogate_use(state, ins, new); propagate_use(state, ins, new);
/* Delete the original triple */ /* Delete the original triple */
release_triple(state, ins); release_triple(state, ins);
@ -23306,7 +23306,7 @@ static struct triple *x86_extract(struct compile_state *state, struct triple *in
use_triple(mask, val_mask); use_triple(mask, val_mask);
/* Move all of the users over to the new expression */ /* Move all of the users over to the new expression */
propogate_use(state, ins, val_mask); propagate_use(state, ins, val_mask);
/* Release the original instruction */ /* Release the original instruction */
release_triple(state, ins); release_triple(state, ins);
@ -24796,12 +24796,12 @@ static void print_instructions(struct compile_state *state)
{ {
struct triple *first, *ins; struct triple *first, *ins;
int print_location; int print_location;
struct occurance *last_occurance; struct occurrence *last_occurrence;
FILE *fp; FILE *fp;
int max_inline_depth; int max_inline_depth;
max_inline_depth = 0; max_inline_depth = 0;
print_location = 1; print_location = 1;
last_occurance = 0; last_occurrence = 0;
fp = state->output; fp = state->output;
/* Masks for common sizes */ /* Masks for common sizes */
fprintf(fp, ".section \"" DATA_SECTION "\"\n"); fprintf(fp, ".section \"" DATA_SECTION "\"\n");
@ -24815,20 +24815,20 @@ static void print_instructions(struct compile_state *state)
ins = first; ins = first;
do { do {
if (print_location && if (print_location &&
last_occurance != ins->occurance) { last_occurrence != ins->occurrence) {
if (!ins->occurance->parent) { if (!ins->occurrence->parent) {
fprintf(fp, "\t/* %s,%s:%d.%d */\n", fprintf(fp, "\t/* %s,%s:%d.%d */\n",
ins->occurance->function?ins->occurance->function:"(null)", ins->occurrence->function?ins->occurrence->function:"(null)",
ins->occurance->filename?ins->occurance->filename:"(null)", ins->occurrence->filename?ins->occurrence->filename:"(null)",
ins->occurance->line, ins->occurrence->line,
ins->occurance->col); ins->occurrence->col);
} }
else { else {
struct occurance *ptr; struct occurrence *ptr;
int inline_depth; int inline_depth;
fprintf(fp, "\t/*\n"); fprintf(fp, "\t/*\n");
inline_depth = 0; inline_depth = 0;
for(ptr = ins->occurance; ptr; ptr = ptr->parent) { for(ptr = ins->occurrence; ptr; ptr = ptr->parent) {
inline_depth++; inline_depth++;
fprintf(fp, "\t * %s,%s:%d.%d\n", fprintf(fp, "\t * %s,%s:%d.%d\n",
ptr->function, ptr->function,
@ -24841,11 +24841,11 @@ static void print_instructions(struct compile_state *state)
max_inline_depth = inline_depth; max_inline_depth = inline_depth;
} }
} }
if (last_occurance) { if (last_occurrence) {
put_occurance(last_occurance); put_occurrence(last_occurrence);
} }
get_occurance(ins->occurance); get_occurrence(ins->occurrence);
last_occurance = ins->occurance; last_occurrence = ins->occurrence;
} }
print_instruction(state, ins, fp); print_instruction(state, ins, fp);

View File

@ -155,8 +155,8 @@ static void setup_coherent_ht_domain(void)
* 0 = No coherent HT configuration space restrictions * 0 = No coherent HT configuration space restrictions
* 1 = Limit coherent HT configuration space based on node count * 1 = Limit coherent HT configuration space based on node count
* [16:16] Local Interrupt Conversion Enable. * [16:16] Local Interrupt Conversion Enable.
* 0 = ExtInt/NMI interrups unaffected. * 0 = ExtInt/NMI interrupts unaffected.
* 1 = ExtInt/NMI broadcat interrupts converted to LINT0/1 * 1 = ExtInt/NMI broadcast interrupts converted to LINT0/1
* [17:17] APIC Extended Broadcast Enable. * [17:17] APIC Extended Broadcast Enable.
* 0 = APIC broadcast is 0F * 0 = APIC broadcast is 0F
* 1 = APIC broadcast is FF * 1 = APIC broadcast is FF
@ -484,7 +484,7 @@ static void setup_coherent_ht_domain(void)
* 0 = CPU writes may be posted * 0 = CPU writes may be posted
* 1 = CPU writes must be non-posted * 1 = CPU writes must be non-posted
* [31: 8] Memory-Mapped I/O Limit Address i (39-16) * [31: 8] Memory-Mapped I/O Limit Address i (39-16)
* This field defines the upp adddress bits of a 40-bit address that * This field defines the upp address bits of a 40-bit address that
* defines the end of a memory-mapped I/O region n * defines the end of a memory-mapped I/O region n
*/ */
PCI_ADDR(0, 0x18, 1, 0x84), 0x00000048, 0x00e1ff00, PCI_ADDR(0, 0x18, 1, 0x84), 0x00000048, 0x00e1ff00,

View File

@ -754,7 +754,7 @@ static void spd_set_dramc(void)
{ {
/* /*
* Effects: Uses serial presence detect to set the * Effects: Uses serial presence detect to set the
* DRAMC register, which records if ram is registerd or not, * DRAMC register, which records if ram is registered or not,
* and controls the refresh rate. * and controls the refresh rate.
* The refresh rate is not set here, as memory refresh * The refresh rate is not set here, as memory refresh
* cannot be enbaled until after memory is initialized. * cannot be enbaled until after memory is initialized.
@ -997,7 +997,7 @@ static void spd_set_nbxcfg(void)
} }
pcibios_write_config_byte(I440GX_BUS, I440GX_DEVFN, 0x53, reg); pcibios_write_config_byte(I440GX_BUS, I440GX_DEVFN, 0x53, reg);
/* Now see if reg is 0xff. If it is we are done. If not, /* Now see if reg is 0xff. If it is we are done. If not,
* we need to set 0x18 into regster 0x50.l * we need to set 0x18 into register 0x50.l
* we will do this in two steps, first or in 0x80 to 0x50.b, * we will do this in two steps, first or in 0x80 to 0x50.b,
* then or in 0x1 to 0x51.b * then or in 0x1 to 0x51.b
*/ */

View File

@ -754,7 +754,7 @@ static void spd_set_dramc(void)
{ {
/* /*
* Effects: Uses serial presence detect to set the * Effects: Uses serial presence detect to set the
* DRAMC register, which records if ram is registerd or not, * DRAMC register, which records if ram is registered or not,
* and controls the refresh rate. * and controls the refresh rate.
* The refresh rate is not set here, as memory refresh * The refresh rate is not set here, as memory refresh
* cannot be enbaled until after memory is initialized. * cannot be enbaled until after memory is initialized.
@ -997,7 +997,7 @@ static void spd_set_nbxcfg(void)
} }
pcibios_write_config_byte(I440GX_BUS, I440GX_DEVFN, 0x53, reg); pcibios_write_config_byte(I440GX_BUS, I440GX_DEVFN, 0x53, reg);
/* Now see if reg is 0xff. If it is we are done. If not, /* Now see if reg is 0xff. If it is we are done. If not,
* we need to set 0x18 into regster 0x50.l * we need to set 0x18 into register 0x50.l
* we will do this in two steps, first or in 0x80 to 0x50.b, * we will do this in two steps, first or in 0x80 to 0x50.b,
* then or in 0x1 to 0x51.b * then or in 0x1 to 0x51.b
*/ */

View File

@ -754,7 +754,7 @@ static void spd_set_dramc(void)
{ {
/* /*
* Effects: Uses serial presence detect to set the * Effects: Uses serial presence detect to set the
* DRAMC register, which records if ram is registerd or not, * DRAMC register, which records if ram is registered or not,
* and controls the refresh rate. * and controls the refresh rate.
* The refresh rate is not set here, as memory refresh * The refresh rate is not set here, as memory refresh
* cannot be enbaled until after memory is initialized. * cannot be enbaled until after memory is initialized.
@ -997,7 +997,7 @@ static void spd_set_nbxcfg(void)
} }
pcibios_write_config_byte(I440GX_BUS, I440GX_DEVFN, 0x53, reg); pcibios_write_config_byte(I440GX_BUS, I440GX_DEVFN, 0x53, reg);
/* Now see if reg is 0xff. If it is we are done. If not, /* Now see if reg is 0xff. If it is we are done. If not,
* we need to set 0x18 into regster 0x50.l * we need to set 0x18 into register 0x50.l
* we will do this in two steps, first or in 0x80 to 0x50.b, * we will do this in two steps, first or in 0x80 to 0x50.b,
* then or in 0x1 to 0x51.b * then or in 0x1 to 0x51.b
*/ */

View File

@ -569,8 +569,8 @@ static void setup_coherent_ht_domain(void)
* 0 = No coherent HT configuration space restrictions * 0 = No coherent HT configuration space restrictions
* 1 = Limit coherent HT configuration space based on node count * 1 = Limit coherent HT configuration space based on node count
* [16:16] Local Interrupt Conversion Enable. * [16:16] Local Interrupt Conversion Enable.
* 0 = ExtInt/NMI interrups unaffected. * 0 = ExtInt/NMI interrupts unaffected.
* 1 = ExtInt/NMI broadcat interrupts converted to LINT0/1 * 1 = ExtInt/NMI broadcast interrupts converted to LINT0/1
* [17:17] APIC Extended Broadcast Enable. * [17:17] APIC Extended Broadcast Enable.
* 0 = APIC broadcast is 0F * 0 = APIC broadcast is 0F
* 1 = APIC broadcast is FF * 1 = APIC broadcast is FF
@ -898,7 +898,7 @@ static void setup_coherent_ht_domain(void)
* 0 = CPU writes may be posted * 0 = CPU writes may be posted
* 1 = CPU writes must be non-posted * 1 = CPU writes must be non-posted
* [31: 8] Memory-Mapped I/O Limit Address i (39-16) * [31: 8] Memory-Mapped I/O Limit Address i (39-16)
* This field defines the upp adddress bits of a 40-bit address that * This field defines the upp address bits of a 40-bit address that
* defines the end of a memory-mapped I/O region n * defines the end of a memory-mapped I/O region n
*/ */
PCI_ADDR(0, 0x18, 1, 0x84), 0x00000048, 0x00e1ff00, PCI_ADDR(0, 0x18, 1, 0x84), 0x00000048, 0x00e1ff00,