\f
+/* NEWIVS_INDEX binds CLooG's scattering name to the index of the tree
+ induction variable in NEWIVS.
+
+ PARAMS_INDEX binds CLooG's parameter name to the index of the tree
+ parameter in PARAMS. */
+
+typedef struct ivs_params {
+ VEC (tree, heap) *params, **newivs;
+ htab_t newivs_index, params_index;
+ sese region;
+} *ivs_params_p;
+
/* Returns the tree variable from the name NAME that was given in
Cloog representation. */
static tree
-clast_name_to_gcc (clast_name_p name, sese region, VEC (tree, heap) *newivs,
- htab_t newivs_index, htab_t params_index)
+clast_name_to_gcc (clast_name_p name, ivs_params_p ip)
{
int index;
- VEC (tree, heap) *params = SESE_PARAMS (region);
- if (params && params_index)
+ if (ip->params && ip->params_index)
{
- index = clast_name_to_index (name, params_index);
+ index = clast_name_to_index (name, ip->params_index);
if (index >= 0)
- return VEC_index (tree, params, index);
+ return VEC_index (tree, ip->params, index);
}
- gcc_assert (newivs && newivs_index);
- index = clast_name_to_index (name, newivs_index);
+ gcc_assert (*(ip->newivs) && ip->newivs_index);
+ index = clast_name_to_index (name, ip->newivs_index);
gcc_assert (index >= 0);
- return VEC_index (tree, newivs, index);
+ return VEC_index (tree, *(ip->newivs), index);
}
/* Returns the signed maximal precision type for expressions TYPE1 and TYPE2. */
}
static tree
-clast_to_gcc_expression (tree, struct clast_expr *, sese, VEC (tree, heap) *,
- htab_t, htab_t);
+clast_to_gcc_expression (tree, struct clast_expr *, ivs_params_p);
/* Converts a Cloog reduction expression R with reduction operation OP
to a GCC expression tree of type TYPE. */
static tree
clast_to_gcc_expression_red (tree type, enum tree_code op,
- struct clast_reduction *r,
- sese region, VEC (tree, heap) *newivs,
- htab_t newivs_index, htab_t params_index)
+ struct clast_reduction *r, ivs_params_p ip)
{
int i;
- tree res = clast_to_gcc_expression (type, r->elts[0], region, newivs,
- newivs_index, params_index);
+ tree res = clast_to_gcc_expression (type, r->elts[0], ip);
tree operand_type = (op == POINTER_PLUS_EXPR) ? sizetype : type;
for (i = 1; i < r->n; i++)
{
- tree t = clast_to_gcc_expression (operand_type, r->elts[i], region,
- newivs, newivs_index, params_index);
+ tree t = clast_to_gcc_expression (operand_type, r->elts[i], ip);
res = fold_build2 (op, type, res, t);
}
type TYPE. */
static tree
-clast_to_gcc_expression (tree type, struct clast_expr *e,
- sese region, VEC (tree, heap) *newivs,
- htab_t newivs_index, htab_t params_index)
+clast_to_gcc_expression (tree type, struct clast_expr *e, ivs_params_p ip)
{
switch (e->type)
{
{
if (mpz_cmp_si (t->val, 1) == 0)
{
- tree name = clast_name_to_gcc (t->var, region, newivs,
- newivs_index, params_index);
+ tree name = clast_name_to_gcc (t->var, ip);
if (POINTER_TYPE_P (TREE_TYPE (name)) != POINTER_TYPE_P (type))
name = fold_convert (sizetype, name);
else if (mpz_cmp_si (t->val, -1) == 0)
{
- tree name = clast_name_to_gcc (t->var, region, newivs,
- newivs_index, params_index);
+ tree name = clast_name_to_gcc (t->var, ip);
if (POINTER_TYPE_P (TREE_TYPE (name)) != POINTER_TYPE_P (type))
name = fold_convert (sizetype, name);
}
else
{
- tree name = clast_name_to_gcc (t->var, region, newivs,
- newivs_index, params_index);
+ tree name = clast_name_to_gcc (t->var, ip);
tree cst = gmp_cst_to_tree (type, t->val);
if (POINTER_TYPE_P (TREE_TYPE (name)) != POINTER_TYPE_P (type))
case clast_red_sum:
return clast_to_gcc_expression_red
(type, POINTER_TYPE_P (type) ? POINTER_PLUS_EXPR : PLUS_EXPR,
- r, region, newivs, newivs_index, params_index);
+ r, ip);
case clast_red_min:
- return clast_to_gcc_expression_red (type, MIN_EXPR, r, region,
- newivs, newivs_index,
- params_index);
+ return clast_to_gcc_expression_red (type, MIN_EXPR, r, ip);
case clast_red_max:
- return clast_to_gcc_expression_red (type, MAX_EXPR, r, region,
- newivs, newivs_index,
- params_index);
+ return clast_to_gcc_expression_red (type, MAX_EXPR, r, ip);
default:
gcc_unreachable ();
{
struct clast_binary *b = (struct clast_binary *) e;
struct clast_expr *lhs = (struct clast_expr *) b->LHS;
- tree tl = clast_to_gcc_expression (type, lhs, region, newivs,
- newivs_index, params_index);
+ tree tl = clast_to_gcc_expression (type, lhs, ip);
tree tr = gmp_cst_to_tree (type, b->RHS);
switch (b->type)
static tree
gcc_type_for_clast_term (struct clast_term *t,
- sese region, VEC (tree, heap) *newivs,
- htab_t newivs_index, htab_t params_index)
+ ivs_params_p ip)
{
gcc_assert (t->expr.type == clast_expr_term);
if (!t->var)
return gcc_type_for_value (t->val);
- return TREE_TYPE (clast_name_to_gcc (t->var, region, newivs,
- newivs_index, params_index));
+ return TREE_TYPE (clast_name_to_gcc (t->var, ip));
}
static tree
-gcc_type_for_clast_expr (struct clast_expr *, sese,
- VEC (tree, heap) *, htab_t, htab_t);
+gcc_type_for_clast_expr (struct clast_expr *, ivs_params_p);
/* Return the type for the clast_reduction R used in STMT. */
static tree
-gcc_type_for_clast_red (struct clast_reduction *r, sese region,
- VEC (tree, heap) *newivs,
- htab_t newivs_index, htab_t params_index)
+gcc_type_for_clast_red (struct clast_reduction *r,
+ ivs_params_p ip)
{
int i;
tree type = NULL_TREE;
if (r->n == 1)
- return gcc_type_for_clast_expr (r->elts[0], region, newivs,
- newivs_index, params_index);
+ return gcc_type_for_clast_expr (r->elts[0], ip);
switch (r->type)
{
case clast_red_sum:
case clast_red_min:
case clast_red_max:
- type = gcc_type_for_clast_expr (r->elts[0], region, newivs,
- newivs_index, params_index);
+ type = gcc_type_for_clast_expr (r->elts[0], ip);
for (i = 1; i < r->n; i++)
type = max_precision_type (type, gcc_type_for_clast_expr
- (r->elts[i], region, newivs,
- newivs_index, params_index));
+ (r->elts[i], ip));
return type;
/* Return the type for the clast_binary B used in STMT. */
static tree
-gcc_type_for_clast_bin (struct clast_binary *b,
- sese region, VEC (tree, heap) *newivs,
- htab_t newivs_index, htab_t params_index)
+gcc_type_for_clast_bin (struct clast_binary *b, ivs_params_p ip)
{
- tree l = gcc_type_for_clast_expr ((struct clast_expr *) b->LHS, region,
- newivs, newivs_index, params_index);
+ tree l = gcc_type_for_clast_expr ((struct clast_expr *) b->LHS, ip);
tree r = gcc_type_for_value (b->RHS);
return max_signed_precision_type (l, r);
}
static tree
gcc_type_for_clast_expr (struct clast_expr *e,
- sese region, VEC (tree, heap) *newivs,
- htab_t newivs_index, htab_t params_index)
+ ivs_params_p ip)
{
switch (e->type)
{
case clast_expr_term:
- return gcc_type_for_clast_term ((struct clast_term *) e, region,
- newivs, newivs_index, params_index);
+ return gcc_type_for_clast_term ((struct clast_term *) e, ip);
case clast_expr_red:
- return gcc_type_for_clast_red ((struct clast_reduction *) e, region,
- newivs, newivs_index, params_index);
+ return gcc_type_for_clast_red ((struct clast_reduction *) e, ip);
case clast_expr_bin:
- return gcc_type_for_clast_bin ((struct clast_binary *) e, region,
- newivs, newivs_index, params_index);
+ return gcc_type_for_clast_bin ((struct clast_binary *) e, ip);
default:
gcc_unreachable ();
static tree
gcc_type_for_clast_eq (struct clast_equation *cleq,
- sese region, VEC (tree, heap) *newivs,
- htab_t newivs_index, htab_t params_index)
+ ivs_params_p ip)
{
- tree l = gcc_type_for_clast_expr (cleq->LHS, region, newivs,
- newivs_index, params_index);
- tree r = gcc_type_for_clast_expr (cleq->RHS, region, newivs,
- newivs_index, params_index);
+ tree l = gcc_type_for_clast_expr (cleq->LHS, ip);
+ tree r = gcc_type_for_clast_expr (cleq->RHS, ip);
return max_precision_type (l, r);
}
/* Translates a clast equation CLEQ to a tree. */
static tree
-graphite_translate_clast_equation (sese region,
- struct clast_equation *cleq,
- VEC (tree, heap) *newivs,
- htab_t newivs_index, htab_t params_index)
+graphite_translate_clast_equation (struct clast_equation *cleq,
+ ivs_params_p ip)
{
enum tree_code comp;
- tree type = gcc_type_for_clast_eq (cleq, region, newivs, newivs_index,
- params_index);
- tree lhs = clast_to_gcc_expression (type, cleq->LHS, region, newivs,
- newivs_index, params_index);
- tree rhs = clast_to_gcc_expression (type, cleq->RHS, region, newivs,
- newivs_index, params_index);
+ tree type = gcc_type_for_clast_eq (cleq, ip);
+ tree lhs = clast_to_gcc_expression (type, cleq->LHS, ip);
+ tree rhs = clast_to_gcc_expression (type, cleq->RHS, ip);
if (cleq->sign == 0)
comp = EQ_EXPR;
/* Creates the test for the condition in STMT. */
static tree
-graphite_create_guard_cond_expr (sese region, struct clast_guard *stmt,
- VEC (tree, heap) *newivs,
- htab_t newivs_index, htab_t params_index)
+graphite_create_guard_cond_expr (struct clast_guard *stmt,
+ ivs_params_p ip)
{
tree cond = NULL;
int i;
for (i = 0; i < stmt->n; i++)
{
- tree eq = graphite_translate_clast_equation (region, &stmt->eq[i],
- newivs, newivs_index,
- params_index);
+ tree eq = graphite_translate_clast_equation (&stmt->eq[i], ip);
if (cond)
cond = fold_build2 (TRUTH_AND_EXPR, TREE_TYPE (eq), cond, eq);
/* Creates a new if region corresponding to Cloog's guard. */
static edge
-graphite_create_new_guard (sese region, edge entry_edge,
- struct clast_guard *stmt,
- VEC (tree, heap) *newivs,
- htab_t newivs_index, htab_t params_index)
+graphite_create_new_guard (edge entry_edge, struct clast_guard *stmt,
+ ivs_params_p ip)
{
- tree cond_expr = graphite_create_guard_cond_expr (region, stmt, newivs,
- newivs_index, params_index);
+ tree cond_expr = graphite_create_guard_cond_expr (stmt, ip);
edge exit_edge = create_empty_if_region_on_edge (entry_edge, cond_expr);
return exit_edge;
}
vector and is of type TYPE. */
static struct loop *
-graphite_create_new_loop (edge entry_edge,
- struct clast_for *stmt,
- loop_p outer, VEC (tree, heap) **newivs,
- htab_t newivs_index,
- tree type, tree lb, tree ub, int level)
+graphite_create_new_loop (edge entry_edge, struct clast_for *stmt,
+ loop_p outer, tree type, tree lb, tree ub,
+ int level, ivs_params_p ip)
{
tree stride = gmp_cst_to_tree (type, stmt->stride);
tree ivvar = create_tmp_var (type, "graphite_IV");
add_referenced_var (ivvar);
- save_clast_name_index (newivs_index, stmt->iterator,
- VEC_length (tree, *newivs), level);
- VEC_safe_push (tree, heap, *newivs, iv);
+ save_clast_name_index (ip->newivs_index, stmt->iterator,
+ VEC_length (tree, *(ip->newivs)), level);
+ VEC_safe_push (tree, heap, *(ip->newivs), iv);
return loop;
}
induction variables of the loops around GBB in SESE. */
static void
-build_iv_mapping (VEC (tree, heap) *iv_map, sese region,
- VEC (tree, heap) *newivs, htab_t newivs_index,
- struct clast_user_stmt *user_stmt,
- htab_t params_index)
+build_iv_mapping (VEC (tree, heap) *iv_map, struct clast_user_stmt *user_stmt,
+ ivs_params_p ip)
{
struct clast_stmt *t;
int depth = 0;
{
struct clast_expr *expr = (struct clast_expr *)
((struct clast_assignment *)t)->RHS;
- tree type = gcc_type_for_clast_expr (expr, region, newivs,
- newivs_index, params_index);
- tree new_name = clast_to_gcc_expression (type, expr, region, newivs,
- newivs_index, params_index);
- loop_p old_loop = gbb_loop_at_index (gbb, region, depth);
+ tree type = gcc_type_for_clast_expr (expr, ip);
+ tree new_name = clast_to_gcc_expression (type, expr, ip);
+ loop_p old_loop = gbb_loop_at_index (gbb, ip->region, depth);
VEC_replace (tree, iv_map, old_loop->num, new_name);
}
/* Translates a clast user statement STMT to gimple.
- - REGION is the sese region we used to generate the scop.
- NEXT_E is the edge where new generated code should be attached.
- CONTEXT_LOOP is the loop in which the generated code will be placed
- - BB_PBB_MAPPING is is a basic_block and it's related poly_bb_p mapping.
- - PARAMS_INDEX connects the cloog parameters with the gimple parameters in
- the sese region. */
+ - BB_PBB_MAPPING is is a basic_block and it's related poly_bb_p mapping. */
+
static edge
-translate_clast_user (sese region, struct clast_user_stmt *stmt, edge next_e,
- VEC (tree, heap) **newivs,
- htab_t newivs_index, htab_t bb_pbb_mapping,
- htab_t params_index)
+translate_clast_user (struct clast_user_stmt *stmt, edge next_e,
+ htab_t bb_pbb_mapping, ivs_params_p ip)
{
int i, nb_loops;
basic_block new_bb;
for (i = 0; i < nb_loops; i++)
VEC_quick_push (tree, iv_map, NULL_TREE);
- build_iv_mapping (iv_map, region, *newivs, newivs_index, stmt, params_index);
- next_e = copy_bb_and_scalar_dependences (GBB_BB (gbb), region,
+ build_iv_mapping (iv_map, stmt, ip);
+ next_e = copy_bb_and_scalar_dependences (GBB_BB (gbb), ip->region,
next_e, iv_map);
VEC_free (tree, heap, iv_map);
count is zero (lb > ub). */
static edge
-graphite_create_new_loop_guard (sese region, edge entry_edge,
- struct clast_for *stmt,
- VEC (tree, heap) *newivs,
- htab_t newivs_index, htab_t params_index,
- int level, tree *type, tree *lb, tree *ub)
+graphite_create_new_loop_guard (edge entry_edge, struct clast_for *stmt,
+ int level, tree *type, tree *lb, tree *ub,
+ ivs_params_p ip)
{
tree cond_expr;
edge exit_edge;
- tree lb_type = gcc_type_for_clast_expr (stmt->LB, region, newivs,
- newivs_index, params_index);
- tree ub_type = gcc_type_for_clast_expr (stmt->UB, region, newivs,
- newivs_index, params_index);
+ tree lb_type = gcc_type_for_clast_expr (stmt->LB, ip);
+ tree ub_type = gcc_type_for_clast_expr (stmt->UB, ip);
*type = gcc_type_for_iv_of_clast_loop (stmt, level, lb_type, ub_type);
- *lb = clast_to_gcc_expression (*type, stmt->LB, region, newivs,
- newivs_index, params_index);
- *ub = clast_to_gcc_expression (*type, stmt->UB, region, newivs,
- newivs_index, params_index);
+ *lb = clast_to_gcc_expression (*type, stmt->LB, ip);
+ *ub = clast_to_gcc_expression (*type, stmt->UB, ip);
/* When ub is simply a constant or a parameter, use lb <= ub. */
if (TREE_CODE (*ub) == INTEGER_CST || TREE_CODE (*ub) == SSA_NAME)
}
static edge
-translate_clast (sese, loop_p, struct clast_stmt *, edge,
- VEC (tree, heap) **, htab_t, htab_t, int, htab_t);
+translate_clast (loop_p, struct clast_stmt *, edge, htab_t, int, ivs_params_p);
/* Create the loop for a clast for statement.
- - REGION is the sese region we used to generate the scop.
- NEXT_E is the edge where new generated code should be attached.
- - BB_PBB_MAPPING is is a basic_block and it's related poly_bb_p mapping.
- - PARAMS_INDEX connects the cloog parameters with the gimple parameters in
- the sese region. */
+ - BB_PBB_MAPPING is is a basic_block and it's related poly_bb_p mapping. */
static edge
-translate_clast_for_loop (sese region, loop_p context_loop,
- struct clast_for *stmt, edge next_e,
- VEC (tree, heap) **newivs,
- htab_t newivs_index, htab_t bb_pbb_mapping,
- int level, htab_t params_index, tree type,
- tree lb, tree ub)
+translate_clast_for_loop (loop_p context_loop, struct clast_for *stmt,
+ edge next_e, htab_t bb_pbb_mapping, int level,
+ tree type, tree lb, tree ub, ivs_params_p ip)
{
- struct loop *loop = graphite_create_new_loop (next_e, stmt,
- context_loop, newivs,
- newivs_index,
- type, lb, ub, level);
+ struct loop *loop = graphite_create_new_loop (next_e, stmt, context_loop,
+ type, lb, ub, level, ip);
edge last_e = single_exit (loop);
edge to_body = single_succ_edge (loop->header);
basic_block after = to_body->dest;
last_e = single_succ_edge (split_edge (last_e));
/* Translate the body of the loop. */
- next_e = translate_clast (region, loop, stmt->body, to_body,
- newivs, newivs_index, bb_pbb_mapping, level + 1,
- params_index);
+ next_e = translate_clast (loop, stmt->body, to_body, bb_pbb_mapping,
+ level + 1, ip);
redirect_edge_succ_nodup (next_e, after);
set_immediate_dominator (CDI_DOMINATORS, next_e->dest, next_e->src);
protecting the loop, if it is executed zero times. In this guard we create
the real loop structure.
- - REGION is the sese region we used to generate the scop.
- NEXT_E is the edge where new generated code should be attached.
- - BB_PBB_MAPPING is is a basic_block and it's related poly_bb_p mapping.
- - PARAMS_INDEX connects the cloog parameters with the gimple parameters in
- the sese region. */
+ - BB_PBB_MAPPING is is a basic_block and it's related poly_bb_p mapping. */
+
static edge
-translate_clast_for (sese region, loop_p context_loop, struct clast_for *stmt,
- edge next_e, VEC (tree, heap) **newivs,
- htab_t newivs_index, htab_t bb_pbb_mapping, int level,
- htab_t params_index)
+translate_clast_for (loop_p context_loop, struct clast_for *stmt, edge next_e,
+ htab_t bb_pbb_mapping, int level, ivs_params_p ip)
{
tree type, lb, ub;
- edge last_e = graphite_create_new_loop_guard (region, next_e, stmt, *newivs,
- newivs_index, params_index,
- level, &type, &lb, &ub);
+ edge last_e = graphite_create_new_loop_guard (next_e, stmt, level, &type,
+ &lb, &ub, ip);
edge true_e = get_true_edge_from_guard_bb (next_e->dest);
- translate_clast_for_loop (region, context_loop, stmt, true_e, newivs,
- newivs_index, bb_pbb_mapping, level,
- params_index, type, lb, ub);
+ translate_clast_for_loop (context_loop, stmt, true_e, bb_pbb_mapping, level,
+ type, lb, ub, ip);
return last_e;
}
/* Translates a clast guard statement STMT to gimple.
- - REGION is the sese region we used to generate the scop.
- NEXT_E is the edge where new generated code should be attached.
- CONTEXT_LOOP is the loop in which the generated code will be placed
- - BB_PBB_MAPPING is is a basic_block and it's related poly_bb_p mapping.
- - PARAMS_INDEX connects the cloog parameters with the gimple parameters in
- the sese region. */
+ - BB_PBB_MAPPING is is a basic_block and it's related poly_bb_p mapping. */
+
static edge
-translate_clast_guard (sese region, loop_p context_loop,
- struct clast_guard *stmt, edge next_e,
- VEC (tree, heap) **newivs,
- htab_t newivs_index, htab_t bb_pbb_mapping, int level,
- htab_t params_index)
+translate_clast_guard (loop_p context_loop, struct clast_guard *stmt,
+ edge next_e, htab_t bb_pbb_mapping, int level,
+ ivs_params_p ip)
{
- edge last_e = graphite_create_new_guard (region, next_e, stmt, *newivs,
- newivs_index, params_index);
+ edge last_e = graphite_create_new_guard (next_e, stmt, ip);
edge true_e = get_true_edge_from_guard_bb (next_e->dest);
- translate_clast (region, context_loop, stmt->then, true_e,
- newivs, newivs_index, bb_pbb_mapping,
- level, params_index);
+ translate_clast (context_loop, stmt->then, true_e, bb_pbb_mapping, level, ip);
return last_e;
}
- NEXT_E is the edge where new generated code should be attached.
- CONTEXT_LOOP is the loop in which the generated code will be placed
- BB_PBB_MAPPING is is a basic_block and it's related poly_bb_p mapping. */
+
static edge
-translate_clast (sese region, loop_p context_loop, struct clast_stmt *stmt,
- edge next_e, VEC (tree, heap) **newivs,
- htab_t newivs_index, htab_t bb_pbb_mapping, int level,
- htab_t params_index)
+translate_clast (loop_p context_loop, struct clast_stmt *stmt, edge next_e,
+ htab_t bb_pbb_mapping, int level, ivs_params_p ip)
{
if (!stmt)
return next_e;
; /* Do nothing. */
else if (CLAST_STMT_IS_A (stmt, stmt_user))
- next_e = translate_clast_user (region, (struct clast_user_stmt *) stmt,
- next_e, newivs, newivs_index,
- bb_pbb_mapping, params_index);
+ next_e = translate_clast_user ((struct clast_user_stmt *) stmt,
+ next_e, bb_pbb_mapping, ip);
else if (CLAST_STMT_IS_A (stmt, stmt_for))
- next_e = translate_clast_for (region, context_loop,
- (struct clast_for *) stmt, next_e,
- newivs, newivs_index,
- bb_pbb_mapping, level, params_index);
+ next_e = translate_clast_for (context_loop, (struct clast_for *) stmt,
+ next_e, bb_pbb_mapping, level, ip);
else if (CLAST_STMT_IS_A (stmt, stmt_guard))
- next_e = translate_clast_guard (region, context_loop,
- (struct clast_guard *) stmt, next_e,
- newivs, newivs_index,
- bb_pbb_mapping, level, params_index);
+ next_e = translate_clast_guard (context_loop, (struct clast_guard *) stmt,
+ next_e, bb_pbb_mapping, level, ip);
else if (CLAST_STMT_IS_A (stmt, stmt_block))
- next_e = translate_clast (region, context_loop,
- ((struct clast_block *) stmt)->body,
- next_e, newivs, newivs_index,
- bb_pbb_mapping, level, params_index);
+ next_e = translate_clast (context_loop, ((struct clast_block *) stmt)->body,
+ next_e, bb_pbb_mapping, level, ip);
else
gcc_unreachable();
recompute_all_dominators ();
graphite_verify ();
- return translate_clast (region, context_loop, stmt->next, next_e,
- newivs, newivs_index,
- bb_pbb_mapping, level, params_index);
+ return translate_clast (context_loop, stmt->next, next_e, bb_pbb_mapping,
+ level, ip);
}
/* Free the SCATTERING domain list. */
for (i = 0; i < nb_parameters; i++)
{
- tree param = VEC_index (tree, SESE_PARAMS(region), i);
+ tree param = VEC_index (tree, SESE_PARAMS (region), i);
const char *name = get_name (param);
int len;
ifsese if_region = NULL;
htab_t newivs_index, params_index;
cloog_prog_clast pc;
+ struct ivs_params ip;
timevar_push (TV_GRAPHITE_CODE_GEN);
gloog_error = false;
create_params_index (params_index, pc.prog);
- translate_clast (region, context_loop, pc.stmt,
- if_region->true_region->entry,
- &newivs, newivs_index,
- bb_pbb_mapping, 0, params_index);
+ ip.newivs = &newivs;
+ ip.newivs_index = newivs_index;
+ ip.params = SESE_PARAMS (region);
+ ip.params_index = params_index;
+ ip.region = region;
+
+ translate_clast (context_loop, pc.stmt, if_region->true_region->entry,
+ bb_pbb_mapping, 0, &ip);
graphite_verify ();
scev_reset ();
recompute_all_dominators ();
projects / gcc.git / commitdiff