unsigned int i;
fprintf (outf, "(Data Ref: \n stmt: ");
- print_generic_stmt (outf, DR_STMT (dr), 0);
+ print_gimple_stmt (outf, DR_STMT (dr), 0, 0);
fprintf (outf, " ref: ");
print_generic_stmt (outf, DR_REF (dr), 0);
fprintf (outf, " base_object: ");
fprintf (file, "\n\n");
}
-/* Expresses EXP as VAR + OFF, where off is a constant. The type of OFF
- will be ssizetype. */
+/* Helper function for split_constant_offset. Expresses OP0 CODE OP1
+ (the type of the result is TYPE) as VAR + OFF, where OFF is a nonzero
+ constant of type ssizetype, and returns true. If we cannot do this
+ with OFF nonzero, OFF and VAR are set to NULL_TREE instead and false
+ is returned. */
-void
-split_constant_offset (tree exp, tree *var, tree *off)
+static bool
+split_constant_offset_1 (tree type, tree op0, enum tree_code code, tree op1,
+ tree *var, tree *off)
{
- tree type = TREE_TYPE (exp), otype;
tree var0, var1;
tree off0, off1;
- enum tree_code code;
+ enum tree_code ocode = code;
- *var = exp;
- STRIP_NOPS (exp);
- otype = TREE_TYPE (exp);
- code = TREE_CODE (exp);
+ *var = NULL_TREE;
+ *off = NULL_TREE;
switch (code)
{
case INTEGER_CST:
*var = build_int_cst (type, 0);
- *off = fold_convert (ssizetype, exp);
- return;
+ *off = fold_convert (ssizetype, op0);
+ return true;
case POINTER_PLUS_EXPR:
- code = PLUS_EXPR;
+ ocode = PLUS_EXPR;
/* FALLTHROUGH */
case PLUS_EXPR:
case MINUS_EXPR:
- split_constant_offset (TREE_OPERAND (exp, 0), &var0, &off0);
- split_constant_offset (TREE_OPERAND (exp, 1), &var1, &off1);
- *var = fold_convert (type, fold_build2 (TREE_CODE (exp), otype,
- var0, var1));
- *off = size_binop (code, off0, off1);
- return;
+ split_constant_offset (op0, &var0, &off0);
+ split_constant_offset (op1, &var1, &off1);
+ *var = fold_build2 (code, type, var0, var1);
+ *off = size_binop (ocode, off0, off1);
+ return true;
case MULT_EXPR:
- off1 = TREE_OPERAND (exp, 1);
- if (TREE_CODE (off1) != INTEGER_CST)
- break;
+ if (TREE_CODE (op1) != INTEGER_CST)
+ return false;
- split_constant_offset (TREE_OPERAND (exp, 0), &var0, &off0);
- *var = fold_convert (type, fold_build2 (MULT_EXPR, otype,
- var0, off1));
- *off = size_binop (MULT_EXPR, off0, fold_convert (ssizetype, off1));
- return;
+ split_constant_offset (op0, &var0, &off0);
+ *var = fold_build2 (MULT_EXPR, type, var0, op1);
+ *off = size_binop (MULT_EXPR, off0, fold_convert (ssizetype, op1));
+ return true;
case ADDR_EXPR:
{
- tree op, base, poffset;
+ tree base, poffset;
HOST_WIDE_INT pbitsize, pbitpos;
enum machine_mode pmode;
int punsignedp, pvolatilep;
- op = TREE_OPERAND (exp, 0);
- if (!handled_component_p (op))
- break;
+ if (!handled_component_p (op0))
+ return false;
- base = get_inner_reference (op, &pbitsize, &pbitpos, &poffset,
+ base = get_inner_reference (op0, &pbitsize, &pbitpos, &poffset,
&pmode, &punsignedp, &pvolatilep, false);
if (pbitpos % BITS_PER_UNIT != 0)
- break;
+ return false;
base = build_fold_addr_expr (base);
off0 = ssize_int (pbitpos / BITS_PER_UNIT);
To compute that ARRAY_REF's element size TYPE_SIZE_UNIT, which
possibly no longer appears in current GIMPLE, might resurface.
This perhaps could run
- if (TREE_CODE (var0) == NOP_EXPR
- || TREE_CODE (var0) == CONVERT_EXPR)
+ if (CONVERT_EXPR_P (var0))
{
gimplify_conversion (&var0);
// Attempt to fill in any within var0 found ARRAY_REF's
while (POINTER_TYPE_P (type))
type = TREE_TYPE (type);
if (int_size_in_bytes (type) < 0)
- break;
+ return false;
*var = var0;
*off = off0;
- return;
+ return true;
}
case SSA_NAME:
{
- tree def_stmt = SSA_NAME_DEF_STMT (exp);
- if (TREE_CODE (def_stmt) == GIMPLE_MODIFY_STMT)
- {
- tree def_stmt_rhs = GIMPLE_STMT_OPERAND (def_stmt, 1);
+ gimple def_stmt = SSA_NAME_DEF_STMT (op0);
+ enum tree_code subcode;
- if (!TREE_SIDE_EFFECTS (def_stmt_rhs)
- && EXPR_P (def_stmt_rhs)
- && !REFERENCE_CLASS_P (def_stmt_rhs)
- && !get_call_expr_in (def_stmt_rhs))
- {
- split_constant_offset (def_stmt_rhs, &var0, &off0);
- var0 = fold_convert (type, var0);
- *var = var0;
- *off = off0;
- return;
- }
- }
- break;
+ if (gimple_code (def_stmt) != GIMPLE_ASSIGN)
+ return false;
+
+ var0 = gimple_assign_rhs1 (def_stmt);
+ subcode = gimple_assign_rhs_code (def_stmt);
+ var1 = gimple_assign_rhs2 (def_stmt);
+
+ return split_constant_offset_1 (type, var0, subcode, var1, var, off);
}
default:
- break;
+ return false;
}
+}
+
+/* Expresses EXP as VAR + OFF, where off is a constant. The type of OFF
+ will be ssizetype. */
+void
+split_constant_offset (tree exp, tree *var, tree *off)
+{
+ tree type = TREE_TYPE (exp), otype, op0, op1, e, o;
+ enum tree_code code;
+
+ *var = exp;
*off = ssize_int (0);
+ STRIP_NOPS (exp);
+
+ if (automatically_generated_chrec_p (exp))
+ return;
+
+ otype = TREE_TYPE (exp);
+ code = TREE_CODE (exp);
+ extract_ops_from_tree (exp, &code, &op0, &op1);
+ if (split_constant_offset_1 (otype, op0, code, op1, &e, &o))
+ {
+ *var = fold_convert (type, e);
+ *off = o;
+ }
}
/* Returns the address ADDR of an object in a canonical shape (without nop
void
dr_analyze_innermost (struct data_reference *dr)
{
- tree stmt = DR_STMT (dr);
+ gimple stmt = DR_STMT (dr);
struct loop *loop = loop_containing_stmt (stmt);
tree ref = DR_REF (dr);
HOST_WIDE_INT pbitsize, pbitpos;
static void
dr_analyze_indices (struct data_reference *dr, struct loop *nest)
{
- tree stmt = DR_STMT (dr);
+ gimple stmt = DR_STMT (dr);
struct loop *loop = loop_containing_stmt (stmt);
VEC (tree, heap) *access_fns = NULL;
tree ref = unshare_expr (DR_REF (dr)), aref = ref, op;
tree base, off, access_fn;
+ basic_block before_loop = block_before_loop (nest);
while (handled_component_p (aref))
{
{
op = TREE_OPERAND (aref, 1);
access_fn = analyze_scalar_evolution (loop, op);
- access_fn = instantiate_scev (nest, loop, access_fn);
+ access_fn = instantiate_scev (before_loop, loop, access_fn);
VEC_safe_push (tree, heap, access_fns, access_fn);
TREE_OPERAND (aref, 1) = build_int_cst (TREE_TYPE (op), 0);
{
op = TREE_OPERAND (aref, 0);
access_fn = analyze_scalar_evolution (loop, op);
- access_fn = instantiate_scev (nest, loop, access_fn);
+ access_fn = instantiate_scev (before_loop, loop, access_fn);
base = initial_condition (access_fn);
split_constant_offset (base, &base, &off);
access_fn = chrec_replace_initial_condition (access_fn,
static void
dr_analyze_alias (struct data_reference *dr)
{
- tree stmt = DR_STMT (dr);
+ gimple stmt = DR_STMT (dr);
tree ref = DR_REF (dr);
tree base = get_base_address (ref), addr, smt = NULL_TREE;
ssa_op_iter it;
loop nest in that the reference should be analyzed. */
struct data_reference *
-create_data_ref (struct loop *nest, tree memref, tree stmt, bool is_read)
+create_data_ref (struct loop *nest, tree memref, gimple stmt, bool is_read)
{
struct data_reference *dr;
/* Returns false if we can prove that data references A and B do not alias,
true otherwise. */
-static bool
+bool
dr_may_alias_p (const struct data_reference *a, const struct data_reference *b)
{
const_tree addr_a = DR_BASE_ADDRESS (a);
{
free_conflict_function (s->conflicting_iterations_in_a);
free_conflict_function (s->conflicting_iterations_in_b);
+ free (s);
}
VEC_free (subscript_p, heap, subscripts);
}
fprintf (dump_file, "(analyze_ziv_subscript \n");
type = signed_type_for_types (TREE_TYPE (chrec_a), TREE_TYPE (chrec_b));
- chrec_a = chrec_convert (type, chrec_a, NULL_TREE);
- chrec_b = chrec_convert (type, chrec_b, NULL_TREE);
+ chrec_a = chrec_convert (type, chrec_a, NULL);
+ chrec_b = chrec_convert (type, chrec_b, NULL);
difference = chrec_fold_minus (type, chrec_a, chrec_b);
switch (TREE_CODE (difference))
tree type, difference, tmp;
type = signed_type_for_types (TREE_TYPE (chrec_a), TREE_TYPE (chrec_b));
- chrec_a = chrec_convert (type, chrec_a, NULL_TREE);
- chrec_b = chrec_convert (type, chrec_b, NULL_TREE);
+ chrec_a = chrec_convert (type, chrec_a, NULL);
+ chrec_b = chrec_convert (type, chrec_b, NULL);
difference = chrec_fold_minus (type, initial_condition (chrec_b), chrec_a);
if (!chrec_is_positive (initial_condition (difference), &value0))
case NOP_EXPR:
{
tree op = initialize_matrix_A (A, TREE_OPERAND (chrec, 0), index, mult);
- return chrec_convert (chrec_type (chrec), op, NULL_TREE);
+ return chrec_convert (chrec_type (chrec), op, NULL);
}
case INTEGER_CST:
type = chrec_type (*chrec_a);
left_a = CHREC_LEFT (*chrec_a);
- left_b = chrec_convert (type, CHREC_LEFT (*chrec_b), NULL_TREE);
+ left_b = chrec_convert (type, CHREC_LEFT (*chrec_b), NULL);
diff = chrec_fold_minus (type, left_a, left_b);
if (!evolution_function_is_constant_p (diff))
*chrec_a = build_polynomial_chrec (CHREC_VARIABLE (*chrec_a),
diff, CHREC_RIGHT (*chrec_a));
- right_b = chrec_convert (type, CHREC_RIGHT (*chrec_b), NULL_TREE);
+ right_b = chrec_convert (type, CHREC_RIGHT (*chrec_b), NULL);
*chrec_b = build_polynomial_chrec (CHREC_VARIABLE (*chrec_b),
build_int_cst (type, 0),
right_b);
fprintf (dump_file, "(analyze_miv_subscript \n");
type = signed_type_for_types (TREE_TYPE (chrec_a), TREE_TYPE (chrec_b));
- chrec_a = chrec_convert (type, chrec_a, NULL_TREE);
- chrec_b = chrec_convert (type, chrec_b, NULL_TREE);
+ chrec_a = chrec_convert (type, chrec_a, NULL);
+ chrec_b = chrec_convert (type, chrec_b, NULL);
difference = chrec_fold_minus (type, chrec_a, chrec_b);
if (eq_evolutions_p (chrec_a, chrec_b))
return true;
}
+/* Return true if we can create an affine data-ref for OP in STMT. */
+
+bool
+stmt_simple_memref_p (struct loop *loop, gimple stmt, tree op)
+{
+ data_reference_p dr;
+ bool res = true;
+
+ dr = create_data_ref (loop, op, stmt, true);
+ if (!access_functions_are_affine_or_constant_p (dr, loop))
+ res = false;
+
+ free_data_ref (dr);
+ return res;
+}
+
/* Initializes an equation for an OMEGA problem using the information
contained in the ACCESS_FUN. Returns true when the operation
succeeded.
int eq;
tree type = signed_type_for_types (TREE_TYPE (access_fun_a),
TREE_TYPE (access_fun_b));
- tree fun_a = chrec_convert (type, access_fun_a, NULL_TREE);
- tree fun_b = chrec_convert (type, access_fun_b, NULL_TREE);
+ tree fun_a = chrec_convert (type, access_fun_a, NULL);
+ tree fun_b = chrec_convert (type, access_fun_b, NULL);
tree difference = chrec_fold_minus (type, fun_a, fun_b);
/* When the fun_a - fun_b is not constant, the dependence is not
{
fprintf (dump_file, "(compute_affine_dependence\n");
fprintf (dump_file, " (stmt_a = \n");
- print_generic_expr (dump_file, DR_STMT (dra), 0);
+ print_gimple_stmt (dump_file, DR_STMT (dra), 0, 0);
fprintf (dump_file, ")\n (stmt_b = \n");
- print_generic_expr (dump_file, DR_STMT (drb), 0);
+ print_gimple_stmt (dump_file, DR_STMT (drb), 0, 0);
fprintf (dump_file, ")\n");
}
true if STMT clobbers memory, false otherwise. */
bool
-get_references_in_stmt (tree stmt, VEC (data_ref_loc, heap) **references)
+get_references_in_stmt (gimple stmt, VEC (data_ref_loc, heap) **references)
{
bool clobbers_memory = false;
data_ref_loc *ref;
- tree *op0, *op1, call;
+ tree *op0, *op1;
+ enum gimple_code stmt_code = gimple_code (stmt);
*references = NULL;
/* ASM_EXPR and CALL_EXPR may embed arbitrary side effects.
Calls have side-effects, except those to const or pure
functions. */
- call = get_call_expr_in (stmt);
- if ((call
- && !(call_expr_flags (call) & (ECF_CONST | ECF_PURE)))
- || (TREE_CODE (stmt) == ASM_EXPR
- && ASM_VOLATILE_P (stmt)))
+ if ((stmt_code == GIMPLE_CALL
+ && !(gimple_call_flags (stmt) & (ECF_CONST | ECF_PURE)))
+ || (stmt_code == GIMPLE_ASM
+ && gimple_asm_volatile_p (stmt)))
clobbers_memory = true;
if (ZERO_SSA_OPERANDS (stmt, SSA_OP_ALL_VIRTUALS))
return clobbers_memory;
- if (TREE_CODE (stmt) == GIMPLE_MODIFY_STMT)
+ if (stmt_code == GIMPLE_ASSIGN)
{
tree base;
- op0 = &GIMPLE_STMT_OPERAND (stmt, 0);
- op1 = &GIMPLE_STMT_OPERAND (stmt, 1);
+ op0 = gimple_assign_lhs_ptr (stmt);
+ op1 = gimple_assign_rhs1_ptr (stmt);
if (DECL_P (*op1)
|| (REFERENCE_CLASS_P (*op1)
ref->is_read = false;
}
}
-
- if (call)
+ else if (stmt_code == GIMPLE_CALL)
{
- unsigned i, n = call_expr_nargs (call);
+ unsigned i, n = gimple_call_num_args (stmt);
for (i = 0; i < n; i++)
{
- op0 = &CALL_EXPR_ARG (call, i);
+ op0 = gimple_call_arg_ptr (stmt, i);
if (DECL_P (*op0)
|| (REFERENCE_CLASS_P (*op0) && get_base_address (*op0)))
/* Stores the data references in STMT to DATAREFS. If there is an unanalyzable
reference, returns false, otherwise returns true. NEST is the outermost
- loop of the loop nest in that the references should be analyzed. */
+ loop of the loop nest in which the references should be analyzed. */
-static bool
-find_data_references_in_stmt (struct loop *nest, tree stmt,
+bool
+find_data_references_in_stmt (struct loop *nest, gimple stmt,
VEC (data_reference_p, heap) **datarefs)
{
unsigned i;
TODO: This function should be made smarter so that it can handle address
arithmetic as if they were array accesses, etc. */
-static tree
+tree
find_data_references_in_loop (struct loop *loop,
VEC (data_reference_p, heap) **datarefs)
{
basic_block bb, *bbs;
unsigned int i;
- block_stmt_iterator bsi;
+ gimple_stmt_iterator bsi;
bbs = get_loop_body_in_dom_order (loop);
{
bb = bbs[i];
- for (bsi = bsi_start (bb); !bsi_end_p (bsi); bsi_next (&bsi))
+ for (bsi = gsi_start_bb (bb); !gsi_end_p (bsi); gsi_next (&bsi))
{
- tree stmt = bsi_stmt (bsi);
+ gimple stmt = gsi_stmt (bsi);
if (!find_data_references_in_stmt (loop, stmt, datarefs))
{
fprintf (file, " %d", e->dest);
fprintf (file, ") \n");
- print_generic_stmt (file, RDGV_STMT (v), TDF_VOPS|TDF_MEMSYMS);
+ print_gimple_stmt (file, RDGV_STMT (v), 0, TDF_VOPS|TDF_MEMSYMS);
fprintf (file, ")\n");
}
struct rdg_vertex_info GTY(())
{
- tree stmt;
+ gimple stmt;
int index;
};
/* Returns the index of STMT in RDG. */
int
-rdg_vertex_for_stmt (struct graph *rdg, tree stmt)
+rdg_vertex_for_stmt (struct graph *rdg, gimple stmt)
{
struct rdg_vertex_info rvi, *slot;
e->data = XNEW (struct rdg_edge);
RDGE_LEVEL (e) = level;
+ RDGE_RELATION (e) = ddr;
/* Determines the type of the data dependence. */
if (DR_IS_READ (dra) && DR_IS_READ (drb))
e = add_edge (rdg, idef, use);
e->data = XNEW (struct rdg_edge);
RDGE_TYPE (e) = flow_dd;
+ RDGE_RELATION (e) = NULL;
}
}
/* Build the vertices of the reduced dependence graph RDG. */
-static void
-create_rdg_vertices (struct graph *rdg, VEC (tree, heap) *stmts)
+void
+create_rdg_vertices (struct graph *rdg, VEC (gimple, heap) *stmts)
{
int i, j;
- tree stmt;
+ gimple stmt;
- for (i = 0; VEC_iterate (tree, stmts, i, stmt); i++)
+ for (i = 0; VEC_iterate (gimple, stmts, i, stmt); i++)
{
VEC (data_ref_loc, heap) *references;
data_ref_loc *ref;
RDG_MEM_WRITE_STMT (rdg, i) = false;
RDG_MEM_READS_STMT (rdg, i) = false;
- if (TREE_CODE (stmt) == PHI_NODE)
+ if (gimple_code (stmt) == GIMPLE_PHI)
continue;
get_references_in_stmt (stmt, &references);
identifying statements. */
static void
-stmts_from_loop (struct loop *loop, VEC (tree, heap) **stmts)
+stmts_from_loop (struct loop *loop, VEC (gimple, heap) **stmts)
{
unsigned int i;
basic_block *bbs = get_loop_body_in_dom_order (loop);
for (i = 0; i < loop->num_nodes; i++)
{
- tree phi, stmt;
basic_block bb = bbs[i];
- block_stmt_iterator bsi;
+ gimple_stmt_iterator bsi;
+ gimple stmt;
- for (phi = phi_nodes (bb); phi; phi = PHI_CHAIN (phi))
- VEC_safe_push (tree, heap, *stmts, phi);
+ for (bsi = gsi_start_phis (bb); !gsi_end_p (bsi); gsi_next (&bsi))
+ VEC_safe_push (gimple, heap, *stmts, gsi_stmt (bsi));
- for (bsi = bsi_start (bb); !bsi_end_p (bsi); bsi_next (&bsi))
- if (TREE_CODE (stmt = bsi_stmt (bsi)) != LABEL_EXPR)
- VEC_safe_push (tree, heap, *stmts, stmt);
+ for (bsi = gsi_start_bb (bb); !gsi_end_p (bsi); gsi_next (&bsi))
+ {
+ stmt = gsi_stmt (bsi);
+ if (gimple_code (stmt) != GIMPLE_LABEL)
+ VEC_safe_push (gimple, heap, *stmts, stmt);
+ }
}
free (bbs);
{
const struct rdg_vertex_info *const rvi =
(const struct rdg_vertex_info *) elt;
- const_tree stmt = rvi->stmt;
+ gimple stmt = rvi->stmt;
return htab_hash_pointer (stmt);
}
scalar dependence. */
struct graph *
+build_empty_rdg (int n_stmts)
+{
+ int nb_data_refs = 10;
+ struct graph *rdg = new_graph (n_stmts);
+
+ rdg->indices = htab_create (nb_data_refs, hash_stmt_vertex_info,
+ eq_stmt_vertex_info, hash_stmt_vertex_del);
+ return rdg;
+}
+
+/* Build the Reduced Dependence Graph (RDG) with one vertex per
+ statement of the loop nest, and one edge per data dependence or
+ scalar dependence. */
+
+struct graph *
build_rdg (struct loop *loop)
{
int nb_data_refs = 10;
struct graph *rdg = NULL;
VEC (ddr_p, heap) *dependence_relations;
VEC (data_reference_p, heap) *datarefs;
- VEC (tree, heap) *stmts = VEC_alloc (tree, heap, nb_data_refs);
+ VEC (gimple, heap) *stmts = VEC_alloc (gimple, heap, nb_data_refs);
dependence_relations = VEC_alloc (ddr_p, heap, nb_data_refs * nb_data_refs) ;
datarefs = VEC_alloc (data_reference_p, heap, nb_data_refs);
&dependence_relations);
if (!known_dependences_p (dependence_relations))
- goto end_rdg;
+ {
+ free_dependence_relations (dependence_relations);
+ free_data_refs (datarefs);
+ VEC_free (gimple, heap, stmts);
+
+ return rdg;
+ }
stmts_from_loop (loop, &stmts);
- rdg = new_graph (VEC_length (tree, stmts));
+ rdg = build_empty_rdg (VEC_length (gimple, stmts));
rdg->indices = htab_create (nb_data_refs, hash_stmt_vertex_info,
eq_stmt_vertex_info, hash_stmt_vertex_del);
create_rdg_vertices (rdg, stmts);
create_rdg_edges (rdg, dependence_relations);
- end_rdg:
- free_dependence_relations (dependence_relations);
- free_data_refs (datarefs);
- VEC_free (tree, heap, stmts);
-
+ VEC_free (gimple, heap, stmts);
return rdg;
}
store to memory. */
void
-stores_from_loop (struct loop *loop, VEC (tree, heap) **stmts)
+stores_from_loop (struct loop *loop, VEC (gimple, heap) **stmts)
{
unsigned int i;
basic_block *bbs = get_loop_body_in_dom_order (loop);
for (i = 0; i < loop->num_nodes; i++)
{
basic_block bb = bbs[i];
- block_stmt_iterator bsi;
+ gimple_stmt_iterator bsi;
- for (bsi = bsi_start (bb); !bsi_end_p (bsi); bsi_next (&bsi))
- if (!ZERO_SSA_OPERANDS (bsi_stmt (bsi), SSA_OP_VDEF))
- VEC_safe_push (tree, heap, *stmts, bsi_stmt (bsi));
+ for (bsi = gsi_start_bb (bb); !gsi_end_p (bsi); gsi_next (&bsi))
+ if (!ZERO_SSA_OPERANDS (gsi_stmt (bsi), SSA_OP_VDEF))
+ VEC_safe_push (gimple, heap, *stmts, gsi_stmt (bsi));
}
free (bbs);
address or NULL_TREE if the base is not determined. */
static inline tree
-ref_base_address (tree stmt, data_ref_loc *ref)
+ref_base_address (gimple stmt, data_ref_loc *ref)
{
tree base = NULL_TREE;
tree base_address;
bool
rdg_defs_used_in_other_loops_p (struct graph *rdg, int v)
{
- tree stmt = RDG_STMT (rdg, v);
+ gimple stmt = RDG_STMT (rdg, v);
struct loop *loop = loop_containing_stmt (stmt);
use_operand_p imm_use_p;
imm_use_iterator iterator;
ref_base_address is the same. */
bool
-have_similar_memory_accesses (tree s1, tree s2)
+have_similar_memory_accesses (gimple s1, gimple s2)
{
bool res = false;
unsigned i, j;
static int
have_similar_memory_accesses_1 (const void *s1, const void *s2)
{
- return have_similar_memory_accesses (CONST_CAST_TREE ((const_tree)s1),
- CONST_CAST_TREE ((const_tree)s2));
+ return have_similar_memory_accesses (CONST_CAST_GIMPLE ((const_gimple) s1),
+ CONST_CAST_GIMPLE ((const_gimple) s2));
}
/* Helper function for the hashtab. */
static hashval_t
ref_base_address_1 (const void *s)
{
- tree stmt = CONST_CAST_TREE((const_tree)s);
+ gimple stmt = CONST_CAST_GIMPLE ((const_gimple) s);
unsigned i;
VEC (data_ref_loc, heap) *refs;
data_ref_loc *ref;
/* Try to remove duplicated write data references from STMTS. */
void
-remove_similar_memory_refs (VEC (tree, heap) **stmts)
+remove_similar_memory_refs (VEC (gimple, heap) **stmts)
{
unsigned i;
- tree stmt;
- htab_t seen = htab_create (VEC_length (tree, *stmts), ref_base_address_1,
+ gimple stmt;
+ htab_t seen = htab_create (VEC_length (gimple, *stmts), ref_base_address_1,
have_similar_memory_accesses_1, NULL);
- for (i = 0; VEC_iterate (tree, *stmts, i, stmt); )
+ for (i = 0; VEC_iterate (gimple, *stmts, i, stmt); )
{
void **slot;
slot = htab_find_slot (seen, stmt, INSERT);
if (*slot)
- VEC_ordered_remove (tree, *stmts, i);
+ VEC_ordered_remove (gimple, *stmts, i);
else
{
*slot = (void *) stmt;
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