};
/* Represents a test performed by a decision. */
-struct test
+struct rtx_test
{
- test ();
+ rtx_test ();
/* The types of test that can be performed. Most of them take as input
an rtx X. Some also take as input a transition label LABEL; the others
acceptance_type acceptance;
} u;
- static test code (position *);
- static test mode (position *);
- static test int_field (position *, int);
- static test wide_int_field (position *, int);
- static test veclen (position *);
- static test peep2_count (int);
- static test veclen_ge (position *, int);
- static test predicate (position *, const pred_data *, machine_mode);
- static test duplicate (position *, int);
- static test pattern (position *, pattern_use *);
- static test have_num_clobbers ();
- static test c_test (const char *);
- static test set_op (position *, int);
- static test accept (const acceptance_type &);
+ static rtx_test code (position *);
+ static rtx_test mode (position *);
+ static rtx_test int_field (position *, int);
+ static rtx_test wide_int_field (position *, int);
+ static rtx_test veclen (position *);
+ static rtx_test peep2_count (int);
+ static rtx_test veclen_ge (position *, int);
+ static rtx_test predicate (position *, const pred_data *, machine_mode);
+ static rtx_test duplicate (position *, int);
+ static rtx_test pattern (position *, pattern_use *);
+ static rtx_test have_num_clobbers ();
+ static rtx_test c_test (const char *);
+ static rtx_test set_op (position *, int);
+ static rtx_test accept (const acceptance_type &);
bool terminal_p () const;
bool single_outcome_p () const;
private:
- test (position *, kind_enum);
+ rtx_test (position *, kind_enum);
};
-test::test () {}
+rtx_test::rtx_test () {}
-test::test (position *pos_in, kind_enum kind_in)
+rtx_test::rtx_test (position *pos_in, kind_enum kind_in)
: pos (pos_in), pos_operand (-1), kind (kind_in) {}
-test
-test::code (position *pos)
+rtx_test
+rtx_test::code (position *pos)
{
- return test (pos, test::CODE);
+ return rtx_test (pos, rtx_test::CODE);
}
-test
-test::mode (position *pos)
+rtx_test
+rtx_test::mode (position *pos)
{
- return test (pos, test::MODE);
+ return rtx_test (pos, rtx_test::MODE);
}
-test
-test::int_field (position *pos, int opno)
+rtx_test
+rtx_test::int_field (position *pos, int opno)
{
- test res (pos, test::INT_FIELD);
+ rtx_test res (pos, rtx_test::INT_FIELD);
res.u.opno = opno;
return res;
}
-test
-test::wide_int_field (position *pos, int opno)
+rtx_test
+rtx_test::wide_int_field (position *pos, int opno)
{
- test res (pos, test::WIDE_INT_FIELD);
+ rtx_test res (pos, rtx_test::WIDE_INT_FIELD);
res.u.opno = opno;
return res;
}
-test
-test::veclen (position *pos)
+rtx_test
+rtx_test::veclen (position *pos)
{
- return test (pos, test::VECLEN);
+ return rtx_test (pos, rtx_test::VECLEN);
}
-test
-test::peep2_count (int min_len)
+rtx_test
+rtx_test::peep2_count (int min_len)
{
- test res (0, test::PEEP2_COUNT);
+ rtx_test res (0, rtx_test::PEEP2_COUNT);
res.u.min_len = min_len;
return res;
}
-test
-test::veclen_ge (position *pos, int min_len)
+rtx_test
+rtx_test::veclen_ge (position *pos, int min_len)
{
- test res (pos, test::VECLEN_GE);
+ rtx_test res (pos, rtx_test::VECLEN_GE);
res.u.min_len = min_len;
return res;
}
-test
-test::predicate (position *pos, const struct pred_data *data,
- machine_mode mode)
+rtx_test
+rtx_test::predicate (position *pos, const struct pred_data *data,
+ machine_mode mode)
{
- test res (pos, test::PREDICATE);
+ rtx_test res (pos, rtx_test::PREDICATE);
res.u.predicate.data = data;
res.u.predicate.mode_is_param = false;
res.u.predicate.mode = mode;
return res;
}
-test
-test::duplicate (position *pos, int opno)
+rtx_test
+rtx_test::duplicate (position *pos, int opno)
{
- test res (pos, test::DUPLICATE);
+ rtx_test res (pos, rtx_test::DUPLICATE);
res.u.opno = opno;
return res;
}
-test
-test::pattern (position *pos, pattern_use *pattern)
+rtx_test
+rtx_test::pattern (position *pos, pattern_use *pattern)
{
- test res (pos, test::PATTERN);
+ rtx_test res (pos, rtx_test::PATTERN);
res.u.pattern = pattern;
return res;
}
-test
-test::have_num_clobbers ()
+rtx_test
+rtx_test::have_num_clobbers ()
{
- return test (0, test::HAVE_NUM_CLOBBERS);
+ return rtx_test (0, rtx_test::HAVE_NUM_CLOBBERS);
}
-test
-test::c_test (const char *string)
+rtx_test
+rtx_test::c_test (const char *string)
{
- test res (0, test::C_TEST);
+ rtx_test res (0, rtx_test::C_TEST);
res.u.string = string;
return res;
}
-test
-test::set_op (position *pos, int opno)
+rtx_test
+rtx_test::set_op (position *pos, int opno)
{
- test res (pos, test::SET_OP);
+ rtx_test res (pos, rtx_test::SET_OP);
res.u.opno = opno;
return res;
}
-test
-test::accept (const acceptance_type &acceptance)
+rtx_test
+rtx_test::accept (const acceptance_type &acceptance)
{
- test res (0, test::ACCEPT);
+ rtx_test res (0, rtx_test::ACCEPT);
res.u.acceptance = acceptance;
return res;
}
/* Return true if the test represents an unconditionally successful match. */
bool
-test::terminal_p () const
+rtx_test::terminal_p () const
{
- return kind == test::ACCEPT && u.acceptance.type != PEEPHOLE2;
+ return kind == rtx_test::ACCEPT && u.acceptance.type != PEEPHOLE2;
}
/* Return true if the test is a boolean that is always true. */
bool
-test::single_outcome_p () const
+rtx_test::single_outcome_p () const
{
- return terminal_p () || kind == test::SET_OP;
+ return terminal_p () || kind == rtx_test::SET_OP;
}
bool
-operator == (const test &a, const test &b)
+operator == (const rtx_test &a, const rtx_test &b)
{
if (a.pos != b.pos || a.kind != b.kind)
return false;
switch (a.kind)
{
- case test::CODE:
- case test::MODE:
- case test::VECLEN:
- case test::HAVE_NUM_CLOBBERS:
+ case rtx_test::CODE:
+ case rtx_test::MODE:
+ case rtx_test::VECLEN:
+ case rtx_test::HAVE_NUM_CLOBBERS:
return true;
- case test::PEEP2_COUNT:
- case test::VECLEN_GE:
+ case rtx_test::PEEP2_COUNT:
+ case rtx_test::VECLEN_GE:
return a.u.min_len == b.u.min_len;
- case test::INT_FIELD:
- case test::WIDE_INT_FIELD:
- case test::DUPLICATE:
- case test::SET_OP:
+ case rtx_test::INT_FIELD:
+ case rtx_test::WIDE_INT_FIELD:
+ case rtx_test::DUPLICATE:
+ case rtx_test::SET_OP:
return a.u.opno == b.u.opno;
- case test::SAVED_CONST_INT:
+ case rtx_test::SAVED_CONST_INT:
return (a.u.integer.is_param == b.u.integer.is_param
&& a.u.integer.value == b.u.integer.value);
- case test::PREDICATE:
+ case rtx_test::PREDICATE:
return (a.u.predicate.data == b.u.predicate.data
&& a.u.predicate.mode_is_param == b.u.predicate.mode_is_param
&& a.u.predicate.mode == b.u.predicate.mode);
- case test::PATTERN:
+ case rtx_test::PATTERN:
return (a.u.pattern->routine == b.u.pattern->routine
&& a.u.pattern->params == b.u.pattern->params);
- case test::C_TEST:
+ case rtx_test::C_TEST:
return strcmp (a.u.string, b.u.string) == 0;
- case test::ACCEPT:
+ case rtx_test::ACCEPT:
return a.u.acceptance == b.u.acceptance;
}
gcc_unreachable ();
}
bool
-operator != (const test &a, const test &b)
+operator != (const rtx_test &a, const rtx_test &b)
{
return !operator == (a, b);
}
transition *prev, *next;
/* The transition should be taken when T has one of these values.
- E.g. for test::CODE this is a set of codes, while for booleans like
- test::PREDICATE it is always a singleton "true". The labels are
+ E.g. for rtx_test::CODE this is a set of codes, while for booleans like
+ rtx_test::PREDICATE it is always a singleton "true". The labels are
sorted in ascending order. */
int_set labels;
bool optional;
/* True if LABELS contains parameter numbers rather than constants.
- E.g. if this is true for a test::CODE, the label is the number
+ E.g. if this is true for a rtx_test::CODE, the label is the number
of an rtx_code parameter rather than an rtx_code itself.
LABELS is always a singleton when this variable is true. */
bool is_param;
more decisions to try, fails the match. */
struct decision : list_head <transition>
{
- decision (const test &);
+ decision (const rtx_test &);
void set_parent (list_head <decision> *s);
bool if_statement_p (uint64_t * = 0) const;
decision *prev, *next;
/* The test to perform. */
- struct test test;
+ rtx_test test;
};
/* Represents one machine state. For each state the machine tries a list
from = static_cast <decision *> (from_in);
}
-decision::decision (const struct test &test_in)
+decision::decision (const rtx_test &test_in)
: prev (0), next (0), test (test_in) {}
/* Set the state to which this decision belongs. */
TRANS. */
static void
-add_decision (state *from, const test &test, transition *trans)
+add_decision (state *from, const rtx_test &test, transition *trans)
{
decision *d = new decision (test);
from->push_back (d);
should be optional. Return the new state. */
static state *
-add_decision (state *from, const test &test, int_set labels, bool optional)
+add_decision (state *from, const rtx_test &test, int_set labels, bool optional)
{
state *to = new state;
add_decision (from, test, new transition (labels, to, optional));
optional. */
static decision *
-insert_decision_before (state::range r, const test &test,
+insert_decision_before (state::range r, const rtx_test &test,
const int_set &labels, bool optional)
{
decision *newd = new decision (test);
uint64_t label;
/* Convert checks for GET_CODE (x) == CONST_INT and XWINT (x, 0) == N
into checks for const_int_rtx[N'], if N is suitably small. */
- if (d->test.kind == test::CODE
+ if (d->test.kind == rtx_test::CODE
&& d->if_statement_p (&label)
&& label == CONST_INT)
if (decision *second = d->first->to->singleton ())
if (d->test.pos == second->test.pos
- && second->test.kind == test::WIDE_INT_FIELD
+ && second->test.kind == rtx_test::WIDE_INT_FIELD
&& second->test.u.opno == 0
&& second->if_statement_p (&label)
&& IN_RANGE (int64_t (label),
-MAX_SAVED_CONST_INT, MAX_SAVED_CONST_INT))
{
- d->test.kind = test::SAVED_CONST_INT;
+ d->test.kind = rtx_test::SAVED_CONST_INT;
d->test.u.integer.is_param = false;
d->test.u.integer.value = label;
d->replace (d->first, second->release ());
paths that reach that code test require the same predicate
to be true. cse_tests will then put the predicate test in
series with the code test. */
- if (d->test.kind == test::CODE)
+ if (d->test.kind == rtx_test::CODE)
if (transition *trans = d->singleton ())
{
state *s = trans->to;
transition *trans2 = d2->singleton ();
if (!trans2)
break;
- if (d2->test.kind == test::PREDICATE)
+ if (d2->test.kind == rtx_test::PREDICATE)
{
d->test = d2->test;
trans->labels = int_set (true);
static bool
common_test_p (decision *d, transition *common, vec <transition *> *where)
{
- if (d->test.kind == test::ACCEPT)
+ if (d->test.kind == rtx_test::ACCEPT)
/* We found a successful return that didn't require COMMON. */
return false;
if (d->test == common->from->test)
as positive proof. */
static bool
-safe_to_hoist_p (decision *d, const test &test, known_conditions *kc)
+safe_to_hoist_p (decision *d, const rtx_test &test, known_conditions *kc)
{
switch (test.kind)
{
- case test::C_TEST:
+ case rtx_test::C_TEST:
/* In general, C tests require everything else to have been
verified and all operands to have been set up. */
return false;
- case test::ACCEPT:
+ case rtx_test::ACCEPT:
/* Don't accept something before all conditions have been tested. */
return false;
- case test::PREDICATE:
+ case rtx_test::PREDICATE:
/* Don't move a predicate over a test for VECLEN_GE, since the
predicate used in a match_parallel can legitimately expect the
length to be checked first. */
subd->test != test;
subd = subd->first->to->first)
if (subd->test.pos == test.pos
- && subd->test.kind == test::VECLEN_GE)
+ && subd->test.kind == rtx_test::VECLEN_GE)
return false;
goto any_rtx;
- case test::DUPLICATE:
+ case rtx_test::DUPLICATE:
/* Don't test for a match_dup until the associated operand has
been set. */
if (!kc->set_operands[test.u.opno])
return false;
goto any_rtx;
- case test::CODE:
- case test::MODE:
- case test::SAVED_CONST_INT:
- case test::SET_OP:
+ case rtx_test::CODE:
+ case rtx_test::MODE:
+ case rtx_test::SAVED_CONST_INT:
+ case rtx_test::SET_OP:
any_rtx:
/* Check whether it is safe to access the rtx under test. */
switch (test.pos->type)
}
gcc_unreachable ();
- case test::INT_FIELD:
- case test::WIDE_INT_FIELD:
- case test::VECLEN:
- case test::VECLEN_GE:
+ case rtx_test::INT_FIELD:
+ case rtx_test::WIDE_INT_FIELD:
+ case rtx_test::VECLEN:
+ case rtx_test::VECLEN_GE:
/* These tests access a specific part of an rtx, so are only safe
once we know what the rtx is. */
return kc->position_tests[test.pos->id] & TESTED_CODE;
- case test::PEEP2_COUNT:
- case test::HAVE_NUM_CLOBBERS:
+ case rtx_test::PEEP2_COUNT:
+ case rtx_test::HAVE_NUM_CLOBBERS:
/* These tests can be performed anywhere. */
return true;
- case test::PATTERN:
+ case rtx_test::PATTERN:
gcc_unreachable ();
}
gcc_unreachable ();
/* Make sure that safe_to_hoist_p isn't being overly conservative.
It should realize that D's test is safe in the current
environment. */
- gcc_assert (d->test.kind == test::C_TEST
- || d->test.kind == test::ACCEPT
+ gcc_assert (d->test.kind == rtx_test::C_TEST
+ || d->test.kind == rtx_test::ACCEPT
|| safe_to_hoist_p (d, d->test, kc));
/* D won't be changed any further by the current optimization.
int prev = 0;
switch (d->test.kind)
{
- case test::CODE:
+ case rtx_test::CODE:
prev = kc->position_tests[d->test.pos->id];
kc->position_tests[d->test.pos->id] |= TESTED_CODE;
break;
- case test::VECLEN:
- case test::VECLEN_GE:
+ case rtx_test::VECLEN:
+ case rtx_test::VECLEN_GE:
prev = kc->position_tests[d->test.pos->id];
kc->position_tests[d->test.pos->id] |= TESTED_VECLEN;
break;
- case test::SET_OP:
+ case rtx_test::SET_OP:
prev = kc->set_operands[d->test.u.opno];
gcc_assert (!prev);
kc->set_operands[d->test.u.opno] = true;
break;
- case test::PEEP2_COUNT:
+ case rtx_test::PEEP2_COUNT:
prev = kc->peep2_count;
kc->peep2_count = MAX (prev, d->test.u.min_len);
break;
cse_tests (d->test.pos ? d->test.pos : pos, trans->to, kc);
switch (d->test.kind)
{
- case test::CODE:
- case test::VECLEN:
- case test::VECLEN_GE:
+ case rtx_test::CODE:
+ case rtx_test::VECLEN:
+ case rtx_test::VECLEN_GE:
kc->position_tests[d->test.pos->id] = prev;
break;
- case test::SET_OP:
+ case rtx_test::SET_OP:
kc->set_operands[d->test.u.opno] = prev;
break;
- case test::PEEP2_COUNT:
+ case rtx_test::PEEP2_COUNT:
kc->peep2_count = prev;
break;
or parameter::UNSET if none. */
parameter::type_enum
-transition_parameter_type (test::kind_enum kind)
+transition_parameter_type (rtx_test::kind_enum kind)
{
switch (kind)
{
- case test::CODE:
+ case rtx_test::CODE:
return parameter::CODE;
- case test::MODE:
+ case rtx_test::MODE:
return parameter::MODE;
- case test::INT_FIELD:
- case test::VECLEN:
- case test::PATTERN:
+ case rtx_test::INT_FIELD:
+ case rtx_test::VECLEN:
+ case rtx_test::PATTERN:
return parameter::INT;
- case test::WIDE_INT_FIELD:
+ case rtx_test::WIDE_INT_FIELD:
return parameter::WIDE_INT;
- case test::PEEP2_COUNT:
- case test::VECLEN_GE:
- case test::SAVED_CONST_INT:
- case test::PREDICATE:
- case test::DUPLICATE:
- case test::HAVE_NUM_CLOBBERS:
- case test::C_TEST:
- case test::SET_OP:
- case test::ACCEPT:
+ case rtx_test::PEEP2_COUNT:
+ case rtx_test::VECLEN_GE:
+ case rtx_test::SAVED_CONST_INT:
+ case rtx_test::PREDICATE:
+ case rtx_test::DUPLICATE:
+ case rtx_test::HAVE_NUM_CLOBBERS:
+ case rtx_test::C_TEST:
+ case rtx_test::SET_OP:
+ case rtx_test::ACCEPT:
return parameter::UNSET;
}
gcc_unreachable ();
int this_operand = (d->test.pos ? operand_pos[d->test.pos->id] : -1);
if (this_operand >= 0)
d->test.pos_operand = this_operand;
- if (d->test.kind == test::SET_OP)
+ if (d->test.kind == rtx_test::SET_OP)
operand_pos[d->test.pos->id] = d->test.u.opno;
for (transition *trans = d->first; trans; trans = trans->next)
find_operand_positions (trans->to, operand_pos);
- if (d->test.kind == test::SET_OP)
+ if (d->test.kind == rtx_test::SET_OP)
operand_pos[d->test.pos->id] = this_operand;
}
}
for_d.num_decisions += 1;
for_d.longest_path += 1;
}
- if (d->test.kind == test::ACCEPT)
+ if (d->test.kind == rtx_test::ACCEPT)
{
for_d.longest_path_code = d->test.u.acceptance.u.full.code;
for_d.longest_backtrack_code = d->test.u.acceptance.u.full.code;
PARAMB alone. */
static bool
-compatible_tests_p (const test &a, const test &b,
+compatible_tests_p (const rtx_test &a, const rtx_test &b,
parameter *parama, parameter *paramb)
{
if (a.kind != b.kind)
return false;
switch (a.kind)
{
- case test::PREDICATE:
+ case rtx_test::PREDICATE:
if (a.u.predicate.data != b.u.predicate.data)
return false;
*parama = parameter (parameter::MODE, false, a.u.predicate.mode);
*paramb = parameter (parameter::MODE, false, b.u.predicate.mode);
return true;
- case test::SAVED_CONST_INT:
+ case rtx_test::SAVED_CONST_INT:
*parama = parameter (parameter::INT, false, a.u.integer.value);
*paramb = parameter (parameter::INT, false, b.u.integer.value);
return true;
parameterizing the first N const_ints of the vector
and then (once we reach the maximum number of parameters)
we go on to match the other elements exactly. */
- if (d1->test.kind == test::WIDE_INT_FIELD)
+ if (d1->test.kind == rtx_test::WIDE_INT_FIELD)
return false;
/* See whether the label has a generalizable type. */
pattern_use *use = new pattern_use;
use->routine = pat->routine;
use->params.splice (params);
- decision *d = new decision (test::pattern (res->root, use));
+ decision *d = new decision (rtx_test::pattern (res->root, use));
/* If the original decision could use an element of operands[] instead
of an rtx variable, try to transfer it to the new decision. */
acceptance.type = SUBPATTERN;
acceptance.partial_p = false;
acceptance.u.full.code = cpi->next_result;
- add_decision (s, test::accept (acceptance), true, false);
+ add_decision (s, rtx_test::accept (acceptance), true, false);
cpi->next_result += 1;
}
const parameter ¶m = params[pat->param_test];
switch (newd->test.kind)
{
- case test::PREDICATE:
+ case rtx_test::PREDICATE:
newd->test.u.predicate.mode_is_param = param.is_param;
newd->test.u.predicate.mode = param.value;
break;
- case test::SAVED_CONST_INT:
+ case rtx_test::SAVED_CONST_INT:
newd->test.u.integer.is_param = param.is_param;
newd->test.u.integer.value = param.value;
break;
break;
}
}
- if (d->test.kind == test::C_TEST)
+ if (d->test.kind == rtx_test::C_TEST)
routine->insn_p = true;
- else if (d->test.kind == test::HAVE_NUM_CLOBBERS)
+ else if (d->test.kind == rtx_test::HAVE_NUM_CLOBBERS)
routine->pnum_clobbers_p = true;
news->push_back (newd);
and so couldn't be shared between states). */
if (decision *d = sinfo->s->singleton ())
/* ACCEPT states are unique, so don't even try to merge them. */
- if (d->test.kind != test::ACCEPT
+ if (d->test.kind != rtx_test::ACCEPT
&& (pattern_have_num_clobbers_p
- || d->test.kind != test::HAVE_NUM_CLOBBERS)
+ || d->test.kind != rtx_test::HAVE_NUM_CLOBBERS)
&& (pattern_c_test_p
- || d->test.kind != test::C_TEST))
+ || d->test.kind != rtx_test::C_TEST))
{
merge_state_info **slot = hashtab.find_slot (sinfo, INSERT);
sinfo->prev_same_test = *slot;
acceptance.partial_p = true;
acceptance.u.subroutine_id = procs.length ();
state *news = new state;
- add_decision (news, test::accept (acceptance), true, false);
+ add_decision (news, rtx_test::accept (acceptance), true, false);
return news;
}
if (!newd->test.single_outcome_p ())
size.num_statements += 1;
trans = newd->singleton ();
- if (newd->test.kind == test::SET_OP
- || newd->test.kind == test::ACCEPT)
+ if (newd->test.kind == rtx_test::SET_OP
+ || newd->test.kind == rtx_test::ACCEPT)
break;
}
/* The target of TRANS is a subroutine candidate. First recurse
if (code == MATCH_PARALLEL || code == MATCH_PAR_DUP)
{
/* Check that we have a parallel with enough elements. */
- s = add_decision (s, test::code (pos), PARALLEL, false);
+ s = add_decision (s, rtx_test::code (pos), PARALLEL, false);
int min_len = XVECLEN (pattern, 2);
- s = add_decision (s, test::veclen_ge (pos, min_len),
+ s = add_decision (s, rtx_test::veclen_ge (pos, min_len),
true, false);
}
else
bool need_codes = (pred
&& (code == MATCH_OPERATOR
|| code == MATCH_OP_DUP));
- s = add_decision (s, test::code (pos), codes, !need_codes);
+ s = add_decision (s, rtx_test::code (pos), codes, !need_codes);
}
/* Postpone the predicate check until we've checked the rest
default:
{
/* Check that the rtx has the right code. */
- s = add_decision (s, test::code (pos), code, false);
+ s = add_decision (s, rtx_test::code (pos), code, false);
/* Queue a test for the mode if one is specified. */
if (GET_MODE (pattern) != VOIDmode)
/* Make sure the vector has the right number of
elements. */
int length = XVECLEN (pattern, i);
- s = add_decision (s, test::veclen (pos), length, false);
+ s = add_decision (s, rtx_test::veclen (pos),
+ length, false);
position **subpos2_ptr = &pos->xvecexp0s;
for (int j = 0; j < length; j++)
case 'i':
/* Make sure that XINT (X, I) has the right value. */
- s = add_decision (s, test::int_field (pos, i),
+ s = add_decision (s, rtx_test::int_field (pos, i),
XINT (pattern, i), false);
break;
case 'w':
/* Make sure that XWINT (X, I) has the right value. */
- s = add_decision (s, test::wide_int_field (pos, i),
+ s = add_decision (s, rtx_test::wide_int_field (pos, i),
XWINT (pattern, 0), false);
break;
and DImode register_operands, as described above. */
machine_mode mode = GET_MODE (e->pattern);
if (safe_predicate_mode (pred, mode))
- s = add_decision (s, test::mode (e->pos), mode, true);
+ s = add_decision (s, rtx_test::mode (e->pos), mode, true);
/* Assign to operands[] first, so that the rtx usually doesn't
need to be live across the call to the predicate.
since we fully expect to assign to operands[] at some point,
and since the caller usually writes to other parts of
recog_data anyway. */
- s = add_decision (s, test::set_op (e->pos, opno), true, false);
- s = add_decision (s, test::predicate (e->pos, pred, mode),
+ s = add_decision (s, rtx_test::set_op (e->pos, opno),
+ true, false);
+ s = add_decision (s, rtx_test::predicate (e->pos, pred, mode),
true, false);
}
else
/* Historically we've ignored the mode when there's no
predicate. Just set up operands[] unconditionally. */
- s = add_decision (s, test::set_op (e->pos, opno), true, false);
+ s = add_decision (s, rtx_test::set_op (e->pos, opno),
+ true, false);
break;
}
default:
- s = add_decision (s, test::mode (e->pos),
+ s = add_decision (s, rtx_test::mode (e->pos),
GET_MODE (e->pattern), false);
break;
}
/* Finally add rtx_equal_p checks for duplicated operands. */
FOR_EACH_VEC_ELT (dup_tests, i, e)
- s = add_decision (s, test::duplicate (e->pos, XINT (e->pattern, 0)),
+ s = add_decision (s, rtx_test::duplicate (e->pos, XINT (e->pattern, 0)),
true, false);
return s;
}
position *subpos = next_position (subpos_ptr, &root_pos,
POS_PEEP2_INSN, count);
if (count > 0)
- s = add_decision (s, test::peep2_count (count + 1),
+ s = add_decision (s, rtx_test::peep2_count (count + 1),
true, false);
s = match_pattern_2 (s, top_pattern, subpos, x);
subpos_ptr = &subpos->next;
/* If the match is only valid when extra clobbers are added,
make sure we're able to pass that information to the caller. */
if (acceptance.type == RECOG && acceptance.u.full.u.num_clobbers)
- s = add_decision (s, test::have_num_clobbers (), true, false);
+ s = add_decision (s, rtx_test::have_num_clobbers (), true, false);
}
/* Make sure that the C test is true. */
if (maybe_eval_c_test (c_test) != 1)
- s = add_decision (s, test::c_test (c_test), true, false);
+ s = add_decision (s, rtx_test::c_test (c_test), true, false);
/* Accept the pattern. */
- add_decision (s, test::accept (acceptance), true, false);
+ add_decision (s, rtx_test::accept (acceptance), true, false);
}
/* Like match_pattern_1, but (if merge_states_p) try to merge the
terminal_pattern_p (decision *d, unsigned int *base_out,
unsigned int *count_out)
{
- if (d->test.kind != test::PATTERN)
+ if (d->test.kind != rtx_test::PATTERN)
return false;
unsigned int base = 0;
unsigned int count = 0;
if (trans->is_param || trans->labels.length () != 1)
return false;
decision *subd = trans->to->singleton ();
- if (!subd || subd->test.kind != test::ACCEPT)
+ if (!subd || subd->test.kind != rtx_test::ACCEPT)
return false;
unsigned int this_base = (subd->test.u.acceptance.u.full.code
- trans->labels[0]);
already available in state OS. */
static bool
-test_position_available_p (output_state *os, const test &test)
+test_position_available_p (output_state *os, const rtx_test &test)
{
return (!test.pos
|| test.pos_operand >= 0
/* Print the C expression for the rtx tested by TEST. */
static void
-print_test_rtx (output_state *os, const test &test)
+print_test_rtx (output_state *os, const rtx_test &test)
{
if (test.pos_operand >= 0)
printf ("operands[%d]", test.pos_operand);
/* Print the C expression for non-boolean test TEST. */
static void
-print_nonbool_test (output_state *os, const test &test)
+print_nonbool_test (output_state *os, const rtx_test &test)
{
switch (test.kind)
{
- case test::CODE:
+ case rtx_test::CODE:
printf ("GET_CODE (");
print_test_rtx (os, test);
printf (")");
break;
- case test::MODE:
+ case rtx_test::MODE:
printf ("GET_MODE (");
print_test_rtx (os, test);
printf (")");
break;
- case test::VECLEN:
+ case rtx_test::VECLEN:
printf ("XVECLEN (");
print_test_rtx (os, test);
printf (", 0)");
break;
- case test::INT_FIELD:
+ case rtx_test::INT_FIELD:
printf ("XINT (");
print_test_rtx (os, test);
printf (", %d)", test.u.opno);
break;
- case test::WIDE_INT_FIELD:
+ case rtx_test::WIDE_INT_FIELD:
printf ("XWINT (");
print_test_rtx (os, test);
printf (", %d)", test.u.opno);
break;
- case test::PATTERN:
+ case rtx_test::PATTERN:
{
pattern_routine *routine = test.u.pattern->routine;
printf ("pattern%d (", routine->pattern_id);
break;
}
- case test::PEEP2_COUNT:
- case test::VECLEN_GE:
- case test::SAVED_CONST_INT:
- case test::DUPLICATE:
- case test::PREDICATE:
- case test::SET_OP:
- case test::HAVE_NUM_CLOBBERS:
- case test::C_TEST:
- case test::ACCEPT:
+ case rtx_test::PEEP2_COUNT:
+ case rtx_test::VECLEN_GE:
+ case rtx_test::SAVED_CONST_INT:
+ case rtx_test::DUPLICATE:
+ case rtx_test::PREDICATE:
+ case rtx_test::SET_OP:
+ case rtx_test::HAVE_NUM_CLOBBERS:
+ case rtx_test::C_TEST:
+ case rtx_test::ACCEPT:
gcc_unreachable ();
}
}
decision performs TEST. Print the C code for the label. */
static void
-print_label_value (const test &test, bool is_param, uint64_t value)
+print_label_value (const rtx_test &test, bool is_param, uint64_t value)
{
print_parameter_value (parameter (transition_parameter_type (test.kind),
is_param, value));
Test for inequality if INVERT_P, otherwise test for equality. */
static void
-print_test (output_state *os, const test &test, bool is_param, uint64_t value,
- bool invert_p)
+print_test (output_state *os, const rtx_test &test, bool is_param,
+ uint64_t value, bool invert_p)
{
switch (test.kind)
{
/* Handle the non-boolean TESTs. */
- case test::CODE:
- case test::MODE:
- case test::VECLEN:
- case test::INT_FIELD:
- case test::WIDE_INT_FIELD:
- case test::PATTERN:
+ case rtx_test::CODE:
+ case rtx_test::MODE:
+ case rtx_test::VECLEN:
+ case rtx_test::INT_FIELD:
+ case rtx_test::WIDE_INT_FIELD:
+ case rtx_test::PATTERN:
print_nonbool_test (os, test);
printf (" %s ", invert_p ? "!=" : "==");
print_label_value (test, is_param, value);
break;
- case test::SAVED_CONST_INT:
+ case rtx_test::SAVED_CONST_INT:
gcc_assert (!is_param && value == 1);
print_test_rtx (os, test);
printf (" %s const_int_rtx[MAX_SAVED_CONST_INT + ",
printf ("]");
break;
- case test::PEEP2_COUNT:
+ case rtx_test::PEEP2_COUNT:
gcc_assert (!is_param && value == 1);
printf ("peep2_current_count %s %d", invert_p ? "<" : ">=",
test.u.min_len);
break;
- case test::VECLEN_GE:
+ case rtx_test::VECLEN_GE:
gcc_assert (!is_param && value == 1);
printf ("XVECLEN (");
print_test_rtx (os, test);
printf (", 0) %s %d", invert_p ? "<" : ">=", test.u.min_len);
break;
- case test::PREDICATE:
+ case rtx_test::PREDICATE:
gcc_assert (!is_param && value == 1);
printf ("%s%s (", invert_p ? "!" : "", test.u.predicate.data->name);
print_test_rtx (os, test);
printf (")");
break;
- case test::DUPLICATE:
+ case rtx_test::DUPLICATE:
gcc_assert (!is_param && value == 1);
printf ("%srtx_equal_p (", invert_p ? "!" : "");
print_test_rtx (os, test);
printf (", operands[%d])", test.u.opno);
break;
- case test::HAVE_NUM_CLOBBERS:
+ case rtx_test::HAVE_NUM_CLOBBERS:
gcc_assert (!is_param && value == 1);
printf ("pnum_clobbers %s NULL", invert_p ? "==" : "!=");
break;
- case test::C_TEST:
+ case rtx_test::C_TEST:
gcc_assert (!is_param && value == 1);
if (invert_p)
printf ("!");
print_c_condition (test.u.string);
break;
- case test::ACCEPT:
- case test::SET_OP:
+ case rtx_test::ACCEPT:
+ case rtx_test::SET_OP:
gcc_unreachable ();
}
}
return ES_FALLTHROUGH;
}
}
- else if (d->test.kind == test::ACCEPT)
+ else if (d->test.kind == rtx_test::ACCEPT)
return print_acceptance (d->test.u.acceptance, indent, is_final);
- else if (d->test.kind == test::SET_OP)
+ else if (d->test.kind == rtx_test::SET_OP)
{
printf_indent (indent, "operands[%d] = ", d->test.u.opno);
print_test_rtx (os, d->test);
{
d = trans->to->singleton ();
if (!d
- || d->test.kind == test::ACCEPT
- || d->test.kind == test::SET_OP
+ || d->test.kind == rtx_test::ACCEPT
+ || d->test.kind == rtx_test::SET_OP
|| !d->if_statement_p (&label)
|| !test_position_available_p (os, d->test))
break;
return print_state (os, to, indent, is_final);
}
else if (to->singleton ()
- && to->first->test.kind == test::ACCEPT
+ && to->first->test.kind == rtx_test::ACCEPT
&& single_statement_p (to->first->test.u.acceptance))
{
/* The target of the transition is a simple "return" statement.
projects / platform / upstream / linaro-gcc.git / commitdiff