def do_updr(s: Solver) -> None:
if utils.args.use_z3_unsat_cores:
z3.set_param('smt.core.minimize', True)
logic.check_init(s, safety_only=True)
fs = updr.Frames(s)
try:
fs.search()
finally:
utils.logger.info(f'updr learned {fs.state_count} states (possibly with duplicates)')
utils.logger.info(f'updr learned {len(fs.predicates)} predicates (no duplicates)')
for x in fs.predicates:
utils.logger.info(str(x))
def verify(s: Solver) -> None:
old_count = utils.error_count
prog = syntax.the_program
a = prog.the_automaton()
if a is None:
if utils.args.automaton == 'only':
utils.print_error_and_exit(
None,
"--automaton='only' requires the file to declare an automaton")
elif utils.args.automaton != 'no':
check_automaton_full(s, a)
if utils.args.automaton != 'only':
init_res = logic.check_init(s)
tr_res = logic.check_transitions(s)
res = init_res or tr_res
if res is not None and utils.args.json:
json_cex: Optional[JSON] = json_counterexample(res)
else:
json_cex = None
obj: JSON = {}
obj['version'] = 1
obj['subcommand'] = utils.args.subcommand
obj['is_inductive'] = json_cex is None
if json_cex is not None:
obj['counterexample'] = json_cex
json.dump(obj, sys.stdout, indent=4)
if utils.error_count == old_count:
utils.logger.always_print('all ok!')
else:
utils.logger.always_print('program has errors.')
def check() -> bool:
prog.decls = other_decls + list(R)
if logic.check_init(s, minimize=False, verbose=False) is not None:
return False
if logic.check_transitions(s, minimize=False,
verbose=False) is not None:
return False
return True
def verify(s: Solver) -> None:
old_count = utils.error_count
prog = syntax.the_program
a = prog.the_automaton()
if a is None:
if utils.args.automaton == 'only':
utils.print_error_and_exit(None, "--automaton='only' requires the file to declare an automaton")
elif utils.args.automaton != 'no':
check_automaton_full(s, a)
if utils.args.automaton != 'only':
logic.check_init(s)
logic.check_transitions(s)
if utils.error_count == old_count:
utils.logger.always_print('all ok!')
else:
utils.logger.always_print('program has errors.')
def verify(s: Solver) -> None:
old_count = utils.error_count
init_res = logic.check_init(s)
tr_res = logic.check_transitions(s)
res = init_res or tr_res
if res is not None and utils.args.json:
json_verify_result(res)
if utils.error_count == old_count:
utils.logger.always_print('all ok!')
else:
utils.logger.always_print('program has errors.')
def do_updr(s: Solver) -> None:
if utils.args.use_z3_unsat_cores:
z3.set_param('smt.core.minimize', True)
logic.check_init(s, safety_only=True)
if not utils.args.checkpoint_in:
fs = updr.Frames(s)
else:
fs = updr.load_frames(utils.args.checkpoint_in, s)
try:
fs.search()
except updr.AbstractCounterexample:
pass
finally:
utils.logger.info(
f'updr learned {fs.state_count} states (possibly with duplicates)')
utils.logger.info(
f'updr learned {len(fs.predicates)} predicates (no duplicates)')
def do_updr(s: Solver) -> None:
if utils.args.use_z3_unsat_cores:
z3.set_param('smt.core.minimize', True)
if logic.check_init(s, safety_only=True, verbose=True) is not None:
return
if not utils.args.checkpoint_in:
fs = updr.Frames(s)
else:
fs = updr.load_frames(utils.args.checkpoint_in, s)
try:
fs.search()
print('updr found inductive invariant!')
except updr.AbstractCounterexample:
print('updr found abstract counterexample!')
pass