def __init__(self, args, environment, logic, LOGICS=None, **options):
Solver.__init__(self, environment, logic=logic)
# Flag used to debug interaction with the solver
self.dbg = False
if LOGICS is not None: self.LOGICS = LOGICS
self.args = args
self.declared_vars = set()
self.solver = Popen(args,
stdout=PIPE,
stderr=PIPE,
stdin=PIPE,
bufsize=-1)
# Give time to the process to start-up
time.sleep(0.01)
self.parser = SmtLibParser(interactive=True)
if PY2:
self.solver_stdin = self.solver.stdin
self.solver_stdout = self.solver.stdout
else:
self.solver_stdin = TextIOWrapper(self.solver.stdin)
self.solver_stdout = TextIOWrapper(self.solver.stdout)
# Initialize solver
self.set_option(":print-success", "true")
if self.options.generate_models:
self.set_option(":produce-models", "true")
# Redirect diagnostic output to stdout
self.set_option(":diagnostic-output-channel", '"stdout"')
self.set_logic(logic)
def __init__(self, args, environment, logic, LOGICS=None, **options):
Solver.__init__(self, environment, logic=logic, **options)
self.to = self.environment.typeso
if LOGICS is not None: self.LOGICS = LOGICS
self.args = args
self.declared_vars = [set()]
self.declared_sorts = [set()]
self.solver = Popen(args,
stdout=PIPE,
stderr=PIPE,
stdin=PIPE,
bufsize=-1)
# Give time to the process to start-up
time.sleep(0.01)
self.parser = SmtLibParser(interactive=True)
if PY2:
self.solver_stdin = self.solver.stdin
self.solver_stdout = self.solver.stdout
else:
self.solver_stdin = TextIOWrapper(self.solver.stdin)
self.solver_stdout = TextIOWrapper(self.solver.stdout)
# Initialize solver
if options.get("produce_interpolants"):
self.set_option(":produce-interpolants", "true")
self.options(self)
self.set_logic(logic)
def __init__(self,
args,
environment,
logic,
user_options=None,
LOGICS=None):
Solver.__init__(self,
environment,
logic=logic,
user_options=user_options)
if LOGICS is not None: self.LOGICS = LOGICS
self.args = args
self.declared_vars = set()
self.solver = Popen(args, stdout=PIPE, stderr=PIPE, stdin=PIPE)
self.parser = SmtLibParser()
if PY2:
self.solver_stdin = self.solver.stdin
self.solver_stdout = self.solver.stdout
else:
self.solver_stdin = TextIOWrapper(self.solver.stdin)
self.solver_stdout = TextIOWrapper(self.solver.stdout)
self.dbg = False
# Initialize solver
self._send_command(
SmtLibCommand(smtcmd.SET_OPTION, [":print-success", "false"]))
self._send_command(
SmtLibCommand(smtcmd.SET_OPTION, [":produce-models", "true"]))
if self.options is not None:
for o, v in iteritems(self.options):
self._send_command(SmtLibCommand(smtcmd.SET_OPTION, [o, v]))
self._send_command(SmtLibCommand(smtcmd.SET_LOGIC, [logic]))
def __init__(self, environment, logic, user_options):
Solver.__init__(self,
environment=environment,
logic=logic,
user_options=user_options)
self.mgr = environment.formula_manager
self.ddmanager = repycudd.DdManager()
self.converter = BddConverter(environment=self.environment,
ddmanager=self.ddmanager)
# Impose initial ordering
if self.options.static_ordering is not None:
for var in self.options.static_ordering:
if not var.is_symbol(types.BOOL):
raise ValueError("The BDD static ordering must be a " \
"list of Boolean variables")
self.declare_variable(var)
if self.options.dynamic_reordering:
self.ddmanager.AutodynEnable(self.options.reordering_algorithm)
else:
self.ddmanager.AutodynDisable()
# This stack keeps a pair (Expr, Bdd), with the semantics that
# the bdd at the i-th element of the list contains the bdd of
# the conjunction of all previous expressions.
# The construction of the Bdd is done during solve()
self.assertions_stack = None
self.reset_assertions() # Initialize the stack
self.backtrack = []
self.latest_model = None
def __init__(self, args, environment, logic, user_options=None, LOGICS=None):
Solver.__init__(self, environment, logic=logic, user_options=user_options)
if LOGICS is not None:
self.LOGICS = LOGICS
self.args = args
self.declared_vars = set()
self.solver = Popen(args, stdout=PIPE, stderr=PIPE, stdin=PIPE)
self.parser = SmtLibParser(interactive=True)
if PY2:
self.solver_stdin = self.solver.stdin
self.solver_stdout = self.solver.stdout
else:
self.solver_stdin = TextIOWrapper(self.solver.stdin)
self.solver_stdout = TextIOWrapper(self.solver.stdout)
self.dbg = False
# Initialize solver
self._send_command(SmtLibCommand(smtcmd.SET_OPTION, [":print-success", "false"]))
self._send_command(SmtLibCommand(smtcmd.SET_OPTION, [":produce-models", "true"]))
if self.options is not None:
for o, v in iteritems(self.options):
self._send_command(SmtLibCommand(smtcmd.SET_OPTION, [o, v]))
self._send_command(SmtLibCommand(smtcmd.SET_LOGIC, [logic]))
def __init__(self, environment, logic, user_options):
Solver.__init__(self,
environment=environment,
logic=logic,
user_options=user_options)
self.mgr = environment.formula_manager
self.ddmanager = repycudd.DdManager()
self.converter = BddConverter(environment=self.environment,
ddmanager=self.ddmanager)
# Impose initial ordering
if self.options.static_ordering is not None:
for var in self.options.static_ordering:
if not var.is_symbol(types.BOOL):
raise ValueError("The BDD static ordering must be a " \
"list of Boolean variables")
self.declare_variable(var)
if self.options.dynamic_reordering:
self.ddmanager.AutodynEnable(self.options.reordering_algorithm)
else:
self.ddmanager.AutodynDisable()
# This stack keeps a pair (Expr, Bdd), with the semantics that
# the bdd at the i-th element of the list contains the bdd of
# the conjunction of all previous expressions.
# The construction of the Bdd is done during solve()
self.assertions_stack = None
self.reset_assertions() # Initialize the stack
self.backtrack = []
self.latest_model = None
def __init__(self, args, environment, logic, user_options=None,
LOGICS=None):
Solver.__init__(self,
environment,
logic=logic,
user_options=user_options)
# Flag used to debug interaction with the solver
self.dbg = False
if LOGICS is not None: self.LOGICS = LOGICS
self.args = args
self.declared_vars = set()
self.solver = Popen(args, stdout=PIPE, stderr=PIPE, stdin=PIPE)
self.parser = SmtLibParser(interactive=True)
if PY2:
self.solver_stdin = self.solver.stdin
self.solver_stdout = self.solver.stdout
else:
self.solver_stdin = TextIOWrapper(self.solver.stdin)
self.solver_stdout = TextIOWrapper(self.solver.stdout)
# Initialize solver
self.set_option(":print-success", "true")
if self.options.generate_models:
self.set_option(":produce-models", "true")
# Redirect diagnostic output to stdout
self.set_option(":diagnostic-output-channel", '"stdout"')
if self.options is not None:
for o,v in iteritems(self.options):
self.set_option(o,v)
self.set_logic(logic)
def __init__(self, args, environment, logic, LOGICS=None, **options):
Solver.__init__(self,
environment,
logic=logic,
**options)
self.to = self.environment.typeso
if LOGICS is not None: self.LOGICS = LOGICS
self.args = args
self.declared_vars = set()
self.declared_sorts = set()
self.solver = Popen(args, stdout=PIPE, stderr=PIPE, stdin=PIPE,
bufsize=-1)
# Give time to the process to start-up
time.sleep(0.01)
self.parser = SmtLibParser(interactive=True)
if PY2:
self.solver_stdin = self.solver.stdin
self.solver_stdout = self.solver.stdout
else:
self.solver_stdin = TextIOWrapper(self.solver.stdin)
self.solver_stdout = TextIOWrapper(self.solver.stdout)
# Initialize solver
self.options(self)
self.set_logic(logic)
def __init__(self, environment, logic, **options):
Solver.__init__(self, environment=environment, logic=logic, **options)
self.mgr = environment.formula_manager
self.pico = picosat.picosat_init()
self.converter = None
self.cnfizer = CNFizer(environment=environment)
self.latest_model = None
self._var_ids = {}
def __init__(self, environment, logic, user_options):
Solver.__init__(self,
environment=environment,
logic=logic,
user_options=user_options)
self.mgr = environment.formula_manager
self.pico = picosat.picosat_init()
self.converter = None
self.cnfizer = CNFizer(environment=environment)
self.latest_model = None
self._var_ids = {}
def __init__(self, environment, logic, **options):
Solver.__init__(self, environment=environment, logic=logic, **options)
self.declarations = set()
self.yices = yicespy.yices_new_context(None)
# MG: TODO: Set options!!!
self.converter = YicesConverter(environment)
self.mgr = environment.formula_manager
self.model = None
self.failed_pushes = 0
return
def __init__(self, environment, logic, user_options):
Solver.__init__(self,
environment=environment,
logic=logic,
user_options=user_options)
self.declarations = set()
self.yices = libyices.yices_new_context(None)
self.converter = YicesConverter(environment)
self.mgr = environment.formula_manager
self.model = None
return
def __init__(self, environment, logic=None, options=None):
Solver.__init__(self,
environment=environment,
logic=logic,
options=options)
self.declarations = set()
self.yices = libyices.yices_new_context(None)
self.converter = YicesConverter(environment)
self.mgr = environment.formula_manager
self.model = None
return
def __init__(self, environment, logic, options=None):
Solver.__init__(self,
environment=environment,
logic=logic,
options=options)
# Here we could use:
# self.z3 = z3.SolverFor(str(logic))
# But it seems to have problems with quantified formulae
self.z3 = z3.Solver()
self.declarations = set()
self.converter = Z3Converter(environment)
self.mgr = environment.formula_manager
return
def __init__(self, environment, logic, **options):
Solver.__init__(self, environment=environment, logic=logic, **options)
self.em = CVC4.ExprManager()
self.cvc4 = None
self.declarations = None
self.logic_name = str(logic)
if self.logic_name == "QF_BOOL":
self.logic_name = "QF_LRA"
elif self.logic_name == "BOOL":
self.logic_name = "LRA"
self.reset_assertions()
self.converter = CVC4Converter(environment, cvc4_exprMgr=self.em)
return
def __init__(self, environment, logic, **options):
Solver.__init__(self, environment=environment, logic=logic, **options)
self.em = CVC4.ExprManager()
self.cvc4 = None
self.declarations = None
self.logic_name = str(logic)
if self.logic_name == "QF_BOOL":
self.logic_name = "QF_LRA"
elif self.logic_name == "BOOL":
self.logic_name = "LRA"
self.reset_assertions()
self.converter = CVC4Converter(environment, cvc4_exprMgr=self.em)
return
def __init__(self, environment, logic, **options):
Solver.__init__(self,
environment=environment,
logic=logic,
**options)
self.declarations = set()
self.yices = yicespy.yices_new_context(None)
# MG: TODO: Set options!!!
self.converter = YicesConverter(environment)
self.mgr = environment.formula_manager
self.model = None
self.failed_pushes = 0
return
def __init__(self, environment, logic, **options):
Solver.__init__(self,
environment=environment,
logic=logic,
**options)
self.mgr = environment.formula_manager
self.pico = picosat.picosat_init()
self.converter = None
self.cnfizer = CNFizer(environment=environment)
self.latest_model = None
self._var_ids = {}
self._log_file_handler = None
# Initialize
self.options(self)
def __init__(self, environment, logic, options=None):
Solver.__init__(self,
environment=environment,
logic=logic,
options=options)
self.em = CVC4.ExprManager()
self.cvc4 = CVC4.SmtEngine(self.em)
self.cvc4.setOption("produce-models", CVC4.SExpr("true"))
logic_name = str(logic)
if logic_name == "QF_BOOL":
logic_name = "QF_LRA"
self.cvc4.setLogic(logic_name)
self.converter = CVC4Converter(environment, cvc4_exprMgr=self.em)
self.declarations = set()
return
def __init__(self, environment, logic, user_options):
Solver.__init__(self,
environment=environment,
logic=logic,
user_options=user_options)
self.em = CVC4.ExprManager()
self.cvc4 = CVC4.SmtEngine(self.em)
self.cvc4.setOption("produce-models", CVC4.SExpr("true"))
self.logic_name = str(logic)
if self.logic_name == "QF_BOOL":
self.logic_name = "QF_LRA"
self.cvc4.setLogic(self.logic_name)
self.converter = CVC4Converter(environment, cvc4_exprMgr=self.em)
self.declarations = set()
return
def __init__(self, environment, logic, **options):
Solver.__init__(self, environment=environment, logic=logic, **options)
self.declarations = set()
self.yices_config = yicespy.yices_new_config()
if yicespy.yices_default_config_for_logic(self.yices_config,
yices_logic(logic)) != 0:
warn("Error setting config for logic %s" % logic)
self.options(self)
self.yices = yicespy.yices_new_context(self.yices_config)
self.options.set_params(self)
yicespy.yices_free_config(self.yices_config)
self.converter = YicesConverter(environment)
self.mgr = environment.formula_manager
self.model = None
self.failed_pushes = 0
return
def __init__(self, args, environment, logic, options=None):
Solver.__init__(self, environment, logic=logic, options=options)
self.args = args
self.declared_vars = set()
self.solver = Popen(args, stdout=PIPE, stderr=PIPE, stdin=PIPE)
self.parser = SmtLibParser()
self.dbg = False
# Initialize solver
self._send_command(
SmtLibCommand(smtcmd.SET_OPTION, [":print-success", "false"]))
self._send_command(
SmtLibCommand(smtcmd.SET_OPTION, [":produce-models", "true"]))
if options is not None:
for o, v in iteritems(options):
self._send_command(SmtLibCommand(smtcmd.SET_OPTION, [o, v]))
self._send_command(SmtLibCommand(smtcmd.SET_LOGIC, [logic]))
def __init__(self, environment, logic, **options):
Solver.__init__(self, environment=environment, logic=logic, **options)
self.mgr = environment.formula_manager
self.ddmanager = repycudd.DdManager()
self.converter = BddConverter(environment=self.environment,
ddmanager=self.ddmanager)
self.options(self)
# This stack keeps a pair (Expr, Bdd), with the semantics that
# the bdd at the i-th element of the list contains the bdd of
# the conjunction of all previous expressions.
# The construction of the Bdd is done during solve()
self.assertions_stack = None
self.reset_assertions() # Initialize the stack
self.backtrack = []
self.latest_model = None
def __init__(self, environment, logic, **options):
Solver.__init__(self,
environment=environment,
logic=logic,
**options)
self.declarations = set()
self.yices_config = yicespy.yices_new_config()
if yicespy.yices_default_config_for_logic(self.yices_config,
yices_logic(logic)) != 0:
warn("Error setting config for logic %s" % logic)
self.options(self)
self.yices = yicespy.yices_new_context(self.yices_config)
self.options.set_params(self)
yicespy.yices_free_config(self.yices_config)
self.converter = YicesConverter(environment)
self.mgr = environment.formula_manager
self.model = None
self.failed_pushes = 0
return
def __init__(self, environment, logic, **options):
Solver.__init__(self, environment=environment, logic=logic, **options)
self.em = CVC4.ExprManager()
self.cvc4 = None
self.declarations = None
self.logic_name = str(logic)
if "t" in self.logic_name:
# Custom Type extension
self.logic_name = self.logic_name.replace("t", "")
if self.logic_name == "QF_BOOL":
self.logic_name = "QF_LRA"
elif self.logic_name == "BOOL":
self.logic_name = "LRA"
self.reset_assertions()
self.converter = CVC4Converter(environment, cvc4_exprMgr=self.em)
self.qf = False
return
def __init__(self, environment, logic, **options):
Solver.__init__(self,
environment=environment,
logic=logic,
**options)
self.mgr = environment.formula_manager
self.ddmanager = repycudd.DdManager()
self.converter = BddConverter(environment=self.environment,
ddmanager=self.ddmanager)
self.options(self)
# This stack keeps a pair (Expr, Bdd), with the semantics that
# the bdd at the i-th element of the list contains the bdd of
# the conjunction of all previous expressions.
# The construction of the Bdd is done during solve()
self.assertions_stack = None
self.reset_assertions() # Initialize the stack
self.backtrack = []
self.latest_model = None
def __init__(self, environment, logic, options=None, debugFile=None):
Solver.__init__(self,
environment=environment,
logic=logic,
options=options)
self.config = mathsat.msat_create_default_config(str(logic))
check = mathsat.msat_set_option(self.config, "model_generation", "true")
assert check == 0
if debugFile is not None:
mathsat.msat_set_option(self.config, "debug.api_call_trace", "1")
mathsat.msat_set_option(self.config, "debug.api_call_trace_filename",
debugFile)
self.msat_env = mathsat.msat_create_env(self.config)
self.realType = mathsat.msat_get_rational_type(self.msat_env)
self.intType = mathsat.msat_get_integer_type(self.msat_env)
self.boolType = mathsat.msat_get_bool_type(self.msat_env)
self.mgr = environment.formula_manager
self.converter = MSatConverter(environment, self.msat_env)
return
def __init__(self, args, environment, logic, LOGICS=None, **options):
Solver.__init__(self, environment, logic=logic, **options)
if LOGICS is not None: self.LOGICS = LOGICS
self.args = args
self.declared_vars = set()
self.solver = Popen(args,
stdout=PIPE,
stderr=PIPE,
stdin=PIPE,
bufsize=-1)
# Give time to the process to start-up
time.sleep(0.01)
self.parser = SmtLibParser(interactive=True)
if PY2:
self.solver_stdin = self.solver.stdin
self.solver_stdout = self.solver.stdout
else:
self.solver_stdin = TextIOWrapper(self.solver.stdin)
self.solver_stdout = TextIOWrapper(self.solver.stdout)
# Initialize solver
self.options(self)
self.set_logic(logic)