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move user propagte declare to context level

declaration of user propagate functions are declared at context level instead of at solver scope.
This commit is contained in:
Nikolaj Bjorner 2021-12-18 10:56:42 -08:00
parent 4856581b68
commit f0740bdf60
17 changed files with 92 additions and 324 deletions

View file

@ -944,7 +944,7 @@ extern "C" {
Z3_TRY; Z3_TRY;
LOG_Z3_solver_propagate_register(c, s, e); LOG_Z3_solver_propagate_register(c, s, e);
RESET_ERROR_CODE(); RESET_ERROR_CODE();
return to_solver_ref(s)->user_propagate_register(to_expr(e)); return to_solver_ref(s)->user_propagate_register_expr(to_expr(e));
Z3_CATCH_RETURN(0); Z3_CATCH_RETURN(0);
} }
@ -972,11 +972,16 @@ extern "C" {
Z3_CATCH; Z3_CATCH;
} }
Z3_func_decl Z3_API Z3_solver_propagate_declare(Z3_context c, Z3_solver s, Z3_symbol name, unsigned n, Z3_sort* domain, Z3_sort range) { Z3_func_decl Z3_API Z3_solver_propagate_declare(Z3_context c, Z3_symbol name, unsigned n, Z3_sort* domain, Z3_sort range) {
Z3_TRY; Z3_TRY;
LOG_Z3_solver_propagate_declare(c, s, name, n, domain, range); LOG_Z3_solver_propagate_declare(c, name, n, domain, range);
RESET_ERROR_CODE(); RESET_ERROR_CODE();
func_decl* f = to_solver_ref(s)->user_propagate_declare(to_symbol(name), n, to_sorts(domain), to_sort(range)); ast_manager& m = mk_c(c)->m();
family_id fid = m.mk_family_id(user_propagator::plugin::name());
if (!m.has_plugin(fid))
m.register_plugin(fid, alloc(user_propagator::plugin));
func_decl_info info(fid, user_propagator::plugin::kind_t::OP_USER_PROPAGATE);
func_decl* f = m.mk_func_decl(to_symbol(name), n, to_sorts(domain), to_sort(range), info);
mk_c(c)->save_ast_trail(f); mk_c(c)->save_ast_trail(f);
RETURN_Z3(of_func_decl(f)); RETURN_Z3(of_func_decl(f));
Z3_CATCH_RETURN(nullptr); Z3_CATCH_RETURN(nullptr);

View file

@ -6679,17 +6679,21 @@ extern "C" {
/** /**
* \brief register a callback when a new expression with a registered function is used by the solver * \brief register a callback when a new expression with a registered function is used by the solver
* The registered function appears at the top level and is created using \c Z3_solver_declare. * The registered function appears at the top level and is created using \ref Z3_propagate_solver_declare.
*/ */
void Z3_API Z3_solver_propagate_created(Z3_context c, Z3_solver s, Z3_created_eh created_eh); void Z3_API Z3_solver_propagate_created(Z3_context c, Z3_solver s, Z3_created_eh created_eh);
/** /**
\brief Create a registered function. Expressions used by the solver \c s that uses the registered function Create uninterpreted function declaration for the user propagator.
at top level cause the callback propagate_created to be invoked. When expressions using the function are created by the solver invoke a callback
to \ref \Z3_solver_progate_created with arguments
1. context and callback solve
2. declared_expr: expression using function that was used as the top-level symbol
3. declared_id: a unique identifier (unique within the current scope) to track the expression.
def_API('Z3_solver_propagate_declare', FUNC_DECL, (_in(CONTEXT), _in(SOLVER), _in(SYMBOL), _in(UINT), _in_array(3, SORT), _in(SORT))) def_API('Z3_solver_propagate_declare', FUNC_DECL, (_in(CONTEXT), _in(SYMBOL), _in(UINT), _in_array(2, SORT), _in(SORT)))
*/ */
Z3_func_decl Z3_API Z3_solver_propagate_declare(Z3_context c, Z3_solver s, Z3_symbol name, unsigned n, Z3_sort* domain, Z3_sort range); Z3_func_decl Z3_API Z3_solver_propagate_declare(Z3_context c, Z3_symbol name, unsigned n, Z3_sort* domain, Z3_sort range);
/** /**
\brief register an expression to propagate on with the solver. \brief register an expression to propagate on with the solver.

View file

@ -683,8 +683,8 @@ public:
ensure_euf()->user_propagate_register_diseq(diseq_eh); ensure_euf()->user_propagate_register_diseq(diseq_eh);
} }
unsigned user_propagate_register(expr* e) override { unsigned user_propagate_register_expr(expr* e) override {
return ensure_euf()->user_propagate_register(e); return ensure_euf()->user_propagate_register_expr(e);
} }
private: private:

View file

@ -425,7 +425,7 @@ namespace euf {
check_for_user_propagator(); check_for_user_propagator();
m_user_propagator->register_diseq(diseq_eh); m_user_propagator->register_diseq(diseq_eh);
} }
unsigned user_propagate_register(expr* e) { unsigned user_propagate_register_expr(expr* e) {
check_for_user_propagator(); check_for_user_propagator();
return m_user_propagator->add_expr(e); return m_user_propagator->add_expr(e);
} }

View file

@ -1723,7 +1723,7 @@ namespace smt {
m_user_propagator->register_diseq(diseq_eh); m_user_propagator->register_diseq(diseq_eh);
} }
unsigned user_propagate_register(expr* e) { unsigned user_propagate_register_expr(expr* e) {
if (!m_user_propagator) if (!m_user_propagator)
throw default_exception("user propagator must be initialized"); throw default_exception("user propagator must be initialized");
return m_user_propagator->add_expr(e); return m_user_propagator->add_expr(e);
@ -1735,12 +1735,6 @@ namespace smt {
m_user_propagator->register_created(r); m_user_propagator->register_created(r);
} }
func_decl* user_propagate_declare(symbol const& name, unsigned n, sort* const* domain, sort* range) {
if (!m_user_propagator)
throw default_exception("user propagator must be initialized");
return m_user_propagator->declare(name, n, domain, range);
}
bool watches_fixed(enode* n) const; bool watches_fixed(enode* n) const;
void assign_fixed(enode* n, expr* val, unsigned sz, literal const* explain); void assign_fixed(enode* n, expr* val, unsigned sz, literal const* explain);

View file

@ -49,14 +49,6 @@ namespace smt {
return m_kernel.get_manager(); return m_kernel.get_manager();
} }
bool set_logic(symbol logic) {
return m_kernel.set_logic(logic);
}
void set_progress_callback(progress_callback * callback) {
return m_kernel.set_progress_callback(callback);
}
void display(std::ostream & out) const { void display(std::ostream & out) const {
// m_kernel.display(out); <<< for external users it is just junk // m_kernel.display(out); <<< for external users it is just junk
// TODO: it will be replaced with assertion_stack.display // TODO: it will be replaced with assertion_stack.display
@ -67,195 +59,7 @@ namespace smt {
out << "\n " << mk_ismt2_pp(f, m(), 2); out << "\n " << mk_ismt2_pp(f, m(), 2);
} }
out << ")"; out << ")";
} }
void assert_expr(expr * e) {
TRACE("smt_kernel", tout << "assert:\n" << mk_ismt2_pp(e, m()) << "\n";);
m_kernel.assert_expr(e);
}
void assert_expr(expr * e, proof * pr) {
m_kernel.assert_expr(e, pr);
}
unsigned size() const {
return m_kernel.get_num_asserted_formulas();
}
void get_formulas(ptr_vector<expr>& fmls) const {
m_kernel.get_asserted_formulas(fmls);
}
expr* get_formula(unsigned i) const {
return m_kernel.get_asserted_formula(i);
}
void push() {
TRACE("smt_kernel", tout << "push()\n";);
m_kernel.push();
}
void pop(unsigned num_scopes) {
TRACE("smt_kernel", tout << "pop()\n";);
m_kernel.pop(num_scopes);
}
unsigned get_scope_level() const {
return m_kernel.get_scope_level();
}
lbool setup_and_check() {
return m_kernel.setup_and_check();
}
bool inconsistent() {
return m_kernel.inconsistent();
}
lbool check(unsigned num_assumptions, expr * const * assumptions) {
return m_kernel.check(num_assumptions, assumptions);
}
lbool check(expr_ref_vector const& cube, vector<expr_ref_vector> const& clause) {
return m_kernel.check(cube, clause);
}
lbool get_consequences(expr_ref_vector const& assumptions, expr_ref_vector const& vars, expr_ref_vector& conseq, expr_ref_vector& unfixed) {
return m_kernel.get_consequences(assumptions, vars, conseq, unfixed);
}
lbool preferred_sat(expr_ref_vector const& asms, vector<expr_ref_vector>& cores) {
return m_kernel.preferred_sat(asms, cores);
}
lbool find_mutexes(expr_ref_vector const& vars, vector<expr_ref_vector>& mutexes) {
return m_kernel.find_mutexes(vars, mutexes);
}
void get_model(model_ref & m) {
m_kernel.get_model(m);
}
proof * get_proof() {
return m_kernel.get_proof();
}
unsigned get_unsat_core_size() const {
return m_kernel.get_unsat_core_size();
}
expr * get_unsat_core_expr(unsigned idx) const {
return m_kernel.get_unsat_core_expr(idx);
}
void get_levels(ptr_vector<expr> const& vars, unsigned_vector& depth) {
m_kernel.get_levels(vars, depth);
}
expr_ref_vector get_trail() {
return m_kernel.get_trail();
}
failure last_failure() const {
return m_kernel.get_last_search_failure();
}
std::string last_failure_as_string() const {
return m_kernel.last_failure_as_string();
}
void set_reason_unknown(char const* msg) {
m_kernel.set_reason_unknown(msg);
}
void get_assignments(expr_ref_vector & result) {
m_kernel.get_assignments(result);
}
void get_relevant_labels(expr * cnstr, buffer<symbol> & result) {
m_kernel.get_relevant_labels(cnstr, result);
}
void get_relevant_labeled_literals(bool at_lbls, expr_ref_vector & result) {
m_kernel.get_relevant_labeled_literals(at_lbls, result);
}
void get_relevant_literals(expr_ref_vector & result) {
m_kernel.get_relevant_literals(result);
}
void get_guessed_literals(expr_ref_vector & result) {
m_kernel.get_guessed_literals(result);
}
expr_ref next_cube() {
lookahead lh(m_kernel);
return lh.choose();
}
expr_ref_vector cubes(unsigned depth) {
lookahead lh(m_kernel);
return lh.choose_rec(depth);
}
void collect_statistics(::statistics & st) const {
m_kernel.collect_statistics(st);
}
void reset_statistics() {
}
void display_statistics(std::ostream & out) const {
m_kernel.display_statistics(out);
}
void display_istatistics(std::ostream & out) const {
m_kernel.display_istatistics(out);
}
bool canceled() {
return m_kernel.get_cancel_flag();
}
void updt_params(params_ref const & p) {
m_kernel.updt_params(p);
}
void user_propagate_init(
void* ctx,
user_propagator::push_eh_t& push_eh,
user_propagator::pop_eh_t& pop_eh,
user_propagator::fresh_eh_t& fresh_eh) {
m_kernel.user_propagate_init(ctx, push_eh, pop_eh, fresh_eh);
}
void user_propagate_register_final(user_propagator::final_eh_t& final_eh) {
m_kernel.user_propagate_register_final(final_eh);
}
void user_propagate_register_fixed(user_propagator::fixed_eh_t& fixed_eh) {
m_kernel.user_propagate_register_fixed(fixed_eh);
}
void user_propagate_register_eq(user_propagator::eq_eh_t& eq_eh) {
m_kernel.user_propagate_register_eq(eq_eh);
}
void user_propagate_register_diseq(user_propagator::eq_eh_t& diseq_eh) {
m_kernel.user_propagate_register_diseq(diseq_eh);
}
unsigned user_propagate_register(expr* e) {
return m_kernel.user_propagate_register(e);
}
void user_propagate_register_created(user_propagator::created_eh_t& r) {
m_kernel.user_propagate_register_created(r);
}
func_decl* user_propagate_declare(symbol const& name, unsigned n, sort* const* domain, sort* range) {
return m_kernel.user_propagate_declare(name, n, domain, range);
}
}; };
@ -268,7 +72,7 @@ namespace smt {
} }
ast_manager & kernel::m() const { ast_manager & kernel::m() const {
return m_imp->m(); return m_imp->m_kernel.get_manager();
} }
void kernel::copy(kernel& src, kernel& dst) { void kernel::copy(kernel& src, kernel& dst) {
@ -276,45 +80,44 @@ namespace smt {
} }
bool kernel::set_logic(symbol logic) { bool kernel::set_logic(symbol logic) {
return m_imp->set_logic(logic); return m_imp->m_kernel.set_logic(logic);
} }
void kernel::set_progress_callback(progress_callback * callback) { void kernel::set_progress_callback(progress_callback * callback) {
m_imp->set_progress_callback(callback); m_imp->m_kernel.set_progress_callback(callback);
} }
void kernel::assert_expr(expr * e) { void kernel::assert_expr(expr * e) {
m_imp->assert_expr(e); m_imp->m_kernel.assert_expr(e);
} }
void kernel::assert_expr(expr_ref_vector const& es) { void kernel::assert_expr(expr_ref_vector const& es) {
for (unsigned i = 0; i < es.size(); ++i) { for (unsigned i = 0; i < es.size(); ++i)
m_imp->assert_expr(es[i]); m_imp->m_kernel.assert_expr(es[i]);
}
} }
void kernel::assert_expr(expr * e, proof * pr) { void kernel::assert_expr(expr * e, proof * pr) {
m_imp->assert_expr(e, pr); m_imp->m_kernel.assert_expr(e, pr);
} }
unsigned kernel::size() const { unsigned kernel::size() const {
return m_imp->size(); return m_imp->m_kernel.get_num_asserted_formulas();
} }
expr* kernel::get_formula(unsigned i) const { expr* kernel::get_formula(unsigned i) const {
return m_imp->get_formula(i); return m_imp->m_kernel.get_asserted_formula(i);
} }
void kernel::push() { void kernel::push() {
m_imp->push(); m_imp->m_kernel.push();
} }
void kernel::pop(unsigned num_scopes) { void kernel::pop(unsigned num_scopes) {
m_imp->pop(num_scopes); m_imp->m_kernel.pop(num_scopes);
} }
unsigned kernel::get_scope_level() const { unsigned kernel::get_scope_level() const {
return m_imp->get_scope_level(); return m_imp->m_kernel.get_scope_level();
} }
void kernel::reset() { void kernel::reset() {
@ -326,89 +129,91 @@ namespace smt {
} }
bool kernel::inconsistent() { bool kernel::inconsistent() {
return m_imp->inconsistent(); return m_imp->m_kernel.inconsistent();
} }
lbool kernel::setup_and_check() { lbool kernel::setup_and_check() {
return m_imp->setup_and_check(); return m_imp->m_kernel.setup_and_check();
} }
lbool kernel::check(unsigned num_assumptions, expr * const * assumptions) { lbool kernel::check(unsigned num_assumptions, expr * const * assumptions) {
lbool r = m_imp->check(num_assumptions, assumptions); lbool r = m_imp->m_kernel.check(num_assumptions, assumptions);
TRACE("smt_kernel", tout << "check result: " << r << "\n";); TRACE("smt_kernel", tout << "check result: " << r << "\n";);
return r; return r;
} }
lbool kernel::check(expr_ref_vector const& cube, vector<expr_ref_vector> const& clauses) { lbool kernel::check(expr_ref_vector const& cube, vector<expr_ref_vector> const& clauses) {
return m_imp->check(cube, clauses); return m_imp->m_kernel.check(cube, clauses);
} }
lbool kernel::get_consequences(expr_ref_vector const& assumptions, expr_ref_vector const& vars, expr_ref_vector& conseq, expr_ref_vector& unfixed) { lbool kernel::get_consequences(expr_ref_vector const& assumptions, expr_ref_vector const& vars, expr_ref_vector& conseq, expr_ref_vector& unfixed) {
return m_imp->get_consequences(assumptions, vars, conseq, unfixed); return m_imp->m_kernel.get_consequences(assumptions, vars, conseq, unfixed);
} }
lbool kernel::preferred_sat(expr_ref_vector const& asms, vector<expr_ref_vector>& cores) { lbool kernel::preferred_sat(expr_ref_vector const& asms, vector<expr_ref_vector>& cores) {
return m_imp->preferred_sat(asms, cores); return m_imp->m_kernel.preferred_sat(asms, cores);
} }
lbool kernel::find_mutexes(expr_ref_vector const& vars, vector<expr_ref_vector>& mutexes) { lbool kernel::find_mutexes(expr_ref_vector const& vars, vector<expr_ref_vector>& mutexes) {
return m_imp->find_mutexes(vars, mutexes); return m_imp->m_kernel.find_mutexes(vars, mutexes);
} }
void kernel::get_model(model_ref & m) { void kernel::get_model(model_ref & m) {
m_imp->get_model(m); m_imp->m_kernel.get_model(m);
} }
proof * kernel::get_proof() { proof * kernel::get_proof() {
return m_imp->get_proof(); return m_imp->m_kernel.get_proof();
} }
unsigned kernel::get_unsat_core_size() const { unsigned kernel::get_unsat_core_size() const {
return m_imp->get_unsat_core_size(); return m_imp->m_kernel.get_unsat_core_size();
} }
expr * kernel::get_unsat_core_expr(unsigned idx) const { expr * kernel::get_unsat_core_expr(unsigned idx) const {
return m_imp->get_unsat_core_expr(idx); return m_imp->m_kernel.get_unsat_core_expr(idx);
} }
failure kernel::last_failure() const { failure kernel::last_failure() const {
return m_imp->last_failure(); return m_imp->m_kernel.get_last_search_failure();
} }
std::string kernel::last_failure_as_string() const { std::string kernel::last_failure_as_string() const {
return m_imp->last_failure_as_string(); return m_imp->m_kernel.last_failure_as_string();
} }
void kernel::set_reason_unknown(char const* msg) { void kernel::set_reason_unknown(char const* msg) {
m_imp->set_reason_unknown(msg); m_imp->m_kernel.set_reason_unknown(msg);
} }
void kernel::get_assignments(expr_ref_vector & result) { void kernel::get_assignments(expr_ref_vector & result) {
m_imp->get_assignments(result); m_imp->m_kernel.get_assignments(result);
} }
void kernel::get_relevant_labels(expr * cnstr, buffer<symbol> & result) { void kernel::get_relevant_labels(expr * cnstr, buffer<symbol> & result) {
m_imp->get_relevant_labels(cnstr, result); m_imp->m_kernel.get_relevant_labels(cnstr, result);
} }
void kernel::get_relevant_labeled_literals(bool at_lbls, expr_ref_vector & result) { void kernel::get_relevant_labeled_literals(bool at_lbls, expr_ref_vector & result) {
m_imp->get_relevant_labeled_literals(at_lbls, result); m_imp->m_kernel.get_relevant_labeled_literals(at_lbls, result);
} }
void kernel::get_relevant_literals(expr_ref_vector & result) { void kernel::get_relevant_literals(expr_ref_vector & result) {
m_imp->get_relevant_literals(result); m_imp->m_kernel.get_relevant_literals(result);
} }
void kernel::get_guessed_literals(expr_ref_vector & result) { void kernel::get_guessed_literals(expr_ref_vector & result) {
m_imp->get_guessed_literals(result); m_imp->m_kernel.get_guessed_literals(result);
} }
expr_ref kernel::next_cube() { expr_ref kernel::next_cube() {
return m_imp->next_cube(); lookahead lh(m_imp->m_kernel);
return lh.choose();
} }
expr_ref_vector kernel::cubes(unsigned depth) { expr_ref_vector kernel::cubes(unsigned depth) {
return m_imp->cubes(depth); lookahead lh(m_imp->m_kernel);
return lh.choose_rec(depth);
} }
std::ostream& kernel::display(std::ostream & out) const { std::ostream& kernel::display(std::ostream & out) const {
@ -417,27 +222,26 @@ namespace smt {
} }
void kernel::collect_statistics(::statistics & st) const { void kernel::collect_statistics(::statistics & st) const {
m_imp->collect_statistics(st); m_imp->m_kernel.collect_statistics(st);
} }
void kernel::reset_statistics() { void kernel::reset_statistics() {
m_imp->reset_statistics();
} }
void kernel::display_statistics(std::ostream & out) const { void kernel::display_statistics(std::ostream & out) const {
m_imp->display_statistics(out); m_imp->m_kernel.display_statistics(out);
} }
void kernel::display_istatistics(std::ostream & out) const { void kernel::display_istatistics(std::ostream & out) const {
m_imp->display_istatistics(out); m_imp->m_kernel.display_istatistics(out);
} }
bool kernel::canceled() const { bool kernel::canceled() const {
return m_imp->canceled(); return m_imp->m_kernel.get_cancel_flag();
} }
void kernel::updt_params(params_ref const & p) { void kernel::updt_params(params_ref const & p) {
return m_imp->updt_params(p); return m_imp->m_kernel.updt_params(p);
} }
void kernel::collect_param_descrs(param_descrs & d) { void kernel::collect_param_descrs(param_descrs & d) {
@ -449,11 +253,11 @@ namespace smt {
} }
void kernel::get_levels(ptr_vector<expr> const& vars, unsigned_vector& depth) { void kernel::get_levels(ptr_vector<expr> const& vars, unsigned_vector& depth) {
m_imp->get_levels(vars, depth); m_imp->m_kernel.get_levels(vars, depth);
} }
expr_ref_vector kernel::get_trail() { expr_ref_vector kernel::get_trail() {
return m_imp->get_trail(); return m_imp->m_kernel.get_trail();
} }
void kernel::user_propagate_init( void kernel::user_propagate_init(
@ -461,35 +265,31 @@ namespace smt {
user_propagator::push_eh_t& push_eh, user_propagator::push_eh_t& push_eh,
user_propagator::pop_eh_t& pop_eh, user_propagator::pop_eh_t& pop_eh,
user_propagator::fresh_eh_t& fresh_eh) { user_propagator::fresh_eh_t& fresh_eh) {
m_imp->user_propagate_init(ctx, push_eh, pop_eh, fresh_eh); m_imp->m_kernel.user_propagate_init(ctx, push_eh, pop_eh, fresh_eh);
} }
void kernel::user_propagate_register_fixed(user_propagator::fixed_eh_t& fixed_eh) { void kernel::user_propagate_register_fixed(user_propagator::fixed_eh_t& fixed_eh) {
m_imp->user_propagate_register_fixed(fixed_eh); m_imp->m_kernel.user_propagate_register_fixed(fixed_eh);
} }
void kernel::user_propagate_register_final(user_propagator::final_eh_t& final_eh) { void kernel::user_propagate_register_final(user_propagator::final_eh_t& final_eh) {
m_imp->user_propagate_register_final(final_eh); m_imp->m_kernel.user_propagate_register_final(final_eh);
} }
void kernel::user_propagate_register_eq(user_propagator::eq_eh_t& eq_eh) { void kernel::user_propagate_register_eq(user_propagator::eq_eh_t& eq_eh) {
m_imp->user_propagate_register_eq(eq_eh); m_imp->m_kernel.user_propagate_register_eq(eq_eh);
} }
void kernel::user_propagate_register_diseq(user_propagator::eq_eh_t& diseq_eh) { void kernel::user_propagate_register_diseq(user_propagator::eq_eh_t& diseq_eh) {
m_imp->user_propagate_register_diseq(diseq_eh); m_imp->m_kernel.user_propagate_register_diseq(diseq_eh);
} }
unsigned kernel::user_propagate_register(expr* e) { unsigned kernel::user_propagate_register_expr(expr* e) {
return m_imp->user_propagate_register(e); return m_imp->m_kernel.user_propagate_register_expr(e);
} }
void kernel::user_propagate_register_created(user_propagator::created_eh_t& r) { void kernel::user_propagate_register_created(user_propagator::created_eh_t& r) {
m_imp->user_propagate_register_created(r); m_imp->m_kernel.user_propagate_register_created(r);
}
func_decl* kernel::user_propagate_declare(symbol const& name, unsigned n, sort* const* domain, sort* range) {
return m_imp->user_propagate_declare(name, n, domain, range);
} }
}; };

View file

@ -301,12 +301,10 @@ namespace smt {
void user_propagate_register_diseq(user_propagator::eq_eh_t& diseq_eh); void user_propagate_register_diseq(user_propagator::eq_eh_t& diseq_eh);
unsigned user_propagate_register(expr* e); unsigned user_propagate_register_expr(expr* e);
void user_propagate_register_created(user_propagator::created_eh_t& r); void user_propagate_register_created(user_propagator::created_eh_t& r);
func_decl* user_propagate_declare(symbol const& name, unsigned n, sort* const* domain, sort* range);
/** /**
\brief Return a reference to smt::context. \brief Return a reference to smt::context.
This is a temporary hack to support user theories. This is a temporary hack to support user theories.

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@ -236,18 +236,14 @@ namespace {
m_context.user_propagate_register_diseq(diseq_eh); m_context.user_propagate_register_diseq(diseq_eh);
} }
unsigned user_propagate_register(expr* e) override { unsigned user_propagate_register_expr(expr* e) override {
return m_context.user_propagate_register(e); return m_context.user_propagate_register_expr(e);
} }
void user_propagate_register_created(user_propagator::created_eh_t& c) override { void user_propagate_register_created(user_propagator::created_eh_t& c) override {
m_context.user_propagate_register_created(c); m_context.user_propagate_register_created(c);
} }
func_decl* user_propagate_declare(symbol const& name, unsigned n, sort* const* domain, sort* range) {
return m_context.user_propagate_declare(name, n, domain, range);
}
struct scoped_minimize_core { struct scoped_minimize_core {
smt_solver& s; smt_solver& s;
expr_ref_vector m_assumptions; expr_ref_vector m_assumptions;

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@ -449,7 +449,7 @@ public:
unsigned i = 0; unsigned i = 0;
for (expr* v : m_vars) { for (expr* v : m_vars) {
unsigned j = m_ctx->user_propagate_register(v); unsigned j = m_ctx->user_propagate_register_expr(v);
m_var2internal.setx(i, j, 0); m_var2internal.setx(i, j, 0);
m_internal2var.setx(j, i, 0); m_internal2var.setx(j, i, 0);
++i; ++i;
@ -493,15 +493,11 @@ public:
m_diseq_eh = diseq_eh; m_diseq_eh = diseq_eh;
} }
unsigned user_propagate_register(expr* e) override { unsigned user_propagate_register_expr(expr* e) override {
m_vars.push_back(e); m_vars.push_back(e);
return m_vars.size() - 1; return m_vars.size() - 1;
} }
func_decl* user_propagate_declare(symbol const& name, unsigned n, sort* const* domain, sort* range) override {
return m_ctx->user_propagate_declare(name, n, domain, range);
}
void user_propagate_register_created(user_propagator::created_eh_t& created_eh) override { void user_propagate_register_created(user_propagator::created_eh_t& created_eh) override {
m_ctx->user_propagate_register_created(created_eh); m_ctx->user_propagate_register_created(created_eh);
} }

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@ -23,7 +23,7 @@ Author:
using namespace smt; using namespace smt;
theory_user_propagator::theory_user_propagator(context& ctx): theory_user_propagator::theory_user_propagator(context& ctx):
theory(ctx, ctx.get_manager().mk_family_id("user_propagator")) theory(ctx, ctx.get_manager().mk_family_id(user_propagator::plugin::name()))
{} {}
theory_user_propagator::~theory_user_propagator() { theory_user_propagator::~theory_user_propagator() {
@ -173,16 +173,6 @@ void theory_user_propagator::propagate() {
m_qhead = qhead; m_qhead = qhead;
} }
func_decl* theory_user_propagator::declare(symbol const& name, unsigned n, sort* const* domain, sort* range) {
if (!m_created_eh)
throw default_exception("event handler for dynamic expressions has to be registered before functions can be created");
// ensure that declaration plugin is registered with m.
if (!m.has_plugin(get_id()))
m.register_plugin(get_id(), alloc(user_propagator::plugin));
func_decl_info info(get_id(), user_propagator::plugin::kind_t::OP_USER_PROPAGATE);
return m.mk_func_decl(name, n, domain, range, info);
}
bool theory_user_propagator::internalize_atom(app* atom, bool gate_ctx) { bool theory_user_propagator::internalize_atom(app* atom, bool gate_ctx) {
return internalize_term(atom); return internalize_term(atom);

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@ -97,7 +97,6 @@ namespace smt {
void register_eq(user_propagator::eq_eh_t& eq_eh) { m_eq_eh = eq_eh; } void register_eq(user_propagator::eq_eh_t& eq_eh) { m_eq_eh = eq_eh; }
void register_diseq(user_propagator::eq_eh_t& diseq_eh) { m_diseq_eh = diseq_eh; } void register_diseq(user_propagator::eq_eh_t& diseq_eh) { m_diseq_eh = diseq_eh; }
void register_created(user_propagator::created_eh_t& created_eh) { m_created_eh = created_eh; } void register_created(user_propagator::created_eh_t& created_eh) { m_created_eh = created_eh; }
func_decl* declare(symbol const& name, unsigned n, sort* const* domain, sort* range);
bool has_fixed() const { return (bool)m_fixed_eh; } bool has_fixed() const { return (bool)m_fixed_eh; }

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@ -108,8 +108,8 @@ public:
m_tactic->user_propagate_register_diseq(diseq_eh); m_tactic->user_propagate_register_diseq(diseq_eh);
} }
unsigned user_propagate_register(expr* e) override { unsigned user_propagate_register_expr(expr* e) override {
return m_tactic->user_propagate_register(e); return m_tactic->user_propagate_register_expr(e);
} }
void user_propagate_clear() override { void user_propagate_clear() override {

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@ -892,7 +892,7 @@ public:
m_num_elim_apps = 0; m_num_elim_apps = 0;
} }
unsigned user_propagate_register(expr* e) override { unsigned user_propagate_register_expr(expr* e) override {
m_nonvars.insert(e); m_nonvars.insert(e);
return 0; return 0;
} }

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@ -78,7 +78,7 @@ public:
void operator()(goal_ref const & g, goal_ref_buffer & result) override; void operator()(goal_ref const & g, goal_ref_buffer & result) override;
void cleanup() override; void cleanup() override;
unsigned user_propagate_register(expr* e) override; unsigned user_propagate_register_expr(expr* e) override;
void user_propagate_clear() override; void user_propagate_clear() override;
}; };
@ -502,7 +502,7 @@ void reduce_args_tactic::cleanup() {
m_imp->m_vars.append(vars); m_imp->m_vars.append(vars);
} }
unsigned reduce_args_tactic::user_propagate_register(expr* e) { unsigned reduce_args_tactic::user_propagate_register_expr(expr* e) {
m_imp->m_vars.push_back(e); m_imp->m_vars.push_back(e);
return 0; return 0;
} }

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@ -85,7 +85,7 @@ public:
throw default_exception("tactic does not support user propagation"); throw default_exception("tactic does not support user propagation");
} }
unsigned user_propagate_register(expr* e) override { return 0; } unsigned user_propagate_register_expr(expr* e) override { return 0; }
virtual char const* name() const = 0; virtual char const* name() const = 0;
protected: protected:

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@ -190,9 +190,9 @@ public:
m_t2->user_propagate_register_diseq(diseq_eh); m_t2->user_propagate_register_diseq(diseq_eh);
} }
unsigned user_propagate_register(expr* e) override { unsigned user_propagate_register_expr(expr* e) override {
m_t1->user_propagate_register(e); m_t1->user_propagate_register_expr(e);
return m_t2->user_propagate_register(e); return m_t2->user_propagate_register_expr(e);
} }
void user_propagate_clear() override { void user_propagate_clear() override {
@ -204,10 +204,6 @@ public:
m_t2->user_propagate_register_created(created_eh); m_t2->user_propagate_register_created(created_eh);
} }
func_decl* user_propagate_declare(symbol const& name, unsigned n, sort* const* domain, sort* range) override {
return m_t2->user_propagate_declare(name, n, domain, range);
}
}; };
tactic * and_then(tactic * t1, tactic * t2) { tactic * and_then(tactic * t1, tactic * t2) {
@ -833,7 +829,7 @@ public:
void reset() override { m_t->reset(); } void reset() override { m_t->reset(); }
void set_logic(symbol const& l) override { m_t->set_logic(l); } void set_logic(symbol const& l) override { m_t->set_logic(l); }
void set_progress_callback(progress_callback * callback) override { m_t->set_progress_callback(callback); } void set_progress_callback(progress_callback * callback) override { m_t->set_progress_callback(callback); }
unsigned user_propagate_register(expr* e) override { return m_t->user_propagate_register(e); } unsigned user_propagate_register_expr(expr* e) override { return m_t->user_propagate_register_expr(e); }
void user_propagate_clear() override { m_t->user_propagate_clear(); } void user_propagate_clear() override { m_t->user_propagate_clear(); }
protected: protected:

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@ -29,6 +29,8 @@ namespace user_propagator {
class plugin : public decl_plugin { class plugin : public decl_plugin {
public: public:
static symbol name() { return symbol("user_propagator"); }
enum kind_t { OP_USER_PROPAGATE }; enum kind_t { OP_USER_PROPAGATE };
virtual ~plugin() {} virtual ~plugin() {}
@ -79,19 +81,7 @@ namespace user_propagator {
throw default_exception("user-propagators are only supported on the SMT solver"); throw default_exception("user-propagators are only supported on the SMT solver");
} }
virtual unsigned user_propagate_register(expr* e) { virtual unsigned user_propagate_register_expr(expr* e) {
throw default_exception("user-propagators are only supported on the SMT solver");
}
/**
* Create uninterpreted function for the user propagator.
* When expressions using the function are assigned values, generate a callback
* into a register_declared_eh(user_ctx, solver_ctx, declared_expr, declare_id) with arguments
* 1. context and callback context
* 2. declared_expr: expression using function that was declared at top.
* 3. declared_id: a unique identifier (unique within the current scope) to track the expression.
*/
virtual func_decl* user_propagate_declare(symbol const& name, unsigned n, sort* const* domain, sort* range) {
throw default_exception("user-propagators are only supported on the SMT solver"); throw default_exception("user-propagators are only supported on the SMT solver");
} }