void goal::update(unsigned i, expr * f, proof * pr, expr_dependency * d) {
SASSERT(proofs_enabled() == (pr != 0 && !m().is_undef_proof(pr)));
if (m_inconsistent)
return;
if (proofs_enabled()) {
expr_ref out_f(m());
proof_ref out_pr(m());
slow_process(true, f, pr, d, out_f, out_pr);
if (!m_inconsistent) {
if (m().is_false(out_f)) {
push_back(out_f, out_pr, d);
}
else {
m().set(m_forms, i, out_f);
m().set(m_proofs, i, out_pr);
if (unsat_core_enabled())
m().set(m_dependencies, i, d);
}
}
}
else {
quick_process(true, f, d);
if (!m_inconsistent) {
if (m().is_false(f)) {
push_back(f, 0, d);
}
else {
m().set(m_forms, i, f);
if (unsat_core_enabled())
m().set(m_dependencies, i, d);
}
}
}
}
void assertion_set::update(unsigned i, expr * f, proof * pr) {
SASSERT(m().proofs_enabled() == (pr != 0 && !m().is_undef_proof(pr)));
if (m_inconsistent)
return;
if (m().proofs_enabled()) {
expr_ref out_f(m());
proof_ref out_pr(m());
slow_process(true, f, pr, out_f, out_pr);
if (!m_inconsistent) {
if (m().is_false(out_f)) {
push_back(out_f, out_pr);
}
else {
m().set(m_forms, i, out_f);
m().set(m_proofs, i, out_pr);
}
}
}
else {
quick_process(true, f);
if (!m_inconsistent) {
if (m().is_false(f))
push_back(f, 0);
else
m().set(m_forms, i, f);
}
}
}
void goal::assert_expr(expr * f, proof * pr, expr_dependency * d) {
SASSERT(proofs_enabled() == (pr != 0 && !m().is_undef_proof(pr)));
if (m_inconsistent)
return;
if (proofs_enabled())
slow_process(f, pr, d);
else
quick_process(false, f, d);
}
void assertion_set::assert_expr(expr * f, proof * pr) {
SASSERT(m().proofs_enabled() == (pr != 0 && !m().is_undef_proof(pr)));
if (m_inconsistent)
return;
if (m().proofs_enabled())
slow_process(f, pr);
else
quick_process(false, f);
}
void assertion_stack::assert_expr(expr * f, proof * pr, expr_dependency * d) {
SASSERT(proofs_enabled() == (pr != 0 && !m().is_undef_proof(pr)));
if (m_inconsistent)
return;
expr_ref new_f(m()); proof_ref new_pr(m()); expr_dependency_ref new_d(m());
expand(f, pr, d, new_f, new_pr, new_d);
if (proofs_enabled())
slow_process(f, pr, d);
else
quick_process(false, f, d);
}
int quick_save() {
int ok = 0;
quick_fp = fopen(quick_file, "wb");
if (quick_fp != NULL) {
process_save((void*) quick_version, COUNT(quick_version));
ok = quick_process(process_save);
fclose(quick_fp);
quick_fp = NULL;
}
return ok;
}
int quick_load() {
int ok = 0;
quick_fp = fopen(quick_file, "rb");
if (quick_fp != NULL) {
// check quicksave version is compatible
process_load(quick_control, COUNT(quick_control));
if (strcmp(quick_control, quick_version) != 0) {
fclose(quick_fp);
quick_fp = NULL;
return 0;
}
stop_sounds();
start_timer(timer_0, 5); // briefly display a black screen as a visual cue
draw_rect(&screen_rect, 0);
screen_updates_suspended = 0;
request_screen_update();
screen_updates_suspended = 1;
word old_rem_min = rem_min;
word old_rem_tick = rem_tick;
ok = quick_process(process_load);
fclose(quick_fp);
quick_fp = NULL;
restore_room_after_quick_load();
do_wait(timer_0);
screen_updates_suspended = 0;
request_screen_update();
#ifdef USE_QUICKLOAD_PENALTY
// Subtract one minute from the remaining time (if it is above 5 minutes)
if (options.enable_quicksave_penalty) {
int ticks_elapsed = 720 * (rem_min - old_rem_min) + (rem_tick - old_rem_tick);
// don't restore time at all if the elapsed time is between 0 and 1 minutes
if (ticks_elapsed > 0 && ticks_elapsed < 720) {
rem_min = old_rem_min;
rem_tick = old_rem_tick;
}
else {
if (rem_min == 6) rem_tick = 719; // crop to "5 minutes" exactly, if hitting the threshold in <1 minute
if (rem_min > 5) --rem_min;
}
}
#endif
}
return ok;
}
void assertion_stack::update(unsigned i, expr * f, proof * pr, expr_dependency * d) {
SASSERT(i >= m_form_qhead);
SASSERT(proofs_enabled() == (pr != 0 && !m().is_undef_proof(pr)));
if (m_inconsistent)
return;
if (proofs_enabled()) {
expr_ref out_f(m());
proof_ref out_pr(m());
slow_process(true, f, pr, d, out_f, out_pr);
if (!m_inconsistent) {
if (m().is_false(out_f)) {
push_back(out_f, out_pr, d);
}
else {
m().inc_ref(out_f);
m().dec_ref(m_forms[i]);
m_forms[i] = out_f;
m().inc_ref(out_pr);
m().dec_ref(m_proofs[i]);
m_proofs[i] = out_pr;
if (unsat_core_enabled()) {
m().inc_ref(d);
m().dec_ref(m_deps[i]);
m_deps[i] = d;
}
}
}
}
else {
quick_process(true, f, d);
if (!m_inconsistent) {
if (m().is_false(f)) {
push_back(f, 0, d);
}
else {
m().inc_ref(f);
m().dec_ref(m_forms[i]);
m_forms[i] = f;
if (unsat_core_enabled()) {
m().inc_ref(d);
m().dec_ref(m_deps[i]);
m_deps[i] = d;
}
}
}
}
}