* clauses shouldn't be erased when they could be a reason for outside propagation
* propagation of p and !p is ignored as this must lead to a conflict in the subtheory internally
using namespace BVMinisat;
-// purely debugging functions
-void printDebug2 (BVMinisat::Lit l) {
- std::cout<< (sign(l) ? "-" : "") << var(l) + 1 << std::endl;
+namespace CVC4 {
+
+#define OUTPUT_TAG "bvminisat: [a=" << assumptions.size() << ",l=" << decisionLevel() << "] "
+
+std::ostream& operator << (std::ostream& out, const BVMinisat::Lit& l) {
+ out << (sign(l) ? "-" : "") << var(l) + 1;
+ return out;
}
-void printDebug2 (BVMinisat::Clause& c) {
+std::ostream& operator << (std::ostream& out, const BVMinisat::Clause& c) {
for (int i = 0; i < c.size(); i++) {
- std::cout << (sign(c[i]) ? "-" : "") << var(c[i]) + 1 << " ";
+ if (i > 0) {
+ out << " ";
+ }
+ out << c[i];
}
- std::cout << std::endl;
+ return out;
}
-
+}
//=================================================================================================
// Options:
//
void Solver::cancelUntil(int level) {
if (decisionLevel() > level){
- for (int c = trail.size()-1; c >= trail_lim[level]; c--){
+ Debug("bvminisat::explain") << OUTPUT_TAG << " backtracking to " << level << std::endl;
+ for (int c = trail.size()-1; c >= trail_lim[level]; c--){
Var x = var(trail[c]);
assigns [x] = l_Undef;
if (marker[x] == 2) marker[x] = 1;
trail.push_(p);
if (decisionLevel() <= assumptions.size() && marker[var(p)] == 1) {
if (notify) {
+ Debug("bvminisat::explain") << OUTPUT_TAG << "propagating " << p << std::endl;
notify->notify(p);
}
}
if (assumption) {
assert(decisionLevel() < assumptions.size());
analyzeFinal(p, conflict);
+ Debug("bvminisat::search") << OUTPUT_TAG << " conflict on assumptions " << std::endl;
return l_False;
}
// NO CONFLICT
if (decisionLevel() > assumptions.size() && nof_conflicts >= 0 && conflictC >= nof_conflicts || !withinBudget()){
// Reached bound on number of conflicts:
+ Debug("bvminisat::search") << OUTPUT_TAG << " restarting " << std::endl;
progress_estimate = progressEstimate();
cancelUntil(assumptions.size());
return l_Undef; }
// Simplify the set of problem clauses:
- if (decisionLevel() == 0 && !simplify())
+ if (decisionLevel() == 0 && !simplify()) {
+ Debug("bvminisat::search") << OUTPUT_TAG << " base level conflict, we're unsat" << std::endl;
return l_False;
+ }
- if (learnts.size()-nAssigns() >= max_learnts)
+ // We can't erase clauses if there is unprocessed assumptions, there might be some
+ // propagationg we need to redu
+ if (decisionLevel() >= assumptions.size() && learnts.size()-nAssigns() >= max_learnts) {
// Reduce the set of learnt clauses:
+ Debug("bvminisat::search") << OUTPUT_TAG << " cleaning up database" << std::endl;
reduceDB();
+ }
Lit next = lit_Undef;
while (decisionLevel() < assumptions.size()){
newDecisionLevel();
}else if (value(p) == l_False){
analyzeFinal(~p, conflict);
+ Debug("bvminisat::search") << OUTPUT_TAG << " assumption false, we're unsat" << std::endl;
return l_False;
}else{
marker[var(p)] = 2;
if (next == lit_Undef){
if (only_bcp) {
+ Debug("bvminisat::search") << OUTPUT_TAG << " only bcp, skipping rest of the problem" << std::endl;
return l_True;
}
decisions++;
next = pickBranchLit();
- if (next == lit_Undef)
+ if (next == lit_Undef) {
+ Debug("bvminisat::search") << OUTPUT_TAG << " satisfiable" << std::endl;
// Model found:
return l_True;
+ }
}
// Increase decision level and enqueue 'next'
vec<Lit> queue;
queue.push(p);
- __gnu_cxx::hash_set<Var> visited;
+ Debug("bvminisat::explain") << OUTPUT_TAG << "starting explain of " << p << std::endl;
+
+ __gnu_cxx::hash_set<Var> visited;
visited.insert(var(p));
while(queue.size() > 0) {
Lit l = queue.last();
+
+ Debug("bvminisat::explain") << OUTPUT_TAG << "processing " << l << std::endl;
+
assert(value(l) == l_True);
queue.pop();
if (reason(var(l)) == CRef_Undef) {
}
bool Bitblaster::MinisatNotify::notify(prop::SatLiteral lit) {
- return d_bv->storePropagation(d_cnf->getNode(lit), TheoryBV::SUB_BITBLAST);
+ return d_bv->storePropagation(d_cnf->getNode(lit), SUB_BITBLAST);
};
void Bitblaster::MinisatNotify::notify(prop::SatClause& clause) {
namespace theory {
namespace bv {
+enum SubTheory {
+ SUB_EQUALITY = 1,
+ SUB_BITBLAST = 2
+};
+
+inline std::ostream& operator << (std::ostream& out, SubTheory subtheory) {
+ switch (subtheory) {
+ case SUB_BITBLAST:
+ out << "BITBLASTER";
+ break;
+ case SUB_EQUALITY:
+ out << "EQUALITY";
+ break;
+ default:
+ Unreachable();
+ break;
+ }
+ return out;
+}
+
+
const bool d_useEqualityEngine = true;
const bool d_useSatPropagation = true;
// propagation
for (unsigned i = 0; i < assertions.size(); ++i) {
TNode fact = assertions[i];
- if (!d_bv->inConflict() && !d_bv->propagatedBy(fact, TheoryBV::SUB_BITBLAST)) {
+ if (!d_bv->inConflict() && !d_bv->propagatedBy(fact, SUB_BITBLAST)) {
// Some atoms have not been bit-blasted yet
d_bitblaster->bbAtom(fact);
// Assert to sat
TNode fact = assertions[i];
// Notify the equality engine
- if (d_useEqualityEngine && !d_bv->inConflict() && !d_bv->propagatedBy(fact, TheoryBV::TheoryBV::SUB_EQUALITY) ) {
+ if (d_useEqualityEngine && !d_bv->inConflict() && !d_bv->propagatedBy(fact, SUB_EQUALITY) ) {
bool negated = fact.getKind() == kind::NOT;
TNode predicate = negated ? fact[0] : fact;
if (predicate.getKind() == kind::EQUAL) {
}
bool EqualitySolver::storePropagation(TNode literal) {
- return d_bv->storePropagation(literal, TheoryBV::SUB_EQUALITY);
+ return d_bv->storePropagation(literal, SUB_EQUALITY);
}
void EqualitySolver::conflict(TNode a, TNode b) {
d_equalitySolver.preRegister(node);
}
+void TheoryBV::sendConflict() {
+ Assert(d_conflict);
+ if (d_conflictNode.isNull()) {
+ return;
+ } else {
+ BVDebug("bitvector") << indent() << "TheoryBV::check(): conflict " << d_conflictNode;
+ d_out->conflict(d_conflictNode);
+ d_statistics.d_avgConflictSize.addEntry(d_conflictNode.getNumChildren());
+ d_conflictNode = Node::null();
+ }
+}
+
void TheoryBV::check(Effort e)
{
BVDebug("bitvector") << "TheoryBV::check(" << e << ")" << std::endl;
// if we are already in conflict just return the conflict
- if (d_conflict) {
- BVDebug("bitvector") << indent() << "TheoryBV::check(): conflict " << d_conflictNode;
- d_out->conflict(d_conflictNode);
- d_statistics.d_avgConflictSize.addEntry(d_conflictNode.getNumChildren());
+ if (inConflict()) {
+ sendConflict();
return;
}
BVDebug("bitvector-assertions") << "TheoryBV::check assertion " << fact << "\n";
}
- // sending assertions to the equality solver first
- bool ok = d_equalitySolver.addAssertions(new_assertions, e);
+ if (!inConflict()) {
+ // sending assertions to the equality solver first
+ d_equalitySolver.addAssertions(new_assertions, e);
+ }
- if (ok) {
+ if (!inConflict()) {
// sending assertions to the bitblast solver
- ok = d_bitblastSolver.addAssertions(new_assertions, e);
+ d_bitblastSolver.addAssertions(new_assertions, e);
}
- if (!ok) {
- // output conflict
- Assert (d_conflict);
- BVDebug("bitvector") << indent() << "TheoryBV::check(): conflict " << d_conflictNode;
- d_out->conflict(d_conflictNode);
- d_statistics.d_avgConflictSize.addEntry(d_conflictNode.getNumChildren());
+ if (inConflict()) {
+ sendConflict();
}
}
void TheoryBV::propagate(Effort e) {
BVDebug("bitvector") << indent() << "TheoryBV::propagate()" << std::endl;
- if (d_conflict) {
+ if (inConflict()) {
return;
}
// go through stored propagations
- for (; d_literalsToPropagateIndex < d_literalsToPropagate.size(); d_literalsToPropagateIndex = d_literalsToPropagateIndex + 1) {
+ bool ok = true;
+ for (; d_literalsToPropagateIndex < d_literalsToPropagate.size() && ok; d_literalsToPropagateIndex = d_literalsToPropagateIndex + 1) {
TNode literal = d_literalsToPropagate[d_literalsToPropagateIndex];
- d_out->propagate(literal);
+ ok = d_out->propagate(literal);
+ }
+
+ if (!ok) {
+ BVDebug("bitvector::propagate") << indent() << "TheoryBV::propagate(): conflict from theory engine" << std::endl;
+ setConflict();
}
}
bool TheoryBV::storePropagation(TNode literal, SubTheory subtheory)
{
- Debug("bitvector") << indent() << "TheoryBV::storePropagation(" << literal << ")" << std::endl;
+ Debug("bitvector::propagate") << indent() << "TheoryBV::storePropagation(" << literal << ", " << subtheory << ")" << std::endl;
// If already in conflict, no more propagation
if (d_conflict) {
- Debug("bitvector") << indent() << "TheoryBV::storePropagation(" << literal << "): already in conflict" << std::endl;
+ Debug("bitvector::propagate") << indent() << "TheoryBV::storePropagation(" << literal << ", " << subtheory << "): already in conflict" << std::endl;
return false;
}
if (find != d_propagatedBy.end()) {
return true;
} else {
+ bool polarity = literal.getKind() != kind::NOT;
+ Node negatedLiteral = polarity ? literal.notNode() : (Node) literal[0];
+ find = d_propagatedBy.find(negatedLiteral);
+ if (find != d_propagatedBy.end() && (*find).second != subtheory) {
+ // Safe to ignore this one, subtheory should produce a conflict
+ return true;
+ }
d_propagatedBy[literal] = subtheory;
}
// If asserted, we might be in conflict
if (hasSatValue && !satValue) {
- Debug("bitvector-prop") << indent() << "TheoryBV::storePropagation(" << literal << ") => conflict" << std::endl;
+ Debug("bitvector::propagate") << indent() << "TheoryBV::storePropagation(" << literal << ", " << subtheory << ") => conflict" << std::endl;
std::vector<TNode> assumptions;
Node negatedLiteral = literal.getKind() == kind::NOT ? (Node) literal[0] : literal.notNode();
assumptions.push_back(negatedLiteral);
}
// Nothing, just enqueue it for propagation and mark it as asserted already
- Debug("bitvector-prop") << indent() << "TheoryBV::storePropagation(" << literal << ") => enqueuing for propagation" << std::endl;
+ Debug("bitvector::propagate") << indent() << "TheoryBV::storePropagation(" << literal << ", " << subtheory << ") => enqueuing for propagation" << std::endl;
d_literalsToPropagate.push_back(literal);
// No conflict
/** Index of the next literal to propagate */
context::CDO<unsigned> d_literalsToPropagateIndex;
- enum SubTheory {
- SUB_EQUALITY = 1,
- SUB_BITBLAST = 2
- };
-
/**
* Keeps a map from nodes to the subtheory that propagated it so that we can explain it
* properly.
return indentStr;
}
- void setConflict(Node conflict) {
+ void setConflict(Node conflict = Node::null()) {
d_conflict = true;
- d_conflictNode = conflict;
+ d_conflictNode = conflict;
}
- bool inConflict() { return d_conflict == true; }
+ bool inConflict() {
+ return d_conflict;
+ }
+
+ void sendConflict();
friend class Bitblaster;
friend class BitblastSolver;
}/* CVC4::theory::bv namespace */
}/* CVC4::theory namespace */
+
}/* CVC4 namespace */
#endif /* __CVC4__THEORY__BV__THEORY_BV_H */
fuzz12.smt \
fuzz13.smt \
fuzz14.smt \
+ fuzz15.delta01.smt \
+ fuzz16.delta01.smt \
+ fuzz17.delta01.smt \
+ fuzz18.delta01.smt \
+ fuzz18.smt \
+ fuzz19.delta01.smt \
+ fuzz19.smt \
+ fuzz20.delta01.smt \
+ fuzz20.smt \
+ fuzz21.delta01.smt \
+ fuzz21.smt \
+ fuzz22.delta01.smt \
+ fuzz22.smt \
+ fuzz23.delta01.smt \
+ fuzz23.smt \
+ fuzz24.delta01.smt \
+ fuzz24.smt \
+ fuzz25.delta01.smt \
+ fuzz25.smt \
+ fuzz26.delta01.smt \
+ fuzz26.smt \
+ fuzz27.delta01.smt \
+ fuzz27.smt \
+ fuzz28.delta01.smt \
+ fuzz28.smt \
+ fuzz29.delta01.smt \
+ fuzz29.smt \
+ fuzz30.delta01.smt \
+ fuzz30.smt \
+ fuzz31.delta01.smt \
+ fuzz31.smt \
+ fuzz32.delta01.smt \
+ fuzz32.smt \
+ fuzz33.delta01.smt \
+ fuzz33.smt \
+ fuzz34.delta01.smt \
+ fuzz34.smt \
+ fuzz35.delta01.smt \
+ fuzz35.smt \
+ fuzz36.delta01.smt \
+ fuzz36.smt \
+ fuzz37.delta01.smt \
+ fuzz37.smt \
calc2_sec2_shifter_mult_bmc15.atlas.delta01.smt
# Regression tests for SMT2 inputs
slice-18.smt \
slice-19.smt \
slice-20.smt \
- ext_con_004_001_1024.smt \
a78test0002.smt \
a95test0002.smt \
bitvec0.smt \
:extrafuns ((v0 BitVec[15]))
:extrafuns ((v14 BitVec[14]))
:extrafuns ((v19 BitVec[10]))
-:status unknown
+:status unsat
:formula
(let (?n1 (sign_extend[2] v11))
(let (?n2 (sign_extend[6] ?n1))
--- /dev/null
+(benchmark fuzzsmt
+:logic QF_BV
+:extrafuns ((v1 BitVec[12]))
+:extrafuns ((v15 BitVec[8]))
+:extrafuns ((v11 BitVec[12]))
+:extrafuns ((v12 BitVec[15]))
+:status unsat
+:formula
+(flet ($n1 true)
+(let (?n2 bv0[12])
+(flet ($n3 (bvslt ?n2 v1))
+(flet ($n4 (not $n3))
+(let (?n5 bv0[1])
+(let (?n6 bv1[1])
+(let (?n7 bv1[12])
+(flet ($n8 (bvult v11 ?n7))
+(let (?n9 (ite $n8 ?n6 ?n5))
+(flet ($n10 (= ?n6 ?n9))
+(let (?n11 (ite $n10 v11 ?n2))
+(let (?n12 (sign_extend[3] ?n11))
+(flet ($n13 (bvult ?n12 v12))
+(let (?n14 (ite $n13 ?n6 ?n5))
+(flet ($n15 (bvult ?n5 ?n14))
+(flet ($n16 (not $n15))
+(let (?n17 bv0[5])
+(let (?n18 (sign_extend[1] v1))
+(let (?n19 (sign_extend[2] ?n18))
+(let (?n20 (bvxnor v12 ?n19))
+(flet ($n21 (bvult ?n19 ?n20))
+(let (?n22 (ite $n21 ?n6 ?n5))
+(let (?n23 (repeat[5] ?n22))
+(flet ($n24 (bvult ?n17 ?n23))
+(let (?n25 bv0[10])
+(let (?n26 bv0[15])
+(flet ($n27 (bvsge ?n20 ?n26))
+(let (?n28 (ite $n27 ?n6 ?n5))
+(let (?n29 (sign_extend[9] ?n28))
+(flet ($n30 (= ?n25 ?n29))
+(let (?n31 bv1[14])
+(flet ($n32 (bvult ?n22 ?n6))
+(let (?n33 (ite $n32 ?n6 ?n5))
+(let (?n34 (zero_extend[13] ?n33))
+(let (?n35 (bvadd ?n31 ?n34))
+(let (?n36 bv0[14])
+(flet ($n37 (bvugt ?n35 ?n36))
+(flet ($n38 false)
+(let (?n39 bv1[15])
+(let (?n40 (zero_extend[4] v15))
+(let (?n41 (bvcomp v11 ?n40))
+(let (?n42 (zero_extend[14] ?n41))
+(flet ($n43 (distinct ?n39 ?n42))
+(let (?n44 (ite $n43 ?n6 ?n5))
+(let (?n45 (sign_extend[11] ?n44))
+(let (?n46 (bvxor v1 ?n45))
+(flet ($n47 (bvsgt ?n2 ?n46))
+(let (?n48 (zero_extend[12] ?n44))
+(let (?n49 bv0[13])
+(flet ($n50 (bvule ?n48 ?n49))
+(flet ($n51 (or $n38 $n47 $n50))
+(flet ($n52 (bvsle ?n2 v1))
+(let (?n53 (ite $n52 ?n6 ?n5))
+(let (?n54 (bvadd ?n6 ?n53))
+(flet ($n55 (bvugt ?n54 ?n5))
+(let (?n56 (ite $n55 ?n6 ?n5))
+(let (?n57 (sign_extend[14] ?n56))
+(flet ($n58 (bvuge ?n57 ?n39))
+(flet ($n59 (and $n4 $n16 $n24 $n30 $n37 $n51 $n58))
+$n59
+))))))))))))))))))))))))))))))))))))))))))))))))))))))))))))
:extrafuns ((v3 BitVec[11]))
:extrafuns ((v8 BitVec[9]))
:extrafuns ((v4 BitVec[14]))
-:status unknown
+:status sat
:formula
(let (?n1 bv0[1])
(let (?n2 bv1[16])
:extrafuns ((v1 BitVec[4]))
:extrafuns ((v0 BitVec[4]))
:extrafuns ((v6 BitVec[4]))
-:status unknown
+:status unsat
:formula
(let (?n1 bv1[1])
(let (?n2 (extract[1:1] v2))
:extrafuns ((v5 BitVec[4]))
:extrafuns ((v3 BitVec[4]))
:extrafuns ((v7 BitVec[4]))
-:status unknown
+:status unsat
:formula
(flet ($n1 true)
(let (?n2 (bvcomp v3 v2))
:extrafuns ((v3 BitVec[4]))
:extrafuns ((v4 BitVec[4]))
:extrafuns ((v5 BitVec[4]))
-:status unknown
+:status unsat
:formula
(flet ($n1 true)
(let (?n2 (extract[0:0] v2))
:extrafuns ((v5 BitVec[4]))
:extrafuns ((v3 BitVec[4]))
:extrafuns ((v4 BitVec[4]))
-:status unknown
+:status unsat
:formula
(flet ($n1 true)
(let (?n2 (extract[0:0] v2))
(benchmark fuzzsmt
:logic QF_BV
:extrafuns ((v2 BitVec[4]))
-:status unknown
+:status unsat
:formula
(let (?n1 bv1[1])
(let (?n2 bv0[4])
(benchmark fuzzsmt
:logic QF_BV
-:status unknown
+:status unsat
:extrafuns ((v0 BitVec[4]))
:extrafuns ((v1 BitVec[4]))
:extrafuns ((v2 BitVec[4]))
(benchmark fuzzsmt
:logic QF_BV
:extrafuns ((v1 BitVec[4]))
-:status unknown
+:status sat
:formula
(let (?n1 (bvmul v1 v1))
(let (?n2 bv0[4])
(benchmark fuzzsmt
:logic QF_BV
-:status unknown
+:status unsat
:extrafuns ((v0 BitVec[4]))
:extrafuns ((v1 BitVec[4]))
:extrafuns ((v2 BitVec[4]))
:extrafuns ((v1 BitVec[4]))
:extrafuns ((v2 BitVec[4]))
:extrafuns ((v4 BitVec[4]))
-:status unknown
+:status sat
:formula
(flet ($n1 true)
(let (?n2 bv12[4])
(benchmark fuzzsmt
:logic QF_BV
-:status unknown
+:status sat
:extrafuns ((v0 BitVec[4]))
:extrafuns ((v1 BitVec[4]))
:extrafuns ((v2 BitVec[4]))
(benchmark fuzzsmt
:logic QF_BV
:extrafuns ((v1 BitVec[4]))
-:status unknown
+:status sat
:formula
(let (?n1 bv1[1])
(let (?n2 (bvnot v1))
(benchmark fuzzsmt
:logic QF_BV
-:status unknown
+:status unsat
:extrafuns ((v0 BitVec[4]))
:extrafuns ((v1 BitVec[4]))
:extrafuns ((v2 BitVec[4]))
(benchmark fuzzsmt
:logic QF_BV
:extrafuns ((v1 BitVec[4]))
-:status unknown
+:status unsat
:formula
(let (?n1 bv0[4])
(flet ($n2 (bvslt v1 ?n1))
(benchmark fuzzsmt
:logic QF_BV
-:status unknown
+:status unsat
:extrafuns ((v0 BitVec[4]))
:extrafuns ((v1 BitVec[4]))
:formula
:logic QF_BV
:extrafuns ((v0 BitVec[4]))
:extrafuns ((v1 BitVec[4]))
-:status unknown
+:status sat
:formula
(let (?n1 bv0[4])
(flet ($n2 (bvule v0 ?n1))
(benchmark fuzzsmt
:logic QF_BV
-:status unknown
+:status unsat
:extrafuns ((v0 BitVec[4]))
:extrafuns ((v1 BitVec[4]))
:extrafuns ((v2 BitVec[4]))
(benchmark fuzzsmt
:logic QF_BV
:extrafuns ((v1 BitVec[4]))
-:status unknown
+:status unsat
:formula
(let (?n1 bv0[4])
(let (?n2 bv14[4])
(benchmark fuzzsmt
:logic QF_BV
-:status unknown
+:status unsat
:extrafuns ((v0 BitVec[4]))
:extrafuns ((v1 BitVec[4]))
:extrafuns ((v2 BitVec[4]))
(benchmark fuzzsmt
:logic QF_BV
:extrafuns ((v0 BitVec[4]))
-:status unknown
+:status sat
:formula
(let (?n1 bv0[4])
(flet ($n2 (bvslt v0 ?n1))
(benchmark fuzzsmt
:logic QF_BV
-:status unknown
+:status sat
:extrafuns ((v0 BitVec[4]))
:extrafuns ((v1 BitVec[4]))
:extrafuns ((v2 BitVec[4]))
(benchmark fuzzsmt
:logic QF_BV
:extrafuns ((v0 BitVec[4]))
-:status unknown
+:status sat
:formula
(let (?n1 (bvnot v0))
(let (?n2 bv1[4])
(benchmark fuzzsmt
:logic QF_BV
-:status unknown
+:status unsat
:extrafuns ((v0 BitVec[4]))
:extrafuns ((v1 BitVec[4]))
:extrafuns ((v2 BitVec[4]))
:extrafuns ((v1 BitVec[4]))
:extrafuns ((v0 BitVec[4]))
:extrafuns ((v2 BitVec[4]))
-:status unknown
+:status sat
:formula
(flet ($n1 true)
(flet ($n2 false)
(benchmark fuzzsmt
:logic QF_BV
-:status unknown
+:status sat
:extrafuns ((v0 BitVec[4]))
:extrafuns ((v1 BitVec[4]))
:extrafuns ((v2 BitVec[4]))
:logic QF_BV
:extrafuns ((v2 BitVec[4]))
:extrafuns ((v1 BitVec[4]))
-:status unknown
+:status sat
:formula
(let (?n1 (bvmul v1 v2))
(let (?n2 (bvneg ?n1))
(benchmark fuzzsmt
:logic QF_BV
-:status unknown
+:status sat
:extrafuns ((v0 BitVec[4]))
:extrafuns ((v1 BitVec[4]))
:extrafuns ((v2 BitVec[4]))
(benchmark fuzzsmt
:logic QF_BV
:extrafuns ((v1 BitVec[4]))
-:status unknown
+:status sat
:formula
(let (?n1 bv8[4])
(let (?n2 bv12[4])
(benchmark fuzzsmt
:logic QF_BV
-:status unknown
+:status unsat
:extrafuns ((v0 BitVec[4]))
:extrafuns ((v1 BitVec[4]))
:extrafuns ((v2 BitVec[4]))
:logic QF_BV
:extrafuns ((v2 BitVec[4]))
:extrafuns ((v1 BitVec[4]))
-:status unknown
+:status sat
:formula
(let (?n1 bv1[1])
(let (?n2 bv0[4])
(benchmark fuzzsmt
:logic QF_BV
-:status unknown
+:status unsat
:extrafuns ((v0 BitVec[4]))
:extrafuns ((v1 BitVec[4]))
:extrafuns ((v2 BitVec[4]))
(benchmark fuzzsmt
:logic QF_BV
:extrafuns ((v0 BitVec[4]))
-:status unknown
+:status sat
:formula
(let (?n1 bv0[1])
(let (?n2 bv1[4])
(benchmark fuzzsmt
:logic QF_BV
-:status unknown
+:status sat
:extrafuns ((v0 BitVec[4]))
:extrafuns ((v1 BitVec[4]))
:formula
(benchmark fuzzsmt
:logic QF_BV
:extrafuns ((v0 BitVec[4]))
-:status unknown
+:status sat
:formula
(let (?n1 bv0[1])
(let (?n2 bv0[4])
(benchmark fuzzsmt
:logic QF_BV
-:status unknown
+:status unsat
:extrafuns ((v0 BitVec[4]))
:extrafuns ((v1 BitVec[4]))
:formula
(benchmark fuzzsmt
:logic QF_BV
:extrafuns ((v0 BitVec[4]))
-:status unknown
+:status unsat
:formula
(let (?n1 bv4[4])
(let (?n2 bv12[4])
(benchmark fuzzsmt
:logic QF_BV
-:status unknown
+:status unsat
:extrafuns ((v0 BitVec[4]))
:extrafuns ((v1 BitVec[4]))
:extrafuns ((v2 BitVec[4]))
:extrafuns ((v0 BitVec[4]))
:extrafuns ((v2 BitVec[4]))
:extrafuns ((v3 BitVec[4]))
-:status unknown
+:status sat
:formula
(flet ($n1 true)
(flet ($n2 false)
(benchmark fuzzsmt
:logic QF_BV
-:status unknown
+:status sat
:extrafuns ((v0 BitVec[4]))
:extrafuns ((v1 BitVec[4]))
:extrafuns ((v2 BitVec[4]))
(benchmark fuzzsmt
:logic QF_BV
:extrafuns ((v1 BitVec[4]))
-:status unknown
+:status sat
:formula
(let (?n1 bv1[4])
(flet ($n2 (bvugt ?n1 v1))
(benchmark fuzzsmt
:logic QF_BV
-:status unknown
+:status sat
:extrafuns ((v0 BitVec[4]))
:extrafuns ((v1 BitVec[4]))
:extrafuns ((v2 BitVec[4]))