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Fixed min/max Abstract w. repr. 

Finally.


Former-commit-id: 1ccc06d924
tempestpy_adaptions
PBerger 8 years ago
parent
a0ad4b25de
commit
d3c492124a
4 changed files with 418 additions and 130 deletions
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  1. 273
      resources/3rdparty/sylvan/src/sylvan_mtbdd_storm.c
  2. 11
      resources/3rdparty/sylvan/src/sylvan_mtbdd_storm.h
  3. 116
      test/functional/storage/CuddDdTest.cpp
  4. 148
      test/functional/storage/SylvanDdTest.cpp

273
resources/3rdparty/sylvan/src/sylvan_mtbdd_storm.c
View File

@ -213,7 +213,7 @@ TASK_IMPL_2(MTBDD, mtbdd_op_less, MTBDD*, pa, MTBDD*, pb)
}
/**
* Binary operation Equals (for MTBDDs of same type)
* Binary operation Less or Equals (for MTBDDs of same type)
* Only for MTBDDs where either all leaves are Boolean, or Integer, or Double.
* For Integer/Double MTBDD, if either operand is mtbdd_false (not defined),
* then the result is mtbdd_false (i.e. not defined).
@ -261,6 +261,55 @@ TASK_IMPL_2(MTBDD, mtbdd_op_less_or_equal, MTBDD*, pa, MTBDD*, pb)
return mtbdd_invalid;
}
/**
* Binary operation Greater or Equals (for MTBDDs of same type)
* Only for MTBDDs where either all leaves are Boolean, or Integer, or Double.
* For Integer/Double MTBDD, if either operand is mtbdd_false (not defined),
* then the result is mtbdd_false (i.e. not defined).
*/
TASK_IMPL_2(MTBDD, mtbdd_op_greater_or_equal, MTBDD*, pa, MTBDD*, pb)
{
MTBDD a = *pa, b = *pb;
if (a == mtbdd_false && b == mtbdd_false) return mtbdd_true;
if (a == mtbdd_true && b == mtbdd_true) return mtbdd_true;
mtbddnode_t na = MTBDD_GETNODE(a);
mtbddnode_t nb = MTBDD_GETNODE(b);
if (mtbddnode_isleaf(na) && mtbddnode_isleaf(nb)) {
uint64_t val_a = mtbddnode_getvalue(na);
uint64_t val_b = mtbddnode_getvalue(nb);
if (mtbddnode_gettype(na) == 0 && mtbddnode_gettype(nb) == 0) {
int64_t va = *(int64_t*)(&val_a);
int64_t vb = *(int64_t*)(&val_b);
return va >= vb ? mtbdd_true : mtbdd_false;
} else if (mtbddnode_gettype(na) == 1 && mtbddnode_gettype(nb) == 1) {
// both double
double vval_a = *(double*)&val_a;
double vval_b = *(double*)&val_b;
if (vval_a >= vval_b) return mtbdd_true;
return mtbdd_false;
} else if (mtbddnode_gettype(na) == 2 && mtbddnode_gettype(nb) == 2) {
// both fraction
uint64_t nom_a = val_a>>32;
uint64_t nom_b = val_b>>32;
uint64_t denom_a = val_a&0xffffffff;
uint64_t denom_b = val_b&0xffffffff;
nom_a *= denom_b;
nom_b *= denom_a;
return nom_a >= nom_b ? mtbdd_true : mtbdd_false;
}
#if defined(SYLVAN_HAVE_CARL) || defined(STORM_HAVE_CARL)
else if (mtbddnode_gettype(na) == SYLVAN_STORM_RATIONAL_FUNCTION_TYPE_ID && mtbddnode_gettype(nb) == SYLVAN_STORM_RATIONAL_FUNCTION_TYPE_ID) {
printf("ERROR mtbdd_op_greater_or_equal type SYLVAN_STORM_RATIONAL_FUNCTION_TYPE_ID");
assert(0);
}
#endif
}
return mtbdd_invalid;
}
/**
* Binary operation Pow (for MTBDDs of same type)
* Only for MTBDDs where either all leaves are Double.
@ -629,54 +678,81 @@ TASK_IMPL_2(MTBDD, mtbdd_op_complement, MTBDD, a, size_t, k)
}
TASK_IMPL_3(BDD, mtbdd_minExistsRepresentative, MTBDD, a, BDD, variables, BDDVAR, prev_level) {
BDD zero = sylvan_false;
/* Maybe perform garbage collection */
sylvan_gc_test();
/* Cube is guaranteed to be a cube at this point. */
printf("Entered method.\n");
if (sylvan_set_isempty(variables)) {
return sylvan_true;
}
/* Cube is guaranteed to be a cube at this point. */
if (mtbdd_isleaf(a)) {
printf("is leaf\n");
if (sylvan_set_isempty(variables)) {
printf("set is empty\n");
return sylvan_true; // FIXME?
} else {
printf("have variables.\n");
BDD _v = sylvan_set_next(variables);
BDD res = CALL(mtbdd_minExistsRepresentative, a, _v, prev_level);
if (res == sylvan_invalid) {
return sylvan_invalid;
}
sylvan_ref(res);
BDD res1 = sylvan_ite(sylvan_ithvar(bddnode_getvariable(BDD_GETNODE(variables))), sylvan_false, res);
if (res1 == sylvan_invalid) {
sylvan_deref(res);
return sylvan_invalid;
}
BDD _v = sylvan_set_next(variables);
BDD res = CALL(mtbdd_minExistsRepresentative, a, _v, prev_level);
if (res == sylvan_invalid) {
return sylvan_invalid;
}
sylvan_ref(res);
BDD res1 = sylvan_not(sylvan_ite(sylvan_ithvar(bddnode_getvariable(BDD_GETNODE(variables))), sylvan_true, sylvan_not(res)));
if (res1 == sylvan_invalid) {
sylvan_deref(res);
return res1;
return sylvan_invalid;
}
sylvan_deref(res);
return res1;
}
mtbddnode_t na = MTBDD_GETNODE(a);
uint32_t va = mtbddnode_getvariable(na);
bddnode_t nv = BDD_GETNODE(variables);
BDDVAR vv = bddnode_getvariable(nv);
/* Abstract a variable that does not appear in a. */
if (va > vv) {
BDD _v = sylvan_set_next(variables);
BDD res = CALL(mtbdd_minExistsRepresentative, a, _v, va);
if (res == sylvan_invalid) {
return sylvan_invalid;
}
} else if (sylvan_set_isempty(variables)) {
mtbddnode_t na = MTBDD_GETNODE(a);
uint32_t va = mtbddnode_getvariable(na);
MTBDD E = mtbdd_getlow(a);
MTBDD T = mtbdd_gethigh(a);
BDD res1 = CALL(mtbdd_minExistsRepresentative, E, variables, va);
// Fill in the missing variables to make representative unique.
sylvan_ref(res);
BDD res1 = sylvan_ite(sylvan_ithvar(vv), sylvan_false, res);
if (res1 == sylvan_invalid) {
sylvan_deref(res);
return sylvan_invalid;
}
sylvan_deref(res);
return res1;
}
/* TODO: Caching here. */
/*if ((res = cuddCacheLookup2(manager, Cudd_addMinAbstractRepresentative, f, cube)) != NULL) {
return(res);
}*/
MTBDD E = mtbdd_getlow(a);
MTBDD T = mtbdd_gethigh(a);
/* If the two indices are the same, so are their levels. */
if (va == vv) {
BDD _v = sylvan_set_next(variables);
BDD res1 = CALL(mtbdd_minExistsRepresentative, E, _v, va);
if (res1 == sylvan_invalid) {
return sylvan_invalid;
}
sylvan_ref(res1);
BDD res2 = CALL(mtbdd_minExistsRepresentative, T, variables, va);
BDD res2 = CALL(mtbdd_minExistsRepresentative, T, _v, va);
if (res2 == sylvan_invalid) {
sylvan_deref(res1);
return sylvan_invalid;
}
sylvan_ref(res2);
MTBDD left = mtbdd_abstract_min(E, variables);
MTBDD left = mtbdd_abstract_min(E, _v);
if (left == mtbdd_invalid) {
sylvan_deref(res1);
sylvan_deref(res2);
@ -684,7 +760,7 @@ TASK_IMPL_3(BDD, mtbdd_minExistsRepresentative, MTBDD, a, BDD, variables, BDDVAR
}
mtbdd_ref(left);
MTBDD right = mtbdd_abstract_min(T, variables);
MTBDD right = mtbdd_abstract_min(T, _v);
if (right == mtbdd_invalid) {
sylvan_deref(res1);
sylvan_deref(res2);
@ -706,7 +782,7 @@ TASK_IMPL_3(BDD, mtbdd_minExistsRepresentative, MTBDD, a, BDD, variables, BDDVAR
mtbdd_deref(left);
mtbdd_deref(right);
BDD res1Inf = sylvan_ite(tmp, res1, zero);
BDD res1Inf = sylvan_ite(tmp, res1, sylvan_false);
if (res1Inf == sylvan_invalid) {
sylvan_deref(res1);
sylvan_deref(res2);
@ -715,30 +791,19 @@ TASK_IMPL_3(BDD, mtbdd_minExistsRepresentative, MTBDD, a, BDD, variables, BDDVAR
}
sylvan_ref(res1Inf);
sylvan_deref(res1);
BDD tmp2 = sylvan_not(tmp);
if (tmp2 == sylvan_invalid) {
sylvan_deref(res2);
mtbdd_deref(left);
mtbdd_deref(right);
sylvan_deref(tmp);
return sylvan_invalid;
}
sylvan_ref(tmp2);
sylvan_deref(tmp);
BDD res2Inf = sylvan_ite(tmp2, res2, zero);
BDD res2Inf = sylvan_ite(tmp, sylvan_false, res2);
if (res2Inf == sylvan_invalid) {
sylvan_deref(res2);
sylvan_deref(res1Inf);
sylvan_deref(tmp2);
sylvan_deref(tmp);
return sylvan_invalid;
}
sylvan_ref(res2Inf);
sylvan_deref(res2);
sylvan_deref(tmp2);
sylvan_deref(tmp);
BDD res = (res1Inf == res2Inf) ? sylvan_ite(sylvan_ithvar(va), zero, res1Inf) : sylvan_ite(sylvan_ithvar(va), res2Inf, res1Inf);
BDD res = (res1Inf == res2Inf) ? sylvan_ite(sylvan_ithvar(va), sylvan_false, res1Inf) : sylvan_ite(sylvan_ithvar(va), res2Inf, res1Inf);
if (res == sylvan_invalid) {
sylvan_deref(res1Inf);
@ -754,7 +819,59 @@ TASK_IMPL_3(BDD, mtbdd_minExistsRepresentative, MTBDD, a, BDD, variables, BDDVAR
sylvan_deref(res);
return res;
}
else { /* if (va < vv) */
BDD res1 = CALL(mtbdd_minExistsRepresentative, E, variables, va);
if (res1 == sylvan_invalid) {
return sylvan_invalid;
}
sylvan_ref(res1);
BDD res2 = CALL(mtbdd_minExistsRepresentative, T, variables, va);
if (res2 == sylvan_invalid) {
sylvan_deref(res1);
return sylvan_invalid;
}
sylvan_ref(res2);
BDD res = (res1 == res2) ? res1 : sylvan_ite(sylvan_ithvar(va), res2, res1);
if (res == sylvan_invalid) {
sylvan_deref(res1);
sylvan_deref(res2);
return sylvan_invalid;
}
sylvan_deref(res1);
sylvan_deref(res2);
/* TODO: Caching here. */
//cuddCacheInsert2(manager, Cudd_addMinAbstractRepresentative, f, cube, res);
return res;
}
}
TASK_IMPL_3(BDD, mtbdd_maxExistsRepresentative, MTBDD, a, MTBDD, variables, uint32_t, prev_level) {
/* Maybe perform garbage collection */
sylvan_gc_test();
if (sylvan_set_isempty(variables)) {
return sylvan_true;
}
/* Cube is guaranteed to be a cube at this point. */
if (mtbdd_isleaf(a)) {
BDD _v = sylvan_set_next(variables);
BDD res = CALL(mtbdd_maxExistsRepresentative, a, _v, prev_level);
if (res == sylvan_invalid) {
return sylvan_invalid;
}
sylvan_ref(res);
BDD res1 = sylvan_not(sylvan_ite(sylvan_ithvar(bddnode_getvariable(BDD_GETNODE(variables))), sylvan_true, sylvan_not(res)));
if (res1 == sylvan_invalid) {
sylvan_deref(res);
return sylvan_invalid;
}
sylvan_deref(res);
return res1;
}
mtbddnode_t na = MTBDD_GETNODE(a);
uint32_t va = mtbddnode_getvariable(na);
@ -763,16 +880,15 @@ TASK_IMPL_3(BDD, mtbdd_minExistsRepresentative, MTBDD, a, BDD, variables, BDDVAR
/* Abstract a variable that does not appear in a. */
if (va > vv) {
printf("va > vv\n");
BDD _v = sylvan_set_next(variables);
BDD res = CALL(mtbdd_minExistsRepresentative, a, _v, va);
BDD res = CALL(mtbdd_maxExistsRepresentative, a, _v, va);
if (res == sylvan_invalid) {
return sylvan_invalid;
}
// Fill in the missing variables to make representative unique.
sylvan_ref(res);
BDD res1 = sylvan_ite(sylvan_ithvar(vv), zero, res);
BDD res1 = sylvan_ite(sylvan_ithvar(vv), sylvan_false, res);
if (res1 == sylvan_invalid) {
sylvan_deref(res);
return sylvan_invalid;
@ -792,22 +908,21 @@ TASK_IMPL_3(BDD, mtbdd_minExistsRepresentative, MTBDD, a, BDD, variables, BDDVAR
/* If the two indices are the same, so are their levels. */
if (va == vv) {
printf("va == vv\n");
BDD _v = sylvan_set_next(variables);
BDD res1 = CALL(mtbdd_minExistsRepresentative, E, _v, va);
BDD res1 = CALL(mtbdd_maxExistsRepresentative, E, _v, va);
if (res1 == sylvan_invalid) {
return sylvan_invalid;
}
sylvan_ref(res1);
BDD res2 = CALL(mtbdd_minExistsRepresentative, T, _v, va);
BDD res2 = CALL(mtbdd_maxExistsRepresentative, T, _v, va);
if (res2 == sylvan_invalid) {
sylvan_deref(res1);
return sylvan_invalid;
}
sylvan_ref(res2);
MTBDD left = mtbdd_abstract_min(E, _v);
MTBDD left = mtbdd_abstract_max(E, _v);
if (left == mtbdd_invalid) {
sylvan_deref(res1);
sylvan_deref(res2);
@ -815,7 +930,7 @@ TASK_IMPL_3(BDD, mtbdd_minExistsRepresentative, MTBDD, a, BDD, variables, BDDVAR
}
mtbdd_ref(left);
MTBDD right = mtbdd_abstract_min(T, _v);
MTBDD right = mtbdd_abstract_max(T, _v);
if (right == mtbdd_invalid) {
sylvan_deref(res1);
sylvan_deref(res2);
@ -824,7 +939,7 @@ TASK_IMPL_3(BDD, mtbdd_minExistsRepresentative, MTBDD, a, BDD, variables, BDDVAR
}
mtbdd_ref(right);
BDD tmp = mtbdd_less_or_equal_as_bdd(left, right);
BDD tmp = mtbdd_greater_or_equal_as_bdd(left, right);
if (tmp == sylvan_invalid) {
sylvan_deref(res1);
sylvan_deref(res2);
@ -837,7 +952,7 @@ TASK_IMPL_3(BDD, mtbdd_minExistsRepresentative, MTBDD, a, BDD, variables, BDDVAR
mtbdd_deref(left);
mtbdd_deref(right);
BDD res1Inf = sylvan_ite(tmp, res1, zero);
BDD res1Inf = sylvan_ite(tmp, res1, sylvan_false);
if (res1Inf == sylvan_invalid) {
sylvan_deref(res1);
sylvan_deref(res2);
@ -846,30 +961,19 @@ TASK_IMPL_3(BDD, mtbdd_minExistsRepresentative, MTBDD, a, BDD, variables, BDDVAR
}
sylvan_ref(res1Inf);
sylvan_deref(res1);
BDD tmp2 = sylvan_not(tmp);
if (tmp2 == sylvan_invalid) {
sylvan_deref(res2);
mtbdd_deref(left);
mtbdd_deref(right);
sylvan_deref(tmp);
return sylvan_invalid;
}
sylvan_ref(tmp2);
sylvan_deref(tmp);
BDD res2Inf = sylvan_ite(tmp2, res2, zero);
BDD res2Inf = sylvan_ite(tmp, sylvan_false, res2);
if (res2Inf == sylvan_invalid) {
sylvan_deref(res2);
sylvan_deref(res1Inf);
sylvan_deref(tmp2);
sylvan_deref(tmp);
return sylvan_invalid;
}
sylvan_ref(res2Inf);
sylvan_deref(res2);
sylvan_deref(tmp2);
sylvan_deref(tmp);
BDD res = (res1Inf == res2Inf) ? sylvan_ite(sylvan_ithvar(va), zero, res1Inf) : sylvan_ite(sylvan_ithvar(va), res2Inf, res1Inf);
BDD res = (res1Inf == res2Inf) ? sylvan_ite(sylvan_ithvar(va), sylvan_false, res1Inf) : sylvan_ite(sylvan_ithvar(va), res2Inf, res1Inf);
if (res == sylvan_invalid) {
sylvan_deref(res1Inf);
@ -887,20 +991,19 @@ TASK_IMPL_3(BDD, mtbdd_minExistsRepresentative, MTBDD, a, BDD, variables, BDDVAR
return res;
}
else { /* if (va < vv) */
printf("va < vv\n");
BDD res1 = CALL(mtbdd_minExistsRepresentative, E, variables, va);
BDD res1 = CALL(mtbdd_maxExistsRepresentative, E, variables, va);
if (res1 == sylvan_invalid) {
return sylvan_invalid;
}
sylvan_ref(res1);
BDD res2 = CALL(mtbdd_minExistsRepresentative, T, variables, va);
BDD res2 = CALL(mtbdd_maxExistsRepresentative, T, variables, va);
if (res2 == sylvan_invalid) {
sylvan_deref(res1);
return sylvan_invalid;
}
sylvan_ref(res2);
BDD res = (res1 == res2) ? sylvan_ite(sylvan_ithvar(va), zero, res1) : sylvan_ite(sylvan_ithvar(va), res2, res1);
BDD res = (res1 == res2) ? res1 : sylvan_ite(sylvan_ithvar(va), res2, res1);
if (res == sylvan_invalid) {
sylvan_deref(res1);
sylvan_deref(res2);
@ -911,11 +1014,5 @@ TASK_IMPL_3(BDD, mtbdd_minExistsRepresentative, MTBDD, a, BDD, variables, BDDVAR
/* TODO: Caching here. */
//cuddCacheInsert2(manager, Cudd_addMinAbstractRepresentative, f, cube, res);
return res;
}
}
TASK_IMPL_3(BDD, mtbdd_maxExistsRepresentative, MTBDD, a, MTBDD, variables, uint32_t, prev_level) {
(void)variables;
(void)prev_level;
return a;
}
}

11
resources/3rdparty/sylvan/src/sylvan_mtbdd_storm.h
View File

@ -28,7 +28,7 @@ TASK_DECL_2(MTBDD, mtbdd_op_less, MTBDD*, MTBDD*)
#define mtbdd_less_as_bdd(a, b) mtbdd_apply(a, b, TASK(mtbdd_op_less))
/**
* Binary operation Less (for MTBDDs of same type)
* Binary operation Less or Equal (for MTBDDs of same type)
* Only for MTBDDs where either all leaves are Boolean, or Integer, or Double.
* For Integer/Double MTBDD, if either operand is mtbdd_false (not defined),
* then the result is the other operand.
@ -36,6 +36,15 @@ TASK_DECL_2(MTBDD, mtbdd_op_less, MTBDD*, MTBDD*)
TASK_DECL_2(MTBDD, mtbdd_op_less_or_equal, MTBDD*, MTBDD*)
#define mtbdd_less_or_equal_as_bdd(a, b) mtbdd_apply(a, b, TASK(mtbdd_op_less_or_equal))
/**
* Binary operation Greater or Equal (for MTBDDs of same type)
* Only for MTBDDs where either all leaves are Boolean, or Integer, or Double.
* For Integer/Double MTBDD, if either operand is mtbdd_false (not defined),
* then the result is the other operand.
*/
TASK_DECL_2(MTBDD, mtbdd_op_greater_or_equal, MTBDD*, MTBDD*)
#define mtbdd_greater_or_equal_as_bdd(a, b) mtbdd_apply(a, b, TASK(mtbdd_op_greater_or_equal))
/**
* Binary operation Pow (for MTBDDs of same type)
* Only for MTBDDs where either all leaves are Integer, Double or a Fraction.

116
test/functional/storage/CuddDdTest.cpp
View File

@ -203,8 +203,6 @@ TEST(CuddDd, AddMinExistAbstractRepresentative) {
EXPECT_EQ(1ul, representative_false_x.getLeafCount());
EXPECT_EQ(2ul, representative_false_x.getNodeCount());
EXPECT_TRUE(representative_false_x == bddX0);
// representative_false_x.exportToDot("test_CUDD_representative_false_x.dot");
// bddX0.exportToDot("test_CUDD_bddX0.dot");
// Abstract from TRUE
storm::dd::Bdd<storm::dd::DdType::CUDD> representative_true_x = addOne.minAbstractRepresentative({x.first});
@ -231,8 +229,6 @@ TEST(CuddDd, AddMinExistAbstractRepresentative) {
EXPECT_EQ(1ul, representative_complex_x.getLeafCount());
EXPECT_EQ(3ul, representative_complex_x.getNodeCount());
EXPECT_TRUE(representative_complex_x == comparison_complex_x);
// representative_complex_x.template toAdd<double>().exportToDot("test_CUDD_representative_complex_x.dot");
// comparison_complex_x.template toAdd<double>().exportToDot("test_CUDD_comparison_complex_x.dot");
// Abstract y
storm::dd::Bdd<storm::dd::DdType::CUDD> representative_complex_y = complexAdd.minAbstractRepresentative({y.first});
@ -246,8 +242,6 @@ TEST(CuddDd, AddMinExistAbstractRepresentative) {
EXPECT_EQ(1ul, representative_complex_y.getLeafCount());
EXPECT_EQ(5ul, representative_complex_y.getNodeCount());
EXPECT_TRUE(representative_complex_y == comparison_complex_y);
// representative_complex_y.template toAdd<double>().exportToDot("test_CUDD_representative_complex_y.dot");
// comparison_complex_y.template toAdd<double>().exportToDot("test_CUDD_comparison_complex_y.dot");
// Abstract z
storm::dd::Bdd<storm::dd::DdType::CUDD> representative_complex_z = complexAdd.minAbstractRepresentative({z.first});
@ -261,9 +255,6 @@ TEST(CuddDd, AddMinExistAbstractRepresentative) {
EXPECT_EQ(1ul, representative_complex_z.getLeafCount());
EXPECT_EQ(4ul, representative_complex_z.getNodeCount());
EXPECT_TRUE(representative_complex_z == comparison_complex_z);
// representative_complex_z.exportToDot("test_CUDD_representative_complex_z_bdd.dot");
// representative_complex_z.template toAdd<double>().exportToDot("test_CUDD_representative_complex_z.dot");
// comparison_complex_z.template toAdd<double>().exportToDot("test_CUDD_comparison_complex_z.dot");
// Abstract x, y, z
storm::dd::Bdd<storm::dd::DdType::CUDD> representative_complex_xyz = complexAdd.minAbstractRepresentative({x.first, y.first, z.first});
@ -272,8 +263,111 @@ TEST(CuddDd, AddMinExistAbstractRepresentative) {
EXPECT_EQ(1ul, representative_complex_xyz.getLeafCount());
EXPECT_EQ(4ul, representative_complex_xyz.getNodeCount());
EXPECT_TRUE(representative_complex_xyz == comparison_complex_xyz);
// representative_complex_xyz.template toAdd<double>().exportToDot("test_CUDD_representative_complex_xyz.dot");
// comparison_complex_xyz.template toAdd<double>().exportToDot("test_CUDD_representative_complex_xyz.dot");
}
TEST(CuddDd, AddMaxExistAbstractRepresentative) {
std::shared_ptr<storm::dd::DdManager<storm::dd::DdType::CUDD>> manager(new storm::dd::DdManager<storm::dd::DdType::CUDD>());
storm::dd::Bdd<storm::dd::DdType::CUDD> bddZero;
ASSERT_NO_THROW(bddZero = manager->getBddZero());
storm::dd::Bdd<storm::dd::DdType::CUDD> bddOne;
ASSERT_NO_THROW(bddOne = manager->getBddOne());
storm::dd::Add<storm::dd::DdType::CUDD, double> addZero;
ASSERT_NO_THROW(addZero = manager->template getAddZero<double>());
storm::dd::Add<storm::dd::DdType::CUDD, double> addOne;
ASSERT_NO_THROW(addOne = manager->template getAddOne<double>());
std::pair<storm::expressions::Variable, storm::expressions::Variable> x;
std::pair<storm::expressions::Variable, storm::expressions::Variable> y;
std::pair<storm::expressions::Variable, storm::expressions::Variable> z;
ASSERT_NO_THROW(x = manager->addMetaVariable("x", 0, 1));
ASSERT_NO_THROW(y = manager->addMetaVariable("y", 0, 1));
ASSERT_NO_THROW(z = manager->addMetaVariable("z", 0, 1));
storm::dd::Bdd<storm::dd::DdType::CUDD> bddX0 = manager->getEncoding(x.first, 0);
storm::dd::Bdd<storm::dd::DdType::CUDD> bddX1 = manager->getEncoding(x.first, 1);
storm::dd::Bdd<storm::dd::DdType::CUDD> bddY0 = manager->getEncoding(y.first, 0);
storm::dd::Bdd<storm::dd::DdType::CUDD> bddY1 = manager->getEncoding(y.first, 1);
storm::dd::Bdd<storm::dd::DdType::CUDD> bddZ0 = manager->getEncoding(z.first, 0);
storm::dd::Bdd<storm::dd::DdType::CUDD> bddZ1 = manager->getEncoding(z.first, 1);
storm::dd::Add<storm::dd::DdType::CUDD, double> complexAdd =
((bddX1 && (bddY1 && bddZ1)).template toAdd<double>() * manager->template getConstant<double>(0.4))
+ ((bddX1 && (bddY1 && bddZ0)).template toAdd<double>() * manager->template getConstant<double>(0.7))
+ ((bddX1 && (bddY0 && bddZ1)).template toAdd<double>() * manager->template getConstant<double>(0.3))
+ ((bddX1 && (bddY0 && bddZ0)).template toAdd<double>() * manager->template getConstant<double>(0.3))
+ ((bddX0 && (bddY1 && bddZ1)).template toAdd<double>() * manager->template getConstant<double>(0.9))
+ ((bddX0 && (bddY1 && bddZ0)).template toAdd<double>() * manager->template getConstant<double>(0.5))
+ ((bddX0 && (bddY0 && bddZ1)).template toAdd<double>() * manager->template getConstant<double>(1.0))
+ ((bddX0 && (bddY0 && bddZ0)).template toAdd<double>() * manager->template getConstant<double>(0.0));
// Abstract from FALSE
storm::dd::Bdd<storm::dd::DdType::CUDD> representative_false_x = addZero.maxAbstractRepresentative({x.first});
EXPECT_EQ(0ul, representative_false_x.getNonZeroCount());
EXPECT_EQ(1ul, representative_false_x.getLeafCount());
EXPECT_EQ(2ul, representative_false_x.getNodeCount());
EXPECT_TRUE(representative_false_x == bddX0);
// Abstract from TRUE
storm::dd::Bdd<storm::dd::DdType::CUDD> representative_true_x = addOne.maxAbstractRepresentative({x.first});
EXPECT_EQ(0ul, representative_true_x.getNonZeroCount());
EXPECT_EQ(1ul, representative_true_x.getLeafCount());
EXPECT_EQ(2ul, representative_true_x.getNodeCount());
EXPECT_TRUE(representative_true_x == bddX0);
storm::dd::Bdd<storm::dd::DdType::CUDD> representative_true_xyz = addOne.maxAbstractRepresentative({x.first, y.first, z.first});
EXPECT_EQ(0ul, representative_true_xyz.getNonZeroCount());
EXPECT_EQ(1ul, representative_true_xyz.getLeafCount());
EXPECT_EQ(4ul, representative_true_xyz.getNodeCount());
EXPECT_TRUE(representative_true_xyz == ((bddX0 && bddY0) && bddZ0));
// Abstract x
storm::dd::Bdd<storm::dd::DdType::CUDD> representative_complex_x = complexAdd.maxAbstractRepresentative({x.first});
storm::dd::Bdd<storm::dd::DdType::CUDD> comparison_complex_x = (
((bddX1 && (bddY0 && bddZ0)))
|| ((bddX0 && (bddY0 && bddZ1)))
|| ((bddX1 && (bddY1 && bddZ0)))
|| ((bddX0 && (bddY1 && bddZ1)))
);
EXPECT_EQ(4ul, representative_complex_x.getNonZeroCount());
EXPECT_EQ(1ul, representative_complex_x.getLeafCount());
EXPECT_EQ(3ul, representative_complex_x.getNodeCount());
EXPECT_TRUE(representative_complex_x == comparison_complex_x);
// Abstract y
storm::dd::Bdd<storm::dd::DdType::CUDD> representative_complex_y = complexAdd.maxAbstractRepresentative({y.first});
storm::dd::Bdd<storm::dd::DdType::CUDD> comparison_complex_y = (
((bddX0 && (bddY1 && bddZ0)))
|| ((bddX0 && (bddY0 && bddZ1)))
|| ((bddX1 && (bddY1 && bddZ0)))
|| ((bddX1 && (bddY1 && bddZ1)))
);
EXPECT_EQ(4ul, representative_complex_y.getNonZeroCount());
EXPECT_EQ(1ul, representative_complex_y.getLeafCount());
EXPECT_EQ(5ul, representative_complex_y.getNodeCount());
EXPECT_TRUE(representative_complex_y == comparison_complex_y);
// Abstract z
storm::dd::Bdd<storm::dd::DdType::CUDD> representative_complex_z = complexAdd.maxAbstractRepresentative({z.first});
storm::dd::Bdd<storm::dd::DdType::CUDD> comparison_complex_z = (
((bddX0 && (bddY0 && bddZ1)))
|| ((bddX0 && (bddY1 && bddZ1)))
|| ((bddX1 && (bddY0 && bddZ0)))
|| ((bddX1 && (bddY1 && bddZ0)))
);
EXPECT_EQ(4ul, representative_complex_z.getNonZeroCount());
EXPECT_EQ(1ul, representative_complex_z.getLeafCount());
EXPECT_EQ(3ul, representative_complex_z.getNodeCount());
EXPECT_TRUE(representative_complex_z == comparison_complex_z);
// Abstract x, y, z
storm::dd::Bdd<storm::dd::DdType::CUDD> representative_complex_xyz = complexAdd.maxAbstractRepresentative({x.first, y.first, z.first});
storm::dd::Bdd<storm::dd::DdType::CUDD> comparison_complex_xyz = (bddX0 && (bddY0 && bddZ1));
EXPECT_EQ(1ul, representative_complex_xyz.getNonZeroCount());
EXPECT_EQ(1ul, representative_complex_xyz.getLeafCount());
EXPECT_EQ(4ul, representative_complex_xyz.getNodeCount());
EXPECT_TRUE(representative_complex_xyz == comparison_complex_xyz);
}
TEST(CuddDd, AddGetMetaVariableTest) {

148
test/functional/storage/SylvanDdTest.cpp
View File

@ -170,7 +170,7 @@ TEST(SylvanDd, AddMinExistAbstractRepresentative) {
ASSERT_NO_THROW(bddZero = manager->getBddZero());
storm::dd::Bdd<storm::dd::DdType::Sylvan> bddOne;
ASSERT_NO_THROW(bddOne = manager->getBddOne());
storm::dd::Add<storm::dd::DdType::Sylvan, double> addZero;
ASSERT_NO_THROW(addZero = manager->template getAddZero<double>());
storm::dd::Add<storm::dd::DdType::Sylvan, double> addOne;
@ -182,7 +182,7 @@ TEST(SylvanDd, AddMinExistAbstractRepresentative) {
ASSERT_NO_THROW(x = manager->addMetaVariable("x", 0, 1));
ASSERT_NO_THROW(y = manager->addMetaVariable("y", 0, 1));
ASSERT_NO_THROW(z = manager->addMetaVariable("z", 0, 1));
storm::dd::Bdd<storm::dd::DdType::Sylvan> bddX0 = manager->getEncoding(x.first, 0);
storm::dd::Bdd<storm::dd::DdType::Sylvan> bddX1 = manager->getEncoding(x.first, 1);
storm::dd::Bdd<storm::dd::DdType::Sylvan> bddY0 = manager->getEncoding(y.first, 0);
@ -199,26 +199,21 @@ TEST(SylvanDd, AddMinExistAbstractRepresentative) {
+ ((bddX0 && (bddY1 && bddZ0)).template toAdd<double>() * manager->template getConstant<double>(0.5))
+ ((bddX0 && (bddY0 && bddZ1)).template toAdd<double>() * manager->template getConstant<double>(1.0))
+ ((bddX0 && (bddY0 && bddZ0)).template toAdd<double>() * manager->template getConstant<double>(0.0));
complexAdd.exportToDot("test_Sylvan_complexAdd.dot");
// Abstract from FALSE
std::cout << "Before FALSE" << std::endl;
storm::dd::Bdd<storm::dd::DdType::Sylvan> representative_false_x = addZero.minAbstractRepresentative({x.first});
EXPECT_EQ(0ul, representative_false_x.getNonZeroCount());
EXPECT_EQ(1ul, representative_false_x.getLeafCount());
EXPECT_EQ(2ul, representative_false_x.getNodeCount());
EXPECT_TRUE(representative_false_x == bddX0);
representative_false_x.template toAdd<double>().exportToDot("test_Sylvan_representative_false_x.dot");
// Abstract from TRUE
std::cout << "Before TRUE" << std::endl;
storm::dd::Bdd<storm::dd::DdType::Sylvan> representative_true_x = addOne.minAbstractRepresentative({x.first});
EXPECT_EQ(0ul, representative_true_x.getNonZeroCount());
EXPECT_EQ(1ul, representative_true_x.getLeafCount());
EXPECT_EQ(2ul, representative_true_x.getNodeCount());
EXPECT_TRUE(representative_true_x == bddX0);
std::cout << "Before TRUE xyz" << std::endl;
storm::dd::Bdd<storm::dd::DdType::Sylvan> representative_true_xyz = addOne.minAbstractRepresentative({x.first, y.first, z.first});
EXPECT_EQ(0ul, representative_true_xyz.getNonZeroCount());
EXPECT_EQ(1ul, representative_true_xyz.getLeafCount());
@ -226,7 +221,6 @@ TEST(SylvanDd, AddMinExistAbstractRepresentative) {
EXPECT_TRUE(representative_true_xyz == ((bddX0 && bddY0) && bddZ0));
// Abstract x
std::cout << "Before x" << std::endl;
storm::dd::Bdd<storm::dd::DdType::Sylvan> representative_complex_x = complexAdd.minAbstractRepresentative({x.first});
storm::dd::Bdd<storm::dd::DdType::Sylvan> comparison_complex_x = (
((bddX0 && (bddY0 && bddZ0)))
@ -234,15 +228,12 @@ TEST(SylvanDd, AddMinExistAbstractRepresentative) {
|| ((bddX0 && (bddY1 && bddZ0)))
|| ((bddX1 && (bddY1 && bddZ1)))
);
EXPECT_EQ(0ul, representative_complex_x.getNonZeroCount());
EXPECT_EQ(4ul, representative_complex_x.getNonZeroCount());
EXPECT_EQ(1ul, representative_complex_x.getLeafCount());
EXPECT_EQ(2ul, representative_complex_x.getNodeCount());
EXPECT_EQ(3ul, representative_complex_x.getNodeCount());
EXPECT_TRUE(representative_complex_x == comparison_complex_x);
representative_complex_x.template toAdd<double>().exportToDot("test_Sylvan_representative_complex_x.dot");
comparison_complex_x.template toAdd<double>().exportToDot("test_Sylvan_comparison_complex_x.dot");
// Abstract y
std::cout << "Before y" << std::endl;
storm::dd::Bdd<storm::dd::DdType::Sylvan> representative_complex_y = complexAdd.minAbstractRepresentative({y.first});
storm::dd::Bdd<storm::dd::DdType::Sylvan> comparison_complex_y = (
((bddX0 && (bddY0 && bddZ0)))
@ -250,15 +241,12 @@ TEST(SylvanDd, AddMinExistAbstractRepresentative) {
|| ((bddX1 && (bddY0 && bddZ0)))
|| ((bddX1 && (bddY0 && bddZ1)))
);
EXPECT_EQ(0ul, representative_complex_y.getNonZeroCount());
EXPECT_EQ(4ul, representative_complex_y.getNonZeroCount());
EXPECT_EQ(1ul, representative_complex_y.getLeafCount());
EXPECT_EQ(2ul, representative_complex_y.getNodeCount());
EXPECT_EQ(5ul, representative_complex_y.getNodeCount());
EXPECT_TRUE(representative_complex_y == comparison_complex_y);
representative_complex_y.template toAdd<double>().exportToDot("test_Sylvan_representative_complex_y.dot");
comparison_complex_y.template toAdd<double>().exportToDot("test_Sylvan_comparison_complex_y.dot");
// Abstract z
std::cout << "Before z" << std::endl;
storm::dd::Bdd<storm::dd::DdType::Sylvan> representative_complex_z = complexAdd.minAbstractRepresentative({z.first});
storm::dd::Bdd<storm::dd::DdType::Sylvan> comparison_complex_z = (
((bddX0 && (bddY0 && bddZ0)))
@ -266,23 +254,123 @@ TEST(SylvanDd, AddMinExistAbstractRepresentative) {
|| ((bddX1 && (bddY0 && bddZ0)))
|| ((bddX1 && (bddY1 && bddZ1)))
);
EXPECT_EQ(0ul, representative_complex_z.getNonZeroCount());
EXPECT_EQ(4ul, representative_complex_z.getNonZeroCount());
EXPECT_EQ(1ul, representative_complex_z.getLeafCount());
EXPECT_EQ(2ul, representative_complex_z.getNodeCount());
EXPECT_EQ(4ul, representative_complex_z.getNodeCount());
EXPECT_TRUE(representative_complex_z == comparison_complex_z);
representative_complex_z.template toAdd<double>().exportToDot("test_Sylvan_representative_complex_z.dot");
comparison_complex_z.template toAdd<double>().exportToDot("test_Sylvan_comparison_complex_z.dot");
// Abstract x, y, z
std::cout << "Before x, y, z" << std::endl;
storm::dd::Bdd<storm::dd::DdType::Sylvan> representative_complex_xyz = complexAdd.minAbstractRepresentative({x.first, y.first, z.first});
storm::dd::Bdd<storm::dd::DdType::Sylvan> comparison_complex_xyz = (bddX0 && (bddY0 && bddZ0));
EXPECT_EQ(0ul, representative_complex_xyz.getNonZeroCount());
EXPECT_EQ(1ul, representative_complex_xyz.getNonZeroCount());
EXPECT_EQ(1ul, representative_complex_xyz.getLeafCount());
EXPECT_EQ(4ul, representative_complex_xyz.getNodeCount());
EXPECT_TRUE(representative_complex_xyz == comparison_complex_xyz);
}
TEST(SylvanDd, AddMaxExistAbstractRepresentative) {
std::shared_ptr<storm::dd::DdManager<storm::dd::DdType::Sylvan>> manager(new storm::dd::DdManager<storm::dd::DdType::Sylvan>());
storm::dd::Bdd<storm::dd::DdType::Sylvan> bddZero;
ASSERT_NO_THROW(bddZero = manager->getBddZero());
storm::dd::Bdd<storm::dd::DdType::Sylvan> bddOne;
ASSERT_NO_THROW(bddOne = manager->getBddOne());
storm::dd::Add<storm::dd::DdType::Sylvan, double> addZero;
ASSERT_NO_THROW(addZero = manager->template getAddZero<double>());
storm::dd::Add<storm::dd::DdType::Sylvan, double> addOne;
ASSERT_NO_THROW(addOne = manager->template getAddOne<double>());
std::pair<storm::expressions::Variable, storm::expressions::Variable> x;
std::pair<storm::expressions::Variable, storm::expressions::Variable> y;
std::pair<storm::expressions::Variable, storm::expressions::Variable> z;
ASSERT_NO_THROW(x = manager->addMetaVariable("x", 0, 1));
ASSERT_NO_THROW(y = manager->addMetaVariable("y", 0, 1));
ASSERT_NO_THROW(z = manager->addMetaVariable("z", 0, 1));
storm::dd::Bdd<storm::dd::DdType::Sylvan> bddX0 = manager->getEncoding(x.first, 0);
storm::dd::Bdd<storm::dd::DdType::Sylvan> bddX1 = manager->getEncoding(x.first, 1);
storm::dd::Bdd<storm::dd::DdType::Sylvan> bddY0 = manager->getEncoding(y.first, 0);
storm::dd::Bdd<storm::dd::DdType::Sylvan> bddY1 = manager->getEncoding(y.first, 1);
storm::dd::Bdd<storm::dd::DdType::Sylvan> bddZ0 = manager->getEncoding(z.first, 0);
storm::dd::Bdd<storm::dd::DdType::Sylvan> bddZ1 = manager->getEncoding(z.first, 1);
storm::dd::Add<storm::dd::DdType::Sylvan, double> complexAdd =
((bddX1 && (bddY1 && bddZ1)).template toAdd<double>() * manager->template getConstant<double>(0.4))
+ ((bddX1 && (bddY1 && bddZ0)).template toAdd<double>() * manager->template getConstant<double>(0.7))
+ ((bddX1 && (bddY0 && bddZ1)).template toAdd<double>() * manager->template getConstant<double>(0.3))
+ ((bddX1 && (bddY0 && bddZ0)).template toAdd<double>() * manager->template getConstant<double>(0.3))
+ ((bddX0 && (bddY1 && bddZ1)).template toAdd<double>() * manager->template getConstant<double>(0.9))
+ ((bddX0 && (bddY1 && bddZ0)).template toAdd<double>() * manager->template getConstant<double>(0.5))
+ ((bddX0 && (bddY0 && bddZ1)).template toAdd<double>() * manager->template getConstant<double>(1.0))
+ ((bddX0 && (bddY0 && bddZ0)).template toAdd<double>() * manager->template getConstant<double>(0.0));
// Abstract from FALSE
storm::dd::Bdd<storm::dd::DdType::Sylvan> representative_false_x = addZero.maxAbstractRepresentative({x.first});
EXPECT_EQ(0ul, representative_false_x.getNonZeroCount());
EXPECT_EQ(1ul, representative_false_x.getLeafCount());
EXPECT_EQ(2ul, representative_false_x.getNodeCount());
EXPECT_TRUE(representative_false_x == bddX0);
// Abstract from TRUE
storm::dd::Bdd<storm::dd::DdType::Sylvan> representative_true_x = addOne.maxAbstractRepresentative({x.first});
EXPECT_EQ(0ul, representative_true_x.getNonZeroCount());
EXPECT_EQ(1ul, representative_true_x.getLeafCount());
EXPECT_EQ(2ul, representative_true_x.getNodeCount());
EXPECT_TRUE(representative_true_x == bddX0);
storm::dd::Bdd<storm::dd::DdType::Sylvan> representative_true_xyz = addOne.maxAbstractRepresentative({x.first, y.first, z.first});
EXPECT_EQ(0ul, representative_true_xyz.getNonZeroCount());
EXPECT_EQ(1ul, representative_true_xyz.getLeafCount());
EXPECT_EQ(4ul, representative_true_xyz.getNodeCount());
EXPECT_TRUE(representative_true_xyz == ((bddX0 && bddY0) && bddZ0));
// Abstract x
storm::dd::Bdd<storm::dd::DdType::Sylvan> representative_complex_x = complexAdd.maxAbstractRepresentative({x.first});
storm::dd::Bdd<storm::dd::DdType::Sylvan> comparison_complex_x = (
((bddX1 && (bddY0 && bddZ0)))
|| ((bddX0 && (bddY0 && bddZ1)))
|| ((bddX1 && (bddY1 && bddZ0)))
|| ((bddX0 && (bddY1 && bddZ1)))
);
EXPECT_EQ(4ul, representative_complex_x.getNonZeroCount());
EXPECT_EQ(1ul, representative_complex_x.getLeafCount());
EXPECT_EQ(3ul, representative_complex_x.getNodeCount());
EXPECT_TRUE(representative_complex_x == comparison_complex_x);
// Abstract y
storm::dd::Bdd<storm::dd::DdType::Sylvan> representative_complex_y = complexAdd.maxAbstractRepresentative({y.first});
storm::dd::Bdd<storm::dd::DdType::Sylvan> comparison_complex_y = (
((bddX0 && (bddY1 && bddZ0)))
|| ((bddX0 && (bddY0 && bddZ1)))
|| ((bddX1 && (bddY1 && bddZ0)))
|| ((bddX1 && (bddY1 && bddZ1)))
);
EXPECT_EQ(4ul, representative_complex_y.getNonZeroCount());
EXPECT_EQ(1ul, representative_complex_y.getLeafCount());
EXPECT_EQ(5ul, representative_complex_y.getNodeCount());
EXPECT_TRUE(representative_complex_y == comparison_complex_y);
// Abstract z
storm::dd::Bdd<storm::dd::DdType::Sylvan> representative_complex_z = complexAdd.maxAbstractRepresentative({z.first});
storm::dd::Bdd<storm::dd::DdType::Sylvan> comparison_complex_z = (
((bddX0 && (bddY0 && bddZ1)))
|| ((bddX0 && (bddY1 && bddZ1)))
|| ((bddX1 && (bddY0 && bddZ0)))
|| ((bddX1 && (bddY1 && bddZ0)))
);
EXPECT_EQ(4ul, representative_complex_z.getNonZeroCount());
EXPECT_EQ(1ul, representative_complex_z.getLeafCount());
EXPECT_EQ(3ul, representative_complex_z.getNodeCount());
EXPECT_TRUE(representative_complex_z == comparison_complex_z);
// Abstract x, y, z
storm::dd::Bdd<storm::dd::DdType::Sylvan> representative_complex_xyz = complexAdd.maxAbstractRepresentative({x.first, y.first, z.first});
storm::dd::Bdd<storm::dd::DdType::Sylvan> comparison_complex_xyz = (bddX0 && (bddY0 && bddZ1));
EXPECT_EQ(1ul, representative_complex_xyz.getNonZeroCount());
EXPECT_EQ(1ul, representative_complex_xyz.getLeafCount());
EXPECT_EQ(2ul, representative_complex_xyz.getNodeCount());
EXPECT_EQ(4ul, representative_complex_xyz.getNodeCount());
EXPECT_TRUE(representative_complex_xyz == comparison_complex_xyz);
representative_complex_xyz.template toAdd<double>().exportToDot("test_Sylvan_representative_complex_xyz.dot");
comparison_complex_xyz.template toAdd<double>().exportToDot("test_Sylvan_representative_complex_xyz.dot");
}
TEST(SylvanDd, AddGetMetaVariableTest) {

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