| 1 | #include "mycpp/gc_dict.h"
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| 2 | 
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| 3 | #include "mycpp/gc_mylib.h"
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| 4 | #include "vendor/greatest.h"
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| 5 | 
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| 6 | // Convenience function
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| 7 | template <typename K, typename V>
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| 8 | Dict<K, V>* NewDict() {
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| 9 |   return Alloc<Dict<K, V>>();
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| 10 | }
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| 11 | 
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| 12 | GLOBAL_STR(kStrFoo, "foo");
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| 13 | GLOBAL_STR(kStrBar, "bar");
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| 14 | 
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| 15 | TEST test_dict_init() {
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| 16 |   BigStr* s = StrFromC("foo");
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| 17 |   BigStr* s2 = StrFromC("bar");
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| 18 | 
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| 19 |   Dict<int, BigStr*>* d = Alloc<Dict<int, BigStr*>>(
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| 20 |       std::initializer_list<int>{42}, std::initializer_list<BigStr*>{s});
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| 21 |   ASSERT_EQ(s, d->at(42));
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| 22 | 
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| 23 |   Dict<BigStr*, int>* d2 =
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| 24 |       Alloc<Dict<BigStr*, int>>(std::initializer_list<BigStr*>{s, s2},
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| 25 |                                 std::initializer_list<int>{43, 99});
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| 26 |   ASSERT_EQ(43, d2->at(s));
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| 27 |   ASSERT_EQ(99, d2->at(s2));
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| 28 | 
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| 29 |   PASS();
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| 30 | }
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| 31 | 
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| 32 | TEST test_dict() {
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| 33 |   Dict<int, BigStr*>* d = NewDict<int, BigStr*>();
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| 34 | 
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| 35 |   // Regression: clear empty dict
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| 36 |   d->clear();
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| 37 | 
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| 38 |   d->set(1, StrFromC("foo"));
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| 39 |   log("d[1] = %s", d->at(1)->data_);
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| 40 | 
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| 41 |   auto d2 = NewDict<BigStr*, int>();
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| 42 |   BigStr* key = StrFromC("key");
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| 43 |   d2->set(key, 42);
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| 44 | 
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| 45 |   log("d2['key'] = %d", d2->at(key));
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| 46 |   d2->set(StrFromC("key2"), 2);
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| 47 |   d2->set(StrFromC("key3"), 3);
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| 48 | 
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| 49 |   ASSERT_EQ_FMT(3, len(d2), "%d");
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| 50 |   ASSERT_EQ_FMT(3, len(d2->keys()), "%d");
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| 51 |   ASSERT_EQ_FMT(3, len(d2->values()), "%d");
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| 52 | 
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| 53 |   d2->clear();
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| 54 |   ASSERT_EQ(0, len(d2));
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| 55 | 
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| 56 |   log("  iterating over Dict");
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| 57 |   for (DictIter<BigStr*, int> it(d2); !it.Done(); it.Next()) {
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| 58 |     log("k = %s, v = %d", it.Key()->data_, it.Value());
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| 59 |   }
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| 60 | 
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| 61 |   ASSERT(dict_contains(d, 1));
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| 62 |   ASSERT(!dict_contains(d, 423));
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| 63 | 
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| 64 |   BigStr* v1 = d->get(1);
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| 65 |   log("v1 = %s", v1->data_);
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| 66 |   ASSERT(str_equals0("foo", v1));
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| 67 | 
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| 68 |   BigStr* v2 = d->get(423);  // nonexistent
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| 69 |   ASSERT_EQ(nullptr, v2);
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| 70 |   log("v2 = %p", v2);
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| 71 | 
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| 72 |   auto d3 = NewDict<BigStr*, int>();
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| 73 |   ASSERT_EQ(0, len(d3));
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| 74 | 
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| 75 |   auto a = StrFromC("a");
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| 76 | 
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| 77 |   d3->set(StrFromC("b"), 11);
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| 78 |   ASSERT_EQ(1, len(d3));
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| 79 | 
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| 80 |   d3->set(StrFromC("c"), 12);
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| 81 |   ASSERT_EQ(2, len(d3));
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| 82 | 
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| 83 |   d3->set(StrFromC("a"), 10);
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| 84 |   ASSERT_EQ(3, len(d3));
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| 85 | 
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| 86 |   ASSERT_EQ(10, d3->at(StrFromC("a")));
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| 87 |   ASSERT_EQ(11, d3->at(StrFromC("b")));
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| 88 |   ASSERT_EQ(12, d3->at(StrFromC("c")));
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| 89 |   ASSERT_EQ(3, len(d3));
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| 90 | 
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| 91 |   auto keys = sorted(d3);
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| 92 |   ASSERT(str_equals0("a", keys->at(0)));
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| 93 |   ASSERT(str_equals0("b", keys->at(1)));
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| 94 |   ASSERT(str_equals0("c", keys->at(2)));
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| 95 |   ASSERT_EQ(3, len(keys));
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| 96 | 
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| 97 |   auto keys3 = d3->keys();
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| 98 |   ASSERT(list_contains(keys3, a));
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| 99 |   ASSERT(!list_contains(keys3, StrFromC("zzz")));
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| 100 | 
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| 101 |   ASSERT(dict_contains(d3, a));
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| 102 |   mylib::dict_erase(d3, a);
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| 103 |   ASSERT(!dict_contains(d3, a));
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| 104 |   ASSERT_EQ(2, len(d3));
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| 105 | 
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| 106 |   // Test removed item
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| 107 |   for (DictIter<BigStr*, int> it(d3); !it.Done(); it.Next()) {
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| 108 |     auto key = it.Key();
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| 109 |     printf("d3 key = ");
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| 110 |     print(key);
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| 111 |   }
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| 112 | 
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| 113 |   // Test a different type of dict, to make sure partial template
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| 114 |   // specialization works
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| 115 |   auto ss = NewDict<BigStr*, BigStr*>();
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| 116 |   ss->set(a, a);
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| 117 |   ASSERT_EQ(1, len(ss));
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| 118 | 
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| 119 |   ASSERT_EQ(1, len(ss->keys()));
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| 120 |   ASSERT_EQ(1, len(ss->values()));
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| 121 | 
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| 122 |   mylib::dict_erase(ss, a);
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| 123 |   ASSERT_EQ(0, len(ss));
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| 124 | 
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| 125 |   // Test removed item
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| 126 |   for (DictIter<BigStr*, BigStr*> it(ss); !it.Done(); it.Next()) {
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| 127 |     auto key = it.Key();
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| 128 |     printf("ss key = ");
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| 129 |     print(key);
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| 130 |   }
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| 131 | 
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| 132 |   // Testing NewDict() stub for ordered dicts ... hm.
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| 133 |   //
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| 134 |   // Dict<int, int>* frame = nullptr;
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| 135 |   // frame = NewDict<int, int>();
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| 136 | 
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| 137 |   PASS();
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| 138 | }
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| 139 | 
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| 140 | // TODO:
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| 141 | // - Test set() can resize the dict
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| 142 | //   - I guess you have to do rehashing?
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| 143 | 
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| 144 | TEST test_dict_internals() {
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| 145 |   auto dict1 = NewDict<int, int>();
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| 146 |   StackRoots _roots1({&dict1});
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| 147 |   auto dict2 = NewDict<BigStr*, BigStr*>();
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| 148 |   StackRoots _roots2({&dict2});
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| 149 | 
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| 150 |   ASSERT_EQ(0, len(dict1));
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| 151 |   ASSERT_EQ(0, len(dict2));
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| 152 | 
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| 153 |   ASSERT_EQ_FMT(HeapTag::FixedSize, ObjHeader::FromObject(dict1)->heap_tag,
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| 154 |                 "%d");
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| 155 |   ASSERT_EQ_FMT(HeapTag::FixedSize, ObjHeader::FromObject(dict1)->heap_tag,
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| 156 |                 "%d");
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| 157 | 
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| 158 |   ASSERT_EQ_FMT(0, dict1->capacity_, "%d");
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| 159 |   ASSERT_EQ_FMT(0, dict2->capacity_, "%d");
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| 160 | 
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| 161 |   ASSERT_EQ(nullptr, dict1->index_);
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| 162 |   ASSERT_EQ(nullptr, dict1->keys_);
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| 163 |   ASSERT_EQ(nullptr, dict1->values_);
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| 164 | 
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| 165 |   // Make sure they're on the heap
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| 166 | #ifndef MARK_SWEEP
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| 167 |   int diff1 = reinterpret_cast<char*>(dict1) - gHeap.from_space_.begin_;
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| 168 |   int diff2 = reinterpret_cast<char*>(dict2) - gHeap.from_space_.begin_;
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| 169 |   ASSERT(diff1 < 1024);
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| 170 |   ASSERT(diff2 < 1024);
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| 171 | #endif
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| 172 | 
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| 173 |   dict1->set(42, 5);
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| 174 |   ASSERT_EQ(5, dict1->at(42));
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| 175 |   ASSERT_EQ(1, len(dict1));
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| 176 | #if 0
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| 177 |   ASSERT_EQ_FMT(6, dict1->capacity_, "%d");
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| 178 | #endif
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| 179 | 
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| 180 | #if 0
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| 181 |   ASSERT_EQ_FMT(32, ObjHeader::FromObject(dict1->index_)->obj_len, "%d");
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| 182 |   ASSERT_EQ_FMT(32, ObjHeader::FromObject(dict1->keys_)->obj_len, "%d");
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| 183 |   ASSERT_EQ_FMT(32, ObjHeader::FromObject(dict1->values_)->obj_len, "%d");
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| 184 | #endif
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| 185 | 
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| 186 |   dict1->set(42, 99);
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| 187 |   ASSERT_EQ(99, dict1->at(42));
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| 188 |   ASSERT_EQ(1, len(dict1));
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| 189 | #if 0
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| 190 |   ASSERT_EQ_FMT(6, dict1->capacity_, "%d");
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| 191 | #endif
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| 192 | 
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| 193 |   dict1->set(43, 10);
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| 194 |   ASSERT_EQ(10, dict1->at(43));
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| 195 |   ASSERT_EQ(2, len(dict1));
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| 196 | #if 0
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| 197 |   ASSERT_EQ_FMT(6, dict1->capacity_, "%d");
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| 198 | #endif
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| 199 | 
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| 200 |   // Dict<int, int>
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| 201 |   // capacity: 6 -> 14 -> 30 -> ...
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| 202 |   // index len: 9 -> 21 -> 45 -> ...
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| 203 | 
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| 204 |   // 6 * 4 bytes = 24, plus 8 byte header = 32, which fits in the second pool
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| 205 |   // 9 * 4 bytes = 36, plus 8 byte header = 44, which fits in the second pool
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| 206 |   for (int i = 0; i < 14; ++i) {
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| 207 |     dict1->set(i, i + 999);
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| 208 |     log("len_ = %d, capacity = %d, index len %d", dict1->len_, dict1->capacity_,
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| 209 |         dict1->index_len_);
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| 210 | 
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| 211 |     // make sure we didn't lose old entry after resize
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| 212 |     ASSERT_EQ(10, dict1->at(43));
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| 213 |   }
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| 214 | 
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| 215 |   BigStr* foo = nullptr;
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| 216 |   BigStr* bar = nullptr;
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| 217 |   StackRoots _roots3({&foo, &bar});
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| 218 |   foo = StrFromC("foo");
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| 219 |   bar = StrFromC("bar");
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| 220 | 
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| 221 |   dict2->set(foo, bar);
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| 222 | 
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| 223 |   ASSERT_EQ(1, len(dict2));
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| 224 |   ASSERT(str_equals(bar, dict2->at(foo)));
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| 225 | 
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| 226 | #if 0
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| 227 |   ASSERT_EQ_FMT(32, ObjHeader::FromObject(dict2->index_)->obj_len, "%d");
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| 228 |   ASSERT_EQ_FMT(64, ObjHeader::FromObject(dict2->keys_)->obj_len, "%d");
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| 229 |   ASSERT_EQ_FMT(64, ObjHeader::FromObject(dict2->values_)->obj_len, "%d");
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| 230 | #endif
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| 231 | 
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| 232 |   auto dict_si = NewDict<BigStr*, int>();
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| 233 |   StackRoots _roots4({&dict_si});
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| 234 |   dict_si->set(foo, 42);
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| 235 |   ASSERT_EQ(1, len(dict_si));
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| 236 | 
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| 237 | #if 0
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| 238 |   ASSERT_EQ_FMT(32, ObjHeader::FromObject(dict_si->index_)->obj_len, "%d");
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| 239 |   ASSERT_EQ_FMT(64, ObjHeader::FromObject(dict_si->keys_)->obj_len, "%d");
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| 240 |   ASSERT_EQ_FMT(32, ObjHeader::FromObject(dict_si->values_)->obj_len, "%d");
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| 241 | #endif
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| 242 | 
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| 243 |   auto dict_is = NewDict<int, BigStr*>();
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| 244 |   StackRoots _roots5({&dict_is});
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| 245 |   dict_is->set(42, foo);
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| 246 |   PASS();
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| 247 | 
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| 248 |   ASSERT_EQ(1, len(dict_is));
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| 249 | 
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| 250 | #if 0
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| 251 |   ASSERT_EQ_FMT(32, ObjHeader::FromObject(dict_is->index_)->obj_len, "%d");
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| 252 |   ASSERT_EQ_FMT(32, ObjHeader::FromObject(dict_is->keys_)->obj_len, "%d");
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| 253 |   ASSERT_EQ_FMT(64, ObjHeader::FromObject(dict_is->values_)->obj_len, "%d");
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| 254 | #endif
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| 255 | 
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| 256 |   auto two = StrFromC("two");
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| 257 |   StackRoots _roots6({&two});
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| 258 | 
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| 259 |   auto dict3 = Alloc<Dict<int, BigStr*>>(
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| 260 |       std::initializer_list<int>{1, 2},
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| 261 |       std::initializer_list<BigStr*>{kEmptyString, two});
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| 262 |   StackRoots _roots7({&dict3});
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| 263 | 
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| 264 |   ASSERT_EQ_FMT(2, len(dict3), "%d");
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| 265 |   ASSERT(str_equals(kEmptyString, dict3->get(1)));
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| 266 |   ASSERT(str_equals(two, dict3->get(2)));
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| 267 | 
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| 268 |   PASS();
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| 269 | }
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| 270 | 
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| 271 | TEST test_empty_dict() {
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| 272 |   auto d = Alloc<Dict<BigStr*, BigStr*>>();
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| 273 | 
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| 274 |   // Look up in empty dict
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| 275 |   BigStr* val = d->get(StrFromC("nonexistent"));
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| 276 |   log("val %p", val);
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| 277 |   ASSERT_EQ(nullptr, val);
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| 278 | 
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| 279 |   BigStr* val2 = d->get(StrFromC("nonexistent"), kEmptyString);
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| 280 |   ASSERT_EQ(kEmptyString, val2);
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| 281 | 
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| 282 |   PASS();
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| 283 | }
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| 284 | 
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| 285 | TEST dict_methods_test() {
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| 286 |   Dict<int, BigStr*>* d = nullptr;
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| 287 |   Dict<BigStr*, int>* d2 = nullptr;
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| 288 |   BigStr* key = nullptr;
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| 289 |   StackRoots _roots({&d, &d2, &key});
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| 290 | 
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| 291 |   d = Alloc<Dict<int, BigStr*>>();
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| 292 |   d->set(1, kStrFoo);
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| 293 |   ASSERT(str_equals0("foo", d->at(1)));
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| 294 | 
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| 295 |   d2 = Alloc<Dict<BigStr*, int>>();
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| 296 |   key = StrFromC("key");
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| 297 |   d2->set(key, 42);
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| 298 |   ASSERT_EQ(42, d2->at(key));
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| 299 | 
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| 300 |   PASS();
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| 301 | 
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| 302 |   d2->set(StrFromC("key2"), 2);
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| 303 |   d2->set(StrFromC("key3"), 3);
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| 304 | 
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| 305 |   ASSERT_EQ_FMT(3, len(d2), "%d");
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| 306 | 
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| 307 |   auto keys = d2->keys();
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| 308 |   ASSERT_EQ_FMT(3, len(keys), "%d");
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| 309 | 
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| 310 |   // Retain insertion order
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| 311 |   ASSERT(str_equals0("key", keys->at(0)));
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| 312 |   ASSERT(str_equals0("key2", keys->at(1)));
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| 313 |   ASSERT(str_equals0("key3", keys->at(2)));
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| 314 | 
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| 315 |   mylib::dict_erase(d2, StrFromC("key"));
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| 316 |   ASSERT_EQ_FMT(2, len(d2), "%d");
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| 317 | 
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| 318 |   auto keys2 = d2->keys();
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| 319 |   ASSERT_EQ_FMT(2, len(keys2), "%d");
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| 320 |   ASSERT(str_equals0("key2", keys2->at(0)));
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| 321 |   ASSERT(str_equals0("key3", keys2->at(1)));
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| 322 | 
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| 323 |   auto values = d2->values();
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| 324 |   ASSERT_EQ_FMT(2, len(values), "%d");
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| 325 |   ASSERT_EQ(2, values->at(0));
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| 326 |   ASSERT_EQ(3, values->at(1));
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| 327 | 
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| 328 |   int j = 0;
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| 329 |   for (DictIter<BigStr*, int> it(d2); !it.Done(); it.Next()) {
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| 330 |     auto key = it.Key();
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| 331 |     auto value = it.Value();
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| 332 |     log("d2 key = %s, value = %d", key->data_, value);
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| 333 |     ++j;
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| 334 |   }
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| 335 |   ASSERT_EQ_FMT(len(d2), j, "%d");
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| 336 | 
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| 337 |   d2->clear();
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| 338 |   ASSERT_EQ(0, len(d2));
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| 339 |   // Ensure it was zero'd
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| 340 |   ASSERT_EQ(nullptr, d2->keys_->items_[0]);
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| 341 |   ASSERT_EQ(0, d2->values_->items_[0]);
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| 342 | 
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| 343 |   // get()
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| 344 |   ASSERT(str_equals0("foo", d->get(1)));
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| 345 | 
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| 346 |   // dict_contains()
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| 347 |   ASSERT(dict_contains(d, 1));
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| 348 |   ASSERT(!dict_contains(d, 2));
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| 349 | 
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| 350 |   ASSERT_EQ(nullptr, d->get(423));  // nonexistent
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| 351 | 
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| 352 |   // get(k, default)
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| 353 |   ASSERT_EQ(kEmptyString, d->get(423, kEmptyString));
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| 354 |   ASSERT_EQ(-99, d2->get(kEmptyString, -99));
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| 355 | 
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| 356 |   // sorted()
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| 357 |   auto d3 = Alloc<Dict<BigStr*, int>>();
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| 358 |   auto a = StrFromC("a");
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| 359 | 
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| 360 |   d3->set(StrFromC("b"), 11);
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| 361 |   d3->set(StrFromC("c"), 12);
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| 362 |   d3->set(StrFromC("a"), 10);
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| 363 |   ASSERT_EQ(10, d3->at(StrFromC("a")));
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| 364 |   ASSERT_EQ(11, d3->at(StrFromC("b")));
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| 365 |   ASSERT_EQ(12, d3->at(StrFromC("c")));
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| 366 |   ASSERT_EQ(3, len(d3));
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| 367 | 
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| 368 |   auto keys3 = sorted(d3);
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| 369 |   ASSERT_EQ(3, len(keys3));
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| 370 |   ASSERT(str_equals0("a", keys3->at(0)));
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| 371 |   ASSERT(str_equals0("b", keys3->at(1)));
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| 372 |   ASSERT(str_equals0("c", keys3->at(2)));
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| 373 | 
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| 374 |   auto keys4 = d3->keys();
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| 375 |   ASSERT(list_contains(keys4, a));
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| 376 |   ASSERT(!list_contains(keys4, StrFromC("zzz")));
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| 377 | 
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| 378 |   ASSERT(dict_contains(d3, a));
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| 379 |   mylib::dict_erase(d3, a);
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| 380 |   ASSERT(!dict_contains(d3, a));
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| 381 |   ASSERT_EQ(2, len(d3));
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| 382 | 
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| 383 |   // Test a different type of dict, to make sure partial template
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| 384 |   // specialization works
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| 385 |   auto ss = Alloc<Dict<BigStr*, BigStr*>>();
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| 386 |   ss->set(a, a);
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| 387 |   ASSERT_EQ(1, len(ss));
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| 388 |   ASSERT_EQ(1, len(ss->keys()));
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| 389 |   ASSERT_EQ(1, len(ss->values()));
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| 390 | 
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| 391 |   int k = 0;
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| 392 |   for (DictIter<BigStr*, BigStr*> it(ss); !it.Done(); it.Next()) {
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| 393 |     auto key = it.Key();
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| 394 |     log("ss key = %s", key->data_);
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| 395 |     ++k;
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| 396 |   }
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| 397 |   ASSERT_EQ_FMT(len(ss), k, "%d");
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| 398 | 
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| 399 |   mylib::dict_erase(ss, a);
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| 400 |   ASSERT_EQ(0, len(ss));
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| 401 | 
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| 402 |   int m = 0;
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| 403 |   for (DictIter<BigStr*, BigStr*> it(ss); !it.Done(); it.Next()) {
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| 404 |     auto key = it.Key();
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| 405 |     log("ss key = %s", key->data_);
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| 406 |     ++m;
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| 407 |   }
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| 408 |   ASSERT_EQ_FMT(0, m, "%d");
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| 409 |   ASSERT_EQ_FMT(len(ss), m, "%d");
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| 410 | 
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| 411 |   PASS();
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| 412 | }
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| 413 | 
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| 414 | TEST dict_iters_test() {
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| 415 |   Dict<BigStr*, int>* d2 = nullptr;
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| 416 |   List<BigStr*>* keys = nullptr;
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| 417 |   StackRoots _roots({&d2, &keys});
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| 418 | 
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| 419 |   d2 = Alloc<Dict<BigStr*, int>>();
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| 420 |   d2->set(kStrFoo, 2);
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| 421 |   d2->set(kStrBar, 3);
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| 422 | 
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| 423 |   keys = d2->keys();
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| 424 |   for (int i = 0; i < len(keys); ++i) {
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| 425 |     printf("k %s\n", keys->at(i)->data_);
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| 426 |   }
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| 427 | 
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| 428 |   log("  iterating over Dict");
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| 429 |   for (DictIter<BigStr*, int> it(d2); !it.Done(); it.Next()) {
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| 430 |     log("k = %s, v = %d", it.Key()->data_, it.Value());
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| 431 |   }
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| 432 | 
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| 433 |   PASS();
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| 434 | }
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| 435 | 
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| 436 | TEST test_tuple_construct() {
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| 437 |   auto kvs = Alloc<List<Tuple2<int, int>*>>();
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| 438 |   auto t1 = Alloc<Tuple2<int, int>>(0xdead, 0xbeef);
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| 439 |   auto t2 = Alloc<Tuple2<int, int>>(0xbeee, 0xeeef);
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| 440 |   kvs->append(t1);
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| 441 |   kvs->append(t2);
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| 442 | 
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| 443 |   auto d = dict(kvs);
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| 444 |   ASSERT_EQ(d->at(0xdead), 0xbeef);
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| 445 |   ASSERT_EQ(d->at(0xbeee), 0xeeef);
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| 446 | 
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| 447 |   PASS();
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| 448 | }
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| 449 | 
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| 450 | TEST test_update_dict() {
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| 451 |   auto d = Alloc<Dict<int, int>>();
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| 452 |   d->set(1, 0xdead);
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| 453 |   d->set(2, 0xbeef);
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| 454 |   ASSERT_EQ(d->at(1), 0xdead);
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| 455 |   ASSERT_EQ(d->at(2), 0xbeef);
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| 456 | 
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| 457 |   auto kvs = Alloc<List<Tuple2<int, int>*>>();
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| 458 |   auto t1 = Alloc<Tuple2<int, int>>(2, 0xfeeb);
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| 459 |   auto t2 = Alloc<Tuple2<int, int>>(3, 0x3333);
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| 460 |   kvs->append(t1);
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| 461 |   kvs->append(t2);
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| 462 |   d->update(kvs);
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| 463 |   ASSERT_EQ(d->at(1), 0xdead);
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| 464 |   ASSERT_EQ(d->at(2), 0xfeeb);
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| 465 |   ASSERT_EQ(d->at(3), 0x3333);
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| 466 | 
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| 467 |   PASS();
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| 468 | }
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| 469 | 
 | 
| 470 | TEST test_tuple_key() {
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| 471 |   auto d1 = Alloc<Dict<Tuple2<int, int>*, int>>();
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| 472 |   auto t1 = Alloc<Tuple2<int, int>>(0xdead, 0xbeef);
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| 473 |   auto t2 = Alloc<Tuple2<int, int>>(0xbeee, 0xeeef);
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| 474 |   d1->set(t1, -42);
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| 475 |   d1->set(t2, 17);
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| 476 |   ASSERT_EQ(d1->at(t1), -42);
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| 477 |   ASSERT_EQ(d1->at(t2), 17);
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| 478 | 
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| 479 |   auto d2 = Alloc<Dict<Tuple2<BigStr*, int>*, int>>();
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| 480 |   auto t3 = Alloc<Tuple2<BigStr*, int>>(StrFromC("foo"), 0xbeef);
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| 481 |   auto t4 = Alloc<Tuple2<BigStr*, int>>(StrFromC("bar"), 0xeeef);
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| 482 |   d2->set(t3, 12345);
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| 483 |   d2->set(t4, 67890);
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| 484 |   ASSERT_EQ(d2->at(t3), 12345);
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| 485 |   ASSERT_EQ(d2->at(t4), 67890);
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| 486 | 
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| 487 |   PASS();
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| 488 | }
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| 489 | 
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| 490 | TEST test_dict_erase() {
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| 491 |   auto d = Alloc<Dict<int, int>>();
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| 492 |   d->set(25315, 0xdead);
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| 493 |   d->set(25316, 0xbeef);
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| 494 |   d->set(25317, 0xc0ffee);
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| 495 | 
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| 496 |   ASSERT_EQ(0xdead, d->at(25315));
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| 497 |   ASSERT_EQ(0xbeef, d->at(25316));
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| 498 |   ASSERT_EQ(0xc0ffee, d->at(25317));
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| 499 | 
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| 500 |   mylib::dict_erase(d, 25315);
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| 501 |   ASSERT_FALSE(dict_contains(d, 25315));
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| 502 |   ASSERT_EQ(0xbeef, d->at(25316));
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| 503 |   ASSERT_EQ(0xc0ffee, d->at(25317));
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| 504 | 
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| 505 |   mylib::dict_erase(d, 25316);
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| 506 |   ASSERT_FALSE(dict_contains(d, 25316));
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| 507 |   ASSERT_EQ(0xc0ffee, d->at(25317));
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| 508 | 
 | 
| 509 |   // This is a trace of processes coming and going in a real shell. It tickles a
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| 510 |   // (now fixed) bug in dict_erase() that would prematurely open a slot in the
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| 511 |   // index before compacting the last inserted entry. With the right sequence of
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| 512 |   // collisions (hence this trace) this behavior can lead to an index slot that
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| 513 |   // points to an invalid entry, causing future calls to `find_key_in_index()`
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| 514 |   // to crash (e.g.  by dereferencing a bad pointer).
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| 515 |   d = Alloc<Dict<int, int>>();
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| 516 |   d->set(326224, 0);
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| 517 |   d->set(326225, 1);
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| 518 |   d->set(326226, 2);
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| 519 |   d->set(326227, 3);
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| 520 |   d->set(326228, 4);
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| 521 |   mylib::dict_erase(d, 326227);
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| 522 |   d->set(326229, 4);
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| 523 |   d->set(326230, 5);
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| 524 |   mylib::dict_erase(d, 326229);
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| 525 |   d->set(326231, 5);
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| 526 |   d->set(326232, 6);
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| 527 |   mylib::dict_erase(d, 326231);
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| 528 |   d->set(326233, 6);
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| 529 |   d->set(326234, 7);
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| 530 |   mylib::dict_erase(d, 326233);
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| 531 |   d->set(326235, 7);
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| 532 |   d->set(326236, 8);
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| 533 |   mylib::dict_erase(d, 326235);
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| 534 |   d->set(326237, 8);
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| 535 |   d->set(326238, 9);
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| 536 |   mylib::dict_erase(d, 326237);
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| 537 |   d->set(326239, 9);
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| 538 |   d->set(326240, 10);
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| 539 |   mylib::dict_erase(d, 326239);
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| 540 |   d->set(326241, 10);
 | 
| 541 | 
 | 
| 542 |   PASS();
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| 543 | }
 | 
| 544 | 
 | 
| 545 | TEST test_dict_erase2() {
 | 
| 546 |   auto d = NewDict<int, BigStr*>();
 | 
| 547 | 
 | 
| 548 |   for (int i = 0; i < 6; ++i) {
 | 
| 549 |     d->set(i, kEmptyString);
 | 
| 550 |   }
 | 
| 551 |   log("len(d) = %d", len(d));
 | 
| 552 |   ASSERT_EQ(6, len(d));
 | 
| 553 | 
 | 
| 554 |   mylib::dict_erase(d, 99);
 | 
| 555 |   ASSERT_EQ(6, len(d));
 | 
| 556 | 
 | 
| 557 |   PASS();
 | 
| 558 | }
 | 
| 559 | 
 | 
| 560 | // Ints hash to themselves, so we can control when collisions happen. This test
 | 
| 561 | // sets up a few contrived workloads and checks that Dict still operates as
 | 
| 562 | // expected.
 | 
| 563 | TEST test_dict_probe() {
 | 
| 564 |   auto d = Alloc<Dict<int, int>>();
 | 
| 565 | 
 | 
| 566 |   // This trace is a regression test for a weird bug where the index is full but
 | 
| 567 |   // the table has two free slots, causing a write to needlessly fail.
 | 
| 568 |   d->set(584818, -1);
 | 
| 569 |   d->set(584828, -1);
 | 
| 570 |   mylib::dict_erase(d, 584828);
 | 
| 571 |   d->set(584833, -1);
 | 
| 572 |   mylib::dict_erase(d, 584833);
 | 
| 573 |   d->set(584888, -1);
 | 
| 574 | 
 | 
| 575 |   d->reserve(32);
 | 
| 576 |   d->clear();
 | 
| 577 | 
 | 
| 578 |   // First, fill the table to the brim and check that we can recall
 | 
| 579 |   // everything.
 | 
| 580 |   int n = d->capacity_;
 | 
| 581 |   for (int i = 0; i < n; i++) {
 | 
| 582 |     d->set(i, i);
 | 
| 583 |   }
 | 
| 584 |   ASSERT_EQ(n, d->capacity_);
 | 
| 585 |   for (int i = 0; i < n; i++) {
 | 
| 586 |     ASSERT_EQ(i, d->at(i));
 | 
| 587 |   }
 | 
| 588 |   // Triger a rehash, and check that everything is OK.
 | 
| 589 |   d->set(n, n);
 | 
| 590 |   ASSERT(d->capacity_ > n);
 | 
| 591 |   for (int i = 0; i <= n; i++) {
 | 
| 592 |     ASSERT_EQ(i, d->at(i));
 | 
| 593 |   }
 | 
| 594 |   for (int i = 0; i <= n; i++) {
 | 
| 595 |     d->set(i, n * i);
 | 
| 596 |   }
 | 
| 597 |   for (int i = 0; i <= n; i++) {
 | 
| 598 |     ASSERT_EQ(n * i, d->at(i));
 | 
| 599 |   }
 | 
| 600 | 
 | 
| 601 |   // Reset and fill the table with keys that all has onto the same index slot
 | 
| 602 |   n = d->capacity_;
 | 
| 603 |   int target = n / 2;  // pick a slot in the middle to test wrap around
 | 
| 604 |   d->clear();
 | 
| 605 |   for (int i = 0; i < n; i++) {
 | 
| 606 |     d->set(target * i, i);
 | 
| 607 |   }
 | 
| 608 |   // Remove each entry one-by-one, stopping after each removal to check that
 | 
| 609 |   // the other keys can be set and retrieved without issue. This implicitly
 | 
| 610 |   // checks that special index entries like tombstones are working correctly.
 | 
| 611 |   for (int i = 0; i < n; i++) {
 | 
| 612 |     mylib::dict_erase(d, target * i);
 | 
| 613 |     for (int j = i + 1; j < n; j++) {
 | 
| 614 |       d->set(target * j, j + 1);
 | 
| 615 |       ASSERT_EQ(j + 1, d->at(target * j));
 | 
| 616 |     }
 | 
| 617 |   }
 | 
| 618 | 
 | 
| 619 |   PASS();
 | 
| 620 | }
 | 
| 621 | 
 | 
| 622 | GLOBAL_DICT(gDict, int, int, 2, {42 COMMA 43}, {1 COMMA 2});
 | 
| 623 | 
 | 
| 624 | GLOBAL_DICT(gStrDict, BigStr*, BigStr*, 2, {kStrFoo COMMA kStrBar},
 | 
| 625 |             {kStrBar COMMA kStrFoo});
 | 
| 626 | 
 | 
| 627 | TEST test_global_dict() {
 | 
| 628 |   log("gDict len = %d", len(gDict));
 | 
| 629 |   ASSERT_EQ(2, len(gDict));
 | 
| 630 |   ASSERT_EQ(1, gDict->at(42));
 | 
| 631 |   ASSERT_EQ(2, gDict->at(43));
 | 
| 632 | 
 | 
| 633 |   log("gStrDict len = %d", len(gStrDict));
 | 
| 634 |   ASSERT_EQ(kStrFoo, gStrDict->at(kStrBar));
 | 
| 635 |   ASSERT_EQ(kStrBar, gStrDict->at(kStrFoo));
 | 
| 636 | 
 | 
| 637 |   ASSERT(dict_contains(gStrDict, kStrFoo));
 | 
| 638 |   ASSERT(dict_contains(gStrDict, kStrBar));
 | 
| 639 |   ASSERT(!dict_contains(gStrDict, kEmptyString));
 | 
| 640 | 
 | 
| 641 |   PASS();
 | 
| 642 | }
 | 
| 643 | 
 | 
| 644 | TEST test_dict_ordering() {
 | 
| 645 |   auto d = Alloc<Dict<int, int>>();
 | 
| 646 | 
 | 
| 647 |   auto in = NewList<int>(std::initializer_list<int>{95, 9, 67, 70, 93, 30, 25,
 | 
| 648 |                                                     98, 80, 39, 56, 48, 99});
 | 
| 649 |   for (ListIter<int> it(in); !it.Done(); it.Next()) {
 | 
| 650 |     d->set(it.Value(), -1);
 | 
| 651 |   }
 | 
| 652 | 
 | 
| 653 |   auto keys = d->keys();
 | 
| 654 |   ASSERT_EQ(len(in), len(keys));
 | 
| 655 |   for (int i = 0; i < len(in); i++) {
 | 
| 656 |     ASSERT_EQ(in->at(i), keys->at(i));
 | 
| 657 |   }
 | 
| 658 | 
 | 
| 659 |   // check that order survives rehashing
 | 
| 660 |   d->reserve(2 * len(d));
 | 
| 661 |   keys = d->keys();
 | 
| 662 |   ASSERT_EQ(len(in), len(keys));
 | 
| 663 |   for (int i = 0; i < len(in); i++) {
 | 
| 664 |     ASSERT_EQ(in->at(i), keys->at(i));
 | 
| 665 |   }
 | 
| 666 | 
 | 
| 667 |   PASS();
 | 
| 668 | }
 | 
| 669 | 
 | 
| 670 | TEST test_hash() {
 | 
| 671 |   int i = 0;
 | 
| 672 |   int j = 0;
 | 
| 673 |   log("&i = %p", &i);
 | 
| 674 |   log("&j = %p", &j);
 | 
| 675 | 
 | 
| 676 |   unsigned h1 = hash_key(&i);
 | 
| 677 |   log("h1 = %d", h1);
 | 
| 678 |   unsigned h2 = hash_key(&i);
 | 
| 679 |   log("h2 = %d", h2);
 | 
| 680 |   unsigned h3 = hash_key(&j);
 | 
| 681 |   log("h3 = %d", h3);
 | 
| 682 | 
 | 
| 683 |   ASSERT_EQ_FMT(h1, h2, "%d");
 | 
| 684 |   ASSERT(h1 != h3);
 | 
| 685 | 
 | 
| 686 |   PASS();
 | 
| 687 | }
 | 
| 688 | 
 | 
| 689 | GREATEST_MAIN_DEFS();
 | 
| 690 | 
 | 
| 691 | int main(int argc, char** argv) {
 | 
| 692 |   gHeap.Init();
 | 
| 693 | 
 | 
| 694 |   GREATEST_MAIN_BEGIN();
 | 
| 695 | 
 | 
| 696 |   RUN_TEST(test_dict_init);
 | 
| 697 |   RUN_TEST(test_dict);
 | 
| 698 |   RUN_TEST(test_dict_internals);
 | 
| 699 |   RUN_TEST(test_empty_dict);
 | 
| 700 |   RUN_TEST(test_tuple_construct);
 | 
| 701 |   RUN_TEST(test_update_dict);
 | 
| 702 |   RUN_TEST(test_tuple_key);
 | 
| 703 |   RUN_TEST(test_dict_erase);
 | 
| 704 |   RUN_TEST(test_dict_erase2);
 | 
| 705 |   RUN_TEST(test_global_dict);
 | 
| 706 |   RUN_TEST(test_dict_ordering);
 | 
| 707 |   RUN_TEST(test_dict_probe);
 | 
| 708 | 
 | 
| 709 |   RUN_TEST(dict_methods_test);
 | 
| 710 |   RUN_TEST(dict_iters_test);
 | 
| 711 | 
 | 
| 712 |   RUN_TEST(test_hash);
 | 
| 713 | 
 | 
| 714 |   gHeap.CleanProcessExit();
 | 
| 715 | 
 | 
| 716 |   GREATEST_MAIN_END();
 | 
| 717 |   return 0;
 | 
| 718 | }
 |