#include using namespace std::string_literals; #include "simdjson.h" #include "test_ondemand.h" using namespace simdjson; namespace document_stream_tests { template bool process_doc(T &docref) { int64_t val{}; ASSERT_SUCCESS(docref.at_pointer("/4").get(val)); ASSERT_EQUAL(val, 5); return true; } bool truncated_utf8() { TEST_START(); // truncated UTF-8 auto json = "\"document1\" \xC3"_padded; ondemand::parser parser; ondemand::document_stream stream; auto oderror = parser.iterate_many(json).get(stream); if (oderror) { std::cerr << "ondemand iterate_many error: " << oderror << std::endl; return false; } int document_index = 0; auto i = stream.begin(); for (; i != stream.end(); ++i) { ondemand::document_reference doc; auto err = (*i).get(doc); document_index++; // With the fallback routine, we might detect a 'document' since // it does not do UTF-8 validation in stage one, but it will do // so when we access the document. if(err == SUCCESS) { std::string_view document_string; err = doc.get_string().get(document_string); } if((err == SUCCESS) && (document_index != 1)) { std::cerr << "Only the first document should be valid." << std::endl; return false; } if((err != SUCCESS) && (document_index != 2)) { std::cerr << "ondemand iterate_many error: " << err << std::endl; return false; } } if(document_index < 1) { std::cerr << "ondemand should have accessed at least one document" << std::endl; return false; } TEST_SUCCEED(); } bool issue1729() { // This example is not a good application of iterate_many since there is // a single JSON document. TEST_START(); auto json = R"({ "t": 5649, "ng": 5, "lu": 4086, "g": [{ "t": "Temps", "xvy": 0, "pd": 60, "sz": 3, "l": [ "Low Temp", "High Temp", "Smooth Avg" ], "c": [ "green", "orange", "cyan" ], "d": [ 80.48750305, 80.82499694, 80.65625 ] }, { "t": "Pump Status", "xvy": 0, "pd": 60, "sz": 3, "l": [ "Pump", "Thermal", "Light" ], "c": [ "green", "orange", "cyan" ], "d": [ 0, 0, 0 ] }, { "t": "Lux", "xvy": 0, "pd": 60, "sz": 4, "l": [ "Value", "Smooth", "Low", "High" ], "c": [ "green", "orange", "cyan", "yellow" ], "d": [ 2274.62939453, 2277.45947265, 4050, 4500 ] }, { "t": "Temp Diff", "xvy": 0, "pd": 60, "sz": 4, "l": [ "dFarenheit", "sum", "Low", "High" ], "c": [ "green", "orange", "cyan", "yellow" ], "d": [ 0, 0, 0.5, 10 ] }, { "t": "Power", "xvy": 0, "pd": 60, "sz": 3, "l": [ "watts (est. light) ", "watts (1.9~gpm) ", "watts (1gpm) " ], "c": [ "green", "orange", "cyan" ], "d": [ 181.78063964, 114.88922882, 59.35943603 ] } ] })"_padded; ondemand::parser parser; ondemand::document_stream stream; auto oderror = parser.iterate_many(json).get(stream); if (oderror) { std::cerr << "ondemand iterate_many error: " << oderror << std::endl; return false; } auto i = stream.begin(); for (; i != stream.end(); ++i) { ondemand::document_reference doc; auto err = (*i).get(doc); if(err != SUCCESS) { std::cerr << "ondemand iterate_many error: " << err << std::endl; return false; } } TEST_SUCCEED(); } bool issue2170() { TEST_START(); auto json = R"(1 2 3)"_padded; ondemand::parser parser; ondemand::document_stream stream; ASSERT_SUCCESS(parser.iterate_many(json).get(stream)); auto i = stream.begin(); size_t count{0}; std::vector indexes = { 0, 2, 4 }; std::vector expected = { "1", "2", "3" }; for(; i != stream.end(); ++i) { ASSERT_SUCCESS(i.error()); ASSERT_TRUE(count < 3); ASSERT_EQUAL(i.current_index(), indexes[count]); ASSERT_EQUAL(i.source(), expected[count]); count++; } TEST_SUCCEED(); } bool issue2181() { TEST_START(); auto json = R"(1 2 34)"_padded; ondemand::parser parser; ondemand::document_stream stream; ASSERT_SUCCESS(parser.iterate_many(json).get(stream)); auto i = stream.begin(); size_t count{0}; std::vector indexes = { 0, 2, 4 }; std::vector expected = { "1", "2", "34" }; for(; i != stream.end(); ++i) { ASSERT_SUCCESS(i.error()); ASSERT_TRUE(count < 3); ASSERT_EQUAL(i.current_index(), indexes[count]); ASSERT_EQUAL(i.source(), expected[count]); count++; } TEST_SUCCEED(); } bool issue1977() { TEST_START(); std::string json = R"( 1111 })"; ondemand::parser odparser; ondemand::document_stream odstream; ASSERT_SUCCESS(odparser.iterate_many(json).get(odstream)); auto i = odstream.begin(); for (; i != odstream.end(); ++i) { ASSERT_TRUE(false); } ASSERT_TRUE(i.current_index() == 0); TEST_SUCCEED(); } bool issue1683() { TEST_START(); std::string json = R"([1,2,3,4,5] [1,2,3,4,5] [1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18,19,20,21,22,23,24,25,26,27,28,29,30,31,32,33,34,35,36,37,38,39,40,41,42,43,44,45,46,47,48,49,50,51,52,53,54,55,56,57,58,59,60,61,62,63,64,65,66,67,68,69,70,71,72,73,74,75,76,77,78,79,80,81,82,83,84,85,86,87,88,89,90,91,92,93,94,95,96,97,98,99,100] [1,2,3,4,5])"; ondemand::parser odparser; ondemand::document_stream odstream; // iterate_many all at once auto oderror = odparser.iterate_many(json, 50).get(odstream); if (oderror) { std::cerr << "ondemand iterate_many error: " << oderror << std::endl; return false; } size_t currindex = 0; auto i = odstream.begin(); for (; i != odstream.end(); ++i) { ondemand::document_reference doc; auto err = (*i).get(doc); if(err == SUCCESS) { if(!process_doc(doc)) {return false; } } currindex = i.current_index(); if (err == simdjson::CAPACITY) { ASSERT_EQUAL(currindex, 24); ASSERT_EQUAL(odstream.truncated_bytes(), 305); break; } else if (err) { TEST_FAIL("ondemand: error accessing jsonpointer: "s + simdjson::error_message(err)); } } ASSERT_EQUAL(odstream.truncated_bytes(), 305); // iterate line-by-line std::stringstream ss(json); std::string oneline; oneline.reserve(json.size() + SIMDJSON_PADDING); while (getline(ss, oneline)) { ondemand::document doc; ASSERT_SUCCESS(odparser.iterate(oneline).get(doc)); if( ! process_doc(doc) ) { return false; } } TEST_SUCCEED(); } bool simple_document_iteration() { TEST_START(); auto json = R"([1,[1,2]] {"a":1,"b":2} {"o":{"1":1,"2":2}} [1,2,3])"_padded; ondemand::parser parser; ondemand::document_stream stream; ASSERT_SUCCESS(parser.iterate_many(json).get(stream)); std::string_view expected[4] = {"[1,[1,2]]", "{\"a\":1,\"b\":2}", "{\"o\":{\"1\":1,\"2\":2}}", "[1,2,3]"}; size_t counter{0}; for(auto doc : stream) { ASSERT_TRUE(counter < 4); std::string_view view; ASSERT_SUCCESS(to_json_string(doc).get(view)); ASSERT_EQUAL(view, expected[counter++]); } ASSERT_EQUAL(counter, 4); TEST_SUCCEED(); } bool simple_document_iteration_multiple_batches() { TEST_START(); auto json = R"([1,[1,2]] {"a":1,"b":2} {"o":{"1":1,"2":2}} [1,2,3])"_padded; ondemand::parser parser; ondemand::document_stream stream; ASSERT_SUCCESS(parser.iterate_many(json,32).get(stream)); std::string_view expected[4] = {"[1,[1,2]]", "{\"a\":1,\"b\":2}", "{\"o\":{\"1\":1,\"2\":2}}", "[1,2,3]"}; size_t counter{0}; for(auto i = stream.begin(); i != stream.end(); ++i) { ASSERT_TRUE(counter < 4); ASSERT_EQUAL(i.source(), expected[counter++]); } ASSERT_EQUAL(counter, 4); TEST_SUCCEED(); } bool simple_document_iteration_with_parsing() { TEST_START(); auto json = R"([1,[1,2]] {"a":1,"b":2} {"o":{"1":1,"2":2}} [1,2,3])"_padded; ondemand::parser parser; ondemand::document_stream stream; ASSERT_SUCCESS(parser.iterate_many(json).get(stream)); std::string_view expected[4] = {"[1,[1,2]]", "{\"a\":1,\"b\":2}", "{\"o\":{\"1\":1,\"2\":2}}", "[1,2,3]"}; size_t counter{0}; auto i = stream.begin(); int64_t x; ASSERT_EQUAL(i.source(),expected[counter++]); ASSERT_SUCCESS( (*i).at_pointer("/1/1").get(x) ); ASSERT_EQUAL(x,2); ++i; ASSERT_EQUAL(i.source(),expected[counter++]); simdjson_result xxx = *i; ASSERT_SUCCESS( xxx.find_field("a").get(x) ); ASSERT_EQUAL(x,1); ++i; ASSERT_EQUAL(i.source(),expected[counter++]); ASSERT_SUCCESS( (*i).at_pointer("/o/2").get(x) ); ASSERT_EQUAL(x,2); ++i; ASSERT_EQUAL(i.source(),expected[counter++]); ASSERT_SUCCESS( (*i).at_pointer("/2").get(x) ); ASSERT_EQUAL(x,3); ++i; if (i != stream.end()) { return false; } TEST_SUCCEED(); } bool simple_document_iteration_advance() { TEST_START(); auto json = R"([1,[1,2]] {"a":1,"b":2} {"o":{"1":1,"2":2}} [1,2,3])"_padded; ondemand::parser parser; ondemand::document_stream stream; ASSERT_SUCCESS(parser.iterate_many(json).get(stream)); std::string_view expected[4] = {"[1,[1,2]]", "{\"a\":1,\"b\":2}", "{\"o\":{\"1\":1,\"2\":2}}", "[1,2,3]"}; auto iter = stream.begin(); for (auto i = 0; i < 4; i++) { auto doc = *iter; std::string_view view; ASSERT_SUCCESS(to_json_string(doc).get(view)); ASSERT_EQUAL(view, expected[i]); std::advance(iter, 1); } TEST_SUCCEED(); } bool skipbom() { TEST_START(); auto json = "\xEF\xBB\xBF[1,[1,2]] {\"a\":1,\"b\":2} {\"o\":{\"1\":1,\"2\":2}} [1,2,3]"_padded; ondemand::parser parser; ondemand::document_stream stream; ASSERT_SUCCESS(parser.iterate_many(json).get(stream)); std::string_view expected[4] = {"[1,[1,2]]", "{\"a\":1,\"b\":2}", "{\"o\":{\"1\":1,\"2\":2}}", "[1,2,3]"}; size_t counter{0}; auto i = stream.begin(); int64_t x; ASSERT_EQUAL(i.source(),expected[counter++]); ASSERT_SUCCESS( (*i).at_pointer("/1/1").get(x) ); ASSERT_EQUAL(x,2); ++i; ASSERT_EQUAL(i.source(),expected[counter++]); simdjson_result xxx = *i; ASSERT_SUCCESS( xxx.find_field("a").get(x) ); ASSERT_EQUAL(x,1); ++i; ASSERT_EQUAL(i.source(),expected[counter++]); ASSERT_SUCCESS( (*i).at_pointer("/o/2").get(x) ); ASSERT_EQUAL(x,2); ++i; ASSERT_EQUAL(i.source(),expected[counter++]); ASSERT_SUCCESS( (*i).at_pointer("/2").get(x) ); ASSERT_EQUAL(x,3); ++i; if (i != stream.end()) { return false; } TEST_SUCCEED(); } bool atoms_json() { TEST_START(); auto json = R"(5 true 20.3 "string" )"_padded; ondemand::parser parser; ondemand::document_stream stream; ASSERT_SUCCESS(parser.iterate_many(json).get(stream)); std::string_view expected[4] = {"5", "true", "20.3", "\"string\""}; size_t counter{0}; for (auto i = stream.begin(); i != stream.end(); ++i) { ASSERT_EQUAL(i.source(), expected[counter++]); } ASSERT_EQUAL(counter,4); TEST_SUCCEED(); } bool doc_index() { TEST_START(); auto json = R"({"z":5} {"1":1,"2":2,"4":4} [7, 10, 9] [15, 11, 12, 13] [154, 110, 112, 1311])"_padded; std::string_view expected[5] = {R"({"z":5})",R"({"1":1,"2":2,"4":4})","[7, 10, 9]","[15, 11, 12, 13]","[154, 110, 112, 1311]"}; size_t expected_indexes[5] = {0, 9, 29, 44, 65}; ondemand::parser parser; ondemand::document_stream stream; size_t counter{0}; ASSERT_SUCCESS(parser.iterate_many(json).get(stream)); for(auto i = stream.begin(); i != stream.end(); ++i) { ASSERT_TRUE(counter < 5); ASSERT_EQUAL(i.current_index(), expected_indexes[counter]); ASSERT_EQUAL(i.source(), expected[counter]); counter++; } ASSERT_EQUAL(counter, 5); TEST_SUCCEED(); } bool doc_index_multiple_batches() { TEST_START(); auto json = R"({"z":5} {"1":1,"2":2,"4":4} [7, 10, 9] [15, 11, 12, 13] [154, 110, 112, 1311])"_padded; std::string_view expected[5] = {R"({"z":5})",R"({"1":1,"2":2,"4":4})","[7, 10, 9]","[15, 11, 12, 13]","[154, 110, 112, 1311]"}; size_t expected_indexes[5] = {0, 9, 29, 44, 65}; ondemand::parser parser; ondemand::document_stream stream; size_t counter{0}; ASSERT_SUCCESS(parser.iterate_many(json,32).get(stream)); for(auto i = stream.begin(); i != stream.end(); ++i) { ASSERT_TRUE(counter < 5); ASSERT_EQUAL(i.current_index(), expected_indexes[counter]); ASSERT_EQUAL(i.source(), expected[counter]); counter++; } ASSERT_EQUAL(counter, 5); TEST_SUCCEED(); } bool source_test() { TEST_START(); auto json = R"([1,[1,2]] {"a":1,"b":2} {"o":{"1":1,"2":2}} [1,2,3] )"_padded; ondemand::parser parser; ondemand::document_stream stream; ASSERT_SUCCESS(parser.iterate_many(json).get(stream)); std::string_view expected[4] = {"[1,[1,2]]", "{\"a\":1,\"b\":2}", "{\"o\":{\"1\":1,\"2\":2}}", "[1,2,3]"}; size_t counter{0}; for (auto i = stream.begin(); i != stream.end(); ++i) { ASSERT_EQUAL(i.source(), expected[counter++]); } ASSERT_EQUAL(counter,4); TEST_SUCCEED(); } bool truncated() { TEST_START(); // The last JSON document is intentionally truncated. auto json = R"([1,2,3] {"1":1,"2":3,"4":4} [1,2 )"_padded; ondemand::parser parser; ondemand::document_stream stream; ASSERT_SUCCESS(parser.iterate_many(json).get(stream)); size_t counter{0}; for (auto i = stream.begin(); i != stream.end(); ++i) { counter++; } size_t truncated = stream.truncated_bytes(); ASSERT_EQUAL(truncated, 6); ASSERT_EQUAL(counter,2); TEST_SUCCEED(); } bool truncated_complete_docs() { TEST_START(); auto json = R"([1,2,3] {"1":1,"2":3,"4":4} [1,2] )"_padded; ondemand::parser parser; ondemand::document_stream stream; ASSERT_SUCCESS(parser.iterate_many(json).get(stream)); size_t counter{0}; for (auto i = stream.begin(); i != stream.end(); ++i) { counter++; } size_t truncated = stream.truncated_bytes(); ASSERT_EQUAL(truncated, 0); ASSERT_EQUAL(counter,3); TEST_SUCCEED(); } bool truncated_unclosed_string() { TEST_START(); // The last JSON document is intentionally truncated. auto json = R"([1,2,3] {"1":1,"2":3,"4":4} "intentionally unclosed string )"_padded; ondemand::parser parser; ondemand::document_stream stream; // We use a window of json.size() though any large value would do. ASSERT_SUCCESS( parser.iterate_many(json).get(stream) ); size_t counter{0}; for(auto i = stream.begin(); i != stream.end(); ++i) { counter++; } size_t truncated = stream.truncated_bytes(); ASSERT_EQUAL(counter,2); ASSERT_EQUAL(truncated,32); TEST_SUCCEED(); } bool truncated_unclosed_string_in_object() { // The last JSON document is intentionally truncated. auto json = R"([1,2,3] {"1":1,"2":3,"4":4} {"key":"intentionally unclosed string )"_padded; ondemand::parser parser; ondemand::document_stream stream; ASSERT_SUCCESS( parser.iterate_many(json).get(stream) ); size_t counter{0}; for(auto i = stream.begin(); i != stream.end(); ++i) { counter++; } size_t truncated = stream.truncated_bytes(); ASSERT_EQUAL(counter,2); ASSERT_EQUAL(truncated,39); TEST_SUCCEED(); } bool small_window() { TEST_START(); std::vector input; input.push_back('['); for(size_t i = 1; i < 1024; i++) { input.push_back('1'); input.push_back(i < 1023 ? ',' : ']'); } auto json = simdjson::padded_string(input.data(),input.size()); ondemand::parser parser; size_t window_size{1024}; // deliberately too small ondemand::document_stream stream; ASSERT_SUCCESS( parser.iterate_many(json, window_size).get(stream) ); auto i = stream.begin(); ASSERT_ERROR(i.error(), CAPACITY); ASSERT_EQUAL(stream.truncated_bytes(), json.length()); TEST_SUCCEED(); } bool large_window() { TEST_START(); #if SIZE_MAX > 17179869184 auto json = R"({"error":[],"result":{"token":"xxx"}}{"error":[],"result":{"token":"xxx"}})"_padded; ondemand::parser parser; uint64_t window_size{17179869184}; // deliberately too big ondemand::document_stream stream; ASSERT_SUCCESS( parser.iterate_many(json, size_t(window_size)).get(stream) ); auto i = stream.begin(); ASSERT_ERROR(i.error(),CAPACITY); #endif TEST_SUCCEED(); } bool test_leading_spaces() { TEST_START(); auto input = R"( [1,1] [1,2] [1,3] [1,4] [1,5] [1,6] [1,7] [1,8] [1,9] [1,10] [1,11] [1,12] [1,13] [1,14] [1,15] )"_padded;; size_t count{0}; ondemand::parser parser; ondemand::document_stream stream; ASSERT_SUCCESS(parser.iterate_many(input, 32).get(stream)); for(auto i = stream.begin(); i != stream.end(); ++i) { ASSERT_SUCCESS(i.error()); count++; } ASSERT_EQUAL(count,15); TEST_SUCCEED(); } bool test_crazy_leading_spaces() { TEST_START(); auto input = R"( [1,1] [1,2] [1,3] [1,4] [1,5] [1,6] [1,7] [1,8] [1,9] [1,10] [1,11] [1,12] [1,13] [1,14] [1,15] )"_padded;; size_t count{0}; ondemand::parser parser; ondemand::document_stream stream; ASSERT_SUCCESS(parser.iterate_many(input, 32).get(stream)); for(auto i = stream.begin(); i != stream.end(); ++i) { ASSERT_SUCCESS(i.error()); count++; } ASSERT_EQUAL(count,15); TEST_SUCCEED(); } bool adversarial_single_document() { TEST_START(); auto json = R"({"f[)"_padded; ondemand::parser parser; ondemand::document_stream stream; ASSERT_SUCCESS(parser.iterate_many(json).get(stream)); size_t count{0}; for (auto doc : stream) { (void)doc; count++; } ASSERT_EQUAL(count,0); TEST_SUCCEED(); } bool adversarial_single_document_array() { TEST_START(); auto json = R"(["this is an unclosed string ])"_padded; ondemand::parser parser; ondemand::document_stream stream; ASSERT_SUCCESS(parser.iterate_many(json).get(stream)); size_t count{0}; for (auto doc : stream) { (void)doc; count++; } ASSERT_EQUAL(count,0); TEST_SUCCEED(); } bool document_stream_test() { TEST_START(); fflush(NULL); const size_t n_records = 100; std::string data; std::vector buf(1024); // Generating data for (size_t i = 0; i < n_records; ++i) { size_t n = snprintf(buf.data(), buf.size(), "{\"id\": %zu, \"name\": \"name%zu\", \"gender\": \"%s\", " "\"ete\": {\"id\": %zu, \"name\": \"eventail%zu\"}}", i, i, (i % 2) ? "homme" : "femme", i % 10, i % 10); if (n >= buf.size()) { abort(); } data += std::string(buf.data(), n); } for(size_t batch_size = 1000; batch_size < 2000; batch_size += (batch_size>1050?10:1)) { fflush(NULL); simdjson::padded_string str(data); ondemand::parser parser; ondemand::document_stream stream; size_t count{0}; ASSERT_SUCCESS( parser.iterate_many(str, batch_size).get(stream) ); for (auto doc : stream) { int64_t keyid{}; ASSERT_SUCCESS( doc["id"].get(keyid) ); ASSERT_EQUAL( keyid, int64_t(count) ); count++; } ASSERT_EQUAL(count,n_records); } TEST_SUCCEED(); } bool issue2137() { TEST_START(); auto json = "true { "_padded; ondemand::parser parser; ondemand::document_stream stream; ASSERT_SUCCESS(parser.iterate_many(json).get(stream)); for (auto doc: stream) { bool val{}; ASSERT_SUCCESS(doc.get_bool().get(val)); std::string_view raw_json; ASSERT_SUCCESS(doc.raw_json_token().get(raw_json)); ASSERT_EQUAL(val, 1); std::string s(raw_json); ASSERT_EQUAL(s, "true "); } size_t t = stream.truncated_bytes(); ASSERT_EQUAL(3, t); TEST_SUCCEED(); } bool issue1668() { TEST_START(); auto json = R"([1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18,19,20,21,22,23,24,25,26,27,28,29,30,31,32,33,34,35,36,37,38,39,40,41,42,43,44,45,46,47,48,49,50,51,52,53,54,55,56,57,58,59,60,61,62,63,64,65,66,67,68,69,70,71,72,73,74,75,76,77,78,79,80,81,82,83,84,85,86,87,88,89,90,91,92,93,94,95,96,97,98,99,100])"_padded; ondemand::parser odparser; ondemand::document_stream odstream; ASSERT_SUCCESS( odparser.iterate_many(json.data(), json.length(), 50).get(odstream) ); for (auto doc: odstream) { ondemand::value val; ASSERT_ERROR(doc.at_pointer("/40").get(val), CAPACITY); ASSERT_EQUAL(odstream.truncated_bytes(), json.length()); } TEST_SUCCEED(); } bool issue1668_long() { TEST_START(); auto json = R"([1,2,3,4,5] [1,2,3,4,5] [1,2,3,4,5] [1,2,3,4,5] [1,2,3,4,5] [1,2,3,4,5] [1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18,19,20,21,22,23,24,25,26,27,28,29,30,31,32,33,34,35,36,37,38,39,40,41,42,43,44,45,46,47,48,49,50,51,52,53,54,55,56,57,58,59,60,61,62,63,64,65,66,67,68,69,70,71,72,73,74,75,76,77,78,79,80,81,82,83,84,85,86,87,88,89,90,91,92,93,94,95,96,97,98,99,100])"_padded; ondemand::parser odparser; ondemand::document_stream odstream; size_t counter{0}; ASSERT_SUCCESS( odparser.iterate_many(json.data(), json.length(), 50).get(odstream) ); for (auto doc: odstream) { if(counter < 6) { int64_t val{}; ASSERT_SUCCESS(doc.at_pointer("/4").get(val)); ASSERT_EQUAL(val, 5); } else { ondemand::value val; ASSERT_ERROR(doc.at_pointer("/4").get(val), CAPACITY); // We left 293 bytes unprocessed. ASSERT_EQUAL(odstream.truncated_bytes(), 293); } counter++; } TEST_SUCCEED(); } bool document_stream_utf8_test() { TEST_START(); fflush(NULL); const size_t n_records = 100; std::string data; std::vector buf(1024); // Generating data for (size_t i = 0; i < n_records; ++i) { size_t n = snprintf(buf.data(), buf.size(), "{\"id\": %zu, \"name\": \"name%zu\", \"gender\": \"%s\", " "\"\xC3\xA9t\xC3\xA9\": {\"id\": %zu, \"name\": \"\xC3\xA9ventail%zu\"}}", i, i, (i % 2) ? "\xE2\xBA\x83" : "\xE2\xBA\x95", i % 10, i % 10); if (n >= buf.size()) { abort(); } data += std::string(buf.data(), n); } for(size_t batch_size = 1000; batch_size < 2000; batch_size += (batch_size>1050?10:1)) { fflush(NULL); simdjson::padded_string str(data); ondemand::parser parser; ondemand::document_stream stream; size_t count{0}; ASSERT_SUCCESS( parser.iterate_many(str, batch_size).get(stream) ); for (auto doc : stream) { int64_t keyid{}; ASSERT_SUCCESS( doc["id"].get(keyid) ); ASSERT_EQUAL( keyid, int64_t(count) ); count++; } ASSERT_EQUAL( count, n_records ) } TEST_SUCCEED(); } bool stress_data_race() { TEST_START(); // Correct JSON. auto input = R"([1,23] [1,23] [1,23] [1,23] [1,23] [1,23] [1,23] [1,23] [1,23] [1,23] [1,23] [1,23] [1,23] [1,23] [1,23] )"_padded;; ondemand::parser parser; ondemand::document_stream stream; ASSERT_SUCCESS(parser.iterate_many(input, 32).get(stream)); for(auto i = stream.begin(); i != stream.end(); ++i) { ASSERT_SUCCESS(i.error()); } TEST_SUCCEED(); } bool stress_data_race_with_error() { TEST_START(); #if SIMDJSON_THREAD_ENABLED std::cout << "ENABLED" << std::endl; #endif // Intentionally broken auto input = R"([1,23] [1,23] [1,23] [1,23 [1,23] [1,23] [1,23] [1,23] [1,23] [1,23] [1,23] [1,23] [1,23] [1,23] [1,23] )"_padded; ondemand::parser parser; ondemand::document_stream stream; ASSERT_SUCCESS(parser.iterate_many(input, 32).get(stream)); size_t count{0}; for(auto i = stream.begin(); i != stream.end(); ++i) { auto error = i.error(); if(count <= 3) { ASSERT_SUCCESS(error); } else { ASSERT_ERROR(error,TAPE_ERROR); break; } count++; } TEST_SUCCEED(); } bool fuzzaccess() { TEST_START(); // Issue 38801 in oss-fuzz auto json = "\xff \n~~\n{}"_padded; ondemand::parser parser; ondemand::document_stream docs; ASSERT_SUCCESS(parser.iterate_many(json).get(docs)); size_t bool_count = 0; size_t total_count = 0; for (auto doc : docs) { total_count++; bool b; if(doc.get_bool().get(b) == SUCCESS) { bool_count +=b; } // If we don't access the document at all, other than get_bool(), // then some simdjson kernels will allow you to iterate through // 3 'documents'. By trying to access the content, we make the iteration // terminate after the first 'document'. std::string_view document_string; if(doc.get_string().get(document_string) != SUCCESS) { break; } } return (bool_count == 0) && (total_count == 1); } bool string_with_trailing() { TEST_START(); auto json = R"( "a string" badstuff )"_padded; ondemand::parser parser; ondemand::document_stream doc; ASSERT_SUCCESS(parser.iterate_many(json).get(doc)); std::string_view view; ASSERT_SUCCESS((*doc.begin()).get_string().get(view)); ASSERT_EQUAL(view,"a string"); TEST_SUCCEED(); } bool uint64_with_trailing() { TEST_START(); auto json = R"( 133 badstuff )"_padded; ondemand::parser parser; ondemand::document_stream doc; ASSERT_SUCCESS(parser.iterate_many(json).get(doc)); uint64_t x; ASSERT_SUCCESS((*doc.begin()).get_uint64().get(x)); ASSERT_EQUAL(x,133); TEST_SUCCEED(); } bool int64_with_trailing() { TEST_START(); auto json = R"( 133 badstuff )"_padded; ondemand::parser parser; ondemand::document_stream doc; ASSERT_SUCCESS(parser.iterate_many(json).get(doc)); int64_t x; ASSERT_SUCCESS((*doc.begin()).get_int64().get(x)); ASSERT_EQUAL(x,133); TEST_SUCCEED(); } bool double_with_trailing() { TEST_START(); auto json = R"( 133 badstuff )"_padded; ondemand::parser parser; ondemand::document_stream doc; ASSERT_SUCCESS(parser.iterate_many(json).get(doc)); double x; ASSERT_SUCCESS((*doc.begin()).get_double().get(x)); ASSERT_EQUAL(x,133); TEST_SUCCEED(); } bool bool_with_trailing() { TEST_START(); auto json = R"( true badstuff )"_padded; ondemand::parser parser; ondemand::document_stream doc; ASSERT_SUCCESS(parser.iterate_many(json).get(doc)); bool x; ASSERT_SUCCESS((*doc.begin()).get_bool().get(x)); ASSERT_EQUAL(x,true); TEST_SUCCEED(); } bool null_with_trailing() { TEST_START(); auto json = R"( null badstuff )"_padded; ondemand::parser parser; ondemand::document_stream doc; ASSERT_SUCCESS(parser.iterate_many(json).get(doc)); bool n; ASSERT_SUCCESS((*doc.begin()).is_null().get(n)); ASSERT_EQUAL(n,true); TEST_SUCCEED(); } bool run() { return issue2181() && issue2170() && issue2137() && skipbom() && issue1977() && string_with_trailing() && uint64_with_trailing() && int64_with_trailing() && bool_with_trailing() && null_with_trailing() && truncated_utf8() && issue1729() && fuzzaccess() && issue1683() && issue1668() && issue1668_long() && simple_document_iteration() && simple_document_iteration_multiple_batches() && simple_document_iteration_with_parsing() && simple_document_iteration_advance() && atoms_json() && doc_index() && doc_index_multiple_batches() && source_test() && truncated() && truncated_complete_docs() && truncated_unclosed_string() && small_window() && large_window() && test_leading_spaces() && test_crazy_leading_spaces() && adversarial_single_document() && adversarial_single_document_array() && document_stream_test() && document_stream_utf8_test() && stress_data_race() && stress_data_race_with_error() && true; } } // document_stream_tests int main (int argc, char *argv[]) { return test_main(argc, argv, document_stream_tests::run); }