aos/json_to_flatbuffer_test.cc - RealtimeRoboticsGroup/test - Gitiles

 #include "aos/json_to_flatbuffer.h"

 #include "aos/flatbuffer_merge.h"
 #include "aos/json_to_flatbuffer_generated.h"
 #include "aos/testing/path.h"
 #include "flatbuffers/minireflect.h"
 #include "gtest/gtest.h"

 namespace aos {
 namespace testing {

 class JsonToFlatbufferTest : public ::testing::Test {
  public:
   JsonToFlatbufferTest() {}

   FlatbufferVector<reflection::Schema> Schema() {
     return FileToFlatbuffer<reflection::Schema>(
         ArtifactPath("aos/json_to_flatbuffer.bfbs"));
   }

   bool JsonAndBack(const ::std::string str) { return JsonAndBack(str, str); }

   bool JsonAndBack(const ::std::string in, const ::std::string out) {
     printf("Testing: %s\n", in.c_str());
     FlatbufferDetachedBuffer<Configuration> fb_typetable =
         JsonToFlatbuffer<Configuration>(in.data());
     FlatbufferDetachedBuffer<Configuration> fb_reflection =
         JsonToFlatbuffer(in.data(), FlatbufferType(&Schema().message()));

     if (fb_typetable.span().size() == 0) {
       return false;
     }
     if (fb_reflection.span().size() == 0) {
       return false;
     }

     const ::std::string back_typetable = FlatbufferToJson(fb_typetable);
     const ::std::string back_reflection = FlatbufferToJson(fb_reflection);

     printf("Back to string via TypeTable: %s\n", back_typetable.c_str());
     printf("Back to string via reflection: %s\n", back_reflection.c_str());

     return back_typetable == out && back_reflection == out;
   }
 };

 // Tests that the various escapes work as expected.
 TEST_F(JsonToFlatbufferTest, ValidEscapes) {
   EXPECT_TRUE(
       JsonAndBack("{ \"foo_string\": \"a\\\"b\\/c\\bd\\fc\\nd\\re\\tf\" }",
                   "{ \"foo_string\": \"a\\\"b/c\\bd\\fc\\nd\\re\\tf\" }"));
 }

 // Test the easy ones.  Test every type, single, no nesting.
 TEST_F(JsonToFlatbufferTest, Basic) {
   EXPECT_TRUE(JsonAndBack("{ \"foo_bool\": true }"));

   EXPECT_TRUE(JsonAndBack("{ \"foo_byte\": 5 }"));
   EXPECT_TRUE(JsonAndBack("{ \"foo_ubyte\": 5 }"));

   EXPECT_TRUE(JsonAndBack("{ \"foo_short\": 5 }"));
   EXPECT_TRUE(JsonAndBack("{ \"foo_ushort\": 5 }"));

   EXPECT_TRUE(JsonAndBack("{ \"foo_int\": 5 }"));
   EXPECT_TRUE(JsonAndBack("{ \"foo_uint\": 5 }"));

   EXPECT_TRUE(JsonAndBack("{ \"foo_long\": 5 }"));
   EXPECT_TRUE(JsonAndBack("{ \"foo_ulong\": 5 }"));

   EXPECT_TRUE(JsonAndBack("{ \"foo_float\": 5.0 }"));
   EXPECT_TRUE(JsonAndBack("{ \"foo_double\": 5.0 }"));

   EXPECT_TRUE(JsonAndBack("{ \"foo_enum\": \"None\" }"));
   EXPECT_TRUE(JsonAndBack("{ \"foo_enum\": \"UType\" }"));

   EXPECT_TRUE(JsonAndBack("{ \"foo_enum_default\": \"None\" }"));
   EXPECT_TRUE(JsonAndBack("{ \"foo_enum_default\": \"UType\" }"));

   EXPECT_TRUE(JsonAndBack("{ \"foo_string\": \"baz\" }"));

   EXPECT_TRUE(JsonAndBack("{ \"foo_enum_nonconsecutive\": \"Zero\" }"));
   EXPECT_TRUE(JsonAndBack("{ \"foo_enum_nonconsecutive\": \"Big\" }"));
 }

 // Tests that Inf is handled correctly
 TEST_F(JsonToFlatbufferTest, Inf) {
   EXPECT_TRUE(JsonAndBack("{ \"foo_float\": inf }"));
   EXPECT_TRUE(JsonAndBack("{ \"foo_float\": -inf }"));
   EXPECT_TRUE(JsonAndBack("{ \"foo_double\": inf }"));
   EXPECT_TRUE(JsonAndBack("{ \"foo_double\": -inf }"));
 }

 // Tests that NaN is handled correctly
 TEST_F(JsonToFlatbufferTest, Nan) {
   EXPECT_TRUE(JsonAndBack("{ \"foo_float\": nan }"));
   EXPECT_TRUE(JsonAndBack("{ \"foo_float\": -nan }"));
   EXPECT_TRUE(JsonAndBack("{ \"foo_double\": nan }"));
   EXPECT_TRUE(JsonAndBack("{ \"foo_double\": -nan }"));
 }

 // Tests that unicode is handled correctly
 TEST_F(JsonToFlatbufferTest, Unicode) {
   EXPECT_TRUE(JsonAndBack("{ \"foo_string\": \"\\uF672\" }"));
   EXPECT_TRUE(JsonAndBack("{ \"foo_string\": \"\\uEFEF\" }"));
   EXPECT_TRUE(JsonAndBack("{ \"foo_string\": \"helloworld\\uD83E\\uDE94\" }"));
   EXPECT_TRUE(JsonAndBack("{ \"foo_string\": \"\\uD83C\\uDF32\" }"));
   EXPECT_FALSE(JsonAndBack("{ \"foo_string\": \"\\uP890\" }"));
   EXPECT_FALSE(JsonAndBack("{ \"foo_string\": \"\\u!FA8\" }"));
   EXPECT_FALSE(JsonAndBack("{ \"foo_string\": \"\\uF89\" }"));
   EXPECT_FALSE(JsonAndBack("{ \"foo_string\": \"\\uD83C\" }"));
 }

 // Tests that we can handle decimal points.
 TEST_F(JsonToFlatbufferTest, DecimalPoint) {
   EXPECT_TRUE(JsonAndBack("{ \"foo_float\": 5.1 }"));
   EXPECT_TRUE(JsonAndBack("{ \"foo_double\": 5.1 }"));
 }

 // Test what happens if you pass a field name that we don't know.
 TEST_F(JsonToFlatbufferTest, InvalidFieldName) {
   EXPECT_FALSE(JsonAndBack("{ \"foo\": 5 }"));
 }

 // Tests that an invalid enum type is handled correctly.
 TEST_F(JsonToFlatbufferTest, InvalidEnumName) {
   EXPECT_FALSE(JsonAndBack("{ \"foo_enum\": \"5ype\" }"));

   EXPECT_FALSE(JsonAndBack("{ \"foo_enum_default\": \"7ype\" }"));

   EXPECT_FALSE(JsonAndBack("{ \"foo_enum_nonconsecutive\": \"Nope\" }"));

   EXPECT_FALSE(
       JsonAndBack("{ \"foo_enum_nonconsecutive_default\": \"Nope\" }"));
 }

 // Test that adding a duplicate field results in an error.
 TEST_F(JsonToFlatbufferTest, DuplicateField) {
   EXPECT_FALSE(
       JsonAndBack("{ \"foo_int\": 5, \"foo_int\": 7 }", "{ \"foo_int\": 7 }"));
 }

 // Test that various syntax errors are caught correctly
 TEST_F(JsonToFlatbufferTest, InvalidSyntax) {
   EXPECT_FALSE(JsonAndBack("{ \"foo_int\": 5"));
   EXPECT_FALSE(JsonAndBack("{ \"foo_int\": 5 "));
   EXPECT_FALSE(JsonAndBack("{ \"foo_string\": \""));
   EXPECT_FALSE(JsonAndBack("{ \"foo_int\": 5 } }"));

   EXPECT_FALSE(JsonAndBack("{ foo_int: 5 }"));

   EXPECT_FALSE(JsonAndBack("{ \"foo_int\": 5, }", "{ \"foo_int\": 5 }"));

   EXPECT_FALSE(
       JsonAndBack("{ \"apps\":\n[\n{\n\"name\": \"woot\"\n},\n{\n\"name\": "
                   "\"wow\"\n} ,\n]\n}"));

   EXPECT_FALSE(JsonAndBack(
       "{ \"apps\": [ { \"name\": \"woot\" }, { \"name\": \"wow\" } ] , }"));

   EXPECT_FALSE(
       JsonAndBack("{ \"vector_foo_string\": [ \"bar\", \"baz\" ] , }"));

   EXPECT_FALSE(
       JsonAndBack("{ \"single_application\": { \"name\": \"woot\" } , }"));
 }

 // Test arrays of simple types.
 TEST_F(JsonToFlatbufferTest, Array) {
   EXPECT_TRUE(JsonAndBack("{ \"vector_foo_byte\": [ 9, 7, 1 ] }"));
   EXPECT_TRUE(JsonAndBack("{ \"vector_foo_byte\": [  ] }"));
   EXPECT_TRUE(JsonAndBack("{ \"vector_foo_ubyte\": [ 9, 7, 1 ] }"));
   EXPECT_TRUE(JsonAndBack("{ \"vector_foo_ubyte\": [  ] }"));

   EXPECT_TRUE(JsonAndBack("{ \"vector_foo_short\": [ 9, 7, 1 ] }"));
   EXPECT_TRUE(JsonAndBack("{ \"vector_foo_short\": [  ] }"));
   EXPECT_TRUE(JsonAndBack("{ \"vector_foo_ushort\": [ 9, 7, 1 ] }"));
   EXPECT_TRUE(JsonAndBack("{ \"vector_foo_ushort\": [  ] }"));

   EXPECT_TRUE(JsonAndBack("{ \"vector_foo_int\": [ 9, 7, 1 ] }"));
   EXPECT_TRUE(JsonAndBack("{ \"vector_foo_int\": [  ] }"));
   EXPECT_TRUE(JsonAndBack("{ \"vector_foo_uint\": [ 9, 7, 1 ] }"));
   EXPECT_TRUE(JsonAndBack("{ \"vector_foo_uint\": [  ] }"));

   EXPECT_TRUE(JsonAndBack("{ \"vector_foo_long\": [ 9, 7, 1 ] }"));
   EXPECT_TRUE(JsonAndBack("{ \"vector_foo_long\": [  ] }"));
   EXPECT_TRUE(JsonAndBack("{ \"vector_foo_ulong\": [ 9, 7, 1 ] }"));
   EXPECT_TRUE(JsonAndBack("{ \"vector_foo_ulong\": [  ] }"));

   EXPECT_TRUE(JsonAndBack("{ \"vector_foo_float\": [ 9.0, 7.0, 1.0 ] }"));
   EXPECT_TRUE(JsonAndBack("{ \"vector_foo_float\": [  ] }"));
   EXPECT_TRUE(JsonAndBack("{ \"vector_foo_double\": [ 9.0, 7.0, 1.0 ] }"));
   EXPECT_TRUE(JsonAndBack("{ \"vector_foo_double\": [  ] }"));

   EXPECT_TRUE(JsonAndBack("{ \"vector_foo_float\": [ 9, 7, 1 ] }",
                           "{ \"vector_foo_float\": [ 9.0, 7.0, 1.0 ] }"));
   EXPECT_TRUE(JsonAndBack("{ \"vector_foo_double\": [ 9, 7, 1 ] }",
                           "{ \"vector_foo_double\": [ 9.0, 7.0, 1.0 ] }"));

   EXPECT_TRUE(JsonAndBack("{ \"vector_foo_string\": [ \"bar\", \"baz\" ] }"));
   EXPECT_TRUE(JsonAndBack("{ \"vector_foo_string\": [  ] }"));
   EXPECT_TRUE(JsonAndBack(
       "{ \"vector_foo_enum\": [ \"None\", \"UType\", \"Bool\" ] }"));
   EXPECT_TRUE(JsonAndBack("{ \"vector_foo_enum\": [  ] }"));
 }

 // Test nested messages, and arrays of nested messages.
 TEST_F(JsonToFlatbufferTest, NestedStruct) {
   EXPECT_TRUE(
       JsonAndBack("{ \"single_application\": { \"name\": \"woot\" } }"));

   EXPECT_TRUE(JsonAndBack("{ \"single_application\": {  } }"));

   EXPECT_TRUE(JsonAndBack(
       "{ \"apps\": [ { \"name\": \"woot\" }, { \"name\": \"wow\" } ] }"));

   EXPECT_TRUE(JsonAndBack("{ \"apps\": [ {  }, {  } ] }"));
 }

 // Test mixing up whether a field is an object or a vector.
 TEST_F(JsonToFlatbufferTest, IncorrectVectorOfTables) {
   EXPECT_FALSE(
       JsonAndBack("{ \"single_application\": [ {\"name\": \"woot\"} ] }"));
   EXPECT_FALSE(JsonAndBack("{ \"apps\": { \"name\": \"woot\" } }"));
 }

 // Test that we can parse an empty message.
 TEST_F(JsonToFlatbufferTest, EmptyMessage) {
   // Empty message works.
   EXPECT_TRUE(JsonAndBack("{  }"));
 }

 // Tests that comments get stripped.
 TEST_F(JsonToFlatbufferTest, Comments) {
   EXPECT_TRUE(JsonAndBack("{ /* foo */ \"vector_foo_double\": [ 9, 7, 1 ] }",
                           "{ \"vector_foo_double\": [ 9.0, 7.0, 1.0 ] }"));
 }

 // Tests that multiple arrays get properly handled.
 TEST_F(JsonToFlatbufferTest, MultipleArrays) {
   EXPECT_TRUE(
       JsonAndBack("{ \"vector_foo_float\": [ 9, 7, 1 ], \"vector_foo_double\": "
                   "[ 9, 7, 1 ] }",
                   "{ \"vector_foo_float\": [ 9.0, 7.0, 1.0 ], "
                   "\"vector_foo_double\": [ 9.0, 7.0, 1.0 ] }"));
 }

 // Tests that multiple arrays get properly handled.
 TEST_F(JsonToFlatbufferTest, NestedArrays) {
   EXPECT_TRUE(
       JsonAndBack("{ \"vov\": { \"v\": [ { \"str\": [ \"a\", \"b\" ] }, { "
                   "\"str\": [ \"c\", \"d\" ] } ] } }"));
 }

 // TODO(austin): Missmatched values.
 //
 // TODO(austin): unions?

 TEST_F(JsonToFlatbufferTest, TrimmedVector) {
   std::string json_short = "{ \"vector_foo_int\": [ 0";
   for (int i = 1; i < 100; ++i) {
     json_short += ", ";
     json_short += std::to_string(i);
   }
   std::string json_long = json_short;
   json_short += " ] }";
   json_long += ", 101 ] }";

   const FlatbufferDetachedBuffer<Configuration> fb_short_typetable(
       JsonToFlatbuffer<Configuration>(json_short));
   ASSERT_GT(fb_short_typetable.span().size(), 0);
   const FlatbufferDetachedBuffer<Configuration> fb_long_typetable(
       JsonToFlatbuffer<Configuration>(json_long));
   ASSERT_GT(fb_long_typetable.span().size(), 0);
   const FlatbufferDetachedBuffer<Configuration> fb_short_reflection(
       JsonToFlatbuffer(json_short, FlatbufferType(&Schema().message())));
   ASSERT_GT(fb_short_reflection.span().size(), 0);
   const FlatbufferDetachedBuffer<Configuration> fb_long_reflection(
       JsonToFlatbuffer(json_long, FlatbufferType(&Schema().message())));
   ASSERT_GT(fb_long_reflection.span().size(), 0);

   const std::string back_json_short_typetable = FlatbufferToJson<Configuration>(
       fb_short_typetable, {.multi_line = false, .max_vector_size = 100});
   const std::string back_json_long_typetable = FlatbufferToJson<Configuration>(
       fb_long_typetable, {.multi_line = false, .max_vector_size = 100});
   const std::string back_json_short_reflection =
       FlatbufferToJson<Configuration>(
           fb_short_reflection, {.multi_line = false, .max_vector_size = 100});
   const std::string back_json_long_reflection = FlatbufferToJson<Configuration>(
       fb_long_reflection, {.multi_line = false, .max_vector_size = 100});

   EXPECT_EQ(json_short, back_json_short_typetable);
   EXPECT_EQ(json_short, back_json_short_reflection);
   EXPECT_EQ("{ \"vector_foo_int\": [ \"... 101 elements ...\" ] }",
             back_json_long_typetable);
   EXPECT_EQ("{ \"vector_foo_int\": [ \"... 101 elements ...\" ] }",
             back_json_long_reflection);
 }

 // Tests that a nullptr buffer prints nullptr.
 TEST_F(JsonToFlatbufferTest, NullptrData) {
   EXPECT_EQ("null", TableFlatbufferToJson((const flatbuffers::Table *)(nullptr),
                                           ConfigurationTypeTable()));
 }

 TEST_F(JsonToFlatbufferTest, SpacedData) {
   EXPECT_TRUE(CompareFlatBuffer(
       FlatbufferDetachedBuffer<VectorOfStrings>(
           JsonToFlatbuffer<VectorOfStrings>(R"json({
 	"str": [
 		"f o o",
 		"b a r",
 		"foo bar",
 		"bar foo"
 	]
 })json")),
       JsonFileToFlatbuffer<VectorOfStrings>(
           ArtifactPath("aos/json_to_flatbuffer_test_spaces.json"))));
 }

 }  // namespace testing
 }  // namespace aos
	#include "aos/json_to_flatbuffer.h"

	#include "aos/flatbuffer_merge.h"
	#include "aos/json_to_flatbuffer_generated.h"
	#include "aos/testing/path.h"
	#include "flatbuffers/minireflect.h"
	#include "gtest/gtest.h"

	namespace aos {
	namespace testing {

	class JsonToFlatbufferTest : public ::testing::Test {
	public:
	JsonToFlatbufferTest() {}

	FlatbufferVector<reflection::Schema> Schema() {
	return FileToFlatbuffer<reflection::Schema>(
	ArtifactPath("aos/json_to_flatbuffer.bfbs"));
	}

	bool JsonAndBack(const ::std::string str) { return JsonAndBack(str, str); }

	bool JsonAndBack(const ::std::string in, const ::std::string out) {
	printf("Testing: %s\n", in.c_str());
	FlatbufferDetachedBuffer<Configuration> fb_typetable =
	JsonToFlatbuffer<Configuration>(in.data());
	FlatbufferDetachedBuffer<Configuration> fb_reflection =
	JsonToFlatbuffer(in.data(), FlatbufferType(&Schema().message()));

	if (fb_typetable.span().size() == 0) {
	return false;
	}
	if (fb_reflection.span().size() == 0) {
	return false;
	}

	const ::std::string back_typetable = FlatbufferToJson(fb_typetable);
	const ::std::string back_reflection = FlatbufferToJson(fb_reflection);

	printf("Back to string via TypeTable: %s\n", back_typetable.c_str());
	printf("Back to string via reflection: %s\n", back_reflection.c_str());

	return back_typetable == out && back_reflection == out;
	}
	};

	// Tests that the various escapes work as expected.
	TEST_F(JsonToFlatbufferTest, ValidEscapes) {
	EXPECT_TRUE(
	JsonAndBack("{ \"foo_string\": \"a\\\"b\\/c\\bd\\fc\\nd\\re\\tf\" }",
	"{ \"foo_string\": \"a\\\"b/c\\bd\\fc\\nd\\re\\tf\" }"));
	}

	// Test the easy ones. Test every type, single, no nesting.
	TEST_F(JsonToFlatbufferTest, Basic) {
	EXPECT_TRUE(JsonAndBack("{ \"foo_bool\": true }"));

	EXPECT_TRUE(JsonAndBack("{ \"foo_byte\": 5 }"));
	EXPECT_TRUE(JsonAndBack("{ \"foo_ubyte\": 5 }"));

	EXPECT_TRUE(JsonAndBack("{ \"foo_short\": 5 }"));
	EXPECT_TRUE(JsonAndBack("{ \"foo_ushort\": 5 }"));

	EXPECT_TRUE(JsonAndBack("{ \"foo_int\": 5 }"));
	EXPECT_TRUE(JsonAndBack("{ \"foo_uint\": 5 }"));

	EXPECT_TRUE(JsonAndBack("{ \"foo_long\": 5 }"));
	EXPECT_TRUE(JsonAndBack("{ \"foo_ulong\": 5 }"));

	EXPECT_TRUE(JsonAndBack("{ \"foo_float\": 5.0 }"));
	EXPECT_TRUE(JsonAndBack("{ \"foo_double\": 5.0 }"));

	EXPECT_TRUE(JsonAndBack("{ \"foo_enum\": \"None\" }"));
	EXPECT_TRUE(JsonAndBack("{ \"foo_enum\": \"UType\" }"));

	EXPECT_TRUE(JsonAndBack("{ \"foo_enum_default\": \"None\" }"));
	EXPECT_TRUE(JsonAndBack("{ \"foo_enum_default\": \"UType\" }"));

	EXPECT_TRUE(JsonAndBack("{ \"foo_string\": \"baz\" }"));

	EXPECT_TRUE(JsonAndBack("{ \"foo_enum_nonconsecutive\": \"Zero\" }"));
	EXPECT_TRUE(JsonAndBack("{ \"foo_enum_nonconsecutive\": \"Big\" }"));
	}

	// Tests that Inf is handled correctly
	TEST_F(JsonToFlatbufferTest, Inf) {
	EXPECT_TRUE(JsonAndBack("{ \"foo_float\": inf }"));
	EXPECT_TRUE(JsonAndBack("{ \"foo_float\": -inf }"));
	EXPECT_TRUE(JsonAndBack("{ \"foo_double\": inf }"));
	EXPECT_TRUE(JsonAndBack("{ \"foo_double\": -inf }"));
	}

	// Tests that NaN is handled correctly
	TEST_F(JsonToFlatbufferTest, Nan) {
	EXPECT_TRUE(JsonAndBack("{ \"foo_float\": nan }"));
	EXPECT_TRUE(JsonAndBack("{ \"foo_float\": -nan }"));
	EXPECT_TRUE(JsonAndBack("{ \"foo_double\": nan }"));
	EXPECT_TRUE(JsonAndBack("{ \"foo_double\": -nan }"));
	}

	// Tests that unicode is handled correctly
	TEST_F(JsonToFlatbufferTest, Unicode) {
	EXPECT_TRUE(JsonAndBack("{ \"foo_string\": \"\\uF672\" }"));
	EXPECT_TRUE(JsonAndBack("{ \"foo_string\": \"\\uEFEF\" }"));
	EXPECT_TRUE(JsonAndBack("{ \"foo_string\": \"helloworld\\uD83E\\uDE94\" }"));
	EXPECT_TRUE(JsonAndBack("{ \"foo_string\": \"\\uD83C\\uDF32\" }"));
	EXPECT_FALSE(JsonAndBack("{ \"foo_string\": \"\\uP890\" }"));
	EXPECT_FALSE(JsonAndBack("{ \"foo_string\": \"\\u!FA8\" }"));
	EXPECT_FALSE(JsonAndBack("{ \"foo_string\": \"\\uF89\" }"));
	EXPECT_FALSE(JsonAndBack("{ \"foo_string\": \"\\uD83C\" }"));
	}

	// Tests that we can handle decimal points.
	TEST_F(JsonToFlatbufferTest, DecimalPoint) {
	EXPECT_TRUE(JsonAndBack("{ \"foo_float\": 5.1 }"));
	EXPECT_TRUE(JsonAndBack("{ \"foo_double\": 5.1 }"));
	}

	// Test what happens if you pass a field name that we don't know.
	TEST_F(JsonToFlatbufferTest, InvalidFieldName) {
	EXPECT_FALSE(JsonAndBack("{ \"foo\": 5 }"));
	}

	// Tests that an invalid enum type is handled correctly.
	TEST_F(JsonToFlatbufferTest, InvalidEnumName) {
	EXPECT_FALSE(JsonAndBack("{ \"foo_enum\": \"5ype\" }"));

	EXPECT_FALSE(JsonAndBack("{ \"foo_enum_default\": \"7ype\" }"));

	EXPECT_FALSE(JsonAndBack("{ \"foo_enum_nonconsecutive\": \"Nope\" }"));

	EXPECT_FALSE(
	JsonAndBack("{ \"foo_enum_nonconsecutive_default\": \"Nope\" }"));
	}

	// Test that adding a duplicate field results in an error.
	TEST_F(JsonToFlatbufferTest, DuplicateField) {
	EXPECT_FALSE(
	JsonAndBack("{ \"foo_int\": 5, \"foo_int\": 7 }", "{ \"foo_int\": 7 }"));
	}

	// Test that various syntax errors are caught correctly
	TEST_F(JsonToFlatbufferTest, InvalidSyntax) {
	EXPECT_FALSE(JsonAndBack("{ \"foo_int\": 5"));
	EXPECT_FALSE(JsonAndBack("{ \"foo_int\": 5 "));
	EXPECT_FALSE(JsonAndBack("{ \"foo_string\": \""));
	EXPECT_FALSE(JsonAndBack("{ \"foo_int\": 5 } }"));

	EXPECT_FALSE(JsonAndBack("{ foo_int: 5 }"));

	EXPECT_FALSE(JsonAndBack("{ \"foo_int\": 5, }", "{ \"foo_int\": 5 }"));

	EXPECT_FALSE(
	JsonAndBack("{ \"apps\":\n[\n{\n\"name\": \"woot\"\n},\n{\n\"name\": "
	"\"wow\"\n} ,\n]\n}"));

	EXPECT_FALSE(JsonAndBack(
	"{ \"apps\": [ { \"name\": \"woot\" }, { \"name\": \"wow\" } ] , }"));

	EXPECT_FALSE(
	JsonAndBack("{ \"vector_foo_string\": [ \"bar\", \"baz\" ] , }"));

	EXPECT_FALSE(
	JsonAndBack("{ \"single_application\": { \"name\": \"woot\" } , }"));
	}

	// Test arrays of simple types.
	TEST_F(JsonToFlatbufferTest, Array) {
	EXPECT_TRUE(JsonAndBack("{ \"vector_foo_byte\": [ 9, 7, 1 ] }"));
	EXPECT_TRUE(JsonAndBack("{ \"vector_foo_byte\": [ ] }"));
	EXPECT_TRUE(JsonAndBack("{ \"vector_foo_ubyte\": [ 9, 7, 1 ] }"));
	EXPECT_TRUE(JsonAndBack("{ \"vector_foo_ubyte\": [ ] }"));

	EXPECT_TRUE(JsonAndBack("{ \"vector_foo_short\": [ 9, 7, 1 ] }"));
	EXPECT_TRUE(JsonAndBack("{ \"vector_foo_short\": [ ] }"));
	EXPECT_TRUE(JsonAndBack("{ \"vector_foo_ushort\": [ 9, 7, 1 ] }"));
	EXPECT_TRUE(JsonAndBack("{ \"vector_foo_ushort\": [ ] }"));

	EXPECT_TRUE(JsonAndBack("{ \"vector_foo_int\": [ 9, 7, 1 ] }"));
	EXPECT_TRUE(JsonAndBack("{ \"vector_foo_int\": [ ] }"));
	EXPECT_TRUE(JsonAndBack("{ \"vector_foo_uint\": [ 9, 7, 1 ] }"));
	EXPECT_TRUE(JsonAndBack("{ \"vector_foo_uint\": [ ] }"));

	EXPECT_TRUE(JsonAndBack("{ \"vector_foo_long\": [ 9, 7, 1 ] }"));
	EXPECT_TRUE(JsonAndBack("{ \"vector_foo_long\": [ ] }"));
	EXPECT_TRUE(JsonAndBack("{ \"vector_foo_ulong\": [ 9, 7, 1 ] }"));
	EXPECT_TRUE(JsonAndBack("{ \"vector_foo_ulong\": [ ] }"));

	EXPECT_TRUE(JsonAndBack("{ \"vector_foo_float\": [ 9.0, 7.0, 1.0 ] }"));
	EXPECT_TRUE(JsonAndBack("{ \"vector_foo_float\": [ ] }"));
	EXPECT_TRUE(JsonAndBack("{ \"vector_foo_double\": [ 9.0, 7.0, 1.0 ] }"));
	EXPECT_TRUE(JsonAndBack("{ \"vector_foo_double\": [ ] }"));

	EXPECT_TRUE(JsonAndBack("{ \"vector_foo_float\": [ 9, 7, 1 ] }",
	"{ \"vector_foo_float\": [ 9.0, 7.0, 1.0 ] }"));
	EXPECT_TRUE(JsonAndBack("{ \"vector_foo_double\": [ 9, 7, 1 ] }",
	"{ \"vector_foo_double\": [ 9.0, 7.0, 1.0 ] }"));

	EXPECT_TRUE(JsonAndBack("{ \"vector_foo_string\": [ \"bar\", \"baz\" ] }"));
	EXPECT_TRUE(JsonAndBack("{ \"vector_foo_string\": [ ] }"));
	EXPECT_TRUE(JsonAndBack(
	"{ \"vector_foo_enum\": [ \"None\", \"UType\", \"Bool\" ] }"));
	EXPECT_TRUE(JsonAndBack("{ \"vector_foo_enum\": [ ] }"));
	}

	// Test nested messages, and arrays of nested messages.
	TEST_F(JsonToFlatbufferTest, NestedStruct) {
	EXPECT_TRUE(
	JsonAndBack("{ \"single_application\": { \"name\": \"woot\" } }"));

	EXPECT_TRUE(JsonAndBack("{ \"single_application\": { } }"));

	EXPECT_TRUE(JsonAndBack(
	"{ \"apps\": [ { \"name\": \"woot\" }, { \"name\": \"wow\" } ] }"));

	EXPECT_TRUE(JsonAndBack("{ \"apps\": [ { }, { } ] }"));
	}

	// Test mixing up whether a field is an object or a vector.
	TEST_F(JsonToFlatbufferTest, IncorrectVectorOfTables) {
	EXPECT_FALSE(
	JsonAndBack("{ \"single_application\": [ {\"name\": \"woot\"} ] }"));
	EXPECT_FALSE(JsonAndBack("{ \"apps\": { \"name\": \"woot\" } }"));
	}

	// Test that we can parse an empty message.
	TEST_F(JsonToFlatbufferTest, EmptyMessage) {
	// Empty message works.
	EXPECT_TRUE(JsonAndBack("{ }"));
	}

	// Tests that comments get stripped.
	TEST_F(JsonToFlatbufferTest, Comments) {
	EXPECT_TRUE(JsonAndBack("{ /* foo */ \"vector_foo_double\": [ 9, 7, 1 ] }",
	"{ \"vector_foo_double\": [ 9.0, 7.0, 1.0 ] }"));
	}

	// Tests that multiple arrays get properly handled.
	TEST_F(JsonToFlatbufferTest, MultipleArrays) {
	EXPECT_TRUE(
	JsonAndBack("{ \"vector_foo_float\": [ 9, 7, 1 ], \"vector_foo_double\": "
	"[ 9, 7, 1 ] }",
	"{ \"vector_foo_float\": [ 9.0, 7.0, 1.0 ], "
	"\"vector_foo_double\": [ 9.0, 7.0, 1.0 ] }"));
	}

	// Tests that multiple arrays get properly handled.
	TEST_F(JsonToFlatbufferTest, NestedArrays) {
	EXPECT_TRUE(
	JsonAndBack("{ \"vov\": { \"v\": [ { \"str\": [ \"a\", \"b\" ] }, { "
	"\"str\": [ \"c\", \"d\" ] } ] } }"));
	}

	// TODO(austin): Missmatched values.
	//
	// TODO(austin): unions?

	TEST_F(JsonToFlatbufferTest, TrimmedVector) {
	std::string json_short = "{ \"vector_foo_int\": [ 0";
	for (int i = 1; i < 100; ++i) {
	json_short += ", ";
	json_short += std::to_string(i);
	}
	std::string json_long = json_short;
	json_short += " ] }";
	json_long += ", 101 ] }";

	const FlatbufferDetachedBuffer<Configuration> fb_short_typetable(
	JsonToFlatbuffer<Configuration>(json_short));
	ASSERT_GT(fb_short_typetable.span().size(), 0);
	const FlatbufferDetachedBuffer<Configuration> fb_long_typetable(
	JsonToFlatbuffer<Configuration>(json_long));
	ASSERT_GT(fb_long_typetable.span().size(), 0);
	const FlatbufferDetachedBuffer<Configuration> fb_short_reflection(
	JsonToFlatbuffer(json_short, FlatbufferType(&Schema().message())));
	ASSERT_GT(fb_short_reflection.span().size(), 0);
	const FlatbufferDetachedBuffer<Configuration> fb_long_reflection(
	JsonToFlatbuffer(json_long, FlatbufferType(&Schema().message())));
	ASSERT_GT(fb_long_reflection.span().size(), 0);

	const std::string back_json_short_typetable = FlatbufferToJson<Configuration>(
	fb_short_typetable, {.multi_line = false, .max_vector_size = 100});
	const std::string back_json_long_typetable = FlatbufferToJson<Configuration>(
	fb_long_typetable, {.multi_line = false, .max_vector_size = 100});
	const std::string back_json_short_reflection =
	FlatbufferToJson<Configuration>(
	fb_short_reflection, {.multi_line = false, .max_vector_size = 100});
	const std::string back_json_long_reflection = FlatbufferToJson<Configuration>(
	fb_long_reflection, {.multi_line = false, .max_vector_size = 100});

	EXPECT_EQ(json_short, back_json_short_typetable);
	EXPECT_EQ(json_short, back_json_short_reflection);
	EXPECT_EQ("{ \"vector_foo_int\": [ \"... 101 elements ...\" ] }",
	back_json_long_typetable);
	EXPECT_EQ("{ \"vector_foo_int\": [ \"... 101 elements ...\" ] }",
	back_json_long_reflection);
	}

	// Tests that a nullptr buffer prints nullptr.
	TEST_F(JsonToFlatbufferTest, NullptrData) {
	EXPECT_EQ("null", TableFlatbufferToJson((const flatbuffers::Table *)(nullptr),
	ConfigurationTypeTable()));
	}

	TEST_F(JsonToFlatbufferTest, SpacedData) {
	EXPECT_TRUE(CompareFlatBuffer(
	FlatbufferDetachedBuffer<VectorOfStrings>(
	JsonToFlatbuffer<VectorOfStrings>(R"json({
	"str": [
	"f o o",
	"b a r",
	"foo bar",
	"bar foo"
	]
	})json")),
	JsonFileToFlatbuffer<VectorOfStrings>(
	ArtifactPath("aos/json_to_flatbuffer_test_spaces.json"))));
	}

	} // namespace testing
	} // namespace aos