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crate::ix!();
//-------------------------------------------[.cpp/bitcoin/src/test/fuzz/string.cpp]
pub fn legacy_parse_prechecks(str_: &String) -> bool {
todo!();
/*
if (str.empty()) // No empty string allowed
return false;
if (str.size() >= 1 && (IsSpace(str[0]) || IsSpace(str[str.size() - 1]))) // No padding allowed
return false;
if (!ValidAsCString(str)) // No embedded NUL characters allowed
return false;
return true;
*/
}
pub fn legacy_parse_int32(
str_: &String,
out: *mut i32) -> bool {
todo!();
/*
if (!LegacyParsePrechecks(str))
return false;
char* endp = nullptr;
errno = 0; // strtol will not set errno if valid
long int n = strtol(str.c_str(), &endp, 10);
if (out) *out = (int32_t)n;
// Note that strtol returns a *long int*, so even if strtol doesn't report an over/underflow
// we still have to check that the returned value is within the range of an *int32_t*. On 64-bit
// platforms the size of these types may be different.
return endp && *endp == 0 && !errno &&
n >= std::numeric_limits<int32_t>::min() &&
n <= std::numeric_limits<int32_t>::max();
*/
}
pub fn legacy_parse_int64(
str_: &String,
out: *mut i64) -> bool {
todo!();
/*
if (!LegacyParsePrechecks(str))
return false;
char* endp = nullptr;
errno = 0; // strtoll will not set errno if valid
long long int n = strtoll(str.c_str(), &endp, 10);
if (out) *out = (int64_t)n;
// Note that strtoll returns a *long long int*, so even if strtol doesn't report an over/underflow
// we still have to check that the returned value is within the range of an *int64_t*.
return endp && *endp == 0 && !errno &&
n >= std::numeric_limits<int64_t>::min() &&
n <= std::numeric_limits<int64_t>::max();
*/
}
pub fn legacy_parse_uint32(
str_: &String,
out: *mut u32) -> bool {
todo!();
/*
if (!LegacyParsePrechecks(str))
return false;
if (str.size() >= 1 && str[0] == '-') // Reject negative values, unfortunately strtoul accepts these by default if they fit in the range
return false;
char* endp = nullptr;
errno = 0; // strtoul will not set errno if valid
unsigned long int n = strtoul(str.c_str(), &endp, 10);
if (out) *out = (uint32_t)n;
// Note that strtoul returns a *unsigned long int*, so even if it doesn't report an over/underflow
// we still have to check that the returned value is within the range of an *uint32_t*. On 64-bit
// platforms the size of these types may be different.
return endp && *endp == 0 && !errno &&
n <= std::numeric_limits<uint32_t>::max();
*/
}
pub fn legacy_parse_uint8(
str_: &String,
out: *mut u8) -> bool {
todo!();
/*
uint32_t u32;
if (!LegacyParseUInt32(str, &u32) || u32 > std::numeric_limits<uint8_t>::max()) {
return false;
}
if (out != nullptr) {
*out = static_cast<uint8_t>(u32);
}
return true;
*/
}
pub fn legacy_parse_uint64(
str_: &String,
out: *mut u64) -> bool {
todo!();
/*
if (!LegacyParsePrechecks(str))
return false;
if (str.size() >= 1 && str[0] == '-') // Reject negative values, unfortunately strtoull accepts these by default if they fit in the range
return false;
char* endp = nullptr;
errno = 0; // strtoull will not set errno if valid
unsigned long long int n = strtoull(str.c_str(), &endp, 10);
if (out) *out = (uint64_t)n;
// Note that strtoull returns a *unsigned long long int*, so even if it doesn't report an over/underflow
// we still have to check that the returned value is within the range of an *uint64_t*.
return endp && *endp == 0 && !errno &&
n <= std::numeric_limits<uint64_t>::max();
*/
}
/**
| For backwards compatibility checking.
|
*/
pub fn atoi64_legacy(str_: &String) -> i64 {
todo!();
/*
return strtoll(str.c_str(), nullptr, 10);
*/
}
#[fuzz_test] fn string() {
todo!();
/*
FuzzedDataProvider fuzzed_data_provider(buffer.data(), buffer.size());
const std::string random_string_1 = fuzzed_data_provider.ConsumeRandomLengthString(32);
const std::string random_string_2 = fuzzed_data_provider.ConsumeRandomLengthString(32);
const std::vector<std::string> random_string_vector = ConsumeRandomLengthStringVector(fuzzed_data_provider);
(c_void)AmountErrMsg(random_string_1, random_string_2);
(c_void)AmountHighWarn(random_string_1);
BlockFilterType block_filter_type;
(c_void)BlockFilterTypeByName(random_string_1, block_filter_type);
(c_void)Capitalize(random_string_1);
(c_void)CopyrightHolders(random_string_1);
FeeEstimateMode fee_estimate_mode;
(c_void)FeeModeFromString(random_string_1, fee_estimate_mode);
(c_void)FormatParagraph(random_string_1, fuzzed_data_provider.ConsumeIntegralInRange<size_t>(0, 1000), fuzzed_data_provider.ConsumeIntegralInRange<size_t>(0, 1000));
(c_void)FormatSubVersion(random_string_1, fuzzed_data_provider.ConsumeIntegral<int>(), random_string_vector);
(c_void)GetDescriptorChecksum(random_string_1);
(c_void)HelpExampleCli(random_string_1, random_string_2);
(c_void)HelpExampleRpc(random_string_1, random_string_2);
(c_void)HelpMessageGroup(random_string_1);
(c_void)HelpMessageOpt(random_string_1, random_string_2);
(c_void)IsDeprecatedRPCEnabled(random_string_1);
(c_void)Join(random_string_vector, random_string_1);
(c_void)JSONRPCError(fuzzed_data_provider.ConsumeIntegral<int>(), random_string_1);
const util::Settings settings;
(c_void)OnlyHasDefaultSectionSetting(settings, random_string_1, random_string_2);
(c_void)ParseNetwork(random_string_1);
try {
(c_void)ParseNonRFCJSONValue(random_string_1);
} catch (const std::runtime_error&) {
}
(c_void)ParseOutputType(random_string_1);
(c_void)RemovePrefix(random_string_1, random_string_2);
(c_void)ResolveErrMsg(random_string_1, random_string_2);
try {
(c_void)RPCConvertNamedValues(random_string_1, random_string_vector);
} catch (const std::runtime_error&) {
}
try {
(c_void)RPCConvertValues(random_string_1, random_string_vector);
} catch (const std::runtime_error&) {
}
(c_void)SanitizeString(random_string_1);
(c_void)SanitizeString(random_string_1, fuzzed_data_provider.ConsumeIntegralInRange<int>(0, 3));
#ifndef WIN32
(c_void)ShellEscape(random_string_1);
#endif // WIN32
uint16_t port_out;
std::string host_out;
SplitHostPort(random_string_1, port_out, host_out);
(c_void)TimingResistantEqual(random_string_1, random_string_2);
(c_void)ToLower(random_string_1);
(c_void)ToUpper(random_string_1);
(c_void)TrimString(random_string_1);
(c_void)TrimString(random_string_1, random_string_2);
(c_void)urlDecode(random_string_1);
(c_void)ValidAsCString(random_string_1);
(c_void)_(random_string_1.c_str());
try {
throw scriptnum_error{random_string_1};
} catch (const std::runtime_error&) {
}
{
DataStream data_stream{SER_NETWORK, INIT_PROTO_VERSION};
std::string s;
auto limited_string = LIMITED_STRING(s, 10);
data_stream << random_string_1;
try {
data_stream >> limited_string;
assert(data_stream.empty());
assert(s.size() <= random_string_1.size());
assert(s.size() <= 10);
if (!random_string_1.empty()) {
assert(!s.empty());
}
} catch (const std::ios_base::failure&) {
}
}
{
DataStream data_stream{SER_NETWORK, INIT_PROTO_VERSION};
const auto limited_string = LIMITED_STRING(random_string_1, 10);
data_stream << limited_string;
std::string deserialized_string;
data_stream >> deserialized_string;
assert(data_stream.empty());
assert(deserialized_string == random_string_1);
}
{
int64_t amount_out;
(c_void)ParseFixedPoint(random_string_1, fuzzed_data_provider.ConsumeIntegralInRange<int>(0, 1024), &amount_out);
}
{
(c_void)Untranslated(random_string_1);
const bilingual_str bs1{random_string_1, random_string_2};
const bilingual_str bs2{random_string_2, random_string_1};
(c_void)(bs1 + bs2);
}
{
int32_t i32;
int64_t i64;
uint32_t u32;
uint64_t u64;
uint8_t u8;
const bool ok_i32 = ParseInt32(random_string_1, &i32);
const bool ok_i64 = ParseInt64(random_string_1, &i64);
const bool ok_u32 = ParseUInt32(random_string_1, &u32);
const bool ok_u64 = ParseUInt64(random_string_1, &u64);
const bool ok_u8 = ParseUInt8(random_string_1, &u8);
int32_t i32_legacy;
int64_t i64_legacy;
uint32_t u32_legacy;
uint64_t u64_legacy;
uint8_t u8_legacy;
const bool ok_i32_legacy = LegacyParseInt32(random_string_1, &i32_legacy);
const bool ok_i64_legacy = LegacyParseInt64(random_string_1, &i64_legacy);
const bool ok_u32_legacy = LegacyParseUInt32(random_string_1, &u32_legacy);
const bool ok_u64_legacy = LegacyParseUInt64(random_string_1, &u64_legacy);
const bool ok_u8_legacy = LegacyParseUInt8(random_string_1, &u8_legacy);
assert(ok_i32 == ok_i32_legacy);
assert(ok_i64 == ok_i64_legacy);
assert(ok_u32 == ok_u32_legacy);
assert(ok_u64 == ok_u64_legacy);
assert(ok_u8 == ok_u8_legacy);
if (ok_i32) {
assert(i32 == i32_legacy);
}
if (ok_i64) {
assert(i64 == i64_legacy);
}
if (ok_u32) {
assert(u32 == u32_legacy);
}
if (ok_u64) {
assert(u64 == u64_legacy);
}
if (ok_u8) {
assert(u8 == u8_legacy);
}
}
{
const int atoi_result = atoi(random_string_1.c_str());
const int locale_independent_atoi_result = LocaleIndependentAtoi<int>(random_string_1);
const int64_t atoi64_result = atoi64_legacy(random_string_1);
const bool out_of_range = atoi64_result < std::numeric_limits<int>::min() || atoi64_result > std::numeric_limits<int>::max();
if (out_of_range) {
assert(locale_independent_atoi_result == 0);
} else {
assert(atoi_result == locale_independent_atoi_result);
}
}
{
const int64_t atoi64_result = atoi64_legacy(random_string_1);
const int64_t locale_independent_atoi_result = LocaleIndependentAtoi<int64_t>(random_string_1);
assert(atoi64_result == locale_independent_atoi_result || locale_independent_atoi_result == 0);
}
*/
}