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/**
* Autogenerated by Thrift Compiler (0.21.0)
*
* DO NOT EDIT UNLESS YOU ARE SURE THAT YOU KNOW WHAT YOU ARE DOING
* @generated
*/
#include "parquet_types.h"
#include <algorithm>
#include <ostream>
#include <thrift/TToString.h>
namespace parquet { namespace format {
int _kTypeValues[] = {
Type::BOOLEAN,
Type::INT32,
Type::INT64,
Type::INT96,
Type::FLOAT,
Type::DOUBLE,
Type::BYTE_ARRAY,
Type::FIXED_LEN_BYTE_ARRAY
};
const char* _kTypeNames[] = {
"BOOLEAN",
"INT32",
"INT64",
"INT96",
"FLOAT",
"DOUBLE",
"BYTE_ARRAY",
"FIXED_LEN_BYTE_ARRAY"
};
const std::map<int, const char*> _Type_VALUES_TO_NAMES(::apache::thrift::TEnumIterator(8, _kTypeValues, _kTypeNames), ::apache::thrift::TEnumIterator(-1, nullptr, nullptr));
std::ostream& operator<<(std::ostream& out, const Type::type& val) {
std::map<int, const char*>::const_iterator it = _Type_VALUES_TO_NAMES.find(val);
if (it != _Type_VALUES_TO_NAMES.end()) {
out << it->second;
} else {
out << static_cast<int>(val);
}
return out;
}
std::string to_string(const Type::type& val) {
std::map<int, const char*>::const_iterator it = _Type_VALUES_TO_NAMES.find(val);
if (it != _Type_VALUES_TO_NAMES.end()) {
return std::string(it->second);
} else {
return std::to_string(static_cast<int>(val));
}
}
int _kConvertedTypeValues[] = {
/**
* a BYTE_ARRAY actually contains UTF8 encoded chars
*/
ConvertedType::UTF8,
/**
* a map is converted as an optional field containing a repeated key/value pair
*/
ConvertedType::MAP,
/**
* a key/value pair is converted into a group of two fields
*/
ConvertedType::MAP_KEY_VALUE,
/**
* a list is converted into an optional field containing a repeated field for its
* values
*/
ConvertedType::LIST,
/**
* an enum is converted into a BYTE_ARRAY field
*/
ConvertedType::ENUM,
/**
* A decimal value.
*
* This may be used to annotate BYTE_ARRAY or FIXED_LEN_BYTE_ARRAY primitive
* types. The underlying byte array stores the unscaled value encoded as two's
* complement using big-endian byte order (the most significant byte is the
* zeroth element). The value of the decimal is the value * 10^{-scale}.
*
* This must be accompanied by a (maximum) precision and a scale in the
* SchemaElement. The precision specifies the number of digits in the decimal
* and the scale stores the location of the decimal point. For example 1.23
* would have precision 3 (3 total digits) and scale 2 (the decimal point is
* 2 digits over).
*/
ConvertedType::DECIMAL,
/**
* A Date
*
* Stored as days since Unix epoch, encoded as the INT32 physical type.
*
*/
ConvertedType::DATE,
/**
* A time
*
* The total number of milliseconds since midnight. The value is stored
* as an INT32 physical type.
*/
ConvertedType::TIME_MILLIS,
/**
* A time.
*
* The total number of microseconds since midnight. The value is stored as
* an INT64 physical type.
*/
ConvertedType::TIME_MICROS,
/**
* A date/time combination
*
* Date and time recorded as milliseconds since the Unix epoch. Recorded as
* a physical type of INT64.
*/
ConvertedType::TIMESTAMP_MILLIS,
/**
* A date/time combination
*
* Date and time recorded as microseconds since the Unix epoch. The value is
* stored as an INT64 physical type.
*/
ConvertedType::TIMESTAMP_MICROS,
/**
* An unsigned integer value.
*
* The number describes the maximum number of meaningful data bits in
* the stored value. 8, 16 and 32 bit values are stored using the
* INT32 physical type. 64 bit values are stored using the INT64
* physical type.
*
*/
ConvertedType::UINT_8,
ConvertedType::UINT_16,
ConvertedType::UINT_32,
ConvertedType::UINT_64,
/**
* A signed integer value.
*
* The number describes the maximum number of meaningful data bits in
* the stored value. 8, 16 and 32 bit values are stored using the
* INT32 physical type. 64 bit values are stored using the INT64
* physical type.
*
*/
ConvertedType::INT_8,
ConvertedType::INT_16,
ConvertedType::INT_32,
ConvertedType::INT_64,
/**
* An embedded JSON document
*
* A JSON document embedded within a single UTF8 column.
*/
ConvertedType::JSON,
/**
* An embedded BSON document
*
* A BSON document embedded within a single BYTE_ARRAY column.
*/
ConvertedType::BSON,
/**
* An interval of time
*
* This type annotates data stored as a FIXED_LEN_BYTE_ARRAY of length 12
* This data is composed of three separate little endian unsigned
* integers. Each stores a component of a duration of time. The first
* integer identifies the number of months associated with the duration,
* the second identifies the number of days associated with the duration
* and the third identifies the number of milliseconds associated with
* the provided duration. This duration of time is independent of any
* particular timezone or date.
*/
ConvertedType::INTERVAL
};
const char* _kConvertedTypeNames[] = {
/**
* a BYTE_ARRAY actually contains UTF8 encoded chars
*/
"UTF8",
/**
* a map is converted as an optional field containing a repeated key/value pair
*/
"MAP",
/**
* a key/value pair is converted into a group of two fields
*/
"MAP_KEY_VALUE",
/**
* a list is converted into an optional field containing a repeated field for its
* values
*/
"LIST",
/**
* an enum is converted into a BYTE_ARRAY field
*/
"ENUM",
/**
* A decimal value.
*
* This may be used to annotate BYTE_ARRAY or FIXED_LEN_BYTE_ARRAY primitive
* types. The underlying byte array stores the unscaled value encoded as two's
* complement using big-endian byte order (the most significant byte is the
* zeroth element). The value of the decimal is the value * 10^{-scale}.
*
* This must be accompanied by a (maximum) precision and a scale in the
* SchemaElement. The precision specifies the number of digits in the decimal
* and the scale stores the location of the decimal point. For example 1.23
* would have precision 3 (3 total digits) and scale 2 (the decimal point is
* 2 digits over).
*/
"DECIMAL",
/**
* A Date
*
* Stored as days since Unix epoch, encoded as the INT32 physical type.
*
*/
"DATE",
/**
* A time
*
* The total number of milliseconds since midnight. The value is stored
* as an INT32 physical type.
*/
"TIME_MILLIS",
/**
* A time.
*
* The total number of microseconds since midnight. The value is stored as
* an INT64 physical type.
*/
"TIME_MICROS",
/**
* A date/time combination
*
* Date and time recorded as milliseconds since the Unix epoch. Recorded as
* a physical type of INT64.
*/
"TIMESTAMP_MILLIS",
/**
* A date/time combination
*
* Date and time recorded as microseconds since the Unix epoch. The value is
* stored as an INT64 physical type.
*/
"TIMESTAMP_MICROS",
/**
* An unsigned integer value.
*
* The number describes the maximum number of meaningful data bits in
* the stored value. 8, 16 and 32 bit values are stored using the
* INT32 physical type. 64 bit values are stored using the INT64
* physical type.
*
*/
"UINT_8",
"UINT_16",
"UINT_32",
"UINT_64",
/**
* A signed integer value.
*
* The number describes the maximum number of meaningful data bits in
* the stored value. 8, 16 and 32 bit values are stored using the
* INT32 physical type. 64 bit values are stored using the INT64
* physical type.
*
*/
"INT_8",
"INT_16",
"INT_32",
"INT_64",
/**
* An embedded JSON document
*
* A JSON document embedded within a single UTF8 column.
*/
"JSON",
/**
* An embedded BSON document
*
* A BSON document embedded within a single BYTE_ARRAY column.
*/
"BSON",
/**
* An interval of time
*
* This type annotates data stored as a FIXED_LEN_BYTE_ARRAY of length 12
* This data is composed of three separate little endian unsigned
* integers. Each stores a component of a duration of time. The first
* integer identifies the number of months associated with the duration,
* the second identifies the number of days associated with the duration
* and the third identifies the number of milliseconds associated with
* the provided duration. This duration of time is independent of any
* particular timezone or date.
*/
"INTERVAL"
};
const std::map<int, const char*> _ConvertedType_VALUES_TO_NAMES(::apache::thrift::TEnumIterator(22, _kConvertedTypeValues, _kConvertedTypeNames), ::apache::thrift::TEnumIterator(-1, nullptr, nullptr));
std::ostream& operator<<(std::ostream& out, const ConvertedType::type& val) {
std::map<int, const char*>::const_iterator it = _ConvertedType_VALUES_TO_NAMES.find(val);
if (it != _ConvertedType_VALUES_TO_NAMES.end()) {
out << it->second;
} else {
out << static_cast<int>(val);
}
return out;
}
std::string to_string(const ConvertedType::type& val) {
std::map<int, const char*>::const_iterator it = _ConvertedType_VALUES_TO_NAMES.find(val);
if (it != _ConvertedType_VALUES_TO_NAMES.end()) {
return std::string(it->second);
} else {
return std::to_string(static_cast<int>(val));
}
}
int _kFieldRepetitionTypeValues[] = {
/**
* This field is required (can not be null) and each row has exactly 1 value.
*/
FieldRepetitionType::REQUIRED,
/**
* The field is optional (can be null) and each row has 0 or 1 values.
*/
FieldRepetitionType::OPTIONAL,
/**
* The field is repeated and can contain 0 or more values
*/
FieldRepetitionType::REPEATED
};
const char* _kFieldRepetitionTypeNames[] = {
/**
* This field is required (can not be null) and each row has exactly 1 value.
*/
"REQUIRED",
/**
* The field is optional (can be null) and each row has 0 or 1 values.
*/
"OPTIONAL",
/**
* The field is repeated and can contain 0 or more values
*/
"REPEATED"
};
const std::map<int, const char*> _FieldRepetitionType_VALUES_TO_NAMES(::apache::thrift::TEnumIterator(3, _kFieldRepetitionTypeValues, _kFieldRepetitionTypeNames), ::apache::thrift::TEnumIterator(-1, nullptr, nullptr));
std::ostream& operator<<(std::ostream& out, const FieldRepetitionType::type& val) {
std::map<int, const char*>::const_iterator it = _FieldRepetitionType_VALUES_TO_NAMES.find(val);
if (it != _FieldRepetitionType_VALUES_TO_NAMES.end()) {
out << it->second;
} else {
out << static_cast<int>(val);
}
return out;
}
std::string to_string(const FieldRepetitionType::type& val) {
std::map<int, const char*>::const_iterator it = _FieldRepetitionType_VALUES_TO_NAMES.find(val);
if (it != _FieldRepetitionType_VALUES_TO_NAMES.end()) {
return std::string(it->second);
} else {
return std::to_string(static_cast<int>(val));
}
}
int _kEdgeInterpolationAlgorithmValues[] = {
EdgeInterpolationAlgorithm::SPHERICAL,
EdgeInterpolationAlgorithm::VINCENTY,
EdgeInterpolationAlgorithm::THOMAS,
EdgeInterpolationAlgorithm::ANDOYER,
EdgeInterpolationAlgorithm::KARNEY
};
const char* _kEdgeInterpolationAlgorithmNames[] = {
"SPHERICAL",
"VINCENTY",
"THOMAS",
"ANDOYER",
"KARNEY"
};
const std::map<int, const char*> _EdgeInterpolationAlgorithm_VALUES_TO_NAMES(::apache::thrift::TEnumIterator(5, _kEdgeInterpolationAlgorithmValues, _kEdgeInterpolationAlgorithmNames), ::apache::thrift::TEnumIterator(-1, nullptr, nullptr));
std::ostream& operator<<(std::ostream& out, const EdgeInterpolationAlgorithm::type& val) {
std::map<int, const char*>::const_iterator it = _EdgeInterpolationAlgorithm_VALUES_TO_NAMES.find(val);
if (it != _EdgeInterpolationAlgorithm_VALUES_TO_NAMES.end()) {
out << it->second;
} else {
out << static_cast<int>(val);
}
return out;
}
std::string to_string(const EdgeInterpolationAlgorithm::type& val) {
std::map<int, const char*>::const_iterator it = _EdgeInterpolationAlgorithm_VALUES_TO_NAMES.find(val);
if (it != _EdgeInterpolationAlgorithm_VALUES_TO_NAMES.end()) {
return std::string(it->second);
} else {
return std::to_string(static_cast<int>(val));
}
}
int _kEncodingValues[] = {
/**
* Default encoding.
* BOOLEAN - 1 bit per value. 0 is false; 1 is true.
* INT32 - 4 bytes per value. Stored as little-endian.
* INT64 - 8 bytes per value. Stored as little-endian.
* FLOAT - 4 bytes per value. IEEE. Stored as little-endian.
* DOUBLE - 8 bytes per value. IEEE. Stored as little-endian.
* BYTE_ARRAY - 4 byte length stored as little endian, followed by bytes.
* FIXED_LEN_BYTE_ARRAY - Just the bytes.
*/
Encoding::PLAIN,
/**
* Deprecated: Dictionary encoding. The values in the dictionary are encoded in the
* plain type.
* in a data page use RLE_DICTIONARY instead.
* in a Dictionary page use PLAIN instead
*/
Encoding::PLAIN_DICTIONARY,
/**
* Group packed run length encoding. Usable for definition/repetition levels
* encoding and Booleans (on one bit: 0 is false; 1 is true.)
*/
Encoding::RLE,
/**
* Bit packed encoding. This can only be used if the data has a known max
* width. Usable for definition/repetition levels encoding.
*/
Encoding::BIT_PACKED,
/**
* Delta encoding for integers. This can be used for int columns and works best
* on sorted data
*/
Encoding::DELTA_BINARY_PACKED,
/**
* Encoding for byte arrays to separate the length values and the data. The lengths
* are encoded using DELTA_BINARY_PACKED
*/
Encoding::DELTA_LENGTH_BYTE_ARRAY,
/**
* Incremental-encoded byte array. Prefix lengths are encoded using DELTA_BINARY_PACKED.
* Suffixes are stored as delta length byte arrays.
*/
Encoding::DELTA_BYTE_ARRAY,
/**
* Dictionary encoding: the ids are encoded using the RLE encoding
*/
Encoding::RLE_DICTIONARY,
/**
* Encoding for fixed-width data (FLOAT, DOUBLE, INT32, INT64, FIXED_LEN_BYTE_ARRAY).
* K byte-streams are created where K is the size in bytes of the data type.
* The individual bytes of a value are scattered to the corresponding stream and
* the streams are concatenated.
* This itself does not reduce the size of the data but can lead to better compression
* afterwards.
*
* Added in 2.8 for FLOAT and DOUBLE.
* Support for INT32, INT64 and FIXED_LEN_BYTE_ARRAY added in 2.11.
*/
Encoding::BYTE_STREAM_SPLIT
};
const char* _kEncodingNames[] = {
/**
* Default encoding.
* BOOLEAN - 1 bit per value. 0 is false; 1 is true.
* INT32 - 4 bytes per value. Stored as little-endian.
* INT64 - 8 bytes per value. Stored as little-endian.
* FLOAT - 4 bytes per value. IEEE. Stored as little-endian.
* DOUBLE - 8 bytes per value. IEEE. Stored as little-endian.
* BYTE_ARRAY - 4 byte length stored as little endian, followed by bytes.
* FIXED_LEN_BYTE_ARRAY - Just the bytes.
*/
"PLAIN",
/**
* Deprecated: Dictionary encoding. The values in the dictionary are encoded in the
* plain type.
* in a data page use RLE_DICTIONARY instead.
* in a Dictionary page use PLAIN instead
*/
"PLAIN_DICTIONARY",
/**
* Group packed run length encoding. Usable for definition/repetition levels
* encoding and Booleans (on one bit: 0 is false; 1 is true.)
*/
"RLE",
/**
* Bit packed encoding. This can only be used if the data has a known max
* width. Usable for definition/repetition levels encoding.
*/
"BIT_PACKED",
/**
* Delta encoding for integers. This can be used for int columns and works best
* on sorted data
*/
"DELTA_BINARY_PACKED",
/**
* Encoding for byte arrays to separate the length values and the data. The lengths
* are encoded using DELTA_BINARY_PACKED
*/
"DELTA_LENGTH_BYTE_ARRAY",
/**
* Incremental-encoded byte array. Prefix lengths are encoded using DELTA_BINARY_PACKED.
* Suffixes are stored as delta length byte arrays.
*/
"DELTA_BYTE_ARRAY",
/**
* Dictionary encoding: the ids are encoded using the RLE encoding
*/
"RLE_DICTIONARY",
/**
* Encoding for fixed-width data (FLOAT, DOUBLE, INT32, INT64, FIXED_LEN_BYTE_ARRAY).
* K byte-streams are created where K is the size in bytes of the data type.
* The individual bytes of a value are scattered to the corresponding stream and
* the streams are concatenated.
* This itself does not reduce the size of the data but can lead to better compression
* afterwards.
*
* Added in 2.8 for FLOAT and DOUBLE.
* Support for INT32, INT64 and FIXED_LEN_BYTE_ARRAY added in 2.11.
*/
"BYTE_STREAM_SPLIT"
};
const std::map<int, const char*> _Encoding_VALUES_TO_NAMES(::apache::thrift::TEnumIterator(9, _kEncodingValues, _kEncodingNames), ::apache::thrift::TEnumIterator(-1, nullptr, nullptr));
std::ostream& operator<<(std::ostream& out, const Encoding::type& val) {
std::map<int, const char*>::const_iterator it = _Encoding_VALUES_TO_NAMES.find(val);
if (it != _Encoding_VALUES_TO_NAMES.end()) {
out << it->second;
} else {
out << static_cast<int>(val);
}
return out;
}
std::string to_string(const Encoding::type& val) {
std::map<int, const char*>::const_iterator it = _Encoding_VALUES_TO_NAMES.find(val);
if (it != _Encoding_VALUES_TO_NAMES.end()) {
return std::string(it->second);
} else {
return std::to_string(static_cast<int>(val));
}
}
int _kCompressionCodecValues[] = {
CompressionCodec::UNCOMPRESSED,
CompressionCodec::SNAPPY,
CompressionCodec::GZIP,
CompressionCodec::LZO,
CompressionCodec::BROTLI,
CompressionCodec::LZ4,
CompressionCodec::ZSTD,
CompressionCodec::LZ4_RAW
};
const char* _kCompressionCodecNames[] = {
"UNCOMPRESSED",
"SNAPPY",
"GZIP",
"LZO",
"BROTLI",
"LZ4",
"ZSTD",
"LZ4_RAW"
};
const std::map<int, const char*> _CompressionCodec_VALUES_TO_NAMES(::apache::thrift::TEnumIterator(8, _kCompressionCodecValues, _kCompressionCodecNames), ::apache::thrift::TEnumIterator(-1, nullptr, nullptr));
std::ostream& operator<<(std::ostream& out, const CompressionCodec::type& val) {
std::map<int, const char*>::const_iterator it = _CompressionCodec_VALUES_TO_NAMES.find(val);
if (it != _CompressionCodec_VALUES_TO_NAMES.end()) {
out << it->second;
} else {
out << static_cast<int>(val);
}
return out;
}
std::string to_string(const CompressionCodec::type& val) {
std::map<int, const char*>::const_iterator it = _CompressionCodec_VALUES_TO_NAMES.find(val);
if (it != _CompressionCodec_VALUES_TO_NAMES.end()) {
return std::string(it->second);
} else {
return std::to_string(static_cast<int>(val));
}
}
int _kPageTypeValues[] = {
PageType::DATA_PAGE,
PageType::INDEX_PAGE,
PageType::DICTIONARY_PAGE,
PageType::DATA_PAGE_V2
};
const char* _kPageTypeNames[] = {
"DATA_PAGE",
"INDEX_PAGE",
"DICTIONARY_PAGE",
"DATA_PAGE_V2"
};
const std::map<int, const char*> _PageType_VALUES_TO_NAMES(::apache::thrift::TEnumIterator(4, _kPageTypeValues, _kPageTypeNames), ::apache::thrift::TEnumIterator(-1, nullptr, nullptr));
std::ostream& operator<<(std::ostream& out, const PageType::type& val) {
std::map<int, const char*>::const_iterator it = _PageType_VALUES_TO_NAMES.find(val);
if (it != _PageType_VALUES_TO_NAMES.end()) {
out << it->second;
} else {
out << static_cast<int>(val);
}
return out;
}
std::string to_string(const PageType::type& val) {
std::map<int, const char*>::const_iterator it = _PageType_VALUES_TO_NAMES.find(val);
if (it != _PageType_VALUES_TO_NAMES.end()) {
return std::string(it->second);
} else {
return std::to_string(static_cast<int>(val));
}
}
int _kBoundaryOrderValues[] = {
BoundaryOrder::UNORDERED,
BoundaryOrder::ASCENDING,
BoundaryOrder::DESCENDING
};
const char* _kBoundaryOrderNames[] = {
"UNORDERED",
"ASCENDING",
"DESCENDING"
};
const std::map<int, const char*> _BoundaryOrder_VALUES_TO_NAMES(::apache::thrift::TEnumIterator(3, _kBoundaryOrderValues, _kBoundaryOrderNames), ::apache::thrift::TEnumIterator(-1, nullptr, nullptr));
std::ostream& operator<<(std::ostream& out, const BoundaryOrder::type& val) {
std::map<int, const char*>::const_iterator it = _BoundaryOrder_VALUES_TO_NAMES.find(val);
if (it != _BoundaryOrder_VALUES_TO_NAMES.end()) {
out << it->second;
} else {
out << static_cast<int>(val);
}
return out;
}
std::string to_string(const BoundaryOrder::type& val) {
std::map<int, const char*>::const_iterator it = _BoundaryOrder_VALUES_TO_NAMES.find(val);
if (it != _BoundaryOrder_VALUES_TO_NAMES.end()) {
return std::string(it->second);
} else {
return std::to_string(static_cast<int>(val));
}
}
SizeStatistics::~SizeStatistics() noexcept {
}
SizeStatistics::SizeStatistics() noexcept
: unencoded_byte_array_data_bytes(0) {
}
void SizeStatistics::__set_unencoded_byte_array_data_bytes(const int64_t val) {
this->unencoded_byte_array_data_bytes = val;
__isset.unencoded_byte_array_data_bytes = true;
}
void SizeStatistics::__set_repetition_level_histogram(const std::vector<int64_t> & val) {
this->repetition_level_histogram = val;
__isset.repetition_level_histogram = true;
}
void SizeStatistics::__set_definition_level_histogram(const std::vector<int64_t> & val) {
this->definition_level_histogram = val;
__isset.definition_level_histogram = true;
}
std::ostream& operator<<(std::ostream& out, const SizeStatistics& obj)
{
obj.printTo(out);
return out;
}
void swap(SizeStatistics &a, SizeStatistics &b) {
using ::std::swap;
swap(a.unencoded_byte_array_data_bytes, b.unencoded_byte_array_data_bytes);
swap(a.repetition_level_histogram, b.repetition_level_histogram);
swap(a.definition_level_histogram, b.definition_level_histogram);
swap(a.__isset, b.__isset);
}
bool SizeStatistics::operator==(const SizeStatistics & rhs) const
{
if (__isset.unencoded_byte_array_data_bytes != rhs.__isset.unencoded_byte_array_data_bytes)
return false;
else if (__isset.unencoded_byte_array_data_bytes && !(unencoded_byte_array_data_bytes == rhs.unencoded_byte_array_data_bytes))
return false;
if (__isset.repetition_level_histogram != rhs.__isset.repetition_level_histogram)
return false;
else if (__isset.repetition_level_histogram && !(repetition_level_histogram == rhs.repetition_level_histogram))
return false;
if (__isset.definition_level_histogram != rhs.__isset.definition_level_histogram)
return false;
else if (__isset.definition_level_histogram && !(definition_level_histogram == rhs.definition_level_histogram))
return false;
return true;
}
SizeStatistics::SizeStatistics(const SizeStatistics& other12) {
unencoded_byte_array_data_bytes = other12.unencoded_byte_array_data_bytes;
repetition_level_histogram = other12.repetition_level_histogram;
definition_level_histogram = other12.definition_level_histogram;
__isset = other12.__isset;
}
SizeStatistics::SizeStatistics(SizeStatistics&& other13) noexcept {
unencoded_byte_array_data_bytes = other13.unencoded_byte_array_data_bytes;
repetition_level_histogram = std::move(other13.repetition_level_histogram);
definition_level_histogram = std::move(other13.definition_level_histogram);
__isset = other13.__isset;
}
SizeStatistics& SizeStatistics::operator=(const SizeStatistics& other14) {
unencoded_byte_array_data_bytes = other14.unencoded_byte_array_data_bytes;
repetition_level_histogram = other14.repetition_level_histogram;
definition_level_histogram = other14.definition_level_histogram;
__isset = other14.__isset;
return *this;
}
SizeStatistics& SizeStatistics::operator=(SizeStatistics&& other15) noexcept {
unencoded_byte_array_data_bytes = other15.unencoded_byte_array_data_bytes;
repetition_level_histogram = std::move(other15.repetition_level_histogram);
definition_level_histogram = std::move(other15.definition_level_histogram);
__isset = other15.__isset;
return *this;
}
void SizeStatistics::printTo(std::ostream& out) const {
using ::apache::thrift::to_string;
out << "SizeStatistics(";
out << "unencoded_byte_array_data_bytes="; (__isset.unencoded_byte_array_data_bytes ? (out << to_string(unencoded_byte_array_data_bytes)) : (out << "<null>"));
out << ", " << "repetition_level_histogram="; (__isset.repetition_level_histogram ? (out << to_string(repetition_level_histogram)) : (out << "<null>"));
out << ", " << "definition_level_histogram="; (__isset.definition_level_histogram ? (out << to_string(definition_level_histogram)) : (out << "<null>"));
out << ")";
}
BoundingBox::~BoundingBox() noexcept {
}
BoundingBox::BoundingBox() noexcept
: xmin(0),
xmax(0),
ymin(0),
ymax(0),
zmin(0),
zmax(0),
mmin(0),
mmax(0) {
}
void BoundingBox::__set_xmin(const double val) {
this->xmin = val;
}
void BoundingBox::__set_xmax(const double val) {
this->xmax = val;
}
void BoundingBox::__set_ymin(const double val) {
this->ymin = val;
}
void BoundingBox::__set_ymax(const double val) {
this->ymax = val;
}
void BoundingBox::__set_zmin(const double val) {
this->zmin = val;
__isset.zmin = true;
}
void BoundingBox::__set_zmax(const double val) {
this->zmax = val;
__isset.zmax = true;
}
void BoundingBox::__set_mmin(const double val) {
this->mmin = val;
__isset.mmin = true;
}
void BoundingBox::__set_mmax(const double val) {
this->mmax = val;
__isset.mmax = true;
}
std::ostream& operator<<(std::ostream& out, const BoundingBox& obj)
{
obj.printTo(out);
return out;
}
void swap(BoundingBox &a, BoundingBox &b) {
using ::std::swap;
swap(a.xmin, b.xmin);
swap(a.xmax, b.xmax);
swap(a.ymin, b.ymin);
swap(a.ymax, b.ymax);
swap(a.zmin, b.zmin);
swap(a.zmax, b.zmax);
swap(a.mmin, b.mmin);
swap(a.mmax, b.mmax);
swap(a.__isset, b.__isset);
}
bool BoundingBox::operator==(const BoundingBox & rhs) const
{
if (!(xmin == rhs.xmin))
return false;
if (!(xmax == rhs.xmax))
return false;
if (!(ymin == rhs.ymin))
return false;
if (!(ymax == rhs.ymax))
return false;
if (__isset.zmin != rhs.__isset.zmin)
return false;
else if (__isset.zmin && !(zmin == rhs.zmin))
return false;
if (__isset.zmax != rhs.__isset.zmax)
return false;
else if (__isset.zmax && !(zmax == rhs.zmax))
return false;
if (__isset.mmin != rhs.__isset.mmin)
return false;
else if (__isset.mmin && !(mmin == rhs.mmin))
return false;
if (__isset.mmax != rhs.__isset.mmax)
return false;
else if (__isset.mmax && !(mmax == rhs.mmax))
return false;
return true;
}
BoundingBox::BoundingBox(const BoundingBox& other16) noexcept {
xmin = other16.xmin;
xmax = other16.xmax;
ymin = other16.ymin;
ymax = other16.ymax;
zmin = other16.zmin;
zmax = other16.zmax;
mmin = other16.mmin;
mmax = other16.mmax;
__isset = other16.__isset;
}
BoundingBox::BoundingBox(BoundingBox&& other17) noexcept {
xmin = other17.xmin;
xmax = other17.xmax;
ymin = other17.ymin;
ymax = other17.ymax;
zmin = other17.zmin;
zmax = other17.zmax;
mmin = other17.mmin;
mmax = other17.mmax;
__isset = other17.__isset;
}
BoundingBox& BoundingBox::operator=(const BoundingBox& other18) noexcept {
xmin = other18.xmin;
xmax = other18.xmax;
ymin = other18.ymin;
ymax = other18.ymax;
zmin = other18.zmin;
zmax = other18.zmax;
mmin = other18.mmin;
mmax = other18.mmax;
__isset = other18.__isset;
return *this;
}
BoundingBox& BoundingBox::operator=(BoundingBox&& other19) noexcept {
xmin = other19.xmin;
xmax = other19.xmax;
ymin = other19.ymin;
ymax = other19.ymax;
zmin = other19.zmin;
zmax = other19.zmax;
mmin = other19.mmin;
mmax = other19.mmax;
__isset = other19.__isset;
return *this;
}
void BoundingBox::printTo(std::ostream& out) const {
using ::apache::thrift::to_string;
out << "BoundingBox(";
out << "xmin=" << to_string(xmin);
out << ", " << "xmax=" << to_string(xmax);
out << ", " << "ymin=" << to_string(ymin);
out << ", " << "ymax=" << to_string(ymax);
out << ", " << "zmin="; (__isset.zmin ? (out << to_string(zmin)) : (out << "<null>"));
out << ", " << "zmax="; (__isset.zmax ? (out << to_string(zmax)) : (out << "<null>"));
out << ", " << "mmin="; (__isset.mmin ? (out << to_string(mmin)) : (out << "<null>"));
out << ", " << "mmax="; (__isset.mmax ? (out << to_string(mmax)) : (out << "<null>"));
out << ")";
}
GeospatialStatistics::~GeospatialStatistics() noexcept {
}
GeospatialStatistics::GeospatialStatistics() noexcept {
}
void GeospatialStatistics::__set_bbox(const BoundingBox& val) {
this->bbox = val;
__isset.bbox = true;
}
void GeospatialStatistics::__set_geospatial_types(const std::vector<int32_t> & val) {
this->geospatial_types = val;
__isset.geospatial_types = true;
}
std::ostream& operator<<(std::ostream& out, const GeospatialStatistics& obj)
{
obj.printTo(out);
return out;
}
void swap(GeospatialStatistics &a, GeospatialStatistics &b) {
using ::std::swap;
swap(a.bbox, b.bbox);
swap(a.geospatial_types, b.geospatial_types);
swap(a.__isset, b.__isset);
}
bool GeospatialStatistics::operator==(const GeospatialStatistics & rhs) const
{
if (__isset.bbox != rhs.__isset.bbox)
return false;
else if (__isset.bbox && !(bbox == rhs.bbox))
return false;
if (__isset.geospatial_types != rhs.__isset.geospatial_types)
return false;
else if (__isset.geospatial_types && !(geospatial_types == rhs.geospatial_types))
return false;
return true;
}
GeospatialStatistics::GeospatialStatistics(const GeospatialStatistics& other26) {
bbox = other26.bbox;
geospatial_types = other26.geospatial_types;
__isset = other26.__isset;
}
GeospatialStatistics::GeospatialStatistics(GeospatialStatistics&& other27) noexcept {
bbox = std::move(other27.bbox);
geospatial_types = std::move(other27.geospatial_types);
__isset = other27.__isset;
}
GeospatialStatistics& GeospatialStatistics::operator=(const GeospatialStatistics& other28) {
bbox = other28.bbox;
geospatial_types = other28.geospatial_types;
__isset = other28.__isset;
return *this;
}
GeospatialStatistics& GeospatialStatistics::operator=(GeospatialStatistics&& other29) noexcept {
bbox = std::move(other29.bbox);
geospatial_types = std::move(other29.geospatial_types);
__isset = other29.__isset;
return *this;
}
void GeospatialStatistics::printTo(std::ostream& out) const {
using ::apache::thrift::to_string;
out << "GeospatialStatistics(";
out << "bbox="; (__isset.bbox ? (out << to_string(bbox)) : (out << "<null>"));
out << ", " << "geospatial_types="; (__isset.geospatial_types ? (out << to_string(geospatial_types)) : (out << "<null>"));
out << ")";
}
Statistics::~Statistics() noexcept {
}
Statistics::Statistics() noexcept
: max(),
min(),
null_count(0),
distinct_count(0),
max_value(),
min_value(),
is_max_value_exact(0),
is_min_value_exact(0) {
}
void Statistics::__set_max(const std::string& val) {
this->max = val;
__isset.max = true;
}
void Statistics::__set_min(const std::string& val) {
this->min = val;