BloombergLP::bdldfp::faux_numeric_limits<BloombergLP::bdldfp::Decimal128, DUMMY_TYPE>

Synopsis

Declared in <bdldfp_decimal.h>

template<class DUMMY_TYPE>
class faux_numeric_limits<BloombergLP::bdldfp::Decimal128, DUMMY_TYPE>;

Static Data Members

Name	Description
`digits`	The maximum number of significant digits, in the native (10) radix of the `BloombergLP::bdldfp::Decimal128` type that the type is able to represent. Defined to be 34 by IEEE-754.
`digits10`	The maximum number of significant decimal digits that the `BloombergLP::bdldfp::Decimal128` type is able to represent. Defined to be 34 by IEEE-754.
`has_denorm` [deprecated]	`BloombergLP::bdldfp::Decimal128` may contain denormal values.
`has_denorm_loss`	`BloombergLP::bdldfp::Decimal128` is able to distinguish loss of precision (floating-point underflow) due to denormalization from other causes.
`has_infinity`	`BloombergLP::bdldfp::Decimal128` can represent infinity.
`has_quiet_NaN`	`BloombergLP::bdldfp::Decimal128` can be a non-signaling Not a Number.
`has_signaling_NaN`	`BloombergLP::bdldfp::Decimal128` can be a signaling Not a Number.
`is_bounded`	Decimal floating-point types represent a finite set of values.
`is_exact`	`BloombergLP::bdldfp::Decimal128` is not an exact type, i.e.: calculations done on the type are not free of rounding errors. Note that integer and possibly rational types may be exact, floating-point types are never exact.
`is_iec559`	Decimal floating-point is not covered by the IEC 559 standard.
`is_integer`	`BloombergLP::bdldfp::Decimal128` is not an integer type.
`is_modulo`	Decimal floating-point types do not have modulo representation.
`is_signed`	`BloombergLP::bdldfp::Decimal128` is a signed type.
`is_specialized`	The template instance `std::numeric_limits<BloombergLP::bdldfp::Decimal128>` is meaningfully specialized. Also means that `BloombergLP::bdldfp::Decimal128` is a numeric type.
`max_digits10`	The number of significant decimal digits necessary to uniquely represent the significant digits of any `BloombergLP::bdldfp::Decimal128` value. Note that max_digit10 is the same as digits10 for decimal floating-point values.
`max_exponent`	The highest possible positive exponent for the native base of the `BloombergLP::bdldfp::Decimal128` type that represents a finite value. Defined to be 385 by IEEE-754.
`max_exponent10`	The highest possible positive decimal exponent of the `BloombergLP::bdldfp::Decimal128` type that represents a finite value. Defined to be 6145 by IEEE-754. Note that `max_exponent10` is the same as `max_exponent` for decimal types.
`max_precision`	The highest possible precision in the `BloombergLP::bdldfp::Decimal128` type that is large enough to output the smallest non-zero denormalized value in fixed notation.
`min_exponent`	The lowest possible negative exponent for the native base of the `BloombergLP::bdldfp::Decimal128` type that does not yet represent a denormal number. Defined to be -6143 by IEEE-754.
`min_exponent10`	The lowest possible negative decimal exponent in the `BloombergLP::bdldfp::Decimal128` type that does not yet represent a denormal number. Defined to be -6142 by IEEE-754. Note that `min_exponent10` is the same as `min_exponent` for decimal types.
`radix`	The base for `BloombergLP::bdldfp::Decimal128` is decimal or 10.
`round_style`	Decimal floating-point rounding style is defined to be indeterminate by the C and C++ Decimal TRs.
`tinyness_before`	Decimal floating-point types are able to detect if a value is too small to represent as a normalized value before rounding it.
`traps`	Decimal floating-point types implement traps to report arithmetic exceptions (required by IEEE-754).