std::numeric_limits::has_denorm_loss(3)

NAME
std::numeric_limits::has_denorm_loss - std::numeric_limits::has_denorm_loss

Synopsis
   static const bool has_denorm_loss; (until C++11)
   static constexpr bool has_denorm_loss; (since C++11)
   The value of std::numeric_limits<T>::has_denorm_loss is true for all floating-point
   types T that detect loss of precision when creating a subnormal number as
   denormalization loss rather than as inexact result (see below).

Standard specializations
   T value of std::numeric_limits<T>::has_denorm_loss
   /* non-specialized */ false
   bool false
   char false
   signed char false
   unsigned char false
   wchar_t false
   char8_t (C++20) false
   char16_t (C++11) false
   char32_t (C++11) false
   short false
   unsigned short false
   int false
   unsigned int false
   long false
   unsigned long false
   long long (C++11) false
   unsigned long long (C++11) false
   float implementation-defined
   double implementation-defined
   long double implementation-defined

Notes
   Standard-compliant IEEE 754 floating-point implementations of subnormal numbers are
   required to detect the loss of accuracy associated with the creation of such number,
   if it occurs, and may do so in one of the two distinct ways:
    1. Denormalization loss: the delivered result differs from what would have been
       computed were exponent range unbounded.
    2. Inexact result: the delivered result differs from what would have been computed
       were both exponent range and precision unbounded.
   No implementation of denormalization loss mechanism exists (accuracy loss is
   detected after rounding, as inexact result), and this option was removed in the 2008
   revision of IEEE Std 754.
   libstdc++, libc++, libCstd, and stlport4 define this constant as false for all
   floating-point types. Microsoft Visual Studio defines it as true for all
   floating-point types.
   As with any floating-point computations, accuracy loss may raise FE_INEXACT

Example
    This section is incomplete
    Reason: no example

See also
   tinyness_before identifies floating-point types that detect tinyness before rounding
   [static] (public static member constant)
   has_denorm identifies the denormalization style used by the floating-point type
   [static] (public static member constant)