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template<std::floating_point F = machine_real_scalar> |
| constexpr NumericRegion | dedekind::numbers::classify_region (F x, F near_zero_scale=F{64}, F huge_scale=F{0.5}) noexcept |
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template<std::floating_point F = machine_real_scalar> |
| constexpr F | dedekind::numbers::roundoff_proxy (F x) noexcept |
template<std::floating_point F, typename Op>
requires IsIEEEPropagationOp<Op, F> |
| constexpr Approx< F > | dedekind::numbers::propagate (const Approx< F > &a, const Approx< F > &b, const Op &op={}) noexcept |
| | Propagate approximation error through a binary IEEE operation.
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template<std::floating_point F = double> |
| constexpr Approx< F > | dedekind::numbers::demo_propagate_add (const Approx< F > &a, const Approx< F > &b) noexcept |
| | Demo: propagate error through IEEE addition.
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template<std::floating_point F = double> |
| constexpr Approx< F > | dedekind::numbers::demo_propagate_mul (const Approx< F > &a, const Approx< F > &b) noexcept |
| | Demo: propagate error through IEEE multiplication.
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template<std::floating_point F = double> |
| constexpr IEEE< F > | dedekind::numbers::demo_add_ignore (const IEEE< F > &a, const IEEE< F > &b) noexcept |
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template<std::floating_point F = double> |
| constexpr Approx< F > | dedekind::numbers::demo_add_report (const IEEE< F > &a, const IEEE< F > &b) noexcept |
| | Demo operation: IEEE add under report policy.
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template<std::floating_point F = double> |
| constexpr TernaryResult< Approx< F > > | dedekind::numbers::demo_add_adaptive (const IEEE< F > &a, const IEEE< F > &b) noexcept |
| | Demo operation: IEEE add under adaptive policy.
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Compatibility bridge for IEEE approximation policies.
- Copyright
- 2026 The Dedekind Authors Licensed under the Apache License, Version 2.0.
- Note
- "Lorsque les valeurs successivement attribuees a une meme variable
s'approchent indefiniment d'une valeur fixe, de maniere a finir par en
differer aussi peu qu'on voudra, cette derniere est appelee la limite de
toutes les autres." ("When the values successively assigned to the same variable approach
a fixed value indefinitely, so as to differ from it by as little as one
wishes, this latter is called the limit of all the others.") – Augustin-Louis Cauchy, Cours d'Analyse (1821)