double comp_ellint_3 ( double k, double nu );
/* floating-point-type */ comp_ellint_3( /* floating-point-type */ k,
/* floating-point-type */ nu );
float comp_ellint_3f( float k, float nu );
(2) (since C++17)long double comp_ellint_3l( long double k, long double nu );
(3) (since C++17) template< class Arithmetic1, class Arithmetic2 >/* common-floating-point-type */
Computes the
complete elliptic integral of the third kindof the arguments
kand
nu.
The library provides overloads ofstd::comp_ellint_3
for all cv-unqualified floating-point types as the type of the parameters k and nu.(since C++23)
A) Additional overloads are provided for all other combinations of arithmetic types.
[edit] Parameters k - elliptic modulus or eccentricity (a floating-point or integer value) nu - elliptic characteristic (a floating-point or integer value) [edit] Return valueIf no errors occur, value of the complete elliptic integral of the third kind of k and nu, that is std::ellint_3(k, nu, Ï/2), is returned.
[edit] Error handlingErrors may be reported as specified in math_errhandling.
Implementations that do not support C++17, but support ISO 29124:2010, provide this function if __STDCPP_MATH_SPEC_FUNCS__
is defined by the implementation to a value at least 201003L and if the user defines __STDCPP_WANT_MATH_SPEC_FUNCS__
before including any standard library headers.
Implementations that do not support ISO 29124:2010 but support TR 19768:2007 (TR1), provide this function in the header tr1/cmath
and namespace std::tr1
.
An implementation of this function is also available in boost.math.
The additional overloads are not required to be provided exactly as (A). They only need to be sufficient to ensure that for their first argument num1 and second argument num2:
If num1 and num2 have arithmetic types, then std::comp_ellint_3(num1, num2) has the same effect as std::comp_ellint_3(static_cast</* common-floating-point-type */>(num1),
static_cast</* common-floating-point-type */>(num2)), where /* common-floating-point-type */ is the floating-point type with the greatest floating-point conversion rank and greatest floating-point conversion subrank between the types of num1 and num2, arguments of integer type are considered to have the same floating-point conversion rank as double.
If no such floating-point type with the greatest rank and subrank exists, then overload resolution does not result in a usable candidate from the overloads provided.
(since C++23) [edit] Example#include <cmath> #include <iostream> int main() { std::cout << std::fixed << "Î (0.5,0) = " << std::comp_ellint_3(0.5, 0) << '\n' << "K(0.5) = " << std::comp_ellint_1(0.5) << '\n' << "Î (0,0) = " << std::comp_ellint_3(0, 0) << '\n' << "Ï/2 = " << std::acos(-1) / 2 << '\n' << "Î (0.5,1) = " << std::comp_ellint_3(0.5, 1) << '\n'; }
Output:
Î (0.5,0) = 1.685750 K(0.5) = 1.685750 Î (0,0) = 1.570796 Ï/2 = 1.570796 Î (0.5,1) = inf[edit] See also [edit] External links
RetroSearch is an open source project built by @garambo | Open a GitHub Issue
Search and Browse the WWW like it's 1997 | Search results from DuckDuckGo
HTML:
3.2
| Encoding:
UTF-8
| Version:
0.7.4