Theoretica
A C++ numerical and automatic mathematical library
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Functions defined on dual numbers for automatic differentiation. More...
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Namespaces | |
theoretica | |
Main namespace of the library which contains all functions and objects. | |
Functions | |
dual | theoretica::square (dual x) |
Return the square of a dual number. | |
dual | theoretica::cube (dual x) |
Return the cube of a dual number. | |
dual | theoretica::conjugate (dual x) |
Return the conjugate of a dual number. | |
dual | theoretica::pow (dual x, int n) |
Compute the n-th power of a dual number. | |
dual | theoretica::sqrt (dual x) |
Compute the square root of a dual number. | |
dual | theoretica::sin (dual x) |
Compute the sine of a dual number. | |
dual | theoretica::cos (dual x) |
Compute the cosine of a dual number. | |
dual | theoretica::tan (dual x) |
Compute the tangent of a dual number. | |
dual | theoretica::cot (dual x) |
Compute the cotangent of a dual number. | |
dual | theoretica::exp (dual x) |
Compute the exponential of a dual number. | |
dual | theoretica::ln (dual x) |
Compute the natural logarithm of a dual number. | |
dual | theoretica::log2 (dual x) |
Compute the natural logarithm of a dual number. | |
dual | theoretica::log10 (dual x) |
Compute the natural logarithm of a dual number. | |
dual | theoretica::abs (dual x) |
Compute the absolute value of a dual number. | |
dual | theoretica::asin (dual x) |
Compute the arcsine of a dual number. | |
dual | theoretica::acos (dual x) |
Compute the arccosine of a dual number. | |
dual | theoretica::atan (dual x) |
Compute the arctangent of a dual number. | |
dual | theoretica::sinh (dual x) |
Compute the hyperbolic sine of a dual number. | |
dual | theoretica::cosh (dual x) |
Compute the hyperbolic cosine of a dual number. | |
dual | theoretica::tanh (dual x) |
Compute the hyperbolic tangent of a dual number. | |
Functions defined on dual numbers for automatic differentiation.
Dual numbers can be easily used for automatic differentiation, as they behave under addition, multiplication and division as the first derivative.
Normal operations can be performed and the result will have a real part equal to the function evaluated for the given argument and a "dual" part equal to the first derivative evaluated for the given argument.