Class MatrixDecompositionExtensions
- Namespace
- AiDotNet.Extensions
- Assembly
- AiDotNet.dll
Provides extension methods for matrix decomposition operations, enhancing their functionality.
public static class MatrixDecompositionExtensions
- Inheritance
-
MatrixDecompositionExtensions
- Inherited Members
Remarks
For Beginners: Matrix decomposition is a way to break down complex matrices into simpler components, making certain mathematical operations easier. This class adds helpful methods to work with these decompositions in your AI applications.
Think of matrix decomposition like factoring a number (e.g., 12 = 3 × 4), but for matrices. These decompositions are important in many AI algorithms for solving equations efficiently.
Methods
ToComplexDecomposition<T>(IMatrixDecomposition<T>)
Converts a regular matrix decomposition to a complex-valued matrix decomposition.
public static IMatrixDecomposition<Complex<T>> ToComplexDecomposition<T>(this IMatrixDecomposition<T> decomposition)
Parameters
decompositionIMatrixDecomposition<T>The original matrix decomposition to convert.
Returns
- IMatrixDecomposition<Complex<T>>
A complex-valued version of the original matrix decomposition.
Type Parameters
TThe numeric data type used in the original decomposition (e.g., float, double).
Remarks
For Beginners: Complex numbers are numbers with both a real part and an "imaginary" part. They're useful in advanced mathematics and certain AI algorithms.
This method takes a regular matrix decomposition (using normal numbers) and converts it to use complex numbers instead. This is helpful when your AI algorithm needs to work with complex mathematical operations.
Example usage:
// Assuming you have a matrix decomposition for a real-valued matrix
var realDecomposition = Matrix.Decompose(myMatrix);
// Convert it to work with complex numbers
var complexDecomposition = realDecomposition.ToComplexDecomposition();
// Now you can use complexDecomposition for operations requiring complex numbers
You typically need this when working with certain advanced algorithms like Fourier transforms, eigenvalue problems, or when analyzing oscillatory systems.