Fast Transient Imaging
A Python framework revolving around reconstruction of impulse responses from AMCW lidar measurements.
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#include "ComplexAlgebra.fx"
Macros | |
#define | TOEPLITZ_SIZE 2 |
#define | TOEPLITZ_SIZE 3 |
#define | TOEPLITZ_SIZE 4 |
#define | TOEPLITZ_SIZE 5 |
#define | TOEPLITZ_SIZE 6 |
#define | TOEPLITZ_SIZE 7 |
#define | TOEPLITZ_SIZE 8 |
#define | TOEPLITZ_SIZE 9 |
Functions | |
void | SolveCanonicalToeplitzEquation (out float2 OutSolution[TOEPLITZ_SIZE], float2 FirstColumn[TOEPLITZ_SIZE]) |
This header implements Levinson's algorithm.
#define TOEPLITZ_SIZE 2 |
#define TOEPLITZ_SIZE 3 |
#define TOEPLITZ_SIZE 4 |
#define TOEPLITZ_SIZE 5 |
#define TOEPLITZ_SIZE 6 |
#define TOEPLITZ_SIZE 7 |
#define TOEPLITZ_SIZE 8 |
#define TOEPLITZ_SIZE 9 |
void SolveCanonicalToeplitzEquation | ( | out float2 | OutSolution[TOEPLITZ_SIZE], |
float2 | FirstColumn[TOEPLITZ_SIZE] | ||
) |
This function solves a special system of linear equations. The equations are defined by a hermitean Toeplitz matrix. The right hand side of the equations is defined by the first canonical basis vector, i.e. the equation defined by the first row has to yield one and all other equations have to yield zero.
OutSolution | The solution to the system of linear equations. This is a column vector holding complex values. |
FirstColumn | This array has to provide the complex entries of the first column of the Toeplitz matrix. Since the matrix is hermitean and Toeplitz all other entries follow. Note that the first entry in this array must be real, i.e. FirstColumn[0].y==0.0f. |