ngspice/src/maths/dense/dense.h

249 lines
5.6 KiB
C

#ifndef ngspice_DENSE_MATRIX_H
#define ngspice_DENSE_MATRIX_H
#include <math.h>
typedef struct cplx
{
double re;
double im;
}cplx;
typedef struct Mat{
double** d;
int row;
int col;
}Mat;
typedef struct CMat {
cplx** d;
int row;
int col;
}CMat;
typedef struct MatList{
Mat* mat;
struct MatList* next;
}MatList;
void showmat(Mat* A);
void showcmat(CMat* A);
CMat* newcmat(int r, int c, double dr, double di);
CMat* newcmatnoinit(int r, int c);
Mat* newmat(int r, int c, double d);
Mat* newmatnoinit(int r, int c);
void freecmat(CMat* A);
void freemat(Mat* A);
CMat* ceye(int n);
Mat* eye(int n);
Mat* zeros(int r, int c);
CMat* czeros(int r, int c);
Mat* ones(int r, int c);
CMat* cones(int r, int c);
Mat* randm(int r, int c, double l, double u);
CMat* randcm(int r, int c, double l, double u);
double get(Mat* M, int r, int c);
cplx getcplx(CMat* M, int r, int c);
void set(Mat* M, int r, int c, double d);
void setc(CMat* M, int r, int c, cplx d);
Mat* scalarmultiply(Mat* M, double c);
CMat* cscalarmultiply(CMat* M, double c);
CMat* complexmultiply(CMat* M, cplx c);
Mat* sum(Mat* A, Mat* B);
CMat* csum(CMat* A, CMat* B);
Mat* minus(Mat* A, Mat* B);
CMat* cminus(CMat* A, CMat* B);
Mat* submat(Mat* A, int r1, int r2, int c1, int c2);
void submat2(Mat* A, Mat* B, int r1, int r2, int c1, int c2);
CMat* subcmat(CMat* A, int r1, int r2, int c1, int c2);
void subcmat2(CMat* A, CMat* B, int r1, int r2, int c1, int c2);
Mat* multiply(Mat* A, Mat* B);
CMat* cmultiply(CMat* A, CMat* B);
Mat* removerow(Mat* A, int r);
Mat* removecol(Mat* A, int c);
void removerow2(Mat* A, Mat* B, int r);
void removecol2(Mat* A, Mat* B, int c);
CMat* cremoverow(CMat* A, int r);
CMat* cremovecol(CMat* A, int c);
void cremoverow2(CMat* A, CMat* B, int r);
void cremovecol2(CMat* A, CMat* B, int c);
Mat* transpose(Mat* A);
CMat* ctranspose(CMat* A);
double trace(Mat* A);
cplx ctrace(CMat* A);
Mat* adjoint(Mat* A);
CMat* cadjoint(CMat* A);
CMat* ctransposeconj(CMat* source);
Mat* inverse(Mat* A);
CMat* cinverse(CMat* A);
Mat* copyvalue(Mat* A);
CMat* copycvalue(CMat* A);
Mat* copyvalue(Mat* A);
CMat* copycvalue(CMat* A);
Mat* triinverse(Mat* A);
CMat* ctriinverse(CMat* A);
Mat* rowechelon(Mat* A);
CMat* crowechelon(CMat* A);
Mat* hconcat(Mat* A, Mat* B);
CMat* chconcat(CMat* A, CMat* B);
Mat* vconcat(Mat* A, Mat* B);
CMat* cvconcat(CMat* A, CMat* B);
double norm(Mat* A);
double cnorm(CMat* A);
Mat* nullmat(Mat* A);
MatList* lu(Mat* A);
double innermultiply(Mat* a, Mat* b);
MatList* qr(Mat* A);
int complexmultiplydest(CMat* M, cplx c, CMat* dest);
void cinversedest(CMat* A, CMat* dest);
int copycvaluedest(CMat* A, CMat* dest);
int cmultiplydest(CMat* A, CMat* B, CMat* dest);
void init(Mat* A, double d);
void cinit(CMat* A, double dr, double di);
void resizemat(Mat* A, int r, int c);
/*
inline void setcplx(cplx* d, double r, double i);
inline void cmultc(cplx* res, cplx a, cplx b);
inline cplx cmultco(cplx a, cplx b);
inline cplx cmultdo(cplx a, double d);
inline void cmultd(cplx* res, cplx a, double d);
inline void caddc(cplx* res, cplx a, cplx b);
inline cplx caddco(cplx a, cplx b);
inline void caddd(cplx* res, cplx a, double d);
inline void csubc(cplx* res, cplx a, cplx b);
inline cplx csubco(cplx a, cplx b);
inline void csubd(cplx* res, cplx a, double d);
inline double cmodinv(cplx a);
inline double cmodsqr(cplx a);
inline int ciszero(cplx a);
inline cplx cinv(cplx a);
inline cplx conju(cplx a);
extern inline double cmodu(cplx a);
extern inline cplx cdivco(cplx a, cplx b);
inline void setcplx(cplx* d, double r, double i)
{
d->re = r; d->im = i;
}
inline void cmultc(cplx* res, cplx a, cplx b)
{
res->re = a.re * b.re - a.im * b.im;
res->im = a.im * b.re + a.re * b.im;
}
inline cplx cmultco(cplx a, cplx b)
{
cplx res;
res.re = a.re * b.re - a.im * b.im;
res.im = a.im * b.re + a.re * b.im;
return res;
}
inline cplx cdivco(cplx a, cplx b)
{
cplx res;
double dmod = cmodinv(b);
res.re = (a.re * b.re + a.im * b.im) * dmod;
res.im = (a.im * b.re - a.re * b.im) * dmod;
return res;
}
inline cplx cmultdo(cplx a, double d)
{
cplx res;
res.re = a.re * d;
res.im = a.im * d;
return res;
}
inline void cmultd(cplx* res, cplx a, double d)
{
res->re = a.re * d;
res->im = a.im * d;
}
inline void caddc(cplx* res, cplx a, cplx b)
{
res->re = a.re + b.re;
res->im = a.im + b.im;
}
inline cplx caddco(cplx a, cplx b)
{
cplx res;
res.re = a.re + b.re;
res.im = a.im + b.im;
return res;
}
inline void caddd(cplx* res, cplx a, double d)
{
res->re = a.re + d;
}
inline void csubc(cplx* res, cplx a, cplx b)
{
res->re = a.re - b.re;
res->im = a.im - b.im;
}
inline cplx csubco(cplx a, cplx b)
{
cplx res;
res.re = a.re - b.re;
res.im = a.im - b.im;
return res;
}
inline void csubd(cplx* res, cplx a, double d)
{
res->re = a.re - d;
}
inline double cmodinv(cplx a)
{
return 1.0 / cmodsqr(a);
}
inline double cmodsqr(cplx a)
{
return (a.re * a.re + a.im * a.im);
}
inline double cmodu(cplx a)
{
return sqrt(cmodsqr(a));
}
inline int ciszero(cplx a)
{
return (a.re == 0) && (a.im == 0);
}
inline cplx cinv(cplx a)
{
cplx res;
double cpmod = cmodinv(a);
res.re = a.re * cpmod;
res.im = -a.im * cpmod;
return res;
}
inline cplx conju(cplx a)
{
cplx res;
res.re = a.re;
res.im = -a.im;
return res;
}
*/
#endif