fwd_types.h

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#ifndef _fwd_fwd_types_h
#define _fwd_fwd_types_h
 
/*
 * Type definitions for forward calculations
 */
 
#include <fiff/fiff_types.h>
#include <mne/mne_types.h>
 
#include "fwd_coil_set.h"
 
#include <mne/mne_ctf_comp_data_set.h>
 
typedef void (*fwdUserFreeFunc)(void *);  /* General purpose */
 
/*
 * This is a convenient generic field / potential computation function
 */
typedef int (*fwdFieldFunc)(float *rd,float *Q,FWDLIB::FwdCoilSet* coils,float *res,void *client);
typedef int (*fwdVecFieldFunc)(float *rd,FWDLIB::FwdCoilSet* coils,float **res,void *client);
typedef int (*fwdFieldGradFunc)(float *rd,float *Q,FWDLIB::FwdCoilSet* coils, float *res,
                                float *xgrad, float *ygrad, float *zgrad, void *client);
 
//#define FWD_BEM_UNKNOWN           -1
//#define FWD_BEM_CONSTANT_COLL     1
//#define FWD_BEM_LINEAR_COLL       2
 
//#define FWD_BEM_IP_APPROACH_LIMIT 0.1
 
//#define FWD_BEM_LIN_FIELD_SIMPLE    1
//#define FWD_BEM_LIN_FIELD_FERGUSON  2
//#define FWD_BEM_LIN_FIELD_URANKAR   3
 
//typedef struct {            /* Space to store a solution matrix */
//  float **solution;             /* The solution matrix */
//  int   ncoil;                  /* Number of sensors */
//  int   np;                     /* Number of potential solution points */
//} *fwdBemSolution,fwdBemSolutionRec;  /* Mapping from infinite medium potentials to a particular set of coils or electrodes */
 
//typedef struct {
//  char       *surf_name;  /* Name of the file where surfaces were loaded from */
//  FWDLIB::MNECSurface* *surfs;   /* The interface surfaces from outside towards inside */
//  int        *ntri;       /* Number of triangles on each surface */
//  int        *np;     /* Number of vertices on each surface */
//  int        nsurf;       /* How many */
//  float      *sigma;      /* The conductivities */
//  float      **gamma;     /* The gamma factors */
//  float      *source_mult;    /* These multiply the infinite medium potentials */
//  float      *field_mult; /* Multipliers for the magnetic field */
//  int        bem_method;  /* Which approximation method is used */
//  char       *sol_name;       /* Name of the file where the solution was loaded from */
 
//  float      **solution;  /* The potential solution matrix */
//  float      *v0;     /* Space for the infinite-medium potentials */
//  int        nsol;        /* Size of the solution matrix */
 
//  FWDLIB::FiffCoordTransOld* head_mri_t;  /* Coordinate transformation from head to MRI coordinates */
 
//  float      ip_approach_limit;   /* Controls whether we need to use the isolated problem approach */
//  int        use_ip_approach; /* Do we need it */
//} *fwdBemModel,fwdBemModelRec;    /* Holds the BEM model definition */
 
//typedef struct {
//  FWDLIB::MNECTFCompDataSet* set;          /* The compensation data set */
//  FWDLIB::FwdCoilSet*        comp_coils;           /* The compensation coil definitions */
//  fwdFieldFunc      field;             /* Computes the field of given direction dipole */
//  fwdVecFieldFunc   vec_field;             /* Computes the fields of all three dipole components  */
//  fwdFieldGradFunc  field_grad;            /* Computes the field and gradient of one dipole direction */
//  void              *client;           /* Client data to pass to the above functions */
//  fwdUserFreeFunc   client_free;
//  float             *work;             /* The work areas */
//  float             **vec_work;
//} *fwdCompData,fwdCompDataRec;             /* This structure is used in the compensated field calculations */
 
#endif