uiExpAddOn< 0 > Struct Reference

Basic container add on. More...

#include <ui_method_stack.h>

Inheritance diagram for uiExpAddOn< 0 >:

Collaboration diagram for uiExpAddOn< 0 >:

Public Member Functions
template<class container_t >
int	AddMethod (container_t *container)
	Add ons define AddMethod functions (also automatically provided be uiMethodCFG).
Public Member Functions inherited from uiExperiment
int	SetMainBlockTypeId (int id=0)
	Sets the active main block type by its id.
int	SetMainBlockType (const std::string &btypename)
	Sets the active main block type by its class name.
int	SetVectorizationAxis (int axis)
	Sets the axis that will be used for (AVX/SSE) vectorization, 0=x, 1=y, 2=z, -1 = automatic setting (usually largest dimension) Vectorization works better for dimensions with uniform geometry (less object boundaries).
int	SetPhases (const std::string &s)
	Set execution phases: g - just build geometry, c - only calculate, a - only analyse, any other string - everything.
int	SetFirstUpdatedField (int _first_updated_field=1)
	Sets the first field to be updated by bulk update, 0= E, 1=H may be ignored with warning on some blocks.
int	SetTimers (int use_timers_=1)
	If timers are used, at the end of the calculation files timers_xxxx.d (xxxx - processor number) will be produced with information of time spend for most important EMTL functions.
int	SetDump (int dump_=1, int dump_format_=GNUPLOT, const iVector_3 &duplicate=iVector_3(1), const iVector_3 &origin=iVector_3(0))
	Switch to create files with geometry description format of files is specified by bit flag dump_format: GNUPLOT - simple table that can be read by gnuplot VTK - VTK format that can be read by Paraview.
int	SetGeometryOutput (int flags)
	Sets flags switching geometry objects output on/off.
int	SetInternalSpace (const Vector_3 &p1_, const Vector_3 &p2_)
	Sets the position of internal calculation space (PMLs and oblique incidence boundaries are excluded).
int	SetInternalSpace (const Vector_3 &p)
	Version of the function above with zero left bottom corner.
int	GetInternalSpace (Vector_3 &p1_, Vector_3 &p2_) const
	Get the position of internal calculation space.
int	GetSpace (Vector_3 &p1_, Vector_3 &p2_) const
	Get the position of the calculated space (including PMLs, oblique incidence boundaries).
int	SetResolution (valtype dx, valtype dy, valtype dz, valtype courant_=-1)
	Set mesh step for each axis and Courant factor.
int	SetResolution (valtype dx=-1, valtype courant=-1)
	Version of the function above with equal mesh step along all axes.
int	SetInternalMeshSize (int nx=-1, int ny=-1, int nz=-1, valtype courant_=-1)
	Set the axial numbers of mesh steps (for internal space) and the Courant factor.
const int *	GetMeshSize () const
	Get the axial numbers of mesh steps (for all space).
int	SetCourant (valtype courant_=0.5)
	Sets the Courant factor.
valtype	GetCourant () const
	Gets the Courant factor.
int	ConfAutoResolution (valtype lambda=-1, valtype nlambda=15, valtype objr=INF, valtype nobj=1.)
	Configure settings for automatic mesh step selection:
int	ConfTimeToSize (valtype time2size_=5.)
	Configure atomatic setting for calculation time: use the time needed to span maximal size of the mesh time2size times.
int	AddMeshBlock (const Vector_3 &p1_, const Vector_3 &p2_, const Vector_3 &dx_, valtype Courant=0.5f, int level=1, int blocktypeid=-1)
	Adds mesh block overriding the main mesh block in the specified region.
int	SetTime (valtype time, valtype atime=VEC_INFTY)
	Set/reset calculation time.
int	SetTimeN (int inum_, int finum_=INT_INFTY)
	Set/reset number of steps.
int	AdjustTimeN (int timesteps) const
int	SetFactTimeN (int finum_=INT_INFTY)
	Set the number of actual steps for the calculation.
int	SetFrequencyRange (int nf_, valtype f1_=0, valtype f2_=0, bool align_freq_=true)
	Set frequency range (f1,f2) and resolution (number of points nf) inside this range that will be used for all output in frequency/wavelength representation.
int	GetFrequencyRange (int &nf_, valtype &f1_, valtype &f2_) const
	Gets the current frequency range used in calculation.
int	SetWavelengthRange (int nf_, valtype lambda1_=0, valtype lambda2_=0, bool align_freq_=true)
	Set wavelength range (lambda1,lambda2) and resolution (number of points nf) inside this range that will be used for all output in frequency/wavelength representation.
int	GetWavelengthRange (int &nf_, valtype &lambda1_, valtype &lambda2_) const
	Gets the current wavelength range used in calculation.
int	SetBC (int bc_x, int bc_y, int bc_z)
	Set boundary conditions for corresponding axis.
int	SetOblique (int obl_inum_=1, int obl_dfreq_=1, int obl_dupl_=1, int obl_pml_ncells_0_=20, int obl_ini_wave_=0)
	Set iterative oblique scheme.
int	SetBorderDelay (int dcoord, valtype sintheta)
	Set oblique incidence periodic border delay for the specified direction (Hipercone only).
int	SetSmoothing (int smooth=1, Region_3 *reg=NULL)
	Turn on subpixel smoothing See paper A.
int	SetPMLType (int pmltype, const emPMLFunction &pml_fun_)
	Set pml type (UPML or CPML) and function by reference which is cloned.
int	SetPMLType (int pmltype=UPML_TYPE, emPMLFunction *pml_fun_=NULL, int managed=1)
	Set pml type (UPML or CPML) and function default pml type is UPML.
int	ConfPML (int pml_ncells_=10, int add_ncells=0, int nsigma=0, int back_pr1=2, int back_pr2=0, valtype kappa_back_=0)
	Configure various PML settings:
int	AddPMLBackingLayer ()
	Add PML backing layer with optimal parameters from paper A.
int	AddTFSFPlane (valtype dx, valtype dy, valtype dz, valtype dir=1.f)
	Creates a source with TFSF planar border.
int	AddTFSFPlane (const Vector_3 &n, const Vector_3 &pos)
	Creates a source with TFSF planar border.
int	AddTFSFBox (valtype x0, valtype x1, valtype y0, valtype y1, valtype z0, valtype z1)
	Creates a source with TFSF box as generating surface.
int	AddTFSFBox (const Vector_3 &v0, const Vector_3 &v1)
	Creates a source with TFSF box as generating surface.
int	SetSignal (emImpulse *impulse, int managed=1, int srcid=-1)
	Sets the signal form for the generation source given by srcid.
int	SetSignalPtr (emImpulse *impulse, int managed=1, int srcid=-1)
	A synonym for SetSignal(emImpulse *impulse, int managed=1, int srcid=-1) to be used in Python.
int	SetSignal (const emImpulse &impulse, int srcid=-1)
	Sets the signal form for the generation source given by srcid.
int	AddRodDipole (const Vector_3 &v0, const Vector_3 &v1, valtype dt=0, valtype amp=1, bool analytic=false, int srcid=-1)
	Adds a filament dipole to the dipole source.
int	AddPointDipole (const Vector_3 &pos, const Vector_3 &dir, valtype dt=0, valtype amp=1, bool analytic=false, int srcid=-1)
	Same as AddRodDipole but ensures that a) the dipole has minimal size with respect to mesh resolution; b) may generate waves in all directions.
int	AddTFSFDipole (const Vector_3 &v0, const Vector_3 &d, valtype dt=0, int srcid=-1)
	Adds a point dipole source to the TF/SF generating surface with given srcid (-1 for default).
int	SetPlaneWave (const Vector_3 &k, const Vector_3 &E, bool analytic=false, int srcid=-1)
	Assign a plane wave source to the corresponding TF/SF generating surface.
int	SetBraggWave (const Vector_3 &k, const Vector_3 &p, const Vector_3 &kBragg, bool analytic=false, int srcid=-1)
	Assign a Bragg wave source to the corresponding TF/SF region.
int	UseLambda (int use_lambda_=1)
	Use wavelength instead of frequency in spectra output.
int	AddDetectorSet (const std::string &name, valtype x0, valtype x1, int nx, valtype y0, valtype y1, int ny, valtype z0, valtype z1, int nz, int mode=0, int srcid=-2)
	Adds a 3D detector array set.
int	AddDetectorSet (const std::string &name, const Vector_3 &v0, const Vector_3 &v1, const Vector_3 &n=Vector_3(-1.f), int mode=0, int srcid=-2)
	Same as above in vector form.
int	AddVTKDetectorSet (const std::string &name, const Vector_3 &v0, const Vector_3 &v1, const Vector_3 &rn=Vector_3(-1.f), int ndomains=1)
	Add detector grid saving fields in parallel VTK format.
int	AddDetectorSet (const std::string &name, const std::vector< Vector_3 > &coords, const std::vector< Vector_3 > &dcoords, int mode=0, int srcid=-2)
	Adds 3D detector vector.
int	AddNearToFarSet (const std::string &name, const Vector_3 &v0, const Vector_3 &v1, const Vector_3 &origin, valtype R, valtype th0, valtype th1, int thn, valtype fi0, valtype fi1, int fin, int mode=0, valtype resol=1, int srcid=-2)
	Add detector set for near to far field transformation.
int	AddRTASet (const std::string &name, size_t dir, valtype r_ref, valtype r_tra, valtype rsl=1, int rta_type=0, int srcid=-1)
	Adds a detector set formed by up to 2 parallel planes, normal to the axis dir.
uiDetector *	GetDetectorSetPtr (const std::string &name)
	Gets a pointer to detector set, NULL if the set does not exist.
uiDetector *	GetDetectorSet (const std::string &name)
	Same as GetDetectorSetPtr, but safe: instead of NULL will return a pointer to temporary if detector set does not exist.
int	SetFillMedium (const emMedium &med)
	Set the filling material for calculated space.
emMedium	GetFillMedium () const
	Gets the filling material of the calculated space.
int	AddObject (const emMedium &med, Region_3 *regptr, int managed=1, int level=0)
	Add user 3D object defined by medium properties and region in space.
int	AddObjectPtr (const emMedium &med, Region_3 *regptr, int managed=1, int level=0)
	A synonym for AddObject(const emMedium &med,Region_3 *regptr,int managed=1, int level=0) to use in Python.
int	AddObject (const emMedium &med, const Region_3 &reg, int level=0)
	Add user 3D object defined by medium properties and region in space.
int	ConfigureTensorMethod (int use_stable=0)
	Configure settings used by tensor methods (thin_surface, thin_wire, tensor_medium, subpixel_smoothing).
int	Add2DObject (const emMedium &med, const FacetedSurfaceData &surf)
	Add user object defined by medium properties and a thin 2D surface in space by reference which is cloned.
int	Add2DObject (const emMedium &med, FacetedSurfaceData *surfptr, int managed=1)
	Add user object defined by medium properties and a thin 2D surface in space by pointer.
int	Add1DObject (const emMedium &med, Wire_3 *wireptr, int managed=1, const Vector_3 &shift=Vector_3())
	Add user object defined by medium properties and a thin 1D wire in space If managed flag is 1, the region pointer is managed (deleted by uiExperiment).
int	Add1DObjectPtr (const emMedium &med, Wire_3 *wireptr, int managed=1, const Vector_3 &shift=Vector_3())
	A synonym for Add1DObject(const emMedium &med, Wire_3 *wireptr, int managed=1, const Vector_3& shift = Vector_3()) to be used explicitly from Python.
int	Add1DObject (const emMedium &med, const Wire_3 &wire, const Vector_3 &shift=Vector_3())
	Add user object defined by medium properties and a thin 1D wire in space.
int	AddBox (const emMedium &med, valtype x0, valtype x1, valtype y0, valtype y1, valtype z0, valtype z1, int level=0)
	Add a box with corners (x0,y0,z0) and (x1, y1, z1)
int	AddBox (const emMedium &med, const Vector_3 &v0, const Vector_3 &v1, int level=0)
	Same as above in vector form.
void	SetFarField (int sph_rank, int time_max, int tile_sz=16, const char *path="")
	Initiates far-field computation in the time domain sph_rank - the rank of the grid in directions built on the basis of the pentakis dodecahedron partition, see http://sv-journal.org/2018-1/09/ time_max - number of time steps tile_sz - tile size (affects calculation speed, for fast far field it can affect accuracy) path - the path along which the fields from the Huygens surface are reset in the .msh format of the aiwlib library (by default they are not reset) nine files with the names [xyz] E [xyz] .msh are created at the specified path, the first letter is the axis of which is orthogonal to the surface face, the last letter is the component.
void	SetFastFarField (double xi_sc, int Nphi, bool phi_interp=true, int approx=1, bool patch_n_phi=false)
	Initiates fast time-domain far-field computation based on spherical splitting, without calling SetFarField (...) ignored.
void	AddFarFieldRange (Vector_3 n, double theta_min, double theta_max)
	Adds a selection to the directions in which the far field is considered (axis orientation and theta range of angles).
void	FarFieldFinish (const char *path)
	Completes the far field calculation.
void	FarFieldLoad (const char *path)
	Loads the previously calculated far field along the path path, requires the directory path/nt/ and the files path/P.sph and path/info.
void	SetFarFieldBasis (Vector_3 n_theta, Vector_3 n_phi)
	Specifies the spherical coordinate system in which all post-processing will be performed.
void	FarFieldFourier (const char *path)
	Carries out the Fourier transform in each direction, the frequency range is determined automatically or can be set explicitly by the SetFrequenceRange (...) method.
void	FarFieldFourier (const char *path, int nf_, valtype f_min, valtype f_max)
	The same as the FarFieldFourier(const char* path) method, but with an explicit specification of the frequency range.
void	FarFieldDumpDirect (valtype theta, valtype phi, const char *path)
	Saves along the path "path" in nine columns the dependence of electrical components and Stokes parameters on frequency for an arbitrary direction given by the angles theta, phi.
void	FarFieldSlicePhi (valtype theta, valtype f, int sz, const char *path)
	Outputs to the file "path" slices (depending on the angle phi) of the field components and Stokes parameters at a given angle theta at frequency f.
void	FarFieldSliceTheta (valtype phi, valtype f, int sz, const char *path)
	Outputs to the file "path" slices (depending on the angle theta) of the field components and Stokes parameters at a given angle phi at frequency f.
void	FarFieldIntPhi (valtype f, int sz, const char *path)
	Outputs to the file "path" the integrals over d phi (depending on the angle theta) of the field components and Stokes parameters at the frequency f.
void	FarFieldIntTheta (valtype f, int sz, const char *path)
	Outputs to the file "path" the integrals over sin(theta) d theta (depending on the angle phi) of the field components and Stokes parameters at the frequency f.
int	SetOutputDir (const char *path)
	Set directory for text output.
int	SetRawDataDir (const char *path)
	Set directory for binary output (large files).
virtual int	ClearObjects ()
	Clears all medium objects.
virtual int	BuildDimensions ()
	Calculates full mesh dimensions, space and time steps according to the communicated settings: boundary conditions, internal space size and resolution.
int	AlignWithField (Vector_3 &vec, int ftype, int dir, const Vector_3 &shift=Vector_3()) const
	Aligns the vector to coinside with the nearest node of the field of given type and direction: ftype =0 for E, ftype =1 for H, dir =0,1,2 for x,y,z.
const Vector_3 &	GetSpaceStep () const
	Gets mesh space step (valid after BuildDimensions call).
valtype	GetTimeStep () const
	Gets mesh time step (valid after BuildDimensions call).
virtual int	BuildGeometry ()
	Intialize EMTL objects corresponding to calculated space, PML, sources, medium regions, detectors.
virtual int	BuildMesh ()
	Allocate memory for EMTL objects and fill all necessary data (coefficients in finite difference scheme etc.).
int	Calculate (valtype time, valtype ftime=VEC_INFTY)
	Performs FDTD simulation for given time.
int	CalculateN (int inum_, int finum_=INT_INFTY)
	Performs FDTD simulation for given number of steps.
virtual int	Reset (int keep_setup=0x7)
	Resets the experiment to setup phase, cleaning the calculation mesh.
void	RemoveBinaries (bool rb=true)
	Remove binary detector files in desctructor.
void	SetBalancedDecomposition (int balanced_=1, const Vector_3 &balanced_dx_=0, const method_load_t &load_=method_load_t())
	Perform balanced domain decomposition.
int	SetMeshBlockParam (const std::string &key, valtype value, int btypeid=-1, int blockid=-1)
	Sets block-specific parameters in the from ("key", value).
int	DumpMedium (const char *fname, const emMedium &med, valtype lf1=-1, valtype lf2=-1, valtype ldf=0) const
	Writes the frequency (wavelength) dependence of the medium.
int	DumpFields (const char *path, iVector_3 bmin=iVector_3(0), iVector_3 bmax=iVector_3(0), int field_mask=63) const
	Saves the current field configuration in the .msh binary format of the aiwlib library, see http://sv-journal.org/2018-1/09/ six frames are saved in the file along the path path - Ex, Ey, Ez, Hx, Hy, Hz, cell type float.
int	DumpCoeffs (const char *path, iVector_3 bmin=iVector_3(0), iVector_3 bmax=iVector_3(0), int coeff_mask=4095) const
	Stores the distribution of coefficients in the binary .msh format of the aiwlib library, see http://sv-journal.org/2018-1/09/ twelve frames are saved in the file along the path path - c1Ex, c2Ex, c1Ey, c2Ey, c1Ez, c2Ez, c1Hx, c2Hx, c1Hy, c2Hy, c1Hz, c2Hz, cell type float
int	DumpFix (const char *path, iVector_3 bmin=iVector_3(0), iVector_3 bmax=iVector_3(0), int EH_mask=3) const
	Stores the distribution of fixes (bit masks) in the .msh binary format of the aiwlib library, see http://sv-journal.org/2018-1/09/ one frame is saved in the file along the path path, cell type is float.
int	DumpMat (const char *path, iVector_3 bmin=iVector_3(0), iVector_3 bmax=iVector_3(0), int EH_mask=3) const
	Saves the distribution of materials (corresponding to ID on the computational grid) in the binary .msh format of the aiwlib library, see http://sv-journal.org/2018-1/09/ one frame is saved in the file along the path path, cell type is float.
int	CalcN (int inum_, int finum_=INT_INFTY)
	Performs FDTD simulation for given number of steps (for python interface).
int	Calc (valtype time, valtype ftime=VEC_INFTY)
	Performs FDTD simulation for given time (for python interface).
valtype	GetComputeRate (bool renew=false)
	Gets current average compute rate in GYeeCells/s.
void	SetTextureParams (valtype k=1., valtype shift=0., valtype k_disp=1., valtype shift_disp=0.)
	Underlying media may be displayed in QPLT format by overimposing them on the fields.
Public Member Functions inherited from emComponent
emDump *	GetEmDumper ()
	This function insures that the returned dumper is of true emDumper type.

Additional Inherited Members
Protected Types inherited from uiExperiment
enum	PHASE_FLAGS
	Execution phases.
enum	RES_MODES
	What defines resolution.
enum	{ }
	Source types. More...
enum
	TF region types.
typedef mngptr< emImpulse >	impulse_t
	if true, exit from function Calculate
Protected Member Functions inherited from uiExperiment
int	check_phase (int lim_phase)
	Check if current phase exceeds lim_phase.
int	fix_frequency_range ()
	Make frequency range f1, f2, nf aligned with .
int	adjust_freq_steps (int inum_, int finum_)
	Adjust steps number and frequency range to container.
void	DetStartNextFileRecord (int inum, int nobl, int depth, int filter=0x3)
void	DetCompleteNextFileRecord (int inum, int nobl, int depth=0, int filter=0x3)
	Puts the updated interpolated values into file.
int	add_dipole (const Vector_3 &v0, const Vector_3 &v1, valtype dt, valtype amp, int srcid, int type=0, bool analytic=false)
	Internal function for adding dipoles, type=0 – rod dipole, type=1 – point dipole.
void	preset_box_detector (uiDetector *det, Vector_3 &n, const Vector_3 &v0, const Vector_3 &v1, int mode, int srcid)
	Auxilliary function to configure box type detectors (including VTK)
Protected Attributes inherited from uiExperiment
int	sync_hsteps = 2
	global synchronization level, to be tuned
int	phase
	Current phase.
bool	strict_phase
	Whether to forbid to pass to the previous phase from the subsequent.
int	exe_phases
	Phases which will be fulfilled (bit flag).
int	analytic_geometry_analysis
	Do geometrical analysis analitiaclly, without contours loop.
double	sys_t0
	Program start time.
double	sys_tmax
	Mesh data will be saved in binary files each sys_tsave interval and after sys_tmax time from start.
int	use_timers
	Whether to use timers.
struct {
}	tid
	The id of timers which are responsible for phases of experiment.
int	dump
	Whether to create files with the set bodies, detectors for review in the gnuplot.
int	dump_format
	see VISUAL_FORMATS (to dump in gnuplot or vtk format).
iVector_3	dump_dup = iVector_3(1)
	how many elementary cells are duplicated in each direction for dump
iVector_3	dump_dup_orig = iVector_3(0)
	duplication origin
int	vec_axis
	The axis that will be used for vectorization, -1 = automatic setting (usually largest dimension).
Vector_3	size
	The calculated space position and size.
Vector_3	isize
	The same for internal space.
int	N [3]
	Mesh steps number.
Vector_3	dr
	Mesh step in each direction.
valtype	dt
	Time step.
valtype	courant
	The factor of Courant.
int	first_updated_field
	The first field to be updated by bulk update, 0= E, 1=H ignored with warning on some block types.
int	inum =0
	Number of time steps.
int	finum =0
	Actual steps number.
int	obl_inum
	Number of oblique incidence iterations.
int	obl_dfreq
	Detectors work each obl_dfreq oblique iteration and last iteration.
iVector_3	bc
	Boundary conditions for axial directions.
Vector_3	obl_k
	oblique incidence direction. If nonzero, iterative scheme is applied.
valtype	obl_ncells
	Split between writing and generating boundaries at oblique incidence.
valtype	obl_pml_ncells
	Distance between oblique boundaries and PML.
valtype	obl_pml_ncells_0
	Distance between oblique boundaries and PML minus obl_ncells.
int	past_flag
	Used data from the same iteration for 'past' oblique boundaries.
int	obl_dupl
	How many times dublicate periodic cell along oblique direction in oblique incidence case.
int	obl_ini_wave
	Use all oblique boundaries as TF/SF generating surface on the first oblique iteration.
bool	no_auto_oblique = false
	Do not automatically swithc to oblique incidence when obl_k is pointing towards PBC.
int	delay_coord = -1
	Direction of PBC with delay (Hipercone only).
valtype	df
	The bottom and top frequencies in investigated spectrum, step on frequency.
bool	align_freq
	Maximally align frequencies with the internal range.
int	nf
	Quantity of investigated frequencies.
bool	on_fly
	Whether use Fourier-on-flight instead of FFDT.
int	use_lambda
	Use lambda instead of frequency in output text files.
int	flux_out
	What to output in a rta file (see outFLUX).
int	fft_dir
	Signs in the exponent for Fourier transformation exp(+/-iwt+/-ikx).
int	tf_dir
	Sign in the exponent for Fourier transformation exp(+/-iwt).
int	xk_dir
	Sign in the exponent for Fourier transformation exp(+/-ikx).
int	use_smooth
	Whether to use subpixel smoothing.
Region_3 *	sm_reg
	If defined, subpixel smoothing works only inside this region.
int	pml_type
	NPML, UPML or CPML.
mngptr< emPMLFunction >	pml_fun
	How pml parameters (sigma, kappa) depend on depth inside PML.
int	pml_ncells
	Number of mesh steps inside PML.
int	pml_nspace
	Number of mesh steps between internal space and PML.
int	pml_nsigma
	Number of mesh steps in PML before back PML layer.
int	back_profile [2]
	The flags used in back PML layer.
valtype	kappa_back
	Maximal kappa of back PML layer.
int	cpml_orot
	Whether to use modification of a block internal cycle for CPML.
int	prl_anls
	Whether to do the parallel analysis (in case of use Fourier-on-flight).
int	wf
	Whether to use a cycle with vectorization.
bool	remove_binaries
	If true, remove binary detector files in desctructor.
int	mpi_transfers
	If 0, no MPI-transfers will be sent (test option).
iVector_3	ndomains
	Arguments of MakeBoxDomains().
int	balanced
	Perform balanced domain decomposition.
int	balanced_ppn
	If more than 1, then number of processors in sub-domain.
int	ppn_weight
	Perform balanced decomposition for super-domains.
Vector_3	balanced_dx
	Space step used in grid for domain domain decomposition.
method_load_t	load
	Load coefficients for different methods.
std::map< int, impulse_t >	impulses
	Default impulse form.
valtype	imp_ampl
	Default signal amplitude.
valtype	tscale
	Scaling default Berenger pulse.
mngptr< Liouville >	liouville
	Energy levels and dipole moment of atoms.
std::vector< tfdescr_t >	tfregions
	TFSF region descriptions.
refmap< std::string, uiDetector >	detectors
	detector descriptions. string is used to make output text files
emMedium	MExt
	Number of TF regions.
refvector< regdescr_t >	regions
	Region descriptions.
std::map< int, tensor_med_t >	eps_tensors
	Dielectric tensors assigned to selected media.
int	use_stable
	Stability flag for tensor methods.
int	time_limit
	Variable used to indicate calculation time limits: -1 = automatic by internal space size, 1 = use preset inum, 0 = in the course of calculation.
valtype	time2size
	Variable for setting calculation time to maximal mesh size ratio (default is 5).
int	topthreads
	Topthreads number for conoids.
int	prank_lo
	Runtime parallel rank for conoids prank_lo is the lowest rank on which we calculate conoids in parallel.
int	grid_lowrank
	lowest rank to use in conetur grid (default is 3, optimal rank is 6).
bool	vtkconf_set
	VTK configuration flag. True if configuration was set.
int	interm_detectors
	Number of detectors for which intermediate analysis was requested.
int	main_blockid
	Set blockid to use as a global main mesh.
int	s_it
	Persistent step and oblique iteration counters.
double	s_dtime
	Persistent start time of the first iteration.
std::map< std::string, block_param_t >	bparammap
	map to pass parameters to blocks
int	analyze_flags = ~0
	Analyze flags to be passed to container (for testing only)
int	omp_max_threads = -1
	Override max_threads for OMP, used to tune OMP performance, -1 means no override.
int	gdumpflags = dmpMAINREG | dmpTFSFREG | dmpPMLREG | dmpMEDIAREG | dmpMPIBLOCKS | dmpDETPOINTS | dmpBLOCKREG
	default flags for dumping geometry objects

Detailed Description

Basic container add on.

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The documentation for this struct was generated from the following file:

• ui_method_stack.h