text:
/*
** profile.c
**
** Program written in order to calculate profile, characteristic scales and shapes of haloes
**
** Written by Marcel Zemp
*/

#include <stdio.h>
#include <math.h>
#include <string.h>
#include <stdlib.h>
#include <malloc.h>
#include <assert.h>
#include <sys/time.h>
#include <omp.h>
#include <gsl/gsl_math.h>
#include <gsl/gsl_eigen.h>
#include <iof.h>
#include <artsfc.h>

#define NSPECIESREADMAX 3
#define NSPECIESPROFILEMAX 17
#define NSPECIESBACKGROUND 5
#define NSUBSPECIESMAX 9
#define NPROPERTIESMAX 2

/*
** Be careful with changing order of species here!
** Some loops assume that the order of species are this way.
*/

#define GAS 0
#define DARK 1
#define STAR 2
#define TOT 3
#define BARYON 4
#define GAS_METAL_SNII 5
#define STAR_METAL_SNII 6
#define BARYON_METAL_SNII 7
#define GAS_METAL_SNIa 8
#define STAR_METAL_SNIa 9
#define BARYON_METAL_SNIa 10
#define GAS_HI 11
#define GAS_HII 12
#define GAS_HeI 13
#define GAS_HeII 14
#define GAS_HeIII 15
#define GAS_H2 16

#define MASS_TOT 0
#define MASS_METAL_SNII 1
#define MASS_METAL_SNIa 2
#define MASS_HI 3
#define MASS_HII 4
#define MASS_HeI 5
#define MASS_HeII 6
#define MASS_HeIII 7
#define MASS_H2 8
#define TEMPERATURE 9
#define AGE 10

typedef struct profile_bin_properties {

	long int N; /* Number of particles/cells */
	double M; /* Mass */
	double Menc[2]; /* Enclosed mass - only for internal purposes */
	double v[3]; /* Velocity vector */
	double vdt[6]; /* Velocity dispersion tensor */
	double L[3]; /* Angular momentum vector */
	double *P; /* Additional properties */
	} PROFILE_BIN_PROPERTIES;

typedef struct profile_shape_properties {

	int NLoopConverged;
	long int N; /* Number of particles/cells */
	double M; /* Mass */
	double st[6]; /* Shape tensor */
	double a[3]; /* Semi-major axis unit vector */
	double b[3]; /* Intermediate axis unit vector */
	double c[3]; /* Semi-minor axis unit vector */
	double b_a; /* Axis ratio b/a */
	double c_a; /* Axis ratio c/a */
	double b_a_old; /* Axis ratio b/a for iteration */
	double c_a_old; /* Axis ratio c/a for iteration */
	/* double dmin; */
	/* double dmax; */
	/* double propertymin; */
	/* double propertymax; */
	/* double propertymean; */
	} PROFILE_SHAPE_PROPERTIES;

typedef struct profile_bin_structure {

	double ri[3];
	double rm[3];
	double ro[3];
	PROFILE_BIN_PROPERTIES *bin;
	PROFILE_SHAPE_PROPERTIES *shape;
	} PROFILE_BIN_STRUCTURE;

typedef struct halo_data_exclude {

	int ID;
	double rcentre[3];
	double size;
	} HALO_DATA_EXCLUDE;

typedef struct halo_data {

	int ID;
	int HostHaloID;
	int ExtraHaloID;
	int NBin[3];
	int NHaloExclude;
	int SizeExcludeHaloData;
	int IsTruncated;
	double rcentre[3];
	double vcentre[3];
	double rcentrenew[3];
	double vcentrenew[3];
	double rmean, Mrmean;
	double rcrit, Mrcrit;
	double rfix, Mrfix;
	double rtrunc, Mrtrunc;
	double size, mass;
	double rhobg[NSPECIESBACKGROUND];
	double rvcmax[NSPECIESBACKGROUND][2];
	double Mrvcmax[NSPECIESBACKGROUND][2];
	double rtruncindicator;
	double zAxis[3], zHeight;
	double rmin[3], rmax[3];
	PROFILE_BIN_STRUCTURE ***pbs;
	HALO_DATA_EXCLUDE *hde;
	} HALO_DATA;

typedef struct profile_particle {

	double r[3];
	double v[3];
	double *P; /* Properties array for masses and additional things */
	} PROFILE_PARTICLE;

typedef struct general_info {

	int DataFormat;
	int HaloCatalogueFormat;
	int HaloCatalogueNDim;
	int HaloCatalogueBinningCoordinateType;
	int ExcludeHaloCatalogueFormat;
	int ExcludeHaloCatalogueNDim;
	int ProfilingMode;
	int DataProcessingMode;
	int CentreType;
	int BinningCoordinateType;
	int BinningGridType[3];
	int VelocityProjectionType;
	int ShapeDeterminationVolume;
	int ShapeTensorForm;
	int DoMetalSpecies;
	int DoChemicalSpecies;
	int DoGasTemperature;
	int DoStellarAge;
	int MoreCharacteristicsOutput;
	int HaloSize;
	int rmaxFromHaloCatalogue;
	int ExcludeParticles;
	int zAxisCatalogueSpecified;
	int NDimProfile, NBin[3];
	int NSpeciesRead, NSpeciesProfile;
	int NHalo, NHaloExcludeGlobal, NCellData, NCellHalo;
	int SpeciesContained[NSPECIESPROFILEMAX];
	int NParticlePerBlock[NSPECIESREADMAX], NParticleInBlock[NSPECIESREADMAX];
	int NSubSpecies[NSPECIESREADMAX], NProperties[NSPECIESREADMAX];
	int SizeStorage[NSPECIESREADMAX], NParticleInStorage[NSPECIESREADMAX];
	int RecentreUse[NSPECIESREADMAX];
	int SizeStorageIncrement;
	int NLoopRead, NLoopRecentre, NLoopProcessData, NLoopShapeIterationMax, ILoopRead;
	int OutputFrequencyShapeIteration;
	int pi[NSPECIESREADMAX][NSUBSPECIESMAX+NPROPERTIESMAX];
	int bi[NSPECIESPROFILEMAX][NPROPERTIESMAX];
	double rhomean, rhocrit;
	double rhoencmean, rhoenccrit, rhoencfix;
	double Deltamean, Deltacrit, Deltafix;
	double afix;
	double ascale;
	double rmin[3], rmax[3];
	double NBinPerDex[3];
	double bc[6];
	double BinFactor;
	double rExclude;
	double rRecentre, fRecentreDist;
	double fcheckrvcmax;
	double slopertruncindicator;
	double frhobg;
	double ShapeIterationTolerance;
	double fhaloduplicate;
	double fhaloexcludesize, fhaloexcludedistance;
	/* double fincludeshapeproperty, fincludeshaperadius; */
	double zAxis[3], zHeight;
	COSMOLOGICAL_PARAMETERS cp;
	UNIT_SYSTEM us, cosmous;
	char HaloCatalogueFileName[256], ExcludeHaloCatalogueFileName[256], zAxisCatalogueFileName[256], OutputName[256], MatterTypeName[NSPECIESPROFILEMAX][20];
	/* char TotProfilesFileName[256], GasProfilesFileName[256], DarkProfilesFileName[256], StarProfilesFileName[256]; */
	} GI;

void usage(void);
void set_default_values_general_info(GI *);
void calculate_densities(GI *);
void read_halocatalogue_ascii(GI *, HALO_DATA **);
int read_halocatalogue_ascii_excludehalo(GI *, HALO_DATA *, HALO_DATA_EXCLUDE **);
void initialise_halo_profile(GI *, HALO_DATA *);
void reset_halo_profile_shape(GI, HALO_DATA *);
void read_spherical_profiles(GI, HALO_DATA *);
void put_particles_in_bins(GI, HALO_DATA *, const int, PROFILE_PARTICLE *);
void put_particles_in_storage(GI *, HALO_DATA *, HALO_DATA_EXCLUDE *, const int, PROFILE_PARTICLE *, PROFILE_PARTICLE **);
int intersect(double, int, HALO_DATA, int *, double *, double);
void copy_pp(GI *, const int , const PROFILE_PARTICLE *, PROFILE_PARTICLE *);
void calculate_coordinates_principal_axes(PROFILE_SHAPE_PROPERTIES *, double [3], double [3], double *);
void calculate_recentred_halo_coordinates(GI, HALO_DATA *);
void calculate_total_matter_distribution(GI, HALO_DATA *);
void calculate_baryonic_matter_distribution(GI, HALO_DATA *);
int diagonalise_matrix(double [3][3], double *, double [3], double *, double [3], double *, double [3]);
double diagonalise_shape_tensors(GI, HALO_DATA *, int);
void calculate_halo_properties(GI, HALO_DATA *);
void calculate_derived_properties(GI, HALO_DATA *);
void calculate_overdensity_characteristics(GI, HALO_DATA *);
void calculate_truncation_characteristics(GI, HALO_DATA *);
void remove_background(GI, HALO_DATA *);
void calculate_halo_size(GI, HALO_DATA *);
void calculate_velocity_characteristics(GI, HALO_DATA *);
void determine_halo_hierarchy(GI, HALO_DATA *);
void write_output_matter_profile(GI, HALO_DATA *);
void write_output_shape_profile(GI, HALO_DATA *, int);

int main(int argc, char **argv) {

	int index[3] = {-1,-1,-1};
	int L = -1;
	int ICurrentBlockGas, ICurrentBlockDark, ICurrentBlockStar;
	int PositionPrecision, VerboseLevel;
	int LengthType_rmin[3], LengthType_rmax[3], LengthType_zHeight, LengthType_rRecentre, LengthType_rExclude;
	int LmaxGasAnalysis;
	int NThreads;
	int timestart, timeend, timestartsub, timeendsub, timestartloop, timeendloop, timediff;
	long int d, i, j, k;
	long int mothercellindex, childcellindex;
	long int Nparticleread, Ngasread, Ngasanalysis;
	double celllength, cellvolume;
	double LBox;
	int *cellrefined = NULL;
	long int *Icoordinates = NULL;
	double ***coordinates = NULL;
	double r[3], v[3];
	double convergencefraction;
	double number_density;
	char cdummy[256];
	struct timeval time;
	/* char TotDensityFileName[256], GasDensityFileName[256], DarkDensityFileName[256], StarDensityFileName[256]; */
	/* FILE *TotDensityFile = NULL, *GasDensityFile = NULL, *DarkDensityFile = NULL, *StarDensityFile = NULL; */
	/* XDR TotDensityXDR, GasDensityXDR, DarkDensityXDR, StarDensityXDR; */
	/* ARRAY_HEADER ahtot, ahgas, ahdark, ahstar; */
	/* ARRAY_PARTICLE aptot, apgas, apdark, apstar; */
	GI gi;
	TIPSY_HEADER th;
	TIPSY_GAS_PARTICLE gp;
	TIPSY_DARK_PARTICLE dp;
	TIPSY_STAR_PARTICLE sp;
	TIPSY_GAS_PARTICLE_DPP gpdpp;
	TIPSY_DARK_PARTICLE_DPP dpdpp;
	TIPSY_STAR_PARTICLE_DPP spdpp;
	ART_DATA ad;
	ART_GAS_PROPERTIES agp;
	ART_STAR_PROPERTIES asp;
	ART_COORDINATES *ac = NULL;
	HALO_DATA *hd = NULL;
	HALO_DATA_EXCLUDE *hdeg = NULL;
	PROFILE_PARTICLE **pp = NULL;
	PROFILE_PARTICLE **pp_storage = NULL;
	COORDINATE_TRANSFORMATION cosmo2internal_ct;
	XDR xdrs;
	fpos_t *PosGasFile = NULL, *PosCoordinatesDataFile = NULL, *PosStarPropertiesFile = NULL;
	u_int PosXDR = 0;
	/* u_int PosTotDensityXDR = 0; */
	/* u_int PosGasDensityXDR = 0; */
	/* u_int PosDarkDensityXDR = 0; */
	/* u_int PosStarDensityXDR = 0; */

	/*
	** Get time
	*/

	gettimeofday(&time,NULL);
	timestart = time.tv_sec;

	/*
	** Set some default values
	*/

	PositionPrecision = 0; /* single precision */
	VerboseLevel = 0; /* not verbose */
	for (d = 0; d < 3; d++) {
		LengthType_rmin[d] = 0; /* comoving */
		LengthType_rmax[d] = 0; /* comoving */
		}
	LengthType_zHeight = 0; /* comoving */
	LengthType_rExclude = 0; /* comoving */
	LengthType_rRecentre = 0; /* comoving */
	Nparticleread = 0;
	LmaxGasAnalysis = -1;
	LBox = 0;

	set_default_values_general_info(&gi);
	set_default_values_art_data(&ad);
	set_default_values_coordinate_transformation(&cosmo2internal_ct);

	/*
	** Read in arguments
	*/

	i = 1;
	while (i < argc) {
		if ((strcmp(argv[i],"-h") == 0) || (strcmp(argv[i],"-help") == 0)) {
			usage();
			}
		if (strcmp(argv[i],"-version") == 0) {
			fprintf(stderr,"profile (%s)\n",VERSION);
			exit(1);
			}
		if (strcmp(argv[i],"-spp") == 0) {
			PositionPrecision = 0;
			i++;
			}
		else if (strcmp(argv[i],"-dpp") == 0) {
			PositionPrecision = 1;
			i++;
			}
		else if (strcmp(argv[i],"-pfm") == 0) {
			i++;
			if (i >= argc) usage();
			ad.particle_file_mode = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-DataFormat") == 0) {
			i++;
			if (i >= argc) usage();
			gi.DataFormat = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-HaloCatalogueFormat") == 0) {
			i++;
			if (i >= argc) usage();
			gi.HaloCatalogueFormat = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-HaloCatalogueNDim") == 0) {
			i++;
			if (i >= argc) usage();
			gi.HaloCatalogueNDim = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-HaloCatalogueBinningCoordinateType") == 0) {
			i++;
			if (i >= argc) usage();
			gi.HaloCatalogueBinningCoordinateType = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-ExcludeHaloCatalogueFormat") == 0) {
			i++;
			if (i >= argc) usage();
			gi.HaloCatalogueFormat = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-ExcludeHaloCatalogueNDim") == 0) {
			i++;
			if (i >= argc) usage();
			gi.ExcludeHaloCatalogueNDim = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-ProfilingMode") == 0) {
			i++;
			if (i >= argc) usage();
			gi.ProfilingMode = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-NDimProfile") == 0) {
			i++;
			if (i >= argc) usage();
			gi.NDimProfile = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-DataProcessingMode") == 0) {
			i++;
			if (i >= argc) usage();
			gi.DataProcessingMode = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-ShapeDeterminationVolume") == 0) {
			i++;
			if (i >= argc) usage();
			gi.ShapeDeterminationVolume = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-ShapeTensorForm") == 0) {
			i++;
			if (i >= argc) usage();
			gi.ShapeTensorForm = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-RecentreUseGas") == 0) {
			i++;
			if (i >= argc) usage();
			gi.RecentreUse[GAS] = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-RecentreUseDark") == 0) {
			i++;
			if (i >= argc) usage();
			gi.RecentreUse[DARK] = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-RecentreUseStar") == 0) {
			i++;
			if (i >= argc) usage();
			gi.RecentreUse[STAR] = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-DoMetalSpecies") == 0) {
			gi.DoMetalSpecies = 1;
			i++;
			}
		else if (strcmp(argv[i],"-DoChemicalSpecies") == 0) {
			gi.DoChemicalSpecies = 1;
			i++;
			}
		else if (strcmp(argv[i],"-DoGasTemperature") == 0) {
			gi.DoGasTemperature = 1;
			i++;
			}
		else if (strcmp(argv[i],"-DoStellarAge") == 0) {
			gi.DoStellarAge = 1;
			i++;
			}
		else if (strcmp(argv[i],"-MoreCharacteristicsOutput") == 0) {
			gi.MoreCharacteristicsOutput = 1;
			i++;
			}
		else if (strcmp(argv[i],"-HaloSize") == 0) {
			i++;
			if (i >= argc) usage();
			gi.HaloSize = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-ExcludeParticles") == 0) {
			i++;
			if (i >= argc) usage();
			gi.ExcludeParticles = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-LengthType_rmin") == 0) {
			i++;
			if (i >= argc) usage();
			d = atoi(argv[i]);
			i++;
			if (i >= argc) usage();
			LengthType_rmin[d-1] = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-LengthType_rmax") == 0) {
			i++;
			if (i >= argc) usage();
			d = atoi(argv[i]);
			i++;
			if (i >= argc) usage();
			LengthType_rmax[d-1] = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-LengthType_zHeight") == 0) {
			i++;
			if (i >= argc) usage();
			LengthType_zHeight = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-LengthType_rExclude") == 0) {
			i++;
			if (i >= argc) usage();
			LengthType_rExclude = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-LengthType_rRecentre") == 0) {
			i++;
			if (i >= argc) usage();
			LengthType_rRecentre = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-ascale") == 0) {
			i++;
			if (i >= argc) usage();
			gi.ascale = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-rmin") == 0) {
			i++;
			if (i >= argc) usage();
			d = atoi(argv[i]);
			i++;
			if (i >= argc) usage();
			gi.rmin[d-1] = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-rmax") == 0) {
			i++;
			if (i >= argc) usage();
			d = atoi(argv[i]);
			i++;
			if (i >= argc) usage();
			gi.rmax[d-1] = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-NBin") == 0) {
			i++;
			if (i >= argc) usage();
			d = atoi(argv[i]);
			i++;
			if (i >= argc) usage();
			gi.NBin[d-1] = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-NBinPerDex") == 0) {
			i++;
			if (i >= argc) usage();
			d = atoi(argv[i]);
			i++;
			if (i >= argc) usage();
			gi.NBinPerDex[d-1] = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-BinningGridType") == 0) {
			i++;
			if (i >= argc) usage();
			d = atoi(argv[i]);
			i++;
			if (i >= argc) usage();
			gi.BinningGridType[d-1] = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-CentreType") == 0) {
			i++;
			if (i >= argc) usage();
			gi.CentreType = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-BinningCoordinateType") == 0) {
			i++;
			if (i >= argc) usage();
			gi.BinningCoordinateType = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-VelocityProjectionType") == 0) {
			i++;
			if (i >= argc) usage();
			gi.VelocityProjectionType = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-zAxis_x") == 0) {
			i++;
			if (i >= argc) usage();
			gi.zAxis[0] = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-zAxis_y") == 0) {
			i++;
			if (i >= argc) usage();
			gi.zAxis[1] = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-zAxis_z") == 0) {
			i++;
			if (i >= argc) usage();
			gi.zAxis[2] = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-zHeight") == 0) {
			i++;
			if (i >= argc) usage();
			gi.zHeight = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-rmaxFromHaloCatalogue") == 0) {
			gi.rmaxFromHaloCatalogue = 1;
			i++;
			}
		else if (strcmp(argv[i],"-BinFactor") == 0) {
			i++;
			if (i >= argc) usage();
			gi.BinFactor = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-Delta_mean") == 0) {
			i++;
			if (i >= argc) usage();
			gi.Deltamean = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-Delta_crit") == 0) {
			i++;
			if (i >= argc) usage();
			gi.Deltacrit = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-Delta_fix") == 0) {
			i++;
			if (i >= argc) usage();
			gi.Deltafix = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-afix") == 0) {
			i++;
			if (i >= argc) usage();
			gi.afix = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-rExclude") == 0) {
			i++;
			if (i >= argc) usage();
			gi.rExclude = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-rRecentre") == 0) {
			i++;
			if (i >= argc) usage();
			gi.rRecentre = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-fRecentreDist") == 0) {
			i++;
			if (i >= argc) usage();
			gi.fRecentreDist = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-fcheckrvcmax") == 0) {
			i++;
			if (i >= argc) usage();
			gi.fcheckrvcmax = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-slopertruncindicator") == 0) {
			i++;
			if (i >= argc) usage();
			gi.slopertruncindicator = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-frhobg") == 0) {
			i++;
			if (i >= argc) usage();
			gi.frhobg = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-ShapeIterationTolerance") == 0) {
			i++;
			if (i >= argc) usage();
			gi.ShapeIterationTolerance = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-fhaloduplicate") == 0) {
			i++;
			if (i >= argc) usage();
			gi.fhaloduplicate = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-fhaloexcludesize") == 0) {
			i++;
			if (i >= argc) usage();
			gi.fhaloexcludesize = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-fhaloexcludedistance") == 0) {
			i++;
			if (i >= argc) usage();
			gi.fhaloexcludedistance = atof(argv[i]);
			i++;
			}
		/* else if (strcmp(argv[i],"-fincludeshapeproperty") == 0) { */
		/*	   i++; */
		/*	   if (i >= argc) usage(); */
		/*	   gi.fincludeshapeproperty = atof(argv[i]); */
		/*	   i++; */
		/*	   } */
		/* else if (strcmp(argv[i],"-fincludeshaperadius") == 0) { */
		/*	   i++; */
		/*	   if (i >= argc) usage(); */
		/*	   gi.fincludeshaperadius = atof(argv[i]); */
		/*	   i++; */
		/*	   } */
		else if (strcmp(argv[i],"-OmegaM0") == 0) {
			i++;
			if (i >= argc) usage();
			gi.cp.OmegaM0 = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-OmegaL0") == 0) {
			i++;
			if (i >= argc) usage();
			gi.cp.OmegaL0 = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-OmegaK0") == 0) {
			i++;
			if (i >= argc) usage();
			gi.cp.OmegaK0 = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-OmegaR0") == 0) {
			i++;
			if (i >= argc) usage();
			gi.cp.OmegaR0 = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-h0_100") == 0) {
			i++;
			if (i >= argc) usage();
			gi.cp.h0_100 = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-LBox") == 0) {
			i++;
			if (i >= argc) usage();
			LBox = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-LBox_internal") == 0) {
			i++;
			if (i >= argc) usage();
			gi.us.LBox = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-rhocrit0_internal") == 0) {
			i++;
			if (i >= argc) usage();
			gi.us.rhocrit0 = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-Hubble0_internal") == 0) {
			i++;
			if (i >= argc) usage();
			gi.us.Hubble0 = atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-NParticlePerBlockGas") == 0) {
			i++;
			if (i >= argc) usage();
			gi.NParticlePerBlock[GAS] = (int) atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-NParticlePerBlockDark") == 0) {
			i++;
			if (i >= argc) usage();
			gi.NParticlePerBlock[DARK] = (int) atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-NParticlePerBlockStar") == 0) {
			i++;
			if (i >= argc) usage();
			gi.NParticlePerBlock[STAR] = (int) atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-NCellData") == 0) {
			i++;
			if (i >= argc) usage();
			gi.NCellData = (int) atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-NCellHalo") == 0) {
			i++;
			if (i >= argc) usage();
			gi.NCellHalo = (int) atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-NLoopRecentre") == 0) {
			i++;
			if (i >= argc) usage();
			gi.NLoopRecentre = (int) atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-NLoopShapeIterationMax") == 0) {
			i++;
			if (i >= argc) usage();
			gi.NLoopShapeIterationMax = (int) atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-OutputFrequencySI") == 0) {
			i++;
			if (i >= argc) usage();
			gi.OutputFrequencyShapeIteration = (int) atof(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-LmaxGasAnalysis") == 0) {
			i++;
			if (i >= argc) usage();
			LmaxGasAnalysis = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-GRAVITY") == 0) {
			i++;
			if (i >= argc) usage();
			ad.GRAVITY = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-HYDRO") == 0) {
			i++;
			if (i >= argc) usage();
			ad.HYDRO = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-ADVECT_SPECIES") == 0) {
			i++;
			if (i >= argc) usage();
			ad.ADVECT_SPECIES = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-STARFORM") == 0) {
			i++;
			if (i >= argc) usage();
			ad.STARFORM = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-ENRICH") == 0) {
			i++;
			if (i >= argc) usage();
			ad.ENRICH = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-ENRICH_SNIa") == 0) {
			i++;
			if (i >= argc) usage();
			ad.ENRICH_SNIa = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-RADIATIVE_TRANSFER") == 0) {
			i++;
			if (i >= argc) usage();
			ad.RADIATIVE_TRANSFER = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-ELECTRON_ION_NONEQUILIBRIUM") == 0) {
			i++;
			if (i >= argc) usage();
			ad.ELECTRON_ION_NONEQUILIBRIUM = atoi(argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-HaloCatalogue") == 0) {
			i++;
			if (i >= argc) usage();
			strcpy(gi.HaloCatalogueFileName,argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-ExcludeHaloCatalogue") == 0) {
			i++;
			if (i >= argc) usage();
			strcpy(gi.ExcludeHaloCatalogueFileName,argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-zAxisCatalogue") == 0) {
			i++;
			if (i >= argc) usage();
			strcpy(gi.zAxisCatalogueFileName,argv[i]);
			gi.zAxisCatalogueSpecified = 1;
			i++;
			}
		else if (strcmp(argv[i],"-Output") == 0) {
			i++;
			if (i >= argc) usage();
			strcpy(gi.OutputName,argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-ARTHeader") == 0) {
			i++;
			if (i >= argc) usage();
			strcpy(ad.HeaderFileName,argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-ARTCoordinatesData") == 0) {
			ad.darkcontained = 1;
			i++;
			if (i >= argc) usage();
			strcpy(ad.CoordinatesDataFileName,argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-ARTStarProperties") == 0) {
			ad.starcontained = 1;
			i++;
			if (i >= argc) usage();
			strcpy(ad.StarPropertiesFileName,argv[i]);
			i++;
			}
		else if (strcmp(argv[i],"-ARTGas") == 0) {
			ad.gascontained = 1;
			i++;
			if (i >= argc) usage();
			strcpy(ad.GasFileName,argv[i]);
			i++;
			}
		/* else if (strcmp(argv[i],"-totprofilesfile") == 0) { */
		/*	   i++; */
		/*	   if (i >= argc) usage(); */
		/*	   strcpy(gi.TotProfilesFileName,argv[i]); */
		/*	   i++; */
		/*	   } */
		/* else if (strcmp(argv[i],"-gasprofilesfile") == 0) { */
		/*	   i++; */
		/*	   if (i >= argc) usage(); */
		/*	   strcpy(gi.GasProfilesFileName,argv[i]); */
		/*	   i++; */
		/*	   } */
		/* else if (strcmp(argv[i],"-darkprofilesfile") == 0) { */
		/*	   i++; */
		/*	   if (i >= argc) usage(); */
		/*	   strcpy(gi.DarkProfilesFileName,argv[i]); */
		/*	   i++; */
		/*	   } */
		/* else if (strcmp(argv[i],"-starprofilesfile") == 0) { */
		/*	   i++; */
		/*	   if (i >= argc) usage(); */
		/*	   strcpy(gi.StarProfilesFileName,argv[i]); */
		/*	   i++; */
		/*	   } */
		/* else if (strcmp(argv[i],"-totdensityfile") == 0) { */
		/*	   i++; */
		/*	   if (i >= argc) usage(); */
		/*	   strcpy(TotDensityFileName,argv[i]); */
		/*	   i++; */
		/*	   } */
		/* else if (strcmp(argv[i],"-gasdensityfile") == 0) { */
		/*	   i++; */
		/*	   if (i >= argc) usage(); */
		/*	   strcpy(GasDensityFileName,argv[i]); */
		/*	   i++; */
		/*	   } */
		/* else if (strcmp(argv[i],"-darkdensityfile") == 0) { */
		/*	   i++; */
		/*	   if (i >= argc) usage(); */
		/*	   strcpy(DarkDensityFileName,argv[i]); */
		/*	   i++; */
		/*	   } */
		/* else if (strcmp(argv[i],"-stardensityfile") == 0) { */
		/*	   i++; */
		/*	   if (i >= argc) usage(); */
		/*	   strcpy(StarDensityFileName,argv[i]); */
		/*	   i++; */
		/*	   } */
		else if (strcmp(argv[i],"-verbose") == 0) {
			VerboseLevel = 1;
			i++;
			}
		else {
			usage();
			}
		}

	/*
	** Get number of threads
	*/

	NThreads = omp_get_max_threads();
	fprintf(stderr,"Using in maximum %d OpenMP threads.\n\n",NThreads);

	/*
	** Set some defaults and do some checks
	*/

	if (gi.ProfilingMode == 0) {
		if (gi.DataProcessingMode == 1) {
			fprintf(stderr,"No normal profiling possible with storage data processing mode. Reset DataProcessingMode = 0.\n\n");
			gi.DataProcessingMode = 0;
			}
		if (gi.NLoopRecentre > 0) {
			if (!(gi.rRecentre > 0)) {
				fprintf(stderr,"No value for rRecentre set. Abort.\n\n");
				exit(1);
				}
			if (gi.RecentreUse[GAS] == 0 && gi.RecentreUse[DARK] == 0 && gi.RecentreUse[STAR] == 0) {
				fprintf(stderr,"No recentring species set. Abort.\n\n");
				exit(1);
				}
			}
		}
	if (gi.ProfilingMode == 1) {
		if (gi.NLoopRecentre > 0) {
			fprintf(stderr,"No recentering in shape profiling mode allowed. Reset NLoopRecentre = 0.\n\n");
			gi.NLoopRecentre = 0;
			}
		if (gi.NDimProfile > 1) {
			fprintf(stderr,"Only one dimension in shape profiling mode allowed. Reset NDimProfile = 1.\n\n");
			gi.NDimProfile = 1;
			}
		if (gi.DoGasTemperature) {
			fprintf(stderr,"No need for gas temperatures in shape profiling mode. Reset DoGasTemperature = 0.\n\n");
			gi.DoGasTemperature = 0;
			}
		if (gi.DoStellarAge) {
			fprintf(stderr,"No need for stellar ages in shape profiling mode. Reset DoStellarAge = 0.\n\n");
			gi.DoStellarAge = 0;
			}
		}
	if (gi.DataFormat == 0) {
		if (gi.DoMetalSpecies) {
			fprintf(stderr,"Doing metal species with Tipsy format is not enabled. Reset DoMetalSpecies = 0.\n\n");
			gi.DoMetalSpecies = 0;
			}
		if (gi.DoChemicalSpecies) {
			fprintf(stderr,"Doing chemical species with Tipsy format is not enabled. Reset DoChemicalSpecies = 0.\n\n");
			gi.DoChemicalSpecies = 0;
			}
		}
	if (gi.DoChemicalSpecies) {
		if (gi.DoMetalSpecies == 0) {
			fprintf(stderr,"DoMetalSpecies was automatically switched on since it is necessary for doing chemical species.\n\n");
			gi.DoMetalSpecies = 1;
			}
		gi.NSpeciesProfile = 17;
		}
	else if (gi.DoMetalSpecies) {
		gi.NSpeciesProfile = 11;
		}
	assert(gi.NSpeciesRead <= NSPECIESREADMAX);
	assert(gi.NSpeciesProfile <= NSPECIESPROFILEMAX);
	for (j = 0; j < gi.NSpeciesRead; j++) assert(gi.NParticlePerBlock[j] > 0);
	assert(gi.NCellData > 0);
	assert(gi.NCellHalo > 0);
	assert(gi.ProfilingMode < 2);
	if (gi.ProfilingMode == 1) assert(gi.NDimProfile == 1);
	assert(gi.DataProcessingMode < 2);
	assert(gi.NDimProfile > 0);
	assert(gi.NDimProfile < 3);
	assert(gi.HaloCatalogueNDim < 3);
	assert(gi.ExcludeHaloCatalogueNDim < 3);
	if (gi.HaloCatalogueFormat == 1) assert(gi.HaloCatalogueNDim == 1);

	/*
	** Prepare data arrays
	*/

	pp = malloc(gi.NSpeciesRead*sizeof(PROFILE_PARTICLE *));
	assert(pp != NULL);
	pp_storage = malloc(gi.NSpeciesRead*sizeof(PROFILE_PARTICLE *));
	assert(pp_storage != NULL);
	for (j = 0; j < gi.NSpeciesRead; j++) {
		if (j == GAS) {
			if (gi.DoMetalSpecies) {
				gi.NSubSpecies[GAS] += 2;
				gi.pi[GAS][MASS_METAL_SNII] = 1;
				gi.pi[GAS][MASS_METAL_SNIa] = 2;
				}
			if (gi.DoChemicalSpecies) {
				gi.NSubSpecies[GAS] += 6;
				gi.pi[GAS][MASS_HI] = 3;
				gi.pi[GAS][MASS_HII] = 4;
				gi.pi[GAS][MASS_HeI] = 5;
				gi.pi[GAS][MASS_HeII] = 6;
				gi.pi[GAS][MASS_HeIII] = 7;
				gi.pi[GAS][MASS_H2] = 8;
				}
			if (gi.DoGasTemperature) {
				gi.NProperties[GAS] += 1;
				gi.pi[GAS][TEMPERATURE] = gi.NSubSpecies[GAS];
				}
			}
		else if (j == STAR) {
			if (gi.DoMetalSpecies) {
				gi.NSubSpecies[STAR] += 2;
				gi.pi[STAR][MASS_METAL_SNII] = 1;
				gi.pi[STAR][MASS_METAL_SNIa] = 2;
				}
			if (gi.DoStellarAge) {
				gi.NProperties[STAR] += 1;
				gi.pi[STAR][AGE] = gi.NSubSpecies[STAR];
				}
			}
		assert(gi.NSubSpecies[j] > 0);
		}
	for (j = 0; j < gi.NSpeciesProfile; j++) gi.SpeciesContained[j] = 0;

	/*
	** Read header files
	*/

	if (gi.DataFormat == 0) {
		/*
		** Tipsy
		*/
		xdrstdio_create(&xdrs,stdin,XDR_DECODE);
		read_tipsy_xdr_header(&xdrs,&th);
		if (gi.ascale == 0) gi.ascale = th.time;
		if (gi.us.LBox == 0) gi.us.LBox = 1;
		if (gi.us.Hubble0 == 0) gi.us.Hubble0 = sqrt(8.0*M_PI/3.0);
		if (gi.us.rhocrit0 == 0) gi.us.rhocrit0 = 1;
		gi.bc[0] = -0.5*gi.us.LBox;
		gi.bc[1] = -0.5*gi.us.LBox;
		gi.bc[2] = -0.5*gi.us.LBox;
		gi.bc[3] = 0.5*gi.us.LBox;
		gi.bc[4] = 0.5*gi.us.LBox;
		gi.bc[5] = 0.5*gi.us.LBox;
		gi.SpeciesContained[GAS] = (th.ngas > 0)?1:0;
		gi.SpeciesContained[DARK] = (th.ndark > 0)?1:0;
		gi.SpeciesContained[STAR] = (th.nstar > 0)?1:0;
		}
	else if (gi.DataFormat == 1) {
		/*
		** ART
		*/
		prepare_art_data(&ad);
		if (gi.ascale == 0) gi.ascale = ad.ah.abox;
		gi.cp.OmegaM0 = ad.ah.OmM0;
		gi.cp.OmegaB0 = ad.ah.OmB0;
		gi.cp.OmegaD0 = gi.cp.OmegaM0 - gi.cp.OmegaB0;
		gi.cp.OmegaL0 = ad.ah.OmL0;
		gi.cp.OmegaK0 = ad.ah.OmK0;
		gi.cp.h0_100 = ad.ah.h100;
		if (gi.us.LBox == 0) gi.us.LBox = ad.ah.Ngrid;
		if (gi.us.Hubble0 == 0) gi.us.Hubble0 = 2.0/sqrt(gi.cp.OmegaM0);
		if (gi.us.rhocrit0 == 0) gi.us.rhocrit0 = 1.0/gi.cp.OmegaM0;
		gi.bc[0] = 0;
		gi.bc[1] = 0;
		gi.bc[2] = 0;
		gi.bc[3] = gi.us.LBox;
		gi.bc[4] = gi.us.LBox;
		gi.bc[5] = gi.us.LBox;
		gi.SpeciesContained[GAS] = ad.gascontained;
		gi.SpeciesContained[DARK] = ad.darkcontained;
		gi.SpeciesContained[STAR] = ad.starcontained;
		for (i = ad.Lmindark; i <= ad.Lmaxdark; i++) ad.massdark[i] = ad.ah.mass[ad.Lmaxdark-i];
		if (LmaxGasAnalysis == -1) LmaxGasAnalysis = ad.Lmaxgas;
		assert(LmaxGasAnalysis >= 0);
		assert(LmaxGasAnalysis <= ad.Lmaxgas);
		if (ad.gascontained) {
			PosGasFile = malloc(2*sizeof(fpos_t));
			assert(PosGasFile != NULL);
			}
		if (ad.darkcontained || ad.starcontained) {
			PosCoordinatesDataFile = malloc(1*sizeof(fpos_t));
			assert(PosCoordinatesDataFile != NULL);
			}
		if (ad.starcontained) {
			PosStarPropertiesFile = malloc(ad.Nstarproperties*sizeof(fpos_t));
			assert(PosStarPropertiesFile != NULL);
			}
		}
	else {
		fprintf(stderr,"Not supported format!\n");
		exit(1);
		}

	/*
	** Set some parameters
	*/

	if (gi.SpeciesContained[GAS] || gi.SpeciesContained[DARK] || gi.SpeciesContained[STAR]) gi.SpeciesContained[TOT] = 1;
	if (gi.SpeciesContained[GAS] || gi.SpeciesContained[STAR]) gi.SpeciesContained[BARYON] = 1;
	if (gi.DoMetalSpecies) {
		if (gi.SpeciesContained[GAS]) {
			gi.SpeciesContained[GAS_METAL_SNII] = 1;
			gi.SpeciesContained[GAS_METAL_SNIa] = 1;
			}
		if (gi.SpeciesContained[STAR]) {
			gi.SpeciesContained[STAR_METAL_SNII] = 1;
			gi.SpeciesContained[STAR_METAL_SNIa] = 1;
			}
		if (gi.SpeciesContained[BARYON]) {
			gi.SpeciesContained[BARYON_METAL_SNII] = 1;
			gi.SpeciesContained[BARYON_METAL_SNIa] = 1;
			}
		}
	if (gi.DoChemicalSpecies && gi.SpeciesContained[GAS]) {
		gi.SpeciesContained[GAS_HI] = 1;
		gi.SpeciesContained[GAS_HII] = 1;
		gi.SpeciesContained[GAS_HeI] = 1;
		gi.SpeciesContained[GAS_HeII] = 1;
		gi.SpeciesContained[GAS_HeIII] = 1;
		gi.SpeciesContained[GAS_H2] = 1;
		}

	for (d = 0; d < 3; d++) {
		if (LengthType_rmin[d] == 1) gi.rmin[d] /= gi.ascale;
		if (LengthType_rmax[d] == 1) gi.rmax[d] /= gi.ascale;
		}
	if (LengthType_zHeight == 1) gi.zHeight /= gi.ascale;
	if (LengthType_rExclude == 1) gi.rExclude /= gi.ascale;
	if (LengthType_rRecentre == 1) gi.rRecentre /= gi.ascale;

	if (gi.cosmous.LBox == 0) gi.cosmous.LBox = LBox;
	if (gi.cosmous.Hubble0 == 0) gi.cosmous.Hubble0 = 100*gi.cp.h0_100*ConversionFactors.km_per_s_2_kpc_per_Gyr/1e3;
	if (gi.cosmous.rhocrit0 == 0) gi.cosmous.rhocrit0 = PhysicalConstants.rho_crit_cosmology*pow(gi.cp.h0_100,2);

	calculate_units_transformation(gi.cosmous,gi.us,&cosmo2internal_ct);

	/*
	** Calculate densities in comoving coordinates
	*/

	calculate_densities(&gi);

	/*
	** Read halo catalogue
	*/

	gettimeofday(&time,NULL);
	timestartsub = time.tv_sec;
	fprintf(stderr,"Reading halo catalogues ... ");
	if (gi.ProfilingMode == 0) {
		read_halocatalogue_ascii(&gi,&hd);
		}
	else if (gi.ProfilingMode == 1) {
		assert(gi.HaloCatalogueFormat == 2);
		read_halocatalogue_ascii(&gi,&hd);
		}
	else if (gi.ProfilingMode == 3) {

		/* if (gi.ProfilingMode == 3) read_spherical_profiles(gi,hd); */

		/* for (i = 0; i < gi.NHalo; i++) { */
		/*	   fprintf(stderr,"i %ld ID %d rmin %.6e rmax %.6e NBin %d\n",i,hd[i].ID,hd[i].rmin,hd[i].rmax,hd[i].NBin); */
		/*	   for (j = 0; j <= hd[i].NBin; j++) { */
		/*	fprintf(stderr,"i %ld j %ld ri %.6e ro %.6e totpropertymin %.6e totpropertymax %.6e gaspropertymin %.6e gaspropertymax %.6e darkpropertymin %.6e darkpropertymax %.6e\n",i,j,hd[i].ps[j].ri,hd[i].ps[j].ro,hd[i].ps[j].totshape->propertymin,hd[i].ps[j].totshape->propertymax,hd[i].ps[j].gasshape->propertymin,hd[i].ps[j].gasshape->propertymax,hd[i].ps[j].darkshape->propertymin,hd[i].ps[j].darkshape->propertymax); */
		/*	} */
		/*	   } */

		}
	else {
		fprintf(stderr,"Not supported profiling mode!\n");
		exit(1);
		}
	gettimeofday(&time,NULL);
	timeendsub = time.tv_sec;
	timediff = timeendsub-timestartsub;
	fprintf(stderr,"Done. Read in %d haloes. It took %d s = %d h %d m %d s.\n\n",gi.NHalo,timediff,timediff/3600,(timediff/60)%60,timediff%60);

	/*
	** Read halo catalogue where particles are excluded
	*/

	if (gi.ExcludeParticles == 1) {
		gettimeofday(&time,NULL);
		timestartsub = time.tv_sec;
		fprintf(stderr,"Reading halo catalogues for particle exclusion ... ");
		i = read_halocatalogue_ascii_excludehalo(&gi,hd,&hdeg);
		j = 0;
		for (k = 0; k < gi.NHalo; k++) j += hd[k].NHaloExclude;
		gettimeofday(&time,NULL);
		timeendsub = time.tv_sec;
		timediff = timeendsub-timestartsub;
		fprintf(stderr,"Done. Read in %ld haloes in total leading to %d global and %ld local haloes for exclusion. It took %d s = %d h %d m %d s.\n\n",i,gi.NHaloExcludeGlobal,j,timediff,timediff/3600,(timediff/60)%60,timediff%60);
		}

	/*
	** Get density files ready
	*/

	/* if (gi.ProfilingMode == 3) { */
	/*	TotDensityFile = fopen(TotDensityFileName,"r"); */
	/*	assert(TotDensityFile != NULL); */
	/*	xdrstdio_create(&TotDensityXDR,TotDensityFile,XDR_DECODE); */
	/*	read_array_xdr_header(&TotDensityXDR,&ahtot); */
	/*	allocate_array_particle(&ahtot,&aptot); */
	/*	if (gi.DataFormat == 0) assert(ahtot.N[0] == th.ntotal); */
	/*	PosTotDensityXDR = xdr_getpos(&TotDensityXDR); */
	/*	if (gi.SpeciesContained[GAS]) { */
	/*		GasDensityFile = fopen(GasDensityFileName,"r"); */
	/*		assert(GasDensityFile != NULL); */
	/*		xdrstdio_create(&GasDensityXDR,GasDensityFile,XDR_DECODE); */
	/*		read_array_xdr_header(&GasDensityXDR,&ahgas); */
	/*		allocate_array_particle(&ahgas,&apgas); */
	/*		if (gi.DataFormat == 0) assert(ahgas.N[0] == th.ngas); */
	/*		PosGasDensityXDR = xdr_getpos(&GasDensityXDR); */
	/*		} */
	/*	if (gi.SpeciesContained[DARK]) { */
	/*		DarkDensityFile = fopen(DarkDensityFileName,"r"); */
	/*		assert(DarkDensityFile != NULL); */
	/*		xdrstdio_create(&DarkDensityXDR,DarkDensityFile,XDR_DECODE); */
	/*		read_array_xdr_header(&DarkDensityXDR,&ahdark); */
	/*		allocate_array_particle(&ahdark,&apdark); */
	/*		if (gi.DataFormat == 0) assert(ahdark.N[0] == th.ndark); */
	/*		if (gi.DataFormat == 1) assert(ahdark.N[0] == ad.Ndark); */
	/*		PosDarkDensityXDR = xdr_getpos(&DarkDensityXDR); */
	/*		} */
	/*	if (gi.SpeciesContained[STAR]) { */
	/*		StarDensityFile = fopen(StarDensityFileName,"r"); */
	/*		assert(StarDensityFile != NULL); */
	/*		xdrstdio_create(&StarDensityXDR,StarDensityFile,XDR_DECODE); */
	/*		read_array_xdr_header(&StarDensityXDR,&ahstar); */
	/*		allocate_array_particle(&ahstar,&apstar); */
	/*		if (gi.DataFormat == 0) assert(ahstar.N[0] == th.nstar); */
	/*		if (gi.DataFormat == 1) assert(ahstar.N[0] == ad.Nstar); */
	/*		PosStarDensityXDR = xdr_getpos(&StarDensityXDR); */
	/*		} */
	/*	} */

	/*
	** Harvest data
	*/

	assert(gi.NLoopProcessData == 1);
	gi.NLoopRead = gi.NLoopRecentre + gi.NLoopProcessData;

	for (gi.ILoopRead = 0; gi.ILoopRead < gi.NLoopRead; gi.ILoopRead++) {
		gettimeofday(&time,NULL);
		timestartloop = time.tv_sec;
		fprintf(stderr,"Doing loop %d ...\n",gi.ILoopRead+1);
		if (gi.DataFormat == 0 && gi.NHalo > 0) {
			/*
			** Tipsy data
			**
			** Set file pointers correctly
			*/
			if (gi.ILoopRead == 0) PosXDR = xdr_getpos(&xdrs);
			else xdr_setpos(&xdrs,PosXDR);

			/* if (gi.ProfilingMode == 3) { */
			/*	xdr_setpos(&TotDensityXDR,PosTotDensityXDR); */
			/*	if (gi.SpeciesContained[GAS]) xdr_setpos(&GasDensityXDR,PosGasDensityXDR); */
			/*	if (gi.SpeciesContained[DARK]) xdr_setpos(&DarkDensityXDR,PosDarkDensityXDR); */
			/*	if (gi.SpeciesContained[STAR]) xdr_setpos(&StarDensityXDR,PosStarDensityXDR); */
			/*	} */

			/*
			** Gas
			*/
			gettimeofday(&time,NULL);
			timestartsub = time.tv_sec;
			fprintf(stderr,"Processing gas ... ");
			pp[GAS] = malloc(gi.NParticlePerBlock[GAS]*sizeof(PROFILE_PARTICLE));
			assert(pp[GAS] != NULL);
			for (i = 0; i < gi.NParticlePerBlock[GAS]; i++) {
				pp[GAS][i].P = malloc((gi.NSubSpecies[GAS]+gi.NProperties[GAS])*sizeof(double));
				assert(pp[GAS][i].P != NULL);
				}
			Nparticleread = 0;
			ICurrentBlockGas = 0;
			for (i = 0; i < th.ngas; i++) {
				if (PositionPrecision == 0) {
					read_tipsy_xdr_gas(&xdrs,&gp);
					for (k = 0; k < 3; k++) {
						pp[GAS][ICurrentBlockGas].r[k] = put_in_box(gp.pos[k],gi.bc[k],gi.bc[k+3]);
						pp[GAS][ICurrentBlockGas].v[k] = gp.vel[k];
						}
					pp[GAS][ICurrentBlockGas].P[gi.pi[GAS][MASS_TOT]] = gp.mass;
					if (gi.DoGasTemperature) {
						pp[GAS][ICurrentBlockGas].P[gi.pi[GAS][TEMPERATURE]] = gp.temp;
						}
					}
				else if (PositionPrecision == 1) {
					read_tipsy_xdr_gas_dpp(&xdrs,&gpdpp);
					for (k = 0; k < 3; k++) {
						pp[GAS][ICurrentBlockGas].r[k] = put_in_box(gpdpp.pos[k],gi.bc[k],gi.bc[k+3]);
						pp[GAS][ICurrentBlockGas].v[k] = gpdpp.vel[k];
						}
					pp[GAS][ICurrentBlockGas].P[gi.pi[GAS][MASS_TOT]] = gpdpp.mass;
					if (gi.DoGasTemperature) {
						pp[GAS][ICurrentBlockGas].P[gi.pi[GAS][TEMPERATURE]] = gpdpp.temp;
						}
					}

				/* if (gi.ProfilingMode == 3) { */
				/*	   read_array_xdr_particle(&GasDensityXDR,&ahgas,&apgas); */
				/*	   read_array_xdr_particle(&TotDensityXDR,&ahtot,&aptot); */
				/*	   pp[GAS][ICurrentBlockGas].property = apgas.fa[0]; */
				/*	   pp[GAS][ICurrentBlockGas].propertytot = aptot.fa[0]; */
				/*	   } */

				Nparticleread++;
				ICurrentBlockGas++;
				if ((ICurrentBlockGas == gi.NParticlePerBlock[GAS]) || (Nparticleread == th.ngas)) {
					/*
					** Block is full or we reached end of gas particles
					*/
					gi.NParticleInBlock[GAS] = ICurrentBlockGas;
					if (gi.DataProcessingMode == 0 && gi.ILoopRead >= gi.NLoopRecentre) put_particles_in_bins(gi,hd,GAS,pp[GAS]);
					else if (gi.DataProcessingMode == 1) put_particles_in_storage(&gi,hd,hdeg,GAS,pp[GAS],&pp_storage[GAS]);
					ICurrentBlockGas = 0;
					}
				} /* for ngas */
			for (i = 0; i < gi.NParticlePerBlock[GAS]; i++) free(pp[GAS][i].P);
			free(pp[GAS]);
			gettimeofday(&time,NULL);
			timeendsub = time.tv_sec;
			timediff = timeendsub-timestartsub;
			fprintf(stderr,"Done. It took %d s = %d h %d m %d s. Processed in total %d gas particles.\n",timediff,timediff/3600,(timediff/60)%60,timediff%60,th.ngas);
			/*
			** Dark Matter
			*/
			gettimeofday(&time,NULL);
			timestartsub = time.tv_sec;
			fprintf(stderr,"Processing dark matter ... ");
			pp[DARK] = malloc(gi.NParticlePerBlock[DARK]*sizeof(PROFILE_PARTICLE));
			assert(pp[DARK] != NULL);
			for (i = 0; i < gi.NParticlePerBlock[DARK]; i++) {
				pp[DARK][i].P = malloc((gi.NSubSpecies[DARK]+gi.NProperties[DARK])*sizeof(double));
				assert(pp[DARK][i].P != NULL);
				}
			Nparticleread = 0;
			ICurrentBlockDark = 0;
			for (i = 0; i < th.ndark; i++) {
				if (PositionPrecision == 0) {
					read_tipsy_xdr_dark(&xdrs,&dp);
					for (k = 0; k < 3; k++) {
						pp[DARK][ICurrentBlockDark].r[k] = put_in_box(dp.pos[k],gi.bc[k],gi.bc[k+3]);
						pp[DARK][ICurrentBlockDark].v[k] = dp.vel[k];
						}
					pp[DARK][ICurrentBlockDark].P[gi.pi[DARK][MASS_TOT]] = dp.mass;
					}
				else if (PositionPrecision == 1) {
					read_tipsy_xdr_dark_dpp(&xdrs,&dpdpp);
					for (k = 0; k < 3; k++) {
						pp[DARK][ICurrentBlockDark].r[k] = put_in_box(dpdpp.pos[k],gi.bc[k],gi.bc[k+3]);
						pp[DARK][ICurrentBlockDark].v[k] = dpdpp.vel[k];
						}
					pp[DARK][ICurrentBlockDark].P[gi.pi[DARK][MASS_TOT]] = dpdpp.mass;
					}

				/* if (gi.ProfilingMode == 3) { */
				/*	   read_array_xdr_particle(&DarkDensityXDR,&ahdark,&apdark); */
				/*	   read_array_xdr_particle(&TotDensityXDR,&ahtot,&aptot); */
				/*	   pdp[ICurrentBlockDark].property = apdark.fa[0]; */
				/*	   pdp[ICurrentBlockDark].propertytot = aptot.fa[0]; */
				/*	   } */

				Nparticleread++;
				ICurrentBlockDark++;
				if ((ICurrentBlockDark == gi.NParticlePerBlock[DARK]) || (Nparticleread == th.ndark)) {
					/*
					** Block is full or we reached end of dark matter particles
					*/
					gi.NParticleInBlock[DARK] = ICurrentBlockDark;
					if (gi.DataProcessingMode == 0) put_particles_in_bins(gi,hd,DARK,pp[DARK]);
					else if (gi.DataProcessingMode == 1) put_particles_in_storage(&gi,hd,hdeg,DARK,pp[DARK],&pp_storage[DARK]);
					ICurrentBlockDark = 0;
					}
				} /* for ndark */
			for (i = 0; i < gi.NParticlePerBlock[DARK]; i++) free(pp[DARK][i].P);
			free(pp[DARK]);
			gettimeofday(&time,NULL);
			timeendsub = time.tv_sec;
			timediff = timeendsub-timestartsub;
			fprintf(stderr,"Done. It took %d s = %d h %d m %d s. Processed in total %d dark matter particles.\n",timediff,timediff/3600,(timediff/60)%60,timediff%60,th.ndark);
			/*
			** Stars
			*/
			gettimeofday(&time,NULL);
			timestartsub = time.tv_sec;
			fprintf(stderr,"Processing stars ... ");
			pp[STAR] = malloc(gi.NParticlePerBlock[STAR]*sizeof(PROFILE_PARTICLE));
			assert(pp[STAR] != NULL);
			for (i = 0; i < gi.NParticlePerBlock[STAR]; i++) {
				pp[STAR][i].P = malloc((gi.NSubSpecies[STAR]+gi.NProperties[STAR])*sizeof(double));
				assert(pp[STAR][i].P != NULL);
				}
			Nparticleread = 0;
			ICurrentBlockStar = 0;
			for (i = 0; i < th.nstar; i++) {
				if (PositionPrecision == 0) {
					read_tipsy_xdr_star(&xdrs,&sp);
					for (k = 0; k < 3; k++) {
						pp[STAR][ICurrentBlockStar].r[k] = put_in_box(sp.pos[k],gi.bc[k],gi.bc[k+3]);
						pp[STAR][ICurrentBlockStar].v[k] = sp.vel[k];
						}
					pp[STAR][ICurrentBlockStar].P[gi.pi[STAR][MASS_TOT]] = sp.mass;
					if (gi.DoStellarAge) {
						pp[STAR][ICurrentBlockStar].P[gi.pi[STAR][AGE]] = sp.tform;
						}
					}
				else if (PositionPrecision == 1) {
					read_tipsy_xdr_star_dpp(&xdrs,&spdpp);
					for (k = 0; k < 3; k++) {
						pp[STAR][ICurrentBlockStar].r[k] = put_in_box(spdpp.pos[k],gi.bc[k],gi.bc[k+3]);
						pp[STAR][ICurrentBlockStar].v[k] = spdpp.vel[k];
						}
					pp[STAR][ICurrentBlockStar].P[gi.pi[STAR][MASS_TOT]] = spdpp.mass;
					if (gi.DoStellarAge) {
						pp[STAR][ICurrentBlockStar].P[gi.pi[STAR][AGE]] = spdpp.tform;
						}
					}

				/* if (gi.ProfilingMode == 3) { */
				/*	   read_array_xdr_particle(&StarDensityXDR,&ahstar,&apstar); */
				/*	   read_array_xdr_particle(&TotDensityXDR,&ahtot,&aptot); */
				/*	   pp[STAR][ICurrentBlockStar].property = apstar.fa[0]; */
				/*	   pp[STAR][ICurrentBlockStar].propertytot = aptot.fa[0]; */
				/*	   } */

				Nparticleread++;
				ICurrentBlockStar++;
				if ((ICurrentBlockStar == gi.NParticlePerBlock[STAR]) || (Nparticleread == th.nstar)) {
					/*
					** Block is full or we reached end of star matter particles
					*/
					gi.NParticleInBlock[STAR] = ICurrentBlockStar;
					if (gi.DataProcessingMode == 0) put_particles_in_bins(gi,hd,STAR,pp[STAR]);
					else if (gi.DataProcessingMode == 1) put_particles_in_storage(&gi,hd,hdeg,STAR,pp[STAR],&pp_storage[STAR]);
					ICurrentBlockStar = 0;
					}
				} /* for nstar */
			for (i = 0; i < gi.NParticlePerBlock[STAR]; i++) free(pp[STAR][i].P);
			free(pp[STAR]);
			gettimeofday(&time,NULL);
			timeendsub = time.tv_sec;
			timediff = timeendsub-timestartsub;
			fprintf(stderr,"Done. It took %d s = %d h %d m %d s. Processed in total %d star particles.\n",timediff,timediff/3600,(timediff/60)%60,timediff%60,th.nstar);
			}
		else if (gi.DataFormat == 1 && gi.NHalo > 0) {
			/*
			** ART data
			*/

			/* if (gi.ProfilingMode == 3) { */
			/*	xdr_setpos(&TotDensityXDR,PosTotDensityXDR); */
			/*	if (gi.SpeciesContained[GAS]) xdr_setpos(&GasDensityXDR,PosGasDensityXDR); */
			/*	if (gi.SpeciesContained[DARK]) xdr_setpos(&DarkDensityXDR,PosDarkDensityXDR); */
			/*	if (gi.SpeciesContained[STAR]) xdr_setpos(&StarDensityXDR,PosStarDensityXDR); */
			/*	} */

			if (ad.gascontained && gi.ILoopRead >= gi.NLoopRecentre) {
				/*
				** Gas
				*/
				gettimeofday(&time,NULL);
				timestartsub = time.tv_sec;
				fprintf(stderr,"Processing gas ... ");
				/*
				** Set file pointers correctly
				*/
				if (gi.ILoopRead == gi.NLoopRecentre) {
					assert(fgetpos(ad.GasFile[0],&PosGasFile[0]) == 0);
					if (ad.GRAVITY || ad.RADIATIVE_TRANSFER) assert(fgetpos(ad.GasFile[1],&PosGasFile[1]) == 0);
					}
				else {
					assert(fsetpos(ad.GasFile[0],&PosGasFile[0]) == 0);
					if (ad.GRAVITY || ad.RADIATIVE_TRANSFER) assert(fsetpos(ad.GasFile[1],&PosGasFile[1]) == 0);
					}
				/*
				** Get arrays ready
				*/
				pp[GAS] = malloc(gi.NParticlePerBlock[GAS]*sizeof(PROFILE_PARTICLE));
				assert(pp[GAS] != NULL);
				for (i = 0; i < gi.NParticlePerBlock[GAS]; i++) {
					pp[GAS][i].P = malloc((gi.NSubSpecies[GAS]+gi.NProperties[GAS])*sizeof(double));
					assert(pp[GAS][i].P != NULL);
					}
				coordinates = malloc((ad.Lmaxgas+1)*sizeof(double **));
				assert(coordinates != NULL);
				Icoordinates = malloc((ad.Lmaxgas+1)*sizeof(long int));
				assert(Icoordinates != NULL);
				for (i = 0; i < (ad.Lmaxgas+1); i++) {
					Icoordinates[i] = 0;
					ad.Ncellrefined[i] = 0;
					}
				cellrefined = NULL;
				Ngasread = 0;
				ICurrentBlockGas = 0;
				Ngasanalysis = 0;
				init_sfc(&ad.asfci);
				/*
				** Go through all levels
				*/
				for (i = ad.Lmingas; i <= LmaxGasAnalysis; i++) {
					/*
					** Calculate level properties and read level header
					*/
					celllength = ad.rootcelllength/pow(2,i);
					cellvolume = celllength*celllength*celllength;
					read_art_nb_gas_header_level(&ad,i,&cellrefined);
					/*
					** get coordinates array ready
					*/
					if (i < LmaxGasAnalysis) {
						coordinates[i] = malloc(ad.Ncellrefined[i]*sizeof(double *));
						assert(coordinates[i] != NULL);
						for (j = 0; j < ad.Ncellrefined[i]; j++) {
							coordinates[i][j] = malloc(3*sizeof(double));
							assert(coordinates[i][j] != NULL);
							}
						}
					/*
					** Move file positions
					*/
					move_art_nb_gas_filepositions_level_begin(ad,i);
					/*
					** Go through cells in this level
					*/
					for (j = 0; j < ad.Ncell[i]; j++) {
						read_art_nb_gas_properties(ad,&agp);
						Ngasread++;
						/*
						** Calculate coordinates
						*/
						if (i == ad.Lmingas) {
							sfc_coords(ad.asfci,j,index);
							for (k = 0; k < 3; k++) {
								r[k] = index[k] + 0.5;
								}
							}
						else {
							for (k = 0; k < 3; k++) {
								mothercellindex = j/8;
								childcellindex = j%8;
								r[k] = coordinates[i-1][mothercellindex][k] + celllength*art_cell_delta[childcellindex][k];
								}
							}
						/*
						** Check if cell is refined
						*/
						if ((cellrefined[j] == 0) || (i == LmaxGasAnalysis)) {
							/*
							** not refined or maximum level reached => add it for analysis
							*/
							Ngasanalysis++;
							for (k = 0; k < 3; k++) {
								v[k] = agp.momentum[k]/agp.gas_density;
								pp[GAS][ICurrentBlockGas].r[k] = r[k];
								pp[GAS][ICurrentBlockGas].v[k] = v[k];
								}
							pp[GAS][ICurrentBlockGas].P[gi.pi[GAS][MASS_TOT]] = cellvolume*agp.gas_density;
							if (gi.DoMetalSpecies) {
								pp[GAS][ICurrentBlockGas].P[gi.pi[GAS][MASS_METAL_SNII]] = cellvolume*agp.metal_density_SNII;
								pp[GAS][ICurrentBlockGas].P[gi.pi[GAS][MASS_METAL_SNIa]] = cellvolume*agp.metal_density_SNIa;
								}
							if (gi.DoChemicalSpecies) {
								pp[GAS][ICurrentBlockGas].P[gi.pi[GAS][MASS_HI]]	= cellvolume*agp.HI_density;
								pp[GAS][ICurrentBlockGas].P[gi.pi[GAS][MASS_HII]]	= cellvolume*agp.HII_density;
								pp[GAS][ICurrentBlockGas].P[gi.pi[GAS][MASS_HeI]]	= cellvolume*agp.HeI_density;
								pp[GAS][ICurrentBlockGas].P[gi.pi[GAS][MASS_HeII]]	= cellvolume*agp.HeII_density;
								pp[GAS][ICurrentBlockGas].P[gi.pi[GAS][MASS_HeIII]] = cellvolume*agp.HeIII_density;
								pp[GAS][ICurrentBlockGas].P[gi.pi[GAS][MASS_H2]]	= cellvolume*agp.H2_density;
								}
							if (gi.DoGasTemperature) {
								/*
								** Number density 1/LU^3
								*/
								number_density = agp.HI_density*(PhysicalConstants.Mo/cosmo2internal_ct.M_usf)/PhysicalConstants.m_proton;
								number_density += 2*agp.HII_density*(PhysicalConstants.Mo/cosmo2internal_ct.M_usf)/PhysicalConstants.m_proton;
								number_density += agp.HeI_density*(PhysicalConstants.Mo/cosmo2internal_ct.M_usf)/(4*PhysicalConstants.m_proton);
								number_density += 2*agp.HeII_density*(PhysicalConstants.Mo/cosmo2internal_ct.M_usf)/(4*PhysicalConstants.m_proton);
								number_density += 3*agp.HeIII_density*(PhysicalConstants.Mo/cosmo2internal_ct.M_usf)/(4*PhysicalConstants.m_proton);
								number_density += agp.H2_density*(PhysicalConstants.Mo/cosmo2internal_ct.M_usf)/(2*PhysicalConstants.m_proton);
								/*
								** Internal energy => internal energy per unit volume
								*/
								pp[GAS][ICurrentBlockGas].P[gi.pi[GAS][TEMPERATURE]] = agp.internal_energy*(agp.gamma-1)/number_density;
								/*
								** Convert to Joules
								*/
								pp[GAS][ICurrentBlockGas].P[gi.pi[GAS][TEMPERATURE]] /= cosmo2internal_ct.M_usf*pow(cosmo2internal_ct.V_usf,2);
								pp[GAS][ICurrentBlockGas].P[gi.pi[GAS][TEMPERATURE]] *= PhysicalConstants.Mo*pow(ConversionFactors.kpc_per_Gyr_2_km_per_s*1000,2);
								/*
								** Gas temperature in Kelvin
								*/
								pp[GAS][ICurrentBlockGas].P[gi.pi[GAS][TEMPERATURE]] /= PhysicalConstants.k_Boltzmann;
								}

							/* if (gi.ProfilingMode == 3) { */
							/*	read_array_xdr_particle(&GasDensityXDR,&ahgas,&apgas); */
							/*	read_array_xdr_particle(&TotDensityXDR,&ahtot,&aptot); */
							/*	pp[GAS][ICurrentBlockGas].property = apgas.fa[0]; */
							/*	pp[GAS][ICurrentBlockGas].propertytot = aptot.fa[0]; */
							/*	} */

							ICurrentBlockGas++;
							if ((ICurrentBlockGas == gi.NParticlePerBlock[GAS]) || (Ngasread == ad.Ngas)) {
								/*
								** Block is full or we reached end of gas particles
								*/
								gi.NParticleInBlock[GAS] = ICurrentBlockGas;
								if (gi.DataProcessingMode == 0 && gi.ILoopRead >= gi.NLoopRecentre) put_particles_in_bins(gi,hd,GAS,pp[GAS]);
								else if (gi.DataProcessingMode == 1) put_particles_in_storage(&gi,hd,hdeg,GAS,pp[GAS],&pp_storage[GAS]);
								ICurrentBlockGas = 0;
								}
							}
						else if (i < LmaxGasAnalysis) {
							/*
							** refined and lower level than LmaxGasAnalysis => add it to corresponding coordinates array
							*/
							for (k = 0; k < 3; k++) {
								coordinates[i][Icoordinates[i]][k] = r[k];
								}
							Icoordinates[i]++;
							}
						}
					/*
					** Move file positions
					*/
					move_art_nb_gas_filepositions_level_end(ad,i);
					/*
					** Checks and free coordinates of level below
					*/
					if (i < LmaxGasAnalysis) assert(Icoordinates[i] == ad.Ncellrefined[i]);
					if (i > ad.Lmingas) {
						for (j = 0; j < ad.Ncellrefined[i-1]; j++) {
							free(coordinates[i-1][j]);
							}
						free(coordinates[i-1]);
						}
					}
				/*
				** Some checks and free remaining arrays
				*/
				if (LmaxGasAnalysis == ad.Lmaxgas) {
					assert(ad.Ncellrefined[ad.Lmaxgas] == 0);
					assert(ad.Ngas == Ngasread);
					j = 0;
					k = 0;
					for (i = ad.Lmingas; i <= ad.Lmaxgas; i++) {
						j += ad.Ncell[i];
						k += ad.Ncellrefined[i];
						}
					assert(ad.Ngas == j);
					assert(ad.Ngas == k + Ngasanalysis);
					}
				for (i = 0; i < gi.NParticlePerBlock[GAS]; i++) free(pp[GAS][i].P);
				free(pp[GAS]);
				free(Icoordinates);
				free(cellrefined);
				gettimeofday(&time,NULL);
				timeendsub = time.tv_sec;
				timediff = timeendsub-timestartsub;
				fprintf(stderr,"Done. It took %d s = %d h %d m %d s. Processed in total %ld gas particles whereof %ld used for analysis.\n",timediff,timediff/3600,(timediff/60)%60,timediff%60,ad.Ngas,Ngasanalysis);
				} /* if ad.gascontained && gi.ILoopRead >= gi.NLoopRecentre */
			if (ad.darkcontained || ad.starcontained) {
				/*
				** Dark Matter and Stars
				*/
				gettimeofday(&time,NULL);
				timestartsub = time.tv_sec;
				fprintf(stderr,"Processing dark matter and stars ... ");
				/*
				** Set file pointers correctly
				*/
				if (gi.ILoopRead == 0) {
					assert(fgetpos(ad.CoordinatesDataFile,PosCoordinatesDataFile) == 0);
					for (i = 0; i < ad.Nstarproperties; i++) {
						assert(fgetpos(ad.StarPropertiesFile[i],&PosStarPropertiesFile[i]) == 0);
						}
					}
				else {
					assert(fsetpos(ad.CoordinatesDataFile,PosCoordinatesDataFile) == 0);
					for (i = 0; i < ad.Nstarproperties; i++) {
						assert(fsetpos(ad.StarPropertiesFile[i],&PosStarPropertiesFile[i]) == 0);
						}
					}
				/*
				** Get arrays ready
				*/
				ac = malloc(ad.Nparticleperrecord*sizeof(ART_COORDINATES));
				assert(ac != NULL);
				pp[DARK] = malloc(gi.NParticlePerBlock[DARK]*sizeof(PROFILE_PARTICLE));
				assert(pp[DARK] != NULL);
				for (i = 0; i < gi.NParticlePerBlock[DARK]; i++) {
					pp[DARK][i].P = malloc((gi.NSubSpecies[DARK]+gi.NProperties[DARK])*sizeof(double));
					assert(pp[DARK][i].P != NULL);
					}
				if (ad.starcontained) {
					pp[STAR] = malloc(gi.NParticlePerBlock[STAR]*sizeof(PROFILE_PARTICLE));
					assert(pp[STAR] != NULL);
					for (i = 0; i < gi.NParticlePerBlock[STAR]; i++) {
						pp[STAR][i].P = malloc((gi.NSubSpecies[STAR]+gi.NProperties[STAR])*sizeof(double));
						assert(pp[STAR][i].P != NULL);
						}
					move_art_nb_star_filepositions_begin(ad);
					}
				Nparticleread = 0;
				ICurrentBlockDark = 0;
				ICurrentBlockStar = 0;
				for (i = 0; i < ad.Nrecord; i++) {
					read_art_nb_coordinates_record(ad,ac);
					for (j = 0; j < ad.Nparticleperrecord; j++) {
						if (Nparticleread < ad.Ndark) {
							/*
							** Dark Matter
							*/
							for (k = 0; k < 3; k++) {
								r[k] = put_in_box(ac[j].r[k]-ad.shift,gi.bc[k],gi.bc[k+3]);
								v[k] = ac[j].v[k];
								pp[DARK][ICurrentBlockDark].r[k] = r[k];
								pp[DARK][ICurrentBlockDark].v[k] = v[k];
								}
							for (k = ad.Lmaxdark; k >=0; k--) {
								if (ad.ah.num[k] >= Nparticleread) L = ad.Lmaxdark-k;
								}
							pp[DARK][ICurrentBlockDark].P[gi.pi[DARK][MASS_TOT]] = ad.massdark[L];

							/* if (gi.ProfilingMode == 3) { */
							/*	read_array_xdr_particle(&DarkDensityXDR,&ahdark,&apdark); */
							/*	read_array_xdr_particle(&TotDensityXDR,&ahtot,&aptot); */
							/*	pp[DARK][ICurrentBlockDark].property = apdark.fa[0]; */
							/*	pp[DARK][ICurrentBlockDark].propertytot = aptot.fa[0]; */
							/*	} */

							Nparticleread++;
							ICurrentBlockDark++;
							if ((ICurrentBlockDark == gi.NParticlePerBlock[DARK]) || (Nparticleread == ad.Ndark)) {
								/*
								** Block is full or we reached end of dark matter particles
								*/
								gi.NParticleInBlock[DARK] = ICurrentBlockDark;
								if (gi.DataProcessingMode == 0) put_particles_in_bins(gi,hd,DARK,pp[DARK]);
								else if (gi.DataProcessingMode == 1) put_particles_in_storage(&gi,hd,hdeg,DARK,pp[DARK],&pp_storage[DARK]);
								ICurrentBlockDark = 0;
								}
							}
						else if (Nparticleread < ad.Ndark+ad.Nstar) {
							/*
							** Star
							*/
							for (k = 0; k < 3; k++) {
								r[k] = put_in_box(ac[j].r[k]-ad.shift,gi.bc[k],gi.bc[k+3]);
								v[k] = ac[j].v[k];
								pp[STAR][ICurrentBlockStar].r[k] = r[k];
								pp[STAR][ICurrentBlockStar].v[k] = v[k];
								}
							/*
							** Get other star properties
							*/
							read_art_nb_star_properties(ad,&asp);
							pp[STAR][ICurrentBlockStar].P[gi.pi[STAR][MASS_TOT]] = asp.mass;
							if (gi.DoMetalSpecies && gi.ILoopRead >= gi.NLoopRecentre) {
								pp[STAR][ICurrentBlockStar].P[gi.pi[STAR][MASS_METAL_SNII]] = asp.mass*asp.metallicity_SNII;
								pp[STAR][ICurrentBlockStar].P[gi.pi[STAR][MASS_METAL_SNIa]] = asp.mass*asp.metallicity_SNIa;
								}
							if (gi.DoStellarAge) {
								pp[STAR][ICurrentBlockStar].P[gi.pi[STAR][AGE]] = asp.t_form;
								}

							/* if (gi.ProfilingMode == 3) { */
							/*	read_array_xdr_particle(&StarDensityXDR,&ahstar,&apstar); */
							/*	read_array_xdr_particle(&TotDensityXDR,&ahtot,&aptot); */
							/*	pp[STAR][ICurrentBlockStar].property = apstar.fa[0]; */
							/*	pp[STAR][ICurrentBlockStar].propertytot = aptot.fa[0]; */
							/*	} */

							Nparticleread++;
							ICurrentBlockStar++;
							if ((ICurrentBlockStar == gi.NParticlePerBlock[STAR]) || (Nparticleread == ad.Ndark+ad.Nstar)) {
								/*
								** Block is full or we reached end of star particles
								*/
								gi.NParticleInBlock[STAR] = ICurrentBlockStar;
								if (gi.DataProcessingMode == 0) put_particles_in_bins(gi,hd,STAR,pp[STAR]);
								else if (gi.DataProcessingMode == 1) put_particles_in_storage(&gi,hd,hdeg,STAR,pp[STAR],&pp_storage[STAR]);
								ICurrentBlockStar = 0;
								}
							}
						}
					}
				if (ad.starcontained) move_art_nb_star_filepositions_end(ad);
				free(ac);
				for (i = 0; i < gi.NParticlePerBlock[DARK]; i++) free(pp[DARK][i].P);
				free(pp[DARK]);
				if (ad.starcontained) {
					for (i = 0; i < gi.NParticlePerBlock[STAR]; i++) free(pp[STAR][i].P);
					free(pp[STAR]);
					}
				gettimeofday(&time,NULL);
				timeendsub = time.tv_sec;
				timediff = timeendsub-timestartsub;
				fprintf(stderr,"Done. It took %d s = %d h %d m %d s. Processed in total %ld dark matter and %ld star particles.\n",timediff,timediff/3600,(timediff/60)%60,timediff%60,ad.Ndark,ad.Nstar);
				} /* if ad.darkcontained || ad.starcontained */
			} /* if DataFormat */

		/*
		** Do loop specific stuff
		*/

		if (gi.DataProcessingMode == 0) {
			if (gi.ProfilingMode == 0 && gi.ILoopRead < gi.NLoopRecentre) {
				/*
				** Calculate recentred halo coordinates
				*/
				calculate_recentred_halo_coordinates(gi,hd);
				}
			else if (gi.ProfilingMode == 0 && gi.ILoopRead >= gi.NLoopRecentre) {
				/*
				** Calculate total and baryonic matter distribution
				*/
				calculate_total_matter_distribution(gi,hd);
				calculate_baryonic_matter_distribution(gi,hd);
				}
			else if (gi.ProfilingMode == 1) {
				/*
				** Diagonalise enclosed shape tensor
				*/
				gettimeofday(&time,NULL);
				timestartsub = time.tv_sec;
				fprintf(stderr,"Diagonalising shape tensors ... ");
				convergencefraction = diagonalise_shape_tensors(gi,hd,gi.ILoopRead+1);
				gettimeofday(&time,NULL);
				timeendsub = time.tv_sec;
				timediff = timeendsub-timestartsub;
				fprintf(stderr,"Done. It took %d s = %d h %d m %d s. The fraction of converged bins so far is %g.\n",timediff,timediff/3600,(timediff/60)%60,timediff%60,convergencefraction);
				if (convergencefraction == 1 ||
					(gi.ILoopRead+1)%gi.OutputFrequencyShapeIteration == 0 ||
					gi.ILoopRead+1 == gi.NLoopShapeIterationMax) {
					gettimeofday(&time,NULL);
					timestartsub = time.tv_sec;
					fprintf(stderr,"Writing output ... ");
					write_output_shape_profile(gi,hd,gi.ILoopRead+1);
					gettimeofday(&time,NULL);
					timeendsub = time.tv_sec;
					timediff = timeendsub-timestartsub;
					fprintf(stderr,"Done. It took %d s = %d h %d m %d s.\n",timediff,timediff/3600,(timediff/60)%60,timediff%60);
					}
				if (convergencefraction < 1 && gi.ILoopRead < gi.NLoopShapeIterationMax-1) {
					reset_halo_profile_shape(gi,hd);
					gi.NLoopRead++;
					gi.NLoopProcessData++;
					}
				}

/*		else if (gi.ProfilingMode == 3 && gi.ILoopRead == 0) { */

/*		double fproperty = gi.fincludeshapeproperty; */

/*		/\* */
/*		** This is still under construction: the shape values are pretty sensitive to the selected set. */
/*		** Probably worth trying median in stead of mean => how to calculate median efficiently on the fly */
/*		** without storing data & sorting? */
/*		** Maybe try to loop over density iteration as well */
/*		*\/ */

/*		for (i = 0; i < gi.NHalo; i++) { */
/*			for (j = 0; j < hd[i].NBin[0]+1; j++) { */
/*			/\* */
/*			** Total matter */
/*			*\/ */
/*			if (hd[i].pbs[j].totshape->N > 0) hd[i].pbs[j].totshape->propertymean /= hd[i].pbs[j].totshape->N; */
/*			hd[i].pbs[j].totshape->propertymin = hd[i].pbs[j].totshape->propertymean/fproperty; */
/*			hd[i].pbs[j].totshape->propertymax = hd[i].pbs[j].totshape->propertymean*fproperty; */
/* /\* */
/*	 fprintf(stderr,"i %ld j %ld N %ld propertymin %.6e propertymean %.6e propertymax %.6e\n",i,j,hd[i].pbs[j].totshape->N, */
/*	 hd[i].pbs[j].totshape->propertymin,hd[i].pbs[j].totshape->propertymax,hd[i].pbs[j].totshape->propertymean); */
/* *\/ */
/*			hd[i].pbs[j].totshape->N = 0; */
/*			/\* */
/*			** Gas */
/*			*\/ */
/*			if (gi.SpeciesContained[GAS]) { */
/*				if (hd[i].pbs[j].gasshape->N > 0) hd[i].pbs[j].gasshape->propertymean /= hd[i].pbs[j].gasshape->N; */
/*				hd[i].pbs[j].gasshape->propertymin = hd[i].pbs[j].gasshape->propertymean/fproperty; */
/*				hd[i].pbs[j].gasshape->propertymax = hd[i].pbs[j].gasshape->propertymean*fproperty; */
/* /\* */
/*	 fprintf(stderr,"i %ld j %ld N %ld propertymin %.6e propertymean %.6e propertymax %.6e\n",i,j,hd[i].pbs[j].gasshape->N, */
/*	 hd[i].pbs[j].gasshape->propertymin,hd[i].pbs[j].gasshape->propertymax,hd[i].pbs[j].gasshape->propertymean); */
/* *\/ */
/*				hd[i].pbs[j].gasshape->N = 0; */
/*				} */
/*			/\* */
/*			** Dark matter */
/*			*\/ */
/*			if (gi.SpeciesContained[DARK]) { */
/*				if (hd[i].pbs[j].darkshape->N > 0) hd[i].pbs[j].darkshape->propertymean /= hd[i].pbs[j].darkshape->N; */
/*				hd[i].pbs[j].darkshape->propertymin = hd[i].pbs[j].darkshape->propertymean/fproperty; */
/*				hd[i].pbs[j].darkshape->propertymax = hd[i].pbs[j].darkshape->propertymean*fproperty; */
/* /\* */
/*	 fprintf(stderr,"i %ld j %ld N %ld propertymin %.6e propertymean %.6e propertymax %.6e\n",i,j,hd[i].pbs[j].darkshape->N, */
/*	 hd[i].pbs[j].darkshape->propertymin,hd[i].pbs[j].darkshape->propertymax,hd[i].pbs[j].darkshape->propertymean); */
/* *\/ */
/*				hd[i].pbs[j].darkshape->N = 0; */
/*				} */
/*			/\* */
/*			** Stars */
/*			*\/ */
/*			if (gi.SpeciesContained[STAR]) { */
/*				if (hd[i].pbs[j].starshape->N > 0) hd[i].pbs[j].starshape->propertymean /= hd[i].pbs[j].starshape->N; */
/*				hd[i].pbs[j].starshape->propertymin = hd[i].pbs[j].starshape->propertymean/fproperty; */
/*				hd[i].pbs[j].starshape->propertymax = hd[i].pbs[j].starshape->propertymean*fproperty; */
/* /\* */
/*	 fprintf(stderr,"i %ld j %ld N %ld propertymin %.6e propertymean %.6e propertymax %.6e\n",i,j,hd[i].pbs[j].starshape->N, */
/*	 hd[i].pbs[j].starshape->propertymin,hd[i].pbs[j].starshape->propertymean,hd[i].pbs[j].starshape->propertymax); */
/* *\/ */
/*				hd[i].pbs[j].starshape->N = 0; */
/*				} */
/*			} */
/*			} */
/*		gi.NLoopRead++; */
/*		gi.NLoopProcessData++; */
/*		} */
/*		else if (gi.ProfilingMode == 3 && gi.ILoopRead == 1) { */
/*		/\* */
/*		** Close density files */
/*		*\/ */
/*		if (0) { */
/*			xdr_destroy(&TotDensityXDR); */
/*			fclose(TotDensityFile); */
/*			if (gi.SpeciesContained[GAS]) { */
/*			xdr_destroy(&GasDensityXDR); */
/*			fclose(GasDensityFile); */
/*			} */
/*			if (gi.SpeciesContained[DARK]) { */
/*			xdr_destroy(&DarkDensityXDR); */
/*			fclose(DarkDensityFile); */
/*			} */
/*			if (gi.SpeciesContained[STAR]) { */
/*			xdr_destroy(&StarDensityXDR); */
/*			fclose(StarDensityFile); */
/*			} */
/*			} */
/*		/\* */
/*		** Diagonalise local shape tensor */
/*		*\/ */
/*		diagonalise_shape_tensors(gi,hd,gi.ILoopRead+1); */

/*		gi.NLoopRead++; */
/*		gi.NLoopProcessData++; */
/*		} */

/*		else if (gi.ProfilingMode == 3 && gi.ILoopRead == 2) { */
/*		diagonalise_shape_tensors(gi,hd); */
/*		} */

			}
		else if (gi.DataProcessingMode == 1) {
			fprintf(stderr,"Put %d gas, %d dark matter and %d star particles into storage.\n",gi.NParticleInStorage[GAS],gi.NParticleInStorage[DARK],gi.NParticleInStorage[STAR]);
			}
		gettimeofday(&time,NULL);
		timeendloop = time.tv_sec;
		timediff = timeendloop-timestartloop;
		fprintf(stderr,"Done with loop %d. It took %d s = %d h %d m %d s.\n\n",gi.ILoopRead+1,timediff,timediff/3600,(timediff/60)%60,timediff%60);
		} /* for ILoopRead */

	/*
	** After-harvest tasks
	*/

	if (gi.ProfilingMode == 0) {
		/*
		** Calculate halo properties
		*/
		gettimeofday(&time,NULL);
		timestartsub = time.tv_sec;
		fprintf(stderr,"Calculating halo properties ... ");
		calculate_halo_properties(gi,hd);
		gettimeofday(&time,NULL);
		timeendsub = time.tv_sec;
		timediff = timeendsub-timestartsub;
		fprintf(stderr,"Done. It took %d s = %d h %d m %d s.\n\n",timediff,timediff/3600,(timediff/60)%60,timediff%60);
		/*
		** Determine hierarchy of haloes
		*/
		if (gi.BinningCoordinateType == 0) {
			gettimeofday(&time,NULL);
			timestartsub = time.tv_sec;
			fprintf(stderr,"Determining hierarchy of haloes ... ");
			determine_halo_hierarchy(gi,hd);
			gettimeofday(&time,NULL);
			timeendsub = time.tv_sec;
			timediff = timeendsub-timestartsub;
			fprintf(stderr,"Done. It took %d s = %d h %d m %d s.\n\n",timediff,timediff/3600,(timediff/60)%60,timediff%60);
			}
		/*
		** Write output
		*/
		gettimeofday(&time,NULL);
		timestartsub = time.tv_sec;
		fprintf(stderr,"Writing output ... ");
		write_output_matter_profile(gi,hd);
		gettimeofday(&time,NULL);
		timeendsub = time.tv_sec;
		timediff = timeendsub-timestartsub;
		fprintf(stderr,"Done. It took %d s = %d h %d m %d s.\n\n",timediff,timediff/3600,(timediff/60)%60,timediff%60);
		}

	if (gi.ProfilingMode == 1 && gi.DataProcessingMode == 1) {
		/*
		** Diagonalise enclosed shape tensor
		*/
		for (i = 0; i < gi.NLoopShapeIterationMax; i++) {
			/*
			** Put particles in bins
			*/
			gettimeofday(&time,NULL);
			timestartloop = time.tv_sec;
			fprintf(stderr,"Doing iteration %ld ...\n",i+1);
			for (j = 0; j < gi.NSpeciesRead; j++) {
				if (gi.SpeciesContained[j]) {
					gettimeofday(&time,NULL);
					timestartsub = time.tv_sec;
					if (j == GAS) strcpy(cdummy,"gas");
					else if (j == DARK) strcpy(cdummy,"dark matter");
					else if (j == STAR) strcpy(cdummy,"stars");
					else strcpy(cdummy,"a matter type that should not be here");
					fprintf(stderr,"Processing %s ... ",cdummy);
					put_particles_in_bins(gi,hd,j,pp_storage[j]);
					gettimeofday(&time,NULL);
					timeendsub = time.tv_sec;
					timediff = timeendsub-timestartsub;
					if (j == STAR) strcpy(cdummy,"star");
					fprintf(stderr,"Done. It took %d s = %d h %d m %d s. Processed in total %d %s particles.\n",timediff,timediff/3600,(timediff/60)%60,timediff%60,gi.NParticleInStorage[j],cdummy);
					}
				}
			/*
			** Diagonalise enclosed shape tensor
			*/
			gettimeofday(&time,NULL);
			timestartsub = time.tv_sec;
			fprintf(stderr,"Diagonalising shape tensors ... ");
			convergencefraction = diagonalise_shape_tensors(gi,hd,i+1);
			gettimeofday(&time,NULL);
			timeendsub = time.tv_sec;
			timediff = timeendsub-timestartsub;
			fprintf(stderr,"Done. It took %d s = %d h %d m %d s. The fraction of converged bins so far is %g.\n",timediff,timediff/3600,(timediff/60)%60,timediff%60,convergencefraction);
			if (convergencefraction == 1 ||
				(i+1)%gi.OutputFrequencyShapeIteration == 0 ||
				i+1 == gi.NLoopShapeIterationMax) {
				gettimeofday(&time,NULL);
				timestartsub = time.tv_sec;
				fprintf(stderr,"Writing output ... ");
				write_output_shape_profile(gi,hd,i+1);
				gettimeofday(&time,NULL);
				timeendsub = time.tv_sec;
				timediff = timeendsub-timestartsub;
				fprintf(stderr,"Done. It took %d s = %d h %d m %d s.\n",timediff,timediff/3600,(timediff/60)%60,timediff%60);
				}
			if (convergencefraction < 1 && i < gi.NLoopShapeIterationMax-1) reset_halo_profile_shape(gi,hd);
			gettimeofday(&time,NULL);
			timeendloop = time.tv_sec;
			timediff = timeendloop-timestartloop;
			fprintf(stderr,"Done with iteration %ld. It took %d s = %d h %d m %d s.\n\n",i+1,timediff,timediff/3600,(timediff/60)%60,timediff%60);
			if (convergencefraction == 1) break;
			}
		}

	/*
	** Some more output if desired
	*/

	if (VerboseLevel > 0) {
		/*
		** 6DFOF
		*/
		if (gi.HaloCatalogueFormat == 1) {
			fprintf(stderr,"6DFOF specific parameters:\n\n");
			fprintf(stderr,"BinFactor             : %.6e\n",gi.BinFactor);
			if (gi.CentreType == 0) fprintf(stderr,"CentreType            : centre-of-mass\n");
			else if (gi.CentreType == 1) fprintf(stderr,"CentreType            : potmin or denmax\n");
			fprintf(stderr,"rmaxFromHaloCatalogue : %s\n",(gi.rmaxFromHaloCatalogue == 0)?"no":"yes");
			fprintf(stderr,"\n");
			}
		/*
		** ART
		*/
		if (gi.DataFormat == 1) {
			fprintf(stderr,"ART general header:\n\n");
			fprintf(stderr,"aunin    : %.6e\n",ad.ah.aunin);
			fprintf(stderr,"auni0    : %.6e\n",ad.ah.auni0);
			fprintf(stderr,"amplt    : %.6e\n",ad.ah.amplt);
			fprintf(stderr,"astep    : %.6e\n",ad.ah.astep);
			fprintf(stderr,"istep    : %d\n",ad.ah.istep);
			fprintf(stderr,"partw    : %.6e\n",ad.ah.partw);
			fprintf(stderr,"tintg    : %.6e\n",ad.ah.tintg);
			fprintf(stderr,"ekin     : %.6e\n",ad.ah.ekin);
			fprintf(stderr,"ekin1    : %.6e\n",ad.ah.ekin1);
			fprintf(stderr,"ekin2    : %.6e\n",ad.ah.ekin2);
			fprintf(stderr,"au0      : %.6e\n",ad.ah.au0);
			fprintf(stderr,"aeu0     : %.6e\n",ad.ah.aeu0);
			fprintf(stderr,"Nrow     : %d\n",ad.ah.Nrow);
			fprintf(stderr,"Ngrid    : %d\n",ad.ah.Ngrid);
			fprintf(stderr,"Nspecies : %d\n",ad.ah.Nspecies);
			fprintf(stderr,"Nseed    : %d\n",ad.ah.Nseed);
			fprintf(stderr,"OmM0     : %.6e\n",ad.ah.OmM0);
			fprintf(stderr,"OmL0     : %.6e\n",ad.ah.OmL0);
			fprintf(stderr,"h100     : %.6e\n",ad.ah.h100);
			fprintf(stderr,"Wp5      : %.6e\n",ad.ah.Wp5);
			fprintf(stderr,"OmK0     : %.6e\n",ad.ah.OmK0);
			fprintf(stderr,"OmB0     : %.6e\n",ad.ah.OmB0);
			fprintf(stderr,"magic1   : %.6e\n",ad.ah.magic1);
			fprintf(stderr,"DelDC    : %.6e\n",ad.ah.DelDC);
			fprintf(stderr,"abox     : %.6e\n",ad.ah.abox);
			fprintf(stderr,"Hbox     : %.6e\n",ad.ah.Hbox);
			fprintf(stderr,"magic2   : %.6e\n",ad.ah.magic2);
			fprintf(stderr,"Banner   : %s\n",ad.Banner);
			fprintf(stderr,"\n");
			for (i = 0; i < 10; i++) {
				fprintf(stderr,"mass[%ld] : %.6e num[%ld] : %d\n",i,ad.ah.mass[i],i,ad.ah.num[i]);
				}
			fprintf(stderr,"\n");
			fprintf(stderr,"ART data properties:\n\n");
			fprintf(stderr,"Particle file mode : %d\n",ad.particle_file_mode);
			fprintf(stderr,"Nparticleperrecord : %d\n",ad.Nparticleperrecord);
			fprintf(stderr,"Nrecord            : %d\n",ad.Nrecord);
			fprintf(stderr,"Nhydroproperties   : %d\n",ad.Nhydroproperties);
			fprintf(stderr,"Notherproperties   : %d\n",ad.Notherproperties);
			fprintf(stderr,"Nrtchemspecies     : %d\n",ad.Nrtchemspecies);
			fprintf(stderr,"Nchemspecies       : %d\n",ad.Nchemspecies);
			fprintf(stderr,"Nstarproperties    : %d\n",ad.Nstarproperties);
			fprintf(stderr,"Lmingas            : %d\n",ad.Lmingas);
			fprintf(stderr,"Lmaxgas            : %d\n",ad.Lmaxgas);
			fprintf(stderr,"Lmindark           : %d\n",ad.Lmindark);
			fprintf(stderr,"Lmaxdark           : %d\n",ad.Lmaxdark);
			fprintf(stderr,"\n");
			fprintf(stderr,"ART preprocessor flags:\n\n");
			fprintf(stderr,"-GRAVITY                     : %s\n",(ad.GRAVITY == 0)?"not set":"set");
			fprintf(stderr,"-HYDRO                       : %s\n",(ad.HYDRO == 0)?"not set":"set");
			fprintf(stderr,"-ADVECT_SPECIES              : %s\n",(ad.ADVECT_SPECIES == 0)?"not set":"set");
			fprintf(stderr,"-STARFORM                    : %s\n",(ad.STARFORM == 0)?"not set":"set");
			fprintf(stderr,"-ENRICH                      : %s\n",(ad.ENRICH == 0)?"not set":"set");
			fprintf(stderr,"-ENRICH_SNIa                 : %s\n",(ad.ENRICH_SNIa == 0)?"not set":"set");
			fprintf(stderr,"-RADIATIVE_TRANSFER          : %s\n",(ad.RADIATIVE_TRANSFER == 0)?"not set":"set");
			fprintf(stderr,"-ELECTRON_ION_NONEQUILIBRIUM : %s\n",(ad.ELECTRON_ION_NONEQUILIBRIUM == 0)?"not set":"set");
			fprintf(stderr,"\n");
			fprintf(stderr,"ART specific parameters:\n\n");
			fprintf(stderr,"LmaxGasAnalysis : %d\n",LmaxGasAnalysis);
			fprintf(stderr,"\n");
			}
		/*
		** Cosmology
		*/
		fprintf(stderr,"Cosmology:\n\n");
		fprintf(stderr,"OmegaM0 : %.6e\n",gi.cp.OmegaM0);
		fprintf(stderr,"OmegaL0 : %.6e\n",gi.cp.OmegaL0);
		fprintf(stderr,"OmegaK0 : %.6e\n",gi.cp.OmegaK0);
		fprintf(stderr,"OmegaR0 : %.6e\n",gi.cp.OmegaR0);
		fprintf(stderr,"h0_100  : %.6e\n",gi.cp.h0_100);
		fprintf(stderr,"\n");
		/*
		** Unit system
		*/
		fprintf(stderr,"Unit System:\n\n");
		fprintf(stderr,"LBox     : %.6e LU\n",gi.us.LBox);
		fprintf(stderr,"Hubble0  : %.6e TU^{-1}\n",gi.us.Hubble0);
		fprintf(stderr,"rhocrit0 : %.6e MU LU^{-3}\n",gi.us.rhocrit0);
		fprintf(stderr,"\n");
		/*
		** Internal units
		*/
		fprintf(stderr,"Internal units:\n\n");
		fprintf(stderr,"LU : %.6e kpc\n",1.0/cosmo2internal_ct.L_usf);
		fprintf(stderr,"TU : %.6e Gyr\n",1.0/cosmo2internal_ct.T_usf);
		fprintf(stderr,"VU : %.6e kpc Gyr^{-1} = %.6e km s^{-1}\n",1.0/cosmo2internal_ct.V_usf,1.0/cosmo2internal_ct.V_usf*ConversionFactors.kpc_per_Gyr_2_km_per_s);
		fprintf(stderr,"MU : %.6e Mo\n",1.0/cosmo2internal_ct.M_usf);
		fprintf(stderr,"\n");
		/*
		** Data properties
		*/
		fprintf(stderr,"Data properties:\n\n");
		switch(gi.DataFormat) {
		case 0: strcpy(cdummy,"Tipsy"); break;
		case 1: strcpy(cdummy,"ART"); break;
		default: strcpy(cdummy,"not supported"); }
		fprintf(stderr,"Data format          : %s\n",cdummy);
		fprintf(stderr,"Contains anything    : %s\n",(gi.SpeciesContained[TOT])?"yes":"no");
		fprintf(stderr,"Contains gas         : %s\n",(gi.SpeciesContained[GAS])?"yes":"no");
		fprintf(stderr,"Contains dark matter : %s\n",(gi.SpeciesContained[DARK])?"yes":"no");
		fprintf(stderr,"Contains stars       : %s\n",(gi.SpeciesContained[STAR])?"yes":"no");
		fprintf(stderr,"Contains baryons     : %s\n",(gi.SpeciesContained[BARYON])?"yes":"no");
		fprintf(stderr,"a                    : %.6e\n",gi.ascale);
		fprintf(stderr,"LBox                 : %.6e LU (comoving) = %.6e kpc (comoving) = %.6e kpc (physical)\n",
			cosmo2internal_ct.L_usf*LBox,LBox,gi.ascale*LBox);
		fprintf(stderr,"Box                  : [%.6e ... %.6e] x [%.6e ... %.6e] x [%.6e ... %.6e] LU (comoving)\n",gi.bc[0],gi.bc[3],gi.bc[1],gi.bc[4],gi.bc[2],gi.bc[5]);
		fprintf(stderr,"\n");
		/*
		** Profiling parameters
		*/
		fprintf(stderr,"Profiling parameters:\n\n");
		switch(gi.ProfilingMode) {
		case 0: strcpy(cdummy,"profiles"); break;
		case 1: strcpy(cdummy,"shape determination"); break;
		default: strcpy(cdummy,"not supported"); }
		fprintf(stderr,"Profiling mode                    : %s\n",cdummy);
		switch(gi.DataProcessingMode) {
		case 0: strcpy(cdummy,"read data again in every loop"); break;
		case 1: strcpy(cdummy,"store data in memory"); break;
		default: strcpy(cdummy,"not supported"); }
		fprintf(stderr,"Data processing mode              : %s\n",cdummy);
		fprintf(stderr,"Do metal species                  : %s\n",(gi.DoMetalSpecies)?"yes":"no");
		fprintf(stderr,"Do chemical species               : %s\n",(gi.DoChemicalSpecies)?"yes":"no");
		fprintf(stderr,"Do gas temperature                : %s\n",(gi.DoGasTemperature)?"yes":"no");
		fprintf(stderr,"Do stellar age                    : %s\n",(gi.DoStellarAge)?"yes":"no");
		fprintf(stderr,"More characteristics output       : %s\n",(gi.MoreCharacteristicsOutput)?"yes":"no");
		fprintf(stderr,"Exclude particles                 : %s\n",(gi.ExcludeParticles)?"yes":"no");
		fprintf(stderr,"Number of profile dimensions      : %d\n",gi.NDimProfile);
		fprintf(stderr,"Number of read species            : %d\n",gi.NSpeciesRead);
		fprintf(stderr,"Number of profiled species        : %d\n",gi.NSpeciesProfile);
		for (i = 0; i < gi.NSpeciesRead; i++) {
			switch(i) {
			case GAS: strcpy(cdummy,"gas"); break;
			case DARK: strcpy(cdummy,"dark matter"); break;
			case STAR: strcpy(cdummy,"stars"); break;
			default: strcpy(cdummy,"not supported"); }
			fprintf(stderr,"Number of subspecies / properties : %d / %d (%s)\n",gi.NSubSpecies[i],gi.NProperties[i],cdummy);
			}
		fprintf(stderr,"NParticlePerBlockGas              : %d\n",gi.NParticlePerBlock[GAS]);
		fprintf(stderr,"NParticlePerBlockDark             : %d\n",gi.NParticlePerBlock[DARK]);
		fprintf(stderr,"NParticlePerBlockStar             : %d\n",gi.NParticlePerBlock[STAR]);
		fprintf(stderr,"NCellData                         : %d\n",gi.NCellData);
		fprintf(stderr,"NCellHalo                         : %d\n",gi.NCellHalo);
		fprintf(stderr,"NLoopProcessData                  : %d\n",gi.NLoopProcessData);
		fprintf(stderr,"NLoopRead                         : %d\n",gi.NLoopRead);
		fprintf(stderr,"\n");
		/*
		** Halo catalogue
		*/
		fprintf(stderr,"Halo catalogue properties:\n\n");
		switch(gi.HaloCatalogueFormat) {
		case 0: strcpy(cdummy,"generic"); break;
		case 1: strcpy(cdummy,"6DFOF"); break;
		case 2: strcpy(cdummy,"characteristics"); break;
		default: strcpy(cdummy,"not supported"); }
		fprintf(stderr,"Halocatalogue format       : %s\n",cdummy);
		switch(gi.HaloCatalogueBinningCoordinateType) {
		case 0: strcpy(cdummy,"spherical"); break;
		case 1: strcpy(cdummy,"cylindrical"); break;
		default: strcpy(cdummy,"not supported"); }
		fprintf(stderr,"Halocatalogue binning type : %s\n",cdummy);
		fprintf(stderr,"Halocatalogue dimension    : %d\n",gi.HaloCatalogueNDim);
		fprintf(stderr,"NHalo                      : %d\n",gi.NHalo);
		fprintf(stderr,"\n");
		/*
		** Exclude halo catalogue
		*/
		fprintf(stderr,"Exclude halo catalogue properties:\n\n");
		if (gi.ExcludeParticles) {
			switch(gi.ExcludeHaloCatalogueFormat) {
			case 0: strcpy(cdummy,"generic"); break;
			case 1: strcpy(cdummy,"6DFOF"); break;
			case 2: strcpy(cdummy,"characteristics"); break;
			default: strcpy(cdummy,"not supported"); }
			fprintf(stderr,"ExcludeHalocatalogue format       : %s\n",cdummy);
			fprintf(stderr,"ExcludeHalocatalogue binning type : spherical\n");
			fprintf(stderr,"ExcludeHalocatalogue dimension    : %d\n",gi.ExcludeHaloCatalogueNDim);
			fprintf(stderr,"NHaloExcludeGlobal                : %d\n",gi.NHaloExcludeGlobal);
			}
		else {
			fprintf(stderr,"No particles were excluded.\n");
			}
		fprintf(stderr,"\n");
		/*
		** Recentring
		*/
		fprintf(stderr,"Recentring:\n\n");
		if (gi.NLoopRecentre > 0) {
			switch(LengthType_rRecentre) {
			case 0: strcpy(cdummy,"comoving"); break;
			case 1: strcpy(cdummy,"physical"); break;
			default: strcpy(cdummy,"not supported"); }
			fprintf(stderr,"Length type rRecentre : %s\n",cdummy);
			fprintf(stderr,"rRecentre             : %.6e LU (comoving) = %.6e kpc (comoving) = %.6e kpc (physical)\n",
				gi.rRecentre,gi.rRecentre/cosmo2internal_ct.L_usf,gi.ascale*gi.rRecentre/cosmo2internal_ct.L_usf);
			fprintf(stderr,"fRecentreDist         : %.6e\n",gi.fRecentreDist);
			fprintf(stderr,"NLoopRecentre         : %d\n",gi.NLoopRecentre);
			for (i = 0; i < gi.NSpeciesRead; i++) {
				switch(i) {
				case GAS: strcpy(cdummy,"gas"); break;
				case DARK: strcpy(cdummy,"dark matter"); break;
				case STAR: strcpy(cdummy,"stars"); break;
				default: strcpy(cdummy,"not supported"); }
				fprintf(stderr,"Recentre use %s : %s\n",cdummy,gi.RecentreUse[i]?"yes":"no");
				}
			}
		else {
			fprintf(stderr,"No recentring was done.\n");
			}
		fprintf(stderr,"\n");
		/*
		** Profiles
		*/
		if (gi.ProfilingMode == 0) {
			fprintf(stderr,"General profiling properties:\n\n");
			switch(gi.BinningCoordinateType) {
			case 0: strcpy(cdummy,"spherical"); break;
			case 1: strcpy(cdummy,"cylindrical"); break;
			default: strcpy(cdummy,"not supported"); }
			fprintf(stderr,"Binning             : %s\n",cdummy);
			switch(gi.VelocityProjectionType) {
			case 0: strcpy(cdummy,"coordinate axes"); break;
			case 1: strcpy(cdummy,"spherical"); break;
			case 2: strcpy(cdummy,"cylindrical"); break;
			default: strcpy(cdummy,"not supported"); }
			fprintf(stderr,"Velocity projection : %s\n",cdummy);
			fprintf(stderr,"\n");
			/*
			** Spherical profiles
			*/
			if (gi.BinningCoordinateType == 0) {
				fprintf(stderr,"Spherical profiles:\n\n");
				switch(gi.HaloSize) {
				case 0: strcpy(cdummy,"rmean"); break;
				case 1: strcpy(cdummy,"rcrit"); break;
				case 2: strcpy(cdummy,"rfix"); break;
				default: strcpy(cdummy,"not supported"); }
				fprintf(stderr,"Halo size            : %s\n",cdummy);
				fprintf(stderr,"rho_mean             : %.6e MU LU^{-3} (comoving) = %.6e Mo kpc^{-3} (comoving) = %.6e Mo kpc^{-3} (physical)\n",
					gi.rhomean,gi.rhomean*pow(cosmo2internal_ct.L_usf,3)/cosmo2internal_ct.M_usf,
					gi.rhomean*pow(cosmo2internal_ct.L_usf,3)/(pow(gi.ascale,3)*cosmo2internal_ct.M_usf));
				fprintf(stderr,"rho_crit             : %.6e MU LU^{-3} (comoving) = %.6e Mo kpc^{-3} (comoving) = %.6e Mo kpc^{-3} (physical)\n",
					gi.rhocrit,gi.rhocrit*pow(cosmo2internal_ct.L_usf,3)/cosmo2internal_ct.M_usf,
					gi.rhocrit*pow(cosmo2internal_ct.L_usf,3)/(pow(gi.ascale,3)*cosmo2internal_ct.M_usf));
				fprintf(stderr,"Delta_mean           : %.6e\n",gi.Deltamean);
				fprintf(stderr,"Delta_crit           : %.6e\n",gi.Deltacrit);
				fprintf(stderr,"Delta_fix            : %.6e\n",gi.Deltafix);
				fprintf(stderr,"afix                 : %.6e\n",gi.afix);
				fprintf(stderr,"rhoenc_mean          : %.6e MU LU^{-3} (comoving) = %.6e Mo kpc^{-3} (comoving) = %.6e Mo kpc^{-3} (physical)\n",
					gi.rhoencmean,gi.rhoencmean*pow(cosmo2internal_ct.L_usf,3)/cosmo2internal_ct.M_usf,
					gi.rhoencmean*pow(cosmo2internal_ct.L_usf,3)/(pow(gi.ascale,3)*cosmo2internal_ct.M_usf));
				fprintf(stderr,"rhoenc_crit          : %.6e MU LU^{-3} (comoving) = %.6e Mo kpc^{-3} (comoving) = %.6e Mo kpc^{-3} (physical)\n",
					gi.rhoenccrit,gi.rhoenccrit*pow(cosmo2internal_ct.L_usf,3)/cosmo2internal_ct.M_usf,
					gi.rhoenccrit*pow(cosmo2internal_ct.L_usf,3)/(pow(gi.ascale,3)*cosmo2internal_ct.M_usf));
				fprintf(stderr,"rhoenc_fix           : %.6e MU LU^{-3} (comoving) = %.6e Mo kpc^{-3} (comoving) = %.6e Mo kpc^{-3} (physical)\n",
					gi.rhoencfix,gi.rhoencfix*pow(cosmo2internal_ct.L_usf,3)/cosmo2internal_ct.M_usf,
					gi.rhoencfix*pow(cosmo2internal_ct.L_usf,3)/(pow(gi.ascale,3)*cosmo2internal_ct.M_usf));
				switch(LengthType_rExclude) {
				case 0: strcpy(cdummy,"comoving"); break;
				case 1: strcpy(cdummy,"physical"); break;
				default: strcpy(cdummy,"not supported"); }
				fprintf(stderr,"Length type rExclude : %s\n",cdummy);
				fprintf(stderr,"rExclude             : %.6e LU (comoving) = %.6e kpc (comoving) = %.6e kpc (physical)\n",
					gi.rExclude,gi.rExclude/cosmo2internal_ct.L_usf,gi.ascale*gi.rExclude/cosmo2internal_ct.L_usf);
				fprintf(stderr,"fcheckrvcmax         : %.6e\n",gi.fcheckrvcmax);
				fprintf(stderr,"slopertruncindicator : %.6e\n",gi.slopertruncindicator);
				fprintf(stderr,"frhobg               : %.6e\n",gi.frhobg);
				fprintf(stderr,"fhaloduplicate       : %.6e\n",gi.fhaloduplicate);
				fprintf(stderr,"fhaloexcludesize     : %.6e\n",gi.fhaloexcludesize);
				fprintf(stderr,"fhaloexcludedistance : %.6e\n",gi.fhaloexcludedistance);
				fprintf(stderr,"\n");
				}
			/*
			** Cylindrical profiles
			*/
			if (gi.BinningCoordinateType == 1) {
				fprintf(stderr,"Cylindrical profiles:\n\n");
				fprintf(stderr,"zAxis_x             : %.6e LU\n",gi.zAxis[0]);
				fprintf(stderr,"zAxis_y             : %.6e LU\n",gi.zAxis[1]);
				fprintf(stderr,"zAxis_z             : %.6e LU\n",gi.zAxis[2]);
				switch(LengthType_zHeight) {
				case 0: strcpy(cdummy,"comoving"); break;
				case 1: strcpy(cdummy,"physical"); break;
				default: strcpy(cdummy,"not supported"); }
				fprintf(stderr,"Length type zHeight : %s\n",cdummy);
				fprintf(stderr,"zHeight             : %.6e LU (comoving) = %.6e kpc (comoving) = %.6e kpc (physical)\n",
					gi.zHeight,gi.zHeight/cosmo2internal_ct.L_usf,gi.ascale*gi.zHeight/cosmo2internal_ct.L_usf);
				fprintf(stderr,"\n");
				}
			}
		/*
		** Shape
		*/
		if (gi.ProfilingMode == 1) {
			fprintf(stderr,"Shape determination:\n\n");
			switch(gi.ShapeDeterminationVolume) {
			case 0: strcpy(cdummy,"differential volume"); break;
			case 1: strcpy(cdummy,"enclosed volume"); break;
			default: strcpy(cdummy,"not supported"); }
			fprintf(stderr,"Shape determination volume    : %s\n",cdummy);
			switch(gi.ShapeTensorForm) {
			case 0: strcpy(cdummy,"S_ij"); break;
			case 1: strcpy(cdummy,"S_ij/r^2"); break;
			case 2: strcpy(cdummy,"S_ij/r_ell^2"); break;
			default: strcpy(cdummy,"not supported"); }
			fprintf(stderr,"Shape tensor form             : %s\n",cdummy);
			fprintf(stderr,"NLoopShapeIterationMax        : %d\n",gi.NLoopShapeIterationMax);
			fprintf(stderr,"OutputFrequencyShapeIteration : %d\n",gi.OutputFrequencyShapeIteration);
			fprintf(stderr,"ShapeIterationTolerance       : %.6e\n",gi.ShapeIterationTolerance);
			fprintf(stderr,"\n");
			}
		/*
		** Global binning grid parameters
		*/
		fprintf(stderr,"Global binning grid parameters:\n\n");
		for (d = 0; d < gi.NDimProfile; d++) {
			fprintf(stderr,"Dimension %ld:\n",d+1);
			switch(LengthType_rmin[d]) {
			case 0: strcpy(cdummy,"comoving"); break;
			case 1: strcpy(cdummy,"physical"); break;
			default: strcpy(cdummy,"not supported"); }
			fprintf(stderr,"Length type rmin  : %s\n",cdummy);
			switch(LengthType_rmax[d]) {
			case 0: strcpy(cdummy,"comoving"); break;
			case 1: strcpy(cdummy,"physical"); break;
			default: strcpy(cdummy,"not supported"); }
			fprintf(stderr,"Length type rmax  : %s\n",cdummy);
			if (gi.rmin[d] >= 0) {
				fprintf(stderr,"rmin              : %.6e LU (comoving) = %.6e kpc (comoving) = %.6e kpc (physical)\n",
					gi.rmin[d],gi.rmin[d]/cosmo2internal_ct.L_usf,gi.ascale*gi.rmin[d]/cosmo2internal_ct.L_usf);
				}
			else fprintf(stderr,"rmin              : not set\n");
			if (gi.rmax[d] >= 0) {
				fprintf(stderr,"rmax              : %.6e LU (comoving) = %.6e kpc (comoving) = %.6e kpc (physical)\n",
					gi.rmax[d],gi.rmax[d]/cosmo2internal_ct.L_usf,gi.ascale*gi.rmax[d]/cosmo2internal_ct.L_usf);
				}
			else fprintf(stderr,"rmax              : not set\n");
			if (gi.NBin[d] > 0) fprintf(stderr,"NBin              : %d\n",gi.NBin[d]);
			else fprintf(stderr,"NBin              : not set\n");
			if (gi.NBinPerDex[d] > 0) fprintf(stderr,"NBinPerDex        : %g\n",gi.NBinPerDex[d]);
			else fprintf(stderr,"NBinPerDex        : not set\n");
			switch(gi.BinningGridType[d]) {
			case 0: strcpy(cdummy,"logarithmic"); break;
			case 1: strcpy(cdummy,"linear"); break;
			default: strcpy(cdummy,"not supported"); }
			fprintf(stderr,"Binning grid type : %s\n",cdummy);
			fprintf(stderr,"\n");
			}
		}
	gettimeofday(&time,NULL);
	timeend = time.tv_sec;
	timediff = timeend-timestart;
	fprintf(stderr,"Done with profiling. It took %d s = %d h %d m %d s in total.\n",timediff,timediff/3600,(timediff/60)%60,timediff%60);
	exit(0);
	}

void usage(void) {

	fprintf(stderr,"\n");
	fprintf(stderr,"profile (%s)\n",VERSION);
	fprintf(stderr,"\n");
	fprintf(stderr,"Program calculates the profiles and characteristics of haloes.\n");
	fprintf(stderr,"\n");
	fprintf(stderr,"You can specify the following arguments:\n");
	fprintf(stderr,"\n");
	fprintf(stderr,"-spp                                 : set this flag if Tipsy XDR input files have single precision positions (default)\n");
	fprintf(stderr,"-dpp                                 : set this flag if Tipsy XDR input files have double precision positions\n");
	fprintf(stderr,"-pfm <value>                         : set this flag for ART native binary particle file mode: 0 everything double precision; 1 positions and velocities double precision, times single precision; 2 everything single precision (default: 0)\n");
	fprintf(stderr,"-ProfilingMode <value>               : 0 = NDimProfile-dimensional profiles / 1 = shape determination (default: 0)\n");
	fprintf(stderr,"-NDimProfile <value>                 : number of dimensions for profiling (default: 1)\n");
	fprintf(stderr,"-DataProcessingMode <value>          : 0 = read data again in every loop / 1 = store data in memory (default: 0)\n");
	fprintf(stderr,"-DataFormat <value>                  : 0 = Tipsy / 1 = ART (default: 0)\n");
	fprintf(stderr,"-HaloCatalogueFormat <value>         : 0 = generic / 1 = 6DFOF / 2 = characteristics (default: 0)\n");
	fprintf(stderr,"-HaloCatalogueNDim <value>           : dimension of halo catalouge (default: 1)\n");
	fprintf(stderr,"-ShapeDeterminationVolume <value>    : 0 = differential volume / 1 enclosed volume (default: 0)\n");
	fprintf(stderr,"-ShapeTensorForm <value>             : 0 = S_ij / 1 = S_ij/r^2 / 2 = S_ij/r_ell^2 (default: 0)\n");
	fprintf(stderr,"-DoMetalSpecies                      : set this flag for doing metal species\n");
	fprintf(stderr,"-DoChemicalSpecies                   : set this flag for doing chemical species\n");
	fprintf(stderr,"-DoGasTemperature                    : set this flag for doing gas temperature\n");
	fprintf(stderr,"-DoStellarAge                        : set this flag for doing stellar age\n");
	fprintf(stderr,"-MoreCharacteristicsOutput           : set this flag for more characteristics output\n");
	fprintf(stderr,"-RecentreUseGas <value>              : 0 = no / 1 = yes (default: 0)\n");
	fprintf(stderr,"-RecentreUseDark <value>             : 0 = no / 1 = yes (default: 1)\n");
	fprintf(stderr,"-RecentreUseStar <value>             : 0 = no / 1 = yes (default: 1)\n");
	fprintf(stderr,"-HaloSize <value>                    : 0 = rmean / 1 = rcrit / 2 = rfix (default: 0)\n");
	fprintf(stderr,"-ExcludeParticles <value>            : 0 = don't exclude any particles / 1 = exclude particles in specified halo catalogue (default: 0)\n");
	fprintf(stderr,"-LengthType_rmin <d> <value>         : d = dimension (1/2/3) / 0 = comoving / 1 = physical (default: 0)\n");
	fprintf(stderr,"-LengthType_rmax <d> <value>         : d = dimension (1/2/3) / 0 = comoving / 1 = physical (default: 0)\n");
	fprintf(stderr,"-LengthType_zHeight <value>          : 0 = comoving / 1 = physical (default: 0)\n");
	fprintf(stderr,"-LengthType_rExclude <value>         : 0 = comoving / 1 = physical (default: 0)\n");
	fprintf(stderr,"-LengthType_rRecentre <value>        : 0 = comoving / 1 = physical (default: 0)\n");
	fprintf(stderr,"-rmin <d> <value>                    : d = dimension (1/2/3) / global minimum grid radius for dimension d [LU] - overwrites values form halo catalogue (default: not set)\n");
	fprintf(stderr,"-rmax <d> <value>                    : d = dimension (1/2/3) / global maximum grid radius for dimension d [LU] - overwrites values form halo catalogue (default: not set)\n");
	fprintf(stderr,"-NBin <d> <value>                    : d = dimension (1/2/3) / global number of bins between rmin and rmax for dimension d - overwrites values form halo catalogue (default: not set)\n");
	fprintf(stderr,"-NBinPerDex <d> <value>              : d = dimension (1/2/3) / global number of bins per decade between rmin and rmax for dimension d (can be a float) (default: not set)\n");
	fprintf(stderr,"-BinningGridType <d> <value>         : d = dimension (1/2/3) / global binning grid type: 0 = logarithmic / 1 = linear (default: 0)\n");
	fprintf(stderr,"-BinningCoordinateType <value>       : 0 = spherical coordinates / 1 = cylindrical coordinates (default: 0)\n");
	fprintf(stderr,"-VelocityProjectionType <value>      : 0 = coordinate axes / 1 = spherical coordinates / 2 = cylindrical coordinates (default: 0)\n");
	fprintf(stderr,"-zAxis_x                             : x-component of global z-axis for cylindrical coordinates [LU] - overwrites values form z-axis catalogue (default: not set)\n");
	fprintf(stderr,"-zAxis_y                             : y-component of global z-axis for cylindrical coordinates [LU] - overwrites values form z-axis catalogue (default: not set)\n");
	fprintf(stderr,"-zAxis_z                             : z-component of global z-axis for cylindrical coordinates [LU] - overwrites values form z-axis catalogue (default: not set)\n");
	fprintf(stderr,"-zHeight                             : height above mid-plane for inclusion for cylindrical binning [LU] - overwrites values form z-axis catalogue (default: not set)\n");
	fprintf(stderr,"-CentreType <value>                  : 0 = centre-of-mass centres / 1 = potmin or denmax centres (only for 6DFOF halocatalogue) (default: 0)\n");
	fprintf(stderr,"-BinFactor <value>                   : extra factor for rmax determined form 6DFOF file (default: 5) (only for 6DFOF halocatalogue)\n");
	fprintf(stderr,"-rmaxFromHaloCatalogue               : set this flag for rmax determined from 6DFOF file (only for 6DFOF halocatalogue)\n");
	fprintf(stderr,"-OmegaM0 <value>                     : OmegaM0 value (default: 0) (only necessary for Tipsy format)\n");
	fprintf(stderr,"-OmegaL0 <value>                     : OmegaL0 value (default: 0) (only necessary for Tipsy format)\n");
	fprintf(stderr,"-OmegaK0 <value>                     : OmegaK0 value (default: 0) (only necessary for Tipsy format)\n");
	fprintf(stderr,"-OmegaR0 <value>                     : OmegaR0 value (default: 0) (only necessary for Tipsy format)\n");
	fprintf(stderr,"-h0_100 <value>                      : h0_100 value (default: 0) (only necessary for Tipsy format)\n");
	fprintf(stderr,"-LBox <value>                        : box length (comoving) [kpc]\n");
	fprintf(stderr,"-LBox_internal <value>               : box length (comoving) [LU] (default: standard value depending on file format)\n");
	fprintf(stderr,"-Hubble0_internal <value>            : Hubble parameter today [TU^{-1}] (default: standard value depending on file format)\n");
	fprintf(stderr,"-rhocrit0_internal <value>           : critical density today [MU LU^{-3}] (default: standard value depending on file format)\n");
	fprintf(stderr,"-Delta_mean <value>                  : overdensity with respect to current background density (default: 200)\n");
	fprintf(stderr,"-Delta_crit <value>                  : overdensity with respect to current critical density (default: 200)\n");
	fprintf(stderr,"-Delta_fix <value>                   : overdensity with respect to background density at afix (default: 200)\n");
	fprintf(stderr,"-afix <value>                        : scale factor for fixed overdensity (default: 1)\n");
	fprintf(stderr,"-ascale <value>                      : scale factor of the data (default: set from data, needed for non-cosmological simulations)\n");
	fprintf(stderr,"-LmaxGasAnalysis <value>             : maximum level of gas analysed [counting from 0] (default: Lmaxgas in data)\n");
	fprintf(stderr,"-NParticlePerBockGas <value>         : number of gas particles per block (default: 1e7)\n");
	fprintf(stderr,"-NParticlePerBlockDark <value>       : number of dark matter particles per block (default: 1e7)\n");
	fprintf(stderr,"-NParticlePerBlockStar <value>       : number of star particles per block (default: 1e7)\n");
	fprintf(stderr,"-NCellData <value>                   : number of cells per dimension in linked cell method for data loops (default: 20)\n");
	fprintf(stderr,"-NCellHalo <value>                   : number of cells per dimension in linked cell method for halo loops (default: 10)\n");
	fprintf(stderr,"-NLoopRecentre <value>               : number of loops for recentering (default: 0)\n");
	fprintf(stderr,"-rRecentre <value>                   : radius for recentering [LU] (default: 0 LU)\n");
	fprintf(stderr,"-fRecentreDist <value>               : factor for subsequential decrease of region in recentering loops (default: 1.5)\n");
	fprintf(stderr,"-rExclude <value>                    : radius for exclusion [LU] (default: 0 LU)\n");
	fprintf(stderr,"-NLoopShapeIterationMax <value>      : number of maximum loops for shape iteration (default: 50)\n");
	fprintf(stderr,"-GRAVITY <value>                     : 0 = flag not set / 1 = flag set (default: 1) [only necessary for ART format] \n");
	fprintf(stderr,"-HYDRO <value>                       : 0 = flag not set / 1 = flag set (default: 1) [only necessary for ART format]\n");
	fprintf(stderr,"-ADVECT_SPECIES <value>              : 0 = flag not set / 1 = flag set (default: 1) [only necessary for ART format]\n");
	fprintf(stderr,"-STARFORM <value>                    : 0 = flag not set / 1 = flag set (default: 1) [only necessary for ART format]\n");
	fprintf(stderr,"-ENRICH <value>                      : 0 = flag not set / 1 = flag set (default: 1) [only necessary for ART format]\n");
	fprintf(stderr,"-ENRICH_SNIa <value>                 : 0 = flag not set / 1 = flag set (default: 1) [only necessary for ART format]\n");
	fprintf(stderr,"-RADIATIVE_TRANSFER <value>          : 0 = flag not set / 1 = flag set (default: 1) [only necessary for ART format]\n");
	fprintf(stderr,"-ELECTRON_ION_NONEQUILIBRIUM <value> : 0 = flag not set / 1 = flag set (default: 0) [only necessary for ART format]\n");
	fprintf(stderr,"-verbose                             : verbose\n");
	fprintf(stderr,"< <name>                             : name of input file in Tipsy XDR format\n");
	fprintf(stderr,"-ARTHeader <name>                    : header file in ART native binary format\n");
	fprintf(stderr,"-ARTCoordinatesData <name>           : coordinates data file in ART native binary format\n");
	fprintf(stderr,"-ARTStarProperties <name>            : star properties file in ART native binary format\n");
	fprintf(stderr,"-ARTGas <name>                       : gas file in ART native binary format\n");
	fprintf(stderr,"-HaloCatalogue <name>                : halo catalouge file\n");
	fprintf(stderr,"-ExcludeHaloCatalogue <name>         : halo catalouge file (only characteristics format supported)\n");
	fprintf(stderr,"-zAxisCatalogue <name>               : z-axis catalouge file\n");
	fprintf(stderr,"-Output <name>                       : name of output files (endings like .characteristics etc. appended automatically)\n");
	fprintf(stderr,"\n");
	exit(1);
	}

void set_default_values_general_info(GI *gi) {

	int d, i;

	/*
	** Cosmological parameters
	*/
	gi->cp.OmegaM0 = 0;
	gi->cp.OmegaD0 = 0;
	gi->cp.OmegaB0 = 0;
	gi->cp.OmegaL0 = 0;
	gi->cp.OmegaK0 = 0;
	gi->cp.OmegaR0 = 0;
	gi->cp.h0_100 = 0;
	gi->us.LBox = 0;
	gi->us.Hubble0 = 0;
	gi->us.rhocrit0 = 0;
	gi->cosmous.LBox = 0;
	gi->cosmous.Hubble0 = 0;
	gi->cosmous.rhocrit0 = 0;
	/*
	** General parameters
	*/
	gi->DataFormat = 0; /* Tipsy */
	gi->HaloCatalogueFormat = 0; /* generic */
	gi->HaloCatalogueNDim = 1; /* 1-dimensional profiles */
	gi->HaloCatalogueBinningCoordinateType = 0; /* spherical */
	gi->ExcludeHaloCatalogueFormat = 2; /* characteristics */
	gi->ExcludeHaloCatalogueNDim = 1; /* 1-dimensional profiles */
	gi->ProfilingMode = 0; /* normal profile */
	gi->DataProcessingMode = 0; /* looping */
	gi->ShapeDeterminationVolume = 0; /* differential volume */
	gi->ShapeTensorForm = 0; /* no weights */
	gi->DoMetalSpecies = 0; /* no metal species */
	gi->DoChemicalSpecies = 0; /* no chemical species */
	gi->DoGasTemperature = 0; /* no gas temperature */
	gi->DoStellarAge = 0; /* no stellar age */
	gi->MoreCharacteristicsOutput = 0; /* not more characteristics output */
	gi->HaloSize = 0; /* rmean */
	gi->ExcludeParticles = 0; /* no particles excluded */
	gi->zAxisCatalogueSpecified = 0; /* no z-axis catalogue sepcified */
	gi->CentreType = 0;
	gi->VelocityProjectionType = 0;
	gi->rmaxFromHaloCatalogue = 0;
	gi->NDimProfile = 1;
	gi->NSpeciesRead = 3;
	gi->NSpeciesProfile = 5;
	gi->NHalo = 0;
	gi->NHaloExcludeGlobal = 0;
	/*
	** Binning structure
	*/
	gi->BinningCoordinateType = 0; /* spherical */
	for (d = 0; d < 3; d++) {
		gi->rmin[d] = -1;
		gi->rmax[d] = -1;
		gi->NBin[d] = 0;
		gi->NBinPerDex[d] = 0;
		gi->BinningGridType[d] = 0; /* logarithmic */
		}

	gi->zAxis[0] = 0;
	gi->zAxis[1] = 0;
	gi->zAxis[2] = 0;
	gi->zHeight = 0;

	gi->SizeStorageIncrement = 1e7;
	for (d = 0; d < NSPECIESREADMAX; d++) {
		gi->NParticlePerBlock[d] = 1e7;
		gi->NParticleInBlock[d] = 0;
		gi->SizeStorage[d] = 0;
		gi->NParticleInStorage[d] = 0;
		gi->NSubSpecies[d] = 1;
		gi->NProperties[d] = 0;
		for (i = 0; i < NSUBSPECIESMAX+NPROPERTIESMAX; i++) {
			gi->pi[d][i] = 0;
			}
		}
	for (d = 0; d < NSPECIESPROFILEMAX; d++) {
		for (i = 0; i < NPROPERTIESMAX; i++) {
			gi->bi[d][i] = 0;
			}
		}
	gi->RecentreUse[GAS] = 0;
	gi->RecentreUse[DARK] = 1;
	gi->RecentreUse[STAR] = 1;

	gi->NCellData = 20;
	gi->NCellHalo = 10;
	gi->NLoopShapeIterationMax = 50;
	gi->NLoopProcessData = 1;
	gi->OutputFrequencyShapeIteration = 10;

	gi->ascale = 0;
	gi->rhomean = 0;
	gi->rhocrit = 0;
	gi->Deltamean = 200;
	gi->Deltacrit = 200;
	gi->Deltafix = 200;
	gi->afix = 1;
	gi->BinFactor = 5;

	gi->rExclude = 0;
	gi->rRecentre = 0;
	gi->fRecentreDist = 1.5;
	gi->NLoopRecentre = 0;

	gi->fcheckrvcmax = 2.0;
	gi->slopertruncindicator = -0.5;
	gi->frhobg = 1.2;
	gi->ShapeIterationTolerance = 1e-5;
	gi->fhaloduplicate = 0;

	gi->fhaloexcludesize = 0.5;
	gi->fhaloexcludedistance = 0.5;

	/* gi->fincludeshapeproperty = 1.1; */
	/* gi->fincludeshaperadius = 2; */

	strcpy(gi->MatterTypeName[TOT],"tot");
	strcpy(gi->MatterTypeName[GAS],"gas");
	strcpy(gi->MatterTypeName[DARK],"dark");
	strcpy(gi->MatterTypeName[STAR],"star");
	strcpy(gi->MatterTypeName[BARYON],"baryon");
	strcpy(gi->MatterTypeName[GAS_METAL_SNII],"gas_metal_SNII");
	strcpy(gi->MatterTypeName[GAS_METAL_SNIa],"gas_metal_SNIa");
	strcpy(gi->MatterTypeName[STAR_METAL_SNII],"star_metal_SNII");
	strcpy(gi->MatterTypeName[STAR_METAL_SNIa],"star_metal_SNIa");
	strcpy(gi->MatterTypeName[BARYON_METAL_SNII],"baryon_metal_SNII");
	strcpy(gi->MatterTypeName[BARYON_METAL_SNIa],"baryon_metal_SNIa");
	strcpy(gi->MatterTypeName[GAS_HI],"gas_HI");
	strcpy(gi->MatterTypeName[GAS_HII],"gas_HII");
	strcpy(gi->MatterTypeName[GAS_HeI],"gas_HeI");
	strcpy(gi->MatterTypeName[GAS_HeII],"gas_HeII");
	strcpy(gi->MatterTypeName[GAS_HeIII],"gas_HeIII");
	strcpy(gi->MatterTypeName[GAS_H2],"gas_H2");
	}

void calculate_densities(GI *gi) {

	double E, OmegaM;

	E = Ecosmo(gi->ascale,gi->cp);
	OmegaM = gi->cp.OmegaM0/(pow(gi->ascale,3)*E*E);
	assert(gi->Deltamean > 0);
	assert(gi->Deltacrit > 0);
	assert(gi->Deltafix > 0);
	/*
	** The following densities are all comoving densities at ascale
	*/
	gi->rhocrit = gi->us.rhocrit0*E*E*pow(gi->ascale,3);
	gi->rhomean = OmegaM*gi->rhocrit;
	gi->rhoencmean = gi->Deltamean*gi->rhomean;
	gi->rhoenccrit = gi->Deltacrit*gi->rhocrit;
	/*
	** Calculate fixed density at afix
	*/
	E = Ecosmo(gi->afix,gi->cp);
	OmegaM = gi->cp.OmegaM0/(pow(gi->afix,3)*E*E);
	gi->rhoencfix = gi->Deltafix*OmegaM*gi->us.rhocrit0*E*E; /* physical density */
	gi->rhoencfix *= pow(gi->ascale,3); /* comoving density at ascale */
	}

void read_halocatalogue_ascii(GI *gi, HALO_DATA **hdin) {

	int SizeHaloDataIncrement = 1000;
	int SizeHaloData = SizeHaloDataIncrement;
	int d, n[3], i, j, idummy, ID, IDz, NBin[3], NHaloRead;
	double ddummy;
	double r[3], v[3], rcom[3], rpotorden[3], zAxis[3], zHeight;
	double rmin[3], rmax[3];
	double mass, radius;
	char cdummy[1000];
	HALO_DATA *hd;
	FILE *HaloCatalogueFile = NULL, *zAxisCatalogueFile = NULL;

	HaloCatalogueFile = fopen(gi->HaloCatalogueFileName,"r");
	assert(HaloCatalogueFile != NULL);

	if (gi->zAxisCatalogueSpecified) {
		zAxisCatalogueFile = fopen(gi->zAxisCatalogueFileName,"r");
		assert(zAxisCatalogueFile != NULL);
		fgets(cdummy,1000,zAxisCatalogueFile);
		}

	hd = *hdin;
	hd = realloc(hd,SizeHaloData*sizeof(HALO_DATA));
	assert(hd != NULL);
	/*
	** Read header line if present, then read all halos
	*/
	if (gi->HaloCatalogueFormat == 0 || gi->HaloCatalogueFormat == 2) fgets(cdummy,1000,HaloCatalogueFile);
	NHaloRead = 0;
	while (1) {
		/*
		** Set some default values
		*/
		for (d = 0; d < 3; d++) {
			rmin[d] = 0;
			rmax[d] = 0;
			NBin[d] = 1; /* at least one bin */
			zAxis[d] = 0;
			}
		zHeight = 0;
		/*
		** Read halo catalogues
		*/
		if (gi->HaloCatalogueFormat == 0) {
			/*
			** Generic format
			*/
			fscanf(HaloCatalogueFile,"%i",&idummy); ID = idummy;
			fscanf(HaloCatalogueFile,"%lg",&ddummy); r[0] = put_in_box(ddummy,gi->bc[0],gi->bc[3]);
			fscanf(HaloCatalogueFile,"%lg",&ddummy); r[1] = put_in_box(ddummy,gi->bc[1],gi->bc[4]);
			fscanf(HaloCatalogueFile,"%lg",&ddummy); r[2] = put_in_box(ddummy,gi->bc[2],gi->bc[5]);
			fscanf(HaloCatalogueFile,"%lg",&ddummy); v[0] = ddummy;
			fscanf(HaloCatalogueFile,"%lg",&ddummy); v[1] = ddummy;
			fscanf(HaloCatalogueFile,"%lg",&ddummy); v[2] = ddummy;
			for (d = 0; d < gi->HaloCatalogueNDim; d++) {
				fscanf(HaloCatalogueFile,"%lg",&ddummy); rmin[d] = ddummy;
				fscanf(HaloCatalogueFile,"%lg",&ddummy); rmax[d] = ddummy;
				fscanf(HaloCatalogueFile,"%i",&idummy); NBin[d] = (idummy > 0)?idummy:NBin[d]; /* NBin between rmin and rmax => no correction for logarithmic bins */
				}
			if (gi->HaloCatalogueBinningCoordinateType == 1) {
				fscanf(HaloCatalogueFile,"%lg",&ddummy); zAxis[0] = ddummy;
				fscanf(HaloCatalogueFile,"%lg",&ddummy); zAxis[1] = ddummy;
				fscanf(HaloCatalogueFile,"%lg",&ddummy); zAxis[2] = ddummy;
				fscanf(HaloCatalogueFile,"%lg",&ddummy); zHeight = ddummy;
				}
			if (feof(HaloCatalogueFile)) break;
			}
		else if (gi->HaloCatalogueFormat == 1) {
			/*
			** 6DFOF format
			*/
			fscanf(HaloCatalogueFile,"%i",&idummy); ID = idummy;
			fscanf(HaloCatalogueFile,"%i",&idummy); /* N = idummy; */
			fscanf(HaloCatalogueFile,"%lg",&ddummy); mass = ddummy;
			fscanf(HaloCatalogueFile,"%lg",&ddummy); radius = ddummy; /* dispersion in coordinates */
			fscanf(HaloCatalogueFile,"%lg",&ddummy); rcom[0] = put_in_box(ddummy,gi->bc[0],gi->bc[3]);
			fscanf(HaloCatalogueFile,"%lg",&ddummy); rcom[1] = put_in_box(ddummy,gi->bc[1],gi->bc[4]);
			fscanf(HaloCatalogueFile,"%lg",&ddummy); rcom[2] = put_in_box(ddummy,gi->bc[2],gi->bc[5]);
			fscanf(HaloCatalogueFile,"%lg",&ddummy); rpotorden[0] = put_in_box(ddummy,gi->bc[0],gi->bc[3]);
			fscanf(HaloCatalogueFile,"%lg",&ddummy); rpotorden[1] = put_in_box(ddummy,gi->bc[1],gi->bc[4]);
			fscanf(HaloCatalogueFile,"%lg",&ddummy); rpotorden[2] = put_in_box(ddummy,gi->bc[2],gi->bc[5]);
			fscanf(HaloCatalogueFile,"%lg",&ddummy); v[0] = ddummy;
			fscanf(HaloCatalogueFile,"%lg",&ddummy); v[1] = ddummy;
			fscanf(HaloCatalogueFile,"%lg",&ddummy); v[2] = ddummy;
			if (feof(HaloCatalogueFile)) break;
			if (gi->CentreType == 0) {
				for (d = 0; d < 3; d++) r[d] = rcom[d];
				}
			else if (gi->CentreType == 1) {
				for (d = 0; d < 3; d++) r[d] = rpotorden[d];
				}
			else {
				fprintf(stderr,"Not supported center type!\n");
				exit(1);
				}
			rmin[0] = 0;
			if (gi->rmaxFromHaloCatalogue == 1) {
				/*
				** Estimate maximum radius; assume isothermal sphere scaling
				*/
				rmax[0] = sqrt((3.0*mass/(4.0*M_PI*radius*radius*radius))/gi->rhoencmean)*radius*gi->BinFactor;
				assert(rmax[0] > 0);
				}
			else {
				rmax[0] = 0;
				}
			}
		else if (gi->HaloCatalogueFormat == 2) {
			/*
			** Characteristics format
			*/
			fscanf(HaloCatalogueFile,"%i",&idummy); ID = idummy;
			fscanf(HaloCatalogueFile,"%lg",&ddummy); r[0] = put_in_box(ddummy,gi->bc[0],gi->bc[3]);
			fscanf(HaloCatalogueFile,"%lg",&ddummy); r[1] = put_in_box(ddummy,gi->bc[1],gi->bc[4]);
			fscanf(HaloCatalogueFile,"%lg",&ddummy); r[2] = put_in_box(ddummy,gi->bc[2],gi->bc[5]);
			fscanf(HaloCatalogueFile,"%lg",&ddummy); v[0] = ddummy;
			fscanf(HaloCatalogueFile,"%lg",&ddummy); v[1] = ddummy;
			fscanf(HaloCatalogueFile,"%lg",&ddummy); v[2] = ddummy;
			for (d = 0; d < gi->HaloCatalogueNDim; d++) {
				fscanf(HaloCatalogueFile,"%lg",&ddummy); rmin[d] = ddummy;
				fscanf(HaloCatalogueFile,"%lg",&ddummy); rmax[d] = ddummy;
				fscanf(HaloCatalogueFile,"%i",&idummy); NBin[d] = (idummy > 0)?idummy:NBin[d];
				if (gi->BinningGridType[d] == 0) {
					/*
					** Correct for logarithmic binning: innermost bin is already counted here.
					** HaloCatalogue needs to have same binning type as the profiling done now.
					** No way to check this at the moment.
					*/
					NBin[d] -= 1;
					}
				}
			if (gi->HaloCatalogueBinningCoordinateType == 0) {
				fgets(cdummy,1000,HaloCatalogueFile);
				}
			else if (gi->HaloCatalogueBinningCoordinateType == 1) {
				fscanf(HaloCatalogueFile,"%lg",&ddummy); zAxis[0] = ddummy;
				fscanf(HaloCatalogueFile,"%lg",&ddummy); zAxis[1] = ddummy;
				fscanf(HaloCatalogueFile,"%lg",&ddummy); zAxis[2] = ddummy;
				fscanf(HaloCatalogueFile,"%lg",&ddummy); zHeight = ddummy;
				}
			if (feof(HaloCatalogueFile)) break;
			}
		else {
			fprintf(stderr,"Not supported halo catalogue format!\n");
			exit(1);
			}
		if (gi->BinningCoordinateType == 1) {
			/*
			** Use z-axis catalogue values if specified
			*/
			if (gi->zAxisCatalogueSpecified) {
				fscanf(zAxisCatalogueFile,"%i",&idummy); IDz = idummy;
				fscanf(zAxisCatalogueFile,"%lg",&ddummy); zAxis[0] = ddummy;
				fscanf(zAxisCatalogueFile,"%lg",&ddummy); zAxis[1] = ddummy;
				fscanf(zAxisCatalogueFile,"%lg",&ddummy); zAxis[2] = ddummy;
				fscanf(zAxisCatalogueFile,"%lg",&ddummy); zHeight = ddummy;
				assert(ID == IDz);
				}
			/*
			** Use global values if specified
			*/
			if (gi->zAxis[0] != 0 || gi->zAxis[1] != 0 ||  gi->zAxis[2] != 0) {
				for (d = 0; d < 3; d++) zAxis[d] = gi->zAxis[d];
				}
			if (gi->zHeight > 0) zHeight = gi->zHeight;
			}
		NHaloRead++;
		if (SizeHaloData < NHaloRead){
			SizeHaloData += SizeHaloDataIncrement;
			hd = realloc(hd,SizeHaloData*sizeof(HALO_DATA));
			assert(hd != NULL);
			}
		i = NHaloRead-1;
		/*
		** Basic halo properties
		*/
		hd[i].ID = ID;
		for (d = 0; d < 3; d++) {
			hd[i].rcentre[d] = r[d];
			hd[i].vcentre[d] = v[d];
			}
		/*
		** Set-up bin structure
		*/
		if (gi->BinningCoordinateType == 1) {
			ddummy = 1.0/sqrt(pow(zAxis[0],2)+pow(zAxis[1],2)+pow(zAxis[2],2));
			assert(ddummy > 0 && !isnan(ddummy) && !isinf(ddummy));
			for (d = 0; d < 3; d++) hd[i].zAxis[d] = zAxis[d]*ddummy;
			if (zHeight > 0) rmax[1] = zHeight;
			}
		for (d = 0; d < 3; d++) {
			hd[i].rmin[d] = (gi->rmin[d] >= 0)?gi->rmin[d]:rmin[d];
			hd[i].rmax[d] = (gi->rmax[d] >= 0)?gi->rmax[d]:rmax[d];
			hd[i].NBin[d] = (gi->NBin[d] > 0)?gi->NBin[d]:NBin[d];
			assert(hd[i].rmax[d] >= hd[i].rmin[d]);
			assert(hd[i].NBin[d] > 0);
			if (gi->BinningGridType[d] == 0 && d < gi->NDimProfile) {
				/*
				** Logarithmic bins
				*/
				assert(hd[i].rmin[d] > 0);
				assert(hd[i].rmax[d] > 0);
				assert(hd[i].rmax[d] > hd[i].rmin[d]);
				hd[i].NBin[d] += 1; /* account for inner bin from 0-rmin */
				if (gi->NBinPerDex[d] > 0) {
					/*
					** Calculate NBin and rmax
					*/
					hd[i].NBin[d] = (int)((log10(hd[i].rmax[d])-log10(hd[i].rmin[d]))*gi->NBinPerDex[d]) + 1;
					hd[i].rmax[d] = hd[i].rmin[d]*pow(10,hd[i].NBin[d]/gi->NBinPerDex[d]);
					hd[i].NBin[d] += 1; /* account for inner bin from 0-rmin */
					}
				}
			if (gi->NDimProfile == 2 && gi->BinningCoordinateType == 1 && d == 1) {
				/*
				** 2-dimensional binning in cylindrical coordinates
				*/
				hd[i].NBin[d] *= 2;
				}
			}
		if (gi->BinningCoordinateType == 1) hd[i].zHeight = hd[i].rmax[1];
		/*
		** Allocate bins
		*/
		hd[i].pbs = malloc(hd[i].NBin[0]*sizeof(PROFILE_BIN_STRUCTURE**));
		assert(hd[i].pbs != NULL);
		for (n[0] = 0; n[0] < hd[i].NBin[0]; n[0]++) {
			hd[i].pbs[n[0]] = malloc(hd[i].NBin[1]*sizeof(PROFILE_BIN_STRUCTURE*));
			assert(hd[i].pbs[n[0]] != NULL);
			for (n[1] = 0; n[1] < hd[i].NBin[1]; n[1]++) {
				hd[i].pbs[n[0]][n[1]] = malloc(hd[i].NBin[2]*sizeof(PROFILE_BIN_STRUCTURE));
				assert(hd[i].pbs[n[0]][n[1]] != NULL);
				for (n[2] = 0; n[2] < hd[i].NBin[2]; n[2]++) {
					if (gi->ProfilingMode == 0) {
						hd[i].pbs[n[0]][n[1]][n[2]].bin = malloc(gi->NSpeciesProfile*sizeof(PROFILE_BIN_PROPERTIES));
						assert(hd[i].pbs[n[0]][n[1]][n[2]].bin != NULL);
						hd[i].pbs[n[0]][n[1]][n[2]].shape = NULL;
						for (j = 0; j < gi->NSpeciesProfile; j++) {
							if (j < gi->NSpeciesRead && gi->NProperties[j] > 0) {
								hd[i].pbs[n[0]][n[1]][n[2]].bin[j].P = malloc(gi->NProperties[j]*sizeof(double));
								assert(hd[i].pbs[n[0]][n[1]][n[2]].bin[j].P != NULL);
								}
							else {
								hd[i].pbs[n[0]][n[1]][n[2]].bin[j].P = NULL;
								}
							}
						}
					else if (gi->ProfilingMode == 1) {
						hd[i].pbs[n[0]][n[1]][n[2]].shape = malloc(gi->NSpeciesProfile*sizeof(PROFILE_SHAPE_PROPERTIES));
						assert(hd[i].pbs[n[0]][n[1]][n[2]].shape != NULL);
						hd[i].pbs[n[0]][n[1]][n[2]].bin = NULL;
						}
					}
				}
			}
		/*
		** Initialise halo profile
		*/
		initialise_halo_profile(gi,&hd[i]);
		}
	fclose(HaloCatalogueFile);
	if (gi->zAxisCatalogueSpecified) fclose(zAxisCatalogueFile);
	*hdin = hd;
	gi->NHalo = NHaloRead;
	}

int read_halocatalogue_ascii_excludehalo(GI *gi, HALO_DATA *hd, HALO_DATA_EXCLUDE **hdegin) {

	int SizeHaloDataIncrement = 1000;
	int SizeHaloData = SizeHaloDataIncrement;
	int d, i, j, k, l, idummy, ID, NHaloRead, NIndexArray;
	int MoveToGlobalList, ContainedInHaloDataList, Ntot, Ncheck;
	int *IndexArray = NULL;
	double ddummy;
	double r[3], rcheck[3];
	double dsph;
	double sizeorig, size;
	double *SizeArray = NULL;
	char cdummy[1000];
	HALO_DATA_EXCLUDE *hdeg;
	FILE *HaloCatalogueFile = NULL;

	HaloCatalogueFile = fopen(gi->ExcludeHaloCatalogueFileName,"r");
	assert(HaloCatalogueFile != NULL);

	for (j = 0; j < gi->NHalo; j++) {
		hd[j].SizeExcludeHaloData = SizeHaloDataIncrement;
		hd[j].hde = realloc(hd[j].hde,hd[j].SizeExcludeHaloData*sizeof(HALO_DATA_EXCLUDE));
		assert(hd[j].hde != NULL);
		}

	hdeg = *hdegin;
	hdeg = realloc(hdeg,SizeHaloData*sizeof(HALO_DATA_EXCLUDE));
	assert(hdeg != NULL);

	IndexArray = malloc(gi->NHalo*sizeof(int));
	assert(IndexArray != NULL);
	SizeArray = malloc(gi->NHalo*sizeof(double));
	assert(SizeArray != NULL);
	/*
	** Read header line if present, then read all halos
	*/
	if (gi->ExcludeHaloCatalogueFormat == 2) fgets(cdummy,1000,HaloCatalogueFile);
	NHaloRead = 0;
	while (1) {
		if (gi->ExcludeHaloCatalogueFormat == 2) {
			fscanf(HaloCatalogueFile,"%i",&idummy); ID = idummy;
			fscanf(HaloCatalogueFile,"%lg",&ddummy); r[0] = put_in_box(ddummy,gi->bc[0],gi->bc[3]);
			fscanf(HaloCatalogueFile,"%lg",&ddummy); r[1] = put_in_box(ddummy,gi->bc[1],gi->bc[4]);
			fscanf(HaloCatalogueFile,"%lg",&ddummy); r[2] = put_in_box(ddummy,gi->bc[2],gi->bc[5]);
			fscanf(HaloCatalogueFile,"%lg",&ddummy); /* v[0] = ddummy; */
			fscanf(HaloCatalogueFile,"%lg",&ddummy); /* v[1] = ddummy; */
			fscanf(HaloCatalogueFile,"%lg",&ddummy); /* v[2] = ddummy; */
			for (d = 0; d < gi->ExcludeHaloCatalogueNDim; d++) {
				fscanf(HaloCatalogueFile,"%lg",&ddummy); /* rmin[d] = ddummy; */
				fscanf(HaloCatalogueFile,"%lg",&ddummy); /* rmax[d] = ddummy; */
				fscanf(HaloCatalogueFile,"%i",&idummy); /* NBin[d] = idummy; */
				}
			fscanf(HaloCatalogueFile,"%lg",&ddummy); sizeorig = ddummy;
			fgets(cdummy,1000,HaloCatalogueFile);
			if (feof(HaloCatalogueFile)) break;
			sizeorig *= gi->fhaloexcludesize;
			}
		else {
			fprintf(stderr,"Not supported halo catalogue format!\n");
			exit(1);
			}
		NHaloRead++;
		/*
		** Now determine if it is a excluded halo
		*/
		ContainedInHaloDataList = 0;
		NIndexArray = 0;
		for (i = 0; i < gi->NHalo; i++) {
			if (hd[i].ID == ID) {
				ContainedInHaloDataList = 1;
				continue; /* Don't exclude yourself */
				}
			for (d = 0; d < 3; d++) {
				rcheck[d] = correct_position(hd[i].rcentre[d],r[d],gi->us.LBox);
				rcheck[d] = rcheck[d]-hd[i].rcentre[d];
				}
			dsph = sqrt(rcheck[0]*rcheck[0]+rcheck[1]*rcheck[1]+rcheck[2]*rcheck[2]);
			/*
			** Check if spheres overlap, i.e. some particles need to be excluded
			*/
			if (dsph <= hd[i].rmax[0]+sizeorig) {
				/*
				** Check if halo centre is contained
				** => if yes take fraction fhaloexcludedistance of the distance as size
				*/
				if (sizeorig > dsph) size = gi->fhaloexcludedistance*dsph;
				else size = sizeorig;
				if (size > 0) {
					hd[i].NHaloExclude++;
					NIndexArray++;
					IndexArray[NIndexArray-1] = i;
					SizeArray[NIndexArray-1] = size;
					if (hd[i].SizeExcludeHaloData < hd[i].NHaloExclude) {
						hd[i].SizeExcludeHaloData += SizeHaloDataIncrement;
						hd[i].hde = realloc(hd[i].hde,hd[i].SizeExcludeHaloData*sizeof(HALO_DATA_EXCLUDE));
						assert(hd[i].hde != NULL);
						}
					j = hd[i].NHaloExclude-1;
					hd[i].hde[j].ID = ID;
					for (d = 0; d < 3; d++) hd[i].hde[j].rcentre[d] = r[d];
					hd[i].hde[j].size = size;
					}
				}
			}
		/*
		** In the case of DataProcessingMode == 0 we're done now.
		** But if we use DataProcessingMode == 1 we can move the haloes that have a single size and
		** are not in the hd halo list to the global exclude list, i.e. we never have to consider
		** these particles at all.
		*/
		if (gi->DataProcessingMode == 1 && NIndexArray > 0) {
			MoveToGlobalList = 0;
			Ntot = 0;
			Ncheck = 0;
			/*
			** Only if in all appearances the halo has the same size move it to the global list
			*/
			if (NIndexArray == 1) MoveToGlobalList = 1;
			else if (NIndexArray > 1) {
				for (j = 1; j < NIndexArray; j++) {
					Ntot++;
					if (SizeArray[j] == SizeArray[j-1]) Ncheck++;
					}
				if (Ntot == Ncheck) MoveToGlobalList = 1;
				}
			/*
			** Halo is not allowed to be in the halo data list
			*/
			if (ContainedInHaloDataList) MoveToGlobalList = 0;
			/*
			** Move to global exclusion list
			*/
			if (MoveToGlobalList) {
				for (j = 0; j < NIndexArray; j++) {
					i = IndexArray[j];
					/*
					** Transfer the halo => only need to do that once (j == 0)
					*/
					if (j == 0) {
						gi->NHaloExcludeGlobal++;
						if (SizeHaloData < gi->NHaloExcludeGlobal) {
							SizeHaloData += SizeHaloDataIncrement;
							hdeg = realloc(hdeg,SizeHaloData*sizeof(HALO_DATA_EXCLUDE));
							assert(hdeg != NULL);
							}
						l = gi->NHaloExcludeGlobal-1;
						hdeg[l].ID = ID;
						for (k = 0; k < 3; k++) hdeg[l].rcentre[k] = r[k];
						hdeg[l].size = SizeArray[0];
						}
					/*
					** Remove the haloes from the local list
					*/
					assert(hd[i].hde[hd[i].NHaloExclude-1].ID == ID);
					hd[i].NHaloExclude--;
					}
				}
			}
		} /* while loop */
	fclose(HaloCatalogueFile);
	free(IndexArray);
	free(SizeArray);
	*hdegin = hdeg;
	return NHaloRead;
	}

void initialise_halo_profile(GI *gi, HALO_DATA *hd) {

	int d, n[3], j, l;
	double dr[3] = {0,0,0};
	const double ex[3] = {1,0,0};
	const double ey[3] = {0,1,0};
	const double ez[3] = {0,0,1};
	PROFILE_BIN_STRUCTURE *pbs;
	PROFILE_BIN_PROPERTIES *bin;
	PROFILE_SHAPE_PROPERTIES *shape;

	hd->HostHaloID = -1;
	hd->ExtraHaloID = -1;
	hd->NHaloExclude = 0;
	hd->SizeExcludeHaloData = 0;
	hd->IsTruncated = 0;
	hd->rmean = 0;
	hd->Mrmean = 0;
	hd->rcrit = 0;
	hd->Mrcrit = 0;
	hd->rfix = 0;
	hd->Mrfix = 0;
	hd->rtrunc = 0;
	hd->Mrtrunc = 0;
	hd->rtruncindicator = 0;
	hd->size = 0;
	hd->mass = 0;
	for (d = 0; d < 3; d++) {
		hd->rcentrenew[d] = 0;
		hd->vcentrenew[d] = 0;
		}
	for (j = 0; j < NSPECIESBACKGROUND; j++) {
		hd->rhobg[j] = 0;
		for (l = 0; l < 2; l++) {
			hd->rvcmax[j][l] = 0;
			hd->Mrvcmax[j][l] = 0;
			}
		}
	/*
	** Calculate bin spacings
	*/
	for (d = 0; d < gi->NDimProfile; d++) {
		if (gi->NDimProfile == 2 && gi->BinningCoordinateType == 1 && d == 1) {
			if (gi->BinningGridType[d] == 0) {
				dr[d] = (log(hd->rmax[d])-log(hd->rmin[d]))/(hd->NBin[d]/2-1);
				}
			else if (gi->BinningGridType[d] == 1) {
				dr[d] = (hd->rmax[d]-hd->rmin[d])/(hd->NBin[d]/2);
				}
			}
		else {
			if (gi->BinningGridType[d] == 0) {
				dr[d] = (log(hd->rmax[d])-log(hd->rmin[d]))/(hd->NBin[d]-1);
				}
			else if (gi->BinningGridType[d] == 1) {
				dr[d] = (hd->rmax[d]-hd->rmin[d])/hd->NBin[d];
				}
			}
		}
	/*
	** Initialise bins
	*/
	for (n[0] = 0; n[0] < hd->NBin[0]; n[0]++) {
		for (n[1] = 0; n[1] < hd->NBin[1]; n[1]++) {
			for (n[2] = 0; n[2] < hd->NBin[2]; n[2]++) {
				pbs = &hd->pbs[n[0]][n[1]][n[2]];
				/*
					 ** Calculate coordinates of bins
					 */
				for (d = 0; d < gi->NDimProfile; d++) {
					if (gi->NDimProfile == 2 && gi->BinningCoordinateType == 1 && d == 1 && n[1] >= hd->NBin[1]/2) {
						l = hd->NBin[1]/2;
						pbs->ri[d] = (-1)*hd->pbs[n[0]][n[1]-l][n[2]].ro[d];
						pbs->rm[d] = (-1)*hd->pbs[n[0]][n[1]-l][n[2]].rm[d];
						pbs->ro[d] = (-1)*hd->pbs[n[0]][n[1]-l][n[2]].ri[d];
						}
					else {
						if (gi->BinningGridType[d] == 0) {
							if (n[d] == 0) {
								pbs->ri[d] = 0;
								pbs->rm[d] = exp(log(hd->rmin[d])-0.5*dr[d]);
								pbs->ro[d] = hd->rmin[d];
								}
							else {
								pbs->ri[d] = exp(log(hd->rmin[d]) + (n[d]-1)*dr[d]);
								pbs->rm[d] = exp(log(hd->rmin[d]) + (n[d]-0.5)*dr[d]);
								pbs->ro[d] = exp(log(hd->rmin[d]) + n[d]*dr[d]);
								}
							}
						else if (gi->BinningGridType[d] == 1) {
							pbs->ri[d] = hd->rmin[d] + n[d]*dr[d];
							pbs->rm[d] = hd->rmin[d] + (n[d]+0.5)*dr[d];
							pbs->ro[d] = hd->rmin[d] + (n[d]+1)*dr[d];
							}
						}
					}
				/*
				** Initialise bin and shape structures
				*/
				for (j = 0; j < gi->NSpeciesProfile; j++) {
					if (gi->SpeciesContained[j]) {
						if (gi->ProfilingMode == 0) {
							/*
							** Bin
							*/
							bin = &pbs->bin[j];
							bin->N = 0;
							bin->M = 0;
							bin->Menc[0] = 0;
							bin->Menc[1] = 0;
							for (d = 0; d < 3; d++) {
								bin->v[d] = 0;
								bin->L[d] = 0;
								}
							for (d = 0; d < 6; d++) {
								bin->vdt[d] = 0;
								}
							if (j < gi->NSpeciesRead) {
								for (d = 0; d < gi->NProperties[j]; d++) {
									bin->P[d] = 0;
									}
								}
							}
						else if (gi->ProfilingMode == 1) {
							/*
							** Shape
							*/
							shape = &pbs->shape[j];
							shape->NLoopConverged = 0;
							shape->N = 0;
							shape->M = 0;
							shape->b_a = 0;
							shape->c_a = 0;
							shape->b_a_old = 0;
							shape->c_a_old = 0;
							/* shape->dmin = 0; */
							/* shape->dmax = 0; */
							/* shape->propertymin = 0; */
							/* shape->propertymax = 0; */
							/* shape->propertymean = 0; */
							for (d = 0; d < 3; d++) {
								shape->a[d] = ex[d];
								shape->b[d] = ey[d];
								shape->c[d] = ez[d];
								}
							for (d = 0; d < 6; d++) {
								shape->st[d] = 0;
								}
							}
						} /* if SpeciesContained */
					} /* for NSpeciesProfile */
				} /* for n[2] */
			} /* for n[1] */
		} /* for n[0] */
	}

void reset_halo_profile_shape(GI gi, HALO_DATA *hd) {

	int d, n[3], i, j;
	PROFILE_SHAPE_PROPERTIES *shape;

#pragma omp parallel for default(none) private(d,n,i,j,shape) shared(gi,hd)
	for (i = 0; i < gi.NHalo; i++) {
		for (n[0] = 0; n[0] < hd[i].NBin[0]; n[0]++) {
			for (n[1] = 0; n[1] < hd[i].NBin[1]; n[1]++) {
				for (n[2] = 0; n[2] < hd[i].NBin[2]; n[2]++) {
					for (j = 0; j < gi.NSpeciesProfile; j++) {
						if (gi.SpeciesContained[j]) {
							shape = &hd[i].pbs[n[0]][n[1]][n[2]].shape[j];
							shape->N = 0;
							shape->M = 0;
							for (d = 0; d < 6; d++) shape->st[d] = 0;
							}
						}
					}
				}
			}
		}
	}

void add_particle_to_shape_tensor(GI gi, PROFILE_SHAPE_PROPERTIES *shape, double M, double r[3], double dsph, double dell) {

	int d;
	double fst;

	switch(gi.ShapeTensorForm) {
	case 0: fst = 1; break;
	case 1: fst = 1/pow(dsph,2); break;
	case 2: fst = 1/pow(dell,2); break;
	default: fst = 1; }
	shape->N++;
	shape->M += M;
	for (d = 0; d < 3; d++) shape->st[d] += M*r[d]*r[d]*fst;
	shape->st[3] += M*r[0]*r[1]*fst;
	shape->st[4] += M*r[0]*r[2]*fst;
	shape->st[5] += M*r[1]*r[2]*fst;
	}

void put_particles_in_bins(GI gi, HALO_DATA *hd, const int MatterType, PROFILE_PARTICLE *pp) {

	int d, n[3], i, j, k, l;
	int index[3];
	int NParticle = 0;
	int ParticleAccepted, InThisBin, LoopBroken;
	int ***HeadIndex, *NextIndex;
	double r[3], rell[3], v[3], vproj[3];
	double eA[3], eB[3], eC[3];
	double dsph, dell, size;
	double dist[3], shift[3];
	double M;
	PROFILE_BIN_STRUCTURE *pbs;
	PROFILE_BIN_PROPERTIES *bin;
	PROFILE_SHAPE_PROPERTIES *shape;

	if (gi.DataProcessingMode == 0) NParticle = gi.NParticleInBlock[MatterType];
	else if (gi.DataProcessingMode == 1) NParticle = gi.NParticleInStorage[MatterType];
	/*
	** Initialise linked list stuff
	*/
	HeadIndex = malloc(gi.NCellData*sizeof(int **));
	assert(HeadIndex != NULL);
	for (i = 0; i < gi.NCellData; i ++) {
		HeadIndex[i] = malloc(gi.NCellData*sizeof(int *));
		assert(HeadIndex[i] != NULL);
		for (j = 0; j < gi.NCellData; j++) {
			HeadIndex[i][j] = malloc(gi.NCellData*sizeof(int));
			assert(HeadIndex[i][j] != NULL);
			}
		}
	NextIndex = malloc(NParticle*sizeof(int));
	assert(NextIndex != NULL);
	for (i = 0; i < gi.NCellData; i++) {
		for (j = 0; j < gi.NCellData; j++) {
			for (k = 0; k < gi.NCellData; k++) {
				HeadIndex[i][j][k] = -1;
				}
			}
		}
	for (j = 0; j < NParticle; j++) NextIndex[j] = -1;
	for (d = 0; d < 3; d++) shift[d] = 0-gi.bc[d];
	/*
	** Generate linked list
	*/
	for (j = 0; j < NParticle; j++) {
		for (d = 0; d < 3; d++) {
			index[d] = (int)(gi.NCellData*(pp[j].r[d]+shift[d])/gi.us.LBox);
			if (index[d] == gi.NCellData) index[d] = gi.NCellData-1; /* Case where particles are exactly on the boundary */
			assert(index[d] >= 0 && index[d] < gi.NCellData);
			}
		NextIndex[j] = HeadIndex[index[0]][index[1]][index[2]];
		HeadIndex[index[0]][index[1]][index[2]] = j;
		}
	/*
	** Go through linked list
	*/
	for (index[0] = 0; index[0] < gi.NCellData; index[0]++) {
		for (index[1] = 0; index[1] < gi.NCellData; index[1]++) {
			for (index[2] = 0; index[2] < gi.NCellData; index[2]++) {
#pragma omp parallel for default(none) private(d,n,i,j,k,l,ParticleAccepted,InThisBin,LoopBroken,r,rell,v,vproj,eA,eB,eC,dsph,dell,size,dist,M,pbs,bin,shape) shared(gi,hd,pp,index,shift,HeadIndex,NextIndex)
				for (i = 0; i < gi.NHalo; i++) {
					if (gi.ILoopRead < gi.NLoopRecentre && gi.RecentreUse[MatterType] == 1) {
						/*
						** Recentre halo coordinates
						*/
						size = gi.rRecentre;
						size *= pow(gi.fRecentreDist,gi.NLoopRecentre-1-gi.ILoopRead);
						assert(size > 0);
						if (intersect(gi.us.LBox,gi.NCellData,hd[i],index,shift,size)) {
							j = HeadIndex[index[0]][index[1]][index[2]];
							while (j >= 0) {
								for (d = 0; d < 3; d++) {
									r[d] = correct_position(hd[i].rcentre[d],pp[j].r[d],gi.us.LBox);
									r[d] = r[d]-hd[i].rcentre[d];
									}
								dsph = sqrt(r[0]*r[0]+r[1]*r[1]+r[2]*r[2]);
								if (dsph <= size) {
									M = pp[j].P[gi.pi[MatterType][MASS_TOT]];
									hd[i].Mrtrunc += M; /* temporarily use Mrtrunc */
									for (d = 0; d < 3; d++) {
										hd[i].rcentrenew[d] += M*correct_position(hd[i].rcentre[d],pp[j].r[d],gi.us.LBox);
										hd[i].vcentrenew[d] += M*pp[j].v[d];
										}
									}
								j = NextIndex[j];
								} /* while j >= 0 */
							} /* if intersect */
						} /* if recentre */
					else if (gi.ILoopRead >= gi.NLoopRecentre) {
						/*
						** Process data
						*/
						size = hd[i].rmax[0];
						if (gi.ProfilingMode == 0 && gi.BinningCoordinateType == 1) size = sqrt(pow(hd[i].rmax[0],2)+pow(hd[i].zHeight,2));
						/* if (gi.ProfilingMode == 3) size = gi.fincludeshaperadius*hd[i].rmax[0]; */
						if (intersect(gi.us.LBox,gi.NCellData,hd[i],index,shift,size)) {
							j = HeadIndex[index[0]][index[1]][index[2]];
							while (j >= 0) {
								for (d = 0; d < 3; d++) {
									r[d] = correct_position(hd[i].rcentre[d],pp[j].r[d],gi.us.LBox);
									r[d] = r[d]-hd[i].rcentre[d];
									}
								dsph = sqrt(r[0]*r[0]+r[1]*r[1]+r[2]*r[2]);
								if (dsph <= size) {
									/*
									** Now check if it is outside an excluded subhalo
									*/
									ParticleAccepted = 1;
									if (gi.ExcludeParticles == 1) {
										for (l = 0; l < hd[i].NHaloExclude; l++) {
											for (d = 0; d < 3; d++) {
												rell[d] = correct_position(hd[i].hde[l].rcentre[d],pp[j].r[d],gi.us.LBox);
												rell[d] = rell[d]-hd[i].hde[l].rcentre[d];
												}
											dell = sqrt(rell[0]*rell[0]+rell[1]*rell[1]+rell[2]*rell[2]);
											if (dell <= hd[i].hde[l].size) {
												ParticleAccepted = 0;
												break;
												}
											}
										}
									/*
									** Check if it is outside the cylindrical disc
									*/
									if (gi.ProfilingMode == 0 && gi.BinningCoordinateType == 1) {
										calculate_unit_vectors_cylindrical(r,hd[i].zAxis,eA,eB,eC);
										dell = fabs(r[0]*eC[0] + r[1]*eC[1] + r[2]*eC[2]);
										if (dell > hd[i].zHeight) ParticleAccepted = 0;
										}
									if (ParticleAccepted) {
										for (d = 0; d < 3; d++) {
											v[d] = pp[j].v[d]-hd[i].vcentre[d];
											}
										if (gi.ProfilingMode == 0) {
											/*
											** Normal binning mode
											*/
											for (d = 0; d < 3; d++) {
												dist[d] = -1;
												}
											if (gi.BinningCoordinateType == 0) { /* spherical */
												dist[0] = dsph;
												}
											else if (gi.BinningCoordinateType == 1) { /* cylindrical */
												calculate_unit_vectors_cylindrical(r,hd[i].zAxis,eA,eB,eC);
												dist[0] = r[0]*eA[0] + r[1]*eA[1] + r[2]*eA[2];
												dist[1] = r[0]*eC[0] + r[1]*eC[1] + r[2]*eC[2];
												assert(!(dist[0] < 0));
												}
											else {
												for (d = 0; d < 3; d++) {
													dist[d] = -1;
													}
												}
											LoopBroken = 0;
											/*
											** Go through radial bins from outside inwards => larger bin volume further out
											*/
											for (n[0] = hd[i].NBin[0]-1; n[0] >= 0 && !LoopBroken; n[0]--) {
												for (n[1] = 0; n[1] < hd[i].NBin[1] && !LoopBroken; n[1]++) {
													for (n[2] = 0; n[2] < hd[i].NBin[2] && !LoopBroken; n[2]++) {
														pbs = &hd[i].pbs[n[0]][n[1]][n[2]];
														InThisBin = 1;
														for (d = 0; d < gi.NDimProfile; d++) {
															if (!(pbs->ri[d] <= dist[d] && pbs->ro[d] > dist[d])) InThisBin = 0;
															}
														if (InThisBin) {
															/*
															** Calculate velocity
															*/
															if (gi.VelocityProjectionType == 1) {
																calculate_unit_vectors_spherical(r,eA,eB,eC);
																vproj[0] = v[0]*eA[0] + v[1]*eA[1] + v[2]*eA[2];
																vproj[1] = v[0]*eB[0] + v[1]*eB[1] + v[2]*eB[2];
																vproj[2] = v[0]*eC[0] + v[1]*eC[1] + v[2]*eC[2];
																}
															else if (gi.VelocityProjectionType == 2) {
																calculate_unit_vectors_cylindrical(r,hd[i].zAxis,eA,eB,eC);
																vproj[0] = v[0]*eA[0] + v[1]*eA[1] + v[2]*eA[2];
																vproj[1] = v[0]*eB[0] + v[1]*eB[1] + v[2]*eB[2];
																vproj[2] = v[0]*eC[0] + v[1]*eC[1] + v[2]*eC[2];
																}
															else {
																vproj[0] = v[0];
																vproj[1] = v[1];
																vproj[2] = v[2];
																}
															/*
															** Current matter type with sub species
															*/
															for (l = 0; l < gi.NSubSpecies[MatterType]; l++) {
																bin = NULL;
																if (MatterType == GAS) {
																	if (l == gi.pi[MatterType][MASS_TOT]) bin = &pbs->bin[GAS];
																	else if (l == gi.pi[MatterType][MASS_METAL_SNII]) bin = &pbs->bin[GAS_METAL_SNII];
																	else if (l == gi.pi[MatterType][MASS_METAL_SNIa]) bin = &pbs->bin[GAS_METAL_SNIa];
																	else if (l == gi.pi[MatterType][MASS_HI]) bin = &pbs->bin[GAS_HI];
																	else if (l == gi.pi[MatterType][MASS_HII]) bin = &pbs->bin[GAS_HII];
																	else if (l == gi.pi[MatterType][MASS_HeI]) bin = &pbs->bin[GAS_HeI];
																	else if (l == gi.pi[MatterType][MASS_HeII]) bin = &pbs->bin[GAS_HeII];
																	else if (l == gi.pi[MatterType][MASS_HeIII]) bin = &pbs->bin[GAS_HeIII];
																	else if (l == gi.pi[MatterType][MASS_H2]) bin = &pbs->bin[GAS_H2];
																	}
																else if (MatterType == DARK) {
																	if (l == gi.pi[MatterType][MASS_TOT]) bin = &pbs->bin[DARK];
																	}
																else if (MatterType == STAR) {
																	if (l == gi.pi[MatterType][MASS_TOT]) bin = &pbs->bin[STAR];
																	else if (l == gi.pi[MatterType][MASS_METAL_SNII]) bin = &pbs->bin[STAR_METAL_SNII];
																	else if (l == gi.pi[MatterType][MASS_METAL_SNIa]) bin = &pbs->bin[STAR_METAL_SNIa];
																	}
																assert(bin != NULL);
																M = pp[j].P[l];
																bin->N += 1;
																bin->M += M;
																for (d = 0; d < 3; d++) {
																	bin->v[d] += M*vproj[d];
																	bin->vdt[d] += M*vproj[d]*vproj[d];
																	}
																bin->vdt[3] += M*vproj[0]*vproj[1];
																bin->vdt[4] += M*vproj[0]*vproj[2];
																bin->vdt[5] += M*vproj[1]*vproj[2];
																bin->L[0] += M*(r[1]*v[2]-r[2]*v[1]);
																bin->L[1] += M*(r[2]*v[0]-r[0]*v[2]);
																bin->L[2] += M*(r[0]*v[1]-r[1]*v[0]);
																}
															/*
															** Additional properties
															*/
															bin = &pbs->bin[MatterType];
															assert(bin != NULL);
															M = pp[j].P[gi.pi[MatterType][MASS_TOT]];
															for (l = 0; l < gi.NProperties[MatterType]; l++) {
																bin->P[l] += M*pp[j].P[l+gi.NSubSpecies[MatterType]];
																}
															LoopBroken = 1;
															break;
															} /* if InThisBin */
														} /* for n[2] */
													} /* for n[1] */
												} /* for n[0] */
											} /* if ProfilingMode */
										else if (gi.ProfilingMode == 1) {
											/*
											** For the shape determination particles can be in more than one bin! => No break!
											** Only radial bins are used.
											*/
											for (n[0] = 0; n[0] < hd[i].NBin[0]; n[0]++) {
												n[1] = 0;
												n[2] = 0;
												pbs = &hd[i].pbs[n[0]][n[1]][n[2]];
												/*
												** Current matter type with sub species
												*/
												for (l = 0; l < gi.NSubSpecies[MatterType]; l++) {
													shape = NULL;
													if (MatterType == GAS) {
														if (l == gi.pi[MatterType][MASS_TOT]) shape = &pbs->shape[GAS];
														else if (l == gi.pi[MatterType][MASS_METAL_SNII]) shape = &pbs->shape[GAS_METAL_SNII];
														else if (l == gi.pi[MatterType][MASS_METAL_SNIa]) shape = &pbs->shape[GAS_METAL_SNIa];
														else if (l == gi.pi[MatterType][MASS_HI]) shape = &pbs->shape[GAS_HI];
														else if (l == gi.pi[MatterType][MASS_HII]) shape = &pbs->shape[GAS_HII];
														else if (l == gi.pi[MatterType][MASS_HeI]) shape = &pbs->shape[GAS_HeI];
														else if (l == gi.pi[MatterType][MASS_HeII]) shape = &pbs->shape[GAS_HeII];
														else if (l == gi.pi[MatterType][MASS_HeIII]) shape = &pbs->shape[GAS_HeIII];
														else if (l == gi.pi[MatterType][MASS_H2]) shape = &pbs->shape[GAS_H2];
														}
													else if (MatterType == DARK) {
														if (l == gi.pi[MatterType][MASS_TOT]) shape = &pbs->shape[DARK];
														}
													else if (MatterType == STAR) {
														if (l == gi.pi[MatterType][MASS_TOT]) shape = &pbs->shape[STAR];
														else if (l == gi.pi[MatterType][MASS_METAL_SNII]) shape = &pbs->shape[STAR_METAL_SNII];
														else if (l == gi.pi[MatterType][MASS_METAL_SNIa]) shape = &pbs->shape[STAR_METAL_SNIa];
														}
													assert(shape != NULL);
													calculate_coordinates_principal_axes(shape,r,rell,&dell);
													InThisBin = 0;
													if (gi.ShapeDeterminationVolume == 0) {
														if (pbs->ri[0] <= dell && pbs->ro[0] > dell) InThisBin = 1;
														}
													else if (gi.ShapeDeterminationVolume == 1) {
														if (pbs->ro[0] > dell) InThisBin = 1;
														}
													if (InThisBin) add_particle_to_shape_tensor(gi,shape,pp[j].P[l],r,dsph,dell);
													}
												/*
												** Total matter
												*/
												if (MatterType == GAS || MatterType == DARK || MatterType == STAR) {
													calculate_coordinates_principal_axes(&pbs->shape[TOT],r,rell,&dell);
													InThisBin = 0;
													if (gi.ShapeDeterminationVolume == 0) {
														if (pbs->ri[0] <= dell && pbs->ro[0] > dell) InThisBin = 1;
														}
													else if (gi.ShapeDeterminationVolume == 1) {
														if (pbs->ro[0] > dell) InThisBin = 1;
														}
													if (InThisBin) add_particle_to_shape_tensor(gi,&pbs->shape[TOT],pp[j].P[gi.pi[MatterType][MASS_TOT]],r,dsph,dell);
													}
												/*
												** Baryonic matter
												*/
												if (MatterType == GAS || MatterType == STAR) {
													calculate_coordinates_principal_axes(&pbs->shape[BARYON],r,rell,&dell);
													InThisBin = 0;
													if (gi.ShapeDeterminationVolume == 0) {
														if (pbs->ri[0] <= dell && pbs->ro[0] > dell) InThisBin = 1;
														}
													else if (gi.ShapeDeterminationVolume == 1) {
														if (pbs->ro[0] > dell) InThisBin = 1;
														}
													if (InThisBin) add_particle_to_shape_tensor(gi,&pbs->shape[BARYON],pp[j].P[gi.pi[MatterType][MASS_TOT]],r,dsph,dell);
													if (gi.DoMetalSpecies) {
														calculate_coordinates_principal_axes(&pbs->shape[BARYON_METAL_SNII],r,rell,&dell);
														InThisBin = 0;
														if (gi.ShapeDeterminationVolume == 0) {
															if (pbs->ri[0] <= dell && pbs->ro[0] > dell) InThisBin = 1;
															}
														else if (gi.ShapeDeterminationVolume == 1) {
															if (pbs->ro[0] > dell) InThisBin = 1;
															}
														if (InThisBin) add_particle_to_shape_tensor(gi,&pbs->shape[BARYON_METAL_SNII],pp[j].P[gi.pi[MatterType][MASS_METAL_SNII]],r,dsph,dell);
														calculate_coordinates_principal_axes(&pbs->shape[BARYON_METAL_SNIa],r,rell,&dell);
														InThisBin = 0;
														if (gi.ShapeDeterminationVolume == 0) {
															if (pbs->ri[0] <= dell && pbs->ro[0] > dell) InThisBin = 1;
															}
														else if (gi.ShapeDeterminationVolume == 1) {
															if (pbs->ro[0] > dell) InThisBin = 1;
															}
														if (InThisBin) add_particle_to_shape_tensor(gi,&pbs->shape[BARYON_METAL_SNIa],pp[j].P[gi.pi[MatterType][MASS_METAL_SNIa]],r,dsph,dell);
														}
													}
												} /* for n[0] */
											} /* else if ProfilingMode */

										/* else if (gi.ProfilingMode == 3 && gi.ILoopRead == 0) { */
										/*	   for (l = 0; l < hd[i].NBin+1; l++) { */
										/*		if (hd[i].pbs[l].ri <= d && hd[i].pbs[l].ro > d) { */
										/*			/\* */
										/*			** Total mass */
										/*			*\/ */
										/*			hd[i].pbs[l].totshape->N++; */
										/*			hd[i].pbs[l].totshape->propertymean += pgp[i].propertytot; */
										/*			/\* */
										/*			** Gas */
										/*			*\/ */
										/*			hd[i].pbs[l].gasshape->N++; */
										/*			hd[i].pbs[l].gasshape->propertymean += pgp[i].property; */
										/*			} */
										/*	} */
										/*	   } /\* else if ProfilingMode *\/ */
										/* else if (gi.ProfilingMode == 3 && gi.ILoopRead > 0) { */
										/*	   for (l = 0; l < hd[i].NBin+1; l++) { */
										/*		/\* */
										/*		** Total mass */
										/*		*\/ */
										/*		calculate_coordinates_principal_axes(hd[i].pbs[l].totshape,r,rell,&dell); */
										/*		if (hd[i].pbs[l].totshape->propertymin <= pgp[i].propertytot && */
										/*			pgp[i].propertytot <= hd[i].pbs[l].totshape->propertymax && */
										/*			gi.fincludeshaperadius*hd[i].pbs[l].ro > d) */
										/*			add_particle_to_shape_tensor(gi,hd[i].pbs[l].totshape,pgp[i].M,r,d,dell); */
										/*		/\* */
										/*		** Gas */
										/*		*\/ */
										/*		calculate_coordinates_principal_axes(hd[i].pbs[l].gasshape,r,rell,&dell); */
										/*		if (hd[i].pbs[l].gasshape->propertymin <= pgp[i].property && */
										/*			pgp[i].property <= hd[i].pbs[l].gasshape->propertymax && */
										/*			gi.fincludeshaperadius*hd[i].pbs[l].ro > d) */
										/*			add_particle_to_shape_tensor(gi,hd[i].pbs[l].gasshape,pgp[i].M,r,d,dell); */
										/*		} */
										/*	   } /\* else if ProfilingMode *\/ */

										} /* if ParticleAccepted */
									} /* if dsph <= size */
								j = NextIndex[j];
								} /* while j >= 0 */
							} /* if intersect */
						} /* if process data */
					} /* for gi.NHalo */
				} /* for index[2] */
			} /* for index[1] */
		} /* for index[0] */
	for (i = 0; i < gi.NCellData; i ++) {
		for (j = 0; j < gi.NCellData; j++) {
			free(HeadIndex[i][j]);
			}
		free(HeadIndex[i]);
		}
	free(HeadIndex);
	free(NextIndex);
	}

void put_particles_in_storage(GI *gi, HALO_DATA *hd, HALO_DATA_EXCLUDE *hdeg, const int MatterType, PROFILE_PARTICLE *pp, PROFILE_PARTICLE **pp_storage_in) {

	int d, i, j, k, l;
	int index[3];
	int NParticle = 0;
	int ParticleAccepted;
	int ***HeadIndex, *NextIndex, *AlreadyStored;
	double r[3], rexclude[3], dsph, dexclude, size, shift[3];
	PROFILE_PARTICLE *pp_storage;

	NParticle = gi->NParticleInBlock[MatterType];
	pp_storage = *pp_storage_in;
	/*
	** Initialise linked list stuff
	*/
	HeadIndex = malloc(gi->NCellData*sizeof(int **));
	assert(HeadIndex != NULL);
	for (i = 0; i < gi->NCellData; i ++) {
		HeadIndex[i] = malloc(gi->NCellData*sizeof(int *));
		assert(HeadIndex[i] != NULL);
		for (j = 0; j < gi->NCellData; j++) {
			HeadIndex[i][j] = malloc(gi->NCellData*sizeof(int));
			assert(HeadIndex[i][j] != NULL);
			}
		}
	NextIndex = malloc(NParticle*sizeof(int));
	assert(NextIndex != NULL);
	for (i = 0; i < gi->NCellData; i++) {
		for (j = 0; j < gi->NCellData; j++) {
			for (k = 0; k < gi->NCellData; k++) {
				HeadIndex[i][j][k] = -1;
				}
			}
		}
	for (i = 0; i < NParticle; i++) NextIndex[i] = -1;
	for (i = 0; i < 3; i++) shift[i] = 0-gi->bc[i];
	/*
	** Array for quick and dirty way to keep track which particle is already stored
	*/
	AlreadyStored = malloc(NParticle*sizeof(int));
	assert(AlreadyStored != NULL);
	for (i = 0; i < NParticle; i++) AlreadyStored[i] = 0;
	/*
	** Generate linked list
	*/
	for (i = 0; i < NParticle; i++) {
		for (j = 0; j < 3; j++) {
			index[j] = (int)(gi->NCellData*(pp[i].r[j]+shift[j])/gi->us.LBox);
			if (index[j] == gi->NCellData) index[j] = gi->NCellData-1; /* Case where particles are exactly on the boundary */
			assert(index[j] >= 0 && index[j] < gi->NCellData);
			}
		NextIndex[i] = HeadIndex[index[0]][index[1]][index[2]];
		HeadIndex[index[0]][index[1]][index[2]] = i;
		}
	/*
	** Go through linked list
	*/
	for (index[0] = 0; index[0] < gi->NCellData; index[0]++) {
		for (index[1] = 0; index[1] < gi->NCellData; index[1]++) {
			for (index[2] = 0; index[2] < gi->NCellData; index[2]++) {
				for (i = 0; i < gi->NHalo; i++) {
					/*
					** Process data
					*/
					size = hd[i].rmax[0];
					if (gi->ProfilingMode == 0 && gi->BinningCoordinateType == 1) size = sqrt(pow(hd[i].rmax[0],2)+pow(hd[i].zHeight,2));
					if (intersect(gi->us.LBox,gi->NCellData,hd[i],index,shift,size)) {
						j = HeadIndex[index[0]][index[1]][index[2]];
						while (j >= 0) {
							for (d = 0; d < 3; d++) {
								r[d] = correct_position(hd[i].rcentre[d],pp[j].r[d],gi->us.LBox);
								r[d] = r[d]-hd[i].rcentre[d];
								}
							dsph = sqrt(r[0]*r[0]+r[1]*r[1]+r[2]*r[2]);
							if (dsph <= size && AlreadyStored[j] == 0) {
								/*
								** Now check if it is outside a globally excluded subhalo
								*/
								ParticleAccepted = 1;
								if (gi->ExcludeParticles) {
									for (l = 0; l < gi->NHaloExcludeGlobal; l++) {
										for (d = 0; d < 3; d++) {
											rexclude[d] = correct_position(hdeg[l].rcentre[d],pp[j].r[d],gi->us.LBox);
											rexclude[d] = rexclude[d]-hdeg[l].rcentre[d];
											}
										dexclude = sqrt(rexclude[0]*rexclude[0]+rexclude[1]*rexclude[1]+rexclude[2]*rexclude[2]);
										if (dexclude <= hdeg[l].size) {
											ParticleAccepted = 0;
											break;
											}
										}
									}
								if (ParticleAccepted) {
									/*
									** Add particle to storage
									*/
									gi->NParticleInStorage[MatterType]++;
									if (gi->SizeStorage[MatterType] < gi->NParticleInStorage[MatterType]) {
										gi->SizeStorage[MatterType] += gi->SizeStorageIncrement;
										pp_storage = realloc(pp_storage,gi->SizeStorage[MatterType]*sizeof(PROFILE_PARTICLE));
										assert(pp_storage != NULL);
										for (l = gi->SizeStorage[MatterType]-gi->SizeStorageIncrement; l < gi->SizeStorage[MatterType]; l++) {
											pp_storage[l].P = malloc((gi->NSubSpecies[MatterType]+gi->NProperties[MatterType])*sizeof(double));
											assert(pp_storage[l].P != NULL);
											}
										}
									copy_pp(gi,MatterType,&pp[j],&pp_storage[gi->NParticleInStorage[MatterType]-1]);
									AlreadyStored[j] = 1;
									}
								}
							j = NextIndex[j];
							}
						}
					}
				}
			}
		}
	for (i = 0; i < gi->NCellData; i ++) {
		for (j = 0; j < gi->NCellData; j++) {
			free(HeadIndex[i][j]);
			}
		free(HeadIndex[i]);
		}
	free(HeadIndex);
	free(NextIndex);
	free(AlreadyStored);
	*pp_storage_in = pp_storage;
	}

int intersect(double LBox, int NCell, HALO_DATA hd, int index[3], double shift[3], double size) {

	int d;
	double celllength, distance, dcheck;
	double rhalo[3], rcell[3], dsph[3];

	celllength = LBox/NCell;
	for (d = 0; d < 3; d++) {
		rhalo[d] = hd.rcentre[d];
		rcell[d] = index[d]*celllength - shift[d]; /* lower edge */
		dsph[d] = rhalo[d] - rcell[d];
		/*
		** Check if the upper edge is closer
		*/
		if (dsph[d] > 0) {
			dsph[d] -= celllength;
			if (dsph[d] < 0) {
				dsph[d] = 0; /* contained */
				}
			}
		/*
		** Check if a periodic copy of the cell is closer
		*/
		dcheck = LBox - celllength - fabs(dsph[d]);
		if (dcheck < fabs(dsph[d])) {
			dsph[d] = dcheck;
			}
		}
	distance = sqrt(dsph[0]*dsph[0]+dsph[1]*dsph[1]+dsph[2]*dsph[2]);
	if (distance <= size) return 1;
	else return 0;
	}

void copy_pp(GI *gi, const int MatterType, const PROFILE_PARTICLE *from_pp, PROFILE_PARTICLE *to_pp) {

	int d;

	for (d = 0; d < 3; d++) {
		to_pp->r[d] = from_pp->r[d];
		to_pp->v[d] = from_pp->v[d];
		}
	for (d = 0; d < gi->NSubSpecies[MatterType]+gi->NProperties[MatterType]; d++) {
		to_pp->P[d] = from_pp->P[d];
		}
	}

void calculate_coordinates_principal_axes(PROFILE_SHAPE_PROPERTIES *shape, double r[3], double rell[3], double *dell) {

	rell[0] = 0;
	rell[0] += r[0]*shape->a[0];
	rell[0] += r[1]*shape->a[1];
	rell[0] += r[2]*shape->a[2];
	rell[1] = 0;
	rell[1] += r[0]*shape->b[0];
	rell[1] += r[1]*shape->b[1];
	rell[1] += r[2]*shape->b[2];
	rell[2] = 0;
	rell[2] += r[0]*shape->c[0];
	rell[2] += r[1]*shape->c[1];
	rell[2] += r[2]*shape->c[2];
	*dell = 0;
	*dell += rell[0]*rell[0];
	*dell += rell[1]*rell[1]/pow(shape->b_a,2);
	*dell += rell[2]*rell[2]/pow(shape->c_a,2);
	*dell = sqrt(*dell);
	}

void calculate_recentred_halo_coordinates(GI gi, HALO_DATA *hd) {

	int d, i;

#pragma omp parallel for default(none) private(d,i) shared(gi,hd)
	for (i = 0; i < gi.NHalo; i++) {
		if (hd[i].Mrtrunc > 0) {
			for (d = 0; d < 3; d++) {
				hd[i].rcentre[d] = hd[i].rcentrenew[d]/hd[i].Mrtrunc;
				hd[i].vcentre[d] = hd[i].vcentrenew[d]/hd[i].Mrtrunc;
				hd[i].rcentrenew[d] = 0;
				hd[i].vcentrenew[d] = 0;
				}
			}
		hd[i].Mrtrunc = 0;
		}
	}

void calculate_total_matter_distribution(GI gi, HALO_DATA *hd) {

	int d, n[3], i, j;
	PROFILE_BIN_STRUCTURE *pbs;

#pragma omp parallel for default(none) private(d,n,i,j,pbs) shared(gi,hd)
	for (i = 0; i < gi.NHalo; i++) {
		for (n[0] = 0; n[0] < hd[i].NBin[0]; n[0]++) {
			for (n[1] = 0; n[1] < hd[i].NBin[1]; n[1]++) {
				for (n[2] = 0; n[2] < hd[i].NBin[2]; n[2]++) {
					pbs = &hd[i].pbs[n[0]][n[1]][n[2]];
					for (j = 0; j < gi.NSpeciesRead; j++) {
						if (gi.SpeciesContained[j]) {
							pbs->bin[TOT].N += pbs->bin[j].N;
							pbs->bin[TOT].M += pbs->bin[j].M;
							for (d = 0; d < 3; d++) {
								pbs->bin[TOT].v[d] += pbs->bin[j].v[d];
								pbs->bin[TOT].L[d] += pbs->bin[j].L[d];
								}
							for (d = 0; d < 6; d++) {
								pbs->bin[TOT].vdt[d] += pbs->bin[j].vdt[d];
								}
							} /* if SpeciesContained */
						} /* for NSpeciesRead */
					} /* for n[2] */
				} /* for n[1] */
			} /* for n[0] */
		} /* for NHalo */
	}

void calculate_baryonic_matter_distribution(GI gi, HALO_DATA *hd) {

	int d, n[3], i, j;
	PROFILE_BIN_STRUCTURE *pbs;

#pragma omp parallel for default(none) private(d,n,i,j,pbs) shared(gi,hd)
	for (i = 0; i < gi.NHalo; i++) {
		for (n[0] = 0; n[0] < hd[i].NBin[0]; n[0]++) {
			for (n[1] = 0; n[1] < hd[i].NBin[1]; n[1]++) {
				for (n[2] = 0; n[2] < hd[i].NBin[2]; n[2]++) {
					pbs = &hd[i].pbs[n[0]][n[1]][n[2]];
					for (j = 0; j < gi.NSpeciesRead; j++) {
						if (j == DARK) continue;
						if (gi.SpeciesContained[j]) {
							pbs->bin[BARYON].N += pbs->bin[j].N;
							pbs->bin[BARYON].M += pbs->bin[j].M;
							for (d = 0; d < 3; d++) {
								pbs->bin[BARYON].v[d] += pbs->bin[j].v[d];
								pbs->bin[BARYON].L[d] += pbs->bin[j].L[d];
								}
							for (d = 0; d < 6; d++) {
								pbs->bin[BARYON].vdt[d] += pbs->bin[j].vdt[d];
								}
							} /* if SpeciesContained */
						} /* for NSpeciesRead */
					if (gi.DoMetalSpecies) {
						for (j = GAS_METAL_SNII; j <= STAR_METAL_SNII; j++) {
							if (gi.SpeciesContained[j]) {
								pbs->bin[BARYON_METAL_SNII].N += pbs->bin[j].N;
								pbs->bin[BARYON_METAL_SNII].M += pbs->bin[j].M;
								for (d = 0; d < 3; d++) {
									pbs->bin[BARYON_METAL_SNII].v[d] += pbs->bin[j].v[d];
									pbs->bin[BARYON_METAL_SNII].L[d] += pbs->bin[j].L[d];
									}
								for (d = 0; d < 6; d++) {
									pbs->bin[BARYON_METAL_SNII].vdt[d] += pbs->bin[j].vdt[d];
									}
								} /* if SpeciesContained */
							} /* for METAL_SNII */
						for (j = GAS_METAL_SNIa; j <= STAR_METAL_SNIa; j++) {
							if (gi.SpeciesContained[j]) {
								pbs->bin[BARYON_METAL_SNIa].N += pbs->bin[j].N;
								pbs->bin[BARYON_METAL_SNIa].M += pbs->bin[j].M;
								for (d = 0; d < 3; d++) {
									pbs->bin[BARYON_METAL_SNIa].v[d] += pbs->bin[j].v[d];
									pbs->bin[BARYON_METAL_SNIa].L[d] += pbs->bin[j].L[d];
									}
								for (d = 0; d < 6; d++) {
									pbs->bin[BARYON_METAL_SNIa].vdt[d] += pbs->bin[j].vdt[d];
									}
								} /* if SpeciesContained */
							} /* for METAL_SNIa */
						} /* if DoMetalSpecies */
					} /* for n[2] */
				} /* for n[1] */
			} /* for n[0] */
		} /* for NHalo */
	}

int diagonalise_matrix(double min[3][3], double *evala, double eveca[3], double *evalb, double evecb[3], double *evalc, double evecc[3]) {

	int i, j, N;
	int status1, status2;
	double x, y, z;
	double data[9];
	gsl_matrix_view m;
	gsl_vector *eval;
	gsl_matrix *evec;
	gsl_eigen_symmv_workspace *w;

	N = 0;
	for (i = 0; i < 3; i++) {
		for (j = 0; j < 3; j++) {
			data[N] = min[i][j];
			N++;
			}
		}

	m = gsl_matrix_view_array(data,3,3);
	eval = gsl_vector_alloc(3);
	evec = gsl_matrix_alloc(3,3);
	w = gsl_eigen_symmv_alloc(3);

	status1 = gsl_eigen_symmv(&m.matrix,eval,evec,w);
	status2 = gsl_eigen_symmv_sort(eval,evec,GSL_EIGEN_SORT_ABS_DESC);

	if (status1) fprintf(stderr,"GSL error: %s\n",gsl_strerror(status1));
	if (status2) fprintf(stderr,"GSL error: %s\n",gsl_strerror(status2));

	*evala = gsl_vector_get(eval,0);
	eveca[0] = gsl_matrix_get(evec,0,0);
	eveca[1] = gsl_matrix_get(evec,1,0);
	eveca[2] = gsl_matrix_get(evec,2,0);

	*evalb = gsl_vector_get(eval,1);
	evecb[0] = gsl_matrix_get(evec,0,1);
	evecb[1] = gsl_matrix_get(evec,1,1);
	evecb[2] = gsl_matrix_get(evec,2,1);

	*evalc = gsl_vector_get(eval,2);
	evecc[0] = gsl_matrix_get(evec,0,2);
	evecc[1] = gsl_matrix_get(evec,1,2);
	evecc[2] = gsl_matrix_get(evec,2,2);

	gsl_vector_free(eval);
	gsl_matrix_free(evec);
	gsl_eigen_symmv_free(w);

	/*
	** Check for right-handedness and orientation
	*/

	if (eveca[0] < 0) {
		eveca[0] *= -1;
		eveca[1] *= -1;
		eveca[2] *= -1;
		}

	if (evecb[1] < 0) {
		evecb[0] *= -1;
		evecb[1] *= -1;
		evecb[2] *= -1;
		}

	x = eveca[1]*evecb[2] - eveca[2]*evecb[1];
	y = eveca[2]*evecb[0] - eveca[0]*evecb[2];
	z = eveca[0]*evecb[1] - eveca[1]*evecb[0];

	if (x*evecc[0] + y*evecc[1] + z*evecc[2] < 0) {
		evecc[0] *= -1;
		evecc[1] *= -1;
		evecc[2] *= -1;
		}

	return status1+status2;
	}

double diagonalise_shape_tensors(GI gi, HALO_DATA *hd, int ILoop) {

	int d, n[3], i, j;
	int status;
	int Ntot, Nconverged;
	double m[3][3];
	double evala, evalb, evalc;
	double eveca[3], evecb[3], evecc[3];
	const double ex[3] = {1,0,0};
	const double ey[3] = {0,1,0};
	const double ez[3] = {0,0,1};
	double sp, ec[3];
	double re_b_a, re_c_a;
	PROFILE_SHAPE_PROPERTIES *shape;

	Ntot = 0;
	Nconverged = 0;

	for (i = 0; i < gi.NHalo; i++) {
		/*
		** Go from outside inwards for the alignment
		*/
		for (n[0] = hd[i].NBin[0]-1; n[0] >= 0; n[0]--) {
			n[1] = 0;
			n[2] = 0;
			for (j = 0; j < gi.NSpeciesProfile; j++) {
				if (gi.SpeciesContained[j]) {
					shape = &hd[i].pbs[n[0]][n[1]][n[2]].shape[j];
					if (shape->NLoopConverged == 0) {
						Ntot++;
						shape->b_a_old = shape->b_a;
						shape->c_a_old = shape->c_a;
						/*
						** Calculate shape
						*/
						if (shape->N > 2) {
							/*
							** Only calculate a shape if there are at least 3 particles
							*/
							assert(shape->M > 0);
							m[0][0] = shape->st[0]/shape->M;
							m[1][1] = shape->st[1]/shape->M;
							m[2][2] = shape->st[2]/shape->M;
							m[0][1] = shape->st[3]/shape->M;
							m[0][2] = shape->st[4]/shape->M;
							m[1][2] = shape->st[5]/shape->M;
							m[1][0] = m[0][1];
							m[2][0] = m[0][2];
							m[2][1] = m[1][2];
							status = diagonalise_matrix(m,&evala,eveca,&evalb,evecb,&evalc,evecc);
							if (status) fprintf(stderr,"This was halo ID %d Bin %d\n",hd[i].ID,n[0]);
							shape->b_a = sqrt(evalb/evala);
							shape->c_a = sqrt(evalc/evala);
							for (d = 0; d < 3; d++) {
								shape->a[d] = eveca[d];
								shape->b[d] = evecb[d];
								shape->c[d] = evecc[d];
								}
							}
						else {
							if (n[0] == hd[i].NBin[0]-1) {
								/*
								** Set values for sphere
								*/
								shape->b_a = 1;
								shape->c_a = 1;
								for (d = 0; d < 3; d++) {
									shape->a[d] = ex[d];
									shape->b[d] = ey[d];
									shape->c[d] = ez[d];
									}
								}
							else {
								/*
								** Copy values from outer bin
								*/
								shape->b_a = hd[i].pbs[n[0]+1][n[1]][n[2]].shape[j].b_a;
								shape->c_a = hd[i].pbs[n[0]+1][n[1]][n[2]].shape[j].c_a;
								for (d = 0; d < 3; d++) {
									shape->a[d] = hd[i].pbs[n[0]+1][n[1]][n[2]].shape[j].a[d];
									shape->b[d] = hd[i].pbs[n[0]+1][n[1]][n[2]].shape[j].b[d];
									shape->c[d] = hd[i].pbs[n[0]+1][n[1]][n[2]].shape[j].c[d];
									}
								}
							}
						/*
						** Align orientation
						*/
						if (n[0] < hd[i].NBin[0]-1) {
							sp = 0;
							for (d = 0; d < 3; d++) sp += shape->a[d]*hd[i].pbs[n[0]+1][n[1]][n[2]].shape[j].a[d];
							if (sp < 0) {
								for (d = 0; d < 3; d++) shape->a[d] *= -1;
								}
							sp = 0;
							for (d = 0; d < 3; d++) sp += shape->b[d]*hd[i].pbs[n[0]+1][n[1]][n[2]].shape[j].b[d];
							if (sp < 0) {
								for (d = 0; d < 3; d++) shape->b[d] *= -1;
								}
							ec[0] = shape->a[1]*shape->b[2] - shape->a[2]*shape->b[1];
							ec[1] = shape->a[2]*shape->b[0] - shape->a[0]*shape->b[2];
							ec[2] = shape->a[0]*shape->b[1] - shape->a[1]*shape->b[0];
							sp = 0;
							for (d = 0; d < 3; d++) sp += ec[d]*shape->c[d];
							if (sp < 0) {
								for (d = 0; d < 3; d++) shape->c[d] *= -1;
								}
							}
						/*
						** Check if already converged
						*/
						re_b_a = (shape->b_a-shape->b_a_old)/shape->b_a_old;
						re_c_a = (shape->c_a-shape->c_a_old)/shape->c_a_old;
						if (fabs(re_b_a) <= gi.ShapeIterationTolerance && fabs(re_c_a) <= gi.ShapeIterationTolerance && shape->N > 2) {
							Nconverged++;
							shape->NLoopConverged = ILoop;
							}
						}
					else {
						Ntot++;
						Nconverged++;
						}
					} /* if SpeciesContained */
				} /* for NSpeciesProfile */
			} /* for NBin[0] */
		} /* for NHalo */

	return (double)Nconverged/(double)Ntot;
	}

void calculate_halo_properties(GI gi, HALO_DATA *hd) {

	int i;

#pragma omp parallel for default(none) private(i) shared(gi,hd)
	for (i = 0; i < gi.NHalo; i++) {
		/*
		** Calculate derived properties
		*/
		calculate_derived_properties(gi,&hd[i]);
		/*
		** Calculate overdensity characteristics
		*/
		calculate_overdensity_characteristics(gi,&hd[i]);
		/*
		** Calculate truncation of halo
		*/
		calculate_truncation_characteristics(gi,&hd[i]);
		/*
		** Remove background
		** Attention: Numbers and velocities not correct any more!
		*/
		remove_background(gi,&hd[i]);
		/*
		** Calculate size & mass
		*/
		calculate_halo_size(gi,&hd[i]);
		/*
		** Calculate velocity characteristics
		*/
		calculate_velocity_characteristics(gi,&hd[i]);
		}
	}

void calculate_derived_properties(GI gi, HALO_DATA *hd) {

	int d, n[3], j;
	PROFILE_BIN_PROPERTIES *bin;

	for (n[0] = 0; n[0] < hd->NBin[0]; n[0]++) {
		for (n[1] = 0; n[1] < hd->NBin[1]; n[1]++) {
			for (n[2] = 0; n[2] < hd->NBin[2]; n[2]++) {
				for (j = 0; j < gi.NSpeciesProfile; j++) {
					if (gi.SpeciesContained[j]) {
						bin = &hd->pbs[n[0]][n[1]][n[2]].bin[j];
						for (d = 0; d < 3; d++) {
							if (bin->M > 0) bin->v[d] /= bin->M;
							}
						for (d = 0; d < 6; d++) {
							if (bin->M > 0) bin->vdt[d] /= bin->M;
							}
						if (bin->N > 1) {
							for (d = 0; d < 3; d++) bin->vdt[d] -= pow(bin->v[d],2);
							bin->vdt[3] -= bin->v[0]*bin->v[1];
							bin->vdt[4] -= bin->v[0]*bin->v[2];
							bin->vdt[5] -= bin->v[1]*bin->v[2];
							}
						else {
							for (d = 0; d < 6; d++) bin->vdt[d] = 0;
							}
						for (d = 0; d <= n[0]; d++) {
							bin->Menc[0] += hd->pbs[d][n[1]][n[2]].bin[j].M;
							}
						bin->Menc[1] = bin->Menc[0];
						if (j < gi.NSpeciesRead) {
							for (d = 0; d < gi.NProperties[j]; d++) {
								if (bin->M > 0) bin->P[d] /= bin->M;
								}
							}
						}
					}
				}
			}
		}
	}

void calculate_overdensity_characteristics(GI gi, HALO_DATA *hd) {

	int n[3], j;
	int Ncheck, Scheck;
	double rscale[3], Mrscale[3], rhoencscale[3];
	double radius[2], rhoenc[2], Menc[2], Venc[2];
	double minter, dinter, rcheck, Mrcheck;
	double rminok;

	for (j = 0; j < 3; j++) {
		rscale[j] = 0;
		Mrscale[j] = 0;
		}
	rhoencscale[0] = gi.rhoencmean;
	rhoencscale[1] = gi.rhoenccrit;
	rhoencscale[2] = gi.rhoencfix;

	rminok = gi.rExclude;
	/*
	** Search from inside out!
	*/
	for (n[0] = 1; n[0] < hd->NBin[0]; n[0]++) {
		n[1] = 0;
		n[2] = 0;
		radius[0] = hd->pbs[n[0]-1][n[1]][n[2]].ro[0];
		radius[1] = hd->pbs[n[0]][n[1]][n[2]].ro[0];
		Venc[0] = 4*M_PI*pow(radius[0],3)/3.0;
		Venc[1] = 4*M_PI*pow(radius[1],3)/3.0;
		Menc[0] = hd->pbs[n[0]-1][n[1]][n[2]].bin[TOT].Menc[0];
		Menc[1] = hd->pbs[n[0]][n[1]][n[2]].bin[TOT].Menc[0];
		rhoenc[0] = Menc[0]/Venc[0];
		rhoenc[1] = Menc[1]/Venc[1];
		for (j = 0; j < 3; j++) {
			if (rhoenc[0] >= rhoencscale[j] && rhoenc[1] < rhoencscale[j] && rscale[j] == 0) {
				minter = (log(radius[1])-log(radius[0]))/(log(rhoenc[1])-log(rhoenc[0]));
				dinter = log(rhoencscale[j])-log(rhoenc[0]);
				rcheck = exp(log(radius[0])+minter*dinter);
				minter = (log(Menc[1])-log(Menc[0]))/(log(radius[1])-log(radius[0]));
				dinter = log(rcheck)-log(radius[0]);
				Mrcheck = exp(log(Menc[0])+minter*dinter);
				if (rcheck >= rminok) {
					rscale[j] = rcheck;
					Mrscale[j] = Mrcheck;
					assert(rscale[j] > 0);
					assert(Mrscale[j] > 0);
					}
				} /* if */
			} /* for j */
		/*
		** Check if all overdensity scales have been found already
		*/
		Ncheck = 0;
		Scheck = 0;
		for (j = 0; j < 3; j++) {
			Ncheck++;
			if (rscale[j] > 0) Scheck++;
			}
		if (Scheck == Ncheck) break;
		} /* for n[0] */

	hd->rmean = rscale[0];
	hd->rcrit = rscale[1];
	hd->rfix = rscale[2];
	hd->Mrmean = Mrscale[0];
	hd->Mrcrit = Mrscale[1];
	hd->Mrfix = Mrscale[2];
	}

/*
** Indicator: local minimum in enclosed density at scales larger than rminok
** i.e. bump is significant enough to cause a minimum or saddle in enclosed density
** => in practise use the location where the value of slopertruncindicator is reached
*/

void calculate_truncation_characteristics(GI gi, HALO_DATA *hd) {

	int n[3], j;
	int StartIndex;
	double radius[2], logslope[2], Menc[2];
	double minter, dinter, rcheck, V;
	double rho[NSPECIESBACKGROUND], rhomin[NSPECIESBACKGROUND];
	double slope;
	double rminok;

	slope = 3 + gi.slopertruncindicator;
	rminok = gi.rExclude;
	StartIndex = -1;
	/*
	** Search from inside out!
	*/
	for (n[0] = 2; n[0] < hd->NBin[0]; n[0]++) {
		n[1] = 0;
		n[2] = 0;
		radius[0] = hd->pbs[n[0]-1][n[1]][n[2]].rm[0];
		radius[1] = hd->pbs[n[0]][n[1]][n[2]].rm[0];
		if (hd->pbs[n[0]-2][n[1]][n[2]].bin[TOT].Menc[0] > 0) {
			logslope[0] = log(hd->pbs[n[0]-1][n[1]][n[2]].bin[TOT].Menc[0])-log(hd->pbs[n[0]-2][n[1]][n[2]].bin[TOT].Menc[0]);
			logslope[1] = log(hd->pbs[n[0]][n[1]][n[2]].bin[TOT].Menc[0])-log(hd->pbs[n[0]-1][n[1]][n[2]].bin[TOT].Menc[0]);
			}
		else {
			logslope[0] = 0;
			logslope[1] = 0;
			}
		logslope[0] /= log(hd->pbs[n[0]-1][n[1]][n[2]].ro[0])-log(hd->pbs[n[0]-2][n[1]][n[2]].ro[0]);
		logslope[1] /= log(hd->pbs[n[0]][n[1]][n[2]].ro[0])-log(hd->pbs[n[0]-1][n[1]][n[2]].ro[0]);
		if (logslope[0] <= slope && logslope[1] > slope && hd->rtruncindicator == 0) {
			minter = (log(radius[1])-log(radius[0]))/(logslope[1]-logslope[0]);
			dinter = slope-logslope[0];
			rcheck = exp(log(radius[0])+minter*dinter);
			if (rcheck >= rminok && hd->pbs[n[0]-1][n[1]][n[2]].bin[TOT].M > 0) {
				StartIndex = n[0];
				hd->rtruncindicator = rcheck;
				assert(hd->rtruncindicator > 0);
				}
			}
		if (hd->rtruncindicator > 0) break;
		}
	/*
	** Now determine rtrunc
	** We define the location of the absolute minimum (within specified range of frhobg)
	** of the local density within rtruncindicator as rtrunc
	*/
	if (StartIndex > 0) {
		for (j = 0; j < NSPECIESBACKGROUND; j++) rhomin[j] = 1e100;
		for (n[0] = StartIndex; n[0] > 0; n[0]--) {
			n[1] = 0;
			n[2] = 0;
			V = 4*M_PI*(pow(hd->pbs[n[0]][n[1]][n[2]].ro[0],3)-pow(hd->pbs[n[0]][n[1]][n[2]].ri[0],3))/3.0;
			for (j = 0; j < 5; j++) rho[j] = (gi.SpeciesContained[j])?hd->pbs[n[0]][n[1]][n[2]].bin[j].M/V:0;
			if (rho[TOT] < gi.frhobg*rhomin[TOT] && rho[TOT] > 0 && hd->pbs[n[0]-1][n[1]][n[2]].bin[TOT].Menc[0] > 0 && hd->pbs[n[0]][n[1]][n[2]].rm[0] >= rminok) {
				for (j = 0; j < NSPECIESBACKGROUND; j++) {
					if (rho[j] < rhomin[j] && rho[j] > 0 && gi.SpeciesContained[j]) rhomin[j] = rho[j];
					}
				hd->rtrunc = hd->pbs[n[0]][n[1]][n[2]].rm[0];
				assert(hd->rtrunc > 0);
				radius[0] = hd->pbs[n[0]-1][n[1]][n[2]].ro[0];
				radius[1] = hd->pbs[n[0]][n[1]][n[2]].ro[0];
				Menc[0] = hd->pbs[n[0]-1][n[1]][n[2]].bin[TOT].Menc[0];
				Menc[1] = hd->pbs[n[0]][n[1]][n[2]].bin[TOT].Menc[0];
				minter = (log(Menc[1])-log(Menc[0]))/(log(radius[1])-log(radius[0]));
				dinter = log(hd->rtrunc)-log(radius[0]);
				hd->Mrtrunc = exp(log(Menc[0])+minter*dinter);
				assert(hd->Mrtrunc > 0);
				for (j = 0; j < NSPECIESBACKGROUND; j++) {
					if (gi.SpeciesContained[j]) {
						if (rho[j] > 0 && rhomin[j] != 1e100) hd->rhobg[j] = 0.5*(rho[j]+rhomin[j]);
						else if (rho[j] == 0 && rhomin[j] != 1e100) hd->rhobg[j] = rhomin[j];
						}
					}
				}
			}
		}
	}

void remove_background(GI gi, HALO_DATA *hd) {

	int n[3], j;
	double Venc;

	if (hd->rtrunc > 0) {
		hd->Mrtrunc -= hd->rhobg[TOT]*4*M_PI*pow(hd->rtrunc,3)/3.0;
		if (hd->Mrtrunc > 0) {
			/*
			** Calculate enclosed mass with background removed
			*/
			for (n[0] = 0; n[0] < hd->NBin[0]; n[0]++) {
				n[1] = 0;
				n[2] = 0;
				Venc = 4*M_PI*pow(hd->pbs[n[0]][n[1]][n[2]].ro[0],3)/3.0;
				for (j = 0; j < NSPECIESBACKGROUND; j++) {
					if(gi.SpeciesContained[j]) hd->pbs[n[0]][n[1]][n[2]].bin[j].Menc[1] -= hd->rhobg[j]*Venc;
					}
				}
			}
		else {
			/*
			** Unphysical truncation scale found
			** => probably noisy profile
			*/
			hd->rtrunc = 0;
			hd->Mrtrunc = 0;
			}
		}
	}

void calculate_halo_size(GI gi, HALO_DATA *hd) {

	if (gi.HaloSize == 0) {
		hd->size = hd->rmean;
		hd->mass = hd->Mrmean;
		}
	else if (gi.HaloSize == 1) {
		hd->size = hd->rcrit;
		hd->mass = hd->Mrcrit;
		}
	else if (gi.HaloSize == 2) {
		hd->size = hd->rfix;
		hd->mass = hd->Mrfix;
		}
	if (hd->rtrunc > 0 && (hd->rtrunc < hd->size || hd->size == 0)) {
		hd->IsTruncated = 1;
		hd->size = hd->rtrunc;
		hd->mass = hd->Mrtrunc;
		}
	}

void calculate_velocity_characteristics(GI gi, HALO_DATA *hd) {

	int n[3], j, k, l;
	int Ncheck, Scheck;
	double rscale[NSPECIESBACKGROUND][2], Mrscale[NSPECIESBACKGROUND][2];
	double radius[2], logslope[2], Menc[2];
	double minter, dinter, rcheck, Mrcheck, Qcheck, Qcomp;
	double slope;

	slope = 1;
	for (j = 0; j < NSPECIESBACKGROUND; j++) {
		for (l = 0; l < 2; l++) {
			rscale[j][l] = 0;
			Mrscale[j][l] = 0;
			}
		}

	n[1] = 0;
	n[2] = 0;
	for (n[0] = 2; n[0] < hd->NBin[0]; n[0]++) {
		for (j = 0; j < NSPECIESBACKGROUND; j++) {
			for (l = 0; l < 2; l++) {
				radius[0] = hd->pbs[n[0]-1][n[1]][n[2]].rm[0];
				radius[1] = hd->pbs[n[0]][n[1]][n[2]].rm[0];
				if (hd->pbs[n[0]-2][n[1]][n[2]].bin[j].Menc[l] > 0) {
					logslope[0] = (log(hd->pbs[n[0]-1][n[1]][n[2]].bin[j].Menc[l])-log(hd->pbs[n[0]-2][n[1]][n[2]].bin[j].Menc[l]));
					logslope[1] = (log(hd->pbs[n[0]][n[1]][n[2]].bin[j].Menc[l])-log(hd->pbs[n[0]-1][n[1]][n[2]].bin[j].Menc[l]));
					}
				else {
					logslope[0] = 0;
					logslope[1] = 0;
					}
				logslope[0] /= log(hd->pbs[n[0]-1][n[1]][n[2]].ro[0])-log(hd->pbs[n[0]-2][n[1]][n[2]].ro[0]);
				logslope[1] /= log(hd->pbs[n[0]][n[1]][n[2]].ro[0])-log(hd->pbs[n[0]-1][n[1]][n[2]].ro[0]);
				if (logslope[0] >= slope && logslope[1] < slope) {
					minter = (log(radius[1])-log(radius[0]))/(logslope[1]-logslope[0]);
					dinter = slope-logslope[0];
					rcheck = exp(log(radius[0])+minter*dinter);
					if (rcheck <= hd->pbs[n[0]-1][n[1]][n[2]].ro[0]) {
						radius[0] = hd->pbs[n[0]-2][n[1]][n[2]].ro[0];
						radius[1] = hd->pbs[n[0]-1][n[1]][n[2]].ro[0];
						Menc[0] = hd->pbs[n[0]-2][n[1]][n[2]].bin[j].Menc[l];
						Menc[1] = hd->pbs[n[0]-1][n[1]][n[2]].bin[j].Menc[l];
						}
					else {
						radius[0] = hd->pbs[n[0]-1][n[1]][n[2]].ro[0];
						radius[1] = hd->pbs[n[0]][n[1]][n[2]].ro[0];
						Menc[0] = hd->pbs[n[0]-1][n[1]][n[2]].bin[j].Menc[l];
						Menc[1] = hd->pbs[n[0]][n[1]][n[2]].bin[j].Menc[l];
						}
					minter = (log(Menc[1])-log(Menc[0]))/(log(radius[1])-log(radius[0]));
					dinter = log(rcheck)-log(radius[0]);
					Mrcheck = exp(log(Menc[0])+minter*dinter);
					/*
					** Check criteria
					*/
					Qcheck = Mrcheck/rcheck;
					Ncheck = 0;
					Scheck = 0;
					for (k = n[0]; k < hd->NBin[0] && hd->pbs[k][n[1]][n[2]].ro[0] <= gi.fcheckrvcmax*rcheck; k++) {
						Ncheck++;
						Qcomp = hd->pbs[k][n[1]][n[2]].bin[j].Menc[l];
						Qcomp /= hd->pbs[k][n[1]][n[2]].ro[0];
						if (Qcheck >= Qcomp) Scheck++;
						}
					if (Scheck == Ncheck) {
						/*
						** The circular velocity curve is generally nicely behaving
						** => for the first local maximum there is no size restriction (sometimes halos have rvcmax around size)
						** => if more than one local maximum => take the highest local maximum within the size of the halo
						** => avoid peaks in the outer parts of the halo
						*/
						if (rscale[j][l] == 0) {
							rscale[j][l] = rcheck;
							Mrscale[j][l] = Mrcheck;
							}
						else if (Mrcheck/rcheck > Mrscale[j][l]/rscale[j][l] && rcheck <= hd->size) {
							rscale[j][l] = rcheck;
							Mrscale[j][l] = Mrcheck;
							}
						assert(rscale[j][l] > 0);
						assert(Mrscale[j][l] > 0);
						}
					} /* if logslope */
				} /* for l */
			} /* for j */
		} /* for n[0] */

	for (j = 0; j < NSPECIESBACKGROUND; j++) {
		for (l = 0; l < 2; l++) {
			hd->rvcmax[j][l] = rscale[j][l];
			hd->Mrvcmax[j][l] = Mrscale[j][l];
			}
		}
	}

void determine_halo_hierarchy(GI gi, HALO_DATA *hd) {

	int i, j, k;
	int index[3];
	int index0, index1, index2;
	int ***HeadIndex, *NextIndex;
	double r[3], shift[3];
	double d, size, sizeother, *sizecomp;

	/*
	** Initialise linked list stuff
	*/
	HeadIndex = malloc(gi.NCellHalo*sizeof(int **));
	assert(HeadIndex != NULL);
	for (i = 0; i < gi.NCellHalo; i ++) {
		HeadIndex[i] = malloc(gi.NCellHalo*sizeof(int *));
		assert(HeadIndex[i] != NULL);
		for (j = 0; j < gi.NCellHalo; j++) {
			HeadIndex[i][j] = malloc(gi.NCellHalo*sizeof(int));
			assert(HeadIndex[i][j] != NULL);
			}
		}
	NextIndex = malloc(gi.NHalo*sizeof(int));
	assert(NextIndex != NULL);
	for (i = 0; i < gi.NCellHalo; i++) {
		for (j = 0; j < gi.NCellHalo; j++) {
			for (k = 0; k < gi.NCellHalo; k++) {
				HeadIndex[i][j][k] = -1;
				}
			}
		}
	for (i = 0; i < gi.NHalo; i++) NextIndex[i] = -1;
	for (i = 0; i < 3; i++) shift[i] = 0-gi.bc[i];
	/*
	** Generate linked list
	*/
	for (i = 0; i < gi.NHalo; i++) {
		for (j = 0; j < 3; j++) {
			index[j] = (int)(gi.NCellHalo*(hd[i].rcentre[j]+shift[j])/gi.us.LBox);
			if (index[j] == gi.NCellHalo) index[j] = gi.NCellHalo-1; /* Case where haloes are exactly on the boundary */
			assert(index[j] >= 0 && index[j] < gi.NCellHalo);
			}
		NextIndex[i] = HeadIndex[index[0]][index[1]][index[2]];
		HeadIndex[index[0]][index[1]][index[2]] = i;
		}
	/*
	** Find top level haloes
	*/
	sizecomp = malloc(gi.NHalo*sizeof(double));
	assert(sizecomp != NULL);
	for (i = 0; i < gi.NHalo; i++) sizecomp[i] = 0;
	for (i = 0; i < gi.NHalo; i++) {
		size = hd[i].size;
		/*
		** Go through linked list
		*/
#pragma omp parallel for default(none) private(index,index0,index1,index2,j,k,r,d) shared(gi,hd,i,size,sizecomp,shift,HeadIndex,NextIndex)
		for (index0 = 0; index0 < gi.NCellHalo; index0++) {
			for (index1 = 0; index1 < gi.NCellHalo; index1++) {
				for (index2 = 0; index2 < gi.NCellHalo; index2++) {
					index[0] = index0;
					index[1] = index1;
					index[2] = index2;
					if (intersect(gi.us.LBox,gi.NCellHalo,hd[i],index,shift,size)) {
						j = HeadIndex[index[0]][index[1]][index[2]];
						while (j >= 0) {
							if (j != i) {
								for (k = 0; k < 3; k++) {
									r[k] = correct_position(hd[i].rcentre[k],hd[j].rcentre[k],gi.us.LBox);
									r[k] = r[k] - hd[i].rcentre[k];
									}
								d = sqrt(r[0]*r[0]+r[1]*r[1]+r[2]*r[2]);
								if (d <= size) {
									/*
									** contained => use largest sized halo
									*/
									if (size > sizecomp[j]) {
										sizecomp[j] = size;
										hd[j].HostHaloID = hd[i].ID;
										}
									}
								}
							j = NextIndex[j];
							}
						}
					}
				}
			}
		}
	/*
	** Find duplicates and mergers
	*/
#pragma omp parallel for default(none) private(i,j,k,r,d,size,sizeother) shared(gi,hd)
	for (i = 0; i < gi.NHalo; i++) {
		for (j = i+1; j < gi.NHalo; j++) {
			if (hd[i].HostHaloID == hd[j].ID && hd[j].HostHaloID == hd[i].ID) {
				/*
				** Found a pair
				*/
				for (k = 0; k < 3; k++) {
					r[k] = correct_position(hd[i].rcentre[k],hd[j].rcentre[k],gi.us.LBox);
					r[k] = r[k] - hd[i].rcentre[k];
					}
				d = sqrt(r[0]*r[0]+r[1]*r[1]+r[2]*r[2]);
				size = hd[i].size;
				sizeother = hd[j].size;
				/*
				** Check if the pair is close enough
				*/
				if (d <= gi.fhaloduplicate*(0.5*(size+sizeother))) {
					/*
					** Found a duplicate
					*/
					if (size >= sizeother) {
						hd[j].ExtraHaloID = hd[i].ID;
						hd[i].HostHaloID = -1;
						for (k = 0; k < gi.NHalo; k++) {
							if (hd[k].HostHaloID == hd[j].ID) hd[k].HostHaloID = hd[i].ID;
							}
						}
					else {
						hd[i].ExtraHaloID = hd[j].ID;
						hd[j].HostHaloID = -1;
						for (k = 0; k < gi.NHalo; k++) {
							if (hd[k].HostHaloID == hd[i].ID) hd[k].HostHaloID = hd[j].ID;
							}
						}
					}
				else {
					/*
					** Probably a merger
					*/
					hd[i].HostHaloID = -1;
					hd[j].HostHaloID = -1;
					hd[i].ExtraHaloID = hd[j].ID;
					hd[j].ExtraHaloID = hd[i].ID;
					}
				}
			}
		}
	free(sizecomp);
	for (i = 0; i < gi.NCellHalo; i ++) {
		for (j = 0; j < gi.NCellHalo; j++) {
			free(HeadIndex[i][j]);
			}
		free(HeadIndex[i]);
		}
	free(HeadIndex);
	free(NextIndex);
	}

void write_output_matter_profile(GI gi, HALO_DATA *hd) {

	int d, n[3], i, j, k, l;
	int NBinMax[3] = {0,0,0};
	char outputfilename[256];
	FILE *outputfile;
	PROFILE_BIN_PROPERTIES *bin;

	/*
	** Characteristics
	*/
	if (gi.BinningCoordinateType == 0 && gi.NDimProfile == 1) sprintf(outputfilename,"%s.profile.sph.d1.characteristics",gi.OutputName);
	else if (gi.BinningCoordinateType == 1 && gi.NDimProfile == 1) sprintf(outputfilename,"%s.profile.cyl.d1.characteristics",gi.OutputName);
	else if (gi.BinningCoordinateType == 1 && gi.NDimProfile == 2) sprintf(outputfilename,"%s.profile.cyl.d2.characteristics",gi.OutputName);
	outputfile = fopen(outputfilename,"w");
	assert(outputfile != NULL);
	fprintf(outputfile,"#ID/1 r_x/2 r_y/3 r_z/4 v_x/5 v_y/6 v_z/7");
	k = 8;
	for (d = 0; d < gi.NDimProfile; d++) {
		fprintf(outputfile," rmin_%d/%d rmax_%d/%d NBin_%d/%d",d+1,k,d+1,k+1,d+1,k+2); k += 3;
		}
	if (gi.BinningCoordinateType == 0) {
		fprintf(outputfile," size/%d mass/%d",k,k+1); k += 2;
		fprintf(outputfile," rvcmax_tot/%d Mrvcmax_tot/%d",k,k+1); k += 2;
		fprintf(outputfile," rvcmax_dark/%d Mrvcmax_dark/%d",k,k+1); k += 2;
		fprintf(outputfile," IsTruncated/%d HostHaloID/%d ExtraHaloID/%d",k,k+1,k+2); k += 3;
		if (gi.MoreCharacteristicsOutput) {
			fprintf(outputfile," rmean/%d Mrmean/%d",k,k+1); k += 2;
			fprintf(outputfile," rcrit/%d Mrcrit/%d",k,k+1); k += 2;
			fprintf(outputfile," rfix/%d Mrfix/%d",k,k+1); k += 2;
			fprintf(outputfile," rtrunc/%d Mrtrunc/%d",k,k+1); k += 2;
			fprintf(outputfile," rvcmax_tot/%d Mrvcmax_tot/%d rvcmax_tottrunc/%d Mrvcmax_tottrunc/%d",k,k+1,k+2,k+3); k += 4;
			fprintf(outputfile," rvcmax_dark/%d Mrvcmax_dark/%d rvcmax_darktrunc/%d Mrvcmax_darktrunc/%d",k,k+1,k+2,k+3); k += 4;
			fprintf(outputfile," rhobg_tot/%d rhobg_gas/%d rhobg_dark/%d rhobg_star/%d rhobg_baryon/%d",k,k+1,k+2,k+3,k+4); k += 5;
			fprintf(outputfile," rtruncindicator/%d",k);
			}
		}
	else if (gi.BinningCoordinateType == 1) {
		fprintf(outputfile," zAxis_x/%d zAxis_y/%d zAxis_z/%d zHeight/%d",k,k+1,k+2,k+3);
		}
	fprintf(outputfile,"\n");
	for (i = 0; i < gi.NHalo; i++) {
		fprintf(outputfile,"%d",hd[i].ID);
		fprintf(outputfile," %.6e %.6e %.6e",hd[i].rcentre[0],hd[i].rcentre[1],hd[i].rcentre[2]);
		fprintf(outputfile," %.6e %.6e %.6e",hd[i].vcentre[0],hd[i].vcentre[1],hd[i].vcentre[2]);
		for (d = 0; d < gi.NDimProfile; d++) fprintf(outputfile," %.6e %.6e %d",hd[i].rmin[d],hd[i].rmax[d],hd[i].NBin[d]);
		if (gi.BinningCoordinateType == 0) {
			fprintf(outputfile," %.6e %.6e",hd[i].size,hd[i].mass);
			l = hd[i].IsTruncated;
			fprintf(outputfile," %.6e %.6e",hd[i].rvcmax[TOT][l],hd[i].Mrvcmax[TOT][l]);
			fprintf(outputfile," %.6e %.6e",hd[i].rvcmax[DARK][l],hd[i].Mrvcmax[DARK][l]);
			fprintf(outputfile," %d %d %d",hd[i].IsTruncated,hd[i].HostHaloID,hd[i].ExtraHaloID);
			if (gi.MoreCharacteristicsOutput) {
				fprintf(outputfile," %.6e %.6e",hd[i].rmean,hd[i].Mrmean);
				fprintf(outputfile," %.6e %.6e",hd[i].rcrit,hd[i].Mrcrit);
				fprintf(outputfile," %.6e %.6e",hd[i].rfix,hd[i].Mrfix);
				fprintf(outputfile," %.6e %.6e",hd[i].rtrunc,hd[i].Mrtrunc);
				fprintf(outputfile," %.6e %.6e %.6e %.6e",hd[i].rvcmax[TOT][0],hd[i].Mrvcmax[TOT][0],hd[i].rvcmax[TOT][1],hd[i].Mrvcmax[TOT][1]);
				fprintf(outputfile," %.6e %.6e %.6e %.6e",hd[i].rvcmax[DARK][0],hd[i].Mrvcmax[DARK][0],hd[i].rvcmax[DARK][1],hd[i].Mrvcmax[DARK][1]);
				fprintf(outputfile," %.6e %.6e %.6e %.6e %.6e",hd[i].rhobg[TOT],hd[i].rhobg[GAS],hd[i].rhobg[DARK],hd[i].rhobg[STAR],hd[i].rhobg[BARYON]);
				fprintf(outputfile," %.6e",hd[i].rtruncindicator);
				}
			}
		else if (gi.BinningCoordinateType == 1) {
			fprintf(outputfile," %.6e %.6e %.6e %.6e",hd[i].zAxis[0],hd[i].zAxis[1],hd[i].zAxis[2],hd[i].zHeight);
			}
		fprintf(outputfile,"\n");
		}
	fclose(outputfile);
	/*
	** Matter profiles
	*/
	for (j = 0; j < gi.NSpeciesProfile; j++) {
		if (gi.SpeciesContained[j]) {
			n[2] = 0;
			for (i = 0; i < gi.NHalo; i++) NBinMax[1] = (hd[i].NBin[1]>NBinMax[1])?hd[i].NBin[1]:NBinMax[1];
			for (n[1] = 0; n[1] < NBinMax[1]; n[1]++) {
				if (gi.BinningCoordinateType == 0 && gi.NDimProfile == 1) {
					assert(n[1] == 0);
					sprintf(outputfilename,"%s.profile.sph.d1.pro.%s",gi.OutputName,gi.MatterTypeName[j]);
					}
				else if (gi.BinningCoordinateType == 1 && gi.NDimProfile == 1) {
					assert(n[1] == 0);
					sprintf(outputfilename,"%s.profile.cyl.d1.pro.%s",gi.OutputName,gi.MatterTypeName[j]);
					}
				else if (gi.BinningCoordinateType == 1 && gi.NDimProfile == 2) {
					if (n[1] < NBinMax[1]/2) {
						d = n[1]+1;
						sprintf(outputfilename,"%s.profile.cyl.d2.p%03d.pro.%s",gi.OutputName,d,gi.MatterTypeName[j]);
						}
					else {
						d = n[1]+1-NBinMax[1]/2;
						sprintf(outputfilename,"%s.profile.cyl.d2.m%03d.pro.%s",gi.OutputName,d,gi.MatterTypeName[j]);
						}
					}
				else {
					sprintf(outputfilename,"garbage");
					}
				outputfile = fopen(outputfilename,"w");
				assert(outputfile != NULL);
				fprintf(outputfile,"#ID/1");
				k = 2;
				for (d = 0; d < gi.NDimProfile; d++) {
					fprintf(outputfile," ri_%d/%d rm_%d/%d ro_%d/%d",d+1,k,d+1,k+1,d+1,k+2); k += 3;
					}
				fprintf(outputfile," M/%d N/%d",k,k+1); k += 2;
				fprintf(outputfile," v_1/%d v_2/%d v_3/%d",k,k+1,k+2); k += 3;
				fprintf(outputfile," vdt_11/%d vdt_22/%d vdt_33/%d vdt_12/%d vdt_13/%d vdt_23/%d",k,k+1,k+2,k+3,k+4,k+5); k += 6;
				fprintf(outputfile," L_x/%d L_y/%d L_z/%d",k,k+1,k+2); k +=3;
				if (j == GAS && gi.DoGasTemperature) fprintf(outputfile," T[K]/%d",k);
				if (j == STAR && gi.DoStellarAge) fprintf(outputfile," Age/%d",k);
				fprintf(outputfile,"\n");
				for (i = 0; i < gi.NHalo; i++) {
					for (n[0] = 0; n[0] < hd[i].NBin[0]; n[0]++) {
						if (hd[i].NBin[1] <= n[1]) {
							/*
							** Less bins in 2. dimension for this halo than maximum of all haloes
							** => just output 0
							** Necessary to keep the file structure intact
							*/
							fprintf(outputfile,"%d",0);
							for (d = 0; d < gi.NDimProfile; d++) {
								fprintf(outputfile," %.6e %.6e %.6e",0.0,0.0,0.0);
								}
							fprintf(outputfile," %.6e %d",0.0,0);
							for (d = 0; d < 3; d++) fprintf(outputfile," %.6e",0.0);
							for (d = 0; d < 6; d++) fprintf(outputfile," %.6e",0.0);
							for (d = 0; d < 3; d++) fprintf(outputfile," %.6e",0.0);
							if (j == GAS && gi.DoGasTemperature) fprintf(outputfile," %.6e",0.0);
							if (j == STAR && gi.DoStellarAge) fprintf(outputfile," %.6e",0.0);
							fprintf(outputfile,"\n");
							}
						else {
							bin = &hd[i].pbs[n[0]][n[1]][n[2]].bin[j];
							fprintf(outputfile,"%d",hd[i].ID);
							for (d = 0; d < gi.NDimProfile; d++) {
								fprintf(outputfile," %.6e %.6e %.6e",hd[i].pbs[n[0]][n[1]][n[2]].ri[d],hd[i].pbs[n[0]][n[1]][n[2]].rm[d],hd[i].pbs[n[0]][n[1]][n[2]].ro[d]);
								}
							fprintf(outputfile," %.6e %ld",bin->M,bin->N);
							for (d = 0; d < 3; d++) fprintf(outputfile," %.6e",bin->v[d]);
							for (d = 0; d < 6; d++) fprintf(outputfile," %.6e",bin->vdt[d]);
							for (d = 0; d < 3; d++) fprintf(outputfile," %.6e",bin->L[d]);
							if (j == GAS && gi.DoGasTemperature) fprintf(outputfile," %.6e",bin->P[gi.pi[GAS][TEMPERATURE]-gi.NSubSpecies[GAS]]);
							if (j == STAR && gi.DoStellarAge) fprintf(outputfile," %.6e",bin->P[gi.pi[STAR][AGE]-gi.NSubSpecies[STAR]]);
							fprintf(outputfile,"\n");
							}
						} /* for n[0] */
					} /* for NHalo */
				fclose(outputfile);
				} /* for n[1] */
			} /* if SpeciesContained */
		} /* for NSpeciesProfile */
	}

void write_output_shape_profile(GI gi, HALO_DATA *hd, int ILoop) {

	int d, n[3], i, j;
	char outputfilename[256];
	FILE *outputfile;

	/*
	** Characteristics
	*/
	sprintf(outputfilename,"%s.shape.%03d.characteristics",gi.OutputName,ILoop);
	outputfile = fopen(outputfilename,"w");
	assert(outputfile != NULL);
	fprintf(outputfile,"#ID/1 r_x/2 r_y/3 r_z/4 v_x/5 v_y/6 v_z/7 rmin/8 rmax/9 NBin/10\n");
	for (i = 0; i < gi.NHalo; i++) {
		fprintf(outputfile,"%d",hd[i].ID);
		fprintf(outputfile," %.6e %.6e %.6e",hd[i].rcentre[0],hd[i].rcentre[1],hd[i].rcentre[2]);
		fprintf(outputfile," %.6e %.6e %.6e",hd[i].vcentre[0],hd[i].vcentre[1],hd[i].vcentre[2]);
		fprintf(outputfile," %.6e %.6e",hd[i].rmin[0],hd[i].rmax[0]);
		fprintf(outputfile," %d",hd[i].NBin[0]);
		fprintf(outputfile,"\n");
		}
	fclose(outputfile);
	/*
	** Matter profiles
	*/
	for (j = 0; j < gi.NSpeciesProfile; j++) {
		if (gi.SpeciesContained[j]) {
			n[2] = 0;
			n[1] = 0;
			sprintf(outputfilename,"%s.shape.%03d.pro.%s",gi.OutputName,ILoop,gi.MatterTypeName[j]);
			outputfile = fopen(outputfilename,"w");
			assert(outputfile != NULL);
			fprintf(outputfile,"#ID/1 ri/2 rm/3 ro/4 M/5 N/6 b:a/7 c:a/8 a_x/9 a_y/10 a_z/11 b_x/12 b_y/13 b_z/14 c_x/15 c_y/16 c_z/17 re_b:a/18 re_c:a/19 NLoopConverged/20\n");
			for (i = 0; i < gi.NHalo; i++) {
				for (n[0] = 0; n[0] < hd[i].NBin[0]; n[0]++) {
					fprintf(outputfile,"%d",hd[i].ID);
					fprintf(outputfile," %.6e %.6e %.6e",hd[i].pbs[n[0]][n[1]][n[2]].ri[0],hd[i].pbs[n[0]][n[1]][n[2]].rm[0],hd[i].pbs[n[0]][n[1]][n[2]].ro[0]);
					fprintf(outputfile," %.6e %ld",hd[i].pbs[n[0]][n[1]][n[2]].shape[j].M,hd[i].pbs[n[0]][n[1]][n[2]].shape[j].N);
					fprintf(outputfile," %.6e %.6e",hd[i].pbs[n[0]][n[1]][n[2]].shape[j].b_a,hd[i].pbs[n[0]][n[1]][n[2]].shape[j].c_a);
					for (d = 0; d < 3; d++) fprintf(outputfile," %.6e",hd[i].pbs[n[0]][n[1]][n[2]].shape[j].a[d]);
					for (d = 0; d < 3; d++) fprintf(outputfile," %.6e",hd[i].pbs[n[0]][n[1]][n[2]].shape[j].b[d]);
					for (d = 0; d < 3; d++) fprintf(outputfile," %.6e",hd[i].pbs[n[0]][n[1]][n[2]].shape[j].c[d]);
					fprintf(outputfile," %.6e",(hd[i].pbs[n[0]][n[1]][n[2]].shape[j].b_a/hd[i].pbs[n[0]][n[1]][n[2]].shape[j].b_a_old)-1);
					fprintf(outputfile," %.6e",(hd[i].pbs[n[0]][n[1]][n[2]].shape[j].c_a/hd[i].pbs[n[0]][n[1]][n[2]].shape[j].c_a_old)-1);
					fprintf(outputfile," %d",hd[i].pbs[n[0]][n[1]][n[2]].shape[j].NLoopConverged);
					fprintf(outputfile,"\n");
					}
				}
			fclose(outputfile);
			} /* if SpeciesContained */
		} /* for NSpeciesProfile */
	}

/* void read_spherical_profiles(GI gi, HALO_DATA *hd) { */

/*	   int i, j, k; */
/*	   int ID, IDold, hit, NHaloFound, idummy; */
/*	   double V, M, property; */
/*	   double ddummy; */
/*	   double fproperty = 1.1; */
/*	   char cdummy[1000]; */
/*	   FILE *InputFile; */

/*	   /\* */
/*	   ** Total matter */
/*	   *\/ */
/*	   InputFile = fopen(gi.TotProfilesFileName,"r"); */
/*	   assert(InputFile != NULL); */
/*	   NHaloFound = 0; */
/*	   fgets(cdummy,1000,InputFile); */
/*	   fscanf(InputFile,"%i",&idummy); ID = idummy; */
/*	   while (1) { */
/*	for (j = 0; j < 3; j++) fscanf(InputFile,"%le",&ddummy); */
/*	fscanf(InputFile,"%le",&ddummy); V = ddummy; */
/*	fscanf(InputFile,"%le",&ddummy); */
/*	fscanf(InputFile,"%le",&ddummy); M = ddummy; */
/*	for (j = 0; j < 16; j++) fscanf(InputFile,"%le",&ddummy); */
/*	if (feof(InputFile)) break; */
/*	hit = 0; */
/*	for (i = 0; i < gi.NHalo; i++) { */
/*		if (hd[i].ID == ID) { */
/*		property = M/V; */
/*		hd[i].pbs[0].totshape->propertymin = property/fproperty; */
/*		hd[i].pbs[0].totshape->propertymax = property*fproperty; */
/*		for (j = 1; j < hd[i].NBin+1; j++) { */
/*			fscanf(InputFile,"%i",&idummy); ID = idummy; */
/*			for (k = 0; k < 3; k++) fscanf(InputFile,"%le",&ddummy); */
/*			fscanf(InputFile,"%le",&ddummy); V = ddummy; */
/*			fscanf(InputFile,"%le",&ddummy); */
/*			fscanf(InputFile,"%le",&ddummy); M = ddummy; */
/*			for (k = 0; k < 16; k++) fscanf(InputFile,"%le",&ddummy); */
/*			property = M/V; */
/*			assert(hd[i].ID == ID); */
/*			hd[i].pbs[j].totshape->propertymin = property/fproperty; */
/*			hd[i].pbs[j].totshape->propertymax = property*fproperty; */
/*			} */
/*		NHaloFound++; */
/*		hit = 1; */
/*		fscanf(InputFile,"%i",&idummy); ID = idummy; */
/*		} */
/*		if (hit == 1) break; */
/*		} */
/*	if (NHaloFound == gi.NHalo) break; */
/*	if (hit == 0) { */
/*		/\* */
/*		** Halo is not in list */
/*		*\/ */
/*		IDold = ID; */
/*		fscanf(InputFile,"%i",&idummy); ID = idummy; */
/*		while (IDold == ID) { */
/*		for (i = 0; i < 22; i++) fscanf(InputFile,"%le",&ddummy); */
/*		fscanf(InputFile,"%i",&idummy); ID = idummy; */
/*		} */
/*		} */
/*	} */
/*	   fclose(InputFile); */
/*	   /\* */
/*	   ** Gas */
/*	   *\/ */
/*	   if (gi.SpeciesContained[GAS]) { */
/*	InputFile = fopen(gi.GasProfilesFileName,"r"); */
/*	assert(InputFile != NULL); */
/*	NHaloFound = 0; */
/*	fgets(cdummy,1000,InputFile); */
/*	fscanf(InputFile,"%i",&idummy); ID = idummy; */
/*	while (1) { */
/*		for (j = 0; j < 3; j++) fscanf(InputFile,"%le",&ddummy); */
/*		fscanf(InputFile,"%le",&ddummy); V = ddummy; */
/*		fscanf(InputFile,"%le",&ddummy); */
/*		fscanf(InputFile,"%le",&ddummy); M = ddummy; */
/*		for (j = 0; j < 32; j++) fscanf(InputFile,"%le",&ddummy); */
/*		if (feof(InputFile)) break; */
/*		hit = 0; */
/*		for (i = 0; i < gi.NHalo; i++) { */
/*		if (hd[i].ID == ID) { */
/*			property = M/V; */
/*			hd[i].pbs[0].gasshape->propertymin = property/fproperty; */
/*			hd[i].pbs[0].gasshape->propertymax = property*fproperty; */
/*			for (j = 1; j < hd[i].NBin+1; j++) { */
/*			fscanf(InputFile,"%i",&idummy); ID = idummy; */
/*			for (k = 0; k < 3; k++) fscanf(InputFile,"%le",&ddummy); */
/*			fscanf(InputFile,"%le",&ddummy); V = ddummy; */
/*			fscanf(InputFile,"%le",&ddummy); */
/*			fscanf(InputFile,"%le",&ddummy); M = ddummy; */
/*			for (k = 0; k < 32; k++) fscanf(InputFile,"%le",&ddummy); */
/*			property = M/V; */
/*			assert(hd[i].ID == ID); */
/*			hd[i].pbs[j].gasshape->propertymin = property/fproperty; */
/*			hd[i].pbs[j].gasshape->propertymax = property*fproperty; */
/*			} */
/*			NHaloFound++; */
/*			hit = 1; */
/*			fscanf(InputFile,"%i",&idummy); ID = idummy; */
/*			} */
/*		if (hit == 1) break; */
/*		} */
/*		if (NHaloFound == gi.NHalo) break; */
/*		if (hit == 0) { */
/*		/\* */
/*		** Halo is not in list */
/*		*\/ */
/*		IDold = ID; */
/*		fscanf(InputFile,"%i",&idummy); ID = idummy; */
/*		while (IDold == ID) { */
/*			for (i = 0; i < 38; i++) fscanf(InputFile,"%le",&ddummy); */
/*			fscanf(InputFile,"%i",&idummy); ID = idummy; */
/*			} */
/*		} */
/*		} */
/*	fclose(InputFile); */
/*	} */
/*	   /\* */
/*	   ** Dark matter */
/*	   *\/ */
/*	   if (gi.SpeciesContained[DARK]) { */
/*	InputFile = fopen(gi.DarkProfilesFileName,"r"); */
/*	assert(InputFile != NULL); */
/*	NHaloFound = 0; */
/*	fgets(cdummy,1000,InputFile); */
/*	fscanf(InputFile,"%i",&idummy); ID = idummy; */
/*	while (1) { */
/*		for (j = 0; j < 3; j++) fscanf(InputFile,"%le",&ddummy); */
/*		fscanf(InputFile,"%le",&ddummy); V = ddummy; */
/*		fscanf(InputFile,"%le",&ddummy); */
/*		fscanf(InputFile,"%le",&ddummy); M = ddummy; */
/*		for (j = 0; j < 15; j++) fscanf(InputFile,"%le",&ddummy); */
/*		if (feof(InputFile)) break; */
/*		hit = 0; */
/*		for (i = 0; i < gi.NHalo; i++) { */
/*		if (hd[i].ID == ID) { */
/*			property = M/V; */
/*			hd[i].pbs[0].darkshape->propertymin = property/fproperty; */
/*			hd[i].pbs[0].darkshape->propertymax = property*fproperty; */
/*			for (j = 1; j < hd[i].NBin+1; j++) { */
/*			fscanf(InputFile,"%i",&idummy); ID = idummy; */
/*			for (k = 0; k < 3; k++) fscanf(InputFile,"%le",&ddummy); */
/*			fscanf(InputFile,"%le",&ddummy); V = ddummy; */
/*			fscanf(InputFile,"%le",&ddummy); */
/*			fscanf(InputFile,"%le",&ddummy); M = ddummy; */
/*			for (k = 0; k < 15; k++) fscanf(InputFile,"%le",&ddummy); */
/*			property = M/V; */
/*			assert(hd[i].ID == ID); */
/*			hd[i].pbs[j].darkshape->propertymin = property/fproperty; */
/*			hd[i].pbs[j].darkshape->propertymax = property*fproperty; */
/*			} */
/*			NHaloFound++; */
/*			hit = 1; */
/*			fscanf(InputFile,"%i",&idummy); ID = idummy; */
/*			} */
/*		if (hit == 1) break; */
/*		} */
/*		if (NHaloFound == gi.NHalo) break; */
/*		if (hit == 0) { */
/*		/\* */
/*		** Halo is not in list */
/*		*\/ */
/*		IDold = ID; */
/*		fscanf(InputFile,"%i",&idummy); ID = idummy; */
/*		while (IDold == ID) { */
/*			for (i = 0; i < 21; i++) fscanf(InputFile,"%le",&ddummy); */
/*			fscanf(InputFile,"%i",&idummy); ID = idummy; */
/*			} */
/*		} */
/*		} */
/*	fclose(InputFile); */
/*	} */
/*	   /\* */
/*	   ** Stars */
/*	   *\/ */
/*	   if (gi.SpeciesContained[STAR]) { */
/*	InputFile = fopen(gi.StarProfilesFileName,"r"); */
/*	assert(InputFile != NULL); */
/*	NHaloFound = 0; */
/*	fgets(cdummy,1000,InputFile); */
/*	fscanf(InputFile,"%i",&idummy); ID = idummy; */
/*	while (1) { */
/*		for (j = 0; j < 3; j++) fscanf(InputFile,"%le",&ddummy); */
/*		fscanf(InputFile,"%le",&ddummy); V = ddummy; */
/*		fscanf(InputFile,"%le",&ddummy); */
/*		fscanf(InputFile,"%le",&ddummy); M = ddummy; */
/*		for (j = 0; j < 21; j++) fscanf(InputFile,"%le",&ddummy); */
/*		if (feof(InputFile)) break; */
/*		hit = 0; */
/*		for (i = 0; i < gi.NHalo; i++) { */
/*		if (hd[i].ID == ID) { */
/*			property = M/V; */
/*			hd[i].pbs[0].starshape->propertymin = property/fproperty; */
/*			hd[i].pbs[0].starshape->propertymax = property*fproperty; */
/*			for (j = 1; j < hd[i].NBin+1; j++) { */
/*			fscanf(InputFile,"%i",&idummy); ID = idummy; */
/*			for (k = 0; k < 3; k++) fscanf(InputFile,"%le",&ddummy); */
/*			fscanf(InputFile,"%le",&ddummy); V = ddummy; */
/*			fscanf(InputFile,"%le",&ddummy); */
/*			fscanf(InputFile,"%le",&ddummy); M = ddummy; */
/*			for (k = 0; k < 21; k++) fscanf(InputFile,"%le",&ddummy); */
/*			property = M/V; */
/*			assert(hd[i].ID == ID); */
/*			hd[i].pbs[j].starshape->propertymin = property/fproperty; */
/*			hd[i].pbs[j].starshape->propertymax = property*fproperty; */
/*			} */
/*			NHaloFound++; */
/*			hit = 1; */
/*			fscanf(InputFile,"%i",&idummy); ID = idummy; */
/*			} */
/*		if (hit == 1) break; */
/*		} */
/*		if (NHaloFound == gi.NHalo) break; */
/*		if (hit == 0) { */
/*		/\* */
/*		** Halo is not in list */
/*		*\/ */
/*		IDold = ID; */
/*		fscanf(InputFile,"%i",&idummy); ID = idummy; */
/*		while (IDold == ID) { */
/*			for (i = 0; i < 27; i++) fscanf(InputFile,"%le",&ddummy); */
/*			fscanf(InputFile,"%i",&idummy); ID = idummy; */
/*			} */
/*		} */
/*		} */
/*	fclose(InputFile); */
/*	} */
/*	   } */

max_stars_repo_name: mzemp/profile

max_issues_repo_name: mzemp/profile

max_forks_repo_name: mzemp/profile