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outtype.c
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#include <stdio.h>
#include <stdlib.h>
#include <string.h>
#include <math.h>
#include <assert.h>
#include "pkd.h"
#include "outtype.h"
#include "floattype.h"
#ifdef CRAY_XT3
#include "../xdr/types.h"
#include "../xdr/xdr.h"
#else
#include <rpc/types.h>
#include <rpc/xdr.h>
#endif
#ifdef COLLISIONS
#include "collision.h"
#endif /* COLLISIONS */
FLOAT VecType(PKD pkd, PARTICLE *p,int iDim,int iType)
{
#ifdef GASOLINE
FLOAT vTemp;
#ifdef TWOPHASE
double frac = p->fMassHot/p->fMass;
#endif
#ifdef COOLING_MOLECULARH
/*Define the correlation length used for shielding in H2 calculation from the gas shear CC*/
double correL = 1.0;
/* Shear from curl */
double shear = sqrt(p->curlv[0]*p->curlv[0] + p->curlv[1]*p->curlv[1] + p->curlv[2]*p->curlv[2]);
if (shear != 0) correL = p->c/shear;
#endif /*COOLING_MOLECULARH */
#endif
switch (iType) {
case OUT_IORDER_ARRAY:
return((FLOAT) p->iOrder);
#ifdef GASOLINE
case OUT_GASDENSITY_ARRAY:
return(p->fDensity);
case OUT_DENSITY_ARRAY:
return(p->curlv[0]);
#else
case OUT_DENSITY_ARRAY:
return(p->fDensity);
#endif
case OUT_DENSITYRFC_ARRAY:
return(p->fDensity);
case OUT_COLOR_ARRAY:
case OUT_POT_ARRAY:
return(p->fPot);
case OUT_AMAG_ARRAY:
return(sqrt(p->a[0]*p->a[0] + p->a[1]*p->a[1] + p->a[2]*p->a[2]));
case OUT_RUNG_ARRAY:
return(p->iRung);
case OUT_SPHDT_ARRAY:
case OUT_DT_ARRAY:
return(p->dt);
case OUT_SOFT_ARRAY:
return(p->fSoft);
#ifdef GASOLINE
case OUT_PRES_ARRAY:
return(p->fDensity*p->fDensity*p->PoverRho2);
case OUT_U_ARRAY:
return(p->u);
case OUT_TWOPHASE_ARRAY:
#ifdef TWOPHASE
return(p->fMassHot);
#else
return(0.);
#endif
case OUT_UNONCOOL_ARRAY:
#ifdef UNONCOOL
return(p->uHot);
#else
return(0.);
#endif
case OUT_TEMPINC_ARRAY:
#ifdef UNONCOOL
vTemp = CoolCodeEnergyToTemperature( pkd->Cool, &p->CoolParticle, p->u+p->uHot, p->fDensity, p->fMetals );
#else
#ifndef NOCOOLING
vTemp = CoolCodeEnergyToTemperature( pkd->Cool, &p->CoolParticle, p->u, p->fDensity, p->fMetals );
#else
vTemp = pkd->duTFac*p->u;
#endif
#endif
#ifdef TWOPHASE
vTemp = CoolCodeEnergyToTemperature( pkd->Cool, &p->CoolParticle, p->u*(1-frac)+p->uHot*frac, p->fDensity, p->fMetals );
#endif
return(vTemp);
case OUT_TEMP_ARRAY:
#ifndef NOCOOLING
vTemp = CoolCodeEnergyToTemperature( pkd->Cool, &p->CoolParticle, p->u, p->fDensity, p->fMetals );
#else
vTemp = pkd->duTFac*p->u;
#endif
return(vTemp);
#ifndef NOCOOLING
case OUT_UDOT_ARRAY:
return(p->uDot);
case OUT_COOL_ARRAY0:
return(COOL_ARRAY0(pkd->Cool, &p->CoolParticle,p->fMetals));
case OUT_COOL_ARRAY1:
return(COOL_ARRAY1(pkd->Cool, &p->CoolParticle,p->fMetals));
case OUT_COOL_ARRAY2:
return(COOL_ARRAY2(pkd->Cool, &p->CoolParticle,p->fMetals));
case OUT_COOL_ARRAY3:
return(COOL_ARRAY3(pkd->Cool, &p->CoolParticle,p->fMetals));
case OUT_COOL_ARRAY4:
return(COOL_ARRAY4(pkd->Cool, &p->CoolParticle,p->fMetals));
case OUT_COOL_ARRAY5:
return(COOL_ARRAY5(pkd->Cool, &p->CoolParticle,p->fMetals));
case OUT_COOL_ARRAY6:
return(COOL_ARRAY6(pkd->Cool, &p->CoolParticle,p->fMetals));
case OUT_COOL_ARRAY7:
return(COOL_ARRAY7(pkd->Cool, &p->CoolParticle,p->fMetals));
case OUT_COOL_ARRAY8:
return(COOL_ARRAY8(pkd->Cool, &p->CoolParticle,p->fMetals));
case OUT_COOL_ARRAY9:
return(COOL_ARRAY9(pkd->Cool, &p->CoolParticle,p->fMetals));
case OUT_COOL_ARRAY10:
return(COOL_ARRAY10(pkd->Cool, &p->CoolParticle,p->fMetals));
case OUT_COOL_ARRAY11:
return(COOL_ARRAY11(pkd->Cool, &p->CoolParticle,p->fMetals));
case OUT_COOL_ARRAY12:
return(COOL_ARRAY12(pkd->Cool, &p->CoolParticle,p->fMetals));
case OUT_COOL_ARRAY13:
return(COOL_ARRAY13(pkd->Cool, &p->CoolParticle,p->fMetals));
case OUT_COOL_ARRAY14:
return(COOL_ARRAY14(pkd->Cool, &p->CoolParticle,p->fMetals));
case OUT_COOL_ARRAY15:
return(COOL_ARRAY15(pkd->Cool, &p->CoolParticle,p->fMetals));
#ifdef COOLING_MOLECULARH
case OUT_CORREL_ARRAY:
return correL;
#endif
/*Gas shear in terms of mach number, used when calculating column density*/
#ifdef COOLING_MOLECULARH
case OUT_COOL_EDOT_ARRAY:
return( COOL_EDOT( pkd->Cool, &p->CoolParticle, p->u, p->fDensity, p->fMetals, p->r, correL) );
case OUT_COOL_COOLING_ARRAY:
return( COOL_COOLING( pkd->Cool, &p->CoolParticle, p->u, p->fDensity, p->fMetals,p->r, correL) );
case OUT_COOL_HEATING_ARRAY:
return( COOL_HEATING( pkd->Cool, &p->CoolParticle, p->u, p->fDensity, p->fMetals, p->r, correL) );
#else
case OUT_COOL_EDOT_ARRAY:
return( COOL_EDOT( pkd->Cool, &p->CoolParticle, p->u, p->fDensity, p->fMetals, p->r) );
case OUT_COOL_COOLING_ARRAY:
return( COOL_COOLING( pkd->Cool, &p->CoolParticle, p->u, p->fDensity, p->fMetals, p->r) );
case OUT_COOL_HEATING_ARRAY:
return( COOL_HEATING( pkd->Cool, &p->CoolParticle, p->u, p->fDensity, p->fMetals, p->r) );
#endif
#endif
case OUT_BALSARASWITCH_ARRAY:
return(p->BalsaraSwitch);
#if defined(VARALPHA) || defined(CULLENDEHNEN)
case OUT_ALPHA_ARRAY:
return(p->alpha);
#endif
case OUT_DIVV_ARRAY:
return(p->divv);
case OUT_DVDS_ARRAY:
return(p->dvds);
case OUT_CSOUND_ARRAY:
return(p->c);
case OUT_MUMAX_ARRAY:
return(p->mumax);
case OUT_DIVONCONH_ARRAY:
return(p->divv/(p->c/sqrt(p->fBall2*0.25)));
case OUT_DIVONCONX_ARRAY:
return(p->divv/(p->c/pow(p->fMass/p->fDensity,1./3.)));
case OUT_UDOTHYDRO_ARRAY:
case OUT_PDVRFC_ARRAY:
return(UDOT_HYDRO(p));
case OUT_METALS_ARRAY:
return(p->fMetals);
case OUT_METALSDOT_ARRAY:
return(p->fMetalsDot);
case OUT_UDOTPDV_ARRAY:
return(p->uDotPdV);
case OUT_UDOTAV_ARRAY:
return(p->uDotAV);
case OUT_UDOTDIFF_ARRAY:
return(p->uDotDiff);
#ifdef STARFORM
case OUT_IGASORDER_ARRAY:
return((FLOAT) p->iGasOrder);
case OUT_TIMEFORM_ARRAY:
return((FLOAT) p->fTimeForm);
case OUT_MASSFORM_ARRAY:
return((FLOAT) p->fMassForm);
case OUT_COOLTURNONTIME_ARRAY:
return((FLOAT) p->fTimeCoolIsOffUntil);
case OUT_OXYGENMASSFRAC_ARRAY:
return((FLOAT) p->fMFracOxygen);
case OUT_IRONMASSFRAC_ARRAY:
return((FLOAT) p->fMFracIron);
case OUT_OXYGENMASSFRACDOT_ARRAY:
return((FLOAT) p->fMFracOxygenDot);
case OUT_IRONMASSFRACDOT_ARRAY:
return((FLOAT) p->fMFracIronDot);
case OUT_UDOTFB_ARRAY:
return((FLOAT) p->uDotFB);
#endif
case OUT_SPHH_ARRAY:
#endif
case OUT_H_ARRAY:
return(sqrt(p->fBall2*0.25));
#ifdef SURFACEAREA
case OUT_SURFACEAREA_ARRAY:
return(p->fArea);
#endif
case OUT_IACTIVE_ARRAY:
return((FLOAT) p->iActive);
#ifdef COLLISIONS
case OUT_REJECTS_ARRAY:
/* Rejected particles indicated by their iOrder, otherwise -1 */
return(REJECT(p) ? p->iOrder : -1);
#endif /* COLLISIONS */
case OUT_POS_VECTOR:
return(p->r[iDim]);
case OUT_VEL_VECTOR:
return(pkd->dvFac*p->v[iDim]);
case OUT_MASS_ARRAY:
return(p->fMass);
case OUT_ACCELRFC_VECTOR:
case OUT_ACCELG_VECTOR:
case OUT_ACCEL_VECTOR:
return(p->a[iDim]);
#ifdef NEED_VPRED
case OUT_VPRED_VECTOR:
return(p->vPred[iDim]);
#endif
#if defined(GASOLINE)
case OUT_CURLV_VECTOR:
return(p->curlv[iDim]);
#ifdef NORMAL
case OUT_NORMAL_VECTOR:
return(p->normal[iDim]);
#endif
case OUT_ANGMOM_VECTOR:
return(((FLOAT *) (&(SINK_Lx(p))))[iDim]);
#endif
default:
return(0.0);
}
}
void VecInType(PKD pkd, PARTICLE *p,int iDim,int iType,FLOAT Data)
{
#ifdef GASOLINE
FLOAT vTemp;
#endif
switch (iType) {
case OUT_DENSITY_ARRAY:
p->fDensity = Data; return;
#ifndef NOCOOLING
case OUT_COOL_ARRAY0:
COOL_IN_ARRAY0(pkd->Cool, &p->CoolParticle,p->fMetals, Data); return;
case OUT_COOL_ARRAY1:
COOL_IN_ARRAY1(pkd->Cool, &p->CoolParticle,p->fMetals, Data); return;
case OUT_COOL_ARRAY2:
COOL_IN_ARRAY2(pkd->Cool, &p->CoolParticle,p->fMetals, Data); return;
case OUT_COOL_ARRAY3:
COOL_IN_ARRAY3(pkd->Cool, &p->CoolParticle,p->fMetals, Data); return; /*H2*/
case OUT_COOL_ARRAY4:
COOL_IN_ARRAY4(pkd->Cool, &p->CoolParticle,p->fMetals, Data); return;
case OUT_COOL_ARRAY5:
COOL_IN_ARRAY5(pkd->Cool, &p->CoolParticle,p->fMetals, Data); return;
case OUT_COOL_ARRAY6:
COOL_IN_ARRAY6(pkd->Cool, &p->CoolParticle,p->fMetals, Data); return;
case OUT_COOL_ARRAY7:
COOL_IN_ARRAY7(pkd->Cool, &p->CoolParticle,p->fMetals, Data); return;
case OUT_COOL_ARRAY8:
COOL_IN_ARRAY8(pkd->Cool, &p->CoolParticle,p->fMetals, Data); return;
case OUT_COOL_ARRAY9:
COOL_IN_ARRAY9(pkd->Cool, &p->CoolParticle,p->fMetals, Data); return;
case OUT_COOL_ARRAY10:
COOL_IN_ARRAY10(pkd->Cool, &p->CoolParticle,p->fMetals, Data); return;
case OUT_COOL_ARRAY11:
COOL_IN_ARRAY11(pkd->Cool, &p->CoolParticle,p->fMetals, Data); return;
case OUT_COOL_ARRAY12:
COOL_IN_ARRAY12(pkd->Cool, &p->CoolParticle,p->fMetals, Data); return;
case OUT_COOL_ARRAY13:
COOL_IN_ARRAY13(pkd->Cool, &p->CoolParticle,p->fMetals, Data); return;
case OUT_COOL_ARRAY14:
COOL_IN_ARRAY14(pkd->Cool, &p->CoolParticle,p->fMetals, Data); return;
case OUT_COOL_ARRAY15:
COOL_IN_ARRAY15(pkd->Cool, &p->CoolParticle,p->fMetals, Data); return;
#endif
#ifdef STARFORM
case OUT_COOLTURNONTIME_ARRAY:
p->fTimeCoolIsOffUntil = Data; return;
case OUT_OXYGENMASSFRAC_ARRAY:
p->fMFracOxygen = Data; return;
case OUT_IRONMASSFRAC_ARRAY:
p->fMFracIron = Data; return;
case OUT_MASSFORM_ARRAY:
p->fMassForm = Data; return;
#endif
default:
fprintf(stderr,"Bad Option to VecInType %d\n",iType);
assert(0);
}
}
void VecFilename(char *achFile, int iType)
{
switch (iType) {
case OUT_BIG_FILE:
#ifdef COLLISIONS
strncat(achFile,"ss",256);
#else
strncat(achFile,"tipsy",256);
#endif
break;
case OUT_IORDER_ARRAY:
strncat(achFile,"iord",256);
break;
case OUT_DENSITY_ARRAY:
strncat(achFile,"den",256);
break;
case OUT_DENSITYRFC_ARRAY:
strncat(achFile,"denRFC",256);
break;
case OUT_COLOR_ARRAY:
case OUT_POT_ARRAY:
strncat(achFile,"pot",256);
break;
case OUT_AMAG_ARRAY:
strncat(achFile,"amag",256);
break;
case OUT_RUNG_ARRAY:
strncat(achFile,"rung",256);
break;
case OUT_MASS_ARRAY:
strncat(achFile,"mass",256);
break;
case OUT_DT_ARRAY:
strncat(achFile,"dt",256);
break;
case OUT_SPHDT_ARRAY:
strncat(achFile,"SPHdt",256);
break;
case OUT_SOFT_ARRAY:
strncat(achFile,"soft",256);
break;
#ifdef GASOLINE
case OUT_PRES_ARRAY:
strncat(achFile,"pres",256);
break;
case OUT_TEMP_ARRAY:
strncat(achFile,"temperature",256);
break;
case OUT_GASDENSITY_ARRAY:
strncat(achFile,"GasDensity",256);
break;
#ifndef NOCOOLING
case OUT_U_ARRAY:
strncat(achFile,"u",256);
break;
case OUT_TWOPHASE_ARRAY:
strncat(achFile,"MassHot",256);
break;
case OUT_UNONCOOL_ARRAY:
strncat(achFile,"uHot",256);
break;
case OUT_TEMPINC_ARRAY:
strncat(achFile,"Tinc",256);
break;
case OUT_UDOT_ARRAY:
strncat(achFile,"uDot",256);
break;
case OUT_COOL_ARRAY0:
strncat(achFile,COOL_ARRAY0_EXT,256);
break;
case OUT_COOL_ARRAY1:
strncat(achFile,COOL_ARRAY1_EXT,256);
break;
case OUT_COOL_ARRAY2:
strncat(achFile,COOL_ARRAY2_EXT,256);
break;
case OUT_COOL_ARRAY3:
strncat(achFile,COOL_ARRAY3_EXT,256);
break;
case OUT_COOL_ARRAY4:
strncat(achFile,COOL_ARRAY4_EXT,256);
break;
case OUT_COOL_ARRAY5:
strncat(achFile,COOL_ARRAY5_EXT,256);
break;
case OUT_COOL_ARRAY6:
strncat(achFile,COOL_ARRAY6_EXT,256);
break;
case OUT_COOL_ARRAY7:
strncat(achFile,COOL_ARRAY7_EXT,256);
break;
case OUT_COOL_ARRAY8:
strncat(achFile,COOL_ARRAY8_EXT,256);
break;
case OUT_COOL_ARRAY9:
strncat(achFile,COOL_ARRAY9_EXT,256);
break;
case OUT_COOL_ARRAY10:
strncat(achFile,COOL_ARRAY10_EXT,256);
break;
case OUT_COOL_ARRAY11:
strncat(achFile,COOL_ARRAY11_EXT,256);
break;
case OUT_COOL_ARRAY12:
strncat(achFile,COOL_ARRAY12_EXT,256);
break;
case OUT_COOL_ARRAY13:
strncat(achFile,COOL_ARRAY13_EXT,256);
break;
case OUT_COOL_ARRAY14:
strncat(achFile,COOL_ARRAY14_EXT,256);
break;
case OUT_COOL_ARRAY15:
strncat(achFile,COOL_ARRAY15_EXT,256);
break;
#ifdef COOLING_MOLECULARH
case OUT_CORREL_ARRAY: /*Correlation length determined from Gas Shear in terms of the Mach number -- used when calculating shielding*/
strncat(achFile,"correL",256);
break;
#endif
case OUT_COOL_EDOT_ARRAY:
strncat(achFile,"eDot",256);
break;
case OUT_COOL_COOLING_ARRAY:
strncat(achFile,"eCool",256);
break;
case OUT_COOL_HEATING_ARRAY:
strncat(achFile,"eHeat",256);
break;
#endif
case OUT_BALSARASWITCH_ARRAY:
strncat(achFile,"BSw",256);
break;
case OUT_ALPHA_ARRAY:
strncat(achFile,"alpha",256);
break;
case OUT_DIVV_ARRAY:
strncat(achFile,"divv",256);
break;
case OUT_DVDS_ARRAY:
strncat(achFile,"dvds",256);
break;
case OUT_SURFACEAREA_ARRAY:
strncat(achFile,"area",256);
break;
case OUT_IACTIVE_ARRAY:
strncat(achFile,"ia",256);
break;
case OUT_CSOUND_ARRAY:
strncat(achFile,"c",256);
break;
case OUT_MUMAX_ARRAY:
strncat(achFile,"mumax",256);
break;
case OUT_DIVONCONH_ARRAY:
strncat(achFile,"dch",256);
break;
case OUT_DIVONCONX_ARRAY:
strncat(achFile,"dcx",256);
break;
case OUT_UDOTHYDRO_ARRAY:
strncat(achFile,"uDotHydro",256);
break;
case OUT_PDVRFC_ARRAY:
strncat(achFile,"PdVRFC",256);
break;
case OUT_UDOTPDV_ARRAY:
strncat(achFile,"uDotPdV",256);
break;
case OUT_UDOTAV_ARRAY:
strncat(achFile,"uDotAV",256);
break;
case OUT_UDOTDIFF_ARRAY:
strncat(achFile,"uDotDiff",256);
break;
case OUT_METALS_ARRAY:
strncat(achFile,"Metals",256);
break;
case OUT_METALSDOT_ARRAY:
strncat(achFile,"Metalsdot",256);
break;
case OUT_SIGMA2_ARRAY:
strncat(achFile,"sigma2",256);
break;
#ifdef STARFORM
case OUT_IGASORDER_ARRAY:
strncat(achFile,"igasorder",256);
break;
case OUT_TIMEFORM_ARRAY:
strncat(achFile,"timeform",256);
break;
case OUT_MASSFORM_ARRAY:
strncat(achFile,"massform",256);
break;
case OUT_COOLTURNONTIME_ARRAY:
strncat(achFile,"coolontime",256);
break;
case OUT_OXYGENMASSFRAC_ARRAY:
strncat(achFile,"OxMassFrac",256);
break;
case OUT_IRONMASSFRAC_ARRAY:
strncat(achFile,"FeMassFrac",256);
break;
case OUT_OXYGENMASSFRACDOT_ARRAY:
strncat(achFile,"OxMassFracdot",256);
break;
case OUT_IRONMASSFRACDOT_ARRAY:
strncat(achFile,"FeMassFracdot",256);
break;
case OUT_UDOTFB_ARRAY:
strncat(achFile,"uDotFB",256);
break;
#endif
case OUT_SPHH_ARRAY:
strncat(achFile,"SPHH",256);
break;
#endif
case OUT_H_ARRAY:
strncat(achFile,"smoothlength",256);
break;
case OUT_POS_VECTOR:
strncat(achFile,"pos",256);
break;
case OUT_VEL_VECTOR:
strncat(achFile,"vel",256);
break;
case OUT_ACCEL_VECTOR:
strncat(achFile,"acc",256);
break;
case OUT_ACCELG_VECTOR:
strncat(achFile,"accg",256);
break;
case OUT_ACCELRFC_VECTOR:
strncat(achFile,"accRFC",256);
break;
case OUT_CURLV_VECTOR:
strncat(achFile,"curl",256);
break;
case OUT_NORMAL_VECTOR:
strncat(achFile,"norm",256);
break;
#ifdef NEED_VPRED
case OUT_VPRED_VECTOR:
strncat(achFile,"vpred",256);
break;
#endif
#if defined(GASOLINE)
case OUT_ANGMOM_VECTOR:
strncat(achFile,"angmom",256);
break;
#endif
default:
assert(1);
}
}
void pkdOutNChilada(PKD pkd,char *pszFileName,int nGasStart, int nDarkStart, int nStarStart, int iVecType, int *pnOut, float minValue[3][3], float maxValue[3][3], double duTFac, double dvFac)
{
FILE *gasFp = NULL, *darkFp = NULL, *starFp = NULL;
float fOut, min[3][3], max[3][3];
int i, iDim, nDim, headerlength;
int nGas, nDark, nStar, nOut=0;
char darkFileName[256],gasFileName[256],starFileName[256];
XDR gasXdrs, darkXdrs, starXdrs;
for(i=0;i<3;i++){
for(iDim=0;iDim<3;iDim++){
min[i][iDim] = 1e30;
max[i][iDim] = -1e30;
}
}
pkd->duTFac = duTFac;
pkd->dvFac = dvFac;
nGas = pkd->nGas; nDark = pkd->nDark; nStar = pkd->nStar;
switch (iVecType){
/* Gas only floats */
case OUT_COOLTURNONTIME_ARRAY:
case OUT_DIVV_ARRAY:
case OUT_DVDS_ARRAY:
case OUT_TCOOLAGAIN_ARRAY:
case OUT_MSTAR_ARRAY:
case OUT_COOL_ARRAY0:
case OUT_COOL_ARRAY1:
case OUT_COOL_ARRAY2:
case OUT_COOL_ARRAY3:
case OUT_COOL_ARRAY4:
case OUT_COOL_ARRAY5:
case OUT_COOL_ARRAY6:
case OUT_COOL_ARRAY7:
case OUT_COOL_ARRAY8:
case OUT_COOL_ARRAY9:
case OUT_COOL_ARRAY10:
case OUT_COOL_ARRAY11:
case OUT_COOL_ARRAY12:
case OUT_COOL_ARRAY13:
case OUT_COOL_ARRAY14:
case OUT_COOL_ARRAY15:
#ifdef COOLING_MOLECULARH
case OUT_CORREL_ARRAY:
#endif
case OUT_SPHH_ARRAY:
case OUT_TEMP_ARRAY:
case OUT_GASDENSITY_ARRAY:
case OUT_UDOTHYDRO_ARRAY:
case OUT_UDOTPDV_ARRAY:
case OUT_UDOTAV_ARRAY:
case OUT_UDOTDIFF_ARRAY:
case OUT_PRES_ARRAY:
case OUT_BALSARASWITCH_ARRAY:
case OUT_SPHDT_ARRAY:
case OUT_CSOUND_ARRAY:
case OUT_MUMAX_ARRAY:
case OUT_METALSDOT_ARRAY:
case OUT_OXYGENMASSFRACDOT_ARRAY:
case OUT_IRONMASSFRACDOT_ARRAY:
case OUT_COOL_EDOT_ARRAY:
case OUT_COOL_COOLING_ARRAY:
case OUT_COOL_HEATING_ARRAY:
case OUT_CURLV_VECTOR:
nDark=nStar=0;
break;
case OUT_IGASORDER_ARRAY:
case OUT_TIMEFORM_ARRAY:
case OUT_MASSFORM_ARRAY:
case OUT_ANGMOM_VECTOR:
nGas=nDark=0;
break;
case OUT_METALS_ARRAY:
case OUT_OXYGENMASSFRAC_ARRAY:
case OUT_IRONMASSFRAC_ARRAY:
case OUT_UDOTFB_ARRAY:
nDark=0;
break;
}
/*
* N-Chilada has a 28 byte header (see FieldHeader in
* structures/tree_xdr.h): 4 byte magic + 8 byte time + 8 byte
* numParticles + 4 byte dimension + 4 byte data type code. The
* header is followed by a min and max field 6 numbers for vectors
* and 2 for scalars.
*/
/*
* XXX WARNING: Seeks below are assuming sizeof(float) = 4, since
* RFCs for XDR assume 4 byte floats.
*/
if(iVecType > OUT_1D3DSPLIT) {
nDim=3;
headerlength = 28 + 6*4;
}
else {
nDim=1;
headerlength = 28 + 2*4;
}
if(nGas){
sprintf(gasFileName, "%s/gas/",pszFileName);
VecFilename(gasFileName,iVecType);
gasFp = fopen(gasFileName,"r+");
mdlassert(pkd->mdl,gasFp != NULL);
xdrstdio_create(&gasXdrs,gasFp,XDR_ENCODE);
}
if(nDark){
sprintf(darkFileName, "%s/dark/",pszFileName);
VecFilename(darkFileName,iVecType);
darkFp = fopen(darkFileName,"r+");
mdlassert(pkd->mdl,darkFp != NULL);
xdrstdio_create(&darkXdrs,darkFp,XDR_ENCODE);
}
if(nStar){
sprintf(starFileName, "%s/star/",pszFileName);
VecFilename(starFileName,iVecType);
starFp = fopen(starFileName,"r+");
mdlassert(pkd->mdl,starFp != NULL);
xdrstdio_create(&starXdrs,starFp,XDR_ENCODE);
}
switch (iVecType) {
#ifdef STARFORM
case OUT_IGASORDER_ARRAY:
if(nStar) {
pkdGenericSeek(pkd,starFp, nStarStart, headerlength, 4);
for (i=0;i<pkd->nLocal;++i) {
if (pkdIsStar(pkd,&pkd->pStore[i])) {
xdr_int(&starXdrs,&(pkd->pStore[i].iGasOrder));
nOut++;
min[2][0] = (pkd->pStore[i].iOrder > min[2][0]) ? min[2][0]: pkd->pStore[i].iOrder;
max[2][0] = (pkd->pStore[i].iOrder < max[2][0]) ? max[2][0]: pkd->pStore[i].iOrder;
}
}
}
break;
#endif
case OUT_IORDER_ARRAY:
if(nGas) pkdGenericSeek(pkd,gasFp, nGasStart,headerlength, 4);
if(nDark) pkdGenericSeek(pkd,darkFp, nDarkStart,headerlength, 4);
if(nStar) pkdGenericSeek(pkd,starFp, nStarStart,headerlength, 4);
for (i=0;i<pkd->nLocal;++i) {
if (nGas && pkdIsGas(pkd,&pkd->pStore[i])) {
xdr_int(&gasXdrs,&(pkd->pStore[i].iOrder));
nOut++;
min[0][0] = (pkd->pStore[i].iOrder > min[0][0]) ? min[0][0]: pkd->pStore[i].iOrder;
max[0][0] = (pkd->pStore[i].iOrder < max[0][0]) ? max[0][0]: pkd->pStore[i].iOrder;
}
if (nDark && pkdIsDark(pkd,&pkd->pStore[i])) {
xdr_int(&darkXdrs,&(pkd->pStore[i].iOrder));
nOut++;
min[1][0] = (pkd->pStore[i].iOrder > min[1][0]) ? min[1][0]: pkd->pStore[i].iOrder;
max[1][0] = (pkd->pStore[i].iOrder < max[1][0]) ? max[1][0]: pkd->pStore[i].iOrder;
}
if (nStar && pkdIsStar(pkd,&pkd->pStore[i])) {
xdr_int(&starXdrs,&(pkd->pStore[i].iOrder));
nOut++;
min[2][0] = (pkd->pStore[i].iOrder > min[2][0]) ? min[2][0]: pkd->pStore[i].iOrder;
max[2][0] = (pkd->pStore[i].iOrder < max[2][0]) ? max[2][0]: pkd->pStore[i].iOrder;
}
}
break;
#ifdef GASOLINE
case OUT_TEMP_ARRAY:
case OUT_GASDENSITY_ARRAY:
if(nGas) {
pkdGenericSeek(pkd,gasFp, nGasStart,headerlength,sizeof(pkd->pStore[i].iOrder));
for (i=0;i<pkd->nLocal;++i) {
if (pkdIsGas(pkd,&pkd->pStore[i])) {
fOut = VecType(pkd, &pkd->pStore[i],0,iVecType);
min[0][0] = (fOut > min[0][0]) ? min[0][0]: fOut;
max[0][0] = (fOut < max[0][0]) ? max[0][0]: fOut;
xdr_float(&gasXdrs,&fOut);
nOut++;
}
}
}
break;
#endif
default:
if(nGas) pkdGenericSeek(pkd,gasFp, ((long)nGasStart)*nDim,
headerlength,sizeof(fOut));
if(nDark) pkdGenericSeek(pkd,darkFp, ((long)nDarkStart)*nDim,
headerlength,sizeof(fOut));
if(nStar) pkdGenericSeek(pkd,starFp, ((long)nStarStart)*nDim,
headerlength,sizeof(fOut));
for (i=0;i<pkd->nLocal;++i) {
for (iDim = 0; iDim <nDim; iDim++) {
fOut = VecType(pkd, &pkd->pStore[i],iDim,iVecType);
if (nGas && pkdIsGas(pkd,&pkd->pStore[i])) {
xdr_float(&gasXdrs,&fOut);
nOut++;
min[0][iDim] = (fOut > min[0][iDim]) ? min[0][iDim]: fOut;
max[0][iDim] = (fOut < max[0][iDim]) ? max[0][iDim]: fOut;
}
if (nDark && pkdIsDark(pkd,&pkd->pStore[i])) {
xdr_float(&darkXdrs,&fOut);
nOut++;
min[1][iDim] = (fOut > min[1][iDim]) ? min[1][iDim]: fOut;
max[1][iDim] = (fOut < max[1][iDim]) ? max[1][iDim]: fOut;
}
if (nStar && pkdIsStar(pkd,&pkd->pStore[i])) {
xdr_float(&starXdrs,&fOut);
nOut++;
min[2][iDim] = (fOut > min[2][iDim]) ? min[2][iDim]: fOut;
max[2][iDim] = (fOut < max[2][iDim]) ? max[2][iDim]: fOut;
}
}
}
}
if(nDark) xdr_destroy(&darkXdrs);
if(nGas) xdr_destroy(&gasXdrs);
if(nStar) xdr_destroy(&starXdrs);
if(nDark) fclose(darkFp);
if(nGas) fclose(gasFp);
if(nStar) fclose(starFp);
for(i=0;i<3;i++){
for(iDim=0;iDim<nDim;iDim++){
minValue[i][iDim] = min[i][iDim];
maxValue[i][iDim] = max[i][iDim];
}
}
*pnOut = nOut;
}
void xdr_FLOAT(XDR *xdrs, FLOAT *fIn)
{
xdr_double(xdrs, fIn);
}
void pkdOutVector(PKD pkd,char *pszFileName,int nStart, int iDim,int iVecType,int iBinaryOutput, int N, int bStandard)
{
FILE *fp;
FLOAT fOut;
float FloatOut;
double DoubleOut;
int IntOut;
long LongOut;
int i;
char vecFileName[256];
strcpy(vecFileName, pszFileName);
VecFilename(vecFileName,iVecType);
if(iBinaryOutput){
fp = fopen(vecFileName,"r+");
mdlassert(pkd->mdl,fp != NULL);
} else {
fp = fopen(vecFileName,"a");
mdlassert(pkd->mdl,fp != NULL);
}
/*
** Write Vector Elements!
*/
if( bStandard && iBinaryOutput ){
XDR xdrs;
xdrstdio_create(&xdrs,fp,XDR_ENCODE);
switch (iBinaryOutput) {
case 1:
if (iDim < 0) {
pkdGenericSeek(pkd,fp, ((long)nStart)*3,sizeof(int),sizeof(FloatOut));
for (i=0;i<pkd->nLocal;++i) {
FloatOut = VecType(pkd, &pkd->pStore[i],0,iVecType);
xdr_float(&xdrs,&FloatOut);
FloatOut = VecType(pkd, &pkd->pStore[i],1,iVecType);
xdr_float(&xdrs,&FloatOut);
FloatOut = VecType(pkd, &pkd->pStore[i],2,iVecType);
xdr_float(&xdrs,&FloatOut);
}
} else {
switch (iVecType) {
#ifdef STARFORM
case OUT_IGASORDER_ARRAY:
pkdGenericSeek(pkd,fp, nStart,sizeof(int),sizeof(IntOut));
for (i=0;i<pkd->nLocal;++i) {
xdr_int(&xdrs,&(pkd->pStore[i].iGasOrder));
}
break;
#endif
case OUT_IORDER_ARRAY:
pkdGenericSeek(pkd,fp,nStart, sizeof(int), sizeof(IntOut));
for (i=0;i<pkd->nLocal;++i) {
xdr_int(&xdrs,&(pkd->pStore[i].iOrder));
}
break;
default:
pkdGenericSeek(pkd,fp, ((long)N)*iDim+nStart,sizeof(int),sizeof(FloatOut));
for (i=0;i<pkd->nLocal;++i) {
FloatOut = VecType(pkd, &pkd->pStore[i],iDim,iVecType);
xdr_float(&xdrs,&FloatOut);
}
}
}
break;
case 2:
if (iDim < 0) {
pkdGenericSeek(pkd,fp, ((long)nStart)*3,sizeof(int),sizeof(DoubleOut));
for (i=0;i<pkd->nLocal;++i) {
DoubleOut = VecType(pkd, &pkd->pStore[i],0,iVecType);
xdr_double(&xdrs,&DoubleOut);
DoubleOut = VecType(pkd, &pkd->pStore[i],1,iVecType);
xdr_double(&xdrs,&DoubleOut);
DoubleOut = VecType(pkd, &pkd->pStore[i],2,iVecType);
xdr_double(&xdrs,&DoubleOut);
}
} else {
switch (iVecType) {
#ifdef STARFORM
case OUT_IGASORDER_ARRAY:
pkdGenericSeek(pkd,fp, nStart,sizeof(int),sizeof(LongOut));
for (i=0;i<pkd->nLocal;++i) {
LongOut = pkd->pStore[i].iGasOrder;
xdr_longlong_t(&xdrs,(quad_t *) &LongOut);
}
break;
#endif
case OUT_IORDER_ARRAY:
pkdGenericSeek(pkd,fp, nStart,sizeof(int),sizeof(LongOut));
for (i=0;i<pkd->nLocal;++i) {
LongOut = pkd->pStore[i].iOrder;
xdr_longlong_t(&xdrs,(quad_t *) &LongOut);
}
break;
default:
pkdGenericSeek(pkd,fp, ((long)N)*iDim+nStart,sizeof(int),sizeof(DoubleOut));
for (i=0;i<pkd->nLocal;++i) {
DoubleOut = VecType(pkd, &pkd->pStore[i],iDim,iVecType);
xdr_double(&xdrs,&DoubleOut);
}
}
}
break;
case 3:
if (iDim < 0) {
pkdGenericSeek(pkd,fp, ((long)nStart)*3,sizeof(int),sizeof(fOut));
for (i=0;i<pkd->nLocal;++i) {
fOut = VecType(pkd, &pkd->pStore[i],0,iVecType);
xdr_FLOAT(&xdrs,&fOut);
fOut = VecType(pkd, &pkd->pStore[i],1,iVecType);
xdr_FLOAT(&xdrs,&fOut);
fOut = VecType(pkd, &pkd->pStore[i],2,iVecType);
xdr_FLOAT(&xdrs,&fOut);
}
} else {
switch (iVecType) {
#ifdef STARFORM
case OUT_IGASORDER_ARRAY:
pkdGenericSeek(pkd,fp, nStart, sizeof(int), sizeof(pkd->pStore[i].iGasOrder));
for (i=0;i<pkd->nLocal;++i) {
xdr_int(&xdrs,&(pkd->pStore[i].iGasOrder));
}
break;
#endif
case OUT_IORDER_ARRAY:
pkdGenericSeek(pkd,fp, nStart,sizeof(int),sizeof(pkd->pStore[i].iOrder));
for (i=0;i<pkd->nLocal;++i) {
xdr_int(&xdrs,&(pkd->pStore[i].iOrder));
}
break;
default:
pkdGenericSeek(pkd,fp, ((long)N)*iDim+nStart,sizeof(int),sizeof(fOut));
for (i=0;i<pkd->nLocal;++i) {
fOut = VecType(pkd, &pkd->pStore[i],iDim,iVecType);
xdr_FLOAT(&xdrs,&fOut);
}
}
}
break;
}
}
else {
switch (iBinaryOutput) {
case 0:
if (iDim < 0) {
for (i=0;i<pkd->nLocal;++i) {
fOut = VecType(pkd, &pkd->pStore[i],0,iVecType);
fprintf(fp,"%.14g\n",fOut);
fOut = VecType(pkd, &pkd->pStore[i],1,iVecType);
fprintf(fp,"%.14g\n",fOut);
fOut = VecType(pkd, &pkd->pStore[i],2,iVecType);
fprintf(fp,"%.14g\n",fOut);
}
} else {
for (i=0;i<pkd->nLocal;++i) {
fOut = VecType(pkd, &pkd->pStore[i],iDim,iVecType);
fprintf(fp,"%.14g\n",fOut);
}
}
break;
case 1:
if (iDim < 0) {
pkdGenericSeek(pkd,fp, ((long)nStart)*3,sizeof(int),sizeof(FloatOut));
for (i=0;i<pkd->nLocal;++i) {
FloatOut = VecType(pkd, &pkd->pStore[i],0,iVecType);
fwrite(&FloatOut, sizeof(float), 1, fp );
FloatOut = VecType(pkd, &pkd->pStore[i],1,iVecType);
fwrite(&FloatOut, sizeof(float), 1, fp );
FloatOut = VecType(pkd, &pkd->pStore[i],2,iVecType);
fwrite(&FloatOut, sizeof(float), 1, fp );
}
} else {
switch (iVecType) {
#ifdef STARFORM
case OUT_IGASORDER_ARRAY:
pkdGenericSeek(pkd,fp, nStart,sizeof(int),sizeof(IntOut));
for (i=0;i<pkd->nLocal;++i) {
fwrite(&(pkd->pStore[i].iGasOrder), sizeof(IntOut), 1, fp );
}
break;
#endif
case OUT_IORDER_ARRAY:
pkdGenericSeek(pkd,fp,nStart, sizeof(int), sizeof(IntOut));
for (i=0;i<pkd->nLocal;++i) {
fwrite(&(pkd->pStore[i].iOrder), sizeof(IntOut), 1, fp );
}
break;
default:
pkdGenericSeek(pkd,fp, ((long)N)*iDim+nStart,sizeof(int),sizeof(FloatOut));
for (i=0;i<pkd->nLocal;++i) {
FloatOut = VecType(pkd, &pkd->pStore[i],iDim,iVecType);
fwrite(&FloatOut, sizeof(float), 1, fp );
}
}
}
break;