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output.c
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/**
@file output.c
@brief Subroutines for output and logging.
@author Rory Barnes ([RoryBarnes](https://github.com/RoryBarnes/))
@date May 7 2014
*/
#include "vplanet.h"
/* Individual WriteOutput functions */
/*
* A
*/
void WriteAge(BODY *body, CONTROL *control, OUTPUT *output, SYSTEM *system,
UNITS *units, UPDATE *update, int iBody, double *dTmp,
char cUnit[]) {
*dTmp = body[iBody].dAge;
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsTime(units->iTime);
fsUnitsTime(units->iTime, cUnit);
}
}
/*
* B
*/
/* iBodyType */
void WriteBodyType(BODY *body, CONTROL *control, OUTPUT *output, SYSTEM *system,
UNITS *units, UPDATE *update, int iBody, double *dTmp,
char cUnit[]) {
*dTmp = body[iBody].iBodyType;
strcpy(cUnit, "");
}
/*
* C
*/
/* Climate-obliquity-precession parameter */
void WriteCOPP(BODY *body, CONTROL *control, OUTPUT *output, SYSTEM *system,
UNITS *units, UPDATE *update, int iBody, double *dTmp,
char cUnit[]) {
*dTmp = body[iBody].dEcc * sin(body[iBody].dLongP + body[iBody].dPrecA) *
sin(body[iBody].dObliquity);
strcpy(cUnit, "");
}
/* Critical Semi-major Axis (Holman & Wiegert, 1999 for P-type circumbinary
* orbit) */
void WriteCriticalSemi(BODY *body, CONTROL *control, OUTPUT *output,
SYSTEM *system, UNITS *units, UPDATE *update, int iBody,
double *dTmp, char cUnit[]) {
// Only valid for simulations of tidally-interacting binary stars that have
// 2 bodies: 0, 1, both stars, with bStellar = bEqtide = 1
// All of the following must be true
if (control->Evolve.iNumBodies > 1 && iBody == 1 && body[iBody].bStellar &&
body[iBody].bEqtide) {
double a = body[1].dSemi;
double e = body[1].dEcc;
double mu = body[1].dMass / (body[0].dMass + body[1].dMass);
*dTmp = (1.6 + 5.1 * e - 2.22 * e * e + 4.12 * mu - 4.27 * e * mu -
5.09 * mu * mu + 4.61 * e * e * mu * mu) *
a;
} else {
*dTmp = -1;
}
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsLength(units->iLength);
fsUnitsLength(units->iLength, cUnit);
}
}
/*
* D
*/
void WriteDeltaTime(BODY *body, CONTROL *control, OUTPUT *output,
SYSTEM *system, UNITS *units, UPDATE *update, int iBody,
double *dTmp, char cUnit[]) {
if (control->Evolve.bVarDt) {
if (control->Evolve.dTime > 0) {
*dTmp = control->Io.dOutputTime / control->Evolve.iStepsSinceLastOutput;
} else {
if (control->Io.iVerbose >= VERBINPUT && !control->Io.bDeltaTimeMessage) {
fprintf(stderr, "INFO: DeltaTime output for first step is defined to "
"be 0 when bVarDt = 1.\n");
control->Io.bDeltaTimeMessage = 1;
}
*dTmp = 0;
}
} else {
*dTmp = control->Evolve.dTimeStep;
}
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsTime(units->iTime);
fsUnitsTime(units->iTime, cUnit);
}
}
void WriteDensity(BODY *body, CONTROL *control, OUTPUT *output, SYSTEM *system,
UNITS *units, UPDATE *update, int iBody, double *dTmp,
char cUnit[]) {
*dTmp = fdSphereDensity(body[iBody].dMass, body[iBody].dRadius);
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp *= pow(fdUnitsLength(units->iLength), 3) / fdUnitsMass(units->iMass);
fsUnitsDensity(units, cUnit);
}
}
/*
* H
*/
void WriteHecc(BODY *body, CONTROL *control, OUTPUT *output, SYSTEM *system,
UNITS *units, UPDATE *update, int iBody, double *dTmp,
char cUnit[]) {
*dTmp = body[iBody].dHecc;
strcpy(cUnit, "");
}
/************* HABITABLE ZONE LIMITS ***********/
void WriteHZLimitDryRunaway(BODY *body, CONTROL *control, OUTPUT *output,
SYSTEM *system, UNITS *units, UPDATE *update,
int iBody, double *dTmp, char cUnit[]) {
double dLuminosity;
int jBody;
/* This output is unusual in that it depends on the presence of other bodies
in the system, namely (a) star(s). This should also only return a
sensible value if body 0 uses module STELLAR, or else dLuminosty is
not defined. As a hack, the will return -1 for invalid cases. */
dLuminosity = fdLuminosityTotal(body, control->Evolve.iNumBodies);
if (dLuminosity > 0) { // Planet exterior to star(s)
*dTmp = pow(body[0].dLuminosity * (1 - body[iBody].dAlbedoGlobal) /
(16 * PI * DRYRGFLUX *
(1 - body[iBody].dEcc * body[iBody].dEcc)),
0.5);
} else { // Planet, but body 0 does not use STELLAR
*dTmp = -1;
}
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsLength(units->iLength);
fsUnitsLength(units->iLength, cUnit);
}
}
void WriteHZLimitRecentVenus(BODY *body, CONTROL *control, OUTPUT *output,
SYSTEM *system, UNITS *units, UPDATE *update,
int iBody, double *dTmp, char cUnit[]) {
int iLim;
double *daHZLimits; // Array of HZ limits
/* for (iLim=0;iLim<6;iLim++) {
daHZLimits[iLim] = 0;
}
*/
daHZLimits = malloc(6 * sizeof(double));
for (iLim = 0; iLim < 6; iLim++) {
daHZLimits[iLim] = 0;
}
// Get limits
fdHabitableZoneKopparapu2013(body, control->Evolve.iNumBodies, daHZLimits);
// RB: Make all these limits #define's, e.g. HZRECVENUS
if (daHZLimits[0] > 0) {
*dTmp = daHZLimits[0];
} else { // Means no stars inside body's orbit
*dTmp = -1;
free(daHZLimits);
return;
}
// Recent Venus limit is index 0
*dTmp = daHZLimits[0];
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsLength(units->iLength);
fsUnitsLength(units->iLength, cUnit);
}
free(daHZLimits);
}
void WriteHZLimitRunawayGreenhouse(BODY *body, CONTROL *control, OUTPUT *output,
SYSTEM *system, UNITS *units, UPDATE *update,
int iBody, double *dTmp, char cUnit[]) {
double *daHZLimits; // Array of HZ limits
daHZLimits = malloc(6 * sizeof(double));
// Get limits
fdHabitableZoneKopparapu2013(body, control->Evolve.iNumBodies, daHZLimits);
if (daHZLimits[0] > 0) {
*dTmp = daHZLimits[0];
} else { // Means no stars inside body's orbit
*dTmp = -1;
free(daHZLimits);
return;
}
// Runaway greenhouse limit is index 1
*dTmp = daHZLimits[1];
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsLength(units->iLength);
fsUnitsLength(units->iLength, cUnit);
}
free(daHZLimits);
}
void WriteHZLimitMoistGreenhouse(BODY *body, CONTROL *control, OUTPUT *output,
SYSTEM *system, UNITS *units, UPDATE *update,
int iBody, double *dTmp, char cUnit[]) {
double *daHZLimits; // Array of HZ limits
daHZLimits = malloc(6 * sizeof(double));
// Get limits
fdHabitableZoneKopparapu2013(body, control->Evolve.iNumBodies, daHZLimits);
if (daHZLimits[0] > 0) {
*dTmp = daHZLimits[0];
} else { // Means no stars inside body's orbit
*dTmp = -1;
free(daHZLimits);
return;
}
// Moist greenhouse limit is index 2
*dTmp = daHZLimits[2];
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsLength(units->iLength);
fsUnitsLength(units->iLength, cUnit);
}
free(daHZLimits);
}
void WriteHZLimitMaxGreenhouse(BODY *body, CONTROL *control, OUTPUT *output,
SYSTEM *system, UNITS *units, UPDATE *update,
int iBody, double *dTmp, char cUnit[]) {
double *daHZLimits; // Array of HZ limits
daHZLimits = malloc(6 * sizeof(double));
// Get limits
fdHabitableZoneKopparapu2013(body, control->Evolve.iNumBodies, daHZLimits);
if (daHZLimits[0] > 0) {
*dTmp = daHZLimits[0];
} else { // Means no stars inside body's orbit
*dTmp = -1;
free(daHZLimits);
return;
}
// Maximum greenhouse limit is index 3
*dTmp = daHZLimits[3];
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsLength(units->iLength);
fsUnitsLength(units->iLength, cUnit);
}
free(daHZLimits);
}
void WriteHZLimitEarlyMars(BODY *body, CONTROL *control, OUTPUT *output,
SYSTEM *system, UNITS *units, UPDATE *update,
int iBody, double *dTmp, char cUnit[]) {
double *daHZLimits; // Array of HZ limits
daHZLimits = malloc(6 * sizeof(double));
// Get limits
fdHabitableZoneKopparapu2013(body, control->Evolve.iNumBodies, daHZLimits);
if (daHZLimits[0] > 0) {
*dTmp = daHZLimits[0];
} else { // Means no stars inside body's orbit
*dTmp = -1;
free(daHZLimits);
return;
}
// Early Mars limit is index 4
*dTmp = daHZLimits[4];
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsLength(units->iLength);
fsUnitsLength(units->iLength, cUnit);
}
free(daHZLimits);
}
/*
* I
*/
void WriteBodyInc(BODY *body, CONTROL *control, OUTPUT *output, SYSTEM *system,
UNITS *units, UPDATE *update, int iBody, double *dTmp,
char cUnit[]) {
if (body[iBody].bDistOrb) {
*dTmp = fdInclination(body, iBody);
} else {
*dTmp = body[iBody].dInc;
}
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsAngle(units->iAngle);
fsUnitsAngle(units->iAngle, cUnit);
}
}
void WriteInstellation(BODY *body, CONTROL *control, OUTPUT *output,
SYSTEM *system, UNITS *units, UPDATE *update, int iBody,
double *dTmp, char cUnit[]) {
// Should have special case if bBinary=1
// if (body[iBody].bSpiNBody)
// Bary2OrbElems(body,control->Evolve.iNumBodies);
// Must take care since only bodies orbiting a star can have an instellation
if (iBody == 0) {
*dTmp = -1;
} else {
if (body[0].bStellar) {
*dTmp = fdInstellation(body, iBody);
} else {
*dTmp = -1;
}
}
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsEnergyFlux(units->iTime, units->iMass, units->iLength);
fsUnitsEnergyFlux(units, cUnit);
}
}
/*
* K
*/
void WriteK2Man(BODY *body, CONTROL *control, OUTPUT *output, SYSTEM *system,
UNITS *units, UPDATE *update, int iBody, double *dTmp,
char cUnit[]) {
// This is calculated during PropsAux
if (body[iBody].bEqtide) {
*dTmp = body[iBody].dK2Man;
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
}
} else {
*dTmp = -1;
}
}
void WriteImK2Man(BODY *body, CONTROL *control, OUTPUT *output, SYSTEM *system,
UNITS *units, UPDATE *update, int iBody, double *dTmp,
char cUnit[]) {
if (body[iBody].bEqtide) {
*dTmp = body[iBody].dImK2Man;
strcpy(cUnit, "");
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
}
} else {
*dTmp = -1;
}
}
void WriteKecc(BODY *body, CONTROL *control, OUTPUT *output, SYSTEM *system,
UNITS *units, UPDATE *update, int iBody, double *dTmp,
char cUnit[]) {
*dTmp = body[iBody].dKecc;
strcpy(cUnit, "");
}
/*
* L
*/
void WriteBodyLongA(BODY *body, CONTROL *control, OUTPUT *output,
SYSTEM *system, UNITS *units, UPDATE *update, int iBody,
double *dTmp, char cUnit[]) {
if (body[iBody].bDistOrb) {
*dTmp = fdLongA(body, iBody);
} else {
*dTmp = body[iBody].dLongA;
}
while (*dTmp < 0.0) {
*dTmp += 2 * PI;
}
while (*dTmp > 2 * PI) {
*dTmp -= 2 * PI;
}
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsAngle(units->iAngle);
fsUnitsAngle(units->iAngle, cUnit);
}
}
void WriteLongP(BODY *body, CONTROL *control, OUTPUT *output, SYSTEM *system,
UNITS *units, UPDATE *update, int iBody, double *dTmp,
char cUnit[]) {
if (body[iBody].bSpiNBody || body[iBody].bBinary) {
*dTmp = body[iBody].dLongP;
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsAngle(units->iAngle);
fsUnitsAngle(units->iAngle, cUnit);
}
} else {
*dTmp = atan2(body[iBody].dHecc, body[iBody].dKecc);
while (*dTmp < 0.0) {
*dTmp += 2 * PI;
}
while (*dTmp > 2 * PI) {
*dTmp -= 2 * PI;
}
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsAngle(units->iAngle);
fsUnitsAngle(units->iAngle, cUnit);
}
}
}
void WriteBodyArgP(BODY *body, CONTROL *control, OUTPUT *output, SYSTEM *system,
UNITS *units, UPDATE *update, int iBody, double *dTmp,
char cUnit[]) {
double varpi, Omega;
if (body[iBody].bDistOrb) {
varpi = atan2(body[iBody].dHecc, body[iBody].dKecc);
Omega = atan2(body[iBody].dPinc, body[iBody].dQinc);
*dTmp = varpi - Omega;
} else {
*dTmp = body[iBody].dArgP;
}
while (*dTmp < 0.0) {
*dTmp += 2 * PI;
}
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsAngle(units->iAngle);
fsUnitsAngle(units->iAngle, cUnit);
}
}
void WriteLXUVTot(BODY *body, CONTROL *control, OUTPUT *output, SYSTEM *system,
UNITS *units, UPDATE *update, int iBody, double *dTmp,
char cUnit[]) {
/* Multiple modules can contribute to this output */
int iModule;
if (body[iBody].bFlare && body[iBody].bStellar) {
*dTmp = body[iBody].dLXUVFlare + body[iBody].dLXUV;
}
else if (body[iBody].bStellar) {
*dTmp = body[iBody].dLXUV;
}
else if (body[iBody].bFlare) {
*dTmp = body[iBody].dLXUVFlare;
}
else if (!body[iBody].bFlare && !body[iBody].bStellar) {
*dTmp = -1;
}
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsEnergyFlux(units->iTime, units->iMass, units->iLength);
fsUnitsEnergyFlux(units, cUnit);
}
}
/*
* M
*/
void WriteMass(BODY *body, CONTROL *control, OUTPUT *output, SYSTEM *system,
UNITS *units, UPDATE *update, int iBody, double *dTmp,
char cUnit[]) {
*dTmp = body[iBody].dMass;
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsMass(units->iMass);
fsUnitsMass(units->iMass, cUnit);
}
}
/*
* O
*/
void WriteObliquity(BODY *body, CONTROL *control, OUTPUT *output,
SYSTEM *system, UNITS *units, UPDATE *update, int iBody,
double *dTmp, char cUnit[]) {
*dTmp = atan2(sqrt(pow(body[iBody].dXobl, 2) + pow(body[iBody].dYobl, 2)),
body[iBody].dZobl);
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsAngle(units->iAngle);
fsUnitsAngle(units->iAngle, cUnit);
}
}
void WriteBodyPrecA(BODY *body, CONTROL *control, OUTPUT *output,
SYSTEM *system, UNITS *units, UPDATE *update, int iBody,
double *dTmp, char cUnit[]) {
if (body[iBody].bDistRot == 0 && body[iBody].bPoise == 1) {
*dTmp = body[iBody].dPrecA;
} else {
*dTmp = atan2(body[iBody].dYobl, body[iBody].dXobl);
}
while (*dTmp < 0.0) {
*dTmp += 2 * PI;
}
while (*dTmp > 2 * PI) {
*dTmp -= 2 * PI;
}
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsAngle(units->iAngle);
fsUnitsAngle(units->iAngle, cUnit);
}
}
void WriteOrbAngMom(BODY *body, CONTROL *control, OUTPUT *output,
SYSTEM *system, UNITS *units, UPDATE *update, int iBody,
double *dTmp, char cUnit[]) {
char cTmp;
double *pdOrbMom;
if (body[iBody].bSpiNBody) {
pdOrbMom = fdOrbAngMom(body, control, iBody);
*dTmp = sqrt(pdOrbMom[0] * pdOrbMom[0] + pdOrbMom[1] * pdOrbMom[1] +
pdOrbMom[2] * pdOrbMom[2]);
free(pdOrbMom);
} else {
pdOrbMom = fdOrbAngMom(body, control, iBody);
*dTmp = *pdOrbMom;
free(pdOrbMom);
}
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp *= fdUnitsTime(units->iTime) /
(fdUnitsMass(units->iMass) * fdUnitsLength(units->iLength) *
fdUnitsLength(units->iLength));
fsUnitsAngMom(units, cUnit);
}
}
void WriteOrbEcc(BODY *body, CONTROL *control, OUTPUT *output, SYSTEM *system,
UNITS *units, UPDATE *update, int iBody, double *dTmp,
char cUnit[]) {
if (body[iBody].bBinary != 1) { // Not doing binary
if (iBody > 0) {
if (body[iBody].bDistOrb || body[iBody].bEqtide) {
*dTmp = sqrt(pow(body[iBody].dHecc, 2) + pow(body[iBody].dKecc, 2));
} else {
*dTmp = body[iBody].dEcc;
}
} else {
*dTmp = -1;
}
} else // Doing binary
{
if (body[iBody].iBodyType == 0) { // CBP
*dTmp = sqrt(pow(body[iBody].dHecc, 2) + pow(body[iBody].dKecc, 2));
} else if (body[iBody].iBodyType == 1 && iBody == 1) { // binary
*dTmp = sqrt(pow(body[iBody].dHecc, 2) + pow(body[iBody].dKecc, 2));
} else {
*dTmp = -1;
}
}
sprintf(cUnit, "%s", "");
}
void WriteLostEng(BODY *body, CONTROL *control, OUTPUT *output, SYSTEM *system,
UNITS *units, UPDATE *update, int iBody, double *dTmp,
char cUnit[]) {
*dTmp = body[iBody].dLostEng;
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsEnergy(units->iTime, units->iMass, units->iLength);
fsUnitsEnergy(units, cUnit);
}
}
void WriteOrbEnergy(BODY *body, CONTROL *control, OUTPUT *output,
SYSTEM *system, UNITS *units, UPDATE *update, int iBody,
double *dTmp, char cUnit[]) {
*dTmp = fdOrbEnergy(body, control, system, iBody);
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsEnergy(units->iTime, units->iMass, units->iLength);
fsUnitsEnergy(units, cUnit);
}
}
void WriteOrbMeanMotion(BODY *body, CONTROL *control, OUTPUT *output,
SYSTEM *system, UNITS *units, UPDATE *update, int iBody,
double *dTmp, char cUnit[]) {
if (body[iBody].bBinary == 0) { // Not doing binary
if (iBody > 0) {
*dTmp = body[iBody].dMeanMotion;
} else {
*dTmp = -1;
}
} else { // doing binary
if (iBody > 0) {
*dTmp = body[iBody].dMeanMotion;
} else {
*dTmp = -1;
}
}
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp *= fdUnitsTime(units->iTime);
fsUnitsRate(units->iTime, cUnit);
}
}
void WriteOrbPeriod(BODY *body, CONTROL *control, OUTPUT *output,
SYSTEM *system, UNITS *units, UPDATE *update, int iBody,
double *dTmp, char cUnit[]) {
if (body[iBody].bBinary == 0) { // Not doing binary
if (iBody > 0) {
*dTmp = fdSemiToPeriod(body[iBody].dSemi,
(body[0].dMass + body[iBody].dMass));
} else {
*dTmp = -1;
}
} else // Doing binary
{
if (body[iBody].iBodyType == 0) { // CBP
*dTmp = fdSemiToPeriod(body[iBody].dSemi, (body[0].dMass + body[1].dMass +
body[iBody].dMass));
} else if (body[iBody].iBodyType == 1 && iBody == 1) { // Binary
*dTmp = fdSemiToPeriod(body[iBody].dSemi,
(body[0].dMass + body[iBody].dMass));
} else {
*dTmp = -1;
}
}
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsTime(units->iTime);
fsUnitsTime(units->iTime, cUnit);
}
}
void WriteOrbSemi(BODY *body, CONTROL *control, OUTPUT *output, SYSTEM *system,
UNITS *units, UPDATE *update, int iBody, double *dTmp,
char cUnit[]) {
if (body[iBody].bBinary == 0) { // Not doing binary
if (iBody > 0) {
*dTmp = body[iBody].dSemi;
} else {
*dTmp = -1;
}
} else { // Doing binary
if (body[iBody].iBodyType == 0) { // CBP
*dTmp = body[iBody].dSemi;
} else if (body[iBody].iBodyType == 1 && iBody == 1) { // Binary
*dTmp = body[iBody].dSemi;
} else {
*dTmp = -1;
}
}
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsLength(units->iLength);
fsUnitsLength(units->iLength, cUnit);
}
}
/*
* R
*/
void WriteRadius(BODY *body, CONTROL *control, OUTPUT *output, SYSTEM *system,
UNITS *units, UPDATE *update, int iBody, double *dTmp,
char cUnit[]) {
*dTmp = body[iBody].dRadius;
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsLength(units->iLength);
fsUnitsLength(units->iLength, cUnit);
}
}
void WriteRadGyra(BODY *body, CONTROL *control, OUTPUT *output, SYSTEM *system,
UNITS *units, UPDATE *update, int iBody, double *dTmp,
char cUnit[]) {
*dTmp = body[iBody].dRadGyra;
sprintf(cUnit, "%s", "");
}
void WriteRotAngMom(BODY *body, CONTROL *control, OUTPUT *output,
SYSTEM *system, UNITS *units, UPDATE *update, int iBody,
double *dTmp, char cUnit[]) {
*dTmp = fdRotAngMom(body[iBody].dRadGyra, body[iBody].dMass,
body[iBody].dRadius, body[iBody].dRotRate);
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp *= fdUnitsTime(units->iTime) /
(fdUnitsMass(units->iMass) * fdUnitsLength(units->iLength) *
fdUnitsLength(units->iLength));
fsUnitsAngMom(units, cUnit);
}
}
void WriteRotKinEnergy(BODY *body, CONTROL *control, OUTPUT *output,
SYSTEM *system, UNITS *units, UPDATE *update, int iBody,
double *dTmp, char cUnit[]) {
*dTmp = fdRotKinEnergy(body[iBody].dMass, body[iBody].dRadius,
body[iBody].dRadGyra, body[iBody].dRotRate);
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsEnergy(units->iTime, units->iMass, units->iLength);
fsUnitsEnergy(units, cUnit);
}
}
void WriteRotRate(BODY *body, CONTROL *control, OUTPUT *output, SYSTEM *system,
UNITS *units, UPDATE *update, int iBody, double *dTmp,
char cUnit[]) {
*dTmp = body[iBody].dRotRate;
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp *= fdUnitsTime(units->iTime);
fsUnitsRate(units->iTime, cUnit);
}
}
void WriteRotPer(BODY *body, CONTROL *control, OUTPUT *output, SYSTEM *system,
UNITS *units, UPDATE *update, int iBody, double *dTmp,
char cUnit[]) {
*dTmp = fdFreqToPer(body[iBody].dRotRate);
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsTime(units->iTime);
fsUnitsTime(units->iTime, cUnit);
}
}
void WriteRotVel(BODY *body, CONTROL *control, OUTPUT *output, SYSTEM *system,
UNITS *units, UPDATE *update, int iBody, double *dTmp,
char cUnit[]) {
*dTmp = fdRotVel(body[iBody].dRadius, body[iBody].dRotRate);
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp *= fdUnitsTime(units->iTime) / fdUnitsLength(units->iLength);
fsUnitsVel(units, cUnit);
}
}
/** SurfaceEnergyFluc is complicated as it can be determined by thermint,
radheat, and/or eqtide. Furthermore, eqtide is complicated by heat sources in
the solid interior, ocean, and/envelope. */
void WriteSurfaceEnergyFlux(BODY *body, CONTROL *control, OUTPUT *output,
SYSTEM *system, UNITS *units, UPDATE *update,
int iBody, double *dTmp, char cUnit[]) {
/* Surface Energy Flux is complicated because it either all comes
through thermint, or it can be from eqtide and/or radheat. */
*dTmp = 0;
// First check if an ocean or envelope is present, and add ocean/envelope flux
if (body[iBody].bEqtide) {
int bOcean = 0;
int bEnv = 0;
// From initial conditions, did we want to model ocean tidal effects?
if (body[iBody].dTidalQOcean < 0) {
bOcean = 0;
} else {
bOcean = 1;
}
// Same as ocean, but for envelope
if (body[iBody].dTidalQEnv < 0) {
bEnv = 0;
} else {
bEnv = 1;
}
if ((body[iBody].bOcean && bOcean) || (body[iBody].bEnv && bEnv)) {
*dTmp += fdSurfEnFluxOcean(body, iBody);
}
}
if (body[iBody].bThermint) {
*dTmp += fdHfluxSurf(body, iBody);
} else {
if (body[iBody].bEqtide) {
*dTmp += fdSurfEnFluxEqtide(body, system, update, iBody,
control->Evolve.iEqtideModel);
}
if (body[iBody].bRadheat) {
*dTmp += fdSurfEnFluxRadTotal(body, system, update, iBody, iBody);
}
}
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsEnergyFlux(units->iTime, units->iMass, units->iLength);
fsUnitsEnergyFlux(units, cUnit);
}
}
void WriteTidalQ(BODY *body, CONTROL *control, OUTPUT *output, SYSTEM *system,
UNITS *units, UPDATE *update, int iBody, double *dTmp,
char cUnit[]) {
if (body[iBody].bEqtide) {
if (body[iBody].bThermint && !body[iBody].bOcean && !body[iBody].bEnv) {
*dTmp = body[iBody].dTidalQMan;
} else {
//*dTmp = body[iBody].dTidalQ;
if (body[iBody].bUseOuterTidalQ) {
if (body[iBody].bEnv) {
*dTmp = body[iBody].dK2Env / body[iBody].dImK2Env;
} else if (body[iBody].bOcean) {
*dTmp = body[iBody].dK2Ocean / body[iBody].dImK2Ocean;
} else {
*dTmp = body[iBody].dK2Man / body[iBody].dImK2Man;
}
} else {
if (body[iBody].bMantle) {
*dTmp = -body[iBody].dK2Man / body[iBody].dImK2Man;
} else {
*dTmp = -body[iBody].dK2 / body[iBody].dImK2;
}
}
}
} else {
// If EqTide not called, return -1
*dTmp = -1;
}
strcpy(cUnit, "");
}
void WriteTidalQMantle(BODY *body, CONTROL *control, OUTPUT *output,
SYSTEM *system, UNITS *units, UPDATE *update, int iBody,
double *dTmp, char cUnit[]) {
// Updated every timestep by PropsAuxEqtideThermint
if (body[iBody].bEqtide) {
*dTmp = body[iBody].dTidalQMan;
} else {
*dTmp = -1;
}
strcpy(cUnit, "");
}
void WriteTime(BODY *body, CONTROL *control, OUTPUT *output, SYSTEM *system,
UNITS *units, UPDATE *update, int iBody, double *dTmp,
char cUnit[]) {
*dTmp = control->Evolve.iDir * control->Evolve.dTime;
if (output->bDoNeg[iBody]) {
*dTmp *= output->dNeg;
strcpy(cUnit, output->cNeg);
} else {
*dTmp /= fdUnitsTime(units->iTime);
fsUnitsTime(units->iTime, cUnit);
}