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vplanet.h
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/**
@file vplanet.h
@brief The main entry point for the code. All the magic starts here.
@author Rory Barnes ([RoryBarnes](https://github.com/RoryBarnes/))
@date May 7 2014
*/
#include <assert.h>
#include <ctype.h>
#include <float.h>
#include <math.h>
#include <stdio.h>
#include <stdlib.h>
#include <string.h>
#include <sys/stat.h>
#include <sys/types.h>
#include <time.h>
#ifdef __x86_64__
#include <xmmintrin.h>
#endif
// Windows-specific
#ifdef VPLANET_ON_WINDOWS
#define unlink _unlink
#else
#include <unistd.h>
#endif
#ifndef M_PI
#define M_PI 3.14159265358979323846
#endif
/*! Top-level declarations */
/* Implemented Moduules
The number is a bit value that can be used to uniquely identify the modules
that have been applied to a specific body. The value is stored in
module.iModuleBitSum.
*/
#define EQTIDE 2
#define RADHEAT 4
#define ATMESC 8
#define DISTORB 16
#define DISTROT 32
#define STELLAR 64
#define THERMINT 128
#define POISE 256
#define FLARE 512
#define BINARY 1024
#define GALHABIT 2048
#define SPINBODY 4096
#define DISTRES 8192
#define MAGMOC 16384
/* Fundamental constants; Some of these are taken from the IAU working
group on Fundamental constants, as described in Prsa et al. 2016. */
/* Units: Calculations are done in SI */
#define BIGG \
6.67428e-11 // From Luzum et al., 2011; value recommended \
// by IAU NSFA in Prsa et al. 2016
#define PI M_PI // Quick fix
#define KGAUSS 0.01720209895 // Gauss' Gravitational Constamt
#define EPS 1e-10 // Precision for difference of doubles to be effectively 0
#define AUM 1.49597870700e11 // Exact m/AU per 31 AUG 2012 IAU resolution B2
#define AUPC 206265.0 // AU per parsec
#define LIGHTSPEED 299792458.0 // Speed of light
#define MEARTH 5.972186e24 // Earth's mass; Prsa et al. 2016
#define MSUN 1.988416e30 // Sun's mass; Prsa et al. 2016
#define RSUN 6.957e8 // Sun's radius; Prsa et al. 2016
#define YEARSEC 3.15576e7 // Seconds per year
#define DAYSEC 86400 // Seconds per day
#define REARTH 6.3781e6 // Earth's Equatorial Radius; Prsa et al. 2016
#define RJUP 7.1492e7 // Jupiter's Equatorial Radius; Prsa et al. 2016
#define RNEP 2.4764e7 // Neptune's Radius
#define MNEP 1.0244e26 // Neptune's Mass
#define RHOEARTH 5515 // Earth's Density
#define eEARTH 0.016710219 // Earth's Eccentricity
#define MJUP 1.898130e27 // Jupiter's mass; Prsa et al. 2016
#define YEARDAY 365.25 // Days per year
#define MSAT 5.6851e26 // Saturns' Mass
#define DEGRAD 0.017453292519444445 // Degrees per radian
#define TOMASS 1.39e21 // Mass of one terrestrial ocean in kg (TO)
#define ATOMMASS 1.660538921e-27 // Atomic Mass
#define SIGMA 5.670367e-8 // Stefan-Boltzmann Constant
#define RGAS 8.3144598 // gas constant in J K^-1 mol^-1
#define KBOLTZ 1.38064852e-23 // Boltzmann constant, J/K
#define ALPHA_STRUCT \
0.6 // Structural constant for spherical mass \
//distribution potential energy (E_pot = -ALPHA*BIGG*M^2/R)
// Angle unit IDs
#define U_RADIANS 0
#define U_DEGREES 1
// Length unit IDs
#define U_METER 0
#define U_CENTIMETER 1
#define U_KILOMETER 2
#define U_SOLARRADIUS 3
#define U_EARTHRADIUS 4
#define U_JUPRADIUS 5
#define U_AU 6
// Mass unit IDs
#define U_GRAM 0
#define U_KILOGRAM 1
#define U_SOLARMASS 2
#define U_EARTHMASS 3
#define U_JUPITERMASS 4
#define U_NEPTUNEMASS 5
// Temperature unit IDs
#define U_KELVIN 0
#define U_CELSIUS 1
#define U_FARENHEIT 2
// Time unit IDs
#define U_SECOND 0
#define U_DAY 1
#define U_YEAR 2
#define U_MYR 3
#define U_GYR 4
/* Do not change these declarations */
extern const double dHUGE;
extern const double dTINY;
/* Do not change these declarations */
// IO limits for files, lines, and names
#define OPTLEN 48 /* Maximum length of an option */
#define OPTDESCR 128 /* Number of characters in option description */
#define OPTLONDESCR 2048 /* Number of characters in option long description */
/* !!! Hack to get long description and module list formatting for Long Help.
It'd be better to keep LINE back at 256 for memory, and malloc the char's,
but I don't know how to do that. */
#define LINE 2048 /* Maximum number of characters in a line */
#define NAMELEN 100
#define MAXFILES 128 /* Maximum number of input files */
#define MAXARRAY \
128 /* Maximum number of options in \
* an option array */
#define NUMOPT \
1000 /* Number of options that could be \
* in MODULE */
#define MAXLINES \
256 /* Maximum Number of Lines in an \
* input file */
#define OUTLEN \
48 /* Maximum number of characters in an output column header \
*/
#define OUTDESCR 256 /* Number of characters in output description */
#define OUTLONDESCR 2048 /* Number of characters in output long description */
/* Forward declaration of structs.
This is necessary in order to add pointers to structs into typedef'd functions
*/
typedef struct BODY BODY;
typedef struct CONTROL CONTROL;
typedef struct EVOLVE EVOLVE;
typedef struct FILES FILES;
typedef struct HALT HALT;
typedef struct INFILE INFILE;
typedef struct IO IO;
typedef struct MODULE MODULE;
typedef struct OPTIONS OPTIONS;
typedef struct OUTFILE OUTFILE;
typedef struct OUTPUT OUTPUT;
typedef struct SYSTEM SYSTEM;
typedef struct UNITS UNITS;
typedef struct UPDATE UPDATE;
typedef struct VERIFY VERIFY;
/*! \brief BODY contains all the physical parameters for every object in the
* system.
*/
struct BODY {
/* Body Properties */
char cName[NAMELEN]; /**< Body's Name */
char sColor[OPTLEN]; /**< Body color (for plotting) */
int bMantle; /**< Is there a mantle? */
int bOcean; /**< Is there an ocean? */
int bEnv; /**< Is there an envelope? */
int iBodyType; /**< Type of object: 0=star, 1=rocky planet, 2 = giant */
double dAge; /**< Body's Age */
double dMass; /**< Body's Mass */
double dSolidMass; /**< Mass of a body's solid component */
double dRadius; /**< Radius of body */
double dDensity; /**< Bulk density of body*/
double dGravAccel; /**< Body's gravitational acceleration */
double dK2; /**< Body's Total Love number */
double dImK2; /**< Imaginary part of Love's k_2 (total) */
double dObliquity; /**< Body's Obliquity */
double dCosObl; /**< Cosine of body's obliquity */
double dRotRate; /**< Body's Rotation Rate */
double dRotPer; /**< Body's Rotation Period */
double dRotVel; /**< Body's Rotational Velocity */
double dRadGyra; /**< Body's Radius of Gyration */
/* Orbital Properties. By convention, these are stored in the
* second element in the BODY array and, if using binary
* in the secondary (1st (0, 1, ..)) body*/
double dSemi; /**< Body's Semi-major Axis */
double dEcc; /**< Body's Eccentricity */
double dMeanMotion; /**< Body's Mean Motion */
double dOrbPeriod; /**< Body's Orbital Period */
double dEccSq; /**< Eccentricity squared */
/* ATMESC Parameters */
int bAtmEsc; /**< Apply Module ATMESC? */
int bInstantO2Sink; /**< Is oxygen absorbed instantaneously at the surface? */
int bRunaway; /**< Is the planet experiencing a runaway greenhouse? */
int bCalcFXUV; /**< Does incidenx XUV flow need to be calculated every
time step? */
int bEnvelopeLostMessage; /**< Has the envelope lost message been printed? */
int bIgnoreRocheLobe; /**< Ignore Roche lobe overflow? */
int bUseEnergyLimited; /**< Use energy-limited escape */
int bUseBondiLimited; /**< Use Bondi-limited H mass loss */
int bUseRRLimited; /**< Use radiation/recombination-limited H mass loss */
int bAtmEscAuto; /**< Transition H escape regime depending on physics */
int bAutoThermTemp; /**< Calculate thermal temperature from environemnt? */
int bStopWaterLossInHZ; /**< Stop water loss once planet enters habitable
zone? */
int iWaterLossModel; /**< Water Loss and Oxygen Buildup Model */
int iAtmXAbsEffH2OModel; /**< Water X-ray/XUV absorption efficiency evolution
model */
int iPlanetRadiusModel; /**< Planet Radius model. */
int iWaterEscapeRegime; /**< Track water escape regime */
int iHEscapeRegime; /**< Tracks H escape regime */
double dSurfaceWaterMass; /**< Surface water mass */
double dMinSurfaceWaterMass; /**< Minimum surface water to avoid a halt */
double dOxygenMass; /**< Atmospheric oxygen mass */
double dOxygenMantleMass; /**< Mass of oxygen in the mantle */
double dEnvelopeMass; /**< Envelope mass */
double dMinEnvelopeMass; /**< Minimum envelope mass to avoid a halt */
double dXFrac; /**< XUV radius in units of planet's radius */
double dAtmXAbsEffH; /**< Effective XUV absorpation efficiency for hydrogen */
double dAtmXAbsEffH2O; /**< Effective XUV absorpation efficiency for water */
double dRGDuration; /**< Duration of runaway greenhouse phase */
double dKTide; /**< Tidal enhancement factor for mass loss */
double dMinKTide; /**< Minimum allowed value for KTide */
double dAtmEscXi; /**< Ratio of Roche radius to XUV radius */
double dMDotWater; /**< Water mass loss rate */
double dFHRef; /**< Reference hydrogen escape value */
double dOxygenEta; /**< Factor for drag of oxygen by hydrogen */
double dCrossoverMass; /**< Atomic mass at which drag begins */
double dFHDiffLim; /**< Diffusion-limited H escape rate */
double dRadXUV; /**< XUV Radius in Lehmer-Catling model */
double dRadSolid; /**< Solid planet radius in Lehmer-Catling model */
double dPresSurf; /**< Surface Pressure in Lehmer-Catling model */
double dPresXUV; /**< Pressure at XUV radius in Lehmer-Catling model */
double dScaleHeight; /**< Scale Height used in Lehmer-Catling model */
double dThermTemp; /**< Thermosphere's temperature in Lehmer-Catling model */
double dAtmGasConst; /**< Atmosphere's gas constant in Lehmer-Catling model */
double dFXUV; /**< XUV Flux at planet's atmosphere */
double dJeansTime; /**< Jeans timescale for atmospheric escape */
double dFlowTemp; /**< Temperature of the hydrodynamic flow */
double dRocheRadius; /**< Radius of the Roche lobe */
double dBondiRadius; /**< Bondi (Sonic) Radius */
double dEnvMassDt; /**< Time derivative of H envelope mass */
/* BINARY parameters */
int bBinary; /**< Apply BINARY module? */
double dR0; /**< Guiding Radius,initially equal to dSemi */
double dCBPR; /**< CBP orbital radius */
double dCBPZ; /**< CBP height above/below the orbital plane */
double dCBPPhi; /**< CBP azimuthal angle in orbital plane */
double dCBPRDot; /**< CBP radial orbital velocity */
double dCBPZDot; /**< CBP z orbital velocity */
double dCBPPhiDot; /**< CBP phi angular orbital velocity */
double dFreeEcc; /**< CBP's free eccentricity */
double dFreeInc; /**< CBP's free inclination, or binary's inclination */
double dInc; /**< Orbital inclication */
double dLL13N0; /**< CBP's Mean motion defined in LL13 eqn 12 */
double
dLL13K0; /**< CBP's radial epicyclic frequency defined in LL13 eqn 26 */
double dLL13V0; /**< CBP's vertical epicyclic frequency defined in LL13 eqn 36
*/
double dLL13PhiAB; /**< Binary's initial mean anomaly */
double dCBPM0; /**< CBP's initial mean anomaly */
double dCBPZeta; /**< CBP's z oscillation angle (see LL13 eqn 35) */
double dCBPPsi; /**< CBP's R, phi oscillation phase angle (see LL13 eqn 27) */
/* SPINBODY parameters */
int bSpiNBody; /**< Has module SPINBODY been implemented */
double dVelX; /**< x Component of the body's velocity */
double dVelY; /**< y Component of the body's velocity */
double dVelZ; /**< z Component of the body's velocity */
double dPositionX; /**< x Component of the body's position */
double dPositionY; /**< y Component of the body's position */
double dPositionZ; /**< z Component of the body's position */
double bUseOrbParams; /**< Boolean flag to use orbital parameters as inputs */
double *dDistance3; /**< Distance cubed to different perturbers */
double *dDistanceX; /**< X Distance between two bodies */
double *dDistanceY; /**< Y Distance between two bodies */
double *dDistanceZ; /**< Z Distance between two bodies */
double *dHCartPos; /**< Heliocentric Cartesian Position used for orbital
element calculations */
double *dHCartVel; /**< Heliocentric Cartesian Velocity used for orbital
element calculations */
double *dBCartPos; /**< Barycentric Cartesian Position used for orbital
element calculations */
double *dBCartVel; /**< Barycentric Cartesian Velocity used for orbital
element calculations */
double dGM; /**< GM for the star */
double dMu; /**< G(M+m) */
int iGravPertsSpiNBody; /**< Number of bodies that are orbitally relevent
(equal to for evolve->iNumBodies) */
/* DISTORB parameters */
int bDistOrb; /**< Has module DISTORB been implemented */
double dHecc; /**< Poincare H */
double dKecc; /**< Poincare K */
double dPinc; /**< Poincare P */
double dQinc; /**< Poincare Q */
double dSinc; /**< sin(0.5*Inclination) */
double dLongA; /**< Longitude of ascending node */
double dArgP; /**< Argument of pericenter */
double dLongP; /**< Longitude of pericenter */
double dMeanA; /**< Mean anomaly (only used for inv plane calculation) */
double dTrueL; /**< True longitude (only used for insolation calculation */
double dEccA; /**< Eccentric anomaly (only used for inv plane calculation) */
double *daCartPos; /**< Cartesian position of body (only used for inv plane
calc) */
double *daCartVel; /**< Cartesian velocity of body (only used for inv plane
calc) */
int iGravPerts; /**< Number of bodies which perturb the body */
int *iaGravPerts; /**< Which bodies are perturbers of the body */
int iEigFreqs; /**< Number of eigenfrequencies that control the body's motion
*/
int *iaEigFreqs; /**< Indices of eigenfrequencies */
int bGRCorr; /**< Use general relativistic correction in DistOrb+DistRot?*/
int iDistOrbModel; /**< Which orbital model to use (RD4 or LL2) */
double
dSemiPrev; /**< Semi-major axis at which LL2 eigensolution was calc'd */
double dEigenvalue; /**< User input eigenvalue (diagnostic only) */
double
dEigenvector; /**< User input eigenvector amplitude (diagnostic only) */
int bEigenSet; /**< Manually set an eigenvalue/frequency */
double *daLOrb; /**< Orbital angular momentum */
double *daLOrbTmp; /**< Temp copy of orbital angular momentum */
double dRPeri; /**< Pericenter distance */
double dRApo; /**< Apocenter distance */
/* DISTROT parameters */
int bDistRot;
double dPrecA; /**< Precession angle */
double dTrueApA; /**< True anomaly at equinox (used for invariable plane
conversion) */
double dDynEllip; /**< Dynamical ellipticity */
double dYobl; /**< sin(obliq)*sin(preca) */
double dXobl; /**< sin(obliq)*cos(preca) */
double dZobl; /**< cos(obliq) */
double *daLRot; /**< Spin angular momentum vector */
double *daLRotTmp; /**< Temp copy of spin angular momentum vector */
int bForcePrecRate; /**< Set precession rate to a fixed value */
double dPrecRate; /**< Value to set fixed precession rate to */
int bCalcDynEllip; /**< Calc dyn ellipticity from spin, radius, mass, inertia?
*/
int bRelaxDynEllip; /**< shape of planet relaxes when spun down */
int bReadOrbitData; /**< Use orbit data from file rather than distorb */
char cFileOrbitData[NAMELEN]; /**< read orbital data from this file
(distorb=0) */
double *daTimeSeries; /**< time series for orbital data */
double *daSemiSeries; /**< time series for orbital data */
double *daEccSeries; /**< time series for orbital data */
double *daIncSeries; /**< time series for orbital data */
double *daArgPSeries; /**< time series for orbital data */
double *daLongASeries; /**< time series for orbital data */
double *daMeanASeries; /**< time series for orbital data */
int iCurrentStep; /**< index for time series arrays */
double *daHeccSeries; /**< time series for orbital data */
double *daKeccSeries; /**< time series for orbital data */
double *daPincSeries; /**< time series for orbital data */
double *daQincSeries; /**< time series for orbital data */
double dPdot; /**< inclination derivative used for obliquity evol */
double dQdot; /**< inclination derivative used for obliquity evol */
int iNLines; /**< Number of lines of orbital data file */
double dSpecMomInertia; /**< C/M/R^2 used for dynamical ellipticity
calculation */
/* EQTIDE Parameters */
int bEqtide; /**< Apply Module EQTIDE? */
int bTideLock; /**< Is a body tidally locked? */
double dLockTime; /**< Time when body tidally-locked */
int bUseTidalRadius; /**< Set a fixed tidal radius? */
int bUseOuterTidalQ; /**< Set total Q to outer layer's value? */
double dTidalRadius; /**< Radius used by tidal evoltion equations (CPL only
currently) */
int iTidePerts; /**< Number of Tidal Perturbers */
int *iaTidePerts; /**< Body #'s of Tidal Perturbers */
char saTidePerts[MAXARRAY][NAMELEN]; /**< Names of Tidal Perturbers */
double dK2Man; /**< Mantle k2 love number */
double dK2Ocean; /**< Ocean's Love Number */
double dK2Env; /**< Envelope's Love Number */
double dTidalQMan; /**< Tidal Q of the Mantle */
double dTidalQOcean; /**< Body's Ocean Component to Tidal Q */
double dTidalQEnv; /**< Body's Envelope Component to Tidal Q */
double dImK2Man; /**< Mantle Im(k2) love number */
double dImK2ManOrbModel; /**< Mantle Im(k2) model for DB15 orbital eqns */
double dImK2Ocean; /**< Envelope Component to Imaginary part of Love's K_2 */
double dImK2Env; /**< Envelope Component to Imaginary part of Love's K_2 */
double dTidalQ; /**< Body's Tidal Q */
double dTidalTau; /**< Body's Tidal Time Lag */
double *dTidalZ; /**< As Defined in \cite HellerEtal2011 */
double *dTidalChi; /**< As Defined in \cite HellerEtal2011 */
double **dTidalF; /**< As Defined in \cite HellerEtal2011 */
double *dTidalBeta; /**< As Defined in \cite HellerEtal2011 */
int **iTidalEpsilon; /**< Signs of Phase Lags */
double dDeccDtEqtide; /**< Eccentricity time rate of change */
double *daDoblDtEqtide; /**< Obliquity time rate of change */
/* RADHEAT Parameters: H = Const*exp[-Time/HalfLife] */
int bRadheat; /**< Apply Module RADHEAT? */
double d26AlConstMan; /**< Body's Mantle 26Al Decay Constant */
double d26AlMassMan; /**< Body's Mantle Mass of 26Al */
double d26AlNumMan; /**< Body's Mantle Number of 26Al Atoms */
double d26AlPowerMan; /**< Body's Mantle Internal Power Due to 26Al Decay */
double d26AlConstCore; /**< Body's Core 26Al Decay Constant */
double d26AlMassCore; /**< Body's Core Mass in 26Al */
double d26AlNumCore; /**< Body's Core Number of 26Al Atoms */
double d26AlPowerCore; /**< Body's Core Power from 26Al */
double d40KConstMan; /**< Body's Mantle 40K Decay Constant */
double d40KMassMan; /**< Body's Mantle Mass of 40K */
double d40KNumMan; /**< Body's Mantle Number of 40K Atoms */
double d40KPowerMan; /**< Body's Mantle Internal Power Due to 40K Decay */
double d40KConstCore; /**< Body's Core 40K Decay Constant */
double d40KNumCore; /**< Body's Core Number of 40K Atoms */
double d40KPowerCore; /**< Body's Core Power due to 40K */
double d40KMassCore; /**< Body's Core Mass of 40K */
double d40KConstCrust; /**< Body's Crust 40K Decay Constant */
double d40KNumCrust; /**< Body's Crust Number of 40K Atoms */
double d40KPowerCrust; /**< Body's Crust Power due to 40K */
double d40KMassCrust; /**< Body's Crust Mass of 40K */
double d232ThConstMan; /**< Body's Thorium-232 Decay Constant */
double d232ThNumMan; /**< Body's Number of Thorium-232 Atoms */
double d232ThPowerMan; /**< Body's Internal Power Due to Thorium-232 Decay */
double d232ThMassMan; /**< Body's Total Mass of Thorium-232 Atoms */
double d232ThConstCore;
double d232ThNumCore;
double d232ThPowerCore;
double d232ThMassCore;
double d232ThConstCrust;
double d232ThNumCrust;
double d232ThPowerCrust;
double d232ThMassCrust;
double d238UConstMan; /**< Body's Uranium-238 Decay Constant */
double d238UNumMan; /**< Body's Number of Uranium-238 Atoms */
double d238UPowerMan; /**< Body's Internal Power Due to Uranium-238 Decay */
double d238UMassMan; /**< Body's Total Mass of Uranium-238 Atoms */
double d238UConstCore;
double d238UNumCore;
double d238UPowerCore;
double d238UMassCore;
double d238UConstCrust;
double d238UNumCrust;
double d238UPowerCrust;
double d238UMassCrust;
double d235UConstMan;
double d235UNumMan;
double d235UPowerMan;
double d235UMassMan;
double d235UConstCore;
double d235UNumCore;
double d235UPowerCore;
double d235UMassCore;
double d235UConstCrust;
double d235UNumCrust;
double d235UPowerCrust;
double d235UMassCrust;
double dRadPowerTotal; /**< Total planet Radiogenic Power */
double dRadPowerMan; /**< Total Mantle Radiogenic Power */
double dRadPowerCore; /**< Total Core Radiogenic Power */
double dRadPowerCrust; /**< Total Crust Radiogenic Power */
/* Thermint Parameters */
int bThermint; /**< Apply Module THERMINT? */
double dTSurf; /**< Surface Temperature */
double dTMan; /**< Temperature Mantle AVE */
double dTCore; /**< Temperature Core AVE */
double dTUMan; /**< Temperature UMTBL */
double dTLMan; /**< Temperature LMTBL */
double dTCMB; /**< Temperature CMB */
double dTICB; /**< Temperature ICB */
double dBLUMan; /**< UM TBL thickness */
double dBLLMan; /**< LM TBL thickness */
double dTJumpUMan; /**< Abs Temperature Jump across UMTBL */
double dTJumpLMan; /**< Abs Temperature Jump across LMTBL */
double dSignTJumpUMan; /**< Sign of Temperature Jump across UMTBL */
double dSignTJumpLMan; /**< Sign of Temperature Jump across LMTBL */
double dViscUManArr; /**< Viscosity UMTBL Arrhenius Law */
double dViscUMan; /**< Viscosity UMTBL */
double dViscLMan; /**< Viscosity LMTBL */
double dViscMMan; /**< Viscosity Mid (ave) mantle */
double dDynamViscos; /**< Dynamic viscosity of the mantle */
double dViscJumpMan; /**< Viscosity Jump UM to LM */
double dShmodUMan; /**< Shear modulus UMTBL */
double dShmodLMan; /**< Shear modulus LMTBL */
double dTsolUMan; /**< Solidus Temperature UMTBL */
double dTliqUMan; /**< Liquidus Temperature UMTBL */
double dTsolLMan; /**< Solidus Temperature LMTBL */
double dTliqLMan; /**< Liquidus Temperature LMTBL */
double dFMeltUMan; /**< Melt fraction UMTBL */
double dFMeltLMan; /**< Melt fraction LMTBL */
double dMeltfactorUMan; /**< Melt Phase Factor for Rheology */
double dMeltfactorLMan; /**< Melt Phase Factor for Rheology */
double dFixMeltfactorUMan; /**< Melt Phase Factor for Rheology */
double dViscMeltB; /**< Viscosity Melt Factor B */
double dViscMeltGamma; /**< Viscosity Melt Factor Gamma */
double dViscMeltDelta; /**< Viscosity Melt Factor Delta */
double dViscMeltXi; /**< Viscosity Melt Factor Xi */
double dViscMeltPhis; /**< Viscosity Melt Factor Phis */
double dDepthMeltMan; /**< Depth to base of UM Melt layer */
double dTDepthMeltMan; /**< Temp at base of UM Melt layer */
double dTJumpMeltMan; /**< Temp Jump to base of UM Melt layer */
double dMeltMassFluxMan; /**< Mantle upwelling melt mass flux */
double dRayleighMan; /**< Mantle Rayleigh Number */
/* Time Derivatives & Gradients */
double dTDotMan; /**< Time deriv of mean mantle temp */
double dTDotCore; /**< time deriv of mean core temp */
double dHfluxUMan; /**< hflux upper mantle thermal boundary layer (UMTBL) */
double dHflowUMan; /**< hflow UMTBL */
double dHfluxLMan; /**< hflux lower mantle thermal boundary layer (UMTBL) */
double dHflowLMan; /**< hflow LMTBL */
double dHfluxCMB; /**< hflux CMB */
double dHflowCMB; /**< hflow CMB */
double dHflowTidalMan; /**< hflow tidal dissipation in mantle */
double dHflowTidalCore; /**< hflow tidal dissipation in core */
double dHflowLatentMan; /**< latent hflow from solidification of mantle */
double dHflowMeltMan; /**< Eruptive Melt Hflow from mantle */
double dHflowSecMan; /**< Mantle Secular Heat flow */
double dMassICDot; /**< Mass Growth Rate of IC */
double dHflowLatentIC; /**< latent hflow from solidification of IC */
double dPowerGravIC; /**< latent hflow from solidification of IC */
double dHflowICB; /**< hflow across ICB */
double dHfluxSurf; /**< hflux surface of mantle */
double dHflowSurf; /**< hflow surface of mantle */
double dTidalPowMan; /**< Tidal Dissipation Power in Mantle */
/* Core Variables */
double dRIC; /**< IC radius */
double dDRICDTCMB; /**< d(R_ic)/d(T_cmb) */
double dDOC; /**< OC shell thickness */
double dThermConductOC; /**< Thermal conductivity OC */
double dThermConductIC; /**< Thermal conductivity IC */
double dChiOC; /**< OC light element concentration chi. */
double dChiIC; /**< IC light element concentration chi. */
double dMassOC; /**< OC Mass. */
double dMassIC; /**< IC Mass. */
double dMassChiOC; /**< OC Chi Mass. */
double dMassChiIC; /**< IC Chi Mass. */
double dDTChi; /**< Core Liquidus Depression */
double dHfluxCMBAd; /**< CMB Adiabatic Heat flux. */
double dHfluxCMBConv; /**< CMB Convective (super-adiabatic) Heat flux. */
double dCoreBuoyTherm; /**< Core Thermal buoyancy flux */
double dCoreBuoyCompo; /**< Core Compositional buoyancy flux */
double dCoreBuoyTotal; /**< Core total (therm+compo) buoyancy flux */
double dGravICB; /**< Gravity at ICB */
double dDensAnomICB; /**< Density anomaly across ICB (Delta rho_chi in DB14).
*/
double dRICDot; /**< Inner core growth rate */
/* Magnetic Field */
double dMagMom; /**< Core Dynamo Magnetic Moment scaling law. */
double dMagMomCoef; /**< Dynamo magnetic moment scaling law dipolarity
coefficient (gamma_d in DB14) */
double dPresSWind; /**< Stellar wind pressure at planets orbit. */
double dMagPauseRad; /**< Magnetopause stand-off radius from center of planet
*/
/* Constants */
double dViscRatioMan; /**< Viscosity Ratio Man */
double dEruptEff; /**< Mantle melt eruption efficiency */
double dViscRef; /**< Mantle Viscosity Reference (coefficient) */
double dTrefLind; /**< Core Liquidus Lindemann Reference (coefficient) */
double dDTChiRef; /**< Core Liquidus Depression Reference (E) */
double dStagLid; /**< Stagnant Lid heat flow switch (0 or 1)*/
double dManHFlowPref; /**< Mantle Hflow Prefix */
double dActViscMan; /**< Mantle viscosity activation energy */
double dShModRef; /**< reference kinematic mantle shear modulus */
double dStiffness; /**< effective stiffness of mantle */
double dDLind; /**< lindemann's law length scale for iron liquidus*/
double dDAdCore; /**< liq iron core adiabatic length scale */
double dAdJumpM2UM; /**< adiabatic temp jump from ave mantle to UM */
double dAdJumpM2LM; /**< adiabatic temp jump from ave mantle to LM */
double dAdJumpC2CMB; /**< adiabatic temp jump from ave core to CMB */
double dElecCondCore; /**< electrical conductivity of core */
/* STELLAR Parameters */
int bStellar;
double dLuminosity;
double dTemperature;
double dSatXUVFrac;
double dSatXUVTime;
double dXUVBeta;
int iStellarModel;
int iMagBrakingModel;
int iWindModel;
int iXUVModel;
double dLXUV; // Not really a STELLAR parameter
double iHZModel;
double dLostAngMom; /**< Angular momemntum lost to space via magnetic braking
*/
double dLostEng; /**< Energy lost to space, i.e. via stellar contraction */
int bRossbyCut; /**< Whether or not to shut off magnetic braking for
Ro>ROSSBYCRIT */
int bEvolveRG; /**< Whether or not to evolve radius of gyration? Defaults to 0
*/
/* POISE parameters */
int bPoise; /**< Apply POISE module? */
double dAblateFF; /**< Scaling factor for ice ablation rate */
int bAccuracyMode; /**< This forces EBM to re-invert matrix every time step */
double dAlbedoGlobal; /**< Global average albedo (Bond albedo) */
double dAlbedoGlobalTmp; /**< A copy of global average albedo (sometimes
needed) */
double dAlbedoLand; /**< Sets base albedo of land (sea model) */
double dAlbedoWater; /**< Sets base albedo of water (sea model) */
int bAlbedoZA; /**< Use albedo based on zenith angle (ann model) */
double dAreaIceCov; /**< Tracks area of surface covered in permanent ice*/
double dAstroDist; /**< Distance between primary and planet */
int bCalcAB; /**< Calc A and B from Williams & Kasting 1997 */
int iClimateModel; /**< Which EBM to be used (ann or sea) */
int bColdStart; /**< Start from global glaciation (snowball) conditions */
double dCw_dt; /**< Heat capacity of water / EBM time step */
double dDiffCoeff; /**< Diffusion coefficient set by user */
int bDiffRot; /**< Adjust heat diffusion for rotation rate */
int bElevFB; /**< Apply elevation feedback to ice ablation */
double dFixIceLat; /**< Fixes ice line latitude to user set value */
double dFluxInGlobal; /**< Global mean of incoming flux */
double dFluxInGlobalTmp; /**< Copy of global mean incoming flux */
double dFluxOutGlobal; /**< Global mean of outgoing flux */
double dFluxOutGlobalTmp; /**< Copy of global mean outgoing flux */
int bForceObliq; /**< Force obliquity to evolve sinusoidally */
int bForceEcc; /**< Force eccentricity to evolve sinusoidally */
double dFrzTSeaIce; /**< Freezing temperature of sea water */
int iGeography; /**< Type of geography to use (uni3 or modn) */
int bHadley; /**< Use Hadley circ in tropics when calc'ing diffusion? */
double dHeatCapAnn; /**< Surface heat capacity in annual model */
double dHeatCapLand; /**< Heat capacity of land */
double dHeatCapWater; /**< Heat capacity of water */
double dIceAlbedo; /**< Base albedo of ice covered surfaces */
double dIceBalanceTot; /**< Total gain/loss in ice globally */
double dIceDepRate; /**< Snow deposition rate when below freezing */
double dIceFlowTot; /**< Total flow of ice (should be zero) */
double dIceMassTot; /**< Total ice mass over entire globe */
int bIceSheets; /**< Use ice sheet model? */
int iIceTimeStep; /**< Time step of ice sheet model (should be > iNumYears) */
double dInitIceHeight; /**< Initial height of ice sheet */
double dInitIceLat; /**< Initial latitude of ice line (ice cap only) */
double dLapseR; /**< Lapse rate used for elevation feedback of ice sheet */
double dLatentHeatIce; /**< Latent heat of fusion of ice over mixing depth*/
double dLatFHeatCp; /**< Latent heat of ice/heat capacity */
int bMEPDiff; /**< Compute diff from maximum entropy prod (D = B/4) */
double dMixingDepth; /**< Depth of mixing layer of ocean (for thermal
inertia)*/
int iNDays; /**< Number of days in planet's year/orbit */
int iNStepInYear; /**< Number of time steps in a year/orbit */
double dNuLandWater; /**< Land-ocean interaction term */
int iNumLats; /**< Number of latitude cells */
int iNumYears; /**< Number of orbits!!! to run seasonal model */
double dObliqAmp; /**< Amplitude of forced obliquity oscillation */
double dObliqPer; /**< Period of force obliquity oscillation */
double dObliq0; /**< Start obliquity for forced oscillation */
double dEccAmp; /**< Amplitude of forced eccentricity oscillation */
double dEccPer; /**< Period of force eccentricity oscillation */
double dEcc0; /**< Start eccentricity for forced oscillation */
int iOLRModel; /**< OLR fit (use with bCalcAB=1) from Kasting or Spiegel */
double dpCO2; /**< Partial pressure of CO2 (only if bCalcAB = 1) */
double dPlanckA; /**< Constant term in Blackbody linear approximation */
double dPlanckB; /**< Linear coeff in Blackbody linear approx (sensitivity) */
double dPrecA0; /**< Initial pA value used when distrot is not called */
int bReadOrbitOblData; /**< Use orbit and obliquity data from file rather
than distrot */
char cFileOrbitOblData[NAMELEN]; /**< read orbital and obliquity data from
this file (distorb=0) */
double *daOblSeries; /**< time series for obliquity data */
double *daPrecASeries; /**< time series for obliquity data */
double dRefHeight; /**< Ref height of "surface" in elevation feedback */
int iReRunSeas; /**< When to rerun EBM in ice sheet model */
double dSeaIceConduct; /**< Conductivity of sea ice */
int bSeaIceModel; /**< Use sea ice model? */
double dSeasDeltat; /**< Time step of seasonal model */
double dSeasDeltax; /**< Spacing of grid points in seasonal model */
double dSeasOutputTime; /**< When to output seasonal data */
double dSeasNextOutput; /**< Next time step to output seasonal data */
int bSkipSeas; /**< Ann model will be used if in snowball state */
int bSkipSeasEnabled; /**< Allow ann model to be used if in snowball state? */
int bSnowball; /**< Is planet in snowball state (oceans are frozen)? */
double
dSpinUpTol; /**< Tolerance for mean global temp change during spin up */
double dSurfAlbedo; /**< Base surface albedo used in ann model */
double dTGlobal; /**< Global mean temperature at surface */
double dTGlobalInit; /**< Initial estimate of global surface temperature */
double dTGlobalTmp; /**< Mean global surface temp */
int iWriteLat; /**< Stores index of latitude to be written in write fxn */
double dMinIceHeight; /**< Minimum ice thickness to count as icy */
/* Arrays used by seasonal and annual */
double *daAnnualInsol; /**< Annually averaged insolation at each latitude */
double *daDivFlux; /**< Divergence of surface flux */
double *daDMidPt; /**< Diffusion at edges of grid points */
double **daInsol; /**< Daily insolation at each latitude */
double *daFlux; /**< Meridional surface heat flux */
double *daFluxIn; /**< Incoming surface flux (insolation) */
double *daFluxOut; /**< Outgoing surface flux (longwave) */
double *daLats; /**< Latitude of each cell (centered); South Pole is 0 */
double *daPeakInsol; /**< Annually averaged insolation at each latitude */
double *daTGrad; /**< Gradient of temperature (meridional) */
/* Arrays for annual model */
double *daAlbedoAnn; /**< Albedo of each cell */
double
*daDiffusionAnn; /**< Diffusion coefficient of each latitude boundary */
double **daMEulerAnn; /**< Matrix used for Euler step in annual model */
double **daMEulerCopyAnn; /**< Temp copy of Euler matrix */
double **daInvMAnn; /**< Inverted matrix for annual model */
double *daLambdaAnn; /**< Diffusion terms for annual matrix */
double **daMClim; /**< Raw climate matrix for annual model */
double **daMDiffAnn; /**< Diffusion matrix for annual model */
double *daPlanckAAnn; /**< Array of Planck A values for ann model */
double *daPlanckBAnn; /**< Array of Planck B values for ann model */
int *iaRowswapAnn; /**< Array of interchanged rows in matrix inversion */
double *daScaleAnn; /**< Used in matrix inversion routine */
double *daSourceF; /**< Heating terms in EBM */
double *daTempAnn; /**< Surface temperature in each cell */
double *daTempTerms; /**< Temperature dependent terms in matrix */
double *daTmpTempAnn; /**< Temporary copy of temperature */
double *daTmpTempTerms; /**< Temporary copy of temp dependent terms */
double *daUnitVAnn; /**< Unit vector used in matrix inversion */
/* Arrays for seasonal model */
double *daAlbedoAvg; /**< Orbit average albedo by latitude */
double *daAlbedoAvgL; /**< Orbit average albedo by latitude on land */
double *daAlbedoAvgW; /**< Orbit average albedo by latitude on water */
double *daAlbedoLand; /**< Albedo of land by latitude */
double *daAlbedoLW; /**< Land-water averaged albedo */
double *daAlbedoWater; /**< Albedo of land by latitude */
double *daBasalFlow; /**< Basal flow of ice = d(u*h)/dy */
double *daBasalFlowMid; /**< Basal flow of ice d(u*h)/dy (midpoints) */
double *daBasalVel; /**< Basal velocity of ice */
double *daBedrockH; /**< Height of bedrock (can be negative) */
double *daBedrockHEq; /**< Equilibrium height of bedrock */
double *daDeclination; /**< Daily solar declination */
double *daDeltaTempL; /**< Keeps track of temp change on land for energy check
*/
double *daDeltaTempW; /**< Keeps track of temp change on water for energy
check */
double *daDIceHeightDy; /**< Gradient of ice height */
double *daDiffusionSea; /**< Diffusion coefficient for seasonal model */
double *daDivFluxAvg; /**< Divergence of flux averaged over orbit */
double **daDivFluxDaily; /**< Daily values of divergence of flux */
double *daEnergyResL; /**< Energy residuals on land */
double *daEnergyResW; /**< Energy residuals over water */
double *daEnerResLAnn; /**< Annually averaged energy residuals on land */
double *daEnerResWAnn; /**< Annually averaged energy residuals over water */
double *daFluxAvg; /**< Annually averaged meridional flux */
double *daFluxOutAvg; /**< Annually averaged outgoing flux */
double **daFluxDaily; /**< Daily meridional flux values */
double *daFluxInAvg; /**< Annually averaged incoming flux */
double **daFluxInDaily; /**< Daily incoming flux values */
double *daFluxInLand; /**< Annually averaged incoming flux on land */
double *daFluxInWater; /**< Annually averaged incoming flux on water */
double **daFluxOutDaily; /**< Daily outgoing flux values */
double *daFluxOutLand; /**< Annually averaged outgoing flux on land */
double *daFluxOutWater; /**< Annually averaged outgoing flux on water */
double *daFluxSeaIce; /**< Heat flux through sea ice */
double **daIceBalance; /**< Gain/loss of ice at each latitude and day */
double *daIceAblateTot; /**< Total ice loss per orbit */
double *daIceAccumTot; /**< Total ice gain per orbit */
double *daIceBalanceAnnual; /**< Net ice gain/loss over orbit */
double *daIceBalanceAvg; /**< Average ice gain/loss over orbit */
double *daIceBalanceTmp; /**< Temporary (current) ice gain/loss */
double *daIceFlow; /**< Flow of ice */
double *daIceFlowAvg; /**< Average flow of ice over orbit */
double *daIceFlowMid; /**< Flow of ice at boundaries of grid points */
double *daIceGamTmp; /**< Temporary variable used in ice sheet matrix */
double *daIceHeight; /**< Height of ice sheet */
double *daIceMass; /**< Ice mass per area */
double *daIceMassTmp; /**< Temporary copy of ice mass per area */
double *daIcePropsTmp; /**< Temporary array used in ice sheet matrix */
double *daIceSheetDiff; /**< Diffusion coefficient of ice sheet flow */
double **daIceSheetMat; /**< Matrix used in ice sheet flow */
double **daInvMSea; /**< Inverted matrix in seasonal EBM */
double *daLambdaSea; /**< Diffusion terms in seasonal EBM matrix */
double dLandFrac; /**< Land fraction input by user */
double *daLandFrac; /**< Fraction of cell which is land */
double **daMDiffSea; /**< Diffusion only matrix in seasonal EBM */
double **daMEulerCopySea; /**< Temporary copy of Euler time step matrix
(seasonal) */
double **daMEulerSea; /**< Euler time step matrix in seasonal EBM */
double **daMInit; /**< Temporary matrix used in constructing Euler matrix */
double **daMLand; /**< Land terms in seasonal matrix */
double **daMWater; /**< Water terms in seasonal matrix */
double *daPlanckASea; /**< Array of Planck A values in seasonal model */
double *daPlanckBSea; /**< Array of Planck B values in seasonal model */
double **daPlanckBDaily; /**< Array of Planck B values over seasonal cycle */
double *daPlanckBAvg; /**< Orbit averaged Planck B values in seasonal model */
int *iaRowswapSea; /**< Interchanged rows in seasonal matrix inversion */
double *daScaleSea; /**< Used in matrix inversion routine */
double *daSeaIceHeight; /**< Sea ice height by latitude */
double *daSeaIceK; /**< Heat conductivity of sea ice */
double *daSedShear; /**< sediment shear stress (for ice sheets) */
double *daSourceL; /**< Land heating terms: PlanckA - (1-albedo)*Insol */
double *
daSourceLW; /**< Combined heat terms what inverser matrix operates on */
double *daSourceW; /**< Water heating terms: PlanckA - (1-albedo)*Insol */
double *daTempAvg; /**< Temperature averaged over orbit and land/water */
double *daTempAvgL; /**< Land temp averaged over orbit */
double *daTempAvgW; /**< Water temp averaged over orbit */
double **daTempDaily; /**< Daily temp over seasonal cycle */
double *daTempLand; /**< Temperature over land (by latitude) */
double *daTempLW; /**< Surface temperature (avg over land & water) */
double *daTempMaxLW; /**< Maximum temperature over year */
double *daTempMaxLand; /**< Maximum temperature over year over land */
double *daTempMaxWater; /**< Maximum temperature over year over water */
double *daTempMinLW; /**< Minimum temperature over year */
double *daTempWater; /**< Temperature over ocean (by lat) */
double *daTmpTempSea; /**< Temporary copy of temp dependent terms (sea EBM)*/
double *daUnitVSea; /**< Unit vector used in matrix routines */
double *daWaterFrac; /**< Fraction of cell which is water */
double *daXBoundary; /**< Locations of grid boundaries in x = sin(lat) */
double *daYBoundary; /**< Locations of grid boundaries in y = R*lat */
// FLARE
int bFlare;
double dFlareYInt; /**< Flare function Y intercept /FFD linear coefficient*/
// double dFlareYIntErrorUpper; /**< Upper error of the Y intercept /FFD
// linear coefficient*/
// double dFlareYIntErrorLower; /**< Lower error of the Y intercept /FFD
// linear coefficient*/
double dFlareSlope; /**< Flare function slope /FFD angular coefficient*/
// double dFlareSlopeErrorUpper; /**< Upper error of slope /FFD angular
// coefficient*/
// double dFlareSlopeErrorLower; /**< Lower error of slope /FFD angular
// coefficient*/
double dFlareMinEnergy; /**< Flare minimum energy value to calculate the FFD*/
double dFlareMaxEnergy; /**< Flare maximum energy value to calculate the FFD*/
double dFlareFreq1; /**< First value of flare frequency range*/
double dFlareFreq2; /**< Second value of flare frequency range*/
double dFlareFreq3; /**< Third value of flare frequency range*/
double dFlareFreq4; /**< Fourth value of flare frequency range*/
double dFlareFreqMin; /**< Flare frequency of the flares with the lowest
energy*/
double dFlareFreqMid; /**< Flare frequency of the flares with the central
energy value in the energy range*/
double dFlareFreqMax; /**< Flare frequency of the flares with the highest
energy*/
double dFlareEnergy1; /**< First value of flare energy range*/
double dFlareEnergy2; /**< Second value of flare energy range*/
double dFlareEnergy3; /**< Third value of flare energy range*/
double dFlareEnergy4; /**< Fourth value of flare energy range*/
double dFlareEnergyMin; /**< Minimum value of flare energy in the energy
range*/
double dFlareEnergyMid; /**< Central value of flare energy in the energy
range*/
double dFlareEnergyMax; /**< Maximum value of flare energy in the energy
range*/
double dLXUVFlare; /**< XUV luminosity by flare*/
// double dLXUVFlareUpper; /**< Upper value of XUV luminosity by flare when
// the
// user include the slope and Y-intercept errors */
// double dLXUVFlareLower; /**< Lower value of XUV luminosity by flare when
// the
// user include the slope and Y-intercept errors */
double dLXUVTot; /**< XUV luminosity total, flare + stellar*/
double dLXUVFlareConst; /**< XUV luminosity given by the user*/
int iFlareFFD; /**< Flare mode*/
int iFlareBandPass; /**< Option to choose in which band pass the input energy
are*/
int iFlareSlopeUnits; /**< Mode to choose in which units the FFD slopes are*/
double dEnergyBin; /**< Number of energies consider between the minimum and
maximum energies to calculate the luminosity by flares*/
double *daEnergyERG;
double *daEnergyJOU;
double *daLogEner;
double *daEnerJOU;
double *daEnergyJOUXUV;
double *daEnergyERGXUV;
double *daLogEnerXUV;
double *daFFD;
double *daLXUVFlare;
// GALHABIT
int bGalHabit; /**< Use galhabit module */
double dPeriQ; /**< Pericenter distance */
int iDisrupt; /**< Secondary body has been disrupted */
int bGalacTides; /**< Enable galactic tides */
double dHostBinSemi; /**< Semi-major axis of host binary */
double dHostBinEcc; /**< Eccentricity of host binary */
double dHostBinInc; /**< Inclination of host binary */
double dHostBinArgP; /**< Arg pericenter of host binary */
double dHostBinLongA; /**< Long asc node of host binary */
double dHostBinMass1; /**< Mass of large host binary star */
int bHostBinary; /**< Model dynamics of inner host binary */
double
*daRelativeImpact; /**< Impact param of passing star relative to body */
double *daRelativeVel; /**< Velocity of passing star relative to body */
double dEccX; /**< X component of eccentricity vector */
double dEccY; /**< Y component of eccentricity vector */
double dEccZ; /**< Z component of eccentricity vector */
double dAngMX; /**< X component of orbital momentum vector */
double dAngMY; /**< Y component of orbital momentum vector */
double dAngMZ; /**< Z component of orbital momentum vector */
double dAngM; /**< Magnitude of orbital momentum vector */
double dEccXTmp; /**< Ecc X in the host binary reference plane */
double dEccYTmp; /**< Ecc Y in the host binary reference plane */
double dEccZTmp; /**< Ecc Z in the host binary reference plane */
double dAngMXTmp; /**< AngM X in the host binary reference plane */
double dAngMYTmp; /**< AngM Y in the host binary reference plane */
double dAngMZTmp; /**< AngM Z in the host binary reference plane */
double dArgPTmp; /**< Arg pericenter in the host binary reference plane */
double dLongATmp; /**< Long asc node in the host binary reference plane */
double dIncTmp; /**< Inclination in the host binary reference plane */
double dCosArgP; /**< Cosine of arg pericenter */
double dMinStellarApproach; /**< minimum allowed close approach of body to
host */
double dMassInterior; /**< Total mass of bodies interior to body */
int iBadImpulse; /**< Was there a bad impulse? */
double dMeanL; /**< Body's mean longitude */
// MAGMOC
/* HERE
* declare all variables used
*/
int bMagmOc; /**< Use magmoc model */
int bManSolid; /**< Mantle solidified */
int bAllFeOOxid; /**< All FeO in manlte oxidized to Fe2O3 */
int bLowPressSol; /**< Switch to low pressure treatment of solidus */
int bManStartSol; /**< Mantle starts to solidify */
int bCalcFugacity; /**< Need to calc oxygen fugacity */
int bPlanetDesiccated; /**< Atmosphere desiccated */
int bManQuasiSol; /**< Atmosphere desiccated & T_surf below 1000K */
int bMagmOcHaltSolid; /**< Mantle solidifed or atm desiccated */
int bMagmOcHaltDesicc; /**< Atm desiccated or escape stopped*/
int bEscapeStop; /**< Atmospheric escaped stopped */
int bCO2InAtmosphere; /**< Is CO2 present in the atmopshere? */
int iRadioHeatModel; /**< Which Radiogenic Heating model to use */
int iMagmOcAtmModel; /**< Which Atmopsheric Flux model to use */
int bOptManQuasiSol; /**< Solidify mantle inst. when melt frac = 0.4 at surf
*/
/* Primary variables */
double dPotTemp; /**< Potential Temp of the mantle [K] */
double dSurfTemp; /**< Surface Temp of the planet [K] */
double dSolidRadius; /**< Solidification radius of the mantle [m] */
double dWaterMassMOAtm; /**< Water mass in magma ocean and atmosphere [kg] */
double dWaterMassSol; /**< Water mass in the solidified mantle [kg] */
double dOxygenMassMOAtm; /**< Water mass in magma ocean and atmosphere [kg] */
double dOxygenMassSol; /**< Water mass in the solidified mantle [kg] */
double dHydrogenMassSpace; /**< Mass of hydrogen that is lost to space */
double dOxygenMassSpace; /**< Mass of oxygen that is lost to space */
double dCO2MassMOAtm; /**< Mass of CO2 in magma ocean and atmosphere [kg] */
double dCO2MassSol; /**< Mass of CO2 in solidified mantle [kg] */
/* Input variables */
double dCoreRadius; /**< Core radius of the planet [m] */
double dWaterMassAtm; /**< Water mass in the atmosphere [kg] */
double dManMeltDensity; /**< Density of the molten mantle [km/m^3] */
double dMassFracFeOIni; /**< Initial FeO mass fraction in the mantle */
double dWaterPartCoeff; /**< Water partition coefficient between melt and
solid */
double dDepthMO; /**< Initial depth of Magma Ocean [km] */
/* Other variables Thermal model */
double
dGravAccelSurf; /**< Graviational acceleration at the surface [m/s^2] */
double dSolidRadiusLocal; /**< Local variable for solidification radius of the
mantle [m] */
double dTransDepthSol; /**< Depth of transition from low to high pressure
solidus [Pa] */
double dPrefactorA; /**< Prefactor for linear solidus */
double dPrefactorB; /**< Prefactor for linear solidus */
double dMeltFraction; /**< Melt fraction of the mantle */
double dMeltFracSurf; /**< Melt fraction at the surface */
double dKinemViscos; /**< Kinematic viscosity of the mantle [m/s^2] */
double dFactorDerivative; /**< Factor to calculate the derivatives of Tpot and
Rsol */
double dManHeatFlux; /**< Mantle heat flux [W/m^2] */
double dRadioHeat; /**< Radiogenic heating rate GET FROM RADHEAT [W/kg] */
double dTidalHeat; /**< Tidal heating rate GET FROM EQTIDE [W/kg] */
double dNetFluxAtmo; /**< Net atmospheric flux OLR-ASR [W/m^2] */
double dAlbedo; /**< Albedo of the planet */
double dEffTempAtm; /**< Effective temperature of the planet's atmosphere */
/* Other variables Volatile model */
double dPressWaterAtm; /**< Water pressure in atmosphere [Pa] */
double
dPartialPressWaterAtm; /**< Partial Water pressure in atmosphere [Pa] */
double dPressCO2Atm; /**< CO2 pressure in atmosphere [Pa] */
double dPartialPressCO2Atm; /**< Partial CO2 pressure in atmosphere [Pa] */
double dPressOxygenAtm; /**< Oxygen pressure in atmosphere [Pa] */
double dMassMagmOcLiq; /**< liquid mass of magma ocean [kg] */