CAMP 1.0.0
Chemistry Across Multiple Phases
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aero_rep_modal_binned_mass.c File Reference

Modal mass aerosol representation functions. More...

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Macros

#define TEMPERATURE_K_   env_data[0]
 
#define PRESSURE_PA_   env_data[1]
 
#define UPDATE_GMD   0
 
#define UPDATE_GSD   1
 
#define BINNED   1
 
#define MODAL   2
 
#define NUM_SECTION_   (int_data[0])
 
#define INT_DATA_SIZE_   (int_data[1])
 
#define FLOAT_DATA_SIZE_   (int_data[2])
 
#define AERO_REP_ID_   (int_data[3])
 
#define NUM_INT_PROP_   4
 
#define NUM_FLOAT_PROP_   0
 
#define NUM_ENV_PARAM_   0
 
#define MODE_INT_PROP_LOC_(x)   (int_data[NUM_INT_PROP_ + x] - 1)
 
#define MODE_FLOAT_PROP_LOC_(x)   (int_data[NUM_INT_PROP_ + NUM_SECTION_ + x] - 1)
 
#define SECTION_TYPE_(x)   (int_data[MODE_INT_PROP_LOC_(x)])
 
#define NUM_BINS_(x)   (int_data[MODE_INT_PROP_LOC_(x) + 1])
 
#define NUM_PHASE_(x)   (int_data[MODE_INT_PROP_LOC_(x) + 2])
 
#define PHASE_STATE_ID_(x, y, b)    (int_data[MODE_INT_PROP_LOC_(x) + 3 + b * NUM_PHASE_(x) + y] - 1)
 
#define PHASE_MODEL_DATA_ID_(x, y, b)
 
#define PHASE_NUM_JAC_ELEM_(x, y, b)
 
#define BIN_DP_(x, b)   (float_data[MODE_FLOAT_PROP_LOC_(x) + b * 3])
 
#define GMD_(x)   (aero_rep_env_data[x])
 
#define GSD_(x)   (aero_rep_env_data[NUM_SECTION_ + x])
 
#define NUMBER_CONC_(x, b)   (float_data[MODE_FLOAT_PROP_LOC_(x) + b * 3 + 1])
 
#define EFFECTIVE_RADIUS_(x, b)    (float_data[MODE_FLOAT_PROP_LOC_(x) + b * 3 + 2])
 
#define PHASE_MASS_(x, y, b)
 
#define PHASE_AVG_MW_(x, y, b)
 

Functions

int aero_rep_modal_binned_mass_get_used_jac_elem (ModelData *model_data, int aero_phase_idx, int *aero_rep_int_data, double *aero_rep_float_data, bool *jac_struct)
 Flag Jacobian elements used in calcualtions of mass and volume.
 
void aero_rep_modal_binned_mass_get_dependencies (int *aero_rep_int_data, double *aero_rep_float_data, bool *state_flags)
 Flag elements on the state array used by this aerosol representation.
 
void aero_rep_modal_binned_mass_update_env_state (ModelData *model_data, int *aero_rep_int_data, double *aero_rep_float_data, double *aero_rep_env_data)
 Update aerosol representation data for new environmental conditions.
 
void aero_rep_modal_binned_mass_update_state (ModelData *model_data, int *aero_rep_int_data, double *aero_rep_float_data, double *aero_rep_env_data)
 Update aerosol representation data for a new state.
 
void aero_rep_modal_binned_mass_get_effective_radius__m (ModelData *model_data, int aero_phase_idx, double *radius, double *partial_deriv, int *aero_rep_int_data, double *aero_rep_float_data, double *aero_rep_env_data)
 Get the effective particle radius \(r_{eff}\) (m)
 
void aero_rep_modal_binned_mass_get_number_conc__n_m3 (ModelData *model_data, int aero_phase_idx, double *number_conc, double *partial_deriv, int *aero_rep_int_data, double *aero_rep_float_data, double *aero_rep_env_data)
 Get the particle number concentration \(n\) ( \(\mbox{\si{\#\per\cubic\metre}}\))
 
void aero_rep_modal_binned_mass_get_aero_conc_type (int aero_phase_idx, int *aero_conc_type, int *aero_rep_int_data, double *aero_rep_float_data, double *aero_rep_env_data)
 Get the type of aerosol concentration used.
 
void aero_rep_modal_binned_mass_get_aero_phase_mass__kg_m3 (ModelData *model_data, int aero_phase_idx, double *aero_phase_mass, double *partial_deriv, int *aero_rep_int_data, double *aero_rep_float_data, double *aero_rep_env_data)
 Get the total mass in an aerosol phase \(m\) ( \(\mbox{\si{\kilogram\per\cubic\metre}}\))
 
void aero_rep_modal_binned_mass_get_aero_phase_avg_MW__kg_mol (ModelData *model_data, int aero_phase_idx, double *aero_phase_avg_MW, double *partial_deriv, int *aero_rep_int_data, double *aero_rep_float_data, double *aero_rep_env_data)
 Get the average molecular weight in an aerosol phase \(m\) ( \(\mbox{\si{\kilogram\per\mole}}\))
 
bool aero_rep_modal_binned_mass_update_data (void *update_data, int *aero_rep_int_data, double *aero_rep_float_data, double *aero_rep_env_data)
 Update the aerosol representation data.
 
void aero_rep_modal_binned_mass_print (int *aero_rep_int_data, double *aero_rep_float_data)
 Print the mass-only modal/binned reaction parameters.
 
void * aero_rep_modal_binned_mass_create_gmd_update_data ()
 Create update data for new GMD.
 
void aero_rep_modal_binned_mass_set_gmd_update_data (void *update_data, int aero_rep_id, int section_id, double gmd)
 Set GMD update data.
 
void * aero_rep_modal_binned_mass_create_gsd_update_data ()
 Create update data for new GSD.
 
void aero_rep_modal_binned_mass_set_gsd_update_data (void *update_data, int aero_rep_id, int section_id, double gsd)
 Set GSD update data.
 

Detailed Description

Modal mass aerosol representation functions.

Definition in file aero_rep_modal_binned_mass.c.

Macro Definition Documentation

◆ AERO_REP_ID_

#define AERO_REP_ID_   (int_data[3])

Definition at line 31 of file aero_rep_modal_binned_mass.c.

◆ BIN_DP_

#define BIN_DP_ (   x,
 
)    (float_data[MODE_FLOAT_PROP_LOC_(x) + b * 3])

Definition at line 59 of file aero_rep_modal_binned_mass.c.

◆ BINNED

#define BINNED   1

Definition at line 25 of file aero_rep_modal_binned_mass.c.

◆ EFFECTIVE_RADIUS_

#define EFFECTIVE_RADIUS_ (   x,
 
)     (float_data[MODE_FLOAT_PROP_LOC_(x) + b * 3 + 2])

Definition at line 69 of file aero_rep_modal_binned_mass.c.

◆ FLOAT_DATA_SIZE_

#define FLOAT_DATA_SIZE_   (int_data[2])

Definition at line 30 of file aero_rep_modal_binned_mass.c.

◆ GMD_

#define GMD_ (   x)    (aero_rep_env_data[x])

Definition at line 62 of file aero_rep_modal_binned_mass.c.

◆ GSD_

#define GSD_ (   x)    (aero_rep_env_data[NUM_SECTION_ + x])

Definition at line 63 of file aero_rep_modal_binned_mass.c.

◆ INT_DATA_SIZE_

#define INT_DATA_SIZE_   (int_data[1])

Definition at line 29 of file aero_rep_modal_binned_mass.c.

◆ MODAL

#define MODAL   2

Definition at line 26 of file aero_rep_modal_binned_mass.c.

◆ MODE_FLOAT_PROP_LOC_

#define MODE_FLOAT_PROP_LOC_ (   x)    (int_data[NUM_INT_PROP_ + NUM_SECTION_ + x] - 1)

Definition at line 36 of file aero_rep_modal_binned_mass.c.

◆ MODE_INT_PROP_LOC_

#define MODE_INT_PROP_LOC_ (   x)    (int_data[NUM_INT_PROP_ + x] - 1)

Definition at line 35 of file aero_rep_modal_binned_mass.c.

◆ NUM_BINS_

#define NUM_BINS_ (   x)    (int_data[MODE_INT_PROP_LOC_(x) + 1])

Definition at line 40 of file aero_rep_modal_binned_mass.c.

◆ NUM_ENV_PARAM_

#define NUM_ENV_PARAM_   0

Definition at line 34 of file aero_rep_modal_binned_mass.c.

◆ NUM_FLOAT_PROP_

#define NUM_FLOAT_PROP_   0

Definition at line 33 of file aero_rep_modal_binned_mass.c.

◆ NUM_INT_PROP_

#define NUM_INT_PROP_   4

Definition at line 32 of file aero_rep_modal_binned_mass.c.

◆ NUM_PHASE_

#define NUM_PHASE_ (   x)    (int_data[MODE_INT_PROP_LOC_(x) + 2])

Definition at line 43 of file aero_rep_modal_binned_mass.c.

◆ NUM_SECTION_

#define NUM_SECTION_   (int_data[0])

Definition at line 28 of file aero_rep_modal_binned_mass.c.

◆ NUMBER_CONC_

#define NUMBER_CONC_ (   x,
 
)    (float_data[MODE_FLOAT_PROP_LOC_(x) + b * 3 + 1])

Definition at line 66 of file aero_rep_modal_binned_mass.c.

◆ PHASE_AVG_MW_

#define PHASE_AVG_MW_ (   x,
  y,
 
)
Value:
(float_data[MODE_FLOAT_PROP_LOC_(x) + (3 + NUM_PHASE_(x)) * NUM_BINS_(x) + \
b * NUM_PHASE_(x) + y])
#define MODE_FLOAT_PROP_LOC_(x)
#define NUM_PHASE_(x)
#define NUM_BINS_(x)

Definition at line 79 of file aero_rep_modal_binned_mass.c.

◆ PHASE_MASS_

#define PHASE_MASS_ (   x,
  y,
 
)
Value:
(float_data[MODE_FLOAT_PROP_LOC_(x) + 3 * NUM_BINS_(x) + b * NUM_PHASE_(x) + \
y])

Definition at line 73 of file aero_rep_modal_binned_mass.c.

◆ PHASE_MODEL_DATA_ID_

#define PHASE_MODEL_DATA_ID_ (   x,
  y,
 
)
Value:
(int_data[MODE_INT_PROP_LOC_(x) + 3 + NUM_BINS_(x) * NUM_PHASE_(x) + \
b * NUM_PHASE_(x) + y] - \
1)
#define MODE_INT_PROP_LOC_(x)

Definition at line 48 of file aero_rep_modal_binned_mass.c.

◆ PHASE_NUM_JAC_ELEM_

#define PHASE_NUM_JAC_ELEM_ (   x,
  y,
 
)
Value:
int_data[MODE_INT_PROP_LOC_(x) + 3 + 2 * NUM_BINS_(x) * NUM_PHASE_(x) + \
b * NUM_PHASE_(x) + y]

Definition at line 54 of file aero_rep_modal_binned_mass.c.

◆ PHASE_STATE_ID_

#define PHASE_STATE_ID_ (   x,
  y,
 
)     (int_data[MODE_INT_PROP_LOC_(x) + 3 + b * NUM_PHASE_(x) + y] - 1)

Definition at line 46 of file aero_rep_modal_binned_mass.c.

◆ PRESSURE_PA_

#define PRESSURE_PA_   env_data[1]

Definition at line 20 of file aero_rep_modal_binned_mass.c.

◆ SECTION_TYPE_

#define SECTION_TYPE_ (   x)    (int_data[MODE_INT_PROP_LOC_(x)])

Definition at line 37 of file aero_rep_modal_binned_mass.c.

◆ TEMPERATURE_K_

#define TEMPERATURE_K_   env_data[0]

Definition at line 19 of file aero_rep_modal_binned_mass.c.

◆ UPDATE_GMD

#define UPDATE_GMD   0

Definition at line 22 of file aero_rep_modal_binned_mass.c.

◆ UPDATE_GSD

#define UPDATE_GSD   1

Definition at line 23 of file aero_rep_modal_binned_mass.c.

Function Documentation

◆ aero_rep_modal_binned_mass_create_gmd_update_data()

void * aero_rep_modal_binned_mass_create_gmd_update_data ( )

Create update data for new GMD.

Returns
Pointer to a new GMD update data object

Definition at line 677 of file aero_rep_modal_binned_mass.c.

◆ aero_rep_modal_binned_mass_create_gsd_update_data()

void * aero_rep_modal_binned_mass_create_gsd_update_data ( )

Create update data for new GSD.

Returns
Pointer to a new GSD update data object

Definition at line 711 of file aero_rep_modal_binned_mass.c.

◆ aero_rep_modal_binned_mass_get_aero_conc_type()

void aero_rep_modal_binned_mass_get_aero_conc_type ( int  aero_phase_idx,
int *  aero_conc_type,
int *  aero_rep_int_data,
double *  aero_rep_float_data,
double *  aero_rep_env_data 
)

Get the type of aerosol concentration used.

Modal mass concentrations are per-mode or per-bin.

Parameters
aero_phase_idxIndex of the aerosol phase within the representation
aero_conc_typePointer to int that will hold the concentration type code
aero_rep_int_dataPointer to the aerosol representation integer data
aero_rep_float_dataPointer to the aerosol representation floating-point data
aero_rep_env_dataPointer to the aerosol representation environment-dependent parameters

Definition at line 434 of file aero_rep_modal_binned_mass.c.

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◆ aero_rep_modal_binned_mass_get_aero_phase_avg_MW__kg_mol()

void aero_rep_modal_binned_mass_get_aero_phase_avg_MW__kg_mol ( ModelData model_data,
int  aero_phase_idx,
double *  aero_phase_avg_MW,
double *  partial_deriv,
int *  aero_rep_int_data,
double *  aero_rep_float_data,
double *  aero_rep_env_data 
)

Get the average molecular weight in an aerosol phase \(m\) ( \(\mbox{\si{\kilogram\per\mole}}\))

Parameters
model_dataPointer to the model data, including the state array
aero_phase_idxIndex of the aerosol phase within the representation
aero_phase_avg_MWAverage molecular weight in the aerosol phase ( \(\mbox{\si{\kilogram\per\mole}}\))
partial_deriv\(\frac{\partial m}{\partial y}\) where \(y\) are the species on the state array
aero_rep_int_dataPointer to the aerosol representation integer data
aero_rep_float_dataPointer to the aerosol representation floating-point data
aero_rep_env_dataPointer to the aerosol representation environment-dependent parameters

Definition at line 525 of file aero_rep_modal_binned_mass.c.

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◆ aero_rep_modal_binned_mass_get_aero_phase_mass__kg_m3()

void aero_rep_modal_binned_mass_get_aero_phase_mass__kg_m3 ( ModelData model_data,
int  aero_phase_idx,
double *  aero_phase_mass,
double *  partial_deriv,
int *  aero_rep_int_data,
double *  aero_rep_float_data,
double *  aero_rep_env_data 
)

Get the total mass in an aerosol phase \(m\) ( \(\mbox{\si{\kilogram\per\cubic\metre}}\))

Parameters
model_dataPointer to the model data, including the state array
aero_phase_idxIndex of the aerosol phase within the representation
aero_phase_massTotal mass in the aerosol phase, \(m\) ( \(\mbox{\si{\kilogram\per\cubic\metre}}\))
partial_deriv\(\frac{\partial m}{\partial y}\) where \(y\) are the species on the state array
aero_rep_int_dataPointer to the aerosol representation integer data
aero_rep_float_dataPointer to the aerosol representation floating-point data
aero_rep_env_dataPointer to the aerosol representation environment-dependent parameters

Definition at line 462 of file aero_rep_modal_binned_mass.c.

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◆ aero_rep_modal_binned_mass_get_dependencies()

void aero_rep_modal_binned_mass_get_dependencies ( int *  aero_rep_int_data,
double *  aero_rep_float_data,
bool *  state_flags 
)

Flag elements on the state array used by this aerosol representation.

The modal mass aerosol representation functions do not use state array values

Parameters
aero_rep_int_dataPointer to the aerosol representation integer data
aero_rep_float_dataPointer to the aerosol representation floating-point data
state_flagsArray of flags indicating state array elements used

Definition at line 139 of file aero_rep_modal_binned_mass.c.

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◆ aero_rep_modal_binned_mass_get_effective_radius__m()

void aero_rep_modal_binned_mass_get_effective_radius__m ( ModelData model_data,
int  aero_phase_idx,
double *  radius,
double *  partial_deriv,
int *  aero_rep_int_data,
double *  aero_rep_float_data,
double *  aero_rep_env_data 
)

Get the effective particle radius \(r_{eff}\) (m)

The modal mass effective radius is calculated for a log-normal distribution where the geometric mean diameter ( \(\tilde{D}_n\)) and geometric standard deviation ( \(\sigma_g\)) are set by the aerosol model prior to solving the chemistry. Thus, all \(\frac{\partial r_{eff}}{\partial y}\) are zero. The effective radius is calculated according to the equation given in Table 1 of Zender [Zender2002] :

\[ \tilde{\sigma_g} \equiv ln( \sigma_g ) \]

\[ D_s = D_{eff} = \tilde{D_n} e^{5 \tilde{\sigma}_g^2 / 2} \]

\[ r_{eff} = \frac{D_{eff}}{2} \]

For bins, \(r_{eff}\) is assumed to be the bin radius.

Parameters
model_dataPointer to the model data, including the state array
aero_phase_idxIndex of the aerosol phase within the representation
radiusEffective particle radius (m)
partial_deriv\(\frac{\partial r_{eff}}{\partial y}\) where \(y\) are species on the state array
aero_rep_int_dataPointer to the aerosol representation integer data
aero_rep_float_dataPointer to the aerosol representation floating-point data
aero_rep_env_dataPointer to the aerosol representation environment-dependent parameters

Definition at line 300 of file aero_rep_modal_binned_mass.c.

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◆ aero_rep_modal_binned_mass_get_number_conc__n_m3()

void aero_rep_modal_binned_mass_get_number_conc__n_m3 ( ModelData model_data,
int  aero_phase_idx,
double *  number_conc,
double *  partial_deriv,
int *  aero_rep_int_data,
double *  aero_rep_float_data,
double *  aero_rep_env_data 
)

Get the particle number concentration \(n\) ( \(\mbox{\si{\#\per\cubic\metre}}\))

The modal mass number concentration is calculated for a log-normal distribution where the geometric mean diameter ( \(\tilde{D}_n\)) and geometric standard deviation ( \(\tilde{\sigma}_g\)) are set by the aerosol model prior to solving the chemistry. The number concentration is calculated according to the equation given in Table 1 of Zender [Zender2002] :

\[ n = N_0 = \frac{6V_0}{\pi}\tilde{D}_n^{-3}e^{-9 ln(\tilde{\sigma}_g)^2/2} \]

\[ V_0 = \sum_i{\frac{m_i}{\rho_i}} \]

where \(\rho_i\) and \(m_i\) are the density and total mass of species \(i\) in the specified mode.

The binned number concentration is calculated according to:

\[ n = V_0 / V_p \]

\[ V_p = \frac{4}{3}\pi r^{3} \]

where \(r\) is the radius of the size bin and \(V_0\) is defined as above.

Parameters
model_dataPointer to the model data, including the state array
aero_phase_idxIndex of the aerosol phase within the representation
number_concParticle number concentration, \(n\) ( \(\mbox{\si{\#\per\cubic\centi\metre}}\))
partial_deriv\(\frac{\partial n}{\partial y}\) where \(y\) are the species on the state array
aero_rep_int_dataPointer to the aerosol representation integer data
aero_rep_float_dataPointer to the aerosol representation floating-point data
aero_rep_env_dataPointer to the aerosol representation environment-dependent parameters

Definition at line 368 of file aero_rep_modal_binned_mass.c.

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◆ aero_rep_modal_binned_mass_get_used_jac_elem()

int aero_rep_modal_binned_mass_get_used_jac_elem ( ModelData model_data,
int  aero_phase_idx,
int *  aero_rep_int_data,
double *  aero_rep_float_data,
bool *  jac_struct 
)

Flag Jacobian elements used in calcualtions of mass and volume.

Parameters
model_dataPointer to the model data
aero_rep_int_dataPointer to the aerosol representation integer data
aero_rep_float_dataPointer to the aerosol representation floating-point data
aero_phase_idxIndex of the aerosol phase to find elements for
jac_struct1D array of flags indicating potentially non-zero Jacobian elements. (The dependent variable should have been chosen by the calling function.)
Returns
Number of Jacobian elements flagged

Definition at line 95 of file aero_rep_modal_binned_mass.c.

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◆ aero_rep_modal_binned_mass_print()

void aero_rep_modal_binned_mass_print ( int *  aero_rep_int_data,
double *  aero_rep_float_data 
)

Print the mass-only modal/binned reaction parameters.

Parameters
aero_rep_int_dataPointer to the aerosol representation integer data
aero_rep_float_dataPointer to the aerosol representation floating-point data

Definition at line 663 of file aero_rep_modal_binned_mass.c.

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◆ aero_rep_modal_binned_mass_set_gmd_update_data()

void aero_rep_modal_binned_mass_set_gmd_update_data ( void *  update_data,
int  aero_rep_id,
int  section_id,
double  gmd 
)

Set GMD update data.

Parameters
update_dataPointer to an allocated GMD update data object
aero_rep_idId of the aerosol representation(s) to update
section_idId of the mode to update
gmdNew mode GMD (m)

Definition at line 693 of file aero_rep_modal_binned_mass.c.

◆ aero_rep_modal_binned_mass_set_gsd_update_data()

void aero_rep_modal_binned_mass_set_gsd_update_data ( void *  update_data,
int  aero_rep_id,
int  section_id,
double  gsd 
)

Set GSD update data.

Parameters
update_dataPointer to an allocated GSD update data object
aero_rep_idId of the aerosol representation(s) to update
section_idId of the mode to update
gsdNew mode GSD (unitless)

Definition at line 727 of file aero_rep_modal_binned_mass.c.

◆ aero_rep_modal_binned_mass_update_data()

bool aero_rep_modal_binned_mass_update_data ( void *  update_data,
int *  aero_rep_int_data,
double *  aero_rep_float_data,
double *  aero_rep_env_data 
)

Update the aerosol representation data.

The model mass aerosol representation update data is structured as follows:

  • int aero_rep_id (Id of one or more aerosol representations set by the host model using the camp_aero_rep_modal_binned_mass::aero_rep_modal_binned_mass_t::set_id function prior to initializing the solver.)
  • int update_type (Type of update to perform. Can be UPDATE_GMD or UPDATE_GSD.)
  • int section_id (Index of the mode to update.)
  • double new_value (Either the new GMD (m) or the new GSD (unitless).)
Parameters
update_dataPointer to the updated aerosol representation data
aero_rep_int_dataPointer to the aerosol representation integer data
aero_rep_float_dataPointer to the aerosol representation floating-point data
aero_rep_env_dataPointer to the aerosol representation environment-dependent parameters
Returns
Flag indicating whether this is the aerosol representation to update

Recalculate the effective radius [m]

Equation based on [Zender2002] Table 1 effective diameter \((D_s, D_{eff}\)) equations:

\[ \tilde{\sigma_g} \equiv ln( \sigma_g ) \]

\[ D_s = D_{eff} = \tilde{D_n} e^{5 \tilde{\sigma}_g^2 / 2} \]

\[ r_{eff} = \frac{D_{eff}}{2} \]

where \(\tilde{D_n}\) is the geometric mean diameter [m], \(\sigma_g\) is the geometric standard deviation [unitless], and \(r_{eff}\) is the effective radius [m].

Definition at line 594 of file aero_rep_modal_binned_mass.c.

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◆ aero_rep_modal_binned_mass_update_env_state()

void aero_rep_modal_binned_mass_update_env_state ( ModelData model_data,
int *  aero_rep_int_data,
double *  aero_rep_float_data,
double *  aero_rep_env_data 
)

Update aerosol representation data for new environmental conditions.

The modal mass aerosol representation is not updated for new environmental conditions

Parameters
model_dataPointer to the model data
aero_rep_int_dataPointer to the aerosol representation integer data
aero_rep_float_dataPointer to the aerosol representation floating-point data
aero_rep_env_dataPointer to the aerosol representation environment-dependent parameters

Definition at line 160 of file aero_rep_modal_binned_mass.c.

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◆ aero_rep_modal_binned_mass_update_state()

void aero_rep_modal_binned_mass_update_state ( ModelData model_data,
int *  aero_rep_int_data,
double *  aero_rep_float_data,
double *  aero_rep_env_data 
)

Update aerosol representation data for a new state.

The modal mass aerosol representation recalculates effective radius and number concentration for each new state.

Parameters
model_dataPointer to the model data, including the state array
aero_rep_int_dataPointer to the aerosol representation integer data
aero_rep_float_dataPointer to the aerosol representation floating-point data
aero_rep_env_dataPointer to the aerosol representation environment-dependent parameters

Definition at line 183 of file aero_rep_modal_binned_mass.c.

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