Public Attributes | |
real *8 | temp |
Temperature (K). | |
real *8 | rel_humid |
Relative humidity (1). | |
real *8 | pressure |
Ambient pressure (Pa). | |
real *8 | longitude |
Longitude (degrees). | |
real *8 | latitude |
Latitude (degrees). | |
real *8 | altitude |
Altitude (m). | |
real *8 | start_time |
Start time (s since 00:00 UTC). | |
integer | start_day |
Start day of year (UTC). | |
real *8 | height |
Box height (m). | |
type(gas_state_t) | gas_emissions |
Gas emissions. | |
real *8 | gas_emission_rate |
Gas emisssion rate (s^{-1}). | |
type(gas_state_t) | gas_background |
Background gas concentrations. | |
real *8 | gas_dilution_rate |
Gas-background dilution rate (s^{-1}). | |
type(aero_dist_t) | aero_emissions |
Aerosol emissions. | |
real *8 | aero_emission_rate |
Aerosol emisssion rate (s^{-1}). | |
type(aero_dist_t) | aero_background |
Aerosol background. | |
real *8 | aero_dilution_rate |
Aero-background dilute rate (s^{-1}). |
All quantities are instantaneous, describing the state at a particular instant of time. Constant data and other data not associated with the current environment state is store in env_data_t.
The emissions and dilution are both described by pairs of a state and a rate. The product of these gives the actual emissions or dilution with units quantity per time. One way to think about this is to set the rate to 1/3600 and then regard the state as an amount per hour, etc.
Temperature (K).
Relative humidity (1).
Ambient pressure (Pa).
Longitude (degrees).
Latitude (degrees).
Altitude (m).
Start time (s since 00:00 UTC).
Start day of year (UTC).
Box height (m).
Gas emissions.
Gas emisssion rate (s^{-1}).
Background gas concentrations.
Gas-background dilution rate (s^{-1}).
Aerosol emissions.
Aerosol emisssion rate (s^{-1}).
Aerosol background.
Aero-background dilute rate (s^{-1}).