1761 | | If turbulent_inflow = .TRUE., two recycling methods for the thermodynamic quantities theta and q are available:\\\\ |
1762 | | 'turbulent_fluctuation': Turbulent fluctuations of theta (and q if humidity = .TRUE.) are recycled and added to the inflow profile, see [#turbulent_inflow] for a detailed description. This method is the default method and is also used for all other prognostic quantities. If surface heating/cooling or a surface waterflux is applied, a horizontal temperature (humidity) gradient inside the boundary layer wil develop, because the temperature/humidity profiles at the inflow are constant. The resulting horizontal differences in buoyancy can trigger an undesired circulation inside the entire domain and instabilities at the inflow boundary (see [#pt_damping_factor]).\\ |
| 1761 | If [#turbulent_inflow] = .TRUE., two recycling methods for the thermodynamic quantities theta and q are available:\\\\ |
| 1762 | |
| 1763 | 'turbulent_fluctuation': Turbulent fluctuations of theta (and q if humidity = .TRUE.) are recycled and added to the inflow profile, see [#turbulent_inflow] for a detailed description. This method is the default method and is also used for all other prognostic quantities. If surface heating/cooling or a surface waterflux is applied, a horizontal temperature (humidity) gradient inside the boundary layer wil develop, because the temperature/humidity profiles at the inflow are constant. The resulting horizontal differences in buoyancy can trigger an undesired circulation inside the entire domain and instabilities at the inflow boundary (see [#pt_damping_factor]).\\\\ |
| 1764 | |