MOSAIK

Timestamp:

May 23, 2022 11:05:25 AM (2 years ago)

Author:

westbrink

Comment:

--

project/project/subproj/wpi1

@@ -91 +91 @@
 }}}
 
-   '''Figure 5:'''Architecture of the new module for the generalised volume sources, e.g. here for traffic emissions or biogenic emissions.
+   '''Figure 5:'''Architecture of the new module for the generalized volume sources, e.g. here for traffic emissions or biogenic emissions.
 
-The development of a graphics-based algorithm for chimney position location (see example in Figure 6) is based on the geometric centre of each connected building according to an approach following Struschka and Li (2019, internal report in the line of a subcontract in MOSAIK phase 1) (WP-I1.4).
+A module for modeling the formation of secondary inorganic aerosols using the aerosol thermodynamic equilibrium models ISORROPIA and ISORROPIA II was added. The aerosol option can be activated and controlled in PALM-4U via the namelist.
 
-{{{
-#!div style="align:center; width: 1000px; border: 0px solid"
-[[Image(WP-I1-figure6.png,nolink,400px,center)]]
-}}}
+The extension for modeling domestic fire emissions from residential and office buildings, based on the work of Struschka and Li (2019) (a subcontracted report from MOSAIK Phase 1), and the module for the parameterized emissions from point sources from the European Pollutant Release and Transfer Register (E-PRTR) and from GRETA (Gridding Emission Tool for ArcGIS; GRETA) from UBA were completed.
 
-   '''Figure 6:'''Exemplary representation of the chimney position location (orange) on the respective buildings (yellow)
+A Python-based dynamic driver has been developed to provide realistic mesoscale forcings from WRF output data to PALM-4U. A journal paper, Lin et al.,(2020), has been accepted for publication in Geoscientific Model Development (WP-I1.7). 
 
-
-We cooperate and exchange data with WP-I2 (TUB) on dynamic traffic-related emissions for the pollutant dispersion calculation in PALM-4U (WP-I1.4)
-
-A Python based dynamic driver has been developed to provide realistic mesoscale forcings from WRF output data to PALM-4U. A journal paper, Lin et al.,(2020), has been accepted for publication in Geoscientific Model Development (WP-I1.7). 
-
-With the available nco-cdo based tool, output from WRF-Chem will be used to provide mesoscale chemistry forcing for PALM-4U chemistry simulations (WP-I1.7).
+With the available nco-cdo-based tool, output from WRF-Chem will be used to provide mesoscale chemistry forcing for PALM-4U chemistry simulations (WP-I1.7).
 
 A publication is in preparation including a comprehensive evaluation of the chemistry model in PALM-4U. For this purpose, nested model runs for different domains were set up (see one example in Figure 7), which are to be evaluated on the basis of available measurement data (WP-I1.7).
@@ -118 +110 @@
    '''Figure 7:'''Nested PALM simulation. Parent domain (left panel, grid resolution of 10m) and child domain (right panel, grid resolution of 1m)
 
+The development of a pollen emission model is continued.
 
-Technical support and advice for the chemistry model in relation to PALM-4U evaluation runs is being provided as and when required (WP-I1.8).
+The shading effect has been integrated into the photolysis scheme.
 
-Chemistry model training and support is provided in PALM Seminar in February and September 2020, and also in February 2021.
+For the city of Berlin, the feasibility study and workflow for the implementation of the inversion of the column-integrated concentration of the CO2 budget were carried out (WP-I1.3). 
+
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