Destination Earth Air Quality Use Case DE370C

Destination Earth Air Quality Use Case DE370C

Within the Destination Earth (DestinE) air quality use case contracted by ECMWF, Forschungszentrum Jülich is developing a user interface for analyzing and forecasting air pollution. These simulations will explore the DestinE Digital Twin on Weather-Induced and Geophysical Extremes and result in an on-demand service. Jülich scientists therefore combine state-of-the-art regional and high-resolution chemical transport modelling applying the EURAD-IM with innovative machine learning applications that rest on open access databases of air quality observations (e.g. TOAR-II database) and atmospheric model data. Air quality simulation products will herein be provided basing on a novel conjunction of air quality data and in a remarkably high resolution. In an extension, simulations of emission scenarios will allow the core users to assess local air quality in consideration of diverse potential mitigation strategies.

Background

Destination Earth is an initiative under the EU Digital Europe Programme to boost Green Deal actions on policies for climate change adaptation and geophysical extremes. ECMWF is developing the first two digital twins:

  1. Climate change adaptation
  2. Weather-induced and geophysical extremes

building digital replicas of the Earth system and generating high-quality simulations with unprecedented accuracy.

The DestinE air quality use case DE370C is developed in close cooperation with the German Environment Agency (UBA) and the North Rhine-Westphalia Office of Nature, Environment and Consumer Protection (LANUV) as core users.

Project run time

1 January 2023 to 30 April 2024

Destination Earth Air Quality Use Case DE370C
Envisioned DestinE Air Quality use case system embedded in the DestinE core system. ML stands for machine learning.

The Air Quality User Interface

The DestinE air quality use case develops an interactive and web-based air quality forecasting system. From this user interface, users will be able to execute high-resolution air quality forecasts for selected regions (field forecasting) or at the location of selected monitoring stations (point forecasting). Emission scenarios can be simulated by modulation of emission input data in different EURAD-IM forecast runs.

Prototype of the DestinE Air Quality user interface control panel
Prototype of the DestinE Air Quality user interface control panel illustrating the three air quality applications.


The simulations will be executed on Euro-HPC systems (JURECA-DC at JSC and LUMI at CSC). The forecast results will be provided as interactive map or timeseries visualizations. Coarser resolved field forecasts can possibly be downscaled based on a machine learning algorithm. For individual data analysis, all data will be made available via a download option.

The Air Quality Use Case Demonstrator

Typical air quality extremes that often implicate an enhanced risk for health and environmental impacts are increased near-surface ozone or accumulated particle concentrations. For demonstrating the service and benefit of the DestinE air quality use case, two particulate matter episodes in January and February 2017 are selected as in parts of Europe, winter smog locally occurred. In polluted areas, high temperatures and strong irradiances induce high ozone concentrations. The high ozone episode in Germany in late July - early August 2018 has therefore been selected for additional demonstrator simulations. A third showcase episode of the air quality use case is planned and to be selected by coupling the air quality system to the operational DestinE Extremes digital twin.

timeseries PM10, O3 and Temp
Particulate matter (left) and ozone and temperature (right) timeseries for winter 2017 and summer 2018, respectively. These timeseries were used to identify suitable air quality extremes for the demonstrator.


In accordance with the area of interest of our core users LANUV and UBA all demonstrator simulations will be made available for the target regions of Berlin-Brandenburg and North-Rhine Westphalia.

Emission scenario simulation options will at this point be pre-defined in the use case. The emission modulations will be solely applied on the target regions to evaluate the potential of local air pollution mitigation strategies. The emission scenarios that are selected are:

  • Standard scenario: Simulation of air quality with business as usual emissions.
  • No-emission scenario: Simulation neglecting all anthropogenic emissions in the target domain.
  • Home-office and energy saving scenario: Following the role model of the Covid-19 pandemic, road transport and residential emissions are reduced by 50 % and 20 %, respectively.
  • Industry scenario: Restriction of industrial activities and reduction of power generation, industry, fugitives, and solvents emissions by 70 %.
  • E-traffic scenario: Replacement of current car fleet by low-carbon emission vehicles. Diesel and gasoline emissions are reduced by 25 % and 80 %, respectively, while abrasion emissions are increased by 10 % due to expected increase in vehicular weight.
  • Fireplace scenario: Replacement of a certain percentage of conventional heating systems by wood firing.

The Team

Project PI

Dr. Anne Caroline Lange

Senior Scientist Head of group "Air Quality and Emission Optimization"

  • Institute of Energy and Climate Research (IEK)
  • Troposphere (IEK-8)
Building 05.2 /
Room 3029
+49 2461/61-2617
E-Mail

Expert on EURAD-IM air quality simulations, data assimilation, and emission scenarios

Project Co-PI

Sabine Schröder

Scientific Programmer

  • Institute for Advanced Simulation (IAS)
  • Jülich Supercomputing Centre (JSC)
Building 16.3 /
Room 338
+49 2461/61-6397
E-Mail

Expert on data management, service development and maintenance

Dr. Philipp Franke

Senior Scientist Head of group "Air Quality and Emission Optimization"

  • Institute of Energy and Climate Research (IEK)
  • Troposphere (IEK-8)
Building 05.2 /
Room 3029
+49 2461/61-2617
E-Mail

Expert on ensemble EURAD-IM air quality simulations, data assimilation, and emission scenarios

Dr. Elmar Friese

Senior Scientist

  • Institute of Energy and Climate Research (IEK)
  • Troposphere (IEK-8)
Building 05.2 /
Room 1040
+49 2461/61-3104
E-Mail

Specialist on EURAD-IM air quality simulations , data assimilation, and workflow optimisation

Dr. Michael Langguth

Postdoctoral Researcher

  • Institute for Advanced Simulation (IAS)
  • Jülich Supercomputing Centre (JSC)
Building 14.14 /
Room 4001
+49 2461/61-9792
E-Mail

Specialist on machine learning and downscaling of atmospheric data

Prof. Dr. Martin Schultz

Head of research group Earth System Data Exploration and co-lead of division Large Scale Data Science, University professor in Computational Earth System Science at the University of Cologne.

  • Institute for Advanced Simulation (IAS)
  • Jülich Supercomputing Centre (JSC)
Building 14.14 /
Room 4010
+49 2461/61-96870
E-Mail

Expert on data science and deep learning methods to Earth System Data, i.e. weather, air quality and climate data

“Destination Earth is a European Union funded initiative launched in 2022, with the aim to build a digital replica of the Earth system by 2030. The initiative will be jointly implemented by three entrusted entities: the European Centre for Medium-Range Weather Forecasts (ECMWF) responsible for the creation of the first two ‘digital twins’ and the ‘Digital Twin Engine’, the European Space Agency (ESA) responsible for building the ‘Core Service Platform’, and the European Organisation for the Exploitation of Meteorological Satellites (EUMETSAT), responsible for the creation of the ‘Data Lake’.”  

Destination Earth Air Quality Use Case DE370C

Last Modified: 14.12.2023