17. September 2019
Earthquake disaster response exercise in Austria

Tech­nolo­gies for cri­sis man­age­ment in the event of a dis­as­ter

DO 228 D-CODE research aircraft
DO 228 D-CODE re­search air­craft
Image 1/5, Credit: © DLR. All rights reserved

DO 228 D-CODE research aircraft

The DO 228 D-CODE re­search air­craft is used by DLR for re­mote sens­ing, among oth­er things.
UFly ground control station
UFly ground con­trol sta­tion
Image 2/5, Credit: ÖRK

UFly ground control station

A re­searcher in the cri­sis man­age­ment cen­tre us­es the UFly ground con­trol sta­tion to plan a mis­sion for the D-CODE re­search air­craft
Mountaintop station
Moun­tain­top sta­tion
Image 3/5, Credit: DLR (CC BY-NC-ND 3.0)

Mountaintop station

Con­struc­tion of the moun­tain­top sta­tion need­ed for the dig­i­tal con­nec­tion be­tween the UAS demon­stra­tor and the emer­gen­cy forces in the val­ley
Aerial view of the situation
Aeri­al view of the sit­u­a­tion
Image 4/5, Credit: © DLR. All rights reserved

Aerial view of the situation

The moun­tain­ous re­gion is a de­mand­ing chal­lenge for the res­cue teams on the ground and the DLR team. Shown here are the town of Eisen­erz and the area of the dis­as­ter re­sponse ex­er­cise, im­aged by the DLR DO 228 D-CODE re­search air­craft.
Emergency forces during the Austrian earthquake exercise
Emer­gen­cy forces dur­ing the Aus­tri­an earth­quake ex­er­cise
Image 5/5, Credit: ÖRK und R.Gryc

Emergency forces during the Austrian earthquake exercise

In the sce­nario, the cen­tral re­gion of Aus­tria was hit by a se­vere earth­quake and sub­se­quent heavy rain­fall. All lo­cal and na­tion­al agen­cies (Red Cross, fire brigade, po­lice and armed forces) were de­ployed. DLR pro­vid­ed cri­sis man­age­ment so­lu­tions and vi­tal aeri­al im­age da­ta dur­ing the ex­er­cise.
  • DLR provides crisis management solutions and vital aerial image data for trials in Austria
  • The DO 228 D-CODE research aircraft in action
  • Focus: Security, aeronautics, digitalisation

Earthquakes occur every day in Europe. In July 2019, no fewer than 27 earthquakes with a magnitude of between four and five on the Richter scale were detected, most of them in south-eastern Europe. The EU's DRIVER+ project (Driving Innovation in Crisis Management for European Resilience) conducted a comprehensive disaster management exercise to address this. It was held from 12 to 14 September 2019 in the Eisenerz region of Austria, with a view to strengthening crisis management capabilities. The deployment of innovative developments and technologies was tested within the context of an earthquake scenario and evaluated by experts. The German Aerospace Center (Deutsches Zentrum für Luft- und Raumfahrt; DLR) generated real-time aerial images to provide essential support for position detection and rescue logistics.

Unmanned aerial reconnaissance

Real-time aerial images can make a significant contribution towards quickly and accurately assessing the situation on the ground after a disaster, and thus assist with planning relief operations in a targeted manner. The use of Unmanned Aerial Systems (UAS) has proven particularly effective for this purpose, as they can fly over regions that are difficult to access without endangering emergency or rescue teams.

This is where DLR's work is relevant. Their DO 228 D-CODE research aircraft was used as a demonstrator to show how a UAS could be used for disaster response within controlled airspace. This modified aircraft was controlled remotely using a new digital autopilot via a datalink, like an unmanned aircraft. Two test pilots and a flight test engineer from DLR Flight Experiments were on board for monitoring purposes and to ensure flight safety at all times.

From the map to the air

Operations managers on the ground are able to identify and mark out areas of interest on a map and transmit them to the unmanned aircraft as a request. This request is then translated into a flightpath in real time, taking account of the current conditions (for example, nearby air traffic, weather, visibility, mission objectives) and automatically flown by the UAS. "This marks an important contribution to aeronautics research not just in terms of demonstrating the capabilities of a UAS, but also as a further step towards the safe and efficient integration of UAS traffic into general airspace," says Christian Niermann, the project leader coordinating DLR’s involvement in DRIVER+.

80 square kilometres in 10 minutes

The flight and mission planning for the aircraft was carried out using the UFly ground control station for unmanned aircraft, which was set up by the DLR Institute of Flight Guidance. For DRIVER+, DLR’s D-CODE research aircraft was equipped with a 3K camera system specially designed by the DLR Remote Sensing Technology Institute for use during disaster response missions. Using this camera system, the research aircraft can capture an area of 80 square kilometres in approximately 10 minutes, create geo-referenced aerial images and transmit the results to the ground control station via a datalink. Such aerial images were acquired on several flights during the exercise. Within a few minutes, these were made available to the emergency crews on the ground, who were able to use them to gauge the extent of the damage, coordinate rescue teams and search for injured or missing persons.

The collected data were also forwarded to the Center for Satellite Based Crisis Information (ZKI) at the German Remote Sensing Data Center (DFD). The ZKI created maps interpreting the data to facilitate the straightforward exchange of information. Aerial image data were processed and combined with other geodata for this process in order to provide comprehensive support to both the task forces on the ground and to their control centres. Detailed high-resolution maps and interactive 3D representations were also created during the disaster response exercise. These kinds of 3D views are particularly important in topographically demanding areas like the Eisenerz region, as they can identify potentially hazardous areas and detect changes in the terrain.

The DRIVER+ project

DRIVER+ is an EU-funded project that assists those involved in crisis management to find the best ways of coping with disasters. A total of four trials and a final demonstration will take place over the course of the project. A number of disaster management stakeholders are identifying, testing and evaluating various innovative solutions. Previously identified requirements that have to be resolved or fulfilled have been defined for that purpose.  Following three major trials – in Poland, France and the Netherlands – this trial in Austria was the fourth and last in the project, prior to the final demonstration. The DRIVER+ project has received funding from the European Union’s Seventh Framework Programme with the reference number 607798.

The pilot test

The large-scale test in Austria focused primarily on the identification and testing of solutions for overcoming possible shortcomings in the management and support of volunteers. The latter were studied more closely in terms of their current location, tasks, capabilities and the duration of their assignments. In addition, the possibility of merging data from different sources in real time (for example, visualisation of resources, tactical situation, critical asset maps, damaged objects/infrastructure, etc.) was also explored in order to support decision making by the operations managers and to simplify the exchange of crisis-related information.

The simulated scenario

In the scenario, the central region of Austria was hit by a severe earthquake and subsequent heavy rainfall. The Eisenerz area in Styria was particularly badly affected, with large numbers of missing and injured people, collapsed buildings, blocked roads and endangered industrial plants. Residents left their homes and had to spend days outdoors due to fear of aftershocks, a lack of temporary accommodation and the blocked roads. The supply of water, food, shelter, transport and medical care was interrupted. Electricity and mobile communications networks were also severely disrupted.

All local and national agencies (Red Cross, fire brigade, police and armed forces) were deployed. The European Union’s disaster management procedure was activated due to the rapid expansion of the affected area and the fact that national response teams were already working at full capacity. International assistance was requested in order to provide medical care and water treatment facilities, and also to help with search and rescue operations. The difficulty in accessing the affected area and the various impacts of the disaster made it necessary for humanitarian aid and for remote sensing to determine the situation. Many volunteers and a substantial amount of rescue equipment were required to cope with the increasing numbers of people affected.

More information is available on the project website: https://www.driver-project.eu/.

Contact
  • Falk Dambowsky
    Head of Me­dia Re­la­tions, Ed­i­tor
    Ger­man Aerospace Cen­ter (DLR)

    Cor­po­rate Com­mu­ni­ca­tions
    Telephone: +49 2203 601-3959
    Linder Höhe
    51147 Cologne
    Contact
  • Christian Niermann
    Pi­lot As­sis­tance
    Ger­man Aerospace Cen­ter (DLR)
    In­sti­tute of Flight Guid­ance
    Telephone: +49 531 295-2151
    Lilienthalplatz 7
    38108 Braunschweig
    Contact
  • Dr. rer.nat. Nina Merkle
    Pho­togram­me­try and Im­age Anal­y­sis
    Ger­man Aerospace Cen­ter (DLR)
    Re­mote Sens­ing Tech­nol­o­gy In­sti­tute (IMF)
    Telephone: +49 8153 28-2165
    Münchener Straße 20
    82234 Weßling
    Contact
  • Schröter Elisa
    Geo-Risks and Civ­il Se­cu­ri­ty
    Ger­man Aerospace Cen­ter (DLR)
    Ger­man Re­mote Sens­ing Da­ta Cen­ter (DFD)
    Telephone: +49 8153 28-3552
    Münchener Straße 20
    82234 Weßling
    Contact
  • Sfefan Schröder
    Project Man­age­ment Flight Eper­i­ments
    Ger­man Aerospace Cen­ter (DLR)
    Flight Ex­per­i­ments
    Telephone: Tel.: +49 531 295-2828
    Lilienthalplatz 7
    38108 Braunschweig
    Contact
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