Diese Seite ist nur auf Englisch verfügbar.

Research AImon5.0

Real-time monitoring of gravitational mass movements for critical infrastructure risk management with AI-assisted 3D metrology

Echtzeitüberwachung gravitativer Massenbewegungen zum Risikomanagement kritischer Infrastrukturen mit KI-unterstützter 3D-Metrologie

 

AIMon5.0 Logo (version with stylised rockfall and point cloud waves)

News

Follow project updates via the GIScience News Blog, on LinkedIn and Bluesky via #AImon #BMBF, and on the central AImon5.0 project website.

Objective

The Earth's surface is constantly changing. Climate change is altering environmental conditions - for example, more intense and prolonged precipitation is causing more frequent landslides or rockfalls. Such events do not only affect the local population but also central and critical infrastructure. A key tool in integrated risk management is the availability of 4D geo-information. The information is collected through continuous monitoring in near real time. The current state of the art is fixed and autonomous permanent laser scanner (PLS) systems. PLS systems provide huge amounts of data (billions of measurements per day). In order to make PLS systems and 4D (3D + time) analysis methods available for operational use and to limit the big 4D data to the relevant information for decision makers, a new interface between the information needs of the application and the 4D acquisition and analysis is required. For the first time, this will make it possible to use state-of-the-art PLS systems in operational risk monitoring and, with the help of artificial intelligence methods, to find and evaluate specific relevant events (e.g. activation of a slope area) in the huge amounts of data, to follow them in continuous monitoring and to automatically identify new events.

In AImon5.0, our open-source frameworks HELIOS++ and py4dgeo will be combined to enhance current approaches for the automatic extraction and visualization of change from 4D PLS data.

Schaubild, dass das Framework das AIMon5.0 Projekts darstellt, mit Logos

In this project of the 3DGeo Research Group Heidelberg, the following key research objectives will be addressed:

  • Identify which computer-based methods for automatic information extraction from 4D PLS data and their visualization are particularly suitable for operational use, and how these may have to be adapted and extended in order to provide reliable and timely results.
  • Investigate and combine two complementary approaches (rule-based 4D change analysis and data-driven approaches using AI and virtual laser scanning) to automatically extract change information.
  • Find out which levels of abstraction and forms of visualization are best suited to certain tasks and given reaction times.

AImon5.0 will thereby close the gap between existing 4D analysis methods and an operational implementation in a real-time assistance system.

Press and Media

2024-03-07: Trierer Roter Fels wird mit Lasern vermessen (video)

2023-12-15: Der Felsvermesser: Sein Laser sichert Trierer Steilwand (press release)

Funding

AIMon5.0 is funded by the Federal Ministry for Education and Research (BMBF).

Funding code: 02WDG1696

Funding priority: Digital GreenTech – Umwelttechnik trifft Digitalisierung

Duration: 2023-2025

Logo des BMBF in englischer Version | Logo of the BMBF English version

Related Publications

Tabelle

CONNECT

COLLABORATION STRATEGY

DMT GmbH & Co. KG serves as the coordinator of the interdisciplinary research project. Components and services developed by the individual partners will be integrated into a single system.

PROJECT PARTNER

Development of novel approaches and tools for the automatic extraction of relevant change information from 4D PLS data and for the visualization of extracted change information for end users.

PROJECT PARTNER

Implementation and demonstration of 4D PLS system and development of a web-based information tool for monitoring, data management and visualization of results in near-realtime.

PROJECT PARTNER

Development of methods for the quantification and reduction of uncertainty in 4D PLS data and for the detection and geometric parametrization of change.

TEAM

- Bernhard Höfle
- William Albert
- Ronald Tabernig
- Vivien Zahs