The recording of the seventh webinar of the LandAware 2026 webinar series “What is wrong with shallow landslide susceptibility modelling? Insights from machine learning, numerical modelling and field investigation“, by Tobias Halter (ETH Zürich, Swizterland), held on 24 September 2026, is online on the LandAware YouTube channel.
The recording of the second webinar of the LatAm regional group, held on 21 July 2026, is available on the LandAware YouTube channel.
The 7th webinar of the LandAware 2026 webinar series “What is wrong with shallow landslide susceptibility modelling? Insights from machine learning, numerical modelling and field investigation”, by Tobias Halter (ETH Zurich, Swizterland) is scheduled for 24 September 2026, 14:00 UTC.
Abstract
Landslide susceptibility maps have become essential tools for early warning and hazard management, aiming to predict the spatial deposition of slope failure across a landscape. In recent decades, machine learning approaches and high-resolution spatial data have steadily improved susceptibility assessments. Yet discrepancies between predicted susceptibility and observed landslide occurrence persist. In this webinar we explore these limitations through studies that combine machine learning, numerical modelling, and field observation. We examine soil profiles and geophysical measurements collected at landslide head scarps in Switzerland to understand what triggered these failures, and compare them with equivalent measurements from slopes that were predicted to have similarly high susceptibility, but did not fail. The results show that variations in soil texture, development, type, and depth strongly influence the mechanical and hydrological conditions governing slope stability — factors that large-scale models often cannot capture. Together, these findings offer insight into why susceptibility models fall short, and point toward what finer-scale, field-grounded data could contribute towards landslide early warning.

Bio
Tobias Halter is a doctoral student, soon to complete his PhD in Engineering Geology at the Swiss Federal Institute of Technology Zurich (ETH). His research focuses on integrating soil hydrological measurements into large-scale landslide early warning models and shallow landslide susceptibility mapping. His work combines data-driven machine learning analysis, physically based numerical modelling, and field observations, all directed toward a single goal: improving predictions of when and where landslides will occur in the future.
Through his involvement in the development of the Swiss national landslide early warning system, he gained first-hand experience of the challenges governmental agencies face in translating scientific advances into operational tools. This experience has reinforced his motivation to pursue research that not only advances scientific understanding but also addresses practical challenges in natural hazard management.
Save the date for the next LandAware workshop, which will be held in Rio de Janeiro–Niterói metropolitan area, Brazil.
The workshop will be from Tuesday 24 to Friday 27 August 2027.
The event will be hosted by the Fluminense Federal University (UFF). Other public institutions will support the event with technical visiting, and stakeholders engagement, such as COR-Rio (Operations Center of Rio de Janeiro), Fundação Geo-Rio (Geo-Rio), and Instituto Pereira Passos (IPP).
Stay tuned for updates!

News from
Thomas Glade (University of Vienna)
International Disaster Management and Civil Protection
Master’s Program | Academic Expert Program | Micro-Credentials
For detailed information please visit International Disaster Management & Civil Protection, or join our LinkedIn channel.
Some EUMA facts in a nutshell:
- Within the two years Master course, the continuing education program EUMA “International Disaster Management and Civil Protection” equips participants with scientific foundations and application-oriented skills for working with risks and disasters in international contexts.
- Students engage with the full disaster management cycle, apply theory in practical exercises and analyse current case studies from Europe and around the world.
- All courses are taught in English and combine attendance blocks at partner universities in several EU countries with online units.
- This structure supports specialist depth, interdisciplinary perspectives and fosters strong international networking.
- The program is intended for professionals aiming to expand their responsibilities in the European and global crisis, risk and civil protection environment.
- The EUMA program is embedded at the University of Vienna, Austria, but in strong cooperation with University of Twente Enschede (Netherlands), Sant’ Anna School of Advanced Studies, Pisa (Italy), Dublin City University (Ireland) and University of Bonn (Germany).
EUMA is offered in the variants:
- Master’s Program, 120 ECTS with master’s thesis
- Academic Expert Program,60 ECTS
- Micro-Credentials, 15 ECTS
Some reasons to join …
- Interdisciplinary perspectives across Law, Economics, Politics, Geosciences, and Social Sciences
- Practical insights via field trips and real‑life case studies
- International focus and networks across Europe, and beyond globally
- Current concepts and legal frameworks at EU and national levels
- Engaged learning through diverse methods and simulations
Although the official application deadline has passed, the organizers are still willing to consider late applicants.
News from
Isabela Horta (University of Sao Paulo, Brazil)
Webinar de LandAware Grupo LATAM – Webinar LandAware LATAM Group
— In Portuguese —
Terça-feira, 21 de julho de 2026(14h Horário de Brasília) (12h Central American time) (17h UTC) (19h CEST)
[Tuesday, 21 July 2026 5 pm UTC]

Raquel Fonseca: “Gestão de Riscos e Prevenção de Desastres no município do Rio de Janeiro: O Papel da Fundação Geo-Rio”

Renata Quevedo: “Mega desastre de 2024 no Rio Grande do Sul: o evento extremo quedesencadeoumais de 15 mil movimentos de massa”
Raquel Fonseca é Graduada em Geologia pela Universidade Federal do Rio de Janeiro – UFRJ (2009). Mestre em Geologia pela UFRJ (2012). Especialista em Docência do Ensino Superior em 2016 (Faculdade Cândido Mendes). Técnica em Meteorologia pelo CEFET-RJ (2005). Especialização em Geotecnia com ênfase em Estabilidade de Taludes em andamento (2025). Desde de 2013 trabalha na Fundação Geo Rio e atualmente ocupa o cargo de Coordenadora de Geologia e Monitoramento e realiza o gerenciamento do Sistema Alerta Rio (Sistema de Alerta de Chuvas e Deslizamentos de Encostas da Cidade do Rio de Janeiro). Foi presidente da Associação Brasileira de Geologia de Engenharia e Ambiental (ABGE), núcleo RJ/ES na gestão 2023 /2024. Atualmente compõe a diretoria da Associação Brasileira de Mulheres nas Geociências – núcleo RJ- Gestão 2026/2027.
Renata Quevedo é Geógrafa (2016) e Mestra em Sensoriamento Remoto e Geoprocessamento (2019) pela Universidade Federal do Rio Grande do Sul (UFRGS) (2016). Doutora em Sensoriamento Remoto (2023) pelo Instituto Nacional de Pesquisas Espaciais (INPE). Foi pesquisadora na Universidade de São Paulo (USP) (2023/2024) e na Université de Liège, na Bélgica (2024), e atualmente trabalha como pós-doutora no grupo de pesquisa ENGAGE – Geomorphological Systems and Risk Research, na Universidade de Viena, na Áustria. Sua pesquisa concentra-se no uso de sensoriamento remoto e aprendizado de máquina para analisar áreas suscetíveis a movimentos de massa, avaliando a influência antrópica por meio de mudanças no uso e cobertura, além de estudos de atribuição das mudanças climáticas. É pesquisadora associada ao projeto PREVINE Taquari-Antas, coordenado por pesquisadores da UFRGS, e coordena projetos de pesquisa sobre movimentos de massa em colaboração com a National Chung Hsing University (Taiwan) e sobre terras caídas em parceria com a Universidade Federal do Amazonas.
The recording of the webinar “From Landslide Hazard Assessment to Early Warning: Integrating Geomechanical, Environmental, and Remote Sensing Approaches in Data-Scarce Mountain Regions”, by Danny Love Wamba Djukem (University of Liège, Belgium), held on 25 June 2026, is available on the LandAware YouTube channel.
News from
Rosa Palau (UPC, Barcelona)
You are invited to follow a thesis defense on landslide early warning system, which will be held at UPC Barcelona on July 15.
Thesis title: Multi-hazard modelling of hydro-geomorphological events for early warning systems. Application to the Val d’Aran (Central Pyrenees, Spain)
Doctoral candidate: Flavio Alexander Asurza Veliz
Supervisors: Marcel Hürlimann Ziegler, Vicente César De Medina Iglesias
Date and time: 15/07/2026 – 11:00 am CEST
Link to the online presentation: https://meet.google.com/yyt-irjs-fgc
In-person location:
LUPC Campus Nord,ETSECCPB,
C/ Jordi Girona 1-3,
Edifici C1, Sala 002
Barcelona
News from:
Davide Tiranti (Regional Agency for Environmental Protection of Piemonte, Italy)
The deadline to submit articles to the collection on the Discover Applied Sciences journal (Springer Nature) entitled “Earth and Environmental Sciences: Operational Landslide Early Warning Systems–from Research to Best Practices” has been extended to 31 December 2026.

The sixth webinar of the LandAware 2026 webinar series “From Landslide Hazard Assessment to Early Warning: Integrating Geomechanical, Environmental, and Remote Sensing Approaches in Data-Scarce Mountain Regions”, by Danny Love Wamba Djukem (University of Liège, Belgium) is scheduled for 25 June 2026, 05:00 UTC.
Abstract
Landslide early warning systems are often developed in regions with extensive monitoring networks, long-term datasets, and well-documented landslide inventories. However, many mountainous regions around the world, particularly in Africa and other parts of the Global South, face a very different reality: limited monitoring, sparse environmental data, and incomplete records of past landslides.
This webinar explores how landslide hazard assessment can contribute to the development of early warning strategies in such data-scarce environments. Drawing on case studies from Cameroon, China,
Haiti, it highlights how geomechanical analyses, landslide inventories, physically based modelling, and remote sensing observations can be combined to better understand landslide processes and support forecasting efforts.
The webinar first examines the environmental and triggering factors controlling landslides in tropical mountain regions, using examples from Mount Oku in Cameroon. It then discusses the development and application of site-adaptive approaches for predicting earthquake-induced landslides across different tectonic and climatic settings. Finally, it explores how national landslide inventories, satellite observations, and integrated hazard assessments can provide practical foundations for future landslide early warning systems in regions where traditional monitoring networks remain limited.
The talk argues that effective early warning begins with understanding the landscape, its processes, and its triggers. By integrating geomechanical, environmental, and remote sensing approaches, it is possible to move from hazard assessment toward more operational and scalable warning frameworks, even in data-constrained mountain environments

Bio
Dr. Danny Love Wamba Djukem is an engineering geologist and geohazards researcher specializing in landslide processes, slope stability, earthquake-induced landslides, remote sensing, and hazard assessment in mountainous environments. She holds a Ph.D. in Geotechnics and Geohazards and was previously a Postdoctoral Researcher at Chengdu University of Technology, China. She is currently an Invited Researcher with the Georisk & Environment Group at the University of Liège, Belgium, and is based in Cameroon.
Her research focuses on understanding landslide triggering mechanisms and developing practical approaches for landslide hazard assessment and early warning in data-scarce regions. Her work combines geomechanical analyses, physically based modelling, remote sensing, and landslide inventory development, with applications in Africa, the Caribbean, and Asia.
Her recent studies include landslide hazard assessment in Cameroon, site-adaptive prediction of earthquake-induced landslides, and national-scale landslide inventory development to support disaster risk reduction and resilience planning.