Prof. Dr. Michael Lehning

Funktion

Professor für atmosphärische Physik

Schnee und Atmosphäre

Schneeprozesse

Kontakt

lehning(at)slfto make life hard for spam bots.ch

+41 81 417 01 58+41 81 417 01 58

WSL-Institut für Schnee- und Lawinenforschung SLF
Flüelastrasse 11
7260 Davos Dorf

Standort

Davos Da C 1 49

CV Michael Lehning (pdf)
Antrittsvorlesung vom 13.4.2012 an der EPFL

Fototour

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Michael Lehning

Feldarbeit auf der Latschüelfurgga

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WEITERFÜHRENDE INFORMATIONEN

Projekte

Snowtinel: Sentinel-1 SAR assisted catchment hydrology: toward an improved snow-melt dynamics for alpine regions.

The recent increased availability of radar remote sensing products offers a great potential for improving our capability to understand and monitor snowmelt processes at high spatial and temporal resolution.

Dynamics of the rock slope instability "Spitze Stei"

The rock slope instability "Spitze Stei" constitutes a risk for the touristic infrastructure around lake Öschinensee and the village Kandersteg. Our project task will investigate the mechanisms which led to the slope destabilisation and analyse scenarios for slope failures.

CCAMM II: Cascading Processes

The CCAMM cluster "Cascading Processes"develops knowledge and models that can be used to anticipate future cascading events. At "Spitze Stei", Kandersteg BE, we study the cascading processes: rock slope instability, debris flow, rock/snow avalanches and lake outburst floods.

Climate and snow input at different spatial and temporal scales

Our project aims to collaborate with various proposed CAMM II projects within the clusters "Cascading processes' and "Early warning systems", providing meteorological, snow cover, ground temperature and snow melt data at different temporal and spatial scales.

CROMO-ADAPT

Climate change in Central Asia mountain regions will have significant impacts on water availability and the occurrence of natural hazards. CROMO-ADAPT strengthens the glacier, snow and permafrost monitoring systems and capacities in Central Asia, develops user-oriented climate information services, and supports the planning of adaptation measures to increase resilience to climate change.

Enabling Weather, Water and Climate Services in Tajikistan

Improved resilience of mountain communities in Tajikistan to natural hazards, climate change and climate variability through use of effective weather, water and climate services. Caritas led project with MeteoSwiss and SLF as partners.

CCAMM Task 1.0: Downscaling Meteorological forcings.

The WSL program Climate Change Impacts on Alpine Mass Movements (CCAMM) comprises projects covering a range of topics in natural hazards. Most investigations use models and thus require climate forcing data. The aim of this task is to provide meteorological forcings at the slope scale and in high temporal resolution.

Ein Schweizer Beitrag zu MOSAiC

Die Energieflüsse auf Meereis sind in der Arktis sind extrem variabel, die Wärmeübertragung zwischen Ozean und arktischer Atmosphäre sind eine der wichtigen Gründe dafür. Die Forschungsprojekt MOSAiC will nun herauszufinden, welche Strahlungsflüsse diese saisonal beeinflussen.

Water in permafrost rock walls

This project investigates the thermal and mechanical effects of water in rock fractures in mountain permafrost regions.

Rock sediment disposition

Recently, rock-ice deposits have come into focus for their potential to provide sources of secondary hazards and as an alternative water resource in a changing climate. The aim of this project is to model the evolution of the thermal regime of rock-ice deposits under future climate scenarios.

WSL-Publikationen

Wissenschaftliche Artikel Peer-reviewt

Kristianti, F.; Dujardin, J.; Gerber, F.; Huwald, H.; Hoch, S.W.; Lehning, M., 2023: Combining weather station data and short-term LiDAR deployment to estimate wind energy potential with Machine Learning: a case study from the Swiss Alps. Boundary-Layer Meteorology, 188: 185-208. doi: 10.1007/s10546-023-00808-y

Rohner, D.; Lehning, M.; Steinberger, J.; Tetreault, N.; Trutnevyte, E., 2023: Decentralized green energy transition promotes peace. Frontiers in Environmental Science, 11: 1118987 (4 pp.). doi: 10.3389/fenvs.2023.1118987

Yu, H.; Li, G.; Walter, B.; Lehning, M.; Zhang, J.; Huang, N., 2023: Wind conditions for snow cornice formation in a wind tunnel. Cryosphere, 17, 2: 639-951. doi: 10.5194/tc-17-639-2023

Haugeneder, M.; Lehning, M.; Reynolds, D.; Jonas, T.; Mott, R., 2023: A novel method to quantify near-surface boundary-layer dynamics at ultra-high spatio-temporal resolution. Boundary-Layer Meteorology, 186: 177-197. doi: 10.1007/s10546-022-00752-3

Sharma, V.; Gerber, F.; Lehning, M., 2023: Introducing CRYOWRF v1.0: multiscale atmospheric flow simulations with advanced snow cover modelling. Geoscientific Model Development, 16, 2: 719-749. doi: 10.5194/gmd-16-719-2023

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Weitere wissenschaftliche Publikationen

Michel, A.; Epting, J.; Schaefli, B.; Lehning, M.; Huwald, H., 2021: Changement climatique et température des rivières. Étude des changements survenus durant les 50 dernières années et attendus pour le futur. Aqua & Gas, 101, 7/8: 70-77.

Lehning, M.; Kahl, A.; Dujardin, J.; Kruyt, B.; Marty, C.; Bavay, M.; Barlett, S., 2019: Erneuerbare Energien und die Rolle des Schnees: Erkenntnisse aus detaillierten Szenarienrechnungen für Wasserkraft und PV. In: Raupenstrauch, H.; Hediger, W.; Germann, N. (eds), 2019: Energieforschungsgespräche Disentis 2019. Abstracts. Energieforschungsgespräche Disentis 2019, Disentis/Mustér, Schweiz. 42-44.

Iosifescu Enescu, I.; Fraefel, M.; Plattner, G.; Espona-Pernas, L.; Haas-Artho, D.; Lehning, M.; Steffen, K., 2018: Fostering open science at WSL with the EnviDat Environmental Data Portal. In: 2018: 5th Open Source Geospatial Research and Education Symposium, Lugano. (7 pp.). doi: 10.7287/peerj.preprints.27211v1

Bavay, M.; Fiddes, J.; Fierz, C.; Lehning, M.; Monti, F.; Egger, T., 2018: The meteoIO pre-processing library for operational applications. In: 2018: International snow science workshop proceedings 2018. International snow science workshop, ISSW 2018, Innsbruck. 696-700.

Lehning, M.; Mott, R., 2016: Bodennahe atmosphärische Prozesse und ihre Wirkung auf die hochalpine Schneedecke. Promet: Meteorologische Fortbildung, 98: 59-67.

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Zeitschriften und Broschüren

Kahl, A.; Dujardin, J.; Lehning, M., 2022: 100% erneuerbar - und zwar mit Köpfchen. Bulletin SEV/VSE, Fachzeitschrift und Verbandsinformationen von Electrosuisse und VSE, 113, 10: 14-18.

Lehning, M.; Ebner, P.P.; Rhyner, H., 2018: Schnee und Klimawandel im Hochgebirge. Prozessverständnis, Vorhersagen und Anpassungsmaßnahmen. Themenbereich: Skisport und Umwelt. FdSnow, 36, 53: 46-51.

Steinkogler, W.; Lehning, M.; Sovilla, B.; Jonas, T., 2014: L'energia termica nelle valanghe. Neve e Valanghe, 82: 16-21.

Dierer, S.; Cattin, R.; Grünewald, T.; Lehning, M.; Steiner, P., 2010: Modelling the risk of icing. Mapping and forecasting icing on structures. Windtech international, 2010, June: 22-27.

Marty, C.; Phillips, M.; Lehning, M., 2007: Klimaänderungen und Naturgefahren. Bündnerwald, 60, 3: 35-42.

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