Ongoing projects

 LIFE AMOORE - Austrian Moor Restauration

The LIFE AMooRe project aims to initiate the implementation of the Austrian Mire Strategy 2030+ and thus to facilitate nationwide peatland protection in Austria. The focus of the Geoecology working group at the University of Vienna (S. Glatzel) within the large-scale project is in particular on researching the emission factors for carbon storage and the release of greenhouse gases from near-natural and disturbed peatlands as well as from agricultural and forestry land on peat soils.

Torfstube Gosau (c) Gert Michael Steiner

Torfstube Gosau (c) Gert Michael Steiner

 BraMaSchi - Carbon monitoring after the Jois reed fire as part of the reed belt fire management pilot project

The aim of this project, which is being led by the Biological Station Neusiedler See, is to determine the actual extent of a reed burn - particularly in terms of the carbon balance and air pollutant emissions. To this end, several hectares of an area of the Lake Neusiedl reed belt near Jois, which was predominantly covered by old reed, were burned on 13 January 2024. Together with the Institut für Waldbau (BOKU), we are investigating the carbon balance in order to accurately estimate the biomass discharge and to be able to make profound statements about the framework conditions for future fire management.

Burnt area in the reed belt of Lake Neusiedl (c) Andreas Maier

Burnt area in the reed belt of Lake Neusiedl (c) Andreas Maier

 Conservation and Restoration of Peatland Biodiversity in Austria

How are the domestic peatlands doing? Which peatlands in Austria are best suited for current and future peatland restoration? By comparing the vegetation of the peatlands - from before the compilation of the Austrian Peatland Conservation Catalogue in 1992 until today - the current conservation status of the peatlands is surveyed. The data collection is spread over seven federal states and all peatland types. The development and state of peatlands allow to estimate the potential of carbon storage through ecological restoration. Additionally, the data will allow to refine climate risk scenarios for peatlands in Austria. 

Überlingmoos (c) Constantin Pöll

Überlingmoos (c) Constantin Pöll

Can the rewetting of drained, nitrogen contaminated peatlands reduce EU-wide greenhouse gas emissions and improve wetland biodiversity? Peatlands represent 2.5% of all agricultural land in the EU, but ~ 25% of agricultural greenhouse gas (GHG) emissions, and ~ 5% of total EU-wide GHG emissions. The rewetting of peatlands has been found to reduce, or even reverse, carbon dioxide (CO2) and nitrous oxide (N2O) gas emissions, the most common and potent GHGs respectively.

 MOIST – Recording Austria's degraded peatlands and assessing their suitability for restoration

The MOIST project is concerned with recording degraded peatlands in Austria and assessing their suitability for regeneration measures. The focus is on the recording of peatland areas and peat soils, based on the intersection of different data bases, the development of models and supplementary surveys in the field. The result should be distribution maps of organic soils, which will be used in a further step to develop a catalogue of criteria for the possibilities of rewetting measures. This is intended to achieve the overarching goals of the Austrian Mire Strategy 2030+ and the Biodiversity Strategy in order to preserve or restore important ecosystem services.

Pichlmaier Moor (c) Raphael Müller

 Dissertation projects

Pamela Baur is working on quantifying and improving the process understanding of methane, carbon dioxide and water vapor fluxes in the reed belt of Lake Neusiedl.

Yujing Deng investigates mechanisms of peat decomposition under climate change and anthropogenic activities.

Group photo of reed belt (c) Geoecology

(c) Geoecology

 ReVersal (Restoring peatlands of the nemoral zone under conditions of varying water supply)

The ReVersal project aims to develop a indicator framework for peatland restoration success across peat bog sites affected by drainage and/or extraction. This will be achieved by the consideration of biological and biogeochemical conditions, greenhouse gas fluxes, and biodiversity along degradation and restoration trajectories s. Based on this consideration, uncertainties of conservation and restoration approaches will be evaluated and adaptive management strategies considering trade-offs between restoration goals will be developed. These strategies can be transferred across landscapes via remote-sensing based models.

Pichlmeier Moor (c) Simon Drollinger

Pichlmeier Moor (c) Simon Drollinger

Ongoing projects