@misc{PoradaBaderBerdugoetal., author = {Porada, Philipp and Bader, Maaike Y. and Berdugo, Monica B. and Colesie, Claudia and Ellis, Christopher J. and Giordani, Paolo and Herzschuh, Ulrike and Ma, Yunyao and Launiainen, Samuli and Nascimbene, Juri and Petersen, Imke and Raggio Qu{\´i}lez, Jos{\´e} and Rodr{\´i}guez-Caballero, Emilio and Rousk, Kathrin and Sancho, Leopoldo G. and Scheidegger, Christoph and Seitz, Steffen and Van Stan, John T. and Veste, Maik and Weber, Bettina and Weston, David J.}, title = {A research agenda for non-vascular photoautotrophs under climate change}, series = {New Phytologist}, volume = {237 (2023)}, journal = {New Phytologist}, number = {5}, issn = {0028-646X}, doi = {10.1111/nph.18631}, pages = {1495 -- 1504}, abstract = {Non-vascular photoautotrophs (NVP), including bryophytes, lichens, terrestrial algae, and cyanobacteria, are increasingly recognized as being essential to ecosystem functioning in many regions of the world. Current research suggests that climate change may pose a substantial threat to NVP, but it is highly uncertain to what extent this will affect the associated ecosystem functions and services. Here, we propose a research agenda to address this urgent question, focusing on physiological and ecological processes that link NVP to ecosystem functions while also taking into account the substantial taxonomic diversity across multiple ecosystem types. Accordingly, we developed a new categorization scheme, based on microclimatic gradients, which simplifies the high physiological and morphological diversity of NVP and worldwide distribution with respect to several broad habitat types. We found that habitat-specific ecosystem functions of NVP will likely be substantially affected by climate change, and more quantitative process understanding is required on (1) potential for acclimation (2) response to elevated CO2 (3) role of the microbiome and (4) feedback to (micro)climate. We suggest an integrative approach of innovative, multi-method laboratory and field experiments and eco-physiological modelling, for which sustained scientific collaboration on NVP research will be essential.}, language = {en} } @misc{SeitzVeste, author = {Seitz, Steffen and Veste, Maik}, title = {Bryophyte-lichens dominated biological soil crusts affect soils and ecohydrology in temperate forests in Germany}, series = {EGU General Assembly 2022, Vienna, Austria \& Online | 23-27 May 2022}, journal = {EGU General Assembly 2022, Vienna, Austria \& Online | 23-27 May 2022}, doi = {10.5194/egusphere-egu22-12352}, abstract = {Forest dieback can be both a consequence and a cause of climate change. The changing climate does not only lead to temperature increases but also changes in the precipitation regime. Extreme events have increased sharply in recent years, making drought and heat waves ubiquitous. Meanwhile, for temperate forests, drought stress is considered one of the most serious impacts of climate change. In this context, forest soils are of great importance in their hydrological functions, as well as their feedbacks with ground vegetation. In this context, biological soil crusts are key drivers of functional processes and ecosystem development, also under forest, where they have been less studied so far. Bryophyte and lichen dominated communities can importantly affect e.g. water storage and discharge as well as soil development and stabilization. Moreover, they contribute to carbon and nitrogen cycling and play an important role in biogeochemical processes. Their species composition depends on soil properties such as texture and pH, on microclimate and as poikilohydric plants, their ecophysiology is strongly dependent on water availability, differing in time and space.}, language = {en} }