Global Change Biology CommunicationsEcologyPeer-reviewed journal article
Future Range Shifts and Diversity Patterns of Antarctic Lecideoid Lichens Under Climate Change Scenarios
Anna GötziD, Mikhail AndreeviD, Robert R. JunkeriD, Lea MaislingeriD, Leopoldo G. SanchoiD, Wolfgang TrutschnigiD, Ulrike RuprechtiD
Abstract
Being uniquely adapted to extreme environmental conditions, rock-dwelling lecideoid lichens are a diverse and major component of terrestrial vegetation in Antarctica. Climate change is reshaping Antarctic ecosystems, forcing cold-adapted species to migrate to maintain their climatic niche. The study surveyed the circum Antarctic lecideoid lichen diversity and modelled the impacts of two climate change scenarios on their distributional range shifts across Antarctica. Myco- and photobiont symbionts of lecideoid lichen species from a circum-Antarctic sampling were classified using classical barcoding methods. The climatic niches of nine common mycobiont species and four photobiont OTUs were modelled, and range shifts were projected across four Antarctic bioregions under two Shared Socioeconomic Pathways: (a) SSP1-2.6: sustainable development (2.6 Wm-2, +3{degrees}C) and (b) SSP5-8.5: continued dependence on fossil fuels (8.5 Wm-2, +5.1{degrees}C). DNA barcoding revealed altogether 34 species of lecideoid lichens and 9 photobiont OTUs for the Antarctic continent. In addition to the already known lichen species in Antarctica, three newly detected species of the genus Lecidella could be identified. The calculated climate change scenarios across bioregions predict greater range expansion for mycobiont species and photobiont OTUs than climate-induced habitat loss. While niche contraction is expected in maritime Antarctica, species distributions are expected to expand in continental regions, primarily due to inland shifts. These inland areas may serve as emerging climatic refugia for certain mycobiont species. Overall, these results suggest that, under future warming, lecideoid lichens undergo an overall range expansion, particularly in previously uncolonized inland areas in continental Antarctica.
- Citations
- 1
- FWCI
- 0.95
- Field percentile
- top 20%
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- How do symbiotic associations in lecideoid lichens respond to different environmental conditions along the Transantarctic Mountains, Ross Sea region, Antarctica?
M. Wagner, G. Brunauer, … U. Ruprecht·bioRxiv·May 26, 2021
- High levels of endemism and local differentiation in the fungal and algal symbionts of saxicolous lecideoid lichens along a latitudinal gradient in southern South America
U. Ruprecht, F. Fernandez Mendoza, … A. Fryday·bioRxiv·Jul 22, 2019
- Myco- and photobiont associations in crustose lichens in the McMurdo Dry Valleys (Antarctica) reveal high differentiation along an elevational gradient
M. Wagner, A. C. Bathke, … U. Ruprecht·bioRxiv·Jul 29, 2019
- Effects of climatic change on the potential distribution of Lycoriella species (Diptera: Sciaridae) of economic importance
Roberta Marques, Juliano Lessa Pinto Duarte, … Daniel Jiménez‐García·InsectsPeer-reviewed·Sep 15, 2021
- Lichen Growth Form Effects on Rock Weathering in Cold Biomes
Emma Nika Ciric, Inger K. de Jonge, … Stef Bokhorst·bioRxiv·Jun 23, 2026
- Distribution patterns of two widespread, co-dominant savanna tree species of the Indian subcontinent under current and future climates
DAIHRII KAIKHO LIRIINA, Biswa Bhusana Mahapatra, … Mahesh Sankaran·bioRxiv·Jul 13, 2025