2023
DOI: 10.3390/rs15030643
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The Habitat Map of Switzerland: A Remote Sensing, Composite Approach for a High Spatial and Thematic Resolution Product

Abstract: Habitat maps at high thematic and spatial resolution and broad extents are fundamental tools for biodiversity conservation, the planning of ecological networks and the management of ecosystem services. To derive a habitat map for Switzerland, we used a composite methodology bringing together the best available spatial data and distribution models. The approach relies on the segmentation and classification of high spatial resolution (1m) aerial imagery. Land cover data, as well as habitat and species distributi… Show more

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Cited by 8 publications
(5 citation statements)
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“…Assuming that there will not be significant changes in the way EI is managed, we used the LULC predictions for 2060 as a proxy to represent the expected change in each archetype. We further analyzed the current habitat distribution (Price et al 2021) in the archetypes according to the habitat classification of Switzerland (Delarze et al 2015) by looking at the average percentage cover of habitats within each archetype. Lastly, the distribution of biodiversity, represented by the proportion of species richness (Honeck et al 2020) and the values of ecological connectivity based on the red deer (Cervus elaphus) using circuit theory (Honeck et al 2020) were normalized and analyzed across all archetypes by calculating the average percentages within each archetype (appendix C).…”
Section: Discussionmentioning
confidence: 99%
“…Assuming that there will not be significant changes in the way EI is managed, we used the LULC predictions for 2060 as a proxy to represent the expected change in each archetype. We further analyzed the current habitat distribution (Price et al 2021) in the archetypes according to the habitat classification of Switzerland (Delarze et al 2015) by looking at the average percentage cover of habitats within each archetype. Lastly, the distribution of biodiversity, represented by the proportion of species richness (Honeck et al 2020) and the values of ecological connectivity based on the red deer (Cervus elaphus) using circuit theory (Honeck et al 2020) were normalized and analyzed across all archetypes by calculating the average percentages within each archetype (appendix C).…”
Section: Discussionmentioning
confidence: 99%
“…This is particularly problematic if poorly detected, small or ephemeral habitat features are essential resources for seeding populations in the digitised landscape but missing from input landcover data. Incorporating on-the-ground survey information, structural descriptors from LiDAR data and future advances in very high resolution remote-sensing may help to address this issue and increase predictive power (Bradter et al 2020;Price et al 2023).…”
Section: Supporting Biodiversity-inclusive Landscape Decision-makingmentioning
confidence: 99%
“…Firstly, we collected it along with interaction data where available. Secondly, we inferred habitat associations by intersecting species occurrence data 40 with the Habitat Map of Switzerland 131 . We used the st_intersection() function from the sf package 132,133 (version 1.0-15) in R 125 to intersect the point data with the polygonal habitat map.…”
Section: Habitat-association and Position In The Vertical Stratificat...mentioning
confidence: 99%