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• W3072183947 endingPage "118489" @default.
• W3072183947 startingPage "118489" @default.
• W3072183947 abstract "Mixed oak-beech forests are particularly valuable from an ecological and socioeconomic perspective but are increasingly exposed to anthropogenic impacts. We wonder whether anthropogenic change drivers, such as increased drought and ungulate populations affect optimal regeneration niches, species coexistence, and mixed-species forest dynamics. We compared understorey composition, structure and distribution with the overstorey counterpart in an oak-beech forest located at its southernmost European distribution (Central Spain) with increasing drought and ungulate herbivory for the last decades. Results showed that Ilex aquifolium and Prunus avium had greater representation in the recruitment layer as compared to the understorey layer whereas, for the dominant Quercus spp. and Fagus sylvatica, there was a tendency suggesting an expansion of Fagus at the expense of Quercus. Density of tree recruits showed strong differences across microsites. The greatest density was found under tree and under shrub cover whereas the lowest was found under woody debris. By species, Quercus regenerated better in open and shrub microsites whereas Fagus and Ilex regeneration was higher under tree cover. Large patches of shrub cover favoured Prunus avium recruitment, particularly against ungulate herbivory as it was the most heavily browsed species, followed by Quercus, Ilex and Fagus in a descending order. Herbivory occurrence and intensity on tree recruits strongly varied with the microsite, with greater herbivory levels in open microsites. Woody debris on the ground only protected tree recruits from browsing when they were located under tree cover. Overall, fenced areas with no ungulates showed greater tree species coexistence (28% increase in species richness) and recruitment abundance (81% increase) after 7 years of exclusion. We also found a large increase in tree recruit growth and height:diameter ratio (h:d) for all studied species when fenced. Fagus and Prunus avium showed the greatest growth and h:d increase, much greater than those of Quercus and Ilex. The h:d was identified as a reliable indicator of ungulate herbivory and reference values (under null levels of ungulate herbivory) were provided for each species. We conclude that there is an imperative need for adaptive management strategies that address the joint effects of climate change (e.g. increased drought) and ungulate herbivory in mixed oak-beech forests. The provision of different microsites, including patches of shrub cover in open microsites and woody debris under dense tree cover, will facilitate the availability of suitable regeneration niches for most species and will therefore promote future species coexistence." @default.
• W3072183947 created "2020-08-24" @default.
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• W3072183947 date "2020-12-01" @default.
• W3072183947 modified "2023-10-16" @default.
• W3072183947 title "Tree recruitment in a drought- and herbivory-stressed oak-beech forest: Implications for future species coexistence" @default.
• W3072183947 cites W1503304694 @default.
• W3072183947 cites W1632876899 @default.
• W3072183947 cites W1951724000 @default.
• W3072183947 cites W1963598223 @default.
• W3072183947 cites W1969347740 @default.
• W3072183947 cites W1973903335 @default.
• W3072183947 cites W1974107382 @default.
• W3072183947 cites W1979540196 @default.
• W3072183947 cites W1979777852 @default.
• W3072183947 cites W1982659620 @default.
• W3072183947 cites W1983511367 @default.
• W3072183947 cites W1986322390 @default.
• W3072183947 cites W1990315849 @default.
• W3072183947 cites W1992802829 @default.
• W3072183947 cites W2000421448 @default.
• W3072183947 cites W2003073206 @default.
• W3072183947 cites W2005879514 @default.
• W3072183947 cites W2008200025 @default.
• W3072183947 cites W2008363255 @default.
• W3072183947 cites W2009130252 @default.
• W3072183947 cites W2010493081 @default.
• W3072183947 cites W2013437947 @default.
• W3072183947 cites W2022181332 @default.
• W3072183947 cites W2024826340 @default.
• W3072183947 cites W2033474057 @default.
• W3072183947 cites W2036287271 @default.
• W3072183947 cites W2048987274 @default.
• W3072183947 cites W2050754064 @default.
• W3072183947 cites W2051794407 @default.
• W3072183947 cites W2074099512 @default.
• W3072183947 cites W2074362758 @default.
• W3072183947 cites W2078984898 @default.
• W3072183947 cites W2079020996 @default.
• W3072183947 cites W2082370023 @default.
• W3072183947 cites W2082980848 @default.
• W3072183947 cites W2085295637 @default.
• W3072183947 cites W2087333206 @default.
• W3072183947 cites W2093603746 @default.
• W3072183947 cites W2097003268 @default.
• W3072183947 cites W2098469025 @default.
• W3072183947 cites W2099551701 @default.
• W3072183947 cites W2100435949 @default.
• W3072183947 cites W2107049129 @default.
• W3072183947 cites W2107159911 @default.
• W3072183947 cites W2109172023 @default.
• W3072183947 cites W2109370970 @default.
• W3072183947 cites W2119024975 @default.
• W3072183947 cites W2120012251 @default.
• W3072183947 cites W2123801697 @default.
• W3072183947 cites W2126891096 @default.
• W3072183947 cites W2128724890 @default.
• W3072183947 cites W2129470558 @default.
• W3072183947 cites W2134406805 @default.
• W3072183947 cites W2141102916 @default.
• W3072183947 cites W2141268632 @default.
• W3072183947 cites W2152572484 @default.
• W3072183947 cites W2154799520 @default.
• W3072183947 cites W2163689700 @default.
• W3072183947 cites W2164174097 @default.
• W3072183947 cites W2166015583 @default.
• W3072183947 cites W2166061341 @default.
• W3072183947 cites W2169378382 @default.
• W3072183947 cites W2174602601 @default.
• W3072183947 cites W2197371706 @default.
• W3072183947 cites W2216305047 @default.
• W3072183947 cites W2317005549 @default.
• W3072183947 cites W2401108975 @default.
• W3072183947 cites W2477520780 @default.
• W3072183947 cites W2488433815 @default.
• W3072183947 cites W2614643815 @default.
• W3072183947 cites W2739947166 @default.
• W3072183947 cites W2803424656 @default.
• W3072183947 cites W2806527610 @default.
• W3072183947 cites W2810283026 @default.
• W3072183947 cites W2889258666 @default.
• W3072183947 cites W2902355612 @default.
• W3072183947 cites W2911725957 @default.
• W3072183947 cites W2952786945 @default.
• W3072183947 cites W2962787636 @default.
• W3072183947 cites W2969290660 @default.
• W3072183947 cites W2970673055 @default.
• W3072183947 cites W342486077 @default.
• W3072183947 cites W4234228689 @default.
• W3072183947 cites W4300557285 @default.
• W3072183947 doi "https://doi.org/10.1016/j.foreco.2020.118489" @default.
• W3072183947 hasPublicationYear "2020" @default.

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