FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W4361000327> ?p ?o ?g. }

• W4361000327 endingPage "1552" @default.
• W4361000327 startingPage "1536" @default.
• W4361000327 abstract "Abstract Ongoing climate change may impact alpine plant populations via both direct effects of increased temperature and climate‐driven changes in interactions between plants and other organisms, such as insect herbivores. Rates of herbivory in high‐elevation environments are predicted to increase with warmer temperatures, which may also lead to changes in morphological and physiological traits that influence plant resistance. Yet, we currently know little about how temperature‐mediated changes in traits will impact alpine plant vulnerability to herbivores, as well as the extent to which populations from high‐elevation environments might need to rapidly adapt to increasing herbivore pressure with rising temperatures. We assessed the effect of experimental warming on the relative vulnerability of populations of the alpine plant Arabis alpina from different elevations to a specialist herbivore. Herbivore performance was measured on plants from nine populations grown in climate chambers at two temperatures, representing low (warm) and high (cold) elevations. We also measured changes in putative drivers of performance: plant phenological, chemical and defence traits. Assuming populations would be adapted to local climates and levels of herbivory, we predicted that low‐elevation populations would be more resistant to herbivores under warmer temperatures than high‐elevation populations. We found reduced performance of a specialist herbivore on A. alpina grown under warm rather than cold conditions, though this effect varied with elevation. Larvae grew faster on high‐elevation populations than low‐elevation populations when grown under warm temperatures, whereas similar growth rates were observed for plants grown under colder temperatures, consistent with plant adaptation to the lower existing herbivore pressure in cold, high‐elevation environments. Regression analyses suggested that polar metabolite variation explained more variance in larval performance than changes in defensive glucosinolates or morphological traits. Our results suggest that although physiological responses to warming may increase the resistance of cold‐adapted plants to herbivory, populations from different elevations may differ in their interactions with herbivores under climate warming. Without genetic adaptation, existing physiological responses of high‐elevation populations to warmer temperatures may leave these populations vulnerable to the increases in herbivore pressure predicted under climate change. Read the free Plain Language Summary for this article on the Journal blog." @default.
• W4361000327 created "2023-03-30" @default.
• W4361000327 creator A5041909276 @default.
• W4361000327 creator A5061462863 @default.
• W4361000327 creator A5076170780 @default.
• W4361000327 creator A5090507120 @default.
• W4361000327 date "2023-04-11" @default.
• W4361000327 modified "2023-10-01" @default.
• W4361000327 title "Experimental warming increases the vulnerability of high‐elevation plant populations to a specialist herbivore" @default.
• W4361000327 cites W1951724000 @default.
• W4361000327 cites W2006748526 @default.
• W4361000327 cites W2021467835 @default.
• W4361000327 cites W2032566627 @default.
• W4361000327 cites W2042898130 @default.
• W4361000327 cites W2048762866 @default.
• W4361000327 cites W2055595154 @default.
• W4361000327 cites W2068565666 @default.
• W4361000327 cites W2077286295 @default.
• W4361000327 cites W2132253462 @default.
• W4361000327 cites W2147908544 @default.
• W4361000327 cites W2150029852 @default.
• W4361000327 cites W2150157967 @default.
• W4361000327 cites W2157005289 @default.
• W4361000327 cites W2157641482 @default.
• W4361000327 cites W2165548358 @default.
• W4361000327 cites W2183908049 @default.
• W4361000327 cites W2224447799 @default.
• W4361000327 cites W2291858656 @default.
• W4361000327 cites W2422731043 @default.
• W4361000327 cites W2486347113 @default.
• W4361000327 cites W2508163871 @default.
• W4361000327 cites W2532999556 @default.
• W4361000327 cites W2599189660 @default.
• W4361000327 cites W2611599485 @default.
• W4361000327 cites W2625404164 @default.
• W4361000327 cites W2769447594 @default.
• W4361000327 cites W2775568692 @default.
• W4361000327 cites W2788826775 @default.
• W4361000327 cites W2791133929 @default.
• W4361000327 cites W2904404040 @default.
• W4361000327 cites W2908020546 @default.
• W4361000327 cites W2914817308 @default.
• W4361000327 cites W2953314867 @default.
• W4361000327 cites W2982398169 @default.
• W4361000327 cites W3015240992 @default.
• W4361000327 cites W3094792917 @default.
• W4361000327 cites W3111885684 @default.
• W4361000327 cites W3205967150 @default.
• W4361000327 cites W4225351160 @default.
• W4361000327 doi "https://doi.org/10.1111/1365-2435.14324" @default.
• W4361000327 hasPublicationYear "2023" @default.
• W4361000327 type Work @default.
• W4361000327 citedByCount "0" @default.
• W4361000327 crossrefType "journal-article" @default.
• W4361000327 hasAuthorship W4361000327A5041909276 @default.
• W4361000327 hasAuthorship W4361000327A5061462863 @default.
• W4361000327 hasAuthorship W4361000327A5076170780 @default.
• W4361000327 hasAuthorship W4361000327A5090507120 @default.
• W4361000327 hasBestOaLocation W43610003271 @default.
• W4361000327 hasConcept C115343472 @default.
• W4361000327 hasConcept C132651083 @default.
• W4361000327 hasConcept C139807058 @default.
• W4361000327 hasConcept C144024400 @default.
• W4361000327 hasConcept C149923435 @default.
• W4361000327 hasConcept C169760540 @default.
• W4361000327 hasConcept C18903297 @default.
• W4361000327 hasConcept C2780354846 @default.
• W4361000327 hasConcept C2781176530 @default.
• W4361000327 hasConcept C2908647359 @default.
• W4361000327 hasConcept C46325548 @default.
• W4361000327 hasConcept C51417038 @default.
• W4361000327 hasConcept C57473165 @default.
• W4361000327 hasConcept C86803240 @default.
• W4361000327 hasConceptScore W4361000327C115343472 @default.
• W4361000327 hasConceptScore W4361000327C132651083 @default.
• W4361000327 hasConceptScore W4361000327C139807058 @default.
• W4361000327 hasConceptScore W4361000327C144024400 @default.
• W4361000327 hasConceptScore W4361000327C149923435 @default.
• W4361000327 hasConceptScore W4361000327C169760540 @default.
• W4361000327 hasConceptScore W4361000327C18903297 @default.
• W4361000327 hasConceptScore W4361000327C2780354846 @default.
• W4361000327 hasConceptScore W4361000327C2781176530 @default.
• W4361000327 hasConceptScore W4361000327C2908647359 @default.
• W4361000327 hasConceptScore W4361000327C46325548 @default.
• W4361000327 hasConceptScore W4361000327C51417038 @default.
• W4361000327 hasConceptScore W4361000327C57473165 @default.
• W4361000327 hasConceptScore W4361000327C86803240 @default.
• W4361000327 hasFunder F4320321652 @default.
• W4361000327 hasIssue "6" @default.
• W4361000327 hasLocation W43610003271 @default.
• W4361000327 hasLocation W43610003272 @default.
• W4361000327 hasLocation W43610003273 @default.
• W4361000327 hasOpenAccess W4361000327 @default.
• W4361000327 hasPrimaryLocation W43610003271 @default.
• W4361000327 hasRelatedWork W2032288610 @default.
• W4361000327 hasRelatedWork W2099966111 @default.
• W4361000327 hasRelatedWork W2102891009 @default.
• W4361000327 hasRelatedWork W2110357244 @default.

• next