Phenological sequences: how early-season events define those that follow

Premise of the Study Plant phenology is a critical trait, as the timings of phenophases such as budburst, leafout, flowering, and fruiting, are important to plant fitness. Despite much study about when individual phenophases occur and how they may shift with climate change, little is known about how...

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Veröffentlicht in:American journal of botany 2018-10, Vol.105 (10), p.1771-1780
Hauptverfasser: Ettinger, A. K., Gee, S., Wolkovich, E. M.
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container_title American journal of botany
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creator Ettinger, A. K.
Gee, S.
Wolkovich, E. M.
description Premise of the Study Plant phenology is a critical trait, as the timings of phenophases such as budburst, leafout, flowering, and fruiting, are important to plant fitness. Despite much study about when individual phenophases occur and how they may shift with climate change, little is known about how multiple phenophases relate to one another across an entire growing season. We test the extent to which early phenological stages constrain later ones, throughout a growing season, across 25 angiosperm tree species. Methods We observed phenology (budburst, leafout, flowering, fruiting, and senescence) of 118 individual trees across 25 species, from April through December 2015. Key Results We found that early phenological events weakly constrain most later events, with the strongest constraints seen between consecutive stages. In contrast, interphase duration was a much stronger predictor of phenology, especially for reproductive events, suggesting that the development time of flowers and fruits may constrain the phenology of these events. Conclusions Much of the variation in later phenological events can be explained by the timing of earlier events and by interphase durations. This highlights that a shift in one phenophase may often have cascading effects on later phases. Accurate forecasts of climate change impacts should therefore include multiple phenophases within and across years.
doi_str_mv 10.1002/ajb2.1174
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K. ; Gee, S. ; Wolkovich, E. M.</creator><creatorcontrib>Ettinger, A. K. ; Gee, S. ; Wolkovich, E. M.</creatorcontrib><description>Premise of the Study Plant phenology is a critical trait, as the timings of phenophases such as budburst, leafout, flowering, and fruiting, are important to plant fitness. Despite much study about when individual phenophases occur and how they may shift with climate change, little is known about how multiple phenophases relate to one another across an entire growing season. We test the extent to which early phenological stages constrain later ones, throughout a growing season, across 25 angiosperm tree species. Methods We observed phenology (budburst, leafout, flowering, fruiting, and senescence) of 118 individual trees across 25 species, from April through December 2015. Key Results We found that early phenological events weakly constrain most later events, with the strongest constraints seen between consecutive stages. In contrast, interphase duration was a much stronger predictor of phenology, especially for reproductive events, suggesting that the development time of flowers and fruits may constrain the phenology of these events. Conclusions Much of the variation in later phenological events can be explained by the timing of earlier events and by interphase durations. This highlights that a shift in one phenophase may often have cascading effects on later phases. 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source Jstor Complete Legacy; Wiley Online Library - AutoHoldings Journals; Wiley Online Library Free Content; EZB-FREE-00999 freely available EZB journals
subjects angiosperm
arboretum
BRIEF COMMUNICATION
Climate change
Environmental impact
Fitness
Flowering
Flowers
Flowers & plants
Fruits
global warming
Interphase
phenological mismatch
Phenology
phenology curve
plant phenology
Senescence
tree
title Phenological sequences: how early-season events define those that follow
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