Pre-dispersal seed predation and pollen limitation constrain population growth across the geographic distribution of Astragalus utahensis
1. A central focus of ecology is to understand the conditions under which biotic interactions affect species' abundance and distribution. Classic and recent studies have shown that biotic interactions can strongly impact local or regional patterns of species abundance, but two fundamental quest...
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Published in | The Journal of ecology Vol. 106; no. 4; pp. 1646 - 1659 |
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Main Authors | , |
Format | Journal Article |
Language | English |
Published |
Oxford
John Wiley & Sons Ltd
01.07.2018
Blackwell Publishing Ltd |
Subjects | |
Online Access | Get full text |
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Abstract | 1. A central focus of ecology is to understand the conditions under which biotic interactions affect species' abundance and distribution. Classic and recent studies have shown that biotic interactions can strongly impact local or regional patterns of species abundance, but two fundamental questions remain largely unaddressed for non-competitive biotic interactions. First, do the effects of these interactions on population performance change predictably with environmental context? Second, to what extent do population-scale effects contribute to limiting species' geographic distributions? 2. To address these questions, we experimentally assessed the extent to which pollen limitation and insect seed predators affected the fecundity and projected population growth rate (λ) of the native forb Astragalus utahensis. We studied populations at the centre and northern edge of the latitudinal range of A. utahensis that occur across a gradient in abiotic harshness characterized primarily by declining mean annual precipitation. 3. Supplementing pollen and suppressing pre-dispersal seed predators increased seed production similarly within A. utahensis populations at the centre and northern edge of the range. Integral projection population models revealed that relaxing these checks on seed production tended to increase in most populations, regardless of their location within the range. 4. Synthesis. Our results suggest that pollen limitation and insect herbivores limit population growth in A. utahensis similarly across the centre-to-north portion of its latitudinal distribution. However, because A. utahensis population growth barely reaches the level of replacement at the northern range edge, the reduction in resulting from these interactions may contribute to limiting expansion at the northern edge of A. utahensis' latitudinal range. |
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AbstractList | Abstract
A central focus of ecology is to understand the conditions under which biotic interactions affect species’ abundance and distribution. Classic and recent studies have shown that biotic interactions can strongly impact local or regional patterns of species abundance, but two fundamental questions remain largely unaddressed for non‐competitive biotic interactions. First, do the effects of these interactions on population performance change predictably with environmental context? Second, to what extent do population‐scale effects contribute to limiting species’ geographic distributions?
To address these questions, we experimentally assessed the extent to which pollen limitation and insect seed predators affected the fecundity and projected population growth rate (λ) of the native forb
Astragalus utahensis
. We studied populations at the centre and northern edge of the latitudinal range of
A. utahensis
that occur across a gradient in abiotic harshness characterized primarily by declining mean annual precipitation.
Supplementing pollen and suppressing pre‐dispersal seed predators increased seed production similarly within
A. utahensis
populations at the centre and northern edge of the range. Integral projection population models revealed that relaxing these checks on seed production tended to increase λ in most populations, regardless of their location within the range.
Synthesis
. Our results suggest that pollen limitation and insect herbivores limit population growth in
A. utahensis
similarly across the centre‐to‐north portion of its latitudinal distribution. However, because
A. utahensis
population growth barely reaches the level of replacement at the northern range edge, the reduction in λ resulting from these interactions may contribute to limiting expansion at the northern edge of
A. utahensis
’ latitudinal range. 1. A central focus of ecology is to understand the conditions under which biotic interactions affect species' abundance and distribution. Classic and recent studies have shown that biotic interactions can strongly impact local or regional patterns of species abundance, but two fundamental questions remain largely unaddressed for non-competitive biotic interactions. First, do the effects of these interactions on population performance change predictably with environmental context? Second, to what extent do population-scale effects contribute to limiting species' geographic distributions? 2. To address these questions, we experimentally assessed the extent to which pollen limitation and insect seed predators affected the fecundity and projected population growth rate (λ) of the native forb Astragalus utahensis. We studied populations at the centre and northern edge of the latitudinal range of A. utahensis that occur across a gradient in abiotic harshness characterized primarily by declining mean annual precipitation. 3. Supplementing pollen and suppressing pre-dispersal seed predators increased seed production similarly within A. utahensis populations at the centre and northern edge of the range. Integral projection population models revealed that relaxing these checks on seed production tended to increase in most populations, regardless of their location within the range. 4. Synthesis. Our results suggest that pollen limitation and insect herbivores limit population growth in A. utahensis similarly across the centre-to-north portion of its latitudinal distribution. However, because A. utahensis population growth barely reaches the level of replacement at the northern range edge, the reduction in resulting from these interactions may contribute to limiting expansion at the northern edge of A. utahensis' latitudinal range. A central focus of ecology is to understand the conditions under which biotic interactions affect species’ abundance and distribution. Classic and recent studies have shown that biotic interactions can strongly impact local or regional patterns of species abundance, but two fundamental questions remain largely unaddressed for non‐competitive biotic interactions. First, do the effects of these interactions on population performance change predictably with environmental context? Second, to what extent do population‐scale effects contribute to limiting species’ geographic distributions?To address these questions, we experimentally assessed the extent to which pollen limitation and insect seed predators affected the fecundity and projected population growth rate (λ) of the native forb Astragalus utahensis. We studied populations at the centre and northern edge of the latitudinal range of A. utahensis that occur across a gradient in abiotic harshness characterized primarily by declining mean annual precipitation.Supplementing pollen and suppressing pre‐dispersal seed predators increased seed production similarly within A. utahensis populations at the centre and northern edge of the range. Integral projection population models revealed that relaxing these checks on seed production tended to increase λ in most populations, regardless of their location within the range.Synthesis. Our results suggest that pollen limitation and insect herbivores limit population growth in A. utahensis similarly across the centre‐to‐north portion of its latitudinal distribution. However, because A. utahensis population growth barely reaches the level of replacement at the northern range edge, the reduction in λ resulting from these interactions may contribute to limiting expansion at the northern edge of A. utahensis’ latitudinal range. A central focus of ecology is to understand the conditions under which biotic interactions affect species’ abundance and distribution. Classic and recent studies have shown that biotic interactions can strongly impact local or regional patterns of species abundance, but two fundamental questions remain largely unaddressed for non‐competitive biotic interactions. First, do the effects of these interactions on population performance change predictably with environmental context? Second, to what extent do population‐scale effects contribute to limiting species’ geographic distributions? To address these questions, we experimentally assessed the extent to which pollen limitation and insect seed predators affected the fecundity and projected population growth rate (λ) of the native forb Astragalus utahensis. We studied populations at the centre and northern edge of the latitudinal range of A. utahensis that occur across a gradient in abiotic harshness characterized primarily by declining mean annual precipitation. Supplementing pollen and suppressing pre‐dispersal seed predators increased seed production similarly within A. utahensis populations at the centre and northern edge of the range. Integral projection population models revealed that relaxing these checks on seed production tended to increase λ in most populations, regardless of their location within the range. Synthesis. Our results suggest that pollen limitation and insect herbivores limit population growth in A. utahensis similarly across the centre‐to‐north portion of its latitudinal distribution. However, because A. utahensis population growth barely reaches the level of replacement at the northern range edge, the reduction in λ resulting from these interactions may contribute to limiting expansion at the northern edge of A. utahensis’ latitudinal range. This study addresses fundamental but rarely studied questions in plant–pollinator and plant–herbivore interactions and biogeography. We found that pollen limitation and pre‐dispersal seed predation limited both the fecundity and population growth of Astragalus utahensis similarly across the centre‐to‐north portion of its latitudinal distribution, and likely contribute to the maintenance of this species’ northern distributional limit. |
Author | Maron, John L. Baer, Kathryn C. |
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Copyright | 2018 British Ecological Society 2018 The Authors. Journal of Ecology © 2018 British Ecological Society Journal of Ecology © 2018 British Ecological Society |
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Snippet | 1. A central focus of ecology is to understand the conditions under which biotic interactions affect species' abundance and distribution. Classic and recent... A central focus of ecology is to understand the conditions under which biotic interactions affect species’ abundance and distribution. Classic and recent... Abstract A central focus of ecology is to understand the conditions under which biotic interactions affect species’ abundance and distribution. Classic and... |
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SubjectTerms | Abundance Annual precipitation Astragalus utahensis Biogeography and macroecology Constraining context‐dependence Dispersal Dispersion Environmental changes Fecundity Geographical distribution Growth rate Herbivores Insects integral projection model Interactions Interspecific relationships landscape ecology plant population and community dynamics Pollen pollen limitation Population dynamics Population growth Population studies Predation Predators pre‐dispersal seed predation range limit Seed dispersal Seed predation Seed production Species |
Title | Pre-dispersal seed predation and pollen limitation constrain population growth across the geographic distribution of Astragalus utahensis |
URI | https://www.jstor.org/stable/45028999 https://onlinelibrary.wiley.com/doi/abs/10.1111%2F1365-2745.12932 https://www.proquest.com/docview/2056433966 |
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