How galling herbivores share a single super-host plant during their phenological cycle: the case of Mimosa gemmulata Barneby (Fabaceae)

The success of the galling insects sharing the same microhabitat depends both on the synchrony of their life cycles with the leaf flushing of the super-host plant and to the asynchrony among their life cycles. The asynchrony of the multivoltine life cycles of Lopesia spp. (Diptera—Cecidomyiidae) is...

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Published inTropical ecology Vol. 63; no. 1; pp. 61 - 74
Main Authors Costa, Elaine C., Martini, Vitor C., Souza-Silva, Aline, Lemos-Filho, José P., Oliveira, Denis C., Isaias, Rosy M. S.
Format Journal Article
LanguageEnglish
Published New Delhi Springer India 01.03.2022
Scientific Publishers
Subjects
Biodiversity
Biomedical and Life Sciences
Conservation Biology/Ecology
Ecology
Ecosystems
Flushing
Galling
Herbivores
Host plants
Insects
Landscape Ecology
Leaves
Life cycles
Life Sciences
Lopesia
Microenvironments
Microhabitats
Mimosa gemmulata
Rainy season
Research Article
Seasonal variations
Stems
Water availability
Water potential
Gall abundance
Multivoltinism
Gall-induction overlapping
Plant-interaction
Phenological synchronism
Seasonality
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Abstract The success of the galling insects sharing the same microhabitat depends both on the synchrony of their life cycles with the leaf flushing of the super-host plant and to the asynchrony among their life cycles. The asynchrony of the multivoltine life cycles of Lopesia spp. (Diptera—Cecidomyiidae) is favored by the constant leaf flushing in M. gemmulata, and favors the non-overlapping of gall induction periods. Peculiarly, the univoltine life cycle of the galling Lepidoptera on its stem galls is synchronized to the availability of mature host leaves during the rainy season, which is important for the water potential in host stem branches. The abundance of the Lopesia gall morphotypes follow the phenology of M. gemmulata, which obeys the seasonal pattern of water availability in the neotropical savanna climate.
AbstractList The success of the galling insects sharing the same microhabitat depends both on the synchrony of their life cycles with the leaf flushing of the super-host plant and to the asynchrony among their life cycles. The asynchrony of the multivoltine life cycles of Lopesia spp. (Diptera-Cecidomyiidae) is favored by the constant leaf flushing in M. gemmulata, and favors the non-overlapping of gall induction periods. Peculiarly, the univoltine life cycle of the galling Lepidoptera on its stem galls is synchronized to the availability of mature host leaves during the rainy season, which is important for the water potential in host stem branches. The abundance of the Lopesia gall morphotypes follow the phenology of M. gemmulata, which obeys the seasonal pattern of water availability in the neotropical savanna climate.
The success of the galling insects sharing the same microhabitat depends both on the synchrony of their life cycles with the leaf flushing of the super-host plant and to the asynchrony among their life cycles. The asynchrony of the multivoltine life cycles of Lopesia spp. (Diptera—Cecidomyiidae) is favored by the constant leaf flushing in M. gemmulata, and favors the non-overlapping of gall induction periods. Peculiarly, the univoltine life cycle of the galling Lepidoptera on its stem galls is synchronized to the availability of mature host leaves during the rainy season, which is important for the water potential in host stem branches. The abundance of the Lopesia gall morphotypes follow the phenology of M. gemmulata, which obeys the seasonal pattern of water availability in the neotropical savanna climate.
Author Lemos-Filho, José P.
Isaias, Rosy M. S.
Martini, Vitor C.
Costa, Elaine C.
Oliveira, Denis C.
Souza-Silva, Aline
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Keywords Gall abundance
Multivoltinism
Gall-induction overlapping
Plant-interaction
Phenological synchronism
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Snippet The success of the galling insects sharing the same microhabitat depends both on the synchrony of their life cycles with the leaf flushing of the super-host...
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SubjectTerms Biodiversity
Biomedical and Life Sciences
Conservation Biology/Ecology
Ecology
Ecosystems
Flushing
Galling
Herbivores
Host plants
Insects
Landscape Ecology
Leaves
Life cycles
Life Sciences
Lopesia
Microenvironments
Microhabitats
Mimosa gemmulata
Rainy season
Research Article
Seasonal variations
Stems
Water availability
Water potential
Title How galling herbivores share a single super-host plant during their phenological cycle: the case of Mimosa gemmulata Barneby (Fabaceae)
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