Genome-wide identification of heat shock proteins (HSP70) in the Cuban painted snail Polymita picta : evolutionary constraints face climate change challenges

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AI-generated summary by claude@2026-07, 2026-07-17

This study identified ten diversified HSP70 sequences in *Polymita picta*, revealing potential functional specialization and adaptive variation relevant to thermoresistance under climate change.

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AI-generated deep summary by claude@2026-07, 2026-07-17 · read from full text

The paper studied the heat shock protein 70 (HSP70) gene family in the Cuban painted snail Polymita picta, using genome-wide identification and characterization to understand how ectothermal terrestrial molluscs may respond to thermal stress under climate change. Researchers identified HSP70 paralogs, analyzed their structural features, and assessed sequence variation, finding a repertoire of ten diversified HSP70 sequences with signatures suggesting functional specialization and adaptive variation potentially linked to environmental temperature regimes. A key caveat is that the study is primarily bioinformatic and provides a baseline molecular resource rather than experimentally demonstrating thermoresistance in vivo. This paper does not explicitly discuss endometriosis or adenomyosis; it was included in the corpus via a keyword match in the upstream search index.

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Abstract

ABSTRACT Climate change poses a critical threat for biodiversity. Among ectothermal animals, terrestrial molluscs are considered highly vulnerable to temperature increase and drought due to their low vagility and specialized ecological requirements. In response to thermal stress, heat shock proteins (HSP70) play a crucial role in the response syndrome and phenotypic plasticity and mediate the adaptation to fluctuating environments. Here, we performed the first genome-wide identification and characterization of the HSP70 family in a Neotropical terrestrial gastropod of high conservation concern: the Cuban painted snail Polymita picta . Using comprehensive bioinformatic approaches, we identified HSP70 paralogs, analysed their structural features and assessed sequence variation, highlighting their potential relevance for thermoresistance. Our findings reveal an HSP70 repertoire of ten diversified sequences with signatures of functional specialization and possible adaptive variation linked to environmental temperature regimes. Using novel molecular resources, this pioneering analysis establishes a baseline for early warning systems, integrating stress-related biomarkers into conservation management and climate change adaptation strategies for threatened terrestrial molluscs.
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ABSTRACT Climate change poses a critical threat for biodiversity. Among ectothermal animals, terrestrial molluscs are considered highly vulnerable to temperature increase and drought due to their low vagility and specialized ecological requirements. In response to thermal stress, heat shock proteins (HSP70) play a crucial role in the response syndrome and phenotypic plasticity and mediate the adaptation to fluctuating environments. Here, we performed the first genome-wide identification and characterization of the HSP70 family in a Neotropical terrestrial gastropod of high conservation concern: the Cuban painted snail Polymita picta. Using comprehensive bioinformatic approaches, we identified HSP70 paralogs, analysed their structural features and assessed sequence variation, highlighting their potential relevance for thermoresistance. Our findings reveal an HSP70 repertoire of ten diversified sequences with signatures of functional specialization and possible adaptive variation linked to environmental temperature regimes. Using novel molecular resources, this pioneering analysis establishes a baseline for early warning systems, integrating stress-related biomarkers into conservation management and climate change adaptation strategies for threatened terrestrial molluscs. Competing Interest Statement The authors have declared no competing interest. Footnotes This revision has been submitted for updating the ORCID of some authors.

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