Alterations of Pleiotropic Neuropeptide-Receptor gene couples in Cetacea
Raúl ValenteiD, Miguel CordeiroiD, Bernardo PintoiD, André M. MachadoiD, Filipe AlvesiD, Isabel Sousa‐PintoiD, Raquel RuivoiD, L. Filipe C. CastroiD
Abstract
BackgroundHabitat transitions have considerable consequences in organism homeostasis, as they require the adjustment of several concurrent physiological compartments to maintain stability and adapt to a changing environment. Within the range of molecules with a crucial role in the regulation of different physiological processes, neuropeptides are key agents. Here, we examined the coding status of several neuropeptides and their receptors with pleiotropic activity in Cetacea. ResultsAnalysis of 202 mammalian genomes, including 41 species of Cetacea, exposed an intricate mutational landscape compatible with gene sequence modification and loss. Specifically for Cetacea, in the twelve genes analysed we have determined patterns of loss ranging from species-specific disruptive mutations (e.g., Neuropeptide FF-Amide Peptide Precursor; NPFF) to complete erosion of the gene across the cetacean stem lineage (e.g., Somatostatin Receptor 4; SSTR4). ConclusionsImpairment of some of these neuromodulators, may have contributed to the unique energetic metabolism, circadian rhythmicity and diving response displayed by this group of iconic mammals.
02 /Specification & Classification
Click any tag to browse matching papers- Citations
- 4
- FWCI
- 0.55
- Field percentile
- top 44%
- Organism
- Assay
- Research Focus
- Approach
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- Differential Cetacea Circadian Rhythmicity is associated with the molecular erosion of Cortistatin
R. Fonseca, L. Alves, … F. Castro·bioRxiv·May 11, 2020
- Adaptations of energy metabolism in cetaceans have consequences for their response to foraging disruption
- Genes lost during the transition from land to water in cetaceans highlight genomic changes involved in aquatic adaptations
M. Huelsmann, N. Hecker, … M. Hiller·bioRxiv·Jan 16, 2019
- The singularity of Cetacea behaviour parallels the complete inactivation of melatonin gene modules
M. Lopes-Marques, R. Ruivo, … L. F. C. Castro·bioRxiv·Dec 9, 2018
- Large-scale deorphanization of Nematostella vectensis neuropeptide GPCRs supports the independent expansion of bilaterian and cnidarian peptidergic systems
Daniel J. Thiel, Luis Alfonso Yáñez-Guerra, … Gáspár Jékely·bioRxiv·Jul 3, 2023
- Convergent gene erosion in the chemical defensome of marine mammals
Bram Danneels, Diogo Oliveira, … Anders Goksøyr·bioRxiv·May 23, 2026