Please use this identifier to cite or link to this item: https://hdl.handle.net/10216/120297
Author(s): Capitão A.
Lyssimachou A.
Castro L.F.C.
Santos M.M.
Title: Obesogens in the aquatic environment: an evolutionary and toxicological perspective
Publisher: Elsevier: Creative Commons Licenses
Issue Date: 2017
Abstract: The rise of obesity in humans is a major health concern of our times, affecting an increasing proportion of the population worldwide. It is now evident that this phenomenon is not only associated with the lack of exercise and a balanced diet, but also due to environmental factors, such as exposure to environmental chemicals that interfere with lipid homeostasis. These chemicals, also known as obesogens, are present in a wide range of products of our daily life, such as cosmetics, paints, plastics, food cans and pesticide-treated food, among others. A growing body of evidences indicates that their action is not limited to mammals. Obesogens also end up in the aquatic environment, potentially affecting its ecosystems. In fact, reports show that some environmental chemicals are able to alter lipid homeostasis, impacting weight, lipid profile, signaling pathways and/or protein activity, of several taxa of aquatic animals. Such perturbations may give rise to physiological disorders and disease. Although largely unexplored from a comparative perspective, the key molecular components implicated in lipid homeostasis have likely appeared early in animal evolution. Therefore, it is not surprising that the obesogen effects are found in other animal groups beyond mammals. Collectively, data indicates that suspected obesogens impact lipid metabolism across phyla that have diverged over 600 million years ago. Thus, a consistent link between environmental chemical exposure and the obesity epidemic has emerged. This review aims to summarize the available information on the effects of putative obesogens in aquatic organisms, considering the similarities and differences of lipid homeostasis pathways among metazoans, thus contributing to a better understanding of the etiology of obesity in human populations. Finally, we identify the knowledge gaps in this field and we set future research priorities. © 2017 Elsevier
Subject: Animals
Aquatic ecosystems
Biology
Chemical contamination
Chemicals
Mammals
Metabolism
Nutrition
Physiology
Aquatic animals
Endocrine disruption
Evolution
Lipid metabolisms
Nuclear receptors
Obesogens
Aquatic organisms
alkylphenol
atrazine
endocrine disruptor
fibric acid derivative
obesogen
organophosphate
organotin compound
phthalic acid
unclassified drug
aquatic environment
aquatic organism
chemical compound
endocrine disruptor
evolution
lipid
metabolism
physiology
toxicology
agnathan
Amphibia
annelid
aquatic environment
arthropod
biodiversity
cartilaginous fish
Cephalochordata
environmental exposure
evolution
human
lipid analysis
lipid homeostasis
lipid metabolism
mollusc
nematode
nonhuman
obesity
pathophysiology
priority journal
protein function
Review
signal transduction
taxonomy
teleost
Urochordata
weight
Animalia
Mammalia
Metazoa
URI: https://hdl.handle.net/10216/120297
Source: Environment International, vol. 106, p. 153-169
Document Type: Artigo em Revista Científica Internacional
Rights: openAccess
Appears in Collections:CIIMAR - Artigo em Revista Científica Internacional

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