Cyclic Imines: Chemistry and Mechanism of Action: A Review

In recent years, there has been an increase in the production of shellfish and in global demand for seafood as nutritious and healthy food. Unfortunately, a significant number of incidences of shellfish poisoning occur worldwide, and microalgae that produce phycotoxins are responsible for most of th...

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Veröffentlicht in:Chemical research in toxicology 2011-11, Vol.24 (11), p.1817-1829
Hauptverfasser: Otero, Alberto, Chapela, María-José, Atanassova, Miroslava, Vieites, Juan M, Cabado, Ana G
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container_end_page 1829
container_issue 11
container_start_page 1817
container_title Chemical research in toxicology
container_volume 24
creator Otero, Alberto
Chapela, María-José
Atanassova, Miroslava
Vieites, Juan M
Cabado, Ana G
description In recent years, there has been an increase in the production of shellfish and in global demand for seafood as nutritious and healthy food. Unfortunately, a significant number of incidences of shellfish poisoning occur worldwide, and microalgae that produce phycotoxins are responsible for most of these. Phycotoxins include several groups of small to medium sized natural products with molecular masses ranging from 300 to over 3000 Da. Cyclic imines (CIs) are a recently discovered group of marine biotoxins characterized by their fast acting toxicity, inducing a characteristic rapid death in the intraperitoneal mouse bioassay. These toxins are macrocyclic compounds with imine (carbon–nitrogen double bond) and spiro-linked ether moieties. They are grouped together due to the imino group functioning as their common pharmacore and due to the similarities in their intraperitoneal toxicity in mice. Spirolides (SPXs) are the largest group of CIs cyclic imines that together with gymnodimines (GYMs) are best characterized. Although the amount of cyclic imines in shellfish is not regulated and these substances have not been categorically linked to human intoxication, they trigger high intraperitoneal toxicity in rodents. In this review, the corresponding chemical structures of each member of the CIs and their derivatives are reviewed as well as all the data accumulated on their mechanism of action at cellular level.
doi_str_mv 10.1021/tx200182m
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subjects Animals
Binding Sites
Biological Assay
Cell Survival - drug effects
Food Contamination
Heterocyclic Compounds, 3-Ring - chemistry
Heterocyclic Compounds, 3-Ring - metabolism
Heterocyclic Compounds, 3-Ring - toxicity
Humans
Hydrocarbons, Cyclic - chemistry
Hydrocarbons, Cyclic - metabolism
Hydrocarbons, Cyclic - toxicity
Imines - chemistry
Imines - metabolism
Imines - toxicity
Injections, Intraperitoneal
Marine Toxins - chemistry
Marine Toxins - metabolism
Marine Toxins - toxicity
Mice
Microalgae - chemistry
Muscarinic Antagonists - chemistry
Muscarinic Antagonists - metabolism
Muscarinic Antagonists - toxicity
Nicotinic Antagonists - chemistry
Nicotinic Antagonists - metabolism
Nicotinic Antagonists - toxicity
Protein Binding
Pyrans - chemistry
Pyrans - metabolism
Pyrans - toxicity
Receptors, Muscarinic - metabolism
Receptors, Nicotinic - metabolism
Shellfish - toxicity
Shellfish Poisoning - metabolism
Shellfish Poisoning - physiopathology
Spiro Compounds - chemistry
Spiro Compounds - metabolism
Spiro Compounds - toxicity
Structure-Activity Relationship
title Cyclic Imines: Chemistry and Mechanism of Action: A Review
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