Literature DB >> 28073526

Prevalence of algal toxins in Alaskan marine mammals foraging in a changing arctic and subarctic environment.

Kathi A Lefebvre1, Lori Quakenbush2, Elizabeth Frame3, Kathy Burek Huntington4, Gay Sheffield5, Raphaela Stimmelmayr6, Anna Bryan2, Preston Kendrick3, Heather Ziel7, Tracey Goldstein8, Jonathan A Snyder9, Tom Gelatt7, Frances Gulland10, Bobette Dickerson7, Verena Gill9.   

Abstract

Current climate trends resulting in rapid declines in sea ice and increasing water temperatures are likely to expand the northern geographic range and duration of favorable conditions for harmful algal blooms (HABs), making algal toxins a growing concern in Alaskan marine food webs. Two of the most common HAB toxins along the west coast of North America are the neurotoxins domoic acid (DA) and saxitoxin (STX). Over the last 20 years, DA toxicosis has caused significant illness and mortality in marine mammals along the west coast of the USA, but has not been reported to impact marine mammals foraging in Alaskan waters. Saxitoxin, the most potent of the paralytic shellfish poisoning toxins, has been well-documented in shellfish in the Aleutians and Gulf of Alaska for decades and associated with human illnesses and deaths due to consumption of toxic clams. There is little information regarding exposure of Alaskan marine mammals. Here, the spatial patterns and prevalence of DA and STX exposure in Alaskan marine mammals are documented in order to assess health risks to northern populations including those species that are important to the nutritional, cultural, and economic well-being of Alaskan coastal communities. In this study, 905 marine mammals from 13 species were sampled including; humpback whales, bowhead whales, beluga whales, harbor porpoises, northern fur seals, Steller sea lions, harbor seals, ringed seals, bearded seals, spotted seals, ribbon seals, Pacific walruses, and northern sea otters. Domoic acid was detected in all 13 species examined and had the greatest prevalence in bowhead whales (68%) and harbor seals (67%). Saxitoxin was detected in 10 of the 13 species, with the highest prevalence in humpback whales (50%) and bowhead whales (32%). Pacific walruses contained the highest concentrations of both STX and DA, with DA concentrations similar to those detected in California sea lions exhibiting clinical signs of DA toxicosis (seizures) off the coast of Central California, USA. Forty-six individual marine mammals contained detectable concentrations of both toxins emphasizing the potential for combined exposure risks. Additionally, fetuses from a beluga whale, a harbor porpoise and a Steller sea lion contained detectable concentrations of DA documenting maternal toxin transfer in these species. These results provide evidence that HAB toxins are present throughout Alaska waters at levels high enough to be detected in marine mammals and have the potential to impact marine mammal health in the Arctic marine environment. Published by Elsevier B.V.

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Year:  2016        PMID: 28073526      PMCID: PMC8276754          DOI: 10.1016/j.hal.2016.01.007

Source DB:  PubMed          Journal:  Harmful Algae        ISSN: 1568-9883            Impact factor:   4.273


  32 in total

1.  Mortality of sea lions along the central California coast linked to a toxic diatom bloom.

Authors:  C A Scholin; F Gulland; G J Doucette; S Benson; M Busman; F P Chavez; J Cordaro; R DeLong; A De Vogelaere; J Harvey; M Haulena; K Lefebvre; T Lipscomb; S Loscutoff; L J Lowenstine; R Marin; P E Miller; W A McLellan; P D Moeller; C L Powell; T Rowles; P Silvagni; M Silver; T Spraker; V Trainer; F M Van Dolah
Journal:  Nature       Date:  2000-01-06       Impact factor: 49.962

2.  Paralytic phycotoxins in monk seal mass mortality.

Authors:  E Costas; V Lopez-Rodas
Journal:  Vet Rec       Date:  1998-06-06       Impact factor: 2.695

3.  Detection of domoic acid in northern anchovies and California sea lions associated with an unusual mortality event.

Authors:  K A Lefebvre; C L Powell; M Busman; G J Doucette; P D Moeller; J B Silver; P E Miller; M P Hughes; S Singaram; M W Silver; R S Tjeerdema
Journal:  Nat Toxins       Date:  1999

4.  Domoic acid neurotoxicity in cultured cerebellar granule neurons is controlled preferentially by the NMDA receptor Ca(2+) influx pathway.

Authors:  Frederick W Berman; Keith T LePage; Thomas F Murray
Journal:  Brain Res       Date:  2002-01-04       Impact factor: 3.252

5.  Domoic acid neurotoxicity in cultured cerebellar granule neurons is mediated predominantly by NMDA receptors that are activated as a consequence of excitatory amino acid release.

Authors:  F W Berman; T F Murray
Journal:  J Neurochem       Date:  1997-08       Impact factor: 5.372

6.  Domoic Acid and Amnesic Shellfish Poisoning - A Review.

Authors:  Ewen C D Todd
Journal:  J Food Prot       Date:  1993-01       Impact factor: 2.077

7.  Brevetoxicosis: red tides and marine mammal mortalities.

Authors:  Leanne J Flewelling; Jerome P Naar; Jay P Abbott; Daniel G Baden; Nélio B Barros; Gregory D Bossart; Marie-Yasmine D Bottein; Daniel G Hammond; Elsa M Haubold; Cynthia A Heil; Michael S Henry; Henry M Jacocks; Tod A Leighfield; Richard H Pierce; Thomas D Pitchford; Sentiel A Rommel; Paula S Scott; Karen A Steidinger; Earnest W Truby; Frances M Van Dolah; Jan H Landsberg
Journal:  Nature       Date:  2005-06-09       Impact factor: 49.962

8.  Renal clearance of domoic acid in the rat.

Authors:  C A Suzuki; S L Hierlihy
Journal:  Food Chem Toxicol       Date:  1993-10       Impact factor: 6.023

9.  High toxin content in the dinoflagellate Gonyaulax excavata in nature.

Authors:  A W White
Journal:  Toxicon       Date:  1986       Impact factor: 3.033

10.  Domoic acid transfer to milk: evaluation of a potential route of neonatal exposure.

Authors:  Jennifer M Maucher; John S Ramsdell
Journal:  Environ Health Perspect       Date:  2005-04       Impact factor: 9.031

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  23 in total

Review 1.  Human Health and Ocean Pollution.

Authors:  Philip J Landrigan; John J Stegeman; Lora E Fleming; Denis Allemand; Donald M Anderson; Lorraine C Backer; Françoise Brucker-Davis; Nicolas Chevalier; Lilian Corra; Dorota Czerucka; Marie-Yasmine Dechraoui Bottein; Barbara Demeneix; Michael Depledge; Dimitri D Deheyn; Charles J Dorman; Patrick Fénichel; Samantha Fisher; Françoise Gaill; François Galgani; William H Gaze; Laura Giuliano; Philippe Grandjean; Mark E Hahn; Amro Hamdoun; Philipp Hess; Bret Judson; Amalia Laborde; Jacqueline McGlade; Jenna Mu; Adetoun Mustapha; Maria Neira; Rachel T Noble; Maria Luiza Pedrotti; Christopher Reddy; Joacim Rocklöv; Ursula M Scharler; Hariharan Shanmugam; Gabriella Taghian; Jeroen A J M van de Water; Luigi Vezzulli; Pál Weihe; Ariana Zeka; Hervé Raps; Patrick Rampal
Journal:  Ann Glob Health       Date:  2020-12-03       Impact factor: 2.462

2.  Chronic low-level exposure to the common seafood toxin domoic acid causes cognitive deficits in mice.

Authors:  Kathi A Lefebvre; Preston S Kendrick; Warren Ladiges; Emma M Hiolski; Bridget E Ferriss; Donald R Smith; David J Marcinek
Journal:  Harmful Algae       Date:  2017-03-27       Impact factor: 4.273

3.  Effects of oral domoic acid exposure on maternal reproduction and infant birth characteristics in a preclinical nonhuman primate model.

Authors:  Thomas M Burbacher; Kimberly S Grant; Rebekah Petroff; Sara Shum; Brenda Crouthamel; Courtney Stanley; Noelle McKain; Jing Jing; Nina Isoherranen
Journal:  Neurotoxicol Teratol       Date:  2019-01-05       Impact factor: 3.763

4.  Chronic, low-level oral exposure to marine toxin, domoic acid, alters whole brain morphometry in nonhuman primates.

Authors:  Rebekah Petroff; Todd Richards; Brenda Crouthamel; Noelle McKain; Courtney Stanley; Kimberly S Grant; Sara Shum; Jing Jing; Nina Isoherranen; Thomas M Burbacher
Journal:  Neurotoxicology       Date:  2019-02-28       Impact factor: 4.294

5.  Domoic acid disrupts the activity and connectivity of neuronal networks in organotypic brain slice cultures.

Authors:  E M Hiolski; S Ito; J M Beggs; K A Lefebvre; A M Litke; D R Smith
Journal:  Neurotoxicology       Date:  2016-08-06       Impact factor: 4.294

Review 6.  Marine harmful algal blooms (HABs) in the United States: History, current status and future trends.

Authors:  Donald M Anderson; Elizabeth Fensin; Christopher J Gobler; Alicia E Hoeglund; Katherine A Hubbard; David M Kulis; Jan H Landsberg; Kathi A Lefebvre; Pieter Provoost; Mindy L Richlen; Juliette L Smith; Andrew R Solow; Vera L Trainer
Journal:  Harmful Algae       Date:  2021-03-03       Impact factor: 4.273

Review 7.  Current Trends and New Challenges in Marine Phycotoxins.

Authors:  Maria Carmen Louzao; Natalia Vilariño; Carmen Vale; Celia Costas; Alejandro Cao; Sandra Raposo-Garcia; Mercedes R Vieytes; Luis M Botana
Journal:  Mar Drugs       Date:  2022-03-08       Impact factor: 5.118

8.  Evidence of increased toxic Alexandrium tamarense dinoflagellate blooms in the eastern Bering Sea in the summers of 2004 and 2005.

Authors:  Masafumi Natsuike; Rui Saito; Amane Fujiwara; Kohei Matsuno; Atsushi Yamaguchi; Naonobu Shiga; Toru Hirawake; Takashi Kikuchi; Shigeto Nishino; Ichiro Imai
Journal:  PLoS One       Date:  2017-11-28       Impact factor: 3.240

9.  Evaluation of Rapid, Early Warning Approaches to Track Shellfish Toxins Associated with Dinophysis and Alexandrium Blooms.

Authors:  Theresa K Hattenrath-Lehmann; Mark W Lusty; Ryan B Wallace; Bennie Haynes; Zhihong Wang; Maggie Broadwater; Jonathan R Deeds; Steve L Morton; William Hastback; Leonora Porter; Karen Chytalo; Christopher J Gobler
Journal:  Mar Drugs       Date:  2018-01-13       Impact factor: 5.118

10.  Largest baleen whale mass mortality during strong El Niño event is likely related to harmful toxic algal bloom.

Authors:  Verena Häussermann; Carolina S Gutstein; Michael Bedington; David Cassis; Carlos Olavarria; Andrew C Dale; Ana M Valenzuela-Toro; Maria Jose Perez-Alvarez; Hector H Sepúlveda; Kaitlin M McConnell; Fanny E Horwitz; Günter Försterra
Journal:  PeerJ       Date:  2017-05-31       Impact factor: 2.984

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