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1.
PLoS One ; 15(3): e0229512, 2020.
Article in English | MEDLINE | ID: mdl-32163430

ABSTRACT

Seafood mislabeling occurs in a wide range of seafood products worldwide, resulting in public distrust, economic fraud, and health risks for consumers. We quantified the extent of shrimp mislabeling in coastal and inland North Carolina. We used standard DNA barcoding procedures to determine the species identity of 106 shrimp sold as "local" by 60 vendors across North Carolina. Thirty-four percent of the purchased shrimp was mislabeled, and surprisingly the percentage did not differ significantly between coastal and inland counties. One third of product incorrectly marketed as "local" was in fact whiteleg shrimp: an imported and globally farmed species native to the eastern Pacific, not found in North Carolina waters. In addition to the negative ecosystem consequences of shrimp farming (e.g., the loss of mangrove forests and the coastal buffering they provide), North Carolina fishers-as with local fishers elsewhere-are negatively impacted when vendors label farmed, frozen, and imported shrimp as local, fresh, and wild-caught.


Subject(s)
Aquaculture/ethics , Aquaculture/methods , Penaeidae/genetics , Animals , Conservation of Natural Resources/methods , DNA Barcoding, Taxonomic/methods , Ecosystem , North Carolina , Penaeidae/classification , Seafood/analysis , Seafood/economics , Shellfish/analysis , Shellfish/classification
2.
PLoS One ; 14(8): e0216777, 2019.
Article in English | MEDLINE | ID: mdl-31437256

ABSTRACT

Previous research into public perceptions of live prey feeding has been focused on terrestrial animals. The reasons for this likely relate to the difficulty humans have in being compassionate to animals who are phylogenetically distantly related. In order to test these assumptions, the general public (two groups; one who had just visited an aquarium; and one group who had just visited a zoo), aquarium professionals in the UK/US and terrestrial zoo animal professionals (UK) were investigated to see how they would differ in their responses when asked about feeding various live aquatic animals to one another. Likert based surveys were used to obtain data face to face and via online social media. Demographics in previous research identified a lower acceptance of live prey feeding by females, however in aquatic animals this was not reflected. Instead, separations in perception were seen to exist between participants dependent on whether they had just visited a zoo or aquarium, or worked with animals.


Subject(s)
Animals, Zoo , Aquatic Organisms , Ethics , Predatory Behavior , Public Opinion , Animals , Animals, Zoo/physiology , Aquaculture/ethics , Aquatic Organisms/physiology , Crustacea/physiology , Feeding Behavior , Fishes/physiology , Food Chain , Humans , Phylogeny , Sharks/physiology , Surveys and Questionnaires
3.
Politics Life Sci ; 37(2): 220-235, 2018.
Article in English | MEDLINE | ID: mdl-30488815

ABSTRACT

Salmon farming is a key industry in Norway, with firsthand value of more than 60 billion Norwegian crowns in 2017. The salmon industry is a driving force for biotechnological applications in the marine sector. The recent release of the Atlantic salmon reference genome offers new opportunities to solve major aquaculture bottlenecks that currently limit expansion of the industry. One major bottleneck is the genetic impact of escaped farmed salmon on wild populations. To solve this problem, the industry can use sterile salmon in production. As shown by Wargelius et al., sterile salmon can be made by preventing the formation of germ cells through genome editing using the CRISPR-Cas9 method. This approach solves problems of genetic introgression and precocious maturation. However, genome editing of animals, especially for human consumption, raises ethical as well as safety and legal questions. These social and ethical aspects can have tremendous impact in analyzing the final result of salmon farming (e.g., consumer acceptability of a fresh or frozen filet or similar salmon product) but also can be examined "upstream" by describing and assessing the research communities that promote and carry out the science that underpins the salmon industry. Who produces the scientific "facts" that govern the Norwegian aquaculture industry? How do these scientific communities work together? What are the societal impacts of this science? This article uses ethnographical observation and interviews to describe the state-of-the-art of CRISPR gene-editing procedures currently employed in the science and industry collaboration in Norway.


Subject(s)
Aquaculture/methods , Clustered Regularly Interspaced Short Palindromic Repeats , Infertility/genetics , Salmon/genetics , Animals , Aquaculture/ethics , Aquaculture/legislation & jurisprudence , Gene Editing , Humans , Norway
4.
Politics Life Sci ; 37(2): 220-235, 2018 12 04.
Article in English | MEDLINE | ID: mdl-31120700

ABSTRACT

Salmon farming is a key industry in Norway, with firsthand value of more than 60 billion Norwegian crowns in 2017. The salmon industry is a driving force for biotechnological applications in the marine sector. The recent release of the Atlantic salmon reference genome offers new opportunities to solve major aquaculture bottlenecks that currently limit expansion of the industry. One major bottleneck is the genetic impact of escaped farmed salmon on wild populations. To solve this problem, the industry can use sterile salmon in production. As shown byWargelius et al., sterile salmon can be made by preventing the formation of germ cells through genome editing using the CRISPR-Cas9 method. This approach solves problems of genetic introgression and precocious maturation. However, genome editing of animals, especially for human consumption, raises ethical as well as safety and legal questions. These social and ethical aspects can have tremendous impact in analyzing the final result of salmon farming (e.g., consumer acceptability of a fresh or frozen filet or similar salmon product) but also can be examined "upstream" by describing and assessing the research communities that promote and carry out the science that underpins the salmon industry. Who produces the scientific "facts" that govern the Norwegian aquaculture industry? How do these scientific communities work together? What are the societal impacts of this science? This article uses ethnographical observation and interviews to describe the state-of-the-art of CRISPR gene-editing procedures currently employed in the science and industry collaboration in Norway.


Subject(s)
Aquaculture/methods , Clustered Regularly Interspaced Short Palindromic Repeats , Gene Editing/methods , Infertility/genetics , Salmo salar/genetics , Animals , Aquaculture/ethics , Gene Editing/ethics , Humans , Norway
5.
Mar Drugs ; 15(7)2017 Jun 24.
Article in English | MEDLINE | ID: mdl-28672802

ABSTRACT

Normative ethical considerations of growth of the marine biotechnology and aquaculture disciplines in biopharming, food production, and marine products commercialization from a bioethical perspective have been limited. This paucity of information begs the question of what constitutes a bioethical approach (i.e., respect for individuals or autonomy; beneficence, nonmaleficence, and justice) to marine biotechnology and aquaculture, and whether it is one that is appropriate for consideration. Currently, thoughtful discussion on the bioethical implications of use, development, and commercialization of marine organisms or their products, as well as potential environmental effects, defaults to human biomedicine as a model. One must question the validity of using human bioethical principlism moral norms for appropriating a responsible marine biotechnology and aquaculture ethic. When considering potential impacts within these disciplines, deference must be given to differing value systems in order to find common ground to advance knowledge and avoid emotive impasses that can hinder the science and its application. The import of bioethical considerations when conducting research and/or production is discussed. This discussion is directed toward applying bioethical principles toward technology used for food, biomedical development (e.g., biopharming), or as model species for advancement of knowledge for human diseases.


Subject(s)
Aquaculture/ethics , Aquatic Organisms , Bioethical Issues , Biotechnology/ethics , Animals , Humans
6.
Can Vet J ; 57(4): 341, 2016 Apr.
Article in English | MEDLINE | ID: mdl-27041749
7.
Can Vet J ; 57(4): 343, 2016 Apr.
Article in English | MEDLINE | ID: mdl-27041750
8.
Can Vet J ; 57(2): 113, 2016 Feb.
Article in English | MEDLINE | ID: mdl-26834260
9.
J Fish Biol ; 75(10): 2855-61, 2009 Dec.
Article in English | MEDLINE | ID: mdl-20738531

ABSTRACT

In contrast to terrestrial farming or aquaculture, little, if any, welfare regulation exists that constrains how fishes are handled or killed in wild-capture marine fisheries. Given that welfare in wild-capture fisheries is moving further up the public agenda, an unbiased, dispassionate account of what happens to fishes caught in wild-capture marine fisheries is needed so as to identify where the main animal welfare issues exist.


Subject(s)
Animal Welfare , Fisheries/ethics , Fishes/physiology , Animals , Aquaculture/ethics
10.
J Fish Biol ; 75(10): 2862-7, 2009 Dec.
Article in English | MEDLINE | ID: mdl-20738532

ABSTRACT

This paper explores the possibility that lessons learned from aquaculture might contribute to current debate on welfare and fisheries. After looking briefly at the history of research interest in the welfare of farmed fishes, some implications of using different definitions of and approaches to the concept of welfare are discussed. Consideration is given to the way in which the aquaculture industry has responded to public concern about fish welfare and, for cases where these responses have been effective, why this might be the case. Finally, possible cross-over points between aquaculture and fisheries in the context of fish welfare, as well as experience and expertise that might be shared between these two areas, are identified.


Subject(s)
Animal Welfare , Aquaculture , Fisheries , Fishes/physiology , Animals , Aquaculture/ethics , Aquaculture/standards , Fisheries/ethics , Fisheries/standards
11.
Dis Aquat Organ ; 75(2): 87-98, 2007 May 04.
Article in English | MEDLINE | ID: mdl-17578248

ABSTRACT

In this general, strongly pro-animal, and somewhat utopian and personal essay, I argue that we owe aquatic animals respect and moral consideration just as we owe respect and moral consideration to all other animal beings, regardless of the taxonomic group to which they belong. In many ways it is more difficult to convince some people of our ethical obligations to numerous aquatic animals because we do not identify or empathize with them as we do with animals with whom we are more familiar or to whom we are more closely related, including those species (usually terrestrial) to whom we refer as charismatic megafauna. Many of my examples come from animals that are more well studied but they can be used as models for aquatic animals. I follow Darwinian notions of evolutionary continuity to argue that if we feel pain, then so too do many other animals, including those that live in aquatic environs. Recent scientific data ('science sense') show clearly that many aquatic organisms, much to some people's surprise, likely suffer at our hands and feel their own sorts of pain. Throughout I discuss how cognitive ethology (the study of animal minds) is the unifying science for understanding the subjective, emotional, empathic, and moral lives of animals because it is essential to know what animals do, think, and feel as they go about their daily routines. Lastly, I argue that when we are uncertain if we are inflicting pain due to our incessant, annoying, and frequently unnecessary intrusions into the lives of other animals as we go about 'redecorating nature' (removing animals or moving them from place to place), we should err on the side of the animals and stop engaging in activities that cause pain and suffering.


Subject(s)
Animal Welfare , Aquaculture , Ethology , Animal Welfare/ethics , Animal Welfare/trends , Animals , Aquaculture/ethics , Bioethical Issues , Biological Evolution , Ethology/ethics , Ethology/trends , Species Specificity , Water
12.
Dis Aquat Organ ; 75(2): 99-108, 2007 May 04.
Article in English | MEDLINE | ID: mdl-17578249

ABSTRACT

It is of scientific and practical interest to consider the levels of cognitive ability in animals, which animals are sentient, which animals have feelings such as pain and which animals should be protected. A sentient being is one that has some ability to evaluate the actions of others in relation to itself and third parties, to remember some of its own actions and their consequences, to assess risk, to have some feelings and to have some degree of awareness. These abilities can be taken into account when evaluating welfare. There is evidence from some species of fish, cephalopods and decapod crustaceans of substantial perceptual ability, pain and adrenal systems, emotional responses, long- and short-term memory, complex cognition, individual differences, deception, tool use, and social learning. The case for protecting these animals would appear to be substantial. A range of causes of poor welfare in farmed aquatic animals is summarised.


Subject(s)
Animal Welfare/ethics , Aquaculture/ethics , Cognition , Animal Diseases , Animal Welfare/standards , Animals , Environment , Feeding Methods , Handling, Psychological , Humans , Parasitic Diseases, Animal , Perception , Population Density , Species Specificity , Transportation
13.
Dis Aquat Organ ; 75(2): 119-29, 2007 May 04.
Article in English | MEDLINE | ID: mdl-17578251

ABSTRACT

This paper first explores 3 philosophical bases for attitudes to invertebrates, Contractarian/Kantian, Utilitarian, and Rights-based, and what they lead us to conclude about how we use and care for these animals. We next discuss the problems of evaluating pain and suffering in invertebrates, pointing out that physiological responses to stress are widely similar across the animal kingdom and that most animals show behavioral responses to potentially painful stimuli. Since cephalopods are often used as a test group for consideration of pain, distress and proper conditions for captivity and handling, we evaluate their behavioral and cognitive capacities. Given these capacities, we then discuss practical issues: minimization of their pain and suffering during harvesting for food; ensuring that captive cephalopods are properly cared for, stimulated and allowed to live as full a life as possible; and, lastly, working for their conservation.


Subject(s)
Animal Welfare/ethics , Cephalopoda/physiology , Animals , Aquaculture/ethics , Awareness/ethics , Behavior, Animal , Learning , Pain/veterinary
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