Perceived Risk of Insect-Based Foods: an Assessment of the Entomophagy Attitude Questionnaire Predictive Validity
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Ethics, Edible Insects and Sustainable Food Choice in Schools Verity Jones* University of the West of England, Bristol, UK
British Educational Research Journal Vol. 46, No. 4, August 2020, pp. 894–908 DOI: 10.1002/berj.3655 ‘Just don’t tell them what’s in it’: Ethics, edible insects and sustainable food choice in schools Verity Jones* University of the West of England, Bristol, UK Supporting young people with global crises mitigation strategies is essential, yet loaded with ethical dilemmas for the educator. This study explores whether young people will make ethical decisions regarding the sustainability of food choice in schools, and based on the processes identified, what educators’ needs are in supporting transformative learning. This study is the first of its kind, where young people under the age of 14 have been tasting edible insects and discussing their role in a more sustainable diet. The article draws on mixed-method research with over 180 young people and their teachers in three schools in Wales and examines responses to a possible introduction of edible insects into school canteens. Highlighted is the complexity of sustainable food choices—likely to be identifiable with other young people and educators in western countries. The article considers how educators and policy makers may need to frame routes to positive sustainable action and the associ- ated impacts these may have on personal, social, political and environmental spheres. Keywords: edible insects; ethics; pedagogy; sustainability Introduction It is estimated that half of the planet’s surface considered habitable to plants is now being used for agriculture. Sarilo (2018) notes that 45% of this is being used for food that goes directly to humans, while a further 33% is for food to feed animals that will be slaughtered for human consumption. -
New Large Leptictid Insectivore from the Late Paleogene of South Dakota, USA
New large leptictid insectivore from the Late Paleogene of South Dakota, USA TJ MEEHAN and LARRY D. MARTIN Meehan, T.J. and Martin, L.D. 2012. New large leptictid insectivore from the Late Paleogene of South Dakota, USA. Acta Palaeontologica Polonica 57 (3): 509–518. From a skull and mandible, we describe a new genus and species of a primitive insectivore (Mammalia: Insectivora: Leptictida: Leptictidae). Its large body size and higher−crowned teeth indicate a different feeding ecology from other leptictid insectivores. With evidence of some heavy, flat wear on the molariform teeth, its shift in diet was likely to greater herbivory. Unlike the narrow snout of Blacktops, this new leptictid retains a broad snout, suggesting that small verte− brates were still important dietary components. The specimen was collected from the floodplain deposits of the lower or middle White River Group of South Dakota, which represent the latest Eocene to earliest Oligocene (Chadronian and Orellan North American Land Mammal “Ages”). Key words: Mammalia, Leptictidae, Leptictis, Megaleptictis, Eocene, Oligocene, White River Group, South Dakota, North America. TJ Meehan [[email protected]], Research Associate, Section of Vertebrate Paleontology, Carnegie Museum of Natural History, 4400 Forbes Avenue, Pittsburgh, PA 15213, USA; Larry D. Martin [[email protected]], Division of Vertebrate Paleontology, Natural History Museum and Biodiversity Re− search Center, University of Kansas, Lawrence, KS 66045, USA. Received 4 April 2011, accepted 25 July 2011, available online 17 August 2011. Introduction molariform teeth. A fossa in this region at least suggests in− creased snout mobility, but no definitive anatomical argument Leptictida is a primitive order of placental, insectivorous has been made to support a highly mobile cartilaginous snout mammals convergent to extant sengis or elephant “shrews” tip, as in sengis. -
The Aquatic Veterinarian 2013 7(4)
ISSN 2329-5562 No green economy without blue economy, says UN Food and Agricultural Organization (See related article on page 29) Formerly Aquatic Vet News Volume 7, Number 4 Fourth Quarter, 2013 THE AQUATIC VETERINARIAN Volume 7, Number 4 Formerly Aquatic Vet News Fourth Quarter 2013 WORLD AQUATIC VETERINARY MEDICAL ASSOCIATION WHO ARE WE Editorial Staff The mission of the World Aquatic Veterinary Medi- Nick Saint-Erne [email protected] Executive Editor cal Association is to serve the discipline of aquatic veterinary medicine in enhancing aquatic animal David Scarfe [email protected] health and welfare, public health, and seafood Communications Committee Chair safety, in support of the veterinary profession, aquatic animal owners and industries, and other Contributing Editors stakeholders. Devon Dublin (Japan) Krystan Grant (USA) The purpose of the World Aquatic Veterinary Rob Jones (Australia) Medical Association is: Richmond Loh (Australia) To serve aquatic veterinary medicine practitio- Peter Merrill (USA) ners of many disciplines and backgrounds by Regg Neiger (USA) developing programs to support and promote Helen Roberts (USA) our members, and the aquatic species and in- Roxanna Smolowitz (USA) dustries that they serve. Laura Urdes (Romania) To identify, foster and strengthen professional Peter Werkman (Nederland) interactions among aquatic medical practitio- ners and other organizations around the world. WAVMA Executive Board To be an advocate for, develop guidance on, Mohamed Faisal (USA) [email protected] and promote the advancement of the science, President ethics and professional aspects of aquatic ani- mal medicine within the veterinary profession Richmond Loh (Australia) [email protected] and a wider audience. President Elect To optimally position and advance the disci- Dušan Palić (Germany) pline of aquatic veterinary medicine, and sup- [email protected] port the practice of aquatic veterinary medicine Immediate Past President in all countries. -
Insects, Seaweed and Lab-Grown Meat Could Be the Foods of the Future 4 February 2020, by Alesandros Glaros, Emily Duncan, Evan Fraser and Lisa Ashton
Insects, seaweed and lab-grown meat could be the foods of the future 4 February 2020, by Alesandros Glaros, Emily Duncan, Evan Fraser and Lisa Ashton Experimental production: Lab-grown meat Lab-grown protein was popularized in 2013 when Google co-founder Sergey Brin invested 250,000 euros to create a cultured burger. Developed by pharmacologist Mark Post, the burger was made using fetal bovine serum and publicized in a televised tasting event. An Indonesian traditional seaweed farm in Nusa Penuda, Bali. Credit: Shutterstock The world is facing a major food crisis where both obesity and hunger are rising in the context of rapidly changing environments. The Food and Agriculture Organization has presented alternative food sources—such as seaweed and insects—as possible solutions to this crisis. These scientists and policy makers think that if Meat-free alternatives, like plant-based burgers, have only consumers embraced seaweed diets and ate been growing in popularity. Credit: Shutterstock bugs these problems could be solved. But is this the whole story? As a group of food security researchers from the Since then, a string of lab-grown meat businesses University of Guelph and the Arrell Food Institute, have propagated across North America and Europe we approach these claims cautiously, with the , backed by investors such as Bill Gates and available scientific evidence in mind. People for the Ethical Treatment of Animals. The European Commission defines novel foods as Most cultured meats are grown in a concoction of those without a history of consumption in a region. amino acids, natural growth factors, sugars and Novel foods have emerged with the prospect of salts from fetal bovine blood, and research has yet meeting both human and planetary health goals to find an efficient "animal-free" method of growing through changing diets. -
8.14 Insects PREVIEW
Nonfiction Article of the Week Table of Contents 8-14: Insects for Dinner? Terms of Use 2 Table of Contents 3 List of Activities, Difficulty Levels, Common Core Alignment, & TEKS 4 Digital Components/Google Classroom Guide 5 Teaching Guide, Rationale, Lesson Plans, Links, and Procedures: EVERYTHING 6-9 Article: Insects for Dinner? 10-11 *Modified Article: Insects for Dinner? 12-13 Activity 1: Basic Comprehension Quiz/Check – Multiple Choice w/Key 14-15 Activity 2: Basic Comprehension Quiz/Check – Open-Ended Questions w/Key 16-17 Activity 3: Text Evidence Activity w/Annotation Guide for Article 18-20 Activity 4: Text Evidence Activity & Answer Bank w/Key 21-23 Activity 5: Skill Focus – RI.8.8 Analyze Argument, Including Irrelevant Evidence 24-27 Activity 6: Integrate Sources –Video Clip & Questions w/Key 28-29 Activity 7: Skills Test Regular w/Key 30-33 Activity 8: Skills Test *Modified w/Key 34-37 ©2018 erin cobb imlovinlit.com Nonfiction Article of the Week Teacher’s Guide 8-14: Insects for Dinner? Activities, Difficulty Levels, and Common Core Alignment List of Activities & Standards Difficulty Level: *Easy **Moderate ***Challenge Activity 1: Basic Comprehension Quiz/Check – Multiple Choice* RI.8.1 Activity 2: Basic Comprehension Quiz/Check – Open-Ended Questions* RI.8.1 Activity 3: Text Evidence Activity w/Annotation Guide for Article** RI.8.1 Activity 4: Text Evidence Activity w/Answer Bank** RI.8.1 Activity 5: Skill Focus – Analyze Arguments*** RI.8.8 Activity 6: Integrate Sources – Video Clip*** RI.8.7, RI.8.9 Activity 7: Skills -
Small Mammal Population Dynamics and Range Shifts with Climate
RESOURCES, DATA RESOLUTION AND SMALL MAMMAL RANGE DYNAMICS Nerissa Haby B. Env. Sci. (Hons) A thesis submitted in fulfilment of the requirements for the degree of Doctor of Philosophy April 2012 Ecology and Evolutionary Biology University of Adelaide, Australia Table of contents Table of contents i Abstract ii Acknowledgements iii Declaration iv How well do existing evaluations of climate change impacts on range Introduction 1 dynamics represent Australian small mammals? Improving performance and transferability of small-mammal species Chapter 1. 8 distribution models Chapter 2. Specialist resources are key to improving small mammal distribution models 22 Scale dependency of metapopulation models used to predict climate change Chapter 3. 35 impacts on small mammals Lessons from the arid zone: using climate variables to predict small mammal Chapter 4. 52 occurrence in hot, dry environments Ecosystem dynamics, evolution and dependency of higher trophic organisms Chapter 5. 69 on resource gradients Conclusion 79 References 89 Appendix 106 Publications associated with this thesis 153 i Abstract Extensive range shift and mass extinctions resulting from climate change are predicted to impact all biodiversity on the basis of species distribution models of wide-spread and data-rich taxa (i.e. vascular plants, terrestrial invertebrates, birds). Cases that both support and contradict these predictions have been observed in empirical and modelling investigations that continue to under-represent small mammal species (Introduction). Given small mammals are primary or higher order consumers and often dispersal limited, incorporating resource gradients that define the fundamental niche may be vital for generating accurate estimates of range shift. This idea was investigated through the influence of coarse to fine resolution, landscape- and quadrat-scale data on the range dynamics of four temperate- and five arid-zone small mammals. -
Insects" from Atlas of the Sand Hills
University of Nebraska - Lincoln DigitalCommons@University of Nebraska - Lincoln Papers in Entomology Museum, University of Nebraska State October 1998 "Insects" from Atlas of the Sand Hills Brett C. Ratcliffe University of Nebraska-Lincoln, [email protected] Follow this and additional works at: https://digitalcommons.unl.edu/entomologypapers Part of the Entomology Commons Ratcliffe, Brett C., ""Insects" from Atlas of the Sand Hills" (1998). Papers in Entomology. 44. https://digitalcommons.unl.edu/entomologypapers/44 This Article is brought to you for free and open access by the Museum, University of Nebraska State at DigitalCommons@University of Nebraska - Lincoln. It has been accepted for inclusion in Papers in Entomology by an authorized administrator of DigitalCommons@University of Nebraska - Lincoln. Insects Brett C. Ratcliffe Curator of Entomology University of Nebraska State Museum What is life? It is the flash of the firefly do the job nor adequate resources devoted sects in the Sand Hills tolerate drier and in the night. It is the breath of a buf- to such an undertaking. No one knows, windier conditions and greater solar ra- falo in the winter time. It is the little therefore, how many species of insects diation. They have also been successful shadow which runs across the grass occur in Nebraska, although the number in surviving the periodic fires that are so and loses itself in the sunset. undoubtedly reaches the thousands. necessary for maintaining native grass- However, a number of specific in- lands. In fact, the mosaic of habitats par- —Crowfoot, 1890, Blackfoot sect groups in Nebraska have been sur- tially created by fire has probably con- Confederacy Spokesman veyed, including in the Sand Hills. -
Abstract Book Conference “Insects to Feed the World” | the Netherlands 14-17 May 2014
1st International Conference 14-17 May 2014, Wageningen (Ede), The Netherlands. Insects to feed the world SUMMARY REPORT Insects to Feed the World Conference SUMMARY REPORT Document compiled by Paul Vantomme Senior Forestry Officer [email protected] Christopher Münke FAO Consultant [email protected] Insects for Food and Feed Programme Non-Wood Forest Products Programme Forestry Department FAO 00153 Rome, Italy Insects for Food and Feed: http://www.fao.org/forestry/edibleinsects/en/ and Arnold van Huis Tropical entomologist Laboratory of Entomology [email protected] Joost van Itterbeeck PhD Student Laboratory of Entomology Anouk Hakman Student Laboratory of Entomology Wageningen University and Research Centre Wageningen, The Netherlands www.wageningenur.nl/ent Cover Photograph: Participants attending a Plenary session during the Conference (Photo Paul Vantomme) Table of Contents Objectives of the conference .................................................................................. III Executive summary..................................................................................................IV Summary notes from the sessions.........................................................................VI Conclusion .................................................................................................................X Recommendations ..................................................................................................XII Annex.......................................................................................................................XIII -
Safety of Alternative Proteins: Technological, Environmental and Regulatory Aspects of Cultured Meat, Plant-Based Meat, Insect Protein and Single-Cell Protein
foods Review Safety of Alternative Proteins: Technological, Environmental and Regulatory Aspects of Cultured Meat, Plant-Based Meat, Insect Protein and Single-Cell Protein Joshua Hadi 1 and Gale Brightwell 1,2,* 1 AgResearch Ltd., Hopkirk Research Institute, Cnr University Ave and Library Road, Massey University, Palmerston North 4442, New Zealand; [email protected] 2 New Zealand Food Safety Science and Research Centre, Massey University Manawatu (Turitea), Tennent Drive, Palmerston North 4474, New Zealand * Correspondence: [email protected] Abstract: Food security and environmental issues have become global crises that need transformative solutions. As livestock production is becoming less sustainable, alternative sources of proteins are urgently required. These include cultured meat, plant-based meat, insect protein and single-cell protein. Here, we describe the food safety aspects of these novel protein sources, in terms of their technological backgrounds, environmental impacts and the necessary regulatory framework for future mass-scale production. Briefly, cultured meat grown in fetal bovine serum-based media can be exposed to viruses or infectious prion, in addition to other safety risks associated with the use of genetic engineering. Plant-based meat may contain allergens, anti-nutrients and thermally induced carcinogens. Microbiological risks and allergens are the primary concerns associated with insect protein. Single-cell protein sources are divided into microalgae, fungi and bacteria, all of which have Citation: Hadi, J.; Brightwell, G. specific food safety risks that include toxins, allergens and high ribonucleic acid (RNA) contents. The Safety of Alternative Proteins: Technological, Environmental and environmental impacts of these alternative proteins can mainly be attributed to the production of Regulatory Aspects of Cultured Meat, growth substrates or during cultivation. -
Diet, Ecology, and Dental Morphology in Terrestrial Mammals – Silvia Pineda-Munoz – November 2015
DIET, ECOLOGY, AND DENTAL MORPHOLOGY IN TERRESTRIAL MAMMALS Sílvia Pineda-Munoz, MSc Department of Biological Sciences Macquarie University Sydney, Australia Principal Supervisor: Dr. John Alroy Co-Supervisor(s): Dr Alistair R. Evans Dr Glenn A. Brock This thesis is submitted for the degree of Doctor of Philosophy April 2016 2 To my Little Bean; and her future siblings and cousins Al meu Fessolet; I als seus futurs germans i cosins i ii STATEMENT OF CANDIDATE I certify that the work in this thesis entitled “Diet, ecology and dental morphology in terrestrial mammals” has not previously been submitted for a degree nor has in been submitted as part or requirements for a degree to any other university or institution other than Macquarie University. I also certify that this thesis is an original piece of research and that has been written by me. Any collaboration, help or assistance has been appropriately acknowledged. No Ethics Committee approval was required. Sílvia Pineda-Munoz, MSc MQID: 42622409 iii iv Diet, ecology, and dental morphology in terrestrial mammals – Silvia Pineda-Munoz – November 2015 ABSTRACT Dietary inferences are a key foundation for paleoecological, ecomorphological and macroevolutionary studies because they inform us about the direct relationships between the components of an ecosystem. Thus, the first part of my thesis involved creating a statistically based diet classification based on a literature compilation of stomach content data for 139 terrestrial mammals. I observed that diet is far more complex than a traditional herbivore-omnivore-carnivore classification, which masks important feeding specializations. To solve this problem I proposed a new classification scheme that emphasizes the primary resource in a given diet (Chapter 3). -
All About Food Webs
fact sheet All about food webs We all need energy to live, so do other animals! An animal’s energy is derived from the food it eats. Different animals eat different things as their energy source: carnivores herbivores omnivores only eat animals (meat) only eat plants eat animals and plants Plants produce their own food, using energy from the sun, by a process called water + carbon dioxide + sunlight photosynthesis. Because they make their own food plants food + oxygen are called ‘producers’. Animals are called ‘consumers’, because they get their energy by consuming other things. What do you think these eat? • insectivore • nectarivore • frugivore ast0890 | Feeding relationships 3: All about food webs (fact sheet) developed for the Department of Education WA © The University of Western Australia 2012 for conditions of use see spice.wa.edu.au/usage version 1.1 revised November 2015 page 1 Licensed for NEALS A food chain shows what consumes what in an environment, that is, species that are linked to each other by what they eat. It also illustrates the direction in which energy passes from one species to the next. acacia cicada green tree frog freshwater crocodile Acacia plants are producers. The arrow shows at the beginning of the food chain, cicadas eat acacia, so cicadas are called ‘first order’ consumers. Next in the food chain, green tree frogs eat cicadas, so green tree frogs are ‘second order’ consumers. Then, freshwater crocodiles eat frogs, so freshwater crocodiles are ‘third order’ consumers. Each animal is named a different order of consumer, based on its position in a particular food chain. -
Mammal Species Richness at a Catena and Nearby Waterholes During a Drought, Kruger National Park, South Africa
diversity Article Mammal Species Richness at a Catena and Nearby Waterholes during a Drought, Kruger National Park, South Africa Beanélri B. Janecke Animal, Wildlife & Grassland Sciences, University of the Free State, 205 Nelson Mandela Road, Park West, Bloemfontein 9301, South Africa; [email protected]; Tel.: +27-51-401-9030 Abstract: Catenas are undulating hillslopes on a granite geology characterised by different soil types that create an environmental gradient from crest to bottom. The main aim was to determine mammal species (>mongoose) present on one catenal slope and its waterholes and group them by feeding guild and body size. Species richness was highest at waterholes (21 species), followed by midslope (19) and sodic patch (16) on the catena. Small differences observed in species presence between zones and waterholes and between survey periods were not significant (p = 0.5267 and p = 0.9139). In total, 33 species were observed with camera traps: 18 herbivore species, 10 carnivores, two insectivores and three omnivores. Eight small mammal species, two dwarf antelopes, 11 medium, six large and six mega-sized mammals were observed. Some species might not have been recorded because of drought, seasonal movement or because they travelled outside the view of cameras. Mammal presence is determined by food availability and accessibility, space, competition, distance to water, habitat preferences, predators, body size, social behaviour, bound to territories, etc. The variety in body size and feeding guilds possibly indicates a functioning catenal ecosystem. This knowledge can be beneficial in monitoring and conservation of species in the park. Keywords: catena ecosystem; ephemeral mud wallows; habitat use; mammal variety; Skukuza area; Citation: Janecke, B.B.