Relevant bibliographies by topics / Horseflies

Contents

  1. Journal articles
  2. Dissertations / Theses
  3. Books
  4. Book chapters
  5. Conference papers

Academic literature on the topic 'Horseflies'

Author: Grafiati
Published: 4 June 2021
Last updated: 30 July 2024

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Journal articles on the topic "Horseflies"

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Akimbekova, Almagul Fazylkarimovna, and Ayaulym Adilgazykyzy Arystanbay. "FAUNAL REVIEW OF HORSEFLIES OF THE AKMOLA REGION." Chronos 6, no. 3(53) (March 13, 2021): 5–7. http://dx.doi.org/10.52013/2658-7556-53-3-1.

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Data on the species composition and ecology of horseflies in the study area are presented. The habitation of horseflies belong to five genera has been established. 25 species of horseflies were identified in the study area. Under favorable climatic conditions, there is an increase in the number of horseflies. The terms of activity and number of horseflies on pastures of cattle and horses were studied.
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Krčmar, Stjepan. "The horseflies fauna diversity (Diptera: Tabanidae) in the habitats along the Mura river in Međimurje, Croatia." Entomologia Croatica 22, no. 1 (April 18, 2023): 17–27. http://dx.doi.org/10.17971/ec.22.1.3.

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From May to September 2022, in the habitats along the Mura River, 1295 horseflies were sampled, classified into two subfamilies, six genera, and 21 species. Seven new records of horseflies were recorded for the first time in the researched area. Newly recorded species are: Tabanus bovinus, Tabanus cordiger, Tabanus sudeticus, Heptatoma pellucens, Haematopota italica, Haematopota scutellata, Haematopota subcylindrica. The species Haematopota pluvialis is the most abundant species, accounting for 60.07% of all sampled horseflies. Tabanus bromius followed with 21.23%, while the other 19 horseflies account for 18.7%. 18 species of horseflies belonged to the boreal-Eurasian type of fauna, two belonged to the Mediterranean type of fauna, i.e. the southern European subtype, while one species belonged to the Afro-Eurasian-arid type of fauna. In the collected sample of horseflies, 33 males classified into 10 species were recorded, while all other collected horseflies were females (1262 specimens) classified into 20 species. The greatest similarity of the horseflies fauna was recorded between the localities Križovec and Goričan, 81.81%. 17 species of horseflies were sampled with a modified Manitoba trap (the so-called canopy trap), and 14 species were sampled with an oil or liquid trap. The largest number of horsefly specimens (59.07%) was sampled in the month of July, while the least horseflies were sampled in September (0.15%). The most abundant species, Tabanus bromius and Haematopota pluvialis, recorded their highest peaks of abundance in July. The longest flight period lasting five months (from May to September) was recorded only for Haematopota pluvialis. Tabanus bromius was represented in all 11 localities, while the species Haematopota pluvialis was represented in 10 localities, as well as the species Chrysops viduatus. Based on the earlier research conducted in 2011 and current research of the horseflies fauna along the Mura river in Međimurje, 22 taxa of horseflies (21 species and 1 subspecies) classified into six genera were identified.
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Krčmar, Stjepan, and Mislav Kovačić. "Diversity of horsefly fauna (Diptera: Tabanidae) of Bansko Hill." Natura Croatica 32, no. 2 (December 30, 2023): 523–34. http://dx.doi.org/10.20302/nc.2023.32.34.

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From 2018 to 2022, at 10 localities on Bansko Hill, 3,639 horseflies were sampled. Most specimens (3,404) were sampled in 2022 in the period from mid-May to mid-September. The horseflies sampled are classified into two subfamilies, six genera and 19 species. The species Hybomitra ukrainica (Olsufjev, 1952), Tabanus miki Brauer in Brauer and Bergenstamm, 1880, Haematopota grandis Meigen, 1820 and Haematopota pandazisi (Kröber, 1936) are new finds of horsefly species for the studied area. The species Tabanus tergestinus Egger, 1859 is the most abundant species and makes up 71.11% of the horseflies sampled. The species Tabanus bromius L., 1758 followed with 10.16% of the abundance, Tabanus sudeticus Zeller, 1842 with 8.82% and Atylotus loewianus (Villeneuve, 1920) with 5.74% of the horseflies sampled, while 15 other species of horseflies were represented by the remaining 4.17%. In the collected sample, male horseflies accounted for 51.71% of the sample; all of them were sampled with an oil liquid trap. The largest number of horseflies (84.14%) were sampled in localities on the northeastern side of Bansko Hill, covered with forest vegetation of secondary origin. Three species, T. bromius, T. tergestinus and Heptatoma pellucens, (Fabricius, 1776) have the longest flight period, from mid-May to mid-September. The highest peaks of abundance for T. tergestinus, T. bromius, and T. sudeticus were recorded in July, for H. pellucens in June and for A. loewianus in August. The greatest similarity in horsefly fauna (85.71%) was recorded in the localities Popovac and Karanac. 90.98% of horseflies were collected by liquid oil traps, followed by sticky traps (5.22%) and canopy traps (3.79%). Data from earlier studies from 2011 and data from the current studies in the area of Bansko Hill have yielded records of 22 species of horsefly.
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Khlyzova, Tatyana A. "To the fauna of mosquitoes and horseflies (Diptera: Culicidae, Tabanidae) of natural and climatic zones of the Tyumen region." E3S Web of Conferences 390 (2023): 07016. http://dx.doi.org/10.1051/e3sconf/202339007016.

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The article summarizes and analyzes the materials of literary sources and the results of our own research on the inventory of species diversity of mosquitoes and horseflies in the Tyumen region. The fauna of horseflies in the Yamalo-Nenets autonomous okrug is represented by 27 species and 6 subspecies, mosquitoes - 29 species, in the southern part of the region - 33 species, 4 subspecies of horseflies and 41 species of mosquitoes.
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Abarykova and Yegorov. "STRUCTURE OF BLOOD-SUCKING HORSE-FLY FAUNA IN AGROECOSYSTEMS OF THE CENTRAL NON-BLACK EARTH ZONE OF THE RUSSIAN FEDERATION." THEORY AND PRACTICE OF PARASITIC DISEASE CONTROL, no. 22 (May 19, 2021): 27–32. http://dx.doi.org/10.31016/978-5-6046256-1-3.2021.22.27-32.

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The aim of our work is to study structural changes in the species composition of blood-sucking dipterans in various biotopes of agrocenoses. It is established that the structure of the fauna of the blood-sucking Tabanidae is determined by abiotic (moisture, illumination, available shelters) and biotic (concentration of feeders) factors. One of the most important environmental factors that attract horseflies to agrocenoses is high density of farm animals that feed these insects. On lowland pastures, due to sufficient moisture, high light intensity and sun warming, conditions are favorable for habitation of adult horseflies. The ecological conditions of the adult horseflies habitation on dry pastures due to greater dryness, strong sun warming, lack of shelter and strong wind negatively affect the total number of horseflies. The ecological conditions of the adult horseflies habitation in the by-farm territories are less favorable. There is a tendency to reduction of the share of taiga species in the zoogeographic structure of the horsefly fauna (from 9 to 6 species over the past 10 years) and forest-steppe faunal complex (from 7 to 6 species). At the same time, the total average number of female horseflies attacking animals in various biotopes of agrocenoses of the central Non-Black Earth Zone has remained almost unchanged.
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Horváth, Gábor, Ádám Pereszlényi, Susanne Åkesson, and György Kriska. "Striped bodypainting protects against horseflies." Royal Society Open Science 6, no. 1 (January 2019): 181325. http://dx.doi.org/10.1098/rsos.181325.

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Bodypainting is widespread in African, Australian and Papua New Guinean indigenous communities. Many bodypaintings use white or bright yellow/grey/beige stripes on brown skin. Where the majority of people using bodypainting presently live, blood-sucking horseflies are abundant, and they frequently attack the naked brown regions of the human body surface with the risk of transmitting the pathogens of dangerous diseases. Since horseflies are deterred by the black and white stripes of zebras, we hypothesized that white-striped paintings on dark brown human bodies have a similar effect. In a field experiment in Hungary, we tested this hypothesis. We show that the attractiveness to horseflies of a dark brown human body model significantly decreases, if it is painted with the white stripes that are used in bodypaintings. Our brown human model was 10 times more attractive to horseflies than the white-striped brown model, and a beige model, which was used as a control, attracted two times more horseflies than the striped brown model. Thus, white-striped bodypaintings, such as those used by African and Australian people, may serve to deter horseflies, which is an advantageous byproduct of these bodypaintings that could lead to reduced irritation and disease transmission by these blood-sucking insects.
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Al-Talafha, H., Z. S. Amr, M. Abu Baker, and A. Katbeh Bader. "Horseflies of Jordan." Medical and Veterinary Entomology 18, no. 2 (June 2004): 208–11. http://dx.doi.org/10.1111/j.0269-283x.2004.00490.x.

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Sivkova. "FACTORS INFLUENCING THE ACTIVITY OF BLINDERS (DIPTERA, TABANIDAE)." THEORY AND PRACTICE OF PARASITIC DISEASE CONTROL, no. 22 (May 19, 2021): 474–78. http://dx.doi.org/10.31016/978-5-6046256-1-3.2021.22.474-478.

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This article summarizes the available literature data on association of blood-sucking horseflies (Diptera, Tabanidae) with various abiotic factors (illumination, air temperature, wind and humidity). In recent years, studies on the daily and seasonal activity of horseflies in various territories of our country have been significantly expanded. The gnat complex includes mosquitoes (the family Culicidae), horseflies (Tabanidae), blackflies (Simuliidae) and sandflies (Ceratopogonidae). Factors that determine high abundance of the gnat are favorable climatic conditions for their reproduction and existence combined with abundance of breeding biotopes (various reservoirs and swamp formations), and habitat of adults (woody, shrub or tall herbaceous vegetation available), as well as a sufficient number of warm-blooded animals, a source of engorgement. The damage depends on high abundance of these insects and can adversely affect the health of farm animals and humans due to the transmission of infectious and invasive diseases. The development of effective measures to control horseflies based on the knowledge of biology of these insects, is one of the urgent tasks of agricultural science aimed at increasing animal productivity.
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Horváth, Gábor, Tamás Szörényi, Ádám Pereszlényi, Balázs Gerics, Ramón Hegedüs, András Barta, and Susanne Åkesson. "Why do horseflies need polarization vision for host detection? Polarization helps tabanid flies to select sunlit dark host animals from the dark patches of the visual environment." Royal Society Open Science 4, no. 11 (November 2017): 170735. http://dx.doi.org/10.1098/rsos.170735.

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Horseflies (Tabanidae) are polarotactic, being attracted to linearly polarized light when searching for water or host animals. Although it is well known that horseflies prefer sunlit dark and strongly polarizing hosts, the reason for this preference is unknown. According to our hypothesis, horseflies use their polarization sensitivity to look for targets with higher degrees of polarization in their optical environment, which as a result facilitates detection of sunlit dark host animals. In this work, we tested this hypothesis. Using imaging polarimetry, we measured the reflection–polarization patterns of a dark host model and a living black cow under various illumination conditions and with different vegetation backgrounds. We focused on the intensity and degree of polarization of light originating from dark patches of vegetation and the dark model/cow. We compared the chances of successful host selection based on either intensity or degree of polarization of the target and the combination of these two parameters. We show that the use of polarization information considerably increases the effectiveness of visual detection of dark host animals even in front of sunny–shady–patchy vegetation. Differentiation between a weakly polarizing, shady (dark) vegetation region and a sunlit, highly polarizing dark host animal increases the efficiency of host search by horseflies.
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Guimaraes, Ronald Rodrigues, Ronald Rodrigues Guimarães Junior, Sandor Buys, Harlan Ronald Rodrigues Storti, Roney Rodrigues Guimarães, Eduardo Dias Wermelinger, and Raimundo Wilson Carvalho. "Remarks on Behavior of Horse Guard Wasps (Hymenoptera, Crabronidae, Bembicinae) and Interrupted Hematophagism of Horse Flies (Diptera, Tabanidae)." International Journal of Biology 8, no. 1 (October 28, 2015): 27. http://dx.doi.org/10.5539/ijb.v8n1p27.

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<p class="1Body">During studies on tabanid fauna on Marambaia Island, Mangaratiba, Brazil, the authors captured 71specimens of two species of solitaire sand wasps hunting horseflies, <em>Stictia punctata </em>(Fabricius, 1775) and <em>Stictia signata signata</em> (Linnaeus, 1758). Wasps interact with horseflies demonstrating outstanding behavior, interrupting the hematophagism, which enhances tabanids ability to transmit pathogenic agents to natural hosts.</p>
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Dissertations / Theses on the topic "Horseflies"

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McElligott, Paul Edward Kaye. "Aspects of the biology of horse flies and deer flies (Diptera:Tabanidae) in subarctic Labrador : larval distribution and development, biology of host-seeking females, and effect of climatic factors on daily activity." Thesis, McGill University, 1992. http://digitool.Library.McGill.CA:80/R/?func=dbin-jump-full&object_id=41037.

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Larval tabanids were collected twice weekly from eight locations in Iron Arm fen, a peatland in subarctic Labrador near Schefferville, Quebec, June through August, 1990 and 1991. Of the 476 tabanid larvae collected, 82.7% were Chrysops (5 spp.), 17.0% were Hybomitra (5 spp.), and 0.3% were Atylotus sphagnicola Teskey; the most abundant species in the fen were C, zinzalus Philip (31%), and C. nigripes Zetterstedt (24%). Species- and genera-specific microhabitat preferences were apparent; in general Chrysops spp. preferred drier regions of the fen than did Hybomitra spp. Larvae of C. zinzalus and C. nigripes appear to require 3-4 years to complete their larval development in subarctic regions, based upon their patterns of seasonal growth.
Adult horse flies and deer flies were collected using canopy and Malaise traps at two locations in the Schefferville area, Iron Arm fen and Capricorn fen, from late June until early August in 1990 and 1991. Seventeen tabanid species were collected, six Chrysops spp., 10 Hybomitra spp., one Atylotus sp.; Hybomitra spp. comprised 96% of collections. Adult abundance of different species varied markedly between the two study sites; in general Iron Arm fen had a more abundant and diverse tabanid fauna than Capricorn.
For each of 10 tabanid species, samples of 10 flies were taken from daily trap catches for dissection and determination of parity, yolk deposition, and fat body deposition. In the Schefferville area, H. arpadi and H. aequetincta are obligately anautogenous, H. lurida and H. zonalis are facultatively autogenous, and H. pechumani, H. hearlei, H. frontalis (Walker), H. astuta (Osten Sacken), C. zinzalus and C. nigripes are obligately autogenous. Based upon gonotrophic age-grading of nulliparous individuaIs, the majority of H. aequetincta and H. arpadi females emerge either at the beginning of the flight season, midway through the season, or both, depending upon year and site. Most H. zonalis emerge midway through the flight season. Nulliparous female tabanids of anautogenous or facultatively autogenous species usually carry considerable amounts of fat body within their abdomens.
The effect of meterological variables on tabanid daily activity was investigated using a canopy trap incorporating an electronic insect counter, a computerized data-logger, and sensors to measure air temperature, solar radiation, wind speed and direction, and relative humidity. (Abstract shortened by UMI.)
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Jandhyam, Haritha Lakshmi. "Molecular phylogenetic analysis of novel spiroplasma isolates." Click here to access thesis, 2009. http://www.georgiasouthern.edu/etd/archive/spring2009/haritha_l_jandhyam/jandhyam_haritha_l_200901_ms.pdf.

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Thesis (M.S.)--Georgia Southern University, 2009.
"A thesis submitted to the Graduate Faculty of Georgia Southern University in partial fulfillment of the requirements for the degree Master of Science." Directed by Laura B. Regassa. ETD. Includes bibliographical references (p. 64-69) and appendices.
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Lessard, Bryan. "The taxonomy, systematics and biogeography of the austral horse fly tribe scionini (Diptera : Tabanidae)." Phd thesis, 2013. http://hdl.handle.net/1885/156126.

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The Tabanidae are a large cosmopolitan family of medically and ecologically important Diptera. Adults of both sexes are important pollinators, and the females are known to mechanically transmit multiple disease agents while blood-feeding, affecting humans and animals. The tribe Scionini of the subfamily Pangoniinae consists of stoutly built and hairy-eyed flies predominantly austral in distribution, occurring in Australia, New Guinea, New Zealand and South America. The Scionini are divided into six recognised genera; Caenopangonia Krober, 1930, Fidena Walker, 1850, Goniops Aldrich, 1892, Pityocera Giglio-Tos, 1896, Scione Walker, 1850, and the widest distributed genus Scaptia Walker, 1850. Scaptia is further divided into seven subgenera; Lepmia Fairchild, 1969, Pseudomelpia Enderlein, 1922, Myioscaptia Mackerras, 1955, Palimmecomyia Taylor, 1917, Plinthina Walker, 1850, Scaptia Walker, 1850, and Pseudoscione Lutz, 1918. The taxonomy of the Scionini has not been revised in over 50 years. Consequently, new material has accumulated in museums corresponding to 18 new species of Scaptia (Plinthina) (5 spp.n.), Scaptia (Pseudoscione) (7 spp.n.), Scaptia (Scaptia) (1 sp.n.), Scaptia (Myioscaptia) (2 spp.n.), and the novel genus Anzomyia Lessard, gen.n. (3 spp.n.), all of which have been described and illustrated herein. Molecular data was employed to provide the first quantitative phylogenetic hypothesis for the Scionini, including the systematic placement of all the tribes in the Pangoniinae. An alignment of six molecular markers, including mitochondrial (COI and COII), ribosomal (28S) and nuclear (AATS, CAD regions 1, 3 and 4) genes, 5757 bp in total, was analysed for 176 taxa using Bayesian and maximum likelihood approaches. Results indicated the Scionini are strongly monophyletic, excluding Caenopangonia and Goniops, which were subsequently removed from the Scionini and reassigned to the Pangoniinae tribes Mycteromyiini and Goniopsinini, Lessard tribe.n., respectively. The South American genera Fidena, Pityocera and Scione were strongly monophyletic, corresponding to current morphology-based classification schemes. Interestingly, Scaptia recovered as broadly paraphyletic, which was corrected by formally raising several subgenera to genus level (Lepmia, Myioscaptia, Palimmecomyia, Plinthina, Pseudomelpia and Pseudoscione), resurrecting previously synonymised genera (Apocampta Schiner, 1867, Copidapha Enderlein, 1922, Parosca Enderlein, 1922, Osca Walker, 1850, and Triclista Enderlein, 1922) and establishing a novel genus from New Zealand (Aotearomyia Lessard, gen.n.). These molecular results were combined with morphological evidence to revise the taxonomy of the entire Scionini, including the redescription of all genera and subgenera, in addition to the development of a novel diagnostic key to all seventeen recognised genera. Divergence time estimates based on the molecular data and the fossil record placed global biogeographic radiations of the Pangoniinae in a temporal context. Results indicated that the Scionini are a typical Gondwanan group and are most likely Australian in origin. Furthermore, the diversification and current biogeography of the tribe appears to be influenced by the ancient fragmentation of Gondwana, involving a complex process of both vicariance and long distance dispersal. Future studies will benefit from more extensive sampling of the South American genera, in particular Fidena, Pityocera and Scione, which require further taxonomic revision and updating of the diagnostic keys to species.
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Sakolsky, Gabrielle Elizabeth. "The diurnal host-seeking and carbohydrate feeding pattern of Tabanus nigrovittatus (Macquart) and Tabanus conterminus (Walker)." 1994. https://scholarworks.umass.edu/theses/3063.

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Downer, Kelley E. "Physiological and behavioral factors affecting feeding and satiation in Tabanus nigrovittatus and Phormia regina." 2006. https://scholarworks.umass.edu/theses/3093.

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Books on the topic "Horseflies"

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Bryant, Bonnie. Horseflies. New York: Bantam Skylark, 1998.

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Bryant, Bonnie. Horseflies. New York: Bantam Skylark, 1998.

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Bryant, Bonnie. Horseflies. New York: Bantam Skylark, 1998.

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Zeegers, Theo. Dazen en dazenlarven: Inleiding tot en tabellen voor de Tabanidae (Diptera) van Nederland en België. [Utrecht]: KNNV Uitgeverij, 2000.

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1942-, Kapoor Vijay Chandra, ed. Taxonomy of Indian Tabanids: Diptera, Tabanidae. New Delhi, India: Atlantic Publishers & Distributors, 1991.

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Pechuman, L. L. The Horse flies and Deer flies of Maine (Diptera, Tabanidae). Orono, Me: Maine Agricultural and Forest Experiment Station, University of Maine, 1996.

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Canada. Agriculture Canada. The horseflies and deerflies of Canada and Alaska. Ottawa: Minister of Supply and Services Canada, 1990.

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Teskey, H. J. The horse flies and deer flies of Canada and Alaska: Diptera--Tabanidae. Ottawa: Research Branch, Agriculture Canada, 1990.

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Carlton, C. E. Horse and deer flies of Arkansas: (Insecta : Diptera : Tabanidae). Fayetteville, Ark: Arkansas Agricultural Experiment Station, 1995.

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Mally, M. Fam. Tabanidae. Wien: Osterreichischen Akademie der Wissenschaften, 1989.

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Book chapters on the topic "Horseflies"

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Burgess, N. R. H., and G. O. Cowan. "Horseflies." In A Colour Atlas of Medical Entomology, 49–53. Dordrecht: Springer Netherlands, 1993. http://dx.doi.org/10.1007/978-94-011-1548-3_6.

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"16. Horseflies and Deerflies." In What Bugged the Dinosaurs?, 131–34. Princeton: Princeton University Press, 2010. http://dx.doi.org/10.1515/9781400835690.131.

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Schorcht, Blanca. "Horseflies, Haireaters, and Bulldogs." In Storied Communities, 96–111. University of British Columbia Press, 2011. http://dx.doi.org/10.59962/9780774818810-007.

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"horseflesh ore." In Dictionary Geotechnical Engineering/Wörterbuch GeoTechnik, 690. Berlin, Heidelberg: Springer Berlin Heidelberg, 2014. http://dx.doi.org/10.1007/978-3-642-41714-6_81477.

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"horseflesh, n." In Oxford English Dictionary. 3rd ed. Oxford University Press, 2023. http://dx.doi.org/10.1093/oed/7286968999.

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Tolstoy, Leo. "15." In War and Peace. Oxford University Press, 2010. http://dx.doi.org/10.1093/owc/9780199232765.003.0327.

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The stories, the prisoners, and the marshal’s baggage-train, stopped at the village of Shamshevo. The men crowded together round the campfires. Pierre went up to the fire, ate some roast horseflesh, lay down with his back to the fire and immediately fell asleep. He...
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Whitman, Walt. "A Fine Afternoon, 4 to 6." In Specimen Days. Oxford University Press, 2023. http://dx.doi.org/10.1093/owc/9780198861386.003.0169.

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Ten thousand vehicles careering through the Park this perfect afternoon. Such a show! and I have seen all — watch’d it narrowly, and at my leisure. Private barouches, cabs and coupés, some fine horseflesh — lapdogs, footmen, fashions, foreigners, cockades on hats, crests on panels — the full oceanic tide...
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"11 In which the men of the Winter Express were reduced to eating horseflesh." In A Son of the Fur Trade, 26–27. University of Alberta Press, 2008. http://dx.doi.org/10.1515/9781772124132-016.

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Conference papers on the topic "Horseflies"

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Vasilevich, F. I., S. A. Shemyakova, and N. V. Esaulova. "VETERINARY AND MEDICAL SIGNIFICANCE OF HORSEFLY (TABANIDAE). REVIEW." In THEORY AND PRACTICE OF PARASITIC DISEASE CONTROL. All-Russian Scientific Research Institute for Fundamental and Applied Parasitology of Animals and Plant – a branch of the Federal State Budget Scientific Institution “Federal Scientific Centre VIEV”, 2023. http://dx.doi.org/10.31016/978-5-6048555-6-0.2023.24.133-137.

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The article provides information on the harmful effect of horseflies (Diptera, Tabanidae) as a midge component and a vector (carrier) transmitting pathogens of infectious and parasitic diseases including zoonosis. Horseflies are harmful to animals and humans in places of their abundance. Horseflies cause significant economic losses to livestock. With an intense attack of horseflies, individual areas of the skin of animals represent a continuous bleeding surface. Horsefly saliva inserted into a wound at the time of the bite is very toxic and allergenic causing a local inflammatory process and general intoxication of the body. The insects are of particular danger as vectors transmitting pathogens of animals and humans. The role of horseflies in the transmission of tularemia in natural foci of this infection has been proven. The sources of horsefly infection are primarily various small mammals including water rats. Horseflies are equally important as carriers of the anthrax pathogen. Causative agents of Coxiella burnetti infection, blackleg, pasteurellosis, and other infections have been isolated from horseflies. Horseflies are involved in the transmission of Trypanosoma evansi in horses and camels, anaplasmosis in cattle, Theileria cervi in reindeer, and equine infectious anemia virus.
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Belusic, Gregor, Marko Ilic, Andrej Meglis, and Martin F. Wehling. "Visual Guidance of Polarotactic Horseflies." In 2018 IEEE Research and Applications of Photonics In Defense Conference (RAPID). IEEE, 2018. http://dx.doi.org/10.1109/rapid.2018.8509001.

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Potapova, N. K., S. V. Aibulatov, and T. T. Vasjukova. "Horseflies (Diptera, Tabani-dae) of Central Yakutia." In XI Всероссийский диптерологический симпозиум (с международным участием). Санкт-Петербург: Русское энтомологическое общество, 2020. http://dx.doi.org/10.47640/978-5-00105-586-0_2020_202.

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Agasoi, V. V. "A spatial distribution of the larvae of horseflies (Diptera, Tabani-dae): research experience on the example of Pskov Province, Russia." In XI Всероссийский диптерологический симпозиум (с международным участием). Санкт-Петербург: Русское энтомологическое общество, 2020. http://dx.doi.org/10.47640/978-5-00105-586-0_2020_13.

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