Light and Scanning Electron Microscopy of Tetragomphius Procyonis (Ancylostomatoidea) from Wild Badger
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Proceedings of the Helminthological Society of Washington 51(2) 1984
Volume 51 July 1984 PROCEEDINGS ^ of of Washington '- f, V-i -: ;fx A semiannual journal of research devoted to Helminthohgy and all branches of Parasitology Supported in part by the -•>"""- v, H. Ransom Memorial 'Tryst Fund : CONTENTS -j<:'.:,! •</••• VV V,:'I,,--.. Y~v MEASURES, LENA N., AND Roy C. ANDERSON. Hybridization of Obeliscoides cuniculi r\ XGraybill, 1923) Graybill, ,1924 jand Obeliscoides,cuniculi multistriatus Measures and Anderson, 1983 .........:....... .., :....„......!"......... _ x. iXJ-v- 179 YATES, JON A., AND ROBERT C. LOWRIE, JR. Development of Yatesia hydrochoerus "•! (Nematoda: Filarioidea) to the Infective Stage in-Ixqdid Ticks r... 187 HUIZINGA, HARRY W., AND WILLARD O. GRANATH, JR. -Seasonal ^prevalence of. Chandlerellaquiscali (Onehocercidae: Filarioidea) in Braih, of the Common Grackle " '~. (Quiscdlus quisculd versicolor) '.'.. ;:,„..;.......„.;....• :..: „'.:„.'.J_^.4-~-~-~-<-.ii -, **-. 191 ^PLATT, THOMAS R. Evolution of the Elaphostrongylinae (Nematoda: Metastrongy- X. lojdfea: Protostrongylidae) Parasites of Cervids,(Mammalia) ...,., v.. 196 PLATT, THOMAS R., AND W. JM. SAMUEL. Modex of Entry of First-Stage Larvae ofr _^ ^ Parelaphostrongylus odocoilei^Nematoda: vMefastrongyloidea) into Four Species of Terrestrial Gastropods .....:;.. ....^:...... ./:... .; _.... ..,.....;. .-: 205 THRELFALL, WILLIAM, AND JUAN CARVAJAL. Heliconema pjammobatidus sp. n. (Nematoda: Physalbpteridae) from a Skate,> Psammobatis lima (Chondrichthyes: ; ''•• \^ Rajidae), Taken in Chile _... .„ ;,.....„.......„..,.......;. ,...^.J::...^..,....:.....~L.:....., -
Lecture 5: Emerging Parasitic Helminths Part 2: Tissue Nematodes
Readings-Nematodes • Ch. 11 (pp. 290, 291-93, 295 [box 11.1], 304 [box 11.2]) • Lecture 5: Emerging Parasitic Ch.14 (p. 375, 367 [table 14.1]) Helminths part 2: Tissue Nematodes Matt Tucker, M.S., MSPH [email protected] HSC4933 Emerging Infectious Diseases HSC4933. Emerging Infectious Diseases 2 Monsters Inside Me Learning Objectives • Toxocariasis, larva migrans (Toxocara canis, dog hookworm): • Understand how visceral larval migrans, cutaneous larval migrans, and ocular larval migrans can occur Background: • Know basic attributes of tissue nematodes and be able to distinguish http://animal.discovery.com/invertebrates/monsters-inside- these nematodes from each other and also from other types of me/toxocariasis-toxocara-roundworm/ nematodes • Understand life cycles of tissue nematodes, noting similarities and Videos: http://animal.discovery.com/videos/monsters-inside- significant difference me-toxocariasis.html • Know infective stages, various hosts involved in a particular cycle • Be familiar with diagnostic criteria, epidemiology, pathogenicity, http://animal.discovery.com/videos/monsters-inside-me- &treatment toxocara-parasite.html • Identify locations in world where certain parasites exist • Note drugs (always available) that are used to treat parasites • Describe factors of tissue nematodes that can make them emerging infectious diseases • Be familiar with Dracunculiasis and status of eradication HSC4933. Emerging Infectious Diseases 3 HSC4933. Emerging Infectious Diseases 4 Lecture 5: On the Menu Problems with other hookworms • Cutaneous larva migrans or Visceral Tissue Nematodes larva migrans • Hookworms of other animals • Cutaneous Larva Migrans frequently fail to penetrate the human dermis (and beyond). • Visceral Larva Migrans – Ancylostoma braziliense (most common- in Gulf Coast and tropics), • Gnathostoma spp. Ancylostoma caninum, Ancylostoma “creeping eruption” ceylanicum, • Trichinella spiralis • They migrate through the epidermis leaving typical tracks • Dracunculus medinensis • Eosinophilic enteritis-emerging problem in Australia HSC4933. -
ISSN: 2320-5407 Int. J. Adv. Res. 5(3), 972-999 REVIEW ARTICLE ……………………………………………………
ISSN: 2320-5407 Int. J. Adv. Res. 5(3), 972-999 Journal Homepage: - www.journalijar.com Article DOI: 10.21474/IJAR01/3597 DOI URL: http://dx.doi.org/10.21474/IJAR01/3597 REVIEW ARTICLE HAEMONCHUS CONTORTUS AND OVINE HOST: A RETROSPECTIVE REVIEW. *Saeed El-Ashram1,2, Ibrahim Al Nasr3,4, Rashid mehmood5,6, Min Hu7, Li He7, *Xun Suo1 1. National Animal Protozoa Laboratory, College of Veterinary Medicine, China Agricultural University, Beijing 100193, China. 2. Faculty of Science, Kafr El-Sheikh University, Kafr El-Sheikh, Egypt. 3. College of Science and Arts in Unaizah, Qassim University, Unaizah, Saudi Arabia. 4. College of Applied Health Sciences in Ar Rass, Qassim University, Ar Rass 51921, Saudi Arabia. 5. College of information science and technology, Beijing normal university, Beijing, china. 6. Department of Computer Science and Information Technology, University of Management Sciences and Information Technology, Kotli Azad Kashmir, 11100, Pakistan 7. State Key Laboratory of Agricultural Microbiology, Key Laboratory of Development of Veterinary Products, Ministry of Agriculture, College of Veterinary Medicine, Huazhong Agricultural University, Wuhan 430070, Hubei,China. …………………………………………………………………………………………………….... Manuscript Info Abstract ……………………. ……………………………………………………………… Manuscript History Gastrointestinal (GI) parasitic infections are a world-wide problem for Received: 05 January 2017 both small- and large-scale farmers. Infection by GI parasites in Final Accepted: 09 February 2017 ruminants, including sheep and goat can result in harsh economic losses Published: March 2017 in a variety of ways: reproductive inefficiency, decreased work capacity, involuntary culling, diminished food intake, poor animal growth rates and lower weight gains, treatment and management costs, Key words:- Gastrointestinal (GI) parasitic infections; and mortality in heavily parasitized animals. -
Opportunistic Mapping of Strongyloides Stercoralis and Hookworm in Dogs in Remote Australian Communities
pathogens Article Opportunistic Mapping of Strongyloides stercoralis and Hookworm in Dogs in Remote Australian Communities Meruyert Beknazarova 1,*, Harriet Whiley 1 , Rebecca Traub 2 and Kirstin Ross 1 1 Faculty of Science and Engineering, Flinders University, Bedford Park, SA 5042, Australia; harriet.whiley@flinders.edu.au (H.W.); kirstin.ross@flinders.edu.au (K.R.) 2 Faculty of Veterinary and Agricultural Sciences, University of Melbourne, Parkville, VIC 3052, Australia; [email protected] * Correspondence: meruyert.cooper@flinders.edu.au or [email protected] Received: 27 April 2020; Accepted: 19 May 2020; Published: 21 May 2020 Abstract: Both Strongyloides stercoralis and hookworms are common soil-transmitted helminths in remote Australian communities. In addition to infecting humans, S. stercoralis and some species of hookworms infect canids and therefore present both environmental and zoonotic sources of transmission to humans. Currently, there is limited information available on the prevalence of hookworms and S. stercoralis infections in dogs living in communities across the Northern Territory in Australia. In this study, 274 dog faecal samples and 11 faecal samples of unknown origin were collected from the environment and directly from animals across 27 remote communities in Northern and Central Australia. Samples were examined using real-time polymerase chain reaction (PCR) analysis for the presence of S. stercoralis and four hookworm species: Ancylostoma caninum, Ancylostoma ceylanicum, Ancylostoma braziliense and Uncinaria stenocephala. The prevalence of S. stercoralis in dogs was found to be 21.9% (60/274). A. caninum was the only hookworm detected in the dog samples, with a prevalence of 31.4% (86/274). This study provides an insight into the prevalence of S. -
Visceral and Cutaneous Larva Migrans PAUL C
Visceral and Cutaneous Larva Migrans PAUL C. BEAVER, Ph.D. AMONG ANIMALS in general there is a In the development of our concepts of larva II. wide variety of parasitic infections in migrans there have been four major steps. The which larval stages migrate through and some¬ first, of course, was the discovery by Kirby- times later reside in the tissues of the host with¬ Smith and his associates some 30 years ago of out developing into fully mature adults. When nematode larvae in the skin of patients with such parasites are found in human hosts, the creeping eruption in Jacksonville, Fla. (6). infection may be referred to as larva migrans This was followed immediately by experi¬ although definition of this term is becoming mental proof by numerous workers that the increasingly difficult. The organisms impli¬ larvae of A. braziliense readily penetrate the cated in infections of this type include certain human skin and produce severe, typical creep¬ species of arthropods, flatworms, and nema¬ ing eruption. todes, but more especially the nematodes. From a practical point of view these demon¬ As generally used, the term larva migrans strations were perhaps too conclusive in that refers particularly to the migration of dog and they encouraged the impression that A. brazil¬ cat hookworm larvae in the human skin (cu¬ iense was the only cause of creeping eruption, taneous larva migrans or creeping eruption) and detracted from equally conclusive demon¬ and the migration of dog and cat ascarids in strations that other species of nematode larvae the viscera (visceral larva migrans). In a still have the ability to produce similarly the pro¬ more restricted sense, the terms cutaneous larva gressive linear lesions characteristic of creep¬ migrans and visceral larva migrans are some¬ ing eruption. -
Hookworm-Related Cutaneous Larva Migrans
326 Hookworm-Related Cutaneous Larva Migrans Patrick Hochedez , MD , and Eric Caumes , MD Département des Maladies Infectieuses et Tropicales, Hôpital Pitié-Salpêtrière, Paris, France DOI: 10.1111/j.1708-8305.2007.00148.x Downloaded from https://academic.oup.com/jtm/article/14/5/326/1808671 by guest on 27 September 2021 utaneous larva migrans (CLM) is the most fre- Risk factors for developing HrCLM have specifi - Cquent travel-associated skin disease of tropical cally been investigated in one outbreak in Canadian origin. 1,2 This dermatosis fi rst described as CLM by tourists: less frequent use of protective footwear Lee in 1874 was later attributed to the subcutane- while walking on the beach was signifi cantly associ- ous migration of Ancylostoma larvae by White and ated with a higher risk of developing the disease, Dove in 1929. 3,4 Since then, this skin disease has also with a risk ratio of 4. Moreover, affected patients been called creeping eruption, creeping verminous were somewhat younger than unaffected travelers dermatitis, sand worm eruption, or plumber ’ s itch, (36.9 vs 41.2 yr, p = 0.014). There was no correla- which adds to the confusion. It has been suggested tion between the reported amount of time spent on to name this disease hookworm-related cutaneous the beach and the risk of developing CLM. Consid- larva migrans (HrCLM).5 ering animals in the neighborhood, 90% of the Although frequent, this tropical dermatosis is travelers in that study reported seeing cats on the not suffi ciently well known by Western physicians, beach and around the hotel area, and only 1.5% and this can delay diagnosis and effective treatment. -
Molecular Characterization of Β-Tubulin Isotype-1 Gene of Bunostomum Trigonocephalum
Int.J.Curr.Microbiol.App.Sci (2018) 7(7): 3351-3358 International Journal of Current Microbiology and Applied Sciences ISSN: 2319-7706 Volume 7 Number 07 (2018) Journal homepage: http://www.ijcmas.com Original Research Article https://doi.org/10.20546/ijcmas.2018.707.390 Molecular Characterization of β-Tubulin Isotype-1 Gene of Bunostomum trigonocephalum Ravi Kumar Khare1, A. Dixit3, G. Das4, A. Kumar1, K. Rinesh3, D.S. Khare4, D. Bhinsara1, Mohar Singh2, B.C. Parthasarathi2, P. Dipali2, M. Shakya5, J. Jayraw5, D. Chandra2 and M. Sankar1* 1Division of Temperate Animal Husbandry, ICAR- IVRI, Mukteswar, India 2IVRI, Izatnagar, India 3College of Veterinary Science and A.H., Rewa, India 4College of Veterinary Sciences and A.H., Jabalpur, India 5College of Veterinary Sciences and A.H., Mhow, India *Corresponding author ABSTRACT The mechanism of benzimidazoles resistance is linked to single nucleotide polymorphisms (SNPs) on beta -tubulin isotype-1 gene. The three known SNPs responsible for BZ K e yw or ds resistance are F200Y, F167Y and E198A on the beta-tubulin isotype-1. The present study was aimed to characterize beta-tubulin isotype-1 gene of Bunostomum trigonocephalum, Benzimidazole for identifying variations on possible mutation sites. The adult parasites were collected resistance, Beta from Mukteswar, Uttarakhand. The parasites were thoroughly examined morphologically tubulin, and male parasites were subjected for RNA isolation. Complementary DNA (cDNA) was Bunostomum synthesised from total RNA using OdT. The PCR was performed using cDNA and self trigonocephalum, Small ruminants designed degenerative primers. The purified PCR amplicons were cloned into pGEMT easy vector and custom sequenced. The obtained sequences were analysed using DNA Article Info STAR, MEGA7.0 and Gene tool software. -
The Mitochondrial Genome of the Soybean Cyst Nematode, Heterodera Glycines
565 The mitochondrial genome of the soybean cyst nematode, Heterodera glycines Tracey Gibson, Daniel Farrugia, Jeff Barrett, David J. Chitwood, Janet Rowe, Sergei Subbotin, and Mark Dowton Abstract: We sequenced the entire coding region of the mitochondrial genome of Heterodera glycines. The sequence ob- tained comprised 14.9 kb, with PCR evidence indicating that the entire genome comprised a single, circular molecule of ap- proximately 21–22 kb. The genome is the most T-rich nematode mitochondrial genome reported to date, with T representing over half of all nucleotides on the coding strand. The genome also contains the highest number of poly(T) tracts so far reported (to our knowledge), with 60 poly(T) tracts ≥ 12 Ts. All genes are transcribed from the same mitochon- drial strand. The organization of the mitochondrial genome of H. glycines shows a number of similarities compared with Ra- dopholus similis, but fewer similarities when compared with Meloidogyne javanica. Very few gene boundaries are shared with Globodera pallida or Globodera rostochiensis. Partial mitochondrial genome sequences were also obtained for Hetero- dera cardiolata (5.3 kb) and Punctodera chalcoensis (6.8 kb), and these had identical organizations compared with H. gly- cines. We found PCR evidence of a minicircular mitochondrial genome in P. chalcoensis, but at low levels and lacking a noncoding region. Such circularised genome fragments may be present at low levels in a range of nematodes, with multipar- tite mitochondrial genomes representing a shift to a condition in which these subgenomic circles predominate. Key words: mitochondrial, nematode, gene rearrangement, Punctodera, Punctoderinae, Heteroderidae, Heterodera cardio- lata. -
Protozoan Parasites
Welcome to “PARA-SITE: an interactive multimedia electronic resource dedicated to parasitology”, developed as an educational initiative of the ASP (Australian Society of Parasitology Inc.) and the ARC/NHMRC (Australian Research Council/National Health and Medical Research Council) Research Network for Parasitology. PARA-SITE was designed to provide basic information about parasites causing disease in animals and people. It covers information on: parasite morphology (fundamental to taxonomy); host range (species specificity); site of infection (tissue/organ tropism); parasite pathogenicity (disease potential); modes of transmission (spread of infections); differential diagnosis (detection of infections); and treatment and control (cure and prevention). This website uses the following devices to access information in an interactive multimedia format: PARA-SIGHT life-cycle diagrams and photographs illustrating: > developmental stages > host range > sites of infection > modes of transmission > clinical consequences PARA-CITE textual description presenting: > general overviews for each parasite assemblage > detailed summaries for specific parasite taxa > host-parasite checklists Developed by Professor Peter O’Donoghue, Artwork & design by Lynn Pryor School of Chemistry & Molecular Biosciences The School of Biological Sciences Published by: Faculty of Science, The University of Queensland, Brisbane 4072 Australia [July, 2010] ISBN 978-1-8649999-1-4 http://parasite.org.au/ 1 Foreword In developing this resource, we considered it essential that -
Canine Worm Educational Manual
ALL YOU EVER NEEDED TO KNOW ABOUT WORMS! By Dr. Jonathan Smith, VMD Identifying, Preventing & Treating the Most Common Parasites in Dogs & Cats General Themes: • Always wash your hands! • Always clean up poop immediately! • Sanitation and clean environments for puppies and kittens. • Follow treatment (de-worming) protocols and routine fecal testing. • Always wash your hands! Public Health Concerns: • Many of the common intestinal parasites of dogs and cats can easily be spread to people. Children are especially prone to acquiring these parasites because they tend to spend more time with their hands in their mouths. Many can cause gastrointestinal problems; others can migrate through the skin and organs of people. • It important to be aware of the possible human health implications of our pets, and always do as much as possible to prevent infestations of our animals and our environment. Prevention Treatment, and Control Guidelines: • Importance of guidance by veterinarians for diagnosis and treatment: o Puppies and kittens: § Deworming at 2, 4, 6, 8 weeks of age then placed on a monthly heartworm preventative § Fecal testing 2-4 times in the first year of life o Adult dogs and cats: § Monthly heartworm preventative § Fecal testing every 6-12 months. • Testing: o Fecal flotation: Feces is placed within a solution and either allowed to sit for a period of time or spun down via centrifuge. Eggs will float to the top and can be evaluated on a slide. Most intestinal parasites including hookworms, roundworms and coccidia are diagnosed this way. o Giardia is difficult to diagnose, and a direct smear for cysts or an ELISA test may be required. -
Zoonotic Nematodes of Wild Carnivores
Zurich Open Repository and Archive University of Zurich Main Library Strickhofstrasse 39 CH-8057 Zurich www.zora.uzh.ch Year: 2019 Zoonotic nematodes of wild carnivores Otranto, Domenico ; Deplazes, Peter Abstract: For a long time, wildlife carnivores have been disregarded for their potential in transmitting zoonotic nematodes. However, human activities and politics (e.g., fragmentation of the environment, land use, recycling in urban settings) have consistently favoured the encroachment of urban areas upon wild environments, ultimately causing alteration of many ecosystems with changes in the composition of the wild fauna and destruction of boundaries between domestic and wild environments. Therefore, the exchange of parasites from wild to domestic carnivores and vice versa have enhanced the public health relevance of wild carnivores and their potential impact in the epidemiology of many zoonotic parasitic diseases. The risk of transmission of zoonotic nematodes from wild carnivores to humans via food, water and soil (e.g., genera Ancylostoma, Baylisascaris, Capillaria, Uncinaria, Strongyloides, Toxocara, Trichinella) or arthropod vectors (e.g., genera Dirofilaria spp., Onchocerca spp., Thelazia spp.) and the emergence, re-emergence or the decreasing trend of selected infections is herein discussed. In addition, the reasons for limited scientific information about some parasites of zoonotic concern have been examined. A correct compromise between conservation of wild carnivores and risk of introduction and spreading of parasites of public health concern is discussed in order to adequately manage the risk of zoonotic nematodes of wild carnivores in line with the ’One Health’ approach. DOI: https://doi.org/10.1016/j.ijppaw.2018.12.011 Posted at the Zurich Open Repository and Archive, University of Zurich ZORA URL: https://doi.org/10.5167/uzh-175913 Journal Article Published Version The following work is licensed under a Creative Commons: Attribution-NonCommercial-NoDerivatives 4.0 International (CC BY-NC-ND 4.0) License. -
Helminths of Foxes and Coyotes in Florida
OF WASHINGTON, VOLUME 51, NUMBER 2, JULY 1984 365 stomach; a second whale contained three speci- We wish to correct an error that was made by mens encysted in the fundic stomach and duo- Forrester et al. (1980, op. cit.) a few years earlier. denum. The nematode, Anisakis typica, consti- Since our work and their work on pygmy killer tutes another new record for this host, though whales was conducted in the same laboratory, not unexpected because this parasite is common we had access to the material collected from their in cetaceans from warm and tropical waters study. Whereas they deposited a few specimens (Davey, 1971, J. Helminthol. 45:51-72). Speci- of Tetrabothrius forsteri from a male whale in mens of A. typica were found in the fore- and the U.S. National Parasite Collection, we dis- fundic stomach in all three whales. Intensities covered a jar containing the 2,328 specimens were similar, with 51, 145, and 166 worms col- from a female whale that also were identified as lected from each whale. Specimens of Trigono- T. forsteri. However, the latter specimens were cotyle sp. also were found in all three whales, and unlike the deposited specimens, but identical to they were the most abundant parasite (6,600, the Trigonocotyle sp. found in our study. Some 7,200, and 14,500 estimated total worms from of these specimens have been added to the USNM each whale via dilution count procedure). They Helminthological Collection (No. 77679). mostly were concentrated in the first 4 m of the We gratefully acknowledge Daniel K.