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UNITED STATES DEPARTMENT OF AGRICULTURE INDEX-CATALOGUE OF MEDICAL AND VETERINARY ZOOLOGY SUPPLEMENT 15 PARASITE-SUBJECT CATALOGUE SUBJECT HEADINGS TREATMENT THE UNIVERSITY OF TEXAS HEALTH SCIENCE CENTER SAN ANTONIO LIBRARY / UNITED STATES DEPARTMENT OF AGRICULTURE INDEX-CATALOGUE MEDICAL AND VETERINARY ZOOLOGY SUPPLEMENT 15 PARASITE-SUBJECT CATALOGUE ^SUBJECT HEADINGS TREATMENT By JUDITH M. HUMPHREY, Zoologist and DOROTHY B. SEGAL, Zoologist with the assistance of Mary I. Beard, Shirley J. Edwards, and Margie D. Kirby ANIMAL DISEASE AND PARASITE RESEARCH DIVISION AGRICULTURAL RESEARCH SERVICE Issued April 1966 U.S. GOVERNMENT PRINTING OFFICE WASHINGTON : 1966 For sale by the Superintendent of Documents, U.S. Government Printing Office, Washington, D.C., 20402 - Price 35 cents PREFACE A revision of the Author Catalogue of the Index-Catalogue of Medical and Veterinary Zoology, consisting of Parts 1-18, was published during the period 1932-1952. Beginning in 1953, a series of supplements designed to pub- lish the backlog was initiated. This was completed with Supplement 6, pub- lished in 1956 ; since then supplements covering authors A-Z have been issued on an annual basis. Beginning with the present supplement, the Parasite-Subject Catalogues, containing indices to the author references, will also be issued. The Author Catalogue continues the format of previous supplements. The users should note that for each reference in the Author Catalogue, the author(s) plus the date and letter (e.g., Smith, J. ; and Doe, X., 1963 b), are the key to all items in the Parasite-Subject Catalogues derived from that reference. In other words, when using the Parasite-Subject Catalogues, it will be necessary to consult the Author Catalogue for complete bibliographical information. The following are the sections of the Parasite-Subject Catalogues : Parasites (subdivided by taxonomic groups). Hosts. Subject Headings. Treatment. It is hoped that these Catalogues will serve as a useful tool to workers in the field of parasitology. ¿ ¡S — i '<5 fi >J i * EXPLANATORY NOTE Format. The entries are presented in two cation. When a common name is used, and there double columns. Names of parasites are given in is no ambiguity about which species is meant, the left half of each column, and the authors of there is a cross reference in the Host Catalogue publications with the dates and necessary code to the scientific name ; the host reference is found letters (e.g., Smith, J.; and Doe, X., 1936 b), are under the scientific name. given in the right half of each column. In refer- In the case of common host names in the Cyril- ences to systematic articles and new taxa, lists of lic alphabet languages, only the scientific host pages and illustrations follow the authors and names are supplied; these are in square brack- dates. ets. [ ] Alphabetization. In the left half of each col- Locations of parasites within hosts are given in umn, the entries are arranged alphabetically by parentheses ( ). Where a host-parasite relation- genera, parasitic diseases, and higher taxa, and ship is well known, a host may be given under a then alphabetically by species with genera. parasite name and not in the Host Catalogue ; this Entries under each heading are in turn arranged applies particularly to parasites of medical and in the right half of each column alphabetically by veterinary importance and of worldwide distribu- authors and then chronologically for each author. tion. Headings with numerous entries are separated (3) Synonymy. Only those synonyms which into alphabetized subdivisions, e.g. : the author indicates as new, or which are new to Ascaris lumbricoides. the files of the Index-Catalogue of Medical and Ascaris lumbricoides, Antitoxins. Veterinary Zoology, are given. Ascaris lumbricoides, Control. (4) Keys. The subheading "key" indicates Subheadings, left half of colv/mn. A variety of that the name is included in a taxonomic key. information is found indented beneath each entry : Subheadings, right half of column. Subhead- Classification, hosts, synonymy, keys, treatment, ings under the authors give geographic distribu- etc. In many cases, these subheadings are guides tion. When there are multiple hosts and geo- to the subject matter of the publication. graphic localities, the appropriate locality is re- (1) Classification. In entries based on sys- corded opposite each host name; when the hosts tematic articles, the subheadings may give the of a parasite are all from one locality, they are higher taxa in which genera have been placed, or recorded as "all from" this locality. they may list the subfamilies or genera included in a family. (2) Hosts. The only hosts recorded are those The compilers thank the staffs of the National that pertain directly to the authors' own work. Agricultural Library, the National Library of Scientific host names are used unless the author Medicine, and all other libraries who have aided gave only common names, in which cases the host us invaluably by making publications available to names are given exactly as in the original publi- us. 1 4 if) «V 4â 2 INDEX-CATALOGUE OF MEDICAL AND VETERINARY ZOOLOGY SUBJECT - HEADINGS Abortion Dymowska, Z.; Woyciechowska, Anemia Tötterman, G.; and Ahrenberg, toxoplasmosis in mares S.; Kozlowska, D.; and Wlodek, tapeworm, of aged P., I956 a Ζ. , 195^ a Aneurysm, Verminous Mosina, S. Κ., 1957 a Abortion Folkers, С., 1963 a caused by Delafondia vulgaris Toxoplasma gondii in sheep Antibodies. See Immunity, Antibodies. Abortion Smith, I. Б., I96I a Antigens. See Immunity, Antigens Toxoplasmosis, Ovine Appendicitis Ambrolic, F., i960 b Abortion Watson, W. A., 1963 a Enterobius vermiculares and Trichiuris trichiurae Toxoplasma gondii in sheep Appendicitis Ksenzov, D. G.; and Rabin, A. Abortion Watson, W. Α.; and Beverley, asearíasis G., 1961 a б Toxoplasmosis in sheep J. Κ. Α., 19 1 a Armenia Kalantarian, Ε. V., 1955 a Abortion Weinman, D., i960 с review of helminth work toxoplasmosis, human Armenia Matevosian, S. Η., 1955 a Africa Woldegiorgis, Α., 19б2 a human intestinal protozoa (Anaplasmosis; piroplasmosis; trypanosomiasis; helminthi- Armenia Sarkisian, Μ. A., 1955 с asis; liver fluke) protozoa, intestinal (Entamoeba histolytica; E. coli; Age of Host, Effect on Brunsdon, R. V., I962 b E. moschkowski; Iodamoeba biitschlii; Chilomastix mesnili) parasites Armies, Parasites Juin, G., [196З a] Age of host, Effect on Deo, P. G.; and Srivastava, Armies, Parasites Paes de Oliveira, P., I96I a parasites H. D., I962 a intestinal parasites Brasil Ascari dia galli Armies, parasites Wilber, C. G., 1959 a Age of host, Effect on Deo, P. G.; and Srivastava, trichinosis Arctic parasites H. D., 1962 a Gregory, T. S., 196I b, 38-75 Ascaridia galli in chickens Australia Age of host, Effect on Dudzinski, M. L.; and animal health Australia Parnell, I. W., 1963 a parasites Mykytowycz, R., I963 a sheep » Western Australia Trichostrongylus retortae- (Haemonchus contortus; Ostertagia spp.; Trichostrongylus formis on rabbits axei; T. spp.; Nematodirus spp.; Chabertia ovina.) Graphidium strigosum on Australia Rendel, J. M., I961 a rabbits (Boophilus microplus; Babesia argentina; В. bigemina; Age of host, Effect on Gibson, Т. E.; and Everett, Haemonchus contortus; Trichostrongylus colubriformis; parasites G., 1963 a T. spp.; T. axei; Oesophagostomum radiatum; Fasciola hep- Nematodirus battus ática; Hypoderma spp.; Óstertagia spp.; 0. venulosum; Age of host, Effect on Hoeppli, R. J. C.; and Chabertia ovina; Amblyomma triguttatum; Nematodirus spp.; parasites Gunders, Α. Ε., I962 a A. queenslandensis; A. ornatissimum; A. rosei; Linogna- Onchocerca volvulus,skin thus ovillus; Damalinia equi) changes Age of host, Effect on para- Kozar, Z., 19^8 f Australia Rendel, J. Μ., 1962.a (Boophilus microplus; Babesia argentina; В. bigemina; sites Gonderia mutans; Oesophagostomum radiatum; Haemonchus Ascaridia columbae in pigeons placei; Trichostrongylus colubriformis; Fasciola hepáti- Age of host, Effect on Krassner, S. Μ., I963 b ca; Nematospiroides dubies; Nematodirus spathiger; N. parasites filicollis; Trichostrongylus spp.; Ostertagia spp.; Tri- Eimeria acervulina chostrongylus axei; Ostertagia ostertagi; Gooperia spp.; Age of host, Effect on Moose, J. W., 1963 b Ixodes holocylus; Haemaphysalis bancrofti; H. ratti; H. parasitism novae-guineae; H. humerosa; H. bispinosa; H. bremneri; Schistosoma japonleum and snail vector H. lagostrophi; Ixodes myrmecobii; Amblyomma calabyi) Age of host, Effect on Morley-Smith, F.; and Gelfand, Australia Sainty, J. F., I96I a parasites Μ-, i960 a Toxoplasmosis, sheep Schistosoma haematobium Age of host, Effect on Vujic, В.; and Krdzalic, P., Australia, Queensland Dixon, K. E., 196З a parasites I962 a Fasciola hepatica Albumin Mulligan, W.; Dalton, R. G.; hypoalbuminaemia in and Anderson, N., 196З a Australia, Western Dunne, T. C., 196I a bovine ostertagiasis (lice; Eperythrozoon ovis; Eimeria zurnii; T. hydatigera; а coccidiosis; Haemonchus placei; Onchocerca gibsonii; Altitudes Schwank, T. Μ., 1963 Muellerius spp.; Chabertia.) survival of roundworms of cattle in Wyoming Anemia Foote, L. E.; Hansard, S. L.; Autoradiography. See Radiation. anaplasmosis and Parker, J., I962 a Anemia Foy, H.; and Nelson, G. S., Axenic culture. See Culture, Axenic etiology in tropics 19бЗ a ? helminths Bacteria Marmur, J.; Cahoon, M. E.; Anaemia, Human Heinivaara, 0.; and Kaipainen, Crithidia (Strigomonas) Shimura, Y.; and Vogel, H. J. bone marrow studies in W. J., i960 a oncopelti 1963 a tapeworm anaemia Anaemia, Human Kaipainen,
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  • Epidemiology, Diagnosis and Control of Poultry Parasites

    Epidemiology, Diagnosis and Control of Poultry Parasites

    FAO Animal Health Manual No. 4 EPIDEMIOLOGY, DIAGNOSIS AND CONTROL OF POULTRY PARASITES Anders Permin Section for Parasitology Institute of Veterinary Microbiology The Royal Veterinary and Agricultural University Copenhagen, Denmark Jorgen W. Hansen FAO Animal Production and Health Division FOOD AND AGRICULTURE ORGANIZATION OF THE UNITED NATIONS Rome, 1998 The designations employed and the presentation of material in this publication do not imply the expression of any opinion whatsoever on the part of the Food and Agriculture Organization of the United Nations concerning the legal status of any country, territory, city or area or of its authorities, or concerning the delimitation of its frontiers or boundaries. M-27 ISBN 92-5-104215-2 All rights reserved. No part of this publication may be reproduced, stored in a retrieval system, or transmitted in any form or by any means, electronic, mechanical, photocopying or otherwise, without the prior permission of the copyright owner. Applications for such permission, with a statement of the purpose and extent of the reproduction, should be addressed to the Director, Information Division, Food and Agriculture Organization of the United Nations, Viale delle Terme di Caracalla, 00100 Rome, Italy. C) FAO 1998 PREFACE Poultry products are one of the most important protein sources for man throughout the world and the poultry industry, particularly the commercial production systems have experienced a continuing growth during the last 20-30 years. The traditional extensive rural scavenging systems have not, however seen the same growth and are faced with serious management, nutritional and disease constraints. These include a number of parasites which are widely distributed in developing countries and contributing significantly to the low productivity of backyard flocks.
  • The Nuclear 18S Ribosomal Dnas of Avian Haemosporidian Parasites Josef Harl1, Tanja Himmel1, Gediminas Valkiūnas2 and Herbert Weissenböck1*

    The Nuclear 18S Ribosomal Dnas of Avian Haemosporidian Parasites Josef Harl1, Tanja Himmel1, Gediminas Valkiūnas2 and Herbert Weissenböck1*

    Harl et al. Malar J (2019) 18:305 https://doi.org/10.1186/s12936-019-2940-6 Malaria Journal RESEARCH Open Access The nuclear 18S ribosomal DNAs of avian haemosporidian parasites Josef Harl1, Tanja Himmel1, Gediminas Valkiūnas2 and Herbert Weissenböck1* Abstract Background: Plasmodium species feature only four to eight nuclear ribosomal units on diferent chromosomes, which are assumed to evolve independently according to a birth-and-death model, in which new variants origi- nate by duplication and others are deleted throughout time. Moreover, distinct ribosomal units were shown to be expressed during diferent developmental stages in the vertebrate and mosquito hosts. Here, the 18S rDNA sequences of 32 species of avian haemosporidian parasites are reported and compared to those of simian and rodent Plasmodium species. Methods: Almost the entire 18S rDNAs of avian haemosporidians belonging to the genera Plasmodium (7), Haemo- proteus (9), and Leucocytozoon (16) were obtained by PCR, molecular cloning, and sequencing ten clones each. Phy- logenetic trees were calculated and sequence patterns were analysed and compared to those of simian and rodent malaria species. A section of the mitochondrial CytB was also sequenced. Results: Sequence patterns in most avian Plasmodium species were similar to those in the mammalian parasites with most species featuring two distinct 18S rDNA sequence clusters. Distinct 18S variants were also found in Haemopro- teus tartakovskyi and the three Leucocytozoon species, whereas the other species featured sets of similar haplotypes. The 18S rDNA GC-contents of the Leucocytozoon toddi complex and the subgenus Parahaemoproteus were extremely high with 49.3% and 44.9%, respectively.
  • Simultaneous Determination of Some Antiprotozoal Drugs in Different

    Simultaneous Determination of Some Antiprotozoal Drugs in Different

    Abdelaleem and Abdelwahab Chemistry Central Journal 2012, 6:27 http://journal.chemistrycentral.com/content/6/1/27 RESEARCHARTICLE Open Access Simultaneous determination of some antiprotozoal drugs in different combined dosage forms by mean centering of ratio spectra and multivariate calibration with model updating methods Eglal A Abdelaleem and Nada S Abdelwahab* Abstract Background: Metronidazole (MET) and Diloxanide Furoate (DF), act as antiprotozoal drugs, in their ternary mixtures with Mebeverine HCl (MEH), an effective antispasmodic drug. This work concerns with the development and validation of two simple, specific and cost effective methods mainly for simultaneous determination of the proposed ternary mixture. In addition, the developed multivariate calibration model has been updated to determine Metronidazole benzoate (METB) in its binary mixture with DF in Dimetrol® suspension. Results: Method (I) is the mean centering of ratio spectra spectrophotometric method (MCR) that depends on using the mean centered ratio spectra in two successive steps that eliminates the derivative steps and therefore the signal to noise ratio is enhanced. The developed MCR method has been successfully applied for determination of MET, DF and MEH in different laboratory prepared mixtures and in tablets. Method (II) is the partial least square (PLS) multivariate calibration method that has been optimized for determination of MET, DF and MEH in Dimetrol ® tablets and by updating the developed model, it has been successfully used for prediction of binary mixtures of DF and Metronidazole Benzoate ester (METB) in Dimetrol ® suspension with good accuracy and precision without reconstruction of the calibration set. Conclusion: The developed methods have been validated; accuracy, precision and specificity were found to be within the acceptable limits.