The Systematic Position of the Inglisonematinae Mawson, 1968 (Nematoda)

Total Page:16

File Type:pdf, Size:1020Kb

The Systematic Position of the Inglisonematinae Mawson, 1968 (Nematoda) Proc. Helminthol. Soc. Wash. 51(1), 1984, pp. 69-72 The Systematic Position of the Inglisonematinae Mawson, 1968 (Nematoda) M. R. BAKER Department of Zoology, University of Guelph, Guelph, Ontario NIG 2W1, Canada ABSTRACT: New information concerning the female reproductive system, cephalic end, and esophagus supports the classification of the Inglisonematinae Mawson, 1968, in the Heterakoidea, rather than the Seuratoidea as originally proposed. Many primitive heterakoids (Heterakidae) possess a prominent vagina that is markedly elongated posteriorly and divided into distinct muscular and sac-like uterine portions. This arrangement does not occur in other Ascaridida, but it is observed in paratypes of Inglisonema mawsonae Schmidt and Kuntz, 1971 (Inglisonematinae). The esophagus and cephalic extremity of Inglisonematinae are morphologically similar to early fourth-stage larvae of Heterakidae (esophagus club-shaped and lacking valves, cephalic lips inconspic- uous). In contrast in late fourth-stage and adult Heterakidae esophageal valves and three distinct cephalic lips are present. It is hypothesized that the Inglisonematinae evolved by paedomorphosis from heterakoids, with Heterakis (Heterakinae) as a possible ancestral group. It is proposed that Inglisonematinae be classified as a family in the Superfamily Heterakoidea. The Subfamily Inglisonematinae Mawson, markedly close to the Family Heterakidae. They 1968 includes only three species in two genera: also considered these groups closely related since Madelinema angelae Schmidt and Kuntz, 1971; in the Inglisonematinae the "reduced lips, lack Inglisonema typos Mawson, 1968; /. mawsonae of interlabia and oesophageal teeth are reminis- Schmidt and Kuntz, 1971. These species form a cent of the Meteterakinae Inglis, 1958." This was clearly homogeneous group restricted to birds of considered sufficient grounds to place Ingliso- the Far East (Taiwan, Philippines) and Australia. nematinae in the Heterakoidea with family rank The classification of the group to superfamily has and distinguished from Heterakidae by esopha- been controversial because the caudal structures geal characters, and from Ascaridiidae by ce- of males are typical of the Heterakoidea (Schmidt phalic and male caudal characters. Although this and Kuntz, 1971), whereas the cephalic and correlation of cephalic structures between Ingli- esophageal morphology are typical of the Seu- sonematinae and Meteterakinae is not accepted ratoidea (Chabaud, 1978). (see below), the placement of the Inglisonema- Chabaud (1978) classified the Inglisonemati- tinae in the Heterakoidea is supported by new nae in the Family Schneidernematidae (Seuratoi- information concerning cephalic, esophageal, and dea) indicating that they represent a somewhat female reproductive structures. intermediate stage in the evolution of the Het- erakoidea from Cosmocercoidea ancestors. Material Examined However, other studies (i.e., Baker, 198la) sug- Paratype females of Inglisonema mawsonae (USNM gest that Heterakoidea most likely evolved di- Helm. Coll. No. 71750) were borrowed from the Na- rectly from the Cosmocercoidea without seura- tional Parasite Collection, U.S. Department of Agri- toid-like ancestors. In particular the presence of culture, Beltsville, Maryland 20705. esophageal valves in the more primitive heter- akoids (i.e., Heterakidae) and cosmocercoids, Results contrasted with their absence in seuratoids, is strong evidence that these three groups are not Female reproductive system related in the evolutionary sequence Cosmocer- Female reproductive structures have not been coidea-Seuratoidea-Heterakoidea. It is unlikely considered of systematic value for the Hetera- that forms bearing esophageal valves (Cosmo- koidea and related groups. However, many Het- cercoidea) gave rise to forms lacking these struc- erakoidea, including some of the most primitive tures (Seuratoidea) which in turn gave rise to representatives (Heterakidae), have evolved a forms bearing valves (Heterakoidea). morphologically unusual vagina that is unique Schmidt and Kuntz (1971) pointed out that for the Order Ascaridida and therefore may be the male caudal ends of Inglisonematinae are a character indicating heterakoid affinities. 69 Copyright © 2011, The Helminthological Society of Washington 70 PROCEEDINGS OF THE HELMINTHOLOGICAL SOCIETY Figure 1. Inglisonema mawsonae Schmidt and Kuntz, 1971. Vagina of paratype female, lateral view. Copyright © 2011, The Helminthological Society of Washington OF WASHINGTON, VOLUME 51, NUMBER 1, JANUARY 1984 71 Primitively, a short, muscular vagina gives rise brevicaudata and H. dispar develop only in the to two opposed uteri near midbody. This is char- late fourth larval stage after considerable growth acteristic of most Cosmocercoidea and several in body size. From these observations it is hy- species of Heterakis (Heterakinae). During evo- pothesized that the Inglisonematinae evolved lution of heterakoids there has been a tendency from the Heterakidae as a group that retained toward the marked elongation of the vagina, early fourth larval stage morphology of the an- which becomes directed posteriorly and divided terior end into the adult sexually mature stage into a muscular anterior portion and thin-walled (paedomorphosis). The following observations sac-like posterior portion. This uterine portion support this hypothesis. may or may not be divided into two thin tubes. (1) Bain (1970) has noted that during the fourth This arrangement is observed in several different larval stage of S1. brevicaudata the body grows species of Heterakidae, i.e., Heterakis bosia Lane, four times in size and there is an early devel- 1914, Odonterakis fariae (Travassos, 1913) opment of the genital organs. This precocity of (Heterakinae), Africana chabaudi Baker, 1981 development is apparently true for the superfam- (Spinicaudinae), and Meteterakis spp. (Meteter- ily as a whole (Bain, 1970), indicating a possible akinae) (see Lane, 1914; Travassos, 1945; Inglis, predisposition to paedomorphosis. 1958; Baker, 1981b). (2) Adult Inglisonematinae are relatively small. The female reproductive structures of Ingli- For example, Inglisonema typos, the largest sonematinae have not previously been de- known species, reaches a maximum size of 3.7 scribed. The vagina in a 2.8-mm-long gravid mm for males and 4.4 mm for females (Mawson, paratype female of /. mawsonae is 600 /urn in 1968). This may be compared to Heterakidae, length (Fig. 1). It is posteriorly directed from the which are generally well over 5.0 mm in length. vulva (located 1,100 /^m from anterior extrem- Thus, adult Inglisonematinae are comparable in ity), muscular in the anterior 370 /mi, and thin- size to fourth-stage Heterakidae. walled in the posterior 230 /mi- The uteri are If the Inglisonematinae indeed evolved by pae- opposed at their origin, with one ovary located domorphosis, then it may be expected that in near the anus, the other just posterior to the characters not affected by the paedomorphic de- esophagus. This therefore corresponds closely to velopment (i.e., sexual structures) a close resem- the elongated vagina of evolved heterakoids. blance may be found with the "parental" group. Thus, it is instructive to note the close resem- Cephalic and esophageal structures blance between Inglisonematinae and the genus The cephalic end and esophagus of the Ingli- Heterakis (Heterakinae). In particular, the full sonematinae have been well described (Mawson, array of male caudal characters (caudal alae, size 1968; Schmidt and Kuntz, 1971). The esophagus and arrangement of caudal papillae, location of is club-shaped, muscular, and lacking valves. The caudal sucker bearing a single papilla in its pos- mouth is triangular and three inconspicuous lips terior rim, morphology of the spicules) is re- lacking cuticular flanges are present. In contrast markably similar. Heterakis is a cosmopolitan the esophagus of all Heterakidae bear large valves genus that is also parasitic mainly in birds. and the mouth is bordered by three distinct lips It is quite possible that the Inglisonematinae each of which bears a cuticular flange. These dif- are a relatively recently evolved group since they ferences are of considerable systematic impor- occur in a restricted geographical range. The tance in the modern classification of the Order unique dispersive ability of birds has tended to Ascaridida (Chabaud, 1978). However, when the produce a wide distribution for most bird par- cephalic and esophageal morphology of the few asites. described fourth larval stage Heterakidae are The classification of Inglisonematinae in the compared to adult Inglisonematinae, a clear re- Heterakoidea is therefore supported. Although semblance emerges. Early fourth-stage Strongy- they are probably phylogenetically close to the luris brevicaudata Mueller, 1849 (Spinicaudinae) Heterakinae, it is proposed that they hold the and Heterakis dispar (Schrank, 1790) (^Heter- rank of family as suggested by Schmidt and Kuntz akis papillosa (Bloch, 1782)) (Heterakinae) have (1971). This is convenient from a diagnostic point club-shaped esophagi lacking valves and ce- of view as the Inglisonematidae can be distin- phalic ends closely resembling adult Inglisone- guished easily from all other Heterakoidea except matinae (Uribe, 1922; Bain, 1970). The esoph- Ascaridiidae by their lack of esophageal valves. ageal valves that are observed in adult S. It is distinguished from the Ascaridiidae by the Copyright © 2011, The Helminthological Society of Washington
Recommended publications
  • Gastrointestinal Helminths of Two Populations of Wild Pigeons
    Original Article Braz. J. Vet. Parasitol., Jaboticabal, v. 26, n. 4, p. 446-450, oct.-dec. 2017 ISSN 0103-846X (Print) / ISSN 1984-2961 (Electronic) Doi: http://dx.doi.org/10.1590/S1984-29612017071 Gastrointestinal helminths of two populations of wild pigeons (Columba livia) in Brazil Helmintos gastrointestinais de duas populações de pombos de vida livre (Columba livia) no Brasil Frederico Fontanelli Vaz1; Lidiane Aparecida Firmino da Silva2; Vivian Lindmayer Ferreira1; Reinaldo José da Silva2; Tânia Freitas Raso1* 1 Departamento de Patologia Veterinária, Faculdade de Medicina Veterinária e Zootecnia, Universidade de São Paulo – USP, São Paulo, SP, Brasil 2 Departamento de Parasitologia, Instituto de Biociências, Universidade Estadual Paulista – UNESP, Botucatu, SP, Brasil Received July 2, 2017 Accepted November 8, 2017 Abstract The present study analyzed gastrointestinal helminth communities in 265 wild pigeons Columba( livia) living in the municipalities of São Paulo and Tatuí, state of São Paulo, Brazil, over a one-year period. The birds were caught next to grain storage warehouses and were necropsied. A total of 790 parasites comprising one nematode species and one cestode genus were recovered from 110 pigeons, thus yielding an overall prevalence of 41.5%, mean intensity of infection of 7.2 ± 1.6 (range 1-144) and discrepancy index of 0.855. Only 15 pigeons (5.7%) presented mixed infection. The helminths isolated from the birds were Ascaridia columbae (Ascaridiidae) and Raillietina sp. (Davaineidae). The birds’ weights differed according to sex but this did not influence the intensity of infection. The overall prevalence and intensity of infection did not differ between the sexes, but the prevalence was higher among the birds from Tatuí (47.8%).
    [Show full text]
  • Review Article Nematodes of Birds of Armenia
    Annals of Parasitology 2020, 66(4), 447–455 Copyright© 2020 Polish Parasitological Society doi: 10.17420/ap6604.285 Review article Nematodes of birds of Armenia Sergey O. MOVSESYAN1,2, Egor A. VLASOV3, Manya A. NIKOGHOSIAN2, Rosa A. PETROSIAN2, Mamikon G. GHASABYAN2,4, Dmitry N. KUZNETSOV1,5 1Centre of Parasitology, A.N. Severtsov Institute of Ecology and Evolution RAS, Leninsky pr., 33, Moscow 119071, Russia 2Institute of Zoology, Scientific Center of Zoology and Hydroecology NAS RA, P. Sevak 7, Yerevan 0014, Armenia 3V.V. Alekhin Central-Chernozem State Nature Biosphere Reserve, Zapovednyi, Kursk district, Kursk region, 305528, Russia 4Armenian Society for the Protection of Birds (ASPB), G. Njdeh, 27/2, apt.10, Yerevan 0026, Armenia 5All-Russian Scientific Research Institute of Fundamental and Applied Parasitology of Animals and Plants - a branch of the Federal State Budget Scientific Institution “Federal Scientific Centre VIEV”, Bolshaya Cheremushkinskaya str., 28, Moscow 117218, Russia Corresponding Author: Dmitry N. KUZNETSOV; e-mail: [email protected] ABSTRACT. The review provides data on species composition of nematodes in 50 species of birds from Armenia (South of Lesser Caucasus). Most of the studied birds belong to Passeriformes and Charadriiformes orders. One of the studied species of birds (Larus armenicus) is an endemic. The taxonomy and host-specificity of nematodes reported in original papers are discussed with a regard to current knowledge about this point. In total, 52 nematode species parasitizing birds in Armenia are reported. Most of the reported species of nematodes are quite common in birds outside of Armenia. One species (Desmidocercella incognita from great cormorant) was first identified in Armenia.
    [Show full text]
  • Nematoda: Heterakidae) from the East Asian Islands( Dissertation 全文 )
    Study of speciation and species taxonomy of Meteterakis Title (Nematoda: Heterakidae) from the East Asian islands( Dissertation_全文 ) Author(s) Sata, Naoya Citation 京都大学 Issue Date 2019-03-25 URL https://doi.org/10.14989/doctor.k21604 Right Type Thesis or Dissertation Textversion ETD Kyoto University Study of speciation and species taxonomy of Meteterakis (Nematoda: Heterakidae) from the East Asian islands Naoya SATA Graduate School of Science Kyoto University March 2019 東アジア島嶼域産寄生性線虫 Meteterakis 属の種分化と種分類に関する研究 佐田 直也 和文要旨 Meteterakis 属は、爬虫両生類の消化管に寄生し、中間宿主を必要としない寄生 性線虫の分類群である。東アジア島嶼域からは 3 種が記載され、これらは、本州 から琉球列島中部において、異所的に分布していることが知られていた。これら 3 種は、複数のトカゲ類とカエル類を宿主としており、特に東アジア島嶼域にお いて洋上分散を経験したトカゲ属は、本線虫類の代表的な宿主と見なされてい る。本論文では、宿主域が広く、分散能の高い宿主を利用する、東アジア島嶼域 産 Meteterakis 属線虫の種多様性と種分化様式の解明に取組んだ。 東アジア島嶼域産 Meteterakis 属線虫の分布域解明のために、当該地域から、 主要宿主であるトカゲ属を採集し、解剖調査を行った。結果、M. japonica の東日 本と九州南部の下甑島からなる隔離分布、西日本における未同定種の分布を明 らかにした。さらに、琉球列島南部の石垣島と西表島、台湾北部から Meteterakis 属線虫を初めて記録し、いずれも未同定種であった。これらの分布は、側所的ま たは異所的であった。 次に、東アジア島嶼域産 Meteterakis 属線虫の進化史の推定のために、DNA 塩 基配列を用いた分子系統解析を行った。結果、東アジア島嶼域産 Meteterakis 属 線虫は、大きく 2 つの系統群(J-・A-グループ)に分かれた。これら 2 系統群の 分布は排他的、かつ、モザイク状であった。J-グループは、日本本土に産する M. japonica と沖縄諸島に産する M. ishikawanae から、A-グループは、奄美・小宝島 に産する M. amamiensis と、西日本産・石垣島産・西表島産・台湾北部産の 4 未 同定種により構成された。2 系統群の分布境界と宿主の動物地理学的境界は一致 せず、このことは、2 系統群の分化は、本地域における宿主相の分断に起因しな いことを示唆した。各系統群内の分岐パターンと宿主の動物地理学的境界を比 較した結果、J-グループ内の種分化は宿主相の分断に起因すると推測された。一 方、A-グループでは系統群内の遺伝的分化のパターンが、爬虫両生類相形成史か ら期待されるパターンと不一致であった。このことから A-グループの各種は、 宿主相の形成とは独立に、周辺地域から分散し、分化したと考えられた。また、 M. japonica の東日本と下甑島からなる隔離分布と、本土産種の集団遺伝学的解
    [Show full text]
  • Ahead of Print Online Version Phylogenetic Relationships of Some
    Ahead of print online version FOLIA PARASITOLOGICA 58[2]: 135–148, 2011 © Institute of Parasitology, Biology Centre ASCR ISSN 0015-5683 (print), ISSN 1803-6465 (online) http://www.paru.cas.cz/folia/ Phylogenetic relationships of some spirurine nematodes (Nematoda: Chromadorea: Rhabditida: Spirurina) parasitic in fishes inferred from SSU rRNA gene sequences Eva Černotíková1,2, Aleš Horák1 and František Moravec1 1 Institute of Parasitology, Biology Centre of the Academy of Sciences of the Czech Republic, Branišovská 31, 370 05 České Budějovice, Czech Republic; 2 Faculty of Science, University of South Bohemia, Branišovská 31, 370 05 České Budějovice, Czech Republic Abstract: Small subunit rRNA sequences were obtained from 38 representatives mainly of the nematode orders Spirurida (Camalla- nidae, Cystidicolidae, Daniconematidae, Philometridae, Physalopteridae, Rhabdochonidae, Skrjabillanidae) and, in part, Ascaridida (Anisakidae, Cucullanidae, Quimperiidae). The examined nematodes are predominantly parasites of fishes. Their analyses provided well-supported trees allowing the study of phylogenetic relationships among some spirurine nematodes. The present results support the placement of Cucullanidae at the base of the suborder Spirurina and, based on the position of the genus Philonema (subfamily Philoneminae) forming a sister group to Skrjabillanidae (thus Philoneminae should be elevated to Philonemidae), the paraphyly of the Philometridae. Comparison of a large number of sequences of representatives of the latter family supports the paraphyly of the genera Philometra, Philometroides and Dentiphilometra. The validity of the newly included genera Afrophilometra and Carangi- nema is not supported. These results indicate geographical isolation has not been the cause of speciation in this parasite group and no coevolution with fish hosts is apparent. On the contrary, the group of South-American species ofAlinema , Nilonema and Rumai is placed in an independent branch, thus markedly separated from other family members.
    [Show full text]
  • Revision of Gizzard and Intestinal Helminthes of Some Birds in Iraq
    Annals of R.S.C.B., ISSN:1583-6258, Vol. 25, Issue 7, 2021, Pages. 348 - 369 Received 05 May 2021; Accepted 01 June 2021. Revision of Gizzard and Intestinal Helminthes of Some Birds in Iraq Hind D. Hadi 1 Azhar A. Al-Moussawi2* 1,2Iraq Natural History Research Center and Museum, University of Baghdad, Baghdad, Iraq *Corresponding author e-mail: [email protected]; [email protected] ABSTRACT A revision of 47 references for the last ten years, from 2010 to 2020, concerning gizzard and intestinal helminthic parasites of some birds in Iraq, showed infections with trematodes, cestodes, nematodes and one acanthocephalan. Helminthic infections of birds were arranged in three tables according to bird order, in each table, bird orders arranged according to the number of infected bird species descending. Among the class Trematoda, the bird order with more infected members found each of Anseriformes and Charadriiformes found that 5 bird species infected with trematodes, followed by Gruiformes 2 bird species, then Passeriformes with 2 species and one bird species for each of Pelecaniformes and Phoenicopteriformes. In the class Cestoda, the bird order with more infected members found each of Anseriformes and Galliformes found that 5 bird species, followed by Passeriformes with 4 bird species, then Columbiformes with 3 species, each of Charadriiformes and Gruiformes with 2 species and one bird species for each of Phoenicopteriformes and Podicipediformes. Among the class Nematoda, the bird order with more infected members the Anseriformes found that 9 bird species infected, followed by Pelecaniformes with 7 infected birds, 4 bird species for each of Galliformes, Columbiformes and Passeriformes, then Charadriiformes only 3 bird species.
    [Show full text]
  • Mitochondrial Phylogenomics Yields Strongly
    www.nature.com/scientificreports OPEN Mitochondrial Phylogenomics yields Strongly Supported Hypotheses for Ascaridomorph Received: 14 September 2016 Accepted: 10 November 2016 Nematodes Published: 16 December 2016 Guo-Hua Liu1,2, Steven A. Nadler3, Shan-Shan Liu1, Magdalena Podolska4, Stefano D’Amelio5, Renfu Shao6, Robin B. Gasser7 & Xing-Quan Zhu1,2 Ascaridomorph nematodes threaten the health of humans and other animals worldwide. Despite their medical, veterinary and economic importance, the identification of species lineages and establishing their phylogenetic relationships have proved difficult in some cases. Many working hypotheses regarding the phylogeny of ascaridomorphs have been based on single-locus data, most typically nuclear ribosomal RNA. Such single-locus hypotheses lack independent corroboration, and for nuclear rRNA typically lack resolution for deep relationships. As an alternative approach, we analyzed the mitochondrial (mt) genomes of anisakids (~14 kb) from different fish hosts in multiple countries, in combination with those of other ascaridomorphs available in the GenBank database. The circular mt genomes range from 13,948-14,019 bp in size and encode 12 protein-coding genes, 2 ribosomal RNAs and 22 transfer RNA genes. Our analysis showed that the Pseudoterranova decipiens complex consists of at least six cryptic species. In contrast, the hypothesis that Contracaecum ogmorhini represents a complex of cryptic species is not supported by mt genome data. Our analysis recovered several fundamental and uncontroversial ascaridomorph clades, including the monophyly of superfamilies and families, except for Ascaridiidae, which was consistent with the results based on nuclear rRNA analysis. In conclusion, mt genome analysis provided new insights into the phylogeny and taxonomy of ascaridomorph nematodes.
    [Show full text]
  • Family: Ascaridiidae Ascaridia Galli
    Lect:2 Nematoda 3rd class Dr. Omaima I.M. Family: Ascaridiidae Ascaridia galli Ascaridia is a genus of parasitic roundworms belonging to the ascarids that infects chickens, turkeys, ducks, geese, grouse, quails, pheasants, guinea fowls and other domestic and wild birds. They occur worldwide and are very common in chicken. Main properties It is the largest nematode in birds. The body is semitransparent, creamy-white and cylindrical. The anterior end is characterized by a prominent mouth, which is surrounded by three large tri-lobed lips. The edges of the lips bear teeth-like denticles. The body is entirely covered with a thick proteinaceous structure called cuticle. and cuticular alae are poorly developed. Two conspicuous papillae are situated on the dorsal lip and one on each of the subventral lips. These papillae are the sensory organs of the nematode. A. galli is diecious with distinct sexual dimorphism. Females are considerably longer and more robust, with vulva opening at the middle portion (approximately midway from anterior and posterior ends) of the body and anus at the posterior end of the body. The tail end of females is characteristically blunt and straight. Males are relatively shorter and smaller, with a distinct pointed and curved tail.. There are also ten pairs of caudal papillae towards the tail region of the body, and they are arranged linearly in well-defined groups such as precloacal (3 pairs), cloacal (1 pair), post-cloacal (1 pair) and subterminal (3 pairs) papillae. Life Cycle 1- The life cycle of A.galli is direct, involving two principal populations; the sexually mature parasite in the gastrointestinal tract and the infective stage (L3) the in form of a resistant egg in the environment.
    [Show full text]
  • Zoonotic Helminths Affecting the Human Eye Domenico Otranto1* and Mark L Eberhard2
    Otranto and Eberhard Parasites & Vectors 2011, 4:41 http://www.parasitesandvectors.com/content/4/1/41 REVIEW Open Access Zoonotic helminths affecting the human eye Domenico Otranto1* and Mark L Eberhard2 Abstract Nowaday, zoonoses are an important cause of human parasitic diseases worldwide and a major threat to the socio-economic development, mainly in developing countries. Importantly, zoonotic helminths that affect human eyes (HIE) may cause blindness with severe socio-economic consequences to human communities. These infections include nematodes, cestodes and trematodes, which may be transmitted by vectors (dirofilariasis, onchocerciasis, thelaziasis), food consumption (sparganosis, trichinellosis) and those acquired indirectly from the environment (ascariasis, echinococcosis, fascioliasis). Adult and/or larval stages of HIE may localize into human ocular tissues externally (i.e., lachrymal glands, eyelids, conjunctival sacs) or into the ocular globe (i.e., intravitreous retina, anterior and or posterior chamber) causing symptoms due to the parasitic localization in the eyes or to the immune reaction they elicit in the host. Unfortunately, data on HIE are scant and mostly limited to case reports from different countries. The biology and epidemiology of the most frequently reported HIE are discussed as well as clinical description of the diseases, diagnostic considerations and video clips on their presentation and surgical treatment. Homines amplius oculis, quam auribus credunt Seneca Ep 6,5 Men believe their eyes more than their ears Background and developing countries. For example, eye disease Blindness and ocular diseases represent one of the most caused by river blindness (Onchocerca volvulus), affects traumatic events for human patients as they have the more than 17.7 million people inducing visual impair- potential to severely impair both their quality of life and ment and blindness elicited by microfilariae that migrate their psychological equilibrium.
    [Show full text]
  • Effects of Alcoholic Extract of Curcuma Longa on Ascaridia Infestation Affecting Chicken
    Indian Journal of Experimental Biology Vol. 53, July 2015, pp. 452-456 Effects of alcoholic extract of Curcuma longa on Ascaridia infestation affecting chicken Abdulrazak Labi Alrubaie* Department of Biological Resistance Technologies, Al-Musiab Technical College, PO Box 20, Babylon, Iraq Received 22 January 2014; revised 26 April 2014 Ascaridia galli, the common intestinal nematode, remains a major cause of economic loss in the poultry industry in developing countries. Treatments using chemicals are not only expensive but also affect host health. Plant extracts as better alternative is gaining significance. Here, we have studied the effects of alcoholic extract of turmeric, Curcuma longa L. (Zingiberaceae) roots, against A. galli infection in chicken. Different concentrations of C. longa root extract were tested in vitro on 5 groups of adults A. galli worms and in vivo on 6 groups of chicks. The results showed that the turmeric root extract @ 60 mg mL-1 in vitro significantly (P <0.001) proved paralytic and fatal against worms (16.80±1.28 h). In vivo, chicken groups (G2-G6) were infected with an average of 300±12 embryonated eggs of A. galli. The G2 was not given any treatment while G3 was treated with piperazine (@ 200 mg kg-1 body wt.); and Groups 4, 5 and 6 were given turmeric @ 200, 400 and 600 mg kg-1 body wt., respectively. The mean number of worms extracted at the end of the trial in G2 (untreated) was 18.10±2.42, while the G3 treated with piperazine had no worms. Groups 4 and 5 did not show any significant difference compared to G2.
    [Show full text]
  • Instituto De Biociências Programa De Pós-Graduação Em Biologia Animal Leonardo Tresoldi Gonçalves Dna Barcoding Em Nematoda
    INSTITUTO DE BIOCIÊNCIAS PROGRAMA DE PÓS-GRADUAÇÃO EM BIOLOGIA ANIMAL LEONARDO TRESOLDI GONÇALVES DNA BARCODING EM NEMATODA: UMA ANÁLISE EXPLORATÓRIA UTILIZANDO SEQUÊNCIAS DE cox1 DEPOSITADAS EM BANCOS DE DADOS PORTO ALEGRE 2019 LEONARDO TRESOLDI GONÇALVES DNA BARCODING EM NEMATODA: UMA ANÁLISE EXPLORATÓRIA UTILIZANDO SEQUÊNCIAS DE cox1 DEPOSITADAS EM BANCOS DE DADOS Dissertação apresentada ao Programa de Pós- Graduação em Biologia Animal, Instituto de Biociências da Universidade Federal do Rio Grande do Sul, como requisito parcial à obtenção do título de Mestre em Biologia Animal. Área de concentração: Biologia Comparada Orientadora: Prof.ª Dr.ª Cláudia Calegaro-Marques Coorientadora: Prof.ª Dr.ª Maríndia Deprá PORTO ALEGRE 2019 LEONARDO TRESOLDI GONÇALVES DNA BARCODING EM NEMATODA: UMA ANÁLISE EXPLORATÓRIA UTILIZANDO SEQUÊNCIAS DE cox1 DEPOSITADAS EM BANCOS DE DADOS Aprovada em ____ de _________________ de 2019. BANCA EXAMINADORA ____________________________________________________ Dr.ª Eliane Fraga da Silveira (ULBRA) ____________________________________________________ Dr. Filipe Michels Bianchi (UFRGS) ____________________________________________________ Dr.ª Juliana Cordeiro (UFPel) i AGRADECIMENTOS Agradeço a todos que, de uma forma ou de outra, estiveram comigo durante a trajetória deste mestrado. Este trabalho também é de vocês. Às minhas orientadoras, Cláudia Calegaro-Marques e Maríndia Deprá, por confiarem no meu trabalho, por fortalecerem minha autonomia, pelos conselhos e por todo o incentivo. Obrigado por aceitarem fazer parte desta jornada. À professora Suzana Amato, que ainda na minha graduação abriu as portas de seu laboratório e fez com que eu me interessasse pelos nematoides (e outros helmintos). Agradeço também pelas sugestões enquanto banca de acompanhamento deste mestrado. Ao Filipe Bianchi, por todo auxílio (principalmente na parte de bancada), pelas trocas de ideias sempre frutíferas e por aceitar fazer parte das bancas de acompanhamento e examinadora.
    [Show full text]
  • Parasites of Psittaciformes and Accipitriformes in Paraíba State, Northeastern Brazil
    Research Note Rev. Bras. Parasitol. Vet., Jaboticabal, v. 22, n. 2, p. 314-317, abr.-jun. 2013 ISSN 0103-846X (impresso) / ISSN 1984-2961 (eletrônico) Parasites of Psittaciformes and Accipitriformes in Paraíba state, northeastern Brazil Parasitas de Psittaciformes e Accipitriformes no estado da Paraíba, Brasil Cristiane Maria Fernandes de Melo1; Jaqueline Bianque Oliveira2; Thais Ferreira Feitosa1*; Vinícius Longo Ribeiro Vilela1; Ana Célia Rodrigues Athayde1; Antônio Flávio Medeiros Dantas1; Paulo Guilherme Carniel Wagner3; Andrei Brum Febrônio1 1Programa de Pós-graduação em Medicina Veterinária, Universidade Federal de Campina Grande –UFCG, Patos, PB, Brasil 2Laboratório de Parasitologia Animal, Departamento de Biologia, Universidade Federal Rural de Pernambuco – UFRPE, Recife, PE, Brasil 3Centro de Triagem de Animais Selvagens – CETAS, Instituto Brasileiro do Meio Ambiente e dos Recursos Naturais Renováveis – IBAMA, Cabedelo, PB, Brasil Received November 27, 2012 Accepted May 17, 2013 Abstract In this study, we investigated the presence of gastrointestinal helminths in 97 captive birds (Psittaciformes and Accipitriformes) necropsied between June and December 2011 in the state of Paraiba, Brazil. Forty-three birds were infected. Psittaciformes were infected by nematode Ascaridia hermaphrodita (97.6%) and cestode Raillietina sp. (2.4%). A. hermaphrodita was found in all species of parrots and Raillietina sp. was found only in Amazona aestiva. A. hermaphrodita was the cause of death, by intestinal obstruction, in 14 of the 40 birds investigated. Accipitriformes were infected by nematode Synhimantus (Synhimantus) rectus (100%) and acantocephalan Centrorhynchus tumidulus (50%). In Brazil, Diopsittaca nobilis and A. aestiva are reported for the first time as hosts of A. hermaphrodita and Raillietina sp., respectively. We concluded that Psittaciformes and Accipitriformes in captivity are affected by nematodes, cestodes and acanthocephalans and that implementation of control measures is essential.
    [Show full text]
  • The Complete Mitochondrial Genomes of Three Parasitic Nematodes of Birds
    Liu et al. BMC Genomics 2013, 14:414 http://www.biomedcentral.com/1471-2164/14/414 RESEARCH ARTICLE Open Access The complete mitochondrial genomes of three parasitic nematodes of birds: a unique gene order and insights into nematode phylogeny Guo-Hua Liu1,2†, Renfu Shao3*†, Jia-Yuan Li1, Dong-Hui Zhou1,HuLi4 and Xing-Quan Zhu1,2* Abstract Background: Analyses of mitochondrial (mt) genome sequences in recent years challenge the current working hypothesis of Nematoda phylogeny proposed from morphology, ecology and nuclear small subunit rRNA gene sequences, and raise the need to sequence additional mt genomes for a broad range of nematode lineages. Results: We sequenced the complete mt genomes of three Ascaridia species (family Ascaridiidae) that infest chickens, pigeons and parrots, respectively. These three Ascaridia species have an identical arrangement of mt genes to each other but differ substantially from other nematodes. Phylogenetic analyses of the mt genome sequences of the Ascaridia species, together with 62 other nematode species, support the monophylies of seven high-level taxa of the phylum Nematoda: 1) the subclass Dorylaimia; 2) the orders Rhabditida, Trichinellida and Mermithida; 3) the suborder Rhabditina; and 4) the infraorders Spiruromorpha and Oxyuridomorpha. Analyses of mt genome sequences, however, reject the monophylies of the suborders Spirurina and Tylenchina, and the infraorders Rhabditomorpha, Panagrolaimomorpha and Tylenchomorpha. Monophyly of the infraorder Ascaridomorpha varies depending on the methods of phylogenetic analysis. The Ascaridomorpha was more closely related to the infraorders Rhabditomorpha and Diplogasteromorpha (suborder Rhabditina) than they were to the other two infraorders of the Spirurina: Oxyuridorpha and Spiruromorpha. The closer relationship among Ascaridomorpha, Rhabditomorpha and Diplogasteromorpha was also supported by a shared common pattern of mitochondrial gene arrangement.
    [Show full text]