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Gastrointestinal helminths of opossums (Mammalia: Didelphidae) from Bolivia

Published online by Cambridge University Press:  29 April 2024

F. Agustín Jiménez*
Affiliation:
School of Biological Sciences, Zoology, Southern Illinois University, Carbondale, IL, USA
Mariel L. Campbell
Affiliation:
Museum of Southwestern Biology, 1 University of New Mexico, Albuquerque, NM, USA
Beth Byles
Affiliation:
School of Biological Sciences, Zoology, Southern Illinois University, Carbondale, IL, USA
Raymond Philip Scheibel
Affiliation:
School of Biological Sciences, Zoology, Southern Illinois University, Carbondale, IL, USA
Scott L. Gardner
Affiliation:
The Harold W. Manter Laboratory of Parasitology, University of Nebraska, Lincoln, NE, USA
*
Corresponding author: F. Agustín Jiménez; Email: [email protected]

Abstract

A total of 32 taxa of helminths were recovered from 52 individuals corresponding to 17 species of didelphiomorph marsupials collected across Bolivia. From these, 20 taxa are registered for the first time in this landlocked South American country, including the cestode Mathevotaenia bivittata, and the nematodes Moennigia sp., Travassostrongylus callis, Viannaia didelphis, V. hamata, V. metachirops, V. minispicula, V. philanderi, V. simplicispicula, V. skrjabini, V. viannai, Cruzia tentaculata, Monodelphoxyuris dollmeiri, Neohilgertia venusti, Pterygodermatites elegans, Pterygodermatites jeagerskioldi, Spirura guianensis, Gongylonemoides marsupialis, Turgida turgida and Trichuris reesali. We report for the first time parasites for Marmosops bishopi, Monodelphis emiliae, Monodeplhis glirina, Monodelphis sanctarosae, Monodelphis peruviana and Thylamys sponsorius and document 38 new records of parasites infecting marsupials. Twenty-six taxa of helminths infect 2 or more species of didelphiomorph marsupials, with the exception of Travassostrongylus callis, Viannaia didelphis, V. hamata, V. minispicula and V. hamate, which infected individuals of a single species.

Type
Research Article
Creative Commons
Creative Common License - CCCreative Common License - BY
This is an Open Access article, distributed under the terms of the Creative Commons Attribution licence (http://creativecommons.org/licenses/by/4.0/), which permits unrestricted re-use, distribution and reproduction, provided the original article is properly cited.
Copyright
Copyright © The Author(s), 2024. Published by Cambridge University Press

Introduction

Didelphimorphia (opossums) is the most diverse order of marsupials present in the New World with over 125 extant species (Gardner, Reference Gardner2007; Teta et al., Reference Teta, D'Elía, Flores and de la Sancha2009; Voss and Jansa, Reference Voss and Jansa2009; Gutiérrez et al., Reference Gutiérrez, Jansa and Voss2010; Rossi et al., Reference Rossi, Voss and Lunde2010; Jansa et al., Reference Jansa, Barker and Voss2014; Voss, Reference Voss and Knight2022). This group includes arboreal, terrestrial, semiaquatic and scansorial representatives (Astúa, Reference Astúa2009; Flores, Reference Flores2009; Voss and Jansa, Reference Voss and Jansa2009). Most of them occur in moderate densities in non-disturbed forests throughout the Neotropics (Lima et al., Reference Lima, Stenseth, Yoccoz and Jaksic2001; Gentile et al., Reference Gentile, Finotti, Rademaker and Cerqueira2004; Püttker et al., Reference Püttker, Meyer-Lucht and Sommer2008; Pires et al., Reference Pires, Martins, Silva and Reis2010). Several aspects of their ecology remain unknown, perhaps, because a large number of species is arboreal making their collection infrequent (Fontúrbel and Jiménez, Reference Fontúrbel and Jiménez2009; Caceres et al., Reference Caceres, Nápoli and Hannibal2011; José et al., Reference José, Macedo and Loss2019). The territory of Bolivia sits at the juncture of high-altitude desserts, mountainous, temperate, tropical forest and lowland savannah biomes. This results in a large diversity of mammals that includes 24% of the extant species of opossums (Anderson, Reference Anderson1997; Gutiérrez et al., Reference Gutiérrez, Jansa and Voss2010; Rossi et al., Reference Rossi, Voss and Lunde2010; Voss et al., Reference Voss, Pine and Solari2012). This diversity includes representatives of all 4 subfamilies and major clades in the Didelphidae Gray and species that inhabit humid and dry forests (Voss and Jansa, Reference Voss and Jansa2009; Jansa et al., Reference Jansa, Barker and Voss2014; Voss, Reference Voss and Knight2022).

From 1984 to 2000, the American Museum of Natural History (AMNH, New York City, USA), the Mammal Division of the Museum of Southwestern Biology (MSB:Mamm, University of New Mexico, Albuquerque New Mexico, USA), the Harold W. Manter Laboratory of Parasitology (HWML, University of Nebraska-Lincoln, Lincoln Nebraska, USA), and the Bolivian National Museum of Natural History in La Paz (Colección Nacional de Fauna Sección Mastozoología, CBF, La Paz, Bolivia) mounted joint US National Science Foundation funded collecting expeditions throughout Bolivia to survey and inventory sylvatic mammals and their parasites. A major part of the work on the mammals has been published by Anderson (Reference Anderson1997) and many groups of parasites that were collected from these mammals are still being studied in earnest. From most of the mammals that were collected by these expeditionary research teams in Bolivia, data on habitat, habits and biological associates were also collected and archived in museums. All of the parasites are on deposit in the HWML within the Bolivian Mammal Parasite Collection (BMPC). The BMPC includes all specimens of helminths and parasitic arthropods that were recovered from the more than 16 000 mammals collected and preserved in museums during the course of our work.

Species of helminths that occur in opossums can be grouped in families that include opossum dwelling species, such as Rhopaliidae (Radev et al., Reference Radev, Gardner, Kanev, Jones, Bray and Gibson2005; Haverkost and Gardner, Reference Haverkost and Gardner2008) or in families that include species occurring in distantly related groups of mammals, i.e. Aspidoderidae, Onchocercidae, Viannaidae (Brant and Gardner, Reference Brant and Gardner2000; Jiménez et al., Reference Jiménez, Gardner, Navone and Ortí2012; Scheibel et al., Reference Scheibel, Catzeflis and Jiménez2014). However, the establishment of their specificity or host range is difficult to assess without the existence of a database that relates the distribution of parasite species across several species of mammals. Herein, we present the recorded species of gastrointestinal helminths infecting opossums in Bolivia.

Materials and methods

All mammals were collected using Sherman™ live traps baited with a mixture of oatmeal, vanilla, tuna and sardines, or with snap traps baited with peanut butter. Traps were placed in suitable habitat each evening and checked at first daylight the following morning. Details of each mammal collected were recorded in a field-collection catalog book and in the trap data book, copies of which are maintained in the HWML, the originals are in the Department of Mammalogy, AMNH. Mammal voucher specimens are deposited in the AMNH, MSB:Mamm and CBF.

In the field, each organ of the digestive system was examined separately. Platyhelminths found were placed in distilled water until they relaxed and were killed and fixed in either 70% EtOH or hot or cold 10% formalin. Nematodes were either placed directly in 70% ethanol or killed with glacial acetic acid then transferred to either 70% ethanol or 10% formalin solution. Some samples were preserved in 95% ethanol or in liquid nitrogen and then stored in −85°C freezers in the Manter Laboratory Parasite Genomic Research Facility.

Digenetic trematodes, cestodes and acanthocephalans were stained in Semichon's acetocarmine, dehydrated in a graded series of ethanol, cleared in xylene and mounted in Canada balsam or Damar Gum. Nematodes were cleared in lactophenol and mounted on temporary slides. Vouchers for this study were deposited in the HWML. Specimens used for comparison were borrowed from the HWML and 7 additional institutions including:

  • CHIOC: Coleção Helmintológica do Instituto Oswaldo Cruz, Oswaldo Cruz Institute, Rio de Janeiro Brazil.

  • CHLP: Collection of Helminths of the Division of Invertebrates of the Museum of Natural History of the National University of La Plata.

  • CMNA: Canadian Museum of Nature Parasite Collection, Ottawa, Canada

  • CNHE: Colección Nacional de Helmintos of the National Autonomous University of Mexico, Mexico City.

  • CHIAUMSM: Colección de Helmintos e Invertebrados Afines, Museo de Historia Natural, Universidad Nacional Mayor de San Marcos, Lima.

  • UCDNC: University of California Davis Nematode Collection, University of California, Davis, USA.

  • USNPC: United States National Parasite Collection of the Smithsonian Institution. Washington D.C. U.S.A.

The list follows current systems of classification (Radev et al., Reference Radev, Gardner, Kanev, Jones, Bray and Gibson2005; Beveridge et al., Reference Beveridge, Spratt, Durette-Desset and Schmidt-Rhaesa2014; Mariaux et al., Reference Mariaux, Tkach, Vasileva, Waeschenbach, Beveridge, Dimitrova, Haukisalmi, Greiman, Littlewood, Makarikov, Phillips, Razafiarisolo, Widmer, Georgiev, Caira and Jensen2017; Hodda, Reference Hodda2022). The helminthological record for most of the marsupials examined is available at http://opensiuc.lib.siu.edu/zool_data/23/. The relation of voucher specimens, numbers and collections is presented below.

Results

A total of 32 taxa of helminths were recovered from 17 species of marsupials collected from 23 localities. The total includes 3 species of digenetic trematodes, 6 species of tapeworms, 22 species of nematodes, 2 of which remain unidentified and an acanthocephalan. The association of parasites and their didelphiomorph hosts is detailed in Tables 1–3. We present this association using the tribe of the mammals.

Table 1. Helminthological records in Bolivia for species of marsupials included in the tribe Thylamini

Collection number for a representative and prevalence are provided.

Table 2. Helminthological records in Bolivia for species of marsupials included in the tribe Marmosini

Monodelphis kunsi was infection free. Collection number for a representative and prevalence are provided.

Table 3. Helminthological records in Bolivia for species of marsupials included in the tribe Didelphini

Collection number for a representative and prevalence are provided.

Phylum Platyhelminthes Gegenbaur, 1859

Class Trematoda Rudolphi, 1808
Order Diplostomida Olson, Cribb, Tkach, Bray and Littlewood, 2003
Superfamily Echinostomoidea Looss, 1902
Family Rhopaliidae Looss, 1899
Rhopalias Stiles and Hassall, 1898
1. Rhopalias caballeroi Kifune and Uyema, 1982

Site of infection: Small intestine

Type host and locality: Didelphis marsupialis L., Huanuco, Peru

Other reported hosts: Chironectes minimus (Zimmermann), Didelphis sp., Philander opossum (L.), Lutreolina crassicaudata (Desmarest)

Locality records: Argentina: Buenos Aires, Berisso. Colombia: undetermined. Mexico: Veracruz: Los Tuxtlas. Panama: Panama Canal. Peru: Cusco: Pilcopata; San Martín: Bella Vista; Llamas. Venezuela: Aragua (Tantaleán and Chavez, Reference Tantaleán and Chavez2004; Haverkost and Gardner, Reference Haverkost and Gardner2008; Chero et al., Reference Chero, Sáez, Mendoza-Vidaurre, Iannacone and Cruces2017)

Records in Bolivia: Chironectes minimus: La Paz: La Reserva, 15°44′S, 67°31′W, 850 m, 22 July 1992, HWML70021 (274 specimens) from MSB:MAMM:68330. Didelphis marsupialis: Santa Cruz: San Rafael de Amboró, 17°21′S, 63°43′W, 400 m, 24 July 1985, HWML70025 (3 specimens) from MSB:MAMM:55833. Philander opossum: Santa Cruz: San Miguel del Rincón, 17°23′S, 63°32′W, 300 m; 13 August 1984, HWML70018 (3 specimens) from MSB:MAMM:55074; Estancia Cachuela Esperanza, 16°46′59.99″S, 63°13′59.99″W, 300 m, 22 August 1984, HWML70021 (18 specimens) from MSB:MAMM:210569.

Additional specimens examined: HWML70014 (1 specimen) from Lutreolina crassicaudata, Berisso, Buenos Aires, Argentina; CNHE 4081 (1 specimen) from Didelphis sp., Catemaco, Veracruz, Mexico; CNHE965 (1 specimen) from Didelphis marsupialis, Aragua, Venezuela.

2. Rhopalias coronatus (Rudolphi, 1819) Stiles and Hassall, 1898

Synonyms: Rhopalias dobbini Prod'Hon, 1968

Site of infection: Small intestine

Type host and locality: Didelphis marsupialis, Brazil.

Other reported hosts: Didelphis albiventris Lund, Didelphis pernigra (J.A. Allen), Lutreolina crassicaudata, Metachirus myosurus (Temminck) and Philander opossum.

Locality records: Argentina: Buenos Aires: Berisso. Brazil: Bahía: Igrapiúna; Minas Gerais: Belo Horizonte. Costa Rica: Cariai. Mexico: Chiapas: Motozintla; Oaxaca: Cuicatlán; Quintana Roo: La Ceiba; Veracruz: Alvarado and Los Tuxtlas. Panama: Canal Zone. Paraguay: undetermined. Peru: Ancash: Marca; Cajamarca: undetermined; Huánuco: undetermined; Pasco: Villa Rica; San Martin: Llamas. Venezuela: El Tacal (Siebert, Reference Siebert1970; Silva and Costa, Reference Silva and Costa1999; Haverkost and Gardner, Reference Haverkost and Gardner2008; Chero et al., Reference Chero, Sáez, Mendoza-Vidaurre, Iannacone and Cruces2017; Polo-Gonzales et al., Reference Polo-Gonzales, Sánchez and Pacheco2019; Cirino et al., Reference Cirino, Neto, Maldonado and Gentile2020).

Records in Bolivia: Philander opossum: Santa Cruz: Estancia Cachuela Esperanza, 16°47″, 63°14′, 300 m, 22 August 1984, HWML70000 (108 specimens) from MSB:MAMM:210569; 15 km S of Santa Cruz, 17°53′S, 63°07′W, 2 August 1987, HWML70002 (39 specimens), from AMNH263965; 3 km SE of Montero, 1 km N of Villa Copacabana, 17°23′S, 63°14′W, 250 m, 26 June 1991, HWML70009 (21 specimens), from AMNH263963.

Additional specimens examined: HWML34950 (1 specimen) from Didelphis albiventris, Paraguay. HWML70013 (1 specimen) from Lutreolina crassicaudata, Berisso, Buenos Aires, Argentina.

3. Rhopalias macracanthus Chandler, 1932

Synonyms: Rhopalias louisiana Hearin, 1937

Site of infection: Small intestine

Type host and locality: Didelphis virginiana Kerr, Houston, Texas

Other reported hosts: Didelphis marsupialis.

Locality Records: Costa Rica: Cariai. Mexico: Colima: Comala, La Esperanza. Chiapas: Jaltengo, Motozintla, and Pueblo Nuevo; Oaxaca: Temazcal; Quintana Roo: Rancho La Ceiba; Veracruz: Alvarado, and Los Tuxtlas. United States: Florida: Tallahasee; Illinois: Jackson Co.; Maryland: Beltsville; Texas: Houston (Siebert, Reference Siebert1970; Alden, Reference Alden1995; Haverkost and Gardner, Reference Haverkost and Gardner2008).

Records in Bolivia: Philander opossum: Santa Cruz: Santa Cruz, 16°28′12″S, 63°08′24″W, HWML70001 (1 specimen); 15 km S of Santa Cruz, 17°53′S, 63°07′W, 2 August 1987, HWML70003 (7 specimens), from AMNH263965 and 263966; 3 km SE of Montero, 1 km N of Villa Copacabana, 17°23′S, 63°14′W, 250 m, 26 June 1991, HWML70010, (3 specimens) from AMNH263963; 10 km N of San Ramón, 16°36′S, 62°42′W, 250 m, 7 August 1985, HWML70028 (1 specimen), from host MSB:MAMM:55857.

Additional specimens examined: USNPC8548 (1 specimen) from Didelphis marsupialis, Houston.

Remarks: Rhopalias macracanthus and R. coronatus cause co-infections in the Gray four-eyed opossum, Philander opossum. Haverkost and Gardner (Reference Haverkost and Gardner2008) reviewed species in the family across the continent, making observations and identifying reliable characters based on morphometric analyses.

Class Cestoda Rudolphi, 1808
Order Cyclophyllidea van Beneden in Braun, 1900
Family Anoplocephalidae Blanchard, 1891
Subfamily Linstowiinae Fuhrmann, 1907
Mathevotaenia Akhumyan, 1946
4. Mathevotaenia bivittata (Janicki, 1904) Yamaguti, 1959

Synonyms: Oochoristica bivittata Janicki, 1904; Linstowia (Opossumia) bivittata (Janicki, 1904) Spasskii, 1951; Opossumia bivittata Spasskii, 1981.

Site of infection: Small intestine

Type host and locality: Marmosa sp., Brazil.

Other reported hosts: Caluromys derbianus (Waterhouse), Didelphis albiventris, Didelphis marsupialis, Marmosa paraguayana Tate (as Micoreus cinereus), Marmosa murina (L.), Marmosa demerarae (Thomas), Metachirus nudicaudatus (É. Geoffreoy), Monodelphis domestica (Wagner), Philander opossum, and Thylamys sp.

Locality records: Argentina: Salta: Orán. Brazil: Pará: Belém, Bassuquara and Bacia de Agua Preta; Mato Grosso do Sul: Bodoquena; Espirito Santo: Santa Teresa; Rio de Janeiro: Angra dos Reis. Panama: Canal Zone. Trinidad and Tobago: Rio Claro, Sangre Grande. French Guiana: Cayenne, Nouragues, Saut Pararé and Saül, Pic Matecho (Foster, Reference Foster1939; dos Santos, Reference dos Santos1968; Campbell et al., Reference Campbell, Gardner and Navone2003; Byles et al., Reference Byles, Catzeflis, Scheibel and Jiménez2013).

Records in Bolivia: Thylamys sp.: Tarija: 3 km S of Cuyambuyo, 22°16′S, 64°33′W, 900 m, 3 and 4 August 1991, HWML118719 (207 specimens) from MSB:MAMM:240043.

Additional specimens examined: HWML 17712 from Marmosa cinerea (Temminck), Argentina, Salta, Orán. HWML 49769 from Marmosa murina French Guiana, Cayenne, Montagne du Tigre.

5. Mathevotaenia sanmartini Jiménez, Braun, Campbell and Gardner, Reference Jiménez, Braun, Campbell and Gardner2008

Site of infection: Small intestine

Type host and locality: Thylamys pallidior (Thomas), OMNH 34911, Argentina: Jujuy: Susques, 8.2 km south of Sey (by road), 24°00′48.8″S, 66°30′52.8″W, 4167 ± 10 m (31 March and 1 April 2006).

Locality and host records: No additional records available.

Records in Bolivia: Thylamys pallidior: Cochabamba: Curubamba, 7.5 km southeast of Rodeo (by road), 17°40′31″S, 65°36′04″W, 4000 m, 24 and 26 July 1993, HWML70016–19 (1 and 3 specimens) from MSB:MAMM:87100 and MSB:MAMM:87102.

Additional specimens examined: CHLP5727 (1 specimen) holotype from Thylamys pallidior, Argentina.

Remarks: Several of these specimens were reported in the original description of the species (Jiménez et al., Reference Jiménez, Braun, Campbell and Gardner2008).

6. Mathevotaenia sp.

Site of infection: Small intestine

Type host and locality: Not yet named.

Records in Bolivia: Marmosops bishopi (Pine): La Paz: La Reserva, 15°44′S, 67°31′W, 850 m, 27 July 1992, HWML118786 (1 specimen) from MSB:MAMM:235887. Marmosops noctivagus (Tschudi): Cochabamba: 9.5 km by road NE of Tablas Monte, Río Jatún Mayu; 17°2′S, 65°59′W, HWML49845 from MSB:MAMM:70278. Thylamys pusillus (Desmarest): Santa Cruz: 53 km E Boyuibe, 20°27′S, 62°50′W, 600 m, 6 July 1991, HWML 118788 (6 specimens) from MSB:MAMM:87105. Thylamys venustus: Tarija: Tapecua, 21°26′S, 63°55′W, 1500 m, 12 July 1991, HWML 118787 (2 specimens) from AMNH275439.

7. Paralinstowia schmidti (Gardner and Campbell, 1992) Beveridge and Spratt, 2003

Site of infection: Small intestine

Type host and locality: Thylamys elegans venusta (Thomas), Bolivia: Chuquisaca, El Porvenir 20°45′S, 63°13′W, 675 m, 6 July, 1985, symbiotype: AMNH261257.

Other reported hosts: Monodelphis domestica (Wagner)

Locality records: None available.

Records in Bolivia: Chuqisaca: El Porvenir, 20°27′W, 63°07′48″S, 675 m, 15 July 1985, UCDNC2831 (32 specimens) from host MSB:MAMM:211200.

Remarks: Both Monodelphis domestica and Thylamys elegans venusta -junior synonym of Thylamys venustus (Thomas)- were the only marsupials collected in El Porvenir. The species was not found in the other three localities were specimens of Monodelphis domestica were collected.

8. Pritchardia boliviensis Gardner, Jiménez and Campbell, Reference Gardner, Jiménez and Campbell2013

Site of infection: Small intestine

Type host and locality: Marmosops noctivagus: Cochabamba: 9.5 km by road NE of Tablas Monte, Río Jatun Mayu 17°02′29″S, 65°59′05″W, 1500 m, 14 July 1993, symbiotype MSB:MAMM:70278.

Other reported hosts: Marmosa paraguayana, Metachirus nudicaudatus, Gracilinanus sp., Marmosops ocellatus (Tate)

Locality records: Brazil: Paraná: between Corbélia and Cascavel. Paraguay: Alto Paraná: Estación Biológica Limoy (Gardner et al., Reference Gardner, Jiménez and Campbell2013; Benatti et al., Reference Benatti, Moraes, Pacheco, Machado, Oliveira, Perin, Andrietti, Cândido Júnior, Vogliotti, Tebaldi and Hoppe2023).

Records in Bolivia: Marmosa sp.: Santa Cruz: 53 km E of Boyuibe, 20°27′S, 62°50′W, 600 m, 8 July 1991, HWML118801 (139 specimens) from MSB:MAMM:239772. Marmosops noctivagus: Cochabamba: 9.5 km by road NE Tablas Monte, 17°02′S, 65°59″W, 14 and 16 July 1993, HWML118790 and HWML118791 (98 and 65 specimens) from MSB:MAMM:70278 and MSB:MAMM: 30279; La Paz: Chijchijpa, 16°09′S, 67°45′W, 1114 m, 8 July 1992, HWML61763 (19 specimens) from host MSB:MAMM:235553. Marmosops ocellatus: Santa Cruz: 3.5 km W, Estación El Pailón, 17°39′S, 62°45′W; 300 m, 21 September 1984, HWML118789 from MSB:MAMM:55070. Metachirus nudicaudatus: La Paz: La Reserva, 15°44′S, 67°31′W; 840 m. 24 July 1992, CNHE6422, CHIOC37318, USNPC103071, from CBF2310. Monodelphis domestica: Santa Cruz: 1 km S and 3 km W of Estancia Isibolos, 19°31′S, 63°36′W, 930 m, 5 July 1991, HWML118800 (52 specimens) from MSB:MAMM:239734. Philander opossum: Santa Cruz: 3 km SE Montero, 1 km N Villa Copacabana, 17°23′S, 63°14′W, 250 m, 26 June 1991, HWML118809 (1 specimen) from MSB:MAMM:239685.

Remarks: The holotype for this species was examined and used as a comparative reference.

9. Atriotaenia sp.

Site of infection: Small intestine

Records in Bolivia: Marmosops noctivagus: La Paz: La Reserva, 15°44′S, 67°31′W, 850 m, 24 July 1992, HWML118724 (4 specimens) from MSB:MAMM:235815. Thylamys venustus: Tarija: 3 km SE Cuyambuyo, 22°16′S, 64°33′W, 900 m, 4 August 1991, HWML118720 (2 specimens) from MSB:MAMM:140296. Thylamys sponsorius (Thomas): Tarija: 3 km SE Cuyambuyo, 22°16′S, 64°33′W, 900 m, 4 August 1991, HWML118760 (1 specimen) from MSB:MAMM:67014, HWML118784 (365 specimens from MSB:MAMM:67015).

Remarks: Most of the specimens were contracted, making it difficult to identify to species level.

Phylum Nematoda Cobb, 1932

Class Chromadoria Pearse, 1936
Order Rhabditida Chitwood, 1933
Superfamily Ancylostomatoidea Looss, 1905
Family Ancylostomatidae Looss, 1905
Subfamily Bunostominae Railliet and Henry, 1909
Monodontus Molin, 1860
10. Monodontus sp.

Site of infection: Small intestine

Records in Bolivia: Thylamys venustus: Tarija: 3 km SE Cuyambuyo, 22°16′S, 64°33′W, 900 m, 4 August 1991, HWML118720 (1 specimen) from MSB:MAMM:140296.

Remarks: This is a single mature female. Species of the genus are known to typically infect rodents.

Superfamily Molineoidea Skrjabin and Shulz, 1937
Family Molineidae Skrjabin and Shulz, 1937
Subfamily Anoplostrongylinae Chandler, 1938
Moennigia Travassos, 1935
11. Moennigia sp.

Site of infection: Small intestine

Records in Bolivia: Monodelphis domestica: Chuquisaca: Río Limón, 19°33′S, 64°08′W, 1300 m, 3 August 1990 HWML118764 (1 specimen) from MSB:MAMM:63278. Monodelphis glirina: Pando: Santa Rosa, 12°07′48″S, 68°14′24″W, 800 m, 1 August 1986, HWML118765 (11 specimens) AMNH M 262399. Marmosops noctivagus: Cochabamba: 9.5 km by road NE Tablas Monte, 17°02′S, 65°59″W, 14 and 15 July 1993, HWML118766 and HWML118767 (1 specimen each) from MSB:MAMM:70278 and MSB:MAMM:238453.

Remarks: These individuals belong to a single species which may be new to science. The senior author is attempting to work in the precise identification and description.

Superfamily Heligmosomoidea Cram, 1927
Family Viannaiidae Neveu-Lemaire, 1944
Subfamily Viannaiinae Neveu-Lemaire, 1944
Travassostrongylus Orloff, 1933
12. Travassostrongylus callis (Travassos, 1914) Orloff, 1933

Synonyms: Trichostrongylus callis Travassos 1914; Ostertagia callis (Travassos, 1914) Travassos 1918

Site of infection: Small intestine

Type host and locality: Didelphis aurita (Wied-Neuwied), Brazil: Rio de Janeiro: Manguinhos CHIOC 724.

Other reported hosts: Didelphis marsupialis, Philander opossum.

Locality records: Brazil: Espirito Santo: Sooretama; Rio de Janeiro: Petrópolis. French Guiana: undetermined. Panama: Panama City (Diaw, Reference Diaw1976a, Reference Diaw1976b; Scheibel et al., Reference Scheibel, Catzeflis and Jiménez2014).

Records in Bolivia: Chironectes minimus: La Paz: La Reserva, 15°44′S, 67°31′W, 850 m, 22 July 1992, HWML118721 (6 specimens) from MSB:MAMM:68330.

Additional specimens examined: From Didelphis aurita, Brazil: Rio de Janeiro: CHIOC 8426, 8584, 8589, 9608 Manguinhos; CHIOC 9118 Petrópolis; CHIOC 29504, 29505 Espirito Santo: Sooretama.

Viannaia Travassos, 1914
13. Viannaia didelphis (Travassos, 1914) Durette-Desset, 1968

Synonyms: Nematodirus (Mecistocirrus) didelphis Travassos, 1914

Site of infection: Small intestine

Type host and locality: Didelphis aurita, Brazil, Rio de Janeiro, Manguinhos CHIOC 942.

Other reported hosts: Didelphis marsupialis and Didelphis virginiana.

Locality records: Costa Rica: Guanacaste, Colonia Bolaños. Mexico: Colima: La Esperanza, Madrid. Panama: Panama City. United States: Georgia: Enigma, Bulloch Co.; Louisiana: Jeanerette; Illinois: Urbana, Jackson Co.; North Carolina: undetermined; Tennessee: Reelfoot Lake. Trinidad and Tobago: undetermined; Venezuela: Maracaibo (Guerrero, Reference Guerrero1985; Alden, Reference Alden1995; Monet-Mendoza et al., Reference Monet-Mendoza, Osorio-Sarabia and García-Prieto2005; Scheibel et al., Reference Scheibel, Catzeflis and Jiménez2014).

Records in Bolivia: Marmosa sp.: La Paz: Chijchijpa, 16°09′S, 67°45′W, 1114 m, 8 July 1992, HWML118722, HWML61763 from host MSB:MAMM:235553.

Remarks: Species in Viannaia have been reported in several species of marsupials across the Americas (Dikmans, Reference Dikmans1931; Cañeda-Guzmán, Reference Cañeda-Guzmán1997; Ellis et al., Reference Ellis, Pung and Richardson1999; Silva and Costa, Reference Silva and Costa1999; Gomes et al., Reference Gomes, Cruz, Vicente and Pinto2003; Antunes, Reference Antunes2005; Byles et al., Reference Byles, Catzeflis, Scheibel and Jiménez2013). A few studies suggest some infections are caused by multiple species (Diaw, Reference Diaw1976a; Guerrero, Reference Guerrero1985; Scheibel et al., Reference Scheibel, Catzeflis and Jiménez2014), thus, individual identification of these nematodes is recommended.

14. Viannaia hamata Travassos, 1914

Site of infection: Small intestine

Type host and locality: Didelphis aurita, Brazil, Rio de Janeiro, Manguinhos CHIOC 942

Other reported hosts: Didelphis albiventris, Didelphis marsupialis, Didelphis virginiana, Philander opossum, Marmosa cinerea, Marmosa murina.

Locality records: Brazil: Minas Geráis, Belo Horizonte; Pará: Belém; Río de Janeiro: Glicêrio, Petrópolis; Paraná: between Corbélia and Cascavel; Río Grande do Sul: Pelotas; Peru: Pasco: Villa Rica; San Martín: Bella Vista, Lamas. Trinidad and Tobago, undetermined; United States: Georgia, Macintosh Co., Bulloch Co.; North Carolina. Venezuela: Miranda, Guatopo (Wolfgang, Reference Wolfgang1951; Guerrero, Reference Guerrero1985; Ellis et al., Reference Ellis, Pung and Richardson1999; Silva and Costa, Reference Silva and Costa1999; Gomes et al., Reference Gomes, Cruz, Vicente and Pinto2003; Chero et al., Reference Chero, Sáez, Mendoza-Vidaurre, Iannacone and Cruces2017; Polo-Gonzales et al., Reference Polo-Gonzales, Sánchez and Pacheco2019; Benatti et al., Reference Benatti, Moraes, Pacheco, Machado, Oliveira, Perin, Andrietti, Cândido Júnior, Vogliotti, Tebaldi and Hoppe2023).

Records in Bolivia: Didelphis marsupialis: La Paz: La Reserva, 15°44′S, 67°31′W, 850 m, 22 July 1992, HWML118723 (2 specimens) from MSB:MAMM:235674.

Additional specimens examined: CHIOC 29289 and 29290 from Didelphis sp. Brazil, Rio de Janeiro, Usina da Tijuca.

15. Viannaia metachirops Durette-Desset, 1974

Site of infection: Small intestine

Type host and locality: Philander opossum, French Guiana

Other reported hosts: None available

Locality records: None available

Records in Bolivia: Marmosops noctivagus: La Paz: La Reserva, 15°44′S, 67°31′W, 850 m, 24 July 1992, HWML118724 (5 specimens) from MSB:MAMM:235815. Marmosa sp., La Paz: Chijchijpa, 16°09′S, 67°45′W, 1114 m, 8 July 1992, HWM118725 (3 specimens) from host MSB:MAMM:235553.

Additional specimens examined: None, identification made based on diagnostic traits.

16. Viannaia minispicula Guerrero, Reference Guerrero1985

Site of infection: Small intestine

Type host and locality: Marmosa murina, Venezuela: Amazonas, Caño Yaguá

Other reported hosts: Marmosa demerarae, Philander opossum

Locality records: French Guiana: Guyanne, Cacao.

Records in Bolivia: Marmosops noctivagus: Cochabamba: 9.5 km by road NE Tablas Monte, 17°02′S, 65°59″W, 15 July 1993, HWML118726 (1 specimen) from MSB:MAMM:238453.

Additional specimens examined: None, identification made based on diagnostic traits.

17. Viannaia philanderi (Wolfgang, Reference Wolfgang1951) Durette-Desset, 1968

Site of infection: Small intestine

Type host and locality: Caluromys philander, Trinidad.

Other reported hosts: None available

Locality records: None available

Records in Bolivia: Marmosa sp.: Santa Cruz: Estancia Cachuela Esperanza, 16°46′59.99″S, 63°13′59.99″W, 300 m, 24 August 1984, HWML118727 (3 specimens) from MSB:MAMM:211050. Thylamys venustus: Tarija: 3 km SE Cuyambuyo, 22°16′S, 64°33′W, 900 m, 4 August 1991, HWML118728 (13 specimens) from MSB:MAMM:140297.

Additional specimens examined: None, identification made based on diagnostic traits.

18. Viannaia simplicispicula (Navone, Suriano and Pujol, Reference Navone, Suriano and Pujol1991) Jiménez et al., 2024

Synonyms: Hoineffia simplicispicula Navone, Suriano and Pujol, Reference Navone, Suriano and Pujol1991

Site of infection: Small intestine

Type host and locality: Thylamys venustus cinderellus (Thomas 1902): Argentina: Tucumán: Quebrada Los Sosa, Museo Argentino Bernardino Rivadavia No. 360.

Other reported hosts: Tlacuatzin canescens (J.A. Allen).

Locality records: Argentina: Jujuy: Dr Manuel Belgrano, Las Capillas and El Palmar; Salta: Mosconi. Mexico: Oaxaca: Santa Catarina Juquila (Jiménez et al., Reference Jiménez, Braun, Campbell and Gardner2008; Guzmán-Cornejo et al., Reference Guzmán-Cornejo, Garciá-Prieto, Acosta-Gutiérrez, Falcón-Ordaz and León-Paniagua2012).

Records in Bolivia: Didelphis marsupialis: La Paz: La Reserva, 15°44′S, 67°31′W, 850 m, 22 July 1992, HWML118758 (1 specimen) from MSB:MAMM:235674. Thylamys sp.: Tarija: 3 km S of Cuyambuyo, 22°16′S, 64°33′W, 900 m, 4 August 1991, HWML118759 (18 specimens) from MSB:MAMM:240043. Thylamys sponsorius: Tarija: 3 km SE Cuyambuyo, 22°16′S, 64°33′W, 900 m, 4 August 1991, HWML118760 (1 specimen) from MSB:MAMM:67015. Thylamys venustus: Tarija: 3 km SE Cuyambuyo, 22°16′S, 64°33′W, 900 m, 4 August 1991, HWML118761 (18 specimens) from MSB:MAMM:140296, HWML118762 (10 specimens) from MSB:MAMM:140297; Tapecua, 21°26′S, 63°55′W, 1500 m, 12 July 1991, HWML118763 (4 specimens) from AMNH275439.

Remarks: Guerrero (Reference Guerrero1985) transferred Hoineffia cayennensis Diaw, 1976 to Viannaia. This recommendation was based on the observation that the transversally elongated bursa – diagnostic for Hoineffia Diaw, 1976 – also occurs in other species featuring a gubernaculum such as Viannaia venezuelensis Guerrero, Reference Guerrero1985 and Viannaia barusi Guerrero, Reference Guerrero1985. Furthermore, other species in the genus feature the combination of cordiform bursa and lack of gubernaculum, such as Viannaia viannai. The phenotypic plasticity of the bursa is shown in a subset of species of Viannaia collected across Mexico (Ramírez-Cañas et al., Reference Ramírez-Cañas, López-Caballero and Mata-López2021). Hoinneffia simplicispicula Navone, Suriano and Pujol, Reference Navone, Suriano and Pujol1991 was proposed as the second species in the genus; further, the species was recorded in in Mexico and in Argentina (Jiménez et al., Reference Jiménez, Braun, Campbell and Gardner2008; Guzmán-Cornejo et al., Reference Guzmán-Cornejo, Garciá-Prieto, Acosta-Gutiérrez, Falcón-Ordaz and León-Paniagua2012). Apparently, Navone et al. (Reference Navone, Suriano and Pujol1991) were not familiar with the change proposed by Guerrero (Reference Guerrero1985). We herein consider that the differences in the shape of the caudal bursa, the relative length of the dorsal lobe, dorsal ray and ray 8 are consistent with the intraspecific variability documented by Guerrero (Reference Guerrero1985). Further this variability is observed in specimens from Argentina, Bolivia and French Guiana. Rather than proposing an amended diagnosis, we refer readers to the diagnosis proposed by Dikmans (Reference Dikmans1945), who only missed the presence of three ventral ridges proposed by Durette-Desset (Reference Durette-Desset1971) in his definition of the genus.

Additional specimens examined: HWML63395 from Thylamys venustus, 24.8 km N of Santa Clara (by road), Jujuy, Argentina.

19. Viannaia skrjabini Lent and Freitas, 1937

Site of infection: Small intestine

Type host and locality: Philander opossum, Brazil: Río de Janeiro: Petrópolis. CHIOC 7721

Other reported hosts: Didelphis albiventris, Didelphis marsupialis and Marmosa robinsoni Bangs.

Locality records: Brazil: Pernambuco, Exu. Venezuela: Amazonas, Caño Yaguá; Miranda: Río Negro; Distrito Federal: Naiguatá (Guerrero, Reference Guerrero1985).

Records in Bolivia: Didelphis marsupialis: La Paz: La Reserva, 15°44′S, 67°31′W, 850 m, 22 July 1992, HWML118729 (from HWML61838) (3 specimens) from MSB:MAMM:235674.

Additional specimens examined: Holotype CHIOC7721, from Philander opossum, Brazil: Río de Janeiro, Petrópolis

20. Viannaia viannai Travassos, 1914

Site of infection: Small intestine

Type host and locality: Didelphis aurita, Brazil, Rio de Janeiro, Manguinhos CHIOC 922.

Other reported hosts: Didelphis marsupialis, Didelphis virginiana, Philander opossum.

Locality records: Brazil: Pernambuco: Exu; Rio de Janeiro: Morro São João, Casimiro de Abreu. Costa Rica: Guanacaste, Colonia Baños. French Guiana: Camp du Tigre. Mexico: Guerrero: Taxco El Viejo. Panama: Panama City. Peru: San Martín: Bella Vista. United States: Illinois, Carbondale; Maryland, Beltsville. Venezuela: Miranda: Caño Yagua, Río Negro and San Antonio (Guerrero, Reference Guerrero1985; Monet-Mendoza et al., Reference Monet-Mendoza, Osorio-Sarabia and García-Prieto2005; Scheibel et al., Reference Scheibel, Catzeflis and Jiménez2014; Chero et al., Reference Chero, Sáez, Mendoza-Vidaurre, Iannacone and Cruces2017).

Records in Bolivia: Didelphis marsupialis: La Paz: Chijchijpa, 16°09′S, 67°45′W, 1114 m, 6 July 1992, HWML118730 (1 specimen) from MSB:MAMM:235570; La Reserva, 15°44′S, 67°31′W, 850 m, 22 July 1992, HWML118731 (1 specimen) from MSB:MAMM:235674. Marmosa sp.: La Paz: Chijchijpa, 16°09′S, 67°45′W, 1114 m, 8 July 1992, HWML118732 (3 specimens) from host MSB:MAMM:235553; Santa Cruz: Estancia Cachuela Esperanza, 16°46′59.99″S, 63°13′59.99″W, 300 m, 24 August 1984, HWML118733 (7 specimens) from MSB:MAMM:211050. Marmosops noctivagus: Cochabamba: 9.5 km by road NE Tablas Monte, 17°02′S, 65°59″W, 14, 15 and 16 July 1993, HWML62620, HWML118734–36 (11, 13 and 10 specimens) from MSB:MAMM:70278, MSB:MAMM:238453 and MSB:MAMM:30279; La Paz: La Reserva, 15°44′S, 67°31′W, 850 m, 24 July 1992, HWML61852 (10 specimens) from MSB:MAMM:235815. Monodelphis peruviana: La Paz: La Reserva, 15°44′S, 67°31′W, 850 m, 25 July 1992, HWML118737 (3 specimens) from MSB:MAMM:68336. Thylamys sp.: Tarija: Tapecua, 21°26′S, 63°55′W, 1500 m, 1 June 1991, HWML118794 (5 specimens) from MSB:MAMM:238757.

Additional specimens examined: From Didelphis marsupialis, HWML67179–81, Panama City, Panama and Colonia Baños, Costa Rica. From Didelphis virginiana HWML61798 from Carbondale Illinois, U.S.A.

Order Spirurida Railliet, 1915
Suborder Ascaridina Inglis, 1983
Superfamily Heterakoidea Railliet and Henry, 1912
Family Aspidoderidae Skrjabin and Shikhobalova, 1947
Aspidodera Railliet and Henry, 1912
21. Aspidodera raillieti Travassos, 1913

Synonyms: Aspidodera harwoodi Chandler, 1932, Aspidodera vicentei Pinto, Kohn, Fernandes and Mello, 1981, Aspidodera diaz-ungriai Masí-Pallarés and Benítez-Uscher, 1971

Site of infection: Caecum and large intestine

Type host and locality: Didelphis aurita, Manguinhos, Brazil

Other reported hosts: Didelphis marsupialis, Didelphis virginiana, Didelphis pernigra, Gracilinanus agilis (Burmeister), Marmosa demerarae, Marmosa murina, Marmosops ocellatus, Metachirus nudicaudatus, Metachirus myosurus, Philander opossum, Sigmodontinae: Nectomys squamipes (Brants), Euoryzomys nitidus (Thomas).

Locality records: Brazil: Bahía: Igrapiúna; São Paulo, Piauí, Formosa. French Guiana: Montagne du Tigre, Nouragues, Saül, Petit Saut, Route de Kaw. Guatemala: Santa Rosa. Mexico: Motozintla; Panama: Panama Canal. Paraguay: Puerto Ibapobó. Suriname. Peru: La Libertad, Bosque del Cachil; San Martín: Bella Vista; Llamas. United States: Texas, Houston; Illinois, Jackson Co., Union Co., (Santos et al., Reference Santos, Lent and Gomes1990; Alden, Reference Alden1995; Jiménez-Ruiz et al., Reference Jiménez-Ruiz, Gardner, Noronha and Pinto2008; Chero et al., Reference Chero, Sáez, Mendoza-Vidaurre, Iannacone and Cruces2017; Polo-Gonzales et al., Reference Polo-Gonzales, Sánchez and Pacheco2019; Varella et al., Reference Varella, Vilela, Gentile, Cardoso, da Costa-Neto and Maldonado Júnior2022)

Records in Bolivia: Didelphis albiventris: Tarija: Tapecua, 21°26′S, 63°55′W, 1500 m, 14 July 1991, 1500 m, HWML118738 (36 specimens) from CBF2379. Didelphis marsupialis: La Paz: La Reserva, 15°44′S, 67°31′W, 850 m, 22 and 25 July 1992, HWML118810 (7 specimens) from MSB:MAMM:235674, HWML61882 (2 specimens) from MSB:MAMM:235838. Marmosops ocellatus: Santa Cruz: 15 km S of Santa Cruz, 17°53′S, 63°07′W, 2 August 1984, HWML118739 (2 specimens) from MSB:MAMM:58514. Monodelphis domestica: Chuquisaca: El Porvenir, 20°45′S, 63°13′W, 675 m, 7 July 1985, HWML60236 (1 specimen) from MSB:MAMM:55847. Monodelphis sanctarosae: Santa Cruz: Santa Rosa de la Roca, 15°30′00″S, 61°16′12″W, 250 m, 6 June 1990, HWML118802 (2 specimens) from MSB:MAMM:237023. Philander opossum: Santa Cruz: San Miguel Rincón, 17°22′59″S, 63°31′59″W, 300 m, 14 August 1984, HWML118740 (1 specimen) from MSB:MAMM:210528; 6 km by road W Ascención, 15°25′47″S, 63°53′59″W, 240 m, 13 August 1985, HWML118741 (6 specimens) from MSB:MAMM:211436.

Additional specimens examined: CHIOC12 (holotype) from Didelphis aurita, Rio de Janeiro Brazil.

CHIOC18356, CHIOC19115, from Didelphis azarae, Puerto Ibapobó, Paraguay. CHIOC4446 from Tolypeutes tricninctus (L.) Tanque, Brazil. CHIOC31879 from Nectomys squamipes Formosa, Goiás, Brazil. USNPC8550 from Didelphis virginiana, Houston, Texas, U.S. A.CMNA408 from Didelphis marsupialis, Saint Vincent, Trinidad, Trinidad and Tobago. CNHE2110 from Didelphis marsupialis, Motozintla, Mexico.

Superfamily Cosmocercoidea Railliet, 1916
Family Kathlaniidae Lane, 1914
Cruzia Travassos, 1917
22. Cruzia tentaculata (Rudolphi, 1819) Travassos, 1917

Synonyms: Ascaris tentaculata Rudolphi, 1819; Oxysoma tentaculata Schneider, 1866

Site of infection: Large intestine and caecum

Type host and locality: Didelphis marsupialis, Brazil

Other reported hosts: Didelphis albiventris, Didelphis aurita, Didelphis pernigra, Didelphis virginiana, Metachirus nudicaudatus, Metachirus myosurus, Philander opossum, Philander quica (Temminck).

Locality Records: Brazil: Bahía: Igrapiúna; Minas Gerais: Belo Horizonte, Conceição dos Ouros; Paraibá: Santa Rita; Paraná: Curitiba, Ponta Grossa; São Paulo: São Paulo; Rio Grande do Sul: Porto Alegre; Rio de Janeiro: Glicério, Barra de Marica, Casimiro de Abreu, Serra dos Orgãos, Sumidouro, Petrópolis; Santa Catarina: Santa Catarina Island; Sergipe: Capela, São Cristovão. Colombia: Valle del Cauca: Meléndez. Mexico: Chiapas; Colima; Distrito Federal; Estado de México; Hidalgo: Tasquillo; Guerrero; Jalisco; Morelos; Oaxaca; Veracruz; Yucatán. Peru: Ancash: Marca, Huanchoc; Loreto: Iquitos; Piura: valle del Huancabamba; San Martín: Bella Vista; Cajamarca: Cajamarca. United States: Louisiana, North Carolina, Pennsylvania, Tennessee, Texas, Wisconsin (Alden, Reference Alden1995; Silva and Costa, Reference Silva and Costa1999; Monet-Mendoza et al., Reference Monet-Mendoza, Osorio-Sarabia and García-Prieto2005; Chero et al., Reference Chero, Sáez, Mendoza-Vidaurre, Iannacone and Cruces2017; Polo-Gonzales et al., Reference Polo-Gonzales, Sánchez and Pacheco2019; Cirino et al., Reference Cirino, Neto, Maldonado and Gentile2020).

Records in Bolivia: Didelphis albiventris: Tarija: Tapecua, 21°06′S, 63°55′W, 1500 m, 14 July 1991, HWML 118741 (39 specimens) from MSB:MAMM:239823; La Paz: Saynami Rio Zongo, 16°07′39″S, 68°05′59″W, 4 June 1993, HWML118742 (153 specimens) from MSB:MAMM:236299. Didelphis pernigra: La Paz: Yanacachi, Valle Aceromarka 16°19′35″S, 67°53′21″W, 3085 (Mollericona and Nallar, Reference Mollericona and Nallar2014). Philander opossum: Santa Cruz: 6 km by road W Ascención, 15°25′47″S, 63°53′59″W, 240 m, 13 August 1985, HWML118743 (99 specimens) from MSB:MAMM:211436.

Remarks: The species has an almost continental distribution and it is known to occur in armadillos and opossums (Ruiz, Reference Ruiz1947; Fujita et al., Reference Fujita, Abe, Oku, Sanabria, Inchaustti and Kamiya1995; Adnet et al., Reference Adnet, Anjos, Menezes-Oliveira and Lanfredi2009; Souza et al., Reference Souza, Vilela, Gentile, Lopes-Torres, Cordeiro-Estrela, Moratelli, da Costa-Neto, Cardoso, Varella and Maldonado Júnior2022). The material of this species across its putative range needs to be reviewed.

Suborder Spirurina Railliet and Henry, 1915
Superfamily Rictularioidea Hall, 1913
Family Rictulariidae Hall, 1913
Pterygodermatites Wedl, 1861
23. Pterygodermatites (Paucipectines) elegans (Travassos, 1928) Quentin, 1969

Synonyms: Rictularia elegans Travassos, 1928

Site of infection: Small intestine

Type host and locality: Eumops perotis (Schinz): Engenheiro Gomide, São Paulo, Brazil.

Other reported hosts: Marmosa cinerea, Marmosa demerarae.

Locality Records: Brazil: Cafezal, Belém. French Guiana: Macouria, Montagne du Tigre, Pic Matecho, Saül (Byles et al., Reference Byles, Catzeflis, Scheibel and Jiménez2013).

Records in Bolivia: Marmosa sp.: Santa Cruz: Estancia Cachuela Esperanza, 16°46′59.99″S, 63°13′59.99″W, 300 m, 24 August 1984, HWML60078 (15 specimens) from MSB:MAMM:211050; La Paz: Chijchijpa: 16°09′S, 67°45′W, 1114 m, 8 July 1992, HWML118744 (1 specimen) from host MSB:MAMM:235553. Marmosops bishopi: La Paz: La Reserva, 15°44′S, 67°31′W, 850 m, 27 July 1992, HWML118745 (1 specimens) from MSB:MAMM:235887.

Additional specimens examined: HWML67202 from Marmosa demerarae, Montagne du Tigre, Cayenne, French Guiana.

24. Pterygodermatites (Paucipectines) jaegerskioldi (Lent and Freitas, Reference Lent and Freitas1935) Quentin, 1969

Site of infection: Small intestine

Type host and locality: Caluromys philander (L.), Rio de Janeiro, Tijuca, Brazil.

Other reported hosts: Gracilinanus agilis, Gracilinanus microtarsus (Wagner).

Locality records: Brazil: Mato Grosso do Sul, Nhecolândia; Rio de Janeiro: Parque Nacional da Serra dos Orgãos (Lent and Freitas, Reference Lent and Freitas1935; Torres et al., Reference Torres, Maldonado and Lanfredi2007, Reference Torres, Maldonado and Lanfredi2009).

Records in Bolivia: Monodelphis domestica: Santa Cruz: 27 km S of Santa Cruz, 3 km E and 1 km S Brecha Tres, 18°01′59″S, 63°10′01″W, 20 June 1992, HWML118746 (1 specimen) from MSB:MAMM:67022; 1 km S and 3 km W of Estancia Isibolos, 19°31′S, 63°36′, 930 m, 5 July 1991, HWML118747 (5 specimens) from MSB:MAMM:239734.

Superfamily Spiruroidea Oerley, 1885
Family Spiruridae Oerley, 1885
Spirura Blanchard, 1849
25. Spirura guianensis (Ortlepp, 1924) Chitwood, 1938

Site of infection: Stomach

Type host and locality: Monki monki (Scientific name not disclosed), Suriname.

Other reported hosts: Didelphis marsupialis, Gracilinanus agilis, Marmosa cinerea, Marmosa demerarae, Marmosa murina, Metachirops opossum, Philander opossum, Saguinus geoffroyi (Pucheran), Saguinus nigricollis (Spix), and Tamarinus nigricollis (Spix)

Locality Records: French Guiana: Montagne du Tigre. Brazil: Rio de Janeiro, Itaguaí; Mato Grosso do Sul, Nhecolândia. Panama: Panama Canal (Torres et al., Reference Torres, Maldonado and Lanfredi2009; Byles et al., Reference Byles, Catzeflis, Scheibel and Jiménez2013).

Records in Bolivia: Chironectes minimus: La Paz: La Reserva, 15°44′S, 67°31′W, 850 m, 22 July 1992, HWML118748 (34 specimens) from MSB:MAMM:68330. Monodelphis domestica: Chuqisaca: El Porvenir, 20°27′W, 63°07′48″S, 675 m, 15 July 1985, HWML 118756 (1 specimen) from host MSB:MAMM:211199

Family Gongylonematidae Hall, 1916
Gongylonemoides Lent and Freitas, 1937
26. Gongylonemoides marsupialis (Vaz and Pereira, 1934) Freitas and Lent, 1937

Synonym: Gongylonema marsupialis Vaz and Pereira, 1934

Site of infection: Esophagus

Type host and locality: Didelphis aurita, São Paulo, Brazil

Other reported hosts: Didelphis aurita, Metachirops opossum.

Locality Records: Brazil: Rio de Janeiro; São Paulo: undetermined. Peru: San Martín: Llamas (Gomes et al., Reference Gomes, Cruz, Vicente and Pinto2003; Chero et al., Reference Chero, Sáez, Mendoza-Vidaurre, Iannacone and Cruces2017).

Records in Bolivia: Marmosa sp.: La Paz: Chijchijpa, 16°09′S, 67°45′W, 1114 m, 8 July 1992, HWML118749 (55 specimens) from host MSB:MAMM:235553; Thylamys venustus: Tarija: 3 km SE Cuyambuyo, 22°16′S, 64°33′W, 900 m, 4 August 1991, HWML118750 (3 specimens) from MSB:MAMM:140296.

Superfamily Physalopteroidea Railliet, 1893
Family Physalopteridae Railliet, 1893
Turgida Travassos, 1920
27. Turgida turgida (Rudolphi, 1819) Travassos, 1919

Synonyms: Physaloptera turgida Rudolphi, 1819; Spiroptera turgida Dujardin, 1845; Physaloptera didelphidis Leidy, 1851.

Site of infection: Stomach

Type host and locality: Brazil

Other reported hosts: Caluromys derbianus, Didelphis aurita, Didelphis albiventris, Didelphis marsupialis and Didelphis virginiana, Metachirus nudicaudatus, and Philander opossum.

Locality Records: Argentina: Santiago del Estero. Brazil: Goías: Nerópolis; Río de Janeiro: Casimiro de Abreu, Angra dos Reis, Sumidouro; Santa Catarina: Santa Catarina Island. Mexico: Chiapas: Motozintla, Tonalá; Colima: Colima, Comala, Dos Amates, La Esperanza, Madrid; Distrito Federal; Estado de México: Tequesquinahuac; Guerrero: Coyuquilla, Taxco El Viejo; Hidalgo: Tasquillo; Jalisco: Chamela; Michoacán, El Hortigal; Morelos; Oaxaca: Temazcal; Veracruz, Los Tuxtlas. Panama: Panama Canal. Peru: Loreto: Iquitos; Piura: San Felipe de Vichayal; San Martín: Bella Vista. United States: California, Connecticut, Colorado, Florida, Georgia, Illinois, Kansas, Louisiana, Oklahoma, New York, North Carolina, Pennsylvania, Tennessee, Texas, Virginia, Wisconsin. Trinidad and Tobago. Venezuela: Maracaibo (Alden, Reference Alden1995; Monet-Mendoza et al., Reference Monet-Mendoza, Osorio-Sarabia and García-Prieto2005; Chero et al., Reference Chero, Sáez, Mendoza-Vidaurre, Iannacone and Cruces2017; Polo-Gonzales et al., Reference Polo-Gonzales, Sánchez and Pacheco2019).

Records in Bolivia: Didelphis albiventris: Tarija: Tapecua, 21°06′S, 63°55′W, 1500 m, 14 July 1991, HWML118751 (69 specimens) from MSB:MAMM:239823; Philander opossum: Pando: Bella Vista, 11°13′48″W, 67°07′12″W, 170 m, 26 July 1986, HWML118752 (2 specimens) from MSB:MAMM:211891.

Suborder Oxyurinae Railliet, 1895
Superfamily Oxyuroidea Cobbold, 1864
Family Oxyuridae Cobbold, 1864
Didelphoxyuris Gardner and Hugot, 1995
28. Didelphoxyuris thylamisis Gardner and Hugot, 1995

Site of infection: Large intestine and caecum

Type host and locality: Thylamys venustus: Santa Cruz, 5 km NE Quiñe, 18°03′S, 64°19′W, 1900 m, 27 May 1991.

Other reported hosts: Other than symbiotype, none available

Locality records: Other than type locality, none available

Records in Bolivia: Marmosa sp.: Santa Cruz: 53 km E Boyuibe, 20°27′S, 62°50′W, 600 m, 6 July 1991, HWML118755 (12 specimens) from MSB:MAMM:239772. Thylamys venustus: Tarija: 3 km SE Cuyambuyo, 22°16′S, 64°33′W, 900 m, 4 August 1991, HWML117853 from MSB:MAMM:140296, HWML117854 (256 specimens) from MSB:MAMM:140297; Tarija: Tapecua, 21°26′S, 63°55′W, 1500 m, 12 July 1991, HWML61315 (17 specimens) from AMNH275439; Santa Cruz: 5 km NE Quiñe, 18°03′S, 64°19′W, 1900 m, 27 May 1991, HWML61086 NK22813 MSB:MAMM:87107 (360 specimens). Thylamys pusillus: Santa Cruz: 53 km E Boyuibe, 20°27′S, 62°50′W, 600 m, 6 July 1991, HWML61267 (28 specimens) from MSB:MAMM:87105

Additional specimens examined: HWML39072 holotype

Remarks: The symbiotype was originally identified as Thylamys elegans Waterhouse. However, a systematic review of the genus revealed that this species is restricted to the western slope of the Andean Cordillera; furthermore, fat-tailed opossusms infected with pinworms used in the species description belong to Thylamys venustus (Giarla et al., Reference Giarla, Voss and Jansa2010).

Monodelphoxyuris Guerrero and Hugot, 2003
29. Monodelphoxyuris dollmeiri Guerrero and Hugot, 2003

Site of infection: Large intestine and caecum

Type host and locality: Monodelphis emiliae (Thomas): San Martín, Rio Camisea, Cusco, Peru, 11°47′10″S, 72°42′5″W, 474 m; May 08, 1997. Accession number CHIAUMSM1175. Symbiotype 14149 Mammal Collection of the Museo de Historia Natural, Universidad Nacional Mayor de San Marcos, Lima.

Other reported hosts: None available

Locality records: Other than type locality, none available

Records in Bolivia: Monodelphis domestica: Chuqisaca: El Porvenir, 20°27′W, 63°07′48″S, 675 m, 15 July 1985, HWML 118756 (158 specimens) from host MSB:MAMM:211199; HWML 60229 (88 specimens) from host AMNH M 261233. Thylamys venustus: Chuqisaca: El Porvenir, 20°27′W, 63°07′48″S, 675 m, 13 July 1985, HWML 60130 (2 specimens) from host MSB:MAMM:211181

Neohilgertia Navone, Suriano and Pujol, 1990
30. Neohilgertia venusti Navone, Suriano and Pujol, 1990

Site of infection: Large intestine and caecum

Type host and locality: Thylamys venustus, Tucuman, Burruyacu. Bernardino Rivadavia Helminthological Collection 362.

Other reported hosts: None available

Locality records: Other than type locality, none available

Records in Bolivia: Thylamys sp.: Tarija: 3 km S of Cuyambuyo, 22°16′S, 64°33′W, 900 m, 4 and 5 August 1991, HWML61553 (36 specimens) from MSB:MAMM:240043; HWML118792 (42 specimens) from MSB:MAMM:240056

Class Dorylaimea Hodda, 2007
Order Trichocephalida Spasski, 1954
Family Trichuridae Ransom, 1911
Trichuris Roederer, 1761
31. Trichuris reesali Wolfgang, Reference Wolfgang1951

Site of infection: Large intestine and caecum

Type host and locality: Didelphis marsupialis, Trinidad

Other reported hosts: Didelphis marsupialis, Marmosa demerarae, Marmosa murina, Philander opossum (Wolfgang, Reference Wolfgang1951; Byles et al., Reference Byles, Catzeflis, Scheibel and Jiménez2013).

Locality Records: French Guiana: Camp du Tigre, Saül, Macouria.

Records in Bolivia: Marmosa sp.: Santa Cruz: Estancia Cachuela Esperanza, 16°46′59.99″S, 63°13′59.99″W, 300 m, 24 August 1984, HWML118807 (2 specimens) from MSB:MAMM:211050; Marmosops noctivagus: La Paz: La Reserva, 15°44′S, 67°31′W, 850 m, 24 July 1992, HWML118757 (7 specimens) from MSB:MAMM:235815.

Phylum Acanthocephala Rudolphi, 1808

Class Archiacanthocephala Meyer, 1931
Order Moniliformida Schmidt, 1972
Family Oligoacanthorhynchidae Southwell and McPhie, 1925
Oligacanthorhynchus Travassos, 1915
32. Oligacanthorhynchus microcephalus (Rudolphi, 1819) Schmidt, 1972

Synonyms: Echinorhynchus microcephalus Rudolphi, 1819; Echinorhynchus tortuosa Leidy, 1850; Hamanniella microcephalus (Rudolphi, 1819) Travassos, 1915; Hamanniella tortuosa (Leidy, 1850) Van Cleave, 1924; Hamanniella tumida (Van Cleave, 1947) Van Cleave, 1953; Oligacanthorhynchus tortuosa (Leidy, 1850) Schmidt, 1972; Oligacanthorhynchus tumida (Van Cleave, 1947) Schmidt, 1972; Travassosia tumida Van Cleave, 1947

Site of infection: Small intestine

Type host and locality: Caluromys philander, Brazil

Other reported hosts: Didelphis albiventris, Didelphis marsupialis, Didelphis virginiana, Marmosa demerarae, Marmosa murina, Metachirus myosurus, Philander opossum. Dasypus novemcinctus L., Euphractus sexcinctus (L.).

Locality Records: Brazil: Bahía: Igrapiúna; Rio de Janeiro: Rio de Janeiro; São Paulo: São Paulo. Colombia: Chocó. Mexico: Campeche, Colima, Michoacán, Guanajuato, Morelos, Oaxaca, Tabasco, Veracruz, Yucatán. French Guiana: Montagne du Tigre, Macouria, Pic Matecho. Paraguay: Chaco Boreal. Suriname. United States: Alabama, Arkansas, Florida, Georgia, Illinois, Louisiana, Mississippi, Oklahoma, South Carolina, Texas. Venezuela (Richardson et al., Reference Richardson, Gardner and Allen2014; Acosta-Virgen et al., Reference Acosta-Virgen, Lopez-Caballero, Garcia-Prieto and Mata-Lopez2015; Cirino et al., Reference Cirino, Neto, Maldonado and Gentile2020).

Remarks: Oligacanthorhynchus microcephalus was collected from Metachirops opossum and Philander opossum from Santa Cruz, Bolivia and used for a redescription of the species (Richardson et al., Reference Richardson, Gardner and Allen2014).

Discussion

Bolivia contains a large variety of biomes and it is rich in natural resources (Ergueta and Salazar, Reference Ergueta and Salazar1991; Auty, Reference Auty1994; Anderson, Reference Anderson1997; Hancock et al., Reference Hancock, Ralph and Ali2018). Among these resources, some minerals are used in high demand (Finer et al., Reference Finer, Jenkins, Pimm, Keane and Ross2008; Hancock et al., Reference Hancock, Ralph and Ali2018), and vast areas of the country have been converted to agricultural use (Cuellar and Noss, Reference Cuellar and Noss2014). The exploitation of these natural resources wipes out natural habitats and causes extinction of native biodiversity (Finer et al., Reference Finer, Jenkins, Pimm, Keane and Ross2008; Cuellar and Noss, Reference Cuellar and Noss2014; Gardner et al., Reference Gardner, Botero-Cañola, Aliaga-Rossel, Dursahinhan and Salazar-Bravo2021). These abrupt modifications change the interactions among species occurring in the biome, which includes the dynamics that regulate the interactions between parasites and hosts (Gardner and Campbell, Reference Gardner and Campbell1992b). The parasite checklist herein presented is a historical document that summarizes the marsupial parasite association present in Bolivia by the end of the Twentieth Century.

Of the 35 species of marsupials recorded for Bolivia we document the helminthological record for 17. Most of the specimens were collected in localities across the Chaco, and Yungas, with few individuals collected from the Amazon basin. The majority of the specimens representing both parasites and hosts were preserved and archived in relevant repositories for biodiversity, which include the Harold W. Manter Laboratory of Parasitology (Lincoln, Nebraska), the Museum of Southwestern Biology (Albuquerque, New Mexico), and the American Museum of Natural History (New York, New York). The records resulted from the synergistic effort of mammalogists and parasitologists participating in the Bolivian Faunistic Inventories completed by the end of the previous century (Anderson, Reference Anderson1997). The present checklist includes the helminths collected from didelphiomorphs and it expands on other published checklists that document the diversity of parasites in mammals present in Bolivia (Dick et al., Reference Dick, Gettinger and Gardner2007; Pucu et al., Reference Pucu, Lareschi and Gardner2014; Sanchez et al., Reference Sanchez, Lareschi, Salazar-Bravo and Gardner2018).

A greater effort is necessary to complete the inventory of the parasites of marsupials present in Bolivia, since 17 species of didelphiomorphs, plus Lestoros inca (Thomas), representative of Coenolestidae, have not been surveyed for helminths. Furthermore, the assessment of the helminth fauna associated with each species may be hindered by the relatively large sample size necessary to survey the parasite species richness in marsupials (Jiménez et al., Reference Jiménez, Gardner and Catzeflis2011; Byles et al., Reference Byles, Catzeflis, Scheibel and Jiménez2013).

Nematodes represent the most diverse group in this checklist; it includes 22 species of which 9 are included in Viannaiidae and only occur in didelphiomorph marsupials. The second largest group includes cyclophyllidean tapeworms (6 species) followed by rhopaliid trematodes (3 species) and 1 species of acanthocephalan. From the total of parasite species, 16 are monoxenous, and include nematodes of the Viannaiidae, Oxyuridae, Trichuridae, Molineidae and Ancylostomatidae. The other 16 species are heteroxenous, and they depend on molluscs or insects to infect their definitive hosts. Heteroxenous species may be used as indicators of the local biodiversity by revealing the taxonomic and trophic levels that still function in any given locality (Gardner and Campbell, Reference Gardner and Campbell1992b). A modest fraction of the organisms used in this checklist have served as the foundation for systematic reviews and species descriptions for trematodes, cestodes and nematodes (Gardner and Campbell, Reference Gardner and Campbell1992a; Haverkost and Gardner, Reference Haverkost and Gardner2008; Jiménez et al., Reference Jiménez, Braun, Campbell and Gardner2008; Gardner et al., Reference Gardner, Jiménez and Campbell2013), underscoring the relevance of species descriptions as the sole records documenting biodiversity.

As a consequence, the present checklist incorporates additional localities that better represent the distribution of parasites and their host spectrum. The results listed in this checklist should act as a starting point to build upon the diversity of mutualists, micropredators or parasites associated with marsupials. As stated elsewhere (Gardner and Campbell, Reference Gardner and Campbell1992b; Wood et al., Reference Wood, Welicky, Preisser, Leslie, Mastick, Greene, Maslenikov, Tornabene, Kinsella and Essington2023), the changes in the quality of the habitat and the diversity of organisms will determine the likelihood of heteroxenous species to complete their life cycle.

The identification of helminths herein presented documents their distribution in nearly 50% of the marsupial biodiversity of Bolivia. None of the species included in this checklist are known to have a zoonotic potential. Nevertheless this list should complement the efforts to screen these organisms for microparasites, which may be of zoonotic relevance and have been documented across Bolivia (Messenger et al., Reference Messenger, Garcia, Vanhove, Huaranca, Bustamante, Torrico, Torrico, Miles and Llewellyn2015). This is important because several species of marsupials are synanthropic and thrive in human altered environments (Bezerra-Santos et al., Reference Bezerra-Santos, Ramos, Campos, Dantas-Torres and Otranto2021; Voss, Reference Voss and Knight2022). This innate ability makes it important to continue the surveillance of parasites in these mammals, since they can expose human populations to unanticipated outbreaks. The surveillance is an important component of proposed novel protocols to prevent outbreaks resulting from anthropogenic alterations (Hoberg et al., Reference Hoberg, Boeger, Molnár, Földvári, Gardner, Juarrero, Kharchenko, Ortiz, Preiser, Trivellone and Brooks2022; Gardner et al., Reference Gardner, Brooks, Boeger and Hoberg2023).

Data availability statement

The helminthological record for most of the marsupials examined is available at http://opensiuc.lib.siu.edu/zool_data/23/.

Acknowledgements

The following organizations provided logistic support in the field: Museo Nacional de Historia Natural, La Paz; The Museum of Southwestern Biology, University of New Mexico and Instituto Boliviano de Biología de la Altura, La Paz. We also thank the students and staff of Museums in Bolivia who are working hard to learn and conserve their biodiversity heritage. Dr Gabor Racz of the H.W. Manter Laboratory assisted in work in the laboratory, loans and deposition of specimens. Cristina Damborenea (CHLP), Luis García Prieto (CNHE), Eric Hoberg (USNPC), Luis Muniz (CHIOC), Graciela Navone, Judith Price (CMNA), and Lidia Sánchez (CHIAUMSM) made part of the material they have under their care available for comparisons.

Author contributions

S. L. G. conceived and designed the logistics to secure specimens in the field. S. L. G. M. L. C. and F. A. J. conducted data gathering. F. A. J., M. L. C., B. B. and R. P. S. performed analyses. F. A. J. and S. L. G. wrote the article.

Financial support

This work was supported by United States National Science Foundation Grants BSR8612329, BSR8612329, BSR9024816, DEB9496263, and DEB9631295 to S. L. G. BSR8408923 to T. L. Yates; BSR8316740 to S. Anderson. Additional support was provided directly by the American Museum of Natural History, The Museum of Southwestern Biology, the Tinker Foundation, SIU-Carbondale and the Harold W. Manter Laboratory of Parasitology.

Competing interests

The authors declare that there is no competing interest.

Ethical standards

Most recent version of protocols describing the use of vertebrates includes protocol 21-017 approved by IACUC of SIUC.

References

Acosta-Virgen, K, Lopez-Caballero, J, Garcia-Prieto, L and Mata-Lopez, R (2015) Helminths of three species of opossums (Mammalia, Didelphidae) from Mexico. Zookeys 511, 131152.Google Scholar
Adnet, FAO, Anjos, DHS, Menezes-Oliveira, A and Lanfredi, RM (2009) Further description of Cruzia tentaculata (Rudolphi, 1819) Travassos, 1917 (Nematoda: Cruzidae) by light and scanning electron microscopy. Parasitology Research 104, 12071211.CrossRefGoogle Scholar
Alden, KJ (1995) Helminths of the opossum Didelphis virginiana, in southern Illinois, with a compilation of all helminths reported from this host in North America. Journal of the Helminthological Society of Washington 62, 197208.Google Scholar
Anderson, S (1997) Mammals of Bolivia, taxonomy and distribution. Bulletin of the American Museum of Natural History 231, 1652.Google Scholar
Antunes, GM (2005) Diversidade e potencial zoonótico de parasitos de Didelphis albiventris Lund, 1841 (Marsupialia: Didelphidae)*, PhD thesis. Universidade Federal do Río Grande do Sul, Porto Alegre, Brazil.Google Scholar
Astúa, D (2009) Evolution of scapula size and shape in Didelphid marsupials (Didelphimorphia: Didelphidae). Evolution 63, 24382456.CrossRefGoogle ScholarPubMed
Auty, RM (1994) The resource curse thesis – minerals in Bolivian development, 1970–90. Singapore Journal of Tropical Geography 15, 95111.CrossRefGoogle Scholar
Benatti, D, Moraes, MFD, Pacheco, CAA, Machado, DMR, Oliveira, WJ, Perin, PP, Andrietti, LF, Cândido Júnior, JF, Vogliotti, A, Tebaldi, JH and Hoppe, EGL (2023) Endoparasites of marsupials in fragments of the Atlantic rainforest, western Paraná State, Brazil. Revista Brasileira de Parasitologia Veterinária 32, e005823.CrossRefGoogle ScholarPubMed
Beveridge, A, Spratt, DM and Durette-Desset, MC (2014) Order Strongylida (Railliet & Henry, 1913). In Schmidt-Rhaesa, A (ed.), Handbook of Zoology. Gastrotricha, Cycloneuralia and Gnathifera, Vol. 2: Nematoda. Boston, Massachusetts: de Gruyter, pp. 557612.Google Scholar
Bezerra-Santos, MA, Ramos, RAN, Campos, AK, Dantas-Torres, F and Otranto, D (2021) Didelphis spp. opossums and their parasites in the Americas: a one health perspective. Parasitology Research 120, 40914411.CrossRefGoogle Scholar
Brant, SV and Gardner, SL (2000) Phylogeny of species of the genus Litomosoides (Nematatoda: Onchocercidae): evidence of rampant host switching. Journal of Parasitology 86, 545554.CrossRefGoogle ScholarPubMed
Byles, B, Catzeflis, F, Scheibel, RP and Jiménez, FA (2013) Gastrointestinal helminths of two species of mouse opossums (Marmosa demerarae and Marmosa murina) from French Guiana. Comparative Parasitology 80, 210216.CrossRefGoogle Scholar
Caceres, NC, Nápoli, RP and Hannibal, W (2011) Differential trapping success for small mammals using pitfall and standard cage traps in a woodland savannah region of southwestern Brazil. Mammalia 75, 4552.CrossRefGoogle Scholar
Campbell, ML, Gardner, SL and Navone, GT (2003) A new species of Mathevotaenia (Cestoda: Anoplocephalidae) and other tapeworms from marsupials in Argentina. Journal of Parasitology 89, 11811185.CrossRefGoogle ScholarPubMed
Cañeda-Guzmán, IC (1997) Parásitos de tres especies de marsupiales de la estación ‘Los Tuxtlas’ y algunas zonas cercanas, Veracruz, México, Thesis. Universidad Nacional Autónoma de México, Mexico City, Mexico.Google Scholar
Chero, JD, Sáez, G, Mendoza-Vidaurre, C, Iannacone, J and Cruces, CL (2017) Helminths of the common opossum Didelphis marsupialis (Didelphimorphia: Didelphidae), with a checklist of helminths parasitizing marsupials from Peru. Revista Mexicana de Biodiversidad 88, 560571.CrossRefGoogle Scholar
Cirino, BS, Neto, SFC, Maldonado, AJ and Gentile, R (2020) First study on the helminth community structure of the neotropical marsupial Metachirus myosuros (Didelphimorphia, Didelphidae). Revista Brasileira de Parasitologia 29, e005420.Google Scholar
Cuellar, E and Noss, AJ (2014) Mammal diversity and local participation in the conservation of the Bolivian Gran Chaco. Therya 5, 3960.CrossRefGoogle Scholar
Diaw, OT (1976 a) Coexistence des nématodes trichostrongyloides chez des marsupiaux de Guyane. Annales de parasitologie humaine et comparée 51, 355363.CrossRefGoogle Scholar
Diaw, OT (1976 b) Contribution à l'étude de nématodes Trichostrongyloidea parasites de Xenarthre, Marsupiaux et Rongeurs néotropicaux. Bulletin du Muséum National d'Histoire Naturelle 282, 10651089.CrossRefGoogle Scholar
Dick, CW, Gettinger, D and Gardner, SL (2007) Bolivian ectoparasites: a survey of bats (Mammalia Chiroptera). Comparative Parasitology 74, 372377.CrossRefGoogle Scholar
Dikmans, G (1931) A new nematode worm Viannaia bursobscura, from the opossum with a note on the other parasites of the opposum. Proceedings of the United States National Museum 79, 14.Google Scholar
Dikmans, G (1945) The occurrence of Viannaia viannai Travassos (Nematoda: Heligmosomidae) in opossums in North America. Proceedings of the Helminthological Society of Washington 10, 68.Google Scholar
dos Santos, E (1968) Redescrição de Mathevotaenia bivittata (Janicki, 1904), parásito de marsupial (Cestoda, Linstowiinae). Atas da Sociedade de Biología do Rio de Janeiro 11, 193194.Google Scholar
Durette-Desset, MC (1971) Essai de classification des nématodes Héligmosomes. Corrélations avec la paléobiogéography des hôtes. Mémories du Muséum National d'Histoire Naturelle. Série A. Zoologie 69, 1126.Google Scholar
Ellis, RD, Pung, OJ and Richardson, DJ (1999) Site selection by intestinal helminths of the Virginia opossum (Didelphis virginiana). Journal of Parasitology 85, 15.CrossRefGoogle ScholarPubMed
Ergueta, P and Salazar, J (1991) Fauna silvestre de Bolivia. La Paz, Bolivia: El Instituto Geografico Militar and Centro de Datos Para la Conservación.Google Scholar
Finer, M, Jenkins, CN, Pimm, SL, Keane, B and Ross, C (2008) Oil and gas projects in the western Amazon: threats to wilderness, biodiversity, and indigenous peoples. PLoS One 3, e2932.CrossRefGoogle ScholarPubMed
Flores, DA (2009) Phylogenetic analyses of postcranial skeletal morphology in didelphid marsupials. Bulletin of the American Museum of Natural History 320, 181.CrossRefGoogle Scholar
Fontúrbel, FE and Jiménez, JE (2009) Underestimation of abundances of the monito del monte (Dromiciops gliroides) due to a sampling artifact. Journal of Mammalogy 90, 13571362.CrossRefGoogle Scholar
Foster, AO (1939) Some helminths of the woolly opossum in Panama. Transactions of the American Microscopical Society 58, 185198.CrossRefGoogle Scholar
Fujita, O, Abe, N, Oku, Y, Sanabria, L, Inchaustti, A and Kamiya, M (1995) Nematodes of armadillos in Paraguay: a description of a new species Aspidodera esperanzae (Nematoda: Aspidoderidae). Journal of Parasitology 81, 936941.CrossRefGoogle Scholar
Gardner, AL (ed.) (2007) Mammals of South America. Chicago, IL: Chicago University Press.Google Scholar
Gardner, SL and Campbell, ML (1992 a) A new species of Linstowia (Cestoda: Anoplocephalidae) from marsupials in Bolivia. Journal of Parasitology 78, 795799.CrossRefGoogle ScholarPubMed
Gardner, SL and Campbell, ML (1992 b) Parasites as probes for biodiversity. Journal of Parasitology 78, 596600.CrossRefGoogle ScholarPubMed
Gardner, SL, Jiménez, FA and Campbell, ML (2013) Pritchardia boliviensis n. gen., n. sp. (Anoplocephalidae: Linstowinae), a tapeworm from opossums (Didelphidae) in the Yungas and lowlands of Bolivia and Atlantic forest of Paraguay. Occassional Papers of the Texas Tech University Museum 319, 18.Google Scholar
Gardner, SL, Botero-Cañola, S, Aliaga-Rossel, E, Dursahinhan, AT and Salazar-Bravo, J (2021) Conservation status and natural history of Ctenomys, tuco-tucos in Bolivia. Therya 12, 1536.CrossRefGoogle Scholar
Gardner, SL, Brooks, DR, Boeger, WA and Hoberg, E (2023) An Evolutionary Pathway for Coping with Emerging Infectious Disease. Lincoln, NE: Zea Books.CrossRefGoogle Scholar
Gentile, R, Finotti, R, Rademaker, V and Cerqueira, R (2004) Population dynamics of four marsupials and its relation to resource production in the Atlantic forest in southeastern Brazil. Mammalia 68, 109119.CrossRefGoogle Scholar
Giarla, TC, Voss, RS and Jansa, SA (2010) Species limits and phylogenetic relationships in the didelphid marsupial genus Thylamys based on mitochondrial DNA sequences and morphology. Bulletin of the American Museum of Natural History 346, 167.CrossRefGoogle Scholar
Gomes, DC, Cruz, RPD, Vicente, JJ and Pinto, RM (2003) Nematode parasites of marsupials and small rodents from the Brazilian Atlantic rain forest in the State of Rio de Janeiro, Brazil. Revista Brasileira de Biologia 20, 699707.CrossRefGoogle Scholar
Guerrero, R (1985) Nematoda: Trichostrongyloidea parásitos de mamíferos silvestres de Venezuela. II. Revisión del género Viannaia Travassos, 1914. Memoria de la Sociedad de Ciencias Naturales La Salle 45, 947.Google Scholar
Gutiérrez, EE, Jansa, SA and Voss, RS (2010) Molecular systematics of mouse opossums (Didelphidae: Marmosa): assessing species limits using mitochondrial DNA sequences, with comments on phylogenetic relationships and biogeography. American Museum Novitates 3692, 122.CrossRefGoogle Scholar
Guzmán-Cornejo, C, Garciá-Prieto, L, Acosta-Gutiérrez, R, Falcón-Ordaz, J and León-Paniagua, L (2012) Metazoarios parásitos de Tlacuatzin canescens y Marmosa mexicana (Mammalia: Didelphiomorphia) de México. Revista Mexicana de Biodiversidad 83, 557561.CrossRefGoogle Scholar
Hancock, L, Ralph, N and Ali, SH (2018) Bolivia's lithium frontier: can public private partnerships deliver a minerals boom for sustainable development? Journal of Cleaner Production 178, 551560.CrossRefGoogle Scholar
Haverkost, TR and Gardner, SL (2008) A review of species in the genus Rhopalias (Rudolphi, 1819). Journal of Parasitology 94, 716726.CrossRefGoogle ScholarPubMed
Hoberg, EP, Boeger, WA, Molnár, O, Földvári, G, Gardner, SL, Juarrero, A, Kharchenko, VA, Ortiz, E, Preiser, W, Trivellone, V and Brooks, DR (2022) The DAMA protocol, an introduction: finding pathogens before they find us. MANTER: Journal of Parasite Biodiversity 21, 120.Google Scholar
Hodda, M (2022) Phylum Nematoda: a classification, catalogue and index of valid genera, with a census of valid species. Zootaxa 5114, 1289.CrossRefGoogle ScholarPubMed
Jansa, SA, Barker, FK and Voss, RS (2014) The early diversification history of didelphid marsupials: a window into South America's ‘splendid isolation’. Evolution 68, 684695.CrossRefGoogle ScholarPubMed
Jiménez, FA, Braun, JK, Campbell, ML and Gardner, SL (2008) Endoparasites of fat-tailed opossums (Thylamys: Didelphidae) from northwestern Argentina and southwestern Bolivia, with the description of a new species of tapeworm. Journal of Parasitology 94, 10981102.CrossRefGoogle Scholar
Jiménez, FA, Gardner, SL and Catzeflis, F (2011) Structure of parasite component communities of didelphid marsupials: insight from a comparative study. Journal of Parasitology 97, 779787.CrossRefGoogle ScholarPubMed
Jiménez, FA, Gardner, SL, Navone, GT and Ortí, G (2012) Four events of host-switching in Aspidoderidae (Nematoda) involve convergent lineages of mammals. Journal of Parasitology 98, 11661175.CrossRefGoogle ScholarPubMed
Jiménez-Ruiz, FA, Gardner, SL, Noronha, D and Pinto, RM (2008) The systematic position of Lauroiinae Skrjabin and Schikhobalova, 1951 (Nemata: Heterakoidea: Aspidoderidae), as revealed by the analysis of traits used in its diagnosis. Cladistics 24, 459476.CrossRefGoogle ScholarPubMed
José, H, Macedo, I and Loss, MC (2019) A new and simple method to capture small arboreal mammals: the suspended pitfall. Revista Brasileira de Zoociencias 20, 114.CrossRefGoogle Scholar
Lent, H and Freitas, JFTD (1935) Sobre dois novos nematodeos parasitos da quica: Caluromys philander (L.). Memorias do Instituto Oswaldo Cruz 30, 535542.CrossRefGoogle Scholar
Lima, M, Stenseth, NC, Yoccoz, NG and Jaksic, FM (2001) Demography and population dynamics of the mouse opossum (Thylamys elegans) in semi-arid Chile: seasonality, feedback structure and climate. Proceedings of the Royal Society of London Series B-Biological Sciences 268, 20532064.CrossRefGoogle ScholarPubMed
Mariaux, J, Tkach, VV, Vasileva, GP, Waeschenbach, A, Beveridge, I, Dimitrova, YD, Haukisalmi, V, Greiman, SE, Littlewood, DTJ, Makarikov, AA, Phillips, AJ, Razafiarisolo, T, Widmer, V and Georgiev, BB (2017) Cyclophyllidea van Beneden in Braun, 1900. In Caira, JN and Jensen, K (eds), Planetary Biodiversity Inventory (2008–2017): Tapeworms from Vertebrate Bowels of the Earth. Lawrence, KS: University of Kansas, Natural History Museum, pp. 77148.Google Scholar
Messenger, LA, Garcia, L, Vanhove, M, Huaranca, C, Bustamante, M, Torrico, M, Torrico, F, Miles, MA and Llewellyn, MS (2015) Ecological host fitting of Trypanosoma cruzi TcI in Bolivia: mosaic population structure, hybridization and a role for humans in Andean parasite dispersal. Molecular Ecology 24, 24062422.CrossRefGoogle Scholar
Mollericona, JL and Nallar, R (2014) Cruzia tentaculata (Rudolphi, 1819) Travassos, 1917 in Didelphis pernigra (Allen, 1900) in the Acero Marka Valley of the Yungas of La Paz, Bolivia. Neotropical Helminthology 8, 487492.CrossRefGoogle Scholar
Monet-Mendoza, A, Osorio-Sarabia, D and García-Prieto, L (2005) Helminths of the Virginia opossum Didelphis virginiana (Mammalia: Didelphidae) in Mexico. Journal of Parasitology 91, 213219.CrossRefGoogle ScholarPubMed
Navone, GT, Suriano, DM and Pujol, CA (1991) Travassostrongylus yungaensis n. sp. and Hoineffia simplicispicula n. sp. (Nematoda: Trychostrongyloidea) from Thylamys venustus and Lutreolina crassicaudata (Marsupialia: Didelphidae) in the Northwest Argentina. Systematic Parasitology 19, 187193.CrossRefGoogle Scholar
Pires, MP, Martins, EG, Silva, MNF and Reis, SFD (2010) Gracilinanus microtarsus (Didelphiomorphia: Didelphidae). Mammalian Species 42, 3340.CrossRefGoogle Scholar
Polo-Gonzales, A, Sánchez, L and Pacheco, V (2019) Helminths of the genus Didelphis (Didelphiomorphia: Didelphidae) of four regions in Peru. Neotropical Helminthology 13, 273286.CrossRefGoogle Scholar
Pucu, E, Lareschi, M and Gardner, SL (2014) Bolivian ectoparasites: a survey of the fleas of Ctenomys (Rodentia: Ctenomyidae). Comparative Parasitology 81, 114118.CrossRefGoogle Scholar
Püttker, T, Meyer-Lucht, Y and Sommer, S (2008) Effects of fragmentation on parasite burden (nematodes) of generalist and specialist small mammal species in secondary forest fragments of the coastal Atlantic Forest, Brazil. Ecological Research 23, 207215.CrossRefGoogle Scholar
Radev, V, Gardner, AL and Kanev, I (2005) Family Rhopaliidae Looss, 1899. In Jones, A, Bray, RA and Gibson, DI (eds), Keys to the Trematoda, Vol. 2. Oxfordshire, UK: CABI Publishing, pp. 119121.Google Scholar
Ramírez-Cañas, SA, López-Caballero, JD and Mata-López, R (2021) Morphological and molecular data reveal two new species of Viannaia (Nematoda: Viannaiidae), parasitizing opossums (Mammalia: Didelphidae) in Mexico. Journal of Parasitology 107, 388403.CrossRefGoogle Scholar
Richardson, DJ, Gardner, SL and Allen, JW (2014) Redescription of Oligacanthorhynchus microcephalus (Rudolphi, 1819) Schmidt 1972 (syn. Oligacanthorhynchus tortuosa (Leidy, 1850) Schmidt 1972) (Acanthocephala: Oligacanthorhynchidae). Comparative Parasitology 81, 5360.CrossRefGoogle Scholar
Rossi, RV, Voss, RS and Lunde, DP (2010) A revision of the didelphid marsupial genus Marmosa part 1. The species in Tate's ‘mexicana’ and ‘Mitts’ sections and other closely related forms. Bulletin of the American Museum of Natural History 334, 383.CrossRefGoogle Scholar
Ruiz, JM (1947) Revisão gênero Cruzia (Nematoda: Oxiuroidea) e estudo das especies Brasileiras, Thesis. Universidade de São Paulo, São Paulo, Brazil.Google Scholar
Sanchez, J, Lareschi, M, Salazar-Bravo, J and Gardner, SL (2018) Fleas of the genus Neotyphloceras associated with rodents from Bolivia: new host and distributional records, description of a new species and remarks on the morphology of Neotyphloceras rosenbergi. Medical and Veterinary Entomology 32, 462472.CrossRefGoogle ScholarPubMed
Santos, CP, Lent, H and Gomes, DC (1990) The genus Aspidodera Railliet and Henry, 1912 (Nematoda: Heterakoidea): revision, new synonyms and key for species. Revista Brasileira do Biologia 50, 10171031.Google Scholar
Scheibel, RP, Catzeflis, F and Jiménez, FA (2014) The relationships of marsupial-dwelling Viannaiidae and description of Travassostrongylus scheibelorum n. sp. (Trichostrongylina: Heligmosomoidea), from mouse opossums (Didelphidae) from French Guiana. Folia Parasitologica 61, 242254.CrossRefGoogle Scholar
Siebert, AE (1970) A new record for the trematods Rhopalias macracanthus Chandler, 1932, and a key to the genus Rhopalias Stiles and Hassel, 1989. Proceedings of the Louisiana Academy of Sciences 33, 3537.Google Scholar
Silva, MGQE and Costa, HMA (1999) Helminths of white-bellied opossum from Brazil. Journal of Wildlife Diseases 35, 371374.CrossRefGoogle Scholar
Souza, R, Vilela, RDV, Gentile, R, Lopes-Torres, EJ, Cordeiro-Estrela, P, Moratelli, R, da Costa-Neto, SF, Cardoso, TDS, Varella, K and Maldonado Júnior, A (2022) Population genetic structure and morphological diversity of Cruzia tentaculata (Nematoda: Ascaridida), a parasite of marsupials (Didelphinae), along the Atlantic Forest on the eastern coast of South America. Parasitology 149, 14871504.CrossRefGoogle ScholarPubMed
Tantaleán, M and Chavez, J (2004) Endoparasitos (Nemathelminthes y Platyhelminthes) de animales de vida silvestre de la Reserva de Biósfera del Manu, Perú. Revista peruana de biologia 11, 219222.CrossRefGoogle Scholar
Teta, P, D'Elía, G, Flores, DA and de la Sancha, NU (2009) Diversity and distribution of the mouse opossums of the genus Thylamys (Didelphimorphia, Didelphidae) in northeastern and central Argentina. Gayana 73, 180199.Google Scholar
Torres, EL, Maldonado, A and Lanfredi, RM (2007) Pterygodermatites (Paucipectines) jagerskioldi (Nematoda: Rictulariidae) from Gracilinanus agilis and G. microtarsus (Marsupialia: Didelphidae) in Brazilian pantanal and Atlantic forest by light and scanning electron microscopy. Journal of Parasitology 93, 274279.CrossRefGoogle Scholar
Torres, EJL, Maldonado, A and Lanfredi, RM (2009) Spirurids from Gracilinanus agilis (Marsupialia: Didelphidae) in Brazilian Pantanal wetlands with a new species of Physaloptera (Nematoda: Spirurida). Veterinary Parasitology 163, 8792.CrossRefGoogle Scholar
Varella, K, Vilela, RDV, Gentile, R, Cardoso, TDS, da Costa-Neto, SF and Maldonado Júnior, A (2022) Population genetic structure and phenotypic diversity of Aspidodera raillieti (Nematoda: Heterakoidea), a parasite of Didelphini marsupials in Brazil's South and Southeast Atlantic Forest. Parasites & Vectors 15, 203.CrossRefGoogle ScholarPubMed
Voss, RS (2022) An annotated checklist of recent opossums (Mammalia: Didelphidae). In Knight, M (ed.), Bulletin of the American Museum of Natural History, Vol. 455. New York, NY: American Museum of Natural History, p. 74.Google Scholar
Voss, RS and Jansa, SA (2009) Phylogenetic relationships and classification of didelphid marsupials, and extant radiation of New World metatherian mammals. Bulletin of the American Museum of Natural History 322, 1177.CrossRefGoogle Scholar
Voss, RS, Pine, RH and Solari, S (2012) A new species of the Didelphid marsupial genus Monodelphis from eastern Bolivia. American Museum Novitates 3740, 114.CrossRefGoogle Scholar
Wolfgang, RW (1951) Studies on the endoparasitic fauna of Trinidad Mammals. VIII. Parasites of marsupials. Canadian Journal of Zoology 29, 352373.CrossRefGoogle Scholar
Wood, CL, Welicky, RL, Preisser, WC, Leslie, KL, Mastick, N, Greene, C, Maslenikov, KP, Tornabene, L, Kinsella, JM and Essington, TE (2023) A reconstruction of parasite burden reveals one century of climate-associated parasite decline. Proceedings of the National Academy of Sciences 120, e2211903120.CrossRefGoogle ScholarPubMed
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Table 1. Helminthological records in Bolivia for species of marsupials included in the tribe Thylamini

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Table 2. Helminthological records in Bolivia for species of marsupials included in the tribe Marmosini

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Table 3. Helminthological records in Bolivia for species of marsupials included in the tribe Didelphini