Медицинские и биологические науки
Использование биологических моделей для культивирования и изучения риккетсий: научный обзор. Часть первая. Морские свинки, мыши, сирийские золотистые хомяки, куриные эмбрионы
© Самойленко И.Е., 2026
Article
The use of biological models for cultivation and study of Rickettsia. Scientific review. Part One. The guinea pigs, mice, Syrian golden hamsters, chicken embryos
© Samoylenko I.E., 2026
Представители рода Rickettsia — мелкие плеоморфные грамотрицательные бактерии. Облигатный характер внутриклеточного паразитизма риккетсий требует использования биологических моделей для их изоляции и культивирования. Задача первой части обзора — представить информацию о возможностях применения (достоинства и ограничения) следующих биологических моделей: морские свинки, мыши, сирийские золотистые хомяки, куриные эмбрионы, используемых для изучения риккетсий. Данные модели наиболее адекватны для работы с «классическими» патогенными риккетсиями: Rickettsiа. rickettsii, R. conorii, R. sibirica, но не являются оптимальными для культивирования ряда новых представителей рода Rickettsia. Во второй части обзора планируется изложение характеристик клеточных культур и лабораторных линий иксодовых клещей в качестве биологических моделей в риккетсиологии.
Abstracts
The representatives of the genus Rickettsia are small pleomorphic gram-negative bacteria. The obligate nature of intracellular parasitism of Rickettsia requires using of biological models for their isolation and cultivation. The objectives of the first part of the review are to provide information on the possibilities of application (advantages and limitations) of the following biological models: guinea pigs, mice, Syrian golden hamsters, and chicken embryos, using for study Rickettsia. These models are most adequate for working with classical pathogenic rickettsia: R. rickettsii, R. conorii, R. sibirica, but are not optimal for culturing a number of new representatives of the genus Rickettsia. The second part of the review plans to present the characteristics of cell cultures and laboratory lines of ixodid ticks as biological models in rickettsiology.
Keywords
rickettsiae, biological models, guinea pigs, mice, Syrian golden hamsters, chicken embryos
Ирина Евгеньевна Самойленко - доктор медицинских наук, главный научный сотрудник лаборатории зоонозных инфекций Омского НИИ природно-очаговых инфекций; ORCID: https://orcid.org/ 0000-0002-2819-9280; eLibrary SPIN: 9691-4878; samoilenko.irinasamoylenko@yandex.ru.
About the authors
Irina Evgenievna Samoylenko — Doctor of Medical Sciences, Chief Researcher of the Laboratory of Zoonotic Infections of the Omsk Research Institute of Natural Focal Infections; ORCID: https://orcid.org/ 0000-0002-2819-9280; eLibrary SPIN: 9691-4878.
1. Parola P., Paddock C.D., Socolovschi C. [et al.]. Update on tick-borne rickettsioses around the world: A geographic approach. Clinical Microbiology Reviews. 2013; Vol. 26, № 4: 657–702.
2. Ricketts H.T. The study of “Rocky Mountain spotted fever” (Tick fever?) by means of animal inoculations: A preliminary communication. JAMA. 1906; Vol. 47, issue 1: 33–36.
3. King W.V. Experimental transmission of Rocky Mountain spotted fever by means of the tick. Preliminary note. Pub. Health Rep., U.S. Pub. Health and Marine Hosp. Serv. I906; Vol. 21, No. 30: 863–864.
4. Ricketts H.T. The transmission of Rocky Mountain spotted fever by the bite of the wood-tick (Dermacentor occidentalis). JAMA. 1906; Vol. 47, issue 5: 358.
5. Ricketts H.T. Observations on the virus and means of transmission of Rocky Mountain spotted fever. The Journal of Infectious Diseases. 1907; Vol. 4, issue 1: 141–153.
6. Ricketts H.T. and Gomez L. Studies on immunity in Rocky Mountain spotted fever. Journ. Infect. Dis., I908; Vol. 5, No. 2 (Mar. 30, 1908): 221–244.
7. Ricketts H.T. A micro-organism which apparently has a specific relationship to Rocky Mountain spotted fever: A preliminary report. JAMA. 1909; Vol. 52, № 5: 379–380.
8. Wolbach S.B. The etiology of Rocky Mountain spotted fever: (a preliminary report). The Journal of Medical Research. 1916; Vol. 34: 121–126.
9. Mooser H., Dummer C. On the relation of the organisms in the tunica vaginalis of animals inoculated with Mexican Typhus to Rickettsia prowazeki and to the causative agent of that disease. Journal of Experimental Medicine. 1930; Vol. 51: 189–207.
10. Kenyon R.H., Williams R.G., Oster C.N., Pedersen C.E. Prophylactic treatment of Rocky Mountain spotted fever. Journal of Clinical Microbiology. 1978; Vol. 8, № 1: 102–104.
11. Li H., Lenz B., Walker D.H. Protective monoclonal antibodies recognize heat-labile epitopes on surface proteins of spotted fever group rickettsiae. Infection and Immunity. 1988; Vol. 56, № 10: 2587–2593.
12. Vishwanath S., McDonald G. A., Watkins N. G. A recombinant Rickettsia conorii vaccine protects guinea pigs from experimental boutonneuse fever and Rocky Mountain spotted fever. Infect Immun. 1990; Mar; 58 (3): 646–653. DOI: 10.1128/iai.58.3.646-653.1990.
13. Noriea N.F., Clark T.R., Hackstadt T. Targeted knockout of the Rickettsia rickettsii OmpA surface antigen does not diminish virulence in a mammalian model system. Text : electronic. mBio. 2015; Vol. 6, № 2: e00323-15. URL: https://journals.asm.org/doi/full/10.1128/mbio.00323-15?rfr_dat=cr_pub++0pubmed&url_ver=Z39.88 2003&rfr_id=ori%3Arid%3Acrossref.org. (Publication date: 31.03.2015).
14. Nock AM, Aistleitner K, Clark TR, Sturdevant D, Ricklefs S, Virtaneva K, Zhang Y, Gulzar N, Redekar N, Roy A, Hackstadt T. 2023. Identification of an autotransporter peptidase of Rickettsia rickettsii responsible for maturation of surface exposed autotransporters. PLoS Pathog 19:e1011527; https://doi.org/10.1371/journal.ppat.1011527.
15. Kleba B., Clark T.R., Lutter E.I. [et al.]. Disruption of the Rickettsia rickettsii Sca2 autotransporter inhibits actin-based motility. Infection and Immunity. 2010; Vol. 78, № 5: 2240–2247.
16. Blanton L.S., Mendell N.L., Walker D.H., Bouyer D.H. Rickettsia amblyommii induces cross protection against lethal Rocky Mountain spotted fever in a guinea pig model. Vector-Borne and Zoonotic Diseases. 2014; Vol. 14, № 8: 557–562.
17. Moraes-Filho J., Costa F.B., Gerardi M. [et al.]. Rickettsia rickettsii Co-feeding Transmission among Amblyomma aureolatum Ticks. Emerging Infectious Diseases. 2018; Vol. 24, № 11: 2041–2048.
18. Binder LC, Fanchini CEC, Soares HS, dos Santos TBS, Taniwaki SA, Nassar MB [et al.]. Effects of exposure to Rickettsia bellii on reservoir competence of guinea pigs for Rickettsia rickettsia. Mem Inst Oswaldo Cruz. 2026; 121: e250195.
19. Blanton L.S., Wilson N.M., Quade B.R., Walker D.H. Susceptibility of Rickettsia rickettsii to Tigecycline in a cell culture assay and animal model for Rocky Mountain Spotted Fever. American Journal of Tropical Medicine and Hygiene. 2019; Vol. 101, № 5: 1091–1095.
20. Levin M.L., Ford S.L., Hartzer K. [et al.]. Minimal duration of tick attachment sufficient for transmission of infectious Rickettsia rickettsii (Rickettsiales: Rickettsiaceae) by its primary vector Dermacentor variabilis (Acari:
Ixodidae): duration of rickettsial reactivation in the vector revisited. Journal of Medical Entomology. 2020; Vol. 57, № 2: 585–594.
21. Ross A.-M.L., Stokes J.V., Cross C.E., Alugubelly N., Varela-Stokes A.S. Multiplex TaqMan® Quantitative PCR Assays for Host-Tick-Pathogen Studies Using the Guinea Pig-Tick-Rickettsia System. Pathogens 2022; 11: 594. https://doi.org/10.3390/ pathogens11050594.
22. Borges D.A., Bonfim I.V., Dutra C.R., Jesus I.L.R.d., Monteiro R., Assis R.C.P.d., Miranda F.R., Cid Y.P., Scott F.B. Fluazuron Baits in the Control of Amblyomma sculptum Tick: Efficacy and Pharmacokinetics Using Guinea Pigs as an Experimental Model. Pathogens 2025; 14: 854. https: // doi.org/10.3390/pathogens14090854.
23. Рудаков Н.В., Шпынов С.Н., Самойленко И.Е., Ястребов В.К., Оберт А.С., Курепина Н.Ю. Риккетсии и риккетсиозы клещевой пятнистой лихорадки в Сибири: монография. Омск: ИЦ «Омский научный вестник», 2012. 288 с.
24. Stokes J.V., Levin M.L., Cross C.E., Ross A.L., Snellgrove A.N., Willeford B.V., Alugubelly N. & Varela-Stokes A.S. (2022). Evaluating the clinical and immune responses to spotted fever rickettsioses in the guinea pig-tick-Rickettsia system. Current Protocols. 2022; 2, e584. DOI: 10.1002/cpz1.584.
25. Parasuraman S., Raveendran R., Kesavan R. Blood sample collection in small laboratory animals. Journal of Pharmacology and Pharmacotherapeutics. 2010; Vol. 1, № 2: 87–93.
26. Birck M.M., Tveden-Nyborg P., Lindblad M.M., Lykkesfeldt J. Non-terminal blood sampling techniques in guinea pigs. Journal of Visualized Experiments. 2014; Vol. 92: Article number 51982. URL: https://www.ncbi.nlm.nih.gov/pmc/articles/PMC4540092/ (Publication date: 11.10.2014).
27. Takizawa M., Chiba J., Haga S. [et al.]. Novel two parameter flow cytometry (MIL4/SSC followed by MIL4/CT7) allows for identification of five fractions of guinea pig leukocytes in peripheral blood and lymphoid organs. Journal of Immunological Methods. 2006; Vol. 311, № 1–2: 47–56.
28. Ordway D., Palanisamy G., Henao-Tamayo M. [et al.]. The cellular immune response to Mycobacterium tuberculosis infection in the guinea pig. Journal of Immunology. 2007; Vol. 179, № 4: 2532–2541.
29. Bandiera S., Lebas A., Canizares-Martinello L. [et al.]. A single immunogenicity assay for testing potency of combination DTaP vaccines: Simultaneous quantitation of anti-DT, anti-TT, anti-PTxd and anti-FHA antibodies in guinea-pig serum with a Luminex(R)-xMAP(R) bead-based serological assay. Biologicals. 2019; Vol. 61: 15–21.
30. Stokes J., Walker D., Varela-Stokes A. The Guinea Pig Model for Tick-Borne Spotted Fever Rickettsioses: A Second Look. Ticks and Tick-borne Disease. 2020; Vol. 11, issue 6: Article number 101538. URL: https://www.sciencedirect.com/science/article/pii/S1877959X20303083?via%3Dihub. (Publication date: 7.08.2020).
31. Wike D.A., Burgdorfer W. Plaque formation in tissue cultures by Rickettsia rickettsi isolated directly from whole blood and tick hemolymph. Infection and Immunity. 1972; Vol. 6, № 5: 736–738.
32. Niebylski M.L., Peacock M.G., Schwan T.G. Lethal effect of Rickettsia rickettsii on its tick vector (Dermacentor andersoni). Applied and Environmental Microbiology. 1999; Vol. 65, № 2: 773–778.
33. Goddard J. Experimental infection of lone star ticks, Amblyomma americanum (L.), with Rickettsia parkeri and exposure of guinea pigs to the agent. Journal of Medical Entomology. 2003; Vol. 40, № 5: 686–689.
34. Saraiva D.G., Soares H.S., Soares J.F., Labruna M.B. Feeding period required by Amblyomma aureolatum ticks for transmission of Rickettsia rickettsii to vertebrate hosts. Emerging Infectious Diseases. 2014; Vol. 20, №9: 1504–1510.
35. Brustolin J.M., Krawczak F. da Silva, Alves M. E.M. [et al.]. Experimental infection in Cavia porcellus by infected Amblyomma ovale nymphs with Rickettsia sp. (Atlantic rainforest strain). Journal of Parasitology Research. 2018; Vol. 117, № 3: 713–720.
37. Stanley H.M., Ford S.L., Snellgrove A.N. [et al.]. The ability of the invasive Asian Longhorned tick Hae-maphysalis longicornis (Acari: Ixodidae) to acquire and transmit Rickettsia rickettsii (Rickettsiales: Rickettsiaceae), the agent of Rocky Mountain spotted fever, under laboratory conditions. Journal of Medical Entomology. 2020; Vol. 57, № 5: 1635–1639.
32. Walker D.H., Harrison A., Henderson F. Murphy Identification of Rickettsia rickettsii in a guinea pig model by immunofluorescent and electron microscopic techniques. American Journal of Pathology. 1977; Vol. 86, № 2: 343–358.
38. La Scola B., Bechah Y., Lepidi H., Raoult D. Prediction of rickettsial skin eschars in humans using an experimental guinea pig model. Microbial Pathogenesis. 2009; Vol. 47, № 3: 128–133.
39. Levin M.L., Snellgrove A.N., Zemtsova G.E. Comparative value of blood and skin samples for diagnosis of spotted fever group rickettsial infection in model animals. Ticks and Tick-borne Disease. 2016; Vol. 7, № 5: 1029–1034.
40. Padilla-Carlin D.J., McMurray D.N., Hickey A.J. The guinea pig as a model of infectious diseases. Compa-rative Medicine. 2008; Vol. 58, № 4: 324–340.
41. Nuttall P.A., Labuda M. Tick-host interactions: saliva-activated transmission. Parasitology. 2004; Vol. 129, suppl.: S177–189.
42. Kazimirova M., Stibraniova I. Tick salivary compounds: their role in modulation of host defences and pa-thogen transmission. Frontiers in Cellular and Infection Microbiology. 2013; Vol. 3: Article number 43. URL: https://www.frontiersin.org/articles/10.3389/fcimb.2013.00043/full (Publication date: 20.08.2013).
43. Cross C.E., Stokes J.V., Alugubelly N., Ross A.-M.L., Willeford B.V., Walker J.D., Varela-Stokes A.S. Skin in the Game: An Assay to Monitor Leukocyte Infiltration in Dermal Lesions of a Guinea Pig Model for Tick-Borne Rickettsiosis. Pathogens 2022; 11: 119. https://doi.org/10.3390/ pathogens11020119.
44. Rehácek J., Urvölgyi J., Kovácová E. Massive occurrence of rickettsiae of the spotted fever group in fowl tampan, Argas persicus, in the Armenian S.S.R. Acta Virologica. 1977; Vol. 21, № 5: 431–438.
45. ?ehá?ek J. Rickettsia slovaca, the organism and its ecology. Acta Scientiarum Naturalium — Academiae Scientiarum Bohemoslovacae Brno. 1984; Vol. 18: 1–50.
46. Miranda J., García A., Cervera-Acevedo C., Santibañez S., Portillo A., Oteo J.A., Mattar S. Assessment of the Pathogenicity of Candidatus Rickettsia Colombiensis in a Syrian Hamster Model and Serological Cross-Reactivity Between Spotted Fever Rickettsia Species. Pathogens. 2026; Jan 29; 15(2): 146. DOI: 10.3390/pathogens15020146. PMID: 41754399; PMCID: PMC12943140.
47. Doyle A., McGarry M.P., Lee N.A., Lee J.J. The construction of transgenic and gene knockout/ knockin mouse models of human disease. Transgenic Research. 2012; Vol. 21, № 2: 327–349.
48. Eisemann C.S., Nypaver M.J., Osterman J.V. Susceptibility of inbred mice to Rickettsiae of the spotted fever group. Infection and Immunity. 1984; Vol. 43, № 1: 143–148.
49. Walker D.H. Endothelial-target Rickettsial infection. Laboratory Animal Science. 1997; Vol. 47, № 5: 483–485.
50. Valbuena G., Bradford W., Walker D.H. Expression analysis of the T-cell-targeting chemokines CXCL9 and CXCL10 in mice and humans with endothelial infections caused by Rickettsiae of the spotted fever group. American Journal of Pathology. 2003; Vol. 163, № 4: 1357–1369.
51. Valbuena G., Walker D.H. Expression of CX3CL1 (fractalkine) in mice with endothelial-target Rickettsial infection of the spotted-fever group. Virchows Archiv. 2005; Vol. 446, № 1: 21–27.
52. Feng H.M., Wen J., Walker D.H. Rickettsia australis infection: a murine model of a highly invasive vasculopathic rickettsiosis. American Journal of Pathology. 1993; Vol. 142, № 5: 1471–1482.
53. Bechah Y., Capo C., Grau G.E. [et al.]. A murine model of infection with Rickettsia prowazekii: implications for pathogenesis of epidemic typhus. Microbes and Infection. 2007; Vol. 9, № 7: 898–906.
54. Bechah Y., Capo C., Mege J.L., Raoult D. Rickettsial diseases: from Rickettsia–arthropod relationships to pathophysiology and animal models. Future Microbiology. 2008; Vol. 3, № 2: 223–236.
55. Sahni S., Rydkina E. Host-cell interactions with pathogenic Rickettsia species. Future Microbiology. 2009; Vol. 4, № 3: 323–339.
56. Maitre A., Mateos-Hernandez L, Azagi T. [et al.]. Rickettsia helvetica in C3H/HeN mice: A model for stu-dying pathogen-host interactions. Heliyon. 2024; Vol. 10: Issue 18e37931. September 30, 2024 // doi.org/10.1016/j.heliyon.2024.e37931.
57. Cox H.R. Use of yolk sac of developing chick embryo as medium for growing rickettsiae of Rocky Mountain spotted fever and typhus groups. Public Health Reports. 1938; Vol. 53, № 51: 2241–2247.
58. Cox H.R. Cultivation of rickettsiae of Rocky Mountain spotted fever, typhus and Q fever groups in the embryonic tissues of developing chicks. Science. 1941; Vol. 94, № 2444: 399–403.
59. Здродовский П.Ф., Голиневич Е.М. Учение о риккетсиях и риккетсиозах. 3-е изд., перераб.
и доп. М. : Медицина, 1972. 496 с.
60. Штрек С.В., Блох А.И., Самойленко И.Е., Санников А.В., Боброва О.А., Шпынов С.Н., Рудаков Н.В. Валидация ПЦР в режиме реального времени для оценки количества риккетсий в исследуемом биологическом материале. Клиническая лабораторная диагностика. 2022; Т. 67, № 11: 668–671.
61. Weiss E. Growth and Physiology of Rickettsiae. Bacteriological Reviews. 1973; Vol. 37, № 3: P. 259–283.
62. Dasch G., Weiss E. Characterization of the Madrid E strain of Rickettsia prowazekii Purified by Renografin Density Gradient Centrifugation. Infection and Immunity. 1977; Vol. 15, № 1: 280–286.
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