Application of the PCR for diagnosis and monitoring of rotavirus in calves during treatment with the antiviral agent Triazavirin

Tatiana Reshetnikova, Vladimir Kuzmin, Tatyana Krylova

Abstract


Background: Rotavirus is a significant cause of morbidity and mortality in neonatal calves, leading to severe gastrointestinal and systemic illnesses. Current treatments primarily focus on symptomatic relief and prevention through vaccines, with limited use of antiviral agents. This article  considers the issue of experiments using the antiviral agent Triazavirin in the treatment of rotavirus infection in calves, with tracking the amount of virus during the polymerase chain reaction examination in fecal samples.

Methods: The experiment was conducted at a Mordovian Republican Veterinary Laboratory in the National Research Mordovian State University named after N.P. Ogarev (Republic of Mordovia, Russia), between February and March 2023. Two groups of calves, experimental and control, were assessed. The experimental group received Triazavirin orally at a dose of 500 mg per day for 7 days. Before and after the experiment, fecal samples were taken from experimental calves for the PCR study of the ribonucleic acid of group A rotaviruses.

Results: Treatment with Triazavirin resulted in a reduction of the rotavirus load by an average of 35.2%. The PCR analyses before and after treatment indicated a substantial decrease in viral RNA in the majority of treated calves, with variable individual responses.

Conclusions: Triazavirin demonstrates potential as an effective antiviral treatment for rotavirus in calves, reducing viral load and possibly improving clinical outcomes. The use of PCR provided a reliable method for monitoring viral levels, thereby facilitating effective management of this infectious disease.

Keywords: Calves; Treatment; Digestive and Respiratory Organs; Antiviral Agent; Rotavirus; Treatment  

 


Full Text:

PDF

References


Baryshnikov PI. Veterinary virology: A textbook. 2006, Izd-vo AGAU.

Buienbayeva ZK, Latypova ZA, Issakulova BZ, Bakiyeva FA, Namet AM, Valdovska A. Development of veterinary and sanitary measures for the prevention of pasteurellosis infection in cattle: The case of the Republic of Kazakhstan. International Journal of Veterinary Science, (2024); 13(2): 164-171.

Turgenbayev K, Abdybekova A, Borsynbayeva A, Kirpichenko V, Karabassova A, Ospanov Y, Mamanova S, Akshalova P, Bashenova E, Kaymoldina S, Turkeev M, Tulepov B. Development and planning of measures to reduce the risk of the foot-and-mouth disease virus spread (case of the Republic of Kazakhstan). Caspian Journal of Environmental Sciences, (2023); 21(3): 561-573.

Reshetnikova TI, Zenkin AS, Krylova TG. Experimental Use of the Triazavirin Antiviral Medication in Conditions of Group Administration at the Pig-Breeding Unit. Advances in Life Sciences, (2021); 8(4), 381-386.

Gorelov AV, Ploskireva AA, Tkhakushinova NKh. Clinical and virological assessment of the effectiveness of an interferon inducer containing antibodies to gamma interferon in a release-active form in the treatment of acute viral intestinal infections. Infektsionnye bolezni, (2012); 10: 3-7.

Kritskaya AI. Comparative treatment regimens for calves with rotavirus infection. Modern achievements in veterinary medicine: materials of an All-Russian research and practice conference for students, graduate students, Ph.D. students, and young researchers, (2018); 71-73.

Kypilenko AN, Kpypalnik BL. Infectious diseases of young farm animals. 2000, Kolos.

Maerle AV, Sergeev IV, Alekseev LP. The immuno-PCR method: prospects for use. Immunologiya, (2014); 1: 44-48.

Mikhailova EV, Danilov AN, Levin DYu. Clinical and laboratory characteristics of viral diarrhea and antiviral therapy. Detskie infektsii, (2012); 11: 44-48.

Molev AI, Sochnev VV, Blokhin AA. Clinical and morphological manifestation of rotavirus infection in newborn calves. Voprosy normativno-pravovogo regulirovaniya v veterinarii, (2014); 2: 33-37.

Constable PD, Hinchcliff KW, Done SH, Grünberg W. Veterinary Medicine: A textbook of the diseases of cattle, horses, sheep, pigs, and goats (11th ed.).2017, Elsevier.

Hodgson PD, Aich P, Manuja A, Hokamp K, Roche FM , Brinkman FS, Potter A, Babiuk LA, Griebel PJ. Effect of stress on viral–bacterial synergy in bovine respiratory disease: novel mechanisms to regulate inflammation. Comparative and functional genomics, (2005); 6: 244-250.

Ramig RF. Systemic rotavirus infection. Expert review of anti-infective therapy, (2007); 5(4): 591-612.

Ryazantsev DYu, Voronina DV, Zavriev SK. Immuno-PCR: achievements and prospects. Uspekhi biologicheskoi khimii, (2016); 56: 377-410.

Babu B, Washburn BK, Ertek TS, Miller SH, Riddle CB, Knox GW, Ochoa-Corona FM, Olson J, Katırcıoğlu YZ, Paret ML. A field-based detection method for Rose rosette virus using isothermal probe-based Reverse transcription-recombinase polymerase amplification assay. Journal of Virological Methods, (2017); 247: 81-90.

Bartlett JM, Stirling D. A short history of the polymerase chain reaction. Methods in molecular biology (Clifton, N.J.), (2003); 226: 3-6.

Fei Ma, Liu M, Tang B, Zhang Ch-Y. Sensitive quantification of microRNAs by isothermal helicase-dependent amplification. Analytical chemistry, (2017); 89: 6182-6187.

Hernandez-Rodriguez P, Ramirez AG. Polymerase chain reaction: types, utilities and limitations. Polymerase chain reaction. InTech, (2012); 566.

McPherson MJ, Moller SG. PCR (The basics) (2nd ed.). 2006, Taylor & Francis Group.

Seifi M, Ghasemi A, Heidarzadeh S, Khosravi M, Namipashaki A, Soofiany VM, Khosroshahi AA, Danaei N. Overview of real-time PCR principles. Polymerase chain reaction, InTech, (2012); 566.

Foglia EA, Pezzoni G, Bonilauri P, Torri D, Grazioli S, Brocchi E. A recent view about encephalomyocarditis virus circulating in compartmentalised animal population in Northern Italy. Scientific Reports, (2023); 13, 592.

Yadav P, Kumar A, Nath SS, Devasurmutt, Y, Shashidhar G, Joshi M, Puvar A, Sharma S, Raval J, Pandit R, Chavda P, Nagaraj S, Revanaiah Y, Patil D, Raval SK, Raval J, Kanani A, Thakar F, Kumar N, Manjunatha Reddy GB, Joshi Ch, Gulati BR, Tatu U. Unravelling the genomic origins of lumpy skin disease virus in recent outbreaks. BMC Genomics, (2024); 25, 196.

Pansri P, Katholm J, Krogh KM, Aagaard AK, Schmidt LMB, Kudirkiene E, Larsen LE, Olsen JE. Evaluation of novel multiplex qPCR assays for diagnosis of pathogens associated with the bovine respiratory disease complex.

Veterinary Journal, (2020); 256, 105425.

Zhanabayeva DK, Paritova AY, Murzakaeva GK, Zhanabayev AA, Kereev A, Asauova ZS, Aubakirov MZ. Pcr diagnosis for the identification of the virulent gene of salmonella in poultry meat. OnLine Journal of Biological Sciences, (2021); 21(3): 235–244.




DOI: http://dx.doi.org/10.62940/als.v11i3.3249

Refbacks

  • There are currently no refbacks.