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Specificity of serological test for detection of tuberculosis in cattle, goats, sheep and pigs under different epidemiological situations

BMC Veterinary Research volume 15, Article number: 70 (2019) Cite this article

Abstract

Background

Serum antibody detection has potential as a complementary diagnostic tool in animal tuberculosis (TB) control, particularly in multi-host systems. The objective of the present study was to assess the specificity (Sp) of an enzyme-linked immunosorbent assay (ELISA) based on the new multiprotein complex P22 for the detection of specific antibodies against the Mycobacterium tuberculosis complex (MTC) in the four most relevant domestic animals acting as MTC hosts: cattle, goat, sheep and pig. We used sera from an officially TB-free (OTF) country, Norway, and from a non-OTF one, Spain. The samples included sera from goats that had been vaccinated against M. avium subsp. paratuberculosis (MAP) and sheep from a herd in which Corynebacterium pseudotuberculosis had been isolated.

Results

In cattle, the Sp ranged from 92.5 (IC95% 90.7–94) to 99.4% (IC95% 98.3–99.8) depending on the cut-off used and the origin of the samples (Spain or Norway). Sp in cattle (cut-off point 100) was significantly higher (P < 0.05) for Norwegian samples. By contrast, Sp in goats was consistently low at the 100 cut-off [30.9 (CI95%23.4–39.5)-78% (CI95% 68.9–85)]. A higher cut-off of 150 improved Sp in Norwegian goats [97% (CI95% 91.6–99)], but still yielded a poor Sp of 56.1% (CI95% 47.3–64.6) in Spanish goats. In Norway at the 100 cut-off the Sp was 58.3 (CI95% 42.2–72.9) and 90.6% (CI95% 81–95.6) in MAP vaccinated and non-vaccinated goats, respectively, indicating interference due to MAP vaccination. Sp in sheep was between 94.4 (CI95% 91.7–96.3) and 100% (CI95% 96.3–100) depending on the cut-off and country, and no diagnostic interference due to infection with C. pseudotuberculosis was recorded. Sp in pigs was 100%, regardless the cut-off point applied, and no significant differences were observed between pigs from Norway and from Spain.

Conclusions

Due to its excellent Sp in pigs and acceptable Sp in cattle and sheep, this ELISA may constitute a suitable option for TB screening at herd level, particularly in OTF-countries.

Background

Animal tuberculosis (TB) is caused by infection with members of the Mycobacterium tuberculosis complex (MTC), mainly M. bovis and M. caprae. This microorganism has a wide host range and involves a risk for human health [1, 2]. In cattle, TB is subjected to eradication programs but it is not only a problem for cattle; the infection has been reported in many domesticated animals and in free or captive wildlife [3, 4]. The prevalence of TB in cattle in Spain kept constant the last decade and has increased slightly in recent years [5]. The lack of recent progress of the eradication program is due to particular epidemiological characteristics [6, 7], including the role of domestic and wild reservoirs [8] and the inherent limitations of the in vivo and in vitro diagnostic techniques [9, 10]. The role of host species other than cattle, including goats, sheep and pigs, as well as badgers (Meles meles), wild boar (Sus scrofa) and deer of the subfamily cervinae, is regarded as crucial for MTC maintenance in multi-host systems [8, 11,12,13,14,15]. Consequently, TB control in cattle should not remain unaware of the TB status in other hosts. Therefore, the correct diagnosis of infected animals of different species becomes a need for improved TB control.

Official diagnostic tests used in cattle TB eradication schemes are based on cell mediated immunity (skin test and IFN-γ release assay, IGRA). However, there are several studies that highlight the potential of serology as a complementary diagnostic tool since new strategies and diagnostic tests are needed in order to improve the detection of infected animals, particularly in multi-host systems [9, 10]. In fact, it is possible to increase the sensitivity of the detection of positive cattle through the parallel interpretation of different tests that detect the humoral immune response (serology) and the cellular immune response [9]. In this context, serology is a fast, inexpensive alternative that allows retrospective studies and to process large numbers of samples. Several studies propose serodiagnosis as a useful screening tool for detecting infected animals in domestic species: goats [16], sheep [12], cattle [9] and pigs [17]. For this reason, new antigens and enzyme-linked immunosorbent assay (ELISA) platforms are being developed, including an in-house ELISA developed in our laboratory based on a multiprotein complex named P22 obtained by affinity chromatography from purified protein derivative of M. bovis (bPPD) and comprised mainly by cell surface proteins MPB70 and MPB83 [18]. This ELISA has been tested in a high prevalence cattle herd with promising results: the sensitivity was 87% (IC95% 80.3–92.5) and the combination of IGRA and P22 ELISA increased sensitivity to 98% (IC95% 92.5–99.1) [9]. In goats, the P22 ELISA showed a sensitivity of 85.3% (IC95% 76.1–91.4) before intradermal PPD injection and 100% (IC95% 97–100) when samples were obtained 15 days after the skin test [16]. However, no information about its Sp in cattle, goats or sheep has been reported, and data on Sp in pigs is limited to one study reporting 100% Sp for a sample of 88 known-negative pigs [17].

The aim of the present study was to evaluate the Sp of this ELISA based on the new multiprotein complex P22 for the detection of specific antibodies against MTC in the four most relevant domestic animal species acting as MTC hosts: cattle, goat, sheep and pig.

Methods

Study population

We used sera from an officially TB-free (OTF) country, Norway, and from a non-OTF one, Spain. The study was performed retrospectively with samples from cattle, goat, sheep and pig sera collected from different herds in Norway and Spain. The number, origin and characteristics of the sera used in this study are summarized in Table 1. No experimental animals were used in this study, and all handling and sampling of animals were carried out in accordance with local legislation (Royal Decree 53/2013 in Spain and The Animal Welfare Act in Norway).

Table 1 Number, origin and characteristics of serum samples tested with the P22 ELISA
Full size table

Norway is OTF and all samples from Norway were considered TB-free. The samples were collected as part of the surveillance programs for bovine virus diarrhea (BVD) (cattle), Brucella melitensis (goat), maedi (sheep) or specific viral infections (pigs) in Norway in 2015 (cattle, goats and sheep) or 2013 (pigs). Evaluation of the ELISA was carried out in 500 serum samples from cattle, 100 samples from sheep and 100 samples from pigs randomly submitted from herds. For Norwegian goats (n = 100), the Sp was calculated using 64 samples from counties where vaccination against M. avium subsp. paratuberculosis (MAP) was not used and 36 samples from counties where goats might have been vaccinated (Gudair; CZ Veterinaria, Porriño, Spain).

In Spain (non-OTF), the study was performed in herds without previous outbreaks of TB. All herds were considered as TB-free by the regional authorities on the basis of negative results in routine TB-diagnostic tests (skin tests and IGRA) and the absence of detection of TB-compatible lesions in abattoir inspection for more than 5 years. Cattle samples included 1014 animals. All goats (n = 123) had been vaccinated against MAP with a single-dose of 1 ml of Gudair. Cornynebacterium pseudotuberculosis was isolated sporadically in the sheep herd (n = 395).

Serum sample collection

All serum samples were originally obtained by jugular (goats and sheep), caudal (cattle) or orbital sinus (pigs) venipuncture into serum separation tubes. Samples were centrifuged (1500 g for 10 min) and sera stored at − 20 °C until testing for the detection of MTC antibodies.

M. bovis indirect ELISA

An in-house indirect ELISA that detects antibodies against a protein complex named P22, purified by affinity chromatography from bovine PPD [CZ Veterinaria (Porriño, Spain)] was developed. The ELISA was performed as described previously [9]. Briefly, plates were coated with P22 and then blocked with 5% skimmed milk powder solution in PBS. After three washes with PBS plus 0.05% Tween 20 (PBST), sera were added in duplicate at 1:100 dilution in skimmed milk and incubated for 60 min at 37 °C. Secondary antibody was used as reflected in Table 2 and incubated at room temperature (22–24 °C). The optimal dilution of secondary antibody was chosen based on previous titration of the antibody from 1:500 to 1:32000 in two fold dilutions and then the optimal dilution and time to develop the color were chosen for each specie. Colour was developed by adding 100 μl of o-phenylenediamine dihydrochloride substrate (FAST OPD, Sigma–Aldrich, St Louis, USA) incubated in the dark at room temperature. The reaction was stopped with 50 μl of H2SO4 (3 N) and the optical density (OD) was measured at 492 nm with an ELISA reader.

Table 2 Time of incubation, dilution and manufacturer of secondary antibody and developing time used in the P22 ELISA
Full size table

Negative control sera from each species were obtained from TB-free animals previously described as MTC culture negative. These controls were included in every plate in quadruplicate. Positive controls were obtained from animals previously described as MTC-infected by culture. Sample results were expressed as an ELISA percentage (E %), calculated by the following formula: [sample E% = (mean sample OD/ 2 x mean of negative control OD) × 100]. Cut-off value was defined as the ratio of the mean sample OD to the double of mean OD of the negative control. Two cut-off points were set-up to calculate specificity (Sp): E% > 100 and E% > 150.

M. avium subsp. paratuberculosis ab test (IDEXX, Maine, USA)

The M. avium subsp. paratuberculosis Ab Test detects antibodies against a protein extract of the mycobacteria. The ELISA was performed following the manufacturer’s instructions. Results were presented as S/P following: (sample OD - mean kit negative control) / (mean kit positive control - mean kit negative controls ODs) × 100. Samples with S/P ratios greater than or equal to 55% were considered positive.

Statistical analysis

Statistically significant differences were evaluated using Pearson Chi-Square or Mann-Whitney U tests and 95% Wilson confidence intervals for Sp were calculated. The proportion positives observed in each herd or group (e.g. vaccinated vs. non-vaccinated) was compared by Pearson’s Chi-square test and Fisher’s exact test. The statistical analyses were carried out using SPSS Statistics 20 (IBM, New York, NY, USA) and interpreted considering a p-value of 0.05 to determine statistical significance.

Results

The results of the ELISA evaluated in this study in animals from both Norway and Spain are summarized in Table 3. Inter-herd differences were only studied in Spain since Norwegian samples were randomly selected from many herds and few samples from each herd were available.

Table 3 Specificity and 95% Wilson’s confidence intervals of the P22 ELISA for detecting antibodies against the Mycobacterium tuberculosis complex at two cut-off points in different host species from Norway (A) and Spain (B)
Full size table

Cattle

In cattle, the Sp ranged from 92.5 (IC95% 90.7–94) to 99.4% (IC95% 98.3–99.8) depending on the cut-off used and the origin of the samples (Spain or Norway). Specificity in cattle (cut-off point 100) was significantly (p = 0.0034) higher for Norwegian samples. However, when the cut-off point was set at 150 no significant differences were observed (p = 0.0557). The median E% value was higher in Norway (68; IQR 24.7) than in Spain (61.5; IQR 29) and significant differences were observed (M-W; U = 213,574; p < 0.001) (Fig. 1). Regarding cattle in Spain, the Sp varied depending on the herd. In general, Sp ranged from 95 to 99% in 8 herds. However, the Sp was lower in two herds (82 and 65%) and this reduced the overall Sp. The Sp observed in herd 8 (65.5%; IC95% 47.3–80) was significantly lower than the Sp in all other herds (1–7 and 9) (p < 0.001). Moreover, the Sp observed in herd 9 (82.1%; IC95%79.4–89.4) was significantly lower than herds 1–6 (p < 0.001). Increasing the cut-off to 150% solved the lack of Sp in these herds and no significant differences were observed. In addition, 186 animals from Spain were tested against MAP antibodies, the 76 animals positive to the TB ELISA test and 110 animals negative to the TB ELISA, randomly selected. Only one animal was positive to the MAP antibody test, belonging to the P22 negative group. Therefore, no animals with antibodies against P22 were positive to MAP.

Fig. 1
figure 1

E% calculated in the P22 ELISA of different species from Norway and Spain. Boxes represent the lower, median and higher quartile ranges and outliers are represented by closed circles. The dashed lines represent the cut-off point 100 and 150%. *Significant differences observed between groups (Mann-Whitney U tests)

Full size image

Goats

Specificity in goats was consistently low at the 100 cut-off (30.9–78%). The severe cut-off of 150 improved Sp in Norwegian goats (97%; CI95% 91.6–99), but still yielded a poor 56.1% (CI95% 47.3–64.6) in Spanish goats. There were significant differences in the number of positive goats between Norway and Spain regardless of the cut-off (p < 0.001). Regarding the median value, opposite results were obtained in goats compared to cattle. In Spain the median was higher than in Norway [105.3 (IQR 100.6) and 84.5 (IQR 36.6) respectively) and a higher dispersion was observed (M-W; U = 2666; p = 0.018). No significant differences were observed between goat herds in Spain. Regarding MAP vaccination of goats in Norway, the Sp was 58.3 (CI95% 42.2–72.9) in counties where vaccination might have been carried out and 90.6% (IC95% 81–95.6) in counties where vaccination was not in use, respectively (p = 0.002). When the alternative 150 cut-off for the ELISA was used, no significant differences were observed between groups (p = 0.294). In addition, the 100 goats from Norway were tested against MAP antibodies. Goats from non-vaccinated counties were negative to the test and only 7 animals out of 36 from counties where vaccination might have been carried out were positive. These seven animals were also positive to P22 ELISA.

Sheep

Specificity in sheep was between 94.4 (IC95% 91.7–96.3) and 100% (IC95% 96.3–100) depending on the cut-off and country. The median E% in sheep was lower than in cattle and goats both in Spain (67.6; IQR 26) and in Norway (60.3; IQR 26.8) and no significant differences between countries were observed (M-W; U = 17,479; p = 0.081).

Pigs

No pig tested positive either in Norway or in Spain, regardless the cut-off point applied. No significant differences were observed between pigs from Norway and from Spain. Although all pigs were negative and Sp was 100% in Norway and Spain, the median value was higher in Spain (50.9; IQR 13) than in Norway (36.3; IQR 15.70) and significant differences were observed (M-W; U = 273; p < 0.001). No significant differences between the two herds sampled in Spain were observed.

Discussion

In this study we have evaluated the Sp of the P22 ELISA for the detection of MTC-specific antibodies. We found that optimal Sp (100%) was observed in pigs, whilst in cattle and sheep the ELISA had high Sp values (≥98%) using a stringent cut-off (150). Although the flock of sheep was infected with C. pseudotuberculosis, no evidence of interference in the serological test was observed. Contrarily, the vaccination against MAP in goats caused significant cross reactions in TB diagnosis by serology. These findings are relevant in the context of TB surveillance, especially in OTF-regions.

Previously, we assessed the sensitivity of the test in high prevalence settings of cattle and goats with promising results [9, 16]. However, no information about Sp was reported. Deciding which accuracy is acceptable and whether one prefers a higher Sp but lower sensitivity or vice versa is not straightforward. High Sp is desired in low prevalence diseases such as TB, where a false negative animal is generally preferred over a false positive one. Specificity can be modified by adjusting the cut-off value, albeit at the likely expense of sensitivity. In our particular case, the increase of the cut-off to 150% (severe cut-off) reduced the Se in cattle and goats. However, it yielded an acceptable Se of 64.5 and 75.6% in cattle and goats, respectively [9, 16]. Thus, the cut-off point must be adjusted in different epidemiological situations, and consequently vary between regions.

The P22 ELISA in cattle showed an acceptable Sp (98–99.4%) depending on the cut-off used compared with previous studies. Serological tests in cattle reported Sp ranging between 69.7 and 100% depending on the test, antigen and criteria applied [19,20,21]. The highest Sp was reported with the IDEXX M. bovis Ab test, the only official antibody test for TB approved by the OIE, yielding a Sp between 98 and 100% [20, 21].

In goats our ELISA yielded poor Sp, even in non-vaccinated herds (90.6%). There are few studies reporting sensitivity and specificity of serological test in goats. The existing serological tests for goats showed Sp values from 88 to 100% [22,23,24]. In this sense, the results of P22 ELISA were consistent with previous studies. It was surprising that the ELISA had low Sp in goats compared with other species. The prevalence of MAP in goats is high in Europe, including Spain [25]. In Norway, an eradication programme has been in force since 2004. Sporadic MAP cases have been reported and no MAP positive cases were detected since 2015 [26]. However, undetected infected goat herds, together with import of infected animals, may still pose a threat to Norwegian ruminants. Together with the effect of MAP vaccination, the influence of MAP infection on the test Sp should be further investigated.

Regarding sheep, little information was available in the bibliography since sheep were not considered relevant in TB epidemiology until recently [12]. Only one serological test was reported, with a Sp of 37.5% when bacteriological culture was used as gold standard and 50% when histopathology was used as gold standard [12]. This lack of Sp was explained by MAP infection. In this regard, the ELISA described here offer a higher Sp.

Finally, antibody detection tests in pigs have, in general terms, good performance and yielded similar Sp than P22 ELISA (between 98.9 and 100%) [17]. It is known that serological tests in suids are more accurate than in other species [17, 27]. The ELISA described here has a Sp similar to other tests in cattle, goats and pigs and higher Sp in sheep. However, additional studies for sheep in different epidemiological situations are needed.

Certain factors may affect the TB diagnostic performance, such as sensitization with bPPD, exposure to environmental mycobacteria, coinfection or vaccination for MAP, and infection with C. pseudotuberculosis. In cattle it has been proposed that injection with bPPD may affect the level of antibodies against bPPD [28]. We found significant differences between cattle from Norway and Spain. The main difference between the countries is that Spain is not an OTF country and cattle are subjected to an eradication program based basically on bPPD skin testing. The ELISA showed in cattle significant lower Sp values in Spain. This could be due to a bPPD-mediated sensitization [21, 28]. However, it could also be due to more frequent contact of Spanish cattle with environmental mycobacteria [20, 29]. Similar diagnostic interferences have been recorded regarding MAP diagnosis in goats [30, 31]. Our results support the view that vaccination against MAP strongly impacts on ELISA Sp since significant lower Sp was observed in vaccinated goats [29, 32, 33].

Some studies have suggested that C. pseudotuberculosis infection can interfere in TB diagnosis due to the similar antigenic compounds shared with mycobacteria included in MTC [34]. However, no significant differences between sheep from Norway and Spain were observed, despite C. pseudotuberculosis presence in the Spanish sheep herd. Hence, infection with C. pseudotuberculosis does not necessarily interfere in the diagnostic of TB by detection of antibodies in sheep. Similar results were observed in cellular mediated immunity-based tests [35].

Due to its excellent Sp in pigs and acceptable Sp in cattle and sheep, the ELISA may constitute a good option for TB screening at herd level, especially if interference by non-MTC bacteria is low or absent. In addition, serology could be used as surveillance technique for detection of specific antibodies against MTC in countries that are officially TB-free due to its high Sp and its advantages (i.e., simplicity, low cost, and requirement of minimum resources).

Conclusions

In conclusion, the P22 ELISA, particularly in pigs, cattle or sheep, could be a cost effective, rapid and reliable tool for the screening of TB at herd level, especially in OTF countries.

Abbreviations

bPPD:

Purified protein derivative of M. bovis

IGRA:

IFN-γ release assay

MAP:

Mycobacterium avium complex

MTC:

Mycobacterium tuberculosis complex

OD:

Optical density

OTF:

Officially TB-free

PTB:

Paratuberculosis

Sp:

Specificity

TB:

Tuberculosis

References

  1. O'Reilly LM, Daborn CJ. The epidemiology of Mycobacterium bovis infections in animals and man: a review. Tuber Lung Dis. 1995;76(Suppl 1):1–46.

    Article  Google Scholar 

  2. Morris RS, Pfeiffer DU, Jackson R. The epidemiology of Mycobacterium bovis infections. Vet Microbiol. 1994;40(1–2):153–77.

    CAS  Article  Google Scholar 

  3. Pesciaroli M, Alvarez J, Boniotti MB, Cagiola M, Di Marco V, Marianelli C, Pacciarini M, Pasquali P. Tuberculosis in domestic animal species. Res Vet Sci. 2014;97(Suppl):S78–85.

    Article  Google Scholar 

  4. Fitzgerald SD, Kaneene JB. Wildlife reservoirs of bovine tuberculosis worldwide: hosts, pathology, surveillance, and control. Vet Pathol. 2013;50(3):488–99.

  5. Informe final técnico del programa nacional de la tuberculosis bovina. [https://www.mapa.gob.es/es/ganaderia/temas/sanidad-animal-higiene-ganadera/informefinaltecnicotb2017_tcm30-496047.pdf ].

  6. Reviriego Gordejo FJ, Vermeersch JP. Towards eradication of bovine tuberculosis in the European Union. Vet Microbiol. 2006;112(2–4):101–9.

    CAS  Article  Google Scholar 

  7. Allen AR, Skuce RA, Byrne AW. Bovine tuberculosis in Britain and Ireland - a perfect storm? The confluence of potential ecological and epidemiological impediments to controlling a chronic infectious disease. Front Vet Sci. 2018;5:109.

    CAS  Article  Google Scholar 

  8. Gortazar C, Fernandez-Calle LM, Collazos-Martinez JA, Minguez-Gonzalez O, Acevedo P. Animal tuberculosis maintenance at low abundance of suitable wildlife reservoir hosts: a case study in northern Spain. Prev Vet Med. 2017;146:150–7.

    CAS  Article  Google Scholar 

  9. Casal C, Infantes JA, Risalde MA, Diez-Guerrier A, Dominguez M, Moreno I, Romero B, de Juan L, Saez JL, Juste R, et al. Antibody detection tests improve the sensitivity of tuberculosis diagnosis in cattle. Res Vet Sci. 2017;112:214–21.

    CAS  Article  Google Scholar 

  10. Waters WR, Vordermeier HM, Rhodes S, Khatri B, Palmer MV, Maggioli MF, Thacker TC, Nelson JT, Thomsen BV, Robbe-Austerman S, et al. Potential for rapid antibody detection to identify tuberculous cattle with non-reactive tuberculin skin test results. BMC Vet Res. 2017;13(1):164.

    Article  Google Scholar 

  11. Gortázar C, Che Amat A, O'brien DJ. Open questions and recent advances in the control of a multi-host infectious disease: animal tuberculosis. Mammal Rev. 2015;45(3):160–75.

    Article  Google Scholar 

  12. Munoz-Mendoza M, Romero B, Del Cerro A, Gortazar C, Garcia-Marin JF, Menendez S, Mourelo J, de Juan L, Saez JL, Delahay RJ, et al. Sheep as a potential source of bovine TB: epidemiology, pathology and evaluation of diagnostic techniques. Transbound Emerg Dis. 2016;63(6):635–46.

    CAS  Article  Google Scholar 

  13. Bailey SS, Crawshaw TR, Smith NH, Palgrave CJ. Mycobacterium bovis infection in domestic pigs in Great Britain. Vet J. 2013;198(2):391–7.

    Article  Google Scholar 

  14. Zanardi G, Boniotti MB, Gaffuri A, Casto B, Zanoni M, Pacciarini ML. Tuberculosis transmission by Mycobacterium bovis in a mixed cattle and goat herd. Res Vet Sci. 2013;95(2):430–3.

    Article  Google Scholar 

  15. Balseiro A, Gonzalez-Quiros P, Rodriguez O, Francisca Copano M, Merediz I, de Juan L, Chambers MA, Delahay RJ, Marreros N, Royo LJ, et al. Spatial relationships between Eurasian badgers (Meles meles) and cattle infected with Mycobacterium bovis in Northern Spain. Vet J. 2013;197(3):739–45.

    Article  Google Scholar 

  16. Bezos J, Roy A, Infantes-Lorenzo JA, Gonzalez I, Venteo A, Romero B, Grau A, Minguez O, Dominguez L, de Juan L. The use of serological tests in combination with the intradermal tuberculin test maximizes the detection of tuberculosis infected goats. Vet Immunol Immunopathol. 2018;199:43–52.

    CAS  Article  Google Scholar 

  17. Cardoso-Toset F, Luque I, Carrasco L, Jurado-Martos F, Risalde MA, Venteo A, Infantes-Lorenzo JA, Bezos J, Rueda P, Tapia I, et al. Evaluation of five serologic assays for bovine tuberculosis surveillance in domestic free-range pigs from southern Spain. Prev Vet Med. 2017;137(Pt A):101–4.

    Article  Google Scholar 

  18. Infantes-Lorenzo JA, Moreno I, Risalde MLA, Roy A, Villar M, Romero B, Ibarrola N, de la Fuente J, Puentes E, de Juan L, et al. Proteomic characterisation of bovine and avian purified protein derivatives and identification of specific antigens for serodiagnosis of bovine tuberculosis. Clin Proteomics. 2017;14:36.

    Article  Google Scholar 

  19. Whelan C, Shuralev E, O'Keeffe G, Hyland P, Kwok HF, Snoddy P, O'Brien A, Connolly M, Quinn P, Groll M, et al. Multiplex immunoassay for serological diagnosis of Mycobacterium bovis infection in cattle. Clin Vaccine Immunol. 2008;15(12):1834–8.

    CAS  Article  Google Scholar 

  20. Waters WR, Buddle BM, Vordermeier HM, Gormley E, Palmer MV, Thacker TC, Bannantine JP, Stabel JR, Linscott R, Martel E, et al. Development and evaluation of an enzyme-linked immunosorbent assay for use in the detection of bovine tuberculosis in cattle. Clin Vaccine Immunol. 2011;18(11):1882–8.

    CAS  Article  Google Scholar 

  21. Casal C, Diez-Guerrier A, Alvarez J, Rodriguez-Campos S, Mateos A, Linscott R, Martel E, Lawrence JC, Whelan C, Clarke J, et al. Strategic use of serology for the diagnosis of bovine tuberculosis after intradermal skin testing. Vet Microbiol. 2014;170(3–4):342–51.

    Article  Google Scholar 

  22. Gutierrez M, Tellechea J, Garcia Marin JF. Evaluation of cellular and serological diagnostic tests for the detection of Mycobacterium bovis-infected goats. Vet Microbiol. 1998;62(4):281–90.

    CAS  Article  Google Scholar 

  23. Marassi C, Almeida C, Pinheiro S, Vasconcellos S, Lilenbaum W. The use of MPB70-ELISA for the diagnosis of caprine tuberculosis in Brazil. Vet Res Commun. 2009;33(8):937–43.

    Article  Google Scholar 

  24. O'Brien A, Whelan C, Clarke JB, Hayton A, Watt NJ, Harkiss GD. Serological analysis of tuberculosis in goats by use of the Enferplex caprine TB multiplex test. Clin Vaccine Immunol. 2017;24(2):e00518–6.

    CAS  Article  Google Scholar 

  25. EFSA: Assessment of listing and categorisation of animal diseases within the framework of the Animal Health Law (Regulation (EU) No 2016/429): paratuberculosis. In.; 2017.

  26. Kampen AH, Hermansen L, Agdestein A, Valheim M, Hopp P. In: Institute NV, editor. The surveillance programme for paratuberculosis in Norway 2015. Surveillance programmes for terrestrial and aquatic animals in Norway. Oslo: Annual report 2015; 2016.

    Google Scholar 

  27. Boadella M, Lyashchenko K, Greenwald R, Esfandiari J, Jaroso R, Carta T, Garrido JM, Vicente J, de la Fuente J, Gortazar C. Serologic tests for detecting antibodies against Mycobacterium bovis and Mycobacterium avium subspecies paratuberculosis in Eurasian wild boar (Sus scrofa scrofa). J Vet Diagn Investig. 2011;23(1):77–83.

    Article  Google Scholar 

  28. Waters WR, Palmer MV, Stafne MR, Bass KE, Maggioli MF, Thacker TC, Linscott R, Lawrence JC, Nelson JT, Esfandiari J, et al. Effects of serial skin testing with purified protein derivative on the level and quality of antibodies to complex and defined antigens in Mycobacterium bovis-infected cattle. Clin Vaccine Immunol. 2015;22(6):641–9.

    CAS  Article  Google Scholar 

  29. Coad M, Clifford DJ, Vordermeier HM, Whelan AO. The consequences of vaccination with the Johne's disease vaccine, Gudair, on diagnosis of bovine tuberculosis. Vet Rec. 2013;172(10):266.

    CAS  Article  Google Scholar 

  30. Kassa GM, Abebe F, Worku Y, Legesse M, Medhin G, Bjune G, Ameni G. Tuberculosis in goats and sheep in Afar pastoral region of Ethiopia and isolation of Mycobacterium tuberculosis from goat. Vet Med Int. 2012;2012:869146.

    Article  Google Scholar 

  31. Tschopp R, Bobosha K, Aseffa A, Schelling E, Habtamu M, Iwnetu R, Hailu E, Firdessa R, Hussein J, Young D, et al. Bovine tuberculosis at a cattle-small ruminant-human interface in Meskan, Gurage region, Central Ethiopia. BMC Infect Dis. 2011;11:318.

    Article  Google Scholar 

  32. Mackintosh CG, Labes RE, Griffin JF. The effect of Johne's vaccination on tuberculin testing in farmed red deer (Cervus elaphus). N Z Vet J. 2005;53(4):216–22.

    CAS  Article  Google Scholar 

  33. Roy A, Infantes-Lorenzo JA, Blazquez JC, Venteo A, Mayoral FJ, Dominguez M, Moreno I, Romero B, de Juan L, Grau A, et al. Temporal analysis of the interference caused by paratuberculosis vaccination on the tuberculosis diagnostic tests in goats. Prev Vet Med. 2018;156:68–75.

    Article  Google Scholar 

  34. Sharpe AE, Brady CP, Johnson AJ, Byrne W, Kenny K, Costello E. Concurrent outbreak of tuberculosis and caseous lymphadenitis in a goat herd. Vet Rec. 2010;166(19):591–2.

    CAS  Article  Google Scholar 

  35. Bezos J, Casal C, Romero B, Liandris E, Sanchez N, Vigo V, Dominguez L, de Juan L. Lack of interference with diagnostic testing for tuberculosis in goats experimentally exposed to Corynebacterium pseudotuberculosis. Vet J. 2015;205(1):113–5.

    Article  Google Scholar 

Download references

Acknowledgments

The authors would like to thank Ana Belén Martinez and Soledad Crespo for their technical assistance and Siv Klevar, Norwegian Veterinary Institute, for submitting pig samples to the present study. Permission was granted by the Norwegian Food Safety Authority to use sera collected for Norwegian surveillance programmes. The authors also thank María Luisa de la Cruz for her statistical support.

Funding

Jose Antonio Infantes-Lorenzo was supported by an FPU contract-fellowship (Formación de Profesorado Universitario) from the Ministerio de Educación, Cultura y Deporte of the Spanish Government (FPU2013/6000). Alvaro Roy is the recipient of an Industrial Doctorate contract (DI-15-08110) funded by the Spanish Ministry of Economy, Industry and Competitiveness (MINECO) and the European Social Fund. Javier Bezos is recipient of a Juan de la Cierva Incorporación research contract (IJCI-2015-24805) funded by the MINECO.

This work was supported by the Spanish Ministry of Agriculture, Fisheries and Food and the Instituto Nacional de Investigación y Tecnología Agraria y Alimentaria of Spain (RTA2015–00043-C02–02). This is a contribution to Plan Nacional de I + D + i grant CGL2017–89866 WILD-DRIVER. The funding body was solely involved in funding and had no role in the design of the study, the collection, analysis, and interpretation of the data, or in writing the manuscript.

Availability of data and materials

The datasets used and/or analysed during the current study are available from the corresponding author on reasonable request.

Author information

Authors and Affiliations

  1. VISAVET Health Surveillance Centre, Universidad Complutense de Madrid, Madrid, Spain

    J. A. Infantes-Lorenzo, L. de Juan, B. Romero, J. Bezos & L. Domínguez

  2. Departamento de Sanidad Animal, Facultad de Veterinaria, Universidad Complutense de Madrid, Madrid, Spain

    J. A. Infantes-Lorenzo, L. de Juan, J. Bezos & L. Domínguez

  3. Unidad de Inmunología Microbiana, Centro Nacional de Microbiología, Instituto de Salud Carlos III, Majadahonda, Madrid, Spain

    I. Moreno & M. Domínguez

  4. CZ Veterinaria S.A., Porriño, Pontevedra, Spain

    A. Roy & E. Puentes

  5. SaBio (Health and Biotechnology), Instituto de Investigación en Recursos Cinegéticos IREC (CSIC-UCLM-JCCM), Ciudad Real, Spain

    M. A. Risalde & C. Gortázar

  6. SERIDA, Servicio Regional de Investigación y Desarrollo Agroalimentario, Centro de Biotecnología Animal, Deva-Gijón, Asturias, Spain

    A. Balseiro

  7. Dpto. de Anatomía y Anatomía Patológica Comparadas, Agrifood Campus of International Excellence (ceia3), Universidad de Córdoba, Córdoba, Spain

    M. A. Risalde

  8. Norwegian Veterinary Institute, Sentrum, Oslo, Norway

    J. Åkerstedt & G. T. Tessema

Authors
  1. J. A. Infantes-Lorenzo
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  2. I. Moreno
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  3. A. Roy
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  4. M. A. Risalde
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  5. A. Balseiro
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  6. L. de Juan
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  7. B. Romero
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  8. J. Bezos
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  9. E. Puentes
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  10. J. Åkerstedt
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  11. G. T. Tessema
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  12. C. Gortázar
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  13. L. Domínguez
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  14. M. Domínguez
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Contributions

JIL, IM and MD performed the experiments, analyzed and interpreted the data and wrote the first draft of the manuscript. JIL, MAR, and JB were involved in interpreting the data. AR, LJ, AB, BR, JA, and GT obtained serum samples from animals. CG and LD analyzed the data and revised the manuscript. JIL, CG and MD designed the study, analyzed the data, and revised the manuscript. MAR, JB, AB, EP, GT and JA critically revised the manuscript. All authors have read and approved the final manuscript.

Corresponding author

Correspondence to C. Gortázar.

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Competing interests

The authors Puentes, E. and Roy, A. are employees in CZ Veterinaria S. A, the owner of the Patent METHODS AND COMPOSITIONS FOR TUBERCULOSIS DIAGNOSIS (EP3330286). None of the other authors of this paper have a financial or personal relationship with other people or organizations that could inappropriately influence or bias the content of the paper.

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Infantes-Lorenzo, J.A., Moreno, I., Roy, A. et al. Specificity of serological test for detection of tuberculosis in cattle, goats, sheep and pigs under different epidemiological situations. BMC Vet Res 15, 70 (2019). https://doi.org/10.1186/s12917-019-1814-z

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  • DOI: https://doi.org/10.1186/s12917-019-1814-z

Keywords

  • Animal tuberculosis
  • Cattle
  • Goat
  • P22
  • Pig
  • Serum antibodies
  • Sheep

BMC Veterinary Research

ISSN: 1746-6148

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