Indian Journal of Animal Research

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Research Article

Indian Journal of Animal Research, volume 56 issue 8 (august 2022) : 978-986

Mixed Infection of Tick-borne Haemo-parasites in Water Buffalo and Associated Pathological Responses and Treatment

Pankaj Kumar1,*, Prabhas Kumar2, Rama Krishna Roy3, Rashmi Rekha Kumari4, Abhay Kumar1, Kamal Sarma1, Paresh Sharma5, Manish Kumar6
1ICAR-Research Complex for Eastern Region, P.O. B.V. College, Patna-800 014, Bihar, India.
2Department Animal and Fish Resources, Patna-800 014, Bihar, India.
3Krishi Vigyan Kendra, Gopalganj, Sipaya-841 501, Bihar, India.
4Department of Veterinary Pharmacology and Toxicology, Bihar Veterinary College, Bihar Animal Sciences University, Patna-800 014, Bihar, India.
5National Institute of Animal Biotechnology, Hyderabad-500 032, Telangana, India.
6Department of Biosciences and Bioengineering, Indian Institute of Technology, Guwahati-781 039, Assam, India.
Cite article:- Kumar Pankaj, Kumar Prabhas, Roy Krishna Rama, Kumari Rekha Rashmi, Kumar Abhay, Sarma Kamal, Sharma Paresh, Kumar Manish (2022). Mixed Infection of Tick-borne Haemo-parasites in Water Buffalo and Associated Pathological Responses and Treatment . Indian Journal of Animal Research. 56(8): 978-986. doi: 10.18805/IJAR.B-4450.

ABSTRACT

Background: Water buffaloes are important milch species of tropical and subtropical countries. In general, they are considered to more resistant to diseases compared to crossbred cattle. However, a recent problem of tick-borne diseases in the water buffaloes by the field veterinarians and farmers causing production losses was observed. The study was conducted to explore the spectrum of tick-borne diseases (TBDs) infections in buffaloes and analyze the associated risk factors. 

Methods: Acute-phase response, cytokine and oxidative stress in infected buffaloes with TBDs were evaluated and compared with the negative buffaloes (control) to elucidate their role in pathogenesis and outcome of infection. The study was undertaken in 107 tick-infested water buffaloes. The conventional Giemsa stained blood smear (GSBS) based confirmation and classification of infection of haemo-parasites were made. The statistical model was used to understand their relevance with TBDs. 

Conclusion: Tick-borne disease in water buffaloes must be looked upon seriously to maintain good productivity. The buffaloes are often accompanied by low and un-yielding clinical symptoms due to associated co-infections of haemo-parasites. Our study showed that the buffaloes had a high prevalence (47.66%) of haemo-parasites transmitted by the ticks associated with co-infections and a low level of parasitemia. Most buffaloes responded symptomatically with the different modalities administered. Production parameter was not restored post 15 days of treatment. Oxidative stress is one of the important mechanisms of production losses in infected buffaloes.

INTRODUCTION

Tick-borne diseases (TBDs) of bovine are of immense concern to livestock farmers. Among different TBDs, buffaloes in the tropical region can suffer from anaplasmosis, theileriosis and babesiosis depending on the association of the type of vector ticks. In general, the distribution of different types of ticks in the region affecting bovine includes Hyalomma spp., Boophilus spp., Rhipicephalus spp., Haemophysalis spp., etc. (Ghosh et al., 2006). These ticks play a central role in transmitting many TBDs of bovine, causing substantial economic losses. TBDs often remain subclinical and are associated with multiple pathogens. It renders diagnosis difficult and unyielding based on the clinical symptoms which is the essential tool for farmers to present the animal for veterinary examination. Economic losses from TBDs are due to high mortality rates, reduced milk production and body condition loss due to anemia or stress. An estimated loss from TBDs in cattle is around 498.7 million US$ per annum (Minjauw and Mc Leod 2003). Buffaloes are considered comparatively resistant to TBDs than exotic and crossbred cattle due to many intrinsic and extrinsic factors (Ponnudurai et al., 2017). Indian farmers have indicated a positive trend towards buffalo rearing in most parts of the country. There has been a 31.23% increase in the buffalo population mostly in rural areas from 2003 to 2012. The 2019 livestock census showed a 1.06% increase in the buffalo population compared to 2012 livestock census data, DAHD, Government of India (Basic Animal Husbandry Statistics, 2019). In India, the prevalence of theileriosis and babesiosis in bovine has been documented in most parts of the country, while anaplasmosis is constrained to only some parts of the country (Ghosh et al., 2006). In the middle Indo-Gangetic plains of Bihar, established reports of co-infection (Prabhakaran et al., 2021). Contemplating these, we intended to explore the prevalence of TBDs in buffaloes based on conventional methods and analyze the associated risk factors. Acute phase and oxidant-antioxidant response in TBD infected buffaloes were evaluated and compared with the negative buffaloes (control) to elucidate their role in pathogenesis and outcome of infection.

MATERIALS AND METHODS

Ethics
 
The study involved drawing of 6 ml blood from jugular vein aseptically from buffaloes with the consent of the owners. These buffaloes were either brought for treatment to veterinary hospitals or as a call for treatment at the farmer’s door by the local veterinarian. There are no specific ethical guidelines for a blood sample collection from clinical cases, and hence no prior approval was mandatory. Treatment was provided to all buffaloes under the study.
 
Study area and sampling
 
The study has been conducted in peri-urban blocks of the middle Indo-Gangetic plains from Jan 2018 to Jan 2019. The study area’s selection has been made considering the inputs of the veterinarians working in the state government hospitals. These areas have a higher demand for buffalo milk due to a higher fat percentage and proximity with the state capital market. The blood samples of selected buffaloes collected from the farmer’s door, veterinary hospitals or directly sent to the laboratory for investigation. The buffaloes selected were either suffering from persistent fever and/or not responding to conventional antibiotics. Besides, buffaloes with tick infestation and/or recently purchased from the common market place and/or have any overt signs like fever, inappetence, lacrimation, enlarged peripheral lymph node, red urine, respiratory distress, corneal opacity and history of decreased milk production were also selected. Blood samples in both K2EDTA vacutainer (J K Diagnostics®) and BD Vacutainer® serum collection tubes were aseptically collected from 107 adult female lactating buffaloes suspected to suffer from TBDs. Ticks were also collected from infested animals and stored in a glass vial with muslin cloth covering for identification based on morphology (Kaiser and Hoogstraal, 1964; USDA, 1976). A pre-tested questionnaire was used to collect the data from the farmers on management practices, frequency of acaricidal used, grazing pattern, disease history, etc. 
 
Sample processing
 
Serum was harvested from the blood and stored at -20°C for biochemical estimations and enzyme-linked immunosorbent assay (ELISA). The haematological and blood smear examination was completed on the same day, whereas the biochemical parameters were done within two days of sampling. Before the analysis, frozen serum samples were thawed at room temperature for 30 min and gently homogenized. 
Diagnosis of TBDs
 
Thin blood and lymph node smears were prepared and fixed in methanol for 5 min and stained by 10% Giemsa. Two blood smears were made from each sample and a minimum of 100 fields of each stained blood smear was examined under oil immersion to determine parasitemia. The level of parasitemia was rated on the percentage of RBCs parasitized and calculated based on the method described by Haron et al., (2014). These were categorized as low (less than 1% parasitized RBCs), mild (1-3% parasitized RBCs) and high (>3% parasitized RBCs). The samples which were negative for haemo-parasite in duplicate slides were considered negative.
 
Biochemical and haematological estimation
 
The total protein concentration (g/dL) in serum samples was measured spectrophotometrically (550 nm wavelength) by the Biuret method using a commercial kit from the Coral clinical system, Goa, India. Serum aspartate aminotransferase (AST/GOT) and alanine aminotransferase (ALP/GPT) enzymes were estimated using methods described in the commercial kits procured from Span diagnostics Ltd. Surat, India and expressed in U/L.
       
The haemoglobin (Hb) concentration (g/dL) in the blood was measured using HemoCue® cuvettes and its analyzer.
 
Acute-phase response protein, cytokine and cortisol
 
Serum amyloid A (SAA) was estimated to understand the acute phase response to inflammation and tissue injury. The estimation was carried out using a commercial diagnostic bovine ELISA kit (G-Biosciences, USA) with a detection range of 3.125-200 mg/mL. Similarly, bovine tumor necrosis factor-alpha (TNF-a) is a potent multifunctional cytokine estimated in serum using a commercial ELISA kit (G-Biosciences, USA). Serum cortisol level as an indicator of stress, infection and adrenal function was estimated in serum using a commercial diagnostic bovine ELISA kit (G-Biosciences, USA).
       
All samples were assayed in duplicate and the optical density (OD) was recorded at 450 nm using a microplate reader (Electronic Corporation of India, Hyderabad).
 
Oxidant and antioxidant
 
Lipid peroxidation (LPO) as malondialdehyde (MDA) were assessed using commercial bovine ELISA kits (G-Biosciences, USA) and antioxidants glutathione (GSH) was estimated using a commercial ELISA kit (Wuhan Fine Biotech Co Ltd. China). The plasma catalase (CAT) activity (kU/L) were measured using the method described by Goth (1991). Briefly, based on the ability to decompose hydrogen peroxide, OD was measured at 405 nm wavelength against a blank containing all the components except the enzyme on a spectrophotometer (Schimadzu UV1800 UV-VIS, Japan).
 
The ELISA based parameters were assessed in equal numbers (n=14) of random serum samples from three groups categorized based on Giemsa stained blood smear (GSBS) observations of hemo-parasite infection. Group 1 buffaloes were infected with Theileria spp. Group 2 buffaloes had co-infections of hemo-parasites or mixed infection. Group 3 buffaloes as control were negative for haemo-parasites.
 
Therapeutic management
 
Initial therapeutic management was based on administering oxytetracycline long-acting (200 mg/mL) at the rate of 1 mL/10 kg bodyweight along with antipyretic by the field veterinarian or animal health worker when the buffaloes were brought or contacted for veterinary consultation. However, therapeutic management was provided to all buffaloes from the second day onwards with different modules or their combinations, based on GSBS diagnosis, clinical symptoms, and general body condition of the buffaloes (Table 1).  Administration of antipyretic drugs, anti-allergic drug, loop diuretics and fluid-electrolyte infusion to buffaloes was also recommended based on the requirement and response. The response was recorded concerning improvement in body temperature, appetite, respiration rate, milk yield, tick control and other associated symptoms. After treatment, there was no follow up for pathogen presence.
 

Table 1: Treatment module in water buffaloes for hemo-parasites and tick control.


 
Statistical analysis
 
Oxidative stress activities between groups were compared using single-step multiple comparisons using Turkey HSD by ANOVA post hoc test. Data on observed symptoms recorded and other parameters measured were statistically tested using a regression model. Significance was observed at *P<0.05 and **P<0.01. STATA version 11.0 statistical software was used for analysis.

RESULTS AND DISCUSSION

Disease history and symptoms
 
The clinical signs and disease history were indicative of possible tick-born infection, however, these observed signs were mild, varied and overlapping with TBDs. It is attributed to the low severity of parasitemia and milder pathogenicity (Zwart, 1985). The major clinical signs or management practices associated with different pathogens of TBDs are enlisted in Table 2. The case fatality rate was highest (20.0%) in buffaloes with infection of only Theileria spp. compared to co-infected (7.69%) buffaloes. No deaths were recorded in buffaloes infected with Anaplasma marginale, Babesia spp. and negative buffaloes. Co-infection of pathogens resulted in a higher proportion of animals showing key symptoms of TBDs recorded under the study. Provision for wallowing had lesser haemo-parasitic infected buffaloes but no proportional effect on the type of pathogens in TBDs infected buffaloes. Red urine due to hemoglobinuria was only observed in buffaloes found infected with Babesia spp. Redwater (hemoglobinuria) and associated symptoms of high fever, anorexia, anemia, decreased milk production and physiological state were highly suggestive of babesiosis which is in concurrence with published reports (Singla et al., 2002; Rani et al., 2010). However, without hemoglobinuria babesiosis is difficult to differentiate from other TBDs infection based on clinical symptoms and epidemiology. Peripheral lymph node enlargement was associated with Theileria infection (40.00%) or co-infected (7.69%). Corneal opacity and conjunctivitis were also observed in few buffaloes found infected with Theileria spp., or co-infected with A. marginale. Anaplasmosis and theileriosis are also difficult to differentiate clinically in adult buffaloes, though superficial lymph node is suggestive of the early stage of Theileria spp. infection. TBDs are economically important diseases of buffaloes, though the occurrence reported is comparatively lesser than crossbred cattle. Ticks collected from buffaloes were grossly identified based on key features belonged to different species of the Ixodidae family namely Hyalomma spp., responsible for the transmission of Theileria spp. and Rhipicephalus spp. responsible for the transmission of Babesia spp., Theileria spp. and A marginale in the region (Jithendran, 1997). Disease history and clinical findings and association of tick’s vectors in the surrounding as well as suspected buffaloes were indicative of tick-borne diseases but are often overlapping and diverse (Ghosh and Nagar, 2014). The use of acaricidal by farmers also did not have a proportional effect on TBDs positive or negative animals. Acaricidal use by farmers is sometimes rendered ineffective due to the availability of infected vectors in the surroundings and premises shared with other animals. Response to empirical treatment with oxytetracycline had a beneficial symptomatic effect in both Anaplasma and Theileria infections and their co-infection. The oxytetracycline LA is reported useful against Anaplasma and Theileria infection (Bansal and Sharma, 1986; Cranwell, 1990; Yousef et al., 2020). Significant (P<0.05) positive coefficients was observed for increased body temperature and lacrimation in TBDs buffaloes using probit regression (Table 3). These symptoms may help in the screening and selection of animals for such conditions.
 

Table 2: Clinical signs, history and management practices (%) in buffaloes associated with tick-borne infections.


 

Table 3: Probit regression for the relationship between variables as signs and practices and tick-borne infections in buffaloes.


 
Prevalence and spectrum of TBDs by Giemsa stained microscopy
 
The buffaloes had a high prevalence (47.66%) of parasites causing TBDs including Theileria spp., A. margin,e and Babesia spp. (Fig 1). The high prevalence of TBDs positive buffaloes in the region is attributed to the selection of suspected buffaloes and the availability of vector in the environment. However, the majority of these infected buffaloes (86.28%) had low severity of infection. Amongst the buffaloes found positive for infection of hemo-parasites, most of them (56.52%) had co-infection of parasites or mixed infection (Table 4). It may be associated with multiple genus of tick infestation associated with one or more different parasite. Earlier reports of mixed infection in buffaloes of Egypt associated with Anaplasma, Babesia and Theileria infection supports our findings (Nagwa et al., 2016; Amira et al., 2020). The most prevalent hemo-parasite infection in buffaloes was A. marginale followed by Theileria spp. and Babesia spp. (Table 4). The present findings of the prevalence of only Theileria spp., infection (4.67%) is less, while associated with other TBDs (26.17%) is high than the earlier reports of the prevalence of theileriosis 9.33% from suspected buffaloes of Patna (Kala and Deo, 2018). This difference may be due to the geographical restriction of sampling and considering only one pathogen of TBDs. In mixed infection of buffaloes, the most prevalent concurrent pathogens identified were A. marginale and Theileria spp. (43.14%) infection. We did not observe any buffalo infected Theileria spp. infection. TBDs are economically important diseases of buffaloes, though the occurrence reported is comparatively lesser than crossbred cattle. Ticks collected from buffaloes were grossly identified based on key features belonged to different species of the Ixodidae family namely Hyalomma spp., responsible for the transmission of Theileria spp. and Rhipicephalus spp. responsible for the transmission of Babesia spp., Theileria spp. and A marginale in the region (Jithendran, 1997). Disease history and clinical findings and association of tick’s vectors in the surrounding as well as suspected buffaloes were indicative of tick-borne diseases but are often overlapping and diverse (Ghosh and Nagar, 2014). The use of acaricidal by farmers also did not have a proportional effect on TBDs positive or negative animals. Acaricidal use by farmers is sometimes rendered ineffective due to the availability of infected vectors in the surroundings and premises shared with other animals. Response to empirical treatment with oxytetracycline had a beneficial symptomatic effect in both Anaplasma and Theileria infections and their co-infection. The oxytetracycline LA is reported useful against Anaplasma and Theileria infection (Bansal and Sharma, 1986; Cranwell, 1990; Yousef et al., 2020). Significant (P<0.05) positive coefficients was observed for increased body temperature and lacrimation in TBDs buffaloes using probit regression (Table 3). These symptoms may help in the screening and selection of animals for such conditions.
 

Table 4: Prevalence (%) of tick-borne infection in suspected buffaloes (n=107) based on microscopic examination of blood.


 
Prevalence and spectrum of TBDs by Giemsa stained microscopy
 
The buffaloes had a high prevalence (47.66%) of parasites causing TBDs including Theileria spp., A. marginale and Babesia spp. (Fig 1). The high prevalence of TBDs positive buffaloes in the region is attributed to the selection of suspected buffaloes and the availability of vector in the environment. However, the majority of these infected buffaloes (86.28%) had low severity of infection. Amongst the buffaloes found positive for infection of hemo-parasites, most of them (56.52%) had co-infection of parasites or mixed infection (Table 4). It may be associated with multiple genus of tick infestation associated with one or more different parasite. Earlier reports of mixed infection in buffaloes of Egypt associated with Anaplasma, Babesia and Theileria infection supports our findings (Nagwa et al., 2016; Amira et al., 2020). The most prevalent hemo-parasite infection in buffaloes was A. marginale followed by Theileria spp. and Babesia spp. (Table 4). The present findings of the prevalence of only Theileria spp., infection (4.67%) is less, while associated with other TBDs (26.17%) is high than the earlier reports of the prevalence of theileriosis 9.33% from suspected buffaloes of Patna (Kala and Deo, 2018). This difference may be due to the geographical restriction of sampling and considering only one pathogen of TBDs. In mixed infection of buffaloes, the most prevalent concurrent pathogens identified were A. marginale and Theileria spp. (43.14%) infection. We did not observe any buffalo infected reported worldwide which is in concurrence with our observations (AL-Hosary, et al., 2015; Esmaeilnejad et al., 2020). Similarly, in buffaloes, oxidative stress and parasitic burden-dependent oxidative damages to erythrocytes by T. annulata infection in buffaloes have been reported (Molayi-Jabdaragi et al., 2020). Logistic regression between oxidant MDA and antioxidant CAT in TBDs infected buffaloes showed significant positive (0.004±0.002) and negative (-2.449± 1.150) coefficients, respectively (Table 6). This indicates that an increase in MDA and a decrease in CAT level can be a useful indicator for screening TBDs infected buffaloes.
The biochemical response during the infection was measured in terms of ALT, AST, total protein and cortisol concentration in buffaloes (Table 5). The concentration of ALT increased significantly in group I buffaloes and only non-significantly higher in group II buffaloes compared to group III buffaloes. The concentration of AST was also significantly higher in group I and II compared to group III buffaloes. The total serum protein was significantly reduced in both group I and II buffaloes compared to group III buffaloes. The biochemical response in TBDs infected buffaloes was indicative of damage to the tissues by the parasitic invasion particularly of liver, muscle, RBCs. This damage brought hypoxic changes in organs. It was reflected by an increase concentration of liver and tissue enzymes (ALT, AST) and a decrease in total serum protein (Singh et al., 2001; Hasanpour et al., 2008). A similar observation in cattle infected with A marginale (Ganguly et al., 2018), with T. annulata (Omer et al., 2003) and with B. bigemina (Ganguly et al., 2017) has been reported. The level of Hb was lower in all the groups of buffaloes. However, in group I buffaloes, the concentration of Hb were significantly lower compared to other groups. Anemia due to low haemoglobin level in most of the buffaloes sampled might be due to endemic infections of TBDs and sample selection criteria. The cortisol level was significantly lower in group I buffaloes compared to both group II and III buffaloes which may be indicative of hormonal dysfunction of adrenal gland favouring the dissemination of parasite (Forsyth et al., 1999). This finding corroborates with previous reports of decreased cortisol level in T. annulata infected cattle (Sangwan et al., 2002). A significant logistic regression coefficient was observed only for cortisol (0.148±0.062) and total serum protein (-1.368 ±0.066) and TBDs infected buffaloes and may be useful as prognostic and diagnostic markers (Table 6).
 

Table 5: Blood biochemical parameters estimated in buffaloes (mean±S.E).


 

Table 6: Logistic regression between TBDs infection in buffaloes and variables estimated.


 
Acute-phase response and cytokines
 
Acute-phase response is a complex systemic early defence system activated by infection and inflammation mediated by pro-inflammatory cytokines with the release of acute-phase protein (Glass et al., 2003). These proteins are involved in controlling inflammation against a wide range of pathogens and often the severity of infection is quantified based on their level. Acute-phase response was measured in terms of the serum SAA in haemo-parasite negative and positive buffaloes and especially in Theileria spp. infected buffaloes. The concentration (mg/L) of SAA was non-significantly different between group II buffaloes (18.21±2.72) and group III buffaloes (12.71±1.83). However, SAA was significantly (P<0.01) higher in group I buffaloes infected with Theileria spp. (47.07±5.66) versus other buffaloes in group II and III (Fig 2A). Our observations are in agreement with the earlier findings of increase acute phase response proteins in T. annulata infected water buffaloes (El-Deeb and Iacob, 2012). Several inflammatory cytokines, including TNF-alpha, play important role in disease progression. TNF family along with IL-1 and IL-6 are considered important inducers of acute phase response in the liver (Baumann and Gauldie, 1994). The TNF-alpha was highest (18.73±1.43 ng/L) in Theileria spp. infected buffaloes of group I followed by group II (13.08±0.87 ng/L) and least in group III buffaloes (4.86±0.76 ng/L) and these values varied significantly (P£0.01) with each other (Fig 2B). In our study, a higher concentration of TNF alpha in TBDs positive and more in T. annulata infected buffaloes also suggest a possible mechanism for acute phase response and subsequent elevation in the serum SAA level in the circulation. However, logistic regression analysis showed a non-significant coefficient between SAA, TNF alpha and TBDs infected buffaloes.
 
Therapeutic management
 
The animal welfare ethic is to provide treatment for ailing animals apart from research. The overall response of oxytetracycline long-acting along with antipyretic was positive in 38.31 per cent buffaloes sampled, on day two of treatment. There was an improvement in appetite and rectal temperature. The response of initial treatment with oxytetracycline long-acting and antipyretic is attributed to its known efficacy against A. marginale (Swift and Thomas, 1983; Sarli et al., 2020) and the response rate was less as they were infected with other non-responsive pathogens. The overall case-fatality rate was 5.88% in TBDs infected buffaloes with the highest (20.00%) recorded in buffaloes infected with Theileria spp. The deaths recorded were within 48 hours of blood sampling. The majority (80.0%) of the Theileria spp. positive buffaloes responded within 7 days of treatment administered module-I and IV of therapeutic management. The majority of buffaloes (95.50%) co-infected with Theileria spp. and A. marginale given a combination of module-I, II and IV responded favourably after 10 days of treatment and the case fatality rate was 4.50% observed within 7 days of treatment. Similar to our findings, observation of mortality in adult cattle and calf infected with TBDs even after specific treatment has been reported by Kohli et al., (2014). The possible reasons for mortality are anemia, respiratory distress, persistent inappetence, anoxia, disseminated intravenous coagulopathy and toxemia (Nazifi et al., 2008; Godara et al., 2010; Underwood et al., 2015; Boes and Durham, 2017). All other TBDs infected buffaloes responded favourably with respective module combination within 7 days of treatment. Imidocarb is highly effective against A. maginale infection has been previously reported (Ashuma et al., 2013). Similar to our regimen, McHardy and Simpson (1974) have reported the efficacy of Imidocarb dipropionate @ 3 mg/kg capable of rapidly curing A. marginale by single subcutaneous injction. Supportive therapy by multivitamins, hematinic and anti-oxidants though cannot decrease the level of parasitemia yet influence recovery by improving hematocrit values (Nayak et al., 2018). However, Altug et al., (2014) reported that vitamin B is the most efficient supportive therapy for the treatment of T. annulata infection in cattle. Positive response after 7 days of treatment has been reported similar to our findings (Ganga et al., 2010; Altug et al., 2014). However, milk yield could not be restored in these buffaloes even after 15 days post-treatment. This may be attributed to slow response in optimizing the compromised haemato-biochemical profile after specific treatment controlling parasitemia. Slow response in the improvement of milk production in T. annulata infected cattle treated with buvarvaqunone has been reported (Ayadi et al., 2016). Tick control was achieved in all the buffaloes after 3 consecutive application of module-V at weekly intervals. This indicates ticks were sensitive to common acaricidal drugs used by the farmers and application of the same simultaneously to the environment and shared animals.

CONCLUSION

Future efforts should focus on the diagnosis of TBDs in buffaloes by molecular and serological methods due to low parasitemia, milder signs observed and co-infections. Efforts should also focus to validate the species of haemo-parasites circulating in the riverine buffaloes.

ACKNOWLEDGEMENT

The authors acknowledge the support and cooperation of the Director, ICAR- Research Complex for Eastern Region, Patna for providing necessary funds and facilities for undertaking the work under the institute project. Support provided by veterinary officers, field veterinary service providers, A.I. workers and farmers for the survey, sampling and post-treatment compliance is duly acknowledged.

REFERENCES


  1. AL-Hosary, A. A., EL-Sayed, H. and Ahmed, L. S. (2015). Oxidative stress and hematological profile in Theileria annulata clinically infected cattle before and after treatment. Assiut Veterinary Medical Journal. 6(144): 123-129.

  2. Altug, N., Yüksek, N., Keles, I., Özkan, C., Yörük, I.H. and Arslan, S. (2014). Efficiency of various supportive treatments as  a cure for anaemia in cattle with theileriosis. The Thai Journal of Veterinary Medicine. 44(3): 287-296.

  3. Amira, A.H., Rãileanu, C., Tauchmann, O., Fischer, S., Nijhof, A.M. and Silaghi, C. (2020). Epidemiology and genotyping of Anaplasma marginale and co-infection with piroplasms and other Anaplasmataceae in cattle and buffaloes from Egypt. Parasites and Vectors. 13(1): 1-11.

  4. Ashuma, Sharma A, Singla, L.D., Kaur, P., Bal, M.S., Batth, B.K. and Juyal, P.D. (2013). Prevalence and haemato-biochemical profile of Anaplasma marginale infection in dairy animals of Punjab (India). Asian Pacific Journal of Tropical Medicine. 6(2): 139-44.

  5. Ayadi, O., Gharbi, M., and Elfegoun, M.C.B. (2016). Milk losses due to bovine tropical theileriosis (Theileria annulata infection) in Algeria. Asian Pacific Journal of Tropical Biomedicine. 6(9): 801-802.

  6. Bansal, G.C., and Sharma, S. P. (1986). Efficacy of parvaquone and long-acting oxytetracycline in Theileria annulata infection. Veterinary Parasitology. 21(3): 145-149.

  7. Basic Animal Husbandry Statistics, (2019). 20th Livestock Census, DAHD, Government of India. Available from: http://www. dahd.nic.in/aboutus/divisions/statistics.

  8. Baumann, H., and Gauldie, J. (1994). The acute phase response. Immunology Today. 15(2): 74-80.

  9. Benitez, D., Mesplet, M., Echaide, I., de Echaide, S.T., Schnittger, L. and Florin-Christensen, M. (2018). Mitigated clinical disease in water buffaloes experimentally infected with Babesia bovis. Ticks and Tick-borne Diseases. 9(5): 1358-1363.

  10. Boes, K.M. and Durham, A.C. (2017). Bone Marrow, Blood Cells, and the Lymphoid/Lymphatic System. In: Pathologic Basis of Veterinary Diseases. 6th Edn. Elsevier: St. Louis, MO, USA.

  11. Cranwell, M.P. (1990). Efficacy of long-acting oxytetracycline for the prevention of tick-borne fever in calves. Veterinary Record. 126(14): 334-336.

  12.  El-Deeb, W.M. and Iacob, O.C. (2012). Serum acute phase proteins in control and Theileria annulata infected water buffaloes (Bubalus bubalis). Veterinary Parasitology. 190(1-2): 12-18.

  13. Esmaeilnejad B, Tavassoli M, Dalir-Naghadeh B, Sepideh Rajabi A, Mohammadi V, Anassori E, Ehteshamfar S. (2020). Status of oxidative stress, trace elements, sialic acid and cholinesterase activity in cattle naturally infected with Babesia bigemina. comparative Immunology, Microbiology and Infectious Diseases. 71: 10150, DOI: 10.1016/j.cimid.2020.101503.

  14. Forsyth, L., Minns, F.C., Kirvar, E., Adamson, R.E., Hall, F.R., McOrist, S., Brown, C.G.D., Preston, P.M. (1999). Tissue damage in cattle infected with Theileria annulata accompanied by metastasis of cytokine-producing, schizont-infected mononuclear phagocytes. Journal of Comparative Pathology. 120: 39-57.

  15. Ganga, N., Ananda, K.J. and Rani, B.K. (2010). Theileriosis in calves and its successful treatment. Veterinary World. 3(4): 191.

  16. Ganguly A, Maharana B.R, Ganguly I, Kumar A, Potlya S, Arora D, Bisla R.S. (2018). Molecular diagnosis and haemato-biochemical changes in Anaplasma marginale infected dairy cattle. Indian Journal of Animal Sciences. 88(9): 989-993.

  17. Ganguly, A., Bisla, R.S., Ganguly, I., Singh, H., Bhanot, V., and Chaudhri, S.S. (2017). Direct blood PCR detection of Babesia bigemina and its effect on haematological and biochemical profile in crossbred cattle of eastern Haryana. Indian Journal of Animal Research. 51(1): 141-145.

  18. Ghosh, S. and Nagar, G. (2014). Problem of ticks and tick-borne diseases in India with special emphasis on progress in tick control research: a review. Journal of Vector Borne Diseases. 51(4): 259.

  19. Ghosh, S., Azhahianambi, P. and de la Fuente, J. (2006). Control of ticks of ruminants, with special emphasis on livestock farming systems in India: present and future possibilities for integrated control-A review. Experimental and Applied Acarology. 40(1): 49-66.

  20. Glass, E.J., Craigmile, S.C., Springbett, A., Preston, P.M., Kirvar, E., Wilkie, G.M., Eckersall, P.D., Hall, F.R., Brown, C.G.  (2003). The protozoan parasite, Theileria annulata, induces a distinct acute phase protein response in cattle that is associated with pathology. International Journal for Parasitology. 33(12): 1409-1418.

  21. Godara, R., Sharma, R.L., and Sharma, C.S. (2010). Bovine tropical theileriosis in a neonate calf. Tropical Animal Health and Production. 42(4): 551-553.

  22. Goth, L. (1991). A simple method for determination of serum catalase activity and revision of reference range. Clinica Chimica Acta. 196 (2-3): 143-151.

  23. Haron, A.W., Abdullah, F.F., Abba, Y., Mohammed, K., Adamu, L., Tijjani, A., Sadiq, M.A., Ahmed, S.S. and Lila, M.A. (2014). Detection of Theileria spp and hematological profiles of infected cattle from selected farms in Selangor, Malaysia. Alexandria Journal of Veterinary Sciences. 44(1): 9-14.

  24. Hasanpour, A., Moghaddam, G.A. and Nematollahi, A. (2008). Biochemical, hematological and Electrocardiographic changes in buffaloes naturally infected with Theileria annulata. Korean Journal of Parasitology. 46: 223-227.

  25. Jithendran, K.P., (1997). Blood protista of cattle and buffaloes in Kangra Valley, Himachal Pradesh. Indian Journal of Animal Sciences. 67: 207-208.

  26. Kaiser MN and Hoogstraal H. (1964). The Hyalomma ticks (Ixodoidea, Ixodidae) of Pakistan, India and Ceylon with keys to subgenera and species. Acarologia. 6:257-286 

  27. Kala, S. and Deo, B.G. (2018). Prevalence of haemoprotozoan disease in cattle in rainy season. International Journal of Current Microbiology and Applied Sciences. 7(7): 2693-2699.

  28. Kohli, S., Atheya, U.K., Srivastava, S.K., Banerjee, P.S., and Garg, R. (2014). Outbreak of theileriosis and anaplasmosis in herd of Holstein crossbred cows of Dehradun district of Uttaranchal, India: A Himalyan region. International Journal of Livestock Production. 5(1): 6-9.

  29. McHardy, N. and Simpson, R.M. (1974). Imidocarb dipropionate therapy in Kenyan anaplasmosis and Babesiosis. Tropical Animal Health and Production. 6: 63-70.

  30. McKeever, D.J. (2009). Bovine immunity-a driver for diversity in Theileria parasites? Review. Trends in Parasitology. 25: 269-276.

  31. Minjauw, B. and Mc Leod A. (2003). Tick-borne diseases and poverty. The impact of ticks and tick-borne diseases on the livelihood of small scale and marginal livestock owners in India and eastern and southern Africa. Research report, DFID Animal Health Programme, Centre for Tropical Veterinary Medicine, University of Edinburgh, UK.

  32. Molayi-Jabdaragi, N., Esma/eilnejad, B. and Mohammadi, V. (2020). Evaluation of oxidative/nitrosative stress biomarkers and DNA damage in buffaloes naturally infected with Theileria annulata. Microbial Pathogenesis. 138, 103821. https://doi.org/10.1016/j.micpath. 2019.103821.

  33. Nagwa, E.A., Ghanem, M.M., Elmadawy, R.S. and ELdiarby, A.S. (2016). Prevalence and molecular analysis of anaplasma and piroplasmid species infecting buffaloes in qualyubia governorate, Egypt. Benha Veterinary Medical Journal. 30 (1): 86-96.

  34. Nayak, S.M., Senapati, S.K., Samal, P., Sethy, K., Meher, S., Swain, P., Sahoo, P.R. and Das, M.R. (2018). Therapeutic management of oxidative stress in cattle, naturally affected with bovine tropical theileriosis by vitamin E and selenium. Pharma Innovation. 7(4): 1141-1145.

  35. Nazifi, S., Razavi, S M., Mansourian, M., Nikahval, B., and Moghaddam,M. (2008). Studies on correlations among parasitaemia and some hemolytic indices in two tropical diseases (theileriosis and anaplasmosis) in Fars province of Iran. Tropical Animal Health and Production. 40(1): 47-53.

  36. Omer, O.H., El-Malik, K.H., Magzoub, M., Mahmoud, O.M., Haroun, E.M., Hawas, A. and Omar, H.M. (2003). Biochemical profiles in Friesian cattle naturally infected with Theileria annulata in Saudi Arabia. Veterinary Research Communi- Cations. 27(1): 15-25.

  37. Prabhakaran, H.S., Ghosh, K.K., Kumari, R.R., Kumar, P., and Kumar, M. (2021). Evaluation of sporozoite and macroschizont ntigen (Spm2) of Theileria annulata for its diagnostic potential. Ticks and Tick-borne Diseases. 101691. https://doi.org/10.1016/j.ttbdis.2021.101691

  38. Ponnudurai, G., Larcombe, S., Velusamy, R., Rani, N., Kolte, S.W., Rubinibala, B., Alagesan, A., Rekha, B. and Shiels, B. (2017). Prevalence of tick-borne pathogens in co-grazed dairy bovines differs by region and host-type in Tamil Nadu. India. Journal of Advance Dairy Research. 5(2): 100177. doi: 10.4172/2329-888X.1000177.

  39. Rani, N.L, Sreedevi, C., Annapurna, P. and Kumar, K. (2010). Clinical management and haemato-biochemical changes in babesiosis in buffaloes. Buffalo Bulletin. 29: 92-94.

  40. Sangwan, N., Sangwan, A.K., Singh, S. and Agarwal, V.K. (2002). Cortisol and thyroid hormones in relation to bovine tropical theileriosis, Indian Journal of Animal Sciences. 72(12): 1098-1099.

  41. Sarli, M., Novoa, M.B., Mazzucco, M.N., Morel, N., Primo, M.E., de Echaide, S.T. and Echaide, I. E. (2020). Efficacy of long-acting oxytetracycline and imidocarb dipropionate for the chemosterilization of Anaplasma marginale in experimentally infected carrier cattle in Argentina, Veterinary Parasitology. Regional Studies and Reports, 100513.

  42. Singh, A., Singh, J., Grewal, A.S. and Brar, R.S. (2001). Studies on some blood parameters of crossbred calves with experimental Theileria annulate infections. Veterinary Research Communication. 25: 289-300.

  43. Singla, L.D., Singh, J. and Aulakh, G.S. (2002). Babesiosis in an unusual case of Murrah buffalo with six functional teats. Buffalo Bulletin. 21: 55-58.

  44. Swift, B.L. and Thomas, G.M. (1983). Bovine anaplasmosis: elimination of the carrier state with injectable long-acting oxytetracycline. Journal of the American Veterinary Medical Association. 183(1): 63-65.

  45. Tuli, A., Singla, L.D., Sharma, A., Bal, M.S., Filia, G. and Kaur, P. (2015). Molecular epidemiology, risk factors and hematochemical alterations induced by Theileria annulata in bovines of Punjab (India). Acta Parasitologica. 60(3): 378-390.

  46. Underwood, W.J., Blauwiekel, R., Delano, M.L., Gillesby, R., Mischler, S.A., and Schoell, A. (2015). Biology and diseases of ruminants (sheep, goats, and cattle). In: Laboratory Animal Medicine. Academic Press. pp.623-694.

  47. United States Department of Agriculture, (1976). Ticks of veterinary importance. In: Agriculture handbook No. 485. https://naldc.nal.usda.govdownload/CAT87208761/PDF.Accessed on 02 Dec 2020.

  48. Yousef, S.G., El-Balkemy, F.A., El-Shazly, Y.A., El-Damaty, H.M. (2020). Clinical picture and haemogram profile associated with Theileria annulata infection in cattle before and after therapeutic intervention. Advances in Animal and Veterinary Sciences. 8(3): 290-296.

  49. Zwart, D. (1985). Haemoparasitic diseases of bovines [Babesia spp., Theileria spp., Cowdria ruminantium, Anaplasmamarginale]. Revue Scientifique et Technique de l’OIE (France).
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