Evaluation of Specific Antibody Response in Backyard Chickens to Infectious Bursal Disease Live Vaccine


Infectious Bursal Disease (IBD) is one of the oldest and widely known poultry diseases all over the world. It is caused by IBD virus of Avibirnavirus genus of family Birnaviridae family. IBD has great economical impact on backyard poultry world as it causes high weakness and mortality. The objective of present study was to evaluate the antibody response in village chickens in India after vaccinating them with IBD live vaccine. Serum was collected at regular intervals from chickens up to 112 days after vaccination. Antibodies against IBD virus were measured using ELISA method. It was observed that the vaccines with both intermediate and intermediate invasive strain caused good immune response in the birds. Serum antibody level was found significantly high in 28 days blood collection, which decreased gradually up to 112 days. It was also observed that Intermediate invasive strain produced higher amount of antibodies than intermediate strain of the vaccine. Furthermore, it is also suggested that good diet and biosecurity measures in backyard chickens and proper vaccination program can benefit the local farmers of Asian countries.


Infectious Bursal Disease, Backyard, Antibody.

Article Info


Baksi, S., Rao, N., Khan, M., 2018. Evaluation of Specific Antibody Response in Backyard Chickens to Infectious Bursal Disease Live Vaccine. PSM Vet. Res., 3(1): 1-5.

Received: January 5, 2018; Accepted: March 25, 2018; Online first: April 3, 2018; Published: April 16, 2018

Authors & Affiliations:

Surajit Baksi*, Nirav Rao, Mukandar Khan

Hester Biosciences Limited, Ahmedabad, Gujarat, India. 

*Corresponding author: Surajit Baksi; Email: drsbaksi_vm@yahoo.com


© 2018 PSM. This is an open access article distributed under the terms of the Creative Commons Attribution-Non Commercial 4.0 International License.




Infectious Bursal Disease (IBD) is an important disease of poultry, which occurs due to infection of IBD virus of Avibirnavirus genus of Birnaviridae family. It is a fatal disease and causes high and rapid mortality in young chickens leading to significant economic loss. It is a highly contagious viral disease, which is characterized by destruction of lymphoid organs, particularly bursa of fabricius, where B lymphocytes mature and differentiate. The disease was first reported by Cosgrove (1962). Several outbreaks have been reported in many countries like USA, Europe, Africa, Far East, Asia and Australia (Hailu et al., 2009, Khan et al., 2009, Lasher & Davis, 1997; Faragher, 1972; Firth, 1974; Jones, 1986; Lasher & Shane, 1994; Muller et al., 2012, Oluwayelu et al. 2014, Provost et al., 1972; Van Den Berg, 2000; Van Der Sluis, 1999). IBD has incubation period of two to three days (Kegne and Chanie, 2014; Dorji et al., 2016; Lawal et al., 2016, Li et al., 2018). It causes mortality up to 50 to 60% in laying hens and 25 to 30% in broilers. The hypervirulent strain of virus causes 100% mortality in specific pathogen free chickens (Nunoya et al., 1992, Van Den Berg et al., 1991). The symptoms of the disease include exhaustion, prostration, dehydration, diarrhoea and ruffled feathers. The mortality starts within third day of infection, reaches to peak within four days and sickness of birds persist for up to seven days. The severity of disease may vary with age and breed of birds, virulence of the strain and degree of passive immunity (Van Den Berg et al., 2000). The principal organ affected is bursa of fabricious, additionally, other lymphoid organs are also affected. The virus targets B lymphocyte cells in active division stage (Kaufer & Weiss, 1980; Sharma et al., 1993; Tanimura et al., 1995). Apparent macroscopic inflammation can be observed in  infected bursa (McFerran, 1993).

The disease causes high financial losses as it causes high mortality, secondary infections, growth retardation and carcasses have to be discarded due to haemorrhages. IBD is also found prevalent in village chicken in various countries, where backyard poultry is a significant part of poultry business (Wilcox et al., 1983; Swai et al., 2011; Sule et al., 2013; Yuguda et al., 2014, Bettridge et al., 2014). In India, 11% egg production is contributed by village chickens (Kumaresan et al., 2008). Economically, rearing and egg production is a vital part of poultry business in villages of Asian and African countries (Gueye, 2000). Vaccination is the principal method to control IBD (Muller et al., 2012). Generally IBD is controlled by vaccination of the flock and the infected birds are culled to prevent the spread of the disease. For proper vaccination of birds with IBD vaccine, strict schedule of vaccination has to be followed. Proper guidelines of poultry farming, sanitation, cleaning, feeding and water supply need to be observed. The vaccine should be selected based on user-easiness, economy, availability, immunogenicity and transportation facility. In countries like Africa and India, people are having village chickens in small numbers. With this background, this study was designed to estimate seroconversion of IBD live vaccine in improving protection from IBD in backyard chickens.



Grouping and rearing of birds

The study was conducted in two villages of Gujarat state – Merda Adraj and Jetpura. The birds were reared by local farmers with free access to feed and water. The chickens were monitored daily for any clinical signs and symptoms until the study completed.

Total 90 Kadaknath backyard birds, 14 day old, were divided in three groups with 30 birds in each group:

Group 1: Treated with intermediate strain Gumboro live vaccine (procured from Hester Biosciences Limited, India)

Group 2: Treated with intermediate invasive strain Gumboro live vaccine (procured from Hester Biosciences Limited, India)

Group 3: Control group, untreated

Experimental procedure

Vaccines were administered intraoccular with single dose of Gumboro live vaccine vaccine (Intermediate strain) and Gumboro live vaccine (Intermediate Invasive strain) respectively, with EID50 not less than 1 x 103 /dose, procured from Hester Biosciences Limited, India. From 0 to 112 days of vaccination, blood was withdrawn from birds. After 24 hours, serum was separated and stored at -20 °C until testing.

All sera samples were subjected to indirect ELISA test using ELISA kit (IDEXX laboratories, USA) at Hester Biosciences Limited, Anand laboratory. The ELISA test was performed as per the manufacturer’s protocol and instructions. Before use, all the samples and reagents were allowed to room temperature and homogenized by gentle mixing.  All the samples were diluted at 1:500 with sample diluents provided by the manufacturer. The antibody used in the study was serum and it is specific to chickens. 100 µl of two negative control samples were added. One was added to well A1 and another was added to B1. 100 µl of two positive control samples were added. One was added to well C1  and another was added to well D1. Both positive and negative controls were provided by IDEXX laboratories, USA. Then 100 µl of diluted samples were added into the appropriate wells and incubated at 25 C for 30 minutes by covering the plate with lid. After that, content of the well was emptied and washed 3 to 5 times by the 350 µl of the sterile distilled water using ELISA washer (Nunc International, USA,). Then 100 µl of the conjugate was added to each well and incubated at 18 to 26 ̊C for 30 minutes. Following washing for 3 to 5 times with sterile distilled water, 100 µl of Tetramethyl Benzidine (TMB) substrate reagent was added into each appropriate wells and incubated at 25 ̊C for 15 minutes. Finally, 100 µl of stop solution was added to the each well to stop the reaction. The stop solution contained sulphuric acid. Then the microtitre ELISA plate was placed in the ELISA reader (Biotek ELX 800, USA) and the intensity of the color produced from the ELISA test was measured photometrically at 650 nm wavelength.

Data analysis

Simple t test were used for statistical analysis of the obtained data using IBM SPSS 20 software (please add version number, state and country). P < 0.05 was considered statistically significant.



Samples from all groups were collected and test was performed using ELISA kit. Pre-vaccination titres of all groups were measured i.e., group 1, 2 and 3 were 8.0 ± 0.8, 51.73 ± 22.0 and 8.9 ± 0.9 respectively. The ELISA titre increased after vaccination and at 28 days, it reached to highest value post vaccination (3978.8 ± 251.1 in group 1 and 4637.6 ± 185.4 in group 2). As after 28 days, titre decreased and was found to be 504.8 ± 19.5 and 1042.3 ± 189.0 in group 1 and 2 respectively at 112 days. The data of 28 days and 0 days results were compared and same of 28 days and 112 days were compared and significant difference was found (p< 0.05, Figure 1 and 2). Titre of control group was found to be 7.2 ± 0.6 to 15.7 ± 3.5 throughout the study (Figure 3). The titre greater than 396 is considered as positive, hence values below it are considered negligible statistically.


Figures & Tables



ELISA has been considered as an accurate and preferable method for detection of specific antibodies against both intermediate and intermediate invasive strains of IBD (Marquardt et al., 1980; Meulemans et al., 1987). The ELISA titre of 396 is considered positive for antibodies against IBD virus as per the guidelines of manufacturer of ELISA kit. Seroprevalence of IBD is commonly found in many parts of world (Sule et al., 2013; Wilcox et al., 1983; Yuguda et al., 2014). It can be found from 0 day titre that the birds were not having infection of Gumboro disease at time of collection. The ELISA titre of vaccinated birds increased to protective amount within 7 days post vaccination as reported by Moraes et al., (2004); Jakka et al., (2014) and Otsyina et al., (2009). The level of titre attained protective level against the disease significantly (p<0.05) after 28 days of vaccination in both the vaccinated group. Jakka et al., (2014) and Moraes et al., (2004) reported that Intermediate invasive strain produces higher level of defence against the disease as compared to Intermediate strain vaccine. Similar results were reported in present study at 28 days of collection, where both vaccines produced maximum level of protection, but statistically there was no significant difference found in the 28 days titre between intermediate and intermediate invasive strain groups. Zaheer et al., 2003 reported satisfactory immune response against commercial IBD vaccine up to 42 days post vaccination. In present study with extended period of serum collection, it was observed that up to 112 days, the titre was protective and can provide protection against the disease up to 16 weeks. The vaccine should be repeated to provide much higher protection after 16 weeks.



As IBD is the oldest disease of poultry and great challenge to the poultry farming, it is necessary to protect the flocks from the disease with help of proper biosecurity measures and effective vaccination program against Gumboro disease. It can be concluded from present study that vaccination of flocks at younger age with any of the two strains can protect the chicks from the disease. This will help the farmers to boost the productivity and economy of the industry.



We are thankful to Hester Biosciences Limited, Ahmedabad, Gujarat, India, for supporting this study.



The authors declare that no competing interests exist.



Bettridge, J.M., Lyncha, S.E., Brenaa, M.C., Melesec, K., Dessieb, T., Terfa, Z.G., Desta, T.T., Rushtone, S., Hanotte, O., Kaiser, P., Wigley, P., Christley, R.M.     2014. Infection-interactions in Ethiopian village chickens. Prev. Vet. Med., 117: 358–366.

Cosgrove, A.S., 1962. An apparently new disease of chickens. Avian nephrosis. Avian Dis., 6: 385-389.

Dorji, J., Dorji, T., Dorji, T.Y., Tenzin, S., Gurung, R.B., 2016. Immunological tolerance of Bhutanese native chicken to Infectious Bursal Disease Virus Infection. Int. J. of Adv. Sci. Res. Mgmt., 1(2): 46-49.

EL-Yuguda, A.D., Baba, S.S., Geidam, Y.A., 2014. Effects of Maternal Antibodies on the Immune Responses of Village Chickens to Newcastle Disease and Infectious Bursal Disease Vaccines. Niger. Vet. J., 35(4): 1065-1069.

Faragher, J.T., 1972. Infectious bursal disease of chicken. Vet. Bull., 42: 361-369.

Firth, G.A., 1974. Occurrence of an infectious bursal syndrome within an Australian poultry flock. Aust. Vet. J., 50: 128-130.

Gueye, E.F., 2000. The role of family poultry in poverty alleviation, food security and the promotion of gender equality in rural Africa. Outl. Agric., 29(2): 129–136.

Hailu, M., Tilahun, S.B., Negash, T., 2009. Incidence of infectious bursal disease in village chickens in two districts of Amhara Region, Northwest Ethiopia. Lvstk. Res. R. Dev., 21: 214.

Jakka, P., Reddy, Y.K., Kirubaharan, J.J., Chandran. N.D.J., 2014. Evaluation of immune responses by live infectious bursal Disease vaccines to avoid vaccination failures. Eur. J. Microbiol. Immun., 2: 123–127.

Jones, B.A.H., 1986. Infectious bursal disease serology in New Zealand poultry flocks. N. Z. Vet. J., 34: 36.

Kaufer, I., Weiss, E., 1980. Significance of bursa of fabricius as target organ in   infectious bursal disease. Inject. Immun., 27: 364-367.

Kegne, T., Chanie, M,. 2014. Review on the Incidence and Pathology of Infectious Bursal Disease. Br. J. Poult. Sc., 3(3): 68-77.

Khan, R.W., Khan, F.A., Farid, K., Khan, I., Tariq, M., 2009. Prevalence of infectious bursal disease in broiler in district Peshawar. Arpn. J. Agri. Biol. Sci., 4-1.

Kumaresan, A., Bujarbaruah, K.M., Pathakm K.A., Chettrim B., Ahmedm, S.K., Haunshi, S., 2008. Analysis of a village chicken production system and performance of improved dual purpose chickens under a subtropical hill agro-      ecosystem in India. Trop. Anim. Hlth. Prod., 40: 395–402. 

Lasher, H.N., Davis, V.S., 1997. History of infectious bursal disease in the USA. The first two decades. Avian. Dis., 41: 11-19.

Lasher, H.N., Shane, S.M. 1994. Infectious bursal disease. Wrld. Poult. Sci. J., 50: 133-166.

Lawal, J.R., Balami, A.G., Bello, A.M., Wakil, Y., Balami, S.Y., Audu, Y., Lekko, Y.M., Ibrahim, U.I., 2016. Oral vaccination of chickens against Infectious Bursal Disease (IBD) using parboiled rice as vaccine vehicle. Pyrex J. Vet. Med.       Anim.    Sci., 1(1): 1-6.

Li, L., Kubasova, T., Rychlik, I., Hoerrm F.J., Rautenschlein, S., 2018. Infectious bursal disease virus infection leads to changes in the gut associated-lymphoid tissue and the microbiota composition. Plos. One., 13(2): e0192066.

Marquardt, W.W., Johnson, R.B., Odenwald, W.F., Schlotthober, B.A., 1980. An indirect enzyme-linked immunosorbent assay (ELISA) for measuring antibodies in chickens infected with infectious bursal disease virus. Avian. Dis., 24: 375-385.

McFerran, J.B. 1993. Infectious bursal disease. In Vims infections of birds (J.B. McFerran & M.S. McNulty, eds). Elsevier Science, Amsterdam, 213-228.

Meulemans, G., Decaesstecker, M., Halen, P., Froyman, R., 1987. Comparaison des tests ELISA et de séroneutralisation pour la recherche des anticorps contre le virus de la maladie de Gumboro. Applications pratiques du test ELISA. Rec. Med. Vet., 163: 561-565.

Moraes, H.L.S., Salle, C.T.P., Padilha, A.P., Nascimento, V.P., Souza, G.F., Pereira, R.A., Artencio, J.O., Salle, F.O., 2004. Infectious Bursal Disease: Evaluation of Pathogenicity of Commercial Vaccines from Brazil in Specific Pathogen Free Chickens. Braz. J. Poult. Sci., 6(4): 243-247.

Muller, H., Mundt, E., Eterradossi, N., Islam, M.R., 2012. Current status of vaccines against infectious bursal disease. Avian Pathol., 41(2): 133-139.

Nunoya, T., Otaki, Y., Tajima, M., Hiraga, M., Saito, T. 1992. Occurrence of acute infectious bursal disease with high mortality in Japan and pathogenicity of field isolates in SPF chickens. Avian Dis., 36: 597-609.

Otsyina, H.R., Amakye-Amin, J., Aning, K.G., 2009. Protective efficacy of Commercial live vaccines against very virulent Infectious Bursal Disease virus (vvIBDV) in Ghana. J. Vet. Med. Anim. Hlth., 1(2): 23-27.

Oluwayelu, D.O., Adebiyi, A. I.,Olaniyan, I., Ezewele, P., Aina, O., 2014. Occurrence of Newcastle Disease and Infectious Bursal Disease Virus Antibodies in Double-Spurred Francolins in Niger. J. Vet. Med., 1-5.

Provost, A., Borredon, C., Bocquet, P., 1972. Deux maladies aviaires nouvelles au Tchad: la laryngotrachéite infectieuse et la maladie de Gumboro. Rev. Elev. Méd. Vét. Pays. Trop., 25 (3): 347-356.

Sharma, J.M., Dohms, J., Walser, M., Snyder, D.B., 1993. Presence of lesions   without virus replication in the thymus of chickens exposed to infectious bursal disease virus. Avian. Dis., 37(3): 741-748.

Sule, A.G., Umoh, J.U., Abdu, P.A., Ajogi, J., Jibrin, U.M., Tijjani, A.O., Atsanda, N.N., Gidado, A.S. 2013. A serological survey for infectious bursal disease virus antibodies among village chickens in Yobe State. Niger. Int. J. Agr. Sci., 3(7): 596-598.

Swai, E.S., Kessya, M.J., Sankaa, P.N., Mtuia, P.F., 2011. A serological survey for infectious bursal disease virus antibodies in free-range village chickens in northern Tanzania. Tydskr. S. Afr. Vet. Ver., 82 (1): 32–35.

Tanimura, N., Tsukamoto, K., Nakamura, K., Narita, M., Maeda, M., 1995. Association between pathogenicity of infectious bursal disease vims and viral antigen distribution detected by immunochemistry. Avian Dis., 39: 9-20.

Van den Berg, T.P., 2000. Acute infectious bursal disease in poultry. A review. Avian. Pathol., 29: 175-193.

Van den Berg, T.P., Gonze, M., Meulemans, G., 1991. Acute infectious bursal disease in poultry: isolation and characterization of a highly virulent strain. Avian. Pathol., 20 (1): 133-143.

Van den Berg, E.N., Toquin, D., Meulemans, G., 2000. Infectious bursal disease (Gumboro disease). Rev. sci. tech. Off. Int. Epiz., 19 (2): 527-543.

Van der Sluis, W., 1999. World poultry diseases update. World. Poult., 15: 30-32.

Wilcox, G.E., Flower, R.L.P., Baxendale, W., Mackenzie, J.S., 1983. Serological survey of wild birds in Australia for the prevalence of antibodies to egg drop syndrome 1976 (EDS‐76) and infectious Bursal disease viruses. Avian.       Pathol., 12(1), 135-139.

Zaheer, A., Inayat, S., Naeem, K., Malik, S.A., 2003. Comparative Immune Response Pattern of Commercial Infectious Bursal Disease Vaccines Against Field Isolates in Pakistan. Int. J. Poul. Sci., 2(6): 449-453.

Author: Surajit Baksi, Nirav Rao, Mukandar Khan

Pages: 1-5

Published Online: Apr. 03, 2018

Article Type: Research Article

Views: 44

Downloads: 0