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Effect of Prepartum Vitamin E and Selenium on Antibody Transfer in Colostrum and Cattle Calves




Effect of Prepartum Vitamin E and Selenium on Antibody Transfer in Colostrum and Cattle Calves

Kashif Prince1,*, Muhammad Sarwar Khan1, Muhammad Ijaz1, Aftab Ahmad Anjum2, Atif Prince3, Naimat Ullah Khan1 and Mumtaz Ali Khan1

1Department of Clinical Medicine and Surgery, University of Veterinary and Animal Sciences, Lahore

2Department of Microbiology, University of Veterinary and Animal Sciences, Lahore

3Department of Zoology, University of the Punjab, Lahore


Present study was intended to evaluate the effect of vitamin E and selenium supplementation on passive transfer of antibodies in colostrum and calves against FMD and HS vaccine. Thirty-five pregnant cattle were selected and seven groups were made consisting five cattle. Group A was controls: Animals in Group B and C were at 45 days prepartum with and without VES: animals in D and E were at day 60 prepartum with and without VES: animals in F and G were at 75 days prepartum stage with and without VES: respectively. At day 0 of experimental trial VES was given to animals in group C, E and G. All groups were given oil based HS vaccine at day 15 and alum based FMD trivalent vaccine at day 30 of experimental trial except Group A. Blood samples from adult cattle were collected at day 0, 15 and 30 after parturition and in cattle calves at age of 0, 14, 28 and 42. Colostrum sample was collected at 0, 12 and 24 h after parturition. Antibody titer was determined by Complement fixation test. Results showed that highest antibody titer was developed in cattle, colostrum and their calves in group G in which treatment was started 75 days prepartum and VESS was given. It was concluded that vitamin E and selenium supplementation improves both active and passive immune system if given before 75 days of parturition.

Article Information

Received 05 June 2017

Revised 26 July 2017

Accepted 07 August 2017

Available online 31 October 2017

Authors’ Contribution

SK, MI and AAA designed the project. KP conducted the study and wrote the paper. AP helped in analysis of data. MIK and NUK helped in preparation of manuscript.

Key words

Selenium, Vitamin E, Cattle, Calves, Colostrum.


* Corresponding author:

0030-9923/2017/0006-2057 $ 9.00/0

Copyright 2017 Zoological Society of Pakistan



Period before and after parturition is stressful for cattle and calves and it is associated with increased incidences of the disease due to immune suppression and increased susceptibility to disease (Mallard et al., 1998; Waller, 2000). Suppression of immune system is probably due to hormonal changes and deficiency of certain nutrients (Goff and Horst, 1997). Selenium is important micromineral for normal functioning of various systems of an animal as it is important component of glutathione peroxidase (Arthur, 2000). It is important component of immune system and deficiency of selenium is associated with impaired immune response (McKenzie et al., 1998). It is also reported that selenium deficiency decreases resistance of the animal against various diseases (Huang and Yang, 2002).

Vitamin E is important antioxidant fat soluble vitamin which must be included in animal diet because animal body cannot synthesize it. Though, it is present in the grass but its level is variable in it and should be added as supplement in the feed (Persson-Waller et al., 2007). Both Selenium and vitamin E have synergistic role because both are antioxidant (Bendich, 1990; Hogan et al., 1996). Level of vitamin E and selenium is important factor for normal immune function in cow due to their antioxidant properties (Hogan et al., 1993; Politis et al., 1996; Sordillo, 2016), same is the case with young calves (Cipriano et al., 1982; Eicher-Pruiett et al., 1992).

Pregnancy is critical stage for calves and need of antioxidants during pregnancy increases many times (Goff and Stabel, 1990; Weiss et al., 1990; Meglia et al., 2006). Similarly, during early lactation animal is in more oxidative stress (Gong and Xiao, 2016). Immune system is not developed in newborn calves due to which they cannot fight with the infectious agents. So, passive transfer of antibodies in compulsory for the survival of neonates which come to them through colostrum (Niewiesk, 2014). Increased incidence of diseases in calves is associated to the impaired passive transfer to the antibodies (McEwan et al., 1970). It is also reported that IgG concentration of pregnant animals drops near parturition (Kehrli and Goff, 1989; Detilleux et al., 1995).

Foot and mouth disease (FMD) is infectious, contagious and acute disease of sheep, goat, cattle, buffalo and wild animals. It is caused by the Aphthovirus of Picornaviridae family which is characterized by low mortality but high mortality (Parida, 2009; Jamal et al., 2010). Due to this property this disease is very concerning in the endemic areas because large number of animals and different type of animals are affected in each outbreak causing ongoing losses (Onono et al., 2013). Similarly Hemorrhagic septicemia (HS) is infectious, contagious and acute disease which, unlike FMD, is highly fatal and affect mainly cattle and water buffalo in tropical regions especially Asia and Africa (De Alwis, 1999; Shivachandra et al., 2011). It is bacterial disease caused by gram negative bacteria Pasteurella multocida (Horadagoda et al., 2001; Hodgson et al., 2005; Vannie et al., 2007). Both of the disease are economically very important and annually lot of money is wasted in prevention and treatment of FMD and HS (Hodgson et al., 2005; Knight-Jones and Rushton, 2013). Vaccination is a common practice performed in the endemic areas against FMD and HS to prevent animals along with other practices like culling the effected animal, restriction of movement of animals and animal products (Verma and Jaiswal, 1998; Vannie et al., 2007).

Keeping in view the importance of the disease, importance of prevention and crucial stage for dam and calf this study was designed to evaluate the effect of vitamin E and Selenium supplementation along with HS and FMD vaccination at various days before parturition on antibody production in cattle and passive transfer of antibodies in colostrum and calves.


Materials and methods

Selection and grouping to the of the animals

Thirty-five adult, healthy and pregnant with no history of HS and FMD were selected in experimental trial. Animal included were at the stage of 45 to 75 days prepartum based on insemination records. Selected animals were randomly divided into seven groups each containing five animals. Groups were made based on days remaining in the parturition. Group A was negative control and no treatment was given to that group. Animals in: Group B and C were at stage 45-day pre-partum with and without VES, respectively: Group D and E were 60 days prepartum with and without VES: Group F and G were 75 days prepartum with or without VES, respectively.

Treatment of groups

At day 0 of experimental trial groups C, E and G were given vitamin E and selenium supplementation in the form of injection (1 ml = 25 mg tocopherol acetate + 2.2 mg sodium selenate). At day 15 of experimental trial oil based HS vaccine was administered and at day 30 of experimental trial alum based FMD trivalent vaccine was administered to all groups except Group A i.e., negative control.

Sample collection

Two types of samples were collected viz., blood and colostrum. Blood samples were collected from both dams and calves. Blood samples from dams were collected at day 0, 15 and 30 post-partum. And from calves at day 0, 14, 28 and 42 of age. Colostrum samples were collected at 0, 12 and 24 h after parturition. Blood was allowed to clot for 30 min and serum was separated by centrifugation following Tuck et al. (2009). Colostrum samples were centrifuged at 10000 ×g at 4 °C for 30 min. Fat layer was removed and clear supernatant was used for antibody titration (Cook et al., 1978).

Antibody titration

Antibody titer of the sample, for both Pasteurella multocida and FMD virus, was determined by Complement Fixation Test (CFT). For HS Standardization of sheep red blood cell (RBC), complement and amboceptors was performed according to Kent and Fife (1963), and for FMD Antibody titer was estimated following OIE (2012). For CFT, amboceptors (antispecies antibodies) were raised in rabbit by continuous challenge with washed sheep RBC. Rabbit serum containing amboceptors was titrated with 1.5% suspension of washed sheep RBC. After titration sub agglutination level was used to sensitize sheep RBC for further use. Sensitization of sheep RBC was done at 37°C with continuous stirring for 60 min. Guinea pig complement was used as hemolytic agent. It was titrated with sensitized RBC and diluted in phosphate buffer saline (PBS) to make 3 hemolytic units (3HU) of complement. Antigen for HS was prepared and standardized according to Boulanger and Gwatkin (1955) and Tanaka (1926) with little modification as mentioned below. Pasteurella multocida was grown on Mueller-Hinton broth and broth was centrifuged 3000 ×g for 30 min and supernatant was discarded. The resulting pellet was washed three times with 30 mM tris-HCl, suspended in 0.5 ml 20% sucrose in 30 mM tris-HCl. Then 50 micro liter lysozyme (10 mg/ml) was added and mixture was kept at freezing point for 30 min and sonicated at 200 watts for 10 min on ice. After sonication, the solution was again centrifuged and clear supernatant was used as antigen. Before use, antigen was titrated for anti-complementary activity with 3HU of complement. The highest dilution showing slight anti complementary activity was selected and half of its value was used for complement fixation test.



Statistical analysis

Data was collected at Microsoft Excel 2016 and results of the treatment groups were compared at day various sampling days of the presented study with one-way analysis of variance on IBM Statistical Package for the Social Sciences (SPSS) 20.0. LSD and Tuckey’s post hoc test was used to compare the treatment groups with 0.05 level of significance.



Antibody titer in adult cattle

Geometric mean titer (GMT) and standard deviation (SD) of treated groups is shown in Figure 1 for Pasteurella multocida ant three strains of FMD virus i.e. O, A and Asia 1. Results showed that highest (p<0.05) antibody titer was observed in Group G for all strains of FMD and HS, in which selenium supplementation was given along with vaccination and treatment was started 75 days before parturition. Group C also shown development of antibodies but significantly lower than group D. No significant antibody titer was developed in the control group and Group B in which treatment was started 45 days before parturition.

Antibody titer in colostrum

Trend in geometric mean titer of colostrum at 0, 12 and 24 h of experimental trial against Pasteurella multocida and three strains of FMD virus strains i.e. O, A and Asia 1 is shown in Figure 2. Highest (p<0.05) antibody titer was observed in group G for each strain, followed by group E. No significant development of the antibody titer was observed in group A and B. antibody titer was maximum in the colostrum which was taken immediately after the parturition. A sharp fall of antibody titer was observed in all groups at 12 and 24 h but the fall in Group E and Group G was less pronounced.

Antibody titer in calves

Antibody titer of the calves at day 0, 14, 28 and 42 against three strains of FMD virus and against Pasteurella multocida is shown in Figure 3. Results show that highest (p<0.05) antibody titer was observed in group G at day 14 after the parturition followed by Group F at the same day. After that it starts decrease and minimal concentration is observed at day 42 of experimental trial. All others groups show minimal (0.05) antibody titer as compared to the Group G.





Highest antibody titer against Pasteurella multocida and FMD virus in adult cattle was observed in group G in which vitamin E and selenium supplementation was given at the 75 days before parturition. There was very low antibody titer in groups A showing that there is no involvement of field agent and there was no outbreak of FMD and HS during experimental trial. There was significantly lower antibody titer in group F in which treatment was started at 75 days prepartum. the results of present study are in agreement with previous researches which claim vitamin E and selenium supplementation improve the immune response of chicken (Marsh et al., 1981), pig (Peplowski et al., 1980; Blodgett et al., 1986; Hayek et al., 1989) lamb (Larsen et al., 1988; Reffett et al., 1988), cattle (Droke and Loerch, 1989) and horse (Baalsrud and Overnes, 1986). Group E showed produced a bit lower level of antibodies but there was significant difference because peak production of FMD antibodies is obtained at 7 days post vaccination (Golde et al., 2005) and for HS vaccination take lot more time to reach at maximum level but protective level is obtained earlier (Sabia and Hari, 2014).

Highest colostral antibody titer was obtained against all strains of FMD virus and Pasteurella multocida in group G in which vitamin E and selenium was given at the 75 days prepartum confirming that vitamin E and selenium improves passive transfer of antibodies. Antibody titer at 45 and 60 day prepartum group was higher in selenium and vitamin E supplemented groups.

Highest antibody titer was observed in selenium supplemented groups as compared to non-supplemented groups. Results of our study are in agreement to previous researchers. Swecker et al. (1995) evaluated the effect selenium supplementation on specific antibodies against lysozyme, results showed that colostral antibodies were higher in selenium supplemented groups. Similar results were obtained by Awadeh et al. (1998) who evaluated the effect of selenium supplementation on humoral immune response in ewes, highest antibody in colostrum was observed in selenium supplemented groups. Same results were obtained by Stewart et al. (2013) and Hall et al. (2014) both of them worked on ewes to evaluate effect of selenium supplementation on colostral antibodies. Highest antibody titer was observed in which treatment was started day 75 pre-partum in present study. FMD vaccine need at least 7 days to reach maximum production of antibodies (Golde et al., 2005) and for HS vaccination take even more time (Sabia and Hari, 2014). For 75-day group, there was lot of time for efficient production and transfer of antibodies.

Lactation is always a stressful period for the animal because animals produce milk in lot of quantity and must recover parenchyma. There is increased requirement of oxygen producing higher quantities of reactive oxygen species (Gitto et al., 2002). Normally animal body is at equilibrium and ROS production and destruction continues but at periparturient period animal has to face the increased oxidative stress due to decreased capacity of the antioxidant system to remove ROS (Bernabucci et al., 2005; Castillo et al., 2005; Sordillo et al., 2007). This oxidative stress during the periparturient period also affect the immunity (Sordillo and Aitken, 2009). Oxidative stress means the higher level of ROS in the body which is very toxic to lipids, protein and DNA cause damage to them (Schieber and Chandel, 2014). No doubt the ROS are beneficial for message transduction in innate and adaptive immune responses (West et al., 2011; Kamiński et al., 2013), access of ROS causes damage to the immune responses (Mittal et al., 2014). Selenium is important component of antioxidant defense system in both animals and humans because it is the integral part of glutathione peroxidase (Stadtman, 1996; Schwarz and Foltz, 1999) and other similar selenoprotiens which perform antioxidant function (Gladyshev, 2001). Similarly vitamin E is also important antioxidant, its deficiency causes impairment of immune system and its supplementation improves it (Tengerdy and Brown, 1977). Selenium is needed for normal functions of immune system both innate and adaptive (Hall et al., 2011; Hugejiletu et al., 2013; Stewart et al., 2013). Basically, there are two type of immune responses active and passive. Active immune response means development of antibodies by using antigen as a signal to produce antibodies in the body. While passive immunity means taking already prepared antibodies from some other source and the natural example for this is the production of antibodies in mothers and transfer of it through colostrum. Though the active immune response is long lasting the passive transfer of antibodies is important in initial days of life. Main type of antibody which is transferred through colostrum in the ruminants is IgG which comes from mother serum (Baumrucker et al., 2010). Above account explain possible mechanism to improve the immune status at prepartum stage by the vitamin and selenium supplementation. Meanwhile some researches says there is no effect of vitamin E and selenium supplementation on passive transfer of antibodies to colostrum and offspring (Lacetera et al., 1996).

Highest antibody titer in cattle calves was observed in group G in which selenium and vitamin supplementation was given along with vaccination. Results of the study are in agreement with previous researchers. Awadeh et al. (1998) and Swecker et al. (1995) concluded selenium supplementation improves the passive transfer of IgM and IgG respectively in cattle calves. Increase in passive transfer of antibodies to the lambs was also observed by Rock et al. (2001). But it is useless to use it above certain level after which there is no significant improvement was observed (Koenig and Beauchemin, 2009).

This increased level of antibodies in calves may be associated with the higher level of antibodies in colostrum and there may be the effect of selenium in improvement of efficiency of antibody absorption from small intestine because it is proved earlier that higher content of selenium in colostrum improves the absorption of the immunoglobulins by the small intestine (Kamada et al., 2007) and Selenium supplementation during prepartum period improves the selenium and antibodies content of serum and colostrum (Hall et al., 2014). Similarly, supplementation of selenium and vitamin E to the mother is thought to be very important method to supplement the newborn calves and preventing them from selenium deficiency because both can cross placental and mammary gland barriers and can enter to fetal tissues and milk (Ghany-Hefnawy et al., 2007; Hidiroglou et al., 1995; Rock et al., 2001; Stewart et al., 2013).

In present study colostrum offered the calves was taken by their own mothers and selenium supplemented groups had higher antibody titer at any stage at which the calves were given colostrum. We did not check the selenium level but it is understood that selenium and vitamin supplemented groups has higher level of vitamin E and selenium in there colostrum and mother which do not receive these in diet do not have sufficient quantity to deliver their calves (Quigley and Drewry, 1998; Hall et al., 2014).

Exact mechanism how selenium improves absorption of antibodies is still unknown but it may be associated with reduction in proteolytic activity in stomach of calves by reducing the efficiency of trypsin which increases chances of survival of the antibodies and chances of uptake by small intestine increases. Absorption period for antibodies varies but it is considered that absorption of the antibodies is reduced after 6 h which keep on reducing till 24 h after which there is very minute or no absorption of antibodies (Quigley and Drewry, 1998). Increased uptake could also be associated with the increased numbers of transporter or there may be the growth and vascularization of mammary tissue (Meyer et al., 2012). It is also a hypothesis that selenium acts directly on the intestinal epithelium and improves pinocytosis (Kamada et al., 2007).




Present study concluded that prepartum supplementation of cattle with vitamin E and Selenium along with vaccination improves the antibody titer in animal and improves colostral content of antibodies and passive transfer of antibodies.




We acknowledge Higher Education Commission for giving funds for research completion


Statement of conflict of interest

The authors declare that there is no conflict of interests regarding the publication of this article




Arthur, J.R., 2000. The glutathione peroxidases. Cell. Mol. Life Sci., 57: 1825-1835.

Awadeh, F.T., Kincaid, R.L. and Johnson, K.A., 1998. Effect of level and source of dietary selenium on concentrations of thyroid hormones and immunoglobulins in beef cows and calves. J. Anim. Sci., 76: 1204-1215.

Baalsrud, K.J. and Overnes, G., 1986. Influence of vitamin E and selenium supplement on antibody production in horses. Equine Vet. J., 18: 472-474.

Baumrucker, C.R., Burkett, A.M., Magliaro-Macrina, A.L. and Dechow, C.D., 2010. Colostrogenesis: Mass transfer of immunoglobulin g1 into colostrum. J. Dairy Sci., 93: 3031-3038.

Bendich, A., 1990. Antioxidant micronutrients and immune responses. Annls. N.Y. Acad. Sci., 587: 168-180.

Bernabucci, U., Ronchi, B., Lacetera, N. and Nardone, A., 2005. Influence of body condition score on relationships between metabolic status and oxidative stress in periparturient dairy cows. J. Dairy Sci., 88: 2017-2026.

Blodgett, D.J., Schurig, G.G. and Kornegay, E.T., 1986. Immunomodulation in weanling swine with dietary selenium. Am. J. Vet. Res., 47: 1517-1519.

Boulanger, P. and Gwatkin, R., 1955. Complement-fixation tests of swine serum ii. In the demonstration of pasteurella multocida antibodies in experimentally produced rhinitis. Can. J. Comp. Med. Vet. Sci., 19: 276-279.

Castillo, C., Hernandez, J., Bravo, A., Lopez-Alonso, M., Pereira, V. and Benedito, J.L., 2005. Oxidative status during late pregnancy and early lactation in dairy cows. Vet. J., 169: 286-292.

Cipriano, J.E., Morrill, J.L. and Anderson, N.V., 1982. Effect of dietary vitamin E on immune responses of calves. J. Dairy Sci., 65: 2357-2365.

Cook, D.A., Zbitnew, A., Dempster, G. and Gerrard, J.W., 1978. Detection of antibody to rotavirus by counterimmunoelectrophoresis in human serum, colostrum, and milk. J. Pediat., 93: 967-970.

De Alwis, M.C.L., 1999. Haemorrhagic septicaemia. Australian Centre for International Agricultural Research, Canberra, A.C.T.

Detilleux, J.C., Kehrli, Jr. M.E., Stabel, J.R., Freeman, A.E. and Kelley, D.H., 1995. Study of immunological dysfunction in periparturient holstein cattle selected for high and average milk production. Vet. Immunol. Immunopathol., 44: 251-267.

Droke, E.A. and Loerch, S.C., 1989. Effects of parenteral selenium and vitamin E on performance, health and humoral immune response of steers new to the feedlot environment. J Anim. Sci., 67: 1350-1359.

Eicher-Pruiett, S.D., Morrill, J.L., Blecha, F., Higgins, J.J., Anderson, N.V. and Reddy, P.G., 1992. Neutrophil and lymphocyte response to supplementation with vitamins C and E in young calves. J. Dairy Sci., 75: 1635-1642.

Ghany-Hefnawy, A.E., López-Arellano, R., Revilla-Vázquez, A., Ramírez-Bribiesca, E. and Tórtora-Pérez J., 2007. The relationship between fetal and maternal selenium concentrations in sheep and goats. Small Rumin. Res., 73: 174-180.

Gitto, E., Reiter, R.J., Karbownik, M., Tan, D.X., Gitto, P., Barberi, S. and Barberi, I., 2002. Causes of oxidative stress in the pre- and perinatal period. Biol. Neonate, 81: 146-157.

Gladyshev, V.N., 2001. Selenium in biology and human health: Controversies and perspectives. In: Selenium: Its molecular biology and role in human health (ed. D.L. Hatfield). Springer, Boston, MA, USA, pp. 313-317.

Goff, J.P. and Horst, R.L., 1997. Physiological changes at parturition and their relationship to metabolic disorders. J. Dairy Sci., 80: 1260-1268.

Goff, J.P. and Stabel, J.R., 1990. Decreased plasma retinol, alpha-tocopherol, and zinc concentration during the periparturient period: Effect of milk fever. J. Dairy Sci., 73: 3195-3199.

Golde, W.T., Pacheco, J.M., Duque, H., Doel, T., Penfold, B., Ferman, G.S., Gregg, D.R. and Rodriguez, L.L., 2005. Vaccination against foot-and-mouth disease virus confers complete clinical protection in 7 days and partial protection in 4 days: Use in emergency outbreak response. Vaccine, 23: 5775-5782.

Gong, J. and Xiao, M., 2016. Selenium and antioxidant status in dairy cows at different stages of lactation. Biol. Trace Elem. Res., 171: 89-93.

Hall, J.A., Bobe, G., Vorachek, W.R., Estill, C.T., Mosher, W.D., Pirelli, G.J. and Gamroth, M., 2014. Effect of supranutritional maternal and colostral selenium supplementation on passive absorption of immunoglobulin g in selenium-replete dairy calves. J. Dairy Sci., 97: 4379-4391.

Hall, J.A., Bobe, G., Vorachek, W.R., Kasper, K., Traber, M.G., Mosher, W.D., Pirelli, G.J. and Gamroth, M., 2014. Effect of supranutritional organic selenium supplementation on postpartum blood micronutrients, antioxidants, metabolites, and inflammation biomarkers in selenium-replete dairy cows. Biol. Trace Elem. Res., 161: 272-287.

Hall, J.A., Sendek, R.L., Chinn, R.M., Bailey, D.P., Thonstad, K.N., Wang, Y., Forsberg, N.E., Vorachek, W.R., Stang, B.V., Van Saun, R.J. and Bobe, G., 2011. Higher whole-blood selenium is associated with improved immune responses in footrot-affected sheep. Vet. Res., 42: 99.

Hayek, M.G., Mitchell, Jr. G.E., Harmon, R.J., Stahly, T.S., Cromwell, G.L., Tucker, R.E. and Barker, K.B., 1989. Porcine immunoglobulin transfer after prepartum treatment with selenium or vitamin E. J. Anim. Sci., 67: 1299-1306.

Hidiroglou, M., Batra, T.R., Farnworth, E.R. and Markham, F., 1995. Effect of vitamin E supplementation on immune status and alpha-tocopherol in plasma of piglets. Reprod. Nutr. Dev., 35: 443-450.

Hodgson, J.C., Finucane, A., Dagleish, M.P., Ataei, S., Parton, R. and Coote, J.G., 2005. Efficacy of vaccination of calves against hemorrhagic septicemia with a live aroa derivative of Pasteurella multocida b:2 by two different routes of administration. Infect. Immun., 73: 1475-1481.

Hogan, J.S., Weiss, W.P. and Smith, K.L., 1993. Role of vitamin E and selenium in host defense against mastitis. J. Dairy Sci., 76: 2795-2803.

Hogan, J.S., Weiss, W.P., Smith, K.L., Sordillo, L.M. and Williams, S.N., 1996. Alpha-tocopherol concentrations in milk and plasma during clinical Escherichia coli mastitis. J. Dairy Sci., 79: 71-75.

Horadagoda, N.U., Hodgson, J.C., Moon, G.M., Wijewardana, T.G. and Eckersall, P.D., 2001. Role of endotoxin in the pathogenesis of haemorrhagic septicaemia in the buffalo. Microb. Pathog., 30: 171-178.

Huang, K. and Yang, S., 2002. Inhibitory effect of selenium on cryptosporidium parvum infection in vitro and in vivo. Biol. Trace Elem. Res., 90: 261-272.

Hugejiletu, H., Bobe, G., Vorachek, W.R., Gorman, M.E., Mosher, W.D., Pirelli, G.J. and Hall, J.A., 2013. Selenium supplementation alters gene expression profiles associated with innate immunity in whole-blood neutrophils of sheep. Biol. Trace Elem. Res., 154: 28-44.

Jamal, S.M., Ahmed, S., Hussain, M. and Ali, Q., 2010. Status of foot-and-mouth disease in pakistan. Arch. Virol., 155: 1487-1491.

Kamada, H., Nonaka, I., Ueda, Y. and Murai, M., 2007. Selenium addition to colostrum increases immunoglobulin g absorption by newborn calves. J. Dairy Sci., 90: 5665-5670.

Kamiński, M.M., Röth, D., Krammer, P.H. and Gülow, K., 2013. Mitochondria as oxidative signaling organelles in t-cell activation: Physiological role and pathological implications. Arch. Immunol. Therap. Exp., 61: 367-384.

Kehrli, Jr. M.E. and Goff, J.P., 1989. Periparturient hypocalcemia in cows: Effects on peripheral blood neutrophil and lymphocyte function. J. Dairy Sci., 72: 1188-1196.

Kent, J.F. and Fife, Jr. E.H., 1963. Precise standardization of reagents for complement fixation. Am. J. trop. Med. Hyg., 12: 103-116.

Knight-Jones, T.J.D. and Rushton, J., 2013. The economic impacts of foot and mouth disease – what are they, how big are they and where do they occur? Prev. Vet. Med., 112: 161-173.

Koenig, K.M. and Beauchemin, K.A., 2009. Supplementing selenium yeast to diets with adequate concentrations of selenium: Selenium status, thyroid hormone concentrations and passive transfer of immunoglobulins in dairy cows and calves. Canadian J. Anim. Sci., 89: 111-122.

Lacetera, N., Bernabucci, U., Ronchi, B. and Nardone, A., 1996. Effects of selenium and vitamin E administration during a late stage of pregnancy on colostrum and milk production in dairy cows, and on passive immunity and growth of their offspring. Am. J. Vet. Res., 57: 1776-1780.

Larsen, H.J., Moksnes, K. and Overnes, G., 1988. Influence of selenium on antibody production in sheep. Res. Vet. Sci., 45: 4-10.

Mallard, B.A., Dekkers, J.C., Ireland, M.J., Leslie, K.E., Sharif, S., Vankampen, C.L., Wagter, L. and Wilkie, B.N., 1998. Alteration in immune responsiveness during the peripartum period and its ramification on dairy cow and calf health. J. Dairy Sci., 81: 585-595.

Marsh, J.A., Dietert, R.R. and Combs, Jr. G.F., 1981. Influence of dietary selenium and vitamin e on the humoral immune response of the chick. Proc. Soc. exp. Biol. Med., 166: 228-236.

McEwan, A.D., Fisher, E.W. and Selman, I.E., 1970. Observations on the immune globulin levels of neonatal calves and their relationship to disease. J. Comp. Pathol., 80: 259-265.

McKenzie, R.C., Rafferty, T.S. and Beckett, G.J., 1998. Selenium: An essential element for immune function. Immunol. Today, 19: 342-345.

Meglia, G.E., Jensen, S.K., Lauridsen, C. and Persson-Waller, K., 2006. Alpha-tocopherol concentration and stereoisomer composition in plasma and milk from dairy cows fed natural or synthetic vitamin e around calving. J. Dairy Res., 73: 227-234.

Meyer, A.M., Reed, J.J., Neville, T.L., Taylor, J.B., Reynolds, L.P., Redmer, D.A., Vonnahme, K.A. and Caton, J.S., 2012. Effects of nutritional plane and selenium supply during gestation on visceral organ mass and indices of intestinal growth and vascularity in primiparous ewes at parturition and during early lactation1. J. Anim. Sci., 90: 2733-2749.

Mittal, M., Siddiqui, M.R., Tran, K., Reddy, S.P. and Malik, A.B., 2014. Reactive oxygen species in inflammation and tissue injury. Antioxid. Redox. Signal, 20: 1126-1167.

Niewiesk, S., 2014. Maternal antibodies: Clinical significance, mechanism of interference with immune responses, and possible vaccination strategies. Front. Immunol., 5: 446.

OIE, 2012. Manual of diagnostic tests and vaccines for terrestrial animals.

Onono, J.O., Wieland, B. and Rushton, J., 2013. Constraints to cattle production in a semiarid pastoral system in kenya. Trop. Anim. Hlth. Prod., 45: 1415-1422.

Parida, S., 2009. Vaccination against foot-and-mouth disease virus: Strategies and effectiveness. Expert Rev. Vaccines, 8: 347-365.

Peplowski, M.A., Mahan, D.C., Murray, F.A., Moxon, A.L., Cantor, A.H. and Ekstrom, K.E., 1980. Effect of dietary and injectable vitamin E and selenium in weanling swine antigenically challenged with sheep red blood cells. J. Anim. Sci., 51: 344-351.

Persson-Waller, K., Hallen-Sandgren, C., Emanuelson, U. and Jensen, S.K., 2007. Supplementation of rrr-alpha-tocopheryl acetate to periparturient dairy cows in commercial herds with high mastitis incidence. J. Dairy Sci., 90: 3640-3646.

Politis, I., Hidiroglou, N., White, J.H., Gilmore, J.A., Williams, S.N., Scherf, H. and Frigg, M., 1996. Effects of vitamin E on mammary and blood leukocyte function, with emphasis on chemotaxis, in periparturient dairy cows. Am. J. Vet. Res., 57: 468-471.

Quigley, J.D. and Drewry, J.J., 1998. Nutrient and immunity transfer from cow to calf pre- and postcalving. J. Dairy Sci., 81: 2779-2790.

Reffett, J.K., Spears, J.W. and Brown, Jr. T.T., 1988. Effect of dietary selenium and vitamin E on the primary and secondary immune response in lambs challenged with parainfluenza3 virus. J. Anim. Sci., 66: 1520-1528.

Rock, M.J., Kincaid, R.L. and Carstens, G.E., 2001. Effects of prenatal source and level of dietary selenium on passive immunity and thermometabolism of newborn lambs. Small Rumin. Res., 40: 129-138.

Rock, M.J., Kincaid, R.L. and Carstens, G.E., 2001. Effects of prenatal source and level of dietary selenium on passive immunity and thermometabolism of newborn lambs. Small Rumin. Res., 40: 129-138.

Sabia, Q. and Hari, M.S., 2014. Estimation of titers of antibody against Pasteurella multocida in cattle vaccinated with haemorrhagic septicemia alum precipitated vaccine. Vet. World, 7: 224-228.

Schieber, M. and Chandel, N.S., 2014. Ros function in redox signaling and oxidative stress. Curr. Biol., 24: R453-R462.

Schwarz, K. and Foltz, C.M., 1999. Selenium as an integral part of factor 3 against dietary necrotic liver degeneration. Nutrition, 15: 255.

Shivachandra, S.B., Viswas, K.N. and Kumar, A.A., 2011. A review of hemorrhagic septicemia in cattle and buffalo. Anim. Hlth. Res. Rev., 12: 67-82.

Sordillo, L.M., 2016. Nutritional strategies to optimize dairy cattle immunity. J. Dairy Sci., 99: 4967-4982.

Sordillo, L.M. and Aitken, S.L., 2009. Impact of oxidative stress on the health and immune function of dairy cattle. Vet. Immunol. Immunopathol., 128: 104-109.

Sordillo, L.M., O’Boyle, N., Gandy, J.C., Corl, C.M. and Hamilton, E., 2007. Shifts in thioredoxin reductase activity and oxidant status in mononuclear cells obtained from transition dairy cattle. J. Dairy Sci., 90: 1186-1192.

Stadtman, T.C., 1996. Selenocysteine. Annu. Rev. Biochem., 65: 83-100.

Stewart, W.C., Bobe, G., Vorachek, W.R., Stang, B.V., Pirelli, G.J., Mosher, W.D. and Hall, J.A., 2013. Organic and inorganic selenium: Iv. Passive transfer of immunoglobulin from ewe to lamb. J. Anim. Sci., 91: 1791-1800.

Swecker, Jr. W.S., Thatcher, C.D., Eversole, D.E., Blodgett, D.J. and Schurig, G.G., 1995. Effect of selenium supplementation on colostral igg concentration in cows grazing selenium-deficient pastures and on postsuckle serum igg concentration in their calves. Am. J. Vet. Res., 56: 450-453.

Tanaka, A., 1926. A comparative study of pasteurella cultures from different animals. J. Infect. Dis., 38: 421-428.

Tengerdy, R.P. and Brown, J.C., 1977. Effect of vitamin E and A on humoral immunity and phagocytosis in E. coli infected chicken. Poult. Sci., 56: 957-963.

Tuck, M.K., Chan, D.W., Chia, D., Godwin, A.K., Grizzle, W.E., Krueger, K.E., Rom, W., Sanda, M., Sorbara, L., Stass, S., Wang, W. and Brenner, D.E., 2009. Standard operating procedures for serum and plasma collection: Early detection research network consensus statement standard operating procedure integration working group. J. Proteome Res., 8: 113-117.

Vannie, P., Capua, I., Le Potier, M.F., Mackay, D.K., Muylkens, B., Parida, S., Paton, D.J. and Thiry, E., 2007. Marker vaccines and the impact of their use on diagnosis and prophylactic measures. Rev. Sci. Tech., 26: 351-372.

Verma, R. and Jaiswal, T.N., 1998. Haemorrhagic septicaemia vaccines. Vaccine, 16: 1184-1192.

Waller, K.P., 2000. Mammary gland immunology around parturition. Influence of stress, nutrition and genetics. Adv. Exp. med. Biol., 480: 231-245.

Weiss, W.P., Todhunter, D.A., Hogan, J.S. and Smith, K.L., 1990. Effect of duration of supplementation of selenium and vitamin e on periparturient dairy cows. J. Dairy Sci., 73: 3187-3194.

West, A.P., Shadel, G.S. and Ghosh, S., 2011. Mitochondria in innate immune responses. Nat. Rev. Immunol., 11: 389-402.

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Pakistan Journal of Zoology (Associated Journals)


Vol. 49, Iss. 5, Pages 1547-1936


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