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Med. Weter. 2013, 69 (9) 568

Opis przypadku Case report

Side effects of drugs are reported in veterinary

medicine. In Switzerland, where system for the

moni-toring of side effects in animals had been introduced,

only 134 notifications were registered in 2009. Most

frequently, that is in 30% of cases, side effects were

caused by antihelminthic preparations, more seldom

by anti-infectious and hormonal drugs – in 19% and

13% of cases, respectively. Side effects of vaccination

are reported even more seldom. Most of the reports

concern the most popular vaccine against the blue

tongue disease. Alarming symptoms have been noted

in one out of 1393 vaccinations. Other vaccines reported

to induce side effects are antifungal and circovirus

vaccines in swine, but these reports have been

extre-mely rare (10). In a mild form, oedema, abscesses, or

lymphadenoma occur most commonly at the injection

site. More seldom are general signs, including nervous

system disturbances, such as encephalopathy,

ence-phalitis, meningitis, or polimielitis. Sporadically, side

effects include septicaemia, thrombocytopenia or

pancytopenia, abortions, and arthropathy, or, in extreme

cases, anaphylactic shock or death (3-5, 7, 9, 10).

In the present article three cases of adverse effects in

cattle are presented, following the administration of

vaccines against 1) IBR/IPV and BVD/MD, 2) BRSV

and PI3 and/or 3) Carofertin injections.

Case reports

Case 1. Herd of 150 Polish Friesian cows were vaccinated intramuscularly with a deletion vaccine against IBR/IPV (Bovilis-IBR, Intervet-Schering) containing an inactivated antigen BHV-1 (gE) strain GK/D (60 units in 1 ml) and with an inactivated vaccine against BVD-MD (Bovilis BVD/Bovilis, Intervet Shering) containing an inactivated antigen of cytophatic strain C-86. Within one to four hours after vaccination, 12 (8%) cows developed conjunctival hyperaemia, as well as oedema of the eyes, neck, and dewlap. Urticaria was observed on the skin of the head and neck. In four cows, severe oedema affected the entire head giving it a hippopotamus-like appearance. The animals were

Sides effects of vaccination and Carofertin injections

in cattle: Case reports

JÊDRZEJ M. JAŒKOWSKI, W£ODZIMIERZ GRZELAK*, JACEK ZIÊTARA**, JAN W£ODAREK

Institute of Veterinary Medicine, Faculty of Animal Breeding and Biology, Poznañ University of Life Sciences, Wo³yñska 35, 60-637 Poznañ, Poland

*Clinic for Animals, Kardyna³a Wyszyñskiego 23, 88-220 Osiêciny **Veterinary Clinic „Centrum” s.c., Witosa 29, 89-240 Kcynia

Jaœkowski J. M., Grzelak W., Ziêtara J., W³odarek J.

Sides effects of vaccination and Carofertin injections in cattle: Case reports

Summary

The paper presents three cases of side effects of the following veterinary drugs in cattle: 1) inactivated vaccines against IBR/IPV and BVD/MD, 2) a live vaccine against BRSV and/or 3) â-carotene in Carofertin. In the first case, as an effect of a simultaneous intramuscular vaccination of 150 cows with inactivated vaccines against IBR/IPV and BVD/MD, classical allergy sings with urticaria, strong oedema at the injection site and head swelling occurred in 12 (8%) animals. Shortly after anti-inflammatory treatment, all sings disappeared. In the second case, an intranasal inoculation of newly purchased calves with a vaccine against BRSV caused a severe immune depression manifesting itself in a sudden strong diarrhea and death of 18 out of 20 calves (90%) within a few days after vaccination. This may have resulted from the fact that the animals had been vaccinated shortly after transportation, during the adaptation time. In the third case, an intramuscular administration of Carofertin to one cow caused hypersensitivity in the form of urticaria, the swelling of the eyelids and the udder, as well as vulval oedema of the vulvae. Treatment was successful, and all alarming signs subsided. Possible reasons for these rapid reactions are widely discussed.

Keywords: side effects, vaccination against IBR/BVD, vaccination against BRSV and PI3, Carofertin application, cattle

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Med. Weter. 2013, 69 (9) 569 treated symptomatically with Dependin Veyx (Veyx) 50 ml

in 10 ml doses, containing 7.5 mg prednisolone and 2.5 mg dexametazone in 1 ml, as well as with Calciphos (Biowet Drwalew) 250 ml in intravascular infusion. There was a total remission of signs within 2-9 days. It is worth adding that this was the seventh vaccination against IBR/IPV and BVD/MD in the herd. Each vaccination was repeated at intervals of 5.5-6 months. This vaccination was conducted at the end of August 2001 on a hot day at about eleven a.m. Each cow received 2 ml of each vaccine in the neck muscles (on both sides of the neck).Vaccines were injected with disposable syringes and needles.

Case 2. The application of a vaccine against BRSV and PI3V caused a rapid reaction in newly purchased calves, manifesting itself in sudden, severe diarrhoea and high mortality within several days after vaccination. Twenty calves were bought in late September 2012 from a large--scale trader in animals. The buyer personally selected calves from a bigger group of animals purchased by the trader in domestic farms. At the time of being delivered to the buyer’s farm, at the beginning of October 2012, the calves were 5-8 weeks old, and their body mass was 80-120 kg. Their general condition was very good. They were placed in a separate, light and dry pen on straw. All received milk, good quality hay, and water. Upon arrival, the calves were given Rispoval IntraNasal Rs+Pi3 (Pfizer), containing a live modified syncytial respiratory virus, strain 375, and a live bovine parainfluenza virus (PI3), strain RLB103. Additionally, they received a s.c. genthamycin injection (Zactran® (Merial) at a dose of 6 mg/kg b.w. The

first alarming clinical signs in the form of watery diarrhoea appeared in three calves within 5 days after the purchase. All the calves were taken off powdered milk and given Diakur Plus (Boehringer Ingelheim Vetmedica GmbH). The sick calves were additionally administered Potencil®

(Virbac Animal Health) at a dose of 1 ml/10 kg body weight, Buscopan compositum (Boehringer IngelheimVetmedica GmbH) at a dose of 1ml/10kg body weight, and per os Biomox 100 (Vetoquinol) at a dose of 6 g twice a day. All the calves received an i.m. injection of Vit. E 50 + Se pro inj. 100 ml (Novartis) at a dose of 2 ml/10 kg body weight. After two days, signs from the respiratory system occured: faster wheezing breath, mucopurulent discharge from the nose, lacrimation and abundant salivation. In spite of the therapy, the animals almost completely lost appetite, they did not drink, and their internal temperature rose to 40.5--41°C. The first two calves died 7 days after the purchase, and they were the animals that had not shown any alarming signs of disease on the previous day. The autopsy revealed no significant changes. The remaining animals were given intra muscular Oxytet XLA (ScanVet) at a dose of 1 ml/10 kg b.w., Metacam 20 mg (Boehringer IngelheimVetmedica GmbH) at a dose of 2.5 ml/100 kg b.w., DOXYMED 50 (Dopharma) at a dose of 2 g/100 kg b.w. twice a day, Vita-mine C 10% inj. (Biowet Pulawy) at a dose of 1 ml/10 kg b.w., and Prolyt Pack (Biochem). The calves were hydra-ted intravenously or intraperitoneally and watered with an abomasal tube. This treatment did not have any effect – after 11 days another eight calves died. The autopsy

revealed oedema and hyperaemia of the lungs, as well as small amounts of serum liquid in the pleura cavity. The surviving animals were administered intravenously PA-180 at a dose of 1.5 ml/30 kg b.w. and/or Metacam (Boehringer Ingelheim Vetmedica GmbH) and Calfoset (KRKA Poland). This treatment was unsuccessful, either. Recovered animals relapsed. After 20 days from the purchase, the number of dead calves increased to 14, and after 25 and 30 days, to 17 and 18, respectively. Ultimately, only two calves survived. In the meantime, a BVD examination of the blood revealed the presence of PI individuals, but owing to high laboratory costs, the calves belonging to the pool were not examined individally.

Case 3. In late May 2008, a Holstein-Friesian cow was given an intramuscular 20 ml injection of Carofertin (Werfft--Chemie, GmbH), containing 10 mg beta carotene in 1 ml of solution. Several minutes after the injection, urticaria appeared on the sides of the neck (Fig. 1). Simultaneously, swelling of the eyelids and/or chemosis (Fig. 2), as well as a considerable swelling around the ears (Quincke’s oedema) were observed. Moreover, vulvul oedema (Fig. 3) occur-red, as well as hyperaemia and cyanosis of the udder skin. The cow received intravenously Calcium borogluconatum

Fig. 1. Urticaria

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Med. Weter. 2013, 69 (9) 570

25% (Biowet Drwalew SA) at a dose of 0.5 ml/kg b.w. and intramuscularly 15 ml Rapidexon (Novartis), containing 2 mg/1 ml dexamethasone in the form of natrium phospho-ricum. After about 30 minutes, the signs disappeared. As it resulted from the anamnesis, in the years 2008 and 2009 several dozen similar cases were observed on a smaller farm. In two cases the animals died.

Discussion

Local reactions are usually the mildest

postinocula-tion complicapostinocula-tions. Most frequently they appear in the

form of oedema, hyperaemia, and pain at the site of

the injection. Local postinoculation reactions occur

particularly often after the administration of a live

vaccine, and their sings usually disappear after 2-3

days. In the case of reactions to adjuvants added to

the vaccine, the signs may persist much longer. Side

effects may sometimes be more severe and require

treatment. The most frequent reactions to inactivated

vaccines in cows are a short-term loss of production,

a temporary somatic cells increase, and a moderate

increase in internal temperature (1, 2). These have been

confirmed by reports. In cows vaccinated twice with

an inactivated deleted vaccine against IBR, a

signifi-cant decrease in production was observed within 14

days (2). This effect was more pronounced after the

vaccine had been administered for the second time. In

cows vaccinated against IBR/BVD, abortions have

been reported, whereas in cows vaccinated with

a modified live vaccine against IBR, severe infections

of keratoconjunctivitis have beeb observed (6, 8).

Moreover, among cows vaccinated against IBR/IPV,

there have been cases of encephalomeningitis (3).

In the above case, cows developed typical allergic

sings including urticaria, strong swelling at the

injec-tion site, and head oedema. Less informainjec-tion is

avail-able on the side effects of vaccines against BVD/MD.

According to the producers, such vaccines may trigger

mild local reactions disappearing without treatment.

These reactions usually depend on the kind of

adju-vants used in the vaccine. Inactivated vaccines may

have a fragmentary infectivity if vaccination is

per-formed improperly (11). In the case of live vaccines,

the appearance of MD was reported in cows shortly

after vaccination in the 1960s. Live antigens of the

vaccine against BVDV have been known to penetrate

the placenta barrier, infecting the foetus and causing

sings of disease in newborn calves or malformations

of the central nervous system (13). There have also

been reports about the immunosuppressive influence

of vaccines and about negative effects of their

conta-mination with other viruses (11). Lately, pancytopenia

dangerous to the lives of calves has been reported

after the vaccination of their mothers against BVD with

a live attenuated vaccine BVD (4, 5).

It seems that in the first case presented here, a strong

allergic reaction after the vaccination against IBR/IPV

and BVD/MD may have been be related to highly

unfavourable environmental conditions (high ambient

temperature) during vaccination. This hypothesis seems

to be confirmed by the fact that a similar booster

vac-cination of a neighbouring herd, conducted several days

later in a lower temperature with the same vaccine did

not result in any side effects.

Data on the side effects of vaccination against BRSV

in cows are scarce. Such cases have been reported in

the Blue Belgian breed vaccinated with an inactivated

monovalent vaccine against BRS – Vacores

®

(Rhone--Merieux, Lyon, France) containing strain BRSV 220/69

inactivated with â-priopriolacton (12). One-month-old

calves were vaccinated twice at an inteval of 21 days.

In accordance with the producer’s instructions, the

calves received another injection at the age of four

months. Both clinical sings and the macroscopic

lesions of the lungs were similar to those

characteri-stic of BRSV infections. The outbreak of the disease

took place in calves aged 204 ± 29 days, 30% of which

died because of the respiratory distress syndrome

within 6 days after the first clinical signs. It seems that

in the second case presented above, the sudden acute

course of the post-inoculation reaction was caused by

administering the vaccine shortly after transport in the

adaptation stress period. It is known that vaccination

should preferably be performed 2-3 weeks before the

transport or a potentially stressful situation, which in

the case described above was impossible. The

reac-tion may also have been related to the presence of

calves permanently infected with BVDV, which was

confirmed in the group of purchased animals.

Immuno-suppressive activity of this virus is commonly known.

The application of the live vaccine may have

deepened the immunological deficit and trigger an

extreme reaction of the organism, leading to death.

The absence of a sufficient protective reaction to the

vaccine is puzzling. This may have been caused by

the simultaneous administration of a long-lasting

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Med. Weter. 2013, 69 (9) 571

biotic (which is not fully legitimate) with known

immunosuppressive properties.

It seems that in both cases presented above, the side

effects were additionally caused by the wrong timing

of vaccination (ignoring the high ambient temperature

and transport stress). Such mistakes are relatively

frequent. For example, in humans they are responsible

for about 41% of side effects occurring directly after

drug administration (The Office for Registration of

Medicinal Products, Medical Devices and Biocidal

Products. Biuletyn Leków nr 4, 2009).

Carofertin contains â-carotin, the most active isomer

of carotene. It actively influences the development of

ovarian folliceles and secretions from the uterus glands

of, as well as stimulates secretion from the corpus

luteum. In cows, it is commonly used for the therapy

and prevention of reproductive disturbances. The

producer of Carofertin actually warns about the

possi-bility of occasional hyperresponsiveness to the

com-ponents of the medicine manifesting itself in a

tempo-rary irritation or oedema at the site of injection, but

a dangerous general allergic reaction has not been

described so far.

References

1.Bergeron R., Elsener J.: Comparison of postvaccinal milk drop in dairy cattle vaccinated with one of two different commercial vaccines. Vet. Ther. 2008, 9, 141-146.

2.Bosch J., Frankena K., Oirschot J. T.: Effect on milk production of vaccina-tion with a bovine herpesvirus 1 gene-deleted vaccine. Vet. Rec. 1997, 140, 196-199.

3.Furuoka H., Izumida N., Horiuchi M., Osame S., Matsui T.: Bovine herpes-virusmeningoencephalitis association with infectious bovine rhinotracheitis (IBR) vaccine. ActaNeuropathol. 1995, 90, 565-571.

4.Jaœkowski J. M., Fr¹ckowiak H., Polak P. J., Marsza³ek A., Nowak K., Olech-nowicz J.: Bovine neonatal pancytopenia in calves in Poland. Pol. J. Vet. Sci. 2012.

5.Foucras G., Corbière F., Tasca C., Pichereaux C., Caubet C., Trumel C., Lacroux C., Franchi C., Burlet-Schiltz O., Schelcher F.: Alloantibodies against MHC class I: a novel mechanism of neonatal pancytopenia linked to vaccination. J. Immunol. 2011, 187, 6564-6570.

6.George L. W., Ardans A., Mihalyi J., Guerra M. R.: Enhancement of infec-tious bovine keratoconjunctivitis by modified-live infecinfec-tious bovine rhino-tracheitis virus vaccine. Am. J. Vet. Res. 1988, 49, 1800-1806.

7.Littledike E. T.: Variation of abscess formation in cattle after vaccination with a modified-live Pasteurellahaemolytica vaccine. Am. J. Vet. Res. 1993, 54, 1244-1248.

8.McFeely R. A., Merritt A. M., Steraly E. L.: Abortion in a dairy herd vaccina-ted for infectious bovine rhinotracheitis. J. Am. Vet. Med. Assoc. 1968, 153, 657-661.

9.Mitchell D.: An outbreak of abortion in a dairy herd following inoculation with an intramuscular infectious bovine rhinotracheitis virus vaccine. Z. Im-munitatsforsch. Exp. Klin. Immunol. 1971, 141, 441-451.

10.Müntener C. R., Bruckner L., Stürer A., Althaus F. R., Caduff-Janosa P.: Vigilance der Tierarzneimittel: Gemeldete unerwünschte Wirkungen im Jahr 2009. Schweiz. Arch. Tierheilkd. 2010, 152, 575-583.

11.Oirschot J. T. van, Bruschke C. J. M., van Rijn P. A.: Vaccination of cattle against bovine viral diarrhea. Vet. Microbiol. 1999, 64, 169-183.

12.Schreiber P., Matheise J. P., Dessy F., Heimann M., Letesson J. J., Coppe P., Collard A.: High mortality rate associated with bovine respiratory syncytial virus (BRSV) infection in Belgian white blue calves previously vaccinated with an inactivated BRSV vaccine. J. Vet. Med. B. 2000, 47, 535-550. 13.Trautwein G., Hewicker M., Liess B., Orban S., Grunert E.: Studies on

trans-placental transmissibility of a bovine virus diarrhoea (BVD) vaccine virus in cattle. III. Occurrence of central nervous system malformations in calves born from vaccinated cows. Zntbl. Vet. Med B 1986, 33, 260-268.

Corresponding author: prof. dr hab. Jêdrzej M. Jaœkowski, ul. Aza-liowa 23, 62-002 Z³otniki; e-mail: jasko@up.poznan.pl

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