Turkey Pox Virus (TKPV) is one of avipox virus affecting poultry breeding causing many economic losses due to general skin lesion on the non-feathered area of the body (cutaneous form) and may be fatal in case of diphtheritic form. Turkey breeding in Egypt is getting a lot of attention lately so the disease of turkey get more concern, the most important disease that causes loses is (TKPV). The most effective way to control the disease is vaccination the birds with suitable vaccine protecting against the circulating virus therefor this study for production of TKPV vaccine. TKPV was isolated by inoculation of eleven day old embryonated chicken egg on chorioallantoic membrane (CAM) then the egg adapted TKPV was propagated on chicken embryo fibroblast (CEF) till adaptation at the 15th passage when titer was reaching to log 10 5.5 TCID 50/ ml . The adapted virus was transmitted to Vero cell line to produce the qualified vaccine. All quality control measures approved that the vaccine is ready to be used to control the TKPV disease in Egypt. C4L like gene expression was employed to evaluate TKPV virulence via Quantitative RT-PCR to ensure TKPV attenuation that begin from the 15th passage till complete attenuation at the 20th passage.
Leptospirosis is caused by bacteria that are members of the Leptospira genus. This illness can occur in a variety of environments, although it is more prevalent in tropical regions where humidity and wetness greatly aid in its spread. Geographically broad, leptospirosis primarily affects tropical, temperate, and subtropical regions. Bacteria can enter the body through the vaginal system, mucosa, conjunctiva, and tiny abrasions. Hazardous germs are released into the urine when the bacteria settle in the complex kidney pathways. Leptospirosis symptoms are similar to those of other diseases, making diagnosis challenging. The majority of leptospirosis patients are resolved without problems. Laboratory techniques are used to research leptospirosis in humans and animals. Humans are classified as accidental hosts because they have had direct or indirect interaction with leptospirosis-infected animals. Leptospirosis infection can occur in at-risk groups who work in contaminated environments or animal shelters, such as abattoir and sewer workers, coal mines, plumbers, salver workers, agricultural workers, veterinarians, military personnel, abattoir employees, animals, meat handlers, and fishing industry workers. Antimicrobial therapy is one way to treat leptospirosis. Among the antibiotics are doxycycline, amoxicillin, ceftriaxone, ampicillin, penicillin, and erythromycin. Reducing the incidence of leptospirosis in domestic and wild animals can help manage the disease in people. Leptospirosis in wild animals is difficult to control, but in domesticated animals, vaccinations using inactivated whole cells or outer membrane preparations can effectively manage the disease.
Water quality is an important part of any aquaculture system. Water provides aquatic animals with oxygen, allows for waste removal, and is the conduit for their food. Similar to all other organisms, fish are heavily influenced and dependent on the characteristics of their environment. Non-optimum water physicochemical parameters as dissolved oxygen, pH, salinity, ammonia, temperature etc. can cause stress to the cultured fish and thus make them more susceptible to disease outbreaks. Nile tilapia is the most cultured fish in Egypt. While its sustainable production is hindered by many obstacles. One of them is the water quality, therefore the hygienic effects of the water parameters are important to be clear in culturing.
Inherited disorders are one of the reasons of infertility and economic losses for the equine industry. The detection rate of chromosomal abnormalities is rising due to the use of sex chromosome linked molecular markers. Here, a rare sterile five-year-old Arabian mare with XY male chromosomes is presented. The phenotype was corresponded to female with normal external genitalia. By transrectal ultrasound, there were hypoplastic ovaries and aplasia of uterine horns. Chromosome analysis was accomplished on blood samples using conventional, and G-banding techniques and confirmed by PCR and hormonal analysis. Although the karyotype (2n = 64, XY) revealed a typical male arrangement, it was SRY gene negative and amelogenin gene positive for X and Y chromosome. Hormonal analysis showed slight estrogenic activity of the ovary, but low progesterone and anti-mullerian hormones levels. In conclusion, this case of sex reversal mare (SRY-negative 64, XY) was recorded using cytogenetic, genetic, and hormonal analysis. Cytogenetics and molecular screening could be used as a fast approach for reproductive disorders evaluation in equine to save money, effort, and time of breeders.
This report aimed to present a case of ectrodactyly in a free-living adult female Erinaceus europaeus. At radiography and post-mortem dissection, the right hind limb developed 2 digits and aplasia of 3 digits. No other abnormality was found in this case. Various teratogens may be responsible for occurring skeletal anomalies. To the best of our knowledge, the present study is the first report of ectrodactyly in this species.
