Prevalence of Major Parasitic Agents Involved in Camel Skin Diseases in Babile District, Eastern Ethiopia

Tesfalegn Bassa, Ufaysa Gensa*

Corresponding Author

Ufaysa Gensa, DVM

Department of Animal Science, College of Agriculture and Natural Resource, Werabe University, P. O. Box 46, Ethiopia; Phone. +251937261313/+251928981994; E-mail:


Tesfalegn Bassa, DVM; Ufaysa Gensa, DVM*  

Department of Animal Science, College of Agriculture and Natural Resource, Werabe University, P. O. Box 46, Ethiopia

Corresponding Author

Ufaysa Gensa, DVM

Department of Animal Science, College of Agriculture and Natural Resource, Werabe University, P. O. Box 46, Ethiopia; Phone. +251937261313/+251928981994; E-mail:

Article History

Received: November 3rd, 2023; Revised: December 20th, 2023; Accepted: December 22nd, 2023; Published: December 29th, 2023

Cite this Article

Bassa T, Gensa U. Prevalence of major parasitic agents involved in camel skin diseases in Babile District, Eastern Ethiopia. Vet Med Open J. 2023; 8(2): 74-79. doi: 10.17140/VMOJ-8-180


© 2023 by Gensa U. This is an open-access article distributed under Creative Commons Attribution 4.0 International License (CC-BY 4.0)




A cross-sectional study was conducted from October 2017 up to April 2018 in Babile district, Eastern Hararghe zone, Oromiya regional state of Ethiopia.


To determine the prevalence of major parasitic agents involved in camel skin diseases and their risk factors.


A cross-sectional study design was implemented to determine the prevalence of major parasitic pathogens, particularly mange mites and ticks affecting camel skin, and associated risk factors. The target animals for the study were dromedary camels reared under pastoral and agro-pastoral production systems in Babile district of Oromia Regional State of Ethiopia. The sample size for the study was estimated by taking an expected prevalence of 50%, an accepted error of

5%, and a confidence level of 95%. A chi-square test was used to evaluate the differences in the occurrence of parasites among categorical variables (age, sex, herd size, and season). A p-value≤0.05 was considered statistically significant.


Out of 768 camels examined, 122 (15.9%) and 113 (14.7%) were found to be infested with ticks of various species and Sarcoptes species, respectively. Nine hundred twenty-nine (929) adult tick species, including 329 (35.4%) males and 600 (64.59%) females, were collected from selected camels. The tick species identified in the present study were Rhipicephalus pulchellus (29.7%), Amblyomma gemma (4.84%), Hyalomma dromedarii (13.56%), Boophilus decoloratus (2.58%), Amblyomma variegatum (23.04%), Amblyomma coherence (8.61%), Rhipicephalus evertsievertsi (9.15%), Rhipicephalus pravus (2.37%), Rhipicephalus sanguines (4.2%), Rhipicephalus appendiculatus (1.08%) and Hyalomma marginatum (0.86%). The mean tick burden observed was 1.2 ticks per camel. Sarcoptes species was the only mite observed during this study. The tick infestation rate varied significantly (p<0.05) between seasons (dry and wet), between sex groups, and between herd sizes of camels. However, there was no statistically significant difference (p>0.05) in the prevalence of tick infestation between the age groups. Mange mite infestation varied significantly between age groups (young and adults).


Finally, the tick and mange mite infestations were highly prevalent in the indigenous dromedary camels in the Babile district. Therefore, special attention should be given to the programmed tick and mite control campaign in the area.


Camel diseases, which are widespread in all agro-ecological zones in Ethiopia, cause major economic and social losses to the pastoralist and agro-pastoralist populations. Particularly, the impacts of parasitic and infectious diseases are devastating in pastoral and remote areas, where the lives of the communities entirely depend on their camels. In addition, the provision of veterinary services becomes very difficult in these areas due to poor infrastructure, limited resources, and the mobility of the population.1 Trypanosomiasis, camel pox, contagious skin necrosis, pneumonia, mange mites, tick infestations, and internal parasites are among the major health problems previously reported in camels in pastoral areas.2,3 The most important tick species reported to infest camels in eastern Ethiopia include Rhipicephalus pulchellus, Amblyomma gemma, Hyalomma dromedarii,4,5 Amblyomma variegatum, Boophilus decoloratus and some others with very low proportions.5

There are two families of ticks: the Argasidae (soft ticks) and the Ixodidae (hard ticks). Ixodidae are characterized by having a rigid chitinous scutum that covers the entire dorsal surface of the adult male.6 Ticks are among the agents leading to blood loss, damage to the skin, and being involved in transmitting various disease-causing agents.7 In addition, lesions formed by the tick’s mouthparts may attract flies and can lead to secondary bacterial infections. Infested camels often show signs of irritation and exhibit pruritus. There is a concern that camel ticks can serve as vectors of disease pathogens in livestock. For instance, Amblyomma lepidum or A. gemma may transmit Cowdria ruminantium (heartwater) to cattle. Moreover, it is reported that H. dromedarii is the vector of Theileria camelensis.8

Mange mite infestation was one of the most commonly encountered camel diseases in Borana, with prevalence rates ranging from 37.8% to 54.9% at different seasons.9 Sarcoptes scabei var. cameli is one of the most commonly encountered mites, and the infection is characterized by severe clinical manifestations.9 Sarcoptes scabiei belongs to the burrowing mites and is thought to have a number of subspecies or variants.6

New hosts are infected by contact, presumably from larvae, which are commonly present on the skin surface.6 Fomites also play an important part in the transmission of mites. Sarcoptic mites can survive outside their host for several days and remain infective10 if the microclimate is sufficiently moist and cool. During the dry season in the tropics, the mites most likely do not survive long off the host. However, in crowded wet places such as waterholes, indirect transmission may occur, most probably during the cool and moist part of the night and early morning hours.8

All camels, regardless of sex and age, may be affected by S. scabiei.11 Regarding body conditions, it is reported that animals in poor condition are more susceptible to infection. However, reported Nayel et al11 that animals in very good condition can also become infected. The reports on the seasonality of the disease are conflicting. Some reported a quiescent phase in winter, while others found a higher incidence in winter.12,13 Moreover, Higgins14 found a higher prevalence in Saudi Arabia during the hot summer months. To our knowledge, prevalence investigations of major camel skin parasites were limited in the Babille district of Oromia, Ethiopia. The present investigation aims to determine the prevalence of common parasitic agents involved in the skin diseases of dromedary camels and the risk factors associated with their occurrence.


Study Area and Climate Description

The study was conducted in the Babile district in the eastern Hararghe zone of Oromia Regional State, Ethiopia. It is located 31 km away from the town of Harar and about 557 km east of Addis Ababa, the capital city of Ethiopia. It lies between 8°, 9’9°, 23’N latitude and 42°, 15’-42°, 53’ E longitude and is characterized by a semi-arid and arid climate with an average annual rainfall of 410-800 mm and an annual temperature range of 24-28 ºC. Babile district shares its borders with Gursum from the north, Fedis from the west, Harari National Regional State from the north-west, and Somalia National Regional State in the east, south, and west. The livestock population of the district is 55935 bovines, 22920 caprines, and 12350 ovines. In Babile district, there is an estimated total camel population of 12, 000 and 300 camel owners in 21 rural Kebeles. The area is semi-arid lowland and receives low and erratic rains that occur in highly seasonal patterns. The area is characterized by very sparse vegetation growth composed of bushes, trees, shrubs, and grasses.15

Study Animal Population

The target animals for the study were dromedary camels reared under pastoral and agro-pastoral production systems in Babile district of Oromia Regional State of Ethiopia. The informants used female camels for milk production, and male camels are used as pack animals. The camel breed living in the study district was an indigenous-type Shinille camel with grey and brown hair. The major feed resources for camels in the study district are browsing trees or bushes, but sometimes grasses. Besides, the communal use of pastures and seasonal migrations of herds and households are important features. The dromedary camels were selected for this study because of their large presence in the area. The ages of camels were classified based on their puberty profiles as young (≤3-years) and adults (>3-years). The camel herd size was classified into small herd sizes (<20), medium (20-40), and large herd sizes (above 40) according to Feyera et al16. Season classification was based on the meteorology of Babile district, with the long dry season (from October to February) and the small rainy season (from March to April).

Study Design

A cross-sectional study was implemented from October 2017 up to April 2018 in Babile district, Eastern Hararghe zone, Oromiya regional state of Ethiopia, in order to determine the prevalence of parasitic pathogens, particularly mange mites and ticks affecting camel skin, and associated risk factors (sex, age, season, and herd size).

Sampling Techniques and Sample Size Determination

Villages were first selected based on camel population and accessibility. Accordingly, Bishan-Babille, Iffa, Tula, Barkale, Errer-Guda, Ifa Dini, Abdi-buchi, and Dakata were included in the study. Then camel flocks or caravans were selected using a simple random sampling method. Similarly, individual animals within the flock were selected using a simple random sampling method. Animals, irrespective of their sex, age, clinical condition, and husbandry condition, were included in the study. The camels included in this study were not dewormed before the sampling.

As there is no comprehensive study on the prevalence of common skin diseases of camels in the specified areas, the sample size for the study was estimated by taking an expected prevalence of 50%, an accepted error of 5%, and a confidence level of 95%, according to the formula given by Thrusfield.17 Therefore, 384 camels were included.

         1.962×Pexp (1-Pexp)
n= ————————————

Where n=required sample size, d=desired absolute precision, Pexp=expected prevalence.

However, to obtain a more representative sample for the two seasons and to increase precision, a double sample size of 768 camels was randomly selected for this study.

Specimen Collection and Transportation

In the case where mange mite is suspected, drops of glycerin were added to the edge of skin lesions to moisten the area. Scab materials were obtained from the edge of the lesion, and a blunt scalpel blade was used to scrape until blood was just drawn. The scrapings and the scalpel blade were submitted to adherent material. The specimens were submitted to the Haramaya University College of Veterinary Medicine’s (HU-CVM) Parasitology Laboratory. First, the whole body of the animal was examined to search for ticks and identify if it was infested. Then a half-body of the animal was used to collect the tick for counting the burden. Ticks in different anatomical sites of the body region were collected carefully and gently with a horizontal pull to the body surface of the camel by hand. The collected adult ticks were preserved in universal bottles containing 70% ethyl alcohol. Then it was labeled appropriately, transported to the HU-CVM Parasitology Laboratory, and identified using a stereomicroscope.

Laboratory Examination

Identification of parasites: For the identification of mites, the collected samples were examined under a microscope, and species identification was performed according to the morphological keys given.18 The samples were treated with a 10% potassium hydroxide solution and examined under a light microscope. The collected ticks were identified to species level using a stereomicroscope using the standards recommended by Walker et al7.

Data Management and Analysis

All collected data were entered into a Microsoft Excel sheet and analyzed using statistical package for the social sciences (SPSS) version 20. The occurrence of the diseases based on clinical and laboratory analysis was determined using frequency distribution. A chi-square was performed to evaluate the differences in the occurrence of parasites among categorical variables (age, sex, herd size, and season). A p-value ≤0.05 was considered statistically significant.


Prevalence of Tick Infestation

From the 63 herds examined, about 54 (85.7%) camel herds were found to have at least one animal infested with ticks. Out of 768 camels examined, 122 (15.9%) were infested with ticks. The occurrence of ticks on animals was significantly varied (p<0.05) among seasons, herd size, and sex categories of animals (Table 1). The study showed the presence of 4 tick genera (Rhipicephalus, Amblyomma, Hyalomma, and Boophilus) with a total number of 929 adult ixodid ticks (Table 2). Among the tick species, R. pulchellus was identified as the most common tick species on camels, with a distribution of 276 (29.7%). The second and third most common tick species affecting camels in the study area were Amblyomma variegatum and Hyalomma dromedarii, with distribution percentages of 23.04% (214) and 13.56% (126), respectively. Among the ticks, 600 (64.6%) were females, while 329 (35.4%) identified as males (Table 2). Moreover, the tick burden in the study area was recorded at 1.2 (929/768).


Table 1. Prevalence of Tick Infestation Based on Risk Factors


Categories No. of Animals


No. of Animals Infested (%) χ2


Season Long dry


46 (12.3)



Small rainy


76 (19.3)



122 (15.9)

Herd size Small (<20)


81 (18.8)



Medium (20-40)





122 (15.9)

Sex Male


50 (20.3)








122 (15.9)

Age ≤3 years


40 (14.7)



>3 years


82 (16.6)



122 (15.9)


Table 2. Distribution and Sex Categories of Adult Tick Species



Tick Species Number (%) of Total (%) Distribution Female

to Male Ratio

Prevalence (%)




Rhipicephalus R. pulchellus 188 (20.2) 88 (9.5) 276 (29.7) 2.13 51 (6.6)
R. pravus 13 (1.40) 9 (0.9) 22( 2.4) 1.44 7 (0.9)
R. evertsievertsi 62 (6.67) 23 (2.5) 85 (9.2) 2.69 21 (2.7)
R. Sanguineus 31 (3.34) 8 (0.9) 39(4.2) 3.875 11 (1.4)
R. appendiculatus 8(0.86) 2 (0.22) 10(1.1) 4 5 (0.6)
Ambyloma A. gemma 23 (2.48) 22 (2.4) 45 (4.8) 1.04 21 (27)
A. variegatum 117 (12.6) 97 (10.4) 214 (23.04) 1.21 57 (7.4)
A. coherence 53 (5.71) 27 (2.91) 80(8.6) 1.96 19 (2.4)
Hyalomma H. dromedarii 82 (8.83) 44 (4.7) 126(13.6) 1.86 25 (3.2)
H. marginatum 4 (0.43) 4 (0.4) 8(0.9) 1 3 (0.3)
Boophilus B. decoloratus 19 (2.05) 5 (0.5) 24(2.9) 3.8 6 (0.7)
Total 600 (64.6) 329 (35.4) 929 1.82
n=number of animals examined


Prevalence of Mange Infestation

The present study showed that about 49 (77.8%) herds of camels were infested with mange mites. Out of 768 animals examined, 113 (14.7%) were infected by mange mites. Sarcoptes species was the only mange mite identified in the study area. The prevalence of mange mite infestation was significantly higher (p≤0.05) in adult animals than the younger ones (Table 3). However, no statistically significant association (p>0.05) was seen among the sex, season, and herd size categories.

Table 3. Prevalence of Mange Infestation Based on Risk Factors


Categories No. of


No. of

Infested (%)



Season Long dry


50(13.3) 1.1


Small rainy



Herd size Small (<20)





Medium (20-40)



Sex Male








Age ≤3 years





>3 years





113 (14.7)


In the present study, the overall prevalence of tick infestation (15.9%) is far lower than previous reports by Megersa et al9 (97.7%), Taddese et al19 (94.00%), and Isse et al20 (97%) in the country. This could be due to the season of data collection, the access to veterinary services for camel owners, and the identified tick developmental stages. Particularly, this could be due to increased awareness of the impact of tick infestations and the use of varied drugs to control ticks and other external parasite infestations. The current study showed that the most abundant tick species identified were R. pulchellus, with a distribution of 29.7%, followed by Amblyomma variegatum (23.04%) and Hyalomma dromedarii (13.7%). This is comparable with the previous report by Megersa et al9, who stated that R. pulchellus represented the main tick species infesting camels (69.6%).

In the present study, out of the total 929 adult ticks collected, females account for 600 (64.6%). This finding is in agreement with Kiffner et al21, who reported that female ticks were more prevalent than male ticks. It is disagreed with Megersa et al9 and Wasihun et al22 that the outnumbering of male ticks is due to the fact that female ticks, once fully engorged, drop off the host to oviposit while males remain for several months and continue feeding and mating with other females. However, in the present study, the relatively high number of female ticks could be due to the fact that male ticks are smaller than females because fully engorged adult female ticks are easily visible until dropped off from hosts or male ticks will die after mating with female ticks immediately, and biologically, it may also be due to hatching more female tick larvae than male tick larvae because during mating fertilization is a chance.

The study showed a significant increase (p<0.05) in tick prevalence during the small rainy season (19.3%) compared to the long dry season (12.3%) among the examined camels. This result is in agreement with the report of Nady et al23 who reported an increased tick infestation during the rainy season compared to the dry months due to increased humidity. It is also indicated that the highest moisture is favorable for tick growth at all different developmental stages, and the skin is easily penetrated for sucking blood.9

The current study revealed that there was a statistically significant difference (p<0.05) in the prevalence of ticks among sex categories, with male camels tending to have higher rates (20.3%) than female camels (13.8%). This result is in agreement with the report of Megersa et al.9 This is because female camels are being daily restrained for milking, and during this time, the milkers might remove ticks by hand, which could lead to a gradual reduction in the average tick load. On the contrary, some reported that male animals are mainly used for transportation, and hence they are under close supervision by their owners for tick infestation, whereas female animals mostly dwell around grazing areas (shrubs) that create easy access for ticks.19 Generally, there is no biological explanation for the sex-related susceptibility of camels to tick infestation.

Moreover, the study revealed that animals managed in small herd sizes were more infested by ticks than those in medium herd sizes (p<0.05). This could be due to the good attention given by owners to large herd sizes rather than small herd sizes of animals, because they consider themselves more economically advantageous, proud, and respected in society by having large herd sizes of animals.

In the current study, the prevalence of mange mite infestation was 14.7%, which is lower than the report of Megersa et al9 who reported 25.9%. However, it was comparable with the report of Awol et al,24 with 16.7% prevalence. This is because of the community’s awareness of diseased camels at Babile Veterinary Clinics and the presence of effective drugs to treat them. The study showed a statistically significant difference (p<0.05) among age categories, with a higher prevalence in adult camels (17.6%) than in younger (9.5%). This is due to the fact that young animals acquire natural immunity obtained by feeding the colostrum of the dam, while adult animals lose immunity progressively due to the loss of energy of female animals during pregnancy, parturition, providing colustrum feed for the calf, and giving milk to owners, while male camels lose energy by transporting and carrying large loads.


In conclusion, out of 768 camels examined, 122 (15.9%) and 113 (14.7%) were found to be infested with ticks of various species and Sarcoptes species, respectively. The predominant tick species encountered in the present study were R. pulchellus, A. varigatium, and H. dromedarii. Factors like season, herd size, and sex were significantly associated with the prevalence of camel ticks in the study area. Sarcoptes species were also found to be important external parasites of camels in Babile district. Age is a factor affecting the infestation of camel mange mites in this study area. Further research work on the seasonal pattern, biology, and vector role of ticks should be carried out in Babile district. Immediate professional intervention is necessary to control ectoparasites, specifically Sarcoptes scabiei var. cameli, due to their zoonotic significance and the impact of infestation on camel production and productivity in the study area.

According to the above conclusion, the following recommendations are forwarded:

  • The tick control program should be encouraged in the study area, with an increasing frequency of application in wet months.
  • All stakeholders should pay special attention to the control and prevention of external parasitic agents involved in the camel skin disease.
  • An awareness campaign should be created for camel owners regarding the prevention of external parasitic infestations, regardless of their herd size.
  • Further research should be carried out on the economic loss due to tick and mite infestations in this district.

The data that support the findings of this study are available from the corresponding author, Ufaysa Gensa, upon reasonable request.


This study was approved by the Ethical and Research Review Board of Haromaya University, Ethiopia, and a formal letter of contact was made with the selected zonal and district governmental bodies. Before starting the research, the camel owners consent was achieved by explaining the study objective through brief group discussions with the camel owners.


The authors declare that they have no conflicts of interest.

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