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. 2018 Dec 17;11(12):1692–1697. doi: 10.14202/vetworld.2018.1692-1697

Cutaneous leishmaniasis in Qasr-e Shirin, a border area in the west of Iran

Yazdan Hamzavi 1, Naser Nazari 1, Nahid Khademi 2, Keivan Hassani 3, Arezoo Bozorgomid 1,
PMCID: PMC6362329  PMID: 30774260

Abstract

Aim:

The prevalence of cutaneous leishmaniasis (CL) is growing in Iran, and new sources of the disease have been found in the country. The purpose of this study was to describe the epidemiology of CL in Qasr-e Shirin County, Kermanshah Province, West of Iran. Qasr-e Shirin is located near the Iran-Iraq border, and several million pilgrims pass through this area to Iraq every year.

Materials and Methods:

A descriptive cross-sectional study was carried out for active case detection from April 1, 2014, to March 31, 2015. All individuals with suspicious lesions were identified through house-to-house visits in the aforementioned area. A questionnaire was filled out for everyone with clinical suspicion of CL. A diagnosis was made based on parasitological examination of the lesion exudate. The annual incidence and prevalence of CL were estimated.

Results:

In total, 5277 individuals were randomly screened for the presence of active lesions or scars suspected of CL. The overall prevalence of CL in the County was 4.8% (60 cases had active lesions and 194 cases had scars). All age groups were affected, but the highest incidence of CL was seen in the age group 20-29 years (1.9%). The incidence and prevalence were higher in women than men (5.5% vs. 4%). Most cases (45.6%) had a single lesion or scar and 44 (17.4%) patients had five or more lesions or scars.

Conclusion:

The incidence of CL in Qasr-e Shirin County is high. There is a need for further studies on reservoirs and vectors of leishmaniasis in this area. The results of such studies help to perform more efficient and timely spraying against phlebotomine sandfly or detect and decrease the animal reservoir population.

Keywords: cutaneous leishmaniasis, Iran, Kermanshah, prevalence

Introduction

Cutaneous leishmaniasis (CL) is a health issue at the global scale, and the problem is even more serious in tropical and subtropical regions. The disease has affected about 12 million in the world, and its expansion has recently passed the threshold of 88 countries. About 350 million people are at the risk of this disease, and 1 million new cases are detected every year [1]. The disease appears as lesions on the skin, and a scar is left when the lesions are healed. It is caused by a single-celled parasite called Leishmania, which require a female phlebotomine sandfly for transmission [2]. Determining the endemicity and epidemiology of the disease in every region is one of the main elements in programming for disease control projects. The endemicity of leishmaniasis is classified into three groups of hyperendemic (85% of new cases are in children aged 0-6 years, and 25% of the affected population is below 1 year old), hypoendemic (20% of new cases are <15 years old), and mesoendemic (the rate of new cases varies between the two previous extremes) [3]. Every year, about 30.9 new cases of CL in 100,000 population are detected in Iran; therefore, Iran is known as one of the main sources of CL in the world [4]. The prevalence of CL is growing in Iran, and new sources of the disease have been found in the country. The first introduction of CL occurred during 1983-1997 in Southwest of Iran and then expanded toward the center and the eastern between 1998 and 2013 [4]. Leishmaniasis is a significant public health concern in Iran’s neighboring countries in the east and west, where civil wars have affected the economy and everyday life in the past few decades [5,6].

Kermanshah Province is located in the middle of the western part of Iran and has a border of about 250 km with Iraq to the west. The Khosrawi border is one of the official and international terminals of Iran, located in Qasr-e Shirin County and each year several million Iranians pass through this area to Iraq (a focus of rural leishmaniasis) for religious and employment purposes. Travelers are not only at significant risk of acquiring leishmaniasis, but they also contribute to its spread to other regions. In an analytical-descriptive study, about 47% of the total cases of CL in Kermanshah Province were seen in Qasr-e Shirin district (2011-2012) [7].

Therefore, due to the prevalence of CL and the strategic location of the region, the present study was conducted to investigate the epidemiological indices of CL and also the form and level of distribution of the disease in Qasr-e Shirin County and its suburbs.

Materials and Methods

Ethical approval

This paper was ethically approved and funded (with the code 92355) by Kermanshah University of Medical Sciences (KUMS). Before collecting the samples, informed consent was obtained from all participants.

Study location and participants

This descriptive cross-sectional study was carried out through active detection of CL cases in Qasr-e Shirin County, Kermanshah Province, Iran, from the beginning of April 2014 to the end of March 2015. Kermanshah Province borders Ilam Province in the south, Hamadan Province in the east, and Iraq in the west with about 250 km of international border. Qasr-e Shirin County is located in the west of Kermanshah Province (Figure-1). It has a temperate climate in the winter but a hot and dry climate in the summer.

Figure-1.

Figure-1

Map of Iran, showing the geographical location of Kermanshah Province and the County of Qasr-e Shirin, our study area (green).

Based on the previous study in Iran mentioning the prevalence of 0.26% for CL [7], with confidence level of 90% and a margin of error of 1%, the minimum sample size required was 5141 subjects, which was increased to 5277 to allow for dropouts. To select the cases, random cluster sampling was used in all geographical regions of the city and nearby villages. In each cluster form the villages of Syed Ayaz, Jegarloo Agha Brar, Syed Ahmad, Syed Saeed, Ney Pahn-e Abdollah, Garaweh Dow, Bareh Boo Anjiriyan, and Ney Pahn-e Seyfollah and five regions of the city sampling were conducted according to the proposal.

Study design

The researchers visited all houses in the County and villages in the study area to find any suspicious cases. Sampling was done using a lancet or a vaccinostyle. The lesion exudates of the suspected patients were smeared on slides, fixed in methanol, and stained using the Giemsa stain. All stained smears were examined microscopically for Leishmania amastigotes. In addition, a questionnaire was filled out for any person suspicious of CL including various factors such as age, sex, occupation, site of lesion, or scar. All the family members in the study areas were examined. The health staff also visited the population in the following months only to record new cases. Since determining the incidence (seasonal or annual) was one of the objectives of the study, the questionnaire was filled out in the middle month of each season based on the Iranian calendar (May, August, November, and February).

Statistical analysis

Statistical analysis was performed by the software SPSS version 16.0 (SPSS Inc., Chicago, IL, USA). Pearson’s Chi-square test (χ2) was used to determine any significant difference between demographic factors and CL. p<0.05 was considered significant.

Results

In total, 5277 individuals were randomly screened for the presence of active lesions or scars suspected CL. During the study period, 254 CL cases (40.6% male and 59.4% female) were identified. Of 254 cases, 60 (23.6%) showed active lesions and 194 (76.4%) had scars (Figure-2). The highest incidence was seen in the age range 20-29 years (1%), and the lowest was observed in individuals <80 years (0.9%). Military staff and children had the highest rate of incidence (5.1% and 2.1%, respectively). The demographic characteristics of the CL patients are summarized in Table-1.

Figure-2.

Figure-2

Morphology of skin lesions in patients with cutaneous leishmaniasis from Qasr-e Shirin, Iran (Photo by Yazdan Hamzavi) .

Table-1.

Prevalence of active lesion and scar in Qasr-e Shirin County (April 2014-March 2015).

Categories Screened people CL groups: Number of patients (%) p-value

Active lesion Scar Total
Sex
 Male 2543 21 (0.8) 82 (3.2) 103 (4) 0.027
 Female 2734 39 (1.4) 112 (4.1) 151 (5.5)
Age group (years)
 0-9 766 7 (0.9) 6 (0.8) 13 (1.7) <0.001
 10-19 740 8 (1.1) 18 (2.4) 26 (3.5)
 20-29 1095 21 (1.9) 30 (2.7) 51 (4.6)
 30-39 846 9 (1.1) 23 (2.7) 32 (3.8)
 40-49 597 6 (1) 23 (3.8) 29 (4.8)
 50-59 449 5 (1.1) 31 (6.9) 36 (8)
 60-69 334 2 (0.6) 42 (12.6) 44 (13.2)
 70-79 185 1 (0.5) 15 (8.1) 16 (8.6)
 >80 215 1 (0.5) 6 (2.8) 7 (3.3)
Zone
 Urban 2003 36 (1.8) 23 (1.1) 59 (2.9) <0.001
 Rural 2342 17 (0.7) 159 (6.8) 176 (7.5)
 Nomads 932 7 (0.7) 12 (1.3) 19 (2)
Occupation
 Housewife 1866 18 (1) 65 (3.5) 83 (4.5) <0.001
 Children 325 7 (2.1) 10 (3.1) 17 (5.2)
 Military 273 14 (5.1) 22 (8.1) 36 (13.2)
 Student 535 5 (0.9) 18 (3.4) 23 (4.3)
 Farmer 703 4 (0.6) 33 (4.7) 37 (5.3)
 Rancher 683 3 (0.4) 10 (1.5) 13 (1.9)
 Other 685 9 (1.3) 36 (5.3) 45 (6.6)

CL: Cutaneous leishmaniasis

The hand was the most commonly affected site (48.8%), followed by the leg (24%), the hand and leg (7%), and other parts of the body (20.2%) (Figure-3). Most cases (45.6%) had a single lesion or scar, and 44 (17.4%) patients had five or more lesions or scars. The findings showed that the prevalence of the disease was higher in some rural areas of Qasr-e Shirin County such as Ney Pahn, Syed Ahmad, Jegarloo Agha Brar, and Bareh Boo Anjiriyan. The highest incidence was between December and March (61.6%) as shown in Figure-4. Among patients with lesions, only eight cases had a history of travel to other cities in the Province, and 52 cases had no record of traveling. In addition, the results showed that lesions in about 50% of the cases appeared in the past 1-40 days. Moreover, two patients found the lesion on their body 150 days before the examinations.

Figure-3.

Figure-3

Distribution of cutaneous leishmaniasis in Qasr-e Shirin County by location of lesion.

Figure-4.

Figure-4

Incidence of cutaneous leishmaniasis cases (active lesions) according to months from 2014 to 2015.

Discussion

CL is an important public health problem that extension in regions where environmental factors are suitable for proliferation of both reservoir and the vector. The majority of the CL cases are located in hot dry area [8]. Here, we surveyed the incidence of CL in Qasr-e Shirin County from 2014 to 2015. This is the first epidemiological study of CL using active case detection through house-to-house visits in the west of Iran. Qasr-e Shirin is a moderately warm region with hot and dry summers, an ideal condition for sandflies to breed.

The incidence rate of CL of 1133 per 100,000 people (1.1%) in the present study is higher than a previous provincial study done in 2011-2012 which showed a prevalence of 264.5/100,000 based on passive case reporting [7]. Looking at different parts of the country, a study of the prevalence of CL in 46799 individuals in Abdanan County showed a prevalence of 0.34% [9]. The incidence of CL in Kashan city was found to be 47 per 100,000 habitants in 2016 [10]. In villages of Dehbakry County, examination of 3884 individuals showed a rate of 5.3% for active infections and scars of CL [11]. In addition, Al-Bajalan et al. [12] observed that the incidence of CL was 27.5 per 100,000 populations, in a study carried out in Garmian area, Iraq, bordering with Iran. By active case detection, more CL cases may be identified since many patients never seek medical care. Qasr-e Shirin borders Iraq, which suffers civil wars, which might explain the high prevalence of the infection in this area of Iran. Qasr-e Shirin was occupied during the 8-year Iraq-Iran war, and almost all residential blocks were severely damaged or even destroyed. It is believed that rural background, old destroyed buildings, hot climate, reduced rainfall, and shared borders with Iraq might explain the high prevalence of CL in this area of Iran.

Most of the patients in this study were from rural areas. This finding could be due to the abundance of sandfly breeding sites, reservoir hosts, and natural habitats in rural areas. Several reports indicated the occurrence of Tatera indica Hardwicke (Rodentia: Gerbillinae) (Indian jird) as the primary reservoir host of L. major in west and south-west of Iran [13,14]. In addition, it is evident that having domestic animals and vegetation in or around the house (characteristic of rural settings) increase the risk of CL [15].

In this study, the hands were the most commonly affected site (47.0%). In zoonotic CL, this pattern of lesion distribution is common. Similar findings have been reported in Libya and Iran [16,17]. In the present study, only a few patients had a history of travel to other regions, so autochthonous transmission occurs in these areas. Accordingly, native and traveler populations are at risk for Leishmania infection by the bite of infected female phlebotomine sandfly. As shown in the current study, the female to male ratio was 1.46:1, which is a statistically significant difference (p=0.012). This finding is similar to the results of other studies conducted in Iran [18,19]. In contrast, many studies have reported a higher prevalence in males [20-22].

Many researchers have stated that military personnels are more susceptible to infections than others [23,24]. We also noted that a marked percentage (23.3%) of the patients was military personnel working near the border areas and suburbs of Qasr-e Shirin. Military personnel, due to lack of access to appropriate health facilities and the nature of their profession that requires them to spend most of their time outdoors, have an increased risk of exposure to infected insects. In addition, military personnel usually come from non-endemic areas. The movement of non-immune populations to endemic regions leads to the continuation of the disease transmission cycle.

Although molecular identification of Leishmania species was not carried out in this study, L. major seems to be the probable etiologic agent of the disease in the region. Consistent with these findings, Nemati et al. [25], identified L. major as the causative agent of CL in the patients of Kermanshah Province. This finding was also reported in a study by Hamzavi et al. [26] using the RAPD-PCR method. In addition, Haddad et al. [27] reported that L. major is more prevalent than Leishmania tropica in Ilam Province, which neighbors Qasr-e-Shirin.

Another notable point is the seasonal distribution of the disease incidence. Similar to the findings of previous studies in Iran, the highest incidence was observed in the autumn and winter, which is a clear sign of rural CL [22,28]. The risk of transmission of the rural type of the disease is higher in the spring, summer, and autumn in some areas when the vector flies are abundant. The wound appears after an incubation period of few months in the autumn or winter. The prevalence of the urban type of the disease is constant throughout the year [29].

The most reliable diagnostic methods for CL are culture or molecular techniques. However, it was not possible to implement these techniques due to lack of equipment. To address this limitation, it should be noted that CL in endemic regions is usually estimated using microscopic observations instead of more reliable methods such as culture and molecular techniques.

Conclusion

The incidence of CL in Qasr-e Shirin County is high. International travelers, military personnel, and other groups of travelers are increasingly involved in outdoor activities, which increase the risk of leishmaniasis. Therefore, people traveling to this area should receive counseling and appropriate and effective use of personal protection measures to avoid a sandfly bite. This indicates the need for further investigations on the various species of Leishmania parasites responsible for CL, reservoirs, and sandfly as the vector of leishmaniasis in these regions for more efficient and timely spraying to control phlebotomine sandfly and spotting animal reservoirs.

Authors’ Contributions

YH designed the study. NK and KH collected the samples. YH, NN and AB contributed to the parasitological test. YH and NK interpreted the results and analyzed the data. AB prepared the manuscript. All authors read and approved the final manuscript.

Acknowledgments

The authors wish to thank the personnel of health centers of Qasr-e Shirin and the rural areas, especially Ms. Fatemeh Edalat Nasab, Mr. Hossein Mostafaie, Ms. Nasrin Mohammadi, Ms. Maryam Smaeili, and Mr. Jahangir Safari, for their valuable contribution. This study received financial support from Kermanshah University of Medical Sciences, Iran (Grant No. 92355).

Conflicts of Interests

The authors declare that they have no competing interests.

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