Open Access
Volume 28, 2021
Article Number 52
Number of page(s) 6
Published online 18 June 2021

© Y.V. Andreeva et al., published by EDP Sciences, 2021

Licence Creative CommonsThis is an Open Access article distributed under the terms of the Creative Commons Attribution License (, which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited.


Aedes mosquitoes are the most abundant mosquito species, and pose a health hazard for humans worldwide as well-known potential vectors of disease pathogens [35, 43]. During the last few decades, various mosquito species have spread expeditiously from their area of origin and colonised temperate zones [35]. In particular, the species Aedes albopictus Skuse, 1894 [45] and Ae. japonicus Theobald, 1901 [48] initially occupied East Asia areas. The species appeared in North America, Europe, and other regions as early as at the end of the 20th century [37]. Recent papers report recording of Ae. aegypti Linnaeus, 1762 [32] and Ae. japonicus in European countries, Russia included [1, 16, 22, 26, 27, 40, 41, 53]. Another species, Ae. koreicus Edwards, 1917 [17], has been introduced in some countries where it was not previously recorded. This species was recorded as an invasive species for the first time in 2008 in Belgium and later in Italy, Russia, Germany, Hungary, Slovenia and the Swiss–Italian border region [3, 6, 8, 18, 21, 27, 28, 31, 40, 46, 50, 52]. The natural distribution range of Ae. koreicus covers Korea, China, Japan, and the Russian Far East [24, 29]. This mosquito species is a potential vector of Japanese encephalitis, dirofilariasis, and Chikungunya virus [9].

One of the factors that contribute to the distribution of invasive species is an ever-increasing level of world travel and trade. Therefore, monitoring of the species composition of blood-sucking mosquitoes is required. Faunistic studies of the non-malaria mosquitoes in Central Asia and Kazakhstan have not been carried out for a long time. The most recent data on the species composition were published in 1970 by Dubitskii [14]. According to these data, the fauna of the Aedes mosquitoes in Kazakhstan comprises 38 species [14]. However, the Systematic Catalog of Culicidae reports only five Aedes species in Kazakhstan [20], namely, Ae. gutzevichi Dubitsky et Deshevykh, 1978 [15], Ae. stramineus Dubitzky, 1970 [13], Ae. pulcritarsis Róndani, 1872 [42], Ae. montchadskyi Dubitsky, 1968 [12], and Ae. kasachstanicus Gutsevich, 1962 [23]. These considerable data discrepancies also require a faunistic study in the Republic of Kazakhstan. In addition, a sufficiently warm climate and the developing economy of the country are favourable factors for the introduction and establishment of invasive mosquito species.

Materials and methods

Mosquito larvae were collected in September 2018 and May 2019 in Almaty, Republic of Kazakhstan (Table 1). The larvae were fixed in 96% ethanol. Late instar larvae were morphologically identified to species level according to the keys by Gutsevich et al. [24] and Tanaka et al. [47] using stereomicroscopes. Total DNA was extracted from individual mosquitoes (n = 12) using a GeneJet Genomic DNA purification kit (Thermo). A molecular assay based on nicotinamide adenine dinucleotide dehydrogenase subunit 4 (ND4) sequences was used for the identification of Ae. koreicus using multiplex PCR with the primers N4J-8502D (F) and N4N-8944D (R) [19], and ND4korF [7].

Table 1

Ratio of species in the collected samples of mosquito larvae.


The larvae that we identified as Ae. koreicus according to morphological characteristics were found in September 2018 at Almaty zoo. Beside Ae. koreicus, this collection of larvae also contained larvae of Culiseta longiareolata and Culex pipiens. The collection of larvae sampled from the same artificial water reservoir (a bathtub) at the zoo in spring 2019 revealed only Ae. koreicus specimens (Table 1).

In its morphology, Ae. koreicus is similar to Ae. japonicus, both species display intraspecific alterations and, therefore, show overlapping morphological characteristics [36, 47]. Larvae from Kazakhstan show the same discriminating characteristics described by Tanaka et al. [47], which distinguish them from Ae. japonicus. The frontal setae of Ae. koreicus fourth instar larvae are located on the anterior margin of frontoclypeus. The abdominal segment VIII comb comprises 30–72 (54) wide paddle-shaped scales lacking a main spine. Pecten teeth evenly spaced, close to each other unlike Ae. japonicus, which has the most distal pecten teeth (one to four) detached, widely spaced, well developed, and forming a sharper corner to the siphon longitudinal axis [24, 47]. This siphon description of Aedes koreicus is well illustrated in Versteirt et al. [51]. We also identified Ae. koreicus species using a molecular approach. All specimens of Ae. koreicus displayed a specific band of 283 bp as well as the expected 465-bp band, common for other species.


The probability of an invasive species to colonise a new area depends on the climate characteristics of the region, availability of suitable aquatic habitats, and presence of suitable hosts [25, 34, 35, 38, 39, 49]. The knowledge of these specific features is of special significance for prediction of their future distribution. Presumably, the expansion of invasive species to new geographic regions is associated with their acclimation capacity at different developmental stages [5].

Aedes koreicus is well adapted to urban settlements [24, 38, 47]. We found Ae. koreicus larvae in a bathtub at the Almaty zoo. This might suggest that female Ae. koreicus mosquitoes can feed on both human and animal blood at the zoo. Gutsevich et al. [24] assumed that Ae. koreicus feed not only on humans, but also on cattle. The Italian team who discovered Ae. koreicus larvae in forest water bodies far from any settlements also inferred that females feed on animal blood [39]. So far, there are three species of mammals that were identified as hosts of Ae. koreicus: Homo sapiens, Canis lupus (may correspond to domestic animals) [39], and Bos taurus [49].

One of the major factors affecting the settlement and spread of invasive species is competition with native species [28, 35, 38]. Aedes koreicus was discovered in the region where the local mosquito species (for example, Cs. longiareolata and Cx. pipiens s.l.) also prefer artificial water reservoirs for their development. Based on preliminary data, we also assume that the ratio of these species changes throughout the year. Aedes koreicus was the first to appear in the collection of larvae at the beginning of the year in Almaty, while Cs. longiareolata and Cx. pipiens s.l. were found in the same water reservoir in September in addition to Ae. koreicus. The last two species also occur together with Ae. koreicus in Sochi (Russia) and in Germany [6, 40]. The larvae of Cs. longiareolata are predators [44], and they can compete for territory and food resources, but Ae. koreicus mosquitoes display a good acclimation capacity to a moderate climate; in particular, they produce cold-tolerant eggs, and the larvae hatch from these eggs during snow melting [29, 47]. Therefore, the tolerance of Ae. koreicus mosquitoes to lower temperatures allows them to start their development earlier and more massively as compared with their competitors, which hatch later.

Aedes koreicus occurs in countries with different climatic conditions. For the climate classification of the countries, we used the Köppen-Geiger world map, which was updated by Beck et al. [4]. According to the map, there is a dry/continental climate with warm (Dwb) and hot (Dwa) summers in North China, and a humid/temperate climate with warm summers in Belgium and parts of Germany. In north-eastern Italy, the climate is humid/temperate with hot summers, and in the Swiss-Italian border region, the climate is humid/continental with warm summers (Dfb climatic class), like in other European countries where Ae. koreicus has been found. In Almaty, the climate is temperate with hot summers. The climate is classified as Dfa according to the Köppen-Geiger system. Aedes koreicus type-locality (Korea) [47] has climatic conditions (Dfa, Dwa) similar to the Almaty region.

We analysed the potential and prospects of expansion of the new species by comparing the data on temperature and humidity in Almaty [10, 11] and South Korea [30]. According to the data over the last 20 years, precipitation in Almaty is significantly lower as compared with South Korea (Fig. 1). However, lower precipitation is not likely to be a limiting factor for the development of Ae. koreicus in Almaty since this species feels quite comfortable in both natural and artificial aquatic habitats. As for the temperature, the average temperature is higher in Korea, with temperatures below zero occurring only in January. In Almaty, the minimum temperature in January over 20 years of observation exceeds –10 °C, while temperatures below zero can be observed during 3 winter months (December–February; Fig. 2).

thumbnail Figure 1

Comparison of the cumulative monthly precipitation (mm) at Almaty (Kazakhstan) and South Korea over 20 years.

thumbnail Figure 2

Comparison of the mean monthly temperatures at Almaty (Kazakhstan) and South Korea over 20 years. Vertical coloured lines in the upper part denote mean maximum temperatures (°C) over the considered period and in the lower part, mean minimum temperatures (°C).

Marini et al. [33] studied the effect of temperature on the Ae. koreicus bionomics and population dynamics. They showed in laboratory experiments that the most favourable temperature range for Ae. koreicus is 23–28 °C. Higher temperatures increase the pupal and adult lethality rates and prevent the female gonotrophic cycle, while lower temperatures, especially below 10 °C, slow down the development of immature stages and decrease the viability of eggs [33]. However, several studies demonstrate that Ae. koreicus is able to survive European winters [40, 50]. Our observation shows that Ae. koreicus successfully overwintered in Almaty with its low winter temperatures in 2018–2019 (Fig. 3). Thus, we assume that the Ae. koreicus acclimation capacity is greater than it has been considered until now, and this species is able to survive at rather low winter temperatures. In addition, the average annual and seasonal ground air temperatures in Kazakhstan have been observed to gradually increase over the last decade. The average annual air temperature in 1976–2018 increased by 0.31 °C every 10 years. The highest rate of temperature increase could be observed in spring (0.59 °C over 10 years) and in winter, it was the lowest (0.11 °C over 10 years). The temperature increased more rapidly in the western regions of Kazakhstan (from 0.24 to 0.60 °C over 10 years) and slower in the northern and northeastern regions (from 0.10 to 0.43 °C over 10 years), as well as in the mountain regions in the south (from 0.11 to 0.21 °C). The number of days with the average daily air temperature of 10 °C or higher increased by 3–5 days over 10 years and even by more than 5 days over 10 years in some southern regions [2]. Most likely, Ae. koreicus will spread over the territory of Kazakhstan westwards and southwards in the Almaty region, and it could cover the Kyzylorda, Turkestan, and Zhambyl regions and through the southwest of Aktyubinsk region to the West Kazakhstan, Atyrau, and Mangistau regions. The winter months in these regions are rather mild. The South and East of the Almaty region borders the Republics of Kyrgyzstan and Uzbekistan; most likely, Ae. koreicus as a species new to Central Asia will also spread to these territories. There are no recent faunistic studies; therefore, it can be assumed that other invasive species have already occupied their own niches in the blood-sucking mosquito fauna in the republics of Central Asia. The introduction route of Ae. koreicus is unknown, it may have occurred via international trade as Almaty is one of the largest industrial centers in Kazakhstan. The introduction of a new potential disease vector to Kazakhstan can be due to appropriate entrance points that emerged as a result of intense global trade and suitable environmental conditions. Regular monitoring of the mosquito fauna is necessary due to the development of transport routes, trade, and economic connections, which enhance the introduction of new species to the territories, where these species have not previously been recorded.

thumbnail Figure 3

Comparison of average monthly temperatures of the low temperature season (November–March) at Almaty (Kazakhstan) in 2018–2019 and 1961–1990. Vertical coloured lines in the upper part denote mean maximum temperatures (°C) over the considered period and in the lower part, mean minimum temperatures (°C). The numbers indicate months: November (11), December (12), January (1), February (2), March (3).

Conflict of interest

The authors declare that they have no conflict of interest and they have observed all relevant ethical standards.


The study was performed within the framework of the state assignment of the Ministry of Science and Higher Education of the Russian Federation (project no. 0721-2020-0019).


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Cite this article as: Andreeva YV, Khrabrova NV, Alekseeva SS, Abylkassymova GM, Simakova AV & Sibataev AK. 2021. First record of the invasive mosquito species Aedes koreicus (Diptera, Culicidae) in the Republic of Kazakhstan. Parasite 28, 52.

All Tables

Table 1

Ratio of species in the collected samples of mosquito larvae.

All Figures

thumbnail Figure 1

Comparison of the cumulative monthly precipitation (mm) at Almaty (Kazakhstan) and South Korea over 20 years.

In the text
thumbnail Figure 2

Comparison of the mean monthly temperatures at Almaty (Kazakhstan) and South Korea over 20 years. Vertical coloured lines in the upper part denote mean maximum temperatures (°C) over the considered period and in the lower part, mean minimum temperatures (°C).

In the text
thumbnail Figure 3

Comparison of average monthly temperatures of the low temperature season (November–March) at Almaty (Kazakhstan) in 2018–2019 and 1961–1990. Vertical coloured lines in the upper part denote mean maximum temperatures (°C) over the considered period and in the lower part, mean minimum temperatures (°C). The numbers indicate months: November (11), December (12), January (1), February (2), March (3).

In the text

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