This website is part of the ECDC (European Centre for Disease Prevention and Control) network

Aedes aegypti




Current issues


Invasive species

Aedes aegypti was previously found sporadically in Europe in the first half of the 20th century as far north as Brest and Odessa, but it disappeared from the Mediterranean region due to reasons unknown [1]. It has since re-colonised Madeira [2] and parts of Southern Russia and Georgia (Krasnodar Krai and Abkhazia [2]) and has been recently reported in the Netherlands [3], making it one of the most widespread mosquito species globally. There are no climatic reasons why Ae. aegypti, if introduced into Europe, could not survive across southern Europe. If this were to happen, it may increase the risk of disease transmission of yellow fever virus and dengue virus [1]. Although its global establishment is currently restricted due to its intolerance to temperate winters [4], over the past 25 years there has been an increase in its distribution worldwide [5].

Ecological plasticity

The success of this invasive species has largely been due to globalisation. It thrives in densely populated areas which lack reliable water supplies, waste management and sanitation [6]. Historically, Ae. aegypti has moved from continent to continent via ships, and this method of dispersal is thought to present the highest risk of introducing this mosquito into continental Europe from Madeira. It is suggested that Ae. aegypti evolved its domestic behaviour in West Africa and its widespread distribution and colonisation in the tropics led to the highly efficient inter-human transmission of viruses such as dengue [7]. This domestic behaviour can provide protection against environmental conditions (as it rests indoors) and numerous habitats suitable as oviposition sites, but can also result in increased sensitivity to control measures used to eliminate them [5].

Biting and disease risk 

Aedes aegypti is a known vector of several viruses including yellow fever virus, dengue virus and chikungunya virus. Hundreds of imported cases are reported in Europe every year, including fatal cases [8]. Therefore the establishment of this mosquito in Europe raises concerns about autochthonous arbovirus transmission [9], particularly in southern Europe where climatic conditions are more suitable for the re-establishment of this species. In 2012, a large outbreak of dengue fever occurred in the Portuguese Autonomous Region of Madeira [10] associated with Ae. aegypti. The epidemic started in October 2012 and by early January 2013 more than 2 000 cases of dengue fever had been reported, with an additional 78 cases reported among European travellers returning from the island [11].


Aedes aegypti was previously been reported from Crete, Cyprus, France (incl. Corsica), Greece, Israel, Italy, Portugal, Southern Russia, Sardinia, Spain, Syria, Turkey and the former Yugoslavia in Europe and the Middle East and Algeria, Egypt, Libya, Morocco and Tunisia in North Africa [12]. It is currently distributed in Africa, the surrounding tropics and subtropics, south eastern US, the Middle East, South East Asia, Pacific and Indian Islands and Northern Australia [13]. Although historically present in Europe, recent reports of its presence have come from Madeira, the Netherlands and the north-eastern Black Sea coast (southern Russia and Georgia).

Brief history of spread and European distribution



Aedes aegypti were most likely transported into the Americas and the Mediterranean on sailing ships from Africa [1,7,14]. Historically, Ae. aegypti were reported sporadically in Europe from the Atlantic coast (Britain, France, and Portugal) to the Black Sea, displaying a much larger distribution compared to its current one. The same applies to North America and Australia [5]. This reduction was possibly due to eradication programs.

Initial importations and spread in Europe

Since historical reports of the presence of Ae. aegypti in Europe, it is only more recently that reports of re-colonisation have come to light. It was reported in the UK in 1919 and Brittany in France [15]. It was reported in Spain up to 1953, Portugal up to 1956 and Madeira up until 1977–79, and its sporadic presence has been reported in Britain, France, Malta, Italy, Croatia, Ukraine, Russia and Turkey [9]. Re-colonisation was reported from the island of Madeira in 2004 and 2005. Aedes aegypti is now established on the island and there are concerns that it could be transported to western continental Europe via air or sea traffic [9]. For Eastern Europe there are concerns that it could be introduced from Russia and Georgia (Abkhazia) to other countries bordering the Black Sea via road or sea traffic. It was more recently reported in the Netherlands at tyre yards. It is thought to have been imported into the country via a shipment of tyres from Florida, USA [3, 16].

Possible future expansion

Unlike Aedes albopictus, the ability for Ae. aegypti to establish in more temperate regions is currently restricted due to its intolerance to temperate winters [4] but it could become widely established again in the Mediterranean and this could change in the future with global climate change resulting in northern and southern expansion of Ae. aegypti [7].
Back to Top


Species name/classification: Aedes aegypti (Linnaeus) 
Common name: Yellow fever mosquito 
Synonyms and other name in use: Stegomyia aegypti [17]

Morphological characters and similar species

Adults of Ae. aegypti are relatively small and show a black and white pattern due to the presence of white/silver scale patches on a black background on the legs and other parts of the body. Some indigenous mosquitoes also show such contrasts (more brownish and yellowish) but in those cases it is less obvious. However Ae. aegypti could be mixed up with other invasive (Aedes albopictus, Aedes japonicus) or indigenous species (Aedes cretinus, restricted to Greece and Turkey), and the diagnostic character is the presence of silver scales in a shape of a lyre on a black background on the scutum (dorsal part of the thorax). The domestic form (Aedes aegypti aegypti) is paler than its ancestor (Aedes aegypti formosus) and has white scales on the first abdominal tergite [18] .

Seasonal abundance

Adults peaked in February, May–June, and again in September, during a study in Parque des Dunas de Natal, Brazil. During the same study, increasing numbers of eggs were found during February and again in July with larval densities peaking one month later [19]. Previous studies have shown populations of Ae. aegypti to remain active in Egypt throughout winter, in Spain from the summer through to December, in Morocco in October and December and in Algeria up to the end of the summer and early winter [12].

Voltinism (generations per season): 


Host preferences (e.g. birds, mammals, humans):

Aedes aegypti prefer mammalian hosts [20] and will preferentially feed on humans, even in the presence of alternative hosts [21]. They also feed on multiple hosts during one gonotrophic cycle [5, 7] which has implications for disease transmission. 

Aquatic/terrestrial habitats

Historically, Ae. aegypti were found in forested areas, using tree holes as aquatic habitats [7]. As they have adapted to more urban domestic habitats, they have exploited a wide range of artificial containers such as vases, water tanks and tyres that are often associated with human habitations [5]. They have also been found utilising underground aquatic habitats such as septic tanks [22] and adapting to use both indoor and outdoor aquatic habitats in the same area. Adaptation to breeding outdoors may allow for increased population numbers and difficulty in implementation of control methods [21]. A study in Brazil found higher numbers of eggs in oviposition sites closer to human populations [19]. Eggs are laid on or near the water surface [5] with the ability to survive desiccation [23].

Biting/resting habits (endo/exophily, endo/exophagy, biting periodicity)

The domestic form is often not found further than 100m from human habitations [1] although some studies have shown that breeding habitats can also be found away from human dwellings [21]. Aedes aegypti prefer human habitations as they provide resting and host-seeking possibilities [7] and as a result will readily enter buildings [1, 5]. Their activity is both diurnal and crepuscular [5, 20].

Environmental thresholds/constraints/development criteria

Aedes aegypti, unlike Ae. albopictus is not able to undergo winter diapause as eggs, and this therefore limits their ability (to some extent) to exploit more northerly temperate regions (although some survival is possible during the summer following an importation). However it may establish in regions of Europe showing a humid subtropical climate (parts of Mediterranean and Black Sea countries) such as the Sochi region where it has become established again since 2001 (Black Seas coast).
Species competition has also been shown to affect distribution and abundance. A decrease in the distribution of Ae. aegypti has been associated with the invasion of Ae. albopictus, especially in south-eastern USA [5]. They also have limited dispersal capability as adults [5] with a flight range estimate of only 200m [20].
Rainfall may affect abundance and productivity of breeding sites but this species’ preference for artificial water containers means it does not have to rely on rainfall for larval development sites [5]. Coupled with its preference for feeding and resting indoors, these aspects make this species less susceptible to the effects of climatic factors which could influence its distribution.
Back to Top



Known vector status (in field, experimental transmission)

Aedes aegypti is known to transmit dengue virus, yellow fever virus, chikungunya virus, and Zika virus. It is suggested to be a potential vector of Venezuelan Equine Encephalitis virus [24] and vector competency studies have shown Ae. aegypti is capable of transmitting West Nile virus. West Nile virus has also been isolated from this mosquito species in the field [20].

Yellow fever


Role as enzootic or bridge vector

Yellow fever is maintained in nature between monkeys and mosquitoes [18, 25]. Aedes aegypti have been shown to transmit yellow fever virus to F1 progeny under laboratory conditions [26] and field collection studies have also confirmed this in nature [18].

Clinical features

Yellow fever virus can cause systemic disease including fever, jaundice, haemorrhage and renal failure. Symptoms are present in about one in seven of those infected [25] and the mortality rate is 20–50%.

Potential/Confirmed disease risk

Roughly three million tourists travel to yellow fever endemic areas from North America, Europe and Asia every year [25]. Imported cases have been recently reported in Germany [27], Belgium [28], Spain, France, the Netherlands and Switzerland [25].



Role as enzootic or bridge vector 

Aedes aegypti is the primary vector of dengue [29]. All four dengue serotypes have been isolated from field-collected Ae. aegypti [30]. Vertical transmission of dengue virus types 2,3 and 4 has been demonstrated [18] and although some suggest this is inefficient [30], others suggest that it plays a significant role in viral maintenance. In 2012, a large outbreak of dengue fever occurred in the Portuguese Autonomous Region of Madeira [10]. The epidemic started in October 2012 and by early January 2013 more than 2 000 cases of dengue fever had been reported, with an additional 78 cases reported among European travellers returning from the island [11].

Clinical features

Dengue is prevalent in over 120 countries and is the most important mosquito borne disease affecting humans after malaria [31]. It is a mosquito-borne viral disease caused by four serotypes which can cause intense fever headache, muscular and joint pain, anorexia, nausea, vomiting and rashes and sometimes severe disease with haemorrhages and shock syndrome. Dengue haemorrhagic fever and dengue shock syndrome can also occur and case fatality rates can reach 50% in untreated cases [32]. There is currently no vaccine available against dengue but some promising trials were started during 2009 [31].

Potential/Confirmed disease risk

Aedes aegypti has long been recognised as a vector of dengue, causing major dengue fever epidemics in the Americas and South East Asia, where the incidence of the more severe form (dengue haemorrhagic fever) has been increasing [8]. Global incidence of dengue has also increased in the past 25 years [5]. Historically, outbreaks have also been reported in Europe, with one of the largest outbreaks on record occurring in Athens and neighbouring areas of Greece in 1927–1928 [33].



Role as enzootic or bridge vector

Aedes aegypti is the principle vector of chikungunya virus [34]. Transovarial transmission was demonstrated by Aitken et al. [26] under laboratory conditions and the virus has been detected in wild-caught male Ae. aegypti [35] which may help with the maintenance of the virus in nature [36]. Venereal transmission during mating has also been demonstrated under laboratory conditions, although it is thought to be lower than transovarial transmission [36].

Clinical features

Chikungunya infection can cause fever, myalgia, rash and arthraligia which can often last for months in up to 65% of patients [37]. Clinical manifestations observed during an epidemic on Reunion Island included severe hepatitis, severe maternal and foetal disease and meningeoencephalitis [13]. There is currently no licensed vaccine against chikungunya [38] but a recent study had success using virus-like particles to protect monkeys from high doses of chikungunya virus, the antibodies of which then protected immunodeficient mice against lethal doses of the virus [39].

Potential/Confirmed disease risk

Aedes aegypti have been involved in virtually all chikungunya epidemics from Africa, India and other countries in Southeast Asia [36]. They caused an outbreak of chikungunya virus in Kenya (2004) and the Comoros islands (2005) where in the latter, 63% of the population were affected [40]. A recent entomological investigation following an outbreak of chikungunya virus in Yemen (2010/2011) revealed the presence of chikungunya virus in field collected Ae. aegypti in the outbreak area. This represents the first isolation of chikungunya virus from field collected Ae. aegypti in Yemen [41].

Zika virus


Role as enzootic or bridge vector

Aedes aegypti has more recently been suggested as a vector of Zika virus which has been isolated from field-collected Ae. aegypti [42]. This mosquito species has been shown to transmit the virus under laboratory conditions [43, 44]. Monkeys are suggested to be involved in transmission cycles of Zika virus. Antibodies to the virus have also been found in rodents [45].

Clinical features

Zika virus can cause headache, rash, malaise and back pain [45].

Potential/Confirmed disease risk

Zika virus is considered to be an emerging pathogen. An outbreak of Zika virus was reported in 2007 on Yap Island where 185 confirmed or suspected cases were reported. This was the first time the virus had been reported outside its usual geographical range, as previous cases had only been reported from Africa and Asia [45]. Another outbreak in the Pacific was reported in French Polynesia in 2013 and later spread to New Caledonia [46].

Factors driving/impacting on transmission cycles  

Distribution of dengue outbreaks is related to the simultaneous occurrence of its vectors, circulating virus and the availability of aquatic habitats. The spread of dengue has been aided by the global spread of Ae. aegypti over the past 25 years [5]. Although currently limited in spread due to its intolerance to temperate winters, climate change could result in an increased distribution of Ae. aegypti.
As human population growth occurs in the future, sites in which this mosquito thrives will increase, providing further habitats for establishment. This coupled with the close proximity of humans and the tendency of Ae. aegypti to feed on multiple hosts during one gonotrophic cycle [5, 7], increases the risk of disease transmission in such areas. The movement of viraemic hosts can result in outbreaks from a number of arboviruses in non-endemic areas. It is estimated that 22.5 million passengers come to Europe each year and 185 000 of these could be viraemic for chikungunya alone [47].
The re-establishment of Ae. aegypti in some areas has resulted in disease transmission. Inadequate control of this invasive species could lead to its re-establishment in Europe which is why surveillance and research on this mosquito is so important.
Back to Top

Public health (control/interventions)



The European Network on Imported Infectious Disease Surveillance was founded in 1999 and since then has noted an increase in imported cases of dengue into Europe. Two imported cases in the UK were fatal [8]. Disease surveillance and reports of nuisance biting can be useful in identifying newly invaded areas. Over the past five years, 12 countries in Europe have set up surveillance for Ae. albopictus and other exotic mosquito species including Ae. aegypti [48] as they are often found in the same habitats. This number has increased to at least 14 after the rapid spread of Ae. albopictus in Italy and surveillance in the Netherlands has led to the identification of Ae. aegypti in tyres there.


Appropriate sampling strategy (aquatic immature stages sampling, adult trapping)

Human landing catches were successful for sampling Ae. aegypti during entomological surveying during an outbreak of yellow fever virus in Senegal [18]. Ovitraps, bamboo and aspirators were used to collect eggs, larvae and adults during a study in Brazil [19]. Modified ovitraps can also be used to collect gravid females by incorporating a sticky surface for the female to land on or residual insecticide to kill the female [49]. Larval and pupae sampling using a dipper can also be useful, the latter for estimating adult population numbers [50]. Another study in Brazil used ovitraps and MosquiTraps (modified ovitraps with the use of an attractant), the latter able to collect the eggs and the ovipositing female but also attracts species other than Ae. aegypti. The MosquiTraps are suggested to be more useful for assessing transmission risk as they can be used to measure direct proportions of populations involved in transmission [6]. A limitation of using ovitraps as a method of control is that they need to be able to compete with existing oviposition sites within the environment. Mackay et al., [49] provides evidence that increasing the size of the trap entrance and the surface area of water can improve trap efficacy.

Species specific control methods e.g. insecticide, public health education, etc 


Source reduction

This mosquito species thrives in urban environments which provide it with numerous oviposition sites to lay eggs. Therefore, the distribution of this species is largely driven by human activities (e.g. storage of water outside) so control methods need to be directed at these factors [5]. This is challenging because of the numerous sites in which Ae. aegypti lay eggs and in an urban setting, such sites are hard to access. A study in Mexico used a combination of quadrat and transect sampling methods to identify the most important containers for pupal development within 600 houses. They found an association between Ae. aepypti pupae and large cement washbasins. Targeted treatment of such sites could source reduction and the use of insecticides may be more successful in reducing mosquito numbers [50].


Historically, outbreaks of dengue and yellow fever have previously been controlled by Ae. aegypti eradication programmes but these have not always been successful and have resulted in the re-emergence of the diseases associated with this mosquito [51]. In the 20th century, many eradication programmes were targeted at larval development sites in an attempt to eliminate yellow fever transmission and the use of DDT after the Second World War resulted in the eradication of the species from 22 countries in the Americas [1]. This effort was discontinued and Ae. aegypti quickly re-colonised nearly all of the neotropics and subtropics [7]. The use of insecticidal sprays have become less efficient since Ae. aegypti have become less accessible due to their time spent indoors [1]. Eradication programmes set up in the 1950–60s (initiated by Pan American Health Organisation) in the Americas saw the reduction and eradication of Ae. aegypti there, but relaxation of mosquito management after the 1970s resulted in the re-establishment of Ae. aegypti, followed by dengue fever and DHF outbreaks [5].
Some other methods used include the introduction of predators into the larval habitats of Ae. aegypti e.g. copepods, the introduction of irradiated or genetically-modified mosquitoes (sterile male release) and the use of Wolbachia bacteria which can inhibit the replication of dengue virus within Ae. aegypti which could suppress or eliminate dengue transmission [5]. Protective clothing and repellents are also advocated to reduce exposure to Ae. aegypti, along with indoor living spaces sprayed with pyrethrin [25]. Sterile insect technique is another method that is being piloted for Ae. aegypti control during disease outbreaks e.g. dengue. Field studies in Malaysia show that engineered ‘genetically sterile‘ males had similar longevity as wild laboratory strains and that dispersal in the field was adequate [52].
Mosquito control programmes are suggested to be more effective against Ae. aegypti (as opposed to Ae. albopictus) due to its strong urban preference and strong human feeding preference [4]. Using a combination of control methods as opposed to one single strategy is suggested to be most effective, and will reduce the chance of introducing selective pressures [53]. However, using a combined control strategy of spraying insecticides, reducing potential breeding sites and increasing public health awareness in Madeira following the discovery of Ae. aegypti, did not stop this species re-establishing here [9].

Existing public health awareness and education materials

Many documents have been published in French overseas territories (Martinique in particular).
The CDC provides advice for travellers on protection against mosquitoes, ticks and other arthropods which can be found at:
CDC also provide information on dengue, chikungunya and yellow fever which can be found at:
The National travel health network and centre provides information on how to avoid insect bites (including mosquito bites). This can be found at:


It is clear that if Ae. aegypti re-establishes and spreads to its former regions in Europe it will have a significant impact on public health. The spread of Ae. aegypti needs to be monitored as this species is the primary vector of dengue, chikungunya and yellow fever viruses.
Back to Top


1. Reiter P. Yellow fever and dengue: a threat to Europe? Eurosurveillance. 2010 Mar 11;15(10):19509.
2. Yunicheva YU, Ryabova TE, Markovich NY, Bezzhonova OV, Ganushkina LA, Semenov VB, et al. First data on the presence of breeding populations of the Aedes aegypti L. mosquito in Greater Sochi and various cities of Abkhazia. Meditsinskaia Parazitologiia I Parazitarnye Bolezni 2008;3:40-3.
3. Scholte E, Den Hartog W, Dik M, Schoelitsz B, Brooks M, Schaffner F, et al. Introduction and control of three invasive mosquito species in the Netherlands, July-October 2010. Eurosurveillance. 2010;15(45):19710.
4. Gould EA, Higgs S. Impact of climate change and other factors on emerging arbovirus diseases. Trans R Soc Trop Med Hyg. 2009 Feb;103(2):109-21.
5. Jansen CC, Beebe NW. The dengue vector Aedes aegypti: what comes next? Microbes Infect. 2010 Apr;12(4):272-9.
6. Honorio NA, Codeco CT, Alves FC, Magalhaes MA, Lourenco-De-Oliveira R. Temporal distribution of Aedes aegypti in different districts of Rio de Janeiro, Brazil, measured by two types of traps. J Med Entomol. 2009 Sep;46(5):1001-14.
7. Weaver SC, Reisen WK. Present and future arboviral threats. Antiviral Res. 2010 Feb;85(2):328-45.
8. Wichmann O, Jelinek T. Surveillance of imported dengue infections in Europe. Eurosurveillance. 2003:2271.
9. Almeida AP, Goncalves YM, Novo MT, Sousa CA, Melim M, Gracio AJ. Vector monitoring of Aedes aegypti in the Autonomous Region of Madeira, Portugal. Eurosurveillance. 2007 Nov;12(11):E071115 6.

10. Sousa CA, Clairouin M, Seixas G, Viveiros B, Novo MT, Silva AC, et al. Ongoing outbreak of dengue type 1 in the Autonomous Region of Madeira, Portugal: preliminary report. Eurosurveillance. 2012;17(49):20333.
11. ECDC. Epidemiological update: Outbreak of dengue in Madeira, Portugal [Update 14 Feb 2013] Stockholm: European Centre for Disease Prevention and Control; 2013 [31 March 2014]. Available from:
12. Holstein M. Dynamics of Aedes aegypti distribution, density and seasonal prevalence in the Mediterranean area. Bull World Health Organ. 1967;36(4):541-3.
13. Soumahoro MK, Fontenille D, Turbelin C, Pelat C, Boyd A, Flahault A, et al. Imported chikungunya virus infection. Emerg Infect Dis. 2010 Jan;16(1):162-3.

14. Eritja R, Escosa R, Lucientes J, Marques E, Roiz D, Ruiz S. Worldwide invasion of vector mosquitoes: present European distribution and challenges in Spain. Biological Invasions 2005;7(1).
15. Surtees G, Hill MN, Broadfoot J. Survival and development of a tropical mosquito, Aedes aegypti, in southern England. Bull World Health Organ. 1971;44(5):707-9.
16. Brown JE, Scholte EJ, Dik M, Den Hartog W, Beeuwkes J, Powell JR. Aedes aegypti mosquitoes imported into the Netherlands, 2010. Emerg Infect Dis. 2011 Dec;17(12):2335-7.

17. Reinert JF, Harbach RE, Kitching IJ. Phylogeny and classification of Aedini (Diptera : Culicidae), based on morphological characters of all life stages. Zool J Linn Soc-Lond. 2004 Nov;142(3):289-368.

18. Fontenille D, Diallo M, Mondo M, Ndiaye M, Thonnon J. First evidence of natural vertical transmission of yellow fever virus in Aedes aegypti, its epidemic vector. Trans R Soc Trop Med Hyg. 1997 Sep-Oct;91(5):533-5.
19. Medeiros AS, Marcondes CB, De Azevedo PR, Jeronimo SM, e Silva VP, Ximenes Mde F. Seasonal variation of potential flavivirus vectors in an urban biological reserve in northeastern Brazil. J Med Entomol. 2009 Nov;46(6):1450-7.
20. Turell MJ, Dohm DJ, Sardelis MR, Oguinn ML, Andreadis TG, Blow JA. An update on the potential of north American mosquitoes (Diptera: Culicidae) to transmit West Nile Virus. J Med Entomol. 2005 Jan;42(1):57-62.
21. Saifur RG, Dieng H, Hassan AA, Salmah MR, Satho T, Miake F, et al. Changing domesticity of Aedes aegypti in northern peninsular Malaysia: reproductive consequences and potential epidemiological implications. PloS one. 2012;7(2):e30919.
22. Barrera R, Amador M, Diaz A, Smith J, Munoz-Jordan JL, Rosario Y. Unusual productivity of Aedes aegypti in septic tanks and its implications for dengue control. Med Vet Entomol. 2008 Mar;22(1):62-9.

23. Juliano SA, Lounibos LP. Ecology of invasive mosquitoes: effects on resident species and on human health. Ecol Lett. 2005 May;8(5):558-74.
24. Larsen JR, Ashley RF. Demonstration of Venezuelan equine encephalomyelitis virus in tissues of Aedes Aegypti. Am J Trop Med Hyg. 1971 Sep;20(5):754-60.
25. Monath TP, Cetron MS. Prevention of yellow fever in persons traveling to the tropics. Clin Infect Dis. 2002 May 15;34(10):1369-78.
26. Aitken TH, Tesh RB, Beaty BJ, Rosen L. Transovarial transmission of yellow fever virus by mosquitoes (Aedes aegypti). Am J Trop Med Hyg. 1979 Jan;28(1):119-21.
27. Kiehl W. Suspected case of haemorrhagic fever confirmed as yellow fever in Germany. Eurosurveillance. 1999;3:1350.
28. Colebunders R. Imported case of confirmed Yellow fever detected in Belgium. Eurosurveillance. 2001;5(47):2058.
29. Ramchurn SK, Moheeput K, Goorah SS. An analysis of a short-lived outbreak of dengue fever in Mauritius. Eurosurveillance. 2009;14(34):19314.
30. Gratz NG. Critical review of the vector status of Aedes albopictus. Med Vet Entomol. 2004 Sep;18(3):215-27.
31. Jelinek T. Trends in the epidemiology of dengue fever and their relevance for importation to Europe. Eurosurveillance. 2009 Jun 25;14(25):19250.
32. Seyler T, Grandesso F, Le Strat Y, Tarantola A, Depoortere E. Assessing the risk of importing dengue and chikungunya viruses to the European Union. Epidemics. 2009 Sep;1(3):175-84.
33. Rosen L. Dengue in Greece in 1927 and 1928 and the pathogenesis of dengue hemorrhagic fever: new data and a different conclusion. Am J Trop Med Hyg. 1986 May;35(3):642-53.
34. de Lamballerie X, Leroy E, Charrel RN, Ttsetsarkin K, Higgs S, Gould EA. Chikungunya virus adapts to tiger mosquito via evolutionary convergence: a sign of things to come? Virol J. 2008;5:33.
35. Thavara U, Tawatsin A, Pengsakul T, Bhakdeenuan P, Chanama S, Anantapreecha S, et al. Outbreak of Chikungunya Fever in Thailand and Virus Detection in Field Population of Vector Mosquitoes, Aedes Aegypti (L.) and Aedes Albopictus Skuse (Diptera: Culicidae). Se Asian J Trop Med. 2009 Sep;40(5):951-62.
36. Mavale M, Parashar D, Sudeep A, Gokhale M, Ghodke Y, Geevarghese G, et al. Venereal transmission of chikungunya virus by Aedes aegypti mosquitoes (Diptera: Culicidae). Am J Trop Med Hyg. 2010 Dec;83(6):1242-4.
37. Sambri V, Cavrini F, Rossini G, Pierro A, Landini MP. The 2007 epidemic outbreak of Chikungunya virus infection in the Romagna region of Italy: a new perspective for the possible diffusion of tropical diseases in temperate areas? New Microbiol. 2008 Jul;31(3):303-4.

38. Moutailler S, Barre H, Vazeille M, Failloux AB. Recently introduced Aedes albopictus in Corsica is competent to Chikungunya virus and in a lesser extent to dengue virus. Trop Med Int Health. 2009 Sep;14(9):1105-9.
39. Akahata W, Yang ZY, Andersen H, Sun S, Holdaway HA, Kong WP, et al. A virus-like particle vaccine for epidemic Chikungunya virus protects nonhuman primates against infection. Nat Med. 2010 Mar;16(3):334-8.

40. Staples JE, Breiman RF, Powers AM. Chikungunya fever: an epidemiological review of a re-emerging infectious disease. Clin Infect Dis. 2009 Sep 15;49(6):942-8.
41. Zayed A, Awash AA, Esmail MA, Al-Mohamadi HA, Al-Salwai M, Al-Jasari A, et al. Detection of Chikungunya virus in Aedes aegypti during 2011 outbreak in Al Hodayda, Yemen. Acta Trop. 2012 Jul;123(1):62-6.
42. Marchette NJ, Garcia R, Rudnick A. Isolation of Zika virus from Aedes aegypti mosquitoes in Malaysia. Am J Trop Med Hyg. 1969 May;18(3):411-5.

43. Boorman JP, Porterfield JS. A simple technique for infection of mosquitoes with viruses; transmission of Zika virus. Trans R Soc Trop Med Hyg. 1956 May;50(3):238-42.
44. Li MI, Wong PS, Ng LC, Tan CH. Oral susceptibility of Singapore Aedes (Stegomyia) aegypti (Linnaeus) to Zika virus. PLoS Negl Trop Dis. 2012;6(8):e1792.
45. Hayes EB. Zika virus outside Africa. Emerg Infect Dis. 2009 Sep;15(9):1347-50.
46. Kutsuna S, Kato Y, Takasaki T, Moi M, Kotaki A, Uemura H, et al. Two cases of Zika fever imported from French Polynesia to Japan, December 2013 to January 2014. Eurosurveillance 2014;19(4):20683.
47. Tilston N, Skelly C, Weinstein P. Pan-European Chikungunya surveillance: designing risk stratified surveillance zones. Int J Health Geogr. 2009;8:61.
48. ECDC. Development of Aedes albopictus risk maps. Stockholm: European Centre for Disease Prevention and Control, 2009.

49. Mackay AJ, Amador M, Barrera R. An improved autocidal gravid ovitrap for the control and surveillance of Aedes aegypti. Parasit Vectors. 2013;6(1):225.
50. Arredondo-Jimenez JI, Valdez-Delgado KM. Aedes aegypti pupal/demographic surveys in southern Mexico: consistency and practicality. Ann Trop Med Parasitol. 2006 Apr;100 Suppl 1:S17-S32.
51. Gubler DJ. Resurgent vector-borne diseases as a global health problem. Emerg Infect Dis. 1998 Jul-Sep;4(3):442-50.
52. Lacroix R, McKemey AR, Raduan N, Kwee Wee L, Hong Ming W, Guat Ney T, et al. Open field release of genetically engineered sterile male Aedes aegypti in Malaysia. PloS one. 2012;7(8):e42771.
53. Wong J, Morrison AC, Stoddard ST, Astete H, Chu YY, Baseer I, et al. Linking oviposition site choice to offspring fitness in Aedes aegypti: consequences for targeted larval control of dengue vectors. PLoS Negl Trop Dis. 2012;6(5):e1632.
Back to Top
© European Centre for Disease Prevention and Control (ECDC) 2005 - 2016