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Insecticide Resistance in Vectors

Edited by: Dr Florence Fouque, Dr Abraham Peter Mnzava, Dr Raman Velayudhan, Prof. Xiao-Nong Zhou

Challenges on outbreak control of the vector-borne diseases have been paid much attention at global level, due to rapidly increase of insecticide resistance in vectors. Needs on developing better strategies to mitigate these challenges have been widely discussed for the global actions, such as plan and implement insecticide resistance management strategies, ensure proper entomological and resistance monitoring and data management, develop innovative vector control tools, fill gaps in knowledge on mechanism of insecticide resistance and impact of management practices, ensure that enabling mechanise in advocacy, human and financial resources are in place. 

Vector control through insecticides products is as old as the discovery of the transmission of pathogens causing human and animal diseases was done by tiny insects and ticks. The first insecticides were natural products but even in the early times, some resistance to these products was observed either by physiological and/or behavioural adaptation of the vectors. Then, the era of the synthetized chemicals from the mid-twentieth century allowed large use of these products with some extraordinary successes in the control of vectors and vector-borne diseases such as the eradication of malaria in all Mediterranean countries and most of the Caribbean and Asian ones. However, this success was followed by strong environmental concerns and the emergence of resistances. The new chemical products now available are environmentally more safe but are still facing the vector resistance problems.

Thus, the thematic series on the topic of “Insecticide Resistance in Vectors” offer unique opportunity to present the human-animal-vector interacted knowledge and technology gaps in vector-borne diseases. In particularly, this special issue focus on but not limit to the following five areas: (i) impact assessment of mosquito resistance to the disease control programme, (ii) standardized tools for the monitoring mosquito resistance in different settings, (iii) resistance mechanism in different species of mosquito to various classes of insecticides, (iv) interaction between insecticides and vector competence at genetic level, (v) capacity building involved in both research and management of insecticide resistance, etc. Other important topics this special issue would like to address are the several aspects of resistance which may include vectors physiology, genetics and/or behaviour, but also human and societal changes that are making vectors resistant and the influence of the environment of the development of resistances. Agricultural practices and urban evolutions are in this context specially emphasized. The One Health approach where vector control, animal and human health are considered in their natural environment as a whole can also address this problem and propose new research directions and new strategies for the stakeholders.

It is expected this thematic series will trig more stakeholders and practitioners to work on evidence-based research against vector-borne diseases, in particular in the fields of innovative vector control tools and better management of insecticide resistance.

  1. The wetlands used for some agricultural activities constitute productive breeding sites for many mosquito species. Thus, the agricultural use of insecticide targeting other pests may select for insecticide res...

    Authors: Chouaïbou Seïdou Mouhamadou, Sarah Souline de Souza, Behi Kouadio Fodjo, Marius Gonse Zoh, Nestor Kesse Bli and Benjamin Guibehi Koudou
    Citation: Infectious Diseases of Poverty 2019 8:64
  2. Arboviral disease transmitted by Aedes albopictus such as dengue fever is an important threat to human health. Pyrethroid resistance raises a great challenge for mosquito control. A systematic assessment of Ae. a...

    Authors: Jing-Peng Gao, Han-Ming Chen, Hua Shi, Heng Peng and Ya-Jun Ma
    Citation: Infectious Diseases of Poverty 2018 7:86
  3. Prisons in Madagascar are at high risk of plague outbreak. Occurrence of plague epidemic in prisons can cause significant episode of urban plague through the movement of potentially infected humans, rodents an...

    Authors: Adélaïde Miarinjara, Jean Vergain, Jean Marcel Kavaruganda, Minoarisoa Rajerison and Sébastien Boyer
    Citation: Infectious Diseases of Poverty 2017 6:141
  4. Aedes aegypti (Diptera: Culicidae) is the main vector of the dengue virus globally. Dengue vector control is mainly based on reducing the vector population through interventions, which...

    Authors: Leah Mathias, Vito Baraka, Anitha Philbert, Ester Innocent, Filbert Francis, Gamba Nkwengulila and Eliningaya J. Kweka
    Citation: Infectious Diseases of Poverty 2017 6:102
  5. In the Guadeloupe and Saint Martin islands, Aedes aegypti mosquitoes are the only recognized vectors of dengue, chikungunya, and Zika viruses. For around 40 years, malathion was used as a mosquito adulticide and ...

    Authors: Daniella Goindin, Christelle Delannay, Andric Gelasse, Cédric Ramdini, Thierry Gaude, Frédéric Faucon, Jean-Philippe David, Joël Gustave, Anubis Vega-Rua and Florence Fouque
    Citation: Infectious Diseases of Poverty 2017 6:38
  6. Mosquitoes have developed resistance against pyrethroids, the only class of insecticides approved for use on long-lasting insecticidal nets (LLINs). The present study sought to evaluate the efficacy of the pyr...

    Authors: Eliningaya J. Kweka, Lucile J. Lyaruu and Aneth M. Mahande
    Citation: Infectious Diseases of Poverty 2017 6:11
  7. Recent studies have presented conflicting findings about whether malaria is associated with an increased or decreased risk of malnutrition. Therefore, assessing the relationship between these two disastrous di...

    Authors: Terefe Gone, Fiseha Lemango, Endale Eliso, Samuel Yohannes and Tadele Yohannes
    Citation: Infectious Diseases of Poverty 2017 6:9
  8. Visceral leishmaniasis, commonly known as kala-azar in India, is a global public health problem. In Southeast Asia, Bangladesh, Bhutan, India, Nepal, Sri Lanka and Thailand are endemic for visceral leishmanias...

    Authors: Ramesh C. Dhiman and Rajpal S. Yadav
    Citation: Infectious Diseases of Poverty 2016 5:106
  9. Aedes albopictus is distributed widely in China, as a primary vector of Dengue fever and Chikungunya fever in south of China. Chemical insecticide control is one of the integrated prog...

    Authors: Huiying Chen, Kaili Li, Xiaohua Wang, Xinyan Yang, Yi Lin, Fang Cai, Wenbin Zhong, Chunyan Lin, Zhongling Lin and Yajun Ma
    Citation: Infectious Diseases of Poverty 2016 5:31