General Aspects.- Systematics.- Biology of Mosquitoes.- Medical Importance of Mosquitoes.- Mosquito Research Techniques.- Morphology of Mosquitoes.- Identification Keys Morphology Ecology and Distribution of European Species.- Key to Female Mosquitoes.- Key to Male Mosquitoes.- Key to Mosquito Fourth Instar Larvae.- Subfamily Anophelinae.- Subfamily Culicinae.- Identification Keys, Morphology, Ecology and Distribution of Important Vector and Nuisance Species - Worldwide.- Africa.- Asia.- Australia.- Central and South America.- North America.- Control of Mosquitoes.- Biological Control.- Environmental Management of Mosquitoes.- Chemical Control.- Physical Control.- Genetic Control of Mosquitoes.- Personal Protection.- Implementation and Integration of Mosquito Control Measures.

Mosquitoes and their Control

https://www.fabinet.up.ac.za/publication/pdfs/2509-lacey_et_al_2001.pdf

Insect Pathogens as Biological Control Agents: Do They Have a Future?

Fungal diseases in insects are common and widespread and can decimate their populations in spectacular epizootics. Virtually all insect orders are susceptible to fungal diseases, including Dipterans. Fungal pathogens such as Lagenidium, Coelomomyces and Culicinomyces are known to affect mosquito populations, and have been studied extensively. There are, however, many other fungi that infect and kill mosquitoes at the larval and/or adult stage. The discovery, in 1977, of the selective mosquito-pathogenic bacterium Bacillus thuringiensis Berliner israelensis (Bti) curtailed widespread interest in the search for other suitable biological control agents. In recent years interest in mosquito-killing fungi is reviving, mainly due to continuous and increasing levels of insecticide resistance and increasing global risk of mosquito-borne diseases. This review presents an update of published data on mosquito-pathogenic fungi and mosquito-pathogen interactions, covering 13 different fungal genera. Notwithstanding the potential of many fungi as mosquito control agents, only a handful have been commercialized and are marketed for use in abatement programs. We argue that entomopathogenic fungi, both new and existing ones with renewed/improved efficacies may contribute to an expansion of the limited arsenal of effective mosquito control tools, and that they may contribute in a significant and sustainable manner to the control of vector-borne diseases such as malaria, dengue and filariasis.

/pdf/entomopathogenic-fungi-for-mosquito-control-a-review-455ehyicc7.pdf

Entomopathogenic fungi for mosquito control: A review

Bacillus thuringiensis (Bt) was first described by Berliner [10] when he isolated a Bacillus species from the Mediterranean flour moth, Anagasta kuehniella, and named it after the province Thuringia in Germany where the infected moth was found. Although this was the first description under the name B. thuringiensis, it was not the first isolation. In 1901, a Japanese biologist, Ishiwata Shigetane, discovered a previously undescribed bacterium as the causative agent of a disease afflicting silkworms. Bt was originally considered a risk for silkworm rearing but it has become the heart of microbial insect control. The earliest commercial production began in France in, 1938, under the name Sporeine [72]. A resurgence of interest in Bt has been attributed to Edward Steinhaus [105], who obtained a culture in 1942 and attracted attention to the potential of Bt through his subsequent studies. In 1956, T. Angus [3] demonstrated that the crystalline protein inclusions formed in the course of sporulation were responsible for the insecticidal action of Bt. By the early 1980's, Gonzalez et al. [48] revealed that the genes coding for crystal proteins were localized on transmissible plasmids, using a plasmid curing technique, and Schnepf and Whiteley [103] first cloned and characterized the genes coding for crystal proteins that had toxicity to larvae of the tobacco hornworm, from plasmid DNA of Bt subsp. kurstaki HD-1. This first cloning was followed quickly by the cloning of many other cry genes and eventually led to the development of Bt transgenic plants. In the 1980s, several scientists successively demonstrated that plants can be genetically engineered, and finally, Bt cotton reached the market in 1996 [104].

Bacillus thuringiensis as a Specific, Safe, and Effective Tool for Insect Pest Control

Current models of the mode of action of Bacillus thuringiensis insecticidal crystal proteins: A critical review

Lutte biologique par des virus, des protozoaires, des champignons (Lagedinium giganteum, Culicinomyces clavisporus, Coelomomyces) des bacteries (Bacillus sphaericus, Bacillus thuringiensis)

A H Undeen

Papers

Microbial Control of Black Flies and Mosquitoes