The researcher's work is centered around advanced approaches to managing pest populations in agricultural systems, particularly focusing on organic farming, intercropping, and integrated pest control strategies. Their studies highlight effective use of molecular biology techniques, such as sequencing Anaplasma and Ehrlichia species, to enhance pest management resilience. The research emphasizes the role of genetic modification, molecular identification, and field testing in achieving efficacy across various pest systems, including garlic, pepper, tomato, and zebrafish populations. Additionally, the researcher explores vector-borne diseases, particularly malaria, through detailed studies of vector-borne pathogens such as Rickettsia spp., Crimean-Congo haemorrhagic fever (CHF), and Babesia. Their work also delves into organic pesticide applications against pests like pepper and Hot Pepper, demonstrating their effectiveness in preventing population declines. Furthermore, the researcher investigates vector toxicity from insecticides and explores molecular methods to mitigate associated risks, such as fall armyworm infestations. The research integrates data across multiple domains, including pest management, environmental chemistry, and public health, with a focus on sustainable agricultural practices and biodiversity conservation.
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