Cattle ticks are among the most economically important ectoparasites affecting livestock production worldwide, causing substantial economic losses through reduced weight gain, decreased milk yield, hide damage, and the transmission of tick-borne diseases, including babesiosis and anaplasmosis. For decades, chemical acaricides have been the cornerstone of tick control programs because of their efficacy and ease of application. However, their extensive and often indiscriminate use has driven the widespread development of acaricide resistance in several tick species, particularly the cattle tick Rhipicephalus (Boophilus) microplus. Resistance to the major classes of acaricides, including organophosphates, synthetic pyrethroids, amidines, macrocyclic lactones, and phenylpyrazoles, has increased production costs, reduced treatment efficacy, and raised significant environmental and public health concerns owing to chemical residues and ecological contamination. These challenges underscore the urgent need for sustainable and integrated tick management strategies.
Anti-tick vaccines have emerged as a promising biological alternative to chemical control by inducing host immune responses against key tick antigens, thereby reducing tick attachment, blood feeding, reproductive fitness, and pathogen transmission. Commercial vaccines based on the Bm86 antigen have demonstrated variable levels of protection across different geographical regions and tick populations. More recently, advances in molecular biology and omics technologies, including vaccinomics and vaccinomics-guided antigen discovery, have accelerated the identification of novel vaccine candidates with the potential to provide broader and more effective protection. Nevertheless, vaccination alone is unlikely to eliminate tick infestations and should therefore be implemented as a component of an integrated tick management strategy.
Sustainable control of cattle ticks requires a multifaceted approach that integrates the strategic use of acaricides, anti-tick vaccination, biological control, pasture management, host genetic resistance, and routine surveillance of acaricide resistance. Such integrated tick management strategies reduce selection pressure for resistance, improve animal health and productivity, minimize environmental impacts, and promote sustainable livestock production. Continued research aimed at developing next-generation vaccines and innovative resistance management approaches will be critical for achieving effective, durable, and environmentally sustainable control of cattle ticks worldwide.
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Published on: Aug 7, 2026 Pages: 1-7
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DOI: 10.17352/jvi.000062
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