Stromberg Bert E, Gasbarre Louis C
Veterinary and Biomedical Sciences Department, College of Veterinary Medicine, University of Minnesota, 1971 Commonwealth Avenue, St. Paul, MN 55108, USA.
Vet Clin North Am Food Anim Pract. 2006 Nov;22(3):543-65. doi: 10.1016/j.cvfa.2006.08.003.
Control strategies for nematode parasites rely on knowledge of the relationships between the parasites and their hosts. Specifically, these programs are based on identifying crucial points of interaction in the environment provided by the host, including genetics and the immune response, and critical periods in the physical environment in which the eggs and larval stages must develop. When these targets are identified and the interactions understood, cost-effective sustainable programs can be developed using currently available antiparasitic compounds. Resistance to the major classes of anthelmintic compounds requires consideration of new approaches, such as immunity or genetics of the host. Additionally, the efficacy of these compounds can be expanded with combined or concomitant use. Increased study of the use of novel approaches, including fungi, elements such as copper, and plant products, has also occurred. This article explores each of these areas to allow readers to appreciate how various approaches may be developed and incorporated into an effective parasite control program.
线虫寄生虫的控制策略依赖于对寄生虫与其宿主之间关系的了解。具体而言,这些方案基于识别宿主提供的环境中的关键相互作用点,包括遗传学和免疫反应,以及虫卵和幼虫阶段必须发育的物理环境中的关键时期。当确定了这些目标并理解了相互作用后,就可以使用现有的抗寄生虫化合物制定具有成本效益的可持续方案。对主要类别的驱虫化合物产生抗性需要考虑新的方法,例如宿主的免疫力或遗传学。此外,这些化合物的功效可以通过联合或同时使用来扩大。对包括真菌、铜等元素和植物产品在内的新方法的使用也有了更多研究。本文探讨了这些领域中的每一个,以使读者了解如何开发各种方法并将其纳入有效的寄生虫控制方案。