Chaudhary Suman, Kanwar Rupinder K, Sehgal Alka, Cahill David M, Barrow Colin J, Sehgal Rakesh, Kanwar Jagat R
Nanomedicine-Laboratory of Immunology and Molecular Biomedical Research, Faculty of Health, Centre for Molecular and Medical Research, Strategic Research Centre, School of Medicine, Deakin UniversityGeelong, VIC, Australia.
Department of Gynecology, Government Medical College and HospitalChandigarh, India.
Front Plant Sci. 2017 May 8;8:610. doi: 10.3389/fpls.2017.00610. eCollection 2017.
Over the years, extensive use of commercially available synthetic pesticides against phytophagous insects has led to their bioaccumulation in the environment causing increased resistance and reduction in soil biodiversity. Further, 90% of the applied pesticides enter the various environmental resources as a result of run-off, exposing the farmers as well as consumers of the agricultural produce to severe health issues. Therefore, growing attention has been given toward the development of alternate environmentally friendly pesticides/insecticides that would aid an efficient pest management system and also prevent chronic exposures leading to diseases. One such strategy is, the use of neem plant's (Binomial name: ) active ingredients which exhibit agro-medicinal properties conferring insecticidal as well as immunomodulatory and anti-cancer properties. The most prominent constituent of neem is azadirachtin, which has been established as a pivotal insecticidal ingredient. It acts as an antifeedant, repellent, and repugnant agent and induces sterility in insects by preventing oviposition and interrupting sperm production in males. This review discusses, key neem pesticidal components, their active functional ingredients along with recent strategies on employing nanocarriers, to provide controlled release of the active ingredients and to improve their stability and sustainability.
多年来,大量使用市售合成农药防治植食性昆虫,导致其在环境中生物累积,造成抗药性增强和土壤生物多样性降低。此外,90% 的施用农药因径流进入各种环境资源,使农民以及农产品消费者面临严重的健康问题。因此,人们越来越关注开发替代的环境友好型农药/杀虫剂,这将有助于建立高效的害虫管理系统,并防止因长期接触导致疾病。一种这样的策略是使用印楝植物(双名法名称: )的活性成分,这些成分具有农用药物特性,兼具杀虫以及免疫调节和抗癌特性。印楝最主要的成分是印楝素,它已被确立为一种关键的杀虫成分。它可作为拒食剂、驱避剂和厌恶剂,并通过阻止产卵和中断雄性昆虫精子生成来诱导昆虫不育。本综述讨论了印楝的关键杀虫成分、它们的活性功能成分以及最近使用纳米载体的策略,以实现活性成分的控释并提高其稳定性和可持续性。