Dipartimento di Scienze Agrarie, Alimentari e Ambientali, University of Perugia, Borgo XX Giugno, Perugia, 06121, Italy.
Dipartimento di Chimica, Biologia e Biotecnologie, University of Perugia, Via Elce di Sotto 8, Perugia, 06121, Italy.
J Comp Physiol A Neuroethol Sens Neural Behav Physiol. 2024 Mar;210(2):249-265. doi: 10.1007/s00359-024-01698-2. Epub 2024 Mar 14.
Plants and herbivorous insects as well as their natural enemies, such as predatory and parasitoid insects, are united by intricate relationships. During the long period of co-evolution with insects, plants developed a wide diversity of features to defence against herbivores and to attract pollinators and herbivores' natural enemies. The chemical basis of insect-plant interactions is established and many examples are studied, where feeding and oviposition site selection of phytophagous insects are dependent on the plant's secondary chemistry. However, often overlooked mechanical interactions between insects and plants can be rather crucial. In the context of mechanoecology, the evolution of plant surfaces and insect adhesive pads is an interesting example of competition between insect attachment systems and plant anti-attachment surfaces. The present review is focused on mechanical insect-plant interactions of some important pest species, such as the polyphagous Southern Green Stinkbug Nezara viridula and two frugivorous pest species, the polyphagous Mediterranean fruit fly Ceratitis capitata and the monophagous olive fruit fly Bactrocera oleae. Their ability to attach to plant surfaces characterised by different features such as waxes and trichomes is discussed. Some attention is paid also to Coccinellidae, whose interaction with plant leaf surfaces is substantial across all developmental stages in both phytophagous and predatory species that feed on herbivorous insects. Finally, the role of different kinds of anti-adhesive nanomaterials is discussed. They can reduce the attachment ability of insect pests to natural and artificial surfaces, potentially representing environmental friendly alternative methods to reduce insect pest impact in agriculture.
植物和草食性昆虫以及它们的天敌,如捕食性和寄生性昆虫,通过复杂的关系联系在一起。在与昆虫长期共同进化的过程中,植物发展出了广泛的特征来防御草食性动物,并吸引传粉者和草食性动物的天敌。昆虫与植物相互作用的化学基础已经建立,并且有许多例子被研究,其中植食性昆虫的取食和产卵部位选择取决于植物的次生化学物质。然而,常常被忽视的昆虫和植物之间的机械相互作用可能是相当关键的。在机械生态学中,植物表面和昆虫粘性垫的进化是昆虫附着系统与植物抗附着表面之间竞争的一个有趣例子。本综述主要关注一些重要害虫物种的机械性昆虫-植物相互作用,如多食性南方绿蝽 Nezara viridula 和两种多食性害虫物种,多食性地中海实蝇 Ceratitis capitata 和单食性橄榄实蝇 Bactrocera oleae。讨论了它们附着在具有不同特征(如蜡质和刚毛)的植物表面的能力。还关注了瓢虫科,其与植物叶片表面的相互作用在植食性和捕食性物种的所有发育阶段都很重要,这些物种以草食性昆虫为食。最后,讨论了不同类型的抗粘纳米材料的作用。它们可以降低害虫附着在自然和人工表面的能力,有可能代表着减少农业中昆虫害虫影响的环保替代方法。