Abstract

1. Every year billions of insects engage in long‐distance, seasonal mass migrations which have major consequences for agriculture, ecosystem services and insect‐vectored diseases. Tracking this movement in the field is difficult, with mass migrations often occurring at high altitudes and over large spatial scales.2. As such, tethered flight provides a valuable tool for studying the flight behaviour of insects, giving insights into flight propensity (e.g. distance, duration and velocity) and orientation under controlled laboratory settings. By experimentally manipulating a variety of environmental and physiological traits, numerous studies have used this technology to study the flight behaviour of migratory insects ranging in size from aphids to butterflies. Advances in functional genomics promise to extend this to the identification of genetic factors associated with flight. Tethered flight techniques have been used to study migratory flight characteristics in insects for more than 50 years, but have never been reviewed.3. This study summarises the key findings of this technology, which has been employed in studies of species from six Orders. By providing detailed descriptions of the tethered flight systems, the present study also aims to further the understanding of how tethered flight studies support field observations, the situations under which the technology is useful and how it might be used in future studies.4. The aim is to contextualise the available tethered flight studies within the broader knowledge of insect migration and to describe the significant contribution these systems have made to the literature.

Highlights

  • An enormous number of insects undergo long-distance aerial migrations to escape deteriorating habitats and seek more suitable environments

  • Tethered flight represents a relatively simple laboratory assay with which to study traits associated with migration in insects

  • We have attempted to summarise some of the applications of this technology to the field of insect migration

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Summary

Introduction

An enormous number of insects undergo long-distance aerial migrations to escape deteriorating habitats and seek more suitable environments. Rather than assess a single parameter, the authors performed a principal component analysis of 16 end-point flight mill variables, and showed that, for the range of moths studied, total distance flown overnight and maximum flight speed were the most informative and captured most of the variation in flight (Jones et al, 2016) (Fig. 3b; unpublished data from H. armigera).

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