Computational Physics of Insect Flight-Aerial Locomotion and Navigation

The aerodynamics of insect flight is a subject of considerable scientific and engineering interest. Insects flap their wings and generate aerodynamic forces for flight via unsteady aerodynamics. Airflow and sounds produced by flapping wings simultaneously affect insect navigation through olfaction and audition, which are also of biological and engineering importance. Computational approaches have played a complementary but important role in understanding insect flight mechanisms, together with insect measurements and robotic approaches. This study highlights the contribution of computational physics to the study of insect flight and navigation using olfaction and audition, with the aim of familiarising the physics community, particularly students and young researchers, with the attractiveness of diverse insect flights and future challenges in the field.

Automated summary

The aerodynamics of insect flight is a fascinating subject that has garnered interest in both scientific and engineering communities. Insects generate aerodynamic forces for flight through their flapping wings, and this process is influenced by airflow and sounds, which in turn affect their navigation through olfaction and audition. Computational approaches have provided valuable insights into this field, working alongside insect measurements and robotic techniques. This study emphasizes the contribution of computational physics in understanding insect flight and navigation, aiming to engage the physics community, particularly students and young researchers, in the captivating world of diverse insect flights and the future challenges it holds.