Advancing flight physics through natural adaptation and animal learning

Fuente: arXiv
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Main Authors: Gayout, Ariane, Lentink, David
Format: Preprint
Published: 2024
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author Gayout, Ariane
Lentink, David
author_facet Gayout, Ariane
Lentink, David
contents Fluid dynamics, and flight in particular, is a domain where organisms challenge our understanding of its physics. Integrating the current knowledge of animal flight, we propose to revisit the use of live animals to study physical phenomena. After a short description of the physics of flight, we examine the broad literature on animal flight focusing on studies of living animals. We start out reviewing the diverse animal species studied so far and then focus on the experimental techniques used to study them quantitatively. Our network analysis reveals how the three clades of animals performing powered flight - insects, birds and bats - are studied using substantially different combinations of measurement techniques. We then combine these insights with a new paradigm for increasing our physical understanding of flight. This paradigm relies on the concept of Animal Learning, where animals are used as probes to study fluid phenomena and variables involved in flight, harnessing their natural adaptability.
format Preprint
id arxiv_https___arxiv_org_abs_2409_10067
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Advancing flight physics through natural adaptation and animal learning
Gayout, Ariane
Lentink, David
Fluid Dynamics
Biological Physics
Fluid dynamics, and flight in particular, is a domain where organisms challenge our understanding of its physics. Integrating the current knowledge of animal flight, we propose to revisit the use of live animals to study physical phenomena. After a short description of the physics of flight, we examine the broad literature on animal flight focusing on studies of living animals. We start out reviewing the diverse animal species studied so far and then focus on the experimental techniques used to study them quantitatively. Our network analysis reveals how the three clades of animals performing powered flight - insects, birds and bats - are studied using substantially different combinations of measurement techniques. We then combine these insights with a new paradigm for increasing our physical understanding of flight. This paradigm relies on the concept of Animal Learning, where animals are used as probes to study fluid phenomena and variables involved in flight, harnessing their natural adaptability.
title Advancing flight physics through natural adaptation and animal learning
topic Fluid Dynamics
Biological Physics
url https://arxiv.org/abs/2409.10067