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Diving-flight aerodynamics of a peregrine falcon (Falco peregrinus)

This study investigates the aerodynamics of the falcon Falco peregrinus while diving. During a dive peregrines can reach velocities of more than 320 km h⁻¹. Unfortunately, in freely roaming falcons, these high velocities prohibit a precise determination of flight parameters such as velocity and acce...

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Published in:PloS one 2014-02, Vol.9 (2), p.e86506-e86506
Main Authors: Ponitz, Benjamin, Schmitz, Anke, Fischer, Dominik, Bleckmann, Horst, Brücker, Christoph
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description This study investigates the aerodynamics of the falcon Falco peregrinus while diving. During a dive peregrines can reach velocities of more than 320 km h⁻¹. Unfortunately, in freely roaming falcons, these high velocities prohibit a precise determination of flight parameters such as velocity and acceleration as well as body shape and wing contour. Therefore, individual F. peregrinus were trained to dive in front of a vertical dam with a height of 60 m. The presence of a well-defined background allowed us to reconstruct the flight path and the body shape of the falcon during certain flight phases. Flight trajectories were obtained with a stereo high-speed camera system. In addition, body images of the falcon were taken from two perspectives with a high-resolution digital camera. The dam allowed us to match the high-resolution images obtained from the digital camera with the corresponding images taken with the high-speed cameras. Using these data we built a life-size model of F. peregrinus and used it to measure the drag and lift forces in a wind-tunnel. We compared these forces acting on the model with the data obtained from the 3-D flight path trajectory of the diving F. peregrinus. Visualizations of the flow in the wind-tunnel uncovered details of the flow structure around the falcon's body, which suggests local regions with separation of flow. High-resolution pictures of the diving peregrine indicate that feathers pop-up in the equivalent regions, where flow separation in the model falcon occurred.
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During a dive peregrines can reach velocities of more than 320 km h⁻¹. Unfortunately, in freely roaming falcons, these high velocities prohibit a precise determination of flight parameters such as velocity and acceleration as well as body shape and wing contour. Therefore, individual F. peregrinus were trained to dive in front of a vertical dam with a height of 60 m. The presence of a well-defined background allowed us to reconstruct the flight path and the body shape of the falcon during certain flight phases. Flight trajectories were obtained with a stereo high-speed camera system. In addition, body images of the falcon were taken from two perspectives with a high-resolution digital camera. The dam allowed us to match the high-resolution images obtained from the digital camera with the corresponding images taken with the high-speed cameras. Using these data we built a life-size model of F. peregrinus and used it to measure the drag and lift forces in a wind-tunnel. We compared these forces acting on the model with the data obtained from the 3-D flight path trajectory of the diving F. peregrinus. Visualizations of the flow in the wind-tunnel uncovered details of the flow structure around the falcon's body, which suggests local regions with separation of flow. High-resolution pictures of the diving peregrine indicate that feathers pop-up in the equivalent regions, where flow separation in the model falcon occurred.</abstract><cop>United States</cop><pub>Public Library of Science</pub><pmid>24505258</pmid><doi>10.1371/journal.pone.0086506</doi><tpages>e86506</tpages><oa>free_for_read</oa></addata></record>
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identifier ISSN: 1932-6203
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subjects Aerodynamics
Animal behavior
Animals
Biology
Birds
Cameras
Dams
Digital cameras
Digital imaging
Diving
Engineering
Experiments
Falco peregrinus
Falconiformes
Feathers
Flight
Flight paths
Flight, Animal
Flow
Flow (Dynamics)
Flow separation
Fluid dynamics
Fluid-structure interaction
High resolution
High speed cameras
Image resolution
Mechanics
Models, Theoretical
Physics
Pictures
Reptiles & amphibians
Science Policy
Separation
Trajectories
Velocity
Veterinary Science
Wind tunnels
Zoology
title Diving-flight aerodynamics of a peregrine falcon (Falco peregrinus)
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