Resonance of the tympanoperiotic complex of fin whales with implications for their low frequency hearing

The tympanoperiotic complex (TPC) bones of the fin whale skull were studied using experimental measurements and simulation modeling to provide insight into the low frequency hearing of these animals. The study focused on measuring the sounds emitted by the left and right TPC bones when the bones wer...

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Published in:PloS one 2023-10, Vol.18 (10), p.e0288119-e0288119
Main Authors: Morris, Margaret, Krysl, Petr, Hildebrand, John, Cranford, Ted
Format: Article
Language:English
Subjects:
Analysis
Animals
Aquatic mammals
Biology and Life Sciences
Bones
Cetacea
Computed tomography
Computer simulation
Computer-generated environments
CT imaging
Earth Sciences
Engineering and Technology
Evaluation
Finite element method
Frequency estimation
Hearing
Low frequencies
Mathematical models
Mechanical properties
Medicine and Health Sciences
Mesh generation
Microphones
Modulus of elasticity
Physical Sciences
Resonance
Silicones
Simulation
Simulation methods
Sound
Vibration
Vibration mode
Vibrations
Whales
Whales & whaling
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Krysl, Petr
Hildebrand, John
Cranford, Ted
description The tympanoperiotic complex (TPC) bones of the fin whale skull were studied using experimental measurements and simulation modeling to provide insight into the low frequency hearing of these animals. The study focused on measuring the sounds emitted by the left and right TPC bones when the bones were tapped at designated locations. Radiated sound was recorded by eight microphones arranged around the tympanic bulla. A finite element model was also created to simulate the natural mode vibrations of the TPC and ossicular chain, using a 3D mesh generated from a CT scan. The simulations produced mode shapes and frequencies for various Young's modulus and density values. The recorded sound amplitudes were compared with the normal component of the simulated displacement and it was found that the modes identified in the experiment most closely resembled those found with Young's modulus for stiff and flexible bone set to 25 and 5 GPa, respectively. The first twelve modes of vibration of the TPC had resonance frequencies between 100Hz and 6kHz. Many vibrational modes focused energy at the sigmoidal process, and therefore the ossicular chain. The resonance frequencies of the left and right TPC were offset, suggesting a mechanism for the animals to have improved hearing at a range of frequencies as well as a mechanism for directionality in their perception of sounds.
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subjects Analysis
Animals
Aquatic mammals
Biology and Life Sciences
Bones
Cetacea
Computed tomography
Computer simulation
Computer-generated environments
CT imaging
Earth Sciences
Engineering and Technology
Evaluation
Finite element method
Frequency estimation
Hearing
Low frequencies
Mathematical models
Mechanical properties
Medicine and Health Sciences
Mesh generation
Microphones
Modulus of elasticity
Physical Sciences
Resonance
Silicones
Simulation
Simulation methods
Sound
Vibration
Vibration mode
Vibrations
Whales
Whales & whaling
title Resonance of the tympanoperiotic complex of fin whales with implications for their low frequency hearing
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