Molecular adaptations underlying high-frequency hearing in the brain of CF bats species

Abstract Background The majority of bat species have developed remarkable echolocation ability, especially for the laryngeally echolocating bats along with high-frequency hearing. Adaptive evolution has been widely detected for the cochleae in the laryngeally echolocating bats, however, limited unde...

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Main Authors: Xintong Li, Hui Wang, Xue Wang, Mingyue Bao, Ruyi Sun, Wentao Dai, Keping Sun, Jiang Feng
Format: Article
Language:English
Published: BMC 2024-03-01
Series:BMC Genomics
Subjects:
Online Access:https://doi.org/10.1186/s12864-024-10212-6
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author Xintong Li
Hui Wang
Xue Wang
Mingyue Bao
Ruyi Sun
Wentao Dai
Keping Sun
Jiang Feng
author_facet Xintong Li
Hui Wang
Xue Wang
Mingyue Bao
Ruyi Sun
Wentao Dai
Keping Sun
Jiang Feng
author_sort Xintong Li
collection DOAJ
description Abstract Background The majority of bat species have developed remarkable echolocation ability, especially for the laryngeally echolocating bats along with high-frequency hearing. Adaptive evolution has been widely detected for the cochleae in the laryngeally echolocating bats, however, limited understanding for the brain which is the central to echolocation signal processing in the auditory perception system, the laryngeally echolocating bats brain may also undergo adaptive changes. Result In order to uncover the molecular adaptations related with high-frequency hearing in the brain of laryngeally echolocating bats, the genes expressed in the brain of Rhinolophus ferrumequinum (CF bat) and Myotis pilosus (FM bat) were both detected and also compared. A total of 346,891 genes were detected and the signal transduction mechanisms were annotated by the most abundant genes, followed by the transcription. In hence, there were 3,088 DEGs were found between the two bat brains, with 1,426 highly expressed in the brain of R. ferrumequinum, which were significantly enriched in the neuron and neurodevelopmental processes. Moreover, we found a key candidate hearing gene, ADCY1, playing an important role in the R. ferrumequinum brain and undergoing adaptive evolution in CF bats. Conclusions Our study provides a new insight to the molecular bases of high-frequency hearing in two laryngeally echolocating bats brain and revealed different nervous system activities during auditory perception in the brain of CF bats.
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spelling doaj.art-e292ef3f26ed4096aa251a0e572ec1e32024-03-17T12:16:30ZengBMCBMC Genomics1471-21642024-03-0125111510.1186/s12864-024-10212-6Molecular adaptations underlying high-frequency hearing in the brain of CF bats speciesXintong Li0Hui Wang1Xue Wang2Mingyue Bao3Ruyi Sun4Wentao Dai5Keping Sun6Jiang Feng7College of Life Science, Jilin Agricultural UniversityCollege of Life Science, Jilin Agricultural UniversityCollege of Life Science, Jilin Agricultural UniversityCollege of Life Science, Jilin Agricultural UniversityCollege of Life Science, Jilin Agricultural UniversityJilin Provincial Key Laboratory of Animal Resource Conservation and Utilization, Northeast Normal UniversityJilin Provincial Key Laboratory of Animal Resource Conservation and Utilization, Northeast Normal UniversityCollege of Life Science, Jilin Agricultural UniversityAbstract Background The majority of bat species have developed remarkable echolocation ability, especially for the laryngeally echolocating bats along with high-frequency hearing. Adaptive evolution has been widely detected for the cochleae in the laryngeally echolocating bats, however, limited understanding for the brain which is the central to echolocation signal processing in the auditory perception system, the laryngeally echolocating bats brain may also undergo adaptive changes. Result In order to uncover the molecular adaptations related with high-frequency hearing in the brain of laryngeally echolocating bats, the genes expressed in the brain of Rhinolophus ferrumequinum (CF bat) and Myotis pilosus (FM bat) were both detected and also compared. A total of 346,891 genes were detected and the signal transduction mechanisms were annotated by the most abundant genes, followed by the transcription. In hence, there were 3,088 DEGs were found between the two bat brains, with 1,426 highly expressed in the brain of R. ferrumequinum, which were significantly enriched in the neuron and neurodevelopmental processes. Moreover, we found a key candidate hearing gene, ADCY1, playing an important role in the R. ferrumequinum brain and undergoing adaptive evolution in CF bats. Conclusions Our study provides a new insight to the molecular bases of high-frequency hearing in two laryngeally echolocating bats brain and revealed different nervous system activities during auditory perception in the brain of CF bats.https://doi.org/10.1186/s12864-024-10212-6BatsBrainEcholocationRNA-SeqAdaptive evolution
spellingShingle Xintong Li
Hui Wang
Xue Wang
Mingyue Bao
Ruyi Sun
Wentao Dai
Keping Sun
Jiang Feng
Molecular adaptations underlying high-frequency hearing in the brain of CF bats species
BMC Genomics
Bats
Brain
Echolocation
RNA-Seq
Adaptive evolution
title Molecular adaptations underlying high-frequency hearing in the brain of CF bats species
title_full Molecular adaptations underlying high-frequency hearing in the brain of CF bats species
title_fullStr Molecular adaptations underlying high-frequency hearing in the brain of CF bats species
title_full_unstemmed Molecular adaptations underlying high-frequency hearing in the brain of CF bats species
title_short Molecular adaptations underlying high-frequency hearing in the brain of CF bats species
title_sort molecular adaptations underlying high frequency hearing in the brain of cf bats species
topic Bats
Brain
Echolocation
RNA-Seq
Adaptive evolution
url https://doi.org/10.1186/s12864-024-10212-6
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