An acoustic detection dataset of birds (Aves) in montane forests using a deep learning approach

被引:0
|
作者
Wu, Shih-Hung [1 ,2 ]
Ko, Jerome Chie-Jen [2 ,3 ]
Tsai, Wen -Ling [4 ]
Lin, Ruey-Shing [2 ]
Chang, Hsueh-Wen [1 ]
机构
[1] Natl Sun Yat Sen Univ, Dept Biol Sci, Kaohsiung, Taiwan
[2] Endem Species Res Inst, Nantou, Taiwan
[3] Natl Taiwan Univ, Inst Ecol & Evolutionary Biol, Taipei, Taiwan
[4] Yushan Natl Pk Headquarters, Nantou, Taiwan
关键词
passive acoustic monitoring; Yushan National Park; Aves; SILIC; automated sound identification; biodiversity; soundscape; CITIZEN SCIENCE; CLIMATE-CHANGE; BIODIVERSITY;
D O I
10.3897/BDJ.11.e97811
中图分类号
X176 [生物多样性保护];
学科分类号
090705 ;
摘要
Long-term monitoring is needed to understand the statuses and trends of wildlife communities in montane forests, such as those in Yushan National Park (YSNP), Taiwan. Integrating passive acoustic monitoring (PAM) with an automated sound identifier, a long-term biodiversity monitoring project containing six PAM stations, was launched in YSNP in January 2020 and is currently ongoing. SILIC, an automated wildlife sound identification model, was used to extract sounds and species information from the recordings collected. Animal vocal activity can reflect their breeding status, behaviour, population, movement and distribution, which may be affected by factors, such as habitat loss, climate change and human activity. This massive amount of wildlife vocalisation dataset can provide essential information for the National Park's headquarters on resource management and decision-making. It can also be valuable for those studying the effects of climate change on animal distribution and behaviour at a regional or global scale.New informationTo our best knowledge, this is the first open-access dataset with species occurrence data extracted from sounds in soundscape recordings by artificial intelligence. We obtained seven bird species for the first release, with more bird species and other taxa, such as mammals and frogs, to be updated annually. Raw recordings containing over 1.7 million one-minute recordings collected between the years 2020 and 2021 were analysed and SILIC identified 6,243,820 vocalisations of seven bird species in 439,275 recordings. The automatic detection had a precision of 0.95 and the recall ranged from 0.48 to 0.80. In terms of the balance between precision and recall, we prioritised increasing precision over recall in order to minimise false positive detections. In this dataset, we summarised the count of vocalisations detected per sound class per recording which resulted in 802,670 occurrence records. Unlike data from traditional human observation methods, the number of observations in the Darwin Core "organismQuantity" column refers to the number of vocalisations detected for a specific bird species and cannot be directly linked to the number of individuals.We expect our dataset will be able to help fill the data gaps of fine-scale avian temporal activity patterns in montane forests and contribute to studies concerning the impacts of climate change on montane forest ecosystems on regional or global scales.
引用
收藏
页数:15
相关论文
共 50 条
  • [31] Automatic bolt tightness detection using acoustic emission and deep learning
    Fu, Wei
    Zhou, Ruohua
    Guo, Ziye
    STRUCTURES, 2023, 55 : 1774 - 1782
  • [32] In-process acoustic pore detection in milling using deep learning
    Gauder, Daniel
    Biehler, Michael
    Goelz, Johannes
    Schulze, Volker
    Lanza, Gisela
    CIRP JOURNAL OF MANUFACTURING SCIENCE AND TECHNOLOGY, 2022, 37 : 125 - 133
  • [33] Deep Learning Approach to Classification of Acoustic Signals Using Information Features
    Lysenko, P. V.
    Nasonov, I. A.
    Galyaev, A. A.
    Berlin, L. M.
    DOKLADY MATHEMATICS, 2023, 108 (SUPPL 2) : S196 - S204
  • [34] Acoustic Temperature Tomography using a UNet based Deep Learning Approach
    Tamire, Messay Tafesse
    Pathuri-Bhuvana, Venkata
    Lehner, Bernhard
    Schuster, Stefan
    Och, Andreas
    Akram, Muhammad Nadeem
    2022 30TH EUROPEAN SIGNAL PROCESSING CONFERENCE (EUSIPCO 2022), 2022, : 1561 - 1565
  • [35] Deep Learning Approach to Classification of Acoustic Signals Using Information Features
    P. V. Lysenko
    I. A. Nasonov
    A. A. Galyaev
    L. M. Berlin
    Doklady Mathematics, 2023, 108 : S196 - S204
  • [36] A Synergistic Approach Using Machine Learning and Deep Learning for Forest Fire Susceptibility in Himalayan Forests
    Shome, Parthiva
    Prakash, A. Jaya
    Behera, Mukunda Dev
    Mudi, Sujoy
    Das, Pulakesh
    Behera, Satyajit
    Vinod, P. V.
    Prusty, Basanta Kumar
    Parida, Bikash Ranjan
    Pradhan, Biswajeet
    Srivastava, Sanjeev Kumar
    Roy, Parth Sarathi
    JOURNAL OF THE INDIAN SOCIETY OF REMOTE SENSING, 2025,
  • [37] Real-Time Pipeline Leak Detection: A Hybrid Deep Learning Approach Using Acoustic Emission Signals
    Saleem, Faisal
    Ahmad, Zahoor
    Kim, Jong-Myon
    APPLIED SCIENCES-BASEL, 2025, 15 (01):
  • [38] Birds Identification System using Deep Learning
    Al-Showarah, Suleyman A.
    Al-qbailat, Sohyb T.
    INTERNATIONAL JOURNAL OF ADVANCED COMPUTER SCIENCE AND APPLICATIONS, 2021, 12 (04) : 251 - 260
  • [39] Developing a microscopic image dataset in support of intelligent phytoplankton detection using deep learning
    Li, Qiong
    Sun, Xin
    Dong, Junyu
    Song, Shuqun
    Zhang, Tongtong
    Liu, Dan
    Zhang, Han
    Han, Shuai
    ICES JOURNAL OF MARINE SCIENCE, 2020, 77 (04) : 1427 - 1439
  • [40] A Deep Learning Approach for Detection and Segmentation of Airplanes in Ultrahigh-Spatial-Resolution UAV Dataset
    Dhingra, Parul
    Pande, Hina
    Tiwari, Poonam S.
    Agrawal, Shefali
    PROCEEDINGS OF UASG 2021: WINGS 4 SUSTAINABILITY, 2023, 304 : 211 - 228