Passive acoustic monitoring and automated detection of the American bullfrog

被引:6
|
作者
Bota, Gerard [1 ]
Manzano-Rubio, Robert [1 ]
Fanlo, Helena [2 ]
Franch, Nati [2 ]
Brotons, Lluis [1 ,3 ,4 ]
Villero, Dani [1 ,4 ]
Devisscher, Sander [5 ]
Pavesi, Alessandro [6 ]
Cavaletti, Enrico [6 ]
Perez-Granados, Cristian [1 ,7 ]
机构
[1] Forest Sci & Technol Ctr Catalonia CTFC, Landscape Dynam & Biodivers Programme, Conservat Biol Grp, Solsona, Catalonia, Spain
[2] Parc Nat Delta Ebre Div Area Proteccio & Recerca, Ave Catalunya 46, Deltebre 43580, Spain
[3] CSIC, Cerdanyola Del Valles, Spain
[4] CREAF, Cerdanyola Del Valles, Spain
[5] Res Inst Nat & Forest, Brussels, Belgium
[6] Grp Naturalist Mantovano, Mantua, Italy
[7] Alicante Univ, Ecol Dept, Alicante, Spain
关键词
Autonomous recording unit; Biological invasions; BirdNET; Invasive alien species; Lithobates catesbeianus; Passive acoustic monitoring; LITHOBATES-CATESBEIANUS; ERADICATION; MANAGEMENT; INVASION;
D O I
10.1007/s10530-023-03244-8
中图分类号
X176 [生物多样性保护];
学科分类号
090705 ;
摘要
Biological invasions pose significant threats to biodiversity and ecosystem functioning. Removal of introduced species is most successful when detected early. We evaluate the effectiveness of passive acoustics combined with automated recognition in detecting the invasive American bullfrog (Lithobates catesbeianus). We applied this technique to two real-world monitoring programs aimed at determining the optimal time of day for monitoring the species in Europe, for which we recorded the species in Belgium and Italy; and for evaluating the effectiveness of BirdNET (a free and user-friendly automated recognizer) in analyzing a large dataset collected in Spain. BirdNET was highly effective in automatically detecting the bullfrog presence, with a detection rate (compared to visual inspection of sonograms) of 89.5% using default settings (85 of 95 recordings with known presence), and 95.8% with user-specific settings (91 of 95 recordings detected). The system showed remarkable precision, correctly identifying 99.7% (612 out of 614) of the verified predictions, and with only one mislabelled recording (predicted to be present when it was absent). The species' vocal activity in Belgium and Italy was higher during the night compared to crepuscular periods. Recording analyses and output verification of the dataset collected in Spain was carried out in 3.8% of the recorded time, and resulted in significantly reduced effort compared to visual inspection. Our study highlights the effectiveness of this technique for remotely surveying the American bullfrog, making it a significantly potential tool for informing management decisions, particularly for the early detection of the species' arrival in new areas.
引用
收藏
页码:1269 / 1279
页数:11
相关论文
共 50 条
  • [31] An experimental investigation into passive acoustic damage detection for structural health monitoring of wind turbine blades
    Solimine, Jaclyn
    Niezrecki, Christopher
    Inalpolat, Murat
    STRUCTURAL HEALTH MONITORING-AN INTERNATIONAL JOURNAL, 2020, 19 (06): : 1711 - 1725
  • [32] Automated acoustic detection of mouse scratching
    Elliott, Peter
    G'Sell, Max
    Snyder, Lindsey M.
    Ross, Sarah E.
    Ventura, Valerie
    PLOS ONE, 2017, 12 (07):
  • [33] Passive acoustic detection and measurement of rainfall at sea
    Ma, B.B. (binbing@u.washington.edu), 1600, American Meteorological Society (22):
  • [34] Passive Acoustic Detection of Diver Based on SVM
    Zhao, Wu
    Chen, Hong
    Xiang, Longfeng
    Xie, Xiaomei
    Chen, Min
    Zhao, Zuli
    Li, Qi
    2016 IEEE INTERNATIONAL CONFERENCE ON MECHATRONICS AND AUTOMATION, 2016, : 623 - 628
  • [35] Passive acoustic detection and measurement of rainfall at sea
    Ma, BB
    Nystuen, JA
    JOURNAL OF ATMOSPHERIC AND OCEANIC TECHNOLOGY, 2005, 22 (08) : 1225 - 1248
  • [36] Passive acoustic threat detection in estuarine environments
    Borowski, Brian
    Sutin, Alexander
    Roh, Heui-Seol
    Bunin, Barry
    OPTICS AND PHOTONICS IN GLOBAL HOMELAND SECURITY IV, 2008, 6945
  • [37] Object Detection with Passive Acoustic Graphene Nanosensor
    Aznakayev, E. G.
    Bidnyi, N. S.
    Aznakayeva, D. E.
    Borodii, T. V.
    2017 5TH IEEE MICROWAVES, RADAR AND REMOTE SENSING SYMPOSIUM (MRRS), 2017, : 181 - 184
  • [38] Passive Acoustic Sensing for Detection of Small Vessels
    Sorensen, Eric
    Ou, Helen H.
    Zurk, Lisa M.
    Siderius, Martin
    OCEANS 2010, 2010,
  • [39] Passive Acoustic Monitoring of Bed Load for Fluvial Applications
    Rigby, J. R.
    Wren, D. G.
    Kuhnle, R. A.
    JOURNAL OF HYDRAULIC ENGINEERING, 2016, 142 (09)
  • [40] Passive Acoustic Monitoring of Bed Load with Drifted Hydrophone
    Nasr, Mohamad
    Johannot, Adele
    Geay, Thomas
    Zanker, Sebastien
    Le Guern, Jules
    Recking, Alain
    JOURNAL OF HYDRAULIC ENGINEERING, 2023, 149 (07)