Monitoring fast-moving animals—Building a customized camera system and evaluation toolset

Publikation: Beiträge in ZeitschriftenZeitschriftenaufsätzeForschungbegutachtet

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Monitoring fast-moving animals—Building a customized camera system and evaluation toolset. / Wittmann, Katharina; Gamal Ibrahim, Mohamed; Straw, Andrew David et al.
in: Methods in Ecology and Evolution, Jahrgang 15, Nr. 5, 05.2024, S. 836-842.

Publikation: Beiträge in ZeitschriftenZeitschriftenaufsätzeForschungbegutachtet

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Wittmann K, Gamal Ibrahim M, Straw AD, Klein AM, Staab M. Monitoring fast-moving animals—Building a customized camera system and evaluation toolset. Methods in Ecology and Evolution. 2024 Mai;15(5):836-842. doi: 10.1111/2041-210X.14322

Bibtex

@article{13a59723fb5e471286a0e962870fa146,
title = "Monitoring fast-moving animals—Building a customized camera system and evaluation toolset",
abstract = "Automated cameras (including camera traps) are an established observation tool, allowing, for example the identification of behaviours and monitoring without harming organisms. However, limitations including imperfect detection, insufficient data storage and power supply restrict the use of camera traps, making inexpensive and customizable solutions desirable. We describe a camera system and evaluation toolset based on Raspberry Pi computers and YOLOv5 that can overcome those shortcomings with its modular properties. We facilitate the set-up and modification for researchers via detailed step-by-step guides. A customized camera system prototype was constructed to monitor fast-moving organisms on a continuous schedule. For testing and benchmarking, we recorded mason bees (Osmia cornuta) approaching nesting aids on 20 sites. To efficiently process the extensive video material, we developed an evaluation toolset utilizing the convolutional neural network YOLOv5 to detect bees in the videos. In the field test, the camera system performed reliably for more than a week (2 h per day) under varying weather conditions. YOLOv5 detected and classified bees with only 775 original training images. Overall detection reliability varied depending on camera perspective, site and weather conditions, but a high average detection precision (78%) was achieved, which was confirmed by a human observer (80% of algorithm-based detections confirmed). The customized camera system mitigates several disadvantages of commercial camera traps by using interchangeable components and incorporates all major requirements a researcher has for working in the field including moderate costs, easy assembly and an external energy source. We provide detailed user guides to bridge the gap between ecology, computer science and engineering.",
keywords = "artificial intelligence, convolutional neural network, Hymenoptera, low-budget, object classification, Raspberry Pi, videos, YOLOv5, Biology, Ecosystems Research",
author = "Katharina Wittmann and Mohamed Gamal Ibrahim and Straw, {Andrew David} and Klein, {Alexandra Maria} and Michael Staab",
note = "Publisher Copyright: {\textcopyright} 2024 The Authors. Methods in Ecology and Evolution published by John Wiley & Sons Ltd on behalf of British Ecological Society.",
year = "2024",
month = may,
doi = "10.1111/2041-210X.14322",
language = "English",
volume = "15",
pages = "836--842",
journal = "Methods in Ecology and Evolution",
issn = "2041-210X",
publisher = "British Ecological Society",
number = "5",

}

RIS

TY - JOUR

T1 - Monitoring fast-moving animals—Building a customized camera system and evaluation toolset

AU - Wittmann, Katharina

AU - Gamal Ibrahim, Mohamed

AU - Straw, Andrew David

AU - Klein, Alexandra Maria

AU - Staab, Michael

N1 - Publisher Copyright: © 2024 The Authors. Methods in Ecology and Evolution published by John Wiley & Sons Ltd on behalf of British Ecological Society.

PY - 2024/5

Y1 - 2024/5

N2 - Automated cameras (including camera traps) are an established observation tool, allowing, for example the identification of behaviours and monitoring without harming organisms. However, limitations including imperfect detection, insufficient data storage and power supply restrict the use of camera traps, making inexpensive and customizable solutions desirable. We describe a camera system and evaluation toolset based on Raspberry Pi computers and YOLOv5 that can overcome those shortcomings with its modular properties. We facilitate the set-up and modification for researchers via detailed step-by-step guides. A customized camera system prototype was constructed to monitor fast-moving organisms on a continuous schedule. For testing and benchmarking, we recorded mason bees (Osmia cornuta) approaching nesting aids on 20 sites. To efficiently process the extensive video material, we developed an evaluation toolset utilizing the convolutional neural network YOLOv5 to detect bees in the videos. In the field test, the camera system performed reliably for more than a week (2 h per day) under varying weather conditions. YOLOv5 detected and classified bees with only 775 original training images. Overall detection reliability varied depending on camera perspective, site and weather conditions, but a high average detection precision (78%) was achieved, which was confirmed by a human observer (80% of algorithm-based detections confirmed). The customized camera system mitigates several disadvantages of commercial camera traps by using interchangeable components and incorporates all major requirements a researcher has for working in the field including moderate costs, easy assembly and an external energy source. We provide detailed user guides to bridge the gap between ecology, computer science and engineering.

AB - Automated cameras (including camera traps) are an established observation tool, allowing, for example the identification of behaviours and monitoring without harming organisms. However, limitations including imperfect detection, insufficient data storage and power supply restrict the use of camera traps, making inexpensive and customizable solutions desirable. We describe a camera system and evaluation toolset based on Raspberry Pi computers and YOLOv5 that can overcome those shortcomings with its modular properties. We facilitate the set-up and modification for researchers via detailed step-by-step guides. A customized camera system prototype was constructed to monitor fast-moving organisms on a continuous schedule. For testing and benchmarking, we recorded mason bees (Osmia cornuta) approaching nesting aids on 20 sites. To efficiently process the extensive video material, we developed an evaluation toolset utilizing the convolutional neural network YOLOv5 to detect bees in the videos. In the field test, the camera system performed reliably for more than a week (2 h per day) under varying weather conditions. YOLOv5 detected and classified bees with only 775 original training images. Overall detection reliability varied depending on camera perspective, site and weather conditions, but a high average detection precision (78%) was achieved, which was confirmed by a human observer (80% of algorithm-based detections confirmed). The customized camera system mitigates several disadvantages of commercial camera traps by using interchangeable components and incorporates all major requirements a researcher has for working in the field including moderate costs, easy assembly and an external energy source. We provide detailed user guides to bridge the gap between ecology, computer science and engineering.

KW - artificial intelligence

KW - convolutional neural network

KW - Hymenoptera

KW - low-budget

KW - object classification

KW - Raspberry Pi

KW - videos

KW - YOLOv5

KW - Biology

KW - Ecosystems Research

UR - http://www.scopus.com/inward/record.url?scp=85190311160&partnerID=8YFLogxK

U2 - 10.1111/2041-210X.14322

DO - 10.1111/2041-210X.14322

M3 - Journal articles

AN - SCOPUS:85190311160

VL - 15

SP - 836

EP - 842

JO - Methods in Ecology and Evolution

JF - Methods in Ecology and Evolution

SN - 2041-210X

IS - 5

ER -

DOI

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