Standard

Small Object Detection for Ornithological Monitoring Tasks. / Obukhova, N.; Motyko, A.; Pozdeev, A.; Savelev, A.; Baranov, P.; Smirnov, K.; Sharivzyanov, D.; Samarin, A.; Kotenko, E.

2025. 240-247 Работа представлена на 38th Conference of Open Innovations Association (FRUCT), Helsinki, Финляндия.

Результаты исследований: Материалы конференцийматериалыРецензирование

Harvard

Obukhova, N, Motyko, A, Pozdeev, A, Savelev, A, Baranov, P, Smirnov, K, Sharivzyanov, D, Samarin, A & Kotenko, E 2025, 'Small Object Detection for Ornithological Monitoring Tasks', Работа представлена на 38th Conference of Open Innovations Association (FRUCT), Helsinki, Финляндия, 5/11/25 - 7/11/25 стр. 240-247. https://doi.org/10.23919/FRUCT67853.2025.11239256

APA

Obukhova, N., Motyko, A., Pozdeev, A., Savelev, A., Baranov, P., Smirnov, K., Sharivzyanov, D., Samarin, A., & Kotenko, E. (2025). Small Object Detection for Ornithological Monitoring Tasks. 240-247. Работа представлена на 38th Conference of Open Innovations Association (FRUCT), Helsinki, Финляндия. https://doi.org/10.23919/FRUCT67853.2025.11239256

Vancouver

Obukhova N, Motyko A, Pozdeev A, Savelev A, Baranov P, Smirnov K и пр.. Small Object Detection for Ornithological Monitoring Tasks. 2025. Работа представлена на 38th Conference of Open Innovations Association (FRUCT), Helsinki, Финляндия. https://doi.org/10.23919/FRUCT67853.2025.11239256

Author

Obukhova, N. ; Motyko, A. ; Pozdeev, A. ; Savelev, A. ; Baranov, P. ; Smirnov, K. ; Sharivzyanov, D. ; Samarin, A. ; Kotenko, E. / Small Object Detection for Ornithological Monitoring Tasks. Работа представлена на 38th Conference of Open Innovations Association (FRUCT), Helsinki, Финляндия.8 стр.

BibTeX

@conference{e7cbdcf32a444b5dbb31aeb8584c6923,
title = "Small Object Detection for Ornithological Monitoring Tasks",
abstract = "Automatic bird detection represents one of the most critical technical challenges in ornithological monitoring systems, which are relevant for scientific wildlife observation, biodiversity assessment, and practical applications in agriculture and environmental management. Modern monitoring systems require high accuracy under real-world imaging conditions; however, automatic detection of birds is complicated by the presence of small and low-contrast objects embedded in complex and highly detailed natural scenes. An additional challenge is the high intra-class variability, which arises from the diversity of bird species, varying viewpoints, and differences in object size, both due to species-specific morphology and varying distances to the camera.This study is dedicated to the development of an effective method for detecting small and low-contrast objects in individual frames of a video stream. The proposed solution is based on a modified SSD-ADSAR architecture enhanced with a dual-stream attention mechanism. On the test dataset, the model achieved mAP@0.5 = 0.876 and mAP@0.5:0.95 = 0.645. The use of synthetically augmented data helped to mitigate the background-type imbalance and improved the model's robustness under complex visual conditions. The practical significance of this work lies in its applicability to real-time ornithological video monitoring systems, as well as to nature conservation, agricultural automation, and scientific ornithological research. The developed method is tailored to typical conditions of ornithological monitoring (such as small, fast-moving objects and cluttered natural backgrounds), and it outperforms existing solutions designed primarily for detecting artificial airborne objects in terms of detection accuracy. {\textcopyright} 2025 FRUCT Oy.",
keywords = "Agriculture, Biodiversity, Conservation, Environmental management, Environmental monitoring, Object detection, Object recognition, Automatic Detection, Bird detection, High-accuracy, Imaging conditions, Low contrast, Monitoring system, Monitoring tasks, Real-world, Small object detection, Technical challenges, Birds",
author = "N. Obukhova and A. Motyko and A. Pozdeev and A. Savelev and P. Baranov and K. Smirnov and D. Sharivzyanov and A. Samarin and E. Kotenko",
note = "Export Date: 23 February 2026; Cited By: 0; Correspondence Address: N. Obukhova; St. Petersburg Electrotechnical University {"}LETI{"}, St. Petersburg, Russian Federation; email: naobukhova@etu.ru; Conference name: 38th Conference of Open Innovations Association, FRUCT 2025; Conference location: Hybrid, Helsinki; Conference date: 2025-11-05 through 2025-11-07; null ; Conference date: 05-11-2025 Through 07-11-2025",
year = "2025",
doi = "10.23919/FRUCT67853.2025.11239256",
language = "Английский",
pages = "240--247",
url = "https://fruct.org/conferences/38/call-for-participation/",

}

RIS

TY - CONF

T1 - Small Object Detection for Ornithological Monitoring Tasks

AU - Obukhova, N.

AU - Motyko, A.

AU - Pozdeev, A.

AU - Savelev, A.

AU - Baranov, P.

AU - Smirnov, K.

AU - Sharivzyanov, D.

AU - Samarin, A.

AU - Kotenko, E.

N1 - Export Date: 23 February 2026; Cited By: 0; Correspondence Address: N. Obukhova; St. Petersburg Electrotechnical University "LETI", St. Petersburg, Russian Federation; email: naobukhova@etu.ru; Conference name: 38th Conference of Open Innovations Association, FRUCT 2025; Conference location: Hybrid, Helsinki; Conference date: 2025-11-05 through 2025-11-07

PY - 2025

Y1 - 2025

N2 - Automatic bird detection represents one of the most critical technical challenges in ornithological monitoring systems, which are relevant for scientific wildlife observation, biodiversity assessment, and practical applications in agriculture and environmental management. Modern monitoring systems require high accuracy under real-world imaging conditions; however, automatic detection of birds is complicated by the presence of small and low-contrast objects embedded in complex and highly detailed natural scenes. An additional challenge is the high intra-class variability, which arises from the diversity of bird species, varying viewpoints, and differences in object size, both due to species-specific morphology and varying distances to the camera.This study is dedicated to the development of an effective method for detecting small and low-contrast objects in individual frames of a video stream. The proposed solution is based on a modified SSD-ADSAR architecture enhanced with a dual-stream attention mechanism. On the test dataset, the model achieved mAP@0.5 = 0.876 and mAP@0.5:0.95 = 0.645. The use of synthetically augmented data helped to mitigate the background-type imbalance and improved the model's robustness under complex visual conditions. The practical significance of this work lies in its applicability to real-time ornithological video monitoring systems, as well as to nature conservation, agricultural automation, and scientific ornithological research. The developed method is tailored to typical conditions of ornithological monitoring (such as small, fast-moving objects and cluttered natural backgrounds), and it outperforms existing solutions designed primarily for detecting artificial airborne objects in terms of detection accuracy. © 2025 FRUCT Oy.

AB - Automatic bird detection represents one of the most critical technical challenges in ornithological monitoring systems, which are relevant for scientific wildlife observation, biodiversity assessment, and practical applications in agriculture and environmental management. Modern monitoring systems require high accuracy under real-world imaging conditions; however, automatic detection of birds is complicated by the presence of small and low-contrast objects embedded in complex and highly detailed natural scenes. An additional challenge is the high intra-class variability, which arises from the diversity of bird species, varying viewpoints, and differences in object size, both due to species-specific morphology and varying distances to the camera.This study is dedicated to the development of an effective method for detecting small and low-contrast objects in individual frames of a video stream. The proposed solution is based on a modified SSD-ADSAR architecture enhanced with a dual-stream attention mechanism. On the test dataset, the model achieved mAP@0.5 = 0.876 and mAP@0.5:0.95 = 0.645. The use of synthetically augmented data helped to mitigate the background-type imbalance and improved the model's robustness under complex visual conditions. The practical significance of this work lies in its applicability to real-time ornithological video monitoring systems, as well as to nature conservation, agricultural automation, and scientific ornithological research. The developed method is tailored to typical conditions of ornithological monitoring (such as small, fast-moving objects and cluttered natural backgrounds), and it outperforms existing solutions designed primarily for detecting artificial airborne objects in terms of detection accuracy. © 2025 FRUCT Oy.

KW - Agriculture

KW - Biodiversity

KW - Conservation

KW - Environmental management

KW - Environmental monitoring

KW - Object detection

KW - Object recognition

KW - Automatic Detection

KW - Bird detection

KW - High-accuracy

KW - Imaging conditions

KW - Low contrast

KW - Monitoring system

KW - Monitoring tasks

KW - Real-world

KW - Small object detection

KW - Technical challenges

KW - Birds

U2 - 10.23919/FRUCT67853.2025.11239256

DO - 10.23919/FRUCT67853.2025.11239256

M3 - материалы

SP - 240

EP - 247

Y2 - 5 November 2025 through 7 November 2025

ER -

ID: 149217999