Establishment of an Infrared-Camera-Based Home-Cage Tracking System Goblotrop

Studying locomotor activity in animal models is crucial for understanding physiological, behavioral, and pathological processes. This study aimed to develop an artificial intelligence-based tracking system called Goblotrop, designed to localize rodents within their laboratory environment. The Goblotrop system uses two infrared cameras to record videos of rodents in their home cages. A neural network analyzes these videos to determine the rodent's position at each time point. By tracking changes in position over time, the system provides detailed insights into rodent behavior, including speed, mobility, and climbing activity. To evaluate the system's reliability, we utilized a starvation-induced hyperactivity model, employed as a female mouse model for anorexia nervosa. This model is characterized by pronounced hyperactivity, typically assessed using electronically monitored running wheels. Both the Goblotrop system and running wheel measurements demonstrated that starvation increases food-anticipatory activity (up to 4 h before food availability) while reducing nocturnal activity. The results from the Goblotrop system and running wheel measurements exhibited remarkable consistency. Thus, the Goblotrop system proves to be a valuable tool for studying locomotor activity and circadian rhythms in different cage areas in animal models. This tool provides potential for various scientific fields, including neuroscience, pharmacology, toxicology, and behavioral research.

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Publication Details

Journal
eNeuro
Published
2025-10-01
DOI
https://doi.org/10.1523/eneuro.0218-25.2025
Primary Topic
Adipose Tissue and Metabolism
Type
article
Field-Weighted Citation Impact
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article

Establishment of an Infrared-Camera-Based Home-Cage Tracking System Goblotrop

Alexander Hawlitschka, Anna Staffeld, Katharina Schuster, Theo Gabloffsky et al.
eNeuro
Adipose Tissue and Metabolism
article

Establishment of an Infrared-Camera-Based Home-Cage Tracking System Goblotrop

Alexander Hawlitschka, Anna Staffeld, Katharina Schuster, Theo Gabloffsky, Linda Frintrop, Ralf Salomon, Annelie Zimmermann
article en

Abstract

Studying locomotor activity in animal models is crucial for understanding physiological, behavioral, and pathological processes. This study aimed to develop an artificial intelligence-based tracking system called Goblotrop, designed to localize rodents within their laboratory environment. The Goblotrop system uses two infrared cameras to record videos of rodents in their home cages. A neural network analyzes these videos to determine the rodent's position at each time point. By tracking changes in position over time, the system provides detailed insights into rodent behavior, including speed, mobility, and climbing activity. To evaluate the system's reliability, we utilized a starvation-induced hyperactivity model, employed as a female mouse model for anorexia nervosa. This model is characterized by pronounced hyperactivity, typically assessed using electronically monitored running wheels. Both the Goblotrop system and running wheel measurements demonstrated that starvation increases food-anticipatory activity (up to 4 h before food availability) while reducing nocturnal activity. The results from the Goblotrop system and running wheel measurements exhibited remarkable consistency. Thus, the Goblotrop system proves to be a valuable tool for studying locomotor activity and circadian rhythms in different cage areas in animal models. This tool provides potential for various scientific fields, including neuroscience, pharmacology, toxicology, and behavioral research.

eNeuroVol. 12(10)
University Medical Center (US), University of Rostock (DE)
Openalex Percentile: Top 65%
Adipose Tissue and Metabolism
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