Summary: This protocol presents a workflow for detecting differences in kinematics between experimental conditions. It is tailored for short-tailed opossums but can be applied to any species capable of completing the ladder rung task. There are four phases of this protocol: (1) data collection, (2) pose tracking, (3) analysis of single trials, and (4) cross-condition comparisons. This pipeline implements aspects of machine learning and signal processing, allowing for rapid data analysis that provides insight into how animals perform this task.For complete details on the use and execution of this protocol, please refer to Englund et al. (2020)
Background: Animals respond to environmental variation by changing their movement in a multifaceted ...
The increasing number of possibilities to monitor both physical and mental health in animals comes w...
Movement abnormalities are important symptoms in clinical neurology. Neurological diseases such as P...
This protocol presents a workflow for detecting differences in kinematics between experimental condi...
We present a methodology for distinguishing between three types of animal movement behavior (foragin...
Background: Qualitative and quantitative measurements of motor performance are essential for charact...
<p>(A–D, F–G) Boxplots represent the median as the middle line, with the lower and upper edges of th...
Abstract Collecting quantitative information on animal behaviours is difficult, especially from cryp...
Abstract Background Animals exhibit astonishingly complex behaviors. Studying the subtle features of...
Primate locomotion is an interesting area of study due to primates’ variability in how they move. In...
Data from animal‐borne inertial sensors are widely used to investigate several aspects of an animal'...
Quantitative descriptions of animal behavior are essential to study the neural substrates of cogniti...
Tracking animal movements such as walking is an essential task for understanding how and why animals...
Understanding how the brain generates behavior is a core goal of neuroscience. The need for tools to...
The locomotor characteristics of morphologically conservative New World marsupials (Didelphidae and ...
Background: Animals respond to environmental variation by changing their movement in a multifaceted ...
The increasing number of possibilities to monitor both physical and mental health in animals comes w...
Movement abnormalities are important symptoms in clinical neurology. Neurological diseases such as P...
This protocol presents a workflow for detecting differences in kinematics between experimental condi...
We present a methodology for distinguishing between three types of animal movement behavior (foragin...
Background: Qualitative and quantitative measurements of motor performance are essential for charact...
<p>(A–D, F–G) Boxplots represent the median as the middle line, with the lower and upper edges of th...
Abstract Collecting quantitative information on animal behaviours is difficult, especially from cryp...
Abstract Background Animals exhibit astonishingly complex behaviors. Studying the subtle features of...
Primate locomotion is an interesting area of study due to primates’ variability in how they move. In...
Data from animal‐borne inertial sensors are widely used to investigate several aspects of an animal'...
Quantitative descriptions of animal behavior are essential to study the neural substrates of cogniti...
Tracking animal movements such as walking is an essential task for understanding how and why animals...
Understanding how the brain generates behavior is a core goal of neuroscience. The need for tools to...
The locomotor characteristics of morphologically conservative New World marsupials (Didelphidae and ...
Background: Animals respond to environmental variation by changing their movement in a multifaceted ...
The increasing number of possibilities to monitor both physical and mental health in animals comes w...
Movement abnormalities are important symptoms in clinical neurology. Neurological diseases such as P...