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Identifying Signals of Memory from Observations of Animal Movements

Overview
Journal Mov Ecol
Publisher Biomed Central
Date 2024 Nov 19
PMID 39558435
Authors
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Abstract

Incorporating memory (i.e., some notion of familiarity or experience with the landscape) into models of animal movement is a rising challenge in the field of movement ecology. The recent proliferation of new methods offers new opportunities to understand how memory influences movement. However, there are no clear guidelines for practitioners wishing to parameterize the effects of memory on moving animals. We review approaches for incorporating memory into step-selection analyses (SSAs), a frequently used movement modeling framework. Memory-informed SSAs can be constructed by including spatial-temporal covariates (or maps) that define some aspect of familiarity (e.g., whether, how often, or how long ago the animal visited different spatial locations) derived from long-term telemetry data. We demonstrate how various familiarity covariates can be included in SSAs using a series of coded examples in which we fit models to wildlife tracking data from a wide range of taxa. We discuss how these different approaches can be used to address questions related to whether and how animals use information from past experiences to inform their future movements. We also highlight challenges and decisions that the user must make when applying these methods to their tracking data. By reviewing different approaches and providing code templates for their implementation, we hope to inspire practitioners to investigate further the importance of memory in animal movements using wildlife tracking data.

Citing Articles

How Can Overlooking Social Interactions, Space Familiarity or Other "Invisible Landscapes" Shaping Animal Movement Bias Habitat Selection Estimations and Species Distribution Predictions?.

Dejeante R, Lemaire-Patin R, Chamaille-Jammes S Ecol Evol. 2025; 15(1):e70782.

PMID: 39781261 PMC: 11707625. DOI: 10.1002/ece3.70782.


Methods for implementing integrated step-selection functions with incomplete data.

Hofmann D, Cozzi G, Fieberg J Mov Ecol. 2024; 12(1):37.

PMID: 38725084 PMC: 11081933. DOI: 10.1186/s40462-024-00476-8.

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