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  1. An abundance of white-tailed deer (Odocoileus virginianus) in suburban communities can lead to problems such as increased deer-vehicle collisions (DVCs), tick-borne illnesses, and forest degradation. Deer populat...

    Authors: Vickie DeNicola, Stefano Mezzini, Petar Bursać, Pranav Minasandra and Francesca Cagnacci
    Citation: Movement Ecology 2025 13:34
  2. Climate change is impacting the distribution and movement of mobile marine organisms globally. Statistical species distribution models are commonly used to explain past patterns and anticipate future shifts. H...

    Authors: Barbara Muhling, Stephanie Snyder, Elliott L. Hazen, Rebecca Whitlock, Jong-Yeon Park, Charles A. Stock and Barbara A. Block
    Citation: Movement Ecology 2025 13:33
  3. Juvenile passerines are expected to have lower migration performance than adults due to their inexperience with long-distance flights and morphological limitations, such as shorter wing length. From 2016 to 20...

    Authors: Brendan P. Boyd, Sue M. Hayes, Anna Agazzi Migotto and Bridget J. M. Stutchbury
    Citation: Movement Ecology 2025 13:32
  4. Foraging rates directly influence animals’ energetic intake and expenditure and are thus linked to body condition and the ability to survive and reproduce. Further, understanding the underlying processes drivi...

    Authors: Milaja Nykänen, Marja Niemi, Vincent Biard, Matt I. D. Carter, Enrico Pirotta and Mervi Kunnasranta
    Citation: Movement Ecology 2025 13:31
  5. Animals with key ecological roles, such as seed-dispersing fruit bats, rely to varying degrees on habitat structure to indicate the locations of resources and risks.

    Authors: Nicholas J. Russo, Jean Michel Takuo, Valorian Tegebong, Matthew LeBreton, Morgan Dean, António Ferraz, Nicolas Barbier, Martin Wikelski, Elsa M. Ordway, Sassan Saatchi and Thomas B. Smith
    Citation: Movement Ecology 2025 13:30
  6. Beaked whale response to Navy sonars is a global concern due to past stranding events coinciding with training activity. Often, controlled exposure experiments involve tagging cetaceans with short-term, high-r...

    Authors: E. Elizabeth Henderson, Michaela A. Kratofil, Robin W. Baird, Cameron R. Martin, Annette E. Harnish, Gabriela C. Alongi, Steve W. Martin and Brandon L. Southall
    Citation: Movement Ecology 2025 13:29
  7. Current research on livestock movement ecology focuses on quantifying the factors that trigger alterations in movement behavior and understanding hidden mechanisms. Modern tracking technologies and robust stat...

    Authors: Hua Cheng, Kasper Johansen, Baocheng Jin, Guojun Sun and Matthew F. McCabe
    Citation: Movement Ecology 2025 13:28
  8. Understanding species-habitat associations is fundamental to ecological sciences and for species conservation. Consequently, various statistical approaches have been designed to infer species-habitat associati...

    Authors: Katie R. N. Florko, Ron R. Togunov, Rowenna Gryba, Evan Sidrow, Steven H. Ferguson, David J. Yurkowski and Marie Auger-Méthé
    Citation: Movement Ecology 2025 13:27
  9. Understanding the abiotic and biotic drivers of species distribution is critical for climate-informed ecosystem management. We aimed to understand habitat selection of northern fur seals in the eastern Bering ...

    Authors: Elizabeth A. McHuron, Elliott L. Hazen, Noel A. Pelland, Kelly A. Kearney, Wei Cheng, Albert J. Hermann, Rolf R. Ream and Jeremy T. Sterling
    Citation: Movement Ecology 2025 13:26
  10. The Chinese mitten crab (Eriocheir sinensis) is a widespread species that is both threatened and commercially valuable in its native range, but considered invasive in various other parts of the world. Being catad...

    Authors: Heleen Keirsebelik, Pieterjan Verhelst, Bram D’hondt and Jonas Schoelynck
    Citation: Movement Ecology 2025 13:25
  11. Limited information exists on the active role of females during mate searching. Theory primarily focuses on male reproductive behaviours, suggesting male distribution follows that of females, while female dist...

    Authors: Vincenzo Penteriani, María del Mar Delgado, Ilpo Kojola, Samuli Heikkinen, Ancuta Fedorca, Pino García-Sánchez, Mihai Fedorca, Slavomír Find’o, Michaela Skuban, Javier Balbontín, Alejandra Zarzo-Arias, Daniele Falcinelli, Andrés Ordiz and Jon E. Swenson
    Citation: Movement Ecology 2025 13:24
  12. Sharing biologging data can facilitate collaborative research and biological conservation by providing maps showing animals’ distribution and movements. It is a critical social mission to preserve not only hor...

    Authors: Katsufumi Sato, Shinichi Watanabe, Takuji Noda, Takuya Koizumi, Ken Yoda, Yuuki Y. Watanabe, Kentaro Q. Sakamoto, Teijiro Isokawa, Makoto A. Yoshida, Kagari Aoki, Akinori Takahashi, Takashi Iwata, Hideaki Nishizawa, Takuya Maekawa, Ryo Kawabe and Yutaka Watanuki
    Citation: Movement Ecology 2025 13:23
  13. The ability to navigate is crucial to the survival of many flying animals. Though relatively much less is known about the navigational abilities of bats versus birds, recent progress has been made in understan...

    Authors: Jessica Meade, John M. Martin, Adam McKeown, Christopher Turbill, Melissa J. Walker, Wayne S. J. Boardman and Justin A. Welbergen
    Citation: Movement Ecology 2025 13:22
  14. Since the 1980s, Pacific Black Brant (Branta bernicla nigricans, hereafter brant) have shifted their winter distribution northward from Mexico to Alaska (approximately 4500 km) with changes in climate. Alongside ...

    Authors: Toshio D. Matsuoka, Vijay P. Patil, Jerry W. Hupp, Alan G. Leach, John A. Reed, James S. Sedinger and David H. Ward
    Citation: Movement Ecology 2025 13:21
  15. From megafauna to amoebas, the amount of space heterotrophic organisms use is thought to be tightly linked to the availability of resources within their habitats, such that organisms living in productive habit...

    Authors: Stefano Mezzini, Christen H. Fleming, E. Patrícia Medici and Michael J. Noonan
    Citation: Movement Ecology 2025 13:20
  16. An animal’s movement reflects behavioral decisions made to address ecological needs; specifically, that movement will become less directional in regions with high prey availability, indicating foraging behavio...

    Authors: Ladd M. Irvine, Barbara A. Lagerquist, Gregory S. Schorr, Erin A. Falcone, Bruce R. Mate and Daniel M. Palacios
    Citation: Movement Ecology 2025 13:19
  17. Variation in somatic growth plays a critical role in determining an individual’s body size and the expression of its life history. Understanding the environmental drivers of growth variation in mobile organism...

    Authors: Joshua S. Barrow, Jian D. L. Yen, John D. Koehn, Brenton Zampatti, Ben Fanson, Jason D. Thiem, Zeb Tonkin, Wayne M. Koster, Gavin L. Butler, Arron Strawbridge, Steven G. Brooks, Ryan Woods and John R. Morrongiello
    Citation: Movement Ecology 2025 13:18
  18. Freshwater megafishes are among some of the most commercially and ecologically important aquatic organisms yet are disproportionately threatened with range and population reduction. Anthropogenic alterations o...

    Authors: Hayden C. Roberts, Florian J. Kappen, Matthew R. Acre, Daniel J. Daugherty, Nathan G. Smith and Joshuah S. Perkin
    Citation: Movement Ecology 2025 13:15
  19. Annual-cycle movements of wildlife are driven by a combination of intrinsic and extrinsic factors. In urban systems, management strategies to reduce human-wildlife interactions could also alter wildlife moveme...

    Authors: Juliet S. Lamb and Thierry Boulinier
    Citation: Movement Ecology 2025 13:14
  20. In highly constrained ecosystems such as in the Arctic, animals must constantly adjust their movements to cope with the highly versatile environmental conditions. However, to date most studies have focused on ...

    Authors: Laura Bonnefond, David Pinaud, Loïc Bollache, Niels Martin Schmidt, Johannes Lang, Lars Holst Hansen, Benoît Sittler, Jérôme Moreau and Olivier Gilg
    Citation: Movement Ecology 2025 13:13
  21. Models of utilization distribution in the form of partial differential equations have long contributed to our understanding of organismal space use patterns. In studies of infectious diseases, they are also be...

    Authors: Yun Tao, Valeria Giunta, Luca Börger and Mark Q. Wilber
    Citation: Movement Ecology 2025 13:12
  22. Despite decades of epidemiological theory making relatively simple assumptions about host movements, it is increasingly clear that non-random movements drastically affect disease transmission. To better predic...

    Authors: Juan S. Vargas Soto, Justin R. Kosiewska, Dan Grove, Dailee Metts, Lisa I. Muller and Mark Q. Wilber
    Citation: Movement Ecology 2025 13:11
  23. Access to critical resources, including food, water, or shelter, significantly determines individual fitness. As these resources are limited in most habitats, animals may employ strategies of landscape partiti...

    Authors: Lisa Ohrndorf, Roger Mundry, Jörg Beckmann, Julia Fischer and Dietmar Zinner
    Citation: Movement Ecology 2025 13:9
  24. The degree to which avian migrants revisit the same sites to replicate routes from previous years has received more and more attention as the possibilities of tracking small to medium-size birds over multiple ...

    Authors: Gabriel Norevik, Susanne Åkesson and Anders Hedenström
    Citation: Movement Ecology 2025 13:8
  25. Species ranges are shaped by a variety of ecological and environmental factors that are inherently dynamic, fluctuating in response to climatic, biotic, and anthropogenic influences. Dispersal plays a key role...

    Authors: M. Soledad Vazquez, Ramiro Ripa, Alberto Scorolli and Sergio Zalba
    Citation: Movement Ecology 2025 13:7
  26. For many aquatic taxa, juvenile dispersal from spawning locations to rearing habitats is a critical process influencing individual fitness and population dynamics. However, our understanding of dispersal patte...

    Authors: Matthew J. Kaylor, Lindsy R. Ciepiela, Melody Feden, Joseph T. Lemanski, Casey Justice, Benjamin A. Staton, Jonathan B. Armstrong, Stefan Kelly, Shawn R. Narum, Ian A. Tattam and Seth M. White
    Citation: Movement Ecology 2025 13:6
  27. Temporal and spatial predictability of food resources are critical to the foraging efficiency of central place foragers. While site fidelity is often assessed in this context, route fidelity, or the repeated u...

    Authors: Madeleine Foley, Kimberly A. Lato, Matthew Fuirst, Richard R. Veit, Robert M. Cerrato and Lesley H. Thorne
    Citation: Movement Ecology 2025 13:5
  28. Many animals must adapt their movements to different conditions encountered during different life phases, such as when exploring extraterritorial areas for dispersal, foraging or breeding. To better understand...

    Authors: Felicitas Oehler, Robert Hagen, Klaus Hackländer, Zea Walton, Kumar Ashish and Janosch Arnold
    Citation: Movement Ecology 2025 13:4
  29. Many species are exhibiting range shifts associated with anthropogenic change. For migratory species, colonisation of new areas can require novel migratory programmes that facilitate navigation between indepen...

    Authors: Stephen H. Vickers, Timothy D. Meehan, Nicole L. Michel, Aldina M. A. Franco and James J. Gilroy
    Citation: Movement Ecology 2025 13:3
  30. Grey mullets (family Mugilidae) are widespread across coastal, brackish, and freshwater habitats, and have supported fisheries for millennia. Despite their global distribution and commercial value, little is know...

    Authors: Jena E. Edwards, Anthonie D. Buijse, Hendrik V. Winter and Allert I. Bijleveld
    Citation: Movement Ecology 2025 13:2
  31. Globally, temperate lakes are experiencing increases in surface water temperatures, extended periods of summer stratification, and decreases of both surface and deep water dissolved oxygen (DO). The distributi...

    Authors: J. L. Brooks, E. J. I. Lédée, S. M. Larocque, S. J. Cooke, E. Brown and J. D. Midwood
    Citation: Movement Ecology 2025 13:1
  32. The distribution of hosts and parasitoids across patches is a key factor determining the dynamics of host-parasitoid populations. To connect behavioral rules with population dynamics, it is essential to compre...

    Authors: Toshinori Okuyama
    Citation: Movement Ecology 2024 12:83
  33. Migratory bats perform seasonal movements between their summer and winter areas. When crossing ecological barriers, like the open sea, they are exposed to an increased mortality risk due to energetically deman...

    Authors: Sander Lagerveld, Pepijn de Vries, Jane Harris, Sue Parsons, Elisabeth Debusschere, Ommo Hüppop, Vera Brust and Heiko Schmaljohann
    Citation: Movement Ecology 2024 12:81
  34. The habitat use of wild ungulates is determined by forage availability, but also the avoidance of predation and human disturbance. They should apply foraging strategies that provide the most energy at the lowe...

    Authors: Thomas Rempfler, Christian Rossi, Jan Schweizer, Wibke Peters, Claudio Signer, Flurin Filli, Hannes Jenny, Klaus Hackländer, Sven Buchmann and Pia Anderwald
    Citation: Movement Ecology 2024 12:80
  35. Population growth and management in cervid species is dependent on reproductive ecology and factors influencing juvenile survival. Aspects of the female’s movement behavior likely affect juvenile survival and ...

    Authors: Angela M. Holland, Jacob M. Haus, Justin R. Dion, Joseph E. Rogerson and Jacob L. Bowman
    Citation: Movement Ecology 2024 12:79
  36. Animal-borne sensors (‘bio-loggers’) can record a suite of kinematic and environmental data, which are used to elucidate animal ecophysiology and improve conservation efforts. Machine learning techniques are u...

    Authors: Benjamin Hoffman, Maddie Cusimano, Vittorio Baglione, Daniela Canestrari, Damien Chevallier, Dominic L. DeSantis, Lorène Jeantet, Monique A. Ladds, Takuya Maekawa, Vicente Mata-Silva, Víctor Moreno-González, Anthony M. Pagano, Eva Trapote, Outi Vainio, Antti Vehkaoja, Ken Yoda…
    Citation: Movement Ecology 2024 12:78
  37. Access to salmon resources is vital to coastal brown bear (Ursus arctos) populations. Deciphering patterns of travel allowing coastal brown bears to exploit salmon resources dispersed across the landscape is crit...

    Authors: William B. Leacock, Kurt T. Smith and William W. Deacy
    Citation: Movement Ecology 2024 12:77
  38. With ongoing anthropogenic climate change, there is increasing interest in how organisms are affected by higher temperatures, including how animals respond behaviorally to increasing temperatures. Movement beh...

    Authors: Sarah P. Mesler and Karen E. Mabry
    Citation: Movement Ecology 2024 12:76
  39. Wildfires can have complex effects on wildlife populations. Understanding how post-fire conditions affect the movement ecology of threatened species can assist in better conservation and management, including ...

    Authors: Murraya R. Lane, Kara N. Youngentob, Robert G. Clark, James D. Skewes and Karen J. Marsh
    Citation: Movement Ecology 2024 12:75
  40. Waterbird population and species diversity maintenance are important outcomes of wetland conservation management, but knowledge gaps regarding waterbird movements affect our ability to understand and predict w...

    Authors: Heather M. McGinness, Luke R. Lloyd-Jones, Freya Robinson, Art Langston, Louis G. O’Neill, Shoshana Rapley, Micha V. Jackson, Jessica Hodgson, Melissa Piper, Micah Davies, John M. Martin, Richard Kingsford, Kate Brandis, Veronica Doerr and Ralph Mac Nally
    Citation: Movement Ecology 2024 12:74
  41. Parental care is indispensable for the survival and development of dependent offspring, often requiring a delicate balance of time and energy allocation towards offspring by parents. Among ungulates employing ...

    Authors: Sophie Baur, Ferdinand P. Stehr, A. J. Mark Hewison, Nicolas Morellet, Nathan Ranc, Andreas König, Annette Menzel and Wibke Peters
    Citation: Movement Ecology 2024 12:73
  42. 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 m...

    Authors: Dongmin Kim, Peter R. Thompson, David W. Wolfson, Jerod A. Merkle, L. G. R. Oliveira-Santos, James D. Forester, Tal Avgar, Mark A. Lewis and John Fieberg
    Citation: Movement Ecology 2024 12:72
  43. Time-synchronised data streams from bio-loggers are becoming increasingly important for analysing and interpreting intricate animal behaviour including split-second decision making, group dynamics, and collect...

    Authors: Timm A. Wild, Georg Wilbs, Dina K. N. Dechmann, Jenna E. Kohles, Nils Linek, Sierra Mattingly, Nina Richter, Spyros Sfenthourakis, Haris Nicolaou, Elena Erotokritou and Martin Wikelski
    Citation: Movement Ecology 2024 12:71
  44. Ecological barriers can shape the movement strategies of migratory animals that navigate around or across them, creating migratory divides. Wind plays a large role in facilitating aerial migrations and can tem...

    Authors: Rosalyn E. Bathrick, James A. Johnson, Daniel R. Ruthrauff, Rebekah Snyder, Maria Stager and Nathan R. Senner
    Citation: Movement Ecology 2024 12:70
  45. Habitat selection in animals is a hierarchal process that operates across multiple temporal and spatial scales, adapting to changes in environmental conditions, human disturbances, and predation risks. Despite...

    Authors: Tomasz Borowik, Rafał Kowalczyk, Mirosław Ratkiewicz, Weronika Maślanko, Norbert Duda and Michał Żmihorski
    Citation: Movement Ecology 2024 12:69
  46. Anthropogenic activities occurring throughout the Sonoran Desert are replacing and fragmenting habitat and reducing landscape connectivity for the Sonoran desert tortoise (Gopherus morafkai). Understanding how th...

    Authors: Sean Sutor, Nancy E. McIntyre and Kerry L. Griffis-Kyle
    Citation: Movement Ecology 2024 12:68