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Home / Equine Research Bank / PLoS One / Testing VHF/GPS collar design and safety in the study of fre...
PloS one2014; 9(9); e103189; doi: 10.1371/journal.pone.0103189

Testing VHF/GPS collar design and safety in the study of free-roaming horses.

Abstract: Effective and safe monitoring techniques are needed by U.S. land managers to understand free-roaming horse behavior and habitat use and to aid in making informed management decisions. Global positioning system (GPS) and very high frequency (VHF) radio collars can be used to provide high spatial and temporal resolution information for detecting free-roaming horse movement. GPS and VHF collars are a common tool used in wildlife management, but have rarely been used for free-roaming horse research and monitoring in the United States. The purpose of this study was to evaluate the design, safety, and detachment device on GPS/VHF collars used to collect free-roaming horse location and movement data. Between 2009 and 2010, 28 domestic and feral horses were marked with commercial and custom designed VHF/GPS collars. Individual horses were evaluated for damage caused by the collar placement, and following initial observations, collar design was modified to reduce the potential for injury. After collar modifications, which included the addition of collar length adjustments to both sides of the collar allowing for better alignment of collar and neck shapes, adding foam padding to the custom collars to replicate the commercial collar foam padding, and repositioning the detachment device to reduce wear along the jowl, we observed little to no evidence of collar wear on horses. Neither custom-built nor commercial collars caused injury to study horses, however, most of the custom-built collars failed to collect data. During the evaluation of collar detachment devices, we had an 89% success rate of collar devices detaching correctly. This study showed that free-roaming horses can be safely marked with GPS and/or VHF collars with minimal risk of injury, and that these collars can be a useful tool for monitoring horses without creating a risk to horse health and wellness.
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Publication Date: 2014-09-08 PubMed ID: 25198704PubMed Central: PMC4157739DOI: 10.1371/journal.pone.0103189Google Scholar: Lookup
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  • Journal Article
  • Research Support
  • Non-U.S. Gov't
  • Research Support
  • U.S. Gov't
  • Non-P.H.S.

Summary

This research summary has been generated with artificial intelligence and may contain errors and omissions. Refer to the original study to confirm details provided. Submit correction.

The study chronicles the use and effectiveness of custom and commercial VHF/GPS collars on monitoring free-roaming horse movements. It also discusses the necessary modifications made to ensure the collar’s safety and efficiency in collecting data.

Study Overview

  • The research focused on reliable and efficient ways for U.S. land managers to understand the behavior and habitat use of free-roaming horses.
  • Global positioning systems (GPS) and very high frequency (VHF) radio collars were analyzed as potential tools for providing high spatial and temporal resolution information in order to detect the movement of free-roaming horses.
  • The primary purpose of the research was to assess the design, safety, and the detachment device on VHF/GPS collars employed to collect location and movement data of free-roaming horses.

Methodology

  • During the period of 2009 to 2010, 28 domestic and feral horses were marked with either a commercial or custom designed VHF/GPS collar.
  • The effect of the collar placement on horses was estimated by evaluating each individual horse for collar-induced damage.
  • Subsequent collar designs were adjusted based on initial observations to reduce potential for injury. These adjustments included modifying collar length on both sides for better alignment and fit, adding foam padding to match commercial collar padding, and relocating the detachment device to curtail wear along the jowl.

Findings

  • It was observed that there was little to no evidence of collar wear on horses after the changes had been implemented in the collar design.
  • Neither the custom-built nor commercial collars caused injury to the study horses. However, most of the custom-built collars failed to collect data effectively.
  • The collar detachment devices showed an 89% success rate of detaching correctly during evaluation.

Conclusion

  • Through the results obtained from this study, it was concluded that free-roaming horses can be safely tagged with GPS and/or VHF collars without the threat of potentially causing harm.
  • Moreover, these collars can act as a useful tool for monitoring horse movements without compromising horse health and well-being.

Cite This Article

APA
Collins GH, Petersen SL, Carr CA, Pielstick L. (2014). Testing VHF/GPS collar design and safety in the study of free-roaming horses. PLoS One, 9(9), e103189. https://doi.org/10.1371/journal.pone.0103189

Publication

PloS one
ISSN: 1932-6203
NlmUniqueID: 101285081
Country: United States
Language: English
Volume: 9
Issue: 9
Pages: e103189
PII: e103189

Researcher Affiliations

Collins, Gail H
  • U. S. Fish and Wildlife Service, Sheldon-Hart Mountain National Wildlife Refuge Complex, Lakeview, Oregon, United States of America.
Petersen, Steven L
  • Department of Plant and Wildlife Services, Brigham Young University, Provo, Utah, United States of America.
Carr, Craig A
  • Department of Animal and Range Sciences, Montana State University, Bozeman, Montana, United States of America.
Pielstick, Leon
  • Doctor of Veterinary Medicine, Burns, Oregon, United States of America.

MeSH Terms

  • Animals
  • Geographic Information Systems / instrumentation
  • Horses
  • Wireless Technology / instrumentation

Conflict of Interest Statement

The authors have declared that no competing interests exist.

References

This article includes 39 references
  1. Mech LD, Barber SM. A critique of wildlife radio-tracking and its use in national parks: a report to the U.S. National Park Service.. 2002.
  2. von Hünerbein K, Hamann HJ, Rüter E, Wiltschko W. A GPS-based system for recording the flight paths of birds.. Naturwissenschaften 2000 Jun;87(6):278-9.
    pubmed: 10929293doi: 10.1007/s001140050721google scholar: lookup
  3. Heard DC, Ciarniello LM, Seip DR. Grizzly bear behavior and global positioning system collar fix rates.. J Wildlife Manage 2010 72: 596–602.
  4. Krausman PR, Bleich VC, Cain III JW, Setphenson TR, DeYoung PW. Neck lesions in ungulates from collars incorporating satellite technology.. Wildlife Soc Bul 2004 32: 987–991.
  5. Remple RS, Rogers AR, Abraham KF. Performance of a GPS animal location system under boreal forest canopy.. J Wildlife Manage 1995 59: 543–551.
  6. Moen R, Pastor J, Cohen Y, Schwartz CC. Effects of moose movement and habitat use on GPS collar performance.. J Wildlife Manage 1996 60: 659–668.
  7. Rogers AR, Remple RS, Abraham KF. A GPS-based telemetry system.. Wildlife Soc Bul 1996 24: 559–566.
  8. Dussault C, Courtoise R, Ouellet JP, Huot J. Evaluation of GPS telemetry collar performance for habitat studies in the boreal forest.. Wildlife Soc Bul 1999 27: 965–972.
  9. Dettki H, Ericsson G, Edenius L. Real-time moose tracking: an internet based mapping application using GPS/GSM- collars in Sweden.. Alces 2004 40: 13–21.
  10. Lenarz MS, Nelson ME, Schrage MW, Edwards AJ. Temperate mediated moose survival in northeastern Minnesota.. J Wildlife Manage 2010 73: 503–510.
  11. Biggs JR, Bennett KD, Frequez PR. Relationship between home range characteristics and the probability of obtaining successful global positioning system (GPS) collar positions for elk in New Mexico.. West North Am Natur 2001 61: 213–222.
  12. Hebblewhite M, Merrill EH. Trade-offs between predation risk and forage differ between migrant strategies in a migratory ungulate.. Ecology 2009 Dec;90(12):3445-54.
    pubmed: 20120812doi: 10.1890/08-2090.1google scholar: lookup
  13. Webb SL, Dzialak MR, Wondzell JJ, Harju SM, Hayden-Wing LD. Survival and cause-specific mortality of female Rocky Mountain elk exposed to human activity.. Pop Ecol 2011 53: 483–493.
  14. Fortin D, Fortin ME, Beyer HL, Duchesne T, Courant S, Dancose K. Group-size-mediated habitat selection and group fusion-fission dynamics of bison under predation risk.. Ecology 2009 Sep;90(9):2480-90.
    pubmed: 19769126doi: 10.1890/08-0345.1google scholar: lookup
  15. Babin JS, Fortin D, Wilmshurst JF, Fortin ME. Energy gains predict the distribution of plains bison across populations and ecosystems.. Ecology 2011 Jan;92(1):240-52.
    pubmed: 21560694doi: 10.1890/10-0252.1google scholar: lookup
  16. Bowman JL, Kochanny CO, Demarias S, Leopold DB. Evaluation of a GPS collar for white-tailed deer.. Wildlife Soc Bul 2000 28: 141–145.
  17. Garrott RA, Bartmann RM, White GC. Comparison of radio-transmitter packages relative to deer fawn mortality.. J Wildlife Manage 1985 49: 758–759.
  18. Sawyer H, Nielson RM, Lindzey F, McDonald LL. Winter habitat selection of mule deer before and during development of a natural gas field.. J Wildlife Manage 2006 70: 396–403.
  19. Hinkes MT, Collins GH, Van Daele LJ, Kovach SD, Aderman AR. Influence of population growth on caribou herd identity, calving ground fidelity, and behavior.. J Wildlife Manage 2005 69: 1147–1162.
  20. Nagy JA, Johnson DL, Larter NC, Campbell MW, Derocher AE, Kelly A, Dumond M, Allaire D, Croft B. Subpopulation structure of caribou (Rangifer tarandus L.) in arctic and subarctic Canada.. Ecol Appl 2011 Sep;21(6):2334-48.
    pubmed: 21939065doi: 10.1890/10-1410.1google scholar: lookup
  21. Turner LW, Udal MC, Larson BT, Shearer SA. Monitoring cattle behavior and pasture use with GPS and GIS.. Canadian J Animal Sci 2000 80: 405–413.
  22. Ungar ED, Henkin Z, Gutman M, Delov A, Genizi A. Inference of animal activity from GPS collar data on free-ranging cattle.. J Range Ecol and Manage 2005 58: 256–266.
  23. Ganskopp D, Bohnert D. Do pasture-scale nutritional patterns affect cattle distribution on rangelands?. J Range Ecol and Manage 2006 59: 189–196.
  24. Johnson DD, Ganskopp DC. GPS collar sampling frequency: effects of measures of resource use.. J Range Ecol and Manage 2008 61: 226–231.
  25. Breck S, Clark PE, Howery L, Johnson DE, Kluever B. A perspective on livestock-wolf interactions on western rangelands.. Rangelands 2012 34: 6–11.
  26. Siniff DB, Tester RJ, McMahon GL. Foaling rate and survival of feral horses in western Nevada.. J Range Manage 1986 39: 296–297.
  27. Kaczensky P, Ganbaatar O, Von Wehrden H, Walzer C. Resource selection by sympatric wild equids in the Mongolian Gobi.. J Appl Eco 2008 45: 1762–1769.
  28. Hampson BA, Morton JM, Mills PC, Trotter MG, Lamb DW, Pollitt CC. Monitoring distances travelled by horses using GPS tracking collars.. Aust Vet J 2010 May;88(5):176-81.
    pubmed: 20529024doi: 10.1111/j.1751-0813.2010.00564.xgoogle scholar: lookup
  29. Hampson BA, de Laat MA, Mills PC, Pollitt CC. Distances travelled by feral horses in 'outback' Australia.. Equine Vet J Suppl 2010 Nov;(38):582-6.
    pubmed: 21059064doi: 10.1111/j.2042-3306.2010.00203.xgoogle scholar: lookup
  30. Brooks C, Bonyongo C, Harris S. Effects of global positioning system collar weight on zebra behavior and location error.. J Wildlife Manage 2010 72: 527–534.
  31. Anderson EW, Borman MM, Krueger WC. The ecological provinces of Oregon: a treatise on the basic ecological geography of the state.. 1998.
  32. Clark PE, Johnson DE, Kniep MA, Jermann P, Huttash B. An advanced, low-cost, GPS-based animal tracking system.. J Range Ecol Manage 2006 59: 334–340.
  33. Clark PE, Lee J, Ko K, Nielson RM, Johnson DE. Prescribed fire effects on resource selection by cattle in mesic sagebrush steppe. Part 1: spring grazing.. J Arid Environ 2014 101: 78–80.
  34. Hellgren EC, Carney DW, Garner NP, Vaughan MR. Use of breakaway cotton spacers on radio collars.. Wildlife Soc Bul 1988 16: 216–218.
  35. Dick BL, Findholt SL, Johnson BL. A self-adjusting expandable GPS collar for male elk.. Wildlife Soc Bul 2013 37: 887–892.
  36. Girard TL, Bork EW, Nielsen SE, Alexander MJ. Seasonal variation in habitat selection by free-ranging feral horses within Alberta's forest reserve.. J Range Ecol Manage 2013 66: 428–437.
  37. Carr CA, Petersen SL, Bristow L, Johnson DE, Collins GH. Effect of GPS collar sampling interval on measures of free-roaming horse activity and resource use.. 2012 Abstracts of the 65th annual meeting of the Society for Range Management, Spokane, WA.
  38. Carr CA, Petersen SL, Collins GH, Barstow L, Johnson DE. Using GPS technology to characterize free-roaming horse distribution and movement patterns in southeast Oregon.. 2011 Abstracts of the 18th annual meeting of the Wildlife Society, Waikoloa, HI.
  39. National Academy of Sciences. Using science to improve the BLM wild horse and burro program: a way forward.. 2013.

Citations

This article has been cited 10 times.
  1. Anna C, Martyna P, Marcin S, Dawid W. Habitat use by semi-feral Konik horses on wetlands-three-year GPS study. Environ Monit Assess 2023 Aug 11;195(9):1033.
    doi: 10.1007/s10661-023-11605-ypubmed: 37563498google scholar: lookup
  2. Gnanasekera M, Katupitiya J, Savkin AV, De Silva AHTE. A Range-Based Algorithm for Autonomous Navigation of an Aerial Drone to Approach and Follow a Herd of Cattle. Sensors (Basel) 2021 Oct 29;21(21).
    doi: 10.3390/s21217218pubmed: 34770525google scholar: lookup
  3. Lovász L, Korner-Nievergelt F, Amrhein V. Grazer density and songbird counts in a restored conservation area. PeerJ 2021;9:e10657.
    doi: 10.7717/peerj.10657pubmed: 33505805google scholar: lookup
  4. Stabach JA, Cunningham SA, Connette G, Mota JL, Reed D, Byron M, Songer M, Wacher T, Mertes K, Brown JL, Comizzoli P, Newby J, Monfort S, Leimgruber P. Short-term effects of GPS collars on the activity, behavior, and adrenal response of scimitar-horned oryx (Oryx dammah). PLoS One 2020;15(2):e0221843.
    doi: 10.1371/journal.pone.0221843pubmed: 32045413google scholar: lookup
  5. Robins JG, Husson S, Fahroni A, Singleton I, Nowak MG, Fluch G, Llano Sanchez K, Widya A, Pratje P, Ancrenaz M, Hicks N, Goossens B, Petit T, Saburi R, Walzer C. Implanted Radio Telemetry in Orangutan Reintroduction and Post-release Monitoring and its Application in Other Ape Species. Front Vet Sci 2019;6:111.
    doi: 10.3389/fvets.2019.00111pubmed: 31041315google scholar: lookup
  6. Barthel LMF, Hofer H, Berger A. An easy, flexible solution to attach devices to hedgehogs (Erinaceus europaeus) enables long-term high-resolution studies. Ecol Evol 2019 Jan;9(1):672-679.
    doi: 10.1002/ece3.4794pubmed: 30680147google scholar: lookup
  7. Chodkiewicz A, Prończuk M, Studnicki M. Artificial intelligence tools to assess different levels of activity performed by semi-wild horses in grassland ecosystems. Environ Monit Assess 2025 Jul 16;197(8):922.
    doi: 10.1007/s10661-025-14363-1pubmed: 40665113google scholar: lookup
  8. Marin C, Couderchet L. Unveiling hidden aspects of GPS deployment on wildlife: A multistep and transdisciplinary approach to urban wild boar monitoring. MethodsX 2024 Dec;13:102931.
    doi: 10.1016/j.mex.2024.102931pubmed: 39959889google scholar: lookup
  9. Lovász L, Korner-Nievergelt F, Amrhein V. Natural grazing by horses and cattle promotes bird diversity in a restored European alluvial grassland. PeerJ 2024;12:e17777.
    doi: 10.7717/peerj.17777pubmed: 39040934google scholar: lookup
  10. Schoenecker KA, King SRB, Hennig JD, Cole MJ, Scasta JD, Beck JL. Effects of telemetry collars on two free-roaming feral equid species. PLoS One 2024;19(5):e0303312.
    doi: 10.1371/journal.pone.0303312pubmed: 38814957google scholar: lookup
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