Validating ATLAS: A regional-scale high-throughput tracking system

被引:27
作者
Beardsworth, Christine E. [1 ]
Gobbens, Evy [1 ]
van Maarseveen, Frank [1 ]
Denissen, Bas [1 ]
Dekinga, Anne [1 ]
Nathan, Ran [2 ]
Toledo, Sivan [3 ]
Bijleveld, Allert I. [1 ]
机构
[1] NIOZ Royal Netherlands Inst Sea Res, Dept Coastal Syst, Texel, Netherlands
[2] Hebrew Univ Jerusalem, Alexander Silberman Inst, Movement Ecol Lab, Jerusalem, Israel
[3] Tel Aviv Univ, Blavatnik Sch Comp Sci, Tel Aviv, Israel
来源
METHODS IN ECOLOGY AND EVOLUTION | 2022年 / 13卷 / 09期
基金
荷兰研究理事会;
关键词
accuracy; animal tracking; ATLAS; movement ecology; positioning error; radio tags; reverse-GPS; telemetry; GLOBAL POSITIONING SYSTEM; MOVEMENT; LOCATION; ECOLOGY; HABITAT;
D O I
10.1111/2041-210X.13913
中图分类号
Q14 [生态学(生物生态学)];
学科分类号
071012 ; 0713 ;
摘要
1. Fine-scale tracking of animal movement is important to understand the proximate mechanisms of animal behaviour. The reverse-GPS system-ATLAS-uses inexpensive (similar to(sic)25), lightweight (<1 g) and low-power (similar to 0.4 mJ/transmission) tags. Six systems are now operational worldwide and have successfully tracked over 50 species in various landscape types. The growing use of ATLAS to track animal movement motivates further refinement of best-practice application and an assessment of its accuracy. 2. Here, we test the accuracy and precision of the largest ATLAS system, located in the Dutch Wadden Sea, using concurrent GPS measurements as a reference. This large-scale ATLAS system consists of 26 receivers and covers 1,326 km(2) of intertidal region, with almost no physical obstacles for radio signals, providing a useful baseline for other systems. We compared ATLAS and GPS location estimates for a route (mobile test) and 16 fixed locations (stationary test) on the Griend mudflat. Precision was estimated using standard deviation during the stationary tests. We also give examples of tracked red knots Calidris canutus islandica to illustrate the use of the system in tracking small shorebirds (similar to 120 g). 3. ATLAS-derived location estimates differed from GPS by a median of 4.2 m (stationary test) and 5.7 m (mobile test). Signals that were collected by more receiver stations were more accurate, although even three-receiver localisations were comparable with GPS localisations (similar to 10 m difference). Receivers that detected 90% of the 1 Hz transmissions from our test tag were within 5 km of their furthest detection but height of both receiver and tag seemed to influence detection distance. The test tag (1 Hz) had a fix rate of >90% at 15 of 16 stationary sites. Tags on birds (1/6 Hz) on the Griend mudflat had a mean fix rate of 51%, yielding an average sampling rate of 0.085 Hz. Fix rates were higher in more central parts of the receiver array. 4. ATLAS provides accurate, regional-scale tracking with which hundreds of relatively small-bodied species can be tracked simultaneously for long periods of time. Future ATLAS users should consider the height of receivers, their spatial arrangement, density and the movement modes of their study species (e.g. ground-dwelling or flying).`
引用
收藏
页码:1990 / 2004
页数:15
相关论文
共 43 条
[11]   Animal ecology meets GPS-based radiotelemetry: a perfect storm of opportunities and challenges [J].
Cagnacci, Francesca ;
Boitani, Luigi ;
Powell, Roger A. ;
Boyce, Mark S. .
PHILOSOPHICAL TRANSACTIONS OF THE ROYAL SOCIETY B-BIOLOGICAL SCIENCES, 2010, 365 (1550) :2157-2162
[12]   AUTOMATIC RADIO-TRACKING SYSTEM FOR MONITORING ANIMAL MOVEMENTS [J].
COCHRAN, WW ;
WARNER, DW ;
TESTER, JR ;
KUECHLE, VB .
BIOSCIENCE, 1965, 15 (02) :98-&
[13]   A comparative analysis of the behavioral response to fishing boats in two albatross species [J].
Collet, Julien ;
Patrick, Samantha C. ;
Weimerskirch, Henri .
BEHAVIORAL ECOLOGY, 2017, 28 (05) :1337-1347
[14]   Movement ecology and sex are linked to barn owl microbial community composition [J].
Corl, Ammon ;
Charter, Motti ;
Rozman, Gabe ;
Toledo, Sivan ;
Turjeman, Sondra ;
Kamath, Pauline L. ;
Getz, Wayne M. ;
Nathan, Ran ;
Bowie, Rauri C. K. .
MOLECULAR ECOLOGY, 2020, 29 (07) :1358-1371
[15]   Inferring an animal's environment through biologging: quantifying the environmental influence on animal movement [J].
Eikelboom, J. A. J. ;
de Knegt, H. J. ;
Klaver, M. ;
van Langevelde, F. ;
van der Wal, T. ;
Prins, H. H. T. .
MOVEMENT ECOLOGY, 2020, 8 (01)
[16]   Performance and Accuracy of Lightweight and Low-Cost GPS Data Loggers According to Antenna Positions, Fix Intervals, Habitats and Animal Movements [J].
Forin-Wiart, Marie-Amelie ;
Hubert, Pauline ;
Sirguey, Pascal ;
Poulle, Marie-Lazarine .
PLOS ONE, 2015, 10 (06)
[17]   Extreme endurance flights by landbirds crossing the Pacific Ocean: ecological corridor rather than barrier? [J].
Gill, Robert E., Jr. ;
Tibbitts, T. Lee ;
Douglas, David C. ;
Handel, Colleen M. ;
Mulcahy, Daniel M. ;
Gottschalck, Jon C. ;
Warnock, Nils ;
McCaffery, Brian J. ;
Battley, Philip F. ;
Piersma, Theunis .
PROCEEDINGS OF THE ROYAL SOCIETY B-BIOLOGICAL SCIENCES, 2009, 276 (1656) :447-458
[18]   A guide to pre-processing high-throughput animal tracking data [J].
Gupte, Pratik Rajan ;
Beardsworth, Christine E. ;
Spiegel, Orr ;
Lourie, Emmanuel ;
Toledo, Sivan ;
Nathan, Ran ;
Bijleveld, Allert, I .
JOURNAL OF ANIMAL ECOLOGY, 2022, 91 (02) :287-307
[19]   Personality predicts foraging site fidelity and trip repeatability in a marine predator [J].
Harris, Stephanie M. ;
Descamps, Sebastien ;
Sneddon, Lynne U. ;
Bertrand, Philip ;
Chastel, Olivier ;
Patrick, Samantha C. .
JOURNAL OF ANIMAL ECOLOGY, 2020, 89 (01) :68-79
[20]   Autonomous underwater videography and tracking of basking sharks [J].
Hawkes, L. A. ;
Exeter, O. ;
Henderson, S. M. ;
Kerry, C. ;
Kukulya, A. ;
Rudd, J. ;
Whelan, S. ;
Yoder, N. ;
Witt, M. J. .
ANIMAL BIOTELEMETRY, 2020, 8 (01)