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8 - Behavior-based management: conservation translocations

from Part III - Behavior-based management: using behavioral knowledge to improve conservation and management efforts

Published online by Cambridge University Press:  05 April 2016

Ben D. Bell
Affiliation:
Victoria University of Wellington, New Zealand
Oded Berger-Tal
Affiliation:
Ben-Gurion University of the Negev, Israel
David Saltz
Affiliation:
Ben-Gurion University of the Negev, Israel
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Summary

INTRODUCTION

The translocation of organisms is defined as human-mediated movement of living organisms from one area, with release in another (IUCN 2012). Translocated animals must go through a process that their evolutionary history has not prepared them for. They are transported from their native range, often boxed and/or sedated and/or blindfolded, placed in a completely unfamiliar landscape and, in the case of captive-bred animals, altogether a completely novel environment. Surviving the translocation process depends to a large extent on the individual's behavior and decision-making during the time following the release. This behavior is a derivative of the species’ evolutionary history, the individual's past experience, and conditions during transfer and at the release site. Most importantly, if the animal is capable of learning (and most translocated animals have at least some learning capabilities), this behavior will change as the animal gains experience in its new environment. This change can be termed “post release behavioral modification” (PRBM; Berger-Tal & Saltz 2014). Barring the case of ecological traps (see Chapter 4), as knowledge accumulates over time, behaviors will be modified accordingly to become more adaptive. Thus, PRBM is expected to increase the future fitness of the translocated animal. The novel environment dictates a need for rapid learning, while minimizing risk (the extent of which is unknown to a newly released animal). The need to learn a novel environment is most probably stressful (Dickens et al. 2010), making the animals susceptible to other types of threat, such as diseases (Harrington et al. 2013) and predators (Griffin et al. 2000). A key goal of the manager is, therefore, to shorten as much as possible the time necessary for the animals to become well acquainted with their new environment and learn to obtain resources while minimizing risk.

“Conservation translocations” are translocations carried out for conservation purposes (IUCN 2012). Such translocations can be categorized according to the area into which the organisms are released. The term “population restoration” embraces any conservation translocation to site within the taxon's indigenous range and comprises two types of releases: (1) Reinforcement – intentional movement and release of an organism into an existing population of conspecifics to enhance the viability of the extant population.

Type
Chapter
Information
Conservation Behavior
Applying Behavioral Ecology to Wildlife Conservation and Management
, pp. 212 - 246
Publisher: Cambridge University Press
Print publication year: 2016

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References

Abbott, R. 2014. Behavioural mechanisms affecting the success of translocations: an investigation using New Zealand's rarest ratite, the rowi. Unpublished Ph.D. Thesis, Victoria University of Wellington, NZ.
Abbott, R., Bell, B. and Nelson, N. 2013. Improving conservation management of New Zealand's rarest kiwi (Apteryx rowi): effects of early rearing experience and optimal release group size. Abstracts of Behaviour 2013: joint meeting of the 33rd International Ethological Conference (IEC) and the Association for the Study of Animal Behaviour (ASAB), 4–8 August, 2013, The Sage, Gateshead, Newcastle, UK.
Abercrombie, M., Hickman, C.J. and Johnson, M.L. 1979. The Penguin Dictionary of Biology. Penguin Books, UK.
Alberts, A.C. 2007. Behavioral considerations of headstarting as a conservation strategy for endangered Caribbean rock iguanas. Applied Animal Behavior Science, 102:380–391.Google Scholar
Anthony, L.L. and Blumstein, D.T. 2000. Integrating behavior into wildlife conservation: the multiple ways that behavior can reduce Ne. Biological Conservation, 95:303–315.Google Scholar
Armstrong, D.P., Castro, I., Alley, J.C., Feenstra, B. and Perrott, J.K. 1999. Mortality and behavior of hihi, an endangered New Zealand honeyeater, in the establishment phase following translocation. Biological Conservation, 89:329–339.Google Scholar
Armstrong, D.P., Castro, I. and Griffiths, R. 2007. Using adaptive management to determine requirements of re-introduced populations: the case of the New Zealand hihi. Journal of Applied Ecology, 44:953–962.Google Scholar
Armstrong, D.P and Wittmer, H.U. 2011. Incorporating Allee effects into reintroduction strategies. Ecological Research, 26:687–695.Google Scholar
Atkinson, I.A.E. and Millener, P.R. 1991. An ornithological glimpse into New Zealand's pre-human past. Acta XX Congressus Internationalis Ornithologici, 2:129–192.Google Scholar
Bailey, A.M. 1956. Birds of Midway and Laysan Islands. Museum Pictorial, 12. Denver: Denver Museum of Natural History.
Balance, A. 2010. Kakapo: Rescued from the Brink of Extinction. Nelson: Craig Potton Publishing.
Ballou, J. D. 1984. Strategies for maintaining genetic diversity in captive populations through reproductive technology. Zoo Biology, 3:311–323.Google Scholar
Bar-David, S., Saltz, D., Dayan, T., Perelberg, A. and Dolev, A. 2005. Demographic models and reality in reintroductions: the Persian fallow deer in Israel. Conservation Biology, 19:131–138.Google Scholar
Bar-David, S., Saltz, D., Dayan, T. and Shkedy, Y. 2008. Using spatially expanding populations as a tool for evaluating landscape planning: the reintroduced Persian fallow deer as a case study. Journal for Nature Conservation, 16:164–174.Google Scholar
Beauchamp, A.J. and Worthy, T.H. 1988. Decline in distribution of the Porphyrio (=Notornis) mantelli: a re-examination. Journal of the Royal Society of New Zealand, 18:103–112.Google Scholar
Bell, B.D. 1991. Recent avifaunal changes and the history of ornithology in New Zealand. Acta XX Congressus Internationalis Ornithologici, 2:193–230.Google Scholar
Bell, B.D. 2010. The threatened Leiopelmatid frogs of New Zealand: natural history integrates with conservation. Herpetological Conservation and Biology, 5:515–528.Google Scholar
Bell, B.D., Bishop, P.J.and Germano, J.M. 2010. Lessons learned from a series of translocations of the archaic Hamilton's frog and Maud Island frog in central New Zealand. pp. 81–87 in Soorae, P. S. (ed.) Global Re-introduction Perspectives: Additional Case-studies from Around the Globe. IUCN/SSC Re-introduction Specialist Group, Abu Dhabi, UAE.
Bell, B.D., Carpenter, J.K., Dewhurst, P.L., Karst, T.M. and Browning, S. 2013. Unusual vocalisations from a male kakapo (Strigops habroptilus) imprinted on humans. Notornis, 60:265–268.Google Scholar
Bell, B.D. and Merton, D.V. 2002. Critically endangered bird populations and their management. pp. 103–138 in Norris, K. and Pain, D. J., (eds.) Conserving Bird Biodiversity: General Principles and Their Application. Cambridge: Cambridge University Press.
Bell, B.D., Pledger, S. and Dewhurst, P. 2004. The fate of a population of the endemic frog Leiopelma pakeka (Anura: Leiopelmatidae) translocated to restored habitat on Maud Island, New Zealand. New Zealand Journal of Zoology, 31:123–131.Google Scholar
Bell, M., Bell, B.D. and Bell, E.A. 2005. Translocation of fluttering shearwater (Puffinus gavia) chicks to create a new colony. Notornis, 52:11–15.Google Scholar
Berger-Tal, O., Polak, T., Oron, A.et al. 2011. Integrating animal behavior and conservation biology: a conceptual framework. Behavioral Ecology, 22:236–239.Google Scholar
Berger-Tal, O. and Avgar, T. 2012. The glass is half full: overestimating the quality of a novel environment is advantageous. PLoS ONE, 7:e34578.Google Scholar
Berger-Tal, O., Nathan, J., Meron, E. and Saltz, D. 2014. The exploration-exploitation dilemma: a multidisciplinary framework. PLoS ONE, 9:e95693.Google Scholar
Berger-Tal, O. and Saltz, D. 2014. Using the movement patterns of reintroduced animals to improve reintroduction success. Current Zoology, 60:515–526.Google Scholar
BirdLife International. 2008. Many threatened birds are restricted to small islands. Presented as part of the BirdLife State of the world's birds website. Available from: www.birdlife.org/datazone/sowb/casestudy/173. Accessed December 7, 2013.
BirdLife International. 2013. Species factsheet: Cyanoramphus malherbi. www.birdlife.org/datazone/speciesfactsheet.php?id=1477 Accessed September 11, 2013.
Bly-Honness, K., Truett, J.C. and Long, D.H. 2004. Influence of social bonds on post-release survival of translocated black-tailed prairie dogs (Cynomys ludivicianus). Ecological Restoration, 22:204–209.Google Scholar
Bowker-Wright, G., Bell, B.D., Williams, M.J. and Ritchie, P. 2012. Captive breeding and release diminishes genetic diversity in brown teal, Anas chlorotis, an endangered New Zealand duck. Wildfowl, 62:174–187.Google Scholar
Bright, P. W. and Morris, P.A. 1994. Animal translocation for conservation: performance of dormice in relation to release methods, origin and season. Journal of Applied Ecology, 31:699–708.Google Scholar
Buechner, M. 1989. Are small-scale landscape features important factors for field studies of small mammal dispersal sinks?Landscape Ecology, 2:191–199.Google Scholar
Butler, D. and Merton, D.V. 1992. The Black Robin – Saving the World's Most Endangered Bird. Oxford: Oxford University Press.
Cameron, E. Z., Setsaasa, T.H. and Linklater, W.L. 2009. Social bonds between unrelated females increase reproductive success in feral horses. Proceedings of the National Academy of Science USA, 106:13850–13853.Google Scholar
Campbell-Hunt, D. 2002. Developing a Sanctuary. Wellington: Victoria Link Ltd.
Carlstead, K. and Shepherdson, D. 2000. Alleviating stress in zoo animals with environmental enrichment. pp. 337–349 in Moberg, G.P. and Mench, J.Y.A. (eds.). The Biology of Animal Stress: Basic Principles and Implications for Animal Welfare. Wallingford: CABI Publishing.
Cassinello, J. and Pieters, I. 2000. Multi-male captive groups of endangered dama gazelle: social rank, aggression, and enclosure effects. Zoo Biology, 19:121–129.Google Scholar
Chivers, D.J. 1991. Guidelines for re-introductions: procedures and problems. Symposium Zoological Society London, 62:89–99.Google Scholar
Clout, M.N. and Craig, J.L. 1995. The conservation of critically endangered flightless birds in New Zealand. Ibis, 137:S181–S190.Google Scholar
Clout, M.N., Elliott, G.P. and Robertson, B.C. 2002. Effects of supplementary feeding on the offspring sex ratio of kakapo: a dilemma for the conservation of a polygynous parrot. Biological Conservation, 107:13–18.Google Scholar
Cody, M.L. (ed.) 1985. Habitat Selection in Birds. Orlando: Academic Press Inc.
Conway, W.G. 1980. An overview of captive propagation. pp. 199–208. In: Soule, M.E. ́ and Wilcox, B.A. (eds.) Conservation Biology: An Evolutionary-Ecological Perspective. Sunderland: Sinauer Associates.
Corfield, J., Gillman, L. and Parsons, S. 2008. Vocalisations of the North Island brown kiwi (Apteryx mantelli). Auk, 125:326–335.Google Scholar
Devineau, O., Shenk, T.M., Doherty, P.F. Jr., White, G.C. and Kahn, R.H. 2011. Assessing release protocols for Canada lynx reintroduction in Colorado. Journal of Wildlife Management, 75:623–630.Google Scholar
Dickens, M.J., Delehanty, D.J., Reed, J.M. and Romero, L.M. 2009. What happens to translocated game birds that “disappear”?Animal Conservation, 12:418–425.Google Scholar
Dickens, M.J., Delehanty, D.J. and Romero, L.M. 2010. Stress: an inevitable component of animal translocation. Biological Conservation, 143:1329–1341.Google Scholar
Digby, A., Bell, B.D. and Teal, P.D. 2013. Vocal cooperation between the sexes in little spotted kiwi Apteryx owenii. Ibis, 155:229–245.Google Scholar
Dmytryk, R. 2012. Transporting wildlife. pp. 177–178 in Wildlife Search and Rescue: A Guide for First Responders. Chichester: John Wiley & Sons, Ltd.
Dodd, C.K. and Seigel, R.A. 1991. Relocation, repatriation, and translocation of amphibians and reptiles – are they conservation strategies that work. Herpetologica, 47:336–363.Google Scholar
Dolev, A., Saltz, D., Bar-David, S. and Yom-Tov, Y. 2002. The impact of repeated releases on the space-use patterns of reintroduced Persian fallow deer (Dama dama mesopotamica) in Israel. Journal of Wildlife Management, 66:737–746.Google Scholar
Eason, D.K. and Williams, M.J. 2001. Captive rearing: a management tool for the recovery of the endangered takahe. pp. 80–95 in Lee, W.G. and Jamieson, I.G. (eds.) The Takahe: Fifty Years of Conservation Management and Research. Dunedin: University of Otago Press.
Eckert, K.L., Bjorndal, K.A., Abreu-Grobois, F.A. and Donnelly, M. (eds.) 1999. Research and Management Techniques for the Conservation of Sea Turtles. IUCN/SSC Marine Turtle Specialist Group Publication No. 4.
Ehrlich, P.R. and Ehrlich, A. 1981. Extinction: The Causes and Consequences of the Disappearance of Species. New York: Random House.
Empson, R. and Fastier, D. 2013. Translocations of North Island tomtits (Petroica macrocephala toitoi) and North Island robins (P. longipes) to Zealandia-Karori Sanctuary, an urban sanctuary. What have we learned?Notornis, 60:63–69.Google Scholar
Enderson, J.H., White, C.M. and Banasch, U. 1998. Captive breeding and releases of peregrines Falco peregrinus in North America. pp. 437–444 in Chancellor, R. D., Meyburg, B-U and Ferrero, J.J. (eds.). Holarctic Birds of Prey. ADENEX-WWGBP: Mérida & Berlin.
Esque, T.C., Nussear, K.E., Drake, K.K., K., et al. 2010. Effects of subsidized predators, resource variability, and human population density on desert tortoise populations in the Mojave Desert, USA. Endangered Species Research, 12:167–177.Google Scholar
Fagen, R. 1982. Evolutionary issues in development of behavioral flexibility. Ethology, 5:365–383.Google Scholar
Fischer, J. and Lindenmayer, D.B. 2000. An assessment of the published results of animal relocations. Biological Conservation, 96:1–11.Google Scholar
Germano, J.M. and Bishop, P.J. 2009. Suitability of amphibians and reptiles for translocation. Conservation Biology, 23:7–15.Google Scholar
Gibbs, G. 2006. Ghosts of Gondwana: The History of Life in New Zealand. Nelson: Craig Potton Publishing.
Gill, B. and Moon, G. 1999. New Zealand's Unique Birds. Auckland: Reed.
Gilroy, J.J. and Sutherland, W.J. 2007. Beyond ecological traps: perceptual errors and undervalued resources. Trends in Ecology & Evolution, 22:351–356.Google Scholar
Gray, R.D. and Craig, J.L. 1991. Theory really matters: hidden assumptions in the concept of “habitat requirements.”Acta XX Congressus Internationalis Ornithologici, 4:2553–2560.Google Scholar
Greenwood, A.G. 1996. The echo responds – a partnership between conservation biology, aviculture and veterinary science. Proceedings of the International Aviculturists Society, January 1996, pp. 6–7. Orlando, Florida.
Griffin, A.S., Blumstein, D.T. and Evans, C.S. 2000. Training captive-bred or translocated animals to avoid predators. Conservation Biology, 14:1317–1326.Google Scholar
Griffith, B., Scott, J. M., Carpenter, J.W. and Reed, C. 1989. Translocation as a species conservation tool – status and strategy. Science, 245:477–480.Google Scholar
Griffiths, R.A. and Pavajeau, L. 2008. Captive breeding, reintroduction, and the conservation of amphibians. Conservation Biology, 22:852–861.Google Scholar
Hairston, N.G., Tinkle, D.W. and Wilbur, H.M. 1970. Natural selection and the parameters of population growth. Journal of Wildlife Management, 34:681–690.Google Scholar
Halliday, T. 1978. Vanishing Birds – Their Natural History and Conservation. New Zealand: Holt, Rinehart and Winston.
Hamilton, P. and King, J. 1969. The fate of black rhinoceros released in Nairobi National Park. East African Wildlife Journal, 7:73–83.Google Scholar
Hardman, B. and Moro, D. 2006. Optimising reintroduction success by delayed dispersal: is the release protocol important for hare-wallabies?Biological Conservation, 128:403–411.Google Scholar
Harrington, L.A., Moehrenschlager, A., Gelling, M.et al. 2013. Conflicting and complementary ethics of animal welfare considerations in reintroductions. Conservation Biology, 27:486–500.Google Scholar
Harthoorn, A.M. 1962. Translocation as a means of preserving wild animals. Oryx, 6:215–227.Google Scholar
Heitor, F. and Vicente, L. 2010. Dominance relationships and patterns of aggression in a bachelor group of Sorraia horses (Equus caballus). Journal of Ethology, 28:35–44.Google Scholar
IUCN. 1998. IUCN Guidelines for Re-introductions. IUCN, Gland, Switzerland & Cambridge, UK. 10 pp.
IUCN. 2012. IUCN Guidelines for Reintroductions and Other Conservation Translocations. IUCN, Gland, Switzerland
Jamieson, I.G. and Ryan, C.J. 2001. Closure of the debate over the merits of translocating takahe to predator-free islands. pp. 96–113 in Lee, W.G. and Jamieson, I.G. (eds.) The Takahe: Fifty Years of Conservation Management and Research. Dunedin: University of Otago Press.
Jones, C.G. 2004. Conservation management of endangered birds. In Bird Ecology and Conservation: A Handbook of Techniques. Sutherland, W.J., Newton, I. and Green, R. (eds.) Oxford: Oxford University Press (reprinted twice in 2005).
Jones, C.G. and Merton, D.G. 2012. A tale of two islands: the rescue and recovery of endemic birds in New Zealand and Mauritius. Chapter 2 (pp. 33–72) in Ewen, J.G., Armstrong, D.P., Parker, K.A. and Seddon, P.J. (eds.) Reintroduction Biology: Integrating Science and Management. Wiley-Blackwell.
Johnson, M. L. and Gaines, M.S. 1990. Evolution of dispersal: theoretical models and empirical tests using birds and mammals. Annual Review of Ecology and Systematics, 21:449–480.Google Scholar
Karst, T.M. 2013. Mortality mitigation of a translocated rare New Zealand frogLeiopelma pakeka. Unpublished MSc. Thesis, Victoria University of Wellington, NZ.
Keall, S.N., Nelson, N.N. and Daugherty, C.H. 2010. Securing the future of threatened tuatara populations with artificial incubation. Herpetological Conservation and Biology, 5:555–562.Google Scholar
King, C. M., Roberts, C.D., Bell, B.D.et al. 2009. Phylum Chordata: lancelets, fishes, amphibians, reptiles, birds, mammals. In Gordon, D.P. (ed.), New Zealand Inventory of Biodiversity, Volume 1, Kingdom Animalia: Radiata, Lophotrochozoa, Deuterostomia, pp. 431–551. Christchurch: Canterbury University Press.
King, W.B. 1980. Ecological basis of extinctions in birds. Acta XVII Congressus Internationalis Ornithologici, 905–911.
Kleiman, D.G. 1989. Reintroduction of captive mammals for conservation. BioScience, 39:152–161.Google Scholar
Kleiman, D.G. 1994. Criteria for reintroductions. Chapter 14 (pp. 287–303) in Olney, P.J.S, Mace, G.M. and Feistner, A.T.C (eds.), Creative Conservation: Interactive Management of Wild and Captive Animals. Chapman & Hall.
Kotler, B.P., Brown, J.S., Dall, S.R.X.et al. 2002. Foraging games between gerbils and their predators: temporal dynamics of resource depletion and apprehension in gerbils. Evolutionary Ecology Research, 4:495–518.Google Scholar
Lee, J. and Waldman, B. 2002. Communication by faecal chemo signals in an archaic frog, Leiopelma hamiltoni. Copeia, 2002:679–686.Google Scholar
Le Gouar, P., Mihoub, J.B. and Sarrazin, F. 2011. Dispersal and habitat selection: behavioural and spatial constraints for animal translocations. pp.138–162 in Ewen, J. G., Armstrong, D.P., Parker, K.A. and Seddon, P.J. (eds.). Reintroduction Biology: Integrating Science and Management. New York: John Wiley and Sons.
Liester, A.R., Gormn, G.C. and Arroyo, D.C. 1975. Habitat selection behavior of three species of Anolis lizards. Ecology, 56:220–225.Google Scholar
Lewis, J.C. 1995. Whooping crane (Grus americanus). pp. 153 in Poole, A. and Gill, F. (eds.), The Birds of North America.Philadelphia and Washington, DC: The Academy of Natural Sciences & the American Ornithologists Union.
Lewis, J.C. 1997. Alerting the birds. Endangered Species Bulletin, 22:22–23.Google Scholar
Lindburg, D.G. 1992. Are wildlife reintroductions worth the cost?Zoo Biology, 11:1–2.Google Scholar
Linklater, W. 2010. Distress – an underutilised concept in conservation and missing from Busch and Hayward (2009). Biological Conservation, 143:1037–1038.Google Scholar
Linklater, W.L., Adcock, K., du Preez, P.et al. 2011. Guidelines for large herbivore translocation simplified: black rhinoceros case study. Journal of Applied Ecology, 48:493–502.Google Scholar
Linklater, W.L., Flamand, J., Rochat, Q.et al. 2006. Preliminary analyses of the free-release and scent-broadcasting strategies for black rhinoceros reintroduction. Conservation Corporation Africa Ecological Journal 7:26–34.Google Scholar
Linklater, W.L., Gedir, J.V., Law, P.R.et al. 2012. Translocations as experiments in the ecological resilience of an asocial mega-herbivore. PLoS ONE 7:e30664. doi:10.1371/journal.pone.0030664.Google Scholar
Linklater, W.L., MacDonald, E., Flamand, J. and Czekala, N. 2010. Declining and low fecal corticoids are associated with distress, not acclimation to stress, during the translocation of African rhinoceros. Animal Conservation, 13:104–111.Google Scholar
Linklater, W.L. and Swaisgood, R.R. 2008. Reserve size, conspecific density, and translocation success for black rhinoceros. Journal of Wildlife Management, 72:1059–1068.Google Scholar
Lorenz, K. 1981. The Foundations of Ethology. New York: Springer-Verlag.
Metcalfe, N. B., Valdimarsson, S. K. and Morgan, I. J. 2003. The relative roles of domestication, rearing environment, prior residence and body size in deciding territorial contests between hatchery and wild juvenile salmon. Journal of Applied Ecology, 40:535–544.Google Scholar
Mills, J.A., Lavers, R.B., Lee, W.G. and Garrick, A.S. 1982. Management Recommendations for the Conservation of Takahe. Internal Report, New Zealand Wildlife Service, Department of Internal Affairs, Wellington.
Mills, J.A., Lavers, R.B. and Lee, W.G. 1984. The takahe: a relict of the Pleistocene grassland avifauna of New Zealand. New Zealand Journal of Ecology, 7:57–70.Google Scholar
Mills, J.A., Lavers, R.B. and Lee, W.G. 1988. The post-Pleistocene decline of the takahe (Notornis mantelli): a reply. Journal of the Royal Society of New Zealand, 18:122–118.Google Scholar
Miskelly, C.M. and Taylor, G.A. 2004. Establishment of a colony of common diving petrels (Pelecanoides urinatrix) by chick transfers and acoustic attraction. Emu, 104:205–211.Google Scholar
Moore, J.A., Bell, B.D. and Linklater, W.L. 2008. The debate on behavior in conservation: New Zealand integrates theory with practice. BioScience, 58:454–459.Google Scholar
Morris, D.W. 2003. How can we apply theories of habitat selection to wildlife conservation and management?Wildlife Research, 30:303–319.Google Scholar
Negro, J. J., Hiraldo, F. and Donázar, J.A. 1997. Causes of natal dispersal in the lesser kestrel: inbreeding avoidance or resource competition?Journal of Animal Ecology, 66:640–648.Google Scholar
Nelson, N.J., Keall, S.N., Brown, D. and Daugherty, C.H. 2002. Establishing a new wild population of tuatara (Sphenodon guntheri). Conservation Biology, 16:887–894.Google Scholar
Nolet, B. A. and Rosell, F. 1994. Territoriality and time budgets in beavers during sequential settlement. Canadian Journal of Zoology, 72:1227–1237.Google Scholar
Ottewell, K., Dunlop, J., Thomas, N.et al. 2014. Evaluating success of translocations in maintaining genetic diversity in a threatened mammal. Biological Conservation, 171:209–219.Google Scholar
Parker, I.D., Watts, D.E., Lopez, R.R.et al. 2008. Evaluation of the efficacy of Florida Key deer translocations. Journal of Wildlife Management, 72:1069–1075.Google Scholar
Patten, M.A. and Kelly, J.F. 2010. Habitat selection and the perceptual trap. Ecological Applications, 20:2148–2156.Google Scholar
Pianka, E.R. 1970. On r and K selection. American Naturalist, 104:592–597.Google Scholar
Price, E.O. 1999. Behavioral development in animals undergoing domestication. Applied Animal Behaviour Science, 65:245–271.Google Scholar
Pritchard, P.C.H. 1979. Head-starting and other conservation techniques for marine turtles Cheloniidae and Dermochelyidae. International Zoo Yearbook, 19:38–42.Google Scholar
Ramstad, K.M., Pfunder, M., Robertson, H.A.et al. 2010. Fourteen microsatellite loci cross-amplify in all five kiwi species (Apteryx spp.) and reveal extremely low genetic variation in little spotted Kiwi (A. owenii). Conservation Genetics Resources, 2:333–336.Google Scholar
Reed, C. and Merton, D. 1991. Behavioral manipulation of endangered New Zealand birds as an aid towards species recovery. Acta XX Congressus Internationalis Ornithologici, 4:2514–2522.Google Scholar
Rinat, Z. 2007. The bitter fate of ostriches in the wild. Haaretz Daily Newspaper: Dec.25, 2007.
Rodda, G.H., Fritts, T.H., Campbell, E.W. III et al. 2002. Practical concerns in the eradication of island snakes. Pp. 260–265 in Veitch, C. R. & Clout, M. N. (eds.), Turning the Tide: the Eradication of Invasive Species. IUCN SSC Invasive Species Specialist Group. IUCN, Gland, Switzerland and Cambridge, UK.
Rohan, C., Boulton, R. and Clarke, M. 2002. Translocation of the socially complex black-eared miner Manorina Melanotis: a trial using hard and soft release techniques. Pacific Conservation Biology, 8:223–234.Google Scholar
Rowe, S. J. and Bell, B.D. 2007. The influence of geographic variation in song dialect on post-translocation pair formation in North Is kokako (Callaeas cinerea wilsoni). Notornis, 54:28–37.Google Scholar
Saltz, D. 1996. Minimizing extinction probability due to demographic stochasticity in a reintroduced herd of Persian fallow deer. Biological Conservation, 75:27–33.Google Scholar
Saltz, D. 1998. A long-term systematic approach to reintroductions: the Persian fallow deer and Arabian oryx in Israel. Animal Conservation, 1:245–252.Google Scholar
Saltz, D., Rowen, M. and Rubenstein, D.I. 2000. The effect of space-use patterns of reintroduced Asiatic wild ass on effective population size. Conservation Biology, 14:1852–1861.Google Scholar
Saltz, D., Rubenstein, D.I. 1995. Population dynamics of a reintroduced Asiatic Wild Ass (Equus hemionus) herd. Ecological Applications, 5:327–335.Google Scholar
Seddon, P.J., Armstong, D.P. and Maloney, R.F. 2007. Developing the science of reintroduction biology. Conservation Biology, 21:303–312.Google Scholar
Shier, D.M. and Owings, D.H. 2006. Effects of predator training on behavior and post-release survival of captive prairie dogs (Cynomus ludovicianus). Biological Conservation, 132:126–135.Google Scholar
Shier, D.M. and Owings, D.H. 2007. Effects of social learning on predator training and postrelease survival in juvenile black-tailed prairie dogs (Cynomus ludovicianus). Animal Behaviour, 73:567–577.Google Scholar
Short, J. 2009. The characteristics and success of vertebrate translocations within Australia. A final report to Department of Agriculture, Fisheries and Forestry. Wildlife Research and Management Pty. Ltd., Kalamunda, West Australia.
Short, J., Bradshaw, S.D., Giles, J.R., Prince, R.I.T. and Wilson, G.R. 1992. Reintroduction of macropods (Marsupialia: Macropodoidea) in Australia – a review. Biological Conservation, 62:189–204.Google Scholar
Shumway, C.A. 1999. A neglected science: applying behavior to aquatic conservation. Environmental Biology of Fishes, 55:183–201.Google Scholar
Sigg, D.P. 2006. Reduced genetic diversity and significant genetic differentiation after translocation: comparison of the remnant and translocated populations of bridled nailtail wallabies (Onychogalea fraenata). Conservation Genetics, 7:577–589.Google Scholar
Silk, J.B., Beehner, J.C., Bergman, T.J.et al. 2009. The benefits of social capital: close social bonds among female baboons enhance offspring survival. Proceedings of the Royal Society B, 276:3099–3104.Google Scholar
Silk, J. B., Beehner, J.C., Bergman, T.J.et al. 2010. Strong and consistent social bonds enhance the longevity of female baboons. Current Biology, 20:1359–1361.Google Scholar
Snyder, N.F.R., Derrickson, S.R., Beissinger, S.R.et al. 1996. Limitations of captive breeding in endangered species recovery. Conservation Biology, 10:338–348.Google Scholar
Sol, D. and Lefebvre, L. 2000. Behavioural flexibility predicts invasion success in birds introduced to New Zealand. Oikos, 90:599–605.Google Scholar
Sol, D., Timmermans, S. and Lefebvre, L. 2002. Behavioral flexibility and invasion success in birds. Animal Behaviour, 63:495–502.Google Scholar
Stamps, J. A. and Swaisgood, R. R. 2007. Someplace like home: experience, habitat selection and conservation biology. Applied Animal Behaviour Science, 102:392–409.Google Scholar
Stephens, P.A. and Sutherland, W.J. 1999. Consequences of the Allee effect for behaviour, ecology and conservation. Trends in Ecology & Evolution, 14:401–405.Google Scholar
Strum, S.C. 2005. Measuring success in primate translocation: a baboon case study. American Journal of Primatology, 65:117–140.Google Scholar
Temple, S.A. 1985. Why endemic island birds are so vulnerable to extinction. Bird Conservation, 2:3–6.Google Scholar
Temple, S.A. 1986. The problem of avian extinctions. In Current Ornithology, pp. 453–485. New York: Plenum Publishing Corp.
Tennyson, A. and Martinson, P. 2006. Extinct Birds of New Zealand. Wellington: Te Papa Press.
Thornton, A. and Clutton-Brock, T. 2011. Social learning and the development of individual and group behaviour in mammal societies. Philosophical Transactions of the Royal Society B: Biological Sciences, 366:978–987.Google Scholar
Trewenack, A.J., Landman, K.A. and Bell, B.D. 2007. Dispersal and settling of translocated populations: a general study and a New Zealand amphibian case study. Journal of Mathematical Biology, 55:575–604.Google Scholar
Tudge, C. 1992. Last Animals at the Zoo: How Mass Extinction Can Be Stopped. Washington, DC: Island Press.
Viggers, K.L., Lindenmayer, D.B. and Spratt, D.M. 1993. The importance of disease in reintroduction programmes. Wildlife Research, 20:678–698.Google Scholar
Waldman, B. and Bishop, P.J. 2004. Chemical communication in an archaic anuran amphibian. Behavioral Ecology, 14:88–93.Google Scholar
Wecker, S.C. 1964. Habitat selection. Scientific American, 211:109–116.Google Scholar
Woody, J.B. 1990. Guest editorial: Is “headstarting” a reasonable conservation measure? “On the surface, yes; in reality, no.”Marine Turtle Newsletter, 50:8–11.Google Scholar
Zidon, R., Daltz, D., Shore, L.S. and Motro, U. 2009. Behavioral changes, stress, and survival following reintroduction of Persian fallow deer from two breeding facilities. Conservation Biology, 23:1026–1035.Google Scholar

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