The Socio-Ecology of Two Species of Australian Native Rodent—Notomys

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The Socio-Ecology of Two Species of Australian Native Rodent—Notomys The socio-ecology of two species of Australian native rodent— Notomys mitchelli and Notomys alexis Clare Bradley PhD candidate Environmental Biology School of Earth and Environmental Sciences University of Adelaide November 2008 References References Abramsky Z., Rosenweig M. L. & Subach A. (1998) Do gerbils care more about competition or predation? Oikos 83: 75-84. Abramsky Z., Rosenzweig M. L., Belmaker J. & Bar A. (2004) The impact of long-term continuous risk of predation on two species of gerbils. Canadian Journal of Zoology 82: 464-474. Abramsky Z., Rosenzweig M. L. & Subacha A. (2001) The cost of interspecific competition in two gerbil species. Journal of Animal Ecology 70: 561–567. Abramsky Z., Rosenzweig M. L. & Subacha A. (2002) Measuring the benefit of habitat selection. Behavioral Ecology 13: 497-502. Abramsky Z., Strauss E., Subach A., Kotler B. P. & Riechman A. (1996) The effect of barn owls (Tyto alba) on the activity and microhabitat selection of Gerbillus allenbyi and G. pyramidum. Oecologia 105: 313-319. Adams M., Macfarlane C. & Bencini R. (2003) Climate. In: Ecology: an Australian perspective (eds. P. Attiwill & B. Wilson) pp. 36-53. Oxford University Press, Victoria. Agrell J., Wolff J. O. & Ylonen H. (1998) Counter-strategies to infanticide in mammals: costs and consequences. Oikos 83: 507-517. Alexander R. D. (1974) The evolution of social behavior. Annual Review of Ecology and Systematics 5: 325-383. Allaine D. (2000) Sociality, mating system and reproductive skew in marmots: evidence and hypotheses. Behavioural Processes 51: 21-34. Allan R. (2003) El Niño. In: Ecology: an Australian perspective (eds. P. Attiwill & B. Wilson) pp. 505-523. Oxford University Press, Victoria. Altmann J. (1974) Observational study of behavior: sampling methods. Behaviour 49: 227-267. Anderson P. K. (1965) The role of breeding structure in evolutionary processes of Mus musculus populations. In: Mutation in population: proceedings of the symposium on the mutational process (ed. R. Honcariv). Academia, Prague. Anderson P. K. (1989) Dispersal in rodents: a resident fitness hypothesis. The American Society of Mammalogists. Anderson T. J. C., Berry A. J., Amos J. N. & Cook J. M. (1988) Spool-and-line tracking of the New Guinea spiny bandicoot, Echymipera kalubu (Marsupialia, Peramelidae). Journal of Mammalogy 69: 114-120. Andrewartha H. G. & Birch L. C. (1954) The distribution and abundance of animals. University of Chicago Press, Chicago. The socio-ecology of two species of Australian native rodent—N. mitchelli and N. alexis 289 References Anstee S. & Armstrong K. (2001) The effect of familiarity and mound condition in translocations of the western pebble-mound mouse, Pseudomys chapmani, in the Pilbara region of Western Australia. Wildlife Research 28: 135-140. Anstee S. D., Roberts J. D. & O'Shea J. E. (1997) Social structure and patterns of movement of the western pebble-mound mouse, Pseudomys chapmani, at Marandoo, Western Australia. Wildlife Research 24: 295-305. Aplin K. P. (2005) Ten million years of rodent evolution in the Australasian region: a review of the phylogenetic evidence and a speculative historical biogeography. In: Vertebrate zoogeography and evolution in the Australasian region (eds. J. R. Merrick, G. Clayton, M. Archer & S. J. Hand) pp. 707-744. Auscipub. Pty. Ltd., Sydney. Armitage K. B. (1977) Social variety in the yellow-bellied marmot: a population- behavioural system. Animal Behaviour 25: 585-593. Armitage K. B. (1998) Reproductive strategies of yellow-bellied marmots: Energy conservation and differences between the sexes. Journal of Mammalogy 79: 385-393. Aslin H. (1978) Mammals of the Mallee. Habitat Australia 6: 20-23. Aslin H. J. & Watts C. H. S. (1980) Breeding of a captive colony of Notomys fuscus Wood Jones (Rodentia: Muridae). Australian Wildlife Research 7: 379-383. Avenant N. L. & Nel J. A. J. (1998) Home-range use, activity, and density of caracal in relation to prey density. African Journal of Ecology 36: 347-359. Backhouse D. & Burgess L. W. (2002) Climatic analysis of the distribution of Fusarium graminearum, F. pseudograminearum and F. culmorum on cereals in Australia. Australasian Plant Pathology 31: 321-327. Baker A. J., Baker A. M. & Thompson K. V. (1996) Parental care in captive mammals. In: Wild mammals in captivity: principles and techniques. (eds. D. G. Kleiman, M. E. Allen, K. V. Thompson, S. Lumpkin & H. Harris) pp. 497-512. University of Chicago Press, Chicago & London. Baker L., Woenne-Green S. & Mutitjulu Community (1993) Anangu knowledge of vertebrates and the environment. In: Uluru fauna: the distribution and abundance of vertebrate fauna of Uluru (Ayers Rock and Mount Olga) National Park, N.T. (eds. J. R. W. Reid, J. A. Kerle & S. R. Morton) pp. 79-132. Environment Australia, Canberra. Banks P. (1998) Responses of Australian bush rats, Rattus fuscipes, to the odor of introduced Vulpes vulpes. Journal of Mammalogy 79: 1260-1264. Banks P. B., Norrdahl K. & Korpimaki E. (2002) Mobility decisions and the predation risks of reintroduction. Biological Conservation 103: 133-138. Barnett S. A. (1964) Social stress. In: Viewpoints in biology (eds. J. D. Carthy & C. L. Duddington). Buttersworths, London. 290 The socio-ecology of two species of Australian native rodent—N. mitchelli and N. alexis References Barry J. F. & Kemper C. M. (1982) Growth and development of Pseudomys gracilicaudatus (Rodentia: Muridae) in the laboratory. Australian Journal of Zoology 30: 175-185. Bart J., Fligner M. A. & Notz W. I. (1998) Sampling and statistical methods for behavioral ecologists. Cambridge University Press, Cambridge. Bartmann S. & Gerlach G. (2001) Multiple paternity and similar variance in reproductive success of male and female wood mice (Apodemus sylvaticus) housed in an enclosure. Ethology 107: 889-899. Batzli G. O., Getz L. L. & Hurley S. (1977) Suppression of growth and reproduction of microtine rodents by social factors. Journal of Mammalogy 58: 583-591. Baudinette R. V. (1972) The impact of social aggregation on the respiratory physiology of Australian hopping mice Comparative Biochemistry and Physiology Part A: Physiology 41: 35-38. Baverstock P. R. (1979) A three year study of the mammals and lizards of Billiatt Conservation Park in the Murray Mallee, South Australia. South Australian Naturalist 53: 52-58. Baverstock P. R., Watts C. H. S., Adams M. & Cole S. R. (1981) Genetic relationships among Australian rodents (Muridae). Australian Journal of Zoology 29: 289-304. Baynes A. (1984) Native mammal remains from Wilgie Mia (Australia) Aboriginal ochre mine: Evidence on the pre-European fauna of the western arid zone. Records Of The Western Australian Museum 11: 297-310. Beattie A., Auld B., Greenslade P., Harrington G., Majer J., Morton S., Recher H. & Westoby M. (1992) Changes in Australian territorial biodiversity since European settlement and into the future. Department of Primary Industries and Energy Bureau of Rural Resources Proceedings 14: 189-202. Beaumont L. J. & Hughes L. (2002) Potential changes in the distributions of latitudinally restricted Australian butterfly species in response to climate change. Global Change Biology 8: 954-971. Begg C. M., Begg K. S., Du Toit J. T. & Mills M. G. L. (2005) Spatial organization of the honey badger Mellivora capensis in the southern Kalahari: home-range size and movement patterns. Journal of Zoology 265: 23-35. Behrends P., Daly M. & Wilson M. (1986) Range use patterns and spatial relationships of Merriam's kangaroo rats (Dipodomys merriami). Behaviour 96: 187-209. Bekoff M. (1977) Mammalian dispersal and the ontogeny of individual behavioral phenotypes. American Naturalist 111: 715-732. Ben-Moshe A., Dayan T. & Simberloff D. (2001) Convergence in morphological patterns and community organization between old and new world rodent guilds. American Naturalist 158: 484-495. The socio-ecology of two species of Australian native rodent—N. mitchelli and N. alexis 291 References Bengtsson B. O. (1978) Avoiding inbreeding: at what cost? Journal of Theoretical Biology 73: 439-444. Bennett A. F. & Lumsden L. F. (1995) Mitchell's hopping-mouse. In: Mammals of Victoria: distribution, ecology and conservation (ed. P. W. Menkhorst) pp. 212-214. Oxford University Press, Melbourne. Bennett A. F., Lumsden L. F. & Menkhorst P. W. (1989) Mammals of the Mallee region of south-eastern Australia. In: Mediterranean landscapes in Australia. Mallee ecosystems and their management (eds. J. C. Noble & R. A. Bradstock). CSIRO Australia, East Melbourne, Vic. Berger J. & Stevens E. F. (1996) Mammalian social organization and mating systems. In: Wild mammals in captivity: principles and techniques. (eds. D. G. Kleiman, M. E. Allen, K. V. Thompson, S. Lumpkin & H. Harris) pp. 344-351. University of Chicago Press, Chicago & London. Berry A. J., Anderson T. J. C., Amos J. N. & Cook J. M. (1987) Spool-and-line tracking of giant rats in New Guinea. Journal of Zoology 213: 299-303. Berteaux D., Masseboeuf F., Bonzom J.-M., Bergeron J.-M., Thomas D. W. & Lapierre H. (1996) Effect of carrying a radiocollar on expenditure of energy by meadow voles. Journal of Mammalogy 77: 359-363. Blumstein D. T., Evans C. S. & Daniel J. C. (1999) An experimental study of behavioural group size effects in tammar wallabies, Macropus eugenii. Animal Behaviour. BoM (2005) Climate data: Australia (version 2.2). Australian Government Bureau of Meteorology, Kent Town, South Australia. Bond M. L. & Wolff J. O. (1999) Does access to females or competition among males limit male home-range size in a promiscuous rodent? Journal of Mammalogy 80: 1243- 1250. Boonstra R. & Craine I. T. M. (1986) Natal nest location and small mammal tracking with a spool and line technique. Canadian Journal of Zoology 64: 1034-1036. Boonstra R. & Krebs C. J. (1978) Pitfall trapping of Microtus townsendii. Journal of Mammalogy 59: 136-148. Boonstra R., Krebs C. J., Gaines M. S., Johnson M. L. & Craine I. T. M. (1987) Natal philopatry and breeding systems in voles (Microtus spp.). Journal of Animal Ecology 56: 655-673. Bos D. G. & Carthew S. M. (2001) Population ecology of Ninguai yvonneae (Dasyirudae: Marsupialia) in the Middleback Ranges, Eyre Peninsula, South Australia.
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