- Select a language for the TTS:
- UK English Female
- UK English Male
- US English Female
- US English Male
- Australian Female
- Australian Male
- Language selected: (auto detect) - EN
Play all audios:
ABSTRACT A systems approach is necessary for effective control of feral rabbit (_Oryctolagus cuniculus_ L.) populations in the arid environments of Australia. Localized control procedures
may result in local extinctions, but the persistence of the overall population will depend on the probability of recolonization, and hence, the degree of isolation of each local population
unit. Genetic markers obtained using allozyme electrophoresis, temperature gradient gel electrophoresis (TGGE) and heteroduplex analysis (HA) were used to characterize the degree of
structuring and extent of gene flow among rabbit populations in arid Queensland, Australia. Allozyme allele frequency data showed that there was no significant differentiation among sites
(average _F_ST = 0.005) and no isolation-by-distance or environmental discontinuity effects. TGGE/HA results also revealed no significant differentiation in mitochondrial DNA Control Region
haplotype frequencies among sites and low interpopulation nucleotide divergence estimates (_N_ST = 0.013). Therefore, rabbit populations exhibited a high degree of gene flow over large
geographical areas (1600 km2) and were essentially a single panmictic unit. Unpredictable environmental conditions together with the spatial configuration of habitats which possess different
probabilities of extinction may have resulted in repeated local extinctions followed by recolonization and homogenizing gene flow. These data suggest that current rabbit control strategies
based on individual warren management may not achieve effective control in arid Queensland. SIMILAR CONTENT BEING VIEWED BY OTHERS POPULATION STRUCTURE AND GENETIC DIVERSITY OF NON-NATIVE
AOUDAD POPULATIONS Article Open access 10 June 2021 POPULATION GENETIC STRUCTURE OF RACCOONS AS A CONSEQUENCE OF MULTIPLE INTRODUCTIONS AND RANGE EXPANSION IN THE BOSO PENINSULA, JAPAN
Article Open access 29 September 2021 GENETIC STRUCTURE OF AMERICAN BULLFROG POPULATIONS IN BRAZIL Article Open access 15 June 2022 ARTICLE PDF REFERENCES * Anderson, P K. 1970. Ecological
structure and gene flow in small mammals. _Symp Zool Soc Lond_, 26, 299–325. Google Scholar * Aquadro, C F, and Greenberg, B D. 1983. Human mitochondrial DNA variation and evolution:
analysis of nucleotide sequences from seven individuals. _Genetics_, 103, 287–312. CAS PubMed PubMed Central Google Scholar * Bowen, B S. 1982. Temporal dynamics of microgeographic
structure of genetic variation in _Microtus californicus_. _J Mammal_, 63, 625–638. Article Google Scholar * Campbell, N J H, Harriss, F C, Elphinstone, M S, and Baverstock, P R. 1995.
Outgroup heteroduplex analysis using temperature gradient gel electrophoresis: high resolution, large scale, screening of DNA variation in the mitochondrial DNA control region. _Mol Ecol_,
4, 407–418. Article CAS PubMed Google Scholar * Cooke, B D. 1981. Food and dynamics of rabbit populations in inland Australia. In: Myers, K. and Macinnes, C. D. (eds) _Proceedings of the
World Lagomorph Conference_, pp. 633–647. University of Guelph, Ont. Google Scholar * Cowan, D P. 1987. Group living in the European rabbit (_Oryctolagus cuniculus_): mutual benefit or
resource localization?. _J Anim Ecol_, 56, 779–795. Article Google Scholar * Cowan, D P, and Garson, P J. 1985. Variations in the social structure of rabbit populations: causes and
demographic consequences. In: Sibley, R. M. and Smith, R. H. (eds) _Behavioural Ecology: Ecological Consequences of Adaptive Behaviour_, pp. 537–555. Blackwell Scientific Publications,
Oxford. Google Scholar * Daly, J. 1979. _The Ecological Genetics of the European Wild Rabbit (Oryctolagus Cuniculus (L)) in Australia_. Ph.D. Thesis, Australian National University. Google
Scholar * Dpi Land Use Report. 1974. _Western Arid Region Land Use Study Part 1_. QDPI, Queensland. * Hudson, R R, Slatkin, M, and Maddison, W P. 1992. Estimation of levels of gene flow
from DNA sequence data. _Genetics_, 132, 583–589. CAS PubMed PubMed Central Google Scholar * Jukes, T H, and Cantor, C R. 1969. Evolution of protein molecules. In: Munro, H. N. (ed.)
_Mammalian Protein Metabolism_, pp. 21–123. Academic Press, New York. Chapter Google Scholar * Lessa, E P, and Applebaum, G. 1993. Screening techniques for detecting allelic variation in
DNA sequences. _Mol Ecol_, 2, 119–129. Article CAS PubMed Google Scholar * Lynch, M, and Crease, T J. 1990. The analysis of population survey data on DNA sequence variation. _Mol Biol
Evol_, 7, 377–394. CAS PubMed Google Scholar * Meyer, A, Kocher, T D, Basasibwaki, P, and Wilson, A C. 1990. Monophyletic origin of Victoria cichlid fish suggested by mitochondrial DNA
sequences. _Nature_, 347, 550–553. Article CAS PubMed Google Scholar * Moritz, C. 1994. Applications of mitochondrial DNA analysis in conservation: a critical review. _Mol Ecol_, 3,
401–411. Article CAS Google Scholar * Myers, K, and Parker, B S. 1975a. A study of the biology of the wild rabbit in climatically different regions in eastern Australia. VI. Changes in
numbers and distribution related to climate and land systems in semiarid north-western New South Wales. _Aust Wildl Res_, 2, 11–32. Article Google Scholar * Myers, K, and Parker, B S.
1975b. Effect of severe drought on rabbit numbers and distribution in a refuge area in semi-arid north-western New South Wales. _Aust Wildl Res_, 2, 103–120. Article Google Scholar *
Myers, K, and Poole, W E. 1959. A study of the biology of the wild rabbit _Oryctolagus cuniculus_ (L.) in confined populations. I. The effects of density on home range and the formation of
breeding groups. _CSIRO Wildl Res_, 4, 14–26. Article Google Scholar * Myers, K, Parer, I, Wood, D, and Cooke, B D. 1994. The rabbit in Australia. In: Thompson, H. V. and King, C. (eds)
_The European Rabbit_, pp. 108–157. Oxford University Press, Oxford. Google Scholar * Myers, R M, and Maniatis, T. 1986. Recent advances in the development of methods for detecting
single-base substitutions associated with human genetic diseases. _Cold Spring Harb Symp Quant Biol_, 51, 275–284. Article CAS PubMed Google Scholar * Myers, R M, Lumelsky, N, Lerman, L
S, and Maniatis, T. 1985. Detection of single base substitutions in total genomic DNA. _Nature_, 313, 495–498. Article CAS PubMed Google Scholar * Myers, R M, Sheffield, V C, and Cox, D
R. 1988. Detection of single base changes in DNA: ribonuclease cleavage and denaturing gradient gel electrophoresis. In: Davies, K. (ed.) _Genome Analysis: a Practical Approach_, pp.
95–139.IRL Press, Oxford. Google Scholar * Parer, I, and Parker, B S. 1987. Recolonisation by rabbits (_Oryctolagus cuniculus_) after warren destruction in western New South Wales. _Aust
Rangel J_, 8, 150–152. Article Google Scholar * Rasmussen, D I. 1970. Biochemical polymorphisms and genetic structure in populations of _Peromyscus_. _Symp Zool Soc Lond_, 26, 335–349.
Google Scholar * Richardson, B J. 1980. Ecological genetics of the wild rabbit in Australia. III. Comparison of the microgeographical distribution of alleles in two different environments.
_Aust J Biol Sci_, 33, 385–391. Article Google Scholar * Richardson, B J, Baverstock, P R, and Adams, M. 1986. _Allozyme Electrophoresis: a Handbook for Animal Systematics and Population
Studies_. Academic Press, Sydney. Google Scholar * Richardson, B J, Rogers, P M, and Hewitt, G M. 1980. Ecological genetics of the wild rabbit in Australia. II. Protein variation in
British, French and Australian rabbits and the geographical distribution of the variation in Australia. _Aust J Biol Sci_, 33, 371–383. Article CAS Google Scholar * Riesner, D, Steger, G,
Zimmat, R, Owens, R A, Wagen-Hofer, M, Vollbach, S, and Henco, K. 1989. Temperature-gradient gel electrophoresis of nucleic acids: analysis of conformational transitions, sequence
variations, and protein-nucleic acid interactions. _Electrophoresis_, 10, 377–389. Article CAS PubMed Google Scholar * Rogers, J S. 1972. Measures of genetic similarity and distance.
_Stud Gen_, 7, 144–153. Google Scholar * Rowley, I. 1968. Studies on the resurgence of rabbit populations after poisoning. _CSIRO Wildl Res_, 13, 59–69. Article Google Scholar * Rural
Lands Protection Board 1987. _Rabbits and Their Control in Queensland_. Queensland Government, Australia. * Saccone, C, Pesole, G, and Sbisa, E. 1991. The main regulatory region of mammalian
mitochondrial DNA: structure-function model and evolutionary pattern. _J Mol Evol_, 33, 83–91. Article CAS PubMed Google Scholar * Saiki, R K, Gelfand, D H, Stoffel, S, Scharf, S J,
Higuchi, R, and Horn, G T. et al. 1988. Primer-directed enzymic amplification of DNA with a thermostable DNA polymerase. _Science_, 239, 487–491. Article CAS PubMed Google Scholar *
Schwartz, O A, and Armitage, K B. 1980. Genetic variation in social mammals: the marmot model. _Science_, 207, 665–667. Article CAS PubMed Google Scholar * Scribner, K T, and Chesser, R
K. 1993. Environmental and demographic correlates of spatial and seasonal genetic structure in the eastern cottontail (_Sylvilagus floridanus_). _J Mammal_, 74, 1026–1044. Article Google
Scholar * Selander, R K. 1970. Biochemical polymorphisms in populations of the house mouse and old-field mouse. _Symp Zool Soc Lond_, 26, 73–91. Google Scholar * Slatkin, M. 1985. Gene
flow in natural populations. _Ann Rev Ecol Syst_, 16, 393–430. Article Google Scholar * Stodart, E, and Parer, I. 1988. _Colonisation of Australia by the Rabbit_. CSIRO, Australia. Google
Scholar * Swofford, D L, and Selander, R B. 1989. BIOSYS-I. _A Computer Program for the Analysis of Allelic Variation in Population Genetics and Biochemical Systematics_. Release 1.7.
University of Illinois, Urbana, ILL. Google Scholar * Taylor, J, Freedman, L, Olivier, T J, and McCluskey, J. 1977. Morphometric distances between Australian wild rabbit populations. _Aust
J Zool_, 25, 721–732. Article Google Scholar * Tgge Handbook. 1993. DIAGEN, GmbH, Germany. * Wartell, R M, Hosseini, S H, and Moran, C P. 1990. Detecting base pair substitutions in DNA
fragments by temperature-gradient gel electrophoresis. _Nucl Acids Res_, 18, 2699–2705. Article CAS PubMed PubMed Central Google Scholar * Webb, N J. 1988. _Genetic Analysis of Social
Structure in the European Wild Rabbit Oryctolagus cuniculus (L)_. Ph.D. Thesis, University of East Anglia. Google Scholar * Wilson, A C, Cann, R L, Carr, S M, George, M, Gyllensten, U B,
and Helm-Bychowski, K M. et al. 1985. Mitochondrial DNA and two perspectives on evolutionary genetics. _Biol J Linn Soc_, 26, 375–400. Article Google Scholar * Wilson, G, Dexter, N,
O'Brien, P, and Bomford, M. 1992. European wild rabbit (_Oryctolagus cuniculus_). In: Bureau of Rural Resources (eds) _Pest Animals in Australia_, pp. 8–13. Kangaroo Press, Australia.
Google Scholar * Wright, S. 1951. The genetical structure of populations. _Ann Eugen_, 15, 323–354. Article CAS PubMed Google Scholar Download references AUTHOR INFORMATION AUTHORS AND
AFFILIATIONS * School of Life Science and Centre for Biological Population Management, Queensland University of Technology, GPO Box 2434, Brisbane, 4001, Australia Susan J Fuller, Peter B
Mather & John C Wilson Authors * Susan J Fuller View author publications You can also search for this author inPubMed Google Scholar * Peter B Mather View author publications You can
also search for this author inPubMed Google Scholar * John C Wilson View author publications You can also search for this author inPubMed Google Scholar RIGHTS AND PERMISSIONS Reprints and
permissions ABOUT THIS ARTICLE CITE THIS ARTICLE Fuller, S., Mather, P. & Wilson, J. Limited genetic differentiation among wild _Oryctolagus cuniculus_ L. (rabbit) populations in arid
eastern Australia. _Heredity_ 77, 138–145 (1996). https://doi.org/10.1038/hdy.1996.118 Download citation * Received: 09 August 1995 * Issue Date: 01 August 1996 * DOI:
https://doi.org/10.1038/hdy.1996.118 SHARE THIS ARTICLE Anyone you share the following link with will be able to read this content: Get shareable link Sorry, a shareable link is not
currently available for this article. Copy to clipboard Provided by the Springer Nature SharedIt content-sharing initiative KEYWORDS * allozymes * control region * genetic differentiation *
heteroduplex analysis * mtDNA * temperature gradient gel electrophoresis