Access the full text.
Sign up today, get DeepDyve free for 14 days.
Loading next page...
/lp/wiley/effects-of-supportive-breeding-on-the-genetically-effective-population-RApd0y2AXx
References (37)
-
N. Ryman, G. Ståhl (1980)
Genetic changes in hatchery stocks of brown trout (Salmo trutta).Canadian Journal of Fisheries and Aquatic Sciences, 37
-
N. Ryman, F. Allendorf, G. Ståhl (1979)
Reproductive isolation with little genetic divergence in sympatric populations of brown trout (Salmo trutta).Genetics, 92 1
-
(1990)
From capture to reintroduction in just four yearsBiological Conservation, 59
-
JWPT (Jersey Wildlife Preservation Trust) (1990)
From capture to reintroduction in just four yearsOn the Edge, 59
-
N. Flesness (1977)
Gene pool conservation and computer analysisInternational Zoo Yearbook, 17
-
A. Carr (1987)
New perspectives on the pelagic stage of sea turtle developmentInternational Zoo Yearbook, 1
-
R. Waples, D. Teel (1990)
Conservation Genetics of Pacific Salmon I. Temporal Changes in Allele FrequencyConservation Biology, 4
-
S. Wright (1931)
Evolution in mendelian populationsBulletin of Mathematical Biology, 52
-
McNicholas J. (1989)
Round Island skinks back to Mauritius. SolitaireWildlife Preservation Trust Post-Training Newsletter, 1989
-
K. W. Corbin (1978)
Endangered birds: management techniques for preserving threatened speciesScience
-
B. C. Choudhury, S. Chowdhury (1986)
Lessons from crocodile reintroduction projects in IndiaInternational Zoo Yearbook, 112
-
N. R. Flesness (1977)
Gene pool conservation and computer analysisWildlife Preservation Trust Post-Training Newsletter, 17
-
M. Nei (1976)
Molecular population genetics and evolution.Frontiers of biology, 40
-
N. Ryman, F. Utter (1987)
Population Genetics and Fishery Management -
Wright S. (1931)
10.1111/j.1471-8286.2006.01560.xGenetics, 16
-
R. Lande, G. Barrowclough (1987)
Viable Populations for Conservation: Effective population size, genetic variation, and their use in population management -
T. Foose, J. Ballou (1987)
Management of small populationsInternational Zoo Yearbook, 27
-
(1987)
The IUCN position statement on translocation of living organisms: introductions, re‐introductions and re‐stockingZoo Biology
-
M. R. Brambell (1977)
ReintroductionIndian Forester, 17
-
F. Allendorf, R. Leary (1988)
Conservation and Distribution of Genetic Variation in a Polytypic Species, the Cutthroat TroutConservation Biology, 2
-
N. Ryman, R. Baccus, C. Reuterwall, Michael Smith (1981)
Effective Population Size, Generation Interval, and Potential Loss of Genetic Variability in Game Species under Different Hunting RegimesOikos, 36
-
(1979)
The introduction, re‐introduction and re‐stocking of species in Great Britain: some policy implications for nature conservation. Report by the Working Group on Introductions of the UK Committee for International Nature Conservation -
A. Templeton, H. Hemmer, G. Mace, U. Seal, W. Shields, D. Woodruff (1986)
Local Adaptation, Coadaptation, and Population BoundariesZoo Biology, 5
-
B. Choudhury, S. Chowdhury (1986)
Lessons from Crocodile Reintroduction Projects in IndiaThe Indian Forester, 112
-
R. Lande, G. F. Barrowclough (1987)
Viable populations for conservationTemporal changes of allele frequency. Conservation Biology
-
A. Carr (1987)
New Perspectives on the Pelagic Stage of Sea Turtle DevelopmentConservation Biology, 1
-
M. Soulé, M. Gilpin, W. Conway, T. Foose (1986)
The millenium ark: How long a voyage, how many staterooms, how many passengers?Zoo Biology, 5
-
(1981)
Ecological Bulletins 34, Editorial Service -
J. F. Crow, M. Kimura (1970)
An introduction to population genetics theoryScience
-
Brambell M. R. (1977)
10.1111/j.1748-1090.1977.tb00878.xInternational Zoo Yearbook, 17
-
Waples R. S. (1990)
Conservation genetics of Pacific salmon ITemporal changes of allele frequency. Conservation Biology, 4
-
F. Allendorf (1987)
Genetic management of hatchery stocks -
J. F. Crow (1954)
Statistics and mathematics in biologyOn the Edge
-
Mark Stromberg, M. Boyce (1986)
Systematics and conservation of the swift fox, Vulpes velox, in North AmericaBiological Conservation, 35
-
I. Stout, O. Frankel, M. Soulé (1983)
Conservation and EvolutionJournal of Wildlife Management, 47
-
B. Griffith, J. Scott, J. Carpenter, C. Reed (1989)
Translocation as a Species Conservation Tool: Status and StrategyScience, 245
-
R. Lande (1988)
Genetics and demography in biological conservation.Science, 241 4872
- Publisher
- Wiley
- Copyright
- "Copyright © 1991 Wiley Subscription Services, Inc., A Wiley Company"
- ISSN
- 0888-8892
- eISSN
- 1523-1739
- DOI
- 10.1111/j.1523-1739.1991.tb00144.x
- Publisher site
- See Article on Publisher Site
Abstract
Division of Population Genetics Stockholm Ilniversity S-106 9 1 Stockholm, Sweden LINDA LAIKRE Division of Population Genetics Stockholm University S-106 91 Stockholm,Sweden Introduction The genetically effective population size ( N E , )is a key parameter in conservation biology, because the rate o f inbreeding ( AF),and thereby the rate of loss of genetic heterozygosity, is proportional to the inverse of the effective number (AF = 1/2Ne; e.g., Crow & Kimura 1970). The importance of maintaining large effective sizes of natural and captive populations is reflected by the considerable fraction of the literature on biological conservation that focuses on that issue (e.g., Flesness 1977; Ryman & S t a l 1980; Ryman et al. 1981; Frankel & Soule 1981; Soule et al. 1986; Allendorf & Ryman 1987; Lande & Barrowclough 1987). This note addresses a problem in conservation genetics that, to our knowledge, has not been previously recognized: the reduction of the genetically effective population size that may result from breeding-release programs aimed at supporting natural populations. Typically, in such programs a fraction of the wild parents (or their offspring) are brought into captivity for reproduction or preferential survival, and the offspring are released into the natural habitat
Journal
Conservation Biology – Wiley
Published: Sep 1, 1991