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A.M. Kulikov, F. Marec, V.G. Mitrofanov (2005)
The Effect of Population Density on the Dynamics of Elimination of a Recessive Lethal Mutation l(2)M167 DTS from Experimental PopulationsRus. J. Genet., 41
R. Lewontin, H. Baker, G. Stebbins (1965)
Selection for colonizing abilitty.
F. Lints, C. Lints (1971)
Influence of preimaginal environment on fecundity and ageing in Drosophila melanogaster hybrids. 3. Developmental speed and life-span.Experimental gerontology, 6 6
Yu.M. Svirezhev, V.P. Pasekov (1982)
Osnovy matematicheskoi genetiki
D. Marinkoviĉ (1967)
Genetic loads affecting fecundity in natural populations of Drosophila pseudoobscura.Genetics, 56 1
J. Sved (1971)
An estimate of heterosis in Drosophila melanogaster.Genetical research, 18 1
Vasil'eva La, Ratner Va, Bubenshchikova Ev (1997)
[Stress induction of retrotransposon transposition in Drosophila: reality of the phenomenon, characteristic features, possible role in rapid evolution]., 33
V. Molina, F. González-Candelas, J. Ménsua (1988)
Relationship between density- and frequency-dependent effects in two strains of Drosophila melanogasterGénétique, Sélection, Évolution, 20
B. Manly (1987)
The Statistics of Natural Selection on Animal PopulationsScience
M. Hemmat, P. Eggleston (1990)
Analysis of competitive interactions in triocultures of Drosophila melanogasterHeredity, 64
F.A. Lints, C.V. Lints (1971)
Influence of Preimaginal Environment on Fecundity and Ageing in Drosophila melanogaster HybridsExp. Gerontol., 6
J. Benedic, J. Franec (1981)
Evolution of Components of Fitness for Recessive Lethal Heterozygotes: I. Arrangement of the ModelScripta Fac. Sci. Nat. Univ. Purk. Brun., 11s.
A.M. Kulikov, F. Marec, V.G. Mitrofanov (2005)
Selection for Viability in Heterozygotes for the Recessive Lethal Mutation l(2)M167 DTS with a Domiant Temperature-Sensitive Effect in Experimental PopulationsRus. J. Genet., 41
G. Beadle, E. Tatum, C. Clancy (1938)
FOOD LEVEL IN RELATION TO RATE OF DEVELOPMENT AND EYE PIGMENTATION IN DROSOPHILA MELANOGASTERThe Biological Bulletin, 75
N.A. Kolchanov, Ye.A. Ananko, F.A. Kolpakov (2000)
Gene NetworksMol. Biol., 34
O. Kempthorne, E. Pollak (1970)
Concepts of fitness in mendelian populations.Genetics, 64 1
G. Ribó, J. Ocaña, A. Prevosti (1989)
Effect of larval crowding on adult mating behaviour in Drosophila melanogasterHeredity, 63
S. Otto, D. Bourguet (1999)
Balanced Polymorphisms and the Evolution of DominanceThe American Naturalist, 153
V.A. Gvozdev, L.Z. Kaidanov (1986)
Genome Variation Caused by Transposition of Mobile Elements and Fitness in Drosophila melanogasterZh. Obshch. Biol., 47
W. Alpatov (1932)
Egg production in Drosophila melanogaster and some factors which influence itJournal of Experimental Zoology, 63
A. Kulikov, F. Marec, V. Mitrofanov (2005)
The effect of population density on the elimination dynamics of a recessive lethal mutation l(2)M167DTS from experimental populations of Drosophila melanogasterRussian Journal of Genetics, 41
J. Curtsinger, F. Sheen (1991)
Frequency-dependent viability in mutant strains of Drosophila melanogaster.The Journal of heredity, 82 2
A. Moya, F. González-Candelas, J. Ménsua (2004)
Larval competition in Drosophila melanogaster: frequency-dependence of viabilityTheoretical and Applied Genetics, 75
Y. Cohet, J. David (2004)
Control of the adult reproductive potential by preimaginal thermal conditionsOecologia, 36
M.D. Golubovsky, E.S. Belyaeva (1985)
Mutation Outbursts in Nature and Mobile Genetic Elements: A Study of a Series of Alleles of the singed Locus in Drosophila melanogasterGenetika, 21
F. Lints, C. Lints (1971)
Influence of preimaginal environment on fecundity and ageing in Drosophila melanogaster hybrids. II. Preimaginal temperature.Experimental gerontology, 6 6
N.I. Andreev, S.I. Andreeva (2003)
Evolyutsionnye preobrazovaniya dvustvorchatykh mollyuskov Aral’skogo morya v usloviyakh ekologicheskogo krizisa
A. Kulikov, F. Marec, V. Mitrofanov (2005)
Selection on Viability of Individuals Heterozygous for the Temperature-Sensitive Lethal Mutation l(2)M167DTS in Experimental Populations of Drosophila melanogasterRussian Journal of Genetics, 41
R. Fisher (1931)
THE EVOLUTION OF DOMINANCEBiological Reviews, 6
W. Siddiqui, C. Barlow (1972)
Population Growth of Drosophila melanogaster (Diptera: Drosophilidae) at Constant and Alternating TemperaturesAnnals of The Entomological Society of America, 65
A.M. Kulikov, V.G. Mitrofanov (1990)
Features of Mating Behavior in Drosophila melanogaster Males Heterozygous for a Dominant Temperature-Sensitive Lethal MutationGenetika, 26
A. Kuznetsov, A. Kulikov (2005)
Recurrent model of the dependence of a recessive lethal mutation on fitness components and its solutionRussian Journal of Genetics, 41
Y. Cohet, J. David (1978)
Control of the Adult Reproductive Potential by Preimaginal Thermal Conditions: A Study of Drosophila melanogasterOecologia, 36
Terumi Mukai, Allan Burdick (1959)
Single Gene Heterosis Associated with a Second Chromosome Recessive Lethal in Drosophila Melanogaster.Genetics, 44 2
S.S. Chetverikov (1983)
Problemy obshchei biologii i genetiki (vospominaniya; stat’i; lektsii)
N. Timoféeff-ressovsky (1934)
Über die Vitalität einiger Genmutationen und ihrer Kombinationen beiDrosophila funebris und ihre Abhängigkeit vom „genotypischen“ und vom äußeren MilieuZeitschrift für Induktive Abstammungs- und Vererbungslehre, 66
Ching Li (1976)
First Course in Population Genetics
D. Marincovic (1967)
Genetic Loads Affecting Fecundity in Natural Populations of D. pseudoobscuraGenetics, 56
Kulikov Am, Mitrofanov Vg (1990)
[Mating behavior in Drosophila melanogaster males heterozygous for the dominant temperature-sensitive lethal mutation].Genetika, 26 2
A.M. Kulikov, F. Marec, V.G. Mitrofanov (2005)
The Effect of Male Competitiveness, Developmental Rate, and Viability of Drosophila melanogaster Larvae and Pupae Heterozygous for the Temperature-Sensitive Lethal Mutation l(2)M167 DTS on the Dynamics of Elimination of the Mutation from a PopulationRus. J. Genet., 41
N.P. Dubinin (1966)
Evolyutsiya populyatsii i radiatsiya
A. Kulikov, F. Marec, V. Mitrofanov (2005)
The Effect of Male Mating Competitiveness, Developmental Rate, and Viability of Larvae and Pupae in Drosophila melanogaster Heterozygous for the Temperature-Sensitive Lethal Mutation l(2)M167DTS on the Dynamics of the Mutation Elimination from the PopulationRussian Journal of Genetics, 41
V. Velkov (2002)
New Insights into the Molecular Mechanisms of Evolution: Stress Increases Genetic DiversityMolecular Biology, 36
G.Kh. Shaposhnikov (1961)
Specificity and Development of Adaptation to New Hosts in Aphids (Homoptera, Aphidodea) during Natural Selection: An Experimental StudyEntomol. Obozr., 40
A.E. Kuznetsov, A.M. Kulikov (2005)
A Recurrent Model of the Dependence of the Dynamics of Elimination of a Recessive Lethal on the Components of Fitness and a Method of Its SolutionRus. J. Genet., 41
M. Hemmat, P. Eggleston (1990)
The biometrical genetics of competitive parameters in Drosophila melanogasterHeredity, 64
F. Molina, F. Conzalez-Candelas, J.L. Mensua (1988)
Relationship between Density-and Frequency-Dependent Effects in Two Strains of Drosophila melanogasterGen. Selec. Evol., 20
J. Fernández, S. Rodríguez-Ramilo, A. Pérez-Figueroa, C. López-Fanjul, A. Caballero (2003)
LACK OF NONADDITIVE GENETIC EFFECTS ON EARLY FECUNDITY IN DROSOPHILA MELANOGASTER, 57
R.C. Lewontin (1965)
The Genetics of Colonizing Species
J. Sang (1950)
POPULATION GROWTH IN DROSOPHILA CULTURESBiological Reviews, 25
A.M. Kulikov, E.N. Myasnyankina (1994)
Influence of the Dominant Temperature-Sensitive Mutation l(2)M167 DTS on Fitness of Drosophila melanogaster Heterozygotes at Preimaginal Developmental StagesRus. J. Genet., 30
R. Lewontin (1974)
The Genetic Basis of Evolutionary Change
Elimination of the heat-sensitive l(2)M167 DTS mutation from artificial Drosophila melanogaster populations at constant temperature 25°C and various frequencies of the mutation in the parental generation was studied. Components of fitness of the l(2)M167 DTS mutation were estimated in the artificial populations by means of the recurrent model of the dependence of the frequency of this mutation in a given generation on its frequency in the previous generation. The model was solved by a numerical method with limitations on the values of some fitness components obtained in test experiments. According to the limitations and frequencies of the l(2)M167 DTS mutation, the leading role and limits of the variation in egg-to-adult viability and female fertility were determined. The previously suggested effect of the positive selection for viability of individuals heterozygous for l(2)M167 DTS was confirmed.
Russian Journal of Genetics – Springer Journals
Published: Jul 15, 2005
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