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M Lucas (1974)
Pigments in MolluscaConchiglia, 6
AR Palmer (1984)
Species cohesiveness and genetic control of shell color and form in Thais emarginata (Prosobranchia, Muricacea): preliminary resultsMalacologia, 25
Y Yusa (2004)
Inheritance of color polymorphism and the pattern of sperm competition in the apple snail Pomacea canaliculata (Gastropoda: Ampullariidae)J. Moll. Stud., 70
LM Cook, JMB King (1966)
Some data on the genetics of shell-character polymorphism in the snail Arianta arbustorumGenetics, 53
A Comfort (1949)
Acid-soluble pigments of shellsBiochem. J., 44
G Lewis (1975)
Shell polymorphism in the snail Cochlicella acuta (Muller) and some data on its geneticsBiol. J. Lin. Soc., 7
EV Kozminskii, AI Granovich, SO Sergievskii (1995)
Inheritance of shell color traits in Littorina saxatilis (Olivi) (Gastropoda: Prosobranchia)Tr. Zool. Inst. Ross. Akad. Nauk, 264
SO Sergievskii, AI Granovich, EV Kozminskii (1995)
Color polymorphism of Littorina saxatilis (Olivi) shell: classification principlesTr. Zool. Inst. Ross. Akad. Nauk, 264
DL Leighton (1961)
Observations of the effect of diet on shell coloration in the red abalone, Haliotis rufescens SwainsonVeliger, 4
ME Lobashev (1967)
Genetika
RT Dillon (1998)
The inheritance of golden, a shell color variant of Marisa cornuarietisMalacol. Rev., 31-32
MG Murray, WF Thompson (1980)
Rapid isolation of high molecular weight plant DNANucleic Acids Res., 8
JF Barker (1968)
Polymorphism in West African snailsHeredity, 23
T Ino (1949)
The effect of food on growth and coloration of the torshell (Turbo cornutus Solander)J. Mar. Res., 8
E Lamy (1928)
La ponte chez les gastéropodes prosobranchesJ. Conch. (Paris), 72
G Hedegaard, J-F Bardeau, D Ghateigner (2006)
Molluscan shell pigments: an in situ resonance Raman studyJ. Moll. Stud., 72
T Komai, S Emura (1955)
A study of population genetics of the polymorphic land snail Bradybaena similarisEvolution, 9
IG Paterson, V Partrige, J Buckland-Nicks (2001)
Multiple paternity in Littorina obtusata (Gastropoda, Littorinidae) revealed by microsatellite analysesBiol. Bull., 200
MM Tikhomirova (1990)
Geneticheskii analiz
V Berovides, G Valdes (1986)
Polimorfismo genetico de Polymita picta roseolimbata Torre, 1950 en la region De Maisi, CubaCarib. J. Sci., 22
J Murray (1975)
Invertebrates of Genetic Interest, vol. 3 of Handbook of Genetics
CAG Nass (1959)
The χ2 test for small expectations in contingency tables, with special reference to accidents and absenteeismBiometrika, 46
B Baur (1994)
Multiple paternity and individual variation in sperm precedence in the simultaneously hermaphroditic land snail Arianta arbustorumBehav. Ecol. Sociobiol., 35
EV Kozminskii, PA Lezin, MV Fokin (2008)
A methodology of studying the inheritance of shell color in mollusks of the genus Littorina (Gastropoda, Prosobranchia)Zool. Zh., 87
RM Albuquerque de Matos (1984)
Genetics of shell ground color in Helix aspersa: 1. Color locus, uniform and their interactionsHeredity, 53
T Asami, K Ohbayashi, K Seki (1997)
The inheritance of shell color in the land snail Bradybaena pellucidaVenus, 56
D Neumann (1959)
Farbmusterumschlag auf der MolluskenschaleExperientia, 15
T Kobayashi, I Kawahara, O Hasekura, A Kijima (2004)
Genetic control of bluish shell color variation in the Pacific abalone, Haliotis discus hannaiJ. Shellfish Res., 23
EV Kozminskii, PA Lezin (2007)
Pigment distribution in the shell of gastropod mollusk Littorina obtusata (Linnaeus, 1758)Russ. J. Mar. Biol., 33
DG Reid (1996)
Systematics and Evolution of Littorina
RM Albuquerque de Matos (1984)
Genetics of shell ground color in Helix aspersa: 2. Albino, its mutations and interactionsHeredity, 53
J Murray, B Clarke (1976)
Supergenes in polymorphic land snails: 1. Partula taeniataHeredity, 37
J Murray, B Clarke (1976)
Supergenes in polymorphic land snails: 2. Partula suturalisHeredity, 37
We investigated in a gastropod mollusk Littorina obtusata (L. obtusata) the inheritance of back-ground shell coloration of the shell, which arises on the basis of three pigments: purple, orange, and yellow. We found that the hypothesis on polyallelic inheritance, as in the genus Cepaea, cannot explain the inheritance of shell color in periwinkles. We demonstrated that a separate genetic system is responsible for incorporation of each pigment into the shell. The composition of these genetic systems includes at least two genes each in the case of the yellow and purple pigments. Our analysis shows that caution should be applied when extending the results obtained in the studies of the Cepaea genus to the other species of gastropods.
Russian Journal of Genetics – Springer Journals
Published: Oct 23, 2014
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