Social structure of the mound-building mouse Mus spicilegus revealed by genetic analysis with microsatellites

被引:64
作者
Garza, JC
Dallas, J
Duryadi, D
Gerasimov, S
Croset, H
Boursot, P
机构
[1] UNIV MONTPELLIER 2,LAB GENOME & POPULAT,CNRS,UPR 9060,F-34095 MONTPELLIER 5,FRANCE
[2] UNIV MONTPELLIER 2,INST SCI EVOLUT,F-34095 MONTPELLIER 5,FRANCE
[3] INST ZOOL,SOFIA,BULGARIA
关键词
sociality; parentage; Mus; relatedness; kin selection; microsatellites;
D O I
10.1046/j.1365-294X.1997.00278.x
中图分类号
Q5 [生物化学]; Q7 [分子生物学];
学科分类号
071010 ; 081704 ;
摘要
The Mound-building mouse Mus spicilegus possesses a unique behaviour amongst mice. It constructs large earthen mounds and associated nesting chambers which serve to store food for immature individuals during the winter nesting period. We have used genetic analysis of four autosomal and four X-linked microsatellite loci to determine relationships between individuals inhabiting 40 mounds in Bulgaria. We show that, in almost all cases, individuals in a mound are the product of multiple parentage. We estimate the minimum number of males and female parents contributing offspring to each mound and demonstrate that at least two male and two female parents contribute offspring to a minimum of seven mounds. Analyses of relatedness coefficients and allele sharing values demonstrate that parents of different sibships within mounds are more related than if they had been chosen at random from the population and suggest that it is the female parents that contribute this excess relatedness. These results suggest that the mechanism by which individuals congregate to build mounds is kin-based and that the evolution of mound building and communal nesting in M. spicilegus is due in part to kin selection. This study represents a novel approach to the study of mammalian behavioural ecology. We have used a genetic dataset to construct an outline of social structure in the absence of behavioural data. These inferences can now be used to direct further work on this species.
引用
收藏
页码:1009 / 1017
页数:9
相关论文
共 32 条
[1]   THE EVOLUTION OF COOPERATION [J].
AXELROD, R ;
HAMILTON, WD .
SCIENCE, 1981, 211 (4489) :1390-1396
[2]   LIFE-HISTORY AND BIOECONOMY OF THE HOUSE MOUSE [J].
BERRY, RJ ;
BRONSON, FH .
BIOLOGICAL REVIEWS, 1992, 67 (04) :519-550
[3]  
Bulmer M., 1994, THEORETICAL EVOLUTIO
[4]   WHY COOPERATE - GAME-THEORY AND KIN SELECTION [J].
CREEL, S .
TRENDS IN ECOLOGY & EVOLUTION, 1993, 8 (02) :71-72
[5]   ESTIMATION OF MICROSATELLITE MUTATION-RATES IN RECOMBINANT INBRED STRAINS OF MOUSE [J].
DALLAS, JF .
MAMMALIAN GENOME, 1992, 3 (08) :452-456
[6]   POPULATION SUBDIVISION AND GENE FLOW IN DANISH HOUSE MICE [J].
DALLAS, JF ;
DOD, B ;
BOURSOT, P ;
PRAGER, EM ;
BONHOMME, F .
MOLECULAR ECOLOGY, 1995, 4 (03) :311-320
[7]   A GENETIC-MAP OF THE MOUSE WITH 4,006 SIMPLE SEQUENCE LENGTH POLYMORPHISMS [J].
DIETRICH, WF ;
MILLER, JC ;
STEEN, RG ;
MERCHANT, M ;
DAMRON, D ;
NAHF, R ;
GROSS, A ;
JOYCE, DC ;
WESSEL, M ;
DREDGE, RD ;
MARQUIS, A ;
STEIN, LD ;
GOODMAN, N ;
PAGE, DC ;
LANDER, ES .
NATURE GENETICS, 1994, 7 (02) :220-245
[8]  
DURYADI D, 1993, THESIS U MONTPELLIER
[9]  
Festetics A., 1961, Z-Saugefcierk, V26, P112
[10]  
GARZA JC, 1995, MOL BIOL EVOL, V12, P594