EVOLUTION OF METAMERISM IN ARTHROPODA - DEVELOPMENTAL AND MORPHOLOGICAL PERSPECTIVES

被引:7
|
作者
ZRZAVY, J [1 ]
STYS, P [1 ]
机构
[1] CHARLES UNIV, DEPT ZOOL, CR-12844 PRAGUE 2, CZECH REPUBLIC
来源
QUARTERLY REVIEW OF BIOLOGY | 1995年 / 70卷 / 03期
关键词
D O I
10.1086/419072
中图分类号
Q [生物科学];
学科分类号
07 ; 0710 ; 09 ;
摘要
Processes governing metamerization and the subsequent differentiation of metameres are well known in Drosophila. It is little known, however, to what extent the metameric patterns in Drosophila can be extended to other arthropods and related metameric animals, how the known diversity of metameric patterns and processes should be evolutionarily interpreted, and what the relationship is between their morphological and developmental features. We review the aspects of Drosophila development that involve compartmentalization, parasegmentation, (meta)segmentation, patterns of muscle development, clonal composition of metameric domains, and the correspondence between clonally and/or genetically defined boundaries and adult structures. These regularities are compared with what little is known of these phenomena in other insects, crustaceans, millipedes, centipedes, onychophorans, and polychaete and clitellate annelids. Both parasegmental and metasegmental metamerism are probably characteristic of all the arthropods and annelids. Developmentally, the annelid segments (as well as segments of the hypothetical soft-bodied prearthropod ancestor) cannot be identified with parasegments (sensu Minelli and Bortoletto). The alleged primary segments (sensu Snodgrass) do not correspond to any identified developmental body metameres in arthropods, moreover, they are not recapitulated during ontogeny, and ''primary segmentation'' of longitudinal muscles (myosegmentation) seems to be evolutionarily as ''primary'' as parasegmentation and metasegmentation, while developmentally the latest of them. The anteriormost areas of the definite segments (metasegments) do not show any traces of being secondarily incorporated in these metasegments, as required by the established hypothesis of concurrent phylogenetic and ontogenetic switch from primary to secondary body segmentation.
引用
收藏
页码:279 / 295
页数:17
相关论文
共 50 条
  • [1] THE EVOLUTION OF THE ARTHROPODA
    TIEGS, OW
    MANTON, SM
    BIOLOGICAL REVIEWS OF THE CAMBRIDGE PHILOSOPHICAL SOCIETY, 1958, 33 (03): : 255 - 337
  • [2] Developmental mechanisms for morphological evolution
    Abzhanov, Arkhat
    FASEB JOURNAL, 2013, 27
  • [3] Female prostate: historical, developmental, and morphological perspectives
    Biancardi, Manoel F.
    dos Santos, Fernanda C. A.
    de Carvalho, Hernandes F.
    Sanches, Bruno D. A.
    Taboga, Sebastiao R.
    CELL BIOLOGY INTERNATIONAL, 2017, 41 (11) : 1174 - 1183
  • [4] DEVELOPMENTAL PERSPECTIVES ON EVOLUTION OF BUTTERFLY MIMICRY
    NIJHOUT, HF
    BIOSCIENCE, 1994, 44 (03) : 148 - 157
  • [5] Human brain evolution: Developmental perspectives
    Gibson, KR
    BIOLOGY & KNOWLEDGE REVISITED: FROM NEUROGENESIS TO PSYCHOGENESIS, 2005, : 123 - 143
  • [6] Developmental dissociation in morphological evolution of the stickleback opercle
    Kimmel, Charles B.
    Hohenlohe, Paul A.
    Ullmann, Bonnie
    Currey, Mark
    Cresko, William A.
    EVOLUTION & DEVELOPMENT, 2012, 14 (04) : 326 - 337
  • [7] Developmental constraints versus flexibility in morphological evolution
    PatrÍcia Beldade
    Kees Koops
    Paul M. Brakefield
    Nature, 2002, 416 : 844 - 847
  • [8] Developmental constraints versus flexibility in morphological evolution
    Beldade, P
    Koops, K
    Brakefield, PM
    NATURE, 2002, 416 (6883) : 844 - 847
  • [9] Angiosperm floral evolution: Morphological developmental framework
    Endress, Peter K.
    ADVANCES IN BOTANICAL RESEARCH: INCORPORATING ADVANCES IN PLANT PATHOLOGY, VOL 44: DEVELOPMENTAL GENETICS OF THE FLOWER, 2006, 44 : 1 - 61
  • [10] Learning, developmental plasticity and the evolution of morphological asymmetry
    Richard, Palmer A.
    INTEGRATIVE AND COMPARATIVE BIOLOGY, 2010, 50 : E132 - E132