THE EMBRYONIC-DEVELOPMENT OF THE DROSOPHILA VISUAL-SYSTEM

被引:178
|
作者
GREEN, P [1 ]
HARTENSTEIN, AY [1 ]
HARTENSTEIN, V [1 ]
机构
[1] UNIV CALIF LOS ANGELES,DEPT BIOL,LOS ANGELES,CA 90024
关键词
VISUAL SYSTEM; PHOTORECEPTORS; OPTIC LOBE; BOLWIGS ORGAN; DEVELOPMENT; ONTOGENIC; DROSOPHILA SP; (INSECTA);
D O I
10.1007/BF00333712
中图分类号
Q2 [细胞生物学];
学科分类号
071009 ; 090102 ;
摘要
We have used electron-microscopic studies, bromodeoxyuridine (BrdU) incorporation and antibody labeling to characterize the development of the Drosophila larval photoreceptor (or Bolwig's) organ and the optic lobe, and have investigated the role of Notch in the development of both. The optic lobe and Bolwig's organ develop by invagination from the posterior procephalic region. After cells in this region undergo four postblastoderm divisions, a total of approximately 85 cells invaginate. The optic lobe invagination loses contact with the outer surface of the embryo and forms an epithelial vesicle attached to the brain. Bolwig's organ arises from the ventralmost portion of the optic lobe invagination, but does not become incorporated in the optic lobe; instead, its 12 cells remain in the head epidermis until late in embryogenesis when they move in conjunction with head involution to reach their final position alongside the pharynx. Early, before head involution, the cells of Bolwig's organ form a superficial group of 7 cells arranged in a 'rosette' pattern and a deep group of 5 cells. Later, all neurons move out of the surface epithelium. Unlike adult photoreceptors, they do not form rhabdomeres; instead, they produce multiple, branched processes, which presumably carry the photopigment. Notch is essential for two aspects of the early development of the visual system. First, it delimits the number of cells incorporated into Bolwig's organ. Second, it is required for the maintenance of the epithelial character of the optic lobe cells during and after its invagination.
引用
收藏
页码:583 / 598
页数:16
相关论文
共 50 条
  • [21] LOCALIZATION OF SEROTONIN IMMUNOREACTIVITY IN CEPHALOPOD VISUAL-SYSTEM
    KITOYAMASHITA, T
    HAGA, C
    HIRAI, K
    UEMURA, T
    KONDO, H
    KOSAKA, K
    BRAIN RESEARCH, 1990, 521 (1-2) : 81 - 88
  • [22] GIANT-LENS, A GENE INVOLVED IN CELL DETERMINATION AND AXON GUIDANCE IN THE VISUAL-SYSTEM OF DROSOPHILA-MELANOGASTER
    KRETZSCHMAR, D
    BRUNNER, A
    WIERSDORFF, V
    PFLUGFELDER, GO
    HEISENBERG, M
    SCHNEUWLY, S
    EMBO JOURNAL, 1992, 11 (07) : 2531 - 2539
  • [23] INVESTIGATION OF THE VISUAL-SYSTEM USING TRANSCRANIAL MAGNETIC STIMULATION
    MEYER, BU
    DIEHL, RR
    NERVENARZT, 1992, 63 (06): : 328 - 334
  • [24] Neurons with Cholinergic Phenotype in the Visual System of Drosophila
    Raghu, Shamprasad Varija
    Reiff, Dierk F.
    Borst, Alexander
    JOURNAL OF COMPARATIVE NEUROLOGY, 2011, 519 (01) : 162 - 176
  • [25] Neurons with GABAergic phenotype in the visual system of Drosophila
    Raghu, Shamprasad Varija
    Claussen, Jing
    Borst, Alexander
    JOURNAL OF COMPARATIVE NEUROLOGY, 2013, 521 (01) : 252 - 265
  • [26] ELECTROPHYSIOLOGY OF THE VISUAL-SYSTEM - FROM NEUROSCIENCE TO HUMAN NEUROPHARMACOLOGY
    SANNITA, WG
    NEUROPSYCHOBIOLOGY, 1995, 32 (04) : 208 - 213
  • [27] The Role of microRNAs in the Drosophila Melanogaster Visual System
    Colaianni, Davide
    De Pitta, Cristiano
    FRONTIERS IN CELL AND DEVELOPMENTAL BIOLOGY, 2022, 10
  • [28] EMBRYONIC-DEVELOPMENT OF THE TERRESTRIAL TURTLE TESTUDO-HERMANNI GMELIN, 1789
    GUYOT, G
    PIEAU, C
    RENOUS, S
    ANNALES DES SCIENCES NATURELLES-ZOOLOGIE ET BIOLOGIE ANIMALE, 1994, 15 (03): : 115 - 137
  • [29] GEOGRAPHIC-VARIATION IN EMBRYONIC-DEVELOPMENT TIME AND STAGE OF DIAPAUSE IN A GRASSHOPPER
    DINGLE, H
    MOUSSEAU, TA
    OECOLOGIA, 1994, 97 (02) : 179 - 185
  • [30] VISUAL AFTEREFFECTS AND THE CONSEQUENCES OF VISUAL-SYSTEM LESIONS ON THEIR PERCEPTION IN THE RHESUS-MONKEY
    SCHILLER, PH
    DOLAN, RP
    VISUAL NEUROSCIENCE, 1994, 11 (04) : 643 - 665