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果蝇翅成虫盘的区域划分与生长控制

Compartments and the control of growth in the Drosophila wing imaginal disc.

作者信息

Martín Francisco A, Morata Ginés

机构信息

Centro de Biología Molecular CSIC-UAM, Madrid 28049, Spain.

出版信息

Development. 2006 Nov;133(22):4421-6. doi: 10.1242/dev.02618. Epub 2006 Oct 11.

DOI:10.1242/dev.02618
PMID:17035294
Abstract

The mechanisms that control organ growth are among the least known in development. This is particularly the case for the process in which growth is arrested once final size is reached. We have studied this problem in the wing disc of Drosophila, the developmental and growth parameters of which are well known. We have devised a method to generate entire fast-growing Minute(+) (M(+)) discs or compartments in slow developing Minute/+ (M/+) larvae. Under these conditions, a M(+) wing disc gains at least 20 hours of additional development time. Yet it grows to the same size of Minute/+ discs developing in M/+ larvae. We have also generated wing discs in which all the cells in either the anterior (A) or the posterior (P) compartment are transformed from M/+ to M(+). We find that the difference in the cell division rate of their cells is reflected in autonomous differences in the developmental progression of these compartments: each grows at its own rate and manifests autonomous regulation in the expression of the developmental genes wingless and vestigial. In spite of these differences, ;mosaic' discs comprising fast and slow compartments differentiate into adult wings of the correct size and shape. Our results demonstrate that imaginal discs possess an autonomous mechanism with which to arrest growth in anterior and posterior compartments, which behave as independent developmental units. We propose that this mechanism does not act by preventing cell divisions, but by lengthening the division cycle.

摘要

控制器官生长的机制是发育过程中了解最少的机制之一。在达到最终大小后生长就会停止的过程中尤其如此。我们在果蝇的翅芽中研究了这个问题,其发育和生长参数是众所周知的。我们设计了一种方法,在发育缓慢的Minute/+(M/+)幼虫中生成整个快速生长的Minute(+)(M(+))翅芽或隔室。在这些条件下,一个M(+)翅芽获得了至少20小时的额外发育时间。然而,它生长到与在M/+幼虫中发育的Minute/+翅芽相同的大小。我们还生成了翅芽,其中前(A)或后(P)隔室中的所有细胞都从M/+转变为M(+)。我们发现,它们细胞分裂速率的差异反映在这些隔室发育进程的自主差异中:每个隔室都以自己的速率生长,并在发育基因无翅和残翅的表达中表现出自主调节。尽管存在这些差异,但由快速和缓慢隔室组成的“镶嵌”翅芽分化为大小和形状正确的成虫翅膀。我们的结果表明,成虫翅芽具有一种自主机制,可在前部和后部隔室中停止生长,这些隔室表现为独立的发育单位。我们提出,这种机制不是通过阻止细胞分裂起作用,而是通过延长分裂周期起作用。

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