[
Genetics,
2002]
This article marks the 25th anniversary of a paper reporting the first sex-determination mutants to be found in the nematode Caenorhabditis elegans. The isolation of these mutants initiated an extensive analysis of nematode sex determination and dosage compensation, carried out by a number of laboratories over the subsequent decades. As a result, the process of sex determination is now one of the most thoroughly understood parts of C. elegans development, in both genetic and molecular terms. It has also proved to have interesting repercussions on the study of sex determination in other organisms.
[
Stud Hist Philos Biol Biomed Sci,
2012]
This paper argues that the history of the computer, of the practice of computation and of the notions of 'data' and 'programme' are essential for a critical account of the emergence and implications of data-driven research. In order to show this, I focus on the transition that the investigations on the worm C. elegans experienced in the Laboratory of Molecular Biology of Cambridge (UK). Throughout the 1980s, this research programme evolved from a study of the genetic basis of the worm's development and behaviour to a DNA mapping and sequencing initiative. By examining the changing computing technologies which were used at the Laboratory, I demonstrate that by the time of this transition researchers shifted from modelling the worm's genetic programme on a mainframe apparatus to writing minicomputer programs aimed at providing map and sequence data which was then circulated to other groups working on the genetics of C. elegans. The shift in the worm research should thus not be simply explained in the application of computers which transformed the project from hypothesis-driven to a data-intensive endeavour. The key factor was rather a historically specific technology-in-house and easy programmable minicomputers-which redefined the way of achieving the project's long-standing goal, leading the genetic programme to co-evolve with the practices of data production and distribution.
[
Clin Med,
2003]
The recent award of a Nobel Prize to Sydney Brenner crowns an astonishingly distinguished scientific career. He must have come very close to winning it several times in the past. A colleague described him as 'a visionary who sees further into the future than anyone'. This is borne out by his decision - made 40 years ago - to study a one-millimetre long worm in detail to define the, biochemical and genetic control of its development and differentiation. The impact of these studies has been so profound, with a significant bearing on human physiology and disease, that over 400 laboratories worldwide have now adopted the worm as a research tool. In this article, a brief outline is given of his work on the worm and of some of the highlights of his brilliant career.
[
Genetics,
2015]
A little over 50 years ago, Sydney Brenner had the foresight to develop the nematode (round worm) Caenorhabditis elegans as a genetic model for understanding questions of developmental biology and neurobiology. Over time, research on C. elegans has expanded to explore a wealth of diverse areas in modern biology including studies of the basic functions and interactions of eukaryotic cells, host-parasite interactions, and evolution. C. elegans has also become an important organism in which to study processes that go awry in human diseases. This primer introduces the organism and the many features that make it an outstanding experimental system, including its small size, rapid life cycle, transparency, and well-annotated genome. We survey the basic anatomical features, common technical approaches, and important discoveries in C. elegans research. Key to studying C. elegans has been the ability to address biological problems genetically, using both forward and reverse genetics, both at the level of the entire organism and at the level of the single, identified cell. These possibilities make C. elegans useful not only in research laboratories, but also in the classroom where it can be used to excite students who actually can see what is happening inside live cells and tissues.