apeiron
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Further examples of actual papers that some cannot be bothered to read because their views are already decided...
http://bib.oxfordjournals.org/cgi/reprint/2/3/258
http://bib.oxfordjournals.org/cgi/reprint/2/3/258
With the availability of quantitative data on the transcriptome and proteome level, there is an increasing interest in formal mathematical models of gene expression and regulation. International conferences, research institutes and research groups concerned with systems biology have appeared in recent years and systems theory, the study of organisation and behaviour per se, is indeed a natural conceptual framework for such a task. This is, however, not the first time that systems theory has been applied in modelling cellular processes. Notably in the 1960s systems theory and biology enjoyed considerable interest among eminent scientists, mathematicians and engineers. Why did these early attempts vanish from research agendas? Here we shall review the domain of systems theory, its application to biology and the lessons that can be learned from the work of Robert Rosen.
The work of Robert Rosen is important in that he not only identified
the weaknesses of our common approach to represent natural systems but he also
outlined a possible way to transcend the reactive paradigm in order to obtain
representations of anticipatory systems.
One of Rosen's achievements is that he introduced a formalism rich enough in entailment to allow final causation without implying teleology. The conceptual framework in which he developed his relational biology is category theory.
His conceptual framework arose from a criticism of the transfer of principles of Newtonian physics to biology. It is in this context that his work deserves renewed interest in the postgenome era of biology and bionformatics. One of the challenges for the emerging field of systems biology is then to link abstract mathematical models, like for example (M,R)-systems, to specific current problems of genomics. An important difference from the 1960s is the availability of three types of gene expression data at different levels: genome level (sequences), transcriptome level (microarrays) and proteome level (mass spectroscopy, gel techniques).