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296 pages, Paperback
First published June 1, 1979
their will to understand scientific work is consistent with the scientific ethos. Their courage, and even brashness, in this undertaking reminds me of many scientific endeavors in which nothing stands in the way of the pursuit of an inquiry. (12)
Even if we do not agree with the details of this book, or if we find it slightly uncomfortable or even painful in places, the present work seems to me to be a step in the right direction toward dissipating the mystery that is believed to surround our activity. I feel certain that in the future many institutes and laboratories may well include a kind of in-house philosopher or sociologist. (14)
In examining the construction of facts in a laboratory, we have presented the general organisation of the setting as constituted by someone unfamiliar with science (Chapter 2); we showed how the history of some of the laboratory's achievements could be used to explain the stabilisation of a "hard" fact (Chapter 3); we then analysed some of the microprocesses by which facts are constructed, looking especially at the paradox of the term fact (Chapter 4); we then turned to the individuals in the laboratory in an attempt to make sense both of their careers and the solidity of their production (Chapter 5 ). (235)
We are not concerned with a sociological analysis in the functionalist tradition which tries to specify norms governing scientists' behaviour" (32)
our concern with the "social" is not confined to those nontechnical observations amenable to the application of sociological concepts such as norms or competition (32)
attempts to derive the existence of norms from the kind of material available to us are prone to major difficulties (Mulkay, 1975). In particular, we were unable to identify explicit appeal to the norms of science, except in very few instances. Some of these more nearly constituted an appeal to counternorms (189)
At best, norms simply delineate large-scale trends in behaviour; at worst, they simply refer to themes of ideological discourse (Mulkay, 1975). In either case, the explanatory power of norms falls well short of our objective of understanding both science and the scientists who make it. (189-90)
The complexity of these self-representations through economic or business metaphors contrasts sharply with the simplicity of norms. (191)
Scientists are thus interested in one another not because they are forced by a special system of norms to acknowledge others' achievements, but because each needs the other in order to increase his own production of credible information. (202-3)
Hagstrom was struck by the apparent absence of transfers of money. But this feature should not lead to the formulation of a model designed to preserve the existence of norms. Do scientists read each other out of deference to norms? Does one individual read a paper so as to force its author to read his work in return? Hagstrom's exchange system has the aura of a rather contrived fairy tale: scientists read papers as a matter of courtesy, and similarly thank their authors out of politeness. Let us look at one more example of scientific exchange in order to show that this view is needlessly complicated. (204)
The scheme which favours the deductive production of independently testable descriptions is oriented towards what has been called etic validation (Harris, 1968), that is, the audience who will ultimately assess the validity of a description is a community of fellow observers. The main advantage of this scheme is the comparative ease with which the reliability and replicability of descriptions can be assessed. By contrast, the scheme which favours the "emergence" of phenomenologically informed descriptions of social behaviour is most appropriately amenable to emic validation, that is, the ultimate decision about the adequacy of description rests with participants themselves. This has the advantage that descriptions produced by an observer are less likely to be mere impositions of categories and concepts which are alien to participants. At the same time, however, descriptions based on the categorical systems of participants in particular situations can provide problems for their generalisation to other situations. Furthermore, the observer remains accountable to a community of fellow observers in the sense that they provide a check that he has correctly followed procedures for emic validation. (39)
Construction [From Knorr]
Construction refers to the slow, practical craftwork by which inscriptions are superimposed and accounts backed up or dismissed. It thus underscores our contention that the difference between object and subject or the difference between facts and artefacts should not be the starting point of the study of scientific activity; rather, it is through practical operations that a statement can be transformed into an object or a fact into an artefact. (236)
Agonistic field [From Lyotard]
If facts are constructed through operations designed to effect the dropping of modalities which qualify a given statement, and, more importantly, if reality is the consequence rather than the cause of this construction, this means that a scientist's activity is directed, not toward "reality," but toward these operations on statements. The sum total of these operations is the agonistic field. (237)
Materialisation, or reification [From Satre]
Once a statement stabilises in the agonistic field, it is reified and becomes part of the tacit skills or material equipment of another laboratory. (238)
Credibility [From Bourdieu]
We used credibility to define the various investments made by scientists and the conversions between different aspects of the laboratory. Credibility facilitates the synthesis of economic notions (such as money, budget, and payoff) and epistemological notions (such as certitude, doubt, and proof). (238)
Circumstances [From Serres]
Circumstances (that which stands around) have generally been considered irrelevant to the practice of science. Our argument could be summarised as an attempt to demonstrate their relevance. Our claim is not just that TRF is surrounded, influenced by, in part depends on, or is also caused by circumstances; rather, we argue that science is entirely fabricated out of circumstance; moreover, it is precisely through specific localised practices that science appears to escape all circumstances… Rather than being a structure or an ordered pattern, a field consists only of positions which influence each other in a way which is not itself orderly. The notion of position enables us to talk about the "right" time, or the "right" assay, or in Habermas's (1971) terms, to replace the historicity in science. (240)
Noice [From Brillouin, Singh]
Noise (or, more exactly, the ratio of signal to noise), which is borrowed from information theory… but our usage is very metaphorical… we have retained the central idea that information is measured against a background of equally probable events (239-40).
The portrayal resulting from the above combination of concepts used throughout our argument has one central feature: the set of statements considered too costly to modify constitute what is referred to as reality. Scientific activity is not "about nature," it is a fierce fight to construct reality. The laboratory is the workplace and the set of productive forces, which makes construction possible. Every time a statement stabilises, it is reintroduced into the laboratory (in the guise of a machine, inscription device, skill, routine, prejudice, deduction, programme, and so on), and it is used to increase the difference between statements. The cost of challenging the reified statement is impossibly high. Reality is secreted. (243)
1. the history of science can be characterised as demonstrating the chain of circumstances and unexpected events leading to this or that discovery. However, this mass of events is not easily reconciled with the solidity of the final achievements.
2. sociologists have demonstrated the importance of informal communication in scientific activity. This well-documented phenomenon takes on a new meaning against the newly modified assumption: the production of new information is necessarily obtained by way of unexpected meetings, through old boy networks and by social proximity... Formal communication is the exception, as an a posteriori rationalisation of the real process.
3. citation analysts have demonstrated the extensive waste of energy in scientific activity. Most published papers are never read, the few that are read are worth little, and the remaining 1 or 2 percent are transformed and misrepresented by those who use them. But this waste no longer appears paradoxical if we accept the hypothesis that order is an exception and disorder the rule.
4. growing sociological interest in the details of negotiation between scientists has revealed the unreliability of scientists' memories and the inconsistency of their accounts. Each scientist strives to get by amid a wealth of chaotic events. Every time he sets up an inscription device, he is aware of a massive background of noise and a multitude of parameters beyond his control; every time he reads Science or Nature, he is confronted by a volume of contradictory concepts, trivia, and errors; every time he participates in some controversy, he finds himself immersed in a storm of political passions. This background is ever present, and it is only rarely that a pocket of stability emerges from it. The revelation of the diversity of accounts and inconsistency of scientific arguments should therefore come as no surprise: on the contrary, the emergency of an accepted fact is the rare event which should surprise us. (251-2)
The difference in credibility accorded the observer's and the informants' constructions corresponds directly to the extent of prior investments. Occasionally, when members of the laboratory derided the relative weakness and fragility of the observer's data, the observer pointed out the extent of the imbalance between the resources which the two parties enjoyed. "In order to redress this imbalance, we would require about a hundred observers of this one setting, each with the same power over their subjects as you have over your animals. In other words, we should have TV monitoring in each office; we should be able to bug the phones and the desks; we should have complete freedom to take EEGs; and we would reserve the right to chop off participants' heads when internal examination was necessary. With this kind of freedom, we could produce hard data." Inevitably, these kinds of remarks sent participants scurrying off to their assay rooms, muttering darkly about the "Big Brother" in their midst. (256-7)