John Forge

Some features of physical science relevant for a discussion of physical explanation are mentioned. The D-N account of physical explanation is discussed, and it is seen to restrict the scope of explanation in physical science because it imposes the requirement that the explanandum must be deducible from the explanans. Analysis shows that an alternative view of scientific explanation, called the instance view, allows a wider range of physical explanations. The view is seen to be free from a certain class of counter examples to the D-N theory

By using the concept of a uniformity, the Structuralists have given us a most useful means of representing approximations. In the second section of this paper, I have made use of this technique to show how we can deal with errors of measurement — imprecise explananda — in the context of theoretical explanation. As well as (I hope) providing further demonstration of the power of the Structuralist approach, this also serves to support the ontic conception of explanation by showing that it can help us resolve substantial problems in the theory of explanation

I ask whether weapons research is ever justified. Weapons research is identified as the business of the engineer. It is argued that the engineer has responsibility for the uses to which the tools that he designs can be put, and that responsibility extends to the use of weapons. It is maintained that there are no inherently defensive weapons, and hence there is no such thing as ‘defensive’ weapons research. The issue then is what responsibilities as a professional the engineer has in regard to such research. An account is given to ground the injunction not to provide the means to harm as a duty for the engineers. This account is not, however, absolutist, and as such it allows justifiable exceptions. The answer to my question is thus not that weapons research is never justified but there must be a strong assurance that the results will only be used as a just means in a just cause.

An account of physical explanation derived from the instance view of scientific explanation is outlined, and it is shown that this account does not cover explanations by theories which contain theoretical functions. An alternative account, also derived from the instance view, is proposed on the basis of Sneed's account of theories. It is shown that this account does cover theoretical explanations. Finally, it is shown that this account can accommodate explananda that record errors of measurement.

Glymour's account of confirmation is seen to have paradoxical consequences when applied to the confirmation of theories containing theoretical functions. An alternative conception of instances derived from Sneed's reconstruction of physical theories is conjoined with the instance view of confirmation to produce an account of confirmation that avoids these problems. The topic of selective confirmation is discussed, and it is argued that theories containing theoretical functions are not selectively confirmable

When Fat Boy, the first atomic bomb was detonated at Los Alamos, New Mexico in 1945, moral responsibility in science was forever thrust into the forefront of philosophical debate. The culmination of the famed Manhattan Project, which employed many of the world's best scientific minds, was a singular event that signaled a new age of science for power and profit and the monumental responsibility that these actions entailed. Today, the drive for technological advances in areas such as pharmaceuticals, biosciences, communications, and the defense industry channels the vast majority of scientific endeavor into applied research. In _The Responsible Scientist,_ John Forge examines the challenges of social, moral, and legal responsibility faced by today's scientists. Focusing on moral responsibility, Forge argues that scientists have a responsibility not to do work that has harmful outcomes and that they are encouraged to do work that prevents harm. Scientists also have a backward-looking responsibility, whereby they must prevent wrongful outcomes and omissions that they are in a position to foresee. Forge presents a broad overview of many areas of scientific endeavor, citing the responsibility of corporations, employees, and groups of scientists as judged by the values of science and society's appraisals of actions and outcomes. He maintains that ultimate responsibility lies in the hands of the individual-the responsible scientist-who must exhibit the diligence and foresight to anticipate the use and abuse of his or her work.

This is a challenging book and it addresses important questions. This review has focused on what I think is the most important question of all: just what is the relationship between the ‘strategies’ which drive modern science and the social values which guide the societies we live in. I have much sympathy with the way in which Lacey tries to answer this question and how he tries to open up alternative possibilities and give us a view of the future which is not just a continuing catalogue of environmental disaster ‘for the relief of man's estate’. However, I have expressed doubts as to whether he has been entirely successful in this regard, especially concerning the alternatives to the materialist strategies

ConclusionI think it is clear that Bqm and Oqm are quite different theories, even if they have the same empirical consequences. This is, of course, to adopt something like the realist perspective. Oqm is not normally interpreted realistically by physicists (the survey still has not been done!) but it can be, and what it says things are like is by no means the same as what Bqm says. One of the most puzzling features of Oqm is the status of the particle when it is in an eigenstate of momentum: if it has no precise position how can it be anywhere at all, and if it isn’t anywhere how can it be said to exist? The great advantage of Bqm is that it restores definite trajectories.The books under review, on which I have based this exposition, are all to be recommended. I am particularly impressed with Peter Holland’s book and assure the reader that it will repay study. The collection by Cushinget al. is, on the whole, better than most in that it is consistently focused on the advertised theme, but it is mostly technical. Cushing’s book is the most accessible of the three volumes.

This paper is about structuralism as a form of reconstructing theories, associated with the work Sneed, Balzar and Moulines among others, and not about "structuralism" is any of its other manifold senses. The paper is a reflection in that it looks back on some earlier work of my own on the subject of structuralism and explanation, in which I argued that structuralism and my 'instance view' of explanation go well together, with structuralism providing the means to develop the idea of a theoretical instance. Bartelborth has suggested a view that has some similarity with my early ideas, so I reflect on those as well. I suggest, in opposition to both positions, that a causal account of explanation might also sit well with structuralism. This paper will appear in a special edition of Synthese edited by Moulines and devoted to structuralism themes

The institutionalization of History and Philosophy of Science as a distinct field of scholarly endeavour began comparatively earl- though not always under that name - in the Australasian region. An initial lecturing appointment was made at the University of Melbourne immediately after the Second World War, in 1946, and other appoint ments followed as the subject underwent an expansion during the 1950s and 1960s similar to that which took place in other parts of the world. Today there are major Departments at the University of Melbourne, the University of New South Wales and the University of Wollongong, and smaller groups active in many other parts of Australia and in New Zealand. "Australasian Studies in History and Philosophy of Science" aims to provide a distinctive publication outlet for Australian and New Zealand scholars working in the general area of history, philosophy and social studies of science. Each volume comprises a group of essays on a connected theme, edited by an Australian or a New Zealander with special expertise in that particular area. Papers address general issues, however, rather than local ones; parochial topics are avoided. Further more, though in each volume a majority of the contributors is from Australia or New Zealand, contributions from elsewhere are by no means ruled out. Quite the reverse, in fact - they are actively encour aged wherever appropriate to the balance of the volume in question.

Just wars are supposed to be proportional responses to aggression: the costs of war must not greatly exceed the benefits. This proportionality principle raises a corresponding ‘interpretation problem’: what are the costs and benefits of war, how are they to be determined, and a ‘measurement problem’: how are costs and benefits to be balanced? And it raises a problem about scope: how far into the future do the states of affairs to be measured stretch? It is argued here that weapons innovation always introduces costs, and that these costs cannot be determined in advance of going to war. Three examples, the atomic bomb, the AK-47 and the ancient Greek catapult, are given as examples. It is therefore argued that the proportionality principle is inapplicable prospectively. Some replies to the argument are discussed and rejected. Some more general defences of the proportionality principle are considered and also rejected. Finally, the significance of the argument for Just War Theory as a whole is discussed.