W. Miller – författare

Many countries are currently exploring the option to dispose of highly radioactive solid wastes deep underground in purpose built, engineered repositories. A number of surface and shallow repositories for less radioactive wastes are already in operation. One of the challenges facing the nuclear industry is to demonstrate confidently that a repository will contain wastes for so long that any releases that might take place in the future will pose no significant health or environmental risk.One method for building confidence in the long-term future safety of a repository is to look at the physical and chemical processes which operate in natural and archaeological systems, and to draw appropriate parallels with the repository. For example, to understand why some uranium orebodies have remained isolated underground for billions of years. Such studies are called ''natural analogues''.This book investigates the concept of geological disposal and examines the wide range of natural analogues which have been studied. Lessons learnt from studies of archaeological and natural systems can be used to improve our capabilities for assessing the future safety of a radioactive waste repository.

This is a book about political values - socialist, nationalist, liberal and democratic values - in five former communist countries: Russia, Ukraine, Hungary, Slovakia and the Czech Republic. Based on eleven surveys involving extended interviews with 7350 members of the public and 504 Members of Parliament it provides an authoritative account of the extent to which politicians and the public in East Central Europe and the Former Soviet Union have rejected communist ideals and adopted nationalist and/or liberal democratic values.

This is a book about political values - socialist, nationalist, liberal and democratic values - in five former communist countries: Russia, Ukraine, Hungary, Slovakia and the Czech Republic. Based on eleven surveys involving extended interviews with 7350 members of the public and 504 Members of Parliament it provides an authoritative account of the extent to which politicians and the public in East Central Europe and the Former Soviet Union have rejected communist ideals and adopted nationalist and/or liberal democratic values.

From 1979 to 1997 Britain was a laboratory for experiments in local governance as the control and delivery of local services was switched from elected councils to appointed boards (quangos), private companies or self-management. This book is about four models of local governance: the traditional 'localist' model, the New Right's 'individual' model, the New Left's 'mobilisation' model, and government's own 'centralist' model. It tests them against public opinion as expressed in 2203 interviews with ordinary citizens, 788 with councillors, and 902 with members of appointed boards.

From 1979 to 1997 Britain was a laboratory for experiments in local governance as the control and delivery of local services was switched from elected councils to appointed boards (quangos), private companies or self-management. This book is about four models of local governance: the traditional 'localist' model, the New Right's 'individual' model, the New Left's 'mobilisation' model, and government's own 'centralist' model. It tests them against public opinion as expressed in 2203 interviews with ordinary citizens, 788 with councillors, and 902 with members of appointed boards.

From 1979 to 1997 Britain was a laboratory for experiments in local governance as the control and delivery of local services was switched from elected councils to appointed boards (quangos), private companies or self-management. This book is about four models of local governance: the traditional ''localist'' model, the New Right''s ''individual'' model, the New Left''s ''mobilisation'' model, and government''s own ''centralist'' model. It tests them against public opinion as expressed in 2203 interviews with ordinary citizens, 788 with councillors, and 902 with members of appointed boards.

Activity in any theoretical area is usually stimulated by new experimental techniques and the resulting opportunity of measuring phenomena that were previously inaccessible. Such has been the case in the area under consideration here beginning about fifteen years ago when the possibility of studying chemical reactions in crossed molecular beams captured the imagination of physical chemists, for one could imagine investigating chemical kinetics at the same level of molecular detail that had previously been possible only in spectroscopic investigations of molecular stucture. This created an interest among chemists in scattering theory, the molecular level description of a bimolecular collision process. Many other new and also powerful experimental techniques have evolved to supplement the molecular beam method, and the resulting wealth of new information about chemical dynamics has generated the present intense activity in molecular collision theory. During the early years when chemists were first becoming acquainted with scattering theory, it was mainly a matter of reading the physics literature because scattering experiments have long been the staple of that field. It was natural to apply the approximations and models that had been developed for nuclear and elementary particle physics, and although some of them were useful in describing molecular collision phenomena, many were not. The most relevant treatise then available to students was Mott and Massey''s classic The Theory of Atomic Collisions, * but, as the title implies, it dealt only sparingly with the special features that arise when at least one of the collision partners is a molecule.

Activity in any theoretical area is usually stimulated by new experimental techniques and the resulting opportunity of measuring phenomena that were previously inaccessible. Such has been the case in the area under consideration here beginning about fifteen years ago when the possibility of studying chemical reactions in crossed molecular beams captured the imagination of physical chemists, for one could imagine investigating chemical kinetics at the same level of molecular detail that had previously been possible only in spectroscopic investigations of molecular stucture. This created an interest among chemists in scattering theory, the molecular level description of a bimolecular collision process. Many other new and also powerful experimental techniques have evolved to supplement the molecular beam method, and the resulting wealth of new information about chemical dynamics has generated the present intense activity in molecular collision theory. During the early years when chemists were first becoming acquainted with scattering theory, it was mainly a matter of reading the physics literature because scattering experiments have long been the staple of that field. It was natural to apply the approximations and models that had been developed for nuclear and elementary particle physics, and although some of them were useful in describing molecular collision phenomena, many were not. The most relevant treatise then available to students was Mott and Massey's classic The Theory of Atomic Collisions, * but, as the title implies, it dealt only sparingly with the special features that arise when at least one of the collision partners is a molecule.

Despite an enormous investment of effort throughout the world, cancer is still a major barrier to human longevity. Cancer deaths are estimated to be more than five million globally. Currently responsible for about 20% of all deaths in developed coun­ tries, the burden of cancer is steadily increasing in the developing world, following the control of malnutrition and infectious and parasitic diseases. Deeply impressed by the report of the Symposium on Geographic Pathology and Demography of Cancer held at Oxford in 1950, and through his preliminary work on cancer mortality statistics in Japan, Professor M. Segi decided to devote his life to the fight against cancer by establishing worldwide comparative cancer statistics-one of the landmarks in cancer studies and in cancer prevention strategies. He and his associates published six volumes of Cancer Mortality in 24 Countries with reliable mortality statistics covering 1950-1967, using the world population which he had derived as a standard. These publications rapidly became standard works of reference on the subject throughout the world. Professor Segi was a pioneer of cancer epidemiology in Japan. He cleaved a path through the jungle of cancer using epidemiological methods. By promoting cancer studies, he overcame the poor understanding of malignant disease which existed after World War II, when cancer mortality rates were still low.

Activity in any theoretical area is usually stimulated by new experimental techniques and the resulting opportunity of measuring phenomena that were previously inaccessible. Such has been the case in the area under consideration he re beginning about fifteen years aga when the possibility of studying chemical reactions in crossed molecular beams captured the imagination of physical chemists, for one could imagine investigating chemical kinetics at the same level of molecular detail that had previously been possible only in spectroscopic investigations of molecular stucture. This created an interest among chemists in scattering theory, the molecular level description of a bimolecular collision process. Many other new and also powerful experimental techniques have evolved to supplement the molecular be am method, and the resulting wealth of new information about chemical dynamics has generated the present intense activity in molecular collision theory. During the early years when chemists were first becoming acquainted with scattering theory, it was mainly a matter of reading the physics literature because scattering experiments have long been the staple of that field. It was natural to apply the approximations and models that had been developed for nuclear and elementary particle physics, and although some of them were useful in describing molecular collision phenomena, many were not.

Activity in any theoretical area is usually stimulated by new experimental techniques and the resulting opportunity of measuring phenomena that were previously inaccessible. Such has been the case in the area under consideration he re beginning about fifteen years aga when the possibility of studying chemical reactions in crossed molecular beams captured the imagination of physical chemists, for one could imagine investigating chemical kinetics at the same level of molecular detail that had previously been possible only in spectroscopic investigations of molecular stucture. This created an interest among chemists in scattering theory, the molecular level description of a bimolecular collision process. Many other new and also powerful experimental techniques have evolved to supplement the molecular be am method, and the resulting wealth of new information about chemical dynamics has generated the present intense activity in molecular collision theory. During the early years when chemists were first becoming acquainted with scattering theory, it was mainly a matter of reading the physics literature because scattering experiments have long been the staple of that field. It was natural to apply the approximations and models that had been developed for nuclear and elementary particle physics, and although some of them were useful in describing molecular collision phenomena, many were not.