The EU´s falling share in global manufacturing has fuelled concerns about an overall loss of EU competitiveness, in particular vis-à-vis China. We analyse the empirical evidence underlying these concerns by applying a newly developed decomposition technique to global input-output data spanning the years 2000 to 2014. Our results confirm the diminishing role of the EU in manufacturing value chains, but also show that this is mostly, by nearly 75 per cent, a consequence of the geographical and sectoral reallocation of global demand, reflecting the lower economic growth in the EU relative to the rest of the world. Still, the other almost 25 per cent of the EU’s loss of global share is explained by its lower participation in manufacturing value chains, which confirms a downturn in EU competitiveness. By extending the analysis to individual manufacturing activities we show that this general trend is more pronounced for low-tech (e.g. textiles) than high-tech sectors, with pharmaceuticals emerging as the most resilient EU industry. Policy concerns appear to be most warranted for electronics, a key sector for which the EU´s global share fell even more than for overall manufacturing, without evidence that EU value added from upstream service inputs could significantly mitigate this trend.

This article identifies a major transformation in India's approach to strategic technology development from an earlier Commission model, epitomized by atomic energy, that seeks the enhancement of sovereign power, to a Mission model, epitomized by telecommunications, directed toward the furthering of biopolitical power. It compares five strategic industries in India—atomic energy, space, electronics, biotechnology and telecommunications—and shows that no single factor is responsible for technological success or failure. Outcomes depend on the strength of political networks, the structure and maturity of the industry, the extent of bureaucratic resistance, and the technological strategy adopted. This finding contests the widely held perspective that success in strategic technology development is the product of the extraordinary efforts of a single individual, a technology “czar,” and explains the persistence of this narrative by highlighting the role of technoscience in mediating a highly ambivalent relation between the Indian middle class and the state.

The term electronic nose describes an electronic system that is able to mimic the human sense of smell. Electronic noses have been developed over the last 10 or more years to perform a variety of identification tasks in various industries. More recently electronic noses have attracted new interest in their application in the field of medical diagnosis. The aim of this study is to explore the use of an electronic nose to identify and classify pathogens associated with ear, nose and throat (ENT) infections. In this study 90 bacterial swab samples were collected from 90 patients with ENT infections. Some of these samples were analysed immediately with a commercial electronic nose (Cyranose C320). Similar numbers of swabs were also taken from the same site of infection and were sent for microbiology culture and sensitivity. The electronic nose diagnosis was compared with the microbiology diagnosis and it was found that the electronic nose diagnosis was correct in 88.2 per cent of the cases, which is an encouraging result.

This brief article describes the content of the August 2003 issue of MRS Bulletin focusing on Advanced Fabrics. The six articles will feature reviews of advanced fibers, new fabric constructions and design considerations, materials for novel fabric properties, and the incorporation of new elements within fabric structures to add multifunctional, wearable features to clothing.

In this paper, we shall outline the reasons why the installation of shipborne equipment, which enables vessels to be positively identified from the shore and from other vessels, is so important and necessary. We shall also describe the latest innovations in this field and propose minimum standards for a transponder system.

After a brief overview of Loran-C system operation and performance, the present situation of the system in Europe is described. Loran-C is now in operation under the NELS agreement in north-western Europe in newly established chain configurations with old and new transmitter positions. Parallel to Loran-C the Russian equivalent, Chayka, is also operating, with three chains in Europe. There is an agreement between Norway and Russia concerning cooperation and possibly joint chain operations between the two system providers in the north; similar agreements in the Baltic and Mediterranean/Black Sea areas are being worked on. The situation around the Iberian peninsula has not yet been clarified. Being the only long/medium-range terrestrial system in Europe in the 2000+ time frame, Loran-C could be seen as a supplement to satellite systems. Due to the good penetration properties of its low-frequency signals, it can be used in many circumstances where satellite systems fail because of limited satellite visibility. Integration of Loran-C and (differential) satellite receivers, where Loran-C is calibrated by the satellite system as long as there are enough visible satellites, could in fact give the best of both worlds. For this reason, Loran-C is being considered in the perspective of a future international, civil satellite navigation system, initiated in Europe.