Picture of DNA strand

Pioneering chemical biology & medicinal chemistry through Open Access research...

Strathprints makes available scholarly Open Access content by researchers in the Department of Pure & Applied Chemistry, based within the Faculty of Science.

Research here spans a wide range of topics from analytical chemistry to materials science, and from biological chemistry to theoretical chemistry. The specific work in chemical biology and medicinal chemistry, as an example, encompasses pioneering techniques in synthesis, bioinformatics, nucleic acid chemistry, amino acid chemistry, heterocyclic chemistry, biophysical chemistry and NMR spectroscopy.

Explore the Open Access research of the Department of Pure & Applied Chemistry. Or explore all of Strathclyde's Open Access research...

Manufacturing at double the speed

Allwood, Julian M. and Childs, Tom H.C. and Clare, Adam T. and De Silva, Anjali K.M. and Dhokia, Vimal and Hutchings, Ian M. and Leach, Richard K. and Leal-Ayala, David R. and Lowth, Stewart and Majewski, Candice E. and Marzano, Adelaide and Mehnen, Jörn and Nassehi, Aydin and Ozturk, Erdem and Raffles, Mark H. and Roy, Raj and Shyha, Islam and Turner, Sam (2016) Manufacturing at double the speed. Journal of Materials Processing Technology, 229. 729–757. ISSN 0924-0136

[img]
Preview
Text (Allwood-etal-2016-Manufacturing-at-double-the-speed)
Allwood_etal_2016_Manufacturing_at_double_the_speed.pdf
Final Published Version
License: Creative Commons Attribution 4.0 logo

Download (6MB) | Preview

Abstract

The speed of manufacturing processes today depends on a trade-off between the physical processes of production, the wider system that allows these processes to operate and the co-ordination of a supply chain in the pursuit of meeting customer needs. Could the speed of this activity be doubled? This paper explores this hypothetical question, starting with examination of a diverse set of case studies spanning the activities of manufacturing. This reveals that the constraints on increasing manufacturing speed have some common themes, and several of these are examined in more detail, to identify absolute limits to performance. The physical processes of production are constrained by factors such as machine stiffness, actuator acceleration, heat transfer and the delivery of fluids, and for each of these, a simplified model is used to analyse the gap between current and limiting performance. The wider systems of production require the co-ordination of resources and push at the limits of human biophysical and cognitive limits. Evidence about these is explored and related to current practice. Out of this discussion, five promising innovations are explored to show examples of how manufacturing speed is increasing—with line arrays of point actuators, parallel tools, tailored application of precision, hybridisation and task taxonomies. The paper addresses a broad question which could be pursued by a wider community and in greater depth, but even this first examination suggests the possibility of unanticipated innovations in current manufacturing practices.