To save content items to your account,
please confirm that you agree to abide by our usage policies.
If this is the first time you use this feature, you will be asked to authorise Cambridge Core to connect with your account.
Find out more about saving content to .
To save content items to your Kindle, first ensure no-reply@cambridge.org
is added to your Approved Personal Document E-mail List under your Personal Document Settings
on the Manage Your Content and Devices page of your Amazon account. Then enter the ‘name’ part
of your Kindle email address below.
Find out more about saving to your Kindle.
Note you can select to save to either the @free.kindle.com or @kindle.com variations.
‘@free.kindle.com’ emails are free but can only be saved to your device when it is connected to wi-fi.
‘@kindle.com’ emails can be delivered even when you are not connected to wi-fi, but note that service fees apply.
In the preceding chapters, we have shown that innovation must be seen from a different angle, i.e. as the result of an actively sustained, voluntary process that can be organized, rather than as an ex post judgement. Firms wishing to innovate must manage ‘innovation capabilities’, but what exactly does this mean? Which activities are involved, who should lead them and how can their performance be evaluated?
The aim of this chapter is to show that firms which try to develop their innovation capabilities must place a new emphasis on design activities. These must be carefully organized and managed, especially in the case of innovative design. Although they play a central role in most major industrial firms today, relatively little is documented about these design activities, which leads us to believe that they have not been studied in any great detail.
There are several reasons for focused exploration and analysis of design activities. If we try to identify the actors who contribute to innovation capabilities, we automatically think of the researchers and engineers in R&D departments, whose mission is indeed to contribute to innovation by designing products and processes. However, unless we want to restrict our study to technological innovation, we should also include industrial designers, a rapidly expanding category which has an increasing influence within firms today. We should also mention specialists in communications and semiotics, such as advertisers, brand designers, etc., and in certain cases user groups should also be included. All these actors have one thing in common: they design things.
The impact of globalization goes way beyond the issue of relocations of manufacturing plants. It throws firms into a new arena where competition is no longer based on product performance alone but also on the overall effectiveness of their innovation strategies. The authors' experience and the numerous discussions we had the privilege of taking part in over the past ten years enabled us to be involved in and put into practice many of the recommendations found here. The notion of organizing intensive innovation, the structuring of lineages of innovative products and the organizing of constantly evolving technological sectors have become management methods that place this ‘RID’ at the heart of the firm's strategy. One of its main advantages is to structure the long-term view whilst also giving the management sufficient confidence to manage the short and medium term.
Until the 1990s, teams in charge of managing innovation – the R&D and marketing departments – were expected to deliver results whilst roughly keeping to the specifications, timetables and budgets. This operating method was often project-based; it brought new products onto the market in satisfactory conditions and helped to keep challengers at bay. In western countries, companies managed to maintain their growth and profitability. However, outsiders then started to improve their performance: they acquired technological capacities and were quick to learn, meaning they were able to almost catch up with the innovators, who were then obliged to speed up the rate of product renewals. At the same time, the growing number of new technologies that firms had to master led to an explosion in the financial burden of innovation, introducing the need for far more rigorous management of R&D resources.
What do we know about innovation? Apart from inherited ideas and a host of scientific articles on the subject, do we now have a clear picture of the problems raised by innovation in firms today? To introduce the issue from a concrete foundation, we shall begin by describing a number of real case examples in which the authors have been personally involved and which became the starting point for several of the ‘innovation adventures’ described in greater detail later on in the book.
Contemporary innovation: received ideas versus facts
Mad ideas? Yes, but well-managed ones!
In the early 2000s, at Linköping University, Sweden, several research teams were working on a project to design unmanned aerial vehicles (UAVs) for traffic surveillance. For the project's promoters, the WITAS project was a ‘blue sky project’, i.e. aimed at stimulating the researchers' imaginations rather than designing a commercial product. The researchers' first objective was to venture off the beaten track usually trodden within their disciplines in the hope that such explorations would lead to the discovery of new concepts and alternatives for products or technologies. The research project had a substantial budget, sufficient to last several years, even though it did have a specific target for direct industrial application.
How can explorations be organized to ensure that they lead to high-value, profitable innovations such as the nail-holder, but without requiring costly learning processes? The sort of innovations which we think we could have invented ourselves. The first type of innovation field concerns this type of project. It aims to find a new value without having to make heavy investments in ‘science’ or conquer new technologies. There are many examples which fit into this category, such as customized mobile phone casings and ‘plip’ remote control car door locking systems. Projects of this sort can involve high technology, but only if its development can be planned – without surprises – or if it has already been developed. Such innovations rely heavily on user involvement, but user involvement is not a recipe in itself: it can be a solution, but it can also be a trap. In this chapter, we show how to deal with this type of apparently low-tech, high-user-value innovation.
Examples of creations of new product lineages in large firms
To illustrate the issues at stake in the context of different industries, we begin by examining the case of Telia, a Swedish telephone operator, which at the end of the 1990s was confronted with the problem of designing mobile telephone services for third generation (3G) technology. The technical norms for 3G were already well established at that time, but designers were wondering how to create value for customers.
Throughout this book we have described the key tools and organizing principles for innovative design. In this conclusion, we would like to bring the central themes into focus with a rapid overview of the main stages in our research itinerary. A few questions will serve as a thread and help understand the overall implications of our findings. How can we explain the emergence of RID in the long history of management? What does it tell us about how companies will be organized in the future? What impact does the development of innovative design tools and theories have on the major paradigms of the management sciences? Have new avenues of research been opened?
Each of these questions merits long developments, but here we will simply give a few indications for further reflection without going into detail or coming to any firm conclusions. In fact, our main aim here is to emphasize that the current progress in innovative design opens a wide debate on the evolution of contemporary management. The debate cannot be limited to a discussion on management techniques and, although we must discuss the impact of the tools used for innovative design, it is also important to carry out a wider analysis of the issue of innovation in management today. Management research is sufficiently mature to recognize that the current progress in terms of instruments and theories is ambivalent.
Should firms return to the ‘wild’ innovation model?
How can the R&D model be adapted to the contemporary challenges of innovation-intensive capitalism and become a model for innovative firms?
One solution is to return to ‘wild’ innovation, when firms set up small, unofficial teams of researchers working with limited resources, in the hope that by giving them more autonomy they will be able to explore new paths. In these rare forms of design organization, the firms count on serendipity, fortunate accidents and chance encounters in cross-functional teams, between wise experts who accept ideas from people throughout the firm as any suggestion can be worth investigating (Robinson and Stern 1997). The case of the Stephensons showed that wild innovation can be experimental and flexible; it can explore new ideas and create new values. However, wild innovation has its limits; it is in fact a poor model for the innovative firm, not least in comparison with the R&D model.
Although this type of organization can be interesting and can sometimes help new ideas emerge, it is never more than one element in a more general model, as we saw in our study of start-ups (see Avanti, Chapter 6), innovative firms (Chapter 4) and R&D-based firms (Chapter 7). Other issues must be dealt with, such as defining the functional spaces, launching the innovations and repeating them throughout lineages, and ensuring the gradual mastery of advanced technologies.
As in the previous chapter, an imaginary Innovation Manager will serve as a guide to the practical issues involved in adopting the potential model.
'The Tefal model is of course very attractive, but I can see lots of reasons why it wouldn't work in our company. For example, I like the idea of two-headed project management and agree that it is really important to make sure that technical experts and product experts work together and communicate well. But there are also very good reasons for keeping separate departments and letting them work on precise, well-defined objectives. Isn't it risky to change specifications all the time to keep up with the latest market information? I'm concerned that a two-headed management system might mean too much to-ing and fro-ing, with difficulties in controlling variety and with high coordination costs. I'm not convinced that designers will be any more productive working together just because there is a two-headed project management team.
'The same applies to the specifications. Having less restrictive specifications will of course improve flexibility, but once again, I'm concerned about things going too far, with problems regarding excessive variety or simply nonconformity.
'The product committee seems attractive too on the face of it, but how do you organize a meeting of nearly eighty people – including the top management – and ensure that there are healthy discussions and not just sterile debates about major strategic options that always end up being too vague?
We were very pleased to accept the authors' request to focus on the key prospects opened up by this book. Renault, which has a fruitful research partnership with the Ecole des Mines de Paris (CGS), was directly involved in the issues covered here.
For Renault, this research has already encouraged us to set up an Innovation Centre and to develop experimental innovative design tools; today it helps build more effective ‘front-end’ functions for the firm, in terms of innovation capability and value creation. We were also very pleased to find that the experience provided by Renault for this research contributed to the results described in this book. The research partnership was even the subject of a joint communication by Renault and the Ecole des Mines de Paris in 2005, by special invitation from the Annual Conference of the European Academy of Management.
The distinction between innovative design and rule-based design is doubtless the latest idea and the one which will have the most impact on the way design systems operate in the future. It helps build innovative design teams more effectively. They will, of course, be composed of designers, engineers, product managers, researchers, partner suppliers, etc. But above all, these teams will have a wider scope for exploration and research, whilst also being better organized and more involved in our sales projects. The major contribution of the C-K design theory developed by the Ecole des Mines is doubtless to reconcile these two notions.
Lucasian Professor of Mathematics at Cambridge and President of the Royal Society, Sir George Gabriel Stokes (1819–1904) made substantial contributions to the fields of fluid dynamics, optics, physics, and geodesy, in which numerous discoveries still bear his name. The Memoir and Scientific Correspondence of the Late Sir George Gabriel Stokes, Bart., edited by Joseph Larmor, offers rare insight into this capacious scientific mind, with letters attesting to the careful, engaged experimentation that earned him international acclaim. Volume 1 (1907) includes a memoir - culled from the reminiscences of family, friends, and colleagues - and letters, including early correspondence with Lady Stokes during the time of their engagement and early marriage. Professional correspondence covers Stokes' discoveries in the areas of spectroscopy, fluorescence, and colour vision. The result is an intimate portrait of a brilliant mathematician - both in the early stages of his career and at the height of his intellectual powers.
Originating from the Rede Lecture delivered at the University of Cambridge in November 1930, this book is based upon the conviction that the teachings and findings of astronomy and physical science are destined to produce an immense change on our outlook on the universe as a whole, and on views about the significance of human life. The author contends that the questions at issue are ultimately one for philosophical discussion, but that before philosophers can speak, science should present ascertained facts and provisional hypotheses. The book is therefore written with these thoughts in mind while broadly presenting the fundamental physical ideas and findings relevant for a wider philosophical inquiry.
Originally published in 1942, this book discusses an emerging physical science that brought with it a fresh message as to the fundamental nature of the world, and of the possibilities of human free will in particular. The aim of the book is to explore that territory, which forms a borderland between physics and philosophy. The author seeks to estimate the philosophical significance of physical developments, and the interest of his enquiry extends far beyond technical physics and philosophy. Some of the questions raised touch everyday human life closely: can we have knowledge of the world outside us other than that what we can gain by observation and experiment? Is the world spiritual and psychological or material in its ultimate essence; is it better likened to a thought or to a machine? Are we endowed with free will, or are we part of a vast machine that must follow its course until it finally runs down?
Published in 1934 as a second edition to James Jeans' popular work on the general understanding of the physical universe, The New Background of Science took advantage of a comparatively 'quiescent' period in physical investigation when fundamental theories and findings gained wide acceptance. Jeans' aim in writing this book was to depict this 'situation in broad outline and in the simplest possible terms. I have drawn my picture against a roughly sketched background of rudimentary philosophy... because I believe, in common with most scientific workers, that without a background of this kind we can neither see our fresh knowledge as a consistent whole, nor appreciate its significance to the full.'
Sir Ernest Rutherford (1871–1937) was a New Zealand-born physicist who has become known as the 'father of nuclear physics' for his discovery of the so-called planetary structure of atoms. He was awarded the Nobel Prize in Chemistry in 1908. His co-authors, James Chadwick and Charles D. Ellis also made significant discoveries in the field of nuclear physics, with Chadwick discovering the neutron particle in 1932. Research in nuclear physics in the 1930s had become focused on investigating the natures of alpha, beta and gamma radiation and their effects on matter and atomic structure. This volume provides a definitive account of the state of research into these types of radiation in 1930, explaining the theory and process behind inferring the structure of the atom and the structure of the nucleus. The text of this volume is taken from a 1951 reissue of the 1930 edition.
The Growth of Physical Science is a detailed but very accessible survey of what began as natural philosophy and culminated in the mid-twentieth century as quantum physical science. From the earliest physical investigations of nature made by the various civilisations of Babylonia, Phoenicia and Egypt (a period covering 5000–600 BC), through the remarkable mathematical and philosophical achievements of the ancient Greeks, to the ages of Newton and then Einstein, Rutherford and Bohr, Jeans has written a comprehensive history of this tremendous advancement in our understanding of the universe, one that will appeal to a broad range of readers interested in this subject.