Origins and future of Industry 4.0
At the University of Missouri’s Center for Eldercare and Rehabilitation Technology, professors of engineering and nursing hook up sensors to perform clever feats in medicine. Under a bed mattress occupied by a senior citizen in his or her home, four hydraulic transducers, each a flexible tube of water, together capture heart rate, respiration rate, overall cardiac activity and sleeping patterns. The transducers pick up the mechanical effect of blood circulation. Their purpose, once the data coming from them are analysed: to warn of impending heart failure.
On the other hand, Missouri’s Doppler radar sensors, when mounted in the home, monitor how fast a senior citizen is walking (‘gait speeds’). That should help doctors determine the risk of the person suffering a fall in future.
These medical applications of the Internet of Things (IoT) matter more than consumer ones. Still, the IoT has come to Western kitchens. An Amazon Echo or a Google Home can control several household gadgets – heating, security cameras – in a systematic way.
The big prize with the IoT, however, lies not in the home, nor even in medicine, but in industry, and especially in manufacturing. Described as the Industrial Internet of Things, or by the still more exotic phrase Industry 4.0 (I4.0), it is the application of the IoT, or ‘cyber-physical systems’, to factories, process industries and supply networks. Here as elsewhere, the IoT is about sensors, machine-to-machine connections, and means of analysing and acting upon the data unleashed.
At the Hanover Fair (2011) and the World Economic Forum (2016, under the broader concept of Fourth Industrial Revolution), I4.0 was born not as bottom-up technological progress, but as a top-down economic and political rehabilitation of industry in the wake of the financial disaster of 2008. It was a concept of global elites, but also a specially German one. Germany’s strengths in manufacturing still go alongside weakness compared to America in IT, and exorbitance compared to China in wages. In German hands, therefore, I4.0 quickly became popular, as Berlin upheld an industrial policy that favoured a renewed digitisation of factories, not least given trade competition from China, China’s purchases of German high-tech companies, and China’s reputed barriers to German businesses on the Chinese market.
The ambitions of I4.0 were also Teutonic. Unlike the plain vanilla IoT, an I4.0 production system is meant to include a detailed virtual engineering model covering perhaps hundreds of machines at home and abroad. It’s meant to be modular over hardware and software; integrate and analyse engineering data in real time; allow human beings to communicate with it easily, and be designed so that machines are able to make decisions on a decentralised basis.
By the time we hear that the components, machines and a full-on I4.0 production system must be self-aware and self-organising, the gap between the technological realities of I4.0 and the political hype around it is all too clear. Nevertheless, I4.0 ought to bring, to the West, more than much-needed improvements in productivity. With more sensors and better data about production processes and supply networks, designers should be able to look forward to higher finished product quality and reliability – important, given the spread of product returns afflicting consumer goods manufacturers nowadays. In the medium term, I4.0 should lead to significant product and system redesigns: provided that all the data picked up by both factories and by products in the field can be visualised, analysed and acted upon, it should should make for serious innovation.
In the longer term, the IoT ought to be supplemented and advanced by research collaborations around an international Internet of Ideas, as have now emerged in archaeology and astronomy. But, so far, it isn’t right to speak of the ‘rise’ of the more advanced capabilities that comprise I4.0. There’s merely a gradual diffusion of knowledge and technology, slowed by a crisis of capital investment in the West, and by the feeling that I4.0 immediately opens up industry to cyber-attacks.
For the present the IoT too often means sweating assets (for example, in oil and gas), postponing investments in maintenance, having quarrels over physical and data assets, and using, in shops, ‘video analytics’ to track shopper and employee conduct. In fact, however, the future with the IoT lies elsewhere – in actuators.
A Malaysian firm’s Kissenger app may show the way here. It uses a mobile phone add-on to sense the movement of your lips, transmit them in data form, and turn them, with the help of miniature linear actuators, into what the firm calls ‘a realistic kissing sensation’ for your partner.
A primitive application, yes; but all hail the Internet of Flings!
Articles grouped by Tag
Recent Tweets by @JamesWoudhuysen
Er, a shipping association said a Channel Bridge is a bad idea; a haulage association said spend the money on roads; an architect said it would be cheaper to move France closer to our coast. Really convincing arguments against any kind of AMBITION theguardian.com/politics/2018…
@peterlhill1 @spikedonline What about listing all the 1960s comedies that would now be banned? Till Death Us Do Part; Steptoe & Son; Benny Hill; possibly the two Ronnies… What else would be hit by the Photoshop Police of our youthful Stalins?
Great article! FRIENDS now held racist, multiphobic, etc. Yes, us youthful Puritans resolve to erase the very recent past, fear the future, hate old people and white men, and live only in what WE have created: THE PRESENT, and VICTIMHOOD bit.ly/2EXoSBd @spikedonline pic.twitter.com/sxoJ47xVfo
Union-assisted rationalisations have tamed labour costs, cut capex, upped margins. Now that 2 in every 5 VWs go to China, VW has managed to pay off $15bn of its $25bn emissions damages Yet cash rose from $21.5bn to $25.4bn, 2015-7. Mmm, FINANCIALISATION! ft.com/content/a12ec7…
Innovators I like
Robert Furchgott – discovered that nitric oxide transmits signals within the human body
Barry Marshall – showed that the bacterium Helicobacter pylori is the cause of most peptic ulcers, reversing decades of medical doctrine holding that ulcers were caused by stress, spicy foods, and too much acid
N Joseph Woodland – co-inventor of the barcode
Jocelyn Bell Burnell – she discovered the first radio pulsars
John Tyndall – the man who worked out why the sky was blue
Rosalind Franklin co-discovered the structure of DNA, with Crick and Watson
Rosalyn Sussman Yallow – development of radioimmunoassay (RIA), a method of quantifying minute amounts of biological substances in the body
Jonas Salk – discovery and development of the first successful polio vaccine
John Waterlow – discovered that lack of body potassium causes altitude sickness. First experiment: on himself
Werner Forssmann – the first man to insert a catheter into a human heart: his own
Bruce Bayer – scientist with Kodak whose invention of a colour filter array enabled digital imaging sensors to capture colour
Yuri Gagarin – first man in space. My piece of fandom: http://www.spiked-online.com/newsite/article/10421
Sir Godfrey Hounsfield – inventor, with Robert Ledley, of the CAT scanner
Martin Cooper – inventor of the mobile phone
Thomas Tuohy – Windscale manager who doused the flames of the 1957 fire
Eugene Polley – TV remote controls
George Devol – 'father of robotics’ who helped to revolutionise carmaking