Are we ready for the first real automatons?
Are we ready for the first real automatons?
They were planning to put on a play written by an artificial intelligence programme in Prague, capital city of the Czech Republic, this month, to mark the invention of robots (or at least the idea of robots) in the same city exactly one hundred years ago. The coronavirus pandemic got in the way of that, and it will now only be available free online late next month. Kind of symbolic, really: the future is quite different than what they expected.
Karel Capek’s play, Rossum’s Universal Robots (RUR), was an instant hit in 1921. The imaginary “robots” (a Czech word meaning serfs or slave labourers) were developed to spare human beings hard work on assembly lines and death on battlefields, but in the end they rebelled and wiped out the human race.
The play was on Broadway by 1922, starring a young Spencer Tracy, and it was in London’s West End the following year. By 1938 it was the first science-fiction drama ever broadcast on TV, live on the BBC.
Whereas in the real world of a century later, robots still can’t even dance. The Capek brothers’ vision (it was Josef who came up with the name) hasn’t come true except in the movies.
It was the humanoid fallacy. In more recent movies human-seeming robots are even tragic figures, like Arnold Schwarzenegger’s version of the Terminator, or Roy Batty, the android anti-hero of Blade Runner, reminiscing sadly as he dies. “I’ve seen things you people wouldn’t believe. Attack ships on fire off the shoulder of Orion. I watched C-beams glitter in the dark near the Tannhäuser Gate. All those moments will be lost in time, like tears in rain. Time to die.”
Great stuff, but robot arms and self-driving vehicles don’t talk like that. Those are the real robots, and generally they don’t talk at all. And obviously they don’t wipe out the human race. Just the jobs.
Automation 1.0 replaced most of the workers on assembly lines with machines that didn’t make Monday-morning mistakes, didn’t join trade unions, didn’t even have to be paid. The factories are mostly still there, churning out goods, but the well-paid jobs are largely gone and the big industrial cities are decaying into ‘rust belts’.
Automation 2.0 is mostly online, and it’s focused on retail. The department stores were mostly gone even before Covid and the smaller shops are going now, swallowed up by Amazon and its many smaller rivals.
At least this time some new jobs are being created as well: minimum-wage, zero-hours jobs, mostly in warehouses, distribution centres and delivery services. The proportion of the population who are classed as “working poor” is growing in every developed countries, with political radicalisation the predictable result, so far mostly to the right.
Automation 3.0 is almost here, and the new targets this time will be managerial and professional jobs — not all of them, of course, but whole layers of middle management in business and lesser-skilled positions in medicine, law, accountancy and allied trades. Killer algorithms are rampaging through the community, and there’s not a Robocop in sight.
In fact, this pattern is familiar to those who study the history of the original industrial revolution in England. The goods — shoes, tools, woven and knitted clothing — that were produced by independent and skilled craftsmen and women with reasonable incomes in 1750 were being made in factories by low-skilled wage slaves with almost no bargaining power by 1850.
Three generations after that trade unions and the welfare state began to narrow the yawning gap between the rich and the rest again, and the latter half of the 20th century was the best time in a long time for ordinary people in most places. Now the human skills are once more being usurped by the machines and the gaps are opening up again.
We are not doomed to simply recapitulate the past. Knowing what worked and what didn’t last time could help us to avoid the worst outcomes this time. That’s why we are hearing a lot about “basic income” and expansions of the welfare state to ease the transition this time. But there’s not much actually happening — and we’re not even at “true” artificial intelligence yet.
We call anything that can do “machine-learning” artificial intelligence, but so far it’s just creating pseudo-cognitive skills in single quite narrow domains. The kind of broad-spectrum intelligence human beings have (or even dolphins, chimpanzees and crows) is not yet available in any machine, nor is the “Singularity” about to sweep us all away into irrelevance next week.
Real artificial intelligence will arrive in some form in the not-too-distant future, but predicting its social and political impact is hard. As hard as it would have been for the Capek brothers and their audience to foresee in 1921 what robotics would really mean for people in 2021.
Gwynne Dyer
Independent journalist
Gwynne Dyer is an independent journalist whose articles are published in 45 countries. His new book is ‘Growing Pains: The Future of Democracy (and Work)’.
Published at Sat, 30 Jan 2021 01:18:45 +0000
Novel deep learning system can predict cardiovascular risk from CT scans

Coronary artery calcification — the buildup of calcified plaque in the walls of the heart’s arteries — is an important predictor of adverse cardiovascular events like heart attacks. Coronary calcium can be detected by computed tomography (CT) scans, but quantifying the amount of plaque requires radiological expertise, time and specialized equipment.
In practice, even though chest CT scans are fairly common, calcium score CTs are not. Investigators from Brigham and Women’s Hospital’s Artificial Intelligence in Medicine (AIM) Program and the Massachusetts General Hospital’s Cardiovascular Imaging Research Center (CIRC) teamed up to develop and evaluate a deep learning system that may help change this.
The system automatically measures coronary artery calcium from CT scans to help physicians and patients make more informed decisions about cardiovascular prevention. The team validated the system using data from more than 20,000 individuals with promising results. Their findings are published in Nature Communications.
“Coronary artery calcium information could be available for almost every patient who gets a chest CT scan, but it isn’t quantified simply because it takes too much time to do this for every patient,” said corresponding author Hugo Aerts, PhD, director of the Artificial Intelligence in Medicine (AIM) Program at the Brigham and Harvard Medical School. “We’ve developed an algorithm that can identify high-risk individuals in an automated manner.”
Working with colleagues, lead author Roman Zeleznik, MSc, a data scientist in AIM, developed the deep learning system described in the paper to automatically and accurately predict cardiovascular events by scoring coronary calcium. While the tool is currently only for research purposes, Zeleznik and co-authors have made it open source and freely available for anyone to use.
“In theory, the deep learning system does a lot of what a human would do to quantify calcium,” said Zeleznik. “Our paper shows that it may be possible to do this in an automated fashion.”
The team began by training the deep learning system on data from the Framingham Heart Study (FHS), a long-term asymptomatic community cohort study. Framingham participants received dedicated calcium scoring CT scans, which were manually scored by expert human readers and used to train the deep learning system.
The deep learning system was then applied to three additional study cohorts, which included heavy smokers having lung cancer screening CT (NLST: National Lung Screening Trial), patients with stable chest pain having cardiac CT (PROMISE: the Prospective Multicenter Imaging Study for Evaluation of Chest Pain), and patients with acute chest pain having cardiac CT (ROMICAT-II: the Rule Out Myocardial Infarction using Computer Assisted Tomography trial). All told, the team validated the deep learning system in over 20,000 individuals.
Udo Hoffmann, MD, director of [email protected] who is the principal investigator of CT imaging in the FHS, PROMISE and ROMICAT, emphasized that one of the unique aspects of this study is the inclusion of three National Heart, Lung, and Blood Institute-funded high-quality image and outcome trials that strengthen the generalizability of these results to clinical settings.
The automated calcium scores from the deep learning system highly correlated with the manual calcium scores from human experts. The automated scores also independently predicted who would go on to have a major adverse cardiovascular event like a heart attack.
The coronary artery calcium score plays an important role in current guidelines for who should take a statin to prevent heart attacks.
This is an opportunity for us to get additional value from these chest CTs using AI. The coronary artery calcium score can help patients and physicians make informed, personalized decisions about whether to take a statin. From a clinical perspective, our long-term goal is to implement this deep learning system in electronic health records, to automatically identify the patients at high risk.”
Michael Lu, MD, MPH, Co-Author, Director of Artificial Intelligence, MGH’s Cardiovascular Imaging Research Center
Zeleznik, R., et al. (2021) Deep convolutional neural networks to predict cardiovascular risk from computed tomography. Nature Communications. doi.org/10.1038/s41467-021-20966-2.
Published at Fri, 29 Jan 2021 23:15:00 +0000
