
EU’s AI Act: Why do we need it?
Part 1: The age of artificial intelligence (AI)
The EU is currently in the process of debating a proposed law that is known generally as EU’s AI Act. This law is being debated in a political and intellectual context whose complexities are not always transparent to a large number of those affected. Often these complexities deal with notions and artefacts that are simultaneously familiar and opaque. The result is a slipperiness of issues that can cloud what is at stake in the sporadically contentious and voluble debates around artificial intelligence (AI) in general and the EU’s attempt to regulate the sector, through its AI Act, in particular. Yet, depending on how far into the future one wants to see, this debate can be momentous in political, legal, ethical or even existential terms.
Context: the age of artificial intelligence
In 2021 the UK government declared ours to be the ‘the age of artificial intelligence‘ (OAI 2021). It issued a national strategy to make the country an AI superpower by 2031. In this the UK was only doing what others had done earlier. In 2017 China had issued a State Council Notice that boldly declared the country’s intention to seize the ‘first-mover advantage’ in the development of AI because, the Notice stated, ‘the rapid development of artificial intelligence (AI) will profoundly change human society and life and change the world’ (Webster et al 2017). By March 2021 the United States’ National Security Commission on Artificial Intelligence was concerned enough to state that ‘China is a competitor possessing the might, talent and ambition to challenge America’s technological leadership, military superiority, and its broader position in the world’ (NSCAI 2021). Thus, in the past half-decade the AI race amongst nations has begun to boil over.
In this climate, Vincent C. Müller points out there has been no dearth of ‘reports and white papers’ and also ‘good-will slogans (“trusted/responsible/humane/human-centred/good/beneficial AI”)’ (Müller 2023). However, the EU was the first political entity to propose to legislate on the subject in 2021 while other political powers, such as the U.S.A. and China, with overwhelmingly significant presence in the AI field, had chosen to issue regulations and guidelines but not legislation. Even though in August 2023 China once again moved ahead of the field to push through a law on Generative AI (Roberts and Hine 2023), the EU’s proposal retains a special significance for democratic societies everywhere. This is because the varying approaches amongst nations are underpinned by deep and far-reaching attitudes and assumptions about the role of technology in society today.
Against this background, this series of blogs uses the text and deliberations made available by the EU’s proposed AI Act as a starting point to explore the meaning and challenge of artificial intelligence to society. To consider the nature of the challenge, it is useful to begin with defining what is covered by the term artificial intelligence.
What is Artificial Intelligence (AI)?
The difficulties in defining AI can be gauged from the fact that between April 2021, when the initial proposal (Proposal from here on) for this legislation was drafted by the European Commission, and June 2023, when the European Council and the European Parliament got involved in a ‘trilogue’ to hammer out the Act’s final wording, three different definitions of AI emerged from the three bodies.
In April 2021, the Proposal had simply defined an AI system for the purposes of regulation as ‘software that is developed with one or more of the techniques and approaches’ (AI Act 2022, 16h53 199/681) [emphasis mine] that the Proposal had listed in Annex I of the draft legislation.
In June 2023, however, to capture the fast-paced changes that had occurred in the field, the European Parliament, which represents the people of the member states of the EU, widened the definition from software alone to say that ‘(AI system) means a machine-based system’ (AI Act 2022, 16h53 199/681) [emphasis mine]. In its turn, the European Council, which represents the member states, proposed a definition that expanded even further to say that an ‘artificial intelligence system (AI system) means a system’ (AI Act 2022, 16h53 199/681) [emphasis mine]. This reflects the difficulty of encompassing the very wide range of technologies that have evolved under the umbrella term ‘artificial intelligence’ which can be software alone, or software incorporated in machines like robots, or software incorporated in other larger systems that have both AI and non-AI parts. This is why all three bodies have ultimately chosen to stress that ‘Artificial intelligence is a fast evolving family of technologies‘ (AI Act 2022, 16h53 11/681) [emphasis mine].
In terms of use, AI systems are already all around us. In the majority of the Western world they can form part of the lifeworlds in administration of justice, autonomous transportation, dangerous jobs like mining, domestic spaces, education, gaming and virtual reality, healthcare, industrial manufacturing, military, policing, repairing and enhancing the human body, robotics, security, Smarthomes, space exploration, space travel, and most recently, and controversially, the creative industries (Anguiano and Beckett 2023).
This dizzying variety makes it arduous to create general rules and regulations that address the full implications of using AI in all of the situations where they are currently being deployed, and the new uses of the technology that are being developed on an equally regular basis. More pressingly, the risks and dangers posed by some AI technologies are under-appreciated or even, due to their resemblance with human behaviours, hard to control even when recognised.
Under the circumstances, classifying AI systems by the risk they pose is an emerging strategy for creating differentiated regulatory systems by political authorities. However, as a recent report pointed out, classifying AI on the basis of risks posed is less straightforward than might be assumed. The report asserted that for a full 40% of the AI systems, it was difficult to define whether they fell into the high-risk category or not (IAAI 2023). When experts are daunted by the task of classifying and regulating AI, it is only natural for the layperson to feel out of their depth.
At the same time, the speed and reach of these technologies is already such that the task of shaping a societal response to them cannot be left to some unspecified point in the future. If a wider public response to them is to be meaningful, rather than guided by elite discourse alone, there is a need to ensure that the ordinary citizen can understand these technologies in their context. That is the only guarantee that both policy and action from all actors involved will converge to promote wider human welfare. Ultimately, ‘policy is not just an implementation of ethical theory, but subject to societal power structures … ‘ (Müller 2023). Without adequate public awareness of the issues and options, ‘[T]here is … a significant risk that regulation will remain toothless in the face of economical and political power’ (Müller 2023).
The historical development of artificial intelligence technologies
To fully appreciate the nature and extent of what is involved in dealing with this family of technologies, this may be an opportune moment to take a brief look at the incredible journey it has traversed in the past 70 years or so, which has helped to inveigle the AI family into the daily lives of a great number of human beings without the majority even being aware of it.
It was in the 1940s that scientists, who had until then concentrated on developing computers that could calculate faster and faster, began to report on research that could map the working of the human brain in mathematical terms. The phenomenal potential of this possibility excited neuroscientists and mathematicians alike. Some consider the crucial idea for the future development of artificial intelligence to have come from a paper titled ‘A logical calculus of the ideas imminent in nervous activity‘ by Warren S. McCulloch and Walter H. Pitts in 1943.
In this paper, McCulloch and Pitts put forward ideas that could help to solve the age-old ‘Mind-Brain problem’ (MBP) in philosophy and science both. The MBP revolves around the notion that the intangible processes that constitute the human mind (thoughts and consciousness) can be explained through the physical activities of the human brain (which is accessible to researchers and machines for replicable investigations). Although this paper was very far from providing the techniques such as ‘neural mapping’, ‘machine intelligence’ and ‘complex system dynamics’ that are part of AI researchers’ repertoire today, it sparked ideas that would wind their way through many iterations to culminate in the current state of AI (Issit 2020b).
From this point on, it was possible for researchers to look into reducing thoughts, opinions, judgements and views held by particular individuals to some series of simple mathematical propositions such as ‘A equals B’. These kinds of simplified data could be handled by machines that essentially worked by making simple calculations at astronomical speeds with more and more data connecting the data points into complex patterns that defied clear unravelling by humans due to the sheer speed at which the data points were connected.
To give an extremely simplistic hypothetical example:
- the data point ‘person A has the same preferences as person B’ [from the dataset ‘similarities and differences amongst the employees of Company X’] connects to
- data point ‘B prefers toast to eggs’ [from the dataset ‘social media chat about food preferences in the UK’] connects to
- data point ‘toast is made of wheat’ [from the dataset ‘grain components of main food types consumed in the UK’] connects to
- data point ‘the Ukraine war has pushed the price of wheat up’ [ from the dataset ‘the impact of the Ukraine war’] connects to
- data point ‘food prices in the UK have gone up’ [from the dataset ‘the impact of the Ukraine war in the UK’]
- which can provide A’s boss with the insight that A’s recent loss of energy may be due to increased food bills that she has to manage.
In 1943, however, this kind of scenario was perhaps not even imagined, though the seeds for its possibility were sown by McCulloch and Pitts by suggesting that the ‘mind can be reproduced computationally’.
Another one of the varied routes that would lead to the present-day family of AI was also pioneered in the 1940s. In 1949 William Grey Walter produced a mechanical ‘tortoise’ that had been modelled to mimic complex behaviour not in humans but in animals. Rather grandiosely, these automated animal robots were called Machina speculatrix or, in a more fun way, simply ‘tortoise’. Walter’s article about his inventions was presciently titled ‘An imitation of life‘. The robots, at a very primitive level, did just that: they imitated behaviour of sentient beings, without having any sensory data themselves. They could indicate ‘hunger’, or ‘cry’ or ‘dance’ merely in response to electrical/mechanical/mathematical stimuli. They were machines that could seem alive. Walter may well have been unaware that this illusion of sorts would have implications that the EU’s AI act is trying to grapple with three-quarters of a century later.
Moving forward, the following two decades saw researchers take these insights into new directions. Herbert Alexander Simon, Allen Newell and John Clifford Shaw achieved the goal of making a computer ‘think’. Using a program called ‘Logical Theorist’ and employing the concept of ‘heuristic problem solving’, these researchers showed that a computer programmed in a certain way could make decisions that allowed it to prove 38 of the first 52 theorems in chapter 2 of the mathematical tome Principia Mathematica. This computer was not just imitating sentient behaviour; it was applying given principles of logic to solve complex problems. It was still very far from the thinking capacities of a human being but the question to ask was: were these machines imitating not just human behaviour but also human thinking? If so, was the hitherto somewhat mystical substance of a person’s ‘consciousness’ – intangible thoughts and reasoning – now grounded in a knowable, replicable algorithm that was open to human manipulation?
Yet, the computers lacked practical applications beyond research and academia and these questions were rarely asked by the general public. It was robotics with its promise or threat, depending on one’s point of view, that made more of an impression on the public’s consciousness. Nevertheless, the study of AI flourished in elite academic circles. In 1956 the first conference on AI took place. It was organised by pioneers Marvin Minsky, John McCarthy and Claude Shannon. The term ‘artificial intelligence’, credited to McCarthy, was also used at this conference. The institutionalisation of the discipline was reflected in the establishment of the first department for AI research at Massachusetts Institute of Technology (MIT) in 1959 (Issit 2020b).
‘Computing, machinery and intelligence’
In the UK, meanwhile, in a seminal article written in 1950, Alan Turing, often described as the father of modern computing, set out a detailed scenario of ‘digital computers’ that could be programmed to behave like ‘learning machines’ or ‘child machines’. At the heart of his vision was the idea of reducing the communication processes involved in teaching and learning amongst humans to a set of repeated codes or instructions such that the end result was not always the same fixed answer but rather the answer was always achieved through the same process.
Turing, however, went further in his imagination and envisioned the complexity produced by such a ‘learning’ programme to be used for communicative purposes that had hitherto been considered the most distinguishing trait or characteristic of humanity, setting it apart from all other animate and inanimate beings. An example game described by him in this article has since come to be known as the ‘Turing Test‘
that is still used for testing how successfully a computer can make a human believe that they are communicating with another human being. In this, Turing changed the idea of artificial intelligence from a ‘structural’ to a ‘performance-based’ concept; the test of such intelligence was how it was experienced by the recipient rather than what kind of hardware or software needed to be incorporated to replicate human mental processes exactly (Issit 2020a). Most crucially, however, Turing hoped ‘that machines will eventually compete with men in all purely intellectual fields’ (Turing 1950).
In his article, Turing also laid out two different ways in which thinking and learning machines that competed with ‘men’ intellectually could be built: the first was to equip ‘digital computers’ with reasoning power as described earlier. To do this, they needed to be taught like humans teach each other. Here Turing gave the example of ‘Miss Helen Keller‘ which to him showed that all that is needed for ‘education’ to ‘take place’ is that ‘communication in both directions between teacher and pupil can take place by some means or the other’. He specifically clarified that there was no need for ‘legs, eyes etc.’ for educating someone to be ‘supercritical’. Being ‘supercritical’, which clearly comes across as a laudable objective in the article, is reflected in having a mind which, when presented with an idea, can ‘give rise to a whole “theory”‘. Turing asked with no hesitation, ‘Can a machine be made to be supercritical?‘ (Turing 1950).
The second path briefly touched on in the article was ‘to provide the machine with the best sense organs that money can buy, and then teach it to understand and speak English’. This process of combining ‘sensory data’ with ‘machine parts’ may be developing somewhat differently in recent years with computer chips having been implanted in human brains in some recent experiments for therapeutic reasons. The point to note here is that this process allowed for the manipulation of human behaviour though, it must be stressed, this was at present was for therapeutic reasons only (Harari 2016, p. 334). The concerns raised by this development in some quarters, however, will be discussed in later blogs.
Turing’s worldview
Reading Turing’s article for those over 35 years old presents a sense of being strangely disorientated. This is because despite the article being about a relatively technical aspect of one of the sciences, something that was until recently taken to be removed from the heated hurly-burly of the socio-political world, the article contains elements of a worldview that have recently been recognised as problematic. Yet, significantly, this worldview was not Turing’s alone, but was widespread until recently, and still remains embedded in large swathes of the population around the globe.
At the beginning of the article itself (on p. 2), Turing poses the question whether the subject of the article ‘Can machines think?’ is worthy of investigation. To establish that it is, the article contains a detailed discussion of the various objections often made by different groups against such an activity.
These objections fall into 2 categories: the ‘morality’ category and the ‘possibility’ category. The first covers objections on ‘theological’ grounds that suggest that in creating machines that can think humans will be ‘usurping’ the divine power of conferring souls, which belongs to God alone. The objection, therefore, is that machines cannot think because it is against divine will; the implication is that humans should not attempt to make such machines. However, Turing is not convinced. His argument seems to be that the success of such an endeavour can be taken to flow from God’s will too.
Most of the other objections considered by him fall in the ‘possibility’ category, i.e., objections that claim on a variety of grounds that it is not possible for machines to think in the way that human beings can. Turing’s answer seems to be that whether machines think ‘like’ a human being or not is besides the point so long as they can follow the process involved in human thinking to produce results similar to it.
Turing acknowledges that he has ‘no very convincing arguments of a positive nature to support’ his views that it is both possible and desirable to make ‘thinking’ (or ‘learning’) machines (p. 17). However, his tone is decidedly sympathetic to the machines in question. A close reading of the article reflects a worldview that valorises an intellectual elite possessing ‘supercritical’ intellectual abilities. Thus the enterprise of making machines that can think is being advocated despite the understanding that such ‘supercritical’ machines, should they come into existence, will be able to intellectually ‘outstrip’ the majority of humans who Turing states baldly to be ‘subcritical’ (p. 17).
This is a worldview where the powers acquired through the practice of science for ‘improving’ the world are held in high esteem. By using the higher reasoning faculties of the human mind, scientists and engineers were stealing a march over nature. They could speed up the process of ‘evolution’ or the ‘survival of the fittest’ amongst their creations by expeditiously removing any weaknesses they detected in their machines rather than wait for the random process of selection that works much more slowly in natural evolution. It was this excitement of being able to make the world a better place for human habitation that gave science, and its adjunct technology, widespread respect.
In the second decade of the 21st century, the respect for science and technology are acquiring a more complex and nuanced character amongst a growing number of people. The beliefs about the human mind that are reflected in a simple division of human beings into ‘supercritical’ and ‘subcritical’ are also being supplanted by understandings of neurodiversity or the different ways in which human brains can be wired, giving them different capabilities.
However, the feeling of disorientation in reading this article in 21st century stems from the fact that Turing’s excitement about machines was a shared worldview that is perhaps still widespread. His admiration in considering the possibility of creating an entire human being from a single human cell as ‘a feat of biological technique deserving of the very highest praise’ is still likely to echo around the world without too much opposition.
The grand narrative of science and technology as civilization’s highest achievement continues to be part of a way of seeing reality that is largely undisputed. As recently as the turn of the century, modernity as reflected in the cultural states obtaining in Western Europe and the United States, was taken to be the teleological goal for the fullest development of all societies everywhere, by the majority of human beings on the planet.
The backbone of these cultural states was a high level of technological advancement growing out of a rational use of scientific knowledge. The pursuit of what was taken to be ‘dispassionate’ scientific knowledge was considered a noble calling with the typical scientist seen as a disinterested practitioner dispensing universally established ‘truths about the natural world’ (Sismondo 2010, p. 18). This view of science and technology underpins Turing’s article and its advocacy of striving to build ‘supercritical’ machines that will compete with ‘man’ [sic] in all intellectual endeavours’. Even though this view is still deeply ingrained in a large number of people around the world, it is doubtful how many of them are attentive to its full implications for the majority of human beings (Turing himself devoted only one sentence in a 21 page article to mentioning ‘subcritical’ humans and none whatsoever on what ‘supercritical’ machines competing with such humans will mean for them).
It is, therefore, with an act of sheer will that people have to engage with the warnings that are beginning to filter through about the threat and dangers posed by such ‘thinking’ machines, or artificial intelligence, now that they have actually appeared on the scene, even if they are not yet capable of going from an idea to a whole theory by themselves. Despite the nation’s long history of being at the forefront of a rational, scientific modernity, the UK’s Prime Minister Rishi Sunak was impelled to warn in November 2023 that though he did not wish to be ‘alarmist’, he felt that [M]mitigating the risk of human extinction from AI should be a ‘global priority’ (Gregory and Kleinman 2023).
Humans and technology
The discomfiture about this kind of technology, despite its highly rational nature and astounding capabilities, is clear in various passages of EU’s proposed AI Act. The draft Act reiterates in many places that AI systems must be ‘human-centric’. It prohibits AI deploying ‘subliminal techniques’ that can adversely affect the power of autonomous choice in humans ‘in ways that people are not consciously aware of, or even if aware not able to control or resist’ (Recital 16, EU Council version). Further, ‘Article 5 prohibits systems using subliminal techniques that modify people’s decisions or actions in ways likely to cause significant harm’ (Bermúdez et al 2023). The need to clearly spell out the centrality of ‘human’ interest in this new world and even the urgency to protect the capacity of humans for autonomous choice in the face of possible control by ‘rational’ but ‘not-human’ agents is a far cry from Turing’s optimistic and accepting discussion of machines that are our intellectual competitors.
The EU is not alone in its alarm at the unconventional threats to humans from AI technologies. In the United States, the NSCAI accepted that the use of AI technologies will change the ‘dynamics within human-machine “teams”’ because until now machines performed within ‘a clearly defined set of parameters or rules programmed by a human’. However, as AI technologies evolve
‘computers will be able to learn and perform tasks based on parameters that humans do not explicitly program, creating choices and taking actions at a volume and speed never before possible.’
The report recognises explicitly that the ‘preservation of individual liberties’ is in danger by calling for ‘continued vigilance’ to safeguard it.
Amongst the main AI leaders, China too, has stated in its draft of Artificial Intelligence Law, Model Law v. 1 that ‘AI should be people-centered and direct intelligence for good. Ensure that humans can continuously supervise and control AI, with the ultimate goal of always promoting the welfare of humanity.’ This is in contrast to China’s earlier response to AI technologies in its ‘New Generation Artificial Intelligence Development Plan’ of 2017 where the focus was very much on harnessing AI technologies for the country’s socio-economic development.
The change in China’s stance to come closer to the EU’s in stressing the primacy of ‘human’ interests in deploying AI technologies is perhaps a measure of how in the past year the world has raced away from the worldview embodied in Turing’s brilliant article. It seems clear that the question of the relationship between humans and ‘thinking machines’ has taken on a new urgency.
It is a question, however, that has been pondered on by a small number of thinkers and practitioners for more than a century even as science-centric worldviews, like those reflected in Turing’s article, have dominated the cultural space. The next blog in the series looks at some of these viewpoints to ask whether they have the answer to our present dilemmas of how to compete with machines competing with us.
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Do data always have a ‘correct’ interpretation? Reading a clash in data for conceptions of culture, authority and alternative worldviews