Ijon Tichy meets artificial Intelligence

Stanislaw Lem on entropy (littering) Littering in space had been a concern long before Elon Musk's Starlink programme, and various methods for cleaning up the growing clutter in Earth's orbit are currently under discussion. The task is not easy because - due to the second law, the inevitable increase in entropy - all littering tends to increase exponentially. If one of the thousands of pieces of scrap metal in space is hit by another piece of scrap metal, the one piece that was hit creates many new pieces that fly around at insane speeds. Space pollution is therefore a self-perpetuating

Artificial and natural intelligence: the difference

What is real intelligence?  Paradoxically, the success of artificial intelligence helps us to identify essential conditions of real intelligence. If we accept that artificial intelligence has its limits and, in comparison with real intelligence, reveals clearly discernible flaws – which is precisely what we recognised and described in previous blog posts – then these descriptions do not only show what artificial intelligence lacks, but also where real intelligence is ahead of artificial intelligence. Thus we learn something crucial about natural intelligence. What have we recognised? What are the essential differences? In my view, there are two properties which distinguish real

Now where in artificial intelligence is the intelligence located?

In a nutshell: the intelligence is always located outside. a) Rule-based systems The rules and algorithms of these systems are created by human beings, and no one will ascribe real intelligence to a pocket calculator. The same also applies to all other rule-based systems, however refined they may be. The rules are devised by human beings. b) Conventional corpus-based systems (neural networks) These systems always use an assessed corpus, i.e. a collection of data which have already been evaluated  (details). This assessment decides according to what criteria each individual corpus entry is classified, and this classification then constitutes the real

Games and Intelligence (2): Deep Learning

Go and chess The Asian game of Go shares many similarities with chess while being simpler and more sophisticated at the same time. The same as in chess: – Board game → clearly defined playing field – Two players (more would immediately increase complexity) – Unequivocally defined possibilities of playing the stones (clear rules) – The players place stones alternately (clear timeline). – No hidden information (as, for instance, in cards) – Clear objective (the player who has surrounded the larger territory wins) Simpler in Go: – Only one type of piece: the stone (unlike in chess: king, queen, etc.)

Overview of the AI systems

All the systems we have examined so far, including deep learning, can in essence be traced back to two methods: the rule-based method and the corpus-based method. This also applies to the systems we have not discussed to date, namely simple automata and hybrid systems, which combine the two above approaches. If we integrate these variants, we will arrive at the following overview: A: Rule-based systems Rule-based systems are based on calculation rules. These rules are invariably IF-THEN commands, i.e. instructions which assign a certain result to a certain input. These systems are always deterministic, i.e. a certain input always

Games and intelligence (1)

Chess or jass: what requires more intelligence? (Jass is a very popular Swiss card game of the same family as whist and bridge, though more homespun than the latter.) Generally, it is assumed that chess requires more intelligence, for obviously less intelligent players definitely stand a chance of winning at cards while they don’t in chess. If we consider, however, what a computer program must be able to do in order to win, the picture soon looks different: chess is clearly simpler for a machine. This may surprise you, but it is worth looking at the features the two games

By |2025-11-12T11:00:30+00:0027. April 2020|Categories: Artificial Intelligence|Tags: , , , |0 Comments

How real is the probable?

AI can only see whatever is in the corpus Corpus-based systems are on the road to success. They are “disruptive”, i.e. they change our society substantially within a very short period of time – reason enough for us to recall how these systems really work. In previous blog posts I explained that these systems consist of two parts, namely a data corpus and a neural network. Of course, the network is unable to recognise anything that is not already in the corpus. The blindness of the corpus automatically continues in the neural network, and the AI is ultimately only able

Rule-based AI: Where is the intelligence situated

Two AI variants: rule-based and corpus-based The two AI variants mentioned in previous blog posts are still topical today, and they have registered some remarkable successes. The two differ from each other not least in where precisely their intelligence is situated. Let’s first have a look at the rule-based system. Structure of a rule-based system In the Semfinder company, we used a rule-based system. I drew the following sketch of it in 1999: Green: data Yellow: software Light blue: knowledge ware Dark blue: knowledge engineer The sketch consists of two rectangles, which represent different locations. The rectangle bottom left shows

Information Reduction 8: Different Macro States

Two states at the same time In my last article I showed how a system can be described at two levels: that of the micro and that of the macro state. At the micro level, all the information is present in full detail; at the macro level there is less information but what there is, is more stable. We have already discussed the example of the glass of water, where  the micro state describes the movement of the individual water molecules, whereas the macro state encompasses the temperature of the liquid. In this paper I would like to discuss how

What the corpus knows – and what it doesn’t

Compiling the corpus In a previous post we saw how the corpus – the basis for the neural network of AI – is compiled. The neural network is capable of interpreting the corpus in a refined manner, but of course the neural network cannot extract anything from the corpus that is not in it in the first place. Fig. 1: The neural network extracts knowledge from the corpus How is a corpus compiled? A domain expert assigns images of a certain class to a certain type, for instance “foreign tanks” vs “our tanks”. In Fig. 2, these categorisations carried

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