If we believe that the aim of information-processing studies is to formulate and understand particular information-processing problems, then the structure of those problems is central, not the mechanisms through which their solutions are implemented. Therefore, in exploiting this fact, the first thing to do is to find problems that we can solve well, find out how to solve them, and examine our performance in the light of that understanding. The most fruitful source of such problems is operations that we perform well, fluently, and hence unconsciously, since it is difficult to see how reliability could be achieved if there was no sound underlying method.
Unfortunately, problem-solving research has for obvious reasons tended to concentrate on problems which we understand well intellectually but perform poorly on like mental arithmetic and cryptarithmetic, geometry theorem proving, or the game of chess - all problems in which human skills are doubtful quality and in which good performance seems to rest on a huge base of knowledge and experience.
I argue that these are exceptionally good grounds for not yet studying how we carry out such tasks. I have no doubt that when we do mental arithmetic we are doing something well, but it is not arithmetic, and we seem far from understanding even one component of what that something is. I therefore feel we should concentrate on the simpler problems first, for there we have some hope of genuine advancement. — David Marr, Vision, 1982
In artificial intelligence (AI), an expert system is a computer system emulating the decision-making ability of a human expert.[1] Expert systems are designed to solve complex problems by reasoning through bodies of knowledge, represented mainly as if–then rules rather than through conventional procedural programming code. — Wikipedia
Feelings are not paint on top of the important stuff. They are the important stuff. In my opinion any theory of consciousness must incorporate feelings at a very fundamental level. In reinforcement learning there is a reward function, and a value function. Why it is I could not tell you, but it seems that our own reward functions and value functions (I think we have multiple ones) are intimately connected with what we subjectively experience as feelings. To go back to Marr, "What is the goal of the computation?" That is where you start, with goals, purposes, rewards. The rest is just engineering... — GrahamJ
The central role of value estimation is arguably the most important thing that has been learned about reinforcement learning over the last six decades. — Barto and Sutton, Reinforcement Learning, 2018
Oh, and there are paraconsistent logics that are being used in non-woo quantum mechanics. — Banno
What the fuck is "|ψ⟩=α|nonexistence⟩+β|existence⟩"? — Banno
Seems we must conclude it's a representation of a state.
— Moliere
A state of what? — T Clark
A pure qubit state is a coherent superposition of the basis states. This means that a single qubit ψ can be described by a linear combination such as:
|ψ⟩=α|nonexistence⟩+β|existence⟩
where α and β are the probability amplitudes, and are both complex numbers. — adapted from wikipedia
In a lucid dream, our perspective of these dream characters is different from our perspective of people who are “real”, because we are taught that these people are not conscious, even if they act the same way that “real” people do. — Reilyn
The fact is, however, that these people do have consciousness, but they do not have a separate consciousness. Their actions and decisions are consequences of our own consciousness. — Reilyn
Why do we always fall reflexively back to a Cartesian perspective? I agree with Taylor above that morality and the emotions associated with it are the real power source for the self. My question is: is that always going to be a Cartesian self? I think it might be that everytime we go to explain the self, we'll automatically conjure some kind of independent soul. What do you think? — frank
How would you interpret the Reputation element of the diagram? Does it refer to how a person sees himself, or to how the person thinks others see himself? — Gnomon
O wad some Pow'r the giftie gie us
To see oursels as ithers see us! — Burns
These ideas about social perception can be linked to the social self in the following way. The ability to infer others' mental states requires, as does all perceptual inference, a generative model. Generative models, as we know, are able to generate the sensory signals corresponding to a particular perceptual hypothesis. For social perception, this means a hypothesis about another's mental states. This implies a high degree of reciprocity. My best model of your mental states will include a model of how you model my mental states. In other words I can only understand what's in your mind if I try to understand how you are perceiving the contents of my mind. It is in this way that we perceive others refracted through the minds of others. This is what the social self is all about, and these socially nested predictive perceptions are an important part of the overall experience of being a human self. — Seth, Being You, p167
It would be normal for any scientist to pick number 1. We might divide scientists by whether they believe science as it currently stands is capable of explaining it, that is, do we just need to complete work on the models we have? Or are we going to need new paradigms? — frank
↪GrahamJ How would you characterize the difference between Damasio and Seth? — frank
That is a diagram of something else, but it is good to see reputation being mentioned. (I might say more later.)Diagram : Structure of the self. — Gnomon
Fine.I wasn't presenting Damasio's work as the correct view on consciousness, I was using it as an example of a type of description. — T Clark
Russelll's proposed solution is that we should say to the machines:If we use, to achieve our purposes, a mechanical agency with whose
operation we cannot interfere effectively we had better be quite sure that the
purpose put into the machine is the purpose which we really desire. — Norbert Wiener, 1960
My task today is to dispel some of the doominess by explaining how to
retain power, forever, over entities more powerful than ourselves - [...] — Russell
Books are not always convenient; electronic devices are. — Vera Mont
Once you've downloaded something, it's available all the time. — Vera Mont
There’s also a good reason why deliberation isn’t something we use much in ML today. It’s hard to control. Deliberation may occur with minimal to no feedback from the physical body or environment.
The model-free strategy efficiently produces habitual (or automatized) behavior for oft-repeated situations. Internally, the brain learns something akin to a direct mapping from state to action: when in a particular state, just do this particular action. The model-based strategy works in reverse, by starting with a desired end-state and working out what action to take to get there.
Meta-management as a term isn’t used commonly. I take that as evidence that this approach to understanding consciousness has not received the attention it deserves.
It’s now generally accepted that the brain employs something akin to the Actor/Critic reinforcement learning approach used in ML (Bennet, 2023).
The content of consciousness — whatever we happen to be consciously aware of — is a direct result of the state that is captured by the meta-management feedback loop and made available as sensory input.
I'll bundle this withWhat might be missing between this description and true human consciousness? I can think of nothing ...
*Our emotional affect additionally adds information, painting our particular current emotional hue over the latent state inference that is made from the raw sensory data.
I find the following laughable, so I must be misunderstanding it:
Mathematics is not more exact than historiographical, but only narrower with regard to the scope of the existential foundations relevant to it.
This seems to be saying that maths is only about maths; the "existential foundations" of maths are applicable in applied maths, or physics, or engineering.
Maths has a far, far greater reach and explanatory power than 'historiography'. — Banno
Within the stance of 'science is social relations', only historians can speak; mere natural scientists with their commitment to reality are reduced to objects of historical study,... — Hilary Rose (a feminist sociologist of science), in Love, power and knowledge
I might be wrong. I find your style quite obtuse. To be candid, it seems intended to be clever rather than clear. — Banno
... the movable bodies that we see, grasp, and act on. Before infants can reach for and manipulate objects, they organize perceptual arrays into bodies that are cohesive, bounded, solid, persisting, and movable on contact. Young infants use these abstract, interconnected properties to detect the boundaries of each object in a scene, to track objects over occlusion, and to infer their interactions with other objects.
The core place system underlies our sense of where we are, where other things are, and what paths will take us from one place to another. Studies of animals and young children reveal that navigation depends, first and foremost, on representations of abstract geometric properties of the ground surface over which we travel: the distances and directions of its boundaries, ridges, cliffs, and crevices.
Research on human infants, children, adults in diverse cultures, and nonhuman animals all converges on evidence for an early-emerging ability to represent and combine numerical magnitudes with approximate, ratio- limited precision. This ability depends on a core system with most of the properties of the core object and place systems: it is present in newborn infants and functions throughout life, and it is ancient, unitary, and limited in the types of information it provides.
However, if a "mathematical antirealist" believes that math is invented and these concepts exist only in human minds, then one must accept that the conception of "2" varies depending on the circumstance, or use. This is very evident from the multitude of different number systems. So for example, when a person uses, "2" it might refer to a group two things, or it might refer to the second in a series, or order. These are two very distinct conceptions referred to by "2". So, since "2" has at least two referents, it cannot refer to a single object. We could however propose a third referent, an object named "2", but what would be the point in that? The object would be something completely distinct from normal usage of the symbol. — Metaphysician Undercover
Earlier you said (for example):For a mathematical antirealist, does any of this constitute hypocrisy?
I can't see the relevance. Your game clearly involves real objects, pebbles, or in the case of your presentation, the letters. Would the antirealist insist that these are not real objects? — Metaphysician Undercover
andIn set theory it is stated that the elements of a set are objects, and "mathematical realism" is concerned with whether or not the things said to be "objects" in set theory are, or are not, objects.
However, it's hypocrisy to say "I'm a mathematical antirealist" and then go ahead and use set theory.
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Chapter 2 focuses on studies of infants’ knowledge of objects: the movable
bodies that we see, grasp, and act on. Before infants can reach for and manip-
ulate objects, they organize perceptual arrays into bodies that are cohesive,
bounded, solid, persisting, and movable on contact. Young infants use these
abstract, interconnected properties to detect the boundaries of each object
in a scene, to track objects over occlusion, and to infer their interactions with
other objects. Nevertheless, there are striking limits to young infants’ object
representations: Infants have little ability to track hidden objects by their shapes,
colors, or textures, although they do detect and remember these properties.
Above all, research reveals that infants’ early- emerging representations of
objects are the product of a single cognitive system that operates as an inte-
grated whole. This system emerges early in development, it remains present and
functional in children and adults, and it guides infants’ learning. The system
combines some, but not all, of the properties of mature perceptual systems and
belief systems, and it therefore appears to occupy a middle ground between our
immediate perceptual experiences on the one hand and our explicit reasoning on
the other. Research probing infants’ expectations about objects suggests hypoth-
eses concerning the mechanisms by which a system of knowledge might emerge,
function, and guide infants’ learning about the kinds of objects their environ-
ment provides and the kinds of events that occur when different objects interact.
Research described in this chapter also reveals that infants’ knowledge of objects
is at least partly innate. It suggests how innate knowledge of objects might arise
prior to birth, preparing infants for their first perceptual encounters with mov-
able, solid, inanimate bodies.
I have seen some ultrafinitists go so far as to challenge the existence of as a natural number, in the sense of there being a series of “points” of that length. There is the obvious “draw the line” objection, asking where in do we stop having “Platonistic reality”? Here this … is totally innocent, in that it can be easily be replaced by 100 items (names) separated by commas. I raised just this objection with the (extreme) ultrafinitist Yessenin-Volpin during a lecture of his. He asked me to be more specific. I then proceeded to start with and asked him whether this is “real” or something to that effect. He virtually immediately said yes. Then I asked about , and he again said yes, but with a perceptible delay. Then , and yes, but with more delay. This continued for a couple of more times, till it was obvious how he was handling this objection. Sure, he was prepared to always answer yes, but he was going to take times as long to answer yes to then he would to answering . There is no way that I could get very far with this. — Harvey Friedman, Philosophical Problems in Logic
According to Chalmers, one can coherently conceive of an entire zombie world, a world physically indistinguishable from this one but entirely lacking conscious experience. Since such a world is conceivable, Chalmers claims, it is metaphysically possible, which is all the argument requires. Chalmers writes: "Zombies are probably not naturally possible: they probably cannot exist in our world, with its laws of nature."
But I wasn't sure how his preferred 'weak emergence' would be real phenomenality as he indicates, as he seemed to switch to talking about levels of explanation. — Danno
I’m leaning toward panpsychism. But even if it’s not that, something else is happening. And without that something else, why would a thing that looks like us, and has all the physical we have, act as though it has that something else? Why would it say the things it would have to say to make us think it was conscious if it was not? — Patterner
One is a case of weak emergence, or simply different levels of description, and the other is a case, if of emergence, of strong emergence, which is much harder to justify. — petrichor
I have often gotten the impression, which is maybe mistaken, that many in the scientific community basically take this position, that consciousness is real, that everything that happens in the brain is fully accounted for by low-level pre-conscious physical causes (and therefore epiphenomenalism must be true), and yet that consciousness evolved by natural selection. This has always seemed to me to be a problematic combination of incompatible beliefs. It makes me suspect that people haven't thought it all through sufficiently. But maybe I am missing something. Maybe, for one thing, they just don't even have in mind the same thing I do when talking about consciousness. — petrichor
It means retrieving the information from memory. Mind you, bodily functions such as hunger is not memory based, nor the bowel movement ( I will explain it for those uninitiated, upon request). — L'éléphant
Thanks. Perhaps I'm not fully understanding your point, but does this actually reduce the number of computations required or just the length of the algorithm needed to describe the transition from T1 to Tn? — Count Timothy von Icarus
Even if we model the demon as a Markov chain, it is still passing through these many states. And here is the crux of my argument, a full description of each of the states the demon passes through to evolve the system from time T to time T' would require more information than is used to describe either T or T' alone. If you say, "not true, T3 tells you all about T4 and T5," my response would be, "if that is the case, show me T5 without passing through any more states." If T is truly equivalent to T', it shouldn't be discernible from it. If it is discernible, then difference exists (Leibnitz Law), and so to new does information. — Count Timothy von Icarus
That is, we cannot ignore the process of evolution, as is often done. Computation creates discernible differences across a time dimension, such that if we had a second Le Place's demon producing outputs about every state the first demon passes through, the output would be many times larger than the first's when it simply describes T' based on T. — Count Timothy von Icarus
1.Why are physical processes ever accompanied by experience?
[...]
The answer for the first question is Survival advantage(Evolutionary Principles) — Nickolasgaspar