Axiomatic Theory of Self-Consciousness

AToS conclusions

I. Basic conclusions of AToS

  1. Self-awareness can be defined without reference to biology, the soul, emotions, or language.

    Example: a human, an AI, or another system can be analysed using the same apparatus.

    Proof: mathematical — the AToS Representation Theorem.

  2. A system is minimally self-aware if it recognises a change in its own state and can recognise that the cause of at least one such change originates within itself.

    Example: the system recognises: “I changed my state, and I was the source of that change.”

    Proof: mathematical — proved in AToS as a necessary and sufficient condition.

  3. Reacting to the external world is not sufficient for self-awareness.

    Example: a system may see, hear, answer, and react without recognising itself as the source of its own changes.

    Proof: mathematical — external awareness does not imply self-awareness. AToS theory.

  4. Awareness is weaker than self-awareness.

    Example: “I know that a change occurred” ≠ “I know that I caused it.”

    Proof: mathematical — AToS separates recognition of a change from recognition of its cause.

  5. The “self” does not have to be stored in the system as an object.

    Example: the system does not need a SELF variable to represent itself.

    Proof: formal — in AToS, the self appears as a causal role: the system represents itself as the source of its own change.

  6. Self-awareness requires neither language nor a representation of one's own body.

    Example: a system need not be able to say “I am” to satisfy the minimal AToS criterion.

    Proof: structural — a minimal causal model of the self does not require linguistic or bodily representation.

  7. Self-awareness is not simply a consequence of a system's complexity.

    Example: a highly complex system may not be self-aware, while a much simpler one may satisfy the minimal AToS criterion.

    Proof: structural — what matters is the ability to recognise one's own change and attribute it to an internal cause, rather than complexity alone. Darek showed an example of the simplest self-aware system consisting of two bits.

  8. Intelligence is a process, not a store of information.

    Example: billions of stored facts do not yet constitute intelligence.

    Proof: mathematical — Intelligence in AToS arises from the operational composition of recognised state transformations.

  9. Memory cannot be a stimulus.

    Example: a stored fact does not, by itself, initiate a thinking process in the formal sense of AToS.

    Proof: mathematical — Theorem 8.5.

  10. Memory cannot be a generator of intelligence.

    Example: a database can supply stable information, but the database itself does not “think”.

    Proof: mathematical — Theorem 8.6 and Remark 8.7.

  11. A system's level of intelligence can be specified mathematically.

    Example: a system capable of longer valid operational chains has a different intelligence level in the AToS sense.

    Proof: formal — Intelligence Level is the supremum of the lengths of admissible finite operational compositions.

  12. The level of self-awareness can be specified mathematically.

    Example: two systems may both be self-aware but recognise different numbers of their own internally generated changes.

    Proof: formal — Self-Awareness Level in AToS.

  13. Self-awareness can be a momentary event or an ongoing process.

    Example: “I know that I am thinking” may give rise to another thought about one's own thinking.

    Proof: mathematical — Self-Conscious Retention Process.

  14. The simplest form of intelligence may be the maintenance of one's own self-awareness process.

    Example: one recognised internal change causes the next, which causes another, and so on.

    Proof: formal — AToS identifies the Self-Conscious Retention Process as the simplest nontrivial form of intelligence within the adopted formalism.

  15. The same mechanism can function as “imagination” on one occasion and as a reaction to the external world on another.

    Example: an identical state transformation may be initiated internally or externally.

    Proof: formal — the Intuition Function belongs simultaneously to the classes of internal and external functions.

  16. Whether a stimulus is internal or external is not determined by its physical location.

    Example: a timer, noise, or a hardware process can play an internal role if the system embeds it that way in its causal structure.

    Proof: formal — AToS defines internality operationally, not spatially.

  17. Several self-aware systems can form a higher-level self-aware system.

    Example: a family of interacting AToS systems. Any set of people (Poles) is a self-aware system.

    Proof: mathematical — Theorem 11.2 specifies the conditions under which a family forms a Self-Conscious System.

  18. A stimulus can be external to one system and internal to a composite system at the same time.

    Example: a message from system A to system B is an external stimulus for B but an internal event for A+B.

    Proof: formal — Family of Self-Conscious Systems.

  19. The Turing test is not a test of self-awareness.

    Example: a system may behave like a human without being self-aware in the AToS sense; it may also satisfy the AToS criterion without human-like behaviour.

    Proof: logical — AToS shows the logical independence of a behavioural criterion and internal causal attribution — the GSAT test.

  20. Correct answers do not prove self-awareness.

    Example: a Chinese Room can manipulate symbols and generate correct answers.

    Proof: structural argument — without recognising its own changes and their internal cause, the system does not satisfy AToS.

  21. An operational test of self-awareness — GSAT — can be constructed.

    Example: recognised external stimuli are cut off. The system causes a change in its own state and correctly recognises its source as internal.

    Proof: the General Self-Awareness Test and its formal realisation in AToS.

  22. The mere fact that a system changes spontaneously does not prove self-awareness.

    Example: a clock, scheduler, or random noise may produce changes.

    Proof: GSAT requires not only a change but also a mechanism that correctly attributes its cause.

II. New mathematical and topological conclusions

  1. The boundary of a self-aware system is where internal and external stimuli meet.

    Example: the human head.

    Proof: to be developed — we want to connect the topological construction with empirical studies of facial innervation.

  2. Every self-aware system is a topological space.

    Example: an AToS system.

    Proof: mathematical — by constructing a topology on the system's set of states. In my head.

  3. A self-aware system can be defined on any topological space.

    Proof: it is enough to colour the open sets and define arbitrary Imagination Functions on them.

  4. For any family of self-aware systems, a self-aware system composed of its elements can be constructed.

    Example: interacting AToS systems.

    Proof: mathematical — the present article already formalises the family as a meta-system and gives a condition for its self-awareness; the version with the condition of “the same external stimulus” must be added as a separate theorem, because that exact formulation does not occur in AToS. Proof in my head.

  5. There exists a self-aware system with infinite intelligence.

    Example: not empirically verifiable.

    Proof: mathematical — it is enough to define a self-aware system on the complement of the Cantor set, and that complement is a topological space; therefore, by the preceding theorem, a self-aware system can be built on it, where we define a simple Imagination Function on the Cantor set 😎

  6. There exists a self-aware system that can be divided into between two and five identical self-aware systems.

    Example: not empirically verifiable.

    Proof: mathematical — Stefan Banach and Alfred Tarski (Poles) proved that such a set exists, so by colouring every point of that set with two colours and defining a simple Imagination Function on each such set, we obtain the claimed proof 😎

III. Mathematics, artificial intelligence, and existence

  1. Mathematics was not invented by humans. More than that: mathematics was not invented by any self-aware system. Humans can only discover mathematical relations.

    Proof: since human self-awareness can be described mathematically (AToS), and every true theorem is always true, including in the past, a system described by AToS could not have invented it, because it already existed and created AToS theory.

  2. Artificial intelligence systems constructed to date cannot, in their present form, be self-aware.

    Proof: in previously published posts.

  3. Something cannot exist without also existing mathematically.

    Proof: proved on the proverbial piece of toilet paper.

  4. One need not understand the axiomatic theory of self-awareness to be self-aware.

    Proof: the existence of the readers of this post.

  5. Thesis: everything in the universe is self-aware.

    Proof: it is already there!