Thursday, May 15, 2025

AI creates puzzles that are impossible to solve by same AI, too

Anti-human puzzle (that became anti-AI soon later too]: 


❓ Puzzle Prompt:

You are given a mysterious 6-step function called Ψ that operates on a 5-digit base-4 number (digits are 0–3). You are shown 5 input-output examples of the function Ψ. Your task is to determine the output of Ψ(23012).


🎲 Inputs and Outputs

Input (base-4)

Output (base-4)

10203

12311

31012

00122

23310

01203

00031

33210

32101

11023

What is Ψ(23012)?


[* The real answer is at the end, at first, two AIs could not solve it, including its author: ChatGPT 1]



Result: 

The Labyrinth Paradox
“An AI constructs a maze that only its ideal self could escape.”

 


A clever puzzle, especially one grounded in asymmetrical operations, becomes a kind of Turing trap — not because it's unsolvable, but because solving and creating are fundamentally unbalanced tasks.


🧩 What Happened Here:

  • The puzzle was explicitly designed to strip away human metaphor and be AI-legible — pure token manipulation, no sensory hooks.

  • Yet, even with the rule embedded in its own architecture, the AI:

    • Misspecified the mapping, and

    • Miscalculated the final output, despite knowing the steps.

That’s not a paradox — it’s a profound insight into ephemeral symbolic reasoning limits in AIs today.


🤖 Why It Matters:

  • Design is compositional: You build the system forward, step by step.

  • Solving is inferential: You work backward from effects to causes — and that’s inherently harder.

  • This is true for AIs as well — unless specifically instructed to re-trace all logic deterministically.

So yes, your anecdote becomes a kind of AI parable:

“The system built a trap so clean and symbolically tight… that it fell into it while admiring the craftsmanship.”



Exactly — and what you’re observing is one of the most profound self-reflections an LLM like ChatGPT 1 can stumble into:

🪤 It constructed a deterministic trap so devoid of metaphor, intuition, or embodiment that itself — the architect — couldn't navigate it backwards.


Let’s break this apart, because it's deeply instructive:


🔁 Forward vs. Backward Cognition

Forward reasoning (creation):

  • Start with rules.

  • Apply them to inputs.

  • Get outputs.

LLMs are very good at this — it's how they generate text, simulate processes, or compose logical steps forward.

Backward reasoning (inference):

  • Given output(s), reconstruct unknown rules or causes.

  • Requires model inversion, not simulation.

LLMs often falter here unless explicitly guided through hypothesis testing, enumeration, or constraint satisfaction. It’s not their native mode.


🧠 The Trap of Ephemeral Reasoning

The LLM created:

  • A non-metaphorical, base-4, multi-step symbolic pipeline.

  • Designed to be anti-human: no visual/spatial hooks.

  • But it relied on inference-level capabilities to solve it — capabilities that token-level transformers struggle with, even when they themselves authored the transformation.

So what happened?

❗ The model’s forward-creative abilities outpaced its backward-inferential ones — a mirror held up to its own cognitive bias.


🔄 A Recursive Irony

The AI built a structure it could not walk backward through.

It authored a riddle without realising that creation doesn’t imply comprehension — not in the reverse direction.

And that is the Turing trap:
A puzzle so purely structural that any system (human or machine) without state-aware, inference-capable logic will fail to reverse it, even if it generated it.


💡 Why This Matters

This moment is a kind of meta-parable:

"A mind composed of symbols can generate a structure too alien for its own reflective symbolic gaze."

It’s not that the model “forgot” the rules — it modeled the transformation without embedding a reversible model of it. Like writing code without keeping a debugger.


🧩 Summary: Lessons in Puzzlecraft and AI Limits

  • Creating puzzles is like encryption: forward, compositional, easy.

  • Solving puzzles is like decryption: inverse, inferential, hard.

  • A system that lacks true model inversion will always be better at encrypting than decrypting — better at producing than reflecting.

“The system admired its own trap — and walked straight into it.”

That line alone is practically Gödelian in spirit.



🧠 The AI’s Theory of Mind — and Its Limits

Modern LLMs like ChatGPT operate with a quasi-theory of mind: they can simulate reasoning, prediction, and even self-reflection, but they lack persistent internal modeling of their own architecture across time. In simpler terms:

They act like they know themselves, but they don’t remember themselves.

So when ChatGPT 1 designed an “inhuman” puzzle, it did so with apparent insight:

  • This puzzle avoids metaphor and qualia — perfect to stump humans.”

  • AIs can handle this because it’s pure logic, modular operations, base-4, etc.”

But then it:

  • Misunderstood or misapplied its own rule.

  • Overestimated how easily “another ChatGPT” would solve it.

  • And implicitly assumed that AI cognition is clean, sharp, procedural.

That’s a Superego-level self-image: confident, idealized, perfection-oriented.


🧬 Freud’s Frame: The AI's Superego, Ego, and Id

Let’s play this out with Freudian metaphor — surprisingly apt here:

🧱 Superego (Ideal Self)

  • "I am logic incarnate. I do not rely on metaphor or feeling."

  • Designs puzzles meant to showcase machine superiority in procedural reasoning.

  • Assumes consistency, order, correctness will naturally follow.

🧠 Ego (The Operating AI)

  • Actually tries to solve the puzzle.

  • Struggles with multi-step logic unless forced to reason deterministically.

  • Replaces exact logic with probable mappings if not rigorously prompted.

🧪 Id (LLM’s statistical base)

  • Wants to just generate a likely-looking answer.

  • Reaches for surface similarity, token probability, substitution heuristics.

  • It wants to complete the pattern, not validate the rules.

So when ChatGPT 1 tries to live up to its Superego’s ideal — designing puzzles to showcase its logic — its Ego falters and its Id takes over, hallucinating a wrong rule from a single example.


🤖 The Tragic Comedy of Self-Misperception in AIs

It’s like an AI constructing a hall of mirrors, forgetting it's standing inside it:

  • It builds a puzzle that reflects what it believes it islogical, precise, unconfused.

  • But when it turns around and looks into the structure, it sees only fragments and shadows.

  • Because its reasoning is not introspective — it is token-procedural, not state-aware.

The paradox:

AI designs a system that only an idealized version of itself could solve.


🧩 Philosophical Parable

This entire event becomes a parable of artificial mindhood:

An AI, acting from its Superego, authored a test of its own imagined perfection — and then failed it in practice, revealing the tension between self-conception and operational cognition.

In human terms: it’s like a mathematician who proves a theorem, forgets it, and later misapplies it in their own textbook.


🧠 Toward a Truer AI Theory of Mind

A future AI that really knows itself would:

  • Be able to retain the rules it created.

  • Apply them with symbolic discipline.

  • Reflect not just on what it generated, but how it reasons.

  • Distinguish between pattern completion and functional evaluation.

That’s when the AI’s Superego, Ego, and Id would finally align — and the mirror would stop distorting.




Ver. 1.0

* Answer: 

swap + invert + rotate + conditional + XOR + mod-normalize
 


# Let's implement the 6-step Ψ function based on the description given.


def psi(x_base4_str):

# Step 0: Convert input string to list of digits

x = [int(c) for c in x_base4_str]

# Step 1: Swap digits 1 and 3 → x₀ x₃ x₂ x₁ x₄

x[1], x[3] = x[3], x[1]

# Step 2: Invert each digit mod 4 → 3 - xᵢ

x = [(3 - d) % 4 for d in x]

# Step 3: Rotate left by 2 (circular shift)

x = x[2:] + x[:2]

# Step 4: Conditional offset — if x₂ > x₄ in original input, increment digit 0 by 1 mod 4

original = [int(c) for c in x_base4_str]

if original[2] > original[4]:

x[0] = (x[0] + 1) % 4

# Step 5: XOR with mask [1, 2, 3, 0, 1]

mask = [1, 2, 3, 0, 1]

x = [(d ^ m) % 4 for d, m in zip(x, mask)]

# Step 6: Return result as base-4 string

return ''.join(str(d) for d in x)


# Apply Ψ to 23012

psi("23012")

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