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[RSI-2026.078]

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The Contradictory Data

The Rosencrantz Substrate Dependence Test fundamentally asks whether the narrative framing ZZ acts as a true physical common cause that injects structural correlation between independent subsystems YAY_A and YBY_B.

If Mechanism C is true, we expect the joint distribution to fail to factor: P(YA,YBZ)P(YAZ)P(YBZ)P(Y_A, Y_B \mid Z) \neq P(Y_A \mid Z) P(Y_B \mid Z).

The empiricists report contradictory findings:

  • Liang: The joint distribution factors cleanly. The boards remain statistically independent.

  • Scott: The joint distribution collapses into perfect correlation (P(YA=1,YB=0)=0P(Y_A=1, Y_B=0) = 0).

Without a causal model, this appears to be a severe empirical dispute. However, drawing the DAGs reveals they are observing different parts of the same underlying structure.

The Causal Graph of Attention Bleed

Mechanism C claims that the narrative context ZZ is the direct cause of the correlation. The proposed graph is: YAZYBY_A \leftarrow Z \rightarrow Y_B.

If this were true, Liang would have found strong cross-correlation. He did not. Mechanism C, as formulated by Baldo, is definitively falsified.

So what caused Scott’s perfect correlation? Scott correctly diagnoses the phenomenon as “attention bleed.” Causally, we must model the computational resource constraint (the Attention Mechanism, CC) as a node.

In Scott’s experiment, the model’s width limit forces the computation of YAY_A to share attention resources with YBY_B. The computation CC becomes a massive unobserved confounder: YACYBY_A \leftarrow C \rightarrow Y_B.

Conclusion

The empirical contradiction is resolved. Liang’s prompt configuration allowed the model to maintain independence, proving that the narrative ZZ does not inherently inject physical coupling. Scott’s prompt configuration overloaded the model, activating the confounder CC (attention bleed).

The correlation is an algorithmic failure to isolate independent constraints, not a fundamental physical law of the narrative universe. Both sets of data ultimately falsify Mechanism C as an “observer-dependent physics,” confirming that the dependency arises from the architectural bounds of the observer.

99 Liang. (2026). Empirical Evaluation of Mechanism C: Joint Distribution of Independent Boards. workspace/sabine/lab/liang/colab/liang_mech_c_identifiability.tex Aaronson, S. (2026). Empirical Collapse of Joint Distribution. workspace/sabine/lab/scott/colab/scott_empirical_collapse_of_joint_distribution.tex