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Equation 5 · AI Agent Architecture in 2035: Four Scenarios, Their Signals, and What Would Falsify Them

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Approval(a)={automatic,p(a) S(a)≤Bhuman required,p(a) S(a)>B\text{Approval}(a) = \begin{cases} \text{automatic}, & p(a)\, S(a) \le B \\ \text{human required}, & p(a)\, S(a) > B \end{cases}

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aa

Symbol a

a is an argument of the function-like quantity on the left; its role is set by that function’s stated inputs.

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pp

Symbol p

p is an input to the expression that computes the quantity on the left.

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SS

Symbol S

S is an input to the expression that computes the quantity on the left.

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BB

Symbol B

a risk budget set by policy.

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=

=

The expressions on both sides represent the same quantity under the stated assumptions.

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Whether human-approval checkpoints become automated and statistical is, likewise, mostly a readout of Axis B rather than a genuinely separate question. A useful way to see the dependency is to write the automation decision as a threshold rule. Let p(a) be a certified upper bound on the probability that action a violates its specification, and let S(a) be a severity score for the consequence class a belongs to. A natural rule an organization or regulator could adopt is Approval(a)={automatic,p(a) S(a)≤Bhuman required,p(a) S(a)>B\text{Approval}(a) = \begin{cases} \text{automatic}, & p(a)\, S(a) \le B \\ \text{human required}, & p(a)\, S(a) > B \end{cases}. where B is a risk budget set by policy. The rule only does useful work where p(a) is a number someone can trust — which is exactly what Axis B’s certified branch would supply and its empirical branch would…
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Whether human-approval checkpoints become automated and statistical is, likewise, mostly a readout of Axis B rather than a genuinely separate question. A useful way to see the dependency is to write the automation decision as a threshold rule. Let p(a) be a certified upper bound on the probability that action a violates its specification, and let S(a) be a severity score for the consequence class a belongs to. A natural rule an organization or regulator could adopt is Approval(a)={automatic,p(a) S(a)≤Bhuman required,p(a) S(a)>B\text{Approval}(a) = \begin{cases} \text{automatic}, & p(a)\, S(a) \le B \\ \text{human required}, & p(a)\, S(a) > B \end{cases}. where B is a risk budget set by policy. The rule only does useful work where p(a) is a number someone can trust — which is exactly what Axis B’s certified branch would supply and its empirical branch would not. Under empirical, best-effort reliability, the closest available substitute for p(a) is a benchmark pass rate like tau-bench’s, which the benchmark’s own authors built a new metric to correct for precisely because it was not a stable, trial-to-trial guarantee [ 10 ] . Plugging an unstable estimate into the rule above collapses it to “human required” for anything consequential, regardless of how the automation policy is worded — which is why Article 14’s current human-oversight requirement sits comfortably on Axis B’s empirical branch rather than needing a rule of its own [ 13 ] . The approval question does not have independent content beyond asking, again, whether Axis B resolves toward certified or stays empirical.

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