Framework

Intelligence Plus Action

Raw AI reasoning is necessary but not sufficient. A system's value depends on enough input signal feeding the intelligence and the ability to act on the world and get feedback, which is why structured data and the capacity to act matter as much as the model itself.

The analogy

Eric Glyman frames what makes an AI tool valuable through Stephen Hawking: profound intelligence paired with a body that had lost interaction with its own spinal cord and the use of certain limbs, leaving amazing reasoning with real limitations on its output.1 Mapping this to AI systems produces two questions: "Do you have enough signals of inputs feeding back into it, so it can process and act on a wide variety of things?" And, "Do you have the ability to go act on and get feedback on things?"1 A system's practical value depends less on what it can theoretically reason about and more on whether it sits inside a rich loop of data flowing in, action flowing out, and feedback flowing back.

The corollary: narrow tools are weak

Tools that are very narrow, and that cannot learn from, benefit, or improve many different areas of how a business operates, have far more limited utility than the reasoning-only framing suggests, even though narrow point tools can still work well in specific clever niches. This reasoning underlies two related claims: narrow AI sales-development tools built only on outbound and response data will struggle, because the actual value sits in the full loop of wins, losses, longer-run outcomes, and real intent signals, not just the outbound motion; and data infrastructure teams matter as much as model teams, because tool selection turns less on the specific use case and more on whether an organization has well-structured, connected, interoperable data, the substrate that lets intelligence actually act.1

Why it matters

The frame reorients AI strategy away from model access, which is increasingly commoditized through an API, and toward wiring: which inputs can be fed to a system and which actions it is actually allowed to take. A useful internal tool built on a hundred thousand transcripts of real customer interactions is the intelligence-plus-rich-input-signal half of the loop; an agentic system that can act on a business process and get feedback is the act-and-feedback half.1 The frame operates at the level of an individual tool or workflow, complementing the more macro claim that value accrues to whoever can sell an outcome rather than a tool, since a system can only be sold as an outcome if it can actually act, not merely advise.

Grounded in the physical world

The same intelligence-plus-action loop appears in physical AI, with far higher stakes, since a physical agent that makes an irreversible mistake, dropping a reagent or damaging a part, cannot simply undo it the way a software agent can. Closed-loop agentic systems, where a physical agent takes an action, observes the result, and adjusts, are named as the domain that stress-tests this dependency hardest: even a ninety-five percent success rate at each step in a physical task compounds down to roughly sixty percent success across a ten-step chain, making reliability at scale the binding constraint on the action half of the loop.2 The digital version of the same dependency, reasoning that cannot act is only half a system, is the same statement made under real-world physics rather than software.

Tensions

More action surface means more risk, and current practice generally keeps a human in a supervisory role as the governor on how much of the loop can be closed autonomously. The frame is also intuitive but under-specified: how much signal and action wiring is enough, and where the marginal return on adding more inputs flattens out, is not addressed by the analogy itself.

Practiced by

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References

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