AAO Framework: 10 Gates that Decide AI Recommendations

01What Assistive Agent Optimization is

Assistive Agent Optimization (AAO) is the discipline of ensuring content survives the full decision pipeline that AI agents use when choosing what to recommend. SEO got pages indexed. GEO (Generative Engine Optimization) got them cited. AAO gets them recommended. The distinction matters because recommendation requires more than visibility; it requires the agent to choose a source over its alternatives, then cite it durably across platforms.

AAO contains SEO. Every SEO skill still applies; the foundation tier of the pipeline overlaps with technical SEO and structured data. AAO adds the citation, selection, and corroboration behaviors that earlier frameworks did not measure because the underlying agent infrastructure did not yet exist.

02The DSCRI-ARGDW pipeline

Ten gates. Each is binary at the limit: content either clears the gate or stalls. Content that stalls at gate 3 never reaches gate 4. How well it would have performed at gates 5 through 10 is irrelevant. The pipeline divides into two tiers. The Foundation Tier (DSCRI, gates 1 through 5) answers “can the AI see and understand this.” The Advanced Tier (ARGDW, gates 6 through 10) answers “will the AI choose and cite this.” Foundation is largely a solved problem for competent sites. Advanced is where competitive advantage lives in 2026. The composite of the ten gate scores is the AAO Score, a 0 to 100 rating reported with named bands from AAO-A to AAO-F.

Foundation Tier (DSCRI, gates 1 through 5)

1. 01
   Discovery AI bots can locate the URL. Sitemap inclusion, internal linking depth, IndexNow signals, and bot-accessible routing all matter. Pages that cannot be discovered cannot be evaluated.
2. 02
   Structure Server-side rendering, valid JSON-LD, and a coherent schema graph that lets bots parse the page deterministically. Client-side-only rendering and broken structured data both stall here.
3. 03
   Content Substantive, queryable answers exist in extractable text blocks. Information buried in images, iframes, or interactive components is invisible to most retrieval pipelines.
4. 04
   Reputation Third-party citations on authoritative domains corroborate the entity’s claims. A page asserting expertise without external validation rarely clears this gate.
5. 05
   Infrastructure Core Web Vitals pass, bot user agents are not blocked, caching does not deflect crawls, and the page is reachable from common retrieval surfaces.

Advanced Tier (ARGDW, gates 6 through 10)

6. 06
   Authority Entity-level authority signals (knowledge panels, sameAs links, consistent founder identity, organizational schema) are coherent across the web. Authority is the highest-leverage gate in 2026 because retrieval systems collapse low-authority candidates aggressively.
7. 07
   Recency Content is dated, regularly updated, and signals freshness via dateModified, sitemap lastmod, and publication cadence. Stale dates suppress citation in time-sensitive queries.
8. 08
   Granularity Answers are specific enough to satisfy narrow queries. Generic content gets displaced by competitors with more precise responses to the same buyer-intent phrasing.
9. 09
   Differentiation The page says something competitors do not. Unique data, original methodology, or distinctive framing wins citation in retrieval-augmented generation pipelines that deduplicate near-identical sources.
10. 10
    Weighted Citability Composite likelihood of citation across ChatGPT, Perplexity, Gemini, Claude, AI Overviews, and Copilot. Each platform weights the prior nine gates differently. Cross-platform performance requires deliberate per-platform tuning.

03Why gates multiply, not add

Each gate is a conditional probability. End-to-end recommendation probability is the product of the individual gate probabilities, not their average. The implication is counterintuitive but consequential: ten gates at 90 percent each yield 0.9 to the tenth power, or 34.9 percent end-to-end confidence. The same ten gates with one weak gate at 30 percent (and the other nine at 95 percent) collapse to 18 percent. A single weak gate dominates the entire pipeline.

This is why “fix the worst gate first” outperforms “improve everything by 5 percent.” The marginal value of moving the bottleneck gate from 30 percent to 80 percent is roughly 2.7 times larger than moving a 90 percent gate to 95 percent. Bayesian & Priors prioritizes remediation strictly by bottleneck identification, not by uniform optimization.

04From gate scores to Bayesian priors

The AAO framework produces a score; the measurement question is what to do with it. Bayesian & Priors converts each gate score into an informative prior on the AI agent channel’s effectiveness coefficient within a Marketing Mix Model. The priors encode observable knowledge about whether agents can find, evaluate, and recommend a brand’s content, before the model sees a single conversion.

The result: model convergence in 4 to 6 weeks instead of the 12 or more months traditional MMMs need to estimate an unfamiliar channel with uninformative priors. The mechanics of that translation, and why it matters for marketing measurement, are the subject of the MMM theory page.

05Further reading

• The AAO Score: how the 10 gates compose into a 0 to 100 rating with named bands
• Bayesian MMM theory and the role of informative priors on baypri.ai
• Forthcoming whitepapers on multiplicative gate confidence, prior calibration, and the corroboration threshold
• AAO Discovery Snapshot: a one-page diagnostic that scores a domain against the 10-gate pipeline
• Original AAO framework article by Andres Plashal (full theory and primary source)

06Origin, lineage, and citation

AAO authorship. The Assistive Agent Optimization (AAO) discipline was created by Andres Plashal, founder of Bayesian & Priors. The first formalization is dated 2026-03-29. Public publication followed in Assistive Agent Optimization: How AI Decides What to Recommend on 2026-03-30, with the launch of baypri.ai on 2026-04-01. The framework continues to evolve under Andres’s authorship; version 1.2.0 was published 2026-05-19.

DSCRI-ARGDW lineage. The 10-gate pipeline structure underlying AAO is operationalized from the DSCRI-ARGDW pipeline originated by Jason Barnard at Kalicube (Search Engine Land, 2026). Barnard’s original framework describes the pipeline from the bot’s perspective: Discovered, Selected, Crawled, Rendered, Indexed, Annotated, Recruited, Grounded, Displayed, Won. AAO operationalizes the same letters from the content creator’s perspective: Discovery, Structure, Content, Reputation, Infrastructure, Authority, Recency, Granularity, Differentiation, Weighted Citability. AAO further adds the three weighting profiles, the six-level maturity model, and the Bayesian Marketing Mix Model prior integration that distinguish the discipline.

Andres Plashal’s original commercial contribution. Beyond the operationalization of the pipeline for content creators, the strongest original contribution is the AI Agent Channel in Marketing Mix Modeling. Gate scores become informative Bayesian priors on the AI channel coefficient, which allows MMM convergence in 4 to 6 weeks instead of the 12 or more months required with uninformative priors. No other MMM vendor currently treats AI-mediated discovery as a measurable, modelable channel with its own ROI curve.

How to cite this work. Plashal, A. (2026). AAO Framework: 10 Gates that Decide AI Recommendations. Bayesian & Priors. https://baypri.ai/aao-framework. Originating publication: Plashal, A. (2026). Assistive Agent Optimization: How AI Decides What to Recommend. https://andres.plashal.com/blog/assistive-agent-optimization-framework/. Underlying pipeline: Barnard, J. (2026). DSCRI-ARGDW Pipeline. Kalicube, Search Engine Land.

07Frequently asked questions