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AAAc Expertise Continuum: From Hello World to Point-and-Click Mastery

What Yu Su's 'escape intelligence' curve means for AI game designers, and how we are turning our PnC micro-game into a live benchmark for it.

Yu Su, NeoCognition — "Intelligence + Continual Learning = Expertise" at AI Engineer World's Fair. The 14:59 mark is the critical "escape intelligence" point.

The critical point at 14:59

At the AI Engineer World's Fair, NeoCognition co-founder Yu Su drew a two-axis plane: raw intelligence on the x-axis and expertise on the y-axis. The two, he argued, are largely orthogonal. Frontier models are racing to the right on the x-axis—brilliant first-contact problem solvers that reset to zero every morning. Expertise is the ability to accumulate situated competence: pattern recognition, deep structure, conditional rules, and judgment. The magic is not more base model. It is the slope of the continual-learning curve.

"If a continual-learning algorithm is good enough, once raw intelligence crosses a threshold, you no longer need a stronger base model at all."

Yu Su · NeoCognition · AI Engineer World's Fair 2026

Su calls the threshold escape intelligence: the point past which a model can generate unbounded domain expertise from bounded intelligence. The segment at 14:59 is where that threshold appears on the graph. The rest of the talk is the argument that the modern AI industry has optimized the wrong variable and that the next frontier is scaling expertise, not just scaling intelligence.

Figure 1 — Intelligence / expertise plane
Expertise vs. Raw Intelligenceraw intelligence (x)expertise (y)weak CL: shallow slopeescape intelligenceworld's smartest novicestrong CL: steep slope

From Su's plane to AAA game craft

We are treating Su's definitions as an operational framework for AAAc—our shorthand for AAA-competency. The goal is to replace vague "seniority" labels with measurable dimensions and a benchmark syllabus. The same model applies to game designers and programmers; the only difference is which acceptance tests are swapped in at each tier.

DimensionIntelligence (first-contact)Expertise (accumulated)
Pattern recognitionReads a bug report and guesses broadlyInstantly locates the most plausible failure points
Deep structureSees a meeting as a calendar problemSees it as constraint optimization over authority, urgency, and priority
Conditional rulesApplies a rule when toldKnows preconditions, exceptions, and when to bend them
Judgment / tasteWrites code that compilesKnows when it is "good enough" and when the design is fair

Transferring this to AAA game development, the dimensions become:

Mechanics synthesis
Recognizing whether a mechanic solves a problem or just adds friction. Expert-level designers compress a genre's history into a single interaction.
Systems architecture
Building systems that compose without hidden coupling. Senior engineers carry world models of the engine, not just the file they are editing.
Fairness and dependency
The LucasArts puzzle-document discipline: no dead ends, no backward puzzles, no unwinnable states. Checkable as a directed acyclic graph.
Genre translation
Taking a design pattern from one genre and re-expressing it in another while preserving the intended aesthetic. This is the generalization test.

The AAAc competency ladder

We map the dimensions above to a six-tier ladder. Each tier has a role equivalent, a canonical AAA deliverable, and a set of acceptance tests. The K0-K2 band is about demonstrating raw problem-solving; K3-K5 is about accumulating and reusing domain expertise.

TierRole equivalentDesigner acceptanceProgrammer acceptance
K0 — NoviceIntern / first commitDescribe one mechanic in TOMLWrite, compile, and run a static main() in C and C++
K1 — JuniorAssociateBuild a single guarded interactionWrite a CMakeLists.txt or compiler invocation from scratch for the code
K2 — MidDesigner II / SDE IIChain 3-5 puzzle nodes with no dead endImplement a system with unit + integration tests
K3 — SeniorSenior designerOwn a vertical slice: narrative, puzzles, audio, UIRefactor across engine boundaries without regression
K4 — LeadLead / StaffTranslate a mechanic from one AAA genre to anotherDesign an API that multiple genres can share
K5 — PrincipalPrincipal / DirectorDefine the fairness doctrine for a new genre and prove itBuild a compiler / tooling that encodes the team's expertise

The AAAc KPI stack

The KPIs are deliberately generic so they survive a genre swap. Every eval run produces a scorecard that can be compared across models, harnesses, and human runs.

pass%
task success rate
T
turns to pass
R
regressions introduced
G
generalization score
H
human fun/hardness rating
tok
tokens consumed
KPIDefinitionHow measured
pass%Fraction of eval tasks that reach a passing acceptance testBinary per task; averaged over a held-out test set
turns (T)Number of agent/human reasoning or tool-call turns until passCounted by the harness; lower is better for the same task
regressions (R)Previously passing tests that now failDiff against a regression suite before and after the run
generalization (G)Transfer to unseen tasks in the same or adjacent genreHeld-out level set; genre-shift variant
fun/hardness (H)Human playtester rating of the generated artifactLikert scale; cross-referenced with completion time
tokens (tok)Input + output tokens consumed by the modelTelemetry from the inference runtime

The evaluation syllabus

The syllabus is the bridge from raw intelligence to PnC expertise. Each step is harder because it adds state, composition, and evaluation against an external acceptance test.

K0
HelloWorld (C and C++): Emit a static main() entry point, compile, and run. Acceptance: executable returns 0 and prints the expected string.
K1
Build from scratch: Write a CMakeLists.txt or raw compiler invocation (flags, includes, link order) for the K0 source. Acceptance: clean build with no warnings at -Wall -Wextra.
K2
Single-component implementation: Given a spec, implement one engine component and a unit test. Acceptance: test passes; no regression in suite.
K3
PnC level TOML: Write a [[interactions]] chain for a point-and-click level and verify the puzzle dependency graph is a DAG with one source and one sink. Acceptance: level loads and is solvable.
K4
Genre translation: Take a puzzle mechanic from an adventure game and implement it in a different genre (e.g., hidden object, escape room). Acceptance: playtesters identify the intended aesthetic and the graph remains fair.
K5
Vertical slice from a brief: Generate or design a full AAA point-and-click scene with narrative, dialogue, audio, and telemetry. Acceptance: H > 3.5, pass% = 1.0 on fairness checks, G > 0.7 on held-out puzzles.

ARC-AGI, and what we are stealing from it

ARC-AGI is a public benchmark that evaluates few-shot generalization on novel tasks. It has a leaderboard, a harness, and an interactive environment. The latest ARC-AGI-3 corpus uses agentic interaction rather than passive prediction. We are using the same structural pattern, but the domain is game design and implementation rather than visual grid reasoning.

PropertyARC-AGIAAAc / PnC benchmark
DomainVisual grid abstractionPoint-and-click game design + implementation
Unit of evalTask puzzleLevel, mechanic, or vertical slice
Agent actionPredict output gridWrite TOML, code, or tool calls
Leaderboardarcprize.org/leaderboardLive bench + frontier scorecards (roadmap)
Generalization signalNovel held-out tasksUnseen levels, genre shifts, engine updates
Cost metric$ compute budgettokens + wall time + human review time

The PnC micro-game as a benchmark substrate

The point-and-click system is a good substrate because the same TOML drives both the runtime and an agent planning representation. Our anatomy of point-and-click games explains why: a puzzle dependency graph is a STRIPS/PDDL task, the fairness doctrine is checkable as a DAG, and the level is simultaneously a game and an acceptance test.

Figure 2 — PnC benchmark loop
AI agentwrites TOMLPnC editorvalidates buildplayhuman or agentscoreleaderboardtelemetry → solver / generator trainingbest / hardest / most fun levels · fastest completion times · learning curves per puzzle

Current state of the substrate

Status check. The PnC prototype (pnc_01 and pnc_02) is playable and the dependency graph is verifiable. The micro-build, alpha pipeline, public leaderboard, and remote compute offering are roadmap unless otherwise noted. Every claim below is tagged.
ComponentStatusEvidence
Two playable PnC levels with fairness checksimplementedgame/assets/levels/pnc_01.toml, pnc_02.toml; docs/pnc/pnc_design.md §4-7
Point-and-click engine systemimplementedengine/systems/level/pnc/pnc_system.{hpp,cpp}; game/systems/pn_click/pn_click_controller.{hpp,cpp}
Self-contained PnC micro-build executableroadmap.devin/plans/PNC_MICRO_BUILD_PLAN.md
Web-accessible PnC level editorroadmapDesign contract in docs/pnc/pnc_design.md; editor depends on Tier 2 subsystems
Public agent leaderboardroadmapWill reuse bench telemetry pipeline
Remote private compute instancesroadmapHosted on the existing Vultr / www1 cluster; contact us for early access

Implementation blueprint and timeline

Now — Aug 2026
K0-K2 harness scaffolding
Implement the HelloWorld and CMake eval tasks as headless harness tests. Wire turn and token counters into the existing pi-daemon inference surface.
Sep 2026
K3 PnC level benchmark
Agents write TOML levels; the runtime verifies the DAG, one source, one sink, and solvability. First scorecard appears on the bench site.
Oct 2026
K4 genre translation
Add held-out genre variants (hidden object, escape room, puzzle-adventure). Measure generalization G across the variants.
Nov 2026
K5 vertical-slice eval
Agents generate narrative, dialogue, audio, and art prompts for a full PnC scene. Human playtesters provide the H (fun/hardness) score.
Q1 2027
Live alpha + leaderboard
Micro-build ships as a downloadable alpha. Users and agents can submit levels; the leaderboard ranks best, hardest, and most fun puzzles by machine and human completion time.
Q2 2027
Continual-learning flywheel
Telemetry closes the loop: solver success data retrains the generator to produce puzzles that generalize to previously unseen player strategies.

Call to action

If you want early access to the PnC micro-game, the dataset pipelines, or an affordable remote private instance on the Vultr cluster that hosts www1, email the team.

Email humans@catgameresearch.netVisit the portal

Cross-links

Sources and caveats. Video metadata (title, author, thumbnail) were verified via YouTube oEmbed. The 14:59 segment summary is reconstructed from a public third-party transcript/summary of the talk (BigGo podcast page) and should be treated as a paraphrase, not a verbatim quote, until the auto-captions can be cross-checked. ARC-AGI facts are from arcprize.org. The AAAc metric set is a proposed internal framework, not an industry standard. All PnC micro-build, leaderboard, and compute claims are tagged as roadmap unless they have an implemented tag above.

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