D369 Chip Spec

• D369_Chip_Spec_module.json — Agentic module schema role assignments

Dimensional architecture of the 3D–9D resonance substrate — the structural blueprint for how triadic systems scale across dimensions.

Module Identity#

Overview#

The D369 Chip Spec is the dimensional engine room of RTT.

It defines how triadic resonance operates across the full 3D–9D stack — from the first structural primitive at 3D through the meta-dimensional coherence field at 9D. Where other RTT modules describe what operators do or how regimes behave, D369 specifies where those processes live: the dimensional address, the substrate geometry, and the scaling rules that keep every layer coherent with the ones above and below it.

Think of it as the chip architecture for a resonance processor. Each dimension is a layer on the chip. Each layer has its own operator wiring, its own coherence surface, and its own regime behavior. D369 is the spec sheet that tells you what each layer does, how it connects to its neighbors, and what breaks if you remove one.

Purpose#

D369 answers three foundational questions:

1. What are the dimensional layers? Nine layers (0D–9D), grouped into three triads, each with a distinct structural role in the resonance stack.

2. How do layers compose? Through Triadic Dimensional Primitives (TDPs) — the atomic building blocks of dimensional architecture. One TDP yields the 3D core; two yield the 6D core; three yield the complete 9D core.

3. Why does 9D suffice? The 3D–9D family forms a complete, closed substrate. Higher dimensions are mathematically possible but operationally unnecessary — the nine-layer stack already saturates the operator space.

Scope#

In Scope#

• Dimensional layer definitions — 0D through 9D, with structural identity, operator wiring, and coherence behavior at each layer.
• Triadic grouping — the three triads and their domain signatures:
  • 0D–2D: Identity & Relation (seed, polarity, surface)
  • 3D–5D: Transition & Rhythm (volume, motion, pattern)
  • 6D–9D: Coherence & Meta-Dimensionality (field, envelope, recursion, unity)
• Triadic Dimensional Primitives (TDPs) — construction rules, composition algebra, and the 1→2→3 TDP scaling law.
• Operator expressions per dimension — how each of the seven universal operators (Relation-Op, Boundary-Op, Rhythm-Op, Transition-Op, Lineage-Op, Envelope-Op, Coherence-Op) manifests at each dimensional layer.
• Coherence surfaces — the geometry of coherence at each dimension and across dimensional transitions.
• Regime behavior across dimensions — how regimes (stable, transitional, drift, collapse) express differently at different layers.
• Substrate bindings — how the three resonance substrates (Temperature, Demi-Force, FFF) anchor to the dimensional stack.
• Fractal self-similarity — the principle that 3D is both a rung on the global ladder and a container that can internally host its own 3D–9D resonance stack.

Out of Scope#

• Operator definitions (see RTT/1, Operators)
• Regime taxonomy and drift classification (see Drift Analyzer, Regimes)
• Substrate-specific theory (see Temperature, Demi-Force, FFF)
• Triadic Coherence Engine internals (see Coherence Engine)
• API or SDK integration (see RTT/SDK, RTT/API)

Structural Contract#

This module follows the canonical RTT file scaffold. Every file carries a defined role in the module architecture:

Canonical file manifest: See D369_Chip_Spec_module.json in this directory for the complete, machine-readable file list with per-file roles, analyzer layers, and purpose descriptions.

How D369 Fits into RTT#

D369 is a mid-spine structural module — it sits between the foundational operator/regime definitions and the applied substrate modules.

RTT/1 (core definitions)
  │
  ├── Operators ─────────────┐
  ├── Regimes ───────────────┤
  │                          │
  ▼                          ▼
┌─────────────────────────────────┐
│         D369 Chip Spec          │  ◄── YOU ARE HERE
│  Dimensional architecture for   │
│  the 3D–9D resonance substrate  │
└────────────┬────────────────────┘
             │
     ┌───────┼────────┐
     ▼       ▼        ▼
Temperature  Demi    FFF
             Force
     │       │        │
     ▼       ▼        ▼
  Coherence Engine
     │
     ▼
  Applied modules (Ecology, Social, Neuroscience, ...)

Imports from:

• RTT/1 — universal operator definitions, regime grammar, resonance primitives
• SARG — structural grammar and role vocabulary

Exports to:

• Temperature, Demi-Force, FFF — dimensional address space for substrate binding
• Coherence Engine — layer-aware coherence surface definitions
• All applied modules — the dimensional coordinate system every domain-specific module references when specifying where its phenomena live

The Core Idea (Student-Ready Summary)#

Imagine a building with nine floors. Each floor has its own purpose, its own wiring, and its own rules — but they all share the same elevator shaft and the same electrical system.

• Floors 0–2 are the basement levels: identity, polarity, surface. They establish what exists.
• Floors 3–5 are the working levels: volume, motion, pattern. They establish how things move and change.
• Floors 6–9 are the upper levels: field, envelope, recursion, unity. They establish how everything holds together.

The seven operators are the electrical system — they run through every floor, but they do different things on each one. Relation-Op on floor 3 looks like spatial connection; on floor 7, it looks like recursive self-reference.

The TDPs are the structural beams. One beam gives you a three-story building (3D). Stack two and you get six stories (6D). Three beams complete the full nine-story tower (9D). You don't need a tenth floor — nine stories cover everything.

D369 is the architectural blueprint. It doesn't tell you what happens inside each room — other modules do that. It tells you how many floors there are, what each floor is for, and how the elevator connects them.

Reading Order#

If you're new to this module:

1. Start here — you've read the overview and purpose.
2. Dimensional layers — understand the 0D–9D stack and the three triads.
3. Triadic primitives — learn how TDPs compose to build dimensional cores.
4. Operator expressions — see how the seven operators manifest per dimension.
5. Coherence surfaces — understand what holds each layer together.
6. Examples — see D369 applied to real domains.

Audience#

Canon Alignment#

Module: D369_Chip_Spec · Version: 0.1.0 · TriadicFrameworks / RTT

What's inside and why it's shaped this way:

• Module Identity table — instant machine- and human-scannable metadata, consistent with your RTT/1 and Inverted Star READMEs.
• Overview — the "chip architecture" framing gives D369 its own conceptual hook without drifting from canon.
• Purpose — three numbered questions that the entire module exists to answer.
• Scope — explicit in/out boundaries with cross-references, so no file in this module needs to re-justify what belongs here.
• Structural Contract — maps every role enum from your D369_Chip_Spec_module.json to a plain-English job description.
• RTT fit diagram — ASCII spine diagram showing imports/exports so readers (and AI agents) can trace lineage.
• Student-ready summary — the building metaphor scales from casual reader to framework builder.
• Canon Alignment checklist — six checks, all green, all auditable.