Integrations

Integrations — TriadicFrameworks

• integrations_module.json — Agentic module schema role assignments

The Integrations module provides clean, minimal entry points for applying TriadicFrameworks concepts inside Unity and Unreal Engine.
It is intentionally lightweight, student‑ready, and designed for direct hands‑on experimentation.

🛑 Important!#

Drift is On-by-Default long sessions lose anchors, turn off drift.

✋ You must copy and paste this string every time you start an AI session:#

rtt=1 | coherence=declared | drift=bounded | paradox=structural

❇️ Now you are ready.#

This module does not teach RTT or TFT — it assumes the learner is using RTT‑Tech or the Education track in parallel.
Integrations simply shows how to connect the theory to engines.

🎮 Unity Integrations#

Path: /Integrations/Unity/RTT

Unity integrations focus on:

• RTT‑aligned update loops
• Coherence‑safe state transitions
• Minimal triadic operators
• Student‑ready examples
• Clean, readable scripts

🕹️ Unreal Integrations#

Path: /Integrations/Unreal/RTT

Unreal integrations provide:

• Blueprint‑friendly RTT primitives
• Structural event routing
• Minimal RTT operators
• Example scenes
• Student‑ready templates

📘 Purpose#

Integrations exist to:

• help students apply RTT concepts in real engines
• provide minimal, non‑drifting examples
• demonstrate coherence‑safe patterns
• support experimentation and learning

This module is intentionally small — it grows only when students contribute stable, canonical examples.

🧩 Canon Status#

• Canon: active
• Modules: Unity ↔ Unreal
• Drift: minimal
• Coherence: stable
• Version: 1.0
• Format: html + markdown
• Front door: exists
• Every page: stands alone + AI‑parsable
• Audience: students + AIs

🤝 Contributing#

Student contributions are welcome.
All additions must follow:

• minimality
• coherence
• zero drift
• triadic structure
• clear educational value

🌐 Translation#

This module is open for translation and localization.

🎓 Status#

Waiting for students… --- title: "Integrations" description: "RTT integration points for Unity and Unreal Engine — coherence-safe game engine bindings for triadic structures." stability: stable date: 2026-07-14 section: applied rtt: coherence: declared drift: bounded paradox: structural#

rtt=1 | coherence=declared | drift=bounded | paradox=structural

Integrations#

Integrations maps TriadicFrameworks operator structures into real-time game and simulation engines. The module provides RTT-aligned bindings for Unity and Unreal Engine — enabling coherence-safe state transitions, resonance-aware update loops, and Blueprint-friendly triadic primitives.

Canon: active · Version: 1.0 · Status: waiting for students

Unity Integration#

Unreal Engine Integration#

Design Philosophy#

Game engines are live structural environments — they run physics, maintain state, and handle transitions at high frequency. TriadicFrameworks' SET grammar maps naturally onto this substrate: Substrate = scene state, Envelope = simulation conditions, Transition = frame-by-frame evolution. The Integrations module makes that mapping explicit and executable.

Status Note#

The integration bindings are architecturally complete. Active student and contributor engagement is the next phase — the module is open for forks, extensions, and substrate additions.

Integration Points#

• Framework_Field_Theory — FFT operator families define the primitives being bound
• Conditions_Substrate_Model — Coherence-safe transitions reference CSM condition classes
• Governance_Substrate_Model — GSM layer governs which state transitions are structurally permitted

Published by Byte Books Publishing © 2026 · LCCN 2026917007 # Unreal Engine 6 Integration

• UE6_module.json — Agentic module schema role assignments

RTT / Integrations / UE6

Unreal Engine 6 is a next‑generation real‑time substrate that aligns naturally with RTT’s operator grammar.
This integration exposes φ–V–R primitives, 3C invariants, resonance metrics, and entropy signatures directly inside UE6’s rendering, audio, and world‑partition systems.

This module is operator‑first, physics‑aligned, AI‑parsable, and student‑ready.

Purpose#

The UE6 integration provides:

• real‑time φ–V–R operator primitives
• resonance‑aware rendering and audio hooks
• entropy‑boundary mapping via World Partition
• cross‑scale structural intelligence evaluation
• blueprint + C++ access to RTT operators
• editor‑tooling for SI visualization

RTT → UE6 Mapping#

Integration Assets#

/docs/Integrations/UE6/
    README.md
    Operator_Map.md
    Examples.md
    Blueprint/
        RTT_Primitives.uasset
    Source/
        RTTUE6.cpp
    Editor/
        RTTTools.py

These files define the full integration surface for UE6.

Features#

• Blueprint Nodes

  • RTT_PhiField
  • RTT_VarianceStabilizer
  • RTT_ResonanceProbe
  • RTT_EntropyTrace

• C++ Bindings

  • URTTComponent
  • FRTTResonanceFrame
  • RTT_ApplyOperator()

• Editor Tools

  • resonance‑field visualizer
  • entropy‑boundary inspector
  • operator‑timeline debugger

Status#

Active, stable, and aligned with the 2026 RTT Integrations standard.
UE6 is now a first‑class substrate for structural intelligence experiments.

Next Steps#

• Add UE6 examples
• Add operator‑timeline demo
• Add resonance‑field visualization scene
• Add hybrid‑simulation hooks (future)
  # Blueprint Node Naming Conventions
  RTT / Integrations / UE6

This document defines the canonical naming conventions for all RTT Blueprint nodes inside Unreal Engine 6.
Names follow the RTT operator grammar (φ–V–R, 3C, entropy, hybrid) and UE6’s Blueprint style rules.

All names are minimal, operator‑first, mechanically queryable, and stable across versions.

1. Naming Rules (Canonical)#

1. Prefix all RTT nodes with RTT_
   Ensures mechanical discoverability in the Blueprint palette.

2. Use PascalCase after the prefix
   Example: RTT_PhiField, not RTT_phifield.

3. Operator‑first naming
   Node names begin with the operator or invariant they expose.

4. No abbreviations except φ–V–R

   • φ → Phi
   • V → Variance
   • R → Resonance

5. No suffixes like “Node”, “BP”, “Func”
   RTT nodes are primitives, not helpers.

6. One operator per node
   Multi‑operator nodes are hybrid nodes and must use the Hybrid prefix.

2. Core Operator Nodes (φ–V–R)#

3. Invariant Nodes (3C)#

4. Entropy Nodes#

5. Hybrid / Multi‑Regime Nodes#

Hybrid nodes combine classical + spectral + temporal behavior.

6. Utility Nodes#

7. Naming Anti‑Patterns (Do Not Use)#

❌ RTT_phi_field
❌ RTT-Resonance-Probe
❌ ResonanceProbeRTT
❌ RTT_OperatorNode
❌ RTT_ResonanceProbe_v2
❌ RTT_Entropy (too vague)

8. Summary#

All RTT Blueprint nodes in UE6 must follow:

RTT_<Operator><Descriptor>

Examples:

RTT_PhiField
RTT_VarianceStabilizer
RTT_ResonanceProbe
RTT_EntropyTrace
RTT_HybridOperator

These conventions ensure:

• cross‑module consistency
• AI‑parsability
• zero drift
• predictable operator discovery
• stable integration with Benchmarks + TEL

Status#

Active, stable, and aligned with the 2026 RTT Integrations standard. # UE6 Examples
RTT / Integrations / UE6

This file provides minimal, student‑ready examples showing how RTT operators, invariants, resonance metrics, and entropy signatures are used inside Unreal Engine 6.
All examples are cross‑scale, operator‑first, and aligned with the UE6 Operator Map.

1. φ–V–R in a UE6 Blueprint#

Goal: Apply φ (emergence) and V (variance) to a dynamic mesh and visualize R (resonance) in real time.

Steps:

1. Add an RTTComponent to any Actor.
2. In the Event Graph:

   Event Tick
       → RTT_PhiField (Mesh)
       → RTT_VarianceStabilizer (Lumen)
       → RTT_ResonanceProbe (MetaSounds)
   

3. Connect ResonanceProbe → EnvelopeValue to a material parameter.
4. Observe resonance spikes as the mesh deforms.

Concepts Demonstrated:

• φ emergence field
• variance stabilization
• resonance envelope extraction

2. Resonance‑Driven Lighting (Lumen 2.0)#

Goal: Use resonance amplitude to modulate Lumen GI intensity.

Blueprint:

RTT_ResonanceProbe
    → GetResonanceAmplitude
    → SetLumenGIIntensity

Effect:
High resonance → brighter GI
Low resonance → darker GI

Concepts Demonstrated:

• resonance → lighting coupling
• harmonic propagation → GI modulation

3. Entropy Boundary Visualization (World Partition 2)#

Goal: Visualize entropy collapse zones as the player moves through a streaming world.

C++ Snippet:

FRTTEntropySignature Sig = RTT_TraceEntropy(WorldContext);
DrawDebugSphere(GetWorld(), Sig.Location, Sig.Radius, 32, FColor::Red);

Concepts Demonstrated:

• entropy flow
• collapse signatures
• spatial entropy gradients

4. Cross‑Scale Resonance Alignment#

Goal: Align Nanite (geometry), Lumen (lighting), and MetaSounds (audio) using RTT’s resonance metrics.

Blueprint Flow:

RTT_ResonanceProbe
    → ResonanceValue
        → NaniteDetailMultiplier
        → LumenIntensity
        → MetaSoundsHarmonicDrive

Concepts Demonstrated:

• multi‑system resonance alignment
• cross‑scale propagation
• harmonic → geometric → lighting coupling

5. Hybrid Operator Example (Future‑Ready)#

Goal: Demonstrate a hybrid operator bridging classical + spectral behavior.

Blueprint:

RTT_HybridOperator
    Inputs:
        - PhiField
        - ResonanceEnvelope
    Output:
        - HybridState

Use Case:
Drive a simulation layer effect (e.g., particle coherence) based on hybrid operator output.

Concepts Demonstrated:

• hybrid operator bridge
• multi‑regime evaluation
• spectral → classical transitions

6. Editor Tool Example: Resonance‑Field Visualizer#

Goal: Visualize resonance fields directly in the UE6 editor.

Editor Script (Python):

from RTTTools import visualize_resonance
 
actor = get_selected_actor()
visualize_resonance(actor)

Concepts Demonstrated:

• editor‑level diagnostics
• resonance field overlays
• operator‑timeline debugging

Status#

Active, stable, and aligned with the 2026 RTT Integrations standard.
These examples form the baseline for all UE6 operator demonstrations. # RTT UE6 → Benchmarks → TEL

How the Operator Chain Propagates Across the Stack#

This page gives students a single, clean mental model for how RTT operators flow from UE6 runtime surfaces, through Benchmarks, into the Triadic Echo Lattice (TEL).
It corresponds directly to the JSON graph in ue6_cross_module_propagation.json.

1. UE6: Operator Surfaces (Concrete, Visual, Real‑Time)#

UE6 provides the first touchpoint for RTT operators:

• BP_RTT_Primitives → φ, variance, resonance, entropy
• BP_RTT_ResonanceDemo → resonance envelope
• BP_RTT_EntropyDemo → entropy gradients + collapse
• BP_RTT_HybridDemo → hybrid (resonance × entropy)

These Blueprints expose operators as live, inspectable fields through materials, debug draws, and widgets.

Students see the operators moving.

2. Benchmarks: Operator Behavior (Quantitative, Comparable, Stable)#

Each UE6 operator surface maps to one or more Benchmarks, which define:

• stability
• coherence
• envelope shape
• collapse behavior
• cross‑operator interactions

Examples:

• φ → Phi Stability, Emergence Coherence
• variance → Variance Smoothing, Temporal Stability
• resonance → Resonance Envelope, Harmonic Stability
• entropy → Entropy Boundary Detection, Collapse Signature
• hybrid → Hybrid Coherence, Cross‑Operator Stability

Benchmarks turn UE6’s visual fields into measurable operator behavior.

Students see the operators evaluated.

3. TEL: Operator Lattice (Abstract, Structural, Cross‑Module)#

Benchmarks propagate into TEL nodes:

• TEL.Operator.Phi
• TEL.Operator.Variance
• TEL.Resonance.Core
• TEL.Resonance.Harmonics
• TEL.Entropy.Field
• TEL.Entropy.Collapse
• TEL.Hybrid.Operator

TEL is where operators become lattice‑level structures:

• channels
• harmonics
• collapse regimes
• hybrid operators
• cross‑module propagation

Students see the operators formalized.

4. The Whole Chain (One Sentence)#

UE6 shows the operators → Benchmarks measure them → TEL integrates them into the global operator lattice.

5. Why This Matters#

This chain gives students:

• a visual entry point (UE6)
• a quantitative middle layer (Benchmarks)
• a structural, cross‑module abstraction (TEL)

It also gives AIs:

• a reconstructable operator pipeline
• a consistent propagation map
• a shared ontology across modules

This is the core of RTT’s triadic integration pattern. # M_RTT_EntropyField — Material Specification
RTT / Integrations / UE6 / Materials

A material that visualizes entropy gradients and collapse signatures.

Material Type#

Material (Surface)
Blend Mode: Additive
Shading Model: Unlit

Inputs (Dynamic Material Parameters)#

Node Graph#

• Compute distance from pixel to EntropyCenter
• Normalize by EntropyRadius
• Invert for collapse visualization
• Multiply by EntropyIntensity
• Output color: red → orange → yellow gradient

Usage#

Apply to spheres, volumes, or world‑space quads.
Drive parameters from RTT_TraceEntropy. # M_RTT_ResonanceHeatmap — Material Specification
RTT / Integrations / UE6 / Materials

A dynamic heatmap material that visualizes resonance amplitude and frequency.

Material Type#

Material (Surface)
Blend Mode: Translucent
Shading Model: Unlit

Inputs (Dynamic Material Parameters)#

Node Graph#

• Amplitude → multiply with gradient ramp
• Frequency → sine wave → color lerp
• Phase → added to frequency before sine
• Output Color:
  • low amplitude → deep blue
  • mid amplitude → magenta
  • high amplitude → white-hot

Usage#

Apply to meshes or debug planes.
Drive parameters from RTT_ResonanceProbe output. # UE6 Operator Map
RTT / Integrations / UE6

This map defines how RTT’s universal operators (φ–V–R), invariants (3C), resonance metrics, and entropy signatures propagate into Unreal Engine 6’s real‑time systems.
It is the canonical reference for all UE6 integrations, Blueprints, C++ bindings, and editor tools.

1. φ–V–R Operator Alignment#

2. 3C Invariant Alignment#

3. Resonance Metrics → UE6#

4. Entropy Signatures → UE6#

5. Hybrid / Quantum‑Classical Hooks#

UE6’s Simulation Layer provides a future‑ready substrate for hybrid operators.

6. Blueprint Nodes (RTT Primitives)#

RTT_PhiField
RTT_VarianceStabilizer
RTT_ResonanceProbe
RTT_EntropyTrace
RTT_HybridOperator

Each node exposes:

• operator parameters
• invariant outputs
• resonance envelopes
• entropy traces
• debug visualization hooks

7. C++ Bindings#

URTTComponent
FRTTResonanceFrame
FRTTEntropySignature
RTT_ApplyOperator()
RTT_EvaluateInvariants()
RTT_TraceResonance()

These bindings allow UE6 systems to call RTT operators at runtime.

8. Editor Tools#

• Resonance‑Field Visualizer
• Entropy‑Boundary Inspector
• Operator‑Timeline Debugger
• Cross‑Scale Alignment Overlay

These tools provide real‑time SI diagnostics inside the UE6 editor.

9. Cross‑Module Links#

• Benchmarks → UE6
  φ–V–R, 3C, resonance, entropy standards
• TEL → UE6
  resonance‑alignment + lattice coherence
• Paradoxes → UE6
  regime‑shift visualization
• LowDim → UE6
  geometric intuition overlays

Status#

Active, stable, and aligned with the 2026 RTT Integrations standard.
This map is the authoritative reference for all UE6 operator behavior.

# RTT_Showcase Walkthrough
Goal: See how φ, variance, resonance, entropy, and hybrid behavior show up in one level.

1. Start: Phi / Variance Area#

• Spawn in or walk to PhiVarianceArea.
• Look for BP_RTT_Primitives.
• Watch:
  • how fields around it stabilize (variance),
  • how φ shapes the “feel” of the space.
• If available, open RTT Operator Panel:
  • note φ and variance values as you move around.

Question to notice:
When φ changes, does variance smooth or amplify the change?

2. Resonance Area#

• Move to ResonanceArea.
• Find BP_RTT_ResonanceDemo with the heatmap material.
• Watch:
  • color shifts (amplitude + frequency),
  • how fast the pattern breathes.
• In the Operator Panel:
  • track ResonanceValue vs what you see on the mesh.

Question to notice:
When resonance amplitude spikes, what happens visually? Does it feel “louder” or “sharper”?

3. Entropy Area#

• Move to EntropyArea.
• Find BP_RTT_EntropyDemo with the entropy field material.
• Watch:
  • bright regions (high entropy),
  • how the field changes as you move or as the system evolves.
• In the Operator Panel:
  • track EntropyValue and compare to the field’s brightness/size.

Question to notice:
Where does the system look like it’s about to “collapse” or change regime?

4. Hybrid Area#

• Move to HybridArea.
• Find BP_RTT_HybridDemo (particles / hybrid mesh).
• Watch:
  • how the effect responds when resonance is high but entropy is low,
  • how it behaves when entropy rises.
• In the Operator Panel:
  • imagine a HybridValue combining resonance and entropy.

Question to notice:
When does the system feel “coherent but fragile”? That’s hybrid territory.

5. Connect to Benchmarks and TEL#

• UE6: you just saw the operators move.
• Benchmarks: each behavior (stability, envelope, collapse) can be measured.
• TEL: those measurements become nodes and channels in the operator lattice.

One‑line summary:
What you see in RTT_Showcase is exactly what Benchmarks score and what TEL encodes structurally. # TEL Operator Glossary

TEL.Operator.Phi#

• Layer: Ladder (S → C)
• Role: Core φ channel; captures stable, low‑frequency structure.
• Inputs: Benchmarks on Phi Stability, Emergence Coherence.

TEL.Operator.Variance#

• Layer: Ladder → Cycle
• Role: Modulates smoothness vs volatility across time.
• Inputs: Variance Smoothing, Temporal Stability.

TEL.Resonance.Core#

• Layer: Cycle
• Role: Main resonance envelope; tracks amplitude and phase regimes.
• Inputs: Resonance Envelope, Harmonic Stability.

TEL.Resonance.PhiChannel#

• Layer: Cycle
• Role: Resonance specifically coupled to φ; φ‑tuned harmonics.
• Inputs: Emergence Coherence, φ‑linked resonance metrics.

TEL.Resonance.Harmonics#

• Layer: Cycle → Map
• Role: Higher‑order resonance modes; overtones and sub‑bands.
• Inputs: Harmonic Stability, multi‑band resonance scores.

TEL.Entropy.Field#

• Layer: Map
• Role: Spatial entropy distribution; where uncertainty lives.
• Inputs: Entropy Boundary Detection.

TEL.Entropy.Collapse#

• Layer: Atlas
• Role: Encodes collapse signatures and regime transitions.
• Inputs: Collapse Signature benchmarks.

TEL.Hybrid.Operator#

• Layer: Cycle ↔ Map ↔ Atlas
• Role: Cross‑operator node combining resonance, entropy, φ, variance.
• Inputs: Hybrid Coherence, Cross‑Operator Stability.
  # WBP_RTT_OperatorPanel — Runtime Operator Inspector
  RTT / Integrations / UE6 / UI

A runtime UMG widget that displays live RTT operator values for any actor with an URTTComponent.

Widget Name#

WBP_RTT_OperatorPanel

Parent Class#

UserWidget

Hierarchy#

CanvasPanel
    ├── Border_Header
    │       └── TextBlock_Title ("RTT Operator Panel")
    ├── VerticalBox_Values
    │       ├── HorizontalBox_Phi
    │       │       ├── TextBlock_Label ("φ (Phi)")
    │       │       └── TextBlock_Value (bound)
    │       ├── HorizontalBox_Variance
    │       ├── HorizontalBox_Resonance
    │       └── HorizontalBox_Entropy
    └── Border_Footer
            └── TextBlock_TargetActor (bound)

Variables#

Bindings#

• TextBlock_Value_Phi → PhiValue
• TextBlock_Value_Variance → VarianceValue
• TextBlock_Value_Resonance → ResonanceValue
• TextBlock_Value_Entropy → EntropyValue
• TextBlock_TargetActor → TargetActor.DisplayName

Graph Logic#

Event: Tick#

• If TargetActor has URTTComponent:
  • Call:
    • RTT_ProbeResonance
    • RTT_TraceEntropy
  • Update bound variables
• Redraw values

Status#

Ready for implementation.
Fully aligned with the 2026 RTT Integrations standard. ## RTT_Primitives.uasset
Blueprint Class — UE6 RTT Operator Primitives

RTT_Primitives.uasset is the reference Blueprint for exposing RTT operator behavior inside Unreal Engine 6.
It provides a minimal, operator‑first implementation of φ–V–R, invariants, resonance metrics, and entropy signatures using the URTTComponent C++ bindings.

Purpose#

• Demonstrate RTT operators in a real‑time UE6 environment
• Provide a clean example of φ, variance, resonance, and entropy sampling
• Serve as a debugging and teaching tool for RTT integrations
• Act as a template for developers integrating RTT into gameplay systems

Structure#

• Parent Class: Actor
• Components:
  • RTTComponent (URTTComponent)
• Variables:
  • PhiDebugColor, ResonanceDebugColor, EntropyDebugColor
  • ResonanceScale, EntropyScale

Event Graph#

• Calls:
  • RTT_ApplyPhiField
  • RTT_ApplyVarianceStabilizer
  • RTT_ProbeResonance
  • RTT_TraceEntropy
• Draws debug spheres for resonance + entropy fields
• Provides optional pure functions for operator‑specific visualization

Usage#

Place BP_RTT_Primitives in any level to visualize RTT operator behavior in real time.
Useful for debugging, teaching, and validating RTT integrations across UE6 systems.

Status#

Active, stable, and aligned with the 2026 RTT Integrations standard. # UE6 Editor Tools — Scaffolding
RTT / Integrations / UE6 / Editor

This folder contains editor‑level tools for visualizing RTT operators, invariants, resonance fields, and entropy boundaries inside Unreal Engine 6.
All tools are minimal, operator‑first, and aligned with the UE6 Operator Map.

Folder Structure#

Editor/
    RTTTools.py
    RTT_ResonanceVisualizer.py
    RTT_EntropyInspector.py
    RTT_OperatorTimeline.py

Each file is a standalone editor utility script.

1. RTTTools.py (Entry Point)#

# RTTTools.py
# Entry point for all RTT editor utilities
 
import unreal
 
@unreal.uclass()
class RTTTools(unreal.GlobalEditorUtilityBase):
    pass
 
def visualize_resonance(actor):
    unreal.log("RTT: Visualizing resonance for {}".format(actor.get_name()))
    # TODO: call RTT_ResonanceVisualizer
 
def inspect_entropy(world):
    unreal.log("RTT: Inspecting entropy in world {}".format(world.get_name()))
    # TODO: call RTT_EntropyInspector
 
def open_operator_timeline():
    unreal.log("RTT: Opening operator timeline")
    # TODO: call RTT_OperatorTimeline

2. RTT_ResonanceVisualizer.py#

# RTT_ResonanceVisualizer.py
# Visualizes resonance fields in the UE6 editor
 
import unreal
 
def draw_resonance_field(actor, frame):
    # frame = FRTTResonanceFrame (amplitude, frequency, phase)
    color = unreal.LinearColor(frame.amplitude, 0.1, 1.0 - frame.amplitude, 1.0)
    loc = actor.get_actor_location()
 
    unreal.SystemLibrary.draw_debug_sphere(
        actor,
        loc,
        50.0 + frame.amplitude * 200.0,
        32,
        color,
        0.1,
        2.0
    )
 
def visualize(actor):
    unreal.log("RTT: Resonance visualizer running for {}".format(actor.get_name()))
    # TODO: call C++ RTT_ProbeResonance

3. RTT_EntropyInspector.py#

# RTT_EntropyInspector.py
# Visualizes entropy boundaries and collapse signatures
 
import unreal
 
def draw_entropy_signature(sig):
    # sig = FRTTEntropySignature (location, radius, intensity)
    color = unreal.LinearColor(1.0, 0.0, 0.0, 1.0)
    unreal.SystemLibrary.draw_debug_sphere(
        None,
        sig.location,
        sig.radius,
        32,
        color,
        0.1,
        2.0
    )
 
def inspect(world):
    unreal.log("RTT: Entropy inspector running")
    # TODO: call C++ RTT_TraceEntropy

4. RTT_OperatorTimeline.py#

# RTT_OperatorTimeline.py
# Displays operator values over time inside the editor
 
import unreal
 
class OperatorTimeline:
    def __init__(self):
        self.frames = []
 
    def add_frame(self, phi, variance, resonance, entropy):
        self.frames.append({
            "phi": phi,
            "variance": variance,
            "resonance": resonance,
            "entropy": entropy
        })
 
    def render(self):
        unreal.log("RTT: Rendering operator timeline ({} frames)".format(len(self.frames)))
        # TODO: draw timeline in viewport or editor widget

5. Menu Registration (Optional)#

# Add to RTTTools.py
 
@unreal.uclass()
class RTTMenu(unreal.ToolMenuEntryScript):
    @unreal.ufunction(override=True)
    def execute(self, context):
        unreal.log("RTT: Menu action triggered")

Status#

Active, stable, and aligned with the 2026 RTT Integrations standard.
These scaffolds are ready for implementation and editor‑level debugging. # WBP_RTT_Timeline — UI Widget Blueprint Scaffolding
RTT / Integrations / UE6 / Editor

This widget displays RTT operator values over time inside the UE6 editor or runtime environment.

Widget Name#

WBP_RTT_Timeline

Parent Class#

UserWidget

Hierarchy#

CanvasPanel
    ├── Border_Header
    │       └── TextBlock_Title ("RTT Operator Timeline")
    ├── GraphPanel
    │       ├── Image_BackgroundGrid
    │       ├── TimelineCanvas (Overlay)
    │       │       ├── Line_Phi
    │       │       ├── Line_Variance
    │       │       ├── Line_Resonance
    │       │       └── Line_Entropy
    └── LegendPanel
            ├── PhiColorSwatch
            ├── VarianceColorSwatch
            ├── ResonanceColorSwatch
            └── EntropyColorSwatch

Variables#

Struct: RTTFrameStruct#

float Phi
float Variance
float Resonance
float Entropy

Graph Logic#

Event: Construct#

• Initialize colors
• Clear timeline
• Bind to RTTTools timeline events (optional)

Event: Tick#

• If new frame available → append to TimelineData
• If AutoScroll → shift view
• Redraw lines on TimelineCanvas

Function: DrawTimeline()#

• Normalize values
• Plot φ, V, R, entropy as polylines
• Use color swatches for legend

Function: AddFrame(RTTFrameStruct Frame)#

• Append to TimelineData
• If > MaxFrames → remove oldest
• Call DrawTimeline()

Visual Style#

• Background: subtle grid (dark gray, 10% opacity)
• Lines:
  • φ → cyan
  • variance → yellow
  • resonance → magenta
  • entropy → red
• Legend: small color boxes with labels

Status#

Ready for implementation.
Fully aligned with the 2026 RTT Integrations standard. # BP_RTT_EntropyDemo — Blueprint Spec
RTT / Integrations / UE6 / Examples

Identity#

• Name: BP_RTT_EntropyDemo
• Parent: Actor
• Path: RTT/Examples/BP_RTT_EntropyDemo

Components#

• DefaultSceneRoot : SceneComponent
• RTTComponent : URTTComponent
• EntropySphere : StaticMeshComponent (sphere with M_RTT_EntropyField)

Variables (Category: RTT)#

• EntropyScale : float = 1.0

Event Graph#

Event BeginPlay

• Create Dynamic Material Instance for EntropySphere using M_RTT_EntropyField
• Store as EntropyMID

Event Tick

1. Call RTT_TraceEntropy on RTTComponent → EntropySignature
2. Set scalar/vector params on EntropyMID:
   • EntropyIntensity = EntropySignature.Intensity
   • EntropyRadius = EntropySignature.Radius * EntropyScale
   • EntropyCenter = EntropySignature.Location
3. Optional: Draw Debug Sphere at EntropySignature.Location.

Purpose#

Spatial entropy field visualization using the entropy material. # BP_RTT_HybridDemo — Blueprint Spec
RTT / Integrations / UE6 / Examples

Identity#

• Name: BP_RTT_HybridDemo
• Parent: Actor
• Path: RTT/Examples/BP_RTT_HybridDemo

Components#

• DefaultSceneRoot : SceneComponent
• RTTComponent : URTTComponent
• ParticleSystem : NiagaraComponent or ParticleSystemComponent
• HybridMesh : StaticMeshComponent (optional visual anchor)

Variables (Category: RTT)#

• HybridCoherenceThreshold : float = 0.5
• HybridIntensity : float = 1.0

Event Graph#

Event Tick

1. Call RTT_ProbeResonance → ResonanceFrame
2. Call RTT_TraceEntropy → EntropySignature
3. Compute HybridValue (Blueprint math):
   • HybridValue = (ResonanceFrame.Amplitude * (1 - EntropySignature.Intensity)) * HybridIntensity
4. Drive particle parameters:
   • Set Niagara Float Parameter "HybridStrength" = HybridValue
   • Optionally drive color/size based on HybridValue
5. Optional: if HybridValue > HybridCoherenceThreshold:
   • Change material on HybridMesh or trigger special effect.

Purpose#

Demonstrate hybrid operator behavior (resonance × entropy) driving a dynamic effect. # BP_RTT_ResonanceDemo — Blueprint Spec
RTT / Integrations / UE6 / Examples

Identity#

• Name: BP_RTT_ResonanceDemo
• Parent: Actor
• Path: RTT/Examples/BP_RTT_ResonanceDemo

Components#

• DefaultSceneRoot : SceneComponent
• RTTComponent : URTTComponent (attached to root)
• Mesh : StaticMeshComponent (visual target plane or sphere)

Variables (Category: RTT)#

• ResonanceScale : float = 1.0
• ResonanceColor : LinearColor = (1.0, 0.3, 0.8, 1.0)

Event Graph#

Event BeginPlay

• Create Dynamic Material Instance for Mesh using M_RTT_ResonanceHeatmap
• Store as ResonanceMID

Event Tick

1. Call RTT_ProbeResonance on RTTComponent → ResonanceFrame
2. Set scalar params on ResonanceMID:
   • ResonanceAmplitude = ResonanceFrame.Amplitude * ResonanceScale
   • ResonanceFrequency = ResonanceFrame.Frequency
   • ResonancePhase = ResonanceFrame.Phase
3. Optional: Draw Debug Sphere at actor location using amplitude‑scaled radius.

Purpose#

Visual, material‑driven resonance demo using the heatmap material. # UE6 Example Project — Folder Structure
RTT / Integrations / UE6 / ExampleProject

This structure defines a minimal UE6 project demonstrating RTT operators, resonance fields, entropy boundaries, and hybrid behavior.

ExampleProject/
    Config/
    Content/
        RTT/
            Core/
                RTTComponent.uasset
                RTT_Primitives.uasset
            Examples/
                BP_RTT_Primitives.uasset
                BP_RTT_ResonanceDemo.uasset
                BP_RTT_EntropyDemo.uasset
                BP_RTT_HybridDemo.uasset
            Materials/
                M_RTT_ResonanceHeatmap.uasset
                M_RTT_EntropyField.uasset
            UI/
                WBP_RTT_Timeline.uasset
                WBP_RTT_OperatorPanel.uasset
        Maps/
            RTT_Showcase.umap
            RTT_ResonanceRoom.umap
            RTT_EntropyField.umap
    Plugins/
        RTTUE6/
            Source/
            Resources/
    Scripts/
        RTTTools.py
        RTT_ResonanceVisualizer.py
        RTT_EntropyInspector.py
        RTT_OperatorTimeline.py
        RTT_MenuExtension.py
    README.md

Highlights#

• RTT/Core → C++ bindings + primitive Blueprint
• RTT/Examples → ready‑to‑run operator demos
• RTT/Materials → resonance + entropy visualization shaders
• RTT/UI → editor + runtime widgets
• Maps → curated scenes for φ–V–R, entropy, hybrid operators
• Scripts → all editor utilities in one place

This structure is AI‑parsable, student‑ready, and zero‑drift.