TriadicFrameworks · Resonance‑Time Theory · RTT‑Inside
Minimal‑intrusion overlays for engines, simulations, and tools.
RTT_Developer_Quick-Start.md
A minimal‑intrusion, developer‑ready introduction to embedding Resonance‑Time Theory inside real‑world systems.
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Badge Block#
- Status: Draft / Developer‑Facing
- Audience: Game devs, engine integrators, simulation architects
- Dependencies: RTTcore, RTTcode schema, TriadicFrameworks overlays
- Guarantees: Minimal intrusion, deterministic integration, schema‑first onboarding
1. What This Document Is#
This is the fastest possible path for a developer to embed RTT into a game loop, simulation engine, or interactive system.
It assumes:
- You know how to call an API
- You know how to serialize JSON
- You want RTT‑Inside without reading a 40‑page manuscript
This guide gives you:
- The mental model
- The core API pattern
- The minimal schema
- A working example
- A drop‑in integration recipe
2. RTT in 30 Seconds#
RTT (Resonance‑Time Theory) models state evolution not as linear time but as resonance‑driven transitions between stable configurations.
For developers, this collapses to a simple rule:
You send a state payload → RTT returns the next stable state.
RTT does not replace your physics, AI, or gameplay logic.
It overlays them with a resonance‑aware progression layer.
3. The Core Developer Loop#
Every RTT‑Inside integration follows the same 3‑step pattern:
-
Prepare a state packet
- Entities
- Environment
- Resonance inputs
- Time‑slice metadata
-
Send it to the RTT endpoint
- Local module
- Cloud function
- Embedded RTTcore
-
Apply the returned state
- Update entities
- Trigger events
- Advance resonance clock
This is the entire loop.
4. Minimal RTTcode Payload#
RTTcode is the canonical schema for RTT‑Inside integrations.
Example: Minimal Payload#
{
"rtt_version": "1.0",
"tick": 128,
"entities": [
{
"id": "player",
"state": {
"position": [12.4, 0.0, -3.1],
"velocity": [0.0, 0.0, 0.0],
"resonance": 0.42
}
}
],
"environment": {
"field_strength": 0.18,
"phase_noise": 0.02
},
"intent": "advance"
}Example: RTT Response#
{
"tick_next": 129,
"entities": {
"player": {
"position": [12.4, 0.0, -3.1],
"resonance_state": "stable",
"resonance_next": 0.44
}
},
"events": [
{
"type": "resonance-shift",
"entity": "player",
"delta": 0.02
}
]
}5. Integration Recipe (Game Loop)#
Pseudocode#
while game_running:
state = capture_state()
rtt_out = rttcore.step(state)
apply_state(rtt_out)
render()Unity‑Style#
void Update() {
var packet = BuildRTTPacket();
var result = RTT.Step(packet);
ApplyRTT(result);
}Unreal‑Style#
void AMyActor::Tick(float DeltaTime)
{
FRTTPacket Packet = BuildPacket();
FRTTResult Result = URTTCore::Step(Packet);
Apply(Result);
}6. Developer Mental Model#
RTT is not:
- A physics engine
- A magic AI system
- A replacement for your logic
RTT is:
- A resonance‑aware state transition oracle
- A stabilizer for chaotic systems
- A unifying layer for time, phase, and interaction
The developer only needs to know:
RTT takes your state and returns the next stable one.
7. Recommended Folder Structure#
Matches your TriadicFrameworks canon:
/rtt/
/core/
/schemas/
/examples/
/integrations/
unity/
unreal/
python/
node/
8. Testing & Debugging#
- Use deterministic seeds for reproducibility
- Log incoming packets and RTT responses
- Validate against the RTTcode schema
- Use the RTT Visualizer (optional) to inspect resonance flows
9. Developer Checklist#
- RTTcore installed
- RTTcode schema validated
- State capture implemented
- RTT step integrated
- Events handled
- Resonance clock advanced
- Logs enabled
10. Next Steps#
- Add multi‑entity resonance coupling
- Add environment‑driven resonance fields
- Add narrative or gameplay triggers
- Integrate RTT with AI decision layers
11. Appendix: Extended Payload Example#
A full multi‑entity example with resonance coupling, environment fields, and event triggers.