Overview

Operator Mapping — Crystal–Mycelial Engine

RTT / CMH / MSRM Operator Grammar Reference#


1. Purpose of This Page#

This document defines the operator grammar used by the Crystal–Mycelial Engine (CME).
Operators describe how biological geometry, hybrid resonance, and mineral lattice propagation are controlled across the CMH regime cycle.

Operators are grouped by RTT families:

  • P — Propagation
  • E — Energy
  • G — Gradient
  • M — Memory
  • S — Substrate
  • HybridOps — Hybrid‑layer operators

2. Operator Overview Table#

Operator Family CME Role Example Operators
P Geometry, routing, front propagation P.trace_extend, P.front_propagate
E Pulses, resonance fields, waveform alignment E.logic_pulse, E.resonance_field
G Gradients shaping substrate directionality G.nutrient_gradient, G.resonance_gradient
M Memory encoding and transfer M.route_memory, M.domain_memory
S Substrate transitions and hybridization S.channel_fill, S.dual_substrate_alignment
HybridOps Hybrid‑layer alignment and memory transfer HybridOps.memory_transfer, HybridOps.resonance_bridge

3. BGR Operator Mapping#

Biological Growth Regime#

Propagation (P)#

  • P.trace_extend — extend hyphal tips
  • P.branch_decision — select branching direction
  • P.route_establish — stabilize biological channels

Energy (E)#

  • E.logic_pulse — generate biological pulses
  • E.pulse_sync — align pulse timing

Gradient (G)#

  • G.nutrient_gradient — shape growth direction
  • G.moisture_gradient — regulate channel thickness

Memory (M)#

  • M.route_memory — encode routing history
  • M.branch_memory — store branching events

4. HRR Operator Mapping#

Hybrid Resonance Regime#

Substrate (S)#

  • S.channel_fill — infiltrate biological channels
  • S.map_preserve — preserve geometry during infiltration
  • S.dual_substrate_alignment — maintain coherence

HybridOps#

  • HybridOps.memory_transfer — biological → mineral memory mapping
  • HybridOps.resonance_bridge — stabilize hybrid waveforms

Energy (E)#

  • E.resonance_sync — synchronize biological + mineral waveforms
  • E.resonance_field — generate resonance field

Gradient (G)#

  • G.resonance_gradient — shape resonance field
  • G.ion_gradient — regulate infiltration depth

5. MLR Operator Mapping#

Mineral Lock‑In Regime#

Propagation (P)#

  • P.front_propagate — advance crystal growth front
  • P.domain_extend — extend mineral domain boundaries

Memory (M)#

  • M.domain_memory — encode memory in crystal domains
  • M.impurity_memory — stabilize impurity band patterns

Energy (E)#

  • E.resonance_field — align lattice propagation
  • E.domain_lock — stabilize resonance‑aligned domains

Substrate (S)#

  • S.dual_substrate_alignment — maintain coherence during mineral takeover
  • S.substrate_swap — finalize hybrid → mineral transition

6. Cross‑Regime Operator Flow#

BGR (P/E/G/M)
    ↓ moisture ↓
HRR (S/HybridOps/E/G)
    ↓ supersaturation ↑
MLR (P/M/E/S)

Operators shift emphasis as substrate transitions from biological → hybrid → mineral.


7. CME Operator Notes#

  • Biological operators define geometry.
  • Hybrid operators align geometry with mineral precursors.
  • Mineral operators stabilize lattice logic and domain memory.
  • Memory operators persist across all regimes.
  • Substrate operators govern transitions between layers.

Updated