CMH Regimes Overview

Crystal–Mycelial Engine — RTT / CMH / MSRM#

1. Purpose of This Page#

This document provides a consolidated overview of the three CMH substrate regimes defined in the MSRM cycle and explains how each regime interacts with the Crystal–Mycelial Engine (CME).
It is the “front‑door” conceptual summary for regime behavior within CME.

2. Regime List#

The CMH substrate system transitions through three regimes:

1. Biological Growth Regime (BGR)
2. Hybrid Resonance Regime (HRR)
3. Mineral Lock‑In Regime (MLR)

Each regime defines a distinct substrate state, envelope, and operator set.

3. Regime Purposes (CME Context)#

Biological Growth Regime (BGR)#

Purpose: Establish biological geometry
Substrate: Mycelial networks
CME Role: Provides the routing channels and pulse pathways that CME uses as the initial substrate map.
Outputs: hyphal channels, branch scars, biological memory

Hybrid Resonance Regime (HRR)#

Purpose: Align biological and mineral substrates
Substrate: Hybrid transition layer
CME Role: Enables mineral infiltration and resonance alignment required for hybrid memory transfer.
Outputs: hybrid layer, resonance‑aligned waveforms

Mineral Lock‑In Regime (MLR)#

Purpose: Stabilize mineral logic substrate
Substrate: Crystal lattice
CME Role: Finalizes mineral domain formation and impurity‑encoded memory, producing the CME’s mineral logic layer.
Outputs: crystal domains, mineral logic regions, impurity bands

4. Operator Mapping Across Regimes#

BGR Operators#

• P.trace_extend
• E.logic_pulse
• G.nutrient_gradient
• M.route_memory

HRR Operators#

• S.channel_fill
• HybridOps.memory_transfer
• E.resonance_sync
• G.resonance_gradient

MLR Operators#

• P.front_propagate
• M.domain_memory
• E.resonance_field
• S.dual_substrate_alignment

5. Envelope Summary#

BGR#

• Moisture: 0.55–0.65
• EM field: 0.2–0.4 mT
• Nutrients: low‑nitrogen

HRR#

• Ion saturation: 0.65–0.75
• Coherence field: 0.8–1.4 kHz
• Moisture: 0.35–0.45

MLR#

• Supersaturation: ≥ 0.85
• Temperature shift: −3 to −5 °C
• Resonance alignment: required

6. Regime Flow (CME Perspective)#

Biological Growth Regime
    ↓ moisture ↓
Hybrid Resonance Regime
    ↓ supersaturation ↑
Mineral Lock‑In Regime

This flow defines the substrate transformation pipeline used by the Crystal–Mycelial Engine.

7. CME Integration Summary#

• CME begins in BGR, forming biological geometry.
• CME transitions through HRR, aligning biological and mineral substrates.
• CME completes in MLR, stabilizing mineral logic and domain memory.

These regimes collectively define the substrate lifecycle of CME.