Envelope Reference
Crystal–Mycelial Engine — RTT / CMH / MSRM#
1. Purpose of This Page#
This document provides a consolidated reference for all substrate envelopes used within the Crystal–Mycelial Engine (CME).
Envelopes define the environmental and field conditions required for stable substrate transitions across the CMH regime cycle.
2. Envelope Categories#
CME uses envelopes in three primary domains:
- Moisture envelopes
- Ion saturation envelopes
- Resonance envelopes
- Electromagnetic envelopes
- Thermal envelopes
Each envelope constrains substrate behavior and determines regime boundaries.
3. Biological Growth Regime (BGR) Envelopes#
Moisture Envelope#
Target: 0.55–0.65
- Supports hyphal extension
- Prevents uncontrolled overgrowth
- Maintains pulse conductivity
Nutrient Envelope#
Target: low‑nitrogen
- Encourages channel formation
- Reduces chaotic branching
Electromagnetic Envelope#
Target: 0.2–0.4 mT
- Stabilizes biological pulse propagation
- Maintains coherence across hyphal networks
4. Hybrid Resonance Regime (HRR) Envelopes#
Ion Saturation Envelope#
Target: 0.65–0.75
- Enables mineral precursor infiltration
- Supports hybrid memory transfer
Coherence Field Envelope#
Target: 0.8–1.4 kHz
- Aligns biological and mineral waveforms
- Required for resonance synchronization
Moisture Envelope#
Target: 0.35–0.45
- Reduces biological activity
- Prepares substrate for mineral infiltration
5. Mineral Lock‑In Regime (MLR) Envelopes#
Supersaturation Envelope#
Target: ≥ 0.85
- Enables crystal lattice propagation
- Supports impurity band formation
Thermal Envelope#
Target: −3 to −5 °C shift
- Stabilizes mineral domains
- Locks resonance‑aligned lattice geometry
Resonance Alignment Envelope#
Requirement: TRUE
- Mandatory for domain memory formation
- Ensures coherent lattice propagation
6. Operator Influence on Envelopes#
Propagation (P)#
- Sensitive to moisture and supersaturation
- Controls front propagation stability
Energy (E)#
- Sensitive to EM field and resonance envelopes
- Controls pulse and resonance field behavior
Gradient (G)#
- Sensitive to nutrient and voltage gradients
- Shapes substrate directionality
Memory (M)#
- Sensitive to domain stability envelopes
- Encodes routing and impurity‑band memory
Substrate (S)#
- Sensitive to hybrid transition envelopes
- Controls infiltration and dual‑substrate alignment
7. Envelope Transition Summary#
BGR → moisture ↓ → HRR → supersaturation ↑ → MLR
Each envelope shift marks a substrate transition point within CME.