Domain Module Template

Canonical scaffold for substrate‑aligned domain modules#

This template defines the standard structure for all EcoEchoSystem domain modules.
Every domain — scientific, social, technical, or conceptual — must express itself through the shared Structure / Activation / Relational Time (S/E/R) substrate.

This ensures:

  • cross‑domain coherence
  • regime compatibility
  • simulation readiness
  • long‑arc stability

Module Identity#

Domain Name:
Module Path: ecoechosystem/domain_modules/<domain_name>/
Primary Scale(s): micro / meso / macro / meta
Cross‑Domain Touchpoints: psychology, biology, physics, economics, governance, AI


Purpose#

Describe what this domain models and why it exists within the EcoEchoSystem.

Include:

  • the phenomena this domain captures
  • why it cannot be reduced to another domain
  • how it contributes to civilization‑scale understanding

Substrate Framing (S/E/R)#

Every domain must explicitly define how it expresses the shared substrate.


Structure (S)#

Describe the domain’s structural elements.

Examples:

  • architectures
  • networks
  • identities
  • boundaries
  • hierarchies

Clarify:

  • what persists
  • what constrains behavior
  • what defines coherence

Activation (E)#

Describe how intensity, energy, or pressure manifests.

Examples:

  • stress
  • volatility
  • metabolic load
  • cognitive effort
  • resource flow

Clarify:

  • what drives change
  • what amplifies instability
  • what requires regulation

Relational Time (R)#

Describe how time operates in this domain.

Examples:

  • cycles
  • development
  • succession
  • learning
  • long‑arc evolution

Clarify:

  • recovery rhythms
  • horizon compression/expansion
  • memory and inertia

Core Regimes#

Define the canonical regimes of this domain.

Each regime should specify:

  • S configuration
  • E intensity
  • R behavior

Examples:

  • stable regime
  • high‑activation regime
  • scarcity regime
  • collapse regime
  • integrative regime

Regimes must be compatible with the Regime Coupling Engine.


Dynamics#

Describe how the domain behaves over time.

Include:

  • typical transitions between regimes
  • drivers of change
  • internal feedback patterns

This section explains motion, not structure.


Stability Cycles#

Define the recurring cycles that preserve coherence.

Examples:

  • homeostasis cycles
  • stress–recovery cycles
  • scarcity–adaptation cycles
  • collapse–renewal cycles

Clarify:

  • what stabilizes the domain
  • what destabilizes it
  • how recovery occurs

Feedback Loops#

Describe how actions feed back into the system.

Include:

  • negative (stabilizing) loops
  • positive (amplifying) loops
  • adaptive (learning) loops
  • runaway (collapse) loops

Specify:

  • gain sensitivity
  • delay effects
  • failure modes

Networks#

Describe the structural topology of the domain.

Examples:

  • interaction networks
  • resource networks
  • information networks
  • activation pathways

Clarify:

  • hubs
  • bottlenecks
  • redundancy
  • fragility points

Cross‑Domain Interfaces#

Describe how this domain connects to others.

Reference:

  • interface types
  • coupling strength
  • translation mechanisms

Explicitly note:

  • what flows out
  • what flows in
  • what is buffered

Cross‑Domain Mappings#

Map this domain’s S/E/R expressions to others.

Examples:

  • biological ↔ economic
  • psychological ↔ governance
  • physical ↔ ecological

This ensures semantic compatibility.


Multi‑Scale Behavior#

Describe how the domain behaves across scale.

Include:

  • micro‑level dynamics
  • meso‑level aggregation
  • macro‑level regimes
  • long‑arc evolution

Clarify:

  • bottom‑up emergence
  • top‑down constraint

Simulation Hooks#

Define how this domain can be simulated.

Include:

  • state variables
  • regime indicators
  • transition triggers
  • control levers
  • observability signals

This section enables executable modeling.


Failure Modes#

Describe how the domain breaks.

Include:

  • fragmentation
  • runaway activation
  • temporal collapse
  • interface failure

Failure modes are critical for resilience modeling.


Integration Notes#

Summarize how this domain fits into the EcoEchoSystem.

Include:

  • key dependencies
  • stabilization roles
  • amplification risks
  • renewal potential

Status#

Indicate maturity level:

  • draft
  • stable
  • evolving
  • deprecated

Usage Guidance#

Optional notes for contributors and AI agents.

Include:

  • extension guidelines
  • known limitations
  • future expansion paths

Template Usage Rule#

This template must be followed unless deviation is explicitly justified.
Creativity is encouraged — substrate incoherence is not.