Simulation Run — 2026–2326 · 300 Years · Annual Timestep

Primordial Calculus — The Abiogenesis Code

HIR × OAM Dual-Scenario Simulation Engine v1.0
Honesty · Integrity · Respect — Base Constructive Terms  ·  Outsourced Agency Model
Created and Developed by Collin D. Weber
HIR
Synthetic Model Scenario Checkpoints Not Prediction Not Policy Tool A dynamic regenerative recursive resonance reclamation model for exploring degradation, repair capacity, and HIR/OAM pressure behavior under stated assumptions.
Scenarios
Parameters
0.026
0.065
0.015
READY
OAM Baseline (no HIR coupling)
HIR Active (repair mechanism engaged)
Initial conditions: 2026 canonical baseline · Δt = 1 year
Accumulated Degradation D(t)
ΔD = k_D · (N+E)/2 · (1 − B_local)
Agency Loss N(t) & Ecological Strain E(t)
ΔN = k_N · N·(1−N)·(1 + D·λ) · (1 − S_core·μ)
Alchemical Continuity Ac(t) & Population Response P(t)
ΔAc = −k_Ac · Ac · (N+E) · (1+D·ε)  |  ΔP = −k_P · D · P
HIR Triad — Honesty · Integrity · Respect
ΔH = k_H · H·(1−H)  |  F = (H+I)/2  |  C = (R+I)/2
Resonance Chain — Rn, S_core, B_local (HIR active)
ΔRn = k_Rn · F · C · (1−Rn)  |  S_core = Rn·(1+ζ·Grit)  |  B_local = S_core²
Earned Grit G(t) & System Health Composite
ΔG = k_G · Rn · (1−G)  |  Health = Ac·P·(1−D/D_ref)

Selected Year Snapshots

OAM Baseline — No HIR Coupling

YearNEAcDPS_core

HIR Active — Repair Mechanism Engaged

YearNEAcDPRnS_core

Simulation Equation Set — Reconstruction v1.0

OAM Pressure Dynamics

N — Agency Loss / Social Harm
N[t+1] = min(1, N + k_N·N·(1−N)·(1+D·λ)·(1−S_core·μ))
E — Ecological Strain
E[t+1] = min(E_cap, E + k_E·E·(E_cap−E)) ; E_cap = 1−ε·B_local
D — Accumulated Degradation
D[t+1] = D + k_D·(N+E)/2·(1−B_local)
Ac — Alchemical Continuity
Ac[t+1] = max(0, Ac − k_Ac·Ac·(N+E)·(1+D·0.2))
P — Population Response
P[t+1] = max(0.15, P·(1 − k_P·D))

HIR Constructive Chain

H, I, R — Base Constructive Terms
X[t+1] = min(1, X + k_X·X·(1−X)) for X ∈ {H, I, R}
F, C — Derived States
F = (H+I)/2 ; C = (R+I)/2  [Fidelity, Cohesion]
Rn — Resonance
Rn[t+1] = min(1, Rn + k_Rn·F·C·(1−Rn))
G — Earned Grit
G[t+1] = min(1, G + k_G·Rn·(1−G))
S_core, B_local — Core Density & Field
S_core = min(1, Rn·(1+ζ·G)) ; B_local = S_core²
H + I → Fidelity (F)  ·  R + I → Cohesion (C)  ·  F + C → Resonance (Rn)  ·  Resonance × Pressure → Earned Grit (G)  ·  Dense Core Sets Local Coherence Baseline