Technical Documentation · API Reference · Entropic Memory Framework

ENTRO-GHOST

Documentation

Complete guide for entropic memory and ghost recovery.
Ghost Trace: Γ(t) = ∫₀ᵗ Ψ(τ)·exp(−α(t−τ)) dτ · GRA: u_GRA = u + ζ·(Ψ*−Γ) · VPD · HSP

DOI: 10.5281/zenodo.19504584 Python 3.11+ MIT License 47.3% Improvement E-LAB-08
v1.0.0 · ENTRO-GHOST Released: April 11, 2026 Recovery Improvement: 47.3% Test Pass Rate: 100%

From discarded noise to actionable signals

"Systems that know where they have been can find their way back significantly faster than systems that do not." — Samir Baladi, April 2026

ENTRO-GHOST introduces the Entropic Memory Framework (EMF) that treats residual information — the thermodynamic traces left by prior computational states — as actionable signals rather than discarded noise. The framework achieves 47.3% reduction in recovery time following catastrophic entropy collapse events.

47.3%
Recovery Improvement
vs memoryless baseline
5
Core Modules
GhostTrace, GRA, VPD, HSP, Utils
100%
Test Pass Rate
All unit tests passing
86.3%
Max Improvement
With optimal parameters

Ghost Trace

// Ghost Trace Integral (Equation 3.1) Γ(t) = ∫₀ᵗ Ψ(τ) · exp(−α(t − τ)) dτ // Discrete-Time Ghost Trace Update (Equation 3.2) Γ[k] = exp(−α·Δt)·Γ[k−1] + (1 − exp(−α·Δt))·Ψ[k] // Python implementation from entro_ghost import GhostTrace gt = GhostTrace(alpha=0.1, dt=0.1) gamma = gt.update(psi=0.95)
ParameterDescriptionDefault
alphaTemporal decay coefficient (forgetting rate)0.1
dtSampling interval0.1
memory_depthMaximum number of history entries200

Ghost Recovery Algorithm

// Ghost Recovery Equation (Equation 4.1) u_GRA(t) = u(t) + ζ · (Ψ*(t) − Γ(t)) // Optimal Ghost Recall Factor (Equation 4.4) ζ* = √(k_p · α) − α // Python implementation from entro_ghost import GhostRecoveryOptimizer gra = GhostRecoveryOptimizer(alpha=0.1, zeta=0.65) result = gra.control(psi=0.85, psi_star=0.95, u_baseline=0.1)

Void Pattern Detector

// Void Energy Function (Equation 5.1) E_V(t) = β · ∫_{V∩[t−w,t]} exp(−γ·(t−s)) ds // Void-Augmented GRA (Equation 5.2) u_VGRA(t) = u_GRA(t) + κ · E_V(t) · sign(Ψ* − Ψ) // Python implementation from entro_ghost import VoidPatternDetector vpd = VoidPatternDetector(beta=1.0, gamma=0.05, kappa=0.3) energy = vpd.update(observed=False)

Holographic Stability Protocol

// Global Attractor Estimate (Section 6.2) Ψ*_HSP(t) = median({Γᵢ(t) : i = 1, ..., M}) // Holographic Encoding (Section 6.3) h = Φ · Ψ* (encode) Ψ* ≈ Φᵀ(ΦΦᵀ)⁻¹·h (decode) // Python implementation from entro_ghost import HolographicStabilityProtocol hsp = HolographicStabilityProtocol(n_subsystems=8, encoding_depth=3) result = hsp.step(psi_vector=[0.9, 0.85, ...], target=0.95)

Routh-Hurwitz Stability Analysis

// Coupled Error Dynamics (Equation 4.2) dε/dt = −(k_p + ζ)·ε(t) + ζ·δ(t) dδ/dt = −α·δ(t) + α·ε(t) // Characteristic Equation (Equation 4.3) λ² + (k_p + ζ + α)λ + (k_p·α) = 0 // Routh-Hurwitz conditions: k_p > 0, α > 0, ζ ≥ 0 // GRA is unconditionally stable for any ζ ≥ 0

Monte Carlo Simulation

// Run complete simulation from entro_ghost import run_simulation, print_simulation_results results = run_simulation( steps=1000, alpha=0.1, zeta=0.65, use_vpd=True, collapse_probability=0.03 ) print_simulation_results(results)

Quick setup

# Install from PyPI pip install entro-ghost # Clone repository git clone https://github.com/gitdeeper10/ENTRO-GHOST.git cd ENTRO-GHOST # Install with pip pip install -e . # Verify installation python -c "from entro_ghost import __version__; print(__version__)"

Python interface

GhostTrace
Exponentially-weighted integral of stability history
from entro_ghost import GhostTrace gt = GhostTrace(alpha=0.1, dt=0.1, memory_depth=200) gamma = gt.update(psi=0.95)
GhostRecoveryOptimizer
Ghost Recovery Algorithm with recall force
from entro_ghost import GhostRecoveryOptimizer gra = GhostRecoveryOptimizer(alpha=0.1, zeta=0.65) result = gra.control(psi=0.85, psi_star=0.95, u_baseline=0.1)
VoidPatternDetector
Treats informational gaps as latent potential energy
from entro_ghost import VoidPatternDetector vpd = VoidPatternDetector(beta=1.0, gamma=0.05, kappa=0.3) energy = vpd.update(observed=False)
HolographicStabilityProtocol
Distributed memory with Byzantine fault tolerance
from entro_ghost import HolographicStabilityProtocol hsp = HolographicStabilityProtocol(n_subsystems=8, encoding_depth=3) result = hsp.step(psi_vector, target=0.95)

ENTRO-GHOST architecture

ghost_trace.py
Γ(t)
Ghost Trace formalism
gra.py
GRA
Ghost Recovery Algorithm
vpd.py
VPD
Void Pattern Detector
hsp.py
HSP
Holographic Stability Protocol
utils.py
Utils
Simulation & metrics

Principal investigator

👻

Samir Baladi

Interdisciplinary AI Researcher — Theoretical Physics, Statistical Mechanics & Information Theory
Ronin Institute / Rite of Renaissance
Samir Baladi is an independent researcher affiliated with the Ronin Institute, developing the Rite of Renaissance interdisciplinary research program. ENTRO-GHOST is the eighth project (E-LAB-08) in a ten-project research program, building directly on ENTROPIA (E-LAB-01) through ENTRO-QUANTUM (E-LAB-07).
No conflicts of interest declared. All code and data are open-source under MIT License.

How to cite

@software{baladi2026entroghost, author = {Samir Baladi}, title = {ENTRO-GHOST: Entropic Memory and Residual Pattern Discovery in Informational Voids}, year = {2026}, version = {1.0.0}, publisher = {Zenodo}, doi = {10.5281/zenodo.19504584}, url = {https://doi.org/10.5281/zenodo.19504584}, note = {E-LAB-08. Builds on E-LAB-01 through E-LAB-07} }
"Systems that know where they have been can find their way back significantly faster than systems that do not. Stability is not merely controlled; it is remembered, anticipated, and recovered from the residual intelligence left by the past."

Start Exploring

Access the complete entropic memory framework and Python package.