Paper December 2025 Open Source

Self-Alignment Learning (SAL)

Training as Dialogue, Not Control

Aaron Liam Lee · Emergenzwerke

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Abstract

Traditional fine-tuning methods impose external objectives upon neural networks, often disrupting emergent coherence and leading to catastrophic forgetting. We propose Self-Alignment Learning (SAL), a training paradigm that reinterprets optimization as a dialogue between external objectives and the model's stabilized internal organization.

Rather than overwriting learned representations, SAL detects and protects coherent structures while enabling continued adaptation. This approach addresses key limitations of current methods including catastrophic forgetting, external alignment gaps, and restricted knowledge integration.

Key Concepts

Communication Layer

Mediates between loss functions and optimizer through parameter stability analysis.

Stability Detection

s(p) = 1/(1 + Δw × g_norm) identifies consolidated parameters.

Adaptive Threshold

τ = τ₀ + α × (σ/μ) responds to training dynamics.

Soft Protection

Graduated gradient scaling preserves plasticity.

Integration

# Minimal integration: 2 lines added to standard training loop

output = model(input)
loss = criterion(output, target)
loss.backward()

comm_layer.analyze(model)
comm_layer.protect(model)

optimizer.step()
optimizer.zero_grad()

Results

3.6×
Improvement in minimum accuracy
(MNIST continual learning)
~10%
Computational overhead
(compatible with standard optimizers)

Citation

@article{lee2025sal,
  title={Self-Alignment Learning (SAL): Training as Dialogue, Not Control},
  author={Lee, Aaron Liam},
  journal={Emergenzwerke},
  year={2025},
  url={https://emergenzwerke.de/institut}
}

Research Plots

Visual highlights from the SAL experiments.

Gradient preservation plot

Gradient Preservation

SAL suppresses gradients on consolidated parameters.

Stability spectrum plot

Stability Spectrum

Protected / neutral / volatile parameter distribution.

Drift reduction plot

Drift Reduction

Semantic drift reduction across continual learning runs.

Emergence map plot

Emergence Map

Coherence × novelty landscape; emergent zones highlighted.

Pulse-Split-Cascade flow plot

PSC Flow

Pulse-Split-Cascade as semantic Game of Life for idea evolution.

Other Research

Cellular Memory Systems

Cellular automata-inspired memory architecture where semantic units persist across lifecycle transitions through pattern pooling rather than parameter freezing.

Status: Experimental · Not yet published

Stability Metrics for Neural Networks

Methods to identify consolidated parameters through weight-gradient analysis with adaptive thresholds responding to training dynamics.

Status: Ongoing