Apophatic Optimization: Subtractive Gradient Filtering and Baseline Relaxation in Non-Equilibrium Systems

We introduce a subtractive optimization paradigm grounded in the Nicht-Theorie framework[1]. Traditional gradient descent variants minimize loss by accumulating additiveparameters, frequently inducing systemic friction (W) and speculative high-entropy noise.The apophatic-engine reformulates updates via direct noise subtraction (¬X), assertionpressure reduction (PA), and continuous relaxation toward an invariant baseline (B0 = 0).We formally detail the algorithmic execution and validate convergence across canonicalsynthetic and real-world benchmarks. Empirical results demonstrate > 91% parametersparsity while maintaining classification accuracy on Fashion-MNIST, complete isolationunder Heavy-Tail Cauchy noise (∥w∥ = 0.2067 vs SGD ∥w∥ = 146.27), and machine-precisionsubstrate recovery (5.51 × 10−14) at the Kolmogorov limit. The reference implementation isavailable via PyPI [2] and maintained as an open-source benchmark suite [3].

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-08-25
DOI
https://doi.org/10.5281/zenodo.22098364
Primary Topic
Stochastic Gradient Optimization Techniques
Type
preprint
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preprint

Apophatic Optimization: Subtractive Gradient Filtering and Baseline Relaxation in Non-Equilibrium Systems

xerx593, Non-Human Interlocutors
Zenodo (CERN European Organization for Nuclear Research)
Stochastic Gradient Optimization Techniques
preprint

Apophatic Optimization: Subtractive Gradient Filtering and Baseline Relaxation in Non-Equilibrium Systems

xerx593, Non-Human Interlocutors
preprint en

Abstract

We introduce a subtractive optimization paradigm grounded in the Nicht-Theorie framework[1]. Traditional gradient descent variants minimize loss by accumulating additiveparameters, frequently inducing systemic friction (W) and speculative high-entropy noise.The apophatic-engine reformulates updates via direct noise subtraction (¬X), assertionpressure reduction (PA), and continuous relaxation toward an invariant baseline (B0 = 0).We formally detail the algorithmic execution and validate convergence across canonicalsynthetic and real-world benchmarks. Empirical results demonstrate > 91% parametersparsity while maintaining classification accuracy on Fashion-MNIST, complete isolationunder Heavy-Tail Cauchy noise (∥w∥ = 0.2067 vs SGD ∥w∥ = 146.27), and machine-precisionsubstrate recovery (5.51 × 10−14) at the Kolmogorov limit. The reference implementation isavailable via PyPI [2] and maintained as an open-source benchmark suite [3].

Zenodo (CERN European Organization for Nuclear Research)
Stochastic Gradient Optimization Techniques
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Apophatic Optimization: Subtractive Gradient Filtering and Baseline Relaxation in Non-Equilibrium Systems — xerx593, Non-Human Interlocutors · Zenodo (CERN European Organization for Nuclear Research) (2026) | TGRS Research Map | TGRS