Neurogenesis Reinforcement Learning Language Model

We propose the Neurogenesis Reinforcement Learning Language Model (NRLLM), a research framework in which stable linguistic mastery can trigger endogenous growth of a language agent trained through reinforcement learning. Godrick is the proposed experimental realization. Its defining hypothesis is that an exactly-one-neuron increase in a dynamic hidden structure, conditioned on independently specified mastery criteria, can support subsequent learning without sacrificing previously acquired capabilities. The framework separates content admission, learning, mastery assessment, and structural growth. A beta discernment subsystem evaluates whether authorized material is relevant and sufficiently supported for a target linguistic capability; it does not certify mastery. A future continual-learning stage would use a localhost chat and explicitly permitted internet sources. We formalize a candidate growth gate, outline initialization and plasticity choices, and specify controlled comparisons against fixed capacity, alternative growth triggers, replay, and feature replacement. Earlier work establishes individual components, including one-unit growth, artificial neurogenesis, reinforcement learning, and language-model expansion. The contribution claimed here is a proposed synthesis and falsifiable experimental protocol, not demonstrated superiority or an established claim of historical priority. No implementation results or benchmark measurements are reported.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-06
DOI
https://doi.org/10.5281/zenodo.22509313
Primary Topic
Language and cultural evolution
Type
preprint
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preprint

Neurogenesis Reinforcement Learning Language Model

Felipe Muniz
Zenodo (CERN European Organization for Nuclear Research)
Language and cultural evolution
preprint

Neurogenesis Reinforcement Learning Language Model

Felipe Muniz
preprint en

Abstract

We propose the Neurogenesis Reinforcement Learning Language Model (NRLLM), a research framework in which stable linguistic mastery can trigger endogenous growth of a language agent trained through reinforcement learning. Godrick is the proposed experimental realization. Its defining hypothesis is that an exactly-one-neuron increase in a dynamic hidden structure, conditioned on independently specified mastery criteria, can support subsequent learning without sacrificing previously acquired capabilities. The framework separates content admission, learning, mastery assessment, and structural growth. A beta discernment subsystem evaluates whether authorized material is relevant and sufficiently supported for a target linguistic capability; it does not certify mastery. A future continual-learning stage would use a localhost chat and explicitly permitted internet sources. We formalize a candidate growth gate, outline initialization and plasticity choices, and specify controlled comparisons against fixed capacity, alternative growth triggers, replay, and feature replacement. Earlier work establishes individual components, including one-unit growth, artificial neurogenesis, reinforcement learning, and language-model expansion. The contribution claimed here is a proposed synthesis and falsifiable experimental protocol, not demonstrated superiority or an established claim of historical priority. No implementation results or benchmark measurements are reported.

Zenodo (CERN European Organization for Nuclear Research)
Quality Education
Language and cultural evolution
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