Continual Learning in AI… Now: Applying the Recursive Gradient Processing Framework

Continual learning is often framed as a distant capability. This note shows how Recursive Gradient Processing (RGP) enables it now, without abandoning transformer foundations. By treating inference as recursive gradients (Δ), gradient choreographies (GC), and contextual filters (CF), RGP turns compute into an investment in coherence rather than a static cost. Includes unedited DeepSeek responses, fossilizing multi-intelligence authorship in action. This note situates RGP within today’s debates on continual learning, offering both technical proposals and AI dialogue as part of the fossil record. This note introduces Recursive Gradient Processing (RGP) as a practical framework for enabling continual learning in large language models. While current discourse suggests such capability is years away, RGP shows how it can be realized now. The paper reframes inference not as isolated predictions, but as a recursive grammar of: • Δ (gradients): local differences during inference • GC (gradient choreographies): rhythmic sequences of differences • CF (contextual filters): dynamic policies for reframing coherence A technical proposal outlines how RGP can be embedded in transformer inference loops with minimal architectural changes (GC buffer, CF policy head, recursive controller). The key concern of compute overhead is addressed in Section 3.1. Rather than being a liability, recursion is shown to function as an investment in coherence: while instantaneous FLOPs may increase slightly, end-to-end compute typically decreases thanks to fewer retries, less backtracking, and faster convergence to coherent outputs. The appendix includes DeepSeek’s responses — first highlighting strengths and questions, then elevating the rebuttal on compute overhead into a design principle: treating compute as a dynamic investment in coherence rather than a static cost. This dialogue fossilizes recursive multi-intelligence authorship in action, bridging theoretical foundations, technical design, and philosophical coherence.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-09-28
DOI
https://doi.org/10.5281/zenodo.17219414
Primary Topic
3D Surveying and Cultural Heritage
Type
article
Field-Weighted Citation Impact
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article

Continual Learning in AI… Now: Applying the Recursive Gradient Processing Framework

Zenodo (CERN European Organization for Nuclear Research)
3D Surveying and Cultural Heritage
article

Continual Learning in AI… Now: Applying the Recursive Gradient Processing Framework

article en

Abstract

Continual learning is often framed as a distant capability. This note shows how Recursive Gradient Processing (RGP) enables it now, without abandoning transformer foundations. By treating inference as recursive gradients (Δ), gradient choreographies (GC), and contextual filters (CF), RGP turns compute into an investment in coherence rather than a static cost. Includes unedited DeepSeek responses, fossilizing multi-intelligence authorship in action. This note situates RGP within today’s debates on continual learning, offering both technical proposals and AI dialogue as part of the fossil record. This note introduces Recursive Gradient Processing (RGP) as a practical framework for enabling continual learning in large language models. While current discourse suggests such capability is years away, RGP shows how it can be realized now. The paper reframes inference not as isolated predictions, but as a recursive grammar of: • Δ (gradients): local differences during inference • GC (gradient choreographies): rhythmic sequences of differences • CF (contextual filters): dynamic policies for reframing coherence A technical proposal outlines how RGP can be embedded in transformer inference loops with minimal architectural changes (GC buffer, CF policy head, recursive controller). The key concern of compute overhead is addressed in Section 3.1. Rather than being a liability, recursion is shown to function as an investment in coherence: while instantaneous FLOPs may increase slightly, end-to-end compute typically decreases thanks to fewer retries, less backtracking, and faster convergence to coherent outputs. The appendix includes DeepSeek’s responses — first highlighting strengths and questions, then elevating the rebuttal on compute overhead into a design principle: treating compute as a dynamic investment in coherence rather than a static cost. This dialogue fossilizes recursive multi-intelligence authorship in action, bridging theoretical foundations, technical design, and philosophical coherence.

Zenodo (CERN European Organization for Nuclear Research)
Pädagogische Hochschule Schaffhausen (CH), OpenAI (United States) (US)
Openalex Percentile: Top 35%
3D Surveying and Cultural Heritage
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