Geometric Attention Mechanism (GeoLLM): Production-Grade Architecture for O(N log N) Context Retrieval

The scalability of Large Language Models (LLMs) is fundamentally constrained by the O(N^2) time and memory complexity of standard Transformer attention mechanisms, which force discrete token sequences into continuous Euclidean spaces. This technical documentation introduces the Geometric Attention Mechanism (GeoLLM), a production-grade architecture built on discrete p-adic topology and the SL(3, Z) algebraic group. By replacing the dense O(N^2) attention matrix with a topological geometric inner product governed by the Tribonacci constant (approx. 1.8393), the framework natively compresses token history into a geometrically stable state. This paradigm shift yields exact context retrieval with O(N log N) time complexity and flat O(N) memory scaling, entirely eliminating the VRAM explosion associated with long-context windows. Benchmark results demonstrate an 86x inference speedup over standard attention at 8,192 tokens. This 30-page blueprint provides the complete engineering specification required for large-scale training and inference. It details the underlying mathematical proofs and explicit pseudocode for: • Hardware-level parallelization and vectorization. • Gradient stability and numerical precision protocols. • Memory-efficient Streaming and Sparse Geometric Attention. • Elimination of standard KV-cache bottlenecks. Access Note: This document contains proprietary production-level architectural designs and is published under a restricted CC BY-NC 4.0 license. Access to the full manuscript is granted upon request for purposes of enterprise integration, commercial licensing, and strategic API deployments.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-04-25
DOI
https://doi.org/10.5281/zenodo.19759779
Primary Topic
Topological and Geometric Data Analysis
Type
article
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article

Geometric Attention Mechanism (GeoLLM): Production-Grade Architecture for O(N log N) Context Retrieval

Dávid Navrátil
Zenodo (CERN European Organization for Nuclear Research)
Topological and Geometric Data Analysis
article

Geometric Attention Mechanism (GeoLLM): Production-Grade Architecture for O(N log N) Context Retrieval

Dávid Navrátil
article en

Abstract

The scalability of Large Language Models (LLMs) is fundamentally constrained by the O(N^2) time and memory complexity of standard Transformer attention mechanisms, which force discrete token sequences into continuous Euclidean spaces. This technical documentation introduces the Geometric Attention Mechanism (GeoLLM), a production-grade architecture built on discrete p-adic topology and the SL(3, Z) algebraic group. By replacing the dense O(N^2) attention matrix with a topological geometric inner product governed by the Tribonacci constant (approx. 1.8393), the framework natively compresses token history into a geometrically stable state. This paradigm shift yields exact context retrieval with O(N log N) time complexity and flat O(N) memory scaling, entirely eliminating the VRAM explosion associated with long-context windows. Benchmark results demonstrate an 86x inference speedup over standard attention at 8,192 tokens. This 30-page blueprint provides the complete engineering specification required for large-scale training and inference. It details the underlying mathematical proofs and explicit pseudocode for: • Hardware-level parallelization and vectorization. • Gradient stability and numerical precision protocols. • Memory-efficient Streaming and Sparse Geometric Attention. • Elimination of standard KV-cache bottlenecks. Access Note: This document contains proprietary production-level architectural designs and is published under a restricted CC BY-NC 4.0 license. Access to the full manuscript is granted upon request for purposes of enterprise integration, commercial licensing, and strategic API deployments.

Zenodo (CERN European Organization for Nuclear Research)
Industry, innovation and infrastructure
Openalex Percentile: Top 4%
Topological and Geometric Data Analysis
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