The Dual-Tier Memory Hierarchy for Neural Language Processing: Scale-Invariant Semi-Parametric Intelligence via Hardware-Coupled Non-Volatile Storage

For over seven decades, computer architecture has adhered to a fundamental engineering axiom: high-frequency computational registers must never be overburdened with static archival storage. Modern foundational language models violate this foundational principle. Monolithic deep neural networks force high-bandwidth parametric weight matrices to serve simultaneously as fluid reasoning circuits, syntactic parsers, and static encyclopedic repositories. This structural coupling induces the Parametric Memory Wall: an exponential capacity conflict resulting in factual hallucinations, catastrophic forgetting during domain updates, and prohibitive thermodynamic, electrical, and thermal dissipation penalties across hyperscale GPU clusters. In this paper, we introduce the AviBharat Architecture, establishing a scale-invariant Dual-Tier Memory Hierarchy for Neural Language Processing. Under this paradigm, intelligence is decoupled into complementary physical tiers:1. Tier-1 Working Memory (Parametric Compute Core): An ultra-dense autoregressive neural network dedicated exclusively to syntax decomposition, structural intent parsing, contextual query deconstruction, and multi-source synthesis.2. Tier-2 Epistemic Storage (Non-Volatile Hardware Memory Bus): A physical, non-parametric storage subsystem operating directly over high-speed solid-state lines (PCIe NVMe), providing sub-millisecond (0.0015 ms / 1.52 µs) random retrieval over millions of encyclopedic records via hardware-tuned Full-Text Search (FTS5) with Okapi BM25 ranking and zero GPU VRAM allocation.3. Deterministic Arithmetic Subsystem: An isolated Abstract Syntax Tree (AST) evaluation engine delivering 100.0% numerical correctness for arithmetic operations, eliminating the stochastic drift of token-probability guessing. We provide formal mathematical derivations and hardware specifications for the architecture's core patented systems: the In-Graph Synaptic Memory Gate at Layer 14 (H_14 + σ(γ)CrossAttn with σ(γ) → 0 cold-start stability), Multi-Head Latent Attention (MLA) yielding an 80% KV-cache compression, and an upstream Pre-Transformer 5W1H Reflex Engine executing O(1) dual-path routing. Furthermore, we mathematically prove that updating factual knowledge via Tier-2 non-volatile memory block transactions (∇_Θ L = 0) completely eliminates continuous gradient retraining cycles and catastrophic forgetting (0.0%), achieving a >99.8% reduction in lifecycle compute and thermodynamic overhead. Official Statutory Notice: Indian Patent Application No. 202641124724 (Filing Date: October 18, 2026).Code & Repository: https://github.com/Avinashricky211/AviGPT-250M

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-18
DOI
https://doi.org/10.5281/zenodo.23457382
Primary Topic
Parallel Computing and Optimization Techniques
Type
preprint
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preprint

The Dual-Tier Memory Hierarchy for Neural Language Processing: Scale-Invariant Semi-Parametric Intelligence via Hardware-Coupled Non-Volatile Storage

Avinash Ricky Yadlapalli
Zenodo (CERN European Organization for Nuclear Research)
Parallel Computing and Optimization Techniques
preprint

The Dual-Tier Memory Hierarchy for Neural Language Processing: Scale-Invariant Semi-Parametric Intelligence via Hardware-Coupled Non-Volatile Storage

Avinash Ricky Yadlapalli
preprint en

Abstract

For over seven decades, computer architecture has adhered to a fundamental engineering axiom: high-frequency computational registers must never be overburdened with static archival storage. Modern foundational language models violate this foundational principle. Monolithic deep neural networks force high-bandwidth parametric weight matrices to serve simultaneously as fluid reasoning circuits, syntactic parsers, and static encyclopedic repositories. This structural coupling induces the Parametric Memory Wall: an exponential capacity conflict resulting in factual hallucinations, catastrophic forgetting during domain updates, and prohibitive thermodynamic, electrical, and thermal dissipation penalties across hyperscale GPU clusters. In this paper, we introduce the AviBharat Architecture, establishing a scale-invariant Dual-Tier Memory Hierarchy for Neural Language Processing. Under this paradigm, intelligence is decoupled into complementary physical tiers:1. Tier-1 Working Memory (Parametric Compute Core): An ultra-dense autoregressive neural network dedicated exclusively to syntax decomposition, structural intent parsing, contextual query deconstruction, and multi-source synthesis.2. Tier-2 Epistemic Storage (Non-Volatile Hardware Memory Bus): A physical, non-parametric storage subsystem operating directly over high-speed solid-state lines (PCIe NVMe), providing sub-millisecond (0.0015 ms / 1.52 µs) random retrieval over millions of encyclopedic records via hardware-tuned Full-Text Search (FTS5) with Okapi BM25 ranking and zero GPU VRAM allocation.3. Deterministic Arithmetic Subsystem: An isolated Abstract Syntax Tree (AST) evaluation engine delivering 100.0% numerical correctness for arithmetic operations, eliminating the stochastic drift of token-probability guessing. We provide formal mathematical derivations and hardware specifications for the architecture's core patented systems: the In-Graph Synaptic Memory Gate at Layer 14 (H_14 + σ(γ)CrossAttn with σ(γ) → 0 cold-start stability), Multi-Head Latent Attention (MLA) yielding an 80% KV-cache compression, and an upstream Pre-Transformer 5W1H Reflex Engine executing O(1) dual-path routing. Furthermore, we mathematically prove that updating factual knowledge via Tier-2 non-volatile memory block transactions (∇_Θ L = 0) completely eliminates continuous gradient retraining cycles and catastrophic forgetting (0.0%), achieving a >99.8% reduction in lifecycle compute and thermodynamic overhead. Official Statutory Notice: Indian Patent Application No. 202641124724 (Filing Date: October 18, 2026).Code & Repository: https://github.com/Avinashricky211/AviGPT-250M

Zenodo (CERN European Organization for Nuclear Research)
Oldham Council (GB)
Parallel Computing and Optimization Techniques
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