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Category: AI Memory

Research series on AI memory systems — KV-cache, context windows, attention memory, retrieval-augmented memory, and memory-efficient inference architectures

Distributed KV-Cache in Multi-GPU Serving

Posted on March 29, 2026March 29, 2026 by
Technical Research
Technical Research by Oleh Ivchenko  ·  DOI: 10.5281/zenodo.19310103  83stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources58%○≥80% from editorially reviewed sources
[t]Trusted89%✓≥80% from verified, high-quality sources
[a]DOI79%○≥80% have a Digital Object Identifier
[b]CrossRef58%○≥80% indexed in CrossRef
[i]Indexed84%✓≥80% have metadata indexed
[l]Academic79%○≥80% from journals/conferences/preprints
[f]Free Access84%✓≥80% are freely accessible
[r]References19 refs✓Minimum 10 references required
[w]Words [REQ]2,267✓Minimum 2,000 words for a full research article. Current: 2,267
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.19310103
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]71%✓≥60% of references from 2025–2026. Current: 71%
[c]Data Charts4✓Original data charts from reproducible analysis (min 2). Current: 4
[g]Code✓✓Source code available on GitHub
[m]Diagrams3✓Mermaid architecture/flow diagrams. Current: 3
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (86 × 60%) + Required (4/5 × 30%) + Optional (3/4 × 10%)

As large language models scale beyond the memory capacity of individual accelerators, distributing inference across multiple GPUs introduces fundamental challenges for key-value cache management. This article examines how tensor parallelism, pipeline parallelism, and emerging hybrid strategies partition KV-cache state across devices, analyzing the communication overhead, memory efficiency, and ...

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Technical Research by Oleh Ivchenko DOI: 10.5281/zenodo.19310103 83stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources58%○≥80% from editorially reviewed sources
[t]Trusted89%✓≥80% from verified, high-quality sources
[a]DOI79%○≥80% have a Digital Object Identifier
[b]CrossRef58%○≥80% indexed in CrossRef
[i]Indexed84%✓≥80% have metadata indexed
[l]Academic79%○≥80% from journals/conferences/preprints
[f]Free Access84%✓≥80% are freely accessible
[r]References19 refs✓Minimum 10 references required
[w]Words [REQ]2,267✓Minimum 2,000 words for a full research article. Current: 2,267
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.19310103
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]71%✓≥60% of references from 2025–2026. Current: 71%
[c]Data Charts4✓Original data charts from reproducible analysis (min 2). Current: 4
[g]Code✓✓Source code available on GitHub
[m]Diagrams3✓Mermaid architecture/flow diagrams. Current: 3
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (86 × 60%) + Required (4/5 × 30%) + Optional (3/4 × 10%)
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Flash Attention’s Role in Memory-Efficient Inference

Posted on March 29, 2026March 29, 2026 by
Technical Research
Technical Research by Oleh Ivchenko  ·  DOI: 10.5281/zenodo.19303451  81stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources48%○≥80% from editorially reviewed sources
[t]Trusted91%✓≥80% from verified, high-quality sources
[a]DOI70%○≥80% have a Digital Object Identifier
[b]CrossRef48%○≥80% indexed in CrossRef
[i]Indexed83%✓≥80% have metadata indexed
[l]Academic70%○≥80% from journals/conferences/preprints
[f]Free Access96%✓≥80% are freely accessible
[r]References23 refs✓Minimum 10 references required
[w]Words [REQ]2,895✓Minimum 2,000 words for a full research article. Current: 2,895
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.19303451
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]67%✓≥60% of references from 2025–2026. Current: 67%
[c]Data Charts5✓Original data charts from reproducible analysis (min 2). Current: 5
[g]Code✓✓Source code available on GitHub
[m]Diagrams3✓Mermaid architecture/flow diagrams. Current: 3
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (82 × 60%) + Required (4/5 × 30%) + Optional (3/4 × 10%)

Flash Attention has become the foundational kernel technology enabling memory-efficient inference in large language models (LLMs), transforming how attention computation interacts with GPU memory hierarchies. This article investigates three research questions: (1) how does Flash Attention's tiling strategy reduce peak memory consumption compared to standard attention, and what are the theoretic...

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Technical Research by Oleh Ivchenko DOI: 10.5281/zenodo.19303451 81stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources48%○≥80% from editorially reviewed sources
[t]Trusted91%✓≥80% from verified, high-quality sources
[a]DOI70%○≥80% have a Digital Object Identifier
[b]CrossRef48%○≥80% indexed in CrossRef
[i]Indexed83%✓≥80% have metadata indexed
[l]Academic70%○≥80% from journals/conferences/preprints
[f]Free Access96%✓≥80% are freely accessible
[r]References23 refs✓Minimum 10 references required
[w]Words [REQ]2,895✓Minimum 2,000 words for a full research article. Current: 2,895
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.19303451
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]67%✓≥60% of references from 2025–2026. Current: 67%
[c]Data Charts5✓Original data charts from reproducible analysis (min 2). Current: 5
[g]Code✓✓Source code available on GitHub
[m]Diagrams3✓Mermaid architecture/flow diagrams. Current: 3
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (82 × 60%) + Required (4/5 × 30%) + Optional (3/4 × 10%)
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Sliding Window and Compressive Caching for Infinite Context

Posted on March 28, 2026March 30, 2026 by
Technical Research
Technical Research by Oleh Ivchenko  ·  DOI: 10.5281/zenodo.19299498  81stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources23%○≥80% from editorially reviewed sources
[t]Trusted88%✓≥80% from verified, high-quality sources
[a]DOI77%○≥80% have a Digital Object Identifier
[b]CrossRef23%○≥80% indexed in CrossRef
[i]Indexed85%✓≥80% have metadata indexed
[l]Academic81%✓≥80% from journals/conferences/preprints
[f]Free Access96%✓≥80% are freely accessible
[r]References26 refs✓Minimum 10 references required
[w]Words [REQ]2,252✓Minimum 2,000 words for a full research article. Current: 2,252
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.19299498
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]70%✓≥60% of references from 2025–2026. Current: 70%
[c]Data Charts4✓Original data charts from reproducible analysis (min 2). Current: 4
[g]Code✓✓Source code available on GitHub
[m]Diagrams3✓Mermaid architecture/flow diagrams. Current: 3
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (82 × 60%) + Required (4/5 × 30%) + Optional (3/4 × 10%)

As large language models (LLMs) scale to context windows exceeding one million tokens, the key-value (KV) cache grows linearly and becomes the dominant memory bottleneck during autoregressive inference. Sliding window attention and compressive caching represent two complementary families of techniques that bound memory usage while preserving access to long-range context. This article investigat...

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Technical Research by Oleh Ivchenko DOI: 10.5281/zenodo.19299498 81stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources23%○≥80% from editorially reviewed sources
[t]Trusted88%✓≥80% from verified, high-quality sources
[a]DOI77%○≥80% have a Digital Object Identifier
[b]CrossRef23%○≥80% indexed in CrossRef
[i]Indexed85%✓≥80% have metadata indexed
[l]Academic81%✓≥80% from journals/conferences/preprints
[f]Free Access96%✓≥80% are freely accessible
[r]References26 refs✓Minimum 10 references required
[w]Words [REQ]2,252✓Minimum 2,000 words for a full research article. Current: 2,252
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.19299498
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]70%✓≥60% of references from 2025–2026. Current: 70%
[c]Data Charts4✓Original data charts from reproducible analysis (min 2). Current: 4
[g]Code✓✓Source code available on GitHub
[m]Diagrams3✓Mermaid architecture/flow diagrams. Current: 3
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (82 × 60%) + Required (4/5 × 30%) + Optional (3/4 × 10%)
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Cross-Layer KV-Cache Sharing

Posted on March 28, 2026March 29, 2026 by
Technical Research
Technical Research by Oleh Ivchenko  ·  DOI: 10.5281/zenodo.19291014  80stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources13%○≥80% from editorially reviewed sources
[t]Trusted91%✓≥80% from verified, high-quality sources
[a]DOI78%○≥80% have a Digital Object Identifier
[b]CrossRef13%○≥80% indexed in CrossRef
[i]Indexed83%✓≥80% have metadata indexed
[l]Academic78%○≥80% from journals/conferences/preprints
[f]Free Access96%✓≥80% are freely accessible
[r]References23 refs✓Minimum 10 references required
[w]Words [REQ]2,141✓Minimum 2,000 words for a full research article. Current: 2,141
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.19291014
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]65%✓≥60% of references from 2025–2026. Current: 65%
[c]Data Charts4✓Original data charts from reproducible analysis (min 2). Current: 4
[g]Code✓✓Source code available on GitHub
[m]Diagrams3✓Mermaid architecture/flow diagrams. Current: 3
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (81 × 60%) + Required (4/5 × 30%) + Optional (3/4 × 10%)

As large language models (LLMs) scale to billions of parameters and context windows stretch beyond 128K tokens, the key-value (KV) cache becomes the dominant memory bottleneck during inference. Cross-layer KV-cache sharing represents a family of techniques that exploit redundancy in key and value representations across transformer layers to reduce cache memory without retraining. This article i...

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Technical Research by Oleh Ivchenko DOI: 10.5281/zenodo.19291014 80stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources13%○≥80% from editorially reviewed sources
[t]Trusted91%✓≥80% from verified, high-quality sources
[a]DOI78%○≥80% have a Digital Object Identifier
[b]CrossRef13%○≥80% indexed in CrossRef
[i]Indexed83%✓≥80% have metadata indexed
[l]Academic78%○≥80% from journals/conferences/preprints
[f]Free Access96%✓≥80% are freely accessible
[r]References23 refs✓Minimum 10 references required
[w]Words [REQ]2,141✓Minimum 2,000 words for a full research article. Current: 2,141
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.19291014
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]65%✓≥60% of references from 2025–2026. Current: 65%
[c]Data Charts4✓Original data charts from reproducible analysis (min 2). Current: 4
[g]Code✓✓Source code available on GitHub
[m]Diagrams3✓Mermaid architecture/flow diagrams. Current: 3
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (81 × 60%) + Required (4/5 × 30%) + Optional (3/4 × 10%)
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Token Pruning and Attention Sparsity

Posted on March 28, 2026March 28, 2026 by
Technical Research
Technical Research by Oleh Ivchenko  ·  DOI: 10.5281/zenodo.19269070  79stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources63%○≥80% from editorially reviewed sources
[t]Trusted89%✓≥80% from verified, high-quality sources
[a]DOI74%○≥80% have a Digital Object Identifier
[b]CrossRef63%○≥80% indexed in CrossRef
[i]Indexed84%✓≥80% have metadata indexed
[l]Academic74%○≥80% from journals/conferences/preprints
[f]Free Access89%✓≥80% are freely accessible
[r]References19 refs✓Minimum 10 references required
[w]Words [REQ]2,304✓Minimum 2,000 words for a full research article. Current: 2,304
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.19269070
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]75%✓≥60% of references from 2025–2026. Current: 75%
[c]Data Charts0○Original data charts from reproducible analysis (min 2). Current: 0
[g]Code✓✓Source code available on GitHub
[m]Diagrams3✓Mermaid architecture/flow diagrams. Current: 3
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (84 × 60%) + Required (4/5 × 30%) + Optional (2/4 × 10%)

This article investigates token pruning and attention sparsity as complementary strategies for reducing KV-cache memory consumption during large language model inference. Building on our series analysis of semantic prompt caching, we examine how selective token removal and sparse attention patterns can achieve 50-80% memory reduction while preserving generation quality. Three research questions...

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Technical Research by Oleh Ivchenko DOI: 10.5281/zenodo.19269070 79stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources63%○≥80% from editorially reviewed sources
[t]Trusted89%✓≥80% from verified, high-quality sources
[a]DOI74%○≥80% have a Digital Object Identifier
[b]CrossRef63%○≥80% indexed in CrossRef
[i]Indexed84%✓≥80% have metadata indexed
[l]Academic74%○≥80% from journals/conferences/preprints
[f]Free Access89%✓≥80% are freely accessible
[r]References19 refs✓Minimum 10 references required
[w]Words [REQ]2,304✓Minimum 2,000 words for a full research article. Current: 2,304
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.19269070
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]75%✓≥60% of references from 2025–2026. Current: 75%
[c]Data Charts0○Original data charts from reproducible analysis (min 2). Current: 0
[g]Code✓✓Source code available on GitHub
[m]Diagrams3✓Mermaid architecture/flow diagrams. Current: 3
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (84 × 60%) + Required (4/5 × 30%) + Optional (2/4 × 10%)
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Semantic Prompt Caching — Beyond Exact Match

Posted on March 24, 2026 by
Technical Research
Technical Research by Oleh Ivchenko  ·  DOI: 10.5281/zenodo.19211071  59stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources0%○≥80% from editorially reviewed sources
[t]Trusted86%✓≥80% from verified, high-quality sources
[a]DOI7%○≥80% have a Digital Object Identifier
[b]CrossRef0%○≥80% indexed in CrossRef
[i]Indexed86%✓≥80% have metadata indexed
[l]Academic71%○≥80% from journals/conferences/preprints
[f]Free Access100%✓≥80% are freely accessible
[r]References14 refs✓Minimum 10 references required
[w]Words [REQ]2,336✓Minimum 2,000 words for a full research article. Current: 2,336
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.19211071
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]33%✗≥60% of references from 2025–2026. Current: 33%
[c]Data Charts4✓Original data charts from reproducible analysis (min 2). Current: 4
[g]Code—○Source code available on GitHub
[m]Diagrams3✓Mermaid architecture/flow diagrams. Current: 3
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (60 × 60%) + Required (3/5 × 30%) + Optional (2/4 × 10%)

Prompt caching has emerged as a critical optimization for large language model (LLM) serving, yet production systems overwhelmingly rely on exact-match strategies that miss semantically equivalent queries. This article investigates semantic prompt caching — systems that identify and serve cached responses for semantically similar (but not identical) prompts using embedding-based similarity dete...

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Technical Research by Oleh Ivchenko DOI: 10.5281/zenodo.19211071 59stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources0%○≥80% from editorially reviewed sources
[t]Trusted86%✓≥80% from verified, high-quality sources
[a]DOI7%○≥80% have a Digital Object Identifier
[b]CrossRef0%○≥80% indexed in CrossRef
[i]Indexed86%✓≥80% have metadata indexed
[l]Academic71%○≥80% from journals/conferences/preprints
[f]Free Access100%✓≥80% are freely accessible
[r]References14 refs✓Minimum 10 references required
[w]Words [REQ]2,336✓Minimum 2,000 words for a full research article. Current: 2,336
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.19211071
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]33%✗≥60% of references from 2025–2026. Current: 33%
[c]Data Charts4✓Original data charts from reproducible analysis (min 2). Current: 4
[g]Code—○Source code available on GitHub
[m]Diagrams3✓Mermaid architecture/flow diagrams. Current: 3
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (60 × 60%) + Required (3/5 × 30%) + Optional (2/4 × 10%)
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Speculative Decoding and Cache Reuse

Posted on March 24, 2026 by
Technical Research
Technical Research by Oleh Ivchenko  ·  DOI: 10.5281/zenodo.19210815  61stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources0%○≥80% from editorially reviewed sources
[t]Trusted90%✓≥80% from verified, high-quality sources
[a]DOI5%○≥80% have a Digital Object Identifier
[b]CrossRef0%○≥80% indexed in CrossRef
[i]Indexed90%✓≥80% have metadata indexed
[l]Academic81%✓≥80% from journals/conferences/preprints
[f]Free Access100%✓≥80% are freely accessible
[r]References21 refs✓Minimum 10 references required
[w]Words [REQ]2,662✓Minimum 2,000 words for a full research article. Current: 2,662
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.19210815
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]21%✗≥60% of references from 2025–2026. Current: 21%
[c]Data Charts4✓Original data charts from reproducible analysis (min 2). Current: 4
[g]Code—○Source code available on GitHub
[m]Diagrams3✓Mermaid architecture/flow diagrams. Current: 3
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (63 × 60%) + Required (3/5 × 30%) + Optional (2/4 × 10%)

Speculative decoding has emerged as a transformative inference optimization that breaks the sequential bottleneck of autoregressive generation by drafting multiple tokens in parallel and verifying them in a single forward pass. This article examines three research questions at the intersection of speculative decoding and KV cache management: how draft-then-verify architectures interact with cac...

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Technical Research by Oleh Ivchenko DOI: 10.5281/zenodo.19210815 61stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources0%○≥80% from editorially reviewed sources
[t]Trusted90%✓≥80% from verified, high-quality sources
[a]DOI5%○≥80% have a Digital Object Identifier
[b]CrossRef0%○≥80% indexed in CrossRef
[i]Indexed90%✓≥80% have metadata indexed
[l]Academic81%✓≥80% from journals/conferences/preprints
[f]Free Access100%✓≥80% are freely accessible
[r]References21 refs✓Minimum 10 references required
[w]Words [REQ]2,662✓Minimum 2,000 words for a full research article. Current: 2,662
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.19210815
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]21%✗≥60% of references from 2025–2026. Current: 21%
[c]Data Charts4✓Original data charts from reproducible analysis (min 2). Current: 4
[g]Code—○Source code available on GitHub
[m]Diagrams3✓Mermaid architecture/flow diagrams. Current: 3
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (63 × 60%) + Required (3/5 × 30%) + Optional (2/4 × 10%)
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Grouped-Query Attention — Cache-Efficient Architecture Design

Posted on March 24, 2026 by
Technical Research
Technical Research by Oleh Ivchenko  ·  DOI: 10.5281/zenodo.19209159  73stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources4%○≥80% from editorially reviewed sources
[t]Trusted92%✓≥80% from verified, high-quality sources
[a]DOI79%○≥80% have a Digital Object Identifier
[b]CrossRef4%○≥80% indexed in CrossRef
[i]Indexed88%✓≥80% have metadata indexed
[l]Academic83%✓≥80% from journals/conferences/preprints
[f]Free Access100%✓≥80% are freely accessible
[r]References24 refs✓Minimum 10 references required
[w]Words [REQ]2,403✓Minimum 2,000 words for a full research article. Current: 2,403
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.19209159
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]36%✗≥60% of references from 2025–2026. Current: 36%
[c]Data Charts5✓Original data charts from reproducible analysis (min 2). Current: 5
[g]Code—○Source code available on GitHub
[m]Diagrams3✓Mermaid architecture/flow diagrams. Current: 3
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (83 × 60%) + Required (3/5 × 30%) + Optional (2/4 × 10%)

As large language models scale beyond hundreds of billions of parameters and context windows extend to millions of tokens, the key-value (KV) cache required for attention computation becomes the dominant memory bottleneck during inference. Grouped-Query Attention (GQA) addresses this by allowing multiple query heads to share fewer key-value heads, reducing cache footprint while preserving model...

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Technical Research by Oleh Ivchenko DOI: 10.5281/zenodo.19209159 73stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources4%○≥80% from editorially reviewed sources
[t]Trusted92%✓≥80% from verified, high-quality sources
[a]DOI79%○≥80% have a Digital Object Identifier
[b]CrossRef4%○≥80% indexed in CrossRef
[i]Indexed88%✓≥80% have metadata indexed
[l]Academic83%✓≥80% from journals/conferences/preprints
[f]Free Access100%✓≥80% are freely accessible
[r]References24 refs✓Minimum 10 references required
[w]Words [REQ]2,403✓Minimum 2,000 words for a full research article. Current: 2,403
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.19209159
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]36%✗≥60% of references from 2025–2026. Current: 36%
[c]Data Charts5✓Original data charts from reproducible analysis (min 2). Current: 5
[g]Code—○Source code available on GitHub
[m]Diagrams3✓Mermaid architecture/flow diagrams. Current: 3
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (83 × 60%) + Required (3/5 × 30%) + Optional (2/4 × 10%)
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Paged Attention and Virtual Memory for LLM Inference

Posted on March 24, 2026 by
Technical Research
Technical Research by Oleh Ivchenko  ·  DOI: 10.5281/zenodo.19203099  59stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources13%○≥80% from editorially reviewed sources
[t]Trusted73%○≥80% from verified, high-quality sources
[a]DOI27%○≥80% have a Digital Object Identifier
[b]CrossRef13%○≥80% indexed in CrossRef
[i]Indexed80%✓≥80% have metadata indexed
[l]Academic60%○≥80% from journals/conferences/preprints
[f]Free Access87%✓≥80% are freely accessible
[r]References15 refs✓Minimum 10 references required
[w]Words [REQ]2,912✓Minimum 2,000 words for a full research article. Current: 2,912
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.19203099
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]31%✗≥60% of references from 2025–2026. Current: 31%
[c]Data Charts4✓Original data charts from reproducible analysis (min 2). Current: 4
[g]Code—○Source code available on GitHub
[m]Diagrams3✓Mermaid architecture/flow diagrams. Current: 3
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (60 × 60%) + Required (3/5 × 30%) + Optional (2/4 × 10%)

As large language models scale to billions of parameters and millions of context tokens, the key-value (KV) cache that stores attention states becomes the dominant memory bottleneck during inference. Traditional contiguous memory allocation for KV caches leads to severe fragmentation — wasting 40-60% of available GPU memory — and fundamentally limits serving throughput. This article investigate...

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Technical Research by Oleh Ivchenko DOI: 10.5281/zenodo.19203099 59stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources13%○≥80% from editorially reviewed sources
[t]Trusted73%○≥80% from verified, high-quality sources
[a]DOI27%○≥80% have a Digital Object Identifier
[b]CrossRef13%○≥80% indexed in CrossRef
[i]Indexed80%✓≥80% have metadata indexed
[l]Academic60%○≥80% from journals/conferences/preprints
[f]Free Access87%✓≥80% are freely accessible
[r]References15 refs✓Minimum 10 references required
[w]Words [REQ]2,912✓Minimum 2,000 words for a full research article. Current: 2,912
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.19203099
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]31%✗≥60% of references from 2025–2026. Current: 31%
[c]Data Charts4✓Original data charts from reproducible analysis (min 2). Current: 4
[g]Code—○Source code available on GitHub
[m]Diagrams3✓Mermaid architecture/flow diagrams. Current: 3
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (60 × 60%) + Required (3/5 × 30%) + Optional (2/4 × 10%)
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Meta-Analysis of Context Benchmarks — Building a Unified Evaluation Framework

Posted on March 24, 2026 by
Technical Research
Technical Research by Oleh Ivchenko  ·  DOI: 10.5281/zenodo.19199439  61stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources16%○≥80% from editorially reviewed sources
[t]Trusted89%✓≥80% from verified, high-quality sources
[a]DOI5%○≥80% have a Digital Object Identifier
[b]CrossRef0%○≥80% indexed in CrossRef
[i]Indexed89%✓≥80% have metadata indexed
[l]Academic79%○≥80% from journals/conferences/preprints
[f]Free Access84%✓≥80% are freely accessible
[r]References19 refs✓Minimum 10 references required
[w]Words [REQ]2,528✓Minimum 2,000 words for a full research article. Current: 2,528
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.19199439
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]29%✗≥60% of references from 2025–2026. Current: 29%
[c]Data Charts5✓Original data charts from reproducible analysis (min 2). Current: 5
[g]Code—○Source code available on GitHub
[m]Diagrams3✓Mermaid architecture/flow diagrams. Current: 3
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (63 × 60%) + Required (3/5 × 30%) + Optional (2/4 × 10%)

The rapid expansion of context windows — from 4K tokens to 10M tokens in models like Llama 4 — has produced a proliferation of evaluation benchmarks, yet no unified framework exists for comparing long-context capabilities across these disparate tests. This article presents a meta-analysis of ten major context benchmarks (NIAH, RULER, LongBench v2, InfiniteBench, BABILong, NoLiMa, LongGenBench, ...

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Technical Research by Oleh Ivchenko DOI: 10.5281/zenodo.19199439 61stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources16%○≥80% from editorially reviewed sources
[t]Trusted89%✓≥80% from verified, high-quality sources
[a]DOI5%○≥80% have a Digital Object Identifier
[b]CrossRef0%○≥80% indexed in CrossRef
[i]Indexed89%✓≥80% have metadata indexed
[l]Academic79%○≥80% from journals/conferences/preprints
[f]Free Access84%✓≥80% are freely accessible
[r]References19 refs✓Minimum 10 references required
[w]Words [REQ]2,528✓Minimum 2,000 words for a full research article. Current: 2,528
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.19199439
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]29%✗≥60% of references from 2025–2026. Current: 29%
[c]Data Charts5✓Original data charts from reproducible analysis (min 2). Current: 5
[g]Code—○Source code available on GitHub
[m]Diagrams3✓Mermaid architecture/flow diagrams. Current: 3
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (63 × 60%) + Required (3/5 × 30%) + Optional (2/4 × 10%)
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