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Synthesis of Gap Analysis Findings: A Priority Matrix for Anticipatory Intelligence

Posted on February 21, 2026March 1, 2026 by
Academic Research
Academic Research by Dmytro Grybeniuk & Oleh Ivchenko  ·  DOI: 10.5281/zenodo.18725736  56stabilfr·wdophcgmx
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[t]Trusted100%✓≥80% from verified, high-quality sources
[a]DOI25%○≥80% have a Digital Object Identifier
[b]CrossRef22%○≥80% indexed in CrossRef
[i]Indexed69%○≥80% have metadata indexed
[l]Academic94%✓≥80% from journals/conferences/preprints
[f]Free Access41%○≥80% are freely accessible
[r]References32 refs✓Minimum 10 references required
[w]Words [REQ]1,459✗Minimum 2,000 words for a full research article. Current: 1,459
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[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]3%✗≥80% of references from 2025–2026. Current: 3%
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[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (73 × 60%) + Required (2/5 × 30%) + Optional (0/4 × 10%)

After dissecting ten critical gaps in anticipatory intelligence systems, we now face the uncomfortable task of prioritization. Not all problems are created equal—some are merely annoying engineering challenges, while others represent fundamental theoretical barriers that could define the field for the next decade. This synthesis consolidates our findings into a tractable framework, mapping each...

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Academic Research by Dmytro Grybeniuk & Oleh Ivchenko DOI: 10.5281/zenodo.18725736 56stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources59%○≥80% from editorially reviewed sources
[t]Trusted100%✓≥80% from verified, high-quality sources
[a]DOI25%○≥80% have a Digital Object Identifier
[b]CrossRef22%○≥80% indexed in CrossRef
[i]Indexed69%○≥80% have metadata indexed
[l]Academic94%✓≥80% from journals/conferences/preprints
[f]Free Access41%○≥80% are freely accessible
[r]References32 refs✓Minimum 10 references required
[w]Words [REQ]1,459✗Minimum 2,000 words for a full research article. Current: 1,459
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.18725736
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]3%✗≥80% of references from 2025–2026. Current: 3%
[c]Data Charts0○Original data charts from reproducible analysis (min 2). Current: 0
[g]Code—○Source code available on GitHub
[m]Diagrams0○Mermaid architecture/flow diagrams. Current: 0
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (73 × 60%) + Required (2/5 × 30%) + Optional (0/4 × 10%)
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AI is Threatening Science Jobs — But Not the Ones You’d Expect

Posted on February 21, 2026 by
Gap Research
Gap Research by Oleh Ivchenko  ·  DOI: 10.5281/zenodo.18723765  55stabilfr·wdophcgmx
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[t]Trusted100%✓≥80% from verified, high-quality sources
[a]DOI0%○≥80% have a Digital Object Identifier
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[l]Academic100%✓≥80% from journals/conferences/preprints
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[w]Words [REQ]999✗Minimum 2,000 words for a full research article. Current: 999
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[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (71 × 60%) + Required (2/5 × 30%) + Optional (0/4 × 10%)

Source: AI is threatening science jobs. Which ones are most at risk? Nature, February 19, 2026 Author: Oleh Ivchenko

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Gap Research by Oleh Ivchenko DOI: 10.5281/zenodo.18723765 55stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources100%✓≥80% from editorially reviewed sources
[t]Trusted100%✓≥80% from verified, high-quality sources
[a]DOI0%○≥80% have a Digital Object Identifier
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[i]Indexed100%✓≥80% have metadata indexed
[l]Academic100%✓≥80% from journals/conferences/preprints
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[r]References1 refs○Minimum 10 references required
[w]Words [REQ]999✗Minimum 2,000 words for a full research article. Current: 999
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[h]Freshness [REQ]0%✗≥80% of references from 2025–2026. Current: 0%
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[g]Code—○Source code available on GitHub
[m]Diagrams0○Mermaid architecture/flow diagrams. Current: 0
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (71 × 60%) + Required (2/5 × 30%) + Optional (0/4 × 10%)
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AI Diagnostics Match Doctor-Level Accuracy: Autonomous Systems in Medical Research

Posted on February 21, 2026March 8, 2026 by
DOI: 10.5281/zenodo.18723730  51stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources36%○≥80% from editorially reviewed sources
[t]Trusted64%○≥80% from verified, high-quality sources
[a]DOI50%○≥80% have a Digital Object Identifier
[b]CrossRef36%○≥80% indexed in CrossRef
[i]Indexed14%○≥80% have metadata indexed
[l]Academic43%○≥80% from journals/conferences/preprints
[f]Free Access36%○≥80% are freely accessible
[r]References14 refs✓Minimum 10 references required
[w]Words [REQ]2,734✓Minimum 2,000 words for a full research article. Current: 2,734
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.18723730
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]21%✗≥80% of references from 2025–2026. Current: 21%
[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 (50 × 60%) + Required (3/5 × 30%) + Optional (1/4 × 10%)

A groundbreaking study published today in Cell Reports Medicine demonstrates that generative AI systems can match—and in some cases exceed—the analytical performance of experienced human research teams in medical data analysis. The research, led by UC San Francisco and Wayne State University, marks a critical inflection point in AI capability: systems transitioning from reactive tools to antici...

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DOI: 10.5281/zenodo.18723730 51stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources36%○≥80% from editorially reviewed sources
[t]Trusted64%○≥80% from verified, high-quality sources
[a]DOI50%○≥80% have a Digital Object Identifier
[b]CrossRef36%○≥80% indexed in CrossRef
[i]Indexed14%○≥80% have metadata indexed
[l]Academic43%○≥80% from journals/conferences/preprints
[f]Free Access36%○≥80% are freely accessible
[r]References14 refs✓Minimum 10 references required
[w]Words [REQ]2,734✓Minimum 2,000 words for a full research article. Current: 2,734
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.18723730
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]21%✗≥80% of references from 2025–2026. Current: 21%
[c]Data Charts0○Original data charts from reproducible analysis (min 2). Current: 0
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[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (50 × 60%) + Required (3/5 × 30%) + Optional (1/4 × 10%)
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The Model Selection Matrix: Matching LLMs to Enterprise Use Cases

Posted on February 20, 2026February 20, 2026 by
Applied Research
Applied Research by Oleh Ivchenko  ·  DOI: 10.5281/zenodo.18714060  55stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources5%○≥80% from editorially reviewed sources
[t]Trusted88%✓≥80% from verified, high-quality sources
[a]DOI86%✓≥80% have a Digital Object Identifier
[b]CrossRef5%○≥80% indexed in CrossRef
[i]Indexed2%○≥80% have metadata indexed
[l]Academic21%○≥80% from journals/conferences/preprints
[f]Free Access26%○≥80% are freely accessible
[r]References42 refs✓Minimum 10 references required
[w]Words [REQ]3,887✓Minimum 2,000 words for a full research article. Current: 3,887
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.18714060
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]2%✗≥80% of references from 2025–2026. Current: 2%
[c]Data Charts0○Original data charts from reproducible analysis (min 2). Current: 0
[g]Code—○Source code available on GitHub
[m]Diagrams6✓Mermaid architecture/flow diagrams. Current: 6
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (57 × 60%) + Required (3/5 × 30%) + Optional (1/4 × 10%)

Selecting the appropriate large language model for enterprise applications requires balancing performance requirements, cost constraints, latency expectations, and compliance mandates. After deploying over 50 AI systems across finance, telecom, and healthcare sectors at enterprise scale, I've observed that model selection failures cost organizations an average of $250,000 in lost productivity a...

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Applied Research by Oleh Ivchenko DOI: 10.5281/zenodo.18714060 55stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources5%○≥80% from editorially reviewed sources
[t]Trusted88%✓≥80% from verified, high-quality sources
[a]DOI86%✓≥80% have a Digital Object Identifier
[b]CrossRef5%○≥80% indexed in CrossRef
[i]Indexed2%○≥80% have metadata indexed
[l]Academic21%○≥80% from journals/conferences/preprints
[f]Free Access26%○≥80% are freely accessible
[r]References42 refs✓Minimum 10 references required
[w]Words [REQ]3,887✓Minimum 2,000 words for a full research article. Current: 3,887
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.18714060
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]2%✗≥80% of references from 2025–2026. Current: 2%
[c]Data Charts0○Original data charts from reproducible analysis (min 2). Current: 0
[g]Code—○Source code available on GitHub
[m]Diagrams6✓Mermaid architecture/flow diagrams. Current: 6
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (57 × 60%) + Required (3/5 × 30%) + Optional (1/4 × 10%)
Cost-Effective Ent…Read More
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Scalability Costs in Enterprise AI Systems: Linear vs Exponential Growth Patterns

Posted on February 20, 2026February 20, 2026 by
AI Economics
AI Economics by Oleh Ivchenko  ·  DOI: 10.5281/zenodo.18709322  52stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources18%○≥80% from editorially reviewed sources
[t]Trusted64%○≥80% from verified, high-quality sources
[a]DOI55%○≥80% have a Digital Object Identifier
[b]CrossRef18%○≥80% indexed in CrossRef
[i]Indexed18%○≥80% have metadata indexed
[l]Academic55%○≥80% from journals/conferences/preprints
[f]Free Access50%○≥80% are freely accessible
[r]References22 refs✓Minimum 10 references required
[w]Words [REQ]4,157✓Minimum 2,000 words for a full research article. Current: 4,157
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.18709322
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]0%✗≥80% of references from 2025–2026. Current: 0%
[c]Data Charts0○Original data charts from reproducible analysis (min 2). Current: 0
[g]Code—○Source code available on GitHub
[m]Diagrams7✓Mermaid architecture/flow diagrams. Current: 7
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (52 × 60%) + Required (3/5 × 30%) + Optional (1/4 × 10%)

Enterprise AI systems often encounter catastrophic cost overruns during scaling, with many organizations experiencing 300-800% budget increases when transitioning from pilot to production. This article analyzes the fundamental difference between linear and exponential scalability costs in AI deployments, examining five critical cost components: compute infrastructure, data pipeline operations, ...

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AI Economics by Oleh Ivchenko DOI: 10.5281/zenodo.18709322 52stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources18%○≥80% from editorially reviewed sources
[t]Trusted64%○≥80% from verified, high-quality sources
[a]DOI55%○≥80% have a Digital Object Identifier
[b]CrossRef18%○≥80% indexed in CrossRef
[i]Indexed18%○≥80% have metadata indexed
[l]Academic55%○≥80% from journals/conferences/preprints
[f]Free Access50%○≥80% are freely accessible
[r]References22 refs✓Minimum 10 references required
[w]Words [REQ]4,157✓Minimum 2,000 words for a full research article. Current: 4,157
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.18709322
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]0%✗≥80% of references from 2025–2026. Current: 0%
[c]Data Charts0○Original data charts from reproducible analysis (min 2). Current: 0
[g]Code—○Source code available on GitHub
[m]Diagrams7✓Mermaid architecture/flow diagrams. Current: 7
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (52 × 60%) + Required (3/5 × 30%) + Optional (1/4 × 10%)
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Density-Based Clustering: DBSCAN, OPTICS, and the Taxonomy of Shape-Aware Grouping

Posted on February 19, 2026February 19, 2026 by
Data Science
Data Science by Iryna Ivchenko & Oleh Ivchenko  ·  DOI: 10.5281/zenodo.18701939  67stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources69%○≥80% from editorially reviewed sources
[t]Trusted100%✓≥80% from verified, high-quality sources
[a]DOI97%✓≥80% have a Digital Object Identifier
[b]CrossRef84%✓≥80% indexed in CrossRef
[i]Indexed3%○≥80% have metadata indexed
[l]Academic72%○≥80% from journals/conferences/preprints
[f]Free Access6%○≥80% are freely accessible
[r]References32 refs✓Minimum 10 references required
[w]Words [REQ]6,126✓Minimum 2,000 words for a full research article. Current: 6,126
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.18701939
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]3%✗≥80% of references from 2025–2026. Current: 3%
[c]Data Charts0○Original data charts from reproducible analysis (min 2). Current: 0
[g]Code—○Source code available on GitHub
[m]Diagrams6✓Mermaid architecture/flow diagrams. Current: 6
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (78 × 60%) + Required (3/5 × 30%) + Optional (1/4 × 10%)

Density-based clustering methods represent a fundamentally different philosophy of grouping than their partitional and hierarchical counterparts: rather than minimizing geometric distances or optimizing variance, they identify clusters as regions of high point concentration separated by relative emptiness. This chapter provides a comprehensive taxonomic and conceptual analysis of density-based ...

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Data Science by Iryna Ivchenko & Oleh Ivchenko DOI: 10.5281/zenodo.18701939 67stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources69%○≥80% from editorially reviewed sources
[t]Trusted100%✓≥80% from verified, high-quality sources
[a]DOI97%✓≥80% have a Digital Object Identifier
[b]CrossRef84%✓≥80% indexed in CrossRef
[i]Indexed3%○≥80% have metadata indexed
[l]Academic72%○≥80% from journals/conferences/preprints
[f]Free Access6%○≥80% are freely accessible
[r]References32 refs✓Minimum 10 references required
[w]Words [REQ]6,126✓Minimum 2,000 words for a full research article. Current: 6,126
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.18701939
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]3%✗≥80% of references from 2025–2026. Current: 3%
[c]Data Charts0○Original data charts from reproducible analysis (min 2). Current: 0
[g]Code—○Source code available on GitHub
[m]Diagrams6✓Mermaid architecture/flow diagrams. Current: 6
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (78 × 60%) + Required (3/5 × 30%) + Optional (1/4 × 10%)
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Gap Analysis: Computational Scalability of Anticipatory Systems

Posted on February 19, 2026February 19, 2026 by
Academic Research
Academic Research by Dmytro Grybeniuk & Oleh Ivchenko  ·  DOI: 10.5281/zenodo.18700636  67stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources38%○≥80% from editorially reviewed sources
[t]Trusted97%✓≥80% from verified, high-quality sources
[a]DOI91%✓≥80% have a Digital Object Identifier
[b]CrossRef31%○≥80% indexed in CrossRef
[i]Indexed16%○≥80% have metadata indexed
[l]Academic91%✓≥80% from journals/conferences/preprints
[f]Free Access56%○≥80% are freely accessible
[r]References32 refs✓Minimum 10 references required
[w]Words [REQ]5,985✓Minimum 2,000 words for a full research article. Current: 5,985
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.18700636
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]3%✗≥80% of references from 2025–2026. Current: 3%
[c]Data Charts0○Original data charts from reproducible analysis (min 2). Current: 0
[g]Code—○Source code available on GitHub
[m]Diagrams6✓Mermaid architecture/flow diagrams. Current: 6
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (77 × 60%) + Required (3/5 × 30%) + Optional (1/4 × 10%)

Anticipatory intelligence systems — those capable of modeling causal futures rather than merely extrapolating from historical patterns — demand computational resources that scale non-linearly with the complexity of the futures they are asked to simulate. This is not a hardware problem awaiting the next GPU generation. It is a structural problem embedded in the mathematical foundations of antici...

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Academic Research by Dmytro Grybeniuk & Oleh Ivchenko DOI: 10.5281/zenodo.18700636 67stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources38%○≥80% from editorially reviewed sources
[t]Trusted97%✓≥80% from verified, high-quality sources
[a]DOI91%✓≥80% have a Digital Object Identifier
[b]CrossRef31%○≥80% indexed in CrossRef
[i]Indexed16%○≥80% have metadata indexed
[l]Academic91%✓≥80% from journals/conferences/preprints
[f]Free Access56%○≥80% are freely accessible
[r]References32 refs✓Minimum 10 references required
[w]Words [REQ]5,985✓Minimum 2,000 words for a full research article. Current: 5,985
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.18700636
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]3%✗≥80% of references from 2025–2026. Current: 3%
[c]Data Charts0○Original data charts from reproducible analysis (min 2). Current: 0
[g]Code—○Source code available on GitHub
[m]Diagrams6✓Mermaid architecture/flow diagrams. Current: 6
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (77 × 60%) + Required (3/5 × 30%) + Optional (1/4 × 10%)
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GPU Economics — Buy, Rent, or Serverless: A Decision Framework for AI Compute Procurement

Posted on February 19, 2026February 19, 2026 by
AI Economics
AI Economics by Oleh Ivchenko  ·  DOI: 10.5281/zenodo.18693701  49stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources27%○≥80% from editorially reviewed sources
[t]Trusted62%○≥80% from verified, high-quality sources
[a]DOI49%○≥80% have a Digital Object Identifier
[b]CrossRef11%○≥80% indexed in CrossRef
[i]Indexed5%○≥80% have metadata indexed
[l]Academic57%○≥80% from journals/conferences/preprints
[f]Free Access32%○≥80% are freely accessible
[r]References37 refs✓Minimum 10 references required
[w]Words [REQ]5,583✓Minimum 2,000 words for a full research article. Current: 5,583
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.18693701
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]3%✗≥80% of references from 2025–2026. Current: 3%
[c]Data Charts0○Original data charts from reproducible analysis (min 2). Current: 0
[g]Code—○Source code available on GitHub
[m]Diagrams6✓Mermaid architecture/flow diagrams. Current: 6
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (47 × 60%) + Required (3/5 × 30%) + Optional (1/4 × 10%)

The economics of GPU compute have become central to every serious AI investment discussion. As large language models, diffusion architectures, and deep learning pipelines consume increasingly massive amounts of parallel compute, organizations face a fundamental procurement decision: buy dedicated hardware, rent on-demand capacity, or adopt serverless GPU abstractions that charge purely by execu...

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AI Economics by Oleh Ivchenko DOI: 10.5281/zenodo.18693701 49stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources27%○≥80% from editorially reviewed sources
[t]Trusted62%○≥80% from verified, high-quality sources
[a]DOI49%○≥80% have a Digital Object Identifier
[b]CrossRef11%○≥80% indexed in CrossRef
[i]Indexed5%○≥80% have metadata indexed
[l]Academic57%○≥80% from journals/conferences/preprints
[f]Free Access32%○≥80% are freely accessible
[r]References37 refs✓Minimum 10 references required
[w]Words [REQ]5,583✓Minimum 2,000 words for a full research article. Current: 5,583
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.18693701
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
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[c]Data Charts0○Original data charts from reproducible analysis (min 2). Current: 0
[g]Code—○Source code available on GitHub
[m]Diagrams6✓Mermaid architecture/flow diagrams. Current: 6
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (47 × 60%) + Required (3/5 × 30%) + Optional (1/4 × 10%)
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Specification Languages for AI: From Natural Language to Formal Methods

Posted on February 18, 2026March 11, 2026 by
Academic Research
Academic Research by Oleh Ivchenko  ·  DOI: 10.5281/zenodo.18684610  64stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources58%○≥80% from editorially reviewed sources
[t]Trusted94%✓≥80% from verified, high-quality sources
[a]DOI73%○≥80% have a Digital Object Identifier
[b]CrossRef48%○≥80% indexed in CrossRef
[i]Indexed18%○≥80% have metadata indexed
[l]Academic79%○≥80% from journals/conferences/preprints
[f]Free Access21%○≥80% are freely accessible
[r]References33 refs✓Minimum 10 references required
[w]Words [REQ]5,480✓Minimum 2,000 words for a full research article. Current: 5,480
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.18684610
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]3%✗≥80% of references from 2025–2026. Current: 3%
[c]Data Charts0○Original data charts from reproducible analysis (min 2). Current: 0
[g]Code—○Source code available on GitHub
[m]Diagrams6✓Mermaid architecture/flow diagrams. Current: 6
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (72 × 60%) + Required (3/5 × 30%) + Optional (1/4 × 10%)

Artificial intelligence systems present a fundamental specification challenge: how do we precisely describe what a learning system should do when its behaviour emerges from data rather than explicit programming? This article surveys the landscape of specification languages and approaches available to AI practitioners — from accessible natural language techniques like Gherkin-based behaviour-dri...

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Academic Research by Oleh Ivchenko DOI: 10.5281/zenodo.18684610 64stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources58%○≥80% from editorially reviewed sources
[t]Trusted94%✓≥80% from verified, high-quality sources
[a]DOI73%○≥80% have a Digital Object Identifier
[b]CrossRef48%○≥80% indexed in CrossRef
[i]Indexed18%○≥80% have metadata indexed
[l]Academic79%○≥80% from journals/conferences/preprints
[f]Free Access21%○≥80% are freely accessible
[r]References33 refs✓Minimum 10 references required
[w]Words [REQ]5,480✓Minimum 2,000 words for a full research article. Current: 5,480
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.18684610
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]3%✗≥80% of references from 2025–2026. Current: 3%
[c]Data Charts0○Original data charts from reproducible analysis (min 2). Current: 0
[g]Code—○Source code available on GitHub
[m]Diagrams6✓Mermaid architecture/flow diagrams. Current: 6
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (72 × 60%) + Required (3/5 × 30%) + Optional (1/4 × 10%)
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Hierarchical Clustering Taxonomy: From Dendrograms to Modern Extensions

Posted on February 18, 2026February 18, 2026 by
Data Science
Data Science by Iryna Ivchenko & Oleh Ivchenko  ·  DOI: 10.5281/zenodo.18683667  69stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources78%○≥80% from editorially reviewed sources
[t]Trusted100%✓≥80% from verified, high-quality sources
[a]DOI100%✓≥80% have a Digital Object Identifier
[b]CrossRef89%✓≥80% indexed in CrossRef
[i]Indexed4%○≥80% have metadata indexed
[l]Academic81%✓≥80% from journals/conferences/preprints
[f]Free Access7%○≥80% are freely accessible
[r]References27 refs✓Minimum 10 references required
[w]Words [REQ]4,607✓Minimum 2,000 words for a full research article. Current: 4,607
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.18683667
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]4%✗≥80% of references from 2025–2026. Current: 4%
[c]Data Charts0○Original data charts from reproducible analysis (min 2). Current: 0
[g]Code—○Source code available on GitHub
[m]Diagrams5✓Mermaid architecture/flow diagrams. Current: 5
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (81 × 60%) + Required (3/5 × 30%) + Optional (1/4 × 10%)

Hierarchical clustering represents one of the oldest and most intuitive approaches to unsupervised pattern discovery — the idea that natural structures in data can be revealed through successive merging or splitting of groups, producing a nested taxonomy rather than a flat partition. This chapter provides a comprehensive taxonomic analysis of hierarchical clustering methods, tracing their intel...

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Data Science by Iryna Ivchenko & Oleh Ivchenko DOI: 10.5281/zenodo.18683667 69stabilfr·wdophcgmx
BadgeMetricValueStatusDescription
[s]Reviewed Sources78%○≥80% from editorially reviewed sources
[t]Trusted100%✓≥80% from verified, high-quality sources
[a]DOI100%✓≥80% have a Digital Object Identifier
[b]CrossRef89%✓≥80% indexed in CrossRef
[i]Indexed4%○≥80% have metadata indexed
[l]Academic81%✓≥80% from journals/conferences/preprints
[f]Free Access7%○≥80% are freely accessible
[r]References27 refs✓Minimum 10 references required
[w]Words [REQ]4,607✓Minimum 2,000 words for a full research article. Current: 4,607
[d]DOI [REQ]✓✓Zenodo DOI registered for persistent citation. DOI: 10.5281/zenodo.18683667
[o]ORCID [REQ]✓✓Author ORCID verified for academic identity
[p]Peer Reviewed [REQ]—✗Peer reviewed by an assigned reviewer
[h]Freshness [REQ]4%✗≥80% of references from 2025–2026. Current: 4%
[c]Data Charts0○Original data charts from reproducible analysis (min 2). Current: 0
[g]Code—○Source code available on GitHub
[m]Diagrams5✓Mermaid architecture/flow diagrams. Current: 5
[x]Cited by0○Referenced by 0 other hub article(s)
Score = Ref Trust (81 × 60%) + Required (3/5 × 30%) + Optional (1/4 × 10%)
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