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Home›Scientometrics›Network-based Scientometric Analysis
Process / pipelineReview / evidence synthesis

Network-based Scientometric Analysis

Also known as: scientometric network analysis, bibliometric network analysis, citation network scientometrics, science network mapping

Network-based scientometric analysis applies graph-theoretic methods to bibliographic data — publications, citations, authors, and keywords — to map the intellectual structure of a scientific field. By modeling documents or authors as nodes and their relationships (citations, co-authorships, co-word occurrences) as edges, it reveals clusters of knowledge, central actors, emerging topics, and the flow of ideas across disciplines. Tools such as VOSviewer, Gephi, and the R package bibliometrix are commonly used.

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Network-based Scientometric analysis
Bibliographic CouplingBibliometric AnalysisCo-Citation AnalysisCo-word AnalysisScience MappingScientometric Analysis

When to use it

Network-based scientometric analysis is appropriate when the goal is to map the intellectual landscape of a research field, identify key authors and foundational works, detect emergent themes, or trace the diffusion of ideas over time. It suits systematic or scoping reviews that need an evidence map of a large literature (hundreds to tens of thousands of records). It requires structured bibliographic data with citation information from at least one major database. It is not appropriate when the literature is too small (fewer than ~50 records makes network analysis unstable), when the database coverage for the field is poor, or when the research question asks for causal or inferential conclusions rather than descriptive structure.

Strengths & limitations

Strengths
  • Scales efficiently to very large literatures — thousands of papers can be analyzed that would be unmanageable by manual reading alone.
  • Simultaneously reveals multiple structural dimensions: thematic clusters, influential actors, bridging documents, and temporal evolution.
  • Produces intuitive visual maps that communicate complex scholarly landscapes to non-specialist audiences.
  • Reproducible and transparent: the same database query and algorithm settings yield the same network.
  • Complements qualitative review by providing an objective structural scaffold before deep reading begins.
  • Identifies overlooked or bridging literature that keyword searches alone may miss.
Limitations
  • Coverage bias: results depend heavily on which databases are searched; fields with strong grey-literature or book traditions (humanities, law) are systematically underrepresented.
  • Citation-count metrics favor older publications, established journals, and English-language work, potentially marginalizing newer or non-English scholarship.
  • Network structure reflects citation behavior, which is influenced by self-citation, field norms, and prestige effects, not solely intellectual relevance.
  • Community-detection results can vary with algorithm choice and resolution parameter; different settings can produce meaningfully different cluster structures.
  • Interpretation requires domain expertise — misreading cluster labels or centrality rankings without field knowledge leads to spurious conclusions.

Frequently asked

What is the difference between co-citation analysis and bibliographic coupling?

Co-citation analysis links two documents when a third document cites both — it captures perceived intellectual similarity as judged by subsequent authors and reflects the intellectual heritage of a field. Bibliographic coupling links two documents when they share at least one reference — it captures similarity in source material and is more useful for identifying current research fronts. Both are valid network types for different research questions about scholarly structure.

How many records do I need for a meaningful network analysis?

There is no strict minimum, but networks with fewer than about 50 nodes tend to be too sparse for community detection to produce stable, interpretable clusters. Analyses based on hundreds to tens of thousands of records are most common and most robust. Very large networks (above ~50,000 nodes) may require computational optimization or filtering by minimum link strength.

Which software should I use — VOSviewer, Gephi, or bibliometrix?

VOSviewer is the most widely used tool for bibliometric network visualization and is particularly user-friendly for co-citation, bibliographic coupling, and co-word networks. Gephi offers more flexible visualization and a wider range of community-detection algorithms but requires more technical skill. The R package bibliometrix provides the most comprehensive analytical suite (including longitudinal analysis and factorial methods) and is preferred when reproducibility via scripting is a priority. Many studies use two or more tools in combination.

Can network-based scientometrics replace a full systematic review?

No. Scientometric network analysis describes the structural properties of a literature — who cites whom, which topics cluster together — but it does not assess the quality or content of individual studies. It is best positioned as a preliminary mapping step that informs scope, identifies key papers for full-text review, and provides a visual overview, rather than as a substitute for content synthesis or quality appraisal.

How do I choose the resolution parameter for community detection?

The resolution parameter in algorithms such as Louvain controls the granularity of clusters: lower values merge communities into fewer, broader clusters; higher values split them into more, narrower ones. A common practice is to run the algorithm at multiple resolution settings, inspect the resulting clusters, and select the setting that produces thematically coherent and interpretable groupings — guided by domain knowledge rather than a single statistical criterion.

Sources

  1. van Eck, N. J., & Waltman, L. (2010). Software survey: VOSviewer, a computer program for bibliometric mapping. Scientometrics, 84(2), 523–538. DOI: 10.1007/s11192-009-0146-3 ↗
  2. Mingers, J., & Leydesdorff, L. (2015). A review of theory and practice in scientometrics. European Journal of Operational Research, 246(1), 1–19. DOI: 10.1016/j.ejor.2015.04.002 ↗

How to cite this page

ScholarGate. (2026, June 3). Network-based Scientometric Analysis. ScholarGate. https://scholargate.app/en/scientometrics/network-based-scientometric-analysis

Related methods

Bibliographic CouplingBibliometric AnalysisCo-Citation AnalysisCo-word AnalysisScience MappingScientometric Analysis

Which method?

Set this method beside its closest kin and read them side by side — the library lays the books on the table; the choice is yours.

  • Bibliographic CouplingBibliometrics↔ compare
  • Bibliometric AnalysisScientometrics↔ compare
  • Co-Citation AnalysisBibliometrics↔ compare
  • Co-word AnalysisScientometrics↔ compare
  • Science MappingBibliometrics↔ compare
  • Scientometric AnalysisScientometrics↔ compare
Compare side by side →

Similar methods

Network-based Co-citation AnalysisNetwork-based Mapping reviewScientometric AnalysisField-mapping Scientometric AnalysisBibliometric AnalysisVOSviewer-assisted co-citation analysisVOSviewer-assisted science mappingVOSviewer-assisted citation analysis

Related reference concepts

BibliometricsNetwork Analysis in the HumanitiesCitation AnalysisGraph and Network VisualizationScoping ReviewData Visualization and Spatial Humanities

Spotted an issue on this page? Report or suggest a fix →

ScholarGate — Network-based Scientometric analysis (Network-based Scientometric Analysis). Retrieved 2026-07-21 from https://scholargate.app/en/scientometrics/network-based-scientometric-analysis · Dataset: https://doi.org/10.5281/zenodo.20539026
Quick facts
Originator
Derek J. de Solla Price (network citation structure); Nees Jan van Eck & Ludo Waltman (computational network mapping)
Year
1965 (Price); computational refinement 2000s–2010s
Type
Quantitative bibliometric method
DataType
Publication records, citation data, co-authorship data (bibliographic databases: Web of Science, Scopus, Dimensions)
Subfamily
Review / evidence synthesis
Related methods
Bibliographic CouplingBibliometric AnalysisCo-Citation AnalysisCo-word AnalysisScience MappingScientometric Analysis
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