Three-feature model to reproduce the topology of citation networks and the effects from authors' visibility on their h-index
arXiv:1302.4095 · doi:10.1016/j.joi.2012.02.005
Abstract
Various factors are believed to govern the selection of references in citation networks, but a precise, quantitative determination of their importance has remained elusive. In this paper, we show that three factors can account for the referencing pattern of citation networks for two topics, namely "graphenes" and "complex networks", thus allowing one to reproduce the topological features of the networks built with papers being the nodes and the edges established by citations. The most relevant factor was content similarity, while the other two - in-degree (i.e. citation counts) and {age of publication} had varying importance depending on the topic studied. This dependence indicates that additional factors could play a role. Indeed, by intuition one should expect the reputation (or visibility) of authors and/or institutions to affect the referencing pattern, and this is only indirectly considered via the in-degree that should correlate with such reputation. Because information on reputation is not readily available, we simulated its effect on artificial citation networks considering two communities with distinct fitness (visibility) parameters. One community was assumed to have twice the fitness value of the other, which amounts to a double probability for a paper being cited. While the h-index for authors in the community with larger fitness evolved with time with slightly higher values than for the control network (no fitness considered), a drastic effect was noted for the community with smaller fitness.
References in corpus (7)
- Statistical mechanics of complex networks
- The structure and function of complex networks
- An index to quantify an individual's scientific research output
- Power laws, Pareto distributions and Zipf's law
- Characterization of complex networks: A survey of measurements
- Parameter estimation for power-law distributions by maximum likelihood methods
- Modeling scientific-citation patterns and other triangle-rich acyclic networks
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- Topic segmentation via community detection in complex networks
- What is the dimension of citation space?
- Network analysis of named entity co-occurrences in written texts
- Analyzing the relationship between text features and research proposal productivity
- Scale-free collaboration networks: An author name disambiguation perspective
- Complex systems: features, similarity and connectivity
- Comparing the impact of subfields in scientific journals
- Discriminating word senses with tourist walks in complex networks
- Modeling nonuniversal citation distributions: the role of scientific journals
- Network-based stochastic competitive learning approach to disambiguation in collaborative networks
- Associations between author-level metrics in subsequent time periods
- K-method of calculating the mutual influence of nodes in a directed weight complex networks
- Classification of abrupt changes along viewing profiles of scientific articles