Charting mobility patterns in the scientific knowledge landscape
Chakresh Kumar Singh, Liubov Tupikina, Fabrice L\'ecuyer, Michele, Starnini, Marc Santolini

TL;DR
This paper systematically analyzes scientific knowledge mobility patterns across physics, computer science, and mathematics, revealing that researcher movements resemble physical mobility and can be modeled by a gravity model, distinguishing explorers from exploiters.
Contribution
It introduces a formal framework for studying knowledge mobility using low-dimensional embeddings and identifies distinct researcher mobility archetypes.
Findings
Mobility patterns resemble physical movement.
Knowledge flows follow a gravity model.
Two researcher types: explorers and exploiters.
Abstract
From small steps to great leaps, metaphors of spatial mobility abound to describe discovery processes. Here, we ground these ideas in formal terms by systematically studying scientific knowledge mobility patterns. We use low-dimensional embedding techniques to create a knowledge space made up of 1.5 million articles from the fields of physics, computer science, and mathematics. By analyzing the publication histories of individual researchers, we discover patterns of knowledge mobility that closely resemble physical mobility. In aggregate, the trajectories form mobility flows that can be described by a gravity model, with jumps more likely to occur in areas of high density and less likely to occur over longer distances. We identify two types of researchers from their individual mobility patterns: interdisciplinary explorers who pioneer new fields, and exploiters who are more likely to…
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Taxonomy
TopicsComplex Network Analysis Techniques · Peer-to-Peer Network Technologies · Human Mobility and Location-Based Analysis
