Scaling laws and dynamics of hashtags on Twitter
April 27, 2020 Β· Declared Dead Β· π Chaos
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Authors
Hongjia H. Chen, Tristram J. Alexander, Diego F. M. Oliveira, Eduardo G. Altmann
arXiv ID
2004.12707
Category
physics.soc-ph
Cross-listed
cs.SI
Citations
12
Venue
Chaos
Last Checked
3 months ago
Abstract
In this paper we quantify the statistical properties and dynamics of the frequency of hashtag use on Twitter. Hashtags are special words used in social media to attract attention and to organize content. Looking at the collection of all hashtags used in a period of time, we identify the scaling laws underpinning the hashtag frequency distribution (Zipf's law), the number of unique hashtags as a function of sample size (Heaps' law), and the fluctuations around expected values (Taylor's law). While these scaling laws appear to be universal, in the sense that similar exponents are observed irrespective of when the sample is gathered, the volume and nature of the hashtags depends strongly on time, with the appearance of bursts at the minute scale, fat-tailed noise, and long-range correlations. We quantify this dynamics by computing the Jensen-Shannon divergence between hashtag distributions obtained $Ο$ times apart and we find that the speed of change decays roughly as $1/Ο$. Our findings are based on the analysis of 3.5 billion hashtags used between 2015 and 2016.
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