The Simple Rules of Social Contagion
arXiv:1308.5015 · doi:10.1038/srep04343
Abstract
It is commonly believed that information spreads between individuals like a pathogen, with each exposure by an informed friend potentially resulting in a naive individual becoming infected. However, empirical studies of social media suggest that individual response to repeated exposure to information is significantly more complex than the prediction of the pathogen model. As a proxy for intervention experiments, we compare user responses to multiple exposures on two different social media sites, Twitter and Digg. We show that the position of the exposing messages on the user-interface strongly affects social contagion. Accounting for this visibility significantly simplifies the dynamics of social contagion. The likelihood an individual will spread information increases monotonically with exposure, while explicit feedback about how many friends have previously spread it increases the likelihood of a response. We apply our model to real-time forecasting of user behavior.
5 pages, 4 figures, supplement
References in corpus (5)
Cited by in corpus (42)
- Simplicial models of social contagion
- Measuring Emotional Contagion in Social Media
- Evidence of Complex Contagion of Information in Social Media: An Experiment Using Twitter Bots
- The Emergence of Consensus: A Primer
- Network reconstruction and community detection from dynamics
- Competing for Attention in Social Media under Information Overload Conditions
- Complex Contagion of Campaign Donations
- Competing contagion processes: Complex contagion triggered by simple contagion
- The growing amplification of social media: Measuring temporal and social contagion dynamics for over 150 languages on Twitter for 2009-2020
- Universality, criticality and complexity of information propagation in social media
- Explosive spreading on complex networks: the role of synergy
- Evidence of Online Performance Deterioration in User Sessions on Reddit
- The Myopia of Crowds: A Study of Collective Evaluation on Stack Exchange
- Computational Social Scientist Beware: Simpson's Paradox in Behavioral Data
- Spreading dynamics of information on online social networks
- Social contagion on higher-order structures
- Impacts of Opinion Leaders on Social Contagions
- Branching process descriptions of information cascades on Twitter
- Self-Organization of Dragon Kings
- Modeling the Public Health Impact of E-Cigarettes on Adolescents and Adults
- Quantifying the Vulnerabilities of the Online Public Square to Adversarial Manipulation Tactics
- Nonlinear bias toward complex contagion in uncertain transmission settings
- Close and ordinary social contacts: how important are they in promoting large-scale contagion?
- Competition in the presence of aging: order, disorder, and synchronized collective behavior
- Memory-induced complex contagion in epidemic spreading
- Multilayer modeling of adoption dynamics in energy demand management
- My friends also prefer diverse music: homophily and link prediction with user preferences for mainstream, novelty, and diversity in music
- Reciprocity, Homophily, and Social Network Effects in Pictorial Communication: A Case Study of Bitmoji Stickers
- Susceptibility to Unreliable Information Sources: Swift Adoption with Minimal Exposure
- Empirical Evaluation of Link Deletion Methods for Limiting Information Diffusion on Social Media
- Complex social contagion induces bistability on multiplex networks
- Social Network Heterogeneity Promotes Depolarization of Multidimensional Correlated Opinions
- Information Interaction Profile of Choice Adoption
- Joint Inference of Diffusion and Structure in Partially Observed Social Networks Using Coupled Matrix Factorization
- Dose-response functions and surrogate models for exploring social contagion in the Copenhagen Networks Study
- New activity pattern in human interactive dynamics
- Independent Asymmetric Embedding for Information Diffusion Prediction on Social Networks
- A Dynamical Model of Twitter Activity Profiles
- On the dual nature of adoption processes in complex networks
- The working group performance modeled by a bi-layer cellular automaton
- Model of Cognitive Dynamics Predicts Performance on Standardized Tests
- Detecting contagious spreading of urban innovations on the global city network