Analyzing the Impact of Online News Streams on Collective Cognition: A Computational Approach

Authors

  • Robert H. Chen Department of Social and Decision Sciences, Carnegie Mellon University

Keywords:

Collective Cognition, Natural Language Processing, Information Infrastructure, Socio-technical Systems, News Sentiment, Algorithmic Governance.

Abstract

The rapid evolution of digital information infrastructures has fundamentally recalibrated the mechanisms by which collective cognition is formed and sustained. As online news streams become the primary conduit for societal situational awareness, the computational characteristics of these streams—velocity, volume, and sentiment volatility—exert a profound influence on the psychological and social architecture of the public. This research paper provides a comprehensive systems-level analysis of how automated news dissemination impacts collective cognition through the lens of natural language processing and socio-technical systems engineering. We examine the structural trade-offs between information throughput and cognitive load, the architectural requirements for robust public sentiment monitoring, and the governance challenges inherent in managing algorithmic news feeds. By integrating perspectives from artificial intelligence and engineering with sociopolitical theory, we argue that the current news infrastructure often prioritizes engagement over cognitive resilience, leading to systemic vulnerabilities in public perception. The paper evaluates the deployment of large-scale linguistic models for detecting systematic biases and sentiment prevalence, emphasizing the necessity of fairness and transparency in algorithmic design. Our analysis suggests that the stability of collective cognition depends on the strategic implementation of robust, policy-aware computational frameworks that can mitigate the distortive effects of sentiment-driven news cycles.

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Published

2026-04-18

How to Cite

Robert H. Chen. (2026). Analyzing the Impact of Online News Streams on Collective Cognition: A Computational Approach. International Journal of Artificial Intelligence Research, 1(1). Retrieved from https://isipress.org/index.php/IJAIR/article/view/115