Authors :
George Kimwomi; Kennedy Ondimu
Volume/Issue :
Volume 10 - 2025, Issue 3 - March
Google Scholar :
https://tinyurl.com/yny25ena
Scribd :
https://tinyurl.com/5fpaejce
DOI :
https://doi.org/10.38124/ijisrt/25mar404
Google Scholar
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Abstract :
The advent of Big Data Analytics has transformed scientific research by enabling pattern recognition,
hypothesis generation, and predictive analysis across disciplines. However, reliance on large datasets introduces epistemic
risks, including data biases, algorithmic opacity, and challenges in inductive reasoning. This paper explores these risks,
focusing on the interplay between data- and theory-driven methods, biases in inference, and methodological challenges in
Big Data epistemology. Key concerns include data representativeness, spurious correlations, overfitting, and model
interpretability. Case studies in biomedical research, climate science, social sciences, and AI-assisted discovery highlight
these vulnerabilities. To mitigate these issues, this paper advocates for Bayesian reasoning, transparency initiatives,
fairness-aware algorithms, and interdisciplinary collaboration. Additionally, policy recommendations such as stronger
regulatory oversight and open science initiatives are proposed to ensure epistemic integrity in Big Data research,
contributing to discussions in philosophy of science, data ethics, and statistical inference.
Keywords :
Epistemic Risks, Big Data Analytics, Scientific Discovery, Inductive Reasoning, Large-Scale Datasets.
References :
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The advent of Big Data Analytics has transformed scientific research by enabling pattern recognition,
hypothesis generation, and predictive analysis across disciplines. However, reliance on large datasets introduces epistemic
risks, including data biases, algorithmic opacity, and challenges in inductive reasoning. This paper explores these risks,
focusing on the interplay between data- and theory-driven methods, biases in inference, and methodological challenges in
Big Data epistemology. Key concerns include data representativeness, spurious correlations, overfitting, and model
interpretability. Case studies in biomedical research, climate science, social sciences, and AI-assisted discovery highlight
these vulnerabilities. To mitigate these issues, this paper advocates for Bayesian reasoning, transparency initiatives,
fairness-aware algorithms, and interdisciplinary collaboration. Additionally, policy recommendations such as stronger
regulatory oversight and open science initiatives are proposed to ensure epistemic integrity in Big Data research,
contributing to discussions in philosophy of science, data ethics, and statistical inference.
Keywords :
Epistemic Risks, Big Data Analytics, Scientific Discovery, Inductive Reasoning, Large-Scale Datasets.