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Vol. 1 No. 1 (2026): October
Articles

Climate Prediction Using Data Science and Machine Learning

Published 2026-10-07

Keywords

  • Array

Abstract

One of the major challenges facing the world today is climate change and the ability to predict it accurately. Climate informatics is an emerging interdisciplinary field that integrates climate science with data science to better understand, model, and forecast climate change patterns. This field continues to develop rapidly due to advancements in data analysis techniques, modern visualization tools, and improved computational capabilities that help manage the large and complex datasets generated by climate-related studies. Evidence suggests that significant climate deterioration began with the rise of industrialization, which increased greenhouse gas emissions and environmental disruption. In recent years, the growth of machine learning has further enhanced the ability to analyze large-scale climate data for predictive purposes. Machine learning involves training algorithms on datasets so they can identify patterns and generate reliable predictions. In this context, artificial intelligence supports machine learning by enabling systems to process and learn from large amounts of environmental data. Climate variability is increasingly observed through phenomena such as global warming, ozone layer depletion, and other environmental changes. These variations can be studied using data collected from multiple scientific sources, where computational methods and machine learning techniques play a key role in analyzing trends and improving prediction accuracy. A wide range of datasets is now available from different platforms, making it possible to apply various analytical methods to interpret and extract meaningful insights from climate data.

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