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A Big Data Guide to Understanding Climate Change: The Case for Theory-Guided Data Science
James H Faghmous1, Vipin Kumar1
1Department of Computer Science and Engineering, The University of Minnesota-Twin Cities Minneapolis, Minnesota.
Big Data
|October 3, 2014
Summary
Data science can help understand climate change, but traditional big data methods fail. A theory-guided approach is needed for accurate insights from climate data.
Area of Science:
- Climate Science
- Data Science
- Environmental Science
Background:
- Global climate change presents significant challenges to human life.
- Despite abundant climate data, data science has had limited impact on climate understanding.
- Big data techniques have succeeded in other fields but face unique challenges in climate science.
Purpose of the Study:
- Introduce data science to climate data mining challenges and opportunities.
- Highlight differences between climate data mining and traditional big data approaches.
- Propose a theory-guided data science paradigm for climate research.
Main Methods:
- Focus on data, methods, and application challenges in climate data mining.
- Critique the limitations of solely relying on traditional big data techniques.
- Introduce a theory-guided data science paradigm.
Main Results:
- Traditional big data techniques yield dubious findings in climate science.
- A theory-guided approach is essential for accurate climate data analysis.
- Scientific theory can constrain big data techniques and interpretation.
Conclusions:
- Big data has immense potential for climate science if applied correctly.
- A theory-guided data science paradigm is crucial for reliable climate insights.
- Overcoming data and methodological challenges is key to leveraging big data for climate action.
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