Data handling and pattern recognition for metal contaminated soils
1Department of Environmental Science, University of Bradford, BD7 1DP, Bradford, West Yorkshire, England.
Environmental Geochemistry and Health
|November 9, 2013
Summary
Interpreting metal contamination in soils requires statistical analysis of variable field data. This approach uses statistical tests and computer graphics to identify pollution patterns and excesses.
Area of Science:
- Environmental Science
- Geochemistry
- Soil Science
Background:
- Laboratory science excels at controlled experiments, but field science faces inherent data variability.
- Hypothesis testing in field sciences necessitates robust statistical interpretation of noisy data.
- Distinguishing natural metal presence from anthropogenic contamination in soils is challenging.
Purpose of the Study:
- To present a systematic methodology for interpreting results from metal-contaminated soil surveys.
- To outline statistical approaches for identifying anthropogenic metal excesses in soil.
- To describe the use of computer graphics for evaluating spatial patterns of soil pollution.
Main Methods:
- Application of statistical tests to soil survey data to detect metal excesses.
- Utilizing computergraphic techniques to analyze spatial distribution patterns of contaminants.
- Interpreting inherently variable field data through careful statistical analysis.
Main Results:
- Development of a systematic approach for analyzing metal contamination in soils.
- Successful identification of anthropogenic metal excesses using statistical methods.
- Evaluation of distinct spatial patterns indicative of pollution processes.
Conclusions:
- Statistical interpretation and spatial analysis are crucial for understanding metal contamination in field soils.
- The described methods enable reliable identification of pollution sources in complex environmental settings.
- This systematic approach enhances the accuracy of environmental risk assessments for contaminated soils.


