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Spatial Statistics and Interpolation Cheat Sheet

Spatial Statistics and Interpolation Cheat Sheet

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Updated 2026-03-19
Next Topic: Statistical Distributions Cheat Sheet

Spatial statistics and interpolation form a specialized branch of statistics focused on analyzing, modeling, and predicting phenomena distributed across geographic space. Unlike traditional statistical methods that assume independence between observations, spatial methods explicitly account for Tobler's First Law of Geography—that nearby locations tend to be more similar than distant ones, a pattern known as spatial autocorrelation. These techniques are fundamental to fields ranging from epidemiology and environmental science to urban planning and geology, enabling practitioners to detect disease clusters, predict pollutant concentrations, map crime hotspots, and estimate resource distributions. A critical insight: spatial data violates the independence assumption of classical statistics, making specialized tools essential—yet this very dependence structure also carries valuable information about underlying processes that standard methods would miss entirely.

What This Cheat Sheet Covers

This topic spans 23 focused tables and 115 indexed concepts. Below is a complete table-by-table outline of this topic, spanning foundational concepts through advanced details.

Table 1: Global Spatial Autocorrelation MeasuresTable 2: Local Spatial Association IndicatorsTable 3: Variogram Parameters and ComponentsTable 4: Kriging Interpolation MethodsTable 5: Deterministic Interpolation MethodsTable 6: Point Pattern Analysis TestsTable 7: Spatial Regression ModelsTable 8: Spatial Weights Matrix SpecificationsTable 9: Anisotropy and Directional AnalysisTable 10: Stationarity AssumptionsTable 11: Hotspot and Cluster DetectionTable 12: Distance-Based Spatial FunctionsTable 13: Point Process ModelsTable 14: Cross-Validation and Model SelectionTable 15: Areal Data IssuesTable 16: Advanced Kriging VariantsTable 17: Spatial Interpolation Quality MetricsTable 18: Bandwidth and Parameter SelectionTable 19: Spatial Aggregation MethodsTable 20: Spatial Simulation and UncertaintyTable 21: Spatial Heterogeneity DetectionTable 22: Specialized Spatial TechniquesTable 23: Edge Effect Corrections

Table 1: Global Spatial Autocorrelation Measures

StatisticExampleDescription
Global Moran's I
I = \frac{n \sum_i \sum_j w_{ij}(x_i - \bar{x})(x_j - \bar{x})}{\sum_i \sum_j w_{ij} \sum_i (x_i - \bar{x})^2}
• Measures overall spatial autocorrelation across the entire study area
• ranges from -1 to +1 where values above E[I] = -1/(n-1) indicate positive clustering (similar values cluster together), below indicate dispersion, and near the expected value suggest random spatial patterns.
Geary's C
C = \frac{(n-1) \sum_i \sum_j w_{ij}(x_i - x_j)^2}{2 \sum_i \sum_j w_{ij} \sum_i (x_i - \bar{x})^2}
• Global measure based on squared differences between neighboring values
• ranges from 0 to 2+ where C < 1 indicates positive autocorrelation, C > 1 indicates negative autocorrelation, and C \approx 1 suggests randomness
• more sensitive to local variation than Moran's I.

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