Depth-Dependent Lateral Tectonic Strain Estimation

The patent applies the dynamics principle by transitioning from static constant tectonic strain values to dynamic depth-dependent tectonic strain values. The method estimates tectonic strain as a function of depth, allowing the strain parameters to vary dynamically throughout the formation rather than remaining fixed, thereby improving stress profile accuracy while maintaining computational feasibility through systematic estimation procedures.

The patent implements parameter changes by modifying the tectonic strain parameters from constant values to depth-dependent variable values. This involves changing the mathematical representation of tectonic strain from a single constant parameter to multiple parameters that vary with depth, enabling more accurate stress estimations that reflect the actual geological conditions at different depths.

The patent applies segmentation by dividing the formation into multiple depth intervals and estimating tectonic strain separately for each interval. This segmentation approach allows the complex depth-dependent strain estimation to be broken down into manageable segments, improving stress characterization accuracy at each depth level while keeping the computational process systematic and organized.

The patent uses partial action by estimating tectonic strain at selected depth intervals rather than continuously at every possible depth point. This partial sampling approach provides sufficient accuracy for stress characterization while avoiding the excessive computational complexity that would result from continuous depth-dependent estimation, achieving an optimal balance between accuracy and computational efficiency.