# In-Situ Stress Measurement AI Agent Connect

> Interprets in-situ stress measurement data from overcoring, hydraulic fracturing, or acoustic emission.

## Overview
- **Category:** engineering
- **Price:** Free
- **Endpoint:** https://edge.vinkius.com/vk_preview_dqVFqglg8HlWyWRL0VA1SrkL7PXppoerf1xNJFtp/ai-agent-connect
- **Tags:** stress-analysis, rock-mechanics, geology, mining-engineering, geotechnical-data

## Description

This MCP server provides specialized tools to interpret in-situ stress states in rock masses. It allows AI agents to process complex geotechnical data and derive critical engineering parameters. Using `analyze_overcoring_data`, agents can calculate full 3D stress tensors from strain gauge readings. The `interpret_hydraulic_fracture` tool determines principal stress magnitudes and orientations from borehole fracture data. For seismic monitoring, `process_acoustic_emission` infers stress field characteristics from energy release distributions. Finally, `calculate_stress_regime` classifies the tectonic environment (Normal, Strike-Slip, or Thrust) based on calculated principal stresses.

## Tools

### analyze_overcoring_data
Calculates the full 3D stress tensor from overcoring strain gauge measurements

### calculate_stress_regime
Classifies the tectonic stress environment based on existing principal stress calculations

### interpret_hydraulic_fracture
Determines principal stress magnitudes and orientations based on fracture occurrence

### process_acoustic_emission
Infers stress field characteristics from the spatial distribution of acoustic energy releases

## Prompt Examples

**Prompt:** 
```
Calculate the stress tensor from these strain readings: [{'gauge': 1, 'strain': 0.0001}, {'gauge': 2, 'strain': 0.00015}] and rock elasticity {'E': 50e9, 'nu': 0.25}.
```

**Response:** 
```
The calculated principal stresses are: Max: 45.2 MPa, Mid: 30.1 MPa, Min: 15.5 MPa, with an azimuth of 120 degrees and dip of 45 degrees.
```

**Prompt:** 
```
What is the stress regime if the principal stresses are 50 MPa, 45 MPa, and 10 MPa?
```

**Response:** 
```
The stress regime is classified as Strike-Slip because the intermediate principal stress (45 MPa) is the vertical component.
```

**Prompt:** 
```
Determine the stress from a hydraulic fracture with orientation {'azimuth': 90, 'dip': 0}, breakdown pressure 30 MPa, and depth 500m.
```

**Response:** 
```
The minimum principal stress is 30 MPa, and the maximum horizontal stress orientation is 90 degrees.
```

## Frequently Asked Questions

**What kind of data can I provide for stress analysis?**
You can provide strain readings from overcoring, fracture orientation and pressure from hydraulic fracturing, or acoustic emission event logs.

**Can this tool account for rock anisotropy?**
Yes, the `analyze_overcoring_data` tool includes an optional anisotropy factor to adjust stress tensor calculations for directional stiffness variations.

**How is the tectonic stress regime determined?**
The `calculate_stress_regime` tool classifies the environment as Normal, Strike-Slip, or Thrust based on the relative magnitudes of the three principal stresses.