# Subsea Completion Design AI Agent Connect

> Design subsea completion systems including tree architecture, tubing hangers, and control infrastructure.

## Overview
- **Category:** engineering
- **Price:** Free
- **Endpoint:** https://edge.vinkius.com/vk_preview_LgmtIYqGe2lnU0gBIxeegUwyHjZcdHiLtTf9I36D/ai-agent-connect
- **Tags:** subsea, engineering, wellhead, offshore, completion

## Description

This MCP server provides specialized engineering tools for designing subsea completion systems. It allows AI agents to determine the optimal tree architecture using `get_tree_configuration`, select appropriate tubing hanger systems via `evaluate_tubing_hanger`, define necessary control infrastructure with `determine_control_system`, and assess operational logistics through `analyze_intervention_feasibility`. The tools account for critical variables such as water depth, reservoir pressure, temperature, and fluid composition to ensure system integrity and intervention feasibility.

## Tools

### analyze_intervention_feasibility
Assesses the difficulty and logistical requirements of performing workovers on the proposed design

### determine_control_system
Defines the necessary control infrastructure to manage the subsea wellhead

### evaluate_tubing_hanger
Recommends the appropriate tubing hanger system based on wellbore stresses and environment

### get_tree_configuration
Determines the most suitable subsea tree architecture for a specific well

## Prompt Examples

**Prompt:** 
```
What kind of subsea tree should I use for a well at 1500m depth with high intervention frequency and 300 bar pressure?
```

**Response:** 
```
For a depth of 1500m and high intervention frequency, a horizontal tree is recommended to facilitate easier workovers.
```

**Prompt:** 
```
Recommend a tubing hanger for a reservoir with 120C temperature, 400 bar pressure, and sour fluid composition.
```

**Response:** 
```
A heavy-duty hanger with corrosion-resistant seal materials is required due to the high pressure, temperature, and sour fluid conditions.
```

**Prompt:** 
```
What control system is needed for a 2500m deep well requiring 5 valve actuations?
```

**Response:** 
```
For a depth of 2500m, an electro-hydraulic or all-electric control system is required to manage signal latency and response times.
```

## Frequently Asked Questions

**How does the tool decide between vertical and horizontal trees?**
The `get_tree_configuration` tool evaluates water depth and expected intervention frequency. For high-intervention wells, it prioritizes horizontal trees to allow easier access to the tubing hanger.

**Can I design control systems for deepwater wells?**
Yes, `determine_control_system` evaluates water depth to recommend whether a hydraulic, electro-hydraulic, or all-electric system is required to manage signal latency.

**How are seal materials selected for the tubing hanger?**
The `evaluate_tubing_hanger` tool analyzes reservoir temperature, pressure, and fluid composition (such as sour or acidic fluids) to recommend the correct seal materials and hanger types.