# Bottom Contour Analysis AI Agent Connect

> Bottom Contour Analysis MCP gives your AI client the ability to run hydrodynamic simulations on surfboard designs. You can test how different concaves and transitions impact speed, lift, and turning agility before you ever cut foam. It turns your agent into a specialized hydrodynamics consultant for board shaping and design.

## Overview
- **Category:** design
- **Price:** Free
- **Endpoint:** https://edge.vinkius.com/vk_preview_VPq9DqC3RvjdDNloxM5b5STp8OUW5hBOPMZALdru/ai-agent-connect
- **Tags:** surfboard, hydrodynamics, design, performance, physics

## Description

Designing a surfboard is a game of managing water flow. This MCP lets you hand off the heavy physics calculations to your AI client. Instead of guessing how a single concave will feel compared to a double concave, you can run specific tests to see how the water actually moves. You can check how much lift a specific shape generates at different speeds or see if a transition between contours will cause too much turbulence. It's a way to validate your design logic using physics-based metrics. Whether you are tweaking a high-performance shortboard or a cruiser, you can use these tools to predict planing thresholds and rail-to-rail transitions. It moves the design process from intuition to data-driven modeling.

## Tools

### optimize_maneuverability
This tool suggests specific bottom shape adjustments to help the board turn more easily.

### calculate_lift_profile
Use this to find out how much upward pressure the board generates at specific speeds.

### evaluate_transition_turbulence
This tool predicts if water flow will get disrupted when moving between different contour shapes.

### analyze_contour_performance
This tool evaluates the core hydrodynamic metrics for any given bottom configuration.

## Prompt Examples

**Prompt:** 
```
Analyze a single concave configuration with a V-panel and 5mm channels.
```

**Response:** 
```
The analysis shows a high speed score and moderate lift, with a stability rating of Medium.
```

**Prompt:** 
```
What happens if I transition from a single concave to a double concave over 10cm?
```

**Response:** 
```
The transition results in a Turbulent flow level with a flow disruption score of 0.65. A Gradual transition is recommended.
```

**Prompt:** 
```
Calculate the lift for a double concave at a speed of 15 knots with 0.8 channel efficiency.
```

**Response:** 
```
The total lift is 45.2 units with a planing threshold of 12 knots and a center-focused pressure distribution.
```

## Capabilities

### Hydrodynamic Modeling
Your agent uses this to calculate how water interacts with specific board shapes.

### Performance Prediction
The AI uses this to estimate speed and lift based on bottom contours.

### Flow Disruption Analysis
Your client uses this to identify turbulence caused by shape transitions.

### Design Optimization
The AI suggests changes to improve how a board handles turns.

## Use Cases

### Shape Validation
Test if a new concave design will provide enough lift for a specific speed.

### Transition Testing
Check if moving from a single to a double concave creates too much water disruption.

### Agility Tuning
Get design suggestions to make a board more responsive in turns.

### Planing Thresholds
Determine the exact speed at which a specific bottom shape begins to plane.

## Benefits

- Reduces design errors by predicting turbulence before physical prototyping.
- Provides specific lift and speed metrics for different board shapes.
- Speeds up the iterative design process through rapid hydrodynamic testing.

## How It Works

Connecting this MCP to your AI client gives it immediate access to hydrodynamic math.

1. Connect the MCP to your client like Claude or Cursor via Vinkius.
2. Describe your board's bottom contour to your AI agent.
3. Ask the agent to run specific performance or lift calculations.
4. Review the physics-based results to refine your design.

## Frequently Asked Questions

**What kind of analysis does this MCP perform?**
It performs hydrodynamic analysis focused on surfboard bottom contours, specifically looking at speed, lift, and maneuverability.

**Can I use this with Cursor or VS Code?**
Yes, you can use this MCP with any compatible client including Cursor, VS Code, Windsurf, and Claude.

**How does it help with board turning?**
The optimize_maneuverability tool suggests specific adjustments to the board bottom to improve turning agility.

**Does it predict water turbulence?**
Yes, the evaluate_transition_turbulence tool predicts flow disruption when moving between different contour shapes.

**How do I get the results?**
Your AI client will execute the tools and provide you with the calculated metrics, such as lift units or flow disruption scores.