# Tuck Speed Optimizer AI Agent Connect

> Optimize rider aerodynamics using precise tuck angle modeling.

## Overview
- **Category:** sports
- **Price:** Free
- **Endpoint:** https://edge.vinkius.com/vk_preview_ggQJ9YLuXWCj9igKCB26AIvbWuv4pZYwMMzPRY9c/ai-agent-connect
- **Tags:** aerodynamics, cycling, speed, optimization, physics

## Description

This MCP server provides advanced aerodynamic modeling to help riders find their most efficient body position. By analyzing rider height, chest width, wind speed, and slope, the server uses `calculate_optimal_tuck` to determine the best torso angle for minimizing drag. It also includes tools like `analyze_aerodynamic_impact` to evaluate speed changes and `evaluate_flexibility_constraint` to ensure the suggested position is physically sustainable. Perfect for cyclists and aerodynamic enthusiasts looking to maximize speed through better positioning.

## Tools

### analyze_aerodynamic_impact
Evaluates how much speed is lost or gained due to specific environmental changes

### evaluate_flexibility_constraint
Checks if a proposed tuck position is physically sustainable for a given rider profile

### get_drag_reduction_profile
Provides a summary of drag reduction potential across different wind speeds for a specific rider

### calculate_optimal_tuck
Determines the best body position to minimize drag based on physical and environmental constraints

## Prompt Examples

**Prompt:** 
```
What is the best tuck angle for a rider who is 180cm tall, has a 45cm chest width, facing a 10m/s wind on a 2 degree slope with a flexibility score of 0.7?
```

**Response:** 
```
The optimal tuck angle for your profile is 24 degrees, which will provide an estimated drag reduction of 12% and a speed gain of 0.45 m/s.
```

**Prompt:** 
```
Is a 15 degree tuck angle sustainable for someone with a flexibility score of 0.3?
```

**Response:** 
```
No, a 15 degree angle is not feasible for your flexibility level. It would result in an Extreme strain level.
```

**Prompt:** 
```
How much speed will I gain if I improve my tuck from a neutral position?
```

**Response:** 
```
Based on your dimensions and current wind speed, moving to the optimal tuck will increase your velocity by 0.32 m/s.
```

## Frequently Asked Questions

**How does the tool account for my physical limits?**
The `calculate_optimal_tuck` tool uses your flexibility score to ensure the recommended angle is physically achievable. You can also use `evaluate_flexibility_constraint` to verify if a specific angle is sustainable.

**Can I use this to prepare for high wind conditions?**
Yes. You can use `get_drag_reduction_profile` to see how drag reduction changes across different wind speeds, accounting for factors like clothing flapping.

**Does the slope of the road affect the results?**
Yes, the `calculate_optimal_tuck` tool takes the slope angle into account to provide a more accurate model of effective velocity and drag.