Creating an interactive HTML spreadsheet with the requested functionality is a complex task, but I can provide you with a simplified version of the program. This will allow you to explore trade-offs between leg dimensions, waterline area, speed, wave response, and stabilizer effectiveness. The program will be implemented in JavaScript within an HTML file, so you can open it in any modern web browser.
Below is the HTML code for the spreadsheet. You can copy and paste it into a text editor, save it as an `.html` file, and open it in your browser to use it.
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```html
Seastead Design Optimizer
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Seastead Design Optimizer
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조건
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Sang리 면적 (총 평방피트)
복원력 (순측력 당 피트 수심)
추정 속도 (10kW 파워로 노트)
안정기 없을 때의 상승 (5피트 물결에서 평균 피트)
안정기 힘 (총 파운드)
안정기 효과 (피트 동치)
안정기 포함 시 상승 (최종 동작)
각 다리 무게 (해양 알루미늄)
안정기 + 다리 비용 (해양 알루미늄)
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```
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### How to Use:
1. Copy the entire code above.
2. Save it as a file with the `.html` extension (e.g., `seastead_optimizer.html`).
3. Open the file in any modern web browser (e.g., Chrome, Firefox, Edge).
4. Adjust the input values in the "Controls" section to explore different scenarios.
5. The results will update dynamically in the table below.
### Features:
- **Wave Simulation**: A simplified wave simulation is used to calculate the rise and fall of the legs.
- **Stabilizer Effect**: The stabilizer's effect is calculated based on its size, lift coefficient, and available power.
- **Trade-offs**: You can see how changes in leg dimensions, stabilizer size, and other parameters affect the system's performance.
### Notes:
- This is a simplified model for demonstration purposes and does not account for all real-world factors (e.g., exact hydrodynamic forces, material properties, etc.).
- For a more accurate design, consider working with a naval architect or using specialized software for hydrodynamic modeling.