Physbound

Name: Physbound
Author: JonesRobM

@JonesRobM

关于 Physbound

PhysBound is a specialized "Physics Linter" for AI that deterministically validates RF and thermodynamic claims against hard physical limits, preventing hallucinations in engineering workflows.

#physics #validation #rf-engineering #telecommunications #signal-processing #science

基本信息

分类

其他

传输方式

stdio

发布者

JonesRobM

提交者

Robert Jones

配置

使用下面的配置,将此服务器添加到你的 MCP 客户端。

{
  "mcpServers": {
    "physbound": {
      "command": "uvx",
      "args": [
        "physbound"
      ]
    }
  }
}

工具

未检测到工具

工具是从 README 中自动提取的。维护者可以在 ## Tools 标题下列出工具,即可填充这部分内容。

概览

What is Physbound?

Physbound is a physical-layer linter MCP server that validates RF and physics calculations against hard physical limits. It catches AI hallucinations in engineering workflows by checking link budgets, channel capacity, thermal noise, and antenna gain against fundamental physical laws.

How to use Physbound?

Install with pip install physbound, then add Physbound to any MCP-compatible client (e.g., Claude Desktop, Cursor, Windsurf) using the JSON configuration: "command": "uv", "args": ["run", "--from", "physbound", "physbound"]. Your AI assistant can then call tools like rf_link_budget, shannon_hartley, and noise_floor.

Key features of Physbound

Validates RF link budgets via the Friis transmission equation
Computes Shannon-Hartley channel capacity and flags impossible throughput claims
Calculates thermal noise floor and cascaded noise figures
Checks antenna gains against physical aperture limits
Returns structured PhysicalViolationError with LaTeX explanations

Use cases of Physbound

RF system design review — validate link budgets and receiver sensitivity
Telecom proposal vetting — catch impossible throughput claims before delivery
Educational tools — teach Shannon-Hartley, Friis transmission, and thermal noise
CI/CD for physics — integrate as a validation step in engineering pipelines

FAQ from Physbound

What does Physbound validate?

It validates RF link budgets, Shannon-Hartley channel capacity, thermal noise floors, and antenna gain against hard physical limits like the speed of light and thermal noise floor.