graph LR
    AGENT["AI Agent (Claude / Cursor / IDE)"] --> MCP["PanGo PDS MCP Server"]
    
    subgraph Tools ["MCP Tools 接口"]
        MCP --> T1["pds_pnr_strategy<br/>布局布线策略查询"]
        MCP --> T2["pds_tcl_flow<br/>自动化Tcl流生成"]
        MCP --> T3["fdc_linter<br/>FDC语法纠错与XDC筛查"]
        MCP --> T4["xdc_to_fdc_converter<br/>XDC转FDC转换器"]
        MCP --> T5["physical_floorplan_query<br/>LOC/Pblock/RPM规划"]
        MCP --> T6["route_constraint_query<br/>专用走线与手动布线"]
        MCP --> T7["clock_rules_diagnose<br/>时钟违例诊断与豁免"]
        MCP --> T8["pin_legality_checker<br/>PG2L200H管脚合法性校验"]
        MCP --> T9["high_speed_pnr_query<br/>DDR3与GTP收发器约束"]
        MCP --> T10["report_diagnoser<br/>.mrp/.prr报告智能诊断"]
    end

# 1. 启动 MCP 服务器 (stdio 模式)
pds-mcp run

# 2. 检查 .fdc 约束文件中的 XDC 语法错误
pds-mcp lint ./examples/sample_constraint.fdc

# 3. 将 Vivado .xdc 文件批量转换为 PanGo .fdc
pds-mcp convert ./vivado_pins.xdc -o ./pds_pins.fdc

# 4. 校验 PG2L200H 管脚是否合法 (例如验证 Y12 是否为专用时钟)
pds-mcp check-pin Y12 --function clock_input
# 输出: Pin: Y12 | Legal: True | Role: Dedicated Global Clock Input

# 5. 生成自动化 pds_shell 批处理脚本
pds-mcp tcl --flow complete_batch_flow > run_pds.tcl

{
  "mcpServers": {
    "pango-pds-pnr-expert": {
      "command": "python",
      "args": ["-m", "pango_pds_mcp"]
    }
  }
}

{
  "mcpServers": {
    "pango-pds-pnr-expert": {
      "command": "python",
      "args": ["-m", "pango_pds_mcp"],
      "env": {}
    }
  }
}