"cursor" matching MCP servers:

Enables controlling linear rails via natural language commands through Claude AI in Cursor, supporting HTTP, serial, and G-code controllers with configurable positions.

Enables MCP clients like Cursor to control logic analyzers, open capture files, decode buses such as Intel 8080, and reconstruct display framebuffers like ST7789.

MCP server for NetCraze routers enabling management of static DNS hosts, system info, network interfaces, and other router features via Cursor and MCP clients.

A Model Context Protocol (MCP) based server that efficiently manages PDF files, allowing AI coding tools like Cursor to read, summarize, and extract information from PDF datasheets to assist embedded development work.

Exposes 20 vehicle-security tools to AI coding agents such as Claude Code and Cursor, enabling them to send, fuzz, and analyze CAN frames, run UDS diagnostics and seed-key handshakes, simulate DoIP ECUs, and decode ISO-TP, J1939, DBC, and V2X data. Everything runs against a virtual CAN bus, so no vehicle or hardware is required.

Enables AI agents such as Claude Code, Cursor, and Codex to safely drive a locally installed Xilinx Vivado through 32 MCP tools covering sessions, synthesis, implementation, timing, CDC, XDC, IP, waveform queries, and device programming. Provides structured timing/baseline evidence, offline VCD and report analysis, environment self-checks, and Chinese diagnostics for CRITICAL WARNINGs and timing issues.

Enables AI agents like Claude Code and Cursor to drive a locally installed Xilinx Vivado safely through 32 curated tools covering synthesis, implementation, timing, CDC, XDC, IP, waveforms, and device programming. It provides structured timing evidence, baseline comparison, offline VCD queries, diagnostic prompts, and doctor-based environment self-checks for the full FPGA workflow.

Enables AI agents like Claude Code, Cursor, and Codex to drive a locally installed Xilinx Vivado through 32 curated tools covering GUI/Tcl/attach sessions, synthesis, implementation, timing and CDC analysis, XDC and IP inspection, offline VCD waveform queries, bitstream generation, and device programming. It delivers structured timing evidence with baseline comparison, asynchronous run progress polling, bitstream safety checks, and Chinese-language diagnostics for CRITICAL WARNINGs, while general flows are handled through arbitrary Tcl execution.

Enables AI agents such as Claude Code, Cursor, and Codex to safely drive a locally installed Xilinx Vivado through 32 curated tools covering sessions, synthesis, implementation, timing, CDC, XDC, IP, waveforms, and device programming. Provides structured timing evidence with baseline comparison, offline VCD queries, Chinese diagnostics for critical warnings, and GUI/Tcl/attach session modes.

Enables AI coding agents such as Claude Code, Cursor, and Codex to drive a locally installed Xilinx Vivado across the full FPGA flow, with tools for sessions, synthesis, implementation, timing, CDC, XDC, IP, waveform querying, and device programming. It also provides structured timing evidence with baseline comparison, offline VCD analysis, evidence-driven workflow prompts, and a read-only doctor for environment self-checks.

Enables AI coding agents such as Claude Code, Cursor, and Codex to safely drive a locally installed Xilinx Vivado through 32 curated tools covering sessions, synthesis, implementation, timing and CDC analysis, XDC/IP debugging, offline VCD waveform queries, and device programming. It provides structured timing evidence with baseline comparison, evidence-driven workflow prompts, environment self-checks via doctor, and Chinese-language diagnostics for CRITICAL WARNINGs and timing issues.

Enables AI coding agents such as Claude Code, Cursor, and Codex to safely drive a locally installed Xilinx Vivado through MCP tools covering sessions, synthesis, implementation, timing and CDC analysis, XDC constraints, IP, waveform queries, and device programming. Includes evidence-driven workflow prompts, environment self-checks, and Chinese-language diagnostics for timing and CRITICAL WARNING issues.

Enables AI agents such as Claude Code, Cursor, and Codex to safely drive a locally installed Xilinx Vivado through 32 curated tools covering sessions, synthesis, implementation, timing, CDC, XDC, IP, waveforms, and device programming. It provides structured timing evidence with baseline comparison, offline VCD queries, environment self-checks, and Chinese-language diagnostics for timing and CRITICAL WARNING issues.

Enables AI coding agents such as Claude Code, Cursor, and Codex to drive a locally installed Xilinx Vivado across the full FPGA flow, from GUI, headless Tcl, or attached sessions through synthesis, implementation, timing and CDC analysis, waveform queries, and device programming. It exposes 32 curated tools plus evidence-driven workflow prompts that return structured timing/IO reports, Chinese-language CRITICAL WARNING diagnostics, and guarded bitstream generation.

Enables AI agents such as Claude Code, Cursor, and Codex to safely drive a locally installed Xilinx Vivado through 32 tools covering sessions, synthesis, implementation, timing, CDC, XDC, IP, waveforms, and device programming. Includes structured timing evidence with baseline comparison, offline VCD queries, evidence-driven workflow prompts, and one-command environment self-checks.

Enables AI agents such as Claude Code, Cursor, and Codex to safely drive a locally installed Xilinx Vivado through 32 MCP tools spanning GUI/Tcl/attach sessions, synthesis, implementation, timing and CDC analysis, XDC/IO validation, IP inspection, VCD waveform queries, and device programming. It adds structured JSON timing evidence with baseline comparison, Chinese-language diagnostics for CRITICAL WARNINGs, environment self-checks, and evidence-driven workflow prompts that gate each FPGA design stage.

Enables AI agents such as Claude Code, Cursor, and Codex to safely drive a locally installed Xilinx Vivado through 32 curated tools spanning GUI, Tcl, and attach sessions, synthesis, implementation, timing, CDC, XDC, IP, waveforms, and device programming. It provides structured timing evidence with baseline comparison, offline VCD queries for unknown values and handshake events, environment self-checks, and Chinese-language diagnosis of timing issues and CRITICAL WARNINGs.

Enables AI coding agents such as Claude Code, Cursor and Codex to safely drive a locally installed Xilinx Vivado through 32 curated tools covering GUI/Tcl/attach sessions, synthesis, implementation, timing, CDC, XDC, IP, waveform queries and device programming. Adds evidence-driven workflow prompts, a read-only environment doctor with optional guarded fixes, structured timing and IO report parsing with baseline comparison, and Chinese-language diagnostics for CRITICAL WARNINGs.

Lets AI agents such as Claude Code, Cursor and Codex drive a locally installed Xilinx Vivado across the whole FPGA flow — GUI, headless Tcl and attach sessions, synthesis and implementation with progress polling, bitstream safety checks, and device programming. Adds structured timing and IO reports with baseline comparison, offline VCD waveform and CDC report analysis, and Chinese diagnostics for CRITICAL WARNINGs, all through 32 curated tools and evidence-gated workflow prompts.

Enables AI agents such as Claude Code, Cursor, and Codex to drive a locally installed Xilinx Vivado through 32 curated tools spanning sessions, synthesis, implementation, timing, CDC, XDC, IP, waveform inspection, and device programming. It also provides structured timing evidence with baseline comparison, bounded offline VCD queries, environment self-diagnosis, and Chinese-language diagnostics for timing and CRITICAL WARNING issues.