Related Servers

The tool set has significant overlap among movement commands (move_to, go_to_position, move_relative, trapezoid_move, move_with_velocity, move_with_acceleration, multimove) and position getters (get_position, get_hall_sensor_position, get_comprehensive_position). Although descriptions clarify queue-vs-wait and absolute-vs-relative behavior, an agent could easily select the wrong tool. Many status/device-management tools are distinct, but the same action is exposed through multiple similar command names.

Most tools follow a consistent verb_noun snake_case pattern (get_, set_, enable_, disable_, move_, etc.). There are minor deviations like 'multimove' instead of 'multi_move', 'trapezoid_move' instead of 'move_trapezoid', and bare verbs ('stop', 'ping', 'identify'}), but the overall style is readable and predictable enough.

57 tools is far more than an agent can efficiently handle for a motor control domain. Many are low-level firmware directives (e.g. capture_hall_sensor_data, test_mode, crc32_control, get_debug_values) that add little to typical use cases and bloat the API surface. The count feels like a raw protocol dump rather than a curated MCP surface.

The tool set thoroughly covers the motor lifecycle: connection, detection, high-level moves, queued low-level moves, homing, calibration, status/telemetry, safety limits, error recovery, and device management. It is reasonably complete for a motor-control server, with minor gaps like a dedicated set-saved-configuration command and high-level helper for complex motion expressed through raw commands.