A newly released open-source micro-manipulator platform has demonstrated positioning accuracy below one micrometer, enabling high-precision tasks such as optical alignment and electronic component probing. The device, developed by a collaborative engineering team, employs a parallel kinematic structure with miniature ball joints to maintain mechanical stiffness across its operational range. Submicron resolution is achieved through a magnetic gearing system that amplifies the output of low-cost magnetic rotary encoders by a factor of 30, though the project notes that absolute accuracy remains constrained by manufacturing tolerances. The system utilizes off-the-shelf stepper motors controlled via a 30 kHz closed-loop controller and precision PWM signals, with motion coordinated through G-code commands transmitted over a USB serial interface. A Python-based graphical interface provides real-time control, live camera feedback, and integrated G-code execution, while the firmware includes a motion planning stack with look-ahead functionality for smoother trajectory execution. Recent hardware revisions have addressed mechanical instability during homing procedures and improved consistency in linkage rod length, though the bill of materials has not yet been updated to reflect these changes. Calibration routines are performed via firmware commands, with results stored persistently to reduce setup time across sessions. The project remains accessible to hobbyists and researchers, with all CAD models and firmware available for modification and redistribution under open-source principles.