Convert newton centimeter [N*cm] to gram-force millimeter Online | Free torque Converter

Newton Centimeter [N·cm]

Newton centimeter (N·cm) is a unit of torque that measures the rotational force applied when a force of one newton is exerted perpendicularly at a distance of one centimeter from the axis of rotation. It is particularly useful for small-scale or precision applications where forces are relatively low and distances are short, such as in electronics, robotics, watchmaking, and laboratory experiments. A higher N·cm value indicates stronger torque and greater resistance to rotational motion, while a lower value signifies less force and easier rotation. Engineers and designers use this unit to calculate torque, angular acceleration, and energy requirements for small mechanical components like gears, motors, and sensors. By combining force and a short rotational distance, newton centimeter provides a practical and precise measure for analyzing and managing torque in compact or delicate systems, ensuring accuracy, efficiency, and stability in micro-scale mechanical and engineering applications.

Gram-Force Millimeter [gf·mm]

Gram-force millimeter (gf·mm) is a unit of torque or moment of force used to measure very small rotational forces, typically in delicate mechanical systems or precision instruments. It represents the torque produced when a force of one gram-force (gf) is applied at a distance of one millimeter (mm) from a pivot point.

This unit is particularly useful in fields such as microengineering, watchmaking, electronics, and small-scale mechanical testing, where tiny torques need to be accurately measured and controlled. For example, gf·mm is often used to specify the torque for miniature screws or the resistance of small mechanical components.

Although the newton-meter (N·m) is the standard SI unit for torque, gf·mm offers a practical scale for extremely low torque measurements, providing precision that is more intuitive when dealing with tiny forces and distances. To convert, 1 gf·mm is approximately 9.80665 × 10⁻⁶ N·m.

Using gram-force millimeters allows engineers and technicians to ensure proper functioning of small devices by preventing over-tightening or insufficient torque application.