The 6 axis load cell provides Fx/Fy/Fz ranges of 20N, 50N, and 200N, with Tx/Ty/Tz ranges of 0.5Nm, 2Nm, and 5Nm. With RS485 output and high accuracy (±0.5N to ±0.01N), it supports Z-axis ranges of 2-10kg, 0-5kg, and 10-50kg. Made from aluminum alloy/17-4PH, multi axis load cell is IP65 rated and supports 300%FS overload capacity.

After purchasing 6 Axis Load Cell, you can choose RDDLZ matching signal transmitter RD304A, RD304B, which is responsible for amplifying, filtering, digital conversion, software decoupling, secondary correction and other processing of the sensor output mv signal. The data can be uploaded to the upper computer or PLC through RS485 serial port or Ethernet port.

Specification

Feature

• Material: The 6 axis load cell is constructed from high-strength aluminum alloy or 17-4PH stainless steel, ensuring exceptional durability and high overload capacity.
• Precision: Designed with advanced international water-resistant strain chips, it achieves high resolution, high frequency response, and outstanding test accuracy.
• Structure: Features a 100% proprietary design, ensuring reliable precision testing and excellent stability.
• Connectivity: The multi axis load cell supports multiple communication protocols, compatible with most domestic and international mainstream robotic interfaces.
• Software Support: Includes calibration software or testing tools for enhanced functionality.
• Flexibility: Equipped with durable and flexible cables resistant to bending.
• Applications: Perfect for complex medical machinery, biomechanics experiments, aircraft lift testing, robotic force control, grinding, and scientific research such as traction simulations.

Dimension (unit: mm)

DR304 Signal Transmitter Detail and Size 

Application

Tips: What applications can benefit from the 6 axis load cell's capabilities?

The 6 axis load cell is highly versatile and finds applications in a wide range of industries and research fields. In robotics, it is used to measure forces on robotic arms, ensuring precise control, enhanced safety, and efficient performance in automation systems. In the aerospace sector, it plays a critical role in testing the structural integrity of components under multi-directional loads, which is essential for ensuring reliability and safety in high-stress environments. Biomechanics researchers use this load cell to analyze human joint or muscle forces during movement studies, providing valuable insights into physical performance and injury prevention. It is also widely used in manufacturing to monitor and optimize machining or assembly processes, ensuring product quality and reducing waste. In the medical field, the load cell aids in the design and testing of prosthetics and surgical tools, enabling better performance and reliability in real-world use. Additionally, it supports advanced scientific experiments by providing precise force and torque measurements, making it an invaluable tool for cutting-edge research and development.