Robotic joints form the backbone of motion in modern robotics, from industrial manipulators to collaborative cobots. At iNetic Motion, we design robotic joint motors and integrated robotic actuators that combine precision, torque control, and compact engineering.
Our iCO, iNX, and iND motor series are built for performance and reliability, powering modular robotics, autonomous systems, and industrial robot joint applications worldwide.
The iCO series is engineered for compact robotic drive systems that demand precision and minimal footprint. With optimized torque density and advanced heat dissipation, iCO motors ensure smooth, silent motion and reliable torque control — perfect for collaborative and assistive robots.
Applications: cobots, light-duty manipulators, precision assembly.
Key Benefits:
The iNX series delivers next-generation modular robotic actuators with integrated encoders and controllers for ultimate motion control. Designed for flexibility, iNX motors allow seamless integration across modular robotic arms and research platforms.
Applications include:
The iND series represents industrial-grade robotic joint motors that power robust and demanding automation systems. Engineered with advanced sealing, superior torque performance, and efficient thermal management, iND ensures reliability and long operational life.
Ideal for:
What is a robotic joint motor?
A robotic joint motor provides the torque and control needed to move robotic arms or manipulators. iNetic Motion designs integrated robotic joint motors for precision, reliability, and modularity.
What makes iNetic Motion’s actuators unique?
Our integrated robotic actuators combine motor, controller, and encoder in one compact drive system, offering smoother motion and faster setup for industrial and collaborative robots.
What is the difference between a robotic actuator and a robotic joint motor?
A robotic actuator refers to the complete motion unit that converts electrical energy into mechanical movement; it may include the motor, gear system, encoder, and controller. A robotic joint motor is the core component that delivers torque and rotation within that actuator. At iNetic Motion, our integrated robotic joint motors combine both in a compact, efficient form for seamless motion control.
Can iNetic Motion motors be used in modular and collaborative robotics?
Yes. Our iCO and iNX motor series are specifically designed for modular robotics and collaborative robot (cobot) applications. They offer high torque density, low noise, and compact size, making them ideal for modular robot arms, educational systems, and lightweight collaborative robots that require smooth and precise motion.
How does iNetic Motion ensure precision and reliability in robotic applications?
Each iNetic Motion motor is engineered with integrated feedback systems, advanced thermal management, and optimized drive electronics. These technologies enable accurate positioning, long lifespan, and consistent torque performance, even in demanding industrial robotics and autonomous motion systems.
Our motors are engineered with high-resolution encoders and advanced servo architecture to deliver consistent precision and smooth motion. This ensures your robotic joints operate with pinpoint accuracy, whether performing delicate assembly tasks or high-speed industrial operations.
Every iNetic Motion joint motor is built for integration efficiency, combining motor, controller, and feedback systems in a compact package. This modular approach simplifies system design and enables robotics engineers to scale and customize their motion architecture with ease.
Tested across demanding applications, our iND and iNX series motors offer exceptional torque density, thermal stability, and reliability. From industrial robots to automated inspection systems, they maintain consistent output even in rigorous environments.
Beyond robotic arms, our integrated motion solutions extend to AGV and AMR platforms, supporting complete mobility and motion ecosystems. With unified design principles, iNetic Motion ensures smooth interoperability across robotic drive systems, autonomous vehicles, and automation lines.
