Motion Controllers - Novanta IMS
A motion controller is a device engineered to manage the order, speed, location, and force of a mechanical system.
Found 1,377 products
Novanta IMS LMDCA852C is a stepper motor that falls under the hybrid stepper motors sub-range, featuring an integrated driver and a hybrid DC stepper motor design. It incorporates an incremental magnetic encoder, a double motor stack, and operates on closed-loop hMTechnology. The connection options include a 4-pin M12 male connector, a 12-pin M12 male connector, and a 5-pin M12 male connector, supporting CANopen communication protocol. This stepper motor is designed for a supply voltage range of 12Vdc to 70Vdc, with optimal performance at 24Vdc and 48Vdc. It mounts via an 85x85mm flange and offers a degree of protection rated at IP65. The moment of inertia is specified at 1.35kg.cm^2 for standard torque, with a stall torque of 339N.cm and a resolution characterized by a 1.8° step angle.
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Novanta IMS LMHCE573C is a stepper motor characterized by its integration of a driver and a high-torque DC stepper motor within the high-torque stepper motors sub-range. It features an incremental magnetic encoder, triple (3) motor stack, and operates on closed-loop hMTechnology. For connectivity, it is equipped with a 4-pin M12 male connector, a 12-pin M12 male connector, and a 5-pin M12 male connector, supporting Ethernet/IP and Modbus TCP communication protocols. The motor is designed for a supply voltage range of 12Vdc to 60Vdc, with optimal performance at 24Vdc and 48Vdc. It mounts via a 57x57mm flange and offers a degree of protection rated at IP65. The LMHCE573C has a moment of inertia of 0.37kg.cm^2, a stall torque of 294N.cm, and a resolution characterized by a 1.8° step angle.
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Novanta IMS LMDOM571C is a stepper motor within the hybrid stepper motors sub-range, featuring an integrated driver and hybrid DC stepper motor design. This single motor stack operates on an open-loop system and offers a variety of connection types, including a 4-pin M12 male connector, a 12-pin M12 male connector, and a 5-pin M12 male connector. It supports RS-422 and RS-485 communication protocols. The supply voltage requirement ranges from 12Vdc to 60Vdc, with optimal performance at 24Vdc and 48Vdc. It is designed for mounting with a 57x57mm flange and offers a degree of protection rated at IP65. The motor has a moment of inertia of 0.18kg.cm^2 and provides a stall torque of 73N.cm. Its resolution is defined by a 1.8° step angle.
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Novanta IMS MDM1PSD17A4-EJL is a stepper motor that features an integrated driver and operates as a 2-phase DC stepper motor with SPI communication. It is designed with an external differential 1000-line optical encoder and comes in a single motor stack Plus version equipped with a universal input. The connection is facilitated through a non-locking spring-clamp connector and a 10-pin IDC non-locking connector. This stepper motor operates on a supply voltage ranging from 12Vdc to 48Vdc, with an optimal performance at 24Vdc. It is designed for mounting with a 42x42mm flange and can operate in ambient air temperatures ranging from 0 to +85°C. The MDM1PSD17A4-EJL offers a degree of protection rated at IP20, has a moment of inertia of 0.038kg.cm^2, and provides a stall torque of 23N.cm. Its resolution is defined by a 1.8° step angle.
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Novanta IMS LMDAM421C is a stepper motor that falls under the hybrid stepper motors sub-range, featuring an integrated driver and hybrid DC stepper motor design. It is equipped with an absolute multi-turn encoder, a single motor stack, and operates on closed-loop hMTechnology. The connection options include a 4-pin M12 male connector, a 12-pin M12 male connector, and a 5-pin M12 male connector. It supports RS-422 and RS-485 communication protocols. The supply voltage requirement is 12Vdc to 48Vdc, with 24Vdc being standard. It is designed for mounting with a 42x42mm flange and offers a degree of protection rated at IP65. The moment of inertia is specified as 0.038kg.cm2, which is standard torque, and it has a stall torque of 31N.cm. The resolution is defined by a 1.8° step angle.
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Novanta IMS LMDCP423 is a stepper motor that falls within the hybrid stepper motors sub-range, featuring an integrated driver and hybrid DC stepper motor with Pulse/Direction I-O functionality. It is designed with an incremental magnetic encoder, triple motor stack, and operates on closed-loop hMTechnology. The connection options include a 2-pin screw-lock connector, a 7-pin spring-clamp connection, and a 9-pin D-sub male connector. This stepper motor supports a supply voltage range of 12Vdc to 48Vdc, with an optimal operating voltage of 24Vdc. It is mounted via a 42x42mm flange and offers a degree of protection rated at IP20. The moment of inertia is specified at 0.082kg.cm^2, providing a standard torque, and it delivers a stall torque of 62N.cm. The resolution is defined by a 1.8° step angle.
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Novanta IMS LMDCM852 is a stepper motor within the hybrid stepper motors sub-range, featuring an integrated driver and hybrid DC stepper motor design. It incorporates an incremental magnetic encoder and a double motor stack with closed-loop hMTechnology. The connection options include a 2-pin screw-lock connector, a 7-pin spring-clamp connection, and a 9-pin D-sub male connector. It supports RS-422 and RS-485 communication protocols. The supply voltage ranges from 12Vdc to 70Vdc, with 24Vdc and 48Vdc being typical values. This stepper motor is designed for mounting with an 85x85mm flange and has an IP20 degree of protection. The moment of inertia is specified at 1.35kg.cm^2, providing a standard torque, and it has a stall torque of 339N.cm. The resolution is defined by a 1.8° step angle.
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Novanta IMS LMDCM571C is a stepper motor that falls under the hybrid stepper motors sub-range, featuring an integrated driver and hybrid DC stepper motor design. It incorporates an incremental magnetic encoder, a single motor stack, and operates on closed-loop hMTechnology. The connection is facilitated through a 4-pin M12 male connector, a 12-pin M12 male connector, and a 5-pin M12 male connector, supporting RS-422 and RS-485 communication protocols. This stepper motor is designed for a supply voltage range of 12Vdc to 60Vdc, with optimal performance at 24Vdc and 48Vdc. It mounts via a 57x57mm flange and is rated with a degree of protection of IP65. The LMDCM571C has a moment of inertia of 0.18kg.cm^2, a stall torque of 73N.cm, and offers a resolution of a 1.8° step angle.
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Novanta IMS LMDCE851 is a stepper motor that falls under the hybrid stepper motors sub-range, featuring an integrated driver and a hybrid DC stepper motor design with incremental magnetic encoder, single motor stack, and closed-loop hMTechnology. It offers a variety of connection types including a 2-pin screw-lock connector, a 7-pin spring-clamp connection, and a 9-pin D-sub male connector. This motor supports Ethernet/IP and Modbus TCP communication protocols. It operates on a supply voltage ranging from 12Vdc to 70Vdc, with optimal performance at 24Vdc or 48Vdc. The LMDCE851 is designed for mounting with an 85x85mm flange and has an IP20 degree of protection. It features a moment of inertia of 0.9kg.cm^2, a stall torque of 237N.cm, and a resolution of 1.8° step angle.
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Novanta IMS MDI1PRL23B7-N is a stepper motor within the Stepper motors sub-range, featuring an integrated driver and a 2-phase DC stepper motor design. It includes a rear control knob and a double motor stack in its Plus version, with standard features. This part offers a non-locking spring-clamp connector and a 10-pin friction-lock wire crimp connector for connections. It supports RS-422 and RS-485 communication protocols. The supply voltage ranges from 12Vdc to 75Vdc, with specific ratings at 24Vdc, 48Vdc, and 72Vdc. It is designed for mounting with a 57x57mm flange and can operate in ambient air temperatures ranging from 0 to +85°C. The MDI1PRL23B7-N has an IP20 degree of protection, a moment of inertia of 0.26kg.cm^2, a stall torque of 102N.cm, and a resolution of 1.8° step angle.
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| Item | Manufacturer | Price | Stock | Delivery | |
|---|---|---|---|---|---|
LMDCA852C Novanta IMS LMDCA852C is a stepper motor that falls under the hybrid stepper motors sub-range, featuring an integrated driver and a hybrid DC stepper motor design. It incorporates an incremental magnetic encoder, a double motor stack, and operates on closed-loop hMTechnology. The connection options include a 4-pin M12 male connector, a 12-pin M12 male connector, and a 5-pin M12 male connector, supporting CANopen communication protocol. This stepper motor is designed for a supply voltage range of 12Vdc to 70Vdc, with optimal performance at 24Vdc and 48Vdc. It mounts via an 85x85mm flange and offers a degree of protection rated at IP65. The moment of inertia is specified at 1.35kg.cm^2 for standard torque, with a stall torque of 339N.cm and a resolution characterized by a 1.8° step angle. | Novanta IMS | $900.11 | Quick Quote | ||
LMHCE573C Novanta IMS LMHCE573C is a stepper motor characterized by its integration of a driver and a high-torque DC stepper motor within the high-torque stepper motors sub-range. It features an incremental magnetic encoder, triple (3) motor stack, and operates on closed-loop hMTechnology. For connectivity, it is equipped with a 4-pin M12 male connector, a 12-pin M12 male connector, and a 5-pin M12 male connector, supporting Ethernet/IP and Modbus TCP communication protocols. The motor is designed for a supply voltage range of 12Vdc to 60Vdc, with optimal performance at 24Vdc and 48Vdc. It mounts via a 57x57mm flange and offers a degree of protection rated at IP65. The LMHCE573C has a moment of inertia of 0.37kg.cm^2, a stall torque of 294N.cm, and a resolution characterized by a 1.8° step angle. | Novanta IMS | $912.43 | Quick Quote | ||
LMDOM571C Novanta IMS LMDOM571C is a stepper motor within the hybrid stepper motors sub-range, featuring an integrated driver and hybrid DC stepper motor design. This single motor stack operates on an open-loop system and offers a variety of connection types, including a 4-pin M12 male connector, a 12-pin M12 male connector, and a 5-pin M12 male connector. It supports RS-422 and RS-485 communication protocols. The supply voltage requirement ranges from 12Vdc to 60Vdc, with optimal performance at 24Vdc and 48Vdc. It is designed for mounting with a 57x57mm flange and offers a degree of protection rated at IP65. The motor has a moment of inertia of 0.18kg.cm^2 and provides a stall torque of 73N.cm. Its resolution is defined by a 1.8° step angle. | Novanta IMS | $544.37 | Quick Quote | ||
MDM1PSD17A4-EJL Novanta IMS MDM1PSD17A4-EJL is a stepper motor that features an integrated driver and operates as a 2-phase DC stepper motor with SPI communication. It is designed with an external differential 1000-line optical encoder and comes in a single motor stack Plus version equipped with a universal input. The connection is facilitated through a non-locking spring-clamp connector and a 10-pin IDC non-locking connector. This stepper motor operates on a supply voltage ranging from 12Vdc to 48Vdc, with an optimal performance at 24Vdc. It is designed for mounting with a 42x42mm flange and can operate in ambient air temperatures ranging from 0 to +85°C. The MDM1PSD17A4-EJL offers a degree of protection rated at IP20, has a moment of inertia of 0.038kg.cm^2, and provides a stall torque of 23N.cm. Its resolution is defined by a 1.8° step angle. | Novanta IMS | $368.20 | Quick Quote | ||
LMDAM421C Novanta IMS LMDAM421C is a stepper motor that falls under the hybrid stepper motors sub-range, featuring an integrated driver and hybrid DC stepper motor design. It is equipped with an absolute multi-turn encoder, a single motor stack, and operates on closed-loop hMTechnology. The connection options include a 4-pin M12 male connector, a 12-pin M12 male connector, and a 5-pin M12 male connector. It supports RS-422 and RS-485 communication protocols. The supply voltage requirement is 12Vdc to 48Vdc, with 24Vdc being standard. It is designed for mounting with a 42x42mm flange and offers a degree of protection rated at IP65. The moment of inertia is specified as 0.038kg.cm2, which is standard torque, and it has a stall torque of 31N.cm. The resolution is defined by a 1.8° step angle. | Novanta IMS | $637.93 | Quick Quote | ||
LMDCP423 Novanta IMS LMDCP423 is a stepper motor that falls within the hybrid stepper motors sub-range, featuring an integrated driver and hybrid DC stepper motor with Pulse/Direction I-O functionality. It is designed with an incremental magnetic encoder, triple motor stack, and operates on closed-loop hMTechnology. The connection options include a 2-pin screw-lock connector, a 7-pin spring-clamp connection, and a 9-pin D-sub male connector. This stepper motor supports a supply voltage range of 12Vdc to 48Vdc, with an optimal operating voltage of 24Vdc. It is mounted via a 42x42mm flange and offers a degree of protection rated at IP20. The moment of inertia is specified at 0.082kg.cm^2, providing a standard torque, and it delivers a stall torque of 62N.cm. The resolution is defined by a 1.8° step angle. | Novanta IMS | $453.24 | Quick Quote | ||
LMDCM852 Novanta IMS LMDCM852 is a stepper motor within the hybrid stepper motors sub-range, featuring an integrated driver and hybrid DC stepper motor design. It incorporates an incremental magnetic encoder and a double motor stack with closed-loop hMTechnology. The connection options include a 2-pin screw-lock connector, a 7-pin spring-clamp connection, and a 9-pin D-sub male connector. It supports RS-422 and RS-485 communication protocols. The supply voltage ranges from 12Vdc to 70Vdc, with 24Vdc and 48Vdc being typical values. This stepper motor is designed for mounting with an 85x85mm flange and has an IP20 degree of protection. The moment of inertia is specified at 1.35kg.cm^2, providing a standard torque, and it has a stall torque of 339N.cm. The resolution is defined by a 1.8° step angle. | Novanta IMS | $797.60 | Quick Quote | ||
LMDCM571C Novanta IMS LMDCM571C is a stepper motor that falls under the hybrid stepper motors sub-range, featuring an integrated driver and hybrid DC stepper motor design. It incorporates an incremental magnetic encoder, a single motor stack, and operates on closed-loop hMTechnology. The connection is facilitated through a 4-pin M12 male connector, a 12-pin M12 male connector, and a 5-pin M12 male connector, supporting RS-422 and RS-485 communication protocols. This stepper motor is designed for a supply voltage range of 12Vdc to 60Vdc, with optimal performance at 24Vdc and 48Vdc. It mounts via a 57x57mm flange and is rated with a degree of protection of IP65. The LMDCM571C has a moment of inertia of 0.18kg.cm^2, a stall torque of 73N.cm, and offers a resolution of a 1.8° step angle. | Novanta IMS | $633.98 | Quick Quote | ||
LMDCE851 Novanta IMS LMDCE851 is a stepper motor that falls under the hybrid stepper motors sub-range, featuring an integrated driver and a hybrid DC stepper motor design with incremental magnetic encoder, single motor stack, and closed-loop hMTechnology. It offers a variety of connection types including a 2-pin screw-lock connector, a 7-pin spring-clamp connection, and a 9-pin D-sub male connector. This motor supports Ethernet/IP and Modbus TCP communication protocols. It operates on a supply voltage ranging from 12Vdc to 70Vdc, with optimal performance at 24Vdc or 48Vdc. The LMDCE851 is designed for mounting with an 85x85mm flange and has an IP20 degree of protection. It features a moment of inertia of 0.9kg.cm^2, a stall torque of 237N.cm, and a resolution of 1.8° step angle. | Novanta IMS | $771.70 | Quick Quote | ||
MDI1PRL23B7-N Novanta IMS MDI1PRL23B7-N is a stepper motor within the Stepper motors sub-range, featuring an integrated driver and a 2-phase DC stepper motor design. It includes a rear control knob and a double motor stack in its Plus version, with standard features. This part offers a non-locking spring-clamp connector and a 10-pin friction-lock wire crimp connector for connections. It supports RS-422 and RS-485 communication protocols. The supply voltage ranges from 12Vdc to 75Vdc, with specific ratings at 24Vdc, 48Vdc, and 72Vdc. It is designed for mounting with a 57x57mm flange and can operate in ambient air temperatures ranging from 0 to +85°C. The MDI1PRL23B7-N has an IP20 degree of protection, a moment of inertia of 0.26kg.cm^2, a stall torque of 102N.cm, and a resolution of 1.8° step angle. | Novanta IMS | $429.90 | Quick Quote | ||
Motion Controllers
General Guide & Overview
Motion controllers are essential devices in the realm of industrial motion control. They serve as the backbone of precision and automation in various industries, including manufacturing, medicine, entertainment, and research. If you're looking for efficient and reliable solutions to control the sequence, velocity, position, and torque of mechanical systems, motion controllers are the key.
Industrial motion controllers are designed to interpret desired movements or actions and convert them into electrical signals, enabling seamless motion control. These controllers possess command and control logic, input formats, processing power, output signals, feedback systems, drive interfaces, and diverse types of motion.
The advantages of motion controllers are numerous. They offer precision and accuracy in executing complex movement patterns, ensuring the system follows the desired path and reaches specific positions. With real-time adjustments and automated sequences, motion controllers eliminate manual errors and optimize speed and efficiency. They also provide versatility, adapting to different types of motion and applications. Safety is enhanced through continuous monitoring and the ability to initiate corrective actions. Moreover, motion controllers offer integration capabilities, seamlessly working with other system components to provide centralized control.
However, it's important to be aware of the challenges and considerations associated with motion controllers. The complexity of advanced setup and programming can require technical proficiency. Maintenance and troubleshooting may be challenging, particularly for diagnosing and rectifying issues. Cost is an essential consideration, as high-quality motion controllers and supplementary components come with an associated investment. Compatibility challenges can arise, demanding hardware and software integration. It's essential to consider these factors to ensure successful implementation of motion controllers in your industrial motion control solution.
Fundamentals of Motion Controllers
Motion controllers are essential devices when it comes to controlling the movements of mechanical systems. Understanding the fundamentals of motion controllers is crucial for anyone involved in the field of automation and industrial motion control.
At the core of motion controllers is their command and control logic. This logic enables them to comprehend, interpret, and execute specific movement instructions with precision and accuracy. These instructions can be given in various input formats, ranging from high-level programming languages to simpler point-and-click interfaces.
Processing power is another key aspect of motion controllers. With different levels of processing power, controllers can handle complex movement patterns and calculations, ensuring smooth and efficient control over the mechanical system.
Once the commands are processed, motion controllers generate output signals in the form of electrical signals that are sent to motion devices. These signals initiate the desired movement, bringing the mechanical system to life.
Feedback systems play a critical role in maintaining the accuracy and reliability of motion controllers. Encoders and resolvers are commonly used as feedback devices, providing real-time feedback on position, speed, and torque.
The drive interface is an essential component of motion controllers. It converts the commands received from the controller into physical motion. Different drive types and signal transmission methods are utilized to ensure seamless communication between the controller and the motion devices.
Motion controllers are capable of governing various types of motion, including point-to-point motion, continuous motion, and synchronized motion. This versatility allows them to meet the specific requirements of different applications and industries.
Understanding the fundamentals of motion controllers provides a strong foundation for utilizing these devices effectively in industrial automation and motion control applications. By harnessing their command and control logic, input formats, processing power, output signals, feedback systems, drive interface, and various types of motion, motion controllers enable precise and efficient control over mechanical systems.
Advantages of Motion Controllers
Motion controllers offer a range of advantages in the world of automation. Their capabilities and features make them indispensable for industries that rely on precision, efficiency, and safety in their operations.
Precision and Accuracy
Motion controllers enable precise and accurate movements in automated systems. Through real-time adjustments, they ensure that the system follows the desired path or reaches a specific position with utmost accuracy. This level of precision is crucial for industries that require tight tolerances and exact positioning, such as manufacturing and robotics.
Elimination of Manual Errors
By relying on pre-programmed instructions and real-time feedback, motion controllers eliminate the risk of manual errors. Human errors can lead to costly mistakes and safety hazards in complex operations. By automating these sequences, motion controllers ensure consistent and error-free performance, enhancing overall productivity.
Speed and Efficiency
Motion controllers significantly improve the speed and efficiency of systems. By automating complex sequences of movements, they reduce downtime caused by errors and optimize production cycles. The ability to precisely control acceleration and deceleration also enhances the efficiency of movements, resulting in faster and more streamlined operations.
Versatility
Motion controllers are highly versatile and can adapt to different types of motion. Whether it's point-to-point motion, continuous motion, or synchronized motion, these controllers can handle a wide range of applications in various industries. This versatility makes them suitable for use in diverse automated systems and processes.
Safety
Safety is a top priority in any industrial setting. Motion controllers contribute to safety by continuously monitoring operational parameters and initiating corrective actions when necessary. They can detect anomalies, such as sudden changes in position or unexpected forces, and trigger immediate responses to prevent accidents or system failures.
Integration
Integration is a key feature of motion controllers that allows them to work seamlessly with other system components. These controllers can be easily integrated into existing systems, providing centralized control and enhancing overall system functionality. The ability to integrate with other devices and technologies further expands the capabilities and possibilities of automated systems.
With their precision, elimination of manual errors, speed, versatility, safety features, and integration capabilities, motion controllers have become indispensable in modern automation. Their benefits go far beyond improved efficiency and accuracy, transforming industries and revolutionizing the way tasks are performed.
Challenges and Considerations
While motion controllers offer significant advantages, there are also challenges and considerations to keep in mind when adopting them. One of the primary challenges is the complexity involved in setting up and programming advanced motion controllers. This process often requires deep technical knowledge and expertise to ensure optimal performance.
Maintenance and troubleshooting can also pose challenges. Diagnosing and rectifying issues with motion controllers typically require specialized skills and experience. Regular maintenance, including software updates and periodic check-ups, is essential to ensure the controllers' longevity and optimal functionality.
The cost is another important consideration when implementing motion controllers. High-end motion controllers and accompanying components can come with a substantial price tag. It's crucial to carefully evaluate the return on investment and consider long-term expenses, such as software updates and ongoing maintenance.
Additionally, compatibility challenges may arise, especially when integrating motion controllers into mixed-brand or older systems. Hardware and software integration may be necessary, requiring careful planning and collaboration with experts to ensure seamless compatibility.
FAQ
What is a motion controller?
A motion controller is a device designed to control the sequence, velocity, position, and torque of a mechanical system.
What industries use motion controllers?
Motion controllers are used in various industries, including manufacturing, medicine, entertainment, and research.
How do motion controllers work?
Motion controllers interpret desired movements or actions and convert them into electrical signals to drive motion components.
What are the advantages of motion controllers?
The main advantages of motion controllers are precision and accuracy, real-time adjustments, elimination of manual errors, speed and efficiency, versatility, safety, and integration.
What are the challenges and considerations with motion controller adoption?
Challenges and considerations with motion controller adoption include complexity, cost, and compatibility.
What are the core functionalities of motion controllers?
Motion controllers have command and control logic, input formats, processing power, output signals, feedback systems, drive interfaces, and can govern different types of motion.
How do motion controllers enhance automation?
Motion controllers enable precision and accuracy, eliminate manual errors, improve speed and efficiency, enhance safety, and offer integration capabilities.
What maintenance and troubleshooting challenges can arise with motion controllers?
Maintenance and troubleshooting can be challenging and may require technical expertise in diagnosing and rectifying issues.
What should I consider in terms of cost when adopting motion controllers?
High-end motion controllers and supplementary components can come with a substantial price tag, and ongoing expenses such as software updates and maintenance should be considered.
Are motion controllers compatible with all systems?
Compatibility challenges can arise, especially in mixed-brand or older systems, where hardware and software integration may be required.