| Series | V1 Series | V2 Series | Control Method | Step Angle | Phase Current | Phase Resistance | Rated Torque | Body Length | Integrated Encoder |
| (1.8°) | (A) | (Ω) | (Nm) | L(mm) | |||||
| ISS42-0.22Nm | JKISS42-P01A | JKISC42-P01A | pulse | 1.8 | 1.3 | 2.1 | 0.22 | 54 | 1000ppr/17bit |
| JKISS42-R01A | JKISC42-R01A | RS485 | |||||||
| JKISS42-C01A | JKISC42-C01A | CANopen | |||||||
| ISS42-0.42Nm | JKISS42-P02A | JKISC42-P02A | pulse | 1.8 | 1.68 | 1.65 | 0.42 | 60 | 1000ppr/17bit |
| JKISS42-R02A | JKISC42-R02A | RS485 | |||||||
| JKISS42-C02A | JKISC42-C02A | CANopen | |||||||
| ISS42-0.55Nm | JKISS42-P03A | JKISC42-P03A | pulse | 1.8 | 1.68 | 1.65 | 0.55 | 68 | 1000ppr/17bit |
| JKISS42-R03A | JKISC42-R03A | RS485 | |||||||
| JKISS42-C03A | JKISC42-C03A | CANopen | |||||||
| ISS42-0.8Nm | JKISS42-P04A | JKISC42-P04A | pulse | 1.8 | 1.7 | 3 | 0.8 | 80 | 1000ppr/17bit |
| JKISS42-R04A | JKISC42-R04A | RS485 | |||||||
| JKISS42-C04A | JKISC42-C04A | CANopen |
| Series | S1 Series | S2 Series | Control Method | Step Angle | Phase Current | Phase Resistance | Rated Torque | Body Length | Integrated Encoder |
| (1.8°) | (A) | (Ω) | (Nm) | L(mm) | |||||
| ISS57-0.55Nm | JKISS57-P01A | JKISC57-P01A | pulse | 1.8 | 2 | 1.4 | 0.55 | 65 | 1000ppr/17bit |
| JKISS57-R01A | JKISC57-R01A | RS485 | |||||||
| JKISS57-C01A | JKISC57-C01A | CANopen | |||||||
| ISS57-1.2Nm | JKISS57-P02A | JKISC57-P02A | pulse | 1.8 | 2.8 | 0.9 | 1.2 | 80 | 1000ppr/17bit |
| JKISS57-R02A | JKISC57-R02A | RS485 | |||||||
| JKISS57-C02A | JKISC57-C02A | CANopen | |||||||
| ISS57-1.89Nm | JKISS57-P03A | JKISC57-P03A | pulse | 1.8 | 2.8 | 1.1 | 1.89 | 100 | 1000ppr/17bit |
| JKISS57-R03A | JKISC57-R03A | RS485 | |||||||
| JKISS57-C03A | JKISC57-C03A | CANopen | |||||||
| ISS57-2.2Nm | JKISS57-P04A | JKISC57-P04A | pulse | 1.8 | 3 | 1.2 | 2.2 | 106 | 1000ppr/17bit |
| JKISS57-R04A | JKISC57-R04A | RS485 | |||||||
| JKISS57-C04A | JKISC57-C04A | CANopen | |||||||
| ISS57-2.8Nm | JKISS57-P05A | JKISC57-P05A | pulse | 1.8 | 4.2 | 0.75 | 2.8 | 124 | 1000ppr/17bit |
| JKISS57-R05A | JKISC57-R05A | RS485 | |||||||
| JKISS57-C05A | JKISC57-C05A | CANopen | |||||||
| ISS57-3N.m | JKISS57-P06A | JKISC57-P06A | pulse | 1.8 | 4.2 | 0.9 | 3 | 136 | 1000ppr/17bit |
| JKISS57-R06A | JKISC57-R06A | RS485 | |||||||
| JKISS57-C06A | JKISC57-C06A | CANopen |
| Series | S2 Series | Control Method | Step Angle | Phase Current | Rated Torque | Body Length | Integrated Encoder |
| (1.8°) | (A) | (Nm) | L(mm) | ||||
| ISC86-4.5Nm | JKISC86-P01A | pulse | 1.8 | 6 | 4.5 | 107.8 | 1000ppr/17bit |
| JKISC86-R01A | RS485 | ||||||
| JKISC86-C01A | CANopen | ||||||
| ISC86-6.5Nm | JKISC86-P02A | pulse | 1.8 | 6 | 6.5 | 127.8 | 1000ppr/17bit |
| JKISC86-R02A | RS485 | ||||||
| JKISC86-C02A | CANopen | ||||||
| ISC86-7.0Nm | JKISC86-P03A | pulse | 1.8 | 6 | 7 | 130.8 | 1000ppr/17bit |
| JKISC86-R03A | RS485 | ||||||
| JKISC86-C03A | CANopen | ||||||
| ISC86-8.7Nm | JKISC86-P04A | pulse | 1.8 | 6 | 8.7 | 144.3 | 1000ppr/17bit |
| JKISC86-R04A | RS485 | ||||||
| JKISC86-C04A | CANopen | ||||||
| ISC86-9.0Nm | JKISC86-P05A | pulse | 1.8 | 6 | 9 | 155.8 | 1000ppr/17bit |
| JKISC86-R05A | RS485 | ||||||
| JKISC86-C05A | CANopen | ||||||
| ISC86-12.5N.m | JKISC86-P06A | pulse | 1.8 | 6 | 12.5 | 182.8 | 1000ppr/17bit |
| JKISC86-R06A | RS485 | ||||||
| JKISC86-C06A | CANopen |
In today’s era of smart automation and compact system design, integrated stepper motors have become a preferred solution for engineers seeking reliable, precise, and cost-effective motion control. Unlike traditional stepper motor systems that require separate controllers and drivers, integrated stepper motors combine all essential components—including the motor, driver, controller, and feedback system—into a single, unified package.
One of the most significant advantages of integrated stepper motors is simplified installation. In a traditional stepper system, multiple components must be connected—motor, driver, and controller—each requiring individual wiring and setup.
With integrated stepper motors, everything is built into a single unit, eliminating the need for complex cabling and external connections. This simplification reduces setup time, minimizes wiring errors, and makes system assembly faster and cleaner.
For OEMs and automation designers, this translates into lower installation costs and improved reliability, especially in space-constrained environments.
In modern machinery, space optimization is crucial. Integrated stepper motors feature a compact all-in-one structure, combining multiple components in a single housing.
This design is ideal for applications such as robotic joints, 3D printers, laboratory instruments, and portable automation equipment, where available space is limited. The reduced footprint not only simplifies mechanical integration but also enhances system aesthetics and functionality.
By eliminating the need for external driver boxes, integrated stepper motors contribute to streamlined equipment designs and lightweight systems.
Every external connection introduces potential points of failure—loose wires, connector issues, or signal noise. Integrated stepper motors reduce these vulnerabilities by consolidating the driver and controller into the motor housing.
This minimizes electrical interference, improves signal integrity, and ensures long-term operational stability. The enclosed design also offers better protection against dust, vibration, and environmental stress, making these motors highly reliable even in harsh industrial conditions.
For industries that depend on continuous operation—like packaging, electronics, and automation—this reliability translates into less downtime and higher productivity.
Integrated stepper motors are known for their exceptional positional accuracy and repeatability, making them perfect for applications requiring precise movement.
Advanced versions come with closed-loop feedback systems (such as encoders or sensors), allowing for real-time position monitoring and error correction. This prevents missed steps, enhances torque control, and ensures smooth motion—even under varying load conditions.
Such precision is vital for CNC machines, medical devices, pick-and-place systems, and laboratory automation, where even the smallest motion errors can affect overall performance.
With intelligent control electronics built in, integrated stepper motors can optimize current flow based on the real-time load. This reduces power consumption and heat generation, especially compared to open-loop systems that always drive the motor at full current.
The result is greater energy efficiency, longer component life, and lower cooling requirements. This is particularly beneficial in battery-powered or thermally sensitive systems, such as mobile robots or medical devices.
At first glance, an integrated stepper motor might seem more expensive than a conventional motor alone. However, when factoring in the cost of separate drivers, controllers, connectors, and cables, the integrated option becomes far more cost-effective.
By consolidating components, manufacturers can reduce procurement complexity, shorten assembly time, and lower maintenance costs. Fewer external components also mean faster system integration and simplified inventory management, which saves both time and resources across production cycles.
Modern integrated stepper motors are designed with intelligent communication interfaces such as Modbus, CANopen, RS-485, or EtherCAT, allowing for easy connection to PLCs, HMIs, and computers.
This smart connectivity enables real-time monitoring, network synchronization, and remote configuration, turning the motor into an intelligent node within the automation network.
With integrated communication protocols, engineers can control multiple motors efficiently without complex wiring or bulky external control modules.
Integrated stepper motors deliver high torque output at low speeds and maintain consistent torque across a wide operating range. Combined with advanced microstepping technology, they ensure smooth, vibration-free operation.
This makes them suitable for precision equipment such as optical instruments, camera systems, and medical devices, where smoothness and noise reduction are critical.
Additionally, with closed-loop functionality, these motors can achieve dynamic torque adjustments, preventing stalls and improving motion performance under variable loads.
The self-contained design of integrated stepper motors significantly reduces maintenance requirements. With fewer cables, connectors, and external components, there are fewer parts to inspect or replace.
Moreover, many models feature built-in diagnostics for real-time monitoring of temperature, current, voltage, and position. This allows operators to detect and address issues early, preventing unexpected failures and extending the system’s service life.
These built-in protection features—such as overcurrent, overvoltage, and overheating safeguards—ensure safe, reliable operation across demanding environments.
Another major advantage of integrated stepper motors is their modular scalability. They can be easily networked and scaled to suit different system sizes—from single-axis control to complex multi-axis setups.
This plug-and-play flexibility allows designers to quickly adapt the motor to various tasks without redesigning entire control systems. Whether used in industrial automation, robotics, or laboratory instruments, integrated stepper motors offer unmatched adaptability for evolving design needs.
Beyond performance, integrated stepper motors contribute to cleaner, more professional system layouts. The reduction in external cables and control boxes leads to organized installations with better airflow, improved maintenance access, and reduced clutter.
This advantage is particularly important in industries like medical technology, semiconductor equipment, and laboratory systems, where compact, hygienic, and visually streamlined designs are essential.
In the rapidly advancing world of automation and precision engineering, integrated stepper motors have become an essential solution for motion control systems. By combining a stepper motor, driver, controller, and feedback interface into a single compact unit, these devices provide precise positioning, simplified installation, and reliable performance.
Integrated stepper motors are a cornerstone of robotics and factory automation, where high precision and repeatability are vital. Their integrated control architecture simplifies system design, while their precise step movement ensures accuracy in motion.
The integration of control electronics directly within the motor eliminates complex wiring and reduces system footprint, improving reliability and performance.
In CNC machinery and 3D printing, precision and repeatability define performance quality. Integrated stepper motors are widely used to control linear and rotational axes due to their exact step resolution and torque consistency.
These motors simplify motion control, making them ideal for multi-axis synchronized systems where both accuracy and compactness matter.
The medical and scientific sectors rely on integrated stepper motors for their quiet operation, compact design, and fine control capabilities. They help improve the precision and efficiency of diagnostic and analytical instruments.
With built-in drivers and feedback, these motors minimize electromagnetic interference and ensure clean, accurate performance in sensitive environments.
Semiconductor fabrication demands micron-level precision and highly reliable motion systems. Integrated stepper motors are widely used in various stages of semiconductor processing and electronic assembly.
Their closed-loop control options ensure real-time feedback, eliminating missed steps and improving production yield.
Integrated stepper motors are an ideal fit for packaging automation, offering high torque and controlled acceleration for continuous or indexed movement.
The integration of control electronics within the motor reduces wiring complexity, making setup faster and more reliable in high-speed production environments.
Precision and synchronization are critical in textile machinery and printing presses, where integrated stepper motors deliver accurate motion and stable operation.
These motors improve system efficiency while reducing the number of external control components, ensuring smoother performance and minimal maintenance.
Integrated stepper motors are frequently used in security and access control applications due to their precise movement and compact size.
Their compact integration allows for discreet installations in space-limited security devices.
In imaging and optical control applications, vibration-free and precise motion are paramount. Integrated stepper motors excel in these tasks thanks to their high-resolution control and smooth torque output.
The motors’ closed-loop feedback and microstepping control minimize mechanical resonance and guarantee accurate performance.
Energy-efficient and reliable motion control is essential in HVAC and ventilation systems, where integrated stepper motors manage airflow and control mechanisms.
The integration of control electronics reduces external wiring and enhances system efficiency and longevity.
Renewable energy applications, particularly solar and wind systems, benefit from the reliability and precision of integrated stepper motors.
Their long lifespan, precision control, and low maintenance needs make them ideal for sustainable energy applications.
In aerospace and defense, integrated stepper motors provide dependable motion control under extreme conditions.
These motors meet the rigorous demands of performance and durability required in aerospace-grade applications.
The versatility and precision of integrated stepper motors make them a vital component in countless industries, from robotics and manufacturing to medical devices and renewable energy systems. By integrating control electronics, these motors simplify installation, reduce system cost, and deliver superior motion accuracy.
As automation technology continues to evolve, integrated stepper motors will remain at the heart of innovation—driving smarter, more efficient, and more reliable motion solutions worldwide.
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