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  • YASKAWA JZNC-XU01B servo drive and amplifier
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  • YASKAWA JZNC-XU01B servo drive and amplifier

    110V-380V
    5W-130W
    1A-30A
    1 year
    30
    United States, France, Japan, Viet Nam, Australia, Russia, Germany, Italy, Arabia

    YASKAWA JZNC-XU01B is a high-performance servo drive and amplifier launched by Yaskawa (YASKAWA) brand. Its core positioning is power drive and precise control of industrial servo systems, with powerful capabilities in electric energy conversion, servo motor speed regulation, torque control, and fault protection. It can seamlessly integrate with servo motors, motion controllers, PLCs, and other equipment, accurately receive control instructions, and drive servo motors to achieve high-precision position, speed, and torque control. The servo drive and amplifier adopt a modular architecture design, compatible with Yaskawa ∑ -7/∑ - V series servo motors and mainstream industrial automation control systems. It supports flexible parameter configuration and redundant design, and has excellent anti-interference and environmental adaptability. It is the core power unit that ensures stable operation of the servo system, improves motion control accuracy, and optimizes power transmission efficiency. At present, there is sufficient stock supply of servo drivers and amplifiers for this model, which can meet diverse needs such as building new servo systems, upgrading existing automation equipment, and equipment maintenance.

    • ¥23611.00
      ¥24067.00
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    Weight:0.360KG
    • Quantity:
    • (Inventory: 99999)
Description

YASKAWA JZNC-XU01B is a high-performance servo drive and amplifier launched by Yaskawa (YASKAWA) brand. Its core positioning is power drive and precise control of industrial servo systems, with powerful capabilities in electric energy conversion, servo motor speed regulation, torque control, and fault protection. It can seamlessly integrate with servo motors, motion controllers, PLCs, and other equipment, accurately receive control instructions, and drive servo motors to achieve high-precision position, speed, and torque control. The servo drive and amplifier adopt a modular architecture design, compatible with Yaskawa ∑ -7/∑ - V series servo motors and mainstream industrial automation control systems. It supports flexible parameter configuration and redundant design, and has excellent anti-interference and environmental adaptability. It is the core power unit that ensures stable operation of the servo system, improves motion control accuracy, and optimizes power transmission efficiency. At present, there is sufficient stock supply of servo drivers and amplifiers for this model, which can meet diverse needs such as building new servo systems, upgrading existing automation equipment, and equipment maintenance.


YASKAWA JZNC-XU01B servo drive and amplifier

Product Overview

YASKAWA JZNC-XU01B is a high-performance servo drive and amplifier launched by Yaskawa (YASKAWA) brand. Its core positioning is power drive and precise control of industrial servo systems, with powerful capabilities in electric energy conversion, servo motor speed regulation, torque control, and fault protection. It can seamlessly integrate with servo motors, motion controllers, PLCs, and other equipment, accurately receive control instructions, and drive servo motors to achieve high-precision position, speed, and torque control. The servo drive and amplifier adopt a modular architecture design, compatible with Yaskawa ∑ -7/∑ - V series servo motors and mainstream industrial automation control systems. It supports flexible parameter configuration and redundant design, and has excellent anti-interference and environmental adaptability. It is the core power unit that ensures stable operation of the servo system, improves motion control accuracy, and optimizes power transmission efficiency. At present, there is sufficient stock supply of servo drivers and amplifiers for this model, which can meet diverse needs such as building new servo systems, upgrading existing automation equipment, and equipment maintenance.


Core specification parameters

-Core electrical parameters: rated input voltage AC 200-240V, rated frequency 50/60Hz, rated output power 1.5kW; equipped with high-performance servo control chip, current loop response frequency up to 2kHz, supporting high-precision speed regulation and positioning of servo motors; Working temperature range -10 ℃~60 ℃, relative humidity ≤ 90% RH (no condensation), suitable for complex industrial workshop electromagnetic environment, ensuring stable operation; Compatible with Yaskawa ∑ -7/∑ - V series servo motors, it can meet the drive requirements of servo motors in the power range of 0.1-1.5 kW, and supports incremental/absolute encoder signal access.

-Communication interface and protocol: standard MECHATROLINK-III high-speed servo communication interface (communication cycle as low as 0.1ms), RS-485 communication interface, supporting Modbus RTU and Yaskawa dedicated servo communication protocol; Equipped with dedicated signal interfaces for servo motors (encoder interface, power output interface), it can achieve high-speed and accurate data exchange with servo motors, and support seamless interconnection with motion controllers and PLCs, flexibly integrating into various industrial automation architectures.

-Drive and Control Performance: Supports seamless switching between position control, speed control, and torque control modes to meet the control needs of different industrial scenarios; The position control accuracy reaches ± 1 pulse, and the speed fluctuation rate is ≤ ± 0.01%, ensuring the stability and accuracy of the servo system operation; Built in current detection, speed detection, and position detection circuits, providing real-time feedback on operational data; Equipped with automatic diagnosis of communication faults and power output protection functions, ensuring the continuous and safe operation of the servo system.

-Protection and expansion parameters: Built in comprehensive protection functions such as overcurrent protection, overvoltage protection, undervoltage protection, overheating protection, overload protection, motor stalling protection, etc., can quickly respond to various abnormalities and cut off power output, protecting servo drives, amplifiers, and servo motors; Equipped with expansion interfaces, it is compatible with braking resistors, safety circuit modules, and status monitoring modules to meet the functional expansion needs of different scenarios.

-Physical parameters: Weight approximately 2.2kg, size in accordance with industrial control cabinet standard installation specifications (150 × 220 × 100mm); The protection level reaches IP20, suitable for installation environment inside industrial control cabinets, effectively preventing dust and foreign objects from entering; The installation method supports standard 35mm rail installation and is suitable for various industrial scenarios such as precision machining, electronic manufacturing, and robot transmission.


Core Advantage Characteristics

-High precision servo drive and multi-mode control: relying on high-performance servo control chips and advanced control algorithms, high-precision position, speed, and torque control of servo motors can be achieved. The three control modes can be seamlessly switched according to production needs, accurately completing complex processing, assembly, and other tasks, and improving product processing pass rates.

-High speed communication and flexible interconnection: Through the MECHATROLINK-III high-speed servo communication interface, low latency data exchange with the motion controller is achieved, ensuring fast response and precise execution of control instructions; The multi protocol compatibility feature enables seamless interconnection with different brand control systems without the need for customized development, reducing system integration complexity; Support remote reading and modification of parameters for system debugging and maintenance.

-Strong environmental adaptability and high reliability: Adopting industrial grade high stability power devices and anti-interference circuit design, it has excellent electromagnetic interference suppression capability. Through electromagnetic compatibility (EMC) testing, it can operate stably in complex industrial workshop environments with strong electromagnetic and high dust; The comprehensive protection function can cope with various electrical abnormalities and operational failures, greatly reducing the probability of equipment damage; Has good adaptability to power fluctuations, adapts to slight voltage fluctuations in industrial power grids, and ensures the continuous and reliable operation of servo systems.

-Comprehensive fault diagnosis and convenient maintenance: equipped with comprehensive fault self diagnosis function, it can detect real-time fault states such as overcurrent, overvoltage, overheating, overload, encoder abnormality, communication interruption, etc., send alarm signals through LED indicator lights and communication interfaces, and record detailed fault codes and fault logs; Supporting live plug-in expansion modules, key parameters can be quickly backed up and restored through supporting software, and maintenance can be completed without overall shutdown, greatly reducing downtime losses.

-Modular design and flexible expansion: Adopting a modular architecture, expansion modules can be flexibly configured according to the requirements of the servo system, achieving on-demand expansion of protection and monitoring functions; Compatible with the entire range of Yaskawa servo control software, supports personalized configuration and optimization of control parameters, and adapts to the personalized production needs of different industries.

4、 Working principle

As the core power drive unit of industrial servo systems, YASKAWA JZNC-XU01B servo drive and amplifier works based on the full process servo drive logic of "instruction reception signal processing power amplification drive control state feedback fault protection". Firstly, the servo drive and amplifier receive control commands (such as position commands, speed commands, torque commands, etc.) from the motion controller or PLC through interfaces such as MECHATROLINK-III and RS-485. At the same time, they receive real-time operating data of the servo motor (such as actual position, actual speed, motor speed, etc.) through the encoder interface; Subsequently, the internal high-performance servo control chip analyzes and processes the received instructions and feedback data, and generates accurate driving signals by combining preset control parameters and algorithms; Next, the driving signal is amplified through an internal power amplification circuit, and the adapted voltage and current are output to the servo motor to drive it to move according to the set parameters; At the same time, the servo drive and amplifier collect real-time operating status data of the servo motor (such as armature current, winding temperature, etc.), compare and analyze it with the set parameters, and adjust the driving signal in a timely manner if there is a deviation; In addition, the internal fault diagnosis and protection circuit continuously monitors the operating status of the entire system. Once abnormalities such as overcurrent, overvoltage, and overheating are detected, the protection mechanism is immediately triggered to cut off the power output and issue an alarm signal, ensuring the safety of equipment and personnel.


Installation and usage precautions

(1) Installation precautions

-Voltage matching and power protection: Before installation, it is necessary to confirm that the input voltage is consistent with the rated voltage of the servo drive and amplifier (AC 200-240V) to avoid voltage fluctuations beyond the allowable range; It is recommended to install surge protectors and power filters at the power input end to prevent damage to internal circuits caused by power grid surge voltage and electromagnetic interference; If configuring power redundancy, it is necessary to ensure that the parameters of the two power sources are consistent to ensure smooth switching; When not in use for a long time, the power should be disconnected to avoid component aging caused by standby current.

-Installation environment requirements: Servo drivers and amplifiers need to be installed in industrial control cabinets, away from strong electromagnetic interference equipment such as welding machines and high-power motors, to avoid electromagnetic interference causing a decrease in driving accuracy or communication abnormalities; The installation location should ensure good ventilation and maintain a distance of ≥ 30mm from other equipment to ensure smooth heat dissipation; It is strictly prohibited to install in environments with direct sunlight, high temperature and humidity, high dust or corrosive gases to extend the service life of the equipment.

-Correct wiring and grounding: Strictly distinguish power interfaces, communication interfaces, motor power interfaces, encoder interfaces, and expansion module interfaces according to the wiring manual, strictly prohibit misconnection or mixing, and avoid permanent damage to servo drives, amplifiers, or servo motors; Ensure that the terminals are securely fastened during wiring to prevent loose connections that may cause poor contact or abnormal power transmission; Special shielded cables should be used for power cables and signal cables, with a distance of ≥ 300mm between them to reduce signal interference; The servo drive and amplifier must be reliably grounded with a grounding resistance of ≤ 4 Ω to prevent the risk of electric shock or electromagnetic interference.

(2) Precautions for use and maintenance

-Parameter configuration specification: Before the first use, the system parameter configuration must be completed through the supporting software, including motor model adaptation, control mode selection, position/speed/torque parameter setting, communication protocol configuration, protection parameter setting, etc. After the parameter configuration is completed, a trial run test must be conducted to confirm that there are no abnormalities before it can be officially put into use; It is prohibited to arbitrarily modify the core drive parameters to avoid causing abnormal movement of the servo motor.

-Regular maintenance: Regularly check the operating status of servo drives and amplifiers, including indicator light status, cooling fan operation, terminal tightness, cable damage, etc; Regularly clean the dust on the surface of the control cabinet and equipment to ensure smooth heat dissipation; Regularly backup driver parameters and operational data to prevent data loss; It is recommended to conduct a comprehensive system inspection and maintenance every 6 months.

-Fault handling specifications: When a fault occurs, it is necessary to first check the fault code and fault log, and investigate the cause of the fault according to the instruction document. It is strictly prohibited to forcefully start the equipment without troubleshooting; When replacing components, it is necessary to use Yaskawa original parts to ensure equipment compatibility and operational reliability; Complex faults require maintenance by professional technicians.


Applicable scenarios

-Precision machining system: suitable for precision machine tools, laser processing equipment, CNC lathes and other precision machining systems, providing precise power drive for servo motors to achieve high-precision cutting, grinding, engraving and other machining of workpieces, ensuring machining accuracy and surface quality.

-Industrial robot transmission system: widely used in the joint transmission system of industrial robots, driving robot joint servo motors to achieve high-precision motion, realizing precise grasping, assembly, welding and other operations of robots, ensuring the flexibility and accuracy of robot motion.

-Upgrade of existing servo system: In response to the bottleneck of driving accuracy and response speed in existing servo systems, the old servo drive unit can be directly replaced and upgraded to YASKAWA JZNC-XU01B servo drive and amplifier, which improves the control accuracy, response speed and reliability of the servo system, extends the service life of the equipment, and adapts to the development needs of modern precision industrial automation.

-Electronic manufacturing and assembly scenarios: Suitable for high-precision production scenarios such as precision assembly of electronic components and semiconductor processing. Through precise servo drive control, high-precision positioning and motion of equipment are achieved, ensuring the assembly accuracy and processing quality of electronic components and improving production efficiency.

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