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  • ABB 3HAB8101-18/09A servo drive
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  • ABB 3HAB8101-18/09A servo drive

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

    ABB 3HAB8101-18/09A is a high-performance servo drive designed for high-precision motion control scenarios, belonging to the core products of ABB's robot and motion control series. As a key hub connecting the control system and servo motor, its core function is to receive motion commands from the upper controller, drive the servo motor to achieve high-speed, smooth, and high-precision position control, speed control, and torque control by accurately adjusting the output current and voltage. It is widely used in industrial robots, automated production lines, precision machine tools, printing and packaging, and other fields that require strict motion control accuracy.

    • ¥12845.00
      ¥14683.00
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    Weight:2.470KG
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    • (Inventory: 99999)
Description

ABB 3HAB8101-18/09A is a high-performance servo drive designed for high-precision motion control scenarios, belonging to the core products of ABB's robot and motion control series. As a key hub connecting the control system and servo motor, its core function is to receive motion commands from the upper controller, drive the servo motor to achieve high-speed, smooth, and high-precision position control, speed control, and torque control by accurately adjusting the output current and voltage. It is widely used in industrial robots, automated production lines, precision machine tools, printing and packaging, and other fields that require strict motion control accuracy.


ABB 3HAB8101-18/09A servo drive

Product Overview

ABB 3HAB8101-18/09A is a high-performance servo drive designed for high-precision motion control scenarios, belonging to the core products of ABB's robot and motion control series. As a key hub connecting the control system and servo motor, its core function is to receive motion commands from the upper controller, drive the servo motor to achieve high-speed, smooth, and high-precision position control, speed control, and torque control by accurately adjusting the output current and voltage. It is widely used in industrial robots, automated production lines, precision machine tools, printing and packaging, and other fields that require strict motion control accuracy.

This driver integrates ABB's core technologies in power electronics, motion control algorithms, and industrial reliability design. It uses digital control chips and modular hardware architecture, and has the characteristics of fast response speed, high control accuracy, strong overload capacity, and excellent anti-interference performance. It can effectively improve the quality and production efficiency of equipment motion control and is the core component for building high-end automated motion control systems.


Core functions and control features

1. Core motion control function

-Multi mode precise control: supports three core modes of position control, speed control, and torque control, as well as seamless switching between modes. In position control mode, the positioning accuracy can reach ± 0.001mm (with high-precision encoder); Speed fluctuation rate in speed control mode ≤ ± 0.1%; Under torque control mode, the torque control accuracy is ≤± 1%, which can meet the precise control requirements of different motion scenarios.

-High speed response and dynamic performance: Equipped with advanced PID control algorithms for current loop, speed loop, and position loop, combined with Feedforward feedforward control technology, the current loop response time is ≤ 100 μ s, and the speed loop bandwidth is ≥ 1kHz. It can quickly respond to load fluctuations and command changes, effectively suppress overshoot and oscillation during motion, and ensure smooth motor operation.

-Complete motor adaptation capability: compatible with ABB's full range of servo motors and mainstream brand permanent magnet synchronous servo motors, supporting the integration of various feedback components such as incremental encoders, absolute encoders (single/multi turn), and rotary transformers. Motor type matching and parameter self-tuning can be completed through parameter configuration, with strong adaptability.

-Safety protection and fault tolerance: Built in multiple protection functions such as overcurrent, overvoltage, undervoltage, overtemperature, overload, motor stalling, encoder failure, etc. When abnormalities are detected, the output can be cut off and an alarm can be issued within microseconds. At the same time, it has fault memory and traceability functions, recording the type of fault, occurrence time, and related operating parameters for quick troubleshooting.

2. Additional practical features

-Flexible communication and control interface: Supports mainstream industrial real-time communication protocols such as PROFINET, EtherCAT, Modbus TCP, CANopen, etc., equipped with digital I/O, analog input (0-10V/4-20mA), pulse command interface, and can seamlessly interface with PLC, motion controller, and industrial robot control system to achieve multi axis collaborative control and remote monitoring.

-Convenient parameter configuration and debugging: Supports parameter configuration, status monitoring, waveform analysis, and fault diagnosis through ABB dedicated debugging software (such as ABB DriveStudio), and is equipped with a Chinese operation panel. Basic parameter settings and operation status viewing can be completed on-site, reducing debugging difficulty and shortening deployment cycles.

-Energy optimization and energy-saving operation: Equipped with energy feedback function (with feedback unit), it can feed back the regenerated electrical energy generated during the motor braking process to the power grid, reducing energy consumption; Simultaneously supporting automatic energy-saving mode, dynamically adjusting output according to load changes, significantly reducing power consumption under light load conditions.

-Strong environmental adaptability and reliability: Designed with an IP20 protection level (body), the core components have undergone rigorous industrial environment testing and support a wide temperature range of -10 ℃~+55 ℃. It has good dust, moisture, and electromagnetic interference resistance capabilities and can adapt to complex industrial site environments.


Key technical parameters

input power

Three phase AC 380V~480V ± 10%; Frequency: 50/60Hz ± 5%

Adapt to commonly used three-phase power sources in industry, with strong adaptability to voltage and frequency

Output specifications

Rated output current: 18A; maximum output current: 54A (10s overload); Output frequency: 0~500Hz

Has strong overload capacity and can cope with short-term impact loads

control accuracy

Position control accuracy: ± 0.001mm (with 17 bit encoder); Speed control accuracy: ± 0.1% rated speed; Torque control accuracy: ± 1% rated torque

Meet the requirements of high-precision motion control scenarios

feedback interface

Supports incremental encoders (A/B/Z phase), absolute encoders (SSI/EnDet 2.2), and rotary transformers

Compatible with multiple feedback components, suitable for applications with different precision requirements

communication interface

1 EtherCAT interface; 1 PROFINET interface; 1 RS485 channel (supporting Modbus RTU); 8-channel digital I/O; 2-channel analog input

Support multi protocol communication for easy access to various automation systems

protection function

Overcurrent, overvoltage, undervoltage, overtemperature, overload, locked rotor, encoder failure, motor phase loss protection, etc

Ensure the safe operation of drivers and motors in all aspects

working environment

Temperature: -10 ℃~+55 ℃; Humidity: 5%~95% (no condensation); Protection level: IP20

Suitable for various environmental conditions in industrial sites, it needs to be installed inside the control cabinet

Installation method

35mm standard DIN rail installation or panel installation

Meets industrial standardization installation requirements and facilitates system integration


Typical application scenarios

This servo drive plays a core role in multiple high-end manufacturing fields due to its high-precision control performance, flexible adaptability, and high reliability. Typical applications include:

1. In the field of industrial robots: used for joint drive of six axis industrial robots, such as welding robots, handling robots, assembly robots, etc., through precise torque and position control, it achieves smooth and high-speed motion of robot end effectors, improving work accuracy and efficiency.

2. Precision machine tools and machining centers: In the feed axis and spindle drive of CNC lathes, milling machines, and machining centers, high-precision positioning and high-speed cutting of cutting tools are achieved to ensure the dimensional accuracy and surface quality of machined parts, suitable for precision machining scenarios such as aerospace and automotive parts.

3. Automated production line: In electronic component mounting equipment (SMT), lithium battery electrode cutting equipment, and photovoltaic module packaging equipment, high-precision motion axes are driven to complete high-speed, precise handling, positioning, cutting, and other actions, improving the automation level and production capacity of the production line.

4. Printing, packaging, and textile machinery: used for color control in printing machines, driving sealing and cutting mechanisms in packaging machines, and controlling yarn tension in textile machines. Through stable speed and torque control, it ensures printing accuracy, packaging quality, and uniformity of textile fabrics.

5. In the field of medical equipment: In the motion mechanism of medical imaging equipment (such as CT machines, MRI), surgical robots, and drug packaging equipment, with its high precision and reliability, the stability and safety of medical equipment operation are guaranteed, meeting the strict usage requirements of the medical industry.


Installation and maintenance precautions

1. Installation specifications

-The driver should be installed in a well ventilated, non violent vibration, non corrosive gas, and non strong electromagnetic radiation control cabinet, avoiding direct sunlight and rainwater immersion. A heat dissipation space of ≥ 100mm should be reserved around the driver to ensure good heat dissipation.

-Strictly follow the electrical wiring diagram for wiring, distinguish between the main circuit (power input, motor output) and the control circuit (communication, encoder, I/O signal), and use copper core cables with appropriate circuit breakers and fuses for the main circuit cables; The wiring terminals must be securely fastened to prevent poor contact and heat generation.

-Encoder cables should use twisted pair shielded wires and be routed separately from the main circuit cables (with a spacing of ≥ 300mm). The shielding layer should be grounded at one end (with a grounding resistance of ≤ 4 Ω) to avoid interference from the main circuit that may cause encoder signal distortion and affect control accuracy.

-The grounding of the drive must comply with industrial grounding standards, using independent grounding or reliable connection with the system grounding grid to ensure rapid discharge of fault current, enhance the system's anti-interference ability, and improve the personal safety of operators.

2. Maintenance points

-During daily inspections, check the operating parameters of the drive (such as output current, temperature, voltage, fault codes, etc.) through debugging software or operation panel to confirm that there are no abnormal alarms; Check if the cooling fan is running normally. If the fan stops running or makes abnormal noise, it should be replaced in a timely manner.

-Clean and maintain the drive and control cabinet every quarter, using compressed air to clean the dust on the control cabinet filter, drive heat sink, and fan. Wipe the surface of the drive with a dry soft cloth to avoid dust accumulation and poor heat dissipation causing malfunctions.

-Regularly check the driver parameters, especially key parameters such as motor model, encoder type, and control mode, to ensure they match the actual application; It is recommended to backup the drive parameters once a month and store them in a secure device for quick recovery after a failure.

-Perform a fastening inspection on the wiring terminals every six months, with a focus on checking the main circuit wiring terminals and encoder wiring terminals to prevent loosening of the terminals due to long-term operation; At the same time, check whether the insulation layer of the cable is damaged. If there is any damage, it should be replaced in a timely manner.

-When the driver malfunctions, the input power should be immediately cut off, and the fault code should be checked through the operation panel or debugging software to preliminarily determine the cause of the fault by referring to the product manual; If maintenance is required, ABB authorized technicians or professional maintenance personnel should be contacted, and non professionals are prohibited from disassembling on their own.

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