ABB 3BHE003604R0102 UFC765AE102 | Fault-Locating Iindicator (FLI)

ABB 3BHE003604R0102 UFC765AE102 | Fault-Locating Iindicator (FLI)

Brand: ABB

Product ID: 3BHE003604R0102 UFC765AE102

Condition: New / used

Terms of payment: Paypal、T/T 、Western Union

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Description

I. Model Decomposition and Meaning

UFC765AE102

  • UFC:
    Typically represents the control module/unit of ABB frequency converters or control systems (such as the control board of the ACS800 series frequency converters), responsible for signal processing, parameter adjustment, and communication functions.
  • 765:
    Likely indicates the product version or specification. Compared with previous models (e.g., UFC762), it may feature upgraded performance, interfaces, or application scenarios (e.g., higher power, more input/output channels).
  • AE102:
    Probably a configuration code used to distinguish functional differences. For example:
    • A: Signal type or input/output configuration (e.g., primarily analog signals).
    • E: Support for communication protocols (e.g., integrated Ethernet or specific fieldbus).
    • 102: Version iteration or functional parameter sequence number.

3BHE003604R0102

  • 3BHE:
    A standard product prefix of ABB, used to identify low-voltage automation components (such as PLC modules, drive modules, control boards, etc.).
  • 003604:
    A unique part number used to distinguish specific hardware models and configurations.
  • R0102:
    Version number, where:
    • R: Revision (revised version).
    • 0102: Specific version iteration, possibly indicating hardware design optimization or software function upgrades (e.g., compatibility with new protocols, improved stability).

UFC765AE102 3BHE003604R0102.jpg

II. Technical Parameters

CategoryParameter Description
Input Signals- Analog: 0-10V, 4-20mA (high-impedance input, anti-interference design)
- Digital: DI channels (support dry contacts/level signals)
Output Signals- Analog: 0-10V, 4-20mA (load capacity ≥500Ω)
- Digital: DO channels (relay/transistor output, 24VDC/2A)
Communication Interfaces- RS485/RS232 (Modbus RTU)
- Ethernet (e.g., Profinet, EtherNet/IP; if the model contains "E", network functions may be enhanced)
Control Functions- Supports PID control, adaptive regulation, logical operations
- Built-in algorithm libraries (e.g., motor control, process control)
Accuracy and Speed- Analog accuracy: ±0.1% FS
- Control cycle: ≤10ms (high-speed response)
Power Supply- 24VDC (±10%) or 100-240VAC (wide voltage input, suitable for industrial environments)
Operating Environment- Temperature: -10°C~+55°C
- Humidity: ≤90% RH (non-condensing)
- Anti-vibration/impact (compliant with industrial standards)
Installation Method- DIN rail mounting or board mounting (compact design, space-saving in control cabinets)


III. Functional Features

High-Performance Control Core

  • Integrated microprocessor supports complex algorithms (e.g., PID auto-tuning, multi-loop control), suitable for scenarios such as motor speed regulation and temperature/pressure control.
  • Strong real-time data processing capability enables quick response to on-site signal changes.

Rich Interfaces and Expandability

  • Multi-channel analog/digital IO supports custom signal types (e.g., thermocouple, RTD inputs).
  • Optional communication modules (e.g., Profibus DP, CANopen) are compatible with ABB and third-party systems (e.g., PLC, SCADA).

High Reliability and Anti-Interference

  • Uses industrial-grade components and undergoes rigorous EMC testing, suitable for strong interference environments (e.g., near frequency converters, factory workshops).
  • Built-in self-diagnosis function supports fault alarms and status monitoring (e.g., power anomalies, communication interruptions).

Flexible Programming and Debugging

  • Supports ABB official software (e.g., DriveWindow, Control Builder) for parameter configuration and program development.
  • Visual interface displays real-time waveforms and trend charts, facilitating on-site debugging and control strategy optimization.

Modular Design

  • Can be combined with other ABB modules (e.g., UFC760 series, IO modules) to build distributed control systems.
  • Supports firmware upgrades to expand functions via software updates (e.g., new communication protocols, optimized control algorithms).

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IV. Application Scenarios

Industrial Automation

  • Frequency Converter Control: As a control board for ACS800 series frequency converters, it realizes closed-loop control of motor speed and torque.
  • Process Control: Adjusts process parameters such as temperature, flow rate, and liquid level in chemical, pharmaceutical, and food industries.

Machinery and Equipment

  • Motion control for packaging machinery and printing machinery (combined with servo systems).
  • Energy-saving systems for fans and pumps (achieves constant pressure/current control via PID regulation).

Power and Energy

  • Logical control and data acquisition for photovoltaic inverters and energy storage systems.
  • Monitoring of substation auxiliary equipment (e.g., ventilation and lighting system automation).


V. Operation and Maintenance Recommendations

Installation and Wiring

  • Ensure correct power polarity to avoid module damage from reverse connection.
  • Use shielded cables for analog signals and keep them away from power lines to reduce interference.
  • Wire communication cables according to protocol standards (e.g., RS485 differential signals for Modbus RTU).

Parameter Configuration

  • Initialize the module via ABB software to set basic parameters such as input/output types, communication addresses, and control modes.
  • When debugging PID parameters, it is recommended to use the auto-tuning function first, then fine-tune based on on-site conditions (e.g., proportional gain, integral time).

Fault Troubleshooting

  • Common faults: Communication interruptions (check cables and baud rate matching), abnormal outputs (verify load overload).
  • Use the module's LED indicators to judge status (e.g., power light, communication light, fault light).

Maintenance Cycles

  • Regularly clean dust from the module surface and check for loose terminal connections.
  • It is recommended to perform functional tests every 1-2 years to ensure parameter accuracy and response speed meet requirements.

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