ABB EI813F 3BDH000022R1 | AC 800F Ethernet Fieldbus Module - 10BaseT

ABB EI813F 3BDH000022R1 | AC 800F Ethernet Fieldbus Module - 10BaseT

Brand: ABB

Product ID: EI813F 3BDH000022R1

Condition: New / used

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

Category:

Description

ABB EI813F 3BDH000022R1

I. Basic Information

Brand: ABB
Model: EI813F 3BDH000022R1
Naming Convention:
  • EI: Following ABB's traditional naming logic, E typically stands for Extension Module, and I for Input Module, meaning Input Extension Module.
  • 813: Presumed to be a Digital Input Module (DI Module) (comparing EI802F as digital input and EI803F possibly as analog input, "813" may represent the number of channels, voltage type, or upgraded version).
  • 3BDH000022R1: ABB product serial number used to identify the specific hardware version (R1 denotes the first revision).
    Type: Digital Input Module (DI Module), used to collect switching signals (e.g., ON/OFF states) from industrial field devices.
    Application Scenarios: Compatible with distributed control systems (DCS) or PLC systems of ABB AC 800M, AC 500-S and other controllers, commonly used in industrial automation, power, process control and other fields.

II. Physical Characteristics

Dimensions: Referencing similar products (e.g., EI802F), approximately 120mm×80mm×35mm (compact design suitable for standard industrial control cabinet installation).
Weight: Approximately 0.15-0.2kg (lightweight for easy on-site deployment).
Mounting Methods:
  • DIN rail mounting (supports quick disassembly and installation).
  • Hot-swapping: Supported by some models (subject to specific specifications).
    Indicators:
  • Power Indicator (PWR): Shows the module's power supply status.
  • Channel Status Indicators: An LED for each channel to display the real-time signal input status (e.g., illuminated indicates signal conduction).
  • Fault Indicator (FAULT): Alerts to module communication or hardware anomalies.

III. Electrical Characteristics

Power Supply Voltage: 24V DC (industrial standard power supply, supporting redundant power input for enhanced reliability).
Power Consumption: Approximately 1-2W (low-power design to reduce overall system energy consumption).
Number of Input Channels:
  • Presumed to be 16 channels (similar EI802F has 16 channels, and EI813F may continue this configuration).
  • Supports dry contact (mechanical switches, relay contacts) or wet contact (24V DC level signals) inputs.
    Electrical Isolation:
  • Isolation between channels or groups (e.g., optocoupler isolation) with strong electromagnetic interference (EMI) resistance to prevent signal crosstalk.
  • Isolation voltage: Typically 250V AC/DC (ensuring safety and reliability).
    Input Signal Types:
  • Dry contacts: Non-powered switch contacts (e.g., buttons, limit switches).
  • Wet contacts: Powered level signals (e.g., 24V DC proximity switch outputs).
    Response Time:
  • Configurable signal filtering time (e.g., 1-20ms to eliminate mechanical contact bounce).

IV. Environmental Requirements

Operating Temperature: -25°C ~ +60°C (industrial-wide temperature design for high and low-temperature environments).
Storage Temperature: -40°C ~ +85°C.
Relative Humidity: 5% ~ 95% (non-condensing), with dust and moisture resistance.
Protection Level: IP20 (requires installation in control cabinets to prevent dust and splashes).
Vibration/Shock Resistance: Complies with IEC 61326 standards, adapting to mechanical vibration environments in industrial sites.

V. Communication and Functions

Communication Protocols:
  • Supports ABB FIELDBUS (direct communication with AC 800M/AC 500-S controllers).
  • Can be extended to support fieldbuses such as Profibus DP and Ethernet/IP via gateway modules (additional configuration required).
    Data Transmission:
  • Real-time conversion of input signals (0/1 states) into binary data, transmitted to the controller CPU via the backplane bus.
    Diagnostic Functions:
  • Channel status monitoring (e.g., signal valid/invalid).
  • Open-circuit detection, power failure alarms, communication link diagnostics.
  • Fault codes reported to the monitoring system (e.g., ABB Control Builder) via the controller.
    Functional Extensions:
  • Supports Sequence of Events (SOE) recording (for some models), accurately logging signal change times (millisecond-level resolution).
  • Redundant configuration (requires matching redundant controllers and bus modules).

VI. Working Principle

Signal Acquisition:
  • Receives switching signals from field devices via terminal modules (e.g., TB series), which enter the module after filtering.
    Signal Conditioning:
  • Converts input signal levels (e.g., converts 24V DC signals to internal logic levels) and isolates external interference via optocouplers.
    Analog-to-Digital Conversion:
  • Digital signals require no analog conversion and are directly encoded into binary data (e.g., "1" for conduction, "0" for disconnection), stored in registers.
    Data Communication:
  • Transmits data to the controller via the module's internal bus, which executes corresponding actions (e.g., alarms, interlock controls) based on preset logic.
    Self-Test and Alarm:
  • Periodically detects power, channel, and communication status, alarming via LED indicators and system logs in case of anomalies.

VII. Typical Application Scenarios

Industrial Automation:
  • Monitoring start/stop status of production line equipment, detecting safety door switches, and collecting sensor signals (e.g., photoelectric switches, magnetic switches).
    Power Systems:
  • Feedback on the position status of circuit breakers and disconnectors, monitoring switch status in power distribution cabinets.
    Process Control:
  • Collecting valve switch status, motor operation/fault signals, and high/low level alarm inputs for storage tanks.
    Mechanical Engineering:
  • Accessing machine tool limit protection signals, robot IO signal interaction, and equipment safety interlock signals.

VIII. Common Faults and Troubleshooting

Fault TypePossible CausesTroubleshooting Methods
No Power to Module1. Loose or disconnected power wiring
2. Faulty power adapter
3. Blown internal fuse
1. Check power connection
2. Replace power adapter
3. Contact technicians for module repair
Communication Interruption1. Damaged or poorly connected bus cable
2. Module address conflict
3. Incorrect communication protocol configuration
1. Test bus cable continuity
2. Ensure unique module address
3. Check baud rate, slave address, etc.
No Signal in Channel1. Faulty external switch
2. Loose terminal wiring
3. Damaged channel optocoupler
1. Measure switch continuity with a multimeter
2. Tighten terminal screws
3. Replace channel or module
False Signal Reporting1. Signal interference (unshielded cables or poor grounding)
2. Too short filtering time
3. Aging components with leakage
1. Check if wiring is away from high-power equipment
2. Increase filtering time
3. Test channel insulation resistance
Module Overheating1. Inadequate ventilation in the installation environment
2. Internal component short circuit
3. Long-term full-load operation
1. Add cooling fans
2. Inspect component appearance (e.g., bulging capacitors) after power-off
3. Optimize system

contact us