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YOKOGAWA ADV551-P13 FIO Digital Output Module

The YOKOGAWA ADV551-P13, also cataloged as the ADV551 Digital Output Module, operates as a dedicated hardware component for discrete actuation signaling within CENTUM VP and CENTUM CS platforms. Configured to transmit command states to field solenoids, relays, interlocks, and indicators, the hardware executes switching logic through 32 isolated transistor channels powered by an external 24 VDC loop distribution network.

Hardware Specifications

Parameter Specification
Model ADV551-P13
Brand YOKOGAWA
Origin Japan
Weight 0.3 kg (0.2 kg net weight bare board)
Dimensions 130 x 119.9 x 32.8 mm
Operating Temp 0 to 55 deg C
Power Consumption Approximately 700 mA at 5 VDC
Output Channels 32 isolated digital outputs
Output Voltage 24 VDC nominal (operational range: 20.4 to 26.4 VDC)
Output Type Transistor output (sink/source configurable)
Max Load Current 0.5 A per channel typical (100 mA per channel in restrictive configurations)
Response Time Less than or equal to 3 ms typical
Functions ON/OFF status output, pulse width output (8 ms to 7200 s), time-proportioning output
Isolation 2 kV AC (signal-to-system, 1 min); 500 V AC between commons per 16 channels
Leak Current (OFF) Less than or equal to 0.1 mA
External Connection MIL connector cable (AKB337)
Environmental Protection ISA Standard G3 conformal coating

Channel-to-Channel Isolation and DCS Instrumentation Features

The instrumentation interface applies explicit galvanic isolation barriers rated at 2 kV AC between the internal system backplane logic and the field wiring contacts. Engineers configure the transistor architectures to operate in either current sink or source topologies, routing common terminal linkages in two independent blocks of 16 channels each to achieve 500 V AC channel-to-channel block isolation. The P13 variant features factory-applied ISA Standard G3 conformal coating, which mitigates atmospheric degradation caused by high humidity and corrosive gases. Internal firmware layers enable time-proportioning and variable pulse width modulation (ranging from 8 ms up to 7200 s) directly at the board level to reduce host controller processing overhead.

Frequently Asked Questions

Q: What are the primary technical restrictions when replacing the legacy ADV551-P13 module with the newer ADV551-P63 module?

A: Technicians must verify system software compatibility and update the physical system configuration database if the host environment requires updated module definitions. Review backplane power consumption ratings, as newer variants may alter the cumulative current budget allotted for the node rack supply.

Q: How does the internal block division affect the allocation of independent field power supplies?

A: The 32 output channels occupy two isolated electrical groups containing 16 lines each. Each block possesses its own separate common return line routed through the MIL connector, enabling the implementation of distinct external 24 VDC power sources to ensure loop separation between discrete process sectors.

Q: What occurs inside the output stage if an external short circuit pulls the channel current above the specified thresholds?

A: A continuous load current exceeding 0.5 A per channel induces thermal overstress and potential dielectric breakdown across the solid-state switching components. System designs must incorporate external fusing or fast-acting circuit breakers to prevent permanent transistor failures.

Field Installation Guidelines

  • MIL Connector Alignment: Connect the external field loops utilizing the specified AKB337 MIL connector cable assembly. Align the polarization slot keyways cleanly before driving the connection home to eliminate the risk of pin misalignment or physical connector deformation.
  • Shield Grounding Infrastructure: Terminate the multi-conductor signal shields at the single-point cabinet instrument earth bus bar. Avoid bonding the shield at the field actuator housing to block the formation of localized circulating ground currents.
  • Thermal Management: Arrange the FIO node installation slots to preserve standard vertical convective airflow clearances. Confirm that the ambient operating envelope surrounding the rack module body remains strictly between 0 and 55 deg C.
  • Mechanical Latches: Insert the card straight into the node slot along the physical guide tracks. Depress the top and bottom latch arms until they lock into the frame, ensuring complete seating of the low-voltage backplane bus interface.

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