Features:
- Provides thirty-two commoned 0–5 VDC analog input points in a TMR design.
- Passes supported HART device data through the Tricon CX architecture.
- Works with the documented current-input ETP options and 9769X FET connector.
The ordering configuration is the HART-enabled thirty-two-point analog-input member of the Tricon CX family.
It joins process-variable acquisition with access to device information carried on compatible HART loops.
A correct build requires the selected ETP wiring method, FET connector, cable length and asset-management route to agree.
Availability is subject to Apter Power inventory and sourcing confirmation.
Verified resources for Triconex 3723X:
Important Notice: Other accessories, manuals, cables, calibration data, software, etc. are not included with this equipment unless listed in the above stock item description. All prices are shown in USD.
- Acquires 4–20 mA measurements for emergency shutdown and critical-process logic.
- Transfers HART maintenance information from compatible field transmitters to supported host tools.
- Supports dense analog marshalling in Tricon CX I/O expansion chassis installations.
- HART pass-through carries digital device information alongside the primary 4–20 mA process signal.
- The supported communication path makes instrument data available to compatible maintenance and asset-management tools.
- Analog acquisition continues through the controller I/O while HART traffic uses the documented pass-through arrangement.
- The 9769X thirty-two-point FET connector supports the module field-interface path.
- Documented ETP choices cover two-wire, three-wire and selected nonincendive field connections.
- Termination-panel type, interface cable and HART routing must be matched as one engineered assembly.
- Thirty-two single-ended points acquire commoned 0–5 VDC measurements through the TMR architecture.
- Supported terminations convert 4–20 mA transmitter loops for controller monitoring.
- Module diagnostics and channel data let the safety application supervise both signal acquisition and field-device condition.