Configuration Tag Definitions – 5034-IF4, 5034-IF8C, and 5034-IF8V
Name | Data Type | Definition | Valid Values |
|---|---|---|---|
Chxx.Range | SINT | Channel’s operating range | For 5034-IF4:
For 5034-IF8C:
For 5034-IF8V:
|
Chxx.NotchFilter | SINT | Notch Filter removes line noise for the channel. |
|
Chxx.AlarmDisable | BOOL | Disables all alarms on the channel.
IMPORTANT:
Consider the following:
| 0 = Alarms are enabled 1 = Alarms are disabled |
Chxx.ProcessAlarmLatchEn | BOOL | Configures Process alarms to latch until they are explicitly
unlatched. The Process alarms include:
| 0 = Latching disabled 1 = Latching enabled |
Chxx.RateAlarmLatchEn | BOOL | Configures the Rate Alarm to latch until it is explicitly
unlatched. | 0 = Latching disabled 1 = Latching enabled |
Chxx.OpenWireEn | BOOL | Enables the input Open Wire diagnostic. | 0 = Disabled 1 = Enabled |
Chxx.Disable | BOOL | Disables the channel. When a channel is disabled, the following occurs:
| 0 = Channel is enabled 1 = Channel is disabled |
Chxx.TenOhmOffset | INT | Not Applicable | 0 |
Chxx.DigitalFilter | INT | A non-zero value enables the filter, providing a time constant in
milliseconds used in a first order lag filter to smooth the input
signal. | 0 = Filter is turned off Any value greater than zero = Filter value in milliseconds |
Chxx.LowSignal | REAL | One of four points used in scaling. The low signal is in terms of
the inputs signal units and corresponds to the low engineering term
when scaled. | Any value less than the high signal in range. |
Chxx.HighSignal | REAL | One of four points used in scaling. The high signal is in terms
of the inputs signal units and corresponds to the high engineering
term when scaled. | Any value greater than the low signal in range. |
Chxx.LowEngineering | REAL | One of four points used in scaling. The low engineering helps
determine the engineering units the signal values scale into. The
low engineering term corresponds to the low signal value. | Any value |
Chxx.HighEngineering | REAL | One of four points used in scaling. The high engineering helps
determine the engineering units the signal values scale into. The
high engineering term corresponds to the high signal value. | Any value |
Chxx.LLAlarmLimit | REAL | The Low Low Alarm trigger point. Causes the Chxx.LLAlarm to
trigger when the input signal moves beneath the configured trigger
point. Value is in terms of engineering units. | Any value |
Chxx.LAlarmLimit | REAL | The Low Alarm trigger point. Causes the ChxxLAlarm to trigger
when the input signal moves beneath the configured trigger point.
Value is in terms of engineering units. | Any value |
Chxx.HAlarmLimit | REAL | The High Alarm trigger point. Causes the ChxxHAlarm to trigger
when the input signal moves above the configured trigger point.
Value is in terms of engineering units. | Any value |
Chxx.HHAlarmLimit | REAL | The High High Alarm trigger point. Causes the ChxxHHAlarm to
trigger when the input signal moves above the configured trigger
point. Value is in terms of engineering units. | Any value |
Chxx.RateAlarmLimit | REAL | The Rate Alarm trigger point. Causes the ChxxRateAlarm to trigger
when the input signal changes at a rate faster than the configured
Rate Alarm. Configured in Engineering Units per second. | 0 = Rate Alarm is not used Any value greater than zero = Trigger point |
Chxx.AlarmDeadband | REAL | Allows a process alarm to remain set, despite the alarm condition
disappearing, as long as the input data remains within the
deadband of the process alarm. The deadband value is subtracted from the High and High High
Alarm Limits to calculate the deadband thresholds for these
alarms. The deadband value is added to the Low and Low Low Alarm
Limits to calculate the deadband thresholds for these
alarms. | Any non-negative value |
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