0 |
Detcon HRT Bridge |
1 |
Channel Status |
2 |
Stability Fault |
3 |
Range Fault |
4 |
Sensor Fault |
5 |
Zero Fault |
6 |
Sensor Fault 2 |
7 |
Sensor in Calibration |
8 |
Global Fault |
9 |
Auto Span Fault |
10 |
Temperature Fault |
11 |
Loop Current Fault |
12 |
Input Voltage Fault |
13 |
Memory Fault |
14 |
Processor Fault |
15 |
Clearing Fault |
16 |
Alarm 1 Active |
17 |
Alarm 2 Active |
18 |
Alarm 3 Active |
19 |
Fault Relay Active |
20 |
Modbus Communications Lost |
21 |
Dac Span Not Calibraed |
22 |
Dac Zero Not Calibrated |
23 |
Unique Id Not Set |
24 |
% range |
25 |
5.0f |
26 |
Concentration |
27 |
Second Device Variable (deviceVariables[1]) is concentration. xmtr-mv supports an imaginary set of expanded engineering units in this device variable slot |
28 |
Conc. Unit |
29 |
Conc. USL |
30 |
Conc. LSL |
31 |
Conc. Min Span |
32 |
Conc. Damping |
33 |
Conc. Class |
34 |
Conc. Data Quality |
35 |
Conc. Limit Status |
36 |
Conc. Family Status |
37 |
Conc. Sensor S/N |
38 |
User Units |
39 |
Special user units |
40 |
Concentration value measured by device variable 1 |
41 |
Conc Family Status |
42 |
7d |
43 |
20 |
44 |
50 |
45 |
100 |
46 |
200 |
47 |
Temperature |
48 |
Secondary Variable - Temperature Compensation |
49 |
Temp. Unit |
50 |
Temp. Class |
51 |
Temp. Quality |
52 |
Temp. Limit Status |
53 |
Temp. Family Status |
54 |
Temper. Unit |
55 |
Sensor Temperature Units- Engineering unit to be displayed with Sensor Temperature. |
56 |
Temp. Data Quality |
57 |
|
58 |
Voltage |
59 |
Tertiary Variable - Voltage Compensation |
60 |
PS Volt Unit |
61 |
PS Voltage |
62 |
PS Volt Class |
63 |
PS Volt Data Quality |
64 |
PS Volt Limit Status |
65 |
PS Family Status |
66 |
PS Volt Family Status |
67 |
Auto Span Level |
68 |
Concentration of the span gas that will be applied during an Auto Span calibration. This value is typically 50% of the range |
69 |
5d |
70 |
Sensor Life |
71 |
Indicates the remaining service life of the sensor cell. If the sensor life falls below 25% the cell is in need of replacement |
72 |
% |
73 |
Model type |
74 |
The type of Detcon sensor that is connected to the Detcon HRT Bridge |
75 |
DM |
76 |
FP |
77 |
IR |
78 |
TP |
79 |
PI |
80 |
Days last cal |
81 |
Number of days that have elapsed since the last successful AutoSpan calibration |
82 |
days |
83 |
Sensor Range |
84 |
The maximum value of the concentration that can be detected by the sensor |
85 |
Range > 25 |
86 |
Range 10-25 |
87 |
Range < 10 |
88 |
Cell Bias |
89 |
Voltage applied between the sensing and counter electrodes of an electrochemical cell |
90 |
Neg, 0 mV Bias |
91 |
Neg, 150 mV Bias |
92 |
Neg, 200 mV Bias |
93 |
Neg, 300 mV Bias |
94 |
Pos, 0 mV Bias |
95 |
Pos, 150 mV Bias |
96 |
Pos, 200 mV Bias |
97 |
Pos, 300 mV Bias |
98 |
Gain Code |
99 |
Value of the gain of the internal amplifier in the sensor cell |
100 |
Raw Counts |
101 |
Numerical value measured by the analog-to-digital converter circuit |
102 |
Gas Factor |
103 |
Used to make the appropriate signal sensitivity adjustment when the target gas is other than methane |
104 |
6.2f |
105 |
Cal Factor |
106 |
Used to make the appropriate signal sensitivity adjustment when the calibration gas is other than methane |
107 |
Bridge Current |
108 |
Current flowing through the bridge circuit of the sensor |
109 |
6.1f |
110 |
mA |
111 |
Bridge Voltage |
112 |
Voltage applied to the bridge circuit of the sensor |
113 |
mV |
114 |
Used to make the appropriate signal sensitivity adjustment when the target gas is different from the calibration gas |
115 |
Active Counts |
116 |
Numerical value measured by the analog-to-digital circuit monitoring the IR cell active signal |
117 |
Reference Counts |
118 |
Numerical value measured by the analog-to-digital circuit monitoring the IR cell reference signal |
119 |
RangeMultiplier |
120 |
Indicates the number of decimal places in the reported concentration value. A range multiplier of 1 indicates 1 deciaml place, 10 indicates 2 decimal places, and 100 indicates 3 decimal places. |
121 |
Used to make the appropriate signal sensitivity adjustment when the calibration gas is different from the target gas |
122 |
Heater Power |
123 |
Sets the optium operating temperature for the solid state H2S sensor |
124 |
mW |
125 |
Heater Voltage |
126 |
Voltage applied to the heater film in the solid state H2S sensor |
127 |
Sensor Resistance |
128 |
Resistance of the sensor film in the solid state H2S sensor |
129 |
x100 ohms |
130 |
Heater Current |
131 |
Current flowing through the heater film in the solid state H2S sensor |
132 |
Used to make the appropriate signal sensitivity adjustment when the target gas is not isobutylene |
133 |
EngUnits |
134 |
Units for the concentration and range values |
135 |
Processor Firmware Version |
136 |
Version of firmware installed on the Detcon sensor |
137 |
Processor Hardware Version |
138 |
Hardware version of the Detcon sensor |
139 |
Cell Firmware Version |
140 |
Version of firmware installed on the sensor cell processor |
141 |
Cell Hardware Version |
142 |
Hardware version of the sensor cell |
143 |
Co-Processor Firmware Version |
144 |
Version of firmware installed on the Detcon coprocessor |
145 |
Co-Processor Hardware Version |
146 |
Hardware version of the Detcon coprocessor |
147 |
Calibration Date |
148 |
Date of the last successful AutoSpan calibration |
149 |
Read Time Date |
150 |
Time and date that are stored in the sensor's internal clock |
151 |
Modbus Address |
152 |
Modbus slave address of the sensor |
153 |
Modbus Baud Rate |
154 |
Baud rate used for coummincation on the Modbus |
155 |
9600 |
156 |
19200 |
157 |
Model Number |
158 |
Sensor model number |
159 |
Alarm 1 Level |
160 |
Threshold for activating alarm 1 |
161 |
Alarm 2 Level |
162 |
Threshold for activating alarm 2 |
163 |
Alarm 3 Level |
164 |
Threshold for activating alarm 3 |
165 |
Alarm 1 Direction |
166 |
An ascending alarm is activated when the concentration goes from below the alarm threshold to above it. A descending alarm is activated when the concentration goes from above the threshold to below it. Descending alarms are used for oxygen sensors. Ascending alarms are used for all other gases. |
167 |
Ascending |
168 |
Descending |
169 |
Alarm 1 Type |
170 |
A latching alarm remains active after the alarm condition has cleared. A non-latching alarm will deactivate once the alarm condition has cleared. |
171 |
Latching |
172 |
Non-Latching |
173 |
Alarm 1 Condition |
174 |
An energized alarm relay has the normally open and common connections shorted in a non-alarm condition. A de-energized alarm relay has the normally closed and common connections shorted in a non-alarm condition. |
175 |
Energized |
176 |
De-Energized |
177 |
Alarm 2 Direction |
178 |
Alarm 2 Type |
179 |
Alarm 2 Condition |
180 |
Alarm 3 Direction |
181 |
Alarm 3 Type |
182 |
Alarm 3 Condition |
183 |
An energized alarm relay has the normally open and common connections shorted in a non-alarm condition. A de-energized relay has the normally closed and common connections shorted in a non-alarm condition. |
184 |
Fault Relay Type |
185 |
A latched fault will remian active after the fault condition has cleared. A non-latched fault will clear once the fault condition has cleared. |
186 |
Fault Relay Condition |
187 |
An energized fault relay has the normally open and common connections shorted in a non-fault condition. A de-energized fault relay has the normally closed and common connections shorted in a non-fault condition. |
188 |
Serial Number |
189 |
Serial number for the attached sensor |
190 |
12d |
191 |
Bridge Setpoint |
192 |
Target current for the sensor cell bridge circuit |
193 |
Filter Mode |
194 |
Enables software filtering of the sensor cell output |
195 |
Disabled |
196 |
Enabled |
197 |
Invalid Index |
198 |
Reset Alarms |
199 |
Forces any latched alarms to be reset to their non-alarm state |
200 |
Restore Defaults |
201 |
Restores the factory default settings to the attached sensor |
202 |
Autozero Cal. |
203 |
The AutoZero function is used to set the sensor�s zero baseline. |
204 |
Autospan Cal. |
205 |
The AutoSpan function is used to span calibrate the sensor. |
206 |
Reset Comm Lost Status |
207 |
Resets the Comm Lost status after Modbus communications have been restored. |
208 |
Start |
209 |
Device Variables |
210 |
Primary Variables |
211 |
Identification |
212 |
PV Measurement |
213 |
Range Values |
214 |
Measured Values |
215 |
HART Tags |
216 |
Device Info. |
217 |
Revisions |
218 |
Sensor Information |
219 |
LRV |
220 |
URV |
221 |
PV |
222 |
Rate |
223 |
Diagnostics |
224 |
Sensor Status |
225 |
Device Status |
226 |
Relay Status |
227 |
HART Status |
228 |
Configuration Setup |
229 |
Alarm Setup |
230 |
Calibration |
231 |
HART Setup |
232 |
Range Setup |
233 |
Sensor Setup |
234 |
Modbus Setup |
235 |
Alarm 1 Setup |
236 |
Alarm 2 Setup |
237 |
Alarm 3 Setup |
238 |
Fault Relay Setup |
239 |
Sensor Calibration |
240 |
Loop Test & Calibrate |
241 |
PV Analog Channel Saturated |
242 |
PV Analog Channel Fixed |
243 |
Wireless |
244 |
WirelessHART Device |
245 |
IEEE 802.15.4 2.4GHz DSSS with O-QPSK Modulation |
246 |
Primary |
247 |
Primary Analog Channel |
248 |
Secondary |
249 |
Secondary Analog Channel |
250 |
Tertiary |
251 |
Tertiary Analog Channel |
252 |
Quaternary |
253 |
Quaternary Analog Channel |
254 |
Quinary |
255 |
Quinary Analog Channel |
256 |
Critical Power Failure |
257 |
Lock all |
258 |
Trim not supported |
259 |
Configuration cannot be changed |
260 |
Locked by gateway |
261 |
Analog Input Channel |
262 |
Analog Output Channel |
263 |
Secondary Analog Channel Saturated |
264 |
Tertiary Analog Channel Saturated |
265 |
Quaternary Analog Channel Saturated |
266 |
Quinary Analog Channel Saturated |
267 |
Secondary Analog Channel Fixed |
268 |
Tertiary Analog Channel Fixed |
269 |
Quaternary Analog Channel Fixed |
270 |
Quinary Analog Channel Fixed |
271 |
Simulation active |
272 |
The device is in simulation mode and the level output is not representative of the process. |
273 |
Non-Volatile memory failure |
274 |
The Non-Volatile memory check is invalid or maybe corrupt, or the battery of a battery-backed memory has failed. |
275 |
Volatile memory error |
276 |
The RAM memory check is invalid or maybe corrupt |
277 |
Watchdog reset executed |
278 |
A watchdog reset has been performed |
279 |
Voltage conditions out of range |
280 |
A voltage condition is outside its allowable range |
281 |
Environmental conditions out of range |
282 |
An internal or environmental condition is beyond acceptable limits. |
283 |
Electronic failure |
284 |
A hardware problem not related to the sensor has been detected. |
285 |
Subdevice list changed |
286 |
Duplicate master detected |
287 |
Capacity Denied |
288 |
The device was unable to acquire the communication bandwidth required to support the Burst Messaging specified |
289 |
Bandwidth allocation pending |
290 |
Block transfer pending |
291 |
Battery life |
292 |
Percent range |
293 |
Loop current |
294 |
Primary variable |
295 |
Secondary variable |
296 |
Tertiary variable |
297 |
Quaternary variable |
298 |
Read receive time |
299 |
Write date and time |
300 |
Non-Volatile Clock |
301 |
When set the device contains a battery-backed clock. In this case, the clock does not need to be reset if there is a power failure. |
302 |
Clock Uninitialized |
303 |
The real-time clock has never been set with the date and time. For example, the clock is volatile and power was removed from and restored to the device. |
304 |
None |
305 |
No restrictions |
306 |
SI Only |
307 |
Restricted to SI Unit codes only |
308 |
Process automation device |
309 |
Discrete device |
310 |
Hybrid:Process automation+discrete |
311 |
I/O System |
312 |
WirelessHART Process automation device |
313 |
WirelessHART Discrete device |
314 |
WirelessHART Process automation+discrete |
315 |
WirelessHART Gateway |
316 |
WirelessHART Access point |
317 |
WirelessHART Process adapter |
318 |
WirelessHART Discrete adapter |
319 |
WirelessHART enabled handheld/portable maintenance tool |
320 |
Device Profile |
321 |
US |
322 |
United States of America |
323 |
JP |
324 |
Japan |
325 |
DE |
326 |
Germany |
327 |
FR |
328 |
France |
329 |
ES |
330 |
Spain |
331 |
RU |
332 |
Russian Federation |
333 |
CN |
334 |
People's Republic of China |
335 |
Secondary Master |
336 |
Primary Master |
337 |
Device Diagnostic Status 0 |
338 |
Device Diagnostic Status 1 |
339 |
I/O and Subdevice Status |
340 |
WirelessHART Status |
341 |
Time Set Option |
342 |
Real Time Clock Flags |
343 |
Country |
344 |
Country of intended device installation |
345 |
SI Unit Control |
346 |
Indicates if device should only display SI unit codes |
347 |
8u |
348 |
Dynamic Variables Returned for Device Variables |
349 |
Command Response Truncated |
350 |
Configuration Change Counter Mismatch |
351 |
Status bytes mismatch |
352 |
8.3f |
353 |
.3f |
354 |
Output Status |
355 |
Output Status Byte |
356 |
Uninitialized |
357 |
Normal - one sensor |
358 |
Normal - two sensors |
359 |
Normal - three sensors |
360 |
Shorted |
361 |
Shorted- shorted field wiring. |
362 |
Limited high |
363 |
Limited high- block can not respond to upward movement of value. |
364 |
Open |
365 |
Open- open field wiring. |
366 |
Limited low |
367 |
Limited low- block can not respond to upward movement of target. |
368 |
Initialization done |
369 |
Initialization done- block initialization is complete. |
370 |
Not selected |
371 |
Not selected- target value provided by block was not selected. |
372 |
No path |
373 |
No path- there is no path to the process. |
374 |
Fail |
375 |
Fail- hardware failure. |
376 |
Bad |
377 |
Bad- block is out of service or has bad input. |
378 |
Not from process |
379 |
Not from process- value is not directly affected by any process information. |
380 |
Local override |
381 |
Local override- block has LO mode. |
382 |
Not Cascade Mode |
383 |
Not RCas Mode |
384 |
Not ROut Mode |
385 |
No communication |
386 |
No communication- (NO_COM). |
387 |
uint16_var_blk_char |
388 |
uint32_var_blk_char |
389 |
uint8_var_blk_char |
390 |
int8_var_blk_char |
391 |
new itest redef1 label |