0 |
.3f |
1 |
8.3f |
2 |
7d |
3 |
Level |
4 |
Linearized Level |
5 |
Level - The total product measurement of the device |
6 |
This is the UNIT of measure for the process variable of the device and provides a basis for all of the setup functions. Selectable engineering UNITS include: inches, feet, meters, millimeters and centimeters. |
7 |
Units |
8 |
|
9 |
None |
10 |
Linearized Level - The output of the linearization table based on Level |
11 |
Ultra Low Dielectric Mode |
12 |
Used only when dielectric constant of material is between 1.3 and 2.3. |
13 |
Off |
14 |
On |
15 |
% Range |
16 |
Alarm Setting |
17 |
Software Revision Date- Gregorian calendar date denoting the date of Software Release |
18 |
Software Revision Date |
19 |
Probe Type |
20 |
This function will help adjust the transmitter setting for the installed configuration. Certain aspects of the transmitter setup will be adjusted to conform to the probe type selected. Selectable probe types include: Single Rod/Cable, Dual Rod/Cable or Coaxial. Select only the type of probe mounted to the MT5xxx transmitter. Failure to set the correct probe type could result in measurement errors. |
21 |
Single Rod/Cable |
22 |
Dual Rod/Cable |
23 |
Coaxial |
24 |
Mounting Type |
25 |
Mounting configurations will affect probe types in different ways. A sensor mounted on a nozzle whose length is greater than its width could cause a reduced signal capacity which must be accounted for by the MT5xxx. The MOUNTING TYPE corresponding to the installation must be entered correctly. The MOUNTING TYPE should fall into one of the categories listed below:
PLATE - a flat surface roof or metal disk used for signal launch
COUPLING PLATE - a coupling or nipple fitting welded to a flat ceiling or launch plate.
NOZZLE/FLANGE H>S - A nozzle with a greater height than diameter.
NOZZLE/FLANGE H<S - A Nozzle with a lesser height than diameter.
STILLING WELL - a continuous metal pipe from the process connection to the end of the measuring range.
EXT. CHAMBER - an external metal chamber with side connections.
2WARNING - Adjustment of this parameter may disturb settings in your Extended Parameters. Please verify Extended Parameters are set correctly for the application. |
26 |
Plate |
27 |
Coupling/Plate |
28 |
Nozzle/Flange H>S |
29 |
Nozzle/Flange H<S |
30 |
Stilling Well or External Chamber |
31 |
Nozzle Length |
32 |
Also known as nozzle blanking distance, this setting allows the transmitter to ignore anything within the designated distance. The distance will be in the units designated in the UNITS parameter. At a minimum, enter the length of the mounting nozzle from the face of the sensor to the ceiling of the tank. Additional distance can be added in order to ignore unwanted false reflections.
2CAUTION: This entry will allow the transmitter to ignore any reading in the designated area including the level you are measuring if it rises to this range.
2WARNING - Adjustment of this parameter may disturb settings in your Extended Parameters. Please verify Extended Parameters are set correctly for the application |
33 |
.2f |
34 |
.1f |
35 |
.0f |
36 |
Probe Length |
37 |
Also described as insertion length, PROBE LENGTH is the measured distance from the bottom thread of the process fitting (or the face of the flange) to the end of the probe. This value must be entered in units that correspond to the UNITS parameter. |
38 |
Blanking Distance |
39 |
Blanking is a measured area which the MT5xxx will be set to ignore INCLUDING the nozzle distance. It may be necessary to extend the Blanking further past the nozzle to ignore reflections from the top portion of the probe. Blanking is set in terms of UNITS. To adjust the Blanking, enter the distance from the Reference Measurement to be ignored. Do not blank into your measuring range. Signal will be lost. |
40 |
Offset |
41 |
Offset is a parameter which may be used to compensate for an un-measureable area below a probe OR to align the measurement of the MT5xxx with another device. The value entered in the Offset will be Added to or subtracted from the LVL indication on the main display as well as the output signal.
Example: If the end of the probe were 4 inches off the bottom of the tank, the OFFSSET would be 4 inches. If the actual Measured Level were 21 inches after entering the OFFSET, the local indicator would indicate 25 inches (21 +4) and the output signal would indicate a level of 25 inches. |
42 |
Gas Phase Dielectric |
43 |
Liquid Phase Dielectric |
44 |
The DIELECTRIC setting is an optional entry. It is not used to set or establish any operating parameters within the unit. It will not be necessary to know the exact dielectric constant of the process or to enter a valid value in this setting.
NOTE: If the application was for interface measurement, you would need to use the parameter UPPER DIELECTRIC. |
45 |
Language |
46 |
The MT5xxx has been equipped with several different operating languages to assist in the setup of the unit. When a specific language is selected, the titles of the menu items will be translated. Abbreviations specific to the MT5xxx will remain unchanged as icons regardless of language selection. Available LANGUAGES include: o English o French o Spanish o Portuguese o Italian o Russian o Chinese (Mandarin). |
47 |
English |
48 |
French |
49 |
German |
50 |
Spanish |
51 |
Portuguese |
52 |
Italian |
53 |
Russian |
54 |
Polish |
55 |
Chinese |
56 |
Threshold |
57 |
The Threshold voltage provides a method of signal detection along the waveform. The signal from the process reflection must cross this barrier to be detected as a signal. The MT5xxx is designed to detect the first pulse crossing the Threshold. The LEVEL THRESHOLD may need to be increased to avoid baseline interference or decreased to detect the correct pulse. |
58 |
Low Trim Point |
59 |
Lower Trim Count |
60 |
High Trim Point |
61 |
High Trim Count |
62 |
Sensor Reference |
63 |
Gain |
64 |
GAIN is a factory set function designed to adjust the return pulse to the best possible signal to noise ratio. The GAIN setting will be optimized by the MT5xxx based on the entries from the BASIC SETUP menu. Increasing the GAIN setting will amplify the noise as well as the return pulse. Lowering the GAIN setting will decrease the return pulse as well as the noise. |
65 |
Range |
66 |
The RANGE setting is determined by the PROBE LENGTH.
RANGE 1 is set for probes shorter than 100 feet.
RANGE 2 is set for probes from 100 to 200 feet.
Changing the RANGE setting will erase all factory trim settings and calibration values. Changing the RANGE setting is not recommended unless a commitment to changing the physical probe length has been made. |
67 |
1 Short Range |
68 |
2 Long Range |
69 |
Shape |
70 |
The SHAPE function will be set based on the mounting configuration. Like the GAIN function it is designed to create the best signal to noise ratio from the return pulse. The SHAPE setting will determine how the signal is amplified. |
71 |
1 |
72 |
2 |
73 |
PV |
74 |
LEVEL PV is a function which allows the user to determine which variable the OUTPUT of the MT5100 will be based upon. Selections for OUTPUT are Total and Interface. Total and Interface are the actual linear measurements the MT5100 is interpreting from its configuration. Total is the top level of all liquids and Interface is the level of the lower liquid in the vessel. |
75 |
Total |
76 |
Interface |
77 |
Measure Mode |
78 |
The MT5xxx can be used to measure Media Level or Ullage.
Media Level refers to a Level Measurement from the end of the probe to the surface of the product level. Said differently, it is measuring the amount of product in the tank.
2Ullage refers to a Level Measurement from the face of the sensor to the surface of the product being measured. Said differently, it is measuring the amount of vapor space in the tank.
2Factory default the MEASURE MODE will be Media Level.
Media Level = Level in the tank
Ullage = vapor space in the tank |
79 |
Media Level |
80 |
Ullage |
81 |
Available Levels |
82 |
Total Only |
83 |
Total & Interface |
84 |
Device Status Bits 0 |
85 |
EEProm Status |
86 |
ALU Status |
87 |
LCD Status |
88 |
External Ram Status |
89 |
Malloc Status |
90 |
Data Acq Status |
91 |
Level Status |
92 |
Interface Status |
93 |
Access to Extended Parameters |
94 |
Raw Level |
95 |
Raw Level- The raw count measured for the total level |
96 |
Counts |
97 |
If the UPPER DIELECTRIC is not known, the ACTUAL INTERFACE level can be entered into this menu item and the UPPER DIELECTRIC will be reverse calculated. The ACTUAL INTERFACE will be measured from the end of the probe in the selected UNITS. |
98 |
Alarm Delay |
99 |
sec |
100 |
Software Version |
101 |
Loop Warning Variables |
102 |
Loop Warning Variables- Variables that display a warning message before new values are sent. |
103 |
Linearization Units |
104 |
LIN UNITS allows the selection of the desired output UNITS for the linearization table. LIN UNITS can be in Level, %, Volume or Flow units. Please see the Installation & Maintenance Manual or menu contents for unit options. |
105 |
Linearization Mode |
106 |
Determines how the values in the table will be assigned; either by entering the input values manually or by raising the tank level and entering the values automatically.
- Manual Mode allows the entry of the input values along with the desired respective output level.
- Automatic mode requires the level of the product to be at the measured level when the respective output value is set.
NOTE: Manual mode will produce a more exact linearization profile compared to Automatic mode. |
107 |
Automatic |
108 |
Manual |
109 |
Linearization Minimum |
110 |
The value assigned to the lowest measurable point along the PROBE LENGTH. Typically this will be set to 0, although it is not required. |
111 |
.5f |
112 |
Linearization Maximum |
113 |
The value assigned to the highest measurable point along the PROBE LENGTH. This value must be greater than the largest value entered in the Linearization Table. |
114 |
Input 1 |
115 |
Input 2 |
116 |
Input 3 |
117 |
Input 4 |
118 |
Input 5 |
119 |
Input 6 |
120 |
Input 7 |
121 |
Input 8 |
122 |
Input 9 |
123 |
Input 10 |
124 |
Input 11 |
125 |
Input 12 |
126 |
Input 13 |
127 |
Input 14 |
128 |
Input 15 |
129 |
Input 16 |
130 |
Input 17 |
131 |
Input 18 |
132 |
Input 19 |
133 |
Input 20 |
134 |
Output 1 |
135 |
Output 2 |
136 |
Output 3 |
137 |
Output 4 |
138 |
Output 5 |
139 |
Output 6 |
140 |
Output 7 |
141 |
Output 8 |
142 |
Output 9 |
143 |
Output 10 |
144 |
Output 11 |
145 |
Output 12 |
146 |
Output 13 |
147 |
Output 14 |
148 |
Output 15 |
149 |
Output 16 |
150 |
Output 17 |
151 |
Output 18 |
152 |
Output 19 |
153 |
Output 20 |
154 |
Clear Table |
155 |
Selecting CLEAR TABLE will completely erase all values from the Linearization Table. |
156 |
Reload Table |
157 |
Selecting RELOAD TABLE will reinstall the values of a Linearization Table that have been stored in the Back Up file of the MT5xxx. |
158 |
Backup Table |
159 |
Selecting BACKUP TABLE will store all of the values in the Linearization Table to a Back Up file in the EPROM of the MT5xxx. |
160 |
Input Table |
161 |
LIN TABLE contains the parameters used to collate Measured or Input Level and a user selected set of values for Output Values. Table points will be entered based on the LIN MODE. Table points must be entered from smallest value to largest value from point 01 to point 20.
2In Manual Mode, the table will ask for Output Point 01 -20 THEN ask for the corresponding Input Point 01-20. The Output Point is the desired reading. The Input Point is the Measured Level or Input Value.
2In Automatic Mode, the table will only ask for the Output Point 01-20. The corresponding Input Point will be gained by setting the level to the correct location along the PROBE LENGTH.
2CAUTION -DO NOT use zero as table point 01. This must be a positive value or it will not function properly. |
162 |
Output Table |
163 |
Linearization Values |
164 |
|
165 |
Input |
166 |
Output |
167 |
1) |
168 |
2) |
169 |
3) |
170 |
4) |
171 |
5) |
172 |
6) |
173 |
7) |
174 |
8) |
175 |
9) |
176 |
10) |
177 |
11) |
178 |
12) |
179 |
13) |
180 |
14) |
181 |
15) |
182 |
16) |
183 |
17) |
184 |
18) |
185 |
19) |
186 |
20) |
187 |
Incorrect Language Code reported. Device uses English |
188 |
Illegal Probe Type |
189 |
Illegal Mounting Type |
190 |
Illegal Mounting Type for the given Probe Type (Check the manual) |
191 |
Level Offset Reset |
192 |
Probe Length Too Small |
193 |
Probe Length Too High |
194 |
Nozzle Length Too Small |
195 |
Nozzle Length Too High |
196 |
Interface Offset Reset |
197 |
Illegal length units |
198 |
Level and Interface Offset Reset |
199 |
Offset Too Small |
200 |
Offset Too High |
201 |
Interface Offset Too Small |
202 |
Interface Offset Too High |
203 |
Gas Phase Dielectric Too Small |
204 |
Gas Phase Dielectric Too High |
205 |
Liquid Phase Dielectric Too Small |
206 |
Liquid Phase Dielectric Too High |
207 |
Actual Level Too Small |
208 |
Actual Level Too High |
209 |
ULD Mode Not Enabled |
210 |
Command Not Implemented |
211 |
Blanking Distance Too Small |
212 |
Blanking Distance Too High |
213 |
Threshold Too Small |
214 |
Threshold Too High |
215 |
Gain Too Small |
216 |
Gain Too High |
217 |
Point index too large |
218 |
Applied Process Too High |
219 |
Applied Process Too Low |
220 |
Input Point Too High |
221 |
Input Point Too Small |
222 |
Output Point Too High |
223 |
Output Point Too Small |
224 |
Illegal Input units |
225 |
Illegal Output units |
226 |
Invalid Mode requested |
227 |
Invalid Selection. The requested action was not valid. |
228 |
Invalid Input Mode Selection |
229 |
Output Minimum Too High |
230 |
Output Minimum Too Small |
231 |
Output Maximum Too High |
232 |
Output Maximum Too Small |
233 |
tmp pv |
234 |
Position in Data Array is Too High |
235 |
Too Few Data Bytes Received |
236 |
Device is not updating Output Data |
237 |
Number of requested Wave form points is Too Small (can not be 0) |
238 |
LTP and HPT returned in inches: Current Device EU set to % |
239 |
Parameter rounded to nearest possible value |
240 |
Voltage magnitude of device waveform |
241 |
Amplitude |
242 |
Level Threshold |
243 |
TH_level_scaled |
244 |
Wave Position |
245 |
Zero |
246 |
calc thold |
247 |
Distance |
248 |
Relative distance of device waveform |
249 |
Wave Increment |
250 |
Waveform Start |
251 |
Waveform End |
252 |
X Increment |
253 |
Wave Points Required |
254 |
Waveform->Coupler |
255 |
Show Data |
256 |
' |
257 |
Level Waveform |
258 |
Waveform->Level |
259 |
Waveform->End |
260 |
Waveform At Coupler |
261 |
D/A Trim |
262 |
MT5200 |
263 |
Device Setup |
264 |
Basic Setup |
265 |
BASIC SETUP is the menu of the minimum settings required to tune the device for specific installation conditions. At a minimum, the items in the BASIC SETUP menu will need to be entered for the MT5xxx to operate. |
266 |
Output Setup |
267 |
Hart Settings |
268 |
Extended Setup |
269 |
Linearization |
270 |
Setup |
271 |
The LINEARIZATION TABLE allows a set of output values to be assigned to input level points along the PROBE LENGTH.
The points in the table can be assigned exact measured values to linearize the measured level for increased accuracy at the top and bottom of the probe, assigned volume points for tank strapping, or assigned flow rates for measurement of flow in an open channel. |
272 |
Configure Tables |
273 |
Extended Parameters |
274 |
Device Parameters |
275 |
Device Info |
276 |
Revision Info |
277 |
Process Variables |
278 |
Test Device |
279 |
Device Status |
280 |
MT5200 Waveform |
281 |
MT5xxx Waveform View |
282 |
Signal Conditioning |
283 |
K-Tek Assistance |
284 |
For assistance in Setup, Commissioning, |
285 |
or Troubleshooting or to schedule |
286 |
a service technician onsite visit, |
287 |
please contact us at: |
288 |
Email: service@ktekcorp.com |
289 |
Phone: + 1 (225) 673.6100 |
290 |
Fax: + 1 (225) 673.2525 |
291 |
For manuals and other info: |
292 |
Website: ktekcorp.com |
293 |
write_variables |
294 |
Range Values |
295 |
Sensors |
296 |
Output Conditioning |
297 |
Analog Output |
298 |
Sensor Info |
299 |
Diagnostics |
300 |
Waveform at Coupler |
301 |
Waveform Parameters |
302 |
Waveform at Level |
303 |
Waveform at End |
304 |
Modify Extended Parameters |
305 |
Disable Point |
306 |
Disable a point in the Linearization Table |
307 |
Enable/Edit Point |
308 |
Enable/Edit a point in the Linearization Table. Initially, points are set to NAN (not a number). By entering a valid value for point n (value must be between value of point n-1 and point n+1), the point is Enabled. To disable a point, use the Disable Menu. |
309 |
Set Actual Level |
310 |
K-TEK |
311 |
MT5000 |
312 |
MT5200 |
313 |
Primary Variable |
314 |
2nd Variable |
315 |
Reserved 01 |
316 |
Program Flow Status |
317 |
CRC Status |
318 |
Reserved 04 |
319 |
Reserved 05 |
320 |
Reserved 06 |
321 |
Reserved 07 |
322 |
Reserved 08 |
323 |
Common Tables |
324 |
Interoperable * |
325 |
Universal |
326 |
Common Practice |
327 |
Pressure Universal |
328 |
Pressure Common |
329 |
Menu |
330 |
Rosemount Magflow |
331 |
Rosemount Pressure |
332 |
Moore Products |
333 |
Siemens Pressure |
334 |
P2 Common |
335 |
Munge |
336 |
Analytical Oxygen/Combustion/Methane/CO |
337 |
Flow Totalizer - Rate Indicator |
338 |
Flow Variable Area |
339 |
Flow Coriolis Mass |
340 |
Level Ultrasonic |
341 |
Level Radar - Microwave |
342 |
Pressure Absolute |
343 |
Level Capacitance |
344 |
Pressure Differential |
345 |
Level Hydrostatic |
346 |
Pressure Absolute/Relative |
347 |
Level Microwave |
348 |
Level Radar |
349 |
Level Density - Nuclear |
350 |
Pressure Deltabar S Evolution |
351 |
Pressure Cerabar S Evolution |
352 |
Flow Electromagnetic |
353 |
Flow Vortex |
354 |
Flow Magmeter - Rack Version |
355 |
Flow High Performance Magmeter |
356 |
Flow Mass |
357 |
Flow Ultrasonic |
358 |
Flow Magnetic |
359 |
Flow Magnetic - Custody Transfer |
360 |
Flow 2-wire Magnetic |
361 |
Flow Coriolis Mass - Custody Transfer |
362 |
Flow 2-wire Vortex |
363 |
Flow Thermal |
364 |
Temperature Head Mounted |
365 |
Temperature Compact |
366 |
Temperature DIN Rail Mounted |
367 |
Analytical pH |
368 |
Analytical Conductivity - Conductive |
369 |
Analytical Conductivity - Inductive |
370 |
Temperature Sensor |
371 |
Level Servo |
372 |
Temperature DIN Rail |
373 |
Temperature |
374 |
Analytical ORP |
375 |
Analytical pION |
376 |
Analytical IConc |
377 |
Analytical Electrode Conductivity |
378 |
Analytical Toroidal Conductivity |
379 |
Valve Controller |
380 |
Pressure |
381 |
Pressure Multivariable |
382 |
Analytical pH/ORP |
383 |
Flow Coriolis |
384 |
Analytical Conductivity |
385 |
Valve Positioner/Pneumatic |
386 |
Temperature Dual Input |
387 |
Valve Actuator |
388 |
Analytical Density - Nuclear |
389 |
Level Continuous Gamma |
390 |
Level Laser Ranging |
391 |
Pressure Safety |
392 |
Pressure P, dP + Multivariable |
393 |
Temperature 2-wire |
394 |
Pressure w/ PID |
395 |
Pressure Saturated Steam |
396 |
Analytical Density - Gamma Ray |
397 |
Level Gamma Ray |
398 |
Analytical Weight - Gamma Ray |
399 |
Level w/ Density - Gamma Ray |
400 |
Analytical Motorized Density |
401 |
Flow Multivariable Mass |
402 |
Temperature Multivariable |
403 |
Specialty HART-to-Analog Signal Conv |
404 |
Flow dP |
405 |
Pressure Low Power |
406 |
Pressure Certified SIL2 |
407 |
Interoperable |
408 |
Analytical Density |
409 |
Valve Positioner/Electropneumatic |
410 |
Flow Magnetic Inductive |
411 |
Flow |
412 |
Analytical Oxygen |
413 |
Analytical |
414 |
Analytical Opacity Monitor |
415 |
Analytical Oxygen/Combustion |
416 |
Analytical 2-wire Conductivity |
417 |
Analytical 2-wire Conductivity w/ pure H20 |
418 |
Analytical 2-wire Conductivity w/ % conc |
419 |
Analytical 2-wire Oxygen/Chlorine/Ozone |
420 |
Analytical 2-wire pH/ORP |
421 |
Analytical 2-wire Contacting/Toroidal |
422 |
Analytical Oxygen - High Temperature |
423 |
Analytical Conductivity w/ % conc |
424 |
Analytical pH/ORP/ISE |
425 |
Analytical Amperometric Analyzer |
426 |
Pressure Pressure/Level |
427 |
Analytical Consistency |
428 |
Analytical Microwave-Pulp Consistency |
429 |
Valve Digital Positioner |
430 |
Valve Positioner |
431 |
Valve Smart Valve Positioner |
432 |
Temperature Differential |
433 |
Analytical Dissolved Oxygen |
434 |
Analytical pH Controller |
435 |
Analytical Conductivity/Resistivity Controller |
436 |
Analytical Conductivity/Resistivity |
437 |
Level Displacement |
438 |
Temperature w/ PID |
439 |
Valve Universal Positioner |
440 |
Level Radar - Reflex |
441 |
Valve Digital Positioner w/ PID |
442 |
Valve Intelligent Positioner |
443 |
Analytical Gas Detector |
444 |
Analytical Infrared Gas Detector |
445 |
Analytical Electrochemical Gas Detector |
446 |
Level Magnostrictive |
447 |
Valve On/Off Valve Controller |
448 |
Level Radar - Pulse |
449 |
Analytical Corrosion |
450 |
Level Continuous Capactive |
451 |
Valve Damper Actuator |
452 |
Valve Electric Damper Actuator |
453 |
Flow Electronic |
454 |
Flow Vortex - Multiparameter Mass |
455 |
Analytical Flame Detector |
456 |
Level Nuclear |
457 |
Analytical Density - Radiometric |
458 |
Level Radiometric |
459 |
Analytical Gas/Steam |
460 |
Level Nucleonic |
461 |
Analytical Blade Consistency |
462 |
Analytical Rotary Consistency |
463 |
FMU860 |
464 |
DT |
465 |
DVC |
466 |
FCX |
467 |
AS800 |
468 |
340T |
469 |
340C |
470 |
344 |
471 |
Siemens Micro K |
472 |
SITRANS L |
473 |
SIPAN PH |
474 |
SITRANS P |
475 |
75SMT |
476 |
UNIDELTA |
477 |
8320 |
478 |
SX5100 |
479 |
TSV175 |
480 |
DMU |
481 |
3780 |
482 |
BM70 |
483 |
8u |
484 |
Are you sure you want to clear the table? |
485 |
tmp_av |
486 |
CAUTION: Adjusting the following parameters may adversely affect the performance of this device!
Please contact K-Tek if you are uncertain about how changing these settings will affect the performance of the device!
Click OK to continue or ABORT to return to the previous menu. |
487 |
Enter Password to Continue |
488 |
Save Changes? |
489 |
Yes;No |
490 |
Invalid Password Entered |
491 |
Point to Disable |
492 |
ptstr |
493 |
Disable Point? |
494 |
Point to Enable/Edit |
495 |
lin_table_input_index |
496 |
Enable/Edit Point? |
497 |
Input Value - Point |
498 |
Output Value - Point |
499 |
Enter Actual Level: |
500 |
Method Failed Due To Error |