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Example 2:
A pump set comprising 2 inverters (N=2 detected automatically) of which all inverters are active and
simultaneous (default setting NA=N and NC=NA) and one as reserve (IC=reserve on one of the two
inverters).
The effect is as follows: the inverter not configured as reserve always starts up first; if the pressure reached
is too low, the second inverter, configured as reserve, also starts up. In this way, the use of one inverter in
particular is preserved (the inverter configured as reserve), but is always available as a support when
necessary in the event of increased hydraulic loads.
Example 3:
A pump set comprising 6 inverters (N=6 detected automatically) of which 4 are set as active (NA=4), 3
simultaneous (NC=3) and 2 as reserve (IC=reserve on two inverters).
The effect is as follows: a maximum of 3 inverters start up simultaneously. Operation of the 3 inverters
enabled for simultaneous mode is implemented in rotation between the 4 inverters to remain within the
maximum operating time of each ET. In the event of a fault on one of the active inverters, no reserve unit is
started up as no more than three inverters can be started up at a time (NC=3) and there are still three active
inverters present. The first reserve unit intervenes only when one of the remaining three has a fault; the
second reserve is started up when another of the three (including the first reserve) has a fault.
6.6.9
ET: Exchange time
This sets the maximum continuous operating time of an inverter within a group. It is only applicable on pump
sets with interconnected inverters (link). The time can be set between 10 s and 9 hours; the default setting is
2 hours.
When the time ET of an inverter has elapsed, the system starting order is re-assigned so that the “expired”
inverter is set to minimum priority. This strategy aims at reducing use of the inverter that has already been in
operation, and to balance operating times of the various units in the group. Despite assignment as the last
unit in the starting order, if the hydraulic load requires intervention of this specific inverter, it is started up to
guarantee adequate system pressure.
The starting priority is re-assigned in two conditions, according to the time ET:
1) Exchange during pumping process: when the pump is active continuously through to exceeding the
maximum absolute pumping time.
2) Exchange
on
standby: when the pump is on standby but 50% of the time ET has been exceeded.
6.6.10 CF: Carrier frequency
This sets the carrier frequency of the inverter modulation. The value set as default, is the correct value in
most cases, and therefore modifications are not recommended unless fully aware of the changes made.
6.6.11 AC:
Acceleration
This sets the speed of variation at which the inverter increases frequency. This is more significant during
start-up than during regulation. In general the default value is the optimal setting, but in the event of
problems with start-up this value can be modified.
6.6.12 AE: Enabling the anti-blocking function
This function serves to avoid mechanical blockages in the event of prolonged disuses; it acts by periodically
activating the pump in rotation.
When this function is enabled, every 23 hours the pump complete an unblocking cycle lasting 1 minute.
Summary of Contents for MCE-30/P
Page 278: ...274 1 276 2 279 3 280 4 282 5 283 6 4 20 284 7 285 8 286 9 287 10 290 11 290 12 292...
Page 279: ...275 IEC 60634...
Page 280: ...276 1 6 MCE 55 P e MCE 30 P 1 1 1...
Page 282: ...278 2 5 2 1 2 1 2 2 1 1 2 1 2 L L L 2 2 4 15...
Page 283: ...279 2 2 2 1 2 2 1 1 4 3 1 RST 2 2 4 3 1 8 3 3...
Page 284: ...280 AS 3 3 2 2 1 2 4 3 1 UVW 4 2 4 3 50 60 200 1...
Page 286: ...282 4 2 2 3 Press e Flow 5 A B C D d1 d2...
Page 291: ...287 3 9 64 X 128 4 MODE SET 10 7 MODE 1 SET 7 3 EEprom SET 6 SET MODE...
Page 292: ...288 3 1 9 3 2 1 2 3 2 1 MODE SET MODE 8 2 2 5 5 5 2 2 8...
Page 294: ...290 3 2 2 11 SET 10 15 12 11...
Page 296: ...292 12 11 13 GO SB...
Page 297: ...293 4 4 1 Link 8 4 2 4 2 1 Link 2 Link 5...
Page 300: ...296 4 3 1 2 1 4 3 1 3 SET MODE LA RC FN MS FS FL AC AE O1 1 O2 2 4 4 ET 6 6 9 FL...
Page 326: ...322 BL 10 6 24 24 30 LP 295 348 HP OT TE 100 C 85 C OB BT 120 C 100 C OC 10 6 OF 10 6 29...
Page 327: ...323 8 8 1 PMW 4 2 8 2 8 3 8 3 SET EE EEprom FLASH...
Page 494: ...490 1 492 2 495 3 496 4 498 5 499 6 4 20 mA 500 7 501 8 502 9 503 10 506 11 506 12 508 13 523...
Page 495: ...491 IEC 364 inverter...
Page 496: ...492 1 Inverter inverter inverter 6 inverter MCE 55 P MCE 30 P 1 1 1...
Page 502: ...498 4 2 2 3 Press Flow 5 A B C D d1 d2...
Page 507: ...503 3 9 oled 64 X 128 4 MODE SET 9 inverter 7 MODE 1 SET 7 3 EEprom SET 6 SET MODE...
Page 508: ...504 3 1 9 3 2 1 2 3 2 1 MODE SET Setpoint MODE 8 ONOMA TOY MENOY 2 Setpoint 2 5 5 5 2 2 8...
Page 512: ...508 12 11 12 GO SB FAULT...
Page 543: ...539 8 8 1 PMW 4 2 8 2 inverter 8 3 8 3 inverter SET EEPROM FLASH setpoint...
Page 599: ...595...