In the catalog, the components in the cabinets, for example, contactor, commutating reactor and busbars are dimensioned and installed based on the rated converter current. In practice, when referred to the actual motor load current, these components can be overdimensioned. On request, and when specifying the load cycle and the motor currents, a check can be made as to whether it makes economic sense to adapt the current-carrying components to the plant requirements.
Determining the dynamic overload capability
Function overview
The rated DC current specified on the unit rating plate (max. permissible continuous DC current) may be exceeded in operation. The extent to which this value is exceeded and how long this lasts are subject to certain limits, which are explained in more detail in the following.
The absolute upper limit for the absolute value of the overload currents is 1.8x the rated DC current. The max. overload duration depends on the time characteristic of the overload current as well as on the load history of the unit and also depends on the specific unit.
Each overload cycle must be preceded by an underload cycle (load cycle with load current < rated DC current). Once the max. permissible overload duration has elapsed, the load current must return to at least an absolute value ? the rated DC current.
The dynamic overload duration is made possible by thermally monitoring the power section (I2t monitoring). I2t monitoring uses the time characteristic of the actual load current to calculate the time characteristic of a substitute value for the increase of the depletion layer temperature of the thyristors above the ambient temperature. In this case, unit-specific properties (e.g. thermal resistances and time constants) are incorporated in the calculation. When the converter unit is switched on, the calculation process starts with the initial values that were determined before the shutdown/line supply failure. The environmental conditions (ambient temperature and installation altitude) must be taken into account when setting a parameter.
I2t monitoring responds when the calculated substitute depletion layer temperature rise exceeds the permissible value. Two alternatives can be parameterized as response:
Alarm with a reduction of the armature current setpoint to the rated DC current or
Fault with unit shutdown
The I2t monitoring can be disabled. In this case, the armature current is limited to the rated DC current.
Configuring for the dynamic overload capability
The configuring sheets contain the following information:
The max. overload duration tan when starting with a cold power section and specified, constant overload,
The max. zero current interval tab (max. cooling down time) until the "cold" thermal state of the power section is reached, and
Limit characteristic fields for determining the overload capability during thermally stabilized, intermittent operation with overload (periodic duty cycles)
Remark: The power section is considered to be "cold" if the calculated substitute depletion layer temperature rise is less than 5 % of its max. permissible value. This state can be queried using a binary user-assignable output.
Structure of the limit characteristic fields for intermittent operation with overload
The limit characteristic fields refer to a duty cycle of the intermittent overload operation with a total duration (time period) of 300 s. Such a duty cycle comprises two time sections - the base-load duration (armature current actual value ? rated DC current) and the overload duration (armature current actual value ? rated DC current).
Each limit characteristic represents a unit-specific max. base-load current for a specific overload factor (limiting base-load current, specified as a % of the rated DC current) over the min. base-load duration (limiting base-load duration). For the remaining duration of the duty cycle, the max. permissible overload current is determined by the overload factor. If no limit characteristic has been specified for the required overload factor, then it will be subject to the limiting characteristic for the next highest overload factor.
The limit characteristic fields of the particular SINAMICS DC MASTER DC Converter are shown in Catalog D 23.1. The characteristic for the corresponding DC Converter should be used for the SINAMICS DC MASTER Cabinet. Derating data that influence the rated DC current of the unit and therefore the associated characteristic, for example, the installation altitude and the ambient temperature, should be taken from this Catalog D 23.2 Chapter "Technical data".
The limit characteristic fields are valid for a duty cycle of 300 s. Using basic algorithms, duty cycles can be configured with duty cycle durations of longer than or shorter than 300 s. This will now be shown using two basic tasks.
Characteristic example for basic tasks 1 and 2
Basic task 1
Given: Unit, cycle duration, overload factor, overload duration
To be found: (Min.) base-load duration and max. base-load current
Solution:
Cycle duration
< 300 s
? 300 s
1. Determine the characteristic
Select the limit characteristic for the specific unit and the specific overload factor
2. Overload duration300 =
300 s/cycle duration ? overload duration
Overload duration300
3. Base-load duration300 =
300 s – overload duration300
4. Base-load duration300 < base-load duration300 for max. base-load current = 0
Yes: Required duty cycle cannot be configured No: Read the max. base-load current for overload duration300 from the limit characteristic
5. Determine the percentage for the base-load current
Read the percentage for the base-load currents from the diagram
Example for basic task 1
Given:
Unit with 30 A
Cycle duration 113.2 s
Overload factor 1.45
Overload duration 20 s
To be found:
(Min.) base-load duration
Max. base-load current
Solution:
Limit characteristic for a unit with 30 A
Overload factor 1.5
Overload duration300 = 300 s/113.2 s) ? 20 s = 53 s > (see the characteristic example for basic tasks 1 and 2)
Max. base-load current = 44 % Irated = 13.2 A
Basic task 2
Given: Unit, cycle duration, overload factor, base-load current
To be found: Maximum overload duration, minimum base-load duration
Solution:
Cycle duration
< 300 s
? 300 s
1. Determine the characteristic
Select the limit characteristic for the specific unit and the specific overload factor
2. Max. overload duration =
(Cycle duration/300 s) ? overload duration300
300 s – base-load duration300
3. Min. base-load duration =
Cycle duration – max. overload duration
Cycle duration – max. overload duration
Example for basic task 2
Given:
Unit with 30 A
Cycle duration 140 s
Overload factor 1.15
Base load current = 0.6 ? Irated = 18 A
To be found:
Maximum overload duration
Minimum base-load duration
Solution:
Limit characteristic for a unit with 30 A
Overload factor 1.2
Base load current = 60 % Irated > (see characteristic example for basic tasks 1 and 2)
Overload duration300 = 127 s
Max. overload duration = 140 s / 300 s ? 127 s = 59 s
Min. base-load duration = 140 s - 59 s = 81 s
Base-load duration300 = min. base-load duration for 300 s cycle duration (300 s overload duration)
Overload duration300 = max. overload duration for 300 s cycle duration
In order to be able to adapt the SINAMICS DC MASTER as simply as possible to the load profile of the driven machine, in addition to the individual dimensioning using the limit characteristics of the dynamic overload capability, these can also be dimensioned using pre-selected load cycles that are simple to parameterize.
Note:
SINAMICS DC MASTER does not monitor whether the load class - set using parameters - is maintained. If the power section permits it, the unit can operate for overload durations in excess of those defined by the load class. This means that the driven machine of the mechanical system is not protected against overload!
The overload duration that is actually permitted for the power section in question is always longer than the duration defined by the load class, and the SINAMICS DC MASTER does monitor whether the overload duration that is actually permitted for the power section is being adhered to.
Load class (parameter)
Load for the converter
Load cycle
DC I
IDC I continuous (IdN)
DC II
IDC II for 15 min and 1.5 ? IDC II for 60 s
DC III
IDC III for 15 min and 1.5 ? IDC III for 120 s
DC IV
IDC IV for 15 min and 2 ? IDC IV for 10 s
US rating
IUS for 15 min and 1.5 ? IUS for 60 s
Note:
With this setting, for all drive cabinet types, an ambient and/or cooling medium temperature of 40 °C is permissible.
Duty cycles for two-quadrant operation
Supply voltage
SINAMICS DC MASTER converter
Tu1)
Duty cycles
DC I
DC II
DC III
DC IV
US rating Tu = 40 °C
continuous
15 min 100 %
60 s 150 %
15 min 100 %
120 s 150 %
15 min 100 %
10 s 200 %
15 min 100 %
60 s 150 %
V
Type
°C
A
A
A
A
A
A
A
A
A
3 AC 400
6RM8025?6DS22?0AA0
40
60
51.4
77.1
50.2
75.3
46.4
92.8
51.4
77.1
6RM8028?6DS22?0AA0
40
90
74.4
111
72.8
109
65.4
130
74.4
111
6RM8031?6DS22?0AA0
40
125
106
159
103
155
96.3
192
106
159
6RM8075?6DS22?0AA0
35
210
164
247
161
242
136
273
157
236
6RM8078?6DS22?0AA0
35
280
226
340
219
328
201
402
215
323
6RM8081?6DS22?0AA0
35
400
290
435
282
423
244
488
278
417
6RM8085?6DS22?0AA0
35
600
462
693
446
669
413
826
443
665
6RM8087?6DS22?0AA0
35
850
652
978
622
933
609
1 219
619
929
6RM8091?6DS22?0AA0
35
1 200
884
1 326
857
1 286
768
1 537
842
1 263
6RM8093?4DS22?0AA0
35
1 600
1 255
1 883
1 213
1 819
1 139
2 279
1 190
1 785
6RM8095?4DS22?0AA0
35
2 000
1 477
2 216
1 435
2 152
1 326
2 653
1 404
2 106
6RM8098?4DS22?0AA0
35
3 000
2 288
3 432
2 189
3 283
2 164
4 328
2 178
3 267
3 AC 480
6RM8025?6FS22?0AA0
40
60
51.4
77.1
50.2
75.3
46.4
92.8
51.4
77.1
6RM8028?6FS22?0AA0
40
90
74.4
111
72.8
109
65.4
130
74.4
111
6RM8031?6FS22?0AA0
40
125
106
159
103
155
96.3
192
106
159
6RM8075?6FS22?0AA0
35
210
164
247
161
242
136
273
157
236
6RM8078?6FS22?0AA0
35
280
226
340
219
328
201
402
215
323
6RM8082?6FS22?0AA0
35
450
320
480
311
466
274
548
306
460
6RM8085?6FS22?0AA0
35
600
462
693
446
669
413
826
443
665
6RM8087?6FS22?0AA0
35
850
652
978
622
933
609
1 219
619
929
6RM8091?6FS22?0AA0
35
1 200
884
1 326
857
1 286
768
1 537
842
1 263
3 AC 575
6RM8025?6GS22?0AA0
40
60
51.4
77.1
50.2
75.3
46.4
92.8
51.4
77.1
6RM8031?6GS22?0AA0
40
125
106
159
103
155
96.3
192
106
159
6RM8075?6GS22?0AA0
35
210
164
247
161
242
136
273
157
236
6RM8081?6GS22?0AA0
35
400
290
435
282
423
244
488
278
417
6RM8085?6GS22?0AA0
35
600
462
693
446
669
413
826
443
665
6RM8087?6GS22?0AA0
35
800
607
911
581
872
559
1 118
578
867
6RM8090?6GS22?0AA0
35
1 100
804
1 207
782
1 173
689
1 379
766
1 150
6RM8093?4GS22?0AA0
35
1 600
1 255
1 883
1 213
1 819
1 139
2 279
1 190
1 785
6RM8095?4GS22?0AA0
35
2 000
1 663
2 494
1 591
2 386
1 568
3 136
1 569
2 354
6RM8096?4GS22?0AA0
35
2 200
1 779
2 669
1 699
2 549
1 697
3 394
1 678
2 517
6RM8097?4GS22?0AA0
35
2 800
2 136
3 204
2 044
3 066
2 022
4 044
2 024
3 036
3 AC 690
6RM8086?6KS22?0AA0
35
720
553
829
527
791
515
1 031
525
788
6RM8090?6KS22?0AA0
35
1 000
737
1 105
715
1 072
639
1 279
702
1 053
6RM8093?4KS22?0AA0
35
1 500
1 171
1 757
1 140
1 710
1 036
2 073
1 116
1 674
6RM8095?4KS22?0AA0
35
2 000
1 589
2 383
1 522
2 283
1 505
3 011
1 503
2 255
6RM8097?4KS22?0AA0
35
2 600
1 992
2 989
1 906
2 859
1 887
3 774
1 876
2 815
3 AC 830
6RM8088?6LS22?0AA0
35
950
700
1 051
679
1 019
607
1 215
667
1 001
6RM8093?4LS22?0AA0
35
1 500
1 171
1 757
1 140
1 710
1 036
2 073
1 116
1 674
6RM8095?4LS22?0AA0
35
1 900
1 485
2 228
1 421
2 132
1 396
2 793
1 414
2 121
3 AC 950
6RM8096?4MS22?0AA0
35
2 200
1 674
2 511
1 603
2 404
1 570
3 141
1 588
2 382
1) For other temperatures, see under "Coolant temperature and installation altitude" in the catalog part "SINAMICS DC MASTER Cabinet", Section "Ordering and technology" – "Technical data".
Duty cycles for four-quadrant operation
Supply voltage
SINAMICS DC MASTER converter
Tu1)
Duty cycles
DC I
DC II
DC III
DC IV
US rating Tu = 45 °C
continuous
15 min 100 %
60 s 150 %
15 min 100 %
120 s 150 %
15 min 100 %
10 s 200 %
15 min 100 %
60 s 150 %
V
Type
°C
A
A
A
A
A
A
A
A
A
3 AC 400
6RM8013?6DV62?0AA0
40
15
13.9
20.8
13.5
20.2
12.6
25.2
13.9
20.8
6RM8018?6DV62?0AA0
40
30
24.9
37.3
24.2
36.3
22.4
44.8
24.9
37.3
6RM8025?6DV62?0AA0
40
60
53.1
79.6
51.8
77.7
47.2
94.4
53.1
79.6
6RM8028?6DV62?0AA0
40
90
78.2
117
76
114
72.2
144
78.2
117
6RM8031?6DV62?0AA0
40
125
106
159
103
155
95.4
190
106
159
6RM8075?6DV62?0AA0
35
210
164
247
161
242
136
273
157
236
6RM8078?6DV62?0AA0
35
280
226
340
219
328
201
402
215
323
6RM8081?6DV62?0AA0
35
400
300
450
292
438
247
494
285
428
6RM8085?6DV62?0AA0
35
600
470
706
453
680
410
820
450
675
6RM8087?6DV62?0AA0
35
850
658
987
634
951
579
1 159
626
939
6RM8091?6DV62?0AA0
35
1 200
884
1 326
857
1 286
768
1 537
842
1 263
6RM8093?4DV62?0AA0
35
1 600
1 255
1 883
1 213
1 819
1 139
2 279
1 190
1 785
6RM8095?4DV62?0AA0
35
2 000
1 477
2 216
1 435
2 152
1 326
2 653
1 404
2 106
6RM8098?4DV62?0AA0
35
3 000
2 288
3 432
2 189
3 283
2 164
4 328
2 178
3 267
3 AC 480
6RM8013?6FV62?0AA0
45
15
13.9
20.8
13.5
20.2
12.6
25.2
13.9
20.8
6RM8018?6FV62?0AA0
45
30
24.9
37.3
24.2
36.3
22.4
44.8
24.9
37.3
6RM8025?6FV62?0AA0
45
60
53.1
79.6
51.8
77.7
47.2
94.4
53.1
79.6
6RM8028?6FV62?0AA0
45
90
78.2
117
76
114
72.2
144
78.2
117
6RM8031?6FV62?0AA0
45
125
106
159
103
155
95.4
190
106
159
6RM8075?6FV62?0AA0
35
210
164
247
161
242
136
273
157
236
6RM8078?6FV62?0AA0
35
280
226
340
219
328
201
402
215
323
6RM8082?6FV62?0AA0
35
450
320
480
311
466
274
548
306
460
6RM8085?6FV62?0AA0
35
600
470
706
453
680
410
820
450
675
6RM8087?6FV62?0AA0
35
850
658
987
634
951
579
1 159
626
939
6RM8091?6FV62?0AA0
35
1 200
884
1 326
857
1 286
768
1 537
842
1 263
3 AC 575
6RM8025?6GV62?0AA0
40
60
53.1
79.6
51.8
77.7
47.2
94.4
53.1
79.6
6RM8031?6GV62?0AA0
40
125
106
159
103
155
95.4
190
106
159
6RM8075?6GV62?0AA0
35
210
164
247
161
242
136
273
157
236
6RM8081?6GV62?0AA0
35
400
300
450
292
438
247
494
285
428
6RM8085?6GV62?0AA0
35
600
470
706
453
680
410
820
450
675
6RM8087?6GV62?0AA0
35
850
658
987
634
951
579
1 159
626
939
6RM8090?6GV62?0AA0
35
1 100
804
1 207
782
1 173
689
1 379
766
1 150
6RM8093?4GV62?0AA0
35
1 600
1 255
1 883
1 213
1 819
1 139
2 279
1 190
1 785
6RM8095?4GV62?0AA0
35
2 000
1 663
2 494
1 591
2 386
1 568
3 136
1 569
2 354
6RM8096?4GV62?0AA0
35
2 200
1 779
2 669
1 699
2 549
1 697
3 394
1 678
2 517
6RM8097?4GV62?0AA0
35
2 800
2 136
3 204
2 044
3 066
2 022
4 044
2 024
3 036
3 AC 690
6RM8086?6KV62?0AA0
35
760
598
898
575
863
532
1 065
569
853
6RM8090?6KV62?0AA0
35
1 000
737
1 105
715
1 072
639
1 279
702
1 053
6RM8093?4KV62?0AA0
35
1 500
1 171
1 757
1 140
1 710
1 036
2 073
1 116
1 674
6RM8095?4KV62?0AA0
35
2 000
1 589
2 383
1 522
2 283
1 505
3 011
1 503
2 255
6RM8097?4KV62?0AA0
35
2 600
1 992
2 989
1 906
2 859
1 887
3 774
1 876
2 815
3 AC 830
6RM8088?6LV62?0AA0
35
950
700
1 051
679
1 019
607
1 215
667
1 001
6RM8093?4LV62?0AA0
35
1 500
1 171
1 757
1 140
1 710
1 036
2 073
1 116
1 674
6RM8095?4LV62?0AA0
35
1 900
1 485
2 228
1 421
2 132
1 396
2 793
1 414
2 121
3 AC 950
6RM8096?4MV62?0AA0
35
2 200
1 674
2 511
1 603
2 404
1 570
3 141
1 588
2 382
1) For other temperatures, see under "Coolant temperature and installation altitude" in the catalog part "SINAMICS DC MASTER Cabinet", Section "Ordering and technology" – "Technical data".
skener.ru
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Арматура DENDOR
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Датчики и измерители
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Регуляторы и регистраторы
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Пневматическое оборудование
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Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Измерительные приборы
Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 23
Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Системы беспроводного управления «умный дом»
Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 23
Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Бесконтактные выключатели Конечные выключатели Оптические датчики Энкодеры
Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 23
Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
SKW-FS - Установка умягчения
Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 23
Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
Deprecated: Function eregi() is deprecated in /home/h101150-2/siemens71.ru/docs/kip/kip.php on line 30
SKW-FK - Установка обезжелезивания