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- SIMOVERT MASTERDRIVES 6SE70 VC
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Vector 6SE70 VC User manual
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Vector SIMOVERT MASTERDRIVES 6SE70 VC is a versatile and powerful drive system that offers a wide range of features and benefits for demanding applications. With its advanced vector control technology, the 6SE70 VC delivers precise speed and torque control, even under challenging operating conditions. The drive also features a robust design and a variety of built-in protection mechanisms, making it ideal for use in harsh industrial environments. Additionally, the 6SE70 VC offers a range of communication options, allowing for easy integration into complex automation systems.
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Quick Startup Guide for
SIMOVERT MASTERDRIVES
6SE70 VC
Vector Control
Section 1:
Section 2:
Section 3:
Section 4:
Parameterization of Base Drive
Parameterization of Rectifier
Simovis Trace Setup Method
When Should a Drive be re-Tuned
DROM-02069
We reserve the right to modify functions, technical data, standards, drawings and parameters.
We have checked the contents of this document to ensure that they coincide with the described hardware and software. However, deviations cannot be completely ruled-out, so we cannot guarantee complete conformance.
However, the information in this document is regularly checked and the necessary corrections will be included in subsequent editions. We are thankful for any recommendations or suggestions.
e-mail:
mailto:[email protected]
Page 2 Version 1.0 March 1, 2000
NOTE:
These instructions do not purport to cover all details or variations in equipment, nor to provide for every possible contingency to be met in connection with installation, operation or maintenance. Should further information be desired or should particular problems arise which are not covered sufficiently for the purchaser’s purposes, please contact your local Siemens office.
Further, the contents of these instructions shall neither become a part of nor modify any prior or existing agreement, commitment or relationship. The sales contract contains the entire obligation of Siemens Energy & Automation. The warranty contained in the contract between the parties is the sole warranty of Siemens Energy &
Automation. Any statements contained herein do not create new warranties nor modify the existing warranty.
Note:
This Quick Startup Guide is not an autonomous document, but is intended to direct users to the section in the Operating Instructions which are important for start-up. Thus, these brief instructions can only be completely valid when used in conjunction with the Operating
Instructions. It is especially important to observe the warning and information regarding potential hazards in the Operating Instructions.
Warning:
• Electrical equipment has parts an components which are at hazardous voltage levels.
• If the warning information in the detailed Operating Instructions is not observed, this can result in severe bodily injury or material damage.
• Only appropriately qualified personnel may work with this equipment.
• These personnel must be knowledgeable with all of the warning information and service/maintenance measures of the Operating Instruction.
Perfect and safe operation of this equipment assumes professional transport, storage, erection and installation as well as careful operating control and service.
Version 1.0 March 1, 2000 Page 3
Page 4 Version 1.0 March 1, 2000
Section 1:
Parameterization of Base Unit
SIMOVERT MASTERDRIVES
6SE70 VC
Vector Control
1.1 Power Section Defintion
1.3.1 Volts/Hz without encoder feedback
1.3.2 Volts/Hz with encoder feedback
1.3.3 Vector Control without encoder feedback
1.3.4 Vector Control with encoder feedback
1.4 Drive Control Word
1.5 Communication Board Configuration
Note: Refer to Operating Instruction Manual for power and control connections.
Version 1.0 March 1, 2000 Page 5
Page 6 Version 1.0 March 1, 2000
1.1 Power Section Definition
Note: Power Section is pre-defined at the factory. Power Section
Definition is required if a new board CUVC board is put into the drive or boards are switched between units with different ratings. Drive should be defaulted and re-parameterized after Power Section Definition.
P060 = 8
P070 = ?
P060 = 1
Select “Power Section Definition”
Menu
Input Code for unit (PWE)
(Refer to Compendium section
6.3 or use the bookmark “PWE
Listing” or check the following table)
Return to Parameter Menu
Version 1.0 March 1, 2000 Page 7
Unit List
P070:
P072:
Parameter Value (PWE)
Rated Output Current in Amps In[A]
Frequency Converter
AC-AC type
3 AC 200V to 230V PWE
14
21
27
32
39
48
54
64
70
13
29
41
87
Order Number
6SE7021-1CA60
6SE7021-3CA60
6SE7021-8CB60
6SE7022-3CB60
6SE7023-2CB60
6SE7024-4CC60
6SE7025-4CD60
6SE7027-0CD60
6SE7028-1CD60
6SE7031-0CE60
6SE7031-3CE60
6SE7031-6CE60
6SE7032-0CE60
Frequency Inverter
DC-AC type
DC 270V to 310V
71
20
34
86
92
PWE
15
22
28
33
40
49
55
65
Order Number
6SE7021-1R60
6SE7021-3RA60
6SE7021-8RB60
6SE7022-3RB60
6SE7023-2RB60
6SE7024-4RC60
6SE7025-4RD60
6SE7027-0RD60
6SE7028-1RD60
6SE7031-0RE60
6SE7031-3RE60
6SE7031-6RE60
6SE7032-0RE60
In[A] *1
10.6
13.3
17.7
22.9
32.2
44.2
54.0
69.0
81.0
100.0
131.0
162.0
202.0
In[A] *1
10.6
13.3
17.7
22.9
32.2
44.2
54.0
69.0
81.0
100.0
131.0
162.0
202.0
Page 8 Version 1.0 March 1, 2000
Frequency Converter
AC-AC type
3 AC
380V to 460V
PWE
Air Cooled
25
35
42
46
3
9
11
18
52
56
66
74
82
90
98
102
108
112
116
147
151
164
PWE
Water
Cooled
233
237
168
Order Number
6SE7016-1EA61
6SE7018-0EA61
6SE7021-0EA61
6SE7021-3EB61
6SE7021-8EB61
6SE7022-6EC61
6SE7023-4EC61
6SE7023-8ED61
6SE7024-7ED61
6SE7026-0ED61
6SE7027-2ED61
6SE7031-0EE60
6SE7031-2EF60
6SE7031-5EF60
6SE7031-8EF60
6SE7032-1EG60
6SE7032-6EG60
6SE7033-2EG60
6SE7033-7EG60
6SE7035-1EK60
6SE7036-0EK60
6SE7037-0EK60
In[A] *1
6.1
8.0
10.2
13.2
17.5
25.5
34.0
37.5
47.0
59.0
72.0
92.0
124.0
146.0
186.0
210.0
260.0
315.0
370.0
510.0
590.0
690.0
*
1 Based on 3kHz carrier frequency setting, larger frames have maximum carrier frequency restrictions
Version 1.0 March 1, 2000 Page 9
Frequency Inverter
DC-AC type
DC
510V to 650V
PWE
Air Cooled
127
134
135
140
150
153
154
163
181
185
194
83
91
99
103
109
113
117
120
123
126
4
10
12
19
26
36
43
47
53
57
67
75
PWE
Water
Cooled
206
209
212
213
221
226
236
239
199
167
247
250
244
Order Number In[A] *1
6SE7016-1TA61
6SE7018-0TA61
6SE7021-0TA61
6SE7021-3TB61
6SE7021-8TB61
6SE7022-6TC61
6SE7023-4TC61
6SE7023-8TD61
6SE7024-7TD61
6SE7026-0TD61
6SE7027-2TD61
6SE7031-0TE60
6SE7031-2TF60
6SE7031-5TF60
6SE7031-8TF60
6SE7032-1TG60
6SE7032-6TG60
6SE7033-2TG60
6SE7033-7TG60
6SE7035-1TJ60
6SE7036-0TJ60
6SE7037-0TK60
6SE7038-6TJ60
6SE7041-1TM60
6SE7041-1TK60
6SE7041-3TM60
6SE7041-6TM60
6SE7042-1TQ60
6SE7041-3TL60
6SE7037-0TJ60
6SE7038-6TS60
6SE7041-1TS60
6SE7042-5TN60
860.0
1100.0
1100.0
1300.0
1630.0
2090.0
1300.0
690.0
6450.0
6270.0
2470.0
124.0
146.0
186.0
210.0
260.0
315.0
370.0
510.0
590.0
690.0
6.1
8.0
10.2
13.2
17.5
25.5
34.0
37.5
47.0
59.0
72.0
92.0
Page 10 Version 1.0 March 1, 2000
Frequency Converter
AC-AC type
3 AC
500V to 575V
PWE
Air Cooled
16
23
30
37
1
5
7
44
50
60
62
68
78
84
94
100
104
136
141
143
PWE
Water
Cooled
222
227
229
Order Number
6SE7014-5FB61
6SE7016-2FB61
6SE7017-8FB61
6SE7021-1FB61
6SE7021-5FB61
6SE7022-2FC61
6SE7023-0FD61
6SE7023-4FD61
6SE7024-7FD61
6SE7026-1FE60
6SE7026-6FE60
6SE7028-0FF60
6SE7031-1FF60
6SE7031-3FG60
6SE7031-6FG60
6SE7032-0FG60
6SE7032-3FG60
6SE7033-0FK60
6SE7033-5FK60
6SE7034-5FK60
In[A] *1
4.5
6.2
7.8
11.0
15.1
22.0
29.0
34.0
46.5
61.0
66.0
79.0
108.0
128.0
156.0
192.0
225.0
297.0
354.0
452.0
*
1 Based on 3kHz carrier frequency setting, larger frames have maximum carrier frequency restrictions
Version 1.0 March 1, 2000 Page 11
Frequency Inverter
DC-AC type
DC
675V to 810V
PWE
Air Cooled
79
85
95
101
105
110
114
118
121
124
128
130
132
138
144
17
24
31
38
2
6
8
45
51
61
63
69
148
155
157
159
PWE
Water
Cooled
200
202
204
207
210
214
216
218
224
230
234
195
197
Order Number In[A] *1
6SE7014-5UB61
6SE7016-2UB61
6SE7017-8UB61
6SE7021-1UB61
6SE7021-5UB61
6SE7022-2UC61
6SE7023-0UD61
6SE7023-4UD61
6SE7024-7UD61
6SE7026-1UE60
6SE7026-6UE60
6SE7028-0UF60
6SE7031-1UF60
6SE7031-3UG60
6SE7031-6UG60
6SE7032-0UG60
6SE7032-3UG60
6SE7033-0UJ60
6SE7033-5UJ60
6SE7034-5UJ60
6SE7035-7UK60
6SE7036-5UK60
6SE7038-6UK60
6SE7041-0UM60
6SE7041-1UM60
6SE7041-2UM60
6SE7041-4UM60
6SE7041-4UQ60
6SE7042-1TQ60
6SE7041-6UQ60
1580.0
6SE7041-1UL60 1080.0
6SE7042-4ULJ60 2450.0
6SE7041-1UL60 1230.0
108.0
128.0
156.0
192.0
225.0
297.0
354.0
452.0
570.0
650.0
860.0
990.0
1080.0
1230.0
1400.0
4.5
6.2
7.8
11.0
15.1
22.0
29.0
34.0
46.5
61.0
66.0
79.0
Page 12 Version 1.0 March 1, 2000
Frequency Inverter
DC-AC type
DC
675V to 810V
PWE
Air Cooled
161
165
169
173
177
179
182
186
188
190
192
Frequency Converter
AC-AC type
3 AC
660V to 690V
PWE
Air Cooled
58
72
76
80
88
96
106
137
142
146
Frequency Inverter
DC-AC type
DC
890V to 930V
PWE
Air Cooled
59
73
Version 1.0 March 1, 2000
PWE
Water
Cooled
245
248
251
253
240
242
PWE
Water
Cooled
223
228
232
PWE
Water
Cooled
Order Number In[A] *1
6SE7043-3UR60
6SE7044-1UR60
6SE7044-8UR60
6SE7045-7UR60
6SE7046-5UR60
6SE7036-5UR60
6SE7038-6US60
6SE7041-1US60
6SE7041-2US60
6SE7042-1UN60
6SE7042-3UN60
3270.0
4090.0
4900.0
5720.0
6540.0
4940.0
6540.0
6160.0
5840.0
2050.0
2340.0
Order Number
6SE7026-0HF60
6SE7028-2HF60
6SE7031-0HG60
6SE7031-2HF60
6SE7031-5HF60
6SE7031-7HG60
6SE7032-1HG60
6SE7033-0HK60
6SE7033-5HK60
6SE7034-5HK60
In[A] *1
55.0
82.0
97.0
118.0
145.0
171.0
208.0
297.0
354.0
452.0
Order Number
6SE7026-0WF60
6SE7028-2WF60
In[A]
60.0
82.0
*1
Page 13
DC
890V to 930V
PWE
Air Cooled
PWE
Water
Cooled
77
81
89
97
107
111
115
119
122
125
129
131
133
139
145
149
174
178
180
183
187
189
191
193
152
156
158
160
162
166
170
246
249
252
254
241
243
201
203
205
208
211
215
217
219
225
231
235
238
196
198
Order Number In[A] *1
6SE7031-0WG60
6SE7031-2WF60
6SE7031-5WF60
6SE7031-7WG60
6SE7032-1WG60
6SE7033-0WJ60
6SE7033-5WJ60
6SE7034-5WJ60
6SE7035-7WK60
6SE7036-5WK60
6SE7038-6WK60
6SE7041-0WM60
860.0
990.0
6SE7041-1WM60 1080.0
6SE7041-2WM60 1230.0
1400.0
6SE7041-4WM60
6SE70414WQ60
6SE7041-6WM60
6SE7041-6WM60
1580.0
6SE7034-5WK60
6SE7041-1WL60
452.0
1080.0
6SE7042-4WR60 2450.0
6SE7041-2WL60 1230.0
6SE7043-3WR60 3270.0
6SE7044-1WR60 4090.0
6SE7044-8WR60 4900.0
97.0
118.0
145.0
171.0
208.0
297.0
354.0
452.0
570.0
650.0
6SE7045-7WR60 5720.0
6SE7046-5WR60 6540.0
6SE7036-5WS60 4940.0
6SE7038-6WS60 6540.0
6SE7041-1WS60 6160.0
6SE7041-2WS60 5840.0
6SE7042-1WN60 2050.0
6SE7042-3WN60 2340.0
Page 14 Version 1.0 March 1, 2000
1.2 Factory Reset
P053 = 6
P060 = 2
P366 = 0
P970 = 0
6: Parameter Changes permitted via PMU and Serial Interface
(OP1 and PC)
2: Menu Select = Fixed Settings
Select Factory Setting
0: Standard
Start Parameter Reset
0: Parameter Reset
1: No Parameter Change
Version 1.0 March 1, 2000 Page 15
Page 16 Version 1.0 March 1, 2000
1.3 Basic Start-up without Motor Connected to Load
1.3.1 Volts/Hz without Encoder
P060 = 5 P060=5
Select “Drive Settings”
P071 = ?
P071 = Input Line Voltage
AC-AC Converter=460Volt
DC-AC Inverter = 620Volt
P095 = Select Motor Type
2: Asynchronous 1PH7 Motor
10: IEC Induction Motor
11: NEMA Induction Motor
P097 = Motor Code number for
1PH7 motor (See Appendix)
P097 = ?
P095 = ?
P095 = 2 10 or 11
Motor Nameplate Information
P101= Motor Voltage (V)
P101 = 460
P102 = Motor Rated Current (A)
P102 = xxx
P095 = 10 11
P104 = ?
P105 = ?
P104 = Cos (phi) per nameplate
P105 = Rated Horsepower
Version 1.0 March 1, 2000 Page 17
P106 = ?
P107 = 60
P108 = xxxx
P115 = 1
P340 = 3
P383 = xxxx
P106 = NEMA Motor Nameplated efficiency (if unknown set =0.8)
P107 = Rated Motor Frequency
P108 = Nameplated Rotor RPM
P115 = 1
“Automatic Parameterization”
P340 = Carrier Frequency
Low # = Cooler Motor and Drive
High # = Lower Motor Noise
P383 = Motor Thermal Time
Constant. If constant unknown use general guidelines;
2 Pole Motor = 480 seconds
4 Pole Motor = 600 seconds
6 Pole Motor = 720 seconds
P452 = Maximum Forward Speed in
Percentage (usually 100%)
P452 = 100
Page 18 Version 1.0 March 1, 2000
P453 = -100
P060 = 1
P128 = xxxx
P462 = xxxx
P464 = xxxx
P443i2= 11
Version 1.0 March 1, 2000
P453 = Maximum Reverse Speed in
Percentage (usually -100%)
P060 = Return to Parameter Menu
P128 = Maximum Motor Current
Options: P128 = P102
P128=1.1*P102
P128=1.5*P102
P462 = Acceleration Time in seconds
P464 = Deceleration Time in seconds
P443i2(Index2) = 11
Configures drive for analog input
(0-10Vdc) to be active at terminals X101 pin#15 and pin#16
If 4-20mA is required closed
CUVC board mounted jumper
S3, position 1 and 2.
Start/Stop Control is located on the PMU (operator control panel mounted directly on the drive)
Speed Setpoint is controlled with the Up / Down arrows.
Page 19
Connect External Wiring as connection diagram.
Customer
Connection Points Internal Connections
Step 1: Dry set of contacts between terminals X101, pin#1 and pin#5 for
Local/Remote Mode Selection. Jumper if not required.
Step 2: Dry set of contacts between terminals X101, pin#1 and pin#8 for
Coast to Stop Selection. Jumper if not required.
Step 3: Dry set of contacts between terminals X101, pin#1 and pin#9 for
Source of Main Start/Stop Selection.
Step 4: Dry set of contacts between terminals X101, pin#1 and pin#7 for
Source of Fault Reset. Leave open if not required. “P” button on PMU will be fault reset location if pin#7 is not used.
Step 5: Dry set of contacts between terminals X101, pin#1 and pin#6 for
Fixed Speed or Preset Speed Selection. Leave open if not required.
Page 20 Version 1.0 March 1, 2000
Speed value is determined by P402. A selection of P402=100% will be a full speed reference setpoint.
Step 6: Fault Status is provided by a 24 Vdc signal at terminals X101 pin#3 with respect to pin#2. Leave open if not required.
Step 7: Drive Operating Status is provided by a 24 Vdc signal at terminals X101 pin#4 with respect to pin#2.
Step 8: Connect external speed reference 0-10Volt or 4-20 mA (CUVC board mounted jumper S3 pin 2 and 2 must be closed for mA input).
Adjust over the full range and monitor P447. With a zero input r447 should read near 0.00, and with full value r447 should read near 100%.
Step 9: Connect the motor to the load, unless the plan is to install an encoder feedback or change to Vector Control.
Standard Commissioning for a Volts/Hz controlled motor without feedback is complete, after adjusting only 19 parameters.
Version 1.0 March 1, 2000 Page 21
1.3.2 Volts/Hz with Encoder
Note: Complete section 1.3.1 before operating the motor with encoder feedback.
P060 = 5
P100 = 0
P130 = ?
P060=5
Select “Drive Settings”
P100=0
Selects Volts/Hz with Encoder Feedback
P130 = Select Type of Encoder
11: Pulse Encoder
15: Pulse Encoder with Zero Pulse
P151 = ?
P151 = Pulse Per Revolution (PPR)
P060 = 1
P060 = Return to Parameter Menu
Page 22 Version 1.0 March 1, 2000
Additional Connection for +15 Vdc Encoder.
Step 10: Set Speed Reference to 20%.
Step 11: Provide Start command. Note that if Signal A and Signal B are reversed, the motor will accelerate rapidly.
Step 12: Connect the motor to the load, unless the plan is to change to
Vector Control.
Standard Commissioning for a Volts/Hz controlled motor with feedback is complete, after adjusting only 24 parameters.
Version 1.0 March 1, 2000 Page 23
1.3.3 Vector Control without Encoder Feedback
Note: Complete section 1.3.1 (Volts/Hz control without encoder feedback).
P060 = 5
P100 = 3
P060 = 1
P115 = 4
Wait
P060=5
Select “Drive Settings”
P100=3
Selects Vector Control without Encoder Feedback
P060 = Return to Parameter Menu
If you plan to use an encoder, go to section1.3.4, otherwise continue.
P115 = 4 No-Load Measurement
Uncoupled motor will ROTATE.
Alarm message “A080” will appear, and a start command must be issued within 20 seconds to perform the test, otherwise P115 will unset.
This test will adjust the following parameters
P103, P120
Wait for display to change back to o
009.
Page 24 Version 1.0 March 1, 2000
P115=5
Wait
P115=5 Controller Optimization
Alarm message “A080” will appear, and a start command must be issued within 20 seconds to perform the test, otherwise P115 will unset.
This test is best performed on a coupled motor under actual conditions; however, if the load is cyclic (0-100% load variation), manual tuning may be preferred.
This test will adjust the following parameters
P116, P223, P235, P236,
P240, P471
Step 10: Set Speed Reference to 20%, and monitor speed feedback r000, current feedback r004, and actual DC BUS r006. If stable increase speed in increments and continue to monitor feedbacks.
Standard Commissioning for a Vector
Controlled motor without feedback is complete, after adjusting only 24 parameters, and utilizing two of the selftuning options.
Version 1.0 March 1, 2000 Page 25
1.3.4 Vector Control with Encoder Feedback
Note: Complete section 1.3.1 (Volts/Hz control without encoder feedback), and section 1.3.3 (Vector control without encoder feedback)
Step 10: Operate the uncoupled motor if sections 1.3.1 and 1.3.3 are complete and verify operation of the motor without faults.
P060 = 5
P060=5
Select “Drive Settings”
P100 = 4
P130 = ?
P100=4
Selects Vector Control with Encoder Feedback
Connect encoder as per diagram
P130 = Select Type of Encoder
11: Pulse Encoder
15: Pulse Encoder with Zero Pulse
P151 = Pulse Per Revolution (PPR)
P151 = ?
P060 = 1
P115 = 4
P060 = Return to Parameter Menu
P115 = 4 No-Load Measurement
Uncoupled motor will ROTATE.
Alarm message “A080” will appear, and a start command must be issued within 20 seconds to perform the test, otherwise P115 will unset.
Page 26 Version 1.0 March 1, 2000
Wait
P115=5
Wait
This test will adjust the following parameters
P103, P120
Wait for display to change back to o
009.
P115=5 Controller Optimization
Alarm message “A080” will appear, and a start command must be issued within 20 seconds to perform the test, otherwise P115 will unset.
This test is best performed on a coupled motor under actual conditions; however, if the load is cyclic (0-100% load variation), manual tuning may be preferred.
This test will adjust the following parameters
P116, P223, P235, P236,
P240, P471
Step 11: Set Speed Reference to 20%, and monitor speed feedback r000, current feedback r004, and actual DC BUS r006. If stable increase speed in increments and continue to monitor feedbacks.
Standard Commissioning for a Vector
Controlled motor with feedback is complete, after adjusting only 31 parameters, and utilizing two of the selftuning options.
Version 1.0 March 1, 2000 Page 27
Page 28 Version 1.0 March 1, 2000
1.4 Drive Control Word
Function Diagrams will be referred to in brackets with their number. Please refer to function diagrams in the compendium. Example [Diagram Number]
Assign Digital Inputs Digital Inputs/Outputs:
Binector Assignments for Control may be made from Digital Inputs
Assign Off2(Coast Stop)
Assign Off3(Quick Stop)
Assign ON/OFF1
P555, P556 & P557 can be used to assign Coast to Stop
P558, P559 & P560 can be used to assign Quick Stop
P554 MUST be assigned to activate drive. Note:
Acceleration and Deceleration will be based on ramp generator
[320]
[180] Assign Other
Functionality as
Required
See [190]
Assign Other Control
Functionality as
Required
Version 1.0 March 1, 2000 Page 29
Page 30 Version 1.0 March 1, 2000
1.5 Communication Board Configuration
P060 = 4
NO
CBx Inserted?
YES
P711 = ?
to
P721.1…5 = ?
SLB Inserted?
YES
NO
P740 = ?
P741 = ?
P740
= 1
P742 = ?
P743 = 0
P740 = 0
P745 = ?
P746 = ?
P749.1…8 = ?
NO
CBP Inserted?
YES
P918.1…2 = ?
Select “Board Configuration”
Menu
Parameterize CBx Boards
See Function Diagrams
Simolink Address
0: Dispatcher (Master)
>0: Transceiver (Slave)
SLB Telegram Failure Time
SLB Transmit Power
1: Up to 15 m
2: Up to 25 m
3: Up to 40 m
P743=0, Automatic number of node evaluation.
Enter Number of Channels
Enter Simolink Cycle Time
(must correspond to pulse frequency, i.e. =3.2)
Simolink Receive Address =
Node. Channel
Input CBP Bus Addresses
Return to Parameter Menu
P060 = 1
Version 1.0 March 1, 2000 Page 31
Page 32 Version 1.0 March 1, 2000
Section 2:
Parameterization of a Rectifer
Unit
SIMOVERT MASTERDRIVES
6SE70 VC
Vector Control
2.0 Power Section Defintion
Basic Start-up
2.2 Rectifier or Regen without auto-transformer
Version 1.0 March 1, 2000 Page 33
Page 34 Version 1.0 March 1, 2000
2.0 Power Section Definition
Note: Power Section is pre-defined at the factory. Power Section
Definition is required if a new board CUR board is put into the drive or boards are switched between units with different ratings. CUR cards will exist Regen Rectifiers and Large Common Rectifiers. The smaller
Common Rectifier will not have parameters. Drive should be defaulted and re-parameterized after Power Section Definition.
P051 = 3 P51=3 : Export Mode
P52=2: Function select “Initialization”
P052 = 2
P070 = xxx
Input Code for unit (PWE)
(Refer to the following table)
P052 = 0
Return to Parameter Menu
Version 1.0 March 1, 2000 Page 35
Unit List
P070:
P075:
Parameter Value (PWE)
Rated DC Output Current in Amps In[A]
Large Common Rectifier
AC-DC type
3 AC 380V to 460V PWE Order Number
103 6SE7038-2EH85-0AA0
105 6SE7041-0EH85-0AA0
109 6SE7041-3EK85-0AA0
118 6SE7041-8EK85-0AA0
3 AC 500V to 575V 101 6SE7037-7FH85-0AA0
104 6SE7041-0FH85-0AA0
107 6SE7041-3FK85-0AA0
111 6SE7041-5FK85-0AA0
120 6SE7041-8FK85-0AA0
3 AC 660V to 690V 102 6SE7037-7HH85-0AA0
106 6SE7041-0HH85-0AA0
108 6SE7041-3HK85-0AA0
110 6SE7041-5HK85-0AA0
119 6SE7041-8HK85-0AA0
In[A
821.0
1023.0
1333.0
1780.0
774.0
1023.0
1285.0
1464.0
1880.0
774.0
1023.0
1285.0
1464.0
1880.0
Page 36 Version 1.0 March 1, 2000
Regenerative Rectifier
AC-DC type
3 AC
380V to 460V
PWE
Air Cool
14
20
31
39
42
48
51
54
57
63
66
73
79
PWE
Water Cool
Order Number In[A]
6SE7022-1EC85-1AA0
6SE7024-1EC85-1AA0
21.0
41.0
6SE7028-6EC85-1AA0 86.0
6SE7031-7EE85-1AA0 173.0
6SE7032-2EE85-1AA0 222.0
6SE7033-1EE85-1AA0 310.0
6SE7033-8EE85-1AA0 375.0
6SE7034-6EE85-1AA0 463.0
6SE7036-1EE85-1AA0 605.0
6SE7038-2EH85-1AA0 821.0
6SE7041-0EH85-1AA0 1023.0
6SE7041-3EK85-1AA0 1333.0
6SE7041-8EK85-1AA0 1780.0
3 AC
500V to 575V
15
44
46
49
52
55
21
28
32
38
61
67
71
74
80
6SE7022-7FC85-1AA0 27.0
6SE7024-1FC85-1AA0
6SE7027-2FC85-1AA0
41.0
72.0
6SE7028-8FC85-1AA0 94.0
6SE7031-5FE85-1AA0 151.0
6SE7032-4FE85-1AA0 235.0
6SE7032-7FE85-1AA0 270.0
6SE7033-5FE85-1AA0 354.0
6SE7034-2FE85-1AA0 420.0
6SE7035-4FE85-1AA0 536.0
6SE7037-7FH85-1AA0 774.0
6SE7041-0FH85-1AA0 1023.0
6SE7041-3FK85-1AA0 1285.0
6SE7041-5FK85-1AA0 1464.0
6SE7041-8FK85-1AA0 1880.0
Version 1.0 March 1, 2000 Page 37
Regenerative Rectifier
AC-DC type
3 AC
660V to 690V
PWE
Air Cool
36
43
47
53
56
62
68
72
75
81
PWE
Water Cool
Order Number In[A]
6SE7031-4HE85-1AA0 140.0
6SE7032-2HE85-1AA0 222.0
6SE7032-7HE85-1AA0 270.0
6SE7034-2HE85-1AA0 420.0
6SE7035-3HE85-1AA0 536.0
6SE7037-7HH85-1AA0 774.0
6SE7041-0HH85-1AA0 1023.0
6SE7041-3HK85-1AA0 1285.0
6SE7041-5HK85-1AA0 1464.0
6SE7041-8HK85-1AA0 1880.0
Page 38 Version 1.0 March 1, 2000
2.1 Factory Reset
P051 = 3
P052 = 2
P077 = 0
P052 = 0
P052 = 1
P51=3 : Export Mode
P52=2: Function select “Initialization”
P077=0 for standard default
P052=0 Return to Parameter Menu
P052=1 Perform Factory Reset
Version 1.0 March 1, 2000 Page 39
Page 40 Version 1.0 March 1, 2000
2.2 Basic Start-up (Regenerative Rectifier without
Autotransformer)
P051 = 2 P051=2
Select “Basic Mode Settings”
P053 =6 Access Parameter
P053 = 6
P052 = 5
P071 = 460
P320 = 20
P773 = 1.00
P052 = 5
Drive Settings
P071 = Input Rectifier Voltage
Generally = 460 Volt
P320 = 20
Smooth Load Amps, to prevent input line sags from effecting the DC BUS regulator
P773= 1.00
Deadband Converter, to prevent “toggling” between
Regen and Rectifier bridges.
Version 1.0 March 1, 2000 Page 41
P052 = 21
P052 = 0
With DC BUS connected to the
COMMON DC BUS of the system, set
P52=21 and provide a start command at terminal X101, pin #9
The circuit identification test will take about 10 seconds.
P052=0 Drive back to ready mode.
Standard Commissioning for a Common
Rectifier or a Regenerative Rectifier without Autotransformer is complete, after adjusting only 8 parameters.
Page 42 Version 1.0 March 1, 2000
Connect External Wiring as connection diagram.
Customer
Connection Points
Internal Connections
Step 1: Dry set of contacts between terminals X101, pin#6 and pin#13 for Local/Remote Mode Selection. Jumper if not required.
Step 2: Dry set of contacts between terminals X101, pin#6 and pin#10 for Coast to Stop Selection. Jumper if not required.
Step 3: Dry set of contacts between terminals X101, pin#6 and pin#9 for
Source of Main Start/Stop Selection.
Step 4: Dry set of contacts between terminals X101, pin#6 and pin#11 for Source of Fault Reset. Leave open if not required. “P” button on
PMU will be fault reset location if pin#11 is not used.
Step 5: Drive Operating Status is provided by a 24 Vdc signal at terminals X104 pin#19 with respect to pin#20.
Version 1.0 March 1, 2000 Page 43
Page 44 Version 1.0 March 1, 2000
2.3 Basic Start-up (Regenerative Rectifier with
Autotransformer)
P051 = 2 P051=2
Select “Basic Mode Settings”
P053 =6 Access Parameter
P053 = 6
P052 = 5
P071 = 460
P320 = 20
P773 = 1.00
P052 = 5
Drive Settings
P071 = Input Rectifier Voltage
Generally = 460 Volt
P320 = 20
Smooth Load Amps, to prevent input line sags from effecting the DC BUS regulator
P773= 1.00
Deadband Converter, to prevent “toggling” between
Regen and Rectifier bridges.
Version 1.0 March 1, 2000 Page 45
P571 = 0
P318 = 95
P052 = 21
P052 = 0
P571=0 Selects Autotransformer
P318 = 95%
Selects percentage of nominal
DC BUS voltage. In cases where the input line voltage is dependable a setting of 100% is permissible.
With DC BUS connected to the
COMMON DC BUS of the system, set
P52=21 and provide a start command at terminal X101, pin #9
The circuit identification test will take about 10 seconds.
P052=0 Drive back to ready mode.
Standard Commissioning for a
Regenerative Rectifier with
Autotransformer is complete, after adjusting only 10 parameters.
Page 46 Version 1.0 March 1, 2000
Section 3:
Simovis Trace Setup Method
SIMOVERT MASTERDRIVES
6SE70 VC
Vector Control
Version 1.0 March 1, 2000 Page 47
Page 48 Version 1.0 March 1, 2000
3.0 Simovis Trace
Load Simovis from
Vector Control
Documentation CD
Launch Simovis from Desktop Icon
Add a Drive in
Simovis Bus
Configuration
A
Option: To speed up your communication link set the drive P701 = 38,400 with the
PMU and configure Simovis for 38,400 communication.
C
B
Select USS Bus Address,
Drive and SW Version.
Note: Proper Simovis Cable must be used. (RS 232)
A
C
B
Version 1.0 March 1, 2000 Page 49
Double Click Selected
Drive to start Simovis
Window
Verify Drive
Connection A
Select Trace from
Diagnostics Menu Bar B
Green Box should be lit up in the lower left corner
B
Page 50
A
Version 1.0 March 1, 2000
Select Record Settings in the Lower Left Corner A
Select Desired Channels to Record B
Set the Record Interval and Pre-trigger C
Select Trigger Channel
D
Each Interval = (4.0 / P340) seconds.
Pre-trigger is in Percentage (%).
To Trigger With a Binector, Select:
Trigger Channel = K431
Trigger Condition “=” “1 Hex”
Function
Diagram
[720]
K431 is the output of a Binector to
Connector Converter that will be configured on the following page.
B
C
D
A
Version 1.0 March 1, 2000 Page 51
C
Select “Function Block
Grafics” from the
Parameter Menu Bar A
Select Function
Number 289
Zoom X 2
(with right Mouse click)
Activate Block
U952.89 = 4
B
Set Trigger Binector in
U076.01
(i.e. U076.01 = 18 Din5)
C
D
A
To Configure the Trace to
Trigger with a Binector follow instructions on this page.
The block activated by Parameter
U952.89 is selected with 289.
K431 can now be used to trigger the Trace function when Binector
(i.e. DIN 5)
is asserted high.
Function
Diagram
[720]
D
B
Page 52 Version 1.0 March 1, 2000
Go to the Trace Window
(Diagnostics Menu – Trace) A
Verify Record Settings B
Start Trace C
Trigger Trace
Observe Status Message D
A
B C D
Version 1.0 March 1, 2000 Page 53
Select Data Trace A
Scale
Vertical Axis B
Scale
Horizontal Axis C
Note: Background can be changed with right mouse click.
Traces can be saved for reference.
B
Click Data Set to make it Active
Click and Drag scale to shift it up and down.
Y▲& Y ▼ to change Scale
Click and drag “T” marker to shift
Horizontal Scale.
Move “[ ]” to change scale
A
Page 54
C
Version 1.0 March 1, 2000
Section 4:
When to Re-Tune the Drive
SIMOVERT MASTERDRIVES
6SE70 VC
Vector Control
Version 1.0 March 1, 2000 Page 55
Page 56 Version 1.0 March 1, 2000
4.0 Conditions that would merit re-tuning the drive
Hardware additions made to the drive, such as an output reactor or a dv/dt filter.
Physical changes to the process, such as the motor being changed
(even if the it is an identical motor, bearing changes and coupling changes can have an influence on performance), gearbox changes, length of motor cables changed.
Process changes, such as motor loading, and speed range changes to name a few. Note that since the type of change described is wideranging manual tuning may be a better alternative. Review the parameters effected for P115=5.
Software changes, P068, P095, P097, P100(this includes any changes in P101 through P109), P339, P340, P357.
Exceptions:
•
If the carrier frequency of P340 is adjusted in multiples that retuning is not required (ie: 2.5 kHz to 5.0 kHz)
•
If P100 is changed from a value of 4 to 5.
Repair or Maintenance, such as replacing either the motor or the CUVC logic card.
Exceptions:
•
If tuning parameters P103, P116, P120, P223, P235, P236,
P240 and P471 had been recorded prior to the CUVC card being replaced.
Version 1.0 March 1, 2000 Page 57
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Key Features
- Advanced vector control technology for precise speed and torque control
- Versatile communication options for seamless integration into automation systems
- Integrated safety functions for enhanced protection and reliability
- Energy-saving features to reduce operating costs and improve efficiency
- Compact and robust design for space-saving and demanding environments
- Wide power range to suit various motor sizes and applications
- Easy-to-use interface and comprehensive diagnostics for simplified setup and troubleshooting
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Table of contents
- 1 Vector Control
- 1 Section 1: Parameterization of Base Drive
- 1 Section 2: Parameterization of Rectifier
- 1 Section 3: Simovis Trace Setup Method
- 1 Section 4: When Should a Drive be re-Tuned
- 2 We reserve the right to modify functions, technical data, standards, drawings and parameters.
- 2 We have checked the contents of this document to ensure that they coincide with the described hardware and software. However, deviations cannot be completely ruled-out, so we cannot guarantee complete conformance. However, the information in this docum
- 2 e-mail: mailto:[email protected]
- 3 Note:
- 3 Electrical equipment has parts an components which are at hazardous voltage levels.
- 5 Section 1: