34-LH9 0113 Eng
34-LH9 0113 Eng
SINAMICS
s
s
1
Parameters
2
SINAMICS Function diagrams
3
Faults and alarms
SINAMICS G120 A
Appendix
CU230P-2 Control Units
B
List of abbreviations
List Manual C
Index
Valid for
Control Units Firmware version
CU230P-2_HVAC 4.6
CU230P-2_BT 4.6
CU230P-2_DP 4.6
CU230P-2_PN 4.6
CU230P-2_CAN 4.6
A5E02297932B AF
01/2013
Safety notices
This Manual contains information which you must observe to ensure your own personal safety as well as
to avoid material damage. The notices referring to your personal safety are highlighted in the manual by
a warning triangle; notices that relate to material damage only have no warning triangle. The notices
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Danger
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Warning
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Caution
With a warning triangle, indicates that minor injury may result if proper precautions are not taken.
Caution
Without a warning triangle, indicates that material damage may result if proper precautions are not taken.
Notice
Indicates that an undesirable result or state may occur if the corresponding instructions are not observed.
If more than one level of danger is simultaneously applicable, the warning notice for the highest level is
used. A warning on a warning triangle indicating possible personal injury may also include a warning relat-
ing to material damage.
Qualified personnel
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Postfach 4848 © Siemens AG 2008 - 2013
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GERMANY
Siemens Aktiengesellschaft SINAMICS G120 CU230P-2 Control Units List Manual (LH9)
Table of contents
1 Parameters . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1-7
1.1 Overview of parameters . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1-8
1.1.1 Explanation of the parameter list. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1-8
1.1.2 Number ranges of parameters . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1-19
1.2 List of parameters . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1-22
1.3 Command and drive data sets - overview . . . . . . . . . . . . . . . . . . . . . . . 1-466
1.3.1 Command data sets (CDS) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1-466
1.3.2 Drive data sets (DDS) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1-468
1.3.3 Motor data sets (MDS) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1-473
1.3.4 Power unit data sets (PDS) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1-474
1.4 BICO parameters (connectors/binectors) . . . . . . . . . . . . . . . . . . . . . . . 1-475
1.4.1 Binector inputs (BI) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1-475
1.4.2 Connector inputs (CI) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1-478
1.4.3 Binector outputs (BO) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1-480
1.4.4 Connector outputs (CO) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1-482
1.4.5 Connector/binector outputs (CO/BO) . . . . . . . . . . . . . . . . . . . . . . . . . . 1-486
1.5 Parameters for write protection and know-how protection . . . . . . . . . . 1-487
1.5.1 Parameters with "WRITE_NO_LOCK" . . . . . . . . . . . . . . . . . . . . . . . . . 1-487
1.5.2 Parameters with "KHP_WRITE_NO_LOCK". . . . . . . . . . . . . . . . . . . . . 1-487
1.5.3 Parameters with "KHP_ACTIVE_READ" . . . . . . . . . . . . . . . . . . . . . . . 1-488
1.6 Quick commissioning (p0010 = 1) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1-489
A Appendix . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . A-723
A.1 ASCII table (excerpt) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . A-724
A.2 Motor code list . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . A-724
C Index . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . C-731
- - - - - - - - - - - - - - - - - - - - Start of example - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -
- - - - - - - - - - - - - - - - - - - - End of example - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -
Note:
The parameter list can contain parameters that are not visible in the expert lists
of the respective commissioning software (e.g. parameters for trace functions).
Note:
A BICO input (BI/CI) cannot be interconnected with just any BICO output (BO/CO,
signal source).
When interconnecting a BICO input using the commissioning software, only the
corresponding possible signal sources are listed.
Function diagrams 1020 ... 1030 explain the symbols for BICO parameters and
how to deal with BICO technology.
CU/PM variants
Indicates for which Control Units (CU) and/or Power Modules (PM) the parameter
is valid. If no CU or PM is listed, then the parameter is valid for all variants.
The following information relating to "CU" and "PM" can be displayed under the
parameter number:
Access level
Specifies the minimum access level required to be able to display and change the
relevant parameter. The required access level can be set using p0003.
The system uses the following access levels:
• 1: Standard (not adjustable, included in p0003 = 3)
• 2: Extended (not adjustable, included in p0003 = 3)
• 3: Expert
• 4: Service
Parameters with this access level are password protected.
Note:
Parameter p0003 is CU-specific (available on the Control Unit).
A higher access level will also include the functions of the lower levels.
Calculated
Specifies whether the parameter is influenced by automatic calculations.
p0340 determines which calculations are to be performed:
• p0340 = 1 includes the calculations from p0340 = 2, 3, 4, 5.
• p0340 = 2 calculates the motor parameters (p0350 ... p0360, p0625).
• p0340 = 3 includes the calculations from p0340 = 4, 5.
• p0340 = 4 only calculates the controller parameters.
• p0340 = 5 only calculates the controller limits.
Note:
For p3900 > 0, p0340 = 1 is also called automatically.
After p1900 = 1, 2, p0340 = 3 is also called automatically.
Data type
The information on the data type can consist of the following two items (separated
by a slash):
• First item
Data type of the parameter.
• Second item (for binector or connector input only)
Data type of the signal source to be interconnected (binector/connector out-
put).
Parameters can have the following data types:
• Integer8 I8 8-bit integer
• Integer16 I16 16-bit integer
• Integer32 I32 32-bit integer
• Unsigned8 U8 8 bits without sign
• Unsigned16 U16 16 bits without sign
• Unsigned32 U32 32 bits without sign
• FloatingPoint32 Float 32-bit floating point number
Depending on the data type of the BICO input parameter (signal sink) and BICO
output parameter (signal source), the following combinations are possible when
creating BICO interconnections:
CI parameter BI parameter
Changeable
The "-" sign indicates that the parameter can be changed in any object state and
that the change will be effective immediately.
The information "C(x), T, U" ((x): optional) means that the parameter can be
changed only in the specified drive unit state and that the change will not take
effect until the unit switches to another state. One or more states are possible.
The following states may be specified:
• C(x) Commissioning C: Commissioning
Drive commissioning is in progress (p0010 > 0).
Pulses cannot be enabled.
The parameter can only be changed in the following drive commission-
ing settings (p0010 > 0):
C: Changeable for all settings p0010 > 0.
C(x): Only changeable when p0010 = x.
A modified parameter value does not take effect until the device com-
missioning mode is exited with p0010 = 0.
• U Operation U: Run
Pulses are enabled.
• T Ready T: Ready to run
The pulses are not enabled and the status "C(x)" is not active.
Scaling
Specification of the reference variable with which a signal value is automatically
converted for a BICO interconnection.
The following reference variables are available:
• p2000 ... p2006: Reference speed, reference voltage, etc.
• PERCENT: 1.0 = 100 %
• 4000H: 4000 hex = 100 %
Note:
Information on the data sets can be taken from the following references:
Operating Instructions SINAMICS G120 Frequency Converter with
CU230P-2 HVAC, CU230P-2 DP, CU230P-2 CAN Control Units.
7_4 Nm lbf ft Nm -
14_6 kW hp kW -
2
25_1 kg m lb ft2 kg m2 -
27_1 kg lb kg -
28_1 Nm/A lbf ft/A Nm/A -
2_1 Hz % Hz % p2000
3_1 rpm % rpm % p2000
5_1 Vrms % Vrms % p2001
5_2 V % V % p2001
5_3 V % V % p2001
6_2 Arms % Arms % p2002
6_5 A % A % p2002
7_1 Nm % lbf ft % p2003
7_2 Nm Nm lbf ft lbf ft -
14_5 kW % hp % r2004
14_10 kW kW hp hp -
21_1 °C °C °F °F -
21_2 K K °F °F -
2 2
39_1 1/s % 1/s % p2007
9_1 The values that can be set and the technological units are shown in
p0595 (See Section 1.2).
9_2 The values that can be set and the technological units are shown in
p11026 (See Section 1.2).
9_3 The values that can be set and the technological units are shown in
p11126 (See Section 1.2).
9_4 The values that can be set and the technological units are shown in
p11226 (See Section 1.2).
Function diagram
The parameter is included in this function diagram. The structure of the parameter
function and its relationship with other parameters is shown in the specified func-
tion diagram.
Parameter values
Min Minimum value of the parameter [unit]
Max Maximum value of the parameter [unit]
Factory setting Value when shipped [unit]
In the case of a binector/connector input, the signal source
of the default BICO interconnection is specified. A non-
indexed connector output is assigned the index [0].
A different value may be displayed for certain parameters
(e.g. p1800) during first commissioning.
Reason:
The setting for these parameters is determined by the oper-
ating environment of the Control Unit (e.g. by the device
type, or power unit).
Description
Explanation of the function of a parameter
Values
Lists the possible values of a parameter.
Recommendation
Information about recommended settings.
Index
The name and meaning of each individual index is specified for indexed parame-
ters.
The following applies to the values (Min, Max, Factory setting) for indexed adjust-
able parameters:
• Min, Max:
The adjustment range and unit apply to all indices.
• Factory setting:
When all indices have the same factory setting, index 0 is specified with the
unit to represent all indices.
When the indices have different factory settings, they are all listed individually
with the unit.
Bit array
For parameters with bit arrays, the following information is provided about each
bit:
• Bit number and signal name
• Meaning for signal states 1 and 0
• Function diagram (FP) (optional).
The signal is shown on this function diagram.
Dependency
Conditions that must be fulfilled in conjunction with this parameter. Also includes
special effects that can occur between this parameter and others.
Where necessary, "See also:" indicates the following information:
• List of other relevant parameters to be considered.
• List of faults and alarms to be considered.
Safety notices
Important information that must be observed to avoid the risk of physical injury or
material damage.
Information that must be observed to avoid any problems.
Information that the user may find useful.
Danger The description of this safety notice can be found at the
beginning of this manual (see Safety notices).
Note:
The following number ranges represent an overview for all of the parameters
available for the SINAMICS drive family.
The parameters for the product described in this List Manual are described in
detail in Section 1.2.
Range Description
From To
Range Description
From To
Range Description
From To
Notice: After the value has been modified, no further parameter modifications can be made and the status is shown in
r3996. Modifications can be made again when r3996 = 0.
When executing a specific macro, the corresponding programmed settings are made and become active.
Note: Macros available as standard are described in the technical documentation of the particular product.
The parameter is not influenced by setting the factory setting.
r0027 CO: Absolute actual current smoothed / I_act abs val smth
Access level: 2 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: p2002 Dyn. index: -
Units group: - Unit selection: - Func. diagram: 5730, 6799, 8850,
8950
r0047 Motor data identification and speed controller optimization / MotID and n_opt
Access level: 1 Calculated: - Data type: Integer16
Can be changed: - Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
Value: 0: No measurement
115: Measurement q leakage inductance (part 2)
120: Speed controller optimization (vibration test)
140: Calculate speed controller setting
150: Measurement moment of inertia
170: Measurement magnetizing current and saturation characteristic
195: Measurement q leakage inductance (part 1)
200: Rotating measurement selected
220: identification leakage inductance
230: Identification rotor time constant
240: Identification stator inductance
250: Identification stator inductance LQLD
270: Identification stator resistance
290: Identification valve lockout time
300: Stationary measurement selected
Note: Re r0047 = 300:
This value is also displayed if encoder calibration p1990 is selected.
r0060 CO: Speed setpoint before the setpoint filter / n_set before filt.
Access level: 3 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: p2000 Dyn. index: -
Units group: 3_1 Unit selection: p0505 Func. diagram: 2701, 2704, 5020,
6030, 6799
r0062 CO: Speed setpoint after the filter / n_set after filter
Access level: 3 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: p2000 Dyn. index: -
Units group: 3_1 Unit selection: p0505 Func. diagram: 1700, 6030, 6031
250: SINAMICS SM
260: SINAMICS MC
300: SINAMICS GL
350: SINAMICS SL
400: SINAMICS DCM
Note: For parallel circuit configurations, the parameter index is assigned to a power unit.
Note: When the parameter is changed, all of the motor parameters (p0305 ... p0311), the technological application
(p0500) and the control mode (p1300) are pre-assigned according to the selected application. The parameter has
no influence when calculating the thermal overload.
p0205 can only be changed to the settings that are saved in the power unit EEPROM.
Caution: If the line supply voltage is higher than the entered value, the Vdc controller may be automatically de-activated in
some cases to prevent the motor from accelerating. In this case, an appropriate alarm is output.
Note: Setting ranges for p0210 as a function of the rated power unit voltage:
U_rated = 230 V:
- p0210 = 200 ... 240 V
U_rated = 400 V:
- p0210 = 380 ... 480 V
U_rated = 500 V:
- p0210 = 500 ... 600 V
U_rated = 690 V:
- p0210 = 660 ... 690 V
The pre-charging switch-in threshold for the DC link voltage (Vdc) is calculated from p0210:
Vdc_pre = p0210 * 0.82 * 1.35
The undervoltage thresholds for the DC link voltage (Vdc) are calculated from p0210 as a function of the rated
power unit voltage:
U_rated = 400 V:
- U_min = p0210 * 0.78 > 360 V
U_rated = 500 V:
- U_min = p0210 * 0.76
U_rated = 690 V:
- U_min = p0210 * 0.74 > 450 V
- The minimum ramp-down time is calculated (p1127) as a function of p0341, p0342 and p1082 (not for vector con-
trol with speed encoder).
If the parameter is reset again to zero, then the Vdc_max controller is reactivated and the power limit as well as the
ramp-down time are recalculated.
p0230 Drive filter type motor side / Drv filt type mot
PM230 Access level: 1 Calculated: - Data type: Integer16
PM240 Can be changed: C(1, 2) Scaling: - Dyn. index: -
PM250, PM260 Units group: - Unit selection: - Func. diagram: -
p0230 Drive filter type motor side / Drv filt type mot
PM330 Access level: 1 Calculated: - Data type: Integer16
Can be changed: C(1, 2) Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
Dependency: If a sine-wave filter is parameterized as output filter (p0230 = 3, 4), then only responses can be selected without
pulse frequency reduction (p0290 = 0, 1).
For a thermal power unit overload, an appropriate alarm or fault is output, and r2135.15 or r2135.13 set.
Refer to: r0036, r0037, p0230, r2135
Refer to: A05000, A05001, A07805
Caution: If the thermal overload of the power unit is not sufficiently reduced by the actions taken, the drive is always shut
down. This means that the power unit is always protected irrespective of the setting of this parameter.
Note: The setting p0290 = 0, 2 is only practical if the load decreases with decreasing speed (e.g. for applications with vari-
able torque such as for pumps and fans).
Under overload conditions, the current and torque limit are reduced, and therefore the motor is braked and forbid-
den speed ranges (e.g. minimum speed p1080 and suppression [skip] speeds p1091 ... p1094) can be passed
through.
For p0290 = 2, 3, the I2t overload detection of the power unit does not influence the responses.
When the motor data identification routine is selected, p0290 cannot be changed.
p0294 Power unit alarm with I2t overload / PU I2t alrm thresh
Access level: 4 Calculated: - Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: 8014
Value: 0: No motor
1: Induction motor (rotating)
2: Synchronous motor (rotating, permanent-magnet)
10: 1LE1 standard induction motor series
13: 1LG6 standard induction motor series
14: SIMOTICS FD induction motor series
17: 1LA7 standard induction motor series
18: 1LA8 / 1PQ8 standard induction motor series
19: 1LA9 standard induction motor series
100: 1LE1 standard induction motor
Dependency: When selecting a motor type from the 1LE1, 1LG6, 1LA7, 1LA8, 1LA9 series, parameters p0335, p0626, p0627,
and p0628 of the thermal motor model are pre-assigned as a function of p0307 and p0311.
Note: Once the Control Unit has been powered up for the first time or if the factory settings have been defined accord-
ingly, the motor type is pre-configured to induction motor (p0300 = 1).
If a motor type has not been selected (p0300 = 0), then the drive commissioning routine cannot be exited.
Note: When the parameter value is entered the connection type of the motor (star-delta) must be taken into account.
Once the Control Unit has booted for the first time or if the factory settings have been restored, the parameter is
pre-assigned to match the power unit.
r0313[0...n] Motor pole pair number, actual (or calculated) / Mot PolePairNo act
Access level: 3 Calculated: - Data type: Unsigned16
Can be changed: - Scaling: - Dyn. index: MDS
Units group: - Unit selection: - Func. diagram: 5300
Caution: When selecting a catalog motor (p0301), this parameter is automatically pre-assigned and is write protected. Infor-
mation in p0300 should be carefully observed when removing write protection.
Note: For synchronous motors without reluctance torque, the value 0 must be set.
p0340 = 2:
--> p0350, p0354 ... p0360
--> p0625 (matching p0350), p0626 ... p0628
p0340 = 3:
--> All of the parameters influenced for p0340 = 4, 5
--> p0346, p0347, p0622, p1320 ... p1327, p1582, p1584, p1616, p1755, p1756, p2178
p0340 = 4:
--> p1290, p1292, p1293, p1338, p1339, p1340, p1341, p1345, p1346, p1461, p1463, p1464, p1465, p1470,
p1472, p1703, p1715, p1717, p1740, p1756, p1764, p1767, p1780, p1781, p1783, p1785, p1786, p1795
p0340 = 5:
--> p1037, p1038, p1520, p1521, p1530, p1531, p1570, p1580, p1574, p1802, p1803, p2140, p2142, p2148,
p2150, p2161, p2162, p2163, p2164, p2170, p2175, p2177, p2194, p2390, p2392, p2393
Note: p0340 = 1 contains the calculations of p0340 = 2, 3, 4, 5.
p0340 = 2 calculates the motor parameters (p0350 ... p0360).
p0340 = 3 contains the calculations of p0340 = 4, 5.
p0340 = 4 only calculates the controller parameters.
p0340 = 5 only calculates the controller limits.
When quick commissioning is exited using p3900 > 0, p0340 is automatically set to 1.
At the end of the calculations, p0340 is automatically set to 0.
p0342[0...n] Ratio between the total and motor moment of inertia / Mot MomInert Ratio
Access level: 3 Calculated: p0340 = 1 Data type: FloatingPoint32
Can be changed: C(3), U, T Scaling: - Dyn. index: MDS
Units group: - Unit selection: - Func. diagram: 1700, 5042, 5210,
6030, 6031
p0344[0...n] Motor weight (for the thermal motor model) / Mot weight th mod
Access level: 3 Calculated: p0340 = 1 Data type: FloatingPoint32
Can be changed: C(3), T Scaling: - Dyn. index: MDS
Units group: 27_1 Unit selection: p0100 Func. diagram: -
For permanent-magnet synchronous motors and vector control, the value depends on the stator time constant
(r0386). Here, it defines the time to establish the current for encoderless operation immediately after the pulses
have been enabled.
Note: The parameter influences the temperature adaptation of the stator resistance.
The motor identification sets the cable resistance to 20% of the measured total resistance if p0352 is zero at the
time that the measurement is made. If p0352 is not zero, then the value is subtracted from the measured total stator
resistance to calculate stator resistance p0350. In this case, p0350 is a minimum of 10% of the measured value.
The cable resistance is reset when quick commissioning is exited with p3900 > 0.
Note: For induction motors, p0362 = 100 % corresponds to the rated motor flux.
When quick commissioning is exited with p3900 > 0, then the parameter is reset if a catalog motor has not been
selected (p0300).
r0384[0...n] Motor rotor time constant / damping time constant d axis / Mot T_rotor/T_Dd
Access level: 3 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: - Dyn. index: MDS
Units group: - Unit selection: - Func. diagram: 6722
For p0500 = 3 and when the calculation is initiated, the following parameters are set:
- p1574 = 2 V
- p1580 = 80 % (efficiency optimization)
- p1750.2 = 1: Encoderless control of the induction motor is effective down to zero frequency.
- p1802 = 10 (SVM/FLB with overmodulation and modulation depth reduction over 57 Hz)
- p1803 = 115 %
Note: Reference parameter for the unit system % are, for example, p2000 ... p2004. Depending on what has been
selected, these are displayed using either SI or US units.
31: lbf
32: lbf ft
33: K
34: rpm
35: parts/min
36: m/s
37: ft³/s
38: ft³/min
39: BTU/min
40: BTU/h
41: mbar
42: inch wg
43: ft wg
44: m wg
45: % r.h.
46: g/kg
Dependency: Only the unit of the technology controller parameters are switched over (unit group 9_1).
Refer to: p0596
Note: When switching over from % into another unit, the following sequence applies:
- set p0596
- set p0595 to the required unit
p0621 = 2:
Identification of the stator resistance every time the drive is powered up (pulse enable).
If a reference value for the stator resistance at an ambient temperature is entered into p0629, then the setting value
for the stator temperature is generated from this value and not from p0350.
When activating the measurement (p0621 = 1, 2), p0629 is determined when first starting the drive. p0629 should
be saved for subsequent use. In order that p0629 matches the ambient temperature (p0625), the function should be
activated with the motor in the cold condition.
Value: 0: No Rs identification
1: Rs identification after switching-on again
2: Rs identification after switching-on each time
Dependency: - perform motor data identification (see p1910) with cold motor.
- enter ambient temperature at time of motor data identification in p0625.
- Reference stator resistance p0629 saved after it has been determined.
Refer to: p0622, r0623, p0629
Notice: The calculated stator temperature can only be compared with the measured value of a temperature sensor (KTY) to
a certain extent, as the sensor is usually the warmest point of the stator winding, whereas the measured value of
identification reflects the mean value of the stator winding. The accuracy depends very heavily on how precisely the
motor feeder cable resistance is known (see p0352).
The accuracy of the measurement can be improved by entering the feeder cable resistance p0352 and by deter-
mining the reference stator resistance p0629 for the ambient temperature. p0629 is the measured value r0623,
which was determined immediately after the first commissioning with the motor in a cold state. For p0621 = 1,
p0629 is also measured when switching on for the first time and not after the Control Unit has powered up.
Note: The measurement is carried out:
- For induction motors
- When vector control is active (see p1300)
- If a temperature sensor (KTY) has not been connected
- When the motor is at a standstill when switched on
When a flying restart is performed on a rotating motor, the temperatures of the thermal motor model are set to a
third of the overtemperatures. This occurs only once, however, when the CU is booted (e.g. after a power failure).
If identification is activated, the magnetizing time is determined via p0622 and not via p0346. Quick magnetizing
(p1401.6) is de-energized internally and alarm A07416 is displayed. The speed is enabled after completion of the
measurement.
p0622[0...n] Motor excitation time for Rs_ident after powering up again / t_excit Rs_id
Access level: 3 Calculated: p0340 = 1,3 Data type: FloatingPoint32
Can be changed: C(3), U, T Scaling: - Dyn. index: MDS, p0130
Units group: - Unit selection: - Func. diagram: -
r0623 Rs identification stator resistance after switch on again / Rs-id Rs aft sw-on
Access level: 4 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
Note: When changing p0756 , the parameters of the scaling characteristic (p0757, p0758, p0759, p0760) are overwritten
with the following default values:
For p0756 = 0, 4, p0757 is set to 0.0 V, p0758 = 0.0 %, p0759 = 10.0 V and p0760 = 100.0 %.
For p0756 = 1, p0757 is set to 2.0 V, p0758 = 0.0 %, p0759 = 10.0 V and p0760 = 100.0 %.
For p0756 = 2, p0757 is set to 0.0 mA, p0758 = 0.0 %, p0759 = 20.0 mA and p0760 = 100.0 %.
For p0756 = 3, p0757 is set to 4.0 mA, p0758 = 0.0 %, p0759 = 20.0 mA and p0760 = 100.0 %.
For p0756 = 6, 7, p0757 is set to 0 °C, p0758 = 0.0 %, p0759 = 100 °C and p0760 = 100.0 %.
p0762[0...3] CU analog inputs wire breakage monitoring delay time / CU wire brk t_del
Access level: 3 Calculated: - Data type: Unsigned16
Can be changed: U, T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: 9566, 9568
p0804 = 1003:
No memory card has been inserted.
p0804 = 1002:
The parameter backup set in p0803 as the source in the device memory does not exist or there is not sufficient
memory space available in the device memory.
p0804 = 1003:
No memory card has been inserted.
p0810 BI: Command data set selection CDS bit 0 / CDS select bit 0
CU230P-2_BT Access level: 2 Calculated: - Data type: U32 / Binary
CU230P-2_CAN Can be changed: T Scaling: - Dyn. index: -
CU230P-2_HVAC Units group: - Unit selection: - Func. diagram: 8560
p0810 BI: Command data set selection CDS bit 0 / CDS select bit 0
CU230P-2_DP Access level: 2 Calculated: - Data type: U32 / Binary
CU230P-2_PN Can be changed: T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: 8560
p0811 BI: Command data set selection CDS bit 1 / CDS select bit 1
Access level: 2 Calculated: - Data type: U32 / Binary
Can be changed: T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: 8560
Note: Procedure:
1. In Index 0, enter which drive data set is to be copied.
2. In Index 1, enter the drive data set data that is to be copied into.
3. Start copying: Set index 2 from 0 to 1.
p0819[2] is automatically set to 0 when copying is completed.
p0820[0...n] BI: Drive Data Set selection DDS bit 0 / DDS select bit 0
Access level: 3 Calculated: - Data type: U32 / Binary
Can be changed: C(15), T Scaling: - Dyn. index: CDS, p0170
Units group: - Unit selection: - Func. diagram: 8565, 8575
p0821[0...n] BI: Drive Data Set selection DDS bit 1 / DDS select bit 1
Access level: 3 Calculated: - Data type: U32 / Binary
Can be changed: C(15), T Scaling: - Dyn. index: CDS, p0170
Units group: - Unit selection: - Func. diagram: 8565
Notice: For binector input p0840 = 0 signal, the motor can be moved, jogging using binector input p1055 or p1056.
The command "ON/OFF (OFF1)" can be issued using binector input p0840 or p1055/p1056.
For binector input p0840 = 0 signal, the switch-on inhibit is acknowledged.
Only the signal source that originally powered up can also power down again.
The parameter may be protected as a result of p0922 or p2079 and cannot be changed.
Note: For drives with closed-loop speed control (p1300 = 20), the following applies:
- BI: p0840 = 0 signal: OFF1 (braking with the ramp-function generator, then pulse suppression and switch-on
inhibit)
For drives with closed-loop torque control (p1300 = 22), the following applies:
- BI: p0840 = 0 signal: immediate pulse suppression
For drives with closed-loop torque control (activated using p1501), the following applies:
- BI: p0840 = 0 signal: No dedicated braking response, but pulse cancelation when standstill is detected (p1226,
p1227)
For drives with closed-loop speed/torque control, the following applies:
- BI: p0840 = 0/1 signal: ON (pulses can be enabled)
Notice: For binector input p0840 = 0 signal, the motor can be moved, jogging using binector input p1055 or p1056.
The command "ON/OFF (OFF1)" can be issued using binector input p0840 or p1055/p1056.
For binector input p0840 = 0 signal, the switch-on inhibit is acknowledged.
Only the signal source that originally powered up can also power down again.
The parameter may be protected as a result of p0922 or p2079 and cannot be changed.
Note: For drives with closed-loop speed control (p1300 = 20), the following applies:
- BI: p0840 = 0 signal: OFF1 (braking with the ramp-function generator, then pulse suppression and switch-on
inhibit)
For drives with closed-loop torque control (p1300 = 22), the following applies:
- BI: p0840 = 0 signal: immediate pulse suppression
For drives with closed-loop torque control (activated using p1501), the following applies:
- BI: p0840 = 0 signal: No dedicated braking response, but pulse cancelation when standstill is detected (p1226,
p1227)
For drives with closed-loop speed/torque control, the following applies:
- BI: p0840 = 0/1 signal: ON (pulses can be enabled)
Notice: The parameter may be protected as a result of p0922 or p2079 and cannot be changed.
Caution: When "master control from PC" is activated, this binector input is ineffective.
Notice: The parameter may be protected as a result of p0922 or p2079 and cannot be changed.
p0848[0...n] BI: No Quick Stop / Quick Stop (OFF3) signal source 1 / OFF3 S_src 1
CU230P-2_BT Access level: 3 Calculated: - Data type: U32 / Binary
CU230P-2_CAN Can be changed: T Scaling: - Dyn. index: CDS, p0170
CU230P-2_HVAC Units group: - Unit selection: - Func. diagram: 2501
Notice: The parameter may be protected as a result of p0922 or p2079 and cannot be changed.
Note: For drives with closed-loop torque control (activated using p1501), the following applies:
BI: p0848 = 0 signal:
- No dedicated braking response, but pulse suppression when standstill is detected (p1226, p1227).
p0848[0...n] BI: No Quick Stop / Quick Stop (OFF3) signal source 1 / OFF3 S_src 1
CU230P-2_DP Access level: 3 Calculated: - Data type: U32 / Binary
CU230P-2_PN Can be changed: T Scaling: - Dyn. index: CDS, p0170
Units group: - Unit selection: - Func. diagram: 2501
Notice: The parameter may be protected as a result of p0922 or p2079 and cannot be changed.
Note: For drives with closed-loop torque control (activated using p1501), the following applies:
BI: p0848 = 0 signal:
- No dedicated braking response, but pulse suppression when standstill is detected (p1226, p1227).
p0849[0...n] BI: No Quick Stop / Quick Stop (OFF3) signal source 2 / OFF3 S_src 2
PM230 Access level: 3 Calculated: - Data type: U32 / Binary
PM240 Can be changed: T Scaling: - Dyn. index: CDS, p0170
PM250, PM260 Units group: - Unit selection: - Func. diagram: 2501
Note: For drives with closed-loop torque control (activated using p1501), the following applies:
BI: p0849 = 0 signal:
- No dedicated braking response, but pulse suppression when standstill is detected (p1226, p1227).
p0849[0...n] BI: No Quick Stop / Quick Stop (OFF3) signal source 2 / OFF3 S_src 2
PM330 Access level: 3 Calculated: - Data type: U32 / Binary
Can be changed: T Scaling: - Dyn. index: CDS, p0170
Units group: - Unit selection: - Func. diagram: 2501
Note: For drives with closed-loop torque control (activated using p1501), the following applies:
BI: p0849 = 0 signal:
- No dedicated braking response, but pulse suppression when standstill is detected (p1226, p1227).
Notice: The parameter may be protected as a result of p0922 or p2079 and cannot be changed.
Notice: The parameter may be protected as a result of p0922 or p2079 and cannot be changed.
Caution: When "master control from PC" is activated, this binector input is ineffective.
Notice: The parameter may be protected as a result of p0922 or p2079 and cannot be changed.
Note: This bit is used to initiate a response for the drives when the control fails (F07220). If there is no control available,
then binector input p0854 should be set to 1.
If a control is available, then STW1.10 must be set to 1 (PZD1) so that the received data is updated. This applies
regardless of the setting in p0854 and even in the case of free telegram configuration (p0922 = 999).
Notice: The parameter may be protected as a result of p0922 or p2079 and cannot be changed.
Note: This bit is used to initiate a response for the drives when the control fails (F07220). If there is no control available,
then binector input p0854 should be set to 1.
If a control is available, then STW1.10 must be set to 1 (PZD1) so that the received data is updated. This applies
regardless of the setting in p0854 and even in the case of free telegram configuration (p0922 = 999).
r0944 CO: Counter for fault buffer changes / Fault buff change
Access level: 3 Calculated: - Data type: Unsigned16
Can be changed: - Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: 8060
r0945[8], r0949[8], r0948[8], r2109[8] --> 1st acknowledged fault case, fault 1
...
r0945[15], r0949[15], r0948[15], r2109[15] --> 1st acknowledged fault case, fault 8
...
r0945[56], r0949[56], r0948[56], r2109[56] --> 7th acknowledged fault case, fault 1
...
r0945[63], r0949[63], r0948[63], r2109[63] --> 7th acknowledged fault case, fault 8
Note: A factory setting run can only be started if p0010 was first set to 30 (parameter reset).
At the end of the calculations, p0970 is automatically set to 0.
Parameter reset is completed with p0970 = 0 and r3996[0] = 0.
The following generally applies:
One index of parameters p2100, p2101, p2118, p2119, p2126, p2127 is not reset, if a parameterized message is
precisely active in this index.
Notice: The Control Unit power supply may only be powered down after data has been saved (i.e. after data save has been
started, wait until the parameter again has the value 0).
Writing to parameters is inhibited while saving.
The progress while saving is displayed in r3996.
Note: If value = 1:
Reset is immediately executed and communications interrupted.
After communications have been established, check the reset operation (refer below).
If value = 2:
Help to check the reset operation.
Firstly, set p0972 = 2 and then read back. Secondly, set p0972 = 1 (it is possible that this request is possibly no lon-
ger acknowledged). The communication is then interrupted.
After communications have been established, check the reset operation (refer below).
If value = 3:
The reset is executed after interrupting cyclic communication. This setting is used to implement a synchronized
reset by a control for several drive units.
Caution: When executing a specific macro, the corresponding programmed settings are made and become active.
Notice: The parameter is possibly protected as a result of p0922.
For PROFIBUS/PROFINET Control Units, the following applies: The parameter can be freely set by setting p0922 =
999.
Caution: When executing a specific macro, the corresponding programmed settings are made and become active.
Notice: The parameter is possibly protected as a result of p0922.
For PROFIBUS/PROFINET Control Units, the following applies: The parameter can be freely set by setting p0922 =
999.
Caution: When executing a specific macro, the corresponding programmed settings are made and become active.
Notice: The parameter is possibly protected as a result of p0922.
For PROFIBUS/PROFINET Control Units, the following applies: The parameter can be freely set by setting p0922 =
999.
p1043[0...n] BI: Motorized potentiometer accept setting value / MotP acc set val
Access level: 3 Calculated: - Data type: U32 / Binary
Can be changed: T Scaling: - Dyn. index: CDS, p0170
Units group: - Unit selection: - Func. diagram: 3020
r1045 CO: Mot. potentiometer speed setp. in front of ramp-fct. gen. / Mop n_set bef RFG
Access level: 3 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: p2000 Dyn. index: -
Units group: 3_1 Unit selection: p0505 Func. diagram: 3020
p1051[0...n] CI: Speed limit RFG positive direction of rotation / n_limit RFG pos
Access level: 3 Calculated: - Data type: U32 / FloatingPoint32
Can be changed: T Scaling: p2000 Dyn. index: CDS, p0170
Units group: - Unit selection: - Func. diagram: 3050
p1052[0...n] CI: Speed limit RFG negative direction of rotation / n_limit RFG neg
Access level: 3 Calculated: - Data type: U32 / FloatingPoint32
Can be changed: T Scaling: p2000 Dyn. index: CDS, p0170
Units group: - Unit selection: - Func. diagram: 3050
r1112 CO: Speed setpoint after minimum limiting / n_set aft min_lim
Access level: 4 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: p2000 Dyn. index: -
Units group: 3_1 Unit selection: p0505 Func. diagram: 3050
Notice: The parameter may be protected as a result of p0922 or p2079 and cannot be changed.
Notice: The parameter may be protected as a result of p0922 or p2079 and cannot be changed.
r1114 CO: Setpoint after the direction limiting / Setp after limit
Access level: 3 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: p2000 Dyn. index: -
Units group: 3_1 Unit selection: p0505 Func. diagram: 1550, 3040, 3050
r1119 CO: Ramp-function generator setpoint at the input / RFG setp at inp
Access level: 3 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: p2000 Dyn. index: -
Units group: 3_1 Unit selection: p0505 Func. diagram: 1550, 1690, 3050,
3060, 3070
Notice: The parameter may be protected as a result of p0922 or p2079 and cannot be changed.
Note: The setpoint is influenced by other functions, e.g. skip (suppressed) speeds, minimum and maximum limits.
Notice: The parameter may be protected as a result of p0922 or p2079 and cannot be changed.
Note: In the case of sensorless vector control, the ramp-function generator must not be bypassed, other than indirectly by
means of interconnection with r2349 or r2399.
Note: For U/f control and sensorless vector control (see p1300), ramp-down times of 0 s are not recommended. The set-
ting should be based on the startup times (r0345) of the motor.
If the maximum speed p1082 changes, p1127 is re-calculated.
Notice: The parameter may be protected as a result of p0922 or p2079 and cannot be changed.
Notice: The parameter may be protected as a result of p0922 or p2079 and cannot be changed.
Notice: The ramp-function generator is, independent of the state of the signal source, active in the following cases:
- OFF1/OFF3.
- ramp-function generator output within the suppression bandwidth.
- ramp-function generator output below the minimum speed.
Notice: The ramp-function generator is, independent of the state of the signal source, active in the following cases:
- OFF1/OFF3.
- ramp-function generator output within the suppression bandwidth.
- ramp-function generator output below the minimum speed.
Notice: The parameter may be protected as a result of p0922 or p2079 and cannot be changed.
Note: When the function module "position control" (r0108.3 = 1) is activated, this binector input is interconnected as fol-
lows as standard:
BI: p1142 = 0 signal
Notice: The parameter may be protected as a result of p0922 or p2079 and cannot be changed.
Note: When the function module "position control" (r0108.3 = 1) is activated, this binector input is interconnected as fol-
lows as standard:
BI: p1142 = 0 signal
p1143[0...n] BI: Ramp-function generator, accept setting value / RFG accept set v
Access level: 3 Calculated: - Data type: U32 / Binary
Can be changed: T Scaling: - Dyn. index: CDS, p0170
Units group: - Unit selection: - Func. diagram: 3060, 3070
p1148[0...n] Ramp-function gen. tolerance for ramp-up and ramp-down active / RFG tol HL/RL act
Access level: 3 Calculated: - Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: DDS, p0180
Units group: 3_1 Unit selection: p0505 Func. diagram: 3060, 3070
p1201[0...n] BI: Flying restart enable signal source / Fly_res enab S_src
Access level: 3 Calculated: - Data type: U32 / Binary
Can be changed: T Scaling: - Dyn. index: CDS, p0170
Units group: - Unit selection: - Func. diagram: -
Note: In U/f control mode, the parameter serves as a threshold value for establishing the current at the beginning of the
flying restart function. When the threshold value is reached, the prevailing search current is set dependent upon the
frequency on the basis of voltage inputs.
Reducing the search current can also improve flying restart performance (if the system moment of inertia is not very
high, for example).
Note: In U/f control mode, the parameter serves as a threshold value for establishing the current at the beginning of the
flying restart function. When the threshold value is reached, the prevailing search current is set dependent upon the
frequency on the basis of voltage inputs.
Reducing the search current can also improve flying restart performance (if the system moment of inertia is not very
high, for example).
Note: The parameter factory setting is selected so that standard induction motors that are rotating can be found and
restarted as quickly as possible (fast flying restart).
With this pre-setting, if the motor is not found (e.g. for motors that are accelerated as a result of active loads or with
U/f control and low speeds), we recommend that the search rate is reduced (by increasing p1203).
Note: The parameter factory setting is selected so that standard induction motors that are rotating can be found and
restarted as quickly as possible (fast flying restart).
With this pre-setting, if the motor is not found (e.g. for motors that are accelerated as a result of active loads or with
U/f control and low speeds), we recommend that the search rate is reduced (by increasing p1203).
As long as a fault is present, an acknowledge command is generated in the time intervals of p1212 / 2. When suc-
cessfully acknowledged, the start counter is decremented. If, after this, a fault re-occurs before a restart has been
completed, then acknowledgement starts again from the beginning.
Fault F07320 is output if, after several faults occur, the number of parameterized start attempts has been reached.
After a successful start attempt, i.e. a fault/error has no longer occurred up to the end of the magnetizing phase, the
start counter is again reset to the parameter value after 1 s. If a fault re-occurs - the parameterized number of start
attempts is again available.
At least one start attempt is always carried out.
After a line supply failure, acknowledgement is immediate and when the line supply returns, the system is powered
up. If, between successfully acknowledging the line fault and the line supply returning, another fault occurs, then its
acknowledgement also causes the start counter to be decremented.
For p1210 = 26, the start counter is decremented if after a successful fault acknowledgement, the on command is
present.
Re index 1:
The start counter (refer to r1214) is only set back to the starting value p1211 if, after successful restart, the time in
p1213[1] has expired. The delay time is not effective for fault acknowledgement without automatic restart (p1210 =
1). After a power failure (blackout) the delay time only starts after the line supply returns and the Control Unit boots.
The start counter is set to p1211, if F07320 occurred, the power-on command is withdrawn and the fault is acknowl-
edged.
The start counter is immediately updated if the starting value p1211 or the mode p1210 is changed.
For p1210 = 26, the fault must have been successfully acknowledged and the switch-on command issued within the
time in p1213[0]. Otherwise, fault F07320 is generated after the set time.
Notice: For reasons relating to the compatibility to earlier firmware versions, a parameter value of zero in indices 1 to 31 is
overwritten with the parameter value in index 0 when the Control Unit boots.
Note: Standstill is identified in the following cases:
- the speed actual value falls below the speed threshold in p1226 and the time started after this in p1228 has
expired.
- the speed setpoint falls below the speed threshold in p1226 and the time started after this in p1227 has expired.
The actual value sensing is subject to measuring noise. For this reason, standstill cannot be detected if the speed
threshold is too low.
Re p1231 = 14:
In addition to the function for p1231 = 5, binector input p1230 is evaluated.
DC braking is only automatically activated when the speed threshold p1234 is fallen below if binector input p1230 =
1 signal. This is also the case, if no OFF command is present.
After demagnetization and after the time in p1233 has expired, the drive changes back into normal operation or is
switched-off (for OFF1/OFF3).
If a 0 signal is applied to binector input p1230, for OFF1 and OFF3 no DC braking is executed.
Notice: If a time threshold has been parameterized, the Vdc_max controller should also be activated (p1240 = 3) so that the
drive does not shut down with overvoltage when Vdc_min control is exited (due to the time violation) and in the
event of fault response OFF3. It is also possible to increase the OFF3 ramp-down time p1135.
p1285[0...n] Vdc_min controller switch-in level (kinetic buffering) (U/f) / Vdc_min on_level
PM240 Access level: 3 Calculated: - Data type: FloatingPoint32
PM330 Can be changed: U, T Scaling: - Dyn. index: DDS, p0180
Units group: - Unit selection: - Func. diagram: -
r1286 Vdc_min controller switch-in level (kinetic buffering) (U/f) / Vdc_min on_level
PM240 Access level: 3 Calculated: - Data type: FloatingPoint32
PM330 Can be changed: - Scaling: p2001 Dyn. index: -
Units group: - Unit selection: - Func. diagram: 6320
p1287[0...n] Vdc_min controller dynamic factor (kinetic buffering) (U/f) / Vdc_min dyn_factor
PM240 Access level: 3 Calculated: p0340 = 1,3,4 Data type: FloatingPoint32
PM330 Can be changed: U, T Scaling: - Dyn. index: DDS, p0180
Units group: - Unit selection: - Func. diagram: 6320
p1294 Vdc_max controller automatic detection ON signal level (U/f) / Vdc_max SenseOnLev
PM230 Access level: 3 Calculated: - Data type: Integer16
PM240, PM330 Can be changed: U, T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
Note: Re p1296 = 1:
The quick stop ramp entered in p1135 must not be equal to zero, to prevent overcurrent shutdown if F07406 is trig-
gered.
Note: For p1333 = 0 Hz, the FCC starting frequency is automatically set to 6 % of the rated motor frequency.
p1334[0...n] U/f control slip compensation starting frequency / Slip comp start
Access level: 3 Calculated: p0340 = 1 Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: DDS, p0180
Units group: - Unit selection: - Func. diagram: 6310
Notice: When de-activating the I_max controller, the following must be carefully observed:
When the maximum current (r0067) is exceeded, the output current is no longer reduced, however, overcurrent
alarm messages are generated. The drive is shut down if the overcurrent limit (r0209) is exceeded.
Note: The I_max limiting controller becomes ineffective if the ramp-function generator is de-activated with p1122 = 1.
p1341 = 0: I_max frequency controller de-activated and I_max voltage controller activated over the complete speed
range.
r1348 CO: U/f control Eco factor actual value / U/f Eco fac act v
Access level: 4 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: PERCENT Dyn. index: -
Units group: - Unit selection: - Func. diagram: 6300
p1402[0...n] Closed-loop current control and motor model configuration / I_ctrl config
Access level: 4 Calculated: p0340 = 1,3 Data type: Unsigned16
Can be changed: U, T Scaling: - Dyn. index: DDS, p0180
Units group: - Unit selection: - Func. diagram: -
p1452[0...n] Speed controller speed actual value smoothing time (SLVC) / n_C n_act T_s SLVC
Access level: 2 Calculated: - Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: DDS, p0180
Units group: - Unit selection: - Func. diagram: 1700, 6040
Note: If the upper transition point p1465 of the speed controller adaptation is set to lower values than the lower transition
p1464, then the controller gain below p1465 is adapted with p1461. This means that an adaptation can be imple-
mented for low speeds without having to change the controller parameters.
r1508 CO: Torque setpoint before supplementary torque / M_set bef. M_suppl
Access level: 2 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: p2003 Dyn. index: -
Units group: 7_1 Unit selection: p0505 Func. diagram: 6030, 6060, 6722
Notice: A BICO interconnection to a parameter that belongs to a drive data set always acts on the effective data set.
Note: The torque limit is limited to 400% of the rated motor torque. When automatically calculating the motor/closed-loop
control parameters (p0340), the torque limit is set to match the current limit (p0640).
Notice: A BICO interconnection to a parameter that belongs to a drive data set always acts on the effective data set.
Note: The torque limit is limited to 400% of the rated motor torque. When automatically calculating the motor/closed-loop
control parameters (p0340), the torque limit is set to match the current limit (p0640).
Note: It only makes sense to activate this function if the dynamic response requirements of the speed controller are low.
In order to avoid oscillations, if required, the speed controller parameters should be adapted (increase Tn, reduce
Kp).
Further, the smoothing time of the flux setpoint filter (p1582) should be increased.
p1584[0...n] Field weakening operation flux setpoint smoothing time / Field weak T_smth
Access level: 4 Calculated: p0340 = 1,3 Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: DDS, p0180
Units group: - Unit selection: - Func. diagram: 6722
p1654[0...n] Curr. setpoint torque-gen. smoothing time field weakening range / Isq_s T_smth FW
Access level: 4 Calculated: p0340 = 1 Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: DDS, p0180
Units group: - Unit selection: - Func. diagram: 6710
Note: The parameter value is referred to the synchronous rated motor speed.
p1731[0...n] Isd controller combination current time component / Isd ctrl iCombi T1
Access level: 4 Calculated: p0340 = 1,3,4 Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: DDS, p0180
Units group: - Unit selection: - Func. diagram: -
p1740[0...n] Gain resonance damping for encoderless closed-loop control / Gain res_damp
Access level: 4 Calculated: p0340 = 1,3,4 Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: DDS, p0180
Units group: - Unit selection: - Func. diagram: -
r1746 Motor model error signal stall detection / MotMod sig stall
Access level: 3 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
p1749[0...n] Motor model increase changeover speed encoderless operation / Incr n_chng no enc
Access level: 4 Calculated: p0340 = 1,3 Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: DDS, p0180
Units group: - Unit selection: - Func. diagram: -
Note: Bits 0 ... 2 only have an influence for encoderless vector control, bit 2 is pre-assigned depending on p0500.
Re bit 2 = 1:
The sensorless vector control is effective down to zero frequency. A change is not made into the open-loop speed
controlled mode.
This operating mode is possible for passive loads. These include applications where the load itself does not gener-
ate any active torque and therefore only acts reactively to the drive torque of the induction motor.
If bit 2 = 1, then bit 3 is automatically set to 1. Manual de-selection is possible and may be sensible if the saturation
characteristic (p1960) was not measured for third-party motors. Generally, for standard SIEMENS motors, the
already pre-assigned (default value) saturation characteristic is adequate.
When the bit is set, the selection of bits 0 and 1 is ignored.
Re bit 2 = 0:
Bit 3 is also automatically deactivated.
Re bit 6 = 1:
The following applies for encoderless vector control of induction motors:
For a blocked motor (see p2175, p2177) the time condition in p1758 is bypassed and a change is not made into
open-loop controlled operation.
Re bit 7 = 1:
The following applies for encoderless vector control of induction motors:
If the changeover limits are parameterized too low (p1755, p1756), then they are automatically increased to rugged
values by the absolute amount p1749 * p1755.
The effective time condition for changing over into open-controlled operation is given by Min(p1758, 0.5 * r0384).
Activation can make sense for applications that demand a high torque at low frequencies and therefore low speed
gradients.
Adequate parameterization must be ensured (p1610, p1611).
Note: Bits 0 ... 2 only have an influence for encoderless vector control, bit 2 is pre-assigned depending on p0500.
Re bit 2 = 1:
The sensorless vector control is effective down to zero frequency. A change is not made into the open-loop speed
controlled mode.
This operating mode is possible for passive loads. These include applications where the load itself does not gener-
ate any active torque and therefore only acts reactively to the drive torque of the induction motor.
If bit 2 = 1, then bit 3 is automatically set to 1. Manual de-selection is possible and may be sensible if the saturation
characteristic (p1960) was not measured for third-party motors. Generally, for standard SIEMENS motors, the
already pre-assigned (default value) saturation characteristic is adequate.
When the bit is set, the selection of bits 0 and 1 is ignored.
Re bit 2 = 0:
Bit 3 is also automatically deactivated.
Re bit 6 = 1:
The following applies for encoderless vector control of induction motors:
For a blocked motor (see p2175, p2177) the time condition in p1758 is bypassed and a change is not made into
open-loop controlled operation.
Re bit 7 = 1:
The following applies for encoderless vector control of induction motors:
If the changeover limits are parameterized too low (p1755, p1756), then they are automatically increased to rugged
values by the absolute amount p1749 * p1755.
The effective time condition for changing over into open-controlled operation is given by Min(p1758, 0.5 * r0384).
Activation can make sense for applications that demand a high torque at low frequencies and therefore low speed
gradients.
Adequate parameterization must be ensured (p1610, p1611).
Note: Bits 0 ... 2 only have an influence for encoderless vector control, bit 2 is pre-assigned depending on p0500.
Re bit 2 = 1:
The sensorless vector control is effective down to zero frequency. A change is not made into the open-loop speed
controlled mode.
This operating mode is possible for passive loads. These include applications where the load itself does not gener-
ate any active torque and therefore only acts reactively to the drive torque of the induction motor.
If bit 2 = 1, then bit 3 is automatically set to 1. Manual de-selection is possible and may be sensible if the saturation
characteristic (p1960) was not measured for third-party motors. Generally, for standard SIEMENS motors, the
already pre-assigned (default value) saturation characteristic is adequate.
When the bit is set, the selection of bits 0 and 1 is ignored.
Re bit 2 = 0:
Bit 3 is also automatically deactivated.
Re bit 6 = 1:
The following applies for encoderless vector control of induction motors:
For a blocked motor (see p2175, p2177) the time condition in p1758 is bypassed and a change is not made into
open-loop controlled operation.
Re bit 7 = 1:
The following applies for encoderless vector control of induction motors:
If the changeover limits are parameterized too low (p1755, p1756), then they are automatically increased to rugged
values by the absolute amount p1749 * p1755.
The effective time condition for changing over into open-controlled operation is given by Min(p1758, 0.5 * r0384).
Activation can make sense for applications that demand a high torque at low frequencies and therefore low speed
gradients.
Adequate parameterization must be ensured (p1610, p1611).
p1758[0...n] Motor model changeover delay time closed/open-loop control / MotMod t cl_op
Access level: 4 Calculated: - Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: DDS, p0180
Units group: - Unit selection: - Func. diagram: -
p1759[0...n] Motor model changeover delay time open/closed-loop control / MotMod t op_cl
Access level: 4 Calculated: - Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: DDS, p0180
Units group: - Unit selection: - Func. diagram: -
p1764[0...n] Motor model without encoder speed adaptation Kp / MotMod woE n_adaKp
Access level: 4 Calculated: p0340 = 1,3,4 Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: DDS, p0180
Units group: - Unit selection: - Func. diagram: 6730
p1767[0...n] Motor model without encoder speed adaptation Tn / MotMod woE n_adaTn
Access level: 4 Calculated: p0340 = 1,3,4 Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: DDS, p0180
Units group: - Unit selection: - Func. diagram: 6730
r1770 CO: Motor model speed adaptation proportional component / MotMod n_adapt Kp
Access level: 4 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: p2000 Dyn. index: -
Units group: 3_1 Unit selection: p0505 Func. diagram: 6730
p1774[0...n] Motor model offset voltage compensation alpha / MotMod offs comp A
Access level: 4 Calculated: - Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: DDS, p0180
Units group: - Unit selection: - Func. diagram: -
p1775[0...n] Motor model offset voltage compensation beta / MotMod offs comp B
Access level: 4 Calculated: - Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: DDS, p0180
Units group: - Unit selection: - Func. diagram: -
Note: The maximum possible pulse frequency is also determined by the power unit being used.
When the pulse frequency is increased, depending on the particular power unit, the maximum output current can be
reduced (derating, refer to r0067).
If a sine-wave filter is parameterized as output filter (p0230 = 3), then the pulse frequency cannot be set below the
minimum value required for the filter.
For operation with output reactors, the pulse frequency is limited to 4 kHz (see p0230).
If p1800 is changed during commissioning (p0010 > 0), then it is possible that the old value will no longer be able to
be set. The reason for this is that the dynamic limits of p1800 have been changed by a parameter that was set when
the drive was commissioned (e.g. p1082).
p1802 = 10 can only be set for power units PM230 and PM240 and for r0204.15 = 0.
Refer to: p0230, p0500
Note: When modulation modes are enabled that could lead to overmodulation (p1802 = 0, 2, 10), the modulation depth
must be limited using p1803 (default, p1803 = 98%). The higher the overmodulation, the greater the current ripple
and torque ripple. With p1802 = 10, the modulation depth limit is automatically reduced to 100% in the critical output
frequency range (over approx. 57 Hz).
When changing p1802[x], the values for all of the other existing indices are also changed.
p1822 Power unit line phases monitoring tolerance time / PU ph monit t_tol
Access level: 4 Calculated: - Data type: Unsigned32
Can be changed: T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
p1900 Motor data identification and rotating measurement / MotID and rot meas
PM230 Access level: 2 Calculated: - Data type: Integer16
PM240 Can be changed: C(1), T Scaling: - Dyn. index: -
PM250, PM260 Units group: - Unit selection: - Func. diagram: -
p1900 Motor data identification and rotating measurement / MotID and rot meas
PM330 Access level: 2 Calculated: - Data type: Integer16
Can be changed: C(1), T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
Notice: To permanently accept the determined settings they must be saved in a non-volatile fashion (p0971).
During the rotating measurement it is not possible to save the parameter (p0971).
Note: When the rotating measurement is activated, it is not possible to save the parameters (p0971).
Parameter changes are automatically made for the rotating measurement (e.g. p1120); this is the reason that up to
the end of the measurement, and if no faults are present, no manual changes should be made.
The ramp-up and ramp-down times (p1120, p1121) are limited, for the rotating measurement, to 900 s.
r1970[0...1] Speed_ctrl_opt vibration test vibration frequency determined / n_opt f_vib det
Access level: 4 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
Example:
The actual value of the total torque (r0079) is connected to a test socket (e.g. p0771[0]). The actual torque is cycli-
cally converted into a percentage of the reference torque (p2003) and output according to the parameterized scal-
ing.
p2016[0...3] CI: Comm IF USS PZD send word / Comm USS send word
Access level: 3 Calculated: - Data type: U32 / Integer16
Can be changed: U, T Scaling: 4000H Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
p2022 Field bus int USS PZD no. / Field bus USS PZD
CU230P-2_BT Access level: 2 Calculated: - Data type: Unsigned16
CU230P-2_HVAC Can be changed: T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
p2023 Field bus int USS PKW no. / Field bus USS PKW
CU230P-2_BT Access level: 2 Calculated: - Data type: Integer16
CU230P-2_HVAC Can be changed: T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
[11] = PZD 12
[12] = PZD 13
[13] = PZD 14
Notice: The parameter may be protected as a result of p0922 or p2079 and cannot be changed.
r2074[0...11] PROFIdrive diagnostics bus address PZD receive / Diag addr recv
CU230P-2_DP Access level: 3 Calculated: - Data type: Unsigned16
Can be changed: - Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
r2075[0...11] PROFIdrive diagnostics telegram offset PZD receive / Diag offs recv
CU230P-2_DP Access level: 3 Calculated: - Data type: Unsigned16
Can be changed: - Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
r2076[0...13] PROFIdrive diagnostics telegram offset PZD send / Diag offs send
CU230P-2_DP Access level: 3 Calculated: - Data type: Unsigned16
Can be changed: - Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
r2077[0...15] PROFIBUS diagnostics peer-to-peer data transfer addresses / PB diag peer addr
CU230P-2_DP Access level: 3 Calculated: - Data type: Unsigned8
Can be changed: - Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
For p0922 = 999 and p2079 < 999 the following applies:
The interconnections contained in the telegram are inhibited. However, the telegram can be extended.
[4] = Bit 4
[5] = Bit 5
[6] = Bit 6
[7] = Bit 7
[8] = Bit 8
[9] = Bit 9
[10] = Bit 10
[11] = Bit 11
[12] = Bit 12
[13] = Bit 13
[14] = Bit 14
[15] = Bit 15
Dependency: Refer to: p2088, r2089
Notice: The parameter may be protected as a result of p0922 or p2079 and cannot be changed.
[9] = Bit 9
[10] = Bit 10
[11] = Bit 11
[12] = Bit 12
[13] = Bit 13
[14] = Bit 14
[15] = Bit 15
Dependency: Refer to: p2088, r2089
r2089[0...4] CO: Send binector-connector converter status word / Bin/con ZSW send
Access level: 3 Calculated: - Data type: Unsigned16
Can be changed: - Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: 2472
p2100[0...19] Setting the fault number for fault response / F_no F response
Access level: 3 Calculated: - Data type: Unsigned16
Can be changed: U, T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: 1750, 8075
Notice: For the following cases, it is not possible to re-parameterize the fault response to a fault:
- if there is no existing fault number.
- the message type is not "fault" (F).
Note: Re-parameterization is also possible if a fault is present. The change only becomes effective after the fault has
been resolved.
p2118[0...19] Sets the message number for message type. / Msg_no Msg_type
Access level: 3 Calculated: - Data type: Unsigned16
Can be changed: U, T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: 1750, 8075
r2120 CO: Sum of fault and alarm buffer changes / Sum buffer changed
Access level: 4 Calculated: - Data type: Unsigned16
Can be changed: - Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: 8065
Notice: It is not possible to re-parameterize the acknowledge mode of a fault in the following cases:
- Fault number does not exist.
- Message type is not "fault" (F).
Note: Re-parameterization is also possible if a fault is present. The change only becomes effective after the fault has
been resolved.
r2129.0...15 CO/BO: Trigger word for faults and alarms / Trigger word
Access level: 3 Calculated: - Data type: Unsigned16
Can be changed: - Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: 1530, 8070
p2144[0...n] BI: Motor stall monitoring enable (negated) / Mot stall enab neg
Access level: 3 Calculated: - Data type: U32 / Binary
Can be changed: U, T Scaling: - Dyn. index: CDS, p0170
Units group: - Unit selection: - Func. diagram: 8012
p2171[0...n] Current threshold value reached delay time / t_del I_thresh rch
Access level: 3 Calculated: - Data type: Unsigned16
Can be changed: U, T Scaling: - Dyn. index: DDS, p0180
Units group: - Unit selection: - Func. diagram: -
p2216[0...n] Technology controller fixed value selection method / Tec_ctr FixVal sel
Access level: 2 Calculated: - Data type: Integer16
Can be changed: T Scaling: - Dyn. index: DDS, p0180
Units group: - Unit selection: - Func. diagram: -
p2220[0...n] BI: Technology controller fixed value selection bit 0 / Tec_ctrl sel bit 0
Access level: 3 Calculated: - Data type: U32 / Binary
Can be changed: T Scaling: - Dyn. index: CDS, p0170
Units group: - Unit selection: - Func. diagram: 7950
p2221[0...n] BI: Technology controller fixed value selection bit 1 / Tec_ctrl sel bit 1
Access level: 3 Calculated: - Data type: U32 / Binary
Can be changed: T Scaling: - Dyn. index: CDS, p0170
Units group: - Unit selection: - Func. diagram: 7950
p2222[0...n] BI: Technology controller fixed value selection bit 2 / Tec_ctrl sel bit 2
Access level: 3 Calculated: - Data type: U32 / Binary
Can be changed: T Scaling: - Dyn. index: CDS, p0170
Units group: - Unit selection: - Func. diagram: 7950
p2223[0...n] BI: Technology controller fixed value selection bit 3 / Tec_ctrl sel bit 3
Access level: 3 Calculated: - Data type: U32 / Binary
Can be changed: T Scaling: - Dyn. index: CDS, p0170
Units group: - Unit selection: - Func. diagram: 7950
r2224 CO: Technology controller fixed value effective / Tec_ctr FixVal eff
Access level: 3 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: PERCENT Dyn. index: -
Units group: 9_1 Unit selection: p0595 Func. diagram: 7950
r2225.0 CO/BO: Technology controller fixed value selection status word / Tec_ctr FixVal ZSW
Access level: 3 Calculated: - Data type: Unsigned16
Can be changed: - Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
r2231 Technology controller motorized potentiometer setpoint memory / Tec_ctrl mop mem
Access level: 3 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: - Dyn. index: -
Units group: 9_1 Unit selection: p0595 Func. diagram: 7954
p2235[0...n] BI: Technology controller motorized potentiometer raise setpoint / Tec_ctrl mop raise
Access level: 3 Calculated: - Data type: U32 / Binary
Can be changed: T Scaling: - Dyn. index: CDS, p0170
Units group: - Unit selection: - Func. diagram: 7954
p2237[0...n] Technology controller motorized potentiometer maximum value / Tec_ctrl mop max
Access level: 3 Calculated: - Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: DDS, p0180
Units group: 9_1 Unit selection: p0595 Func. diagram: 7954
p2238[0...n] Technology controller motorized potentiometer minimum value / Tec_ctrl mop min
Access level: 2 Calculated: - Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: DDS, p0180
Units group: 9_1 Unit selection: p0595 Func. diagram: 7954
p2240[0...n] Technology controller motorized potentiometer starting value / Tec_ctrl mop start
Access level: 2 Calculated: - Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: DDS, p0180
Units group: 9_1 Unit selection: p0595 Func. diagram: 7954
p2247[0...n] Technology controller motorized potentiometer ramp-up time / Tec_ctr mop t_r-up
Access level: 2 Calculated: - Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: DDS, p0180
Units group: - Unit selection: - Func. diagram: 7954
r2262 CO: Technology controller setpoint after filter / Tec_ctr set aftFlt
Access level: 3 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: PERCENT Dyn. index: -
Units group: 9_1 Unit selection: p0595 Func. diagram: 7958
p2265 Technology controller actual value filter time constant / Tec_ctrl act T
Access level: 2 Calculated: - Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: 7958
r2266 CO: Technology controller actual value after filter / Tec_ctr act aftFlt
Access level: 3 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: PERCENT Dyn. index: -
Units group: 9_1 Unit selection: p0595 Func. diagram: 7958
p2267 Technology controller upper limit actual value / Tec_ctrl u_lim act
Access level: 3 Calculated: - Data type: FloatingPoint32
Can be changed: U, T Scaling: PERCENT Dyn. index: -
Units group: 9_1 Unit selection: p0595 Func. diagram: 7958
p2268 Technology controller lower limit actual value / Tec_ctrl l_lim act
Access level: 3 Calculated: - Data type: FloatingPoint32
Can be changed: U, T Scaling: PERCENT Dyn. index: -
Units group: 9_1 Unit selection: p0595 Func. diagram: 7958
2: Square function (x * x)
3: Cube function (x * x * x)
Dependency: Refer to: p2264, p2265, p2267, p2268, p2269, p2271
p2271 Technology controller actual value inversion (sensor type) / Tech_ctrl act inv
Access level: 3 Calculated: - Data type: Integer16
Can be changed: T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
r2272 CO: Technology controller actual value scaled / Tech_ctrl act scal
Access level: 2 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: PERCENT Dyn. index: -
Units group: 9_1 Unit selection: p0595 Func. diagram: 7958
Caution: The maximum limit must always be greater than the minimum limit (p2291 > p2292).
p2298[0...n] CI: Technology controller minimum limit signal source / Tec_ctrl min_l s_s
Access level: 3 Calculated: - Data type: U32 / FloatingPoint32
Can be changed: U, T Scaling: PERCENT Dyn. index: CDS, p0170
Units group: - Unit selection: - Func. diagram: 7958
p2302 Technology controller output signal starting value / Tec_ctr start val
Access level: 3 Calculated: - Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: 7958
r2344 CO: Technology controller last speed setpoint (smoothed) / Tec_ctrl n_setp_sm
Access level: 3 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: PERCENT Dyn. index: -
Units group: - Unit selection: - Func. diagram: 7958
Notice: Dependent upon the application, the changing over of the setpoint when fault F07426 occurs can lead to the fault
condition disappearing and the re-activation of the technology controller. This can repeat itself and cause limit oscil-
lations. In this case, a different fault response or a different fixed setpoint 15 for the fault response p2345 = 2 should
be selected.
Note: The parameterized fault response can only be achieved if the default fault response of the technology controller
fault F07426 is set to "NONE" (see p2100, p2101). If a fault response other than "NONE" is entered in p2101 for
F07426, p2345 must be set to zero.
If the fault occurs during ramping up to the starting setpoint p2302, this starting setpoint is retained as the final value
(there is no changeover to the fault response setpoint).
Re p2372 = 2:
Motor selection for switching-in/switching-out is derived from the operating hours counter p2380. When switching-
in, the motor with the least operating hours is connected. When switching-out, the motor with the most operating
hours is disconnected.
In addition, those motors which have been in operation continuously for longer than the time set in p2381 are inter-
changed automatically.
If p2371 = 4 (selection of three identical motors), the switch is only performed between two motors, if the required
input power of one single external motor is sufficient for the actual operating point.
Re p2372 = 3:
Motor selection for switching-in/switching-out is derived from the operating hours counter p2380. When switching-
in, the motor with the least operating hours is connected. When switching-out, the motor with the most operating
hours is disconnected.
In addition, those motors which have been in operation for a total time longer than that set in p2382 are inter-
changed automatically.
Re p2372 = 2, 3:
This automatic interchange (autochange) is only possible if the designated motor is not in operation. If all motors
are in operation, the interchange will not be possible and alarm A07427 appears.
Autochange mode is only possible if p2371 = 2, 4 (motors of the same size).
p2381 Closed-loop cascade control max. time for continuous operation / Csc_ctrl t_max
Access level: 3 Calculated: - Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
p2385 Closed-loop cascade control holding time switch-in speed / Csc_ctr t_hld n_in
Access level: 3 Calculated: - Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
p2387 Closed-loop cascade control holding time switch-out speed / CscCtr t_hld n_out
Access level: 3 Calculated: - Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
p2392 Energy-saving mode restart value with technology controller / En_savRest tec_ctr
Access level: 3 Calculated: p0340 = 1,3,5 Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: -
Units group: 9_1 Unit selection: p0595 Func. diagram: -
Note: If a boost speed is not approached, then the boost time period is set to 0 s.
Caution: Once the maximum shutdown time has expired, the drive switches itself on automatically and accelerates to the
start speed. The technology controller only becomes effective again when this speed is reached (for p2398 = 1).
Depending on the application, e.g. for pumps, it should be ensured that as a result of cyclic starts the tank does not
overflow or for compressors, an overpressure condition does not occur.
Note: Automatic restart once the maximum OFF time has elapsed is de-activated by setting p2396 = 0 s.
r2397[0...1] CO: Energy-saving mode output speed actual / En_sav n_outp act
Access level: 3 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: p2000 Dyn. index: -
Units group: 3_1 Unit selection: p0505 Func. diagram: -
Note: When the energy-saving mode function (p2398 = 1) is activated, its behavior is defined as to whether the technol-
ogy controller is additionally switched in (closed-loop) or switched out (open-loop).
The technology controller is enabled via binector input p2200 and its mode is set in p2251.
p2200 = 0, p2251 = 0:
Energy-saving mode operates without technology controller (open-loop)
p2200 = 1, p2251 = 0:
Energy-saving mode operates with technology controller (closed-loop)
Notice: A BICO interconnection to a parameter that belongs to a drive data set always acts on the effective data set.
Note: The value can be used to interconnect a scaling function (e.g. scaling of the main setpoint)
p3112[0...n] BI: External fault 3 enable negated / Ext flt 3 enab neg
Access level: 3 Calculated: - Data type: U32 / Binary
Can be changed: U, T Scaling: - Dyn. index: CDS, p0170
Units group: - Unit selection: - Func. diagram: -
p3230[0...n] CI: Load monitoring speed actual value / Load monit n_act
Access level: 3 Calculated: - Data type: U32 / FloatingPoint32
Can be changed: T Scaling: p2000 Dyn. index: CDS, p0170
Units group: - Unit selection: - Func. diagram: 8013
Note: The reference value for power and speed is the rated power/rated speed.
The energy saved is displayed in r0041.
Note: The reference value for power and speed is the rated power/rated speed.
The energy saved is displayed in r0041.
r3333.0...3 CO/BO: 2/3 wire control control word / 2/3 wire STW
Access level: 3 Calculated: - Data type: Unsigned32
Can be changed: - Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
p3883 BI: ESM direction of rotation signal source / ESM rot dir s s
Access level: 3 Calculated: - Data type: U32 / Binary
Can be changed: T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: 7033
r3926[0...n] Voltage generation alternating base voltage amplitude / U_gen altern base
Access level: 4 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: - Dyn. index: MDS
Units group: - Unit selection: - Func. diagram: -
r3929[0...n] Motor data identification modulated voltage generation / MotID U_gen mod
Access level: 4 Calculated: p0340 = 1 Data type: Unsigned32
Can be changed: - Scaling: - Dyn. index: DDS, p0180
Units group: - Unit selection: - Func. diagram: -
r4023.0...3 CO/BO: PM330 digital inputs status inverted / PM330 DI stat inv
CU230P-2_BT Access level: 3 Calculated: - Data type: Unsigned32
(PM330) Can be changed: - Scaling: - Dyn. index: -
CU230P-2_CAN Units group: - Unit selection: - Func. diagram: -
(PM330)
CU230P-2_DP
(PM330)
CU230P-2_HVAC
(PM330)
CU230P-2_PN
(PM330)
p4096 PM330 digital inputs simulation mode setpoint / PM330 DI sim setp
CU230P-2_BT Access level: 3 Calculated: - Data type: Unsigned32
(PM330) Can be changed: U, T Scaling: - Dyn. index: -
CU230P-2_CAN Units group: - Unit selection: - Func. diagram: -
(PM330)
CU230P-2_DP
(PM330)
CU230P-2_HVAC
(PM330)
CU230P-2_PN
(PM330)
p7759[0...19] KHP Control Unit reference serial number / KHP CU ref ser_no
Access level: 3 Calculated: - Data type: Unsigned8
Can be changed: T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
p7762 Write protection multi-master fieldbus system access behavior / Fieldbus acc_behav
Access level: 3 Calculated: - Data type: Integer16
Can be changed: U, T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
p7763 KHP OEM exception list number of indices for p7764 / KHP OEM qty p7764
Access level: 3 Calculated: - Data type: Unsigned16
Can be changed: U, T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
p7769[0...20] KHP memory card reference serial number / KHP mem ref ser_no
Access level: 3 Calculated: - Data type: Unsigned8
Can be changed: T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
r7843[6] = 69 dec --> ASCII characters = "E" --> serial number, character 7
r7843[7] = 0 dec --> ASCII characters = " " --> serial number, character 8
...
r7843[19] = 0 dec --> ASCII characters = " " --> serial number, character 20
r7843[20] = 0 dec
Serial number = 111923E
r8572[0...39] Macro Connector Inputs (CI) for speed setpoints / Macro CI n_set
Access level: 4 Calculated: - Data type: Unsigned32
Can be changed: - Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
r8573[0...39] Macro Connector Inputs (CI) for torque setpoints / Macro CI M_set
Access level: 4 Calculated: - Data type: Unsigned32
Can be changed: - Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
- 9 hex: Pattern
- F hex: All others
Bits 24 ... 27: Month of manufacture (0 means January, B means December)
Bits 28 ... 31: Year of manufacture (0 means 2002)
p8608[0...1] CAN Clear Bus Off Error / Clear bus off err
CU230P-2_CAN Access level: 3 Calculated: - Data type: Integer16
Can be changed: U, T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
p8641 CAN Abort Connection Option Code / Abort con opt code
CU230P-2_CAN Access level: 3 Calculated: - Data type: Integer16
Can be changed: T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
p8684 CAN NMT state after booting / NMT state aft boot
CU230P-2_CAN Access level: 3 Calculated: - Data type: Integer16
Can be changed: T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
r8745[0...15] CO: CAN free PZD receive objects 16 bit / Free PZD recv 16
CU230P-2_CAN Access level: 3 Calculated: - Data type: Integer16
Can be changed: - Scaling: 4000H Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
p8746[0...15] CI: CAN free PZD send objects 16 bit / Free PZD send 16
CU230P-2_CAN Access level: 3 Calculated: - Data type: U32 / Integer16
Can be changed: U, T Scaling: 4000H Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
r8747[0...7] CO: CAN free PZD receive objects 32 bit / Free PZD recv 32
CU230P-2_CAN Access level: 3 Calculated: - Data type: Integer32
Can be changed: - Scaling: 4000H Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
p8748[0...7] CI: CAN free PZD send objects 32 bit / Free PZD send 32
CU230P-2_CAN Access level: 3 Calculated: - Data type: U32 / Integer32
Can be changed: U, T Scaling: 4000H Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
[2] = PZD 3 + 4
[3] = PZD 4 + 5
[4] = PZD 5 + 6
[5] = PZD 6 + 7
[6] = PZD 7 + 8
[7] = PZD 8 + 9
[8] = PZD 9 + 10
[9] = PZD 10 + 11
[10] = PZD 11 + 12
[11...14] = Reserved
Dependency: Refer to: r2050, r2090, r2091, r2092, r2093, r8750, r8795
Note: The following BICO interconnections are automatically established if the CANopen control word is mapped at one
of the locations x = 0 ... 3 in the receive process data buffer.
BI: p0840.0 = r209x.0
BI: p0844.0 = r209x.1
BI: p0848.0 = r209x.2
BI: p0852.0 = r209x.3
BI: p2103.0 = r209x.7
The write access is rejected if a CANopen control word is not mapped at one of these locations.
This also causes the project download of the commissioning software to be canceled.
r8792[0] CO: CAN velocity mode I16 setpoint / Vel mod I16 set
CU230P-2_CAN Access level: 3 Calculated: - Data type: Integer16
Can be changed: - Scaling: 4000H Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
r8796[0] CO: CAN profile velocity mode I32 setpoints / Pr vel mo I32 set
CU230P-2_CAN Access level: 3 Calculated: - Data type: Integer32
Can be changed: - Scaling: 4000H Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
r8797[0] CO: CAN profile torque mode I16 setpoints / Pr Tq mod I16 set
CU230P-2_CAN Access level: 3 Calculated: - Data type: Integer16
Can be changed: - Scaling: 4000H Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
r9485 BICO interconnections signal source search count / BICO S_src srchQty
Access level: 3 Calculated: - Data type: Unsigned16
Can be changed: - Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
r9486 BICO interconnections signal source search first index / BICO S_src srchIdx
Access level: 3 Calculated: - Data type: Unsigned16
Can be changed: - Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
42: inch wg
43: ft wg
44: m wg
45: % r.h.
46: g/kg
Dependency: Only units of parameters with unit group 9_2 can be changed over using this parameter.
Refer to: p11027
p11053 CI: Free tec_ctrl 0 setpoint signal source / Ftec0 setp s_s
Access level: 2 Calculated: - Data type: U32 / FloatingPoint32
Can be changed: U, T Scaling: PERCENT Dyn. index: -
Units group: - Unit selection: - Func. diagram: 7030
r11060 CO: Free tec_ctrl 0 setpoint after ramp-function generator / Ftec0 setp aft RFG
Access level: 2 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: PERCENT Dyn. index: -
Units group: 9_2 Unit selection: p11026 Func. diagram: 7030
p11064 CI: Free tec_ctrl 0 actual value signal source / Ftec0 act v s_s
Access level: 2 Calculated: - Data type: U32 / FloatingPoint32
Can be changed: U, T Scaling: PERCENT Dyn. index: -
Units group: - Unit selection: - Func. diagram: 7030
p11065 Free tec_ctrl 0 actual value smoothing time constant / Ftec0 act v T
Access level: 2 Calculated: - Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: 7030
p11067 Free tec_ctrl 0 actual value upper limit / Ftec0 act v up lim
Access level: 3 Calculated: - Data type: FloatingPoint32
Can be changed: U, T Scaling: PERCENT Dyn. index: -
Units group: 9_2 Unit selection: p11026 Func. diagram: 7030
p11068 Free tec_ctrl 0 actual value lower limit / Ftec0 act v lo lim
Access level: 3 Calculated: - Data type: FloatingPoint32
Can be changed: U, T Scaling: PERCENT Dyn. index: -
Units group: 9_2 Unit selection: p11026 Func. diagram: 7030
r11072 CO: Free tec_ctrl 0 actual value after limiter / Ftec0 act v af lim
Access level: 2 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: PERCENT Dyn. index: -
Units group: 9_2 Unit selection: p11026 Func. diagram: 7030
p11097 CI: Free tec_ctrl 0 limit maximum signal source / Ftec0 lim max s_s
Access level: 3 Calculated: - Data type: U32 / FloatingPoint32
Can be changed: U, T Scaling: PERCENT Dyn. index: -
Units group: - Unit selection: - Func. diagram: 7030
p11098 CI: Free tec_ctrl 0 limit minimum signal source / Ftec0 lim min s_s
Access level: 3 Calculated: - Data type: U32 / FloatingPoint32
Can be changed: U, T Scaling: PERCENT Dyn. index: -
Units group: - Unit selection: - Func. diagram: 7030
p11099 CI: Free tec_ctrl 0 limit offset signal source / Ftec0 lim offs
Access level: 3 Calculated: - Data type: U32 / FloatingPoint32
Can be changed: U, T Scaling: PERCENT Dyn. index: -
Units group: - Unit selection: - Func. diagram: 7030
42: inch wg
43: ft wg
44: m wg
45: % r.h.
46: g/kg
Dependency: Only units of parameters with unit group 9_3 can be changed over using this parameter.
Refer to: p11127
p11153 CI: Free tec_ctrl 1 setpoint signal source / Ftec1 setp s_s
Access level: 2 Calculated: - Data type: U32 / FloatingPoint32
Can be changed: U, T Scaling: PERCENT Dyn. index: -
Units group: - Unit selection: - Func. diagram: 7030
r11160 CO: Free tec_ctrl 1 setpoint after ramp-function generator / Ftec1 setp aft RFG
Access level: 2 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: PERCENT Dyn. index: -
Units group: 9_3 Unit selection: p11126 Func. diagram: 7030
p11164 CI: Free tec_ctrl 1 actual value signal source / Ftec1 act v s_s
Access level: 2 Calculated: - Data type: U32 / FloatingPoint32
Can be changed: U, T Scaling: PERCENT Dyn. index: -
Units group: - Unit selection: - Func. diagram: 7030
p11165 Free tec_ctrl 1 actual value smoothing time constant / Ftec1 act v T
Access level: 2 Calculated: - Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: 7030
p11167 Free tec_ctrl 1 actual value upper limit / Ftec1 act v up lim
Access level: 3 Calculated: - Data type: FloatingPoint32
Can be changed: U, T Scaling: PERCENT Dyn. index: -
Units group: 9_3 Unit selection: p11126 Func. diagram: 7030
p11168 Free tec_ctrl 1 actual value lower limit / Ftec1 act v lo lim
Access level: 3 Calculated: - Data type: FloatingPoint32
Can be changed: U, T Scaling: PERCENT Dyn. index: -
Units group: 9_3 Unit selection: p11126 Func. diagram: 7030
r11172 CO: Free tec_ctrl 1 actual value after limiter / Ftec1 act v af lim
Access level: 2 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: PERCENT Dyn. index: -
Units group: 9_3 Unit selection: p11126 Func. diagram: 7030
p11197 CI: Free tec_ctrl 1 limit maximum signal source / Ftec1 lim max s_s
Access level: 3 Calculated: - Data type: U32 / FloatingPoint32
Can be changed: U, T Scaling: PERCENT Dyn. index: -
Units group: - Unit selection: - Func. diagram: 7030
p11198 CI: Free tec_ctrl 1 limit minimum signal source / Ftec1 lim min s_s
Access level: 3 Calculated: - Data type: U32 / FloatingPoint32
Can be changed: U, T Scaling: PERCENT Dyn. index: -
Units group: - Unit selection: - Func. diagram: 7030
p11199 CI: Free tec_ctrl 1 limit offset signal source / Ftec1 lim offs
Access level: 3 Calculated: - Data type: U32 / FloatingPoint32
Can be changed: U, T Scaling: PERCENT Dyn. index: -
Units group: - Unit selection: - Func. diagram: 7030
42: inch wg
43: ft wg
44: m wg
45: % r.h.
46: g/kg
Dependency: Only units of parameters with unit group 9_4 can be changed over using this parameter.
Refer to: p11227
p11253 CI: Free tec_ctrl 2 setpoint signal source / Ftec2 setp s_src
Access level: 2 Calculated: - Data type: U32 / FloatingPoint32
Can be changed: U, T Scaling: PERCENT Dyn. index: -
Units group: - Unit selection: - Func. diagram: 7030
r11260 CO: Free tec_ctrl 2 setpoint after ramp-function generator / Ftec2 setp aft RFG
Access level: 2 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: PERCENT Dyn. index: -
Units group: 9_4 Unit selection: p11226 Func. diagram: 7030
p11264 CI: Free tec_ctrl 2 actual value signal source / Ftec2 act v s_s
Access level: 2 Calculated: - Data type: U32 / FloatingPoint32
Can be changed: U, T Scaling: PERCENT Dyn. index: -
Units group: - Unit selection: - Func. diagram: 7030
p11265 Free tec_ctrl 2 actual value smoothing time constant / Ftec2 act v T
Access level: 2 Calculated: - Data type: FloatingPoint32
Can be changed: U, T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: 7030
p11267 Free tec_ctrl 2 actual value upper limit / Ftec2 act v up lim
Access level: 3 Calculated: - Data type: FloatingPoint32
Can be changed: U, T Scaling: PERCENT Dyn. index: -
Units group: 9_4 Unit selection: p11226 Func. diagram: 7030
p11268 Free tec_ctrl 2 actual value lower limit / Ftec2 act v lo lim
Access level: 3 Calculated: - Data type: FloatingPoint32
Can be changed: U, T Scaling: PERCENT Dyn. index: -
Units group: 9_4 Unit selection: p11226 Func. diagram: 7030
r11272 CO: Free tec_ctrl 2 actual value after limiter / Ftec2 act v af lim
Access level: 2 Calculated: - Data type: FloatingPoint32
Can be changed: - Scaling: PERCENT Dyn. index: -
Units group: 9_4 Unit selection: p11226 Func. diagram: 7030
p11297 CI: Free tec_ctrl 2 limit maximum signal source / Ftec2 lim max s_s
Access level: 3 Calculated: - Data type: U32 / FloatingPoint32
Can be changed: U, T Scaling: PERCENT Dyn. index: -
Units group: - Unit selection: - Func. diagram: 7030
p11298 CI: Free tec_ctrl 2 limit minimum signal source / Ftec2 lim min s_s
Access level: 3 Calculated: - Data type: U32 / FloatingPoint32
Can be changed: U, T Scaling: PERCENT Dyn. index: -
Units group: - Unit selection: - Func. diagram: 7030
p11299 CI: Free tec_ctrl 2 limit offset signal source / Ftec2 lim offs
Access level: 3 Calculated: - Data type: U32 / FloatingPoint32
Can be changed: U, T Scaling: PERCENT Dyn. index: -
Units group: - Unit selection: - Func. diagram: 7030
Note: The function blocks with a lower run sequence value are calculated before function blocks with a higher run
sequence value.
5: Run-time group 5
6: Run-time group 6
9999: Do not calculate
p20245 BI: PT1 0 accept setting value S / PT1 0 acc set val
Access level: 3 Calculated: - Data type: U32 / Binary
Can be changed: T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: 7262
p20251 BI: PT1 1 accept setting value S / PT1 1 acc set val
Access level: 3 Calculated: - Data type: U32 / Binary
Can be changed: T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: 7262
p20260 BI: INT 0 accept setting value S / INT 0 acc set val
Access level: 3 Calculated: - Data type: U32 / Binary
Can be changed: T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: 7264
[8] = Breakpoint 8
[9] = Breakpoint 9
[10] = Breakpoint 10
[11] = Breakpoint 11
[12] = Breakpoint 12
[13] = Breakpoint 13
[14] = Breakpoint 14
[15] = Breakpoint 15
[16] = Breakpoint 16
[17] = Breakpoint 17
[18] = Breakpoint 18
[19] = Breakpoint 19
Re p31021 = 2:
The lowest value setting ensures that the actual values of the two zones remain above their respective setpoint.
p31022 Multi-zone control for actual value processing / Zone_ctrl act proc
Access level: 2 Calculated: - Data type: Integer16
Can be changed: T Scaling: - Dyn. index: -
Units group: - Unit selection: - Func. diagram: -
The following list contains the parameters with the "WRITE_NO_LOCK" attribute.
These parameters are not affected by the write protection.
Product: SINAMICS G120, Version: 4601800, Language: eng, Type: WRITE_NO_LOCK
p0003 Access level / Acc_level
p0010 Drive commissioning parameter filter / Drv comm. par_filt
p0124[0...n] CU detection via LED / CU detection LED
p0970 Reset drive parameters / Drive par reset
p0971 Save parameters / Save par
p0972 Drive unit reset / Drv_unit reset
p2111 Alarm counter / Alarm counter
p3950 Service parameter / Serv. par.
p3981 Faults acknowledge drive object / Faults ackn DO
p3985 Master control mode selection / PcCtrl mode select
p7761 Write protection / Write protection
p9400 Safely remove memory card / Mem_card rem
p9484 BICO interconnections search signal source / BICO S_src srch
The following list contains the parameters with the "KHP_WRITE_NO_LOCK" attribute.
These parameters are not affected by the know-how protection.
Product: SINAMICS G120, Version: 4601800, Language: eng, Type: KHP_WRITE_NO_LOCK
p0003 Access level / Acc_level
p0010 Drive commissioning parameter filter / Drv comm. par_filt
p0124[0...n] CU detection via LED / CU detection LED
p0970 Reset drive parameters / Drive par reset
p0971 Save parameters / Save par
p0972 Drive unit reset / Drv_unit reset
p2040 Fieldbus interface monitoring time / Fieldbus t_monit
p2111 Alarm counter / Alarm counter
p3950 Service parameter / Serv. par.
p3981 Faults acknowledge drive object / Faults ackn DO
p3985 Master control mode selection / PcCtrl mode select
p7761 Write protection / Write protection
p8980 Ethernet/IPprofile / Eth/IP profile
p8981 Ethernet/IP ODVA STOP mode / Eth/IP ODVA STOP
p8982 Ethernet/IP ODVA speed scaling / Eth/IP ODVA n scal
p9400 Safely remove memory card / Mem_card rem
p9484 BICO interconnections search signal source / BICO S_src srch
The following list contains the parameters with the "KHP_ACTIVE_READ" attribute.
These parameters can also be read with activated know-how protection.
Product: SINAMICS G120, Version: 4601800, Language: eng, Type: KHP_ACTIVE_READ
p0015 Macro drive unit / Macro drv unit
p0100 IEC/NEMA mot stds / IEC/NEMA mot stds
p0170 Number of Command Data Sets (CDS) / CDS count
p0180 Number of Drive Data Sets (DDS) / DDS count
p0199[0...24] Drive object name / DO name
p0300[0...n] Motor type selection / Mot type sel
p0304[0...n] Rated motor voltage / Mot U_rated
p0305[0...n] Rated motor current / Mot I_rated
p0505 Selecting the system of units / Unit sys select
p0595 Technological unit selection / Tech unit select
p0730 BI: CU signal source for terminal DO 0 / CU S_src DO 0
p0731 BI: CU signal source for terminal DO 1 / CU S_src DO 1
p0732 BI: CU signal source for terminal DO 2 / CU S_src DO 2
p0806 BI: Inhibit master control / PcCtrl inhibit
p0922 PROFIdrive PZD telegram selection / PZD telegr_sel
p1080[0...n] Minimum speed / n_min
p1082[0...n] Maximum speed / n_max
p1520[0...n] CO: Torque limit upper / M_max upper
p2000 Reference speed reference frequency / n_ref f_ref
p2001 Reference voltage / Reference voltage
p2002 Reference current / I_ref
p2003 Reference torque / M_ref
p2006 Reference temp / Ref temp
p2030 Field bus int protocol selection / Field bus protocol
p2038 PROFIdrive STW/ZSW interface mode / PD STW/ZSW IF mode
p2079 PROFIdrive PZD telegram selection extended / PZD telegr ext
p7763 KHP OEM exception list number of indices for p7764 / KHP OEM qty p7764
p7764[0...n] KHP OEM exception list / KHP OEM excep list
p11026 Free tec_ctrl 0 unit selection / Ftec0 unit sel
p11126 Free tec_ctrl 1 unit selection / Ftec1 unit sel
p11226 Free tec_ctrl 2 unit selection / Ftec2 unit sel
The parameters required for the quick commissioning (p0010 = 1) are shown in Table 1-10:
.
Table 1-10 Quick commissioning (p0010 = 1)
If p0010 = 1 is selected, p0003 (user access level) can be used to select the parameters that
are to be accessed.
At the end of the quick commissioning, set p3900 = 1 to perform the required motor calcula-
tions and reset all other parameters (not included in p0010 = 1) to their default settings.
Note:
This only applies for the quick commissioning.
2468 – Receive telegram, free interconnection via BICO (p0922 = 999) . . . . . . . . . . . 2-529
2470 – Send telegram, free interconnection via BICO (p0922 = 999) . . . . . . . . . . . . . . 2-530
2472 – Status words, free interconnection . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2-531
Function diagrams
or rxxxx[y].ww or "[y]" specifies the applicable index, "[y..z]" specifies the index range b = Signal to signal path b
rxxxx.ww ".ww" specifies the bit number (e.g. 0..15). Text Text = Unique signal designation
[cccc.d] cccc = Signal from source diagram cccc
pxxxx[y] or pxxxx[..z] "p" = setting parameter. These parameters can be changed. d = Signal from signal path d
or pxxxx[y].ww or "xxxx" stands for the parameter number,
To "function diagram name" [aaaa.b] = binectors.
pxxxx.ww "[y]" specifies the applicable index, "[y..z]" specifies the index range ".ww" specifies
the bit number (e.g. 0..15).
from ... to
Value range. Cross references for control bits
(xxxx[y].ww) Symbol Meaning
Parameter number (xxxx) with Index number [y] and bit number .ww.
pxxxx= Original parameter of signal
(Def) pxxxx
aaaa = Signal from source diagram aaaa
Factory setting. [aaaa.b] b = Signal from signal path b
(Def.w)
Factory setting with bit number as prefix.
Diagram references for setting parameters that occur a multiple number of times.
[aaaa.b] [Function diagram number, signal path]
*) For some parameters the value for the factory setting is calculated during commissioning for they are dependent on Power Module and motor (see Section 1.1.1 "Calculated").
1 2 3 4 5 6 7 8
Explanations for the function diagrams fp_1020_97_61.vsd Function diagram
- 1020 -
Explanation of the symbols (Part 1) 12.12.2012 V4.6 G120 CU230P-2
Symbols for logic functions Symbols for computational and closed-loop control functions
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-2 S
1 Logical inversion
1 y Threshold value switch 1/0
AND element x
& Outputs at y a logical "1" if x < S.
with logical inversion of an input signal 0
1021 – Explanation of the symbols (part 2)
S
1 OR element
Function diagrams
Symbol for monitoring SET
Sample and hold element.
x S&H y y = x if SET = 1
Axxxxx (not retentively saved at POWER OFF)
Monitoring or Monitoring
Fxxxxx
1 2 3 4 5 6 7 8
2-499
T T T T
PT1 element |y| fs
pxxxx
x x y
f_B
y f
y 2nd Order Filter
Switch-off delay
pxxxx
x y t
0 T
Delay element, first order. Natural frequency, denominator Damping, denominator
x 0 T y fn_n D_n
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
pxxxx pxxxx
pxxxx pxxxx = time constant
The digital signal x must have the value "0" without interruption Used as bandstop filter
during the time T before output y changes to "0". - center frequency fs:fn_z = fs
fn_n = fs
T T T T PT2 low pass - bandwidth f_B: D_z = 0
x Natural frequency, Damping, f_B
D_n =
denominator denominator 2 • fs
y fn_n D_n
© Siemens AG 2008 - 2013 All Rights Reserved
pxxxx pxxxx fn
f
Analog adder can be activated
The digital signal x must have the value "1" without interruption
during time T1 or must have the value "0" during time T2 before
output y changes its signal state. Transfer function x1
The following applies to I = 1 signal: y = x1 + x2
T1 T1 T2 T2 y
1 x2
H(s) =
s .
2 2 D_n
.
The following applies to I = 0 signal: y = x1
x + s + 1
2 fn_n 2 fn_n I
1 2 3 4 5 6 7 8
Explanations for the function diagrams fp_1022_97_61.vsd Function diagram
- 1022 -
Explanation of the symbols (Part 3) 12.12.2012 V4.6 G120 CU230P-2
Handling BICO technology
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-4
Binector: r0723.15
Connector: r0723 Connectors are "analog signals" that can be freely interconnected (e.g. percentage variables, speeds or torques).
1030 – Handling BICO technology
Parameterization:
At the signal destination, the required binector or connector is selected using appropriate parameters:
"BI:" parameter for binectors (BI = Binector Input)
or
"CI:" parameter for connectors (CI = Connector Input)
Example:
The main setpoint for the speed controller (CI: p1070) should be received from the output of the motorized potentiometer
(CO: r1050) and the "jog" command (BI: p1055) from Digital Input DI0 (BO: r0722.0, Terminal 5 (Kl. 5)) on the CU230.
[2220] [2501]
Motorized potentiometer
2
Main setpoint
p1070.[C] Speed controller
Jog setpoint 1
[3020] [3030]
Function diagrams
Parameterizing steps:
1 p1055[0] = 722.0 Terminal 5 (Kl. 5) acts as "Jog bit 0".
2 p1070[0] = 1050 The output of the motorized potentiometer acts as main setpoint for the speed controller.
1 2 3 4 5 6 7 8
2-501
2.3 Overviews
Function diagrams
1700 – Vector control, speed control, and generation of the torque limits 2-504
Fig. 2-5
60
I_max_ctrl f_outp [1/min] f_outp smooth [Hz]
r1343 Mot PolePairNo act 100 ms r0024
r0313 [D]
I_max reduction
[8016.8]
I_outp max [Aeff]
r0067 Imax closed-loop
I_max Power Module frequency control
[6730.4] p1340 ... p1341 ZSW cl-loop ctrl
r0056 I_max_ctrl U_outp [Veff]
P_act [kW] MIN
r0056.13 r1344
[6799.8] r0082 [0] - + Imax closed-loop
voltage control
p1345 ... P1346
PU P_rated [kW] <1>
r0206 [2]
[2526] [6300]
Function diagrams
<1> PM250, PM260: The current limit is calculated out of r0206 [2] in generative operation.
Overviews
1 2 3 4 5 6 7 8
2-503
Overviews
Function diagrams
Fig. 2-6 Kp-Adaption
n_ctrl SLVC Kp
Tn-Adaption
n_ctrl SLVC Tn
n_ctrl setp sum [1/min] Mot MomInert Ratio p1470 p1472
r1170 p0342
[1550.8] Mot M_mom of inert
p0341 a_prectrl scal
p1496
1700 – Vector control, speed control, and generation of the torque limits
n_set_filt 1 T
p1416
n_ctrl n_set [1/min]
M_accel [Nm]
r1438
n_set after filter [1/min] r1518 [0]
r0062
Kp Tn Encoderless closed-
Symmetrizing
loop speed control
–
r0079
0
r1508 [1710.1]
Integrator control M_set bef. M_suppl [Nm]
n_modell
n_act [1/min] [6060] Torque setpoint
r0063[0..2]
© Siemens AG 2008 - 2013 All Rights Reserved
[1700.8] + – U_angle
P
M iq controller + +
Iq
I_ctrl Kp I_ctrl Tn
[6710] Current setpoint filter p1715 p1717
U_output max [Veff] Id_set [Aeff]
r0071 r0075
[6722.1] –
[6723.4] – + – Iq_act [Aeff]
[6724.4] Field weakening id controller
controller r0078
V_set
Flex setp
50.0 ... 200.0 [%]
p1570 [D] (103.0) Id_act [Aeff] I_phase actual value
Transformation
Efficiency opt. r0076
<1> 0 ... 100 [%]
+ +
p1580 [D] (100) Field weakening
M_set static characteristic
-200.0 ... 200.0 [%]
p1610 [D] (50.0) [6714] Current controller
M_suppl_accel
0.0 ... 200.0 [%]
p1611 [D] (30.0) Current calculation V_phase actual value
Function diagrams
n_model Iq
[1700.1]
Overviews
<1> Value range and/or factory setting depend on Power Module. [6731] Interface to the Power Module for a synchronous motor (p0300 = 2)
1 2 3 4 5 6 7 8
2-505
Function diagrams
Fig. 2-8
24 V DC Kl. 9 Kl. 9
+24 V OUT +24 V OUT
1 r0723.0
0 CU DI status
T 0
Kl. 5 DI 0 Kl. 5 DI 0 Kl. 5 DI 0 r0722
p0796.0 r0722 .0
1
Input/output terminals
0 CU DI status
T 0
Function diagrams
Kl. 17 DI 5 Kl. 17 DI 5 Kl. 17 DI 5 r0722
p0796.5 r0722 .5
1
1 2 3 4 5 6 7 8
2-507
Input/output terminals
Function diagrams
Fig. 2-9
CU DO inv
p0748 .0
CU DO status
2242 – Digital outputs (DO 0 ... DO 2)
CU S_src DO 0 r0747
p0730 0 <2>
(52.3) DO 0
1
-1
NC
Kl. 18
NO
Kl. 19
COM Kl. 20
CU DO inv
p0748.1
CU DO status
CU S_src DO 1 r0747
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
p0731 0
(52.7)
2
-1
DO 1
NO Kl. 21
COM Kl. 22
© Siemens AG 2008 - 2013 All Rights Reserved
CU DO inv
p0748.2
CU DO status
CU S_src DO 2 r0747
p0732 0
(52.2) DO 2
4
-1 NC
Kl. 23
NO Kl. 24
COM Kl. 25
1 2 3 4 5 6 7 8
Input/Output Terminals fp_2242_97_01.vsd Function diagram
- 2242 -
Digital outputs (DO 0 … DO 2) 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-10
<2> <3> <4>
CU AI type
0 ... 8
p0756[0..3] (4)
CU WireBrkThresh CU wire brk t_del CU AI status word
2251 – Analog inputs 0 ... 1 (AI 0 ... AI 1)
20 mA 3
1 T 0 F03505
20 mA "Wire
3 breakage"
0
<2>
CU AI U/I_inp act <2> <2>
I Current
I r0752 CU AI char x1 CU AI char x2
AI 0/1 U -50.000 ... 160.000 -50.000 ... 160.000
I p0757[0..3] (0.000) p0759[0..3] (10.000) CU AI T_smooth
CU AI sim_mode
Kl. 3 U U Voltage 0 ... 1 0.0 ... 1000.0 [ms]
Hardware smoothing p0797[0..3] (0) p0753[0..3] (0.0)
(Kl. 10) 100 µs
AI 0/1 CU AI char y2 y [%]
U I + A -1000.00 ... 1000.00 [%] y2
<1> Type switching 0 p0760[0..3] (100.00) [%]
Analog input x y
- D x1 x2 x
1 CU AI char y1
Kl. 4 -1000.00 ... 1000.00 [%] y1
p0758[0..3] (0.00)
(Kl. 11) <5>
0 … 20 mA CU AI sim setp Scaling
-50.000 ... 2000.000
-10 … +10 V p0798[0..3] (0.000)
<2>
Reference x1 y
quantities x
CU AI value in % [%] p2000 … r2004 x1 x 2
r0755[0..1] 100 %
x2
Input/output terminals
For an input signal referred to ground, terminal 4 (11) must be connected to reference potential M. = 0: 0 V ... +10 V
= 1: +2 V ... +10 V with monitoring
Function diagrams
Caution:
The voltage between an input (Kl. 3 (Kl. 10) or Kl. 4 (Kl. 11)) and the ground point must not exceed 35 V. = 2: 0 mA ... +20 mA
When the load resistor is switched in (DIP switch in position ĹI), the voltage between the input terminals = 3: 4 mA ... +20 mA with monitoring
must not exceed 10 V or the impressed current 80 mA. = 4: -10 V ... +10 V (Default for AI 0 and AI 1)
<2> For p0756 = 2, 3 the units are mA. <4> Wire breakage sensing only activated when p0756 = 1, 3.
Kl. = Terminal For p0756 = 0, 1, 4 the units are V. Sampling time of the AI : 4 ms <5> Values in brackets --> AI 1
1 2 3 4 5 6 7 8
2-509
Input/output terminals
Function diagrams
Fig. 2-11
<2> <3> <4>
CU AI type
0 ... 8
p0756 [2]
(4) (2)
CU WireBrkThresh CU wire brk t_del CU AI status word
2252 – Analog input 2 (AI 2)
LG-Ni1000/PT1000
3
20 mA T 0
1 F03505
20 mA
"Wire
3 breakage"
0
Current
<2>
CU AI U/I_inp act <2> <2>
r0752[2] CU AI char x1 CU AI char x2
-50.000 ... 160.000 -50.000 ... 160.000
°C I AI 2 TEMP ĸ ĺ I CU AI sim_mode p0757 [2] (0.00)
(0.000) p0759 [2] (0.00)
(10.000) CU AI T_smooth
0 ... 1 0.0 ... 1000.0 [ms]
Hardware smoothing p0797 [2]
(0)(0) p0753 [2] (0.00)
(0.0)
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
Reference x1 y
quantities
CU AI value in % [%] p2000 … r2004
r0755 [2] x1 x x 2
x2
100 %
1 2 3 4 5 6 7 8
Input/Output Terminals fp_2252_97_01.vsd Function diagram
- 2252 -
Analog input 2 (AI 2) 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-12
For Example:
2256 – Analog inputs as digital inputs (DI 11 ... DI 12)
<1>
Kl. 1 +10 V OUT
Kl. 2 GND
1 = Simulation on
CU DI simulation
1.6 V 4.0 V p0795.11 CU DI t_debounce
r0721.11 p0724
CU DI status inv
Kl. 3 AI 0+ (DI11) 1 r0723
0 CU DI status
T 0 1 r0723.11
Kl. 4 AI 0- 0 r0722
p0796.11 r0722 .11
1
Input/output terminals
Function diagrams
<1> Kl. = Terminal Sampling time of the DI : 4 ms
1 2 3 4 5 6 7 8
2-511
Input/output terminals
Function diagrams
Fig. 2-13
Voltage output
y (21[0])
x1 x2 x
0 … 20 mA
1 4 mA A
Current
CU AO char y1
0 … 10 V
[%]
output
Smoothing -20.000 ... 20.000 [V] y1
[0] (0)(0.000)
p0778[0..1]
<1> Scaling
GND
x1 % Kl. 13
y
[%]
x2 x1x 100 %
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
x2
Reference quantities
p2000 … r2004
<2>
CU AO outp_val [%]
r0772 [1] CU AO char x1 CU AO char x2
-1000.00 ... 1000.00 [%] -1000.00 ... 1000.00 [%] CU AO type
p0777[1] (0)
(0.00) p0779 [1] (100)
(100.00) 0 ... 2
CU AO absVal act CU AO T_smooth p0776 [1]
(0)(0)
0 ... 1 0.0 ... 1000.0 [ms]
© Siemens AG 2008 - 2013 All Rights Reserved
p0775 [1]
(0) (0) p0773 [1] (0)
(0.0) <1> <1>
CU AO char y2 y CU AO U/I_outp
CU AO S_src -20.000 ... 20.000 [V] 0, 1 r0774 [1]
[1] (20) y2
p0771 [1] 0 p0780[0..1] (20.000)
x 0 2 y D AO 1+ Kl. 26
Voltage output
y (27[0])
(21[0])
x1 x2 x
0 … 20 mA
1 4 mA A
Current
0 … 10 V
CU AO char y1 [%]
output
-20.000 ... 20.000 [V] y1
Smoothing [1] (0)(0.000)
p0778[0..1]
<1>
GND
Kl. 27
1 2 3 4 5 6 7 8
Input/Output Terminals fp_2261_97_01.vsd Function diagram
- 2261 -
Analog outputs 0 … 1 (AO 0 … AO 1) 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-14
2270 – Temperature evaluation LG-Ni1000/PT1000 (AI 3)
<2>
CU AI U/I_inp act <2> <2>
<3> CU AI char x1 CU AI char x2
CU AI type r0752 [3]
-50.000 ... 160.000 -50.000 ... 160.000
0 ... 8 p0757 [3] (0.00)
(0.000) p0759 [3] (0.00)
(10.000)
p0756 [3]
(4) (8) CU AI sim_mode CU AI T_smooth
Kl. 52 AI 3+/LG-NI1000 0 ... 1 0.0 ... 1000.0 [ms]
Hardware smoothing p0797 [3]
(0) (0) p0753 [3]
(0.0)
(0.00)
<1> 100 µs y [%]
CU AI char y2
LG-Ni1000 + A -1000.00 ... 1000.00 [%] y2
Type switching 0 p0760 [3] (0.00)
(100.00) [%]
PT1000 Analog input x y
- D x1 x2 x
1 CU AI char y1
Kl. 53 GND -1000.00 ... 1000.00 [%] y1
p0758 [3] (0.00)
(0.00)
°C CU AI sim setp Scaling
GND -50.000 ... 2000.000
p0798 [3] (0.00)
(0.000)
<2>
x1 y
Reference
CU AI value in % [%] quantities
p2000 … r2004
r0755 [3] x1 x x 2
x2
100 %
Input/output terminals
<1> For p0756 = 6, 7 the units are °C.
<2> Caution:
Function diagrams
The voltage between an input (Kl. 52) and the ground point (Kl. 53) must not exceed 35 V.
<3> Possible settings p0756[3]:
= 6: LG-Ni1000
= 7: PT1000
Kl. = Terminal = 8: No sensor Sampling time of the AI : 4 ms
1 2 3 4 5 6 7 8
2-513
2.5 PROFIenergy
Function diagrams
Fig. 2-15
PROFINET
2381 – Control commands and interrogation commands
Port 1 /
Port 2
Function diagrams
PROFIenergy Data set:
PROFIenergy request command „Get_Measurement_Values“
PROFIenergy
1 2 3 4 5 6 7 8
2-515
PROFIenergy
Function diagrams
Fig. 2-16
PROFIdrive State PROFIenergy State
<1>
POWER ON
PROFIenergy Power OFF
2382 – States
Pe mode ID
OFF ON r5600
Operation
1 2 3 4 5 6 7 8
PROFIenergy fp_2382_97_62.vsd Function diagram
- 2382 -
States 12.12.2012 V4.6 G120 CU230P-2 PN
Function diagrams
PROFIdrive communication (PROFIBUS/PROFINET)
Function diagrams
2468 – Receive telegram, free interconnection via BICO (p0922 = 999) 2-529
2470 – Send telegram, free interconnection via BICO (p0922 = 999) 2-530
Receive telegram
Header
Permanently assigned [2440] ... [2442]
Netto data
telegrams
Interconnecting the permanently assigned send telegrams
Trailer
PB address Interconnectio
1 ... 126 Signal Description
p0918 (126) n
Monitoring
Axxxxx ... ... ...
Fxxxxx
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
...
Signal assignment
© Siemens AG 2008 - 2013 All Rights Reserved
PZD1
Signal x PZD7
Free telegrams PZD8
...
PZD7
PZD8
[2470] [2472]
1 2 3 4 5 6 7 8
PROFIdrive (PROFIBUS/PROFINET) fp_2401_97_61.vsd Function diagram
- 2401 -
Overview 12.12.2012 V4.6 G120 CU230P-2_DP
CU-specific functions Drive-specific functions
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-18
Setting the PROFIBUS address PB suppl t_monit Monitoring functions Alarms Faults
0 ... 20000 [ms]
p2047 (0)
Cyclic
telegrams from
2410 – PROFIBUS (PB) / PROFINET (PN), addresses and diagnostics
1 2 4 8 16 32 64 SET
Significance
POWER ON
All DIP switches to ON or OFF
==> set the address using p0918
PB diag standard
r2055[0..2]
A01900 "PROFIBUS: Configuration telegram incorrect"
PB addr_sw diag
r2057
PROFINET address
Function diagrams
PN IP of Station Diag offs send
r61001 r2076 <1> The response monitoring time t_An is automatically defined by
the configuration tool (e.g. HW Config made by Siemens) within
the framework of PROFIBUS configuration.
1 2 3 4 5 6 7 8
2-519
<1>
PZD telegr_sel
1 ... 999
p0922 (1)
Interconnec-
tion is made [2440] [2450] automatically
according to
PZD2 NSOLL_A NIST_A NSOLL_A NIST_A_GL NSOLL_A NIST_A_GL NSOLL_A NIST_A_GL NSOLL_A NIST_A_GL NSOLL_A NIST_A_GL
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
PROFIBUS/PROFINET
Receive telegram from
PZD7
PZD8
Send telegram to
© Siemens AG 2008 - 2013 All Rights Reserved
PZD9
PZD10
PZD11
PZD12
<1> If p0922 = 999 is changed to another value, the telegram is automatically assigned.
If p0922 unequal 999 is changed to p0922 = 999, the "old" telegram assignment is maintained!
<2> Freely interconnectable (pre-setting: MELD_NAMUR).
<3> Can be freely connected.
<4> In order to comply with the PROFIdrive profile, PZD1 must be used as control word 1 (STW1) or status word 1 (ZSW1).
p2037 = 2 should be set if STW1 is not transferred with PZD1 as specified in the PROFIdrive profile.
1 2 3 4 5 6 7 8
PROFIdrive (PROFIBUS/PROFINET) fp_2420_97_67.vsd Function diagram
- 2420 -
Telegrams and Process Data (PZD) 12.12.2012 V4.6 CU230P-2 DP/PN
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-20
2440 – PZD receive signals interconnection
PROFIBUS
Function diagrams
<1> When selecting a standard telegram or a manufacturer-specific telegram via p0922, these
interconnection parameters of the command data set CDS are automatically set to 0.
<2> Data type according to to the PROFIdrive profile: I16 = Integer16, U16 = Unsigned16.
<3> Display parameters for receive data according to [2460].
<4> Only SIEMENS telegram 350
1 2 3 4 5 6 7 8
2-521
1 = Enable setpoint
STW1.6 p1142[0] = r2090.6 [2501.3] [3070], [3080] -
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
STW1.8 Reserved - - - -
STW1.9 Reserved - - - -
© Siemens AG 2008 - 2013 All Rights Reserved
STW1.12 Reserved - - - -
STW1.13 Reserved - - - -
STW1.14 Reserved - - - -
p0810[0] = 2090.15
STW1.15 1 = CDS selection - [8565] -
<3>
<1> Used in telegram 20. <4> The direction reversal can be locked. See p1110 and p1111.
<2> Bit 10 in STW1 must be set to ensure that the drive accepts the process data.
<3> Interconnection is not disabled.
1 2 3 4 5 6 7 8
PROFIdrive (PROFIBUS/PROFINET) fp_2441_97_61.vsd Function diagram
- 2441 -
STW1 control word interconnection (p2038 = 2) 12.12.2012 V4.6 CU230P-2 DP/PN
Signal targets for STW1 in Interface Mode SINAMICS (p2038 = 0) <1>
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
STW1.9 Reserved - - - -
STW1.12 Reserved - - - -
Function diagrams
STW1.15 Reserved - - - -
1 2 3 4 5 6 7 8
2-523
STW3.6 Reserved - - - -
STW3.7 Reserved - - - -
STW3.10 Reserved - - - -
STW3.14 Reserved - - - -
1 2 3 4 5 6 7 8
PROFIdrive (PROFIBUS/PROFINET) fp_2446_97_51.vsd Function diagram
- 2446 -
STW3 control word interconnection 12.12.2012 V4.6 CU230P-2 DP/PN
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-24
2450 – PZD send signals interconnection
Signal sources for PZD send signals <1> PZD send word 1...8
p2051[0...7] WORD PROFIdrive send
Signal Description PROFIdrive Interconnection Function diagram Data type Scaling r2053[0...7] WORD telegram
Signal No. parameter
ZSW1 Status word 1 2 r2089[0] [2452] U16 - ... Header
NIST_A Actual speed A (16 bit) 6 r0063[0] - I16 4000 hex p2000 Data
IAIST_GLATT Absolute actual current, smoothed 51 r0068[1] [6799] I16 4000 hex p2002
Trailer
MIST_GLATT Actual torque smoothed 53 r0080[1] [6799] I16 4000 hex p2003 Telegram assignment
according to p0922
PIST_GLATT Power factor, smoothed 54 r0082[1] [6799] I16 4000 hex p2004 [2420]
NIST_A_GLATT Actual speed, smoothed 57 r0063[1] - I16 4000 hex p2000
Function diagrams
<1> Data type according to the PROFIdrive profile: I16 = Integer16, U16 = Unsigned16.
1 2 3 4 5 6 7 8
2-525
ZSW1.1 1 = Ready for operation (DC link loaded, pulses inhibited) p2080[1] = r0899.1 [2503.7] Sequence control -
ZSW1.2 1 = Operation enabled (drive follows n_set) p2080[2] = r0899.2 [2503.7] Sequence control -
ZSW1.4 1 = No coast down active (OFF2 inactive) p2080[4] = r0899.4 [2503.7] Sequence control -
ZSW1.5 1 = No fast stop active (OFF3 inactive) p2080[5] = r0899.5 [2503.7] Sequence control -
ZSW1.8 1 = Speed setpoint - actual value deviation within tolerance t_off p2080[8] = r2197.7 [2534.7] [8011] -
ZSW1.12 Reserved - - - -
p2080[15] = r0836.0
ZSW1.15 1 = Display CDS - - -
<4>
<1> Used in telegram 20. <3> The drive object is ready to accept data.
<2> The ZSW1 is generated using the binector-connector converter (BI: p2080[0..15], inversion: p2088[0].0 … p2088[0].15) <4> Interconnection is not disabled.
1 2 3 4 5 6 7 8
PROFIdrive (PROFIBUS/PROFINET) fp_2451_97_61.vsd Function diagram
- 2451 -
ZSW1 status word interconnection (p2038 = 2) 12.12.2012 V4.6 CU230P-2 DP/PN
Signal sources for ZSW1 im Interface Mode SINAMICS (p2038 = 0) <1>
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
ZSW1.1 1 = Ready for operation (DC link loaded, pulses inhibited) p2080[1] = r0899.1 [2503.7] Sequence control -
ZSW1.2 1 = Operation enabled (drive follows n_set) p2080[2] = r0899.2 [2503.7] Sequence control -
ZSW1.4 1 = No coast down active (OFF2 inactive) p2080[4] = r0899.4 [2503.7] Sequence control -
ZSW1.5 1 = No fast stop active (OFF3 inactive) p2080[5] = r0899.5 [2503.7] Sequence control -
ZSW1.12 Reserved - - - -
Function diagrams
ZSW1.15 1 = No alarm, thermal overload, power unit p2080[15] = r2135.15 [2548.7] [8014]
1 2 3 4 5 6 7 8
2-527
1 = DC brake active
ZSW3.0 [2511.7] [7017.5] -
0 = DC brake not active
2456 – ZSW3 status word interconnection
ZSW3.12 Reserved - - -
ZSW3.13 Reserved - - -
ZSW3.14 Reserved - - -
ZSW3.15 Reserved - - -
1 2 3 4 5 6 7 8
PROFIdrive (PROFIBUS/PROFINET) fp_2456_97_61.vsd Function diagram
- 2456 -
ZSW3 status word interconnection 12.12.2012 V4.6 CU230P-2 DP/PN
r2090.0
<1> <5> <6>
<5> <6>
...
PZD1 recv bitw
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-28
r2090.15 PZD1 recv bitw
PZD receive word 1 r2050 [0] PZD recv word
PROFINET r2091.0
PROFIBUS r2060 [0] PZD recv DW ...
PZD2 recv bitw
r2091.15 PZD2 recv bitw
PZD receive word 2 r2050 [1] PZD recv word
r2092.0
r2060 [1] PZD recv DW ...
PZD3 recv bitw
r2092.15 PZD3 recv bitw
PROFIdrive PZD receive word 3 r2050 [2] PZD recv word
receive telegram
2468 – Receive telegram, free interconnection via BICO (p0922 = 999)
r2093.0
r2060 [2] PZD recv DW ...
PZD4 recv bitw
Header r2093.15 PZD4 recv bitw
PZD receive word 4 r2050 [3] PZD recv word
Data r2060 [3] PZD recv DW PZD recv word
PZD receive word 5 r2050 [4]
Trailer 2 connector-binector converter
r2060 [4] PZD recv DW PZD recv word Con/bin outp inv
PZD receive word 6 r2050 [5] p2098 [0].0
r2060 [5] PZD recv DW <2>
PZD recv word Con/bin S_src
PZD receive word 7 r2050 [6] p2099[0] 0 Con/bin outp
r2060 [6] PZD recv DW PZD recv word (0) r2094.0
1 1
PZD receive word 8 r2050 [7]
r2060 [7] PZD recv DW PZD recv word Con/bin outp inv
PZD receive word 9 r2050 [8] p2098 [0].15
<1> In order to maintain the PROFIdrive profile, receive word 1 must be used as control word (STW1) 0 Con/bin outp
(due to bit 10 "control requested"). r2095.15
Using the connector-binector converters, the bits can be extracted from two of the PZD receive words 3 to 8 and used as binectors.
1 1
<2> The following representation applies for words: 4000 hex = 100 %.
Function diagrams
<3> The reference variables p200x apply for the ongoing interconnection (100 % -> p200x).
<4> The following applies for temperature values: 100° C -> 100 % = 4000 hex, 0° C -> 0 %.
<5> Every PZD word can be assigned a word or a double word. Only one of the 2 interconnection parameters r2050 or r2060 can have a value <> 0 for a PZD word.
<6> When interconnecting a connector output multiple times all the connector inputs must have either Integer or FloatingPoint data type.
1 2 3 4 5 6 7 8
2-529
<2>
Reference quantities for
further interconnection
p200x
<1> To comply with the PROFIdrive profile, send word 1 must be used as status word 1 (ZSW1).
<2> Physical word values are inserted in the telegram as referenced variables. p200x apply as reference variables (telegram contents = 4000 hex, if the input variable has the value p200x).
The following applies for temperature values: 100° C -> 100 % = 4000 hex; 0° C -> 0%.
<3> A PZD send word can either be supplied via connector input p2051[x] (WORD) or via p2061[x] (DWORD).
The two corresponding connector inputs cannot be interconnected.
1 2 3 4 5 6 7 8
PROFIdrive (PROFIBUS/PROFINET) fp_2470_97_61.vsd Function diagram
- 2470 -
Send telegram, free interconnection via BICO (p0922 = 999) 12.12.2012 V4.6 CU230P-2 DP/PN
Bin/con ZSW inv
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-30
p2088 [2].0
Bin/con ZSW2 0
[15]
p2081[0…15] 0 Bin/con ZSW send (0.0)
[0] 1
(0) r2089 [1] 1
(0.0)
[1] 1 1
Bin/con ZSW5
0 p2084[0…15] 0 Bin/con ZSW send
[15] [0]
(0.0) (0) r2089 [4]
1 (0.0)
[1] 1 1
1
Function diagrams
0
[15]
(0.0)
1 1
1 2 3 4 5 6 7 8
2-531
Function diagrams
r2090.15 Bit 15
Object 1 PZD receive word 1 r2050 [0]
PZD recv word
Object 2
PZD2 recv bitw
r2091.0 Bit 0
Object 3 ...
r2091.15 Bit 15
PZD receive word 2 r2050 [1]
Object 4
PZD recv word
PZD3 recv bitw
Receive PDO 2 Mapping RPDO 2 r2092.0 Bit 0
Sub-D socket p8701 p8711 ...
The assignment is made from
CAN bus r2092.15 Bit 15
RPDO 1, RPDO 2 ... RPDO 8 PZD receive word 3 r2050 [2]
and from receiver buffer word.
PZD recv word
RPDO 2 PZD4 recv bitw
r2093.0 Bit 0
Object 1 ...
r2093.15 Bit 15
CANopen PZD receive word 4 r2050 [3]
receive telegram Object 2
PZD recv word
Evaluation
of the Object 3
COB-ID COB-ID
Object 1 Object 4 PZD receive word 5 r2050 [4]
PZD recv word
Object 2
CANopen communication
PZD receive word 8 r2050 [7]
Object 3
PZD recv word
Function diagrams
Object 4
<1> To use automatic BICO interconnection (p8790 = 1), one of the receive words 1 - 4 must be used as control word 1 (STW1). RPDO: Receive Process Data Object
<2> Telegram: up to 4 words or 64 bits. The sum of the various objects must not exceed 8 words. COB-ID: CAN object identification
1 2 3 4 5 6 7 8
2-533
CANopen communication
Function diagrams
Fig. 2-32
Receive PDO 1 Mapping RPDO 1
0000 hex ... 8000 06DF hex 0000 hex ... FFFF FFFF hex
p8700[0..1] (8000 06DF hex) p8710[0..3] (0000 hex)
<2>
Automatic assignment of the PZD1 recv bitw
RPDOs to the receive buffer.
9206 – Receive telegram, Predefined Connection Set (p8744 = 1)
buffer word.
<1> To use automatic BICO interconnection (p8790 = 1), one of the receive words 1 - 4 must be used as control word 1 (STW1). RPDO: Receive Process Data Object
<2> Telegram: up to 4 words or 64 bits. The sum of the various objects must not exceed 8 words. COB-ID: CAN object identification
1 2 3 4 5 6 7 8
CANopen fp_9206_97_68.vsd Function diagram
- 9206 -
Receive telegram, Predefined Connection Set (p8744 = 1) 12.12.2012 V4.6 G120 CU230P-2 CAN
Transmit PDO 1 Mapping TPDO 1
CANopen send words 1 ... 7 0000 hex ... C000 06DF hex 0000 hex ... FFFF FFFF hex
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-33
p8720[0..4] (C000 06DF hex) p8730[0..3] (0000 hex)
Diag send word <1>
r2053[0..13] Automatic assignment of the
PZD send word Send buffer send buffer to the TPDOs TPDO 1
p2051 [0] ...
(0) PZD send word 1 Object 1
9208 – Send telegram, free PDO mapping (p8744 = 2)
Object 2
PZD send word
p2051 [1] Object 3
(0) PZD send word 2
Object 4
CANopen send telegram
PZD send word
p2051 [2] Transmit PDO 2 Mapping TPDO 2
p8721 p8731 COB-ID
(0) PZD send word 3 The assignment is made
from send buffer 1 and Object 1
from TPDO 1.
CANopen communication
PZD send word Object 2
p2051 [7]
(0) PZD send word 8
Object 3
Function diagrams
Object 4
1 2 3 4 5 6 7 8
2-535
CANopen communication
Function diagrams
Fig. 2-34
CANopen send words 1 ... 7
0000 hex ... C000 06DF hex 0000 hex ... FFFF FFFF hex
p8720[0..4] (C000 06DF hex) p8730[0..3] (0000 hex)
Diag send word Automatic assignment of the
PZD send word
r2053[0..13]
Send buffer send buffer to the TPDOs <1>
TPDO 1
p2051 [0] ...
(0) PZD send word 1 60410010
9210 – Send telegram, Predefined Connection Set (p8744 = 1)
Object 4
(0) PZD send word 4
The assignment is
PZD send word made from send
p2051 [4] buffer 1 and from Transmit PDO 3 Mapping TPDO 3
p8722 p8732
(0) PZD send word 5 TPDO 1.
Evaluation of
the COB-ID
TPDO 3 and data
transfer type
© Siemens AG 2008 - 2013 All Rights Reserved
1 2 3 4 5 6 7 8
CANopen fp_9210_97_68.vsd Function diagram
- 9210 -
Send telegram, Predefined Connection Set (p8744 = 1) 12.12.2012 V4.6 G120 CU230P-2 CAN
Signal targets for control word CANopen (r8795)
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
<2> - [3070]
STW1.8 1 = Stop <3>
STW1.9 Reserved - - -
STW1.10 Reserved - - -
CANopen communication
STW1.14 Can be freely connected pxxxx[y] = r2090.14 - -
Function diagrams
STW1.15 Can be freely connected pxxxx[y] = r2090.15 - -
<1> Depending on the position of the CANopen control word in p8750, the number of the binector to be connected changes.
<2> Not taken into account for the automatic control word interconnection (p8790).
<3> Interconnection via p8791.
1 2 3 4 5 6 7 8
2-537
CANopen communication
Function diagrams
Fig. 2-36
Status word
Bit No. Status word CANopen r8784
From sequence control 1 1 = Ready for operation (DC link loaded, pulses inhibited)
13 Reserved
1 2 3 4 5 6 7 8
CANopen fp_9226_97_68.vsd Function diagram
- 9226 -
Status word, CANopen 12.12.2012 V4.6 G120 CU230P-2 CAN
Function diagrams
Communication, fieldbus interface (USS, Modbus, BACnet)
Function diagrams
9360 – Receive telegram, free interconnection via BICO (p0922 = 999) 2-543
9370 – Send telegram, free interconnection via BICO (p0922 = 999) 2-544
T 0 Cyclic
telegrams from
Field bus baud
9310 – Configuration, addresses and diagnostics
the master
4 ... 13
p2020 (8)
Field bus address t
00......255
30
p2021 (0) USS
Field bus USS PZD configuration
0 ... 8
p2022 (2) F01910 "Fieldbus IF: setpoint timeout"
Field bus USS PKW
0 ... 127 Field bus protocol No telegrams from the master
p2023 (127) 0,1,2,5
0 ... 8
p2030 (0)
1 2 3 4 5 6 7 8
Fieldbus Interface (USS, Modbus, BACnet) fp_9310_97_01.vsd Function diagram
- 9310 -
Configuration, addresses and diagnostics 12.12.2012 V4.6 CU230P-2 BT/HVAC
Signal targets for fieldbus STW1
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
1 = Enable setpoint
STW1.6 p1142[0] = r2090.6 [2501.3] [3070], [3080] -
0 = Inhibit setpoint (set the ramp-function generator input to zero)
STW1.8 Reserved - - - -
STW1.9 Reserved - - - -
STW1.12 Reserved - - - -
Function diagrams
STW1.15 Reserved - - - -
<1> Bit 10 in STW1 must be set to ensure that the drive accepts the process data.
<2> The direction reversal can be locked. See p1110 and p1111.
1 2 3 4 5 6 7 8
2-541
ZSW1.1 1 = Ready for operation (DC link loaded, pulses inhibited) p2080[1] = r0899.1 [2503.7] Sequence control -
ZSW1.2 1 = Operation enabled (drive follows n_set) p2080[2] = r0899.2 [2503.7] Sequence control -
ZSW1.4 1 = No coast down active (OFF2 inactive) p2080[4] = r0899.4 [2503.7] Sequence control -
ZSW1.5 1 = No fast stop active (OFF3 inactive) p2080[5] = r0899.5 [2503.7] Sequence control -
ZSW1.8 1 = Speed setpoint - actual value deviation within tolerance t_off p2080[8] = r2197.7 [2534.7] [8011] -
ZSW1.15 1 = No alarm, thermal overload, power unit p2080[15] = r2135.15 [2548.7] [8014]
<1> The ZSW1 is generated using the binector-connector converter (BI: p2080[0..15], inversion: p2088[0].0 … p2088[0].15)
<2> The drive is ready to accept data.
1 2 3 4 5 6 7 8
Fieldbus Interface (USS, Modbus, BACnet) fp_9352_97_62.vsd Function diagram
- 9352 -
ZSW1 status word interconnection 12.12.2012 V4.6 CU230P-2 BT/HVAC
r2090.0
...PZD1 recv bitw
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-40
r2090.15 PZD1 recv bitw
<1> PZD receive word 1 r2050 [0] PZD recv word
r2091.0
...PZD2 recv bitw
r2091.15 PZD2 recv bitw
<2> PZD receive word 2 r2050 [1] PZD recv word
r2092.0
...PZD3 recv bitw
Fieldbus r2092.15 PZD3 recv bitw
PZD receive word 3 r2050 [2] PZD recv word
9360 – Receive telegram, free interconnection via BICO (p0922 = 999)
r2093.0
...PZD4 recv bitw
r2093.15 PZD4 recv bitw
PZD receive word 4 r2050[3] PZD recv word
0 Con/bin outp
r2095.15
1 1
<1> The receive word 1 must be used as control word (STW1) (due to bit 10 "control requested").
Function diagrams
<2> The preconfiguration with the speed setpoint is set automatically via p1000 = 6.
<3> Using the connector-binector converters, the bits can be extracted from two of the PZD receive words 3 to 8 and used as binectors.
<4> The following representation applies for words: 4000 hex = 100 %.
The reference variables p200x apply for the ongoing interconnection (100 % -> p200x).
The following applies for temperature values: 100° C -> 100 % = 4000 hex, 0° C -> 0 %.
1 2 3 4 5 6 7 8
2-543
<3>
Reference quantities for
further interconnection
p200x
1 2 3 4 5 6 7 8
Fieldbus Interface (USS, Modbus, BACnet) fp_9370_97_62.vsd Function diagram
- 9370 -
Send telegram, free interconnection via BICO (p0922 = 999) 12.12.2012 V4.6 CU230P-2 BT/HVAC
Bin/con ZSW inv
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-42
p2088 [2].0
Bin/con ZSW2 0
0 [15]
p2081[0..15] Bin/con ZSW send (0.0)
[0] 1
(0) r2089 [1] 1
(0.0) [1]
1 1
Bin/con ZSW5
0 p2084[0..15] 0 Bin/con ZSW send
[15] [0]
(0.0) (0) r2089 [4]
1 (0.0)
[1] 1 1
1
Function diagrams
0
[15]
(0.0)
1 1
1 2 3 4 5 6 7 8
2-545
Function diagrams
Fig. 2-43
r0898 r1408
r0898 r1408
0 0
STW ZSW
Sequence control Current control
15 15
[2501] [2530]
ZSW seq_ctrl
2500 – Overview, internal control/status words
r0899
r0899 Monitoring functions ZSW monitor 1
0 r2197
ZSW
Sequence control r2197
15 0
ZSW
[2503] Monitoring funct. 1
15
[2534]
Setpoint Channel ZSW monitor 2
STW setpoint chan r2198
r1198 r2198
STW3 r1198
0
ZSW
0
STW Monitoring funct. 2
15
Setpoint Channel
15 [2536] ZSW monitor 3
[2505] r2199
r2199
0 ZSW
Speed controller Monitoring funct. 3
ZSW n_ctrl 15
r1407 [2537]
r1407
0
ZSW Faults/alarms STW fault/alarm
Speed controller r2138
15
r2138
0
[2522]
STW
15 Faults/alarms
[2546] ZSW fault/alarm 1
Controller r2139
ZSW cl-loop ctrl
r2139
r0056
Function diagrams
[2526]
r2135
0
ZSW
15
Faults/alarms 2
[2548]
1 2 3 4 5 6 7 8
2-547
(4022.3)
1 = Operating condition, no coast down active (OFF2 inactive)
1 r0898.1 To the control unit
0 = OFF2 active
OFF3 S_src 1
<2> p0848 [C] 2 1 = Operating condition, no fast stop active (OFF3 inactive) r0898.2 To the control unit
0 = OFF3 active
<3> (1)
Operation enable p0852 [C]
OFF3 S_src 2
<3> (1) 3 1 = Enable operation r0898.3 To the control unit
p0849 [C]
(4022.2) RFG enable p1140 [C]
<3> (1) 4 1 = Enable ramp-function generator r0898.4 To the setpoint channel [3070.7],
[3080.5]
Continue RFG p1141 [C]
<3> (1) 5 1 = Continue ramp-function generator r0898.5 To the setpoint channel [3070.1]
0 = freeze ramp-function generator
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
7 Reserved
11 Reserved
12 Reserved
<1> Bit 10 in STW1 must be set to ensure that
the drive accepts the process data. 13 Reserved
<2> PROFIdrive interconnection: For PROFIdrive
standard telegrams, the upper inputs are
connected with PROFIdrive-STW1 [2420]. 14 Reserved
Only relevant for CDS0.
<3> When the master control is retrieved, predefined by STARTER or IOP. 15 Reserved
With active Extended Service Mode (ESM) predefined by ESM.
1 2 3 4 5 6 7 8
Internal control/status words fp_2501_97_01.vsd Function diagram
- 2501 -
Control word, sequence control 12.12.2012 V4.6 G120 CU230P-2
PROFIdrive-Bit
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-45
ZSW seq_ctrl
r0899
Bit No. Status word sequence control (r0899)
r0899
From the control unit 1 1 = Ready for operation (DC link loaded, pulses inhibited) r0899.1
From the control unit 2 1 = Operation enabled (drive follows n_set) r0899.2
OFF3 S_src 2
p0849 [C] From the control unit 5 1 = No fast stop active (OFF3 inactive) r0899.5
(4022.2)
From the control unit 6 1 = Switching on inhibited active r0899.6
OFF1
& 7 1 = Drive ready r0899.7
OFF2
1 8 1 = Controller enable r0899.8
From the control unit
OFF3
Bit 9 = 1 --> Ready to exchange process data 9 1 = Control requested <1> r0899.9
Enable internal
missing or 10 Reserved
fault with
this reaction
From the control unit 11 1 = Pulses enabled r0899.11
12 Reserved
14 Reserved
Function diagrams
15 Reserved
1 2 3 4 5 6 7 8
2-549
4 Reserved
(0) 6 1 = Inhibit positive direction of rotation r1198.6 To direction of rotation limiting and
direction of rotation reversal [3040.5]
7 Reserved
8 Reserved
9 Reserved
© Siemens AG 2008 - 2013 All Rights Reserved
10 Reserved
12 Reserved
1 2 3 4 5 6 7 8
Internal control/status words fp_2505_97_51.vsd Function diagram
- 2505 -
Control word, setpoint channel 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-47
ZSW 1
r0052
Bit No. Status word 1 (r0052)
r0052
r0899
[2503.7] ZSW seq_ctrl 1 = Drive ready for switching on
r0899.0 0 r0052.0
0 = Drive not ready for switching on
r0899
2510 – Status word 1 (r0052)
[2503.7] ZSW seq_ctrl 1 = Drive ready for operation (DC link loaded, pulses inhibited)
r0899.1 1 r0052.1
0 = Drive not ready for operation
r0899
[2503.7] ZSW seq_ctrl 1 = Operation enabled/pulse enable (voltage at output terminals)
r0899.2 2 r0052.2
0 = Pulses inhibited
r2139
[2548.7] ZSW fault/alarm 1 1 = Drive fault present (pulses inhibited) Signal is inverted if connected to a Digital
r2139.3 3 <1> r0052.3
0 = No fault Output.
r0899
[2503.7] ZSW seq_ctrl 0 = Coast down active (OFF2 active)
r0899.4 4 r0052.4
1 = No coast down active (OFF2 inactive)
r0899
[2503.7] ZSW seq_ctrl 0 = Quick stop active (OFF3 active)
r0899.5 5 r0052.5
1 = No quick stop active (OFF3 inactive)
r0899
[2503.7] ZSW seq_ctrl 1 = Switching on inhibited active
r0899.6 6 r0052.6
0 = No switching on inhibited (possible to switch on)
r2139
[2548.7] ZSW fault/alarm 1 1 = Alarm present
r2139.7 7 r0052.7
0 = No alarm
r2197
[2534.7] ZSW monitor 1 0 = Deviation setpoint/actual speed
r2197.7 8 r0052.8
1 = No deviation setpoint/actual speed
r0899
[2503.7] ZSW seq_ctrl
r0899.7 9 1 = Control request r0052.9
r2197
[2534.7] ZSW monitor 1 1 = Maximum speed reached (f_act >= p1082 (f_max))
r2197.6 10 r0052.10
0 = f_act < p1082 (f_max)
r0056
[2526.7] ZSW cl-loop ctrl 0 = I,M,P limit reached
r0056.13 11 r0052.11
1 = Limit not reached
12 Reserved
r2197
[2534.7] ZSW monitor 1 1 = Motor rotates right
r2197.3 14 r0052.14
0 = Motor does not rotate right
Function diagrams
r2135
[2548.7] ZSW fault/alarm 2
r2135.15 15 0 = Alarm drive converter overload r0052.15
1 2 3 4 5 6 7 8
2-551
r2197
[2534.7] ZSW monitor 1
r2197.5 1 1 = |n_act| > p1226 (n_standstill) r0053.1
[2534.7] r2197
ZSW monitor 1
r2197.0 2 1 = |n_act| > p1080 (n_min) r0053.2
r2197
[2534.7] ZSW monitor 1
r2197.8 3 1 = I_act >= p2170 r0053.3
r2197
[2534.7] ZSW monitor 1
r2197.2 4 1 = |n_act| > p2155 r0053.4
r2197
[2534.7] ZSW monitor 1
r2197.1 5 1 = |n_act| <= p2155 r0053.5
r2197
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
r2197
[2534.7] ZSW monitor 1
r2197.9 7 1 = Vdc <= p2172 r0053.7
r2197
[2534.7] ZSW monitor 1
r2197.10 8 1 = Vdc > p2172 r0053.8
r1199
[3080.7] RFG ZSW
r1199.2 9 1 = Ramping finished r0053.9
© Siemens AG 2008 - 2013 All Rights Reserved
[7958.7] r2349
Tec_ctrl status
r2349.10 10 1 = Techn. contr. out at lower limit r0053.10
r2349
[7958.7] Tec_ctrl status
r2349.11 11 1 = Techn. contr. out at upper limit r0053.11
12 Reserved
13 Reserved
14 Reserved
15 Reserved
1 2 3 4 5 6 7 8
Internal control/status words fp_2511_97_51.vsd Function diagram
- 2511 -
Status word 2 (r0053) 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-49
STW 1
OFF2 S_src 1
p0844 [C] r0054
Bit No. Control word 1 (r0054)
(1) STW seq_ctrl r0054
ON / OFF (OFF1) p0840 [C]
r0898 [2501.7]
OFF2 S_src 2 (722.0) 0 = OFF1, Shutdown via ramp, followed by pulse inhibit Sequence control
r0898.0 0
p0845 [C] 1 = ON, operating condition (edge-controlled) Setpoint channel
(4022.3) r0898 [2501.7]
2512 – Control word 1 (r0054)
12 Reserved
Mop raise p1035 [C]
Function diagrams
r0836 [8560.7]
r0836.0 15 1 = CDS bit 0 Sequence control
1 2 3 4 5 6 7 8
2-553
r1198
2513 – Control word 2 (r0055)
r1198
[2505.7] STW setpoint chan
r1198.2 2 1 = Fixed setp bit 2 Fixed frequencies
r1198
[2505.7] STW setpoint chan
r1198.3 3 1 = Fixed setp bit 3 Fixed frequencies
r0837
[8565.7] DDS selected
r0837.0 4 1 = DDS select. bit 0 Sequence control
r0837
[8565.7] DDS selected
r0837.1 5 1 = DDS select. bit 1 Sequence control
6 Reserved
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
7 Reserved
r2349
[7958.6] Tec_ctrl status
r2349.0 8 1 = Technology controller enable Technology controller
r1239
[7017.7] DCBRK ZSW
r1239.11 9 1 = DC brake enable DC braking control
© Siemens AG 2008 - 2013 All Rights Reserved
10 Reserved
r2138
[2546.7] STW fault/alarm
r2138.13 13 0 = External fault 1 (F07860) Sequence control
14 Reserved
r0836
[8560.7] CDS selected
r0836.0 15 1 = CDS bit 1 Sequence control
1 2 3 4 5 6 7 8
Internal control/status words fp_2513_97_01.vsd Function diagram
- 2513 -
Control word 2 (r0055) 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
From the changeover, closed-loop control types 1 1 = Sensorless operation active r1407.1
1 = Speed limiting active
2 Reserved
4 Reserved
5 Reserved
6 Reserved
Ramp-function generator tracking [3080.1]
From the torque setpoint [6060.7] 7 1 = Torque limit reached r1407.7 Speed controller [6040.4]
Motor locked/stalled [8012.5]
From the torque setpoint [6060.4], [6060.7] 9 1 = Torque limiting, lower, active r1407.8
10 Reserved r1407.9
11 Reserved
13 Reserved r1407.12
14 Reserved
16 Reserved
Function diagrams
From the speed limiting [6640.8] 17 1 = Speed limiting active r1407.17
1 2 3 4 5 6 7 8
2-555
3 Reserved
1 2 3 4 5 6 7 8
Internal control/status words fp_2526_97_01.vsd Function diagram
- 2526 -
Status word, closed-loop control 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
2 Reserved
4 Reserved
5 Reserved
6 Reserved
7 Reserved
8 Reserved
9 Reserved
11 Reserved
r2198
[8012.7] ZSW monitor 2
r2198.7 12 1 = Motor stalled r1408.12
Function diagrams
15 Reserved
1 2 3 4 5 6 7 8
2-557
From speed signals [8010.8] 1 1 = |n_act| <= speed threshold value 2 (p2155) <1> r2197.1
2534 – Status word, monitoring functions 1
From speed signals [8011.8] 7 1 = Speed setpoint - actual value deviation within tolerance t_off r2197.7
12 Reserved
14 Reserved
15 Reserved
1 2 3 4 5 6 7 8
Internal control/status words fp_2534_97_01.vsd Function diagram
- 2534 -
Status word, monitoring functions 1 12.12.2012 V4.6 G120 CU230P-2
ZSW monitor 2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-55
r2198
Bit No. Status word, monitoring functions 2 (r2198)
r2198
0 Reserved
1 Reserved
2536 – Status word, monitoring functions 2
2 Reserved
3 Reserved
9 Reserved
10 Reserved
13 Reserved
15 Reserved
Function diagrams
1 2 3 4 5 6 7 8
2-559
From speed signals [8010.8] 0 1 = |n_act| < speed threshold value 3 (p2161) <1> r2199.0
2537 – Status word, monitoring functions 3
From speed signals [8010.8] 1 1 = f or n comparison value reached or exceeded (p2141) r2199.1
2 Reserved
3 Reserved
From speed signals [8011.8] 4 1 = Speed setpoint - actual value deviation within tolerance t_on r2199.4
1 = Ramp-up/ramp-down completed
From speed signals [8011.8] 5 r2199.5 [8012.1]
0 = Ramp-function generator active
6 Reserved
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
7 Reserved
8 Reserved
9 Reserved
© Siemens AG 2008 - 2013 All Rights Reserved
10 Reserved
11 Reserved
12 Reserved
13 Reserved
14 Reserved
15 Reserved
1 2 3 4 5 6 7 8
Internal control/status words fp_2537_97_01.vsd Function diagram
- 2537 -
Status word, monitoring functions 3 12.12.2012 V4.6 G120 CU230P-2
PROFIdrive-Bit
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
0 Reserved
2546 – Control word, faults/alarms
1 Reserved
2 Reserved
3 Reserved
4 Reserved
1. Acknowledge
p2103 [C] 5 Reserved
<1> (722.2)
6 Reserved
2. Acknowledge
p2104 [C] To fault buffer [8060.1]
<1> (0) 7 = Acknowledge faults r2138.7
3. Acknowledge
p2105 [C] 8 Reserved
<1> (0)
9 Reserved
Pulse generator
External alarm 1 p2112 [C] To alarm buffer [8065.1]
<1> (1) 1 10 = External alarm 1 (A07850) r2138.10
Function diagrams
To fault buffer [8060.1]
1 15 = External fault 3 (F07862) r2138.15
1 2 3 4 5 6 7 8
2-561
1
Reserved
2
2548 – Status word, faults/alarms 1 and 2
4
Reserved
5
9
Reserved
10
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
13 - 15 Reserved
© Siemens AG 2008 - 2013 All Rights Reserved
ZSW fault/alarm 2
r2135
Bit No. Status word, faults/alarms 2
r2135
0
... Reserved
11
From the thermal monitoring, motor [8016.8] 12 1 = Fault motor overtemperature r2135.12
From the thermal monitoring, power module [8014.8] 13 1 = Fault, thermal overload, power module r2135.13
From the thermal monitoring, motor [8016.8] 14 1 = Alarm motor overtemperature r2135.14
From the thermal monitoring, motor [8016.8] 15 1 = Alarm, thermal overload, power module r2135.15
1 2 3 4 5 6 7 8
Internal control/status words fp_2548_97_65.vsd Function diagram
- 2548 -
Status word, faults/alarms 1 and 2 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
... Reserved
... Reserved
1 = Internal RFG enable
16 1 = OFF1 enable internal missing r0046.16
1 [3070.2]
... Reserved
... Reserved
Function diagrams
1 2 3 4 5 6 7 8
2-563
Function diagrams
Fig. 2-60
r0898
r0898 .8
STW seq_ctrl
r0898
Main setpoint r0898 .9
p1070 [C]
3001 – Overview
(755[0]) 0 0
Suppl setp
+
p1071 +
p1075 [C] 0 1 Setp after limit RFG setpoint
(0) n_set_1 [1/min] at the input
p1076 1 0
+/- r1114
Jog 1 n_set
-210000.000 ... 210000.000 [1/min] pos
p1058 [D] (150.000)
Jog 2 n_set 1 1 neg
-210000.000 ... 210000.000 [1/min] (-1)
p1059 [D] (-150.000)
[3030] Main/supplementary setpoint, setpoint [3040] Direction of rotating [3050] Skip (suppression)
scaling, jogging limiting/changeover bandwidth and speed limiting
r1119
RFG setp at inp [1/min]
Function diagrams
[3080] Ramp-function generator selection,
Setpoint channel
status word, tracking
Simulate ramp-function generator
1 2 3 4 5 6 7 8
2-565
Setpoint channel
Function diagrams
Fig. 2-61
STW setpoint chan
p1020 r1198
[2505.2] r1198.0
1 2 3 4 5 6 7 8
Setpoint channel fp_3010_97_51.vsd Function diagram
- 3010 -
Fixed speed setpoints, binary selection (p1016 = 2) 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-62
3011 – Fixed speed setpoints, direct selection (p1016 = 1)
p1020 r1198
STW setpoint chan
[2505.2] r1198.0
p1021 r1198
STW setpoint chan
[2505.2] r1198.1 n_setp_fix status
p1022 r1198 r1025
STW setpoint chan
[2505.2] r1198.2
p1023 r1198
STW setpoint chan
[2505.2] r1198.3
n_set_fixed 1
-210000.000 ... 210000.000 [1/min] 0001
p1001 [D] (0.000)
n_set_fixed 2
-210000.000 ... 210000.000 [1/min] 0010
p1002 [D] (0.000)
n_set_fixed 3
-210000.000 ... 210000.000 [1/min] 0100
p1003 [D] (0.000)
+ + + n_set_fixed eff [1/min]
n_set_fixed 4
-210000.000 ... 210000.000 [1/min] 1000 r1024
p1004 [D] (0.000) + + +
Function diagrams
Setpoint channel
1 2 3 4 5 6 7 8
2-567
Setpoint channel
Function diagrams
Fig. 2-63
1 The setpoint for the motorized potentiometer is saved in a ashion after OFF and after ON set to the saved value.
Automatic mode 0 Without ramp-function generator in automatic mode (ramp-up/ramp-down time = 0).
1 Ramp-function generator active 1 With ramp-function generator in automatic mode.
Mop configuration Initial rounding-off active 0 Without initial rounding.
- ... - 2 1 With initial rounding. The ramp-up/down time set is exceeded accordingly.
p1030 [D] (0000 0110 bin)
Save in NVRAM active 0 Not saved in the NVRAM (NVRAM = Non Volatile Random Access Memory).
3 1 Save in NVRAM active.
3020 – Motorized potentiometer
-p1082
11 y=0
1 2 3 4 5 6 7 8
Setpoint channel fp_3020_97_51.vsd Function diagram
- 3020 -
Motorized potentiometer 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-64
<1>
STW seq_ctrl
3030 – Main/supplementary setpoint, setpoint scaling, jogging
1 1
Suppl setp scal
p1076 [C]
(1)
Keep old setpoint
Suppl setp
p1075 [C] <4> Suppl setpoint eff [1/min]
(0) r1077
Function diagrams
Setpoint channel
<1> Jogging can only be activated in the operating state “Ready for operation (S2)“.
<2> If technology controller is activated (p2200 > 0, p2251 = 0) connected with r2349.4.
<3> If technology controller is activated (p2200 > 0, p2251 = 0) connected with r2294.
<4> The connection to the source for the main and additional setpoint is estabished automatically via the setting in p1000.
1 2 3 4 5 6 7 8
2-569
Setpoint channel
Function diagrams
Fig. 2-65
3040 – Direction limitation and direction reversal
STW setpoint chan STW setpoint chan STW setpoint chan ESM act s s
p1113 r1198 p1110 r1198 p1111 r1198 p3880
[2505.2] r1198.11 [2505.2] r1198 .5 [2505.2] r1198 .6 (0)
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
n_limit setp
0.000 ... 210000.000 [1/min]
p1063 [D] (210000.000)
0 0 0
n_set_1 0
[3030.8] 0 Setp after limit [1/min]
© Siemens AG 2008 - 2013 All Rights Reserved
-1 1 r1114 [3050.1]
0 1 1
1
1 2 3 4 5 6 7 8
Setpoint channel fp_3040_97_01.vsd Function diagram
- 3040 -
Direction limitation and direction reversal 12.12.2012 V4.6 G120 CU230P-2
n_skip 4 n_skip 3
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-66
0.000 ... 210000.000 [1/min] 0.000 ... 210000.000 [1/min]
p1094 [D] (0.000) n_skip 1 p1093 [D] (0.000) n_limit pos
<1> n_skip 2 0.000 ... 210000.000 [1/min] p1085 [C]
0.000 ... 210000.000 [1/min] p1091 [D] (0.000) <1>
(1083[0])
p1092 [D] (0.000) n_limit pos n_limit pos eff [1/min]
<1>
<1>
0.000 ... 210000.000 [1/min] Min r1084
p1083 [D] (210000.000)
0 [6030.1]
3050 – Skip frequency bands and speed limitations
[6640.5]
[8010.2]
-1 -1 -1 -1
n_max <2>
0.000 ... 210000.000 [1/min]
y p1082 [D] (1500.000) Reference value [3020.6]
for the ramp- [3070.4]
function generator
-1
w
n_limit RFG neg
p1052 [C] 0
w (1086[0])
w
<3> n_limit neg
p1088 [C] 0 n_limit neg eff [1/min]
n_skip bandwidth
0.000 ... 210000.000 [1/min] n_limit neg
(1086[0]) Max r1087
p1101 [D] (0.000) Limiting to negative [6030.1]
-210000.000 ... 0.000 [1/min]
Function diagrams
values
p1086 [D] (-210000.000) [6640.5]
Setpoint channel
<1> A suppression frequency of "0" de-activates the suppression frequency bandwidth. [8010.2]
<2> The setting range of p1082 is limited to f_max_mot.
<3> If the drive is not stopped via the input setpoint, but via controlled intervention, the lower hysteresis
branch is relevant after a subsequent run-up.
1 2 3 4 5 6 7 8
2-571
Setpoint channel
Function diagrams
Fig. 2-67
p1121 [D] (30.000) 0.000 ... 5400.000 [s] 0.000 ... 30.000 [s] 0.000 ... 30.000 [s] 0.000 ... 30.000 [s] 0.000 ... 30.000 [s]
Down ramp scaling p1135 [D] (3.000) p1130 [D] (2.000) p1136 [D] (0.500) p1131 [D] (3.000) p1137 [D] (0.000)
<5> <5> <5> <5> <5>
RFG ramp-up time p1139 [C]
0.000 ... 999999.000 [s] (1)
p1120 [D] (20.000)
Up ramp scaling 0 1 0 1 0 1
0 = Internal fast stop
3070 – Extended ramp-function generator
p1138 [C]
(1) [2634.8]
0 0
0 0 generator y 1
n_set_5
STW seq_ctrl
y
<1> p1141 r0898
0 = Freeze ramp-
1 0
0 [3080.1]
[2501.7] r0898 .5 function generator
1 = Internal RFG enable STW seq_ctrl
[2634.8]
p1140 r0898
1 2 3 4 5 6 7 8
Setpoint channel fp_3070_97_51.vsd Function diagram
- 3070 -
Extended ramp-function generator 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-68
x,y T1 x
y n_ctrl setp sum [1/min]
n_set_5 x y
[3070.8] r1170 [6030.1]
From the extended ramp-function generator
t
Interpolator
<1>
ZSW n_ctrl Ramp-function generator tracking Ramp flattening-off
r1407 [3070.3]
[2522.7] r1407.7 RFG ZSW
r1199
r1199.5
Function diagrams
p1145 = 0.0: No ramp-function generator tracking. The ramp-function generator ramp is no longer in the range 11 Reserved
Setpoint channel
of the frequency actual value. 12 Reserved
p1145 = 1.0: The ramp-function generator ramp remains as close as possible to the speed actual value.
13 Reserved
<2> For p1145 > 0, ramp-function generator tracking is activated when the torque limiting 14 Reserved
p1145 > 1.0:
responds. The
This ramp-function
means generator
that the speed ramp output
controller is steeper
onlythan for p1145
exceeds = 1.0 limit
the torque (higher
by a"speed following error").
deviation that can be set via p1145. 15 Reserved
1 2 3 4 5 6 7 8
2-573
Function diagrams
6220 – Vdc_max controller and Vdc_min controller (vector control, PM230/PM240) 2-580
Fig. 2-69
6030 – Speed setpoint, droop
Function diagrams
Vector control
1 2 3 4 5 6 7 8
2-575
Vector control
Function diagrams
Fig. 2-70
6031 – Pre-control balancing, acceleration model
1 2 3 4 5 6 7 8
Vector control fp_6031_97_01.vsd Function diagram
- 6031 -
Pre-control balancing, acceleration model 12.12.2012 V4.6 G120 CU230P-2
n_ctrl SLVC Kp n_ctrl SLVC Tn
0.000 ... 999999.000 0.0 ... 100000.0 [ms]
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-71
p1470 [D] (0.300) p1472 [D] (20.0)
<1>
Kp_n_basic
To Kp/Tn adaptation
Tn_n_adapt Tn_n_basic [6050.3]
From Kp/Tn adaptation Kp_n_adapt
[6050.7]
6040 – Speed controller
[6490.7] 1 0 1 0
n_ctrl config 1 = Kp/Tn adaptation active
p1400.5
n_ctr Tn eff [ms]
n_ctrl config r1469
Dynamic reduction, field weakening
p1400.0
[6490.7] n_ctr Kp eff
1 = Automatic Kp/Tn adaptation active
r1468
Speed
n_ctrl system dev [1/min] controller
Kp Kp Tn
r0064
n_ctrl n_set [1/min] Kp
M_set from speed controller
[6031.8] r1438 [6060.1]
+ + +
- M_max upper eff [Nm]
n_C n_act T_s SLVC
0.00 ... 32000.00 [ms] [6640.8] r1538
p1452 [D] (10.00)
M_max lower eff [Nm]
n_act [1/min] n_act smooth [1/min] [6640.8] r1539
Tn
r0063 r1445 Kp
n_set I_comp
- n_ctrl I-M_outp [Nm]
[6031.8] r1482
+ Set [6030.1]
Enable speed controller
Hold Set Val ZSW n_ctrl
from sequence control S4: Operation r1407
[2522.3]
r1407.3
1 = Speed controller active
ZSW n_ctrl
r1407
[2522.3]
r1407.5
Integrator
control 1 = Speed controller, I component held
ZSW n_ctrl
r1407
[2522.3]
r1407.6
1 = Speed controller, I component set
Function diagrams
Torque setting value, speed controller
[6721.8]
ZSW n_ctrl
Vector control
r1407
1 = Torque limit reached
<1> For p1472 = 0.0 s or 100.0 s, the I component is [2522.7] r1407.7
disabled (integral action time = infinite).
1 2 3 4 5 6 7 8
2-577
Vector control
Function diagrams
Fig. 2-72
Speed-dependent Kp_n/Tn_n adaptation
6050 – Kp_n/Tn_n adaptation
Kp_n_basic Kp
[6040.8]
n_act [1/min]
n Kp Kp_n_adapt
r0063 [0]
n_ctr Kp n up scal To the speed controller
0.0 ... 200000.0 [%] [6040.4]
n
p1461 [D] (100.0)
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
n_ctr Tn n up scal
Tn
0.0 ... 200000.0 [%]
© Siemens AG 2008 - 2013 All Rights Reserved
<1> If the lower transition point exceeds the upper transition point, the Kp-adaptation also changes over.
1 2 3 4 5 6 7 8
Vector control fp_6050_97_01.vsd Function diagram
- 6050 -
Kp_n/Tn_n adaption 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-73
M_accel T_smooth
<1> <2> 0.00 ... 100.00 [ms]
<1> <2>
6060 – Torque setpoint
Function diagrams
<1> The signal is only effective after magnetization has been completed (r0056.4 = 1).
<2> No pre-control if the Vdc controller is active [6220.8].
Vector control
<3> Acceleration control is inhibited for p1517 = 100 ms.
<4> M_set is also influenced by the speed limit controller.
1 2 3 4 5 6 7 8
2-579
Vector control
Function diagrams
Fig. 2-74
Vdc_ctrl Tn
0 ... 10000 [ms]
p1251 [D] (0)
Iq_max
V_connect [6710.2]
Operating point
1 ... 63000 [V] 0
selection
p0210 (400) Iq_min
[6710.2]
1 2 3 4 5 6 7 8
Vector control fp_6220_97_01.vsd Function diagram
- 6220 -
Vdc_max controller and Vdc_min controller (PM230 / PM240) 12.12.2012 V4.6 G120 CU230P-2
Linear
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
1/6
2
[1690.4]
4
7
U/f FCC f_start Mot f_rated
0.00 ... 3000.00 [Hz] 0.00 ... 100.00 [Hz] Parabolic
p1333 [D] (0.00) p0310 [D] (0.00)
U_output max r0071
Mot U_rated p0304
f_set
[1690.1]
Mot f_rated
0.00 ... 100.00 [Hz]
p0310 [D] (0.00)
Function diagrams
V_boost starting ZSW cl-loop ctrl
p1312 <2> 1 r0056
Vector control
r0056.5
<1> For p1320 = 0, the voltage boost via p1310 is not effective.
<2> p1312 is only active at the first acceleration after pulse enable.
1 2 3 4 5 6 7 8
2-581
Vector control
Function diagrams
Fig. 2-76
U/f resonance damping U/f slip compensation
Uf Res_damp gain
6310 – Resonance damping and slip compensation (V/f)
f_res damp
[1690.7]
– +
Uf Res_damp T
1.00 ... 1000.00 [ms]
p1339 [D] (20.00)
r0065 Slip
compensation
[6730.2]
250 ms
[1690.6]
1 Mot slip_rated [Hz] 100 %
r0330 [D]
-1 Slip comp act val [%]
r1337
6% 10 % 95 % f/f Mot N
© Siemens AG 2008 - 2013 All Rights Reserved
0
<1>
Uf res_damp f_max ZSW cl-loop ctrl
f_outp [Hz] 1
0.00 ... 3000.00 [Hz] r0056
r0066
p1349 [D] (0.00) r0056 .10
[6730.4] 0
[2526.2]
[6731.4]
1
1 2 3 4 5 6 7 8
Vector control fp_6310_97_01.vsd Function diagram
- 6310 -
Resonance damping and slip compensation (U/f) 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-77
Vdc_ctrl Tn
0 ... 10000 [ms]
p1291 [D] (40)
Vdc_ctrl Kp Vdc_ctrl t_rate
Vdc_max (U/f control) 0.00 ... 100.00 0 ... 1000 [ms]
p1290 [D] (1.00)
Vdc_ctr config U/f p1292 [D] (10)
0 ... 1 <2>
6320 – Vdc_max controller and Vdc_min controller (PM230/PM240), (V/f)
V_connect
1 ... 63000 [V] 0
p0210 (400) [1690]
0
Vdc act val [V] – 0
2,3 ZSW cl-loop ctrl
r0070 0 1 r0056
+ r0056.15
0 0
0,1
[2526.2]
<1> p1280
Function diagrams
0: Inhib Vdc ctrl
1: Enable Vdc_max controller
Vector control
2: Enable Vdc_min controller (kinetic buffering) (only for PM240, PM330) Vdc_min dyn_factor
3: Enable Vdc_min controller and Vdc_max controller (only for PM240, PM330) 1 ... 10000 [%]
<2> Value range and/or factory setting depend on Power Module. p1287 [D] (100)
1 2 3 4 5 6 7 8
2-583
Vector control
Function diagrams
Fig. 2-78
p1400[D]
Speed control configuration Factory setting
01 Reserved
...
04 Reserved
06 Reserved
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
...
14 Reserved
16 Reserved
17 Reserved
18 Reserved
1 2 3 4 5 6 7 8
Vector control fp_6490_97_01.vsd Function diagram
- 6490 -
Speed control configuration 12.12.2012 V4.6 G120 CU230P-2
Flux ctrl config
- ... -
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-79
p1401 [D] (0000 0110 bin)
Flux control, configuration Factory setting
00 Reserved
6491 – Flux control configuration
03 Reserved
04 Reserved
05 Reserved
07 Reserved
08 Reserved
09 Reserved
10 Reserved
11 Reserved
12 Reserved
13 Reserved
14 Reserved
Function diagrams
15 Reserved
Vector control
1 2 3 4 5 6 7 8
2-585
Vector control
Function diagrams
Fig. 2-80
!
M_max upper <1>
-1000000.00 ... 20000000.00 [Nm] [6640.1]
p1520 [D] (0.00)
M
2 1
n
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
<2>
-20000000.00 ... 1000000.00 [Nm] [6640.1]
p1521 [D] (0.00)
M
n
3 4
1 2 3 4 5 6 7 8
Vector control fp_6630_97_01.vsd Function diagram
- 6630 -
Upper/lower torque limit 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-81
Current limiting Mot L_leak total [mH] Speed limiting
r0377 [D]
U_output max [Veff] Kp from speed controller [6040.5]
r0071
[6722.1] Tn from speed controller [6040.6]
Iq stall 1 = Speed limiting control
[6723.4] calculation
[6724.4] n_limit pos eff [1/min] active
6640 – Current/power/torque limits
n_act [1/min]
r0063 [0] [6060.3]
Isq_max stall [Aeff]
r1548 [1]
Lower limit
[6630.8] + M_max upper eff [Nm]
[6721.8] M Min r1538
Isq_max stall [Aeff] [6730.1] + [6060.1] [6040.4]
r1548 [0] [6732.1] Iq [8012.1]
Upper limit
[6630.8] + M_max lower eff [Nm]
Max r1539
Power limiting + [6060.1] [6040.4]
[8012.1]
<1>
Iq
Min [6710.1]
P_max gen
-100000.00 ... -0.01 [kW] Isq_max [Aeff]
p1531 [D] (-0.01) r1536
n
P_max mot
0.00 ... 100000.00 [kW] Max [6710.1]
p1530 [D] (0.00)
Function diagrams
<1> Isq_min [Aeff]
r1537
Vector control
<1> Intervention by the Vdc controller.
<2> Intervention when the speed limit is exceeded + 2 % n_rated.
1 2 3 4 5 6 7 8
2-587
Vector control
Function diagrams
Fig. 2-82
6710 – Current setpoint filter
Iq_max 1
[6220.8]
1
[6640.8]
0
0
Isq_max [Aeff]
r1536
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
0
Iq_min 1
[6220.8]
© Siemens AG 2008 - 2013 All Rights Reserved
1
[6640.8]
0
Isq_min [Aeff]
r1537
M_set [Nm] Interpolator and Iq_set [Aeff]
r0079 smoothing for r0077
voltage limits [6714.1]
[6060.8]
M
Isq_s T_smth FW
Iq 0.1 ... 50.0 [ms]
[6730.1]
p1654 [D] (4.8)
1 2 3 4 5 6 7 8
Vector control fp_6710_97_51.vsd Function diagram
- 6710 -
Current setpoint filter 12.12.2012 V4.6 G120 CU230P-2
Mot L_leak total [mH]
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-83
r0377 [D]
Coordinate converter
I_ctrl Kp I_ctrl Tn
0.000 ... 100000.000 0.00 ... 1000.00 [ms]
p1715 [D] (0.000) p1717 [D] (2.00) p U_angle [6730.1] <1>
[6731.1] <2>
+
Function diagrams
Id_act [Aeff]
r0076 [6799.6]
Vector control
<1> For induction motors
<2> For synchronous motors
1 2 3 4 5 6 7 8
2-589
Vector control
Function diagrams
Fig. 2-84
0 ... 20000 [ms]
r0071 p1584 [D] (0)
Mot t_excitation
[6640.1] 0.000 ... 20.000 [s]
p0346 [D] (0.000)
0
MIN Flux setpoint smoothed
Efficiency opt.
0 ... 100 [%]
<0,3 s
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
M_set static
-200.0 ... 200.0 [%] I_set T_smooth
p1610 [D] (50.0) 4 ... 10000 [ms]
M_suppl_accel
+ p1616 [D] (40)
0.0 ... 200.0 [%]
p1611 [D] (30.0) + –
M_set bef. M_suppl [Nm] Id_set calculation Flux setpoint
[6060.5] r1508 calculation
<1> Value range and/or factory setting depend on Power Module. ASM: Induction motor
1 2 3 4 5 6 7 8
Vector control fp_6722_97_01.vsd Function diagram
- 6722 -
Field weakening characteristic, Id setpoint (ASM, p0300 = 1) 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-85
Drv filt type mot Pulse freq setp Modulator mode Modulat depth max
0 ... 2 0.500 ... 4.000 [kHz] 0 ... 10 20.0 ... 120.0 [%]
p0230 (0) p1800 [D] (4.000) p1802 [D] (10) p1803 [D] (115.0)
<1> <1>
6723 – Field weakening controller, flux controller (ASM, p0300 = 1)
U_max 1
[6714.8]
Modulat_depth max [%] U_output max [Veff]
r0073
r0071
Field_ctrl Tn
U_reserve dyn 10 ... 10000 [ms]
0.0 ... 150.0 [Veff] p1596 [D] (300)
p1574 [D] (2.0)
[6640.1] 0
<1>
–
Vdc act val [V] Field_ctrl outp [%]
r0070 r1597
+ + –
[6730.1]
-200 %
Flux ctrl config
2 Flux ctrl config p1401.1
p1401.2
U_set 1 0
0
[6714.8] Quick magnetizing active
1 [6722.8]
Flux setp total [%]
r1598
Id_set stationary [Aeff]
[6714.1] r1623 Id_setp total [Aeff]
r1624
+ +
Flux setpoint smoothed 0
[6722.8] + +
[6714.1]
1
Saturation characteristic -1
p0362 ... p0369
Id current limit
[6722.8]
Function diagrams
Vector control
<1> Value range and/or factory setting depend on p0500. ASM: Induction motor
1 2 3 4 5 6 7 8
2-591
Vector control
Function diagrams
Fig. 2-86
Vdc act val [V]
[6723.1]
r0070 DC link voltage
[6799.1]
U_output [Veff]
r0072 Pulse enable HW
Modulat_depth [%]
6730 – Interface to the Power Module (ASM, p0300 = 1)
[6799.1]
2 r0074
U_set [6799.1] U
[1690.8]
[6714.8] U_angle
ZSW cl-loop ctrl PWM
Gain res_damp V
p1740 r0056
M
f_Slip
r0056.11 ~
r0065 [2526.2] W
Current model Vibration damping
f_outp [Hz]
[6310.5] r0066
Precontrol speed
+ + [6310.1] [6799.1]
[6030.8] +
n_act [1/min] MotMod n_adapt Kp +
r0063[0..2] [1/min] + Sign
+ or -
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
MotMod n_adapt Tn
R_stator act [1/min] I_phase act value [A]
r0395 r0069[0..6]
[6714.1]
[6799.1]
Cos phi act Motor model (observer) U_phase act val [V]
r0089[0..2]
r0087
Flux act val [%]
r0084
Outp_ph_seq rev
p1820
Stall monitoring
r1408.12 [8012.3]
p1745 P24 + BRP
Model control
M p1750 ... p1759 [6722.7]
M - BRN
Iq
[6640.5] MotMod status
r1751 Brake control
[6710.2]
p1750 p1755 p1756 p1758 p1759
1 2 3 4 5 6 7 8
Vector control fp_6730_97_01.vsd Function diagram
- 6730 -
Interface to the Power Module (ASM, p0300 = 1) 12.12.2012 V4.6 G120 CU230P-2
n_set before filt. [1/min] Modulat_depth [%]
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-87
n_set smth [1/min] [6730.4] r0074 Mod_depth smth [%]
r0060 r0020 r0028
100 ms [6731.4] 100 ms
Disp_val T_smooth
p0045
Iq_act [Aeff]
[6714.8] r0078 Iq_act smooth [Aeff]
n_act [1/min] 300 ms r0030
r0063[1]
<1> [6730.1] M
<2> [6721.8] Iq
M_act [Nm]
f_outp [Hz] r0080 [0] [6799.6]
[6730.4] f_outp smooth [Hz] Disp_val T_smooth
r0066 r0024
[6731.4] 100 ms p0045
M_act [Nm]
U_output [Veff] U_outp smooth [Veff] r0080[1]
[6730.4] n_act [1/min]
r0072 r0025
[6731.4] 100 ms r0063 [0]
P_act [kW]
r0082 [0] [6799.6]
Disp_val T_smooth
Vdc act val [V] Vdc smooth [V] p0045
[6730.1] r0070 r0026
[6731.1] 100 ms
P_act [kW]
r0082[1]
Function diagrams
r0072 3 Cos phi act
[6730.1] Cos phi smooth
<1> [6730.4] r0087 r0038
P_act [kW] [6731.1] 300 ms
Vector control
r0082 [2]
<1> For induction motors
<2> For synchronous motors
1 2 3 4 5 6 7 8
2-593
Function diagrams
Fig. 2-88
Mot t_de-excitat. DCBRK I_brake DCBRK time DCBRK n_start Current actual values I_act abs val [Aeff]
0.000 ... 20.000 [s] 0.00 ... 10000.00 [Aeff] 0.0 ... 3600.0 [s] 0.00 ... 210000.00 [1/min] [6714] r0068[0..1]
p0347 [D] (0.000) p1232 [D] (0.00) p1233 [D] (1.0) p1234 [D] (210000.00)
Braking response
n_act Pulse inhibit
p1231 = 5 (OFF1/OFF3)
n_set
p1234
DCBRK ZSW
To pulse inhibit
r1239 To sequence
r1239 t control
|I_set| p0347 DCBRK ZSW
DC brake fault response r1239
p1232 r1239 .8
Technology functions
|I_act|
Function diagrams
p1233 t
<1> The de-magnetization time is determined during automatic calculation (p0340 = 1, 3).
<2> The DC braking current is determined during automatic calculation (p0340 = 1).
<3> DC braking when starting speed for DC braking (p1234) is fallen below.
1 2 3 4 5 6 7 8
2-595
Technology functions
Function diagrams
Fig. 2-89
0 ... 4
Free Technology Controller 1 : p11100 to p11199 p11028 (2)
Free Technology Controller 2 : p11200 to p11299
F07436 <2>
(0)
Ftec0 lim max s_s
Ftec0 stat_word p11097
Ftec0 lim max
r11049 -200.00 ... 200.00 [%] (11091[0])
1 r11049.0 p11091 (100.00)
Ftec0 lim offs
p11099
(0) Ftec0 lim r-u/r-dn
0.00 ... 100.00 [s]
p11093 (1.00)
1 2 3 4 5 6 7 8
Technology functions fp_7030_97_01.vsd Function diagram
- 7030 -
Free Technology controller 0, 1, 2 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
0
0
Zone_ctrl act proc
0 ... 11
Zon_ctrl act inp p31022 (0)
CU AI value in % [%] p31026 [0]
r0755 [2] (0) 1
0
0 1
0
2
Zon_ctrl act inp 3
CU AI value in % [%] p31026 [1]
1
+ 4
r0755 [3] (0) 1,2 Zon_ctrl act outp [%]
+
5 r31027
0
0 1 6 To technology
0
2 controller
1 7 p2264 [7958.1]
Zon_ctrl act inp 3
p31026[2] 8
MIN
(0) 1 9
MIN
10
0 MAX
0
Technology functions
11
MAX
Function diagrams
1 2 3 4 5 6 7 8
2-597
Technology functions
Function diagrams
Fig. 2-91
p3883 1 = Direction of rotation inverted
(0) r3889.1
ESM act s s
p3880 1 = Extended service mode (ESM) active
ESM setp_src
(0) r3889.0 [7958.3] 0 ... 7
p3881 (0)
7033 – Essential service mode (ESM)
0
0
-1 1
Total setpoint eff [1/min] 1 = Setpoint signal lost
0 n_set_fixed 15 0
r1078 10 s Last r3889.2
ESM setp_src alt p1015 [D] (0.000) 1
known 0 ... 2
[3030.6] setpoint [3010.5]
1 p3882 (0) F03505 caused by wire breakage in AI 0 -1 1
x1
n_ref f_ref
p2000 x
0 x1 x 2
CU AI value in % [%] x2 100 % 0
[9568.5] r0755 [0] 0 [3040.6]
n_set_fixed 15 1 2
p1015 [D] (0.000) 1 Speed setpoint
1 = Setpoint failure -1 in Extended
[3010.5] 1
r2043.0 Service Mode
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
n_max 2 p2000
0 4000 hex
p1082
PZD recv word
[3050.5] 0
-1 1 r2050 [1]
0
[2468.4] 3
1
0
-1 1
4
1 >4
Tec_ctrl status
© Siemens AG 2008 - 2013 All Rights Reserved
1 = OC/OFF2
& OFF2 S_src 1 &
p0844 [C] OFF2 S_src 2 & r0898.1
p0845 [C] 7
(1)
(4022.3)
1 2 3 4 5 6 7 8
Technology functions fp_7033_97_01.vsd Function diagram
- 7033 -
Essential Service Mode (ESM) 12.12.2012 V4.6 G120 CU230P-2
Line
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© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-92
Bypass
configuration Bypass STW / ZSW
r1261
Bypass config r1261
0 ... 3
p1260 (0)
.
. Interlock against
7035 – Bypass
Bypass command
p1266
(0)
Bypass STW / ZSW
r1261
Signal for contactor K1:
r1261.0
Bypass FS Inverter operation
p1269 [0]
Feedback signal from K1:
(1261.0)
Inverter operation
Bypass STW / ZSW
r1261
Signal for contactor
r1261.1
Bypass FS K2:
p1269 [1] Line operation
Feedback signal from K2:
(1261.0)
.1
Line operation
Technology functions
Switch t_monit Monitoring time for K1:
0 ... 5000 [ms]
Function diagrams
p1274 (1000)
p1274[0] Inverter operation
1 2 3 4 5 6 7 8
2-599
Technology functions
Function diagrams
Fig. 2-93
staging/destaging Csc_ctrl ZSW
r2379
Configuration r2379
Csc_ctrl enab
0 ... 1 SINAMICS To
p2370 [D] (0)
.. G120 Motor Starters
technology controller
input of inverter
. Relay outputs
CU230P-2 (digital outputs)
7036 – Cascade control
DM =
Variable speed motor DM M1 M2 M3
Staging Destaging
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
n a
p1082
n
n_act
p2378
p1082
n_act 100
p2378 a
p1082 p1080
100
t
tx p2387
t %
© Siemens AG 2008 - 2013 All Rights Reserved
PID
ty p2385
PID %
t
p2376 p2373
b c
b
p2373
p2375
p2376
t
r2379 p2374 r2379
c
Bit02 1
0 Bit02 1
0
Bit01 1 Bit01 1
0 0
Bit00 1
0 Bit00 1
0
p2384 p2386
t t
Condition for a n_act = p1082 Condition for a n_act = p1080
staging: § p2378 · destaging: § p2378 p1080 ·
b p2376 > PID p2373 b p2376 < PID p2373
ty ¨¨1 100 ¸¸ p1121 tx ¨¨ 100 p1082 ¸¸ p1120
c t a b > p2374 © ¹ c tab > p2375 © ¹
1 2 3 4 5 6 7 8
Technology functions fp_7036_97_01.vsd Function diagram
- 7036 -
Staging 12.12.2012 V4.6 G120 CU230P-2
Setting p2200 = 1, p2251 = 0, p2398 = 1, p2394 > 0
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
%
7038 – Energy-saving mode
Technology setpoint
t
f f
<2>
En_sav n_boost <3>
0.000 ... 21000.000 [1/min] <4>
p2395 [D] (0.000) En_savResNoTec_ctr
<4> 0.000 ... 21000.000 [1/min]
p2393 [D] (0.000) Speed setpoint
<5> <5>
En_sav n_start En_sav n_start
0.000 ... 21000.000 [1/min] <6> 0.000 ... 21000.000 [1/min]
p2390 [D] (0.000) p2390 [D] (0.000)
n_min n_min
0.000 ... 19500.000 [1/min] 0.000 ... 19500.000 [1/min]
p1080 [D] (0.000) p1080 [D] (0.000) Inverter output
frequency
0 t 0 t
tx ty tx ty
p2395 En_sav t_boost p1080 En_sav t_delay
tx = p1121 tx = p1121
p1082 0 ... 3599 [s] p1082 0 ... 3599 [s]
p2394 [D] (0) p2391 [D] (120)
(p1080+p2390) 1.05 (p1080+p2390+p2393) En_sav t_off max
ty = p1120 En_sav t_delay En_sav t_off max ty = p1120
p1082 0 ... 3599 [s] 0 ... 863999 [s] p1082 0 ... 863999 [s]
p2391 [D] (120) p2396 [D] (0) p2396 [D] (0)
Hibernation active Hibernation active
Technology functions
<1> Hibernation restart value with technology controller p2392 En_sav n_outp act [1/min]
<2> Technology setpoint as main setpoint r2397[0..1] r2397[0..1]
Function diagrams
<3> Hibernation boost speed p2395 En_save ZSW En_save ZSW
<4> Hibernation restart speed = (p1080+p2390) * 1.05 <4> Hibernation restart speed = p1080+p2390+p2393
r2399 r2399
<5> Hibernation starting speed = p1080 + p2390
r2399 <5> Hibernation starting speed = p1080 + p2390 r2399
<6> Hibernation boost time period p2394 = 0 --> no boost
1 2 3 4 5 6 7 8
2-601
Function diagrams
7250 – BSW (binary change-over switch), NSW (numeric change-over switch) 2-618
Fig. 2-95
7200 – Sampling times of the runtime groups
Run-time group
1 2 3 4 5 6
RTG sampling time [ms]
r20001[1] = 8 ms r20001[2] = 16 ms r20001[3] = 32 ms r20001[4] = 64 ms r20001[5] = 128 ms r20001[6] = 256 ms
r20001[0..9]
Logic function blocks
AND, OR, XOR, NOT
X X X X X X
Arithmetic function blocks
ADD, SUB, MUL, DIV, AVA, NCM, PLI
- - - - X X
Time function blocks
MFP, PCL, PDE, PDF, PST
- - - - X X
Memory function blocks
RSR, DSR
X X X X X X
Switch function block
NSW
- - - - X X
Switch function block
BSW
X X X X X X
Control function blocks
LIM, PT1, INT, DIF
- - - - X X
Complex function blocks
LVM
- - - - X X
AND 1 AND 3
1 2 3 4 5 6 7 8
Logic function blocks fp_7210_97_59.vsd Function diagram
- 7210 -
AND (AND function blocks with 4 inputs) 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-97
OR 0 OR 2
OR 0 RTG OR 2 RTG
1 ... 9999 1 ... 9999
p20048 (9999) p20056 (9999)
7212 – OR (OR function blocks with 4 inputs)
OR 0 inputs OR 2 inputs
p20046 p20054
[0] I0 [0] I0
I1 OR 0 output Q I1 OR 2 output Q
[1] Q [1] Q
I2 r20047 I2 r20055
[2] [2]
[3] I3 [3] I3
OR 0 RunSeq OR 2 RunSeq
0 ... 32000 0 ... 32000
p20049 (60) p20057 (80)
OR 1 OR 3
OR 1 RTG OR 3 RTG
1 ... 9999 1 ... 9999
p20052 (9999) p20060 (9999)
OR 1 inputs OR 3 inputs
p20050 p20058
[0] I0 [0] I0
I1 OR 1 output Q I1 OR 3 output Q
[1] Q [1] Q
I2 r20051 I2 r20059
[2] [2]
[3] I3 [3] I3
OR 1 RunSeq OR 3 RunSeq
0 ... 32000 0 ... 32000
Function diagrams
1 2 3 4 5 6 7 8
2-605
XOR 1 XOR 3
1 2 3 4 5 6 7 8
Logic function blocks fp_7214_97_59.vsd Function diagram
- 7214 -
XOR (XOR function blocks with 4 inputs) 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
NOT 1 NOT 4
NOT 2 NOT 5
1 2 3 4 5 6 7 8
2-607
ADD 0 inputs
p20094
X0
SUB 0
[0]
X1 ADD 0 output Y
[1]
7220 – ADD (adder with 4 inputs), SUB (subtracter)
Y SUB 0 RTG
[2] X2 + r20095
5 ... 9999
X3 p20104 (9999)
[3]
SUB 0 inputs
ADD 0 RunSeq p20102
0 ... 32000 X1 SUB 0 difference Y
[0] Y
p20097 (210) [1] X2 X1 - X2 r20103
p20098
[0] X0
X1 ADD 1 output Y
[1] Y
[2] X2 + r20099
X3
[3]
SUB 1
ADD 1 RunSeq
© Siemens AG 2008 - 2013 All Rights Reserved
0 ... 32000
SUB 1 RTG
p20101 (220)
5 ... 9999
p20108 (9999)
ADD 2 RunSeq
0 ... 32000
p20311 (800)
1 2 3 4 5 6 7 8
Arithmetic function blocks fp_7220_97_59.vsd Function diagram
- 7220 -
ADD (adder with 4 inputs), SUB (subtracter) 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-101
MUL 0 DIV 0
MUL 0 inputs
DIV 0 inputs DIV 0 quotient
p20110 Y
X0 p20118 r20119 [0] DIV 0 Quotient
[0] YIN
X1 MUL 0 product Y [0] X1 [1] DIV 0 Multiple integer quotient
[1] Y MOD
X2 x r20111 [1] X2 X1 / X2 [2] DIV 0 Division remainder
[2]
X3 QF
[3] r20120
DIV 0 divisor=0 QF
MUL 1 DIV 1
MUL 1 inputs
DIV 1 inputs DIV 1 quotient
p20114 Y
X0 p20123 r20124 [0] DIV 0 Quotient
[0] YIN
X1 MUL 1 product Y [0] X1 [1] DIV 0 Multiple integer quotient
[1] Y MOD
X2 x r20115 [1] X2 X1 / X2 [2] DIV 0 Division remainder
[2]
X3 QF
[3] r20125
DIV 1 divisor=0 QF
AVA 0
7224 – AVA (absolute value generator)
AVA 0 RTG
5 ... 9999
p20131 (9999)
AVA 0 RunSeq
0 ... 32000
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
p20132 (340)
AVA 1
AVA 1 RTG
5 ... 9999
© Siemens AG 2008 - 2013 All Rights Reserved
p20136 (9999)
AVA 1 RunSeq
0 ... 32000
p20137 (350)
1 2 3 4 5 6 7 8
Arithmetic function blocks fp_7224_97_59.vsd Function diagram
- 7224 -
AVA (absolute value generators) 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-103
NCM 0
7225 – NCM (numeric comparator)
NCM 0 RTG
5 ... 9999
p20316 (9999)
NCM 0 RunSeq
0 ... 32000
p20317 (820)
NCM 1
NCM 1 RTG
5 ... 9999
p20322 (9999)
NCM 1 RunSeq
0 ... 32000
p20323 (830)
PLI 0 RTG
5 ... 9999
p20376 (9999)
7226 – PLI (polyline scaling)
PLI 0 X-coordinate
-340.28235E36 ... 340.28235E36 A18/B18 Breakpoint 0 (A0/B0 = p20374[0]/p20375[0]) ... Breakpoint 19 (A19/B19 = p20374[19]/p20375[19])
p20374 (0.0000) Y
A19/B19
PLI 0 input X
p20372 PLI 0 output Y
X Xn Y
(0) X r20373
PLI 0 RunSeq
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
0 ... 32000
p20377 (980)
PLI 1
PLI 1 RTG
5 ... 9999
p20382 (9999)
© Siemens AG 2008 - 2013 All Rights Reserved
PLI 1 X-coordinate
-340.28235E36 ... 340.28235E36 A18/B18 Breakpoint 0 (A0/B0 = p20380[0]/p20381[0]) ... Breakpoint 19 (A19/B19 = p20380[19]/p20381[19])
p20380 (0.0000) Y
A19/B19
PLI 1 input X
p20378 PLI 1 output Y
X Xn Y r20379
(0) X
1 2 3 4 5 6 7 8
Arithmetic function blocks fp_7226_97_59.vsd Function diagram
- 7226 -
PLI (scaling polyline) 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-105
MFP 0 MFP 2 PCL 0
7230 – MFP (pulse generator), PCL (pulse contractor)
MFP 0 RTG MFP 0 pulse_dur ms MFP 2 RTG MFP 2 pulse_dur ms PCL 0 RTG PCL 0 pulse_dur ms
5 ... 9999 0.00 ... 5400000.00 5 ... 9999 0.00 ... 5400000.00 5 ... 9999 0.00 ... 5400000.00
p20141 (9999) p20139 (0.00) p20357 (9999) p20355 (0.00) p20151 (9999) p20149 (0.00)
T T T
MFP 0 inp_pulse I MFP 2 inp_pulse I PCL 0 inp_pulse I
p20138 T MFP 0 output Q p20354 T MFP 2 output Q p20148 T PCL 0 output Q
I Q I Q I Q
(0) r20140 (0) r20356 (0) r20150
MFP 1 RTG MFP 1 pulse_dur ms MFP 3 RTG MFP 3 pulse_dur ms PCL 1 RTG PCL 1 pulse_dur ms
5 ... 9999 0.00 ... 5400000.00 5 ... 9999 0.00 ... 5400000.00 5 ... 9999 0.00 ... 5400000.00
p20146 (9999) p20144 (0.00) p20362 (9999) p20360 (0.00) p20156 (9999) p20154 (0.00)
T T T
MFP 1 inp_pulse I MFP 3 inp_pulse I PCL 1 inp_pulse I
p20143 T MFP 1 output Q p20359 T MFP 3 output Q p20153 T PCL 1 output Q
I Q I Q I Q
(0) r20145 (0) r20361 (0) r20155
Function diagrams
p20147 (380) p20363 (960) p20157 (410)
1 2 3 4 5 6 7 8
2-613
5 ... 9999 0.00 ... 5400000.00 5 ... 9999 0.00 ... 5400000.00
p20161 (9999) p20159 (0.00) p20337 (9999) p20335 (0.00)
T T
PDE 0 inp_pulse I PDE 2 inp_pulse I
p20158 T 0 PDE 0 output Q p20334 T 0 PDE 2 output Q
I Q I Q
(0) r20160 (0) r20336
PDE 1 PDE 3
© Siemens AG 2008 - 2013 All Rights Reserved
T T
PDE 1 inp_pulse I PDE 3 inp_pulse I
p20163 T 0 PDE 1 output Q p20339 T 0 PDE 3 output Q
I Q I Q
(0) r20165 (0) r20341
1 2 3 4 5 6 7 8
Time function blocks fp_7232_97_59.vsd Function diagram
- 7232 -
PDE (switch-in delay) 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-107
PDF 0 PDF 2
5 ... 9999 0.00 ... 5400000.00 5 ... 9999 0.00 ... 5400000.00
p20171 (9999) p20169 (0.00) p20347 (9999) p20345 (0.00)
T T
PDF 0 inp_pulse I PDF 2 inp_pulse I
p20168 0 T PDF 0 output Q p20344 0 T PDF 2 output Q
I Q I Q
(0) r20170 (0) r20346
PDF 1 PDF 3
PDF 1 RTG PDF 1 t_ext ms PDF 3 RTG PDF 3 t_ext ms
5 ... 9999 0.00 ... 5400000.00 5 ... 9999 0.00 ... 5400000.00
p20176 (9999) p20174 (0.00) p20352 (9999) p20350 (0.00)
T T
PDF 1 inp_pulse I PDF 3 inp_pulse I
p20173 0 T PDF 1 output Q p20349 0 T PDF 3 output Q
I Q I Q
(0) r20175 (0) r20351
Function diagrams
1 2 3 4 5 6 7 8
2-615
T
PST 0 inputs
p20178 T
Input pulse I Q PST 0 output Q
[0]
Reset input R r20180
[1]
PST 0 RunSeq
0 ... 7999
p20182 (490)
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
PST 1
© Siemens AG 2008 - 2013 All Rights Reserved
T
PST 1 inputs
p20183 T
Input pulse I Q PST 1 output Q
[0]
r20185
[1] Reset input R
PST 1 RunSeq
0 ... 7999
p20187 (500)
1 2 3 4 5 6 7 8
Time function blocks fp_7234_97_59.vsd Function diagram
- 7234 -
PST (pulse extender) 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
[0] Set S
Reset R [2]
[1] RSR 0 inv outp QN Reset DFR 0 inv outp QN
QN [3] R QN
r20190 r20200
1 2 3 4 5 6 7 8
2-617
BSW 1 NSW 1
1 2 3 4 5 6 7 8
Switch function blocks fp_7250_97_59.vsd Function diagram
- 7250 -
BSW (binary changeover switch), NSW (numerical changeover switch) 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-111
LIM 0
7260 – LIM (limiter)
LIM 0 RTG
5 ... 9999
p20234 (9999)
LIM 0 RunSeq
0 ... 32000
p20235 (640)
LIM 1
LIM 1 RTG
5 ... 9999
p20242 (9999)
LIM 1 RunSeq
0 ... 32000
p20243 (650)
PT1 0 PT1 1
T T
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
1 2 3 4 5 6 7 8
Control function blocks fp_7262_97_59.vsd Function diagram
- 7262 -
PT1 (smoothing element) 12.12.2012 V4.6 G120 CU230P-2
INT 0
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-113
INT 0 RTG INT 0 RunSeq
5 ... 9999 0 ... 32000
p20264 (9999) p20265 (700)
7264 – INT (integrator), DIF (derivative-action element)
INT 0 T_Integr ms
0.00 ... 340.28235E36
p20259 (0.00)
TI
INT 0 inputs INT 0 upper lim LU INT 0 QU
LU QU
p20256 -340.28235E36 ... 340.28235E36 r20262
Input X p20257 (0.0000) Y INT 0 output Y
[0]
Set value SV r20261
[1] INT 0 QL
INT 0 lower lim LL LL QL
-340.28235E36 ... 340.28235E36 r20263
INT 0 acc set val p20258 (0.0000)
S
p20260
(0)
DIF 0
DIF 0 T_diff ms
0.00 ... 340.28235E36
p20285 (0.00)
DIF 0 input X TD
p20284 d DIF 0 output Y
X Y
(0) dt r20286
1 2 3 4 5 6 7 8
2-621
LVM 0 LVM 1
7270 – LVM (double-sided limit monitor with hysteresis)
1 QU 1 QU
r20270 r20279
0 0
1 1
LVM 0 input X LVM 0 X within QM LVM 1 input X LVM 1 X within QM
p20266 QM p20275 QM
X r20271 X r20280
(0) 0 (0) 0
1 1
© Siemens AG 2008 - 2013 All Rights Reserved
L L L L
1 2 3 4 5 6 7 8
Complex function blocks fp_7270_97_59.vsd Function diagram
- 7270 -
LVM (limit value monitor, double-sided with hysteresis) 12.12.2012 V4.6 G120 CU230P-2
Function diagrams
Technology controller
Function diagrams
Technology controller
Function diagrams
Fig. 2-115
Tec_ctrl sel bit 0
p2220 [C]
(0)
23 20 0 ... 15
Tec_ctrl sel bit 1 0.00 % 0000 Tec_ctrl No. act
p2221 [C] r2229
(0) Tec_ctrl fix val1
7950 – Fixed value selection binary (p2216 = 2)
1 2 3 4 5 6 7 8
Technology controller fp_7950_97_51.vsd Function diagram
- 7950 -
Fixed values, binary selection (p2216 = 2) 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-116
(0)
Technology controller
Function diagrams
1 2 3 4 5 6 7 8
2-625
Technology controller
Function diagrams
Fig. 2-117
p2230 [D] (0000 0100 bin)
Data save active 0 The setpoint for the motorized potentiometer is not saved and after ON is entered using p2240.
0 1 The setpoint for the motorized potentiometer is saved after OFF and after ON is entered using r2231.
1
7954 – Motorized potentiometer
y
Tec_ctrl mop max p2237
-200.00 ... 200.00 [%] 0 1 Tec_ctr mop befRFG [%]
p2237 [D] (100.00) r2245
x y Tec_ctr mop aftRFG [%]
r2250
x
© Siemens AG 2008 - 2013 All Rights Reserved
1 1
Tec_ctrl mop start
Missing enable sig -200.00 ... 200.00 [%]
r0046 p2240 [D] (0.00)
1 = OFF1, enable missing
r0046.0 <1>
1 2 3 4 5 6 7 8
Technology controller fp_7954_97_61.vsd Function diagram
- 7954 -
Motorized potentiometer 12.12.2012 V4.6 G120 CU230P-2
Tec_ctr integ stop Tec_ctrl outp scal
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-118
Tec_ctrl set1 scal r0056 p2286 [C] Tec_ctrl outp scal p2296 [C]
<3>
0.00 ... 100.00 [%] -100.00 ... 100.00 [%] (2295[0])
p2255 (100.00) r0056.13 (56.13)
Tec_ctrl setp 1 p2295 (100.00)
ZSW cl-loop ctrl
p2253 [C] Tec_reg Vorsteuer
(0) Tec_ctr set aftRFG [%] p2289[C]
r2260 Tec_ctr set aftFlt [%] Tec_ctrl error [%] (0)
r2262 r2273
7958 – Closed-loop control
Tec_ctrl set2 scal Tec_ctrl t_ramp-up Tec_ctrl set T p2263 = 1 Tec_ctrl Kp Tec_ctrl Tn Tec_ctrl status
0.00 ... 100.00 [%] Tec_ctrl fault inv
0.00 ... 650.00 [s] 0.000 ... 60.000 [s] 0 ... 1 0.000 ... 1000.000 0.000 ... 10000.000 [s] r2349
p2256 (100.00) p2257 (1.00) p2261 (0.000) p2280 (1.000) p2285 (30.000)
p2306 (0) r2349.11
Tec_ctrl setp 2 <1> Tec_ctr start val
<1> 0.00 ... 200.00 [%]
p2254 [C] + 0
<6>
+ p2302 (0.00)
(0) 1
-1
ESM setp tech_ctrl + + +
p3884 1 + 0
(0)
+ + Tec_ctrl status
<5> 1 Tec_ctrl error [%] r2349
ESM ZSW Tec_ctrl t_ramp-dn r2273 r2349.10
r3889 0.00 ... 650.00 [s] -1 0 p2263 = 0 r2349.1
r3889.5 p2258 (1.00)
1 0 <2>
Tech_ctrl act inv Tec_ctrl Tech_ctrl flt resp
Tec_ctrl u_lim act 0 ... 1 Tec_ctrl type n_setp_sm [%] 0 ... 2
-200.00 ... 200.00 [%] p2271 (0) 0 ... 1 r2344 p2345 (0)
p2267 (100.00) p2263 (0) Tec_ctrl
Tec_ctrl act T Tech_ctrl gain act Tec_ctr ActVal fct 10 s 0 outp_sig [%]
0.000 ... 60.000 [s] 0.00 ... 500.00 [%] 0 ... 3 1
p2265 (0.000) r2294
p2269 (100.00) p2270 (0) Tec_ctr fix val 15
Tech_ctrl act 1
scal [%] -200.00 ... 200.00 [%] 2
Tec_ctrl act val y p2215 [D] (150.00)
r2272
p2264 [C]
r2349
(0)
x -1 Tec_ctrl status
r2349.12
F07426
Tec_ctrl l_lim act Tec_ctrl D comp T
-200.00 ... 200.00 [%] Tec_ctrl status 0.000 ... 60.000 [s]
p2268 (-100.00) p2274 (0.000) n_limit pos eff [1/min] Tec_ctrMaxLimS_src
r2349 <1> r1084 p2297 [C]
r2349.12 (1084[0])
d Tec_ctrl max_lim
ESM ZSW Tec_ctr act aftFlt [%] r2349.8 -200.00 ... 200.00 [%]
r2349.9 dt –
r3889 r2266 p2291 (100.00)
r3889.0
r0052.2 <4> p2299 [C]
[7974.3] Tech_ctrl lim offs
[2510.6] (0)
Technology controller
r3889 r1087 p2298 [C] –
<1> P, I and D components can be disabled by entering a zero. 1 (2292[0])
r3889.6 Tec_ctrl min_lim
Function diagrams
<2> After enable of technology controller the start value is present as long as the RFG -200.00 ... 200.00 [%]
output reaches this value. Tec_ctrl enable 0 p2292 (0.00)
<3> I component stop, only when r2273 and r2294 in same direction. p2200 [C]
Tec_ctrl status
<4> Signal = 0 --> factor = 0, when setpoint from external OP or operating tool. (0) Tec_ctr ramp up/dn
r2349
<5> Change over only if p2251 = 0 (Technology controller as speed main setpoint). 1 r2349.0
0.00 ... 100.00 [s]
<6> I component is stopped, when r2294 is below the minimum speed or within a suppression bandwidth. p2293 (1.00)
1 2 3 4 5 6 7 8
2-627
Function diagrams
Fig. 2-119
n_act [1/min] n_act smth message [1/min]
r0063 [0] r2169 [0]
[6010] [8012]
8005 – Overview
n_max
n_ctrl setp sum
[1/min]
r1170
[3080]
M_act [Nm]
M_set [Nm] r0080 [0]
r0079 [6714]
[6060]
Limit value monitor
M_max upper eff [Nm]
r1538 n_act smth message [1/min]
[6640] r2169
[8010]
Function diagrams
Motor locked
1 2 3 4 5 6 7 8
2-629
r0063 [1]
r2197.6 [2534.3]
[6799.4] n
|n_act| > n_max
n_thresh val 3
n_act_filt T 0.00 ... 210000.00 [1/min]
0 ... 1000000 [ms] n_act smth message [1/min] p2161 [D] (5.00)
p2153 [D] (0) r2169
Hyst n_act>n_max
[8011.2] 0.00 ... 60000.00 [1/min]
[8012.5] p2162 [D] (0.00) ZSW monitor 3
n_act [1/min] 1
[8013.1] r2199
r0063 [0]
r2199.0 [2537.3]
[6730.1] 0
n_thresh val 1 |n_act| < speed threshold value 3
[6731.1] Smoothing
0.00 ... 210000.00 [1/min] <1> t_on cmpr val rchd
p2141 [D] (5.00) 0.0 ... 10000.0 [ms]
n_hysteresis 3
0.00 ... 300.00 [1/min] p2156 [D] (0.0)
p2150 [D] (2.00)
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
1 ZSW monitor 3
1 T 0 r2199
r2199.1 [2537.3]
0
0
f or n comparison value
n_thresh val 2 reached or exceeded
0.00 ... 210000.00 [1/min] t_on cmpr val rchd
<1> Monit config 0.0 ... 10000.0 [ms]
p2155 [D] (900.00)
n_hysteresis 1 p2149 .3 p2156 [D] (0.0)
0.00 ... 300.00 [1/min]
p2142 [D] (2.00) ZSW monitor 1
1 T 0 r2197
© Siemens AG 2008 - 2013 All Rights Reserved
1
r2197.1 [2534.3]
0 |n_act| <= speed threshold value
0
2
t_on cmpr val rchd
n_thresh val 2 <1> 1 0.0 ... 10000.0 [ms]
0.00 ... 210000.00 [1/min] p2156 [D] (0.0)
p2155 [D] (900.00) n_hysteresis 2
0.00 ... 300.00 [1/min]
p2140 [D] (90.00) ZSW monitor 1
0 1 T 0 r2197
1
1 r2197.2 [2534.3]
|n_act| > speed threshold value 2
1 0
0
0
<1>
n_hysteresis 2
0.00 ... 300.00 [1/min]
p2140 [D] (90.00)
<1> Calculated.
1 2 3 4 5 6 7 8
Signals and monitoring functions fp_8010_97_51.vsd Function diagram
- 8010 -
Speed signals 1 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-121
0
ZSW monitor 1
n_act smth message [1/min] 1 r2197
[8010.2] r2169 r2197.3 [2534.3]
0 n_act >= 0
8011 – Speed signals 2
0 <1>
n_hysteresis 3
0.00 ... 300.00 [1/min]
n_set for msg p2150 [D] (2.00) ZSW monitor 2
p2151 [C] 1
r2198
(1170[0])
r2198 .5 [2536.3]
[3080.8] 0 n_thresh val 3
0.00 ... 210000.00 [1/min] n_set > 0
p2161 [D] (5.00)
<1>
n_hysteresis 3
0.00 ... 300.00 [1/min] ZSW monitor 2
p2150 [D] (2.00) 1
r2198
r2198 .4 [2536.3]
0
n_thresh val 4 |n_set| < p2161
0.00 ... 210000.00 [1/min] t_del_off n_i=n_so
p2163 [D] (90.00) <1>
0.0 ... 10000.0 [ms]
n_hysteresis 3 p2166 [D] (200.0)
<1> 0.00 ... 300.00 [1/min]
p2150 [D] (2.00)
+ 1 ZSW monitor 1
1 0 T r2197 <2>
– 0 r2197.7 [2534.3]
0 Monit config Speed setp - act val deviation in
p2149.0 tolerance t_off
<1>
n_hysteresis 4 1
0.00 ... 200.00 [1/min] A07903 "Motor speed deviation"
p2164 [D] (2.00) t_on n_act=n_set
0.0 ... 10000.0 [ms] 1 A07903 is only signaled for
p2167 [D] (200.0) 0
p2149.0 = 1 and r2197.7 = 0.
Function diagrams
or OFF1 p2148 [C] r2199 .5 [2537.3]
or OFF3 (0) RESET 1 RESET Ramp-up/ramp-down completed
or rotating measurement. (Q=0) Q 2 SET
1 2 3 4 5 6 7 8
2-631
(0) 1
20 ZSW monitor 2
r1407
r1407 .7 ZSW n_ctrl & 5,6, T 0 r2198
0 r2198 .6
19
[2522.7]
Mot lock n_thresh [2536.3]
n_act smth message [1/min] 0.00 ... 210000.00 [1/min] 0..4,7
n_act smooth
F07900
[8010.2]
Load monit n_act
MIN
p3230 [C]
<1>
(0)
r0056 1
ZSW cl-loop ctrl &
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
r0056.12
r0056
r0056.13 ZSW cl-loop ctrl
[2526.6]
ZSW monitor 2
r1408
T 0 r2198
[6730.3] r1408.12
r2198 .7
ZSW I_ctrl [2536.3]
F07902
1 2 3 4 5 6 7 8
Signals and monitoring functions fp_8012_97_01.vsd Function diagram
- 8012 -
Torque signals, motor locked/stalled 12.12.2012 V4.6 G120 CU230P-2
M_act_filt T p2149.1 A07926 "Envelop characteristic, parameter
0 ... 1000000 [ms] not valid"
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-123
p3233 [D] (100) <2>
1 M [Nm]
M_act [Nm]
r0080[0]
0
[6799.8]
M_thresh 3 upper
0.00 ... 20000000.00 [Nm]
8013 – Load monitoring
(5) F07924
n_thresh 1 n_thresh 3 Torque/speed too high
<1>
p2149.10.00 ... 210000.00 [1/min] 0.00 ... 210000.00 [1/min]
n_thresh 2 (6) F07925
p2182 [D] (150.00) 0.00 ... 210000.00 [1/min] p2184 [D] (1500.00) Torque/speed outside tolerance
Load monit n_dev p2183 [D] (900.00)
p3231
Function diagrams
[2536.3]
1 2 3 4 5 6 7 8
2-633
1
Alarms "power unit overtemperature"
0 A05000 Inverter heatsink
PM-IF A05001 Chip
I_act abs val [Aeff]
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
1
i²t model F30005 "Power module overload"
power
module 0
PU overload I2t [%]
r0036
© Siemens AG 2008 - 2013 All Rights Reserved
ZSW fault/alarm 2
1 = Alarm, thermal overload, power module r2135
PU PI_rated [Aeff] 1 r2135.15
r0207[0..4]
[2548.2]
Overload response
1 2 3 4 5 6 7 8
Signals and monitoring functions fp_8014_97_51.vsd Function diagram
- 8014 -
Thermal monitoring, power module 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-125
1
Fault
0 & response
p0610 = 1
KTY sensor type
with p0610 = 0
Suppress fault
(threshold not applicable for PTC)
Mot_temp_sens type
& I_max reduction
[1690.1][6640.2]
Mod 2/KTY A thresh
0 ... 4 p0604 1650
p0601 [D] (0)
<2>
KTY PTC F07011
Sensor <1> T 0 & "Motor overtemperature"
0 = No sensor type
1 = PTC alarm and time 1 1 = Fault motor
of motor temperature model 2 overtemperature
[8017.8] 2 = KTY84 [8017.7]
4 = Bimetal NC contact alarm with 1 r2135.12
time step
1
A07910
"Motor overtemperature"
0
1 = Alarm motor
overtemperature
-140 °C 250 °C 1 r2135.14
<1> For KTY and "No sensor", temperature as defined in the model.
Function diagrams
<2> The relevant rated response temperature in °C depends on the temperature sensor
chosen by the motor manufacturer.
1 2 3 4 5 6 7 8
2-635
Mot I_rated 1
model
p0305 [8016.6]
I_act abs val [Aeff] 0 Mod 1/2 threshold
Motor temperature model 1
r0068 [0] (I2t) p0605
(for synchronous motor only)
8017 – Thermal motor models
1 = Activate motor
Mot temp response temperature model 2 Mot weight th mod
Rated motor temperature rise p0610 p0612.1 (1) p0344 Calculated motor temperatures
<5>
Mot T_ambient Mod T_ambient [°C]
p0625 r0630 [D]
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
1 2 3 4 5 6 7 8
Signals and monitoring functions fp_8017_97_01.vsd Function diagram
- 8017 -
Thermal motor models 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-127
n_min
p1080
ZSW monitor 1
n_act smth message [1/min] 1 r2197
[8010.2] r2169 r2197.0
0 1 ZSW 2 |n_act| <= p1080
r0053
8020 – Monitoring functions 1
0 r0053.2
n_hysteresis 3
p2150 [2511.6]
ZSW monitor 1
+
RFG setp at inp [1/min] 1 r2197
[3050.8] r1119 r2197.4
– 0 0 ZSW 2 |n_act| >= n_set
r0053
1 n_standst n_thresh Pulse suppr t_del r0053.6
n_hysteresis 3 p1226 p1228
p2150 [2511.6]
-1
ZSW monitor 1
n_act [1/min] 1 T 0 r2197
r0063
r2197.5
0 1 ZSW 2
Vdc thresh val r0053 |n_act| <= n_standst
t_del Vdc
p2172 p2173 r0053.1
[2511.6] ZSW monitor 1
Vdc act val [V] 1 T 0 r2197
[6730.1] r0070 r2197.9
0 ZSW 2 Vdc_act <= p2172
t_del Vdc r0053
p2173
r0053.7
ZSW monitor 1
[2511.6]
0 T r2197
M_act_filt T
0 ... 1000000 [ms] I_thres t_del I_thresh rch 1 r2197.10
p2170 ZSW 2
p3233 [D] (100) p2171 Vdc_act > p2172
r0053
r0053.8 ZSW monitor 1
I_act abs val [Aeff] 1 0 T [2511.6] r2197
[6714.8] r0068[0] r2197.8
0 I_thres t_del I_thresh rch ZSW 2 I_act >= p2170
p2170 p2171 r0053
Function diagrams
T 0 r2197
Enable Pulses
0 r2197.11
U_output [Veff] 1
[6730.4] r0072 Output load present
0 A07929
Drive: No motor detected
1 2 3 4 5 6 7 8
2-637
Function diagrams
Fig. 2-128
Fxxxxx
Fyyyyy III r0945 r0949 r0948 r2109 III
III
Axxxxx
Ayyyyy r2122 r2124 r2123 r2125 III
III
r2929
p2128
[0]
[15]
[19] [19]
Function diagrams
Faults and alarms
[19]
1 2 3 4 5 6 7 8
2-639
Fault times
III
r0949[0] [I32] r0948[0] [ms] r2109[0] [ms]
Fault 1 r0945[0]
r2133[0] [Float] r2130[0] [d] r2136[0] [d]
[8065.1] Counter
Operating time r0949[1] [I32] r0948[1] [ms] r2109[1] [ms] 16 bit
Fault 2 r0945[1]
r2133[1] [Float] r2130[1] [d] r2136[1] [d]
Fault case Fault cases qty
Actual III 0 ... 65535
fault case appears
RESET p0952 (0)
Acknowledging r2109 = 0 1
STW fault/alarm r0949[8] [I32] r0948[8] [ms] r2109[8] [ms] r2130 = 0 Automatic
p2103 ... p2105 r2138 Fault 1 r0945[8] r2133 = 0
r2133[8] [Float] r2130[8] [d] r2136[8] [d]
[2546.7] r2138.7 r2136 = 0
r0949[9] [I32] r0948[9] [ms] r2109[9] [ms]
Fault 2 r0945[9]
r2133[9] [Float] r2130[9] [d] r2136[9] [d]
1. Acknow- 16 bit counter, free
ledged Fault appears running
STW fault/alarm fault case
p2106 r2138 Fault disappears Fault buff change
1 III r0944
© Siemens AG 2008 - 2013 All Rights Reserved
1 2 3 4 5 6 7 8
Faults and warnings fp_8060_97_51.vsd Function diagram
- 8060 -
Fault buffer 12.12.2012 V4.6 G120 CU230P-2
Actual alarm code
r2132
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-130
<1> 0 = "No alarm present"
16 bit counter,
free running
Alarm appears
Alarm number Alrm buff changed
r2110 Alarm disappears 1 III r2121
RESET
ZSW fault/alarm 1
Delete alarm
r2139 buffer
r2139 .7 POWER ON
[2548.2]
16 bit counter,
free running
Function diagrams
Faults and alarms
Sum buffer changed
1 III r2120
Fault buffer change [8060.8] RESET
<1> The buffer parameters are updated cyclically in the background (see status signal in r2139). POWER ON
1 2 3 4 5 6 7 8
2-641
Message trigger
0 ... 65535
p2128 (0)
Trigger word
r2129 Fault/alarm trigger word
0. Message/signal present (e.g. as trigger condition to record traces)
[0] 0. Fault/alarm code r2129
r2129.0
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
1. Message/signal present
[1] 1. Fault/alarm code r2129.1
© Siemens AG 2008 - 2013 All Rights Reserved
1 2 3 4 5 6 7 8
Faults and warnings fp_8070_97_61.vsd Function diagram
- 8070 -
Fault/warning trigger word (r2129) 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-132 Changing the fault response for maximum 20 faults <1> Changing the message type - fault <==> alarm for maximum 20 faults/alarms <1>
[0] 0. Fault code [0] Fault response 0 = NONE [0] 0. Fault/alarm code [0] Fault/alarm type 1 = Fault
[1] 1. Fault code [1] Fault response 1 = OFF1 [1] 1. Fault/alarm code [1] Fault/alarm type 2 = Alarm
2 = OFF2 3 = No message
3 = OFF3
5 = STOP2
6 = IASC/
DCBRK
[19] 19. Fault code [19] Fault response [19] 19. Fault/alarm code [19] Fault/alarm type
[0] 0. Fault code [0] Acknowledge mode 1 = Acknowledgment is only possible using POWER ON
[1] 1. Fault code [1] Acknowledge mode 2 = Acknowledgment IMMEDIATELY after the cause has been removed.
Acknowledge mode
Function diagrams
[19] 19. Fault code [19]
1 2 3 4 5 6 7 8
2-643
Function diagrams
Fig. 2-133
CDS selected
r0836
r0836
0
STW
CDS selection
31
[8560]
Function diagrams
Data sets
1 2 3 4 5 6 7 8
2-645
Data sets
Function diagrams
Fig. 2-134
Example:
Change over command data set
CDS0 --> CDS1
t Target CDS
t p0809[1] (1)
Source CDS Start copy process
p0809[0] (0) p0809[2] (0)
CDS0 effective CDS1 effective
r0050.0 = 0 r0050.0 = 1
CDS selected
r0836
r0836 .0
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
t r0836.1
CDS select bit 0
p0810
(0) CDS count
2 ... 4
p0170 (2)
CDS select bit 1
p0811
(0) CDS3
© Siemens AG 2008 - 2013 All Rights Reserved
CDS2
CDS effective
CDS1 r0050
r0050 .0
CDS0 r0050.1
Note
Data sets can only be applied
and cleared when p0010 = 15
is set.
1 2 3 4 5 6 7 8
Data sets fp_8560_97_51.vsd Function diagram
- 8560 -
Command Data Sets (CDS) 12.12.2012 V4.6 G120 CU230P-2
SINAMICS G120 CU230P-2 Control Units List Manual (LH9), 01/2013
© Siemens AG 2008 - 2013 All Rights Reserved
Fig. 2-135
8565 – Drive Data Sets (DDS)
DDS selected
r0837
DDS select bit 0 DDS count r0837.0
p0820 [C] 1 ... 4 r0837.1
p0180 (1)
(0)
Note
Data sets can only be applied
and cleared when p0010 = 15
is set.
Function diagrams
<1> A BICO interconnection to a parameter which is part of a drive data set always influences the currently effective data set.
Data sets
1 2 3 4 5 6 7 8
2-647
3.1.1 General
Type Description
Fault reactions
The following fault reactions are defined:
Note:
With the "Basic positioner" (r0108.4 = 1), the following
applies:
When a fault occurs with fault reaction "NONE", an active
traversing task is interrupted and the system switches to
tracking mode until the fault has been rectified and
acknowledged.
OFF1 ON/ Brake along the Speed control (p1300 = 20, 21)
OFF ramp-function • n_set = 0 is input immediately to brake the drive along
generator down the ramp-function generator deceleration ramp (p1121).
ramp followed by
• When zero speed is detected, the motor holding brake (if
pulse inhibit
parameterized) is closed (p1215). The pulses are sup-
pressed when the brake application time (p1217)
expires.
Zero speed is detected if the actual speed drops below
the threshold (p1226) or if the monitoring time (p1227)
started when the speed setpoint <= speed threshold
(p1226) has expired.
OFF3 QUICK Brake along the Speed control (p1300 = 20, 21)
STOP OFF3 down ramp • n_set = 0 is input immediately to brake the drive along
followed by pulse the OFF3 down ramp (p1135).
inhibit
• When zero speed is detected, the motor holding brake (if
parameterized) is closed. The pulses are suppressed
when the brake application time (p1217) expires.
Zero speed is detected if the actual speed drops below
the threshold (p1226) or if the monitoring time (p1227)
started when the speed setpoint <= speed threshold
(p1226) has expired.
• Switching on inhibited is activated.
Notice:
When changing p0491, it is imperative that the information
in the description of this parameter is carefully observed.
Acknowledging faults
The list of faults and alarms specifies how to acknowledge each fault after the
cause has been remedied.
Acknowledg- Description
ment
POWER ON The fault is acknowledged via a POWER ON (switch Control Unit off and on again).
Note:
If this action has not eliminated the fault cause, the fault is displayed again immediately
after power-up.
IMMEDIATELY Faults can be acknowledged as follows:
1 Acknowledge by setting parameter:
p3981 = 0 --> 1
2 Acknowledge via binector inputs:
p2103 BI: 1. Acknowledge faults
p2104 BI: 2. Acknowledge faults
p2105 BI: 3. Acknowledge faults
3 Acknowledge using PROFIBUS control signal:
STW1.7 = 0 --> 1 (edge)
Note:
• These faults can also be acknowledged by a POWER ON operation.
• If this action has not eliminated the fault cause, the fault will continue to be displayed
after acknowledgment.
• Safety Integrated faults
The "Safe Torque Off" (STO) function must be deselected before these faults are
acknowledged.
PULSE INHIBIT The fault can only be acknowledged with a pulse inhibit (r0899.11 = 0).
The same possibilities are available for acknowledging as described under acknowledge
IMMEDIATELY.
The data in the following example has been chosen at random. The information
listed below is the maximum amount of information that a description can contain:
Some of the information is optional.
The list of faults and alarms (See Section 3.2) is structured as follows:
- - - - - - - - - - - - - - - - - - - - - - - - - Start of example - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -
- - - - - - - - - - - - - - - - - - - - - - - - - End of example - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -
Note:
You can change the default properties of a fault or alarm by setting parameters.
References: /BA5/ SINAMICS G120 Operating Instructions
Frequency Converter with CU230P-2 Control Units,
Section "Alarms, faults, and system messages"
The list of faults and alarms (see Section 3.2) provides information in relation to
the properties of a message that have been set as standard. If the properties of a
specific message are changed, the corresponding information may have to be
modified in this list.
Message value:
The information provided under the message value tells you about the composi-
tion of the fault/alarm value.
Example:
Message value: Component number: %1, fault cause: %2
This message value contains information about the component number and
cause of the fault. The entries %1 and %2 are placeholders, which are filled
appropriately in online operation (e.g. with the commissioning software).
Cause:
Describes the possible causes of the fault/alarm. A fault or alarm value can also
be specified (optional).
Fault value (r0949, format):
The fault value is entered in the fault buffer in r0949[0...63] and specifies addi-
tional, more precise information about a fault.
Alarm value (r2124, format):
The alarm value specifies additional, more precise information about an alarm.
The alarm value is entered in the alarm buffer in r2124[0...63] and specifies addi-
tional, more precise information about an alarm.
Remedy:
Description of the methods available for eliminating the cause of the active
fault/alarm
Alarm
In certain cases, servicing and maintenance personnel are responsible for choos-
ing a suitable method for eliminating the cause of faults.
Note:
The following number ranges represent an overview of all faults and alarms used
in the SINAMICS drive family.
The faults and alarms for the product described in this List Manual are described
in detail in Section 3.2.
Faults and alarms are organized into the following number ranges:
From To Range
Note:
Faults that occur are automatically output as an alarm if the
encoder is parameterized as a direct measuring system and
does not intervene in the motor control.
33000 33999 DRIVE-CLiQ component encoder 3
Note:
Faults that occur are automatically output as an alarm if the
encoder is parameterized as a direct measuring system and
does not intervene in the motor control.
34000 34999 Voltage Sensing Module (VSM)
35000 35199 Terminal Module 54F (TM54F)
From To Range
Remedy: - carry out a POWER ON (power off/on). After switching on, the module reboots from the valid parameterization (if
available).
- restore the valid parameterization.
Examples:
a) Carry out a first commissioning, save, carry out a POWER ON (switch-off/switch-on).
b) Load another valid parameter backup (e.g. from the memory card), save, carry out a POWER ON (switch-
off/switch-on).
Note:
If the fault situation is repeated, then this fault is again output after several interrupted boots.
A01021 Removable data medium as USB data storage medium from the PC used
Reaction: NONE
Acknowledge: NONE
Cause: The removable data medium is used as USB data storage medium from a PC
As a consequence, the drive cannot access the removable data medium. When backing up, the configuration data
cannot be saved on the removable data medium.
Fault value (r0949, interpret decimal):
1: The know-how protection as well as the copy protection for the removable data medium is active. Backup is inhib-
ited.
2: The configuration data are only backed up in the Control Unit.
See also: r7760 (Write protection/know-how protection status), r9401 (Safely remove memory card status)
Remedy: Deactivate the USB connection to the PC and back up the configuration data.
Note:
The alarm is automatically canceled when disconnecting the USB connection or when removing the removable data
medium.
See also: r9401 (Safely remove memory card status)
F01034 Units changeover: Calculation parameter values after reference value change
unsuccessful
Reaction: NONE
Acknowledge: IMMEDIATELY
Cause: The change of a reference parameter meant that for an involved parameter the selected value was not able to be re-
calculated in the per unit representation. The change was rejected and the original parameter value restored.
Fault value (r0949, parameter):
Parameter whose value was not able to be re-calculated.
See also: p0304, p0305, p0310, p0596, p2000, p2001, p2002, p2003, r2004
Remedy: Select the value of the reference parameter such that the parameter involved can be calculated in the per unit rep-
resentation.
See also: p0304, p0305, p0310, p0596, p2000, p2001, p2002, p2003, r2004
F01039 (A) ACX: Writing to the parameter back-up file was unsuccessful
Reaction: NONE (OFF1, OFF2, OFF3)
Acknowledge: IMMEDIATELY
Cause: Writing to at least one parameter back-up file PSxxxyyy.*** in the non-volatile memory was unsuccessful.
- In the directory /USER/SINAMICS/DATA/ at least one parameter back-up file PSxxxyyy.*** has the "read only" file
attribute and cannot be overwritten.
- There is not sufficient free memory space available.
- The non-volatile memory is defective and cannot be written to.
Fault value (r0949, interpret hexadecimal):
dcba hex
a = yyy in the file names PSxxxyyy.***
a = 000 --> consistency back-up file
a = 001 ... 062 --> drive object number
a = 099 --> PROFIBUS parameter back-up file
8yy:
The component clock cycles cannot be combined with one another
900:
The lowest common multiple of the clock cycles in the system is too high to be determined.
901:
The lowest common multiple of the clock cycles in the system cannot be generated with the hardware.
Remedy: - check the DRIVE-CLiQ connection.
- Reduce the number of components on the DRIVE-CLiQ line involved and distribute these to other DRIVE-CLiQ
sockets of the Control Unit. This means that communication is uniformly distributed over several lines.
Re fault value = 1yy - 4yy in addition:
- increase the sampling times (p0112, p0115, p4099). If necessary, for DCC or FBLOCKS, change the assignment
of the run-time group (p21000, p20000) so that the sampling time (r21001, r20001) is increased.
- if necessary, reduce the number of cyclically calculated blocks (DCC) and/or function blocks (FBLOCKS).
- reduce the function modules (r0108).
- establish the conditions for operation with a current controller sampling time of 31.25 µs (at the DRIVE-CLiQ line,
only operate Motor Modules and Sensor Modules with this sampling time and only use a permitted Sensor Module
(e.g. SMC20, this means a 3 at the last position of the order number)).
- For an NX, the corresponding Sensor Module for a possibly existing second measuring system should be con-
nected to a free DRIVE-CLiQ socket of the NX.
Re fault value = 8yy in addition:
- check the clock cycles settings (p0112, p0115, p4099). Clock cycles on a DRIVE-CLiQ line must be perfect integer
multiples of one another. As clock cycle on a line, all clock cycles of all drive objects in the previously mentioned
parameters apply, which have components on the line involved.
Re fault value = 9yy in addition:
- check the clock cycles settings (p0112, p0115, p4099). The lower the numerical value difference between two clock
cycles, the higher the lowest common multiple. This behavior has a significantly stronger influence, the higher the
numerical values of the clock cycles.
F01515 (A) BICO: Writing to parameter not permitted as the master control is active
Reaction: NONE
Acknowledge: IMMEDIATELY
Cause: When changing the number of CDS or when copying from CDS, the master control is active.
Remedy: If required, return the master control and repeat the operation.
A02058 Trace: Time slice clock cycle for endless trace not valid
Reaction: NONE
Acknowledge: NONE
Cause: The selected time slice clock cycle cannot be used for the endless trace
Remedy: Enter the clock cycle of an existing time slice with a cycle time >= 2 ms for up to 4 recording channels or >= 4 ms
from 5 recording channels per trace.
The existing time slices can be read out via p7901.
See also: r7901 (Sampling times)
A02059 Trace: Time slice clock cycle for 2 x 8 recording channels not valid
Reaction: NONE
Acknowledge: NONE
Cause: The selected time slice clock cycle cannot be used for more than 4 recording channels.
Remedy: Enter the clock cycle of an existing time slice with a cycle time >= 4 ms or reduce the number of recording channels
to 4 per trace.
The existing time slices can be read out via p7901.
See also: r7901 (Sampling times)
Note:
For the following analog input type, the wire breakage monitoring is active:
p0756[0...1] = 1 (2 ... 10 V with monitoring)
p0756[0...2] = 3 (4 ... 20 mA with monitoring)
Remedy: Check the connection to the signal source for interruptions.
Check the magnitude of the injected current - it is possible that the infed signal is too low.
The input current measured by the analog input can be read in r0752[x].
F07086 Units changeover: Parameter limit violation due to reference value change
Reaction: NONE
Acknowledge: IMMEDIATELY
Cause: A reference parameter was changed in the system. This resulted in the fact that for the parameters involved, the
selected value was not able to be written in the per unit notation.
The values of the parameters were set to the corresponding violated minimum limit/maximum limit or to the factory
setting.
Possible causes:
- the steady-state minimum limit/maximum limit or that defined in the application was violated.
Fault value (r0949, parameter):
Diagnostics parameter to display the parameters that were not able to be re-calculated.
See also: p0304, p0305, p0310, p0596, p2000, p2001, p2002, p2003, r2004
Remedy: Check the adapted parameter value and if required correct.
A07089 Changing over units: Function module activation is blocked because the units have
been changed over
Reaction: NONE
Acknowledge: NONE
Cause: An attempt was made to activate a function module. This is not permissible if the units have already been changed
over.
See also: p0100 (IEC/NEMA mot stds), p0505 (Selecting the system of units)
Remedy: Restore units that have been changed over to the factory setting.
Remedy: - increase the number of restart attempts (p1211). The actual number of starting attempts is displayed in r1214.
- increase the delay time in p1212 and/or the monitoring time in p1213.
- issue an ON command (p0840).
- either increase or disable the monitoring time of the power unit (p0857).
- Reduce the delay time for resetting the start counter (p1213[1]) so that fewer faults are registered in the time inter-
val.
F07435 (N) Drive: Setting the ramp-function generator for sensorless vector control
Reaction: OFF2 (IASC/DCBRK, NONE, OFF1, OFF3)
Acknowledge: IMMEDIATELY
Cause: During operation with sensorless vector control (r1407.1) the ramp-function generator was stopped (p1141). An
internal setting command of the ramp-function generator output caused the set setpoint speed to be frozen.
Remedy: - de-activate the holding command for the ramp-function generator (p1141).
- suppress the fault (p2101, p2119). This is necessary if the ramp-function generator is held using jogging and the
speed setpoint is simultaneously inhibited (r0898.6).
Remedy: - adapt the limit settings to the actual value signal (p11067, p11068).
- check the scaling of the actual value signal.
- check the signal source setting for the actual value (p11064).
See also: p11064 (Free tec_ctrl 0 actual value signal source), p11067 (Free tec_ctrl 0 actual value upper limit),
p11068 (Free tec_ctrl 0 actual value lower limit)
Note:
This fault also occurs if an incorrect topology was selected in the commissioning software and this parameterization
is then downloaded to the Control Unit.
See also: r0200 (Power unit code number actual)
Remedy: - carry out a POWER ON (power off/on) for all components.
- check the DRIVE-CLiQ cable between the Control Unit and power unit.
- Check the power unit and replace if necessary.
- check the Control Unit, and if required replace it.
- after correcting the topology, the parameters must be again downloaded using the commissioning software.
F30017 Power unit: Hardware current limit has responded too often
Reaction: OFF2
Acknowledge: IMMEDIATELY
Cause: The hardware current limitation in the relevant phase (see A30031, A30032, A30033) has responded too often. The
number of times the limit has been exceeded depends on the design and type of power unit.
- closed-loop control is incorrectly parameterized.
- fault in the motor or in the power cables.
- the power cables exceed the maximum permissible length.
- motor load too high
- power unit defective.
Fault value (r0949, interpret binary):
Bit 0: Phase U
Bit 1: Phase V
Bit 2: Phase W
Remedy: - check the motor data.
- check the motor circuit configuration (star-delta).
- check the motor load.
- check the power cable connections.
- check the power cables for short-circuit or ground fault.
- check the length of the power cables.
- replace power unit.
A30042 Power unit: Fan has reached the maximum operating hours
Reaction: NONE
Acknowledge: NONE
Cause: The maximum operating time of at least one fan will soon be reached, or has already been exceeded.
Fault value (r0949, interpret binary):
Bit 0: heat sink fan will reach the maximum operating time in 500 hours.
Bit 1: heat sink fan has exceeded the maximum operating time.
Bit 8: internal device fan will reach the maximum operating time in 500 hours.
Bit 9: internal device fan has exceeded the maximum operating time.
Note:
The maximum operating time of the heat sink fan in the power unit is displayed in p0252.
The maximum operating time of the internal device fan in the power unit is internally specified and is fixed.
Remedy: For the fan involved, carry out the following:
- replace the fan.
- reset the operating hours counter (p0251, p0254).
F30074 (A) Communication error between the Control Unit and Power Module
Reaction: NONE
Acknowledge: IMMEDIATELY
Cause: Communications between the Control Unit (CU) and Power Module (PM) via the interface no longer possible. The
CU may have been withdrawn or is incorrectly inserted.
Fault value (r0949, interpret hexadecimal):
0 hex:
- a Control Unit with external 24 V supply was withdrawn from the Power Module during operation.
- with the Power Module switched off, the external 24 V supply for the Control unit was interrupted for some time.
1 hex:
The Control Unit was withdrawn from the Power Module during operation, although the encoderless safe motion
monitoring functions are enabled. This is not supported. After re-inserting the Control Unit in operation, communica-
tions to the Power Module no longer possible.
20A hex:
The Control Unit was inserted on a Power Module, which has another code number.
20B hex:
The Control Unit was inserted on a Power Module, which although it has the same code number, has a different serial
number. The Control Unit executes an automatic warm restart to accept the new calibration data.
Remedy: For fault value = 0 and 20A hex:
Insert the Control Unit on an appropriate Power Module and continue operation. If required, carry out a POWER ON
of the Control Unit.
For fault value = 1 hex:
Carry out a POWER ON of the Control Unit.
The following table includes the decimal and hexadecimal notation of selected
ASCII characters.
Space 32 20 H 72 48
- 45 2D I 73 49
0 48 30 J 74 4A
1 49 31 K 75 4B
2 50 32 L 76 4C
3 51 33 M 77 4D
4 52 34 N 78 4E
5 53 35 O 79 4F
6 54 36 P 80 50
7 55 37 Q 81 51
8 56 38 R 82 52
9 57 39 S 83 53
A 65 41 T 84 54
B 66 42 U 85 55
C 67 43 V 86 56
D 68 44 W 87 57
E 69 45 X 88 58
F 70 46 Y 89 59
G 71 47 Z 90 5A
Abbreviation Meaning
A
AC Alternating Current
A/D Analog-Digital converter
ADR Address
AFM Additional Frequency Modulation
AG Programmable controller
AI Analog Input
AK Request identifier
AO Analog Output
AOP Advanced Operator Panel
AR Automatic Restart
ASIC Application-Specific Integrated Circuit
ASP Analog Setpoint
ASVM Asymmetric Space Vector Modulation
B
BCC Block Check Character
BCD Binary-Coded Decimal
BI Binector Input
BIA BG-Institute for Occupational Safety and Health
BICO Binector-Connector technology
BO Binector Output
BOP Basic Operator Panel
C
C Commissioning
CB Communication Board
CCW Counter-Clockwise
CDS Command Data Set
CI Connector Input
CM Configuration Management
CMD Command
CO Connector Output
CO/BO Connector Output / Binector Output
Abbreviation Meaning
COM Common contact on a changeover contact (terminal is connected to NO or NC)
CU Control Unit
CW Clockwise
D
D/A Digital-Analog converter
DC Direct Current
DDS Drive Data Set
DI Digital Input
DIP DIP switch
DO Digital Output
DP Distributed I/Os
DS Drive State
E
EEC European Economic Community
EEPROM Electrically Erasable Programmable Read-Only Memory
ELCB Earth Leakage Circuit Breaker
EMC Electromagnetic Compatibility
EMF Electromagnetic Force
ES Engineering System
ECD Equivalent Circuit Diagram
F
FAQ Frequently Asked Questions
FB Function Block
FCC Field Current Control
FCL Fast Current Limitation
FF Fixed Frequency
FFB Free Function Block
FLB Flat-top modulation
FOC Field-Oriented Control
FP Function diagram
FREQ Frequency
FSA Frame Size A
FSB Frame Size B
FSC Frame Size C
FSD Frame Size D
FSE Frame Size E
FSF Frame Size F
G
GSD Generic Station Description
GSG Getting Started Guide
GUI ID Global Unique Identifier
Abbreviation Meaning
H
HIW Main actual value
HMI Human Machine Interface
HO High Overload (constant torque)
HSW Main setpoint
HTL High-Level Transistor Logic
I
IASC Internal Armature Short-Circuit
IBN Commissioning
IGBT Insulated Gate Bipolar Transistor
I/O Input/Output
IOP Intelligent Operator Panel
J
JOG JOG
K
KIB Kinetic buffering
L
LCD Liquid Crystal Display
LED Light Emitting Diode
LGE Length
LO Light Overload (variable torque)
LSTO Latched Safe Torque Off
LWL Fiber-optic cable
M
MHB Motor Holding Brake
MLP Multi-Language Package
MOP Motorized Potentiometer
N
NC Normally Closed contact
NEMA National Electrical Manufacturers Association
NO Normally Open contact
O
OLM Optical Link Module
OLP Optical Link Plug
OP Operator Panel
OPI Operating Instructions
P
P1 CPU 1
P2 CPU 2
PID Proportional Integral Differential
PKE Parameter identifier
Abbreviation Meaning
PIV Parameter Identifier Value
PLC Programmable Logic Controller
PM Power Module
PM-IF Power Module Interface
PPO Parameter Process Data Object
PTC Positive Temperature Coefficient
PWE Parameter value
PWM Pulse-Width Modulation
pxxxx Writable parameters
PZD Process data
Q
QC Quick Commissioning
R
RAM Random Access Memory
RCCB Residual Current Circuit Breaker
RCD Residual Current Device
RFG Ramp-Function Generator
RFI Radio Frequency Interference
ROM Read-Only Memory
RPM Revolutions Per Minute
rxxxx Read-only parameters of analog signals
RZM Space vector modulation
S
SBC Safe Brake Control
SLS Safely-Limited Speed
SLVC Sensorless Vector Control
SOL Serial Option Link
SS1 Safe Stop 1
STO Safe Torque Off
STW Control word
STX Start of Text
SVM Space Vector Modulation
T
TTL Transistor-Transistor Logic
U
V/f Voltage/frequency
USS Universal serial interface
V
VC Vector Control
VT Variable Torque
Abbreviation Meaning
Z
ZSW Status word
ZUSW Additional setpoint
2512 6031
Control word 1 (r0054), 2-553 Pre-control balancing, acceleration mod-
2513 el, 2-576
Control word 2 (r0055), 2-554 6040
2522 Speed controller with/without encoder,
Status word, speed controller, 2-555 2-577
2526 6050
Status word, closed-loop control, 2-556 Kp_n/Tn_n adaptation, 2-578
2530 6060
Status word, current control, 2-557 Torque setpoint, 2-579
2534 6220
Status word, monitoring functions 1, Vdc_max controller and Vdc_min control-
2-558 ler (vector control, PM230/PM240),
2536 2-580
Status word, monitoring functions 2, 6300
2-559 V/f characteristic and voltage boost, 2-581
2537 6310
Status word, monitoring functions 3, Resonance damping and slip compensa-
2-560 tion (V/f), 2-582
2546 6320
Control word, faults/alarms, 2-561 Vdc_max controller and Vdc_min control-
2548 ler (PM230/PM240), (V/f), 2-583
Status word, faults/alarms 1 and 2, 2-562 6490
2634 Speed control configuration, 2-584
Sequence control - Missing enables, 6491
2-563 Flux controller configuration, 2-585
3001 6630
Overview of setpoint channel, 2-565 Upper/lower torque limit, 2-586
3010 6640
Fixed speed setpoints, binary selection Current/power/torque limits
(p1016 = 2), 2-566 , 2-587
3011 6710
Fixed speed setpoints, direct selection, Current setpoint filter, 2-588
2-567 6714
3020 Iq and Id controllers, 2-589
Motorized potentiometer, 2-568 6722
3030 Field weakening characteristic, Id setpoint
Main/supplementary setpoint, setpoint (ASM, p0300 = 1), 2-590
scaling, jogging, 2-569 6723
3040 Field weakening controller, flux controller
Direction limitation and direction reversal, (ASM, p0300 = 1), 2-591
2-570 6730
3050 Interface to the Power Module
Skip frequency bands and speed limita- (ASM, p0300 = 1), 2-592
tions, 2-571 6799
3070 Display signals, 2-593
Extended ramp-function generator, 2-572 7017
3080 DC braking (p0300 = 1), 2-595
Ramp-function generator selection, -sta- 7030
tus word, -tracking, 2-573 Free technology controller 0, 1, 2, 2-596
6030 7032
Speed setpoint, droop, 2-575 Multi-zone control, 2-597
7033 7262
Essential service mode (ESM), 2-598 PT1 (smoothing element), 2-620
7035 7264
Bypass, 2-599 INT (integrator),
7036 DIF (derivative-action element), 2-621
Cascade control, 2-600 7270
7038 LVM (double-sided limit monitor with hys-
Energy-saving mode, 2-601 teresis), 2-622
7200 7950
Sampling times of the runtime groups, Fixed value selection binary (p2216 = 2),
2-603 2-624
7210 7951
AND (AND function blocks with 4 inputs), Fixed value selection direct (p2216 = 1),
2-604 2-625
7212 7954
OR (OR function blocks with 4 inputs), Motorized potentiometer, 2-626
2-605 7958
7214 Closed-loop control, 2-627
XOR (XOR function blocks with 4 inputs), 8005
2-606 Overview, signals and monitoring func-
7216 tions, 2-629
NOT (inverter), 2-607 8010
7220 Speed signals 1, 2-630
ADD (adder with 4 inputs), 8011
SUB (subtracter), 2-608 Speed signals 2, 2-631
7222 8012
MUL (multiplier), Torque signals, motor locked/stalled,
DIV (divider), 2-609 2-632
7224 8013
AVA (absolute value generator), 2-610 Load monitoring, 2-633
7225 8014
NCM (numeric comparator), 2-611 Thermal monitoring, power unit, 2-634
7226 8016
PLI (polyline scaling), 2-612 Thermal monitoring, motor, 2-635
7230 8017
MFP (pulse generator), Thermal motor models, 2-636
PCL (pulse contractor), 2-613 8020
7232 Monitoring functions 1, 2-637
PDE (ON delay), 2-614 8050
7233 Overview of Faults and Alarms, 2-639
PDF (OFF delay), 2-615 8060
7234 Fault buffer, 2-640
PST (pulse stretcher), 2-616 8065
7240 Alarm buffer, 2-641
RSR (RS flip-flop), 8070
DFR (D flip-flop), 2-617 Fault/alarm trigger word (r2129), 2-642
7250 8075
BSW (binary change-over switch), Fault/alarm configuration, 2-643
NSW (numeric change-over switch), 8550
2-618 Data set overview, 2-645
7260 8560
LIM (limiter), 2-619 Command data sets
(CDS), 2-646
Function diagrams, signals and monitoring Vdc_max controller and Vdc_min control-
functions ler, 2-580
Load monitoring, 2-633 Vdc_max controller and Vdc_min control-
Monitoring functions 1, 2-637 ler (PM230/PM240), (V/f), 2-583
Overview, 2-629 Fxxxx, 3-654
Speed signals 1, 2-630
Speed signals 2, 2-631 G
Thermal monitoring, motor, 2-635 General
Thermal monitoring, power unit, 2-634 about parameters, 1-8
Thermal motor models, 2-636 on faults and alarms, 3-650
Torque signals, motor locked/stalled, on function diagrams, 2-497
2-632
Function diagrams, technology controller I
Closed-loop control, 2-627 IASC, 3-652
Fixed value selection binary (p2216 = 2), Index
2-624 Parameter, 1-9
Fixed value selection direct (p2216 = 1), Index (parameters), 1-17
2-625 Input/output terminals, 2-506
Motorized potentiometer, 2-626 Analog input 2 (AI 2), 2-510
Function diagrams, technology functions Analog inputs, 2-506
Bypass, 2-599 Analog inputs 0 ... 1 (AI 0 ... AI 1), 2-509
Cascade control, 2-600 Analog outputs 0 ... 1 (AO 0 ... AO 1),
DC braking (p0300 = 1), 2-595 2-512
Energy-saving mode, 2-601 Digital inputs, 2-506
Essential service mode (ESM), 2-598 Temperature evaluation LG-
Free technology controller 0, 1, 2, 2-596 Ni1000/PT1000 (AI3), 2-513
Multi-zone control, 2-597 Internal control words, 2-546
Function diagrams, vector control Internal control/status words, 2-546
Current setpoint filter, 2-588
J
Current/power/torque limits
Jogging, 2-564, 2-569
, 2-587
Display signals, 2-593 L
Field weakening characteristic, Id setpoint Linked parameter, 1-9
(ASM, p0300 = 1), 2-590 List
Field weakening controller, flux controller Abbreviations, B-725
(ASM, p0300 = 1), 2-591 ASCII table, A-724
Flux controller configuration, 2-585 Binector inputs (BI parameters), 1-475
Interface to the Power Module Binector outputs (BO parameters), 1-480
(ASM, p0300 = 1), 2-592 Command data sets, 1-466
Iq and Id controllers, 2-589 Connector inputs (CI parameters), 1-478
Kp_n/Tn_n adaptation, 2-578 Connector outputs (CO parameters),
Pre-control balancing, acceleration mod- 1-482
el, 2-576 Connector/binector outputs (CO/BO pa-
Resonance damping and slip compensa- rameters), 1-486
tion (V/f), 2-582 Drive data sets, 1-468
Speed control configuration, 2-584 Fault and alarm messages, 3-659
Speed controller with/without encoder, Message ranges, 3-659
2-577 Motor data sets, 1-473
Speed setpoint, droop, 2-575 Parameter ranges, 1-19
Torque setpoint, 2-579 Parameters for quick commissioning,
Upper/lower torque limit, 2-586 1-489
V/f characteristic and voltage boost, 2-581 Parameters for write protection and know-
how protection, 1-487
T V
Technology controller, 2-623 Values (parameter), 1-17
Technology functions, 2-594 Vector control
Telegrams, 2-514, 2-517 Current setpoint filter, 2-588
Temperature evaluation, 2-506 Droop, 2-575
Thermal monitoring, 2-628 Iq and Id controllers, 2-589
Torque signals, 2-628 Kp_n/Tn_n adaptation, 2-578
Triggering when messages are issued Speed control configuration, 2-584
(r2129), 2-638 Speed controller with/without encoder,
2-577
U Table of contents, 2-574
Unit (parameter), 1-15 Torque setpoint, 2-579
US, 2-518