该页无缩略图
3) Pressure setting
In the G0 zone, press the [sT button on the S page to enter the setting page, After adjusting the required pressure using button, press the SE button to confirm.
4) Enter the St zone
In the G0 zone P page, press and hold ESF and for 3 seconds at the same time. In the ST parameter group, press again for 3 seconds at ST-01 to exit the St zone.
5) Lock screen function
In the G0 zone P page, press and hold EE and for 3 seconds at the same time. The "Manual" light flashes for 2 seconds, indicating that the setting is successful. After the "Lock Screen" function is turned on, only some operations can be performed (setting pressure, frequency setting in manual mode, starting and stopping, checking the status of G0 zone), and it is impossible to enter G2\~G7 zoneea. When the operation enters the secondary menu, "Alarm 1" flashes for 1 second as a reminder. The unlocking steps are the same as locking. After successful unlocking, the "Manual" light flashes.
5.2.4 Basic parameters setting
| Display | Name | Setting range |
| G0-01 | Measuring pressure | 0.0 ~ 45.0 bar / 0.00 ~ 4.50 Mpa |
| G0-02 | Pressure setting | 0.0 ~ 45.0 bar / 0.00 ~ 4.50 Mpa |
| G0-03 | Output Hz | 0 ~480 hz |
| G0-04 | Output Power | 0.0~ 100.0 kW |
| G0-05 | DC Voltage | 0~1000 V |
| G0-06 | Output Current | 0.0~ 100.0 A |
| G0-07 | Inlet pressure | -5.0~ 45.0 bar / -0.50~ 4.50 Mpa |
| G0-08 | Inlet water level | 0.0 ~ 5.0 m |
6. Function Table and Description
6.1 Status List
| Para-meter | Display | Name | Modifyor not | Linkor not | Remark |
| P | Actual pressure | X | O | The outlet pressure sensor with small ID number is mainly.The outlet pressure sensor with a higher ID number is auxiliary. | |
| S | 5 | Pressure setting | 0 | 0 | Can be set on any device. |
| H | Output Hz | △ | X | In automatic mode, you can only view but not modify.In manual mode, it becomes settable (target frequency). | |
| 0 | 6 | Output power | X | X | Output power of the inverter. |
| U | 0 | DC voltage | X | X | 一 |
| A | 8 | Output current | X | X | = |
| I | Inlet pressure | X | O | Displayed when there is no selection in the system: ---- | |
| L | 8 | Inlet water level | X | O | Displayed when there is no selection in the system: ---- |
| Note: If “inlet water pressure” and “inlet water level” are not defined in the system, they can be hidden. | |||||
| Display | Name | Setting range | Factoryvalue | Parameterlinkage | Changeduringrunning | Description |
| G2-01 | Control mode | 0~1 | 1 | O | X | 0:Manual 1：Automatic |
| G2-02 | Operation mode | 0~1 | 0 | O | X | 0: Normal operation1: Average distribution operation |
| G2-03 | Switch mode | 0~2 | 0 | O | × | 0: ID sequence 1: Accumulatedpower 2: Accumulated time |
| G2-04 | Pump adding delay | 0~600 sec | 15 | O | × | Auxiliary water pump filling waitingtime |
| G2-05 | Energy-saving frequency | 1~100% | 50 | O | X | Conditions for entering energysaving mode |
| G2-06 | Energy-saving current | 1~100% | 100 | O | X | Conditions for entering energysaving mode |
| G2-07 | Energy-saving delay | 0~600 sec | 30 | O | O | Time to enter energy saving mode |
| G2-08 | Pressure deviationvalue set | 0.0 ~3.0 bar0.00 ~0.30 Mpa | 0.3bar0.03Mpa | O | O | Pressure deviation value at startup |
| G2-09 | Start frequencypercentage | 0~80% | 50% | O | X | Minimum output frequency at startup |
| G2-10 | Minimum frequencypercentage | 0~70% | 40% | O | × | Minimum output frequency atshutdown |
| G2-11 | P | 0.0~100.0 | 2.0 | O | O | PID proportional constant |
| G2-12 | I | 0.0~100.0 | 1.0 | O | O | PID integral constant |
| G2-13 | D | 0.0~100.0 | 0.0 | O | O | PID differential constant |
| G2-14 | Forced alternating timing | 0~36 H | 24 | O | O | 0:Not used 1~36 H forced alternatingoperation time |
| G2-15 | Main pump switching toauxiliary pump percentage | 1~100% | 60% | O | O | Conditional frequency when alternatingfrom main pump to auxiliary pump |
| G2-16 | Main pump switchingto auxiliary pump delay | 0~600 sec | 10 | O | O | Conditional time when alternating frommain pump to auxiliary pump |
| G2-17 | Number of runningunits limit | 1 ~6 units | 6 | O | X | Number of water pumps that can beput into use |
| G2-18 | Alarm recovery times | 0 ~ 100 times | 3 | O | X | Number of resets after alarm |
| G2-19 | Alarm recovery delay | 0~600 sec | 5 | O | × | Waiting time for reset after alarm |
| G2-20 | Forced alternatingmode | 0: Duration1: Time | 0 | O | X | Forced alternation function atscheduled time |
| G2-21 | Forced alternatingtime | 00:00~23:59 | 02:00 | O | X | Setting function at scheduled time |
6.2.1 Pump control area function description
1：Control mode
Set the pump control mode.
| Value setting | Parameter name | Related parameters | ||
| 0 | Manual | G0-03 | Output Hz | Target frequency input |
| G4-03 | Frequency input method | Target frequency input method setting | ||
| 1 | Automatic(Factory value) | G4-01 | Communication ID | Set communication ID |
| G5-01 | Outlet sensor mode | Configure outlet sensor | ||
| G5-02 | Outlet sensor minimum value | |||
| G5-03 | Outlet sensor maximum value | |||
| G5-04 | Outlet sensor correction value | |||
2: Operation Mode
To further improve the energy saving effect function.Normal operation is to use one driver as the main controller and only one pump in PID control variable frequency mode. The average distribution operation mode is an operation mode in which all linked pumps distribute the total output rate to all linked pumps according to the PID control method. The average distribution mode operation function can only be used when the diameters of the system pipes are the same, and it has the advantage of preventing the main driver from running continuously for a long time.
| Value setting | Parameter name |
| 0 | Normal operation |
| 1 | Average distribution operation |
3: Mode Switching
Pump changing sequence in linkage operation.
| Value setting | Parameter name | Association parameter |
| 0 | ID sequence | G2-14: Forced standby timingIf the forced alternation time is set to 0,the pump changing mode will be invalid. |
| 1 | Accumulated power | |
| 2 | Accumulated time |
4: Pump Adding Delay
Specially refers to the function of delaying the adding of pumps when the standby pump is in linkage operation. It is a preventive measure to prevent the high pressure event caused by the operation pressure lag and the standby pump operate when a pump reaches the maximum output frequency
| Value setting | Setting range |
| 15 (Factory value) | 0 ~ 600 sec |
5:Energy-saving frequency
· Sensing low flow. If the output frequency% is lower than the energy-saving frequency%, it is considered a low flow state.
• Example: After the operating pressure reaches the set pressure, the output frequency is lower than the energy-saving frequency% and is considered a low flow
| Value setting | Setting range |
| 50 (Factory value) | 1~100% |
6: Energy-saving current
· Sensing low flow, if the output current is lower than the energy-saving current, it is considered a low flow state.
· Example: After the operating pressure reaches the set pressure, the output current is lower than the energy-saving current, which is considered a low flow.
| Value setting | Setting range |
| 100 (Factory value) | 1~100% |
7:Energy-saving delay
· Delay deceleration and shutdown conditions which are met energy-saving frequency/energy-saving power.
| Value setting | Setting range |
| 30 (Factory value) | 0 ~ 600 sec |
8: Set pressure deviation value
· Current Pressure< pressure setting value-The pump starts running when the pressure deviation value is set.
· Current Pressure≥pressure setting value-The pump starts to stop at the set pressure deviation value.
| Value setting | Setting range |
| 0.3 (Factory value) | 0~3.0 |
9: Startup frequency percentage
• The initial output frequency of the driver when it starts.
Note: The startup output frequency must be greater than the minimum output frequency.
| Value setting | Setting range |
| 50%(Factory value) | 0~80% |
10： Minimum frequency percentage
• The minimum output frequency of the drive when it stops.
Note: The minimum output frequency must be less than the start output frequency.
| Value setting | Setting range |
| 40%(Factory value) | 0~70% |
11：P
• The P' value in PID is the proportional constant.
| Value setting | Setting range |
| 2.0 (Factory value) | 0~100.0 |
12：1
· The 'I' value in PID is the integral constant.
| Value setting | Setting range |
| 1.0 (Factory value) | 0~100.0 |
13：D
• The 'D' value in PID is the differential constant.
| Value setting | Setting range |
| 0.0 (Factory value) | 0~100.0 |
14:Forced alternating timing
• When forced alternating timing is set, the pump will switch to another mode after the time is reached.
| Value setting | Setting range |
| 24 (Factory value) | 0:Not used 1~36 H |
15: Main pump switching to auxiliary pump percentage
• Specially set the main pump switching to auxiliary pump conditions for energy-saving operation.
| Value setting | Setting range |
| 60 (Factory value) | 1~100% |
16: Main pump switching to auxiliary pump delay
· Specially set the main pump switching to auxiliary pump delay for energy-saving operation.
| Value setting | Setting range |
| 10(Factory value) | 0 ~ 600 sec |
17: Limit on the number of units that can be run
• Set a limit on the number of units that can be run in automatic operation.
• The system will determine the maximum number of units that can be run based on the set value during operation.
| Value setting | Setting range |
| 6(Factory value) | 1 ~6 units |
18: Alarm recovery times
• The number of times the machine can automatically restart after an alarm shutdown.
• When the alarm times exceed the restart times setting value, the system will not be able to automatically restart when the alarm occurs again.
| Value setting | Setting range |
| 3 (Factory value) | 0 ~ 100 times |
19：Alarm recovery times
• Fault reset based on alarm recovery delay after alarm.
| Value setting | Setting range |
| 5(Factory value) | 0 ~ 600 sec |
20: Forced alternation mode
· Forced alternation is realized according to the set time (hour/minute) or according to the duration (timing).
| Value setting | Setting range |
| 0(Factory value) | 0: Duration 1: Time |
21:Forced alternation time
• Forced alternation is realized according to the set time (hour/minute).
| Value setting | Setting range |
| 02:00(Factory value) | 00:00~23:59 |
6.3 Parameter protection area
| Display | Name | Setting range | Factory value | Parameterlinkage | Changeduringrunning |
| G3-01 | Outlet high pressure alarm deviation value | 0.5~ 3.0 bar 0.50 ~ 0.30 Mpa | 2.0bar 0.2Mpa | O | O |
| G3-02 | Outlet high pressure alarm delay | 0 ~600 sec | 5 | O | O |
| G3-03 | Outlet ultra-high pressure alarm absolutevalue | 0.0~ 45.0 bar0.00 ~4.50 Mpa | 16.0bar 1.60Mpa | O | X |
| G3-04 | Outlet low pressure alarm value | 0~25.0 bar 0~2.50 Mpa | 0.5bar 0.05Mpa | O | O |
| G3-05 | Outlet low pressure judgment number | 1~6 units | 1 | O | O |
| G3-06 | Outlet low pressure alarm delay | 0~600 sec | 20 | O | O |
| G3-07 | Low water level probe detection | 0: Not used 1: Used | 0 | X | X |
| G3-08 | Low water level probe delay | 0~600 sec | 3 | O | X |
| G3-09 | Inlet low pressure alarm value | Inlet sensor minimum to maximum value | 0.3bar 0.03Mpa | O | X |
| G3-10 | Inlet low pressure alarm delay | 0~600 sec | 5 | O | X |
| G3-11 | Inlet low pressure alarmrecovery deviation value | 0 to maximum value of inlet sensor | 0.3bar 0.03Mpa | O | × |
| G3-12 | Inlet high pressure alarm value | Inlet sensor minimum to maximum value | 16.0bar 1.60Mpa | O | X |
| G3-13 | Inlet high pressure alarm delay | 0~600 sec | 5 | O | X |
| G3-14 | Inlet low water level alarm value | Inlet sensor minimum to maximum value | 0.6 | O | X |
| G3-15 | Inlet low water level alarm delay | 0~600 sec | 5 | O | X |
| G3-16 | Inlet low water level alarmrecovery deviation value | Inlet sensor minimum to maximum value | 0.6 | O | X |
| G3-17 | Inlet high water level alarm value | Inlet sensor minimum to maximum value | 5.0 | O | X |
| G3-18 | Inlet high water level alarm delay | 0~600 sec | 5 | O | X |
| G3-19 | Outlet pressure sensor diagnosis | 0:Not used 1:Used | 0 | O | X |
| G3-20 | Pressure setting limit | 0 to maximum value of inlet sensor | 16.0bar 1.60Mpa | O | O |
| G3-21Patrol | function | 0:Not used 1: Used | 0 | O | X |
| G3-22 | Patrol start time | 1~9999 H | 120 H | O | X |
| G3-23Patrol | number | 1~20 times | 1 times | O | X |
| G3-24 | Antifreeze function | 0:Not used 1:Used | 0 | O | X |
| G3-25 | Antifreeze frequency percentage | 10~25 % | 25% | O | × |
| G3-26 | Antifreeze ambient temperaturesetting | -5~40℃ | 1℃ | O | X |
6.3.1 Function description of parameter protection area
1: Outlet high pressure alarm deviation value
• Set the high pressure alarm function.
Note: If the outlet high pressure alarm deviation value is set to 2, the high pressure alarm value will automatically change according to the set pressure value + 2bar.
| Value setting | Setting range |
| 2(Factory value) | 0.5~3.0 |
2: Outlet high pressure alarm delay
• When the high pressure alarm value is reached and the high pressure is maintained for more than the set time, the high pressure alarm will be issued and the machine will be shut down.
| Value setting | Setting range |
| 5(Factory value) | 0 ~ 600 sec |
3: Outlet ultra-high pressure alarm absolute value
· When the operating pressure reaches the outlet ultra-high pressure alarm absolute value, the alarm is triggered.
Note: The alarm cannot be automatically reset.
| Value setting | Setting range |
| 16 (Factory value) | 0.0 ~45.0 bar |
4: Outlet low pressure alarm value
• Outlet low pressure alarm target value setting, also called explosion-proof pipe protection.
| Value setting | Setting range |
| 0.5 (Factory value) | 0 ~ 25.0 bar |
5: Number of outlet low pressure judgment units
• Number of outlet low pressure alarm judgment units.
| Value setting | Setting range |
| 1 (Factory value) | 1~6 |
6: Outlet low pressure alarm delay
• Outlet low pressure alarm alarm delay.
| Value setting | Setting range |
| 20(Factory value) | 0 ~ 600 sec |
7: Low water level probe detection
· The low water level sensor will determine whether there is water in the pipe according to whether it is on or off.
| Value setting | Setting range |
| 0(Factory value) | 0: Not used 1: Used |
8: Low water level probe delay
• Low water level alarm signal maintenance time setting
| Value setting | Setting range |
| 3 (Factory value) | 0 ~ 600 sec |
9: Inlet low pressure alarm value
· The target pressure value that needs to be set when the inlet pressure sensor judges the low pressure alarm.
Note: The inlet low pressure alarm value cannot be higher than the inlet high pressure alarm value.
| Value setting | Setting range |
| 0.3 (Factory value) | Inlet sensor minimum to maximum value |
10: Inlet low pressure alarm delay
· When the inlet pressure sensor judges the low pressure alarm, the alarm signal maintain time setting
| Value setting | Setting range |
| 5(Factory value) | 0 ~ 600 sec |
11: Inlet low pressure alarm recovery deviation value
· When the inlet pressure sensor alarms low pressure, restore the judgment setting.
Example: Actual inlet pressure >inlet low pressure alarm value + inlet low pressure alarm recovery deviation value.
| Value setting | Setting range |
| 0.3 (Factory value) | 0 ～ Maximum value of inlet sensor |
12: Inlet high pressure alarm value
· The target pressure value to be set when the inlet pressure sensor judges the high pressure alarm.
Note: The inlet high pressure alarm value cannot be lower than the inlet low pressure alarm value.
| Value setting | Setting range |
| 16 (Factory value) | Inlet sensor minimum to maximum value |
13: Inlet high pressure alarm delay
· When the inlet pressure sensor judges the high pressure alarm, the alarm signal maintenance time setting.
| Value setting | Setting range |
| 5(Factory value) | 0 ~ 600 sec |
14: Inlet low water level alarm value
· The target water level value to be set when the inlet water level sensor judges the low water level alarm.
Note: The inlet low water level alarm value cannot be higher than the inlet high water level alarm value.
| Value setting | Setting range |
| 0.6 (Factory value) | Inlet sensor minimum to maximum value |
15: Inlet low water level alarm delay
· When the inlet water level sensor judges the low water level alarm, the alarm signal maintenance time setting.
| Value setting | Setting range |
| 5(Factory value) | 0 ~ 600 sec |
16: inlet low water level alarm recovery deviation value
· When the inlet water level sensor alarms low water level, restore the judgment setting.
Example: Actual inlet water level > inlet low water level alarm value +inlet low water level alarm recovery deviation value.
| Value setting | Setting range |
| 0.6 (Factory value) | 0 ～Maximum value of inlet sensor |
17: Inlet high water level alarm value
· The target water level value to be set when the inlet water level sensor judges the high water level alarm.
Note: The inlet high water level alarm value cannot be lower than the inlet low water level alarm value.
| Value setting | Setting range |
| 0.3 (Factory value) | Inlet sensor minimum to maximum value |
18: Inlet high water level alarm delay
· When the inlet water level sensor judges the high water level alarm, the alarm signal maintenance time setting.
| Value setting | Setting range |
| 5 (Factory value) | 0 ~ 600 sec |
19: Outlet Pressure Sensor Diagnostics
• Set the outlet pressure sensor diagnostic alarm settings.
| Value setting | Setting range |
| 0(Factory value) | 0: Not used 1: Used |
20：Pressure setting limits
· The set pressure range that can be set.
| Value setting | Setting range |
| 16 (Factory value) | 0 ～ Maximum value of outlet sensor |
21：Inspection function
• A protective function to prevent the pump from malfunctioning due to long-term non-operation.
| Value setting | Setting range |
| 0(Factory value) | 0: Not used 1: Used |
22:Inspection start time
· To prevent the pump from malfunctioning due to long-term non-operation, set the start time.
| Value setting | Setting range |
| 120(Factory value) | 1~9999 H |
23：Inspection times
• To prevent the pump from malfunctioning due to long-term non-operation, set the start times.
| Value setting | Setting range |
| 1 (Factory value) | 1 ~ 20 times |
24:Antifreeze function
· To prevent the water pump from freezing due to low ambient temperature.
| Value setting | Setting range |
| 0(Factory value) | 1: Used |
25: Antifreeze frequency percentage
· Set the operating frequency percentage when the inspection/antifreeze function is activated.
| Value setting | Setting range |
| 25%(Factory value) | 10~25 % |
26: Antifreeze environment temperature setting
• Set the starting temperature of the antifreeze function.
| Value setting | Setting range |
| 1 (Factory value) | -5~40℃ |
| Display | Name | Setting range | Factory value | Parameterlinkage | Changeduringrunning |
| G4-01 | CAN communication ID | 0~6 | 0 | X | X |
| G4-02 | Start and stop mode | 0: Operation panel/RS485 communication1: Di terminal | 0 | O | X |
| G4-03 | Frequency input mode | 0: Operation panel/RS485 communication1: Analog | 0 | X | X |
| G4-04 | Motor rated power | 0:0.55 kW 7: 5.5 kW1：0.75 kW 8:7.5 kW2: 1.1 kW 9:11 kW3:1.5 kW 10：15 kW4: 2.2 kW 11：18.5 kW5: 3.0 kW 12:22 kW6: 4.0 kW | 5 | X | X |
| G4-05 | Motor pole number | 2 pole 4pole 6pole 8 pole 12 pole16pole | 2 pole | X | × |
| G4-06 | Motor rated current | 0.0 ~99.9 A | 14.5A | X | × |
| G4-07 | Motor rated speed | 0 ~ 9999 rpm | 2900 rpm | X | X |
| G4-08 | Motor rated voltage | 200 ~500 V | 380 V | X | X |
| G4-09 | Motor rated frequency | 0：50hz 6：200hz1：60hz 7：240hz2：100hz 8：300hz3：120hz 9：360hz4：150hz 10：400hz5：180hz 11：480hz | 0 | X | X |
| G4-10 | Motor rotation direction | 0: Counterclockwise 1: Clockwise | 0 | X | × |
| G4-11 | Motor shutdown andstandby | 0: Free stop 1: Integral stop | 1 | X | X |
| G4-12 | Acceleration time | 0 ~ 600 sec | 10 sec | X | X |
| G4-13 | Deceleration time | 0 ~ 600 sec | 10 sec | X | X |
| G4-14 | Water pump type | 1: Main pump 2: Auxiliary pump | 1 | X | X |
| G4-15 | Motor overcurrent alarmvalue | 50~200% | 110% | X | X |
| G4-16 | Motor overcurrent alarmdelay | 0 ~200 sec | 60 sec | X | X |
| G4-17 | Torque bias | 2~10% | 2% | X | X |
| G4-18 | Maximum operatingfrequency percentage | 1~100% | 100% | O | X |
| G4-19 | Switching frequency | 5 kHz 10 kHz 12 kHz14 kHz 16 kHz | 5 kHz | X | X |
| G4-20 | Fan rotation mode | 0: Start when power is on1: Output frequency starts2: Start when temperature is abnormal | 2 | X | X |
| G4-21 | Heat sink temperature | -10~200℃ | 0 | X | X |
| G4-22 | IGBT temperature | -10 ~200℃ | 0 | × | × |
6.4.1 Function description of drive parameter area
1: CAN communication ID
• CAN communication ID during linkage operation.
• When setting, please avoid the same ID, CAN communication ID during linkage operation.
| Value setting | Setting range |
| 0(Factory value) | 0: Single mode 1-6: Online mode |
2: Start and stop mode
• Run/stop via the drive keyboard.
· When the DI terminal is selected, the operation command is executed according to the external input.
| Value setting | Setting range |
| 0(Factory value) | 0: Operation panel/RS485 communication 1: DI terminal |
3: Frequency input method
• Used in manual mode.
· Control the frequency of the inverter by selecting the input method.
| Value setting | Setting range |
| 0(Factory value) | 1: Analog 0: Operation panel/RS485 communication |
4: Motor rated power
· Set motor capacity
• This value is set when the pump leaves the factory.
• Confirm the motor capacity set by the current pump controller.
| Value setting | Setting range | ||||
| 5(Factory value) | 0:0.55kW1:0.75kW 7:5.5kW 8:7.5kW 9:11kW | 2:1.1kW 3:1.5 kW 10:15kW | 4:2.2kW 11:18.5kW 12:22kW | 5:3.0kW 6:4.0kW | |
5: Motor pole number
Note: Set according to the motor nameplate.
| Value setting | Setting range |
| 2 pole (Factory value) | 4pole 6pole 8pole |
6: Motor rated current
Note: Set according to the motor nameplate.
| Value setting | Setting range |
| 14.5 (Factory value) | 0.0 ~ 99.9 A |
7: Motor rated speed
Note: Set according to the motor nameplate.
| Value setting | Setting range |
| 2900 (Factory value) | 0 ～ 9999 rpm |
8: Motor rated voltage
Note: Set according to the motor nameplate.
| Value setting | Setting range |
| 380 (Factory value) | 200 ~ 500 V |
9: Motor rated frequency
Note: Set according to the motor nameplate
| Value setting | Setting range | |||||
| 0(Factory value) | 0:50hz | 1:60hz 2:100hz | 3:120hz | 4:150hz | 5:180hz | |
| 6:200hz | 7:240hz | 8:300hz | 9:360hz | 10:400hz | 11:480hz | |
10: Motor rotation direction
· Water pump rotation direction setting.
• In order for the water pump to operate normally, please confirm the direction before use.
| Value setting | Setting range |
| 0(Factory value) | 0: Counterclockwise 1: Clockwise |
11： Motor stop standby method
• Motor stop method setting.
| Value setting | Setting range |
| 0(Factory value) | 0: Free stop 1: Integral stop |
12：Acceleration time
· Specially refers to the time required to increase the output frequency from 0[Hz] to the maximum.
• When the acceleration time is set too short, the motor is prone to overcurrent.
| Value setting | Setting range |
| 10 (Factory value) | 0 ~ 600 sec |
13：Deceleration time
· Specially refers to the time required from the maximum output frequency to 0[Hz].
• If the deceleration time is set too short, the motor is prone to overvoltage.
| Value setting | Setting range |
| 10 (Factory value) | 0 ~ 600 sec |
14:Pump type
· Main pump and auxiliary pump. When setting the auxiliary pump, the system will default to operating according to the auxiliary pump priority
Note: A maximum of 2 auxiliary pumps can be set in the system.
| Value setting | Setting range |
| 1 (Factory value) | 1: Main pump 2: Auxiliary pump |
15: Motor overcurrent alarm value
· This function is set to protect the motor.
• When the output current is greater than 110% of the motor rated current, an alarm will occur.
| Value setting | Setting range |
| 110 (Factory value) | 50 ~200 % |
16: Motor overcurrent alarm time value
• Set the motor rated current overload level time function.
| Value setting | Setting range |
| 60 (Factory value) | 0 ~ 200 sec |
17: Torque bias
· The amount of torque used for the initial operation of the controller.
· When the load is running and the starting torque is insufficient, increasing this value can increase the torque.
| Value setting | Setting range |
| 2 (Factory value) | 2% 4% 6% |
18: Maximum operating frequency percentage
• The maximum frequency that can limit the drive operation.
Note: Do not exceed the rated frequency of the motor.
| Value setting | Setting range |
| 100%(Factory value) | 1~100 % |
19：Switching frequency
· When the interference or ambient temperature is high, the frequency needs to be reduced.
• As the switching frequency decreases, the motor noise increases, but the interference or motor leakage current decreases.
| Value setting | Setting range |
| 5(Factory value) | 12 kHz 14 kHz 16 kHz |
20: Fan rotation mode
• Setting the operation mode of the cooling fan.
| Value setting | Setting range |
| 2(Factory value) | 0: Start when power is on 1: Output frequency starts 2: Start when temperature is abnormal |
21:Heat sink temperature
• Displays the current heat sink temperature.
22:IGBT temperature
· Displays the current IGBT temperature.
6.5 Signal parameter area
| Display | Name | Setting range | Factory value | Parameterlinkage | Changeduringrunning |
| G5-01 | Outlet sensor mode | 0: Not used1: Outlet pressure sensor | 0 | X | X |
| G5-02 | Outlet sensor minimumvalue | 0 | 0 | X | X |
| G5-03 | Outlet sensor maximumvalue | 0 ~ 45.0 bar 0 ~4.50 Mpa | 16.0 bar 1.60 Mpa | O | X |
| G5-04 | Outlet sensor correctionvalue | -2.0~2.0 -0.20~0.20 | 0 bar 0 Mpa | O | X |
| G5-05 | Pressure unit selection | 0: bar 1:Mpa | 0 | X | X |
| G5-06 | Inlet sensor mode | 0: Not used1: Inlet pressure sensor2: Inlet water level sensor | 0 | X | X |
| G5-07 | Inlet sensor minimumvalue | -5.0 ~ 45.0 bar-0.5~ 4.50 Mpa0.0 ~5.0 m | 0 bar0 Mpa0 m | X | X |
| G5-08 | Inlet sensor maximumvalue | -5.0 ~ 45.0 bar-0.5 ~ 4.50 Mpa0.0 ~ 5.0 m | 16 bar1.6 Mpa5.0 m | X | X |
| G5-09 | Inlet sensor correctionvalue | -2.0~2.0-0.20~0.20-1.0~1.0 m | 0 bar0 Mpa0 m | X | X |
| G5-10 | Analog input mode | 0: Current input 1: Voltage input | 0 | X | X |
| G5-11 | Analog input minimumvalue | 0~Motor rated frequency | 0 | X | X |
| G5-12 | Analog input maximumvalue | 0~Motor rated frequency | 50 | X | X |
| G5-13 | Minimum input analogvalue | 0.00~8.00mA 0.00~4.00V | 4.00mA 0.00V | X | X |
| G5-14 | Minimum input analogvalue | 16.00~24.00mA 6.00~14.00V | 20.00mA 10.00V | X | X |
1: Exit sensor mode
• Activate whether to use the exit sensor.
Note: At least 1 exit sensor needs to be configured in the system.
| Value setting | |
| 0(Factory value) | 1:Outlet pressure sensor |
2: Outlet sensor minimum value
• The lowest value of the outlet sensor signal.
| Value setting | Setting range |
| 0(Factory value) | 0 |
3: Maximum value of outlet sensor
· Enter the maximum pressure value that the pressure sensor can measure.
· To ensure that the pump can operate normally, please correctly enter the sensor related parameters.
Note: The maximum value of the outlet sensor cannot be less than the minimum value of the outlet sensor.
| Value setting | Setting range |
| 16 (Factory value) | 0~ 45.0 bar 0 ～ 4.50 Mpa |
4: Maximum value of outlet sensor
• Correct the error between the pressure gauge and the sensor installed on the pipeline.
| Value setting | Setting range |
| 0(Factory value) | -2.0 ~ 2.0 -0.20 ~ 0.20 |
5: Pressure unit selection
• The pressure unit of the outlet sensor can be set.
| Value setting | Setting range |
| 0(Factory value) | 0: bar 1:Mpa |
6: Inlet sensor mode
• Inlet sensor properties can be set.
| Value setting | Setting range |
| 0(Factory value) | 0:Not used 1: Inlet pressure sensor 2: Inlet water level sensor |
7: Inlet sensor minimum value
• The minimum value of the inlet sensor can be set.
· To ensure that the pump can operate normally, please enter the sensor related parameters correctly
Note: The inlet sensor minimum value cannot be greater than the inlet sensor maximum value.
| Value setting | Setting range |
| 16 (Factory value) | -5.0 ~ 45.0 bar -0.5 ~ 4.50 Mpa 0.0 ~ 5.0 m |
8: Inlet sensor maximum value
• The maximum value of the inlet sensor can be set.
· To ensure the normal operation of the pump, please correctly enter the sensor related parameters.
Note: The inletsensor maximum value cannot be less than the inlet sensor minimum value.
| Value setting | Setting range |
| 16 (Factory value) | -5.0 ~ 45.0 bar -0.5 ~ 4.50 Mpa 0.0 ~ 5.0 m |
9: Inlet sensor calibration value
· Correct the error between the pressure gauge and the sensor installed on the pipeline.
| Value setting | Setting range |
| 0(Factory value) | -0.20~ 0.20 -1.0 ~ 1.0 m |
10： Analog input mode
• In manual mode and when the frequency input method is "analog", the output frequency can be set according to the external input current or voltage.
| Value setting | Setting range |
| 0(Factory value) | 0: Current input |
11: Analog input minimum value
· The minimum frequency corresponding to the current or voltage value.
| Value setting | Setting range |
| 0(Factory value) | 0~Motor rated frequency |
12: Maximum analog input value
· The maximum frequency corresponding to the current or voltage value.
| Value setting | Setting range |
| 0(Factory value) | 0~Motor rated frequency |
13: Minimum input analog value
• Set the minimum value of external input.
| Value setting | Setting range |
| 4.00mA 0.00V | 0.00 ~ 8.00 mA 0.00~4.00V |
14: Maximum input analog value
• Set the maximum value of external input.
| Value setting | Setting range |
| 20.00mA 10.00V | 16.00 ~24.00 mA 6.00~14.00V |
| Display | Name | Setting range | Factory value | Parameter linkage | Change during running |
| G6-01 | Er-00 No alarm | ||||
| Er-02 Abnormal outlet sensor | |||||
| Er-04 Too - high outlet pressure | Er-03 Abnormal number of outlet sensors | ||||
| Er-05 Extremely high outlet pressure | |||||
| Er-06 Too - low outlet pressure | |||||
| Er-07 High outlet sensor differential pressure | |||||
| Er-08 Low water level of inlet probe | |||||
| Er-09 Abnormal inlet sensor | |||||
| Er-10 Too - high inlet water level | |||||
| Er-11 Too - low inlet water level | |||||
| Er-12 Too - high inlet pressure | |||||
| Er-13 Too - low inlet pressure | |||||
| Er-14 CAN communication ID repetition | |||||
| Alarm | Er-15 RS485 communication abnormality Er-16 Excessive number of auxiliary pumps | 0 | X | X | |
| category Er-17 Too - high DC bus voltage | |||||
| Er-18 Too - low DC bus voltage | |||||
| Er-19 Drive overheating | |||||
| Er-20 Drive overload | |||||
| Er-21 Motor overcurrent | |||||
| Er-22 Motor overheat | |||||
| Er-23 IGBT driver IC failure | |||||
| Er-24: Output phase loss | |||||
| Er-25 Emergency stop | |||||
| Er-26 Exceeded trial time | |||||
| Er-27 CAN communication abnormality | |||||
| Er-28 Anormal CAN_BPS setting | |||||
| Er-29 Current sensor failure | |||||
| G6-01 | Output frequency | 0 ~ 60 Hz | 0 | X | X |
| Output current | 0.0 ~ 99.9A | 0 | X | X | |
| Year | 0 | X | X | ||
| Month/Day | |||||
| Hour/Minute | |||||
1:Recent Faults 1
• The number of times a fault has occurred recently is displayed.
· When the same type of fault occurs repeatedly, the number of times the fault occurs is recorded.
2:Fault type
| Fault code | Fault content |
| Er-00 | No alarm |
| Er-02 | Abnormal outlet sensor |
| Er-03 | Abnormal number of outlet sensors |
| Er-04 | Too - high outlet pressure |
| Er-05 | Extremely high outlet pressure |
| Er-06 | Too - low outlet pressure |
| Er-07 | High outlet sensor differential pressure |
| Er-08 | Low water level of inlet probe |
| Er-09 | Abnormal inlet sensor |
| Er-10 | Too - high inlet water level |
| Er-11 | Too - low inlet water level |
| Er-12 | Too - high inlet pressure |
| Er-13 | Too - low inlet pressure |
| Er-14 | CAN communication ID repetition |
| Er-15 | RS485 communication abnormality |
| Er-16 | Excessive number of auxiliary pumps |
| Er-17 | Too - high DC bus voltage |
| Er-18 | Too - low DC bus voltage |
| Er-19 | Drive overheating |
| Er-20 | Drive overload |
| Er-21 | Motor overcurrent |
| Er-22 | Motor overheat |
| Er-23 | IGBT driver IC failure |
| Er-24 | Output phase loss |
| Er-25 | Emergency stop |
| Er-26 | Exceeded trial time |
| Er-27 | CAN communication abnormality |
| Er-28 | Abnormal CAN_BPS setting |
| Er-29 | Current sensor failure |
3: Output frequency
· The current output frequency archived when an alarm occurs.
4: Output current
· The current output current as recorded when an alarm occurs.
5:Date/Time
• Current date/time of the alarm.
6.7 Display settings area
| Display | Name | Setting Range | Factory Value | Parameterlinkage | Changeduringrunning |
| G7-01 | Parameter Initialization | 0: Not used1: G2 Zone2: G3 Zone3: G4 Zone4: G5 Zone5: G6 Zone6: G7 Zone7: Full Initialization | 0 | X | X |
| G7-02 | Year Setting | 0 | 22 | X | X |
| G7-03 | Month/Day Setting | Jan. 1 | 0 | × | X |
| G7-04 | Time Setting | 0:00 | 0 | X | X |
| G7-05 | Lock screen feature | 0: Not used 1: Used | 0 | X | X |
| G7-06 | Software version | 0.01 | 0.01 | X | X |
| G7-07 | Accumulated electricity | 0 ~999999kWh | 0 | X | X |
| G7-08 | Power-up time | 0~999999 h | 0 | X | X |
| G7-09 | Number of runs | 0 ~ 999999 (times) | 0 | X | X |
| G7-10 | Running time | 0 ~999999 h | 0 | × | × |
| G7-11 | Alarm Accumulation number | 0~65535 (times) | 0 | X | X |
| G7-12 | Inverter output voltage | 0~400V | 0 | X | X |
6.7.1 Display Settings Area Function Description
1：Parameter initialization
• Initialize all or each functional area.
| Setting Value | Setting Range | ||
| 0(Factory value) | 0: Not used | 1: G2 Zone 2: G3 Zone | 3: G4 Zone |
| 4: G5 Zone | 5: G6 Zone 6: G7 Zone | 7: Full Initialization | |
2：Year Setting
• Current year setting.
| Setting Value | Setting Range |
| 22 (Factory value) | 0000 |
3:Month/Day setting
· Current month/day setting.
| Setting Value | Setting Range |
| 01/01 (Factory value) | 01/01 |
4:Time setting
• Current time setting
| Setting Value | Setting Range |
| 00:00 (Factory value) | 00:00 |
5: Screen Lock Feature
· Activate the lock screen function. Unlocking requires a key combination, and you need to unlock again each time you enter the parameter group.
| Setting Value | Setting Range |
| 0(Factory value) | 0: Not used 1: Used |
6: Software version
• Display the current software version.
| Setting Value | Setting Range |
| 1.0 (Factory value) | 0.01 |
| Fault code | Fault content | Automatically reset |
| Er-00 | No alarm | |
| Er-02 | Abnormal outlet sensor | O |
| Er-03 | Abnormal number of outlet sensors | X |
| Er-04 | Too - high outlet pressure | O |
| Er-05 | Extremely high outlet pressure | X |
| Er-06 | Too - low outlet pressure | O |
| Er-07 | High outlet sensor differential pressure | O |
| Er-08 | Low water level of inlet probe | O |
| Er-09 | Abnormal inlet sensor | O |
| Er-10 | Too - high inlet water level | O |
| Er-11 | Too - low inlet water level | O |
| Er-12 | Too - high inlet pressure | O |
| Er-13 | Too - low inlet pressure | O |
| Er-14 | CAN communication ID repetition | X |
| Er-15 | RS485 communication abnormality | X |
| Er-16 | Excessive number of auxiliary pumps | X |
| Er-17 | Too - high DC bus voltage | O |
| Er-18 | Too - low DC bus voltage | O |
| Er-19 | Drive overheating | O |
| Er-20 | Drive overload | O |
| Er-21 | Motor overcurrent | O |
| Er-22 | Motor overheat | O |
| Er-23 | IGBT driver IC failure | X |
| Er-24: | Output phase loss | X |
| Er-25 | Emergency stop | X |
| Er-26 | Exceeded trial time | X |
| Er-27 | CAN communication abnormality | X |
| Er-28 | Abnormal CAN_BPS setting | X |
| Er-29 | Current sensor failure | X |
6.8.1 Faults and Alarm Release Methods
Alarm contents are displayed on the keypad when an alarm occurs.
• Check the fault information in the G6 group when there is a fault or alarm.
• Press the “Set” button to cancel the alarm.
• Automatically disarm and restart. If the alarm is canceled when the conditions for canceling the alarm are not met, the alarm will occur again.
6.8.2 Causes and measures of fault
Er-02: Abnormal outlet sensor
Cause:
• Defective sensor.
• Defective controller.
• Defective sensor terminal
• Communication ID is not set at linkage.
Measures:
• Replace the sensor.
• Replace the controller.
| Functional Area | No. | Name | Setting Value | Setting Range |
| Signal parameter G5 | 01 | Outlet sensor mode | 0(Factory value) | 0:Not used 1:Export pressure sensor |
Er-03: Abnormal number of export sensors
Cause:
• Sensor configuration error.
• Communication ID is not set at linkage.
Measure:
• Confirm the information of outlet sensor configuration .
• Set the communication ID during linkage.
| Functional Area | No. | Name | Setting Value | Setting Range |
| Signal parameter G4 | 01 | CAN CommunicationID | 0(Factory value) | 0:Standalone mode 1~6 :Online mode |
| Signal parameter G5 | 01 | Outlet sensor mode | 0(Factory value) | 0:Not used 1:Outlet pressure sensor |
Er-04: Too - high outlet pressure
Cause:
· The pressure during operation is 2 bar higher than the set pressure, exceeding the outlet highpressure alarm.
• The system will stop running after a delay and the alarm will be displayed on the LCD screen.
Measure:
• Check the set pressure and alarm level.
· The controller automatically resets when the current pressure is lower than the high pressure alarm pressure.
| Functional Area | No. | Name | Setting Value | Setting Range |
| Potectionparameter G3 | 01 | Outlet high pressurealarm deviation value | 2 (Factory value) | 0.5 ~ 3.0 bar 0.50 ~ 0.30 Mpa |
| 02 | Outlet high pressurealarm delay | 5(Factory value) | 0 ~ 600 sec |
Er-05 : Extremely high outlet pressure
Cause :
• When running 3 bar higher than the set pressure during operation, operation stops and an alarm is displayed on the LCD screen.
Measure :
• Confirm the set pressure and alarm level.
• It cannot be reset automatically, it needs to be reset manually by human.
| Functional Area | No. | Name | Setting Value | Setting Range |
| Potection parameter G3 | 03 | Outlet overpressure alarmabsolute value | 3 (Factory value) | 16.0 bar |
Er-06 : Too - low outlet pressure
Cause :
• Alarms when operating at actual pressure below the low pressure alarm level.
Alarms are restarted after the “Fault Recovery Time” has elapsed. The controller will not restart after the “Alarm Recovery Time” has elapsed in order to protect the controller.
Measure :
· Confirm that the amount of water in the water tank (cistern) is sufficient.
• Check if there is air in the pump.
• Check if there is water flowing through the air opening.
• Press the “Set” button to cancel the alarm and press the RUN button to start the pump.
| Functional Area | No. | Name | Setting Value | Setting Range |
| Potectionparameter G3 | 04 | Outlet low voltage alarm value | 0.5 bar (Factory value) | 0~25.0 bar |
| 05 | Number of exportedlow-pressure judgment units | 1 (Factory value) | 1~6 unit | |
| 06 | Outlet low voltage alarm delay | 20 (Factory value) | 0~600 sec |
Er-07: High outlet sensor differrential pressure
Cause:
• An alarm will be triggered when the difference between the sampling values of outlet sensor 1 and outlet sensor 2 reaches a certain value.
Measure:
• Confirm 2 outlet sensor sampling values.
• Replace the outlet sensors.
• Check outlet sensor parameters.
| Functional Area | No. | Name | Setting Value | Setting Range |
| Potection parameterG3 | 19 | Outlet Pressure SensorDiagnosis | 0(Factory value) | 0:Not used 1: used |
| Signal parameter G5 | 03 | Maximum value of theoutlet sensor | 16.0 bar(Factory value)1.60 Mpa(Factory value) | 0 ~ 45.0 bar0 ～ 4.50 Mpa |
Er-08 : Low water level of inlet probe
Cause:
• Disconnection of the low water level terminal causes a trigger fault.
• Internal terminal is damaged.
Measure:
• Verify that the low water line is not disconnected.
• Replace the control board.
| Functional Area | No. | Name | Setting Value | Setting Range |
| Potection parameter G3 | 07 | Low water level probe detection | 0 | 0: Not used 1: used |
| Signal parameter G5 | 08 | Low water level probe delay | 3 (Factory value) | 0~600 sec |
Er-09 : Abnormal inlet sensor
Cause :
• Defective sensor.
· Defective controller.
• Defective sensor terminal.
Measure :
• Replace the sensor.
• Replace the controller.
· Confirm sensor terminal defects, or sensor configuration information.
| Functional Area | No. | Name | Setting Value | Setting Range |
| Signal parameterG5 | 06 | Inlet sensor mode | 0(Factory value) | 0: Not used 1: Inlet pressuresensor 2: Inlet water level sensor |
Er-10 : Too-high inlet water level
Cause :
• The inlet water level is higher than the alarm value.
· Sensor damage
Measure :
• Replace the sensor.
• Confirm the alarm level of the inlet water level.
| Functional Area | No. | Name | Setting Value | Setting Range |
| Potection parameter G3 | 17 | Inlet high water levelalarm value | 5.0(Factory value) | Inlet sensor minimum value ～maximum value |
| 18 | Inlet high water levelalarm delay | 5 (Factory value) | 0 ~ 600 sec |
Er-11 : Too-low inlet water level
Cause :
• The inlet water level is below the alarm value.
• Sensor damage.
Measure :
• Replace the sensor.
• Confirm the inlet water level of the alarm level.
| Functional Area | No. | Name | Setting Value | Setting Range |
| Potection parameter G3 | 14 | Inlet low water levelalarm value | 0.6 (Factory value) | Inlet sensor minimum value ~maximum value |
| 15 | Inlet low water levelalarm delay | 5 (Factory value) | 0 ~ 600 sec |
Er-12 : Too-high inlet pressure
Cause:
: The Inlet pressure is higher than the alarm value.
• Sensor damage.
Measure:
• Replace the sensor.
• Confirm the inlet pressure alarm level.
| Functional Area | No. | Name | Setting Value | Setting Range |
| Potection parameterG3 | 12 | Inlet high-pressure alarmvalue | 16.0(Factory value) | Inlet sensor minimum value ~maximum value |
| 13 | Inlet high-pressure alarmdelay | 5(Factory value) | 0 ~ 600 sec |
Er-13: Too-low inlet pressure
Cause:
• The Inlet pressure is below the alarm value.
• Sensor damage.
Measure:
• Replace the sensor.
• Confirm the inlet pressure alarm level.
| Functional Area | No. | Name | Setting Value | Setting Range |
| Potection parameterG3 | 09 | Inlet low-pressure alarmvalue | 0.3 (Factory value) | Inlet sensor minimum value~maximum value |
| 10 | Inlet low-pressure alarmdelay | 5(Factory value) | 0 ~ 600 sec |
Er-14 : CAN communication ID repetition
Cause:
• Bad CAN communication cable connection.
• Bad controller CAN communication IC.
Measure:
• Confirm CAN communication connection status.
· Replace the controller
Er-15 : RS485 communication abnormality
Cause:
· During communication, an abnormal data stream triggers a fault.
Measure:
• After the data stream returns to normal, the alarm prompt is lifted.
Er-16 : Excessive number of auxiliary pumps
Cause:
• In the system, only a maximum of 2 auxiliary pumps of type G4-14 (pump type) are allowed exceeding 2 triggers.
Measure:
• The number of auxiliary pumps needs to be reasonably set (only up to 2 units can be operated).
| Functional Area | No. | Name | Setting Value | Setting Range |
| Drive parameter G4 | 14 | Pump type | 1 (Factory value) | 1: Main Pump 2: Auxiliary Pump |
Er-17: Too-high DC bus voltage
Cause:
· When the power supply voltage is high.
• When connecting to a load greater than the power supply voltage.
Measure:
· Check the input voltage of the controller.
• Confirm the power supply capacity.
Note: Please confirm the DC link voltage G0-05 in the parameter table.
| Functional Area | No. | Name | Setting Value | Setting Range |
| Drive parameter G4 | 13 | Deceleration time | 6 (Factory value) | 0 ~ 600 sec |
Er-18 : Too-low DC bus voltage
Cause:
• When the power supply voltage is low.
• When connected to a load smaller than the power supply voltage.
Measure:
· Check the input voltage of the controller.
· Confirm the power supply capacity.
Note: Please confirm the DC Link voltage G0-05 in the parameter table.
Er-19 : Drive overheating
Cause:
• Inverter temperature is too high.
• Fan damage.
· Temperature sensor damage.
Measure:
• Check if the controller fan is blocked and replace the fan.
• Replace the temperature probe.
Er-20 : Drive overload
Cause:
• When the load ratio controller exceeds its rated capacity.
Measure:
• Please use a controller with a higher capacity ratio than the load.
• Confirm the overload protection alarm level of the driver.
Er-21 : Motor overcurrent
Cause:
· The actual operating current of the motor is compared with the rated current and an alarm is triggered based on different levels.
Measure:
• Confirm the motor rated current (nameplate), confirm the set motor rated current.
Note: Confirm the output current on the main interface
| Functional Area | No. | Name | Setting Value | Setting Range |
| Drive parameter G4 | 06 | Motor rated current | 14.5 (Factory value) | 0.0 ~ 99.0 A |
| 15 | Motor overcurrent alarm value | 110% (Factory value) | 50 ~ 200 % | |
| 16 | Motor overcurrent alarm delay | 60 sec | 0 ~ 200 sec |
Er-22 : Motor overheat
Cause:
· Short acceleration and deceleration time.
• Motor restarts in Free Run mode.
• Motor damage.
Measure:
• Adjust the acceleration and deceleration time.
• Confirm whether the controller capacity matches the motor capacity.
• Check the load, motor, and output wiring.
• If the same alarm occurs, please consult the operation and maintenance service department.
Er-23 : IGBT driver IC fault
Cause:
• Adjust the acceleration and deceleration time.
· Confirm whether the controller capacity matches the motor capacity.
• Check the load, motor, and output wiring.
• If the same alarm occurs, please consult the operation and maintenance service department.
Measure:
• Expand the acceleration time.
• Verify whether the motor is damaged, insulation condition.
· Separate the motor wires from the controller and test, if the same alarm occurs there may be a short circuit in the IGBT, consult the O&M service department for this type of phenomenon.
| Functional Area | No. | Name | Setting Value | Setting Range |
| Drive parameter G4 | 12 | Acceleration time | 10(Factory value) | 0 ~ 600 sec |
Er-24 : Output phase loss
Cause:
• Bad output cable.
• Bad output terminal release.
Measure:
• Confirm the output wiring.
• Confirm the output terminal release status.
Er-25 : Emergency stop
Cause:
• An alarm caused by an external signal.
Measure:
• Confirm the external signal.
Er-26 :Exceeded trail time
Cause:
· Trial period exceeds the allowed value.
Measure:
• Consult the Operations and Maintenance Services Department for such phenomena.
Er-27 : CAN communication abnormality
Cause:
• A fault is triggered when CAN communication is abnormal.
Measure:
• After communication is restored, the fault is resolved.
Er-28 : Abnormal CAN\_BPS setting
Cause:
• CAN communication speed setting is abnormal.
Measure:
· The CAN communication speed setting is abnormal. Modify the communication speed and clear the fault after the network is connected.
Er-29 : Current sensor failure
Cause:
• The current sensor triggers an alarm when the output is abnormal.
Measure:
• Whether the power failure restart is lifted or not.
• Consult the operation and maintenance service department.
6.9 RS485 Communication
Adopting the communication standards of the Electronic Industries Association (ElA).
| Project | Specification |
| Protocols | MODBUS RTU Communication Protocol |
| Communication distance | 500meters (recommended distance) |
| Communication method | 2-wire semi-doubles, can be multiple. |
| Communication speed | 2400,4800,9600,19200,38400bps |
| Check digit | None, Even Check, Odd Check |
| Data length | 8 bit |
| Stoppages | 1bit, 2bit |
| Communciation code | Binary |
6.10 MODBUS RTU Communication Protocol
1、Data format
Follow the principle that the host sends commands and the slave returns the corresponding ones.
1) Command Frames
| (1) | (2) | (3) | (4) | (5) | (6) |
| 3.5 characterpause | Slave Address(Inverter) (1byte) | Functioncode (1byte) | Data area | CRC-16 check digit(2byte) | 3.5 characterpause |
(1) A pause of more than 3.5 character times.
(2) Slave address (inverter) range: 1 to 250.
(3) Function code:
| Function code | Function code Type | Discription |
| 03H | Read | Read data from the specified address, can read one or more at a time. |
| 10H | Write | Write data into the specified address, can write one or more at a time. |
| 06H | Write | Write data into the specified address, only one piece of data can bewritten at a time. |
(5) CRC-16 check digit.
| Add-ress | Parameternumber | Name | Command | Decimalpoint | Range | Content | ||
| Type | Runtime | Down-time | ||||||
| Operational parameters | ||||||||
| 1000 | G0-01 | Measurepressure | R | R | R | 1 | 0~450 | 0~45.0(bar)0~4.50(Mpa) |
| 1001 | G0-02 | Set the pressure | R/W | R/W | R/W | 1 | 0~450 | 0~45.0(bar)0~4.50(Mpa) |
| 1002 | G0-07 | Inlet pressure | R | R | R | 1 | 0~500 | -5.0~45.0(bar)-0.50~4.50(Mpa) |
| 1003 | G0-08 | Inlet water level | R | R | R | 1 | 0~500 | 0.0~5.0M |
| 1004 | Null | System status | R | R | R | 1 | 0~3 | 0:STOP(All stops)1 : RUN (Frequency output)2:READY(All standby)3 : Fault(Out-of-order) |
| 1005 | Null | System mode | R | R | R | 1 | 0~1 | 0:Automatic1：Manual |
| 1006 | Null | Host failureinformation | R | R | R | 0~26 | Trip Content0~29 | |
| 1007 | Null | Run thecommand | W | W | Bit15-Bit0Bit15-Bit12 backupBit11,10:6Inverter, 00Shutdown,10Standby,01Run Bit9,8:5Inverter, 00Shutdown,10Standby,01Run Bit7,6:4Inverter, 00Shutdown,10Standby,01Run Bit5,4:3Inverter, 00Shutdown,10Standby,01Run Bit3,2:2Inverter, 00Shutdown,10Standby,01Run Bit1,0:1Inverter, 00Shutdown,10Standby,01Run | |||
| W | 0 | 0~0x3F | ||||||
| 1000 | Null | Inverterconfiguration | R | R | R | 1 | 0~5 | Low byte: bit0-5: main pumpconfiguration, (corresponding to ID1~6inverter)High byte: bit0-5: auxiliary pumpconfiguration, (corresponding to ID1~6inverter) |
| 1009 | G0-03 | P1 Outputfrequency | R/W | R/W | R/W | 0 | 0~60 | In automatic mode, onlyreading is allowed.In manual mode, readingand writing are permitted. |
| 1010 | P2 Outputfrequency | R/W | R/W | R/W | 0 | 0~60 | ||
| 1011 | P3 Outputfrequency | R/W | R/W | R/W | 0 | 0~60 | ||
| 1012 | P4 Outputfrequency | R/W | R/W | R/W | 0 | 0~60 | ||
| 1013 | P5 Outputfrequency | R/W | R/W | R/W | 0 | 0~60 | ||
| 1014 | P6 Outputfrequency | R/W | R/W | R/W | 0 | 0~60 | ||
| 1015 | G0-04 | P1 Output power | R | R | R | 1 | 0.0~100.0 | Unit: kW |
| 1016 | P2 Output power | R | R | R | 1 | 0.0~100.0 | ||
| 1017 | P3 Output power | R | R | R | 1 | 0.0~100.0 | ||
| 1018 | P4 Output power | R | R | R | 1 | 0.0~100.0 | ||
| 1019 | P5 Output power | R | R | R | 1 | 0.0~100.0 | ||
| 1020 | P6 Output power | R | R | R | 1 | 0.0~100.0 | ||
| 1021 | G0-05 | P1 DC voltage | R | R | R | 0 | 0~1000 | Unit: V |
| 1022 | P2 DC voltage | R | R | R | 0 | 0~1000 | ||
| 1023 | P3 DC voltage | R | R | R | 0 | 0~1000 | ||
| 1024 | P4 DC voltage | R | R | R | 0 | 0~1000 | ||
| 1025 | P5 DC voltage | R | R | R | 0 | 0~1000 | ||
| 1026 | P6 DC voltage | R | R | R | 0 | 0~1000 | ||
| 1027 | G0-06 | P1 Output current | R/W | R/W | R/W | 1 | 0.0~99.90.0~99.9 | Unit: A |
| 1028 | P2 Output current | R/W | R/W | R/W | 1 | |||
| 1029 | P3 Output current | R/W | R/W | R/W | 1 | 0.0~99.9 | ||
| 1030 | P4 Output current | R/W | R/W | R/W | 1 | 0.0~99.9 | ||
| 1031 | P5 Output current | R/W | R/W | R/W | 1 | 0.0~99.90.0~99.9 | ||
| 1032 | P6 Output current | R/W | R/W | R/W | 1 | |||
| 1033 | Null | Inverter1status | R | R | R | 0 | 0~2 | 0: Shutdown1: Operation2: Standby |
| 1034 | Inverter 2 status | R | R | R | 0 | 0～2 | ||
| 1035 | Inverter 3 status | R | R | R | 0 | 0~20～2 | ||
| 1036 | Inverter 4 status | R | R | R | 0 | |||
| 1037 | Inverter 5 status | R | R | R | 0 | 0～2 | ||
| 1038 | Inverter 6 status | R | R | R | 0 | 0~2 | ||
| 1039 | Null | P1 Inverter output voltage OV | R | R | R | 0 | 0~500 | Unit: V |
| 1040 | P2 Inverter output voltage OV | R | R | R | 0 | 0~500 | ||
| 1041 | P3 Inverter output voltage OV | R | R | R | 0 | 0~500 | ||
| 1042 | P4 Inverter output voltage OV | R | R | R | 0 | 0~500 | ||
| 1043 | P5 Inverter output voltage OV | R | R | R | 0 | 0~500 | ||
| 1044 | P6 Inverter output voltage OV | R | R | R | 0 | 0~500 | ||
| 1045 | Null | P1 Accumulate number ofalarm times | R | R | R | 0 | 0~655350~65535 | Null |
| 1046 | P2 Accumulate number ofalarm times | R | R | R | 0 | |||
| 1047 | Null | P3 Accumulate numberof alarm times | R | R | R | 1 | 0~655350~65535 | Unit: A |
| 1048 | P4 Accumulate numberof alarm times | R | R | R | 1 | |||
| 1049 | P5 Accumulate numberof alarm times | R | R | R | 1 | 0~65535 | ||
| 1050 | P6 Accumulate numberof alarm times | R | R | R | 1 | 0~65535 | ||
| 1051 | Null | P1 Accumulated electricityH | R | R | R | 01 | 0~9999990~9999990~999999 | Unit: kWh |
| 1052 | P1 Accumulated electricityL | R | R | R | ||||
| 1053 | P2 Accumulated electricityH | R | R | R | 01 | |||
| 1054 | P2 Accumulated electricityL | R | R | R | ||||
| 1055 | P3 Accumulated electricityH | R | R | R | 0 | |||
| 1056 | P3 Accumulated electricityL | R | R | R | 1 | |||
| 1057 | P4 Accumulated electricityH | R | R | R | 01 | 0~9999990~999999 | ||
| 1058 | P4 Accumulated electricityL | R | R | R | ||||
| 1059 | P5 Accumulated electricityH | R | R | R | 01 | |||
| 1060 | P5 Accumulated electricityL | R | R | R | ||||
| 1061 | P6 Accumulated electricityH | R | R | R | 0 | 0~999999 | ||
| 1062 | P6 Accumulated electricityL | R | R | R | 1 | |||
| 1063 | Null | P1 Power-on time HP1 Power-on time L | R | R | R | 0 | 0~9999990~999999 | Unit: hour |
| 1064 | ||||||||
| 1065 | P2 Power-on time HP2 Power-on time L | R | R | R | 0 | |||
| 1066 | ||||||||
| Add-ress | Parameternumber | Name | Command | Decimalpoint | Range | Content | |||
| Type | Runtime | Down-time | |||||||
| Operational parameters | 」 | ||||||||
| 1067 | Null | P3 Power-on time HP3 Power-on timeL | R | R | R | 0 | 0~999999 | Unit: hour | |
| 1068 | |||||||||
| 1069 | P4 Power-on time H | R | R | R | 0 | 0~999999 | |||
| 1070 | P4 Power-on time L | ||||||||
| 1071 | P5 Power-on time HP5 Power-on time L | R | R | R | 0 | 0~999999 | |||
| 1072 | |||||||||
| 1073 | P6 Power-on time HP6 Power-on time L | R | R | R | 0 | 0~999999 | |||
| 1074 | |||||||||
| 1075 | Null | P1 Number of runs HP1 Number of runs L | R | R | R | 0 | 0~999999 | Null | |
| 1076 | |||||||||
| 1077 | P2 Number of runs HP2 Number of runs L | R | R | R | 0 | 0~999999 | |||
| 1078 | |||||||||
| 1079 | P2 Number of runs L | R | R | R | 0 | 0~999999 | |||
| 1080 | P3 Number of runs L | ||||||||
| 1081 | P4 Number of runs HP4 Number of runs L | R | R | R | 0 | 0~999999 | |||
| 1082 | |||||||||
| 1083 | P5 Number of runs HP5 Number of runs L | R | R | R | 0 | 0~999999 | |||
| 1084 | |||||||||
| 1085 | P6 Number of runs H | R | R | R | 0 | 0~999999 | |||
| 1086 | P6 Number of runs L | ||||||||
| Add-ress | Parameternumber | Name | Command | Decimalpoint | Range | Content | ||
| Type | Runtime | Down-time | ||||||
| Operational parameters | ||||||||
| 1087 | Null | P1 Run time H | R | R | R | 0 | 0~999999 | Unit: hour |
| 1088 | P1 Run time L | |||||||
| 1089 | P2 Run time H | R | R | R | 0 | 0~999999 | ||
| 1090 | P2 Run time L | |||||||
| 1091 | P3 Run time H | R | R | R | 0 | 0~999999 | ||
| 1092 | P3 Run time L | |||||||
| 1093 | P4 Run time H | R | R | R | 0 | 0~999999 | ||
| 1094 | P4 Run time L | |||||||
| 1095 | P5 Run time HP5 Run time L | R | R | R | 0 | 0~999999 | ||
| 1096 | ||||||||
| 1097 | P6 Run time HP6 Run time L | R | R | R | 0 | 0~999999 | ||
| 1098 | ||||||||
MEMO
Product Warranty
This product is guaranteed to be a qualified product according to our strict quality control, inspection and testing.Within one year from the date of purchase, the product itself due to the quality of the failure of the product in accordance with the provisions of the warranty unconditional repair and replacement.
| Product name | NSQ Drive II / T | Warranty Period | 1 year |
| Model | Purchase date | ||
| Distributor | Validity period | ||
| Address | Telephone |
Warranty provisions:
1. If the product malfunctions, the maintenance fee will be waived within 1 year from the date of purchase, please contact the dealer or our after-sales service department.
2. If the following conditions occur during the warranty period, they are not covered by the free repair fee.
• Malfunctions caused by improper use by the user (not following the instruction manual).
• Malfunctions caused by repairing, remodeling, or dismantling outside of the company's designated locations.
• Malfunctions caused by natural disasters such as fire
• Malfunctions caused by improper storage (high temperature, humidity, or places with organic substances).
• In the absence of this warranty
• Dealer and date of purchase have been changed.
• Accessories and consumables are not included in the warranty.
• We are not responsible for damages caused by malfunction of our products.
Note:
1.This guarantee provides for free or paid repairs in accordance with the abovementioned guarantee provisions, but it does not legally limit the rights of customers.
2.If you have any questions about the content of this guarantee, please contact the dealer or our company's after-sales service center.
3. Please register the dealer and the date of purchase on the guarantee.
4.This guarantee will not be reissued if lost. Please keep it properly.
SHANGHAI ZHONGHAN DOOCH PUMP MFG CO., LTD.
Address: No. 239, Zhangliantang Road, Liantang Industrial Zone,
Qingpu District, Shanghai
Phone: +86.21.67679390 Fax:+86.21.67679396
SHANGHAI ZHONGHAN DOOCH PUMP MFG CO., LTD.
Address: No. 239, Zhangliantang Road, Liantang Industrial Zone, Qingpu District, Shanghai Phone: +86.21.67679390Fax: +86.21.67679396
