To Next PageTo Next PageWhat to do if CHINSC ELECTRIC SVF-G7 show PID feedback bigger fault?
If your CHINSC ELECTRIC DC Drives show PID feedback bigger fault, check PID feedback signal wire, if the PI parameter setting too bigger.
What causes over-current in CHINSC ELECTRIC SVF-G7 during constant speed operation?
Over-current during constant speed operation in CHINSC ELECTRIC DC Drives can be caused by a sudden change of load or an abnormal load. Check the load or reduce the sudden change of load. It may also be due to a low AC supply voltage, so check the AC input power supply. If the drive power is too small, select a high power drive.
How to fix over-voltage during deceleration in CHINSC ELECTRIC SVF-G7?
If you are experiencing over-voltage during deceleration with your CHINSC ELECTRIC DC Drives, it could be due to a too short Dec time. Try prolonging the Dec time. Another potential cause is too big load inertia, in which case you should use a big dynamic braking kit. Also, check the AC supply voltage, as an abnormal input voltage could be the reason.
What causes CHINSC ELECTRIC DC Drives motor to overload?
A CHINSC ELECTRIC DC Drives motor can overload due to several reasons. A low AC supply voltage could be the cause, so check the AC supply voltage. It may also be due to an improper motor’s rated current, so modify the motor’s rated current. If the load increases suddenly, check the load and adjust the value of torque boost. Finally, the drive's and motor's powers might not match, so use a suitable motor.
What causes CHINSC ELECTRIC SVF-G7 to show IGBT module’s heatsink overheat?
If the IGBT module’s heatsink in your CHINSC ELECTRIC DC Drives is overheating, it could be due to several factors. The vent might be obstructed, or the fan may not be working, so clean the vent or replace the fan. Over-temperature can also cause this issue, so lower the ambient temperature. Check and re-wire any loose wires or connectors of the control board. If the auxiliary power supply is damaged or the IGBT driving voltage is too low, or if there is a short-circuit of the IGBT bridge, or the control board is abnormal seek service.
What does it mean if my CHINSC ELECTRIC DC Drives show external equipment fails?
Check the input of the external device.
What to do if CHINSC ELECTRIC SVF-G7 show PID feedback disconnected fault?
If your CHINSC ELECTRIC DC Drives show PID feedback disconnected fault, check PID feedback signal line, as PID feedback may be disconnected. Check the PID feedback source, as the source of PID feedback may disappears.
What to do if CHINSC ELECTRIC DC Drives show braking kit fault?
If your CHINSC ELECTRIC DC Drives show braking kit fault, check the brake kit and update brake pipe, as brake line may fail or brake pipe may be damaged. Increase braking resistor, as the external braking resistance may be small.
What does it mean if my CHINSC ELECTRIC DC Drives show rectifier’s heatsink overheat?
If the rectifier’s heatsink in your CHINSC ELECTRIC DC Drives is overheating, this could be due to instantaneous over-current. Refer to E004~E006. It might also indicate a short-circuit among the 3-phase output or a line-to-ground short circuit, in which case you should rewire.
What to do if CHINSC ELECTRIC DC Drives show DC Bus under-voltage?
If your CHINSC ELECTRIC DC Drives show DC Bus under-voltage, check the AC supply voltage, as the cause is likely a low AC supply voltage.
Defines hazard symbols (Danger, Attention) and their implications for user safety.
Crucial safety precautions for installation, wiring, operation, and maintenance to prevent injury.
Important considerations for motor insulation, thermal protection, operational limits, and handling.
Explains the coding system used to define SVF-G7 inverter models, including type and specifications.
Details the information found on the inverter's nameplate, including model, input/output specs, and manufacturer.
Lists various SVF-G7 VFD models with their input voltage, capacity, current, and motor power ratings.
Provides detailed technical specifications for the inverter, including input/output, heat dissipation, and control performance.
Presents physical dimensions and mounting hole specifications for different inverter models.
Guide for selecting appropriate braking resistors and units based on VFD power rating.
Details the selection criteria and types of external DC reactors for specific VFD models and power ratings.
Outlines daily inspection and cleaning procedures to ensure optimal VFD performance and lifespan.
Provides basic principles and considerations for selecting the correct frequency inverter based on system requirements.
Covers environmental requirements, installation space, and ventilation for proper inverter mounting.
Details wiring procedures, component selection, and terminal connections for the inverter.
Overview of the inverter's operation panel, including key functions and display indicators.
Describes the initial display and indicator status when the inverter is powered on.
Explains the three-level menu structure for setting and modifying inverter parameters.
Details how to check and cycle through various state parameters using the shift key.
Covers the procedure for setting up and managing the user password for parameter access.
Explains how to reset faults using the STOP/RESET key or multi-function input terminal.
Guides users through the process of auto-learning motor parameters for optimal control performance.
Details parameters related to basic running functions, including frequency source selection.
Covers parameters for controlling the inverter's start and stop functions, including start modes.
Details parameters for V/F control, including V/F curve settings and torque boost.
Explains parameters for vector and torque control, including motor data and auto-learning.
Details parameters for configuring digital and analog input signals for various functions.
Covers parameters for configuring output signals, including relay and pulse outputs.
Details parameters for multi-speed control and PLC program operation.
Explains parameters for process PID control, including feedback and reference channel settings.
Covers parameters for communication settings, including address and baud rate.
Details parameters related to the human-computer interface, such as key functions and monitoring.
Explains parameters for enhanced functions like jog operation and traverse control.
Details various protection functions, including overload, over-voltage, and current limiting.
Reserved parameters for application group 1.
Reserved parameters for application group 2.
Manufacturer-specific parameters; users should avoid modifying these.
Provides read-only monitoring variables for inverter operation status.
Covers setting baud rate and parity bit via parameter F8.01.
Illustrates the structure of a Modbus packet, including slave address, function code, data, and CRC.
Explains data types, addresses, function codes, and communication frames for Modbus protocol.
Details the CRC parity calculation function based on MODBUS-RTU.
Lists possible faults, their categories, reasons, and recommended actions for SVF-G7 inverters.
Provides methods for analyzing and handling common faults that may occur during drive usage.
Defines EMC as the ability of electrical equipment to operate without interfering or being interfered by electromagnetic environments.
Introduces EMC requirements and testing standards for adjustable speed drives.
Provides guidelines and solutions for managing electromagnetic interference (EMI) and ensuring good EMC.
Provides a summary of the SC-EXT1-IO standard expansion card's features and functions.
Details the physical appearance and installation steps for the SC-EXT1-IO expansion card.
Describes the terminal arrangement and function of the SC-EXT1-IO expansion card.
Summarizes the SC-EXT2-R relay output expansion card's function and application.
Describes the appearance of the SC-EXT2-R expansion card.
Details the terminal arrangement and function description for the SC-EXT2-R relay output card.
Summarizes the SC-EXT3-S multifunctional input expansion card's features.
Describes the appearance of the SC-EXT3-S expansion card.
Details the terminal arrangement and function description for the SC-EXT3-S input card.
General| Model Series | SVF-G7 Series |
|---|---|
| Category | DC Drives |
| Output Voltage | 0 to Rated Input Voltage |
| Cooling Method | Forced Air Cooling |
| Enclosure Rating | IP20 |
| Frequency Range | 0 to 400 Hz |
| Control Method | V/F control |
| Overload Capacity | 150% for 60 seconds |
| Protection Features | Overcurrent, Overvoltage, Undervoltage, Overheat, Short Circuit, Phase Loss |
| Communication Interface | RS485 |
| Operating Temperature | -10°C to +50°C |
| Storage Temperature | -20°C to +65°C |
