Need help?Do you have a question about the INVT Goodrive GD35-004G-4-H1 and is the answer not in the manual?
General| Brand | INVT |
|---|---|
| Model | Goodrive GD35-004G-4-H1 |
| Category | Controller |
| Language | English |
Provides essential safety rules for operating the VFD, including power disconnection and authorized personnel.
Safety instructions for VFD delivery and installation, emphasizing fire-retardant materials and avoiding water contact.
Safety precautions during VFD commissioning and operation, warning against unauthorized operations and self-start.
Steps for basic VFD commissioning, including motor type selection, autotuning, and direction check.
Guidelines for VFD mechanical installation, covering environment, direction, and mounting methods.
Specifies environmental conditions for VFD installation, including temperature, humidity, and altitude requirements.
Provides standard wiring diagrams for the main circuit connections of the VFD.
Detailed diagrams showing the main circuit connections for different VFD models and power ratings.
Wiring diagrams and instructions for the VFD's control circuit connections.
Illustrates the basic wiring for control circuits, including multi-function inputs and outputs.
Measures to protect the VFD and input power cable from short circuits and thermal overload.
Details on protecting motor and motor cables against short circuits, assuming proper VFD and cable dimensioning.
Explanation of VFD's internal motor thermal protection function to prevent overload.
Describes how the keypad displays fault codes and indicates alarm states.
Step-by-step guide on modifying VFD function codes through the three-level menu system.
Details the organization of function parameters into groups (P00-P29) and the 3-level menu structure.
Initiates motor parameter autotuning (rotation or static) for optimal VFD control performance.
Selects the VFD start mode: direct start, start after DC brake, or start after rotation speed tracking.
Selects the motor type: Asynchronous Motor (AM) or Synchronous Motor (SM).
Sets the rated power of the asynchronous motor for control performance.
Sets the rated frequency of the asynchronous motor for control performance.
Sets the rated speed of the asynchronous motor for control performance.
Sets the rated voltage of the asynchronous motor for control performance.
Sets the rated current of the asynchronous motor for control performance.
Sets the stator resistance of the asynchronous motor for high-performance vector control.
Sets the rotor resistance of the asynchronous motor for high-performance vector control.
Sets the leakage inductance of the asynchronous motor for high-performance vector control.
Sets the mutual inductance of the asynchronous motor for high-performance vector control.
Sets the non-load current of the asynchronous motor for high-performance vector control.
Configures motor overload protection: no protection, common motor, or variable-frequency motor.
Sets the coefficient for motor overload protection, influencing trip sensitivity.
Sets the proportional gain for the Automatic Speed Regulator (ASR) in vector control.
Sets the integral time for the Automatic Speed Regulator (ASR) in vector control.
Sets the proportional gain for the Automatic Speed Regulator (ASR) at higher frequencies.
Sets the integral time for the Automatic Speed Regulator (ASR) at higher frequencies.
Sets the proportional gain for the Automatic Current Regulator (ACR) for dynamic response.
Sets the integral coefficient for the Automatic Current Regulator (ACR) for control accuracy.
Enables torque control mode and selects the torque setting source (Keypad, Analog, Communication).
Configures the torque control mode, including command selection, compensation, and filtering.
Defines the V/F curve for Motor 1: straight line, multi-dots, or customized.
Sets the torque boost for low-frequency torque compensation of Motor 1.
Defines the V/F curve for a second motor, similar to Motor 1 settings.
Assigns a function to the S1 terminal (e.g., Forward running, Coast to stop, Fault reset).
Assigns a function to the S2 terminal (e.g., Reverse running, Fault reset, Multi-step speed).
Assigns a function to the S3 terminal (e.g., 3-wire control, Coast to stop, Frequency setting UP).
Assigns a function to the S4 terminal (e.g., Forward jogging, Fault reset, Frequency setting DOWN).
Assigns a function to the S5 terminal (e.g., Reverse jogging, Operation pause, ACC/DEC time).
Assigns a function to the S6 terminal (e.g., Coast to stop, External fault input, ACC/DEC time).
Assigns a function to the S7 terminal (e.g., Fault reset, Frequency setting UP, Multi-step speed).
Assigns a function to the S8 terminal (e.g., Operation pause, Frequency setting DOWN, Multi-step speed).
Assigns functions to the HDI terminal (e.g., High speed pulse input, Digital input, PLC functions).
Selects the terminal control mode for running commands (2-wire or 3-wire).
Displays the type of the current fault detected by the VFD.
Shows the type of the most recent past fault that occurred.
Sets the proportional gain for the ACR at high frequencies in vector control.
Sets the integral coefficient for the ACR at high frequencies in vector control.
Sets the torque required for normal inertia identification, accounting for friction.
Initiates or disables inertia identification process for motor parameterization.
Allows manual setting of system inertia if it is known, or displays identified inertia.
Configures undervoltage stopping behavior: internal setting or using P8.27.
Sets the bus voltage threshold for undervoltage stopping protection.
Selects the channel for shifting between two motors (Terminal, Modbus, PROFIBUS/CANopen).
Selects the source for the PID reference signal (Keypad, Analog, Communication, Multi-step).
Sets the PID reference value directly via the keypad.
Selects the source for the PID feedback signal (AI1-AI3, HDI, Communication).
Sets the proportional gain (Kp) of the PID controller, affecting response strength.
Sets the integral time (Ti) for the PID controller, affecting steady-state error correction.
Sets the derivative time (Td) for the PID controller, affecting response to error changes.
Defines the maximum deviation for PID control, impacting system accuracy and stability.
Sets the threshold for detecting offline feedback in the PID system.
Configures PID adjustment behavior regarding integral action and output direction.
Configures the Simple PLC operation mode: stop after one run, run at final value, or cycle running.
Enables or disables input and output phase loss protection.
Enables or disables overvoltage stall protection.
Sets the voltage protection threshold for overvoltage stall.
Selects the action for current limit: invalid or valid.
Controls the automatic current limiting behavior based on output current detection.
Configures overload pre-alarm for motor and VFD based on current and time.
Sets the detection thresholds and conditions for overload pre-alarm.
Sets the detection thresholds and conditions for underload pre-alarm.
Selects the motor type for the second motor: Asynchronous Motor (AM) or Synchronous Motor (SM).
Sets the rated power of the asynchronous motor for the second motor configuration.
Sets the rated frequency of the asynchronous motor for the second motor configuration.
Sets the rated speed of the asynchronous motor for the second motor configuration.
Sets the rated voltage of the asynchronous motor for the second motor configuration.
Sets the rated current of the asynchronous motor for the second motor configuration.
Sets the rated power of the synchronous motor for the second motor configuration.
Sets the rated frequency of the synchronous motor for the second motor configuration.
Sets the number of poles pairs for the synchronous motor 2.
Sets the rated voltage of the synchronous motor 2.
Sets the rated current of the synchronous motor 2.
Configures overload protection for Motor 2: no protection, common motor, or VFD motor.
Sets the overload protection coefficient for Motor 2.
Guides through the initial power-on procedure, including checks and expected VFD status.
Explains vector control principles for asynchronous motors and recommendations for parameter input and autotuning.
Details SVPWM control, suitable for high control accuracy and multi-motor applications.
Explains torque control mode, focusing on stable torque and ensuring setting matches output.
Provides guidance on setting motor parameters and performing motor autotuning for optimal performance.
Describes the three states of VFD start-up and stop control and available starting modes.
Explains various methods for setting the VFD frequency using main and assistant channels.
Details the configuration and use of analog input terminals (AI1, AI2, AI3) for VFD control.
Methods for resetting VFD faults: keypad, digital input, or power cycling.
Provides a systematic approach to diagnosing and resolving VFD faults.
A table listing common VFD faults, their causes, and recommended solutions.
Flowcharts for analyzing common VFD faults like motor not working or motor vibration.
Troubleshooting guide for when the motor fails to operate.
Troubleshooting guide for overvoltage faults, checking input power and braking settings.
Troubleshooting guide for undervoltage faults, checking power supply and air switch status.
Troubleshooting guide for overcurrent faults, checking motor parameters and wiring.
Step-by-step instructions for safely replacing the VFD cooling fan.
Explains how the VFD applies the Modbus protocol using RTU mode and RS485 physical layer.
Illustrates RTU command codes for reading and writing data, including frame structures and examples.
Provides examples of Modbus commands for reading and writing VFD data and parameters.
Lists common communication faults and their possible causes and solutions.
Describes the EC-TX-103 communication card for connecting VFDs to PROFIBUS networks.
Provides instructions for installing the EC-TX-103 communication card, including ambient and electrical setup.
Details PROFIBUS-DP communication, including service access points and information frame structure.
Recommends adding fuses and configuring breakers/contactors for overload and short-circuit protection.
Details the selection and installation of brake components like resistors and units for deceleration energy dissipation.
To Next Page
