To Next PageTo Next PageWhat causes undervoltage in Inovance Controller?
Undervoltage in your Inovance Controller can be caused by a few things. It could be due to an instantaneous power failure on the input power supply, so check whether the power fails during running and ensure the wiring of all power input cables is secure. The input voltage might also be too low, so check the external power voltage. In some cases, the drive control board might be failing.
What should I do if my Inovance Monarch 220-NICE-L-C-4015 Controller reports a power supply phase loss?
If your Inovance Controller reports a power supply phase loss, it indicates that the power input phases are not symmetric. First, check whether any phase of the three-phase power supply is lost. Then, verify whether the three phases of the power supply are balanced. Also, check whether the power voltage is normal, and adjust the power voltage if necessary. For 220 V models, you can set FC-01 bit 14 to 1 to cancel detection of this fault.
What are the common causes of motor auto-tuning faults in Inovance Controller?
A motor auto-tuning fault in your Inovance Controller can occur for various reasons: * If learning the stator resistance fails, check whether the motor wiring is correct. * If learning the magnetic pole position fails. * If the synchronous motor static auto-tuning mode is selected, but the encoder is not SIN/COS, select another auto-tuning mode or use a SIN/ COS encoder. * If CD signal fluctuation is large in synchronous motor static auto-tuning, hardware interference exists. Check whether grounding is correct. * If Leaning the encoder zero- position angle fails in synchronous motor angle-free auto- tuning, obtain the encoder zero-point angle in inspection state, and then perform half- automatic angle-free auto-tuning under normal-speed running.
What should I check if my Inovance Controller indicates a power output phase loss?
If your Inovance Controller indicates a power output phase loss, the issue likely stems from the output wiring of the main circuit being loose. Check whether the motor wiring is secure and verify whether the RUN contactor on the output side is normal.
How to troubleshoot a RUN contactor feedback abnormal error on an Inovance Controller?
A RUN contactor feedback abnormal error on your Inovance Controller can have a couple of causes: * If the feedback of the RUN contactor is active, but the contactor has no output, check whether the feedback contact of the contactor acts properly and check the signal feature (NO, NC) of the feedback contact. * If the current of the asynchronous motor from acceleration to constant-speed running is too small (? 0.1 A), check whether the output cables UVW of the controller are connected properly and check whether the control circuit of the RUN contactor coil is normal.
What causes the 'door lock disconnected during running' error in Inovance Monarch 220-NICE-L-C-4015?
If your Inovance Controller displays a 'door lock disconnected during running' error, indicated by subcodes 101 or 102, it means the door lock circuit feedback is invalid during elevator operation. Check whether the hall door lock and the car door lock are in good contact. Also, verify whether the door lock contactor acts properly, check the signal feature (NO, NC) of the feedback contact on the door lock contactor, and ensure the external power supply is normal.
Why is my Inovance Monarch 220-NICE-L-C-4015 showing a safety circuit disconnected error?
If your Inovance Controller is showing a safety circuit disconnected error (Subcode 101), it means the safety circuit signal has become off. Check the safety circuit switches and their states. Also, verify whether the external power supply is normal, ensure the safety circuit contactor acts properly, and confirm the signal feature (NO, NC) of the feedback contact of the safety circuit contactor.
What to do when the Inovance Monarch 220-NICE-L-C-4015 shows 'Maintenance notification period reached'?
If your Inovance Controller displays 'Maintenance notification period reached', it means the elevator hasn't been maintained within the notification period. Power-off and maintain the elevator or disable the maintenance notification function by setting F9-13 to 0.
General| Model | Monarch 220-NICE-L-C-4015 |
|---|---|
| Category | Controller |
| Input Voltage | 220V AC |
| Output Current | 15A |
| Control Method | Vector control |
| Power | 4 kW |
| Protection Level | IP20 |
| Communication Interface | RS485 |
Details the fundamental operational capabilities and features of the elevator system.
Explains product model naming conventions and nameplate details.
Identifies and describes the main physical components of the controller unit.
Lists key technical specifications and data for various controller models.
Details technical specifications including input/output, drive features, and protection.
Provides an overview of how NICE3000new system components interconnect.
Guidelines and requirements for the physical installation of the controller.
Detailed instructions and diagrams for connecting main and control circuit terminals.
Information on digital/analog I/O, relay outputs, and communication interfaces.
Procedures for arranging shaft position signals like leveling and limit switches.
Comprehensive wiring diagrams and inspection checklists for system setup.
Overview and connection diagrams for essential peripheral devices.
Guidance on selecting appropriate peripheral devices like cables and reactors.
Details on optional components and modules for enhancing system functionality.
Description of the onboard 3-button keypad for parameter entry and commands.
Explanation of the LED operation panel's keys, indicators, and data display.
Information on using smartphone software for parameter setting via WIFI.
A general guide to the overall commissioning process for the elevator system.
Critical safety and circuit checks before powering on and commissioning.
Procedures for verifying controller state and handling faults after power-on.
Steps for motor auto-tuning and running tests at inspection speed.
Procedures for commissioning at normal speeds, including shaft and HCB setup.
Methods to improve riding comfort by adjusting controller output and mechanical parts.
Detailed description of parameters and functions accessed via the keypad.
Explanation of the operation panel's menu structure and parameter groups.
Description of fundamental system parameters like control mode and command source.
Parameters for motor configuration, encoder settings, and auto-tuning.
Parameters for adjusting acceleration, deceleration, and running curves.
Configuration of input and output signals for various terminals and functions.
Parameters for setting elevator functions like service floors and fire emergency modes.
Parameters for performing system tests such as running and braking force tests.
Parameters for advanced features like load cell auto-tuning and anti-nuisance.
Parameters for system timing, idle times, and energy-saving features.
Parameters for configuring keypad and operation panel displays and behavior.
Parameters controlling door operation, protection times, and states.
Parameters for setting various protection functions against overloads and phase losses.
Parameters used for fine-tuning the elevator's leveling accuracy.
Parameters for recording and displaying fault codes, subcodes, and historical data.
How fault codes and subcodes are displayed on the keypad and operation panel.
Methods for resetting faults via automatic, manual, or power-off procedures.
Classification of faults by severity and their corresponding handling.
Detailed table of fault codes, causes, solutions, and levels.
Daily inspection items for motor, cooling fan, environment, load, and voltage.
Periodic inspection items covering general, cables, peripherals, and circuits.
Information on service life and replacement of wear parts like fans and capacitors.
Guidelines for proper storage of the controller to maintain its condition.
Description of the attendant mode, its operation, and wiring.
Functionality for returning to base floor and firefighter operation during emergencies.
How the elevator lock function operates and its input/output wiring.
Details on system detection and indication of full-load or overload conditions.
Configuration for providing service to specific floors during set time periods.
Parameters and procedures for performing car call, random, and function tests.
System logic for detecting and mitigating nuisance calls based on load or light curtain.
How disability operation boxes enhance elevator accessibility.
Explanation and wiring for the Unintended Car Movement Protection function.
Procedures for periodically testing brake force and control system.
Overview of UPS and ARD schemes for emergency elevator evacuation.
Configuration for parallel control of two elevators and group control of multiple elevators.
Functionality for separate control of front and back doors on elevators.
Application of Safe Torque Off (STO) technology for safety during operation.
Scheme for emergency operation and dynamic testing using accessible panels.
General notes on CE marking and European safety directives.
Details on controller compliance with the CE Low Voltage Directive.
Information on electromagnetic compatibility requirements and EMC directives.
Guidelines for using shielded cables and proper system wiring practices.
Methods for addressing current leakage and selecting appropriate ELCBs.
Recommendations for selecting and installing residual current devices (RCDs).
Common EMC interference problems and their corresponding solutions.
Lists fundamental system parameters like control mode and command source.
Parameters for motor configuration, encoder settings, and auto-tuning.
Parameters for adjusting acceleration, deceleration, and running curves.
Configuration of input and output signals for various terminals.
Parameters for setting elevator functions like service floors and fire modes.
Parameters for performing system tests like running and braking force tests.
Parameters for advanced features like load cell auto-tuning and anti-nuisance.
Parameters for system timing, idle times, and energy-saving features.
Parameters for configuring keypad and operation panel displays and behavior.
Parameters controlling door operation, protection times, and states.
Parameters for setting various protection functions against overloads and phase losses.
Parameters used for fine-tuning the elevator's leveling accuracy.
Parameters for recording and displaying fault codes and historical data.
