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Loading...What to do if I encounter a hardware error of the module in Mitsubishi I/O Systems?
To resolve a hardware error with your Mitsubishi I/O Systems module, first, switch the power off and then on again. If the error persists after this, it may indicate a module failure. In such a case, it's recommended to consult with the Mitsubishi office for further assistance.
Why am I getting an overflow error on my Mitsubishi Controller?
An overflow error in your Mitsubishi Controller can occur if: 1) When a linear counter is in use, an add pulse is input beyond the current value of 2147483647. 2) When a linear counter is in use, a subtract pulse is input below the current value of -2147483647. To resolve this, preset the controller to clear the overflow error.
What to do if the input signal is not turned OFF on my Mitsubishi MELSEC Q?
If the input signal on your Mitsubishi Controller isn't turning OFF, it could be due to leakage current from the input switch. To resolve this, connect an appropriate resistor to lower the voltage across the input module terminals below the OFF voltage value. For AC input, it's recommended to use a CR constant with 0.1 to 47 F + 47 to 120 (1/2W). Another cause might be a limit switch with a neon lamp, in which case you can apply the same resistor solution or create an independent display circuit. Finally, leakage current from the wiring cable's line capacity could be the issue. The same resistor fix applies here, but note that leakage current isn't generated when the power supply is located on the input equipment side.
What to do if an invalid value is set in the offset/gain setting in Mitsubishi I/O Systems?
To resolve the issue of an invalid value set in the offset/gain setting, perform the offset/gain setting again for all of the channels where the error occurred. If the error occurs again, the module may be malfunctioning and it is recommended to consult your local Mitsubishi representative, explaining the detailed description of the problem.
How to resolve issues when the connected thermocouple or compensation conductor differs from the setting in Mitsubishi I/O Systems?
If the connected thermocouple or compensation conductor differs from the setting, set the thermocouple type connected to the switch 1 or 2 in the intelligent function module switch setting of GX Developer.
What to do if conversion is made with another thermocouple set after setting of the offset/gain value in Mitsubishi I/O Systems?
If conversion is made with another thermocouple set after setting of the offset/gain value, make offset/gain setting again after changing the thermocouple.
What to do if the G(P).OGSTOR instruction was executed consecutively on Mitsubishi Controller?
Execute the G(P).OGSTOR instruction only once for one module. At the time of offset/gain setting, write a set value only once at one time.
How to solve scaling upper/lower limit value set outside the range of –32000 to 32000 on Mitsubishi Controller?
Correct the scaling upper/lower limit value within the range of –32000 to 32000.
How to resolve thermocouple type setting issues in Mitsubishi I/O Systems?
To resolve an issue where the thermocouple type is set with a value other than 0 to 7, set a correct parameter value in the parameter setting of GX Developer.
How to solve scaling lower limit value equal to or greater than the scaling upper limit value on Mitsubishi Controller?
Set CH scaling upper/lower limit value so that the scaling upper limit value is greater than the scaling lower limit value.
General| Series | MELSEC Q Series |
|---|---|
| Type | Modular PLC |
| Programming Software | GX Works2, GX Works3 |
| Category | Programmable Logic Controller (PLC) |
| I/O Modules | Digital I/O, Analog I/O, High-Speed Counter, Positioning |
| Communication | Ethernet, CC-Link |
| Programming Languages | Ladder Logic, Structured Text, Function Block Diagram, Sequential Function Chart, Instruction List |
| Memory | Flash Memory |
| I/O Points | Up to 4096 points (expandable with additional modules) |
| Power Supply | AC or DC power supply options available, depending on the base unit and modules. |
| Mounting | DIN rail mounting |
| Operating Temperature | 0°C to 55°C |
| Storage Temperature | -25°C to 75°C |
| Humidity | 5% to 95% (non-condensing) |
| Vibration Resistance | 10 to 57 Hz, 0.075mm amplitude |
| Weight | Varies depending on the module, from a few grams to several kilograms. |
| Shock Resistance | 147 m/s² (3 times each in X, Y, Z directions) |
Describes the features of the C Controller module, including VxWorks, standard ROM, large data storage, and I/O control capabilities.
Explains device configuration, development environment connection, and system configuration overview for C Controller systems.
Details the base units, extension cables, power supply modules, and other components used with the C Controller module.
Provides the general specifications of the C Controller module, including operating ambient temperature, humidity, vibration, and shock resistance.
Lists the functions of the C Controller module, such as I/O module access, remote operation, and self-diagnostic functions.
Explains critical handling precautions for the C Controller module, including environment, installation, and connection safety.
Explains how base units and slots relate to I/O number assignment for the C Controller module.
Explains user memories (Standard ROM, Work RAM, Battery-backed-up RAM, CompactFlash) and system memory.
Details the product requirements for the development environment, including personal computer specifications and operating system.
Explains common operations for utilities, including starting, exiting, setting connection targets, and displaying help screens.
Outlines bus interface functions and MELSEC data link functions supplied with SW PVC-CCPU for accessing modules and CPUs.
Defines the multiple CPU system concept, explaining how multiple CPU modules work together for enhanced performance.
Explains system configuration for multiple CPU systems, including device compatibility and connection methods.
Details the mounting positions of CPU modules (C Controller, Basic QCPU, High Performance QCPU, Motion CPU) in a multiple CPU system.
Explains data communication methods using MELSEC data link functions between CPU modules, including auto refresh and shared memory.
Lists parameters required for multiple CPU system operation, highlighting setup necessity and consistency checks in the C Controller setting utility.
Provides specific precautions for using AnS series modules, including applicable I/O and special function modules and control CPU settings.
Provides fundamental steps for troubleshooting, including visual checks, fault verification, and narrowing down the error cause.
