ProductPRODUCT
Featured products
Contact Us
- GE
- IC200UAL005
- VersaMax Microcontroller Processor
- USA
- 150 x 90 x 76 mm
- 0.6 kg
- Xiamen, China
- New & In Stock
- T/T, PayPal, Western Union
- 1 Year
- 1-3 Working Days
- DHL, UPS, TNT, FedEx and EMS.
- 24-Hour Service
- COO
- 19
Our advantage
Global Logistics
We have a 10-year logistics and express cooperation agreement, so our products can be shipped to any place in the world.
Brand new and original
Our products are imported in bulk from the place of origin. Because of the cooperative relationship, our products are all original and 100% new.
24-hour service
We provide 7*24 hours service to our customers. We will be there whenever you need us.
Price advantage
All our products are priced very favorably because we have our own warehouse and supply.
| Company Information | |||
| [email protected] | |||
| Mobile | +8615980777398 | ||
| +8615980777398 | |||
| 15980777398 |
Product Overview
The GE IC200UAL005 VersaMax Microcontroller Processor is a compact controller component designed for compatible GE VersaMax automation architectures. As a processor-level device, it provides the control and processing functions required to execute the user application, manage I/O data, coordinate communication, and support automated machine or process operations.
The IC200UAL005 is suitable for control applications where a compact programmable controller is required within a modular industrial automation environment. Its processor function places it at the center of the control architecture, receiving input information, executing programmed logic, and coordinating output and communication operations.
The supplied product information is:
- Manufacturer: GE
- Model: IC200UAL005
- Product Family: VersaMax
- Product Type: Microcontroller Processor
- Dimensions: 150 × 90 × 76 mm
- Weight: 0.6 kg
- Primary Function: Control Processing
- Application: Industrial Automation / Machine Control
- System Role: Controller / Processor
The IC200UAL005 should be installed within a compatible VersaMax system configuration. Proper power, I/O, communication, grounding, environmental conditions, and application configuration should be verified before commissioning.
Technical Specifications
| Parameter | Specification |
|---|---|
| Manufacturer | GE |
| Product Family | VersaMax |
| Model Number | IC200UAL005 |
| Product Type | Microcontroller Processor |
| Dimensions | 150 × 90 × 76 mm |
| Weight | 0.6 kg |
| Primary Function | Programmable Control Processing |
| Application | Industrial Automation |
| System Role | Processor / Controller |
| Installation Type | Modular Control System |
| Maintenance Type | Installation / Commissioning / Troubleshooting |
The dimensions and weight are based on the product information supplied.
Function and Working Principle
The IC200UAL005 functions as the processing element of a compatible VersaMax automation system.
A simplified control sequence is:
Field Inputs
↓
I/O Modules
↓
IC200UAL005 Processor
↓
User Application Logic
↓
Output Commands
↓
Actuators / Field Devices
The processor continuously evaluates input data and executes the configured application program.
Depending on the control application, this can include:
- Boolean logic
- Sequencing
- Interlocking
- Timing
- Counting
- Process calculations
- Machine control
- Alarm handling
- Communication management
- I/O data processing
The processor therefore acts as the central decision-making element of the control system.
Role in VersaMax Automation Systems
A typical control architecture can be represented as:
Sensors
↓
VersaMax Input Modules
↓
IC200UAL005
↓
Control Logic
↓
VersaMax Output Modules
↓
Actuators
The processor may also interact with communication devices and supervisory systems.
A broader architecture can be represented as:
Operator / Supervisory System
↕
Industrial Communication Network
↕
IC200UAL005
↕
VersaMax I/O
↕
Field Devices
This arrangement allows the processor to coordinate machine or process operation while exchanging information with other automation equipment.
Processor Operating Principle
The processor typically follows a repeated control cycle.
A simplified scan sequence is:
1. Read Inputs
The controller obtains current input information from the connected I/O system.
2. Execute Application Logic
The processor evaluates the user program using the input information.
3. Update Outputs
Calculated output states are transferred to the appropriate output devices.
4. Handle Communications
The processor manages applicable communication tasks and system data exchange.
5. Diagnostics
The system evaluates operating conditions and detects configured or hardware-related faults.
This cycle repeats continuously while the controller is operating.
Industrial Applications
Machine Automation
The IC200UAL005 can be used in machine-control applications requiring programmable sequencing and I/O management.
Typical applications include:
- Packaging machinery
- Assembly systems
- Material handling
- Conveyor systems
- Production machinery
Process Equipment
The processor can coordinate pumps, valves, motors, sensors, and other process equipment within compatible automation systems.
Material Handling
Programmable logic can be used to coordinate conveyors, positioning devices, sensors, and motor control equipment.
Building and Utility Systems
Compact controllers can be used for equipment monitoring, sequencing, and automated control.
OEM Machinery
The processor architecture can be suitable for machine builders requiring a programmable control platform.
Installation Guide
1. Verify the Processor
Before installation, confirm:
GE IC200UAL005
VersaMax Microcontroller Processor
Check:
- Model number
- Physical condition
- Housing
- Mounting interface
- Connector condition
- System compatibility
Do not install a processor with visible mechanical damage.
2. Review the Control-System Architecture
Before replacing or installing the processor, document:
- Existing processor location
- Connected I/O modules
- Power supply arrangement
- Communication interfaces
- Network connections
- Application configuration
- Controller operating state
This information is important when replacing an existing processor.
3. Back Up the Application
If the IC200UAL005 is replacing an existing controller, ensure that the applicable control application and configuration have been preserved according to the site’s approved backup procedure.
The backup should include, where applicable:
- User program
- Hardware configuration
- I/O assignments
- Communication configuration
- Setpoints
- Parameters
- Retentive data requirements
A processor replacement should not begin until the required application information has been secured.
4. Place the System in a Safe State
Stopping or replacing a controller can affect connected machinery.
Before installation:
- Identify all controlled equipment.
- Place machinery in a safe condition.
- Stop affected automatic sequences.
- Disable outputs as required.
- Follow site lockout and maintenance procedures.
- Verify that unexpected machine movement cannot occur.
5. Inspect the Mounting Area
Check the installation location for:
- Dust
- Moisture
- Excessive heat
- Vibration
- Corrosion
- Loose hardware
- Damaged connectors
The processor should be mounted securely and protected from environmental conditions outside the approved system requirements.
6. Install the Processor
Position the IC200UAL005 correctly within the compatible VersaMax system.
Verify:
- Correct orientation
- Correct mounting location
- Secure mechanical engagement
- Proper connector alignment
- Correct adjacent module arrangement
Never force the module into its mounting position.
7. Verify Power Connections
Before energizing the controller, verify the applicable power connections.
Check:
- Supply wiring
- Polarity where applicable
- Terminal tightness
- Protective grounding
- Power distribution
- Supply voltage
Incorrect power connections can cause immediate equipment damage.
8. Verify I/O Connections
Check the connected I/O modules and field wiring.
Verify:
- Input module connections
- Output module connections
- Module positions
- Field device wiring
- Common connections
- Terminal identification
A processor can operate normally while a wiring error causes the controlled machine to malfunction.
9. Verify Communication Connections
If the controller is integrated into a larger network, inspect:
- Communication cables
- Network connectors
- Addressing
- Communication parameters
- Network topology
- Connected devices
Communication faults should be investigated separately from processor execution faults.
Commissioning Procedure
Step 1 — Visual Inspection
Inspect the processor and surrounding system.
Step 2 — Verify Power
Confirm that the control power supply is within the applicable system requirements.
Step 3 — Check Module Configuration
Verify the expected I/O arrangement.
Step 4 — Load or Restore the Application
Restore the correct control program and configuration using the approved engineering procedure.
Step 5 — Check Diagnostics
Review processor and system diagnostic indications.
Step 6 — Test Inputs
Confirm that field inputs are correctly detected.
Step 7 — Test Outputs
Test outputs under controlled conditions.
Step 8 — Test Communications
Verify communication with connected devices.
Step 9 — Test Control Logic
Run the application in a controlled commissioning state.
Step 10 — Return to Automatic Operation
Only after all tests are satisfactory should the system be returned to normal automatic operation.
Troubleshooting Guide
Problem 1: Processor Does Not Start
Possible causes include:
- Power supply problem
- Incorrect power connection
- Processor installation problem
- Hardware fault
- System configuration problem
Diagnostic Procedure
- Verify control power.
- Check wiring.
- Inspect processor mounting.
- Check diagnostic indicators.
- Verify system configuration.
- Investigate connected hardware.
Do not replace the processor before confirming the power supply.
Problem 2: Processor Starts but Application Does Not Run
Possible causes:
- Incorrect operating mode
- Application configuration issue
- Program problem
- Configuration mismatch
- Startup fault
- I/O configuration problem
Check the processor status and diagnostic information first.
Problem 3: Processor Repeatedly Resets
Potential causes include:
- Unstable power supply
- Electrical noise
- Hardware fault
- Configuration problem
- Environmental stress
- System-level fault
Recommended Procedure
- Monitor control power.
- Inspect power wiring.
- Check for loose connections.
- Review diagnostics.
- Inspect the cabinet environment.
- Check connected modules.
Repeated processor resets should not be ignored because they can cause unpredictable machine behavior.
Problem 4: Inputs Are Not Updating
Possible causes:
- Input module fault
- Field wiring problem
- Sensor failure
- I/O configuration error
- Processor communication problem
- Power problem
Determine whether the problem affects one input, one module, or the entire I/O system.
Problem 5: Outputs Do Not Operate
Possible causes:
- Application logic
- Output module fault
- Field wiring
- Output power supply
- Interlock condition
- Communication problem
A non-operating output does not automatically indicate processor failure.
Problem 6: Communication Failure
Possible causes:
- Network cable problem
- Incorrect configuration
- Address conflict
- Communication device failure
- Processor configuration issue
- Network infrastructure problem
Check the physical network before modifying software configuration.
Problem 7: Controller Runs but Machine Does Not Operate Correctly
Potential causes:
- Incorrect application program
- Incorrect I/O mapping
- Incorrect field wiring
- Faulty sensor
- Faulty actuator
- Incorrect parameter
- Interlock condition
Compare actual I/O states with the expected control sequence.
Problem 8: I/O Configuration Mismatch
If the processor reports a configuration-related fault, verify:
- Module order
- Module types
- Module positions
- I/O assignments
- Configuration parameters
A physical module arrangement that differs from the application configuration can prevent normal operation.
Problem 9: Controller Becomes Unstable After Maintenance
Possible causes:
- Loose module connection
- Power wiring disturbance
- Damaged connector
- Incorrect configuration
- Network cable problem
- Environmental disturbance
Review everything that was changed during maintenance.
Problem 10: Processor Replacement Does Not Solve the Problem
If the fault remains after processor replacement, investigate:
- Power supply
- I/O modules
- Communication network
- Field wiring
- Sensors
- Actuators
- Application program
- Configuration
The processor should be treated as one element of the complete automation system rather than the automatic cause of every control problem.
Diagnostic Strategy
A practical troubleshooting path is:
Power Supply
↓
IC200UAL005 Processor
↓
I/O System
↓
Field Wiring
↓
Sensors / Actuators
and, separately:
IC200UAL005
↓
Communication Network
↓
Supervisory / Remote Devices
This approach allows technicians to isolate whether a fault originates from the controller, I/O, field equipment, or communication infrastructure.
Processor Replacement Procedure
Phase 1 — Preparation
- Confirm GE IC200UAL005.
- Verify the replacement processor.
- Back up the existing application.
- Record the hardware configuration.
- Document communication settings.
- Identify affected machinery.
- Place the equipment into a safe state.
Phase 2 — Removal
- Disconnect power according to the approved procedure.
- Identify all connected interfaces.
- Remove communication connections as required.
- Remove the existing processor carefully.
- Inspect the mounting interface.
Phase 3 — Installation
- Inspect the replacement IC200UAL005.
- Align the processor correctly.
- Install the processor.
- Confirm mechanical engagement.
- Reconnect applicable interfaces.
- Verify power connections.
Phase 4 — Configuration
- Restore the correct application.
- Verify I/O configuration.
- Verify communication parameters.
- Confirm controller settings.
- Check system diagnostics.
Phase 5 — Commissioning
- Energize the system.
- Confirm processor startup.
- Check diagnostics.
- Verify inputs.
- Test outputs.
- Verify communications.
- Test control sequences.
- Return the system to normal operation.
Preventive Maintenance
| Maintenance Item | Recommended Action |
|---|---|
| IC200UAL005 | Inspect physical condition |
| Power Supply | Check stability |
| Connectors | Inspect engagement |
| I/O Modules | Check module condition |
| Communication Network | Check connections |
| Application | Maintain verified backup |
| Configuration | Document changes |
| Cabinet | Inspect temperature and cleanliness |
| Grounding | Verify according to system design |
| Diagnostics | Review recurring faults |
| Field Wiring | Inspect terminals |
| Maintenance Records | Document service activities |
Environmental Considerations
Temperature
Excessive heat can shorten electronic component life and increase the possibility of processor instability.
Dust
Dust accumulation can affect connectors, cooling, and cabinet cleanliness.
Moisture
Moisture and condensation can cause corrosion or electrical leakage.
Vibration
Continuous vibration can loosen connections or damage mechanical interfaces.
Electromagnetic Interference
High-power motors, variable-frequency drives, contactors, and switching equipment can create electrical noise.
Good cabinet layout and appropriate cable routing help minimize interference.
Common Installation Mistakes
Installing the Wrong Processor
Always verify the complete model number before installation.
Failing to Back Up the Application
A hardware replacement without a verified application backup can significantly increase commissioning time.
Incorrect I/O Configuration
The physical I/O arrangement must correspond to the application configuration.
Incorrect Communication Parameters
A processor can operate normally while communication with external equipment fails because of incorrect configuration.
Loose Connections
A loose power or communication connection can cause intermittent system faults.
Ignoring Power Quality
Processor instability may originate from the control power supply rather than the processor itself.
Key Advantages
- Compact VersaMax processor architecture
- Centralized programmable control
- Suitable for industrial automation applications
- Supports coordinated I/O processing
- Can manage machine sequencing and control logic
- Supports integration with compatible automation equipment
- Supplied dimensions of 150 × 90 × 76 mm
- Supplied weight of 0.6 kg
- Suitable for OEM and industrial control applications
- Provides a central processing point for compatible VersaMax systems
Technical FAQs
What is the GE IC200UAL005?
The GE IC200UAL005 is a VersaMax Microcontroller Processor used as the processing element of a compatible industrial automation system.
What is the main function of IC200UAL005?
Its primary function is to execute the control application, process I/O information, coordinate control logic, and manage applicable system communication.
What are the dimensions of IC200UAL005?
The supplied dimensions are 150 × 90 × 76 mm.
What is the weight?
The supplied weight is 0.6 kg.
What happens if the processor loses power?
The controller can stop executing its application, potentially causing connected outputs and controlled equipment to enter their configured fault or safe states.
Why does a controller repeatedly reset?
Possible causes include unstable power, loose wiring, electrical interference, hardware faults, configuration problems, or connected-system issues.
Why are inputs not updating?
Possible causes include I/O module problems, field wiring faults, sensor failures, configuration errors, or communication problems.
Why do outputs not operate?
Check application logic, interlocks, output modules, field wiring, output power, and the processor’s operating state.
Should the processor be replaced when a control fault occurs?
No. Power, I/O, field wiring, communication, application logic, and configuration should be checked before replacing the processor.
What should be backed up before processor replacement?
Where applicable, preserve the application program, hardware configuration, I/O assignments, communication configuration, parameters, and other required controller data.
Why is I/O configuration important?
The processor needs the correct relationship between the physical I/O hardware and the application configuration. A mismatch can produce configuration faults or incorrect control behavior.
How can processor communication faults be diagnosed?
Check physical network connections first, followed by addressing, configuration, communication parameters, and the status of connected devices.
Conclusion
The GE IC200UAL005 VersaMax Microcontroller Processor is a compact control processor designed for compatible VersaMax automation architectures. With supplied dimensions of 150 × 90 × 76 mm and a weight of 0.6 kg, it can serve as the central processing element responsible for executing application logic and coordinating I/O and communication functions.
Reliable operation depends on the complete control system. Stable power, correct I/O configuration, secure module connections, proper communication settings, verified application software, and healthy field devices all contribute to dependable controller performance.
During installation or replacement, technicians should first secure the existing application and configuration, place the controlled equipment into a safe condition, verify the hardware arrangement, and then carefully install and commission the processor. During troubleshooting, a systematic approach that starts with power and progresses through the processor, I/O, communication network, and field devices is more effective than immediately replacing hardware.
For long-term reliability, preventive maintenance should include inspection of power quality, connectors, I/O modules, communication wiring, cabinet conditions, application backups, and recurring diagnostic events.