GE IC693350-EK Processor/Control Module

Description

Real-World Use & Application Scenarios
In GE’s older 90-70 RX7i era, the IC698CPE010 family (not to be confused with IC693-series modules) typically occupied the CPU or high-feature peripheral role within backplane-based control cabinets. Modules like this are commonly deployed in mid-to-large automation projects where robust real-time processing, deterministic I/O interaction, and flexible networking are essential. Applications span discrete manufacturing, packaging lines, and process control environments where reliable local processing, memory resources, and platform compatibility drive stable operation. Retrofit and modernization projects often leverage these kinds of CPUs to preserve familiar GE programming tools while enabling improved communication interfaces and enhanced diagnostics. The result is smoother migrations, easier maintenance, and improved overall system reliability across GE control architectures.

Product Introduction & Positioning
This family member is designed to plug into GE’s backplane-based control cabinets (90-70 RX-era), providing CPU functionality and/or enhanced peripheral connectivity. It works in concert with I/O modules, memory, and communication interfaces to deliver a complete automation solution. The model suffix (EK, JD, etc.) typically reflects a revision level or configuration variant that may affect voltage, pinout, or supported interfaces. In practice, such a module is positioned for engineers who need a dependable processing core or a compatible expansion module within a GE backplane, supporting straightforward integration with existing GE software environments and hardware ecosystems.

Key Technical Features & Functional Benefits
Expect reliable CPU-centric performance suited for control logic execution, timing-critical tasks, and coordinated I/O operations. The module’s integration with the GE backplane and companion I/O modules helps deliver predictable timing and straightforward diagnostics. Common benefits include stable program execution, ease of maintenance within GE’s tooling, and a familiar hardware footprint that minimizes cabinet redesigns. Depending on the exact revision, there may be features such as enhanced memory, improved communication interfaces, or extended diagnostic capabilities that assist engineers in troubleshooting and extending the life of an aging control system.

Detailed Technical Specifications

• Model: IC693350-EK (example variant; revision may vary)
• Brand: GE Fanuc (90-30 RX-era family)
• Type: Processor/Control Module (CPU or CPU-support)
• Backplane Compatibility: GE 90-30 RX backplanes
• Memory/Storage: Onboard memory as per revision; RAM/flash sizes vary by version
• I/O Interface: Backplane-based data exchange with I/O modules
• Clock/CPU: GE-era processor architecture; performance dependent on revision
• Power Requirements: Backplane-supplied power (specifics depend on revision)
• Operating Temperature: Industrial range (typical 0°C to 60°C)
• Mounting: Rack or cabinet-mounted GE backplane slot
• Certifications: Region-specific industrial certifications
• Diagnostics: Status indicators and fault reporting aligned with GE backplane ecosystems
• Communications: Backplane communications with CPU and I/O modules

Related Modules or Compatible Units

• IC693UOD, IC693UAD I/O modules for expanded input/output
• IC693CHS012 RX-style racks/backplanes to host multiple GE modules
• IC693CPU-family CPUs for upgraded processing within the same platform
• IC694TBB032 terminal blocks and related cabling accessories
• Other GE 90-30 RX-era modules that pair with backplane-based control systems

Installation Notes & Maintenance Best Practices
Ensure proper backplane alignment and seating for the IC693350-EK in the GE cabinet, and verify compatibility with neighboring modules to avoid timing or bus contention issues. Maintain clean grounding and shielding practices to minimize EMI on signal paths. Keep a precise record of firmware or software revisions and back up project configurations before upgrades. Schedule periodic inspections of connectors and bus interfaces, and monitor diagnostic indicators to identify potential faults early. When expanding or replacing modules, confirm revision compatibility to preserve timing and communication integrity across the rack.