VMIVME-017807-413000

Description

Detailed Parameter Table

VMIVME-017807-413000

Product Introduction

The VMIVME-017807-413000 is a legacy high-precision analog input module developed by GE for VMEbus-based industrial control systems—tailored for facilities with mature infrastructure (e.g., older power plants, refineries) that rely on VME technology for critical process monitoring. Unlike the Mark VIe series’ IS200ACLEH1AAA (optimized for modern turbine control), the VMIVME-017807-413000 is designed for legacy VMEbus architectures, offering 16-channel analog input capabilities with industry-leading ±0.02% accuracy for 4–20 mA signals—critical for maintaining performance in systems where full modernization is not yet feasible.

As a cornerstone of GE’s legacy VME ecosystem, the VMIVME-017807-413000 addresses a key challenge for plant operators: preserving the reliability of existing VME-based control systems while ensuring compatibility with newer tools. It integrates seamlessly with GE’s Proficy Machine Edition software (in legacy mode), enabling unified monitoring of both VME modules (like the VMIVME-017807-413000) and modern Mark VIe components (like the IS200ACLEH1AAA) during phased system upgrades. For industries with long asset lifecycles (e.g., nuclear power, oil & gas), this module extends the value of legacy infrastructure by 10+ years, avoiding costly premature replacements.

Core Advantages and Technical Highlights

Exceptional Measurement Accuracy for Legacy Systems: The VMIVME-017807-413000’s ±0.02% accuracy (4–20 mA) sets it apart from most legacy analog modules—critical for applications where precision cannot be compromised. In a 30-year-old coal-fired power plant, the module monitors boiler feedwater pressure (via 4–20 mA transmitters) with a resolution of 0.0005 psi, enabling the VME controller (VMIVME-7750) to maintain pressure within ±0.1 psi of setpoint. This accuracy matches the modern IS200ACLEH1AAA’s performance, ensuring legacy systems meet current operational standards without full replacement.

VME64 Compatibility for Seamless Legacy Integration: Unlike generic analog modules, the VMIVME-017807-413000 adheres strictly to VME64 standards, supporting 32-bit data bus and 33 MHz speeds—ensuring plug-and-play integration with existing VME racks (e.g., GE’s VMIVME-6000 series). In a refinery’s distillation unit, it replaces a failed 12-bit VME analog module without requiring backplane modifications or controller reconfiguration, minimizing downtime to <4 hours (vs. 24+ hours for non-VME-compatible alternatives). Its 6U form factor also fits standard VME racks, eliminating the need for custom mounting hardware.

Dual Filtering for Noise Immunity in Aging Infrastructure: Legacy industrial facilities often have outdated electrical systems prone to EMI— a challenge the VMIVME-017807-413000 addresses with dual filtering. Its hardware low-pass filter (10 Hz cutoff) suppresses high-frequency noise from aging motors, while software-configurable digital filters (0.1–100 ms) eliminate drift from temperature fluctuations in old control cabinets. In a chemical plant’s legacy reactor system, this reduces signal noise by 70% compared to the original 1990s-era analog modules, preventing false alarms and improving process stability.

Phased Upgrade Compatibility with Modern Systems: A unique advantage of the VMIVME-017807-413000 is its ability to coexist with modern Mark VIe components during system transitions. For example, in a nuclear power plant upgrading from VME to Mark VIe, the module’s data is routed to the IS200CPUH1AAA (Mark VIe controller) via a VME-to-Ethernet gateway, enabling side-by-side monitoring of legacy (VMIVME-017807-413000) and modern (IS200ACLEH1AAA) analog inputs. This phased approach reduces upgrade costs by 40% compared to a full system rip-and-replace.

Typical Application Scenarios

In a legacy nuclear power plant’s auxiliary cooling system, the VMIVME-017807-413000 serves as the primary analog input module for a VME-based control system. It monitors 8 differential channels (coolant temperature, pressure, and flow via 4–20 mA sensors) and 8 single-ended channels (pump vibration via ±5 V accelerometers). The module’s ±0.02% accuracy ensures coolant temperature is maintained within ±0.5°C of the safety threshold, while its SIL 2 compliance meets nuclear regulatory standards. During the plant’s phased upgrade to Mark VIe, the VMIVME-017807-413000’s data is integrated with the IS200ACLEH1AAA’s turbine data via a gateway, enabling unified operator visibility.

In an offshore oil platform’s production control system (installed in 2005), the VMIVME-017807-413000 monitors wellhead pressure and flow rates. Its VME64 compatibility allows it to replace a failed legacy module without modifying the existing VMIVME-6500 controller, reducing downtime from 3 days (estimated for a full upgrade) to 8 hours. The module’s reverse polarity protection prevents damage from incorrect sensor wiring—critical for offshore environments where maintenance access is limited. Its hardware filter also suppresses EMI from platform generators, ensuring stable pressure readings in harsh marine conditions.

In a municipal wastewater treatment plant’s legacy pump control system, the VMIVME-017807-413000 monitors 16 pump discharge pressure sensors (4–20 mA). The plant uses the module alongside a Mark VIe IS200ACLEH1AAA (for new filtration systems), with both modules’ data displayed in Proficy Machine Edition. The VMIVME-017807-413000’s software-configurable filters (set to 10 ms) eliminate pressure spikes from pump startup, preventing unnecessary pump shutdowns and improving treatment efficiency by 12% compared to the original unfiltered module.

VMIVME-017807-413000

Related Model Recommendations

VMIVME-7750: GE legacy VME controller—paired with VMIVME-017807-413000 to process analog input data in VME-based systems.

IS200ACLEH1AAA: Mark VIe analog input module—modern counterpart to VMIVME-017807-413000; used alongside it during phased upgrades.

VMIVME-6500: Compact VME controller—cost-effective alternative to VMIVME-7750 for small-scale legacy systems using VMIVME-017807-413000.

VMIVME-3120: VME-to-Ethernet gateway—enables data exchange between VMIVME-017807-413000 and Mark VIe controllers (e.g., IS200CPUH1AAA).

IC697CMM742-LL: RX3i communication module—routes VMIVME-017807-413000 data to RX3i SCADA systems via Modbus TCP.

VMIVME-017808-413000: 32-channel variant of VMIVME-017807-413000—ideal for large legacy systems with high I/O density.

IS200PWRH1AAA: Mark VIe power supply—powers VME-to-Mark VIe gateways during upgrades, complementing VMIVME-017807-413000’s backplane power.

Proficy Machine Edition v8.0+: GE’s HMI/SCADA software—configures VMIVME-017807-413000 (legacy mode) and IS200ACLEH1AAA for unified monitoring.

Installation, Commissioning and Maintenance Instructions

Installation preparation for the VMIVME-017807-413000 requires mounting it in a 6U VMEbus rack (compatible with GE’s VMIVME-6000/7000 series). Tools needed include a torque screwdriver (0.8–1.2 N·m), VMEbus alignment tool, and precision multimeter. Verify the VME backplane provides stable ±5 V DC / ±12 V DC (check ripple voltage <50 mV) and that the rack is grounded to <1 Ω (critical for EMI protection). Note: Never mix 3U and 6U modules in the same VME slot group—this will damage the backplane and VMIVME-017807-413000.

Commissioning steps: (1) Align the module’s VME connectors with the backplane, slide into the slot, and secure with captive screws; (2) Power on the VME rack—confirm the module’s “PWR” and “BUS OK” LEDs are green (indicates backplane communication); (3) Launch GE VME Configuration Tool, detect the VMIVME-017807-413000, and configure channels (set input type, filtering, and gain via software); (4) Calibrate inputs using a NIST-traceable signal generator (4 mA = 0% full scale, 20 mA = 100%); (5) Test signal integrity: inject a 12 mA test signal and confirm module output is within ±0.0024 mA (meets ±0.02% accuracy specs).

Maintenance suggestions: Conduct monthly checks via the VME Configuration Tool—monitor channel drift (should not exceed ±0.05% of full scale) and diagnostic flags (e.g., overvoltage). Every 6 months, clean the module’s VME connectors with GE-approved contact cleaner (to prevent corrosion in humid environments) and verify filter functionality. If a channel fails, use the tool’s “channel disable” feature to isolate the fault and route data to a spare channel (no need to power down the VME rack). Annual maintenance includes firmware validation (via VMEbus) and SIL 2 compliance verification—critical for legacy safety systems. Replace only with GE-authorized VMIVME-017807-413000 spares—third-party modules may not meet VME64 standards or accuracy requirements.

Service and Guarantee Commitment

The VMIVME-017807-413000 is backed by GE’s 36-month manufacturer warranty—covering defects in measurement accuracy, VMEbus communication, and filter performance. Recognizing its role in legacy systems, GE provides extended availability of spare parts for 15 years post-production—longer than the IS200ACLEH1AAA’s 10-year spare support—ensuring long-term reliability for facilities with extended asset lifecycles.

GE offers specialized legacy VME support for the VMIVME-017807-413000, with technicians trained in both VMEbus and Mark VIe integration. The GE Legacy Support Portal includes exclusive resources: VMIVME-017807-413000 VMEbus alignment guides, calibration templates, and phased upgrade workflows (e.g., integrating with IS200ACLEH1AAA). Extended service contracts (1–5 years) include annual preventive maintenance (connector cleaning, filter calibration) and priority technical support—ensuring the VMIVME-017807-413000 maintains reliable performance in legacy systems, even as facilities transition to modern Mark VIe architectures.