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100-655112-000 - CMC Electronics HUD Mounting Tray Assembly for Cockpit 4000 Systems
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100-655077-000 - CMC Electronics CMA-5000 Integrated Avionics Computer for Cockpit 4000 Systems

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100-655077-000 – CMC Electronics CMA-5000 Integrated Avionics Computer

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The CMC Electronics 100-655077-000 is a flight-critical, high-performance line replaceable unit (LRU) that acts as the primary hardware and processing foundation for the Cockpit 4000 integrated avionics suite. Designated as the CMA-5000 Integrated Avionics Computer (IAC), this multi-core digital processing platform aggregates flight management, weapon system computation, primary navigation metrics, HUD driver electronics, and digital multi-function display (MFD) processing within a single, highly ruggedized chassis. Engineered for military advanced jet trainers, intelligence-surveillance-reconnaissance (ISR) aircraft, and light attack airframes, the 100-655077-000 manages the high-bandwidth data fusion loops required to convert raw telemetry into real-time operational flight situational displays.

Manufactured by CMC Electronics (Esterline), the CMA-5000 leverages a modular open-system architecture (MOSA) using standard 6U CompactPCI (cPCI) carrier cards equipped with dual PMC slots. The system features a high-performance 1.1 GHz Freescale PowerPC microprocessor paired with large flash and RAM configurations, a dedicated hardware-partitioned FMS/GPS engine, and certified OpenGL graphics hardware accelerators. Operating under a civil-certified real-time operating system (RTOS), this computing hub enforces complete space and time partitioning. This structural configuration prevents low-criticality non-development flight tracking applications from corrupting safety-of-flight primary flight display (PFD) symbol generation loops, ensuring full adherence to civil airworthiness certification baselines.

The CMC Electronics 100-655077-000 is a vital element for keeping a modern multi-role aircraft mission-ready and fully airworthy under strict international regulatory guidelines. Built to execute continuous automatic background test sequences, its processing framework guarantees ultra-low signal latency while providing robust resistance against high-altitude atmospheric radiation and lightning-induced voltage surges. For procurement directors, defense aviation logistical wings, and military MRO engineers servicing frontline pilot training configurations, acquiring this trace-certified rotable master computer ensures seamless line-bus synchronization and eliminates the data dropouts or intermittent tracking losses linked to degraded or unverified avionics hardware.

Key Features

  • Modular Open System Architecture (MOSA): Built upon standard 6U CompactPCI and PMC configurations to optimize component lifecycle tracking and enable simplified third-party system expansion.

  • Hardware & Software Spatial Partitioning: Enforces strict execution boundaries between mission manager functions and safety-critical primary navigation displays to satisfy civil flight requirements.

  • Integrated GNSSA Core Daughter Card: Utilizes a high-precision, embedded CMC global navigation satellite module for localized position updates and blended FMS navigation tracking.

  • Multi-Bus High-Bandwidth Interface: Coordinates and translates digital data streams simultaneously across complex MIL-STD-1553B, ARINC 429, Ethernet, RS-422, and analog-discrete wire networks.

  • Advanced Multi-Channel Graphics Core: Equipped with certified OpenGL processing engines to handle real-time raster video overlays, HUD stroke generation, and digital moving map graphics.

  • Ruggedized Environmental Housing: Enclosed within an ARINC 600 5MCU chassis optimized for passive conduction cooling to the shell perimeter, removing reliance on aircraft forced air.

Technical Specifications

  • Part Number: 100-655077-000

  • Component Type: CMA-5000 Integrated Avionics Computer (IAC)

  • OEM Manufacturer: CMC Electronics Inc. (CAGE Code: 38441 / Esterline)

  • Avionics Suite Baseline: Cockpit 4000 System Architecture

  • Processor Architecture: 1.1 GHz PowerPC 6U cPCI Master Carrier Board Configuration

  • Memory Architecture: 512MB RAM, 256MB Flash, 8MB Boot Flash, 512KB Non-Volatile RAM (NVRAM)

  • Operating System Environment: Green Hills INTEGRITY RTOS (or equivalent hardware partitioned configuration)

  • Interface Channel Capacity: 42x ARINC 429 Inputs, 22x ARINC 429 Outputs, 3x MIL-STD-1553B Buses, 4x External Ethernet Links, 4x Composite Video Inputs, 3x Composite Video Outputs, 4x RGB Outputs, 95x Combined Configurable Discrete Channels

  • Chassis Form Factor: 5MCU Standard ARINC 600 Specification

  • Interface Connector Profile: ARINC 600 Size 3 Rear Shell Footprint

  • Power Parameters: +28 VDC Nominal Input; 300 Watts Maximum Operational Load

  • Cooling Interface: Convection Cooling via Heavy Structural Extruded Chassis Fins and Self-Contained Internal Fans

  • Software Compliance Standard: RTCA DO-178B Level A / B Capabilities

  • Hardware Certification Standard: RTCA DO-254 / DO-160D / MIL-STD-810E / MIL-STD-461

  • Certification Status: Airworthiness Release Eligible Traceability Profile

Aircraft Compatibility

  • Military Trainers & Light Attack Fleets: Beechcraft T-6B Texan II, Beechcraft T-6C, Beechcraft AT-6 Light Attack Aircraft.

  • Advanced Jet & Armed Reconnaissance Airframes: BAE Systems Hawk Mk51 / Mk51A, Hawk Mk66; KAI (Korea Aerospace Industries) KT-1C, KT-1T, KT-1P Series; IOMAX Archangel Block 3 Border Patrol Aircraft.

  • Note: Final component installation compliance, serial-number block variations, and active baseline flight management software configuration numbers must be verified strictly by referencing the specific airframe Illustrated Parts Catalog (IPC), active Wiring Diagram Manuals (WDM), or applicable military tech-order documentation.

Applications

  • Primary Flight Deck Synthesis: Centralized processing engine for primary flight display (PFD) symbol generation, engine instrumentation crew alerting systems (EICAS), and digital moving maps.

  • Weapons Delivery & Target Aiming: Executing live and simulated ballistic calculations across Air-to-Air and Air-to-Ground master modes (including CCIP, CCRP, and Dive Toss tracking metrics).

  • FMS and GPS Navigation Management: Providing real-time, multi-sensor blended navigation calculations for steerpoint arrays, approach vectors, and specialized tactical search-and-rescue (SAR) patterns.

Why Choose 100-655077-000?

Installing a genuine, trace-certified CMC Electronics 100-655077-000 core computer is vital to keeping high-performance aircraft safely airworthy and clear of critical glass-cockpit failures. Substandard or unverified rotable processors are highly vulnerable to localized data-bus timing jitter, memory corruption, or phase-locked loop tracking decay when exposed to rapid thermal gradients and high-G maneuvers. If an un-certified avionics core stutters or drops out in mid-flight, it can cause immediate freezing of flight deck displays, uncommanded loss of the primary HUD driver loop, and immediate dropout of the master flight management system. Sourcing a fully traceable, certified 100-655077-000 unit guarantees perfect cross-backplane data mapping, providing absolute software integrity and continuous mission safety throughout demanding low-altitude profiles.

The electronic operation of the CMC Electronics 100-655077-000 relies on the principles of hardware-enforced spatial partitioning and asynchronous digital multiplex deterministic processing within an environment exposed to severe high-frequency interference. The system's processing core architecture utilizes an anisotropic multi-tiered backplane designed to segregate its internal dual 32-bit/66MHz PCI buses. This configuration guarantees that high-rate data transfers from the OpenGL graphics accelerator boards cannot cause resource starvation on the primary FMS processor matrix. Positional parameters from the embedded GNSSA daughter card are continuously processed through dynamic Kalman filter loops, tracking spatial vectors and velocity variations in microsecond intervals.

To maintain total signal isolation and prevent data skew across extensive multi-point runs, the system relies on high-speed superheterodyne differential transceivers on the ARINC 429 channels and high-linearity transformers on the MIL-STD-1553B connections. This layout eliminates common-mode noise and limits localized cable line capacitance. When video feeds from active external sensors (such as tactical FLIR systems) are processed, the system applies real-time hardware-accelerated pixel texture mapping to align the raw video frames perfectly with the vector-driven stroke graphics of the HUD system. This high-precision sensor fusion minimizes latency and preserves true target tracking parameters under extreme airframe angular acceleration profiles.

Note: The CMC Electronics 100-655077-000 is an ultra-critical, flight-governing rotable computing component. Component extraction, handling inside electrostatic discharge (ESD) protected grounding zones, and software baseline loading must be executed exclusively by certified avionics technicians or authorized defense depot facilities. Installation must strictly align with the airframe’s standard Wiring Diagram Manual (WDM) and relevant Technical Order (T.O.) guidelines. Following unit insertion into the ARINC 600 rack tray, the technician must execute a full automated Built-In Test Equipment (BITE) diagnostic sweep and complete an extensive flight control system data bus validation check before certifying the aircraft for flight operations.

Documentation

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