Honeywell Mark III manual Cmf, Via

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through an automated code generation system specific to the target environment. Automated test scripts are also derived from the model database. (See Figure 6).

The software architecture was developed to isolate target-specific components from the core software components. The combination of the model-based approach and isolating target-specific components allowed Honeywell to develop a Communications Management Function (CMF) that can be readily hosted on other hardware targets including the Honeywell integrated platforms VIA and Epic (and in the future B-777 AIMs). This common communications function allows Honeywell to maintain a single communications baseline across platforms, ensuring consistent implementations. This is beneficial to an airline that may have a mixed fleet containing both federated and integrated architecture aircraft. A prime example is the Embraer regional jet family. The Honeywell standalone Mark III CMU has been selected by many airlines for their ERJ-135 and ERJ-145 aircraft. The next generation ERJ-170 and ERJ-190 contain the Primus Epic integrated avionics cockpit which includes the CMF. Although the Mark III CMU and the Primus Epic are different hardware platforms, the same core CMF capability exists on both platforms.

CMF

Target-specific

Mark III

VIA

Epic

Figure 6 Communication Management Function (CMF) for Both Federated and Integrated

Platforms

Another driving goal of the software architecture was to provide as flexible a system as possible by utilizing a database-driven design. This design approach allows quick and easy changes to the Mark III CMU without modifying the embedded operational software. (See Figure 7).

HONEYWELL Aerospace Electronic Systems

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Contents Honeywell Aerospace Electronic Systems Honeywell Aerospace Electronic Systems Mark III CMU Overview IntroductionDatalink Capability for Today and Tomorrow Honeywell Datalink Experience, Products, and Services Page Arinc Hardware OverviewInterface Baseline Specificati Growth System InterfacesMark III CMU Interfaces Device ArincArinc 750 VHF Data Radio VDR Subnetwork InterfacesArinc VDR SDU Hfdr CMUUHF Flight Deck Devices InterfacesMcdu Midu CDU Control and Display Unit CDUAircraft Condition Monitoring System Acms LRU InterfacesFlight Management Computer FMC Performance Computer PZOther Interfaces Oooi Software OverviewMIL-STD-1553B PcmciaVIA CMFDatabase Design CMU AOC HGI AMI Fidb GbstCertification AOA VDLM2 Baseline FunctionalityUplink Processing OperationsWorld Regions Downlink ProcessingSystem Pages DMT and DLTBite Data Loading VDL ModeGrowth Functionality APMWeather Graphics Pcmcia Data LoadingArinc 761 Satcom Mil-STDEncryption/Authentication ATNRRI Page Fidb DatabasesFidb Architecture GbstFidb HGI AMI Main Menu MenusMain Menu CDU Main Menu Supporting Regional / Business Jet CDUs ATS Menu System Menu Clearance Uplink UplinksClearance Message Elements Clearance Message References Reject Reasons Reject Reasons Values Diversion Report Downlink DownlinksDiversion Reasons Divert Message Elements Logic Units Print DefinitionOooi Logic Unit Preferred Channel ManagementRegions US Map Areas Interconnect CCA Mechanical DesignPower Supply CCA Processor CCAInput/Output CCA Detailed Interface Definition Spare CCAs GrowthADL McduPrntr CMCSEL CMU SDI PGM VHF PGMOooi VOICE/DATA MONCooling Requirements Mechanical Packaging Unit WeightUnit Connectors and Mounts Unit SizeEnvironmental Specifications Fluids Susceptibility DO-160D Section Power Input DO-160D SectionInduced Signal Susceptibility DO-160D Section Waterproofness DO-160D SectionPower Requirements 1 115 Vac Input Power Requirements2 28 Vdc Input Power Requirements Power Interrupt Requirements 3 28 Vdc Backup Input Power RequirementsTechnical Summary