AEROSPACE/AVIONICS/CONTROLS
Full Lifecycle, Critical Systems Embedded Aerospace Development
Real Time partners with Fortune 500 aerospace companies and OEMs worldwide on DO-178B/C, DO-254, and ARP4754 projects. Our teams work in openness and transparent cooperation to ensure our Clients project's successes.
AEROSPACE CAPABILITIES
Avionics, Controls, APUs & Propulsion
Real Time specializes in the critical system analysis, architecture, system and software design, code development, integration, as well as the verification and validation of aerospace engineering projects.
Providing Multi-Discipline Embedded Services to the Aerospace Industry
Embedded avionics software and systems development is a complex, safety-critical process that requires rigorous engineering discipline. Initially, developers define system requirements based on aircraft functions and safety objectives. Subsequently, these requirements are translated into software architecture and detailed design specifications.
Meanwhile, hardware-software integration planning begins to ensure seamless interaction between components. As development progresses, engineers implement the software using real-time operating systems and adhere to strict coding standards, such as those outlined in DO-178C. In parallel, verification and validation (V&V) activities—such as reviews, static analysis, and test case development—ensure the system meets its intended functions and safety criteria.
Furthermore, integration testing confirms the interaction between software modules and hardware platforms under real-world conditions.
Ultimately, formal system testing and V&V results are used to demonstrate compliance with regulatory requirements, enabling certification. Thus, the entire process—from specification to certification—is interconnected and must be executed with precision to ensure reliability, safety, and regulatory acceptance
Aircraft types, standards, versatility, and services are key pillars in aviation that work together to support a wide range of operations. To begin with, aircraft types vary significantly—from small unmanned aerial vehicles to large commercial airliners—each designed for specific missions and performance needs.
In addition, industry standards such as DO-178C for software and ARP4754A for systems ensure that safety and reliability are consistently maintained across all platforms. Moreover, the versatility of modern aircraft enables them to adapt to diverse roles, including cargo transport, passenger travel, surveillance, and emergency response. Consequently, this adaptability enhances operational efficiency and mission success across civil, military, and commercial sectors.
Lastly, comprehensive support services such as maintenance, training, and logistics are essential to sustaining aircraft performance throughout their lifecycle. Altogether, these elements create a cohesive framework that drives the global aviation industry forward.
Aircraft Types
Commercial Fixed Wing
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Military Fixed Wing
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General Aviation
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Commercial Rotary Wing
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Military Rotary Wing
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Fuel Cell Controllers
Standards
ARP-4754, DO-178, DO-254
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MIL-STD-498, MIL-STD-1679
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All Input/Output Standards
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All LRU Standards
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Data Busses
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Navigation, Terrain, Performance Databases
Versatility
Real Time Operating Systems
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Development Environments
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Hardware Platforms
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Computer Languages
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Designs & Architectures
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Configuration Management &
Problem Tracking Systems
