OpenVPX, FACE, HOST, RTOS & Embedded Computing Fundamentals Training by Tonex
Modular embedded computing is central to modernizing complex naval electronics without rebuilding an entire processing environment. OpenVPX, FACE, HOST, RTOS & Embedded Computing Fundamentals Training by Tonex introduces OpenVPX hardware architecture, Future Airborne Capability Environment (FACE) software portability concepts, Hardware Open Systems Technologies (HOST), and Real-Time Operating Systems (RTOS). Participants study chassis and module interfaces, processing functions, operating system services, scheduling, software portability, and hardware/software integration boundaries. The course explains where these frameworks originated and how engineers can assess their relevance to submarine systems rather than assuming direct platform certification.
Cybersecurity requirements extend from module firmware to operating system privileges and software interfaces. Responsible cybersecurity engineering evaluates update integrity, isolation, trusted access, and supply chain assurance alongside performance and compatibility.
The practical training approach uses exercises, real-world case studies, and examples of module interface specifications, timing budgets, software portability records, and integration checklists used in embedded computing projects.
Learning Objectives
- Describe OpenVPX hardware interfaces and modular computing system components.
- Explain FACE software architecture principles and portability limitations.
- Recognize HOST framework objectives and integration boundaries.
- Compare real-time operating system scheduling, isolation, and service responsibilities.
- Map hardware interface compatibility to application portability and system integration.
- Develop acceptance criteria for timing, performance, configuration, and component replacement.
- Evaluate cybersecurity controls for embedded firmware, privileged software, and supply chain updates.
Audience
- Embedded Computing Engineers
- Naval Electronics Architects
- Real-Time Software Developers
- Digital Hardware Designers
- Submarine Systems Integrators
- Software Portability Specialists
- Cybersecurity Professionals
- Hardware and Software Verification Engineers
Course Modules
Module 1: Modular Embedded Computing System Foundations
- Identify processor, memory, input output, and interconnect functions in embedded systems.
- Distinguish hardware standards, software interfaces, and operating system responsibilities.
- Relate size, weight, power, and cooling requirements to platform constraints.
- Describe modular component replacement and lifecycle technology insertion concepts.
- Map embedded application requirements to computing resource and interface needs.
- Recognize dependencies between hardware compatibility and software execution behavior.
Module 2: OpenVPX Profiles and Hardware Interconnects
- Describe OpenVPX architecture within the VITA 65 family of specifications.
- Identify backplane, plug-in module, and chassis integration considerations.
- Explain the purpose of slot and module profile compatibility.
- Review data plane, control plane, and management interface concepts.
- Assess cooling, power distribution, timing, and ruggedization constraints.
- Distinguish standardized form factors from verified end-to-end functionality.
Module 3: FACE Software Portability Architecture Concepts
- Explain the origin and scope of Future Airborne Capability Environment standards.
- Describe architectural segments and key software interface responsibilities.
- Identify data model and application programming interface portability considerations.
- Distinguish reusable software architecture from unrestricted cross-platform binary compatibility.
- Review software component dependencies on operating system and platform services.
- Assess possible adaptation requirements for non-airborne naval applications.
Module 4: HOST Framework and Integration Boundaries
- Describe Hardware Open Systems Technologies objectives for modular embedded platforms.
- Recognize relationships between HOST concepts and underlying hardware standards.
- Identify framework layers addressing common hardware integration requirements.
- Evaluate interface declarations for module and chassis supplier compatibility.
- Review configuration management practices for evolving hardware baselines.
- Document qualification assumptions before applying reference concepts to submarines.
Module 5: Real-Time Operating System Engineering Essentials
- Compare deterministic scheduling goals with general-purpose operating system behavior.
- Identify priority assignment, task coordination, and interrupt handling concepts.
- Review memory protection and partitioning responsibilities in mixed-criticality applications.
- Assess worst-case timing concerns and resource contention across multicore processors.
- Explain application access to device drivers and platform services.
- Document timing requirements and verification evidence for integrated applications.
Module 6: Embedded Integration Security and Assurance
- Define interface verification checks for hardware, firmware, and software changes.
- Identify secure startup, firmware integrity, and controlled update considerations.
- Apply least-privilege principles to device access and operating system services.
- Review component provenance and software dependency assurance practices.
- Connect performance and interoperability findings to configuration management records.
- Develop an integration assessment checklist covering security and operational reliability.
Strengthen the engineering knowledge needed to evaluate, integrate, and sustain reliable naval mission systems. OpenVPX, FACE, HOST, RTOS & Embedded Computing Fundamentals Training by Tonex connects architecture principles with disciplined engineering decisions and cybersecurity considerations. Register with Tonex to advance your expertise in submarine open architecture projects.