Software-Defined Platforms & Mixed-Criticality Consolidation
Wind River helps organizations build software-defined platforms by decoupling software from hardware, consolidating mixed-criticality workloads, and supporting deployment across several hardware architectures.
By using virtualization, containerization, and system simulation, development can begin before hardware is available. That reduces the impact of supply chain disruptions, accelerates software delivery, improves hardware utilization, and lowers system complexity.
The Challenge of Embedded System Consolidation
Embedded systems are becoming more intelligent and connected. As a result, organizations face pressure to run more applications on fewer compute resources even while they manage changing hardware platforms and cope with supply chain uncertainties.
Traditionally, safety-critical, mission-critical, and general-purpose workloads required separate hardware platforms to maintain isolation and meet performance requirements. While those were effective, the approach made systems more complex, expensive, and power hungry, which created lifecycle management burdens. Those systems are more vulnerable to hardware shortages, procurement delays, and platform obsolescence.
Today’s embedded systems must support:
- Real-time control applications
- Linux-based software environments
- AI and analytics workloads
- Safety-critical functions
- Secure connectivity and cloud integration
Why Software-Defined Architectures Matter Now
Accomplish Greater Capability Without Greater Complexity
Adopting software-defined architecture creates value at every stage of the product lifecycle across every industry. Developers need the flexibility to architect scalable, hardwareindependent platforms during system design. During development, they must accelerate software innovation and validation. At deployment, the development team and devops seek to consolidate workloads, optimize hardware utilization, and reduce size, weight, power, and cost (SWaP C). Throughout operations and maintenance, the entire IT organization needs to simplify updates, extend platform longevity, and adapt to evolving certification and security requirements.
Organizations can achieve these benefits while maintaining the reliability, isolation, security, and deterministic performance required by mission-critical systems. Wind River can help.
Wind River s Point of View
The Future of Embedded Systems Is Software-Defined
Hardware should no longer dictate application deployment models. Organizations need a flexible software-defined platform that allows workloads to be deployed, moved, updated, tested, and managed independently of the underlying processor architecture. Embedded systems need more portability, faster innovation, and efficient use of computing resources. And by using virtualization, containerization, and sensible software practices, that’s easy to accomplish.
System simulation extends these benefits. It decouples software development from hardware availability. Simulation helps cross-functional teams streamline software development, integration, testing, cybersecurity validation, and certification activities long before physical hardware is available.
Mixed-criticality consolidation is no longer just a cost-saving strategy. It is the foundation for scalable, future-ready intelligent systems that combine safety-critical functionality with innovative practices across the entire lifecycle, from architecture and development to deployment, maintenance, and continuous evolution.
How Wind River Enables Software-Defined Platforms
Wind River’s Approach: Built on Six Pillars
Key Use Cases
Aerospace Mission Computing
Consolidate cockpit applications, mission systems, networking, and safety functions onto fewer computing platforms while maintaining certification readiness.
Industrial Automation
Run real-time control systems, edge analytics, and operational applications on shared infrastructure while maintaining deterministic performance.
Automotive Software-Defined Vehicles
Support centralized vehicle computing architectures that combine infotainment, ADAS, connectivity, and safety workloads.
Defense Systems
Enable secure partitioning of mixed-security and mixed-criticality applications while maximizing mission-system flexibility.
Real-World Consolidation Examples
Industrial Automation
Industrial organizations are consolidating safety-certified machine control, AI driven predictive maintenance, industrial networking, and operator humanmachine interface (HMI) applications onto a single computing platform. In these environments, VxWorks provides deterministic control capabilities, Helix Virtualization Platform delivers strong workload isolation, and Wind River Linux hosts AI and analytics applications. The end result: a highly integrated and efficient software-defined architecture.
Aerospace & Defense Mission Systems
Consolidate flight control, mission systems, AI-enabled analytics, communications, cybersecurity, and operator applications onto a shared computing platform. VxWorks provides deterministic real-time performance for safety- and mission-critical functions, Helix Virtualization Platform ensures secure workload isolation, and Wind River Linux supports AI- and data-intensive applications. This approach reduces SWaP C while enabling secure, scalable platform modernization.
The complete stacked solution from Hardware, Virtualization, Operating Systems, and Tools to Business Applications and achievable outcomes
Together, these technologies provide the foundation for software-defined embedded systems capable of consolidating diverse workloads while maintaining safety, security, and performance.
Partner Ecosystem
Wind River works with silicon vendors, hardware providers, cloud partners, and technology leaders to deliver software-defined platforms across x86, Arm, and RISC V ecosystems.
x86
Create secure, fully configured development environments on demand. Onboard new team members in minutes instead of days with preconfigured workspaces.
Arm
TÜV SÜD-certified optimizing C/C++ compiler for embedded systems. Generates high-quality code that minimizes memory usage and maximizes mission-critical performance.
RISC-V
Automate continuous build, test, and deployment with reusable pipeline components. Aptiv achieved 32% shorter pipeline execution after switching from Jenkins.
The open architecture approach provides flexibility without vendor lock-in while enabling organizations to adopt the latest processor, virtualization, AI, and cloud-native technologies.