Inside MOSA.ic.AI: How to Safely Run AI, Real-Time, and Everything In Between

How do you make that work in practice? 

Running multiple workloads on a single platform is not new. What is new is the requirement to run them together, concurrently, and safely, without introducing interference, unpredictability, or certification risk.

This is where most architectures break down.

The Limits of Traditional Approaches

Historically, system designers have relied on two primary strategies:

1. Physical Separation
Different workloads run on separate hardware platforms.

• Pros: Strong isolation, simpler certification
• Cons: Increased size, weight, power, and cost (SWaP-C), plus integration overhead

2. Logical Consolidation (Without Strong Isolation)
Workloads share hardware with limited separation.

• Pros: Better resource utilization
• Cons: Risk of interference, complex validation, and fragile certification boundaries

Neither approach scales to modern requirements, especially when AI and GPU-accelerated workloads enter the picture.

The LYNX MOSA.ic.AI Architecture

MOSA.ic.AI takes a fundamentally different approach: architectural separation by design, combined with integration flexibility.

1. Separation at the Core

At the heart of MOSA.ic.AI is Lynx’s proven separation kernel technology. This enforces strict, hardware-level isolation between partitions:

• Faults cannot propagate across boundaries
• Timing and resource usage remain deterministic
• Certification scope is contained within defined partitions
  

This allows safety-critical and secure applications to operate with full assurance, even when sharing hardware with less critical workloads.

2. Multi-OS, Multi-Domain Flexibility

 Different workloads require different execution environments. MOSA.ic.AI supports:  

• Multiple operating systems running concurrently

• Legacy applications alongside modern software stacks
• A flexible integration model that reduces dependency on any single OS

This is particularly important for long lifecycle programs, where technology refresh and backward compatibility must coexist.

3. GPU Integration Without Compromise

One of the most significant barriers to adopting advanced capabilities in safety-critical systems has been the GPU.

GPUs are essential for:

• Sensor fusion
• Image and signal processing
• Advanced visualization
• AI and machine learning workloads

But they have historically been difficult to integrate into certifiable systems due to:

• Shared resource models
• Lack of determinism
• Limited isolation mechanisms

MOSA.ic.AI addresses this by enabling controlled, partitioned access to GPU resources:

• Workloads can leverage acceleration without interfering with each other
• Safety boundaries are preserved
• A pathway toward certification of accelerated functions becomes viable

This unlocks a new class of applications that were previously impractical in safety-critical environments.

4. Control, Enable, Govern — Operationalized

What does the Lynx architecture mean in practice?

• Control: Engineers define exactly how resources are allocated and isolated
• Enable: Teams can deploy advanced workloads (AI, graphics, and compute) without re-architecting the system
• Govern: Certification, security, and lifecycle management are built into the platform, not added afterward

The Result: Integration Without Trade-offs

With MOSA.ic.AI, organizations no longer need to choose between:

• Performance and safety
• Flexibility and certification
• Innovation and risk

Instead, they gain a platform that allows all three to coexist.

This is what enables the transition from hardware-constrained systems to software-defined, intelligent platforms.

Discover LYNX MOSA.ic.AI