iHawk

High-Performance Real-Time Computing for Critical Applications

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iHawk is Concurrent Real-Time’s flagship Linux-based computer platform, purpose-built for time-critical simulation, data acquisition, and process control applications. Engineered with the latest commercial-off-the-shelf (COTS) components, iHawk provides unparalleled real-time performance, determinism, and scalability, making it an ideal solution for mission-critical industries, including aerospace, automotive, defense, and industrial automation. 

Powered by Concurrent’s RedHawk Linux, the iHawk delivers high I/O throughput, fast response times (as low as 5 microseconds on certified platforms), and optimized NUMA memory enhancements. With support for Intel, AMD, and ARM CPUs, scalability up to 224 cores, and flexible configurations, iHawk platforms can be tailored to meet the most demanding application requirements. 

Key Features of iHawk 

Specialized iHawk Solutions

A compact, high-performance real-time platform designed for space-constrained environments requiring ultra-low-latency execution. 

A state-of-the-art Hardware-in-the-Loop (HiL) simulation system for aerospace and defense applications, featuring full hardware, software, and integration capabilities. First launched at I/ITSEC 2022, AeroHawk is a game-changer for flight simulation and avionics testing. 

Designed for harsh environments, iHawk Rugged features shock-resistant, conformally coated components and ruggedized enclosures to withstand extreme operating conditions. 

iHawk platforms run on Concurrent’s RedHawk Linux, a fully preemptible real-time operating system that offers: 

For developers working on time-sensitive applications, NightStar provides an advanced suite of real-time debugging and profiling tools, including: 

iHawk’s RCIM provides: 
iHawk systems support real-time CUDA acceleration with up to 8 NVIDIA GPUs, enabling: 
iHawk is fully compatible with Concurrent’s SIMulation Workbench (SimWB), providing a comprehensive framework for: 
Concurrent Real-Time’s Special Systems Group offers: 

Concurrent Real-Time provides industry-leading support services to ensure RedHawk Linux integrates seamlessly into your operations. Our commitment to your success extends from initial deployment through long-term maintenance and optimization.

Version Support

Features 

Specification 

CPU 

Intel® Xeon, AMD, ARM (1 to 8 sockets) 

Cores per CPU 

Up to 28 

Max Memory 

Up to 1 TB 

I/O & Expansion 

Up to 18 PCIe slots, 6 PCI slots, VME64 support 

Networking 

1Gbit and 10Gbit Ethernet 

Storage 

Up to 72 disk drives (HDD/SSD) with RAID options 

Chassis Options 

Rackmount, tower, desktop, ruggedized 

Environment 

10°C to 35°C (operating), -40°C to 70°C (storage) 

Regulatory Compliance 

CE, UL, FCC, RoHS 

Blogs & News

Related Articles

  • Diagram showing software staying the same while hardware changes: Guest OS + Application on RedHawk KVM-RT Host, with Hardware Gen 1 retired, Gen 2 in production, and Gen 3 planned refresh.

    Preserving Legacy Real-Time Applications Through Virtualization

    Preserving Legacy Real-Time Applications Through Virtualization Real-time applications often remain in service much longer than the hardware on which they were originally developed. Test…

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  • Diagram comparing native RedHawk Linux (left) and RedHawk KVM-RT virtualization (right) with application layer and real-time workload on both sides.

    Native Real-Time Linux vs. Real-Time Virtualization: Which Architecture Fits Your Application?

    Native Real-Time Linux vs. Real-Time Virtualization: Which Architecture Fits Your Application? Virtualization is now common in enterprise computing, but timing-sensitive systems introduce requirements that conventional…

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  • Diagram of NUMA placement: keep Cores, Memory, and PCIe device in one node (local placement). Cross-node placement is discouraged (Node 0 and Node 1).

    How CPU Shielding, NUMA, and Interrupt Affinity Affect Real-Time Virtual Machines

    How CPU Shielding, NUMA, and Interrupt Affinity Affect Real-Time Virtual Machines Running a real-time operating system inside a virtual machine does not automatically create…

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