In scenarios involving a combat operations center, the High-Performance Computing (HPC) solution relies on a vast network of ground, air, and space C5ISR sensors to collect extensive data, swiftly processing it to enable real-time actionable decisions. Whether it's a naval taskforce in a complex maritime operation or a combat center managing various sensors and weapons systems, the HPC solution serves as the linchpin. It ensures commanders have comprehensive situational awareness, facilitating rapid and accurate decision-making.

In scientific research, HPC enables detailed simulations of complex phenomena like climate patterns, molecular interactions, and astrophysical events. In engineering, it aids simulations in aerodynamics, structural mechanics, and fluid dynamics for design optimization. HPC is vital for large-scale simulations in Finance, Healthcare, and Urban Planning, leveraging parallel processing for speedy execution of intricate algorithms on massive datasets. This accelerates the simulation process, allowing exploration of diverse scenarios and refining models with precision. Ultimately, HPC empowers advancements by providing computational muscle for resource-intensive simulations across domains.

In testing and integration, High Performance Computing (HPC) is crucial, supplying computational power for essential test data. HPC systems accelerate test and integration processes, ensuring efficient validation of software and systems. Parallel processing in HPC allows simultaneous execution of multiple tests, significantly reducing testing time and enabling faster development feedback loops. HPC handles complex simulations and large datasets with speed and precision in integration tests. Moreover, HPC ensures scalability in testing environments, easily handling increased workloads as system complexity grows. This scalability is particularly valuable for concurrent execution of numerous tests or managing intricate integration points.

In the realm of autonomy, OSS pioneers rugged NVMe storage for data logging and GPU compute systems for real-time pathfinding and vehicle control. Rugged autonomy servers form the computational core, driving real-time decision-making for long-haul trucks, military vehicles, and UAVs. These servers boast GPU high-performance computing, scalability, and redundancy. Complementing this are our edge storage solutions, performing real-time data logging utilizing PCI Express to reach data rates over 50GB/s while minimizing latency to under 1µs. Removable drive packs up to 1 Petabytes in size allow for easy data transportability from the vehicle to the cloud. Our visual analytics platform transforms raw data into actionable insights, offering real-time visualization and integration with AI algorithms for object recognition and situational awareness.

OSS GAS-R features the world’s most advanced accelerator, the NVIDIA® A100 Tensor Core GPU, enabling AI on the Fly® customers to consolidate training, inference, and analytics into a unified, deployable AI solution at the edge. With available rack and flange mounting options, adaptable power subsystem and unheard-of performance in a modest 23” depth aluminum enclosure the GAS-R excels in demanding airborne applications with true “Datacenter in the Sky” capability.

The FSAn-4R delivers data center class functionality to rugged airborne and other defense deployments where no-compromise storage capability is required to support mission-critical applications. Optimized for high speed data acquisition, the FSAn-4R can be deployed in tactical trucks, ground stations and surveillance aircraft. It uses the highest-performance PCIe NVMe flash with x8 lanes for double the bandwidth of 2.5” NVMe. In addition, it includes features such as hot swap, Follow Me for RAID volume portability, and front loading.

The Gen 4 PCIe SDS-3U-4 contains options for Dual Socket Intel Xeon Gen 4 Processors and provides a feature-packed server platform for GPU or FPGA accelerated computing, 2.5 NVMe storage and the most native PCIe Gen 4 x16 slots available on the market. This functionality is delivered in a size-efficient edge-ready rugged chassis with 3U height and 20” depth. This allows the highly-integrated server to stand alone as a hyperconverged PCIe Gen 4 server, or form the core CPU and memory resources for a scale-out, rack level, expandable or composable solution in the shallowest available racks. 

The 16-slot 4U Pro platform provides extreme PCIe Gen4 speed with added professional features. The 4U Pro supports 2 PCIe Gen4 x16 host connections, 4 PCIe Gen4 x16 single-width expansion slots, and 12 PCIe Gen4 x8 single-width expansion slots to aggregate any set of PCIe add-in cards (AICs) to Gen 4 equipped servers and workstations. The system supports 16 full-length PCIe AICs such as NVMe flash, FPGAs, single-slot GPUs and network interface cards (NICs). Dynamic fan speed control keeps the system cool under full load, while conserving power and noise when unneeded. Two 2000W power supplies provide redundant hot-swap system power. The semi-rugged frame design and up to 64 GB/s of sustained data throughput make the 16 slot 4U Pro platform ideal for edge data recording, storage, or converged compute AI applications.