Latest from Automation

ID 375398333 © Emilyprofamily | Dreamstime.com
manufacturing_ai_dreamstime_l_375398333
Irina Toloknovskaia, Dreamstime.com
Circuit Diagram51965608 © Irina Toloknovskaia Dreamstime
Dreamstime_cunayah-jouna_362253229
dreamstime_cunayahjouna_362253229
Dreamstime_Khrystyna-Herasymchuk_364019668
dreamstime_khrystynaherasymchuk_364019668
Dreamstime_alexandr-yakovlev_267692611
dreamstime_alexandryakovlev_267692611

GPU Trends: The Quest for Performance, Latency, and Flexibility (.PDF Download)

March 13, 2019
The Quest for Performance, Latency, and Flexibility (.PDF Download)

For military intelligence, surveillance, and reconnaissance (ISR) applications, such as radar, EO/IR (electro-optic/infrared), or wideband ELINT (electronic intelligence), the ongoing problem is how best to handle the expanding “firehose” of data, fed by an increasing number of wide-bandwidth platform sensors.  To handle this massive inflow of data, and the complex algorithms required to process it, state-of-the-art computational engines and data-transport mechanisms are essential.

Deployed High Performance Embedded Computer (HPEC) systems designed to support these applications typically have a heterogeneous architecture of high-performance FPGAs, GPUs, and digital signal processors, or DSPs (today, often Intel Xeon-D based modules). GPUs provide a large number of floating-point cores tuned for complex mathematical algorithms, which makes them ideal for processing the complex algorithms used in ISR applications. In comparison, a single Intel Xeon-D processor can provide a peak throughput of ~600 MFLOPS, while NVIDIA’s Pascal P5000 GPU sports 6.4 TFLOPS of peak performance.