By Benjamin Nigl, Senior Account Manager
HPC systems are characterized by their high-speed processing power, high-performance networks, and large-memory capacity, generating the capability to perform massive amounts of parallel processing. When a standard desktop with a 3 GHz processor can perform around 3 billion calculations per second, an average HPC system can perform quadrillions of calculations per second. This means HPC systems perform extreme amounts of calculations in seconds, whereas a regular processor would take weeks or even months to complete the same task, thanks to their technology.
While not every system requires an extreme processing speed, HPC is essential for advanced, time-consuming use cases that rely on:
HPC is an essential capability to enterprises across a broad spectrum of industries, including manufacturing, automotive, aerospace, energy, life sciences, finance, and more. HPC gives enterprises the ability to discover scientific and business insights, develop new products, and open new avenues for progress by enabling multi-physics simulations, digital twin models, big data analytics, machine learning, and other complex engineering and scientific workloads, but even the largest enterprises can struggle to deploy, manage, and scale the robust HPC resources they need for success in the modern world.
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The rugged edge computing landscape is becoming increasingly complex with new generations of technologies, such as the latest AI focused GPUs, releasing annually rather than every 2-3 years. Whether the end application is commercial or defense, rugged edge servers must not only deliver cutting-edge compute performance but also withstand extreme environmental conditions.
When the PCI-SIG formally added support for 675W add-in card devices in the PCI Express Card Electromechanical (CEM) specification in August 2023, NVIDIA’s most powerful CEM GPU, the NVIDIA H100 80GB had a maximum power consumption of 350W. While some devices were starting to push the limits of datacenter thermodynamics – high density systems of many 675W devices seemed like a distant reality. However, with power constraints uncapped and the need for higher performing GPUs skyrocketing, the industry quickly came out with devices taking full advantage of the new specification capability. NVIDIA quickly replaced the H100 80GB with the H100 NVL, increasing power density to 400W. While this small jump was manageable for existing installations, NVIDIA then dove all-in with the H200 NVL released in late 2024 at 600W. The rapid transition from 350W to 600W has put power and cooling technologies in the spotlight in a race to solve this next generation challenge.
The advent of technology has always brought about significant changes to various industries, and the transportation sector is no exception. Among the most transformative innovations in recent years is the development of autonomous vehicles, particularly trucks. The potential for autonomous trucks to revolutionize freight transport is immense, raising the fundamental question: will these technological advancements make human drivers obsolete? To explore this question, we must consider the current state of autonomous driving technology, the economic implications, and the societal impact of removing human drivers from the equation.