How Data Centers in Denver Support High-Performance Computing (HPC)

High-performance computing is still relatively niche, but its popularity is growing. This means that data centers need to adapt to accommodate it. With that in mind, here is a guide to how data centers in Denver support high-performance computing.

What is high-performance computing (HPC)?

The term “high-performance computing” (HPC) refers to the practice of using hugely powerful computers to solve highly complex problems. HPC is typically used for the most demanding applications such as scientific research, engineering simulations, artificial intelligence, and financial modeling.

Characteristics of high-performance computing

Here are five key characteristics of high-performance computing.

Massive parallel processing: HPC systems break down complex computational problems into smaller tasks that run simultaneously across thousands or even millions of processing cores. This parallel execution dramatically improves speed and efficiency, making it possible to process vast amounts of data in a fraction of the time compared to traditional computing.

High-speed networking: Efficient data exchange between processing nodes is critical in HPC. These systems use low-latency, high-bandwidth interconnects such as InfiniBand, high-speed Ethernet, and custom interconnect architectures. This ensures rapid communication, reduces bottlenecks, and enables seamless coordination between distributed computing resources.

Optimized storage solutions: Handling massive datasets requires advanced storage strategies. HPC systems employ high-speed, parallel file systems such as Lustre and GPFS, along with solid-state drives (SSDs) and hierarchical storage management, to ensure quick data access and efficient input/output (I/O) operations.

Scalability: HPC architectures are designed to expand effortlessly by adding additional computing nodes, storage capacity, or networking resources. This scalability allows organizations to increase computational power as needed, accommodating growing workloads and more complex simulations.

Custom software and optimization: HPC systems leverage highly optimized software, including parallel computing frameworks such as MPI (Message Passing Interface) and CUDA (Compute Unified Device Architecture). Workload schedulers and tuning techniques maximize computational efficiency, ensuring that applications run at peak performance.

The benefits of HPC for business growth

By leveraging HPC, businesses can enhance efficiency, drive innovation, and maintain a competitive position in an increasingly data-driven world. Here are just 7 examples of what this means in practice.

Faster data processing and decision-making: HPC enables businesses to analyze vast amounts of data quickly, providing real-time insights for better decision-making in areas like financial modeling, market analysis, and customer behavior prediction.

Enhanced product development: HPC accelerates complex simulations, such as those used in engineering, pharmaceuticals, and material sciences, reducing the time required for research, testing, and prototyping. This leads to faster innovation and a competitive edge.

Cost efficiency: While HPC systems require an initial investment, they reduce long-term costs by optimizing operations, minimizing downtime, and improving resource utilization. Cloud-based HPC further lowers costs by offering scalable, on-demand computing power.

Improved customer experience: Businesses can use HPC-driven AI and machine learning to enhance personalization, optimize recommendation engines, and improve response times, leading to higher customer satisfaction.

Competitive advantage: With superior computational power, businesses can conduct advanced analytics, optimize supply chains, and implement predictive maintenance, giving them an edge over competitors.

Risk mitigation and security: HPC helps businesses detect fraud, analyze cybersecurity threats, and perform complex risk assessments, improving overall security and compliance.

Scalability and flexibility: As business needs grow, HPC infrastructure can be expanded to handle increased workloads, ensuring seamless performance without bottlenecks.

How Denver data centers power HPC workloads

Denver’s data centers effectively support the demanding nature of HPC workloads, enabling businesses to perform complex computations efficiently and securely. Here are five of the key measures they implement to power HPC workloads reliably.

High-density power availability: To meet the intensive power demands of HPC applications, Denver data centers offer substantial power capacities. For instance, facilities provide up to 18 megawatts (MW) of critical load capacity, ensuring that even the most power-hungry HPC systems operate without constraints. Power densities can reach over 1,500 watts per square foot, accommodating dense server configurations essential for HPC tasks.

Advanced cooling solutions: Efficient thermal management is crucial for HPC environments. Denver data centers employ innovative cooling technologies, such as liquid cooling systems, to effectively dissipate heat generated by high-density equipment. These solutions maintain optimal operating temperatures, enhancing system performance and longevity.

Robust network infrastructure: Low-latency and high-bandwidth connectivity are vital for HPC workloads. Denver facilities feature a 100 gigabits per second (Gbps) network backbone, scalable to 400 Gbps, facilitating rapid data transfer and seamless interconnectivity. Access to a rich ecosystem of carriers and cloud providers ensures flexible and reliable network options for diverse HPC applications.

Scalable space and resources: To accommodate the evolving needs of HPC clients, Denver data centers offer extensive, scalable spaces. With facilities encompassing up to 759,000 square feet, businesses can expand their HPC infrastructure as required, ensuring flexibility and future-proofing their operations.

Enhanced security and compliance measures: HPC systems often process highly sensitive data. Denver data centers implement stringent security protocols, including dual-factor authentication, biometric scanners, multi-zone security access, and continuous on-site monitoring. These measures safeguard critical information and maintain compliance with industry standards.