The global high performance computing (HPC) market size was valued at USD 54.80 billion in 2025 and is projected to grow from approximately USD 59.29 billion in 2026 to USD 111.38 billion by 2034, registering a CAGR of 8.20% during the forecast period (2026–2034). North America dominated the high performance computing market with a share of 43.6% in 2025.
High performance computing refers to the use of powerful computing systems, processors, accelerators, high-speed networking, storage, and specialized software to process large datasets and execute complex calculations at high speed. HPC hardware primarily falls under HSN/HS Code 8471. The corresponding SIC Code is 3571 (Electronic Computers), which covers establishments primarily engaged in manufacturing electronic computers.
The high performance computing market demand is driven by the computational requirements of artificial intelligence and machine learning, large-scale data analytics, scientific modeling and simulation, and complex engineering workloads. The expansion of exascale computing, demand for accelerated computing using GPUs and other specialized processors, and investments in national and scientific computing infrastructure supports high performance computing market growth.
By Component
By Processor Type
By Deployment Model
By End Use
Download a Free Sample To learn more about this report,
Shift Toward High-Speed Interconnects for Data-Intensive Computing
High-speed interconnect technologies are becoming increasingly important in HPC environments as computational workloads require faster communication between processors, memory, storage, and distributed computing nodes. Advanced interconnects reduce communication latency and improve data-transfer efficiency across large HPC clusters, supporting applications such as scientific simulation, big data analytics, and AI workloads.
Adoption of Distributed Workload Management Across HPC Clusters
The high performance computing market analysis shows a shift toward distributed workload management. For instance, Slurm, a workload manager, allocates jobs across available CPUs, GPUs, memory, and compute nodes based on scheduling requirements, helping HPC operators improve resource utilization and manage diverse workloads efficiently. This approach enables HPC operators to manage concurrent scientific computing, simulation, AI, and data processing workloads more effectively across complex cluster environments.
Supply chain disruptions are expected to have a moderate to high impact on the high performance computing market share, given its exposure to fluctuations in advanced processors, GPUs, CPUs, memory components, high-speed networking equipment, storage systems, semiconductor components, electronic assemblies, cooling systems, and international logistics costs. The market is expected to experience a K-shaped recovery, as established HPC manufacturers, data center operators, and large technology providers with diversified supplier networks, long-term procurement agreements, and higher purchasing volumes can stabilize equipment availability faster, while smaller HPC solution providers and emerging system integrators remain more exposed to component shortages, extended lead times, and higher procurement costs. The market is expected to grow at a CAGR of 8.20%, but prolonged supply chain constraints could approximately lower this by 2.0 percentage points, resulting in short-term growth of around 6.20%. As supply conditions normalize through improved availability of advanced processors and accelerators, stabilized semiconductor and memory pricing, increased production capacity, and replenished inventories, the high performance computing market growth is expected to gradually return to approximately 8.20%.
Complex AI Workloads and Deployment of GPU Computing for Complex Computational Modeling Drives Market
According to the OECD, compute requirements for training advanced AI models have been estimated to increase by around 4–5 times per year, highlighting the rapidly rising computational intensity of AI and machine-learning workloads. The use of computational modeling in areas such as drug discovery, climate research, financial analysis, and engineering simulation is further strengthening demand for high-performance computing capabilities.
The deployment of GPU computing is expanding HPC capabilities by accelerating highly parallel workloads that require substantial computational throughput. The integration of GPU accelerators with CPU-based HPC clusters enables organizations to improve processing performance and reduce execution times for complex workloads.
Need for Specialized Expertise and Intensive Power and Software Portability Restrain Market Expansion
Complex HPC workload optimization requires specialized expertise to efficiently distribute computational tasks across CPUs, GPUs, memory, storage, and high-speed interconnects, which increases deployment and management complexity. This can limit effective utilization of HPC infrastructure and increase the technical resources required for organizations to operate and optimize large-scale systems.
Intensive power consumption and software portability constraints create additional limitations as high-density HPC systems require substantial electricity and cooling infrastructure, while applications may require optimization for different processor and accelerator architectures. These requirements can increase operating costs and migration efforts, limiting adoption among organizations with constrained infrastructure and technical resources.
Expansion of Exascale Computing Capacity for Advanced Scientific Simulation and Accelerator-Based HPC Infrastructure Offer Growth Opportunities
National research laboratories, universities, scientific institutions, and HPC infrastructure providers can expand exascale computing environments for complex simulations in climate science, materials research, nuclear research, and computational biology. Specialized system manufacturers and infrastructure providers can capture new revenue through supercomputer deployment, high-performance storage, networking, system integration, and lifecycle support services.
Accelerator manufacturers, HPC system integrators, and data center infrastructure providers can develop CPU-GPU and other heterogeneous architectures for highly parallel workloads. These solutions create revenue avenues through accelerator hardware, optimized HPC clusters, high-speed interconnects, cooling systems, and workload-management software.
The hardware segment accounted for a share of 58.7% in 2025, supported by the substantial computing, storage, networking, and processing infrastructure required to execute large-scale HPC workloads. The need for dedicated physical infrastructure across research institutions, enterprises, data centers, and government computing environments continues to support the segment’s leading position.
The services segment is expected to grow at a CAGR of 9.4% during the forecast period, driven by the requirement for system integration, infrastructure management, technical support, and specialized HPC expertise. Service providers can help organizations configure, optimize, and maintain complex HPC environments without requiring extensive internal infrastructure-management capabilities.
Request Customizationto receive a tailored report.
The central processing units (CPUs) segment accounted for a share of 47.3% in 2025, owing to versatility across a broad range of sequential and parallel computing tasks. CPUs remain fundamental to HPC systems because they provide general-purpose processing capabilities and coordinate workloads across servers, operating environments, and supporting infrastructure.
The graphics processing units (GPUs) segment is expected to grow at a CAGR of 12.7% during the forecast period, fueled by a high degree of parallelism and the ability to accelerate computationally intensive calculations.
The on-premises segment accounted for a share of 55.6% in 2025, as organizations require direct control over computing infrastructure, data environments, security configurations, and workload execution.
The cloud-based segment is expected to grow at a CAGR of 11.9% during the forecast period, propelled by the ability to provision computing resources according to workload requirements without making equivalent investments in dedicated physical infrastructure.
The government and defense segment accounted for a share of 25.8% in 2025, supported by the use of HPC for national security applications, defense modeling, advanced simulations, intelligence analysis, and government research programs. Large-scale computing enables government organizations to perform computationally demanding tasks that require controlled infrastructure and substantial processing capacity.
The healthcare and life sciences segment is expected to grow at a CAGR of 10.4% during the forecast period, driven by the use of computational methods in drug discovery, genomic analysis, molecular modeling, medical research, and biological simulation.
Speak to an Analystto discuss market opportunities.
North America: Market Dominance Led by Expansion of Public Supercomputing Infrastructure
The North America high performance computing market accounted for the largest regional share of 38.4% in 2025.
The US high performance computing market is expected to benefit from the planned expansion of next-generation supercomputing infrastructure. The Department of Energy’s Discovery supercomputer is scheduled to arrive in 2028 and is designed to combine high-performance computing, artificial intelligence, and quantum computing. The National Nuclear Security Administration (NNSA) Mission and Vision systems are expected to be fully deployed in 2027 and 2028, respectively. These planned systems are expected to increase demand for advanced processors, accelerators, high-speed networking, storage, and HPC software to support scientific research, AI, national security, and engineering workloads.
The Canada high performance computing market is expected to benefit from growing requirements for domestically controlled computing and data infrastructure. The government's AI Sovereign Compute Infrastructure Program to develop large-scale infrastructure for researchers, innovators, and institutions. The broader strategy includes up to USD 1 billion for public supercomputing infrastructure and aims to increase domestic compute capacity while protecting national interests.
Unlock Regional Insightsto access country-level data, & regional trends.
Asia Pacific: Fastest Growth Driven by Rapid Expansion of National Supercomputing and Scientific Computing Capacity
The Asia Pacific high performance computing market is expected to grow at a CAGR of 10.1% during the forecast period, making it the fastest-growing regional market.
RIKEN’s FugakuNEXT is targeted to begin operations around 2030 and is being designed as an AI-HPC platform integrating large-scale simulation and artificial intelligence. Japan’s HPCI program has already scheduled access to expanded computing resources for FY2027–FY2028. The development of FugakuNEXT and additional next-generation computing resources is expected to increase demand for advanced processors, GPUs, high-speed interconnects, storage, cooling systems, and HPC software.
The China high performance computing market is expected to benefit from rising requirements for large-scale scientific and engineering computation. In April 2026, China's largest scientific intelligent computing cluster entered operation at the national supercomputing network's Zhengzhou core node, expanding the country's infrastructure for AI-driven scientific research. The cluster increased its deployment to 60,000 domestically produced AI accelerator chips and supports applications including drug discovery, materials research, and clean-energy development.
The India high performance computing market is expected to benefit from increasing expansion of HPC access across universities and research institutions. Under the National Supercomputing Mission, 37 supercomputers with approximately 39 PF of combined capacity had been deployed across academic institutions, universities, and R&D laboratories, supporting more than 10,000 researchers.
Europe: Market Expansion Supported by Integration of High-Bandwidth Data Center Computing Infrastructure
The Europe high performance computing market is expected to grow at a CAGR of 7.5% during the forecast period.
Germany’s National Data Center Strategy targets at least a fourfold increase in HPC and AI computing capacity by 2030, while new high-performance computers at the AI Factories in Jülich and Stuttgart and additional GCS systems in Munich and Stuttgart are planned for 2027. These developments are expected to increase demand for advanced processors, accelerators, high-speed interconnects, storage, cooling systems, and HPC software.
The UK Government’s updated Compute Roadmap outlines a future compute ecosystem combining dedicated supercomputers with cloud resources to provide flexible capacity for different research and innovation workloads. The roadmap also plans cloud procurement to complement national supercomputing infrastructure, allowing users to move workloads across dedicated and cloud environments according to computational requirements.
Latin America: Market Benefits from Energy and Resource Planning Initiatives
The Latin America high performance computing market is expected to grow at a CAGR of 7.9% during the forecast period. The Brazil high performance computing market is expected to benefit from rising computational requirements associated with energy and resource planning. Brazil’s energy planning institutions are increasingly incorporating data center expansion into electricity demand assessments. Mexico is developing the Coatlicue supercomputer, which is planned to provide 314 petaflops of computing capacity, positioning it as the most powerful supercomputer in Latin America.
Middle East & Africa: Market Development Supported by Expansion of Distributed Computing Infrastructure Across Large-Scale Digital Facilities
The Middle East & Africa HPC market is expected to grow at a CAGR of 8.6% during the forecast period, led by the expansion of distributed computing infrastructure across large-scale digital facilities as regional economies develop interconnected digital and data-processing capabilities. ADNOC is expanding the use of AI and advanced computing across energy operations in the UAE, including geological modeling, seismic analysis, real-time monitoring, and optimization of energy assets. The South African government introduced a renewed skills development strategy focused on aligning education and training with the requirements of a technology-driven economy, including stronger workplace-based and technical training.
The high performance computing market competitive landscape is moderately fragmented, with competition spread across HPC system manufacturers, processor and accelerator providers, storage & networking companies, cloud computing providers, and specialized HPC service providers. Established players such as Hewlett Packard Enterprise, Dell Technologies, Lenovo, IBM, Fujitsu, NVIDIA, AMD, and Eviden are expected to account for approximately 46.4% of the global high performance computing market share.
Established players compete through accelerator capabilities, high-speed interconnects, storage performance, and system reliability. Emerging and specialized players in the HPC market compete through GPU-accelerated architectures, specialized processors, cloud HPC platforms, and application-specific computing solutions.
September 2026: HPE expanded its collaboration with Oracle to deploy HPE Juniper Networking across Oracle’s global AI data centers.
July 2026: IBM and AMD expanded their collaboration by introducing a validated deployment pattern combining AMD accelerated computing with IBM Sovereign Core software.
June 2026: Dell Technologies launched the PowerEdge XE8812 server with NVIDIA Vera Rubin NVL4 architecture.
Customize This Report to Match Your Strategic Objectives
Author's Details
Research Experts
The Straits Research Team is a group of experienced researchers, analysts, and industry professionals dedicated to delivering reliable, insightful, and well-structured market intelligence. With expertise across multiple sectors and domains, the team combines extensive research, data analysis, and industry knowledge to provide a clear understanding of evolving markets and business environments.
The team focuses on identifying key market trends, emerging opportunities, technological developments, competitive landscapes, and changing industry dynamics. Through a thoughtful and research-driven approach, it aims to provide valuable insights that help businesses, investors, and decision-makers better understand their industries and make informed strategic decisions.
Document Scanner Market Size, Share, Growth, 2034
Enterprise Wearable Market Size, Share, Growth, Analysis, 2034
Kiosk Market Size, Share, Growth, Opportunities, Analysis, 2034
Europe Flexible Display Market Growth, Latest Trend Analysis and Forecast, 2034
North America IT Asset Disposition Market Size, Analysis, Research Forecast, 2034
AR and VR Headset Market Size, Share, Growth, Forecast, 2034
We are featured on:
sales@straitsresearch.com