How NetApp partners can drive business in a transforming industry
In today's fast-paced AI, automotive, and consumer electronics market, accelerating electronic design automation (EDA) flows is essential for businesses. Chip design teams are constantly updating and modernizing their design flows just to keep up with the growing complexity and size of 3-nanometer (3nm) and now 2nm design processes. These challenges push engineers, EDA tools, and IT infrastructure to the limits.
As digital designs get larger and process technologies get more complex, the demand for IT infrastructure increases and becomes more challenging. The industry has already experienced 4x-6x growth in CPU cores and 4x storage increases per project moving from 5nm to 3nm. According to leading design teams, moving to 2nm will require another 4x increase in CPU cores and storage capacity per project. For example, if a 5nm design required 10k cores and .25PB of data, a 3nm project required 40k cores and 1PB of data. A 2nm project would be projected to require 120k cores and 4PB of data per project.
This explosive growth has put strains on data centers as they reach their power and rack space limits. If you add in the need for new AI GPU infrastructure to power agentic AI–driven design flows, existing data centers are hitting their physical limits. Agentic AI–driven design flows are critical for closing the engineering productivity gap caused by the lack of college grads entering the semiconductor market.
These challenges have led to exploding chip development costs, aka nonrecurring engineering (NRE) costs. NRE cost is the total project cost, which includes people (~70%), design IP and EDA licenses (20%), and IT infrastructure (10%). Reducing NRE is critical because profitability typically requires a 10x return on NRE.
The cloud, either public (AWS, Microsoft Azure, Google Cloud) or private, offers the ability to quickly access nearly instant elastic compute capacity. EDA workloads tend to be bursty in nature, so being able to quickly scale up capacity to meet workload demand is ideal. Cloud is designed to enable quick scale-up and scale-down capacity on demand. On-premises compute resources are fixed, leading to periods of both high and low demand that affect overall data center utilization, but more importantly affect engineering productivity when compute availability exceeds compute demand.
Cloud provides more CPU choice in terms of processor types, sizes, and cost. Cloud providers typically have the latest CPUs from Intel, AMD, and ARM before most companies. Moreover, cloud provides a broader range of available compute configurations, performance needs to dual protocol support, dynamic service levels, and volume resizing.
Cloud is also uniquely ready to quickly enable adoption of GPU-heavy agentic AI workloads today. As new EDA workflows become available from Synopsys and Cadence, design teams will need access to the hard-to-come-by GPUs.
Cloud, either in a hybrid cloud or all-in-one-cloud model, will be required to meet the rapidly growing demand for compute capacity and GPUs for agentic AI–driven productivity, improved engineering productivity, lower project NRE, and project profitability. What often gets lost is improved productivity, which also leads to higher quality, higher levels of innovation, and more predictable business outcomes.
Based on the data collected over several years by the NetApp cloud team, organizations often migrate high-performance computing (HPC) workloads to the cloud to scale compute on demand, to reduce the complexity of on-premises infrastructure, to improve performance, and to manage costs flexibly.
According to 2025 Design Automation Conference (DAC) data, agentic AI will play a crucial role in addressing chip design complexity and the shortage of skilled engineers by providing smarter automation. Customers are seeking robust hybrid cloud solutions to prepare for the demands of agentic AI.
For nearly 30 years, the semiconductor industry has relied on NetApp to provide fast, scalable, secure, and efficient data management for its EDA workflows. NetApp® ONTAP® software is also the semiconductor industry’s choice in the cloud. ONTAP is available as native managed cloud services—Amazon FSx for NetApp ONTAP, Azure NetApp Files, and Google Cloud NetApp Volumes—as well as in a self-managed version called NetApp Cloud Volumes ONTAP, available in all three clouds.
The following figures illustrate NetApp’s intelligent data infrastructure for EDA in the cloud and an architecture example.
ONTAP in the cloud provides the same level of performance, security, connectivity, and scalability as the industry has relied on in its on-premises data centers. The EDA data management challenges can be seen from two different lenses: that of the engineering teams and that of the IT/storage teams. Each has unique, complementary requirements.
From the engineering lens, data must reside on an enterprise-grade, reliable, fast, scalable, simple, and consistent system that enables engineers to run their EDA workloads reliably and consistently. Data must be available where they need it and when they need it, whether it’s in a center supporting the United States, India, or Germany, or in a specific cloud region. Waiting for data slows development and innovation.
From the IT/storage lens, data must provide fast, consistent performance while also being secure, protected, reliable, and available—and simple to manage. With data measured in tens to hundreds of petabytes, data manageability at scale is a hard requirement. Because most semiconductor design teams and design data follow the sun in many different countries, data must also be manageable and secure wherever the data lives, whether that’s in a data center or in the cloud.
Leveraging cloud data management solutions based on intelligent data infrastructure is key to achieving these goals. These solutions offer better cost optimization, because you can maximize business value and minimize unnecessary expenses. On-premises clusters may be capacity-constrained or require large capital expenditure (capex) investments, and they might not be able to keep up with the latest compute and storage hardware cost-effectively. Cloud provides better performance efficiency, data consistency, and business continuity. Cloud also supports better parallel I/O operations, which is critical for workloads that require concurrent access to large datasets.
NetApp intelligent data infrastructure in the cloud supports EDA end-to-end engineering workflows. NetApp cloud solutions offer a comprehensive, reliable, and efficient platform for managing EDA workloads. NetApp is the only cloud storage provider that has first-party managed solutions with all three hyperscalers. With its scalability, high performance, robust security, seamless integration, cost efficiency, advanced data management, and global reach, NetApp empowers businesses to optimize their EDA processes and operate more efficiently. Choosing NetApp for an organization’s EDA workloads means choosing a partner committed to innovation, reliability, and excellence in data management.
Contributor: Special thanks to my colleague Michael Johnson for his help with this blog. Michael is a NetApp veteran and former semiconductor engineer, responsible for delivering industry-defining solutions in EDA, automotive, aerospace, and enterprise software.
Saroj Mohapatra has been in the IT industry for more than 25 years and joined NetApp in 2021. Now he is working on NetApp’s Hyperscaler Solutions GTM team and is responsible for enabling partners with industry-defining solutions, including EDA.