AmpereOne® is the next generation of Cloud Native Processors from Ampere, extending the family of high-performance processors to new industry leading core counts. The AmpereOne family establishes new levels of performance and VM density for computing solutions at scale.

AmpereOne compliments the existing Ampere® Altra® products and adheres to the same Cloud Native principles:

• High Performance and Predictable
• Elastic and Scalable
• Power Efficient and Sustainable

Ampere is more. More cores, more memory bandwidth, more memory capacity, more IO bandwidth, and more Cloud Native features. Read how AmpereOne processors can help fuel the next wave of innovation

The AmpereOne family picks up from the top end of the Ampere Altra family, offering products from 96 cores up to 192 cores operating at consistent and predictable frequencies of up to 3.7 GHz. Each core is single-threaded by design with its own 16 KB L1 Instruction-cache, 64 KB L1 Data-cache, while doubling the L2 private cache to 2 MB.

Large private caching, consistent operating frequency, single threaded cores, and new memory management features combine to deliver predictable performance by mitigating the noisy neighbor challenges in multi-core processing architectures while providing a very secure microarchitecture for multi-tenant cloud environments.

A coherent mesh interconnect provides efficient bandwidth with 64 distributed home nodes and directory-based snoop filters to enable seamless connectivity between the cores. AmpereOne also adds Mesh congestion management and QOS enforcement features further augmenting the predicable behavior of data movement in high core count products.

Supporting eight 80-bit DDR5 channels, the AmpereOne family offers an improvement in memory bandwidth and a larger addressable space of up to 8 TB of memory.

Using industry leading power efficiency per core, the AmpereOne family provides high performance processing products up to 192 cores providing further scalability to deploy dense compute for the most demanding compute installations on the planet, especially in hyperscale data centers. ​

AmpereOne dense Cloud Native Processors deliver the most cores per rack, maximize the number of servers per rack, and provide the highest performance per rack for the most sustainable and power- efficient computing installations in the industry.

The AmpereOne family provides consistent incremental performance on a per core basis. Workloads scale linearly as more processes are added to the single-threaded cores. For dense virtual machine implementations, more VMs can be provisioned on an AmpereOne high core count processor than any other compute product in the industry.

With up to 128 lanes of PCIe Gen5 (32 GT/s per lane) per socket, the AmpereOne family provides the flexibility to add up to 32 off-chip devices, including networking cards, storage/NVMe devices, GPUs, and other accelerators. AmpereOne platforms are well suited to a variety of system configurations delivering the highest performance for large capacity storage, networking, AI inference, and the newest generative AI models and applications.

The AmpereOne family leads all other server compute products in this key metric: performance per rack. This allows operators and IT designers unprecedented compute capacity for high-density compute environments. This advantage reduces rack and floor space, trims power requirements for operational efficiency, and saves money. Carbon footprints are drastically reduced allowing managers to meet aggressive ESG goals and shorten the time to Net-Zero emissions initiatives.

The densest compute products in the AmpereOne family allow Cloud Native workloads to scale out providing maximum rack capacity and outperforming legacy x86 products at the rack level. This efficiency can reduce operational IT budgets by 10s to 100s of millions of dollars.

The AmpereOne family includes new advanced power management features: Advanced Configuration Power Interface (ACPI) v6.4 support; Adaptive Voltage Scaling (AVS); Dynamic Voltage Frequency Scaling (DVFS); fine-grained thermal monitoring and power provisioning; and dynamic power estimation.

* Performance per socket and usage power data based on estimated SPECrate®2017_int_base (GCC13) and are subject to change based on system configuration and other factors. Usage Power is defined as average power consumed over time by a given workload.

The Export Control Classification Number (ECCN) for the AmpereOne family products is 5A992.C. This information is provided AS-IS, for informational purposes only, is not a representation or warranty of any kind, and is subject to change without notice. Ampere is not responsible for any losses or damages of any kind incurred as a result of using or relying on this information. Each purchaser, consignee or user of Ampere products is solely responsible for its compliance with all applicable laws and regulations. For additional information, please contact tradecompliance@amperecomputing.com.

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While the information contained herein is believed to be accurate, such information is preliminary, and should not be relied upon for accuracy or completeness, and no representations or warranties of accuracy or completeness are made.

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Without limiting the generality of the foregoing, any performance data contained in this document was determined in a specific or controlled environment and not submitted to any formal Ampere Computing test. Therefore, the results obtained in other operating environments may vary significantly. Under no circumstances will Ampere Computing be liable for any damages whatsoever arising out of or resulting from any use of the document or the information contained herein.

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