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Getting Started with Ampere CPUs

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Team Ampere
30 July 2025

How to get started with Ampere CPUs is one of the most common questions our Field Application Engineers (FAEs) hear from cloud service providers (CSPs). From platform selection to production rollout, teams want a clear, low-risk entry point that aligns with their infrastructure goals. We outline the key decisions CSPs face in their early implementation phase — and how our FAEs help guide them from trial to production.


Q: What are the first steps to implementing Ampere CPUs in a CSP environment?

CSPs typically move through a structured implementation flow:

  • Identify the platform mix – Choose between OxM-supported systems (like Supermicro, Giga Computing, or HPE, amongst many others) or self-managed, in-house builds. This decision sets the foundation for the support, procurement, and deployment models.
  • Run a proof of concept – Trial Ampere CPUs using a range of currently available cloud-based instances, bare-metal environments, or partner-delivered systems to validate performance and fit.
  • Select a beacon product – Identify a high-impact, low-risk workload that can go into production quickly and demonstrate value. For many CSPs, AI inference is an ideal fit — it's high-visibility, performance-sensitive, and ready to scale. This CSP product could take the form of an Inference-as-a-Service offering for customers or could support a specific inference-based SaaS offering.
  • Scale adoption – Once the initial product succeeds, expand Ampere deployment across broader services to realize long-term cost and efficiency gains at even larger scale.

Q: Why is the early platform decision so important?

Choosing the right platform upfront ensures a smooth entry point — politically, technically, and operationally. Some CSPs prefer a turnkey solution that integrates with existing OEM or ODM relationships, which is often the fastest path to deployment. Others lean toward full control and customization if they have already built out the platform design, firmware, and support capabilities internally. FAEs can help guide this decision early, helping teams avoid misalignment between procurement strategy and infrastructure goals.

Q: What does a successful proof-of-concept look like?

The proof-of-concept phase isn’t about chasing artificial benchmarks — it’s about building trust in real-world performance. Whether trialing through test infrastructure or trial systems, customers use this phase to confirm workload compatibility, power efficiency, and ease of deployment under their actual operating conditions.

Q: How does a “beacon product” help accelerate adoption?

A well-chosen beacon product creates momentum. These are practical, production-ready workloads that showcase Ampere’s advantages without requiring a full-stack overhaul. It might be bare metal, IaaS, AI inference, or even DDoS mitigation-as-a-service. Once that first service goes live and delivers, internal buy-in accelerates. It isn’t necessary to move everything to Ampere on Day One.

Q: What happens after the first win?

From there, expansion happens naturally. Some providers extend Ampere into more AI inference offerings, databases, hosting, storage, or a wide variety of other services — all supported by the same efficient, scalable architecture. With lower power consumption and compute-dense hardware, most CSPs quickly realize the total cost of ownership (TCO) gains go far beyond the pilot use case.

Real-world deployment in action

As an example, one European CSP began with a single bare-metal deployment. Today, they run hundreds of Ampere-powered instances across multiple customer-facing services. What made the difference wasn’t just performance — it was the ability to scale smart, deliver results, and control infrastructure costs in a power-constrained world.


Ready to take the first step?
Contact us to explore platform options, trial paths, and your first production-ready workload.


Disclaimer
All data and information contained herein is for informational purposes only and Ampere reserves the right to change it without notice. This document may contain technical inaccuracies, omissions and typographical errors, and Ampere is under no obligation to update or correct this information. Ampere makes no representations or warranties of any kind, including express or implied guarantees of noninfringement, merchantability, or fitness for a particular purpose, and assumes no liability of any kind. All information is provided “AS IS.” This document is not an offer or a binding commitment by Ampere.


System configurations, components, software versions, and testing environments that differ from those used in Ampere’s tests may result in different measurements than those obtained by Ampere.


©2025 Ampere Computing LLC. All Rights Reserved. Ampere, Ampere Computing, AmpereOne and the Ampere logo are all registered trademarks or trademarks of Ampere Computing LLC or its affiliates. All other product names used in this publication are for identification purposes only and may be trademarks of their respective companies.

Created At : July 23rd 2025, 12:19:03 am
Last Updated At : July 30th 2025, 10:52:01 pm
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