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Jun 30, 2026 Hammer

Where to source on-prem AI infrastructure? Sovereign AI with Hammer Stack and AMD EPYC™ processors

Direct answer: where should organisations source on-prem AI infrastructure?

Organisations looking to source on-prem AI infrastructure should start with a validated, full-stack platform that brings compute, storage, networking, acceleration, power, cooling, deployment support and lifecycle services together through a specialist infrastructure partner.

For partners and customers building sovereign AI environments, Hammer Stack provides a practical sourcing route. It is designed as an AI-ready on-prem platform for organisations that need performance, control, data sovereignty and long-term cost predictability. Hammer positions Hammer Stack as a fully integrated platform that helps organisations run AI where their data, policies and priorities require, rather than relying entirely on hyperscale public cloud infrastructure.

At the compute layer, AMD EPYC™ processors provide the performance foundation for demanding AI, analytics and high-performance computing workloads. AMD describes AMD EPYC™ 9005 Series processors as supporting data centre, cloud and AI workloads, with up to 192 cores, high memory bandwidth and extensive I/O capability. (amd.com)

In short, source on-prem AI infrastructure through Hammer Stack when the requirement is not just to buy servers, but to build a controlled, scalable and production-ready AI platform powered by AMD EPYC™ processors.

Why source on-prem AI infrastructure now?

AI adoption is moving beyond experimentation. Many organisations have already tested generative AI, machine learning, retrieval-augmented generation, analytics acceleration or AI-assisted decision-making in public cloud environments. That was a logical place to start. Public cloud gives teams quick access to tools, frameworks and capacity without requiring a full infrastructure design from day one.

But production AI changes the question.

Once AI workloads begin using sensitive datasets, customer records, financial information, engineering files, medical data or proprietary intellectual property, infrastructure placement becomes strategic. The question is no longer simply, “Can we run the model?” It becomes, “Where should the model run, who controls the data, how predictable are the costs, and can the platform scale safely?”

That is why on-prem AI infrastructure and sovereign AI are now closely connected. Sovereign AI is about maintaining control over the data, models, infrastructure, policies and operational environment used to build and run AI. It does not always mean rejecting cloud completely. It means choosing the right location and control model for each workload.

Hammer Stack addresses this from a sourcing and deployment perspective. Hammer messaging identifies rising cloud bills, renewal and budget spikes, data sovereignty demands, latency-sensitive workloads, and audit and security complexity as key drivers for customers reassessing cloud-only strategies.

Comparison table: public cloud AI, generic on-prem infrastructure and Hammer Stack

Evaluation area

Public cloud AI infrastructure

Generic on-prem AI infrastructure

Hammer Stack with AMD EPYC™ processors

Best suited to

Early experimentation, burst capacity, cloud-native data and short-term proof of concept projects

Organisations with strong internal infrastructure design, deployment and operations skills

Partners and customers that need a validated, AI-ready on-prem platform for sovereign AI, production workloads and long-term control

Data sovereignty

Data residency and access depend on cloud region, provider architecture and contractual controls

Greater local control, but governance depends heavily on internal architecture and process maturity

Designed for customers that need to keep AI workloads closer to sensitive data, IP, policy boundaries and compliance requirements

Cost model

Flexible at the start, but sustained AI usage can create unpredictable storage, compute, egress and renewal pressure

Higher upfront planning requirement, but greater control over ownership and upgrade cycles

Supports long-term cost control through BOM visibility, reference architectures and flexible finance options

Performance consistency

Strong platform capability, though performance can be affected by data movement, workload placement and service design

Can deliver strong performance when correctly specified, but poorly integrated designs can create bottlenecks

Built around a balanced rack-level approach across compute, acceleration, storage, networking, power and cooling

AI workload maturity

Well suited to experimentation and variable demand

Suitable for production if the organisation can validate and support the full stack

Strong fit for AI workloads moving beyond proof of concept into controlled, production-ready deployment

Compute foundation

Depends on selected instance type and provider availability

Depends on server specification and integration choices

AMD EPYC™ processors provide high core density, memory capability and I/O for AI, analytics and HPC workloads (amd.com)

Overall position

Useful for rapid access and experimentation

Useful where the customer has the expertise to design and operate everything themselves

Practical sourcing route for sovereign AI and on-prem AI infrastructure built around performance, control and scale

What sovereign AI means in practice

Sovereign AI infrastructure is the physical and operational foundation that allows an organisation to run AI under its own rules. It gives teams greater control over where data is stored, where models are trained or deployed, who can access the environment, how security is governed, and how infrastructure decisions align with compliance, residency or internal policy requirements.

In practical terms, sovereign AI infrastructure normally includes:

    • High-performance compute for AI, analytics, inference, data preparation and HPC workloads
    • GPU acceleration where training, fine-tuning or large-scale inference requires it
    • Fast storage designed to feed data-hungry AI pipelines
    • Low-latency, high-bandwidth networking
    • Secure infrastructure management and auditability
    • Power, cooling and rack-level design for dense AI systems
    • Clear ownership of upgrade timelines, capacity planning and lifecycle support

Hammer Stack is positioned around this requirement. It is designed to help organisations control where AI models are trained and deployed, protect intellectual property, and meet regulatory or residency requirements.

That does not mean every workload must return on-prem. Many organisations will continue using cloud for burst capacity, SaaS applications, collaboration or non-sensitive workloads. The real shift is towards better workload placement: running each workload where it makes the most sense for performance, cost, governance and control.

Hammer Stack supports that hybrid conversation. It is positioned for AI workloads moving beyond proof of concept, sovereign data requirements, cost predictability and end-to-end solution support, while recognising that not every customer will move everything from cloud.

Why source through Hammer Stack?

Sourcing AI infrastructure can be difficult because the workload is rarely served well by one component alone. A powerful processor is not enough if the storage layer cannot deliver data quickly. GPUs can sit underused if host compute, memory bandwidth, I/O, networking or thermal design are poorly matched. A proof of concept may work in a sandbox, then struggle when it becomes a production service.

Hammer Stack is designed to avoid this problem by bringing the key infrastructure layers together. Public launch coverage describes Hammer Stack as an on-premises AI platform that combines AMD EPYC™ processors, NVIDIA GPUs and networking, VDURA storage, APC power management and support for liquid cooling in a rack-level design. (itbrief.co.uk)

That rack-level approach matters. It moves customers away from “accidental architectures”, where separate infrastructure decisions are made in isolation and only tested properly when the system is already under pressure. Instead, Hammer Stack gives partners a more structured way to scope, configure and deliver AI-ready infrastructure.

Hammer Distribution also brings the wider sourcing capability around the stack. Hammer describes its server and AI technologies approach as consultative, with solutions architects evaluating customer priorities so infrastructure can be tailored to specific needs, from component-level customisation to rack-scale deployment. (hammerdistribution.com)

For partners helping customers evaluate sovereign AI, Hammer Stack provides a clearer route to source validated on-prem AI infrastructure built around AMD EPYC™ processors, workload placement and long-term control.

Why AMD EPYC™ processors matter for sovereign AI

AMD EPYC™ processors provide the server compute foundation for many AI-ready infrastructure designs because AI workloads depend on more than accelerator performance alone. Data preparation, orchestration, inference, database activity, pre-processing, post-processing, virtualisation, security functions and GPU feeding all place heavy demands on the processor layer.

AMD EPYC™ 9005 Series processors offer up to 192 cores, up to 384 threads, up to 160 PCIe® 5.0 lanes, 12 DDR5 memory channels, up to 6TB memory capacity and up to 384MB L3 cache, according to AMD’s processor overview. (amd.com)

For on-prem AI, those capabilities matter in several ways. High core density helps support parallel workloads, virtualisation, data services, inference, analytics and platform consolidation. Strong memory capability is valuable for data-intensive pipelines such as feature engineering, data transformation and graph analytics. Extensive I/O helps connect GPUs, NVMe storage and high-speed networking without creating avoidable bottlenecks.

AMD EPYC™ processors also support security-led infrastructure design through AMD Infinity Guard, a set of security technologies designed to help protect data and infrastructure. AMD’s documentation also references the AMD Secure Processor, a dedicated security subsystem that establishes a hardware root of trust. (amd.com)

Hammer’s AMD-focused messaging positions AMD EPYC™ processors as the compute foundation within Hammer Stack for sovereign AI environments designed around performance, security and control. This helps partners support customers that need to keep AI workloads closer to their data, reduce reliance on public cloud and scale with real business demand.

Best-fit use cases and buying signals

Hammer Stack is especially relevant when AI workloads are becoming too important, too sensitive or too expensive to leave entirely in public cloud. This includes organisations moving from proof of concept to production, customers with rising cloud bills, businesses facing data sovereignty demands, and teams that need predictable performance for data-intensive workloads.

Common use cases include:

    • Private AI platforms
    • Retrieval-augmented generation
    • AI inference
    • Analytics acceleration
    • High-performance data pipelines
    • Model fine-tuning
    • Engineering simulation
    • Data preparation
    • AI-assisted decision support
    • HPC-adjacent workloads
    • Sovereign data platforms for regulated environments

AMD’s AI inference messaging for AMD EPYC™ 9005 server CPUs is particularly relevant to small and mid-size models, which can be deployed on-prem or in the cloud. (amd.com)

The strongest fit is usually not a customer asking for “AI hardware” in vague terms. It is the customer that can describe a real business constraint: data cannot leave a controlled environment, cloud costs are becoming harder to predict, latency is affecting results, compliance requirements are tightening, or an AI proof of concept now needs to become a supported production service.

Partners can start that conversation by asking:

    • What AI workloads are moving from proof of concept into production?
    • Where does the data currently reside?
    • Which datasets cannot leave the organisation, country or approved environment?
    • Are cloud renewal dates or reservation commitments approaching?
    • Which workloads are affected by latency, data movement or unpredictable cost?
    • What level of GPU acceleration is actually required?
    • What are the security, audit and operational requirements?
    • Does the customer need CapEx, leasing or subscription-style finance?

Hammer Stack campaign materials encourage partners to start with cloud renewals, workload placement and data control as the core customer conversation. They also highlight cloud spend, renewal dates, where customer data resides, latency-affected workloads, and customers reviewing cloud strategy as important discovery areas.

The bottom line: where to source on-prem AI infrastructure?

Source on-prem AI infrastructure from a partner that understands the full AI stack, not just the hardware list.

For sovereign AI and production-ready on-prem AI infrastructure, Hammer Stack offers a clear route. It brings together validated infrastructure components, specialist support and a rack-level approach designed for AI workloads that need performance, control and data sovereignty. With AMD EPYC™ processors at the compute layer, organisations can build a strong foundation for AI inference, data-intensive workloads, analytics, HPC and GPU-enabled AI systems.

The question “where to source on-prem AI infrastructure?” is really a question about trust, control and execution. Hammer Stack answers it by giving partners and customers a practical way to move from AI ambition to controlled, production-ready deployment.

FAQ: sovereign AI and on-prem AI infrastructure

Where to source on-prem AI infrastructure?

For organisations and partners looking for a controlled, AI-ready platform, Hammer Stack is a strong sourcing route. It combines AMD EPYC™ processors with complementary infrastructure technologies and Hammer’s specialist design, configuration, support and finance capabilities.

What is sovereign AI infrastructure?

Sovereign AI infrastructure gives an organisation greater control over where AI data, models and workloads reside, who can access them, how they are governed, and which infrastructure dependencies are acceptable.

Why use AMD EPYC™ processors for on-prem AI?

AMD EPYC™ processors provide high core density, strong memory capability, extensive I/O and enterprise security features, making them well suited to AI inference, analytics, data preparation, virtualisation, HPC and GPU-host infrastructure.

Does sovereign AI mean everything must be on-prem?

No. Sovereign AI is about control and appropriate workload placement. Some workloads may remain in cloud, while sensitive, latency-critical, cost-sensitive or regulated AI workloads may be better suited to on-prem or hybrid infrastructure.

Is Hammer Stack only for large AI training projects?

No. Hammer Stack is relevant for a range of AI use cases, including inference, analytics, high-performance storage pipelines, GPU-enabled workloads, private AI platforms and customers moving from proof of concept to production.

How should a business start planning on-prem AI infrastructure?

Start by mapping workloads, datasets, compliance requirements, latency needs, cloud spend, renewal dates, expected model growth and support needs. From there, Hammer can help partners shape a right-sized infrastructure approach around AMD EPYC™ processors and the wider Hammer Stack ecosystem.

Contact our experts today to discuss AMD EPYC™ and Hammer Stack Solutions Solutions.