TL;DR

The enterprise AI market makes more sense as an architecture map than as a vendor ranking. Microsoft, Google, Salesforce, OpenAI, Anthropic, Meta, Mistral, NVIDIA, AMD, Intel, Dell, HPE, Cisco, Lenovo, Supermicro, Arista, and Broadcom are not competing inside isolated categories. They are competing for control points that span user workflows, model distribution, inference runtimes, private infrastructure, network fabrics, and accelerator economics.

The most important question is not which company is the biggest shark. It is which company controls the boundary your organization cannot easily replace. A SaaS platform may control business context. A model provider may control intelligence quality and developer demand. An inference platform may control throughput, latency, and portability. An infrastructure vendor may control the support boundary. A networking vendor may determine whether expensive accelerators scale efficiently. A silicon provider may shape the cost curve beneath everything else.

This map shows where the predators overlap, where they depend on one another, where partnerships create temporary alignment, and where competition is becoming brutal. It also gives architects a practical way to choose control points without accidentally turning one AI project into a six-layer lock-in decision.

Introduction

AI vendor comparisons often begin with a leaderboard. Which model scored highest? Which accelerator has the most memory? Which cloud has the broadest catalog? Which private AI appliance deploys fastest?

Those questions are useful, but they are not enough to explain the architecture.

An enterprise does not buy a model in isolation. It buys a chain of dependencies that begins with a business workflow and ends with power, cooling, network links, accelerators, firmware, drivers, runtimes, orchestration, model weights, APIs, identity, observability, support contracts, and people who must operate the result after the demonstration is over.

That chain changes the competitive picture. Microsoft can be a SaaS vendor, cloud platform, model distributor, model partner, inference provider, and custom silicon designer. Google can be a SaaS vendor, foundation-model creator, model marketplace, cloud platform, network operator, and TPU provider. NVIDIA can be a GPU company, networking company, systems architect, inference software provider, enterprise software vendor, and reference-design authority. Cisco can sell network fabrics, systems, security, observability, and an AI factory architecture that incorporates NVIDIA technology while preserving Cisco control points.

The market is not a set of neat horizontal rows. It is an ocean full of vertical predators.

The purpose of this article is not to rank them. It is to map them.

Why Vendor Rankings Miss the Architecture

A ranking assumes the competitors are trying to win the same contest. Most AI vendors are not.

OpenAI and Anthropic compete for model adoption, developer preference, enterprise trust, and distribution. Meta and Mistral use open-weight or deployable model strategies to compete through ecosystem reach, sovereignty, customization, and placement flexibility. Microsoft, Google, and Salesforce compete for the business workflow where AI is consumed. NVIDIA, AMD, and Intel compete for accelerator demand, but their software, networking, and systems strategies differ substantially.

Dell, HPE, Cisco, Lenovo, and Supermicro compete to turn component stacks into supportable enterprise infrastructure. Spectrum-X, Cisco Nexus, Arista, and Broadcom compete over the fabric that converts individual accelerators into a useful cluster.

A single ranked list would flatten those differences into noise.

The better unit of analysis is the control point. A control point is a layer, interface, contract, or operating dependency that gives one provider durable influence over architecture choices above and below it.

Examples include:

• the employee productivity suite where users invoke AI
• the CRM or data platform that holds business context
• the model API embedded in applications
• the runtime that determines throughput and memory behavior
• the Kubernetes operator or service plane used for deployment
• the server and storage architecture covered by enterprise support
• the Ethernet or InfiniBand fabric used for scale-out training and inference
• the accelerator software ecosystem used by developers and operators
• the identity, policy, telemetry, and governance layer that spans all of them

The strongest vendor position is rarely ownership of one product. It is ownership of an interface that makes several products feel like one platform.

Scope, Assumptions, and the Missing Species

This is an architecture map, not a market-share report, financial ranking, benchmark comparison, or prediction of which companies will survive. It focuses on the vendors and projects in the proposed six-layer map, then adds one necessary correction: custom silicon is now too important to leave outside the picture.

The map uses six primary layers:

1. SaaS AI and business workflow
2. Foundation models
3. Inference platforms
4. Enterprise infrastructure and private AI factories
5. Networking
6. GPUs and accelerators

These layers are simplified on purpose. Real deployments also require cloud infrastructure, storage, data platforms, Kubernetes, identity, security, observability, power, cooling, facilities, and application engineering. Those concerns appear throughout the analysis because they frequently determine who actually owns the operational boundary.

Three assumptions guide the map.

First, the enterprise will use more than one model. Even organizations that standardize on a strategic provider usually retain alternatives for cost, latency, sovereignty, modality, resilience, or specialized workloads.

Second, inference will consume more architectural attention than model experimentation. Once AI reaches production, token throughput, queueing, memory management, latency, availability, and cost per useful task become operational concerns.

Third, vertical integration will continue, but complete vertical ownership will remain rare. Most vendors still need partners for distribution, compute, networking, manufacturing, data, or enterprise support. The result is a market in which partners compete and competitors partner at the same time.

The Missing Layer: Custom Silicon

The original predator map ends with NVIDIA, AMD, and Intel. That is useful, but incomplete.

Google TPUs, AWS Trainium, Microsoft Maia, and the OpenAI-Broadcom Intelligence Processor effort form a shadow reef beneath the public GPU market. These accelerators are not always sold as general-purpose merchant products, but they influence cloud pricing, model economics, capacity planning, and negotiating power.

Custom silicon matters because it changes the leverage of every layer above it. A model company with access to multiple accelerator families can reduce dependency on one supplier. A cloud provider with its own inference silicon can differentiate price and capacity. An open inference runtime that supports several backends becomes strategically more valuable. A proprietary optimization stack can become both a performance advantage and a portability constraint.

That shadow layer will appear throughout the map.

The Great AI Predator Map

The first diagram shows the market as a layered architecture, but the vertical arrows are more important than the rows. They show where vendors cross boundaries and attempt to convert one position into control of another.

The map should not be read as a clean dependency ladder. It is a set of control surfaces.

Layer	What the enterprise believes it is buying	What it is actually committing to	Common lock-in mechanism
SaaS AI	Copilots, agents, productivity, CRM automation	Workflow, data context, identity, governance, user behavior	Business process and embedded data
Foundation models	Intelligence quality and model capability	API semantics, evaluation baselines, safety behavior, prompt patterns	Application coupling and model-specific behavior
Inference platforms	Faster and cheaper model serving	Runtime APIs, scheduling assumptions, engine compatibility, deployment tooling	Optimization path and operational tooling
Infrastructure	Servers, racks, storage, and support	Lifecycle model, validated configurations, firmware cadence, support demarcation	Certified stack and support contract
Networking	Connectivity	Cluster efficiency, failure behavior, congestion policy, observability	Fabric design and operational model
Accelerators	Compute capacity	Software ecosystem, memory model, compiler path, supply chain, power envelope	Developer ecosystem and optimized libraries

This is why a procurement exercise cannot safely begin at the product row. It must begin with the control point the organization is willing to delegate.

The Control Currents That Connect the Stack

The next diagram shows the directional economics of the architecture. User value and business context tend to accumulate near the top. Capital cost, power demand, supply-chain exposure, and failure blast radius accumulate near the bottom. Telemetry, data, model feedback, and commercial leverage move in both directions.

The architecture becomes unstable when the organization optimizes only one direction.

A team that optimizes the top of the stack may choose the best user experience while ignoring capacity concentration, data movement, or model portability. A team that optimizes the bottom may build a powerful AI factory without a clear business workflow or adoption path. A team that optimizes model quality may create an inference cost structure that cannot survive production demand. A team that optimizes benchmark throughput may lose observability, supportability, or change control.

The map therefore needs two views at once: who creates value, and who controls the constraints.

SaaS AI: Predators Closest to the Business Workflow

The SaaS layer is strategically powerful because it controls the point where AI becomes work. Model providers may produce intelligence, but SaaS vendors decide where that intelligence appears, what enterprise data it can reach, which identity invokes it, and how the result becomes an action.

This layer can commoditize everything below it. When users experience AI through Microsoft 365, Google Workspace, Salesforce, or an industry application, the underlying model may become a selectable implementation detail rather than the product they believe they are using.

Microsoft

Microsoft occupies more layers than almost any company in the map. It owns productivity and collaboration surfaces, business applications, identity, security, Azure infrastructure, a broad model catalog, managed AI development services, and custom inference silicon.

Its strategic advantage is not merely access to OpenAI models. It is the ability to place AI inside workflows already governed by Microsoft identities, data policies, administrative controls, and commercial agreements. Azure Foundry also gives Microsoft a multi-model distribution role that includes Microsoft models, Azure OpenAI models, Anthropic Claude, Meta, Mistral, and other providers.

That creates a two-sided position. Microsoft can benefit when a specific model wins, and it can benefit when enterprises decide no single model should win.

The April 2026 restructuring of the Microsoft-OpenAI relationship reinforces that distinction. Microsoft remains a major strategic and cloud partner, but OpenAI has greater freedom to serve products across clouds. Microsoft retains significant intellectual-property and Azure positioning, yet Azure must increasingly compete as a platform rather than rely on exclusive distribution.

For enterprise architects, the Microsoft control point is usually not the model. It is the combination of identity, productivity workflow, business data, Azure platform services, governance, and commercial bundling.

Google

Google combines a first-party foundation-model family, Google Workspace, Google Cloud, Vertex AI, Model Garden, global infrastructure, high-performance networks, and TPU silicon.

Its Model Garden strategy is architecturally important because it places Gemini beside models from Anthropic, Meta, Mistral, and other providers. Google can compete through Gemini while also operating the distribution and governance plane for competing models.

Google also has a deep infrastructure advantage. It can tune models, runtime services, networks, storage, and TPUs as one system. That makes Google both a model predator and a full-stack predator.

The enterprise control point is the combination of Gemini, data services, Workspace distribution, Vertex AI governance, and TPU economics. Organizations that already concentrate analytics and data engineering in Google Cloud may find that the model decision becomes secondary to data gravity and platform integration.

Salesforce

Salesforce does not need to own the dominant foundation model to remain strategically important. It owns business records, customer context, workflow logic, permissions, and a large application ecosystem.

Agentforce increasingly presents model choice across providers such as OpenAI, Anthropic, and Google. That turns the Salesforce layer into a broker and policy boundary. Models compete underneath the application, while Salesforce controls how model output reaches customer data and business actions.

This is a different kind of predation. Salesforce can let model vendors compete for inference while preserving control over the higher-value workflow, trust, data, and application boundary.

Its dependency risk is also clear. Salesforce relies more heavily than Microsoft or Google on external infrastructure and foundation-model ecosystems. Its strategic response is to make those dependencies replaceable while making its own business context difficult to replace.

Where SaaS Predators Overlap

Microsoft, Google, and Salesforce overlap in five areas:

• enterprise agents and copilots
• access to business data
• model catalogs and provider choice
• workflow automation
• identity, policy, monitoring, and governance

Their competition will not be settled by one model benchmark. It will be settled by which platform becomes the default place where employees ask for work, where agents receive authority, where business context is assembled, and where organizations can prove what the AI did.

The SaaS layer is therefore the battle for the user relationship and the action boundary.

Foundation Models: Intelligence Producers Fighting for Distribution

Foundation-model providers appear to occupy a clean horizontal layer, but their strategies are diverging. Some seek vertically integrated services. Some seek multi-cloud distribution. Some use open weights to create ecosystem reach. Some emphasize sovereignty and deployment choice.

The model is important, but the model alone is not the product architecture.

OpenAI

OpenAI combines frontier-model development, a consumer and enterprise application surface, developer APIs, agent tooling, and expanding infrastructure relationships.

Its early enterprise distribution was strongly associated with Microsoft and Azure. That relationship remains important, but OpenAI is now broadening cloud and infrastructure options. It is also working directly on custom inference silicon with Broadcom.

This expansion changes OpenAI’s architectural role. It is no longer only a model supplier inside another company’s cloud. It is becoming an application vendor, API platform, infrastructure buyer, and silicon co-designer.

The strategic tension is clear. OpenAI benefits from broad distribution through Microsoft, cloud partners, and SaaS ecosystems, but it also wants greater control over capacity, cost, product experience, and infrastructure destiny.

Anthropic

Anthropic has built a deliberately multi-hardware and multi-cloud posture. Claude runs across AWS Trainium, Google TPUs, and NVIDIA GPUs. Amazon remains a primary cloud and training partner, while Anthropic also has strategic relationships with Google, Broadcom, Microsoft, and NVIDIA.

That diversity is not just procurement. It is architecture leverage.

A model company that can train and serve across multiple accelerator ecosystems can negotiate capacity, reduce supply concentration, and reach enterprises through several clouds. The cost is engineering complexity. Compilers, kernels, serving stacks, observability, performance characteristics, and failure modes differ across hardware families.

Anthropic’s position illustrates a major market trend: model providers want distribution everywhere and dependency nowhere.

Meta

Meta’s Llama strategy competes through ecosystem distribution rather than a single managed endpoint. Llama models are available through major clouds, hardware vendors, data platforms, enterprise platforms, and local deployment paths.

That makes Meta less dependent on owning the enterprise inference bill directly. Its influence comes from making Llama a common model family across on-device, on-premises, cloud, research, and commercial environments.

Open-weight distribution also creates pressure on closed model providers. It gives enterprises a portability and customization option, and it gives infrastructure vendors a model family they can package without routing every request through an external proprietary API.

The tradeoff is that model availability does not equal production readiness. The enterprise still owns evaluation, safety controls, fine-tuning governance, inference operations, patching, observability, and support integration unless a platform provider absorbs those responsibilities.

Mistral

Mistral competes through efficient models, deployability, European positioning, sovereign AI narratives, and partnerships across Microsoft, Google Cloud, AWS, NVIDIA, IBM, and other platforms.

Its strategic value is strongest where enterprises want capable models without making a single U.S. hyperscaler or closed-model API the permanent control point. Mistral can fit public cloud, private infrastructure, and regional sovereignty architectures.

Its challenge is distribution scale. Broad partnerships help, but the company competes against larger model labs, cloud-owned models, and open-weight ecosystems with enormous developer reach.

The Model Layer Is Less Independent Than It Looks

Model companies depend on four things they do not fully control:

• accelerator capacity
• cloud and data-center infrastructure
• distribution into enterprise workflows
• inference software that turns model quality into acceptable production economics

This dependence explains the partnership density. OpenAI partners with Microsoft, Amazon, Broadcom, and others. Anthropic uses multiple clouds and accelerator families. Meta distributes through nearly every major infrastructure ecosystem. Mistral appears across hyperscalers and enterprise platforms.

The model predators are fighting one another, but they are also competing to avoid becoming a feature inside someone else’s platform.

Inference Platforms: Where Models Become Token Factories

The inference layer is often described as a list of interchangeable serving products. That is inaccurate. NVIDIA NIM, vLLM, TensorRT-LLM, and NVIDIA Dynamo solve different parts of the production problem.

This distinction matters because the inference layer is where model capability becomes an operational service. It determines how weights are loaded, how requests are batched, how memory is managed, how key-value caches are placed, how work is scheduled, how failures are handled, how traffic is routed, and how many useful outputs the infrastructure produces per unit of time and cost.

Platform	Primary architectural role	Hardware posture	Strategic control point
NVIDIA NIM	Packaged model microservices and supported deployment profiles	NVIDIA-centered, with selectable optimized backends	Operational packaging, validated profiles, enterprise distribution
vLLM	Open high-throughput inference engine and API-compatible server	NVIDIA, AMD, Intel, CPU, and other supported paths	Portability, open ecosystem, serving-engine abstraction
TensorRT-LLM	Deeply optimized inference library and runtime	NVIDIA GPUs	Maximum NVIDIA-specific optimization and kernel control
NVIDIA Dynamo	Distributed inference framework and orchestration layer	Backend-flexible, including vLLM, TensorRT-LLM, and SGLang integrations	Disaggregated serving, routing, planning, cache movement, distributed control

NVIDIA NIM

NVIDIA NIM packages models as deployable inference microservices with tested profiles, standardized APIs, container delivery, and integration into the NVIDIA AI Enterprise ecosystem.

NIM is not simply another engine. A NIM profile can select backends such as TensorRT-LLM, vLLM, or SGLang depending on the model and supported configuration. Its value is the supported packaging and lifecycle boundary around an optimized model service.

For an enterprise, that can reduce the work required to identify compatible model artifacts, runtime versions, engine settings, and deployment profiles. The tradeoff is that the organization is moving further into NVIDIA’s enterprise software and hardware operating model.

NIM’s strategic function is to convert NVIDIA optimization into a consumable platform service.

vLLM

vLLM is the portability predator in this layer. It is an open inference engine with broad adoption and support across NVIDIA CUDA, AMD ROCm, Intel XPU, CPUs, and additional platforms.

Its value is not that every backend performs identically. They do not. Its value is that applications and platform teams can standardize more of the serving interface while retaining hardware options.

That makes vLLM attractive to clouds, model providers, platform teams, and infrastructure vendors that want an open serving substrate. It also makes vLLM strategically dangerous to vertically integrated stacks. Every workload that can move through an open runtime weakens the ability of one hardware vendor to control the full inference path.

The portability is not free. Hardware-specific builds, kernels, features, quantization paths, memory behavior, and performance tuning still differ. An API-compatible layer does not erase the need for backend validation.

TensorRT-LLM

TensorRT-LLM is the optimization predator. It is designed to extract high inference performance from NVIDIA GPUs through optimized kernels, quantization, parallelism, scheduling, and runtime integration.

Its strength is depth. NVIDIA controls the GPU architecture, CUDA ecosystem, communication libraries, inference software, and a growing portion of the surrounding platform. TensorRT-LLM can exploit that knowledge more aggressively than a hardware-neutral runtime.

Its architectural tradeoff is equally direct. The more an application or platform depends on NVIDIA-specific optimizations, the harder it becomes to move the workload to another accelerator family without revalidation or redesign.

TensorRT-LLM is therefore both a performance tool and a strategic lock-in mechanism, depending on how tightly the enterprise couples applications and operations to it.

NVIDIA Dynamo

Dynamo sits above the individual inference engine. It addresses distributed inference as a system problem, including request routing, disaggregated prefill and decode, key-value cache movement, service-level objective planning, backend workers, and Kubernetes integration.

Its backend support is strategically important. Dynamo can work with vLLM, TensorRT-LLM, and SGLang. NVIDIA is not only optimizing its proprietary engine. It is attempting to own the distributed serving control plane even when an open engine performs the token generation.

That is a classic vertical move. When the lower-level runtime becomes more portable, the vendor can move the control point upward into orchestration, routing, planning, cache management, and enterprise operations.

Why These Products Are Not Peers

The relationship is better represented as a stack than a ranking.

The exact placement can vary by product release and deployment pattern, but the conceptual distinction is durable:

• NIM packages and distributes supported model services.
• vLLM and TensorRT-LLM execute inference.
• Dynamo coordinates distributed inference systems.

This is one of the most important areas of the entire predator map. The vendor that owns the inference control plane can influence hardware placement, request routing, cache architecture, autoscaling, observability, and cost allocation without owning the model itself.

Infrastructure: The Enterprise Support Boundary

Enterprise infrastructure vendors sit between component innovation and operational accountability. Their value is not merely placing GPUs in a server. It is creating a validated and supportable system from accelerators, CPUs, memory, storage, network adapters, switches, firmware, cooling, racks, power, operating systems, Kubernetes, AI software, and services.

This layer is where reference architecture becomes an operating model.

Dell AI Factory

Dell AI Factory with NVIDIA combines Dell servers, storage, networking, services, and NVIDIA accelerated computing and software. Dell’s influence comes from its enterprise installed base, PowerEdge systems, data platforms, global services, and ability to package validated AI infrastructure.

Dell is also expanding AI infrastructure with AMD Instinct accelerators and open software such as ROCm and vLLM. That matters because it positions Dell as more than an NVIDIA channel. Dell can offer an accelerator portfolio and use infrastructure integration as the control point.

The strategic battle is whether the customer views the AI factory as a Dell-operated infrastructure lifecycle or as an NVIDIA architecture delivered through Dell hardware.

HPE Private Cloud AI

HPE Private Cloud AI combines HPE infrastructure and GreenLake operations with NVIDIA accelerated computing, networking, and AI software.

HPE is also working with AMD and Broadcom on the Helios rack-scale architecture. That creates a second path based on AMD Instinct accelerators, open scale-up networking, HPE Juniper networking, and Broadcom silicon.

This dual posture is important. HPE can participate in NVIDIA’s full-stack ecosystem while developing an alternative rack-scale architecture. Its control point is the private cloud operating experience, consumption model, lifecycle, and support boundary.

Cisco

Cisco is unusual because it spans networking, systems, security, observability, and AI factory architecture. Cisco Secure AI Factory with NVIDIA combines Cisco compute and networking with NVIDIA accelerators and AI software, then wraps the platform in Cisco security and operations capabilities.

Cisco’s strongest position is not simply selling servers. It is controlling how the AI environment connects, segments, authenticates, monitors, and integrates with the existing enterprise network.

Cisco also has a strategic hedge at the silicon level. Nexus One can incorporate Cisco Silicon One and NVIDIA Spectrum-X switch silicon under a Cisco networking and operations model. Cisco can partner with NVIDIA while preserving the network control plane and customer relationship.

Lenovo

Lenovo’s hybrid AI strategy spans client devices, edge systems, enterprise servers, liquid cooling, private AI infrastructure, and large-scale NVIDIA-based AI factories.

Its value is breadth across placement domains. An enterprise may need small edge inference, departmental GPU systems, centralized private clusters, and large factory-scale infrastructure. Lenovo can position one lifecycle and services relationship across those environments.

The competitive challenge is differentiation. Much of the accelerator, networking, and AI software stack may come from strategic partners. Lenovo must therefore win through systems engineering, cooling, supply-chain execution, global services, and operational consistency.

Supermicro

Supermicro competes through speed, system density, platform breadth, rack-scale integration, and close alignment with accelerator roadmaps. Its NVIDIA AI Factory offerings package compute, storage, networking, cooling, and NVIDIA software around reference architectures and certified systems.

Supermicro can move quickly because it offers a wide range of building blocks and rack configurations. That flexibility is valuable to cloud providers, AI companies, and enterprises that want current-generation hardware without waiting for a slower platform cycle.

The tradeoff is that the customer must carefully define the support and lifecycle boundary. A fast-moving system portfolio can create more variation in firmware, component combinations, cooling design, and operational ownership.

What Infrastructure Vendors Actually Compete Over

The visible products are racks and systems. The real competition is over these control points:

• who validates the bill of materials
• who owns firmware and driver compatibility
• who designs storage and data movement
• who supports the network-to-GPU path
• who integrates Kubernetes and AI software
• who provides liquid-cooling and facility guidance
• who coordinates escalation across component vendors
• who manages upgrades without breaking the validated state
• who can provide capacity in the required geography and time frame
• who becomes accountable when a benchmark passes but production fails

A private AI factory is not just a hardware purchase. It is a decision about whose lifecycle process becomes the organization’s lifecycle process.

Networking: The Fabric Becomes Part of the Computer

Traditional enterprise networking could often be designed as a shared utility. Distributed AI changes that assumption. The network affects accelerator utilization, collective communication, key-value cache movement, storage access, checkpointing, failure recovery, and tail latency.

At sufficient scale, the fabric is not beside the computer. It is part of the computer.

NVIDIA Spectrum-X

Spectrum-X combines NVIDIA Ethernet switching, SuperNICs or DPUs, software, telemetry, congestion control, and reference designs for AI workloads.

Its strategic advantage is full-stack coordination. NVIDIA can optimize the GPU, network adapter, switch, communication libraries, inference software, and system architecture as one performance domain.

That makes Spectrum-X attractive to customers seeking a validated Ethernet path for NVIDIA AI factories. It also expands NVIDIA’s control beyond accelerators into the network fabric, an area historically owned by enterprise networking vendors and merchant silicon suppliers.

Cisco Nexus

Cisco Nexus brings a large enterprise networking installed base, operational tooling, support, security integration, and multiple silicon strategies.

Nexus One is especially significant because it can integrate Cisco Silicon One and NVIDIA Spectrum-X silicon. Cisco is effectively saying that customers can consume NVIDIA-class AI networking technology without surrendering the Cisco operational and control plane.

Cisco also positions its AI networking around broad accelerator choice. Its competitive argument is that the enterprise needs one network architecture across AI clusters, data centers, security boundaries, and existing operations.

Arista

Arista competes through high-performance Ethernet, EOS consistency, telemetry, automation, and large cloud-scale operating experience. Its 1.6-terabit Etherlink portfolio extends into scale-up and scale-out AI networking.

Arista’s advantage is an Ethernet-first architecture with a common operating system and strong automation model. It appeals to organizations that want AI fabrics to remain part of an open, cloud-style network operating model rather than become a proprietary extension of one accelerator vendor.

Its challenge is vertical integration. NVIDIA can optimize more of the system. Cisco can combine networking with security and enterprise infrastructure. Broadcom can influence nearly every switch vendor through merchant silicon. Arista must continue proving that an open Ethernet fabric can deliver the required performance without surrendering operational simplicity.

Broadcom

Broadcom is the predator many enterprises do not see because its brand may sit beneath another vendor’s product.

Its Tomahawk and Jericho families power scale-out fabrics. Tomahawk Ultra targets scale-up connectivity. Broadcom also participates in co-packaged optics, DPUs, NICs, and custom AI accelerators.

Broadcom can win whether the customer buys a branded Broadcom system or not. It sells the silicon and intellectual property that other vendors use to build switches, network adapters, and custom accelerators.

This is a deep control point. Merchant silicon shapes port speeds, radix, buffering, power consumption, economics, and product roadmaps across the visible networking market.

Scale-Up, Scale-Out, and Scale-Across

The network competition becomes clearer when separated into traffic domains.

NVIDIA, Cisco, Arista, and Broadcom increasingly compete across more than one of these domains. The winner may differ by layer. A customer could use proprietary scale-up links within a rack, Ethernet scale-out between racks, and an existing enterprise WAN between sites.

The architectural risk is assuming one vendor label means one fabric. In practice, the data path may cross accelerator interconnects, PCIe switches, NICs, leaf-spine networks, storage networks, and WAN links, each with different owners and failure modes.

GPUs and Accelerators: The Deep-Water Fight

The accelerator layer receives the most attention because it consumes capital, power, and procurement effort. It is also the layer most likely to be misunderstood through specification comparisons alone.

Memory capacity, bandwidth, interconnect, precision support, compiler maturity, kernel quality, collective libraries, serving frameworks, system availability, and power density all matter. The useful unit is not peak arithmetic. It is cost per reliable unit of work under the organization’s actual model, batch size, latency target, and operating constraints.

NVIDIA

NVIDIA’s advantage is not one GPU generation. It is the integrated system around the GPU.

CUDA, libraries, TensorRT-LLM, NCCL, NIM, Dynamo, Spectrum-X, NVLink, DPUs, reference architectures, enterprise support, and a vast developer ecosystem reinforce one another. The Vera Rubin platform extends this approach by treating the data center as the unit of compute.

This creates a powerful flywheel. Developers optimize for NVIDIA because the installed base is large. Enterprises buy NVIDIA because software support is broad. Infrastructure vendors validate NVIDIA because customer demand is strong. Model providers tune for NVIDIA because capacity and tooling are widely available.

The risk for customers is that optimization depth can become architecture dependency. Moving away from NVIDIA may require changes to runtime engines, kernels, networking, model formats, deployment tooling, validation suites, and operator skills.

AMD

AMD is the most credible merchant accelerator challenger in the map. Instinct GPUs, ROCm, EPYC processors, Pensando networking, and the Helios rack-scale design create a broader platform than a standalone GPU offering.

AMD’s strategic opportunity is to give cloud providers, model companies, OEMs, and enterprises an alternative capacity source with a more open software narrative. Dell and HPE support further strengthen that position.

The primary challenge is software and operational consistency. Porting a framework is not the same as matching every production feature, kernel, library, profiling tool, and support workflow. AMD must continue shrinking the gap between theoretical compatibility and predictable production operations.

Intel

Intel belongs in this layer, but the label should be accelerators rather than GPUs alone. Gaudi 3 is an AI accelerator designed around Ethernet scale-out and competitive price-performance positioning. Intel has also described a data-center GPU roadmap aimed at inference workloads.

Intel’s opportunity is enterprise familiarity, x86 integration, Ethernet architecture, and the demand for alternatives. Its challenge is ecosystem momentum. NVIDIA has the dominant software platform, and AMD has become the leading merchant alternative in many accelerator discussions.

Intel therefore needs more than capable silicon. It needs repeatable model support, mature serving software, OEM availability, benchmark transparency, developer confidence, and long-term roadmap credibility.

The Shadow Reef: Custom Silicon

The deepest competitive pressure may come from accelerators that are not sold as general-purpose merchant GPUs.

Google TPUs let Google optimize models, cloud services, and infrastructure together. AWS Trainium gives Amazon a first-party training and inference economics lever. Microsoft Maia provides an Azure-controlled inference path. OpenAI and Broadcom are developing custom inference silicon around OpenAI workloads.

Custom silicon changes the negotiation across the stack:

• cloud providers gain an alternative to merchant GPU pricing and supply
• model providers gain hardware tailored to their workloads
• open runtimes become more valuable as portability layers
• proprietary compilers and kernels create new lock-in risks
• OEMs may lose influence when silicon is consumed only inside hyperscale clouds
• NVIDIA, AMD, and Intel must compete against customers designing around them

The future accelerator market is unlikely to be one universal winner. It is more likely to be a mixed environment in which proprietary cloud accelerators, merchant GPUs, open serving engines, and model-specific optimization coexist.

Where the Great Predators Overlap

The following matrix is intentionally qualitative. “Core” means the vendor owns a major product or platform in the layer. “Adjacent” means it has a meaningful offering or strategic extension. “Partner” means the position depends primarily on another provider.

Vendor	SaaS and workflow	Models	Inference platform	Infrastructure	Networking	Accelerators
Microsoft	Core	Core and partner catalog	Core cloud services	Core cloud	Core cloud network	Core custom silicon, partner GPUs
Google	Core	Core and partner catalog	Core cloud services	Core cloud	Core cloud network	Core TPU, partner GPUs
Salesforce	Core	Partner catalog	Adjacent service layer	Partner cloud	Partner	Partner
OpenAI	Core direct application	Core	Adjacent and expanding	Strategic capacity partners	Partner	Custom silicon partner
Anthropic	Core API and enterprise services	Core	Adjacent	Multi-cloud partner	Partner	Multi-accelerator partner
Meta	Core consumer distribution	Core open-weight models	Adjacent ecosystem	Partner ecosystem	Adjacent infrastructure research	Internal and partner infrastructure
Mistral	Core API and enterprise services	Core	Adjacent	Multi-cloud and private partners	Partner	Partner
NVIDIA	Adjacent application services	Adjacent model catalog	Core	Core reference platforms	Core	Core
AMD	Limited	Partner ecosystem	Core software and partner runtimes	OEM and rack-scale partners	Core and partner networking	Core
Intel	Limited	Partner ecosystem	Core software and partner runtimes	Core and partner systems	Core Ethernet ecosystem	Core accelerators
Cisco	Adjacent AI operations	Partner	Adjacent platform integration	Core	Core	Partner accelerators, core network silicon
Broadcom	Limited	Custom silicon partner	Low-level enablement	Partner ecosystem	Core merchant silicon	Core custom silicon

The point is not to count boxes. The point is to see how control moves between them.

Microsoft and Google can use SaaS distribution to drive cloud consumption. NVIDIA can use accelerator leadership to move upward into inference software, networking, systems, and enterprise services. Cisco can use the network and security boundary to expand into AI factories. Broadcom can influence branded products from underneath. OpenAI and Anthropic can use model demand to negotiate cloud, accelerator, and custom-silicon relationships.

The largest predators are not necessarily the companies with the most rows marked Core. They are the companies that can turn one control point into leverage over the next decision.

Where They Depend on Each Other

Vertical ambition does not eliminate dependency. It reorganizes it.

SaaS Vendors Depend on Model Supply

Microsoft, Google, and Salesforce need access to compelling models. Even when they own first-party models, enterprise customers expect choice. Model catalogs reduce customer resistance, create fallback options, and let the platform capture value even when another model wins.

Model Providers Depend on Compute Diversity

OpenAI, Anthropic, Meta, and Mistral need accelerators, networks, data centers, power, and distribution. The cost and availability of those resources directly shape product pricing and release capacity.

Inference Platforms Depend on Hardware-Specific Optimization

Open APIs do not remove the need for tuned kernels, memory management, communication libraries, quantization support, and tested model profiles. vLLM may provide portability, but each hardware backend still requires serious engineering. NIM may simplify deployment, but it depends on supported model, runtime, driver, and GPU combinations.

Infrastructure Vendors Depend on Silicon Roadmaps

Dell, HPE, Cisco, Lenovo, and Supermicro cannot create competitive AI systems without timely access to accelerators, NICs, switches, memory, power components, and cooling technology. Their product schedules are partly controlled by component availability and certification.

Silicon Vendors Depend on Distribution

NVIDIA, AMD, Intel, and Broadcom need systems, cloud capacity, software support, and customer adoption. A chip without server availability, framework support, and a credible support path is not an enterprise platform.

Everyone Depends on Networking

Accelerators do not scale themselves. Poor topology, oversubscription, congestion, incorrect rail design, NUMA mismatch, or weak observability can turn expensive hardware into an underutilized cluster.

Everyone Depends on Power and Cooling

The map’s bottom boundary is physical. Rack density, utility capacity, liquid cooling, transformers, generators, heat rejection, and construction lead time can overrule every software preference above them.

Everyone Depends on Governance

Identity, data classification, policy, audit evidence, model evaluation, secrets, change control, and incident response span all six layers. No vendor partnership removes the enterprise’s accountability for how the resulting system is used.

Partnership Web: Alliances With Escape Clauses

The AI market is full of alliances that look permanent in announcements and conditional in architecture.

Microsoft and OpenAI

Microsoft provides distribution, cloud infrastructure, enterprise integration, and a major commercial channel. OpenAI provides models, APIs, products, and developer demand.

The relationship remains strategically important, but its 2026 structure gives OpenAI more freedom across clouds and removes the assumption that every OpenAI workload must reinforce Azure exclusively.

The lesson is simple: even the deepest AI partnership contains negotiating boundaries.

Anthropic, AWS, Google, Broadcom, Microsoft, and NVIDIA

Anthropic is an example of partnership diversification. AWS remains a primary cloud and training partner through Trainium. Google provides TPUs and cloud capacity. Broadcom is involved in future accelerator work. Microsoft and NVIDIA provide additional Azure and GPU paths.

Anthropic is building resilience through optionality, but the engineering cost of that optionality is real.

Meta and the Distribution Ecosystem

Meta makes Llama available across clouds, OEMs, hardware vendors, data platforms, and local deployment environments. The partnership network is the distribution strategy.

Meta benefits when other companies make Llama easy to consume. Partners benefit from a deployable model family that can anchor their own platforms.

Mistral and Sovereign Distribution

Mistral partners broadly across major clouds, NVIDIA, Microsoft, Google, AWS, IBM, and regional ecosystems. Its strategic value rises when customers want deployment flexibility, European alignment, or private placement.

NVIDIA and the OEMs

Dell, HPE, Cisco, Lenovo, and Supermicro all build around NVIDIA technologies. They are simultaneously partners and competitors.

They partner to bring NVIDIA accelerators and software to market. They compete over system design, storage, networking, cooling, lifecycle, services, and which company owns the customer support boundary.

Cisco and NVIDIA

Cisco Secure AI Factory uses NVIDIA accelerated computing and software. Cisco Nexus can also integrate NVIDIA Spectrum-X switch silicon. The partnership gives NVIDIA enterprise distribution while giving Cisco a way to retain network, security, and operational control.

Dell and HPE With AMD

Dell’s AMD AI platform work and HPE’s Helios collaboration show that OEMs do not want a one-supplier future. Alternative accelerator platforms improve customer choice and strengthen OEM negotiating leverage.

Partnerships should therefore be read as current architecture paths, not permanent exclusivity statements.

Where Competition Is Becoming Brutal

The market becomes most aggressive where two layers can be collapsed into one control plane. Seven battle zones matter most.

The User Interface Versus the Model Brand

Model companies want users to identify value with the model. SaaS companies want users to identify value with the workflow.

When an employee invokes AI inside Microsoft 365, Google Workspace, or Salesforce, the application provider can choose, route, or replace models underneath. When users work directly in ChatGPT, Claude, or another model-native application, the model provider owns the user relationship and can move upward into workflows and agents.

This is why model companies are building applications and SaaS vendors are building model catalogs.

The Model Catalog Versus Direct API Distribution

Cloud and SaaS platforms increasingly provide several model families through one governance and billing layer. That improves enterprise choice, but it can also make the model provider interchangeable.

Model companies respond by offering direct APIs, enterprise products, specialized agent capabilities, and infrastructure partnerships. The fight is over who owns the contract, telemetry, evaluation data, and developer integration.

Open Inference Versus Vertically Optimized Inference

vLLM and other open runtimes support portability and broad ecosystem participation. TensorRT-LLM and the wider NVIDIA stack offer deeper optimization on NVIDIA hardware. Dynamo attempts to own distributed inference above several engines. NIM packages optimized services into an enterprise consumption model.

The enterprise will repeatedly face the same tradeoff:

Neither end is automatically correct. Latency-sensitive, high-volume services may justify deep optimization. Mixed hardware, sovereign placement, or strong exit requirements may justify a more portable runtime.

The mistake is pretending the choice is reversible without cost.

Ethernet Versus Full-Stack Fabric Control

NVIDIA wants the network to be part of the accelerated computing platform. Cisco wants AI networking to remain part of the enterprise network and security architecture. Arista wants open, cloud-style Ethernet operations to scale into AI. Broadcom wants its silicon to power many of the visible options.

The competition is brutal because network design determines whether accelerator investment becomes useful throughput. Whoever controls the fabric also controls telemetry, congestion policy, failure analysis, and a significant part of cluster acceptance testing.

Merchant GPUs Versus Custom Silicon

NVIDIA, AMD, and Intel want broad accelerator markets. Google, AWS, Microsoft, OpenAI, and other large consumers want better control of capacity and economics.

Custom silicon will not replace every GPU. It does not need to. It only needs to capture high-volume, predictable workloads where vertical optimization produces a meaningful advantage.

That can change cloud pricing, reduce merchant supplier leverage, and fragment the inference backend landscape.

OEM Support Versus Reference-Architecture Control

NVIDIA publishes increasingly complete platform architectures. OEMs turn them into purchasable, supportable systems. The overlap creates tension.

When an AI cluster fails, the customer needs to know whether the issue belongs to the model, container, inference engine, GPU driver, firmware, NIC, switch, storage system, Kubernetes layer, power system, or cooling design.

The vendor that coordinates that escalation owns more of the operational relationship.

OEMs therefore compete to become the prime contractor for the AI factory, while NVIDIA seeks to preserve architectural consistency and software control across OEMs.

Multi-Model Flexibility Versus Governance Complexity

Every major platform promotes model choice. Choice is useful, but it increases evaluation, policy, cost management, observability, data-handling, and support complexity.

The organization that supports four models across three runtimes and two accelerator families does not have one AI platform. It has a portfolio that needs architecture discipline.

The winning platform may not be the one with the most options. It may be the one that makes options governable.

Architecture Patterns Enterprises Can Actually Buy

The predator map becomes useful when it is translated into deployable patterns. Most organizations will use more than one.

Pattern	Primary control point	Best fit	Main advantage	Main risk
SaaS-first AI	Microsoft, Google, Salesforce, or an industry SaaS platform	Employee productivity and packaged business workflows	Fast adoption and integrated governance	Workflow and data lock-in
Hyperscaler multi-model platform	Azure Foundry, Vertex AI, or another managed cloud AI platform	Teams needing several models under one cloud control plane	Model choice with managed infrastructure	Cloud platform dependence
Model-direct platform	OpenAI, Anthropic, Mistral, or another model API	Product teams prioritizing model-native features and release speed	Direct access to provider capabilities	Provider-specific application coupling
Open inference platform	vLLM and portable orchestration on Kubernetes	Organizations needing hardware flexibility or private placement	Portability and ecosystem control	Greater integration and validation burden
NVIDIA-optimized AI factory	NIM, TensorRT-LLM, Dynamo, NVIDIA networking, certified systems	High-scale production inference or training on NVIDIA	Deep optimization and integrated support path	Strong vertical dependency
OEM private AI factory	Dell, HPE, Cisco, Lenovo, or Supermicro with partner stacks	Enterprises needing on-premises support and lifecycle ownership	Procurement, integration, support, services	Several inherited partner dependencies
Hybrid accelerator portfolio	NVIDIA, AMD, Intel, and custom cloud silicon by workload	Large organizations with strong platform engineering	Capacity diversity and negotiation leverage	Operational fragmentation

SaaS-First AI

This pattern delegates the user experience, identity integration, workflow, and much of the governance to a SaaS provider. It is appropriate when the business outcome is embedded in a packaged application and the organization does not need to control the model-serving stack.

The key architecture work is data permission, agent authority, auditability, vendor evaluation, and exit planning.

Hyperscaler Multi-Model Platform

This pattern standardizes on one cloud control plane while allowing several model providers. It provides consistent identity, networking, billing, deployment, and monitoring, but the organization remains coupled to the cloud platform’s APIs and service model.

The key architecture work is model routing, quota management, evaluation, regional availability, data residency, and failure handling.

Model-Direct Platform

This pattern integrates directly with a model provider’s API or enterprise service. It is useful when the application depends on provider-specific capabilities, release velocity, or native agent tooling.

The architecture should isolate provider-specific behavior behind an application-owned boundary where practical. Direct access can create value, but it can also couple prompts, tools, evaluations, and workflows to one provider’s semantics.

Open Inference Platform

This pattern uses Kubernetes, vLLM or another open runtime, open model interfaces, and explicit platform engineering. It is attractive for private AI, sovereign AI, hardware flexibility, or organizations that want stronger control of the serving layer.

The key architecture work is everything the managed platform would otherwise absorb: model packaging, runtime compatibility, scaling, security, observability, upgrades, and support.

NVIDIA-Optimized AI Factory

This pattern standardizes deeply on NVIDIA across accelerators, networking, inference engines, distributed serving, and enterprise software, usually through a certified OEM platform.

It can deliver excellent time to performance when the workload and budget justify it. The architecture should still isolate application APIs, preserve model artifacts, document exit assumptions, and separate business services from hardware-specific implementation details.

Hybrid Portfolio

This is the most realistic pattern for a large enterprise. SaaS AI handles common productivity. Managed cloud models support rapid application development. Private infrastructure serves sensitive or high-volume workloads. Open runtimes preserve placement options. Vertically optimized platforms handle the workloads where performance economics justify specialization.

The portfolio succeeds only when governance, identity, telemetry, model evaluation, and cost allocation operate across all of it.

Decision Framework: Map Your Control Points Before Vendors Map Them for You

The enterprise should not begin by asking which vendor has the strongest stack. It should begin by deciding which control points it needs to own.

Decide Where Business Context Lives

Identify the systems that hold customer, employee, operational, financial, and regulated context. The AI architecture should not create uncontrolled copies of that context merely to reach a preferred model.

Decide Which Interfaces Must Remain Portable

Application-to-model APIs, model packaging, telemetry schemas, policy definitions, and evaluation datasets are common candidates.

Portability should be selective. Abstracting every feature can erase the advantage of the platform you purchased.

Decide Where Optimization Is Worth Dependency

A workload with strict latency, enormous volume, or expensive infrastructure may justify NVIDIA-specific optimization or cloud-specific silicon. A moderate-volume internal assistant may not.

The decision should be supported by workload evidence, not benchmark excitement.

Decide Who Owns the Support Boundary

Write the escalation chain before procurement. Identify who handles model behavior, runtime failures, GPU errors, fabric congestion, storage bottlenecks, Kubernetes issues, firmware, cooling, and capacity.

A multi-vendor architecture without a prime operational owner is a collection of contracts, not a platform.

Decide How Many Hardware Backends You Can Operate

Hardware diversity can reduce concentration risk, but each backend adds images, drivers, kernels, performance baselines, observability differences, and skills requirements.

Do not adopt a second accelerator family merely to claim portability. Adopt it when the organization can validate, operate, and economically use it.

Decide How You Will Measure Useful Work

GPU utilization alone is not a business metric. Tokens per second alone is not enough. Measurement should connect infrastructure to an application outcome.

Useful units may include:

• cost per completed customer interaction
• cost per accepted code change
• cost per successfully processed document
• cost per agent task completed within policy
• latency at the required concurrency
• human-review minutes avoided without quality loss
• revenue or risk outcome per unit of inference spend

Decide How You Exit

An exit plan should identify what can move, what must be rewritten, what data must be exported, what evaluations must be rerun, and what performance loss is acceptable.

The plan does not need to make migration free. It needs to make dependency visible.

A Practical Control-Point Scorecard

The following questions can be used during architecture review. Score each proposed platform from one to five, then document the evidence behind the score. The number is less important than the discussion.

Decision area	Architecture question	Evidence required
Workflow control	Can the organization change models without redesigning the business process?	API boundaries, workflow diagrams, replacement test
Data control	Where is enterprise data copied, cached, logged, retained, and trained on?	Data-flow map, retention policy, contractual terms
Model control	Can models be evaluated and routed independently of the application?	Evaluation harness, model registry, routing policy
Inference control	Can serving engines or hardware backends be changed?	Deployment abstraction, compatibility tests, performance baselines
Infrastructure control	Who validates and supports the complete stack?	Support matrix, RACI, escalation runbook
Network control	Can the team observe and diagnose accelerator-to-accelerator traffic?	Fabric telemetry, topology map, acceptance tests
Cost control	Is cost measured per useful outcome rather than per component?	Cost allocation model, workload metrics, capacity plan
Exit control	Is there a tested migration or fallback path?	Export procedure, alternate deployment, recovery exercise

A vendor can score highly despite strong lock-in when the organization intentionally accepts that dependency for measurable value. The danger is undocumented lock-in disguised as convenience.

Operational Implications Across the Map

The architecture is not complete until ownership and evidence are defined.

Identity and Authorization Must Span Layers

A user may invoke a SaaS agent that calls a foundation model through an inference service running on private infrastructure. The identity may cross application, API gateway, model service, Kubernetes, storage, and network boundaries.

The organization needs to know where human identity becomes workload identity, where authorization is evaluated, which credentials the agent can reach, and how revocation propagates.

Observability Must Follow the Request

Infrastructure telemetry alone cannot explain AI service behavior. Model logs alone cannot explain network congestion. Application traces alone cannot explain GPU memory pressure.

The useful trace connects:

User request
   -> business workflow
   -> agent or orchestration decision
   -> model selection
   -> inference queue
   -> runtime engine
   -> accelerator and fabric
   -> response and tool action
   -> audit evidence and business outcome

Without that chain, every vendor can prove its own component is healthy while the service remains unreliable.

Lifecycle Management Becomes a Dependency Graph

A model update may require a new runtime. A runtime may require a new driver. A driver may require firmware. Firmware may require a validated server baseline. A network feature may require switch and NIC updates. A Kubernetes operator may support only specific combinations.

The architecture team should maintain a component and version matrix, not a list of independently approved products.

Security Boundaries Move With Placement

The same model can be consumed through SaaS, a managed cloud endpoint, a private cloud, or an on-premises runtime. Each placement changes data exposure, identity, network paths, logging, patching, and incident response.

Model choice and placement choice should therefore be evaluated separately.

Capacity Planning Must Include the Whole Service

Buying accelerators does not guarantee service capacity. The bottleneck may be memory, host CPUs, PCIe topology, network oversubscription, storage throughput, model loading, cache movement, power, cooling, or software concurrency.

Capacity planning should begin with the service-level objective and work downward through the stack.

FinOps Must Meet Infrastructure Engineering

Cloud model APIs, SaaS subscriptions, private accelerators, network fabrics, power, support, and engineering labor use different cost models. A fair comparison must normalize them around useful work over a defined time horizon.

The cheapest token can produce the most expensive workflow when it requires excessive retries, review, data movement, or operational effort.

What the Map Suggests for the Next Phase of Enterprise AI

Several architecture trends follow from the current map. These are reasoned implications, not guaranteed outcomes.

Vertical Integration Will Increase

Vendors will continue moving into adjacent layers because control of one layer protects margin and strengthens another. Model companies will pursue infrastructure and silicon. Silicon vendors will move into orchestration and enterprise services. SaaS vendors will expand model choice while protecting workflow control. Network vendors will integrate more deeply with accelerator systems.

Open Interfaces Will Remain, but Internals Will Diverge

OpenAI-compatible APIs, Kubernetes, open model formats, and open runtimes will support portability. Underneath those interfaces, hardware-specific kernels, schedulers, cache systems, network transports, and compilers will become more specialized.

The architecture will look portable at the API and highly optimized underneath.

Inference Economics Will Matter More Than Model Rankings

As capable models proliferate, enterprises will compare complete service outcomes: latency, concurrency, cost, reliability, observability, placement, and governance. Model quality remains essential, but it becomes one variable inside a production system.

Networking, Power, and Cooling Will Move Earlier in Design

These concerns can no longer be deferred until after the model and server selection. They shape feasible cluster size, placement, expansion, and cost.

OEM Differentiation Will Move Toward Operations

As reference architectures standardize components, OEMs will compete through deployment automation, validated lifecycle, storage integration, cooling, services, financing, support coordination, and fleet operations.

Custom Silicon Will Increase Backend Fragmentation

The rise of TPUs, Trainium, Maia, OpenAI-Broadcom silicon, and other accelerators will increase the strategic value of portable model formats, open inference engines, compiler ecosystems, and cross-backend evaluation.

It will also make false portability easier to claim. Supporting an API is not the same as delivering equivalent production behavior.

Conclusion

The Great AI Predator Map is not a list of winners. It is a map of control.

Microsoft, Google, and Salesforce fight for the business workflow. OpenAI, Anthropic, Meta, and Mistral fight for intelligence distribution and model influence. NVIDIA NIM, vLLM, TensorRT-LLM, and Dynamo fight over how models become reliable and economical services. Dell, HPE, Cisco, Lenovo, and Supermicro fight to own the enterprise support boundary. Spectrum-X, Cisco Nexus, Arista, and Broadcom fight over the fabric that turns accelerators into systems. NVIDIA, AMD, Intel, and custom-silicon programs fight over the physical economics beneath the entire stack.

None of these layers is independent. SaaS vendors need models. Model companies need compute. Inference runtimes need hardware-specific engineering. OEMs need silicon and network roadmaps. Accelerators need software and distribution. Every layer needs identity, governance, observability, power, cooling, and operators who can diagnose failures across vendor boundaries.

The practical enterprise decision is not whether to avoid dependency. That is impossible. The decision is where dependency creates enough value to accept, where portability is worth the operating cost, and which interfaces must remain under organizational control.

Map those control points before selecting products. Otherwise, the architecture will still be mapped, but it will be mapped by vendors whose incentives are not the same as yours.

External References

• Microsoft Azure: Foundry Models
  Canonical URL: https://azure.microsoft.com/en-us/products/ai-foundry/models
• OpenAI: The Next Phase of the Microsoft OpenAI Partnership
  Canonical URL: https://openai.com/index/next-phase-of-microsoft-partnership/
• Google Cloud: Model Garden on Gemini Enterprise Agent Platform
  Canonical URL: https://cloud.google.com/model-garden
• Salesforce: Agentforce 360 Announcements
  Canonical URL: https://www.salesforce.com/agentforce/what-is-new/
• Anthropic: Anthropic Expands Partnership With Google and Broadcom for Multiple Gigawatts of Next-Generation Compute
  Canonical URL: https://www.anthropic.com/news/google-broadcom-partnership-compute
• Meta: The Future of AI: Built With Llama
  Canonical URL: https://ai.meta.com/blog/future-of-ai-built-with-llama/
• Mistral AI: Mistral Partners
  Canonical URL: https://mistral.ai/partners/
• NVIDIA Developer: Dynamo Inference Framework
  Canonical URL: https://developer.nvidia.com/dynamo
• NVIDIA Documentation: vLLM Backend for Dynamo
  Canonical URL: https://docs.nvidia.com/dynamo/dev/knowledge-base/modular-components/backends/v-llm/overview
• NVIDIA Documentation: NVIDIA NIM Model Profiles and Selection
  Canonical URL: https://docs.nvidia.com/nim/large-language-models/latest/deployment/model-profiles-and-selection.html
• NVIDIA Developer: TensorRT-LLM
  Canonical URL: https://developer.nvidia.com/tensorrt-llm
• vLLM Documentation: Installation and Supported Hardware
  Canonical URL: https://docs.vllm.ai/en/latest/getting_started/installation/
• Dell Technologies: The Dell AI Factory With NVIDIA
  Canonical URL: https://www.dell.com/en-us/lp/nvidia-ai
• Dell Technologies: Announcing Enhancements to the Dell AI Platform With AMD
  Canonical URL: https://www.dell.com/en-us/blog/announcing-enhancements-to-the-dell-ai-platform-with-amd/
• HPE: HPE Private Cloud AI
  Canonical URL: https://www.hpe.com/us/en/private-cloud-ai.html
• HPE: HPE Accelerates AI Deployments With the AMD Helios AI Rack-Scale Architecture and Broadcom
  Canonical URL: https://www.hpe.com/us/en/newsroom/press-release/2025/12/hpe-accelerates-ai-deployments-with-first-amd-helios-ai-rack-scale-architecture-with-open-scale-up-networking-built-with-broadcom.html
• Cisco: Cisco Secure AI Factory With NVIDIA
  Canonical URL: https://www.cisco.com/site/us/en/solutions/artificial-intelligence/secure-ai-factory/index.html
• Cisco: Nexus 9000 Series Switches With Nexus One for AI Networking
  Canonical URL: https://www.cisco.com/c/en/us/products/collateral/networking/cloud-networking-switches/nexus-9000-switches/nexus-9000-ai-networking-aag.html
• Lenovo: Lenovo Hybrid AI Solutions
  Canonical URL: https://www.lenovo.com/us/en/servers-storage/solutions/ai/
• Supermicro: Build AI Factories With Supermicro and NVIDIA
  Canonical URL: https://www.supermicro.com/en/accelerators/nvidia/ai-factory
• NVIDIA: Spectrum-X Ethernet Platform for AI Networking
  Canonical URL: https://www.nvidia.com/en-us/networking/spectrumx/
• Arista Networks: Arista Introduces Next-Generation 1.6 Terabit Portfolio for AI Fabrics
  Canonical URL: https://investors.arista.com/Communications/Press-Releases-and-Events/Press-Release-Detail/2026/Arista-Introduces-Next-Generation-1-6Terabit-Portfolio-for-AI-Fabrics/default.aspx
• Broadcom: End-to-End AI Networking Solutions at the 2025 OCP Global Summit
  Canonical URL: https://investors.broadcom.com/news-releases/news-release-details/broadcom-delivers-future-ai-infrastructure-end-end-ai-networking
• NVIDIA: Infrastructure for Scalable AI Reasoning With the Vera Rubin Platform
  Canonical URL: https://www.nvidia.com/en-us/data-center/technologies/rubin/
• AMD: AMD Instinct GPUs and AMD Helios Solutions
  Canonical URL: https://www.amd.com/en/products/accelerators/instinct.html
• Intel: Intel Gaudi 3 AI Accelerators
  Canonical URL: https://www.intel.com/content/www/us/en/products/details/processors/ai-accelerators/gaudi.html
• Microsoft: Maia 200, the AI Accelerator Built for Inference
  Canonical URL: https://blogs.microsoft.com/blog/2026/01/26/maia-200-the-ai-accelerator-built-for-inference/
• Google Cloud: Tensor Processing Units
  Canonical URL: https://cloud.google.com/tpu
• Amazon Web Services: AWS Trainium
  Canonical URL: https://aws.amazon.com/ai/machine-learning/trainium/
• OpenAI: OpenAI and Broadcom Announce Strategic Collaboration
  Canonical URL: https://openai.com/index/openai-and-broadcom-announce-strategic-collaboration/

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