Outrageous Predictions
A Fortune 500 company names an AI model as CEO
Charu Chanana
Chief Investment Strategist
Chief Investment Strategist
Nvidia’s AI story is no longer just about GPUs.
With RTX Spark, Nvidia is moving deeper into CPUs, Windows PCs and local AI computing. The new AI superchip, developed with Microsoft and MediaTek, is designed to bring AI workloads directly onto laptops and desktops rather than relying only on the cloud.
That matters because the AI trade is entering a new phase. The first wave was about training large models in data centres. The next wave is increasingly about inference — running those models constantly, efficiently and closer to the user.
That requires more than GPUs. It needs CPUs to coordinate workloads, memory to move data, networking to connect systems, cloud providers to deploy capacity, and power infrastructure to keep increasingly dense AI factories running.
For investors, this creates a new map of potential beneficiaries. The question is no longer simply: who makes the AI chip?
It is: who controls the bottlenecks as AI moves from cloud training to local inference, from GPUs to full systems, and from data centres to personal AI computers?
Nvidia remains the centre of the AI ecosystem.
RTX Spark strengthens Nvidia’s push from GPU supplier to broader computing platform. It brings Nvidia into Windows PCs and local AI devices, while its Vera Rubin platform extends its reach across data-centre CPUs, GPUs, networking and rack-scale AI systems. Nvidia’s Vera Rubin NVL72 platform includes Vera CPUs, Rubin GPUs, NVLink, ConnectX networking and BlueField DPUs for large-scale AI inference.
How it links to Nvidia’s ecosystem: Nvidia is trying to own more of the AI stack, from the personal AI computer to the AI factory.
Risk: Expectations are already high. Any slowdown in AI capex, margin pressure or customer diversification could hit sentiment quickly.
Arm has a clear thematic link to Nvidia’s CPU ambitions because RTX Spark is built around Arm-based architecture.
This matters because PCs have historically been dominated by x86 chips from Intel and AMD. Apple has already shown that Arm-based computing can work well in premium devices, while Qualcomm has been pushing Windows-on-Arm. Nvidia’s entry could give that shift another push.
How it links to Nvidia’s ecosystem: Nvidia’s CPU ambitions increase Arm’s relevance in AI PCs, local AI devices and potentially future server designs.
Risk: Windows-on-Arm still needs broader app compatibility, developer support and consumer adoption.
Microsoft is directly tied to the RTX Spark story.
Its upcoming Surface Laptop Ultra will use Nvidia’s RTX Spark chip, giving Microsoft a flagship device for the local AI PC era. Microsoft says the new Nvidia-powered Windows PCs are built for developers, creators and power users, and are designed for the new wave of AI agents.
How it links to Nvidia’s ecosystem: Microsoft provides the Windows platform, developer environment and enterprise AI layer that Nvidia needs to make AI PCs useful at scale.
Risk: AI PCs still need must-have use cases. Without that, this could be another premium hardware cycle rather than a broad upgrade wave.
MediaTek is linked to Nvidia’s RTX Spark push through the chip development partnership.
Nvidia said RTX Spark was developed with Microsoft and MediaTek, giving MediaTek exposure to a higher-end computing opportunity beyond smartphones and connected devices.
How it links to Nvidia’s ecosystem: MediaTek helps Nvidia move into CPU-led Windows PC silicon.
Risk: MediaTek may remain a partner in the stack, while Nvidia captures the larger platform economics.
TSMC remains the manufacturing backbone of the AI trade.
Whether demand comes from GPUs, CPUs, AI PCs or rack-scale AI systems, leading-edge chips still need advanced foundry capacity. If AI demand expands from data centres into PCs and edge devices, the need for advanced manufacturing remains central.
How it links to Nvidia’s ecosystem: TSMC enables production of the advanced chips behind Nvidia’s AI platforms.
Risk: TSMC’s importance also comes with Taiwan geopolitical risk and customer concentration.
Cloud infrastructure players may attract more investor attention as Nvidia’s ecosystem expands from chips into deployment capacity.
CoreWeave is one of the most direct cloud names linked to Nvidia’s infrastructure cycle. It has become the first cloud provider to deploy Nvidia’s Vera Rubin NVL72 systems, reinforcing its role as a specialist AI cloud platform built for large-scale inference and next-generation AI workloads. That strengthens the view that Nvidia’s latest hardware is not just a chip story, but a full deployment story.
Nebius also deserves a place on the list. Nvidia CEO Jensen Huang highlighted Nebius at Computex, calling it one of the “clouds” growing incredibly fast within Nvidia’s AI ecosystem. The mention matters because it signals Nvidia’s endorsement of Nebius as part of the emerging AI infrastructure layer. The report also highlighted customers such as Cursor, Revolut and Shopify, suggesting Nebius is gaining traction with real enterprise users.
How it links to Nvidia’s ecosystem: CoreWeave and Nebius help turn Nvidia’s hardware into usable AI compute capacity. They sit at the deployment layer, where demand for Nvidia chips becomes actual cloud infrastructure for enterprises and AI developers.
Risk: This is a capital-intensive business. These companies need to invest heavily in infrastructure, and returns depend on utilisation, customer growth, pricing power and continued AI demand.
AI systems are increasingly deployed as full racks, not standalone chips.
Dell is especially relevant because Dell and CoreWeave are linked to the first Vera Rubin deployment, showing how Nvidia’s chips become physical AI infrastructure. HPE, Supermicro and Lenovo also sit in the broader AI server and rack-scale infrastructure ecosystem.
How it links to Nvidia’s ecosystem: These companies package, deploy and scale Nvidia systems for cloud providers, hyperscalers and enterprises.
Risk: Hardware integration can be competitive. Revenue growth does not always mean strong margins.
As AI workloads scale, networking becomes a bigger bottleneck.
Large AI clusters need faster connectivity, switching, Ethernet, custom silicon and low-latency data movement. Nvidia’s own Vera Rubin architecture includes NVLink, networking and DPUs, showing how central connectivity has become to AI performance.
How it links to Nvidia’s ecosystem: Networking companies benefit from the same AI data-centre buildout that Nvidia is driving.
Risk: This bucket remains sensitive to hyperscaler capex cycles.
AI needs memory as much as compute.
High-bandwidth memory and advanced DRAM remain essential as AI models become larger and inference volumes rise. SK Hynix, Samsung and Micron are therefore tied to the broader Nvidia ecosystem through memory demand.
How it links to Nvidia’s ecosystem: Nvidia platforms need advanced memory to deliver performance at scale.
Risk: Memory is still cyclical. AI demand is strong, but pricing can still swing with supply.
RTX Spark brings PC makers into Nvidia’s orbit.
Nvidia says RTX Spark is designed for slim laptops and small desktops, while reports point to major PC makers including Microsoft, Dell, Lenovo, Acer, Asus and others supporting the platform.
How it links to Nvidia’s ecosystem: PC makers are the route to market for Nvidia’s local AI computing ambitions.
Risk: PC margins are often thin. The key test is whether AI PCs command premium pricing and trigger a real replacement cycle.
This may be one of the more important second-order AI themes.
As AI systems become denser, the bottleneck shifts from chips alone to electricity, grid access, battery storage, power distribution and cooling. Siemens, Nvidia, Fluence and nVent have developed a reference electrical and power architecture for data centres running Nvidia’s Vera Rubin NVL72 platform. Siemens says the design is built to support speed, efficiency and reliability for AI factory infrastructure.
Fluence brings battery energy storage and grid-support solutions. nVent brings power distribution and thermal management. Siemens brings electrical infrastructure, controls and automation.
How it links to Nvidia’s ecosystem: These companies could help solve the power and cooling constraints that determine how fast Nvidia-based AI factories can be built.
Risk: Power infrastructure is essential, but it can be project-based, exposed to permitting delays and lower-margin than semiconductors.
Nvidia’s CPU push also raises pressure on existing chip leaders.
Nvidia’s RTX Spark announcement makes the AI trade broader, but also more selective.
The next phase of AI is less about one chip and more about the full ecosystem: architecture, foundry, memory, networking, servers, cloud deployment, PCs, power and cooling.
The related companies to watch are those closest to Nvidia’s bottlenecks: Arm for architecture, Microsoft for Windows AI PCs, MediaTek for silicon partnership, TSMC for manufacturing, CoreWeave for AI cloud deployment, Dell and server makers for infrastructure, memory and networking names for performance, and Siemens, Fluence and nVent for power and cooling.
But not every company linked to the theme will win equally. The real test is who captures pricing power as AI moves from training to inference, from cloud to device, and from chips to power-hungry AI factories.