Technologies

AI is reshaping chips and data centre architecture

According to McKinsey, hardware and software components will now be designed around workloads: the rise in inference is a key factor

 REUTERS

3' min read

Translated by AI
Versione italiana

3' min read

Translated by AI
Versione italiana

Technology is increasingly defined by the physical infrastructure that enables artificial intelligence: this is the key insight put forward by McKinsey’s Technology Trends Outlook 2026, which reviews 14 trends against a backdrop that reflects the pervasiveness of AI (from robotics to scientific research and agent-based software development) and the resulting increased pressure on chips, networks, energy and data centres.

Montanari: ‘Customers are also becoming suppliers’

 The chapter of the report devoted to application-specific semiconductors describes the shift from large GPU clusters, focused on training state-of-the-art models, to heterogeneous architectures. Piero Montanari, a Partner at McKinsey & Company, sums up this shift with a sort of formula. “In the market for artificial intelligence chips,” the manager explains to *Il Sole 24 Ore*, “customers are also becoming suppliers: major cloud providers are now working alongside semiconductor manufacturers to design processors tailored to their AI models, which in some cases form part of the offering provided to other companies as part of their services.”

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The boundaries between chip manufacturers, cloud service providers and model developers are therefore becoming increasingly blurred, giving rise to partnerships based on a greater mutual understanding of each other’s needs and areas of expertise. There is no shortage of examples of this. Amazon, Google, Meta and Microsoft are collaborating with companies such as Nvidia, Broadcom, Marvell Technologies, TSMC and others to develop components tailored to their own models; Anthropic plans to use up to one million TPUs (Tensor Processing Units) from Google Cloud; and AWS is complementing its services with its proprietary Trainium chips for the training and inference of machine learning models.

The crucial role of inference

This transformation is driven above all by the growing importance of inference (that is, the work that pre-trained models carry out every time they generate a response), the use of which in businesses is becoming more widespread as costs fall and the infrastructure becomes more accessible. According to McKinsey’s estimates, by 2030 this ‘phase’ of the processing cycle could account for 30 to 40 per cent of total data centre demand and the majority of computing capacity dedicated to AI.

It is no coincidence that Montanari urges us to measure how much work is achieved per watt of power used, at what cost and with what response time: ‘This is a crucial aspect because data centre energy consumption is already putting pressure on the electricity grids, making efficiency a prerequisite for scaling up.’ As for system design, however, the manager emphasises the criteria that guide the decision-making process.

The need to adapt hardware to specific workloads (AI workloads impose different requirements in terms of latency, computing power and power consumption compared to those of a high-volume cloud service) is driving the design of chips tailored to specific tasks and intended to complement traditional ‘general-purpose’ processors, paving the way for increasingly modular architectures. “The competitive advantage,” Montanari emphasises in this regard, “is now measured at the level of the system as a whole and not just on the basis of individual components: the value lies with those who know how to design and integrate processors, memory, networking and software.”

Alongside this evolution in hardware, the range of players in the field is also expanding, starting with start-ups specialising in inference acceleration, ‘wafer-scale’ computing and silicon photonics, which have caught the attention of hyperscalers, venture capital firms and established manufacturers in the chip sector. According to the figures, equity investments in application-specific semiconductors for AI have risen globally from $7.5 billion in 2024 to $41.6 billion in 2025, whilst job vacancies related to research and system architecture roles, as well as patent applications, are also rising sharply.

What role for AI?

Finally, there is one last point that emerges from the report, concerning opportunities for the European supply chain linked to the potential for specialisation in segments where industrial and technological expertise already exists – from machinery for producing silicon components to research into photonics. ‘The challenge for Europe,’ the manager concluded, ‘is not necessarily to compete in every type of chip, but to strengthen its role in the technologies that will enable the next generation of AI infrastructure.’ This, moreover, is also the most concrete path outlined by McKinsey towards digital sovereignty: reducing dependence on global supply chains by capitalising on existing strengths and making partner companies indispensable to the ecosystem.

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