The 2026 Semiconductor Outlook: AI Demand, Capacity Expansion and Eurasia's Place in the Chip Supply Chain

Subheadline: Global chip investment is concentrating around artificial intelligence, advanced packaging and memory. For Eurasian economies, the strategic question is where — and how quickly — they can capture value in materials, back-end manufacturing, equipment logistics and engineering talent.

Executive Summary

The semiconductor industry enters 2026 with demand growth heavily concentrated in artificial intelligence infrastructure, while the geography of supply is being reshaped by industrial policy, export controls and subsidised capacity expansion across the United States, Europe, Japan, South Korea, Taiwan and China. Deloitte's 2026 Global Semiconductor Industry Outlook, part of the firm's technology, media and telecommunications outlook series, is among the reference points used by corporate strategists and investors assessing the year ahead.

For Eurasian markets, the practical consequences lie less in leading-edge fabrication — which remains capital-, power- and water-intensive and confined to a handful of locations — than in critical materials, specialty gases, back-end assembly and testing, precision components, engineering talent and the logistics that connect these activities to global production networks.

This analysis sets out the demand and supply dynamics expected to shape 2026, examines their implications for business strategy and investment, and assesses how the European Union, Central Asia, the Caucasus, Türkiye, Eastern Europe and the Western Balkans are positioning themselves within a more fragmented chip supply chain.

Introduction

Semiconductors have always been cyclical, but since 2023 the cycle has also become geopolitical. Industry sales, reported by the World Semiconductor Trade Statistics organisation at approximately US$628 billion in 2024, grew again through 2025 on the back of data-centre and AI accelerator demand, even as automotive, industrial and consumer end markets recovered unevenly from a prolonged inventory correction. Governments in the United States, the European Union, Japan, South Korea, India and China have committed large-scale support to domestic capacity, while export controls on advanced logic, memory and manufacturing equipment have begun to bifurcate parts of the supply chain.

Eurasia sits largely outside leading-edge chipmaking. That does not make the region peripheral. It supplies raw and processed materials, hosts a growing share of European electronics and automotive supply chains, offers engineering talent at competitive cost, and provides the transport corridors over which high-value components and equipment move between Asia and Europe. Understanding where the region fits — and where it does not — is becoming a core element of industrial and investment strategy.

Main Analysis

Growth Is Concentrated in AI Infrastructure

The defining feature of the current cycle is concentration. A disproportionate share of revenue growth is being generated by accelerators, high-bandwidth memory, advanced networking silicon and the power and cooling infrastructure that surrounds them. Hyperscale and AI-focused data-centre capital expenditure has become the industry's principal demand engine, and its pace now matters more to chipmakers' order books than traditional consumer electronics cycles.

That concentration carries two implications. First, revenue is increasingly dependent on a relatively small number of large customers, which raises the sensitivity of the whole sector to changes in AI capital spending plans. Second, the recovery in mainstream markets — smartphones, personal computers, industrial automation and automotive electronics — remains more gradual, shaped by inventory normalisation and by uneven end-demand rather than by a uniform upgrade cycle.

Memory and Advanced Packaging Are the Decisive Bottlenecks

Supply-side constraints in 2026 are likely to be concentrated in two areas. The first is memory, where demand for high-bandwidth products has tightened conventional DRAM and NAND capacity, producing sharp price movements and long lead times. Memory has historically been the most volatile segment of the industry, and its pricing behaviour still transmits quickly into the cost structures of system builders, server manufacturers and automotive suppliers.

The second is advanced packaging and its supporting ecosystem — interposers, substrates, test capacity and the specialised materials that go into them. Packaging has moved from a back-end afterthought to a determinant of how quickly AI silicon can be delivered. Capacity additions announced across Asia, North America and Europe will take time to commission, meaning that packaging, not wafer fabrication alone, may set the practical ceiling on output growth in the near term.

At the leading edge, the transition to 2-nanometre-class, gate-all-around production is proceeding at several manufacturers, with the first high-volume ramp expected to influence cost curves and customer allocation through the period. At the same time, mature-node capacity built out in China continues to add supply in analog, power management and microcontroller segments, pressuring prices in markets that matter directly to European automotive and industrial suppliers.

Policy Fragmentation Is Redrawing Investment Geography

Industrial policy is now a first-order variable in semiconductor investment decisions. Subsidy programmes in the United States, the European Union, Japan, South Korea and India offer capital grants and tax incentives in exchange for domestic capacity, while export controls restrict access to advanced logic, memory and tooling. China has responded with its own capacity expansion and with export controls on selected critical minerals, including gallium, germanium, antimony and graphite, that feed downstream electronics production.

The result is not a fully decoupled industry but a more expensive and more managed one. Compliance costs, dual sourcing requirements, customs scrutiny and local-content rules are becoming permanent features of supply chain design rather than temporary disruptions.

Where Eurasia Enters the Value Chain

Eurasia's exposure to semiconductors is broader than its fabrication footprint suggests. Five channels matter most:

Critical materials and gases. Semiconductor manufacturing depends on high-purity specialty gases and metals whose supply is geographically concentrated. Ukraine was historically a major source of semiconductor-grade neon, and Eurasian producers supply copper, nickel, tungsten, tantalum, palladium and rare earth feedstocks. Kazakhstan, a leading global uranium producer, has also positioned itself as a partner on critical raw materials, signing cooperation arrangements with the European Union and pursuing downstream metals processing rather than raw concentrate exports alone.

Back-end assembly and testing. Assembly, test and packaging operations are less capital-intensive than wafer fabrication and more sensitive to labour cost, electricity prices, logistics proximity and regulatory predictability. This profile fits parts of Türkiye, Eastern Europe and the Western Balkans, where existing automotive electronics clusters already provide a supplier base and workforce.

Precision components and equipment subsystems. Vacuum components, precision machining, ceramics, cabling and cleanroom infrastructure are supplied by a long tail of mid-sized manufacturers. Several Central European and Turkish firms have moved into these niches as suppliers to European equipment makers.

Engineering talent. Armenia, Georgia, Poland, Romania, Serbia and Türkiye produce substantial numbers of engineers and software specialists. Chip design, verification, embedded software and test engineering can be delivered remotely, allowing Eurasian firms to participate in global design pipelines without owning fabs. Retention, however, remains a constraint, as wage differentials continue to pull experienced engineers westward.

Logistics and connectivity. Semiconductor components and tooling move by air freight and specialised road and rail services, with tight requirements around handling, climate control and security. The Middle Corridor — the Trans-Caspian route linking China and Central Asia to the Caucasus, Türkiye and Europe — has gained strategic weight as a complement to northern routes. Ports, airports and free zones along that corridor are gradually positioning themselves as consolidation points for high-value electronics and equipment.

Business Impact

Procurement and supply chain strategy. Manufacturers sourcing semiconductors should assume continued allocation risk in memory and advanced packaging, and plan for longer lead times in selected categories. Multi-sourcing across geographies, buffer inventories of critical components and earlier design-in of alternative parts are becoming standard practice rather than contingency measures.

Compliance and cost structure. Export controls and counterparty screening add administrative load and can restrict market access. Firms operating across Eurasian jurisdictions need clear internal controls, documented end-use assessments and contingency plans for customers or suppliers affected by listing changes.

Capital allocation. Incentive packages are reshaping project economics. Decisions on assembly, test and materials plants increasingly hinge on the availability of grants, cheap low-carbon electricity, land and permitting speed. Public-private partnership structures and development bank financing are likely to feature more prominently in Eurasian industrial projects.

Industrial competitiveness. Automotive, machinery and appliance manufacturers in Europe face pressure from mature-node price competition while simultaneously absorbing higher silicon content per vehicle and per machine. Managing that squeeze — through design efficiency, supplier consolidation and localisation where economically justified — is a medium-term competitiveness issue rather than a short-term cost problem.

Employment and skills. Back-end plants create skilled technical employment but fewer jobs per unit of capital than leading-edge fabs. Workforce development, vocational training and university-industry links will determine whether announced projects can actually be staffed.

Capital markets. Semiconductor exposure in Eurasian capital markets remains indirect, through industrial suppliers, materials producers and logistics operators rather than through listed chipmakers. Investor interest is nonetheless rising in critical minerals, electronics manufacturing services and data-centre infrastructure, with sustainability-linked and development finance instruments increasingly used to fund such projects.

Regional Perspective

European Union

The European Chips Act mobilised public and private commitments to expand European capacity, with the most visible project being the Dresden joint venture involving TSMC, Bosch, Infineon and NXP, alongside national initiatives in Germany, France, Italy and the Netherlands. Progress has been uneven: some large fabrication projects have been delayed or reconsidered, prompting discussion in Brussels about whether a second phase of chip policy should focus less on attracting leading-edge fabs and more on advanced packaging, mature nodes, materials and design capacity. For Central and Eastern European member states, this reframing could be advantageous, since their strengths lie in supplier networks, assembly and engineering services.

Central Asia and the Caspian

Kazakhstan is the region's most significant player, combining uranium, copper and other metals with an explicit ambition to move up the value chain into processing and component manufacturing. Uzbekistan has built an electronics assembly base and is promoting technology parks and export-oriented manufacturing zones. Both countries face the same constraints: limited high-purity processing capacity, distance from major chip markets, and a shortage of specialised engineers. Their leverage lies in materials security and in transit — the Caspian corridor is the connective tissue between Chinese production and European demand.

Caucasus and Türkiye

The Caucasus functions simultaneously as a transport bridge, an engineering talent pool and, for some firms, a market-access mechanism. Armenia's technology sector has expanded steadily in software and embedded services. Georgia has developed as a logistics and business services hub. Türkiye combines a large domestic market, established electronics and white-goods manufacturing, and a high-technology incentive framework that explicitly targets semiconductor and advanced electronics investment. Turkish capabilities in automotive electronics and appliances give it a realistic route into component and module supply rather than leading-edge fabrication.

Eastern Europe and the Western Balkans

This is where Eurasian integration into the chip supply chain is already deepest — through automotive wiring, sensors, power electronics, contract electronics manufacturing and machine-building. Poland, Czechia, Romania, Hungary, Serbia and North Macedonia host supplier plants whose output depends on semiconductor availability. Their competitive position rests on proximity to German and Italian assembly plants, EU trade access, competitive labour costs relative to Western Europe and improving logistics infrastructure. The principal risks are energy price volatility and wage convergence.

Future Outlook

Over the next three to five years, the industry's centre of gravity will remain AI infrastructure, but the composition of demand is likely to broaden as inference workloads migrate to edge devices, vehicles and industrial systems. Advanced packaging capacity is expected to expand materially, easing one bottleneck while shifting pressure to substrates, test and power delivery.

Regional subsidy programmes will move from announcement to execution, and the credibility of announced projects will be tested by permitting, grid connections, water availability and workforce readiness. In Europe, the debate is likely to shift from fab attraction to capability building in packaging, materials, compound semiconductors and design.

For Eurasia, four developments are worth monitoring. First, whether critical materials processing — not extraction — takes root in Kazakhstan, Ukraine's recovery and neighbouring economies, supported by EU partnership frameworks. Second, whether Türkiye, the Western Balkans and Eastern Europe convert automotive electronics expertise into higher-value module and subsystem supply. Third, whether the Middle Corridor matures into a reliable, competitively priced route for high-value cargo, including semiconductor equipment and components. Fourth, whether Eurasian firms succeed in retaining engineering talent as global demand for chip designers, verification specialists and test engineers intensifies.

Longer term, the region's competitiveness will depend less on subsidy capture than on electricity cost and reliability, permitting speed, technical education and regulatory stability. Those are the variables that determine whether a materials plant, a packaging line or a design centre is located in Almaty, Istanbul, Belgrade or Wrocław — or somewhere else entirely.

Conclusion

The 2026 semiconductor outlook is one of strong but narrow growth: AI infrastructure drives revenue, advanced packaging and memory constrain supply, and policy determines where investment lands. Eurasian economies are unlikely to become centres of leading-edge fabrication, and strategies built on that premise are likely to disappoint. The more credible path runs through materials, back-end manufacturing, precision components, engineering services and logistics connectivity — areas where the region already has assets and where global demand is structurally rising.

For executives and investors, the practical task is to map exposure accurately. A company may not build chips and still depend on them for its margins, its delivery schedules and its competitiveness. Understanding those dependencies — and the policy environment that shapes them — is now part of core business planning rather than a technical footnote.

Key Takeaways

• Semiconductor growth in 2026 is concentrated in AI infrastructure, with mainstream end markets recovering unevenly.
• Memory and advanced packaging, rather than wafer fabrication alone, are likely to determine near-term supply ceilings.
• Industrial policy, export controls and critical-minerals measures are raising the cost and complexity of supply chain design.
• Eurasia's realistic entry points are materials, back-end assembly and testing, precision components, engineering talent and logistics connectivity.
• Türkiye, Eastern Europe and the Western Balkans are best positioned to move up into module and subsystem supply; Central Asia's leverage is in materials and transit.
• Electricity cost, permitting speed, technical education and regulatory stability will decide which Eurasian locations attract investment.

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Sources

• Deloitte, 2026 Global Semiconductor Industry Outlook — https://www.deloitte.com/us/en/insights/industry/technology/technology-media-telecom-outlooks/semiconductor-industry-outlook.html
• European Commission, European Chips Act — https://digital-strategy.ec.europa.eu/en/policies/european-chips-act
• World Semiconductor Trade Statistics — https://www.wsts.org/
• SEMI, global semiconductor manufacturing supply chain data — https://www.semi.org/