AI boom reshapes Asia’s semiconductor supply chains

Artificial intelligence (AI) and electric vehicles are expanding demand for Asia-Pacific semiconductors while distributing production across more specialised hubs. For air cargo, the opportunity extends from urgent chips and wafers to the servers, equipment and spare parts supporting that growth. Capturing it will depend on frequent cross-border connections, precise handling and visibility across supply chains where a delayed component can stop production.

These findings emerge from From AI to EVs: How APAC Semiconductors Drive the Global Innovation Map, prepared by Frost & Sullivan for FedEx and released in October 2026.

A broader cargo opportunity
The report identifies AI and high-performance computing as the fastest-growing demand drivers. AI accelerators (GPU/ASIC chips for AI) accounted for roughly 20% of chip sales in 2024, while approximately 2,000 data centres are expected to be added worldwide between 2026 and 2035.

The resulting logistics requirement reaches beyond semiconductor shipments. Data centres also need high-density server racks, modular liquid-cooling systems and power-generation hardware. The mix of sensitive components and larger equipment creates different transport and handling requirements within the same investment cycle.

Electric vehicles add another source of demand. “Importantly, chip content per vehicle is rising,” the report states. Power management, sensors and AI applications increase semiconductor requirements, while 5G networks, medical devices and industrial automation broaden the customer base.

For carriers and forwarders, this means a more varied cargo market, spanning small development samples, production inputs, and infrastructure deployments. Express air transport serves urgent prototypes and development boards; larger equipment movements require coordinated freight capacity and specialised handling. The report also identifies multimodal transport as part of the response to increasingly complex manufacturing workflows.

More borders, smaller shipments
Asia-Pacific accounted for about 57.6% of global semiconductor industry revenue in 2022, according to the report. Its significance lies as much in the links between production locations as in the scale of individual markets.

“Since a single semiconductor often requires design, fabrication, and packaging in different hubs, there is increased cross-border movement of prototypes, test wafers, and high-value spares,” the report says.

That pattern makes shipment frequency and connections between factories central to the air cargo opportunity. The report describes a shift towards smaller, customised consignments, requiring flexible schedules rather than dependence on large bulk orders.

Taiwan’s semiconductor exports reached nearly $170 billion in 2025, growing at a compound annual rate of about 7.7% since 2006, according to the report. Vietnam’s exports grew much faster from a smaller base, at approximately 31.8% annually.

On the import side, Singapore exceeded $105 billion in 2025 and led the economies shown in the report’s comparison. Vietnam again recorded the fastest growth, at approximately 30% annually. Together, they illustrate established trading hubs operating alongside rapidly expanding manufacturing locations.

Specialisation shapes the network
The region’s production geography explains why semiconductor logistics involves repeated cross-border movements. Taiwan and South Korea lead advanced fabrication, Japan supplies critical materials and equipment, and China combines materials supply, manufacturing capacity and a large customer market. India is a major design and engineering hub while investing in fabrication.

Before a chip reaches a customer, the chain draws on wafers, gases, chemicals, substrates and photoresists; design and verification services; fabrication equipment; and packaging and testing capacity. Finished chips then enter servers, vehicles and industrial electronics. Distribution hubs position inventory and coordinate deliveries across these stages.

Southeast Asia provides much of the assembly, packaging and testing network. Malaysia combines these activities with substrates and packaging materials. The Philippines has an established testing and packaging industry and skilled workforce. Vietnam is attracting assembly and testing investment alongside its electronics manufacturing base, while Thailand’s automotive sector supports demand for chips and sensors. Indonesia offers longer-term potential in materials and manufacturing.

The freight relationship is two-way: chips enter these locations for processing and leave for integration elsewhere. Serving that network requires connections between regional production centres as well as intercontinental export capacity.

Singapore, Hong Kong, and Tokyo also provide distribution infrastructure that links Asian production to overseas customers. As the report notes, “Modern supply chains rely on these nodes for inventory buffering and quick deployment.”

Small suppliers, critical deliveries
The cargo customer base extends well beyond the largest chipmakers. Smaller businesses supply specialised chemicals, precision parts, design services, packaging and testing, creating shipment requirements throughout the production cycle.

Design companies move prototypes, development boards and test chips between research centres and fabs. Materials suppliers need compliant cross-border transport for sensitive inputs. Equipment specialists ship repair components and refurbished parts, while packaging and testing companies require frequent wafer and chip transfers. System integrators add circuit boards and electronic assemblies to the mix.

For logistics providers, these consignments can carry commercial significance beyond their physical size. The report identifies “Time-critical shipments of spare parts and repair components to minimise fabrication downtime” as a specific requirement.

Downstream, regional distributors, freight coordinators and aftermarket providers manage inventory, repairs and reverse logistics. The opportunity therefore continues after initial manufacture, through maintenance and product support.

Resilience changes the freight brief
A more distributed production base reduces dependence on individual locations but increases the number of movements that must remain coordinated. Geopolitical tensions, export controls, tariffs and natural disasters can affect several stages at once.

The report describes manufacturers moving towards geographic diversification and inventory buffers. For logistics networks, that means supporting more trade lanes and stockholding locations while retaining the flexibility to respond when routes or production plans change.

Transport speed alone cannot resolve every disruption. “Errors in customs data or product classification can create avoidable delays, especially for time-sensitive shipments,” the report warns.

Forecast errors and upstream delays can reach factories as missing inputs. Paperwork mismatches can interrupt delivery even after international transport is complete. The consequences include line stoppages, rework and delayed finished goods.

A separate FedEx survey at SEMICON Taiwan, conducted on September 2–4, 2026 among 478 industry participants, reinforces these priorities. 35% expected their companies to expand manufacturing into additional APAC markets over the next three years. Geopolitical disruption was the leading growth challenge for 30%, while 44% identified faster international shipping as the most important capability when selecting logistics and supply chain partners.

Reliability beyond the flight
Service requirements change at each stage. Research teams need rapid prototype transfers. Foundries need secure movement of wafers, equipment, chemicals and spares. Assembly and testing plants depend on frequent international connections, while electronics manufacturers need component arrivals coordinated with production. Distribution operations require reliable deliveries and visibility into inventory across markets.

Handling must also reflect the cargo. Wafers may require shock protection and controlled conditions; finished semiconductors need secure custody. Digital coordination links those physical movements to customs documentation, production systems, and disruption monitoring.

“The ability to synchronise logistics data, shipping documentation, and real-time tracking across multiple stakeholders has become increasingly important for maintaining operational continuity,” the report states.

For air cargo, that sets a demanding brief: connect specialised factories, protect sensitive shipments and make delivery dependable enough to support production. The value of a fast flight ultimately depends on whether the component reaches the next manufacturing stage when it is needed.