North America Advanced Packaging Market Report Scope & Overview:
The North America Advanced Packaging Market was valued at USD 11.05 Billion in 2025 and is projected to reach USD 24.81 Billion by 2035, growing at a CAGR of 8.41% from 2026 to 2035.
The North America Advanced Packaging Market is expanding steadily as domestic foundries and outsourced assembly providers scale 2.5D and 3D packaging capacity to meet rising AI-accelerator and high-performance-computing demand. CHIPS and Science Act funding continues to channel capital toward new packaging-line construction across the United States, reducing historical reliance on offshore outsourced assembly capacity for leading-edge chiplet designs. Automotive electrification and defense-related microelectronics programs are further widening the addressable base beyond traditional consumer-electronics applications across the region. Hyperscale data-center operators headquartered in the region continue to anchor sustained packaging demand well ahead of most other global markets tracked across the broader industry.
⮞In September 2025, GlobalFoundries Inc. announced a multi-year investment to expand advanced packaging capacity at its Malta, New York fabrication campus, a buildout several North American automotive and communications customers cited while securing future packaging allocation.
Global Advanced Packaging Market Size
According to SNS Insider, the Global Advanced Packaging Market was valued at USD 48.04 Billion in 2025 and is projected to reach USD 106.71 Billion by 2035, growing at a CAGR of 8.31% from 2026 to 2035. The market growth is driven by rising demand for high-performance semiconductors, increasing adoption of chiplet integration and 2.5D/3D packaging technologies, and expanding investments in AI infrastructure and high-performance computing.
North America Advanced Packaging Market Trends
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Expanding domestic packaging capacity under CHIPS and Science Act funding programs.
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Rising AI-accelerator design and deployment activity across U.S. hyperscale data centers.
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Growing silicon-carbide power-module packaging demand across EV and charging infrastructure.
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Increasing reshoring of outsourced assembly and test operations to reduce offshore exposure.
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Rising defense-related microelectronics packaging investment across the region.
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Growing adoption of hybrid bonding among domestic logic and memory packaging providers.
U.S. Advanced Packaging Market Size Outlook
The U.S. Advanced Packaging Market was valued at approximately USD 9.66 Billion in 2025 and is projected to reach approximately USD 21.67 Billion by 2035, registering a CAGR of approximately 8.41% from 2026 to 2035.
Demand was further driven across the United States by hyperscale data center build-outs, defense-related microelectronics programs and automotive power module localization growth. In 2025 and 2026, domestic foundries and outsourced assembly providers ramped up their 2.5D and 3D packaging lines to lessen dependence on offshore capacity, and fabless AI-accelerator developers increasingly sought out domestic packaging partners for leading-edge chiplet designs, a trend poised to continue gaining strength throughout the country for the rest of the forecast period, a trend increasingly evident on supplier roadmaps published over the last two years.
⮞In March 2026, Amkor Technology, Inc. broke ground on a new advanced packaging and test facility in Peoria, Arizona, backed by CHIPS and Science Act funding, a project several domestic AI-accelerator developers have cited while planning future packaging allocation across their U.S. supply chains.
North America Advanced Packaging Market Segment Analysis
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By Technology, Flip-Chip dominated with about 37.50% share in 2025, while Fan-Out Wafer-Level Packaging is the fastest-growing technology.
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By Integration Level, 2D IC dominated with about 58.60% share in 2025, while 3D IC is the fastest-growing integration level.
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By Application, HPC/AI Accelerators dominated with about 36.20% share in 2025, while HPC/AI Accelerators is also the fastest-growing application.
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By End-User Industry, IT & Computing/Data Centres dominated with about 41.30% share in 2025, while Automotive & EV is the fastest-growing end-user industry.
By Technology, Flip-Chip Dominates the North America Advanced Packaging Market and Fan-Out Wafer-Level Packaging Grows Fastest
Flip-chip technology dominated the North America Advanced Packaging Market in 2025, supported by decades of domestic bumping and underfill process investment across major foundries and outsourced assembly providers headquartered in the region. Established supply-chain relationships between U.S. fabless designers and domestic packaging partners continue to anchor high flip-chip volumes across computing, networking, and automotive applications, giving the technology a durable cost and reliability advantage over newer packaging approaches still undergoing broader qualification, as suppliers continue to prioritize capacity investment aligned with multi-year customer commitments, reflecting the sector's broader shift toward long-term, capacity-backed supply agreements.
Fan-Out Wafer-Level Packaging is growing fastest across North America as AI-accelerator and 5G module developers increasingly favor its thinner form factor and improved thermal performance. Domestic packaging providers are investing in panel-level variants to lower per-unit cost and reduce dependence on offshore fan-out capacity. Continued yield improvement at panel-level scale is expected to accelerate regional adoption across additional application segments through the remainder of the forecast period across the United States and Canada, a trend expected to continue strengthening through the remainder of the forecast period.
⮞In May 2026, ASE announced an automated 310 mm × 310 mm panel-level packaging production line for its FOCoS and FOCoS-Bridge platforms, with production expected to begin in the first half of 2027.
By Integration Level, 2D IC Dominates the North America Advanced Packaging Market and 3D IC Grows Fastest
2D IC integration dominated the North America Advanced Packaging Market in 2025, as most existing domestic outsourced assembly infrastructure remains optimized around side-by-side die placement rather than vertical stacking. This approach continues to offer the lower-cost, higher-yield option for many regional computing and consumer-electronics applications, and established process flows across domestic foundries keep this integration level the default choice for the majority of current regional packaging volume, particularly as customers increasingly prioritize long-term supply reliability over short-term cost savings, reflecting sustained capital commitments made by leading suppliers over the past several years.
3D IC integration is growing fastest across North America as domestic AI-accelerator and high-bandwidth-memory suppliers increasingly stack multiple dies vertically to shorten interconnect distances and improve power efficiency. Hybrid bonding investment by leading domestic foundries is accelerating this shift, as regional customers increasingly prioritize vertical integration capability over the lower-cost 2D alternative. Continued investment in hybrid-bonding equipment is expected to extend 3D IC adoption well beyond flagship accelerator designs across the region, a dynamic that continues to shape vendor selection criteria across the broader industry, as procurement teams increasingly weigh total cost of ownership alongside upfront capacity pricing.
⮞In October 2026, Applied Materials and BE Semiconductor Industries expanded their partnership to develop hybrid bonding, thermo-compression bonding, and die-on-wafer and die-on-die architectures for next-generation 3D integration.
By Application, HPC/AI Accelerators Dominates the North America Advanced Packaging Market and Grows Fastest
High-Performance Computing & AI Accelerators dominated the North America Advanced Packaging Market in 2025, reflecting the region's concentration of hyperscale data-center operators and leading-edge AI-chip developers headquartered domestically. Sustained capital investment from major cloud providers continues to anchor outsized packaging demand across this application, as domestic accelerator developers increasingly require dense multi-die, multi-stack packaging well beyond what other regional application categories currently demand, a shift reinforced by growing customer preference for diversified, resilient supply arrangements, underscoring the sector's broader transition toward higher-value, integration-intensive packaging formats, a development several industry analysts have flagged as structurally significant for the sector.
This same application is also the fastest-growing across North America, as hyperscale operators race to deploy ever-larger accelerator clusters requiring high-bandwidth-memory integration and advanced thermal management. Domestic packaging providers are prioritizing capacity expansion specifically toward this application over other regional application categories, given its outsized growth trajectory. Continued AI-infrastructure capital spending across major cloud providers is expected to sustain this application's dominant regional growth well into the next decade, consistent with the broader industry-wide shift toward heterogeneous, multi-die packaging architectures.
⮞In May 2026, Applied Materials announced Broadcom as an innovation partner in its EPIC platform, targeting advanced chip-packaging technologies for next-generation AI chips and computing systems.
By End-User Industry, IT & Computing/Data Centres Dominates the North America Advanced Packaging Market and Automotive & EV Grows Fastest
IT & Computing/Data Centres dominated the North America Advanced Packaging Market in 2025 with approximately 41.30% share, reflecting the region's concentration of hyperscale cloud infrastructure and AI-accelerator design activity. Established relationships between domestic cloud operators and packaging providers continue to anchor sustained capital investment across this end-user industry, distinguishing the regional mix from the more consumer-electronics-weighted profile seen in other global markets, further reinforcing the sector's gradual move away from legacy single-die packaging formats, a pattern increasingly visible across supplier roadmaps published over the past two years.
Automotive & EV is the fastest-growing end-user industry across North America as vehicle electrification accelerates demand for silicon-carbide power modules and advanced driver-assistance packaging. Domestic automakers and suppliers are increasingly qualifying regional packaging partners to reduce offshore exposure for safety-critical components. Continued EV production growth across the United States and Canada is expected to sustain this end-user industry's above-average regional growth rate through the remainder of the decade, as suppliers continue to prioritize capacity investment aligned with multi-year customer commitments, reflecting the sector's broader shift toward long-term, capacity-backed supply agreements, a trend expected to continue strengthening through the remainder of the forecast period.
⮞In June 2026, GE Aerospace qualified its silicon-carbide-based high-voltage power controller and unidirectional converter for U.S. military ground vehicles. The products use Power Overlay Packaging technology, demonstrating demand for advanced, thermally robust power-module packaging.
Regional Analysis
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Region |
Major Country |
Share within Region, 2025 (%) |
|---|---|---|
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United States |
California, Texas, Arizona, New York |
87.40% |
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Canada |
Ontario, Quebec |
12.60% |
United States Advanced Packaging Market Insights
The United States dominated the North America Advanced Packaging Market with the highest revenue share of about 87.40% in 2025, supported by concentrated AI-accelerator design activity, expanding domestic foundry capacity, and CHIPS and Science Act funding directed specifically toward advanced packaging capability. California, Texas, Arizona, and New York collectively host the large majority of domestic packaging and foundry investment currently underway across the country, a pattern that has held steady across multiple recent reporting cycles, particularly as customers increasingly prioritize long-term supply reliability over short-term cost savings.
Hyperscale data-center buildouts and defense-related microelectronics programs continue to anchor sustained domestic packaging investment, while fabless AI-accelerator developers increasingly favor domestic packaging partners for leading-edge chiplet designs. Growing automotive power-module localization is further widening the addressable U.S. customer base beyond traditional computing and consumer-electronics applications, a trend expected to continue strengthening through the remainder of the forecast period nationwide, reflecting sustained capital commitments made by leading suppliers over the past several years.
⮞In July 2026, Intel detailed how its U.S. advanced-packaging capabilities use Foveros stacking, EMIB silicon bridges, and EMIB-T to integrate chiplets for increasingly demanding AI workloads.
Canada Advanced Packaging Market Insights
Canada recorded a steady growth in the North America Advanced Packaging Market in 2025, capturing around 12.60% of the revenue share in the region and registering a CAGR of around 8.95% between 2026 and 2035. This growth can be attributed to the investment in specialty substrate manufacturing and increased semiconductor research activity, mainly concentrated in Ontario and Quebec. Federal and provincial semiconductor strategies continue to provide funding for more capital for domestic packaging and test capability. Procurement teams are looking more at total cost of ownership in addition to upfront capacity pricing, a trend supported by customer demand for diversified, resilient supply arrangements.
Growing collaboration between Canadian research institutions and domestic semiconductor manufacturers is expanding specialty packaging capability beyond the country's historical focus on upstream chip design. Proximity to major U.S. packaging and foundry hubs is creating additional cross-border supply-chain integration opportunities, a trend expected to gradually expand Canada's advanced-packaging footprint through the remainder of the forecast period as regional capacity investment continues, underscoring the sector's broader transition toward higher-value, integration-intensive packaging formats, a development several industry analysts have flagged as structurally significant for the sector.
⮞In November 2025, the Canadian government committed up to CAD 210 million toward a CAD 662 million IBM Canada–C2MI project to expand advanced semiconductor packaging and commercialization capabilities at IBM’s Bromont facility in Quebec.
Market Dynamics
Growth Drivers: CHIPS Act Funding and AI Accelerator Concentration
The North American industry is driven by CHIPS and Science Act funding directed toward domestic packaging capacity, combined with the region's concentrated AI-accelerator design and deployment activity across hyperscale data-center operators. Growing demand for heterogeneous chiplet integration is pushing domestic foundries and outsourced assembly providers to scale 2.5D and 3D packaging well beyond prior investment cycles across the United States and Canada, consistent with the broader industry-wide shift toward heterogeneous, multi-die packaging architectures nationwide and beyond.
Rising defense-related microelectronics programs are reinforcing this driver, as government agencies increasingly require domestically packaged components for sensitive applications. Growing automotive electrification demand across the region is further widening the addressable buyer base, as vendors with proven domestic packaging capability capture disproportionate new design-win activity across multiple end markets, a trend expected to continue strengthening through the forecast period, further reinforcing the sector's gradual move away from legacy single-die packaging formats, a pattern increasingly visible across supplier roadmaps published over the past two years.
⮞In February 2026, Samsung Electronics Co., Ltd. unveiled its I-Cube4 2.5D packaging platform combining multiple logic dies and HBM stacks, a launch several North American AI-accelerator developers cited while evaluating comparable heterogeneous-integration packaging platforms.
Restraints: Capital Intensity and Skilled-Workforce Shortages
High capital expenditure required for advanced packaging capacity remains a persistent restraint across North America, as a single dedicated CoWoS-class packaging line can cost between USD 1 billion and USD 3 billion to construct and equip. Smaller domestic outsourced assembly providers increasingly struggle to justify this investment without long-term committed capacity agreements from major AI-accelerator or memory customers willing to underwrite the upfront cost nationwide, as suppliers continue to prioritize capacity investment aligned with multi-year customer commitments, reflecting the sector's broader shift toward long-term.
Skilled-workforce shortages in advanced-packaging engineering and process technology continue to constrain the pace at which new domestic capacity can be brought online across the region. Training pipelines at universities and community colleges have not yet scaled to match the rapid pace of announced packaging investment, delaying hiring timelines at several newly announced facilities and lengthening the time needed to reach full production volume nationwide, a trend expected to continue strengthening through the remainder of the forecast period.
Opportunities: Domestic Reshoring and SiC Power Module Packaging
Reshoring outsourced assembly and test operations to North America represents a significant opportunity, as government-backed funding programs increasingly subsidize new domestic packaging-line construction. Vendors positioned early with qualified domestic capacity stand to capture disproportionate share of AI-accelerator and defense-related packaging demand that customers increasingly prefer to source domestically for supply-chain-resilience reasons across the region, particularly as customers increasingly prioritize long-term supply reliability over short-term cost savings, reflecting sustained capital commitments made by leading suppliers over the past several years.
Growing silicon-carbide power-module packaging demand across North American EV inverters and charging infrastructure offers a second substantial opportunity, as automotive customers increasingly require packaging technologies capable of withstanding higher operating temperatures than traditional silicon-based modules. Vendors able to qualify automotive-grade domestic packaging processes ahead of competitors stand to capture early mover advantage as regional vehicle electrification accelerates through the coming decade, a dynamic that continues to shape vendor selection criteria across the broader regional industry.
⮞In April 2026, SK hynix Inc. partnered with a leading AI accelerator developer to co-develop HBM4 hybrid-bonding packaging architecture, a collaboration several North American industry analysts cited as illustrative of the broader regional opportunity in memory-packaging integration.
Recent Developments:
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May 2026: Powertech Technology Inc. expanded its wafer-level chip-scale packaging capacity to support growing smartphone camera-module demand among North American device makers.
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February 2026: Unisem (M) Berhad opened a new advanced packaging facility in Ipoh, Malaysia, citing growing demand from North American automotive and 5G customers seeking diversified supply.
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December 2025: Taiwan Semiconductor Manufacturing Company began qualification of its SoIC-X wafer-bonding technology, a milestone several North American AI-accelerator customers cited during vendor evaluation.
North America Advanced Packaging Companies are:
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Intel Corporation (Foundry Services)
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GlobalFoundries Inc.
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Amkor Technology, Inc.
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Taiwan Semiconductor Manufacturing Company (TSMC)
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Samsung Electronics Co., Ltd.
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SK hynix Inc.
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ASE Technology Holding
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JCET Group Co., Ltd.
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Powertech Technology Inc.
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Tongfu Microelectronics Co., Ltd.
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Hua Tian Technology Co., Ltd.
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Unisem (M) Berhad
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UTAC Group
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ChipMOS Technologies Inc.
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Nepes Corporation
North America Advanced Packaging Market Report Scope:
| Report Attributes | Details |
|---|---|
| Market Size in 2025 | USD 11.05 Billion |
| Market Size by 2035 | USD 24.81 Billion |
| CAGR | CAGR of 8.41% From 2026 to 2035 |
| Base Year | 2025 |
| Forecast Period | 2026-2035 |
| Historical Data | 2022-2024 |
| Report Scope & Coverage | Market Size, Segments Analysis, Competitive Landscape, Regional Analysis, DROC & SWOT Analysis, Forecast Outlook |
| Key Segments | • By Technology (Flip-Chip, Fan-Out Wafer-Level Packaging, Fan-In Wafer-Level Packaging, 2.5D/3D IC, Embedded Die, System-in-Package, Chip-on-Wafer-on-Substrate, and Others) • By Integration Level (2D IC and 3D IC) • By Application (Smartphones & Consumer Electronics, Automotive/EV Power Modules, High-Performance Computing/AI Accelerators, Data Centre & Cloud Infrastructure, 5G & Telecommunications, Healthcare & Medical Devices, Aerospace & Defence, and Others) • By End-User Industry (Consumer Electronics, Automotive & EV, IT & Computing/Data Centres, Telecommunications, Healthcare, Aerospace & Defense, and Others) |
| Regional Analysis/Coverage | North America (US, Canada) |
| Company Profiles | Intel Corporation (Foundry Services), GlobalFoundries Inc., Amkor Technology, Inc., Taiwan Semiconductor Manufacturing Company (TSMC), Samsung Electronics Co., Ltd., SK hynix Inc., ASE Technology Holding, JCET Group Co., Ltd., Powertech Technology Inc., Tongfu Microelectronics Co., Ltd., Hua Tian Technology Co., Ltd., Unisem (M) Berhad, UTAC Group, ChipMOS Technologies Inc., Nepes Corporation. |
Frequently Asked Questions
Key players include Intel Corporation (Foundry Services), GlobalFoundries Inc., Amkor Technology, Inc., and Taiwan Semiconductor Manufacturing Company, among others.
Key opportunities include reshoring outsourced assembly and test operations domestically and growing silicon-carbide power-module packaging demand across EV inverters.