全球半導體測量與檢測設備市場（2027-2037 年）

Semiconductor Metrology & Inspection Equipment: Global Market 2027-2037

出版日期: 2026年06月16日 | 出版商:

Future Markets, Inc. | 英文 192 Pages, 31 Tables, 50 Figures | 訂單完成後即時交付

價格

簡介目錄圖表

半導體測量與檢測（M&I）設備市場是現代晶片製造的核心，其提供的測量和缺陷檢測能力能夠實現先進的製程控制。隨著裝置架構日益複雜、3D化和異構化，可視化、測量和表徵嵌入在表面和多層結構之下的結構的能力，是實現可接受良率的關鍵因素。計量和檢測日益被認為是先進晶片製造中的潛在瓶頸，隨著新節點和封裝技術的創新發展，製程控制的要求也越來越嚴格。

這項需求主要源自於先進邏輯、DRAM、高頻寬記憶體、EUV微影和先進封裝技術的進步。隨著缺陷檢測靈敏度的提高、行業向環柵（GAA）電晶體和高深長寬比記憶體發展，以及表面無法直接觀察到的鍵合相關失效模式的增加，檢測要求也變得日益嚴格。同時，計量技術也在不斷擴展，以滿足對更嚴格的套刻公差、日益複雜的材料以及對錶面、形狀和形貌的精確控制的需求。先進封裝技術，包括混合鍵結、面板級封裝和玻璃基板，正成為推動這一需求的主要因素，顯著增加了整個製程中的關鍵控制點數量。

供應商生態系統仍集中在北美、歐洲和日本，大部分價值創造和路線圖引領權也掌握在這些地區。同時，中國正加速建構國內的測量與整合（M&I）生態系統，助力價值鏈的多元化與復興。競爭的焦點正從硬體轉向應用技術、軟體、資料分析、混合測量技術和服務能力。在這一領域，光學、電子束、X射線、表面探針和運算技術（通常透過資料融合相結合）的持續創新重塑競爭格局，並推動下一波半導體創新浪潮。

本報告對2027年至2037年全球半導體測量和測試設備市場進行了全面分析，內容涵蓋預測、細分市場、技術、裝置類別要求、供應商生態系統、包括中國在內的區域趨勢、競爭市場佔有率以及主要和新興設備供應商的詳細概況。具體內容如下：

報告目標和範圍 - 目標、細分市場、設備類別、技術、區域覆蓋範圍以及需要解答的關鍵問題
第3頁摘要
執行摘要- 主要發現、需求促進因素、主要預測、競爭格局和區域概覽以及策略建議
2027-2037年市場預測 - 對整體市場、檢測、測量和掩模測量與檢測（M&I）進行分析，並依應用、地區、節點和測量原理進行細分，以及場景和敏感性分析。
產業生態系統 - 供應鏈地圖、產業新聞、供應商市場佔有率、併購和創業融資、區域分析、聚焦大中華區、供應商策略和財務狀況。
技術趨勢 - 製程控制策略、向深度3D洞察的過渡、多技術檢測、混合測量、計算/人工智慧方法、腔室內和工具上測量以及技術藍圖
依元件類別分類的需求和挑戰 - 邏輯元件、記憶體、電源和模擬器元件、光學和感測器、先進封裝以及極紫外線/光刻測量和檢測
技術趨勢 - 光學、電子束、X光、表面形貌、計算/混合測量與偵測，以及比較基準
結論與展望 - 要點、機會、未解決的挑戰與風險情景
公司簡介 - Advantest、Applied Materials、Arena Technologies、ASML、Atlant 3D、Auros Technology、Bruker、Camtek、Confovis、Cyber Technologies、Cybord、Delvitech、DONGFANG JINGYUAN ELECTRON、Elionix、EuQlid、EUV Tech、EV Group、FormFactorFactorFactor、Frontier Semdu、Elionix、EuQlid、EUV Tech、EV Form、FormFactorFactor、Frontier Semdu、H殼s、Hitatactor High-Tech、Holon、HORIBA、Infinitesima、Intekplus、JEOL、KLA 等。

The semiconductor metrology and inspection (M&I) equipment market sits at the heart of modern chip manufacturing, providing the measurement and defect-detection capabilities that make advanced process control possible. As device architectures grow more complex, three-dimensional, and heterogeneous, the ability to see, measure, and characterize structures - both on the surface and buried beneath multiple layers - has become a decisive factor in achieving acceptable yields. Metrology and inspection are increasingly described as a potential bottleneck in advanced chip manufacturing, with process-control intensity rising in step with each new node and packaging innovation.

Demand is propelled by the evolution of advanced logic, DRAM, high-bandwidth memory, EUV lithography, and advanced packaging. Inspection requirements are intensifying as defect sensitivity climbs and as the industry transitions toward gate-all-around transistors, high-aspect-ratio memory, and bonding-related failure modes that are no longer visible at the surface. In parallel, metrology is expanding to address tighter overlay budgets, growing materials complexity, and the need for precise control of surface, shape, and topography. Advanced packaging - encompassing hybrid bonding, panel-level packaging, and glass substrates - is emerging as a major growth driver, multiplying the number of critical control points across the process flow.

The supplier ecosystem remains concentrated among established players in North America, Europe, and Japan, where most of the value creation and roadmap leadership resides. At the same time, China is accelerating efforts to build a domestic M&I ecosystem, contributing to a more diversified and dynamic supply chain. Competition is shifting beyond hardware toward application know-how, software, data analytics, hybrid metrology, and service capabilities. Across the field, continued innovation in optical, e-beam, X-ray, surface-probe, and computational techniques - often combined through data fusion - is reshaping the competitive landscape and enabling the next wave of semiconductor innovation.

A comprehensive 2027–2037 analysis of the global semiconductor metrology and inspection equipment market, covering forecasts, segments, technologies, device-class requirements, the supplier ecosystem, regional dynamics including China, competitive market shares, and detailed profiles of leading and emerging equipment vendors. Contents include:

Report Objectives & Scope - objectives, coverage of segments, device classes, technologies and geographies, key questions answered
Three-Page Summary
Executive Summary - key findings, demand drivers, headline forecasts, competitive and regional snapshots, strategic recommendations
Market Forecast 2027–2037 - total market, inspection, metrology, and mask M&I analyses, plus segmentation by application, region, node and measurement principle, with scenario and sensitivity analysis
Industry Ecosystem - supply chain mapping, industry news, vendor market shares, M&A and venture funding, regional analysis, focus on Greater China, and supplier strategy/financials
Technology Trends - process-control strategies, the shift to deep 3D insight, multi-technique inspection, hybrid metrology, computational/AI methods, on-chamber and on-tool metrology, and the technology roadmap
Requirements & Challenges by Device Class - logic, memory, power & analog, opto & sensors, advanced packaging, and EUV/mask M&I
Technology Landscape - optical, e-beam, X-ray, surface & topography, and computational/hybrid M&I, with comparative benchmarking
Conclusions & Outlook - takeaways, opportunities, unmet needs, and risk scenarios
Company Profiles - profiles of leading and emerging vendors including Advantest, Applied Materials, Arena Technologies, ASML, Atlant 3D, Auros Technology, Bruker, Camtek, Confovis, Cyber Technologies, Cybord, Delvitech, DONGFANG JINGYUAN ELECTRON, Elionix, EuQlid, EUV Tech, EV Group, FormFactor, Frontier Semiconductor, Galatek, Hitachi High-Tech, Holon, HORIBA, Infinitesima, Intekplus, JEOL, KLA and more.....

1 REPORT OBJECTIVES & SCOPE

1.1 Report objectives
1.2 Scope of the report
1.3 Segments, device classes & technologies covered
1.4 Geographic coverage
1.5 Key questions answered

2 EXECUTIVE SUMMARY

2.1 Key findings at a glance
2.2 M&I as the emerging bottleneck in advanced chip manufacturing
2.3 Demand drivers: process complexity, 3D architectures & yield economics
2.4 Headline market forecasts 2027?2037
2.5 Competitive landscape snapshot
2.6 Regional dynamics & localization
2.7 Strategic recommendations for stakeholders

3 METROLOGY & INSPECTION EQUIPMENT MARKET FORECAST 2027?2037

3.1 Total M&I market overview
- 3.1.1 Market definition & value-chain boundaries
- 3.1.2 Methodology and triangulation
- 3.1.3 Historical market 2021?2026 (base period)
- 3.1.4 Total market value forecast 2027?2037
- 3.1.5 M&I share of total wafer fab equipment
- 3.1.6 Market split by measurement function
3.2 Inspection market analysis
- 3.2.1 Inspection market sizing and structure
- 3.2.2 Patterned wafer inspection
- 3.2.3 Defect sensitivity and 3D-architecture drivers
- 3.2.4 Unpatterned, macro, edge and backside inspection
3.3 Metrology market analysis
- 3.3.1 Metrology market sizing and structure
- 3.3.2 Overlay and critical-dimension metrology
- 3.3.3 Thin-film, composition, shape and topography metrology
- 3.3.4 In-line versus standalone metrology
3.4 Mask metrology & inspection market analysis
- 3.4.1 Mask M&I sizing and structure
- 3.4.2 Mask inspection and the competitive split
- 3.4.3 Actinic and EUV mask M&I
- 3.4.4 Mask writing and inspection interplay
3.5 Market segmentation & cross-cuts
- 3.5.1 By end-application
- 3.5.2 By region
- 3.5.3 By wafer size and technology node
- 3.5.4 By measurement principle
3.6 Forecast scenarios & sensitivity analysis
- 3.6.1 Scenario framework
- 3.6.2 Key sensitivities

4 METROLOGY & INSPECTION INDUSTRY ECOSYSTEM

4.1 Ecosystem & supply-chain mapping
4.2 Industry news & recent developments
4.3 Equipment vendor market shares
- 4.3.1 Overall M&I market shares
- 4.3.2 Market shares by inspection segment
- 4.3.3 Market shares by metrology segment
- 4.3.4 Market shares in mask M&I
4.4 Venture funding & emerging-player landscape
- 4.4.1 Funding landscape overview
- 4.4.2 Emerging focus areas
- 4.4.3 Implications for incumbents
4.5 M&I regional analysis
- 4.5.1 North America
- 4.5.2 Europe
- 4.5.3 Japan
- 4.5.4 Korea & Taiwan
4.6 China
- 4.6.1 Domestic ecosystem development
- 4.6.2 Local optical inspection & metrology suppliers
- 4.6.3 Localization trajectory & barriers
4.7 Strategy & financial analysis of leading suppliers
- 4.7.1 Revenue, margins & R&D intensity
- 4.7.2 Strategic positioning & differentiation

5 METROLOGY & INSPECTION TECHNOLOGY TRENDS

5.1 Process control strategies and the role of M&I
5.2 From surface control to deep 3D insight
5.3 Multi-technique inspection strategies
5.4 Hybrid metrology & data fusion
5.5 Computational metrology, AI & machine learning
5.6 Focus on on-chamber and on-tool metrology
5.7 Software, analytics & service as competitive differentiators
5.8 Technology roadmap & maturity assessment

6 M&I REQUIREMENTS & CHALLENGES BY DEVICE CLASS

6.1 Cross-cutting requirements & emerging metrology gaps
6.2 Logic
- 6.2.1 FinFET to gate-all-around (GAA)
- 6.2.2 CFET & backside power delivery
6.3 Memory
- 6.3.1 DRAM & high-aspect-ratio structures
- 6.3.2 3D NAND
- 6.3.3 HBM & stacking-related failure modes
6.4 Power & Analog
6.5 Opto & Sensors
6.6 Advanced Packaging
- 6.6.1 Hybrid bonding
- 6.6.2 Panel-level packaging (PLP)
- 6.6.3 Glass substrates & cores
- 6.6.4 Subsurface & buried-defect detection
6.7 EUV Photolithography and Mask M&I

7 M&I TECHNOLOGY LANDSCAPE

7.1 Optical M&I
- 7.1.1 Brightfield / darkfield inspection
- 7.1.2 Scatterometry & optical CD
- 7.1.3 Ellipsometry & reflectometry
- 7.1.4 Wavefront & interferometric techniques
7.2 E-beam M&I
- 7.2.1 CD-SEM
- 7.2.2 E-beam defect inspection
- 7.2.3 Multi-beam architectures
7.3 X-ray M&I
- 7.3.1 XRD / XRF / XRR
- 7.3.2 CD-SAXS
- 7.3.3 X-ray imaging & CT for packaging
7.4 Surface & topography M&I
- 7.4.1 Atomic force microscopy (AFM) & scanning probe
- 7.4.2 Acoustic & subsurface metrology
- 7.4.3 Quantum & magnetic-field imaging
7.5 Computational and hybrid M&I
7.6 Comparative benchmarking of M&I methods
- 7.6.1 Resolution, throughput & cost-of-ownership
- 7.6.2 Strengths, limitations & application fit

8 MARKET OUTLOOK

8.1 Opportunities & unmet needs for equipment suppliers
8.2 Risks & scenario outlook

9 COMPANY PROFILES (57 company profiles)

10 APPENDIX

10.1 Companies cited in this report
10.2 Glossary, methodology & definitions
- 10.2.1 Research methodology & data sources
- 10.2.2 Market sizing approach & key assumptions
- 10.2.3 Segmentation framework
10.3 Detailed data tables

11 REFERENCES

簡介目錄圖表

List of Tables

Table 1. The M&I market at a glance
Table 2. Headline forecast summary, by function and application (USD bn)
Table 3. Historical M&I equipment market, 2021–2026 (USD bn, triangulated estimates)
Table 4. Total M&I equipment market forecast, 2027–2037 (USD bn, central case)
Table 5. M&I market by measurement function, selected years (USD bn and % of total)
Table 6. Inspection market by sub-segment, selected years (USD bn and CAGR)
Table 7. Metrology market by sub-segment, selected years (USD bn and CAGR)
Table 8. Mask & reticle M&I market by sub-segment, selected years (USD bn and CAGR)
Table 9. M&I market by end-application, 2027 and 2037 (USD bn and % of total)
Table 10. M&I market by region, 2027 (USD bn and % of total)
Table 11. M&I market by node tier and wafer format, 2027 and 2037 (USD bn and CAGR)
Table 12. M&I market by measurement principle, 2027 and 2037 (USD bn and % of total)
Table 13. Forecast scenarios, 2027–2037 (USD bn)
Table 14. Estimated overall M&I vendor shares, 2025 (USD bn and %, triangulated)
Table 15. Estimated segment leadership and leader share
Table 16. Selected venture funding rounds, emerging M&I-relevant players
Table 17. Estimated M&I value capture by supplier home region (2025, %)
Table 18. Selected mainland China M&I suppliers and coverage
Table 19. Financial profile of leading M&I suppliers, latest fiscal year (USD)
Table 20. M&I technology maturity and roadmap assessment
Table 21. M&I requirements and emerging gaps by device class
Table 22. EUV mask metrology and inspection flow Source: research synthesis; conceptual schematic.
Table 23. Strengths, limitations and application fit of principal M&I techniques
Table 24. Priority opportunities and unmet needs for M&I suppliers
Table 25. Hitachi high-Tech annual unit shipments
Table 26. JEOL annual unit shipments
Table 27. Key market-sizing assumptions (central case)
Table 28. Segmentation framework
Table 29. Abbreviations and glossary
Table 30. Total M&I equipment market, full annual series, 2021–2037 (USD bn)
Table 31. M&I market by measurement function, annual, 2027–2037 (USD bn)

List of Figures

Figure 1. Executive snapshot: M&I market trajectory with scenario range, and 2037 market by application
Figure 2. Total M&I equipment market value, 2021–2037 (USD bn)
Figure 3. Indexed growth of M&I value versus equipment spend, device units and wafer starts, 2021–2037 (2021 = 100)
Figure 4. M&I equipment as a share of total wafer fab equipment, 2021–2037 (%)
Figure 5. M&I steps per wafer by technology node (index, 28nm = 100)
Figure 6. Inspection market by sub-segment, 2027–2037 (USD bn)
Figure 7. Inspection market CAGR by sub-segment, 2027–2037 (%)
Figure 8. Critical defect size versus inspection intensity by node Source: research synthesis; indicative values.
Figure 9. Metrology market by sub-segment, 2027–2037 (USD bn)
Figure 10. Metrology market CAGR by sub-segment, 2027–2037 (%)
Figure 11. Mask & reticle M&I market by sub-segment, 2027–2037 (USD bn)
Figure 12. M&I market by end-application, 2027 vs 2037 (USD bn)
Figure 13. M&I market by region, 2027 (USD bn)
Figure 14. M&I market by measurement principle, 2027 vs 2037 (USD bn)
Figure 15. M&I equipment market forecast scenarios, 2027–2037 (USD bn)
Figure 16. M&I ecosystem and supply-chain map
Figure 17.Estimated overall M&I vendor shares, 2025 (%)
Figure 18.Estimated market-leader share across M&I sub-segments (%)
Figure 19.Estimated M&I value capture by supplier home region, 2025 (%)
Figure 20. Estimated domestic-supplier share in China by node tier, 2025–2037 (%)
Figure 21. The closed-loop process-control cycle and the role of M&I
Figure 22 . Multi-technique inspection coverage
Figure 23. Hybrid metrology and data-fusion concept
Figure 24. AI/ML computational-metrology workflow Source: research synthesis; conceptual schematic.
Figure 25. Standalone versus integrated on-tool metrology
Figure 26. M&I technique maturity versus forecast growth intensity
Figure 27. M&I requirement intensity by device class and measurement type
Figure 28. Logic architecture evolution and the new measurement challenge at each generation
Figure 29. Critical metrology points in 3D NAND and HBM structures Source: research synthesis; conceptual schematic.
Figure 30. Critical M&I control points in advanced heterogeneous packaging Source: research synthesis; conceptual schematic.
Figure 31. Single-column versus multi-beam e-beam architecture Source: research synthesis; conceptual schematic.
Figure 32. X-ray technique map: from materials to volumetric imaging Source: research synthesis; conceptual positioning.
Figure 33. AFM and acoustic subsurface metrology
Figure 34. Quantum-diamond imaging of buried current flow
Figure 35. Resolution versus throughput positioning of M&I techniques
Figure 36. Comparative benchmarking of M&I techniques across key attributes
Figure 37 .M&I opportunity map: forecast growth versus contestability
Figure 38. Applied Materials Solar Wafer Inspection System.
Figure 39. ASML YieldStar S 200B
Figure 40. ATLANT 3D Nanofabricator LITE system
Figure 41. Auros overlay metrology system
Figure 42. Bruker D8 DISCOVER X ray diffractometer
Figure 43. CT 600S machine.
Figure 44. Aton 3D AOI System
Figure 45. SEpA-i series - electron-beam inspection (EBI)
Figure 46. EVG50 Automated Metrology System
Figure 47. Surfscan SP7
Figure 48. ACTIS A150
Figure 49. Nikon NSR-S205 Litho Lithography System.
Figure 50. Park NX-Wafer