Chemical Mechanical Planarization Market
Chemical Mechanical Planarization Market (Equipment Type – Polishing & Grinding Equipment, Slurry Testing Equipment, Inline CMP Monitoring Systems, Laboratory CMP Equipment and Others; Technology Node – ≤7nm, 7nm–10nm, 10nm–14nm, ≥22nm; Substrate Type; Application; and End-use Industry) – Global Industry Analysis, Shares, Growth, Trends and Forecast 2020-2035
Categories:
All, Chemicals and Materials, Electronics and Semiconductor
| Format: PDF/PPT/Excel
| Product ID:
3533
| Report Version:
August 2025
Market Snappshot
- Market Size in 2024: $US 7 Billion
- Forecast Market by 2035: $US 16.2 Billion
- CAGR for the Period 2025-2035: 7.9%
- Top Region in Terms of Market Share: Asia Pacific (46%)
- Key Players: Applied Materials, Inc., CMC Materials, Inc., Fujimi Incorporated; Hitachi Chemical Co. Ltd., Ebara Corporation, Versum Materials, Inc., DuPont, BASF SE, Lam Research Corporation, and Others
Analyst Viewpoint:
The world Chemical Mechanical Planarization (CMP) market is increasing at a steady pace with an increase in the demand from consumer electronics, electric vehicles, and cutting-edge semiconductor production. CMP is essential for ultra-flat surfaces of ICs, memory devices, and 3D NAND structures. With a continued miniaturization, the requirements for higher planarity, defect-free surfaces, and selectivity of materials are growing much stronger. Yet, the problems remain in the form of expensive slurry prices, defect-causing processes, and also environmental issues such as wastewater pollution. To remedy these, the industry participants are investing in environment friendly slurries, low-abrasive chemistries, and also closed-loop water recycling systems.
Technological advancements, including the CMP for compound semiconductors and new MEMS applications, are broadening the industry’s reach. At the commercial level, the supply chains integrated and the localized factory sites are also being given top priority in order to restrict geopolitical risks. The increase of industry towards sustainable, high-precision, and also application-focused CMP solutions makes it a crucial enabler for the future electronics and also high-performance computing.
Chemical Mechanical Planarization Market Overview:
Chemical Mechanical Planarization (CMP) is a very specialized and crucial semiconductor fabrication process needed to fabricate leading-edge integrated circuits. The CMP process synergistically combines the effect of chemical reaction and mechanical wear to plane and level wafer surfaces to a consistent topography needed for accurate layer stacking and high-resolution photolithography.
This planarization is especially important at front nodes (≤7nm) where small topography fluctuations will adversely affect device performance. CMP allows chipmakers to remove topography-driven defects, induce multilayer integration, and have tighter process control, finally resulting in improved device yield and reliability.
CMP toolsets contain an array of systems including polishing and grinding equipment, mechanisms for delivering slurry, and test platforms utilized in measuring abrasives’ performance. The tools are generally classified into two broad functions: material removal (thin dielectric and metal interconnect layer and die shape thinning) and surface planarization (plane dielectric and metal interconnect layers). Technology is broadly applied in the fabrication of memory chips, logic devices, and high-performance computer processors.
In addition, with more usage of new technology such as 3D ICs, MEMS, advance packaging (e.g., 2.5D/3D stacking), and heterogeneous integration, CMP’s contribution to the supply of ultra-flat, defect-free surfaces becomes more significant. Improvements in slurry chemistry and pad conditioning technology are also under stress from industries to minimize defectivity, decrease cost of ownership, and improve throughput.
With ongoing investment in semiconductor foundry production facilities particularly in the Asia Pacific and growing sophistication of chip structure, CMP market is gradually expanding. Requirements for accuracy, optimization of yield, and manufacturability scalability will render CMP to be one of the backbone technologies for electronics production in the future.
| Drivers | Increasing Global Demand for Advanced Planarization Solutions is Enhancing Growth Opportunities within the Semiconductor Manufacturing Industry |
| Rapid Expansion of Consumer Electronics Sector Drives Significant Demand for Advanced Chemical Mechanical Planarization Technologies |
Increasing Global Demand for Advanced Planarization Solutions is Enhancing Growth Opportunities within the Semiconductor Manufacturing Industry
One of the key drivers for the market is the increasing use of CMP technology in semiconductor processing. It is used extensively for planarization of the oxide dielectric layer and the metal interconnects, both of which are critical to high-speed chip design. CMP is also a fundamental process for fabricating Microelectromechanical Systems (MEMS), integrated in sensors, actuators, and cell phones.
With respect to demand grows for Molded Interconnect Devices (MIDs), personal computers, smart phones, and high-performance computing hardware, semiconductor production continues to scale up. The growth increases the demand for extremely smooth wafer surfaces and precise patterning, making CMP mandatory. Growth of the semiconductor market is driving adoption of CMP systems directly during the forecast period.
Rapid Expansion of Consumer Electronics Sector Drives Significant Demand for Advanced Chemical Mechanical Planarization Technologies
Consumer electronics are transforming dramatically with the mass availability of 3D devices, LEDs, smartphones, gaming consoles, and wearables. The technologies are largely based on printed circuit boards (PCBs), where CMP ensures layer flatness and correct electrical connection. The growing usage of PCBs in consumer electronics is thus creating demand for CMP solutions.
Moreover, ADAS, infotainment, and telematics implementation is driving automotive electronics industry growth. With safety, comfort, and automation of drivers becoming increasingly important, the automotive sector has become a top user of CMP-enabling electronics components. This intersection of electronics and transportation is opening new avenues for CMP application in non-traditional areas.
Chemical Mechanical Planarization Regional Market Outlook:
The Asia Pacific is the leader in the Chemical Mechanical Planarization (CMP) industry with greater exposure to rapid advancements in semiconductor production and the location of giant foundries and electronics companies. The is led by China, South Korea, Japan, and Taiwan with massive investments in next-generation chip manufacturing technologies where CMP is a critical driver in reaching nanoscale accuracy and planar surface specifications.
The region has a robust electronics economy in the form of memory, logic, and display production, with concomitant aggressive adoption of advanced packaging technologies. CMP is increasingly being employed in the manufacturing of MEMS sensors, LED displays, and compound semiconductor devices. The regional governments are also proactively encouraging high-tech production through R&D incentives and semiconductor subsidies, further consolidating Asia Pacific’s position as a market leader in this category.
North America is witnessing steady growth, primarily in the United States, fueled by growing demand for high-performance computing, autonomous cars, and wearable electronics. As chip complexity continues to grow, the need for advanced CMP solutions is on the rise across both foundries and integrated device makers.
While Europe dominates, particularly in specialty semiconductor application and equipment manufacturing, Asia Pacific’s technological edge and mass manufacturing capability underpin its leadership of global CMP demand.
Key Companies in Chemical Mechanical Planarization Market:
The world Chemical Mechanical Planarization (CMP) market is dominated by a vibrant blend of multinational companies and specialty small- to medium-sized businesses (SMEs). The firms compete on a broad range of applications by offering customized CMP solutions, with a focus on a specific technology node, substrate type, and end-market. Industry players are driving localization and innovation more and more, using their R&D capabilities to enhance slurry chemistry, tool design, and material compatibility.
As there is more complexity in semiconductor devices, the market leaders are investing in advanced CMP technology innovations such as low-temperature processing, hybrid polishing solutions, and stretchable planarization solutions to address leading-edge chip designs and emerging trends in packaging. The latest innovations are driving new product introduction and enabling companies to enter verticals such as MEMS, advanced logic, and 3D packaging.
In addition to technological advancement, industry players are making mergers and acquisitions, joint ventures, and strategic alliances to consolidate their global presence, streamline supply chains, and spread their business. All these collaborations have the potential to consolidate business relationships with integrated device manufacturers (IDMs) and semiconductor foundries in the US, Europe, and Asia. Major market players engaged in such trends include Applied Materials, Inc., CMC Materials, Inc., Fujimi Incorporated; Hitachi Chemical Co. Ltd., Ebara Corporation, Versum Materials, Inc., DuPont, BASF SE, Lam Research Corporation, Alpsitec SAS, Global Foundries Inc., and Others.
Key Developments in Chemical Mechanical Planarization Market:
| 1. Fujifilm Increases CMP Slurry Manufacturing Capacity in Japan: Fujifilm Electronic Materials Co., Ltd.: In December 2024 revealed a major investment of around 2 billion ¥ to increase its CMP slurry manufacturing capacity at its Kumamoto facility in Japan. This expansion will increase upstream slurry supply by about 30% to meet increasing CMP demand fueled by AI semiconductor manufacturing in the Asia Pacific region. The growth reinforces Fujifilm’s vision of providing integrated post-CMP chemicals and cleaner products for enhanced yield and process performance. |
| 2. DuPont Receives Edison Award for Ikonic 9000 AI-Based CMP Pads: In April 2025, DuPont received a Bronze Edison Award for its Ikonic 9000 series of polishing pads, which was accepted in the AI-based advancements category. Its CMP pads feature AI-based design to provide enhanced durability and sustainability of process for the next generation of semiconductor manufacturing. |
Chemical Mechanical Planarization Market Attributes:
| ATTRIBUTE | DETAILS |
| Market Value, 2024 | $US 7 Billion |
| Forecasted Market Value, 2035 | $US 16.2 Billion |
| CAGR (2020-2035) | 7.9% |
| Analysis Period | 2020-2035 |
| Historic Period | 2020-2023 |
| Base Year | 2024 |
| Forecast Period | 2020-2035 |
| Value Unit | $US billion |
| Market Segmentation | By Equipment Type  Â
By Technology Node Â
By Substrate Type     Â
By Application            Â
By End-use     Â
By Region
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| Companies Profiles |
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| Customization Request | Available upon request |
1. Introduction
1.1. Report Scope
1.2. Market Segmentations and Definitions
1.3. Geographical Coverage
2. Executive Summary
2.1. Key Facts and Figures
2.2. Trends Impacting the Market
2.3. DatasticsR Growth Opportunity Matrix
3. Market Overview
3.1. Global Chemical Mechanical Planarization Market Analysis and Forecast, 2020-2035
3.1.1. Global Chemical Mechanical Planarization Market Size ($US Bn)
3.2. Supply-side and Demand-side Trends
3.3. Technology Roadmap and Developments
3.4. Market Dynamics
3.4.1. Drivers
3.4.2. Restraints
3.4.3. Opportunities
3.5. Porter’s Five Forces Analysis
3.6. PESTL Analysis
3.7. Industry SWOT Analysis
3.8. Regulatory Landscape
3.9. Value Chain Analysis
3.9.1. List of Equipment/Materials Suppliers
3.9.2. List of Technology Providers
3.9.3. List of Service Providers
3.9.4. List of Potential Customers
3.10. Impact of Current Geopolitical Scenario on the Market
4. Technical Analysis
4.1. Product Specification Analysis
4.2. Details of Manufacturing Process
4.3. Technology Adoption and Emerging Technologies
4.4. R&D Trends and Patents Landscape
4.5. Cost Structure and Profitability Analysis
5. Global Production Output Analysis (Tons), by Region, 2019
5.1. North America
5.2. Europe
5.3. Asia Pacific
5.4. Latin America
5.5. Middle East and Africa
6. Import-export Analysis Value ($US Bn), by Key Country, 2020-2024
7. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
8. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
9. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
10. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
11. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
12. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Region, 2020-2035
13. North America Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
14. North America Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
15. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
16. North America Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
17. North America Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
18. U.S. Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
19. U.S. Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
20. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
21. U.S. Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
22. U.S. Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
23. Canada Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
24. Canada Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
25. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
26. Canada Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
27. Canada Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
28. Europe Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
29. Europe Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
30. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
31. Europe Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
32. Europe Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
33. Germany Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
34. Germany Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
35. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
36. Germany Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
37. Germany Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
38. U.K. Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
39. U.K. Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
40. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
41. U.K. Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
42. U.K. Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
43. France Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
44. France Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
45. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
46. France Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
47. France Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
48. Italy Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
49. Italy Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
50. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
51. Italy Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
52. Italy Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
53. Spain Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
54. Spain Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
55. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
56. Spain Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
57. Spain Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
58. Russia & CIS Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
59. Russia & CIS Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
60. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
61. Russia & CIS Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
62. Russia & CIS Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
63. Rest of Europe Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
64. Rest of Europe Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
65. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
66. Rest of Europe Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
67. Rest of Europe Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
68. Asia Pacific Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
69. Asia Pacific Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
70. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
71. Asia Pacific Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
72. Asia Pacific Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
73. China Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
74. China Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
75. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
76. China Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
77. China Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
78. India Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
79. India Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
80. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
81. India Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
82. India Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
83. Japan Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
84. Japan Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
85. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
86. Japan Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
87. Japan Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
88. South Korea Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
89. South Korea Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
90. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
91. South Korea Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
92. South Korea Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
93. Taiwan Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
94. Taiwan Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
95. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
96. Taiwan Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
97. Taiwan Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
98. Australia Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
99. Australia Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
100. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
101. Australia Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
102. Australia Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
103. ASEAN Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
104. ASEAN Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
105. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
106. ASEAN Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
107. ASEAN Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
108. Rest of Asia Pacific Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
109. Rest of Asia Pacific Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
110. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
111. Rest of Asia Pacific Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
112. Rest of Asia Pacific Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
113. Latin America Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
114. Latin America Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
115. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
116. Latin America Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
117. Latin America Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
118. Mexico Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
119. Mexico Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
120. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
121. Mexico Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
122. Mexico Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
123. Brazil Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
124. Brazil Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
125. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
126. Brazil Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
127. Brazil Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
128. Argentina Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
129. Argentina Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
130. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
131. Argentina Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
132. Argentina Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
133. Rest of Latin America Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
134. Rest of Latin America Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
135. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
136. Rest of Latin America Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
137. Rest of Latin America Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
138. Middle East and Africa Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
139. Middle East and Africa Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
140. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
141. Middle East and Africa Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
142. Middle East and Africa Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
143. Saudi Arabia Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
144. Saudi Arabia Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
145. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
146. Saudi Arabia Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
147. Saudi Arabia Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
148. UAE Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
149. UAE Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
150. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
151. UAE Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
152. UAE Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
153. South Africa Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
154. South Africa Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
155. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
156. South Africa Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
157. South Africa Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
158. Rest of Middle East and Africa Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Equipment Type, 2020-2035
159. Rest of Middle East and Africa Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Technology Node, 2020-2035
160. Global Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Substrate Type, 2020-2035
161. Rest of Middle East and Africa Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by Application, 2020-2035
162. Rest of Middle East and Africa Chemical Mechanical Planarization Market Analysis and Forecasting ($US Bn), by End-use, 2020-2035
163. Competition Landscape
163.1. Market Share Analysis (%), by Company, 2019
163.2. Competitive Benchmarking
163.3. Company Profiles
163.3.1. Applied Materials, Inc.
163.3.1.1. Company Overview
163.3.1.2. Product Portfolio
163.3.1.3. Financials
163.3.1.4. Geographical Footprint
163.3.1.5. SWOT Analysis
163.3.1.6. Recent Developments and Strategies
163.3.2. CMC Materials, Inc.,
163.3.2.1. Company Overview
163.3.2.2. Product Portfolio
163.3.2.3. Financials
163.3.2.4. Geographical Footprint
163.3.2.5. SWOT Analysis
163.3.2.6. Recent Developments and Strategies
163.3.3. Fujimi Incorporated
163.3.3.1. Company Overview
163.3.3.2. Product Portfolio
163.3.3.3. Financials
163.3.3.4. Geographical Footprint
163.3.3.5. SWOT Analysis
163.3.3.6. Recent Developments and Strategies
163.3.4. Hitachi Chemical Co. Ltd.
163.3.4.1. Company Overview
163.3.4.2. Product Portfolio
163.3.4.3. Financials
163.3.4.4. Geographical Footprint
163.3.4.5. SWOT Analysis
163.3.4.6. Recent Developments and Strategies
163.3.5. Ebara Corporation
163.3.5.1. Company Overview
163.3.5.2. Product Portfolio
163.3.5.3. Financials
163.3.5.4. Geographical Footprint
163.3.5.5. SWOT Analysis
163.3.5.6. Recent Developments and Strategies
163.3.6. Versum Materials, Inc.
163.3.6.1. Company Overview
163.3.6.2. Product Portfolio
163.3.6.3. Financials
163.3.6.4. Geographical Footprint
163.3.6.5. SWOT Analysis
163.3.6.6. Recent Developments and Strategies
163.3.7. DuPont
163.3.7.1. Company Overview
163.3.7.2. Product Portfolio
163.3.7.3. Financials
163.3.7.4. Geographical Footprint
163.3.7.5. SWOT Analysis
163.3.7.6. Recent Developments and Strategies
163.3.8. BASF SE
163.3.8.1. Company Overview
163.3.8.2. Product Portfolio
163.3.8.3. Financials
163.3.8.4. Geographical Footprint
163.3.8.5. SWOT Analysis
163.3.8.6. Recent Developments and Strategies
163.3.9. Lam Research Corporation
163.3.9.1. Company Overview
163.3.9.2. Product Portfolio
163.3.9.3. Financials
163.3.9.4. Geographical Footprint
163.3.9.5. SWOT Analysis
163.3.9.6. Recent Developments and Strategies
163.3.10. Alpsitec SAS
163.3.10.1. Company Overview
163.3.10.2. Product Portfolio
163.3.10.3. Financials
163.3.10.4. Geographical Footprint
163.3.10.5. SWOT Analysis
163.3.10.6. Recent Developments and Strategies
163.3.11. Global Foundries Inc.
163.3.11.1. Company Overview
163.3.11.2. Product Portfolio
163.3.11.3. Financials
163.3.11.4. Geographical Footprint
163.3.11.5. SWOT Analysis
163.3.11.6. Recent Developments and Strategies
163.3.12. Others
164. Appendix
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Frequently Asked Questions
The global Chemical Mechanical Planarization market in 2024 was $US 7 Billion.
The global Chemical Mechanical Planarization market will be $US 16.2 Billion by 2035.
The expected growth rate (CAGR%) of the global Chemical Mechanical Planarization market is 7.9% for the period 2025-2035.
Increasing Global Demand for Advanced Planarization Solutions is Enhancing Growth Opportunities within the Semiconductor Manufacturing Industry and Rapid Expansion of Consumer Electronics Sector Drives Significant Demand for Advanced Chemical Mechanical Planarization Technologies.
Slurry Testing Equipment was the largest segment in the Chemical Mechanical Planarization Market in 2024.
Asia Pacific was the leading regions for Chemical Mechanical Planarization holding around 46% of the global market in 2024.
Applied Materials, Inc., CMC Materials, Inc., Fujimi Incorporated; Hitachi Chemical Co. Ltd., Ebara Corporation, Versum Materials, Inc., DuPont, BASF SE, Lam Research Corporation, Alpsitec SAS, Global Foundries Inc., and Others.
