1. Global Single-Walled Carbon Nanotube Market Overview
The global Single-Walled Carbon Nanotube market value is projected to reach approximately $918.8 million with a CAGR of 12.33% from 2025 to 2030.
Single-Walled Carbon Nanotubes (SWCNTs) are cylindrical nanostructures composed of a single layer of carbon atoms arranged in a hexagonal lattice. These nanotubes exhibit exceptional mechanical, electrical, and thermal properties, making them highly versatile for a wide range of applications. SWCNTs can be produced through various methods, including Arc Discharge, Laser Ablation, Chemical Vapor Deposition (CVD), and High-Pressure Carbon Monoxide (HiPCo) processes. Each method has its unique advantages and challenges, but CVD remains the most widely used due to its scalability and control over the final product.
Global Single-Walled Carbon Nanotube Market Value (M USD) in 2025


2. Driving Factors of Single-Walled Carbon Nanotube Market
Firstly, the increasing demand for advanced materials with superior mechanical and electrical properties is fueling the adoption of SWCNTs. These nanotubes are used to enhance the performance of composite materials, improve the efficiency of electronic devices, and strengthen structural components in aerospace and automotive applications.
Secondly, the rise in global economic activities and trade is boosting the demand for SWCNTs. As industries expand and innovate, the need for high-performance materials like SWCNTs becomes more pronounced. Additionally, ongoing research and development efforts are focused on improving the production methods of SWCNTs, making them more cost-effective and scalable. This is expected to further drive market growth by making SWCNTs more accessible to a broader range of industries.
Moreover, the Asia-Pacific region, in particular, is emerging as a significant market for SWCNTs. Countries like China and Japan are investing heavily in materials science and technology, leading to increased demand for advanced nanomaterials. The growth in industries such as electronics, automotive, and energy in this region is creating substantial opportunities for SWCNT manufacturers.
3. Limiting Factors of Single-Walled Carbon Nanotube Market
Despite the promising growth prospects, the SWCNT market faces several challenges. One of the primary limiting factors is the high production cost associated with SWCNTs. The complex manufacturing processes and the need for specialized equipment result in higher prices compared to other materials. This cost barrier restricts the widespread adoption of SWCNTs, especially in cost-sensitive industries.
Another challenge is the difficulty in dispersing SWCNTs effectively. Maintaining the structural integrity of nanotubes while dispersing them in common solvents remains a significant technical hurdle. This issue can limit the application of SWCNTs in new business areas and slow down market expansion.
Regulatory and safety concerns also pose challenges to the SWCNT market. Governments around the world have implemented strict regulations to ensure the safe use and handling of nanomaterials. Compliance with these regulations can be costly and time-consuming for manufacturers, potentially hindering market growth.
4. Single-Walled Carbon Nanotube Market Segment
Product Types
Chemical Vapor Deposition (CVD): This method is anticipated to dominate the SWCNT market in 2025, with a market value of approximately $709.4 million. CVD’s versatility and scalability make it the preferred production method for SWCNTs, allowing for precise control over the nanotube properties. Its widespread adoption across industries such as electronics, automotive, and aerospace contributes to its significant market share. The growth rate of CVD-produced SWCNTs is also robust, driven by continuous technological advancements and increasing demand for high-purity nanotubes.
High-Pressure Carbon Monoxide (HiPCo): HiPCo-produced SWCNTs are expected to have a market value of $29.4 million in 2025. While this method accounts for a smaller market share compared to CVD, it is gaining traction due to its ability to produce high-quality nanotubes with fewer structural defects. The growth rate of HiPCo-produced SWCNTs is notable, driven by their superior quality and suitability for high-end applications such as electronics and advanced composites.
Arc Discharge: This traditional method is projected to have a market value of $56.2 million in 2025. Arc Discharge-produced SWCNTs are known for their high purity but face challenges in scalability and cost-effectiveness. Despite these limitations, they continue to find applications in niche markets such as high-end electronics and research. The growth rate of Arc Discharge-produced SWCNTs is relatively stable, supported by ongoing research efforts to improve production efficiency.
Laser Ablation: With a market value of $46.0 million in 2025, Laser Ablation-produced SWCNTs offer high-quality nanotubes suitable for specialized applications. This method is known for its precision but is limited by higher production costs and lower scalability compared to CVD. The growth rate of Laser Ablation-produced SWCNTs is steady, driven by demand from industries requiring high-purity and high-quality nanotubes.
Market Consumption by Applications in 2025
Energy Sector: The energy sector is anticipated to be the largest consumer of SWCNTs in 2025, with a consumption of approximately 222493 KG. The increasing demand for high-performance materials in energy storage and transmission drives the adoption of SWCNTs. Their excellent electrical conductivity and mechanical strength make them ideal for applications such as lithium-ion batteries and supercapacitors. The energy sector’s consumption is expected to grow at a robust rate, driven by the global shift towards renewable energy and the need for efficient energy storage solutions.
Electrical & Electronics: This sector is projected to consume around 48018 KG of SWCNTs in 2025. The use of SWCNTs in electronic devices, such as thin-film transistors and flexible displays, leverages their unique electrical properties. The growth rate in this sector is steady, supported by continuous innovation in electronics and the increasing demand for lightweight, high-performance materials.
Aerospace & Defense: The aerospace and defense sector is expected to consume 37681 KG of SWCNTs in 2025. The industry benefits from SWCNTs’ high strength-to-weight ratio and thermal stability, making them suitable for structural components and advanced materials. The consumption growth rate in this sector is influenced by ongoing advancements in aerospace technology and defense applications.
Automotive: The automotive industry is projected to consume 22455 KG of SWCNTs in 2025. The use of SWCNTs in automotive applications, such as lightweight composites and conductive materials, aims to improve fuel efficiency and vehicle performance. The growth rate in this sector is driven by the increasing demand for high-performance materials in electric and hybrid vehicles.
In summary, the Energy Sector holds the largest market share in terms of consumption due to its extensive use of SWCNTs in energy storage and transmission. Meanwhile, the Electrical & Electronics sector exhibits a steady growth rate, driven by continuous innovation and the increasing demand for high-performance materials in electronic devices.
Market Value and Share by Segment
Market Value (M USD) in 2025 | Market Share in 2025 | ||
By Type | Arc Discharge | 56.2 | 6.11% |
Laser Ablation | 46.0 | 5.00% | |
Chemical Vapor Deposition | 709.4 | 77.21% | |
High-Pressure Carbon Monoxide | 29.4 | 3.20% | |
By Application | Aerospace & Defense | 37681 | 10.70% |
Electrical & Electronics | 48018 | 13.64% | |
Automotive | 22455 | 6.38% | |
Energy | 222493 | 63.18% |
5. Regional Single-Walled Carbon Nanotube Market
Asia-Pacific Region: The Asia-Pacific region is anticipated to be the largest consumer of SWCNTs by 2025, with a projected consumption of 144574 KG. This region’s dominance is attributed to its rapidly growing industrial sectors, particularly in electronics, automotive, and energy. Countries like China and Japan are at the forefront of technological innovation, driving the adoption of SWCNTs in high-performance applications. The region’s robust economic growth and increasing investment in research and development further bolster its market position. The Asia-Pacific region is also expected to be the fastest-growing market, driven by the expansion of emerging economies and the increasing demand for advanced materials.
Europe: Europe is projected to consume 130864 KG of SWCNTs in 2025, making it the second-largest regional market. Europe’s consumption is driven by its advanced manufacturing sectors, particularly in the aerospace, defense, and automotive industries. The region’s stringent regulatory environment and focus on sustainable technologies also contribute to the adoption of SWCNTs in high-performance applications. Europe’s market growth is characterized by a steady increase, supported by continuous technological advancements and the expansion of existing industries.
North America: North America is expected to consume 70867 KG of SWCNTs in 2025. The region’s market is driven by its strong industrial base, particularly in the United States, which is a leader in electronics, aerospace, and defense. North America’s consumption is characterized by a focus on high-end applications, leveraging the exceptional properties of SWCNTs to enhance product performance. The region’s market growth is steady, supported by ongoing research and development efforts and the increasing adoption of advanced materials in various industries.
Middle East and Africa: This region is projected to consume 2578 KG of SWCNTs in 2025. While its consumption is relatively lower compared to other regions, the Middle East and Africa show growth potential, driven by increasing industrial activities and investment in infrastructure development. The region’s market growth is expected to be moderate, supported by the expansion of emerging economies and the increasing demand for advanced materials in various sectors.
South America: South America is expected to consume 3255 KG of SWCNTs in 2025. The region’s market is driven by its growing industrial sectors, particularly in automotive and energy. South America’s market growth is characterized by a steady increase, supported by ongoing investment in infrastructure and the adoption of advanced materials in various industries.
Global Single-Walled Carbon Nanotube Market Consumption (KG) by Regions in 2025


6. Top 3 Companies in the Single-Walled Carbon Nanotube Market
Company Introduction and Business Overview:
OCSiAl, established in 2010, is a Luxembourg-based company recognized as the global leader in SWCNT production. The company’s innovative technology allows for industrial-scale synthesis of high-quality SWCNTs, marketed under the brand name TUBALL™. OCSiAl operates globally, with R&D centers in Europe, China, and Russia, focusing on sustainable solutions that enhance material performance while reducing environmental impact.
Products Offered:
OCSiAl offers a range of SWCNT products, including TUBALL™ in powder form, designed for various industrial applications. The company’s products are registered and compliant with regulatory requirements in multiple countries, ensuring their suitability for global markets.
In 2021, OCSiAl reported a sales revenue of $196.8 million.
Company Introduction and Business Overview:
Zeon Nano Technology Co. Ltd., established in 2015, is a Japanese company specializing in the production of high-quality SWCNTs using the “Super Growth Method.” The company is part of the Zeon Corporation, a leader in CNT research and development. Zeon Nano Technology focuses on delivering high-purity SWCNTs suitable for advanced applications in the electronics, materials, and energy sectors.
Products Offered:
Zeon Nano Technology offers ZEONANO® SG101, a high-quality SWCNT with a high aspect ratio and minimal metal catalyst residues. This product is ideal for applications requiring superior electrical and mechanical properties, such as high-performance capacitors and functional materials.
In 2021, Zeon Nano Technology Co. Ltd. reported a sales revenue of $18.0 million.
NanoIntegris Inc (Raymor Industries Inc.)
Company Introduction and Business Overview:
NanoIntegris Inc, established in 1980 and based in Canada, is a leading supplier of high-purity SWCNTs. The company, part of Raymor Industries, specializes in producing electronically pure semiconducting and metallic SWCNTs using a patented plasma torch process. NanoIntegris focuses on delivering high-quality products for various industrial applications, leveraging its expertise in nanotechnology.
Products Offered:
NanoIntegris offers a range of SWCNT products, including PlasmaTubes, PureTubes, and SuperPureTubes, each designed to meet specific purity and performance requirements. These products are suitable for applications in electronics, materials science, and energy storage.
In 2021, NanoIntegris Inc reported a sales revenue of $10.7 million.
Major Players
Company Name | Plants Distribution | Sales Region |
OCSiAl | Luxembourg, Russia | Worldwide |
Zeon Nano Technology Co. Ltd. | Japan | Mainly in Asia |
NanoIntegris Inc (Raymor Industries Inc.) | Canada | Mainly in North America, Asia, and Middle East |
Meijo Nanocarbon Co., Ltd | Japan | Mainly in Asia |
Chasm Advanced Materials, Inc | USA | Mainly in North America |
Beijing North Guoneng Technology Co., Ltd. | China | Mainly in Asia |
Arry International Group Limited | China | Mainly in Asia and Europe |
Nano-C, Inc. | USA | Mainly in North America, Asia, and Europe |
Carbon Solutions, Inc | USA | Mainly in North America |
NanoLab, Inc | USA | Mainly in North America and Asia |
Thomas Swan & Co., Ltd | UK | Worldwide |
SES Research | USA | Worldwide |
The Honjo Chemical Corporation | Japan | Mainly in Asia |
Nanoshel LLC | India | Worldwide |
Chapter 1: Single Walled Carbon Nanotube Market – Research Scope
1.1 Study Goals
1.2 Market Definition and Scope
1.3 Key Market Segments
1.4 Study and Forecasting Years
Chapter 2: Single Walled Carbon Nanotube Market – Research Methodology
2.1 Methodology
2.2 Research Data Source
2.2.1 Secondary Data
2.2.2 Primary Data
2.2.3 Market Size Estimation
2.2.4 Legal Disclaimer
Chapter 3: Single Walled Carbon Nanotube Market Forces
3.1 Global Single Walled Carbon Nanotube Market Size
3.2 Top Impacting Factors (PESTEL Analysis)
3.2.1 Political Factors
3.2.2 Economic Factors
3.2.3 Social Factors
3.2.4 Technological Factors
3.2.5 Environmental Factors
3.2.6 Legal Factors
3.3 Industry Trend Analysis
3.4 Industry Trends Under COVID-19
3.4.1 Risk Assessment on COVID-19
3.4.2 Assessment of the Overall Impact of COVID-19 on the Industry
3.4.3 Pre COVID-19 and Post COVID-19 Market Scenario
3.5 Industry Risk Assessment
3.6 SWCNT Market Players
Chapter 4: Single Walled Carbon Nanotube Market – By Geography
4.1 Global Single Walled Carbon Nanotube Market Value and Market Share by Regions
4.1.1 Global Single Walled Carbon Nanotube Value by Region (2016-2021)
4.1.2 Global Single Walled Carbon Nanotube Value Market Share by Regions (2016-2021)
4.2 Global Single Walled Carbon Nanotube Market Production and Market Share by Major Countries
4.2.1 Global Single Walled Carbon Nanotube Production by Major Countries (2016-2021)
4.2.2 Global Single Walled Carbon Nanotube Production Market Share by Major Countries (2016-2021)
4.3 Global Single Walled Carbon Nanotube Market Consumption and Market Share by Regions
4.3.1 Global Single Walled Carbon Nanotube Consumption by Regions (2016-2021)
4.3.2 Global Single Walled Carbon Nanotube Consumption Market Share by Regions (2016-2021)
Chapter 5: Single Walled Carbon Nanotube Market – By Trade Statistics
5.1 Global Single Walled Carbon Nanotube Export and Import
5.2 United States Single Walled Carbon Nanotube Export and Import (2016-2021)
5.3 Europe Single Walled Carbon Nanotube Export and Import (2016-2021)
5.4 China Single Walled Carbon Nanotube Export and Import (2016-2021)
5.5 Japan Single Walled Carbon Nanotube Export and Import (2016-2021)
5.6 India Single Walled Carbon Nanotube Export and Import (2016-2021)
Chapter 6: Single Walled Carbon Nanotube Market – By Type
6.1 Global Single Walled Carbon Nanotube Production and Market Share by Types (2016-2021)
6.1.1 Global Single Walled Carbon Nanotube Production by Types (2016-2021)
6.1.2 Global Single Walled Carbon Nanotube Production Market Share by Types (2016-2021)
6.2 Global Single Walled Carbon Nanotube Value and Market Share by Types (2016-2021)
6.2.1 Global Single Walled Carbon Nanotube Value by Types (2016-2021)
6.2.2 Global Single Walled Carbon Nanotube Value Market Share by Types (2016-2021)
6.3 Global Single Walled Carbon Nanotube Production, Price and Growth Rate of Arc Discharge (2016-2021)
6.3.1 Global Arc Discharge Production and Growth Rate (2016-2021)
6.3.2 Global Arc Discharge Price (2016-2021)
6.4 Global Single Walled Carbon Nanotube Production, Price and Growth Rate of Laser Ablation (2016-2021)
6.4.1 Global Laser Ablation Production and Growth Rate (2016-2021)
6.4.2 Global Laser Ablation Price (2016-2021)
6.5 Global Single Walled Carbon Nanotube Production, Price and Growth Rate of Chemical Vapor Deposition (2016-2021)
6.5.1 Global Chemical Vapor Deposition Production and Growth Rate (2016-2021)
6.5.2 Global Chemical Vapor Deposition Price (2016-2021)
6.6 Global Single Walled Carbon Nanotube Production, Price and Growth Rate of High Pressure Carbon Monoxide (2016-2021)
6.6.1 Global High Pressure Carbon Monoxide Production and Growth Rate (2016-2021)
6.6.2 Global High Pressure Carbon Monoxide Price (2016-2021)
Chapter 7: Single Walled Carbon Nanotube Market – By Application
7.1 Global Single Walled Carbon Nanotube Consumption and Market Share by Applications (2016-2021)
7.1.1 Global Single Walled Carbon Nanotube Consumption by Applications (2016-2021)
7.1.2 Global Single Walled Carbon Nanotube Consumption Market Share by Applications (2016-2021)
7.2 Global Single Walled Carbon Nanotube Consumption and Growth Rate of Aerospace & Defense (2016-2021)
7.3 Global Single Walled Carbon Nanotube Consumption and Growth Rate of Electrical & Electronics (2016-2021)
7.4 Global Single Walled Carbon Nanotube Consumption and Growth Rate of Automotive (2016-2021)
7.5 Global Single Walled Carbon Nanotube Consumption and Growth Rate of Energy (2016-2021)
Chapter 8: North America Single Walled Carbon Nanotube Market
8.1 North America Single Walled Carbon Nanotube Market Size
8.2 United States Single Walled Carbon Nanotube Market Size
8.3 Canada Single Walled Carbon Nanotube Market Size
8.4 Mexico Single Walled Carbon Nanotube Market Size
8.5 The Influence of COVID-19 on North America Market
Chapter 9: Europe Single Walled Carbon Nanotube Market Analysis
9.1 Europe Single Walled Carbon Nanotube Market Size
9.2 Germany Single Walled Carbon Nanotube Market Size
9.3 UK Single Walled Carbon Nanotube Market Size
9.4 France Single Walled Carbon Nanotube Market Size
9.5 Italy Single Walled Carbon Nanotube Market Size
9.6 Spain Single Walled Carbon Nanotube Market Size
9.7 The Influence of COVID-19 on Europe Market
Chapter 10: Asia-Pacific Single Walled Carbon Nanotube Market Analysis
10.1 Asia-Pacific Single Walled Carbon Nanotube Market Size
10.2 China Single Walled Carbon Nanotube Market Size
10.3 Japan Single Walled Carbon Nanotube Market Size
10.4 South Korea Single Walled Carbon Nanotube Market Size
10.5 Southeast Asia Single Walled Carbon Nanotube Market Size
10.6 India Single Walled Carbon Nanotube Market Size
10.7 The Influence of COVID-19 on Asia-Pacific Market
Chapter 11: Middle East and Africa Single Walled Carbon Nanotube Market Analysis
11.1 Middle East and Africa Single Walled Carbon Nanotube Market Size
11.2 Saudi Arabia Single Walled Carbon Nanotube Market Size
11.3 UAE Single Walled Carbon Nanotube Market Size
11.4 South Africa Single Walled Carbon Nanotube Market Size
11.5 The Influence of COVID-19 on Middle East and Africa Market
Chapter 12: South America Single Walled Carbon Nanotube Market Analysis
12.1 South America Single Walled Carbon Nanotube Market Size
12.2 Brazil Single Walled Carbon Nanotube Market Size
12.3 The Influence of COVID-19 on South America Market
Chapter 13: Company Profiles
13.1 OCSiAl
13.1.1 OCSiAl Basic Information
13.1.2 Single Walled Carbon Nanotube Product Profiles
13.1.3 OCSiAl Single Walled Carbon Nanotube Market Performance (2016-2021)
13.1.4 OCSiAl Production and Capacity Analysis
13.1.5 Markets of Applications
13.2 Zeon Nano Technology Co. Ltd.
13.2.1 Zeon Nano Technology Co. Ltd. Basic Information
13.2.2 Single Walled Carbon Nanotube Product Profiles
13.2.3 Zeon Nano Technology Co. Ltd. Single Walled Carbon Nanotube Market Performance (2016-2021)
13.3 NanoIntegris Inc (Raymor Industries Inc.)
13.3.1 NanoIntegris Inc (Raymor Industries Inc.) Basic Information
13.3.2 Single Walled Carbon Nanotube Product Profiles
13.3.3 NanoIntegris Inc (Raymor Industries Inc.) Single Walled Carbon Nanotube Market Performance (2016-2021)
13.4 Meijo Nanocarbon Co., Ltd
13.4.1 Meijo Nanocarbon Co., Ltd Basic Information
13.4.2 Single Walled Carbon Nanotube Product Profiles
13.4.3 Meijo Nanocarbon Co., Ltd Single Walled Carbon Nanotube Market Performance (2016-2021)
13.5 Chasm Advanced Materials, Inc
13.5.1 Chasm Advanced Materials, Inc Basic Information
13.5.2 Single Walled Carbon Nanotube Product Profiles
13.5.3 Chasm Advanced Materials, Inc Single Walled Carbon Nanotube Market Performance (2016-2021)
13.6 Beijing North Guoneng Technology Co., Ltd.
13.6.1 Beijing North Guoneng Technology Co., Ltd. Basic Information
13.6.2 Single Walled Carbon Nanotube Product Profiles
13.6.3 Beijing North Guoneng Technology Co., Ltd. Single Walled Carbon Nanotube Market Performance (2016-2021)
13.7 Arry International Group Limited
13.7.1 Arry International Group Limited Basic Information
13.7.2 Single Walled Carbon Nanotube Product Profiles
13.7.3 Arry International Group Limited Single Walled Carbon Nanotube Market Performance (2016-2021)
13.8 Nano-C, Inc.
13.8.1 Nano-C, Inc. Basic Information
13.8.2 Single Walled Carbon Nanotube Product Profiles
13.8.3 Nano-C, Inc. Single Walled Carbon Nanotube Market Performance (2016-2021)
13.9 Carbon Solutions, Inc
13.9.1 Carbon Solutions, Inc Basic Information
13.9.2 Single Walled Carbon Nanotube Product Profiles
13.9.3 Carbon Solutions, Inc Single Walled Carbon Nanotube Market Performance (2016-2021)
13.10 NanoLab, Inc
13.10.1 NanoLab, Inc Basic Information
13.10.2 Single Walled Carbon Nanotube Product Profiles
13.10.3 NanoLab, Inc Single Walled Carbon Nanotube Market Performance (2016-2021)
13.11 Thomas Swan & Co., Ltd
13.11.1 Thomas Swan & Co., Ltd Basic Information
13.11.2 Single Walled Carbon Nanotube Product Profiles
13.11.3 Thomas Swan & Co., Ltd Single Walled Carbon Nanotube Market Performance (2016-2021)
13.12 SES Research
13.12.1 SES Research Basic Information
13.12.2 Single Walled Carbon Nanotube Product Profiles
13.12.3 SES Research Single Walled Carbon Nanotube Market Performance (2016-2021)
13.13 The Honjo Chemical Corporation
13.13.1 The Honjo Chemical Corporation Basic Information
13.13.2 Single Walled Carbon Nanotube Product Profiles
13.13.3 The Honjo Chemical Corporation Single Walled Carbon Nanotube Market Performance (2016-2021)
13.14 Nanoshel LLC
13.14.1 Nanoshel LLC Basic Information
13.14.2 Single Walled Carbon Nanotube Product Profiles
13.14.3 Nanoshel LLC Single Walled Carbon Nanotube Market Performance (2016-2021)
Chapter 14: Market Forecast – By Regions
14.1 North America Single Walled Carbon Nanotube Market Forecast (2021-2026)
14.2 Europe Single Walled Carbon Nanotube Market Forecast (2021-2026)
14.3 Asia-Pacific Single Walled Carbon Nanotube Market Forecast (2021-2026)
14.4 Middle East and Africa Single Walled Carbon Nanotube Market Forecast (2021-2026)
14.5 South America Single Walled Carbon Nanotube Market Forecast (2021-2026)
Chapter 15: Market Forecast – By Type and Applications
15.1 Global Single Walled Carbon Nanotube Market Forecast by Types (2021-2026)
15.1.1 Global Single Walled Carbon Nanotube Market Forecast Production and Market Share by Types (2021-2026)
15.1.2 Global Single Walled Carbon Nanotube Market Forecast Value and Market Share by Types (2021-2026)
15.2 Global Single Walled Carbon Nanotube Market Forecast by Applications (2021-2026)