到 2034 年，全球石墨烯市场规模将超过 16 亿美元。
石墨烯市场和二维材料评估 2024-2034：技术、市场、参与者
针对 18 个关键应用领域的十年石墨烯市场详细预测、数据驱动的应用评估和基准化研究。150 多家受访公司，包含 80 多个主要参与者的概况，以及超过 10 年的石墨烯市场研究。
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此报告对石墨烯和其他 2D 材料的技术和商业进展进行了详细的独立分析。涵盖 18 个应用领域，包括 2024 年至 2034 年的细分市场预测。IDTechEx 在石墨烯行业有超过十年的经验，预计到 2034 年石墨烯的市场价值将增长到 16 亿美元。
This report offers a detailed independent analysis of the technological and commercial progress of graphene and other 2D materials.
Why use IDTechEx for research on graphene and other nanomaterials?
This report is the result of more than a decade of ongoing market research. IDTechEx launched the first version of the report on CNTs and graphene in 2011 and 2012, respectively, and has been tracking the industries ever since. IDTechEx has interviewed hundreds of companies across the value chain to provide the most comprehensive view of the market.
IDTechEx has extensive in-depth coverage of many end-use markets for these materials, including a series of independent reports on such topics including energy storage, composites, conductive inks, flexible electronics, and more. This expertise on the end-use markets enables us to better understand the landscape in which these materials compete in and provide realistic outlooks.
Graphene: Finally moving out of the lab and into the market
Graphene-related materials are progressing through their own hype curve. The commercialization has been making steady progress and IDTechEx expect the graphene market to significantly grow over the next decade.
- Graphene-related materials take a wide range of types, grades and forms, each with their own commercial outlook. There is some progression towards standardisation and safety legislation/qualification, but this challenge still prevails. Extensive analysis and benchmarking studies are shown in the report across the complete range of graphene materials.
- Graphene nanoplatelets (GNP), graphene oxide (GO), and reduced graphene oxide (rGO) are the closest forms to significant commercial uptake. There are increasing signs that we are now in the rapid growth phase, with significant applications observed for polymer composites for automotive, heatspreaders for smartphones, industrial elastomers, anti-corrosion coatings and many more.
- There is no "best graphene" with each application having different multifunctional requirements, the end-users now accept that the winning materials cannot be determined a priori as final application-level results are influenced by many parameters such as graphene morphology and purity. Players understand there is key know-how in both dispersing graphene and introducing valuable functionality, companies are competing to fill that crucial stage of the value chain (externally and in-house) to provide a range of intermediate products.
- There are numerous strengths and weaknesses to the different graphene production processes with top-down approaches of liquid phase exfoliation and oxidation-reduction processes dominant. The report explores these processes in detail and also explores emerging alternatives looking to use alternate feedstocks, improve the efficiency and/or enhance the final product.
- There are a very large number of graphene manufacturers, which will not be the case in the long term as major success will result in consolidation - with the first signs having been reported. This report tracks the manufacturers' progress in detail including their revenue, profitability, capacity, price, properties, partnerships and more. China has become a significant territory in terms of production capacity and research, which is explored throughout the report.
- Our data suggest that revenue for graphene companies has been rising steadily for many years and this will accelerate as we pass through this inflection point. The rise, however, has not always been accompanied with increasing profit. Indeed, the industry, as a whole, is still loss making with only a handful of profitable companies and certainly some disillusionment arising as a result. Public and private funding still plays an important part of this nascent industry; this is tracked and discussed within the market report.
- Advanced materials often suffer from being a material push rather than a market pull. The report looks at key sectors in detail to understand some of the business cases solving unmet needs. Market drivers include the necessity for improved thermal management, sustainability, lightweighting, product lifetime, and more.
- With such an extensive potential application list, a key question is: where will there be success? Composites, energy storage, concrete, coatings, thermal management, and textiles all represent a very large potential and promising results have been seen. An outlook on the revenue and volume progression can be seen in the chart below and this roadmap is discussed in detail throughout the report.
Graphene Market and 2D Materials Assessment 2024-2034. We forecast that the graphene market will exceed US$1.6bn by 2034. Source IDTechEx
- Graphene films and wafers, typically grown via a CVD process, have had a very different history and outlook. Given the obvious potential, transistors and TCFs were extensively targeted, but the lack of band gap and high-performance incumbent materials challenges has led to an inevitable realisation of limitations. However, with manufacturing improvements and further developments, commercial successes are being observed mostly for sensors and optoelectronic applications. Expansions are being observed and the next 10-years looks very promising for certain key end-user markets.
What about 2D materials beyond graphene?
Beyond graphene there is an emerging family of 2D materials, each with unique properties and potential across a range of commercial applications. Nearly all are at a very early-stage of development. IDTechEx provides a detailed assessment and outlook with a specific focus on boron nitride, transition metal dichalcogenides, MXenes, and Xenes. Key technical progressions, prospective market applications, profiles of early-stage commercial companies, and detailed insights are all included within the report.
What about other advanced carbons?
Graphene is not the first nanocarbon, or indeed nanomaterial, to emerge out of the lab and, given that most applications see graphene used as an additive, understanding the competitive market is essential. Carbon black is the incumbent conductive carbon powder, of which there are numerous grades, and presents a likely long-term future for GNPs and rGO if high-volume killer applications are found. For a mature sector like this, the number of manufacturers is consolidated, a global presence established, and the margins significantly reduced.
There is also a lot to be learned from the commercial progression of multi-walled and single-walled carbon nanotubes. MWCNTs went through a premature period of capacity expansion when finding some niche and modest applications, and it is only in the last few years that the significant revenues and next stages of expansion are beginning to emerge, owing to their role in the cathode of lithium-ion batteries; meanwhile, SWCNTs hold much promise but have yet to find their key commercial use-case. This report covers these comparative markets in detail.
Key aspects
This report provides critical market intelligence for the graphene industry, and for each of the 18 application sectors covered. This includes:
A technological overview of the graphene market:
- Assessment of manufacturing methods.
- Overview of diverse grades of graphene material.
- Comparison with competitive material landscape.
- Analysis of 18 key application areas for graphene materials including pipeline and readiness levels.
An assessment of graphene suppliers worldwide:
- Benchmarking studies of material on the market.
- Trends in company revenue and profit/loss.
- Pricing evolutions, trends, and strategies worldwide for graphene.
- Nominal production capacity by supplier worldwide for graphene.
A market analysis throughout:
- Ten-year application-segmented market projections for graphene (in different forms) in volume and value.
- Segmented by 18 end-use applications.
| Report Metrics | Details |
|---|---|
| CAGR | The global market for graphene materials will reach US$1.64 billion by 2034, representing a 27% CAGR over the next decade. |
| Forecast Period | 2024 - 2034 |
| Forecast Units | Volume (tonnes), Value (USD$) |
| Segments Covered | Energy storage (supercapacitors, li-ion batteries, silicon anode batteries), thermal management, composites (conductive polymer, mechanical polymer, tires), research, coatings and inks (conductive inks, RFID, textiles), concrete and asphalt, sensors and photonics, and others. |
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| 1. | EXECUTIVE SUMMARY AND CONCLUSIONS |
| 1.1. | Graphene: Analyst Viewpoint |
| 1.2. | Graphene - Introduction |
| 1.3. | Advanced Carbon: Overview |
| 1.4. | Understanding Graphene: Production process |
| 1.5. | Understanding Graphene: Material grades & forms |
| 1.6. | Does anyone mass produce true graphene? |
| 1.7. | Not all graphenes are equal: benchmarking study |
| 1.8. | What is the next generation of graphene? |
| 1.9. | The hype curve of the graphene industry |
| 1.10. | Market entry from major players |
| 1.11. | IP and regulatory landscape |
| 1.12. | Comparison of business models |
| 1.13. | Supply chain for GNP/rGO enabled polymer product |
| 1.14. | Market leaders emerge and consolidation anticipated |
| 1.15. | Private graphene investments |
| 1.16. | Mergers & Acquisitions |
| 1.17. | Revenue of graphene companies |
| 1.18. | Profit and loss trend of graphene companies |
| 1.19. | Profitable graphene companies |
| 1.20. | Graphite players see opportunity in graphene |
| 1.21. | Graphene platelet-type: global production capacity |
| 1.22. | The importance of intermediates |
| 1.23. | Is graphene green? |
| 1.24. | Graphene prices by suppliers |
| 1.25. | Is there a commoditization risk for graphene? |
| 1.26. | Overview of Graphene Manufacturers |
| 1.27. | Main graphene oxide manufacturers |
| 1.28. | Graphene in China |
| 1.29. | Main Chinese manufacturers |
| 1.30. | Learning from the capacity progression of MWCNTs |
| 1.31. | CVD graphene manufacturers |
| 1.32. | Expanding graphene wafer capacity and adoption |
| 1.33. | Application Overview - GNP and rGO |
| 1.34. | Competitive Landscape - Application |
| 1.35. | Graphene applications going commercial? |
| 1.36. | Market breakdown by revenue and volume |
| 1.37. | Commercial Indicators of the inflection point |
| 1.38. | Nanoinformatics - Accelerating R&D |
| 1.39. | Overview of 2D materials beyond graphene |
| 2. | MARKET FORECASTS |
| 2.1. | Forecast methodology and assumptions |
| 2.2. | Granular ten-year graphene market forecast segmented by 18 application areas |
| 2.3. | Granular ten-year graphene market forecast segmented by 18 application areas |
| 2.4. | Ten-year forecast for volume demand for graphene material |
| 2.5. | Ten-year forecast for volume demand for graphene material |
| 2.6. | Progression of the graphene market |
| 2.7. | Ten-year forecast for graphene platelet vs sheets |
| 2.8. | CNT market forecast comparison |
| 3. | COMPETITIVE MATERIAL LANDSCAPE |
| 3.1. | Advanced Carbon: Overview |
| 3.2. | Carbon black - Market overview |
| 3.3. | Specialty carbon black - Market overview |
| 3.4. | Carbon Nanotubes - Overview |
| 3.5. | Progression and outlook for MWCNT capacity |
| 3.6. | Graphite - Overview |
| 3.7. | Carbon Fiber - Market overview |
| 3.8. | Incumbent material - graphene competition |
| 4. | GRAPHENE PRODUCTION |
| 4.1. | Explaining the main graphene manufacturing routes |
| 4.2. | Quality and consistency issue |
| 4.3. | Expanded graphite |
| 4.4. | Reduced graphene oxide |
| 4.5. | Oxidising graphite: processes and characteristics |
| 4.6. | Reducing graphene oxide: different methods |
| 4.7. | Direct liquid phase exfoliation: process and characteristics |
| 4.8. | Direct liquid phase exfoliation under shear force |
| 4.9. | Electrochemical exfoliation |
| 4.10. | Properties of electrochemical exfoliated graphene |
| 4.11. | Plasma exfoliation |
| 4.12. | Increasing number of plasma processes |
| 4.13. | Substrate-less CVD (chemical vapour deposition) |
| 4.14. | Substrate-less CVD: growth of flower like graphene |
| 4.15. | Captured CO2 as a feedstock for advanced nanocarbons |
| 4.16. | Producing graphene as an electronic substrate or material |
| 4.17. | Chemical Vapour Deposited (CVD) Graphene |
| 4.18. | Growth process of CVD graphene |
| 4.19. | The key role of oxygen in CVD graphene growth |
| 4.20. | CVD graphene: cm scale grain domains possible |
| 4.21. | Roll to roll (R2R) growth of CVD graphene film |
| 4.22. | The transfer challenge: a showstopper? |
| 4.23. | Roll-to-roll transfer of CVD graphene |
| 4.24. | Novel methods for transferring CVD graphene |
| 4.25. | Using R2R joule heating to enable CVD growth |
| 4.26. | Epitaxial: high performance but high cost |
| 4.27. | Graphene from SiC |
| 4.28. | Metal on silicon CVD (then transfer) |
| 4.29. | Transfer-FREE metal on Si graphene |
| 4.30. | Single crystal wafer scale graphene on silicon |
| 4.31. | CVD Graphene Progress |
| 4.32. | CVD Graphene Progress (2) |
| 4.33. | CVD Graphene Progress (3) |
| 4.34. | CVD Graphene Progress (4) |
| 4.35. | Regulations - ISO |
| 5. | ENERGY STORAGE: BATTERIES |
| 5.1. | Energy storage: Graphene overview |
| 5.2. | Graphene batteries introduction |
| 5.3. | Graphene-enabled energy storage devices: Overview |
| 5.4. | The energy storage market is booming |
| 5.5. | Types of lithium battery |
| 5.6. | Battery technology comparison |
| 5.7. | Li-ion Timeline - Technology and Performance |
| 5.8. | Main Graphene Players - Energy Storage |
| 5.9. | LFP cathode improvement |
| 5.10. | Why graphene and carbon black are used together |
| 5.11. | Results showing graphene improves LFP batteries |
| 5.12. | Results showing graphene improves NCM batteries |
| 5.13. | Results showing graphene improves LTO batteries |
| 5.14. | Value Proposition of High Silicon Content Anodes |
| 5.15. | Silicon anodes |
| 5.16. | Silicon anodes (2) |
| 5.17. | Silicon anodes (3) |
| 5.18. | Silicon anodes (4) |
| 5.19. | Silicon anodes (5) |
| 5.20. | Electrolyte and current collectors |
| 5.21. | Fast charging lithium-ion batteries |
| 5.22. | Motivation - why Lithium sulphur batteries? |
| 5.23. | The Lithium sulphur battery chemistry |
| 5.24. | Why graphene helps in Li sulphur batteries |
| 5.25. | State of the art use of graphene in LiS batteries |
| 5.26. | State of the art use of graphene in LiS batteries (2) |
| 5.27. | Mixed graphene/CNT in batteries |
| 5.28. | Graphene-enabled lead acid battery |
| 5.29. | Aluminum-ion batteries |
| 5.30. | Conclusions: graphene role in batteries |
| 6. | ENERGY STORAGE: SUPERCAPACITORS |
| 6.1. | Energy Storage Priorities |
| 6.2. | Supercapacitor fundamentals |
| 6.3. | Batteries vs supercapacitors |
| 6.4. | Competition from other carbon nanostructures |
| 6.5. | Challenges with graphene: poor out-of-plane conductivity and re-stacking |
| 6.6. | Graphene supercapacitors players |
| 6.7. | Graphene supercapacitor Ragone plots |
| 6.8. | Promising results on GO supercapacitors |
| 6.9. | Key Player: Skeleton Technologies |
| 6.10. | Skeleton Technologies - Supercapacitor Battery Hybrid |
| 6.11. | Targeted high-volume production |
| 6.12. | Graphene supercapacitor products and outlook - new product launches over the full range |
| 6.13. | Graphene supercapacitor products and outlook - wide range of applications |
| 6.14. | Future iterations - graphene hydrogels and aerogels? |
| 6.15. | Future iterations - graphene hydrogels and aerogels? |
| 6.16. | Conclusions: graphene role in supercapacitors |
| 7. | THERMAL MANAGEMENT |
| 7.1. | Thermal Management: Smartphones |
| 7.2. | Thermal management applications |
| 7.3. | Introduction to Thermal Interface Materials (TIM) |
| 7.4. | Advanced Materials for TIM - Introduction |
| 7.5. | Summary of TIM utilising advanced carbon materials |
| 7.6. | Achieving through-plane alignment |
| 7.7. | Graphene heat spreaders: commercial success |
| 7.8. | Graphene heat spreaders: performance |
| 7.9. | Graphene heat spreaders: suppliers multiply |
| 7.10. | Graphene as additives to thermal interface pads |
| 7.11. | Graphene: heat conductivity boosters |
| 7.12. | Nanofluidic coolant |
| 8. | POLYMER ADDITIVE |
| 8.1. | Introduction |
| 8.1.1. | General observation on using graphene additives in composites |
| 8.2. | Mechanical |
| 8.2.1. | Evidence for mechanical property improvement |
| 8.2.2. | Evidence for mechanical property improvement (2) |
| 8.2.3. | Results showing Young's Modulus enhancement using graphene |
| 8.2.4. | Commercial results on permeation graphene improvement |
| 8.2.5. | Permeation Improvement |
| 8.2.6. | Graphene providing enhanced fire retardancy |
| 8.3. | Conductive |
| 8.3.1. | Graphene platelet-based conductors: polymer composites |
| 8.3.2. | Thermal conductivity improvement using graphene |
| 8.3.3. | Electrical conductivity improvement using graphene |
| 8.3.4. | EMI Shielding: graphene additives |
| 8.3.5. | Commercial studies |
| 8.4. | Commercial applications |
| 8.4.1. | Key adoption examples - sports & leisure |
| 8.4.2. | Key adoption examples - automotive |
| 8.4.3. | Key adoption examples - industrial pipelines |
| 8.4.4. | Mechanical Polymer: Adoption Examples - Packaging |
| 8.4.5. | Mechanical Polymer: Adoption Examples - Elastomers |
| 8.4.6. | Graphene-enhanced conductive 3D printing filaments |
| 8.5. | Intermediate players |
| 8.5.1. | Product Launches - Composites |
| 9. | FIBER REINFORCED POLYMER (FRP) ADDITIVES |
| 9.1. | Role of nanocarbon as additive to FRPs |
| 9.2. | Routes to incorporating nanocarbon material into composites |
| 9.3. | Routes to electrically conductive composites |
| 9.4. | Technology adoption for electrostatic discharge of composites |
| 9.5. | Nanocarbon for enhanced electrical conductivity - Graphene |
| 9.6. | Enhanced thermal conductivity - application overview |
| 9.7. | Electrothermal de-icing - Nanocarbon patents |
| 9.8. | Electrothermal de-icing - Graphene research |
| 9.9. | Nanocomposites for enhanced thermal conductivity - graphene |
| 9.10. | Embedded sensors for structural health monitoring of composites - introduction |
| 9.11. | Embedded sensors for structural health monitoring of composites - types |
| 9.12. | Nanocarbon Sensors for embedded SHM |
| 10. | GRAPHENE CONDUCTIVE INKS |
| 10.1. | Graphene platelet/powder-based conductors: conductive inks |
| 10.2. | Applications of conductive graphene inks |
| 10.3. | Results of resistive heating using graphene inks |
| 10.4. | Heating applications |
| 10.5. | Uniform and stable heating |
| 10.6. | Results of de-frosting using graphene inks |
| 10.7. | Results of de-icing using graphene heaters |
| 10.8. | Transparent EMI shielding |
| 10.9. | ESD films printed using graphene |
| 10.10. | Graphene inks can be highly opaque |
| 10.11. | RFID types and characteristics |
| 10.12. | Graphene RFID tags |
| 11. | SENSORS |
| 11.1. | Industry examples of graphene-based sensors |
| 11.2. | Graphene Sensors - Gas Sensors |
| 11.3. | Graphene Sensors - Gas Sensors (2) |
| 11.4. | Gas sensors - Overview |
| 11.5. | Graphene sensor for food safety monitoring |
| 11.6. | Biosensor - electrochemical transducer overview |
| 11.7. | Graphene-based BioFET |
| 11.8. | Graphene Sensors - Biosensors |
| 11.9. | Graphene Sensors - COVID-19 |
| 11.10. | Graphene Quantum Dots |
| 11.11. | Hall-effect sensor |
| 11.12. | Graphene's optical properties |
| 11.13. | Fast graphene photosensor |
| 11.14. | Commercial example of graphene-enabled photodetector |
| 11.15. | Emberion: QD-Graphene-Si broadrange SWIR sensor |
| 11.16. | Emerging role in silicon photonics |
| 11.17. | New graphene photonic companies |
| 11.18. | Academic research: Twisted bilayer graphene sensitive to longer wavelength IR light |
| 11.19. | QD-on-CMOS with graphene interlayer |
| 11.20. | Graphene humidity sensor |
| 11.21. | Optical brain sensors using graphene |
| 11.22. | Graphene skin electrodes |
| 11.23. | Graphene-enabled stretch sensor applications |
| 12. | TRANSPARENT CONDUCTIVE FILMS AND GLASS |
| 12.1. | Transparent conducting films (TCFs) |
| 12.2. | Different Transparent Conductive Films (TCFs) |
| 12.3. | ITO film shortcomings: flexibility |
| 12.4. | ITO film shortcomings: limited sheet conductivity |
| 12.5. | Indium's single supply risk: real or exaggerated? |
| 12.6. | Graphene performance as TCF |
| 12.7. | Doping as a strategy for improving graphene TCF performance |
| 12.8. | Be wary of extraordinary results for graphene |
| 12.9. | Graphene transparent conducting films: thinness and barrier layers |
| 12.10. | LG Electronics: R2R CVD graphene targeting TCFs? |
| 12.11. | Hybrid materials (I) : Properties |
| 12.12. | Hybrid materials (II): Chasm |
| 13. | GRAPHENE TRANSISTORS |
| 13.1. | Introduction to transistors |
| 13.2. | Transistor Figures-of-Merit (transfer characteristics) |
| 13.3. | Transistor Figures-of-Merit (output characteristics) |
| 13.4. | Why graphene transistors? |
| 13.5. | First graphene FET with top gate (CMOS)- 2007 |
| 13.6. | High performance top gate FET |
| 13.7. | Graphene FET with bandgap |
| 13.8. | Opening a bandgap: e-field induced bandgap bilayer graphene |
| 13.9. | Opening bandgap: No free lunch! |
| 13.10. | Graphene wafer scale integration |
| 13.11. | Can graphene FETs make it as an analogue high frequency device? |
| 13.12. | So what if we print graphene? Poor competition gives hope! |
| 13.13. | Fully inkjet printed 2D material FETs |
| 13.14. | Fully inkjet printed 2D material FETs on TEXTILE |
| 13.15. | Fully inkjet printed on-textile 2D material logic! |
| 13.16. | Graphene transistor conclusions |
| 14. | MEMBRANES |
| 14.1. | Introduction to membranes |
| 14.2. | Stacked Graphene Oxide |
| 14.3. | Applications in paper/pulp industry |
| 14.4. | Lockheed Martin graphene membrane |
| 14.5. | Printed GO membranes |
| 14.6. | Lithium extraction |
| 14.7. | Emulsion separation |
| 14.8. | Membrane players |
| 14.9. | Filtration - Commercial launches |
| 14.10. | Latest research for water filtration |
| 14.11. | Sensors |
| 14.12. | Electronics |
| 14.13. | Fuel cells |
| 15. | OTHER APPLICATIONS |
| 15.1. | Concrete & asphalt: Overview |
| 15.2. | Concrete & asphalt: Research and demonstrations |
| 15.3. | Concrete & asphalt: Graphene outlook |
| 15.4. | 2022/23 Product Launches - Concrete |
| 15.5. | Graphene textiles |
| 15.6. | Graphene textile uptake |
| 15.7. | Headphones |
| 15.8. | Lubricants |
| 15.9. | Engine oil |
| 15.10. | Copper nanocomposites - introduction |
| 15.11. | Production of copper nanocomposites |
| 15.12. | Graphene platelet-based conductors: metal composites |
| 15.13. | Metal composite developments |
| 15.14. | Metal additive manufacturing |
| 15.15. | Hot extrusion nanoalloy |
| 15.16. | Multilayer copper nanocomposites |
| 15.17. | Ceramic composite developments |
| 15.18. | Graphene as additive in tires |
| 15.19. | Results on use of graphene in silica loaded tires |
| 15.20. | Graphene-enabled vehicle tire |
| 15.21. | Graphene-enabled bike tires |
| 15.22. | Anti-corrosion coating |
| 15.23. | Other coatings |
| 15.24. | Graphene UV shielding coatings |
| 15.25. | 2022/23 Product Launches - Coatings |
| 15.26. | Antimicrobial: graphene research |
| 15.27. | Antimicrobial: graphene applications |
| 16. | ANALYSIS OF GNP, GO, RGO MANUFACTURERS |
| 16.1. | List of graphene manufacturers |
| 16.2. | NanoXplore |
| 16.3. | NanoXplore - Financials |
| 16.4. | NanoXplore - Partnerships |
| 16.5. | NanoXplore - Key News |
| 16.6. | NanoXplore - IP Activity |
| 16.7. | The Sixth Element |
| 16.8. | Directa Plus |
| 16.9. | Avanzare |
| 16.10. | Versarien |
| 16.11. | First Graphene |
| 16.12. | Thomas Swan |
| 16.13. | NeoGraf |
| 16.14. | Global Graphene Group (G3) |
| 16.15. | Xiamen Knano |
| 16.16. | SuperC |
| 16.17. | Qingdao SCF Nanotech |
| 16.18. | Leadernano |
| 16.19. | Ningbo Morsh |
| 16.20. | KB Element |
| 17. | 2D MATERIALS BEYOND GRAPHENE |
| 17.1. | Overview |
| 17.1.1. | 2D materials beyond graphene: A GROWING family! |
| 17.1.2. | Computation suggests thousands available |
| 17.1.3. | "Atomic Lego" - the future of material science? |
| 17.1.4. | 2D materials beyond graphene: a GROWING family! |
| 17.1.5. | Publication rate is astronomical |
| 17.1.6. | A range of 2D materials exist with bandgaps! |
| 17.2. | Nano Boron Nitride |
| 17.2.1. | Introduction to Nano Boron Nitride |
| 17.2.2. | BNNT players and prices |
| 17.2.3. | BNNT property variation |
| 17.2.4. | BN nanostructures in thermal interface materials |
| 17.2.5. | BNNT developments (1) |
| 17.2.6. | BNNT developments (2) |
| 17.2.7. | BN vs C nanostructures: Manufacturing routes |
| 17.2.8. | BNNS - manufacturing status |
| 17.2.9. | BNNS - research advancements |
| 17.3. | Transition Metal Dichalcogenides |
| 17.3.1. | TMD overview |
| 17.3.2. | TMD - Novel manufacturing method for MoS2 |
| 17.3.3. | MoS2: Change in band structure from bulk to 2D |
| 17.3.4. | 2D materials working: top gate FET |
| 17.3.5. | Wafer scale uniform TMD growth |
| 17.3.6. | Latest research to 300mm wafers |
| 17.3.7. | TMDs: Major players |
| 17.4. | MXenes |
| 17.4.1. | MXenes: A rapidly emerging class |
| 17.4.2. | MXenes - Application opportunities |
| 17.4.3. | MXenes - Latest research |
| 17.4.4. | MXenes - Latest Research (2) |
| 17.5. | Phosphorene |
| 17.5.1. | Phosphorene |
| 17.5.2. | Phosphorene - Manufacturing |
| 17.5.3. | Phosphorene - Manufacturing (2) |
| 17.5.4. | Phosphorene - Biomedical applications |
| 17.6. | Other 2D Materials |
| 17.6.1. | Other 2D materials |
| 17.6.2. | 2.5D Materials |
| 17.6.3. | Materials SWOT comparison |
| 18. | COMPANY PROFILES |
| 18.1. | Abalonyx 2020 |
| 18.2. | Advanced Materials Development 2021, 2022 |
| 18.3. | Aixtron |
| 18.4. | Alpha Assembly Solutions |
| 18.5. | American Boronite Corporation |
| 18.6. | Applied Graphene Materials 2019, 2022 |
| 18.7. | Applied Nanolayers |
| 18.8. | Atomic Mechanics |
| 18.9. | Avanzare 2019, 2020 |
| 18.10. | AzTrong |
| 18.11. | BeDimensional |
| 18.12. | BestGraphene |
| 18.13. | Bio Graphene Solutions |
| 18.14. | Black Semiconductor |
| 18.15. | BNNano 2019, 2022 |
| 18.16. | BNNT |
| 18.17. | BNNT Technology Limited |
| 18.18. | C's Techno |
| 18.19. | Ceylon Graphene Technologies |
| 18.20. | Charmgraphene |
| 18.21. | CNM Technologies |
| 18.22. | Colloids |
| 18.23. | Directa Plus |
| 18.24. | Epic Advanced Materials |
| 18.25. | First Graphene 2019, 2022 |
| 18.26. | G6 Materials |
| 18.27. | Garmor |
| 18.28. | General Graphene Corporation |
| 18.29. | Geradu Graphene |
| 18.30. | Global Graphene Group 2019, 2020 |
| 18.31. | GNext |
| 18.32. | Grapheal |
| 18.33. | Graphenano |
| 18.34. | Graphene Manufacturing Group |
| 18.35. | Graphenea 2020, 2022 |
| 18.36. | GrapheneCA 2019, 2020 |
| 18.37. | Graphmatech |
| 18.38. | Grolltex |
| 18.39. | Haike |
| 18.40. | Hubron |
| 18.41. | HydroGraph |
| 18.42. | Incubation Alliance |
| 18.43. | Integrated Graphene |
| 18.44. | KB Element |
| 18.45. | Knano |
| 18.46. | Laminar |
| 18.47. | LayerOne |
| 18.48. | Levidian |
| 18.49. | Lyten |
| 18.50. | MITO Material Solutions |
| 18.51. | Nanotech Energy |
| 18.52. | NanoXplore 2019, 2020, 2022 |
| 18.53. | NASA Glenn Research Center |
| 18.54. | NematiQ |
| 18.55. | Nemo Nanomaterials |
| 18.56. | NeoGraf |
| 18.57. | Ningbo Morsh |
| 18.58. | Nova Graphene |
| 18.59. | Paragraf |
| 18.60. | Perpetuus Advanced Materials |
| 18.61. | Qurv |
| 18.62. | Raymor Industry/PPG 2019, 2022 |
| 18.63. | Real Graphene |
| 18.64. | Sixonia |
| 18.65. | Sixth Element 2019, 2020, 2022 |
| 18.66. | Smart High Tech |
| 18.67. | Standard Graphene |
| 18.68. | SuperC |
| 18.69. | Talga Resources |
| 18.70. | The Graphene Corporation |
| 18.71. | Thomas Swan |
| 18.72. | Toraphene |
| 18.73. | True 2 Materials |
| 18.74. | Tungshu (Dongxu Optoelectronic Technology) |
| 18.75. | Universal Matter |
| 18.76. | Versarien Group |
| 18.77. | Vorbeck |
| 18.78. | Watercycle |
| 18.79. | William Blythe |
| 18.80. | XG Sciences 2019, 2022 |
| 18.81. | Zentek |
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报告统计信息
| 幻灯片 | 390 |
|---|---|
| Companies | 81 |
| 预测 | 2034 |
| 已发表 | Oct 2023 |
| ISBN | 9781915514967 |
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