The Global Market For Carbon Nanotubes, Graphene, Quantum Dots and Silver Nanowires in Consumer Electronics
This 187 page report includes:
- Market analysis for carbon nanotubes, graphene, silver nanowires and quantum dots in touch panels, displays, conductive inks, and transistors
- Applications and estimated time to market
- Industry news from 2013-2014
- Product developers
- Potential market size
- Company profiles
2 REPORT METHODOLOGY
3 ELECTRONIC PACKAGING
4 DISPLAYS
5 DATA STORAGE
6 TRANSISTORS
7 PHOTONICS
8 CARBON NANOTUBES
Transparent conductors
Conductive inks
Transistors and integrated circuits
Memory devices
Market drivers
Applications and estimated time to marketStage of development
Research and development news 2013-2014
Product developers
9 GRAPHENE
Touchscreens
Displays
Conductive inks
Optical switches
Transparent conductors
Transistors and integrated circuits
Memory devices
Market drivers
Applications and estimated time to marketStage of development
Research and development news 2013-2014
Product developers
10 SILVER NANOWIRES
Transistors
Transparent conductors
Market drivers
Applications and estimated time to marketStage of development
Research and development news 2013-2014
Product developers
11 QUANTUM DOTS
Displays
LED lighting
Transistors
Market drivers
Applications and estimated time to marketStage of development
Current global market size for target markets
Product developers
12 OTHER NANOMATERIALS IN CONSUMER ELECTRONICS
13 PRODUCER PROFILES 59-185
Table 1: Addressable global market size for nanomaterials in electronics, most promising application areas
Table 2: Nanomaterials utilized in electronics
Table 3: Nanomaterials in electronics packaging and target market size
Table 4: Nanomaterials in displays and target market size
Table 5: Nanomaterials in data storage and target market size
Table 6: Nanomaterials in transistors and target market size
Table 7: Nanomaterials in photonics and target market size
This is a golden era for nanostructured carbon materials research. Graphitic carbon materials such as carbon nanotubes (CNTs) and graphene are the strongest, lightest and most conductive fibres known to man, with a performance-per-weight greater than any other material. In direct competition in a number of markets, they are complementary in others.
Once the most promising of all nanomaterials, CNTs face stiff competition in conductive applications from graphene and other 2D materials and in mechanically enhanced composites from nanocellulose. However, after considerable research efforts, numerous multi-walled carbon nanotubes (MWNTs)-enhanced products are commercially available. Super-aligned CNT arrays, films and yarns have found applications in consumer electronics, batteries, polymer composites, aerospace, sensors, heaters, filters and biomedicine.
Large-scale industrial production of single-walled carbon nanotubes (SWNTs) has been initiated, promising new market opportunities in transparent conductive films, transistors, sensors and memory devices. SWNTs are regarded as one of the most promising candidates to utilized as building blocks in next generation electronics.
Two-dimensional(2D) materials are currently one of the most active areas of nanomaterials research, and offer a huge opportunity for both fundamental studies and practical applications, including superfast, low-power, flexible and wearable electronics, sensors, photonics and electrochemical energy storage devices that will have an immense impact on our society.
Graphene is a ground-breaking two-dimensional (2D) material that possesses extraordinary electrical and mechanical properties that promise a new generation of innovative devices. New methods of scalable synthesis of high-quality graphene, clean delamination transfer and device integration have resulted in the commercialization of state-of-the-art electronics such as graphene touchscreens in smartphones and flexible RF devices on plastics.
Beyond graphene, emerging elementary 2D materials such as transition metal dichalcogenides, group V systems including phosphorene, and related isoelectronic structures will potentially allow for flexible electronics and field-effect transistors that exhibit ambipolar transport behaviour with either a direct band-gap or greater gate modulation.