- About Us
- Career Center
- Nano-Social Network
- Nano Consulting
- My Account
A number of issues, including high costs, inadequate purity levels, and insufficient product yields in
manufacturing, still need to be addressed
After more than a decade of promise and speculation created by their unique
properties, nanotubes are establishing a presence beyond university laboratories
and corporate research and development (R&D) centers. Current commercial
applications include motor vehicle fuel system components and specialized sports
equipment. In the short term, world demand for nanotubes is expected to expand
rapidly from this small base to more than $200 million in 2009. However, a number of
issues, including high costs, inadequate purity levels, and insufficient product yields in
manufacturing, still need to be addressed. As these issues are resolved, growth in
global nanotube demand is expected to accelerate and surpass $9 billion by 2020.
These and other trends are presented in World Nanotubes, a new study from The
Freedonia Group, Inc., a Cleveland-based industry market research firm.
Electronics applications will offer the earliest significant commercial outlet for nanotubes, and will remain the largest market for the foreseeable future. Nanotubes can be used in a multitude of electronics applications, including interconnects, displays, memory, storage and others. Flat panel displays for both computers and televisions are expected to be the first widely commercialized application. Over the long term, a number of even more ambitious applications should emerge. Nanotubesí conductive properties could enable them to supplant conventional semiconductor materials in a broad range of applications. Although such a shift is at least a decade (or more) away, in the interim nanotubes will be used to augment and improve silicon-based technologies by allowing for more powerful semiconductors with smaller features.
The US will remain the largest national market for nanotubes, due to its diverse, technologically advanced economy and leading position in nearly every projected major outlet for nanotubes, including high-end electronics, pharmaceuticals, motor vehicles, aerospace and defense equipment, and construction materials. However, the US is projected to account for a smaller share of nanotube demand than for nanomaterials overall, due to the importance of the electronics market, which is dominated by Asia. Japan is a smaller nanotube market than the US, but is projected to be larger than any other nation, and is also the leading investor in R&D on a per capita basis. Many of the EU member states, as well as South Korea and Taiwan, have substantial R&D programs, typically involving government funding and participation by the private sector and academia. A number of developing nations, most notably China, will become increasingly important, as high-end electronics production shifts to these regions.
World Nanotubes (published 01/2006, 252 pages) is available for $4,800 from The Freedonia Group, Inc., 767 Beta Drive, Cleveland, OH 44143-2326.
For further details, please contact Corinne Gangloff by phone 440.684.9600, fax 440.646.0484 or e-mail email@example.com. Information may also be obtained through www.freedoniagroup.com.
Issuers of news releases, not 7th Wave, Inc. or Nanotechnology Now, are solely responsible for the accuracy of the content.
|Related News Press|
A simple, rapid test to help ensure safer meat November 19th, 2015
New Model Presented to Design, Produce Electronic Nanodevices November 6th, 2015
New 'self-healing' gel makes electronics more flexible November 25th, 2015
Scientists design a QKD-based quantum private query with no failure November 25th, 2015
MIT mathematicians identify limits to heat flow at the nanoscale: New formula identifies limits to nanoscale heat transfer, may help optimize devices that convert heat to electricity November 25th, 2015
Physicists explain the unusual behavior of strongly disordered superconductors: Using a theory they developed previously, the scientists have linked superconducting carrier density with the quantum properties of a substance November 25th, 2015