Printed Electronics – Bigger than the Silicon Chip

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The silicon chip business went from nothing to approaching $200 billion market in size in twenty years. Now we have the beginning of a market that will outpace even that to reach $200 billion or so in only twenty years. It is printed electronics. Primarily this is flexible: that is the main benefit. It can be used like paper. Indeed it is sometimes printed onto paper and biodegradable.

Often better than the silicon chip
Printed electronics takes over where the silicon chip cannot cope. For example, it can provide simple electronic circuits at one tenth of the cost of those in a simple silicon chip but it can also be edible, stretchable, conformal (fitting over uneven surfaces), even transparent, though not all those things at one time. It can have a wide area when needed. Further, printed electronics includes electrics such as printed batteries, heaters, solar cells and switches. It has even appeared in the form of washable fabrics that sense and emit light and sounds. Increasingly electronics and electrics is printed with one circuit or device on top of the other, including moving colour displays and lighting. The silicon chip can never do any of that and that is why printed electronics has much greater commercial potential. Indeed, you can say that printed electronics also takes over where conventional displays and lighting are too thick, heavy, expensive and difficult to install.

Certain countries in the lead
So far, most of the manufacture of printed electronics has taken place in China, Japan, South Korea, Europe and the USA. Early successes included the battery tester on the side of Duracell batteries, waterproof membrane keyboards, antennas printed inside the plastic bodywork of cars, printed batteries and flexible photovoltaics (solar cells). In trials, printed electronics has even replaced the silicon chips in Radio Frequency Identification RFID tags at one tenth to one hundredth of the cost. Ten Chinese companies print light-emitting flexible displays for T-shirts, advertising on buildings and so on and the Chinese are keen to catch up and overtake other countries in making other forms of printed electronics and allied components. Research centres in Hong Kong and China are already making important breakthroughs such as the photovoltaic and vibration harvesting work at ASTRI in Hong Kong. Not all of this is printed or even partly printed but it is a vital addition to printed electronics. Previously impossible products then become possible.

Exciting future
Printed electronics has much further to go. The sports apparel company Adidas is developing fabrics that van create their own electricity to work printed electronics in them. Toppan Printing is developing flexible printed colour displays as good as the television in your home. CSIRO in Australia is working towards printing photovoltaics on almost anything. Printechnologics in Germany and VTT in Finland can print some types of electronics using regular high speed printers. Fuji Film Dimatix has special ink jet printers favoured for the other processes. Suncheon National University in South Korea and its spinoff company can print flexible low cost transistor circuits. Connectors, antennas, touch pads and soon have been printed with silver because copper has tended to oxidise and become useless when printed but IntrinsiQ of the United Kingdom and Hitachi Chemical in Japan can now print copper electronics even on paper -saving much cost.

Combining better performance with lower cost
Delightfully, improved performance is often achieved together with lower cost when this new electronics is used. For example, the printed diodes from the University of Manchester in the United Kingdom work at much higher frequencies than any of the old electronics can achieve and they are even to basis of an attempt to make much more efficient harvesting of light to make electricity. E-Ink, Liquavista of the Netherlands, Hong Kong University of Science and Technology, Kent Displays of the USA and Bridgestone of Japan are among the leaders in developing and making many types of display for the planned rollable, foldable e-readers and reprogrammable posters, apparel and healthcare devices. Indeed having nothing thrown away because future supermarket displays and so on are reprogrammable is even more environmental than having biodegradable electronics. The virtuosity of proponents of printed electronics is now remarkable, from Thin Film Electronics in Sweden printing memory.

Advance RFID
Closely allied to printed electronics is the world of so called second and third generation RFID. These are called Real Time Location Systems RTLS and Wireless Sensor Networks WSN. In particular, most of the envisaged applications of WSN call for lower cost nodes that are maintenance free for twenty years. This calls for multiple energy harvesting tapping heat, light, vibration and so on to create the required electricity and following Dust Networks in its ability to make nodes that require much less electricity in the first place. EnOcean of Germany has wireless sensors and actuators with twenty year life that use no batteries at all thanks to energy harvesting.

Wireless sensors
The French electrical systems giant Schneider Electric has developed sensors that harvest heat to drive their electronics. JV Nexus in Hong Kong and Hong Kong University are developing innovative wireless sensing and building management and Peking University is developing relevant energy harvesting. Printed and thin film batteries from Infinite Power Solutions are useful in these new forms of electronics and new components are being invented such as metamaterials, nantennas and the organic resonant tunnelling diodes of the University of Hong Kong. Most use printing or at least thin film technology and they can be combined together.

Thought is being given to the systems and locations that will use the new electronics, such as the RFID work at LSCM R&D Centre in Hong Kong and the work on food safety and healthcare at the Chinese University of Hong Kong.

All the above organisations will be presenting at the annual Printed Electronics Asia conference. Printed Electronics Asia 2010, the fourth annual IDTechEx conference in Asia, will be held on 13-14 October in Hong Kong. This event builds on the extensive research IDTechEx has conducted in Asia over the last ten years. It puts you at the heart of the activity and gives you access to the major developers. Those supplying materials, equipment and components, and system integrators, can benefit from understanding how to penetrate this territory at a stage when things are beginning to ramp up.

The event, co-organized with the local government research organizations ASTRI and LSCM, is geared towards introducing you to the main companies working in this topic and through many presentations providing you with the latest progress. Speakers include end users such as Adidas discussing their needs. Attendees can access our proprietary online networking system and will also receive the IDTechEx report “Printed Electronics in Asia”, covering profiles of 196 organizations in the territory. There are tours to local organizations, including one of the largest solar exhibitions in the region. The money spent on attending will be small compared to the investment needed for you to research progress in the territory, giving you exclusive insight and competitiveness.

Tags: associate professor, chemical mechanical planarization, conventional silicon, electricity supply, electronic applications, electronic greeting cards, electronics market, electronics products, high temperatures, light emitting diode, light emitting diodes, plastic electronics, polymer chemistry, polymer light-emitting diode, volatile organic compounds

This entry was posted on Monday, October 11th, 2010 at 6:16 pm and is filed under Electronic News & information. You can follow any responses to this entry through the RSS 2.0 feed.