05 March 2012 Wireless communication at a billion bits per second? Researchers have developed the world's first millimetre wave direct conversion architecture using a frequency of 60GHz and capable of achieving a multi-Gb/s data rate – billions of bits per second. This is a considerable increase over current Wi-Fi (IEEE 802.11n) using 2.4/5GHz, which is limited to around 50Mb/s – a few hundred million bits per second. A team from the Tokyo Institute of Technology created the millimetre wave direct transceiver using an injection locked oscillator, employing a 65nm cmos process. To improve phase noise, an injection locking technique was developed and applied to the transceiver. According to the researchers, by combining a 20GHz phase locked loop with a 60GHz quadrature injection locked oscillator, it has been possible to achieve a phase noise of - 95 dBc/Hz@1MHz offset at 60GHz. The transceiver is said to be capable of a range of modulation schemes including BPSK/QPSK/8PSK/16QAM, and a data rate of 11Gb/s is achieved by 16QAM. The maximum communication distance is 2.7m and the power consumption is 252mW for transmitting and 172mW for receiving. The chip has been designed for IEEE 802.15.3c and IEEE 802.11ad conformance and can be integrated into a smart phone with 6Gb/s wireless data rate. Author Chris Shaw Comment on this article Websites http://www.titech.ac.jp/bulletin/index.html Companies Findlay Media Ltd This material is protected by Findlay Media copyright See Terms and Conditions. One-off usage is permitted but bulk copying is not. For multiple copies contact the sales team. Enjoy this story? People who read this article also read... NIDays 2013 NIDays is a technical conference designed specifically for ... Read Article Southern Manufacturing This year, Southern Manufacturing and Electronics is set to be ... Read Article Claire Jeffreys, NEW Claire Jeffreys, events director, National Electronics Week, ... Read Article BEEAs 2010 shortlist announced Findlay Media has announced the shortlist for the 2010 British ... Read Article What you think about this article: Add your comments Name Email Comments Your comments/feedback may be edited prior to publishing. Not all entries will be published. Please view our Terms and Conditions before leaving a comment.