The Center for Wireless Information Systems and Computational Architectures (WISCA) places Arizona State University at the research and development nexus of the next wireless revolution.
It is remarkable to consider the long series of revolutions that wireless communications has undergone over the last quarter century. After each revolution, it is tempting to think that this astonishing sequence of advances has ended, but the end has not come yet. In fact, we are a point in time for wireless communications that is equivalent to that of the cambrian explosion for biological systems. As the “internet of things” develops, and as users increasingly desire greater access, reliability, data rates, and communications diversity, we need more of all kinds of wireless communications.
Congratulations Associate Director Prof. Chaitali Chakrabarti for receiving this year’s Joseph C. Palais Distinguished Faculty Scholar Award!
Secretary of the Air Force, Dr. Heather Wilson stopped by our laboratory, and we had the opportunity to brief her on a number of our research projects.
Congratulations to Prof. Yanchao Zhang for being elevated to Fellow of the IEEE.
Congratulations to Prof. Chakrabarti and her student Jian Zhou for receiving best paper award for “Parallel Wavelet-based Bayesian Compressive Sensing based on Gibbs Sampling” at the 2018 IEEE Workshop on Signal Processing Systems (SiPS).
Congratulations to Associate WISCA Director Prof. Chaitali Chakrabarti for being honored with the IIT Kharagpur Distinguished Alumnus Award.
Congratulations to WISCA affiliated faculty Prof. Oliver Kosut and Prof. Lalitha Sankar for receiving notification tenure, effective Fall 2018.
Congratulations to WISCA affiliated faculty Prof. Lei Ying and Prof. Yanchao Zhang for notification of promotion to full professor, effective Fall 2018.
ASU Now story on BLISS Lab’s autonomous vehicle joint communications and positioning research
…we need access to more sophisticated, more flexible, and more efficient protocols and computational engines. With new radio architectures developed at WISCA, we can break this rigid limitation.
To address future wireless communications and sensing for personal, machine, and IoT systems, we need access to more sophisticated, more flexible, and more efficient protocols and computational engines. Current communications approaches are efficient and inflexible or flexible and inefficient. By codeveloping advanced fluid protocols and mixed software define radios with hardware accelerators, we can solve both problems simultaneously. Furthermore, current protocols were developed under the assumption that communications links cannot operate in the presence of interference. This assumption introduces a significant limitation on potential performance. With our new radio architectures, we can break this rigid limitation.
To aid this development, WISCA provides researchers a wide range of tools. In particular, WISCA provides a laboratory space with a suite of software defined radios (SDRs). This radio system is designed to allow communications researchers to easily explore new physical and network layer concepts by employing a simple development interface. The interface is based on Matlab (an industry standard), so that researchers can explore their new concepts quickly. Because Matlab often cannot keep up with the computations required by sophisticated radio needs, a low duty cycle communications approach is employed to emulate real continuous-time systems. This discontinuous time operation is transparent to the radio researcher. By using this system, researchers can explore over-the-air radio operations with development times comparable to simple simulations.