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Envision an early cubist painting by the famous artist Pablo Picasso. To the untrained eye, the painting can look like a jumbled series of boxes overlapping and intertwining with each other. But the art of cubism is about exploring the world from multiple perspectives. The painting, which at first looks like boxes, is actually a city seen from multiple perspectives.

RCR Wireless spoke with WNCG Profs. Todd Humphreys and Constantine Caramanis, co-organizers of the Texas Wireless Summit (TWS) 2016. TWS will take place on October 18th at the Blanton Museum of Art Edgar Smith Building on UT Austin's campus. It will focus on the connectivity, sensing and data analytics of automated vehicles. Keynotes, panels and discussions will take place throughout the day. This year's event will feature a special startup showcase.

Texas Wireless Summit (TWS) 2016: Reshaping Wireless Through Automated Vehicles, recently announced their speaker line-up and other exciting special reveals for this year’s event. On October 18, 2016, TWS will explore how automated vehicles will reshape wireless over the next 10 years with their demands for coordinated sensing and decision-making. The event will look at the benefits and requirements of connectivity, the key challenges of vehicle sensing and shared data analytics, including lightly processed radar, lidar and camera data.

The Data-Supported Transportation Operations and Planning Center (D-STOP) from UT Austin met with representatives from local and state government, academia and industry in early April at a symposium designed to collaborate on the future of Smart Cities. The day-long event explored smart transportation systems, collaborative ecosystems, infrastructure-based technology, regional planning and analytics and connected vehicles through a series of panels featuring experts in the field.

Modern communication systems rely on multiple antennas that enhance the performance of network links using a series of techniques known as Multiple Input Multiple Output (MIMO). However, new technology is needed to meet the demands of a rapidly increasing number of wireless devices and enable the next generation of cellular systems. Known as Massive MIMO, this adaptation of traditional MIMO techniques presents challenges to research and development teams worldwide.