TY - GEN
T1 - The case for robotic wireless networks
AU - Gowda, Mahanth
AU - Dhekne, Ashutosh
AU - Choudhury, Romit Roy
N1 - Funding Information:
We are also grateful to NSF (CNS-1423455)
PY - 2016
Y1 - 2016
N2 - This paper explores the possibility of injecting mobility into wireless network infrastructure. We envision WiFi access points on wheels that move to optimize user performance. Movements need not be all around the floor, neither do they have to operate on batteries. As a first step, WiFi APs at home could remain tethered to power and Ethernet outlets while moving in small areas (perhaps under the couch). If such systems prove successful, perhaps future buildings and cities could offer explicit support for network infrastructure mobility. This paper begins with a higher level discussion of robotic wireless networks - the opportunities and the hurdles - and then pivots by developing a smaller slice of the vision through a system called iMob. With iMob, aWiFi AP ismounted on a Roomba robot and made to periodically move within a 2x2 sqft region. The core research questions pertain to finding the best location to move to, such that the SNRs fromits clients are strong, and the interferences fromother APs are weak. Our measurements show that the richness of wireless multipath offers significant opportunities - even within a 2x2 sqft region, locations exist that are 1.7x better than the average location in terms of throughput. When multiple APs in a neighborhood coordinate, the gains can be even higher. In sum, although infrastructure mobility has been discussed in the context of Google Balloons, ad hoc networks, and delay tolerant networks, we believe that the possibility of moving our personal devices in homes and offices is relatively unexplored, and could open doors to new kinds of innovation.
AB - This paper explores the possibility of injecting mobility into wireless network infrastructure. We envision WiFi access points on wheels that move to optimize user performance. Movements need not be all around the floor, neither do they have to operate on batteries. As a first step, WiFi APs at home could remain tethered to power and Ethernet outlets while moving in small areas (perhaps under the couch). If such systems prove successful, perhaps future buildings and cities could offer explicit support for network infrastructure mobility. This paper begins with a higher level discussion of robotic wireless networks - the opportunities and the hurdles - and then pivots by developing a smaller slice of the vision through a system called iMob. With iMob, aWiFi AP ismounted on a Roomba robot and made to periodically move within a 2x2 sqft region. The core research questions pertain to finding the best location to move to, such that the SNRs fromits clients are strong, and the interferences fromother APs are weak. Our measurements show that the richness of wireless multipath offers significant opportunities - even within a 2x2 sqft region, locations exist that are 1.7x better than the average location in terms of throughput. When multiple APs in a neighborhood coordinate, the gains can be even higher. In sum, although infrastructure mobility has been discussed in the context of Google Balloons, ad hoc networks, and delay tolerant networks, we believe that the possibility of moving our personal devices in homes and offices is relatively unexplored, and could open doors to new kinds of innovation.
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U2 - 10.1145/2872427.2882986
DO - 10.1145/2872427.2882986
M3 - Conference contribution
AN - SCOPUS:85026258077
T3 - 25th International World Wide Web Conference, WWW 2016
SP - 1317
EP - 1327
BT - 25th International World Wide Web Conference, WWW 2016
PB - International World Wide Web Conferences Steering Committee
T2 - 25th International World Wide Web Conference, WWW 2016
Y2 - 11 April 2016 through 15 April 2016
ER -