Welcome to SWiMS Lab
Description
The Smart Wireless Massive Systems (SWiMS) lab is dedicated to advancing the theoretical foundations and practical implementations of large-scale complex networks. Our mission is to enhance network services, including communications, computing, sensing, and artificial intelligence, through innovative research and development. We are committed to bridging the digital divide by designing inclusive and affordable high-quality Internet solutions that provide better opportunities for education, healthcare, employment, and other essential services to remote and underdeveloped communities. At the SWiMS Lab, we pioneer new mathematical models to characterize trends, pinpoint bottlenecks, and identify design trade-offs, enabling the optimization and scaling of large-scale wireless networks. Our team has developed patented methodologies and prototypes for IoT devices, contributing significantly to the future of network services. We actively engage with the academic community and strive to influence and shape the research landscape.
Open Research Positions
We always seek highly talented students, please send me your CV if you are interested to join our lab.
News
Moved to the School of Computing, Queen's University, Kingston, ON.
The paper titled “Modeling and Analysis of Cellular Networks Using Stochastic Geometry: A Tutorial”, co-authored with A. Sultan-Salem, M.-S. Alouini, M. Z. Win has been awarded the 2020 IEEE Communications Society Best Tutorial Paper Award. [Link]
Joined the editorial board of Frontiers In Communications And Networks.
Joined the editorial board of IEEE Communications Letters. [Link]
The paper "On the Scalability of Uncoordinated Multiple Access for the Internet of Things" co-authored with Giovanni Chisci, Prof. Andrea Conti, Prof. Mohamed-Slim Alouini, and Prof. Moe Win, is recognized via the "Best Scientific Contribution Award" in the International Symposium on Wireless Communications Systems (ISWCS), Bologna, Italy. [Link]
The paper titled "Analytical Modeling of Mode Selection and Power Control for Underlay D2D Communication in Cellular Networks", co-authored with Prof. Ekram Hossain and Prof. Mohamed-Slim Alouini, is listed in the IEEE COMSOC Best Reading Topics on Device-to-Device Communications. [Link]
Elevated to IEEE Senior Member in March 2017.
New tutorial on modeling cellular networks using stochastic geometry [Link].
Novel spatiotemporal model for IoT using stochastic geometry and queueing theory [Link].
New insights for mobility and handover management in dense cellular environments [Link1] [Link2] [Link3].