Optical interference produced by artificial light
Wireless Networks
Optical networks: a practical perspective
Optical networks: a practical perspective
Experimental characterization of rate-adaptive transmission and angle diversity reception techniques
IEEE Wireless Communications
Optical wireless: the story so far
IEEE Communications Magazine
High-speed integrated transceivers for optical wireless
IEEE Communications Magazine
Orthogonal rendezvous routing protocol for wireless mesh networks
IEEE/ACM Transactions on Networking (TON)
Multi-transceiver optical wireless spherical structures for MANETs
IEEE Journal on Selected Areas in Communications - Special issue on optical wireless communications
Challenge: mobile optical networks through visual MIMO
Proceedings of the sixteenth annual international conference on Mobile computing and networking
Throughput characteristics of free-space-optical mobile ad hoc networks
Proceedings of the 13th ACM international conference on Modeling, analysis, and simulation of wireless and mobile systems
Using directionality in mobile routing
Wireless Networks
Hash caching mechanism in source-based routing for wireless ad hoc networks
Journal of Network and Computer Applications
Wireless Networks
Mobile free space optic nodes in single-input multiple-output setup under transmitter misalignment
Wireless Communications & Mobile Computing
Capacity scaling in free-space-optical mobile ad hoc networks
Ad Hoc Networks
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Existence of line of sight (LOS) and alignment between the communicating antennas is one of the key requirements for free-space-optical (FSO) communication. To ensure uninterrupted data flow, auto-aligning transmitter and receiver modules are necessary. We propose a new FSO node design that uses spherical surfaces covered with transmitter and receiver modules for maintaining optical links even when nodes are in relative motion. The spherical FSO node provides angular diversity in 3-dimensions, and hence provides an LOS at any orientation as long as there are no obstacles in between the communicating nodes. For proof-of-concept, we designed and tested an auto-configurable circuit, integrated with light sources and detectors placed on spherical surfaces. We demonstrated communication between a stationary and a mobile node using these initial prototypes of such FSO structures. We also performed the necessary theoretical analysis to demonstrate scalability of our FSO node designs to longer distances as well as feasibility of denser packaging of transceivers on such nodes.