Ming Yu

Area of research

Computer Networks and Communications

Research interest

Research topics from publications: AASR: Authenticated Anonymous Secure Routing for MANETs in Adversarial Environments; A New Probabilistic Multi-Hop Broadcast Protocol for Vehicular Networks; Link available time prediction based GPSR for vehicular ad hoc networks; A network model for the real-time communications of a smart grid prototype; Reliability and Delay Trade-Off Analysis of Unslotted IEEE 802.15.4 Sensor Network for Shipboard Environment; A New Model-Based Method to Detect Radio Jamming Attack to Wireless Networks; Experimental studies on the rtEthernet-based centralized fault management system for smart grids; Radio Channel Allocations With Global Optimality and Bounded Computational Scale; A New Grouping Protocol for Smart Grids; A new radio channel allocation strategy using simulated annealing and Gibbs sampling. Representative work: Anonymous communications are important for many of the applications of mobile ad hoc networks (MANETs) deployed in adversary environments. A major requirement on the network is the ability to provide unidentifiability and unlinkability for mobile nodes and their traffic. Although a number of anonymous secure routing protocols have been proposed, the requirement is not fully satisfied. The existing protocols are vulnerable to the attacks of fake routing packets or denial-of-service broadcasting, even the node identities are protected by pseudonyms. In this paper, we propose a new routing protocol, i.e., authenticated anonymous secure routing (AASR), to satisfy the requirement and defend again The most important application of vehicular networks is the dissemination of safety information via broadcasting protocols. How to reduce the redundant retransmission of the same information to avoid excessive channel collisions while ensure low latency and high reliability of the dissemination over the network has become the most challenging problem for multi-hop broadcasting protocols. The existing solutions use either probability-based multi-hop broadcasting for low latency or time-based deterministic approaches for high reliability. In this work, we propose a new probability-based multi-hop broadcast protocol to overcome the reliability and latency issues. First, we propose to assign a h

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