Titlebook: Challenges and Opportunities of Connected k-Covered Wireless Sensor Networks; From Sensor Deployme Habib M. Ammari Book 2009 Springer-Verla

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cochlea

Background and Fundamentalsit gives some key definitions and describes a percolation model to study coverage and connectivity in two-dimensional and three-dimensional wireless sensor networks. In addition, it presents an energy consumption model and defines the default network model.

苦惱

Phase Transitions in Coverage and Connectivity in Two-Dimensional Deployment Fieldsolation theory. Specifically, it focuses on finding the critical sensor density above which the network is . connected and the deployment field is . covered. It proposes our solution to this problem using a probabilistic approach. Precisely, each of the above problems is discussed separately. Then,

楓樹(shù)

合法

Affable

Heterogeneous and Mobile Connected ,-Coverage in Two-Dimensional Deployment Fieldsrs do not necessarily have the same capabilities. Also, it discusses our solution to the same problem in mission-oriented mobile wireless sensor networks, which are deployed in two-dimensional fields that could have more than one monitoring task, i.e. mission, to be accomplished. Specifically, it fo

Affable

Two-Dimensional Stochastic Connected ,–Coverage and Three-Dimensional Connected ,–Coveragec sensing model instead of a deterministic sensing model. Moreover, it investigates the problem of connected .-coverage in homogeneous three-dimensional wireless sensor networks while considering a deterministic sensing model. Both studies are generalizations of the work described earlier in Chap. 5

使成波狀

Network Connectivity and Fault-Tolerance Measures in Two-Dimensional Deployment Fieldseasures are more realistic than the former as they impose a restriction on the subsets of sensors that can fail at the same time. Precisely, conditional measures take into consideration the inherent properties of .-covered wireless sensor networks, such as high sensor density and sensor heterogeneit

regale

Geographic Forwarding on Always-On Sensorss-on wireless sensor networks, where the sensors are active all the time. Specifically, it investigates both short-range and long-range data forwarding schemes on always-on sensors and provides several theoretical and simulation results. It shows that short-range data forwarding scheme is more appro

監(jiān)禁

Trade-Off between Energy and Delay in Geographic Forwarding on Always-On Sensorslps achieve minimum energy consumption while ensuring uniform battery power depletion of the sensors and meeting the required delay constraints in the sense that data gathering points must receive the sensed data within a specified time bound. Given that these are conflicting goals, this trade-off i