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Multisensor-Based Periodic Estimation in Sensor Networks With Transmission Constraint and Periodic Mixed Storage
IEEE Transactions on Cybernetics
|October 6, 2016
Summary
This study introduces a new transmission strategy for sensor networks to overcome communication limits. The approach enables asynchronous data sharing for more accurate state estimations using Kalman filtering.
Area of Science:
- Sensor Networks
- Signal Processing
- Control Systems
Background:
- Sensor networks with shared channels face transmission constraints, especially with heterogeneous or distant sensors.
- These constraints necessitate strategies for efficient data sharing and processing in asynchronous environments.
Purpose of the Study:
- To address periodic estimation problems in sensor networks with a shared communication channel.
- To develop a novel transmission strategy to overcome inevitable transmission constraints.
- To present a periodic mixed storage strategy for updating sensor buffer information.
Main Methods:
- A stochastic competitive transmission strategy enabling asynchronous communication between sensors and the fusion center (FC).
- A periodic mixed storage strategy combining zero-input and hold-input mechanisms for buffer management.
- Derivation of a recursive Kalman filtering algorithm for the FC to generate state variable estimates.
Main Results:
- The proposed stochastic competitive transmission strategy effectively manages communication constraints.
- The periodic mixed storage strategy ensures efficient updating of stored information.
- The recursive Kalman filtering algorithm successfully generates periodic state estimates.
Conclusions:
- The developed strategies are effective for periodic estimation in sensor networks with shared channels.
- The asynchronous communication and data handling methods improve estimation accuracy under transmission constraints.
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