2017 IEEE Intelligent Vehicles Symposium (IV) 2017
DOI: 10.1109/ivs.2017.7995798
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Distributed robust vehicle state estimation

Abstract: Abstract-A distributed estimation approach based on opinion dynamics is proposed to enhance the reliability of vehicle corners' velocity estimates, which are obtained by an unscented Kalman filter. The corners' estimates from a Kalman observer, which is formed by integrating the model-based and kinematic-based velocity estimation approaches, are utilized as opinions with different levels of confidence in the developed algorithm. More reliable estimates robust to disturbances and time delay are achieved via sol… Show more

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Cited by 5 publications
(2 citation statements)
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References 33 publications
(30 reference statements)
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“…Algorithm 1: distributed κ-redundant estimation and localized FDI. 1 Input: matrices F, G (or sampling period T ), FAR κ, redundancy factor κ 2 Design the networks G (the sensor network) to be SC and κ-connected, e.g., via algorithms in [33], [34]; 3 Calculate the TDOA measurement matrix H i via (14) based on the relative positions of sensors; 4 Design the block-diagonal gain matrix K via LMI in [16,Appendix]; 5 begin sensor i = 1 : N at every time k Finds the estimate x i k|k via Eq. ( 15)-( 16) on the target position (state) via the received information; 9 Finds the residual r i k or distance measure z i k ;…”
Section: Fault-tolerant Designmentioning
confidence: 99%
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“…Algorithm 1: distributed κ-redundant estimation and localized FDI. 1 Input: matrices F, G (or sampling period T ), FAR κ, redundancy factor κ 2 Design the networks G (the sensor network) to be SC and κ-connected, e.g., via algorithms in [33], [34]; 3 Calculate the TDOA measurement matrix H i via (14) based on the relative positions of sensors; 4 Design the block-diagonal gain matrix K via LMI in [16,Appendix]; 5 begin sensor i = 1 : N at every time k Finds the estimate x i k|k via Eq. ( 15)-( 16) on the target position (state) via the received information; 9 Finds the residual r i k or distance measure z i k ;…”
Section: Fault-tolerant Designmentioning
confidence: 99%
“…1]. These distributed strategies are mainly developed over linear and partially observable (measurement/system) models, e.g., for model-based and kinematic-based vehicle speed estimation [14]. In this direction, the nonlinear rangebased methods as TDOA [4], [5], [15], are linearized to be adapted for distributed setups.…”
Section: Introductionmentioning
confidence: 99%