Resilient Fusion Navigation Techniques: Collaboration in Swarm

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This book describes the resilient navigation techniques under the background of collaboration in swarm. The significance of this work is that it focuses on the navigation enhancement by collaboration in swarm rather than ground infrastructure, which exploit potentialities of swarm in GNSS restricted environment.

Although unmanned swarm is receiving greater attention, both through theoretical research and through increasing mention in the industrial developments, the navigation promotion by effective and efficient collaboration remains largely unexplored. While my scholarly work has explored some of the modeling, error characteristic, fusion algorithm, fault detection, and isolation aspects of the “adaptive navigation system” (such as the navigation system of robots and ground vehicles, aircrafts, aerospace vehicles, and unmanned aerial vehicles), the present book proposes the specialized investigation on the navigation with the resilient character, which could maintain the performance by essential collaboration with members in swarm in GNSS degradation environment.

This book focused on the resilient navigation techniques under the background of collaboration in swarm. The key techniques of collaborative resilient navigation are proposed, including the collaboration framework, collaborative observation modeling, geometry optimization, integrity augmentation, and fault detection. The experiments are also carried out to validate the effectiveness of the corresponding techniques.

Author(s): Rong Wang, Zhi Xiong, Jianye Liu
Series: Unmanned System Technologies
Publisher: Springer
Year: 2022

Language: English
Pages: 225
City: Singapore

Preface
Acknowledgments
Contents
Abbreviations
1 Introduction
1.1 The Rise of Aerial Swarms
1.2 Sensors for Relative Observation in an Aerial Swarm
1.2.1 Collaborative Navigation Based on Radio Measurements
1.2.2 Collaborative Navigation Based on Visual Measurements
1.3 Development of Collaborative Resilient Navigation
1.3.1 Collaborative Navigation Research Focusing on the Suppression of INS Error Dispersion
1.3.2 Collaborative Navigation Research Focusing on Improving Positioning Accuracy in GNSS-Challenged Environments
1.3.3 Collaborative Navigation Research Focusing on Improving the Collaborative Configuration of a Swarm
1.4 Fault-Tolerant Navigation Technology with Collaboration
1.4.1 Collaborative Fault-Tolerant Navigation Research Involving Integrity Protection Level Assessment and Improvement
1.4.2 Collaborative Fault-Tolerant Navigation Research Involving Navigation Fault Detection and Identification Algorithms
1.5 Motivations
1.6 Organization of Content
References
2 Collaborative Resilient Navigation Frameworks
2.1 Introduction
2.2 Leader–Follower Collaborative Navigation Structure
2.3 Parallel Collaborative Navigation Structure
2.4 Hierarchical Collaborative Navigation Structure
2.5 Collaborative Localization-Based Fusion Framework for Resilient Navigation
2.6 Collaborative Observation-Based Fusion Framework for Resilient Navigation
2.7 Conclusions
References
3 Modelling for Resilient Navigation via Collaboration
3.1 Introduction
3.2 Coordinate Frames Used in Resilient Navigation via Collaboration
3.3 Ranging-Based Collaborative Observation Modelling
3.3.1 Relative-Ranging-Based Observation Geometry
3.3.2 Relative-Ranging-Based Observation Model
3.3.3 Relative-Ranging-Based Error Model
3.4 Range-Difference-Based Collaborative Observation Modelling
3.4.1 Relative-Range-Difference-Based Observation Geometry
3.4.2 Relative-Range-Difference-Based Observation Model I
3.4.3 Relative-Range-Difference-Based Observation Model II
3.4.4 Relative-Range-Difference-Based Error Model
3.5 Bearing-Only Collaborative Observation Modelling
3.5.1 Relative-Bearing-Only Observation Geometry
3.5.2 Relative-Bearing-Only Observation Model
3.5.3 Relative Bearing Error Model
3.6 Vector-of-Sight-Based Collaborative Observation Modelling
3.6.1 Relative-VOS-Based Observation Geometry
3.6.2 Relative VOS Observation Model in Spherical Coordinates
3.6.3 Relative VOS Error Model in Spherical Coordinates
3.6.4 Relative VOS Observation Model in Cartesian Coordinates
3.6.5 Relative VOS Error Model in Cartesian Coordinates
3.7 Conclusions
References
4 Collaborative Localization-Based Resilient Navigation Fusion
4.1 Introduction
4.2 Collaborative Localization Algorithms
4.2.1 Least Squares Algorithm
4.2.2 Chan–Taylor Algorithm
4.2.3 Spherical Interpolatio Algorithm
4.3 Online Estimation of the Collaborative Localization Covariance
4.3.1 LS Estimation Covariance
4.3.2 CT Estimation Covariance
4.3.3 SI Estimation Covariance
4.4 Resilient Fusion Algorithm with the Collaborative Localization Solution
4.4.1 Resilient Fusion Model with the Collaborative Localization Solution
4.4.2 Resilient Fusion Process with the Collaborative Localization Solution
4.5 Simulation Examples
4.5.1 Simulation of CT and SI Collaborative Localization-Based Resilient Fusion
4.5.2 Simulation of LS Collaborative Localization-Based Resilient Fusion
4.6 Conclusions
References
5 Collaborative Observation-Based Resilient Navigation Fusion
5.1 Introduction
5.2 Collaborative Observation-Based Navigation Algorithm with the Hierarchical Collaborative Navigation Structure
5.2.1 Resilient Fusion Model with Collaborative Observations
5.2.2 Resilient Fusion Process with Collaborative Observations
5.3 Collaborative Observation-Based Navigation Algorithm with the Parallel Collaborative Navigation Structure
5.3.1 Resilient Fusion Model with Collaborative Observations
5.3.2 Resilient Fusion Process with Collaborative Observations
5.4 Simulation Examples
5.4.1 Simulation of Hierarchical Collaborative Observation-Based Resilient Fusion
5.4.2 Simulation of Parallel Collaborative Observation-Based Resilient Fusion
5.5 Conclusions
References
6 Collaborative Geometry Optimization in Resilient Navigation
6.1 Introduction
6.2 Geometric Dilution of Precision in Collaborative Resilient Navigation Fusion
6.2.1 Geometric Configuration in Collaborative Navigation
6.2.2 Geometric Dilution of Precision in Collaborative Navigation
6.3 Geometric Influence on Collaborative Resilient Navigation Fusion
6.3.1 Geometric Influence on Collaborative Resilient Fusion in a GNSS-Augmented Situation
6.3.2 Geometric Influence on Collaborative Resilient Fusion in a GNSS-Denied Situation
6.4 Geometry Optimization for Collaborative Resilient Navigation Fusion
6.4.1 Geometry Optimization Based on a Geometric Analysis Method
6.4.2 Geometry Optimization Based on an Algebraic Search Method
6.5 Simulation Examples
6.5.1 Simulation of Geometric-Analysis-Based Collaboration Optimization
6.5.2 Simulation of Algebraic-Search-Based Collaboration Optimization
6.6 Conclusions
References
7 Collaborative Integrity Augmentation in Resilient Navigation
7.1 Introduction
7.2 Integrity in Collaborative Resilient Navigation Fusion
7.2.1 Geometry in Collaborative Navigation Integrity Augmentation
7.2.2 Integrity Protection Level in Collaborative Navigation
7.3 Influence of Integrity in Collaborative Resilient Navigation Fusion
7.3.1 Influence of Integrity in Collaborative Resilient Fusion in a GNSS-Augmented Situation
7.3.2 Influence of Integrity in Collaborative Resilient Fusion in a GNSS-Denied Situation
7.4 Integrity Optimization in Collaborative Resilient Navigation Fusion
7.4.1 Integrity Optimization Based on the Geometric Analysis Method
7.4.2 Integrity Optimization Based on the Algebraic Search Method
7.5 Simulation Examples
7.5.1 Simulation Setup
7.5.2 Simulation of Cooperative Partner Optimization
7.5.3 Simulation of Navigation Integrity Augmentation
7.6 Conclusions
References
8 Collaborative Fault Detection in Resilient Navigation
8.1 Introduction
8.2 Fault Detection Based on Integrity Augmentation in Collaborative Resilient Navigation Fusion
8.2.1 Collaboration-Augmented Fault Detection
8.2.2 Collaboration-Augmented Fault Identification and Exclusion
8.3 Fault Detection Based on MHSS in Collaborative Resilient Navigation Fusion
8.3.1 Multifault Detection Scheme with Collaborative Augmentation
8.3.2 Collaboration-Augmented Fault Detection
8.3.3 Collaboration-Augmented Fault Identification and Exclusion
8.4 Simulation Examples
8.4.1 Simulation of Single-Fault Detection in Collaborative Resilient Navigation Fusion
8.4.2 Simulation of Multifault Detection in Collaborative Resilient Navigation Fusion
8.4.3 Comprehensive Simulation of Collaborative Resilient Navigation Fusion
8.5 Conclusions
References
9 Summary and Scope
9.1 Summary and Conclusions
9.2 Development Trends and Future Work
References