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Advanced Control and Connection Techniques for Autonomous Vehicles

A special issue of Sensors (ISSN 1424-8220). This special issue belongs to the section "Remote Sensors".

Deadline for manuscript submissions: closed (20 April 2022) | Viewed by 9544

Special Issue Editor


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Guest Editor
Department of Control and Computer Engineering, Politecnico di Torino, 10129 Turin, Italy
Interests: high-performance computing; formal methods; autonomous vehicles; SIMD and SIMT architectures; algorithms for path planning and connectivity; software applications; algorithms and data structures (divide-and-conquer, optimization, estimation, etc.)
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Special Issue Information

Dear Colleagues,

A large part of the current research on autonomous vehicles concentrates on connectivity and motion planning.

The promise of fully connected vehicles is very challenging for experts, researchers, automakers, and automotive service providers alike. Several frameworks suggest different levels of connectivity, ranging from basic to more complex ones. Overall, connected cars will allow more pleasant and safer driving experiences, smoother traffic flows, lower emissions, and optimized energy consumption.

Motion planning, also known as path or navigation planning, plays a key role in improving autonomy, safety, and comfort, and it has a strong relationship with the vehicle’s connectivity. The level of automation is usually defined within six levels of autonomy, ranging from no driving automation (level 0) to full driving automation (level 5). Even though level 5 vehicles are probably several years away, autonomous transportation systems require motion planning methods to generalize unpredictable situations and to reason promptly and safely across a huge range of different situations.

Although enormous efforts have been made to solve several theoretical and technological challenges in these two areas, several problems remain to be addressed. Many of these remaining issues require computationally intensive algorithms. A solution to this problem is offered by edge computing, which supports more resource capacity on mobile devices, and by highly parallel architecture systems, which are powerful and often underused. In this framework, the decomposition and parallelization of existing algorithms are extremely important tasks.

The purpose of this Special Issue is to focus on the limitations of the computational resources available in onboard computers. Thus, while the reduction of the computational costs of existing algorithms may be a solution, we also concentrate on parallel and edge computation to improve computational power and efficiency.

The Special Issue thus makes specific reference to the following aspects:

  • Edge computation for a vehicle’s connectivity and motion planning;
  • Parallel processing techniques for a vehicle’s connectivity and motion planning;
  • Classification, characterization, and the state of the art of connectivity and path planning methodologies and related algorithms;
  • Novel path-planning techniques for autonomous vehicles;
  • SIMD (single instruction, multiple data) and SIMT (single instruction, multiple threads) architectures and edge-computing architectures for autonomous vehicles;
  • Motion-planning applications;
  • Privacy issues and security in edge computing for transportation systems.

Prof. Dr. Stefano Quer
Guest Editor

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Keywords

  • autonomous vehicles 
  • connected vehicles 
  • autonomous navigation 
  • path and motion planning 
  • obstacle avoidance 
  • vision-aided navigation 
  • edge computing architectures for vehicles’ connectivity 
  • SIMD (single instruction, multiple data) and SIMT (single instruction, multiple threads) architectures for motion planning 
  • new edge-computing architectures for vehicles’ connectivity 
  • divide and conquer, optimization, and estimation algorithms for path planning and connectivity

Published Papers (3 papers)

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Research

30 pages, 9287 KiB  
Article
Accuracy Improvement of Vehicle Recognition by Using Smart Device Sensors
by Tanmoy Sarkar Pias, David Eisenberg and Jorge Fresneda Fernandez
Sensors 2022, 22(12), 4397; https://doi.org/10.3390/s22124397 - 10 Jun 2022
Cited by 6 | Viewed by 3596
Abstract
This paper explores the utilization of smart device sensors for the purpose of vehicle recognition. Currently a ubiquitous aspect of people’s lives, smart devices can conveniently record details about walking, biking, jogging, and stepping, including physiological data, via often built-in phone activity recognition [...] Read more.
This paper explores the utilization of smart device sensors for the purpose of vehicle recognition. Currently a ubiquitous aspect of people’s lives, smart devices can conveniently record details about walking, biking, jogging, and stepping, including physiological data, via often built-in phone activity recognition processes. This paper examines research on intelligent transportation systems to uncover how smart device sensor data may be used for vehicle recognition research, and fit within its growing body of literature. Here, we use the accelerometer and gyroscope, which can be commonly found in a smart phone, to detect the class of a vehicle. We collected data from cars, buses, trains, and bikes using a smartphone, and we designed a 1D CNN model leveraging the residual connection for vehicle recognition. The model achieved more than 98% accuracy in prediction. Moreover, we also provide future research directions based on our study. Full article
(This article belongs to the Special Issue Advanced Control and Connection Techniques for Autonomous Vehicles)
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20 pages, 1287 KiB  
Article
Coalitional Distributed Model Predictive Control Strategy for Vehicle Platooning Applications
by Anca Maxim and Constantin-Florin Caruntu
Sensors 2022, 22(3), 997; https://doi.org/10.3390/s22030997 - 27 Jan 2022
Cited by 6 | Viewed by 2096
Abstract
This work aims at developing and testing a novel Coalitional Distributed Model Predictive Control (C-DMPC) strategy suitable for vehicle platooning applications. The stability of the algorithm is ensured via the terminal constraint region formulation, with robust positively invariant sets. To ensure a greater [...] Read more.
This work aims at developing and testing a novel Coalitional Distributed Model Predictive Control (C-DMPC) strategy suitable for vehicle platooning applications. The stability of the algorithm is ensured via the terminal constraint region formulation, with robust positively invariant sets. To ensure a greater flexibility, in the initialization part of the method, an invariant table set is created containing several invariant sets computed for different constraints values. The algorithm was tested in simulation, using both homogeneous and heterogeneous initial conditions for a platoon with four homogeneous vehicles, using a predecessor-following, uni-directionally communication topology. The simulation results show that the coalitions between vehicles are formed in the beginning of the experiment, when the local feasibility of each vehicle is lost. These findings successfully prove the usefulness of the proposed coalitional DMPC method in a vehicle platooning application, and illustrate the robustness of the algorithm, when tested in different initial conditions. Full article
(This article belongs to the Special Issue Advanced Control and Connection Techniques for Autonomous Vehicles)
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14 pages, 3256 KiB  
Article
Lane Following Method Based on Improved DDPG Algorithm
by Rui He, Haipeng Lv, Sumin Zhang, Dong Zhang and Hang Zhang
Sensors 2021, 21(14), 4827; https://doi.org/10.3390/s21144827 - 15 Jul 2021
Cited by 9 | Viewed by 2797
Abstract
In an autonomous vehicle, the lane following algorithm is an important component, which is a basic function of autonomous driving. However, the existing lane following system has a few shortcomings: first, the control method it adopts requires an accurate system model, and different [...] Read more.
In an autonomous vehicle, the lane following algorithm is an important component, which is a basic function of autonomous driving. However, the existing lane following system has a few shortcomings: first, the control method it adopts requires an accurate system model, and different vehicles have different parameters, which needs a lot of parameter calibration work. The second is that it may fail on road sections where the lateral acceleration requirements of vehicles are large, such as large curves. Third, its decision-making system is defined based on rules, which has disadvantages: it is difficult to formulate; human subjective factors cannot guarantee objectivity; coverage is difficult to guarantee. In recent years, the deep deterministic policy gradient (DDPG) algorithm has been widely used in the field of autonomous driving due to its strong nonlinear fitting ability and generalization performance. However, the DDPG algorithm has overestimated state action values and large cumulative errors, low training efficiency and other issues. Therefore, this paper improves the DDPG algorithm based on the double critic networks and priority experience replay mechanism. Then this paper proposes a lane following method based on this algorithm. Experiment shows that the algorithm can achieve excellent following results under various road conditions. Full article
(This article belongs to the Special Issue Advanced Control and Connection Techniques for Autonomous Vehicles)
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