Deep Learning for Real-time Pedestrian Intention Recognition in Autonomous Driving
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How to Cite

[1]
Dr. Paulo Sérgio, “Deep Learning for Real-time Pedestrian Intention Recognition in Autonomous Driving”, Journal of AI in Healthcare and Medicine, vol. 2, no. 1, pp. 14–32, Jun. 2022, Accessed: Jul. 29, 2024. [Online]. Available: https://healthsciencepub.com/index.php/jaihm/article/view/39

Abstract

[1]Autonomous driving is entering our lives in the form of commercial vehicles and private cars at an increasing pace. Many advanced features such as automatic parking, adaptive cruise control, and lane-keeping assistance are already available in most modern cars. Also, the first vehicles with conditional (ef.) or supervised automation are already commercially available in limited areas, and fully autonomous vehicles are being tested in many places around the world. At the same time, the possibilities of artificial intelligence and machine learning are constantly growing, partly due to many resources that are made public. In addition, machine learning algorithms that can handle image, audio, and video inputs are becoming more accurate and available. Consequently, it seems like a natural development to use such perception methods in autonomous vehicles to improve and develop the interaction between vehicles, drivers, and other road users [2].[3] One aspect of closely related research is understanding and predicting the intentions of vulnerable road users (VRU) in traffic (Stol, El Aad, & De Winter, 2019a). This is an essential part of the basic traffic tasks scanning, hazard detection, decision-making and driving behavior planning, as summarized by Dewitte et al. (2019). Consequently, there is a distinction between intentions, which need to be considered before driving actions, and actions that are currently observable. Both in detail analysis and in learning the surrounding traffic, the intention of the VRUs is therefore an important piece of information.

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References

Tatineni, Sumanth. "Federated Learning for Privacy-Preserving Data Analysis: Applications and Challenges." International Journal of Computer Engineering and Technology 9.6 (2018).

Shaik, Mahammad, et al. "Granular Access Control for the Perpetually Expanding Internet of Things: A Deep Dive into Implementing Role-Based Access Control (RBAC) for Enhanced Device Security and Privacy." British Journal of Multidisciplinary and Advanced Studies 2.2 (2018): 136-160.

Vemoori, V. “Towards Secure and Trustworthy Autonomous Vehicles: Leveraging Distributed Ledger Technology for Secure Communication and Exploring Explainable Artificial Intelligence for Robust Decision-Making and Comprehensive Testing”. Journal of Science & Technology, vol. 1, no. 1, Nov. 2020, pp. 130-7, https://thesciencebrigade.com/jst/article/view/224.

P. Jabłoński, J. Iwaniec, and W. Zabierowski, "Comparison of Pedestrian Detectors for LiDAR Sensor Trained on Custom Synthetic, Real and Mixed Datasets," 2022. ncbi.nlm.nih.gov

A. Ranga, F. Giruzzi, J. Bhanushali, E. Wirbel et al., "VRUNet: Multi-Task Learning Model for Intent Prediction of Vulnerable Road Users," 2020. [PDF]

H. Zhang, Y. Liu, C. Wang, R. Fu et al., "Research on a Pedestrian Crossing Intention Recognition Model Based on Natural Observation Data," 2020. ncbi.nlm.nih.gov

H. Fu, L. Sun, Y. Shen, and Y. Wu, "SDR-GAIN: A High Real-Time Occluded Pedestrian Pose Completion Method for Autonomous Driving," 2023. [PDF]

E. Moreno, P. Denny, E. Ward, J. Horgan et al., "Pedestrian Crossing Intention Forecasting at Unsignalized Intersections Using Naturalistic Trajectories," 2023. ncbi.nlm.nih.gov

M. Mobaidul Islam, A. Al Redwan Newaz, and A. Karimoddini, "A Pedestrian Detection and Tracking Framework for Autonomous Cars: Efficient Fusion of Camera and LiDAR Data," 2021. [PDF]

B. Ilie Sighencea, R. Ion Stanciu, and C. Daniel Căleanu, "A Review of Deep Learning-Based Methods for Pedestrian Trajectory Prediction," 2021. ncbi.nlm.nih.gov

J. Cao, C. Song, S. Peng, S. Song et al., "Pedestrian Detection Algorithm for Intelligent Vehicles in Complex Scenarios," 2020. ncbi.nlm.nih.gov

M. Azarmi, M. Rezaei, H. Wang, and S. Glaser, "PIP-Net: Pedestrian Intention Prediction in the Wild," 2024. [PDF]

J. Lorenzo, I. Parra, F. Wirth, C. Stiller et al., "RNN-based Pedestrian Crossing Prediction using Activity and Pose-related Features," 2020. [PDF]

T. Zhang, Z. Han, H. Xu, B. Zhang et al., "CircleNet: Reciprocating Feature Adaptation for Robust Pedestrian Detection," 2022. [PDF]

R. Giuliano, F. Mazzenga, E. Innocenti, F. Fallucchi et al., "Communication Network Architectures for Driver Assistance Systems," 2021. ncbi.nlm.nih.gov

D. Yang, H. Zhang, E. Yurtsever, K. Redmill et al., "Predicting Pedestrian Crossing Intention with Feature Fusion and Spatio-Temporal Attention," 2021. [PDF]

K. Saleh, M. Hossny, and S. Nahavandi, "Real-time Intent Prediction of Pedestrians for Autonomous Ground Vehicles via Spatio-Temporal DenseNet," 2019. [PDF]

C. Zhang, R. Li, W. Kim, D. Yoon et al., "Driver Behavior Recognition via Interwoven Deep Convolutional Neural Nets with Multi-stream Inputs," 2018. [PDF]

Y. Zhang, A. Zhou, F. Zhao, and H. Wu, "A Lightweight Vehicle-Pedestrian Detection Algorithm Based on Attention Mechanism in Traffic Scenarios," 2022. ncbi.nlm.nih.gov

J. R. Peters, "Singly Generated Radical Operator Algebras," 2023. [PDF]

H. Kataoka, Y. Satoh, Y. Aoki, S. Oikawa et al., "Temporal and Fine-Grained Pedestrian Action Recognition on Driving Recorder Database," 2018. ncbi.nlm.nih.gov

R. Trabelsi, R. Khemmar, B. Decoux, J. Y. Ertaud et al., "Recent Advances in Vision-Based On-Road Behaviors Understanding: A Critical Survey," 2022. ncbi.nlm.nih.gov

F. Camara, N. Bellotto, S. Cosar, F. Weber et al., "Pedestrian Models for Autonomous Driving Part II: High-Level Models of Human Behavior," 2020. [PDF]

F. Manfio Barbosa and F. Santos Osório, "Camera-Radar Perception for Autonomous Vehicles and ADAS: Concepts, Datasets and Metrics," 2023. [PDF]

D. Tian, Y. Han, B. Wang, T. Guan et al., "A Review of Intelligent Driving Pedestrian Detection Based on Deep Learning," 2021. ncbi.nlm.nih.gov

M. Ahmed, K. Azeem Hashmi, A. Pagani, M. Liwicki et al., "Survey and Performance Analysis of Deep Learning Based Object Detection in Challenging Environments," 2021. ncbi.nlm.nih.gov

F. Piccoli, R. Balakrishnan, M. Jesus Perez, M. Sachdeo et al., "FuSSI-Net: Fusion of Spatio-temporal Skeletons for Intention Prediction Network," 2020. [PDF]

Z. Fang, D. Vázquez, and A. M. López, "On-Board Detection of Pedestrian Intentions," 2017. ncbi.nlm.nih.gov

R. Chan, R. Dardashti, M. Osinski, M. Rottmann et al., "What should AI see? Using the Public's Opinion to Determine the Perception of an AI," 2022. [PDF]

C. F. Wu, D. D. Xu, S. H. Lu, and W. C. Chen, "Effect of Signal Design of Autonomous Vehicle Intention Presentation on Pedestrians’ Cognition," 2022. ncbi.nlm.nih.gov

S. Mahmud Khan, M. Sabbir Salek, V. Harris, G. Comert et al., "Autonomous Vehicles for All?," 2023. [PDF]

W. Morales Alvarez, F. Miguel Moreno, O. Sipele, N. Smirnov et al., "Autonomous Driving: Framework for Pedestrian Intention Estimationin a Real World Scenario," 2020. [PDF]

P. J. Navarro, C. Fernández, R. Borraz, and D. Alonso, "A Machine Learning Approach to Pedestrian Detection for Autonomous Vehicles Using High-Definition 3D Range Data," 2016. ncbi.nlm.nih.gov

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