Deep Learning for Pedestrian Detection and Safety in Autonomous Driving
Keywords:
network-MobileNetV2Abstract
The most significant challenge is different lighting conditions, the varies brightness of pedestrian's clothes, or complicated background. Reasonable and suitable feature extractions of different background can get different accurate detection results. Therefore, the most important in practical applications is the size and accuracy, which fits the appropriate feature descriptions, so as to give the highest precision of pedestrian detection. The algorithm should be able to balance detection speed and accuracy. For example, when used to detect in a video stream in real time, the algorithm gets a real-time effect (10fps) when used to detect pedestrians. To balance the accuracy, adding more layers in the YOLO prediction network to increase the receptive field area increases the accuracy of detection. Different ways and different accuracy balance strategies can be selected according to different applications. At the same time, pedestrian detection models should have robustness, so that it can still ensure the stability when there are other factors such as rain, snow, or occlusion that are difficult to identify pedestrians. Moreover, the computational cost of the detection algorithm should not be too high. Because the speed of hardware is limited . Therefore, an excellent detection algorithm needs to balance accuracy, real-time degree, robustness and memory consumption effectively. In this work, a pedestrian detection model that can effectively balance the four factors is proposed. In the specific design process, the YOLO network is chosen as the base detection algorithm model, and a lightweight detection feature network-MobileNetV2 is used as the feature extraction network to balance detection speed and accuracy feasibly [1].
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References
Tatineni, Sumanth, and Venkat Raviteja Boppana. "AI-Powered DevOps and MLOps Frameworks: Enhancing Collaboration, Automation, and Scalability in Machine Learning Pipelines." Journal of Artificial Intelligence Research and Applications 1.2 (2021): 58-88.
Ponnusamy, Sivakumar, and Dinesh Eswararaj. "Navigating the Modernization of Legacy Applications and Data: Effective Strategies and Best Practices." Asian Journal of Research in Computer Science 16.4 (2023): 239-256.
Shahane, Vishal. "Serverless Computing in Cloud Environments: Architectural Patterns, Performance Optimization Strategies, and Deployment Best Practices." Journal of AI-Assisted Scientific Discovery 2.1 (2022): 23-43.
Muthusubramanian, Muthukrishnan, and Jawaharbabu Jeyaraman. "Data Engineering Innovations: Exploring the Intersection with Cloud Computing, Machine Learning, and AI." Journal of Knowledge Learning and Science Technology ISSN: 2959-6386 (online) 1.1 (2023): 76-84.
Tillu, Ravish, Bhargav Kumar Konidena, and Vathsala Periyasamy. "Navigating Regulatory Complexity: Leveraging AI/ML for Accurate Reporting." Journal of Knowledge Learning and Science Technology ISSN: 2959-6386 (online) 2.2 (2023): 149-166.
Sharma, Kapil Kumar, Manish Tomar, and Anish Tadimarri. "Optimizing sales funnel efficiency: Deep learning techniques for lead scoring." Journal of Knowledge Learning and Science Technology ISSN: 2959-6386 (online) 2.2 (2023): 261-274.
Abouelyazid, Mahmoud. "Machine Learning Algorithms for Dynamic Resource Allocation in Cloud Computing: Optimization Techniques and Real-World Applications." Journal of AI-Assisted Scientific Discovery 1.2 (2021): 1-58.
Prabhod, Kummaragunta Joel. "Utilizing Foundation Models and Reinforcement Learning for Intelligent Robotics: Enhancing Autonomous Task Performance in Dynamic Environments." Journal of Artificial Intelligence Research 2.2 (2022): 1-20.
Tatineni, Sumanth, and Anirudh Mustyala. "AI-Powered Automation in DevOps for Intelligent Release Management: Techniques for Reducing Deployment Failures and Improving Software Quality." Advances in Deep Learning Techniques 1.1 (2021): 74-110.