Review Article

Performance Evaluation of Onboard Processing Capability Reduction in Cooperative Vehicles Using 5G and Artificial Intelligence

Table 2

Comparison of the different subfields of artificial intelligence applied to cooperative navigation.

AlgorithmDescriptionAdvantagesDisadvantagesApplications

MLLearns from data to make predictions and decisions autonomously(i) Adaptable to varying conditions(i) Requires labeled data for training(i) Predictive maintenance
(ii) Handles nonlinear relationships effectively(ii) May overfit the training data(ii) Anomaly detection
(iii) Can detect subtle patterns in data(iii) Model interpretation may be challenging(iii) Traffic prediction
(iv) Allows for continuous learning(iv) Computationally intensive(iv) Pattern recognition
(v) Can process large datasets efficiently(v) Dependency on data quality(v) GPS spoofing detection
(vi) Autonomous vehicles
(vii) Indoor navigation
(viii) Pedestrian navigation apps (Google Maps)
(ix) Maritime navigation systems

RLLearns through trial and error based on feedback from the environment(i) Suitable for dynamic environments(i) Prone to exploration-exploitation trade-offs(i) Autonomous navigation
(ii) Learns from experience(ii) Training can be time-consuming and expensive(ii) Adaptive control
(iii) Adaptability to novel situations(iii) Requires well-defined reward structures(iii) Traffic signal optimization
(iv) Self-improvement over time(iv) Vulnerable to noisy or incomplete feedback(iv) Path planning
(v) Can handle high-dimensional state and action spaces(v) May converge to suboptimal solutions(v) Self-learning capabilities
(vi) Robotic navigation
(vii) Drone navigation
(viii) Autonomous underwater vehicles (AUVs)

DRLUtilizes deep neural networks to handle complex data and learn intricate patterns(i) Handles high-dimensional data effectively(i) High computational requirements(i) Autonomous driving
(ii) Can learn complex strategies(ii) Training may be unstable due to large neural networks(ii) Path planning
(iii) Generalizes well across different scenarios(iii) Interpretability may be limited(iii) Cooperative perception and decision-making
(iv) Enables end-to-end learning(iv) Data inefficiency in exploration(iv) Perception driving decision
(v) Robustness to noise and uncertainty
(vi) Lane changing maneuver
(vii) UAV navigation
(viii) Cooperative multi-agent navigation
(ix) Cooperative collision avoidance or mitigation