Concepedia

Concept

autonomous systems

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Cooperative Real Time Autonomy

1990 - 1996

During the early 1990s, autonomous systems research prioritized real-time cooperative architectures that tightly integrated planning, reasoning, and reactive control to operate in dynamic environments. Hierarchical and layered control structures emerged to balance fast reactive responses with deliberative decision-making, enabling more robust operation in mobile robots and autonomous vehicles. Perception and sensor fusion advanced navigation and obstacle avoidance, while early learning-based planning contributed to adaptive behavior and control under uncertainty.

Real-time cooperative architectures integrate planning and reasoning with reactive control to support autonomous operation in dynamic environments, using hierarchical AI/control subsystems to maintain responsiveness while making timely decisions [9], [18], [6], [10].

Automated highway driving emphasizes vehicle-following, platooning, and traffic-flow optimization to reduce congestion and improve safety; architectures address autonomous cruise control and highway navigation [3], [1], [8], [20].

Fault-tolerant design and reliability analysis are central, featuring real-time fault diagnosis, control reconfiguration, and robust architectures for autonomous vehicles and robotic systems [4], [5], [7], [13].

Sensory integration and perception drive navigation and obstacle avoidance through fusion of active and passive sensing with visual guidance [14], [12], [11].

Learning-based planning and adaptive control shape autonomous behavior, combining genetic algorithms, intelligent control, and nonlinear robust strategies across diverse platforms [19], [2], [16], [17].

Modular Kinodynamic Autonomy

1997 - 2003

Integrated Perception Planning

2004 - 2010

End-to-End Autonomous Vehicle Systems

2011 - 2017

Planning-First Autonomy

2018 - 2024