The phrase "autonomous control architecture" is correct and usable in written English.
It can be used in contexts related to robotics, artificial intelligence, or systems engineering where control systems operate independently.
Example: "The development of an autonomous control architecture is essential for the successful deployment of self-driving vehicles."
Alternatives: "self-governing control framework" or "independent control system".
This paper aims at laying down the foundations of an approach to the development of autonomous robot control architecture based on the explicit representation of mental attitudes underlying robot behavior, considered as autonomous active entities.
This paper presents an artificial emotional-cognitive system-based autonomous robot control architecture for a four-wheel driven and four-wheel steered mobile robot.
The artificial cognitive model of autonomous robot control architecture has a dynamic associative memory including behavioral transition rules which are able to be learned for achieving multi-objective robot tasks.
This paper presents a multi-level control architecture for autonomous operation of islanded microgrids with power electronic interfaces.
In this work, a control architecture for autonomous vehicles have been tested, both for individual and cooperative maneuvers in urban and highway scenarios.
This paper describes a conceptual framework for the development of a hierarchal control architecture for an autonomous vehicle.
This paper proposes a new architecture to realize autonomous control of the cutting process without using NC programs.
This paper describes the design and implementation of a modular distributed architecture for distributed autonomous control of modular robot systems using parallel programming in industrial robotic manufacturing applications.
In this paper, efficient resource scheduling strategies for a network-based autonomous mobile robot with hybrid robot control architecture are proposed.
This paper presents the integration of a stereo-vision Graph-SLAM system in the navigation and control architecture of the Autonomous Underwater Vehicle (AUV) SPARUS II.
