This investigation is to achieve multivariable modeling for a pressurized water reactor core with/without iodine-xenon dynamics and design nonlinear core multivariable coordination control systems with stability analyses for simultaneous regulations of the core power and axial power difference during load following/transient load maneuvers.
In this paper, a novel control scheme is presented to achieve simultaneous position and force coordination in nonlinear teleoperation systems.
In order to verify the effectiveness of the proposed controller, a simulation result is presented, illustrating both position and force coordination in such nonlinear systems.
In like fashion, but now scaled up from the level of neuronal behavior to the level of behaving humans, we introduce VPI as a surrogate system to systematically investigate the essentially nonlinear dynamics of human social coordination (see [8] [10] for recent reviews].
This paper presents a nonlinear control design for contemporary formation coordination, obstacle avoidance and collision free of multiple autonomous vehicles.
In all above fitness function formulation techniques, it is observed that, relay coordination problem becomes highly nonlinear and non-convex optimization problem.
This paper investigates optimal coordination tracking control for nonlinear multi-agent systems (NMASs) with unknown internal states by using an adaptive dynamic programing (ADP) method.
The nonlinear model with iodine-xenon and its coordination controller construct the nonlinear core load following coordination control system, and the nonlinear model without iodine-xenon and its coordination controller structure the nonlinear core transient load coordination control system.
Specifically, we present distributed nonlinear static and dynamic controller architectures for multiagent coordination.
