This paper presents a method of creating a neurocontroller based on a multilayer perceptron for an unmanned aerial vehicle. We show how a neural network can effectively emulate dynamic characteristics of an aerial craft. Another network learns to control the emulator, using backpropagation algorithm to calculate the error in its control signal. A set of parameters is used to analyze the efficiency of the stabilization and the weights of the neurocontroller are adjusted accordingly. It is shown that the system meets stabilization requirements with sufficient number of iterations. Described method can be used to remotely control unmanned aerial vehicles operating in changing environment
Recent publications on automatic flight controls are concentrated on neural network based adaptive c...
Recent publications on automatic flight controls are concentrated on neural network based adaptive c...
Helicopter UAVs can be extensively used for military missions as well as in civil operations, rangin...
The problem addressed in the present paper is the design of a controller based on an evolutionary ne...
The design of a dynamic neurocontroller with good robustness properties is presented for a multivari...
The energy efficiency and flight endurance of small unmanned aerial vehicles (SUAVs) can be improved...
The paper presents the development of modelling and control strategies for a six-degree-of-freedom, ...
A neural network (NN) based output feedback controller for a quadrotor unmanned aerial vehicle (UAV)...
The paper presents the designed prototype for a highly nonlinear, multi-input-multi-output aerodyna...
Traditional control methods are inadequate in many deployment settings involving autonomous control ...
In this work, a new intelligent control strategy based on neural networks is proposed to cope with s...
Abstract: This paper presents a theoretical mechanical model of an unmanned aerial vehicle...
In this thesis, the problem of controlling a quadrotor UAV is considered. It is done by presenting a...
This paper proposes a Neurocontrol (NNC) for a Twin Rotor Aerodynamics System (TRAS) by a simple bac...
This thesis presents the development of small, inexpensive unmanned aerial vehicles (UAVs) to achie...
Recent publications on automatic flight controls are concentrated on neural network based adaptive c...
Recent publications on automatic flight controls are concentrated on neural network based adaptive c...
Helicopter UAVs can be extensively used for military missions as well as in civil operations, rangin...
The problem addressed in the present paper is the design of a controller based on an evolutionary ne...
The design of a dynamic neurocontroller with good robustness properties is presented for a multivari...
The energy efficiency and flight endurance of small unmanned aerial vehicles (SUAVs) can be improved...
The paper presents the development of modelling and control strategies for a six-degree-of-freedom, ...
A neural network (NN) based output feedback controller for a quadrotor unmanned aerial vehicle (UAV)...
The paper presents the designed prototype for a highly nonlinear, multi-input-multi-output aerodyna...
Traditional control methods are inadequate in many deployment settings involving autonomous control ...
In this work, a new intelligent control strategy based on neural networks is proposed to cope with s...
Abstract: This paper presents a theoretical mechanical model of an unmanned aerial vehicle...
In this thesis, the problem of controlling a quadrotor UAV is considered. It is done by presenting a...
This paper proposes a Neurocontrol (NNC) for a Twin Rotor Aerodynamics System (TRAS) by a simple bac...
This thesis presents the development of small, inexpensive unmanned aerial vehicles (UAVs) to achie...
Recent publications on automatic flight controls are concentrated on neural network based adaptive c...
Recent publications on automatic flight controls are concentrated on neural network based adaptive c...
Helicopter UAVs can be extensively used for military missions as well as in civil operations, rangin...