The combined energy storage and attitude control system (CEACS) combines both energy storage and attitude control modules via the flywheel technology. Previously only the conventional control methods were tested for CEACS. In this paper, H2 and H-infinity control methods are implemented in CEACS. The satellite attitude control performances show that both control options can be employed for a good attitude pointing accuracy
One of the most important problems in satellite design is that of attitude control. An architecture...
The energy storage and attitude control subsystems of the typical satellite are presently distinct a...
AbstractThe control law of the flywheel in an integrated power and attitude control system (IPACS) f...
A combined energy and attitude control system (CEACS) is a hybrid system that uses flywheels to stor...
Small satellites for earth observation missions have received attention in the recent years for furt...
Combined Energy Storage and Attitude Control System (CEACS) is a new satellite system developed usi...
This paper extends the previous works that appeared in Acta Astronautica. An approach that incorpora...
The combined attitude and thermal control system (CATCS) combines the conventional attitude control ...
The spacecraft missions are becoming more challenging in the recent years. Additionally, the require...
A hybrid system combining the energy and attitude control task uses flywheels to store energy and co...
Attitude control and power storage subsystems are two of the essential utilities provided on a satel...
Spacecraft missions need efficient and precise attitude control systems. With the aim of reducing th...
Since the beginning of space history new innovative ideas have been driving space scientists to deve...
This work presents the first known energy storage and attitude control subsystem (ESACS) for small s...
Purpose: The satellite pointing accuracy plays a crucial role in ensuring a successful satellite mis...
One of the most important problems in satellite design is that of attitude control. An architecture...
The energy storage and attitude control subsystems of the typical satellite are presently distinct a...
AbstractThe control law of the flywheel in an integrated power and attitude control system (IPACS) f...
A combined energy and attitude control system (CEACS) is a hybrid system that uses flywheels to stor...
Small satellites for earth observation missions have received attention in the recent years for furt...
Combined Energy Storage and Attitude Control System (CEACS) is a new satellite system developed usi...
This paper extends the previous works that appeared in Acta Astronautica. An approach that incorpora...
The combined attitude and thermal control system (CATCS) combines the conventional attitude control ...
The spacecraft missions are becoming more challenging in the recent years. Additionally, the require...
A hybrid system combining the energy and attitude control task uses flywheels to store energy and co...
Attitude control and power storage subsystems are two of the essential utilities provided on a satel...
Spacecraft missions need efficient and precise attitude control systems. With the aim of reducing th...
Since the beginning of space history new innovative ideas have been driving space scientists to deve...
This work presents the first known energy storage and attitude control subsystem (ESACS) for small s...
Purpose: The satellite pointing accuracy plays a crucial role in ensuring a successful satellite mis...
One of the most important problems in satellite design is that of attitude control. An architecture...
The energy storage and attitude control subsystems of the typical satellite are presently distinct a...
AbstractThe control law of the flywheel in an integrated power and attitude control system (IPACS) f...