The theory of fractional differential equations is a branch of differential equation theory, which occurs more frequently in different research areas and engineering, such as fluid mechanics, control system, viscoelasticity, chemistry, electromagnetic, etc. (see [1 5]).
So far, in view of their various applications in science and engineering, such as fluid mechanics, control system, viscoelasticity, porous media, edge detection, optical systems, electromagnetism and so forth, see [1] [15], fractional differential equations have attracted great attention of mathematicians.
The automated respiratory mechanics control system titrates PEEP and VT automatically until intratidal compliance reaches its maximal value within an appropriate VT.
Fractional order differential equations play a vital role in describing many phenomena related to physics, chemistry, mechanics, control systems, flow in porous media, electrical networks, mathematical biology and viscoelasticity.
Fractional order differential equations have been of great interest recently because they play a vital role in describing many phenomena related to physics, chemistry, mechanics, control systems, flow in porous media, electrical networks, mathematical biology and viscoelasticity.
With the development of fractional calculus, fractional differential equations have wide applications in the modeling of different physical and natural science fields, such as fluid mechanics, chemistry, control system, heat conduction, etc.
Such method should be used by a multidisciplinary team composed of experts in aeronautics, mechanics, electronics, control systems, and embedded computer systems.
Fractional order differential equations plays an important role in describing many phenomena and processes in various fields of science and engineering such as mechanics, chemistry, control systems, dynamical processes, viscoelasticity, and so forth.
This includes design of the mechanics and the control system of the robot.
Other causes of failure to wean from mechanical ventilation are due to the respiratory control system, mechanics of the lung and chest wall, the respiratory muscles, the cardiovascular system, and gas-exchange properties of the lung [ 22].
Typical disciplines of interest include flight physics and aerodynamics, aeroelasticity and structural mechanics, aeroacoustics, structures and materials, flight mechanics and flight control, systems, flight guidance, air traffic management, communication, navigation and surveillance, aircraft and aircraft design, rotorcraft and propulsion.
