Design and Analysis of a Flywheel Using Solid Works

Abstract

Kinetic energy is stored in the form of rotational motion by a mechanical device known as a flywheel. Understanding the working conditions of a flywheel, its material properties, and its mathematical limitations is necessary for its ideal planning. To alter the stored energy, the flywheel's rotational speed must be altered. A significant amount of kinetic energy is saved when the flywheel turns and is used to start the engine or move the vehicle forward. Carbon fiber composites and an appealing direction are used in high-energy thickness flywheels. Flywheels stop the engine's side-to-side motion because of their high weight, which aids in engine balance. To lessen radial tensile stresses, hybrid rotors made of composite materials of varying stiffness and density have been utilized. Because it is connected to a starting motor, the flywheel moves when the engine is started. The weight of the flywheel affects the performance of an engine; heavier flywheels experience stresses that would otherwise slow it down. Crossover rotors made of composite materials of shifting firmness and thickness have been utilized to lessen spiral elastic anxieties. As Energy Storage Systems (FESS), they can be used to store excess energy from a variety of sources (the main grid, wind, and solar power plants, and so on). as kinetic energy in a rotating disk. On a fundamental level, each turning thing that stores some engine energy might be insinuated as a flywheel, yet it is as of now recognized use that the saying "flywheel" implies a turning, chamber object with a minimum amount whose fundamental capacity is to store energy or addition the preview of lethargy of a particular structure.