Development and Performance Evaluation of a Wireless-Operated Hydraulic Lifting System

Abstract

With improved designs, the efforts needed to achieve the desired output may be appropriately and cheaply decreased as the generating stages increase. Rotating motion may be translated into translatory motion using power screws. A wireless hydraulic lifting system is an example of a mechanism that raises and lowers loads by applying a small amount of pressure in a horizontal plane. A fraction of the load applied to the effort exerted is the operational gain of a hydraulic lifting system. Fluids in the cylinder allow the hydraulic lifting system to be handled either wirelessly or manually. A plunger within the cylinder is used to change the jack's peak, and it can be carried out manually or with the help of an integrated electrically powered motor. The research examines how the current motor hydraulic jack has been modified by adding an electric-powered circuit to optimize load-lifting efficiency. The motor is connected to the 12-volt auto battery through a regularly occurring coupling, generating power transmitted to the crank wheel, resulting in increased torque and optimized rotational speed. This is how the crank wheel is rotated on this modified layout. During each crank cycle, the piston traverses from the Top Dead Center (TDC) to the Bottom Dead Center (BDC). To accomplish this, the ram must move 4 mm and raise a maximum of 257.5 mm; the maximum capacity was five tons, and its efficiency was eighty-six percent. To minimize occupational health hazards, especially lower back injuries, this research focuses on modifying the existing hydraulic lift operation to eliminate the need for prolonged bending or squatting and enhance overall operational safety, ease, and reliability. At the end of this research, a performance evaluation was carried out on the entire system, and it was observed that the hydraulic system was successful in raising heavy load with the use of the wireless system, as opposed to the conventional manual procedure that requires rigorous human effort.