Electric motors are essential in many applications in our everyday lives, providing power to a diverse array of gadgets and machines. In light of the growing global emphasis on sustainable practices, the pursuit of energy-efficient solutions has emerged as a top priority. Our study focuses on the hysteresis phenomena in electric motor behavior, aiming to discover techniques to improve energy conservation in these important devices. The hysteresis phenomenon in electric motors is characterized by a time delay in reaction to changes in input. Having a thorough knowledge of this effect and taking measures to mitigate it may have substantial consequences for improving energy efficiency. This study utilizes a mathematical model of Permanent Magnet Synchronous Motors as the basis for our inquiry. In addition, we use the capabilities of Matlab software to thoroughly examine the complex correlation between the application of hysteresis and the resulting torque in electric motors. Through careful examination of the simulated data, our objective is to identify the ideal frequency that promotes energy efficiency in electric motors. The knowledge acquired from our simulations has the potential to be used in practical ways. By determining the specific frequency, we may apply this information to real-life situations, enabling the adoption of energy-efficient techniques in genuine electric motors. This discovery not only enhances the theoretical comprehension of electric motor dynamics but also has practical implications for energy conservation. The consequences of our results have broader applications beyond simulation, providing concrete advantages for the design and functioning of electric motors. Ultimately, this contributes to a more sustainable and energy-efficient future.