Adeoye AOOladapo BIAdekunle AAOlademeji AJKayode JF2022-07-272022-07-27201910.1016/j.jmrt.2017.07.0052238-7854https://nerd.ethesis.ng/handle/123456789/352Journal of Materials Research and TechnologyThis work proposes a Model design simulation and implementation of a novel engine of an Electric Hybrid Vehicle of Permanent Magnet Synchronous Motor (EHVPMSM) based on field oriented vector control. The experimental analysis was carried out using: automotive motor control MTRCKTSPS5604P, 3-Phase PMSM coded of a single Motor Control Kit with MPC5604P MCU and simulation with Simulink. Therefore, the direct torque control can be obtained by adjusting the magnitude and phase angle of the stator flux linkage to match the vector torque required by the load as fast as possible. This eradicates the stress of charging the vehicle battery. It automatically charges when it is connected to the main supply of the EHVPMSM. The electromagnetic torque can be increased from 0Nm to 6.7Nm in approximately 340μs. The response of speed transient was from −2100rpm to +2100rpm in 100ms of 6.7Nm torque limit. This is a novel way of conserving the energy consumption in a vehicle, which conserves space and weight and minimizes cost as it is simply done with low-cost materials. In this research, a new mathematical model is proposed for the direct and quadrature axis of the current to control the speed mechanism for the engine. Computer simulation ensures experimental validation of the system with a percentage error of 4.5%. The methodology employed to control the system was with the use of various sensors and software controller, this can be easily implemented in industry and institutional laboratory of learning.enPermanent magnet machinesPIDEHVPMSMVector controlHybrid vehicleArticle