FPGA Based Controller Drive of BLDC Motor for Electric Vehicle Applications | Chapter 2 | Advances and Challenges in Science and Technology Vol. 8

 In Electric Vehicles (EVs), the engine which is working plays an extremely important act on the comprehensive acting of the vehicle. The genuine control and performance of the vehicle predominantly depends on the type of the motor and allure drive which is used to control the engine. Greater efficiency, speedy range and less noise are the main benefits of Brushless DC motors when compared to different types of electric motors. The objective concerning this work is to cultivate a Field Programmable Gate Array (FPGA) based control drive for BLDC motors that can be achieved in electric automobiles. Brushless DC motors are being employed significantly in modern and automotive applications. Brushless DC motors further require substitution like brushed DC motor, but the main dissimilarity is BLDC motors have electronic substitution which increases the effectiveness and performance of the motor. FPGA-located motor control drives are secondhand as other alternatives for MCU and DSP. The benefits that FPGAs can offer are the ability to use rule pulse-width timbre (PWM), simple component unification, higher control-loop frequency range, lesser components and taller dependability. FPGAs still succeed in evolving methods which power help in decreasing the deficits in both engine and power converter.

Author(s) Details:

Femi R.,
Department of Electrical and Electronics Engineering, Faculty of Engineering and Technology, SRM Institute of Science and Technology, Kattankullathur, Chennai-603203, Tamil Nadu, India.

Please see the link here: https://stm.bookpi.org/ACST-V8/article/view/12356

Utilizing the Reactional Torque of the Conventional Electric Motor as a Linear Output for Propulsion: A Novel Idea | Chapter 4 | Advances and Challenges in Science and Technology Vol. 6

 The reactional turn of a normal electric engine, in addition to the rotor's typical torque output, is bestowed in this study as a singular approach for propulsion. Electric motors play a crucial function in modern technical and domestic applications. With the current of more and more electric drives, to a degree electric boats (EVs), the requirements for electric motors enhance higher and taller, e.g., high capacity density with good warm dissipation and extreme reliability in harsh atmospheres. A theoretical suggestion to linearize the stator of one of the most favorite motors in electrical and composite vehicles serves as an example of the idea. The suggested linear stator engine is a straightforward improve that doesn't include any working adjustments to the standard engine. Though theoretical, the indicated likely input strength saving of more than 75% as distinguished to the conventional motor is no surprise, as by linearizing the stator, an nearly equal linear force output is added to the common rotor output. In addition to this extraordinary saving in input strength, the proposed Linear Stator Motor that suits all types of vehicles, can claim propulsion outside the need for a mechanical transmission order. Also, in the case of watercraft and airplane vehicles, no external machinelike propulsion drive arrangement is required and in the case of space arts no fuel shooting out is required. It is just an within force that can push the vehicle forward, late, or laterally, while the conventional rotor out- set can be employed for energy recovery by forceful a DC generator.

Author(s) Details:

Salah Abunaieb,
Sogex Oman LLC, Muscat, Sultanate of Oman.

Please see the link here: https://stm.bookpi.org/ACST-V6/article/view/12131