Rashad Ghassani

Title: Rashad Ghassani: Innovator in Synchronous Motor Technology

Introduction

Rashad Ghassani is a notable inventor based in Toulouse, France. He has made significant contributions to the field of electrical engineering, particularly in the area of synchronous motors. His innovative approach has led to the development of a unique patent that enhances the understanding and control of motor performance.

Latest Patents

Rashad Ghassani holds a patent titled "Determining a Permanent Magnet Flux State." This invention outlines a method for determining the permanent magnet flux state of a rotor in a synchronous motor using a Variable Speed Drive (VSD). The method involves obtaining d-axis and q-axis inductance values of the motor, fixing a non-zero stator current magnitude, and controlling motor speed through a speed loop regulation in a stator current angle γ polar coordinate frame. This process aims to achieve a zero motor speed steady state corresponding to the fixed non-zero stator current magnitude, the obtained inductance values, and a no-load situation. Additionally, the method includes recording the coordinates of the reached steady state. Rashad's patent represents a significant advancement in motor technology, with potential applications in various industries.

Career Highlights

Rashad Ghassani is currently employed at Schneider Toshiba Inverter Europe Sas, where he continues to work on innovative solutions in the field of motor technology. His expertise and dedication to research and development have positioned him as a valuable asset to his company and the industry at large.

Collaborations

Rashad collaborates with Mohamad Koteich, a fellow professional in the field. Their partnership exemplifies the importance of teamwork in driving innovation and achieving technological advancements.

Conclusion

Rashad Ghassani's contributions to synchronous motor technology through his patent and work at Schneider Toshiba Inverter Europe Sas highlight his role as an influential inventor. His innovative methods pave the way for future advancements in motor control and efficiency.