Khaligh, McCluskey receive Boeing funding for more electric aircraft

Khaligh, McCluskey receive Boeing funding for more electric aircraft

Khaligh, McCluskey receive Boeing funding for more electric aircraft


Associate Professor Alireza Khaligh’s (ECE/ISR) research group has received a new round of funding from The Boeing Company to develop an innovative Gallium Nitride (GaN) semiconductor-based modular power electronic solution for more electric aircraft. This project continues the collaboration between MPEL and Boeing, which has already yielded a Silicon Carbide-based RTRU that is 40 percent lighter and 8 percent more efficient than the current state of the art.

In collaboration with Professor Patrick McCluskey (ME) at the Center for Advanced Life Cycle Engineering (CALCE), the team at the Maryland Power Electronics Laboratory (MPEL) is developing the world’s first wide-bandgap GaN-based modular Rectified Transformer Rectifier Units (RTRU) for commercial aircraft such as the Boeing 787. An RTRU converts AC power generated by (for example) the aircraft's engine or APU generators, for use by various electrical components of the aircraft.

With research on novel circuit topologies and innovative switching schemes enabled by the next-generation wide-bandgap GaN power transistors, the researchers are hopeful they can reduce the RTRU volume by a further 30 percent, while boosting overall reliability and performance of the power electronic system. 

About more electric aircraft

Aircraft use a variety of power sources in their non-propulsive systems—hydraulic, pneumatic, mechanical and electrical. To optimize performance, decrease operating and maintenance costs, increase reliability and reduce fuel emissions, the aircraft industry is developing aircraft that use electric power for all non-propulsive systems. This concept is known as “more electric aircraft.”

This push, which is accelerating, is made possible by recent technological advances in power electronics, fault-tolerant architecture, electro-hydrostatic actuators, flight control systems, high density electric motors, power generation and conversion systems. More electric aircraft are critical in unlocking significant improvements in weight, fuel consumption, total life cycle costs, maintainability and aircraft reliability.

 

Related Articles:
Khaligh, McCluskey to lead new $2.37M DOE solar power converter project
Khaligh-led student team wins award at IEEE IFEC competition
UMD Researchers Creating First Onboard Fast-Charging System for Electric Vehicles
DW News Interviews Khaligh on Electric Vehicle Trends
Milchberg and Khaligh Receive 2016 Junior and Senior Faculty Outstanding Research Awards
Pecht Receives 2016 IEEE Components, Packaging and Manufacturing Technology Award
Pecht Wins Distinguished Scientist of 2015 Award from the Chinese Academy of Sciences
Pecht Receives Distinguished Achievement Award
Mechanical Engineering PhD Student Receives ARCS Foundation Scholarship
Khaligh receives NSF TUES grant for electric vehicles laboratory

February 19, 2018


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