Ming C. Wu (Advisor)

Research Advised by Professor Ming C. Wu

Shao Ning Pei

Alumni
Electrical Engineering and Computer Sciences
Professor Ming C. Wu (Advisor)
Ph.D. 2015

Optofluidic Devices for Droplet and Cell Manipulation

Shao Ning Pei
Ming C. Wu
Michel M. Maharbiz
Amy Herr
2015

The field of lab-on-a-chip offers exciting new capabilities for chemical and biological assays, including increased automation, higher throughput, heightened sensitivity of detection, and reduced sample and reagent usage. This area of study has seen remarkable progress in the last decade, with applications ranging from drug development to point-of-care diagnostics. The research presented herein focuses on the development of semiconductor-based optoelectrowetting (OEW) and optoelectronic tweezers (OET) platforms, which can respectively perform operations on droplets and cells/...

Ryan Going

Alumni
Electrical Engineering and Computer Sciences
Professor Ming C. Wu (Advisor)
Ph.D. 2015

Ultra-Low Energy Photoreceivers for Optical Interconnects

Ryan Going
Ming C. Wu
Eli Yablonovich
Constance Chang-Hasnain
Junqiao Wu
2015

Optical interconnects are increasingly important for our communication and data center systems, and are forecasted to be an essential component of future computers. In order to meet these future demands, optical interconnects must be improved to consume less power than they do today. To do this, both more effcient transmitters and more sensitive receivers must be developed. This work addresses the latter, focusing on device level improvements to tightly couple a low capacitance photodiode with the first...

Michael Eggleston

Alumni
Electrical Engineering and Computer Sciences
Professor Ming C. Wu (Advisor)
Ph.D. 2015

Phillip Sandborn

Alumni
Electrical Engineering and Computer Sciences
Professor Ming C. Wu (Advisor)
Ph.D. 2017

Understanding and Engineering Surface and Edge Defects of Transition Metal Dichalcogenides

Peida (Peter) Zhao
Ali Javey
Ming C. Wu
Daryl Chrzan
2018
Since the inception of solid state semiconductors and device fabrication techniques, continuous scaling has been implemented as a key driver behind realizing faster electronics while optimizing for power consumption, improving the field in an exponential fashion (i.e. Moore’s Law) and facilitating modern technological advances that otherwise would have been impossible. In recent years, transistor gate length...

Kevin Han

Alumni
Electrical Engineering and Computer Sciences
Professor Ming C. Wu (Advisor)
Ph.D. 2019

BPN703: High-Speed nanoLED with Antenna Enhanced Light Emission

Seth A. Fortuna
Kevin Han
Nicolas M. Andrade
2019

Traditional semiconductor light emitting diodes (LEDs) have low modulation speed because of long spontaneous emission lifetime. Spontaneous emission in semiconductors (and indeed most light emitters) is an inherently slow process owing to the size mismatch between the dipole length of the optical dipole oscillators responsible for light emission and the wavelength of the emitted light. More simply stated: semiconductors behave as a poor antenna for its own light emission. By coupling a semiconductor at the nanoscale to an external antenna, the spontaneous emission rate can be...

Chip-scale Lidar

Behnam Behroozpour
Bernhard E. Boser
Ming C. Wu
Liwei Lin
2016

The superiority of lidar compared to radio-frequency and ultrasonic solutions in terms of depth and lateral resolution has been known for decades. In recent years, both application pull such as 3D vision for robotics, rapid prototyping, self-driving cars, and medical diagnostics, as well as technology developments such as integrated optics and tunable lasers have resulted in new activities. Pulsed, amplitude-modulated continuous-wave (AMCW), and frequency-modulated continuous-wave (FMCW) lidars can all be used for ranging. The latter option enables excellent depth resolution at the...