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Previously Completed Projects

Low Voltage circuit for Direct Conversion Transceiver

Ultra Lower Power and High Quality Signal Generation using Nanoscale Devices

Ultra-Low Power High Data Rate Wireless Communication Link

Photo of project regarding Ultra Low Power High Data Rate Wireless Communication Link

Radiation-Tolerant SiGe BiCMOS Smart MMICs for Space Communication

Photo of project regarding Radiation-Tolerant SiGe BiCMOS Smart MMICs for Space Communication

Programmable Power Management System for Battery-less Wireless Sensor

Photo of project regarding Programmable Power Management System for Battery-less Wireless Sensor

Ka-Band Beamforming Receiver

Photo of Ka Band Beamforming Receiver

The research objective of this project is to investigate highly linear beamforming receiver for phased array communication systems operating at Ka-bands (35GHz), which cover the operating frequency ranges of direct-to-earth and deep space communications. The beamforming receiver is designed with high gain and sensitivity and consumes relatively low power.

Wireless Sensor Network for Food Quality Control

Photo of project regarding Wireless Sensor Network for Food Quality Control
photo of Wireless Sensor Network for Food Quality Control

The research objective of this project is to design wireless sensor motes for food quality control. The sensor motes will be capable of monitoring temperature, humidity, and shock impact conditions during food transportation and storage. The accumulated information can be transmitted throughout a wireless network under the Zigbee protocol. In addition, RFID technology will be integrated into the motes to allow the data transfer by RFID readers.

Design of 8-Channel Ku-band Rx and Tx Beam Formers

Photo of Design of 8-Channel Ku-band Rx and Tx Beam Formers
Photo of Design of 8-Channel Ku-band Rx and Tx Beam Formers

The research objective of this project is to develop high performance 8-channel Ku-band receive (10-13 GHz) and transmit (12.5-14.7 GHz) beam formers. The receive beam former has eight inputs, dual outputs with digitally controlled amplitudes and phases to RF steered beam outputs. The transmit beam former has eight outputs, dual inputs, driving eight element arrays with digitally controlled amplitudes and phases. MMICs, such as Low Noise Amplifier, Variable Gain amplifier, Power Amplifier and etc., can be easily employed in other transmitting or receiving communication systems.