MEMS based ultrasonic transducers offer great opportunities in the realization
of integrated ultrasonic systems for diagnosis and therapy. Owing to the fact
that close integration is a must for signal fidelity, improved performance
calls for the design of application specific integrated circuits (ASICs). This
makes the co-design of MEMS transducers and the associated electronics a very
exciting research field.
Analytical and Numerical Modeling of MEMS devices.
Design and Manufacturing of MEMS based Ultrasonic Transducers
Analog/Digital and High-voltage IC Design for Transducer Interfaces
Micro/Nano Devices & Systems Lab (SU-MEMS) employs novel micro/nanofabrication technologies to develop miniaturized devices, sensors & actuators in an effort to solve interdisciplinary problems in biomedical sciences, electronics and nanotechnology. Our research activities are centralized around four major areas:
Micro/Nano Electro Mechanical Systems (M/NEMS), Micro Sensors and Actuators
Radio Frequency and Millimeter-wave Antenna and Circuits Design
Group's research areas cover various topics of microwave engineering especially designing antennas and RF active circuitry. Researches include both theoretical and practical phases. To conduct practical experiment, there are well-equipped and high-tech laboratories, like SUNUM, at Sabanci University. Having millimeter-wave (W-band) setup makes it possible to do antenna and circuit measurement. Automotive radar at 77GHz is group's ongoing major project. This high tech radar system can be used at cars for collision avoidance, park aiding and navigation. This project includes designing antenna, LNAs, phase shifter and etc at W-band frequency range.
General research interests include:
Antenna and Propagation Modeling
RF integrated circuits design
Millimeter wave antennas and circuits measurement setup
SiGe BiCMOS Technologies with “More-than- Moore” Modules for mm-wave and THz Applications
In last decade, SiGe BiCMOS technologies open a new cost-efficient market at mm-wave frequencies. Starting with the commercial use of automotive radars at 77 GHz, the market now has a strong interest on radar, sensor and imaging products at mm-wave and sub-THz frequencies. The latest developments on SiGe HBTs with fmax of beyond 700 GHz boosts the research and development effort on circuit and system area to take share from the new market. In parallel to the developments on SiGe HBT performance, “More-than-Moore” path, which covers all the additional functionalities to the standard CMOS process (i.e. MEMS devices, microfluidics, etc…), allows to realize multi-functional circuits and systems.
Our research activities are running under the IHP – Sabanci University joint lab (http://www.ihp-microelectronics.com/en/joint-labs/sabanci-university-istanbul/overview.html) and covers the following research themes:
SiGe BiCMOS based mm-wave and THz semiconductor technologies
RF Micro-Electro-Mechanical-Systems (RF-MEMS)
mm-wave and THz silicon based device and circuit design
Heterogeneous Integration and System-in-Package (SiP) technologies for high frequency electronics
THz sensor and microfluidics applications for bio-electronic systems