Matias Oyarzun will give a tutorial on how to correctly use the Laser Displacement Sensor which is typically used to measure vibrations. All of IMG is encouraged to attend.
Refreshments will be provided.
Guest speaker Mike Siemer, the owner of Mydea Technologies, will speak to IMG about modern day rapid prototyping methods and the rapid prototyping capabilities of Mydea Technologies. Sample fabricated specimens will be available to see during the seminar. All of IMG is encouraged to attend.
Refreshments will be provided.
Please note that this week's seminar is from 4PM (not 3PM) due to speaker's conflict.
Snacks and drinks will be served
Speaker: David Senior
Abstract: Highly compact metamaterial devices are demonstrated by combining the composite right-left handed transmission line approach with a multilayer surface micromachined fabrication processusing SU8 as a dielectric layer. Multiband microwave metamaterial applications for ISM frequencies of 2.4GHz and 5.8GHz are implemented The use of microfabrication techniques eliminates the necessity of using surface mounting device (SMD) based lumped components and makes the CRLH structures compatible and integrable with CMOS/MEMS processes while allowing batch fabrication of multiple devices.
Please note that this week's seminar is from 4PM (not 3PM) due to speaker's conflict.
Snacks and drinks will be served
Speaker: Cheolbok Kim
Abstract: Modern satellite communication systems often demand low-profile, wide bandwidth, high gain, and circular polarization antennas. For this applications, a high gain circular polarization antenna with metamaterial slabs has been proposed. Metamaterial slabs having periodic circular lattices have been used to focus beam while fan-shaped patches are added on the slabs to generate circular polarization. The proposed antenna has shown a good axial ratio at the resonant frequency band. It also has shown a simulated gain improvement and transmission gain improvement. In addition, the left/right handed polarization is simply controlled by turning over metamaterial slabs.
Speaker: PitFee Jao
The direction of cell growth is associated with chemical, structural and/or mechanical properties of the substrate. Structurally, electrospun nanofibers provide a suitable environment for cell attachment and proliferation due to their similar physical dimension to that of the extracellular matrix. Furthermore, by modulating the topographical features of nanofibers, which include fiber diameter and orientation, cell growth and its related functions can be modified. Here, we demonstrate a solid gradient scaffold for directional growth of spiral ganglion neurons (SGNs).
Tai-An Chen will present his proposal on "A Micromachined Floating Element Shear Stress Sensor Using Moire Transduction for Harsh Environments." All are welcome to attend.
Refreshments will be provided.
Brandon Bertolucci will present "An Experimental Investigation of the Grazing Flow Impedance Duct for Acoustic Liner Applications." All are welcome to attend.
Refreshments will be provided.
Guest speaker Prof. Kee-Keun Lee will give a brief IMG seminar. Prof. Lee is a visiting Associate Professor, Department of Electronics Engineering, Ajou University, South Korea.
This Wednesday, Jared Allen will be giving a seminar on the LabVIEW programming language. LabVIEW is a very useful tool for data acquisition, analysis, and control. This seminar will discuss different program architectures that can greatly increase performance and reliability. Some useful tips, shortcuts, and program features will be explained.
Note: Drinks and snacks will be provided.
IMG's own Dr. Z. Hugh Fan will give a Mechanical and Aerospace Engineering department seminar entitled Microfluidics and Enabling Components.
Microfluidics is to study fluids at the microscale. It is a field that promises to reach the holy grail of "lab-on-a-chip". In analogy to shrinking a computer from the size of a room in the 1950s to a laptop today, instruments for chemical and biological analyses may be miniaturized into microfluidic devices using modern microfabrication technology.