Nanoscience is an area of research that focuses on the study of materials that have very, very small dimensions. Nanoscience would be boring if those tiny objects behave just like big ones. Luckily they do not. In this talk, I will explain how the nanoworld provides scientists with a rich set of materials useful for studying the new properties of small-sized matter. Emphasis will be given to the sciences and applications of colloidal nanocrystals. Examples include nano-gold, nano-semiconductors and nano-X.
Xingchen Ye, assistant professor of chemistry, takes us through emerging areas of nano technology and explains his work on colloidal nanocrystals.
Join us as Dr. Steven Ouelette (CTO, Kinasense) explains the challenges facing STEM graduates, and discusses strategies to prepare for and navigate a wide variety of emerging careers in industry.
6:30pm, Wedneday, May 31, 2017 at Bears Place, the back room
The STEM PhD Job Market: Landing a Career Requires Thinking Beyond Academia Early and Often The academic postdoctoral market has been described as a “crisis”, “bubble”, and “glut.” There are far more postdocs than the number of available careers that require academic postdoctoral training. This talk will give an overview of current data that shows why STEM PhD graduates should reconsider a postdoctoral appointment as the default career path. Strategies and resources for enhancing graduate training to promote career readiness will be discussed. Finally, a case study will be presented that demonstrates these strategies in action.
Join us as Professors Liese van Zee and Caty Pilachowski take us through the basics of imaging science as applied in astronomy, and explain how knowledge of the electromagnetic spectrum inform us about different environments in the universe. Taken together, these principles provide an ability to interpret astronomical images in order to learn about the universe and understand our physical world.
Research in the Tracey laboratory aims to understand the general principles that govern the specification and function of neuronal circuits. We study this problem using the fruitfly Drosophila melanogaster whose relatively simplified nervous system must perform many of the same computations that are carried out by our own. Despite its simplified brain, Drosophila perform an array of complex behaviors. Powerful genetic tools of Drosophila enable the dissection of neural circuits with a precision that is not matched in any other model system. Genetically encoded calcium sensors allow us to measure the neuronal activity of identified neurons while neuronal silencers and activators allow us to determine the behavioral consequences of the same activity. We are using the fly model to identify circuits and genes that function in nociception which is the sensory input involved in pain signaling. In addition, we are attempting to identify the molecules that are used in neurosensory mechanotransduction which underlies our sense of touch.