The School of Science and Engineering hosts this series of lectures on major topics of current scientific interest in Science, Technology, Engineering and Math (STEM). These lectures, each designed for a general scientific audience, are given by recognized scholars from around the country. The public is cordially invited to these lectures at no charge.
John Harrington was the founding dean of the SUNY New Paltz School of Science & Engineering. This lecture series honors his years of dedication to science, education and collaboration across the STEM disciplines.
For further information, please email firstname.lastname@example.org or call 845-257-3784.
All lectures take place in Science Hall, Room 181, at 5 p.m. A casual reception with light refreshments will begin at 4:30 p.m.
October 18, 2022
Dr. Jacqueline Austermann
Columbia University, Lamont-Doherty Earth Observatory
How Much Will Sea Level Rise? Diving Into the Past to Predict Future Change
With millions of people living along the coastline, sea level rise is a pressing issue for people and cities around the globe. As temperatures continue to rise, we need to know: how much will sea level rise? In my research, I try to understand how sensitive ice sheets are to warming and what sea level change they cause when they melt. In this talk I will describe what we know about current sea level change and why it varies across the globe. For example, I will explain why sea level rises faster along the U.S. east coast than most places around the world and why New York City will be affected more by Antarctic ice melt than by Greenland ice melt. To understand ice sheet response to warming I reconstruct sea level changes over thousands and millions of years, particularly during times when temperatures where naturally warmer than they are today. I will take you on a virtual field trip to the Bahamas to show you what ancient shorelines look like and what we can learn from them about Earth’s future.
November 15, 2022
Dr. Amy Marschilok
Co-Director, Institute for Energy Sustainability and Equity; Associate Professor, Department of Chemistry, SUNY Stony Brook
Scientist and Division Manager, Interdisciplinary Science Department, Brookhaven National Laboratory
Energy Storage: A Keystone for a Sustainable, Equitable Energy Future
Energy is a necessity which touches every aspect of our modern lives. Access to clean, affordable energy directly scales with quality of human life. While the electrical grid and the automobile have been recognized as two of the greatest engineering achievements of the 20th century (NAP 2003), electric power and transportation remain the two largest U.S. sources of greenhouse gas emissions in the 21st century (EPA 2022). There is significant opportunity for decarbonization through greater utilization of solar and wind energy resources. However, reliable storage and release of the energy on demand is essential to achieve effective integration of these renewable but intermittent energy sources. The critical role of electrochemical energy storage systems (batteries) as a keystone for a sustainable energy future will be described in this presentation. The demands of different applications and the opportunities presented by different battery chemistry and materials science solutions will be discussed. The criticality of in-situ and operando approaches to understand battery function under application relevant use cases will be highlighted.
February 28, 2023
Speaker will be virtual
Dr. Michael Levin
Distinguished Prof., Biology and Biomedical Engineering
How do cells build a complex body during embryogenesis? How do some organisms such as salamanders and planaria re-build damaged organs throughout their lifespan? These questions are not only critical for the future of regenerative medicine but are closely tied to the most profound question of all: how does a complex mind emerge from the physics of cellular processes during the brief process of development? In this talk, I will discuss the notion of basal cognition - the scaling of decision-making, memory, and goal-directedness from cells to whole organisms. I will discuss our work on bioelectric networks (among all cells, not just neurons) as the cognitive glue that binds cells toward common purpose in creating and repairing complex anatomies. I will show how the genomically-specified hardware of cells gives rise to a remarkable, reprogrammable software that controls growth and form, and how this software can be exploited for repair of birth defects, regeneration of damaged organs, cancer suppression, and even the construction of new synthetic life forms.
March 7, 2023
Dr. Vincent Martinez
Assistant Professor, Dept. of Mathematics and Statistics
CUNY Hunter College
Turbulence occurs everywhere, from the mundane to the spectacular, in smoke emanating from a pipe or the wake of a fastball, to the gas ejected from black holes that helps to form galaxies around us. Despite its ubiquity and the fact that the equations of motion that describe how a fluid flows were written down more than 200 years ago, turbulence remains one of the great unsolved problems of physics. This talk will present a short account of the study of turbulence and the fundamental issues we are confronted with from a mathematician’s point of view.
April 4, 2023
Dr. Simon Wing
Johns Hopkins University
A grand tour of space wonders from the Sun to Saturn is presented, including sunspots, aurora, space storms, space weather, and strange radio waves emitted by planets. Most of these phenomena are manifestations of complex nonlinear physical systems. These systems can be characterized as input-output or causal-effect problems in which multiple input variables can be linearly and nonlinearly causally related to multiple output variables. Isolating the effect of an individual input variable or driver can be challenging. Likewise, identifying the response to a particular input variable can be nontrivial in such system. Information theory can help untangle the drivers, describe the underlying dynamics and response, and offer constraints to modelers and theorists, leading to better understanding of the system. To illustrate the methodology, a few examples from space are presented: (1) identifying causalities in the solar dynamo problem; (2) untangling the drivers of the solar wind–radiation belt system; and (3) identifying the source of the periodic radio wave emissions at Saturn. Implications to other stellar systems and exoplanets are discussed.