Tag Archive for Michelle Personick

Faculty Spotlight: Michelle Personick

Michelle Personick joined the faculty this fall, and is teaching courses in Chemistry of Materials and Nanomaterials and an Integrated Chemistry Lab. (Photo by Olivia Drake)

Michelle Personick, assistant professor of chemistry, assistant professor of integrative sciences, is an advocate for Wesleyan Women in Science (WesWIS). “The more women (and underrepresented minorities) who pursue careers in the sciences, the more younger female and underrepresented students will be able to imagine themselves in those roles, and the sciences will begin to diversify,” she said. (Photo by Olivia Drake)

In this Q&A, we speak with Michelle Personick, assistant professor of chemistry, assistant professor of integrative sciences. Personick, who joined the faculty at Wesleyan in 2015, is interested in developing tailored metal nanomaterials that improve the clean production of energy and enable the efficient use of energy resources. Her work has recently been published in the journals Particle and Particle Systems Characterization and American Chemical Society Catalysis.

Q: Professor Personick, how would you describe your main research interests?

A: The main research areas in my group are controlling the shape and composition of noble metal nanocrystals, and exploring the use of these nanoparticles as catalysts to improve the efficiency and selectivity of reactions that are important in chemical industry and in energy production.

When she's not teaching or working in the lab, Michelle Personick, at right, rows crew with the Riverfront Recapture masters racing team in Hartford.

When she’s not teaching or working in the lab, Michelle Personick, at right, rows with the Riverfront Recapture masters racing team in Hartford, Conn.

Q: When did you develop an interest in chemistry?

A: I’ve always been interested in science in general, but it was more a broader interest than a specific focus on chemistry. There was actually a period of time in high school when I wanted to be a particle physicist. I chose chemistry after writing an essay about a cool new light-controlled nanoparticle cancer treatment for a class my senior year in high school.

Q: What attracted you to Wesleyan and how has your experience been here over the last couple years?

A: I had a really positive small liberal arts college experience at Middlebury, where most of my professors knew who I was and cared about how I was doing in their class. Once I decided I wanted to be a professor, I knew that was the type of environment I wanted. In the different courses I’ve taught in my first two years, I’ve found the atmosphere at Wesleyan to be well-matched to pursuing that kind of teaching philosophy. What attracted me to Wesleyan specifically are the unique research opportunities that come out of having a small, but strong, graduate program in addition to being a top-tier undergraduate institution. The advanced research instrumentation here at Wesleyan, such as the electron microscopy facility, is also crucial to our ability to successfully carry out our research. I’d always wanted to work primarily with undergraduates once I set up my own research lab, but having even just two graduate students in that lab as well makes an enormous difference in the level of research I’m able to carry out. In turn, that creates an environment in which the very talented undergraduates I’ve had in my group so far have the opportunity to work on independent projects that get published in peer-reviewed journals and that are well-received by other scientists at major conferences. It’s been very rewarding over the last two years to get our lab up and running and to begin to see the results of the hard work put in by all of my research students, undergraduate and graduate.

Research Paper by Personick, King Published in ‘Particle’ Journal

Michelle Personick, assistant professor of chemistry, and her graduate student Melissa King, are co-authors of a paper titled “Bimetallic Nanoparticles with Exotic Facet Structures via Iodide-Assisted Reduction of Palladium,” published in the journal Particle and Particle Systems Characterization, Vol. 34, Issue 5, in May 2017. The research was featured on the inside front cover of the issue.

In this study, Personick and King explain how gold–palladium tetradecapods (14-pointed nanoparticles) with an unusual combination of both well-defined concave and convex facets can be synthesized by introducing dilute concentrations of iodide during nanoparticle growth. Iodide directs the formation of the tetradecapods by increasing the rate of palladium ion reduction, which is a new role for this shape-controlling additive.

This article also was recently highlighted in Advanced Science News.

Personick Awarded Grant from American Chemical Society Petroleum Research Fund

Michelle Personick joined the faculty this fall, and is teaching courses in Chemistry of Materials and Nanomaterials and an Integrated Chemistry Lab. (Photo by Olivia Drake)

During the fall 2017 semester, Michelle Personick will teach Nanomaterials Lab and a chemistry symposia.

Michelle Personick, assistant professor of chemistry, received a two-year doctoral new investigator grant from the American Chemical Society Petroleum Research Fund (ACS PRF) to synthesize and test new metal nanomaterials designed to make industrial chemical processes more energy efficient. Her study, titled “Tailored Bimetallic Catalysts with Highly Stepped Facets for Selective and Energy-Efficient Epoxidation and Hydrogenation Reactions,” will be supported for two years with a $110,000 award.

“Global energy consumption is steadily increasing, and the chemical industry is the second largest consumer of delivered energy,” Personick said. “The chemical industry is unique in that it uses energy resources, such as petroleum and natural gas, both as fuels to heat reactors and as starting precursors or ‘feedstocks’ for the production of chemicals and materials.”

As demand for products of the chemical industry—such as pharmaceuticals, plastics, and specialty chemicals—increases, the consumption of energy in this sector increases dramatically. Most industrial chemical processes rely on a catalyst—a substance that increases the rate of a chemical reaction but is not used up in the reaction.

The goal of the funded research is to understand how tuning the shape and composition of metal nanoparticles changes their performance as catalysts in industrially important chemical transformations. The long-term objective is to apply this fundamental understanding to the design of nanoscale catalysts which make industrial chemical reactions more energy efficient and sustainable by (1) enabling the reactions to take place at lower temperatures and/or (2) eliminating the production of unwanted byproducts, such as carbon dioxide.

Personick Wins LaMer Award from American Chemical Society

Michelle Personick

Michelle Personick

Michelle Personick, assistant professor of chemistry, received the Victor K. LaMer Award from the American Chemical Society Division of Colloid and Surface Chemistry. The honor, which comes with a $3,000 monetary award, was presented at the ACS Colloid and Surface Science Symposium June 5-8 at Harvard University, where she presented a plenary talk.

The Victor K. LaMer Award is presented to the author of an outstanding PhD thesis in colloid or surface chemistry. LaMer was the editor of the Journal of Colloid Science (now the Journal of Colloid and Interface Science) from its founding in 1946 to 1965. In addition to his seminal work on colloids, LaMer’s fundamental contributions to physical chemistry have found their way into every textbook and university course on that subject.

Personick received a bachelor’s degree in chemistry from Middlebury College in 2009 and a PhD in chemistry from Northwestern University in 2013. Her doctoral thesis was titled “Controlling the Shape and Crystallinity of Gold and Silver Nanoparticles.”

A key advance of her dissertation work was the development of a comprehensive set of design guidelines for controlling the shape of gold nanoparticles via reaction kinetics and surface passivation effects. Her graduate research contributed to 15 articles published in the Journal of the American Chemical Society, Nano Letters, Science and others.

From 2013 to 2015, Personick was a postdoctoral researcher at Harvard. As a member of the Integrated Mesoscale Architectures for Sustainable Catalysis (IMASC) Energy Frontier Research Center, she studied selective oxidative transformations of alcohols on nanoporous gold alloy catalysts. In July 2015, she joined the faculty at Wesleyan where her research focuses on the synthesis of noble metal alloy nanoparticles with well-defined shapes and catalytically active high-energy surfaces.

The Division of Colloid and Surface Chemistry is one of the most active Divisions in the ACS with approximately 2,500 members throughout the world.

Personick Studies Chemistry of Noble Metals

Michelle Personick joined the faculty this fall, and is teaching courses in Chemistry of Materials and Nanomaterials and an Integrated Chemistry Lab. (Photo by Olivia Drake)

Michelle Personick joined the faculty this fall, and is teaching courses in Chemistry of Materials and Nanomaterials and an Integrated Chemistry Lab. (Photo by Olivia Drake)

In this News @ Wesleyan story, we speak with Michelle Personick, a new member of Wesleyan’s Chemistry Department.

Q: Welcome! Please fill us in on your life before Wesleyan.

A: I’ve lived in the Northeast for most of my life. I grew up in New Jersey and then moved a bit further north to go to college in Vermont. I did my graduate work at Northwestern University in Evanston, IL, which is just outside of Chicago. It was fun to be a short train ride away from Chicago and to be able to experience a new city for a few years. Then I moved back to the East coast to Cambridge, Mass. to do postdoctoral research at Harvard. I really enjoy the Boston area. I went there a lot as a kid and my best friend moved there after college, so it’s a place that’s always been home to me and it was nice to be back there for a couple of years.

Q: How did you first get interested in studying chemistry?

A: I was interested in science from a very young age, partly because my father is an electrical engineer, so I was exposed to a lot of science and engineering. In high school, I went back and forth between wanting to study chemistry and being interested in physics. As a junior in high school, I wrote a report on gold nanoparticles in cancer treatment for a science writing competition as a part of a class assignment. I got really interested in the topic of metals in chemistry while doing research for the report, and that’s when I decided on chemistry.

Q: Why did you want to teach chemistry in a liberal arts school like Wesleyan?

A: I went to Middlebury College as an undergrad, and as a student I enjoyed being able to interact with my professors and appreciated that they knew who I was and cared about how I was doing in their particular class.