Theoretical Physics Via Perseverance, Inspiration, Mentoring and Luck
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Yogesh Joglekar with former undergraduate student Bill Karr. Karr is now a math graduate student at University of Illinois Urbana-Champaign. CREDIT: School of Science, IUPUI |
This ScienceLives article was provided to LiveScience in partnership with the National Science Foundation.
Yogesh Joglekar, assistant professor of physics at Indiana University-Purdue University Indianapolis, works on graphene and optical waveguides with balanced loss and gain, two of the hottest fields in theoretical physics. In addition, he mentors a growing number of high school and undergraduate students who are carrying out original research that is published in top-tier physics journals. A National Science Foundation CAREER grant supports his graphene research and mentoring.
Name: Yogesh Joglekar
Age: 38
Institution: Indiana University-Purdue University Indianapolis (IUPUI)
Field of Study: Graphene, PT-symmetric lattice systems
What inspired you to choose this field of study?
When I joined the physics department in the School of Science at IUPUI in 2005, graphene had just been discovered, and I couldn’t wait to start theoretical research on it. It is fascinating that such a day-to-day material — pencil lead — serves as a prototype for testing exotic quantum field theory predictions and will also lead to new device applications within the next decade. It’s very exciting to be working in a field that has recently been recognized with a Nobel Prize.
My second research area is open systems with sources and sinks, such as light traveling in a medium with loss and gain. These systems are called ‘PT-symmetric lattice models’. A high-school student working with me in this field obtained some very intriguing predictions. As we tried to understand them, I realized that this is an ideal area to involve young students in high-level, original research.
What is the best piece of advice you ever received?
The inventor Thomas Edison said, "Success is 10 percent inspiration and 90 percent perspiration.” The best career advice I received was from my graduate advisor Allan MacDonald who paraphrased Edison a bit, and told me that “Success in research is ninety percent perseverance, five to seven percent inspiration, and the rest is luck.”
What was your first scientific experiment as a child?
The first ‘cool experiment’ I did as a child was a science project where my friends and I filled glass-beakers with different liquids to create lenses with different magnifying powers. We were all about 14 years old and couldn’t believe we could make magnifiers out of things like water and oil and use them to focus sunlight and start a fire.
What is your favorite thing about being a researcher?
Being a researcher at IUPUI allows me to explore questions that I find interesting and to discuss the questions and their possible answers with novices — high school, undergraduate and graduate students — and experts alike. The thrill of that (occasional) insight and of understanding something deeply and perhaps differently is my favorite part of the job.
What is the most important characteristic a researcher must demonstrate in order to be an effective researcher?
An effective researcher usually needs to have a combination of curiosity, the desire and ability to follow through, and a certain level of objectivity that is necessary to evaluate your results. Enthusiasm, a sense of humor, and good communication skills are also important!
CREDIT: School of Science, IUPUI
What are the societal benefits of your research?
The graphene research explores the possibilities of electric current flow without resistance and the production of a laser-like light via excitonic condensation. My research on PT-symmetric lattices explores the control and manipulation of the motion of light. Both of these studies lead to a deeper understanding of the flow of electric charges and electromagnetic waves, which is necessary — but not sufficient — for designing new electronic and optical materials.
An equally important benefit of theoretical physics research, particularly for young students, is that it teaches them critical thinking, model building and carrying out reality checks on their results. These skills are applicable to and required in any STEM discipline and beyond. Many young students remain interested or become interested in pursuing science careers as a result of hands-on research. So an important societal benefit of our research is that it is putting some bright students on paths to careers in science and encouraging others to be science literate in whatever fields they pursue.
Who has had the most influence on your thinking as a researcher?
Richard Feynman, one of the greatest teachers and a physics Nobel winner, has influenced me greatly over the past two decades. When I was in high school, I read ‘Surely You’re Joking, Mr. Feynman!’ and it solidified my decision to pursue physics. His intellectual abilities were exceptional. His curiosity and the drive to understand the world around him were superlative and so was his desire to convey the understanding of physics to the public at large. He was equally passionate about explaining subtle quantum physics and the effect of cold on O-rings, like those that doomed the Challenger space shuttle. He heavily influences my research, particularly when working with young students, and my teaching.
What about your field or being a researcher do you think would surprise people the most?
People usually think that research in theoretical physics requires graduate level training. They are surprised to learn that, given the right problems, even high school students can produce original work. The youngest student co-author in my group is a 13-year-old; we have had four other high school student co-authors on two different papers. This involvement of young students in high-level research is a surprise to most people. When people hear the term “theoretical physics” they more often think of scientific genius rather than a high school or undergraduate student.
If you could only rescue one thing from your burning office or lab, what would it be?
Being a theorist, most of the important stuff is in my head. So I would just go back for thank-you gifts from my students including an XKCD web comic poster!
What music do you play most often in your lab or car?
I grew up in Mumbai (Bombay) with Marathi as my native language; I went to IIT Kanpur where Hindi was the primary language, and then came to the US where English is the main language. So my music is an eclectic collection across these three languages. I am especially partial to classical (both Indian and Western) and classic rock.
Editor's Note: The researchers depicted in ScienceLives articles have been supported by the National Science Foundation, the federal agency charged with funding basic research and education across all fields of science and engineering. Any opinions, findings, and conclusions or recommendations expressed in this material are those of the author and do not necessarily reflect the views of the National Science Foundation. See the ScienceLives archive.
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