What is your educational background?

I grew up in Ankara, Turkey, and went to Ankara Fen (Science) High School. I knew from very early on, during my high school years, that I wanted to study the brain. However, there were no neuroscience majors available in any university in Turkey. So, I started my undergrad in molecular biology and genetics at Bilkent University (also in Ankara), with a full scholarship. Luckily, Bilkent had an exchange program with the University of California that allowed me to spend my junior year at UC San Diego, without having to pay tuition. I was able to take neurobiology classes from some of the foremost experts in the field, in addition to gaining valuable research experience.

After graduation, I started my Ph.D. at the University of Texas Southwestern Medical Center in Dallas, and I’ve been working with fly brains ever since. Three years into my graduate program, my advisor decided to relocate his lab to Berlin, Germany, and I followed. I spent three more years there finishing my projects. I’ve been a postdoctoral fellow at New York University for the last five years.

What brought you to the Stowers Institute? 

I saw Stowers Investigator Julia Zeitlinger, Ph.D., give a talk at the 2019 Fly Cell Atlas meeting at Janelia Research Campus and found her lab’s work to be very interesting. I invited her to give a seminar at NYU Biology in early 2022 and heard great things during her visit about the scientific environment and the incredible level of support provided for basic science at the Institute. When I visited the Institute for an interview, I was simply blown away. From the quality of science being done in each lab to the facilities and the Technology Centers, as well as the leadership’s appreciation for the importance of foundational research, I couldn’t have been more impressed.

Why are you interested in your field of research?

I’ve never found anything more fascinating to study than the brain. It is, after all, the origin of human intelligence. The brain enables us to think, feel, and (consciously) interact with the world around us. For most organs in our body, one could argue it’s relatively straightforward to understand the molecular underpinnings of their functions by simply studying the individual cell types that constitute them. However, that’s not the case when studying the nervous system.

That’s because the brain is by far the most heterogeneous tissue in terms of the number of distinct cell types it contains. Additionally, even though, at this point, we understand quite a lot about how individual neurons function, we know that the real magic lies in their interconnectedness. Perhaps even more fascinating, a lot of those connectivity patterns are encoded in the DNA. Understanding how that information is converted into a functioning brain as an animal develops is, in my opinion, one of the greatest challenges of modern science. I’m just very excited to be a part of that effort.

What inspires you to keep working in your field?

What inspired me to work in neuroscience is my desire to uncover the mysteries of the brain and the opportunities that exist as we learn more about how it works. My motivation to understand the brain’s complexities has never changed, and I don’t think it ever will. I also believe it’s a great time to be in this field. Thanks to the new and constantly improving tools that are at our disposal, the potential for discovery is enormous. If the 20th century was about quantum physics and molecular biology, the 21st century may well be the century of neuroscience.