F&M Stories

Research Fair: Student Samples Sounds With Synthesizers, Space

With electronic keyboards, synthesizers and computer software programs, Amanda Peterson explores electronic music and natural sounds to create her composing project.

"It's the intersection of the natural sounds you might hear with something that's not acoustic, but electronic," the Franklin & Marshall College Hackman Scholar said.

In her self-designed research encouraged by Matthew Butterfield, professor of music and Roschel College House don, Peterson used the research funds she received to purchase the electronic equipment and software she needed to compose and record her music.

"I wanted exposure to the technology and figuring out what kind of sounds I like and how to use those sounds," said Peterson, who plays the flute and piano.

As she sat at a Yamaha keyboard console in Butterfield's College House office, the senior English and music double major explained the purpose of her work.

"I was really interested in electronic music, basically anything that uses synthesizers, computers, things that could be made without an acoustic instrument," Peterson said. "I wanted to see how they play with space and time because synthesizers aren't real sounds."

Synthesizers imitate musical instruments, but can also be programmed to create sounds heard in nature and the real word, Butterfield said.

"With sound production technology, you can take sounds from the environment and transform them in some way—compressing them, filtering them—to defamiliarize them," Butterfield said. "In doing that, you offer a different perspective on those sounds and the spaces they're typically heard in."

To see how she could create different spaces, Peterson used samples of sounds from everyday life to see the interaction with electronic music.

"So I put together the sound of people walking with the synthesizer sounds," she said. "What kind of feeling or mood does that create? Is that something reminiscent of real life or does it take us out of reality?"

Butterfield explained that her composition is more layered then just those sound sources. "That's part of it, but also getting some drum loops and other kinds of sounds in there to enhance the texture of the environment. It's some really cool stuff that she's come up with," he said.

Peterson has several compositions that she continues to work on for honors consideration in the Department of Music and plans to become a music history professor. She was enlightened by the research and work composing and recording.

"It really changed how I listen to music as a whole because once you learn production software and the different effects and filters, you start to hear that in regular music whether it be electronic or pop music on the radio," she said. "It changes your understanding and appreciation of how much work actually goes into producing songs."

Related Articles

April 1, 2026

Tackling the Impacts of Ocean Climate Change Through High-Performance Computing

Pennsylvania may be landlocked, but geography is no barrier for this Franklin & Marshall marine biochemist. By leveraging a powerful supercomputer, Peter Fields and his student researchers are tackling ocean climate change from the heart of Lancaster.

March 24, 2026

Seat at the Table: Students Work Alongside National Experts on the F&M Poll

Led by two faculty mentors, Franklin & Marshall juniors and seniors with a keen interest in political polling, civics, and voter sentiment meet weekly to discuss best practices and trends in polling, how to analyze and contextualize results, and even take a hand in crafting the wording of poll questions. It’s a prime example of the type of real-world, hands-on experiences that build the kind of high-demand skills that prepare F&M students to excel in industry or graduate school.

March 13, 2026

Mapping the Cosmos with F&M’s Supercomputer

How do you find a needle in a galactic haystack? Fronefield Crawford is harnessing the computational strength of F&M’s High-Performance Computing (HPC) cluster to pinpoint the location of rotating stars in our neighboring galaxies.