From Sample to Solution: The Smash Study

Location

CoLab, COM 241

Start Date

30-4-2026 12:00 PM

Document Type

Poster

Description

Research towards discovering new bacteria that can inhibit harmful pathogens is crucial for finding future treatment options, especially since antibiotic resistance is a growing global health threat. I collected a soil sample from the Stonepost Lakeside Apartment environment because everyday locations like apartment complexes can contain diverse soil microbes that may produce antibiotic compounds, while still being safe and accessible. Over the semester, I used serial dilutions of my soil, created a master plate of isolated colonies, and repeatedly screened twelve candidates against six different safe relatives of the ESKAPE pathogens. So far, most isolates have not inhibited the test strains, but three of my candidates have shown positive results. I have identified my final candidate, “Smash”, using a combined genetic and metabolic approach, and this work contributes to the broader Tiny Earth effort to discover new antibiotic-producing bacteria from local soil.

Comments

The faculty mentor for this project was Heather Seitz.

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Apr 30th, 12:00 PM

From Sample to Solution: The Smash Study

CoLab, COM 241

Research towards discovering new bacteria that can inhibit harmful pathogens is crucial for finding future treatment options, especially since antibiotic resistance is a growing global health threat. I collected a soil sample from the Stonepost Lakeside Apartment environment because everyday locations like apartment complexes can contain diverse soil microbes that may produce antibiotic compounds, while still being safe and accessible. Over the semester, I used serial dilutions of my soil, created a master plate of isolated colonies, and repeatedly screened twelve candidates against six different safe relatives of the ESKAPE pathogens. So far, most isolates have not inhibited the test strains, but three of my candidates have shown positive results. I have identified my final candidate, “Smash”, using a combined genetic and metabolic approach, and this work contributes to the broader Tiny Earth effort to discover new antibiotic-producing bacteria from local soil.