Poster Session 2025
- Home
- Amanda N. D. Adams
- Scarlet Au
- Dayakar Badri
- Alexander Chan
- Marina Chen
- Jose Collado
- Deepika Dinesh
- Danyue Dong
- Jiayi Duan
- Guilherme Fahur Bottino
- Jasmine Garcia
- McKenzie Gehris
- Ishika Gupta
- Mariss Haddad
- Anna Happel
- Kayla Hazlett
- Lauren Hutchinson
- Jordan Jensen
- Charles Jo
- María Alejandra Jové
- Tanya Karagiannis
- Younhun Kim
- Jae Sun Kim
- Helle Krogh Pedersen
- Valeria Lugo-Mesa
- Wenjie Ma
- Daniel MacDonald
- Sithija Manage
- Olivia Maurer
- Nicholas Medearis
- Steven Medina
- Maeva Metz
- Xochitl Morgan
- Jacob Nearing
- William Nickols
- Etienne Nzabarushimana
- Askarbek Orakov
- Mustafa Özçam
- Tathabbai Pakalapati
- Audrey Randall
- Yesica Daniela Roa Pinilla
- María Alejandra Rodriguez-Alfonso
- Patrick Rynkiewicz
- Laura Schell
- Jiaxian Shen
- Meghan Short
- Wilhelm Sjöland
- Daniel Sprockett
- Melissa Tran
- Benjamin Tully
- Chahat Upreti
- Akshaya Vasudevan
- Emily Venable
- Jasmine Walsh
- Dongyu Wang
- Kai Wang
- Ya Wang
- Zhongjie Wang
- Yilun Wu
- Ji Youn Yoo
Poster Session 2025
Classifying Beer Yeast Strains Using Interpretable Machine Learning and Transcriptomics
Presented By: Patrick Rynkiewicz
Saccharomyces beer yeasts are well-known for their sensory contributions to beer, but the molecular and genetic factors underpinning differences in fermentation performance and flavor profiles between yeast strains are not fully understood. Genomic comparisons offer a comprehensive, albeit static picture of the similarities and differences between ale and lager strains. In contrast, transcriptome analysis captures genetic expression in growth-specific and environmental contexts, including those relevant to fermentation such as log-phase growth and senescence. In this study, we employ comparative transcriptomics and interpretable machine learning methods to classify and highlight differences in beer-relevant gene transcription between eight brewing yeast strains with robustness to different fermentation temperatures and growth media. Our computational pipeline, herein referred to as YeasTSP, reveals discriminative patterns in expression of genes important in beer production, such as alcohol production, acetate ester biosynthesis, and thiol production. Although our study is based on a small case study sample set, the approach focuses specifically on genes relevant to yeast performance and potentially enables downstream applications like monitoring yeast performance, relating wild and engineered strains to existing strains, and identifying latent similarities and differences between strains.