Feridun Mert Celebi, Keith Cheveralls, Seemay Chou, Tara Essock-Burns, and Galo Garcia III
KC
SC
TE
Published: Nov 17, 2023
We distilled label-free microscopy data by comparing and implementing feature-detection algorithms. Sobel and Laplacian methods outperformed pixel intensity variance in accuracy.
Prachee Avasthi, Feridun Mert Celebi, Keith Cheveralls, Seemay Chou, Ilya Kolb, and David Q. Matus
KC
SC
AH
+5
Published: Dec 02, 2023
Machine learning is a powerful tool for classifying images in a time series, such as the developmental stages of embryos. We built a classifier using only bright-field microscopy images to infer nematode embryonic stages at high throughput.
Prachee Avasthi, Brae M. Bigge, Feridun Mert Celebi, Keith Cheveralls, Jase Gehring, Erin McGeever, Gilad Mishne, Atanas Radkov, and 1 more
BB
KC
RD
+14
Published: Sep 29, 2023
The ProteinCartography pipeline identifies proteins related to a query protein using sequence- and structure-based searches, compares all protein structures, and creates a navigable map that can be used to look at protein relationships and make hypotheses about function.
Adair L. Borges, Seemay Chou, Ilya Kolb, Ryan Lane, David G. Mets, and Kira E. Poskanzer
KC
SC
IK
+4
Published: Jul 26, 2024
Sensory disorders are clinically common, debilitating conditions. But mouse behavioral models are often insufficient. We demonstrate that label-free, minimally-invasive brain imaging in mice could be a promising avenue for sensory research or drug discovery efforts.
Adair L. Borges, Feridun Mert Celebi, Keith Cheveralls, and Taylor Reiter
KC
GM
+1
Published: Aug 08, 2024
We explored the use of embeddings from protein language models to distinguish between genuine and putative coding open reading frames (ORFs). We found that an embeddings-based approach (shared as a small Python package called plm-utils) improves identification of short ORFs.
Adair L. Borges, Feridun Mert Celebi, Keith Cheveralls, Seemay Chou, Taylor Reiter, and Emily C.P. Weiss
KC
SC
+2
Published: Aug 08, 2024
Peptigate predicts bioactive peptides from transcriptomes. It integrates existing tools to predict sORF-encoded peptides, cleavage peptides, and RiPPs, then annotates them for bioactivity and other properties. We welcome feedback on expanding its capabilities.
Live imaging of swimming cells can yield insight into an organism’s viability and responses to environmental stimuli. We developed a microscopy workflow and image analysis pipeline, SwimTracker, to track motility phenotypes from swimming cells in high throughput.