NLM DIR Seminar Schedule
UPCOMING SEMINARS
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March 16, 2026 Janani Ravi, PhD
A bug’s life: a data integration view of microbial genotypes, phenotypes, and diseases -
March 17, 2026 Roman Kogay
Diversification vs Streamlining: Selection Landscapes of Prokaryotic Genome Evolution -
March 24, 2026 Myeongsang Lee
TBD -
March 31, 2026 Yoshitaka Inoue
TBD -
April 7, 2026 Henrry Secaira Morocho
TBD
RECENT SEMINARS
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March 10, 2026 Zhizheng Wang
Large Language Models for Gene Set Analysis -
March 5, 2026 Hasan Balci
From Sketch to SBGN: An AI-Assisted and Interactive Workflow for Generating Pathway Maps -
March 3, 2026 Gianlucca Goncalves Nicastro
Systematic identification of Salmonella T6SS effectors uncovers a lipid-targeting family. -
Feb. 24, 2026 Ajith Viswanathan Asari Pankajam
Systematic Evaluation of Gene Markers in Single-Cell Tissue Atlases -
Feb. 19, 2026 Jean Thierry-Mieg
On Magic2, an innovative hardware-friendly RNA-seq analyzer
Scheduled Seminars on Jan. 29, 2026
In-person: Building 38A/B2N14 NCBI Library or Meeting Link
Contact NLMDIRSeminarScheduling@mail.nih.gov with questions about this seminar.
Abstract:
Mass spectrometry–based proteomics enables the identification and quantification of peptides and proteins by matching observed fragmentation spectra to candidate peptides from a protein database. Incorporating computationally predicted spectra into this process can substantially improve peptide identification. While recently proposed deep learning–based spectrum prediction methods achieve high performance, they are computationally expensive and thus unsuitable for some applications. In this talk, I introduce FastSpel, a simple, accurate, and efficient peptide spectrum prediction method that achieves performance comparable to state-of-the-art deep learning–based approaches at a fraction of the computational cost. FastSpel is therefore well suited for applications that require, or benefit from, on-the-fly predictions. Moreover, unlike deep learning-based methods, FastSpel includes easily interpretable parameters and thus may provide new insights into the peptide fragmentation process.