Ahmet Bingol

Development of a hybrid NMR/MS approach for rapid and accurate identification of metabolites in 1D 1H NMR and ESI MS1 spectra of complex metabolite mixtures

Lead Institution

Environmental Molecular Sciences Laboratory

Principal Investigator

Ahmet Bingol

Hybrid NMR/MS approaches significantly increase accuracy of metabolite identification as compared to the analysis of NMR or MS spectrum alone. We recently developed a hybrid NMR/MS approach, namely…

Deciphering Microbial Communication Through Metabolites

Lead Institution

Pacific Northwest National Laboratory

Principal Investigator

Thomas Metz

This project will establish a Metabolomics Center at PNNL that will develop the advanced measurement capabilities necessary to define the metabolic processes of microbiomes and determine how these…

Development of high-throughput metabolomics technologies: Application to studying the flowering time in Arabidopsis thaliana

Lead Institution

Environmental Molecular Sciences Laboratory

Principal Investigator

David Hoyt

The future trajectory of metabolomics and its applications largely depends on the analytical capabilities of NMR and MS and their combination. Although the use of both NMR and MS methods is…

Molecular Phenotyping of Brachypodium to Provide Metabolic and Functional Linkages to the Plant-Atmosphere-Soil-Systems (iPASS) Model

Lead Institution

Pacific Northwest National Laboratory

Principal Investigator

Kim Hixson

This proposal aims to provide the fundamental molecular characterization necessary to develop a model which ultimately links phenotypic measurements to the atmospheric processes and soil…

EMSL Science Overview

Ahmet Bingol

Projects

Development of a hybrid NMR/MS approach for rapid and accurate identification of metabolites in 1D 1H NMR and ESI MS1 spectra of complex metabolite mixtures

Deciphering Microbial Communication Through Metabolites

Development of high-throughput metabolomics technologies: Application to studying the flowering time in Arabidopsis thaliana

Molecular Phenotyping of Brachypodium to Provide Metabolic and Functional Linkages to the Plant-Atmosphere-Soil-Systems (iPASS) Model