Publications by authors named "H S Moseley"

: Predicting the biochemical pathway involvement of a compound could facilitate the interpretation of biological and biomedical research. Prior prediction approaches have largely focused on metabolism, training machine learning models to solely predict based on metabolic pathways. However, there are many other types of pathways in cells and organisms that are of interest to biologists.

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Article Synopsis
  • Acquired resistance to cancer treatments, particularly for EGFR mutations, leads to cancer recurrence and limits treatment effectiveness, especially with drugs like osimertinib.
  • The study employs molecular dynamics simulations to analyze two specific EGFR mutants (L858R/L718Q and L858R/L792H) that resist osimertinib, compared to the wild-type EGFR.
  • Findings indicate that these secondary mutations create additional hydrogen bonds, reducing the binding target exposure for osimertinib and altering the binding affinity, which may inform future drug development strategies.
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Metabolism is a network of chemical reactions that sustain cellular life. Parts of this metabolic network are defined as metabolic pathways containing specific biochemical reactions. Products and reactants of these reactions are called metabolites, which are associated with certain human-defined metabolic pathways.

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Metabolism is the network of chemical reactions that sustain cellular life. Parts of this metabolic network are defined as metabolic pathways containing specific biochemical reactions. Products and reactants of these reactions are called metabolites, which are associated with certain human-defined metabolic pathways.

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A major limitation of most metabolomics datasets is the sparsity of pathway annotations for detected metabolites. It is common for less than half of the identified metabolites in these datasets to have a known metabolic pathway involvement. Trying to address this limitation, machine learning models have been developed to predict the association of a metabolite with a "pathway category", as defined by a metabolic knowledge base like KEGG.

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