Bridged bicyclic compounds: Comprehending a novel compound class as potential anti-seizure agents

  • Samantha E. Stilley
  • , Akshay S. Naraine
  • , Krishna P. Yadavalli
  • , Samantha L. Maki
  • , Elyse M. Jutte
  • , Jared M. Kahn
  • , Alexis A. Surtel
  • , Salvatore D. Lepore
  • , Ken Dawson-Scully

Research output: Contribution to journalArticlepeer-review

Abstract

Objective: In the present study, we describe a novel class of small-molecule synthetic compounds that ameliorate seizure-like behavior, using an electroshock assay to examine seizure duration in Caenorhabditis elegans. We also examine the hypothesis that these compounds, which we have called resveramorphs (RVMs), act by an irreversible binding mechanism. Methods: Our electroshock assay examines seizure duration in C. elegans and can be used as a drug-screening platform for the identification of novel anti-seizure agents. The use of C. elegans allows for a rapid and efficient method of drug screening that may take years in other higher-order model organisms. A novel wash method, paired with our electroshock assay, allows us to discern differences in biological activity when the C. elegans are incubated in different drug solutions, to establish whether these compounds can be “washed” off. Results: One of the RVMs (RVM-3), reported here for the first time, was found to be potent at picomolar concentrations. Insights also provided information on the potential mechanisms of action of this compound. Covalent binding is thought to provide a strong irreversible bond because of a change in structure between two of the novel RVMs described in this work. This was also discerned through the novel wash method paired with our electroshock assay. Significance: RVM-3 was evaluated using our assay and found to possess anti-seizure activity at picomolar concentrations. These insights also provide information on the potential mechanisms of action of these compounds, which may include covalent binding. This was also discerned through a novel wash method paired with our electroshock assay.

Original languageEnglish
Pages (from-to)2958-2967
Number of pages10
JournalEpilepsia
Volume64
Issue number11
DOIs
StatePublished - Nov 2023

Bibliographical note

Publisher Copyright:
© 2023 International League Against Epilepsy.

Funding

FundersFunder number
National Institute of General Medical SciencesGM110651

    ASJC Scopus Subject Areas

    • Neurology
    • Clinical Neurology

    Keywords

    • antiepileptic drug
    • covalent inhibition
    • drug discovery
    • electroshock
    • neuropharmacology

    Disciplines

    • Medical Neurobiology
    • Neurology

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