Predicting and Overcoming Resistance Using IsoPlexis' Single-Cell Intracellular Proteomic and Metabolomic Analysis Tools

Cancer cells develop resistance to targeted therapies, and their inherent functional heterogeneity makes it difficult for researchers to understand and characterize these resistance mechanisms. IsoPlexis' single-cell proteomics is helping researchers overcome resistance to targeted inhibitors, leading to better strategies and combination therapies.

Written byIsoPlexis
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Abig challenge in the field is that cancer cells develop resistance to targeted therapies, and researchers are striving to understand and characterize how these cancer cells are adapting in response to these therapies. However, the inherent functional heterogeneity in cancer cells makes this challenging. This heterogeneity complicates translating data from genetic profiles or responses into associated functional behaviors or phenotypes. Although cancer cells have been characterized at the genetic and genomic levels, the functional mechanisms impacting protein-driven functional behaviors and activities can only be revealed through singlecell proteomics. IsoPlexis' single-cell proteomics has helped researchers overcome resistance to targeted inhibitors, leading to better strategies and combination therapies.

Single-cell intracellular proteomics and single-cell metabolomics combine to characterize drug resistance in melanoma cells

The constant adaptation of cancer cells poses a great challenge for developing drug-based treatments, as cells that initially respond can quickly adopt drug-resistant states. IsoPlexis’ single-cell proteomics and multiomic technologies ...

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