The major reason cancer causes illness and death in patients is because cancer cells from an initial tumor can travel to lymph nodes or into the blood to spread to other organs in a process known as metastasis. The mechanisms that regulate metastasis are poorly understood. However, it is known that cancer cells encounter oxidative stress in the bloodstream that induce cancer cell death and limit the ability of cancer cells to metastasize.

Cancer cells in lymph experience less oxidative stress and undergo specific lipidomic adaptations to withstand subsequent oxidative stress in blood, rendering the lymphatics a more efficient route for the early stages of metastasis. This suggests we should develop therapies that exacerbate lipid oxidative stress experienced by cancer cells and inhibit the mechanisms cancer cells use to protect themselves from lipid reactive oxygen species.


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*ROS= Reactive oxygen species

Our goal is to leverage metabolic vulnerabilities in metastasizing cells to target and treat cancer, with a focus on exploiting lipid metabolism to sensitize cancer cells to lipid oxidation as a novel therapeutic strategy to inhibit metastasis.

Current projects address:

  • How do differences in lipid availability influence cancer metastasis?
  • What intracellular differences in lipid metabolism influence metastatic efficiency?
  • How does the metabolic environment of the lymphatic niche mediate metastasis? 

These projects will uncover novel metabolic vulnerabilities in metastasizing cancer cells that can be therapeutically targeted to suppress early-stage disease progression.