HealthStopping Inflammation Before It Becomes Cancer

Stopping Inflammation Before It Becomes Cancer

For millions living with inflammatory bowel disease, hope just got a lot more specific—and a lot more powerful.

Key Points at a Glance
  • Charité researchers uncover key inflammatory pathway driving gut disease and cancer
  • Oncostatin M and interleukin-22 act in tandem to fuel chronic inflammation
  • Targeting this interaction may prevent complications like colorectal cancer
  • A clinical trial is already underway to test a new targeted antibody therapy

Inflammatory bowel diseases like Crohn’s and ulcerative colitis don’t just steal comfort—they steal years, often starting in young adulthood. While current treatments can suppress symptoms, many patients still endure flare-ups, uncertainty, and the looming threat of cancer. But new research from Charité – Universitätsmedizin Berlin suggests that the tide may be turning.

A team led by Prof. Ahmed Hegazy has identified a dangerous alliance between two immune messengers—interleukin-22 (IL-22) and oncostatin M (OSM)—that not only fuels chronic inflammation but also helps set the stage for colorectal cancer. Blocking this biochemical handshake, they discovered, may not just ease symptoms but interrupt the entire inflammatory cascade. The findings, published in Nature Immunology, could change how we prevent complications in high-risk patients.

“We see many young patients just starting their adult lives, and we’ve often been powerless to stop disease progression,” says Hegazy. “But this new mechanism helps us understand why some cases become more aggressive and resistant to treatment.”

In a series of patient tissue analyses and animal models, Hegazy’s team found that oncostatin M, previously known to drive inflammation, becomes particularly dangerous when interleukin-22 boosts the number of OSM receptors on gut lining cells. This biochemical escalation draws even more immune cells into the intestines, fueling the equivalent of an internal wildfire. The same mechanism was found active in tissue surrounding colon tumors in patients with long-standing IBD.

But here’s the breakthrough: by blocking the OSM receptors, researchers were able to sharply reduce inflammation—and lower cancer risk—in their experimental models. That blocking agent? A targeted antibody now being tested in human trials.

“This isn’t just another immune suppressant,” explains co-author Prof. Britta Siegmund. “It’s precision medicine for patients who need it most—those whose biology sets them up for more severe disease and cancer.”

Up to now, patients with high levels of oncostatin M often failed to respond to existing therapies. That makes OSM a compelling biomarker—not just for tracking disease but for guiding treatment choices. Instead of a one-size-fits-all approach, clinicians could soon tailor care based on each patient’s molecular profile.

While not all chronic inflammation leads to cancer, and not every patient has the same risk, the discovery helps demystify why some cases turn malignant while others don’t. It also opens a new frontier in IBD care: interception. Not just reacting to inflammation, but halting it before it crosses a critical line.

With a clinical trial already underway and support from the European Commission and Genentech, this research is speeding toward real-world impact. For patients caught in the cycle of flare-ups and fear, it may offer something that’s long been in short supply: clarity, control—and a safer future.


Source: Charité – Universitätsmedizin Berlin

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Sophia Hayes
Sophia Hayes
An empathetic editor with a passion for health and technology. Blends data precision with care for the reader.

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