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Odd one out: protein goes against the family to prevent cancer
23 April 2018
Melbourne researchers have made the surprise discovery that the ‘odd one out’ in a family of proteins known to drive cancer development is instead critical for preventing stomach cancers.
The research team showed switching off a gene called NF-κB1 caused spontaneous development of stomach cancers, driven by chronic inflammation. The study also revealed that immunotherapy may prove to be a significant tool for treating stomach cancers that are driven by runaway inflammation, warranting further investigation.
At a glance
- Around 2000 cases of stomach cancer are diagnosed in Australia each year, affecting nearly twice as many men as women.
- The study showed switching off a gene called NF-κB1 led to spontaneous development of stomach cancer caused by chronic inflammation.
- Researchers discovered the stomach tumours had ‘markers’ that identified they may respond to ‘immune checkpoint inhibitor’ cancer immunotherapies.
with dividing cells shown in green.
Image: Jun Low/Walter and Eliza Hall Institute.
Dr Lorraine O’Reilly, Dr Tracy Putoczki and Professor Andreas Strasser from the Walter and Eliza Hall Institute, with Professor Steve Gerondakis from Monash University, led the research, published in the journal Immunity.
Surprise discovery
Stomach (gastric) cancers are relatively common in Australia, with around 2000 cases diagnosed each year. Twice as many men are affected as women and the disease is often not diagnosed until an advanced stage. Many stomach cancers develop as a result of uncontrolled inflammation over many years.
Dr O’Reilly said the finding was unexpected because previous research had shown that high – not low – levels of activity of other NF-κB family members were drivers of stomach and other cancers.
“Until now, it was thought that abnormally increased activity and levels of any of the members of the NF-kB family was linked to cancer,” she said.
“Now, for the first time, we’ve identified NF-kB1 is the ‘odd one out’ in the family because abnormally low expression – or ‘loss’ – of this family member actually causes the development of spontaneous stomach cancers.
"We found that defects that led to lower than normal levels of NF-kB1 kick-started uncontrolled inflammation in the stomach and, over the long-term, led to invasive stomach cancers.”
The findings have ramifications for the understanding and treatment of human cancers.
“It is well established that long-term inflammation can lead to stomach cancer in humans. The cellular processes that we have identified in this study as being important for the development of stomach cancer provide new targets for therapy that have not been explored before,” Dr O’Reilly said.
Immunotherapy hope
Dr Putoczki said the preclinical model would be very useful for testing new treatment options, such as immunotherapy.
“Stomach cancer is a disease where immunotherapy is still in its infancy. This is the first preclinical model of stomach cancer that repeats the pattern of human stomach cancer development, that involves progression from chronic stomach inflammation through to fully invasive cancer,” Dr Putoczki said.
“We showed that there are markers on these stomach tumour cells that indicate they would be responsive to a type of immunotherapy called immune checkpoint inhibitors, in particular anti-PDL1 immunotherapy, which is already used with great success in the treatment of melanoma and certain other cancers.
"Not only does this research provide compelling evidence for further investigation of immunotherapy for treating stomach cancer, it also provides the first model for preclinical testing of these treatments.”
The research was supported by Cancer Australia, Cancer Council NSW, Dyson Bequest Centenary Fellowship, Australian National Health and Medical Research Council, Victorian Cancer Agency and the Victorian Government.
The Walter and Eliza Hall Institute is the research powerhouse of the Victorian Comprehensive Cancer Centre, an alliance of leading Victorian hospitals and research centres committed to controlling cancer.
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