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Cancer awareness autumn

Liver cancer: From diagnosis to personalized treatment 

A well-functioning liver is of vital importance. Its varied functions include supplying the brain with glucose, filtering toxins out of the blood, producing proteins, and much more. Learn about interesting facts, diagnosis, and therapy options.

Facts & figuresDiagnosisTherapy options

Facts & figures

A healthy liver is able to perform its normal functions effectively, for example aiding digestion and breaking down harmful drugs and poisons. Continuous inflammation of the liver can lead to fibrosis – a formation of scar tissue within the liver. And extensive scarring can block the flow of blood through the liver and cause liver function to deteriorate over time. This is called cirrhosis and may eventually lead to hepatocellular carcinoma (HCC). 


Several types of cancer can form in the liver. The most common type of liver cancer is hepatocellular carcinoma (HCC), which begins in the main type of liver cell (hepatocyte). Other types of liver cancer, such as intrahepatic cholangiocarcinoma and hepatoblastoma, are much less common.

Infographic on liver disease causes

A silent killer

Diagnosis

Liver disease can be diagnosed in various ways. As the scar tissue accumulates, the liver loses some of its elasticity and becomes stiffer. An elastography or ELF test can help diagnose and monitor liver disease or damage.

The ELF test 

A blood sample is taken. Three important serum markers can be detected with an automated analyzer and the risk of disease progression can be derived from these.
An illustration showing how a blood sample is taken from a right arm vein access.

Elastography

A probe emits a mechanical pulse toward the liver. An integrated ultrasound transducer measures the velocity of the pulse wave between two points. The less elastic the liver tissue, the faster the pulse propagates through the liver.

An illustration shows how a probe emits a mechanical pulse towards the liver.

Biopsy

A tissue sample is taken from the liver with a cannula. The sample is then examined for scar tissue under a microscope.
An illustration shows how a tissue sample is taken from the liver with a cannula.
Infografik showing portfolio for liver cancer pathway from early detection over treatment to follow-up

Early diagnosis can prevent devastating consequences

Like many patients, Tony Villiotti had never heard of non-alcoholic fatty liver disease (NAFLD) when his doctor first told him about this increasingly common condition. But after developing liver cancer and finally undergoing a liver transplant, he founded a non-profit organization known as NASH kNOWledge to raise awareness of the importance of early diagnosis.

Tony Viliotti talking about his diagnosis of non-acoholic fatty liver disease

Early detection is invaluable, […]. That’s the single biggest thing a patient can do. If you’re aware of it early, you can take action early and hopefully stop the progression.

Tony Villiotti, liver cancer survivor, Founder of NASH kNOWledge

Imaging modalities for liver monitoring

Cinematic Rendering of the liver based on monoenergetic images

Computed tomography imaging for liver cancer monitoring

Therapy options

A surgeon is preparing for needle resection of a liver tumor

Surgery

Liver resection is the gold standard for radical treatment of liver metastases and in many cases the main treatment of primary tumors. Making full use of our imaging systems, the image-guided surgery maximizes the amount of healthy liver left behind while ensuring adequate oncological margins. This potentially increases the number of patients who can be treated.
A thin, needle-like probe is inserted into the tumor through the skin.

Radiofrequency ablation 

Radiofrequency ablation is one of the most common ablation methods for small tumors, mainly of the liver. It uses high-energy radio waves. The clinician inserts a thin, needle-like probe into the tumor through the skin. A high-frequency current is then passed through the tip of the probe, which heats the tumor and destroys the cancer cells. It can be applied as an alternative to surgery or in addition to surgery, chemotherapy, embolization, or radiation therapy.

Predefined color coding facilitates finding the optimal treatment position for each tumor nodule.

Embolization

Embolization combines the effects of regional chemotherapy with those of ischemic necrosis induced by arterial embolization. It takes advantage of the fact that the perfusion of hepatocellular carcinomas (HCC) and liver metastases from other types of cancer is mostly through hepatic arteries, allowing interventional radiologists to selectively deliver anti-tumor substances through the arteries.

Radiation oncology image showing colour-coded organs at risk

Radiation therapy 

Radiation therapy is a treatment that uses ionizing radiation to either kill malignant cancer cells or at least control their growth. The most common type of radiation therapy is external-beam radiation therapy that is normally delivered using a linear accelerator. The aim of radiation therapy is to treat cancer without damaging healthy cells as much as possible. It can be used in combination with other cancer treatments, such as chemotherapy or surgery.

Super selective and comprehensive chemoembolization

We should never forget about the quality of life of our patients."

Bernhard Meyer, MD, Head of Interventional Radiology, Hannover Medical School, Hannover, Germany

Digital twin: Modeling the human liver

Picture of Chloé Audigier

I think it’s very rewarding to try and apply science to build solutions that could help patients live longer and healthier lives.

Chloé Audigier, Senior AI Research Scientist at Siemens Healthineers

Digital twins in cancer care
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Digital twins in cancer care
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Find out how digital twins could transform the entire cancer care path – from early detection to treatment and follow-up care. You’ll also learn how a digital twin of an organ is created. And you’ll hear what digital twin technology could mean for patients, clinicians, and the future of oncology.
  1. The concepts and information presented here are based on research results that are not commercially available. Further commercial availability cannot be guaranteed.

  2. The statements by customers of Siemens Healthineers described herein are based on results that were achieved in the customer’s unique setting. Since there is no “typical” hospital and many variables exist (e.g., hospital size, case mix, level of IT adoption) there can be no guarantee that other customers will achieve the same results.