Pancreatic Cancer Clinical Trials & Research

MSK is a major research institution. During your treatment for pancreatic cancer, your care team may ask if you want to join a clinical trial.

What is a clinical trial?

Clinical trials are research studies that test new treatments, procedures, or devices to see how well they work. They are an important part of helping to prevent, treat, and cure cancer. Almost every cancer treatment given to patients was first tested during a clinical trial.

MSK tests new treatments for pancreatic cancer. Treatment trials test new drugs, drug combinations, devices, and ways of doing procedures, surgery, or radiation therapy.

Sometimes a clinical trial gives you access to new therapies that are not yet available at most hospitals. Talk with your doctor about whether joining a clinical trial is right for you.

Clinical trials are designed to answer questions about:

  • Safety
  • Benefits
  • Side effects
  • Whether some people are helped more than others

MSK will start a clinical trial only if our researchers think we can improve methods for cancer:

  • Prevention
  • Treatment
  • Diagnosis
  • Screening

For more information, please read Clinical Trials at MSK: What You Need to Know

How MSK is researching new pancreatic cancer treatments  

We’re researching using new immunotherapy treatments for pancreatic cancer after surgery, and for metastatic pancreatic cancer. Our clinical trials are showing promise for using immunotherapy to treat advanced pancreatic cancer. 

One trial explores using 2 drugs to boost the immune system as an alternative to chemotherapy. Another trial explores immunotherapy for pancreatic tumors that were removed by surgery and have mutations in the KRAS or NRAS genes. 

Here are other ways MSK is exploring new treatments for pancreatic cancer:

  • An MSK clinical trial is testing a vaccine using messenger RNA along with another type of immunotherapy. We’re one of a few hospitals testing this treatment for pancreatic cancer.   
  • Biomarkers are measurable materials, such as proteins and genes. We’re exploring biomarkers that help us tell the difference between benign (not cancer) and precancerous lesions in the pancreas. We’re also evaluating whether biomarkers can tell us which treatment is best. For example, a biomarker may tell us which type of chemotherapy is best for you. 
  • We’re testing whether we can use pancreatic cancer stem cells to predict which chemotherapy treatments will be best for you. 
  • For localized tumors we may be able to operate on, we’re evaluating a new order for treatments. For example, we’re looking at a total neoadjuvant therapy (TNT) approach.
  • We’re working on targeted therapies, including using a class of drugs called PARP inhibitors. They’re for people at higher genetic risk for pancreatic cancer.
  • We’re evaluating a new targeted therapy, zolbetuximab. It’s for people who have a substance called claudin 18.2 on the surface of their tumor cells.
  • We’re evaluating new treatments for pancreatic cancers related to BRCA1/2 and PALB2 genes.
  • We’re evaluating new maintenance treatments for pancreatic cancer. Maintenance therapy can help after cancer symptoms respond to therapy. 
  • Through our Pancreatic Tumor Registry, we study environmental and inherited risk factors for pancreatic cancer. Many people who join this study are living with pancreatic cancer or have family members who had it. 

Our experts can talk with you about which clinical trial is right for you. Here are some of our new clinical trials:  

You can see a current listing of MSK’s clinical trials for pancreatic cancer below.

and/or
27 Clinical Trials found
Researchers are finding the best dose of ASP2138 to use in people with advanced digestive cancers. The people in this study have cancer of the pancreas, stomach (gastric cancer), or junction between the esophagus and stomach (gastroesophageal junction cancer). In addition, their cancers make a protein called CLDN 18.2 and keep growing even after treatment.
Researchers want to find the highest dose of ERAS-0015 that can be given safely in people with advanced solid tumors. The people in this study have cancer that has metastasized (spread) and has a mutation in the RAS gene.
Researchers want to find the best dose of INCB161734 to use in people with advanced cancer. The people in this study have solid tumors that have spread. In addition, their cancers have a genetic mutation (change) called KRAS G12D.
Researchers want to find the best dose of LY3962673 that can be used safely in people with advanced solid tumors. The people in this study have tumors that have metastasized (spread) or are inoperable (cannot be taken out with surgery). They include people with colorectal cancer, non-small cell lung cancer, and pancreatic cancer.
Researchers want to find the best dose of LY4066434 when given alone and with other drugs to treat solid tumors. The people in this study have cancer that has spread (advanced) or cannot be removed with surgery (inoperable). These include colorectal cancer, non-small cell lung cancer (NSCLC), pancreatic cancer, and other solid tumors.
Researchers want to find the best dose of LY4170156 to treat people with solid tumors. The people in this study have solid tumors that keep growing even after treatment. Their tumors also make a protein called FRA, which plays a role in cancer growth. The tumors treated in this study include:
Researchers want to find the best doses of MOMA-313 alone and with olaparib in people with cancer. The people in this study have advanced castration-resistant prostate cancer (CRPC) or pancreatic cancer. CRPC is prostate cancer that has spread and keeps growing even in the absence of hormones. Their cancers also have a genetic change called HR deficiency.
Researchers want to find the best dose of NT-175 in people with advanced solid tumors. The people in this study have cancers that are inoperable (cannot be surgically removed) or metastatic (have spread). The types of tumors include:
BNT326 is a type of drug called an antibody-drug conjugate (ADC). ADCs are made of a monoclonal antibody linked to a drug. The antibody binds to a protein on cancer cells called HER3, which plays a role in cancer cell growth. It then releases the anti-cancer drug to kill the cancer cell. By destroying these cells, BNT326 may help slow or stop the growth of your cancer. It is given intravenously (by vein).