Pancreatic cancer is the fourth leading cause of all cancer deaths in the United States and the third leading cause of cancer deaths in individuals ages 40 to 60. Approximately 37,000 Americans are diagnosed with pancreatic cancer each year, and, each year, approximately the same number die from it. Often, pancreatic cancer is found too late for surgical intervention, and chemotherapy and radiation treatments have little effect.
A new study that analyzed the tumor microenvironment of pancreatic cancer revealed the cause of tumor cell resistance to immunotherapy and resulted in new treatment strategies.
It is crucial to distinguish between tumors and healthy tissues during cancer surgery. Fluorescent markers can assist in this process by improving tumor contrast during surgery.
Researchers from Rutgers Cancer Institute of New Jersey and RWJBarnabas Health investigated the microbiome of pancreatic tumors and discovered certain microbes linked to inflammation and poor survival.
Recent research from the School of Medicine has illuminated the development of the liver, lungs, and digestive system. This result may have significant ramifications for the comprehension of cancer.
The pancreas secretes around a cup of digestive juices per day—a mixture of molecules capable of breaking down the food people consume.
Combining a retrospective analysis of clinical records with in-depth laboratory studies, researchers at The University of Texas MD Anderson Cancer Center have discovered that vitamin E can enhance immunotherapy responses by stimulating the activity of dendritic cells in the tumor.
Bacteria promote cancer metastasis by bolstering the strength of host cells against mechanical stress in the bloodstream, promoting cell survival during tumor progression, researchers report April 7th in the journal Cell.
Researchers from North Carolina State University and the University of North Carolina at Chapel Hill have developed an implantable biotechnology that produces and releases CAR-T cells for attacking cancerous tumors.
Drug resistance is a major obstacle in the treatment of cancers. In an aggressive type of pancreatic cancer, for instance, drug resistance is associated with the suppression of programmed cell death, which results in the uncontrolled growth of cancer cells.
Our immune systems have the potential to find and destroy cancer cells. But cancer cells can be clever and develop tricks to evade the immune system.
Pancreatic cancer is a unique, elusive, and fatal malignancy, with only approximately a 10% five-year survival rate.
A new scientific review, published in Nutrients, highlights coffee's effects on digestion and the gut, and its impact on organs involved in digestion.
The first genome-wide ancient human DNA data from Sudan reveals new insights into the ancestry and social organization of people who lived more than 1,000 years ago in the Nile Valley, an important genetic and cultural crossroads.
Researchers generated a 3D pancreatic cancer tumor model in the lab, merging a bioengineered matrix and patient-derived cells.
Most of the cells in our bodies – be they bone, muscle or pancreas cells – are locked into the right place with the help of tiny anchors (called 'focal adhesions').
MIT engineers, in collaboration with scientists at Cancer Research UK Manchester Institute, have developed a new way to grow tiny replicas of the pancreas, using either healthy or cancerous pancreatic cells.
A new study reports the use of single-cell, force spectroscopy methods to probe biophysical and biomechanical kinetics of cancer cells.
Oncotarget published "Dynamic cellular biomechanics in responses to chemotherapeutic drug in hypoxia probed by atomic force spectroscopy" which reported that by exploiting single-cell, force spectroscopy methods, the authors probed biophysical and biomechanical kinetics of brain, breast, prostate, and pancreatic cancer cells with standard chemotherapeutic drugs in normoxia and hypoxia over 12-24 hours.
Chronic alcohol abuse and hepatitis can injure the liver and lead to fibrosis, the buildup of collagen and scar tissue. As a potential approach to treating liver fibrosis, University of California San Diego School of Medicine researchers and their collaborators are looking for ways to stop liver cells from producing collagen.
Researchers have devised a way to multiply by more than ten-fold the accessible details of gene activity in individual cells. It's a big leap in the effort to understand cancer development, brain function, immunity and other biological processes driven by the complex interactions of multitudes of different cell types.