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The immune system's guard against cancer

Scientists discovered that beta-interferon inhibits tumor growth by blocking its connection to the blood circulatory system and reducing the production of growth factors. This effect was seen in mice where tumors grew slower and formed fewer metastases, highlighting a new potential target for cancer therapy.

SourceHelmholtz Association·JournalJournal of Clinical Investigation·DateApr 6, 2010

Shutting out soft tissue cancers in the cold

Researchers developed percutaneous soft tissue cryotherapy as an effective treatment for cancer that has metastasized in soft tissues and bones. The procedure resulted in an average of 77% tumor shrinkage in patients after 24 months, with preserved fibrous or collagenous structures promoting better healing.

SourceSociety of Interventional Radiology·JournalJournal of Vascular and Interventional Radiology·DateMar 16, 2010

A golden bullet for cancer

Researchers at Washington University in St. Louis have developed gold nanocages that selectively accumulate in tumors and convert laser light to heat, killing malignant cells. The treatment avoids warm surrounding tissue, making it a promising approach for cancer therapy.

Articles highlight challenges, progress in nervous system cancers

Recent clinical and scientific advancements in nervous system cancers have improved our understanding of molecular changes and new therapies for patients. The March issue of Archives of Neurology features articles on various topics, including increased melanoma risk among Parkinson's disease patients and new insights into glioma risk.

SourceJAMA Network·JournalArchives of Neurology·DateMar 8, 2010

In cancer-ridden rats, loneliness can kill

Research at Yale University and the University of Chicago found that socially isolated female rats developed more tumors and more malignant types than their group-living counterparts. The study suggests a link between social isolation and cancer susceptibility, particularly in psychiatric disorders.

SourceYale University·JournalProceedings of the National Academy of Sciences·DateDec 7, 2009

Tumors feel the deadly sting of nanobees

Nanobees, nano-sized spheres carrying the toxic melittin from bee venom, successfully delivered and killed tumor cells in mice. By targeting cancerous tissue with precision, nanobees showed promise in treating established and early-stage cancers.

SourceWashU Medicine·JournalJournal of Clinical Investigation·DateAug 10, 2009

Mice with skin condition help scientists understand tumor growth

Researchers engineered mice with a persistent wound-like skin condition to study tumor growth. The study found that chronic skin wounds promote skin tumors by secreting molecules that activate dermal cells and increase inflammation. Notch1 signaling plays a critical role in this process, suggesting potential complications for drug design.

SourceWashU Medicine·JournalCancer Cell·DateJul 6, 2009

Wildlife faces cancer threat

A recent study by the Wildlife Conservation Society finds that cancer is a major threat to wild animal populations, with certain species at risk of extinction due to contagious cancers and pollution. The study highlights the need for increased health monitoring and resource allocation to safeguard animals and humans.

SourceWildlife Conservation Society·JournalNature Reviews Cancer·DateJun 24, 2009

JCI online early table of contents: Nov. 6, 2008

Researchers have developed approaches to visualize eosinophils in real-time, which may help diagnose asthma and assess treatment efficacy. Additionally, genetic defects underlying two kidney conditions and a type of liver cancer have been identified, suggesting potential therapeutic targets for these diseases.

SourceJCI Journals·JournalJournal of Clinical Investigation·DateNov 6, 2008

Substance tackles skin cancer from 2 sides

Researchers develop a novel designer molecule that targets malignant melanoma cells using two different routes: triggering the immune system to attack and switching off a specific gene, driving cancer cells to suicide. Initial experiments in mouse models show significant inhibition of metastasis growth and tumor shrinkage.

SourceUniversity of Bonn·JournalNature Medicine·DateNov 2, 2008

Pitt research indicates new virus is culprit, not bystander, in deadly skin cancer

Researchers at the University of Pittsburgh have found that a virus, Merkel cell polyomavirus (MCV), is the cause of Merkel cell carcinoma, an aggressive form of skin cancer. The virus infects normal cells before they turn into cancer cells, and its replication can lead to the death of cancer cells.

SourceUniversity of Pittsburgh Schools of the Health Sciences·JournalProceedings of the National Academy of Sciences·DateSep 22, 2008

Genome-wide survey nets key melanoma gene

Researchers identified a protein, insulin-like growth factor binding protein 7 (IGFBP7), that regulates melanocytes' decision to ward off cancer by entering a programmed hibernation or committing suicide. This discovery offers new hope for treating deadly melanoma by harnessing the body's natural defense pathway.

A classic method for modeling skin cancer is featured in Cold Spring Harbor Protocols

Researchers have developed a protocol for generating mice with squamous cell carcinoma, allowing them to study the disease in a controlled environment. The method involves injecting mice with DMBA and TPA, leading to tumor formation and enabling scientists to examine the role of the immune system in susceptibility to skin cancer.

SourceCold Spring Harbor Laboratory·JournalCold Spring Harbor Protocols·DateSep 4, 2007

Gene signature spells poor outcome

Researchers at Johns Hopkins Kimmel Cancer Center have identified a genetic signature associated with aggressive melanomas. The study found that certain genes are linked to an aggressive profile, which could be used to predict patient outcomes and develop tailored therapies.

SourceJohns Hopkins Medicine·JournalPLOS ONE·DateAug 30, 2007