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Cancer thwarts treatment by 'stealing' blood vessels

A new study reveals that cancer cells can adapt to treatment by actively co-opting blood vessels from nearby tissues, leading to drug resistance. The researchers hope their findings will lead to the development of new therapies targeting vessel co-option, which could be particularly effective when used alongside existing treatments.

SourceInstitute of Cancer Research·JournalJNCI Journal of the National Cancer Institute·DateApr 7, 2016

New tool mines whole-exome sequencing data to match cancer with best drug

A new tool, IMPACT, interprets whole-exome sequencing data to identify candidate genes linked to cancer and recommends FDA-approved targeted treatments. The tool has been validated in patients with EGFR-mutated non-small cell lung cancer and melanoma, showing its potential to accelerate precision medicine.

SourceUniversity of Colorado Anschutz Medical Campus·JournalJournal of the American Medical Informatics Association·DateMar 29, 2016

Microagents with revolutionary potential

Researchers have created tiny particles that can be precisely controlled by magnetic fields and generate electric fields, revolutionizing medicine and regenerative therapy. These 'Janus' particles can target cancer cells with precision and efficiency, eliminating side effects.

SourceETH Zurich·JournalMaterials Horizons·DateMar 22, 2016

New drug hope for mesothelioma

Researchers have discovered a new drug, HRX9, that targets the HOX gene family and induces apoptosis in mesothelioma cells. The study found that treatment with HRX9 resulted in complete loss of tumor blood vessels and widespread cancer cell death, offering new hope for patients.

SourceUniversity of Bradford·JournalBMC Cancer·DateMar 14, 2016

Rice scientists synthesize anti-cancer agent

Researchers at Rice University have developed a new method for synthesizing the potent anti-cancer agent trioxacarcin, which damages DNA and disrupts cancer cell replication. This breakthrough allows for more efficient production of these valuable molecules, enabling their study as potential new medications.