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Scientists use RNA nanotechnology to program living cells, opening a new path for cancer cure

Scientists at Rutgers University–Newark have developed a first-of-its-kind RNA-based nanotechnology that assembles itself inside living human cells and can be programmed to stop propagation of harmful cells. The findings, recently published in Nature Communications, represent a major breakthrough in biomedical research. The researchers are now in the midst of testing the technology on human cancer cells as a potential cure for the disease but have not yet finished the study or published results.

This nanostructure technology, which was tested in human cell cultures, can be used as a molecular tool for biomedical research and therapeutics. Because it can be customized, it has the versatility to target multiple detrimental genes and proteins simultaneously.

The work was led by Professor Fei Zhang of the Rutgers-Newark Department of Chemistry and Professor Jean-Pierre Etchegaray of the Department of Biological Sciences at Rutgers-Newark, along with an interdisciplinary team of researchers.

Most Preventable Cancers Are Linked to Just Two Lifestyle Habits

A new analysis identified several ways that we can reduce the odds of cancer occurring.


It’s easy to feel powerless against cancer, but a new study has identified several ways that we can reduce the odds of it occurring.

According to new analysis from the World Health Organization (WHO), more than a third of all cancer cases globally are preventable.

Lung, stomach, and cervical cancers make up nearly half of those cases.

Nanoengineered extrusion-aligned tract bioprinting enables functional repair of spinal cord injuries

Gu et al. present NEAT, a nanoengineered extrusion-aligned tract bioprinting strategy that fabricates aligned, human neural stem cell-laden collagen hydrogel constructs through shear-induced fibrillar organization. In a rat model of complete spinal cord transection, NEAT enables axonal reconnection and functional locomotor recovery, demonstrating its translational potential for spinal cord repair and neural tissue engineering.

Tailoring Mesoporous Silica-Coated Silver Nanoparticles and Polyurethane-Doped Films for Enhanced Antimicrobial Applications

Can surface charge reversal boost AgNP efficacy? 🧫Functionalizing silica-coated silver nanoparticles with amine groups significantly enhances activity against Salmonella and E. coli in polyurethane films.

Read more.

The global increase in multidrug-resistant bacteria poses a challenge to public health and requires the development of new antibacterial materials.

Sleep disruption damages gut’s self-repair ability via stress signals from brain: A biological chain reaction

Chronic sleep disruption doesn’t just leave people tired and irritable. It may quietly undermine the gut’s ability to repair itself, increasing vulnerability to serious digestive diseases. A new study from the University of California, Irvine, the University of Chinese Academy of Sciences and the China Agricultural University reveals, step by step, how disturbed sleep causes the brain to send harmful signals to the intestines, ultimately damaging the stem cells responsible for maintaining a healthy gut lining.

The research uncovers a previously unknown biological chain reaction linking the brain’s sleep center to intestinal health. The findings are published in Cell Stem Cell and offer new insight into why people with chronic sleep problems are more likely to develop gastrointestinal disorders such as inflammatory bowel disease, diabetes-related gut complications and chronic inflammation.

Physicians have long known that irregular or insufficient sleep is associated with a wide range of health problems, from mood disorders to high blood pressure. Yet how changes in sleep can directly harm organs that do not sleep themselves, such as the intestines, has remained largely elusive. This study answers that question by tracing the damage from its neurological origins all the way to the gut’s regenerative machinery.

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