UCLA Health study demonstrates significant impact of genetic diagnostics on treatment decisions and specialist referrals in complex neurodevelopmental cases, pointing towards more personalised medical approaches.
New research from the University of Nottingham demonstrates significant psychological and physiological impacts of digital technology intensity in modern workplaces, with implications for occupational health.
Early-onset colorectal cancer incidence rates are increasing in more than half of the countries studied worldwide, with the steepest rises seen in New Zealand, Chile, and Puerto Rico, according to comprehensive new research published in The Lancet Oncology [1].
A groundbreaking RNA-based technology allows therapeutic genes that are too large for conventional delivery methods to be successfully transported into cells, offering new hope for treating muscular dystrophies and other genetic disorders caused by mutations in large genes.
South Korean researchers have developed a soft, adhesive brain sensor that could significantly improve the effectiveness of ultrasound-based epilepsy treatments by enabling accurate, real-time monitoring of brain activity during stimulation.
Scientists have developed a revolutionary optical imaging technique that provides unprecedented views of blood vessels in the living brain, offering new ways to study neurological conditions like stroke and Alzheimer’s disease.
MIT and Novo Nordisk researchers have developed an ingestible capsule system that could enable oral delivery of medications typically requiring injection, such as insulin and therapeutic proteins. The needle-free device uses a biomimetic jet propulsion mechanism inspired by cephalopod physiology.
Researchers at the University of Nottingham have developed a new approach to create regenerative materials using patients’ own blood, combined with synthetic peptides, demonstrating successful bone repair in animal studies.
South Korean researchers have developed a soft, adhesive brain sensor that could significantly improve the effectiveness of ultrasound-based epilepsy treatments by enabling accurate, real-time monitoring of brain activity during stimulation.
A new imaging system developed at Cornell University enables simultaneous visualisation of large-scale neural networks at single-cell resolution, combining deep tissue penetration with expansive field of view capabilities.
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