The fight against climate change relies heavily on finding better ways to capture carbon dioxide before it escapes into our atmosphere. While carbon nanotubes have long been seen as a "wonder material" for this task, their internal structures are often locked away like a closed pipe. Now, a research team from the Skolkovo Institute of Science and Technology (Skoltech) has pioneered a deceptively simple way to pop those caps open and supercharge their adsorption capacity.

A preclinical study published in Nature has found evidence that the hippocampus, the brain region that stores memory, also reorganizes memories to anticipate future outcomes.

The findings, from researchers at the Brandon Lab at McGill University and their collaborators at Harvard University, reveal a learning process that had not been directly observed before.

Researchers from Drexel University who discovered a versatile type of two-dimensional conductive nanomaterial, called a MXene, nearly a decade and a half ago, have now reported on a process for producing its one-dimensional cousin: the MXene nanoscroll. The group posits that these materials, which are 100 times thinner than human hair yet more conductive than their two-dimensional counterparts, could be used to improve the performance of energy storage devices, biosensors and wearable technology.

With cardiovascular disease remaining the leading cause of death in the United States, this Heart Month (February), FIU is establishing an interdisciplinary center designed to accelerate breakthroughs in heart disease research, education, and innovation.

Backed by an $11.7 million investment from the Florida Heart Research Foundation, the FIU-Florida Heart Research Foundation Center for Innovation in Cardiovascular Health brings together experts in biomedical engineering, medicine, artificial intelligence, computer science, public health, nursing, and the biological sciences. The goal: uncover the fundamental drivers of cardiovascular disease and translate discoveries into improved patient outcomes across Florida and beyond.

UBC Okanagan researchers have advanced their work on developing a non-invasive, accessible way to reduce uncontrolled hand tremors.

In a newly published study, the team has demonstrated how a new wearable device may reduce involuntary hand tremors linked with neurological conditions such as Parkinson’s disease.

Hand tremors affect millions of people worldwide and can interfere with everyday activities such as eating, writing and personal care, explains Dr. Hadi Mohammadi, Professor in UBCO’s School of Engineering. Current treatments often involve medication or surgery, while existing wearable devices can be costly, bulky or cause unwanted side effects.