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Despite powering countless everyday devices, lithium-ion batteries remain highly flammable. A team of researchers is harnessing AI and high-throughput automated experiments to accelerate the development of safer batteries.

Scientists have figured out a new way to use living cells as tiny factories for building a specific protein. The results could inform how biological materials engineered to treat disease can be disseminated in the human body.

Johns Hopkins researchers have developed a precise and scalable way to create ultra-thin films that could help the semiconductor industry build smaller, faster, and more efficient computer chips.

Tiny steroid particles offer a promising solution for controlled drug release, potentially easing treatment regimens.

The team aims to address dental implant biofilm and antibiotic resistance.

As demand for lithium-ion batteries, which power everything from electric vehicles to smartphones and grid-scale storage systems, increases, so too does the need for more cobalt and nickel, minerals that are essential to the batteries’ chemistry. Johns Hopkins researchers have identified electrowinning as a more sustainable way to separate and recover these metals from mined and recycled materials.

Johns Hopkins researchers have developed a new way to test for infectious diseases using everyday handheld glucometers. This innovation aims to simplify the process of measuring antibody levels, making diagnosis more accessible, particularly in places…

Johns Hopkins researchers have created organoid-encapsulating devices to deliver high-resolution 3D recordings of heart tissue activity.

Two chemical and biomolecular engineers have developed a new catalyst that could improve how ammonia is made.

The tiny metal grippers could enable doctors to spot tumors far earlier than current methods allow

By mapping the myriad cells in human organs with 3D precision, Denis Wirtz and his team are growing living human tissues in the lab.

Breakthrough method uses polymer coatings to engineer customized nanomaterials