Researchers have developed dissolving microneedle patches that deliver living ‘biofertilizer’ directly into plant tissue. Choy Sum and Kale grew faster while using over 15 % less biofertilizer than standard soil inoculation.

Experts at Northwestern University have developed the NIH Toolbox, a new tool which offers the newest nationally standardized assessment of cognitive, language, motor and social-emotional skill development in infants aged 16 days to 42 months.

By combining both 3D bioprinting and AI, researchers have been able to address key challenges in dental procedures more effectively such as repairing gum defects caused by periodontal disease or complications from dental implants.

A research team from TU Graz and the Vellore Institute of Technology in India is developing a 3D-printed skin imitation equipped with living cells in order to test nanoparticles from cosmetics without animal testing.

A soft artificial muscle has been developed by Northwestern University engineers wherein it provides the performance and mechanical properties required for building robotic musculoskeletal systems.

Researchers have revealed an innovative and revolutionary recipe for producing electrically conductive plastic in a cost-effective way and without the use of dangerous chemicals.

A new screening tool has been developed by researchers which has the potential to increase the number of tests on a solid tumor sample by up to 50 times. The tool is specifically designed for testing at scale the latest immunotherapies.

Researchers at Linköping University have created a groundbreaking soft, shape-shifting battery using fluid electrodes. Made from sustainable materials like lignin and conductive polymers, this flexible power source could revolutionize everything from wearable tech to soft robotics.

What if 3D printing could be faster, more efficient, and more precise — all thanks to holograms? Researchers at EPFL and SDU have developed a groundbreaking technique that uses 3D holographic projections to dramatically improve tomographic volumetric additive manufacturing (TVAM).

Scientists have developed the first perovskite-based detector that has the capacity to capture individual gamma rays for Spect imaging with record-breaking precision. The new innovative solution also has the potential to make common types of nuclear medicine imaging sharper, faster, cheaper and safer.